OLD | NEW |
1 // Copyright 2012 The Chromium Authors. All rights reserved. | 1 // Copyright 2012 The Chromium Authors. All rights reserved. |
2 // Use of this source code is governed by a BSD-style license that can be | 2 // Use of this source code is governed by a BSD-style license that can be |
3 // found in the LICENSE file. | 3 // found in the LICENSE file. |
4 | 4 |
5 #include "cc/resources/tile_manager.h" | 5 #include "cc/resources/tile_manager.h" |
6 | 6 |
7 #include <algorithm> | 7 #include <algorithm> |
8 #include <limits> | 8 #include <limits> |
9 #include <string> | 9 #include <string> |
10 | 10 |
(...skipping 1118 matching lines...) Expand 10 before | Expand all | Expand 10 after Loading... |
1129 source_frame_number, | 1129 source_frame_number, |
1130 flags)); | 1130 flags)); |
1131 DCHECK(tiles_.find(tile->id()) == tiles_.end()); | 1131 DCHECK(tiles_.find(tile->id()) == tiles_.end()); |
1132 | 1132 |
1133 tiles_[tile->id()] = tile; | 1133 tiles_[tile->id()] = tile; |
1134 used_layer_counts_[tile->layer_id()]++; | 1134 used_layer_counts_[tile->layer_id()]++; |
1135 prioritized_tiles_dirty_ = true; | 1135 prioritized_tiles_dirty_ = true; |
1136 return tile; | 1136 return tile; |
1137 } | 1137 } |
1138 | 1138 |
1139 void TileManager::GetPairedPictureLayers( | |
1140 std::vector<PairedPictureLayer>* paired_layers) const { | |
1141 const std::vector<PictureLayerImpl*>& layers = client_->GetPictureLayers(); | |
1142 | |
1143 paired_layers->clear(); | |
1144 // Reserve a maximum possible paired layers. | |
1145 paired_layers->reserve(layers.size()); | |
1146 | |
1147 for (std::vector<PictureLayerImpl*>::const_iterator it = layers.begin(); | |
1148 it != layers.end(); | |
1149 ++it) { | |
1150 PictureLayerImpl* layer = *it; | |
1151 | |
1152 // TODO(vmpstr): Iterators and should handle this instead. crbug.com/381704 | |
1153 if (!layer->HasValidTilePriorities()) | |
1154 continue; | |
1155 | |
1156 PictureLayerImpl* twin_layer = layer->GetTwinLayer(); | |
1157 | |
1158 // Ignore the twin layer when tile priorities are invalid. | |
1159 // TODO(vmpstr): Iterators should handle this instead. crbug.com/381704 | |
1160 if (twin_layer && !twin_layer->HasValidTilePriorities()) | |
1161 twin_layer = NULL; | |
1162 | |
1163 PairedPictureLayer paired_layer; | |
1164 WhichTree tree = layer->GetTree(); | |
1165 | |
1166 // If the current tree is ACTIVE_TREE, then always generate a paired_layer. | |
1167 // If current tree is PENDING_TREE, then only generate a paired_layer if | |
1168 // there is no twin layer. | |
1169 if (tree == ACTIVE_TREE) { | |
1170 DCHECK(!twin_layer || twin_layer->GetTree() == PENDING_TREE); | |
1171 paired_layer.active_layer = layer; | |
1172 paired_layer.pending_layer = twin_layer; | |
1173 paired_layers->push_back(paired_layer); | |
1174 } else if (!twin_layer) { | |
1175 paired_layer.active_layer = NULL; | |
1176 paired_layer.pending_layer = layer; | |
1177 paired_layers->push_back(paired_layer); | |
1178 } | |
1179 } | |
1180 } | |
1181 | |
1182 TileManager::PairedPictureLayer::PairedPictureLayer() | |
1183 : active_layer(NULL), pending_layer(NULL) {} | |
1184 | |
1185 TileManager::PairedPictureLayer::~PairedPictureLayer() {} | |
1186 | |
1187 TileManager::RasterTileIterator::RasterTileIterator(TileManager* tile_manager, | |
1188 TreePriority tree_priority) | |
1189 : tree_priority_(tree_priority), comparator_(tree_priority) { | |
1190 std::vector<TileManager::PairedPictureLayer> paired_layers; | |
