/* * Copyright (C) 2020 The Android Open Source Project * * Licensed under the Apache License, Version 2.0 (the "License"); * you may not use this file except in compliance with the License. * You may obtain a copy of the License at * * http://www.apache.org/licenses/LICENSE-2.0 * * Unless required by applicable law or agreed to in writing, software * distributed under the License is distributed on an "AS IS" BASIS, * WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied. * See the License for the specific language governing permissions and * limitations under the License. */ #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include using aidl::android::hardware::power::stats::AocTimedStateResidencyDataProvider; using aidl::android::hardware::power::stats::DevfreqStateResidencyDataProvider; using aidl::android::hardware::power::stats::DvfsStateResidencyDataProvider; using aidl::android::hardware::power::stats::UfsStateResidencyDataProvider; using aidl::android::hardware::power::stats::EnergyConsumerType; using aidl::android::hardware::power::stats::GenericStateResidencyDataProvider; using aidl::android::hardware::power::stats::IioEnergyMeterDataProvider; using aidl::android::hardware::power::stats::PixelStateResidencyDataProvider; using aidl::android::hardware::power::stats::PowerStatsEnergyConsumer; using aidl::android::hardware::power::stats::WlanStateResidencyDataProvider; // TODO (b/181070764) (b/182941084): // Remove this when Wifi/BT energy consumption models are available or revert before ship using aidl::android::hardware::power::stats::EnergyConsumerResult; using aidl::android::hardware::power::stats::Channel; using aidl::android::hardware::power::stats::EnergyMeasurement; class PlaceholderEnergyConsumer : public PowerStats::IEnergyConsumer { public: PlaceholderEnergyConsumer(std::shared_ptr p, EnergyConsumerType type, std::string name) : kType(type), kName(name), mPowerStats(p), mChannelId(-1) { std::vector channels; mPowerStats->getEnergyMeterInfo(&channels); for (const auto &c : channels) { if (c.name == "VSYS_PWR_WLAN_BT") { mChannelId = c.id; break; } } } std::pair getInfo() override { return {kType, kName}; } std::optional getEnergyConsumed() override { int64_t totalEnergyUWs = 0; int64_t timestampMs = 0; if (mChannelId != -1) { std::vector measurements; if (mPowerStats->readEnergyMeter({mChannelId}, &measurements).isOk()) { for (const auto &m : measurements) { totalEnergyUWs += m.energyUWs; timestampMs = m.timestampMs; } } else { LOG(ERROR) << "Failed to read energy meter"; return {}; } } return EnergyConsumerResult{.timestampMs = timestampMs, .energyUWs = totalEnergyUWs>>1}; } std::string getConsumerName() override { return kName; }; private: const EnergyConsumerType kType; const std::string kName; std::shared_ptr mPowerStats; int32_t mChannelId; }; void addPlaceholderEnergyConsumers(std::shared_ptr p) { p->addEnergyConsumer( std::make_unique(p, EnergyConsumerType::WIFI, "Wifi")); p->addEnergyConsumer( std::make_unique(p, EnergyConsumerType::BLUETOOTH, "BT")); } void addAoC(std::shared_ptr p) { // When the given timeout is 0, the timeout will be replaced with "120ms * statesCount". static const uint64_t TIMEOUT_MILLIS = 0; // AoC clock is synced from "libaoc.c" static const uint64_t AOC_CLOCK = 24576; std::string prefix = "/sys/devices/platform/19000000.aoc/control/"; // Add AoC