/* * Broadcom Dongle Host Driver (DHD), Linux-specific network interface. * Basically selected code segments from usb-cdc.c and usb-rndis.c * * Copyright (C) 2021, Broadcom. * * Unless you and Broadcom execute a separate written software license * agreement governing use of this software, this software is licensed to you * under the terms of the GNU General Public License version 2 (the "GPL"), * available at http://www.broadcom.com/licenses/GPLv2.php, with the * following added to such license: * * As a special exception, the copyright holders of this software give you * permission to link this software with independent modules, and to copy and * distribute the resulting executable under terms of your choice, provided that * you also meet, for each linked independent module, the terms and conditions of * the license of that module. An independent module is a module which is not * derived from this software. The special exception does not apply to any * modifications of the software. * * * <> * * $Id$ */ #include #include #include #ifdef SHOW_LOGTRACE #include #include #endif /* SHOW_LOGTRACE */ #ifdef PCIE_FULL_DONGLE #include #endif /* PCIE_FULL_DONGLE */ #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #if defined(CONFIG_TIZEN) #include #endif /* CONFIG_TIZEN */ #include #ifdef ENABLE_ADAPTIVE_SCHED #include #endif /* ENABLE_ADAPTIVE_SCHED */ #include #include #include #include #include #include #include #include #include /* need to still support chips no longer in trunk firmware */ #include #include #include #include #include #include <802.3.h> #include #include #include #include #include #ifdef DHD_WET #include #endif /* DHD_WET */ #ifdef PCIE_FULL_DONGLE #include #endif #include #include #include #include #include #ifdef DHD_LOG_DUMP #include #endif #if defined(WL_CFG80211) #include #include #endif /* WL_CFG80211 */ #ifdef PNO_SUPPORT #include #endif #ifdef RTT_SUPPORT #include #endif #ifdef DHD_TIMESYNC #include #include #include #endif /* DHD_TIMESYNC */ #include #ifdef CONFIG_COMPAT #include #endif #ifdef DHD_WMF #include #endif /* DHD_WMF */ #ifdef DHD_L2_FILTER #include #include #include #endif /* DHD_L2_FILTER */ #ifdef DHD_PSTA #include #endif /* DHD_PSTA */ #ifdef AMPDU_VO_ENABLE /* XXX: Enabling VO AMPDU to reduce FER */ #include <802.1d.h> #endif /* AMPDU_VO_ENABLE */ #if defined(DHDTCPACK_SUPPRESS) || defined(DHDTCPSYNC_FLOOD_BLK) #include #endif /* DHDTCPACK_SUPPRESS || DHDTCPSYNC_FLOOD_BLK */ #include #ifdef DHD_PKT_LOGGING #include #endif /* DHD_PKT_LOGGING */ #ifdef DHD_4WAYM4_FAIL_DISCONNECT #include #endif /* DHD_4WAYM4_FAIL_DISCONNECT */ #ifdef DHD_DEBUG_PAGEALLOC typedef void (*page_corrupt_cb_t)(void *handle, void *addr_corrupt, size_t len); void dhd_page_corrupt_cb(void *handle, void *addr_corrupt, size_t len); extern void register_page_corrupt_cb(page_corrupt_cb_t cb, void* handle); #endif /* DHD_DEBUG_PAGEALLOC */ #ifdef ENABLE_DHD_GRO #include #endif /* ENABLE_DHD_GRO */ #define IP_PROT_RESERVED 0xFF #ifdef DHD_MQ #define MQ_MAX_QUEUES AC_COUNT #define MQ_MAX_CPUS 16 int enable_mq = TRUE; module_param(enable_mq, int, 0644); int mq_select_disable = FALSE; #endif #if defined(DHD_LB) #if !defined(PCIE_FULL_DONGLE) #error "DHD Loadbalancing only supported on PCIE_FULL_DONGLE" #endif /* !PCIE_FULL_DONGLE */ #endif /* DHD_LB */ #if defined(DHD_LB_RXP) || defined(DHD_LB_TXP) || defined(DHD_LB_STATS) #if !defined(DHD_LB) #error "DHD loadbalance derivatives are supported only if DHD_LB is defined" #endif /* !DHD_LB */ #endif /* DHD_LB_RXP || DHD_LB_TXP || DHD_LB_STATS */ #ifdef DHD_4WAYM4_FAIL_DISCONNECT static void dhd_m4_state_handler(struct work_struct * work); #endif /* DHD_4WAYM4_FAIL_DISCONNECT */ #if defined(DHD_FILE_DUMP_EVENT) && defined(DHD_FW_COREDUMP) static int dhd_wait_for_file_dump(dhd_pub_t *dhdp); #endif /* DHD_FILE_DUMP_EVENT && DHD_FW_COREDUMP */ #ifdef FIX_CPU_MIN_CLOCK #include #endif /* FIX_CPU_MIN_CLOCK */ #ifdef PROP_TXSTATUS #include #include #endif #include /* Maximum STA per radio */ #if defined(BCM_ROUTER_DHD) #define DHD_MAX_STA 128 #else #define DHD_MAX_STA 32 #endif /* BCM_ROUTER_DHD */ #if defined(IFACE_HANG_FORCE_DEV_CLOSE) && defined(HANG_DELAY_BEFORE_DEV_CLOSE) #ifndef WAIT_FOR_DEV_CLOSE_MAX #define WAIT_FOR_DEV_CLOSE_MAX 50 #endif /* WAIT_FOR_DEV_CLOSE_MAX */ #endif /* IFACE_HANG_FORCE_DEV_CLOSE && HANG_DELAY_BEFORE_DEV_CLOSE */ #if (defined(BCM_ROUTER_DHD) && defined(HNDCTF)) #include #ifdef CTFPOOL #define RXBUFPOOLSZ 2048 #define RXBUFSZ DHD_FLOWRING_RX_BUFPOST_PKTSZ /* packet data buffer size */ #endif /* CTFPOOL */ #endif /* BCM_ROUTER_DHD && HNDCTF */ #ifdef BCMDBG #include #endif /* BCMDBG */ #ifdef DHD_EVENT_LOG_FILTER #include #endif /* DHD_EVENT_LOG_FILTER */ #ifdef DHDTCPSYNC_FLOOD_BLK static void dhd_blk_tsfl_handler(struct work_struct * work); #endif /* DHDTCPSYNC_FLOOD_BLK */ #ifdef WL_NATOE #include #endif /* WL_NATOE */ #ifdef DHD_TX_PROFILE #include #include #include #include #endif /* defined(DHD_TX_PROFILE) */ #include #ifdef SET_RANDOM_MAC_SOFTAP #ifndef CONFIG_DHD_SET_RANDOM_MAC_VAL #define CONFIG_DHD_SET_RANDOM_MAC_VAL 0x001A11 #endif static u32 vendor_oui = CONFIG_DHD_SET_RANDOM_MAC_VAL; #endif /* SET_RANDOM_MAC_SOFTAP */ #if defined(BCM_ROUTER_DHD) /* * Queue budget: Minimum number of packets that a queue must be allowed to hold * to prevent starvation. */ #define DHD_QUEUE_BUDGET_DEFAULT (256) int dhd_queue_budget = DHD_QUEUE_BUDGET_DEFAULT; module_param(dhd_queue_budget, int, 0); /* * Per station pkt threshold: Sum total of all packets in the backup queues of * flowrings belonging to the station, not including packets already admitted * to flowrings. */ #define DHD_STA_THRESHOLD_DEFAULT (2048) int dhd_sta_threshold = DHD_STA_THRESHOLD_DEFAULT; module_param(dhd_sta_threshold, int, 0); /* * Per interface pkt threshold: Sum total of all packets in the backup queues of * flowrings belonging to the interface, not including packets already admitted * to flowrings. */ #define DHD_IF_THRESHOLD_DEFAULT (2048 * 32) int dhd_if_threshold = DHD_IF_THRESHOLD_DEFAULT; module_param(dhd_if_threshold, int, 0); #endif /* BCM_ROUTER_DHD */ /* XXX: where does this belong? */ /* XXX: this needs to reviewed for host OS. */ const uint8 wme_fifo2ac[] = { 0, 1, 2, 3, 1, 1 }; const uint8 prio2fifo[8] = { 1, 0, 0, 1, 2, 2, 3, 3 }; #ifdef ARP_OFFLOAD_SUPPORT void aoe_update_host_ipv4_table(dhd_pub_t *dhd_pub, u32 ipa, bool add, int idx); static int dhd_inetaddr_notifier_call(struct notifier_block *this, unsigned long event, void *ptr); static struct notifier_block dhd_inetaddr_notifier = { .notifier_call = dhd_inetaddr_notifier_call }; /* to make sure we won't register the same notifier twice, otherwise a loop is likely to be * created in the kernel notifier link list (with 'next' pointing to itself) */ static bool dhd_inetaddr_notifier_registered = FALSE; #endif /* ARP_OFFLOAD_SUPPORT */ #if defined(CONFIG_IPV6) && defined(IPV6_NDO_SUPPORT) int dhd_inet6addr_notifier_call(struct notifier_block *this, unsigned long event, void *ptr); static struct notifier_block dhd_inet6addr_notifier = { .notifier_call = dhd_inet6addr_notifier_call }; /* to make sure we won't register the same notifier twice, otherwise a loop is likely to be * created in kernel notifier link list (with 'next' pointing to itself) */ static bool dhd_inet6addr_notifier_registered = FALSE; #endif /* CONFIG_IPV6 && IPV6_NDO_SUPPORT */ #if defined(CONFIG_PM_SLEEP) #include volatile bool dhd_mmc_suspend = FALSE; DECLARE_WAIT_QUEUE_HEAD(dhd_dpc_wait); #ifdef ENABLE_WAKEUP_PKT_DUMP volatile bool dhd_mmc_wake = FALSE; long long temp_raw; #endif /* ENABLE_WAKEUP_PKT_DUMP */ #endif /* defined(CONFIG_PM_SLEEP) */ extern void dhd_enable_oob_intr(struct dhd_bus *bus, bool enable); static void dhd_hang_process(struct work_struct *work_data); MODULE_LICENSE("GPL and additional rights"); #ifdef BCMDBUS #include extern int dhd_bus_init(dhd_pub_t *dhdp, bool enforce_mutex); extern void dhd_bus_stop(struct dhd_bus *bus, bool enforce_mutex); extern void dhd_bus_unregister(void); #ifdef BCMSDIO extern bool dhd_bus_dpc(struct dhd_bus *bus); #endif /* BCMSDIO */ #else #include #endif /* BCMDBUS */ /* XXX Set up an MTU change notifier per linux/notifier.h? */ #ifndef PROP_TXSTATUS #define DBUS_RX_BUFFER_SIZE_DHD(net) (net->mtu + net->hard_header_len + dhd->pub.hdrlen) #else #define DBUS_RX_BUFFER_SIZE_DHD(net) (net->mtu + net->hard_header_len + dhd->pub.hdrlen + 128) #endif #ifdef PROP_TXSTATUS extern bool dhd_wlfc_skip_fc(void * dhdp, uint8 idx); extern void dhd_wlfc_plat_init(void *dhd); extern void dhd_wlfc_plat_deinit(void *dhd); #endif /* PROP_TXSTATUS */ #ifdef USE_DYNAMIC_F2_BLKSIZE extern uint sd_f2_blocksize; extern int dhdsdio_func_blocksize(dhd_pub_t *dhd, int function_num, int block_size); #endif /* USE_DYNAMIC_F2_BLKSIZE */ #if defined(CONFIG_PARTIALSUSPEND_SLP) && !defined(DHD_USE_PM_SLEEP) /* XXX SLP use defferent earlysuspend header file and some functions * But most of meaning is same as Android */ #include #define CONFIG_HAS_EARLYSUSPEND #define DHD_USE_EARLYSUSPEND #define register_early_suspend register_pre_suspend #define unregister_early_suspend unregister_pre_suspend #define early_suspend pre_suspend #define EARLY_SUSPEND_LEVEL_BLANK_SCREEN 50 #else #if defined(CONFIG_HAS_EARLYSUSPEND) && defined(DHD_USE_EARLYSUSPEND) #include #endif /* defined(CONFIG_HAS_EARLYSUSPEND) && defined(DHD_USE_EARLYSUSPEND) */ #endif /* CONFIG_PARTIALSUSPEND_SLP && !DHD_USE_PM_SLEEP */ #if defined(APF) static int _dhd_apf_add_filter(struct net_device *ndev, uint32 filter_id, u8* program, uint32 program_len); static int _dhd_apf_config_filter(struct net_device *ndev, uint32 filter_id, uint32 mode, uint32 enable); static int _dhd_apf_delete_filter(struct net_device *ndev, uint32 filter_id); static int _dhd_apf_read_filter_data(struct net_device *ndev, uint32 filter_id, u8* buf, uint32 buf_len); #endif /* APF */ #ifdef DHD_FW_COREDUMP static void dhd_mem_dump(void *dhd_info, void *event_info, u8 event); #endif /* DHD_FW_COREDUMP */ #ifdef DHD_PCIE_NATIVE_RUNTIMEPM #include #include #endif /* DHD_PCIE_NATIVE_RUNTIMEPM */ #ifdef DHD_DEBUG_UART #include #define DHD_DEBUG_UART_EXEC_PATH "/system/bin/wldu" static void dhd_debug_uart_exec_rd(void *handle, void *event_info, u8 event); static void dhd_debug_uart_exec(dhd_pub_t *dhdp, char *cmd); #endif /* DHD_DEBUG_UART */ static int dhd_reboot_callback(struct notifier_block *this, unsigned long code, void *unused); static struct notifier_block dhd_reboot_notifier = { .notifier_call = dhd_reboot_callback, .priority = 1, }; #ifdef BCMPCIE static int is_reboot = 0; #endif /* BCMPCIE */ dhd_pub_t *g_dhd_pub = NULL; #if defined(BT_OVER_SDIO) #include "dhd_bt_interface.h" #endif /* defined (BT_OVER_SDIO) */ #ifdef CONFIG_ARCH_EXYNOS #if IS_ENABLED(CONFIG_EXYNOS_S2MPU) #include #endif /* CONFIG_EXYNOS_S2MPU */ #endif /* CONFIG_ARCH_EXYNOS */ #ifdef WL_STATIC_IF bool dhd_is_static_ndev(dhd_pub_t *dhdp, struct net_device *ndev); #endif /* WL_STATIC_IF */ atomic_t exit_in_progress = ATOMIC_INIT(0); static void dhd_process_daemon_msg(struct sk_buff *skb); static void dhd_destroy_to_notifier_skt(void); static int dhd_create_to_notifier_skt(void); static struct sock *nl_to_event_sk = NULL; int sender_pid = 0; #if (LINUX_VERSION_CODE >= KERNEL_VERSION(3, 6, 0)) struct netlink_kernel_cfg dhd_netlink_cfg = { .groups = 1, .input = dhd_process_daemon_msg, }; #endif /* (LINUX_VERSION_CODE >= KERNEL_VERSION(3, 6, 0)) */ #if defined(BT_OVER_SDIO) /* Flag to indicate if driver is initialized */ uint dhd_driver_init_done = TRUE; #else /* Flag to indicate if driver is initialized */ uint dhd_driver_init_done = FALSE; #endif /* Flag to indicate if we should download firmware on driver load */ uint dhd_download_fw_on_driverload = TRUE; /* Definitions to provide path to the firmware and nvram * example nvram_path[MOD_PARAM_PATHLEN]="/projects/wlan/nvram.txt" */ char firmware_path[MOD_PARAM_PATHLEN]; char nvram_path[MOD_PARAM_PATHLEN]; char clm_path[MOD_PARAM_PATHLEN]; char signature_path[MOD_PARAM_PATHLEN]; #ifdef DHD_UCODE_DOWNLOAD char ucode_path[MOD_PARAM_PATHLEN]; #endif /* DHD_UCODE_DOWNLOAD */ module_param_string(clm_path, clm_path, MOD_PARAM_PATHLEN, 0660); /* backup buffer for firmware and nvram path */ char fw_bak_path[MOD_PARAM_PATHLEN]; char nv_bak_path[MOD_PARAM_PATHLEN]; /* information string to keep firmware, chio, cheip version info visiable from log */ char info_string[MOD_PARAM_INFOLEN]; module_param_string(info_string, info_string, MOD_PARAM_INFOLEN, 0444); int op_mode = 0; int disable_proptx = 0; module_param(op_mode, int, 0644); extern int wl_control_wl_start(struct net_device *dev); #if defined(BCMLXSDMMC) struct semaphore dhd_registration_sem; #endif /* BCMXSDMMC */ void dhd_generate_rand_mac_addr(struct ether_addr *ea_addr); #ifdef EWP_EDL int host_edl_support = TRUE; module_param(host_edl_support, int, 0644); #endif /* deferred handlers */ static void dhd_ifadd_event_handler(void *handle, void *event_info, u8 event); static void dhd_ifdel_event_handler(void *handle, void *event_info, u8 event); static void dhd_set_mac_addr_handler(void *handle, void *event_info, u8 event); static void dhd_set_mcast_list_handler(void *handle, void *event_info, u8 event); #ifdef BCM_ROUTER_DHD static void dhd_inform_dhd_monitor_handler(void *handle, void *event_info, u8 event); #endif #ifdef WL_NATOE static void dhd_natoe_ct_event_hanlder(void *handle, void *event_info, u8 event); static void dhd_natoe_ct_ioctl_handler(void *handle, void *event_info, uint8 event); #endif /* WL_NATOE */ #if defined(CONFIG_IPV6) && defined(IPV6_NDO_SUPPORT) static void dhd_inet6_work_handler(void *dhd_info, void *event_data, u8 event); #endif /* CONFIG_IPV6 && IPV6_NDO_SUPPORT */ #ifdef WL_CFG80211 extern void dhd_netdev_free(struct net_device *ndev); #endif /* WL_CFG80211 */ static dhd_if_t * dhd_get_ifp_by_ndev(dhd_pub_t *dhdp, struct net_device *ndev); #if (defined(DHD_WET) || defined(DHD_MCAST_REGEN) || defined(DHD_L2_FILTER)) /* update rx_pkt_chainable state of dhd interface */ static void dhd_update_rx_pkt_chainable_state(dhd_pub_t* dhdp, uint32 idx); #endif /* DHD_WET || DHD_MCAST_REGEN || DHD_L2_FILTER */ /* Error bits */ module_param(dhd_msg_level, int, 0); #ifdef ARP_OFFLOAD_SUPPORT /* ARP offload agent mode : Enable ARP Host Auto-Reply and ARP Peer Auto-Reply */ /* XXX ARP HOST Auto Reply can cause dongle trap at VSDB situation */ /* XXX ARP OL SNOOP can be used to more good quility */ #ifdef ENABLE_ARP_SNOOP_MODE uint dhd_arp_mode = (ARP_OL_AGENT | ARP_OL_PEER_AUTO_REPLY | ARP_OL_SNOOP | ARP_OL_HOST_AUTO_REPLY | ARP_OL_UPDATE_HOST_CACHE); #else uint dhd_arp_mode = ARP_OL_AGENT | ARP_OL_PEER_AUTO_REPLY | ARP_OL_UPDATE_HOST_CACHE; #endif /* ENABLE_ARP_SNOOP_MODE */ module_param(dhd_arp_mode, uint, 0); #endif /* ARP_OFFLOAD_SUPPORT */ /* Disable Prop tx */ module_param(disable_proptx, int, 0644); /* load firmware and/or nvram values from the filesystem */ module_param_string(firmware_path, firmware_path, MOD_PARAM_PATHLEN, 0660); module_param_string(nvram_path, nvram_path, MOD_PARAM_PATHLEN, 0660); module_param_string(signature_path, signature_path, MOD_PARAM_PATHLEN, 0660); #ifdef DHD_UCODE_DOWNLOAD module_param_string(ucode_path, ucode_path, MOD_PARAM_PATHLEN, 0660); #endif /* DHD_UCODE_DOWNLOAD */ /* wl event forwarding */ #ifdef WL_EVENT_ENAB uint wl_event_enable = true; #else uint wl_event_enable = false; #endif /* WL_EVENT_ENAB */ module_param(wl_event_enable, uint, 0660); /* wl event forwarding */ #ifdef LOGTRACE_PKT_SENDUP uint logtrace_pkt_sendup = true; #else uint logtrace_pkt_sendup = false; #endif /* LOGTRACE_PKT_SENDUP */ module_param(logtrace_pkt_sendup, uint, 0660); /* Watchdog interval */ /* extend watchdog expiration to 2 seconds when DPC is running */ #define WATCHDOG_EXTEND_INTERVAL (2000) uint dhd_watchdog_ms = CUSTOM_DHD_WATCHDOG_MS; module_param(dhd_watchdog_ms, uint, 0); #ifdef DHD_PCIE_RUNTIMEPM uint dhd_runtimepm_ms = CUSTOM_DHD_RUNTIME_MS; #endif /* DHD_PCIE_RUNTIMEPMT */ #if defined(DHD_DEBUG) /* Console poll interval */ uint dhd_console_ms = CUSTOM_DHD_CONSOLE_MS; module_param(dhd_console_ms, uint, 0644); #else uint dhd_console_ms = 0; #endif /* DHD_DEBUG */ uint dhd_slpauto = TRUE; module_param(dhd_slpauto, uint, 0); #ifdef PKT_FILTER_SUPPORT /* Global Pkt filter enable control */ uint dhd_pkt_filter_enable = TRUE; module_param(dhd_pkt_filter_enable, uint, 0); #endif /* Pkt filter init setup */ uint dhd_pkt_filter_init = 0; module_param(dhd_pkt_filter_init, uint, 0); /* Pkt filter mode control */ #ifdef GAN_LITE_NAT_KEEPALIVE_FILTER uint dhd_master_mode = FALSE; #else uint dhd_master_mode = TRUE; #endif /* GAN_LITE_NAT_KEEPALIVE_FILTER */ module_param(dhd_master_mode, uint, 0); int dhd_watchdog_prio = 0; module_param(dhd_watchdog_prio, int, 0); /* DPC thread priority */ int dhd_dpc_prio = CUSTOM_DPC_PRIO_SETTING; module_param(dhd_dpc_prio, int, 0); #if !defined(BCMDHDUSB) extern int dhd_dongle_ramsize; module_param(dhd_dongle_ramsize, int, 0); #endif /* BCMDHDUSB */ #ifdef WL_CFG80211 int passive_channel_skip = 0; module_param(passive_channel_skip, int, (S_IRUSR|S_IWUSR)); #endif /* WL_CFG80211 */ static dhd_if_t * dhd_get_ifp_by_ndev(dhd_pub_t *dhdp, struct net_device *ndev); #ifdef DHD_MSI_SUPPORT uint enable_msi = TRUE; module_param(enable_msi, uint, 0); #endif /* PCIE_FULL_DONGLE */ #ifdef DHD_SSSR_DUMP int dhdpcie_sssr_dump_get_before_after_len(dhd_pub_t *dhd, uint32 *arr_len); module_param(sssr_enab, uint, 0); module_param(fis_enab, uint, 0); #endif /* DHD_SSSR_DUMP */ /* Keep track of number of instances */ static int dhd_found = 0; static int instance_base = 0; /* Starting instance number */ module_param(instance_base, int, 0644); #if defined(DHD_LB_RXP) && defined(PCIE_FULL_DONGLE) /* * Rx path process budget(dhd_napi_weight) number of packets in one go and hands over * the packets to network stack. * * dhd_dpc tasklet is the producer(packets received from dongle) and dhd_napi_poll() * is the consumer. The maximum number of packets that can be received from the dongle * at any given point of time are D2HRING_RXCMPLT_MAX_ITEM. * Also DHD will always post fresh rx buffers to dongle while processing rx completions. * * The consumer must consume the packets at equal are better rate than the producer. * i.e if dhd_napi_poll() does not process at the same rate as the producer(dhd_dpc), * rx_process_queue depth increases, which can even consume the entire system memory. * Such situation will be tacken care by rx flow control. * * Device drivers are strongly advised to not use bigger value than NAPI_POLL_WEIGHT */ static int dhd_napi_weight = NAPI_POLL_WEIGHT; module_param(dhd_napi_weight, int, 0644); #endif /* DHD_LB_RXP && PCIE_FULL_DONGLE */ #ifdef PCIE_FULL_DONGLE extern uint h2d_max_txpost; module_param(h2d_max_txpost, uint, 0644); extern uint h2d_htput_max_txpost; module_param(h2d_htput_max_txpost, uint, 0644); extern uint d2h_max_txcpl; module_param(d2h_max_txcpl, uint, 0644); extern uint h2d_max_ctrlpost; module_param(h2d_max_ctrlpost, uint, 0644); extern uint d2h_max_ctrlcpl; module_param(d2h_max_ctrlcpl, uint, 0644); extern uint h2d_max_rxpost; module_param(h2d_max_rxpost, uint, 0644); extern uint d2h_max_rxcpl; module_param(d2h_max_rxcpl, uint, 0644); extern uint rx_buf_burst; module_param(rx_buf_burst, uint, 0644); extern uint rx_bufpost_threshold; module_param(rx_bufpost_threshold, uint, 0644); #ifdef AGG_H2D_DB extern bool agg_h2d_db_enab; module_param(agg_h2d_db_enab, bool, 0644); extern uint agg_h2d_db_timeout; module_param(agg_h2d_db_timeout, uint, 0644); extern uint agg_h2d_db_inflight_thresh; module_param(agg_h2d_db_inflight_thresh, uint, 0644); #endif /* AGG_H2D_DB */ extern uint dma_ring_indices; module_param(dma_ring_indices, uint, 0644); extern bool h2d_phase; module_param(h2d_phase, bool, 0644); extern bool force_trap_bad_h2d_phase; module_param(force_trap_bad_h2d_phase, bool, 0644); #endif /* PCIE_FULL_DONGLE */ #ifdef FORCE_TPOWERON /* * On Fire's reference platform, coming out of L1.2, * there is a constant delay of 45us between CLKREQ# and stable REFCLK * Due to this delay, with tPowerOn < 50 * there is a chance of the refclk sense to trigger on noise. * * 0x29 when written to L1SSControl2 translates to 50us. */ #define FORCE_TPOWERON_50US 0x29 uint32 tpoweron_scale = FORCE_TPOWERON_50US; /* default 50us */ module_param(tpoweron_scale, uint, 0644); #endif /* FORCE_TPOWERON */ #ifdef SHOW_LOGTRACE #ifdef DHD_LINUX_STD_FW_API static char *logstrs_path = "logstrs.bin"; char *st_str_file_path = "rtecdc.bin"; static char *map_file_path = "rtecdc.map"; static char *rom_st_str_file_path = "roml.bin"; static char *rom_map_file_path = "roml.map"; #elif defined(CUSTOMER_HW4_DEBUG) #define WIFI_PATH "/etc/wifi/" static char *logstrs_path = VENDOR_PATH WIFI_PATH"logstrs.bin"; char *st_str_file_path = VENDOR_PATH WIFI_PATH"rtecdc.bin"; static char *map_file_path = VENDOR_PATH WIFI_PATH"rtecdc.map"; static char *rom_st_str_file_path = VENDOR_PATH WIFI_PATH"roml.bin"; static char *rom_map_file_path = VENDOR_PATH WIFI_PATH"roml.map"; #else static char *logstrs_path = PLATFORM_PATH"logstrs.bin"; char *st_str_file_path = PLATFORM_PATH"rtecdc.bin"; static char *map_file_path = PLATFORM_PATH"rtecdc.map"; static char *rom_st_str_file_path = PLATFORM_PATH"roml.bin"; static char *rom_map_file_path = PLATFORM_PATH"roml.map"; #endif /* DHD_LINUX_STD_FW_API */ static char *ram_file_str = "rtecdc"; static char *rom_file_str = "roml"; module_param(logstrs_path, charp, S_IRUGO); module_param(st_str_file_path, charp, S_IRUGO); module_param(map_file_path, charp, S_IRUGO); module_param(rom_st_str_file_path, charp, S_IRUGO); module_param(rom_map_file_path, charp, S_IRUGO); static int dhd_init_logstrs_array(osl_t *osh, dhd_event_log_t *temp); static int dhd_read_map(osl_t *osh, char *fname, uint32 *ramstart, uint32 *rodata_start, uint32 *rodata_end); static int dhd_init_static_strs_array(osl_t *osh, dhd_event_log_t *temp, char *str_file, char *map_file); #endif /* SHOW_LOGTRACE */ #ifdef D2H_MINIDUMP void dhd_d2h_minidump(dhd_pub_t *dhdp); #endif /* D2H_MINIDUMP */ #ifdef DHD_TX_PROFILE /* process layer 3 headers, to ultimately determine if a * dhd_tx_profile_protocol_t matches */ static int process_layer3_headers(uint8 **p, int plen, uint16 *type); /* process layer 2 headers, to ultimately determine if a * dhd_tx_profile_protocol_t matches */ static int process_layer2_headers(uint8 **p, int *plen, uint16 *type, bool is_host_sfhllc); /* whether or not a dhd_tx_profile_protocol_t matches with data in a packet */ bool dhd_protocol_matches_profile(uint8 *p, int plen, const dhd_tx_profile_protocol_t *proto, bool is_host_sfhllc); #endif /* defined(DHD_TX_PROFILE) */ #define PATH_BANDLOCK_INFO PLATFORM_PATH".bandlock.info" static void dhd_set_bandlock(dhd_pub_t * dhd); #ifdef WL_CFGVENDOR_SEND_ALERT_EVENT void dhd_alert_process(struct work_struct *work_data); #endif /* WL_CFGVENDOR_SEND_ALERT_EVENT */ #ifdef USE_WFA_CERT_CONF int g_frameburst = 1; #endif /* USE_WFA_CERT_CONF */ static int dhd_get_pend_8021x_cnt(dhd_info_t *dhd); #ifdef PCIE_FULL_DONGLE #define DHD_IF_STA_LIST_LOCK_INIT(lock) spin_lock_init(lock) #if defined(DHD_IGMP_UCQUERY) || defined(DHD_UCAST_UPNP) static struct list_head * dhd_sta_list_snapshot(dhd_info_t *dhd, dhd_if_t *ifp, struct list_head *snapshot_list); static void dhd_sta_list_snapshot_free(dhd_info_t *dhd, struct list_head *snapshot_list); #define DHD_IF_WMF_UCFORWARD_LOCK(dhd, ifp, slist) ({ dhd_sta_list_snapshot(dhd, ifp, slist); }) #define DHD_IF_WMF_UCFORWARD_UNLOCK(dhd, slist) ({ dhd_sta_list_snapshot_free(dhd, slist); }) #endif /* DHD_IGMP_UCQUERY || DHD_UCAST_UPNP */ #endif /* PCIE_FULL_DONGLE */ /* hostwake delay after d3 enter in ms */ #define D3_HOSTWAKE_DELAY 200 /* Control fw roaming */ #ifdef BCMCCX uint dhd_roam_disable = 0; #else uint dhd_roam_disable = 0; #endif /* BCMCCX */ #ifdef BCMDBGFS extern void dhd_dbgfs_init(dhd_pub_t *dhdp); extern void dhd_dbgfs_remove(void); #endif /* Enable TX status metadta report: 0=disable 1=enable 2=debug */ static uint pcie_txs_metadata_enable = 0; module_param(pcie_txs_metadata_enable, int, 0); /* Control radio state */ uint dhd_radio_up = 1; /* Network inteface name */ char iface_name[IFNAMSIZ] = {'\0'}; module_param_string(iface_name, iface_name, IFNAMSIZ, 0); /* The following are specific to the SDIO dongle */ /* IOCTL response timeout */ int dhd_ioctl_timeout_msec = IOCTL_RESP_TIMEOUT; /* DS Exit response timeout */ int ds_exit_timeout_msec = DS_EXIT_TIMEOUT; /* Idle timeout for backplane clock */ int dhd_idletime = DHD_IDLETIME_TICKS; module_param(dhd_idletime, int, 0); /* Use polling */ uint dhd_poll = FALSE; module_param(dhd_poll, uint, 0); /* Use interrupts */ uint dhd_intr = TRUE; module_param(dhd_intr, uint, 0); /* SDIO Drive Strength (in milliamps) */ uint dhd_sdiod_drive_strength = 6; module_param(dhd_sdiod_drive_strength, uint, 0); #ifdef BCMSDIO /* Tx/Rx bounds */ extern uint dhd_txbound; extern uint dhd_rxbound; module_param(dhd_txbound, uint, 0); module_param(dhd_rxbound, uint, 0); /* Deferred transmits */ extern uint dhd_deferred_tx; module_param(dhd_deferred_tx, uint, 0); #endif /* BCMSDIO */ #ifdef BCMSLTGT #ifdef BCMFPGA_HW /* For FPGA use fixed htclkration as 30 */ uint htclkratio = 30; #else uint htclkratio = 1; #endif /* BCMFPGA_HW */ module_param(htclkratio, uint, 0); int dngl_xtalfreq = 0; module_param(dngl_xtalfreq, int, 0); #endif /* BCMSLTGT */ #ifdef SDTEST /* Echo packet generator (pkts/s) */ uint dhd_pktgen = 0; module_param(dhd_pktgen, uint, 0); /* Echo packet len (0 => sawtooth, max 2040) */ uint dhd_pktgen_len = 0; module_param(dhd_pktgen_len, uint, 0); #endif /* SDTEST */ #if defined(BCMSUP_4WAY_HANDSHAKE) /* Use in dongle supplicant for 4-way handshake */ #if defined(WLFBT) || defined(WL_ENABLE_IDSUP) /* Enable idsup by default (if supported in fw) */ uint dhd_use_idsup = 1; #else uint dhd_use_idsup = 0; #endif /* WLFBT || WL_ENABLE_IDSUP */ module_param(dhd_use_idsup, uint, 0); #endif /* BCMSUP_4WAY_HANDSHAKE */ #ifndef BCMDBUS /* Allow delayed firmware download for debug purpose */ int allow_delay_fwdl = FALSE; module_param(allow_delay_fwdl, int, 0); #endif /* !BCMDBUS */ #ifdef GDB_PROXY /* Adds/replaces deadman_to= in NVRAM file with deadman_to=0 */ static uint nodeadman = 0; module_param(nodeadman, uint, 0); #endif /* GDB_PROXY */ #ifdef ECOUNTER_PERIODIC_DISABLE uint enable_ecounter = FALSE; #else uint enable_ecounter = TRUE; #endif module_param(enable_ecounter, uint, 0); #ifdef BCMQT_HW int qt_flr_reset = FALSE; module_param(qt_flr_reset, int, 0); int qt_dngl_timeout = 0; // dongle attach timeout in ms module_param(qt_dngl_timeout, int, 0); #endif /* BCMQT_HW */ #ifdef DHD_SUPPORT_SPMI_MODE uint spmi_mode = 0; module_param(spmi_mode, uint, 0644); #endif /* DHD_SUPPORT_SPMI_MODE */ /* TCM verification flag */ uint dhd_tcm_test_enable = FALSE; module_param(dhd_tcm_test_enable, uint, 0644); tcm_test_status_t dhd_tcm_test_status = TCM_TEST_NOT_RUN; extern char dhd_version[]; extern char fw_version[]; extern char clm_version[]; int dhd_net_bus_devreset(struct net_device *dev, uint8 flag); static void dhd_net_if_lock_local(dhd_info_t *dhd); static void dhd_net_if_unlock_local(dhd_info_t *dhd); static void dhd_suspend_lock(dhd_pub_t *dhdp); static void dhd_suspend_unlock(dhd_pub_t *dhdp); /* Monitor interface */ int dhd_monitor_init(void *dhd_pub); int dhd_monitor_uninit(void); #ifdef DHD_PM_CONTROL_FROM_FILE bool g_pm_control; #ifdef DHD_EXPORT_CNTL_FILE uint32 pmmode_val = 0xFF; #endif /* DHD_EXPORT_CNTL_FILE */ #ifdef CUSTOMER_HW10 void dhd_control_pm(dhd_pub_t *dhd, uint *); #else void sec_control_pm(dhd_pub_t *dhd, uint *); #endif /* CUSTOMER_HW10 */ #endif /* DHD_PM_CONTROL_FROM_FILE */ #ifdef DHD_PM_OVERRIDE bool g_pm_override; #endif /* DHD_PM_OVERRIDE */ #ifndef BCMDBUS static void dhd_dpc(ulong data); #endif /* forward decl */ extern int dhd_wait_pend8021x(struct net_device *dev); void dhd_os_wd_timer_extend(void *bus, bool extend); #ifdef TOE #ifndef BDC #error TOE requires BDC #endif /* !BDC */ static int dhd_toe_get(dhd_info_t *dhd, int idx, uint32 *toe_ol); static int dhd_toe_set(dhd_info_t *dhd, int idx, uint32 toe_ol); #endif /* TOE */ #ifdef DHD_MAP_LOGGING void dhd_smmu_fault_handler(uint32 axid, ulong fault_addr); #endif /* DHD_MAP_LOGGING */ #ifdef CONFIG_ARCH_EXYNOS #if IS_ENABLED(CONFIG_EXYNOS_S2MPU) int s2mpufd_notifier_callback(struct s2mpufd_notifier_block *block, struct s2mpufd_notifier_info *info); static void dhd_module_s2mpu_register(struct device *dev); #endif /* CONFIG_EXYNOS_S2MPU */ #endif /* CONFIG_ARCH_EXYNOS */ static int dhd_suspend_resume_helper(struct dhd_info *dhd, int val, int force); #if defined(DHD_FILE_DUMP_EVENT) && defined(DHD_FW_COREDUMP) static void dhd_dump_proc(struct work_struct *work_data); #endif /* DHD_FILE_DUMP_EVENT && DHD_FW_COREDUMP */ #if defined(CONFIG_PM_SLEEP) static int dhd_pm_callback(struct notifier_block *nfb, unsigned long action, void *ignored) { int ret = NOTIFY_DONE; bool suspend = FALSE; dhd_info_t *dhdinfo; BCM_REFERENCE(dhdinfo); BCM_REFERENCE(suspend); switch (action) { case PM_HIBERNATION_PREPARE: case PM_SUSPEND_PREPARE: suspend = TRUE; break; case PM_POST_HIBERNATION: case PM_POST_SUSPEND: suspend = FALSE; break; } #if (defined(SUPPORT_P2P_GO_PS) && defined(PROP_TXSTATUS)) || defined(DHD_USE_PM_SLEEP) dhdinfo = container_of(nfb, struct dhd_info, pm_notifier); #endif /* (SUPPORT_P2P_GO_PS && PROP_TXSTATUS) || DHD_USE_PM_SLEEP */ #if defined(DHD_USE_PM_SLEEP) dhd_suspend_resume_helper(dhdinfo, suspend, 0); #endif /* DHD_USE_PM_SLEEP */ #if defined(SUPPORT_P2P_GO_PS) && defined(PROP_TXSTATUS) if (suspend) { DHD_OS_WAKE_LOCK_WAIVE(&dhdinfo->pub); dhd_wlfc_suspend(&dhdinfo->pub); DHD_OS_WAKE_LOCK_RESTORE(&dhdinfo->pub); } else { dhd_wlfc_resume(&dhdinfo->pub); } #endif /* defined(SUPPORT_P2P_GO_PS) && defined(PROP_TXSTATUS) */ #if (LINUX_VERSION_CODE >= KERNEL_VERSION(2, 6, 27)) && (LINUX_VERSION_CODE <= \ KERNEL_VERSION(2, 6, 39)) dhd_mmc_suspend = suspend; smp_mb(); #endif return ret; } /* to make sure we won't register the same notifier twice, otherwise a loop is likely to be * created in kernel notifier link list (with 'next' pointing to itself) */ static bool dhd_pm_notifier_registered = FALSE; extern int register_pm_notifier(struct notifier_block *nb); extern int unregister_pm_notifier(struct notifier_block *nb); #endif /* CONFIG_PM_SLEEP */ #if defined(DHD_H2D_LOG_TIME_SYNC) static void dhd_deferred_work_rte_log_time_sync(void *handle, void *event_info, u8 event); #endif /* DHD_H2D_LOG_TIME_SYNC */ /** Clear the dhd net_device's private structure. */ static inline void dhd_dev_priv_clear(struct net_device * dev) { dhd_dev_priv_t * dev_priv; ASSERT(dev != (struct net_device *)NULL); dev_priv = DHD_DEV_PRIV(dev); dev_priv->dhd = (dhd_info_t *)NULL; dev_priv->ifp = (dhd_if_t *)NULL; dev_priv->ifidx = DHD_BAD_IF; dev_priv->lkup = (void *)NULL; } /** Setup the dhd net_device's private structure. */ static inline void dhd_dev_priv_save(struct net_device * dev, dhd_info_t * dhd, dhd_if_t * ifp, int ifidx) { dhd_dev_priv_t * dev_priv; ASSERT(dev != (struct net_device *)NULL); dev_priv = DHD_DEV_PRIV(dev); dev_priv->dhd = dhd; dev_priv->ifp = ifp; dev_priv->ifidx = ifidx; } /* Return interface pointer */ struct dhd_if * dhd_get_ifp(dhd_pub_t *dhdp, uint32 ifidx) { ASSERT(ifidx < DHD_MAX_IFS); if (!dhdp || !dhdp->info || ifidx >= DHD_MAX_IFS) return NULL; return dhdp->info->iflist[ifidx]; } #ifdef PCIE_FULL_DONGLE /** Dummy objects are defined with state representing bad|down. * Performance gains from reducing branch conditionals, instruction parallelism, * dual issue, reducing load shadows, avail of larger pipelines. * Use DHD_XXX_NULL instead of (dhd_xxx_t *)NULL, whenever an object pointer * is accessed via the dhd_sta_t. */ /* Dummy dhd_info object */ dhd_info_t dhd_info_null = { .pub = { .info = &dhd_info_null, #ifdef DHDTCPACK_SUPPRESS .tcpack_sup_mode = TCPACK_SUP_REPLACE, #endif /* DHDTCPACK_SUPPRESS */ #if defined(BCM_ROUTER_DHD) .dhd_tm_dwm_tbl = { .dhd_dwm_enabled = TRUE }, #endif .up = FALSE, .busstate = DHD_BUS_DOWN } }; #define DHD_INFO_NULL (&dhd_info_null) #define DHD_PUB_NULL (&dhd_info_null.pub) /* Dummy netdevice object */ struct net_device dhd_net_dev_null = { .reg_state = NETREG_UNREGISTERED }; #define DHD_NET_DEV_NULL (&dhd_net_dev_null) /* Dummy dhd_if object */ dhd_if_t dhd_if_null = { #ifdef WMF .wmf = { .wmf_enable = TRUE }, #endif .info = DHD_INFO_NULL, .net = DHD_NET_DEV_NULL, .idx = DHD_BAD_IF }; #define DHD_IF_NULL (&dhd_if_null) /* XXX should we use the sta_pool[0] object as DHD_STA_NULL? */ #define DHD_STA_NULL ((dhd_sta_t *)NULL) /** Interface STA list management. */ /** Alloc/Free a dhd_sta object from the dhd instances' sta_pool. */ static void dhd_sta_free(dhd_pub_t *pub, dhd_sta_t *sta); static dhd_sta_t * dhd_sta_alloc(dhd_pub_t * dhdp); /* Delete a dhd_sta or flush all dhd_sta in an interface's sta_list. */ static void dhd_if_del_sta_list(dhd_if_t * ifp); /* Construct/Destruct a sta pool. */ static int dhd_sta_pool_init(dhd_pub_t *dhdp, int max_sta); static void dhd_sta_pool_fini(dhd_pub_t *dhdp, int max_sta); /* Clear the pool of dhd_sta_t objects for built-in type driver */ static void dhd_sta_pool_clear(dhd_pub_t *dhdp, int max_sta); /** Reset a dhd_sta object and free into the dhd pool. */ static void dhd_sta_free(dhd_pub_t * dhdp, dhd_sta_t * sta) { int prio; ASSERT((sta != DHD_STA_NULL) && (sta->idx != ID16_INVALID)); ASSERT((dhdp->staid_allocator != NULL) && (dhdp->sta_pool != NULL)); /* * Flush and free all packets in all flowring's queues belonging to sta. * Packets in flow ring will be flushed later. */ for (prio = 0; prio < (int)NUMPRIO; prio++) { uint16 flowid = sta->flowid[prio]; if (flowid != FLOWID_INVALID) { unsigned long flags; flow_ring_node_t * flow_ring_node; #ifdef DHDTCPACK_SUPPRESS /* Clean tcp_ack_info_tbl in order to prevent access to flushed pkt, * when there is a newly coming packet from network stack. */ dhd_tcpack_info_tbl_clean(dhdp); #endif /* DHDTCPACK_SUPPRESS */ flow_ring_node = dhd_flow_ring_node(dhdp, flowid); if (flow_ring_node) { flow_queue_t *queue = &flow_ring_node->queue; DHD_FLOWRING_LOCK(flow_ring_node->lock, flags); flow_ring_node->status = FLOW_RING_STATUS_STA_FREEING; if (!DHD_FLOW_QUEUE_EMPTY(queue)) { void * pkt; while ((pkt = dhd_flow_queue_dequeue(dhdp, queue)) != NULL) { PKTFREE(dhdp->osh, pkt, TRUE); } } DHD_FLOWRING_UNLOCK(flow_ring_node->lock, flags); ASSERT(DHD_FLOW_QUEUE_EMPTY(queue)); } } sta->flowid[prio] = FLOWID_INVALID; } id16_map_free(dhdp->staid_allocator, sta->idx); DHD_CUMM_CTR_INIT(&sta->cumm_ctr); sta->ifp = DHD_IF_NULL; /* dummy dhd_if object */ sta->ifidx = DHD_BAD_IF; sta->chanspec = 0; bzero(sta->ea.octet, ETHER_ADDR_LEN); INIT_LIST_HEAD(&sta->list); sta->idx = ID16_INVALID; /* implying free */ } /** Allocate a dhd_sta object from the dhd pool. */ static dhd_sta_t * dhd_sta_alloc(dhd_pub_t * dhdp) { uint16 idx; dhd_sta_t * sta; dhd_sta_pool_t * sta_pool; ASSERT((dhdp->staid_allocator != NULL) && (dhdp->sta_pool != NULL)); idx = id16_map_alloc(dhdp->staid_allocator); if (idx == ID16_INVALID) { DHD_ERROR(("%s: cannot get free staid\n", __FUNCTION__)); return DHD_STA_NULL; } sta_pool = (dhd_sta_pool_t *)(dhdp->sta_pool); sta = &sta_pool[idx]; ASSERT((sta->idx == ID16_INVALID) && (sta->ifp == DHD_IF_NULL) && (sta->ifidx == DHD_BAD_IF)); DHD_CUMM_CTR_INIT(&sta->cumm_ctr); sta->idx = idx; /* implying allocated */ return sta; } /** Delete all STAs in an interface's STA list. */ static void dhd_if_del_sta_list(dhd_if_t *ifp) { dhd_sta_t *sta, *next; unsigned long flags; DHD_IF_STA_LIST_LOCK(&ifp->sta_list_lock, flags); GCC_DIAGNOSTIC_PUSH_SUPPRESS_CAST(); list_for_each_entry_safe(sta, next, &ifp->sta_list, list) { GCC_DIAGNOSTIC_POP(); list_del(&sta->list); dhd_sta_free(&ifp->info->pub, sta); } DHD_IF_STA_LIST_UNLOCK(&ifp->sta_list_lock, flags); return; } /** Construct a pool of dhd_sta_t objects to be used by interfaces. */ static int dhd_sta_pool_init(dhd_pub_t *dhdp, int max_sta) { int idx, prio, sta_pool_memsz; dhd_sta_t * sta; dhd_sta_pool_t * sta_pool; void * staid_allocator; ASSERT(dhdp != (dhd_pub_t *)NULL); ASSERT((dhdp->staid_allocator == NULL) && (dhdp->sta_pool == NULL)); /* dhd_sta objects per radio are managed in a table. id#0 reserved. */ staid_allocator = id16_map_init(dhdp->osh, max_sta, 1); if (staid_allocator == NULL) { DHD_ERROR(("%s: sta id allocator init failure\n", __FUNCTION__)); return BCME_ERROR; } /* Pre allocate a pool of dhd_sta objects (one extra). */ sta_pool_memsz = ((max_sta + 1) * sizeof(dhd_sta_t)); /* skip idx 0 */ sta_pool = (dhd_sta_pool_t *)MALLOC(dhdp->osh, sta_pool_memsz); if (sta_pool == NULL) { DHD_ERROR(("%s: sta table alloc failure\n", __FUNCTION__)); id16_map_fini(dhdp->osh, staid_allocator); return BCME_ERROR; } dhdp->sta_pool = sta_pool; dhdp->staid_allocator = staid_allocator; /* Initialize all sta(s) for the pre-allocated free pool. */ bzero((uchar *)sta_pool, sta_pool_memsz); for (idx = max_sta; idx >= 1; idx--) { /* skip sta_pool[0] */ sta = &sta_pool[idx]; sta->idx = id16_map_alloc(staid_allocator); ASSERT(sta->idx <= max_sta); } /* Now place them into the pre-allocated free pool. */ for (idx = 1; idx <= max_sta; idx++) { sta = &sta_pool[idx]; for (prio = 0; prio < (int)NUMPRIO; prio++) { sta->flowid[prio] = FLOWID_INVALID; /* Flow rings do not exist */ } dhd_sta_free(dhdp, sta); } return BCME_OK; } /** Destruct the pool of dhd_sta_t objects. * Caller must ensure that no STA objects are currently associated with an if. */ static void dhd_sta_pool_fini(dhd_pub_t *dhdp, int max_sta) { dhd_sta_pool_t * sta_pool = (dhd_sta_pool_t *)dhdp->sta_pool; if (sta_pool) { int idx; int sta_pool_memsz = ((max_sta + 1) * sizeof(dhd_sta_t)); for (idx = 1; idx <= max_sta; idx++) { ASSERT(sta_pool[idx].ifp == DHD_IF_NULL); ASSERT(sta_pool[idx].idx == ID16_INVALID); } MFREE(dhdp->osh, dhdp->sta_pool, sta_pool_memsz); } id16_map_fini(dhdp->osh, dhdp->staid_allocator); dhdp->staid_allocator = NULL; } /* Clear the pool of dhd_sta_t objects for built-in type driver */ static void dhd_sta_pool_clear(dhd_pub_t *dhdp, int max_sta) { int idx, prio, sta_pool_memsz; dhd_sta_t * sta; dhd_sta_pool_t * sta_pool; void *staid_allocator; if (!dhdp) { DHD_ERROR(("%s: dhdp is NULL\n", __FUNCTION__)); return; } sta_pool = (dhd_sta_pool_t *)dhdp->sta_pool; staid_allocator = dhdp->staid_allocator; if (!sta_pool) { DHD_ERROR(("%s: sta_pool is NULL\n", __FUNCTION__)); return; } if (!staid_allocator) { DHD_ERROR(("%s: staid_allocator is NULL\n", __FUNCTION__)); return; } /* clear free pool */ sta_pool_memsz = ((max_sta + 1) * sizeof(dhd_sta_t)); bzero((uchar *)sta_pool, sta_pool_memsz); /* dhd_sta objects per radio are managed in a table. id#0 reserved. */ id16_map_clear(staid_allocator, max_sta, 1); /* Initialize all sta(s) for the pre-allocated free pool. */ for (idx = max_sta; idx >= 1; idx--) { /* skip sta_pool[0] */ sta = &sta_pool[idx]; sta->idx = id16_map_alloc(staid_allocator); ASSERT(sta->idx <= max_sta); } /* Now place them into the pre-allocated free pool. */ for (idx = 1; idx <= max_sta; idx++) { sta = &sta_pool[idx]; for (prio = 0; prio < (int)NUMPRIO; prio++) { sta->flowid[prio] = FLOWID_INVALID; /* Flow rings do not exist */ } dhd_sta_free(dhdp, sta); } } /* * Lockless variant of dhd_find_sta() * Find STA with MAC address ea in an interface's STA list. */ dhd_sta_t * __dhd_find_sta(dhd_if_t *ifp, void *pub, int ifidx, void *ea) { dhd_sta_t *sta; GCC_DIAGNOSTIC_PUSH_SUPPRESS_CAST(); list_for_each_entry(sta, &ifp->sta_list, list) { GCC_DIAGNOSTIC_POP(); if (!memcmp(sta->ea.octet, ea, ETHER_ADDR_LEN)) { DHD_INFO(("%s: Found STA " MACDBG "\n", __FUNCTION__, MAC2STRDBG((char *)ea))); return sta; } } return DHD_STA_NULL; } /** Find STA with MAC address ea in an interface's STA list. */ dhd_sta_t * dhd_find_sta(void *pub, int ifidx, void *ea) { dhd_sta_t *sta; dhd_if_t *ifp; unsigned long flags; ifp = dhd_get_ifp((dhd_pub_t *)pub, ifidx); if (ifp == NULL) return DHD_STA_NULL; DHD_IF_STA_LIST_LOCK(&ifp->sta_list_lock, flags); sta = __dhd_find_sta(ifp, pub, ifidx, ea); DHD_IF_STA_LIST_UNLOCK(&ifp->sta_list_lock, flags); return sta; } /* * Lockless variant of dhd_add_sta() * Add STA into the interface's STA list. */ dhd_sta_t * __dhd_add_sta(dhd_if_t *ifp, void *pub, int ifidx, void *ea) { dhd_sta_t *sta; if (!memcmp(ifp->net->dev_addr, ea, ETHER_ADDR_LEN)) { DHD_ERROR(("%s: Serious FAILURE, receive own MAC %pM !!\n", __FUNCTION__, ea)); return DHD_STA_NULL; } sta = dhd_sta_alloc((dhd_pub_t *)pub); if (sta == DHD_STA_NULL) { DHD_ERROR(("%s: Alloc failed\n", __FUNCTION__)); return DHD_STA_NULL; } memcpy(sta->ea.octet, ea, ETHER_ADDR_LEN); /* link the sta and the dhd interface */ sta->ifp = ifp; sta->ifidx = ifidx; #ifdef DHD_WMF sta->psta_prim = NULL; #endif INIT_LIST_HEAD(&sta->list); list_add_tail(&sta->list, &ifp->sta_list); DHD_ERROR(("%s: Adding STA " MACDBG "\n", __FUNCTION__, MAC2STRDBG((char *)ea))); return sta; } /** Add STA into the interface's STA list. */ dhd_sta_t * dhd_add_sta(void *pub, int ifidx, void *ea) { dhd_sta_t *sta; dhd_if_t *ifp; unsigned long flags; ifp = dhd_get_ifp((dhd_pub_t *)pub, ifidx); if (ifp == NULL) return DHD_STA_NULL; DHD_IF_STA_LIST_LOCK(&ifp->sta_list_lock, flags); sta = __dhd_add_sta(ifp, pub, ifidx, ea); DHD_IF_STA_LIST_UNLOCK(&ifp->sta_list_lock, flags); return sta; } /** Delete all STAs from the interface's STA list. */ void dhd_del_all_sta(void *pub, int ifidx) { dhd_sta_t *sta, *next; dhd_if_t *ifp; unsigned long flags; ifp = dhd_get_ifp((dhd_pub_t *)pub, ifidx); if (ifp == NULL) return; DHD_IF_STA_LIST_LOCK(&ifp->sta_list_lock, flags); GCC_DIAGNOSTIC_PUSH_SUPPRESS_CAST(); list_for_each_entry_safe(sta, next, &ifp->sta_list, list) { GCC_DIAGNOSTIC_POP(); list_del(&sta->list); dhd_sta_free(&ifp->info->pub, sta); #ifdef DHD_L2_FILTER if (ifp->parp_enable) { /* clear Proxy ARP cache of specific Ethernet Address */ bcm_l2_filter_arp_table_update(((dhd_pub_t*)pub)->osh, ifp->phnd_arp_table, FALSE, sta->ea.octet, FALSE, ((dhd_pub_t*)pub)->tickcnt); } #endif /* DHD_L2_FILTER */ } DHD_IF_STA_LIST_UNLOCK(&ifp->sta_list_lock, flags); return; } /** Delete STA from the interface's STA list. */ void dhd_del_sta(void *pub, int ifidx, void *ea) { dhd_sta_t *sta, *next; dhd_if_t *ifp; unsigned long flags; ASSERT(ea != NULL); ifp = dhd_get_ifp((dhd_pub_t *)pub, ifidx); if (ifp == NULL) return; DHD_IF_STA_LIST_LOCK(&ifp->sta_list_lock, flags); GCC_DIAGNOSTIC_PUSH_SUPPRESS_CAST(); list_for_each_entry_safe(sta, next, &ifp->sta_list, list) { GCC_DIAGNOSTIC_POP(); if (!memcmp(sta->ea.octet, ea, ETHER_ADDR_LEN)) { DHD_ERROR(("%s: Deleting STA " MACDBG "\n", __FUNCTION__, MAC2STRDBG(sta->ea.octet))); list_del(&sta->list); dhd_sta_free(&ifp->info->pub, sta); } } DHD_IF_STA_LIST_UNLOCK(&ifp->sta_list_lock, flags); #ifdef DHD_L2_FILTER if (ifp->parp_enable) { /* clear Proxy ARP cache of specific Ethernet Address */ bcm_l2_filter_arp_table_update(((dhd_pub_t*)pub)->osh, ifp->phnd_arp_table, FALSE, ea, FALSE, ((dhd_pub_t*)pub)->tickcnt); } #endif /* DHD_L2_FILTER */ return; } /** Add STA if it doesn't exist. Not reentrant. */ dhd_sta_t* dhd_findadd_sta(void *pub, int ifidx, void *ea) { dhd_sta_t *sta; dhd_if_t *ifp; unsigned long flags; ASSERT(ea != NULL); ifp = dhd_get_ifp((dhd_pub_t *)pub, ifidx); if (ifp == NULL) return DHD_STA_NULL; DHD_IF_STA_LIST_LOCK(&ifp->sta_list_lock, flags); sta = __dhd_find_sta(ifp, pub, ifidx, ea); if (!sta) { /* Add entry */ sta = __dhd_add_sta(ifp, pub, ifidx, ea); } DHD_IF_STA_LIST_UNLOCK(&ifp->sta_list_lock, flags); return sta; } void dhd_update_sta_chanspec_info(void *pub, int ifidx, const uint8 *ea, chanspec_t chanspec) { dhd_sta_t *sta; dhd_if_t *ifp; unsigned long flags; ASSERT(ea != NULL); ifp = dhd_get_ifp((dhd_pub_t *)pub, ifidx); if (ifp == NULL) { DHD_ERROR(("%s: NULL ifp for ifidx:%d\n", __FUNCTION__, ifidx)); return; } DHD_IF_STA_LIST_LOCK(&ifp->sta_list_lock, flags); GCC_DIAGNOSTIC_PUSH_SUPPRESS_CAST(); sta = __dhd_find_sta(ifp, pub, ifidx, (void *)ea); GCC_DIAGNOSTIC_POP(); if (sta) { sta->chanspec = chanspec; DHD_ERROR(("%s: updated chanspec:0x%x for STA:" MACDBG "\n", __FUNCTION__, sta->chanspec, MAC2STRDBG(sta->ea.octet))); } else { DHD_ERROR(("%s: found no STA:" MACDBG "\n", __FUNCTION__, MAC2STRDBG(ea))); } DHD_IF_STA_LIST_UNLOCK(&ifp->sta_list_lock, flags); } bool dhd_is_sta_htput(void *pub, int ifidx, void *ea) { #ifdef WL_CFG80211 dhd_sta_t *sta; dhd_if_t *ifp; unsigned long flags; bool htput = FALSE; /* For non-AP role, chanspec will not be updated and always use htput */ if (!DHD_IF_ROLE_AP((dhd_pub_t *)pub, ifidx)) { DHD_ERROR(("%s: non-AP role, set htput\n", __FUNCTION__)); htput = TRUE; return htput; } ASSERT(ea != NULL); ifp = dhd_get_ifp((dhd_pub_t *)pub, ifidx); if (ifp == NULL) { DHD_ERROR(("%s: NULL ifp for ifidx:%d\n", __FUNCTION__, ifidx)); return htput; } DHD_IF_STA_LIST_LOCK(&ifp->sta_list_lock, flags); sta = __dhd_find_sta(ifp, pub, ifidx, ea); /* Set htput for 160 Mhz */ if (sta) { if (CHSPEC_IS160(sta->chanspec)) { htput = TRUE; } DHD_ERROR(("%s: ifidx:%d htput:%d chanspec:0x%x of STA:" MACDBG "\n", __FUNCTION__, ifidx, htput, sta->chanspec, MAC2STRDBG(sta->ea.octet))); } else { DHD_ERROR(("%s: found no STA " MACDBG "\n", __FUNCTION__, MAC2STRDBG(ea))); } DHD_IF_STA_LIST_UNLOCK(&ifp->sta_list_lock, flags); return htput; #else /* For Non-CFG builds, always create HTPUT flowrings , * as dhd_update_sta_chanspec_info will not be called. */ return TRUE; #endif /* WL_CFG80211 */ } #if defined(DHD_IGMP_UCQUERY) || defined(DHD_UCAST_UPNP) static struct list_head * dhd_sta_list_snapshot(dhd_info_t *dhd, dhd_if_t *ifp, struct list_head *snapshot_list) { unsigned long flags; dhd_sta_t *sta, *snapshot; INIT_LIST_HEAD(snapshot_list); DHD_IF_STA_LIST_LOCK(&ifp->sta_list_lock, flags); list_for_each_entry(sta, &ifp->sta_list, list) { /* allocate one and add to snapshot */ snapshot = (dhd_sta_t *)MALLOC(dhd->pub.osh, sizeof(dhd_sta_t)); if (snapshot == NULL) { DHD_ERROR(("%s: Cannot allocate memory\n", __FUNCTION__)); continue; } memcpy(snapshot->ea.octet, sta->ea.octet, ETHER_ADDR_LEN); INIT_LIST_HEAD(&snapshot->list); list_add_tail(&snapshot->list, snapshot_list); } DHD_IF_STA_LIST_UNLOCK(&ifp->sta_list_lock, flags); return snapshot_list; } static void dhd_sta_list_snapshot_free(dhd_info_t *dhd, struct list_head *snapshot_list) { dhd_sta_t *sta, *next; list_for_each_entry_safe(sta, next, snapshot_list, list) { list_del(&sta->list); MFREE(dhd->pub.osh, sta, sizeof(dhd_sta_t)); } } #endif /* DHD_IGMP_UCQUERY || DHD_UCAST_UPNP */ #else static inline void dhd_if_del_sta_list(dhd_if_t *ifp) {} static inline int dhd_sta_pool_init(dhd_pub_t *dhdp, int max_sta) { return BCME_OK; } static inline void dhd_sta_pool_fini(dhd_pub_t *dhdp, int max_sta) {} static inline void dhd_sta_pool_clear(dhd_pub_t *dhdp, int max_sta) {} dhd_sta_t *dhd_findadd_sta(void *pub, int ifidx, void *ea) { return NULL; } dhd_sta_t *dhd_find_sta(void *pub, int ifidx, void *ea) { return NULL; } void dhd_del_sta(void *pub, int ifidx, void *ea) {} void dhd_update_sta_chanspec_info(void *pub, int ifidx, const uint8 *ea, chanspec_t chanspec) {} bool dhd_is_sta_htput(void *pub, int ifidx, void *ea) { return FALSE; } #endif /* PCIE_FULL_DONGLE */ #ifdef BCM_ROUTER_DHD /** Bind a flowid to the dhd_sta's flowid table. */ void dhd_add_flowid(dhd_pub_t * dhdp, int ifidx, uint8 ac_prio, void * ea, uint16 flowid) { int prio; dhd_if_t * ifp; dhd_sta_t * sta; flow_queue_t * queue; ASSERT((dhdp != (dhd_pub_t *)NULL) && (ea != NULL)); /* Fetch the dhd_if object given the if index */ ifp = dhd_get_ifp(dhdp, ifidx); if (ifp == (dhd_if_t *)NULL) /* ifp fetched from dhdp iflist[] */ return; /* Intializing the backup queue parameters */ if (DHD_IF_ROLE_WDS(dhdp, ifidx) || #ifdef DHD_WET WET_ENABLED(dhdp) || #endif /* DHD_WET */ 0) { queue = dhd_flow_queue(dhdp, flowid); dhd_flow_ring_config_thresholds(dhdp, flowid, dhd_queue_budget, queue->max, DHD_FLOW_QUEUE_CLEN_PTR(queue), dhd_if_threshold, (void *)&ifp->cumm_ctr); return; } else if ((sta = dhd_find_sta(dhdp, ifidx, ea)) == DHD_STA_NULL) { /* Fetch the station with a matching Mac address. */ /* Update queue's grandparent cummulative length threshold */ if (ETHER_ISMULTI((char *)ea)) { queue = dhd_flow_queue(dhdp, flowid); if (ifidx != 0 && DHD_IF_ROLE_STA(dhdp, ifidx)) { /* Use default dhdp->cumm_ctr and dhdp->l2cumm_ctr, * in PSTA mode the ifp will be deleted but we don't delete * the PSTA flowring. */ dhd_flow_ring_config_thresholds(dhdp, flowid, queue->max, queue->max, DHD_FLOW_QUEUE_CLEN_PTR(queue), dhd_if_threshold, DHD_FLOW_QUEUE_L2CLEN_PTR(queue)); } else if (DHD_FLOW_QUEUE_L2CLEN_PTR(queue) != (void *)&ifp->cumm_ctr) { dhd_flow_ring_config_thresholds(dhdp, flowid, queue->max, queue->max, DHD_FLOW_QUEUE_CLEN_PTR(queue), dhd_if_threshold, (void *)&ifp->cumm_ctr); } } return; } /* Set queue's min budget and queue's parent cummulative length threshold */ dhd_flow_ring_config_thresholds(dhdp, flowid, dhd_queue_budget, dhd_sta_threshold, (void *)&sta->cumm_ctr, dhd_if_threshold, (void *)&ifp->cumm_ctr); /* Populate the flowid into the stations flowid table, for all packet * priorities that would match the given flow's ac priority. */ for (prio = 0; prio < (int)NUMPRIO; prio++) { if (dhdp->flow_prio_map[prio] == ac_prio) { /* flowring shared for all these pkt prio */ sta->flowid[prio] = flowid; } } } /** Unbind a flowid to the sta's flowid table. */ void dhd_del_flowid(dhd_pub_t * dhdp, int ifidx, uint16 flowid) { int prio; dhd_if_t * ifp; dhd_sta_t * sta; unsigned long flags; /* Fetch the dhd_if object given the if index */ ifp = dhd_get_ifp(dhdp, ifidx); if (ifp == (dhd_if_t *)NULL) /* ifp fetched from dhdp iflist[] */ return; /* Walk all stations and delete clear any station's reference to flowid */ DHD_IF_STA_LIST_LOCK(&ifp->sta_list_lock, flags); list_for_each_entry(sta, &ifp->sta_list, list) { for (prio = 0; prio < (int)NUMPRIO; prio++) { if (sta->flowid[prio] == flowid) { sta->flowid[prio] = FLOWID_INVALID; } } } DHD_IF_STA_LIST_UNLOCK(&ifp->sta_list_lock, flags); } #endif /* BCM_ROUTER_DHD */ #if defined(DNGL_AXI_ERROR_LOGGING) && defined(DHD_USE_WQ_FOR_DNGL_AXI_ERROR) void dhd_axi_error_dispatch(dhd_pub_t *dhdp) { dhd_info_t *dhd = dhdp->info; schedule_work(&dhd->axi_error_dispatcher_work); } static void dhd_axi_error_dispatcher_fn(struct work_struct * work) { struct dhd_info *dhd = container_of(work, struct dhd_info, axi_error_dispatcher_work); dhd_axi_error(&dhd->pub); } #endif /* DNGL_AXI_ERROR_LOGGING && DHD_USE_WQ_FOR_DNGL_AXI_ERROR */ /** Returns dhd iflist index corresponding the the bssidx provided by apps */ int dhd_bssidx2idx(dhd_pub_t *dhdp, uint32 bssidx) { dhd_if_t *ifp; dhd_info_t *dhd = dhdp->info; int i; ASSERT(bssidx < DHD_MAX_IFS); ASSERT(dhdp); for (i = 0; i < DHD_MAX_IFS; i++) { ifp = dhd->iflist[i]; if (ifp && (ifp->bssidx == bssidx)) { DHD_TRACE(("Index manipulated for %s from %d to %d\n", ifp->name, bssidx, i)); break; } } return i; } int dhd_process_cid_mac(dhd_pub_t *dhdp, bool prepost) { uint chipid = 0; int ret = BCME_OK; #ifndef BCMDBUS chipid = dhd_bus_chip_id(dhdp); #endif /* BCMDBUS */ if (prepost) { /* pre process */ ret = dhd_alloc_cis(dhdp); if (ret != BCME_OK) { return ret; } switch (chipid) { #ifndef DHD_READ_CIS_FROM_BP case BCM4389_CHIP_GRPID: /* BCM4389B0 or higher rev is used new otp iovar */ dhd_read_otp_sw_rgn(dhdp); break; #endif /* !DHD_READ_CIS_FROM_BP */ default: dhd_read_cis(dhdp); break; } dhd_check_module_cid(dhdp); dhd_check_module_mac(dhdp); dhd_set_macaddr_from_file(dhdp); } else { /* post process */ dhd_write_macaddr(&dhdp->mac); dhd_clear_cis(dhdp); } return BCME_OK; } #ifdef PKT_FILTER_SUPPORT #ifndef GAN_LITE_NAT_KEEPALIVE_FILTER static bool _turn_on_arp_filter(dhd_pub_t *dhd, int op_mode_param) { bool _apply = FALSE; /* In case of IBSS mode, apply arp pkt filter */ if (op_mode_param & DHD_FLAG_IBSS_MODE) { _apply = TRUE; goto exit; } /* In case of P2P GO or GC, apply pkt filter to pass arp pkt to host */ if (op_mode_param & (DHD_FLAG_P2P_GC_MODE | DHD_FLAG_P2P_GO_MODE)) { _apply = TRUE; goto exit; } exit: return _apply; } #endif /* !GAN_LITE_NAT_KEEPALIVE_FILTER */ void dhd_set_packet_filter(dhd_pub_t *dhd) { int i; DHD_TRACE(("%s: enter\n", __FUNCTION__)); if (dhd_pkt_filter_enable) { for (i = 0; i < dhd->pktfilter_count; i++) { dhd_pktfilter_offload_set(dhd, dhd->pktfilter[i]); } } } void dhd_enable_packet_filter(int value, dhd_pub_t *dhd) { int i; DHD_ERROR(("%s: enter, value = %d\n", __FUNCTION__, value)); if ((dhd->op_mode & (DHD_FLAG_HOSTAP_MODE | DHD_FLAG_P2P_GO_MODE)) && value) { DHD_ERROR(("%s: DHD_FLAG_HOSTAP_MODE or DHD_FLAG_P2P_GO_MODE\n", __FUNCTION__)); return; } /* 1 - Enable packet filter, only allow unicast packet to send up */ /* 0 - Disable packet filter */ if (dhd_pkt_filter_enable && (!value || (dhd_support_sta_mode(dhd) && !dhd->dhcp_in_progress))) { for (i = 0; i < dhd->pktfilter_count; i++) { #ifndef GAN_LITE_NAT_KEEPALIVE_FILTER if (value && (i == DHD_ARP_FILTER_NUM) && !_turn_on_arp_filter(dhd, dhd->op_mode)) { DHD_TRACE(("Do not turn on ARP white list pkt filter:" "val %d, cnt %d, op_mode 0x%x\n", value, i, dhd->op_mode)); continue; } #endif /* !GAN_LITE_NAT_KEEPALIVE_FILTER */ #ifdef APSTA_BLOCK_ARP_DURING_DHCP if (value && (i == DHD_BROADCAST_ARP_FILTER_NUM) && dhd->pktfilter[DHD_BROADCAST_ARP_FILTER_NUM]) { /* XXX: BROADCAST_ARP_FILTER is only for the * STA/SoftAP concurrent mode (Please refer to RB:90348) * Remove the filter for other cases explicitly */ DHD_ERROR(("%s: Remove the DHD_BROADCAST_ARP_FILTER\n", __FUNCTION__)); dhd_packet_filter_add_remove(dhd, FALSE, DHD_BROADCAST_ARP_FILTER_NUM); } #endif /* APSTA_BLOCK_ARP_DURING_DHCP */ dhd_pktfilter_offload_enable(dhd, dhd->pktfilter[i], value, dhd_master_mode); } } } int dhd_packet_filter_add_remove(dhd_pub_t *dhdp, int add_remove, int num) { char *filterp = NULL; int filter_id = 0; switch (num) { case DHD_BROADCAST_FILTER_NUM: filterp = "101 0 0 0 0xFFFFFFFFFFFF 0xFFFFFFFFFFFF"; filter_id = 101; break; case DHD_MULTICAST4_FILTER_NUM: filter_id = 102; if (FW_SUPPORTED((dhdp), pf6)) { if (dhdp->pktfilter[num] != NULL) { dhd_pktfilter_offload_delete(dhdp, filter_id); dhdp->pktfilter[num] = NULL; } if (!add_remove) { filterp = DISCARD_IPV4_MCAST; add_remove = 1; break; } } /* XXX: intend omitting else case */ filterp = "102 0 0 0 0xFFFFFF 0x01005E"; break; case DHD_MULTICAST6_FILTER_NUM: filter_id = 103; if (FW_SUPPORTED((dhdp), pf6)) { if (dhdp->pktfilter[num] != NULL) { dhd_pktfilter_offload_delete(dhdp, filter_id); dhdp->pktfilter[num] = NULL; } if (!add_remove) { filterp = DISCARD_IPV6_MCAST; add_remove = 1; break; } } /* XXX: intend omitting else case */ filterp = "103 0 0 0 0xFFFF 0x3333"; break; case DHD_MDNS_FILTER_NUM: filterp = "104 0 0 0 0xFFFFFFFFFFFF 0x01005E0000FB"; filter_id = 104; break; case DHD_ARP_FILTER_NUM: filterp = "105 0 0 12 0xFFFF 0x0806"; filter_id = 105; break; case DHD_BROADCAST_ARP_FILTER_NUM: filterp = "106 0 0 0 0xFFFFFFFFFFFF0000000000000806" " 0xFFFFFFFFFFFF0000000000000806"; filter_id = 106; break; default: return -EINVAL; } /* Add filter */ if (add_remove) { dhdp->pktfilter[num] = filterp; dhd_pktfilter_offload_set(dhdp, dhdp->pktfilter[num]); } else { /* Delete filter */ if (dhdp->pktfilter[num] != NULL) { dhd_pktfilter_offload_delete(dhdp, filter_id); dhdp->pktfilter[num] = NULL; } } return 0; } #endif /* PKT_FILTER_SUPPORT */ #ifdef CUSTOM_EVENT_PM_WAKE void dhd_set_excess_pm_awake(dhd_pub_t *dhd, bool suspend) { int ret = 0; uint32 iovar_val = 0; /* Disable the excess PM notify */ char *iovar_name; #ifdef CUSTOM_EVENT_PM_PERCENT iovar_name = "excess_pm_period"; #else iovar_name = "const_awake_thresh"; iovar_val = CUSTOM_EVENT_PM_WAKE; #endif /* CUSTOM_EVENT_PM_PERCENT */ if (suspend) { iovar_val = CUSTOM_EVENT_PM_WAKE * 4; } ret = dhd_iovar(dhd, 0, iovar_name, (char *)&iovar_val, sizeof(iovar_val), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s set %s failed %d\n", __FUNCTION__, iovar_name, ret)); } return; } void dhd_init_excess_pm_awake(dhd_pub_t *dhd) { int ret = 0; uint32 pm_awake_thresh = CUSTOM_EVENT_PM_WAKE; #ifdef CUSTOM_EVENT_PM_PERCENT uint32 pm_awake_percent = CUSTOM_EVENT_PM_PERCENT; ret = dhd_iovar(dhd, 0, "excess_pm_percent", (char *)&pm_awake_percent, sizeof(pm_awake_percent), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s set excess_pm_percent failed %d\n", __FUNCTION__, ret)); } pm_awake_thresh = 0; /* Disable the excess PM notify */ #endif /* CUSTOM_EVENT_PM_PERCENT */ ret = dhd_iovar(dhd, 0, "const_awake_thresh", (char *)&pm_awake_thresh, sizeof(pm_awake_thresh), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s set const_awake_thresh failed %d\n", __FUNCTION__, ret)); } return; } #endif /* CUSTOM_EVENT_PM_WAKE */ static int dhd_set_suspend(int value, dhd_pub_t *dhd) { /* wl_pkt_filter_enable_t enable_parm; */ int ret = 0; #if defined(DHD_USE_EARLYSUSPEND) || defined(DHD_USE_PM_SLEEP) uint nd_ra_filter = 0; #endif /* DHD_USE_EARLYSUSPEND || DHD_USE_PM_SLEEP */ #ifdef PASS_ALL_MCAST_PKTS struct dhd_info *dhdinfo; uint32 allmulti; uint i; #endif /* PASS_ALL_MCAST_PKTS */ #ifdef DYNAMIC_SWOOB_DURATION #ifndef CUSTOM_INTR_WIDTH #define CUSTOM_INTR_WIDTH 100 int intr_width = 0; #endif /* CUSTOM_INTR_WIDTH */ #endif /* DYNAMIC_SWOOB_DURATION */ #ifdef WL_CFG80211 struct net_device *dev = dhd_linux_get_primary_netdev(dhd); #endif /* WL_CFG80211 */ #if defined(DHD_BCN_TIMEOUT_IN_SUSPEND) && (defined(DHD_USE_EARLYSUSPEND) || \ defined(DHD_USE_PM_SLEEP)) /* CUSTOM_BCN_TIMEOUT_IN_SUSPEND in suspend, otherwise CUSTOM_BCN_TIMEOUT */ int bcn_timeout = CUSTOM_BCN_TIMEOUT; #endif /* DHD_BCN_TIMEOUT_IN_SUSPEND && (DHD_USE_EARLYSUSPEND || DHD_USE_PM_SLEEP) */ BCM_REFERENCE(ret); if (!dhd) return -ENODEV; #ifdef PASS_ALL_MCAST_PKTS dhdinfo = dhd->info; #endif /* PASS_ALL_MCAST_PKTS */ DHD_TRACE(("%s: enter, value = %d in_suspend=%d\n", __FUNCTION__, value, dhd->in_suspend)); dhd_suspend_lock(dhd); #ifdef CUSTOM_SET_CPUCORE DHD_TRACE(("%s set cpucore(suspend%d)\n", __FUNCTION__, value)); /* set specific cpucore */ dhd_set_cpucore(dhd, TRUE); #endif /* CUSTOM_SET_CPUCORE */ if (dhd->up) { if (value && dhd->in_suspend) { dhd->early_suspended = 1; /* Kernel suspended */ DHD_ERROR(("%s: force extra Suspend setting \n", __FUNCTION__)); #ifdef PKT_FILTER_SUPPORT /* Enable packet filter, * only allow unicast packet to send up */ dhd_enable_packet_filter(1, dhd); #endif /* PKT_FILTER_SUPPORT */ #ifdef APF dhd_dev_apf_enable_filter(dhd_linux_get_primary_netdev(dhd)); #endif /* APF */ #ifdef ARP_OFFLOAD_SUPPORT if (dhd->arpoe_enable) { dhd_arp_offload_enable(dhd, TRUE); } #endif /* ARP_OFFLOAD_SUPPORT */ #ifdef PASS_ALL_MCAST_PKTS allmulti = 0; for (i = 0; i < DHD_MAX_IFS; i++) { if (dhdinfo->iflist[i] && dhdinfo->iflist[i]->net) { ret = dhd_iovar(dhd, i, "allmulti", (char *)&allmulti, sizeof(allmulti), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s allmulti failed %d\n", __FUNCTION__, ret)); } } } #endif /* PASS_ALL_MCAST_PKTS */ #if defined(DHD_USE_EARLYSUSPEND) || defined(DHD_USE_PM_SLEEP) #ifdef NDO_CONFIG_SUPPORT if (dhd->ndo_enable) { if (!dhd->ndo_host_ip_overflow) { /* enable ND offload on suspend */ ret = dhd_ndo_enable(dhd, TRUE); if (ret < 0) { DHD_ERROR(("%s: failed to enable NDO\n", __FUNCTION__)); } } else { DHD_INFO(("%s: NDO disabled on suspend due to" "HW capacity\n", __FUNCTION__)); } } #endif /* NDO_CONFIG_SUPPORT */ #ifndef APF if (FW_SUPPORTED(dhd, ndoe)) #else if (FW_SUPPORTED(dhd, ndoe) && !FW_SUPPORTED(dhd, apf)) #endif /* APF */ { /* enable IPv6 RA filter in firmware during suspend */ nd_ra_filter = 1; ret = dhd_iovar(dhd, 0, "nd_ra_filter_enable", (char *)&nd_ra_filter, sizeof(nd_ra_filter), NULL, 0, TRUE); if (ret < 0) DHD_ERROR(("failed to set nd_ra_filter (%d)\n", ret)); } dhd_os_suppress_logging(dhd, TRUE); #ifdef DYNAMIC_SWOOB_DURATION intr_width = CUSTOM_INTR_WIDTH; ret = dhd_iovar(dhd, 0, "bus:intr_width", (char *)&intr_width, sizeof(intr_width), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("failed to set intr_width (%d)\n", ret)); } #endif /* DYNAMIC_SWOOB_DURATION */ #endif /* DHD_USE_EARLYSUSPEND || DHD_USE_PM_SLEEP */ #ifdef WL_CFG80211 wl_cfg80211_soft_suspend(dev, TRUE); #endif /* WL_CFG80211 */ } else { dhd->early_suspended = 0; /* Kernel resumed */ DHD_ERROR(("%s: Remove extra suspend setting \n", __FUNCTION__)); #ifdef DYNAMIC_SWOOB_DURATION intr_width = 0; ret = dhd_iovar(dhd, 0, "bus:intr_width", (char *)&intr_width, sizeof(intr_width), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("failed to set intr_width (%d)\n", ret)); } #endif /* DYNAMIC_SWOOB_DURATION */ #ifdef ARP_OFFLOAD_SUPPORT if (dhd->arpoe_enable) { dhd_arp_offload_enable(dhd, FALSE); } #endif /* ARP_OFFLOAD_SUPPORT */ #ifdef PKT_FILTER_SUPPORT /* disable pkt filter */ dhd_enable_packet_filter(0, dhd); #endif /* PKT_FILTER_SUPPORT */ #ifdef APF dhd_dev_apf_disable_filter(dhd_linux_get_primary_netdev(dhd)); #endif /* APF */ #ifdef PASS_ALL_MCAST_PKTS allmulti = 1; for (i = 0; i < DHD_MAX_IFS; i++) { if (dhdinfo->iflist[i] && dhdinfo->iflist[i]->net) ret = dhd_iovar(dhd, i, "allmulti", (char *)&allmulti, sizeof(allmulti), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s: allmulti failed:%d\n", __FUNCTION__, ret)); } } #endif /* PASS_ALL_MCAST_PKTS */ #if defined(DHD_USE_EARLYSUSPEND) || defined(DHD_USE_PM_SLEEP) #ifdef NDO_CONFIG_SUPPORT if (dhd->ndo_enable) { /* Disable ND offload on resume */ ret = dhd_ndo_enable(dhd, FALSE); if (ret < 0) { DHD_ERROR(("%s: failed to disable NDO\n", __FUNCTION__)); } } #endif /* NDO_CONFIG_SUPPORT */ #ifndef APF if (FW_SUPPORTED(dhd, ndoe)) #else if (FW_SUPPORTED(dhd, ndoe) && !FW_SUPPORTED(dhd, apf)) #endif /* APF */ { /* disable IPv6 RA filter in firmware during suspend */ nd_ra_filter = 0; ret = dhd_iovar(dhd, 0, "nd_ra_filter_enable", (char *)&nd_ra_filter, sizeof(nd_ra_filter), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("failed to set nd_ra_filter (%d)\n", ret)); } } dhd_os_suppress_logging(dhd, FALSE); #endif /* DHD_USE_EARLYSUSPEND || DHD_USE_PM_SLEEP */ #ifdef WL_CFG80211 wl_cfg80211_soft_suspend(dev, FALSE); #endif /* WL_CFG80211 */ } } dhd_suspend_unlock(dhd); return 0; } static int dhd_suspend_resume_helper(struct dhd_info *dhd, int val, int force) { dhd_pub_t *dhdp = &dhd->pub; int ret = 0; #if !defined(DHD_USE_PM_SLEEP) DHD_OS_WAKE_LOCK(dhdp); #endif /* !defined(DHD_USE_PM_SLEEP) */ /* Set flag when early suspend was called */ dhdp->in_suspend = val; if ((force || !dhdp->suspend_disable_flag) && dhd_support_sta_mode(dhdp)) { ret = dhd_set_suspend(val, dhdp); } #if !defined(DHD_USE_PM_SLEEP) DHD_OS_WAKE_UNLOCK(dhdp); #endif /* !defined(DHD_USE_PM_SLEEP) */ return ret; } #if defined(CONFIG_HAS_EARLYSUSPEND) && defined(DHD_USE_EARLYSUSPEND) static void dhd_early_suspend(struct early_suspend *h) { struct dhd_info *dhd = container_of(h, struct dhd_info, early_suspend); DHD_TRACE_HW4(("%s: enter\n", __FUNCTION__)); if (dhd) dhd_suspend_resume_helper(dhd, 1, 0); } static void dhd_late_resume(struct early_suspend *h) { struct dhd_info *dhd = container_of(h, struct dhd_info, early_suspend); DHD_TRACE_HW4(("%s: enter\n", __FUNCTION__)); if (dhd) dhd_suspend_resume_helper(dhd, 0, 0); } #endif /* CONFIG_HAS_EARLYSUSPEND && DHD_USE_EARLYSUSPEND */ /* * Generalized timeout mechanism. Uses spin sleep with exponential back-off until * the sleep time reaches one jiffy, then switches over to task delay. Usage: * * dhd_timeout_start(&tmo, usec); * while (!dhd_timeout_expired(&tmo)) * if (poll_something()) * break; * if (dhd_timeout_expired(&tmo)) * fatal(); */ void dhd_timeout_start(dhd_timeout_t *tmo, uint usec) { #ifdef BCMQT tmo->limit = usec * htclkratio; #else tmo->limit = usec; #endif tmo->increment = 0; tmo->elapsed = 0; tmo->tick = 10 * USEC_PER_MSEC; /* 10 msec */ } int dhd_timeout_expired(dhd_timeout_t *tmo) { /* Does nothing the first call */ if (tmo->increment == 0) { tmo->increment = USEC_PER_MSEC; /* Start with 1 msec */ return 0; } if (tmo->elapsed >= tmo->limit) return 1; DHD_INFO(("%s: CAN_SLEEP():%d tmo->increment=%ld msec\n", __FUNCTION__, CAN_SLEEP(), tmo->increment / USEC_PER_MSEC)); CAN_SLEEP() ? OSL_SLEEP(tmo->increment / USEC_PER_MSEC) : OSL_DELAY(tmo->increment); /* Till tmo->tick, the delay will be in 2x, after that delay will be constant * tmo->tick (10 msec), till timer elapses. */ tmo->increment = (tmo->increment >= tmo->tick) ? tmo->tick : (tmo->increment * 2); /* Add the delay that's about to take place */ #ifdef BCMQT tmo->elapsed += tmo->increment * htclkratio; #else tmo->elapsed += tmo->increment; #endif return 0; } int dhd_net2idx(dhd_info_t *dhd, struct net_device *net) { int i = 0; if (!dhd) { DHD_ERROR(("%s : DHD_BAD_IF return\n", __FUNCTION__)); return DHD_BAD_IF; } while (i < DHD_MAX_IFS) { if (dhd->iflist[i] && dhd->iflist[i]->net && (dhd->iflist[i]->net == net)) return i; i++; } return DHD_BAD_IF; } struct net_device * dhd_idx2net(void *pub, int ifidx) { struct dhd_pub *dhd_pub = (struct dhd_pub *)pub; struct dhd_info *dhd_info; if (!dhd_pub || ifidx < 0 || ifidx >= DHD_MAX_IFS) return NULL; dhd_info = dhd_pub->info; if (dhd_info && dhd_info->iflist[ifidx]) return dhd_info->iflist[ifidx]->net; return NULL; } int dhd_ifname2idx(dhd_info_t *dhd, char *name) { int i = DHD_MAX_IFS; ASSERT(dhd); if (name == NULL || *name == '\0') return 0; while (--i > 0) if (dhd->iflist[i] && !strncmp(dhd->iflist[i]->dngl_name, name, IFNAMSIZ)) break; DHD_TRACE(("%s: return idx %d for \"%s\"\n", __FUNCTION__, i, name)); return i; /* default - the primary interface */ } char * dhd_ifname(dhd_pub_t *dhdp, int ifidx) { dhd_info_t *dhd = (dhd_info_t *)dhdp->info; ASSERT(dhd); if (ifidx < 0 || ifidx >= DHD_MAX_IFS) { DHD_ERROR(("%s: ifidx %d out of range\n", __FUNCTION__, ifidx)); return ""; } if (dhd->iflist[ifidx] == NULL) { DHD_ERROR(("%s: null i/f %d\n", __FUNCTION__, ifidx)); return ""; } if (dhd->iflist[ifidx]->net) return dhd->iflist[ifidx]->net->name; return ""; } uint8 * dhd_bssidx2bssid(dhd_pub_t *dhdp, int idx) { int i; dhd_info_t *dhd = (dhd_info_t *)dhdp; ASSERT(dhd); for (i = 0; i < DHD_MAX_IFS; i++) if (dhd->iflist[i] && dhd->iflist[i]->bssidx == idx) return dhd->iflist[i]->mac_addr; return NULL; } #ifdef BCMDBUS static void dhd_dbus_send_complete(void *handle, void *info, int status) { dhd_info_t *dhd = (dhd_info_t *)handle; void *pkt = info; if ((dhd == NULL) || (pkt == NULL)) return; if (status == DBUS_OK) { dhd->pub.dstats.tx_packets++; } else { DHD_ERROR(("TX error=%d\n", status)); dhd->pub.dstats.tx_errors++; } #ifdef PROP_TXSTATUS if (DHD_PKTTAG_WLFCPKT(PKTTAG(pkt)) && (dhd_wlfc_txcomplete(&dhd->pub, pkt, status == 0) != WLFC_UNSUPPORTED)) { return; } #endif /* PROP_TXSTATUS */ PKTFREE(dhd->pub.osh, pkt, TRUE); } static void dhd_dbus_recv_pkt(void *handle, void *pkt) { uchar reorder_info_buf[WLHOST_REORDERDATA_TOTLEN]; uint reorder_info_len; uint pkt_count; dhd_info_t *dhd = (dhd_info_t *)handle; int ifidx = 0; if (dhd == NULL) return; /* If the protocol uses a data header, check and remove it */ if (dhd_prot_hdrpull(&dhd->pub, &ifidx, pkt, reorder_info_buf, &reorder_info_len) != 0) { DHD_ERROR(("rx protocol error\n")); PKTFREE(dhd->pub.osh, pkt, FALSE); dhd->pub.rx_errors++; return; } if (reorder_info_len) { /* Reordering info from the firmware */ dhd_process_pkt_reorder_info(&dhd->pub, reorder_info_buf, reorder_info_len, &pkt, &pkt_count); if (pkt_count == 0) return; } else { pkt_count = 1; } dhd_rx_frame(&dhd->pub, ifidx, pkt, pkt_count, 0); } static void dhd_dbus_recv_buf(void *handle, uint8 *buf, int len) { dhd_info_t *dhd = (dhd_info_t *)handle; void *pkt; if (dhd == NULL) return; if ((pkt = PKTGET(dhd->pub.osh, len, FALSE)) == NULL) { DHD_ERROR(("PKTGET (rx) failed=%d\n", len)); return; } bcopy(buf, PKTDATA(dhd->pub.osh, pkt), len); dhd_dbus_recv_pkt(dhd, pkt); } static void dhd_dbus_txflowcontrol(void *handle, bool onoff) { dhd_info_t *dhd = (dhd_info_t *)handle; bool wlfc_enabled = FALSE; if (dhd == NULL) return; #ifdef PROP_TXSTATUS wlfc_enabled = (dhd_wlfc_flowcontrol(&dhd->pub, onoff, !onoff) != WLFC_UNSUPPORTED); #endif if (!wlfc_enabled) { dhd_txflowcontrol(&dhd->pub, ALL_INTERFACES, onoff); } } static void dhd_dbus_errhandler(void *handle, int err) { } static void dhd_dbus_ctl_complete(void *handle, int type, int status) { dhd_info_t *dhd = (dhd_info_t *)handle; if (dhd == NULL) return; if (type == DBUS_CBCTL_READ) { if (status == DBUS_OK) dhd->pub.rx_ctlpkts++; else dhd->pub.rx_ctlerrs++; } else if (type == DBUS_CBCTL_WRITE) { if (status == DBUS_OK) dhd->pub.tx_ctlpkts++; else dhd->pub.tx_ctlerrs++; } dhd_prot_ctl_complete(&dhd->pub); } static void dhd_dbus_state_change(void *handle, int state) { dhd_info_t *dhd = (dhd_info_t *)handle; if (dhd == NULL) return; switch (state) { case DBUS_STATE_DL_NEEDED: #if defined(BCM_DNGL_EMBEDIMAGE) || defined(BCM_REQUEST_FW) #if defined(BCMDBUS) DHD_TRACE(("%s: firmware request\n", __FUNCTION__)); up(&dhd->fw_download_lock); #endif /* BCMDBUS */ #else DHD_ERROR(("%s: firmware request cannot be handled\n", __FUNCTION__)); #endif /* defined(BCM_DNGL_EMBEDIMAGE) || defined(BCM_REQUEST_FW) */ break; case DBUS_STATE_DOWN: DHD_TRACE(("%s: DBUS is down\n", __FUNCTION__)); dhd->pub.busstate = DHD_BUS_DOWN; break; case DBUS_STATE_UP: DHD_TRACE(("%s: DBUS is up\n", __FUNCTION__)); dhd->pub.busstate = DHD_BUS_DATA; break; default: break; } DHD_TRACE(("%s: DBUS current state=%d\n", __FUNCTION__, state)); } static void * dhd_dbus_pktget(void *handle, uint len, bool send) { dhd_info_t *dhd = (dhd_info_t *)handle; void *p = NULL; if (dhd == NULL) return NULL; if (send == TRUE) { dhd_os_sdlock_txq(&dhd->pub); p = PKTGET(dhd->pub.osh, len, TRUE); dhd_os_sdunlock_txq(&dhd->pub); } else { dhd_os_sdlock_rxq(&dhd->pub); p = PKTGET(dhd->pub.osh, len, FALSE); dhd_os_sdunlock_rxq(&dhd->pub); } return p; } static void dhd_dbus_pktfree(void *handle, void *p, bool send) { dhd_info_t *dhd = (dhd_info_t *)handle; if (dhd == NULL) return; if (send == TRUE) { #ifdef PROP_TXSTATUS if (DHD_PKTTAG_WLFCPKT(PKTTAG(p)) && (dhd_wlfc_txcomplete(&dhd->pub, p, FALSE) != WLFC_UNSUPPORTED)) { return; } #endif /* PROP_TXSTATUS */ dhd_os_sdlock_txq(&dhd->pub); PKTFREE(dhd->pub.osh, p, TRUE); dhd_os_sdunlock_txq(&dhd->pub); } else { dhd_os_sdlock_rxq(&dhd->pub); PKTFREE(dhd->pub.osh, p, FALSE); dhd_os_sdunlock_rxq(&dhd->pub); } } static dbus_callbacks_t dhd_dbus_cbs = { dhd_dbus_send_complete, dhd_dbus_recv_buf, dhd_dbus_recv_pkt, dhd_dbus_txflowcontrol, dhd_dbus_errhandler, dhd_dbus_ctl_complete, dhd_dbus_state_change, dhd_dbus_pktget, dhd_dbus_pktfree }; void dhd_bus_dump(dhd_pub_t *dhdp, struct bcmstrbuf *strbuf) { bcm_bprintf(strbuf, "Bus USB\n"); } void dhd_bus_clearcounts(dhd_pub_t *dhdp) { } bool dhd_bus_dpc(struct dhd_bus *bus) { return FALSE; } int dhd_dbus_txdata(dhd_pub_t *dhdp, void *pktbuf) { if (dhdp->txoff) return BCME_EPERM; return dbus_send_txdata(dhdp->dbus, pktbuf); } #endif /* BCMDBUS */ static void _dhd_set_multicast_list(dhd_info_t *dhd, int ifidx) { struct net_device *dev; struct netdev_hw_addr *ha; uint32 allmulti, cnt; wl_ioctl_t ioc; char *buf, *bufp; uint buflen; int ret; #ifdef MCAST_LIST_ACCUMULATION int i; uint32 cnt_iface[DHD_MAX_IFS]; cnt = 0; allmulti = 0; for (i = 0; i < DHD_MAX_IFS; i++) { if (dhd->iflist[i]) { dev = dhd->iflist[i]->net; if (!dev) continue; netif_addr_lock_bh(dev); cnt_iface[i] = netdev_mc_count(dev); cnt += cnt_iface[i]; netif_addr_unlock_bh(dev); /* Determine initial value of allmulti flag */ allmulti |= (dev->flags & IFF_ALLMULTI) ? TRUE : FALSE; } } #else /* !MCAST_LIST_ACCUMULATION */ if (!dhd->iflist[ifidx]) { DHD_ERROR(("%s : dhd->iflist[%d] was NULL\n", __FUNCTION__, ifidx)); return; } dev = dhd->iflist[ifidx]->net; if (!dev) return; netif_addr_lock_bh(dev); cnt = netdev_mc_count(dev); netif_addr_unlock_bh(dev); /* Determine initial value of allmulti flag */ allmulti = (dev->flags & IFF_ALLMULTI) ? TRUE : FALSE; #endif /* MCAST_LIST_ACCUMULATION */ #ifdef PASS_ALL_MCAST_PKTS if (!dhd->pub.early_suspended) { allmulti = TRUE; } #endif /* PASS_ALL_MCAST_PKTS */ /* Send down the multicast list first. */ /* XXX Not using MAXMULTILIST to avoid including wlc_pub.h; but * maybe we should? (Or should that be in wlioctl.h instead?) */ buflen = sizeof("mcast_list") + sizeof(cnt) + (cnt * ETHER_ADDR_LEN); if (!