/* * Copyright (C) 2015 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. */ package com.android.server; import android.Manifest; import android.app.ActivityManagerNative; import android.app.AlarmManager; import android.app.PendingIntent; import android.content.BroadcastReceiver; import android.content.ContentResolver; import android.content.Context; import android.content.Intent; import android.content.IntentFilter; import android.content.pm.ApplicationInfo; import android.content.pm.PackageManager; import android.content.pm.PackageManager.NameNotFoundException; import android.database.ContentObserver; import android.hardware.Sensor; import android.hardware.SensorManager; import android.hardware.TriggerEvent; import android.hardware.TriggerEventListener; import android.hardware.display.DisplayManager; import android.location.LocationRequest; import android.location.Location; import android.location.LocationListener; import android.location.LocationManager; import android.net.INetworkPolicyManager; import android.net.Uri; import android.os.BatteryStats; import android.os.Binder; import android.os.Bundle; import android.os.Environment; import android.os.FileUtils; import android.os.Handler; import android.os.IDeviceIdleController; import android.os.Looper; import android.os.Message; import android.os.PowerManager; import android.os.PowerManagerInternal; import android.os.Process; import android.os.RemoteException; import android.os.ServiceManager; import android.os.SystemClock; import android.os.UserHandle; import android.provider.Settings; import android.util.ArrayMap; import android.util.ArraySet; import android.util.KeyValueListParser; import android.util.MutableLong; import android.util.Pair; import android.util.Slog; import android.util.SparseArray; import android.util.SparseBooleanArray; import android.util.TimeUtils; import android.util.Xml; import android.view.Display; import com.android.internal.app.IBatteryStats; import com.android.internal.os.AtomicFile; import com.android.internal.os.BackgroundThread; import com.android.internal.util.FastXmlSerializer; import com.android.internal.util.XmlUtils; import com.android.server.am.BatteryStatsService; import org.xmlpull.v1.XmlPullParser; import org.xmlpull.v1.XmlPullParserException; import org.xmlpull.v1.XmlSerializer; import java.io.ByteArrayOutputStream; import java.io.File; import java.io.FileDescriptor; import java.io.FileInputStream; import java.io.FileNotFoundException; import java.io.FileOutputStream; import java.io.IOException; import java.io.PrintWriter; import java.nio.charset.StandardCharsets; import java.util.Arrays; /** * Keeps track of device idleness and drives low power mode based on that. */ public class DeviceIdleController extends SystemService implements AnyMotionDetector.DeviceIdleCallback { private static final String TAG = "DeviceIdleController"; private static final boolean DEBUG = false; private static final boolean COMPRESS_TIME = false; private static final String ACTION_STEP_IDLE_STATE = "com.android.server.device_idle.STEP_IDLE_STATE"; private AlarmManager mAlarmManager; private IBatteryStats mBatteryStats; private PowerManagerInternal mLocalPowerManager; private INetworkPolicyManager mNetworkPolicyManager; private DisplayManager mDisplayManager; private SensorManager mSensorManager; private Sensor mSigMotionSensor; private LocationManager mLocationManager; private LocationRequest mLocationRequest; private PendingIntent mSensingAlarmIntent; private PendingIntent mAlarmIntent; private Intent mIdleIntent; private Display mCurDisplay; private AnyMotionDetector mAnyMotionDetector; private boolean mEnabled; private boolean mForceIdle; private boolean mScreenOn; private boolean mCharging; private boolean mSigMotionActive; private boolean mSensing; private boolean mNotMoving; private boolean mLocating; private boolean mLocated; private boolean mHaveGps; private Location mLastGenericLocation; private Location mLastGpsLocation; /** Device is currently active. */ private static final int STATE_ACTIVE = 0; /** Device is inactve (screen off, no motion) and we are waiting to for idle. */ private static final int STATE_INACTIVE = 1; /** Device is past the initial inactive period, and waiting for the next idle period. */ private static final int STATE_IDLE_PENDING = 2; /** Device is currently sensing motion. */ private static final int STATE_SENSING = 3; /** Device is currently finding location (and may still be sensing). */ private static final int STATE_LOCATING = 4; /** Device is in the idle state, trying to stay asleep as much as possible. */ private static final int STATE_IDLE = 5; /** Device is in the idle state, but temporarily out of idle to do regular maintenance. */ private static final int STATE_IDLE_MAINTENANCE = 6; private static String stateToString(int state) { switch (state) { case STATE_ACTIVE: return "ACTIVE"; case STATE_INACTIVE: return "INACTIVE"; case STATE_IDLE_PENDING: return "IDLE_PENDING"; case STATE_SENSING: return "SENSING"; case STATE_LOCATING: return "LOCATING"; case STATE_IDLE: return "IDLE"; case STATE_IDLE_MAINTENANCE: return "IDLE_MAINTENANCE"; default: return Integer.toString(state); } } private int mState; private long mInactiveTimeout; private long mNextAlarmTime; private long mNextIdlePendingDelay; private long mNextIdleDelay; public final AtomicFile mConfigFile; /** * Package names the system has white-listed to opt out of power save restrictions, * except for device idle mode. */ private final ArrayMap