Lint fix for webrtc/modules/video_coding PART 1!

webrtc/modules/video_coding/codecs/test/videoprocessor_integrationtest.cc

 /*
  *  Copyright (c) 2012 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 63 matching lines @@
 struct RateControlMetrics {
   int max_num_dropped_frames;
   int max_key_frame_size_mismatch;
   int max_delta_frame_size_mismatch;
   int max_encoding_rate_mismatch;
   int max_time_hit_target;
   int num_spatial_resizes;
   int num_key_frames;
 };
 
-
 // Sequence used is foreman (CIF): may be better to use VGA for resize test.
 const int kCIFWidth = 352;
 const int kCIFHeight = 288;
 const int kNbrFramesShort = 100;  // Some tests are run for shorter sequence.
 const int kNbrFramesLong = 299;
 
 // Parameters from VP8 wrapper, which control target size of key frames.
 const float kInitialBufferSize = 0.5f;
 const float kOptimalBufferSize = 0.6f;
 const float kScaleKeyFrameSize = 0.5f;
 
 // Integration test for video processor. Encodes+decodes a clip and
 // writes it to the output directory. After completion, quality metrics
 // (PSNR and SSIM) and rate control metrics are computed to verify that the
 // quality and encoder response is acceptable. The rate control tests allow us
 // to verify the behavior for changing bitrate, changing frame rate, frame
 // dropping/spatial resize, and temporal layers. The limits for the rate
 // control metrics are set to be fairly conservative, so failure should only
 // happen when some significant regression or breakdown occurs.
-class VideoProcessorIntegrationTest: public testing::Test {
+class VideoProcessorIntegrationTest : public testing::Test {
  protected:
   VideoEncoder* encoder_;
   VideoDecoder* decoder_;
   webrtc::test::FrameReader* frame_reader_;
   webrtc::test::FrameWriter* frame_writer_;
   webrtc::test::PacketReader packet_reader_;
   webrtc::test::PacketManipulator* packet_manipulator_;
   webrtc::test::Stats stats_;
   webrtc::test::TestConfig config_;
   VideoCodec codec_settings_;
@@ skipping 26 matching lines @@
   // Codec and network settings.
   VideoCodecType codec_type_;
   float packet_loss_;
   int num_temporal_layers_;
   int key_frame_interval_;
   bool error_concealment_on_;
   bool denoising_on_;
   bool frame_dropper_on_;
   bool spatial_resize_on_;
 
-
   VideoProcessorIntegrationTest() {}
   virtual ~VideoProcessorIntegrationTest() {}
 
   void SetUpCodecConfig() {
     if (codec_type_ == kVideoCodecVP8) {
       encoder_ = VP8Encoder::Create();
       decoder_ = VP8Decoder::Create();
       VideoCodingModule::Codec(kVideoCodecVP8, &codec_settings_);
     } else if (codec_type_ == kVideoCodecVP9) {
       encoder_ = VP9Encoder::Create();
       decoder_ = VP9Decoder::Create();
       VideoCodingModule::Codec(kVideoCodecVP9, &codec_settings_);
     }
 
     // CIF is currently used for all tests below.
     // Setup the TestConfig struct for processing of a clip in CIF resolution.
-    config_.input_filename =
-        webrtc::test::ResourcePath("foreman_cif", "yuv");
+    config_.input_filename = webrtc::test::ResourcePath("foreman_cif", "yuv");
 
     // Generate an output filename in a safe way.
     config_.output_filename = webrtc::test::TempFilename(
         webrtc::test::OutputPath(), "videoprocessor_integrationtest");
-    config_.frame_length_in_bytes = CalcBufferSize(kI420,
-                                                   kCIFWidth, kCIFHeight);
+    config_.frame_length_in_bytes =
+        CalcBufferSize(kI420, kCIFWidth, kCIFHeight);
     config_.verbose = false;
     // Only allow encoder/decoder to use single core, for predictability.
     config_.use_single_core = true;
     // Key frame interval and packet loss are set for each test.
     config_.keyframe_interval = key_frame_interval_;
     config_.networking_config.packet_loss_probability = packet_loss_;
 
     // Configure codec settings.
     config_.codec_settings = &codec_settings_;
     config_.codec_settings->startBitrate = start_bitrate_;
     config_.codec_settings->width = kCIFWidth;
     config_.codec_settings->height = kCIFHeight;
 