(bufp = buf = MALLOC(dhd->pub.osh, buflen))) { DHD_ERROR(("%s: out of memory for mcast_list, cnt %d\n", dhd_ifname(&dhd->pub, ifidx), cnt)); return; } strlcpy(bufp, "mcast_list", buflen); bufp += strlen("mcast_list") + 1; cnt = htol32(cnt); memcpy(bufp, &cnt, sizeof(cnt)); bufp += sizeof(cnt); #ifdef MCAST_LIST_ACCUMULATION for (i = 0; i < DHD_MAX_IFS; i++) { if (dhd->iflist[i]) { DHD_TRACE(("_dhd_set_multicast_list: ifidx %d\n", i)); dev = dhd->iflist[i]->net; netif_addr_lock_bh(dev); GCC_DIAGNOSTIC_PUSH_SUPPRESS_CAST(); netdev_for_each_mc_addr(ha, dev) { GCC_DIAGNOSTIC_POP(); if (!cnt_iface[i]) break; memcpy(bufp, ha->addr, ETHER_ADDR_LEN); bufp += ETHER_ADDR_LEN; DHD_TRACE(("_dhd_set_multicast_list: cnt " "%d " MACDBG "\n", cnt_iface[i], MAC2STRDBG(ha->addr))); cnt_iface[i]--; } netif_addr_unlock_bh(dev); } } #else /* !MCAST_LIST_ACCUMULATION */ netif_addr_lock_bh(dev); GCC_DIAGNOSTIC_PUSH_SUPPRESS_CAST(); netdev_for_each_mc_addr(ha, dev) { GCC_DIAGNOSTIC_POP(); if (!cnt) break; memcpy(bufp, ha->addr, ETHER_ADDR_LEN); bufp += ETHER_ADDR_LEN; cnt--; } netif_addr_unlock_bh(dev); #endif /* MCAST_LIST_ACCUMULATION */ memset(&ioc, 0, sizeof(ioc)); ioc.cmd = WLC_SET_VAR; ioc.buf = buf; ioc.len = buflen; ioc.set = TRUE; ret = dhd_wl_ioctl(&dhd->pub, ifidx, &ioc, ioc.buf, ioc.len); if (ret < 0) { DHD_ERROR(("%s: set mcast_list failed, cnt %d\n", dhd_ifname(&dhd->pub, ifidx), cnt)); allmulti = cnt ? TRUE : allmulti; } MFREE(dhd->pub.osh, buf, buflen); /* Now send the allmulti setting. This is based on the setting in the * net_device flags, but might be modified above to be turned on if we * were trying to set some addresses and dongle rejected it... */ allmulti = htol32(allmulti); ret = dhd_iovar(&dhd->pub, ifidx, "allmulti", (char *)&allmulti, sizeof(allmulti), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s: set allmulti %d failed\n", dhd_ifname(&dhd->pub, ifidx), ltoh32(allmulti))); } /* Finally, pick up the PROMISC flag as well, like the NIC driver does */ #ifdef MCAST_LIST_ACCUMULATION allmulti = 0; for (i = 0; i < DHD_MAX_IFS; i++) { if (dhd->iflist[i]) { dev = dhd->iflist[i]->net; allmulti |= (dev->flags & IFF_PROMISC) ? TRUE : FALSE; } } #else allmulti = (dev->flags & IFF_PROMISC) ? TRUE : FALSE; #endif /* MCAST_LIST_ACCUMULATION */ allmulti = htol32(allmulti); memset(&ioc, 0, sizeof(ioc)); ioc.cmd = WLC_SET_PROMISC; ioc.buf = &allmulti; ioc.len = sizeof(allmulti); ioc.set = TRUE; ret = dhd_wl_ioctl(&dhd->pub, ifidx, &ioc, ioc.buf, ioc.len); if (ret < 0) { DHD_ERROR(("%s: set promisc %d failed\n", dhd_ifname(&dhd->pub, ifidx), ltoh32(allmulti))); } } int _dhd_set_mac_address(dhd_info_t *dhd, int ifidx, uint8 *addr) { int ret; ret = dhd_iovar(&dhd->pub, ifidx, "cur_etheraddr", (char *)addr, ETHER_ADDR_LEN, NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s: set cur_etheraddr failed\n", dhd_ifname(&dhd->pub, ifidx))); } else { memcpy(dhd->iflist[ifidx]->net->dev_addr, addr, ETHER_ADDR_LEN); if (ifidx == 0) memcpy(dhd->pub.mac.octet, addr, ETHER_ADDR_LEN); } return ret; } int dhd_update_rand_mac_addr(dhd_pub_t *dhd) { struct ether_addr mac_addr; dhd_generate_rand_mac_addr(&mac_addr); if (_dhd_set_mac_address(dhd->info, 0, mac_addr.octet) != 0) { DHD_ERROR(("randmac setting failed\n")); #ifdef STA_RANDMAC_ENFORCED return BCME_BADADDR; #endif /* STA_RANDMAC_ENFORCED */ } return BCME_OK; } #ifdef SOFTAP extern struct net_device *ap_net_dev; extern tsk_ctl_t ap_eth_ctl; /* ap netdev heper thread ctl */ #endif #ifdef BCM_ROUTER_DHD void dhd_update_dpsta_interface_for_sta(dhd_pub_t* dhdp, int ifidx, void* event_data) { struct wl_dpsta_intf_event *dpsta_prim_event = (struct wl_dpsta_intf_event *)event_data; dhd_if_t *ifp = dhdp->info->iflist[ifidx]; if (dpsta_prim_event->intf_type == WL_INTF_DWDS) { ifp->primsta_dwds = TRUE; } else { ifp->primsta_dwds = FALSE; } } #endif /* BCM_ROUTER_DHD */ #ifdef DHD_WMF void dhd_update_psta_interface_for_sta(dhd_pub_t* dhdp, char* ifname, void* ea, void* event_data) { struct wl_psta_primary_intf_event *psta_prim_event = (struct wl_psta_primary_intf_event*)event_data; dhd_sta_t *psta_interface = NULL; dhd_sta_t *sta = NULL; uint8 ifindex; ASSERT(ifname); ASSERT(psta_prim_event); ASSERT(ea); ifindex = (uint8)dhd_ifname2idx(dhdp->info, ifname); sta = dhd_find_sta(dhdp, ifindex, ea); if (sta != NULL) { psta_interface = dhd_find_sta(dhdp, ifindex, (void *)(psta_prim_event->prim_ea.octet)); if (psta_interface != NULL) { sta->psta_prim = psta_interface; } } } /* Get wmf_psta_disable configuration configuration */ int dhd_get_wmf_psta_disable(dhd_pub_t *dhdp, uint32 idx) { dhd_info_t *dhd = dhdp->info; dhd_if_t *ifp; ASSERT(idx < DHD_MAX_IFS); ifp = dhd->iflist[idx]; return ifp->wmf_psta_disable; } /* Set wmf_psta_disable configuration configuration */ int dhd_set_wmf_psta_disable(dhd_pub_t *dhdp, uint32 idx, int val) { dhd_info_t *dhd = dhdp->info; dhd_if_t *ifp; ASSERT(idx < DHD_MAX_IFS); ifp = dhd->iflist[idx]; ifp->wmf_psta_disable = val; return 0; } #endif /* DHD_WMF */ #ifdef DHD_PSTA /* Get psta/psr configuration configuration */ int dhd_get_psta_mode(dhd_pub_t *dhdp) { dhd_info_t *dhd = dhdp->info; return (int)dhd->psta_mode; } /* Set psta/psr configuration configuration */ int dhd_set_psta_mode(dhd_pub_t *dhdp, uint32 val) { dhd_info_t *dhd = dhdp->info; dhd->psta_mode = val; return 0; } #endif /* DHD_PSTA */ #ifdef DHD_WET /* Get wet configuration configuration */ int dhd_get_wet_mode(dhd_pub_t *dhdp) { dhd_info_t *dhd = dhdp->info; return (int)dhd->wet_mode; } /* Set wet configuration configuration */ int dhd_set_wet_mode(dhd_pub_t *dhdp, uint32 val) { dhd_info_t *dhd = dhdp->info; dhd->wet_mode = val; dhd_update_rx_pkt_chainable_state(dhdp, 0); return 0; } #endif /* DHD_WET */ #if defined(WL_CFG80211) && (LINUX_VERSION_CODE >= KERNEL_VERSION(3, 0, 0)) int32 dhd_role_to_nl80211_iftype(int32 role) { switch (role) { case WLC_E_IF_ROLE_STA: return NL80211_IFTYPE_STATION; case WLC_E_IF_ROLE_AP: return NL80211_IFTYPE_AP; case WLC_E_IF_ROLE_WDS: return NL80211_IFTYPE_WDS; case WLC_E_IF_ROLE_P2P_GO: return NL80211_IFTYPE_P2P_GO; case WLC_E_IF_ROLE_P2P_CLIENT: return NL80211_IFTYPE_P2P_CLIENT; case WLC_E_IF_ROLE_IBSS: case WLC_E_IF_ROLE_NAN: return NL80211_IFTYPE_ADHOC; default: return NL80211_IFTYPE_UNSPECIFIED; } } #endif /* WL_CFG80211 && LINUX_VERSION_CODE >= KERNEL_VERSION(3, 0, 0) */ static void dhd_ifadd_event_handler(void *handle, void *event_info, u8 event) { dhd_info_t *dhd = handle; dhd_if_event_t *if_event = event_info; int ifidx, bssidx; int ret = 0; #if defined(WL_CFG80211) && (LINUX_VERSION_CODE >= KERNEL_VERSION(3, 0, 0)) struct wl_if_event_info info; #else struct net_device *ndev; #endif /* WL_CFG80211 && LINUX_VERSION_CODE >= KERNEL_VERSION(3, 0, 0) */ BCM_REFERENCE(ret); if (event != DHD_WQ_WORK_IF_ADD) { DHD_ERROR(("%s: unexpected event \n", __FUNCTION__)); return; } if (!dhd) { DHD_ERROR(("%s: dhd info not available \n", __FUNCTION__)); return; } if (!if_event) { DHD_ERROR(("%s: event data is null \n", __FUNCTION__)); return; } dhd_net_if_lock_local(dhd); ifidx = if_event->event.ifidx; bssidx = if_event->event.bssidx; DHD_TRACE(("%s: registering if with ifidx %d\n", __FUNCTION__, ifidx)); #if defined(WL_CFG80211) && (LINUX_VERSION_CODE >= KERNEL_VERSION(3, 0, 0)) if (if_event->event.ifidx > 0) { u8 *mac_addr; bzero(&info, sizeof(info)); info.ifidx = ifidx; info.bssidx = bssidx; info.role = if_event->event.role; strlcpy(info.name, if_event->name, sizeof(info.name)); if (is_valid_ether_addr(if_event->mac)) { mac_addr = if_event->mac; } else { mac_addr = NULL; } if (wl_cfg80211_post_ifcreate(dhd->pub.info->iflist[0]->net, &info, mac_addr, NULL, true) == NULL) { /* Do the post interface create ops */ DHD_ERROR(("Post ifcreate ops failed. Returning \n")); ret = BCME_ERROR; goto done; } } #else /* This path is for non-android case */ /* The interface name in host and in event msg are same */ /* if name in event msg is used to create dongle if list on host */ ndev = dhd_allocate_if(&dhd->pub, ifidx, if_event->name, if_event->mac, bssidx, TRUE, if_event->name); if (!ndev) { DHD_ERROR(("%s: net device alloc failed \n", __FUNCTION__)); ret = BCME_NOMEM; goto done; } ret = dhd_register_if(&dhd->pub, ifidx, TRUE); if (ret != BCME_OK) { DHD_ERROR(("%s: dhd_register_if failed\n", __FUNCTION__)); dhd_remove_if(&dhd->pub, ifidx, TRUE); goto done; } #endif /* WL_CFG80211 && LINUX_VERSION_CODE >= KERNEL_VERSION(3, 0, 0) */ #ifndef PCIE_FULL_DONGLE /* Turn on AP isolation in the firmware for interfaces operating in AP mode */ if (FW_SUPPORTED((&dhd->pub), ap) && (if_event->event.role != WLC_E_IF_ROLE_STA)) { uint32 var_int = 1; ret = dhd_iovar(&dhd->pub, ifidx, "ap_isolate", (char *)&var_int, sizeof(var_int), NULL, 0, TRUE); if (ret != BCME_OK) { DHD_ERROR(("%s: Failed to set ap_isolate to dongle\n", __FUNCTION__)); dhd_remove_if(&dhd->pub, ifidx, TRUE); } } #endif /* PCIE_FULL_DONGLE */ done: MFREE(dhd->pub.osh, if_event, sizeof(dhd_if_event_t)); dhd_net_if_unlock_local(dhd); } static void dhd_ifdel_event_handler(void *handle, void *event_info, u8 event) { dhd_info_t *dhd = handle; int ifidx; dhd_if_event_t *if_event = event_info; if (event != DHD_WQ_WORK_IF_DEL) { DHD_ERROR(("%s: unexpected event \n", __FUNCTION__)); return; } if (!dhd) { DHD_ERROR(("%s: dhd info not available \n", __FUNCTION__)); return; } if (!if_event) { DHD_ERROR(("%s: event data is null \n", __FUNCTION__)); return; } dhd_net_if_lock_local(dhd); ifidx = if_event->event.ifidx; DHD_TRACE(("Removing interface with idx %d\n", ifidx)); if (!dhd->pub.info->iflist[ifidx]) { /* No matching netdev found */ DHD_ERROR(("Netdev not found! Do nothing.\n")); goto done; } #if defined(WL_CFG80211) && (LINUX_VERSION_CODE >= KERNEL_VERSION(3, 0, 0)) if (if_event->event.ifidx > 0) { /* Do the post interface del ops */ if (wl_cfg80211_post_ifdel(dhd->pub.info->iflist[ifidx]->net, true, if_event->event.ifidx) != 0) { DHD_TRACE(("Post ifdel ops failed. Returning \n")); goto done; } } #else /* For non-cfg80211 drivers */ dhd_remove_if(&dhd->pub, ifidx, TRUE); #endif /* WL_CFG80211 && LINUX_VERSION_CODE >= KERNEL_VERSION(3, 0, 0) */ done: MFREE(dhd->pub.osh, if_event, sizeof(dhd_if_event_t)); dhd_net_if_unlock_local(dhd); } static void dhd_set_mac_addr_handler(void *handle, void *event_info, u8 event) { dhd_info_t *dhd = handle; dhd_if_t *ifp = event_info; if (event != DHD_WQ_WORK_SET_MAC) { DHD_ERROR(("%s: unexpected event \n", __FUNCTION__)); } if (!dhd) { DHD_ERROR(("%s: dhd info not available \n", __FUNCTION__)); return; } dhd_net_if_lock_local(dhd); DHD_OS_WAKE_LOCK(&dhd->pub); #ifdef SOFTAP { unsigned long flags; bool in_ap = FALSE; DHD_GENERAL_LOCK(&dhd->pub, flags); in_ap = (ap_net_dev != NULL); DHD_GENERAL_UNLOCK(&dhd->pub, flags); if (in_ap) { DHD_ERROR(("attempt to set MAC for %s in AP Mode, blocked. \n", ifp->net->name)); goto done; } } #endif /* SOFTAP */ if (ifp == NULL || !dhd->pub.up) { DHD_ERROR(("%s: interface info not available/down \n", __FUNCTION__)); goto done; } DHD_ERROR(("%s: MACID is overwritten\n", __FUNCTION__)); ifp->set_macaddress = FALSE; if (_dhd_set_mac_address(dhd, ifp->idx, ifp->mac_addr) == 0) DHD_INFO(("%s: MACID is overwritten\n", __FUNCTION__)); else DHD_ERROR(("%s: _dhd_set_mac_address() failed\n", __FUNCTION__)); done: DHD_OS_WAKE_UNLOCK(&dhd->pub); dhd_net_if_unlock_local(dhd); } static void dhd_set_mcast_list_handler(void *handle, void *event_info, u8 event) { dhd_info_t *dhd = handle; int ifidx = (int)((long int)event_info); dhd_if_t *ifp = NULL; if (event != DHD_WQ_WORK_SET_MCAST_LIST) { DHD_ERROR(("%s: unexpected event \n", __FUNCTION__)); return; } if (!dhd) { DHD_ERROR(("%s: dhd info not available \n", __FUNCTION__)); return; } dhd_net_if_lock_local(dhd); DHD_OS_WAKE_LOCK(&dhd->pub); ifp = dhd->iflist[ifidx]; if (ifp == NULL || !dhd->pub.up) { DHD_ERROR(("%s: interface info not available/down \n", __FUNCTION__)); goto done; } #ifdef SOFTAP { bool in_ap = FALSE; unsigned long flags; DHD_GENERAL_LOCK(&dhd->pub, flags); in_ap = (ap_net_dev != NULL); DHD_GENERAL_UNLOCK(&dhd->pub, flags); if (in_ap) { DHD_ERROR(("set MULTICAST list for %s in AP Mode, blocked. \n", ifp->net->name)); ifp->set_multicast = FALSE; goto done; } } #endif /* SOFTAP */ ifidx = ifp->idx; #ifdef MCAST_LIST_ACCUMULATION ifidx = 0; #endif /* MCAST_LIST_ACCUMULATION */ _dhd_set_multicast_list(dhd, ifidx); DHD_INFO(("%s: set multicast list for if %d\n", __FUNCTION__, ifidx)); done: DHD_OS_WAKE_UNLOCK(&dhd->pub); dhd_net_if_unlock_local(dhd); } static int dhd_set_mac_address(struct net_device *dev, void *addr) { int ret = 0; dhd_info_t *dhd = DHD_DEV_INFO(dev); struct sockaddr *sa = (struct sockaddr *)addr; int ifidx; dhd_if_t *dhdif; #ifdef WL_STATIC_IF struct bcm_cfg80211 *cfg = wl_get_cfg(dev); #endif /* WL_STATIC_IF */ dhd_pub_t *dhdp = &dhd->pub; bool addr_chngd = TRUE; BCM_REFERENCE(ifidx); BCM_REFERENCE(addr_chngd); DHD_TRACE(("%s \n", __func__)); dhdif = dhd_get_ifp_by_ndev(dhdp, dev); if (!dhdif) { return -ENODEV; } ifidx = dhdif->idx; dhd_net_if_lock_local(dhd); if (memcmp(dhdif->mac_addr, sa->sa_data, ETHER_ADDR_LEN) == 0) { addr_chngd = FALSE; } memcpy(dhdif->mac_addr, sa->sa_data, ETHER_ADDR_LEN); dhdif->set_macaddress = TRUE; dhd_net_if_unlock_local(dhd); #ifdef WL_CFG80211 /* Check wdev->iftype for the role */ if (wl_cfg80211_macaddr_sync_reqd(dev)) { /* Supplicant and certain user layer applications expect macaddress to be * set once the context returns. so set it from the same context */ DHD_ERROR(("%s: iftype = %d macaddr = "MACDBG"\n", __FUNCTION__, dev->ieee80211_ptr->iftype, MAC2STRDBG(&dhdif->mac_addr))); #ifdef WL_STATIC_IF if (IS_CFG80211_STATIC_IF(cfg, dev) && !(dev->flags & IFF_UP)) { /* In softap case, the macaddress will be applied before interface up * and hence curether_addr can't be done at this stage (no fw iface * available). Store the address and return. macaddr will be applied * from interface create context. */ (void)memcpy_s(dev->dev_addr, ETH_ALEN, dhdif->mac_addr, ETH_ALEN); return ret; } #endif /* WL_STATIC_IF */ wl_cfg80211_handle_macaddr_change(dev, dhdif->mac_addr); ret = _dhd_set_mac_address(dhd, ifidx, dhdif->mac_addr); if ((ret == BCME_OK) && (addr_chngd == TRUE)) { /* Notify Dev/Address change to upperlayer */ netdev_state_change(dev); } return ret; } #endif /* WL_CFG80211 */ dhd_deferred_schedule_work(dhd->dhd_deferred_wq, (void *)dhdif, DHD_WQ_WORK_SET_MAC, dhd_set_mac_addr_handler, DHD_WQ_WORK_PRIORITY_LOW); return ret; } static void dhd_set_multicast_list(struct net_device *dev) { dhd_info_t *dhd = DHD_DEV_INFO(dev); int ifidx; ifidx = dhd_net2idx(dhd, dev); if (ifidx == DHD_BAD_IF) return; dhd->iflist[ifidx]->set_multicast = TRUE; dhd_deferred_schedule_work(dhd->dhd_deferred_wq, (void *)((long int)ifidx), DHD_WQ_WORK_SET_MCAST_LIST, dhd_set_mcast_list_handler, DHD_WQ_WORK_PRIORITY_LOW); } #ifdef DHD_UCODE_DOWNLOAD /* Get ucode path */ char * dhd_get_ucode_path(dhd_pub_t *dhdp) { dhd_info_t *dhd = dhdp->info; return dhd->uc_path; } #endif /* DHD_UCODE_DOWNLOAD */ #ifdef PROP_TXSTATUS int dhd_os_wlfc_block(dhd_pub_t *pub) { dhd_info_t *di = (dhd_info_t *)(pub->info); ASSERT(di != NULL); #ifdef BCMDBUS spin_lock_irqsave(&di->wlfc_spinlock, di->wlfc_lock_flags); #else spin_lock_bh(&di->wlfc_spinlock); #endif return 1; } int dhd_os_wlfc_unblock(dhd_pub_t *pub) { dhd_info_t *di = (dhd_info_t *)(pub->info); ASSERT(di != NULL); #ifdef BCMDBUS spin_unlock_irqrestore(&di->wlfc_spinlock, di->wlfc_lock_flags); #else spin_unlock_bh(&di->wlfc_spinlock); #endif return 1; } #endif /* PROP_TXSTATUS */ /* This routine do not support Packet chain feature, Currently tested for * proxy arp feature */ int dhd_sendup(dhd_pub_t *dhdp, int ifidx, void *p) { struct sk_buff *skb; void *skbhead = NULL; void *skbprev = NULL; dhd_if_t *ifp; ASSERT(!PKTISCHAINED(p)); skb = PKTTONATIVE(dhdp->osh, p); ifp = dhdp->info->iflist[ifidx]; skb->dev = ifp->net; skb->protocol = eth_type_trans(skb, skb->dev); if (in_interrupt()) { bcm_object_trace_opr(skb, BCM_OBJDBG_REMOVE, __FUNCTION__, __LINE__); netif_rx(skb); } else { if (dhdp->info->rxthread_enabled) { if (!skbhead) { skbhead = skb; } else { PKTSETNEXT(dhdp->osh, skbprev, skb); } skbprev = skb; } else { /* If the receive is not processed inside an ISR, * the softirqd must be woken explicitly to service * the NET_RX_SOFTIRQ. In 2.6 kernels, this is handled * by netif_rx_ni(), but in earlier kernels, we need * to do it manually. */ bcm_object_trace_opr(skb, BCM_OBJDBG_REMOVE, __FUNCTION__, __LINE__); netif_rx_ni(skb); } } if (dhdp->info->rxthread_enabled && skbhead) dhd_sched_rxf(dhdp, skbhead); return BCME_OK; } #ifdef DHD_PCIE_NATIVE_RUNTIMEPM void dhd_start_xmit_wq_adapter(struct work_struct *ptr) { struct dhd_rx_tx_work *work; int ret; dhd_info_t *dhd; struct dhd_bus * bus; work = container_of(ptr, struct dhd_rx_tx_work, work); dhd = DHD_DEV_INFO(work->net); bus = dhd->pub.bus; if (atomic_read(&dhd->pub.block_bus)) { kfree_skb(work->skb); kfree(work); dhd_netif_start_queue(bus); return; } if (pm_runtime_get_sync(dhd_bus_to_dev(bus)) >= 0) { ret = dhd_start_xmit(work->skb, work->net); pm_runtime_mark_last_busy(dhd_bus_to_dev(bus)); pm_runtime_put_autosuspend(dhd_bus_to_dev(bus)); } kfree(work); dhd_netif_start_queue(bus); if (ret) netdev_err(work->net, "error: dhd_start_xmit():%d\n", ret); } netdev_tx_t BCMFASTPATH(dhd_start_xmit_wrapper)(struct sk_buff *skb, struct net_device *net) { struct dhd_rx_tx_work *start_xmit_work; int ret; dhd_info_t *dhd = DHD_DEV_INFO(net); if (dhd->pub.busstate == DHD_BUS_SUSPEND) { DHD_RPM(("%s: wakeup the bus using workqueue.\n", __FUNCTION__)); dhd_netif_stop_queue(dhd->pub.bus); start_xmit_work = (struct dhd_rx_tx_work*) kmalloc(sizeof(*start_xmit_work), GFP_ATOMIC); if (!start_xmit_work) { netdev_err(net, "error: failed to alloc start_xmit_work\n"); ret = -ENOMEM; goto exit; } INIT_WORK(&start_xmit_work->work, dhd_start_xmit_wq_adapter); start_xmit_work->skb = skb; start_xmit_work->net = net; queue_work(dhd->tx_wq, &start_xmit_work->work); ret = NET_XMIT_SUCCESS; } else if (dhd->pub.busstate == DHD_BUS_DATA) { ret = dhd_start_xmit(skb, net); } else { /* when bus is down */ ret = -ENODEV; } exit: return ret; } void dhd_bus_wakeup_work(dhd_pub_t *dhdp) { struct dhd_rx_tx_work *rx_work; dhd_info_t *dhd = (dhd_info_t *)dhdp->info; rx_work = kmalloc(sizeof(*rx_work), GFP_ATOMIC); if (!rx_work) { DHD_ERROR(("%s: start_rx_work alloc error. \n", __FUNCTION__)); return; } INIT_WORK(&rx_work->work, dhd_rx_wq_wakeup); rx_work->pub = dhdp; queue_work(dhd->rx_wq, &rx_work->work); } #endif /* DHD_PCIE_NATIVE_RUNTIMEPM */ #if (defined(BCM_ROUTER_DHD) && defined(HNDCTF)) /* Dump CTF stats */ void dhd_ctf_dump(dhd_pub_t *dhdp, struct bcmstrbuf *strbuf) { dhd_info_t *dhd = dhdp->info; bcm_bprintf(strbuf, "CTF stats:\n"); ctf_dump(dhd->cih, strbuf); } bool BCMFASTPATH(dhd_rx_pkt_chainable)(dhd_pub_t *dhdp, int ifidx) { dhd_info_t *dhd = dhdp->info; dhd_if_t *ifp = dhd->iflist[ifidx]; return ifp->rx_pkt_chainable; } /* Returns FALSE if block ping is enabled */ bool BCMFASTPATH(dhd_l2_filter_chainable)(dhd_pub_t *dhdp, uint8 *eh, int ifidx) { #ifdef DHD_L2_FILTER dhd_info_t *dhd = dhdp->info; dhd_if_t *ifp = dhd->iflist[ifidx]; ASSERT(ifp != NULL); return ifp->block_ping ? FALSE : TRUE; #else return TRUE; #endif /* DHD_L2_FILTER */ } /* Returns FALSE if WET is enabled */ bool BCMFASTPATH(dhd_wet_chainable)(dhd_pub_t *dhdp) { #ifdef DHD_WET return (!WET_ENABLED(dhdp)); #else return TRUE; #endif } /* Returns TRUE if hot bridge entry for this da is present */ bool BCMFASTPATH(dhd_ctf_hotbrc_check)(dhd_pub_t *dhdp, uint8 *eh, int ifidx) { dhd_info_t *dhd = dhdp->info; dhd_if_t *ifp = dhd->iflist[ifidx]; ASSERT(ifp != NULL); if (!dhd->brc_hot) return FALSE; return CTF_HOTBRC_CMP(dhd->brc_hot, (eh), (void *)(ifp->net)); } /* * Try to forward the complete packet chain through CTF. * If unsuccessful, * - link the chain by skb->next * - change the pnext to the 2nd packet of the chain * - the chained packets will be sent up to the n/w stack */ static inline int32 BCMFASTPATH(dhd_ctf_forward)(dhd_info_t *dhd, struct sk_buff *skb, void **pnext) { dhd_pub_t *dhdp = &dhd->pub; void *p, *n; void *old_pnext; /* try cut thru first */ if (!CTF_ENAB(dhd->cih) || (ctf_forward(dhd->cih, skb, skb->dev) == BCME_ERROR)) { /* Fall back to slow path if ctf is disabled or if ctf_forward fails */ /* clear skipct flag before sending up */ PKTCLRSKIPCT(dhdp->osh, skb); #ifdef CTFPOOL /* allocate and add a new skb to the pkt pool */ if (PKTISFAST(dhdp->osh, skb)) osl_ctfpool_add(dhdp->osh); /* clear fast buf flag before sending up */ PKTCLRFAST(dhdp->osh, skb); /* re-init the hijacked field */ CTFPOOLPTR(dhdp->osh, skb) = NULL; #endif /* CTFPOOL */ /* link the chained packets by skb->next */ if (PKTISCHAINED(skb)) { old_pnext = *pnext; PKTFRMNATIVE(dhdp->osh, skb); p = (void *)skb; FOREACH_CHAINED_PKT(p, n) { PKTCLRCHAINED(dhdp->osh, p); PKTCCLRFLAGS(p); if (p == (void *)skb) PKTTONATIVE(dhdp->osh, p); if (n) PKTSETNEXT(dhdp->osh, p, n); else PKTSETNEXT(dhdp->osh, p, old_pnext); } *pnext = PKTNEXT(dhdp->osh, skb); PKTSETNEXT(dhdp->osh, skb, NULL); } return (BCME_ERROR); } return (BCME_OK); } #endif /* BCM_ROUTER_DHD && HNDCTF */ #ifdef DHD_MCAST_REGEN /* * Description: This function is called to do the reverse translation * * Input eh - pointer to the ethernet header */ int32 dhd_mcast_reverse_translation(struct ether_header *eh) { uint8 *iph; uint32 dest_ip; iph = (uint8 *)eh + ETHER_HDR_LEN; dest_ip = ntoh32(*((uint32 *)(iph + IPV4_DEST_IP_OFFSET))); /* Only IP packets are handled */ if (eh->ether_type != hton16(ETHER_TYPE_IP)) return BCME_ERROR; /* Non-IPv4 multicast packets are not handled */ if (IP_VER(iph) != IP_VER_4) return BCME_ERROR; /* * The packet has a multicast IP and unicast MAC. That means * we have to do the reverse translation */ if (IPV4_ISMULTI(dest_ip) && !ETHER_ISMULTI(&eh->ether_dhost)) { ETHER_FILL_MCAST_ADDR_FROM_IP(eh->ether_dhost, dest_ip); return BCME_OK; } return BCME_ERROR; } #endif /* MCAST_REGEN */ void dhd_dpc_tasklet_dispatcher_work(struct work_struct * work) { struct delayed_work *dw = to_delayed_work(work); struct dhd_info *dhd; GCC_DIAGNOSTIC_PUSH_SUPPRESS_CAST(); dhd = container_of(dw, struct dhd_info, dhd_dpc_dispatcher_work); GCC_DIAGNOSTIC_POP(); DHD_INFO(("%s:\n", __FUNCTION__)); tasklet_schedule(&dhd->tasklet); } void dhd_schedule_delayed_dpc_on_dpc_cpu(dhd_pub_t *dhdp, ulong delay) { dhd_info_t *dhd = (dhd_info_t *)dhdp->info; int dpc_cpu = atomic_read(&dhd->dpc_cpu); DHD_INFO(("%s:\n", __FUNCTION__)); /* scheduler will take care of scheduling to appropriate cpu if dpc_cpu is not online */ schedule_delayed_work_on(dpc_cpu, &dhd->dhd_dpc_dispatcher_work, delay); return; } #ifdef SHOW_LOGTRACE static void dhd_netif_rx_ni(struct sk_buff * skb) { /* Do not call netif_recieve_skb as this workqueue scheduler is * not from NAPI Also as we are not in INTR context, do not call * netif_rx, instead call netif_rx_ni (for kerenl >= 2.6) which * does netif_rx, disables irq, raise NET_IF_RX softirq and * enables interrupts back */ netif_rx_ni(skb); } static int dhd_event_logtrace_pkt_process(dhd_pub_t *dhdp, struct sk_buff * skb) { dhd_info_t *dhd = (dhd_info_t *)dhdp->info; int ret = BCME_OK; uint datalen; bcm_event_msg_u_t evu; void *data = NULL; void *pktdata = NULL; bcm_event_t *pvt_data; uint pktlen; DHD_TRACE(("%s:Enter\n", __FUNCTION__)); /* In dhd_rx_frame, header is stripped using skb_pull * of size ETH_HLEN, so adjust pktlen accordingly */ pktlen = skb->len + ETH_HLEN; pktdata = (void *)skb_mac_header(skb); ret = wl_host_event_get_data(pktdata, pktlen, &evu); if (ret != BCME_OK) { DHD_ERROR(("%s: wl_host_event_get_data err = %d\n", __FUNCTION__, ret)); goto exit; } datalen = ntoh32(evu.event.datalen); pvt_data = (bcm_event_t *)pktdata; data = &pvt_data[1]; dhd_dbg_trace_evnt_handler(dhdp, data, &dhd->event_data, datalen); exit: return ret; } /* * dhd_event_logtrace_process_items processes * each skb from evt_trace_queue. * Returns TRUE if more packets to be processed * else returns FALSE */ static int dhd_event_logtrace_process_items(dhd_info_t *dhd) { dhd_pub_t *dhdp; struct sk_buff *skb; uint32 qlen; uint32 process_len; if (!dhd) { DHD_ERROR(("%s: dhd info not available \n", __FUNCTION__)); return 0; } dhdp = &dhd->pub; if (!dhdp) { DHD_ERROR(("%s: dhd pub is null \n", __FUNCTION__)); return 0; } qlen = skb_queue_len(&dhd->evt_trace_queue); process_len = MIN(qlen, DHD_EVENT_LOGTRACE_BOUND); /* Run while loop till bound is reached or skb queue is empty */ while (process_len--) { int ifid = 0; skb = skb_dequeue(&dhd->evt_trace_queue); if (skb == NULL) { DHD_ERROR(("%s: skb is NULL, which is not valid case\n", __FUNCTION__)); break; } BCM_REFERENCE(ifid); #ifdef PCIE_FULL_DONGLE /* Check if pkt is from INFO ring or WLC_E_TRACE */ ifid = DHD_PKTTAG_IFID((dhd_pkttag_fr_t *)PKTTAG(skb)); if (ifid == DHD_DUMMY_INFO_IF) { /* Process logtrace from info rings */ dhd_event_logtrace_infobuf_pkt_process(dhdp, skb, &dhd->event_data); } else #endif /* PCIE_FULL_DONGLE */ { /* Processing WLC_E_TRACE case OR non PCIE PCIE_FULL_DONGLE case */ dhd_event_logtrace_pkt_process(dhdp, skb); } /* Dummy sleep so that scheduler kicks in after processing any logprints */ OSL_SLEEP(0); /* Send packet up if logtrace_pkt_sendup is TRUE */ if (dhdp->logtrace_pkt_sendup) { #ifdef DHD_USE_STATIC_CTRLBUF /* If bufs are allocated via static buf pool * and logtrace_pkt_sendup enabled, make a copy, * free the local one and send the copy up. */ void *npkt = PKTDUP(dhdp->osh, skb); /* Clone event and send it up */ PKTFREE_STATIC(dhdp->osh, skb, FALSE); if (npkt) { skb = npkt; } else { DHD_ERROR(("skb clone failed. dropping logtrace pkt.\n")); /* Packet is already freed, go to next packet */ continue; } #endif /* DHD_USE_STATIC_CTRLBUF */ #ifdef PCIE_FULL_DONGLE /* For infobuf packets as if is DHD_DUMMY_INFO_IF, * to send skb to network layer, assign skb->dev with * Primary interface n/w device */ if (ifid == DHD_DUMMY_INFO_IF) { skb = PKTTONATIVE(dhdp->osh, skb); skb->dev = dhd->iflist[0]->net; } #endif /* PCIE_FULL_DONGLE */ /* Send pkt UP */ dhd_netif_rx_ni(skb); } else { /* Don't send up. Free up the packet. */ PKTFREE_CTRLBUF(dhdp->osh, skb, FALSE); } } /* Reschedule if more packets to be processed */ return (qlen >= DHD_EVENT_LOGTRACE_BOUND); } #ifdef DHD_USE_KTHREAD_FOR_LOGTRACE static int dhd_logtrace_thread(void *data) { tsk_ctl_t *tsk = (tsk_ctl_t *)data; dhd_info_t *dhd = (dhd_info_t *)tsk->parent; dhd_pub_t *dhdp = (dhd_pub_t *)&dhd->pub; int ret; while (1) { dhdp->logtrace_thr_ts.entry_time = OSL_LOCALTIME_NS(); if (!binary_sema_down(tsk)) { dhdp->logtrace_thr_ts.sem_down_time = OSL_LOCALTIME_NS(); SMP_RD_BARRIER_DEPENDS(); if (dhd->pub.dongle_reset == FALSE) { do { /* Check terminated before processing the items */ if (tsk->terminated) { DHD_ERROR(("%s: task terminated\n", __FUNCTION__)); goto exit; } #ifdef EWP_EDL /* check if EDL is being used */ if (dhd->pub.dongle_edl_support) { ret = dhd_prot_process_edl_complete(&dhd->pub, &dhd->event_data); } else { ret = dhd_event_logtrace_process_items(dhd); } #else ret = dhd_event_logtrace_process_items(dhd); #endif /* EWP_EDL */ /* if ret > 0, bound has reached so to be fair to other * processes need to yield the scheduler. * The comment above yield()'s definition says: * If you want to use yield() to wait for something, * use wait_event(). * If you want to use yield() to be 'nice' for others, * use cond_resched(). * If you still want to use yield(), do not! */ if (ret > 0) { cond_resched(); OSL_SLEEP(DHD_EVENT_LOGTRACE_RESCHEDULE_DELAY_MS); } else if (ret < 0) { DHD_ERROR(("%s: ERROR should not reach here\n", __FUNCTION__)); } } while (ret > 0); } if (tsk->flush_ind) { DHD_ERROR(("%s: flushed\n", __FUNCTION__)); dhdp->logtrace_thr_ts.flush_time = OSL_LOCALTIME_NS(); tsk->flush_ind = 0; complete(&tsk->flushed); } } else { DHD_ERROR(("%s: unexpted break\n", __FUNCTION__)); dhdp->logtrace_thr_ts.unexpected_break_time = OSL_LOCALTIME_NS(); break; } } exit: complete_and_exit(&tsk->completed, 0); dhdp->logtrace_thr_ts.complete_time = OSL_LOCALTIME_NS(); } #else static void dhd_event_logtrace_process(struct work_struct * work) { /* Ignore compiler warnings due to -Werror=cast-qual */ struct delayed_work *dw = to_delayed_work(work); struct dhd_info *dhd; GCC_DIAGNOSTIC_PUSH_SUPPRESS_CAST(); dhd = container_of(dw, struct dhd_info, event_log_dispatcher_work); GCC_DIAGNOSTIC_POP(); #ifdef EWP_EDL if (dhd->pub.dongle_edl_support) { ret = dhd_prot_process_edl_complete(&dhd->pub, &dhd->event_data); } else { ret = dhd_event_logtrace_process_items(dhd); } #else ret = dhd_event_logtrace_process_items(dhd); #endif /* EWP_EDL */ if (ret > 0) { schedule_delayed_work(&(dhd)->event_log_dispatcher_work, msecs_to_jiffies(DHD_EVENT_LOGTRACE_RESCHEDULE_DELAY_MS)); } return; } #endif /* DHD_USE_KTHREAD_FOR_LOGTRACE */ void dhd_schedule_logtrace(void *dhd_info) { dhd_info_t *dhd = (dhd_info_t *)dhd_info; #ifdef DHD_USE_KTHREAD_FOR_LOGTRACE if (dhd->thr_logtrace_ctl.thr_pid >= 0) { binary_sema_up(&dhd->thr_logtrace_ctl); } else { DHD_ERROR(("%s: thr_logtrace_ctl(%ld) not inited\n", __FUNCTION__, dhd->thr_logtrace_ctl.thr_pid)); } #else schedule_delayed_work(&dhd->event_log_dispatcher_work, 0); #endif /* DHD_USE_KTHREAD_FOR_LOGTRACE */ return; } void dhd_cancel_logtrace_process_sync(dhd_info_t *dhd) { #ifdef DHD_USE_KTHREAD_FOR_LOGTRACE tsk_ctl_t *tsk = &dhd->thr_logtrace_ctl; if (tsk->parent && tsk->thr_pid >= 0) { PROC_STOP_USING_BINARY_SEMA(tsk); } else { DHD_ERROR(("%s: thr_logtrace_ctl(%ld) not inited\n", __FUNCTION__, tsk->thr_pid)); } #else cancel_delayed_work_sync(&dhd->event_log_dispatcher_work); #endif /* DHD_USE_KTHREAD_FOR_LOGTRACE */ } void dhd_flush_logtrace_process(dhd_info_t *dhd) { #ifdef DHD_USE_KTHREAD_FOR_LOGTRACE if (dhd->thr_logtrace_ctl.thr_pid >= 0) { PROC_FLUSH_USING_BINARY_SEMA(&dhd->thr_logtrace_ctl); } else { DHD_ERROR(("%s: thr_logtrace_ctl(%ld) not inited\n", __FUNCTION__, dhd->thr_logtrace_ctl.thr_pid)); } #else flush_delayed_work(&dhd->event_log_dispatcher_work); #endif /* DHD_USE_KTHREAD_FOR_LOGTRACE */ } int dhd_init_logtrace_process(dhd_info_t *dhd) { #ifdef DHD_USE_KTHREAD_FOR_LOGTRACE dhd->thr_logtrace_ctl.thr_pid = DHD_PID_KT_INVALID; PROC_START(dhd_logtrace_thread, dhd, &dhd->thr_logtrace_ctl, 0, "dhd_logtrace_thread"); if (dhd->thr_logtrace_ctl.thr_pid < 0) { DHD_ERROR(("%s: init logtrace process failed\n", __FUNCTION__)); return BCME_ERROR; } else { DHD_ERROR(("%s: thr_logtrace_ctl(%ld) not inited\n", __FUNCTION__, dhd->thr_logtrace_ctl.thr_pid)); } #else INIT_DELAYED_WORK(&dhd->event_log_dispatcher_work, dhd_event_logtrace_process); #endif /* DHD_USE_KTHREAD_FOR_LOGTRACE */ return BCME_OK; } int dhd_reinit_logtrace_process(dhd_info_t *dhd) { #ifdef DHD_USE_KTHREAD_FOR_LOGTRACE /* Re-init only if PROC_STOP from dhd_stop was called * which can be checked via thr_pid */ if (dhd->thr_logtrace_ctl.thr_pid < 0) { PROC_START(dhd_logtrace_thread, dhd, &dhd->thr_logtrace_ctl, 0, "dhd_logtrace_thread"); if (dhd->thr_logtrace_ctl.thr_pid < 0) { DHD_ERROR(("%s: reinit logtrace process failed\n", __FUNCTION__)); return BCME_ERROR; } else { DHD_ERROR(("%s: thr_logtrace_ctl(%ld) not inited\n", __FUNCTION__, dhd->thr_logtrace_ctl.thr_pid)); } } #else /* No need to re-init for WQ as calcel_delayed_work_sync will * will not delete the WQ */ #endif /* DHD_USE_KTHREAD_FOR_LOGTRACE */ return BCME_OK; } void dhd_event_logtrace_enqueue(dhd_pub_t *dhdp, int ifidx, void *pktbuf) { dhd_info_t *dhd = (dhd_info_t *)dhdp->info; #ifdef PCIE_FULL_DONGLE /* Add ifidx in the PKTTAG */ DHD_PKTTAG_SET_IFID((dhd_pkttag_fr_t *)PKTTAG(pktbuf), ifidx); #endif /* PCIE_FULL_DONGLE */ skb_queue_tail(&dhd->evt_trace_queue, pktbuf); dhd_schedule_logtrace(dhd); } void dhd_event_logtrace_flush_queue(dhd_pub_t *dhdp) { dhd_info_t *dhd = (dhd_info_t *)dhdp->info; struct sk_buff *skb; while ((skb = skb_dequeue(&dhd->evt_trace_queue)) != NULL) { PKTFREE_CTRLBUF(dhdp->osh, skb, FALSE); } } #ifdef EWP_EDL void dhd_sendup_info_buf(dhd_pub_t *dhdp, uint8 *msg) { struct sk_buff *skb = NULL; uint32 pktsize = 0; void *pkt = NULL; info_buf_payload_hdr_t *infobuf = NULL; dhd_info_t *dhd = dhdp->info; uint8 *pktdata = NULL; if (!msg) return; /* msg = |infobuf_ver(u32)|info_buf_payload_hdr_t|msgtrace_hdr_t|| */ infobuf = (info_buf_payload_hdr_t *)(msg + sizeof(uint32)); pktsize = (uint32)(ltoh16(infobuf->length) + sizeof(info_buf_payload_hdr_t) + sizeof(uint32)); pkt = PKTGET(dhdp->osh, pktsize, FALSE); if (!pkt) { DHD_ERROR(("%s: skb alloc failed ! not sending event log up.\n", __FUNCTION__)); } else { PKTSETLEN(dhdp->osh, pkt, pktsize); pktdata = PKTDATA(dhdp->osh, pkt); memcpy(pktdata, msg, pktsize); /* For infobuf packets assign skb->dev with * Primary interface n/w device */ skb = PKTTONATIVE(dhdp->osh, pkt); skb->dev = dhd->iflist[0]->net; /* Send pkt UP */ dhd_netif_rx_ni(skb); } } #endif /* EWP_EDL */ #endif /* SHOW_LOGTRACE */ #ifdef BTLOG static void dhd_bt_log_process(struct work_struct *work) { struct dhd_info *dhd; dhd_pub_t *dhdp; struct sk_buff *skb; /* Ignore compiler warnings due to -Werror=cast-qual */ GCC_DIAGNOSTIC_PUSH_SUPPRESS_CAST(); dhd = container_of(work, struct dhd_info, bt_log_dispatcher_work); GCC_DIAGNOSTIC_POP(); if (!dhd) { DHD_ERROR(("%s: dhd info not available \n", __FUNCTION__)); return; } dhdp = &dhd->pub; if (!dhdp) { DHD_ERROR(("%s: dhd pub is null \n", __FUNCTION__)); return; } DHD_TRACE(("%s:Enter\n", __FUNCTION__)); /* Run while(1) loop till all skbs are dequeued */ while ((skb = skb_dequeue(&dhd->bt_log_queue)) != NULL) { dhd_bt_log_pkt_process(dhdp, skb); PKTFREE_CTRLBUF(dhdp->osh, skb, FALSE); } } void dhd_rx_bt_log(dhd_pub_t *dhdp, void *pkt) { dhd_info_t *dhd = (dhd_info_t *)dhdp->info; skb_queue_tail(&dhd->bt_log_queue, pkt); /* schedule workqueue to process bt logs */ schedule_work(&dhd->bt_log_dispatcher_work); } #endif /* BTLOG */ #ifdef EWP_EDL static void dhd_edl_process_work(struct work_struct *work) { struct delayed_work *dw = to_delayed_work(work); struct dhd_info *dhd_info; /* Ignore compiler warnings due to -Werror=cast-qual */ GCC_DIAGNOSTIC_PUSH_SUPPRESS_CAST(); dhd_info = container_of(dw, struct dhd_info, edl_dispatcher_work); GCC_DIAGNOSTIC_POP(); if (dhd_info) dhd_prot_process_edl_complete(&dhd_info->pub, &dhd_info->event_data); } void dhd_schedule_edl_work(dhd_pub_t *dhdp, uint delay_ms) { dhd_info_t *dhd = (dhd_info_t *)dhdp->info; schedule_delayed_work(&dhd->edl_dispatcher_work, msecs_to_jiffies(delay_ms)); } #endif /* EWP_EDL */ #ifdef ENABLE_WAKEUP_PKT_DUMP static void update_wake_pkt_info(struct sk_buff *skb) { struct iphdr *ip_header; struct ipv6hdr *ipv6_header; struct udphdr *udp_header; struct tcphdr *tcp_header; uint16 dport = 0; ip_header = (struct iphdr *)(skb->data); temp_raw |= ((long long)ntoh16(skb->protocol)) << 48; DHD_INFO(("eth_hdr(skb)->h_dest : %pM\n", eth_hdr(skb)->h_dest)); if (eth_hdr(skb)->h_dest[0] & 0x01) { temp_raw |= (long long)1 << 39; } if (ntoh16(skb->protocol) == ETHER_TYPE_BRCM) { wl_event_msg_t event; bcm_event_msg_u_t evu; int ret; uint event_type; ret = wl_host_event_get_data( #if LINUX_VERSION_CODE >= KERNEL_VERSION(2, 6, 22) skb_mac_header(skb), #else skb->mac.raw, #endif /* LINUX_VERSION_CODE >= KERNEL_VERSION(2, 6, 22) */ skb->len, &evu); if (ret != BCME_OK) { DHD_ERROR(("%s: wl_host_event_get_data err = %d\n", __FUNCTION__, ret)); } memcpy(&event, &evu.event, sizeof(wl_event_msg_t)); event_type = ntoh32_ua((void *)&event.event_type); temp_raw |= (long long)event_type << 40; } else if (ntoh16(skb->protocol) == ETHER_TYPE_IP || ntoh16(skb->protocol) == ETHER_TYPE_IPV6) { if (ip_header->version == 6) { ipv6_header = (struct ipv6hdr *)ip_header; temp_raw |= ((long long)ipv6_header->nexthdr) << 40; dport = 0; if (ipv6_header->daddr.s6_addr[0] & 0xff) { temp_raw |= (long long)1 << 38; } DHD_INFO(("IPv6 [%x]%pI6c > %pI6c:%d\n", ip_header->protocol, &(ipv6_header->saddr.s6_addr), &(ipv6_header->daddr.s6_addr), dport)); } else if (ip_header->version == 4) { temp_raw |= ((long long)ip_header->protocol) << 40; #define IP_HDR_OFFSET ((char *)ip_header + IPV4_HLEN(ip_header)) if (ip_header->protocol == IPPROTO_TCP) { tcp_header = (struct tcphdr *)IP_HDR_OFFSET; dport = ntohs(tcp_header->dest); } else if (ip_header->protocol == IPPROTO_UDP) { udp_header = (struct udphdr *)IP_HDR_OFFSET; dport = ntohs(udp_header->dest); } if (ipv4_is_multicast(ip_header->daddr)) { temp_raw |= (long long)1 << 38; } DHD_INFO(("IP [%x] %pI4 > %pI4:%d\n", ip_header->protocol, &(ip_header->saddr), &(ip_header->daddr), dport)); } temp_raw |= (long long)dport << 16; } } #endif /* ENABLE_WAKEUP_PKT_DUMP */ #if defined(BCMPCIE) int dhd_check_shinfo_nrfrags(dhd_pub_t *dhdp, void *pktbuf, dmaaddr_t *pa, uint32 pktid) { struct sk_buff *skb; struct skb_shared_info *shinfo; if (!pktbuf) return BCME_ERROR; skb = PKTTONATIVE(dhdp->osh, pktbuf); shinfo = skb_shinfo(skb); if (shinfo->nr_frags) { #ifdef BCMDMA64OSL DHD_ERROR(("!!Invalid nr_frags: %u pa.loaddr: 0x%llx pa.hiaddr: 0x%llx " "skb: 0x%llx skb_data: 0x%llx skb_head: 0x%llx skb_tail: 0x%llx " "skb_end: 0x%llx skb_len: %u shinfo: 0x%llx pktid: %u\n", shinfo->nr_frags, (uint64)(pa->loaddr), (uint64)(pa->hiaddr), (uint64)skb, (uint64)(skb->data), (uint64)(skb->head), (uint64)(skb->tail), (uint64)(skb->end), skb->len, (uint64)shinfo, pktid)); #endif /* BCMDMA64OSL */ prhex("shinfo", (char*)shinfo, sizeof(struct skb_shared_info)); if (!dhd_query_bus_erros(dhdp)) { #ifdef DHD_FW_COREDUMP /* Collect socram dump */ if (dhdp->memdump_enabled) { /* collect core dump */ dhdp->memdump_type = DUMP_TYPE_INVALID_SHINFO_NRFRAGS; dhd_bus_mem_dump(dhdp); } else #endif /* DHD_FW_COREDUMP */ { shinfo->nr_frags = 0; /* In production case, free the packet and continue * if nfrags is corrupted. Whereas in non-production * case collect memdump and call BUG_ON(). */ PKTCFREE(dhdp->osh, pktbuf, FALSE); } } return BCME_ERROR; } return BCME_OK; } #endif /* BCMPCIE */ void dhd_event(struct dhd_info *dhd, char *evpkt, int evlen, int ifidx) { /* Linux version has nothing to do */ return; } int dhd_os_tput_test_wait(dhd_pub_t *pub, uint *condition, uint timeout_ms) { int timeout; /* Convert timeout in millsecond to jiffies */ timeout = msecs_to_jiffies(timeout_ms); pub->tput_test_done = FALSE; condition = (uint *)&pub->tput_test_done; timeout = wait_event_timeout(pub->tx_tput_test_wait, (*condition), timeout); return timeout; } int dhd_os_tput_test_wake(dhd_pub_t * pub) { OSL_SMP_WMB(); pub->tput_test_done = TRUE; OSL_SMP_WMB(); wake_up(&(pub->tx_tput_test_wait)); return 0; } static struct net_device_stats * dhd_get_stats(struct net_device *net) { dhd_info_t *dhd = DHD_DEV_INFO(net); dhd_if_t *ifp; DHD_TRACE(("%s: Enter\n", __FUNCTION__)); if (!dhd) { DHD_ERROR(("%s : dhd is NULL\n", __FUNCTION__)); goto error; } ifp = dhd_get_ifp_by_ndev(&dhd->pub, net); if (!ifp) { /* return empty stats */ DHD_ERROR(("%s: BAD_IF\n", __FUNCTION__)); goto error; } if (dhd->pub.up) { /* Use the protocol to get dongle stats */ dhd_prot_dstats(&dhd->pub); } return &ifp->stats; error: memset(&net->stats, 0, sizeof(net->stats)); return &net->stats; } #ifndef BCMDBUS static int dhd_watchdog_thread(void *data) { tsk_ctl_t *tsk = (tsk_ctl_t *)data; dhd_info_t *dhd = (dhd_info_t *)tsk->parent; /* This thread doesn't need any user-level access, * so get rid of all our resources */ if (dhd_watchdog_prio > 0) { struct sched_param param; param.sched_priority = (dhd_watchdog_prio < MAX_RT_PRIO)? dhd_watchdog_prio:(MAX_RT_PRIO-1); setScheduler(current, SCHED_FIFO, ¶m); } while (1) { if (down_interruptible (&tsk->sema) == 0) { unsigned long flags; unsigned long jiffies_at_start = jiffies; unsigned long time_lapse; #ifdef BCMPCIE DHD_OS_WD_WAKE_LOCK(&dhd->pub); #endif /* BCMPCIE */ SMP_RD_BARRIER_DEPENDS(); if (tsk->terminated) { #ifdef BCMPCIE DHD_OS_WD_WAKE_UNLOCK(&dhd->pub); #endif /* BCMPCIE */ break; } if (dhd->pub.dongle_reset == FALSE) { DHD_TIMER(("%s:\n", __FUNCTION__)); dhd_analyze_sock_flows(dhd, dhd_watchdog_ms); dhd_bus_watchdog(&dhd->pub); #ifdef DHD_TIMESYNC /* Call the timesync module watchdog */ dhd_timesync_watchdog(&dhd->pub); #endif /* DHD_TIMESYNC */ #if defined(BCM_ROUTER_DHD) && defined(CTFPOOL) /* allocate and add a new skb to the pkt pool */ if (CTF_ENAB(dhd->cih)) osl_ctfpool_replenish(dhd->pub.osh, CTFPOOL_REFILL_THRESH); #endif /* BCM_ROUTER_DHD && CTFPOOL */ DHD_GENERAL_LOCK(&dhd->pub, flags); /* Count the tick for reference */ dhd->pub.tickcnt++; #ifdef DHD_L2_FILTER dhd_l2_filter_watchdog(&dhd->pub); #endif /* DHD_L2_FILTER */ time_lapse = jiffies - jiffies_at_start; /* Reschedule the watchdog */ if (dhd->wd_timer_valid) { mod_timer(&dhd->timer, jiffies + msecs_to_jiffies(dhd_watchdog_ms) - min(msecs_to_jiffies(dhd_watchdog_ms), time_lapse)); } DHD_GENERAL_UNLOCK(&dhd->pub, flags); } #ifdef BCMPCIE DHD_OS_WD_WAKE_UNLOCK(&dhd->pub); #endif /* BCMPCIE */ } else { break; } } complete_and_exit(&tsk->completed, 0); } static void dhd_watchdog(ulong data) { dhd_info_t *dhd = (dhd_info_t *)data; unsigned long flags; if (dhd->pub.dongle_reset) { return; } if (dhd->thr_wdt_ctl.thr_pid >= 0) { up(&dhd->thr_wdt_ctl.sema); return; } #ifdef BCMPCIE DHD_OS_WD_WAKE_LOCK(&dhd->pub); #endif /* BCMPCIE */ /* Call the bus module watchdog */ dhd_bus_watchdog(&dhd->pub); #ifdef DHD_TIMESYNC /* Call the timesync module watchdog */ dhd_timesync_watchdog(&dhd->pub); #endif /* DHD_TIMESYNC */ DHD_GENERAL_LOCK(&dhd->pub, flags); /* Count the tick for reference */ dhd->pub.tickcnt++; #ifdef DHD_L2_FILTER dhd_l2_filter_watchdog(&dhd->pub); #endif /* DHD_L2_FILTER */ /* Reschedule the watchdog */ if (dhd->wd_timer_valid) mod_timer(&dhd->timer, jiffies + msecs_to_jiffies(dhd_watchdog_ms)); DHD_GENERAL_UNLOCK(&dhd->pub, flags); #ifdef BCMPCIE DHD_OS_WD_WAKE_UNLOCK(&dhd->pub); #endif /* BCMPCIE */ #if defined(BCM_ROUTER_DHD) && defined(CTFPOOL) /* allocate and add a new skb to the pkt pool */ if (CTF_ENAB(dhd->cih)) osl_ctfpool_replenish(dhd->pub.osh, CTFPOOL_REFILL_THRESH); #endif /* BCM_ROUTER_DHD && CTFPOOL */ } #ifdef DHD_PCIE_RUNTIMEPM static int dhd_rpm_state_thread(void *data) { tsk_ctl_t *tsk = (tsk_ctl_t *)data; dhd_info_t *dhd = (dhd_info_t *)tsk->parent; while (1) { if (down_interruptible (&tsk->sema) == 0) { unsigned long flags; unsigned long jiffies_at_start = jiffies; unsigned long time_lapse; SMP_RD_BARRIER_DEPENDS(); if (tsk->terminated) { break; } if (dhd->pub.dongle_reset == FALSE) { DHD_TIMER(("%s:\n", __FUNCTION__)); if (dhd->pub.up) { #if defined(PCIE_OOB) || defined(PCIE_INB_DW) dhd_bus_dw_deassert(&dhd->pub); #endif /* PCIE_OOB || PCIE_INB_DW */ if (dhd_get_rpm_state(&dhd->pub)) { dhd_runtimepm_state(&dhd->pub); } } DHD_GENERAL_LOCK(&dhd->pub, flags); time_lapse = jiffies - jiffies_at_start; /* Reschedule the watchdog */ if (dhd->rpm_timer_valid) { mod_timer(&dhd->rpm_timer, jiffies + msecs_to_jiffies(dhd_runtimepm_ms) - min(msecs_to_jiffies(dhd_runtimepm_ms), time_lapse)); } DHD_GENERAL_UNLOCK(&dhd->pub, flags); } } else { break; } } complete_and_exit(&tsk->completed, 0); } static void dhd_runtimepm(ulong data) { dhd_info_t *dhd = (dhd_info_t *)data; if (dhd->pub.dongle_reset) { return; } if (dhd->thr_rpm_ctl.thr_pid >= 0) { up(&dhd->thr_rpm_ctl.sema); return; } } void dhd_runtime_pm_disable(dhd_pub_t *dhdp) { dhd_set_rpm_state(dhdp, FALSE); dhdpcie_runtime_bus_wake(dhdp, CAN_SLEEP(), __builtin_return_address(0)); } void dhd_runtime_pm_enable(dhd_pub_t *dhdp) { /* Enable Runtime PM except for MFG Mode */ if (!(dhdp->op_mode & DHD_FLAG_MFG_MODE)) { if (dhd_get_idletime(dhdp)) { dhd_set_rpm_state(dhdp, TRUE); } } } #endif /* DHD_PCIE_RUNTIMEPM */ #ifdef ENABLE_ADAPTIVE_SCHED static void dhd_sched_policy(int prio) { struct sched_param param; if (cpufreq_quick_get(0) <= CUSTOM_CPUFREQ_THRESH) { param.sched_priority = 0; setScheduler(current, SCHED_NORMAL, ¶m); } else { if (get_scheduler_policy(current) != SCHED_FIFO) { param.sched_priority = (prio < MAX_RT_PRIO)? prio : (MAX_RT_PRIO-1); setScheduler(current, SCHED_FIFO, ¶m); } } } #endif /* ENABLE_ADAPTIVE_SCHED */ #ifdef DEBUG_CPU_FREQ static int dhd_cpufreq_notifier(struct notifier_block *nb, unsigned long val, void *data) { dhd_info_t *dhd = container_of(nb, struct dhd_info, freq_trans); struct cpufreq_freqs *freq = data; if (dhd) { if (!dhd->new_freq) goto exit; if (val == CPUFREQ_POSTCHANGE) { DHD_ERROR(("cpu freq is changed to %u kHZ on CPU %d\n", freq->new, freq->cpu)); *per_cpu_ptr(dhd->new_freq, freq->cpu) = freq->new; } } exit: return 0; } #endif /* DEBUG_CPU_FREQ */ static int dhd_dpc_thread(void *data) { tsk_ctl_t *tsk = (tsk_ctl_t *)data; dhd_info_t *dhd = (dhd_info_t *)tsk->parent; /* This thread doesn't need any user-level access, * so get rid of all our resources */ if (dhd_dpc_prio > 0) { struct sched_param param; param.sched_priority = (dhd_dpc_prio < MAX_RT_PRIO)?dhd_dpc_prio:(MAX_RT_PRIO-1); setScheduler(current, SCHED_FIFO, ¶m); } #ifdef CUSTOM_DPC_CPUCORE set_cpus_allowed_ptr(current, cpumask_of(CUSTOM_DPC_CPUCORE)); #endif #ifdef CUSTOM_SET_CPUCORE dhd->pub.current_dpc = current; #endif /* CUSTOM_SET_CPUCORE */ /* Run until signal received */ while (1) { if (!binary_sema_down(tsk)) { #ifdef ENABLE_ADAPTIVE_SCHED dhd_sched_policy(dhd_dpc_prio); #endif /* ENABLE_ADAPTIVE_SCHED */ SMP_RD_BARRIER_DEPENDS(); if (tsk->terminated) { DHD_OS_WAKE_UNLOCK(&dhd->pub); break; } /* Call bus dpc unless it indicated down (then clean stop) */ if (dhd->pub.busstate != DHD_BUS_DOWN) { #ifdef DEBUG_DPC_THREAD_WATCHDOG int resched_cnt = 0; #endif /* DEBUG_DPC_THREAD_WATCHDOG */ dhd_os_wd_timer_extend(&dhd->pub, TRUE); while (dhd_bus_dpc(dhd->pub.bus)) { /* process all data */ #ifdef DEBUG_DPC_THREAD_WATCHDOG resched_cnt++; if (resched_cnt > MAX_RESCHED_CNT) { DHD_INFO(("%s Calling msleep to" "let other processes run. \n", __FUNCTION__)); dhd->pub.dhd_bug_on = true; resched_cnt = 0; OSL_SLEEP(1); } #endif /* DEBUG_DPC_THREAD_WATCHDOG */ } dhd_os_wd_timer_extend(&dhd->pub, FALSE); DHD_OS_WAKE_UNLOCK(&dhd->pub); } else { if (dhd->pub.up) dhd_bus_stop(dhd->pub.bus, TRUE); DHD_OS_WAKE_UNLOCK(&dhd->pub); } } else { break; } } complete_and_exit(&tsk->completed, 0); } #ifdef BCMPCIE void dhd_dpc_enable(dhd_pub_t *dhdp) { #if defined(DHD_LB_RXP) || defined(DHD_LB_TXP) dhd_info_t *dhd; if (!dhdp || !dhdp->info) return; dhd = dhdp->info; #endif /* DHD_LB_RXP || DHD_LB_TXP */ #ifdef DHD_LB_RXP __skb_queue_head_init(&dhd->rx_pend_queue); skb_queue_head_init(&dhd->rx_emerge_queue); #endif /* DHD_LB_RXP */ #ifdef DHD_LB_TXP skb_queue_head_init(&dhd->tx_pend_queue); #endif /* DHD_LB_TXP */ } #endif /* BCMPCIE */ #ifdef BCMPCIE void dhd_dpc_kill(dhd_pub_t *dhdp) { dhd_info_t *dhd; if (!dhdp) { return; } dhd = dhdp->info; if (!dhd) { return; } if (dhd->thr_dpc_ctl.thr_pid < 0) { tasklet_kill(&dhd->tasklet); DHD_ERROR(("%s: tasklet disabled\n", __FUNCTION__)); } cancel_delayed_work_sync(&dhd->dhd_dpc_dispatcher_work); #ifdef DHD_LB #ifdef DHD_LB_RXP cancel_work_sync(&dhd->rx_napi_dispatcher_work); __skb_queue_purge(&dhd->rx_pend_queue); skb_queue_purge(&dhd->rx_emerge_queue); #endif /* DHD_LB_RXP */ #ifdef DHD_LB_TXP cancel_work_sync(&dhd->tx_dispatcher_work); skb_queue_purge(&dhd->tx_pend_queue); tasklet_kill(&dhd->tx_tasklet); #endif /* DHD_LB_TXP */ #endif /* DHD_LB */ } void dhd_dpc_tasklet_kill(dhd_pub_t *dhdp) { dhd_info_t *dhd; if (!dhdp) { return; } dhd = dhdp->info; if (!dhd) { return; } if (dhd->thr_dpc_ctl.thr_pid < 0) { tasklet_kill(&dhd->tasklet); } } #endif /* BCMPCIE */ static void dhd_dpc(ulong data) { dhd_info_t *dhd = (dhd_info_t *)data; int curr_cpu = get_cpu(); put_cpu(); /* Store current cpu as dpc_cpu */ atomic_set(&dhd->dpc_cpu, curr_cpu); /* this (tasklet) can be scheduled in dhd_sched_dpc[dhd_linux.c] * down below , wake lock is set, * the tasklet is initialized in dhd_attach() */ /* Call bus dpc unless it indicated down (then clean stop) */ if (dhd->pub.busstate != DHD_BUS_DOWN) { #if defined(DHD_LB_STATS) && defined(PCIE_FULL_DONGLE) DHD_LB_STATS_INCR(dhd->dhd_dpc_cnt); #endif /* DHD_LB_STATS && PCIE_FULL_DONGLE */ if (dhd_bus_dpc(dhd->pub.bus)) { tasklet_schedule(&dhd->tasklet); dhd_plat_report_bh_sched(dhd->pub.plat_info, 1); } else { dhd_plat_report_bh_sched(dhd->pub.plat_info, 0); } } else { dhd_bus_stop(dhd->pub.bus, TRUE); } /* Store as prev_dpc_cpu, which will be used in Rx load balancing for deciding candidacy */ atomic_set(&dhd->prev_dpc_cpu, curr_cpu); } void dhd_sched_dpc(dhd_pub_t *dhdp) { dhd_info_t *dhd = (dhd_info_t *)dhdp->info; if (dhd->thr_dpc_ctl.thr_pid >= 0) { DHD_OS_WAKE_LOCK(dhdp); /* If the semaphore does not get up, * wake unlock should be done here */ if (!binary_sema_up(&dhd->thr_dpc_ctl)) { DHD_OS_WAKE_UNLOCK(dhdp); } return; } else { tasklet_schedule(&dhd->tasklet); } } #endif /* BCMDBUS */ #if defined(BCM_DNGL_EMBEDIMAGE) || defined(BCM_REQUEST_FW) #if defined(BCMDBUS) static int fw_download_thread_func(void *data) { dhd_info_t *dhd = (dhd_info_t *)data; int ret; while (1) { /* Wait for start trigger */ if (down_interruptible(&dhd->fw_download_lock) != 0) return -ERESTARTSYS; if (kthread_should_stop()) break; DHD_TRACE(("%s: initiating firmware check and download\n", __FUNCTION__)); if (dbus_download_firmware(dhd->pub.dbus) == DBUS_OK) { if ((ret = dbus_up(dhd->pub.dbus)) == 0) { #ifdef PROP_TXSTATUS /* Need to deinitialise WLFC to allow re-initialisation later. */ dhd_wlfc_deinit(&dhd->pub); #endif /* PROP_TXSTATUS */ /* Resynchronise with the dongle. This also re-initialises WLFC. */ if ((ret = dhd_sync_with_dongle(&dhd->pub)) < 0) { DHD_ERROR(("%s: failed with code %d\n", __FUNCTION__, ret)); } } } } return 0; } #endif /* BCMDBUS */ #endif /* defined(BCM_DNGL_EMBEDIMAGE) || defined(BCM_REQUEST_FW) */ #ifdef TOE /* Retrieve current toe component enables, which are kept as a bitmap in toe_ol iovar */ static int dhd_toe_get(dhd_info_t *dhd, int ifidx, uint32 *toe_ol) { char buf[32]; int ret; ret = dhd_iovar(&dhd->pub, ifidx, "toe_ol", NULL, 0, (char *)&buf, sizeof(buf), FALSE); if (ret < 0) { if (ret == -EIO) { DHD_ERROR(("%s: toe not supported by device\n", dhd_ifname(&dhd->pub, ifidx))); return -EOPNOTSUPP; } DHD_INFO(("%s: could not get toe_ol: ret=%d\n", dhd_ifname(&dhd->pub, ifidx), ret)); return ret; } memcpy(toe_ol, buf, sizeof(uint32)); return 0; } /* Set current toe component enables in toe_ol iovar, and set toe global enable iovar */ static int dhd_toe_set(dhd_info_t *dhd, int ifidx, uint32 toe_ol) { int toe, ret; /* Set toe_ol as requested */ ret = dhd_iovar(&dhd->pub, ifidx, "toe_ol", (char *)&toe_ol, sizeof(toe_ol), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s: could not set toe_ol: ret=%d\n", dhd_ifname(&dhd->pub, ifidx), ret)); return ret; } /* Enable toe globally only if any components are enabled. */ toe = (toe_ol != 0); ret = dhd_iovar(&dhd->pub, ifidx, "toe", (char *)&toe, sizeof(toe), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s: could not set toe: ret=%d\n", dhd_ifname(&dhd->pub, ifidx), ret)); return ret; } return 0; } #endif /* TOE */ #if defined(WL_CFG80211) && defined(NUM_SCB_MAX_PROBE) void dhd_set_scb_probe(dhd_pub_t *dhd) { wl_scb_probe_t scb_probe; char iovbuf[WL_EVENTING_MASK_LEN + sizeof(wl_scb_probe_t)]; int ret; if (dhd->op_mode & DHD_FLAG_HOSTAP_MODE) { return; } ret = dhd_iovar(dhd, 0, "scb_probe", NULL, 0, iovbuf, sizeof(iovbuf), FALSE); if (ret < 0) { DHD_ERROR(("%s: GET max_scb_probe failed\n", __FUNCTION__)); } memcpy(&scb_probe, iovbuf, sizeof(wl_scb_probe_t)); scb_probe.scb_max_probe = NUM_SCB_MAX_PROBE; ret = dhd_iovar(dhd, 0, "scb_probe", (char *)&scb_probe, sizeof(wl_scb_probe_t), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s: max_scb_probe setting failed\n", __FUNCTION__)); return; } } #endif /* WL_CFG80211 && NUM_SCB_MAX_PROBE */ static void dhd_ethtool_get_drvinfo(struct net_device *net, struct ethtool_drvinfo *info) { dhd_info_t *dhd = DHD_DEV_INFO(net); snprintf(info->driver, sizeof(info->driver), "wl"); snprintf(info->version, sizeof(info->version), "%lu", dhd->pub.drv_version); } struct ethtool_ops dhd_ethtool_ops = { .get_drvinfo = dhd_ethtool_get_drvinfo }; static int dhd_ethtool(dhd_info_t *dhd, void *uaddr) { struct ethtool_drvinfo info; char drvname[sizeof(info.driver)]; uint32 cmd; #ifdef TOE struct ethtool_value edata; uint32 toe_cmpnt, csum_dir; int ret; #endif DHD_TRACE(("%s: Enter\n", __FUNCTION__)); /* all ethtool calls start with a cmd word */ if (copy_from_user(&cmd, uaddr, sizeof (uint32))) return -EFAULT; switch (cmd) { case ETHTOOL_GDRVINFO: /* Copy out any request driver name */ bzero(&info.driver, sizeof(info.driver)); if (copy_from_user(&info, uaddr, sizeof(info))) return -EFAULT; if (info.driver[sizeof(info.driver) - 1] != '\0') { DHD_ERROR(("%s: Exceeds the size of info.driver" "truncating last byte with null\n", __FUNCTION__)); info.driver[sizeof(info.driver) - 1] = '\0'; } strlcpy(drvname, info.driver, sizeof(drvname)); /* clear struct for return */ memset(&info, 0, sizeof(info)); info.cmd = cmd; /* if dhd requested, identify ourselves */ if (strcmp(drvname, "?dhd") == 0) { snprintf(info.driver, sizeof(info.driver), "dhd"); strlcpy(info.version, EPI_VERSION_STR, sizeof(info.version)); } /* otherwise, require dongle to be up */ else if (!dhd->pub.up) { DHD_ERROR(("%s: dongle is not up\n", __FUNCTION__)); return -ENODEV; } /* finally, report dongle driver type */ else if (dhd->pub.iswl) snprintf(info.driver, sizeof(info.driver), "wl"); else snprintf(info.driver, sizeof(info.driver), "xx"); snprintf(info.version, sizeof(info.version), "%lu", dhd->pub.drv_version); if (copy_to_user(uaddr, &info, sizeof(info))) return -EFAULT; DHD_CTL(("%s: given %*s, returning %s\n", __FUNCTION__, (int)sizeof(drvname), drvname, info.driver)); break; #ifdef TOE /* Get toe offload components from dongle */ case ETHTOOL_GRXCSUM: case ETHTOOL_GTXCSUM: if ((ret = dhd_toe_get(dhd, 0, &toe_cmpnt)) < 0) return ret; csum_dir = (cmd == ETHTOOL_GTXCSUM) ? TOE_TX_CSUM_OL : TOE_RX_CSUM_OL; edata.cmd = cmd; edata.data = (toe_cmpnt & csum_dir) ? 1 : 0; if (copy_to_user(uaddr, &edata, sizeof(edata))) return -EFAULT; break; /* Set toe offload components in dongle */ case ETHTOOL_SRXCSUM: case ETHTOOL_STXCSUM: if (copy_from_user(&edata, uaddr, sizeof(edata))) return -EFAULT; /* Read the current settings, update and write back */ if ((ret = dhd_toe_get(dhd, 0, &toe_cmpnt)) < 0) return ret; csum_dir = (cmd == ETHTOOL_STXCSUM) ? TOE_TX_CSUM_OL : TOE_RX_CSUM_OL; if (edata.data != 0) toe_cmpnt |= csum_dir; else toe_cmpnt &= ~csum_dir; if ((ret = dhd_toe_set(dhd, 0, toe_cmpnt)) < 0) return ret; /* If setting TX checksum mode, tell Linux the new mode */ if (cmd == ETHTOOL_STXCSUM) { if (edata.data) dhd->iflist[0]->net->features |= NETIF_F_IP_CSUM; else dhd->iflist[0]->net->features &= ~NETIF_F_IP_CSUM; } break; #endif /* TOE */ default: return -EOPNOTSUPP; } return 0; } /* XXX function to detect that FW is dead and send Event up */ static bool dhd_check_hang(struct net_device *net, dhd_pub_t *dhdp, int error) { if (!dhdp) { DHD_ERROR(("%s: dhdp is NULL\n", __FUNCTION__)); return FALSE; } if (!dhdp->up) return FALSE; #if (!defined(BCMDBUS) && !defined(BCMPCIE)) if (dhdp->info->thr_dpc_ctl.thr_pid < 0) { DHD_ERROR(("%s : skipped due to negative pid - unloading?\n", __FUNCTION__)); return FALSE; } #endif /* BCMDBUS */ if ((error == -ETIMEDOUT) || (error == -EREMOTEIO) || ((dhdp->busstate == DHD_BUS_DOWN) && (!dhdp->dongle_reset))) { #ifdef BCMPCIE DHD_ERROR(("%s: Event HANG send up due to re=%d te=%d d3acke=%d e=%d s=%d\n", __FUNCTION__, dhdp->rxcnt_timeout, dhdp->txcnt_timeout, dhdp->d3ackcnt_timeout, error, dhdp->busstate)); #else DHD_ERROR(("%s: Event HANG send up due to re=%d te=%d e=%d s=%d\n", __FUNCTION__, dhdp->rxcnt_timeout, dhdp->txcnt_timeout, error, dhdp->busstate)); #endif /* BCMPCIE */ if (dhdp->hang_reason == 0) { if (dhdp->dongle_trap_occured) { dhdp->hang_reason = HANG_REASON_DONGLE_TRAP; #ifdef BCMPCIE } else if (dhdp->d3ackcnt_timeout) { dhdp->hang_reason = dhdp->is_sched_error ? HANG_REASON_D3_ACK_TIMEOUT_SCHED_ERROR : HANG_REASON_D3_ACK_TIMEOUT; #endif /* BCMPCIE */ } else { dhdp->hang_reason = dhdp->is_sched_error ? HANG_REASON_IOCTL_RESP_TIMEOUT_SCHED_ERROR : HANG_REASON_IOCTL_RESP_TIMEOUT; } } net_os_send_hang_message(net); return TRUE; } return FALSE; } #if defined(DBG_PKT_MON) && defined(PCIE_FULL_DONGLE) void dhd_80211_mon_pkt(dhd_pub_t *dhdp, host_rxbuf_cmpl_t* msg, void *pkt, int ifidx) { /* Distinguish rx/tx frame */ wl_aml_header_v1_t hdr; hdr = *(wl_aml_header_v1_t *)PKTDATA(dhdp->osh, pkt); PKTPULL(dhdp->osh, pkt, sizeof(hdr)); if (hdr.flags & WL_AML_F_DIRECTION) { bool ack = !!(hdr.flags & WL_AML_F_ACKED); DHD_DBG_PKT_MON_TX(dhdp, pkt, 0, FRAME_TYPE_80211_MGMT, (uint8)ack); } else { DHD_DBG_PKT_MON_RX(dhdp, (struct sk_buff *)pkt, FRAME_TYPE_80211_MGMT); } } #endif /* DBG_PKT_MON && PCIE_FULL_DONGLE */ #ifdef WL_MONITOR bool dhd_monitor_enabled(dhd_pub_t *dhd, int ifidx) { return (dhd->info->monitor_type != 0); } typedef struct dhd_mon_dev_priv { dhd_info_t *dhd; struct net_device_stats stats; } dhd_mon_dev_priv_t; #define DHD_MON_DEV_PRIV_SIZE (sizeof(dhd_mon_dev_priv_t)) #define DHD_MON_DEV_PRIV(dev) ((dhd_mon_dev_priv_t *)DEV_PRIV(dev)) #define DHD_MON_DEV_INFO(dev) (((dhd_mon_dev_priv_t *)DEV_PRIV(dev))->dhd) #define DHD_MON_DEV_STATS(dev) (((dhd_mon_dev_priv_t *)DEV_PRIV(dev))->stats) static netdev_tx_t dhd_monitor_start(struct sk_buff *skb, struct net_device *dev) { PKTFREE(NULL, skb, FALSE); return NETDEV_TX_OK; } #ifdef WL_CFG80211_MONITOR static int dhd_set_monitor_ioctl(dhd_pub_t *dhdp, bool val) { dhd_info_t *dhd = dhdp->info; int ret = 0; uint monitor = (uint)val; DHD_TRACE(("%s: val %d\n", __FUNCTION__, val)); if ((ret = dhd_wl_ioctl_cmd(dhdp, WLC_SET_MONITOR, &monitor, sizeof(monitor), TRUE, 0)) != 0) { DHD_ERROR(("%s Failed to set monitor mode, err %d\n", __FUNCTION__, ret)); } else { dhd_net_if_lock_local(dhd); dhd->monitor_type = monitor; dhd_net_if_unlock_local(dhd); } return ret; } static int dhd_monitor_open(struct net_device *net) { int ret = 0; dhd_info_t *dhd = DHD_MON_DEV_INFO(net); if (!dhd) { DHD_ERROR(("%s: dhd info not available \n", __FUNCTION__)); return BCME_ERROR; } if (!dhd->pub.monitor_enable) { DHD_ERROR(("%s: Monitor mode is not enabled in FW cap\n", __FUNCTION__)); return BCME_ERROR; } ret = dhd_set_monitor_ioctl(&dhd->pub, TRUE); if (ret) { DHD_ERROR(("%s: Set monitor mode IOCTL failed.\n", __FUNCTION__)); return ret; } return ret; } static int dhd_monitor_stop(struct net_device *net) { int ret = 0; dhd_info_t *dhd = DHD_MON_DEV_INFO(net); if (!dhd) { DHD_ERROR(("%s: dhd info not available \n", __FUNCTION__)); return BCME_ERROR; } if (!dhd->pub.monitor_enable) { DHD_ERROR(("%s: Monitor mode is not enabled in FW cap\n", __FUNCTION__)); return BCME_ERROR; } ret = dhd_set_monitor_ioctl(&dhd->pub, FALSE); if (ret) { DHD_ERROR(("%s: Set monitor mode IOCTL failed.\n", __FUNCTION__)); return ret; } return ret; } #endif /* WL_CFG80211_MONITOR */ #if defined(BT_OVER_SDIO) void dhdsdio_bus_usr_cnt_inc(dhd_pub_t *dhdp) { dhdp->info->bus_user_count++; } void dhdsdio_bus_usr_cnt_dec(dhd_pub_t *dhdp) { dhdp->info->bus_user_count--; } /* Return values: * Success: Returns 0 * Failure: Returns -1 or errono code */ int dhd_bus_get(wlan_bt_handle_t handle, bus_owner_t owner) { dhd_pub_t *dhdp = (dhd_pub_t *)handle; dhd_info_t *dhd = (dhd_info_t *)dhdp->info; int ret = 0; mutex_lock(&dhd->bus_user_lock); ++dhd->bus_user_count; if (dhd->bus_user_count < 0) { DHD_ERROR(("%s(): bus_user_count is negative, which is invalid\n", __FUNCTION__)); ret = -1; goto exit; } if (dhd->bus_user_count == 1) { dhd->pub.hang_was_sent = 0; /* First user, turn on WL_REG, start the bus */ DHD_ERROR(("%s(): First user Turn On WL_REG & start the bus", __FUNCTION__)); if (!wifi_platform_set_power(dhd->adapter, TRUE, WIFI_TURNON_DELAY)) { /* Enable F1 */ ret = dhd_bus_resume(dhdp, 0); if (ret) { DHD_ERROR(("%s(): Failed to enable F1, err=%d\n", __FUNCTION__, ret)); goto exit; } } /* XXX Some DHD modules (e.g. cfg80211) configures operation mode based on firmware * name. This is indeed a hack but we have to make it work properly before we have * a better solution */ dhd_update_fw_nv_path(dhd); /* update firmware and nvram path to sdio bus */ dhd_bus_update_fw_nv_path(dhd->pub.bus, dhd->fw_path, dhd->nv_path); /* download the firmware, Enable F2 */ /* TODO: Should be done only in case of FW switch */ ret = dhd_bus_devreset(dhdp, FALSE); dhd_bus_resume(dhdp, 1); if (!ret) { if (dhd_sync_with_dongle(&dhd->pub) < 0) { DHD_ERROR(("%s(): Sync with dongle failed!!\n", __FUNCTION__)); ret = -EFAULT; } } else { DHD_ERROR(("%s(): Failed to download, err=%d\n", __FUNCTION__, ret)); } } else { DHD_ERROR(("%s(): BUS is already acquired, just increase the count %d \r\n", __FUNCTION__, dhd->bus_user_count)); } exit: mutex_unlock(&dhd->bus_user_lock); return ret; } EXPORT_SYMBOL(dhd_bus_get); /* Return values: * Success: Returns 0 * Failure: Returns -1 or errono code */ int dhd_bus_put(wlan_bt_handle_t handle, bus_owner_t owner) { dhd_pub_t *dhdp = (dhd_pub_t *)handle; dhd_info_t *dhd = (dhd_info_t *)dhdp->info; int ret = 0; BCM_REFERENCE(owner); mutex_lock(&dhd->bus_user_lock); --dhd->bus_user_count; if (dhd->bus_user_count < 0) { DHD_ERROR(("%s(): bus_user_count is negative, which is invalid\n", __FUNCTION__)); dhd->bus_user_count = 0; ret = -1; goto exit; } if (dhd->bus_user_count == 0) { /* Last user, stop the bus and turn Off WL_REG */ DHD_ERROR(("%s(): There are no owners left Trunf Off WL_REG & stop the bus \r\n", __FUNCTION__)); #ifdef PROP_TXSTATUS if (dhd->pub.wlfc_enabled) { dhd_wlfc_deinit(&dhd->pub); } #endif /* PROP_TXSTATUS */ #ifdef PNO_SUPPORT if (dhd->pub.pno_state) { dhd_pno_deinit(&dhd->pub); } #endif /* PNO_SUPPORT */ #ifdef RTT_SUPPORT if (dhd->pub.rtt_state) { dhd_rtt_deinit(&dhd->pub); } #endif /* RTT_SUPPORT */ ret = dhd_bus_devreset(dhdp, TRUE); if (!ret) { dhd_bus_suspend(dhdp); wifi_platform_set_power(dhd->adapter, FALSE, WIFI_TURNOFF_DELAY); } } else { DHD_ERROR(("%s(): Other owners using bus, decrease the count %d \r\n", __FUNCTION__, dhd->bus_user_count)); } exit: mutex_unlock(&dhd->bus_user_lock); return ret; } EXPORT_SYMBOL(dhd_bus_put); int dhd_net_bus_get(struct net_device *dev) { dhd_info_t *dhd = DHD_DEV_INFO(dev); return dhd_bus_get(&dhd->pub, WLAN_MODULE); } int dhd_net_bus_put(struct net_device *dev) { dhd_info_t *dhd = DHD_DEV_INFO(dev); return dhd_bus_put(&dhd->pub, WLAN_MODULE); } /* * Function to enable the Bus Clock * Returns BCME_OK on success and BCME_xxx on failure * * This function is not callable from non-sleepable context */ int dhd_bus_clk_enable(wlan_bt_handle_t handle, bus_owner_t owner) { dhd_pub_t *dhdp = (dhd_pub_t *)handle; int ret; dhd_os_sdlock(dhdp); /* * The second argument is TRUE, that means, we expect * the function to "wait" until the clocks are really * available */ ret = __dhdsdio_clk_enable(dhdp->bus, owner, TRUE); dhd_os_sdunlock(dhdp); return ret; } EXPORT_SYMBOL(dhd_bus_clk_enable); /* * Function to disable the Bus Clock * Returns BCME_OK on success and BCME_xxx on failure * * This function is not callable from non-sleepable context */ int dhd_bus_clk_disable(wlan_bt_handle_t handle, bus_owner_t owner) { dhd_pub_t *dhdp = (dhd_pub_t *)handle; int ret; dhd_os_sdlock(dhdp); /* * The second argument is TRUE, that means, we expect * the function to "wait" until the clocks are really * disabled */ ret = __dhdsdio_clk_disable(dhdp->bus, owner, TRUE); dhd_os_sdunlock(dhdp); return ret; } EXPORT_SYMBOL(dhd_bus_clk_disable); /* * Function to reset bt_use_count counter to zero. * * This function is not callable from non-sleepable context */ void dhd_bus_reset_bt_use_count(wlan_bt_handle_t handle) { dhd_pub_t *dhdp = (dhd_pub_t *)handle; /* take the lock and reset bt use count */ dhd_os_sdlock(dhdp); dhdsdio_reset_bt_use_count(dhdp->bus); dhd_os_sdunlock(dhdp); } EXPORT_SYMBOL(dhd_bus_reset_bt_use_count); void dhd_bus_retry_hang_recovery(wlan_bt_handle_t handle) { dhd_pub_t *dhdp = (dhd_pub_t *)handle; dhd_info_t *dhd = (dhd_info_t*)dhdp->info; dhdp->hang_was_sent = 0; dhd_os_send_hang_message(&dhd->pub); } EXPORT_SYMBOL(dhd_bus_retry_hang_recovery); #endif /* BT_OVER_SDIO */ static int dhd_monitor_ioctl(struct net_device *dev, struct ifreq *ifr, int cmd) { return 0; } static struct net_device_stats* dhd_monitor_get_stats(struct net_device *dev) { return &DHD_MON_DEV_STATS(dev); } static const struct net_device_ops netdev_monitor_ops = { .ndo_start_xmit = dhd_monitor_start, .ndo_get_stats = dhd_monitor_get_stats, #ifdef WL_CFG80211_MONITOR .ndo_open = dhd_monitor_open, .ndo_stop = dhd_monitor_stop, #endif /* WL_CFG80211_MONITOR */ .ndo_do_ioctl = dhd_monitor_ioctl }; static void dhd_add_monitor_if(dhd_info_t *dhd) { struct net_device *dev; char *devname; #ifdef HOST_RADIOTAP_CONV dhd_pub_t *dhdp = (dhd_pub_t *)&dhd->pub; #endif /* HOST_RADIOTAP_CONV */ uint32 scan_suppress = FALSE; int ret = BCME_OK; dhd_mon_dev_priv_t *dev_priv; BCM_REFERENCE(dev_priv); if (!dhd) { DHD_ERROR(("%s: dhd info not available \n", __FUNCTION__)); return; } if (dhd->monitor_dev) { DHD_ERROR(("%s: monitor i/f already exists", __FUNCTION__)); return; } dev = alloc_etherdev(DHD_MON_DEV_PRIV_SIZE); if (!dev) { DHD_ERROR(("%s: alloc wlif failed\n", __FUNCTION__)); return; } devname = "radiotap"; snprintf(dev->name, sizeof(dev->name), "%s%u", devname, dhd->unit); #ifndef ARPHRD_IEEE80211_PRISM /* From Linux 2.4.18 */ #define ARPHRD_IEEE80211_PRISM 802 #endif #ifndef ARPHRD_IEEE80211_RADIOTAP #define ARPHRD_IEEE80211_RADIOTAP 803 /* IEEE 802.11 + radiotap header */ #endif /* ARPHRD_IEEE80211_RADIOTAP */ dev->type = ARPHRD_IEEE80211_RADIOTAP; dev->netdev_ops = &netdev_monitor_ops; #if (LINUX_VERSION_CODE >= KERNEL_VERSION(4, 11, 9)) /* as priv_destructor calls free_netdev, no need to set need_free_netdev */ dev->needs_free_netdev = 0; dev->priv_destructor = free_netdev; #else /* LINUX_VERSION_CODE >= KERNEL_VERSION(4, 11, 9) */ dev->destructor = free_netdev; #endif /* LINUX_VERSION_CODE >= KERNEL_VERSION(4, 11, 9) */ /* XXX: This is called from IOCTL path, in this case, rtnl_lock is already taken. * So, register_netdev() shouldn't be called. It leads to deadlock. * To avoid deadlock due to rtnl_lock(), register_netdevice() should be used. */ if (register_netdevice(dev)) { DHD_ERROR(("%s, register_netdev failed for %s\n", __FUNCTION__, dev->name)); free_netdev(dev); return; } if (FW_SUPPORTED((&dhd->pub), monitor)) { #ifdef DHD_PCIE_RUNTIMEPM /* Disable RuntimePM in monitor mode */ DHD_DISABLE_RUNTIME_PM(&dhd->pub); DHD_ERROR(("%s : disable runtime PM in monitor mode\n", __FUNCTION__)); #endif /* DHD_PCIE_RUNTIME_PM */ scan_suppress = TRUE; /* Set the SCAN SUPPRESS Flag in the firmware to disable scan in Monitor mode */ ret = dhd_iovar(&dhd->pub, 0, "scansuppress", (char *)&scan_suppress, sizeof(scan_suppress), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s: scansuppress set failed, ret=%d\n", __FUNCTION__, ret)); } } #ifdef HOST_RADIOTAP_CONV bcmwifi_monitor_create(&dhd->monitor_info); bcmwifi_set_corerev_major(dhd->monitor_info, dhdpcie_get_corerev_major(dhdp)); bcmwifi_set_corerev_minor(dhd->monitor_info, dhdpcie_get_corerev_minor(dhdp)); #endif /* HOST_RADIOTAP_CONV */ dhd->monitor_dev = dev; #ifdef WL_CFG80211_MONITOR dev_priv = DHD_MON_DEV_PRIV(dev); dev_priv->dhd = dhd; bzero(&dev_priv->stats, sizeof(dev_priv->stats)); #endif /* WL_CFG80211_MONITOR */ } static void dhd_del_monitor_if(dhd_info_t *dhd) { int ret = BCME_OK; uint32 scan_suppress = FALSE; dhd_mon_dev_priv_t *dev_priv; BCM_REFERENCE(dev_priv); if (!dhd) { DHD_ERROR(("%s: dhd info not available \n", __FUNCTION__)); return; } if (!dhd->monitor_dev) { DHD_ERROR(("%s: monitor i/f doesn't exist\n", __FUNCTION__)); return; } #ifdef WL_CFG80211_MONITOR dev_priv = DHD_MON_DEV_PRIV(dhd->monitor_dev); dev_priv->dhd = (dhd_info_t *)NULL; bzero(&dev_priv->stats, sizeof(dev_priv->stats)); #endif /* WL_CFG80211_MONITOR */ if (FW_SUPPORTED((&dhd->pub), monitor)) { #ifdef DHD_PCIE_RUNTIMEPM /* Enable RuntimePM */ DHD_ENABLE_RUNTIME_PM(&dhd->pub); DHD_ERROR(("%s : enabled runtime PM\n", __FUNCTION__)); #endif /* DHD_PCIE_RUNTIME_PM */ scan_suppress = FALSE; /* Unset the SCAN SUPPRESS Flag in the firmware to enable scan */ ret = dhd_iovar(&dhd->pub, 0, "scansuppress", (char *)&scan_suppress, sizeof(scan_suppress), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s: scansuppress set failed, ret=%d\n", __FUNCTION__, ret)); } } if (dhd->monitor_dev) { if (dhd->monitor_dev->reg_state == NETREG_UNINITIALIZED) { free_netdev(dhd->monitor_dev); } else { if (rtnl_is_locked()) { unregister_netdevice(dhd->monitor_dev); } else { unregister_netdev(dhd->monitor_dev); } } dhd->monitor_dev = NULL; } #ifdef HOST_RADIOTAP_CONV if (dhd->monitor_info) { bcmwifi_monitor_delete(dhd->monitor_info); dhd->monitor_info = NULL; } #endif /* HOST_RADIOTAP_CONV */ } static void dhd_set_monitor(dhd_pub_t *pub, int ifidx, int val) { dhd_info_t *dhd = pub->info; DHD_TRACE(("%s: val %d\n", __FUNCTION__, val)); dhd_net_if_lock_local(dhd); if (!val) { /* Delete monitor */ dhd_del_monitor_if(dhd); } else { /* Add monitor */ dhd_add_monitor_if(dhd); } dhd->monitor_type = val; dhd_net_if_unlock_local(dhd); } #endif /* WL_MONITOR */ #if defined(DHD_H2D_LOG_TIME_SYNC) /* * Helper function: * Used for RTE console message time syncing with Host printk */ void dhd_h2d_log_time_sync_deferred_wq_schedule(dhd_pub_t *dhdp) { dhd_info_t *info = dhdp->info; /* Ideally the "state" should be always TRUE */ dhd_deferred_schedule_work(info->dhd_deferred_wq, NULL, DHD_WQ_WORK_H2D_CONSOLE_TIME_STAMP_MATCH, dhd_deferred_work_rte_log_time_sync, DHD_WQ_WORK_PRIORITY_LOW); } void dhd_deferred_work_rte_log_time_sync(void *handle, void *event_info, u8 event) { dhd_info_t *dhd_info = handle; dhd_pub_t *dhd; if (event != DHD_WQ_WORK_H2D_CONSOLE_TIME_STAMP_MATCH) { DHD_ERROR(("%s: unexpected event \n", __FUNCTION__)); return; } if (!dhd_info) { DHD_ERROR(("%s: dhd info not available \n", __FUNCTION__)); return; } dhd = &dhd_info->pub; /* * Function to send IOVAR for console timesyncing * between Host and Dongle. * If the IOVAR fails, * 1. dhd_rte_time_sync_ms is set to 0 and * 2. HOST Dongle console time sync will *not* happen. */ dhd_h2d_log_time_sync(dhd); } #endif /* DHD_H2D_LOG_TIME_SYNC */ int dhd_ioctl_process(dhd_pub_t *pub, int ifidx, dhd_ioctl_t *ioc, void *data_buf) { int bcmerror = BCME_OK; int buflen = 0; struct net_device *net; net = dhd_idx2net(pub, ifidx); if (!net) { bcmerror = BCME_BADARG; /* * The netdev pointer is bad means the DHD can't communicate * to higher layers, so just return from here */ return bcmerror; } /* check for local dhd ioctl and handle it */ if (ioc->driver == DHD_IOCTL_MAGIC) { if (data_buf) { /* Return error if nvram size is too big */ if (!bcmstricmp((char *)data_buf, "vars")) { DHD_ERROR(("%s: nvram len(%d) MAX_NVRAMBUF_SIZE(%d)\n", __FUNCTION__, ioc->len, MAX_NVRAMBUF_SIZE)); if (ioc->len > MAX_NVRAMBUF_SIZE) { DHD_ERROR(("%s: nvram len(%d) > MAX_NVRAMBUF_SIZE(%d)\n", __FUNCTION__, ioc->len, MAX_NVRAMBUF_SIZE)); bcmerror = BCME_BUFTOOLONG; goto done; } buflen = ioc->len; } else if (!bcmstricmp((char *)data_buf, "dump")) { buflen = MIN(ioc->len, DHD_IOCTL_MAXLEN_32K); } else { /* This is a DHD IOVAR, truncate buflen to DHD_IOCTL_MAXLEN */ buflen = MIN(ioc->len, DHD_IOCTL_MAXLEN); } } bcmerror = dhd_ioctl((void *)pub, ioc, data_buf, buflen); if (bcmerror) pub->bcmerror = bcmerror; goto done; } /* This is a WL IOVAR, truncate buflen to WLC_IOCTL_MAXLEN */ if (data_buf) buflen = MIN(ioc->len, WLC_IOCTL_MAXLEN); #ifndef BCMDBUS /* send to dongle (must be up, and wl). */ if (pub->busstate == DHD_BUS_DOWN || pub->busstate == DHD_BUS_LOAD) { if ((!pub->dongle_trap_occured) && allow_delay_fwdl) { int ret; if (atomic_read(&exit_in_progress)) { DHD_ERROR(("%s module exit in progress\n", __func__)); bcmerror = BCME_DONGLE_DOWN; goto done; } ret = dhd_bus_start(pub); if (ret != 0) { DHD_ERROR(("%s: failed with code %d\n", __FUNCTION__, ret)); bcmerror = BCME_DONGLE_DOWN; goto done; } } else { bcmerror = BCME_DONGLE_DOWN; goto done; } } if (!pub->iswl) { bcmerror = BCME_DONGLE_DOWN; goto done; } #endif /* BCMDBUS */ /* * Flush the TX queue if required for proper message serialization: * Intercept WLC_SET_KEY IOCTL - serialize M4 send and set key IOCTL to * prevent M4 encryption and * intercept WLC_DISASSOC IOCTL - serialize WPS-DONE and WLC_DISASSOC IOCTL to * prevent disassoc frame being sent before WPS-DONE frame. */ if (ioc->cmd == WLC_SET_KEY || (ioc->cmd == WLC_SET_VAR && data_buf != NULL && strncmp("wsec_key", data_buf, 9) == 0) || (ioc->cmd == WLC_SET_VAR && data_buf != NULL && strncmp("bsscfg:wsec_key", data_buf, 15) == 0) || ioc->cmd == WLC_DISASSOC) dhd_wait_pend8021x(net); if ((ioc->cmd == WLC_SET_VAR || ioc->cmd == WLC_GET_VAR) && data_buf != NULL && strncmp("rpc_", data_buf, 4) == 0) { bcmerror = BCME_UNSUPPORTED; goto done; } /* XXX this typecast is BAD !!! */ bcmerror = dhd_wl_ioctl(pub, ifidx, (wl_ioctl_t *)ioc, data_buf, buflen); #ifdef REPORT_FATAL_TIMEOUTS /* ensure that the timeouts/flags are started/set after the ioctl returns success */ if (bcmerror == BCME_OK) { if (ioc->cmd == WLC_SET_WPA_AUTH) { int wpa_auth; wpa_auth = *((int *)ioc->buf); DHD_INFO(("wpa_auth:%d\n", wpa_auth)); if (wpa_auth != WPA_AUTH_DISABLED) { /* If AP is with security then enable * WLC_E_PSK_SUP event checking */ pub->secure_join = TRUE; } else { /* If AP is with open then disable * WLC_E_PSK_SUP event checking */ pub->secure_join = FALSE; } } if (ioc->cmd == WLC_SET_AUTH) { int auth; auth = *((int *)ioc->buf); DHD_INFO(("Auth:%d\n", auth)); if (auth != WL_AUTH_OPEN_SYSTEM) { /* If AP is with security then enable * WLC_E_PSK_SUP event checking */ pub->secure_join = TRUE; } else { /* If AP is with open then disable WLC_E_PSK_SUP event checking */ pub->secure_join = FALSE; } } if (ioc->cmd == WLC_SET_SSID) { bool set_ssid_rcvd = OSL_ATOMIC_READ(pub->osh, &pub->set_ssid_rcvd); if ((!set_ssid_rcvd) && (!pub->secure_join)) { dhd_start_join_timer(pub); } else { DHD_ERROR(("%s: didnot start join timer." "open join, set_ssid_rcvd: %d secure_join: %d\n", __FUNCTION__, set_ssid_rcvd, pub->secure_join)); OSL_ATOMIC_SET(pub->osh, &pub->set_ssid_rcvd, FALSE); } } if (ioc->cmd == WLC_SCAN) { dhd_start_scan_timer(pub, 0); } } #endif /* REPORT_FATAL_TIMEOUTS */ #ifdef WL_MONITOR /* Intercept monitor ioctl here, add/del monitor if */ if (bcmerror == BCME_OK && ioc->cmd == WLC_SET_MONITOR) { int val = 0; if (data_buf != NULL && buflen != 0) { if (buflen >= 4) { val = *(int*)data_buf; } else if (buflen >= 2) { val = *(short*)data_buf; } else { val = *(char*)data_buf; } } dhd_set_monitor(pub, ifidx, val); } #ifdef HOST_RADIOTAP_CONV /* Clearing the MSB bit when user fires 'wl monitor', * which is used to indicate radiotap conversion support */ else if (bcmerror == BCME_OK && ioc->cmd == WLC_GET_MONITOR) { *(int32*)data_buf &= ~(HOST_RADIOTAP_CONV_BIT); } #endif /* HOST_RADIOTAP_CONV */ #endif /* WL_MONITOR */ done: dhd_check_hang(net, pub, bcmerror); return bcmerror; } /* XXX For the moment, local ioctls will return BCM errors */ /* XXX Others return linux codes, need to be changed... */ /** * Called by the OS (optionally via a wrapper function). * @param net Linux per dongle instance * @param ifr Linux request structure * @param cmd e.g. SIOCETHTOOL */ static int dhd_ioctl_entry(struct net_device *net, struct ifreq *ifr, int cmd) { dhd_info_t *dhd = DHD_DEV_INFO(net); dhd_ioctl_t ioc; int bcmerror = 0; int ifidx; int ret; void *local_buf = NULL; /**< buffer in kernel space */ void __user *ioc_buf_user = NULL; /**< buffer in user space */ u16 buflen = 0; if (atomic_read(&exit_in_progress)) { DHD_ERROR(("%s module exit in progress\n", __func__)); bcmerror = BCME_DONGLE_DOWN; return OSL_ERROR(bcmerror); } DHD_OS_WAKE_LOCK(&dhd->pub); /* Interface up check for built-in type */ if (!dhd_download_fw_on_driverload && dhd->pub.up == FALSE) { DHD_TRACE(("%s: Interface is down \n", __FUNCTION__)); DHD_OS_WAKE_UNLOCK(&dhd->pub); return OSL_ERROR(BCME_NOTUP); } ifidx = dhd_net2idx(dhd, net); DHD_TRACE(("%s: ifidx %d, cmd 0x%04x\n", __FUNCTION__, ifidx, cmd)); #if defined(WL_STATIC_IF) /* skip for static ndev when it is down */ if (dhd_is_static_ndev(&dhd->pub, net) && !(net->flags & IFF_UP)) { DHD_OS_WAKE_UNLOCK(&dhd->pub); return -1; } #endif /* WL_STATIC_iF */ if (ifidx == DHD_BAD_IF) { DHD_ERROR(("%s: BAD IF\n", __FUNCTION__)); DHD_OS_WAKE_UNLOCK(&dhd->pub); return -1; } if (cmd == SIOCETHTOOL) { ret = dhd_ethtool(dhd, (void*)ifr->ifr_data); DHD_OS_WAKE_UNLOCK(&dhd->pub); return ret; } if (cmd == SIOCDEVPRIVATE+1) { ret = wl_android_priv_cmd(net, ifr); dhd_check_hang(net, &dhd->pub, ret); DHD_OS_WAKE_UNLOCK(&dhd->pub); return ret; } if (cmd != SIOCDEVPRIVATE) { DHD_OS_WAKE_UNLOCK(&dhd->pub); return -EOPNOTSUPP; } memset(&ioc, 0, sizeof(ioc)); #ifdef CONFIG_COMPAT #if (LINUX_VERSION_CODE >= KERNEL_VERSION(4, 6, 0)) if (in_compat_syscall()) #else if (is_compat_task()) #endif /* LINUX_VER >= 4.6 */ { compat_wl_ioctl_t compat_ioc; if (copy_from_user(&compat_ioc, ifr->ifr_data, sizeof(compat_wl_ioctl_t))) { bcmerror = BCME_BADADDR; goto done; } ioc.cmd = compat_ioc.cmd; ioc.buf = compat_ptr(compat_ioc.buf); ioc.len = compat_ioc.len; ioc.set = compat_ioc.set; ioc.used = compat_ioc.used; ioc.needed = compat_ioc.needed; /* To differentiate between wl and dhd read 4 more byes */ if ((copy_from_user(&ioc.driver, (char *)ifr->ifr_data + sizeof(compat_wl_ioctl_t), sizeof(uint)) != 0)) { bcmerror = BCME_BADADDR; goto done; } } else #endif /* CONFIG_COMPAT */ { /* Copy the ioc control structure part of ioctl request */ if (copy_from_user(&ioc, ifr->ifr_data, sizeof(wl_ioctl_t))) { bcmerror = BCME_BADADDR; goto done; } /* To differentiate between wl and dhd read 4 more byes */ if ((copy_from_user(&ioc.driver, (char *)ifr->ifr_data + sizeof(wl_ioctl_t), sizeof(uint)) != 0)) { bcmerror = BCME_BADADDR; goto done; } } if (!capable(CAP_NET_ADMIN)) { bcmerror = BCME_EPERM; goto done; } /* Take backup of ioc.buf and restore later */ ioc_buf_user = ioc.buf; if (ioc.len > 0) { /* * some IOVARs in DHD require 32K user memory. So allocate the * maximum local buffer. * * For IOVARS which donot require 32K user memory, dhd_ioctl_process() * takes care of trimming the length to DHD_IOCTL_MAXLEN(16K). So that DHD * will not overflow the buffer size while updating the buffer. */ buflen = MIN(ioc.len, DHD_IOCTL_MAXLEN_32K); if (!