cores (a32, ff1, hf0, and hf1) std::vector> coreIds = { {"AoC-A32", prefix + "a32_"}, {"AoC-FF1", prefix + "ff1_"}, {"AoC-HF1", prefix + "hf1_"}, {"AoC-HF0", prefix + "hf0_"}, }; std::vector> coreStates = { {"DWN", "off"}, {"RET", "retention"}, {"WFI", "wfi"}}; p->addStateResidencyDataProvider(std::make_unique(coreIds, coreStates, TIMEOUT_MILLIS, AOC_CLOCK)); // Add AoC voltage stats std::vector> voltageIds = { {"AoC-Voltage", prefix + "voltage_"}, }; std::vector> voltageStates = {{"NOM", "nominal"}, {"SUD", "super_underdrive"}, {"UUD", "ultra_underdrive"}, {"UD", "underdrive"}}; p->addStateResidencyDataProvider( std::make_unique(voltageIds, voltageStates, TIMEOUT_MILLIS, AOC_CLOCK)); // Add AoC monitor mode std::vector> monitorIds = { {"AoC", prefix + "monitor_"}, }; std::vector> monitorStates = { {"MON", "mode"}, }; p->addStateResidencyDataProvider( std::make_unique(monitorIds, monitorStates, TIMEOUT_MILLIS, AOC_CLOCK)); // Add AoC restart count const GenericStateResidencyDataProvider::StateResidencyConfig restartCountConfig = { .entryCountSupported = true, .entryCountPrefix = "", .totalTimeSupported = false, .lastEntrySupported = false, }; const std::vector> restartCountHeaders = { std::make_pair("RESTART", ""), }; std::vector cfgs; cfgs.emplace_back( generateGenericStateResidencyConfigs(restartCountConfig, restartCountHeaders), "AoC-Count", ""); p->addStateResidencyDataProvider(std::make_unique( "/sys/devices/platform/19000000.aoc/restart_count", cfgs)); } void addDvfsStats(std::shared_ptr p) { // A constant to represent the number of nanoseconds in one millisecond const int NS_TO_MS = 1000000; std::vector cfgs; cfgs.push_back({"TPU", { std::make_pair("1066MHz", "1066000"), std::make_pair("845MHz", "845000"), std::make_pair("627MHz", "627000"), std::make_pair("401MHz", "401000"), std::make_pair("226MHz", "226000"), std::make_pair("0MHz", "0"), }}); cfgs.push_back({"AUR", { std::make_pair("1160MHz", "1160000"), std::make_pair("750MHz", "750000"), std::make_pair("373MHz", "373000"), std::make_pair("178MHz", "178000"), std::make_pair("0MHz", "0"), }}); p->addStateResidencyDataProvider(std::make_unique( "/sys/devices/platform/acpm_stats/fvp_stats", NS_TO_MS, cfgs)); } void addSoC(std::shared_ptr p) { // A constant to represent the number of nanoseconds in one millisecond. const int NS_TO_MS = 1000000; // ACPM stats are reported in nanoseconds. The transform function // converts nanoseconds to milliseconds. std::function acpmNsToMs = [](uint64_t a) { return a / NS_TO_MS; }; const GenericStateResidencyDataProvider::StateResidencyConfig lpmStateConfig = { .entryCountSupported = true, .entryCountPrefix = "success_count:", .totalTimeSupported = true, .totalTimePrefix = "total_time_ns:", .totalTimeTransform = acpmNsToMs, .lastEntrySupported = true, .lastEntryPrefix = "last_entry_time_ns:", .lastEntryTransform = acpmNsToMs, }; const GenericStateResidencyDataProvider::StateResidencyConfig downStateConfig = { .entryCountSupported = true, .entryCountPrefix = "down_count:", .totalTimeSupported = true, .totalTimePrefix = "total_down_time_ns:", .totalTimeTransform = acpmNsToMs, .lastEntrySupported = true, .lastEntryPrefix = "last_down_time_ns:", .lastEntryTransform = acpmNsToMs, }; const GenericStateResidencyDataProvider::StateResidencyConfig reqStateConfig = { .entryCountSupported = true, .entryCountPrefix = "req_up_count:", .totalTimeSupported = true, .totalTimePrefix = "total_req_up_time_ns:", .totalTimeTransform = acpmNsToMs, .lastEntrySupported = true, .lastEntryPrefix = "last_req_up_time_ns:", .lastEntryTransform = acpmNsToMs, }; const std::vector> powerStateHeaders = { std::make_pair("SICD", "SICD"), std::make_pair("SLEEP", "SLEEP"), std::make_pair("SLEEP_SLCMON", "SLEEP_SLCMON"), std::make_pair("SLEEP_HSI1ON", "SLEEP_HSI1ON"), std::make_pair("STOP", "STOP"), }; const std::vector> mifReqStateHeaders = { std::make_pair("AOC", "AOC"), std::make_pair("GSA", "GSA"), std::make_pair("TPU", "TPU"), }; const std::vector> slcReqStateHeaders = { std::make_pair("AOC", "AOC"), }; std::vector cfgs; cfgs.emplace_back(generateGenericStateResidencyConfigs(lpmStateConfig, powerStateHeaders), "LPM", "LPM:"); cfgs.emplace_back(generateGenericStateResidencyConfigs(downStateConfig, powerStateHeaders), "MIF", "MIF:"); cfgs.emplace_back(generateGenericStateResidencyConfigs(reqStateConfig, mifReqStateHeaders), "MIF-REQ", "MIF_REQ:"); cfgs.emplace_back(generateGenericStateResidencyConfigs(downStateConfig, powerStateHeaders), "SLC", "SLC:"); cfgs.emplace_back(generateGenericStateResidencyConfigs(reqStateConfig, slcReqStateHeaders), "SLC-REQ", "SLC_REQ:"); p->addStateResidencyDataProvider(std::make_unique( "/sys/devices/platform/acpm_stats/soc_stats", cfgs)); } void setEnergyMeter(std::shared_ptr p) { std::vector deviceNames { "s2mpg12-odpm", "s2mpg13-odpm" }; p->setEnergyMeterDataProvider(std::make_unique(deviceNames, true)); } void addCPUclusters(std::shared_ptr p) { // A constant to represent the number of nanoseconds in one millisecond. const int NS_TO_MS = 1000000; std::function acpmNsToMs = [](uint64_t a) { return a / NS_TO_MS; }; const GenericStateResidencyDataProvider::StateResidencyConfig cpuStateConfig = { .entryCountSupported = true, .entryCountPrefix = "down_count:", .totalTimeSupported = true, .totalTimePrefix = "total_down_time_ns:", .totalTimeTransform = acpmNsToMs, .lastEntrySupported = true, .lastEntryPrefix = "last_down_time_ns:", .lastEntryTransform = acpmNsToMs, }; const std::vector> cpuStateHeaders = { std::make_pair("DOWN", ""), }; std::vector cfgs; for (std::string name : {"CORE00", "CORE01", "CORE02", "CORE03", "CORE10", "CORE11", "CORE20", "CORE21", "CLUSTER0", "CLUSTER1", "CLUSTER2"}) { cfgs.emplace_back(generateGenericStateResidencyConfigs(cpuStateConfig, cpuStateHeaders), name, name); } p->addStateResidencyDataProvider(std::make_unique( "/sys/devices/platform/acpm_stats/core_stats", cfgs)); p->addEnergyConsumer(PowerStatsEnergyConsumer::createMeterConsumer(p, EnergyConsumerType::CPU_CLUSTER, "CPUCL0", {"S4M_VDD_CPUCL0"})); p->addEnergyConsumer(PowerStatsEnergyConsumer::createMeterConsumer(p, EnergyConsumerType::CPU_CLUSTER, "CPUCL1", {"S3M_VDD_CPUCL1"})); p->addEnergyConsumer(PowerStatsEnergyConsumer::createMeterConsumer(p, EnergyConsumerType::CPU_CLUSTER, "CPUCL2", {"S2M_VDD_CPUCL2"})); } void addGPU(std::shared_ptr p) { // Add gpu energy consumer std::map stateCoeffs; // TODO (b/197721618): Measuring the GPU power numbers stateCoeffs = { {"202000", 890}, {"251000", 1102}, {"302000", 1308}, {"351000", 1522}, {"400000", 1772}, {"471000", 2105}, {"510000", 2292}, {"572000", 2528}, {"701000", 3127}, {"762000", 3452}, {"848000", 