/* * Copyright 2017, 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. */ #define DEBUG false // STOPSHIP if true #include "Log.h" #include "StatsdStats.h" #include <android/util/ProtoOutputStream.h> #include "../stats_log_util.h" #include "statslog.h" #include "storage/StorageManager.h" namespace android { namespace os { namespace statsd { using android::util::FIELD_COUNT_REPEATED; using android::util::FIELD_TYPE_BOOL; using android::util::FIELD_TYPE_FLOAT; using android::util::FIELD_TYPE_INT32; using android::util::FIELD_TYPE_INT64; using android::util::FIELD_TYPE_MESSAGE; using android::util::FIELD_TYPE_STRING; using android::util::ProtoOutputStream; using std::lock_guard; using std::map; using std::shared_ptr; using std::string; using std::vector; const int FIELD_ID_BEGIN_TIME = 1; const int FIELD_ID_END_TIME = 2; const int FIELD_ID_CONFIG_STATS = 3; const int FIELD_ID_ATOM_STATS = 7; const int FIELD_ID_UIDMAP_STATS = 8; const int FIELD_ID_ANOMALY_ALARM_STATS = 9; // const int FIELD_ID_PULLED_ATOM_STATS = 10; // The proto is written in stats_log_util.cpp const int FIELD_ID_LOGGER_ERROR_STATS = 11; const int FIELD_ID_PERIODIC_ALARM_STATS = 12; const int FIELD_ID_LOG_LOSS_STATS = 14; const int FIELD_ID_SYSTEM_SERVER_RESTART = 15; const int FIELD_ID_ATOM_STATS_TAG = 1; const int FIELD_ID_ATOM_STATS_COUNT = 2; const int FIELD_ID_ANOMALY_ALARMS_REGISTERED = 1; const int FIELD_ID_PERIODIC_ALARMS_REGISTERED = 1; const int FIELD_ID_LOGGER_STATS_TIME = 1; const int FIELD_ID_LOGGER_STATS_ERROR_CODE = 2; const int FIELD_ID_CONFIG_STATS_UID = 1; const int FIELD_ID_CONFIG_STATS_ID = 2; const int FIELD_ID_CONFIG_STATS_CREATION = 3; const int FIELD_ID_CONFIG_STATS_RESET = 19; const int FIELD_ID_CONFIG_STATS_DELETION = 4; const int FIELD_ID_CONFIG_STATS_METRIC_COUNT = 5; const int FIELD_ID_CONFIG_STATS_CONDITION_COUNT = 6; const int FIELD_ID_CONFIG_STATS_MATCHER_COUNT = 7; const int FIELD_ID_CONFIG_STATS_ALERT_COUNT = 8; const int FIELD_ID_CONFIG_STATS_VALID = 9; const int FIELD_ID_CONFIG_STATS_BROADCAST = 10; const int FIELD_ID_CONFIG_STATS_DATA_DROP = 11; const int FIELD_ID_CONFIG_STATS_DUMP_REPORT_TIME = 12; const int FIELD_ID_CONFIG_STATS_DUMP_REPORT_BYTES = 20; const int FIELD_ID_CONFIG_STATS_MATCHER_STATS = 13; const int FIELD_ID_CONFIG_STATS_CONDITION_STATS = 14; const int FIELD_ID_CONFIG_STATS_METRIC_STATS = 15; const int FIELD_ID_CONFIG_STATS_ALERT_STATS = 16; const int FIELD_ID_CONFIG_STATS_METRIC_DIMENSION_IN_CONDITION_STATS = 17; const int FIELD_ID_CONFIG_STATS_ANNOTATION = 18; const int FIELD_ID_CONFIG_STATS_ANNOTATION_INT64 = 1; const int FIELD_ID_CONFIG_STATS_ANNOTATION_INT32 = 2; const int FIELD_ID_MATCHER_STATS_ID = 1; const int FIELD_ID_MATCHER_STATS_COUNT = 2; const int FIELD_ID_CONDITION_STATS_ID = 1; const int FIELD_ID_CONDITION_STATS_COUNT = 2; const int FIELD_ID_METRIC_STATS_ID = 1; const int FIELD_ID_METRIC_STATS_COUNT = 2; const int FIELD_ID_ALERT_STATS_ID = 1; const int FIELD_ID_ALERT_STATS_COUNT = 2; const int FIELD_ID_UID_MAP_CHANGES = 1; const int FIELD_ID_UID_MAP_BYTES_USED = 2; const int FIELD_ID_UID_MAP_DROPPED_CHANGES = 3; const int FIELD_ID_UID_MAP_DELETED_APPS = 4; const std::map<int, std::pair<size_t, size_t>> StatsdStats::kAtomDimensionKeySizeLimitMap = { {android::util::CPU_TIME_PER_UID_FREQ, {6000, 10000}}, }; // TODO: add stats for pulled atoms. StatsdStats::StatsdStats() { mPushedAtomStats.resize(android::util::kMaxPushedAtomId + 1); mStartTimeSec = getWallClockSec(); } StatsdStats& StatsdStats::getInstance() { static StatsdStats statsInstance; return statsInstance; } void StatsdStats::addToIceBoxLocked(shared_ptr<ConfigStats>& stats) { // The size of mIceBox grows strictly by one at a time. It won't be > kMaxIceBoxSize. if (mIceBox.size() == kMaxIceBoxSize) { mIceBox.pop_front(); } mIceBox.push_back(stats); } void StatsdStats::noteConfigReceived( const ConfigKey& key, int metricsCount, int conditionsCount, int matchersCount, int alertsCount, const std::list<std::pair<const int64_t, const int32_t>>& annotations, bool isValid) { lock_guard<std::mutex> lock(mLock); int32_t nowTimeSec = getWallClockSec(); // If there is an existing config for the same key, icebox the old config. noteConfigRemovedInternalLocked(key); shared_ptr<ConfigStats> configStats = std::make_shared<ConfigStats>(); configStats->uid = key.GetUid(); configStats->id = key.GetId(); configStats->creation_time_sec = nowTimeSec; configStats->metric_count = metricsCount; configStats->condition_count = conditionsCount; configStats->matcher_count = matchersCount; configStats->alert_count = alertsCount; configStats->is_valid = isValid; for (auto& v : annotations) { configStats->annotations.emplace_back(v); } if (isValid) { mConfigStats[key] = configStats; } else { configStats->deletion_time_sec = nowTimeSec; addToIceBoxLocked(configStats); } } void StatsdStats::noteConfigRemovedInternalLocked(const ConfigKey& key) { auto it = mConfigStats.find(key); if (it != mConfigStats.end()) { int32_t nowTimeSec = getWallClockSec(); it->second->deletion_time_sec = nowTimeSec; addToIceBoxLocked(it->second); mConfigStats.erase(it); } } void StatsdStats::noteConfigRemoved(const ConfigKey& key) { lock_guard<std::mutex> lock(mLock); noteConfigRemovedInternalLocked(key); } void StatsdStats::noteConfigResetInternalLocked(const ConfigKey& key) { auto it = mConfigStats.find(key); if (it != mConfigStats.end()) { it->second->reset_time_sec = getWallClockSec(); } } void StatsdStats::noteConfigReset(const ConfigKey& key) { lock_guard<std::mutex> lock(mLock); noteConfigResetInternalLocked(key); } void StatsdStats::noteLogLost(int64_t timestampNs) { lock_guard<std::mutex> lock(mLock); if (mLogLossTimestampNs.size() == kMaxLoggerErrors) { mLogLossTimestampNs.pop_front(); } mLogLossTimestampNs.push_back(timestampNs); } void StatsdStats::noteBroadcastSent(const ConfigKey& key) { noteBroadcastSent(key, getWallClockSec()); } void StatsdStats::noteBroadcastSent(const ConfigKey& key, int32_t timeSec) { lock_guard<std::mutex> lock(mLock); auto it = mConfigStats.find(key); if (it == mConfigStats.end()) { ALOGE("Config key %s not found!", key.ToString().c_str()); return; } if (it->second->broadcast_sent_time_sec.size() == kMaxTimestampCount) { it->second->broadcast_sent_time_sec.pop_front(); } it->second->broadcast_sent_time_sec.push_back(timeSec); } void StatsdStats::noteDataDropped(const ConfigKey& key) { noteDataDropped(key, getWallClockSec()); } void StatsdStats::noteDataDropped(const ConfigKey& key, int32_t timeSec) { lock_guard<std::mutex> lock(mLock); auto it = mConfigStats.find(key); if (it == mConfigStats.end()) { ALOGE("Config key %s not found!", key.ToString().c_str()); return; } if (it->second->data_drop_time_sec.size() == kMaxTimestampCount) { it->second->data_drop_time_sec.pop_front(); } it->second->data_drop_time_sec.push_back(timeSec); } void