mPowerSaveWhitelistAppsExceptIdle = new ArrayMap<>(); /** * Package names the system has white-listed to opt out of power save restrictions for * all modes. */ private final ArrayMap mPowerSaveWhitelistApps = new ArrayMap<>(); /** * Package names the user has white-listed to opt out of power save restrictions. */ private final ArrayMap mPowerSaveWhitelistUserApps = new ArrayMap<>(); /** * App IDs of built-in system apps that have been white-listed except for idle modes. */ private final SparseBooleanArray mPowerSaveWhitelistSystemAppIdsExceptIdle = new SparseBooleanArray(); /** * App IDs of built-in system apps that have been white-listed. */ private final SparseBooleanArray mPowerSaveWhitelistSystemAppIds = new SparseBooleanArray(); /** * App IDs that have been white-listed to opt out of power save restrictions, except * for device idle modes. */ private final SparseBooleanArray mPowerSaveWhitelistExceptIdleAppIds = new SparseBooleanArray(); /** * Current app IDs that are in the complete power save white list, but shouldn't be * excluded from idle modes. This array can be shared with others because it will not be * modified once set. */ private int[] mPowerSaveWhitelistExceptIdleAppIdArray = new int[0]; /** * App IDs that have been white-listed to opt out of power save restrictions. */ private final SparseBooleanArray mPowerSaveWhitelistAllAppIds = new SparseBooleanArray(); /** * Current app IDs that are in the complete power save white list. This array can * be shared with others because it will not be modified once set. */ private int[] mPowerSaveWhitelistAllAppIdArray = new int[0]; /** * List of end times for UIDs that are temporarily marked as being allowed to access * the network and acquire wakelocks. Times are in milliseconds. */ private final SparseArray> mTempWhitelistAppIdEndTimes = new SparseArray<>(); /** * Callback to the NetworkPolicyManagerService to tell it that the temp whitelist has changed. */ Runnable mNetworkPolicyTempWhitelistCallback; /** * Current app IDs of temporarily whitelist apps for high-priority messages. */ private int[] mTempWhitelistAppIdArray = new int[0]; private final BroadcastReceiver mReceiver = new BroadcastReceiver() { @Override public void onReceive(Context context, Intent intent) { if (Intent.ACTION_BATTERY_CHANGED.equals(intent.getAction())) { int plugged = intent.getIntExtra("plugged", 0); updateChargingLocked(plugged != 0); } else if (Intent.ACTION_PACKAGE_REMOVED.equals(intent.getAction())) { if (!intent.getBooleanExtra(Intent.EXTRA_REPLACING, false)) { Uri data = intent.getData(); String ssp; if (data != null && (ssp=data.getSchemeSpecificPart()) != null) { removePowerSaveWhitelistAppInternal(ssp); } } } else if (ACTION_STEP_IDLE_STATE.equals(intent.getAction())) { synchronized (DeviceIdleController.this) { stepIdleStateLocked(); } } } }; private final DisplayManager.DisplayListener mDisplayListener = new DisplayManager.DisplayListener() { @Override public void onDisplayAdded(int displayId) { } @Override public void onDisplayRemoved(int displayId) { } @Override public void onDisplayChanged(int displayId) { if (displayId == Display.DEFAULT_DISPLAY) { synchronized (DeviceIdleController.this) { updateDisplayLocked(); } } } }; private final TriggerEventListener mSigMotionListener = new TriggerEventListener() { @Override public void onTrigger(TriggerEvent event) { synchronized (DeviceIdleController.this) { significantMotionLocked(); } } }; private final LocationListener mGenericLocationListener = new LocationListener() { @Override public void onLocationChanged(Location location) { synchronized (DeviceIdleController.this) { receivedGenericLocationLocked(location); } } @Override public void onStatusChanged(String provider, int status, Bundle extras) { } @Override public void onProviderEnabled(String provider) { } @Override public void onProviderDisabled(String provider) { } }; private final LocationListener mGpsLocationListener = new LocationListener() { @Override public void onLocationChanged(Location location) { synchronized (DeviceIdleController.this) { receivedGpsLocationLocked(location); } } @Override public void onStatusChanged(String provider, int status, Bundle extras) { } @Override public void onProviderEnabled(String provider) { } @Override public void onProviderDisabled(String provider) { } }; /** * All times are in milliseconds. These constants are kept synchronized with the system * global Settings. Any access to this class or its fields should be done while * holding the DeviceIdleController lock. */ private final class Constants extends ContentObserver { // Key names stored in the settings value. private static final String KEY_INACTIVE_TIMEOUT = "inactive_to"; private static final String KEY_SENSING_TIMEOUT = "sensing_to"; private static final String KEY_LOCATING_TIMEOUT = "locating_to"; private static final String KEY_LOCATION_ACCURACY = "location_accuracy"; private static final String KEY_MOTION_INACTIVE_TIMEOUT = "motion_inactive_to"; private static final String KEY_IDLE_AFTER_INACTIVE_TIMEOUT = "idle_after_inactive_to"; private static final String KEY_IDLE_PENDING_TIMEOUT = "idle_pending_to"; private static final String KEY_MAX_IDLE_PENDING_TIMEOUT = "max_idle_pending_to"; private static final String KEY_IDLE_PENDING_FACTOR = "idle_pending_factor"; private static final String KEY_IDLE_TIMEOUT = "idle_to"; private static final String KEY_MAX_IDLE_TIMEOUT = "max_idle_to"; private static final String KEY_IDLE_FACTOR = "idle_factor"; private static final String KEY_MIN_TIME_TO_ALARM = "min_time_to_alarm"; private static final String KEY_MAX_TEMP_APP_WHITELIST_DURATION = "max_temp_app_whitelist_duration"; private static final String KEY_MMS_TEMP_APP_WHITELIST_DURATION = "mms_temp_app_whitelist_duration"; private static final String KEY_SMS_TEMP_APP_WHITELIST_DURATION = "sms_temp_app_whitelist_duration"; /** * This is the time, after becoming inactive, at which we start looking at the * motion sensor to determine if the device is being left alone. We don't do this * immediately after going inactive just because we don't want to be continually running * the significant motion sensor whenever the screen is off. * @see Settings.Global#DEVICE_IDLE_CONSTANTS * @see #KEY_INACTIVE_TIMEOUT */ public long INACTIVE_TIMEOUT; /** * If we don't receive a callback from AnyMotion in this amount of time + * {@link #LOCATING_TIMEOUT}, we will change from * STATE_SENSING to STATE_INACTIVE, and any AnyMotion callbacks while not in STATE_SENSING * will be ignored. * @see Settings.Global#DEVICE_IDLE_CONSTANTS * @see #KEY_SENSING_TIMEOUT */ public long SENSING_TIMEOUT; /** * This is how long we will wait to try to get a good location fix before going in to * idle mode. * @see Settings.Global#DEVICE_IDLE_CONSTANTS * @see #KEY_LOCATING_TIMEOUT */ public long LOCATING_TIMEOUT; /** * The desired maximum accuracy (in meters) we consider the location to be good enough to go * on to idle. We will be trying to get an accuracy fix at least this good or until * {@link #LOCATING_TIMEOUT} expires. * @see Settings.Global#DEVICE_IDLE_CONSTANTS * @see #KEY_LOCATION_ACCURACY */ public float LOCATION_ACCURACY; /** * This is the time, after seeing motion, that we wait after becoming inactive from * that until we start looking for motion again. * @see Settings.Global#DEVICE_IDLE_CONSTANTS * @see #KEY_MOTION_INACTIVE_TIMEOUT */ public long MOTION_INACTIVE_TIMEOUT; /** * This is the time, after the inactive timeout elapses, that we will wait looking * for significant motion until we truly consider the device to be idle. * @see Settings.Global#DEVICE_IDLE_CONSTANTS * @see #KEY_IDLE_AFTER_INACTIVE_TIMEOUT */ public long IDLE_AFTER_INACTIVE_TIMEOUT; /** * This is the initial time, after being idle, that we will allow ourself to be back * in the IDLE_PENDING state allowing the system to run normally until we return to idle. * @see Settings.Global#DEVICE_IDLE_CONSTANTS * @see #KEY_IDLE_PENDING_TIMEOUT */ public long IDLE_PENDING_TIMEOUT; /** * Maximum pending idle timeout (time spent running) we will be allowed to use. * @see Settings.Global#DEVICE_IDLE_CONSTANTS * @see #KEY_MAX_IDLE_PENDING_TIMEOUT */ public long MAX_IDLE_PENDING_TIMEOUT; /** * Scaling factor to apply to current pending idle timeout each time we cycle through * that state. * @see Settings.Global#DEVICE_IDLE_CONSTANTS * @see #KEY_IDLE_PENDING_FACTOR */ public float IDLE_PENDING_FACTOR; /** * This is the initial time that we want to sit in the idle state before waking up * again to return to pending idle and allowing normal work to run. * @see Settings.Global#DEVICE_IDLE_CONSTANTS * @see #KEY_IDLE_TIMEOUT */ public long IDLE_TIMEOUT; /** * Maximum idle duration we will be allowed to use. * @see Settings.Global#DEVICE_IDLE_CONSTANTS * @see #KEY_MAX_IDLE_TIMEOUT */ public long MAX_IDLE_TIMEOUT; /** * Scaling factor to apply to current idle timeout each time we cycle through that state. * @see Settings.Global#DEVICE_IDLE_CONSTANTS * @see #KEY_IDLE_FACTOR */ public float IDLE_FACTOR; /** * This is the minimum time we will allow until the next upcoming alarm for us to * actually go in to idle mode. * @see Settings.Global#DEVICE_IDLE_CONSTANTS * @see #KEY_MIN_TIME_TO_ALARM */ public long MIN_TIME_TO_ALARM; /** * Max amount of time to temporarily whitelist an app when it receives a high priority * tickle. * @see Settings.Global#DEVICE_IDLE_CONSTANTS * @see #KEY_MAX_TEMP_APP_WHITELIST_DURATION */ public long MAX_TEMP_APP_WHITELIST_DURATION; /** * Amount of time we would like to whitelist an app that is receiving an MMS. * @see Settings.Global#DEVICE_IDLE_CONSTANTS * @see #KEY_MMS_TEMP_APP_WHITELIST_DURATION */ public long MMS_TEMP_APP_WHITELIST_DURATION; /** * Amount of time we would like to whitelist an app that is receiving an SMS. * @see Settings.Global#DEVICE_IDLE_CONSTANTS * @see #KEY_SMS_TEMP_APP_WHITELIST_DURATION */ public long SMS_TEMP_APP_WHITELIST_DURATION; private final ContentResolver mResolver; private final KeyValueListParser mParser = new KeyValueListParser(','); public Constants(Handler handler, ContentResolver resolver) { super(handler); mResolver = resolver; mResolver.registerContentObserver( Settings.Global.getUriFor(Settings.Global.DEVICE_IDLE_CONSTANTS), false, this); updateConstants(); } @Override public void onChange(boolean selfChange, Uri uri) { updateConstants(); } private void updateConstants() { synchronized (DeviceIdleController.this) { try { mParser.setString(Settings.Global.getString(mResolver, Settings.Global.DEVICE_IDLE_CONSTANTS)); } catch (IllegalArgumentException e) { // Failed to parse the settings string, log this and move on // with defaults. Slog.e(TAG, "Bad device idle settings", e); } INACTIVE_TIMEOUT = mParser.getLong(KEY_INACTIVE_TIMEOUT, !COMPRESS_TIME ? 30 * 60 * 1000L : 3 * 60 * 1000L); SENSING_TIMEOUT = mParser.getLong(KEY_SENSING_TIMEOUT, !DEBUG ? 4 * 60 * 1000L : 60 * 1000L); LOCATING_TIMEOUT = mParser.getLong(KEY_LOCATING_TIMEOUT, !DEBUG ? 30 * 1000L : 15 * 1000L); LOCATION_ACCURACY = mParser.getFloat(KEY_LOCATION_ACCURACY, 20); MOTION_INACTIVE_TIMEOUT = mParser.getLong(KEY_MOTION_INACTIVE_TIMEOUT, !COMPRESS_TIME ? 