(local_buf = MALLOC(dhd->pub.osh, buflen+1))) { bcmerror = BCME_NOMEM; goto done; } if (copy_from_user(local_buf, ioc.buf, buflen)) { bcmerror = BCME_BADADDR; goto done; } *((char *)local_buf + buflen) = '\0'; /* For some platforms accessing userspace memory * of ioc.buf is causing kernel panic, so to avoid that * make ioc.buf pointing to kernel space memory local_buf */ ioc.buf = local_buf; } /* Skip all the non DHD iovars (wl iovars) after f/w hang */ if (ioc.driver != DHD_IOCTL_MAGIC && dhd->pub.hang_was_sent) { DHD_TRACE(("%s: HANG was sent up earlier\n", __FUNCTION__)); DHD_OS_WAKE_LOCK_CTRL_TIMEOUT_ENABLE(&dhd->pub, DHD_EVENT_TIMEOUT_MS); bcmerror = BCME_DONGLE_DOWN; goto done; } bcmerror = dhd_ioctl_process(&dhd->pub, ifidx, &ioc, local_buf); /* Restore back userspace pointer to ioc.buf */ ioc.buf = ioc_buf_user; if (!bcmerror && buflen && local_buf && ioc.buf) { if (copy_to_user(ioc.buf, local_buf, buflen)) bcmerror = -EFAULT; } done: if (local_buf) MFREE(dhd->pub.osh, local_buf, buflen+1); DHD_OS_WAKE_UNLOCK(&dhd->pub); return OSL_ERROR(bcmerror); } #if defined(WL_CFG80211) && defined(SUPPORT_DEEP_SLEEP) /* Flags to indicate if we distingish power off policy when * user set the memu "Keep Wi-Fi on during sleep" to "Never" */ int trigger_deep_sleep = 0; #endif /* WL_CFG80211 && SUPPORT_DEEP_SLEEP */ #ifdef FIX_CPU_MIN_CLOCK static int dhd_init_cpufreq_fix(dhd_info_t *dhd) { if (dhd) { mutex_init(&dhd->cpufreq_fix); dhd->cpufreq_fix_status = FALSE; } return 0; } static void dhd_fix_cpu_freq(dhd_info_t *dhd) { mutex_lock(&dhd->cpufreq_fix); if (dhd && !dhd->cpufreq_fix_status) { pm_qos_add_request(&dhd->dhd_cpu_qos, PM_QOS_CPU_FREQ_MIN, 300000); #ifdef FIX_BUS_MIN_CLOCK pm_qos_add_request(&dhd->dhd_bus_qos, PM_QOS_BUS_THROUGHPUT, 400000); #endif /* FIX_BUS_MIN_CLOCK */ DHD_ERROR(("pm_qos_add_requests called\n")); dhd->cpufreq_fix_status = TRUE; } mutex_unlock(&dhd->cpufreq_fix); } static void dhd_rollback_cpu_freq(dhd_info_t *dhd) { mutex_lock(&dhd ->cpufreq_fix); if (dhd && dhd->cpufreq_fix_status != TRUE) { mutex_unlock(&dhd->cpufreq_fix); return; } pm_qos_remove_request(&dhd->dhd_cpu_qos); #ifdef FIX_BUS_MIN_CLOCK pm_qos_remove_request(&dhd->dhd_bus_qos); #endif /* FIX_BUS_MIN_CLOCK */ DHD_ERROR(("pm_qos_add_requests called\n")); dhd->cpufreq_fix_status = FALSE; mutex_unlock(&dhd->cpufreq_fix); } #endif /* FIX_CPU_MIN_CLOCK */ #ifdef DHD_PCIE_NATIVE_RUNTIMEPM static int dhd_ioctl_entry_wrapper(struct net_device *net, struct ifreq *ifr, int cmd) { int error; dhd_info_t *dhd = DHD_DEV_INFO(net); if (atomic_read(&dhd->pub.block_bus)) return -EHOSTDOWN; if (pm_runtime_get_sync(dhd_bus_to_dev(dhd->pub.bus)) < 0) return BCME_ERROR; error = dhd_ioctl_entry(net, ifr, cmd); pm_runtime_mark_last_busy(dhd_bus_to_dev(dhd->pub.bus)); pm_runtime_put_autosuspend(dhd_bus_to_dev(dhd->pub.bus)); return error; } #endif /* DHD_PCIE_NATIVE_RUNTIMEPM */ #if LINUX_VERSION_CODE >= KERNEL_VERSION(4, 19, 0) && defined(DHD_TCP_LIMIT_OUTPUT) void dhd_ctrl_tcp_limit_output_bytes(int level) { if (level == 0) { init_net.ipv4.sysctl_tcp_limit_output_bytes = TCP_DEFAULT_LIMIT_OUTPUT; } else if (level == 1) { init_net.ipv4.sysctl_tcp_limit_output_bytes = DHD_TCP_LIMIT_OUTPUT_BYTES; } } #endif /* LINUX_VERSION_CODE > 4.19.0 && DHD_TCP_LIMIT_OUTPUT */ static int dhd_stop(struct net_device *net) { int ifidx = 0; bool skip_reset = false; #ifdef WL_CFG80211 unsigned long flags = 0; #ifdef WL_STATIC_IF struct bcm_cfg80211 *cfg = wl_get_cfg(net); #endif /* WL_STATIC_IF */ #endif /* WL_CFG80211 */ dhd_info_t *dhd = DHD_DEV_INFO(net); DHD_ERROR(("%s: ENTER\n", __FUNCTION__)); DHD_OS_WAKE_LOCK(&dhd->pub); dhd->pub.rxcnt_timeout = 0; dhd->pub.txcnt_timeout = 0; #ifdef BCMPCIE dhd->pub.d3ackcnt_timeout = 0; #endif /* BCMPCIE */ /* Synchronize between the stop and rx path */ dhd->pub.stop_in_progress = true; OSL_SMP_WMB(); dhd_os_busbusy_wait_negation(&dhd->pub, &dhd->pub.dhd_bus_busy_state); mutex_lock(&dhd->pub.ndev_op_sync); if (dhd->pub.up == 0) { goto exit; } #if defined(DHD_HANG_SEND_UP_TEST) if (dhd->pub.req_hang_type) { DHD_ERROR(("%s, Clear HANG test request 0x%x\n", __FUNCTION__, dhd->pub.req_hang_type)); dhd->pub.req_hang_type = 0; } #endif /* DHD_HANG_SEND_UP_TEST */ #if defined(WLAN_ACCEL_BOOT) if (!dhd->wl_accel_force_reg_on && dhd_query_bus_erros(&dhd->pub)) { DHD_ERROR(("%s: set force reg on\n", __FUNCTION__)); dhd->wl_accel_force_reg_on = TRUE; } #endif /* WLAN_ACCEL_BOOT */ #ifdef FIX_CPU_MIN_CLOCK if (dhd_get_fw_mode(dhd) == DHD_FLAG_HOSTAP_MODE) dhd_rollback_cpu_freq(dhd); #endif /* FIX_CPU_MIN_CLOCK */ ifidx = dhd_net2idx(dhd, net); BCM_REFERENCE(ifidx); DHD_ERROR(("%s: ######### called for ifidx=%d #########\n", __FUNCTION__, ifidx)); #if defined(WL_STATIC_IF) && defined(WL_CFG80211) /* If static if is operational, don't reset the chip */ if (IS_CFG80211_STATIC_IF_ACTIVE(cfg) || (wl_cfgvif_get_iftype_count(cfg, WL_IF_TYPE_AP) > 0)) { DHD_ERROR(("static/ap if operational. skip chip reset.\n")); skip_reset = true; wl_cfg80211_sta_ifdown(net); goto exit; } #endif /* WL_STATIC_IF && WL_CFG80211 */ #ifdef WL_CFG80211 if (ifidx == 0) { dhd_if_t *ifp; wl_cfg80211_down(net); DHD_ERROR(("%s: making dhdpub up FALSE\n", __FUNCTION__)); #ifdef WL_CFG80211 /* Disable Runtime PM before interface down */ DHD_STOP_RPM_TIMER(&dhd->pub); DHD_UP_LOCK(&dhd->pub.up_lock, flags); dhd->pub.up = 0; DHD_UP_UNLOCK(&dhd->pub.up_lock, flags); #else dhd->pub.up = 0; #endif /* WL_CFG80211 */ #if defined(BCMPCIE) && defined(CONFIG_ARCH_MSM) && defined(CONFIG_SEC_PCIE_L1SS) dhd_bus_inform_ep_loaded_to_rc(&dhd->pub, dhd->pub.up); #endif /* BCMPCIE && CONFIG_ARCH_MSM && CONFIG_SEC_PCIE_L1SS */ ifp = dhd->iflist[0]; /* * For CFG80211: Clean up all the left over virtual interfaces * when the primary Interface is brought down. [ifconfig wlan0 down] */ if (!dhd_download_fw_on_driverload) { DHD_STATLOG_CTRL(&dhd->pub, ST(WLAN_POWER_OFF), ifidx, 0); if ((dhd->dhd_state & DHD_ATTACH_STATE_ADD_IF) && (dhd->dhd_state & DHD_ATTACH_STATE_CFG80211)) { int i; #ifdef DHD_4WAYM4_FAIL_DISCONNECT dhd_cleanup_m4_state_work(&dhd->pub, ifidx); #endif /* DHD_4WAYM4_FAIL_DISCONNECT */ #ifdef DHD_PKTDUMP_ROAM dhd_dump_pkt_clear(&dhd->pub); #endif /* DHD_PKTDUMP_ROAM */ dhd_net_if_lock_local(dhd); for (i = 1; i < DHD_MAX_IFS; i++) dhd_remove_if(&dhd->pub, i, FALSE); if (ifp && ifp->net) { dhd_if_del_sta_list(ifp); } #ifdef ARP_OFFLOAD_SUPPORT if (dhd_inetaddr_notifier_registered) { dhd_inetaddr_notifier_registered = FALSE; unregister_inetaddr_notifier(&dhd_inetaddr_notifier); } #endif /* ARP_OFFLOAD_SUPPORT */ #if defined(CONFIG_IPV6) && defined(IPV6_NDO_SUPPORT) if (dhd_inet6addr_notifier_registered) { dhd_inet6addr_notifier_registered = FALSE; unregister_inet6addr_notifier(&dhd_inet6addr_notifier); } #endif /* CONFIG_IPV6 && IPV6_NDO_SUPPORT */ dhd_net_if_unlock_local(dhd); } cancel_work_sync(dhd->dhd_deferred_wq); #ifdef SHOW_LOGTRACE /* Wait till event logs work/kthread finishes */ dhd_cancel_logtrace_process_sync(dhd); #endif /* SHOW_LOGTRACE */ #ifdef BTLOG /* Wait till bt_log_dispatcher_work finishes */ cancel_work_sync(&dhd->bt_log_dispatcher_work); #endif /* BTLOG */ #ifdef EWP_EDL cancel_delayed_work_sync(&dhd->edl_dispatcher_work); #endif #if defined(DHD_LB_RXP) __skb_queue_purge(&dhd->rx_pend_queue); skb_queue_purge(&dhd->rx_emerge_queue); #endif /* DHD_LB_RXP */ #if defined(DHD_LB_TXP) skb_queue_purge(&dhd->tx_pend_queue); #endif /* DHD_LB_TXP */ } #ifdef DHDTCPACK_SUPPRESS dhd_tcpack_suppress_set(&dhd->pub, TCPACK_SUP_OFF); #endif /* DHDTCPACK_SUPPRESS */ #if defined(DHD_LB_RXP) if (ifp && ifp->net == dhd->rx_napi_netdev) { DHD_INFO(("%s napi<%p> disabled ifp->net<%p,%s>\n", __FUNCTION__, &dhd->rx_napi_struct, net, net->name)); skb_queue_purge(&dhd->rx_napi_queue); napi_disable(&dhd->rx_napi_struct); netif_napi_del(&dhd->rx_napi_struct); dhd->rx_napi_netdev = NULL; } #endif /* DHD_LB_RXP */ } #endif /* WL_CFG80211 */ #ifdef PROP_TXSTATUS dhd_wlfc_cleanup(&dhd->pub, NULL, 0); #endif #ifdef SHOW_LOGTRACE if (!dhd_download_fw_on_driverload) { /* Release the skbs from queue for WLC_E_TRACE event */ dhd_event_logtrace_flush_queue(&dhd->pub); if (dhd->dhd_state & DHD_ATTACH_LOGTRACE_INIT) { if (dhd->event_data.fmts) { MFREE(dhd->pub.osh, dhd->event_data.fmts, dhd->event_data.fmts_size); } if (dhd->event_data.raw_fmts) { MFREE(dhd->pub.osh, dhd->event_data.raw_fmts, dhd->event_data.raw_fmts_size); } if (dhd->event_data.raw_sstr) { MFREE(dhd->pub.osh, dhd->event_data.raw_sstr, dhd->event_data.raw_sstr_size); } if (dhd->event_data.rom_raw_sstr) { MFREE(dhd->pub.osh, dhd->event_data.rom_raw_sstr, dhd->event_data.rom_raw_sstr_size); } dhd->dhd_state &= ~DHD_ATTACH_LOGTRACE_INIT; } } #endif /* SHOW_LOGTRACE */ #ifdef DHD_DEBUGABILITY_LOG_DUMP_RING /* Stop all ring buffer */ dhd_os_reset_logging(&dhd->pub); #endif #ifdef DHD_PKT_LOGGING_DBGRING if (dhd_pktlog_ring_reinit(&dhd->pub) != BCME_OK) { DHD_ERROR(("%s: dhd_pktlog_ring_reinit() error.\n", __FUNCTION__)); } #endif /* DHD_PKT_LOGGING_DBGRING */ #ifdef APF dhd_dev_apf_delete_filter(net); #endif /* APF */ #ifdef CUSTOM_EVENT_PM_WAKE /* Clear EXCESS_PM_PERIOD explicitly when Wi-Fi turn off */ dhd_set_excess_pm_awake(&dhd->pub, FALSE); #endif /* CUSTOM_EVENT_PM_WAKE */ /* Stop the protocol module */ dhd_prot_stop(&dhd->pub); OLD_MOD_DEC_USE_COUNT; exit: if (skip_reset == false) { #if defined(WL_CFG80211) if (ifidx == 0 && !dhd_download_fw_on_driverload) { #if defined(WLAN_ACCEL_BOOT) wl_android_wifi_accel_off(net, dhd->wl_accel_force_reg_on); #else #if defined(BT_OVER_SDIO) dhd_bus_put(&dhd->pub, WLAN_MODULE); wl_android_set_wifi_on_flag(FALSE); #else wl_android_wifi_off(net, TRUE); #endif /* BT_OVER_SDIO */ #endif /* WLAN_ACCEL_BOOT */ } #ifdef SUPPORT_DEEP_SLEEP else { /* CSP#505233: Flags to indicate if we distingish * power off policy when user set the memu * "Keep Wi-Fi on during sleep" to "Never" */ if (trigger_deep_sleep) { dhd_deepsleep(net, 1); trigger_deep_sleep = 0; } } #endif /* SUPPORT_DEEP_SLEEP */ #endif dhd->pub.hang_was_sent = 0; dhd->pub.hang_was_pending = 0; /* Clear country spec for for built-in type driver */ if (!dhd_download_fw_on_driverload) { dhd->pub.dhd_cspec.country_abbrev[0] = 0x00; dhd->pub.dhd_cspec.rev = 0; dhd->pub.dhd_cspec.ccode[0] = 0x00; } #ifdef BCMDBGFS dhd_dbgfs_remove(); #endif } DHD_OS_WAKE_UNLOCK(&dhd->pub); /* Destroy wakelock */ if (!dhd_download_fw_on_driverload && (dhd->dhd_state & DHD_ATTACH_STATE_WAKELOCKS_INIT) && (skip_reset == false)) { DHD_OS_WAKE_LOCK_DESTROY(dhd); dhd->dhd_state &= ~DHD_ATTACH_STATE_WAKELOCKS_INIT; } #if LINUX_VERSION_CODE >= KERNEL_VERSION(4, 19, 0) && defined(DHD_TCP_LIMIT_OUTPUT) dhd_ctrl_tcp_limit_output_bytes(0); #endif /* LINUX_VERSION_CODE > 4.19.0 && DHD_TCP_LIMIT_OUTPUT */ mutex_unlock(&dhd->pub.ndev_op_sync); /* Clear stop in progress flag */ dhd->pub.stop_in_progress = false; DHD_ERROR(("%s: EXIT\n", __FUNCTION__)); return 0; } #if defined(WL_CFG80211) && (defined(USE_INITIAL_2G_SCAN) || \ defined(USE_INITIAL_SHORT_DWELL_TIME)) extern bool g_first_broadcast_scan; #endif /* OEM_ANDROID && WL_CFG80211 && (USE_INITIAL_2G_SCAN || USE_INITIAL_SHORT_DWELL_TIME) */ #ifdef WL11U static int dhd_interworking_enable(dhd_pub_t *dhd) { uint32 enable = true; int ret = BCME_OK; ret = dhd_iovar(dhd, 0, "interworking", (char *)&enable, sizeof(enable), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s: enableing interworking failed, ret=%d\n", __FUNCTION__, ret)); } return ret; } #endif /* WL11u */ #if defined(WLAN_ACCEL_BOOT) void dhd_verify_firmware_mode_change(dhd_info_t *dhd) { int current_mode = 0; dhd->pub.fw_mode_changed = FALSE; DHD_ERROR(("%s: do_chip_bighammer:%d\n", __FUNCTION__, dhd->pub.do_chip_bighammer)); /* * check for the FW change * previous FW mode - dhd->pub.op_mode remember the previous mode * current mode - update fw/nv path, get current FW mode from dhd->fw_path */ dhd_update_fw_nv_path(dhd); #ifdef WL_MONITOR DHD_INFO(("%s : check monitor mode with fw_path : %s\n", __FUNCTION__, dhd->fw_path)); if (strstr(dhd->fw_path, "_mon") != NULL) { DHD_ERROR(("%s : monitor mode is enabled, set force reg on\n", __FUNCTION__)); dhd->wl_accel_force_reg_on = TRUE; dhd->pub.fw_mode_changed = TRUE; return; } else if (dhd->pub.monitor_enable == TRUE) { DHD_ERROR(("%s : monitor was enabled, changed to other fw_mode\n", __FUNCTION__)); dhd->wl_accel_force_reg_on = TRUE; dhd->pub.fw_mode_changed = TRUE; return; } #endif /* WL_MONITOR */ current_mode = dhd_get_fw_mode(dhd); DHD_ERROR(("%s: current_mode 0x%x, prev_opmode 0x%x\n", __FUNCTION__, current_mode, dhd->pub.op_mode)); if (!(dhd->pub.op_mode & current_mode)) { DHD_ERROR(("%s: firmware path has changed, set force reg on\n", __FUNCTION__)); dhd->wl_accel_force_reg_on = TRUE; dhd->pub.fw_mode_changed = TRUE; } } #endif /* WLAN_ACCEL_BOOT */ void dhd_force_collect_init_fail_dumps(dhd_pub_t *dhdp) { #if defined(CUSTOMER_HW4_DEBUG) || defined(CUSTOMER_HW2_DEBUG) #ifdef DEBUG_DNGL_INIT_FAIL /* As HAL is not inited, do force crash and collect from host dram */ dhdp->memdump_enabled = DUMP_MEMONLY; #else DHD_ERROR(("%s: As DEBUG_DNGL_INIT_FAIL is not enabled, and HAL not inited," " cannot collect dumps\n", __FUNCTION__)); return; #endif /* DEBUG_DNGL_INIT_FAIL */ #endif /* CUSTOMER_HW4_DEBUG || CUSTOMER_HW2_DEBUG */ #ifdef DHD_FW_COREDUMP /* save core dump or write to a file */ if (dhdp->memdump_enabled && (dhdp->busstate != DHD_BUS_DOWN)) { #ifdef DHD_SSSR_DUMP if (!dhdp->sssr_inited) { DHD_ERROR(("%s: #### force init SSSR ###\n", __FUNCTION__)); dhdp->force_sssr_init = TRUE; /* Hard code sssr_reg_info for 4389 */ DHD_SSSR_DUMP_INIT(dhdp); /* force collect FIS */ fis_enab = TRUE; } dhdp->collect_sssr = TRUE; #endif /* DHD_SSSR_DUMP */ dhdp->memdump_type = DUMP_TYPE_DONGLE_INIT_FAILURE; dhd_bus_mem_dump(dhdp); } #endif /* DHD_FW_COREDUMP */ } int dhd_open(struct net_device *net) { dhd_info_t *dhd = DHD_DEV_INFO(net); #ifdef TOE uint32 toe_ol; #endif int ifidx; int32 ret = 0; DHD_ERROR(("%s: ENTER\n", __FUNCTION__)); #if defined(PREVENT_REOPEN_DURING_HANG) /* WAR : to prevent calling dhd_open abnormally in quick succession after hang event */ if (dhd->pub.hang_was_sent == 1) { DHD_ERROR(("%s: HANG was sent up earlier\n", __FUNCTION__)); /* Force to bring down WLAN interface in case dhd_stop() is not called * from the upper layer when HANG event is triggered. */ if (!dhd_download_fw_on_driverload && dhd->pub.up == 1) { DHD_ERROR(("%s: WLAN interface is not brought down\n", __FUNCTION__)); dhd_stop(net); } else { return -1; } } #endif /* PREVENT_REOPEN_DURING_HANG */ dhd_tcm_test_status = TCM_TEST_NOT_RUN; /* clear to run TCM test once per dhd_open() */ mutex_lock(&dhd->pub.ndev_op_sync); if (dhd->pub.up == 1) { /* already up */ DHD_INFO(("Primary net_device is already up \n")); mutex_unlock(&dhd->pub.ndev_op_sync); return BCME_OK; } if (!dhd_download_fw_on_driverload) { #if defined(WLAN_ACCEL_BOOT) if (!dhd->wl_accel_force_reg_on && dhd_query_bus_erros(&dhd->pub)) { DHD_ERROR(("%s: set force reg on\n", __FUNCTION__)); dhd->wl_accel_force_reg_on = TRUE; } #endif /* WLAN_ACCEL_BOOT */ if (!dhd_driver_init_done) { DHD_ERROR(("%s: WLAN driver is not initialized\n", __FUNCTION__)); mutex_unlock(&dhd->pub.ndev_op_sync); return -1; } /* Init wakelock */ if (!(dhd->dhd_state & DHD_ATTACH_STATE_WAKELOCKS_INIT)) { DHD_OS_WAKE_LOCK_INIT(dhd); dhd->dhd_state |= DHD_ATTACH_STATE_WAKELOCKS_INIT; } #ifdef SHOW_LOGTRACE skb_queue_head_init(&dhd->evt_trace_queue); if (!(dhd->dhd_state & DHD_ATTACH_LOGTRACE_INIT)) { ret = dhd_init_logstrs_array(dhd->pub.osh, &dhd->event_data); if (ret == BCME_OK) { dhd_init_static_strs_array(dhd->pub.osh, &dhd->event_data, st_str_file_path, map_file_path); dhd_init_static_strs_array(dhd->pub.osh, &dhd->event_data, rom_st_str_file_path, rom_map_file_path); dhd->dhd_state |= DHD_ATTACH_LOGTRACE_INIT; } } #endif /* SHOW_LOGTRACE */ } #if defined(MULTIPLE_SUPPLICANT) #if defined(BCMSDIO) if (mutex_is_locked(&_dhd_sdio_mutex_lock_) != 0) { DHD_ERROR(("%s : dhd_open: call dev open before insmod complete!\n", __FUNCTION__)); } mutex_lock(&_dhd_sdio_mutex_lock_); #endif /* BCMSDIO */ #endif /* MULTIPLE_SUPPLICANT */ DHD_OS_WAKE_LOCK(&dhd->pub); dhd->pub.dongle_trap_occured = 0; dhd->pub.hang_was_sent = 0; dhd->pub.hang_was_pending = 0; dhd->pub.hang_reason = 0; dhd->pub.iovar_timeout_occured = 0; #ifdef PCIE_FULL_DONGLE dhd->pub.d3ack_timeout_occured = 0; dhd->pub.livelock_occured = 0; dhd->pub.pktid_audit_failed = 0; dhd->pub.pktid_invalid_occured = 0; #endif /* PCIE_FULL_DONGLE */ dhd->pub.iface_op_failed = 0; dhd->pub.scan_timeout_occurred = 0; dhd->pub.scan_busy_occurred = 0; dhd->pub.p2p_disc_busy_occurred = 0; dhd->pub.smmu_fault_occurred = 0; #ifdef DHD_LOSSLESS_ROAMING dhd->pub.dequeue_prec_map = ALLPRIO; #endif #ifdef DHD_SSSR_DUMP dhd->pub.collect_sssr = FALSE; #endif /* DHD_SSSR_DUMP */ #ifdef DHD_SDTC_ETB_DUMP dhd->pub.collect_sdtc = FALSE; #endif /* DHD_SDTC_ETB_DUMP */ #ifdef DHD_GRO_ENABLE_HOST_CTRL dhd->pub.permitted_gro = TRUE; #endif /* DHD_GRO_ENABLE_HOST_CTRL */ #if defined(DHD_FILE_DUMP_EVENT) && defined(DHD_FW_COREDUMP) dhd_set_dump_status(&dhd->pub, DUMP_NOT_READY); #endif /* DHD_FILE_DUMP_EVENT && DHD_FW_COREDUMP */ #if !defined(WL_CFG80211) /* * Force start if ifconfig_up gets called before START command * We keep WEXT's wl_control_wl_start to provide backward compatibility * This should be removed in the future */ ret = wl_control_wl_start(net); if (ret != 0) { DHD_ERROR(("%s: failed with code %d\n", __FUNCTION__, ret)); ret = -1; goto exit; } #endif ifidx = dhd_net2idx(dhd, net); DHD_TRACE(("%s: ifidx %d\n", __FUNCTION__, ifidx)); if (ifidx < 0) { DHD_ERROR(("%s: Error: called with invalid IF\n", __FUNCTION__)); ret = -1; goto exit; } if (!dhd->iflist[ifidx]) { DHD_ERROR(("%s: Error: called when IF already deleted\n", __FUNCTION__)); ret = -1; goto exit; } DHD_ERROR(("%s: ######### called for ifidx=%d #########\n", __FUNCTION__, ifidx)); #if defined(WLAN_ACCEL_BOOT) dhd_verify_firmware_mode_change(dhd); #endif /* WLAN_ACCEL_BOOT */ if (ifidx == 0) { atomic_set(&dhd->pend_8021x_cnt, 0); #if defined(WL_CFG80211) if (!dhd_download_fw_on_driverload) { DHD_ERROR(("\n%s\n", dhd_version)); DHD_STATLOG_CTRL(&dhd->pub, ST(WLAN_POWER_ON), ifidx, 0); #if defined(USE_INITIAL_2G_SCAN) || defined(USE_INITIAL_SHORT_DWELL_TIME) g_first_broadcast_scan = TRUE; #endif /* USE_INITIAL_2G_SCAN || USE_INITIAL_SHORT_DWELL_TIME */ #ifdef SHOW_LOGTRACE /* dhd_cancel_logtrace_process_sync is called in dhd_stop * for built-in models. Need to start logtrace kthread before * calling wifi on, because once wifi is on, EDL will be in action * any moment, and if kthread is not active, FW event logs will * not be available */ if (dhd_reinit_logtrace_process(dhd) != BCME_OK) { goto exit; } #endif /* SHOW_LOGTRACE */ #if defined(WLAN_ACCEL_BOOT) ret = wl_android_wifi_accel_on(net, dhd->wl_accel_force_reg_on); /* Enable wl_accel_force_reg_on if ON fails, else disable it */ if (ret) { dhd->wl_accel_force_reg_on = TRUE; } else { dhd->wl_accel_force_reg_on = FALSE; } #else #if defined(BT_OVER_SDIO) ret = dhd_bus_get(&dhd->pub, WLAN_MODULE); wl_android_set_wifi_on_flag(TRUE); #else ret = wl_android_wifi_on(net); #endif /* BT_OVER_SDIO */ #endif /* WLAN_ACCEL_BOOT */ if (ret != 0) { DHD_ERROR(("%s : wl_android_wifi_on failed (%d)\n", __FUNCTION__, ret)); /* Set chip big hammer */ dhd->pub.do_chip_bighammer = TRUE; ret = -1; goto exit; } } #ifdef SUPPORT_DEEP_SLEEP else { /* Flags to indicate if we distingish * power off policy when user set the memu * "Keep Wi-Fi on during sleep" to "Never" */ if (trigger_deep_sleep) { #if defined(USE_INITIAL_2G_SCAN) || defined(USE_INITIAL_SHORT_DWELL_TIME) g_first_broadcast_scan = TRUE; #endif /* USE_INITIAL_2G_SCAN || USE_INITIAL_SHORT_DWELL_TIME */ dhd_deepsleep(net, 0); trigger_deep_sleep = 0; } } #endif /* SUPPORT_DEEP_SLEEP */ #ifdef FIX_CPU_MIN_CLOCK if (dhd_get_fw_mode(dhd) == DHD_FLAG_HOSTAP_MODE) { dhd_init_cpufreq_fix(dhd); dhd_fix_cpu_freq(dhd); } #endif /* FIX_CPU_MIN_CLOCK */ #endif if (dhd->pub.busstate != DHD_BUS_DATA) { #ifndef BCMDBUS /* try to bring up bus */ #ifdef DHD_PCIE_NATIVE_RUNTIMEPM if (pm_runtime_get_sync(dhd_bus_to_dev(dhd->pub.bus)) >= 0) { ret = dhd_bus_start(&dhd->pub); pm_runtime_mark_last_busy(dhd_bus_to_dev(dhd->pub.bus)); pm_runtime_put_autosuspend(dhd_bus_to_dev(dhd->pub.bus)); } #else ret = dhd_bus_start(&dhd->pub); #endif /* DHD_PCIE_NATIVE_RUNTIMEPM */ if (ret) { DHD_ERROR(("%s: failed with code %d\n", __FUNCTION__, ret)); ret = -1; goto exit; } #else /* BCMDBUS */ if ((ret = dbus_up(dhd->pub.dbus)) != 0) { goto exit; } else { dhd->pub.busstate = DHD_BUS_DATA; } /* * Bus is ready, query any dongle information * * XXX: Since dhd_sync_with_dongle can sleep, should * module count surround it? */ if ((ret = dhd_sync_with_dongle(&dhd->pub)) < 0) { DHD_ERROR(("%s: failed with code %d\n", __FUNCTION__, ret)); goto exit; } #endif /* BCMDBUS */ } #ifdef BT_OVER_SDIO if (dhd->pub.is_bt_recovery_required) { DHD_ERROR(("%s: Send Hang Notification 2 to BT\n", __FUNCTION__)); bcmsdh_btsdio_process_dhd_hang_notification(TRUE); } dhd->pub.is_bt_recovery_required = FALSE; #endif /* dhd_sync_with_dongle has been called in dhd_bus_start or wl_android_wifi_on */ memcpy(net->dev_addr, dhd->pub.mac.octet, ETHER_ADDR_LEN); #ifdef TOE /* Get current TOE mode from dongle */ if (dhd_toe_get(dhd, ifidx, &toe_ol) >= 0 && (toe_ol & TOE_TX_CSUM_OL) != 0) { dhd->iflist[ifidx]->net->features |= NETIF_F_IP_CSUM; } else { dhd->iflist[ifidx]->net->features &= ~NETIF_F_IP_CSUM; } #endif /* TOE */ #ifdef DHD_LB #ifdef ENABLE_DHD_GRO dhd->iflist[ifidx]->net->features |= NETIF_F_GRO; #endif /* ENABLE_DHD_GRO */ #ifdef HOST_SFH_LLC dhd->iflist[ifidx]->net->needed_headroom = DOT11_LLC_SNAP_HDR_LEN; #endif #if defined(DHD_LB_RXP) __skb_queue_head_init(&dhd->rx_pend_queue); skb_queue_head_init(&dhd->rx_emerge_queue); if (dhd->rx_napi_netdev == NULL) { dhd->rx_napi_netdev = dhd->iflist[ifidx]->net; memset(&dhd->rx_napi_struct, 0, sizeof(struct napi_struct)); netif_napi_add(dhd->rx_napi_netdev, &dhd->rx_napi_struct, dhd_napi_poll, dhd_napi_weight); DHD_INFO(("%s napi<%p> enabled ifp->net<%p,%s> dhd_napi_weight: %d\n", __FUNCTION__, &dhd->rx_napi_struct, net, net->name, dhd_napi_weight)); napi_enable(&dhd->rx_napi_struct); DHD_INFO(("%s load balance init rx_napi_struct\n", __FUNCTION__)); skb_queue_head_init(&dhd->rx_napi_queue); __skb_queue_head_init(&dhd->rx_process_queue); } /* rx_napi_netdev == NULL */ #endif /* DHD_LB_RXP */ #if defined(DHD_LB_TXP) /* Use the variant that uses locks */ skb_queue_head_init(&dhd->tx_pend_queue); #endif /* DHD_LB_TXP */ dhd->dhd_lb_candidacy_override = FALSE; #endif /* DHD_LB */ netdev_update_features(net); #ifdef DHD_PM_OVERRIDE g_pm_override = FALSE; #endif /* DHD_PM_OVERRIDE */ #if defined(WL_CFG80211) if (unlikely(wl_cfg80211_up(net))) { DHD_ERROR(("%s: failed to bring up cfg80211\n", __FUNCTION__)); ret = -1; goto exit; } if (!dhd_download_fw_on_driverload) { #ifdef ARP_OFFLOAD_SUPPORT dhd->pend_ipaddr = 0; if (!dhd_inetaddr_notifier_registered) { dhd_inetaddr_notifier_registered = TRUE; register_inetaddr_notifier(&dhd_inetaddr_notifier); } #endif /* ARP_OFFLOAD_SUPPORT */ #if defined(CONFIG_IPV6) && defined(IPV6_NDO_SUPPORT) if (!dhd_inet6addr_notifier_registered) { dhd_inet6addr_notifier_registered = TRUE; register_inet6addr_notifier(&dhd_inet6addr_notifier); } #endif /* CONFIG_IPV6 && IPV6_NDO_SUPPORT */ } #if defined(DHDTCPACK_SUPPRESS) && defined(BCMSDIO) dhd_tcpack_suppress_set(&dhd->pub, TCPACK_SUP_DELAYTX); #endif /* DHDTCPACK_SUPPRESS */ #if defined(DHD_CONTROL_PCIE_ASPM_WIFI_TURNON) dhd_bus_aspm_enable_rc_ep(dhd->pub.bus, TRUE); #endif /* DHD_CONTROL_PCIE_ASPM_WIFI_TURNON */ #if defined(DHD_CONTROL_PCIE_CPUCORE_WIFI_TURNON) dhd_irq_set_affinity(&dhd->pub, cpumask_of(0)); #endif /* DHD_CONTROL_PCIE_CPUCORE_WIFI_TURNON */ #if defined(BCMPCIE) && defined(DHDTCPACK_SUPPRESS) dhd_tcpack_suppress_set(&dhd->pub, TCPACK_SUP_OFF); #endif /* BCMPCIE && DHDTCPACK_SUPPRESS */ #if defined(NUM_SCB_MAX_PROBE) dhd_set_scb_probe(&dhd->pub); #endif /* NUM_SCB_MAX_PROBE */ #if defined(CONFIG_WIFI_BROADCOM_COB) && defined(BCM4389_CHIP_DEF) if (dhd_get_fw_mode(dhd) == DHD_FLAG_MFG_MODE) { dhd_read_otp_hw_rgn(&dhd->pub); } #endif /* CONFIG_WIFI_BROADCOM_COB && BCM4389_CHIP_DEF */ #endif /* WL_CFG80211 */ } #if LINUX_VERSION_CODE >= KERNEL_VERSION(4, 19, 0) && defined(DHD_TCP_LIMIT_OUTPUT) dhd_ctrl_tcp_limit_output_bytes(1); #endif /* LINUX_VERSION_CODE > 4.19.0 && DHD_TCP_LIMIT_OUTPUT */ dhd->pub.up = 1; #if defined(BCMPCIE) && defined(CONFIG_ARCH_MSM) && defined(CONFIG_SEC_PCIE_L1SS) dhd_bus_inform_ep_loaded_to_rc(&dhd->pub, dhd->pub.up); #endif /* BCMPCIE && CONFIG_ARCH_MSM && CONFIG_SEC_PCIE_L1SS */ DHD_START_RPM_TIMER(&dhd->pub); if (wl_event_enable) { /* For wl utility to receive events */ dhd->pub.wl_event_enabled = true; } else { dhd->pub.wl_event_enabled = false; } if (logtrace_pkt_sendup) { /* For any deamon to recieve logtrace */ dhd->pub.logtrace_pkt_sendup = true; } else { dhd->pub.logtrace_pkt_sendup = false; } OLD_MOD_INC_USE_COUNT; #ifdef BCMDBGFS dhd_dbgfs_init(&dhd->pub); #endif exit: mutex_unlock(&dhd->pub.ndev_op_sync); if (ret) { if (ret != BCME_NOMEM) { dhd_force_collect_init_fail_dumps(&dhd->pub); } else { DHD_ERROR(("%s: skip collect dump in case of BCME_NOMEM\n", __FUNCTION__)); ret = BCME_ERROR; } dhd_stop(net); } DHD_OS_WAKE_UNLOCK(&dhd->pub); #if defined(MULTIPLE_SUPPLICANT) #if defined(BCMSDIO) mutex_unlock(&_dhd_sdio_mutex_lock_); #endif /* BCMSDIO */ #endif /* MULTIPLE_SUPPLICANT */ #if defined(SUPPORT_OTA_UPDATE) && defined(WLAN_ACCEL_BOOT) if (ret == BCME_OK) { (void)dhd_ota_buf_clean(&dhd->pub); } #endif /* SUPPORT_OTA_UPDATE && WLAN_ACCEL_BOOT */ DHD_ERROR(("%s: EXIT\n", __FUNCTION__)); return ret; } /* * ndo_start handler for primary ndev */ static int dhd_pri_open(struct net_device *net) { s32 ret; dhd_info_t *dhd = DHD_DEV_INFO(net); BCM_REFERENCE(dhd); ret = dhd_open(net); if (unlikely(ret)) { DHD_ERROR(("Failed to open primary dev ret %d\n", ret)); return ret; } #ifdef WL_CFG80211_MONITOR dhd_net_if_lock_local(dhd); /* Add monitor */ dhd_add_monitor_if(dhd); dhd_net_if_unlock_local(dhd); #endif /* WL_CFG80211_MONITOR */ /* Allow transmit calls */ dhd_tx_start_queues(net); DHD_INFO(("[%s] tx queue started\n", net->name)); return ret; } /* * ndo_stop handler for primary ndev */ static int dhd_pri_stop(struct net_device *net) { s32 ret; dhd_info_t *dhd = DHD_DEV_INFO(net); BCM_REFERENCE(dhd); /* Set state and stop OS transmissions */ dhd_tx_stop_queues(net); DHD_ERROR(("[%s] tx queue stopped\n", net->name)); #ifdef WL_CFG80211_MONITOR dhd_net_if_lock_local(dhd); /* Del monitor */ dhd_del_monitor_if(dhd); dhd_net_if_unlock_local(dhd); #endif /* WL_CFG80211_MONITOR */ ret = dhd_stop(net); if (unlikely(ret)) { DHD_ERROR(("dhd_stop failed: %d\n", ret)); return ret; } return ret; } bool dhd_check_cfg_in_progress(dhd_pub_t *dhdp) { #if defined(WL_CFG80211) return wl_cfg80211_check_in_progress(dhd_linux_get_primary_netdev(dhdp)); #endif /* WL_CFG80211 */ return FALSE; } #if defined(WL_STATIC_IF) && defined(WL_CFG80211) /* * For static I/Fs, the firmware interface init * is done from the IFF_UP context. */ static int dhd_static_if_open(struct net_device *net) { s32 ret = 0; struct bcm_cfg80211 *cfg; struct net_device *primary_netdev = NULL; cfg = wl_get_cfg(net); primary_netdev = bcmcfg_to_prmry_ndev(cfg); if (!IS_CFG80211_STATIC_IF(cfg, net)) { DHD_TRACE(("non-static interface (%s)..do nothing \n", net->name)); ret = BCME_OK; goto done; } DHD_INFO(("[%s][STATIC_IF] Enter \n", net->name)); /* Ensure fw is initialized. If it is already initialized, * dhd_open will return success. */ ret = dhd_open(primary_netdev); if (unlikely(ret)) { DHD_ERROR(("Failed to open primary dev ret %d\n", ret)); goto done; } ret = wl_cfg80211_static_if_open(net); if (ret == BCME_OK) { /* Allow transmit calls */ netif_start_queue(net); } dhd_clear_del_in_progress(cfg->pub, net); done: return ret; } static int dhd_static_if_stop(struct net_device *net) { struct bcm_cfg80211 *cfg; struct net_device *primary_netdev = NULL; int ret = BCME_OK; dhd_info_t *dhd = DHD_DEV_INFO(net); DHD_INFO(("[%s][STATIC_IF] Enter \n", net->name)); cfg = wl_get_cfg(net); if (!IS_CFG80211_STATIC_IF(cfg, net)) { DHD_TRACE(("non-static interface (%s)..do nothing \n", net->name)); return BCME_OK; } dhd_set_del_in_progress(cfg->pub, net); /* Ensure queue is disabled */ netif_tx_disable(net); ret = wl_cfg80211_static_if_close(net); if (dhd->pub.up == 0) { /* If fw is down, return */ DHD_ERROR(("fw down\n")); return BCME_OK; } /* If STA iface is not in operational, invoke dhd_close from this * context. */ primary_netdev = bcmcfg_to_prmry_ndev(cfg); if (!(primary_netdev->flags & IFF_UP)) { ret = dhd_stop(primary_netdev); } else { DHD_ERROR(("Skipped dhd_stop, as sta is operational\n")); } return ret; } #endif /* WL_STATIC_IF && WL_CF80211 */ int dhd_do_driver_init(struct net_device *net) { dhd_info_t *dhd = NULL; if (!net) { DHD_ERROR(("Primary Interface not initialized \n")); return -EINVAL; } #ifdef MULTIPLE_SUPPLICANT #if defined(BCMSDIO) if (mutex_is_locked(&_dhd_sdio_mutex_lock_) != 0) { DHD_ERROR(("%s : dhdsdio_probe is already running!\n", __FUNCTION__)); return 0; } #endif /* BCMSDIO */ #endif /* MULTIPLE_SUPPLICANT */ /* && defined(OEM_ANDROID) && defined(BCMSDIO) */ dhd = DHD_DEV_INFO(net); /* If driver is already initialized, do nothing */ if (dhd->pub.busstate == DHD_BUS_DATA) { DHD_TRACE(("Driver already Inititalized. Nothing to do")); return 0; } if (dhd_open(net) < 0) { DHD_ERROR(("Driver Init Failed \n")); return -1; } return 0; } int dhd_event_ifadd(dhd_info_t *dhdinfo, wl_event_data_if_t *ifevent, char *name, uint8 *mac) { #ifdef WL_CFG80211 if (wl_cfg80211_notify_ifadd(dhd_linux_get_primary_netdev(&dhdinfo->pub), ifevent->ifidx, name, mac, ifevent->bssidx, ifevent->role) == BCME_OK) return BCME_OK; #endif /* handle IF event caused by wl commands, SoftAP, WEXT and * anything else. This has to be done asynchronously otherwise * DPC will be blocked (and iovars will timeout as DPC has no chance * to read the response back) */ if (ifevent->ifidx > 0) { dhd_if_event_t *if_event = MALLOC(dhdinfo->pub.osh, sizeof(dhd_if_event_t)); if (if_event == NULL) { DHD_ERROR(("dhd_event_ifadd: Failed MALLOC, malloced %d bytes", MALLOCED(dhdinfo->pub.osh))); return BCME_NOMEM; } memcpy(&if_event->event, ifevent, sizeof(if_event->event)); memcpy(if_event->mac, mac, ETHER_ADDR_LEN); strlcpy(if_event->name, name, sizeof(if_event->name)); dhd_deferred_schedule_work(dhdinfo->dhd_deferred_wq, (void *)if_event, DHD_WQ_WORK_IF_ADD, dhd_ifadd_event_handler, DHD_WQ_WORK_PRIORITY_LOW); } return BCME_OK; } int dhd_event_ifdel(dhd_info_t *dhdinfo, wl_event_data_if_t *ifevent, char *name, uint8 *mac) { dhd_if_event_t *if_event; #ifdef WL_CFG80211 if (wl_cfg80211_notify_ifdel(dhd_linux_get_primary_netdev(&dhdinfo->pub), ifevent->ifidx, name, mac, ifevent->bssidx) == BCME_OK) return BCME_OK; #endif /* WL_CFG80211 */ /* handle IF event caused by wl commands, SoftAP, WEXT and * anything else */ if_event = MALLOC(dhdinfo->pub.osh, sizeof(dhd_if_event_t)); if (if_event == NULL) { DHD_ERROR(("dhd_event_ifdel: malloc failed for if_event, malloced %d bytes", MALLOCED(dhdinfo->pub.osh))); return BCME_NOMEM; } memcpy(&if_event->event, ifevent, sizeof(if_event->event)); memcpy(if_event->mac, mac, ETHER_ADDR_LEN); strlcpy(if_event->name, name, sizeof(if_event->name)); dhd_deferred_schedule_work(dhdinfo->dhd_deferred_wq, (void *)if_event, DHD_WQ_WORK_IF_DEL, dhd_ifdel_event_handler, DHD_WQ_WORK_PRIORITY_LOW); return BCME_OK; } int dhd_event_ifchange(dhd_info_t *dhdinfo, wl_event_data_if_t *ifevent, char *name, uint8 *mac) { #ifdef WL_CFG80211 wl_cfg80211_notify_ifchange(dhd_linux_get_primary_netdev(&dhdinfo->pub), ifevent->ifidx, name, mac, ifevent->bssidx); #endif /* WL_CFG80211 */ return BCME_OK; } #ifdef WL_NATOE /* Handler to update natoe info and bind with new subscriptions if there is change in config */ static void dhd_natoe_ct_event_hanlder(void *handle, void *event_info, u8 event) { dhd_info_t *dhd = handle; wl_event_data_natoe_t *natoe = event_info; dhd_nfct_info_t *nfct = dhd->pub.nfct; if (event != DHD_WQ_WORK_NATOE_EVENT) { DHD_ERROR(("%s: unexpected event \n", __FUNCTION__)); return; } if (!dhd) { DHD_ERROR(("%s: dhd info not available \n", __FUNCTION__)); return; } if (natoe->natoe_active && natoe->sta_ip && natoe->start_port && natoe->end_port && (natoe->start_port < natoe->end_port)) { /* Rebind subscriptions to start receiving notifications from groups */ if (dhd_ct_nl_bind(nfct, nfct->subscriptions) < 0) { dhd_ct_close(nfct); } dhd_ct_send_dump_req(nfct); } else if (!natoe->natoe_active) { /* Rebind subscriptions to stop receiving notifications from groups */ if (dhd_ct_nl_bind(nfct, CT_NULL_SUBSCRIPTION) < 0) { dhd_ct_close(nfct); } } } /* As NATOE enable/disbale event is received, we have to bind with new NL subscriptions. * Scheduling workq to switch from tasklet context as bind call may sleep in handler */ int dhd_natoe_ct_event(dhd_pub_t *dhd, char *data) { wl_event_data_natoe_t *event_data = (wl_event_data_natoe_t *)data; if (dhd->nfct) { wl_event_data_natoe_t *natoe = dhd->nfct->natoe_info; uint8 prev_enable = natoe->natoe_active; spin_lock_bh(&dhd->nfct_lock); memcpy(natoe, event_data, sizeof(*event_data)); spin_unlock_bh(&dhd->nfct_lock); if (prev_enable != event_data->natoe_active) { dhd_deferred_schedule_work(dhd->info->dhd_deferred_wq, (void *)natoe, DHD_WQ_WORK_NATOE_EVENT, dhd_natoe_ct_event_hanlder, DHD_WQ_WORK_PRIORITY_LOW); } return BCME_OK; } DHD_ERROR(("%s ERROR NFCT is not enabled \n", __FUNCTION__)); return BCME_ERROR; } /* Handler to send natoe ioctl to dongle */ static void dhd_natoe_ct_ioctl_handler(void *handle, void *event_info, uint8 event) { dhd_info_t *dhd = handle; dhd_ct_ioc_t *ct_ioc = event_info; if (event != DHD_WQ_WORK_NATOE_IOCTL) { DHD_ERROR(("%s: unexpected event \n", __FUNCTION__)); return; } if (!dhd) { DHD_ERROR(("%s: dhd info not available \n", __FUNCTION__)); return; } if (dhd_natoe_prep_send_exception_port_ioctl(&dhd->pub, ct_ioc) < 0) { DHD_ERROR(("%s: Error in sending NATOE IOCTL \n", __FUNCTION__)); } } /* When Netlink message contains port collision info, the info must be sent to dongle FW * For that we have to switch context from softirq/tasklet by scheduling workq for natoe_ct ioctl */ void dhd_natoe_ct_ioctl_schedule_work(dhd_pub_t *dhd, dhd_ct_ioc_t *ioc) { dhd_deferred_schedule_work(dhd->info->dhd_deferred_wq, (void *)ioc, DHD_WQ_WORK_NATOE_IOCTL, dhd_natoe_ct_ioctl_handler, DHD_WQ_WORK_PRIORITY_HIGH); } #endif /* WL_NATOE */ /* This API maps ndev to ifp inclusive of static IFs */ static dhd_if_t * dhd_get_ifp_by_ndev(dhd_pub_t *dhdp, struct net_device *ndev) { dhd_if_t *ifp = NULL; #ifdef WL_STATIC_IF u32 ifidx = (DHD_MAX_IFS + DHD_MAX_STATIC_IFS - 1); #else u32 ifidx = (DHD_MAX_IFS - 1); #endif /* WL_STATIC_IF */ dhd_info_t *dhdinfo = (dhd_info_t *)dhdp->info; do { ifp = dhdinfo->iflist[ifidx]; if (ifp && (ifp->net == ndev)) { DHD_TRACE(("match found for %s. ifidx:%d\n", ndev->name, ifidx)); return ifp; } } while (ifidx--); DHD_ERROR(("no entry found for %s\n", ndev->name)); return NULL; } bool dhd_is_static_ndev(dhd_pub_t *dhdp, struct net_device *ndev) { dhd_if_t *ifp = NULL; if (!dhdp || !ndev) { DHD_ERROR(("wrong input\n")); ASSERT(0); return false; } ifp = dhd_get_ifp_by_ndev(dhdp, ndev); return (ifp && (ifp->static_if == true)); } #ifdef WL_STATIC_IF /* In some cases, while registering I/F, the actual ifidx, bssidx and dngl_name * are not known. For e.g: static i/f case. This function lets to update it once * it is known. */ s32 dhd_update_iflist_info(dhd_pub_t *dhdp, struct net_device *ndev, int ifidx, uint8 *mac, uint8 bssidx, const char *dngl_name, int if_state) { dhd_info_t *dhdinfo = (dhd_info_t *)dhdp->info; dhd_if_t *ifp, *ifp_new; s32 cur_idx; dhd_dev_priv_t * dev_priv; DHD_TRACE(("[STATIC_IF] update ifinfo for state:%d ifidx:%d\n", if_state, ifidx)); ASSERT(dhdinfo && (ifidx < (DHD_MAX_IFS + DHD_MAX_STATIC_IFS))); if (ifidx < 0 || ifidx >= (DHD_MAX_IFS + DHD_MAX_STATIC_IFS)) { return -EINVAL; } if ((ifp = dhd_get_ifp_by_ndev(dhdp, ndev)) == NULL) { return -ENODEV; } cur_idx = ifp->idx; if (if_state == NDEV_STATE_OS_IF_CREATED) { /* mark static if */ ifp->static_if = TRUE; return BCME_OK; } ifp_new = dhdinfo->iflist[ifidx]; if (ifp_new && (ifp_new != ifp)) { /* There should be only one entry for a given ifidx. */ DHD_ERROR(("ifp ptr already present for ifidx:%d\n", ifidx)); ASSERT(0); dhdp->hang_reason = HANG_REASON_IFACE_ADD_FAILURE; net_os_send_hang_message(ifp->net); return -EINVAL; } /* For static if delete case, cleanup the if before ifidx update */ if ((if_state == NDEV_STATE_FW_IF_DELETED) || (if_state == NDEV_STATE_FW_IF_FAILED)) { dhd_cleanup_if(ifp->net); dev_priv = DHD_DEV_PRIV(ndev); dev_priv->ifidx = ifidx; } /* update the iflist ifidx slot with cached info */ dhdinfo->iflist[ifidx] = ifp; dhdinfo->iflist[cur_idx] = NULL; /* update the values */ ifp->idx = ifidx; ifp->bssidx = bssidx; if (if_state == NDEV_STATE_FW_IF_CREATED) { dhd_dev_priv_save(ndev, dhdinfo, ifp, ifidx); /* initialize the dongle provided if name */ if (dngl_name) { strncpy(ifp->dngl_name, dngl_name, IFNAMSIZ); } else if (ndev->name[0] != '\0') { strncpy(ifp->dngl_name, ndev->name, IFNAMSIZ); } if (mac != NULL) { /* To and fro locations have same size - ETHER_ADDR_LEN */ (void)memcpy_s(&ifp->mac_addr, ETHER_ADDR_LEN, mac, ETHER_ADDR_LEN); } } DHD_INFO(("[STATIC_IF] ifp ptr updated for ifidx:%d curidx:%d if_state:%d\n", ifidx, cur_idx, if_state)); return BCME_OK; } #endif /* WL_STATIC_IF */ /* unregister and free the existing net_device interface (if any) in iflist and * allocate a new one. the slot is reused. this function does NOT register the * new interface to linux kernel. dhd_register_if does the job */ struct net_device* dhd_allocate_if(dhd_pub_t *dhdpub, int ifidx, const char *name, uint8 *mac, uint8 bssidx, bool need_rtnl_lock, const char *dngl_name) { dhd_info_t *dhdinfo = (dhd_info_t *)dhdpub->info; dhd_if_t *ifp; ASSERT(dhdinfo && (ifidx < (DHD_MAX_IFS + DHD_MAX_STATIC_IFS))); if (!dhdinfo || ifidx < 0 || ifidx >= (DHD_MAX_IFS + DHD_MAX_STATIC_IFS)) { return NULL; } ifp = dhdinfo->iflist[ifidx]; if (ifp != NULL) { if (ifp->net != NULL) { DHD_ERROR(("%s: free existing IF %s ifidx:%d \n", __FUNCTION__, ifp->net->name, ifidx)); if (ifidx == 0) { /* For primary ifidx (0), there shouldn't be * any netdev present already. */ DHD_ERROR(("Primary ifidx populated already\n")); ASSERT(0); return NULL; } dhd_dev_priv_clear(ifp->net); /* clear net_device private */ /* in unregister_netdev case, the interface gets freed by net->destructor * (which is set to free_netdev) */ #if defined(CONFIG_TIZEN) net_stat_tizen_unregister(ifp->net); #endif /* CONFIG_TIZEN */ if (ifp->net->reg_state == NETREG_UNINITIALIZED) { free_netdev(ifp->net); } else { dhd_tx_stop_queues(ifp->net); if (need_rtnl_lock) unregister_netdev(ifp->net); else unregister_netdevice(ifp->net); } ifp->net = NULL; } } else { ifp = MALLOC(dhdinfo->pub.osh, sizeof(dhd_if_t)); if (ifp == NULL) { DHD_ERROR(("%s: OOM - dhd_if_t(%zu)\n", __FUNCTION__, sizeof(dhd_if_t))); return NULL; } } memset(ifp, 0, sizeof(dhd_if_t)); ifp->info = dhdinfo; ifp->idx = ifidx; ifp->bssidx = bssidx; ifp->del_in_progress = FALSE; #ifdef DHD_MCAST_REGEN ifp->mcast_regen_bss_enable = FALSE; #endif /* set to TRUE rx_pkt_chainable at alloc time */ ifp->rx_pkt_chainable = TRUE; if (mac != NULL) memcpy(&ifp->mac_addr, mac, ETHER_ADDR_LEN); /* Allocate etherdev, including space for private structure */ #ifdef DHD_MQ if (enable_mq) { ifp->net = alloc_etherdev_mq(DHD_DEV_PRIV_SIZE, MQ_MAX_QUEUES); } else { ifp->net = alloc_etherdev(DHD_DEV_PRIV_SIZE); } #else ifp->net = alloc_etherdev(DHD_DEV_PRIV_SIZE); #endif /* DHD_MQ */ if (ifp->net == NULL) { DHD_ERROR(("%s: OOM - alloc_etherdev(%zu)\n", __FUNCTION__, sizeof(dhdinfo))); goto fail; } /* Setup the dhd interface's netdevice private structure. */ dhd_dev_priv_save(ifp->net, dhdinfo, ifp, ifidx); if (name && name[0]) { strlcpy(ifp->net->name, name, IFNAMSIZ); } #if (LINUX_VERSION_CODE >= KERNEL_VERSION(4, 11, 9)) /* as priv_destructor calls free_netdev, no need to set need_free_netdev */ ifp->net->needs_free_netdev = 0; #ifdef WL_CFG80211 if (ifidx == 0) ifp->net->priv_destructor = free_netdev; else ifp->net->priv_destructor = dhd_netdev_free; #else ifp->net->priv_destructor = free_netdev; #endif /* WL_CFG80211 */ #else /* LINUX_VERSION_CODE >= KERNEL_VERSION(4, 11, 9) */ #ifdef WL_CFG80211 if (ifidx == 0) ifp->net->destructor = free_netdev; else ifp->net->destructor = dhd_netdev_free; #else ifp->net->destructor = free_netdev; #endif /* WL_CFG80211 */ #endif /* LINUX_VERSION_CODE >= KERNEL_VERSION(4, 11, 9) */ strlcpy(ifp->name, ifp->net->name, sizeof(ifp->name)); dhdinfo->iflist[ifidx] = ifp; /* initialize the dongle provided if name */ if (dngl_name) { strlcpy(ifp->dngl_name, dngl_name, sizeof(ifp->dngl_name)); } else if (name) { strlcpy(ifp->dngl_name, name, sizeof(ifp->dngl_name)); } #ifdef PCIE_FULL_DONGLE /* Initialize STA info list */ INIT_LIST_HEAD(&ifp->sta_list); DHD_IF_STA_LIST_LOCK_INIT(&ifp->sta_list_lock); #endif /* PCIE_FULL_DONGLE */ #ifdef DHD_L2_FILTER ifp->phnd_arp_table = init_l2_filter_arp_table(dhdpub->osh); ifp->parp_allnode = TRUE; #endif /* DHD_L2_FILTER */ #if (defined(BCM_ROUTER_DHD) && defined(QOS_MAP_SET)) ifp->qosmap_up_table = ((uint8*)MALLOCZ(dhdpub->osh, UP_TABLE_MAX)); ifp->qosmap_up_table_enable = FALSE; #endif /* BCM_ROUTER_DHD && QOS_MAP_SET */ DHD_CUMM_CTR_INIT(&ifp->cumm_ctr); #ifdef DHD_4WAYM4_FAIL_DISCONNECT INIT_DELAYED_WORK(&ifp->m4state_work, dhd_m4_state_handler); #endif /* DHD_4WAYM4_FAIL_DISCONNECT */ #ifdef DHD_POST_EAPOL_M1_AFTER_ROAM_EVT ifp->recv_reassoc_evt = FALSE; ifp->post_roam_evt = FALSE; #endif /* DHD_POST_EAPOL_M1_AFTER_ROAM_EVT */ #ifdef DHDTCPSYNC_FLOOD_BLK INIT_WORK(&ifp->blk_tsfl_work, dhd_blk_tsfl_handler); dhd_reset_tcpsync_info_by_ifp(ifp); #endif /* DHDTCPSYNC_FLOOD_BLK */ return ifp->net; fail: if (ifp != NULL) { if (ifp->net != NULL) { #if defined(DHD_LB_RXP) && defined(PCIE_FULL_DONGLE) if (ifp->net == dhdinfo->rx_napi_netdev) { napi_disable(&dhdinfo->rx_napi_struct); netif_napi_del(&dhdinfo->rx_napi_struct); skb_queue_purge(&dhdinfo->rx_napi_queue); dhdinfo->rx_napi_netdev = NULL; } #endif /* DHD_LB_RXP && PCIE_FULL_DONGLE */ dhd_dev_priv_clear(ifp->net); free_netdev(ifp->net); ifp->net = NULL; } MFREE(dhdinfo->pub.osh, ifp, sizeof(*ifp)); } dhdinfo->iflist[ifidx] = NULL; return NULL; } static void dhd_cleanup_ifp(dhd_pub_t *dhdp, dhd_if_t *ifp) { #ifdef PCIE_FULL_DONGLE s32 ifidx = 0; if_flow_lkup_t *if_flow_lkup = (if_flow_lkup_t *)dhdp->if_flow_lkup; #endif /* PCIE_FULL_DONGLE */ if (ifp != NULL) { if ((ifp->idx < 0) || (ifp->idx >= DHD_MAX_IFS)) { DHD_ERROR(("Wrong idx:%d \n", ifp->idx)); ASSERT(0); return; } #ifdef DHD_L2_FILTER bcm_l2_filter_arp_table_update(dhdpub->osh, ifp->phnd_arp_table, TRUE, NULL, FALSE, dhdpub->tickcnt); deinit_l2_filter_arp_table(dhdpub->osh, ifp->phnd_arp_table); ifp->phnd_arp_table = NULL; #endif /* DHD_L2_FILTER */ #if (defined(BCM_ROUTER_DHD) && defined(QOS_MAP_SET)) MFREE(dhdpub->osh, ifp->qosmap_up_table, UP_TABLE_MAX); ifp->qosmap_up_table = NULL; ifp->qosmap_up_table_enable = FALSE; #endif /* BCM_ROUTER_DHD && QOS_MAP_SET */ dhd_if_del_sta_list(ifp); #ifdef PCIE_FULL_DONGLE /* Delete flowrings of virtual interface */ ifidx = ifp->idx; if ((ifidx != 0) && ((if_flow_lkup != NULL) && (if_flow_lkup[ifidx].role != WLC_E_IF_ROLE_AP))) { dhd_flow_rings_delete(dhdp, ifidx); } #endif /* PCIE_FULL_DONGLE */ } } void dhd_cleanup_if(struct net_device *net) { dhd_info_t *dhdinfo = DHD_DEV_INFO(net); dhd_pub_t *dhdp = &dhdinfo->pub; dhd_if_t *ifp; ifp = dhd_get_ifp_by_ndev(dhdp, net); if (ifp) { if (ifp->idx >= DHD_MAX_IFS) { DHD_ERROR(("Wrong ifidx: %p, %d\n", ifp, ifp->idx)); ASSERT(0); return; } dhd_cleanup_ifp(dhdp, ifp); } } /* unregister and free the the net_device interface associated with the indexed * slot, also free the slot memory and set the slot pointer to NULL */ #define DHD_TX_COMPLETION_TIMEOUT 5000 int dhd_remove_if(dhd_pub_t *dhdpub, int ifidx, bool need_rtnl_lock) { dhd_info_t *dhdinfo = (dhd_info_t *)dhdpub->info; dhd_if_t *ifp; unsigned long flags; long timeout; ifp = dhdinfo->iflist[ifidx]; if (ifp != NULL) { #ifdef DHD_4WAYM4_FAIL_DISCONNECT cancel_delayed_work_sync(&ifp->m4state_work); #endif /* DHD_4WAYM4_FAIL_DISCONNECT */ #ifdef DHDTCPSYNC_FLOOD_BLK cancel_work_sync(&ifp->blk_tsfl_work); #endif /* DHDTCPSYNC_FLOOD_BLK */ dhd_cleanup_ifp(dhdpub, ifp); #ifdef WL_STATIC_IF if (ifp->static_if) { /* static IF will be handled in detach */ DHD_TRACE(("Skip del iface for static interface\n")); return BCME_OK; } #endif /* WL_STATIC_IF */ if (ifp->net != NULL) { DHD_ERROR(("deleting interface '%s' idx %d\n", ifp->net->name, ifp->idx)); DHD_GENERAL_LOCK(dhdpub, flags); ifp->del_in_progress = TRUE; DHD_GENERAL_UNLOCK(dhdpub, flags); /* If TX is in progress, hold the if del */ if (DHD_IF_IS_TX_ACTIVE(ifp)) { DHD_INFO(("TX in progress. Wait for it to be complete.")); timeout = wait_event_timeout(dhdpub->tx_completion_wait, ((ifp->tx_paths_active & DHD_TX_CONTEXT_MASK) == 0), msecs_to_jiffies(DHD_TX_COMPLETION_TIMEOUT)); if (!timeout) { /* Tx completion timeout. Attempt proceeding ahead */ DHD_ERROR(("Tx completion timed out!\n")); ASSERT(0); } } else { DHD_TRACE(("No outstanding TX!\n")); } dhdinfo->iflist[ifidx] = NULL; /* in unregister_netdev case, the interface gets freed by net->destructor * (which is set to free_netdev) */ if (ifp->net->reg_state == NETREG_UNINITIALIZED) { free_netdev(ifp->net); } else { netif_tx_disable(ifp->net); #if (defined(BCM_ROUTER_DHD) && defined(HNDCTF)) if (dhdinfo->cih) ctf_dev_unregister(dhdinfo->cih, ifp->net); #endif /* BCM_ROUTER_DHD && HNDCTF */ #if (defined(DHDTCPACK_SUPPRESS) && defined(BCMPCIE)) dhd_tcpack_suppress_set(dhdpub, TCPACK_SUP_OFF); #endif /* DHDTCPACK_SUPPRESS && BCMPCIE */ if (need_rtnl_lock) unregister_netdev(ifp->net); else unregister_netdevice(ifp->net); } ifp->net = NULL; } #ifdef DHD_WMF dhd_wmf_cleanup(dhdpub, ifidx); #endif /* DHD_WMF */ DHD_CUMM_CTR_INIT(&ifp->cumm_ctr); MFREE(dhdinfo->pub.osh, ifp, sizeof(*ifp)); ifp = NULL; } return BCME_OK; } #if (defined(BCM_ROUTER_DHD) && defined(QOS_MAP_SET)) int dhd_set_qosmap_up_table(dhd_pub_t *dhdp, uint32 idx, bcm_tlv_t *qos_map_ie) { dhd_info_t *dhd = dhdp->info; dhd_if_t *ifp; ASSERT(idx < DHD_MAX_IFS); ifp = dhd->iflist[idx]; if (!ifp) return BCME_ERROR; wl_set_up_table(ifp->qosmap_up_table, qos_map_ie); ifp->qosmap_up_table_enable = TRUE; return BCME_OK; } #endif /* BCM_ROUTER_DHD && QOS_MAP_SET */ static struct net_device_ops dhd_ops_pri = { .ndo_open = dhd_pri_open, .ndo_stop = dhd_pri_stop, .ndo_get_stats = dhd_get_stats, #ifdef DHD_PCIE_NATIVE_RUNTIMEPM .ndo_do_ioctl = dhd_ioctl_entry_wrapper, .ndo_start_xmit = dhd_start_xmit_wrapper, #else .ndo_do_ioctl = dhd_ioctl_entry, .ndo_start_xmit = dhd_start_xmit, #endif /* DHD_PCIE_NATIVE_RUNTIMEPM */ .ndo_set_mac_address = dhd_set_mac_address, #if (LINUX_VERSION_CODE >= KERNEL_VERSION(3, 2, 0)) .ndo_set_rx_mode = dhd_set_multicast_list, #else .ndo_set_multicast_list = dhd_set_multicast_list, #endif #ifdef DHD_MQ .ndo_select_queue = dhd_select_queue #endif }; static struct net_device_ops dhd_ops_virt = { #if defined(WL_CFG80211) && defined(WL_STATIC_IF) .ndo_open = dhd_static_if_open, .ndo_stop = dhd_static_if_stop, #endif .ndo_get_stats = dhd_get_stats, #ifdef DHD_PCIE_NATIVE_RUNTIMEPM .ndo_do_ioctl = dhd_ioctl_entry_wrapper, .ndo_start_xmit = dhd_start_xmit_wrapper, #else .ndo_do_ioctl = dhd_ioctl_entry, .ndo_start_xmit = dhd_start_xmit, #endif /* DHD_PCIE_NATIVE_RUNTIMEPM */ .ndo_set_mac_address = dhd_set_mac_address, #if (LINUX_VERSION_CODE >= KERNEL_VERSION(3, 2, 0)) .ndo_set_rx_mode = dhd_set_multicast_list, #else .ndo_set_multicast_list = dhd_set_multicast_list, #endif }; #if (defined(BCM_ROUTER_DHD) && defined(HNDCTF)) static void dhd_ctf_detach(ctf_t *ci, void *arg) { dhd_info_t *dhd = (dhd_info_t *)arg; dhd->cih = NULL; #ifdef CTFPOOL /* free the buffers in fast pool */ osl_ctfpool_cleanup(dhd->pub.osh); #endif /* CTFPOOL */ return; } #endif /* BCM_ROUTER_DHD && HNDCTF */ int dhd_os_write_file_posn(void *fp, unsigned long *posn, void *buf, unsigned long buflen) { loff_t wr_posn = *posn; if (!fp || !buf || buflen == 0) return -1; if (dhd_vfs_write((struct file *)fp, buf, buflen, &wr_posn) < 0) return -1; *posn = wr_posn; return 0; } #ifdef SHOW_LOGTRACE int dhd_os_read_file(void *file, char *buf, uint32 size) { struct file *filep = (struct file *)file; if (!file || !buf) return -1; return dhd_vfs_read(filep, buf, size, &filep->f_pos); } int dhd_os_seek_file(void *file, int64 offset) { struct file *filep = (struct file *)file; if (!file) return -1; /* offset can be -ve */ filep->f_pos = filep->f_pos + offset; return 0; } #ifdef DHD_COREDUMP static int dhd_lookup_map(osl_t *osh, char *fname, uint32 pc, char *pc_fn, uint32 lr, char *lr_fn) { #ifdef DHD_LINUX_STD_FW_API const struct firmware *fw = NULL; uint32 size = 0, mem_offset = 0; #else struct file *filep = NULL; mm_segment_t fs; #endif /* DHD_LINUX_STD_FW_API */ char *raw_fmts = NULL, *raw_fmts_loc = NULL, *cptr = NULL; uint32 read_size = READ_NUM_BYTES; int err = BCME_ERROR; uint32 addr = 0, addr1 = 0, addr2 = 0; char type = '?', type1 = '?', type2 = '?'; char func[DHD_FUNC_STR_LEN] = "\0"; char func1[DHD_FUNC_STR_LEN] = "\0"; char func2[DHD_FUNC_STR_LEN] = "\0"; uint8 count = 0; int num, len = 0, offset; DHD_TRACE(("%s: fname %s pc 0x%x lr 0x%x \n", __FUNCTION__, fname, pc, lr)); if (fname == NULL) { DHD_ERROR(("%s: ERROR fname is NULL \n", __FUNCTION__)); return BCME_ERROR; } /* Allocate 1 byte more than read_size to terminate it with NULL */ raw_fmts = MALLOCZ(osh, read_size + 1); if (raw_fmts == NULL) { DHD_ERROR(("%s: Failed to allocate raw_fmts memory \n", __FUNCTION__)); return BCME_ERROR; } #ifdef DHD_LINUX_STD_FW_API err = dhd_os_get_img_fwreq(&fw, fname); if (err < 0) { DHD_ERROR(("dhd_os_get_img(Request Firmware API) error : %d\n", err)); goto fail; } size = fw->size; #else fs = get_fs(); set_fs(KERNEL_DS); filep = dhd_filp_open(fname, O_RDONLY, 0); if (IS_ERR(filep) || (filep == NULL)) { DHD_ERROR(("%s: Failed to open %s \n", __FUNCTION__, fname)); goto fail; } #endif /* DHD_LINUX_STD_FW_API */ if (pc_fn == NULL) { count |= PC_FOUND_BIT; } if (lr_fn == NULL) { count |= LR_FOUND_BIT; } while (count != ALL_ADDR_VAL) { #ifdef DHD_LINUX_STD_FW_API /* Bound check for size before doing memcpy() */ if ((mem_offset + read_size) > size) { read_size = size - mem_offset; } err = memcpy_s(raw_fmts, read_size, ((char *)(fw->data) + mem_offset), read_size); if (err) { DHD_ERROR(("%s: failed to copy raw_fmts, err=%d\n", __FUNCTION__, err)); goto fail; } #else err = dhd_os_read_file(filep, raw_fmts, read_size); if (err < 0) { DHD_ERROR(("%s: map file read failed err:%d \n", __FUNCTION__, err)); goto fail; } #endif /* DHD_LINUX_STD_FW_API */ /* End raw_fmts with NULL as strstr expects NULL terminated * strings */ raw_fmts[read_size] = '\0'; raw_fmts_loc = raw_fmts; offset = 0; while ((count != ALL_ADDR_VAL) && (offset < read_size)) { cptr = bcmstrtok(&raw_fmts_loc, "\n", 0); if (cptr == NULL) { DHD_TRACE(("%s: cptr is NULL, offset %d" " raw_fmts_loc %s \n", __FUNCTION__, offset, raw_fmts_loc)); break; } DHD_TRACE(("%s: %s \n", __FUNCTION__, cptr)); if ((type2 == 'A') || (type2 == 'T') || (type2 == 'W')) { addr1 = addr2; type1 = type2; (void)memcpy_s(func1, DHD_FUNC_STR_LEN, func2, DHD_FUNC_STR_LEN); DHD_TRACE(("%s: %x %c %s \n", __FUNCTION__, addr1, type1, func1)); } len = strlen(cptr); num = sscanf(cptr, "%x %c %79s", &addr, &type, func); DHD_TRACE(("%s: num %d addr %x type %c func %s \n", __FUNCTION__, num, addr, type, func)); if (num == 3) { addr2 = addr; type2 = type; (void)memcpy_s(func2, DHD_FUNC_STR_LEN, func, DHD_FUNC_STR_LEN); } if (!(count & PC_FOUND_BIT) && (pc >= addr1 && pc < addr2)) { if ((cptr = strchr(func1, '$')) != NULL) { (void)strncpy(func, cptr + 1, DHD_FUNC_STR_LEN - 1); } else { (void)memcpy_s(func, DHD_FUNC_STR_LEN, func1, DHD_FUNC_STR_LEN); } if ((cptr = strstr(func, "__bcmromfn")) != NULL) { *cptr = 0; } if (pc > addr1) { sprintf(pc_fn, "%.68s+0x%x", func, pc - addr1); } else { (void)memcpy_s(pc_fn, DHD_FUNC_STR_LEN, func, DHD_FUNC_STR_LEN); } count |= PC_FOUND_BIT; DHD_INFO(("%s: found addr1 %x pc %x" " addr2 %x \n", __FUNCTION__, addr1, pc, addr2)); } if (!(count & LR_FOUND_BIT) && (lr >= addr1 && lr < addr2)) { if ((cptr = strchr(func1, '$')) != NULL) { (void)strncpy(func, cptr + 1, DHD_FUNC_STR_LEN - 1); } else { (void)memcpy_s(func, DHD_FUNC_STR_LEN, func1, DHD_FUNC_STR_LEN); } if ((cptr = strstr(func, "__bcmromfn")) != NULL) { *cptr = 0; } if (lr > addr1) { sprintf(lr_fn, "%.68s+0x%x", func, lr - addr1); } else { (void)memcpy_s(lr_fn, DHD_FUNC_STR_LEN, func, DHD_FUNC_STR_LEN); } count |= LR_FOUND_BIT; DHD_INFO(("%s: found addr1 %x lr %x" " addr2 %x \n", __FUNCTION__, addr1, lr, addr2)); } offset += (len + 1); } #ifdef DHD_LINUX_STD_FW_API if ((mem_offset + read_size) >= size) { break; } memset(raw_fmts, 0, read_size); mem_offset += (read_size -(len + 1)); #else if (err < (int)read_size) { /* * since we reset file pos back to earlier pos by * bytes of one line we won't reach EOF. * The reason for this is if string is spreaded across * bytes, the read function should not miss it. * So if ret value is less than read_size, reached EOF * don't read further */ break; } memset(raw_fmts, 0, read_size); /* * go back to bytes of one line so that we won't miss * the string and addr even if it comes as splited in next read. */ dhd_os_seek_file(filep, -(len + 1)); #endif /* DHD_LINUX_STD_FW_API */ DHD_TRACE(("%s: seek %d \n", __FUNCTION__, -(len + 1))); } fail: #ifdef DHD_LINUX_STD_FW_API if (fw) { dhd_os_close_img_fwreq(fw); } #else if (!IS_ERR(filep)) dhd_filp_close(filep, NULL); set_fs(fs); #endif /* DHD_LINUX_STD_FW_API */ if (!(count & PC_FOUND_BIT)) { sprintf(pc_fn, "0x%08x", pc); } if (!(count & LR_FOUND_BIT)) { sprintf(lr_fn, "0x%08x", lr); } return err; } #endif /* DHD_COREDUMP */ #ifdef DHD_LINUX_STD_FW_API static int dhd_init_logstrs_array(osl_t *osh, dhd_event_log_t *temp) { char *raw_fmts = NULL; int logstrs_size = 0; int error = 0; const struct firmware *fw = NULL; if (control_logtrace != LOGTRACE_PARSED_FMT) { DHD_ERROR_NO_HW4(("%s : turned off logstr parsing\n", __FUNCTION__)); return BCME_ERROR; } error = dhd_os_get_img_fwreq(&fw, logstrs_path); if (error < 0) { DHD_ERROR(("dhd_os_get_img(Request Firmware API) error : %d\n", error)); goto fail; } logstrs_size = (int)fw->size; if (logstrs_size == 0) { DHD_ERROR(("%s: return as logstrs_size is 0\n", __FUNCTION__)); goto fail; } if (temp->raw_fmts != NULL) { raw_fmts = temp->raw_fmts; /* reuse already malloced raw_fmts */ } else { raw_fmts = MALLOC(osh, logstrs_size); if (raw_fmts == NULL) { DHD_ERROR(("%s: Failed to allocate memory \n", __FUNCTION__)); goto fail; } } error = memcpy_s(raw_fmts, logstrs_size, (char *)(fw->data), logstrs_size); if (error) { DHD_ERROR(("%s: failed to copy raw_fmts, err=%d\n", __FUNCTION__, error)); goto fail; } if (dhd_parse_logstrs_file(osh, raw_fmts, logstrs_size, temp) == BCME_OK) { dhd_os_close_img_fwreq(fw); DHD_ERROR(("%s: return ok\n", __FUNCTION__)); return BCME_OK; } fail: if (fw) { dhd_os_close_img_fwreq(fw); } if (raw_fmts) { MFREE(osh, raw_fmts, logstrs_size); } if (temp->fmts != NULL) { MFREE(osh, temp->fmts, temp->num_fmts * sizeof(char *)); } temp->fmts = NULL; temp->raw_fmts = NULL; return BCME_ERROR; } static int dhd_read_map(osl_t *osh, char *fname, uint32 *ramstart, uint32 *rodata_start, uint32 *rodata_end) { int err = BCME_ERROR; const struct firmware *fw = NULL; if (fname == NULL) { DHD_ERROR(("%s: ERROR fname is NULL \n", __FUNCTION__)); return BCME_ERROR; } err = dhd_os_get_img_fwreq(&fw, fname); if (err < 0) { DHD_ERROR(("dhd_os_get_img(Request Firmware API) error : %d\n", err)); goto fail; } if ((err = dhd_parse_map_file(osh, (struct firmware *)fw, ramstart, rodata_start, rodata_end)) < 0) { goto fail; } fail: if (fw) { dhd_os_close_img_fwreq(fw); } return err; } static int dhd_init_static_strs_array(osl_t *osh, dhd_event_log_t *temp, char *str_file, char *map_file) { char *raw_fmts = NULL; uint32 logstrs_size = 0; int error = 0; uint32 ramstart = 0; uint32 rodata_start = 0; uint32 rodata_end = 0; uint32 logfilebase = 0; const struct firmware *fw = NULL; error = dhd_read_map(osh, map_file, &ramstart, &rodata_start, &rodata_end); if (error != BCME_OK) { DHD_ERROR(("readmap Error!! \n")); /* don't do event log parsing in actual case */ if (strstr(str_file, ram_file_str) != NULL) { temp->raw_sstr = NULL; } else if (strstr(str_file, rom_file_str) != NULL) { temp->rom_raw_sstr = NULL; } return error; } DHD_ERROR(("ramstart: 0x%x, rodata_start: 0x%x, rodata_end:0x%x\n", ramstart, rodata_start, rodata_end)); /* Full file size is huge. Just read required part */ logstrs_size = rodata_end - rodata_start; logfilebase = rodata_start - ramstart; if (logstrs_size == 0) { DHD_ERROR(("%s: return as logstrs_size is 0\n", __FUNCTION__)); goto fail1; } if (strstr(str_file, ram_file_str) != NULL && temp->raw_sstr != NULL) { raw_fmts = temp->raw_sstr; /* reuse already malloced raw_fmts */ } else if (strstr(str_file, rom_file_str) != NULL && temp->rom_raw_sstr != NULL) { raw_fmts = temp->rom_raw_sstr; /* reuse already malloced raw_fmts */ } else { raw_fmts = MALLOC(osh, logstrs_size); if (raw_fmts == NULL) { DHD_ERROR(("%s: Failed to allocate raw_fmts memory \n", __FUNCTION__)); goto fail; } } error = dhd_os_get_img_fwreq(&fw, str_file); if (error < 0 || (fw == NULL) || (fw->size < logfilebase)) { DHD_ERROR(("dhd_os_get_img(Request Firmware API) error : %d\n", error)); goto fail; } error = memcpy_s(raw_fmts, logstrs_size, (char *)((fw->data) + logfilebase), logstrs_size); if (error) { DHD_ERROR(("%s: failed to copy raw_fmts, err=%d\n", __FUNCTION__, error)); goto fail; } if (strstr(str_file, ram_file_str) != NULL) { temp->raw_sstr = raw_fmts; temp->raw_sstr_size = logstrs_size; temp->rodata_start = rodata_start; temp->rodata_end = rodata_end; } else if (strstr(str_file, rom_file_str) != NULL) { temp->rom_raw_sstr = raw_fmts; temp->rom_raw_sstr_size = logstrs_size; temp->rom_rodata_start = rodata_start; temp->rom_rodata_end = rodata_end; } if (fw) { dhd_os_close_img_fwreq(fw); } return BCME_OK; fail: if (raw_fmts) { MFREE(osh, raw_fmts, logstrs_size); } fail1: if (fw) { dhd_os_close_img_fwreq(fw); } if (strstr(str_file, ram_file_str) != NULL) { temp->raw_sstr = NULL; } else if (strstr(str_file, rom_file_str) != NULL) { temp->rom_raw_sstr = NULL; } return error; } /* dhd_init_static_strs_array */ #else static int dhd_init_logstrs_array(osl_t *osh, dhd_event_log_t *temp) { struct file *filep = NULL; struct kstat stat; mm_segment_t fs; char *raw_fmts = NULL; int logstrs_size = 0; int error = 0; if (control_logtrace != LOGTRACE_PARSED_FMT) { DHD_ERROR_NO_HW4(("%s : turned off logstr parsing\n", __FUNCTION__)); return BCME_ERROR; } fs = get_fs(); set_fs(KERNEL_DS); filep = dhd_filp_open(logstrs_path, O_RDONLY, 0); if (IS_ERR(filep) || (filep == NULL)) { DHD_ERROR_NO_HW4(("%s: Failed to open the file %s \n", __FUNCTION__, logstrs_path)); goto fail; } error = dhd_vfs_stat(logstrs_path, &stat); if (error) { DHD_ERROR_NO_HW4(("%s: Failed to stat file %s \n", __FUNCTION__, logstrs_path)); goto fail; } logstrs_size = (int) stat.size; if (logstrs_size == 0) { DHD_ERROR(("%s: return as logstrs_size is 0\n", __FUNCTION__)); goto fail1; } if (temp->raw_fmts != NULL) { raw_fmts = temp->raw_fmts; /* reuse already malloced raw_fmts */ } else { raw_fmts = MALLOC(osh, logstrs_size); if (raw_fmts == NULL) { DHD_ERROR(("%s: Failed to allocate memory \n", __FUNCTION__)); goto fail; } } if (dhd_vfs_read(filep, raw_fmts, logstrs_size, &filep->f_pos) != logstrs_size) { DHD_ERROR_NO_HW4(("%s: Failed to read file %s\n", __FUNCTION__, logstrs_path)); goto fail; } if (dhd_parse_logstrs_file(osh, raw_fmts, logstrs_size, temp) == BCME_OK) { dhd_filp_close(filep, NULL); set_fs(fs); return BCME_OK; } fail: if (raw_fmts) { MFREE(osh, raw_fmts, logstrs_size); } if (temp->fmts != NULL) { MFREE(osh, temp->fmts, temp->num_fmts * sizeof(char *)); } fail1: if (!IS_ERR(filep)) dhd_filp_close(filep, NULL); set_fs(fs); temp->fmts = NULL; temp->raw_fmts = NULL; return BCME_ERROR; } static int dhd_read_map(osl_t *osh, char *fname, uint32 *ramstart, uint32 *rodata_start, uint32 *rodata_end) { struct file *filep = NULL; mm_segment_t fs; int err = BCME_ERROR; if (fname == NULL) { DHD_ERROR(("%s: ERROR fname is NULL \n", __FUNCTION__)); return BCME_ERROR; } fs = get_fs(); set_fs(KERNEL_DS); filep = dhd_filp_open(fname, O_RDONLY, 0); if (IS_ERR(filep) || (filep == NULL)) { DHD_ERROR_NO_HW4(("%s: Failed to open %s \n", __FUNCTION__, fname)); goto fail; } if ((err = dhd_parse_map_file(osh, filep, ramstart, rodata_start, rodata_end)) < 0) goto fail; fail: if (!IS_ERR(filep)) dhd_filp_close(filep, NULL); set_fs(fs); return err; } static int dhd_init_static_strs_array(osl_t *osh, dhd_event_log_t *temp, char *str_file, char *map_file) { struct file *filep = NULL; mm_segment_t fs; char *raw_fmts = NULL; uint32 logstrs_size = 0; int error = 0; uint32 ramstart = 0; uint32 rodata_start = 0; uint32 rodata_end = 0; uint32 logfilebase = 0; error = dhd_read_map(osh, map_file, &ramstart, &rodata_start, &rodata_end); if (error != BCME_OK) { DHD_ERROR(("readmap Error!! \n")); /* don't do event log parsing in actual case */ if (strstr(str_file, ram_file_str) != NULL) { temp->raw_sstr = NULL; } else if (strstr(str_file, rom_file_str) != NULL) { temp->rom_raw_sstr = NULL; } return error; } DHD_ERROR(("ramstart: 0x%x, rodata_start: 0x%x, rodata_end:0x%x\n", ramstart, rodata_start, rodata_end)); fs = get_fs(); set_fs(KERNEL_DS); filep = dhd_filp_open(str_file, O_RDONLY, 0); if (IS_ERR(filep) || (filep == NULL)) { DHD_ERROR(("%s: Failed to open the file %s \n", __FUNCTION__, str_file)); goto fail; } if (TRUE) { /* Full file size is huge. Just read required part */ logstrs_size = rodata_end - rodata_start; logfilebase = rodata_start - ramstart; } if (logstrs_size == 0) { DHD_ERROR(("%s: return as logstrs_size is 0\n", __FUNCTION__)); goto fail1; } if (strstr(str_file, ram_file_str) != NULL && temp->raw_sstr != NULL) { raw_fmts = temp->raw_sstr; /* reuse already malloced raw_fmts */ } else if (strstr(str_file, rom_file_str) != NULL && temp->rom_raw_sstr != NULL) { raw_fmts = temp->rom_raw_sstr; /* reuse already malloced raw_fmts */ } else { raw_fmts = MALLOC(osh, logstrs_size); if (raw_fmts == NULL) { DHD_ERROR(("%s: Failed to allocate raw_fmts memory \n", __FUNCTION__)); goto fail; } } if (TRUE) { error = generic_file_llseek(filep, logfilebase, SEEK_SET); if (error < 0) { DHD_ERROR(("%s: %s llseek failed %d \n", __FUNCTION__, str_file, error)); goto fail; } } error = dhd_vfs_read(filep, raw_fmts, logstrs_size, (&filep->f_pos)); if (error != logstrs_size) { DHD_ERROR(("%s: %s read failed %d \n", __FUNCTION__, str_file, error)); goto fail; } if (strstr(str_file, ram_file_str) != NULL) { temp->raw_sstr = raw_fmts; temp->raw_sstr_size = logstrs_size; temp->rodata_start = rodata_start; temp->rodata_end = rodata_end; } else if (strstr(str_file, rom_file_str) != NULL) { temp->rom_raw_sstr = raw_fmts; temp->rom_raw_sstr_size = logstrs_size; temp->rom_rodata_start = rodata_start; temp->rom_rodata_end = rodata_end; } dhd_filp_close(filep, NULL); set_fs(fs); return BCME_OK; fail: if (raw_fmts) { MFREE(osh, raw_fmts, logstrs_size); } fail1: if (!IS_ERR(filep)) dhd_filp_close(filep, NULL); set_fs(fs); if (strstr(str_file, ram_file_str) != NULL) { temp->raw_sstr = NULL; } else if (strstr(str_file, rom_file_str) != NULL) { temp->rom_raw_sstr = NULL; } return error; } /* dhd_init_static_strs_array */ #endif /* DHD_LINUX_STD_FW_API */ #endif /* SHOW_LOGTRACE */ #ifdef DHD_ERPOM uint enable_erpom = 0; module_param(enable_erpom, int, 0); int dhd_wlan_power_off_handler(void *handler, unsigned char reason) { dhd_pub_t *dhdp = (dhd_pub_t *)handler; bool dongle_isolation = dhdp->dongle_isolation; DHD_ERROR(("%s: WLAN DHD cleanup reason: %d\n", __FUNCTION__, reason)); if ((reason == BY_BT_DUE_TO_BT) || (reason == BY_BT_DUE_TO_WLAN)) { #if defined(DHD_FW_COREDUMP) /* save core dump to a file */ if (dhdp->memdump_enabled) { #ifdef DHD_SSSR_DUMP DHD_ERROR(("%s : Set collect_sssr as TRUE\n", __FUNCTION__)); dhdp->collect_sssr = TRUE; #endif /* DHD_SSSR_DUMP */ dhdp->memdump_type = DUMP_TYPE_DUE_TO_BT; dhd_bus_mem_dump(dhdp); } #endif /* DHD_FW_COREDUMP */ } /* pause data on all the interfaces */ dhd_bus_stop_queue(dhdp->bus); /* Devreset function will perform FLR again, to avoid it set dongle_isolation */ dhdp->dongle_isolation = TRUE; dhd_bus_devreset(dhdp, 1); /* DHD structure cleanup */ dhdp->dongle_isolation = dongle_isolation; /* Restore the old value */ return 0; } int dhd_wlan_power_on_handler(void *handler, unsigned char reason) { dhd_pub_t *dhdp = (dhd_pub_t *)handler; bool dongle_isolation = dhdp->dongle_isolation; DHD_ERROR(("%s: WLAN DHD re-init reason: %d\n", __FUNCTION__, reason)); /* Devreset function will perform FLR again, to avoid it set dongle_isolation */ dhdp->dongle_isolation = TRUE; dhd_bus_devreset(dhdp, 0); /* DHD structure re-init */ dhdp->dongle_isolation = dongle_isolation; /* Restore the old value */ /* resume data on all the interfaces */ dhd_bus_start_queue(dhdp->bus); return 0; } #endif /* DHD_ERPOM */ /** Called once for each hardware (dongle) instance that this DHD manages */ dhd_pub_t * dhd_attach(osl_t *osh, struct dhd_bus *bus, uint bus_hdrlen) { dhd_info_t *dhd = NULL; struct net_device *net = NULL; char if_name[IFNAMSIZ] = {'\0'}; uint32 bus_type = -1; uint32 bus_num = -1; uint32 slot_num = -1; #ifdef DHD_ERPOM pom_func_handler_t *pom_handler; #endif /* DHD_ERPOM */ wifi_adapter_info_t *adapter = NULL; dhd_attach_states_t dhd_state = DHD_ATTACH_STATE_INIT; DHD_TRACE(("%s: Enter\n", __FUNCTION__)); #ifdef PCIE_FULL_DONGLE ASSERT(sizeof(dhd_pkttag_fd_t) <= OSL_PKTTAG_SZ); ASSERT(sizeof(dhd_pkttag_fr_t) <= OSL_PKTTAG_SZ); #endif /* PCIE_FULL_DONGLE */ /* will implement get_ids for DBUS later */ #if !defined(BCMDBUS) && defined(BCMSDIO) dhd_bus_get_ids(bus, &bus_type, &bus_num, &slot_num); #endif /* !defined(BCMDBUS) && defined(BCMSDIO) */ adapter = dhd_wifi_platform_get_adapter(bus_type, bus_num, slot_num); /* Allocate primary dhd_info */ dhd = wifi_platform_prealloc(adapter, DHD_PREALLOC_DHD_INFO, sizeof(dhd_info_t)); if (dhd == NULL) { dhd = MALLOC(osh, sizeof(dhd_info_t)); if (dhd == NULL) { DHD_ERROR(("%s: OOM - alloc dhd_info\n", __FUNCTION__)); goto dhd_null_flag; } } memset(dhd, 0, sizeof(dhd_info_t)); dhd_state |= DHD_ATTACH_STATE_DHD_ALLOC; dhd->unit = dhd_found + instance_base; /* do not increment dhd_found, yet */ dhd->pub.osh = osh; #ifdef DUMP_IOCTL_IOV_LIST dll_init(&(dhd->pub.dump_iovlist_head)); #endif /* DUMP_IOCTL_IOV_LIST */ #ifndef BCMDBUS /* console not supported for USB (uses DBUS) */ dhd->pub.dhd_console_ms = dhd_console_ms; /* assigns default value */ #endif /* !BCMDBUS */ dhd->adapter = adapter; #ifdef BT_OVER_SDIO dhd->pub.is_bt_recovery_required = FALSE; mutex_init(&dhd->bus_user_lock); #endif /* BT_OVER_SDIO */ g_dhd_pub = &dhd->pub; #ifdef DHD_DEBUG dll_init(&(dhd->pub.mw_list_head)); #endif /* DHD_DEBUG */ /* * Attach DHD Core Layer to Platform Layer. For non * Embedded environment, where there is no dependency on platform * layer, dhd_get_plat_info_size can return 0, if the platform * layer does not exist or chooses not to implement it. */ dhd->pub.plat_info_size = dhd_plat_get_info_size(); if (dhd->pub.plat_info_size) { dhd->pub.plat_info = MALLOCZ(osh, dhd->pub.plat_info_size); } #ifdef GET_CUSTOM_MAC_ENABLE wifi_platform_get_mac_addr(dhd->adapter, dhd->pub.mac.octet); #endif /* GET_CUSTOM_MAC_ENABLE */ #ifdef CUSTOM_COUNTRY_CODE #ifdef CUSTOM_FORCE_NODFS_FLAG dhd->pub.dhd_cflags |= WLAN_PLAT_NODFS_FLAG; dhd->pub.force_country_change = TRUE; #endif /* CUSTOM_FORCE_NODFS_FLAG */ get_customized_country_code(dhd->adapter, dhd->pub.dhd_cspec.country_abbrev, &dhd->pub.dhd_cspec, dhd->pub.dhd_cflags); #endif /* CUSTOM_COUNTRY_CODE */ #ifndef BCMDBUS dhd->thr_dpc_ctl.thr_pid = DHD_PID_KT_TL_INVALID; dhd->thr_wdt_ctl.thr_pid = DHD_PID_KT_INVALID; #ifdef DHD_WET dhd->pub.wet_info = dhd_get_wet_info(&dhd->pub); #endif /* DHD_WET */ /* Initialize thread based operation and lock */ sema_init(&dhd->sdsem, 1); /* Some DHD modules (e.g. cfg80211) configures operation mode based on firmware name. * This is indeed a hack but we have to make it work properly before we have a better * solution */ dhd_update_fw_nv_path(dhd); #endif /* BCMDBUS */ #if defined(WL_MONITOR) && defined(HOST_RADIOTAP_CONV) dhd->host_radiotap_conv = FALSE; #endif /* WL_MONITOR */ dhd->pub.pcie_txs_metadata_enable = pcie_txs_metadata_enable; /* Link to info module */ dhd->pub.info = dhd; /* Link to bus module */ dhd->pub.bus = bus; dhd->pub.hdrlen = bus_hdrlen; dhd->pub.txoff = FALSE; #ifdef CHECK_TRAP_ROT dhd->pub.check_trap_rot = TRUE; #else dhd->pub.check_trap_rot = FALSE; #endif /* CHECK_TRAP_ROT */ #ifdef WBRC dhd->pub.chip_bighammer_count = 0; #endif /* WBRC */ /* Set network interface name if it was provided as module parameter */ if (iface_name[0]) { int len; char ch; strlcpy(if_name, iface_name, sizeof(if_name)); len = strlen(if_name); ch = if_name[len - 1]; if ((ch > '9' || ch < '0') && (len < IFNAMSIZ - 2)) { strncat(if_name, "%d", sizeof(if_name) - len - 1); } } /* Passing NULL to dngl_name to ensure host gets if_name in dngl_name member */ net = dhd_allocate_if(&dhd->pub, 0, if_name, NULL, 0, TRUE, NULL); if (net == NULL) { goto fail; } mutex_init(&dhd->pub.ndev_op_sync); dhd_state |= DHD_ATTACH_STATE_ADD_IF; #ifdef DHD_L2_FILTER /* initialize the l2_filter_cnt */ dhd->pub.l2_filter_cnt = 0; #endif net->netdev_ops = NULL; mutex_init(&dhd->dhd_iovar_mutex); sema_init(&dhd->proto_sem, 1); #if defined(DHD_HANG_SEND_UP_TEST) dhd->pub.req_hang_type = 0; #endif /* DHD_HANG_SEND_UP_TEST */ #ifdef PROP_TXSTATUS spin_lock_init(&dhd->wlfc_spinlock); dhd->pub.skip_fc = dhd_wlfc_skip_fc; dhd->pub.plat_init = dhd_wlfc_plat_init; dhd->pub.plat_deinit = dhd_wlfc_plat_deinit; #ifdef DHD_WLFC_THREAD init_waitqueue_head(&dhd->pub.wlfc_wqhead); dhd->pub.wlfc_thread = kthread_create(dhd_wlfc_transfer_packets, &dhd->pub, "wlfc-thread"); if (IS_ERR(dhd->pub.wlfc_thread)) { DHD_ERROR(("create wlfc thread failed\n")); goto fail; } else { wake_up_process(dhd->pub.wlfc_thread); } #endif /* DHD_WLFC_THREAD */ #endif /* PROP_TXSTATUS */ /* Initialize other structure content */ /* XXX Some of this goes away, leftover from USB */ /* XXX Some could also move to bus_init()? */ init_waitqueue_head(&dhd->ioctl_resp_wait); init_waitqueue_head(&dhd->pub.tx_tput_test_wait); init_waitqueue_head(&dhd->d3ack_wait); #ifdef PCIE_INB_DW init_waitqueue_head(&dhd->ds_exit_wait); #endif /* PCIE_INB_DW */ init_waitqueue_head(&dhd->ctrl_wait); init_waitqueue_head(&dhd->dhd_bus_busy_state_wait); init_waitqueue_head(&dhd->dmaxfer_wait); init_waitqueue_head(&dhd->pub.tx_completion_wait); dhd->pub.dhd_bus_busy_state = 0; /* Initialize the spinlocks */ spin_lock_init(&dhd->sdlock); spin_lock_init(&dhd->txqlock); spin_lock_init(&dhd->dhd_lock); spin_lock_init(&dhd->rxf_lock); #ifdef WLTDLS spin_lock_init(&dhd->pub.tdls_lock); #endif /* WLTDLS */ #if defined(RXFRAME_THREAD) dhd->rxthread_enabled = TRUE; #endif /* defined(RXFRAME_THREAD) */ #ifdef DHDTCPACK_SUPPRESS spin_lock_init(&dhd->tcpack_lock); #endif /* DHDTCPACK_SUPPRESS */ /* Initialize Wakelock stuff */ spin_lock_init(&dhd->wakelock_spinlock); spin_lock_init(&dhd->wakelock_evt_spinlock); DHD_OS_WAKE_LOCK_INIT(dhd); dhd->wakelock_counter = 0; /* wakelocks prevent a system from going into a low power state */ #ifdef CONFIG_HAS_WAKELOCK dhd_wake_lock_init(dhd->wl_wdwake, dhd_bus_to_dev(bus), "wlan_wd_wake"); #endif /* CONFIG_HAS_WAKELOCK */ mutex_init(&dhd->dhd_net_if_mutex); mutex_init(&dhd->dhd_suspend_mutex); #if defined(APF) mutex_init(&dhd->dhd_apf_mutex); #endif /* APF */ dhd_state |= DHD_ATTACH_STATE_WAKELOCKS_INIT; /* Attach and link in the protocol */ if (dhd_prot_attach(&dhd->pub) != 0) { DHD_ERROR(("dhd_prot_attach failed\n")); goto fail; } dhd_state |= DHD_ATTACH_STATE_PROT_ATTACH; #ifdef DHD_TIMESYNC /* attach the timesync module */ if (dhd_timesync_attach(&dhd->pub) != 0) { DHD_ERROR(("dhd_timesync_attach failed\n")); goto fail; } dhd_state |= DHD_ATTACH_TIMESYNC_ATTACH_DONE; #endif /* DHD_TIMESYNC */ #ifdef WL_CFG80211 spin_lock_init(&dhd->pub.up_lock); /* Attach and link in the cfg80211 */ if (unlikely(wl_cfg80211_attach(net, &dhd->pub))) { DHD_ERROR(("wl_cfg80211_attach failed\n")); goto fail; } dhd_monitor_init(&dhd->pub); dhd_state |= DHD_ATTACH_STATE_CFG80211; #endif #ifdef DHD_LOG_DUMP dhd_log_dump_init(&dhd->pub); #endif /* DHD_LOG_DUMP */ #ifdef DHD_PKTDUMP_ROAM dhd_dump_pkt_init(&dhd->pub); #endif /* DHD_PKTDUMP_ROAM */ #ifdef DHD_PKT_LOGGING dhd_os_attach_pktlog(&dhd->pub); #endif /* DHD_PKT_LOGGING */ /* attach debug if support */ if (dhd_os_dbg_attach(&dhd->pub)) { DHD_ERROR(("%s debug module attach failed\n", __FUNCTION__)); goto fail; } #ifdef DEBUGABILITY #ifdef DBG_PKT_MON dhd->pub.dbg->pkt_mon_lock = osl_spin_lock_init(dhd->pub.osh); #ifdef DBG_PKT_MON_INIT_DEFAULT dhd_os_dbg_attach_pkt_monitor(&dhd->pub); #endif /* DBG_PKT_MON_INIT_DEFAULT */ #endif /* DBG_PKT_MON */ #endif /* DEBUGABILITY */ #ifdef DHD_MEM_STATS dhd->pub.mem_stats_lock = osl_spin_lock_init(dhd->pub.osh); dhd->pub.txpath_mem = 0; dhd->pub.rxpath_mem = 0; #endif /* DHD_MEM_STATS */ #ifdef DHD_STATUS_LOGGING dhd->pub.statlog = dhd_attach_statlog(&dhd->pub, MAX_STATLOG_ITEM, MAX_STATLOG_REQ_ITEM, STATLOG_LOGBUF_LEN); if (dhd->pub.statlog == NULL) { DHD_ERROR(("%s: alloc statlog failed\n", __FUNCTION__)); } #endif /* DHD_STATUS_LOGGING */ #ifdef RX_PKT_POOL dhd_rx_pktpool_init(dhd); #endif /* RX_PKT_POOL */ #ifdef WL_CFGVENDOR_SEND_HANG_EVENT dhd->pub.hang_info = MALLOCZ(osh, VENDOR_SEND_HANG_EXT_INFO_LEN); if (dhd->pub.hang_info == NULL) { DHD_ERROR(("%s: alloc hang_info failed\n", __FUNCTION__)); } #endif /* WL_CFGVENDOR_SEND_HANG_EVENT */ if (dhd_sta_pool_init(&dhd->pub, DHD_MAX_STA) != BCME_OK) { DHD_ERROR(("%s: Initializing %u sta\n", __FUNCTION__, DHD_MAX_STA)); goto fail; } #ifdef BCM_ROUTER_DHD #if defined(HNDCTF) dhd->cih = ctf_attach(dhd->pub.osh, "dhd", &dhd_msg_level, dhd_ctf_detach, dhd); if (!dhd->cih) { DHD_ERROR(("%s: ctf_attach() failed\n", __FUNCTION__)); } #ifdef CTFPOOL { int poolsz = RXBUFPOOLSZ; if (CTF_ENAB(dhd->cih) && (osl_ctfpool_init(dhd->pub.osh, poolsz, RXBUFSZ + BCMEXTRAHDROOM) < 0)) { DHD_ERROR(("%s: osl_ctfpool_init() failed\n", __FUNCTION__)); } } #endif /* CTFPOOL */ #endif /* HNDCTF */ #endif /* BCM_ROUTER_DHD */ #ifndef BCMDBUS #ifdef DHD_PCIE_NATIVE_RUNTIMEPM dhd->tx_wq = alloc_workqueue("bcmdhd-tx-wq", WQ_HIGHPRI | WQ_UNBOUND | WQ_MEM_RECLAIM, 1); if (!dhd->tx_wq) { DHD_ERROR(("%s: alloc_workqueue(bcmdhd-tx-wq) failed\n", __FUNCTION__)); goto fail; } dhd->rx_wq = alloc_workqueue("bcmdhd-rx-wq", WQ_HIGHPRI | WQ_UNBOUND | WQ_MEM_RECLAIM, 1); if (!dhd->rx_wq) { DHD_ERROR(("%s: alloc_workqueue(bcmdhd-rx-wq) failed\n", __FUNCTION__)); destroy_workqueue(dhd->tx_wq); dhd->tx_wq = NULL; goto fail; } #endif /* DHD_PCIE_NATIVE_RUNTIMEPM */ /* Set up the watchdog timer */ init_timer_compat(&dhd->timer, dhd_watchdog, dhd); dhd->default_wd_interval = dhd_watchdog_ms; if (dhd_watchdog_prio >= 0) { /* Initialize watchdog thread */ PROC_START(dhd_watchdog_thread, dhd, &dhd->thr_wdt_ctl, 0, "dhd_watchdog_thread"); if (dhd->thr_wdt_ctl.thr_pid < 0) { goto fail; } } else { dhd->thr_wdt_ctl.thr_pid = -1; } #ifdef DHD_PCIE_RUNTIMEPM /* Setup up the runtime PM Idlecount timer */ init_timer_compat(&dhd->rpm_timer, dhd_runtimepm, dhd); dhd->rpm_timer_valid = FALSE; dhd->thr_rpm_ctl.thr_pid = DHD_PID_KT_INVALID; PROC_START(dhd_rpm_state_thread, dhd, &dhd->thr_rpm_ctl, 0, "dhd_rpm_state_thread"); if (dhd->thr_rpm_ctl.thr_pid < 0) { goto fail; } #endif /* DHD_PCIE_RUNTIMEPM */ #ifdef SHOW_LOGTRACE skb_queue_head_init(&dhd->evt_trace_queue); /* Create ring proc entries */ dhd_dbg_ring_proc_create(&dhd->pub); #endif /* SHOW_LOGTRACE */ #ifdef BTLOG skb_queue_head_init(&dhd->bt_log_queue); #endif /* BTLOG */ /* Set up the bottom half handler */ if (dhd_dpc_prio >= 0) { /* Initialize DPC thread */ PROC_START(dhd_dpc_thread, dhd, &dhd->thr_dpc_ctl, 0, "dhd_dpc"); if (dhd->thr_dpc_ctl.thr_pid < 0) { goto fail; } } else { /* use tasklet for dpc */ tasklet_init(&dhd->tasklet, dhd_dpc, (ulong)dhd); dhd->thr_dpc_ctl.thr_pid = -1; } if (dhd->rxthread_enabled) { bzero(&dhd->pub.skbbuf[0], sizeof(void *) * MAXSKBPEND); /* Initialize RXF thread */ PROC_START(dhd_rxf_thread, dhd, &dhd->thr_rxf_ctl, 0, "dhd_rxf"); if (dhd->thr_rxf_ctl.thr_pid < 0) { goto fail; } } #endif /* BCMDBUS */ dhd_state |= DHD_ATTACH_STATE_THREADS_CREATED; #if defined(CONFIG_PM_SLEEP) if (!dhd_pm_notifier_registered) { dhd_pm_notifier_registered = TRUE; dhd->pm_notifier.notifier_call = dhd_pm_callback; dhd->pm_notifier.priority = 10; register_pm_notifier(&dhd->pm_notifier); } #endif /* CONFIG_PM_SLEEP */ #if defined(CONFIG_HAS_EARLYSUSPEND) && defined(DHD_USE_EARLYSUSPEND) dhd->early_suspend.level = EARLY_SUSPEND_LEVEL_BLANK_SCREEN + 20; dhd->early_suspend.suspend = dhd_early_suspend; dhd->early_suspend.resume = dhd_late_resume; register_early_suspend(&dhd->early_suspend); dhd_state |= DHD_ATTACH_STATE_EARLYSUSPEND_DONE; #endif /* CONFIG_HAS_EARLYSUSPEND && DHD_USE_EARLYSUSPEND */ #ifdef ARP_OFFLOAD_SUPPORT dhd->pend_ipaddr = 0; if (!dhd_inetaddr_notifier_registered) { dhd_inetaddr_notifier_registered = TRUE; register_inetaddr_notifier(&dhd_inetaddr_notifier); } #endif /* ARP_OFFLOAD_SUPPORT */ #if defined(CONFIG_IPV6) && defined(IPV6_NDO_SUPPORT) if (!dhd_inet6addr_notifier_registered) { dhd_inet6addr_notifier_registered = TRUE; register_inet6addr_notifier(&dhd_inet6addr_notifier); } #endif /* CONFIG_IPV6 && IPV6_NDO_SUPPORT */ dhd->dhd_deferred_wq = dhd_deferred_work_init((void *)dhd); INIT_WORK(&dhd->dhd_hang_process_work, dhd_hang_process); #ifdef DEBUG_CPU_FREQ dhd->new_freq = alloc_percpu(int); dhd->freq_trans.notifier_call = dhd_cpufreq_notifier; cpufreq_register_notifier(&dhd->freq_trans, CPUFREQ_TRANSITION_NOTIFIER); #endif #ifdef DHDTCPACK_SUPPRESS #ifdef BCMSDIO dhd_tcpack_suppress_set(&dhd->pub, TCPACK_SUP_DELAYTX); #elif defined(BCMPCIE) /* xxx : In case of PCIe based Samsung Android project, enable TCP ACK Suppress * when throughput is higher than threshold, following rps_cpus setting. */ dhd_tcpack_suppress_set(&dhd->pub, TCPACK_SUP_HOLD); #else dhd_tcpack_suppress_set(&dhd->pub, TCPACK_SUP_OFF); #endif /* BCMSDIO */ #endif /* DHDTCPACK_SUPPRESS */ #if defined(BCM_DNGL_EMBEDIMAGE) || defined(BCM_REQUEST_FW) #if defined(BCMDBUS) sema_init(&dhd->fw_download_lock, 0); dhd->fw_download_task = kthread_run(fw_download_thread_func, dhd, "fwdl-thread"); #endif /* BCMDBUS */ #endif /* defined(BCM_DNGL_EMBEDIMAGE) || defined(BCM_REQUEST_FW) */ #ifdef DHD_DEBUG_PAGEALLOC register_page_corrupt_cb(dhd_page_corrupt_cb, &dhd->pub); #endif /* DHD_DEBUG_PAGEALLOC */ INIT_DELAYED_WORK(&dhd->dhd_dpc_dispatcher_work, dhd_dpc_tasklet_dispatcher_work); #if defined(DHD_LB) #if defined(DHD_LB_HOST_CTRL) dhd->permitted_primary_cpu = FALSE; #endif /* DHD_LB_HOST_CTRL */ dhd_lb_set_default_cpus(dhd); DHD_LB_STATS_INIT(&dhd->pub); /* Initialize the CPU Masks */ if (dhd_cpumasks_init(dhd) == 0) { /* Now we have the current CPU maps, run through candidacy */ dhd_select_cpu_candidacy(dhd); /* Register the call backs to CPU Hotplug sub-system */ dhd_register_cpuhp_callback(dhd); } else { /* * We are unable to initialize CPU masks, so candidacy algorithm * won't run, but still Load Balancing will be honoured based * on the CPUs allocated for a given job statically during init */ dhd->cpu_notifier.notifier_call = NULL; DHD_ERROR(("%s():dhd_cpumasks_init failed CPUs for JOB would be static\n", __FUNCTION__)); } #ifdef DHD_LB_TXP #ifdef DHD_LB_TXP_DEFAULT_ENAB /* Trun ON the feature by default */ atomic_set(&dhd->lb_txp_active, 1); #else /* Trun OFF the feature by default */ atomic_set(&dhd->lb_txp_active, 0); #endif /* DHD_LB_TXP_DEFAULT_ENAB */ #endif /* DHD_LB_TXP */ #ifdef DHD_LB_RXP /* Trun ON the feature by default */ atomic_set(&dhd->lb_rxp_active, 1); #endif /* DHD_LB_RXP */ /* Initialize the Load Balancing Tasklets and Napi object */ #if defined(DHD_LB_RXP) __skb_queue_head_init(&dhd->rx_pend_queue); skb_queue_head_init(&dhd->rx_emerge_queue); skb_queue_head_init(&dhd->rx_napi_queue); __skb_queue_head_init(&dhd->rx_process_queue); /* Initialize the work that dispatches NAPI job to a given core */ INIT_WORK(&dhd->rx_napi_dispatcher_work, dhd_rx_napi_dispatcher_work); DHD_INFO(("%s load balance init rx_napi_queue\n", __FUNCTION__)); /* Initialize the work that dispatches DPC tasklet to a given core */ #endif /* DHD_LB_RXP */ #if defined(DHD_LB_TXP) INIT_WORK(&dhd->tx_dispatcher_work, dhd_tx_dispatcher_work); skb_queue_head_init(&dhd->tx_pend_queue); /* Initialize the work that dispatches TX job to a given core */ tasklet_init(&dhd->tx_tasklet, dhd_lb_tx_handler, (ulong)(dhd)); DHD_INFO(("%s load balance init tx_pend_queue\n", __FUNCTION__)); #endif /* DHD_LB_TXP */ dhd_state |= DHD_ATTACH_STATE_LB_ATTACH_DONE; #endif /* DHD_LB */ #if defined(DNGL_AXI_ERROR_LOGGING) && defined(DHD_USE_WQ_FOR_DNGL_AXI_ERROR) INIT_WORK(&dhd->axi_error_dispatcher_work, dhd_axi_error_dispatcher_fn); #endif /* DNGL_AXI_ERROR_LOGGING && DHD_USE_WQ_FOR_DNGL_AXI_ERROR */ #ifdef BCMDBG if (dhd_macdbg_attach(&dhd->pub) != BCME_OK) { DHD_ERROR(("%s: dhd_macdbg_attach fail\n", __FUNCTION__)); goto fail; } #endif /* BCMDBG */ #ifdef REPORT_FATAL_TIMEOUTS init_dhd_timeouts(&dhd->pub); #endif /* REPORT_FATAL_TIMEOUTS */ #if defined(BCMPCIE) dhd->pub.extended_trap_data = MALLOCZ(osh, BCMPCIE_EXT_TRAP_DATA_MAXLEN); if (dhd->pub.extended_trap_data == NULL) { DHD_ERROR(("%s: Failed to alloc extended_trap_data\n", __FUNCTION__)); } #ifdef DNGL_AXI_ERROR_LOGGING dhd->pub.axi_err_dump = MALLOCZ(osh, sizeof(dhd_axi_error_dump_t)); if (dhd->pub.axi_err_dump == NULL) { DHD_ERROR(("%s: Failed to alloc axi_err_dump\n", __FUNCTION__)); } #endif /* DNGL_AXI_ERROR_LOGGING */ #endif /* BCMPCIE */ #ifdef SHOW_LOGTRACE if (dhd_init_logtrace_process(dhd) != BCME_OK) { goto fail; } #endif /* SHOW_LOGTRACE */ #ifdef BTLOG INIT_WORK(&dhd->bt_log_dispatcher_work, dhd_bt_log_process); #endif /* BTLOG */ #ifdef EWP_EDL INIT_DELAYED_WORK(&dhd->edl_dispatcher_work, dhd_edl_process_work); #endif DHD_COREDUMP_MEMPOOL_INIT(&dhd->pub); DHD_SSSR_MEMPOOL_INIT(&dhd->pub); DHD_SSSR_REG_INFO_INIT(&dhd->pub); #ifdef DHD_SDTC_ETB_DUMP dhd_sdtc_etb_mempool_init(&dhd->pub); #endif /* DHD_SDTC_ETB_DUMP */ #ifdef EWP_EDL if (host_edl_support) { if (DHD_EDL_MEM_INIT(&dhd->pub) != BCME_OK) { host_edl_support = FALSE; } } #endif /* EWP_EDL */ dhd_init_sock_flows_buf(dhd, dhd_watchdog_ms); (void)dhd_sysfs_init(dhd); #ifdef WL_NATOE /* Open Netlink socket for NF_CONNTRACK notifications */ dhd->pub.nfct = dhd_ct_open(&dhd->pub, NFNL_SUBSYS_CTNETLINK | NFNL_SUBSYS_CTNETLINK_EXP, CT_ALL); #endif /* WL_NATOE */ #ifdef GDB_PROXY dhd->pub.gdb_proxy_nodeadman = nodeadman != 0; #endif /* GDB_PROXY */ dhd_state |= DHD_ATTACH_STATE_DONE; dhd->dhd_state = dhd_state; dhd_found++; #ifdef DHD_FW_COREDUMP /* Set memdump default values */ #ifdef CUSTOMER_HW4_DEBUG dhd->pub.memdump_enabled = DUMP_DISABLED; #else #ifdef DHD_COREDUMP dhd->pub.memdump_enabled = DUMP_MEMFILE; #else dhd->pub.memdump_enabled = DUMP_MEMFILE_BUGON; #endif /* DHD_COREDUMP */ #endif /* CUSTOMER_HW4_DEBUG */ /* Check the memdump capability */ dhd_get_memdump_info(&dhd->pub); #endif /* DHD_FW_COREDUMP */ #ifdef DHD_ERPOM if (enable_erpom) { pom_handler = &dhd->pub.pom_wlan_handler; pom_handler->func_id = WLAN_FUNC_ID; pom_handler->handler = (void *)g_dhd_pub; pom_handler->power_off = dhd_wlan_power_off_handler; pom_handler->power_on = dhd_wlan_power_on_handler; dhd->pub.pom_func_register = NULL; dhd->pub.pom_func_deregister = NULL; dhd->pub.pom_toggle_reg_on = NULL; dhd->pub.pom_func_register = symbol_get(pom_func_register); dhd->pub.pom_func_deregister = symbol_get(pom_func_deregister); dhd->pub.pom_toggle_reg_on = symbol_get(pom_toggle_reg_on); symbol_put(pom_func_register); symbol_put(pom_func_deregister); symbol_put(pom_toggle_reg_on); if (!dhd->pub.pom_func_register || !dhd->pub.pom_func_deregister || !dhd->pub.pom_toggle_reg_on) { DHD_ERROR(("%s, enable_erpom enabled through module parameter but " "POM is not loaded\n", __FUNCTION__)); ASSERT(0); goto fail; } dhd->pub.pom_func_register(pom_handler); dhd->pub.enable_erpom = TRUE; } #endif /* DHD_ERPOM */ #ifdef DHD_DUMP_MNGR dhd->pub.dump_file_manage = (dhd_dump_file_manage_t *)MALLOCZ(dhd->pub.osh, sizeof(dhd_dump_file_manage_t)); if (unlikely(!dhd->pub.dump_file_manage)) { DHD_ERROR(("%s(): could not allocate memory for - " "dhd_dump_file_manage_t\n", __FUNCTION__)); } #endif /* DHD_DUMP_MNGR */ #ifdef RTT_SUPPORT if (dhd_rtt_attach(&dhd->pub)) { DHD_ERROR(("dhd_rtt_attach has failed\n")); goto fail; } #endif /* RTT_SUPPORT */ #ifdef DHD_TX_PROFILE if (dhd_tx_profile_attach(&dhd->pub) != BCME_OK) { DHD_ERROR(("%s:\tdhd_tx_profile_attach has failed\n", __FUNCTION__)); goto fail; } #endif /* defined(DHD_TX_PROFILE) */ #ifdef WL_CFGVENDOR_SEND_ALERT_EVENT INIT_WORK(&dhd->dhd_alert_process_work, dhd_alert_process); #endif /* WL_CFGVENDOR_SEND_ALERT_EVENT */ #ifdef CONFIG_ARCH_EXYNOS #if IS_ENABLED(CONFIG_EXYNOS_S2MPU) dhd_module_s2mpu_register(dhd_bus_to_dev(bus)); #endif /* CONFIG_EXYNOS_S2MPU */ #endif /* CONFIG_ARCH_EXYNOS */ #if defined(DHD_FILE_DUMP_EVENT) && defined(DHD_FW_COREDUMP) OSL_ATOMIC_SET(dhd->pub.osh, &dhd->dump_status, DUMP_NOT_READY); INIT_WORK(&dhd->dhd_dump_proc_work, dhd_dump_proc); #endif /* DHD_FILE_DUMP_EVENT && DHD_FW_COREDUMP */ return &dhd->pub; fail: if (dhd_state >= DHD_ATTACH_STATE_DHD_ALLOC) { DHD_TRACE(("%s: Calling dhd_detach dhd_state 0x%x &dhd->pub %p\n", __FUNCTION__, dhd_state, &dhd->pub)); dhd->dhd_state = dhd_state; dhd_detach(&dhd->pub); dhd_free(&dhd->pub); } dhd_null_flag: return NULL; } int dhd_get_fw_mode(dhd_info_t *dhdinfo) { if (strstr(dhdinfo->fw_path, "_apsta") != NULL) return DHD_FLAG_HOSTAP_MODE; if (strstr(dhdinfo->fw_path, "_p2p") != NULL) return DHD_FLAG_P2P_MODE; if (strstr(dhdinfo->fw_path, "_ibss") != NULL) return DHD_FLAG_IBSS_MODE; if (strstr(dhdinfo->fw_path, "_mfg") != NULL) return DHD_FLAG_MFG_MODE; return DHD_FLAG_STA_MODE; } int dhd_bus_get_fw_mode(dhd_pub_t *dhdp) { return dhd_get_fw_mode(dhdp->info); } extern char * nvram_get(const char *name); #ifndef BCMDBUS bool dhd_update_fw_nv_path(dhd_info_t *dhdinfo) { int fw_len; int nv_len; int sig_len; const char *fw = NULL; const char *nv = NULL; #ifdef DHD_UCODE_DOWNLOAD int uc_len; const char *uc = NULL; #endif /* DHD_UCODE_DOWNLOAD */ wifi_adapter_info_t *adapter = dhdinfo->adapter; int fw_path_len = sizeof(dhdinfo->fw_path); int nv_path_len = sizeof(dhdinfo->nv_path); int sig_path_len = sizeof(dhdinfo->sig_path); /* Update firmware and nvram path. The path may be from adapter info or module parameter * The path from adapter info is used for initialization only (as it won't change). * * The firmware_path/nvram_path module parameter may be changed by the system at run * time. When it changes we need to copy it to dhdinfo->fw_path. Also Android private * command may change dhdinfo->fw_path. As such we need to clear the path info in * module parameter after it is copied. We won't update the path until the module parameter * is changed again (first character is not '\0') */ /* set default firmware and nvram path for built-in type driver */ if (!dhd_download_fw_on_driverload) { #ifdef DHD_LINUX_STD_FW_API fw = DHD_FW_NAME; nv = DHD_NVRAM_NAME; #else #ifdef CONFIG_BCMDHD_FW_PATH fw = VENDOR_PATH CONFIG_BCMDHD_FW_PATH; #endif /* CONFIG_BCMDHD_FW_PATH */ #ifdef CONFIG_BCMDHD_NVRAM_PATH nv = VENDOR_PATH CONFIG_BCMDHD_NVRAM_PATH; #endif /* CONFIG_BCMDHD_NVRAM_PATH */ #endif /* DHD_LINUX_STD_FW_API */ } /* check if we need to initialize the path */ if (dhdinfo->fw_path[0] == '\0') { if (adapter && adapter->fw_path && adapter->fw_path[0] != '\0') { fw = adapter->fw_path; } } if (dhdinfo->nv_path[0] == '\0') { if (adapter && adapter->nv_path && adapter->nv_path[0] != '\0') nv = adapter->nv_path; } /* Use module parameter if it is valid, EVEN IF the path has not been initialized * * TODO: need a solution for multi-chip, can't use the same firmware for all chips */ if (firmware_path[0] != '\0') { /* Newline is getting added sometimes when firmware_path module parameter * is updated via command line using echo command, due to which * file not found error is seen, hence replacing '\n' with '\0'. */ if (firmware_path[strlen(firmware_path)-1] == '\n') { firmware_path[strlen(firmware_path)-1] = '\0'; } fw = firmware_path; } if (nvram_path[0] != '\0') { if (nvram_path[strlen(nvram_path)-1] == '\n') { nvram_path[strlen(nvram_path)-1] = '\0'; } nv = nvram_path; } if (signature_path[0] != '\0') { if (signature_path[strlen(signature_path) - 1] == '\n') { signature_path[strlen(signature_path) - 1] = '\0'; } } #ifdef DHD_UCODE_DOWNLOAD if (ucode_path[0] != '\0') uc = ucode_path; #endif /* DHD_UCODE_DOWNLOAD */ #ifdef BCM_ROUTER_DHD if (!fw) { char var[32]; snprintf(var, sizeof(var), "firmware_path%d", dhdinfo->unit); fw = nvram_get(var); } if (!nv) { char var[32]; snprintf(var, sizeof(var), "nvram_path%d", dhdinfo->unit); nv = nvram_get(var); } DHD_ERROR(("dhd:%d: fw path:%s nv path:%s\n", dhdinfo->unit, fw, nv)); #endif if (fw && fw[0] != '\0') { fw_len = strlen(fw); if (fw_len >= fw_path_len) { DHD_ERROR(("fw path len exceeds max len of dhdinfo->fw_path\n")); return FALSE; } strlcpy(dhdinfo->fw_path, fw, fw_path_len); } if (nv && nv[0] != '\0') { nv_len = strlen(nv); if (nv_len >= nv_path_len) { DHD_ERROR(("nvram path len exceeds max len of dhdinfo->nv_path\n")); return FALSE; } memset(dhdinfo->nv_path, 0, nv_path_len); strlcpy(dhdinfo->nv_path, nv, nv_path_len); #ifdef DHD_USE_SINGLE_NVRAM_FILE /* Remove "_net" or "_mfg" tag from current nvram path */ { char *nvram_tag = "nvram_"; char *ext_tag = ".txt"; char *sp_nvram = strnstr(dhdinfo->nv_path, nvram_tag, nv_path_len); bool valid_buf = sp_nvram && ((uint32)(sp_nvram + strlen(nvram_tag) + strlen(ext_tag) - dhdinfo->nv_path) <= nv_path_len); if (valid_buf) { char *sp = sp_nvram + strlen(nvram_tag) - 1; uint32 padding_size = (uint32)(dhdinfo->nv_path + nv_path_len - sp); memset(sp, 0, padding_size); strncat(dhdinfo->nv_path, ext_tag, strlen(ext_tag)); nv_len = strlen(dhdinfo->nv_path); DHD_INFO(("%s: new nvram path = %s\n", __FUNCTION__, dhdinfo->nv_path)); } else if (sp_nvram) { DHD_ERROR(("%s: buffer space for nvram path is not enough\n", __FUNCTION__)); return FALSE; } else { DHD_ERROR(("%s: Couldn't find the nvram tag. current" " nvram path = %s\n", __FUNCTION__, dhdinfo->nv_path)); } } #endif /* DHD_USE_SINGLE_NVRAM_FILE */ } if (signature_path[0] != '\0') { sig_len = strlen(fw); if (sig_len >= sig_path_len) { DHD_ERROR(("signature path len exceeds max len of dhdinfo->sig_path\n")); return FALSE; } strlcpy(dhdinfo->sig_path, signature_path, sig_path_len); } #ifdef DHD_UCODE_DOWNLOAD if (uc && uc[0] != '\0') { uc_len = strlen(uc); if (uc_len >= sizeof(dhdinfo->uc_path)) { DHD_ERROR(("uc path len exceeds max len of dhdinfo->uc_path\n")); return FALSE; } strlcpy(dhdinfo->uc_path, uc, sizeof(dhdinfo->uc_path)); } #endif /* DHD_UCODE_DOWNLOAD */ /* clear the path in module parameter */ if (dhd_download_fw_on_driverload) { firmware_path[0] = '\0'; nvram_path[0] = '\0'; signature_path[0] = '\0'; } #ifdef DHD_UCODE_DOWNLOAD ucode_path[0] = '\0'; DHD_ERROR(("ucode path: %s\n", dhdinfo->uc_path)); #endif /* DHD_UCODE_DOWNLOAD */ #ifndef BCMEMBEDIMAGE /* fw_path and nv_path are not mandatory for BCMEMBEDIMAGE */ if (dhdinfo->fw_path[0] == '\0') { DHD_ERROR(("firmware path not found\n")); return FALSE; } if (dhdinfo->nv_path[0] == '\0') { DHD_ERROR(("nvram path not found\n")); return FALSE; } #endif /* BCMEMBEDIMAGE */ return TRUE; } #if defined(BT_OVER_SDIO) extern bool dhd_update_btfw_path(dhd_info_t *dhdinfo, char* btfw_path) { int fw_len; const char *fw = NULL; wifi_adapter_info_t *adapter = dhdinfo->adapter; /* Update bt firmware path. The path may be from adapter info or module parameter * The path from adapter info is used for initialization only (as it won't change). * * The btfw_path module parameter may be changed by the system at run * time. When it changes we need to copy it to dhdinfo->btfw_path. Also Android private * command may change dhdinfo->btfw_path. As such we need to clear the path info in * module parameter after it is copied. We won't update the path until the module parameter * is changed again (first character is not '\0') */ /* set default firmware and nvram path for built-in type driver */ if (!dhd_download_fw_on_driverload) { #ifdef CONFIG_BCMDHD_BTFW_PATH fw = CONFIG_BCMDHD_BTFW_PATH; #endif /* CONFIG_BCMDHD_FW_PATH */ } /* check if we need to initialize the path */ if (dhdinfo->btfw_path[0] == '\0') { if (adapter && adapter->btfw_path && adapter->btfw_path[0] != '\0') fw = adapter->btfw_path; } /* Use module parameter if it is valid, EVEN IF the path has not been initialized */ if (btfw_path[0] != '\0') fw = btfw_path; if (fw && fw[0] != '\0') { fw_len = strlen(fw); if (fw_len >= sizeof(dhdinfo->btfw_path)) { DHD_ERROR(("fw path len exceeds max len of dhdinfo->btfw_path\n")); return FALSE; } strlcpy(dhdinfo->btfw_path, fw, sizeof(dhdinfo->btfw_path)); } /* clear the path in module parameter */ btfw_path[0] = '\0'; if (dhdinfo->btfw_path[0] == '\0') { DHD_ERROR(("bt firmware path not found\n")); return FALSE; } return TRUE; } #endif /* defined (BT_OVER_SDIO) */ #if defined(BT_OVER_SDIO) wlan_bt_handle_t dhd_bt_get_pub_hndl(void) { DHD_ERROR(("%s: g_dhd_pub %p\n", __FUNCTION__, g_dhd_pub)); /* assuming that dhd_pub_t type pointer is available from a global variable */ return (wlan_bt_handle_t) g_dhd_pub; } EXPORT_SYMBOL(dhd_bt_get_pub_hndl); int dhd_download_btfw(wlan_bt_handle_t handle, char* btfw_path) { int ret = -1; dhd_pub_t *dhdp = (dhd_pub_t *)handle; dhd_info_t *dhd = (dhd_info_t*)dhdp->info; /* Download BT firmware image to the dongle */ if (dhd->pub.busstate == DHD_BUS_DATA && dhd_update_btfw_path(dhd, btfw_path)) { DHD_INFO(("%s: download btfw from: %s\n", __FUNCTION__, dhd->btfw_path)); ret = dhd_bus_download_btfw(dhd->pub.bus, dhd->pub.osh, dhd->btfw_path); if (ret < 0) { DHD_ERROR(("%s: failed to download btfw from: %s\n", __FUNCTION__, dhd->btfw_path)); return ret; } } return ret; } EXPORT_SYMBOL(dhd_download_btfw); #endif /* defined (BT_OVER_SDIO) */ int dhd_bus_start(dhd_pub_t *dhdp) { int ret = -1; dhd_info_t *dhd = (dhd_info_t*)dhdp->info; unsigned long flags; #if defined(DHD_DEBUG) && defined(BCMSDIO) int fw_download_start = 0, fw_download_end = 0, f2_sync_start = 0, f2_sync_end = 0; #endif /* DHD_DEBUG && BCMSDIO */ ASSERT(dhd); DHD_TRACE(("Enter %s:\n", __FUNCTION__)); dhdp->memdump_type = 0; dhdp->dongle_trap_occured = 0; #ifdef DHD_SSSR_DUMP dhdp->collect_sssr = FALSE; #endif /* DHD_SSSR_DUMP */ #ifdef DHD_SDTC_ETB_DUMP dhdp->collect_sdtc = FALSE; #endif /* DHD_SDTC_ETB_DUMP */ #if defined(BCMPCIE) if (dhdp->extended_trap_data) { memset(dhdp->extended_trap_data, 0, BCMPCIE_EXT_TRAP_DATA_MAXLEN); } #endif /* BCMPCIE */ #ifdef DHD_SSSR_DUMP /* Flag to indicate sssr dump is collected */ dhdp->sssr_dump_collected = 0; #endif /* DHD_SSSR_DUMP */ dhdp->iovar_timeout_occured = 0; #ifdef PCIE_FULL_DONGLE dhdp->d3ack_timeout_occured = 0; dhdp->livelock_occured = 0; dhdp->pktid_audit_failed = 0; dhdp->pktid_invalid_occured = 0; #endif /* PCIE_FULL_DONGLE */ dhd->pub.iface_op_failed = 0; dhd->pub.scan_timeout_occurred = 0; dhd->pub.scan_busy_occurred = 0; dhd->pub.p2p_disc_busy_occurred = 0; /* Retain BH induced errors and clear induced error during initialize */ if (dhd->pub.dhd_induce_error) { dhd->pub.dhd_induce_bh_error = dhd->pub.dhd_induce_error; } dhd->pub.dhd_induce_error = DHD_INDUCE_ERROR_CLEAR; #ifdef DHD_MAP_PKTID_LOGGING dhd->pub.enable_pktid_log_dump = FALSE; #endif /* DHD_MAP_PKTID_LOGGING */ #ifdef DHD_SUPPORT_SPMI_MODE dhd->pub.dhd_spmi_mode = spmi_mode; #endif /* DHD_SUPPORT_SPMI_MODE */ dhd->pub.tput_test_done = FALSE; /* try to download image and nvram to the dongle */ if (dhd->pub.busstate == DHD_BUS_DOWN && dhd_update_fw_nv_path(dhd)) { /* Indicate FW Download has not yet done */ dhd->pub.fw_download_status = FW_DOWNLOAD_IN_PROGRESS; DHD_INFO(("%s download fw %s, nv %s\n", __FUNCTION__, dhd->fw_path, dhd->nv_path)); #if defined(DHD_DEBUG) && defined(BCMSDIO) fw_download_start = OSL_SYSUPTIME(); #endif /* DHD_DEBUG && BCMSDIO */ dhd_bus_set_signature_path(dhd->pub.bus, dhd->sig_path); ret = dhd_bus_download_firmware(dhd->pub.bus, dhd->pub.osh, dhd->fw_path, dhd->nv_path); #if defined(DHD_DEBUG) && defined(BCMSDIO) fw_download_end = OSL_SYSUPTIME(); #endif /* DHD_DEBUG && BCMSDIO */ if (ret < 0) { DHD_ERROR(("%s: failed to download firmware %s\n", __FUNCTION__, dhd->fw_path)); return ret; } /* Indicate FW Download has succeeded */ dhd->pub.fw_download_status = FW_DOWNLOAD_DONE; } if (dhd->pub.busstate != DHD_BUS_LOAD) { return -ENETDOWN; } #ifdef BCMSDIO dhd_os_sdlock(dhdp); #endif /* BCMSDIO */ /* Start the watchdog timer */ dhd->pub.tickcnt = 0; dhd_os_wd_timer(&dhd->pub, dhd_watchdog_ms); /* Bring up the bus */ if ((ret = dhd_bus_init(&dhd->pub, FALSE)) != 0) { DHD_ERROR(("%s, dhd_bus_init failed %d\n", __FUNCTION__, ret)); #ifdef BCMSDIO dhd_os_sdunlock(dhdp); #endif /* BCMSDIO */ return ret; } /* Host registration for OOB interrupt */ if (dhd_bus_oob_intr_register(dhdp)) { /* deactivate timer and wait for the handler to finish */ #if !defined(BCMPCIE_OOB_HOST_WAKE) DHD_GENERAL_LOCK(&dhd->pub, flags); dhd->wd_timer_valid = FALSE; DHD_GENERAL_UNLOCK(&dhd->pub, flags); del_timer_sync(&dhd->timer); #endif /* !BCMPCIE_OOB_HOST_WAKE */ DHD_STOP_RPM_TIMER(&dhd->pub); DHD_ERROR(("%s Host failed to register for OOB\n", __FUNCTION__)); DHD_OS_WD_WAKE_UNLOCK(&dhd->pub); return -ENODEV; } #if defined(BCMPCIE_OOB_HOST_WAKE) dhd_bus_oob_intr_set(dhdp, TRUE); #else /* Enable oob at firmware */ dhd_enable_oob_intr(dhd->pub.bus, TRUE); #endif /* BCMPCIE_OOB_HOST_WAKE */ #ifdef PCIE_FULL_DONGLE { /* max_h2d_rings includes H2D common rings */ uint32 max_h2d_rings = dhd_bus_max_h2d_queues(dhd->pub.bus); DHD_INFO(("%s: Initializing %u h2drings\n", __FUNCTION__, max_h2d_rings)); if ((ret = dhd_flow_rings_init(&dhd->pub, max_h2d_rings)) != BCME_OK) { #ifdef BCMSDIO dhd_os_sdunlock(dhdp); #endif /* BCMSDIO */ return ret; } } #endif /* PCIE_FULL_DONGLE */ /* set default value for now. Will be updated again in dhd_preinit_ioctls() * after querying FW */ dhdp->event_log_max_sets = NUM_EVENT_LOG_SETS; dhdp->event_log_max_sets_queried = FALSE; dhdp->smmu_fault_occurred = 0; #ifdef DNGL_AXI_ERROR_LOGGING dhdp->axi_error = FALSE; #endif /* DNGL_AXI_ERROR_LOGGING */ /* Do protocol initialization necessary for IOCTL/IOVAR */ ret = dhd_prot_init(&dhd->pub); if (unlikely(ret) != BCME_OK) { DHD_OS_WD_WAKE_UNLOCK(&dhd->pub); return ret; } /* If bus is not ready, can't come up */ if (dhd->pub.busstate != DHD_BUS_DATA) { DHD_GENERAL_LOCK(&dhd->pub, flags); dhd->wd_timer_valid = FALSE; DHD_GENERAL_UNLOCK(&dhd->pub, flags); del_timer_sync(&dhd->timer); DHD_ERROR(("%s failed bus is not ready\n", __FUNCTION__)); DHD_STOP_RPM_TIMER(&dhd->pub); #ifdef BCMSDIO dhd_os_sdunlock(dhdp); #endif /* BCMSDIO */ DHD_OS_WD_WAKE_UNLOCK(&dhd->pub); return -ENODEV; } #ifdef BCMSDIO dhd_os_sdunlock(dhdp); #endif /* BCMSDIO */ /* Bus is ready, query any dongle information */ /* XXX Since dhd_sync_with_dongle can sleep, should module count surround it? */ #if defined(DHD_DEBUG) && defined(BCMSDIO) f2_sync_start = OSL_SYSUPTIME(); #endif /* DHD_DEBUG && BCMSDIO */ if ((ret = dhd_sync_with_dongle(&dhd->pub)) < 0) { DHD_GENERAL_LOCK(&dhd->pub, flags); dhd->wd_timer_valid = FALSE; DHD_GENERAL_UNLOCK(&dhd->pub, flags); del_timer_sync(&dhd->timer); DHD_ERROR(("%s failed to sync with dongle\n", __FUNCTION__)); DHD_OS_WD_WAKE_UNLOCK(&dhd->pub); return ret; } #if defined(BCMPCIE) /* XXX: JIRA SWWLAN-139454: Added L1ss enable * after firmware download completion due to link down issue * JIRA SWWLAN-142236: Amendment - Changed L1ss enable point */ DHD_RPM(("%s: Enable L1ss EP side\n", __FUNCTION__)); dhd_plat_l1ss_ctrl(1); #endif /* BCMPCIE */ #if defined(DHD_DEBUG) && defined(BCMSDIO) f2_sync_end = OSL_SYSUPTIME(); DHD_ERROR(("Time taken for FW download and F2 ready is: %d msec\n", (fw_download_end - fw_download_start) + (f2_sync_end - f2_sync_start))); #endif /* DHD_DEBUG && BCMSDIO */ #ifdef ARP_OFFLOAD_SUPPORT if (dhd->pend_ipaddr) { #ifdef AOE_IP_ALIAS_SUPPORT /* XXX Assume pending ip address is belong to primary interface */ aoe_update_host_ipv4_table(&dhd->pub, dhd->pend_ipaddr, TRUE, 0); #endif /* AOE_IP_ALIAS_SUPPORT */ dhd->pend_ipaddr = 0; } #endif /* ARP_OFFLOAD_SUPPORT */ #if defined(BCM_ROUTER_DHD) bzero(&dhd->pub.dhd_tm_dwm_tbl, sizeof(dhd_trf_mgmt_dwm_tbl_t)); #endif /* BCM_ROUTER_DHD */ return 0; } #endif /* BCMDBUS */ #ifdef WLTDLS int _dhd_tdls_enable(dhd_pub_t *dhd, bool tdls_on, bool auto_on, struct ether_addr *mac) { uint32 tdls = tdls_on; int ret = 0; uint32 tdls_auto_op = 0; uint32 tdls_idle_time = CUSTOM_TDLS_IDLE_MODE_SETTING; int32 tdls_rssi_high = CUSTOM_TDLS_RSSI_THRESHOLD_HIGH; int32 tdls_rssi_low = CUSTOM_TDLS_RSSI_THRESHOLD_LOW; uint32 tdls_pktcnt_high = CUSTOM_TDLS_PCKTCNT_THRESHOLD_HIGH; uint32 tdls_pktcnt_low = CUSTOM_TDLS_PCKTCNT_THRESHOLD_LOW; BCM_REFERENCE(mac); if (!FW_SUPPORTED(dhd, tdls)) return BCME_ERROR; if (dhd->tdls_enable == tdls_on) goto auto_mode; ret = dhd_iovar(dhd, 0, "tdls_enable", (char *)&tdls, sizeof(tdls), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s: tdls %d failed %d\n", __FUNCTION__, tdls, ret)); goto exit; } dhd->tdls_enable = tdls_on; auto_mode: tdls_auto_op = auto_on; ret = dhd_iovar(dhd, 0, "tdls_auto_op", (char *)&tdls_auto_op, sizeof(tdls_auto_op), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s: tdls_auto_op failed %d\n", __FUNCTION__, ret)); goto exit; } if (tdls_auto_op) { ret = dhd_iovar(dhd, 0, "tdls_idle_time", (char *)&tdls_idle_time, sizeof(tdls_idle_time), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s: tdls_idle_time failed %d\n", __FUNCTION__, ret)); goto exit; } ret = dhd_iovar(dhd, 0, "tdls_rssi_high", (char *)&tdls_rssi_high, sizeof(tdls_rssi_high), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s: tdls_rssi_high failed %d\n", __FUNCTION__, ret)); goto exit; } ret = dhd_iovar(dhd, 0, "tdls_rssi_low", (char *)&tdls_rssi_low, sizeof(tdls_rssi_low), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s: tdls_rssi_low failed %d\n", __FUNCTION__, ret)); goto exit; } ret = dhd_iovar(dhd, 0, "tdls_trigger_pktcnt_high", (char *)&tdls_pktcnt_high, sizeof(tdls_pktcnt_high), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s: tdls_trigger_pktcnt_high failed %d\n", __FUNCTION__, ret)); goto exit; } ret = dhd_iovar(dhd, 0, "tdls_trigger_pktcnt_low", (char *)&tdls_pktcnt_low, sizeof(tdls_pktcnt_low), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s: tdls_trigger_pktcnt_low failed %d\n", __FUNCTION__, ret)); goto exit; } } exit: return ret; } int dhd_tdls_enable(struct net_device *dev, bool tdls_on, bool auto_on, struct ether_addr *mac) { dhd_info_t *dhd = DHD_DEV_INFO(dev); int ret = 0; if (dhd) ret = _dhd_tdls_enable(&dhd->pub, tdls_on, auto_on, mac); else ret = BCME_ERROR; return ret; } int dhd_tdls_set_mode(dhd_pub_t *dhd, bool wfd_mode) { int ret = 0; bool auto_on = false; uint32 mode = wfd_mode; #ifdef ENABLE_TDLS_AUTO_MODE if (wfd_mode) { auto_on = false; } else { auto_on = true; } #else auto_on = false; #endif /* ENABLE_TDLS_AUTO_MODE */ ret = _dhd_tdls_enable(dhd, false, auto_on, NULL); if (ret < 0) { DHD_ERROR(("Disable tdls_auto_op failed. %d\n", ret)); return ret; } ret = dhd_iovar(dhd, 0, "tdls_wfd_mode", (char *)&mode, sizeof(mode), NULL, 0, TRUE); if ((ret < 0) && (ret != BCME_UNSUPPORTED)) { DHD_ERROR(("%s: tdls_wfd_mode faile_wfd_mode %d\n", __FUNCTION__, ret)); return ret; } ret = _dhd_tdls_enable(dhd, true, auto_on, NULL); if (ret < 0) { DHD_ERROR(("enable tdls_auto_op failed. %d\n", ret)); return ret; } dhd->tdls_mode = mode; return ret; } #ifdef PCIE_FULL_DONGLE int dhd_tdls_update_peer_info(dhd_pub_t *dhdp, wl_event_msg_t *event) { dhd_pub_t *dhd_pub = dhdp; tdls_peer_node_t *cur = dhd_pub->peer_tbl.node; tdls_peer_node_t *new = NULL, *prev = NULL; int ifindex = dhd_ifname2idx(dhd_pub->info, event->ifname); uint8 *da = (uint8 *)&event->addr.octet[0]; bool connect = FALSE; uint32 reason = ntoh32(event->reason); unsigned long flags; /* No handling needed for peer discovered reason */ if (reason == WLC_E_TDLS_PEER_DISCOVERED) { return BCME_ERROR; } if (reason == WLC_E_TDLS_PEER_CONNECTED) connect = TRUE; else if (reason == WLC_E_TDLS_PEER_DISCONNECTED) connect = FALSE; else { DHD_ERROR(("%s: TDLS Event reason is unknown\n", __FUNCTION__)); return BCME_ERROR; } if (ifindex == DHD_BAD_IF) return BCME_ERROR; if (connect) { while (cur != NULL) { if (!memcmp(da, cur->addr, ETHER_ADDR_LEN)) { DHD_ERROR(("%s: TDLS Peer exist already %d\n", __FUNCTION__, __LINE__)); return BCME_ERROR; } cur = cur->next; } new = MALLOC(dhd_pub->osh, sizeof(tdls_peer_node_t)); if (new == NULL) { DHD_ERROR(("%s: Failed to allocate memory\n", __FUNCTION__)); return BCME_ERROR; } memcpy(new->addr, da, ETHER_ADDR_LEN); DHD_TDLS_LOCK(&dhdp->tdls_lock, flags); new->next = dhd_pub->peer_tbl.node; dhd_pub->peer_tbl.node = new; dhd_pub->peer_tbl.tdls_peer_count++; DHD_ERROR(("%s: Add TDLS peer, count=%d " MACDBG "\n", __FUNCTION__, dhd_pub->peer_tbl.tdls_peer_count, MAC2STRDBG((char *)da))); DHD_TDLS_UNLOCK(&dhdp->tdls_lock, flags); } else { while (cur != NULL) { if (!memcmp(da, cur->addr, ETHER_ADDR_LEN)) { dhd_flow_rings_delete_for_peer(dhd_pub, (uint8)ifindex, da); DHD_TDLS_LOCK(&dhdp->tdls_lock, flags); if (prev) prev->next = cur->next; else dhd_pub->peer_tbl.node = cur->next; MFREE(dhd_pub->osh, cur, sizeof(tdls_peer_node_t)); dhd_pub->peer_tbl.tdls_peer_count--; DHD_ERROR(("%s: Remove TDLS peer, count=%d " MACDBG "\n", __FUNCTION__, dhd_pub->peer_tbl.tdls_peer_count, MAC2STRDBG((char *)da))); DHD_TDLS_UNLOCK(&dhdp->tdls_lock, flags); return BCME_OK; } prev = cur; cur = cur->next; } DHD_ERROR(("%s: TDLS Peer Entry Not found\n", __FUNCTION__)); } return BCME_OK; } #endif /* PCIE_FULL_DONGLE */ #endif /* BCMDBUS */ bool dhd_is_concurrent_mode(dhd_pub_t *dhd) { if (!dhd) return FALSE; if (dhd->op_mode & DHD_FLAG_CONCURR_MULTI_CHAN_MODE) return TRUE; else if ((dhd->op_mode & DHD_FLAG_CONCURR_SINGLE_CHAN_MODE) == DHD_FLAG_CONCURR_SINGLE_CHAN_MODE) return TRUE; else return FALSE; } #if defined(READ_CONFIG_FROM_FILE) #include #include #define strtoul(nptr, endptr, base) bcm_strtoul((nptr), (endptr), (base)) bool PM_control = TRUE; static int dhd_preinit_proc(dhd_pub_t *dhd, int ifidx, char *name, char *value) { int var_int; wl_country_t cspec = {{0}, -1, {0}}; char *revstr; char *endptr = NULL; #ifdef ROAM_AP_ENV_DETECTION int roam_env_mode = AP_ENV_INDETERMINATE; #endif /* ROAM_AP_ENV_DETECTION */ if (!strcmp(name, "country")) { revstr = strchr(value, '/'); #if defined(DHD_BLOB_EXISTENCE_CHECK) if (dhd->is_blob) { cspec.rev = 0; memcpy(cspec.country_abbrev, value, WLC_CNTRY_BUF_SZ); memcpy(cspec.ccode, value, WLC_CNTRY_BUF_SZ); } else #endif /* DHD_BLOB_EXISTENCE_CHECK */ { if (revstr) { cspec.rev = strtoul(revstr + 1, &endptr, 10); memcpy(cspec.country_abbrev, value, WLC_CNTRY_BUF_SZ); cspec.country_abbrev[2] = '\0'; memcpy(cspec.ccode, cspec.country_abbrev, WLC_CNTRY_BUF_SZ); } else { cspec.rev = -1; memcpy(cspec.country_abbrev, value, WLC_CNTRY_BUF_SZ); memcpy(cspec.ccode, value, WLC_CNTRY_BUF_SZ); get_customized_country_code(dhd->info->adapter, (char *)&cspec.country_abbrev, &cspec); } } DHD_ERROR(("config country code is country : %s, rev : %d !!\n", cspec.country_abbrev, cspec.rev)); return dhd_iovar(dhd, 0, "country", (char*)&cspec, sizeof(cspec), NULL, 0, TRUE); } else if (!strcmp(name, "roam_scan_period")) { var_int = (int)simple_strtol(value, NULL, 0); return dhd_wl_ioctl_cmd(dhd, WLC_SET_ROAM_SCAN_PERIOD, &var_int, sizeof(var_int), TRUE, 0); } else if (!strcmp(name, "roam_delta")) { struct { int val; int band; } x; x.val = (int)simple_strtol(value, NULL, 0); /* x.band = WLC_BAND_AUTO; */ x.band = WLC_BAND_ALL; return dhd_wl_ioctl_cmd(dhd, WLC_SET_ROAM_DELTA, &x, sizeof(x), TRUE, 0); } else if (!strcmp(name, "roam_trigger")) { int ret = 0; int roam_trigger[2]; roam_trigger[0] = (int)simple_strtol(value, NULL, 0); roam_trigger[1] = WLC_BAND_ALL; ret = dhd_wl_ioctl_cmd(dhd, WLC_SET_ROAM_TRIGGER, &roam_trigger, sizeof(roam_trigger), TRUE, 0); #ifdef ROAM_AP_ENV_DETECTION if (roam_trigger[0] == WL_AUTO_ROAM_TRIGGER) { if (dhd_iovar(dhd, 0, "roam_env_detection", (char *)&roam_env_mode, sizeof(roam_env_mode), NULL, 0, TRUE) == BCME_OK) { dhd->roam_env_detection = TRUE; } else { dhd->roam_env_detection = FALSE; } } #endif /* ROAM_AP_ENV_DETECTION */ return ret; } else if (!strcmp(name, "PM")) { int ret = 0; var_int = (int)simple_strtol(value, NULL, 0); ret = dhd_wl_ioctl_cmd(dhd, WLC_SET_PM, &var_int, sizeof(var_int), TRUE, 0); #if defined(DHD_PM_CONTROL_FROM_FILE) || defined(CONFIG_PM_LOCK) if (var_int == 0) { g_pm_control = TRUE; printk("%s var_int=%d don't control PM\n", __func__, var_int); } else { g_pm_control = FALSE; printk("%s var_int=%d do control PM\n", __func__, var_int); } #endif return ret; } else if (!strcmp(name, "band")) { int ret; if (!strcmp(value, "auto")) var_int = WLC_BAND_AUTO; else if (!strcmp(value, "a")) var_int = WLC_BAND_5G; else if (!strcmp(value, "b")) var_int = WLC_BAND_2G; else if (!strcmp(value, "all")) var_int = WLC_BAND_ALL; else { printk(" set band value should be one of the a or b or all\n"); var_int = WLC_BAND_AUTO; } if ((ret = dhd_wl_ioctl_cmd(dhd, WLC_SET_BAND, &var_int, sizeof(var_int), TRUE, 0)) < 0) printk(" set band err=%d\n", ret); return ret; } else if (!strcmp(name, "cur_etheraddr")) { struct ether_addr ea; int ret; bcm_ether_atoe(value, &ea); ret = memcmp(&ea.octet, dhd->mac.octet, ETHER_ADDR_LEN); if (ret == 0) { DHD_ERROR(("%s: Same Macaddr\n", __FUNCTION__)); return 0; } DHD_ERROR(("%s: Change Macaddr = %02X:%02X:%02X:%02X:%02X:%02X\n", __FUNCTION__, ea.octet[0], ea.octet[1], ea.octet[2], ea.octet[3], ea.octet[4], ea.octet[5])); ret = dhd_iovar(dhd, 0, "cur_etheraddr", (char*)&ea, ETHER_ADDR_LEN, NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s: can't set MAC address , error=%d\n", __FUNCTION__, ret)); return ret; } else { memcpy(dhd->mac.octet, (void *)&ea, ETHER_ADDR_LEN); return ret; } } else if (!strcmp(name, "lpc")) { int ret = 0; var_int = (int)simple_strtol(value, NULL, 0); if (dhd_wl_ioctl_cmd(dhd, WLC_DOWN, NULL, 0, TRUE, 0) < 0) { DHD_ERROR(("%s: wl down failed\n", __FUNCTION__)); } ret = dhd_iovar(dhd, 0, "lpc", (char *)&var_int, sizeof(var_int), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s Set lpc failed %d\n", __FUNCTION__, ret)); } if (dhd_wl_ioctl_cmd(dhd, WLC_UP, NULL, 0, TRUE, 0) < 0) { DHD_ERROR(("%s: wl up failed\n", __FUNCTION__)); } return ret; } else if (!strcmp(name, "vht_features")) { int ret = 0; var_int = (int)simple_strtol(value, NULL, 0); if (dhd_wl_ioctl_cmd(dhd, WLC_DOWN, NULL, 0, TRUE, 0) < 0) { DHD_ERROR(("%s: wl down failed\n", __FUNCTION__)); } ret = dhd_iovar(dhd, 0, "vht_features", (char *)&var_int, sizeof(var_int), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s Set vht_features failed %d\n", __FUNCTION__, ret)); } if (dhd_wl_ioctl_cmd(dhd, WLC_UP, NULL, 0, TRUE, 0) < 0) { DHD_ERROR(("%s: wl up failed\n", __FUNCTION__)); } return ret; } else { /* wlu_iovar_setint */ var_int = (int)simple_strtol(value, NULL, 0); /* Setup timeout bcm_timeout from dhd driver 4.217.48 */ DHD_INFO(("%s:[%s]=[%d]\n", __FUNCTION__, name, var_int)); return dhd_iovar(dhd, 0, name, (char *)&var_int, sizeof(var_int), NULL, 0, TRUE); } return 0; } static int dhd_preinit_config(dhd_pub_t *dhd, int ifidx) { mm_segment_t old_fs; struct kstat stat; struct file *fp = NULL; unsigned int len; char *buf = NULL, *p, *name, *value; int ret = 0; char *config_path; config_path = CONFIG_BCMDHD_CONFIG_PATH; if (!config_path) { printk(KERN_ERR "config_path can't read. \n"); return 0; } old_fs = get_fs(); set_fs(get_ds()); if ((ret = dhd_vfs_stat(config_path, &stat))) { set_fs(old_fs); printk(KERN_ERR "%s: Failed to get information (%d)\n", config_path, ret); return ret; } set_fs(old_fs); if (!(buf = MALLOC(dhd->osh, stat.size + 1))) { printk(KERN_ERR "Failed to allocate memory %llu bytes\n", stat.size); return -ENOMEM; } memset(buf, 0x0, stat.size + 1); printk("dhd_preinit_config : config path : %s \n", config_path); if (!(fp = dhd_os_open_image1(dhd, config_path)) || (len = dhd_os_get_image_block(buf, stat.size, fp)) < 0) goto err; if (len != stat.size) { printk("dhd_preinit_config : Error - read length mismatched len = %d\n", len); goto err; } buf[stat.size] = '\0'; for (p = buf; *p; p++) { if (isspace(*p)) continue; for (name = p++; *p && !isspace(*p); p++) { if (*p == '=') { *p = '\0'; p++; for (value = p; *p && !isspace(*p); p++); *p = '\0'; if ((ret = dhd_preinit_proc(dhd, ifidx, name, value)) < 0) { printk(KERN_ERR "%s: %s=%s\n", bcmerrorstr(ret), name, value); } break; } } } ret = 0; out: if (fp) dhd_os_close_image1(dhd, fp); if (buf) MFREE(dhd->osh, buf, stat.size+1); return ret; err: ret = -1; goto out; } #endif /* READ_CONFIG_FROM_FILE */ #if defined(WLADPS) || defined(WLADPS_PRIVATE_CMD) int dhd_enable_adps(dhd_pub_t *dhd, uint8 on) { int i; int len; int ret = BCME_OK; bcm_iov_buf_t *iov_buf = NULL; wl_adps_params_v1_t *data = NULL; len = OFFSETOF(bcm_iov_buf_t, data) + sizeof(*data); iov_buf = MALLOC(dhd->osh, len); if (iov_buf == NULL) { DHD_ERROR(("%s - failed to allocate %d bytes for iov_buf\n", __FUNCTION__, len)); ret = BCME_NOMEM; goto exit; } iov_buf->version = WL_ADPS_IOV_VER; iov_buf->len = sizeof(*data); iov_buf->id = WL_ADPS_IOV_MODE; data = (wl_adps_params_v1_t *)iov_buf->data; data->version = ADPS_SUB_IOV_VERSION_1; data->length = sizeof(*data); data->mode = on; for (i = 1; i <= MAX_BANDS; i++) { data->band = i; ret = dhd_iovar(dhd, 0, "adps", (char *)iov_buf, len, NULL, 0, TRUE); if (ret < 0) { if (ret == BCME_UNSUPPORTED) { DHD_ERROR(("%s adps, UNSUPPORTED\n", __FUNCTION__)); ret = BCME_OK; goto exit; } else { DHD_ERROR(("%s fail to set adps %s for band %d (%d)\n", __FUNCTION__, on ? "On" : "Off", i, ret)); goto exit; } } } exit: if (iov_buf) { MFREE(dhd->osh, iov_buf, len); } return ret; } #endif /* WLADPS || WLADPS_PRIVATE_CMD */ int dhd_get_preserve_log_numbers(dhd_pub_t *dhd, uint64 *logset_mask) { wl_el_set_type_t logset_type, logset_op; wl_el_set_all_type_v1_t *logset_all_type_op = NULL; bool use_logset_all_type = FALSE; int ret = BCME_ERROR; int err = 0; uint8 i = 0; int el_set_all_type_len; if (!dhd || !logset_mask) return BCME_BADARG; el_set_all_type_len = OFFSETOF(wl_el_set_all_type_v1_t, set_type) + (sizeof(wl_el_set_type_v1_t) * dhd->event_log_max_sets); logset_all_type_op = (wl_el_set_all_type_v1_t *) MALLOC(dhd->osh, el_set_all_type_len); if (logset_all_type_op == NULL) { DHD_ERROR(("%s: failed to allocate %d bytes for logset_all_type_op\n", __FUNCTION__, el_set_all_type_len)); return BCME_NOMEM; } *logset_mask = 0; memset(&logset_type, 0, sizeof(logset_type)); memset(&logset_op, 0, sizeof(logset_op)); logset_type.version = htod16(EVENT_LOG_SET_TYPE_CURRENT_VERSION); logset_type.len = htod16(sizeof(wl_el_set_type_t)); /* Try with set = event_log_max_sets, if fails, use legacy event_log_set_type */ logset_type.set = dhd->event_log_max_sets; err = dhd_iovar(dhd, 0, "event_log_set_type", (char *)&logset_type, sizeof(logset_type), (char *)logset_all_type_op, el_set_all_type_len, FALSE); if (err == BCME_OK) { DHD_ERROR(("%s: use optimised use_logset_all_type\n", __FUNCTION__)); use_logset_all_type = TRUE; } for (i = 0; i < dhd->event_log_max_sets; i++) { if (use_logset_all_type) { logset_op.type = logset_all_type_op->set_type[i].type_val; } else { logset_type.set = i; err = dhd_iovar(dhd, 0, "event_log_set_type", (char *)&logset_type, sizeof(logset_type), (char *)&logset_op, sizeof(logset_op), FALSE); } /* the iovar may return 'unsupported' error if a log set number is not present * in the fw, so we should not return on error ! */ if (err == BCME_OK && logset_op.type == EVENT_LOG_SET_TYPE_PRSRV) { *logset_mask |= 0x01ULL << i; ret = BCME_OK; DHD_INFO(("[INIT] logset:%d is preserve/chatty\n", i)); } } MFREE(dhd->osh, logset_all_type_op, el_set_all_type_len); return ret; } int dhd_get_fw_capabilities(dhd_pub_t * dhd) { int ret = 0; uint32 cap_buf_size = sizeof(dhd->fw_capabilities); memset(dhd->fw_capabilities, 0, cap_buf_size); ret = dhd_iovar(dhd, 0, "cap", NULL, 0, dhd->fw_capabilities, (cap_buf_size - 1), FALSE); if (ret < 0) { DHD_ERROR(("%s: Get Capability failed (error=%d)\n", __FUNCTION__, ret)); return ret; } memmove(&dhd->fw_capabilities[1], dhd->fw_capabilities, (cap_buf_size - 1)); dhd->fw_capabilities[0] = ' '; dhd->fw_capabilities[cap_buf_size - 2] = ' '; dhd->fw_capabilities[cap_buf_size - 1] = '\0'; return 0; } int dhd_optimised_preinit_ioctls(dhd_pub_t * dhd) { int ret = 0; /* Room for "event_msgs_ext" + '\0' + bitvec */ char iovbuf[WL_EVENTING_MASK_EXT_LEN + EVENTMSGS_EXT_STRUCT_SIZE + 16]; uint32 event_log_max_sets = 0; char* iov_buf = NULL; /* XXX: Use ret2 for return check of IOVARS that might return BCME_UNSUPPORTED, * based on FW build tag. */ int ret2 = 0; #if defined(WL_MONITOR) && defined(HOST_RADIOTAP_CONV) uint monitor = 0; dhd_info_t *dhdinfo = (dhd_info_t*)dhd->info; #endif /* WL_MONITOR */ #if defined(BCMSUP_4WAY_HANDSHAKE) uint32 sup_wpa = 1; #endif /* BCMSUP_4WAY_HANDSHAKE */ uint32 frameburst = CUSTOM_FRAMEBURST_SET; uint wnm_bsstrans_resp = 0; #ifdef DHD_PM_CONTROL_FROM_FILE uint power_mode = PM_FAST; #endif /* DHD_PM_CONTROL_FROM_FILE */ char buf[WLC_IOCTL_SMLEN]; char *ptr; #ifdef ROAM_ENABLE uint roamvar = 0; #ifdef ROAM_AP_ENV_DETECTION int roam_env_mode = 0; #endif /* ROAM_AP_ENV_DETECTION */ #endif /* ROAM_ENABLE */ #if defined(SOFTAP) uint dtim = 1; #endif /* xxx andrey tmp fix for dk8000 build error */ struct ether_addr p2p_ea; #ifdef GET_CUSTOM_MAC_ENABLE struct ether_addr ea_addr; #endif /* GET_CUSTOM_MAC_ENABLE */ #ifdef BCMPCIE_OOB_HOST_WAKE uint32 hostwake_oob = 0; #endif /* BCMPCIE_OOB_HOST_WAKE */ wl_wlc_version_t wlc_ver; #ifdef CUSTOM_OCL_RSSI_VAL int ocl_rssi_threshold = CUSTOM_OCL_RSSI_VAL; #endif /* CUSTOM_OCL_RSSI_VAL */ #if defined(WBTEXT) && defined(RRM_BCNREQ_MAX_CHAN_TIME) uint32 rrm_bcn_req_thrtl_win = RRM_BCNREQ_MAX_CHAN_TIME * 2; uint32 rrm_bcn_req_max_off_chan_time = RRM_BCNREQ_MAX_CHAN_TIME; #endif /* WBTEXT && RRM_BCNREQ_MAX_CHAN_TIME */ uint32 d3_hostwake_delay = D3_HOSTWAKE_DELAY; #ifdef SUPPORT_MULTIPLE_CLMBLOB char customer_clm_file_name[MAX_FILE_LEN] = {0, }; #endif /* SUPPORT_MULTIPLE_CLMBLOB */ char* apply_clm; #ifdef PKT_FILTER_SUPPORT dhd_pkt_filter_enable = TRUE; #endif /* PKT_FILTER_SUPPORT */ #ifdef APF dhd->apf_set = FALSE; #endif /* APF */ #ifdef CUSTOM_SET_OCLOFF dhd->ocl_off = FALSE; #endif /* CUSTOM_SET_OCLOFF */ #ifdef SUPPORT_SET_TID dhd->tid_mode = SET_TID_OFF; dhd->target_uid = 0; dhd->target_tid = 0; #endif /* SUPPORT_SET_TID */ DHD_TRACE(("Enter %s\n", __FUNCTION__)); dhd->op_mode = 0; #ifdef ARP_OFFLOAD_SUPPORT /* arpoe will be applied from the supsend context */ dhd->arpoe_enable = TRUE; dhd->arpol_configured = FALSE; #endif /* ARP_OFFLOAD_SUPPORT */ /* clear AP flags */ #if defined(CUSTOM_COUNTRY_CODE) dhd->dhd_cflags &= ~WLAN_PLAT_AP_FLAG; #endif /* CUSTOM_COUNTRY_CODE */ #ifdef CUSTOMER_HW4_DEBUG if (!dhd_validate_chipid(dhd)) { DHD_ERROR(("%s: CONFIG_BCMXXX and CHIP ID(%x) is mismatched\n", __FUNCTION__, dhd_bus_chip_id(dhd))); #ifndef SUPPORT_MULTIPLE_CHIPS ret = BCME_BADARG; goto done; #endif /* !SUPPORT_MULTIPLE_CHIPS */ } #endif /* CUSTOMER_HW4_DEBUG */ /* query for 'ver' to get version info from firmware */ memset(buf, 0, sizeof(buf)); ptr = buf; ret = dhd_iovar(dhd, 0, "ver", NULL, 0, (char *)&buf, sizeof(buf), FALSE); if (ret < 0) DHD_ERROR(("%s failed %d\n", __FUNCTION__, ret)); else { bcmstrtok(&ptr, "\n", 0); /* Print fw version info */ DHD_ERROR(("Firmware version = %s\n", buf)); strncpy(fw_version, buf, FW_VER_STR_LEN); fw_version[FW_VER_STR_LEN-1] = '\0'; #if defined(BCMSDIO) || defined(BCMPCIE) dhd_set_version_info(dhd, buf); #endif /* BCMSDIO || BCMPCIE */ } /* query for 'wlc_ver' to get version info from firmware */ /* memsetting to zero */ memset_s(&wlc_ver, sizeof(wl_wlc_version_t), 0, sizeof(wl_wlc_version_t)); ret = dhd_iovar(dhd, 0, "wlc_ver", NULL, 0, (char *)&wlc_ver, sizeof(wl_wlc_version_t), FALSE); if (ret < 0) DHD_ERROR(("%s failed %d\n", __FUNCTION__, ret)); else { dhd->wlc_ver_major = wlc_ver.wlc_ver_major; dhd->wlc_ver_minor = wlc_ver.wlc_ver_minor; } #ifdef BOARD_HIKEY /* Set op_mode as MFG_MODE if WLTEST is present in "wl ver" */ if (strstr(fw_version, "WLTEST") != NULL) { DHD_ERROR(("%s: wl ver has WLTEST, setting op_mode as DHD_FLAG_MFG_MODE\n", __FUNCTION__)); op_mode = DHD_FLAG_MFG_MODE; } #endif /* BOARD_HIKEY */ /* get a capabilities from firmware */ ret = dhd_get_fw_capabilities(dhd); if (ret < 0) { DHD_ERROR(("%s: Get Capability failed (error=%d)\n", __FUNCTION__, ret)); goto done; } if ((!op_mode && dhd_get_fw_mode(dhd->info) == DHD_FLAG_MFG_MODE) || (op_mode == DHD_FLAG_MFG_MODE)) { dhd->op_mode = DHD_FLAG_MFG_MODE; #ifdef DHD_PCIE_NATIVE_RUNTIMEPM /* disable runtimePM by default in MFG mode. */ pm_runtime_disable(dhd_bus_to_dev(dhd->bus)); #endif /* DHD_PCIE_NATIVE_RUNTIMEPM */ #ifdef DHD_PCIE_RUNTIMEPM /* Disable RuntimePM in mfg mode */ DHD_DISABLE_RUNTIME_PM(dhd); DHD_ERROR(("%s : Disable RuntimePM in Manufactring Firmware\n", __FUNCTION__)); #endif /* DHD_PCIE_RUNTIME_PM */ /* Check and adjust IOCTL response timeout for Manufactring firmware */ dhd_os_set_ioctl_resp_timeout(MFG_IOCTL_RESP_TIMEOUT); DHD_ERROR(("%s : Set IOCTL response time for Manufactring Firmware\n", __FUNCTION__)); #if defined(ARP_OFFLOAD_SUPPORT) dhd->arpoe_enable = FALSE; #endif /* ARP_OFFLOAD_SUPPORT */ #ifdef PKT_FILTER_SUPPORT dhd_pkt_filter_enable = FALSE; #endif /* PKT_FILTER_SUPPORT */ #ifndef CUSTOM_SET_ANTNPM if (FW_SUPPORTED(dhd, rsdb)) { wl_config_t rsdb_mode; memset(&rsdb_mode, 0, sizeof(rsdb_mode)); ret = dhd_iovar(dhd, 0, "rsdb_mode", (char *)&rsdb_mode, sizeof(rsdb_mode), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s Disable rsdb_mode is failed ret= %d\n", __FUNCTION__, ret)); } } #endif /* !CUSTOM_SET_ANTNPM */ } else { uint32 concurrent_mode = 0; dhd_os_set_ioctl_resp_timeout(IOCTL_RESP_TIMEOUT); DHD_INFO(("%s : Set IOCTL response time.\n", __FUNCTION__)); BCM_REFERENCE(concurrent_mode); dhd->op_mode = DHD_FLAG_STA_MODE; BCM_REFERENCE(p2p_ea); #if !defined(AP) && defined(WLP2P) if ((concurrent_mode = dhd_get_concurrent_capabilites(dhd))) { dhd->op_mode |= concurrent_mode; } /* Check if we are enabling p2p */ if (dhd->op_mode & DHD_FLAG_P2P_MODE) { memcpy(&p2p_ea, &dhd->mac, ETHER_ADDR_LEN); ETHER_SET_LOCALADDR(&p2p_ea); ret = dhd_iovar(dhd, 0, "p2p_da_override", (char *)&p2p_ea, sizeof(p2p_ea), NULL, 0, TRUE); if (ret < 0) DHD_ERROR(("%s p2p_da_override ret= %d\n", __FUNCTION__, ret)); else DHD_INFO(("dhd_preinit_ioctls: p2p_da_override succeeded\n")); } #endif } #ifdef BCMPCIE_OOB_HOST_WAKE ret = dhd_iovar(dhd, 0, "bus:hostwake_oob", NULL, 0, (char *)&hostwake_oob, sizeof(hostwake_oob), FALSE); if (ret < 0) { DHD_ERROR(("%s: hostwake_oob IOVAR not present, proceed\n", __FUNCTION__)); } else { if (hostwake_oob == 0) { DHD_ERROR(("%s: hostwake_oob is not enabled in the NVRAM, STOP\n", __FUNCTION__)); ret = BCME_UNSUPPORTED; goto done; } else { DHD_ERROR(("%s: hostwake_oob enabled\n", __FUNCTION__)); } } #endif /* BCMPCIE_OOB_HOST_WAKE */ #ifdef DNGL_AXI_ERROR_LOGGING ret = dhd_iovar(dhd, 0, "axierror_logbuf_addr", NULL, 0, (char *)&dhd->axierror_logbuf_addr, sizeof(dhd->axierror_logbuf_addr), FALSE); if (ret < 0) { DHD_ERROR(("%s: axierror_logbuf_addr IOVAR not present, proceed\n", __FUNCTION__)); dhd->axierror_logbuf_addr = 0; } else { DHD_ERROR(("%s: axierror_logbuf_addr : 0x%x\n", __FUNCTION__, dhd->axierror_logbuf_addr)); } #endif /* DNGL_AXI_ERROR_LOGGING */ #ifdef GET_CUSTOM_MAC_ENABLE ret = wifi_platform_get_mac_addr(dhd->info->adapter, ea_addr.octet); if (!ret) { ret = dhd_iovar(dhd, 0, "cur_etheraddr", (char *)&ea_addr, ETHER_ADDR_LEN, NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s: can't set MAC address , error=%d\n", __FUNCTION__, ret)); ret = BCME_NOTUP; goto done; } memcpy(dhd->mac.octet, ea_addr.octet, ETHER_ADDR_LEN); } else #endif /* GET_CUSTOM_MAC_ENABLE */ { /* Get the default device MAC address directly from firmware */ ret = dhd_iovar(dhd, 0, "cur_etheraddr", NULL, 0, (char *)&buf, sizeof(buf), FALSE); if (ret < 0) { DHD_ERROR(("%s: can't get MAC address , error=%d\n", __FUNCTION__, ret)); ret = BCME_NOTUP; goto done; } DHD_ERROR(("%s: use firmware generated mac_address "MACDBG"\n", __FUNCTION__, MAC2STRDBG(&buf))); #ifdef MACADDR_PROVISION_ENFORCED if (ETHER_IS_LOCALADDR(buf)) { DHD_ERROR(("%s: error! not using provision mac addr!\n", __FUNCTION__)); ret = BCME_BADADDR; goto done; } #endif /* MACADDR_PROVISION_ENFORCED */ /* Update public MAC address after reading from Firmware */ memcpy(dhd->mac.octet, buf, ETHER_ADDR_LEN); } if (ETHER_ISNULLADDR(dhd->mac.octet)) { DHD_ERROR(("%s: NULL MAC address during pre-init\n", __FUNCTION__)); ret = BCME_BADADDR; goto done; } else { (void)memcpy_s(dhd_linux_get_primary_netdev(dhd)->perm_addr, ETHER_ADDR_LEN, dhd->mac.octet, ETHER_ADDR_LEN); } #ifdef SUPPORT_MULTIPLE_CLMBLOB if (dhd_get_platform_naming_for_nvram_clmblob_file(CLM_BLOB, customer_clm_file_name) == BCME_OK) { apply_clm = customer_clm_file_name; } else #endif /* SUPPORT_MULTIPLE_CLMBLOB */ { apply_clm = clm_path; } if ((ret = dhd_apply_default_clm(dhd, apply_clm)) < 0) { DHD_ERROR(("%s: CLM set failed. Abort initialization.\n", __FUNCTION__)); goto done; } DHD_ERROR(("Firmware up: op_mode=0x%04x, MAC="MACDBG"\n", dhd->op_mode, MAC2STRDBG(dhd->mac.octet))); #if defined(DHD_BLOB_EXISTENCE_CHECK) if (!dhd->is_blob) #endif /* DHD_BLOB_EXISTENCE_CHECK */ { /* get a ccode and revision for the country code */ #if defined(CUSTOM_COUNTRY_CODE) get_customized_country_code(dhd->info->adapter, dhd->dhd_cspec.country_abbrev, &dhd->dhd_cspec, dhd->dhd_cflags); #else get_customized_country_code(dhd->info->adapter, dhd->dhd_cspec.country_abbrev, &dhd->dhd_cspec); #endif /* CUSTOM_COUNTRY_CODE */ } #if defined(RXFRAME_THREAD) && defined(RXTHREAD_ONLYSTA) if (dhd->op_mode == DHD_FLAG_HOSTAP_MODE) dhd->info->rxthread_enabled = FALSE; else dhd->info->rxthread_enabled = TRUE; #endif #if defined(CUSTOM_COUNTRY_CODE_XZ) /* Set initial country code to XZ */ strlcpy(dhd->dhd_cspec.country_abbrev, "XZ", WLC_CNTRY_BUF_SZ); strlcpy(dhd->dhd_cspec.ccode, "XZ", WLC_CNTRY_BUF_SZ); DHD_ERROR(("%s: Set initial country code to XZ(World Wide Safe)\n", __FUNCTION__)); #endif /* CUSTOM_COUNTRY_CODE_XZ */ /* Set Country code */ if (dhd->dhd_cspec.ccode[0] != 0) { ret = dhd_iovar(dhd, 0, "country", (char *)&dhd->dhd_cspec, sizeof(wl_country_t), NULL, 0, TRUE); if (ret < 0) DHD_ERROR(("%s: country code setting failed\n", __FUNCTION__)); } #if defined(ROAM_ENABLE) #ifdef USE_WFA_CERT_CONF if (sec_get_param_wfa_cert(dhd, SET_PARAM_ROAMOFF, &roamvar) == BCME_OK) { DHD_ERROR(("%s: read roam_off param =%d\n", __FUNCTION__, roamvar)); } #endif /* USE_WFA_CERT_CONF */ /* Disable built-in roaming to allowed ext supplicant to take care of roaming */ ret = dhd_iovar(dhd, 0, "roam_off", (char *)&roamvar, sizeof(roamvar), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s roam_off failed %d\n", __FUNCTION__, ret)); } ROAMOFF_DBG_SAVE(dhd_linux_get_primary_netdev(dhd), SET_ROAM_PREINIT, roamvar); #ifdef ROAM_AP_ENV_DETECTION /* Changed to GET iovar to read roam_env_mode */ dhd->roam_env_detection = FALSE; ret = dhd_iovar(dhd, 0, "roam_env_detection", NULL, 0, (char *)&roam_env_mode, sizeof(roam_env_mode), FALSE); if (ret < 0) { DHD_ERROR(("%s: roam_env_detection IOVAR not present\n", __FUNCTION__)); } else { if (roam_env_mode == AP_ENV_INDETERMINATE) { dhd->roam_env_detection = TRUE; } } #endif /* ROAM_AP_ENV_DETECTION */ #ifdef CONFIG_ROAM_RSSI_LIMIT ret = dhd_roam_rssi_limit_set(dhd, CUSTOM_ROAMRSSI_2G, CUSTOM_ROAMRSSI_5G); if (ret < 0) { DHD_ERROR(("%s set roam_rssi_limit failed ret %d\n", __FUNCTION__, ret)); } #endif /* CONFIG_ROAM_RSSI_LIMIT */ #ifdef CONFIG_ROAM_MIN_DELTA ret = dhd_roam_min_delta_set(dhd, CUSTOM_ROAM_MIN_DELTA, CUSTOM_ROAM_MIN_DELTA); if (ret < 0) { DHD_ERROR(("%s set roam_min_delta failed ret %d\n", __FUNCTION__, ret)); } #endif /* CONFIG_ROAM_MIN_DELTA */ #endif /* ROAM_ENABLE */ #ifdef CUSTOM_EVENT_PM_WAKE dhd_init_excess_pm_awake(dhd); #endif /* CUSTOM_EVENT_PM_WAKE */ #ifdef WLTDLS dhd->tdls_enable = FALSE; /* query tdls_eable */ ret = dhd_iovar(dhd, 0, "tdls_enable", NULL, 0, (char *)&dhd->tdls_enable, sizeof(dhd->tdls_enable), FALSE); DHD_ERROR(("%s: tdls_enable=%d ret=%d\n", __FUNCTION__, dhd->tdls_enable, ret)); #endif /* WLTDLS */ #ifdef DHD_PM_CONTROL_FROM_FILE #ifdef CUSTOMER_HW10 dhd_control_pm(dhd, &power_mode); #else sec_control_pm(dhd, &power_mode); #endif /* CUSTOMER_HW10 */ #endif /* DHD_PM_CONTROL_FROM_FILE */ #ifdef MIMO_ANT_SETTING dhd_sel_ant_from_file(dhd); #endif /* MIMO_ANT_SETTING */ #if defined(SOFTAP) if (ap_fw_loaded == TRUE) { dhd_wl_ioctl_cmd(dhd, WLC_SET_DTIMPRD, (char *)&dtim, sizeof(dtim), TRUE, 0); } #endif #if defined(KEEP_ALIVE) /* Set Keep Alive : be sure to use FW with -keepalive */ if (!(dhd->op_mode & (DHD_FLAG_HOSTAP_MODE | DHD_FLAG_MFG_MODE))) { if ((ret = dhd_keep_alive_onoff(dhd)) < 0) DHD_ERROR(("%s set keeplive failed %d\n", __FUNCTION__, ret)); } #endif /* defined(KEEP_ALIVE) */ ret = dhd_iovar(dhd, 0, "event_log_max_sets", NULL, 0, (char *)&event_log_max_sets, sizeof(event_log_max_sets), FALSE); if (ret == BCME_OK) { dhd->event_log_max_sets = event_log_max_sets; } else { dhd->event_log_max_sets = NUM_EVENT_LOG_SETS; } BCM_REFERENCE(iovbuf); /* Make sure max_sets is set first with wmb and then sets_queried, * this will be used during parsing the logsets in the reverse order. */ OSL_SMP_WMB(); dhd->event_log_max_sets_queried = TRUE; DHD_ERROR(("%s: event_log_max_sets: %d ret: %d\n", __FUNCTION__, dhd->event_log_max_sets, ret)); #ifdef USE_WFA_CERT_CONF #ifdef USE_WL_FRAMEBURST if (sec_get_param_wfa_cert(dhd, SET_PARAM_FRAMEBURST, &frameburst) == BCME_OK) { DHD_ERROR(("%s, read frameburst param=%d\n", __FUNCTION__, frameburst)); } #endif /* USE_WL_FRAMEBURST */ g_frameburst = frameburst; #endif /* USE_WFA_CERT_CONF */ #ifdef DISABLE_WL_FRAMEBURST_SOFTAP /* Disable Framebursting for SofAP */ if (dhd->op_mode & DHD_FLAG_HOSTAP_MODE) { frameburst = 0; } #endif /* DISABLE_WL_FRAMEBURST_SOFTAP */ BCM_REFERENCE(frameburst); #if defined(USE_WL_FRAMEBURST) || defined(DISABLE_WL_FRAMEBURST_SOFTAP) /* frameburst is set to 1 by preinit fw, change if otherwise */ if (frameburst != 1) { /* Set frameburst to value */ if ((ret = dhd_wl_ioctl_cmd(dhd, WLC_SET_FAKEFRAG, (char *)&frameburst, sizeof(frameburst), TRUE, 0)) < 0) { DHD_INFO(("%s frameburst not supported %d\n", __FUNCTION__, ret)); } } #endif /* USE_WL_FRAMEBURST || DISABLE_WL_FRAMEBURST_SOFTAP */ iov_buf = (char*)MALLOC(dhd->osh, WLC_IOCTL_SMLEN); if (iov_buf == NULL) { DHD_ERROR(("failed to allocate %d bytes for iov_buf\n", WLC_IOCTL_SMLEN)); ret = BCME_NOMEM; goto done; } #if defined(BCMSUP_4WAY_HANDSHAKE) /* Read 4-way handshake requirements */ if (dhd_use_idsup == 1) { ret = dhd_iovar(dhd, 0, "sup_wpa", (char *)&sup_wpa, sizeof(sup_wpa), (char *)&iovbuf, sizeof(iovbuf), FALSE); /* sup_wpa iovar returns NOTREADY status on some platforms using modularized * in-dongle supplicant. */ if (ret >= 0 || ret == BCME_NOTREADY) dhd->fw_4way_handshake = TRUE; DHD_TRACE(("4-way handshake mode is: %d\n", dhd->fw_4way_handshake)); } #endif /* BCMSUP_4WAY_HANDSHAKE */ #if defined(PCIE_FULL_DONGLE) && defined(DHD_LOSSLESS_ROAMING) dhd_update_flow_prio_map(dhd, DHD_FLOW_PRIO_LLR_MAP); #endif /* defined(PCIE_FULL_DONGLE) && defined(DHD_LOSSLESS_ROAMING) */ #if defined(BCMPCIE) && defined(EAPOL_PKT_PRIO) dhd_update_flow_prio_map(dhd, DHD_FLOW_PRIO_LLR_MAP); #endif /* defined(BCMPCIE) && defined(EAPOL_PKT_PRIO) */ #ifdef ARP_OFFLOAD_SUPPORT DHD_ERROR(("arp_enable:%d arp_ol:%d\n", dhd->arpoe_enable, dhd->arpol_configured)); #endif /* ARP_OFFLOAD_SUPPORT */ /* * Retaining pktfilter fotr temporary, once fw preinit includes this, * this will be removed. Caution is to skip the pktfilter check during * each pktfilter removal. */ #ifdef PKT_FILTER_SUPPORT /* Setup default defintions for pktfilter , enable in suspend */ dhd->pktfilter_count = 6; dhd->pktfilter[DHD_BROADCAST_FILTER_NUM] = NULL; if (!FW_SUPPORTED(dhd, pf6)) { dhd->pktfilter[DHD_MULTICAST4_FILTER_NUM] = NULL; dhd->pktfilter[DHD_MULTICAST6_FILTER_NUM] = NULL; } else { /* Immediately pkt filter TYPE 6 Discard IPv4/IPv6 Multicast Packet */ dhd->pktfilter[DHD_MULTICAST4_FILTER_NUM] = DISCARD_IPV4_MCAST; dhd->pktfilter[DHD_MULTICAST6_FILTER_NUM] = DISCARD_IPV6_MCAST; } /* apply APP pktfilter */ dhd->pktfilter[DHD_ARP_FILTER_NUM] = "105 0 0 12 0xFFFF 0x0806"; #ifdef BLOCK_IPV6_PACKET /* Setup filter to allow only IPv4 unicast frames */ dhd->pktfilter[DHD_UNICAST_FILTER_NUM] = "100 0 0 0 " HEX_PREF_STR UNI_FILTER_STR ZERO_ADDR_STR ETHER_TYPE_STR IPV6_FILTER_STR " " HEX_PREF_STR ZERO_ADDR_STR ZERO_ADDR_STR ETHER_TYPE_STR ZERO_TYPE_STR; #else /* Setup filter to allow only unicast */ dhd->pktfilter[DHD_UNICAST_FILTER_NUM] = "100 0 0 0 0x01 0x00"; #endif /* BLOCK_IPV6_PACKET */ #ifdef PASS_IPV4_SUSPEND /* XXX customer want to get IPv4 multicast packets */ dhd->pktfilter[DHD_MDNS_FILTER_NUM] = "104 0 0 0 0xFFFFFF 0x01005E"; #else /* Add filter to pass multicastDNS packet and NOT filter out as Broadcast */ dhd->pktfilter[DHD_MDNS_FILTER_NUM] = NULL; #endif /* PASS_IPV4_SUSPEND */ if (FW_SUPPORTED(dhd, pf6)) { /* Immediately pkt filter TYPE 6 Dicard Broadcast IP packet */ dhd->pktfilter[DHD_IP4BCAST_DROP_FILTER_NUM] = DISCARD_IPV4_BCAST; /* Immediately pkt filter TYPE 6 Dicard Cisco STP packet */ dhd->pktfilter[DHD_LLC_STP_DROP_FILTER_NUM] = DISCARD_LLC_STP; /* Immediately pkt filter TYPE 6 Dicard Cisco XID protocol */ dhd->pktfilter[DHD_LLC_XID_DROP_FILTER_NUM] = DISCARD_LLC_XID; /* Immediately pkt filter TYPE 6 Dicard NETBIOS packet(port 137) */ dhd->pktfilter[DHD_UDPNETBIOS_DROP_FILTER_NUM] = DISCARD_UDPNETBIOS; dhd->pktfilter_count = 11; } #ifdef GAN_LITE_NAT_KEEPALIVE_FILTER dhd->pktfilter_count = 4; /* Setup filter to block broadcast and NAT Keepalive packets */ /* discard all broadcast packets */ dhd->pktfilter[DHD_UNICAST_FILTER_NUM] = "100 0 0 0 0xffffff 0xffffff"; /* discard NAT Keepalive packets */ dhd->pktfilter[DHD_BROADCAST_FILTER_NUM] = "102 0 0 36 0xffffffff 0x11940009"; /* discard NAT Keepalive packets */ dhd->pktfilter[DHD_MULTICAST4_FILTER_NUM] = "104 0 0 38 0xffffffff 0x11940009"; dhd->pktfilter[DHD_MULTICAST6_FILTER_NUM] = NULL; #endif /* GAN_LITE_NAT_KEEPALIVE_FILTER */ #if defined(SOFTAP) if (ap_fw_loaded) { /* XXX Andrey: fo SOFTAP disable pkt filters (if there were any ) */ dhd_enable_packet_filter(0, dhd); } #endif /* defined(SOFTAP) */ dhd_set_packet_filter(dhd); #endif /* PKT_FILTER_SUPPORT */ /* query for 'clmver' to get clm version info from firmware */ bzero(buf, sizeof(buf)); ret = dhd_iovar(dhd, 0, "clmver", NULL, 0, buf, sizeof(buf), FALSE); if (ret < 0) DHD_ERROR(("%s failed %d\n", __FUNCTION__, ret)); else { char *ver_temp_buf = NULL; if ((ver_temp_buf = bcmstrstr(buf, "Data:")) == NULL) { DHD_ERROR(("Couldn't find \"Data:\"\n")); } else { ptr = (ver_temp_buf + strlen("Data:")); if ((ver_temp_buf = bcmstrtok(&ptr, "\n", 0)) == NULL) { DHD_ERROR(("Couldn't find New line character\n")); } else { bzero(clm_version, CLM_VER_STR_LEN); strlcpy(clm_version, ver_temp_buf, MIN(strlen(ver_temp_buf) + 1, CLM_VER_STR_LEN)); DHD_INFO(("CLM version = %s\n", clm_version)); } } #if defined(CUSTOMER_HW4_DEBUG) if ((ver_temp_buf = bcmstrstr(ptr, "Customization:")) == NULL) { DHD_ERROR(("Couldn't find \"Customization:\"\n")); } else { char tokenlim; char clm_ver_temp[CLM_VER_STR_LEN] = "\0"; strncpy(clm_ver_temp, clm_version, strlen(clm_version)); ptr = (ver_temp_buf + strlen("Customization:")); if ((ver_temp_buf = bcmstrtok(&ptr, "(\n", &tokenlim)) == NULL) { DHD_ERROR(("Couldn't find project blob version" "or New line character\n")); } else if (tokenlim == '(') { snprintf(clm_version, CLM_VER_STR_LEN - 1, "%s, Blob ver = Major : %s minor : ", clm_ver_temp, ver_temp_buf); DHD_INFO(("[INFO]CLM/Blob version = %s\n", clm_version)); if ((ver_temp_buf = bcmstrtok(&ptr, "\n", &tokenlim)) == NULL) { DHD_ERROR(("Couldn't find New line character\n")); } else { snprintf(clm_version, strlen(clm_ver_temp) + strlen(ver_temp_buf), "%s%s", clm_ver_temp, ver_temp_buf); DHD_INFO(("[INFO]CLM/Blob/project version = %s\n", clm_version)); } } else if (tokenlim == '\n') { snprintf(clm_version, strlen(clm_ver_temp) + strlen(", Blob ver = Major : ") + 1, "%s, Blob ver = Major : ", clm_ver_temp); snprintf(clm_version, strlen(clm_ver_temp) + strlen(ver_temp_buf) + 1, "%s%s", clm_ver_temp, ver_temp_buf); DHD_INFO(("[INFO]CLM/Blob/project version = %s\n", clm_version)); } } #endif /* CUSTOMER_HW4_DEBUG */ if (strlen(clm_version)) { DHD_ERROR(("CLM version = %s\n", clm_version)); } else { DHD_ERROR(("Couldn't find CLM version!\n")); } } #ifdef WRITE_WLANINFO #ifdef DHD_SUPPORT_VFS_CALL sec_save_wlinfo(fw_version, EPI_VERSION_STR, dhd->info->nv_path, clm_version); #else do { uint len = MAX_NVRAMBUF_SIZE; char *memblock = NULL; dhd_get_download_buffer(dhd, dhd->info->nv_path, NVRAM, &memblock, (int *)&len); if ((len <= 0 || len > MAX_NVRAMBUF_SIZE)) { DHD_ERROR(("Can't open nvram info, skip save wifiver info\n")); break; } sec_save_wlinfo(fw_version, EPI_VERSION_STR, memblock, clm_version); if (memblock) { dhd_free_download_buffer(dhd, memblock, len); } } while (0); #endif /* DHD_SUPPORT_VFS_CALL */ #endif /* WRITE_WLANINFO */ #ifdef GEN_SOFTAP_INFO_FILE sec_save_softap_info(); #endif /* GEN_SOFTAP_INFO_FILE */ #ifdef PNO_SUPPORT if (!dhd->pno_state) { dhd_pno_init(dhd); } #endif #ifdef RTT_SUPPORT if (dhd->rtt_state) { ret = dhd_rtt_init(dhd); if (ret < 0) { DHD_ERROR(("%s failed to initialize RTT\n", __FUNCTION__)); } } #endif #ifdef FILTER_IE /* Failure to configure filter IE is not a fatal error, ignore it. */ if (FW_SUPPORTED(dhd, fie) && !(dhd->op_mode & (DHD_FLAG_HOSTAP_MODE | DHD_FLAG_MFG_MODE))) { dhd_read_from_file(dhd); } #endif /* FILTER_IE */ #ifdef NDO_CONFIG_SUPPORT dhd->ndo_enable = FALSE; dhd->ndo_host_ip_overflow = FALSE; dhd->ndo_max_host_ip = NDO_MAX_HOST_IP_ENTRIES; #endif /* NDO_CONFIG_SUPPORT */ /* ND offload version supported */ dhd->ndo_version = dhd_ndo_get_version(dhd); /* check dongle supports wbtext (product policy) or not */ dhd->wbtext_support = FALSE; if (dhd_wl_ioctl_get_intiovar(dhd, "wnm_bsstrans_resp", &wnm_bsstrans_resp, WLC_GET_VAR, FALSE, 0) != BCME_OK) { DHD_ERROR(("failed to get wnm_bsstrans_resp\n")); } dhd->wbtext_policy = wnm_bsstrans_resp; if (dhd->wbtext_policy == WL_BSSTRANS_POLICY_PRODUCT_WBTEXT) { dhd->wbtext_support = TRUE; } #ifndef WBTEXT /* driver can turn off wbtext feature through makefile */ if (dhd->wbtext_support) { if (dhd_wl_ioctl_set_intiovar(dhd, "wnm_bsstrans_resp", WL_BSSTRANS_POLICY_ROAM_ALWAYS, WLC_SET_VAR, FALSE, 0) != BCME_OK) { DHD_ERROR(("failed to disable WBTEXT\n")); } } #endif /* !WBTEXT */ #ifdef DHD_NON_DMA_M2M_CORRUPTION /* check pcie non dma loopback */ if (dhd->op_mode == DHD_FLAG_MFG_MODE && (dhd_bus_dmaxfer_lpbk(dhd, M2M_NON_DMA_LPBK) < 0)) { goto done; } #endif /* DHD_NON_DMA_M2M_CORRUPTION */ #ifdef CUSTOM_ASSOC_TIMEOUT /* set recreate_bi_timeout to increase assoc timeout : * 20 * 100TU * 1024 / 1000 = 2 secs * (beacon wait time = recreate_bi_timeout * beacon_period * 1024 / 1000) */ if (dhd_wl_ioctl_set_intiovar(dhd, "recreate_bi_timeout", CUSTOM_ASSOC_TIMEOUT, WLC_SET_VAR, TRUE, 0) != BCME_OK) { DHD_ERROR(("failed to set assoc timeout\n")); } #endif /* CUSTOM_ASSOC_TIMEOUT */ BCM_REFERENCE(ret2); #if defined(WBTEXT) && defined(RRM_BCNREQ_MAX_CHAN_TIME) if (dhd_iovar(dhd, 0, "rrm_bcn_req_thrtl_win", (char *)&rrm_bcn_req_thrtl_win, sizeof(rrm_bcn_req_thrtl_win), NULL, 0, TRUE) < 0) { DHD_ERROR(("failed to set RRM BCN request thrtl_win\n")); } if (dhd_iovar(dhd, 0, "rrm_bcn_req_max_off_chan_time", (char *)&rrm_bcn_req_max_off_chan_time, sizeof(rrm_bcn_req_max_off_chan_time), NULL, 0, TRUE) < 0) { DHD_ERROR(("failed to set RRM BCN Request max_off_chan_time\n")); } #endif /* WBTEXT && RRM_BCNREQ_MAX_CHAN_TIME */ #ifdef WL_MONITOR #ifdef HOST_RADIOTAP_CONV /* 'Wl monitor' IOVAR is fired to check whether the FW supports radiotap conversion or not. * This is indicated through MSB(1<<31) bit, based on which host radiotap conversion * will be enabled or disabled. * 0 - Host supports Radiotap conversion. * 1 - FW supports Radiotap conversion. */ bcm_mkiovar("monitor", (char *)&monitor, sizeof(monitor), iovbuf, sizeof(iovbuf)); if ((ret2 = dhd_wl_ioctl_cmd(dhd, WLC_GET_MONITOR, iovbuf, sizeof(iovbuf), FALSE, 0)) == 0) { memcpy(&monitor, iovbuf, sizeof(monitor)); dhdinfo->host_radiotap_conv = (monitor & HOST_RADIOTAP_CONV_BIT) ? TRUE : FALSE; } else { DHD_ERROR(("%s Failed to get monitor mode, err %d\n", __FUNCTION__, ret2)); } #endif /* HOST_RADIOTAP_CONV */ if (FW_SUPPORTED(dhd, monitor)) { dhd->monitor_enable = TRUE; DHD_ERROR(("%s: Monitor mode is enabled in FW cap\n", __FUNCTION__)); } else { dhd->monitor_enable = FALSE; DHD_ERROR(("%s: Monitor mode is not enabled in FW cap\n", __FUNCTION__)); } #endif /* WL_MONITOR */ /* store the preserve log set numbers */ if (dhd_get_preserve_log_numbers(dhd, &dhd->logset_prsrv_mask) != BCME_OK) { DHD_ERROR(("%s: Failed to get preserve log # !\n", __FUNCTION__)); } #ifdef CUSTOM_OCL_RSSI_VAL if (ocl_rssi_threshold != FW_OCL_RSSI_THRESH_INITVAL) { ret = dhd_iovar(dhd, 0, "ocl_rssi_threshold", (char *)&ocl_rssi_threshold, sizeof(ocl_rssi_threshold), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("failed to set ocl_rssi_threshold ret %d\n", ret)); } } #endif /* CUSTOM_OCL_RSSI_VAL */ if (dhd_iovar(dhd, 0, "bus:d3_hostwake_delay", (char *)&d3_hostwake_delay, sizeof(d3_hostwake_delay), NULL, 0, TRUE) < 0) { DHD_ERROR(("%s: d3_hostwake_delay IOVAR not present, proceed\n", __FUNCTION__)); } else { DHD_ERROR(("%s: d3_hostwake_delay enabled\n", __FUNCTION__)); } dhd->fr_phase_nibble = TRUE; if (dhd_iovar(dhd, 0, "bus:fr_phase_nibble", (char *)&dhd->fr_phase_nibble, sizeof(dhd->fr_phase_nibble), NULL, 0, TRUE) < 0) { dhd->fr_phase_nibble = FALSE; DHD_ERROR(("%s: fr_phase_nibble IOVAR not present, proceed\n", __FUNCTION__)); } else { DHD_ERROR(("%s: fr_phase_nibble enabled\n", __FUNCTION__)); } dhd_set_bandlock(dhd); #ifdef DHD_WAKE_EVENT_STATUS #ifdef CUSTOM_WAKE_REASON_STATS /* Initialization */ if (dhd_bus_get_wakecount(dhd)) { int i = 0; wake_counts_t *wcp = dhd_bus_get_wakecount(dhd); wcp->rc_event_idx = 0; for (i = 0; i < MAX_WAKE_REASON_STATS; i++) { wcp->rc_event[i] = -1; } } #endif /* CUSTOM_WAKE_REASON_STATS */ #endif /* DHD_WAKE_EVENT_STATUS */ #ifdef WL_UWB_COEX #ifdef WL_UWB_COEX_DEF_ENABLE ret = wl_cfg_uwb_coex_enable(dhd_linux_get_primary_netdev(dhd), TRUE, UWB_COEX_CH_MIN, UWB_COEX_CH_MAX); if (ret != BCME_OK) { DHD_ERROR(("Failed to set UWB Coex (%d)\n", ret)); } #endif /* WL_UWB_COEX_DEF_ENABLE */ #endif /* WL_UWB_COEX */ done: if (iov_buf) { MFREE(dhd->osh, iov_buf, WLC_IOCTL_SMLEN); } return ret; } int dhd_legacy_preinit_ioctls(dhd_pub_t *dhd) { int ret = 0; /* Room for "event_msgs_ext" + '\0' + bitvec */ char iovbuf[WL_EVENTING_MASK_EXT_LEN + EVENTMSGS_EXT_STRUCT_SIZE + 16]; char *mask; uint32 buf_key_b4_m4 = 1; uint8 msglen; eventmsgs_ext_t *eventmask_msg = NULL; uint32 event_log_max_sets = 0; char* iov_buf = NULL; /* XXX: Use ret2 for return check of IOVARS that might return BCME_UNSUPPORTED, * based on FW build tag. */ int ret2 = 0; uint32 wnm_cap = 0; #if defined(WL_MONITOR) && defined(HOST_RADIOTAP_CONV) uint monitor = 0; dhd_info_t *dhdinfo = (dhd_info_t*)dhd->info; #endif /* WL_MONITOR */ #if defined(BCMSUP_4WAY_HANDSHAKE) uint32 sup_wpa = 1; #endif /* BCMSUP_4WAY_HANDSHAKE */ #if defined(CUSTOM_AMPDU_BA_WSIZE) uint32 ampdu_ba_wsize = 0; #endif #if defined(CUSTOM_AMPDU_MPDU) int32 ampdu_mpdu = 0; #endif #if defined(CUSTOM_AMPDU_RELEASE) int32 ampdu_release = 0; #endif #if defined(CUSTOM_AMSDU_AGGSF) int32 amsdu_aggsf = 0; #endif #if defined(BCMSDIO) || defined(BCMDBUS) #ifdef PROP_TXSTATUS int wlfc_enable = TRUE; #ifndef DISABLE_11N uint32 hostreorder = 1; #endif /* DISABLE_11N */ #endif /* PROP_TXSTATUS */ #endif /* defined(BCMSDIO) || defined(BCMDBUS) */ #ifndef PCIE_FULL_DONGLE uint32 wl_ap_isolate; #endif /* PCIE_FULL_DONGLE */ uint32 frameburst = CUSTOM_FRAMEBURST_SET; uint wnm_bsstrans_resp = 0; #ifdef SUPPORT_SET_CAC uint32 cac = 1; #endif /* SUPPORT_SET_CAC */ #if defined(SUPPORT_2G_VHT) || defined(SUPPORT_5G_1024QAM_VHT) uint32 vht_features = 0; /* init to 0, will be set based on each support */ #endif /* SUPPORT_2G_VHT || SUPPORT_5G_1024QAM_VHT */ #ifdef DHD_ENABLE_LPC uint32 lpc = 1; #endif /* DHD_ENABLE_LPC */ uint power_mode = PM_FAST; #if defined(BCMSDIO) uint32 dongle_align = DHD_SDALIGN; uint32 glom = CUSTOM_GLOM_SETTING; #endif /* defined(BCMSDIO) */ uint bcn_timeout = CUSTOM_BCN_TIMEOUT; uint scancache_enab = TRUE; #ifdef ENABLE_BCN_LI_BCN_WAKEUP uint32 bcn_li_bcn = 1; #endif /* ENABLE_BCN_LI_BCN_WAKEUP */ uint retry_max = CUSTOM_ASSOC_RETRY_MAX; int scan_assoc_time = DHD_SCAN_ASSOC_ACTIVE_TIME; int scan_unassoc_time = DHD_SCAN_UNASSOC_ACTIVE_TIME; int scan_passive_time = DHD_SCAN_PASSIVE_TIME; char buf[WLC_IOCTL_SMLEN]; char *ptr; uint32 listen_interval = CUSTOM_LISTEN_INTERVAL; /* Default Listen Interval in Beacons */ #if defined(DHD_8021X_DUMP) && defined(SHOW_LOGTRACE) wl_el_tag_params_t *el_tag = NULL; #endif /* DHD_8021X_DUMP */ #ifdef DHD_RANDMAC_LOGGING uint privacy_mask = 0; #endif /* DHD_RANDMAC_LOGGING */ #ifdef ROAM_ENABLE uint roamvar = 0; int roam_trigger[2] = {CUSTOM_ROAM_TRIGGER_SETTING, WLC_BAND_ALL}; int roam_scan_period[2] = {10, WLC_BAND_ALL}; int roam_delta[2] = {CUSTOM_ROAM_DELTA_SETTING, WLC_BAND_ALL}; #ifdef ROAM_AP_ENV_DETECTION int roam_env_mode = AP_ENV_INDETERMINATE; #endif /* ROAM_AP_ENV_DETECTION */ #ifdef FULL_ROAMING_SCAN_PERIOD_60_SEC int roam_fullscan_period = 60; #else /* FULL_ROAMING_SCAN_PERIOD_60_SEC */ int roam_fullscan_period = 120; #endif /* FULL_ROAMING_SCAN_PERIOD_60_SEC */ #ifdef DISABLE_BCNLOSS_ROAM uint roam_bcnloss_off = 1; #endif /* DISABLE_BCNLOSS_ROAM */ #else #ifdef DISABLE_BUILTIN_ROAM uint roamvar = 1; #endif /* DISABLE_BUILTIN_ROAM */ #endif /* ROAM_ENABLE */ #if defined(SOFTAP) uint dtim = 1; #endif /* xxx andrey tmp fix for dk8000 build error */ #if (defined(AP) && !defined(WLP2P)) || (!defined(AP) && defined(WL_CFG80211)) struct ether_addr p2p_ea; #endif #ifdef BCMCCX uint32 ccx = 1; #endif #ifdef SOFTAP_UAPSD_OFF uint32 wme_apsd = 0; #endif /* SOFTAP_UAPSD_OFF */ #if (defined(AP) || defined(WLP2P)) && !defined(SOFTAP_AND_GC) uint32 apsta = 1; /* Enable APSTA mode */ #elif defined(SOFTAP_AND_GC) uint32 apsta = 0; int ap_mode = 1; #endif /* (defined(AP) || defined(WLP2P)) && !defined(SOFTAP_AND_GC) */ #ifdef GET_CUSTOM_MAC_ENABLE struct ether_addr ea_addr; #endif /* GET_CUSTOM_MAC_ENABLE */ #ifdef OKC_SUPPORT uint32 okc = 1; #endif #ifdef DISABLE_11N uint32 nmode = 0; #endif /* DISABLE_11N */ #if defined(DISABLE_11AC) uint32 vhtmode = 0; #endif /* DISABLE_11AC */ #ifdef USE_WL_TXBF uint32 txbf = 1; #endif /* USE_WL_TXBF */ #ifdef DISABLE_TXBFR uint32 txbf_bfr_cap = 0; #endif /* DISABLE_TXBFR */ #ifdef AMPDU_VO_ENABLE /* XXX: Enabling VO AMPDU to reduce FER */ struct ampdu_tid_control tid; #endif #if defined(PROP_TXSTATUS) #ifdef USE_WFA_CERT_CONF uint32 proptx = 0; #endif /* USE_WFA_CERT_CONF */ #endif /* PROP_TXSTATUS */ #ifdef DHD_SET_FW_HIGHSPEED uint32 ack_ratio = 250; uint32 ack_ratio_depth = 64; #endif /* DHD_SET_FW_HIGHSPEED */ #ifdef DISABLE_11N_PROPRIETARY_RATES uint32 ht_features = 0; #endif /* DISABLE_11N_PROPRIETARY_RATES */ #ifdef CUSTOM_PSPRETEND_THR uint32 pspretend_thr = CUSTOM_PSPRETEND_THR; #endif #ifdef DISABLE_PRUNED_SCAN uint32 scan_features = 0; #endif /* DISABLE_PRUNED_SCAN */ #ifdef BCMPCIE_OOB_HOST_WAKE uint32 hostwake_oob = 0; #endif /* BCMPCIE_OOB_HOST_WAKE */ #ifdef EVENT_LOG_RATE_HC /* threshold number of lines per second */ #define EVENT_LOG_RATE_HC_THRESHOLD 1000 uint32 event_log_rate_hc = EVENT_LOG_RATE_HC_THRESHOLD; #endif /* EVENT_LOG_RATE_HC */ #if defined(WBTEXT) && defined(WBTEXT_BTMDELTA) uint32 btmdelta = WBTEXT_BTMDELTA; #endif /* WBTEXT && WBTEXT_BTMDELTA */ #if defined(WBTEXT) && defined(RRM_BCNREQ_MAX_CHAN_TIME) uint32 rrm_bcn_req_thrtl_win = RRM_BCNREQ_MAX_CHAN_TIME * 2; uint32 rrm_bcn_req_max_off_chan_time = RRM_BCNREQ_MAX_CHAN_TIME; #endif /* WBTEXT && RRM_BCNREQ_MAX_CHAN_TIME */ uint32 d3_hostwake_delay = D3_HOSTWAKE_DELAY; BCM_REFERENCE(iovbuf); DHD_TRACE(("Enter %s\n", __FUNCTION__)); #ifdef ARP_OFFLOAD_SUPPORT /* arpoe will be applied from the supsend context */ dhd->arpoe_enable = TRUE; dhd->arpol_configured = FALSE; #endif /* ARP_OFFLOAD_SUPPORT */ #ifdef PKT_FILTER_SUPPORT dhd_pkt_filter_enable = TRUE; #endif /* PKT_FILTER_SUPPORT */ #ifdef APF dhd->apf_set = FALSE; #endif /* APF */ #ifdef CUSTOM_SET_OCLOFF dhd->ocl_off = FALSE; #endif /* CUSTOM_SET_OCLOFF */ #ifdef SUPPORT_SET_TID dhd->tid_mode = SET_TID_OFF; dhd->target_uid = 0; dhd->target_tid = 0; #endif /* SUPPORT_SET_TID */ dhd->op_mode = 0; /* clear AP flags */ #if defined(CUSTOM_COUNTRY_CODE) dhd->dhd_cflags &= ~WLAN_PLAT_AP_FLAG; #endif /* CUSTOM_COUNTRY_CODE */ #ifdef CUSTOMER_HW4_DEBUG if (!dhd_validate_chipid(dhd)) { DHD_ERROR(("%s: CONFIG_BCMXXX and CHIP ID(%x) is mismatched\n", __FUNCTION__, dhd_bus_chip_id(dhd))); #ifndef SUPPORT_MULTIPLE_CHIPS ret = BCME_BADARG; goto done; #endif /* !SUPPORT_MULTIPLE_CHIPS */ } #endif /* CUSTOMER_HW4_DEBUG */ /* query for 'ver' to get version info from firmware */ memset(buf, 0, sizeof(buf)); ptr = buf; ret = dhd_iovar(dhd, 0, "ver", NULL, 0, (char *)&buf, sizeof(buf), FALSE); if (ret < 0) DHD_ERROR(("%s failed %d\n", __FUNCTION__, ret)); else { bcmstrtok(&ptr, "\n", 0); /* Print fw version info */ DHD_ERROR(("Firmware version = %s\n", buf)); strncpy(fw_version, buf, FW_VER_STR_LEN); fw_version[FW_VER_STR_LEN-1] = '\0'; #if defined(BCMSDIO) || defined(BCMPCIE) dhd_set_version_info(dhd, buf); #endif /* BCMSDIO || BCMPCIE */ } #ifdef BOARD_HIKEY /* Set op_mode as MFG_MODE if WLTEST is present in "wl ver" */ if (strstr(fw_version, "WLTEST") != NULL) { DHD_ERROR(("%s: wl ver has WLTEST, setting op_mode as DHD_FLAG_MFG_MODE\n", __FUNCTION__)); op_mode = DHD_FLAG_MFG_MODE; } #endif /* BOARD_HIKEY */ if ((!op_mode && dhd_get_fw_mode(dhd->info) == DHD_FLAG_MFG_MODE) || (op_mode == DHD_FLAG_MFG_MODE)) { dhd->op_mode = DHD_FLAG_MFG_MODE; #ifdef DHD_PCIE_NATIVE_RUNTIMEPM /* disable runtimePM by default in MFG mode. */ pm_runtime_disable(dhd_bus_to_dev(dhd->bus)); #endif /* DHD_PCIE_NATIVE_RUNTIMEPM */ #ifdef DHD_PCIE_RUNTIMEPM /* Disable RuntimePM in mfg mode */ DHD_DISABLE_RUNTIME_PM(dhd); DHD_ERROR(("%s : Disable RuntimePM in Manufactring Firmware\n", __FUNCTION__)); #endif /* DHD_PCIE_RUNTIME_PM */ /* Check and adjust IOCTL response timeout for Manufactring firmware */ dhd_os_set_ioctl_resp_timeout(MFG_IOCTL_RESP_TIMEOUT); DHD_ERROR(("%s : Set IOCTL response time for Manufactring Firmware\n", __FUNCTION__)); } else { dhd_os_set_ioctl_resp_timeout(IOCTL_RESP_TIMEOUT); DHD_INFO(("%s : Set IOCTL response time.