1191 tile_manager->GetPairedPictureLayers(&paired_layers); | |
1192 bool prioritize_low_res = tree_priority_ == SMOOTHNESS_TAKES_PRIORITY; | |
1193 | |
1194 paired_iterators_.reserve(paired_layers.size()); | |
1195 iterator_heap_.reserve(paired_layers.size()); | |
1196 for (std::vector<TileManager::PairedPictureLayer>::iterator it = | |
1197 paired_layers.begin(); | |
1198 it != paired_layers.end(); | |
1199 ++it) { | |
1200 PairedPictureLayerIterator paired_iterator; | |
1201 if (it->active_layer) { | |
1202 paired_iterator.active_iterator = | |
1203 PictureLayerImpl::LayerRasterTileIterator(it->active_layer, | |
1204 prioritize_low_res); | |
1205 } | |
1206 | |
1207 if (it->pending_layer) { | |
1208 paired_iterator.pending_iterator = | |
1209 PictureLayerImpl::LayerRasterTileIterator(it->pending_layer, | |
1210 prioritize_low_res); | |
1211 } | |
1212 | |
1213 if (paired_iterator.PeekTile(tree_priority_) != NULL) { | |
1214 paired_iterators_.push_back(paired_iterator); | |
1215 iterator_heap_.push_back(&paired_iterators_.back()); | |
1216 } | |
1217 } | |
1218 | |
1219 std::make_heap(iterator_heap_.begin(), iterator_heap_.end(), comparator_); | |
1220 } | |
1221 | |
1222 TileManager::RasterTileIterator::~RasterTileIterator() {} | |
1223 | |
1224 TileManager::RasterTileIterator& TileManager::RasterTileIterator::operator++() { | |
1225 DCHECK(*this); | |
1226 | |
1227 std::pop_heap(iterator_heap_.begin(), iterator_heap_.end(), comparator_); | |
1228 PairedPictureLayerIterator* paired_iterator = iterator_heap_.back(); | |
1229 iterator_heap_.pop_back(); | |
1230 | |
1231 paired_iterator->PopTile(tree_priority_); | |
1232 if (paired_iterator->PeekTile(tree_priority_) != NULL) { | |
1233 iterator_heap_.push_back(paired_iterator); | |
1234 std::push_heap(iterator_heap_.begin(), iterator_heap_.end(), comparator_); | |
1235 } | |
1236 return *this; | |
1237 } | |
1238 | |
1239 TileManager::RasterTileIterator::operator bool() const { | |
1240 return !iterator_heap_.empty(); | |
1241 } | |
1242 | |
1243 Tile* TileManager::RasterTileIterator::operator*() { | |
1244 DCHECK(*this); | |
1245 return iterator_heap_.front()->PeekTile(tree_priority_); | |
1246 } | |
1247 | |
1248 TileManager::RasterTileIterator::PairedPictureLayerIterator:: | |
1249 PairedPictureLayerIterator() {} | |
1250 | |
1251 TileManager::RasterTileIterator::PairedPictureLayerIterator:: | |
1252 ~PairedPictureLayerIterator() {} | |
1253 | |
1254 Tile* TileManager::RasterTileIterator::PairedPictureLayerIterator::PeekTile( | |
1255 TreePriority tree_priority) { | |
1256 PictureLayerImpl::LayerRasterTileIterator* next_iterator = | |
1257 NextTileIterator(tree_priority).first; | |
1258 if (!next_iterator) | |
1259 return NULL; | |
1260 | |
1261 DCHECK(*next_iterator); | |
1262 DCHECK(std::find(returned_shared_tiles.begin(), | |
1263 returned_shared_tiles.end(), | |
1264 **next_iterator) == returned_shared_tiles.end()); | |
1265 return **next_iterator; | |
1266 } | |
1267 | |
1268 void TileManager::RasterTileIterator::PairedPictureLayerIterator::PopTile( | |
1269 TreePriority tree_priority) { | |
1270 PictureLayerImpl::LayerRasterTileIterator* next_iterator = | |
1271 NextTileIterator(tree_priority).first; | |
1272 DCHECK(next_iterator); | |
1273 DCHECK(*next_iterator); | |
1274 returned_shared_tiles.push_back(**next_iterator); | |
1275 ++(*next_iterator); | |
1276 | |
1277 next_iterator = NextTileIterator(tree_priority).first; | |
1278 while (next_iterator && | |
1279 std::find(returned_shared_tiles.begin(), | |