10 * 60 * 1000L : 60 * 1000L); IDLE_AFTER_INACTIVE_TIMEOUT = mParser.getLong(KEY_IDLE_AFTER_INACTIVE_TIMEOUT, !COMPRESS_TIME ? 30 * 60 * 1000L : 3 * 60 * 1000L); IDLE_PENDING_TIMEOUT = mParser.getLong(KEY_IDLE_PENDING_TIMEOUT, !COMPRESS_TIME ? 5 * 60 * 1000L : 30 * 1000L); MAX_IDLE_PENDING_TIMEOUT = mParser.getLong(KEY_MAX_IDLE_PENDING_TIMEOUT, !COMPRESS_TIME ? 10 * 60 * 1000L : 60 * 1000L); IDLE_PENDING_FACTOR = mParser.getFloat(KEY_IDLE_PENDING_FACTOR, 2f); IDLE_TIMEOUT = mParser.getLong(KEY_IDLE_TIMEOUT, !COMPRESS_TIME ? 60 * 60 * 1000L : 6 * 60 * 1000L); MAX_IDLE_TIMEOUT = mParser.getLong(KEY_MAX_IDLE_TIMEOUT, !COMPRESS_TIME ? 6 * 60 * 60 * 1000L : 30 * 60 * 1000L); IDLE_FACTOR = mParser.getFloat(KEY_IDLE_FACTOR, 2f); MIN_TIME_TO_ALARM = mParser.getLong(KEY_MIN_TIME_TO_ALARM, !COMPRESS_TIME ? 60 * 60 * 1000L : 6 * 60 * 1000L); MAX_TEMP_APP_WHITELIST_DURATION = mParser.getLong( KEY_MAX_TEMP_APP_WHITELIST_DURATION, 5 * 60 * 1000L); MMS_TEMP_APP_WHITELIST_DURATION = mParser.getLong( KEY_MMS_TEMP_APP_WHITELIST_DURATION, 60 * 1000L); SMS_TEMP_APP_WHITELIST_DURATION = mParser.getLong( KEY_SMS_TEMP_APP_WHITELIST_DURATION, 20 * 1000L); } } void dump(PrintWriter pw) { pw.println(" Settings:"); pw.print(" "); pw.print(KEY_INACTIVE_TIMEOUT); pw.print("="); TimeUtils.formatDuration(INACTIVE_TIMEOUT, pw); pw.println(); pw.print(" "); pw.print(KEY_SENSING_TIMEOUT); pw.print("="); TimeUtils.formatDuration(SENSING_TIMEOUT, pw); pw.println(); pw.print(" "); pw.print(KEY_LOCATING_TIMEOUT); pw.print("="); TimeUtils.formatDuration(LOCATING_TIMEOUT, pw); pw.println(); pw.print(" "); pw.print(KEY_LOCATION_ACCURACY); pw.print("="); pw.print(LOCATION_ACCURACY); pw.print("m"); pw.println(); pw.print(" "); pw.print(KEY_MOTION_INACTIVE_TIMEOUT); pw.print("="); TimeUtils.formatDuration(MOTION_INACTIVE_TIMEOUT, pw); pw.println(); pw.print(" "); pw.print(KEY_IDLE_AFTER_INACTIVE_TIMEOUT); pw.print("="); TimeUtils.formatDuration(IDLE_AFTER_INACTIVE_TIMEOUT, pw); pw.println(); pw.print(" "); pw.print(KEY_IDLE_PENDING_TIMEOUT); pw.print("="); TimeUtils.formatDuration(IDLE_PENDING_TIMEOUT, pw); pw.println(); pw.print(" "); pw.print(KEY_MAX_IDLE_PENDING_TIMEOUT); pw.print("="); TimeUtils.formatDuration(MAX_IDLE_PENDING_TIMEOUT, pw); pw.println(); pw.print(" "); pw.print(KEY_IDLE_PENDING_FACTOR); pw.print("="); pw.println(IDLE_PENDING_FACTOR); pw.print(" "); pw.print(KEY_IDLE_TIMEOUT); pw.print("="); TimeUtils.formatDuration(IDLE_TIMEOUT, pw); pw.println(); pw.print(" "); pw.print(KEY_MAX_IDLE_TIMEOUT); pw.print("="); TimeUtils.formatDuration(MAX_IDLE_TIMEOUT, pw); pw.println(); pw.print(" "); pw.print(KEY_IDLE_FACTOR); pw.print("="); pw.println(IDLE_FACTOR); pw.print(" "); pw.print(KEY_MIN_TIME_TO_ALARM); pw.print("="); TimeUtils.formatDuration(MIN_TIME_TO_ALARM, pw); pw.println(); pw.print(" "); pw.print(KEY_MAX_TEMP_APP_WHITELIST_DURATION); pw.print("="); TimeUtils.formatDuration(MAX_TEMP_APP_WHITELIST_DURATION, pw); pw.println(); pw.print(" "); pw.print(KEY_MMS_TEMP_APP_WHITELIST_DURATION); pw.print("="); TimeUtils.formatDuration(MMS_TEMP_APP_WHITELIST_DURATION, pw); pw.println(); pw.print(" "); pw.print(KEY_SMS_TEMP_APP_WHITELIST_DURATION); pw.print("="); TimeUtils.formatDuration(SMS_TEMP_APP_WHITELIST_DURATION, pw); pw.println(); } } private Constants mConstants; @Override public void onAnyMotionResult(int result) { if (DEBUG) Slog.d(TAG, "onAnyMotionResult(" + result + ")"); if (result == AnyMotionDetector.RESULT_MOVED) { if (DEBUG) Slog.d(TAG, "RESULT_MOVED received."); synchronized (this) { handleMotionDetectedLocked(mConstants.INACTIVE_TIMEOUT, "sense_motion"); } } else if (result == AnyMotionDetector.RESULT_STATIONARY) { if (DEBUG) Slog.d(TAG, "RESULT_STATIONARY received."); if (mState == STATE_SENSING) { // If we are currently sensing, it is time to move to locating. synchronized (this) { mNotMoving = true; stepIdleStateLocked(); } } else if (mState == STATE_LOCATING) { // If we are currently locating, note that we are not moving and step // if we have located the position. synchronized (this) { mNotMoving = true; if (mLocated) { stepIdleStateLocked(); } } } } } static final int MSG_WRITE_CONFIG = 1; static final int MSG_REPORT_IDLE_ON = 2; static final int MSG_REPORT_IDLE_OFF = 3; static final int MSG_REPORT_ACTIVE = 4; static final int MSG_TEMP_APP_WHITELIST_TIMEOUT = 5; final class MyHandler extends Handler { MyHandler(Looper looper) { super(looper); } @Override public void handleMessage(Message msg) { if (DEBUG) Slog.d(TAG, "handleMessage(" + msg.what + ")"); switch (msg.what) { case MSG_WRITE_CONFIG: { handleWriteConfigFile(); } break; case MSG_REPORT_IDLE_ON: { EventLogTags.writeDeviceIdleOnStart(); mLocalPowerManager.setDeviceIdleMode(true); try { mNetworkPolicyManager.setDeviceIdleMode(true); mBatteryStats.noteDeviceIdleMode(true, null, Process.myUid()); } catch (RemoteException e) { } getContext().sendBroadcastAsUser(mIdleIntent, UserHandle.ALL); EventLogTags.writeDeviceIdleOnComplete(); } break; case MSG_REPORT_IDLE_OFF: { EventLogTags.writeDeviceIdleOffStart("unknown"); mLocalPowerManager.setDeviceIdleMode(false); try { mNetworkPolicyManager.setDeviceIdleMode(false); mBatteryStats.noteDeviceIdleMode(false, null, Process.myUid()); } catch (RemoteException e) { } getContext().sendBroadcastAsUser(mIdleIntent, UserHandle.ALL); EventLogTags.writeDeviceIdleOffComplete(); } break; case MSG_REPORT_ACTIVE: { String activeReason = (String)msg.obj; int activeUid = msg.arg1; boolean