StatsdStats::noteMetricsReportSent(const ConfigKey& key, const size_t num_bytes) { noteMetricsReportSent(key, num_bytes, getWallClockSec()); } void StatsdStats::noteMetricsReportSent(const ConfigKey& key, const size_t num_bytes, int32_t timeSec) { lock_guard<std::mutex> lock(mLock); auto it = mConfigStats.find(key); if (it == mConfigStats.end()) { ALOGE("Config key %s not found!", key.ToString().c_str()); return; } if (it->second->dump_report_stats.size() == kMaxTimestampCount) { it->second->dump_report_stats.pop_front(); } it->second->dump_report_stats.push_back(std::make_pair(timeSec, num_bytes)); } void StatsdStats::noteUidMapDropped(int deltas) { lock_guard<std::mutex> lock(mLock); mUidMapStats.dropped_changes += mUidMapStats.dropped_changes + deltas; } void StatsdStats::noteUidMapAppDeletionDropped() { lock_guard<std::mutex> lock(mLock); mUidMapStats.deleted_apps++; } void StatsdStats::setUidMapChanges(int changes) { lock_guard<std::mutex> lock(mLock); mUidMapStats.changes = changes; } void StatsdStats::setCurrentUidMapMemory(int bytes) { lock_guard<std::mutex> lock(mLock); mUidMapStats.bytes_used = bytes; } void StatsdStats::noteConditionDimensionSize(const ConfigKey& key, const int64_t& id, int size) { lock_guard<std::mutex> lock(mLock); // if name doesn't exist before, it will create the key with count 0. auto statsIt = mConfigStats.find(key); if (statsIt == mConfigStats.end()) { return; } auto& conditionSizeMap = statsIt->second->condition_stats; if (size > conditionSizeMap[id]) { conditionSizeMap[id] = size; } } void StatsdStats::noteMetricDimensionSize(const ConfigKey& key, const int64_t& id, int size) { lock_guard<std::mutex> lock(mLock); // if name doesn't exist before, it will create the key with count 0. auto statsIt = mConfigStats.find(key); if (statsIt == mConfigStats.end()) { return; } auto& metricsDimensionMap = statsIt->second->metric_stats; if (size > metricsDimensionMap[id]) { metricsDimensionMap[id] = size; } } void StatsdStats::noteMetricDimensionInConditionSize( const ConfigKey& key, const int64_t& id, int size) { lock_guard<std::mutex> lock(mLock); // if name doesn't exist before, it will create the key with count 0. auto statsIt = mConfigStats.find(key); if (statsIt == mConfigStats.end()) { return; } auto& metricsDimensionMap = statsIt->second->metric_dimension_in_condition_stats; if (size > metricsDimensionMap[id]) { metricsDimensionMap[id] = size; } } void StatsdStats::noteMatcherMatched(const ConfigKey& key, const int64_t& id) { lock_guard<std::mutex> lock(mLock); auto statsIt = mConfigStats.find(key); if (statsIt == mConfigStats.end()) { return; } statsIt->second->matcher_stats[id]++; } void StatsdStats::noteAnomalyDeclared(const ConfigKey& key, const int64_t& id) { lock_guard<std::mutex> lock(mLock); auto statsIt = mConfigStats.find(key); if (statsIt == mConfigStats.end()) { return; } statsIt->second->alert_stats[id]++; } void StatsdStats::noteRegisteredAnomalyAlarmChanged() { lock_guard<std::mutex> lock(mLock); mAnomalyAlarmRegisteredStats++; } void StatsdStats::noteRegisteredPeriodicAlarmChanged() { lock_guard<std::mutex> lock(mLock); mPeriodicAlarmRegisteredStats++; } void StatsdStats::updateMinPullIntervalSec(int pullAtomId, long intervalSec) { lock_guard<std::mutex> lock(mLock); mPulledAtomStats[pullAtomId].minPullIntervalSec = intervalSec; } void StatsdStats::notePull(int pullAtomId) { lock_guard<std::mutex> lock(mLock); mPulledAtomStats[pullAtomId].totalPull++; } void