1280 returned_shared_tiles.end(), | |
1281 **next_iterator) != returned_shared_tiles.end()) { | |
1282 ++(*next_iterator); | |
1283 next_iterator = NextTileIterator(tree_priority).first; | |
1284 } | |
1285 } | |
1286 | |
1287 std::pair<PictureLayerImpl::LayerRasterTileIterator*, WhichTree> | |
1288 TileManager::RasterTileIterator::PairedPictureLayerIterator::NextTileIterator( | |
1289 TreePriority tree_priority) { | |
1290 // If both iterators are out of tiles, return NULL. | |
1291 if (!active_iterator && !pending_iterator) { | |
1292 return std::pair<PictureLayerImpl::LayerRasterTileIterator*, WhichTree>( | |
1293 NULL, ACTIVE_TREE); | |
1294 } | |
1295 | |
1296 // If we only have one iterator with tiles, return it. | |
1297 if (!active_iterator) | |
1298 return std::make_pair(&pending_iterator, PENDING_TREE); | |
1299 if (!pending_iterator) | |
1300 return std::make_pair(&active_iterator, ACTIVE_TREE); | |
1301 | |
1302 // Now both iterators have tiles, so we have to decide based on tree priority. | |
1303 switch (tree_priority) { | |
1304 case SMOOTHNESS_TAKES_PRIORITY: | |
1305 return std::make_pair(&active_iterator, ACTIVE_TREE); | |
1306 case NEW_CONTENT_TAKES_PRIORITY: | |
1307 return std::make_pair(&pending_iterator, ACTIVE_TREE); | |
1308 case SAME_PRIORITY_FOR_BOTH_TREES: { | |
1309 Tile* active_tile = *active_iterator; | |
1310 Tile* pending_tile = *pending_iterator; | |
1311 if (active_tile == pending_tile) | |
1312 return std::make_pair(&active_iterator, ACTIVE_TREE); | |
1313 | |
1314 const TilePriority& active_priority = active_tile->priority(ACTIVE_TREE); | |
1315 const TilePriority& pending_priority = | |
1316 pending_tile->priority(PENDING_TREE); | |
1317 | |
1318 if (active_priority.IsHigherPriorityThan(pending_priority)) | |
1319 return std::make_pair(&active_iterator, ACTIVE_TREE); | |
1320 return std::make_pair(&pending_iterator, PENDING_TREE); | |
1321 } | |
1322 default: | |
1323 NOTREACHED(); | |
1324 } | |
1325 | |
1326 NOTREACHED(); | |
1327 // Keep the compiler happy. | |
1328 return std::pair<PictureLayerImpl::LayerRasterTileIterator*, WhichTree>( | |
1329 NULL, ACTIVE_TREE); | |
1330 } | |
1331 | |
1332 TileManager::RasterTileIterator::RasterOrderComparator::RasterOrderComparator( | |
1333 TreePriority tree_priority) | |
1334 : tree_priority_(tree_priority) {} | |
1335 | |
1336 bool TileManager::RasterTileIterator::RasterOrderComparator::operator()( | |
1337 PairedPictureLayerIterator* a, | |
1338 PairedPictureLayerIterator* b) const { | |
1339 std::pair<PictureLayerImpl::LayerRasterTileIterator*, WhichTree> a_pair = | |
1340 a->NextTileIterator(tree_priority_); | |
1341 DCHECK(a_pair.first); | |
1342 DCHECK(*a_pair.first); | |
1343 | |
1344 std::pair<PictureLayerImpl::LayerRasterTileIterator*, WhichTree> b_pair = | |
1345 b->NextTileIterator(tree_priority_); | |
1346 DCHECK(b_pair.first); | |
1347 DCHECK(*b_pair.first); | |
1348 | |
1349 Tile* a_tile = **a_pair.first; | |
1350 Tile* b_tile = **b_pair.first; | |
1351 | |
1352 const TilePriority& a_priority = | |
1353 a_tile->priority_for_tree_priority(tree_priority_); | |
1354 const TilePriority& b_priority = | |
1355 b_tile->priority_for_tree_priority(tree_priority_); | |
1356 bool prioritize_low_res = tree_priority_ == SMOOTHNESS_TAKES_PRIORITY; | |
1357 | |
1358 // Now we have to return true iff b is higher priority than a. | |
1359 | |
1360 // If the bin is the same but the resolution is not, then the order will be | |
1361 // determined by whether we prioritize low res or not. | |