4044}}; p->addEnergyConsumer(PowerStatsEnergyConsumer::createMeterAndAttrConsumer(p, EnergyConsumerType::OTHER, "GPU", {"S8S_VDD_G3D_L2", "S2S_VDD_G3D"}, {{UID_TIME_IN_STATE, "/sys/devices/platform/28000000.mali/uid_time_in_state"}}, stateCoeffs)); p->addStateResidencyDataProvider(std::make_unique("GPU", "/sys/devices/platform/28000000.mali")); } void addMobileRadio(std::shared_ptr p) { // A constant to represent the number of microseconds in one millisecond. const int US_TO_MS = 1000; // modem power_stats are reported in microseconds. The transform function // converts microseconds to milliseconds. std::function modemUsToMs = [](uint64_t a) { return a / US_TO_MS; }; const GenericStateResidencyDataProvider::StateResidencyConfig powerStateConfig = { .entryCountSupported = true, .entryCountPrefix = "count:", .totalTimeSupported = true, .totalTimePrefix = "duration_usec:", .totalTimeTransform = modemUsToMs, .lastEntrySupported = true, .lastEntryPrefix = "last_entry_timestamp_usec:", .lastEntryTransform = modemUsToMs, }; const std::vector> powerStateHeaders = { std::make_pair("SLEEP", "SLEEP:"), }; std::vector cfgs; cfgs.emplace_back(generateGenericStateResidencyConfigs(powerStateConfig, powerStateHeaders), "MODEM", ""); p->addStateResidencyDataProvider(std::make_unique( "/sys/devices/platform/cpif/modem/power_stats", cfgs)); p->addEnergyConsumer(PowerStatsEnergyConsumer::createMeterConsumer(p, EnergyConsumerType::MOBILE_RADIO, "MODEM", {"VSYS_PWR_MODEM", "VSYS_PWR_RFFE", "VSYS_PWR_MMWAVE"})); } void addGNSS(std::shared_ptr p) { // A constant to represent the number of microseconds in one millisecond. const int US_TO_MS = 1000; // gnss power_stats are reported in microseconds. The transform function // converts microseconds to milliseconds. std::function gnssUsToMs = [](uint64_t a) { return a / US_TO_MS; }; const GenericStateResidencyDataProvider::StateResidencyConfig gnssStateConfig = { .entryCountSupported = true, .entryCountPrefix = "count:", .totalTimeSupported = true, .totalTimePrefix = "duration_usec:", .totalTimeTransform = gnssUsToMs, .lastEntrySupported = true, .lastEntryPrefix = "last_entry_timestamp_usec:", .lastEntryTransform = gnssUsToMs, }; const std::vector> gnssStateHeaders = { std::make_pair("ON", "GPS_ON:"), std::make_pair("OFF", "GPS_OFF:"), }; std::vector cfgs; cfgs.emplace_back(generateGenericStateResidencyConfigs(gnssStateConfig, gnssStateHeaders), "GPS", ""); p->addStateResidencyDataProvider(std::make_unique( "/dev/bbd_pwrstat", cfgs)); p->addEnergyConsumer(PowerStatsEnergyConsumer::createMeterConsumer(p, EnergyConsumerType::GNSS, "GPS", {"L9S_GNSS_CORE"})); } void addPCIe(std::shared_ptr p) { // Add PCIe power entities for Modem and WiFi const GenericStateResidencyDataProvider::StateResidencyConfig pcieStateConfig = { .entryCountSupported = true, .entryCountPrefix = "Cumulative count:", .totalTimeSupported = true, .totalTimePrefix = "Cumulative duration msec:", .lastEntrySupported = true, .lastEntryPrefix = "Last entry timestamp msec:", }; const std::vector> pcieStateHeaders = { std::make_pair("UP", "Link up:"), std::make_pair("DOWN", "Link down:"), }; // Add PCIe - Modem const std::vector pcieModemCfgs = { {generateGenericStateResidencyConfigs(pcieStateConfig, pcieStateHeaders), "PCIe-Modem", "Version: 1"} }; p->addStateResidencyDataProvider(std::make_unique( "/sys/devices/platform/11920000.pcie/power_stats", pcieModemCfgs)); // Add PCIe - WiFi const std::vector