StatsdStats::notePullFromCache(int pullAtomId) { lock_guard<std::mutex> lock(mLock); mPulledAtomStats[pullAtomId].totalPullFromCache++; } void StatsdStats::noteAtomLogged(int atomId, int32_t timeSec) { lock_guard<std::mutex> lock(mLock); if (atomId > android::util::kMaxPushedAtomId) { ALOGW("not interested in atom %d", atomId); return; } mPushedAtomStats[atomId]++; } void StatsdStats::noteSystemServerRestart(int32_t timeSec) { lock_guard<std::mutex> lock(mLock); if (mSystemServerRestartSec.size() == kMaxSystemServerRestarts) { mSystemServerRestartSec.pop_front(); } mSystemServerRestartSec.push_back(timeSec); } void StatsdStats::noteLoggerError(int error) { lock_guard<std::mutex> lock(mLock); // grows strictly one at a time. so it won't > kMaxLoggerErrors if (mLoggerErrors.size() == kMaxLoggerErrors) { mLoggerErrors.pop_front(); } mLoggerErrors.push_back(std::make_pair(getWallClockSec(), error)); } void StatsdStats::reset() { lock_guard<std::mutex> lock(mLock); resetInternalLocked(); } void StatsdStats::resetInternalLocked() { // Reset the historical data, but keep the active ConfigStats mStartTimeSec = getWallClockSec(); mIceBox.clear(); std::fill(mPushedAtomStats.begin(), mPushedAtomStats.end(), 0); mAnomalyAlarmRegisteredStats = 0; mPeriodicAlarmRegisteredStats = 0; mLoggerErrors.clear(); mSystemServerRestartSec.clear(); mLogLossTimestampNs.clear(); for (auto& config : mConfigStats) { config.second->broadcast_sent_time_sec.clear(); config.second->data_drop_time_sec.clear(); config.second->dump_report_stats.clear(); config.second->annotations.clear(); config.second->matcher_stats.clear(); config.second->condition_stats.clear(); config.second->metric_stats.clear(); config.second->metric_dimension_in_condition_stats.clear(); config.second->alert_stats.clear(); } } string buildTimeString(int64_t timeSec) { time_t t = timeSec; struct tm* tm = localtime(&t); char timeBuffer[80]; strftime(timeBuffer, sizeof(timeBuffer), "%Y-%m-%d %I:%M%p", tm); return string(timeBuffer); } void StatsdStats::dumpStats(FILE* out) const { lock_guard<std::mutex> lock(mLock); time_t t = mStartTimeSec; struct tm* tm = localtime(&t); char timeBuffer[80]; strftime(timeBuffer, sizeof(timeBuffer), "%Y-%m-%d %I:%M%p\n", tm); fprintf(out, "Stats collection start second: %s\n", timeBuffer); fprintf(out, "%lu Config in icebox: \n", (unsigned long)mIceBox.size()); for (const auto& configStats : mIceBox) { fprintf(out, "Config {%d_%lld}: creation=%d, deletion=%d, reset=%d, #metric=%d, #condition=%d, " "#matcher=%d, #alert=%d, valid=%d\n", configStats->uid, (long long)configStats->id, configStats->creation_time_sec, configStats->deletion_time_sec, configStats->reset_time_sec, configStats->metric_count, configStats->condition_count, configStats->matcher_count, configStats->alert_count, configStats->is_valid); for (const auto& broadcastTime : configStats->broadcast_sent_time_sec) { fprintf(out, "\tbroadcast time: %d\n", broadcastTime); } for (const auto& dataDropTime : configStats->data_drop_time_sec) { fprintf(out, "\tdata drop time: %d\n", dataDropTime); } } fprintf(out, "%lu Active Configs\n", (unsigned long)mConfigStats.size()); for (auto& pair : mConfigStats) { auto& configStats = pair.second; fprintf(out, "Config {%d-%lld}: creation=%d, deletion=%d, #metric=%d, #condition=%d, " "#matcher=%d, #alert=%d, valid=%d\n", configStats->uid, (long