needBroadcast = msg.arg2 != 0; EventLogTags.writeDeviceIdleOffStart( activeReason != null ? activeReason : "unknown"); mLocalPowerManager.setDeviceIdleMode(false); try { mNetworkPolicyManager.setDeviceIdleMode(false); mBatteryStats.noteDeviceIdleMode(false, activeReason, activeUid); } catch (RemoteException e) { } if (needBroadcast) { getContext().sendBroadcastAsUser(mIdleIntent, UserHandle.ALL); } EventLogTags.writeDeviceIdleOffComplete(); } break; case MSG_TEMP_APP_WHITELIST_TIMEOUT: { int uid = msg.arg1; checkTempAppWhitelistTimeout(uid); } break; } } } final MyHandler mHandler; private final class BinderService extends IDeviceIdleController.Stub { @Override public void addPowerSaveWhitelistApp(String name) { getContext().enforceCallingOrSelfPermission(android.Manifest.permission.DEVICE_POWER, null); addPowerSaveWhitelistAppInternal(name); } @Override public void removePowerSaveWhitelistApp(String name) { getContext().enforceCallingOrSelfPermission(android.Manifest.permission.DEVICE_POWER, null); removePowerSaveWhitelistAppInternal(name); } @Override public String[] getSystemPowerWhitelistExceptIdle() { return getSystemPowerWhitelistExceptIdleInternal(); } @Override public String[] getSystemPowerWhitelist() { return getSystemPowerWhitelistInternal(); } @Override public String[] getFullPowerWhitelistExceptIdle() { return getFullPowerWhitelistExceptIdleInternal(); } @Override public String[] getFullPowerWhitelist() { return getFullPowerWhitelistInternal(); } @Override public int[] getAppIdWhitelistExceptIdle() { return getAppIdWhitelistExceptIdleInternal(); } @Override public int[] getAppIdWhitelist() { return getAppIdWhitelistInternal(); } @Override public int[] getAppIdTempWhitelist() { return getAppIdTempWhitelistInternal(); } @Override public boolean isPowerSaveWhitelistExceptIdleApp(String name) { return isPowerSaveWhitelistExceptIdleAppInternal(name); } @Override public boolean isPowerSaveWhitelistApp(String name) { return isPowerSaveWhitelistAppInternal(name); } @Override public void addPowerSaveTempWhitelistApp(String packageName, long duration, int userId, String reason) throws RemoteException { getContext().enforceCallingPermission( Manifest.permission.CHANGE_DEVICE_IDLE_TEMP_WHITELIST, "No permission to change device idle whitelist"); final int callingUid = Binder.getCallingUid(); userId = ActivityManagerNative.getDefault().handleIncomingUser( Binder.getCallingPid(), callingUid, userId, /*allowAll=*/ false, /*requireFull=*/ false, "addPowerSaveTempWhitelistApp", null); final long token = Binder.clearCallingIdentity(); try { DeviceIdleController.this.addPowerSaveTempWhitelistAppInternal(callingUid, packageName, duration, userId, true, reason); } finally { Binder.restoreCallingIdentity(token); } } @Override public long addPowerSaveTempWhitelistAppForMms(String packageName, int userId, String reason) throws RemoteException { long duration = mConstants.MMS_TEMP_APP_WHITELIST_DURATION; addPowerSaveTempWhitelistApp(packageName, duration, userId, reason); return duration; } @Override public long addPowerSaveTempWhitelistAppForSms(String packageName, int userId, String reason) throws RemoteException { long duration = mConstants.SMS_TEMP_APP_WHITELIST_DURATION; addPowerSaveTempWhitelistApp(packageName, duration, userId, reason); return duration; } @Override public void exitIdle(String reason) { getContext().enforceCallingOrSelfPermission(android.Manifest.permission.DEVICE_POWER, null); exitIdleInternal(reason); } @Override protected void dump(FileDescriptor fd, PrintWriter pw, String[] args) { DeviceIdleController.this.dump(fd, pw, args); } } public final class LocalService { public void addPowerSaveTempWhitelistAppDirect(int appId, long duration, boolean sync, String reason) { addPowerSaveTempWhitelistAppDirectInternal(0, appId, duration, sync, reason); } public void setNetworkPolicyTempWhitelistCallback(Runnable callback) { setNetworkPolicyTempWhitelistCallbackInternal(callback); } } public DeviceIdleController(Context context) { super(context); mConfigFile = new AtomicFile(new File(getSystemDir(), "deviceidle.xml")); mHandler = new MyHandler(BackgroundThread.getHandler().getLooper()); } private static File getSystemDir() { return new File(Environment.getDataDirectory(), "system"); } @Override public void onStart() { final PackageManager pm = getContext().getPackageManager(); synchronized (this) { mEnabled = getContext().getResources().getBoolean( com.android.internal.R.bool.config_enableAutoPowerModes); SystemConfig sysConfig = SystemConfig.getInstance(); ArraySet allowPowerExceptIdle = sysConfig.getAllowInPowerSaveExceptIdle(); for (int i=0; i allowPower = sysConfig.getAllowInPowerSave(); for (int i=0; i= Process.FIRST_APPLICATION_UID) { if (!mPowerSaveWhitelistSystemAppIds.get(callingAppId)) { throw new SecurityException("Calling app " + UserHandle.formatUid(callingUid) + " is not on whitelist"); } } duration = Math.min(duration, mConstants.MAX_TEMP_APP_WHITELIST_DURATION); Pair entry = mTempWhitelistAppIdEndTimes.get(appId); final boolean newEntry = entry == null; // Set the new end time if (newEntry) { entry = new Pair<>(new MutableLong(0), reason); mTempWhitelistAppIdEndTimes.put(appId, entry); } entry.first.value = timeNow + duration; if (DEBUG) { Slog.d(TAG, "Adding AppId " + appId + " to temp whitelist"); } if (newEntry) { // No pending timeout for the app id, post a delayed message try { mBatteryStats.noteEvent(BatteryStats.HistoryItem.EVENT_TEMP_WHITELIST_START, reason, appId); } catch (RemoteException