Lint enabled for webrtc/modules/video_coding folder.

webrtc/modules/video_coding/timing_unittest.cc

 /*
  *  Copyright (c) 2011 The WebRTC project authors. All Rights Reserved.
  *
  *  Use of this source code is governed by a BSD-style license
  *  that can be found in the LICENSE file in the root of the source
  *  tree. An additional intellectual property rights grant can be found
  *  in the file PATENTS.  All contributing project authors may
  *  be found in the AUTHORS file in the root of the source tree.
  */
 
@@ skipping 37 matching lines @@
       clock.TimeInMilliseconds());
   // First update initializes the render time. Since we have no decode delay
   // we get waitTime = renderTime - now - renderDelay = jitter.
   EXPECT_EQ(jitterDelayMs, waitTime);
 
   jitterDelayMs += VCMTiming::kDelayMaxChangeMsPerS + 10;
   timeStamp += 90000;
   clock.AdvanceTimeMilliseconds(1000);
   timing.SetJitterDelay(jitterDelayMs);
   timing.UpdateCurrentDelay(timeStamp);
-  waitTime = timing.MaxWaitingTime(timing.RenderTimeMs(
-      timeStamp, clock.TimeInMilliseconds()), clock.TimeInMilliseconds());
+  waitTime = timing.MaxWaitingTime(
+      timing.RenderTimeMs(timeStamp, clock.TimeInMilliseconds()),
+      clock.TimeInMilliseconds());
   // Since we gradually increase the delay we only get 100 ms every second.
   EXPECT_EQ(jitterDelayMs - 10, waitTime);
 
   timeStamp += 90000;
   clock.AdvanceTimeMilliseconds(1000);
   timing.UpdateCurrentDelay(timeStamp);
   waitTime = timing.MaxWaitingTime(
       timing.RenderTimeMs(timeStamp, clock.TimeInMilliseconds()),
       clock.TimeInMilliseconds());
   EXPECT_EQ(waitTime, jitterDelayMs);
 
   // 300 incoming frames without jitter, verify that this gives the exact wait
   // time.
   for (int i = 0; i < 300; i++) {
     clock.AdvanceTimeMilliseconds(1000 / 25);
     timeStamp += 90000 / 25;
     timing.IncomingTimestamp(timeStamp, clock.TimeInMilliseconds());
   }
   timing.UpdateCurrentDelay(timeStamp);
   waitTime = timing.MaxWaitingTime(
       timing.RenderTimeMs(timeStamp, clock.TimeInMilliseconds()),
       clock.TimeInMilliseconds());
   EXPECT_EQ(waitTime, jitterDelayMs);
 
   // Add decode time estimates.
   for (int i = 0; i < 10; i++) {
     int64_t startTimeMs = clock.TimeInMilliseconds();
     clock.AdvanceTimeMilliseconds(10);
-    timing.StopDecodeTimer(timeStamp,
-                           clock.TimeInMilliseconds() - startTimeMs,
-                           clock.TimeInMilliseconds(),
-                           timing.RenderTimeMs(
-                               timeStamp, clock.TimeInMilliseconds()));
+    timing.StopDecodeTimer(
+        timeStamp, clock.TimeInMilliseconds() - startTimeMs,
+        clock.TimeInMilliseconds(),
+        timing.RenderTimeMs(timeStamp, clock.TimeInMilliseconds()));
     timeStamp += 90000 / 25;
     clock.AdvanceTimeMilliseconds(1000 / 25 - 10);
     timing.IncomingTimestamp(timeStamp, clock.TimeInMilliseconds());
   }
   maxDecodeTimeMs = 10;
   timing.SetJitterDelay(jitterDelayMs);
   clock.AdvanceTimeMilliseconds(1000);
   timeStamp += 90000;
   timing.UpdateCurrentDelay(timeStamp);
   waitTime = timing.MaxWaitingTime(
       timing.RenderTimeMs(timeStamp, clock.TimeInMilliseconds()),
       clock.TimeInMilliseconds());
   EXPECT_EQ(waitTime, jitterDelayMs);
 
   uint32_t minTotalDelayMs = 200;
   timing.set_min_playout_delay(minTotalDelayMs);
   clock.AdvanceTimeMilliseconds(5000);
-  timeStamp += 5*90000;
+  timeStamp += 5 * 90000;
   timing.UpdateCurrentDelay(timeStamp);
   const int kRenderDelayMs = 10;
   timing.set_render_delay(kRenderDelayMs);
   waitTime = timing.MaxWaitingTime(
       timing.RenderTimeMs(timeStamp, clock.TimeInMilliseconds()),
       clock.TimeInMilliseconds());
   // We should at least have minTotalDelayMs - decodeTime (10) - renderTime
   // (10) to wait.
   EXPECT_EQ(waitTime, minTotalDelayMs - maxDecodeTimeMs - kRenderDelayMs);
   // The total video delay should be equal to the min total delay.
   EXPECT_EQ(minTotalDelayMs, timing.TargetVideoDelay());
 
   // Reset playout delay.
   timing.set_min_playout_delay(0);
   clock.AdvanceTimeMilliseconds(5000);
-  timeStamp += 5*90000;
+  timeStamp += 5 * 90000;
   timing.UpdateCurrentDelay(timeStamp);
 }
 
 TEST(ReceiverTiming, WrapAround) {
   const int kFramerate = 25;
   SimulatedClock clock(0);
   VCMTiming timing(&clock);
   // Provoke a wrap-around. The forth frame will have wrapped at 25 fps.
   uint32_t timestamp = 0xFFFFFFFFu - 3 * 90000 / kFramerate;
   for (int i = 0; i < 4; ++i) {
     timing.IncomingTimestamp(timestamp, clock.TimeInMilliseconds());
     clock.AdvanceTimeMilliseconds(1000 / kFramerate);
     timestamp += 90000 / kFramerate;
-    int64_t render_time = timing.RenderTimeMs(0xFFFFFFFFu,
-                                              clock.TimeInMilliseconds());
+    int64_t render_time =
+        timing.RenderTimeMs(0xFFFFFFFFu, clock.TimeInMilliseconds());
     EXPECT_EQ(3 * 1000 / kFramerate, render_time);
     render_time = timing.RenderTimeMs(89u,  // One second later in 90 kHz.
                                       clock.TimeInMilliseconds());
     EXPECT_EQ(3 * 1000 / kFramerate + 1, render_time);
   }
 }
 
 }  // namespace webrtc