     // These features may be set depending on the test.
     switch (config_.codec_settings->codecType) {
-     case kVideoCodecVP8:
-       config_.codec_settings->codecSpecific.VP8.errorConcealmentOn =
-           error_concealment_on_;
-       config_.codec_settings->codecSpecific.VP8.denoisingOn =
-           denoising_on_;
-       config_.codec_settings->codecSpecific.VP8.numberOfTemporalLayers =
-           num_temporal_layers_;
-       config_.codec_settings->codecSpecific.VP8.frameDroppingOn =
-           frame_dropper_on_;
-       config_.codec_settings->codecSpecific.VP8.automaticResizeOn =
-           spatial_resize_on_;
-       config_.codec_settings->codecSpecific.VP8.keyFrameInterval =
-           kBaseKeyFrameInterval;
-       break;
-     case kVideoCodecVP9:
-       config_.codec_settings->codecSpecific.VP9.denoisingOn =
-           denoising_on_;
-       config_.codec_settings->codecSpecific.VP9.numberOfTemporalLayers =
-           num_temporal_layers_;
-       config_.codec_settings->codecSpecific.VP9.frameDroppingOn =
-           frame_dropper_on_;
-       config_.codec_settings->codecSpecific.VP9.automaticResizeOn =
-           spatial_resize_on_;
-       config_.codec_settings->codecSpecific.VP9.keyFrameInterval =
-           kBaseKeyFrameInterval;
-       break;
-     default:
-       assert(false);
-       break;
-     }
-    frame_reader_ =
-        new webrtc::test::FrameReaderImpl(config_.input_filename,
-                                          config_.frame_length_in_bytes);
-    frame_writer_ =
-        new webrtc::test::FrameWriterImpl(config_.output_filename,
-                                          config_.frame_length_in_bytes);
+      case kVideoCodecVP8:
+        config_.codec_settings->codecSpecific.VP8.errorConcealmentOn =
+            error_concealment_on_;
+        config_.codec_settings->codecSpecific.VP8.denoisingOn = denoising_on_;
+        config_.codec_settings->codecSpecific.VP8.numberOfTemporalLayers =
+            num_temporal_layers_;
+        config_.codec_settings->codecSpecific.VP8.frameDroppingOn =
+            frame_dropper_on_;
+        config_.codec_settings->codecSpecific.VP8.automaticResizeOn =
+            spatial_resize_on_;
+        config_.codec_settings->codecSpecific.VP8.keyFrameInterval =
+            kBaseKeyFrameInterval;
+        break;
+      case kVideoCodecVP9:
+        config_.codec_settings->codecSpecific.VP9.denoisingOn = denoising_on_;
+        config_.codec_settings->codecSpecific.VP9.numberOfTemporalLayers =
+            num_temporal_layers_;
+        config_.codec_settings->codecSpecific.VP9.frameDroppingOn =
+            frame_dropper_on_;
+        config_.codec_settings->codecSpecific.VP9.automaticResizeOn =
+            spatial_resize_on_;
+        config_.codec_settings->codecSpecific.VP9.keyFrameInterval =
+            kBaseKeyFrameInterval;
+        break;
+      default:
+        assert(false);
+        break;
+    }
+    frame_reader_ = new webrtc::test::FrameReaderImpl(
+        config_.input_filename, config_.frame_length_in_bytes);
+    frame_writer_ = new webrtc::test::FrameWriterImpl(
+        config_.output_filename, config_.frame_length_in_bytes);
     ASSERT_TRUE(frame_reader_->Init());
     ASSERT_TRUE(frame_writer_->Init());
 
     packet_manipulator_ = new webrtc::test::PacketManipulatorImpl(
         &packet_reader_, config_.networking_config, config_.verbose);
-    processor_ = new webrtc::test::VideoProcessorImpl(encoder_, decoder_,
-                                                      frame_reader_,
-                                                      frame_writer_,
-                                                      packet_manipulator_,
-                                                      config_, &stats_);
+    processor_ = new webrtc::test::VideoProcessorImpl(
+        encoder_, decoder_, frame_reader_, frame_writer_, packet_manipulator_,
+        config_, &stats_);
     ASSERT_TRUE(processor_->Init());
   }
 
   // Reset quantities after each encoder update, update the target
   // per-frame bandwidth.
   void ResetRateControlMetrics(int num_frames) {
     for (int i = 0; i < num_temporal_layers_; i++) {
       num_frames_per_update_[i] = 0;
       sum_frame_size_mismatch_[i] = 0.0f;
       sum_encoded_frame_size_[i] = 0.0f;
       encoding_bitrate_[i] = 0.0f;
       // Update layer per-frame-bandwidth.
       per_frame_bandwidth_[i] = static_cast<float>(bit_rate_layer_[i]) /
-             static_cast<float>(frame_rate_layer_[i]);
+                                static_cast<float>(frame_rate_layer_[i]);
     }
     // Set maximum size of key frames, following setting in the VP8 wrapper.
     float max_key_size = kScaleKeyFrameSize * kOptimalBufferSize * frame_rate_;
     // We don't know exact target size of the key frames (except for first one),
     // but the minimum in libvpx is ~|3 * per_frame_bandwidth| and maximum is
     // set by |max_key_size_  * per_frame_bandwidth|. Take middle point/average
     // as reference for mismatch. Note key frames always correspond to base
     // layer frame in this test.
     target_size_key_frame_ = 0.5 * (3 + max_key_size) * per_frame_bandwidth_[0];
     num_frames_total_ = 0;
     sum_encoded_frame_size_total_ = 0.0f;
     encoding_bitrate_total_ = 0.0f;
     perc_encoding_rate_mismatch_ = 0.0f;
     num_frames_to_hit_target_ = num_frames;
     encoding_rate_within_target_ = false;
     sum_key_frame_size_mismatch_ = 0.0;
     num_key_frames_ = 0;
   }
 