e) { } postTempActiveTimeoutMessage(appId, duration); updateTempWhitelistAppIdsLocked(); if (mNetworkPolicyTempWhitelistCallback != null) { if (!sync) { mHandler.post(mNetworkPolicyTempWhitelistCallback); } else { networkPolicyTempWhitelistCallback = mNetworkPolicyTempWhitelistCallback; } } reportTempWhitelistChangedLocked(); } } if (networkPolicyTempWhitelistCallback != null) { networkPolicyTempWhitelistCallback.run(); } } public void setNetworkPolicyTempWhitelistCallbackInternal(Runnable callback) { synchronized (this) { mNetworkPolicyTempWhitelistCallback = callback; } } private void postTempActiveTimeoutMessage(int uid, long delay) { mHandler.sendMessageDelayed(mHandler.obtainMessage(MSG_TEMP_APP_WHITELIST_TIMEOUT, uid, 0), delay); } void checkTempAppWhitelistTimeout(int uid) { final long timeNow = SystemClock.elapsedRealtime(); synchronized (this) { Pair entry = mTempWhitelistAppIdEndTimes.get(uid); if (entry == null) { // Nothing to do return; } if (timeNow >= entry.first.value) { mTempWhitelistAppIdEndTimes.delete(uid); if (DEBUG) { Slog.d(TAG, "Removing UID " + uid + " from temp whitelist"); } updateTempWhitelistAppIdsLocked(); if (mNetworkPolicyTempWhitelistCallback != null) { mHandler.post(mNetworkPolicyTempWhitelistCallback); } reportTempWhitelistChangedLocked(); try { mBatteryStats.noteEvent(BatteryStats.HistoryItem.EVENT_TEMP_WHITELIST_FINISH, entry.second, uid); } catch (RemoteException e) { } } else { // Need more time postTempActiveTimeoutMessage(uid, entry.first.value - timeNow); } } } public void exitIdleInternal(String reason) { synchronized (this) { becomeActiveLocked(reason, Binder.getCallingUid()); } } void updateDisplayLocked() { mCurDisplay = mDisplayManager.getDisplay(Display.DEFAULT_DISPLAY); // We consider any situation where the display is showing something to be it on, // because if there is anything shown we are going to be updating it at some // frequency so can't be allowed to go into deep sleeps. boolean screenOn = mCurDisplay.getState() == Display.STATE_ON; if (DEBUG) Slog.d(TAG, "updateDisplayLocked: screenOn=" + screenOn); if (!screenOn && mScreenOn) { mScreenOn = false; if (!mForceIdle) { becomeInactiveIfAppropriateLocked(); } } else if (screenOn) { mScreenOn = true; if (!mForceIdle) { becomeActiveLocked("screen", Process.myUid()); } } } void updateChargingLocked(boolean charging) { if (DEBUG) Slog.i(TAG, "updateChargingLocked: charging=" + charging); if (!charging && mCharging) { mCharging = false; if (!mForceIdle) { becomeInactiveIfAppropriateLocked(); } } else if (charging) { mCharging = charging; if (!mForceIdle) { becomeActiveLocked("charging", Process.myUid()); } } } void scheduleReportActiveLocked(String activeReason, int activeUid) { Message msg = mHandler.obtainMessage(MSG_REPORT_ACTIVE, activeUid, mState == STATE_IDLE ? 1 : 0, activeReason); mHandler.sendMessage(msg); } void becomeActiveLocked(String activeReason, int activeUid) { if (DEBUG) Slog.i(TAG, "becomeActiveLocked, reason = " + activeReason); if (mState != STATE_ACTIVE) { EventLogTags.writeDeviceIdle(STATE_ACTIVE, activeReason); scheduleReportActiveLocked(activeReason, activeUid); mState = STATE_ACTIVE; mInactiveTimeout = mConstants.INACTIVE_TIMEOUT; resetIdleManagementLocked(); } } void becomeInactiveIfAppropriateLocked() { if (DEBUG) Slog.d(TAG, "becomeInactiveIfAppropriateLocked()"); if (((!mScreenOn && !mCharging) || mForceIdle) && mEnabled && mState == STATE_ACTIVE) { // Screen has turned off; we are now going to become inactive and start // waiting to see if we will ultimately go idle. mState = STATE_INACTIVE; if (DEBUG) Slog.d(TAG, "Moved from STATE_ACTIVE to STATE_INACTIVE"); resetIdleManagementLocked(); scheduleAlarmLocked(mInactiveTimeout, false); EventLogTags.writeDeviceIdle(mState, "no activity"); } } void resetIdleManagementLocked() { mNextIdlePendingDelay = 0; mNextIdleDelay = 0; cancelAlarmLocked(); cancelSensingAlarmLocked(); cancelLocatingLocked(); stopMonitoringSignificantMotion(); mAnyMotionDetector.stop(); } void exitForceIdleLocked() { if (mForceIdle) { mForceIdle = false; if (mScreenOn || mCharging) { becomeActiveLocked("exit-force-idle", Process.myUid()); } } } void stepIdleStateLocked() { if (DEBUG) Slog.d(TAG, "stepIdleStateLocked: mState=" + mState); EventLogTags.writeDeviceIdleStep(); final long now = SystemClock.elapsedRealtime(); if ((now+mConstants.MIN_TIME_TO_ALARM) > mAlarmManager.getNextWakeFromIdleTime()) { // Whoops, there is an upcoming alarm. We don't actually want to go idle. if (mState != STATE_ACTIVE) { becomeActiveLocked("alarm", Process.myUid()); } return; } switch (mState) { case STATE_INACTIVE: // We have now been inactive long enough, it is time to start looking // for significant motion and sleep some more while doing so. startMonitoringSignificantMotion(); scheduleAlarmLocked(mConstants.IDLE_AFTER_INACTIVE_TIMEOUT, false); // Reset the upcoming idle delays. mNextIdlePendingDelay = mConstants.IDLE_PENDING_TIMEOUT; mNextIdleDelay = mConstants.IDLE_TIMEOUT; mState = STATE_IDLE_PENDING; if (DEBUG) Slog.d(TAG, "Moved from STATE_INACTIVE to STATE_IDLE_PENDING."); EventLogTags.writeDeviceIdle(mState, "step"); break; case STATE_IDLE_PENDING: mState = STATE_SENSING; if (DEBUG) Slog.d(TAG, "Moved from STATE_IDLE_PENDING to STATE_SENSING."); EventLogTags.writeDeviceIdle(mState, "step"); scheduleSensingAlarmLocked(mConstants.SENSING_TIMEOUT); cancelLocatingLocked(); mAnyMotionDetector.checkForAnyMotion(); mNotMoving = false; mLocated = false; mLastGenericLocation = null; mLastGpsLocation = null; break; case STATE_SENSING: mState = STATE_LOCATING; if (DEBUG) Slog.d(TAG, "Moved from STATE_SENSING to STATE_LOCATING."); EventLogTags.writeDeviceIdle(mState, "step"); scheduleSensingAlarmLocked(mConstants.LOCATING_TIMEOUT); mLocating = true; mLocationManager.requestLocationUpdates(mLocationRequest, mGenericLocationListener, mHandler.getLooper()); if (mLocationManager.getProvider(LocationManager.GPS_PROVIDER) != null) { mHaveGps = true; mLocationManager.requestLocationUpdates(LocationManager.GPS_PROVIDER, 1000, 5, mGpsLocationListener, mHandler.getLooper()); } else { mHaveGps = false; } break; case STATE_LOCATING: cancelSensingAlarmLocked(); cancelLocatingLocked(); mAnyMotionDetector.stop(); case STATE_IDLE_MAINTENANCE: scheduleAlarmLocked(mNextIdleDelay, true); if (DEBUG) Slog.d(TAG, "Moved to STATE_IDLE. Next alarm in " + mNextIdleDelay + " ms."); mNextIdleDelay = (long)(mNextIdleDelay * mConstants.IDLE_FACTOR); if (DEBUG) Slog.d(TAG, "Setting mNextIdleDelay = " + mNextIdleDelay); mNextIdleDelay = Math.min(mNextIdleDelay, mConstants.MAX_IDLE_TIMEOUT); mState = STATE_IDLE; EventLogTags.writeDeviceIdle(mState, "step"); mHandler.sendEmptyMessage(MSG_REPORT_IDLE_ON); break; case STATE_IDLE: // We have been idling long enough, now it is time to do some work. scheduleAlarmLocked(mNextIdlePendingDelay, false); if (DEBUG) Slog.d(TAG, "Moved from STATE_IDLE to STATE_IDLE_MAINTENANCE. " + "Next alarm in " + mNextIdlePendingDelay + " ms."); mNextIdlePendingDelay = Math.min(mConstants.MAX_IDLE_PENDING_TIMEOUT, (long)(mNextIdlePendingDelay * mConstants.IDLE_PENDING_FACTOR)); mState = STATE_IDLE_MAINTENANCE; EventLogTags.writeDeviceIdle(mState, "step"); mHandler.sendEmptyMessage(MSG_REPORT_IDLE_OFF); break; } } void significantMotionLocked() { if (DEBUG) Slog.d(TAG, "significantMotionLocked()"); // When the sensor goes off, its trigger is automatically removed. mSigMotionActive = false; handleMotionDetectedLocked(mConstants.MOTION_INACTIVE_TIMEOUT, "motion"); } void handleMotionDetectedLocked(long timeout, String type) { // The device is not yet active, so we want to go back to the pending idle // state to wait again for no motion. Note that we only monitor for significant // motion after moving out of the inactive state, so no need to worry about that. if (mState != STATE_ACTIVE) { scheduleReportActiveLocked(type, Process.myUid()); mState = STATE_ACTIVE; mInactiveTimeout = timeout; EventLogTags.writeDeviceIdle(mState, type); cancelSensingAlarmLocked(); becomeInactiveIfAppropriateLocked(); } } void receivedGenericLocationLocked(Location location) { if (mState != STATE_LOCATING) { cancelLocatingLocked(); return; } if (DEBUG) Slog.d(TAG, "Generic location: " + location); mLastGenericLocation = new Location(location); if (location.getAccuracy() > mConstants.LOCATION_ACCURACY && mHaveGps) { return; } mLocated = true; if (mNotMoving) { stepIdleStateLocked(); } } void receivedGpsLocationLocked(Location location) { if (mState != STATE_LOCATING) { cancelLocatingLocked(); return; } if (DEBUG) Slog.d(TAG, "GPS location: " + location); mLastGpsLocation = new Location(location); if (location.getAccuracy() > mConstants.LOCATION_ACCURACY) { return; } mLocated = true; if (mNotMoving) { stepIdleStateLocked(); } } void startMonitoringSignificantMotion() { if (DEBUG) Slog.d(TAG, "startMonitoringSignificantMotion()"); if (mSigMotionSensor != null && !mSigMotionActive) { mSensorManager.requestTriggerSensor(mSigMotionListener, mSigMotionSensor); mSigMotionActive = true; } } void stopMonitoringSignificantMotion() { if (DEBUG) Slog.d(TAG, "stopMonitoringSignificantMotion()"); if (mSigMotionActive) { mSensorManager.cancelTriggerSensor(mSigMotionListener, mSigMotionSensor); mSigMotionActive = false; } } void cancelAlarmLocked() { if (mNextAlarmTime != 0) { mNextAlarmTime = 0; mAlarmManager.cancel(mAlarmIntent); } } void cancelSensingAlarmLocked() { if (mSensing) { if (DEBUG) Slog.d(TAG, "cancelSensingAlarmLocked()"); mAlarmManager.cancel(mSensingAlarmIntent); mSensing = false; } } void cancelLocatingLocked() { if (mLocating) { mLocationManager.removeUpdates(mGenericLocationListener); mLocationManager.removeUpdates(mGpsLocationListener); mLocating = false; } } void scheduleAlarmLocked(long delay, boolean idleUntil) { if (DEBUG) Slog.d(TAG, "scheduleAlarmLocked(" + delay + ", " + idleUntil + ")"); if (mSigMotionSensor == null) { // If there is no significant motion sensor on this device, then we won't schedule // alarms, because we can't determine if the device is not moving. This effectively // turns off normal exeuction of device idling, although it is still possible to // manually poke it by pretending like the alarm is going off. return; } mNextAlarmTime = SystemClock.elapsedRealtime() + delay; if (idleUntil) { mAlarmManager.setIdleUntil(AlarmManager.ELAPSED_REALTIME_WAKEUP, mNextAlarmTime, mAlarmIntent); } else { mAlarmManager.set(AlarmManager.ELAPSED_REALTIME_WAKEUP, mNextAlarmTime, mAlarmIntent); } } void scheduleSensingAlarmLocked(long delay) { if (DEBUG) Slog.d(TAG, "scheduleSensingAlarmLocked(" + delay + ")"); cancelSensingAlarmLocked(); mNextAlarmTime = SystemClock.elapsedRealtime() + delay; mAlarmManager.set(AlarmManager.ELAPSED_REALTIME_WAKEUP, mNextAlarmTime, mSensingAlarmIntent); mSensing = true; } private static int[] buildAppIdArray(ArrayMap systemApps, ArrayMap userApps, SparseBooleanArray outAppIds) { outAppIds.clear(); for (int i=0; i outerDepth)) { if (type == XmlPullParser.END_TAG || type == XmlPullParser.TEXT) { continue; } String