long)configStats->id, configStats->creation_time_sec, configStats->deletion_time_sec, configStats->metric_count, configStats->condition_count, configStats->matcher_count, configStats->alert_count, configStats->is_valid); for (const auto& annotation : configStats->annotations) { fprintf(out, "\tannotation: %lld, %d\n", (long long)annotation.first, annotation.second); } for (const auto& broadcastTime : configStats->broadcast_sent_time_sec) { fprintf(out, "\tbroadcast time: %s(%lld)\n", buildTimeString(broadcastTime).c_str(), (long long)broadcastTime); } for (const auto& dataDropTime : configStats->data_drop_time_sec) { fprintf(out, "\tdata drop time: %s(%lld)\n", buildTimeString(dataDropTime).c_str(), (long long)dataDropTime); } for (const auto& dump : configStats->dump_report_stats) { fprintf(out, "\tdump report time: %s(%lld) bytes: %lld\n", buildTimeString(dump.first).c_str(), (long long)dump.first, (long long)dump.second); } for (const auto& stats : pair.second->matcher_stats) { fprintf(out, "matcher %lld matched %d times\n", (long long)stats.first, stats.second); } for (const auto& stats : pair.second->condition_stats) { fprintf(out, "condition %lld max output tuple size %d\n", (long long)stats.first, stats.second); } for (const auto& stats : pair.second->condition_stats) { fprintf(out, "metrics %lld max output tuple size %d\n", (long long)stats.first, stats.second); } for (const auto& stats : pair.second->alert_stats) { fprintf(out, "alert %lld declared %d times\n", (long long)stats.first, stats.second); } } fprintf(out, "********Disk Usage stats***********\n"); StorageManager::printStats(out); fprintf(out, "********Pushed Atom stats***********\n"); const size_t atomCounts = mPushedAtomStats.size(); for (size_t i = 2; i < atomCounts; i++) { if (mPushedAtomStats[i] > 0) { fprintf(out, "Atom %lu->%d\n", (unsigned long)i, mPushedAtomStats[i]); } } fprintf(out, "********Pulled Atom stats***********\n"); for (const auto& pair : mPulledAtomStats) { fprintf(out, "Atom %d->%ld, %ld, %ld\n", (int)pair.first, (long)pair.second.totalPull, (long)pair.second.totalPullFromCache, (long)pair.second.minPullIntervalSec); } if (mAnomalyAlarmRegisteredStats > 0) { fprintf(out, "********AnomalyAlarmStats stats***********\n"); fprintf(out, "Anomaly alarm registrations: %d\n", mAnomalyAlarmRegisteredStats); } if (mPeriodicAlarmRegisteredStats > 0) { fprintf(out, "********SubscriberAlarmStats stats***********\n"); fprintf(out, "Subscriber alarm registrations: %d\n", mPeriodicAlarmRegisteredStats); } fprintf(out, "UID map stats: bytes=%d, changes=%d, deleted=%d, changes lost=%d\n", mUidMapStats.bytes_used, mUidMapStats.changes, mUidMapStats.deleted_apps, mUidMapStats.dropped_changes); for (const auto& error : mLoggerErrors) { time_t error_time = error.first; struct tm* error_tm = localtime(&error_time); char buffer[80]; strftime(buffer, sizeof(buffer), "%Y-%m-%d %I:%M%p\n", error_tm); fprintf(out, "Logger error %d at %s\n", error.second, buffer); } for (const auto& restart : mSystemServerRestartSec) { fprintf(out, "System server restarts at %s(%lld)\n", buildTimeString(restart).c_str(), (long long)restart); } for (const auto& loss : mLogLossTimestampNs) { fprintf(out, "Log loss detected at %lld (elapsedRealtimeNs)\n", (long long)loss); } } void addConfigStatsToProto(const ConfigStats& configStats, ProtoOutputStream* proto) { uint64_t token = proto->start(FIELD_TYPE_MESSAGE | FIELD_COUNT_REPEATED | FIELD_ID_CONFIG_STATS); proto->write(FIELD_TYPE_INT32 | FIELD_ID_CONFIG_STATS_UID, configStats.uid); proto->write(FIELD_TYPE_INT64 | FIELD_ID_CONFIG_STATS_ID, (long long)configStats.id); proto->write(FIELD_TYPE_INT32 | FIELD_ID_CONFIG_STATS_CREATION, configStats.creation_time_sec); if (configStats.reset_time_sec != 0) { proto->write(FIELD_TYPE_INT32 | FIELD_ID_CONFIG_STATS_RESET, configStats.reset_time_sec); } if (configStats.deletion_time_sec != 0) { proto->write(FIELD_TYPE_INT32 | FIELD_ID_CONFIG_STATS_DELETION, configStats.deletion_time_sec); } proto->write(FIELD_TYPE_INT32 | FIELD_ID_CONFIG_STATS_METRIC_COUNT, configStats.metric_count); proto->write(FIELD_TYPE_INT32 | FIELD_ID_CONFIG_STATS_CONDITION_COUNT, configStats.condition_count); proto->write(FIELD_TYPE_INT32 | FIELD_ID_CONFIG_STATS_MATCHER_COUNT, configStats.matcher_count); proto->write(FIELD_TYPE_INT32 | FIELD_ID_CONFIG_STATS_ALERT_COUNT, configStats.alert_count); proto->write(FIELD_TYPE_BOOL | FIELD_ID_CONFIG_STATS_VALID, configStats.is_valid); for (const auto& broadcast : configStats.broadcast_sent_time_sec) { proto->write(FIELD_TYPE_INT32 | FIELD_ID_CONFIG_STATS_BROADCAST | FIELD_COUNT_REPEATED, broadcast); } for (const auto& drop : configStats.data_drop_time_sec) { proto->write(FIELD_TYPE_INT32 | FIELD_ID_CONFIG_STATS_DATA_DROP | FIELD_COUNT_REPEATED, drop); } for (const auto& dump : configStats.dump_report_stats) { proto->write(FIELD_TYPE_INT32 | FIELD_ID_CONFIG_STATS_DUMP_REPORT_TIME | FIELD_COUNT_REPEATED, dump.first); } for (const auto& dump : configStats.dump_report_stats) { proto->write(FIELD_TYPE_INT64 | FIELD_ID_CONFIG_STATS_DUMP_REPORT_BYTES | FIELD_COUNT_REPEATED, (long long)dump.second); } for (const auto& annotation : configStats.annotations) { uint64_t token = proto->start(FIELD_TYPE_MESSAGE | FIELD_COUNT_REPEATED | FIELD_ID_CONFIG_STATS_ANNOTATION); proto->write(FIELD_TYPE_INT64 | FIELD_ID_CONFIG_STATS_ANNOTATION_INT64, (long long)annotation.first); proto->write(FIELD_TYPE_INT32 | FIELD_ID_CONFIG_STATS_ANNOTATION_INT32, annotation.second); proto->end(token); } for (const auto& pair : configStats.matcher_stats) { uint64_t tmpToken = proto->start(FIELD_TYPE_MESSAGE | FIELD_COUNT_REPEATED | FIELD_ID_CONFIG_STATS_MATCHER_STATS); proto->write(FIELD_TYPE_INT64 | FIELD_ID_MATCHER_STATS_ID, (long long)pair.first); proto->write(FIELD_TYPE_INT32 | FIELD_ID_MATCHER_STATS_COUNT, pair.second); proto->end(tmpToken); } for (const auto& pair : configStats.condition_stats) { uint64_t tmpToken = proto->start(FIELD_TYPE_MESSAGE | FIELD_COUNT_REPEATED | FIELD_ID_CONFIG_STATS_CONDITION_STATS); proto->write(FIELD_TYPE_INT64 | FIELD_ID_CONDITION_STATS_ID, (long long)pair.first); proto->write(FIELD_TYPE_INT32 | FIELD_ID_CONDITION_STATS_COUNT, pair.second); proto->end(tmpToken); } for (const auto& pair : configStats.metric_stats) { uint64_t tmpToken = proto->start(FIELD_TYPE_MESSAGE | FIELD_COUNT_REPEATED | FIELD_ID_CONFIG_STATS_METRIC_STATS); proto->write(FIELD_TYPE_INT64 | FIELD_ID_METRIC_STATS_ID, (long long)pair.first); proto->write(FIELD_TYPE_INT32 | FIELD_ID_METRIC_STATS_COUNT, pair.second); proto->end(tmpToken); } for (const auto& pair : configStats.metric_dimension_in_condition_stats) { uint64_t tmpToken = proto->start(FIELD_TYPE_MESSAGE | FIELD_COUNT_REPEATED | FIELD_ID_CONFIG_STATS_METRIC_DIMENSION_IN_CONDITION_STATS); proto->write(FIELD_TYPE_INT64 | FIELD_ID_METRIC_STATS_ID, (long