   // For every encoded frame, update the rate control metrics.
   void UpdateRateControlMetrics(int frame_num, FrameType frame_type) {
     float encoded_size_kbits = processor_->EncodedFrameSize() * 8.0f / 1000.0f;
     // Update layer data.
     // Update rate mismatch relative to per-frame bandwidth for delta frames.
     if (frame_type == kVideoFrameDelta) {
       // TODO(marpan): Should we count dropped (zero size) frames in mismatch?
-      sum_frame_size_mismatch_[layer_] += fabs(encoded_size_kbits -
-                                               per_frame_bandwidth_[layer_]) /
-                                               per_frame_bandwidth_[layer_];
+      sum_frame_size_mismatch_[layer_] +=
+          fabs(encoded_size_kbits - per_frame_bandwidth_[layer_]) /
+          per_frame_bandwidth_[layer_];
     } else {
-      float target_size = (frame_num == 1) ? target_size_key_frame_initial_ :
-          target_size_key_frame_;
-      sum_key_frame_size_mismatch_ += fabs(encoded_size_kbits - target_size) /
-          target_size;
+      float target_size = (frame_num == 1) ? target_size_key_frame_initial_
+                                           : target_size_key_frame_;
+      sum_key_frame_size_mismatch_ +=
+          fabs(encoded_size_kbits - target_size) / target_size;
       num_key_frames_ += 1;
     }
     sum_encoded_frame_size_[layer_] += encoded_size_kbits;
     // Encoding bitrate per layer: from the start of the update/run to the
     // current frame.
     encoding_bitrate_[layer_] = sum_encoded_frame_size_[layer_] *
-        frame_rate_layer_[layer_] /
-        num_frames_per_update_[layer_];
+                                frame_rate_layer_[layer_] /
+                                num_frames_per_update_[layer_];
     // Total encoding rate: from the start of the update/run to current frame.
     sum_encoded_frame_size_total_ += encoded_size_kbits;
-    encoding_bitrate_total_ = sum_encoded_frame_size_total_ * frame_rate_ /
-        num_frames_total_;
-    perc_encoding_rate_mismatch_ =  100 * fabs(encoding_bitrate_total_ -
-                                               bit_rate_) / bit_rate_;
+    encoding_bitrate_total_ =
+        sum_encoded_frame_size_total_ * frame_rate_ / num_frames_total_;
+    perc_encoding_rate_mismatch_ =
+        100 * fabs(encoding_bitrate_total_ - bit_rate_) / bit_rate_;
     if (perc_encoding_rate_mismatch_ < kPercTargetvsActualMismatch &&
         !encoding_rate_within_target_) {
       num_frames_to_hit_target_ = num_frames_total_;
       encoding_rate_within_target_ = true;
     }
   }
 
   // Verify expected behavior of rate control and print out data.
   void VerifyRateControl(int update_index,
                          int max_key_frame_size_mismatch,
                          int max_delta_frame_size_mismatch,
                          int max_encoding_rate_mismatch,
                          int max_time_hit_target,
                          int max_num_dropped_frames,
                          int num_spatial_resizes,
                          int num_key_frames) {
     int num_dropped_frames = processor_->NumberDroppedFrames();
     int num_resize_actions = processor_->NumberSpatialResizes();
-    printf("For update #: %d,\n "
+    printf(
+        "For update #: %d,\n "
         " Target Bitrate: %d,\n"
         " Encoding bitrate: %f,\n"
         " Frame rate: %d \n",
         update_index, bit_rate_, encoding_bitrate_total_, frame_rate_);
-    printf(" Number of frames to approach target rate = %d, \n"
-           " Number of dropped frames = %d, \n"
-           " Number of spatial resizes = %d, \n",
-           num_frames_to_hit_target_, num_dropped_frames, num_resize_actions);
+    printf(
+        " Number of frames to approach target rate = %d, \n"
+        " Number of dropped frames = %d, \n"
+        " Number of spatial resizes = %d, \n",
+        num_frames_to_hit_target_, num_dropped_frames, num_resize_actions);
     EXPECT_LE(perc_encoding_rate_mismatch_, max_encoding_rate_mismatch);
     if (num_key_frames_ > 0) {
-      int perc_key_frame_size_mismatch = 100 * sum_key_frame_size_mismatch_ /
-              num_key_frames_;
-      printf(" Number of Key frames: %d \n"
-             " Key frame rate mismatch: %d \n",
-             num_key_frames_, perc_key_frame_size_mismatch);
+      int perc_key_frame_size_mismatch =
+          100 * sum_key_frame_size_mismatch_ / num_key_frames_;
+      printf(
+          " Number of Key frames: %d \n"
+          " Key frame rate mismatch: %d \n",
+          num_key_frames_, perc_key_frame_size_mismatch);
       EXPECT_LE(perc_key_frame_size_mismatch, max_key_frame_size_mismatch);
     }
     printf("\n");
     printf("Rates statistics for Layer data \n");
-    for (int i = 0; i < num_temporal_layers_ ; i++) {
+    for (int i = 0; i < num_temporal_layers_; i++) {
       printf("Layer #%d \n", i);
-      int perc_frame_size_mismatch = 100 * sum_frame_size_mismatch_[i] /
-        num_frames_per_update_[i];
-      int perc_encoding_rate_mismatch = 100 * fabs(encoding_bitrate_[i] -
-                                                   bit_rate_layer_[i]) /
-                                                   bit_rate_layer_[i];
-      printf(" Target Layer Bit rate: %f \n"
+      int perc_frame_size_mismatch =
+          100 * sum_frame_size_mismatch_[i] / num_frames_per_update_[i];
+      int perc_encoding_rate_mismatch =
+          100 * fabs(encoding_bitrate_[i] - bit_rate_layer_[i]) /
+          bit_rate_layer_[i];
+      printf(
+          " Target Layer Bit rate: %f \n"
           " Layer frame rate: %f, \n"
           " Layer per frame bandwidth: %f, \n"
           " Layer Encoding bit rate: %f, \n"
           " Layer Percent frame size mismatch: %d,  \n"
           " Layer Percent encoding rate mismatch = %d, \n"
           " Number of frame processed per layer = %d \n",
           bit_rate_layer_[i], frame_rate_layer_[i], per_frame_bandwidth_[i],
           encoding_bitrate_[i], perc_frame_size_mismatch,
           perc_encoding_rate_mismatch, num_frames_per_update_[i]);
       EXPECT_LE(perc_frame_size_mismatch, max_delta_frame_size_mismatch);
       EXPECT_LE(perc_encoding_rate_mismatch, max_encoding_rate_mismatch);
     }
     printf("\n");
     EXPECT_LE(num_frames_to_hit_target_, max_time_hit_target);
     EXPECT_LE(num_dropped_frames, max_num_dropped_frames);
     EXPECT_EQ(num_resize_actions, num_spatial_resizes);
     EXPECT_EQ(num_key_frames_, num_key_frames);
   }
 