pcieWifiCfgs = { {generateGenericStateResidencyConfigs(pcieStateConfig, pcieStateHeaders), "PCIe-WiFi", "Version: 1"} }; p->addStateResidencyDataProvider(std::make_unique( "/sys/devices/platform/14520000.pcie/power_stats", pcieWifiCfgs)); } void addWifi(std::shared_ptr p) { // The transform function converts microseconds to milliseconds. std::function usecToMs = [](uint64_t a) { return a / 1000; }; const GenericStateResidencyDataProvider::StateResidencyConfig stateConfig = { .entryCountSupported = true, .entryCountPrefix = "count:", .totalTimeSupported = true, .totalTimePrefix = "duration_usec:", .totalTimeTransform = usecToMs, .lastEntrySupported = true, .lastEntryPrefix = "last_entry_timestamp_usec:", .lastEntryTransform = usecToMs, }; const GenericStateResidencyDataProvider::StateResidencyConfig pcieStateConfig = { .entryCountSupported = true, .entryCountPrefix = "count:", .totalTimeSupported = true, .totalTimePrefix = "duration_usec:", .totalTimeTransform = usecToMs, .lastEntrySupported = false, }; const std::vector> stateHeaders = { std::make_pair("AWAKE", "AWAKE:"), std::make_pair("ASLEEP", "ASLEEP:"), }; const std::vector> pcieStateHeaders = { std::make_pair("L0", "L0:"), std::make_pair("L1", "L1:"), std::make_pair("L1_1", "L1_1:"), std::make_pair("L1_2", "L1_2:"), std::make_pair("L2", "L2:"), }; const std::vector cfgs = { {generateGenericStateResidencyConfigs(stateConfig, stateHeaders), "WIFI", "WIFI"}, {generateGenericStateResidencyConfigs(pcieStateConfig, pcieStateHeaders), "WIFI-PCIE", "WIFI-PCIE"} }; p->addStateResidencyDataProvider(std::make_unique("/sys/wifi/power_stats", cfgs)); } void addWlan(std::shared_ptr p) { p->addStateResidencyDataProvider(std::make_unique( "WLAN", "/sys/kernel/wifi/power_stats")); } void addUfs(std::shared_ptr p) { p->addStateResidencyDataProvider(std::make_unique("/sys/bus/platform/devices/14700000.ufs/ufs_stats/")); } void addPowerDomains(std::shared_ptr p) { // A constant to represent the number of nanoseconds in one millisecond. const int NS_TO_MS = 1000000; std::function acpmNsToMs = [](uint64_t a) { return a / NS_TO_MS; }; const GenericStateResidencyDataProvider::StateResidencyConfig cpuStateConfig = { .entryCountSupported = true, .entryCountPrefix = "on_count:", .totalTimeSupported = true, .totalTimePrefix = "total_on_time_ns:", .totalTimeTransform = acpmNsToMs, .lastEntrySupported = true, .lastEntryPrefix = "last_on_time_ns:", .lastEntryTransform = acpmNsToMs, }; const std::vector> cpuStateHeaders = { std::make_pair("ON", ""), }; std::vector cfgs; for (std::string name : {"pd-aur", "pd-tpu", "pd-bo", "pd-tnr", "pd-gdc", "pd-mcsc", "pd-itp", "pd-ipp", "pd-g3aa", "pd-dns", "pd-pdp", "pd-csis", "pd-mfc", "pd-g2d", "pd-disp", "pd-dpu", "pd-hsi0", "pd-g3d", "pd-embedded_g3d", "pd-eh"}) { cfgs.emplace_back(generateGenericStateResidencyConfigs(cpuStateConfig, cpuStateHeaders), name, name + ":"); } p->addStateResidencyDataProvider(std::make_unique( "/sys/devices/platform/acpm_stats/pd_stats", cfgs)); } void addDevfreq(std::shared_ptr