tagName = parser.getName(); if (tagName.equals("wl")) { String name = parser.getAttributeValue(null, "n"); if (name != null) { try { ApplicationInfo ai = pm.getApplicationInfo(name, PackageManager.GET_UNINSTALLED_PACKAGES | PackageManager.GET_DISABLED_COMPONENTS | PackageManager.GET_DISABLED_UNTIL_USED_COMPONENTS); mPowerSaveWhitelistUserApps.put(ai.packageName, UserHandle.getAppId(ai.uid)); } catch (PackageManager.NameNotFoundException e) { } } } else { Slog.w(TAG, "Unknown element under : " + parser.getName()); XmlUtils.skipCurrentTag(parser); } } } catch (IllegalStateException e) { Slog.w(TAG, "Failed parsing config " + e); } catch (NullPointerException e) { Slog.w(TAG, "Failed parsing config " + e); } catch (NumberFormatException e) { Slog.w(TAG, "Failed parsing config " + e); } catch (XmlPullParserException e) { Slog.w(TAG, "Failed parsing config " + e); } catch (IOException e) { Slog.w(TAG, "Failed parsing config " + e); } catch (IndexOutOfBoundsException e) { Slog.w(TAG, "Failed parsing config " + e); } } void writeConfigFileLocked() { mHandler.removeMessages(MSG_WRITE_CONFIG); mHandler.sendEmptyMessageDelayed(MSG_WRITE_CONFIG, 5000); } void handleWriteConfigFile() { final ByteArrayOutputStream memStream = new ByteArrayOutputStream(); try { synchronized (this) { XmlSerializer out = new FastXmlSerializer(); out.setOutput(memStream, StandardCharsets.UTF_8.name()); writeConfigFileLocked(out); } } catch (IOException e) { } synchronized (mConfigFile) { FileOutputStream stream = null; try { stream = mConfigFile.startWrite(); memStream.writeTo(stream); stream.flush(); FileUtils.sync(stream); stream.close(); mConfigFile.finishWrite(stream); } catch (IOException e) { Slog.w(TAG, "Error writing config file", e); mConfigFile.failWrite(stream); } } } void writeConfigFileLocked(XmlSerializer out) throws IOException { out.startDocument(null, true); out.startTag(null, "config"); for (int i=0; i= args.length) { pw.println("At least one package name must be specified"); return; } while (i < args.length) { arg = args[i]; i++; addPowerSaveTempWhitelistAppInternal(0, arg, 10000L, userId, true, "shell"); pw.println("Added: " + arg); } } finally { Binder.restoreCallingIdentity(token); } return; } else if (arg.length() > 0 && arg.charAt(0) == '-'){ pw.println("Unknown option: " + arg); return; } else { pw.println("Unknown command: " + arg); return; } } } synchronized (this) { mConstants.dump(pw); int size = mPowerSaveWhitelistAppsExceptIdle.size(); if (size > 0) { pw.println(" Whitelist (except idle) system apps:"); for (int i = 0; i < size; i++) { pw.print(" "); pw.println(mPowerSaveWhitelistAppsExceptIdle.keyAt(i)); } } size = mPowerSaveWhitelistApps.size(); if (size > 0) { pw.println(" Whitelist system apps:"); for (int i = 0; i < size; i++) { pw.print(" "); pw.println(mPowerSaveWhitelistApps.keyAt(i)); } } size = mPowerSaveWhitelistUserApps.size(); if (size > 0) { pw.println(" Whitelist user apps:"); for (int i = 0; i < size; i++) { pw.print(" "); pw.println(mPowerSaveWhitelistUserApps.keyAt(i)); } } size = mPowerSaveWhitelistExceptIdleAppIds.size(); if (size > 0) { pw.println(" Whitelist (except idle) all app ids:"); for (int i = 0; i < size; i++) { pw.print(" "); pw.print(mPowerSaveWhitelistExceptIdleAppIds.keyAt(i)); pw.println(); } } size = mPowerSaveWhitelistAllAppIds.size(); if (size > 0) { pw.println(" Whitelist all app ids:"); for (int i = 0; i < size; i++) { pw.print(" "); pw.print(mPowerSaveWhitelistAllAppIds.keyAt(i)); pw.println(); } } size = mTempWhitelistAppIdEndTimes.size(); if (size > 0) { pw.println(" Temp whitelist schedule:"); final long timeNow = SystemClock.elapsedRealtime(); for (int i = 0; i < size; i++) { pw.print(" UID="); pw.print(mTempWhitelistAppIdEndTimes.keyAt(i)); pw.print(": "); Pair entry = mTempWhitelistAppIdEndTimes.valueAt(i); TimeUtils.formatDuration(entry.first.value, timeNow, pw); pw.print(" - "); pw.println(entry.second); } } size = mTempWhitelistAppIdArray != null ? mTempWhitelistAppIdArray.length : 0; if (size > 0) { pw.println(" Temp whitelist app ids:"); for (int i = 0; i < size; i++) { pw.print(" "); pw.print(mTempWhitelistAppIdArray[i]); pw.println(); } } pw.print(" mEnabled="); pw.println(mEnabled); pw.print(" mForceIdle="); pw.println(mForceIdle); pw.print(" mSigMotionSensor="); pw.println(mSigMotionSensor); pw.print(" mCurDisplay="); pw.println(mCurDisplay); pw.print(" mScreenOn="); pw.println(mScreenOn); pw.print(" mCharging="); pw.println(mCharging); pw.print(" mSigMotionActive="); pw.println(mSigMotionActive); pw.print(" mSensing="); pw.print(mSensing); pw.print(" mNotMoving="); pw.println(mNotMoving); pw.print(" mLocating="); pw.print(mLocating); pw.print(" mHaveGps="); pw.print(mHaveGps); pw.print(" mLocated="); pw.println(mLocated); if (mLastGenericLocation != null) { pw.print(" mLastGenericLocation="); pw.println(mLastGenericLocation); } if (mLastGpsLocation != null) { pw.print(" mLastGpsLocation="); pw.println(mLastGpsLocation); } pw.print(" mState="); pw.println(stateToString(mState)); pw.print(" mInactiveTimeout="); TimeUtils.formatDuration(mInactiveTimeout, pw); pw.println(); if (mNextAlarmTime != 0) { pw.print(" mNextAlarmTime="); TimeUtils.formatDuration(mNextAlarmTime, SystemClock.elapsedRealtime(), pw); pw.println(); } if (mNextIdlePendingDelay != 0) { pw.print(" mNextIdlePendingDelay="); TimeUtils.formatDuration(mNextIdlePendingDelay, pw); pw.println(); } if (mNextIdleDelay != 0) { pw.print(" mNextIdleDelay="); TimeUtils.formatDuration(mNextIdleDelay, pw); pw.println(); } } } }