   // Layer index corresponding to frame number, for up to 3 layers.
   void LayerIndexForFrame(int frame_number) {
     if (num_temporal_layers_ == 1) {
       layer_ = 0;
     } else if (num_temporal_layers_ == 2) {
-        // layer 0:  0     2     4 ...
-        // layer 1:     1     3
-        if (frame_number % 2 == 0) {
-          layer_ = 0;
-        } else {
-          layer_ = 1;
-        }
+      // layer 0:  0     2     4 ...
+      // layer 1:     1     3
+      if (frame_number % 2 == 0) {
+        layer_ = 0;
+      } else {
+        layer_ = 1;
+      }
     } else if (num_temporal_layers_ == 3) {
       // layer 0:  0            4            8 ...
       // layer 1:        2            6
       // layer 2:     1      3     5      7
       if (frame_number % 4 == 0) {
         layer_ = 0;
       } else if ((frame_number + 2) % 4 == 0) {
         layer_ = 1;
       } else if ((frame_number + 1) % 2 == 0) {
         layer_ = 2;
       }
     } else {
       assert(false);  // Only up to 3 layers.
     }
   }
 
   // Set the bitrate and frame rate per layer, for up to 3 layers.
   void SetLayerRates() {
-    assert(num_temporal_layers_<= 3);
+    assert(num_temporal_layers_ <= 3);
     for (int i = 0; i < num_temporal_layers_; i++) {
       float bit_rate_ratio =
           kVp8LayerRateAlloction[num_temporal_layers_ - 1][i];
       if (i > 0) {
-        float bit_rate_delta_ratio = kVp8LayerRateAlloction
-            [num_temporal_layers_ - 1][i] -
+        float bit_rate_delta_ratio =
+            kVp8LayerRateAlloction[num_temporal_layers_ - 1][i] -
             kVp8LayerRateAlloction[num_temporal_layers_ - 1][i - 1];
         bit_rate_layer_[i] = bit_rate_ * bit_rate_delta_ratio;
       } else {
         bit_rate_layer_[i] = bit_rate_ * bit_rate_ratio;
       }
-      frame_rate_layer_[i] = frame_rate_ / static_cast<float>(
-          1 << (num_temporal_layers_ - 1));
+      frame_rate_layer_[i] =
+          frame_rate_ / static_cast<float>(1 << (num_temporal_layers_ - 1));
     }
     if (num_temporal_layers_ == 3) {
       frame_rate_layer_[2] = frame_rate_ / 2.0f;
     }
   }
 