p) { p->addStateResidencyDataProvider(std::make_unique( "CL0", "/sys/devices/system/cpu/cpufreq/policy0/stats")); p->addStateResidencyDataProvider(std::make_unique( "CL1", "/sys/devices/system/cpu/cpufreq/policy4/stats")); p->addStateResidencyDataProvider(std::make_unique( "CL2", "/sys/devices/system/cpu/cpufreq/policy6/stats")); p->addStateResidencyDataProvider(std::make_unique( "MIF", "/sys/devices/platform/17000010.devfreq_mif/devfreq/17000010.devfreq_mif")); p->addStateResidencyDataProvider(std::make_unique( "INT", "/sys/devices/platform/17000020.devfreq_int/devfreq/17000020.devfreq_int")); p->addStateResidencyDataProvider(std::make_unique( "INTCAM", "/sys/devices/platform/17000030.devfreq_intcam/devfreq/17000030.devfreq_intcam")); p->addStateResidencyDataProvider(std::make_unique( "DISP", "/sys/devices/platform/17000040.devfreq_disp/devfreq/17000040.devfreq_disp")); p->addStateResidencyDataProvider(std::make_unique( "CAM", "/sys/devices/platform/17000050.devfreq_cam/devfreq/17000050.devfreq_cam")); p->addStateResidencyDataProvider(std::make_unique( "TNR", "/sys/devices/platform/17000060.devfreq_tnr/devfreq/17000060.devfreq_tnr")); p->addStateResidencyDataProvider(std::make_unique( "MFC", "/sys/devices/platform/17000070.devfreq_mfc/devfreq/17000070.devfreq_mfc")); p->addStateResidencyDataProvider(std::make_unique( "BO", "/sys/devices/platform/17000080.devfreq_bo/devfreq/17000080.devfreq_bo")); } void addTPU(std::shared_ptr p) { std::map stateCoeffs; stateCoeffs = { // TODO (b/197721618): Measuring the TPU power numbers {"226000", 10}, {"627000", 20}, {"845000", 30}, {"1066000", 40}}; p->addEnergyConsumer(PowerStatsEnergyConsumer::createMeterAndAttrConsumer(p, EnergyConsumerType::OTHER, "TPU", {"S10M_VDD_TPU"}, {{UID_TIME_IN_STATE, "/sys/class/edgetpu/edgetpu-soc/device/tpu_usage"}}, stateCoeffs)); } /** * Unlike other data providers, which source power entity state residency data from the kernel, * this data provider acts as a general-purpose channel for state residency data providers * that live in user space. Entities are defined here and user space clients of this provider's * vendor service register callbacks to provide state residency data for their given pwoer entity. */ void addPixelStateResidencyDataProvider(std::shared_ptr p) { auto pixelSdp = std::make_unique(); pixelSdp->addEntity("Bluetooth", {{0, "Idle"}, {1, "Active"}, {2, "Tx"}, {3, "Rx"}}); pixelSdp->start(); p->addStateResidencyDataProvider(std::move(pixelSdp)); } void addCamera(std::shared_ptr p) { p->addEnergyConsumer(PowerStatsEnergyConsumer::createMeterConsumer( p, EnergyConsumerType::CAMERA, "CAMERA", {"VSYS_PWR_CAM"})); } void addGs201CommonDataProviders(std::shared_ptr p) { setEnergyMeter(p); addPixelStateResidencyDataProvider(p); addAoC(p); addDvfsStats(p); addSoC(p); addCPUclusters(p); addGPU(p); addMobileRadio(p); addGNSS(p); addPCIe(p); addWifi(p); addUfs(p); addPowerDomains(p); addDevfreq(p); addTPU(p); addCamera(p); } void addNFC(std::shared_ptr p, const std::string& path) { const GenericStateResidencyDataProvider::StateResidencyConfig nfcStateConfig = { .entryCountSupported = true, .entryCountPrefix = "Cumulative count:", .totalTimeSupported = true, .totalTimePrefix = "Cumulative duration msec:", .lastEntrySupported = true, .lastEntryPrefix = "Last entry timestamp msec:", }; const std::vector> nfcStateHeaders = { std::make_pair("IDLE", "Idle mode:"), std::make_pair("ACTIVE", "Active mode:"), std::make_pair("ACTIVE-RW", "Active Reader/Writer mode:"), }; std::vector cfgs; cfgs.emplace_back(generateGenericStateResidencyConfigs(nfcStateConfig, nfcStateHeaders), "NFC", "NFC subsystem"); p->addStateResidencyDataProvider(std::make_unique( path, cfgs)); }