\n", __FUNCTION__)); } #ifdef BCMPCIE_OOB_HOST_WAKE ret = dhd_iovar(dhd, 0, "bus:hostwake_oob", NULL, 0, (char *)&hostwake_oob, sizeof(hostwake_oob), FALSE); if (ret < 0) { DHD_ERROR(("%s: hostwake_oob IOVAR not present, proceed\n", __FUNCTION__)); } else { if (hostwake_oob == 0) { DHD_ERROR(("%s: hostwake_oob is not enabled in the NVRAM, STOP\n", __FUNCTION__)); ret = BCME_UNSUPPORTED; goto done; } else { DHD_ERROR(("%s: hostwake_oob enabled\n", __FUNCTION__)); } } #endif /* BCMPCIE_OOB_HOST_WAKE */ #ifdef DNGL_AXI_ERROR_LOGGING ret = dhd_iovar(dhd, 0, "axierror_logbuf_addr", NULL, 0, (char *)&dhd->axierror_logbuf_addr, sizeof(dhd->axierror_logbuf_addr), FALSE); if (ret < 0) { DHD_ERROR(("%s: axierror_logbuf_addr IOVAR not present, proceed\n", __FUNCTION__)); dhd->axierror_logbuf_addr = 0; } else { DHD_INFO(("%s: axierror_logbuf_addr : 0x%x\n", __FUNCTION__, dhd->axierror_logbuf_addr)); } #endif /* DNGL_AXI_ERROR_LOGGING */ #ifdef EVENT_LOG_RATE_HC ret = dhd_iovar(dhd, 0, "event_log_rate_hc", (char *)&event_log_rate_hc, sizeof(event_log_rate_hc), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s event_log_rate_hc set failed %d\n", __FUNCTION__, ret)); } else { DHD_ERROR(("%s event_log_rate_hc set with threshold:%d\n", __FUNCTION__, event_log_rate_hc)); } #endif /* EVENT_LOG_RATE_HC */ #ifdef GET_CUSTOM_MAC_ENABLE ret = wifi_platform_get_mac_addr(dhd->info->adapter, ea_addr.octet); if (!ret) { ret = dhd_iovar(dhd, 0, "cur_etheraddr", (char *)&ea_addr, ETHER_ADDR_LEN, NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s: can't set MAC address , error=%d\n", __FUNCTION__, ret)); ret = BCME_NOTUP; goto done; } memcpy(dhd->mac.octet, ea_addr.octet, ETHER_ADDR_LEN); } else #endif /* GET_CUSTOM_MAC_ENABLE */ { /* Get the default device MAC address directly from firmware */ ret = dhd_iovar(dhd, 0, "cur_etheraddr", NULL, 0, (char *)&buf, sizeof(buf), FALSE); if (ret < 0) { DHD_ERROR(("%s: can't get MAC address , error=%d\n", __FUNCTION__, ret)); ret = BCME_NOTUP; goto done; } DHD_INFO(("%s: use firmware generated mac_address "MACDBG"\n", __FUNCTION__, MAC2STRDBG(&buf))); #ifdef MACADDR_PROVISION_ENFORCED if (ETHER_IS_LOCALADDR(buf)) { DHD_ERROR(("%s: error! not using provision mac addr!\n", __FUNCTION__)); ret = BCME_BADADDR; goto done; } #endif /* MACADDR_PROVISION_ENFORCED */ /* Update public MAC address after reading from Firmware */ memcpy(dhd->mac.octet, buf, ETHER_ADDR_LEN); } if (ETHER_ISNULLADDR(dhd->mac.octet)) { DHD_ERROR(("%s: NULL MAC address during pre-init\n", __FUNCTION__)); ret = BCME_BADADDR; goto done; } else { (void)memcpy_s(dhd_linux_get_primary_netdev(dhd)->perm_addr, ETHER_ADDR_LEN, dhd->mac.octet, ETHER_ADDR_LEN); } #if defined(WL_STA_ASSOC_RAND) && defined(WL_STA_INIT_RAND) /* Set cur_etheraddr of primary interface to randomized address to ensure * that any action frame transmission will happen using randomized macaddr * primary netdev->perm_addr will hold the original factory MAC. */ { if ((ret = dhd_update_rand_mac_addr(dhd)) < 0) { DHD_ERROR(("%s: failed to set macaddress\n", __FUNCTION__)); goto done; } } #endif /* WL_STA_ASSOC_RAND && WL_STA_INIT_RAND */ if ((ret = dhd_apply_default_clm(dhd, clm_path)) < 0) { DHD_ERROR(("%s: CLM set failed. Abort initialization.\n", __FUNCTION__)); goto done; } /* get a capabilities from firmware */ { uint32 cap_buf_size = sizeof(dhd->fw_capabilities); memset(dhd->fw_capabilities, 0, cap_buf_size); ret = dhd_iovar(dhd, 0, "cap", NULL, 0, dhd->fw_capabilities, (cap_buf_size - 1), FALSE); if (ret < 0) { DHD_ERROR(("%s: Get Capability failed (error=%d)\n", __FUNCTION__, ret)); return 0; } memmove(&dhd->fw_capabilities[1], dhd->fw_capabilities, (cap_buf_size - 1)); dhd->fw_capabilities[0] = ' '; dhd->fw_capabilities[cap_buf_size - 2] = ' '; dhd->fw_capabilities[cap_buf_size - 1] = '\0'; } if ((!op_mode && dhd_get_fw_mode(dhd->info) == DHD_FLAG_HOSTAP_MODE) || (op_mode == DHD_FLAG_HOSTAP_MODE)) { #ifdef SET_RANDOM_MAC_SOFTAP uint rand_mac; #endif /* SET_RANDOM_MAC_SOFTAP */ dhd->op_mode = DHD_FLAG_HOSTAP_MODE; #ifdef PKT_FILTER_SUPPORT dhd_pkt_filter_enable = FALSE; #endif #ifdef SET_RANDOM_MAC_SOFTAP rand_mac = RANDOM32(); iovbuf[0] = (unsigned char)(vendor_oui >> 16) | 0x02; /* local admin bit */ iovbuf[1] = (unsigned char)(vendor_oui >> 8); iovbuf[2] = (unsigned char)vendor_oui; iovbuf[3] = (unsigned char)(rand_mac & 0x0F) | 0xF0; iovbuf[4] = (unsigned char)(rand_mac >> 8); iovbuf[5] = (unsigned char)(rand_mac >> 16); ret = dhd_iovar(dhd, 0, "cur_etheraddr", (char *)&iovbuf, ETHER_ADDR_LEN, NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s: can't set MAC address , error=%d\n", __FUNCTION__, ret)); } else memcpy(dhd->mac.octet, iovbuf, ETHER_ADDR_LEN); #endif /* SET_RANDOM_MAC_SOFTAP */ #ifdef USE_DYNAMIC_F2_BLKSIZE dhdsdio_func_blocksize(dhd, 2, DYNAMIC_F2_BLKSIZE_FOR_NONLEGACY); #endif /* USE_DYNAMIC_F2_BLKSIZE */ #ifdef SUPPORT_AP_POWERSAVE dhd_set_ap_powersave(dhd, 0, TRUE); #endif /* SUPPORT_AP_POWERSAVE */ #ifdef SOFTAP_UAPSD_OFF ret = dhd_iovar(dhd, 0, "wme_apsd", (char *)&wme_apsd, sizeof(wme_apsd), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s: set wme_apsd 0 fail (error=%d)\n", __FUNCTION__, ret)); } #endif /* SOFTAP_UAPSD_OFF */ /* set AP flag for specific country code of SOFTAP */ #if defined(CUSTOM_COUNTRY_CODE) dhd->dhd_cflags |= WLAN_PLAT_AP_FLAG | WLAN_PLAT_NODFS_FLAG; #endif /* CUSTOM_COUNTRY_CODE */ } else if ((!op_mode && dhd_get_fw_mode(dhd->info) == DHD_FLAG_MFG_MODE) || (op_mode == DHD_FLAG_MFG_MODE)) { #if defined(ARP_OFFLOAD_SUPPORT) dhd->arpoe_enable = FALSE; #endif /* ARP_OFFLOAD_SUPPORT */ #ifdef PKT_FILTER_SUPPORT dhd_pkt_filter_enable = FALSE; #endif /* PKT_FILTER_SUPPORT */ dhd->op_mode = DHD_FLAG_MFG_MODE; #ifdef USE_DYNAMIC_F2_BLKSIZE /* XXX The 'wl counters' command triggers SDIO bus error * if F2 block size is greater than 128 bytes using 4354A1 * manufacturing firmware. To avoid this problem, F2 block * size is set to 128 bytes only for DHD_FLAG_MFG_MODE. * There is no problem for other chipset since big data * transcation through SDIO bus is not happened during * manufacturing test. */ dhdsdio_func_blocksize(dhd, 2, DYNAMIC_F2_BLKSIZE_FOR_NONLEGACY); #endif /* USE_DYNAMIC_F2_BLKSIZE */ #ifndef CUSTOM_SET_ANTNPM if (FW_SUPPORTED(dhd, rsdb)) { wl_config_t rsdb_mode; memset(&rsdb_mode, 0, sizeof(rsdb_mode)); ret = dhd_iovar(dhd, 0, "rsdb_mode", (char *)&rsdb_mode, sizeof(rsdb_mode), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s Disable rsdb_mode is failed ret= %d\n", __FUNCTION__, ret)); } } #endif /* !CUSTOM_SET_ANTNPM */ } else { uint32 concurrent_mode = 0; if ((!op_mode && dhd_get_fw_mode(dhd->info) == DHD_FLAG_P2P_MODE) || (op_mode == DHD_FLAG_P2P_MODE)) { #ifdef PKT_FILTER_SUPPORT dhd_pkt_filter_enable = FALSE; #endif dhd->op_mode = DHD_FLAG_P2P_MODE; } else if ((!op_mode && dhd_get_fw_mode(dhd->info) == DHD_FLAG_IBSS_MODE) || (op_mode == DHD_FLAG_IBSS_MODE)) { dhd->op_mode = DHD_FLAG_IBSS_MODE; } else dhd->op_mode = DHD_FLAG_STA_MODE; #if !defined(AP) && defined(WLP2P) if (dhd->op_mode != DHD_FLAG_IBSS_MODE && (concurrent_mode = dhd_get_concurrent_capabilites(dhd))) { dhd->op_mode |= concurrent_mode; } /* Check if we are enabling p2p */ if (dhd->op_mode & DHD_FLAG_P2P_MODE) { ret = dhd_iovar(dhd, 0, "apsta", (char *)&apsta, sizeof(apsta), NULL, 0, TRUE); if (ret < 0) DHD_ERROR(("%s APSTA for P2P failed ret= %d\n", __FUNCTION__, ret)); #if defined(SOFTAP_AND_GC) if ((ret = dhd_wl_ioctl_cmd(dhd, WLC_SET_AP, (char *)&ap_mode, sizeof(ap_mode), TRUE, 0)) < 0) { DHD_ERROR(("%s WLC_SET_AP failed %d\n", __FUNCTION__, ret)); } #endif memcpy(&p2p_ea, &dhd->mac, ETHER_ADDR_LEN); ETHER_SET_LOCALADDR(&p2p_ea); ret = dhd_iovar(dhd, 0, "p2p_da_override", (char *)&p2p_ea, sizeof(p2p_ea), NULL, 0, TRUE); if (ret < 0) DHD_ERROR(("%s p2p_da_override ret= %d\n", __FUNCTION__, ret)); else DHD_INFO(("dhd_preinit_ioctls: p2p_da_override succeeded\n")); } #else (void)concurrent_mode; #endif } #ifdef DISABLE_PRUNED_SCAN if (FW_SUPPORTED(dhd, rsdb)) { ret = dhd_iovar(dhd, 0, "scan_features", (char *)&scan_features, sizeof(scan_features), iovbuf, sizeof(iovbuf), FALSE); if (ret < 0) { if (ret == BCME_UNSUPPORTED) { DHD_ERROR(("%s get scan_features, UNSUPPORTED\n", __FUNCTION__)); } else { DHD_ERROR(("%s get scan_features err(%d)\n", __FUNCTION__, ret)); } } else { memcpy(&scan_features, iovbuf, 4); scan_features &= ~RSDB_SCAN_DOWNGRADED_CH_PRUNE_ROAM; ret = dhd_iovar(dhd, 0, "scan_features", (char *)&scan_features, sizeof(scan_features), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s set scan_features err(%d)\n", __FUNCTION__, ret)); } } } #endif /* DISABLE_PRUNED_SCAN */ DHD_ERROR(("Firmware up: op_mode=0x%04x, MAC="MACDBG"\n", dhd->op_mode, MAC2STRDBG(dhd->mac.octet))); #if defined(DHD_BLOB_EXISTENCE_CHECK) if (!dhd->is_blob) #endif /* DHD_BLOB_EXISTENCE_CHECK */ { /* get a ccode and revision for the country code */ #if defined(CUSTOM_COUNTRY_CODE) get_customized_country_code(dhd->info->adapter, dhd->dhd_cspec.country_abbrev, &dhd->dhd_cspec, dhd->dhd_cflags); #else get_customized_country_code(dhd->info->adapter, dhd->dhd_cspec.country_abbrev, &dhd->dhd_cspec); #endif /* CUSTOM_COUNTRY_CODE */ } #if defined(RXFRAME_THREAD) && defined(RXTHREAD_ONLYSTA) if (dhd->op_mode == DHD_FLAG_HOSTAP_MODE) dhd->info->rxthread_enabled = FALSE; else dhd->info->rxthread_enabled = TRUE; #endif #if defined(CUSTOM_COUNTRY_CODE_XZ) /* Set initial country code to XZ */ strlcpy(dhd->dhd_cspec.country_abbrev, "XZ", WLC_CNTRY_BUF_SZ); strlcpy(dhd->dhd_cspec.ccode, "XZ", WLC_CNTRY_BUF_SZ); DHD_ERROR(("%s: Set initial country code to XZ(World Wide Safe)\n", __FUNCTION__)); #endif /* CUSTOM_COUNTRY_CODE_XZ */ /* Set Country code */ if (dhd->dhd_cspec.ccode[0] != 0) { ret = dhd_iovar(dhd, 0, "country", (char *)&dhd->dhd_cspec, sizeof(wl_country_t), NULL, 0, TRUE); if (ret < 0) DHD_ERROR(("%s: country code setting failed\n", __FUNCTION__)); } #if defined(DISABLE_11AC) ret = dhd_iovar(dhd, 0, "vhtmode", (char *)&vhtmode, sizeof(vhtmode), NULL, 0, TRUE); if (ret < 0) DHD_ERROR(("%s wl vhtmode 0 failed %d\n", __FUNCTION__, ret)); #endif /* DISABLE_11AC */ /* Set Listen Interval */ ret = dhd_iovar(dhd, 0, "assoc_listen", (char *)&listen_interval, sizeof(listen_interval), NULL, 0, TRUE); if (ret < 0) DHD_ERROR(("%s assoc_listen failed %d\n", __FUNCTION__, ret)); #if defined(ROAM_ENABLE) || defined(DISABLE_BUILTIN_ROAM) #ifdef USE_WFA_CERT_CONF if (sec_get_param_wfa_cert(dhd, SET_PARAM_ROAMOFF, &roamvar) == BCME_OK) { DHD_ERROR(("%s: read roam_off param =%d\n", __FUNCTION__, roamvar)); } #endif /* USE_WFA_CERT_CONF */ /* Disable built-in roaming to allowed ext supplicant to take care of roaming */ ret = dhd_iovar(dhd, 0, "roam_off", (char *)&roamvar, sizeof(roamvar), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s roam_off failed %d\n", __FUNCTION__, ret)); } ROAMOFF_DBG_SAVE(dhd_linux_get_primary_netdev(dhd), SET_ROAM_PREINIT, roamvar); #endif /* ROAM_ENABLE || DISABLE_BUILTIN_ROAM */ #if defined(ROAM_ENABLE) #ifdef DISABLE_BCNLOSS_ROAM ret = dhd_iovar(dhd, 0, "roam_bcnloss_off", (char *)&roam_bcnloss_off, sizeof(roam_bcnloss_off), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s roam_bcnloss_off failed %d\n", __FUNCTION__, ret)); } #endif /* DISABLE_BCNLOSS_ROAM */ if ((ret = dhd_wl_ioctl_cmd(dhd, WLC_SET_ROAM_TRIGGER, roam_trigger, sizeof(roam_trigger), TRUE, 0)) < 0) DHD_ERROR(("%s: roam trigger set failed %d\n", __FUNCTION__, ret)); if ((ret = dhd_wl_ioctl_cmd(dhd, WLC_SET_ROAM_SCAN_PERIOD, roam_scan_period, sizeof(roam_scan_period), TRUE, 0)) < 0) DHD_ERROR(("%s: roam scan period set failed %d\n", __FUNCTION__, ret)); if ((dhd_wl_ioctl_cmd(dhd, WLC_SET_ROAM_DELTA, roam_delta, sizeof(roam_delta), TRUE, 0)) < 0) DHD_ERROR(("%s: roam delta set failed %d\n", __FUNCTION__, ret)); ret = dhd_iovar(dhd, 0, "fullroamperiod", (char *)&roam_fullscan_period, sizeof(roam_fullscan_period), NULL, 0, TRUE); if (ret < 0) DHD_ERROR(("%s: roam fullscan period set failed %d\n", __FUNCTION__, ret)); #ifdef ROAM_AP_ENV_DETECTION if (roam_trigger[0] == WL_AUTO_ROAM_TRIGGER) { if (dhd_iovar(dhd, 0, "roam_env_detection", (char *)&roam_env_mode, sizeof(roam_env_mode), NULL, 0, TRUE) == BCME_OK) dhd->roam_env_detection = TRUE; else dhd->roam_env_detection = FALSE; } #endif /* ROAM_AP_ENV_DETECTION */ #ifdef CONFIG_ROAM_RSSI_LIMIT ret = dhd_roam_rssi_limit_set(dhd, CUSTOM_ROAMRSSI_2G, CUSTOM_ROAMRSSI_5G); if (ret < 0) { DHD_ERROR(("%s set roam_rssi_limit failed ret %d\n", __FUNCTION__, ret)); } #endif /* CONFIG_ROAM_RSSI_LIMIT */ #ifdef CONFIG_ROAM_MIN_DELTA ret = dhd_roam_min_delta_set(dhd, CUSTOM_ROAM_MIN_DELTA, CUSTOM_ROAM_MIN_DELTA); if (ret < 0) { DHD_ERROR(("%s set roam_min_delta failed ret %d\n", __FUNCTION__, ret)); } #endif /* CONFIG_ROAM_MIN_DELTA */ #endif /* ROAM_ENABLE */ #ifdef CUSTOM_EVENT_PM_WAKE dhd_init_excess_pm_awake(dhd); #endif /* CUSTOM_EVENT_PM_WAKE */ #ifdef OKC_SUPPORT dhd_iovar(dhd, 0, "okc_enable", (char *)&okc, sizeof(okc), NULL, 0, TRUE); #endif #ifdef BCMCCX dhd_iovar(dhd, 0, "ccx_enable", (char *)&ccx, sizeof(ccx), NULL, 0, TRUE); #endif /* BCMCCX */ #ifdef WLTDLS dhd->tdls_enable = FALSE; dhd_tdls_set_mode(dhd, false); #endif /* WLTDLS */ #ifdef DHD_ENABLE_LPC /* Set lpc 1 */ ret = dhd_iovar(dhd, 0, "lpc", (char *)&lpc, sizeof(lpc), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s Set lpc failed %d\n", __FUNCTION__, ret)); if (ret == BCME_NOTDOWN) { uint wl_down = 1; ret = dhd_wl_ioctl_cmd(dhd, WLC_DOWN, (char *)&wl_down, sizeof(wl_down), TRUE, 0); DHD_ERROR(("%s lpc fail WL_DOWN : %d, lpc = %d\n", __FUNCTION__, ret, lpc)); ret = dhd_iovar(dhd, 0, "lpc", (char *)&lpc, sizeof(lpc), NULL, 0, TRUE); DHD_ERROR(("%s Set lpc ret --> %d\n", __FUNCTION__, ret)); } } #endif /* DHD_ENABLE_LPC */ #ifdef WLADPS if (dhd->op_mode & DHD_FLAG_STA_MODE) { if ((ret = dhd_enable_adps(dhd, ADPS_ENABLE)) != BCME_OK && (ret != BCME_UNSUPPORTED)) { DHD_ERROR(("%s dhd_enable_adps failed %d\n", __FUNCTION__, ret)); } } #endif /* WLADPS */ #ifdef DHD_PM_CONTROL_FROM_FILE #ifdef CUSTOMER_HW10 dhd_control_pm(dhd, &power_mode); #else sec_control_pm(dhd, &power_mode); #endif /* CUSTOMER_HW10 */ #else /* Set PowerSave mode */ (void) dhd_wl_ioctl_cmd(dhd, WLC_SET_PM, (char *)&power_mode, sizeof(power_mode), TRUE, 0); #endif /* DHD_PM_CONTROL_FROM_FILE */ #if defined(BCMSDIO) /* Match Host and Dongle rx alignment */ ret = dhd_iovar(dhd, 0, "bus:txglomalign", (char *)&dongle_align, sizeof(dongle_align), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s set bus:txglomalign failed %d\n", __FUNCTION__, ret)); } #ifdef USE_WFA_CERT_CONF if (sec_get_param_wfa_cert(dhd, SET_PARAM_BUS_TXGLOM_MODE, &glom) == BCME_OK) { DHD_ERROR(("%s, read txglom param =%d\n", __FUNCTION__, glom)); } #endif /* USE_WFA_CERT_CONF */ if (glom != DEFAULT_GLOM_VALUE) { DHD_INFO(("%s set glom=0x%X\n", __FUNCTION__, glom)); ret = dhd_iovar(dhd, 0, "bus:txglom", (char *)&glom, sizeof(glom), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s set bus:txglom failed %d\n", __FUNCTION__, ret)); } } #endif /* defined(BCMSDIO) */ /* Setup timeout if Beacons are lost and roam is off to report link down */ ret = dhd_iovar(dhd, 0, "bcn_timeout", (char *)&bcn_timeout, sizeof(bcn_timeout), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s set bcn_timeout failed %d\n", __FUNCTION__, ret)); } /* Setup assoc_retry_max count to reconnect target AP in dongle */ ret = dhd_iovar(dhd, 0, "assoc_retry_max", (char *)&retry_max, sizeof(retry_max), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s set assoc_retry_max failed %d\n", __FUNCTION__, ret)); } #if defined(AP) && !defined(WLP2P) ret = dhd_iovar(dhd, 0, "apsta", (char *)&apsta, sizeof(apsta), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s set apsta failed %d\n", __FUNCTION__, ret)); } #endif /* defined(AP) && !defined(WLP2P) */ #ifdef MIMO_ANT_SETTING dhd_sel_ant_from_file(dhd); #endif /* MIMO_ANT_SETTING */ #if defined(SOFTAP) if (ap_fw_loaded == TRUE) { dhd_wl_ioctl_cmd(dhd, WLC_SET_DTIMPRD, (char *)&dtim, sizeof(dtim), TRUE, 0); } #endif #if defined(KEEP_ALIVE) { /* Set Keep Alive : be sure to use FW with -keepalive */ int res; #if defined(SOFTAP) if (ap_fw_loaded == FALSE) #endif if (!(dhd->op_mode & (DHD_FLAG_HOSTAP_MODE | DHD_FLAG_MFG_MODE))) { if ((res = dhd_keep_alive_onoff(dhd)) < 0) DHD_ERROR(("%s set keeplive failed %d\n", __FUNCTION__, res)); } } #endif /* defined(KEEP_ALIVE) */ #ifdef USE_WL_TXBF ret = dhd_iovar(dhd, 0, "txbf", (char *)&txbf, sizeof(txbf), NULL, 0, TRUE); if (ret < 0) DHD_ERROR(("%s Set txbf failed %d\n", __FUNCTION__, ret)); #endif /* USE_WL_TXBF */ ret = dhd_iovar(dhd, 0, "scancache", (char *)&scancache_enab, sizeof(scancache_enab), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s Set scancache failed %d\n", __FUNCTION__, ret)); } ret = dhd_iovar(dhd, 0, "event_log_max_sets", NULL, 0, (char *)&event_log_max_sets, sizeof(event_log_max_sets), FALSE); if (ret == BCME_OK) { dhd->event_log_max_sets = event_log_max_sets; } else { dhd->event_log_max_sets = NUM_EVENT_LOG_SETS; } /* Make sure max_sets is set first with wmb and then sets_queried, * this will be used during parsing the logsets in the reverse order. */ OSL_SMP_WMB(); dhd->event_log_max_sets_queried = TRUE; DHD_ERROR(("%s: event_log_max_sets: %d ret: %d\n", __FUNCTION__, dhd->event_log_max_sets, ret)); #ifdef DISABLE_TXBFR ret = dhd_iovar(dhd, 0, "txbf_bfr_cap", (char *)&txbf_bfr_cap, sizeof(txbf_bfr_cap), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s Clear txbf_bfr_cap failed %d\n", __FUNCTION__, ret)); } #endif /* DISABLE_TXBFR */ #ifdef USE_WFA_CERT_CONF #ifdef USE_WL_FRAMEBURST if (sec_get_param_wfa_cert(dhd, SET_PARAM_FRAMEBURST, &frameburst) == BCME_OK) { DHD_ERROR(("%s, read frameburst param=%d\n", __FUNCTION__, frameburst)); } #endif /* USE_WL_FRAMEBURST */ g_frameburst = frameburst; #endif /* USE_WFA_CERT_CONF */ #ifdef DISABLE_WL_FRAMEBURST_SOFTAP /* Disable Framebursting for SofAP */ if (dhd->op_mode & DHD_FLAG_HOSTAP_MODE) { frameburst = 0; } #endif /* DISABLE_WL_FRAMEBURST_SOFTAP */ /* Set frameburst to value */ if ((ret = dhd_wl_ioctl_cmd(dhd, WLC_SET_FAKEFRAG, (char *)&frameburst, sizeof(frameburst), TRUE, 0)) < 0) { DHD_INFO(("%s frameburst not supported %d\n", __FUNCTION__, ret)); } #ifdef DHD_SET_FW_HIGHSPEED /* Set ack_ratio */ ret = dhd_iovar(dhd, 0, "ack_ratio", (char *)&ack_ratio, sizeof(ack_ratio), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s Set ack_ratio failed %d\n", __FUNCTION__, ret)); } /* Set ack_ratio_depth */ ret = dhd_iovar(dhd, 0, "ack_ratio_depth", (char *)&ack_ratio_depth, sizeof(ack_ratio_depth), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s Set ack_ratio_depth failed %d\n", __FUNCTION__, ret)); } #endif /* DHD_SET_FW_HIGHSPEED */ iov_buf = (char*)MALLOC(dhd->osh, WLC_IOCTL_SMLEN); if (iov_buf == NULL) { DHD_ERROR(("failed to allocate %d bytes for iov_buf\n", WLC_IOCTL_SMLEN)); ret = BCME_NOMEM; goto done; } BCM_REFERENCE(ret2); #if defined(CUSTOM_AMPDU_BA_WSIZE) /* Set ampdu ba wsize to 64 or 16 */ #ifdef CUSTOM_AMPDU_BA_WSIZE ampdu_ba_wsize = CUSTOM_AMPDU_BA_WSIZE; #endif if (ampdu_ba_wsize != 0) { ret = dhd_iovar(dhd, 0, "ampdu_ba_wsize", (char *)&du_ba_wsize, sizeof(ampdu_ba_wsize), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s Set ampdu_ba_wsize to %d failed %d\n", __FUNCTION__, ampdu_ba_wsize, ret)); } } #endif #if defined(CUSTOM_AMPDU_MPDU) ampdu_mpdu = CUSTOM_AMPDU_MPDU; if (ampdu_mpdu != 0 && (ampdu_mpdu <= ampdu_ba_wsize)) { ret = dhd_iovar(dhd, 0, "ampdu_mpdu", (char *)&du_mpdu, sizeof(ampdu_mpdu), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s Set ampdu_mpdu to %d failed %d\n", __FUNCTION__, CUSTOM_AMPDU_MPDU, ret)); } } #endif /* CUSTOM_AMPDU_MPDU */ #if defined(CUSTOM_AMPDU_RELEASE) ampdu_release = CUSTOM_AMPDU_RELEASE; if (ampdu_release != 0 && (ampdu_release <= ampdu_ba_wsize)) { ret = dhd_iovar(dhd, 0, "ampdu_release", (char *)&du_release, sizeof(ampdu_release), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s Set ampdu_release to %d failed %d\n", __FUNCTION__, CUSTOM_AMPDU_RELEASE, ret)); } } #endif /* CUSTOM_AMPDU_RELEASE */ #if defined(CUSTOM_AMSDU_AGGSF) amsdu_aggsf = CUSTOM_AMSDU_AGGSF; if (amsdu_aggsf != 0) { ret = dhd_iovar(dhd, 0, "amsdu_aggsf", (char *)&amsdu_aggsf, sizeof(amsdu_aggsf), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s Set amsdu_aggsf to %d failed %d\n", __FUNCTION__, CUSTOM_AMSDU_AGGSF, ret)); } } #endif /* CUSTOM_AMSDU_AGGSF */ #if defined(BCMSUP_4WAY_HANDSHAKE) /* Read 4-way handshake requirements */ if (dhd_use_idsup == 1) { ret = dhd_iovar(dhd, 0, "sup_wpa", (char *)&sup_wpa, sizeof(sup_wpa), (char *)&iovbuf, sizeof(iovbuf), FALSE); /* sup_wpa iovar returns NOTREADY status on some platforms using modularized * in-dongle supplicant. */ if (ret >= 0 || ret == BCME_NOTREADY) dhd->fw_4way_handshake = TRUE; DHD_TRACE(("4-way handshake mode is: %d\n", dhd->fw_4way_handshake)); } #endif /* BCMSUP_4WAY_HANDSHAKE */ #if defined(SUPPORT_2G_VHT) || defined(SUPPORT_5G_1024QAM_VHT) ret = dhd_iovar(dhd, 0, "vht_features", (char *)&vht_features, sizeof(vht_features), (char *)&vht_features, sizeof(vht_features), FALSE); if (ret < 0) { DHD_ERROR(("%s vht_features get failed %d\n", __FUNCTION__, ret)); vht_features = 0; } else { #ifdef SUPPORT_2G_VHT vht_features |= 0x3; /* 2G support */ #endif /* SUPPORT_2G_VHT */ #ifdef SUPPORT_5G_1024QAM_VHT vht_features |= 0x6; /* 5G 1024 QAM support */ #endif /* SUPPORT_5G_1024QAM_VHT */ } if (vht_features) { ret = dhd_iovar(dhd, 0, "vht_features", (char *)&vht_features, sizeof(vht_features), NULL, 0, TRUE); if (ret < 0) { if (ret == BCME_NOTDOWN) { uint wl_down = 1; ret = dhd_wl_ioctl_cmd(dhd, WLC_DOWN, (char *)&wl_down, sizeof(wl_down), TRUE, 0); DHD_ERROR(("%s vht_features fail WL_DOWN : %d," " vht_features = 0x%x\n", __FUNCTION__, ret, vht_features)); ret = dhd_iovar(dhd, 0, "vht_features", (char *)&vht_features, sizeof(vht_features), NULL, 0, TRUE); DHD_ERROR(("%s vht_features set. ret --> %d\n", __FUNCTION__, ret)); } if (ret != BCME_BADOPTION) { DHD_ERROR(("%s vht_features set failed %d\n", __FUNCTION__, ret)); } else { DHD_INFO(("%s vht_features ret(%d) - need to check BANDLOCK\n", __FUNCTION__, ret)); } } } #endif /* SUPPORT_2G_VHT || SUPPORT_5G_1024QAM_VHT */ #ifdef DISABLE_11N_PROPRIETARY_RATES ret = dhd_iovar(dhd, 0, "ht_features", (char *)&ht_features, sizeof(ht_features), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s ht_features set failed %d\n", __FUNCTION__, ret)); } #endif /* DISABLE_11N_PROPRIETARY_RATES */ #if defined(DISABLE_HE_ENAB) || defined(CUSTOM_CONTROL_HE_ENAB) #if defined(DISABLE_HE_ENAB) /* XXX DISABLE_HE_ENAB has higher priority than CUSTOM_CONTROL_HE_ENAB */ control_he_enab = 0; #endif /* DISABLE_HE_ENAB */ dhd_control_he_enab(dhd, control_he_enab); #endif /* DISABLE_HE_ENAB || CUSTOM_CONTROL_HE_ENAB */ #ifdef CUSTOM_PSPRETEND_THR /* Turn off MPC in AP mode */ ret = dhd_iovar(dhd, 0, "pspretend_threshold", (char *)&pspretend_thr, sizeof(pspretend_thr), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s pspretend_threshold for HostAPD failed %d\n", __FUNCTION__, ret)); } #endif /* XXX Enable firmware key buffering before sent 4-way M4 */ ret = dhd_iovar(dhd, 0, "buf_key_b4_m4", (char *)&buf_key_b4_m4, sizeof(buf_key_b4_m4), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s buf_key_b4_m4 set failed %d\n", __FUNCTION__, ret)); } #ifdef SUPPORT_SET_CAC ret = dhd_iovar(dhd, 0, "cac", (char *)&cac, sizeof(cac), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s Failed to set cac to %d, %d\n", __FUNCTION__, cac, ret)); } #endif /* SUPPORT_SET_CAC */ /* make up event mask ext message iovar for event larger than 128 */ msglen = WL_EVENTING_MASK_EXT_LEN + EVENTMSGS_EXT_STRUCT_SIZE; eventmask_msg = (eventmsgs_ext_t*)MALLOC(dhd->osh, msglen); if (eventmask_msg == NULL) { DHD_ERROR(("failed to allocate %d bytes for event_msg_ext\n", msglen)); ret = BCME_NOMEM; goto done; } bzero(eventmask_msg, msglen); eventmask_msg->ver = EVENTMSGS_VER; eventmask_msg->len = ROUNDUP(WLC_E_LAST, NBBY)/NBBY; /* Read event_msgs_ext mask */ ret = dhd_iovar(dhd, 0, "event_msgs_ext", (char *)eventmask_msg, msglen, iov_buf, WLC_IOCTL_SMLEN, FALSE); /* event_msgs_ext must be supported */ if (ret != BCME_OK) { DHD_ERROR(("%s read event mask ext failed %d\n", __FUNCTION__, ret)); goto done; } bcopy(iov_buf, eventmask_msg, msglen); /* make up event mask ext message iovar for event larger than 128 */ mask = eventmask_msg->mask; /* Setup event_msgs */ setbit(mask, WLC_E_SET_SSID); setbit(mask, WLC_E_PRUNE); setbit(mask, WLC_E_AUTH); setbit(mask, WLC_E_AUTH_IND); setbit(mask, WLC_E_ASSOC); setbit(mask, WLC_E_REASSOC); setbit(mask, WLC_E_REASSOC_IND); if (!(dhd->op_mode & DHD_FLAG_IBSS_MODE)) setbit(mask, WLC_E_DEAUTH); setbit(mask, WLC_E_DEAUTH_IND); setbit(mask, WLC_E_DISASSOC_IND); setbit(mask, WLC_E_DISASSOC); setbit(mask, WLC_E_JOIN); setbit(mask, WLC_E_START); setbit(mask, WLC_E_ASSOC_IND); setbit(mask, WLC_E_PSK_SUP); setbit(mask, WLC_E_LINK); setbit(mask, WLC_E_MIC_ERROR); setbit(mask, WLC_E_ASSOC_REQ_IE); setbit(mask, WLC_E_ASSOC_RESP_IE); #ifdef LIMIT_BORROW setbit(mask, WLC_E_ALLOW_CREDIT_BORROW); #endif #ifndef WL_CFG80211 setbit(mask, WLC_E_PMKID_CACHE); setbit(mask, WLC_E_TXFAIL); #endif setbit(mask, WLC_E_JOIN_START); setbit(mask, WLC_E_SCAN_COMPLETE); #ifdef DHD_DEBUG setbit(mask, WLC_E_SCAN_CONFIRM_IND); #endif #ifdef PNO_SUPPORT setbit(mask, WLC_E_PFN_NET_FOUND); setbit(mask, WLC_E_PFN_BEST_BATCHING); setbit(mask, WLC_E_PFN_BSSID_NET_FOUND); setbit(mask, WLC_E_PFN_BSSID_NET_LOST); #endif /* PNO_SUPPORT */ /* enable dongle roaming event */ #ifdef WL_CFG80211 #if !defined(ROAM_EVT_DISABLE) setbit(mask, WLC_E_ROAM); #endif /* !ROAM_EVT_DISABLE */ setbit(mask, WLC_E_BSSID); #endif /* WL_CFG80211 */ #ifdef BCMCCX setbit(mask, WLC_E_ADDTS_IND); setbit(mask, WLC_E_DELTS_IND); #endif /* BCMCCX */ #ifdef WLTDLS setbit(mask, WLC_E_TDLS_PEER_EVENT); #endif /* WLTDLS */ #ifdef RTT_SUPPORT setbit(mask, WLC_E_PROXD); #endif /* RTT_SUPPORT */ #ifdef WL_CFG80211 setbit(mask, WLC_E_ESCAN_RESULT); setbit(mask, WLC_E_AP_STARTED); setbit(mask, WLC_E_ACTION_FRAME_RX); if (dhd->op_mode & DHD_FLAG_P2P_MODE) { setbit(mask, WLC_E_P2P_DISC_LISTEN_COMPLETE); } #endif /* WL_CFG80211 */ #if defined(SHOW_LOGTRACE) && defined(LOGTRACE_FROM_FILE) if (dhd_logtrace_from_file(dhd)) { setbit(mask, WLC_E_TRACE); } else { clrbit(mask, WLC_E_TRACE); } #elif defined(SHOW_LOGTRACE) setbit(mask, WLC_E_TRACE); #else clrbit(mask, WLC_E_TRACE); #endif /* defined(SHOW_LOGTRACE) && defined(LOGTRACE_FROM_FILE) */ setbit(mask, WLC_E_CSA_COMPLETE_IND); #ifdef DHD_WMF setbit(mask, WLC_E_PSTA_PRIMARY_INTF_IND); #endif #ifdef CUSTOM_EVENT_PM_WAKE setbit(mask, WLC_E_EXCESS_PM_WAKE_EVENT); #endif /* CUSTOM_EVENT_PM_WAKE */ #ifdef DHD_LOSSLESS_ROAMING setbit(mask, WLC_E_ROAM_PREP); #endif /* nan events */ setbit(mask, WLC_E_NAN); #if defined(PCIE_FULL_DONGLE) && defined(DHD_LOSSLESS_ROAMING) dhd_update_flow_prio_map(dhd, DHD_FLOW_PRIO_LLR_MAP); #endif /* defined(PCIE_FULL_DONGLE) && defined(DHD_LOSSLESS_ROAMING) */ #if defined(BCMPCIE) && defined(EAPOL_PKT_PRIO) dhd_update_flow_prio_map(dhd, DHD_FLOW_PRIO_LLR_MAP); #endif /* defined(BCMPCIE) && defined(EAPOL_PKT_PRIO) */ #ifdef RSSI_MONITOR_SUPPORT setbit(mask, WLC_E_RSSI_LQM); #endif /* RSSI_MONITOR_SUPPORT */ #ifdef GSCAN_SUPPORT setbit(mask, WLC_E_PFN_GSCAN_FULL_RESULT); setbit(mask, WLC_E_PFN_SCAN_COMPLETE); setbit(mask, WLC_E_PFN_SSID_EXT); setbit(mask, WLC_E_ROAM_EXP_EVENT); #endif /* GSCAN_SUPPORT */ setbit(mask, WLC_E_RSSI_LQM); #ifdef BT_WIFI_HANDOVER setbit(mask, WLC_E_BT_WIFI_HANDOVER_REQ); #endif /* BT_WIFI_HANDOVER */ #ifdef DBG_PKT_MON setbit(mask, WLC_E_ROAM_PREP); #endif /* DBG_PKT_MON */ #ifdef WL_NATOE setbit(mask, WLC_E_NATOE_NFCT); #endif /* WL_NATOE */ #ifdef BCM_ROUTER_DHD setbit(mask, WLC_E_DPSTA_INTF_IND); #endif /* BCM_ROUTER_DHD */ setbit(mask, WLC_E_SLOTTED_BSS_PEER_OP); #ifdef WL_BCNRECV setbit(mask, WLC_E_BCNRECV_ABORTED); #endif /* WL_BCNRECV */ #ifdef WL_MBO setbit(mask, WLC_E_MBO); #endif /* WL_MBO */ #ifdef WL_CAC_TS setbit(mask, WLC_E_ADDTS_IND); setbit(mask, WLC_E_DELTS_IND); #endif /* WL_BCNRECV */ setbit(mask, WLC_E_COUNTRY_CODE_CHANGED); /* Write updated Event mask */ eventmask_msg->ver = EVENTMSGS_VER; eventmask_msg->command = EVENTMSGS_SET_MASK; eventmask_msg->len = WL_EVENTING_MASK_EXT_LEN; ret = dhd_iovar(dhd, 0, "event_msgs_ext", (char *)eventmask_msg, msglen, NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s write event mask ext failed %d\n", __FUNCTION__, ret)); goto done; } #if defined(DHD_8021X_DUMP) && defined(SHOW_LOGTRACE) /* Enabling event log trace for EAP events */ el_tag = (wl_el_tag_params_t *)MALLOC(dhd->osh, sizeof(wl_el_tag_params_t)); if (el_tag == NULL) { DHD_ERROR(("failed to allocate %d bytes for event_msg_ext\n", (int)sizeof(wl_el_tag_params_t))); ret = BCME_NOMEM; goto done; } el_tag->tag = EVENT_LOG_TAG_4WAYHANDSHAKE; el_tag->set = 1; el_tag->flags = EVENT_LOG_TAG_FLAG_LOG; ret = dhd_iovar(dhd, 0, "event_log_tag_control", (char *)el_tag, sizeof(*el_tag), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s set event_log_tag_control fail %d\n", __FUNCTION__, ret)); } #endif /* DHD_8021X_DUMP */ #ifdef DHD_RANDMAC_LOGGING if (FW_SUPPORTED((dhd), event_log)) { if (dhd_iovar(dhd, 0, "privacy_mask", (char *)&privacy_mask, sizeof(privacy_mask), NULL, 0, TRUE) < 0) { DHD_ERROR(("failed to set privacy mask\n")); } } else { /* Don't enable feature to prevent macaddr print in clr text */ DHD_ERROR(("skip privacy_mask set. event_log not enabled\n")); } #endif /* DHD_RANDMAC_LOGGING */ dhd_wl_ioctl_cmd(dhd, WLC_SET_SCAN_CHANNEL_TIME, (char *)&scan_assoc_time, sizeof(scan_assoc_time), TRUE, 0); dhd_wl_ioctl_cmd(dhd, WLC_SET_SCAN_UNASSOC_TIME, (char *)&scan_unassoc_time, sizeof(scan_unassoc_time), TRUE, 0); dhd_wl_ioctl_cmd(dhd, WLC_SET_SCAN_PASSIVE_TIME, (char *)&scan_passive_time, sizeof(scan_passive_time), TRUE, 0); #ifdef ARP_OFFLOAD_SUPPORT DHD_ERROR(("arp_enable:%d arp_ol:%d\n", dhd->arpoe_enable, dhd->arpol_configured)); #endif /* ARP_OFFLOAD_SUPPORT */ #ifdef PKT_FILTER_SUPPORT /* Setup default defintions for pktfilter , enable in suspend */ dhd->pktfilter_count = 6; dhd->pktfilter[DHD_BROADCAST_FILTER_NUM] = NULL; if (!FW_SUPPORTED(dhd, pf6)) { dhd->pktfilter[DHD_MULTICAST4_FILTER_NUM] = NULL; dhd->pktfilter[DHD_MULTICAST6_FILTER_NUM] = NULL; } else { /* Immediately pkt filter TYPE 6 Discard IPv4/IPv6 Multicast Packet */ dhd->pktfilter[DHD_MULTICAST4_FILTER_NUM] = DISCARD_IPV4_MCAST; dhd->pktfilter[DHD_MULTICAST6_FILTER_NUM] = DISCARD_IPV6_MCAST; } /* apply APP pktfilter */ dhd->pktfilter[DHD_ARP_FILTER_NUM] = "105 0 0 12 0xFFFF 0x0806"; #ifdef BLOCK_IPV6_PACKET /* Setup filter to allow only IPv4 unicast frames */ dhd->pktfilter[DHD_UNICAST_FILTER_NUM] = "100 0 0 0 " HEX_PREF_STR UNI_FILTER_STR ZERO_ADDR_STR ETHER_TYPE_STR IPV6_FILTER_STR " " HEX_PREF_STR ZERO_ADDR_STR ZERO_ADDR_STR ETHER_TYPE_STR ZERO_TYPE_STR; #else /* Setup filter to allow only unicast */ dhd->pktfilter[DHD_UNICAST_FILTER_NUM] = "100 0 0 0 0x01 0x00"; #endif /* BLOCK_IPV6_PACKET */ #ifdef PASS_IPV4_SUSPEND /* XXX customer want to get IPv4 multicast packets */ dhd->pktfilter[DHD_MDNS_FILTER_NUM] = "104 0 0 0 0xFFFFFF 0x01005E"; #else /* Add filter to pass multicastDNS packet and NOT filter out as Broadcast */ dhd->pktfilter[DHD_MDNS_FILTER_NUM] = NULL; #endif /* PASS_IPV4_SUSPEND */ if (FW_SUPPORTED(dhd, pf6)) { /* Immediately pkt filter TYPE 6 Dicard Broadcast IP packet */ dhd->pktfilter[DHD_IP4BCAST_DROP_FILTER_NUM] = DISCARD_IPV4_BCAST; dhd->pktfilter_count = 8; } #ifdef GAN_LITE_NAT_KEEPALIVE_FILTER dhd->pktfilter_count = 4; /* Setup filter to block broadcast and NAT Keepalive packets */ /* discard all broadcast packets */ dhd->pktfilter[DHD_UNICAST_FILTER_NUM] = "100 0 0 0 0xffffff 0xffffff"; /* discard NAT Keepalive packets */ dhd->pktfilter[DHD_BROADCAST_FILTER_NUM] = "102 0 0 36 0xffffffff 0x11940009"; /* discard NAT Keepalive packets */ dhd->pktfilter[DHD_MULTICAST4_FILTER_NUM] = "104 0 0 38 0xffffffff 0x11940009"; dhd->pktfilter[DHD_MULTICAST6_FILTER_NUM] = NULL; #endif /* GAN_LITE_NAT_KEEPALIVE_FILTER */ #if defined(SOFTAP) if (ap_fw_loaded) { /* XXX Andrey: fo SOFTAP disable pkt filters (if there were any ) */ dhd_enable_packet_filter(0, dhd); } #endif /* defined(SOFTAP) */ dhd_set_packet_filter(dhd); #endif /* PKT_FILTER_SUPPORT */ #ifdef DISABLE_11N ret = dhd_iovar(dhd, 0, "nmode", (char *)&nmode, sizeof(nmode), NULL, 0, TRUE); if (ret < 0) DHD_ERROR(("%s wl nmode 0 failed %d\n", __FUNCTION__, ret)); #endif /* DISABLE_11N */ #ifdef ENABLE_BCN_LI_BCN_WAKEUP ret = dhd_iovar(dhd, 0, "bcn_li_bcn", (char *)&bcn_li_bcn, sizeof(bcn_li_bcn), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s: set bcn_li_bcn failed %d\n", __FUNCTION__, ret)); } #endif /* ENABLE_BCN_LI_BCN_WAKEUP */ #ifdef AMPDU_VO_ENABLE /* XXX: Enabling VO AMPDU to reduce FER */ tid.tid = PRIO_8021D_VO; /* Enable TID(6) for voice */ tid.enable = TRUE; ret = dhd_iovar(dhd, 0, "ampdu_tid", (char *)&tid, sizeof(tid), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s ampdu_tid %d\n", __FUNCTION__, ret)); } tid.tid = PRIO_8021D_NC; /* Enable TID(7) for voice */ tid.enable = TRUE; ret = dhd_iovar(dhd, 0, "ampdu_tid", (char *)&tid, sizeof(tid), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s ampdu_tid %d\n", __FUNCTION__, ret)); } #endif #if defined(SOFTAP_TPUT_ENHANCE) if (dhd->op_mode & DHD_FLAG_HOSTAP_MODE) { #if defined(BCMSDIO) dhd_bus_setidletime(dhd, (int)100); #endif /* BCMSDIO */ #ifdef DHDTCPACK_SUPPRESS dhd_tcpack_suppress_set(dhd, TCPACK_SUP_OFF); #endif #if defined(BCMSDIO) memset(buf, 0, sizeof(buf)); ret = dhd_iovar(dhd, 0, "bus:txglom_auto_control", NULL, 0, buf, sizeof(buf), FALSE); if (ret < 0) { glom = 0; ret = dhd_iovar(dhd, 0, "bus:txglom", (char *)&glom, sizeof(glom), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s bus:txglom failed %d\n", __FUNCTION__, ret)); } } else { if (buf[0] == 0) { glom = 1; ret = dhd_iovar(dhd, 0, "bus:txglom_auto_control", (char *)&glom, sizeof(glom), NULL, 0, TRUE); if (ret < 0) { DHD_ERROR(("%s bus:txglom_auto_control failed %d\n", __FUNCTION__, ret)); } } } #endif /* BCMSDIO */ } #endif /* SOFTAP_TPUT_ENHANCE */ /* query for 'clmver' to get clm version info from firmware */ bzero(buf, sizeof(buf)); ret = dhd_iovar(dhd, 0, "clmver", NULL, 0, buf, sizeof(buf), FALSE); if (ret < 0) DHD_ERROR(("%s failed %d\n", __FUNCTION__, ret)); else { char *ver_temp_buf = NULL; if ((ver_temp_buf = bcmstrstr(buf, "Data:")) == NULL) { DHD_ERROR(("Couldn't find \"Data:\"\n")); } else { ptr = (ver_temp_buf + strlen("Data:")); if ((ver_temp_buf = bcmstrtok(&ptr, "\n", 0)) == NULL) { DHD_ERROR(("Couldn't find New line character\n")); } else { bzero(clm_version, CLM_VER_STR_LEN); strlcpy(clm_version, ver_temp_buf, MIN(strlen(ver_temp_buf) + 1, CLM_VER_STR_LEN)); DHD_INFO(("CLM version = %s\n", clm_version)); } } #if defined(CUSTOMER_HW4_DEBUG) if ((ver_temp_buf = bcmstrstr(ptr, "Customization:")) == NULL) { DHD_ERROR(("Couldn't find \"Customization:\"\n")); } else { char tokenlim; char clm_ver_temp[CLM_VER_STR_LEN] = "\0"; ptr = (ver_temp_buf + strlen("Customization:")); if ((ver_temp_buf = bcmstrtok(&ptr, "(\n", &tokenlim)) == NULL) { DHD_ERROR(("Couldn't find project blob version" "or New line character\n")); } else if (tokenlim == '(') { snprintf(clm_version, CLM_VER_STR_LEN - 1, "%s, Blob ver = Major : %s minor : ", clm_ver_temp, ver_temp_buf); DHD_INFO(("[INFO]CLM/Blob version = %s\n", clm_version)); if ((ver_temp_buf = bcmstrtok(&ptr, "\n", &tokenlim)) == NULL) { DHD_ERROR(("Couldn't find New line character\n")); } else { snprintf(clm_version, strlen(clm_ver_temp) + strlen(ver_temp_buf), "%s%s", clm_ver_temp, ver_temp_buf); DHD_INFO(("[INFO]CLM/Blob/project version = %s\n", clm_version)); } } else if (tokenlim == '\n') { snprintf(clm_version, strlen(clm_ver_temp) + strlen(", Blob ver = Major : ") + 1, "%s, Blob ver = Major : ", clm_ver_temp); snprintf(clm_version, strlen(clm_ver_temp) + strlen(ver_temp_buf) + 1, "%s%s", clm_ver_temp, ver_temp_buf); DHD_INFO(("[INFO]CLM/Blob/project version = %s\n", clm_version)); } } #endif /* CUSTOMER_HW4_DEBUG */ if (strlen(clm_version)) { DHD_ERROR(("CLM version = %s\n", clm_version)); } else { DHD_ERROR(("Couldn't find CLM version!\n")); } } #ifdef WRITE_WLANINFO #ifdef DHD_SUPPORT_VFS_CALL sec_save_wlinfo(fw_version, EPI_VERSION_STR, dhd->info->nv_path, clm_version); #else do { uint len = MAX_NVRAMBUF_SIZE; char *memblock = NULL; dhd_get_download_buffer(dhd, dhd->info->nv_path, NVRAM, &memblock, (int *)&len); if ((len <= 0 || len > MAX_NVRAMBUF_SIZE)) { DHD_ERROR(("Can't open nvram info, skip save wifiver info\n")); break; } sec_save_wlinfo(fw_version, EPI_VERSION_STR, memblock, clm_version); if (memblock) { dhd_free_download_buffer(dhd, memblock, len); } } while (0); #endif /* DHD_SUPPORT_VFS_CALL */ #endif /* WRITE_WLANINFO */ #ifdef GEN_SOFTAP_INFO_FILE sec_save_softap_info(); #endif /* GEN_SOFTAP_INFO_FILE */ #if defined(BCMSDIO) dhd_txglom_enable(dhd, TRUE); #endif /* defined(BCMSDIO) */ #if defined(BCMSDIO) || defined(BCMDBUS) #ifdef PROP_TXSTATUS if (disable_proptx || #ifdef PROP_TXSTATUS_VSDB /* enable WLFC only if the firmware is VSDB when it is in STA mode */ (dhd->op_mode != DHD_FLAG_HOSTAP_MODE && dhd->op_mode != DHD_FLAG_IBSS_MODE) || #endif /* PROP_TXSTATUS_VSDB */ FALSE) { wlfc_enable = FALSE; } #if defined(PROP_TXSTATUS) #ifdef USE_WFA_CERT_CONF if (sec_get_param_wfa_cert(dhd, SET_PARAM_PROPTX, &proptx) == BCME_OK) { DHD_ERROR(("%s , read proptx param=%d\n", __FUNCTION__, proptx)); wlfc_enable = proptx; } #endif /* USE_WFA_CERT_CONF */ #endif /* PROP_TXSTATUS */ #ifndef DISABLE_11N ret2 = dhd_iovar(dhd, 0, "ampdu_hostreorder", (char *)&hostreorder, sizeof(hostreorder), NULL, 0, TRUE); if (ret2 < 0) { DHD_ERROR(("%s wl ampdu_hostreorder failed %d\n", __FUNCTION__, ret2)); if (ret2 != BCME_UNSUPPORTED) ret = ret2; if (ret == BCME_NOTDOWN) { uint wl_down = 1; ret2 = dhd_wl_ioctl_cmd(dhd, WLC_DOWN, (char *)&wl_down, sizeof(wl_down), TRUE, 0); DHD_ERROR(("%s ampdu_hostreorder fail WL_DOWN : %d, hostreorder :%d\n", __FUNCTION__, ret2, hostreorder)); ret2 = dhd_iovar(dhd, 0, "ampdu_hostreorder", (char *)&hostreorder, sizeof(hostreorder), NULL, 0, TRUE); DHD_ERROR(("%s wl ampdu_hostreorder. ret --> %d\n", __FUNCTION__, ret2)); if (ret2 != BCME_UNSUPPORTED) ret = ret2; } if (ret2 != BCME_OK) hostreorder = 0; } #endif /* DISABLE_11N */ #ifdef READ_CONFIG_FROM_FILE dhd_preinit_config(dhd, 0); #endif /* READ_CONFIG_FROM_FILE */ if (wlfc_enable) dhd_wlfc_init(dhd); #ifndef DISABLE_11N else if (hostreorder) dhd_wlfc_hostreorder_init(dhd); #endif /* DISABLE_11N */ #endif /* PROP_TXSTATUS */ #endif /* BCMSDIO || BCMBUS */ #ifndef PCIE_FULL_DONGLE /* For FD we need all the packets at DHD to handle intra-BSS forwarding */ if (FW_SUPPORTED(dhd, ap)) { wl_ap_isolate = AP_ISOLATE_SENDUP_ALL; ret = dhd_iovar(dhd, 0, "ap_isolate", (char *)&wl_ap_isolate, sizeof(wl_ap_isolate), NULL, 0, TRUE); if (ret < 0) DHD_ERROR(("%s failed %d\n", __FUNCTION__, ret)); } #endif /* PCIE_FULL_DONGLE */ #ifdef PNO_SUPPORT if (!dhd->pno_state) { dhd_pno_init(dhd); } #endif #ifdef RTT_SUPPORT if (dhd->rtt_state) { ret = dhd_rtt_init(dhd); if (ret < 0) { DHD_ERROR(("%s failed to initialize RTT\n", __FUNCTION__)); } } #endif #ifdef FILTER_IE /* Failure to configure filter IE is not a fatal error, ignore it. */ if (FW_SUPPORTED(dhd, fie) && !(dhd->op_mode & (DHD_FLAG_HOSTAP_MODE | DHD_FLAG_MFG_MODE))) { dhd_read_from_file(dhd); } #endif /* FILTER_IE */ #ifdef WL11U dhd_interworking_enable(dhd); #endif /* WL11U */ #ifdef NDO_CONFIG_SUPPORT dhd->ndo_enable = FALSE; dhd->ndo_host_ip_overflow = FALSE; dhd->ndo_max_host_ip = NDO_MAX_HOST_IP_ENTRIES; #endif /* NDO_CONFIG_SUPPORT */ /* ND offload version supported */ dhd->ndo_version = dhd_ndo_get_version(dhd); if (dhd->ndo_version > 0) { DHD_INFO(("%s: ndo version %d\n", __FUNCTION__, dhd->ndo_version)); #ifdef NDO_CONFIG_SUPPORT /* enable Unsolicited NA filter */ ret = dhd_ndo_unsolicited_na_filter_enable(dhd, 1); if (ret < 0) { DHD_ERROR(("%s failed to enable Unsolicited NA filter\n", __FUNCTION__)); } #endif /* NDO_CONFIG_SUPPORT */ } /* check dongle supports wbtext (product policy) or not */ dhd->wbtext_support = FALSE; if (dhd_wl_ioctl_get_intiovar(dhd, "wnm_bsstrans_resp", &wnm_bsstrans_resp, WLC_GET_VAR, FALSE, 0) != BCME_OK) { DHD_ERROR(("failed to get wnm_bsstrans_resp\n")); } dhd->wbtext_policy = wnm_bsstrans_resp; if (dhd->wbtext_policy == WL_BSSTRANS_POLICY_PRODUCT_WBTEXT) { dhd->wbtext_support = TRUE; } #ifndef WBTEXT /* driver can turn off wbtext feature through makefile */ if (dhd->wbtext_support) { if (dhd_wl_ioctl_set_intiovar(dhd, "wnm_bsstrans_resp", WL_BSSTRANS_POLICY_ROAM_ALWAYS, WLC_SET_VAR, FALSE, 0) != BCME_OK) { DHD_ERROR(("failed to disable WBTEXT\n")); } } #endif /* !WBTEXT */ #ifdef DHD_NON_DMA_M2M_CORRUPTION /* check pcie non dma loopback */ if (dhd->op_mode == DHD_FLAG_MFG_MODE && (dhd_bus_dmaxfer_lpbk(dhd, M2M_NON_DMA_LPBK) < 0)) { goto done; } #endif /* DHD_NON_DMA_M2M_CORRUPTION */ /* WNM capabilities */ wnm_cap = 0 #ifdef WL11U | WL_WNM_BSSTRANS | WL_WNM_NOTIF #endif #ifdef WBTEXT | WL_WNM_BSSTRANS | WL_WNM_MAXIDLE #endif ; #if defined(WL_MBO) && defined(WL_OCE) if (FW_SUPPORTED(dhd, estm)) { wnm_cap |= WL_WNM_ESTM; } #endif /* WL_MBO && WL_OCE */ if (dhd_iovar(dhd, 0, "wnm", (char *)&wnm_cap, sizeof(wnm_cap), NULL, 0, TRUE) < 0) { DHD_ERROR(("failed to set WNM capabilities\n")); } #ifdef CUSTOM_ASSOC_TIMEOUT /* set recreate_bi_timeout to increase assoc timeout : * 20 * 100TU * 1024 / 1000 = 2 secs * (beacon wait time = recreate_bi_timeout * beacon_period * 1024 / 1000) */ if (dhd_wl_ioctl_set_intiovar(dhd, "recreate_bi_timeout", CUSTOM_ASSOC_TIMEOUT, WLC_SET_VAR, TRUE, 0) != BCME_OK) { DHD_ERROR(("failed to set assoc timeout\n")); } #endif /* CUSTOM_ASSOC_TIMEOUT */ #if defined(WBTEXT) && defined(WBTEXT_BTMDELTA) if (dhd_iovar(dhd, 0, "wnm_btmdelta", (char *)&btmdelta, sizeof(btmdelta), NULL, 0, TRUE) < 0) { DHD_ERROR(("failed to set BTM delta\n")); } #endif /* WBTEXT && WBTEXT_BTMDELTA */ #if defined(WBTEXT) && defined(RRM_BCNREQ_MAX_CHAN_TIME) if (dhd_iovar(dhd, 0, "rrm_bcn_req_thrtl_win", (char *)&rrm_bcn_req_thrtl_win, sizeof(rrm_bcn_req_thrtl_win), NULL, 0, TRUE) < 0) { DHD_ERROR(("failed to set RRM BCN request thrtl_win\n")); } if (dhd_iovar(dhd, 0, "rrm_bcn_req_max_off_chan_time", (char *)&rrm_bcn_req_max_off_chan_time, sizeof(rrm_bcn_req_max_off_chan_time), NULL, 0, TRUE) < 0) { DHD_ERROR(("failed to set RRM BCN Request max_off_chan_time\n")); } #endif /* WBTEXT && RRM_BCNREQ_MAX_CHAN_TIME */ #ifdef WL_MONITOR #ifdef HOST_RADIOTAP_CONV /* 'Wl monitor' IOVAR is fired to check whether the FW supports radiotap conversion or not. * This is indicated through MSB(1<<31) bit, based on which host radiotap conversion * will be enabled or disabled. * 0 - Host supports Radiotap conversion. * 1 - FW supports Radiotap conversion. */ bcm_mkiovar("monitor", (char *)&monitor, sizeof(monitor), iovbuf, sizeof(iovbuf)); if ((ret2 = dhd_wl_ioctl_cmd(dhd, WLC_GET_MONITOR, iovbuf, sizeof(iovbuf), FALSE, 0)) == 0) { memcpy(&monitor, iovbuf, sizeof(monitor)); dhdinfo->host_radiotap_conv = (monitor & HOST_RADIOTAP_CONV_BIT) ? TRUE : FALSE; } else { DHD_ERROR(("%s Failed to get monitor mode, err %d\n", __FUNCTION__, ret2)); } #endif /* HOST_RADIOTAP_CONV */ if (FW_SUPPORTED(dhd, monitor)) { dhd->monitor_enable = TRUE; DHD_ERROR(("%s: Monitor mode is enabled in FW cap\n", __FUNCTION__)); } else { dhd->monitor_enable = FALSE; DHD_ERROR(("%s: Monitor mode is not enabled in FW cap\n", __FUNCTION__)); } #endif /* WL_MONITOR */ /* store the preserve log set numbers */ if (dhd_get_preserve_log_numbers(dhd, &dhd->logset_prsrv_mask) != BCME_OK) { DHD_ERROR(("%s: Failed to get preserve log # !\n", __FUNCTION__)); } if (FW_SUPPORTED(dhd, ecounters) && enable_ecounter) { dhd_ecounter_configure(dhd, TRUE); } dhd_set_bandlock(dhd); #ifdef WL_UWB_COEX #ifdef WL_UWB_COEX_DEF_ENABLE ret = wl_cfg_uwb_coex_enable(dhd_linux_get_primary_netdev(dhd), TRUE, UWB_COEX_CH_MIN, UWB_COEX_CH_MAX); if (ret != BCME_OK) { DHD_ERROR(("Failed to set UWB Coex (%d)\n", ret)); } #endif /* WL_UWB_COEX_DEF_ENABLE */ #endif /* WL_UWB_COEX */ if (dhd_iovar(dhd, 0, "bus:d3_hostwake_delay", (char *)&d3_hostwake_delay, sizeof(d3_hostwake_delay), NULL, 0, TRUE) < 0) { DHD_ERROR(("%s: d3_hostwake_delay IOVAR not present, proceed\n", __FUNCTION__)); } else { DHD_ERROR(("%s: d3_hostwake_delay enabled\n", __FUNCTION__)); } done: if (eventmask_msg) { MFREE(dhd->osh, eventmask_msg, msglen); } if (iov_buf) { MFREE(dhd->osh, iov_buf, WLC_IOCTL_SMLEN); } #if defined(DHD_8021X_DUMP) && defined(SHOW_LOGTRACE) if (el_tag) { MFREE(dhd->osh, el_tag, sizeof(wl_el_tag_params_t)); } #endif /* DHD_8021X_DUMP */ return ret; } /* Deafult enable preinit optimisation */ #define DHD_PREINIT_OPTIMISATION int dhd_preinit_ioctls(dhd_pub_t *dhd) { int ret = 0; #ifdef DHD_PREINIT_OPTIMISATION int preinit_status = 0; ret = dhd_iovar(dhd, 0, "preinit_status", NULL, 0, (char *)&preinit_status, sizeof(preinit_status), FALSE); if (ret == BCME_OK) { DHD_ERROR(("%s: preinit_status IOVAR present, use optimised preinit\n", __FUNCTION__)); dhd->fw_preinit = TRUE; ret = dhd_optimised_preinit_ioctls(dhd); } else if (ret == BCME_UNSUPPORTED) { DHD_ERROR(("%s: preinit_status IOVAR not supported, use legacy preinit\n", __FUNCTION__)); dhd->fw_preinit = FALSE; ret = dhd_legacy_preinit_ioctls(dhd); } else { DHD_ERROR(("%s: preinit_status IOVAR returned err(%d), ABORT\n", __FUNCTION__, ret)); } #else dhd->fw_preinit = FALSE; ret = dhd_legacy_preinit_ioctls(dhd); #endif /* DHD_PREINIT_OPTIMISATION */ if (!ret && dhd_query_bus_erros(dhd)) { DHD_ERROR(("%s: retrun error due to query errors\n", __FUNCTION__)); ret = BCME_ERROR; } return ret; } int dhd_getiovar(dhd_pub_t *pub, int ifidx, char *name, char *cmd_buf, uint cmd_len, char **resptr, uint resp_len) { int len = resp_len; int ret; char *buf = *resptr; wl_ioctl_t ioc; if (resp_len > WLC_IOCTL_MAXLEN) return BCME_BADARG; memset(buf, 0, resp_len); ret = bcm_mkiovar(name, cmd_buf, cmd_len, buf, len); if (ret == 0) { return BCME_BUFTOOSHORT; } memset(&ioc, 0, sizeof(ioc)); ioc.cmd = WLC_GET_VAR; ioc.buf = buf; ioc.len = len; ioc.set = 0; ret = dhd_wl_ioctl(pub, ifidx, &ioc, ioc.buf, ioc.len); return ret; } int dhd_change_mtu(dhd_pub_t *dhdp, int new_mtu, int ifidx) { struct dhd_info *dhd = dhdp->info; struct net_device *dev = NULL; ASSERT(dhd && dhd->iflist[ifidx]); dev = dhd->iflist[ifidx]->net; ASSERT(dev); if (netif_running(dev)) { DHD_ERROR(("%s: Must be down to change its MTU", dev->name)); return BCME_NOTDOWN; } #define DHD_MIN_MTU 1500 #define DHD_MAX_MTU 1752 if ((new_mtu < DHD_MIN_MTU) || (new_mtu > DHD_MAX_MTU)) { DHD_ERROR(("%s: MTU size %d is invalid.\n", __FUNCTION__, new_mtu)); return BCME_BADARG; } dev->mtu = new_mtu; return 0; } #if defined(DHD_FILE_DUMP_EVENT) && defined(DHD_FW_COREDUMP) static int dhd_wait_for_file_dump(dhd_pub_t *dhdp) { int ret = BCME_OK; struct net_device *primary_ndev; struct bcm_cfg80211 *cfg; unsigned long flags = 0; primary_ndev = dhd_linux_get_primary_netdev(dhdp); if (!primary_ndev) { DHD_ERROR(("%s: Cannot find primary netdev\n", __FUNCTION__)); return BCME_ERROR; } cfg = wl_get_cfg(primary_ndev); if (!cfg) { DHD_ERROR(("%s: Cannot find cfg\n", __FUNCTION__)); return BCME_ERROR; } DHD_GENERAL_LOCK(dhdp, flags); if (DHD_BUS_CHECK_DOWN_OR_DOWN_IN_PROGRESS(dhdp)) { DHD_BUS_BUSY_CLEAR_IN_HALDUMP(dhdp); dhd_os_busbusy_wake(dhdp); DHD_GENERAL_UNLOCK(dhdp, flags); DHD_ERROR(("%s: bus is down! can't collect log dump. \n", __FUNCTION__)); return BCME_ERROR; } DHD_BUS_BUSY_SET_IN_HALDUMP(dhdp); DHD_GENERAL_UNLOCK(dhdp, flags); DHD_OS_WAKE_LOCK(dhdp); /* check for hal started and only then send event if not clear dump state here */ if (wl_cfg80211_is_hal_started(cfg)) { int timeleft = 0; DHD_ERROR(("[DUMP] %s: HAL started. send urgent event\n", __FUNCTION__)); dhd_dbg_send_urgent_evt(dhdp, NULL, 0); DHD_ERROR(("%s: wait to clear dhd_bus_busy_state: 0x%x\n", __FUNCTION__, dhdp->dhd_bus_busy_state)); timeleft = dhd_os_busbusy_wait_bitmask(dhdp, &dhdp->dhd_bus_busy_state, DHD_BUS_BUSY_IN_HALDUMP, 0); if ((dhdp->dhd_bus_busy_state & DHD_BUS_BUSY_IN_HALDUMP) != 0) { DHD_ERROR(("%s: Timed out(%d) dhd_bus_busy_state=0x%x\n", __FUNCTION__, timeleft, dhdp->dhd_bus_busy_state)); dhd_set_dump_status(dhdp, DUMP_FAILURE); ret = BCME_ERROR; } } else { DHD_ERROR(("[DUMP] %s: HAL Not started. skip urgent event\n", __FUNCTION__)); ret = BCME_ERROR; } DHD_OS_WAKE_UNLOCK(dhdp); /* In case of dhd_os_busbusy_wait_bitmask() timeout, * hal dump bit will not be cleared. Hence clearing it here. */ DHD_GENERAL_LOCK(dhdp, flags); DHD_BUS_BUSY_CLEAR_IN_HALDUMP(dhdp); dhd_os_busbusy_wake(dhdp); DHD_GENERAL_UNLOCK(dhdp, flags); return ret; } #endif /* DHD_FILE_DUMP_EVENT && DHD_FW_CORE_DUMP */ #ifdef ARP_OFFLOAD_SUPPORT /* add or remove AOE host ip(s) (up to 8 IPs on the interface) */ /* XXX add operation is more efficent */ void aoe_update_host_ipv4_table(dhd_pub_t *dhd_pub, u32 ipa, bool add, int idx) { u32 ipv4_buf[MAX_IPV4_ENTRIES]; /* temp save for AOE host_ip table */ int i; int ret; bzero(ipv4_buf, sizeof(ipv4_buf)); /* display what we've got */ ret = dhd_arp_get_arp_hostip_table(dhd_pub, ipv4_buf, sizeof(ipv4_buf), idx); DHD_ARPOE(("%s: hostip table read from Dongle:\n", __FUNCTION__)); #ifdef AOE_DBG dhd_print_buf(ipv4_buf, 32, 4); /* max 8 IPs 4b each */ #endif /* now we saved hoste_ip table, clr it in the dongle AOE */ dhd_aoe_hostip_clr(dhd_pub, idx); if (ret) { DHD_ERROR(("%s failed\n", __FUNCTION__)); return; } for (i = 0; i < MAX_IPV4_ENTRIES; i++) { if (add && (ipv4_buf[i] == 0)) { ipv4_buf[i] = ipa; add = FALSE; /* added ipa to local table */ DHD_ARPOE(("%s: Saved new IP in temp arp_hostip[%d]\n", __FUNCTION__, i)); } else if (ipv4_buf[i] == ipa) { ipv4_buf[i] = 0; DHD_ARPOE(("%s: removed IP:%x from temp table %d\n", __FUNCTION__, ipa, i)); } if (ipv4_buf[i] != 0) { /* add back host_ip entries from our local cache */ dhd_arp_offload_add_ip(dhd_pub, ipv4_buf[i], idx); DHD_ARPOE(("%s: added IP:%x to dongle arp_hostip[%d]\n\n", __FUNCTION__, ipv4_buf[i], i)); } } #ifdef AOE_DBG /* see the resulting hostip table */ dhd_arp_get_arp_hostip_table(dhd_pub, ipv4_buf, sizeof(ipv4_buf), idx); DHD_ARPOE(("%s: read back arp_hostip table:\n", __FUNCTION__)); dhd_print_buf(ipv4_buf, 32, 4); /* max 8 IPs 4b each */ #endif } /* XXX this function is only for IP address */ /* * Notification mechanism from kernel to our driver. This function is called by the Linux kernel * whenever there is an event related to an IP address. * ptr : kernel provided pointer to IP address that has changed */ static int dhd_inetaddr_notifier_call(struct notifier_block *this, unsigned long event, void *ptr) { struct in_ifaddr *ifa = (struct in_ifaddr *)ptr; dhd_info_t *dhd; dhd_pub_t *dhd_pub; int idx; if (!ifa || !(ifa->ifa_dev->dev)) return NOTIFY_DONE; /* Filter notifications meant for non Broadcom devices */ if ((ifa->ifa_dev->dev->netdev_ops != &dhd_ops_pri) && (ifa->ifa_dev->dev->netdev_ops != &dhd_ops_virt)) { return NOTIFY_DONE; } dhd = DHD_DEV_INFO(ifa->ifa_dev->dev); if (!dhd) return NOTIFY_DONE; dhd_pub = &dhd->pub; if (!dhd_pub->arpoe_enable) { DHD_ERROR(("arpoe_enable not set")); return NOTIFY_DONE; } if (dhd_pub->arp_version == 1) { idx = 0; } else { for (idx = 0; idx < DHD_MAX_IFS; idx++) { if (dhd->iflist[idx] && dhd->iflist[idx]->net == ifa->ifa_dev->dev) break; } if (idx < DHD_MAX_IFS) DHD_TRACE(("ifidx : %p %s %d\n", dhd->iflist[idx]->net, dhd->iflist[idx]->name, dhd->iflist[idx]->idx)); else { DHD_ERROR(("Cannot find ifidx for(%s) set to 0\n", ifa->ifa_label)); idx = 0; } } switch (event) { case NETDEV_UP: DHD_ARPOE(("%s: [%s] Up IP: 0x%x\n", __FUNCTION__, ifa->ifa_label, ifa->ifa_address)); /* * Skip if Bus is not in a state to transport the IOVAR * (or) the Dongle is not ready. */ if (DHD_BUS_CHECK_DOWN_OR_DOWN_IN_PROGRESS(&dhd->pub) || dhd->pub.busstate == DHD_BUS_LOAD) { DHD_ERROR(("%s: bus not ready, exit NETDEV_UP : %d\n", __FUNCTION__, dhd->pub.busstate)); if (dhd->pend_ipaddr) { DHD_ERROR(("%s: overwrite pending ipaddr: 0x%x\n", __FUNCTION__, dhd->pend_ipaddr)); } dhd->pend_ipaddr = ifa->ifa_address; break; } #ifdef AOE_IP_ALIAS_SUPPORT /* XXX HOSTAPD will be rerturned at first */ DHD_ARPOE(("%s:add aliased IP to AOE hostip cache\n", __FUNCTION__)); aoe_update_host_ipv4_table(dhd_pub, ifa->ifa_address, TRUE, idx); #endif /* AOE_IP_ALIAS_SUPPORT */ break; case NETDEV_DOWN: DHD_ARPOE(("%s: [%s] Down IP: 0x%x\n", __FUNCTION__, ifa->ifa_label, ifa->ifa_address)); dhd->pend_ipaddr = 0; #ifdef AOE_IP_ALIAS_SUPPORT /* XXX HOSTAPD will be rerturned at first */ DHD_ARPOE(("%s:interface is down, AOE clr all for this if\n", __FUNCTION__)); if ((dhd_pub->op_mode & DHD_FLAG_HOSTAP_MODE) || (ifa->ifa_dev->dev != dhd_linux_get_primary_netdev(dhd_pub))) { aoe_update_host_ipv4_table(dhd_pub, ifa->ifa_address, FALSE, idx); } else #endif /* AOE_IP_ALIAS_SUPPORT */ { /* XXX clear ALL arp and hostip tables */ dhd_aoe_hostip_clr(&dhd->pub, idx); dhd_aoe_arp_clr(&dhd->pub, idx); } break; default: DHD_ARPOE(("%s: do noting for [%s] Event: %lu\n", __func__, ifa->ifa_label, event)); break; } return NOTIFY_DONE; } #endif /* ARP_OFFLOAD_SUPPORT */ #if defined(CONFIG_IPV6) && defined(IPV6_NDO_SUPPORT) /* Neighbor Discovery Offload: defered handler */ static void dhd_inet6_work_handler(void *dhd_info, void *event_data, u8 event) { struct ipv6_work_info_t *ndo_work = (struct ipv6_work_info_t *)event_data; dhd_info_t *dhd = (dhd_info_t *)dhd_info; dhd_pub_t *dhdp; int ret; if (!dhd) { DHD_ERROR(("%s: invalid dhd_info\n", __FUNCTION__)); goto done; } dhdp = &dhd->pub; if (event != DHD_WQ_WORK_IPV6_NDO) { DHD_ERROR(("%s: unexpected event\n", __FUNCTION__)); goto done; } if (!ndo_work) { DHD_ERROR(("%s: ipv6 work info is not initialized\n", __FUNCTION__)); return; } switch (ndo_work->event) { case NETDEV_UP: #ifndef NDO_CONFIG_SUPPORT DHD_TRACE(("%s: Enable NDO \n ", __FUNCTION__)); ret = dhd_ndo_enable(dhdp, TRUE); if (ret < 0) { DHD_ERROR(("%s: Enabling NDO Failed %d\n", __FUNCTION__, ret)); } #endif /* !NDO_CONFIG_SUPPORT */ DHD_TRACE(("%s: Add a host ip for NDO\n", __FUNCTION__)); if (dhdp->ndo_version > 0) { /* inet6 addr notifier called only for unicast address */ ret = dhd_ndo_add_ip_with_type(dhdp, &ndo_work->ipv6_addr[0], WL_ND_IPV6_ADDR_TYPE_UNICAST, ndo_work->if_idx); } else { ret = dhd_ndo_add_ip(dhdp, &ndo_work->ipv6_addr[0], ndo_work->if_idx); } if (ret < 0) { DHD_ERROR(("%s: Adding a host ip for NDO failed %d\n", __FUNCTION__, ret)); } break; case NETDEV_DOWN: if (dhdp->ndo_version > 0) { DHD_TRACE(("%s: Remove a host ip for NDO\n", __FUNCTION__)); ret = dhd_ndo_remove_ip_by_addr(dhdp, &ndo_work->ipv6_addr[0], ndo_work->if_idx); } else { DHD_TRACE(("%s: Clear host ip table for NDO \n", __FUNCTION__)); ret = dhd_ndo_remove_ip(dhdp, ndo_work->if_idx); } if (ret < 0) { DHD_ERROR(("%s: Removing host ip for NDO failed %d\n", __FUNCTION__, ret)); goto done; } #ifdef NDO_CONFIG_SUPPORT if (dhdp->ndo_host_ip_overflow) { ret = dhd_dev_ndo_update_inet6addr( dhd_idx2net(dhdp, ndo_work->if_idx)); if ((ret < 0) && (ret != BCME_NORESOURCE)) { DHD_ERROR(("%s: Updating host ip for NDO failed %d\n", __FUNCTION__, ret)); goto done; } } #else /* !NDO_CONFIG_SUPPORT */ DHD_TRACE(("%s: Disable NDO\n ", __FUNCTION__)); ret = dhd_ndo_enable(dhdp, FALSE); if (ret < 0) { DHD_ERROR(("%s: disabling NDO Failed %d\n", __FUNCTION__, ret)); goto done; } #endif /* NDO_CONFIG_SUPPORT */ break; default: DHD_ERROR(("%s: unknown notifier event \n", __FUNCTION__)); break; } done: /* free ndo_work. alloced while scheduling the work */ if (ndo_work) { kfree(ndo_work); } return; } /* dhd_init_logstrs_array */ /* * Neighbor Discovery Offload: Called when an interface * is assigned with ipv6 address. * Handles only primary interface */ int dhd_inet6addr_notifier_call(struct notifier_block *this, unsigned long event, void *ptr) { dhd_info_t *dhd; dhd_pub_t *dhdp; struct inet6_ifaddr *inet6_ifa = ptr; struct ipv6_work_info_t *ndo_info; int idx; /* Filter notifications meant for non Broadcom devices */ if (inet6_ifa->idev->dev->netdev_ops != &dhd_ops_pri) { return NOTIFY_DONE; } dhd = DHD_DEV_INFO(inet6_ifa->idev->dev); if (!dhd) { return NOTIFY_DONE; } dhdp = &dhd->pub; idx = dhd_net2idx(dhd, inet6_ifa->idev->dev); if ((idx < DHD_MAX_IFS) && IS_STA_IFACE(ndev_to_wdev(inet6_ifa->idev->dev))) { DHD_TRACE(("ifidx : %p %s %d\n", dhd->iflist[idx]->net, dhd->iflist[idx]->name, dhd->iflist[idx]->idx)); } else { return NOTIFY_DONE; } /* FW capability */ if (!FW_SUPPORTED(dhdp, ndoe)) { return NOTIFY_DONE; } ndo_info = (struct ipv6_work_info_t *)kzalloc(sizeof(struct ipv6_work_info_t), GFP_ATOMIC); if (!ndo_info) { DHD_ERROR(("%s: ipv6 work alloc failed\n", __FUNCTION__)); return NOTIFY_DONE; } /* fill up ndo_info */ ndo_info->event = event; ndo_info->if_idx = idx; memcpy(ndo_info->ipv6_addr, &inet6_ifa->addr, IPV6_ADDR_LEN); /* defer the work to thread as it may block kernel */ dhd_deferred_schedule_work(dhd->dhd_deferred_wq, (void *)ndo_info, DHD_WQ_WORK_IPV6_NDO, dhd_inet6_work_handler, DHD_WQ_WORK_PRIORITY_LOW); return NOTIFY_DONE; } #endif /* CONFIG_IPV6 && IPV6_NDO_SUPPORT */ /* Network attach to be invoked from the bus probe handlers */ int dhd_attach_net(dhd_pub_t *dhdp, bool need_rtnl_lock) { struct net_device *primary_ndev; BCM_REFERENCE(primary_ndev); /* Register primary net device */ if (dhd_register_if(dhdp, 0, need_rtnl_lock) != 0) { return BCME_ERROR; } #if defined(WL_CFG80211) primary_ndev = dhd_linux_get_primary_netdev(dhdp); if (wl_cfg80211_net_attach(primary_ndev) < 0) { /* fail the init */ dhd_remove_if(dhdp, 0, TRUE); return BCME_ERROR; } #endif /* WL_CFG80211 */ return BCME_OK; } int dhd_register_if(dhd_pub_t *dhdp, int ifidx, bool need_rtnl_lock) { dhd_info_t *dhd = (dhd_info_t *)dhdp->info; dhd_if_t *ifp; struct net_device *net = NULL; int err = 0; uint8 temp_addr[ETHER_ADDR_LEN] = { 0x00, 0x90, 0x4c, 0x11, 0x22, 0x33 }; unsigned long flags; DHD_TRACE(("%s: ifidx %d\n", __FUNCTION__, ifidx)); if (dhd == NULL || dhd->iflist[ifidx] == NULL) { DHD_ERROR(("%s: Invalid Interface\n", __FUNCTION__)); return BCME_ERROR; } ASSERT(dhd && dhd->iflist[ifidx]); ifp = dhd->iflist[ifidx]; net = ifp->net; ASSERT(net && (ifp->idx == ifidx)); ASSERT(!net->netdev_ops); net->netdev_ops = &dhd_ops_virt; /* Ok, link into the network layer... */ if (ifidx == 0) { /* * device functions for the primary interface only */ net->netdev_ops = &dhd_ops_pri; if (!ETHER_ISNULLADDR(dhd->pub.mac.octet)) memcpy(temp_addr, dhd->pub.mac.octet, ETHER_ADDR_LEN); } else { /* * We have to use the primary MAC for virtual interfaces */ memcpy(temp_addr, ifp->mac_addr, ETHER_ADDR_LEN); /* * Android sets the locally administered bit to indicate that this is a * portable hotspot. This will not work in simultaneous AP/STA mode, * nor with P2P. Need to set the Donlge's MAC address, and then use that. */ if (!memcmp(temp_addr, dhd->iflist[0]->mac_addr, ETHER_ADDR_LEN)) { DHD_ERROR(("%s interface [%s]: set locally administered bit in MAC\n", __func__, net->name)); temp_addr[0] |= 0x02; } } net->hard_header_len = ETH_HLEN + dhd->pub.hdrlen; #ifdef HOST_SFH_LLC net->needed_headroom += DOT11_LLC_SNAP_HDR_LEN; #endif net->ethtool_ops = &dhd_ethtool_ops; /* XXX Set up an MTU change notifier as per linux/notifier.h? */ dhd->pub.rxsz = DBUS_RX_BUFFER_SIZE_DHD(net); /* * XXX Linux 2.6.25 does not like a blank MAC address, so use a * dummy address until the interface is brought up. */ memcpy(net->dev_addr, temp_addr, ETHER_ADDR_LEN); if (ifidx == 0) DHD_CONS_ONLY(("%s\n", dhd_version)); if (need_rtnl_lock) err = register_netdev(net); else err = register_netdevice(net); if (err != 0) { DHD_ERROR(("couldn't register the net device [%s], err %d\n", net->name, err)); goto fail; } #if (defined(BCM_ROUTER_DHD) && defined(HNDCTF)) if ((ctf_dev_register(dhd->cih, net, FALSE) != BCME_OK) || (ctf_enable(dhd->cih, net, TRUE, &dhd->brc_hot) != BCME_OK)) { DHD_ERROR(("%s:%d: ctf_dev_register/ctf_enable failed for interface %d\n", __FUNCTION__, __LINE__, ifidx)); goto fail; } #endif /* BCM_ROUTER_DHD && HNDCTF */ #if defined(CONFIG_TIZEN) net_stat_tizen_register(net); #endif /* CONFIG_TIZEN */ DHD_CONS_ONLY(("Register interface [%s] MAC: "MACDBG"\n\n", net->name, #if defined(CUSTOMER_HW4_DEBUG) MAC2STRDBG(dhd->pub.mac.octet))); #else MAC2STRDBG(net->dev_addr))); #endif /* CUSTOMER_HW4_DEBUG */ #if (defined(BCMPCIE) || defined(BCMLXSDMMC)) if (ifidx == 0) { #ifdef BCMLXSDMMC up(&dhd_registration_sem); #endif /* BCMLXSDMMC */ if (!dhd_download_fw_on_driverload) { #ifdef WL_CFG80211 wl_terminate_event_handler(net); #endif /* WL_CFG80211 */ #if defined(DHD_LB_RXP) __skb_queue_purge(&dhd->rx_pend_queue); skb_queue_purge(&dhd->rx_emerge_queue); #endif /* DHD_LB_RXP */ #if defined(DHD_LB_TXP) skb_queue_purge(&dhd->tx_pend_queue); #endif /* DHD_LB_TXP */ #ifdef SHOW_LOGTRACE /* Release the skbs from queue for WLC_E_TRACE event */ dhd_event_logtrace_flush_queue(dhdp); #endif /* SHOW_LOGTRACE */ #if defined(BCMPCIE) && defined(DHDTCPACK_SUPPRESS) dhd_tcpack_suppress_set(dhdp, TCPACK_SUP_OFF); #endif /* BCMPCIE && DHDTCPACK_SUPPRESS */ #if defined(WLAN_ACCEL_BOOT) /* * Make Wifi suspended after boot up with forge_reg_on true * This will download fw when ifconfig wlan0 up sequence */ wl_android_wifi_off(net, TRUE); dhd->wl_accel_force_reg_on = TRUE; /* Module init time clear do_chip_bighammer */ dhd->pub.do_chip_bighammer = FALSE; #else /* Turn off Wifi after boot up */ #if defined(BT_OVER_SDIO) dhd_bus_put(&dhd->pub, WLAN_MODULE); wl_android_set_wifi_on_flag(FALSE); #else wl_android_wifi_off(net, TRUE); #endif /* BT_OVER_SDIO */ #endif /* WLAN_ACCEL_BOOT */ } } #endif /* OEM_ANDROID && (BCMPCIE || (BCMLXSDMMC) */ DHD_GENERAL_LOCK(dhdp, flags); ifp->del_in_progress = FALSE; DHD_GENERAL_UNLOCK(dhdp, flags); return 0; fail: net->netdev_ops = NULL; return err; } void dhd_bus_detach(dhd_pub_t *dhdp) { dhd_info_t *dhd; DHD_TRACE(("%s: Enter\n", __FUNCTION__)); if (dhdp) { dhd = (dhd_info_t *)dhdp->info; if (dhd) { /* * In case of Android cfg80211 driver, the bus is down in dhd_stop, * calling stop again will cuase SD read/write errors. */ if (dhd->pub.busstate != DHD_BUS_DOWN) { /* Stop the protocol module */ dhd_prot_stop(&dhd->pub); /* Stop the bus module */ #ifdef BCMDBUS /* Force Dongle terminated */ if (dhd_wl_ioctl_cmd(dhdp, WLC_TERMINATED, NULL, 0, TRUE, 0) < 0) DHD_ERROR(("%s Setting WLC_TERMINATED failed\n", __FUNCTION__)); dbus_stop(dhd->pub.dbus); DHD_ERROR(("%s: making DHD_BUS_DOWN\n", __FUNCTION__)); dhd->pub.busstate = DHD_BUS_DOWN; #else dhd_bus_stop(dhd->pub.bus, TRUE); #endif /* BCMDBUS */ } dhd_bus_oob_intr_unregister(dhdp); } } } void dhd_detach(dhd_pub_t *dhdp) { dhd_info_t *dhd; unsigned long flags; int timer_valid = FALSE; struct net_device *dev = NULL; dhd_if_t *ifp; #ifdef WL_CFG80211 struct bcm_cfg80211 *cfg = NULL; #endif if (!dhdp) return; dhd = (dhd_info_t *)dhdp->info; if (!dhd) return; /* primary interface 0 */ ifp = dhd->iflist[0]; if (ifp && ifp->net) { dev = ifp->net; } if (dev) { rtnl_lock(); if (dev->flags & IFF_UP) { /* If IFF_UP is still up, it indicates that * "ifconfig wlan0 down" hasn't been called. * So invoke dev_close explicitly here to * bring down the interface. */ DHD_TRACE(("IFF_UP flag is up. Enforcing dev_close from detach \n")); dev_close(dev); } rtnl_unlock(); } DHD_TRACE(("%s: Enter state 0x%x\n", __FUNCTION__, dhd->dhd_state)); /* XXX kernel panic issue when first bootup time, * rmmod without interface down make unnecessary hang event. */ DHD_ERROR(("%s: making dhdpub up FALSE\n", __FUNCTION__)); dhd->pub.up = 0; if (!(dhd->dhd_state & DHD_ATTACH_STATE_DONE)) { /* Give sufficient time for threads to start running in case * dhd_attach() has failed */ OSL_SLEEP(100); } #ifdef DHD_WET dhd_free_wet_info(&dhd->pub, dhd->pub.wet_info); #endif /* DHD_WET */ #if defined(BCM_DNGL_EMBEDIMAGE) || defined(BCM_REQUEST_FW) #if defined(BCMDBUS) if (dhd->fw_download_task) { up(&dhd->fw_download_lock); kthread_stop(dhd->fw_download_task); dhd->fw_download_task = NULL; } #endif /* BCMDBUS */ #endif /* defined(BCM_DNGL_EMBEDIMAGE) || defined(BCM_REQUEST_FW) */ #ifdef PROP_TXSTATUS #ifdef DHD_WLFC_THREAD if (dhd->pub.wlfc_thread) { kthread_stop(dhd->pub.wlfc_thread); dhdp->wlfc_thread_go = TRUE; wake_up_interruptible(&dhdp->wlfc_wqhead); } dhd->pub.wlfc_thread = NULL; #endif /* DHD_WLFC_THREAD */ #endif /* PROP_TXSTATUS */ #ifdef DHD_TIMESYNC if (dhd->dhd_state & DHD_ATTACH_TIMESYNC_ATTACH_DONE) { dhd_timesync_detach(dhdp); } #endif /* DHD_TIMESYNC */ if (dhd->dhd_state & DHD_ATTACH_STATE_PROT_ATTACH) { dhd_bus_detach(dhdp); #ifdef BCMPCIE if (is_reboot == SYS_RESTART) { extern bcmdhd_wifi_platdata_t *dhd_wifi_platdata; if (dhd_wifi_platdata && !dhdp->dongle_reset) { dhdpcie_bus_stop_host_dev(dhdp->bus); wifi_platform_set_power(dhd_wifi_platdata->adapters, FALSE, WIFI_TURNOFF_DELAY); } } #endif /* BCMPCIE */ #ifndef PCIE_FULL_DONGLE if (dhdp->prot) dhd_prot_detach(dhdp); #endif /* !PCIE_FULL_DONGLE */ } #ifdef ARP_OFFLOAD_SUPPORT if (dhd_inetaddr_notifier_registered) { dhd_inetaddr_notifier_registered = FALSE; unregister_inetaddr_notifier(&dhd_inetaddr_notifier); } #endif /* ARP_OFFLOAD_SUPPORT */ #if defined(CONFIG_IPV6) && defined(IPV6_NDO_SUPPORT) if (dhd_inet6addr_notifier_registered) { dhd_inet6addr_notifier_registered = FALSE; unregister_inet6addr_notifier(&dhd_inet6addr_notifier); } #endif /* CONFIG_IPV6 && IPV6_NDO_SUPPORT */ #if defined(CONFIG_HAS_EARLYSUSPEND) && defined(DHD_USE_EARLYSUSPEND) if (dhd->dhd_state & DHD_ATTACH_STATE_EARLYSUSPEND_DONE) { if (dhd->early_suspend.suspend) unregister_early_suspend(&dhd->early_suspend); } #endif /* CONFIG_HAS_EARLYSUSPEND && DHD_USE_EARLYSUSPEND */ /* delete all interfaces, start with virtual */ if (dhd->dhd_state & DHD_ATTACH_STATE_ADD_IF) { int i = 1; /* Cleanup virtual interfaces */ dhd_net_if_lock_local(dhd); for (i = 1; i < DHD_MAX_IFS; i++) { if (dhd->iflist[i]) { dhd_remove_if(&dhd->pub, i, TRUE); } } dhd_net_if_unlock_local(dhd); /* 'ifp' indicates primary interface 0, clean it up. */ if (ifp && ifp->net) { #if (defined(BCM_ROUTER_DHD) && defined(HNDCTF)) if (dhd->cih) ctf_dev_unregister(dhd->cih, ifp->net); #endif /* BCM_ROUTER_DHD && HNDCTF */ #ifdef WL_CFG80211 cfg = wl_get_cfg(ifp->net); #endif /* in unregister_netdev case, the interface gets freed by net->destructor * (which is set to free_netdev) */ if (ifp->net->reg_state == NETREG_UNINITIALIZED) { free_netdev(ifp->net); } else { netif_tx_disable(ifp->net); unregister_netdev(ifp->net); } #ifdef PCIE_FULL_DONGLE ifp->net = DHD_NET_DEV_NULL; #else ifp->net = NULL; #endif /* PCIE_FULL_DONGLE */ #ifdef DHD_WMF dhd_wmf_cleanup(dhdp, 0); #endif /* DHD_WMF */ #ifdef DHD_L2_FILTER bcm_l2_filter_arp_table_update(dhdp->osh, ifp->phnd_arp_table, TRUE, NULL, FALSE, dhdp->tickcnt); deinit_l2_filter_arp_table(dhdp->osh, ifp->phnd_arp_table); ifp->phnd_arp_table = NULL; #endif /* DHD_L2_FILTER */ #if (defined(BCM_ROUTER_DHD) && defined(QOS_MAP_SET)) MFREE(dhdp->osh, ifp->qosmap_up_table, UP_TABLE_MAX); ifp->qosmap_up_table_enable = FALSE; #endif /* BCM_ROUTER_DHD && QOS_MAP_SET */ dhd_if_del_sta_list(ifp); MFREE(dhd->pub.osh, ifp, sizeof(*ifp)); ifp = NULL; } } /* Clear the watchdog timer */ DHD_GENERAL_LOCK(&dhd->pub, flags); timer_valid = dhd->wd_timer_valid; dhd->wd_timer_valid = FALSE; DHD_GENERAL_UNLOCK(&dhd->pub, flags); if (timer_valid) del_timer_sync(&dhd->timer); DHD_STOP_RPM_TIMER(&dhd->pub); #ifdef BCMDBUS tasklet_kill(&dhd->tasklet); #else if (dhd->dhd_state & DHD_ATTACH_STATE_THREADS_CREATED) { #ifdef DHD_PCIE_RUNTIMEPM if (dhd->thr_rpm_ctl.thr_pid >= 0) { PROC_STOP(&dhd->thr_rpm_ctl); } #endif /* DHD_PCIE_RUNTIMEPM */ if (dhd->thr_wdt_ctl.thr_pid >= 0) { PROC_STOP(&dhd->thr_wdt_ctl); } if (dhd->rxthread_enabled && dhd->thr_rxf_ctl.thr_pid >= 0) { PROC_STOP(&dhd->thr_rxf_ctl); } if (dhd->thr_dpc_ctl.thr_pid >= 0) { PROC_STOP(&dhd->thr_dpc_ctl); } else { tasklet_kill(&dhd->tasklet); } } #endif /* BCMDBUS */ #ifdef WL_NATOE if (dhd->pub.nfct) { dhd_ct_close(dhd->pub.nfct); } #endif /* WL_NATOE */ cancel_delayed_work_sync(&dhd->dhd_dpc_dispatcher_work); #ifdef DHD_LB if (dhd->dhd_state & DHD_ATTACH_STATE_LB_ATTACH_DONE) { /* Clear the flag first to avoid calling the cpu notifier */ dhd->dhd_state &= ~DHD_ATTACH_STATE_LB_ATTACH_DONE; /* Kill the Load Balancing Tasklets */ #ifdef DHD_LB_RXP cancel_work_sync(&dhd->rx_napi_dispatcher_work); __skb_queue_purge(&dhd->rx_pend_queue); skb_queue_purge(&dhd->rx_emerge_queue); #endif /* DHD_LB_RXP */ #ifdef DHD_LB_TXP cancel_work_sync(&dhd->tx_dispatcher_work); tasklet_kill(&dhd->tx_tasklet); __skb_queue_purge(&dhd->tx_pend_queue); #endif /* DHD_LB_TXP */ /* Unregister from CPU Hotplug framework */ dhd_unregister_cpuhp_callback(dhd); dhd_cpumasks_deinit(dhd); DHD_LB_STATS_DEINIT(&dhd->pub); } #endif /* DHD_LB */ #if defined(DNGL_AXI_ERROR_LOGGING) && defined(DHD_USE_WQ_FOR_DNGL_AXI_ERROR) cancel_work_sync(&dhd->axi_error_dispatcher_work); #endif /* DNGL_AXI_ERROR_LOGGING && DHD_USE_WQ_FOR_DNGL_AXI_ERROR */ DHD_SSSR_REG_INFO_DEINIT(&dhd->pub); DHD_SSSR_MEMPOOL_DEINIT(&dhd->pub); DHD_COREDUMP_MEMPOOL_DEINIT(&dhd->pub); #ifdef DHD_SDTC_ETB_DUMP dhd_sdtc_etb_mempool_deinit(&dhd->pub); #endif /* DHD_SDTC_ETB_DUMP */ #ifdef RX_PKT_POOL dhd_rx_pktpool_deinit(dhd); #endif #ifdef WL_CFG80211 if (dhd->dhd_state & DHD_ATTACH_STATE_CFG80211) { if (!cfg) { DHD_ERROR(("cfg NULL!