   void TearDown() {
     delete processor_;
     delete packet_manipulator_;
     delete frame_writer_;
@@ skipping 12 matching lines @@
     start_bitrate_ = rate_profile.target_bit_rate[0];
     packet_loss_ = process.packet_loss;
     key_frame_interval_ = process.key_frame_interval;
     num_temporal_layers_ = process.num_temporal_layers;
     error_concealment_on_ = process.error_concealment_on;
     denoising_on_ = process.denoising_on;
     frame_dropper_on_ = process.frame_dropper_on;
     spatial_resize_on_ = process.spatial_resize_on;
     SetUpCodecConfig();
     // Update the layers and the codec with the initial rates.
-    bit_rate_ =  rate_profile.target_bit_rate[0];
+    bit_rate_ = rate_profile.target_bit_rate[0];
     frame_rate_ = rate_profile.input_frame_rate[0];
     SetLayerRates();
     // Set the initial target size for key frame.
-    target_size_key_frame_initial_ = 0.5 * kInitialBufferSize *
-        bit_rate_layer_[0];
+    target_size_key_frame_initial_ =
+        0.5 * kInitialBufferSize * bit_rate_layer_[0];
     processor_->SetRates(bit_rate_, frame_rate_);
     // Process each frame, up to |num_frames|.
     int num_frames = rate_profile.num_frames;
     int update_index = 0;
     ResetRateControlMetrics(
         rate_profile.frame_index_rate_update[update_index + 1]);
     int frame_number = 0;
     FrameType frame_type = kVideoFrameDelta;
     while (processor_->ProcessFrame(frame_number) &&
-        frame_number < num_frames) {
+           frame_number < num_frames) {
       // Get the layer index for the frame |frame_number|.
       LayerIndexForFrame(frame_number);
       // Get the frame_type.
       frame_type = processor_->EncodedFrameType();
       // Counter for whole sequence run.
       ++frame_number;
       // Counters for each rate update.
       ++num_frames_per_update_[layer_];
       ++num_frames_total_;
       UpdateRateControlMetrics(frame_number, frame_type);
       // If we hit another/next update, verify stats for current state and
       // update layers and codec with new rates.
       if (frame_number ==
           rate_profile.frame_index_rate_update[update_index + 1]) {
         VerifyRateControl(
-            update_index,
-            rc_metrics[update_index].max_key_frame_size_mismatch,
+            update_index, rc_metrics[update_index].max_key_frame_size_mismatch,
             rc_metrics[update_index].max_delta_frame_size_mismatch,
             rc_metrics[update_index].max_encoding_rate_mismatch,
             rc_metrics[update_index].max_time_hit_target,
             rc_metrics[update_index].max_num_dropped_frames,
             rc_metrics[update_index].num_spatial_resizes,
             rc_metrics[update_index].num_key_frames);
         // Update layer rates and the codec with new rates.
         ++update_index;
-        bit_rate_ =  rate_profile.target_bit_rate[update_index];
+        bit_rate_ = rate_profile.target_bit_rate[update_index];
         frame_rate_ = rate_profile.input_frame_rate[update_index];
         SetLayerRates();
-        ResetRateControlMetrics(rate_profile.
-                                frame_index_rate_update[update_index + 1]);
+        ResetRateControlMetrics(
+            rate_profile.frame_index_rate_update[update_index + 1]);
         processor_->SetRates(bit_rate_, frame_rate_);
       }
     }
-    VerifyRateControl(
-        update_index,
-        rc_metrics[update_index].max_key_frame_size_mismatch,
-        rc_metrics[update_index].max_delta_frame_size_mismatch,
-        rc_metrics[update_index].max_encoding_rate_mismatch,
-        rc_metrics[update_index].max_time_hit_target,
-        rc_metrics[update_index].max_num_dropped_frames,
-        rc_metrics[update_index].num_spatial_resizes,
-        rc_metrics[update_index].num_key_frames);
+    VerifyRateControl(update_index,
+                      rc_metrics[update_index].max_key_frame_size_mismatch,
+                      rc_metrics[update_index].max_delta_frame_size_mismatch,
+                      rc_metrics[update_index].max_encoding_rate_mismatch,
+                      rc_metrics[update_index].max_time_hit_target,
+                      rc_metrics[update_index].max_num_dropped_frames,
+                      rc_metrics[update_index].num_spatial_resizes,
+                      rc_metrics[update_index].num_key_frames);
     EXPECT_EQ(num_frames, frame_number);
     EXPECT_EQ(num_frames + 1, static_cast<int>(stats_.stats_.size()));
 
     // Release encoder and decoder to make sure they have finished processing:
     EXPECT_EQ(WEBRTC_VIDEO_CODEC_OK, encoder_->Release());
     EXPECT_EQ(WEBRTC_VIDEO_CODEC_OK, decoder_->Release());
     // Close the files before we start using them for SSIM/PSNR calculations.
     frame_reader_->Close();
     frame_writer_->Close();
 