1362 // TODO(vmpstr): Remove this when TilePriority is no longer a member of Tile | |
1363 // class but instead produced by the iterators. | |
1364 if (b_priority.priority_bin == a_priority.priority_bin && | |
1365 b_priority.resolution != a_priority.resolution) { | |
1366 // Non ideal resolution should be sorted lower than other resolutions. | |
1367 if (a_priority.resolution == NON_IDEAL_RESOLUTION) | |
1368 return true; | |
1369 | |
1370 if (b_priority.resolution == NON_IDEAL_RESOLUTION) | |
1371 return false; | |
1372 | |
1373 if (prioritize_low_res) | |
1374 return b_priority.resolution == LOW_RESOLUTION; | |
1375 | |
1376 return b_priority.resolution == HIGH_RESOLUTION; | |
1377 } | |
1378 | |
1379 return b_priority.IsHigherPriorityThan(a_priority); | |
1380 } | |
1381 | |
1382 TileManager::EvictionTileIterator::EvictionTileIterator() | |
1383 : comparator_(SAME_PRIORITY_FOR_BOTH_TREES) {} | |
1384 | |
1385 TileManager::EvictionTileIterator::EvictionTileIterator( | |
1386 TileManager* tile_manager, | |
1387 TreePriority tree_priority) | |
1388 : tree_priority_(tree_priority), comparator_(tree_priority) { | |
1389 std::vector<TileManager::PairedPictureLayer> paired_layers; | |
1390 | |
1391 tile_manager->GetPairedPictureLayers(&paired_layers); | |
1392 | |
1393 paired_iterators_.reserve(paired_layers.size()); | |
1394 iterator_heap_.reserve(paired_layers.size()); | |
1395 for (std::vector<TileManager::PairedPictureLayer>::iterator it = | |
1396 paired_layers.begin(); | |
1397 it != paired_layers.end(); | |
1398 ++it) { | |
1399 PairedPictureLayerIterator paired_iterator; | |
1400 if (it->active_layer) { | |
1401 paired_iterator.active_iterator = | |
1402 PictureLayerImpl::LayerEvictionTileIterator(it->active_layer, | |
1403 tree_priority_); | |
1404 } | |
1405 | |
1406 if (it->pending_layer) { | |
1407 paired_iterator.pending_iterator = | |
1408 PictureLayerImpl::LayerEvictionTileIterator(it->pending_layer, | |
1409 tree_priority_); | |
1410 } | |
1411 | |
1412 if (paired_iterator.PeekTile(tree_priority_) != NULL) { | |
1413 paired_iterators_.push_back(paired_iterator); | |
1414 iterator_heap_.push_back(&paired_iterators_.back()); | |
1415 } | |
1416 } | |
1417 | |
1418 std::make_heap(iterator_heap_.begin(), iterator_heap_.end(), comparator_); | |
1419 } | |
1420 | |
1421 TileManager::EvictionTileIterator::~EvictionTileIterator() {} | |
1422 | |
1423 TileManager::EvictionTileIterator& TileManager::EvictionTileIterator:: | |
1424 operator++() { | |
1425 std::pop_heap(iterator_heap_.begin(), iterator_heap_.end(), comparator_); | |
1426 PairedPictureLayerIterator* paired_iterator = iterator_heap_.back(); | |
1427 iterator_heap_.pop_back(); | |
1428 | |
1429 paired_iterator->PopTile(tree_priority_); | |
1430 if (paired_iterator->PeekTile(tree_priority_) != NULL) { | |
1431 iterator_heap_.push_back(paired_iterator); | |
1432 std::push_heap(iterator_heap_.begin(), iterator_heap_.end(), comparator_); | |
1433 } | |
1434 return *this; | |
1435 } | |
1436 | |
1437 TileManager::EvictionTileIterator::operator bool() const { | |
1438 return !iterator_heap_.empty(); | |
1439 } | |
1440 | |
1441 Tile* TileManager::EvictionTileIterator::operator*() { | |
1442 DCHECK(*this); | |
1443 return iterator_heap_.front()->PeekTile(tree_priority_); | |
1444 } | |
1445 | |
1446 TileManager::EvictionTileIterator::PairedPictureLayerIterator:: | |
1447 PairedPictureLayerIterator() {} | |
1448 | |
1449 TileManager::EvictionTileIterator::PairedPictureLayerIterator:: | |