\n")); ASSERT(0); } else { wl_cfg80211_detach(cfg); dhd_monitor_uninit(); } } #endif #ifdef DHD_PCIE_NATIVE_RUNTIMEPM destroy_workqueue(dhd->tx_wq); dhd->tx_wq = NULL; destroy_workqueue(dhd->rx_wq); dhd->rx_wq = NULL; #endif /* DHD_PCIE_NATIVE_RUNTIMEPM */ #ifdef BCMDBUS if (dhdp->dbus) { dbus_detach(dhdp->dbus); dhdp->dbus = NULL; } #endif /* BCMDBUS */ #ifdef DEBUGABILITY if (dhdp->dbg) { #ifdef DBG_PKT_MON dhd_os_dbg_detach_pkt_monitor(dhdp); osl_spin_lock_deinit(dhd->pub.osh, dhd->pub.dbg->pkt_mon_lock); #endif /* DBG_PKT_MON */ } #endif /* DEBUGABILITY */ if (dhdp->dbg) { dhd_os_dbg_detach(dhdp); } #ifdef DHD_MEM_STATS osl_spin_lock_deinit(dhd->pub.osh, dhd->pub.mem_stats_lock); #endif /* DHD_MEM_STATS */ #ifdef DHD_PKT_LOGGING dhd_os_detach_pktlog(dhdp); #endif /* DHD_PKT_LOGGING */ #ifdef DHD_STATUS_LOGGING dhd_detach_statlog(dhdp); #endif /* DHD_STATUS_LOGGING */ #ifdef DHD_PKTDUMP_ROAM dhd_dump_pkt_deinit(dhdp); #endif /* DHD_PKTDUMP_ROAM */ #ifdef WL_CFGVENDOR_SEND_HANG_EVENT if (dhd->pub.hang_info) { MFREE(dhd->pub.osh, dhd->pub.hang_info, VENDOR_SEND_HANG_EXT_INFO_LEN); } #endif /* WL_CFGVENDOR_SEND_HANG_EVENT */ #ifdef SHOW_LOGTRACE /* Release the skbs from queue for WLC_E_TRACE event */ dhd_event_logtrace_flush_queue(dhdp); /* Wait till event logtrace context finishes */ dhd_cancel_logtrace_process_sync(dhd); /* Remove ring proc entries */ dhd_dbg_ring_proc_destroy(&dhd->pub); if (dhd->dhd_state & DHD_ATTACH_LOGTRACE_INIT) { if (dhd->event_data.fmts) { MFREE(dhd->pub.osh, dhd->event_data.fmts, dhd->event_data.fmts_size); } if (dhd->event_data.raw_fmts) { MFREE(dhd->pub.osh, dhd->event_data.raw_fmts, dhd->event_data.raw_fmts_size); } if (dhd->event_data.raw_sstr) { MFREE(dhd->pub.osh, dhd->event_data.raw_sstr, dhd->event_data.raw_sstr_size); } if (dhd->event_data.rom_raw_sstr) { MFREE(dhd->pub.osh, dhd->event_data.rom_raw_sstr, dhd->event_data.rom_raw_sstr_size); } dhd->dhd_state &= ~DHD_ATTACH_LOGTRACE_INIT; } #endif /* SHOW_LOGTRACE */ #ifdef BTLOG skb_queue_purge(&dhd->bt_log_queue); #endif /* BTLOG */ #ifdef PNO_SUPPORT if (dhdp->pno_state) dhd_pno_deinit(dhdp); #endif #ifdef RTT_SUPPORT if (dhdp->rtt_state) { dhd_rtt_detach(dhdp); } #endif #if defined(CONFIG_PM_SLEEP) if (dhd_pm_notifier_registered) { unregister_pm_notifier(&dhd->pm_notifier); dhd_pm_notifier_registered = FALSE; } #endif /* CONFIG_PM_SLEEP */ #ifdef DEBUG_CPU_FREQ if (dhd->new_freq) free_percpu(dhd->new_freq); dhd->new_freq = NULL; cpufreq_unregister_notifier(&dhd->freq_trans, CPUFREQ_TRANSITION_NOTIFIER); #endif #ifdef CONFIG_HAS_WAKELOCK dhd->wakelock_wd_counter = 0; dhd_wake_lock_destroy(dhd->wl_wdwake); #endif /* CONFIG_HAS_WAKELOCK */ if (dhd->dhd_state & DHD_ATTACH_STATE_WAKELOCKS_INIT) { DHD_TRACE(("wd wakelock count:%d\n", dhd->wakelock_wd_counter)); DHD_OS_WAKE_LOCK_DESTROY(dhd); } #ifdef DHDTCPACK_SUPPRESS /* This will free all MEM allocated for TCPACK SUPPRESS */ dhd_tcpack_suppress_set(&dhd->pub, TCPACK_SUP_OFF); #endif /* DHDTCPACK_SUPPRESS */ #ifdef PCIE_FULL_DONGLE dhd_flow_rings_deinit(dhdp); if (dhdp->prot) dhd_prot_detach(dhdp); #endif #ifdef EWP_EDL if (host_edl_support) { DHD_EDL_MEM_DEINIT(dhdp); host_edl_support = FALSE; } #endif /* EWP_EDL */ #if defined(WLTDLS) && defined(PCIE_FULL_DONGLE) dhd_free_tdls_peer_list(dhdp); #endif #if (defined(BCM_ROUTER_DHD) && defined(HNDCTF)) /* Release CTF pool ONLY after the prot layer is dettached and * pkts, possibly from fast ctfpool are freed into ctfpool/kernel */ #ifdef CTFPOOL /* free the buffers in fast pool */ osl_ctfpool_cleanup(dhd->pub.osh); #endif /* CTFPOOL */ /* free ctf resources */ if (dhd->cih) ctf_detach(dhd->cih); #endif /* BCM_ROUTER_DHD && HNDCTF */ #ifdef BCMDBG dhd_macdbg_detach(dhdp); #endif /* BCMDBG */ #ifdef DUMP_IOCTL_IOV_LIST dhd_iov_li_delete(dhdp, &(dhdp->dump_iovlist_head)); #endif /* DUMP_IOCTL_IOV_LIST */ #ifdef DHD_DEBUG /* memory waste feature list initilization */ dhd_mw_list_delete(dhdp, &(dhdp->mw_list_head)); #endif /* DHD_DEBUG */ #ifdef WL_MONITOR dhd_del_monitor_if(dhd); #endif /* WL_MONITOR */ #ifdef DHD_ERPOM if (dhdp->enable_erpom) { dhdp->pom_func_deregister(&dhdp->pom_wlan_handler); } #endif /* DHD_ERPOM */ cancel_work_sync(&dhd->dhd_hang_process_work); /* Prefer adding de-init code above this comment unless necessary. * The idea is to cancel work queue, sysfs and flags at the end. */ dhd_deferred_work_deinit(dhd->dhd_deferred_wq); dhd->dhd_deferred_wq = NULL; /* log dump related buffers should be freed after wq is purged */ #ifdef DHD_LOG_DUMP dhd_log_dump_deinit(&dhd->pub); #endif /* DHD_LOG_DUMP */ #if defined(BCMPCIE) if (dhdp->extended_trap_data) { MFREE(dhdp->osh, dhdp->extended_trap_data, BCMPCIE_EXT_TRAP_DATA_MAXLEN); dhdp->extended_trap_data = NULL; } #ifdef DNGL_AXI_ERROR_LOGGING if (dhdp->axi_err_dump) { MFREE(dhdp->osh, dhdp->axi_err_dump, sizeof(dhd_axi_error_dump_t)); dhdp->axi_err_dump = NULL; } #endif /* DNGL_AXI_ERROR_LOGGING */ #endif /* BCMPCIE */ #ifdef BTLOG /* Wait till bt_log_dispatcher_work finishes */ cancel_work_sync(&dhd->bt_log_dispatcher_work); #endif /* BTLOG */ #ifdef EWP_EDL cancel_delayed_work_sync(&dhd->edl_dispatcher_work); #endif (void)dhd_deinit_sock_flows_buf(dhd); #ifdef DHD_DUMP_MNGR if (dhd->pub.dump_file_manage) { MFREE(dhd->pub.osh, dhd->pub.dump_file_manage, sizeof(dhd_dump_file_manage_t)); } #endif /* DHD_DUMP_MNGR */ dhd_sysfs_exit(dhd); dhd->pub.fw_download_status = FW_UNLOADED; #if defined(BT_OVER_SDIO) mutex_destroy(&dhd->bus_user_lock); #endif /* BT_OVER_SDIO */ #ifdef DHD_TX_PROFILE (void)dhd_tx_profile_detach(dhdp); #endif /* defined(DHD_TX_PROFILE) */ #ifdef WL_CFGVENDOR_SEND_ALERT_EVENT cancel_work_sync(&dhd->dhd_alert_process_work); #endif /* WL_CFGVENDOR_SEND_ALERT_EVENT */ #if defined(DHD_FILE_DUMP_EVENT) && defined(DHD_FW_COREDUMP) cancel_work_sync(&dhd->dhd_dump_proc_work); #endif /* DHD_FILE_DUMP_EVENT && DHD_FW_COREDUMP */ } /* dhd_detach */ void dhd_free(dhd_pub_t *dhdp) { dhd_info_t *dhd; DHD_TRACE(("%s: Enter\n", __FUNCTION__)); if (dhdp) { int i; for (i = 0; i < ARRAYSIZE(dhdp->reorder_bufs); i++) { if (dhdp->reorder_bufs[i]) { reorder_info_t *ptr; uint32 buf_size = sizeof(struct reorder_info); ptr = dhdp->reorder_bufs[i]; buf_size += ((ptr->max_idx + 1) * sizeof(void*)); DHD_REORDER(("free flow id buf %d, maxidx is %d, buf_size %d\n", i, ptr->max_idx, buf_size)); MFREE(dhdp->osh, dhdp->reorder_bufs[i], buf_size); } } dhd_sta_pool_fini(dhdp, DHD_MAX_STA); dhd = (dhd_info_t *)dhdp->info; if (dhdp->soc_ram) { #if defined(CONFIG_DHD_USE_STATIC_BUF) && defined(DHD_USE_STATIC_MEMDUMP) DHD_OS_PREFREE(dhdp, dhdp->soc_ram, dhdp->soc_ram_length); #else if (is_vmalloc_addr(dhdp->soc_ram)) { VMFREE(dhdp->osh, dhdp->soc_ram, dhdp->soc_ram_length); } else { MFREE(dhdp->osh, dhdp->soc_ram, dhdp->soc_ram_length); } #endif /* CONFIG_DHD_USE_STATIC_BUF && DHD_USE_STATIC_MEMDUMP */ dhdp->soc_ram = NULL; } #ifdef CACHE_FW_IMAGES if (dhdp->cached_fw) { MFREE(dhdp->osh, dhdp->cached_fw, dhdp->bus->ramsize); } if (dhdp->cached_nvram) { MFREE(dhdp->osh, dhdp->cached_nvram, MAX_NVRAMBUF_SIZE); } #endif #ifdef SUPPORT_OTA_UPDATE (void)dhd_ota_buf_clean(dhdp); #endif /* SUPPORT_OTA_UPDATE */ if (dhd != NULL) { #ifdef REPORT_FATAL_TIMEOUTS deinit_dhd_timeouts(&dhd->pub); #endif /* REPORT_FATAL_TIMEOUTS */ /* Free Platform Layer allocations */ if (dhd->pub.plat_info) { MFREE(dhdp->osh, dhdp->plat_info, dhdp->plat_info_size); } /* If pointer is allocated by dhd_os_prealloc then avoid MFREE */ if (dhd != (dhd_info_t *)dhd_os_prealloc(dhdp, DHD_PREALLOC_DHD_INFO, 0, FALSE)) MFREE(dhd->pub.osh, dhd, sizeof(*dhd)); dhd = NULL; } } } void dhd_clear(dhd_pub_t *dhdp) { DHD_TRACE(("%s: Enter\n", __FUNCTION__)); if (dhdp) { int i; #ifdef DHDTCPACK_SUPPRESS /* Clean up timer/data structure for any remaining/pending packet or timer. */ dhd_tcpack_info_tbl_clean(dhdp); #endif /* DHDTCPACK_SUPPRESS */ for (i = 0; i < ARRAYSIZE(dhdp->reorder_bufs); i++) { if (dhdp->reorder_bufs[i]) { reorder_info_t *ptr; uint32 buf_size = sizeof(struct reorder_info); ptr = dhdp->reorder_bufs[i]; buf_size += ((ptr->max_idx + 1) * sizeof(void*)); DHD_REORDER(("free flow id buf %d, maxidx is %d, buf_size %d\n", i, ptr->max_idx, buf_size)); MFREE(dhdp->osh, dhdp->reorder_bufs[i], buf_size); } } dhd_sta_pool_clear(dhdp, DHD_MAX_STA); if (dhdp->soc_ram) { #if defined(CONFIG_DHD_USE_STATIC_BUF) && defined(DHD_USE_STATIC_MEMDUMP) DHD_OS_PREFREE(dhdp, dhdp->soc_ram, dhdp->soc_ram_length); #else if (is_vmalloc_addr(dhdp->soc_ram)) { VMFREE(dhdp->osh, dhdp->soc_ram, dhdp->soc_ram_length); } else { MFREE(dhdp->osh, dhdp->soc_ram, dhdp->soc_ram_length); } #endif /* CONFIG_DHD_USE_STATIC_BUF && DHD_USE_STATIC_MEMDUMP */ dhdp->soc_ram = NULL; } } } static void dhd_module_cleanup(void) { DHD_TRACE(("%s: Enter\n", __FUNCTION__)); #ifdef BCMDBUS dbus_deregister(); #else dhd_bus_unregister(); #endif /* BCMDBUS */ wl_android_exit(); dhd_wifi_platform_unregister_drv(); } static void __exit dhd_module_exit(void) { atomic_set(&exit_in_progress, 1); #ifdef DHD_BUZZZ_LOG_ENABLED dhd_buzzz_detach(); #endif /* DHD_BUZZZ_LOG_ENABLED */ dhd_module_cleanup(); unregister_reboot_notifier(&dhd_reboot_notifier); dhd_destroy_to_notifier_skt(); } static int _dhd_module_init(void) { int err; int retry = POWERUP_MAX_RETRY; DHD_ERROR(("%s in\n", __FUNCTION__)); #ifdef DHD_BUZZZ_LOG_ENABLED dhd_buzzz_attach(); #endif /* DHD_BUZZZ_LOG_ENABLED */ #if defined(BCM_ROUTER_DHD) { /* XXX Should we maintain nvram budget/thresholds per 5G|2G radio? */ char * var; if ((var = getvar(NULL, "dhd_queue_budget")) != NULL) { dhd_queue_budget = bcm_strtoul(var, NULL, 0); } DHD_ERROR(("dhd_queue_budget = %d\n", dhd_queue_budget)); if ((var = getvar(NULL, "dhd_sta_threshold")) != NULL) { dhd_sta_threshold = bcm_strtoul(var, NULL, 0); } DHD_ERROR(("dhd_sta_threshold = %d\n", dhd_sta_threshold)); if ((var = getvar(NULL, "dhd_if_threshold")) != NULL) { dhd_if_threshold = bcm_strtoul(var, NULL, 0); } DHD_ERROR(("dhd_if_threshold = %d\n", dhd_if_threshold)); } #endif /* BCM_ROUTER_DHD */ if (firmware_path[0] != '\0') { strlcpy(fw_bak_path, firmware_path, sizeof(fw_bak_path)); } if (nvram_path[0] != '\0') { strlcpy(nv_bak_path, nvram_path, sizeof(nv_bak_path)); } do { err = dhd_wifi_platform_register_drv(); if (!err) { register_reboot_notifier(&dhd_reboot_notifier); break; } else { DHD_ERROR(("%s: Failed to load the driver, try cnt %d\n", __FUNCTION__, retry)); strlcpy(firmware_path, fw_bak_path, sizeof(firmware_path)); strlcpy(nvram_path, nv_bak_path, sizeof(nvram_path)); } } while (retry--); dhd_create_to_notifier_skt(); if (err) { DHD_ERROR(("%s: Failed to load driver max retry reached**\n", __FUNCTION__)); } else { if (!dhd_download_fw_on_driverload) { dhd_driver_init_done = TRUE; } } DHD_ERROR(("%s out\n", __FUNCTION__)); return err; } static int dhd_module_init(void) { int err; err = _dhd_module_init(); #ifdef DHD_SUPPORT_HDM if (hdm_wifi_support && err && !dhd_download_fw_on_driverload) { dhd_hdm_wlan_sysfs_init(); err = 0; } #endif /* DHD_SUPPORT_HDM */ #if defined(BCMDHD_MODULAR) && defined(DHD_MODULE_INIT_FORCE_SUCCESS) err = 0; #endif /* BCMDHD_MODULAR && DHD_MODULE_INIT_FORCE_SUCCESS */ return err; } #ifdef DHD_SUPPORT_HDM bool hdm_trigger_init = FALSE; struct delayed_work hdm_sysfs_wq; int dhd_module_init_hdm(void) { int err = 0; hdm_trigger_init = TRUE; if (dhd_driver_init_done) { DHD_INFO(("%s : Module is already inited\n", __FUNCTION__)); return err; } err = _dhd_module_init(); /* remove sysfs file after module load properly */ if (!err && !dhd_download_fw_on_driverload) { INIT_DELAYED_WORK(&hdm_sysfs_wq, dhd_hdm_wlan_sysfs_deinit); schedule_delayed_work(&hdm_sysfs_wq, msecs_to_jiffies(SYSFS_DEINIT_MS)); } hdm_trigger_init = FALSE; return err; } #endif /* DHD_SUPPORT_HDM */ static int dhd_reboot_callback(struct notifier_block *this, unsigned long code, void *unused) { DHD_TRACE(("%s: code = %ld\n", __FUNCTION__, code)); if (code == SYS_RESTART) { #ifdef BCMPCIE is_reboot = code; #endif /* BCMPCIE */ } return NOTIFY_DONE; } #ifdef BCMDBUS /* * hdrlen is space to reserve in pkt headroom for DBUS */ void * dhd_dbus_probe_cb(void *arg, const char *desc, uint32 bustype, uint32 hdrlen) { osl_t *osh; int ret = 0; dbus_attrib_t attrib; dhd_pub_t *pub = NULL; DHD_TRACE(("%s: Enter\n", __FUNCTION__)); /* Ask the OS interface part for an OSL handle */ if (!(osh = osl_attach(NULL, bustype, TRUE))) { DHD_ERROR(("%s: OSL attach failed\n", __FUNCTION__)); ret = -ENOMEM; goto fail; } /* Attach to the dhd/OS interface */ if (!(pub = dhd_attach(osh, NULL /* bus */, hdrlen))) { DHD_ERROR(("%s: dhd_attach failed\n", __FUNCTION__)); ret = -ENXIO; goto fail; } /* Ok, finish the attach to the OS network interface */ if (dhd_register_if(pub, 0, TRUE) != 0) { DHD_ERROR(("%s: dhd_register_if failed\n", __FUNCTION__)); ret = -ENXIO; goto fail; } pub->dbus = dbus_attach(osh, pub->rxsz, DBUS_NRXQ, DBUS_NTXQ, pub->info, &dhd_dbus_cbs, NULL, NULL); if (pub->dbus) { dbus_get_attrib(pub->dbus, &attrib); DHD_ERROR(("DBUS: vid=0x%x pid=0x%x devid=0x%x bustype=0x%x mtu=%d\n", attrib.vid, attrib.pid, attrib.devid, attrib.bustype, attrib.mtu)); } else { ret = -ENXIO; goto fail; } /* This is passed to dhd_dbus_disconnect_cb */ return pub->info; fail: /* Release resources in reverse order */ if (osh) { if (pub) { dhd_detach(pub); dhd_free(pub); } osl_detach(osh); } /* XXX FIXME: unused? */ BCM_REFERENCE(ret); return NULL; } void dhd_dbus_disconnect_cb(void *arg) { dhd_info_t *dhd = (dhd_info_t *)arg; dhd_pub_t *pub; osl_t *osh; if (dhd == NULL) return; pub = &dhd->pub; osh = pub->osh; dhd_detach(pub); dhd_free(pub); if (MALLOCED(osh)) { DHD_ERROR(("%s: MEMORY LEAK %d bytes\n", __FUNCTION__, MALLOCED(osh))); } osl_detach(osh); } #endif /* BCMDBUS */ #if defined(CONFIG_DEFERRED_INITCALLS) && !defined(EXYNOS_PCIE_MODULE_PATCH) /* XXX To decrease the device boot time, deferred_module_init() macro can be * used. The detailed principle and implemenation of deferred_module_init() * is found at http://elinux.org/Deferred_Initcalls * To enable this feature for module build, it needs to add another * deferred_module_init() definition to include/linux/init.h in Linux Kernel. * #define deferred_module_init(fn) module_init(fn) */ #if defined(CONFIG_ARCH_MSM) || defined(CONFIG_ARCH_EXYNOS) deferred_module_init_sync(dhd_module_init); #else deferred_module_init(dhd_module_init); #endif /* CONFIG_ARCH_MSM || CONFIG_ARCH_EXYNOS */ #elif defined(USE_LATE_INITCALL_SYNC) late_initcall_sync(dhd_module_init); #else late_initcall(dhd_module_init); #endif /* USE_LATE_INITCALL_SYNC */ module_exit(dhd_module_exit); /* For the Exynos platform, the WLAN_REG_ON pin is connected to an expander GPIO such as PMIC. * The WLAN_REG_ON pin initialization failed * if the Wi-Fi module is loaded before the PMIC module is loaded. * Add the MODULE_SOFTDEP macro to load the Wi-Fi module after the PMIC module is loaded. */ #if defined(CONFIG_SOC_S5E9925) MODULE_SOFTDEP("pre: acpm-mfd-bus"); #endif /* CONFIG_SOC_S5E9925 */ /* * OS specific functions required to implement DHD driver in OS independent way */ int dhd_os_proto_block(dhd_pub_t *pub) { dhd_info_t * dhd = (dhd_info_t *)(pub->info); if (dhd) { down(&dhd->proto_sem); return 1; } return 0; } int dhd_os_proto_unblock(dhd_pub_t *pub) { dhd_info_t * dhd = (dhd_info_t *)(pub->info); if (dhd) { up(&dhd->proto_sem); return 1; } return 0; } void dhd_os_dhdiovar_lock(dhd_pub_t *pub) { dhd_info_t * dhd = (dhd_info_t *)(pub->info); if (dhd) { mutex_lock(&dhd->dhd_iovar_mutex); } } void dhd_os_dhdiovar_unlock(dhd_pub_t *pub) { dhd_info_t * dhd = (dhd_info_t *)(pub->info); if (dhd) { mutex_unlock(&dhd->dhd_iovar_mutex); } } void dhd_os_logdump_lock(dhd_pub_t *pub) { dhd_info_t *dhd = NULL; if (!pub) return; dhd = (dhd_info_t *)(pub->info); if (dhd) { mutex_lock(&dhd->logdump_lock); } } void dhd_os_logdump_unlock(dhd_pub_t *pub) { dhd_info_t *dhd = NULL; if (!pub) return; dhd = (dhd_info_t *)(pub->info); if (dhd) { mutex_unlock(&dhd->logdump_lock); } } unsigned int dhd_os_get_ioctl_resp_timeout(void) { return ((unsigned int)dhd_ioctl_timeout_msec); } void dhd_os_set_ioctl_resp_timeout(unsigned int timeout_msec) { dhd_ioctl_timeout_msec = (int)timeout_msec; } int dhd_os_ioctl_resp_wait(dhd_pub_t *pub, uint *condition) { dhd_info_t * dhd = (dhd_info_t *)(pub->info); int timeout; /* Convert timeout in millsecond to jiffies */ timeout = msecs_to_jiffies(dhd_ioctl_timeout_msec); #ifdef BCMQT_HW DHD_ERROR(("%s, Timeout wait until %d mins (%d ms) in QT mode\n", __FUNCTION__, (dhd_ioctl_timeout_msec / (60 * 1000)), dhd_ioctl_timeout_msec)); #endif /* BCMQT_HW */ timeout = wait_event_timeout(dhd->ioctl_resp_wait, (*condition), timeout); return timeout; } int dhd_os_ioctl_resp_wake(dhd_pub_t *pub) { dhd_info_t *dhd = (dhd_info_t *)(pub->info); wake_up(&dhd->ioctl_resp_wait); return 0; } int dhd_os_d3ack_wait(dhd_pub_t *pub, uint *condition) { dhd_info_t * dhd = (dhd_info_t *)(pub->info); int timeout; /* Convert timeout in millsecond to jiffies */ timeout = msecs_to_jiffies(D3_ACK_RESP_TIMEOUT); #ifdef BCMSLTGT timeout *= htclkratio; #endif /* BCMSLTGT */ timeout = wait_event_timeout(dhd->d3ack_wait, (*condition), timeout); return timeout; } #ifdef PCIE_INB_DW int dhd_os_ds_exit_wait(dhd_pub_t *pub, uint *condition) { dhd_info_t * dhd = (dhd_info_t *)(pub->info); int timeout; /* Convert timeout in millsecond to jiffies */ timeout = msecs_to_jiffies(ds_exit_timeout_msec); #ifdef BCMSLTGT timeout *= htclkratio; #endif /* BCMSLTGT */ timeout = wait_event_timeout(dhd->ds_exit_wait, (*condition), timeout); return timeout; } int dhd_os_ds_exit_wake(dhd_pub_t *pub) { dhd_info_t *dhd = (dhd_info_t *)(pub->info); wake_up_all(&dhd->ds_exit_wait); return 0; } #endif /* PCIE_INB_DW */ int dhd_os_d3ack_wake(dhd_pub_t *pub) { dhd_info_t *dhd = (dhd_info_t *)(pub->info); wake_up(&dhd->d3ack_wait); return 0; } int dhd_os_busbusy_wait_negation(dhd_pub_t *pub, uint *condition) { dhd_info_t * dhd = (dhd_info_t *)(pub->info); int timeout; /* Wait for bus usage contexts to gracefully exit within some timeout value * Set time out to little higher than dhd_ioctl_timeout_msec, * so that IOCTL timeout should not get affected. */ /* Convert timeout in millsecond to jiffies */ timeout = msecs_to_jiffies(DHD_BUS_BUSY_TIMEOUT); timeout = wait_event_timeout(dhd->dhd_bus_busy_state_wait, !(*condition), timeout); return timeout; } /* * Wait until the condition *var == condition is met. * Returns 0 if the @condition evaluated to false after the timeout elapsed * Returns 1 if the @condition evaluated to true */ int dhd_os_busbusy_wait_condition(dhd_pub_t *pub, uint *var, uint condition) { dhd_info_t * dhd = (dhd_info_t *)(pub->info); int timeout; /* Convert timeout in millsecond to jiffies */ timeout = msecs_to_jiffies(DHD_BUS_BUSY_TIMEOUT); timeout = wait_event_timeout(dhd->dhd_bus_busy_state_wait, (*var == condition), timeout); return timeout; } /* * Wait until the '(*var & bitmask) == condition' is met. * Returns 0 if the @condition evaluated to false after the timeout elapsed * Returns 1 if the @condition evaluated to true */ int dhd_os_busbusy_wait_bitmask(dhd_pub_t *pub, uint *var, uint bitmask, uint condition) { dhd_info_t * dhd = (dhd_info_t *)(pub->info); int timeout; /* Convert timeout in millsecond to jiffies */ timeout = msecs_to_jiffies(DHD_BUS_BUSY_TIMEOUT); timeout = wait_event_timeout(dhd->dhd_bus_busy_state_wait, ((*var & bitmask) == condition), timeout); return timeout; } int dhd_os_dmaxfer_wait(dhd_pub_t *pub, uint *condition) { int ret = 0; dhd_info_t * dhd = (dhd_info_t *)(pub->info); int timeout; timeout = msecs_to_jiffies(IOCTL_DMAXFER_TIMEOUT); ret = wait_event_timeout(dhd->dmaxfer_wait, (*condition), timeout); return ret; } int dhd_os_dmaxfer_wake(dhd_pub_t *pub) { dhd_info_t *dhd = (dhd_info_t *)(pub->info); wake_up(&dhd->dmaxfer_wait); return 0; } /* Fix compilation error for FC11 */ INLINE int dhd_os_busbusy_wake(dhd_pub_t *pub) { dhd_info_t *dhd = (dhd_info_t *)(pub->info); /* Call wmb() to make sure before waking up the other event value gets updated */ OSL_SMP_WMB(); wake_up(&dhd->dhd_bus_busy_state_wait); return 0; } void dhd_os_wd_timer_extend(void *bus, bool extend) { #ifndef BCMDBUS dhd_pub_t *pub = bus; dhd_info_t *dhd = (dhd_info_t *)pub->info; if (extend) dhd_os_wd_timer(bus, WATCHDOG_EXTEND_INTERVAL); else dhd_os_wd_timer(bus, dhd->default_wd_interval); #endif /* !BCMDBUS */ } void dhd_os_wd_timer(void *bus, uint wdtick) { #ifndef BCMDBUS dhd_pub_t *pub = bus; dhd_info_t *dhd = (dhd_info_t *)pub->info; unsigned long flags; DHD_TRACE(("%s: Enter\n", __FUNCTION__)); if (!dhd) { DHD_ERROR(("%s: dhd NULL\n", __FUNCTION__)); return; } DHD_GENERAL_LOCK(pub, flags); /* don't start the wd until fw is loaded */ if (pub->busstate == DHD_BUS_DOWN) { DHD_GENERAL_UNLOCK(pub, flags); #ifdef BCMSDIO if (!wdtick) { DHD_OS_WD_WAKE_UNLOCK(pub); } #endif /* BCMSDIO */ return; } /* Totally stop the timer */ if (!wdtick && dhd->wd_timer_valid == TRUE) { dhd->wd_timer_valid = FALSE; DHD_GENERAL_UNLOCK(pub, flags); del_timer_sync(&dhd->timer); #ifdef BCMSDIO DHD_OS_WD_WAKE_UNLOCK(pub); #endif /* BCMSDIO */ return; } if (wdtick) { #ifdef BCMSDIO DHD_OS_WD_WAKE_LOCK(pub); dhd_watchdog_ms = (uint)wdtick; #endif /* BCMSDIO */ /* Re arm the timer, at last watchdog period */ mod_timer(&dhd->timer, jiffies + msecs_to_jiffies(dhd_watchdog_ms)); dhd->wd_timer_valid = TRUE; } DHD_GENERAL_UNLOCK(pub, flags); #endif /* BCMDBUS */ } #ifdef DHD_PCIE_RUNTIMEPM void dhd_os_runtimepm_timer(void *bus, uint tick) { dhd_pub_t *pub = bus; dhd_info_t *dhd = (dhd_info_t *)pub->info; unsigned long flags; DHD_TRACE(("%s: Enter\n", __FUNCTION__)); if (!dhd) { DHD_ERROR(("%s: dhd is NULL\n", __FUNCTION__)); return; } DHD_GENERAL_LOCK(pub, flags); /* don't start the RPM until fw is loaded */ if (DHD_BUS_CHECK_DOWN_OR_DOWN_IN_PROGRESS(pub)) { DHD_GENERAL_UNLOCK(pub, flags); return; } /* If tick is non-zero, the request is to start the timer */ if (tick) { /* Start the timer only if its not already running */ if (dhd->rpm_timer_valid == FALSE) { mod_timer(&dhd->rpm_timer, jiffies + msecs_to_jiffies(dhd_runtimepm_ms)); dhd->rpm_timer_valid = TRUE; DHD_ERROR(("DHD Runtime PM Timer ON\n")); } } else { /* tick is zero, we have to stop the timer */ /* Stop the timer only if its running, otherwise we don't have to do anything */ if (dhd->rpm_timer_valid == TRUE) { dhd->rpm_timer_valid = FALSE; DHD_GENERAL_UNLOCK(pub, flags); del_timer_sync(&dhd->rpm_timer); DHD_ERROR(("DHD Runtime PM Timer OFF \n")); /* we have already released the lock, so just go to exit */ goto exit; } } DHD_GENERAL_UNLOCK(pub, flags); exit: return; } #endif /* DHD_PCIE_RUNTIMEPM */ int dhd_os_get_img_fwreq(const struct firmware **fw, char *file_path) { int ret = BCME_ERROR; ret = request_firmware(fw, file_path, dhd_bus_to_dev(g_dhd_pub->bus)); if (ret < 0) { DHD_ERROR(("%s: request_firmware err: %d\n", __FUNCTION__, ret)); /* convert to BCME_NOTFOUND error for error handling */ ret = BCME_NOTFOUND; } return ret; } void dhd_os_close_img_fwreq(const struct firmware *fw) { release_firmware(fw); } void * dhd_os_open_image1(dhd_pub_t *pub, char *filename) { struct file *fp; int size; fp = dhd_filp_open(filename, O_RDONLY, 0); /* * 2.6.11 (FC4) supports dhd_filp_open() but later revs don't? * Alternative: * fp = open_namei(AT_FDCWD, filename, O_RD, 0); * ??? */ if (IS_ERR(fp) || (fp == NULL)) { fp = NULL; goto err; } if (!S_ISREG(file_inode(fp)->i_mode)) { DHD_ERROR(("%s: %s is not regular file\n", __FUNCTION__, filename)); fp = NULL; goto err; } size = dhd_i_size_read(file_inode(fp)); if (size <= 0) { DHD_ERROR(("%s: %s file size invalid %d\n", __FUNCTION__, filename, size)); fp = NULL; goto err; } DHD_ERROR(("%s: %s (%d bytes) open success\n", __FUNCTION__, filename, size)); err: return fp; } int dhd_os_get_image_block(char *buf, int len, void *image) { struct file *fp = (struct file *)image; int rdlen; int size; if (!image) { return 0; } size = dhd_i_size_read(file_inode(fp)); rdlen = dhd_kernel_read_compat(fp, fp->f_pos, buf, MIN(len, size)); if (len >= size && size != rdlen) { return -EIO; } if (rdlen > 0) { fp->f_pos += rdlen; } return rdlen; } #if defined(BT_OVER_SDIO) int dhd_os_gets_image(dhd_pub_t *pub, char *str, int len, void *image) { struct file *fp = (struct file *)image; int rd_len; uint str_len = 0; char *str_end = NULL; if (!image) return 0; rd_len = dhd_kernel_read_compat(fp, fp->f_pos, str, len); str_end = strnchr(str, len, '\n'); if (str_end == NULL) { goto err; } str_len = (uint)(str_end - str); /* Advance file pointer past the string length */ fp->f_pos += str_len + 1; bzero(str_end, rd_len - str_len); err: return str_len; } #endif /* defined (BT_OVER_SDIO) */ int dhd_os_get_image_size(void *image) { struct file *fp = (struct file *)image; int size; if (!image) { return 0; } size = dhd_i_size_read(file_inode(fp)); return size; } void dhd_os_close_image1(dhd_pub_t *pub, void *image) { if (image) { dhd_filp_close((struct file *)image, NULL); } } void dhd_os_sdlock(dhd_pub_t *pub) { dhd_info_t *dhd; dhd = (dhd_info_t *)(pub->info); #ifndef BCMDBUS if (dhd_dpc_prio >= 0) down(&dhd->sdsem); else spin_lock_bh(&dhd->sdlock); #else spin_lock_bh(&dhd->sdlock); #endif /* BCMDBUS */ } void dhd_os_sdunlock(dhd_pub_t *pub) { dhd_info_t *dhd; dhd = (dhd_info_t *)(pub->info); #ifndef BCMDBUS if (dhd_dpc_prio >= 0) up(&dhd->sdsem); else spin_unlock_bh(&dhd->sdlock); #else spin_unlock_bh(&dhd->sdlock); #endif /* BCMDBUS */ } #ifdef DHDTCPACK_SUPPRESS unsigned long dhd_os_tcpacklock(dhd_pub_t *pub) { dhd_info_t *dhd; unsigned long flags = 0; dhd = (dhd_info_t *)(pub->info); if (dhd) { #ifdef BCMSDIO spin_lock_bh(&dhd->tcpack_lock); #else flags = osl_spin_lock(&dhd->tcpack_lock); #endif /* BCMSDIO */ } return flags; } void dhd_os_tcpackunlock(dhd_pub_t *pub, unsigned long flags) { dhd_info_t *dhd; #ifdef BCMSDIO BCM_REFERENCE(flags); #endif /* BCMSDIO */ dhd = (dhd_info_t *)(pub->info); if (dhd) { #ifdef BCMSDIO spin_unlock_bh(&dhd->tcpack_lock); #else osl_spin_unlock(&dhd->tcpack_lock, flags); #endif /* BCMSDIO */ } } #endif /* DHDTCPACK_SUPPRESS */ uint8* dhd_os_prealloc(dhd_pub_t *dhdpub, int section, uint size, bool kmalloc_if_fail) { uint8* buf; gfp_t flags = CAN_SLEEP() ? GFP_KERNEL: GFP_ATOMIC; buf = (uint8*)wifi_platform_prealloc(dhdpub->info->adapter, section, size); if (buf == NULL && kmalloc_if_fail) buf = kmalloc(size, flags); return buf; } void dhd_os_prefree(dhd_pub_t *dhdpub, void *addr, uint size) { } /* send up locally generated event */ void dhd_sendup_event(dhd_pub_t *dhdp, wl_event_msg_t *event, void *data) { switch (ntoh32(event->event_type)) { /* Handle error case or further events here */ default: break; } } #ifdef LOG_INTO_TCPDUMP void dhd_sendup_log(dhd_pub_t *dhdp, void *data, int data_len) { struct sk_buff *p, *skb; uint32 pktlen; int len; dhd_if_t *ifp; dhd_info_t *dhd; uchar *skb_data; int ifidx = 0; struct ether_header eth; pktlen = sizeof(eth) + data_len; dhd = dhdp->info; if ((p = PKTGET(dhdp->osh, pktlen, FALSE))) { ASSERT(ISALIGNED((uintptr)PKTDATA(dhdp->osh, p), sizeof(uint32))); bcopy(&dhdp->mac, ð.ether_dhost, ETHER_ADDR_LEN); bcopy(&dhdp->mac, ð.ether_shost, ETHER_ADDR_LEN); ETHER_TOGGLE_LOCALADDR(ð.ether_shost); eth.ether_type = hton16(ETHER_TYPE_BRCM); bcopy((void *)ð, PKTDATA(dhdp->osh, p), sizeof(eth)); bcopy(data, PKTDATA(dhdp->osh, p) + sizeof(eth), data_len); skb = PKTTONATIVE(dhdp->osh, p); skb_data = skb->data; len = skb->len; ifidx = dhd_ifname2idx(dhd, "wlan0"); ifp = dhd->iflist[ifidx]; if (ifp == NULL) ifp = dhd->iflist[0]; ASSERT(ifp); skb->dev = ifp->net; skb->protocol = eth_type_trans(skb, skb->dev); skb->data = skb_data; skb->len = len; /* Strip header, count, deliver upward */ skb_pull(skb, ETH_HLEN); bcm_object_trace_opr(skb, BCM_OBJDBG_REMOVE, __FUNCTION__, __LINE__); /* Send the packet */ if (in_interrupt()) { netif_rx(skb); } else { netif_rx_ni(skb); } } else { /* Could not allocate a sk_buf */ DHD_ERROR(("%s: unable to alloc sk_buf", __FUNCTION__)); } } #endif /* LOG_INTO_TCPDUMP */ void dhd_wait_for_event(dhd_pub_t *dhd, bool *lockvar) { #if defined(BCMSDIO) struct dhd_info *dhdinfo = dhd->info; int timeout = msecs_to_jiffies(IOCTL_RESP_TIMEOUT); dhd_os_sdunlock(dhd); wait_event_timeout(dhdinfo->ctrl_wait, (*lockvar == FALSE), timeout); dhd_os_sdlock(dhd); #endif /* defined(BCMSDIO) */ return; } void dhd_wait_event_wakeup(dhd_pub_t *dhd) { #if defined(BCMSDIO) struct dhd_info *dhdinfo = dhd->info; if (waitqueue_active(&dhdinfo->ctrl_wait)) wake_up(&dhdinfo->ctrl_wait); #endif return; } #if defined(BCMSDIO) || defined(BCMPCIE) int dhd_net_bus_devreset(struct net_device *dev, uint8 flag) { int ret; dhd_info_t *dhd = DHD_DEV_INFO(dev); #ifdef DHD_PCIE_NATIVE_RUNTIMEPM if (pm_runtime_get_sync(dhd_bus_to_dev(dhd->pub.bus)) < 0) return BCME_ERROR; #endif /* DHD_PCIE_NATIVE_RUNTIMEPM */ if (flag == TRUE) { #ifndef WL_CFG80211 /* Issue wl down command for non-cfg before resetting the chip */ if (dhd_wl_ioctl_cmd(&dhd->pub, WLC_DOWN, NULL, 0, TRUE, 0) < 0) { DHD_TRACE(("%s: wl down failed\n", __FUNCTION__)); } #endif /* !WL_CFG80211 */ #ifdef PROP_TXSTATUS if (dhd->pub.wlfc_enabled) { dhd_wlfc_deinit(&dhd->pub); } #endif /* PROP_TXSTATUS */ #ifdef PNO_SUPPORT if (dhd->pub.pno_state) { dhd_pno_deinit(&dhd->pub); } #endif #ifdef RTT_SUPPORT if (dhd->pub.rtt_state) { dhd_rtt_deinit(&dhd->pub); } #endif /* RTT_SUPPORT */ DHD_SSSR_DUMP_DEINIT(&dhd->pub); #ifdef DHD_SDTC_ETB_DUMP if (dhd->pub.sdtc_etb_inited) { dhd_sdtc_etb_deinit(&dhd->pub); } #endif /* DHD_SDTC_ETB_DUMP */ /* * XXX Detach only if the module is not attached by default at dhd_attach. * If attached by default, we need to keep it till dhd_detach, so that * module is not detached at wifi on/off */ #if defined(DBG_PKT_MON) && !defined(DBG_PKT_MON_INIT_DEFAULT) dhd_os_dbg_detach_pkt_monitor(&dhd->pub); #endif /* DBG_PKT_MON */ } #ifdef BCMSDIO /* XXX Some DHD modules (e.g. cfg80211) configures operation mode based on firmware name. * This is indeed a hack but we have to make it work properly before we have a better * solution */ if (!flag) { dhd_update_fw_nv_path(dhd); /* update firmware and nvram path to sdio bus */ dhd_bus_update_fw_nv_path(dhd->pub.bus, dhd->fw_path, dhd->nv_path); } #endif /* BCMSDIO */ #if defined(BCMPCIE) /* XXX: JIRA SWWLAN-139454: Added L1ss enable * after firmware download completion due to link down issue * JIRA SWWLAN-142236: Amendment - Changed L1ss enable point */ if (flag == FALSE && dhd->pub.busstate == DHD_BUS_DOWN) { DHD_RPM(("%s Disable L1ss EP side\n", __FUNCTION__)); dhd_plat_l1ss_ctrl(0); } #endif /* BCMPCIE */ ret = dhd_bus_devreset(&dhd->pub, flag); if (!ret && dhd_query_bus_erros(&dhd->pub)) { DHD_ERROR(("%s: retrun error due to query errors\n", __FUNCTION__)); ret = BCME_ERROR; } #ifdef DHD_PCIE_NATIVE_RUNTIMEPM pm_runtime_mark_last_busy(dhd_bus_to_dev(dhd->pub.bus)); pm_runtime_put_autosuspend(dhd_bus_to_dev(dhd->pub.bus)); #endif /* DHD_PCIE_NATIVE_RUNTIMEPM */ if (flag) { /* Clear some flags for recovery logic */ dhd->pub.dongle_trap_occured = 0; dhd->pub.iovar_timeout_occured = 0; #ifdef PCIE_FULL_DONGLE dhd->pub.d3ack_timeout_occured = 0; dhd->pub.livelock_occured = 0; dhd->pub.pktid_audit_failed = 0; dhd->pub.pktid_invalid_occured = 0; #endif /* PCIE_FULL_DONGLE */ dhd->pub.smmu_fault_occurred = 0; dhd->pub.iface_op_failed = 0; dhd->pub.scan_timeout_occurred = 0; dhd->pub.scan_busy_occurred = 0; dhd->pub.p2p_disc_busy_occurred = 0; } if (ret == BCME_NOMEM) { DHD_ERROR(("%s: skip collect dump in case of BCME_NOMEM\n", __FUNCTION__)); return BCME_ERROR; } if ((ret == BCME_NOMEM) || (ret == BCME_NOTFOUND)) { DHD_ERROR(("%s: skip collect dump in case of BCME_NOMEM or BCME_NOTFOUND\n", __FUNCTION__)); return BCME_ERROR; } if (ret) { DHD_ERROR(("%s: dhd_bus_devreset: %d\n", __FUNCTION__, ret)); dhd_force_collect_init_fail_dumps(&dhd->pub); } return ret; } int dhd_net_bus_suspend(struct net_device *dev) { dhd_info_t *dhd = DHD_DEV_INFO(dev); uint bitmask = 0xFFFFFFFF; int timeleft = 0; unsigned long flags = 0; int ret = 0; DHD_GENERAL_LOCK(&dhd->pub, flags); if (!DHD_BUS_BUSY_CHECK_IDLE(&dhd->pub)) { DHD_BUS_BUSY_SET_SUSPEND_IN_PROGRESS(&dhd->pub); DHD_GENERAL_UNLOCK(&dhd->pub, flags); DHD_ERROR(("%s: wait to clear dhd_bus_busy_state: 0x%x\n", __FUNCTION__, dhd->pub.dhd_bus_busy_state)); timeleft = dhd_os_busbusy_wait_bitmask(&dhd->pub, &dhd->pub.dhd_bus_busy_state, bitmask, DHD_BUS_BUSY_SUSPEND_IN_PROGRESS); if ((timeleft == 0) || (timeleft == 1)) { DHD_ERROR(("%s: Timed out dhd_bus_busy_state=0x%x\n", __FUNCTION__, dhd->pub.dhd_bus_busy_state)); ASSERT(0); } } else { DHD_BUS_BUSY_SET_SUSPEND_IN_PROGRESS(&dhd->pub); DHD_GENERAL_UNLOCK(&dhd->pub, flags); } ret = dhd_bus_suspend(&dhd->pub); DHD_GENERAL_LOCK(&dhd->pub, flags); DHD_BUS_BUSY_CLEAR_SUSPEND_IN_PROGRESS(&dhd->pub); dhd_os_busbusy_wake(&dhd->pub); DHD_GENERAL_UNLOCK(&dhd->pub, flags); return ret; } int dhd_net_bus_resume(struct net_device *dev, uint8 stage) { dhd_info_t *dhd = DHD_DEV_INFO(dev); unsigned long flags = 0; int ret = 0; DHD_GENERAL_LOCK(&dhd->pub, flags); DHD_BUS_BUSY_SET_RESUME_IN_PROGRESS(&dhd->pub); DHD_GENERAL_UNLOCK(&dhd->pub, flags); ret = dhd_bus_resume(&dhd->pub, stage); DHD_GENERAL_LOCK(&dhd->pub, flags); DHD_BUS_BUSY_CLEAR_RESUME_IN_PROGRESS(&dhd->pub); dhd_os_busbusy_wake(&dhd->pub); DHD_GENERAL_UNLOCK(&dhd->pub, flags); return ret; } #endif /* BCMSDIO || BCMPCIE */ int net_os_set_suspend_disable(struct net_device *dev, int val) { dhd_info_t *dhd = DHD_DEV_INFO(dev); int ret = 0; if (dhd) { ret = dhd->pub.suspend_disable_flag; dhd->pub.suspend_disable_flag = val; } return ret; } int net_os_set_suspend(struct net_device *dev, int val, int force) { int ret = 0; dhd_info_t *dhd = DHD_DEV_INFO(dev); if (dhd) { #if defined(CONFIG_HAS_EARLYSUSPEND) && defined(DHD_USE_EARLYSUSPEND) ret = dhd_set_suspend(val, &dhd->pub); #else ret = dhd_suspend_resume_helper(dhd, val, force); #endif #ifdef WL_CFG80211 wl_cfg80211_update_power_mode(dev); #endif } return ret; } #ifdef PKT_FILTER_SUPPORT /* XXX RB:4238 Change net_os_set_packet_filter() function name to net_os_enable_packet_filter() * previous code do 'set' & 'enable' in one fucntion. * but from now on, we are going to separate 'set' and 'enable' feature. * - set : net_os_rxfilter_add_remove() -> dhd_set_packet_filter() -> dhd_pktfilter_offload_set() * - enable : net_os_enable_packet_filter() -> dhd_enable_packet_filter() * -> dhd_pktfilter_offload_enable() */ int dhd_os_enable_packet_filter(dhd_pub_t *dhdp, int val) { int ret = 0; /* Packet filtering is set only if we still in early-suspend and * we need either to turn it ON or turn it OFF * We can always turn it OFF in case of early-suspend, but we turn it * back ON only if suspend_disable_flag was not set */ if (dhdp && dhdp->up) { if (dhdp->in_suspend) { if (!val || (val && !dhdp->suspend_disable_flag)) dhd_enable_packet_filter(val, dhdp); } } return ret; } /* function to enable/disable packet for Network device */ int net_os_enable_packet_filter(struct net_device *dev, int val) { dhd_info_t *dhd = DHD_DEV_INFO(dev); DHD_INFO(("%s: val = %d\n", __FUNCTION__, val)); return dhd_os_enable_packet_filter(&dhd->pub, val); } #endif /* PKT_FILTER_SUPPORT */ int dhd_dev_init_ioctl(struct net_device *dev) { dhd_info_t *dhd = DHD_DEV_INFO(dev); int ret; if ((ret = dhd_sync_with_dongle(&dhd->pub)) < 0) goto done; done: return ret; } int dhd_dev_get_feature_set(struct net_device *dev) { dhd_info_t *ptr = *(dhd_info_t **)netdev_priv(dev); dhd_pub_t *dhd = (&ptr->pub); int feature_set = 0; /* tdls capability or othters can be missed because of initialization */ if (dhd_get_fw_capabilities(dhd) < 0) { DHD_ERROR(("Capabilities rechecking fail\n")); } if (FW_SUPPORTED(dhd, sta)) feature_set |= WIFI_FEATURE_INFRA; if (FW_SUPPORTED(dhd, dualband)) feature_set |= WIFI_FEATURE_INFRA_5G; if (FW_SUPPORTED(dhd, p2p)) feature_set |= WIFI_FEATURE_P2P; if (dhd->op_mode & DHD_FLAG_HOSTAP_MODE) feature_set |= WIFI_FEATURE_SOFT_AP; if (FW_SUPPORTED(dhd, tdls)) feature_set |= WIFI_FEATURE_TDLS; if (FW_SUPPORTED(dhd, vsdb)) feature_set |= WIFI_FEATURE_TDLS_OFFCHANNEL; if (FW_SUPPORTED(dhd, nan)) { feature_set |= WIFI_FEATURE_NAN; /* NAN is essentail for d2d rtt */ if (FW_SUPPORTED(dhd, rttd2d)) feature_set |= WIFI_FEATURE_D2D_RTT; } #ifdef RTT_SUPPORT feature_set |= WIFI_FEATURE_D2D_RTT; feature_set |= WIFI_FEATURE_D2AP_RTT; #endif /* RTT_SUPPORT */ #ifdef LINKSTAT_SUPPORT feature_set |= WIFI_FEATURE_LINKSTAT; #endif /* LINKSTAT_SUPPORT */ #if defined(PNO_SUPPORT) && !defined(DISABLE_ANDROID_PNO) if (dhd_is_pno_supported(dhd)) { feature_set |= WIFI_FEATURE_PNO; #ifdef BATCH_SCAN /* Deprecated */ feature_set |= WIFI_FEATURE_BATCH_SCAN; #endif /* BATCH_SCAN */ #ifdef GSCAN_SUPPORT #ifndef DISABLE_ANDROID_GSCAN feature_set |= WIFI_FEATURE_GSCAN; #endif /* DISABLE_ANDROID_GSCAN */ feature_set |= WIFI_FEATURE_HAL_EPNO; #endif /* GSCAN_SUPPORT */ } #endif /* PNO_SUPPORT && !DISABLE_ANDROID_PNO */ #ifdef RSSI_MONITOR_SUPPORT if (FW_SUPPORTED(dhd, rssi_mon)) { feature_set |= WIFI_FEATURE_RSSI_MONITOR; } #endif /* RSSI_MONITOR_SUPPORT */ #ifdef WL11U feature_set |= WIFI_FEATURE_HOTSPOT; #endif /* WL11U */ #ifdef KEEP_ALIVE feature_set |= WIFI_FEATURE_MKEEP_ALIVE; #endif /* KEEP_ALIVE */ #ifdef NDO_CONFIG_SUPPORT feature_set |= WIFI_FEATURE_CONFIG_NDO; #endif /* NDO_CONFIG_SUPPORT */ #ifdef SUPPORT_RANDOM_MAC_SCAN feature_set |= WIFI_FEATURE_SCAN_RAND; #endif /* SUPPORT_RANDOM_MAC_SCAN */ #ifdef FILTER_IE if (FW_SUPPORTED(dhd, fie)) { feature_set |= WIFI_FEATURE_FILTER_IE; } #endif /* FILTER_IE */ #ifdef ROAMEXP_SUPPORT feature_set |= WIFI_FEATURE_CONTROL_ROAMING; #endif /* ROAMEXP_SUPPORT */ #ifdef WL_LATENCY_MODE feature_set |= WIFI_FEATURE_SET_LATENCY_MODE; #endif /* WL_LATENCY_MODE */ #ifdef WL_P2P_RAND feature_set |= WIFI_FEATURE_P2P_RAND_MAC; #endif /* WL_P2P_RAND */ #ifdef WL_SAR_TX_POWER feature_set |= WIFI_FEATURE_SET_TX_POWER_LIMIT; feature_set |= WIFI_FEATURE_USE_BODY_HEAD_SAR; #endif /* WL_SAR_TX_POWER */ #ifdef WL_STATIC_IF feature_set |= WIFI_FEATURE_AP_STA; #endif /* WL_STATIC_IF */ return feature_set; } int dhd_dev_get_feature_set_matrix(struct net_device *dev, int num) { int feature_set_full; int ret = 0; feature_set_full = dhd_dev_get_feature_set(dev); /* Common feature set for all interface */ ret = (feature_set_full & WIFI_FEATURE_INFRA) | (feature_set_full & WIFI_FEATURE_INFRA_5G) | (feature_set_full & WIFI_FEATURE_D2D_RTT) | (feature_set_full & WIFI_FEATURE_D2AP_RTT) | (feature_set_full & WIFI_FEATURE_RSSI_MONITOR) | (feature_set_full & WIFI_FEATURE_EPR); /* Specific feature group for each interface */ switch (num) { case 0: ret |= (feature_set_full & WIFI_FEATURE_P2P) | /* Not supported yet */ /* (feature_set_full & WIFI_FEATURE_NAN) | */ (feature_set_full & WIFI_FEATURE_TDLS) | (feature_set_full & WIFI_FEATURE_PNO) | (feature_set_full & WIFI_FEATURE_HAL_EPNO) | (feature_set_full & WIFI_FEATURE_BATCH_SCAN) | (feature_set_full & WIFI_FEATURE_GSCAN) | (feature_set_full & WIFI_FEATURE_HOTSPOT) | (feature_set_full & WIFI_FEATURE_ADDITIONAL_STA); break; case 1: ret |= (feature_set_full & WIFI_FEATURE_P2P); /* Not yet verified NAN with P2P */ /* (feature_set_full & WIFI_FEATURE_NAN) | */ break; case 2: ret |= (feature_set_full & WIFI_FEATURE_NAN) | (feature_set_full & WIFI_FEATURE_TDLS) | (feature_set_full & WIFI_FEATURE_TDLS_OFFCHANNEL); break; default: ret = WIFI_FEATURE_INVALID; DHD_ERROR(("%s: Out of index(%d) for get feature set\n", __FUNCTION__, num)); break; } return ret; } #if defined(CUSTOM_FORCE_NODFS_FLAG) && defined(CUSTOM_COUNTRY_CODE) int dhd_dev_set_nodfs(struct net_device *dev, u32 nodfs) { dhd_info_t *dhd = DHD_DEV_INFO(dev); bool force_ccode_change = FALSE; if (nodfs && !(dhd->pub.dhd_cflags & WLAN_PLAT_NODFS_FLAG)) { dhd->pub.dhd_cflags |= WLAN_PLAT_NODFS_FLAG; force_ccode_change = TRUE; } else if (!nodfs && (dhd->pub.dhd_cflags & WLAN_PLAT_NODFS_FLAG)) { dhd->pub.dhd_cflags &= ~WLAN_PLAT_NODFS_FLAG; force_ccode_change = TRUE; } #ifdef SKIP_CCODE_FOR_SAME_DFS_FLAG if (force_ccode_change == FALSE) { DHD_ERROR(("No change in dfs flags. dfs:%d\n", !!nodfs)); return 0; } #endif /* SKIP_CCODE_FOR_SAME_DFS_FLAG */ DHD_ERROR(("Force country change. dfs:%d \n", !!nodfs)); dhd->pub.force_country_change = TRUE; return 0; } #endif /* CUSTOM_FORCE_NODFS_FLAG && CUSTOM_COUNTRY_CODE */ #ifdef NDO_CONFIG_SUPPORT int dhd_dev_ndo_cfg(struct net_device *dev, u8 enable) { dhd_info_t *dhd = *(dhd_info_t **)netdev_priv(dev); dhd_pub_t *dhdp = &dhd->pub; int ret = 0; if (enable) { /* enable ND offload feature (will be enabled in FW on suspend) */ dhdp->ndo_enable = TRUE; /* Update changes of anycast address & DAD failed address */ ret = dhd_dev_ndo_update_inet6addr(dev); if ((ret < 0) && (ret != BCME_NORESOURCE)) { DHD_ERROR(("%s: failed to update host ip addr: %d\n", __FUNCTION__, ret)); return ret; } } else { /* disable ND offload feature */ dhdp->ndo_enable = FALSE; /* disable ND offload in FW */ ret = dhd_ndo_enable(dhdp, FALSE); if (ret < 0) { DHD_ERROR(("%s: failed to disable NDO: %d\n", __FUNCTION__, ret)); } } return ret; } static int dhd_dev_ndo_get_valid_inet6addr_count(struct inet6_dev *inet6) { struct inet6_ifaddr *ifa; struct ifacaddr6 *acaddr = NULL; int addr_count = 0; /* lock */ read_lock_bh(&inet6->lock); GCC_DIAGNOSTIC_PUSH_SUPPRESS_CAST(); /* Count valid unicast address */ list_for_each_entry(ifa, &inet6->addr_list, if_list) { GCC_DIAGNOSTIC_POP(); if ((ifa->flags & IFA_F_DADFAILED) == 0) { addr_count++; } } /* Count anycast address */ acaddr = inet6->ac_list; while (acaddr) { addr_count++; acaddr = acaddr->aca_next; } /* unlock */ read_unlock_bh(&inet6->lock); return addr_count; } int dhd_dev_ndo_update_inet6addr(struct net_device *dev) { dhd_info_t *dhd; dhd_pub_t *dhdp; struct inet6_dev *inet6; struct inet6_ifaddr *ifa; struct ifacaddr6 *acaddr = NULL; struct in6_addr *ipv6_addr = NULL; int cnt, i; int ret = BCME_OK; /* * this function evaulates host ip address in struct inet6_dev * unicast addr in inet6_dev->addr_list * anycast addr in inet6_dev->ac_list * while evaluating inet6_dev, read_lock_bh() is required to prevent * access on null(freed) pointer. */ if (dev) { inet6 = dev->ip6_ptr; if (!inet6) { DHD_ERROR(("%s: Invalid inet6_dev\n", __FUNCTION__)); return BCME_ERROR; } dhd = DHD_DEV_INFO(dev); if (!dhd) { DHD_ERROR(("%s: Invalid dhd_info\n", __FUNCTION__)); return BCME_ERROR; } dhdp = &dhd->pub; if (dhd_net2idx(dhd, dev) != 0) { DHD_ERROR(("%s: Not primary interface\n", __FUNCTION__)); return BCME_ERROR; } } else { DHD_ERROR(("%s: Invalid net_device\n", __FUNCTION__)); return BCME_ERROR; } /* Check host IP overflow */ cnt = dhd_dev_ndo_get_valid_inet6addr_count(inet6); if (cnt > dhdp->ndo_max_host_ip) { if (!dhdp->ndo_host_ip_overflow) { dhdp->ndo_host_ip_overflow = TRUE; /* Disable ND offload in FW */ DHD_INFO(("%s: Host IP overflow, disable NDO\n", __FUNCTION__)); ret = dhd_ndo_enable(dhdp, FALSE); } return ret; } /* * Allocate ipv6 addr buffer to store addresses to be added/removed. * driver need to lock inet6_dev while accessing structure. but, driver * cannot use ioctl while inet6_dev locked since it requires scheduling * hence, copy addresses to the buffer and do ioctl after unlock. */ ipv6_addr = (struct in6_addr *)MALLOC(dhdp->osh, sizeof(struct in6_addr) * dhdp->ndo_max_host_ip); if (!ipv6_addr) { DHD_ERROR(("%s: failed to alloc ipv6 addr buffer\n", __FUNCTION__)); return BCME_NOMEM; } /* Find DAD failed unicast address to be removed */ cnt = 0; read_lock_bh(&inet6->lock); GCC_DIAGNOSTIC_PUSH_SUPPRESS_CAST(); list_for_each_entry(ifa, &inet6->addr_list, if_list) { GCC_DIAGNOSTIC_POP(); /* DAD failed unicast address */ if ((ifa->flags & IFA_F_DADFAILED) && (cnt < dhdp->ndo_max_host_ip)) { memcpy(&ipv6_addr[cnt], &ifa->addr, sizeof(struct in6_addr)); cnt++; } } read_unlock_bh(&inet6->lock); /* Remove DAD failed unicast address */ for (i = 0; i < cnt; i++) { DHD_INFO(("%s: Remove DAD failed addr\n", __FUNCTION__)); ret = dhd_ndo_remove_ip_by_addr(dhdp, (char *)&ipv6_addr[i], 0); if (ret < 0) { goto done; } } /* Remove all anycast address */ ret = dhd_ndo_remove_ip_by_type(dhdp, WL_ND_IPV6_ADDR_TYPE_ANYCAST, 0); if (ret < 0) { goto done; } /* * if ND offload was disabled due to host ip overflow, * attempt to add valid unicast address. */ if (dhdp->ndo_host_ip_overflow) { /* Find valid unicast address */ cnt = 0; read_lock_bh(&inet6->lock); GCC_DIAGNOSTIC_PUSH_SUPPRESS_CAST(); list_for_each_entry(ifa, &inet6->addr_list, if_list) { GCC_DIAGNOSTIC_POP(); /* valid unicast address */ if (!(ifa->flags & IFA_F_DADFAILED) && (cnt < dhdp->ndo_max_host_ip)) { memcpy(&ipv6_addr[cnt], &ifa->addr, sizeof(struct in6_addr)); cnt++; } } read_unlock_bh(&inet6->lock); /* Add valid unicast address */ for (i = 0; i < cnt; i++) { ret = dhd_ndo_add_ip_with_type(dhdp, (char *)&ipv6_addr[i], WL_ND_IPV6_ADDR_TYPE_UNICAST, 0); if (ret < 0) { goto done; } } } /* Find anycast address */ cnt = 0; read_lock_bh(&inet6->lock); acaddr = inet6->ac_list; while (acaddr) { if (cnt < dhdp->ndo_max_host_ip) { memcpy(&ipv6_addr[cnt], &acaddr->aca_addr, sizeof(struct in6_addr)); cnt++; } acaddr = acaddr->aca_next; } read_unlock_bh(&inet6->lock); /* Add anycast address */ for (i = 0; i < cnt; i++) { ret = dhd_ndo_add_ip_with_type(dhdp, (char *)&ipv6_addr[i], WL_ND_IPV6_ADDR_TYPE_ANYCAST, 0); if (ret < 0) { goto done; } } /* Now All host IP addr were added successfully */ if (dhdp->ndo_host_ip_overflow) { dhdp->ndo_host_ip_overflow = FALSE; if (dhdp->in_suspend) { /* drvier is in (early) suspend state, need to enable ND offload in FW */ DHD_INFO(("%s: enable NDO\n", __FUNCTION__)); ret = dhd_ndo_enable(dhdp, TRUE); } } done: if (ipv6_addr) { MFREE(dhdp->osh, ipv6_addr, sizeof(struct in6_addr) * dhdp->ndo_max_host_ip); } return ret; } #endif /* NDO_CONFIG_SUPPORT */ #ifdef PNO_SUPPORT /* Linux wrapper to call common dhd_pno_stop_for_ssid */ int dhd_dev_pno_stop_for_ssid(struct net_device *dev) { dhd_info_t *dhd = DHD_DEV_INFO(dev); return (dhd_pno_stop_for_ssid(&dhd->pub)); } /* Linux wrapper to call common dhd_pno_set_for_ssid */ int dhd_dev_pno_set_for_ssid(struct net_device *dev, wlc_ssid_ext_t* ssids_local, int nssid, uint16 scan_fr, int pno_repeat, int pno_freq_expo_max, uint16 *channel_list, int nchan) { dhd_info_t *dhd = DHD_DEV_INFO(dev); return (dhd_pno_set_for_ssid(&dhd->pub, ssids_local, nssid, scan_fr, pno_repeat, pno_freq_expo_max, channel_list, nchan)); } /* Linux wrapper to call common dhd_pno_enable */ int dhd_dev_pno_enable(struct net_device *dev, int enable) { dhd_info_t *dhd = DHD_DEV_INFO(dev); return (dhd_pno_enable(&dhd->pub, enable)); } /* Linux wrapper to call common dhd_pno_set_for_hotlist */ int dhd_dev_pno_set_for_hotlist(struct net_device *dev, wl_pfn_bssid_t *p_pfn_bssid, struct dhd_pno_hotlist_params *hotlist_params) { dhd_info_t *dhd = DHD_DEV_INFO(dev); return (dhd_pno_set_for_hotlist(&dhd->pub, p_pfn_bssid, hotlist_params)); } /* Linux wrapper to call common dhd_dev_pno_stop_for_batch */ int dhd_dev_pno_stop_for_batch(struct net_device *dev) { dhd_info_t *dhd = DHD_DEV_INFO(dev); return (dhd_pno_stop_for_batch(&dhd->pub)); } /* Linux wrapper to call common dhd_dev_pno_set_for_batch */ int dhd_dev_pno_set_for_batch(struct net_device *dev, struct dhd_pno_batch_params *batch_params) { dhd_info_t *dhd = DHD_DEV_INFO(dev); return (dhd_pno_set_for_batch(&dhd->pub, batch_params)); } /* Linux wrapper to call common dhd_dev_pno_get_for_batch */ int dhd_dev_pno_get_for_batch(struct net_device *dev, char *buf, int bufsize) { dhd_info_t *dhd = DHD_DEV_INFO(dev); return (dhd_pno_get_for_batch(&dhd->pub, buf, bufsize, PNO_STATUS_NORMAL)); } #endif /* PNO_SUPPORT */ #if defined(PNO_SUPPORT) #ifdef GSCAN_SUPPORT bool dhd_dev_is_legacy_pno_enabled(struct net_device *dev) { dhd_info_t *dhd = *(dhd_info_t **)netdev_priv(dev); return (dhd_is_legacy_pno_enabled(&dhd->pub)); } int dhd_dev_set_epno(struct net_device *dev) { dhd_info_t *dhd = DHD_DEV_INFO(dev); if (!dhd) { return BCME_ERROR; } return dhd_pno_set_epno(&dhd->pub); } int dhd_dev_flush_fw_epno(struct net_device *dev) { dhd_info_t *dhd = DHD_DEV_INFO(dev); if (!dhd) { return BCME_ERROR; } return dhd_pno_flush_fw_epno(&dhd->pub); } /* Linux wrapper to call common dhd_pno_set_cfg_gscan */ int dhd_dev_pno_set_cfg_gscan(struct net_device *dev, dhd_pno_gscan_cmd_cfg_t type, void *buf, bool flush) { dhd_info_t *dhd = *(dhd_info_t **)netdev_priv(dev); return (dhd_pno_set_cfg_gscan(&dhd->pub, type, buf, flush)); } /* Linux wrapper to call common dhd_pno_get_gscan */ void * dhd_dev_pno_get_gscan(struct net_device *dev, dhd_pno_gscan_cmd_cfg_t type, void *info, uint32 *len) { dhd_info_t *dhd = *(dhd_info_t **)netdev_priv(dev); return (dhd_pno_get_gscan(&dhd->pub, type, info, len)); } /* Linux wrapper to call common dhd_wait_batch_results_complete */ int dhd_dev_wait_batch_results_complete(struct net_device *dev) { dhd_info_t *dhd = *(dhd_info_t **)netdev_priv(dev); return (dhd_wait_batch_results_complete(&dhd->pub)); } /* Linux wrapper to call common dhd_pno_lock_batch_results */ int dhd_dev_pno_lock_access_batch_results(struct net_device *dev) { dhd_info_t *dhd = *(dhd_info_t **)netdev_priv(dev); return (dhd_pno_lock_batch_results(&dhd->pub)); } /* Linux wrapper to call common dhd_pno_unlock_batch_results */ void dhd_dev_pno_unlock_access_batch_results(struct net_device *dev) { dhd_info_t *dhd = *(dhd_info_t **)netdev_priv(dev); return (dhd_pno_unlock_batch_results(&dhd->pub)); } /* Linux wrapper to call common dhd_pno_initiate_gscan_request */ int dhd_dev_pno_run_gscan(struct net_device *dev, bool run, bool flush) { dhd_info_t *dhd = *(dhd_info_t **)netdev_priv(dev); return (dhd_pno_initiate_gscan_request(&dhd->pub, run, flush)); } /* Linux wrapper to call common dhd_pno_enable_full_scan_result */ int dhd_dev_pno_enable_full_scan_result(struct net_device *dev, bool real_time_flag) { dhd_info_t *dhd = *(dhd_info_t **)netdev_priv(dev); return (dhd_pno_enable_full_scan_result(&dhd->pub, real_time_flag)); } /* Linux wrapper to call common dhd_handle_hotlist_scan_evt */ void * dhd_dev_hotlist_scan_event(struct net_device *dev, const void *data, int *send_evt_bytes, hotlist_type_t type, u32 *buf_len) { dhd_info_t *dhd = *(dhd_info_t **)netdev_priv(dev); return (dhd_handle_hotlist_scan_evt(&dhd->pub, data, send_evt_bytes, type, buf_len)); } /* Linux wrapper to call common dhd_process_full_gscan_result */ void * dhd_dev_process_full_gscan_result(struct net_device *dev, const void *data, uint32 len, int *send_evt_bytes) { dhd_info_t *dhd = *(dhd_info_t **)netdev_priv(dev); return (dhd_process_full_gscan_result(&dhd->pub, data, len, send_evt_bytes)); } void dhd_dev_gscan_hotlist_cache_cleanup(struct net_device *dev, hotlist_type_t type) { dhd_info_t *dhd = *(dhd_info_t **)netdev_priv(dev); dhd_gscan_hotlist_cache_cleanup(&dhd->pub, type); return; } int dhd_dev_gscan_batch_cache_cleanup(struct net_device *dev) { dhd_info_t *dhd = *(dhd_info_t **)netdev_priv(dev); return (dhd_gscan_batch_cache_cleanup(&dhd->pub)); } /* Linux wrapper to call common dhd_retreive_batch_scan_results */ int dhd_dev_retrieve_batch_scan(struct net_device *dev) { dhd_info_t *dhd = *(dhd_info_t **)netdev_priv(dev); return (dhd_retreive_batch_scan_results(&dhd->pub)); } /* Linux wrapper to call common dhd_pno_process_epno_result */ void * dhd_dev_process_epno_result(struct net_device *dev, const void *data, uint32 event, int *send_evt_bytes) { dhd_info_t *dhd = *(dhd_info_t **)netdev_priv(dev); return (dhd_pno_process_epno_result(&dhd->pub, data, event, send_evt_bytes)); } int dhd_dev_set_lazy_roam_cfg(struct net_device *dev, wlc_roam_exp_params_t *roam_param) { dhd_info_t *dhd = *(dhd_info_t **)netdev_priv(dev); wl_roam_exp_cfg_t roam_exp_cfg; int err; if (!roam_param) { return BCME_BADARG; } DHD_INFO(("a_band_boost_thr %d a_band_penalty_thr %d\n", roam_param->a_band_boost_threshold, roam_param->a_band_penalty_threshold)); DHD_INFO(("a_band_boost_factor %d a_band_penalty_factor %d cur_bssid_boost %d\n", roam_param->a_band_boost_factor, roam_param->a_band_penalty_factor, roam_param->cur_bssid_boost)); DHD_INFO(("alert_roam_trigger_thr %d a_band_max_boost %d\n", roam_param->alert_roam_trigger_threshold, roam_param->a_band_max_boost)); memcpy(&roam_exp_cfg.params, roam_param, sizeof(*roam_param)); roam_exp_cfg.version = ROAM_EXP_CFG_VERSION; roam_exp_cfg.flags = ROAM_EXP_CFG_PRESENT; if (dhd->pub.lazy_roam_enable) { roam_exp_cfg.flags |= ROAM_EXP_ENABLE_FLAG; } err = dhd_iovar(&dhd->pub, 0, "roam_exp_params", (char *)&roam_exp_cfg, sizeof(roam_exp_cfg), NULL, 0, TRUE); if (err < 0) { DHD_ERROR(("%s : Failed to execute roam_exp_params %d\n", __FUNCTION__, err)); } return err; } int dhd_dev_lazy_roam_enable(struct net_device *dev, uint32 enable) { int err; dhd_info_t *dhd = *(dhd_info_t **)netdev_priv(dev); wl_roam_exp_cfg_t roam_exp_cfg; memset(&roam_exp_cfg, 0, sizeof(roam_exp_cfg)); roam_exp_cfg.version = ROAM_EXP_CFG_VERSION; if (enable) { roam_exp_cfg.flags = ROAM_EXP_ENABLE_FLAG; } err = dhd_iovar(&dhd->pub, 0, "roam_exp_params", (char *)&roam_exp_cfg, sizeof(roam_exp_cfg), NULL, 0, TRUE); if (err < 0) { DHD_ERROR(("%s : Failed to execute roam_exp_params %d\n", __FUNCTION__, err)); } else { dhd->pub.lazy_roam_enable = (enable != 0); } return err; } int dhd_dev_set_lazy_roam_bssid_pref(struct net_device *dev, wl_bssid_pref_cfg_t *bssid_pref, uint32 flush) { int err; uint len; dhd_info_t *dhd = *(dhd_info_t **)netdev_priv(dev); bssid_pref->version = BSSID_PREF_LIST_VERSION; /* By default programming bssid pref flushes out old values */ bssid_pref->flags = (flush && !bssid_pref->count) ? ROAM_EXP_CLEAR_BSSID_PREF: 0; len = sizeof(wl_bssid_pref_cfg_t); if (bssid_pref->count) { len += (bssid_pref->count - 1) * sizeof(wl_bssid_pref_list_t); } err = dhd_iovar(&dhd->pub, 0, "roam_exp_bssid_pref", (char *)bssid_pref, len, NULL, 0, TRUE); if (err != BCME_OK) { DHD_ERROR(("%s : Failed to execute roam_exp_bssid_pref %d\n", __FUNCTION__, err)); } return err; } #endif /* GSCAN_SUPPORT */ #if defined(GSCAN_SUPPORT) || defined(ROAMEXP_SUPPORT) int dhd_dev_set_blacklist_bssid(struct net_device *dev, maclist_t *blacklist, uint32 len, uint32 flush) { int err; dhd_info_t *dhd = *(dhd_info_t **)netdev_priv(dev); int macmode; if (blacklist) { err = dhd_wl_ioctl_cmd(&(dhd->pub), WLC_SET_MACLIST, (char *)blacklist, len, TRUE, 0); if (err != BCME_OK) { DHD_ERROR(("%s : WLC_SET_MACLIST failed %d\n", __FUNCTION__, err)); return err; } } /* By default programming blacklist flushes out old values */ macmode = (flush && !blacklist) ? WLC_MACMODE_DISABLED : WLC_MACMODE_DENY; err = dhd_wl_ioctl_cmd(&(dhd->pub), WLC_SET_MACMODE, (char *)&macmode, sizeof(macmode), TRUE, 0); if (err != BCME_OK) { DHD_ERROR(("%s : WLC_SET_MACMODE failed %d\n", __FUNCTION__, err)); } return err; } int dhd_dev_set_whitelist_ssid(struct net_device *dev, wl_ssid_whitelist_t *ssid_whitelist, uint32 len, uint32 flush) { int err; dhd_info_t *dhd = *(dhd_info_t **)netdev_priv(dev); wl_ssid_whitelist_t whitelist_ssid_flush; if (!ssid_whitelist) { if (flush) { ssid_whitelist = &whitelist_ssid_flush; ssid_whitelist->ssid_count = 0; } else { DHD_ERROR(("%s : Nothing to do here\n", __FUNCTION__)); return BCME_BADARG; } } ssid_whitelist->version = SSID_WHITELIST_VERSION; ssid_whitelist->flags = flush ? ROAM_EXP_CLEAR_SSID_WHITELIST : 0; err = dhd_iovar(&dhd->pub, 0, "roam_exp_ssid_whitelist", (char *)ssid_whitelist, len, NULL, 0, TRUE); if (err != BCME_OK) { if (err == BCME_UNSUPPORTED) { DHD_ERROR(("%s : roam_exp_bssid_pref, UNSUPPORTED \n", __FUNCTION__)); } else { DHD_ERROR(("%s : Failed to execute roam_exp_bssid_pref %d\n", __FUNCTION__, err)); } } return err; } #endif /* GSCAN_SUPPORT || ROAMEXP_SUPPORT */ #endif #ifdef RSSI_MONITOR_SUPPORT int dhd_dev_set_rssi_monitor_cfg(struct net_device *dev, int start, int8 max_rssi, int8 min_rssi) { int err; wl_rssi_monitor_cfg_t rssi_monitor; dhd_info_t *dhd = *(dhd_info_t **)netdev_priv(dev); rssi_monitor.version = RSSI_MONITOR_VERSION; rssi_monitor.max_rssi = max_rssi; rssi_monitor.min_rssi = min_rssi; rssi_monitor.flags = start ? 0: RSSI_MONITOR_STOP; err = dhd_iovar(&dhd->pub, 0, "rssi_monitor", (char *)&rssi_monitor, sizeof(rssi_monitor), NULL, 0, TRUE); if (err < 0 && err != BCME_UNSUPPORTED) { DHD_ERROR(("%s : Failed to execute rssi_monitor %d\n", __FUNCTION__, err)); } return err; } #endif /* RSSI_MONITOR_SUPPORT */ #ifdef DHDTCPACK_SUPPRESS int dhd_dev_set_tcpack_sup_mode_cfg(struct net_device *dev, uint8 enable) { int err; dhd_info_t *dhd = *(dhd_info_t **)netdev_priv(dev); err = dhd_tcpack_suppress_set(&dhd->pub, enable); if (err != BCME_OK) { DHD_ERROR(("%s : Failed to set tcpack_suppress mode: %d\n", __FUNCTION__, err)); } return err; } #endif /* DHDTCPACK_SUPPRESS */ int dhd_dev_cfg_rand_mac_oui(struct net_device *dev, uint8 *oui) { dhd_info_t *dhd = *(dhd_info_t **)netdev_priv(dev); dhd_pub_t *dhdp = &dhd->pub; if (!dhdp || !oui) { DHD_ERROR(("NULL POINTER : %s\n", __FUNCTION__)); return BCME_ERROR; } if (ETHER_ISMULTI(oui)) { DHD_ERROR(("Expected unicast OUI\n")); return BCME_ERROR; } else { uint8 *rand_mac_oui = dhdp->rand_mac_oui; memcpy(rand_mac_oui, oui, DOT11_OUI_LEN); DHD_ERROR(("Random MAC OUI to be used - "MACOUIDBG"\n", MACOUI2STRDBG(rand_mac_oui))); } return BCME_OK; } int dhd_set_rand_mac_oui(dhd_pub_t *dhd) { int err; wl_pfn_macaddr_cfg_t wl_cfg; uint8 *rand_mac_oui = dhd->rand_mac_oui; memset(&wl_cfg.macaddr, 0, ETHER_ADDR_LEN); memcpy(&wl_cfg.macaddr, rand_mac_oui, DOT11_OUI_LEN); wl_cfg.version = WL_PFN_MACADDR_CFG_VER; if (ETHER_ISNULLADDR(&wl_cfg.macaddr)) { wl_cfg.flags = 0; } else { wl_cfg.flags = (WL_PFN_MAC_OUI_ONLY_MASK | WL_PFN_SET_MAC_UNASSOC_MASK); } DHD_ERROR(("Setting rand mac oui to FW - "MACOUIDBG"\n", MACOUI2STRDBG(rand_mac_oui))); err = dhd_iovar(dhd, 0, "pfn_macaddr", (char *)&wl_cfg, sizeof(wl_cfg), NULL, 0, TRUE); if (err < 0) { DHD_ERROR(("%s : failed to execute pfn_macaddr %d\n", __FUNCTION__, err)); } return err; } #if defined(RTT_SUPPORT) && defined(WL_CFG80211) /* Linux wrapper to call common dhd_pno_set_cfg_gscan */ int dhd_dev_rtt_set_cfg(struct net_device *dev, void *buf) { dhd_info_t *dhd = *(dhd_info_t **)netdev_priv(dev); return (dhd_rtt_set_cfg(&dhd->pub, buf)); } int dhd_dev_rtt_cancel_cfg(struct net_device *dev, struct ether_addr *mac_list, int mac_cnt) { dhd_info_t *dhd = *(dhd_info_t **)netdev_priv(dev); return (dhd_rtt_stop(&dhd->pub, mac_list, mac_cnt)); } int dhd_dev_rtt_register_noti_callback(struct net_device *dev, void *ctx, dhd_rtt_compl_noti_fn noti_fn) { dhd_info_t *dhd = *(dhd_info_t **)netdev_priv(dev); return (dhd_rtt_register_noti_callback(&dhd->pub, ctx, noti_fn)); } int dhd_dev_rtt_unregister_noti_callback(struct net_device *dev, dhd_rtt_compl_noti_fn noti_fn) { dhd_info_t *dhd = *(dhd_info_t **)netdev_priv(dev); return (dhd_rtt_unregister_noti_callback(&dhd->pub, noti_fn)); } int dhd_dev_rtt_capability(struct net_device *dev, rtt_capabilities_t *capa) { dhd_info_t *dhd = *(dhd_info_t **)netdev_priv(dev); return (dhd_rtt_capability(&dhd->pub, capa)); } int dhd_dev_rtt_avail_channel(struct net_device *dev, wifi_channel_info *channel_info) { dhd_info_t *dhd = *(dhd_info_t **)netdev_priv(dev); return (dhd_rtt_avail_channel(&dhd->pub, channel_info)); } int dhd_dev_rtt_enable_responder(struct net_device *dev, wifi_channel_info *channel_info) { dhd_info_t *dhd = *(dhd_info_t **)netdev_priv(dev); return (dhd_rtt_enable_responder(&dhd->pub, channel_info)); } int dhd_dev_rtt_cancel_responder(struct net_device *dev) { dhd_info_t *dhd = *(dhd_info_t **)netdev_priv(dev); return (dhd_rtt_cancel_responder(&dhd->pub)); } #endif /* RTT_SUPPORT */ #if defined(APF) static void _dhd_apf_lock_local(dhd_info_t *dhd) { if (dhd) { mutex_lock(&dhd->dhd_apf_mutex); } } static void _dhd_apf_unlock_local(dhd_info_t *dhd) { if (dhd) { mutex_unlock(&dhd->dhd_apf_mutex); } } static int _dhd_apf_add_filter(struct net_device *ndev, uint32 filter_id, u8* program, uint32 program_len) { dhd_info_t *dhd = DHD_DEV_INFO(ndev); dhd_pub_t *dhdp = &dhd->pub; wl_pkt_filter_t * pkt_filterp; wl_apf_program_t *apf_program; char *buf = NULL; u32 cmd_len, buf_len, max_len; int ifidx, ret = BCME_OK; char cmd[] = "pkt_filter_add"; ifidx = dhd_net2idx(dhd, ndev); if (ifidx == DHD_BAD_IF) { DHD_ERROR(("%s: bad ifidx\n", __FUNCTION__)); ret = -ENODEV; goto exit; } cmd_len = sizeof(cmd); /* Check if the program_len is more than the expected len or if the program is NULL, * then return from here. */ ret = dhd_wl_ioctl_get_intiovar(dhdp, "apf_size_limit", &max_len, WLC_GET_VAR, FALSE, ifidx); if (unlikely(ret)) { DHD_ERROR(("%s: failed to get APF size limit, ret=%d\n", __FUNCTION__, ret)); goto exit; } if ((program_len > max_len) || (program == NULL)) { DHD_ERROR(("%s Invalid program_len: %d, program: %pK\n", __FUNCTION__, program_len, program)); ret = -EINVAL; goto exit; } buf_len = cmd_len + WL_PKT_FILTER_FIXED_LEN + WL_APF_PROGRAM_FIXED_LEN + program_len; buf = MALLOCZ(dhdp->osh, buf_len); if (unlikely(!buf)) { DHD_ERROR(("%s: MALLOC failure, %d bytes\n", __FUNCTION__, buf_len)); ret = -ENOMEM; goto exit; } ret = memcpy_s(buf, buf_len, cmd, cmd_len); if (unlikely(ret)) { goto exit; } pkt_filterp = (wl_pkt_filter_t *) (buf + cmd_len); pkt_filterp->id = htod32(filter_id); pkt_filterp->negate_match = htod32(FALSE); pkt_filterp->type = htod32(WL_PKT_FILTER_TYPE_APF_MATCH); apf_program = &pkt_filterp->u.apf_program; apf_program->version = htod16(WL_APF_INTERNAL_VERSION); apf_program->instr_len = htod16(program_len); ret = memcpy_s(apf_program->instrs, program_len, program, program_len); if (unlikely(ret)) { goto exit; } ret = dhd_wl_ioctl_cmd(dhdp, WLC_SET_VAR, buf, buf_len, TRUE, ifidx); if (unlikely(ret)) { DHD_ERROR(("%s: failed to add APF filter, id=%d, ret=%d\n", __FUNCTION__, filter_id, ret)); goto exit; } exit: if (buf) { MFREE(dhdp->osh, buf, buf_len); } return ret; } static int _dhd_apf_config_filter(struct net_device *ndev, uint32 filter_id, uint32 mode, uint32 enable) { dhd_info_t *dhd = DHD_DEV_INFO(ndev); dhd_pub_t *dhdp = &dhd->pub; wl_pkt_filter_enable_t * pkt_filterp; char *buf = NULL; u32 cmd_len, buf_len; int ifidx, ret; char cmd[] = "pkt_filter_enable"; ifidx = dhd_net2idx(dhd, ndev); if (ifidx == DHD_BAD_IF) { DHD_ERROR(("%s: bad ifidx\n", __FUNCTION__)); ret = -ENODEV; goto exit; } cmd_len = sizeof(cmd); buf_len = cmd_len + (u32)sizeof(*pkt_filterp); buf = MALLOCZ(dhdp->osh, buf_len); if (unlikely(!buf)) { DHD_ERROR(("%s: MALLOC failure, %d bytes\n", __FUNCTION__, buf_len)); ret = -ENOMEM; goto exit; } ret = memcpy_s(buf, buf_len, cmd, cmd_len); if (unlikely(ret)) { goto exit; } pkt_filterp = (wl_pkt_filter_enable_t *) (buf + cmd_len); pkt_filterp->id = htod32(filter_id); pkt_filterp->enable = htod32(enable); ret = dhd_wl_ioctl_cmd(dhdp, WLC_SET_VAR, buf, buf_len, TRUE, ifidx); if (unlikely(ret)) { DHD_ERROR(("%s: failed to enable APF filter, id=%d, ret=%d\n", __FUNCTION__, filter_id, ret)); goto exit; } ret = dhd_wl_ioctl_set_intiovar(dhdp, "pkt_filter_mode", dhd_master_mode, WLC_SET_VAR, TRUE, ifidx); if (unlikely(ret)) { DHD_ERROR(("%s: failed to set APF filter mode, id=%d, ret=%d\n", __FUNCTION__, filter_id, ret)); goto exit; } exit: if (buf) { MFREE(dhdp->osh, buf, buf_len); } return ret; } static int _dhd_apf_delete_filter(struct net_device *ndev, uint32 filter_id) { dhd_info_t *dhd = *(dhd_info_t **)netdev_priv(ndev); dhd_pub_t *dhdp = &dhd->pub; int ifidx, ret; ifidx = dhd_net2idx(dhd, ndev); if (ifidx == DHD_BAD_IF) { DHD_ERROR(("%s: bad ifidx\n", __FUNCTION__)); return -ENODEV; } ret = dhd_wl_ioctl_set_intiovar(dhdp, "pkt_filter_delete", htod32(filter_id), WLC_SET_VAR, TRUE, ifidx); if (unlikely(ret)) { DHD_ERROR(("%s: failed to delete APF filter, id=%d, ret=%d\n", __FUNCTION__, filter_id, ret)); return ret; } return ret; } static int _dhd_apf_read_filter_data(struct net_device *ndev, uint32 filter_id, u8* buf, uint32 buf_len) { dhd_info_t *dhd = DHD_DEV_INFO(ndev); dhd_pub_t *dhdp = &dhd->pub; wl_apf_program_t *apf_program; u32 cmd_len, max_len; int ifidx, ret; char cmd[] = "apf_buf_get"; ifidx = dhd_net2idx(dhd, ndev); if (ifidx == DHD_BAD_IF) { DHD_ERROR(("%s: bad ifidx\n", __FUNCTION__)); return -ENODEV; } /* Check if the provided buffer is large enough to store the filter data or * if the buffer is NULL, then return from here. */ ret = dhd_wl_ioctl_get_intiovar(dhdp, "apf_size_limit", &max_len, WLC_GET_VAR, FALSE, ifidx); if (unlikely(ret)) { DHD_ERROR(("%s: failed to get APF size limit, ret=%d\n", __FUNCTION__, ret)); return ret; } if ((buf_len < (WL_APF_PROGRAM_FIXED_LEN + max_len)) || (buf == NULL)) { DHD_ERROR(("%s: Invalid buf_len=%d or buf=%pK\n", __FUNCTION__, buf_len, buf)); return -EINVAL; } /* Get APF filter data from the dongle */ cmd_len = sizeof(cmd); ret = memcpy_s(buf, buf_len, cmd, cmd_len); if (unlikely(ret)) { return ret; } *(buf + cmd_len) = htod32(filter_id); ret = dhd_wl_ioctl_cmd(dhdp, WLC_GET_VAR, buf, buf_len, FALSE, ifidx); if (unlikely(ret)) { DHD_ERROR(("%s: failed to read APF filter data, id=%d, ret=%d\n", __FUNCTION__, filter_id, ret)); return ret; } /* Validate structure version */ apf_program = (wl_apf_program_t *)buf; if (apf_program->version != WL_APF_INTERNAL_VERSION) { DHD_ERROR(("%s: incorrect version, version=%d, expected version=%d\n", __FUNCTION__, apf_program->version, WL_APF_INTERNAL_VERSION)); return BCME_VERSION; } return ret; } void dhd_apf_lock(struct net_device *dev) { dhd_info_t *dhd = DHD_DEV_INFO(dev); _dhd_apf_lock_local(dhd); } void dhd_apf_unlock(struct net_device *dev) { dhd_info_t *dhd = DHD_DEV_INFO(dev); _dhd_apf_unlock_local(dhd); } int dhd_dev_apf_get_version(struct net_device *ndev, uint32 *version) { dhd_info_t *dhd = DHD_DEV_INFO(ndev); dhd_pub_t *dhdp = &dhd->pub; int ifidx, ret; if (!FW_SUPPORTED(dhdp, apf)) { DHD_ERROR(("%s: firmware doesn't support APF\n", __FUNCTION__)); /* Notify Android framework that APF is not supported by setting version as zero. */ *version = 0; return BCME_OK; } ifidx = dhd_net2idx(dhd, ndev); if (ifidx == DHD_BAD_IF) { DHD_ERROR(("%s: bad ifidx\n", __FUNCTION__)); return -ENODEV; } ret = dhd_wl_ioctl_get_intiovar(dhdp, "apf_ver", version, WLC_GET_VAR, FALSE, ifidx); if (unlikely(ret)) { DHD_ERROR(("%s: failed to get APF version, ret=%d\n", __FUNCTION__, ret)); return ret; } return ret; } int dhd_dev_apf_get_max_len(struct net_device *ndev, uint32 *max_len) { dhd_info_t *dhd = *(dhd_info_t **)netdev_priv(ndev); dhd_pub_t *dhdp = &dhd->pub; int ifidx, ret; if (!FW_SUPPORTED(dhdp, apf)) { DHD_ERROR(("%s: firmware doesn't support APF\n", __FUNCTION__)); *max_len = 0; return BCME_OK; } ifidx = dhd_net2idx(dhd, ndev); if (ifidx == DHD_BAD_IF) { DHD_ERROR(("%s bad ifidx\n", __FUNCTION__)); return -ENODEV; } ret = dhd_wl_ioctl_get_intiovar(dhdp, "apf_size_limit", max_len, WLC_GET_VAR, FALSE, ifidx); if (unlikely(ret)) { DHD_ERROR(("%s: failed to get APF size limit, ret=%d\n", __FUNCTION__, ret)); return ret; } return ret; } int dhd_dev_apf_add_filter(struct net_device *ndev, u8* program, uint32 program_len) { dhd_info_t *dhd = DHD_DEV_INFO(ndev); dhd_pub_t *dhdp = &dhd->pub; int ret; DHD_APF_LOCK(ndev); /* delete, if filter already exists */ if (dhdp->apf_set) { ret = _dhd_apf_delete_filter(ndev, PKT_FILTER_APF_ID); if (unlikely(ret)) { goto exit; } dhdp->apf_set = FALSE; } ret = _dhd_apf_add_filter(ndev, PKT_FILTER_APF_ID, program, program_len); if (ret) { goto exit; } dhdp->apf_set = TRUE; if (dhdp->in_suspend && dhdp->apf_set && !(dhdp->op_mode & DHD_FLAG_HOSTAP_MODE)) { /* Driver is still in (early) suspend state and during this time Android * framework updated the filter program. As there will not be another * early suspend notification, enable back the APF filter with the new * filter program to avoid unnecessary host wake-ups. */ ret = _dhd_apf_config_filter(ndev, PKT_FILTER_APF_ID, PKT_FILTER_MODE_FORWARD_ON_MATCH, TRUE); if (ret) { goto exit; } } exit: DHD_APF_UNLOCK(ndev); return ret; } int dhd_dev_apf_enable_filter(struct net_device *ndev) { dhd_info_t *dhd = DHD_DEV_INFO(ndev); dhd_pub_t *dhdp = &dhd->pub; int ret = 0; bool nan_dp_active = false; DHD_APF_LOCK(ndev); #ifdef WL_NAN nan_dp_active = wl_cfgnan_is_dp_active(ndev); #endif /* WL_NAN */ if (dhdp->apf_set && (!(dhdp->op_mode & DHD_FLAG_HOSTAP_MODE) && !nan_dp_active)) { ret = _dhd_apf_config_filter(ndev, PKT_FILTER_APF_ID, PKT_FILTER_MODE_FORWARD_ON_MATCH, TRUE); } DHD_APF_UNLOCK(ndev); return ret; } int dhd_dev_apf_disable_filter(struct net_device *ndev) { dhd_info_t *dhd = DHD_DEV_INFO(ndev); dhd_pub_t *dhdp = &dhd->pub; int ret = 0; DHD_APF_LOCK(ndev); if (dhdp->apf_set) { ret = _dhd_apf_config_filter(ndev, PKT_FILTER_APF_ID, PKT_FILTER_MODE_FORWARD_ON_MATCH, FALSE); } DHD_APF_UNLOCK(ndev); return ret; } int dhd_dev_apf_delete_filter(struct net_device *ndev) { dhd_info_t *dhd = DHD_DEV_INFO(ndev); dhd_pub_t *dhdp = &dhd->pub; int ret = 0; DHD_APF_LOCK(ndev); if (dhdp->apf_set) { ret = _dhd_apf_delete_filter(ndev, PKT_FILTER_APF_ID); if (!ret) { dhdp->apf_set = FALSE; } } DHD_APF_UNLOCK(ndev); return ret; } int dhd_dev_apf_read_filter_data(struct net_device *ndev, u8* buf, uint32 buf_len) { dhd_info_t *dhd = DHD_DEV_INFO(ndev); dhd_pub_t *dhdp = &dhd->pub; int ret = 0; bool apf_disabled = FALSE; DHD_APF_LOCK(ndev); if (!dhdp->apf_set) { DHD_ERROR(("%s: APF filter is not programmed\n", __FUNCTION__)); goto exit; } /* As per the requirement, APF filter needs to be stopped while reading the filter data. * Otherwise the APF counters could be wrong. Therefore disable the APF filter, if driver * is in (early) suspend state. */ if (dhdp->in_suspend) { ret = _dhd_apf_config_filter(ndev, PKT_FILTER_APF_ID, PKT_FILTER_MODE_FORWARD_ON_MATCH, FALSE); if (unlikely(ret)) { DHD_ERROR(("%s: failed to disable APF filter, ret=%d\n", __FUNCTION__, ret)); goto exit; } apf_disabled = TRUE; } ret = _dhd_apf_read_filter_data(ndev, PKT_FILTER_APF_ID, buf, buf_len); if (unlikely(ret)) { goto exit; } exit: /* Re-enable the filter if got disabled above */ if (apf_disabled && _dhd_apf_config_filter(ndev, PKT_FILTER_APF_ID, PKT_FILTER_MODE_FORWARD_ON_MATCH, TRUE)) { DHD_ERROR(("%s: failed to enable APF filter, ret=%d\n", __FUNCTION__, ret)); } DHD_APF_UNLOCK(ndev); return ret; } #endif /* APF */ static void dhd_hang_process(struct work_struct *work_data) { struct net_device *dev; #ifdef IFACE_HANG_FORCE_DEV_CLOSE struct net_device *ndev; uint8 i = 0; #endif /* IFACE_HANG_FORCE_DEV_CLOSE */ struct dhd_info *dhd; /* Ignore compiler warnings due to -Werror=cast-qual */ GCC_DIAGNOSTIC_PUSH_SUPPRESS_CAST(); dhd = container_of(work_data, dhd_info_t, dhd_hang_process_work); GCC_DIAGNOSTIC_POP(); dev = dhd->iflist[0]->net; if (dev) { #if defined(WL_WIRELESS_EXT) wl_iw_send_priv_event(dev, "HANG"); #endif #if defined(WL_CFG80211) wl_cfg80211_hang(dev, WLAN_REASON_UNSPECIFIED); #endif } #ifdef IFACE_HANG_FORCE_DEV_CLOSE /* * In case of wif scan only mode, upper layer doesn't handle hang * So dev_close need to be called explicitly */ #ifdef HANG_DELAY_BEFORE_DEV_CLOSE { int wait_cnt = WAIT_FOR_DEV_CLOSE_MAX; while (dev && (dev->flags & IFF_UP) && (wait_cnt > 0)) { wait_cnt--; OSL_SLEEP(10); } DHD_ERROR(("dev->name : %s wait for interface down done, wait_cnt:%d\n", ((dev == NULL) ? "null" : dev->name), wait_cnt)); } #endif /* HANG_DELAY_BEFORE_DEV_CLOSE */ rtnl_lock(); for (i = 0; i < DHD_MAX_IFS && dhd; i++) { ndev = dhd->iflist[i] ? dhd->iflist[i]->net : NULL; if (ndev && (ndev->flags & IFF_UP)) { DHD_ERROR(("ndev->name : %s dev close\n", ndev->name)); dev_close(ndev); } } rtnl_unlock(); #endif /* IFACE_HANG_FORCE_DEV_CLOSE */ } #if defined(CONFIG_ARCH_EXYNOS) && defined(BCMPCIE) extern dhd_pub_t *link_recovery; void dhd_host_recover_link(void) { DHD_ERROR(("****** %s ******\n", __FUNCTION__)); link_recovery->hang_reason = HANG_REASON_PCIE_LINK_DOWN_RC_DETECT; dhd_bus_set_linkdown(link_recovery, TRUE); dhd_os_send_hang_message(link_recovery); } EXPORT_SYMBOL(dhd_host_recover_link); #endif /* CONFIG_ARCH_EXYNOS && BCMPCIE */ int dhd_os_send_hang_message(dhd_pub_t *dhdp) { int ret = 0; dhd_info_t *dhd_info = NULL; #ifdef WL_CFG80211 struct net_device *primary_ndev; struct bcm_cfg80211 *cfg; #endif /* WL_CFG80211 */ if (!dhdp) { DHD_ERROR(("%s: dhdp is null\n", __FUNCTION__)); return -EINVAL; } dhd_info = (dhd_info_t *)dhdp->info; BCM_REFERENCE(dhd_info); #if defined(WLAN_ACCEL_BOOT) if (!dhd_info->wl_accel_force_reg_on) { DHD_ERROR(("%s: set force reg on\n", __FUNCTION__)); dhd_info->wl_accel_force_reg_on = TRUE; } #endif /* WLAN_ACCEL_BOOT */ if (!dhdp->hang_report) { DHD_ERROR(("%s: hang_report is disabled\n", __FUNCTION__)); return BCME_ERROR; } #if defined(WL_CFG80211) && (defined(DHD_FILE_DUMP_EVENT) || defined(DHD_COREDUMP)) if (dhd_info->scheduled_memdump) { DHD_ERROR_RLMT(("[DUMP]:%s, memdump in progress. return\n", __FUNCTION__)); dhdp->hang_was_pending = 1; return BCME_OK; } #endif /* WL_CFG80211 && (DHD_FILE_DUMP_EVENT || DHD_COREDUMP) */ #ifdef WL_CFG80211 primary_ndev = dhd_linux_get_primary_netdev(dhdp); if (!primary_ndev) { DHD_ERROR(("%s: Cannot find primary netdev\n", __FUNCTION__)); return -ENODEV; } cfg = wl_get_cfg(primary_ndev); if (!cfg) { DHD_ERROR(("%s: Cannot find cfg\n", __FUNCTION__)); return -EINVAL; } /* Skip sending HANG event to framework if driver is not ready */ if (!wl_get_drv_status(cfg, READY, primary_ndev)) { DHD_ERROR(("%s: device is not ready\n", __FUNCTION__)); return -ENODEV; } #endif /* WL_CFG80211 */ #if defined(DHD_HANG_SEND_UP_TEST) if (dhdp->req_hang_type) { DHD_ERROR(("%s, Clear HANG test request 0x%x\n", __FUNCTION__, dhdp->req_hang_type)); dhdp->req_hang_type = 0; } #endif /* DHD_HANG_SEND_UP_TEST */ if (!dhdp->hang_was_sent) { #ifdef DHD_DETECT_CONSECUTIVE_MFG_HANG if (dhdp->op_mode & DHD_FLAG_MFG_MODE) { dhdp->hang_count++; if (dhdp->hang_count >= MAX_CONSECUTIVE_MFG_HANG_COUNT) { DHD_ERROR(("%s, Consecutive hang from Dongle :%u\n", __FUNCTION__, dhdp->hang_count)); BUG_ON(1); } } #endif /* DHD_DETECT_CONSECUTIVE_MFG_HANG */ #ifdef DHD_DEBUG_UART /* If PCIe lane has broken, execute the debug uart application * to gether a ramdump data from dongle via uart */ if (!dhdp->info->duart_execute) { dhd_deferred_schedule_work(dhdp->info->dhd_deferred_wq, (void *)dhdp, DHD_WQ_WORK_DEBUG_UART_DUMP, dhd_debug_uart_exec_rd, DHD_WQ_WORK_PRIORITY_HIGH); } #endif /* DHD_DEBUG_UART */ dhdp->hang_was_sent = 1; #ifdef BT_OVER_SDIO dhdp->is_bt_recovery_required = TRUE; #endif schedule_work(&dhdp->info->dhd_hang_process_work); } return ret; } int net_os_send_hang_message(struct net_device *dev) { dhd_info_t *dhd = DHD_DEV_INFO(dev); int ret = 0; if (dhd) { /* Report FW problem when enabled */ if (dhd->pub.hang_report) { #ifdef BT_OVER_SDIO if (netif_running(dev)) #endif /* BT_OVER_SDIO */ { ret = dhd_os_send_hang_message(&dhd->pub); } #ifdef BT_OVER_SDIO DHD_ERROR(("%s: HANG -> Reset BT\n", __FUNCTION__)); bcmsdh_btsdio_process_dhd_hang_notification(!netif_running(dev)); #endif /* BT_OVER_SDIO */ } else { DHD_ERROR(("%s: FW HANG ignored (for testing purpose) and not sent up\n", __FUNCTION__)); } } return ret; } int net_os_send_hang_message_reason(struct net_device *dev, const char *string_num) { dhd_info_t *dhd = NULL; dhd_pub_t *dhdp = NULL; int reason; dhd = DHD_DEV_INFO(dev); if (dhd) { dhdp = &dhd->pub; } if (!dhd || !dhdp) { return 0; } reason = bcm_strtoul(string_num, NULL, 0); DHD_INFO(("%s: Enter, reason=0x%x\n", __FUNCTION__, reason)); if ((reason <= HANG_REASON_MASK) || (reason >= HANG_REASON_MAX)) { reason = 0; } dhdp->hang_reason = reason; return net_os_send_hang_message(dev); } int dhd_net_wifi_platform_set_power(struct net_device *dev, bool on, unsigned long delay_msec) { dhd_info_t *dhd = DHD_DEV_INFO(dev); return wifi_platform_set_power(dhd->adapter, on, delay_msec); } int dhd_wifi_platform_set_power(dhd_pub_t *pub, bool on) { dhd_info_t *dhd = (dhd_info_t *)(pub->info); unsigned long delay_msec = on ? WIFI_TURNON_DELAY : WIFI_TURNOFF_DELAY; return wifi_platform_set_power(dhd->adapter, on, delay_msec); } bool dhd_force_country_change(struct net_device *dev) { #if defined(CUSTOM_FORCE_NODFS_FLAG) && defined(CUSTOM_COUNTRY_CODE) dhd_info_t *dhd = DHD_DEV_INFO(dev); if (dhd && dhd->pub.up && dhd->pub.force_country_change) { DHD_ERROR(("force country change\n")); return TRUE; } #endif /* CUSTOM_FORCE_NODFS_FLAG && CUSTOM_COUNTRY_CODE */ DHD_ERROR(("skip force country change\n")); return FALSE; } void dhd_get_customized_country_code(struct net_device *dev, char *country_iso_code, wl_country_t *cspec) { dhd_info_t *dhd = DHD_DEV_INFO(dev); #if defined(DHD_BLOB_EXISTENCE_CHECK) if (!dhd->pub.is_blob) #endif /* DHD_BLOB_EXISTENCE_CHECK */ { #if defined(CUSTOM_COUNTRY_CODE) get_customized_country_code(dhd->adapter, country_iso_code, cspec, dhd->pub.dhd_cflags); #else get_customized_country_code(dhd->adapter, country_iso_code, cspec); #endif /* CUSTOM_COUNTRY_CODE */ } #if defined(DHD_BLOB_EXISTENCE_CHECK) && !defined(CUSTOM_COUNTRY_CODE) else { /* Replace the ccode to XZ if ccode is undefined country or world * domain */ if ((strncmp(country_iso_code, "", WLC_CNTRY_BUF_SZ) == 0) || (strncmp(country_iso_code, "00", WLC_CNTRY_BUF_SZ) == 0)) { strlcpy(country_iso_code, "XZ", WLC_CNTRY_BUF_SZ); strlcpy(cspec->country_abbrev, country_iso_code, WLC_CNTRY_BUF_SZ); strlcpy(cspec->ccode, country_iso_code, WLC_CNTRY_BUF_SZ); DHD_ERROR(("%s: ccode change to %s\n", __FUNCTION__, country_iso_code)); } } #endif /* DHD_BLOB_EXISTENCE_CHECK && !CUSTOM_COUNTRY_CODE */ #ifdef KEEP_JP_REGREV /* XXX Needed by customer's request */ if (strncmp(country_iso_code, "JP", 3) == 0) { #if defined(DHD_BLOB_EXISTENCE_CHECK) if (dhd->pub.is_blob) { if (strncmp(dhd->pub.vars_ccode, "J1", 3) == 0) { memcpy(cspec->ccode, dhd->pub.vars_ccode, sizeof(dhd->pub.vars_ccode)); } } else #endif /* DHD_BLOB_EXISTENCE_CHECK */ { if (strncmp(dhd->pub.vars_ccode, "JP", 3) == 0) { cspec->rev = dhd->pub.vars_regrev; } } } #endif /* KEEP_JP_REGREV */ BCM_REFERENCE(dhd); } void dhd_bus_country_set(struct net_device *dev, wl_country_t *cspec, bool notify) { dhd_info_t *dhd = DHD_DEV_INFO(dev); #ifdef WL_CFG80211 struct bcm_cfg80211 *cfg = wl_get_cfg(dev); #endif if (dhd && dhd->pub.up) { memcpy(&dhd->pub.dhd_cspec, cspec, sizeof(wl_country_t)); dhd->pub.force_country_change = FALSE; #ifdef WL_CFG80211 wl_update_wiphybands(cfg, notify); #endif } } void dhd_bus_band_set(struct net_device *dev, uint band) { dhd_info_t *dhd = DHD_DEV_INFO(dev); #ifdef WL_CFG80211 struct bcm_cfg80211 *cfg = wl_get_cfg(dev); #endif if (dhd && dhd->pub.up) { #ifdef WL_CFG80211 wl_update_wiphybands(cfg, true); #endif } } int dhd_net_set_fw_path(struct net_device *dev, char *fw) { dhd_info_t *dhd = DHD_DEV_INFO(dev); if (!fw || fw[0] == '\0') return -EINVAL; strlcpy(dhd->fw_path, fw, sizeof(dhd->fw_path)); #if defined(SOFTAP) if (strstr(fw, "apsta") != NULL) { DHD_INFO(("GOT APSTA FIRMWARE\n")); ap_fw_loaded = TRUE; } else { DHD_INFO(("GOT STA FIRMWARE\n")); ap_fw_loaded = FALSE; } #endif return 0; } void dhd_net_if_lock(struct net_device *dev) { dhd_info_t *dhd = DHD_DEV_INFO(dev); dhd_net_if_lock_local(dhd); } void dhd_net_if_unlock(struct net_device *dev) { dhd_info_t *dhd = DHD_DEV_INFO(dev); dhd_net_if_unlock_local(dhd); } static void dhd_net_if_lock_local(dhd_info_t *dhd) { if (dhd) mutex_lock(&dhd->dhd_net_if_mutex); } static void dhd_net_if_unlock_local(dhd_info_t *dhd) { if (dhd) mutex_unlock(&dhd->dhd_net_if_mutex); } static void dhd_suspend_lock(dhd_pub_t *pub) { dhd_info_t *dhd = (dhd_info_t *)(pub->info); if (dhd) mutex_lock(&dhd->dhd_suspend_mutex); } static void dhd_suspend_unlock(dhd_pub_t *pub) { dhd_info_t *dhd = (dhd_info_t *)(pub->info); if (dhd) mutex_unlock(&dhd->dhd_suspend_mutex); } unsigned long dhd_os_general_spin_lock(dhd_pub_t *pub) { dhd_info_t *dhd = (dhd_info_t *)(pub->info); unsigned long flags = 0; if (dhd) { flags = osl_spin_lock(&dhd->dhd_lock); } return flags; } void dhd_os_general_spin_unlock(dhd_pub_t *pub, unsigned long flags) { dhd_info_t *dhd = (dhd_info_t *)(pub->info); if (dhd) { osl_spin_unlock(&dhd->dhd_lock, flags); } } static int dhd_get_pend_8021x_cnt(dhd_info_t *dhd) { return (atomic_read(&dhd->pend_8021x_cnt)); } #define MAX_WAIT_FOR_8021X_TX 100 int dhd_wait_pend8021x(struct net_device *dev) { dhd_info_t *dhd = DHD_DEV_INFO(dev); int timeout = msecs_to_jiffies(10); int ntimes = MAX_WAIT_FOR_8021X_TX; int pend = dhd_get_pend_8021x_cnt(dhd); while (ntimes && pend) { if (pend) { set_current_state(TASK_INTERRUPTIBLE); schedule_timeout(timeout); set_current_state(TASK_RUNNING); ntimes--; } pend = dhd_get_pend_8021x_cnt(dhd); } if (ntimes == 0) { atomic_set(&dhd->pend_8021x_cnt, 0); DHD_ERROR(("%s: TIMEOUT\n", __FUNCTION__)); } return pend; } #if defined(BCM_ROUTER_DHD) || defined(DHD_DEBUG) int write_file(const char * file_name, uint32 flags, uint8 *buf, int size) { int ret = 0; struct file *fp = NULL; mm_segment_t old_fs; loff_t pos = 0; /* change to KERNEL_DS address limit */ old_fs = get_fs(); set_fs(KERNEL_DS); /* open file to write */ fp = dhd_filp_open(file_name, flags, 0664); if (IS_ERR(fp) || (fp == NULL)) { DHD_ERROR(("open file error, err = %ld\n", PTR_ERR(fp))); goto exit; } /* Write buf to file */ ret = dhd_vfs_write(fp, buf, size, &pos); if (ret < 0) { DHD_ERROR(("write file error, err = %d\n", ret)); goto exit; } /* Sync file from filesystem to physical media */ ret = dhd_vfs_fsync(fp, 0); if (ret < 0) { DHD_ERROR(("sync file error, error = %d\n", ret)); goto exit; } ret = BCME_OK; exit: /* close file before return */ if (!IS_ERR(fp)) dhd_filp_close(fp, current->files); /* restore previous address limit */ set_fs(old_fs); return ret; } #endif /* BCM_ROUTER_DHD || DHD_DEBUG */ #ifdef DHD_DEBUG void dhd_get_memdump_filename(struct net_device *ndev, char *memdump_path, int len, char *fname) { char memdump_type[DHD_MEMDUMP_TYPE_STR_LEN]; dhd_info_t *dhd = *(dhd_info_t **)netdev_priv(ndev); dhd_pub_t *dhdp = &dhd->pub; /* Init file name */ memset(memdump_path, 0, len); memset(memdump_type, 0, DHD_MEMDUMP_TYPE_STR_LEN); dhd_convert_memdump_type_to_str(dhdp->memdump_type, memdump_type, DHD_MEMDUMP_TYPE_STR_LEN, dhdp->debug_dump_subcmd); #ifdef DHD_LOG_DUMP clear_debug_dump_time(dhdp->debug_dump_time_str); get_debug_dump_time(dhdp->debug_dump_time_str); #endif /* DHD_LOG_DUMP */ snprintf(memdump_path, len, "%s%s_%s_" "%s", DHD_COMMON_DUMP_PATH, fname, memdump_type, dhdp->debug_dump_time_str); if (strstr(fname, "sssr_dump")) { DHD_SSSR_PRINT_FILEPATH(dhdp, memdump_path); } else { DHD_ERROR(("%s: file_path = %s%s\n", __FUNCTION__, memdump_path, FILE_NAME_HAL_TAG)); } } int write_dump_to_file(dhd_pub_t *dhd, uint8 *buf, int size, char *fname) { int ret = 0; char memdump_path[DHD_MEMDUMP_PATH_STR_LEN]; char memdump_type[DHD_MEMDUMP_TYPE_STR_LEN]; uint32 file_mode; /* Init file name */ memset(memdump_path, 0, DHD_MEMDUMP_PATH_STR_LEN); memset(memdump_type, 0, DHD_MEMDUMP_TYPE_STR_LEN); dhd_convert_memdump_type_to_str(dhd->memdump_type, memdump_type, DHD_MEMDUMP_TYPE_STR_LEN, dhd->debug_dump_subcmd); #ifdef DHD_LOG_DUMP clear_debug_dump_time(dhd->debug_dump_time_str); get_debug_dump_time(dhd->debug_dump_time_str); #endif /* DHD_LOG_DUMP */ snprintf(memdump_path, sizeof(memdump_path), "%s%s_%s_" "%s", DHD_COMMON_DUMP_PATH, fname, memdump_type, dhd->debug_dump_time_str); #ifdef CUSTOMER_HW4_DEBUG file_mode = O_CREAT | O_WRONLY | O_SYNC; #elif defined(CUSTOMER_HW2) || defined(BOARD_HIKEY) file_mode = O_CREAT | O_WRONLY | O_SYNC; #elif defined(__ARM_ARCH_7A__) file_mode = O_CREAT | O_WRONLY; #else /* Extra flags O_DIRECT and O_SYNC are required for Brix Android, as we are * calling BUG_ON immediately after collecting the socram dump. * So the file write operation should directly write the contents into the * file instead of caching it. O_TRUNC flag ensures that file will be re-written * instead of appending. */ file_mode = O_CREAT | O_WRONLY | O_SYNC; { struct file *fp = dhd_filp_open(memdump_path, file_mode, 0664); /* Check if it is live Brix image having /installmedia, else use /data */ if (IS_ERR(fp) || (fp == NULL)) { DHD_ERROR(("open file %s, try /data/\n", memdump_path)); snprintf(memdump_path, sizeof(memdump_path), "%s%s_%s_" "%s", "/data/", fname, memdump_type, dhd->debug_dump_time_str); } else { dhd_filp_close(fp, NULL); } } #endif /* CUSTOMER_HW4_DEBUG */ /* print SOCRAM dump file path */ DHD_ERROR(("%s: file_path = %s\n", __FUNCTION__, memdump_path)); #ifdef DHD_LOG_DUMP dhd_print_buf_addr(dhd, "write_dump_to_file", buf, size); #endif /* DHD_LOG_DUMP */ /* Write file */ ret = write_file(memdump_path, file_mode, buf, size); #ifdef DHD_DUMP_MNGR if (ret == BCME_OK) { dhd_dump_file_manage_enqueue(dhd, memdump_path, fname); } #endif /* DHD_DUMP_MNGR */ return ret; } #endif /* DHD_DEBUG */ int dhd_os_wake_lock_timeout(dhd_pub_t *pub) { dhd_info_t *dhd = (dhd_info_t *)(pub->info); unsigned long flags; int ret = 0; if (dhd && (dhd->dhd_state & DHD_ATTACH_STATE_WAKELOCKS_INIT)) { DHD_WAKE_SPIN_LOCK(&dhd->wakelock_spinlock, flags); ret = dhd->wakelock_rx_timeout_enable > dhd->wakelock_ctrl_timeout_enable ? dhd->wakelock_rx_timeout_enable : dhd->wakelock_ctrl_timeout_enable; #ifdef CONFIG_HAS_WAKELOCK if (dhd->wakelock_rx_timeout_enable) dhd_wake_lock_timeout(dhd->wl_rxwake, msecs_to_jiffies(dhd->wakelock_rx_timeout_enable)); if (dhd->wakelock_ctrl_timeout_enable) dhd_wake_lock_timeout(dhd->wl_ctrlwake, msecs_to_jiffies(dhd->wakelock_ctrl_timeout_enable)); #endif dhd->wakelock_rx_timeout_enable = 0; dhd->wakelock_ctrl_timeout_enable = 0; DHD_WAKE_SPIN_UNLOCK(&dhd->wakelock_spinlock, flags); } return ret; } int net_os_wake_lock_timeout(struct net_device *dev) { dhd_info_t *dhd = DHD_DEV_INFO(dev); int ret = 0; if (dhd) ret = dhd_os_wake_lock_timeout(&dhd->pub); return ret; } int dhd_os_wake_lock_ctrl_timeout_enable(dhd_pub_t *pub, int val) { dhd_info_t *dhd = (dhd_info_t *)(pub->info); unsigned long flags; if (dhd && (dhd->dhd_state & DHD_ATTACH_STATE_WAKELOCKS_INIT)) { DHD_WAKE_SPIN_LOCK(&dhd->wakelock_spinlock, flags); if (val > dhd->wakelock_ctrl_timeout_enable) dhd->wakelock_ctrl_timeout_enable = val; DHD_WAKE_SPIN_UNLOCK(&dhd->wakelock_spinlock, flags); } return 0; } int dhd_os_wake_lock_ctrl_timeout_cancel(dhd_pub_t *pub) { dhd_info_t *dhd = (dhd_info_t *)(pub->info); unsigned long flags; if (dhd && (dhd->dhd_state & DHD_ATTACH_STATE_WAKELOCKS_INIT)) { DHD_WAKE_SPIN_LOCK(&dhd->wakelock_spinlock, flags); dhd->wakelock_ctrl_timeout_enable = 0; #ifdef CONFIG_HAS_WAKELOCK if (dhd_wake_lock_active(dhd->wl_ctrlwake)) dhd_wake_unlock(dhd->wl_ctrlwake); #endif DHD_WAKE_SPIN_UNLOCK(&dhd->wakelock_spinlock, flags); } return 0; } int net_os_wake_lock_ctrl_timeout_enable(struct net_device *dev, int val) { dhd_info_t *dhd = DHD_DEV_INFO(dev); int ret = 0; if (dhd) ret = dhd_os_wake_lock_ctrl_timeout_enable(&dhd->pub, val); return ret; } #if defined(DHD_TRACE_WAKE_LOCK) #if (LINUX_VERSION_CODE >= KERNEL_VERSION(3, 7, 0)) #include /* Define 2^5 = 32 bucket size hash table */ DEFINE_HASHTABLE(wklock_history, 5); #else #include /* Define 2^5 = 32 bucket size hash table */ struct hlist_head wklock_history[32] = { [0 ... 