     // TODO(marpan): should compute these quality metrics per SetRates update.
     webrtc::test::QualityMetricsResult psnr_result, ssim_result;
-    EXPECT_EQ(0, webrtc::test::I420MetricsFromFiles(
-        config_.input_filename.c_str(),
-        config_.output_filename.c_str(),
-        config_.codec_settings->width,
-        config_.codec_settings->height,
-        &psnr_result,
-        &ssim_result));
+    EXPECT_EQ(
+        0, webrtc::test::I420MetricsFromFiles(
+               config_.input_filename.c_str(), config_.output_filename.c_str(),
+               config_.codec_settings->width, config_.codec_settings->height,
+               &psnr_result, &ssim_result));
     printf("PSNR avg: %f, min: %f    SSIM avg: %f, min: %f\n",
-           psnr_result.average, psnr_result.min,
-           ssim_result.average, ssim_result.min);
+           psnr_result.average, psnr_result.min, ssim_result.average,
+           ssim_result.min);
     stats_.PrintSummary();
     EXPECT_GT(psnr_result.average, quality_metrics.minimum_avg_psnr);
     EXPECT_GT(psnr_result.min, quality_metrics.minimum_min_psnr);
     EXPECT_GT(ssim_result.average, quality_metrics.minimum_avg_ssim);
     EXPECT_GT(ssim_result.min, quality_metrics.minimum_min_ssim);
     if (!remove(config_.output_filename.c_str())) {
       fprintf(stderr, "Failed to remove temporary file!");
     }
   }
 };
@@ skipping 12 matching lines @@
                         VideoCodecType codec_type,
                         float packet_loss,
                         int key_frame_interval,
                         int num_temporal_layers,
                         bool error_concealment_on,
                         bool denoising_on,
                         bool frame_dropper_on,
                         bool spatial_resize_on) {
   process_settings->codec_type = codec_type;
   process_settings->packet_loss = packet_loss;
-  process_settings->key_frame_interval =  key_frame_interval;
+  process_settings->key_frame_interval = key_frame_interval;
   process_settings->num_temporal_layers = num_temporal_layers,
   process_settings->error_concealment_on = error_concealment_on;
   process_settings->denoising_on = denoising_on;
   process_settings->frame_dropper_on = frame_dropper_on;
   process_settings->spatial_resize_on = spatial_resize_on;
 }
 
 void SetQualityMetrics(QualityMetrics* quality_metrics,
                        double minimum_avg_psnr,
                        double minimum_min_psnr,
@@ skipping 38 matching lines @@
   // Codec/network settings.
   CodecConfigPars process_settings;
   SetCodecParameters(&process_settings, kVideoCodecVP9, 0.0f, -1, 1, false,
                      false, true, false);
   // Metrics for expected quality.
   QualityMetrics quality_metrics;
   SetQualityMetrics(&quality_metrics, 37.0, 36.0, 0.93, 0.92);
   // Metrics for rate control.
   RateControlMetrics rc_metrics[1];
   SetRateControlMetrics(rc_metrics, 0, 0, 40, 20, 10, 20, 0, 1);
-  ProcessFramesAndVerify(quality_metrics,
-                         rate_profile,
-                         process_settings,
+  ProcessFramesAndVerify(quality_metrics, rate_profile, process_settings,
                          rc_metrics);
 }
 
 // VP9: Run with 5% packet loss and fixed bitrate. Quality should be a bit
 // lower. One key frame (first frame only) in sequence.
 TEST_F(VideoProcessorIntegrationTest, Process5PercentPacketLossVP9) {
   // Bitrate and frame rate profile.
   RateProfile rate_profile;
   SetRateProfilePars(&rate_profile, 0, 500, 30, 0);
   rate_profile.frame_index_rate_update[1] = kNbrFramesShort + 1;
   rate_profile.num_frames = kNbrFramesShort;
   // Codec/network settings.
   CodecConfigPars process_settings;
   SetCodecParameters(&process_settings, kVideoCodecVP9, 0.05f, -1, 1, false,
                      false, true, false);
   // Metrics for expected quality.
   QualityMetrics quality_metrics;
   SetQualityMetrics(&quality_metrics, 17.0, 14.0, 0.45, 0.36);
   // Metrics for rate control.
   RateControlMetrics rc_metrics[1];
   SetRateControlMetrics(rc_metrics, 0, 0, 40, 20, 10, 20, 0, 1);
-  ProcessFramesAndVerify(quality_metrics,
-                         rate_profile,
-                         process_settings,
+  ProcessFramesAndVerify(quality_metrics, rate_profile, process_settings,
                          rc_metrics);
 }
 
-
 // VP9: Run with no packet loss, with varying bitrate (3 rate updates):
 // low to high to medium. Check that quality and encoder response to the new
 // target rate/per-frame bandwidth (for each rate update) is within limits.
 // One key frame (first frame only) in sequence.
 TEST_F(VideoProcessorIntegrationTest, ProcessNoLossChangeBitRateVP9) {
   // Bitrate and frame rate profile.
   RateProfile rate_profile;
   SetRateProfilePars(&rate_profile, 0, 200, 30, 0);
   SetRateProfilePars(&rate_profile, 1, 700, 30, 100);
   SetRateProfilePars(&rate_profile, 2, 500, 30, 200);
   rate_profile.frame_index_rate_update[3] = kNbrFramesLong + 1;
   rate_profile.num_frames = kNbrFramesLong;
   // Codec/network settings.
   CodecConfigPars process_settings;
   SetCodecParameters(&process_settings, kVideoCodecVP9, 0.0f, -1, 1, false,
                      false, true, false);
   // Metrics for expected quality.
   QualityMetrics quality_metrics;
   SetQualityMetrics(&quality_metrics, 35.7, 30.0, 0.90, 0.85);
   // Metrics for rate control.
   RateControlMetrics rc_metrics[3];
   SetRateControlMetrics(rc_metrics, 0, 0, 30, 20, 20, 30, 0, 1);
   SetRateControlMetrics(rc_metrics, 1, 2, 0, 20, 20, 60, 0, 0);
   SetRateControlMetrics(rc_metrics, 2, 0, 0, 25, 20, 40, 0, 0);
-  ProcessFramesAndVerify(quality_metrics,
-                         rate_profile,
-                         process_settings,
+  ProcessFramesAndVerify(quality_metrics, rate_profile, process_settings,
                          rc_metrics);
 }
 