1450 ~PairedPictureLayerIterator() {} | |
1451 | |
1452 Tile* TileManager::EvictionTileIterator::PairedPictureLayerIterator::PeekTile( | |
1453 TreePriority tree_priority) { | |
1454 PictureLayerImpl::LayerEvictionTileIterator* next_iterator = | |
1455 NextTileIterator(tree_priority); | |
1456 if (!next_iterator) | |
1457 return NULL; | |
1458 | |
1459 DCHECK(*next_iterator); | |
1460 DCHECK(std::find(returned_shared_tiles.begin(), | |
1461 returned_shared_tiles.end(), | |
1462 **next_iterator) == returned_shared_tiles.end()); | |
1463 return **next_iterator; | |
1464 } | |
1465 | |
1466 void TileManager::EvictionTileIterator::PairedPictureLayerIterator::PopTile( | |
1467 TreePriority tree_priority) { | |
1468 PictureLayerImpl::LayerEvictionTileIterator* next_iterator = | |
1469 NextTileIterator(tree_priority); | |
1470 DCHECK(next_iterator); | |
1471 DCHECK(*next_iterator); | |
1472 returned_shared_tiles.push_back(**next_iterator); | |
1473 ++(*next_iterator); | |
1474 | |
1475 next_iterator = NextTileIterator(tree_priority); | |
1476 while (next_iterator && | |
1477 std::find(returned_shared_tiles.begin(), | |
1478 returned_shared_tiles.end(), | |
1479 **next_iterator) != returned_shared_tiles.end()) { | |
1480 ++(*next_iterator); | |
1481 next_iterator = NextTileIterator(tree_priority); | |
1482 } | |
1483 } | |
1484 | |
1485 PictureLayerImpl::LayerEvictionTileIterator* | |
1486 TileManager::EvictionTileIterator::PairedPictureLayerIterator::NextTileIterator( | |
1487 TreePriority tree_priority) { | |
1488 // If both iterators are out of tiles, return NULL. | |
1489 if (!active_iterator && !pending_iterator) | |
1490 return NULL; | |
1491 | |
1492 // If we only have one iterator with tiles, return it. | |
1493 if (!active_iterator) | |
1494 return &pending_iterator; | |
1495 if (!pending_iterator) | |
1496 return &active_iterator; | |
1497 | |
1498 Tile* active_tile = *active_iterator; | |
1499 Tile* pending_tile = *pending_iterator; | |
1500 if (active_tile == pending_tile) | |
1501 return &active_iterator; | |
1502 | |
1503 const TilePriority& active_priority = | |
1504 active_tile->priority_for_tree_priority(tree_priority); | |
1505 const TilePriority& pending_priority = | |
1506 pending_tile->priority_for_tree_priority(tree_priority); | |
1507 | |
1508 if (pending_priority.IsHigherPriorityThan(active_priority)) | |
1509 return &active_iterator; | |
1510 return &pending_iterator; | |
1511 } | |
1512 | |
1513 TileManager::EvictionTileIterator::EvictionOrderComparator:: | |
1514 EvictionOrderComparator(TreePriority tree_priority) | |
1515 : tree_priority_(tree_priority) {} | |
1516 | |
1517 bool TileManager::EvictionTileIterator::EvictionOrderComparator::operator()( | |
1518 PairedPictureLayerIterator* a, | |
1519 PairedPictureLayerIterator* b) const { | |
1520 PictureLayerImpl::LayerEvictionTileIterator* a_iterator = | |
1521 a->NextTileIterator(tree_priority_); | |
1522 DCHECK(a_iterator); | |
1523 DCHECK(*a_iterator); | |
1524 | |
1525 PictureLayerImpl::LayerEvictionTileIterator* b_iterator = | |
1526 b->NextTileIterator(tree_priority_); | |
1527 DCHECK(b_iterator); | |
1528 DCHECK(*b_iterator); | |
1529 | |
1530 Tile* a_tile = **a_iterator; | |
1531 Tile* b_tile = **b_iterator; | |
1532 | |
1533 const TilePriority& a_priority = | |
1534 a_tile->priority_for_tree_priority(tree_priority_); | |
1535 const TilePriority& b_priority = | |
1536 b_tile->priority_for_tree_priority(tree_priority_); | |
1537 bool prioritize_low_res = tree_priority_ == SMOOTHNESS_TAKES_PRIORITY; | |