31] = HLIST_HEAD_INIT }; #endif /* KERNEL_VER >= KERNEL_VERSION(3, 7, 0) */ atomic_t trace_wklock_onoff; static struct wk_trace_record *find_wklock_entry(unsigned long addr) { struct wk_trace_record *wklock_info; #if (LINUX_VERSION_CODE >= KERNEL_VERSION(3, 7, 0)) GCC_DIAGNOSTIC_PUSH_SUPPRESS_CAST(); hash_for_each_possible(wklock_history, wklock_info, wklock_node, addr) #else struct hlist_node *entry; int index = hash_long(addr, ilog2(ARRAY_SIZE(wklock_history))); GCC_DIAGNOSTIC_PUSH_SUPPRESS_CAST(); hlist_for_each_entry(wklock_info, entry, &wklock_history[index], wklock_node) #endif /* KERNEL_VER >= KERNEL_VERSION(3, 7, 0) */ { GCC_DIAGNOSTIC_POP(); if (wklock_info->addr == addr) { return wklock_info; } } return NULL; } static inline void dhd_wk_lock_rec_dump(void) { int bkt; struct wk_trace_record *wklock_info; #if (LINUX_VERSION_CODE >= KERNEL_VERSION(3, 7, 0)) GCC_DIAGNOSTIC_PUSH_SUPPRESS_CAST(); hash_for_each(wklock_history, bkt, wklock_info, wklock_node) #else struct hlist_node *entry = NULL; int max_index = ARRAY_SIZE(wklock_history); GCC_DIAGNOSTIC_PUSH_SUPPRESS_CAST(); for (bkt = 0; bkt < max_index; bkt++) hlist_for_each_entry(wklock_info, entry, &wklock_history[bkt], wklock_node) #endif /* KERNEL_VER >= KERNEL_VERSION(3, 7, 0) */ { GCC_DIAGNOSTIC_POP(); switch (wklock_info->lock_type) { case DHD_WAKE_LOCK: DHD_ERROR(("wakelock lock : %pS lock_counter : %llu \n", (void *)wklock_info->addr, wklock_info->counter)); break; case DHD_WAKE_UNLOCK: DHD_ERROR(("wakelock unlock : %pS," " unlock_counter : %llu \n", (void *)wklock_info->addr, wklock_info->counter)); break; case DHD_WAIVE_LOCK: DHD_ERROR(("wakelock waive : %pS before_waive : %llu \n", (void *)wklock_info->addr, wklock_info->counter)); break; case DHD_RESTORE_LOCK: DHD_ERROR(("wakelock restore : %pS, after_waive : %llu \n", (void *)wklock_info->addr, wklock_info->counter)); break; } } } static void dhd_wk_lock_trace_init(struct dhd_info *dhd) { unsigned long flags; #if (LINUX_VERSION_CODE < KERNEL_VERSION(3, 7, 0)) int i; #endif /* KERNEL_VER >= KERNEL_VERSION(3, 7, 0) */ DHD_WAKE_SPIN_LOCK(&dhd->wakelock_spinlock, flags); #if (LINUX_VERSION_CODE >= KERNEL_VERSION(3, 7, 0)) hash_init(wklock_history); #else for (i = 0; i < ARRAY_SIZE(wklock_history); i++) INIT_HLIST_HEAD(&wklock_history[i]); #endif /* KERNEL_VER >= KERNEL_VERSION(3, 7, 0) */ DHD_WAKE_SPIN_UNLOCK(&dhd->wakelock_spinlock, flags); atomic_set(&trace_wklock_onoff, 1); } static void dhd_wk_lock_trace_deinit(struct dhd_info *dhd) { int bkt; struct wk_trace_record *wklock_info; struct hlist_node *tmp; unsigned long flags; #if (LINUX_VERSION_CODE < KERNEL_VERSION(3, 7, 0)) struct hlist_node *entry = NULL; int max_index = ARRAY_SIZE(wklock_history); #endif /* KERNEL_VER >= KERNEL_VERSION(3, 7, 0) */ DHD_WAKE_SPIN_LOCK(&dhd->wakelock_spinlock, flags); GCC_DIAGNOSTIC_PUSH_SUPPRESS_CAST(); #if (LINUX_VERSION_CODE >= KERNEL_VERSION(3, 7, 0)) hash_for_each_safe(wklock_history, bkt, tmp, wklock_info, wklock_node) #else for (bkt = 0; bkt < max_index; bkt++) hlist_for_each_entry_safe(wklock_info, entry, tmp, &wklock_history[bkt], wklock_node) #endif /* KERNEL_VER >= KERNEL_VERSION(3, 7, 0)) */ { GCC_DIAGNOSTIC_POP(); #if (LINUX_VERSION_CODE >= KERNEL_VERSION(3, 7, 0)) hash_del(&wklock_info->wklock_node); #else hlist_del_init(&wklock_info->wklock_node); #endif /* KERNEL_VER >= KERNEL_VERSION(3, 7, 0)) */ kfree(wklock_info); } DHD_WAKE_SPIN_UNLOCK(&dhd->wakelock_spinlock, flags); } void dhd_wk_lock_stats_dump(dhd_pub_t *dhdp) { dhd_info_t *dhd = (dhd_info_t *)(dhdp->info); unsigned long flags; DHD_ERROR(("DHD Printing wl_wake Lock/Unlock Record \r\n")); DHD_WAKE_SPIN_LOCK(&dhd->wakelock_spinlock, flags); dhd_wk_lock_rec_dump(); DHD_WAKE_SPIN_UNLOCK(&dhd->wakelock_spinlock, flags); } #endif /* ! DHD_TRACE_WAKE_LOCK */ int dhd_os_wake_lock(dhd_pub_t *pub) { dhd_info_t *dhd = (dhd_info_t *)(pub->info); unsigned long flags; int ret = 0; if (dhd && (dhd->dhd_state & DHD_ATTACH_STATE_WAKELOCKS_INIT)) { DHD_WAKE_SPIN_LOCK(&dhd->wakelock_spinlock, flags); if (dhd->wakelock_counter == 0 && !dhd->waive_wakelock) { #ifdef CONFIG_HAS_WAKELOCK dhd_wake_lock(dhd->wl_wifi); #elif defined(BCMSDIO) dhd_bus_dev_pm_stay_awake(pub); #endif } #ifdef DHD_TRACE_WAKE_LOCK if (atomic_read(&trace_wklock_onoff)) { STORE_WKLOCK_RECORD(DHD_WAKE_LOCK); } #endif /* DHD_TRACE_WAKE_LOCK */ dhd->wakelock_counter++; ret = dhd->wakelock_counter; DHD_WAKE_SPIN_UNLOCK(&dhd->wakelock_spinlock, flags); } return ret; } void dhd_event_wake_lock(dhd_pub_t *pub) { dhd_info_t *dhd = (dhd_info_t *)(pub->info); if (dhd) { #ifdef CONFIG_HAS_WAKELOCK dhd_wake_lock(dhd->wl_evtwake); #elif defined(BCMSDIO) dhd_bus_dev_pm_stay_awake(pub); #endif } } void dhd_pm_wake_lock_timeout(dhd_pub_t *pub, int val) { #ifdef CONFIG_HAS_WAKELOCK dhd_info_t *dhd = (dhd_info_t *)(pub->info); if (dhd) { dhd_wake_lock_timeout(dhd->wl_pmwake, msecs_to_jiffies(val)); } #endif /* CONFIG_HAS_WAKE_LOCK */ } void dhd_nan_wake_lock_timeout(dhd_pub_t *pub, int val) { #ifdef CONFIG_HAS_WAKELOCK dhd_info_t *dhd = (dhd_info_t *)(pub->info); if (dhd) { dhd_wake_lock_timeout(dhd->wl_nanwake, msecs_to_jiffies(val)); } #endif /* CONFIG_HAS_WAKE_LOCK */ } int net_os_wake_lock(struct net_device *dev) { dhd_info_t *dhd = DHD_DEV_INFO(dev); int ret = 0; if (dhd) ret = dhd_os_wake_lock(&dhd->pub); return ret; } int dhd_os_wake_unlock(dhd_pub_t *pub) { dhd_info_t *dhd = (dhd_info_t *)(pub->info); unsigned long flags; int ret = 0; dhd_os_wake_lock_timeout(pub); if (dhd && (dhd->dhd_state & DHD_ATTACH_STATE_WAKELOCKS_INIT)) { DHD_WAKE_SPIN_LOCK(&dhd->wakelock_spinlock, flags); if (dhd->wakelock_counter > 0) { dhd->wakelock_counter--; #ifdef DHD_TRACE_WAKE_LOCK if (atomic_read(&trace_wklock_onoff)) { STORE_WKLOCK_RECORD(DHD_WAKE_UNLOCK); } #endif /* DHD_TRACE_WAKE_LOCK */ if (dhd->wakelock_counter == 0 && !dhd->waive_wakelock) { #ifdef CONFIG_HAS_WAKELOCK dhd_wake_unlock(dhd->wl_wifi); #elif defined(BCMSDIO) dhd_bus_dev_pm_relax(pub); #endif } ret = dhd->wakelock_counter; } DHD_WAKE_SPIN_UNLOCK(&dhd->wakelock_spinlock, flags); } return ret; } void dhd_event_wake_unlock(dhd_pub_t *pub) { dhd_info_t *dhd = (dhd_info_t *)(pub->info); if (dhd) { #ifdef CONFIG_HAS_WAKELOCK dhd_wake_unlock(dhd->wl_evtwake); #elif defined(BCMSDIO) dhd_bus_dev_pm_relax(pub); #endif } } void dhd_pm_wake_unlock(dhd_pub_t *pub) { #ifdef CONFIG_HAS_WAKELOCK dhd_info_t *dhd = (dhd_info_t *)(pub->info); if (dhd) { /* if wl_pmwake is active, unlock it */ if (dhd_wake_lock_active(dhd->wl_pmwake)) { dhd_wake_unlock(dhd->wl_pmwake); } } #endif /* CONFIG_HAS_WAKELOCK */ } void dhd_txfl_wake_unlock(dhd_pub_t *pub) { #ifdef CONFIG_HAS_WAKELOCK dhd_info_t *dhd = (dhd_info_t *)(pub->info); if (dhd) { /* if wl_txflwake is active, unlock it */ if (dhd_wake_lock_active(dhd->wl_txflwake)) { dhd_wake_unlock(dhd->wl_txflwake); } } #endif /* CONFIG_HAS_WAKELOCK */ } void dhd_nan_wake_unlock(dhd_pub_t *pub) { #ifdef CONFIG_HAS_WAKELOCK dhd_info_t *dhd = (dhd_info_t *)(pub->info); if (dhd) { /* if wl_nanwake is active, unlock it */ if (dhd_wake_lock_active(dhd->wl_nanwake)) { dhd_wake_unlock(dhd->wl_nanwake); } } #endif /* CONFIG_HAS_WAKELOCK */ } int dhd_os_check_wakelock(dhd_pub_t *pub) { #if defined(CONFIG_HAS_WAKELOCK) || defined(BCMSDIO) dhd_info_t *dhd; if (!pub) return 0; dhd = (dhd_info_t *)(pub->info); #endif /* CONFIG_HAS_WAKELOCK || BCMSDIO */ #ifdef CONFIG_HAS_WAKELOCK /* Indicate to the SD Host to avoid going to suspend if internal locks are up */ if (dhd && (dhd_wake_lock_active(dhd->wl_wifi) || (dhd_wake_lock_active(dhd->wl_wdwake)))) return 1; #elif defined(BCMSDIO) if (dhd && (dhd->wakelock_counter > 0) && dhd_bus_dev_pm_enabled(pub)) return 1; #endif return 0; } int dhd_os_check_wakelock_all(dhd_pub_t *pub) { #if defined(CONFIG_HAS_WAKELOCK) || defined(BCMSDIO) #if defined(CONFIG_HAS_WAKELOCK) int l1, l2, l3, l4, l7, l8, l9, l10; int l5 = 0, l6 = 0; int c, lock_active; #endif /* CONFIG_HAS_WAKELOCK */ dhd_info_t *dhd; if (!pub) { return 0; } if (pub->up == 0) { DHD_ERROR(("%s: skip as down in progress\n", __FUNCTION__)); return 0; } dhd = (dhd_info_t *)(pub->info); if (!dhd) { return 0; } #endif /* CONFIG_HAS_WAKELOCK || BCMSDIO */ #ifdef CONFIG_HAS_WAKELOCK c = dhd->wakelock_counter; l1 = dhd_wake_lock_active(dhd->wl_wifi); l2 = dhd_wake_lock_active(dhd->wl_wdwake); l3 = dhd_wake_lock_active(dhd->wl_rxwake); l4 = dhd_wake_lock_active(dhd->wl_ctrlwake); l7 = dhd_wake_lock_active(dhd->wl_evtwake); #ifdef BCMPCIE_OOB_HOST_WAKE l5 = dhd_wake_lock_active(dhd->wl_intrwake); #endif /* BCMPCIE_OOB_HOST_WAKE */ #ifdef DHD_USE_SCAN_WAKELOCK l6 = dhd_wake_lock_active(dhd->wl_scanwake); #endif /* DHD_USE_SCAN_WAKELOCK */ l8 = dhd_wake_lock_active(dhd->wl_pmwake); l9 = dhd_wake_lock_active(dhd->wl_txflwake); l10 = dhd_wake_lock_active(dhd->wl_nanwake); lock_active = (l1 || l2 || l3 || l4 || l5 || l6 || l7 || l8 || l9 || l10); /* Indicate to the Host to avoid going to suspend if internal locks are up */ if (lock_active) { DHD_ERROR(("%s wakelock c-%d wl-%d wd-%d rx-%d " "ctl-%d intr-%d scan-%d evt-%d, pm-%d, txfl-%d nan-%d\n", __FUNCTION__, c, l1, l2, l3, l4, l5, l6, l7, l8, l9, l10)); return 1; } #elif defined(BCMSDIO) if (dhd && (dhd->wakelock_counter > 0) && dhd_bus_dev_pm_enabled(pub)) { return 1; } #endif /* defined(BCMSDIO) */ return 0; } int net_os_wake_unlock(struct net_device *dev) { dhd_info_t *dhd = DHD_DEV_INFO(dev); int ret = 0; if (dhd) ret = dhd_os_wake_unlock(&dhd->pub); return ret; } int dhd_os_wd_wake_lock(dhd_pub_t *pub) { dhd_info_t *dhd = (dhd_info_t *)(pub->info); unsigned long flags; int ret = 0; if (dhd) { DHD_WAKE_SPIN_LOCK(&dhd->wakelock_spinlock, flags); if (dhd->wakelock_wd_counter == 0 && !dhd->waive_wakelock) { #ifdef CONFIG_HAS_WAKELOCK /* if wakelock_wd_counter was never used : lock it at once */ dhd_wake_lock(dhd->wl_wdwake); #endif } dhd->wakelock_wd_counter++; ret = dhd->wakelock_wd_counter; DHD_WAKE_SPIN_UNLOCK(&dhd->wakelock_spinlock, flags); } return ret; } int dhd_os_wd_wake_unlock(dhd_pub_t *pub) { dhd_info_t *dhd = (dhd_info_t *)(pub->info); unsigned long flags; int ret = 0; if (dhd) { DHD_WAKE_SPIN_LOCK(&dhd->wakelock_spinlock, flags); if (dhd->wakelock_wd_counter > 0) { dhd->wakelock_wd_counter = 0; if (!dhd->waive_wakelock) { #ifdef CONFIG_HAS_WAKELOCK dhd_wake_unlock(dhd->wl_wdwake); #endif } } DHD_WAKE_SPIN_UNLOCK(&dhd->wakelock_spinlock, flags); } return ret; } #ifdef BCMPCIE_OOB_HOST_WAKE void dhd_os_oob_irq_wake_lock_timeout(dhd_pub_t *pub, int val) { #ifdef CONFIG_HAS_WAKELOCK dhd_info_t *dhd = (dhd_info_t *)(pub->info); if (dhd) { dhd_wake_lock_timeout(dhd->wl_intrwake, msecs_to_jiffies(val)); } #endif /* CONFIG_HAS_WAKELOCK */ } void dhd_os_oob_irq_wake_unlock(dhd_pub_t *pub) { #ifdef CONFIG_HAS_WAKELOCK dhd_info_t *dhd = (dhd_info_t *)(pub->info); if (dhd) { /* if wl_intrwake is active, unlock it */ if (dhd_wake_lock_active(dhd->wl_intrwake)) { dhd_wake_unlock(dhd->wl_intrwake); } } #endif /* CONFIG_HAS_WAKELOCK */ } #endif /* BCMPCIE_OOB_HOST_WAKE */ #ifdef DHD_USE_SCAN_WAKELOCK void dhd_os_scan_wake_lock_timeout(dhd_pub_t *pub, int val) { #ifdef CONFIG_HAS_WAKELOCK dhd_info_t *dhd = (dhd_info_t *)(pub->info); if (dhd) { dhd_wake_lock_timeout(dhd->wl_scanwake, msecs_to_jiffies(val)); } #endif /* CONFIG_HAS_WAKELOCK */ } void dhd_os_scan_wake_unlock(dhd_pub_t *pub) { #ifdef CONFIG_HAS_WAKELOCK dhd_info_t *dhd = (dhd_info_t *)(pub->info); if (dhd) { /* if wl_scanwake is active, unlock it */ if (dhd_wake_lock_active(dhd->wl_scanwake)) { dhd_wake_unlock(dhd->wl_scanwake); } } #endif /* CONFIG_HAS_WAKELOCK */ } #endif /* DHD_USE_SCAN_WAKELOCK */ /* waive wakelocks for operations such as IOVARs in suspend function, must be closed * by a paired function call to dhd_wakelock_restore. returns current wakelock counter */ int dhd_os_wake_lock_waive(dhd_pub_t *pub) { dhd_info_t *dhd = (dhd_info_t *)(pub->info); unsigned long flags; int ret = 0; if (dhd && (dhd->dhd_state & DHD_ATTACH_STATE_WAKELOCKS_INIT)) { DHD_WAKE_SPIN_LOCK(&dhd->wakelock_spinlock, flags); /* dhd_wakelock_waive/dhd_wakelock_restore must be paired */ if (dhd->waive_wakelock == FALSE) { #ifdef DHD_TRACE_WAKE_LOCK if (atomic_read(&trace_wklock_onoff)) { STORE_WKLOCK_RECORD(DHD_WAIVE_LOCK); } #endif /* DHD_TRACE_WAKE_LOCK */ /* record current lock status */ dhd->wakelock_before_waive = dhd->wakelock_counter; dhd->waive_wakelock = TRUE; } ret = dhd->wakelock_wd_counter; DHD_WAKE_SPIN_UNLOCK(&dhd->wakelock_spinlock, flags); } return ret; } int dhd_os_wake_lock_restore(dhd_pub_t *pub) { dhd_info_t *dhd = (dhd_info_t *)(pub->info); unsigned long flags; int ret = 0; if (!dhd) return 0; if ((dhd->dhd_state & DHD_ATTACH_STATE_WAKELOCKS_INIT) == 0) return 0; DHD_WAKE_SPIN_LOCK(&dhd->wakelock_spinlock, flags); /* dhd_wakelock_waive/dhd_wakelock_restore must be paired */ if (!dhd->waive_wakelock) goto exit; dhd->waive_wakelock = FALSE; /* if somebody else acquires wakelock between dhd_wakelock_waive/dhd_wakelock_restore, * we need to make it up by calling dhd_wake_lock or pm_stay_awake. or if somebody releases * the lock in between, do the same by calling dhd_wake_unlock or pm_relax */ #ifdef DHD_TRACE_WAKE_LOCK if (atomic_read(&trace_wklock_onoff)) { STORE_WKLOCK_RECORD(DHD_RESTORE_LOCK); } #endif /* DHD_TRACE_WAKE_LOCK */ if (dhd->wakelock_before_waive == 0 && dhd->wakelock_counter > 0) { #ifdef CONFIG_HAS_WAKELOCK dhd_wake_lock(dhd->wl_wifi); #elif defined(BCMSDIO) dhd_bus_dev_pm_stay_awake(&dhd->pub); #endif } else if (dhd->wakelock_before_waive > 0 && dhd->wakelock_counter == 0) { #ifdef CONFIG_HAS_WAKELOCK dhd_wake_unlock(dhd->wl_wifi); #elif defined(BCMSDIO) dhd_bus_dev_pm_relax(&dhd->pub); #endif } dhd->wakelock_before_waive = 0; exit: ret = dhd->wakelock_wd_counter; DHD_WAKE_SPIN_UNLOCK(&dhd->wakelock_spinlock, flags); return ret; } void dhd_os_wake_lock_init(struct dhd_info *dhd) { DHD_TRACE(("%s: initialize wake_lock_counters\n", __FUNCTION__)); dhd->wakelock_counter = 0; dhd->wakelock_rx_timeout_enable = 0; dhd->wakelock_ctrl_timeout_enable = 0; /* wakelocks prevent a system from going into a low power state */ #ifdef CONFIG_HAS_WAKELOCK dhd_wake_lock_init(dhd->wl_wifi, dhd_bus_to_dev(dhd->pub.bus), "wlan_wake"); dhd_wake_lock_init(dhd->wl_rxwake, dhd_bus_to_dev(dhd->pub.bus), "wlan_rx_wake"); dhd_wake_lock_init(dhd->wl_ctrlwake, dhd_bus_to_dev(dhd->pub.bus), "wlan_ctrl_wake"); dhd_wake_lock_init(dhd->wl_evtwake, dhd_bus_to_dev(dhd->pub.bus), "wlan_evt_wake"); dhd_wake_lock_init(dhd->wl_pmwake, dhd_bus_to_dev(dhd->pub.bus), "wlan_pm_wake"); dhd_wake_lock_init(dhd->wl_txflwake, dhd_bus_to_dev(dhd->pub.bus), "wlan_txfl_wake"); #ifdef BCMPCIE_OOB_HOST_WAKE dhd_wake_lock_init(dhd->wl_intrwake, dhd_bus_to_dev(dhd->pub.bus), "wlan_oob_irq_wake"); #endif /* BCMPCIE_OOB_HOST_WAKE */ #ifdef DHD_USE_SCAN_WAKELOCK dhd_wake_lock_init(dhd->wl_scanwake, dhd_bus_to_dev(dhd->pub.bus), "wlan_scan_wake"); #endif /* DHD_USE_SCAN_WAKELOCK */ dhd_wake_lock_init(dhd->wl_nanwake, dhd_bus_to_dev(dhd->pub.bus), "wlan_nan_wake"); #endif /* CONFIG_HAS_WAKELOCK */ #ifdef DHD_TRACE_WAKE_LOCK dhd_wk_lock_trace_init(dhd); #endif /* DHD_TRACE_WAKE_LOCK */ } void dhd_os_wake_lock_destroy(struct dhd_info *dhd) { DHD_TRACE(("%s: deinit wake_lock_counters\n", __FUNCTION__)); #ifdef CONFIG_HAS_WAKELOCK dhd->wakelock_counter = 0; dhd->wakelock_rx_timeout_enable = 0; dhd->wakelock_ctrl_timeout_enable = 0; dhd_wake_lock_destroy(dhd->wl_wifi); dhd_wake_lock_destroy(dhd->wl_rxwake); dhd_wake_lock_destroy(dhd->wl_ctrlwake); dhd_wake_lock_destroy(dhd->wl_evtwake); dhd_wake_lock_destroy(dhd->wl_pmwake); dhd_wake_lock_destroy(dhd->wl_txflwake); #ifdef BCMPCIE_OOB_HOST_WAKE dhd_wake_lock_destroy(dhd->wl_intrwake); #endif /* BCMPCIE_OOB_HOST_WAKE */ #ifdef DHD_USE_SCAN_WAKELOCK dhd_wake_lock_destroy(dhd->wl_scanwake); #endif /* DHD_USE_SCAN_WAKELOCK */ dhd_wake_lock_destroy(dhd->wl_nanwake); #ifdef DHD_TRACE_WAKE_LOCK dhd_wk_lock_trace_deinit(dhd); #endif /* DHD_TRACE_WAKE_LOCK */ #else /* !CONFIG_HAS_WAKELOCK */ if (dhd->wakelock_counter > 0) { DHD_ERROR(("%s: wake lock count=%d\n", __FUNCTION__, dhd->wakelock_counter)); while (dhd_os_wake_unlock(&dhd->pub)); } #endif /* CONFIG_HAS_WAKELOCK */ } bool dhd_os_check_if_up(dhd_pub_t *pub) { if (!pub) return FALSE; return pub->up; } #if defined(BCMSDIO) || defined(BCMPCIE) /* function to collect firmware, chip id and chip version info */ void dhd_set_version_info(dhd_pub_t *dhdp, char *fw) { int i; i = snprintf(info_string, sizeof(info_string), " Driver: %s\n Firmware: %s ", EPI_VERSION_STR, fw); if (!dhdp) return; i += snprintf(&info_string[i], sizeof(info_string) - i, "\n Chip: %x Rev %x Pkg %x", dhd_bus_chip_id(dhdp), dhd_bus_chiprev_id(dhdp), dhd_bus_chippkg_id(dhdp)); #if defined(USE_CID_CHECK) i += snprintf(&info_string[i], sizeof(info_string) - i, " VID %x", cur_vid_info); #endif /* USE_CID_CHECK */ } #endif /* BCMSDIO || BCMPCIE */ int dhd_ioctl_entry_local(struct net_device *net, wl_ioctl_t *ioc, int cmd) { int ifidx; int ret = 0; dhd_info_t *dhd = NULL; if (!net || !DEV_PRIV(net)) { DHD_ERROR(("%s invalid parameter net %p dev_priv %p\n", __FUNCTION__, net, DEV_PRIV(net))); return -EINVAL; } dhd = DHD_DEV_INFO(net); if (!dhd) return -EINVAL; ifidx = dhd_net2idx(dhd, net); if (ifidx == DHD_BAD_IF) { DHD_ERROR(("%s bad ifidx\n", __FUNCTION__)); return -ENODEV; } DHD_OS_WAKE_LOCK(&dhd->pub); ret = dhd_wl_ioctl(&dhd->pub, ifidx, ioc, ioc->buf, ioc->len); dhd_check_hang(net, &dhd->pub, ret); DHD_OS_WAKE_UNLOCK(&dhd->pub); return ret; } bool dhd_os_check_hang(dhd_pub_t *dhdp, int ifidx, int ret) { struct net_device *net; net = dhd_idx2net(dhdp, ifidx); if (!net) { DHD_ERROR(("%s : Invalid index : %d\n", __FUNCTION__, ifidx)); return -EINVAL; } return dhd_check_hang(net, dhdp, ret); } /* Return instance */ int dhd_get_instance(dhd_pub_t *dhdp) { return dhdp->info->unit; } #if defined(WL_CFG80211) && defined(SUPPORT_DEEP_SLEEP) #define MAX_TRY_CNT 5 /* Number of tries to disable deepsleep */ int dhd_deepsleep(struct net_device *dev, int flag) { char iovbuf[20]; uint powervar = 0; dhd_info_t *dhd; dhd_pub_t *dhdp; int cnt = 0; int ret = 0; dhd = DHD_DEV_INFO(dev); dhdp = &dhd->pub; switch (flag) { case 1 : /* Deepsleep on */ DHD_ERROR(("[WiFi] Deepsleep On\n")); /* give some time to sysioc_work before deepsleep */ OSL_SLEEP(200); #ifdef PKT_FILTER_SUPPORT /* disable pkt filter */ dhd_enable_packet_filter(0, dhdp); #endif /* PKT_FILTER_SUPPORT */ /* Disable MPC */ powervar = 0; ret = dhd_iovar(dhdp, 0, "mpc", (char *)&powervar, sizeof(powervar), NULL, 0, TRUE); if (ret) { DHD_ERROR(("%s: mpc failed:%d\n", __FUNCTION__, ret)); } /* Enable Deepsleep */ powervar = 1; ret = dhd_iovar(dhdp, 0, "deepsleep", (char *)&powervar, sizeof(powervar), NULL, 0, TRUE); if (ret) { DHD_ERROR(("%s: deepsleep failed:%d\n", __FUNCTION__, ret)); } break; case 0: /* Deepsleep Off */ DHD_ERROR(("[WiFi] Deepsleep Off\n")); /* Disable Deepsleep */ for (cnt = 0; cnt < MAX_TRY_CNT; cnt++) { powervar = 0; ret = dhd_iovar(dhdp, 0, "deepsleep", (char *)&powervar, sizeof(powervar), NULL, 0, TRUE); if (ret) { DHD_ERROR(("%s: deepsleep failed:%d\n", __FUNCTION__, ret)); } ret = dhd_iovar(dhdp, 0, "deepsleep", (char *)&powervar, sizeof(powervar), iovbuf, sizeof(iovbuf), FALSE); if (ret < 0) { DHD_ERROR(("the error of dhd deepsleep status" " ret value :%d\n", ret)); } else { if (!(*(int *)iovbuf)) { DHD_ERROR(("deepsleep mode is 0," " count: %d\n", cnt)); break; } } } /* Enable MPC */ powervar = 1; ret = dhd_iovar(dhdp, 0, "mpc", (char *)&powervar, sizeof(powervar), NULL, 0, TRUE); if (ret) { DHD_ERROR(("%s: mpc failed:%d\n", __FUNCTION__, ret)); } break; } return 0; } #endif /* WL_CFG80211 && SUPPORT_DEEP_SLEEP */ #ifdef PROP_TXSTATUS void dhd_wlfc_plat_init(void *dhd) { #ifdef USE_DYNAMIC_F2_BLKSIZE dhdsdio_func_blocksize((dhd_pub_t *)dhd, 2, DYNAMIC_F2_BLKSIZE_FOR_NONLEGACY); #endif /* USE_DYNAMIC_F2_BLKSIZE */ return; } void dhd_wlfc_plat_deinit(void *dhd) { #ifdef USE_DYNAMIC_F2_BLKSIZE dhdsdio_func_blocksize((dhd_pub_t *)dhd, 2, sd_f2_blocksize); #endif /* USE_DYNAMIC_F2_BLKSIZE */ return; } bool dhd_wlfc_skip_fc(void * dhdp, uint8 idx) { #ifdef SKIP_WLFC_ON_CONCURRENT #ifdef WL_CFG80211 struct net_device * net = dhd_idx2net((dhd_pub_t *)dhdp, idx); if (net) /* enable flow control in vsdb mode */ return !(wl_cfg80211_is_concurrent_mode(net)); #else return TRUE; /* skip flow control */ #endif /* WL_CFG80211 */ #else return FALSE; #endif /* SKIP_WLFC_ON_CONCURRENT */ return FALSE; } #endif /* PROP_TXSTATUS */ #ifdef BCMDBGFS #include typedef struct dhd_dbgfs { struct dentry *debugfs_dir; struct dentry *debugfs_mem; dhd_pub_t *dhdp; uint32 size; } dhd_dbgfs_t; dhd_dbgfs_t g_dbgfs; extern uint32 dhd_readregl(void *bp, uint32 addr); extern uint32 dhd_writeregl(void *bp, uint32 addr, uint32 data); static int dhd_dbg_state_open(struct inode *inode, struct file *file) { file->private_data = inode->i_private; return 0; } static ssize_t dhd_dbg_state_read(struct file *file, char __user *ubuf, size_t count, loff_t *ppos) { ssize_t rval; uint32 tmp; loff_t pos = *ppos; size_t ret; if (pos < 0) return -EINVAL; if (pos >= g_dbgfs.size || !count) return 0; if (count > g_dbgfs.size - pos) count = g_dbgfs.size - pos; /* XXX: The user can request any length they want, but they are getting 4 bytes */ /* Basically enforce aligned 4 byte reads. It's up to the user to work out the details */ tmp = dhd_readregl(g_dbgfs.dhdp->bus, file->f_pos & (~3)); ret = copy_to_user(ubuf, &tmp, 4); if (ret == count) return -EFAULT; count -= ret; *ppos = pos + count; rval = count; return rval; } static ssize_t dhd_debugfs_write(struct file *file, const char __user *ubuf, size_t count, loff_t *ppos) { loff_t pos = *ppos; size_t ret; uint32 buf; if (pos < 0) return -EINVAL; if (pos >= g_dbgfs.size || !count) return 0; if (count > g_dbgfs.size - pos) count = g_dbgfs.size - pos; ret = copy_from_user(&buf, ubuf, sizeof(uint32)); if (ret == count) return -EFAULT; /* XXX: The user can request any length they want, but they are getting 4 bytes */ /* Basically enforce aligned 4 byte writes. It's up to the user to work out the details */ dhd_writeregl(g_dbgfs.dhdp->bus, file->f_pos & (~3), buf); return count; } loff_t dhd_debugfs_lseek(struct file *file, loff_t off, int whence) { loff_t pos = -1; switch (whence) { case 0: pos = off; break; case 1: pos = file->f_pos + off; break; case 2: pos = g_dbgfs.size - off; } return (pos < 0 || pos > g_dbgfs.size) ? -EINVAL : (file->f_pos = pos); } static const struct file_operations dhd_dbg_state_ops = { .read = dhd_dbg_state_read, .write = dhd_debugfs_write, .open = dhd_dbg_state_open, .llseek = dhd_debugfs_lseek }; static void dhd_dbgfs_create(void) { if (g_dbgfs.debugfs_dir) { g_dbgfs.debugfs_mem = debugfs_create_file("mem", 0644, g_dbgfs.debugfs_dir, NULL, &dhd_dbg_state_ops); } } void dhd_dbgfs_init(dhd_pub_t *dhdp) { g_dbgfs.dhdp = dhdp; g_dbgfs.size = 0x20000000; /* Allow access to various cores regs */ g_dbgfs.debugfs_dir = debugfs_create_dir("dhd", 0); if (IS_ERR(g_dbgfs.debugfs_dir)) { g_dbgfs.debugfs_dir = NULL; return; } dhd_dbgfs_create(); return; } void dhd_dbgfs_remove(void) { debugfs_remove(g_dbgfs.debugfs_mem); debugfs_remove(g_dbgfs.debugfs_dir); bzero((unsigned char *) &g_dbgfs, sizeof(g_dbgfs)); } #endif /* BCMDBGFS */ #ifdef CUSTOM_SET_CPUCORE void dhd_set_cpucore(dhd_pub_t *dhd, int set) { int e_dpc = 0, e_rxf = 0, retry_set = 0; if (!(dhd->chan_isvht80)) { DHD_ERROR(("%s: chan_status(%d) cpucore!!!\n", __FUNCTION__, dhd->chan_isvht80)); return; } if (DPC_CPUCORE) { do { if (set == TRUE) { e_dpc = set_cpus_allowed_ptr(dhd->current_dpc, cpumask_of(DPC_CPUCORE)); } else { e_dpc = set_cpus_allowed_ptr(dhd->current_dpc, cpumask_of(PRIMARY_CPUCORE)); } if (retry_set++ > MAX_RETRY_SET_CPUCORE) { DHD_ERROR(("%s: dpc(%d) invalid cpu!\n", __FUNCTION__, e_dpc)); return; } if (e_dpc < 0) OSL_SLEEP(1); } while (e_dpc < 0); } if (RXF_CPUCORE) { do { if (set == TRUE) { e_rxf = set_cpus_allowed_ptr(dhd->current_rxf, cpumask_of(RXF_CPUCORE)); } else { e_rxf = set_cpus_allowed_ptr(dhd->current_rxf, cpumask_of(PRIMARY_CPUCORE)); } if (retry_set++ > MAX_RETRY_SET_CPUCORE) { DHD_ERROR(("%s: rxf(%d) invalid cpu!\n", __FUNCTION__, e_rxf)); return; } if (e_rxf < 0) OSL_SLEEP(1); } while (e_rxf < 0); } DHD_TRACE(("%s: set(%d) cpucore success!\n", __FUNCTION__, set)); return; } #endif /* CUSTOM_SET_CPUCORE */ #ifdef DHD_MCAST_REGEN /* Get interface specific ap_isolate configuration */ int dhd_get_mcast_regen_bss_enable(dhd_pub_t *dhdp, uint32 idx) { dhd_info_t *dhd = dhdp->info; dhd_if_t *ifp; ASSERT(idx < DHD_MAX_IFS); ifp = dhd->iflist[idx]; return ifp->mcast_regen_bss_enable; } /* Set interface specific mcast_regen configuration */ int dhd_set_mcast_regen_bss_enable(dhd_pub_t *dhdp, uint32 idx, int val) { dhd_info_t *dhd = dhdp->info; dhd_if_t *ifp; ASSERT(idx < DHD_MAX_IFS); ifp = dhd->iflist[idx]; ifp->mcast_regen_bss_enable = val; /* Disable rx_pkt_chain feature for interface, if mcast_regen feature * is enabled */ dhd_update_rx_pkt_chainable_state(dhdp, idx); return BCME_OK; } #endif /* DHD_MCAST_REGEN */ /* Get interface specific ap_isolate configuration */ int dhd_get_ap_isolate(dhd_pub_t *dhdp, uint32 idx) { dhd_info_t *dhd = dhdp->info; dhd_if_t *ifp; ASSERT(idx < DHD_MAX_IFS); ifp = dhd->iflist[idx]; return ifp->ap_isolate; } /* Set interface specific ap_isolate configuration */ int dhd_set_ap_isolate(dhd_pub_t *dhdp, uint32 idx, int val) { dhd_info_t *dhd = dhdp->info; dhd_if_t *ifp; ASSERT(idx < DHD_MAX_IFS); ifp = dhd->iflist[idx]; if (ifp) ifp->ap_isolate = val; return 0; } #ifdef DHD_FW_COREDUMP bool dhd_memdump_is_scheduled(dhd_pub_t *dhdp) { return dhdp->info->scheduled_memdump; } void dhd_schedule_memdump(dhd_pub_t *dhdp, uint8 *buf, uint32 size) { dhd_dump_t *dump = NULL; unsigned long flags = 0; dhd_info_t *dhd_info = NULL; #if defined(DHD_LOG_DUMP) && !defined(DHD_DUMP_FILE_WRITE_FROM_KERNEL) log_dump_type_t type = DLD_BUF_TYPE_ALL; #endif /* DHD_LOG_DUMP && !DHD_DUMP_FILE_WRITE_FROM_KERNEL */ dhd_info = (dhd_info_t *)dhdp->info; dump = (dhd_dump_t *)MALLOC(dhdp->osh, sizeof(dhd_dump_t)); if (dump == NULL) { DHD_ERROR(("%s: dhd dump memory allocation failed\n", __FUNCTION__)); return; } dump->buf = buf; dump->bufsize = size; #ifdef BCMPCIE dhd_get_hscb_info(dhdp, (void*)(&dump->hscb_buf), (uint32 *)(&dump->hscb_bufsize)); #else dump->hscb_bufsize = 0; #endif /* BCMPCIE */ #ifdef DHD_LOG_DUMP dhd_print_buf_addr(dhdp, "memdump", buf, size); #if !defined(DHD_DUMP_FILE_WRITE_FROM_KERNEL) /* Print out buffer infomation */ dhd_log_dump_buf_addr(dhdp, &type); #endif /* !DHD_DUMP_FILE_WRITE_FROM_KERNEL */ #endif /* DHD_LOG_DUMP */ if ((dhdp->memdump_type == DUMP_TYPE_DONGLE_INIT_FAILURE) || (dhdp->memdump_type == DUMP_TYPE_DUE_TO_BT) || (dhdp->memdump_type == DUMP_TYPE_SMMU_FAULT)) { dhd_info->scheduled_memdump = FALSE; dhd_mem_dump((void *)dhdp->info, (void *)dump, 0); /* No need to collect debug dump for init failure */ if (dhdp->memdump_type == DUMP_TYPE_DONGLE_INIT_FAILURE) { return; } #ifdef DHD_LOG_DUMP { log_dump_type_t *flush_type = NULL; /* for dongle init fail cases, 'dhd_mem_dump' does * not call 'dhd_log_dump', so call it here. */ flush_type = MALLOCZ(dhdp->osh, sizeof(log_dump_type_t)); if (flush_type) { *flush_type = DLD_BUF_TYPE_ALL; DHD_ERROR(("%s: calling log dump.. \n", __FUNCTION__)); dhd_log_dump(dhdp->info, flush_type, 0); } } #endif /* DHD_LOG_DUMP */ return; } dhd_info->scheduled_memdump = TRUE; /* bus busy bit for mem dump will be cleared in mem dump * work item context, after mem dump file is written */ DHD_GENERAL_LOCK(dhdp, flags); DHD_BUS_BUSY_SET_IN_MEMDUMP(dhdp); DHD_GENERAL_UNLOCK(dhdp, flags); DHD_ERROR(("%s: scheduling mem dump.. \n", __FUNCTION__)); dhd_deferred_schedule_work(dhdp->info->dhd_deferred_wq, (void *)dump, DHD_WQ_WORK_SOC_RAM_DUMP, dhd_mem_dump, DHD_WQ_WORK_PRIORITY_HIGH); } #ifdef DHD_SSSR_DUMP #define DUMP_SSSR_DUMP_MAX_COUNT 8 #endif #ifdef DHD_COREDUMP #ifdef DHD_LINUX_STD_FW_API char map_path[PATH_MAX] = DHD_MAP_NAME; #else char map_path[PATH_MAX] = VENDOR_PATH CONFIG_BCMDHD_MAP_PATH; #endif /* DHD_LINUX_STD_FW_API */ extern int dhd_collect_coredump(dhd_pub_t *dhdp, dhd_dump_t *dump); #endif /* DHD_COREDUMP */ static void dhd_mem_dump(void *handle, void *event_info, u8 event) { dhd_info_t *dhd = handle; dhd_pub_t *dhdp = NULL; unsigned long flags = 0; #if defined(WL_CFG80211) && defined(DHD_LOG_DUMP) #if defined(DHD_FILE_DUMP_EVENT) || defined(DHD_DEBUGABILITY_DEBUG_DUMP) log_dump_type_t type = DLD_BUF_TYPE_ALL; #endif /* DHD_FILE_DUMP_EVENT || DHD_DEBUGABILITY_DEBUG_DUMP */ #endif /* WL_CFG80211 && DHD_LOG_DUMP */ #if (defined(WL_CFG80211) && defined(DHD_FILE_DUMP_EVENT)) || \ (defined(DHD_SSSR_COREDUMP) && defined(DHD_COREDUMP)) int ret = 0; #endif /* WL_CFG80211 && DHD_FILE_DUMP_EVENT || DHD_SSSR_COREDUMP && DHD_COREDUMP */ dhd_dump_t *dump = NULL; #ifdef DHD_COREDUMP char pc_fn[DHD_FUNC_STR_LEN] = "\0"; char lr_fn[DHD_FUNC_STR_LEN] = "\0"; trap_t *tr; #endif /* DHD_COREDUMP */ DHD_ERROR(("%s: ENTER \n", __FUNCTION__)); if (!dhd) { DHD_ERROR(("%s: dhd is NULL\n", __FUNCTION__)); return; } dhdp = &dhd->pub; if (!dhdp) { DHD_ERROR(("%s: dhdp is NULL\n", __FUNCTION__)); return; } DHD_GENERAL_LOCK(dhdp, flags); if (DHD_BUS_CHECK_DOWN_OR_DOWN_IN_PROGRESS(dhdp)) { DHD_GENERAL_UNLOCK(dhdp, flags); DHD_ERROR(("%s: bus is down! can't collect mem dump. \n", __FUNCTION__)); goto exit; } DHD_GENERAL_UNLOCK(dhdp, flags); dump = (dhd_dump_t *)event_info; if (!dump) { DHD_ERROR(("%s: dump is NULL\n", __FUNCTION__)); goto exit; } #ifdef DHD_SSSR_DUMP DHD_ERROR(("%s: sssr_enab=%d dhdp->sssr_inited=%d dhdp->collect_sssr=%d\n", __FUNCTION__, sssr_enab, dhdp->sssr_inited, dhdp->collect_sssr)); if (sssr_enab && dhdp->sssr_inited && dhdp->collect_sssr) { uint32 arr_len[DUMP_SSSR_DUMP_MAX_COUNT]; if (fis_enab && dhdp->sssr_reg_info->rev3.fis_enab) { int bcmerror = dhd_bus_fis_trigger(dhdp); if (bcmerror == BCME_OK) { dhd_bus_fis_dump(dhdp); } else { DHD_ERROR(("%s: FIS trigger failed: %d\n", __FUNCTION__, bcmerror)); } } else { DHD_ERROR(("%s: FIS not enabled (%d:%d), collect legacy sssr\n", __FUNCTION__, fis_enab, dhdp->sssr_reg_info->rev3.fis_enab)); dhdpcie_sssr_dump(dhdp); } #ifndef DHD_FIS_DUMP /* Reset fis_enab flag after fis collection which was set for init failure debug */ fis_enab = FALSE; #endif /* DHD_FIS_DUMP */ /* Print sssr buffer address for debugging */ if (dhdp->sssr_dump_collected) { dhdpcie_sssr_dump_get_before_after_len(dhdp, arr_len); } } #endif /* DHD_SSSR_DUMP */ #ifdef DHD_SDTC_ETB_DUMP if (dhdp->collect_sdtc) { dhd_sdtc_etb_dump(dhdp); dhdp->collect_sdtc = FALSE; } #endif /* DHD_SDTC_ETB_DUMP */ #if defined(WL_CFG80211) && (defined(DHD_FILE_DUMP_EVENT) || \ defined(DHD_DEBUGABILITY_DEBUG_DUMP)) if (dhdp->memdump_enabled == DUMP_MEMONLY) { DHD_ERROR(("%s: Force BUG_ON for memdump_enabled:%d\n", __FUNCTION__, dhdp->memdump_enabled)); BUG_ON(1); } #ifdef DHD_LOG_DUMP if (dhd_log_flush(dhdp, &type) < 0) { DHD_ERROR(("%s: Failed to flush Preserve/FW logs\n", __FUNCTION__)); } #endif /* DHD_LOG_DUMP */ #if defined(DHD_FILE_DUMP_EVENT) ret = dhd_wait_for_file_dump(dhdp); if (ret) { DHD_ERROR(("%s: file_dump failed.\n", __FUNCTION__)); #ifdef BOARD_HIKEY /* For Hikey do force kernel write of socram if HAL dump fails */ if (write_dump_to_file(&dhd->pub, dump->buf, dump->bufsize, "mem_dump")) { DHD_ERROR(("%s: writing SoC_RAM dump to the file failed\n", __FUNCTION__)); } #endif /* BOARD_HIKEY */ } #elif defined(DHD_DEBUGABILITY_DEBUG_DUMP) dhd_debug_dump_to_ring(dhdp); #endif /* DHD_FILE_DUMP_EVENT */ #endif /* WL_CFG80211 && (DHD_FILE_DUMP_EVENT || DHD_DEBUGABILITY_DEBUG_DUMP) */ #ifdef DHD_COREDUMP memset_s(dhdp->memdump_str, DHD_MEMDUMP_LONGSTR_LEN, 0, DHD_MEMDUMP_LONGSTR_LEN); dhd_convert_memdump_type_to_str(dhdp->memdump_type, dhdp->memdump_str, DHD_MEMDUMP_LONGSTR_LEN, dhdp->debug_dump_subcmd); if (dhdp->memdump_type == DUMP_TYPE_DONGLE_TRAP && dhdp->dongle_trap_occured == TRUE) { tr = &dhdp->last_trap_info; dhd_lookup_map(dhdp->osh, map_path, ltoh32(tr->epc), pc_fn, ltoh32(tr->r14), lr_fn); sprintf(&dhdp->memdump_str[strlen(dhdp->memdump_str)], "_%.79s_%.79s", pc_fn, lr_fn); } DHD_ERROR(("%s: dump reason: %s\n", __FUNCTION__, dhdp->memdump_str)); #ifdef DHD_SSSR_COREDUMP ret = dhd_collect_coredump(dhdp, dump); if (ret == BCME_ERROR) { DHD_ERROR(("%s: dhd_collect_coredump() failed.\n", __FUNCTION__)); goto exit; } else if (ret == BCME_UNSUPPORTED) { DHD_LOG_MEM(("%s: Unable to collect SSSR dumps. Skip it.\n", __FUNCTION__)); } #endif /* DHD_SSSR_COREDUMP */ if (dhdp->memdump_type == DUMP_TYPE_BY_SYSDUMP) { DHD_LOG_MEM(("%s: coredump is not supported for BY_SYSDUMP\n", __FUNCTION__)); } else { if (wifi_platform_set_coredump(dhd->adapter, dump->buf, dump->bufsize, dhdp->memdump_str)) { DHD_ERROR(("%s: writing SoC_RAM dump failed\n", __FUNCTION__)); #ifdef DHD_DEBUG_UART dhd->pub.memdump_success = FALSE; #endif /* DHD_DEBUG_UART */ } } #endif /* DHD_COREDUMP */ /* * If kernel does not have file write access enabled * then skip writing dumps to files. * The dumps will be pushed to HAL layer which will * write into files */ #ifdef DHD_DUMP_FILE_WRITE_FROM_KERNEL #ifdef D2H_MINIDUMP /* dump minidump */ if (dhd_bus_is_minidump_enabled(dhdp)) { dhd_d2h_minidump(&dhd->pub); } else { DHD_ERROR(("minidump is not enabled\n")); } #endif /* D2H_MINIDUMP */ if (write_dump_to_file(&dhd->pub, dump->buf, dump->bufsize, "mem_dump")) { DHD_ERROR(("%s: writing SoC_RAM dump to the file failed\n", __FUNCTION__)); #ifdef DHD_DEBUG_UART dhd->pub.memdump_success = FALSE; #endif /* DHD_DEBUG_UART */ } if (dump->hscb_buf && dump->hscb_bufsize) { if (write_dump_to_file(&dhd->pub, dump->hscb_buf, dump->hscb_bufsize, "mem_dump_hscb")) { DHD_ERROR(("%s: writing HSCB dump to the file failed\n", __FUNCTION__)); #ifdef DHD_DEBUG_UART dhd->pub.memdump_success = FALSE; #endif /* DHD_DEBUG_UART */ } } #if !defined(DHD_PKT_LOGGING) && defined(DHD_LOG_DUMP) clear_debug_dump_time(dhdp->debug_dump_time_str); #endif /* !DHD_PKT_LOGGING && DHD_LOG_DUMP */ /* directly call dhd_log_dump for debug_dump collection from the mem_dump work queue * context, no need to schedule another work queue for log dump. In case of * user initiated DEBUG_DUMP wpa_cli command (DUMP_TYPE_BY_SYSDUMP), * cfg layer is itself scheduling the log_dump work queue. * that path is not disturbed. If 'dhd_mem_dump' is called directly then we will not * collect debug_dump as it may be called from non-sleepable context. */ #ifdef DHD_LOG_DUMP if (dhd->scheduled_memdump && dhdp->memdump_type != DUMP_TYPE_BY_SYSDUMP) { log_dump_type_t *flush_type = MALLOCZ(dhdp->osh, sizeof(log_dump_type_t)); if (flush_type) { *flush_type = DLD_BUF_TYPE_ALL; DHD_ERROR(("%s: calling log dump.. \n", __FUNCTION__)); dhd_log_dump(dhd, flush_type, 0); } } #endif /* DHD_LOG_DUMP */ /* before calling bug on, wait for other logs to be dumped. * we cannot wait in case dhd_mem_dump is called directly * as it may not be from a sleepable context */ if (dhd->scheduled_memdump) { uint bitmask = 0; int timeleft = 0; #ifdef DHD_SSSR_DUMP bitmask |= DHD_BUS_BUSY_IN_SSSRDUMP; #endif if (bitmask != 0) { DHD_ERROR(("%s: wait to clear dhd_bus_busy_state: 0x%x\n", __FUNCTION__, dhdp->dhd_bus_busy_state)); timeleft = dhd_os_busbusy_wait_bitmask(dhdp, &dhdp->dhd_bus_busy_state, bitmask, 0); if ((timeleft == 0) || (timeleft == 1)) { DHD_ERROR(("%s: Timed out dhd_bus_busy_state=0x%x\n", __FUNCTION__, dhdp->dhd_bus_busy_state)); } } } #endif /* DHD_DUMP_FILE_WRITE_FROM_KERNEL */ if (dhd->pub.memdump_enabled == DUMP_MEMFILE_BUGON && #ifdef DHD_LOG_DUMP dhd->pub.memdump_type != DUMP_TYPE_BY_SYSDUMP && #endif /* DHD_LOG_DUMP */ dhd->pub.memdump_type != DUMP_TYPE_BY_USER && #ifdef DHD_DEBUG_UART dhd->pub.memdump_success == TRUE && #endif /* DHD_DEBUG_UART */ #ifdef DNGL_EVENT_SUPPORT dhd->pub.memdump_type != DUMP_TYPE_DONGLE_HOST_EVENT && #endif /* DNGL_EVENT_SUPPORT */ dhd->pub.memdump_type != DUMP_TYPE_CFG_VENDOR_TRIGGERED) { #ifdef SHOW_LOGTRACE /* Wait till logtrace context is flushed */ dhd_flush_logtrace_process(dhd); #endif /* SHOW_LOGTRACE */ #ifdef BTLOG /* Wait till bt_log_dispatcher_work finishes */ cancel_work_sync(&dhd->bt_log_dispatcher_work); #endif /* BTLOG */ #ifdef EWP_EDL cancel_delayed_work_sync(&dhd->edl_dispatcher_work); #endif BUG_ON(1); } exit: if (dump) { MFREE(dhd->pub.osh, dump, sizeof(dhd_dump_t)); } DHD_GENERAL_LOCK(dhdp, flags); DHD_BUS_BUSY_CLEAR_IN_MEMDUMP(&dhd->pub); dhd_os_busbusy_wake(dhdp); DHD_GENERAL_UNLOCK(dhdp, flags); #ifdef DHD_SSSR_DUMP dhdp->collect_sssr = FALSE; #endif /* DHD_SSSR_DUMP */ dhd->scheduled_memdump = FALSE; if (dhdp->hang_was_pending) { DHD_ERROR(("%s: Send pending HANG event...\n", __FUNCTION__)); dhd_os_send_hang_message(dhdp); dhdp->hang_was_pending = 0; } DHD_ERROR(("%s: EXIT \n", __FUNCTION__)); return; } #endif /* DHD_FW_COREDUMP */ #ifdef D2H_MINIDUMP void dhd_d2h_minidump(dhd_pub_t *dhdp) { char d2h_minidump[128]; dhd_dma_buf_t *minidump_buf; minidump_buf = dhd_prot_get_minidump_buf(dhdp); if (minidump_buf->va == NULL) { DHD_ERROR(("%s: minidump_buf is NULL\n", __FUNCTION__)); return; } /* Init file name */ memset(d2h_minidump, 0, sizeof(d2h_minidump)); snprintf(d2h_minidump, sizeof(d2h_minidump), "%s", "d2h_minidump"); if (write_dump_to_file(dhdp, (uint8 *)minidump_buf->va, minidump_buf->len, d2h_minidump)) { DHD_ERROR(("%s: failed to dump d2h_minidump to file\n", __FUNCTION__)); } } #endif /* D2H_MINIDUMP */ #ifdef DHD_SSSR_DUMP uint dhd_sssr_dig_buf_size(dhd_pub_t *dhdp) { uint dig_buf_size = 0; /* SSSR register information structure v0 and v1 shares most except dig_mem */ switch (dhdp->sssr_reg_info->rev2.version) { case SSSR_REG_INFO_VER_3: /* intentional fall through */ case SSSR_REG_INFO_VER_2 : if ((dhdp->sssr_reg_info->rev2.length > OFFSETOF(sssr_reg_info_v2_t, dig_mem_info)) && dhdp->sssr_reg_info->rev2.dig_mem_info.dig_sr_size) { dig_buf_size = dhdp->sssr_reg_info->rev2.dig_mem_info.dig_sr_size; } break; case SSSR_REG_INFO_VER_1 : if (dhdp->sssr_reg_info->rev1.vasip_regs.vasip_sr_size) { dig_buf_size = dhdp->sssr_reg_info->rev1.vasip_regs.vasip_sr_size; } else if ((dhdp->sssr_reg_info->rev1.length > OFFSETOF(sssr_reg_info_v1_t, dig_mem_info)) && dhdp->sssr_reg_info->rev1.dig_mem_info.dig_sr_size) { dig_buf_size = dhdp->sssr_reg_info->rev1.dig_mem_info.dig_sr_size; } break; case SSSR_REG_INFO_VER_0 : if (dhdp->sssr_reg_info->rev0.vasip_regs.vasip_sr_size) { dig_buf_size = dhdp->sssr_reg_info->rev0.vasip_regs.vasip_sr_size; } break; default : DHD_ERROR(("invalid sssr_reg_ver")); return BCME_UNSUPPORTED; } return dig_buf_size; } uint dhd_sssr_dig_buf_addr(dhd_pub_t *dhdp) { uint dig_buf_addr = 0; /* SSSR register information structure v0 and v1 shares most except dig_mem */ switch (dhdp->sssr_reg_info->rev2.version) { case SSSR_REG_INFO_VER_3 : /* intentional fall through */ case SSSR_REG_INFO_VER_2 : if ((dhdp->sssr_reg_info->rev2.length > OFFSETOF(sssr_reg_info_v2_t, dig_mem_info)) && dhdp->sssr_reg_info->rev2.dig_mem_info.dig_sr_size) { dig_buf_addr = dhdp->sssr_reg_info->rev2.dig_mem_info.dig_sr_addr; } break; case SSSR_REG_INFO_VER_1 : if (dhdp->sssr_reg_info->rev1.vasip_regs.vasip_sr_size) { dig_buf_addr = dhdp->sssr_reg_info->rev1.vasip_regs.vasip_sr_addr; } else if ((dhdp->sssr_reg_info->rev1.length > OFFSETOF(sssr_reg_info_v1_t, dig_mem_info)) && dhdp->sssr_reg_info->rev1.dig_mem_info.dig_sr_size) { dig_buf_addr = dhdp->sssr_reg_info->rev1.dig_mem_info.dig_sr_addr; } break; case SSSR_REG_INFO_VER_0 : if (dhdp->sssr_reg_info->rev0.vasip_regs.vasip_sr_size) { dig_buf_addr = dhdp->sssr_reg_info->rev0.vasip_regs.vasip_sr_addr; } break; default : DHD_ERROR(("invalid sssr_reg_ver")); return BCME_UNSUPPORTED; } return dig_buf_addr; } uint dhd_sssr_mac_buf_size(dhd_pub_t *dhdp, uint8 core_idx) { uint mac_buf_size = 0; uint8 num_d11cores; num_d11cores = dhd_d11_slices_num_get(dhdp); /* SSSR register information structure v0 and v1 shares most except dig_mem */ if (core_idx < num_d11cores) { switch (dhdp->sssr_reg_info->rev2.version) { case SSSR_REG_INFO_VER_3 : /* intentional fall through */ case SSSR_REG_INFO_VER_2 : mac_buf_size = dhdp->sssr_reg_info->rev2.mac_regs[core_idx].sr_size; break; case SSSR_REG_INFO_VER_1 : mac_buf_size = dhdp->sssr_reg_info->rev1.mac_regs[core_idx].sr_size; break; case SSSR_REG_INFO_VER_0 : mac_buf_size = dhdp->sssr_reg_info->rev0.mac_regs[core_idx].sr_size; break; default : DHD_ERROR(("invalid sssr_reg_ver")); return BCME_UNSUPPORTED; } } return mac_buf_size; } uint dhd_sssr_mac_xmtaddress(dhd_pub_t *dhdp, uint8 core_idx) { uint xmtaddress = 0; uint8 num_d11cores; num_d11cores = dhd_d11_slices_num_get(dhdp); /* SSSR register information structure v0 and v1 shares most except dig_mem */ if (core_idx < num_d11cores) { switch (dhdp->sssr_reg_info->rev2.version) { case SSSR_REG_INFO_VER_3 : /* intentional fall through */ case SSSR_REG_INFO_VER_2 : xmtaddress = dhdp->sssr_reg_info->rev2. mac_regs[core_idx].base_regs.xmtaddress; break; case SSSR_REG_INFO_VER_1 : xmtaddress = dhdp->sssr_reg_info->rev1. mac_regs[core_idx].base_regs.xmtaddress; break; case SSSR_REG_INFO_VER_0 : xmtaddress = dhdp->sssr_reg_info->rev0. mac_regs[core_idx].base_regs.xmtaddress; break; default : DHD_ERROR(("invalid sssr_reg_ver")); return BCME_UNSUPPORTED; } } return xmtaddress; } uint dhd_sssr_mac_xmtdata(dhd_pub_t *dhdp, uint8 core_idx) { uint xmtdata = 0; uint8 num_d11cores; num_d11cores = dhd_d11_slices_num_get(dhdp); /* SSSR register information structure v0 and v1 shares most except dig_mem */ if (core_idx < num_d11cores) { switch (dhdp->sssr_reg_info->rev2.version) { case SSSR_REG_INFO_VER_3 : /* intentional fall through */ case SSSR_REG_INFO_VER_2 : xmtdata = dhdp->sssr_reg_info->rev2. mac_regs[core_idx].base_regs.xmtdata; break; case SSSR_REG_INFO_VER_1 : xmtdata = dhdp->sssr_reg_info->rev1. mac_regs[core_idx].base_regs.xmtdata; break; case SSSR_REG_INFO_VER_0 : xmtdata = dhdp->sssr_reg_info->rev0. mac_regs[core_idx].base_regs.xmtdata; break; default : DHD_ERROR(("invalid sssr_reg_ver")); return BCME_UNSUPPORTED; } } return xmtdata; } #ifdef DHD_SSSR_DUMP_BEFORE_SR int dhd_sssr_dump_dig_buf_before(void *dev, const void *user_buf, uint32 len) { dhd_info_t *dhd_info = *(dhd_info_t **)netdev_priv((struct net_device *)dev); dhd_pub_t *dhdp = &dhd_info->pub; int pos = 0, ret = BCME_ERROR; uint dig_buf_size = 0; dig_buf_size = dhd_sssr_dig_buf_size(dhdp); if (dhdp->sssr_dig_buf_before && (dhdp->sssr_dump_mode == SSSR_DUMP_MODE_SSSR)) { ret = dhd_export_debug_data((char *)dhdp->sssr_dig_buf_before, NULL, user_buf, dig_buf_size, &pos); } return ret; } int dhd_sssr_dump_d11_buf_before(void *dev, const void *user_buf, uint32 len, int core) { dhd_info_t *dhd_info = *(dhd_info_t **)netdev_priv((struct net_device *)dev); dhd_pub_t *dhdp = &dhd_info->pub; int pos = 0, ret = BCME_ERROR; if (dhdp->sssr_d11_before[core] && dhdp->sssr_d11_outofreset[core] && (dhdp->sssr_dump_mode == SSSR_DUMP_MODE_SSSR)) { ret = dhd_export_debug_data((char *)dhdp->sssr_d11_before[core], NULL, user_buf, len, &pos); } return ret; } #endif /* DHD_SSSR_DUMP_BEFORE_SR */ int dhd_sssr_dump_dig_buf_after(void *dev, const void *user_buf, uint32 len) { dhd_info_t *dhd_info = *(dhd_info_t **)netdev_priv((struct net_device *)dev); dhd_pub_t *dhdp = &dhd_info->pub; int pos = 0, ret = BCME_ERROR; uint dig_buf_size = 0; dig_buf_size = dhd_sssr_dig_buf_size(dhdp); if (dhdp->sssr_dig_buf_after) { ret = dhd_export_debug_data((char *)dhdp->sssr_dig_buf_after, NULL, user_buf, dig_buf_size, &pos); } return ret; } int dhd_sssr_dump_d11_buf_after(void *dev, const void *user_buf, uint32 len, int core) { dhd_info_t *dhd_info = *(dhd_info_t **)netdev_priv((struct net_device *)dev); dhd_pub_t *dhdp = &dhd_info->pub; int pos = 0, ret = BCME_ERROR; if (dhdp->sssr_d11_after[core] && dhdp->sssr_d11_outofreset[core]) { ret = dhd_export_debug_data((char *)dhdp->sssr_d11_after[core], NULL, user_buf, len, &pos); } return ret; } void dhd_sssr_dump_to_file(dhd_info_t* dhdinfo) { dhd_info_t *dhd = dhdinfo; dhd_pub_t *dhdp; int i; #ifdef DHD_SSSR_DUMP_BEFORE_SR char before_sr_dump[128]; #endif /* DHD_SSSR_DUMP_BEFORE_SR */ char after_sr_dump[128]; unsigned long flags = 0; uint dig_buf_size = 0; uint8 num_d11cores = 0; uint d11_buf_size = 0; DHD_ERROR(("%s: ENTER \n", __FUNCTION__)); if (!dhd) { DHD_ERROR(("%s: dhd is NULL\n", __FUNCTION__)); return; } dhdp = &dhd->pub; DHD_GENERAL_LOCK(dhdp, flags); DHD_BUS_BUSY_SET_IN_SSSRDUMP(dhdp); if (DHD_BUS_CHECK_DOWN_OR_DOWN_IN_PROGRESS(dhdp)) { DHD_GENERAL_UNLOCK(dhdp, flags); DHD_ERROR(("%s: bus is down! can't collect sssr dump. \n", __FUNCTION__)); goto exit; } DHD_GENERAL_UNLOCK(dhdp, flags); num_d11cores = dhd_d11_slices_num_get(dhdp); for (i = 0; i < num_d11cores; i++) { /* Init file name */ #ifdef DHD_SSSR_DUMP_BEFORE_SR memset(before_sr_dump, 0, sizeof(before_sr_dump)); #endif /* DHD_SSSR_DUMP_BEFORE_SR */ memset(after_sr_dump, 0, sizeof(after_sr_dump)); #ifdef DHD_SSSR_DUMP_BEFORE_SR snprintf(before_sr_dump, sizeof(before_sr_dump), "%s_%d_%s", "sssr_dump_core", i, "before_SR"); #endif /* DHD_SSSR_DUMP_BEFORE_SR */ snprintf(after_sr_dump, sizeof(after_sr_dump), "%s_%d_%s", "sssr_dump_core", i, "after_SR"); d11_buf_size = dhd_sssr_mac_buf_size(dhdp, i); #ifdef DHD_SSSR_DUMP_BEFORE_SR if (dhdp->sssr_d11_before[i] && dhdp->sssr_d11_outofreset[i] && (dhdp->sssr_dump_mode == SSSR_DUMP_MODE_SSSR)) { if (write_dump_to_file(dhdp, (uint8 *)dhdp->sssr_d11_before[i], d11_buf_size, before_sr_dump)) { DHD_ERROR(("%s: writing SSSR MAIN dump before to the file failed\n", __FUNCTION__)); } } #endif /* DHD_SSSR_DUMP_BEFORE_SR */ if (dhdp->sssr_d11_after[i] && dhdp->sssr_d11_outofreset[i]) { if (write_dump_to_file(dhdp, (uint8 *)dhdp->sssr_d11_after[i], d11_buf_size, after_sr_dump)) { DHD_ERROR(("%s: writing SSSR AUX dump after to the file failed\n", __FUNCTION__)); } } } dig_buf_size = dhd_sssr_dig_buf_size(dhdp); #ifdef DHD_SSSR_DUMP_BEFORE_SR if (dhdp->sssr_dig_buf_before && (dhdp->sssr_dump_mode == SSSR_DUMP_MODE_SSSR)) { if (write_dump_to_file(dhdp, (uint8 *)dhdp->sssr_dig_buf_before, dig_buf_size, "sssr_dump_dig_before_SR")) { DHD_ERROR(("%s: writing SSSR Dig dump before to the file failed\n", __FUNCTION__)); } } #endif /* DHD_SSSR_DUMP_BEFORE_SR */ if (dhdp->sssr_dig_buf_after) { if (write_dump_to_file(dhdp, (uint8 *)dhdp->sssr_dig_buf_after, dig_buf_size, "sssr_dump_dig_after_SR")) { DHD_ERROR(("%s: writing SSSR Dig VASIP dump after to the file failed\n", __FUNCTION__)); } } exit: DHD_GENERAL_LOCK(dhdp, flags); DHD_BUS_BUSY_CLEAR_IN_SSSRDUMP(dhdp); dhd_os_busbusy_wake(dhdp); DHD_GENERAL_UNLOCK(dhdp, flags); } void dhd_write_sssr_dump(dhd_pub_t *dhdp, uint32 dump_mode) { #if defined(DHD_DUMP_FILE_WRITE_FROM_KERNEL) dhdp->sssr_dump_mode = dump_mode; #endif /* DHD_DUMP_FILE_WRITE_FROM_KERNEL */ /* * If kernel does not have file write access enabled * then skip writing dumps to files. * The dumps will be pushed to HAL layer which will * write into files */ #if !defined(DHD_DUMP_FILE_WRITE_FROM_KERNEL) return; #else /* * dhd_mem_dump -> dhd_sssr_dump -> dhd_write_sssr_dump * Without workqueue - * DUMP_TYPE_DONGLE_INIT_FAILURE/DUMP_TYPE_DUE_TO_BT/DUMP_TYPE_SMMU_FAULT * : These are called in own handler, not in the interrupt context * With workqueue - all other DUMP_TYPEs : dhd_mem_dump is called in workqueue * Thus, it doesn't neeed to dump SSSR in workqueue */ DHD_ERROR(("%s: writing sssr dump to file... \n", __FUNCTION__)); dhd_sssr_dump_to_file(dhdp->info); #endif /* !DHD_DUMP_FILE_WRITE_FROM_KERNEL */ } #endif /* DHD_SSSR_DUMP */ #ifdef DHD_SDTC_ETB_DUMP void dhd_sdtc_etb_dump(dhd_pub_t *dhd) { etb_info_t etb_info; uint8 *sdtc_etb_dump; uint8 *sdtc_etb_mempool; int ret = 0; if (!dhd->sdtc_etb_inited) { DHD_ERROR(("%s, SDTC ETB dump not supported\n", __FUNCTION__)); return; } bzero(&etb_info, sizeof(etb_info)); if ((ret = dhd_bus_get_etb_info(dhd, dhd->etb_addr_info.etbinfo_addr, &etb_info))) { DHD_ERROR(("%s: failed to get etb info %d\n", __FUNCTION__, ret)); return; } if (etb_info.addr == (uint32)-1) { DHD_ERROR(("%s: invalid etbinfo.addr 0x%x Hence donot collect SDTC ETB\n", __FUNCTION__, etb_info.addr)); return; } if (etb_info.read_bytes == 0) { DHD_ERROR(("%s ETB is of zero size. Hence donot collect SDTC ETB\n", __FUNCTION__)); return; } DHD_ERROR(("%s etb_info ver:%d len:%d rwp:%d etb_full:%d etb:addr:0x%x, len:%d\n", __FUNCTION__, etb_info.version, etb_info.len, etb_info.read_write_p, etb_info.etb_full, etb_info.addr, etb_info.read_bytes)); /* * etb mempool format = etb_info + etb */ dhd->sdtc_etb_dump_len = etb_info.read_bytes + sizeof(etb_info); if (dhd->sdtc_etb_dump_len > DHD_SDTC_ETB_MEMPOOL_SIZE) { DHD_ERROR(("%s etb_dump_len: %d is more than the alloced %d.Hence cannot collect\n", __FUNCTION__, dhd->sdtc_etb_dump_len, DHD_SDTC_ETB_MEMPOOL_SIZE)); return; } sdtc_etb_mempool = dhd->sdtc_etb_mempool; memcpy(sdtc_etb_mempool, &etb_info, sizeof(etb_info)); sdtc_etb_dump = sdtc_etb_mempool + sizeof(etb_info); if ((ret = dhd_bus_get_sdtc_etb(dhd, sdtc_etb_dump, etb_info.addr, etb_info.read_bytes))) { DHD_ERROR(("%s: error to get SDTC ETB ret: %d\n", __FUNCTION__, ret)); return; } dhd_print_buf_addr(dhd, "sdtc_etb_dump", (uint8 *)sdtc_etb_mempool, dhd->sdtc_etb_dump_len); /* * If kernel does not have file write access enabled * then skip writing dumps to files. * The dumps will be pushed to HAL layer which will * write into files */ #ifdef DHD_DUMP_FILE_WRITE_FROM_KERNEL if (write_dump_to_file(dhd, (uint8 *)sdtc_etb_mempool, dhd->sdtc_etb_dump_len, "sdtc_etb_dump")) { DHD_ERROR(("%s: failed to dump sdtc_etb to file\n", __FUNCTION__)); } #endif /* DHD_DUMP_FILE_WRITE_FROM_KERNEL */ } int dhd_sdtc_etb_hal_file_dump(void *dev, const void *user_buf, uint32 len) { dhd_info_t *dhd_info = *(dhd_info_t **)netdev_priv((struct net_device *)dev); dhd_pub_t *dhdp = &dhd_info->pub; int pos = 0, ret = BCME_ERROR; if (dhdp->sdtc_etb_dump_len) { ret = dhd_export_debug_data((char *)dhdp->sdtc_etb_mempool, NULL, user_buf, dhdp->sdtc_etb_dump_len, &pos); } else { DHD_ERROR(("%s ETB is of zero size. Hence donot collect SDTC ETB\n", __FUNCTION__)); } DHD_ERROR(("%s, done ret: %d\n", __FUNCTION__, ret)); return ret; } #endif /* DHD_SDTC_ETB_DUMP */ /* This function writes data to the file pointed by fp, OR * copies data to the user buffer sent by upper layer(HAL). */ int dhd_export_debug_data(void *mem_buf, void *fp, const void *user_buf, uint32 buf_len, void *pos) { int ret = BCME_OK; #ifdef DHD_DEBUGABILITY_DEBUG_DUMP struct dhd_dbg_ring_buf *ring_buf; #endif /* DHD_DEBUGABILITY_DEBUG_DUMP */ if (fp) { ret = dhd_vfs_write(fp, mem_buf, buf_len, (loff_t *)pos); if (ret < 0) { DHD_ERROR(("write file error, err = %d\n", ret)); goto exit; } } else if (user_buf) { #ifdef CONFIG_COMPAT #if (LINUX_VERSION_CODE >= KERNEL_VERSION(4, 6, 0)) if (in_compat_syscall()) #else if (is_compat_task()) #endif /* LINUX_VER >= 4.6 */ { void * usr_ptr = compat_ptr((uintptr_t) user_buf); ret = copy_to_user((void *)((uintptr_t)usr_ptr + (*(int *)pos)), mem_buf, buf_len); if (ret) { DHD_ERROR(("failed to copy into user buffer : %d\n", ret)); goto exit; } } else #endif /* CONFIG_COMPAT */ { ret = copy_to_user((void *)((uintptr_t)user_buf + (*(int *)pos)), mem_buf, buf_len); if (ret) { DHD_ERROR(("failed to copy into user buffer : %d\n", ret)); goto exit; } } (*(int *)pos) += buf_len; } #ifdef DHD_DEBUGABILITY_DEBUG_DUMP else { ring_buf = &g_ring_buf; if (ring_buf->dhd_pub) { ret = dhd_debug_dump_ring_push(ring_buf->dhd_pub, (*(int *)pos), buf_len, mem_buf); if (ret != BCME_OK) { DHD_ERROR(("%s: ring push failed ret:%d\n", __func__, ret)); } } } #endif /* DHD_DEBUGABILITY_DEBUG_DUMP */ exit: return ret; } #ifdef BCM_ROUTER_DHD void dhd_schedule_trap_log_dump(dhd_pub_t *dhdp, uint8 *buf, uint32 size) { dhd_write_file_t *wf = NULL; wf = (dhd_write_file_t *)MALLOC(dhdp->osh, sizeof(dhd_write_file_t)); if (wf == NULL) { DHD_ERROR(("%s: dhd write file memory allocation failed\n", __FUNCTION__)); return; } snprintf(wf->file_path, sizeof(wf->file_path), "%s", "/tmp/failed_if.txt"); wf->file_flags = O_CREAT | O_WRONLY | O_SYNC; wf->buf = buf; wf->bufsize = size; dhd_deferred_schedule_work(dhdp->info->dhd_deferred_wq, (void *)wf, DHD_WQ_WORK_INFORM_DHD_MON, dhd_inform_dhd_monitor_handler, DHD_WQ_WORK_PRIORITY_HIGH); } /* Returns the pid of a the userspace process running with the given name */ static struct task_struct * _get_task_info(const char *pname) { struct task_struct *task; if (!pname) return NULL; for_each_process(task) { if (strcmp(pname, task->comm) == 0) return task; } return NULL; } #define DHD_MONITOR_NS "dhd_monitor" extern void emergency_restart(void); static void dhd_inform_dhd_monitor_handler(void *handle, void *event_info, u8 event) { dhd_info_t *dhd = handle; dhd_write_file_t *wf = event_info; struct task_struct *monitor_task; if (!dhd) { DHD_ERROR(("%s: dhd is NULL\n", __FUNCTION__)); return; } if (!event_info) { DHD_ERROR(("%s: File info is NULL\n", __FUNCTION__)); return; } if (!wf->buf) { DHD_ERROR(("%s: Unable to get failed interface name\n", __FUNCTION__)); goto exit; } if (write_file(wf->file_path, wf->file_flags, wf->buf, wf->bufsize)) { DHD_ERROR(("%s: writing to the file failed\n", __FUNCTION__)); } exit: MFREE(dhd->pub.osh, wf, sizeof(dhd_write_file_t)); /* check if dhd_monitor is running */ monitor_task = _get_task_info(DHD_MONITOR_NS); if (monitor_task == NULL) { /* If dhd_monitor is not running, handle recovery from here */ char *val = nvram_get("watchdog"); if (val && bcm_atoi(val)) { /* watchdog enabled, so reboot */ DHD_ERROR(("%s: Dongle(wl%d) trap detected. Restarting the system\n", __FUNCTION__, dhd->unit)); mdelay(1000); emergency_restart(); while (1) cpu_relax(); } else { DHD_ERROR(("%s: Dongle(wl%d) trap detected. No watchdog.\n", __FUNCTION__, dhd->unit)); } return; } /* If monitor daemon is running, let's signal the monitor for recovery */ DHD_ERROR(("%s: Dongle(wl%d) trap detected. Send signal to dhd_monitor.\n", __FUNCTION__, dhd->unit)); send_sig_info(SIGUSR1, (void *)1L, monitor_task); } #endif /* BCM_ROUTER_DHD */ #ifdef BCMDBG #define DUMPMAC_BUF_SZ (128 * 1024) #define DUMPMAC_FILENAME_SZ 32 static void _dhd_schedule_macdbg_dump(void *handle, void *event_info, u8 event) { dhd_info_t *dhd = handle; dhd_pub_t *dhdp = &dhd->pub; #ifndef BCM_ROUTER_DHD char *dumpbuf = NULL; int dumpbuf_len = 0; uint16 dump_signature; char dumpfilename[DUMPMAC_FILENAME_SZ] = {0, }; #endif /* BCM_ROUTER_DHD */ ASSERT(event == DHD_WQ_WORK_MACDBG); BCM_REFERENCE(event_info); DHD_ERROR(("%s: Dongle(wl%d) macreg dump scheduled\n", __FUNCTION__, dhd->unit)); DHD_OS_WAKE_LOCK(dhdp); /* Make sure dongle stops running to avoid race condition in reading mac registers */ (void) dhd_wl_ioctl_set_intiovar(dhdp, "bus:disconnect", 99, WLC_SET_VAR, TRUE, 0); /* In router, skip macregs dump as dhd_monitor will dump them */ #ifndef BCM_ROUTER_DHD dumpbuf = (char *)MALLOCZ(dhdp->osh, DUMPMAC_BUF_SZ); if (dumpbuf) { /* Write macdump to a file */ /* Get dump file signature */ dump_signature = (uint16)OSL_RAND(); /* PSMr */ if (dhd_macdbg_dumpmac(dhdp, dumpbuf, DUMPMAC_BUF_SZ, &dumpbuf_len, FALSE) == BCME_OK) { snprintf(dumpfilename, DUMPMAC_FILENAME_SZ, "/tmp/d11reg_dump_%04X.txt", dump_signature); DHD_ERROR(("%s: PSMr macreg dump to %s\n", __FUNCTION__, dumpfilename)); /* Write to a file */ if (write_file(dumpfilename, (O_CREAT | O_WRONLY | O_SYNC), dumpbuf, dumpbuf_len)) { DHD_ERROR(("%s: writing mac dump to the file failed\n", __FUNCTION__)); } memset(dumpbuf, 0, DUMPMAC_BUF_SZ); memset(dumpfilename, 0, DUMPMAC_FILENAME_SZ); dumpbuf_len = 0; } /* PSMx */ if (dhd_macdbg_dumpmac(dhdp, dumpbuf, DUMPMAC_BUF_SZ, &dumpbuf_len, TRUE) == BCME_OK) { snprintf(dumpfilename, DUMPMAC_FILENAME_SZ, "/tmp/d11regx_dump_%04X.txt", dump_signature); DHD_ERROR(("%s: PSMx macreg dump to %s\n", __FUNCTION__, dumpfilename)); /* Write to a file */ if (write_file(dumpfilename, (O_CREAT | O_WRONLY | O_SYNC), dumpbuf, dumpbuf_len)) { DHD_ERROR(("%s: writing mac dump to the file failed\n", __FUNCTION__)); } memset(dumpbuf, 0, DUMPMAC_BUF_SZ); memset(dumpfilename, 0, DUMPMAC_FILENAME_SZ); dumpbuf_len = 0; } /* SVMP */ if (dhd_macdbg_dumpsvmp(dhdp, dumpbuf, DUMPMAC_BUF_SZ, &dumpbuf_len) == BCME_OK) { snprintf(dumpfilename, DUMPMAC_FILENAME_SZ, "/tmp/svmp_dump_%04X.txt", dump_signature); DHD_ERROR(("%s: SVMP mems dump to %s\n", __FUNCTION__, dumpfilename)); /* Write to a file */ if (write_file(dumpfilename, (O_CREAT | O_WRONLY | O_SYNC), dumpbuf, dumpbuf_len)) { DHD_ERROR(("%s: writing svmp dump to the file failed\n", __FUNCTION__)); } memset(dumpbuf, 0, DUMPMAC_BUF_SZ); memset(dumpfilename, 0, DUMPMAC_FILENAME_SZ); dumpbuf_len = 0; } MFREE(dhdp->osh, dumpbuf, DUMPMAC_BUF_SZ); } else { DHD_ERROR(("%s: print macdump\n", __FUNCTION__)); /* Just printf the dumps */ (void) dhd_macdbg_dumpmac(dhdp, NULL, 0, NULL, FALSE); /* PSMr */ (void) dhd_macdbg_dumpmac(dhdp, NULL, 0, NULL, TRUE); /* PSMx */ (void) dhd_macdbg_dumpsvmp(dhdp, NULL, 0, NULL); } #endif /* BCM_ROUTER_DHD */ DHD_OS_WAKE_UNLOCK(dhdp); dhd_deferred_work_set_skip(dhd->dhd_deferred_wq, DHD_WQ_WORK_MACDBG, FALSE); } void dhd_schedule_macdbg_dump(dhd_pub_t *dhdp) { DHD_ERROR(("%s: Dongle(wl%d) schedule macreg dump\n", __FUNCTION__, dhdp->info->unit)); dhd_deferred_schedule_work(dhdp->info->dhd_deferred_wq, NULL, DHD_WQ_WORK_MACDBG, _dhd_schedule_macdbg_dump, DHD_WQ_WORK_PRIORITY_LOW); dhd_deferred_work_set_skip(dhdp->info->dhd_deferred_wq, DHD_WQ_WORK_MACDBG, TRUE); } #endif /* BCMDBG */ /* * This call is to get the memdump size so that, * halutil can alloc that much buffer in user space. */ int dhd_os_socram_dump(struct net_device *dev, uint32 *dump_size) { int ret = BCME_OK; dhd_info_t *dhd = *(dhd_info_t **)netdev_priv(dev); dhd_pub_t *dhdp = &dhd->pub; if (dhdp->busstate == DHD_BUS_DOWN) { DHD_ERROR(("%s: bus is down\n", __FUNCTION__)); return BCME_ERROR; } if (DHD_BUS_CHECK_SUSPEND_OR_SUSPEND_IN_PROGRESS(dhdp)) { DHD_ERROR(("%s: bus is in suspend(%d) or suspending(0x%x) state, so skip\n", __FUNCTION__, dhdp->busstate, dhdp->dhd_bus_busy_state)); return BCME_ERROR; } #ifdef DHD_PCIE_RUNTIMEPM dhdpcie_runtime_bus_wake(dhdp, TRUE, __builtin_return_address(0)); #endif /* DHD_PCIE_RUNTIMEPM */ ret = dhd_common_socram_dump(dhdp); if (ret == BCME_OK) { *dump_size = dhdp->soc_ram_length; } return ret; } /* * This is to get the actual memdup after getting the memdump size */ int dhd_os_get_socram_dump(struct net_device *dev, char **buf, uint32 *size) { int ret = BCME_OK; int orig_len = 0; dhd_info_t *dhd = *(dhd_info_t **)netdev_priv(dev); dhd_pub_t *dhdp = &dhd->pub; if (buf == NULL) return BCME_ERROR; orig_len = *size; if (dhdp->soc_ram) { if (orig_len >= dhdp->soc_ram_length) { *buf = dhdp->soc_ram; *size = dhdp->soc_ram_length; } else { ret = BCME_BUFTOOSHORT; DHD_ERROR(("The length of the buffer is too short" " to save the memory dump with %d\n", dhdp->soc_ram_length)); } } else { DHD_ERROR(("socram_dump is not ready to get\n")); ret = BCME_NOTREADY; } return ret; } #ifdef DHD_MAP_PKTID_LOGGING uint32 dhd_get_pktid_map_logging_len(void *ndev, dhd_pub_t *dhdp, bool is_map) { dhd_info_t *dhd_info; log_dump_section_hdr_t sec_hdr; uint32 length = 0; if (ndev) { dhd_info = *(dhd_info_t **)netdev_priv((struct net_device *)ndev); dhdp = &dhd_info->pub; } if (!dhdp || !dhdp->enable_pktid_log_dump) return length; length = dhd_pktid_buf_len(dhdp, is_map) + sizeof(sec_hdr); return length; } int dhd_print_pktid_map_log_data(void *dev, dhd_pub_t *dhdp, const void *user_buf, void *fp, uint32 len, void *pos, bool is_map) { dhd_info_t *dhd_info; if (dev) { dhd_info = *(dhd_info_t **)netdev_priv((struct net_device *)dev); dhdp = &dhd_info->pub; } if (!dhdp) { return BCME_ERROR; } return dhd_write_pktid_log_dump(dhdp, user_buf, fp, len, pos, is_map); } #endif /* DHD_MAP_PKTID_LOGGING */ int dhd_os_get_version(struct net_device *dev, bool dhd_ver, char **buf, uint32 size) { char *fw_str; if (size == 0) return BCME_BADARG; fw_str = strstr(info_string, "Firmware: "); if (fw_str == NULL) { return BCME_ERROR; } bzero(*buf, size); if (dhd_ver) { strlcpy(*buf, dhd_version, size); } else { strlcpy(*buf, fw_str, size); } return BCME_OK; } #ifdef DHD_PKT_LOGGING int dhd_os_get_pktlog_dump(void *dev, const void *user_buf, uint32 len) { #ifdef DHD_PKT_LOGGING_DBGRING /* With DHD_PKT_LOGGING_DBGRING, this path is not allowed. */ return BCME_UNSUPPORTED; #else int ret = BCME_OK; dhd_info_t *dhd = *(dhd_info_t **)netdev_priv(dev); dhd_pub_t *dhdp = &dhd->pub; if (user_buf == NULL) { DHD_ERROR(("%s(): user buffer is NULL\n", __FUNCTION__)); return BCME_ERROR; } ret = dhd_pktlog_dump_write_memory(dhdp, user_buf, len); if (ret < 0) { DHD_ERROR(("%s(): fail to dump pktlog, err = %d\n", __FUNCTION__, ret)); return ret; } return ret; #endif /* DHD_PKT_LOGGING_DBGRING */ } spinlock_t * dhd_os_get_pktlog_lock(dhd_pub_t *dhdp) { return dhdp->pktlog->pktlog_ring->pktlog_ring_lock; } uint32 dhd_os_get_pktlog_dump_size(struct net_device *dev) { int ret = 0; dhd_info_t *dhd = *(dhd_info_t **)netdev_priv(dev); dhd_pub_t *dhdp = &dhd->pub; ret = dhd_pktlog_get_dump_length(dhdp); if (ret < 0) { DHD_ERROR(("%s(): fail to get pktlog size, err = %d\n", __FUNCTION__, ret)); return 0; } return ret; } void dhd_os_get_pktlogdump_filename(struct net_device *dev, char *dump_path, int len) { dhd_info_t *dhd = *(dhd_info_t **)netdev_priv(dev); dhd_pub_t *dhdp = &dhd->pub; dhd_pktlog_get_filename(dhdp, dump_path, len); } #endif /* DHD_PKT_LOGGING */ #ifdef DNGL_AXI_ERROR_LOGGING int dhd_os_get_axi_error_dump(void *dev, const void *user_buf, uint32 len) { int ret = BCME_OK; dhd_info_t *dhd = *(dhd_info_t **)netdev_priv(dev); dhd_pub_t *dhdp = &dhd->pub; loff_t pos = 0; if (user_buf == NULL) { DHD_ERROR(("%s(): user buffer is NULL\n", __FUNCTION__)); return BCME_ERROR; } ret = dhd_export_debug_data((char *)dhdp->axi_err_dump, NULL, user_buf, sizeof(dhd_axi_error_dump_t), &pos); if (ret < 0) { DHD_ERROR(("%s(): fail to dump pktlog, err = %d\n", __FUNCTION__, ret)); return ret; } return ret; } int dhd_os_get_axi_error_dump_size(struct net_device *dev) { int size = -1; size = sizeof(dhd_axi_error_dump_t); if (size < 0) { DHD_ERROR(("%s(): fail to get axi error size, err = %d\n", __FUNCTION__, size)); } return size; } void dhd_os_get_axi_error_filename(struct net_device *dev, char *dump_path, int len) { snprintf(dump_path, len, "%s", DHD_COMMON_DUMP_PATH DHD_DUMP_AXI_ERROR_FILENAME); } #endif /* DNGL_AXI_ERROR_LOGGING */ #ifdef DHD_WMF /* Returns interface specific WMF configuration */ dhd_wmf_t* dhd_wmf_conf(dhd_pub_t *dhdp, uint32 idx) { dhd_info_t *dhd = dhdp->info; dhd_if_t *ifp; ASSERT(idx < DHD_MAX_IFS); ifp = dhd->iflist[idx]; return &ifp->wmf; } #endif /* DHD_WMF */ #if defined(BCM_ROUTER_DHD) void traffic_mgmt_pkt_set_prio(dhd_pub_t *dhdp, void * pktbuf) { struct ether_header *eh; struct ethervlan_header *evh; uint8 *pktdata, *ip_body; uint8 dwm_filter; uint8 tos_tc = 0; uint8 dscp = 0; pktdata = (uint8 *)PKTDATA(dhdp->osh, pktbuf); eh = (struct ether_header *) pktdata; ip_body = NULL; if (dhdp->dhd_tm_dwm_tbl.dhd_dwm_enabled) { if (eh->ether_type == hton16(ETHER_TYPE_8021Q)) { evh = (struct ethervlan_header *)eh; if ((evh->ether_type == hton16(ETHER_TYPE_IP)) || (evh->ether_type == hton16(ETHER_TYPE_IPV6))) { ip_body = pktdata + sizeof(struct ethervlan_header); } } else if ((eh->ether_type == hton16(ETHER_TYPE_IP)) || (eh->ether_type == hton16(ETHER_TYPE_IPV6))) { ip_body = pktdata + sizeof(struct ether_header); } if (ip_body) { tos_tc = IP_TOS46(ip_body); dscp = tos_tc >> IPV4_TOS_DSCP_SHIFT; } if (dscp < DHD_DWM_TBL_SIZE) { dwm_filter = dhdp->dhd_tm_dwm_tbl.dhd_dwm_tbl[dscp]; if (DHD_TRF_MGMT_DWM_IS_FILTER_SET(dwm_filter)) { PKTSETPRIO(pktbuf, DHD_TRF_MGMT_DWM_PRIO(dwm_filter)); } } } } #endif /* BCM_ROUTER_DHD */ bool dhd_sta_associated(dhd_pub_t *dhdp, uint32 bssidx, uint8 *mac) { return dhd_find_sta(dhdp, bssidx, mac) ? TRUE : FALSE; } #ifdef DHD_L2_FILTER arp_table_t* dhd_get_ifp_arp_table_handle(dhd_pub_t *dhdp, uint32 bssidx) { dhd_info_t *dhd = dhdp->info; dhd_if_t *ifp; ASSERT(bssidx < DHD_MAX_IFS); ifp = dhd->iflist[bssidx]; return ifp->phnd_arp_table; } int dhd_get_parp_status(dhd_pub_t *dhdp, uint32 idx) { dhd_info_t *dhd = dhdp->info; dhd_if_t *ifp; ASSERT(idx < DHD_MAX_IFS); ifp = dhd->iflist[idx]; if (ifp) return ifp->parp_enable; else return FALSE; } /* Set interface specific proxy arp configuration */ int dhd_set_parp_status(dhd_pub_t *dhdp, uint32 idx, int val) { dhd_info_t *dhd = dhdp->info; dhd_if_t *ifp; ASSERT(idx < DHD_MAX_IFS); ifp = dhd->iflist[idx]; if (!ifp) return BCME_ERROR; /* At present all 3 variables are being * handled at once */ ifp->parp_enable = val; ifp->parp_discard = val; ifp->parp_allnode = val; /* Flush ARP entries when disabled */ if (val == FALSE) { bcm_l2_filter_arp_table_update(dhdp->osh, ifp->phnd_arp_table, TRUE, NULL, FALSE, dhdp->tickcnt); } return BCME_OK; } bool dhd_parp_discard_is_enabled(dhd_pub_t *dhdp, uint32 idx) { dhd_info_t *dhd = dhdp->info; dhd_if_t *ifp; ASSERT(idx < DHD_MAX_IFS); ifp = dhd->iflist[idx]; ASSERT(ifp); return ifp->parp_discard; } bool dhd_parp_allnode_is_enabled(dhd_pub_t *dhdp, uint32 idx) { dhd_info_t *dhd = dhdp->info; dhd_if_t *ifp; ASSERT(idx < DHD_MAX_IFS); ifp = dhd->iflist[idx]; ASSERT(ifp); return ifp->parp_allnode; } int dhd_get_dhcp_unicast_status(dhd_pub_t *dhdp, uint32 idx) { dhd_info_t *dhd = dhdp->info; dhd_if_t *ifp; ASSERT(idx < DHD_MAX_IFS); ifp = dhd->iflist[idx]; ASSERT(ifp); return ifp->dhcp_unicast; } int dhd_set_dhcp_unicast_status(dhd_pub_t *dhdp, uint32 idx, int val) { dhd_info_t *dhd = dhdp->info; dhd_if_t *ifp; ASSERT(idx < DHD_MAX_IFS); ifp = dhd->iflist[idx]; ASSERT(ifp); ifp->dhcp_unicast = val; return BCME_OK; } int dhd_get_block_ping_status(dhd_pub_t *dhdp, uint32 idx) { dhd_info_t *dhd = dhdp->info; dhd_if_t *ifp; ASSERT(idx < DHD_MAX_IFS); ifp = dhd->iflist[idx]; ASSERT(ifp); return ifp->block_ping; } int dhd_set_block_ping_status(dhd_pub_t *dhdp, uint32 idx, int val) { dhd_info_t *dhd = dhdp->info; dhd_if_t *ifp; ASSERT(idx < DHD_MAX_IFS); ifp = dhd->iflist[idx]; ASSERT(ifp); ifp->block_ping = val; /* Disable rx_pkt_chain feature for interface if block_ping option is * enabled */ dhd_update_rx_pkt_chainable_state(dhdp, idx); return BCME_OK; } int dhd_get_grat_arp_status(dhd_pub_t *dhdp, uint32 idx) { dhd_info_t *dhd = dhdp->info; dhd_if_t *ifp; ASSERT(idx < DHD_MAX_IFS); ifp = dhd->iflist[idx]; ASSERT(ifp); return ifp->grat_arp; } int dhd_set_grat_arp_status(dhd_pub_t *dhdp, uint32 idx, int val) { dhd_info_t *dhd = dhdp->info; dhd_if_t *ifp; ASSERT(idx < DHD_MAX_IFS); ifp = dhd->iflist[idx]; ASSERT(ifp); ifp->grat_arp = val; return BCME_OK; } int dhd_get_block_tdls_status(dhd_pub_t *dhdp, uint32 idx) { dhd_info_t *dhd = dhdp->info; dhd_if_t *ifp; ASSERT(idx < DHD_MAX_IFS); ifp = dhd->iflist[idx]; ASSERT(ifp); return ifp->block_tdls; } int dhd_set_block_tdls_status(dhd_pub_t *dhdp, uint32 idx, int val) { dhd_info_t *dhd = dhdp->info; dhd_if_t *ifp; ASSERT(idx < DHD_MAX_IFS); ifp = dhd->iflist[idx]; ASSERT(ifp); ifp->block_tdls = val; return BCME_OK; } #endif /* DHD_L2_FILTER */ #ifdef DHD_DEBUG_PAGEALLOC /* XXX Additional Kernel implemenation is needed to use this function at * the top of the check_poison_mem() function in mm/debug-pagealloc.c file. * Please check if below codes are implemenated your Linux Kernel first. * * - mm/debug-pagealloc.c * * // for DHD_DEBUG_PAGEALLOC * typedef void (*page_corrupt_cb_t)(void *handle, void *addr_corrupt, uint addr_len); * page_corrupt_cb_t corrupt_cb = NULL; * void *corrupt_cb_handle = NULL; * * void register_page_corrupt_cb(page_corrupt_cb_t cb, void *handle) * { * corrupt_cb = cb; * corrupt_cb_handle = handle; * } * EXPORT_SYMBOL(register_page_corrupt_cb); * * extern void dhd_page_corrupt_cb(void *handle, void *addr_corrupt, size_t len); * * static void check_poison_mem(unsigned char *mem, size_t bytes) * { * ...... * * if (!