 // VP9: Run with no packet loss, with an update (decrease) in frame rate.
 // Lower frame rate means higher per-frame-bandwidth, so easier to encode.
 // At the low bitrate in this test, this means better rate control after the
 // update(s) to lower frame rate. So expect less frame drops, and max values
 // for the rate control metrics can be lower. One key frame (first frame only).
 // Note: quality after update should be higher but we currently compute quality
 // metrics averaged over whole sequence run.
@@ skipping 12 matching lines @@
   SetCodecParameters(&process_settings, kVideoCodecVP9, 0.0f, -1, 1, false,
                      false, true, false);
   // Metrics for expected quality.
   QualityMetrics quality_metrics;
   SetQualityMetrics(&quality_metrics, 31.5, 18.0, 0.80, 0.44);
   // Metrics for rate control.
   RateControlMetrics rc_metrics[3];
   SetRateControlMetrics(rc_metrics, 0, 35, 50, 75, 15, 45, 0, 1);
   SetRateControlMetrics(rc_metrics, 1, 10, 0, 40, 10, 30, 0, 0);
   SetRateControlMetrics(rc_metrics, 2, 5, 0, 30, 5, 20, 0, 0);
-  ProcessFramesAndVerify(quality_metrics,
-                         rate_profile,
-                         process_settings,
+  ProcessFramesAndVerify(quality_metrics, rate_profile, process_settings,
                          rc_metrics);
 }
 
 // VP9: Run with no packet loss and denoiser on. One key frame (first frame).
 TEST_F(VideoProcessorIntegrationTest, ProcessNoLossDenoiserOnVP9) {
   // Bitrate and frame rate profile.
   RateProfile rate_profile;
   SetRateProfilePars(&rate_profile, 0, 500, 30, 0);
   rate_profile.frame_index_rate_update[1] = kNbrFramesShort + 1;
   rate_profile.num_frames = kNbrFramesShort;
   // Codec/network settings.
   CodecConfigPars process_settings;
   SetCodecParameters(&process_settings, kVideoCodecVP9, 0.0f, -1, 1, false,
                      true, true, false);
   // Metrics for expected quality.
   QualityMetrics quality_metrics;
   SetQualityMetrics(&quality_metrics, 36.8, 35.8, 0.92, 0.91);
   // Metrics for rate control.
   RateControlMetrics rc_metrics[1];
   SetRateControlMetrics(rc_metrics, 0, 0, 40, 20, 10, 20, 0, 1);
-  ProcessFramesAndVerify(quality_metrics,
-                         rate_profile,
-                         process_settings,
+  ProcessFramesAndVerify(quality_metrics, rate_profile, process_settings,
                          rc_metrics);
 }
 
 // Run with no packet loss, at low bitrate.
 // spatial_resize is on, for this low bitrate expect one resize in sequence.
 // Resize happens on delta frame. Expect only one key frame (first frame).
 TEST_F(VideoProcessorIntegrationTest, ProcessNoLossSpatialResizeFrameDropVP9) {
   config_.networking_config.packet_loss_probability = 0;
   // Bitrate and frame rate profile.
   RateProfile rate_profile;
   SetRateProfilePars(&rate_profile, 0, 50, 30, 0);
   rate_profile.frame_index_rate_update[1] = kNbrFramesLong + 1;
   rate_profile.num_frames = kNbrFramesLong;
   // Codec/network settings.
   CodecConfigPars process_settings;
-  SetCodecParameters(&process_settings, kVideoCodecVP9, 0.0f, -1,
-                     1, false, false, true, true);
+  SetCodecParameters(&process_settings, kVideoCodecVP9, 0.0f, -1, 1, false,
+                     false, true, true);
   // Metrics for expected quality.
   QualityMetrics quality_metrics;
   SetQualityMetrics(&quality_metrics, 25.0, 13.0, 0.70, 0.37);
   // Metrics for rate control.
   RateControlMetrics rc_metrics[1];
   SetRateControlMetrics(rc_metrics, 0, 225, 70, 160, 15, 80, 1, 1);
-  ProcessFramesAndVerify(quality_metrics,
-                         rate_profile,
-                         process_settings,
+  ProcessFramesAndVerify(quality_metrics, rate_profile, process_settings,
                          rc_metrics);
 }
 
 // TODO(marpan): Add temporal layer test for VP9, once changes are in
 // vp9 wrapper for this.
 