1538 | |
1539 // Now we have to return true iff b is lower priority than a. | |
1540 | |
1541 // If the priority bin differs, b is lower priority if it has the higher | |
1542 // priority bin. | |
1543 if (a_priority.priority_bin != b_priority.priority_bin) | |
1544 return b_priority.priority_bin > a_priority.priority_bin; | |
1545 | |
1546 // Otherwise if the resolution differs, then the order will be determined by | |
1547 // whether we prioritize low res or not. | |
1548 // TODO(vmpstr): Remove this when TilePriority is no longer a member of Tile | |
1549 // class but instead produced by the iterators. | |
1550 if (b_priority.resolution != a_priority.resolution) { | |
1551 // Non ideal resolution should be sorted higher than other resolutions. | |
1552 if (a_priority.resolution == NON_IDEAL_RESOLUTION) | |
1553 return false; | |
1554 | |
1555 if (b_priority.resolution == NON_IDEAL_RESOLUTION) | |
1556 return true; | |
1557 | |
1558 if (prioritize_low_res) | |
1559 return a_priority.resolution == LOW_RESOLUTION; | |
1560 | |
1561 return a_priority.resolution == HIGH_RESOLUTION; | |
1562 } | |
1563 | |
1564 // Otherwise if the occlusion differs, b is lower priority if it is occluded. | |
1565 bool a_is_occluded = a_tile->is_occluded_for_tree_priority(tree_priority_); | |
1566 bool b_is_occluded = b_tile->is_occluded_for_tree_priority(tree_priority_); | |
1567 if (a_is_occluded != b_is_occluded) | |
1568 return b_is_occluded; | |
1569 | |
1570 // b is lower priorty if it is farther from visible. | |
1571 return b_priority.distance_to_visible > a_priority.distance_to_visible; | |
1572 } | |
1573 | |
1574 void TileManager::SetRasterizerForTesting(Rasterizer* rasterizer) { | 1139 void TileManager::SetRasterizerForTesting(Rasterizer* rasterizer) { |
1575 rasterizer_ = rasterizer; | 1140 rasterizer_ = rasterizer; |
1576 rasterizer_->SetClient(this); | 1141 rasterizer_->SetClient(this); |
1577 } | 1142 } |
1578 | 1143 |
1579 bool TileManager::IsReadyToActivate() const { | 1144 bool TileManager::IsReadyToActivate() const { |
1580 const std::vector<PictureLayerImpl*>& layers = client_->GetPictureLayers(); | 1145 const std::vector<PictureLayerImpl*>& layers = client_->GetPictureLayers(); |
1581 | 1146 |
1582 for (std::vector<PictureLayerImpl*>::const_iterator it = layers.begin(); | 1147 for (std::vector<PictureLayerImpl*>::const_iterator it = layers.begin(); |
1583 it != layers.end(); | 1148 it != layers.end(); |
1584 ++it) { | 1149 ++it) { |
1585 if (!(*it)->AllTilesRequiredForActivationAreReadyToDraw()) | 1150 if (!(*it)->AllTilesRequiredForActivationAreReadyToDraw()) |
1586 return false; | 1151 return false; |
1587 } | 1152 } |
1588 | 1153 |
1589 return true; | 1154 return true; |
1590 } | 1155 } |
1591 | 1156 |
1592 void TileManager::CheckIfReadyToActivate() { | 1157 void TileManager::CheckIfReadyToActivate() { |
1593 TRACE_EVENT0("cc", "TileManager::CheckIfReadyToActivate"); | 1158 TRACE_EVENT0("cc", "TileManager::CheckIfReadyToActivate"); |
1594 | 1159 |
1595 rasterizer_->CheckForCompletedTasks(); | 1160 rasterizer_->CheckForCompletedTasks(); |
1596 did_check_for_completed_tasks_since_last_schedule_tasks_ = true; | 1161 did_check_for_completed_tasks_since_last_schedule_tasks_ = true; |
1597 | 1162 |
1598 if (IsReadyToActivate()) | 1163 if (IsReadyToActivate()) |
1599 client_->NotifyReadyToActivate(); | 1164 client_->NotifyReadyToActivate(); |
1600 } | 1165 } |
1601 | 1166 |
1602 } // namespace cc | 1167 } // namespace cc |
OLD | NEW |