__ratelimit(&ratelimit)) * return; * else if (start == end && single_bit_flip(*start, PAGE_POISON)) * printk(KERN_ERR "pagealloc: single bit error\n"); * else * printk(KERN_ERR "pagealloc: memory corruption\n"); * * print_hex_dump(KERN_ERR, "", DUMP_PREFIX_ADDRESS, 16, 1, start, * end - start + 1, 1); * * // for DHD_DEBUG_PAGEALLOC * dhd_page_corrupt_cb(corrupt_cb_handle, start, end - start + 1); * * dump_stack(); * } * */ void dhd_page_corrupt_cb(void *handle, void *addr_corrupt, size_t len) { dhd_pub_t *dhdp = (dhd_pub_t *)handle; DHD_ERROR(("%s: Got dhd_page_corrupt_cb 0x%p %d\n", __FUNCTION__, addr_corrupt, (uint32)len)); DHD_OS_WAKE_LOCK(dhdp); prhex("Page Corruption:", addr_corrupt, len); dhd_dump_to_kernelog(dhdp); #if defined(BCMPCIE) && defined(DHD_FW_COREDUMP) /* Load the dongle side dump to host memory and then BUG_ON() */ dhdp->memdump_enabled = DUMP_MEMONLY; dhdp->memdump_type = DUMP_TYPE_MEMORY_CORRUPTION; dhd_bus_mem_dump(dhdp); #endif /* BCMPCIE && DHD_FW_COREDUMP */ DHD_OS_WAKE_UNLOCK(dhdp); } EXPORT_SYMBOL(dhd_page_corrupt_cb); #endif /* DHD_DEBUG_PAGEALLOC */ #if defined(BCMPCIE) && defined(DHD_PKTID_AUDIT_ENABLED) void dhd_pktid_error_handler(dhd_pub_t *dhdp) { DHD_ERROR(("%s: Got Pkt Id Audit failure \n", __FUNCTION__)); DHD_OS_WAKE_LOCK(dhdp); dhd_dump_to_kernelog(dhdp); #ifdef DHD_FW_COREDUMP /* Load the dongle side dump to host memory */ if (dhdp->memdump_enabled == DUMP_DISABLED) { dhdp->memdump_enabled = DUMP_MEMFILE; } dhdp->memdump_type = DUMP_TYPE_PKTID_AUDIT_FAILURE; dhd_bus_mem_dump(dhdp); #endif /* DHD_FW_COREDUMP */ /* XXX Send HANG event to Android Framework for recovery */ dhdp->hang_reason = HANG_REASON_PCIE_PKTID_ERROR; dhd_os_check_hang(dhdp, 0, -EREMOTEIO); DHD_OS_WAKE_UNLOCK(dhdp); } #endif /* BCMPCIE && DHD_PKTID_AUDIT_ENABLED */ struct net_device * dhd_linux_get_primary_netdev(dhd_pub_t *dhdp) { dhd_info_t *dhd = dhdp->info; if (dhd->iflist[0] && dhd->iflist[0]->net) return dhd->iflist[0]->net; else return NULL; } static int dhd_create_to_notifier_skt(void) { #if (LINUX_VERSION_CODE >= KERNEL_VERSION(3, 7, 0)) /* Kernel 3.7 onwards this API accepts only 3 arguments. */ /* Kernel version 3.6 is a special case which accepts 4 arguments */ nl_to_event_sk = netlink_kernel_create(&init_net, BCM_NL_USER, &dhd_netlink_cfg); #elif (LINUX_VERSION_CODE < KERNEL_VERSION(3, 6, 0)) /* Kernel version 3.5 and below use this old API format */ nl_to_event_sk = netlink_kernel_create(&init_net, BCM_NL_USER, 0, dhd_process_daemon_msg, NULL, THIS_MODULE); #else nl_to_event_sk = netlink_kernel_create(&init_net, BCM_NL_USER, THIS_MODULE, &dhd_netlink_cfg); #endif /* (LINUX_VERSION_CODE >= KERNEL_VERSION(3, 7, 0)) */ if (!nl_to_event_sk) { DHD_CONS_ONLY(("Error creating socket.\n")); return -1; } DHD_INFO(("nl_to socket created successfully...\n")); return 0; } void dhd_destroy_to_notifier_skt(void) { DHD_INFO(("Destroying nl_to socket\n")); netlink_kernel_release(nl_to_event_sk); } static void dhd_recv_msg_from_daemon(struct sk_buff *skb) { struct nlmsghdr *nlh; bcm_to_info_t *cmd; nlh = (struct nlmsghdr *)skb->data; cmd = (bcm_to_info_t *)nlmsg_data(nlh); if ((cmd->magic == BCM_TO_MAGIC) && (cmd->reason == REASON_DAEMON_STARTED)) { sender_pid = ((struct nlmsghdr *)(skb->data))->nlmsg_pid; DHD_INFO(("DHD Daemon Started\n")); } } int dhd_send_msg_to_daemon(struct sk_buff *skb, void *data, int size) { struct nlmsghdr *nlh; struct sk_buff *skb_out; int ret = BCME_ERROR; BCM_REFERENCE(skb); if (sender_pid == 0) { DHD_INFO(("Invalid PID 0\n")); skb_out = NULL; goto err; } if ((skb_out = nlmsg_new(size, 0)) == NULL) { DHD_ERROR(("%s: skb alloc failed\n", __FUNCTION__)); ret = BCME_NOMEM; goto err; } nlh = nlmsg_put(skb_out, 0, 0, NLMSG_DONE, size, 0); if (nlh == NULL) { DHD_ERROR(("%s: nlmsg_put failed\n", __FUNCTION__)); goto err; } NETLINK_CB(skb_out).dst_group = 0; /* Unicast */ (void)memcpy_s(nlmsg_data(nlh), size, (char *)data, size); if ((ret = nlmsg_unicast(nl_to_event_sk, skb_out, sender_pid)) < 0) { DHD_ERROR(("Error sending message, ret:%d\n", ret)); /* skb is already freed inside nlmsg_unicast() on error case */ /* explicitly making skb_out to NULL to avoid double free */ skb_out = NULL; goto err; } return BCME_OK; err: if (skb_out) { nlmsg_free(skb_out); } return ret; } static void dhd_process_daemon_msg(struct sk_buff *skb) { bcm_to_info_t to_info; to_info.magic = BCM_TO_MAGIC; to_info.reason = REASON_DAEMON_STARTED; to_info.trap = NO_TRAP; dhd_recv_msg_from_daemon(skb); dhd_send_msg_to_daemon(skb, &to_info, sizeof(to_info)); } #ifdef REPORT_FATAL_TIMEOUTS static void dhd_send_trap_to_fw(dhd_pub_t * pub, int reason, int trap) { bcm_to_info_t to_info; to_info.magic = BCM_TO_MAGIC; to_info.reason = reason; to_info.trap = trap; DHD_ERROR(("Sending Event reason:%d trap:%d\n", reason, trap)); dhd_send_msg_to_daemon(NULL, (void *)&to_info, sizeof(bcm_to_info_t)); } void dhd_send_trap_to_fw_for_timeout(dhd_pub_t * pub, timeout_reasons_t reason) { int to_reason; int trap = NO_TRAP; switch (reason) { case DHD_REASON_COMMAND_TO: to_reason = REASON_COMMAND_TO; trap = DO_TRAP; break; case DHD_REASON_JOIN_TO: to_reason = REASON_JOIN_TO; trap = DO_TRAP; break; case DHD_REASON_SCAN_TO: to_reason = REASON_SCAN_TO; trap = DO_TRAP; break; case DHD_REASON_OQS_TO: to_reason = REASON_OQS_TO; trap = DO_TRAP; break; default: to_reason = REASON_UNKOWN; } dhd_send_trap_to_fw(pub, to_reason, trap); } #endif /* REPORT_FATAL_TIMEOUTS */ #ifdef DHD_PCIE_NATIVE_RUNTIMEPM void dhd_flush_rx_tx_wq(dhd_pub_t *dhdp) { dhd_info_t * dhd; if (dhdp) { dhd = dhdp->info; if (dhd) { flush_workqueue(dhd->tx_wq); flush_workqueue(dhd->rx_wq); } } return; } #endif /* DHD_PCIE_NATIVE_RUNTIMEPM */ #ifdef DHD_DEBUG_UART bool dhd_debug_uart_is_running(struct net_device *dev) { dhd_info_t *dhd = DHD_DEV_INFO(dev); if (dhd->duart_execute) { return TRUE; } return FALSE; } static void dhd_debug_uart_exec_rd(void *handle, void *event_info, u8 event) { dhd_pub_t *dhdp = handle; dhd_debug_uart_exec(dhdp, "rd"); } static void dhd_debug_uart_exec(dhd_pub_t *dhdp, char *cmd) { int ret; char *argv[] = {DHD_DEBUG_UART_EXEC_PATH, cmd, NULL}; char *envp[] = {"HOME=/", "TERM=linux", "PATH=/sbin:/system/bin", NULL}; #ifdef DHD_FW_COREDUMP if (dhdp->memdump_enabled == DUMP_MEMFILE_BUGON) #endif { if (dhdp->hang_reason == HANG_REASON_PCIE_LINK_DOWN_RC_DETECT || dhdp->hang_reason == HANG_REASON_PCIE_LINK_DOWN_EP_DETECT || #ifdef DHD_FW_COREDUMP dhdp->memdump_success == FALSE || #endif FALSE) { dhdp->info->duart_execute = TRUE; DHD_ERROR(("DHD: %s - execute %s %s\n", __FUNCTION__, DHD_DEBUG_UART_EXEC_PATH, cmd)); ret = call_usermodehelper(argv[0], argv, envp, UMH_WAIT_PROC); DHD_ERROR(("DHD: %s - %s %s ret = %d\n", __FUNCTION__, DHD_DEBUG_UART_EXEC_PATH, cmd, ret)); dhdp->info->duart_execute = FALSE; #ifdef DHD_LOG_DUMP if (dhdp->memdump_type != DUMP_TYPE_BY_SYSDUMP) #endif { BUG_ON(1); } } } } #endif /* DHD_DEBUG_UART */ #if defined(DHD_BLOB_EXISTENCE_CHECK) #ifdef DHD_LINUX_STD_FW_API void dhd_set_blob_support(dhd_pub_t *dhdp, char *fw_path) { char *filepath = DHD_CLM_NAME; const struct firmware *fw = NULL; int ret = 0; ret = dhd_os_get_img_fwreq(&fw, filepath); if (ret < 0) { DHD_ERROR(("%s: ----- blob file doesn't exist (%s) -----\n", __FUNCTION__, filepath)); dhdp->is_blob = FALSE; } else { DHD_ERROR(("%s: ----- blob file exists (%s) -----\n", __FUNCTION__, filepath)); dhdp->is_blob = TRUE; #if defined(CONCATE_BLOB) strncat(fw_path, "_blob", strlen("_blob")); #else BCM_REFERENCE(fw_path); #endif /* SKIP_CONCATE_BLOB */ dhd_os_close_img_fwreq(fw); } } #else void dhd_set_blob_support(dhd_pub_t *dhdp, char *fw_path) { struct file *fp; char *filepath = VENDOR_PATH CONFIG_BCMDHD_CLM_PATH; fp = dhd_filp_open(filepath, O_RDONLY, 0); if (IS_ERR(fp) || (fp == NULL)) { DHD_ERROR(("%s: ----- blob file doesn't exist (%s) -----\n", __FUNCTION__, filepath)); dhdp->is_blob = FALSE; } else { DHD_INFO(("%s: ----- blob file exists (%s) -----\n", __FUNCTION__, filepath)); dhdp->is_blob = TRUE; #if defined(CONCATE_BLOB) strncat(fw_path, "_blob", strlen("_blob")); #else BCM_REFERENCE(fw_path); #endif /* SKIP_CONCATE_BLOB */ dhd_filp_close(fp, NULL); } } #endif /* DHD_LINUX_STD_FW_API */ #endif /* DHD_BLOB_EXISTENCE_CHECK */ #if defined(PCIE_FULL_DONGLE) /** test / loopback */ void dmaxfer_free_dmaaddr_handler(void *handle, void *event_info, u8 event) { dmaxref_mem_map_t *dmmap = (dmaxref_mem_map_t *)event_info; dhd_info_t *dhd_info = (dhd_info_t *)handle; if (event != DHD_WQ_WORK_DMA_LB_MEM_REL) { DHD_ERROR(("%s: unexpected event \n", __FUNCTION__)); return; } if (dhd_info == NULL) { DHD_ERROR(("%s: invalid dhd_info\n", __FUNCTION__)); return; } if (dmmap == NULL) { DHD_ERROR(("%s: dmmap is null\n", __FUNCTION__)); return; } dmaxfer_free_prev_dmaaddr(&dhd_info->pub, dmmap); } void dhd_schedule_dmaxfer_free(dhd_pub_t *dhdp, dmaxref_mem_map_t *dmmap) { dhd_info_t *dhd_info = dhdp->info; dhd_deferred_schedule_work(dhd_info->dhd_deferred_wq, (void *)dmmap, DHD_WQ_WORK_DMA_LB_MEM_REL, dmaxfer_free_dmaaddr_handler, DHD_WQ_WORK_PRIORITY_LOW); } #endif /* PCIE_FULL_DONGLE */ /* ---------------------------- End of sysfs implementation ------------------------------------- */ int dhd_write_file(const char *filepath, char *buf, int buf_len) { struct file *fp = NULL; mm_segment_t old_fs; int ret = 0; /* change to KERNEL_DS address limit */ old_fs = get_fs(); set_fs(KERNEL_DS); /* File is always created. */ fp = dhd_filp_open(filepath, O_RDWR | O_CREAT, 0664); if (IS_ERR(fp) || (fp == NULL)) { DHD_ERROR(("%s: Couldn't open file '%s' err %ld\n", __FUNCTION__, filepath, PTR_ERR(fp))); ret = BCME_ERROR; } else { if (fp->f_mode & FMODE_WRITE) { ret = dhd_vfs_write(fp, buf, buf_len, &fp->f_pos); if (ret < 0) { DHD_ERROR(("%s: Couldn't write file '%s'\n", __FUNCTION__, filepath)); ret = BCME_ERROR; } else { ret = BCME_OK; } } dhd_filp_close(fp, NULL); } /* restore previous address limit */ set_fs(old_fs); return ret; } int dhd_read_file(const char *filepath, char *buf, int buf_len) { struct file *fp = NULL; mm_segment_t old_fs; int ret; /* change to KERNEL_DS address limit */ old_fs = get_fs(); set_fs(KERNEL_DS); fp = dhd_filp_open(filepath, O_RDONLY, 0); if (IS_ERR(fp) || (fp == NULL)) { set_fs(old_fs); DHD_ERROR(("%s: File %s doesn't exist\n", __FUNCTION__, filepath)); return BCME_ERROR; } ret = dhd_kernel_read_compat(fp, 0, buf, buf_len); dhd_filp_close(fp, NULL); /* restore previous address limit */ set_fs(old_fs); /* Return the number of bytes read */ if (ret > 0) { /* Success to read */ ret = 0; } else { DHD_ERROR(("%s: Couldn't read the file %s, ret=%d\n", __FUNCTION__, filepath, ret)); ret = BCME_ERROR; } return ret; } int dhd_write_file_and_check(const char *filepath, char *buf, int buf_len) { int ret; ret = dhd_write_file(filepath, buf, buf_len); if (ret < 0) { return ret; } /* Read the file again and check if the file size is not zero */ memset(buf, 0, buf_len); ret = dhd_read_file(filepath, buf, buf_len); return ret; } #ifdef FILTER_IE int dhd_read_from_file(dhd_pub_t *dhd) { int ret = 0; #ifdef DHD_LINUX_STD_FW_API const struct firmware *fw = NULL; char *filepath = FILTER_IE_PATH; int filelen = 0; #else int nread = 0; void *fd; #endif /* DHD_LINUX_STD_FW_API */ uint8 *buf; NULL_CHECK(dhd, "dhd is NULL", ret); buf = MALLOCZ(dhd->osh, FILE_BLOCK_READ_SIZE); if (!buf) { DHD_ERROR(("error: failed to alllocate buf.\n")); return BCME_NOMEM; } /* open file to read */ #ifdef DHD_LINUX_STD_FW_API ret = dhd_os_get_img_fwreq(&fw, filepath); if (ret < 0) { DHD_ERROR(("dhd_os_get_img_fwreq(%s) error : %d\n", filepath, ret)); goto exit; } filelen = fw->size; if (filelen == 0) { DHD_ERROR(("error: zero length file.failed to read\n")); ret = BCME_ERROR; goto exit; } ret = memcpy_s(buf, FILE_BLOCK_READ_SIZE, fw->data, fw->size); if (ret < 0) { DHD_ERROR((" memcpy_s() error : %d\n", ret)); goto exit; } ret = dhd_parse_filter_ie(dhd, buf); if (ret < 0) { DHD_ERROR(("error: failed to parse filter ie\n")); } #else fd = dhd_os_open_image1(dhd, FILTER_IE_PATH); if (!fd) { DHD_ERROR(("No filter file(not an error), filter path%s\n", FILTER_IE_PATH)); ret = BCME_EPERM; goto exit; } nread = dhd_os_get_image_block(buf, (FILE_BLOCK_READ_SIZE - 1), fd); if (nread > 0) { buf[nread] = '\0'; if ((ret = dhd_parse_filter_ie(dhd, buf)) < 0) { DHD_ERROR(("error: failed to parse filter ie\n")); } } else { DHD_ERROR(("error: zero length file.failed to read\n")); ret = BCME_ERROR; } #endif /* DHD_LINUX_STD_FW_API */ exit: #ifdef DHD_LINUX_STD_FW_API if (fw) { dhd_os_close_img_fwreq(fw); } #else dhd_os_close_image1(dhd, fd); #endif /* DHD_LINUX_STD_FW_API */ if (buf) { MFREE(dhd->osh, buf, FILE_BLOCK_READ_SIZE); } return ret; } int dhd_get_filter_ie_count(dhd_pub_t *dhdp, uint8* buf) { uint8* pstr = buf; int element_count = 0; if (buf == NULL) { return BCME_ERROR; } while (*pstr != '\0') { if (*pstr == '\n') { element_count++; } pstr++; } /* * New line character must not be present after last line. * To count last line */ element_count++; return element_count; } int dhd_parse_oui(dhd_pub_t *dhd, uint8 *inbuf, uint8 *oui, int len) { uint8 i, j, msb, lsb, oui_len = 0; /* * OUI can vary from 3 bytes to 5 bytes. * While reading from file as ascii input it can * take maximum size of 14 bytes and minumum size of * 8 bytes including ":" * Example 5byte OUI * Example 3byte OUI */ if ((inbuf == NULL) || (len < 8) || (len > 14)) { DHD_ERROR(("error: failed to parse OUI \n")); return BCME_ERROR; } for (j = 0, i = 0; i < len; i += 3, ++j) { if (!bcm_isxdigit(inbuf[i]) || !bcm_isxdigit(inbuf[i + 1])) { DHD_ERROR(("error: invalid OUI format \n")); return BCME_ERROR; } msb = inbuf[i] > '9' ? bcm_toupper(inbuf[i]) - 'A' + 10 : inbuf[i] - '0'; lsb = inbuf[i + 1] > '9' ? bcm_toupper(inbuf[i + 1]) - 'A' + 10 : inbuf[i + 1] - '0'; oui[j] = (msb << 4) | lsb; } /* Size of oui.It can vary from 3/4/5 */ oui_len = j; return oui_len; } int dhd_check_valid_ie(dhd_pub_t *dhdp, uint8* buf, int len) { int i = 0; while (i < len) { if (!bcm_isdigit(buf[i])) { DHD_ERROR(("error: non digit value found in filter_ie \n")); return BCME_ERROR; } i++; } if (bcm_atoi((char*)buf) > 255) { DHD_ERROR(("error: element id cannot be greater than 255 \n")); return BCME_ERROR; } return BCME_OK; } int dhd_parse_filter_ie(dhd_pub_t *dhd, uint8 *buf) { int element_count = 0, i = 0, oui_size = 0, ret = 0; uint16 bufsize, buf_space_left, id = 0, len = 0; uint16 filter_iovsize, all_tlvsize; wl_filter_ie_tlv_t *p_ie_tlv = NULL; wl_filter_ie_iov_v1_t *p_filter_iov = (wl_filter_ie_iov_v1_t *) NULL; char *token = NULL, *ele_token = NULL, *oui_token = NULL, *type = NULL; uint8 data[20]; element_count = dhd_get_filter_ie_count(dhd, buf); DHD_INFO(("total element count %d \n", element_count)); /* Calculate the whole buffer size */ filter_iovsize = sizeof(wl_filter_ie_iov_v1_t) + FILTER_IE_BUFSZ; p_filter_iov = MALLOCZ(dhd->osh, filter_iovsize); if (p_filter_iov == NULL) { DHD_ERROR(("error: failed to allocate %d bytes of memory\n", filter_iovsize)); return BCME_ERROR; } /* setup filter iovar header */ p_filter_iov->version = WL_FILTER_IE_VERSION; p_filter_iov->len = filter_iovsize; p_filter_iov->fixed_length = p_filter_iov->len - FILTER_IE_BUFSZ; p_filter_iov->pktflag = FC_PROBE_REQ; p_filter_iov->option = WL_FILTER_IE_CHECK_SUB_OPTION; /* setup TLVs */ bufsize = filter_iovsize - WL_FILTER_IE_IOV_HDR_SIZE; /* adjust available size for TLVs */ p_ie_tlv = (wl_filter_ie_tlv_t *)&p_filter_iov->tlvs[0]; buf_space_left = bufsize; while ((i < element_count) && (buf != NULL)) { len = 0; /* token contains one line of input data */ token = bcmstrtok((char**)&buf, "\n", NULL); if (token == NULL) { break; } if ((ele_token = bcmstrstr(token, ",")) == NULL) { /* only element id is present */ if (dhd_check_valid_ie(dhd, token, strlen(token)) == BCME_ERROR) { DHD_ERROR(("error: Invalid element id \n")); ret = BCME_ERROR; goto exit; } id = bcm_atoi((char*)token); data[len++] = WL_FILTER_IE_SET; } else { /* oui is present */ ele_token = bcmstrtok(&token, ",", NULL); if ((ele_token == NULL) || (dhd_check_valid_ie(dhd, ele_token, strlen(ele_token)) == BCME_ERROR)) { DHD_ERROR(("error: Invalid element id \n")); ret = BCME_ERROR; goto exit; } id = bcm_atoi((char*)ele_token); data[len++] = WL_FILTER_IE_SET; if ((oui_token = bcmstrstr(token, ",")) == NULL) { oui_size = dhd_parse_oui(dhd, token, &(data[len]), strlen(token)); if (oui_size == BCME_ERROR) { DHD_ERROR(("error: Invalid OUI \n")); ret = BCME_ERROR; goto exit; } len += oui_size; } else { /* type is present */ oui_token = bcmstrtok(&token, ",", NULL); if ((oui_token == NULL) || ((oui_size = dhd_parse_oui(dhd, oui_token, &(data[len]), strlen(oui_token))) == BCME_ERROR)) { DHD_ERROR(("error: Invalid OUI \n")); ret = BCME_ERROR; goto exit; } len += oui_size; if ((type = bcmstrstr(token, ",")) == NULL) { if (dhd_check_valid_ie(dhd, token, strlen(token)) == BCME_ERROR) { DHD_ERROR(("error: Invalid type \n")); ret = BCME_ERROR; goto exit; } data[len++] = bcm_atoi((char*)token); } else { /* subtype is present */ type = bcmstrtok(&token, ",", NULL); if ((type == NULL) || (dhd_check_valid_ie(dhd, type, strlen(type)) == BCME_ERROR)) { DHD_ERROR(("error: Invalid type \n")); ret = BCME_ERROR; goto exit; } data[len++] = bcm_atoi((char*)type); /* subtype is last element */ if ((token == NULL) || (*token == '\0') || (dhd_check_valid_ie(dhd, token, strlen(token)) == BCME_ERROR)) { DHD_ERROR(("error: Invalid subtype \n")); ret = BCME_ERROR; goto exit; } data[len++] = bcm_atoi((char*)token); } } } ret = bcm_pack_xtlv_entry((uint8 **)&p_ie_tlv, &buf_space_left, id, len, data, BCM_XTLV_OPTION_ALIGN32); if (ret != BCME_OK) { DHD_ERROR(("%s : bcm_pack_xtlv_entry() failed ," "status=%d\n", __FUNCTION__, ret)); goto exit; } i++; } if (i == 0) { /* file is empty or first line is blank */ DHD_ERROR(("error: filter_ie file is empty or first line is blank \n")); ret = BCME_ERROR; goto exit; } /* update the iov header, set len to include all TLVs + header */ all_tlvsize = (bufsize - buf_space_left); p_filter_iov->len = htol16(all_tlvsize + WL_FILTER_IE_IOV_HDR_SIZE); ret = dhd_iovar(dhd, 0, "filter_ie", (void *)p_filter_iov, p_filter_iov->len, NULL, 0, TRUE); if (ret != BCME_OK) { DHD_ERROR(("error: IOVAR failed, status=%d\n", ret)); } exit: /* clean up */ if (p_filter_iov) { MFREE(dhd->osh, p_filter_iov, filter_iovsize); } return ret; } #endif /* FILTER_IE */ #ifdef DHD_WAKE_STATUS wake_counts_t* dhd_get_wakecount(dhd_pub_t *dhdp) { return dhd_bus_get_wakecount(dhdp); } #endif /* DHD_WAKE_STATUS */ int dhd_get_random_bytes(uint8 *buf, uint len) { #ifdef BCMPCIE get_random_bytes(buf, len); #endif /* BCMPCIE */ return BCME_OK; } #if defined(DHD_HANG_SEND_UP_TEST) void dhd_make_hang_with_reason(struct net_device *dev, const char *string_num) { dhd_info_t *dhd = NULL; dhd_pub_t *dhdp = NULL; uint reason = HANG_REASON_MAX; uint32 fw_test_code = 0; dhd = DHD_DEV_INFO(dev); if (dhd) { dhdp = &dhd->pub; } if (!dhd || !dhdp) { return; } reason = (uint) bcm_strtoul(string_num, NULL, 0); DHD_ERROR(("Enter %s, reason=0x%x\n", __FUNCTION__, reason)); if (reason == 0) { if (dhdp->req_hang_type) { DHD_ERROR(("%s, Clear HANG test request 0x%x\n", __FUNCTION__, dhdp->req_hang_type)); dhdp->req_hang_type = 0; return; } else { DHD_ERROR(("%s, No requested HANG test\n", __FUNCTION__)); return; } } else if ((reason <= HANG_REASON_MASK) || (reason >= HANG_REASON_MAX)) { DHD_ERROR(("Invalid HANG request, reason 0x%x\n", reason)); return; } if (dhdp->req_hang_type != 0) { DHD_ERROR(("Already HANG requested for test\n")); return; } switch (reason) { case HANG_REASON_IOCTL_RESP_TIMEOUT: DHD_ERROR(("Make HANG!!!: IOCTL response timeout(0x%x)\n", reason)); dhdp->req_hang_type = reason; fw_test_code = 102; /* resumed on timeour */ (void) dhd_wl_ioctl_set_intiovar(dhdp, "bus:disconnect", fw_test_code, WLC_SET_VAR, TRUE, 0); break; case HANG_REASON_DONGLE_TRAP: DHD_ERROR(("Make HANG!!!: Dongle trap (0x%x)\n", reason)); dhdp->req_hang_type = reason; fw_test_code = 99; /* dongle trap */ (void) dhd_wl_ioctl_set_intiovar(dhdp, "bus:disconnect", fw_test_code, WLC_SET_VAR, TRUE, 0); break; case HANG_REASON_D3_ACK_TIMEOUT: DHD_ERROR(("Make HANG!!!: D3 ACK timeout (0x%x)\n", reason)); dhdp->req_hang_type = reason; break; case HANG_REASON_BUS_DOWN: DHD_ERROR(("Make HANG!!!: BUS down(0x%x)\n", reason)); dhdp->req_hang_type = reason; break; case HANG_REASON_PCIE_LINK_DOWN_RC_DETECT: case HANG_REASON_PCIE_LINK_DOWN_EP_DETECT: case HANG_REASON_MSGBUF_LIVELOCK: dhdp->req_hang_type = 0; DHD_ERROR(("Does not support requested HANG(0x%x)\n", reason)); break; case HANG_REASON_IFACE_DEL_FAILURE: dhdp->req_hang_type = 0; DHD_ERROR(("Does not support requested HANG(0x%x)\n", reason)); break; case HANG_REASON_HT_AVAIL_ERROR: dhdp->req_hang_type = 0; DHD_ERROR(("PCIe does not support requested HANG(0x%x)\n", reason)); break; case HANG_REASON_PCIE_RC_LINK_UP_FAIL: DHD_ERROR(("Make HANG!!!:Link Up(0x%x)\n", reason)); dhdp->req_hang_type = reason; break; default: dhdp->req_hang_type = 0; DHD_ERROR(("Unknown HANG request (0x%x)\n", reason)); break; } } #endif /* DHD_HANG_SEND_UP_TEST */ #ifdef DHD_TX_PROFILE static int process_layer2_headers(uint8 **p, int *plen, uint16 *type, bool is_host_sfhllc) { int err = BCME_OK; if (*type < ETHER_TYPE_MIN) { struct dot3_mac_llc_snap_header *sh = (struct dot3_mac_llc_snap_header *)*p; if (bcmp(&sh->dsap, llc_snap_hdr, SNAP_HDR_LEN) == 0) { *type = ntoh16(sh->type); if (*type == ETHER_TYPE_8021Q || (is_host_sfhllc && *type != ETHER_TYPE_8021Q)) { *p += sizeof(struct dot3_mac_llc_snap_header); if ((*plen -= sizeof(struct dot3_mac_llc_snap_header)) <= 0) { err = BCME_ERROR; } } else { struct dot3_mac_llc_snapvlan_header *svh = (struct dot3_mac_llc_snapvlan_header *)*p; *type = ntoh16(svh->ether_type); *p += sizeof(struct dot3_mac_llc_snapvlan_header); if ((*plen -= sizeof(struct dot3_mac_llc_snapvlan_header)) <= 0) { err = BCME_ERROR; } } } else { err = BCME_ERROR; } } else { if (*type == ETHER_TYPE_8021Q) { struct ethervlan_header *evh = (struct ethervlan_header *)*p; *type = ntoh16(evh->ether_type); *p += ETHERVLAN_HDR_LEN; if ((*plen -= ETHERVLAN_HDR_LEN) <= 0) { err = BCME_ERROR; } } else { *p += ETHER_HDR_LEN; if ((*plen -= ETHER_HDR_LEN) <= 0) { err = BCME_ERROR; } } } return err; } static int process_layer3_headers(uint8 **p, int plen, uint16 *type) { int err = BCME_OK; if (*type == ETHER_TYPE_IP) { struct ipv4_hdr *iph = (struct ipv4_hdr *)*p; uint16 len = IPV4_HLEN(iph); if ((plen -= len) <= 0) { err = BCME_ERROR; } else if (IP_VER(iph) == IP_VER_4 && len >= IPV4_MIN_HEADER_LEN) { *type = IPV4_PROT(iph); *p += len; } else { err = BCME_ERROR; } } else if (*type == ETHER_TYPE_IPV6) { struct ipv6_hdr *ip6h = (struct ipv6_hdr *)*p; if ((plen -= IPV6_MIN_HLEN) <= 0) { err = BCME_ERROR; } else if (IP_VER(ip6h) == IP_VER_6) { *type = IPV6_PROT(ip6h); *p += IPV6_MIN_HLEN; if (IPV6_EXTHDR(*type)) { uint8 proto_6 = 0; int32 exth_len = ipv6_exthdr_len(*p, &proto_6); if (exth_len < 0 || ((plen -= exth_len) <= 0)) { err = BCME_ERROR; } else { *type = proto_6; *p += exth_len; } } } else { err = BCME_ERROR; } } return err; } bool dhd_protocol_matches_profile(uint8 *p, int plen, const dhd_tx_profile_protocol_t *proto, bool is_host_sfhllc) { struct ether_header *eh = NULL; bool result = FALSE; uint16 type = 0, ether_type = 0; ASSERT(proto != NULL); ASSERT(p != NULL); if (plen <= 0) { result = FALSE; } else { eh = (struct ether_header *)p; type = ntoh16(eh->ether_type); if (type < ETHER_TYPE_MIN && is_host_sfhllc) { struct dot3_mac_llc_snap_header *dot3 = (struct dot3_mac_llc_snap_header *)p; ether_type = ntoh16(dot3->type); } else { ether_type = type; } if (proto->layer == DHD_TX_PROFILE_DATA_LINK_LAYER && proto->protocol_number == ether_type) { result = TRUE; } else if (process_layer2_headers(&p, &plen, &type, is_host_sfhllc) != BCME_OK) { /* pass 'type' instead of 'ether_type' to process_layer2_headers * because process_layer2_headers will take care of extraction * of protocol types if llc snap header is present, based on * the condition (type < ETHER_TYPE_MIN) */ result = FALSE; } else if (proto->layer == DHD_TX_PROFILE_DATA_LINK_LAYER) { result = proto->protocol_number == type; } else if (proto->layer != DHD_TX_PROFILE_NETWORK_LAYER) { result = FALSE; } else if (process_layer3_headers(&p, plen, &type) != BCME_OK) { result = FALSE; } else if (proto->protocol_number == type) { /* L4, only check TCP/UDP case */ if ((type == IP_PROT_TCP) || (type == IP_PROT_UDP)) { /* src/dst port are the first two uint16 fields in both tcp/udp * hdr */ struct bcmudp_hdr *hdr = (struct bcmudp_hdr *)p; /* note that a src_port or dest_port of zero counts as a match */ result = ((proto->src_port == 0) || (proto->src_port == ntoh16(hdr->src_port))) && ((proto->dest_port == 0) || (proto->dest_port == ntoh16(hdr->dst_port))); } else { /* at this point we know we are dealing with layer 3, and we * know we are not dealing with TCP or UDP; this is considered a * match */ result = TRUE; } } } return result; } #endif /* defined(DHD_TX_PROFILE) */ #ifdef DHD_TIMESYNC void BCMFASTPATH(dhd_parse_proto)(uint8 *pktdata, dhd_pkt_parse_t *parse) { uint8 *pkt = NULL; struct iphdr *iph = NULL; struct ether_header *eh = (struct ether_header *)pktdata; if (ntoh16(eh->ether_type) < ETHER_TYPE_MIN) { pkt = (uint8 *)&pktdata[ETHER_HDR_LEN + DOT11_LLC_SNAP_HDR_LEN]; } else { pkt = (uint8 *)&pktdata[ETHER_HDR_LEN]; } iph = (struct iphdr *)pkt; parse->proto = IP_PROT_RESERVED; parse->t1 = 0; parse->t2 = 0; /* check IP header */ if ((IPV4_HLEN(iph) != IPV4_HLEN_MIN) || (IP_VER(iph) != IP_VER_4)) { return; } if (iph->protocol == IP_PROT_ICMP) { struct icmphdr *icmph; parse->proto = iph->protocol; icmph = (struct icmphdr *)((uint8 *)pkt + sizeof(struct iphdr)); if ((icmph->type == ICMP_ECHO) || (icmph->type == ICMP_ECHOREPLY)) { parse->t1 = icmph->type; parse->t2 = ntoh16(icmph->un.echo.sequence); } else { parse->t1 = icmph->type; parse->t2 = icmph->code; } } else { parse->proto = iph->protocol; } return; } #endif /* DHD_TIMESYNC */ #define KIRQ_PRINT_BUF_LEN 256 void dhd_print_kirqstats(dhd_pub_t *dhd, unsigned int irq_num) { unsigned long flags = 0; struct irq_desc *desc; int i; /* cpu iterator */ struct bcmstrbuf strbuf; char tmp_buf[KIRQ_PRINT_BUF_LEN]; #if (LINUX_VERSION_CODE >= KERNEL_VERSION(2, 6, 28)) desc = dhd_irq_to_desc(irq_num); if (!desc) { DHD_ERROR(("%s : irqdesc is not found \n", __FUNCTION__)); return; } bcm_binit(&strbuf, tmp_buf, KIRQ_PRINT_BUF_LEN); raw_spin_lock_irqsave(&desc->lock, flags); bcm_bprintf(&strbuf, "dhd irq %u:", irq_num); for_each_online_cpu(i) bcm_bprintf(&strbuf, "%10u ", desc->kstat_irqs ? *per_cpu_ptr(desc->kstat_irqs, i) : 0); if (desc->irq_data.chip) { if (desc->irq_data.chip->name) bcm_bprintf(&strbuf, " %8s", desc->irq_data.chip->name); else bcm_bprintf(&strbuf, " %8s", "-"); } else { bcm_bprintf(&strbuf, " %8s", "None"); } #if (LINUX_VERSION_CODE >= KERNEL_VERSION(3, 1, 0)) if (desc->irq_data.domain) bcm_bprintf(&strbuf, " %d", (int)desc->irq_data.hwirq); #ifdef CONFIG_GENERIC_IRQ_SHOW_LEVEL bcm_bprintf(&strbuf, " %-8s", irqd_is_level_type(&desc->irq_data) ? "Level" : "Edge"); #endif #endif /* LINUX VERSION > 3.1.0 */ if (desc->name) bcm_bprintf(&strbuf, "-%-8s", desc->name); DHD_ERROR(("%s\n", strbuf.origbuf)); raw_spin_unlock_irqrestore(&desc->lock, flags); #endif /* LINUX VERSION > 2.6.28 */ } void dhd_show_kirqstats(dhd_pub_t *dhd) { unsigned int irq = -1; #ifdef BCMPCIE dhdpcie_get_pcieirq(dhd->bus, &irq); #endif /* BCMPCIE */ #ifdef BCMSDIO irq = ((wifi_adapter_info_t *)dhd->info->adapter)->irq_num; #endif /* BCMSDIO */ if (irq != -1) { #ifdef BCMPCIE DHD_ERROR(("DUMP data kernel irq stats : \n")); #endif /* BCMPCIE */ #ifdef BCMSDIO DHD_ERROR(("DUMP data/host wakeup kernel irq stats : \n")); #endif /* BCMSDIO */ dhd_print_kirqstats(dhd, irq); } #ifdef BCMPCIE_OOB_HOST_WAKE irq = dhd_bus_get_oob_irq_num(dhd); if (irq) { DHD_ERROR(("DUMP PCIE host wakeup kernel irq stats : \n")); dhd_print_kirqstats(dhd, irq); } #endif /* BCMPCIE_OOB_HOST_WAKE */ } void dhd_print_tasklet_status(dhd_pub_t *dhd) { dhd_info_t *dhdinfo; if (!dhd) { DHD_ERROR(("%s : DHD is null\n", __FUNCTION__)); return; } dhdinfo = dhd->info; if (!dhdinfo) { DHD_ERROR(("%s : DHD INFO is null \n", __FUNCTION__)); return; } DHD_ERROR(("DHD Tasklet status : 0x%lx\n", dhdinfo->tasklet.state)); } #if defined(DHD_MQ) && defined(DHD_MQ_STATS) void dhd_mqstats_dump(dhd_pub_t *dhdp, struct bcmstrbuf *strbuf) { dhd_info_t *dhd = NULL; int i = 0, j = 0; if (!dhdp || !strbuf) return; dhd = dhdp->info; bcm_bprintf(strbuf, "\nMQ STATS:\n=========\n"); bcm_bprintf(strbuf, "\nTx packet arrival AC histogram:\n"); bcm_bprintf(strbuf, "AC_BE \tAC_BK \tAC_VI \tAC_VO\n"); bcm_bprintf(strbuf, "----- \t----- \t----- \t-----\n"); for (i = 0; i < AC_COUNT; i++) bcm_bprintf(strbuf, "%-10d\t", dhd->pktcnt_per_ac[i]); bcm_bprintf(strbuf, "\n\nTx packet arrival Q-AC histogram:\n"); bcm_bprintf(strbuf, "\tAC_BE \tAC_BK \tAC_VI \tAC_VO\n"); bcm_bprintf(strbuf, "\t----- \t----- \t----- \t-----"); for (i = 0; i < MQ_MAX_QUEUES; i++) { bcm_bprintf(strbuf, "\nQ%d\t", i); for (j = 0; j < AC_COUNT; j++) bcm_bprintf(strbuf, "%-8d\t", dhd->pktcnt_qac_histo[i][j]); } bcm_bprintf(strbuf, "\n\nTx Q-CPU scheduling histogram:\n"); bcm_bprintf(strbuf, "\t"); for (i = 0; i < nr_cpu_ids; i++) bcm_bprintf(strbuf, "CPU%d \t", i); for (i = 0; i < MQ_MAX_QUEUES; i++) { bcm_bprintf(strbuf, "\nQ%d\t", i); for (j = 0; j < nr_cpu_ids; j++) bcm_bprintf(strbuf, "%-8d\t", dhd->cpu_qstats[i][j]); } bcm_bprintf(strbuf, "\n"); } #endif /* DHD_MQ && DHD_MQ_STATS */ #ifdef DHD_MAP_LOGGING /* Will be called from SMMU fault handler */ void dhd_smmu_fault_handler(uint32 axid, ulong fault_addr) { dhd_pub_t *dhdp = (dhd_pub_t *)g_dhd_pub; uint32 irq = (uint32)-1; DHD_ERROR(("%s: Trigger SMMU Fault\n", __FUNCTION__)); DHD_ERROR(("%s: axid:0x%x, fault_addr:0x%lx", __FUNCTION__, axid, fault_addr)); dhdp->smmu_fault_occurred = TRUE; #ifdef DNGL_AXI_ERROR_LOGGING dhdp->axi_error = TRUE; dhdp->axi_err_dump->axid = axid; dhdp->axi_err_dump->fault_address = fault_addr; #endif /* DNGL_AXI_ERROR_LOGGING */ /* Disable PCIe IRQ */ dhdpcie_get_pcieirq(dhdp->bus, &irq); if (irq != (uint32)-1) { disable_irq_nosync(irq); } /* Take debug information first */ DHD_OS_WAKE_LOCK(dhdp); dhd_prot_smmu_fault_dump(dhdp); DHD_OS_WAKE_UNLOCK(dhdp); /* Take AXI information if possible */ #ifdef DNGL_AXI_ERROR_LOGGING #ifdef DHD_USE_WQ_FOR_DNGL_AXI_ERROR dhd_axi_error_dispatch(dhdp); #else dhd_axi_error(dhdp); #endif /* DHD_USE_WQ_FOR_DNGL_AXI_ERROR */ #endif /* DNGL_AXI_ERROR_LOGGING */ } EXPORT_SYMBOL(dhd_smmu_fault_handler); #endif /* DHD_MAP_LOGGING */ #ifdef DHD_ERPOM static void dhd_error_recovery(void *handle, void *event_info, u8 event) { dhd_info_t *dhd = handle; dhd_pub_t *dhdp; int ret = 0; if (!dhd) { DHD_ERROR(("%s: dhd is NULL\n", __FUNCTION__)); return; } dhdp = &dhd->pub; if (!(dhd->dhd_state & DHD_ATTACH_STATE_DONE)) { DHD_ERROR(("%s: init not completed, cannot initiate recovery\n", __FUNCTION__)); return; } ret = dhd_bus_perform_flr_with_quiesce(dhdp, dhdp->bus, FALSE); if (ret != BCME_DNGL_DEVRESET) { DHD_ERROR(("%s: dhd_bus_perform_flr_with_quiesce failed with ret: %d," "toggle REG_ON\n", __FUNCTION__, ret)); /* toggle REG_ON */ dhdp->pom_toggle_reg_on(WLAN_FUNC_ID, BY_WLAN_DUE_TO_WLAN); return; } } void dhd_schedule_reset(dhd_pub_t *dhdp) { if (dhdp->enable_erpom) { dhd_deferred_schedule_work(dhdp->info->dhd_deferred_wq, NULL, DHD_WQ_WORK_ERROR_RECOVERY, dhd_error_recovery, DHD_WQ_WORK_PRIORITY_HIGH); } } #endif /* DHD_ERPOM */ #ifdef DHD_PKT_LOGGING int dhd_pktlog_debug_dump(dhd_pub_t *dhdp) { struct net_device *primary_ndev; struct bcm_cfg80211 *cfg; unsigned long flags = 0; primary_ndev = dhd_linux_get_primary_netdev(dhdp); if (!primary_ndev) { DHD_ERROR(("%s: Cannot find primary netdev\n", __FUNCTION__)); return BCME_ERROR; } cfg = wl_get_cfg(primary_ndev); if (!cfg) { DHD_ERROR(("%s: Cannot find cfg\n", __FUNCTION__)); return BCME_ERROR; } DHD_GENERAL_LOCK(dhdp, flags); if (DHD_BUS_BUSY_CHECK_IN_HALDUMP(dhdp)) { DHD_GENERAL_UNLOCK(dhdp, flags); DHD_ERROR(("%s: HAL dump is already triggered \n", __FUNCTION__)); return BCME_ERROR; } DHD_BUS_BUSY_SET_IN_HALDUMP(dhdp); DHD_GENERAL_UNLOCK(dhdp, flags); DHD_OS_WAKE_LOCK(dhdp); if (wl_cfg80211_is_hal_started(cfg)) { dhdp->pktlog_debug = TRUE; dhd_dbg_send_urgent_evt(dhdp, NULL, 0); } else { DHD_ERROR(("[DUMP] %s: HAL Not started. skip urgent event\n", __FUNCTION__)); } DHD_OS_WAKE_UNLOCK(dhdp); /* In case of dhd_os_busbusy_wait_bitmask() timeout, * hal dump bit will not be cleared. Hence clearing it here. */ DHD_GENERAL_LOCK(dhdp, flags); DHD_BUS_BUSY_CLEAR_IN_HALDUMP(dhdp); dhd_os_busbusy_wake(dhdp); DHD_GENERAL_UNLOCK(dhdp, flags); return BCME_OK; } void dhd_pktlog_dump(void *handle, void *event_info, u8 event) { dhd_info_t *dhd = handle; if (!dhd) { DHD_ERROR(("%s: dhd is NULL\n", __FUNCTION__)); return; } if (dhd_pktlog_dump_write_file(&dhd->pub)) { DHD_ERROR(("%s: writing pktlog dump file failed\n", __FUNCTION__)); return; } } void dhd_schedule_pktlog_dump(dhd_pub_t *dhdp) { dhd_deferred_schedule_work(dhdp->info->dhd_deferred_wq, (void*)NULL, DHD_WQ_WORK_PKTLOG_DUMP, dhd_pktlog_dump, DHD_WQ_WORK_PRIORITY_HIGH); } #endif /* DHD_PKT_LOGGING */ #ifdef DHDTCPSYNC_FLOOD_BLK static void dhd_blk_tsfl_handler(struct work_struct * work) { dhd_if_t *ifp = NULL; dhd_pub_t *dhdp = NULL; /* Ignore compiler warnings due to -Werror=cast-qual */ GCC_DIAGNOSTIC_PUSH_SUPPRESS_CAST(); ifp = container_of(work, dhd_if_t, blk_tsfl_work); GCC_DIAGNOSTIC_POP(); if (ifp) { dhdp = &ifp->info->pub; if (dhdp) { if ((dhdp->op_mode & DHD_FLAG_P2P_GO_MODE)|| (dhdp->op_mode & DHD_FLAG_HOSTAP_MODE)) { DHD_ERROR(("Disassoc due to TCP SYNC FLOOD ATTACK\n")); wl_cfg80211_del_all_sta(ifp->net, WLAN_REASON_UNSPECIFIED); } else if ((dhdp->op_mode & DHD_FLAG_P2P_GC_MODE)|| (dhdp->op_mode & DHD_FLAG_STA_MODE)) { DHD_ERROR(("Diconnect due to TCP SYNC FLOOD ATTACK\n")); wl_cfg80211_disassoc(ifp->net, WLAN_REASON_UNSPECIFIED); } ifp->disconnect_tsync_flood = TRUE; } } } void dhd_reset_tcpsync_info_by_ifp(dhd_if_t *ifp) { ifp->tsync_rcvd = 0; ifp->tsyncack_txed = 0; ifp->last_sync = DIV_U64_BY_U32(OSL_LOCALTIME_NS(), NSEC_PER_SEC); } void dhd_reset_tcpsync_info_by_dev(struct net_device *dev) { dhd_if_t *ifp = NULL; if (dev) { ifp = DHD_DEV_IFP(dev); } if (ifp) { ifp->tsync_rcvd = 0; ifp->tsyncack_txed = 0; ifp->last_sync = DIV_U64_BY_U32(OSL_LOCALTIME_NS(), NSEC_PER_SEC); ifp->tsync_per_sec = 0; ifp->disconnect_tsync_flood = FALSE; } } #endif /* DHDTCPSYNC_FLOOD_BLK */ #ifdef DHD_4WAYM4_FAIL_DISCONNECT static void dhd_m4_state_handler(struct work_struct *work) { dhd_if_t *ifp = NULL; /* Ignore compiler warnings due to -Werror=cast-qual */ struct delayed_work *dw = to_delayed_work(work); GCC_DIAGNOSTIC_PUSH_SUPPRESS_CAST(); ifp = container_of(dw, dhd_if_t, m4state_work); GCC_DIAGNOSTIC_POP(); if (ifp && ifp->net && (OSL_ATOMIC_READ(ifp->info->pub->osh, &ifp->m4state) == M4_TXFAILED)) { DHD_ERROR(("Disassoc for 4WAY_HANDSHAKE_TIMEOUT at %s\n", ifp->net->name)); wl_cfg80211_disassoc(ifp->net, WLAN_REASON_4WAY_HANDSHAKE_TIMEOUT); } } void dhd_cleanup_m4_state_work(dhd_pub_t *dhdp, int ifidx) { dhd_info_t *dhdinfo; dhd_if_t *ifp; if ((ifidx < 0) || (ifidx >= DHD_MAX_IFS)) { DHD_ERROR(("%s: invalid ifidx %d\n", __FUNCTION__, ifidx)); return; } dhdinfo = (dhd_info_t *)(dhdp->info); if (!dhdinfo) { DHD_ERROR(("%s: dhdinfo is NULL\n", __FUNCTION__)); return; } ifp = dhdinfo->iflist[ifidx]; if (ifp) { cancel_delayed_work_sync(&ifp->m4state_work); } } #endif /* DHD_4WAYM4_FAIL_DISCONNECT */ /* * DHD RING */ #define DHD_RING_ERR_INTERNAL(fmt, ...) DHD_ERROR(("EWPF-" fmt, ##__VA_ARGS__)) #define DHD_RING_TRACE_INTERNAL(fmt, ...) DHD_INFO(("EWPF-" fmt, ##__VA_ARGS__)) #define DHD_RING_ERR(x) DHD_RING_ERR_INTERNAL x #define DHD_RING_TRACE(x) DHD_RING_TRACE_INTERNAL x #define DHD_RING_MAGIC 0x20170910 #define DHD_RING_IDX_INVALID 0xffffffff #define DHD_RING_SYNC_LOCK_INIT(osh) osl_spin_lock_init(osh) #define DHD_RING_SYNC_LOCK_DEINIT(osh, lock) osl_spin_lock_deinit(osh, lock) #define DHD_RING_SYNC_LOCK(lock, flags) (flags) = osl_spin_lock(lock) #define DHD_RING_SYNC_UNLOCK(lock, flags) osl_spin_unlock(lock, flags) typedef struct { uint32 elem_size; uint32 elem_cnt; uint32 write_idx; /* next write index, -1 : not started */ uint32 read_idx; /* next read index, -1 : not start */ /* protected elements during serialization */ int lock_idx; /* start index of locked, element will not be overried */ int lock_count; /* number of locked, from lock idx */ /* saved data elements */ void *elem; } dhd_fixed_ring_info_t; typedef struct { uint32 elem_size; uint32 elem_cnt; uint32 idx; /* -1 : not started */ uint32 rsvd; /* reserved for future use */ /* protected elements during serialization */ atomic_t ring_locked; /* check the overwriting */ uint32 ring_overwrited; /* saved data elements */ void *elem; } dhd_singleidx_ring_info_t; typedef struct { uint32 magic; uint32 type; void *ring_sync; /* spinlock for sync */ union { dhd_fixed_ring_info_t fixed; dhd_singleidx_ring_info_t single; }; } dhd_ring_info_t; uint32 dhd_ring_get_hdr_size(void) { return sizeof(dhd_ring_info_t); } void * dhd_ring_init(dhd_pub_t *dhdp, uint8 *buf, uint32 buf_size, uint32 elem_size, uint32 elem_cnt, uint32 type) { dhd_ring_info_t *ret_ring; if (!buf) { DHD_RING_ERR(("NO RING BUFFER\n")); return NULL; } if (buf_size < dhd_ring_get_hdr_size() + elem_size * elem_cnt) { DHD_RING_ERR(("RING SIZE IS TOO SMALL\n")); return NULL; } if (type != DHD_RING_TYPE_FIXED && type != DHD_RING_TYPE_SINGLE_IDX) { DHD_RING_ERR(("UNSUPPORTED RING TYPE\n")); return NULL; } ret_ring = (dhd_ring_info_t *)buf; ret_ring->type = type; ret_ring->ring_sync = (void *)DHD_RING_SYNC_LOCK_INIT(dhdp->osh); ret_ring->magic = DHD_RING_MAGIC; if (type == DHD_RING_TYPE_FIXED) { ret_ring->fixed.read_idx = DHD_RING_IDX_INVALID; ret_ring->fixed.write_idx = DHD_RING_IDX_INVALID; ret_ring->fixed.lock_idx = DHD_RING_IDX_INVALID; ret_ring->fixed.elem = buf + sizeof(dhd_ring_info_t); ret_ring->fixed.elem_size = elem_size; ret_ring->fixed.elem_cnt = elem_cnt; } else { ret_ring->single.idx = DHD_RING_IDX_INVALID; atomic_set(&ret_ring->single.ring_locked, 0); ret_ring->single.ring_overwrited = 0; ret_ring->single.rsvd = 0; ret_ring->single.elem = buf + sizeof(dhd_ring_info_t); ret_ring->single.elem_size = elem_size; ret_ring->single.elem_cnt = elem_cnt; } return ret_ring; } void dhd_ring_deinit(dhd_pub_t *dhdp, void *_ring) { dhd_ring_info_t *ring = (dhd_ring_info_t *)_ring; if (!ring) { return; } if (ring->magic != DHD_RING_MAGIC) { return; } if (ring->type != DHD_RING_TYPE_FIXED && ring->type != DHD_RING_TYPE_SINGLE_IDX) { return; } DHD_RING_SYNC_LOCK_DEINIT(dhdp->osh, ring->ring_sync); ring->ring_sync = NULL; if (ring->type == DHD_RING_TYPE_FIXED) { dhd_fixed_ring_info_t *fixed = &ring->fixed; memset(fixed->elem, 0, fixed->elem_size * fixed->elem_cnt); fixed->elem_size = fixed->elem_cnt = 0; } else { dhd_singleidx_ring_info_t *single = &ring->single; memset(single->elem, 0, single->elem_size * single->elem_cnt); single->elem_size = single->elem_cnt = 0; } ring->type = 0; ring->magic = 0; } static inline uint32 __dhd_ring_ptr2idx(void *ring, void *ptr, char *sig, uint32 type) { uint32 diff; uint32 ret_idx = (uint32)DHD_RING_IDX_INVALID; uint32 elem_size, elem_cnt; void *elem; if (type == DHD_RING_TYPE_FIXED) { dhd_fixed_ring_info_t *fixed = (dhd_fixed_ring_info_t *)ring; elem_size = fixed->elem_size; elem_cnt = fixed->elem_cnt; elem = fixed->elem; } else if (type == DHD_RING_TYPE_SINGLE_IDX) { dhd_singleidx_ring_info_t *single = (dhd_singleidx_ring_info_t *)ring; elem_size = single->elem_size; elem_cnt = single->elem_cnt; elem = single->elem; } else { DHD_RING_ERR(("UNSUPPORTED RING TYPE %d\n", type)); return ret_idx; } if (ptr < elem) { DHD_RING_ERR(("INVALID POINTER %s:%p, ring->elem:%p\n", sig, ptr, elem)); return ret_idx; } diff = (uint32)((uint8 *)ptr - (uint8 *)elem); if (diff % elem_size != 0) { DHD_RING_ERR(("INVALID POINTER %s:%p, ring->elem:%p\n", sig, ptr, elem)); return ret_idx; } ret_idx = diff / elem_size; if (ret_idx >= elem_cnt) { DHD_RING_ERR(("INVALID POINTER max:%d cur:%d\n", elem_cnt, ret_idx)); } return ret_idx; } /* Sub functions for fixed ring */ /* get counts between two indexes of ring buffer (internal only) */ static inline int __dhd_fixed_ring_get_count(dhd_fixed_ring_info_t *ring, int start, int end) { if (start == DHD_RING_IDX_INVALID || end == DHD_RING_IDX_INVALID) { return 0; } return (ring->elem_cnt + end - start) % ring->elem_cnt + 1; } static inline int __dhd_fixed_ring_get_cur_size(dhd_fixed_ring_info_t *ring) { return __dhd_fixed_ring_get_count(ring, ring->read_idx, ring->write_idx); } static inline void * __dhd_fixed_ring_get_first(dhd_fixed_ring_info_t *ring) { if (ring->read_idx == DHD_RING_IDX_INVALID) { return NULL; } return (uint8 *)ring->elem + (ring->elem_size * ring->read_idx); } static inline void __dhd_fixed_ring_free_first(dhd_fixed_ring_info_t *ring) { uint32 next_idx; if (ring->read_idx == DHD_RING_IDX_INVALID) { DHD_RING_ERR(("EMPTY RING\n")); return; } next_idx = (ring->read_idx + 1) % ring->elem_cnt; if (ring->read_idx == ring->write_idx) { /* Become empty */ ring->read_idx = ring->write_idx = DHD_RING_IDX_INVALID; return; } ring->read_idx = next_idx; return; } static inline void * __dhd_fixed_ring_get_last(dhd_fixed_ring_info_t *ring) { if (ring->read_idx == DHD_RING_IDX_INVALID) { return NULL; } return (uint8 *)ring->elem + (ring->elem_size * ring->write_idx); } static inline void * __dhd_fixed_ring_get_empty(dhd_fixed_ring_info_t *ring) { uint32 tmp_idx; if (ring->read_idx == DHD_RING_IDX_INVALID) { ring->read_idx = ring->write_idx = 0; return (uint8 *)ring->elem; } /* check next index is not locked */ tmp_idx = (ring->write_idx + 1) % ring->elem_cnt; if (ring->lock_idx == tmp_idx) { return NULL; } ring->write_idx = tmp_idx; if (ring->write_idx == ring->read_idx) { /* record is full, drop oldest one */ ring->read_idx = (ring->read_idx + 1) % ring->elem_cnt; } return (uint8 *)ring->elem + (ring->elem_size * ring->write_idx); } static inline void * __dhd_fixed_ring_get_next(dhd_fixed_ring_info_t *ring, void *prev, uint32 type) { uint32 cur_idx; if (ring->read_idx == DHD_RING_IDX_INVALID) { DHD_RING_ERR(("EMPTY RING\n")); return NULL; } cur_idx = __dhd_ring_ptr2idx(ring, prev, "NEXT", type); if (cur_idx >= ring->elem_cnt) { return NULL; } if (cur_idx == ring->write_idx) { /* no more new record */ return NULL; } cur_idx = (cur_idx + 1) % ring->elem_cnt; return (uint8 *)ring->elem + ring->elem_size * cur_idx; } static inline void * __dhd_fixed_ring_get_prev(dhd_fixed_ring_info_t *ring, void *prev, uint32 type) { uint32 cur_idx; if (ring->read_idx == DHD_RING_IDX_INVALID) { DHD_RING_ERR(("EMPTY RING\n")); return NULL; } cur_idx = __dhd_ring_ptr2idx(ring, prev, "PREV", type); if (cur_idx >= ring->elem_cnt) { return NULL; } if (cur_idx == ring->read_idx) { /* no more new record */ return NULL; } cur_idx = (cur_idx + ring->elem_cnt - 1) % ring->elem_cnt; return (uint8 *)ring->elem + ring->elem_size * cur_idx; } static inline void __dhd_fixed_ring_lock(dhd_fixed_ring_info_t *ring, void *first_ptr, void *last_ptr, uint32 type) { uint32 first_idx; uint32 last_idx; uint32 ring_filled_cnt; uint32 tmp_cnt; if (ring->read_idx == DHD_RING_IDX_INVALID) { DHD_RING_ERR(("EMPTY RING\n")); return; } if (first_ptr) { first_idx = __dhd_ring_ptr2idx(ring, first_ptr, "LCK FIRST", type); if (first_idx >= ring->elem_cnt) { return; } } else { first_idx = ring->read_idx; } if (last_ptr) { last_idx = __dhd_ring_ptr2idx(ring, last_ptr, "LCK LAST", type); if (last_idx >= ring->elem_cnt) { return; } } else { last_idx = ring->write_idx; } ring_filled_cnt = __dhd_fixed_ring_get_count(ring, ring->read_idx, ring->write_idx); tmp_cnt = __dhd_fixed_ring_get_count(ring, ring->read_idx, first_idx); if (tmp_cnt > ring_filled_cnt) { DHD_RING_ERR(("LOCK FIRST IS TO EMPTY ELEM: write: %d read: %d cur:%d\n", ring->write_idx, ring->read_idx, first_idx)); return; } tmp_cnt = __dhd_fixed_ring_get_count(ring, ring->read_idx, last_idx); if (tmp_cnt > ring_filled_cnt) { DHD_RING_ERR(("LOCK LAST IS TO EMPTY ELEM: write: %d read: %d cur:%d\n", ring->write_idx, ring->read_idx, last_idx)); return; } ring->lock_idx = first_idx; ring->lock_count = __dhd_fixed_ring_get_count(ring, first_idx, last_idx); return; } static inline void __dhd_fixed_ring_lock_free(dhd_fixed_ring_info_t *ring) { if (ring->read_idx == DHD_RING_IDX_INVALID) { DHD_RING_ERR(("EMPTY RING\n")); return; } ring->lock_idx = DHD_RING_IDX_INVALID; ring->lock_count = 0; return; } static inline void * __dhd_fixed_ring_lock_get_first(dhd_fixed_ring_info_t *ring) { if (ring->read_idx == DHD_RING_IDX_INVALID) { DHD_RING_ERR(("EMPTY RING\n")); return NULL; } if (ring->lock_idx == DHD_RING_IDX_INVALID) { DHD_RING_ERR(("NO LOCK POINT\n")); return NULL; } return (uint8 *)ring->elem + ring->elem_size * ring->lock_idx; } static inline void * __dhd_fixed_ring_lock_get_last(dhd_fixed_ring_info_t *ring) { int lock_last_idx; if (ring->read_idx == DHD_RING_IDX_INVALID) { DHD_RING_ERR(("EMPTY RING\n")); return NULL; } if (ring->lock_idx == DHD_RING_IDX_INVALID) { DHD_RING_ERR(("NO LOCK POINT\n")); return NULL; } lock_last_idx = (ring->lock_idx + ring->lock_count - 1) % ring->elem_cnt; return (uint8 *)ring->elem + ring->elem_size * lock_last_idx; } static inline int __dhd_fixed_ring_lock_get_count(dhd_fixed_ring_info_t *ring) { if (ring->read_idx == DHD_RING_IDX_INVALID) { DHD_RING_ERR(("EMPTY RING\n")); return BCME_ERROR; } if (ring->lock_idx == DHD_RING_IDX_INVALID) { DHD_RING_ERR(("NO LOCK POINT\n")); return BCME_ERROR; } return ring->lock_count; } static inline void __dhd_fixed_ring_lock_free_first(dhd_fixed_ring_info_t *ring) { if (ring->read_idx == DHD_RING_IDX_INVALID) { DHD_RING_ERR(("EMPTY RING\n")); return; } if (ring->lock_idx == DHD_RING_IDX_INVALID) { DHD_RING_ERR(("NO LOCK POINT\n")); return; } ring->lock_count--; if (ring->lock_count <= 0) { ring->lock_idx = DHD_RING_IDX_INVALID; } else { ring->lock_idx = (ring->lock_idx + 1) % ring->elem_cnt; } return; } static inline void __dhd_fixed_ring_set_read_idx(dhd_fixed_ring_info_t *ring, uint32 idx) { ring->read_idx = idx; } static inline void __dhd_fixed_ring_set_write_idx(dhd_fixed_ring_info_t *ring, uint32 idx) { ring->write_idx = idx; } static inline uint32 __dhd_fixed_ring_get_read_idx(dhd_fixed_ring_info_t *ring) { return ring->read_idx; } static inline uint32 __dhd_fixed_ring_get_write_idx(dhd_fixed_ring_info_t *ring) { return ring->write_idx; } /* Sub functions for single index ring */ static inline void * __dhd_singleidx_ring_get_first(dhd_singleidx_ring_info_t *ring) { uint32 tmp_idx = 0; if (ring->idx == DHD_RING_IDX_INVALID) { return NULL; } if (ring->ring_overwrited) { tmp_idx = (ring->idx + 1) % ring->elem_cnt; } return (uint8 *)ring->elem + (ring->elem_size * tmp_idx); } static inline void * __dhd_singleidx_ring_get_last(dhd_singleidx_ring_info_t *ring) { if (ring->idx == DHD_RING_IDX_INVALID) { return NULL; } return (uint8 *)ring->elem + (ring->elem_size * ring->idx); } static inline void * __dhd_singleidx_ring_get_empty(dhd_singleidx_ring_info_t *ring) { if (ring->idx == DHD_RING_IDX_INVALID) { ring->idx = 0; return (uint8 *)ring->elem; } /* check the lock is held */ if (atomic_read(&ring->ring_locked)) { return NULL; } /* check the index rollover */ if (!ring->ring_overwrited && ring->idx == (ring->elem_cnt - 1)) { ring->ring_overwrited = 1; } ring->idx = (ring->idx + 1) % ring->elem_cnt; return (uint8 *)ring->elem + (ring->elem_size * ring->idx); } static inline void * __dhd_singleidx_ring_get_next(dhd_singleidx_ring_info_t *ring, void *prev, uint32 type) { uint32 cur_idx; if (ring->idx == DHD_RING_IDX_INVALID) { DHD_RING_ERR(("EMPTY RING\n")); return NULL; } cur_idx = __dhd_ring_ptr2idx(ring, prev, "NEXT", type); if (cur_idx >= ring->elem_cnt) { return NULL; } if (cur_idx == ring->idx) { /* no more new record */ return NULL; } cur_idx = (cur_idx + 1) % ring->elem_cnt; return (uint8 *)ring->elem + ring->elem_size * cur_idx; } static inline void * __dhd_singleidx_ring_get_prev(dhd_singleidx_ring_info_t *ring, void *prev, uint32 type) { uint32 cur_idx; if (ring->idx == DHD_RING_IDX_INVALID) { DHD_RING_ERR(("EMPTY RING\n")); return NULL; } cur_idx = __dhd_ring_ptr2idx(ring, prev, "PREV", type); if (cur_idx >= ring->elem_cnt) { return NULL; } if (!ring->ring_overwrited && cur_idx == 0) { /* no more new record */ return NULL; } cur_idx = (cur_idx + ring->elem_cnt - 1) % ring->elem_cnt; if (ring->ring_overwrited && cur_idx == ring->idx) { /* no more new record */ return NULL; } return (uint8 *)ring->elem + ring->elem_size * cur_idx; } static inline void __dhd_singleidx_ring_whole_lock(dhd_singleidx_ring_info_t *ring) { if (!atomic_read(&ring->ring_locked)) { atomic_set(&ring->ring_locked, 1); } } static inline void __dhd_singleidx_ring_whole_unlock(dhd_singleidx_ring_info_t *ring) { if (atomic_read(&ring->ring_locked)) { atomic_set(&ring->ring_locked, 0); } } /* Get first element : oldest element */ void * dhd_ring_get_first(void *_ring) { dhd_ring_info_t *ring = (dhd_ring_info_t *)_ring; void *ret = NULL; unsigned long flags; if (!ring || ring->magic != DHD_RING_MAGIC) { DHD_RING_ERR(("%s :INVALID RING INFO\n", __FUNCTION__)); return NULL; } DHD_RING_SYNC_LOCK(ring->ring_sync, flags); if (ring->type == DHD_RING_TYPE_FIXED) { ret = __dhd_fixed_ring_get_first(&ring->fixed); } if (ring->type == DHD_RING_TYPE_SINGLE_IDX) { ret = __dhd_singleidx_ring_get_first(&ring->single); } DHD_RING_SYNC_UNLOCK(ring->ring_sync, flags); return ret; } /* Free first element : oldest element */ void dhd_ring_free_first(void *_ring) { dhd_ring_info_t *ring = (dhd_ring_info_t *)_ring; unsigned long flags; if (!ring || ring->magic != DHD_RING_MAGIC) { DHD_RING_ERR(("%s :INVALID RING INFO\n", __FUNCTION__)); return; } DHD_RING_SYNC_LOCK(ring->ring_sync, flags); if (ring->type == DHD_RING_TYPE_FIXED) { __dhd_fixed_ring_free_first(&ring->fixed); } DHD_RING_SYNC_UNLOCK(ring->ring_sync, flags); } void dhd_ring_set_read_idx(void *_ring, uint32 read_idx) { dhd_ring_info_t *ring = (dhd_ring_info_t *)_ring; unsigned long flags; if (!ring || ring->magic != DHD_RING_MAGIC) { DHD_RING_ERR(("%s :INVALID RING INFO\n", __FUNCTION__)); return; } DHD_RING_SYNC_LOCK(ring->ring_sync, flags); if (ring->type == DHD_RING_TYPE_FIXED) { __dhd_fixed_ring_set_read_idx(&ring->fixed, read_idx); } DHD_RING_SYNC_UNLOCK(ring->ring_sync, flags); } void dhd_ring_set_write_idx(void *_ring, uint32 write_idx) { dhd_ring_info_t *ring = (dhd_ring_info_t *)_ring; unsigned long flags; if (!ring || ring->magic != DHD_RING_MAGIC) { DHD_RING_ERR(("%s :INVALID RING INFO\n", __FUNCTION__)); return; } DHD_RING_SYNC_LOCK(ring->ring_sync, flags); if (ring->type == DHD_RING_TYPE_FIXED) { __dhd_fixed_ring_set_write_idx(&ring->fixed, write_idx); } DHD_RING_SYNC_UNLOCK(ring->ring_sync, flags); } uint32 dhd_ring_get_read_idx(void *_ring) { dhd_ring_info_t *ring = (dhd_ring_info_t *)_ring; uint32 read_idx = DHD_RING_IDX_INVALID; unsigned long flags; if (!ring || ring->magic != DHD_RING_MAGIC) { DHD_RING_ERR(("%s :INVALID RING INFO\n", __FUNCTION__)); return read_idx; } DHD_RING_SYNC_LOCK(ring->ring_sync, flags); if (ring->type == DHD_RING_TYPE_FIXED) { read_idx = __dhd_fixed_ring_get_read_idx(&ring->fixed); } DHD_RING_SYNC_UNLOCK(ring->ring_sync, flags); return read_idx; } uint32 dhd_ring_get_write_idx(void *_ring) { dhd_ring_info_t *ring = (dhd_ring_info_t *)_ring; uint32 write_idx = DHD_RING_IDX_INVALID; unsigned long flags; if (!ring || ring->magic != DHD_RING_MAGIC) { DHD_RING_ERR(("%s :INVALID RING INFO\n", __FUNCTION__)); return write_idx; } DHD_RING_SYNC_LOCK(ring->ring_sync, flags); if (ring->type == DHD_RING_TYPE_FIXED) { write_idx = __dhd_fixed_ring_get_write_idx(&ring->fixed); } DHD_RING_SYNC_UNLOCK(ring->ring_sync, flags); return write_idx; } /* Get latest element */ void * dhd_ring_get_last(void *_ring) { dhd_ring_info_t *ring = (dhd_ring_info_t *)_ring; void *ret = NULL; unsigned long flags; if (!ring || ring->magic != DHD_RING_MAGIC) { DHD_RING_ERR(("%s :INVALID RING INFO\n", __FUNCTION__)); return NULL; } DHD_RING_SYNC_LOCK(ring->ring_sync, flags); if (ring->type == DHD_RING_TYPE_FIXED) { ret = __dhd_fixed_ring_get_last(&ring->fixed); } if (ring->type == DHD_RING_TYPE_SINGLE_IDX) { ret = __dhd_singleidx_ring_get_last(&ring->single); } DHD_RING_SYNC_UNLOCK(ring->ring_sync, flags); return ret; } /* Get next point can be written * will overwrite which doesn't read * will return NULL if next pointer is locked. */ void * dhd_ring_get_empty(void *_ring) { dhd_ring_info_t *ring = (dhd_ring_info_t *)_ring; void *ret = NULL; unsigned long flags; if (!ring || ring->magic != DHD_RING_MAGIC) { DHD_RING_ERR(("%s :INVALID RING INFO\n", __FUNCTION__)); return NULL; } DHD_RING_SYNC_LOCK(ring->ring_sync, flags); if (ring->type == DHD_RING_TYPE_FIXED) { ret = __dhd_fixed_ring_get_empty(&ring->fixed); } if (ring->type == DHD_RING_TYPE_SINGLE_IDX) { ret = __dhd_singleidx_ring_get_empty(&ring->single); } DHD_RING_SYNC_UNLOCK(ring->ring_sync, flags); return ret; } void * dhd_ring_get_next(void *_ring, void *cur) { dhd_ring_info_t *ring = (dhd_ring_info_t *)_ring; void *ret = NULL; unsigned long flags; if (!ring || ring->magic != DHD_RING_MAGIC) { DHD_RING_ERR(("%s :INVALID RING INFO\n", __FUNCTION__)); return NULL; } DHD_RING_SYNC_LOCK(ring->ring_sync, flags); if (ring->type == DHD_RING_TYPE_FIXED) { ret = __dhd_fixed_ring_get_next(&ring->fixed, cur, ring->type); } if (ring->type == DHD_RING_TYPE_SINGLE_IDX) { ret = __dhd_singleidx_ring_get_next(&ring->single, cur, ring->type); } DHD_RING_SYNC_UNLOCK(ring->ring_sync, flags); return ret; } void * dhd_ring_get_prev(void *_ring, void *cur) { dhd_ring_info_t *ring = (dhd_ring_info_t *)_ring; void *ret = NULL; unsigned long flags; if (!ring || ring->magic != DHD_RING_MAGIC) { DHD_RING_ERR(("%s :INVALID RING INFO\n", __FUNCTION__)); return NULL; } DHD_RING_SYNC_LOCK(ring->ring_sync, flags); if (ring->type == DHD_RING_TYPE_FIXED) { ret = __dhd_fixed_ring_get_prev(&ring->fixed, cur, ring->type); } if (ring->type == DHD_RING_TYPE_SINGLE_IDX) { ret = __dhd_singleidx_ring_get_prev(&ring->single, cur, ring->type); } DHD_RING_SYNC_UNLOCK(ring->ring_sync, flags); return ret; } int dhd_ring_get_cur_size(void *_ring) { dhd_ring_info_t *ring = (dhd_ring_info_t *)_ring; int cnt = 0; unsigned long flags; if (!ring || ring->magic != DHD_RING_MAGIC) { DHD_RING_ERR(("%s :INVALID RING INFO\n", __FUNCTION__)); return cnt; } DHD_RING_SYNC_LOCK(ring->ring_sync, flags); if (ring->type == DHD_RING_TYPE_FIXED) { cnt = __dhd_fixed_ring_get_cur_size(&ring->fixed); } DHD_RING_SYNC_UNLOCK(ring->ring_sync, flags); return cnt; } /* protect element between lock_ptr and write_idx */ void dhd_ring_lock(void *_ring, void *first_ptr, void *last_ptr) { dhd_ring_info_t *ring = (dhd_ring_info_t *)_ring; unsigned long flags; if (!ring || ring->magic != DHD_RING_MAGIC) { DHD_RING_ERR(("%s :INVALID RING INFO\n", __FUNCTION__)); return; } DHD_RING_SYNC_LOCK(ring->ring_sync, flags); if (ring->type == DHD_RING_TYPE_FIXED) { __dhd_fixed_ring_lock(&ring->fixed, first_ptr, last_ptr, ring->type); } DHD_RING_SYNC_UNLOCK(ring->ring_sync, flags); } /* free all lock */ void dhd_ring_lock_free(void *_ring) { dhd_ring_info_t *ring = (dhd_ring_info_t *)_ring; unsigned long flags; if (!ring || ring->magic != DHD_RING_MAGIC) { DHD_RING_ERR(("%s :INVALID RING INFO\n", __FUNCTION__)); return; } DHD_RING_SYNC_LOCK(ring->ring_sync, flags); if (ring->type == DHD_RING_TYPE_FIXED) { __dhd_fixed_ring_lock_free(&ring->fixed); } DHD_RING_SYNC_UNLOCK(ring->ring_sync, flags); } void * dhd_ring_lock_get_first(void *_ring) { dhd_ring_info_t *ring = (dhd_ring_info_t *)_ring; void *ret = NULL; unsigned long flags; if (!ring || ring->magic != DHD_RING_MAGIC) { DHD_RING_ERR(("%s :INVALID RING INFO\n", __FUNCTION__)); return NULL; } DHD_RING_SYNC_LOCK(ring->ring_sync, flags); if (ring->type == DHD_RING_TYPE_FIXED) { ret = __dhd_fixed_ring_lock_get_first(&ring->fixed); } DHD_RING_SYNC_UNLOCK(ring->ring_sync, flags); return ret; } void * dhd_ring_lock_get_last(void *_ring) { dhd_ring_info_t *ring = (dhd_ring_info_t *)_ring; void *ret = NULL; unsigned long flags; if (!ring || ring->magic != DHD_RING_MAGIC) { DHD_RING_ERR(("%s :INVALID RING INFO\n", __FUNCTION__)); return NULL; } DHD_RING_SYNC_LOCK(ring->ring_sync, flags); if (ring->type == DHD_RING_TYPE_FIXED) { ret = __dhd_fixed_ring_lock_get_last(&ring->fixed); } DHD_RING_SYNC_UNLOCK(ring->ring_sync, flags); return ret; } int dhd_ring_lock_get_count(void *_ring) { dhd_ring_info_t *ring = (dhd_ring_info_t *)_ring; int ret = BCME_ERROR; unsigned long flags; if (!ring || ring->magic != DHD_RING_MAGIC) { DHD_RING_ERR(("%s :INVALID RING INFO\n", __FUNCTION__)); return ret; } DHD_RING_SYNC_LOCK(ring->ring_sync, flags); if (ring->type == DHD_RING_TYPE_FIXED) { ret = __dhd_fixed_ring_lock_get_count(&ring->fixed); } DHD_RING_SYNC_UNLOCK(ring->ring_sync, flags); return ret; } /* free first locked element */ void dhd_ring_lock_free_first(void *_ring) { dhd_ring_info_t *ring = (dhd_ring_info_t *)_ring; unsigned long flags; if (!ring || ring->magic != DHD_RING_MAGIC) { DHD_RING_ERR(("%s :INVALID RING INFO\n", __FUNCTION__)); return; } DHD_RING_SYNC_LOCK(ring->ring_sync, flags); if (ring->type == DHD_RING_TYPE_FIXED) { __dhd_fixed_ring_lock_free_first(&ring->fixed); } DHD_RING_SYNC_UNLOCK(ring->ring_sync, flags); } void dhd_ring_whole_lock(void *_ring) { dhd_ring_info_t *ring = (dhd_ring_info_t *)_ring; unsigned long flags; if (!ring || ring->magic != DHD_RING_MAGIC) { DHD_RING_ERR(("%s :INVALID RING INFO\n", __FUNCTION__)); return; } DHD_RING_SYNC_LOCK(ring->ring_sync, flags); if (ring->type == DHD_RING_TYPE_SINGLE_IDX) { __dhd_singleidx_ring_whole_lock(&ring->single); } DHD_RING_SYNC_UNLOCK(ring->ring_sync, flags); } void dhd_ring_whole_unlock(void *_ring) { dhd_ring_info_t *ring = (dhd_ring_info_t *)_ring; unsigned long flags; if (!ring || ring->magic != DHD_RING_MAGIC) { DHD_RING_ERR(("%s :INVALID RING INFO\n", __FUNCTION__)); return; } DHD_RING_SYNC_LOCK(ring->ring_sync, flags); if (ring->type == DHD_RING_TYPE_SINGLE_IDX) { __dhd_singleidx_ring_whole_unlock(&ring->single); } DHD_RING_SYNC_UNLOCK(ring->ring_sync, flags); } /* END of DHD RING */ #if (LINUX_VERSION_CODE < KERNEL_VERSION(3, 19, 0)) #define DHD_VFS_INODE(dir) (dir->d_inode) #else #define DHD_VFS_INODE(dir) d_inode(dir) #endif /* LINUX_VERSION_CODE < KERNEL_VERSION(3, 19, 0) */ #ifdef DHD_SUPPORT_VFS_CALL #if (LINUX_VERSION_CODE < KERNEL_VERSION(3, 13, 0)) #define DHD_VFS_UNLINK(dir, b, c) vfs_unlink(DHD_VFS_INODE(dir), b) #else #define DHD_VFS_UNLINK(dir, b, c) vfs_unlink(DHD_VFS_INODE(dir), b, c) #endif /* LINUX_VERSION_CODE < KERNEL_VERSION(3, 13, 0) */ #else #define DHD_VFS_UNLINK(dir, b, c) 0 #endif /* DHD_SUPPORT_VFS_CALL */ int dhd_file_delete(char *path) { struct path file_path = {.dentry = 0}; int err; struct dentry *dir; err = dhd_kern_path(path, 0, &file_path); if (err < 0) { DHD_ERROR(("Failed to get kern-path delete file: %s error: %d\n", path, err)); return err; } if ( #if (LINUX_VERSION_CODE >= KERNEL_VERSION(3, 13, 0)) !d_is_file(file_path.dentry) || #if (LINUX_VERSION_CODE > KERNEL_VERSION(4, 1, 0)) d_really_is_negative(file_path.dentry) || #endif /* LINUX_VERSION_CODE > KERNEL_VERSION(4, 1, 0) */ #endif /* LINUX_VERSION_CODE >= KERNEL_VERSION(3, 13, 0) */ FALSE) { err = -EINVAL; } else { dir = dget_parent(file_path.dentry); if (!IS_ERR(dir)) { err = DHD_VFS_UNLINK(dir, file_path.dentry, NULL); dput(dir); } else { err = PTR_ERR(dir); } } path_put(&file_path); if (err < 0) { DHD_ERROR(("Failed to delete file: %s error: %d\n", path, err)); } return err; } #ifdef DHD_DUMP_MNGR static int dhd_dump_file_manage_idx(dhd_dump_file_manage_t *fm_ptr, char *fname) { int i; int fm_idx = -1; for (i = 0; i < DHD_DUMP_TYPE_COUNT_MAX; i++) { /* XXX dump file manager enqueues the type name to empty slot, * so it's impossible that empty slot is in the middle. */ if (strlen(fm_ptr->elems[i].type_name) == 0) { fm_idx = i; break; } if (!(strncmp(fname, fm_ptr->elems[i].type_name, strlen(fname)))) { fm_idx = i; break; } } if (fm_idx == -1) { return fm_idx; } if (strlen(fm_ptr->elems[fm_idx].type_name) == 0) { strncpy(fm_ptr->elems[fm_idx].type_name, fname, DHD_DUMP_TYPE_NAME_SIZE); fm_ptr->elems[fm_idx].type_name[DHD_DUMP_TYPE_NAME_SIZE - 1] = '\0'; fm_ptr->elems[fm_idx].file_idx = 0; } return fm_idx; } /* * dhd_dump_file_manage_enqueue - enqueue dump file path * and delete odest file if file count is max. */ void dhd_dump_file_manage_enqueue(dhd_pub_t *dhd, char *dump_path, char *fname) { int fm_idx; int fp_idx; dhd_dump_file_manage_t *fm_ptr; DFM_elem_t *elem; if (!dhd || !dhd->dump_file_manage) { DHD_ERROR(("%s(): dhdp=%p dump_file_manage=%p\n", __FUNCTION__, dhd, (dhd ? dhd->dump_file_manage : NULL))); return; } fm_ptr = dhd->dump_file_manage; /* find file_manage idx */ DHD_INFO(("%s(): fname: %s dump_path: %s\n", __FUNCTION__, fname, dump_path)); if ((fm_idx = dhd_dump_file_manage_idx(fm_ptr, fname)) < 0) { DHD_ERROR(("%s(): Out of file manager entries, fname: %s\n", __FUNCTION__, fname)); return; } elem = &fm_ptr->elems[fm_idx]; fp_idx = elem->file_idx; DHD_INFO(("%s(): fm_idx: %d fp_idx: %d path: %s\n", __FUNCTION__, fm_idx, fp_idx, elem->file_path[fp_idx])); /* delete oldest file */ if (strlen(elem->file_path[fp_idx]) != 0) { if (dhd_file_delete(elem->file_path[fp_idx]) < 0) { DHD_ERROR(("%s(): Failed to delete file: %s\n", __FUNCTION__, elem->file_path[fp_idx])); } else { DHD_ERROR(("%s(): Successed to delete file: %s\n", __FUNCTION__, elem->file_path[fp_idx])); } } /* save dump file path */ strncpy(elem->file_path[fp_idx], dump_path, DHD_DUMP_FILE_PATH_SIZE); elem->file_path[fp_idx][DHD_DUMP_FILE_PATH_SIZE - 1] = '\0'; /* change file index to next file index */ elem->file_idx = (elem->file_idx + 1) % DHD_DUMP_FILE_COUNT_MAX; } #endif /* DHD_DUMP_MNGR */ #ifdef DNGL_AXI_ERROR_LOGGING static void dhd_axi_error_dump(void *handle, void *event_info, u8 event) { dhd_info_t *dhd = (dhd_info_t *)handle; dhd_pub_t *dhdp = NULL; if (!dhd) { DHD_ERROR(("%s: dhd is NULL\n", __FUNCTION__)); goto exit; } dhdp = &dhd->pub; if (!dhdp) { DHD_ERROR(("%s: dhdp is NULL\n", __FUNCTION__)); goto exit; } /** * First save axi error information to a file * because panic should happen right after this. * After dhd reset, dhd reads the file, and do hang event process * to send axi error stored on the file to Bigdata server */ if (dhdp->axi_err_dump->etd_axi_error_v1.version != HND_EXT_TRAP_AXIERROR_VERSION_1) { DHD_ERROR(("%s: Invalid AXI version: 0x%x\n", __FUNCTION__, dhdp->axi_err_dump->etd_axi_error_v1.version)); } DHD_OS_WAKE_LOCK(dhdp); #ifdef DHD_FW_COREDUMP #ifdef DHD_SSSR_DUMP DHD_ERROR(("%s : Set collect_sssr as TRUE\n", __FUNCTION__)); dhdp->collect_sssr = TRUE; #endif /* DHD_SSSR_DUMP */ DHD_ERROR(("%s: scheduling mem dump.. \n", __FUNCTION__)); dhd_schedule_memdump(dhdp, dhdp->soc_ram, dhdp->soc_ram_length); #endif /* DHD_FW_COREDUMP */ DHD_OS_WAKE_UNLOCK(dhdp); exit: /* Trigger kernel panic after taking necessary dumps */ BUG_ON(1); } void dhd_schedule_axi_error_dump(dhd_pub_t *dhdp, void *type) { DHD_ERROR(("%s: scheduling axi_error_dump.. \n", __FUNCTION__)); dhd_deferred_schedule_work(dhdp->info->dhd_deferred_wq, type, DHD_WQ_WORK_AXI_ERROR_DUMP, dhd_axi_error_dump, DHD_WQ_WORK_PRIORITY_HIGH); } #endif /* DNGL_AXI_ERROR_LOGGING */ #ifdef SUPPORT_SET_TID /* * Set custom TID value for UDP frame based on UID value. * This will be triggered by android private command below. * DRIVER SET_TID * Mode 0(SET_TID_OFF) : Disable changing TID * Mode 1(SET_TID_ALL_UDP) : Change TID for all UDP frames * Mode 2(SET_TID_BASED_ON_UID) : Change TID for UDP frames based on target UID */ void dhd_set_tid_based_on_uid(dhd_pub_t *dhdp, void *pkt) { struct ether_header *eh = NULL; struct sock *sk = NULL; uint8 *pktdata = NULL; uint8 *ip_hdr = NULL; uint8 cur_prio; uint8 prio; uint32 uid; if (dhdp->tid_mode == SET_TID_OFF) { return; } pktdata = (uint8 *)PKTDATA(dhdp->osh, pkt); eh = (struct ether_header *) pktdata; ip_hdr = (uint8 *)eh + ETHER_HDR_LEN; if (IPV4_PROT(ip_hdr) != IP_PROT_UDP) { return; } cur_prio = PKTPRIO(pkt); prio = dhdp->target_tid; uid = dhdp->target_uid; if ((cur_prio == prio) || (cur_prio != PRIO_8021D_BE)) { return; } sk = ((struct sk_buff*)(pkt))->sk; if ((dhdp->tid_mode == SET_TID_ALL_UDP) || (sk && (uid == __kuid_val(sock_i_uid(sk))))) { PKTSETPRIO(pkt, prio); } } #endif /* SUPPORT_SET_TID */ #ifdef BCMPCIE static void dhd_cto_recovery_handler(void *handle, void *event_info, u8 event) { dhd_info_t *dhd = handle; dhd_pub_t *dhdp = NULL; if (!dhd) { DHD_ERROR(("%s: dhd is NULL\n", __FUNCTION__)); BUG_ON(1); return; } dhdp = &dhd->pub; if (dhdp->dhd_induce_error == DHD_INDUCE_BH_CBP_HANG) { DHD_ERROR(("%s: skip cto recovery for DHD_INDUCE_BH_CBP_HANG\n", __FUNCTION__)); return; } dhdpcie_cto_recovery_handler(dhdp); } void dhd_schedule_cto_recovery(dhd_pub_t *dhdp) { if (dhdp->up == FALSE) { DHD_ERROR(("%s : skip scheduling cto because dhd is not up\n", __FUNCTION__)); return; } DHD_ERROR(("%s: scheduling cto recovery.. \n", __FUNCTION__)); dhd_deferred_schedule_work(dhdp->info->dhd_deferred_wq, NULL, DHD_WQ_WORK_CTO_RECOVERY, dhd_cto_recovery_handler, DHD_WQ_WORK_PRIORITY_HIGH); } #endif /* BCMPCIE */ #ifdef DHD_WIFI_SHUTDOWN void wifi_plat_dev_drv_shutdown(struct platform_device *pdev) { dhd_pub_t *dhd_pub = NULL; dhd_info_t *dhd_info = NULL; dhd_if_t *dhd_if = NULL; DHD_ERROR(("%s enter\n", __FUNCTION__)); dhd_pub = g_dhd_pub; if (dhd_os_check_if_up(dhd_pub)) { dhd_info = (dhd_info_t *)dhd_pub->info; dhd_if = dhd_info->iflist[0]; ASSERT(dhd_if); ASSERT(dhd_if->net); if (dhd_if && dhd_if->net) { dhd_stop(dhd_if->net); } } } #endif /* DHD_WIFI_SHUTDOWN */ #ifdef WL_AUTO_QOS void dhd_wl_sock_qos_set_status(dhd_pub_t *dhdp, unsigned long on_off) { dhd_sock_qos_set_status(dhdp->info, on_off); } #endif /* WL_AUTO_QOS */ #ifdef DHD_CFG80211_SUSPEND_RESUME void dhd_cfg80211_suspend(dhd_pub_t *dhdp) { struct net_device *net = dhd_idx2net((dhd_pub_t *)dhdp, 0); struct bcm_cfg80211 *cfg = wl_get_cfg(net); wl_cfg80211_suspend(cfg); } void dhd_cfg80211_resume(dhd_pub_t *dhdp) { struct net_device * net = dhd_idx2net((dhd_pub_t *)dhdp, 0); struct bcm_cfg80211 *cfg = wl_get_cfg(net); wl_cfg80211_resume(cfg); } #endif /* DHD_CFG80211_SUSPEND_RESUME */ void dhd_generate_rand_mac_addr(struct ether_addr *ea_addr) { RANDOM_BYTES(ea_addr->octet, ETHER_ADDR_LEN); /* restore mcast and local admin bits to 0 and 1 */ ETHER_SET_UNICAST(ea_addr->octet); ETHER_SET_LOCALADDR(ea_addr->octet); DHD_ERROR(("%s:generated new MAC="MACDBG" \n", __FUNCTION__, MAC2STRDBG(ea_addr->octet))); return; } void * dhd_get_roam_evt(dhd_pub_t *dhdp) { #if defined(DHD_PUB_ROAM_EVT) return (void *)&(dhdp->roam_evt); #else return NULL; #endif /* DHD_PUB_ROAM_EVT */ } /* BANDLOCK_FILE is for Hikey only and BANDLOCK has a priority than BANDLOCK_FILE */ static void dhd_set_bandlock(dhd_pub_t * dhd) { #if defined(BANDLOCK) int band = BANDLOCK; if (dhd_wl_ioctl_cmd(dhd, WLC_SET_BAND, &band, sizeof(band), TRUE, 0) < 0) { DHD_ERROR(("%s: set band(%d) error\n", __FUNCTION__, band)); } #elif defined(BANDLOCK_FILE) int band; char val[2] = {0, 0}; if (dhd_read_file(PATH_BANDLOCK_INFO, (char *)val, sizeof(char)) == BCME_OK) { band = bcm_atoi(val); if (dhd_wl_ioctl_cmd(dhd, WLC_SET_BAND, &band, sizeof(band), TRUE, 0) < 0) { DHD_ERROR(("%s: set band(%d) error\n", __FUNCTION__, band)); } } #endif /* BANDLOCK */ } void dhd_set_del_in_progress(dhd_pub_t *dhdp, struct net_device *ndev) { dhd_if_t *ifp = NULL; unsigned long flags; DHD_ERROR(("%s\n", __FUNCTION__)); ifp = dhd_get_ifp_by_ndev(dhdp, ndev); if (ifp == NULL) { DHD_ERROR(("DHD Iface Info corresponding to %s not found\n", ndev->name)); return; } DHD_GENERAL_LOCK(dhdp, flags); ifp->del_in_progress = TRUE; DHD_GENERAL_UNLOCK(dhdp, flags); } void dhd_clear_del_in_progress(dhd_pub_t *dhdp, struct net_device *ndev) { dhd_if_t *ifp = NULL; unsigned long flags; DHD_ERROR(("%s\n", __FUNCTION__)); ifp = dhd_get_ifp_by_ndev(dhdp, ndev); if (ifp == NULL) { DHD_ERROR(("DHD Iface Info corresponding to %s not found\n", ndev->name)); return; } DHD_GENERAL_LOCK(dhdp, flags); ifp->del_in_progress = FALSE; DHD_GENERAL_UNLOCK(dhdp, flags); } #ifdef PCIE_FULL_DONGLE /* API to delete flowings and Stations * corresponding to the interface(ndev) */ void dhd_net_del_flowrings_sta(dhd_pub_t *dhd, struct net_device *ndev) { dhd_if_t *ifp = NULL; ifp = dhd_get_ifp_by_ndev(dhd, ndev); if (ifp == NULL) { DHD_ERROR(("DHD Iface Info corresponding to %s not found\n", ndev->name)); return; } /* For now called only in iface delete path.. * Add reason codes if this API need to be reused in any other paths. */ DHD_ERROR(("%s:Clean up IFACE idx %d due to interface delete\n", __FUNCTION__, ifp->idx)); dhd_del_all_sta(dhd, ifp->idx); /* Try to resume if already suspended or suspend in progress */ #ifdef DHD_PCIE_RUNTIMEPM dhdpcie_runtime_bus_wake(dhd, CAN_SLEEP(), __builtin_return_address(0)); #endif /* DHD_PCIE_RUNTIMEPM */ dhd_flow_rings_delete(dhd, ifp->idx); } #endif /* PCIE_FULL_DONGLE */ static void dhd_deferred_socram_dump(void *handle, void *event_info, u8 event) { #ifndef BCMDBUS dhd_pub_t *dhdp = (dhd_pub_t *)event_info; DHD_ERROR(("%s ... scheduled to collect memdump over bus\n", __FUNCTION__)); dhd_socram_dump(dhdp->bus); #else DHD_ERROR(("%s Not collecting socram dump for BCMDBUS\n", __FUNCTION__)); return; #endif /* BCMDBUS */ } int dhd_schedule_socram_dump(dhd_pub_t *dhdp) { int ret = 0; ret = dhd_deferred_schedule_work(dhdp->info->dhd_deferred_wq, (void *)dhdp, DHD_WQ_WORK_SOC_RAM_COLLECT, dhd_deferred_socram_dump, DHD_WQ_WORK_PRIORITY_HIGH); return ret; } #ifdef WL_CFGVENDOR_SEND_ALERT_EVENT void dhd_alert_process(struct work_struct *work_data) { struct net_device *dev; dhd_info_t *dhd_info = NULL; dhd_pub_t *dhdp = NULL; /* Ignore compiler warnings due to -Werror=cast-qual */ GCC_DIAGNOSTIC_PUSH_SUPPRESS_CAST(); dhd_info = container_of(work_data, dhd_info_t, dhd_alert_process_work); GCC_DIAGNOSTIC_POP(); dhdp = &dhd_info->pub; if (!dhdp) { DHD_ERROR(("dhd is NULL\n")); return; } dev = dhd_linux_get_primary_netdev(dhdp); if (dev) { wl_cfg80211_alert(dev); } } int dhd_os_send_alert_message(dhd_pub_t *dhdp) { int ret = 0; dhd_info_t *dhd_info = NULL; #ifdef WL_CFG80211 struct net_device *primary_ndev; struct bcm_cfg80211 *cfg; #endif /* WL_CFG80211 */ if (!dhdp) { DHD_ERROR(("dhdp is null\n")); return -EINVAL; } dhd_info = (dhd_info_t *)dhdp->info; BCM_REFERENCE(dhd_info); #ifdef WL_CFG80211 primary_ndev = dhd_linux_get_primary_netdev(dhdp); if (!primary_ndev) { DHD_ERROR(("Cannot find primary netdev\n")); return -ENODEV; } cfg = wl_get_cfg(primary_ndev); if (!cfg) { DHD_ERROR(("Cannot find cfg\n")); return -EINVAL; } /* Skip sending ALERT event to framework if driver is not ready */ if (!wl_get_drv_status(cfg, READY, primary_ndev)) { DHD_ERROR(("device is not ready\n")); return -ENODEV; } schedule_work(&dhdp->info->dhd_alert_process_work); #endif /* WL_CFG80211 */ return ret; } #endif /* WL_CFGVENDOR_SEND_ALERT_EVENT */ void *dhd_irq_to_desc(unsigned int irq) { #if (LINUX_VERSION_CODE >= KERNEL_VERSION(5, 11, 0)) struct irq_data *irqdata = irq_get_irq_data(irq); struct irq_desc *desc; if (!irqdata) { DHD_ERROR(("%s : irqdata is not found \n", __FUNCTION__)); return NULL; } desc = irq_data_to_desc(irqdata); #else struct irq_desc *desc = irq_to_desc(irq); #endif /* LINUX_VERSION_CODE >= KERNEL_VERSION(5, 11, 0) */ return (void *)desc; } int dhd_dev_set_accel_force_reg_on(struct net_device *dev) { #if defined(WLAN_ACCEL_BOOT) dhd_info_t *dhd_info = *(dhd_info_t **)netdev_priv(dev); if (dhd_info && !dhd_info->wl_accel_force_reg_on) { DHD_ERROR(("%s: set force reg on\n", __FUNCTION__)); dhd_info->wl_accel_force_reg_on = TRUE; } #endif /* WLAN_ACCEL_BOOT */ return BCME_OK; } #ifdef TPUT_DEBUG_DUMP bool dhd_get_napi_sched_cnt(dhd_pub_t * dhdp, uint32 **napi_cnts, uint32 **txp_cnts, uint32 **tx_start_cnts) { struct dhd_info *dhd = NULL; if (!dhdp) { WL_ERR(("Invaslid dhd_pub\n")); return FALSE; } dhd = dhdp->info; if (!dhd) { WL_ERR(("Invaslid dhd_info\n")); return FALSE; } *napi_cnts = dhd->napi_percpu_run_cnt; *txp_cnts = dhd->txp_percpu_run_cnt; *tx_start_cnts = dhd->tx_start_percpu_run_cnt; return TRUE; } #endif /* TPUT_DEBUG_DUMP */ #ifdef CONFIG_ARCH_EXYNOS #if IS_ENABLED(CONFIG_EXYNOS_S2MPU) /* * return * S2MPUFD_NOTIFY_BAD : watchdog reset * S2MPUFD_NOTIFY_OK : No watchdog reset */ int s2mpufd_notifier_callback(struct s2mpufd_notifier_block *block, struct s2mpufd_notifier_info *info) { int ret = S2MPUFD_NOTIFY_OK; DHD_ERROR(("%s: fault_addr:0x%lx, rw:%d, len:%d, type:%d \n", __FUNCTION__, info->fault_addr, info->fault_rw, info->fault_len, info->fault_type)); dhd_smmu_fault_handler(0, info->fault_addr); DHD_ERROR(("%s: return : %d\n", __FUNCTION__, ret)); return ret; } static void dhd_module_s2mpu_register(struct device *dev) { struct s2mpufd_notifier_block *s2mpu_nb = NULL; DHD_ERROR(("%s: Enter\n", __FUNCTION__)); s2mpu_nb = devm_kzalloc(dev, sizeof(struct s2mpufd_notifier_block), GFP_KERNEL); if (!s2mpu_nb) { DHD_ERROR(("%s: devm_kzalloc fail\n", __FUNCTION__)); return; } s2mpu_nb->subsystem = "PCIE_GEN2"; s2mpu_nb->notifier_call = s2mpufd_notifier_callback; s2mpufd_notifier_call_register(s2mpu_nb); } #endif /* CONFIG_EXYNOS_S2MPU */ #endif /* CONFIG_ARCH_EXYNOS */ #ifdef BCMDBUS struct device *dhd_bus_to_dev(struct dhd_bus *bus) { return (struct device *)dbus_get_dev(); } #endif /* BCMDBUS */ #if defined(DHD_FILE_DUMP_EVENT) && defined(DHD_FW_COREDUMP) dhd_dongledump_status_t dhd_get_dump_status(dhd_pub_t *pub) { dhd_info_t *dhd = (dhd_info_t *)(pub->info); return OSL_ATOMIC_READ(pub->osh, &dhd->dump_status); } void dhd_set_dump_status(dhd_pub_t *pub, dhd_dongledump_status_t dump_status) { dhd_info_t *dhd = (dhd_info_t *)(pub->info); OSL_ATOMIC_SET(pub->osh, &dhd->dump_status, dump_status); } static void dhd_dump_proc(struct work_struct *work_data) { dhd_info_t *dhd_info = NULL; dhd_pub_t *dhdp = NULL; /* Ignore compiler warnings due to -Werror=cast-qual */ GCC_DIAGNOSTIC_PUSH_SUPPRESS_CAST(); dhd_info = container_of(work_data, dhd_info_t, dhd_dump_proc_work); GCC_DIAGNOSTIC_POP(); if (!dhd_info || ((dhdp = &dhd_info->pub) == NULL)) { DHD_ERROR(("dhd is NULL\n")); return; } dhd_log_dump_trigger(dhdp, CMD_DEFAULT); } #endif /* DHD_FILE_DUMP_EVENT && DHD_FW_COREDUMP */