long)pair.first); proto->write(FIELD_TYPE_INT32 | FIELD_ID_METRIC_STATS_COUNT, pair.second); proto->end(tmpToken); } for (const auto& pair : configStats.alert_stats) { uint64_t tmpToken = proto->start(FIELD_TYPE_MESSAGE | FIELD_COUNT_REPEATED | FIELD_ID_CONFIG_STATS_ALERT_STATS); proto->write(FIELD_TYPE_INT64 | FIELD_ID_ALERT_STATS_ID, (long long)pair.first); proto->write(FIELD_TYPE_INT32 | FIELD_ID_ALERT_STATS_COUNT, pair.second); proto->end(tmpToken); } proto->end(token); } void StatsdStats::dumpStats(std::vector<uint8_t>* output, bool reset) { lock_guard<std::mutex> lock(mLock); ProtoOutputStream proto; proto.write(FIELD_TYPE_INT32 | FIELD_ID_BEGIN_TIME, mStartTimeSec); proto.write(FIELD_TYPE_INT32 | FIELD_ID_END_TIME, (int32_t)getWallClockSec()); for (const auto& configStats : mIceBox) { addConfigStatsToProto(*configStats, &proto); } for (auto& pair : mConfigStats) { addConfigStatsToProto(*(pair.second), &proto); } const size_t atomCounts = mPushedAtomStats.size(); for (size_t i = 2; i < atomCounts; i++) { if (mPushedAtomStats[i] > 0) { uint64_t token = proto.start(FIELD_TYPE_MESSAGE | FIELD_ID_ATOM_STATS | FIELD_COUNT_REPEATED); proto.write(FIELD_TYPE_INT32 | FIELD_ID_ATOM_STATS_TAG, (int32_t)i); proto.write(FIELD_TYPE_INT32 | FIELD_ID_ATOM_STATS_COUNT, mPushedAtomStats[i]); proto.end(token); } } for (const auto& pair : mPulledAtomStats) { android::os::statsd::writePullerStatsToStream(pair, &proto); } if (mAnomalyAlarmRegisteredStats > 0) { uint64_t token = proto.start(FIELD_TYPE_MESSAGE | FIELD_ID_ANOMALY_ALARM_STATS); proto.write(FIELD_TYPE_INT32 | FIELD_ID_ANOMALY_ALARMS_REGISTERED, mAnomalyAlarmRegisteredStats); proto.end(token); } if (mPeriodicAlarmRegisteredStats > 0) { uint64_t token = proto.start(FIELD_TYPE_MESSAGE | FIELD_ID_PERIODIC_ALARM_STATS); proto.write(FIELD_TYPE_INT32 | FIELD_ID_PERIODIC_ALARMS_REGISTERED, mPeriodicAlarmRegisteredStats); proto.end(token); } uint64_t uidMapToken = proto.start(FIELD_TYPE_MESSAGE | FIELD_ID_UIDMAP_STATS); proto.write(FIELD_TYPE_INT32 | FIELD_ID_UID_MAP_CHANGES, mUidMapStats.changes); proto.write(FIELD_TYPE_INT32 | FIELD_ID_UID_MAP_BYTES_USED, mUidMapStats.bytes_used); proto.write(FIELD_TYPE_INT32 | FIELD_ID_UID_MAP_DROPPED_CHANGES, mUidMapStats.dropped_changes); proto.write(FIELD_TYPE_INT32 | FIELD_ID_UID_MAP_DELETED_APPS, mUidMapStats.deleted_apps); proto.end(uidMapToken); for (const auto& error : mLoggerErrors) { uint64_t token = proto.start(FIELD_TYPE_MESSAGE | FIELD_ID_LOGGER_ERROR_STATS | FIELD_COUNT_REPEATED); proto.write(FIELD_TYPE_INT32 | FIELD_ID_LOGGER_STATS_TIME, error.first); proto.write(FIELD_TYPE_INT32 | FIELD_ID_LOGGER_STATS_ERROR_CODE, error.second); proto.end(token); } for (const auto& loss : mLogLossTimestampNs) { proto.write(FIELD_TYPE_INT64 | FIELD_ID_LOG_LOSS_STATS | FIELD_COUNT_REPEATED, (long long)loss); } for (const auto& restart : mSystemServerRestartSec) { proto.write(FIELD_TYPE_INT32 | FIELD_ID_SYSTEM_SERVER_RESTART | FIELD_COUNT_REPEATED, restart); } output->clear(); size_t bufferSize = proto.size(); output->resize(bufferSize); size_t pos = 0; auto it = proto.data(); while (it.readBuffer() != NULL) { size_t toRead = it.currentToRead(); std::memcpy(&((*output)[pos]), it.readBuffer(), toRead); pos += toRead; it.rp()->move(toRead); } if (reset) { resetInternalLocked(); } VLOG("reset=%d, returned proto size %lu", reset, (unsigned long)bufferSize); } } // namespace statsd } // namespace os } // namespace android