 // VP8: Run with no packet loss and fixed bitrate. Quality should be very high.
 // One key frame (first frame only) in sequence. Setting |key_frame_interval|
 // to -1 below means no periodic key frames in test.
 TEST_F(VideoProcessorIntegrationTest, ProcessZeroPacketLoss) {
   // Bitrate and frame rate profile.
   RateProfile rate_profile;
   SetRateProfilePars(&rate_profile, 0, 500, 30, 0);
   rate_profile.frame_index_rate_update[1] = kNbrFramesShort + 1;
   rate_profile.num_frames = kNbrFramesShort;
   // Codec/network settings.
   CodecConfigPars process_settings;
   SetCodecParameters(&process_settings, kVideoCodecVP8, 0.0f, -1, 1, false,
                      true, true, false);
   // Metrics for expected quality.
   QualityMetrics quality_metrics;
   SetQualityMetrics(&quality_metrics, 34.95, 33.0, 0.90, 0.89);
   // Metrics for rate control.
   RateControlMetrics rc_metrics[1];
   SetRateControlMetrics(rc_metrics, 0, 0, 40, 20, 10, 15, 0, 1);
-  ProcessFramesAndVerify(quality_metrics,
-                         rate_profile,
-                         process_settings,
+  ProcessFramesAndVerify(quality_metrics, rate_profile, process_settings,
                          rc_metrics);
 }
 
 // VP8: Run with 5% packet loss and fixed bitrate. Quality should be a bit
 // lower. One key frame (first frame only) in sequence.
 TEST_F(VideoProcessorIntegrationTest, Process5PercentPacketLoss) {
   // Bitrate and frame rate profile.
   RateProfile rate_profile;
   SetRateProfilePars(&rate_profile, 0, 500, 30, 0);
   rate_profile.frame_index_rate_update[1] = kNbrFramesShort + 1;
   rate_profile.num_frames = kNbrFramesShort;
   // Codec/network settings.
   CodecConfigPars process_settings;
   SetCodecParameters(&process_settings, kVideoCodecVP8, 0.05f, -1, 1, false,
                      true, true, false);
   // Metrics for expected quality.
   QualityMetrics quality_metrics;
   SetQualityMetrics(&quality_metrics, 20.0, 16.0, 0.60, 0.40);
   // Metrics for rate control.
   RateControlMetrics rc_metrics[1];
   SetRateControlMetrics(rc_metrics, 0, 0, 40, 20, 10, 15, 0, 1);
-  ProcessFramesAndVerify(quality_metrics,
-                         rate_profile,
-                         process_settings,
+  ProcessFramesAndVerify(quality_metrics, rate_profile, process_settings,
                          rc_metrics);
 }
 
 // VP8: Run with 10% packet loss and fixed bitrate. Quality should be lower.
 // One key frame (first frame only) in sequence.
 TEST_F(VideoProcessorIntegrationTest, Process10PercentPacketLoss) {
   // Bitrate and frame rate profile.
   RateProfile rate_profile;
   SetRateProfilePars(&rate_profile, 0, 500, 30, 0);
   rate_profile.frame_index_rate_update[1] = kNbrFramesShort + 1;
   rate_profile.num_frames = kNbrFramesShort;
   // Codec/network settings.
   CodecConfigPars process_settings;
   SetCodecParameters(&process_settings, kVideoCodecVP8, 0.1f, -1, 1, false,
                      true, true, false);
   // Metrics for expected quality.
   QualityMetrics quality_metrics;
   SetQualityMetrics(&quality_metrics, 19.0, 16.0, 0.50, 0.35);
   // Metrics for rate control.
   RateControlMetrics rc_metrics[1];
   SetRateControlMetrics(rc_metrics, 0, 0, 40, 20, 10, 15, 0, 1);
-  ProcessFramesAndVerify(quality_metrics,
-                         rate_profile,
-                         process_settings,
+  ProcessFramesAndVerify(quality_metrics, rate_profile, process_settings,
                          rc_metrics);
 }
 
 // The tests below are currently disabled for Android. For ARM, the encoder
 // uses |cpu_speed| = 12, as opposed to default |cpu_speed| <= 6 for x86,
 // which leads to significantly different quality. The quality and rate control
 // settings in the tests below are defined for encoder speed setting
 // |cpu_speed| <= ~6. A number of settings would need to be significantly
 // modified for the |cpu_speed| = 12 case. For now, keep the tests below
 // disabled on Android. Some quality parameter in the above test has been
@@ skipping 17 matching lines @@
   SetCodecParameters(&process_settings, kVideoCodecVP8, 0.0f, -1, 1, false,
                      true, true, false);
   // Metrics for expected quality.
   QualityMetrics quality_metrics;
   SetQualityMetrics(&quality_metrics, 34.0, 32.0, 0.85, 0.80);
   // Metrics for rate control.
   RateControlMetrics rc_metrics[3];
   SetRateControlMetrics(rc_metrics, 0, 0, 45, 20, 10, 15, 0, 1);
   SetRateControlMetrics(rc_metrics, 1, 0, 0, 25, 20, 10, 0, 0);
   SetRateControlMetrics(rc_metrics, 2, 0, 0, 25, 15, 10, 0, 0);
-  ProcessFramesAndVerify(quality_metrics,
-                         rate_profile,
-                         process_settings,
+  ProcessFramesAndVerify(quality_metrics, rate_profile, process_settings,
                          rc_metrics);
 }
 
 // VP8: Run with no packet loss, with an update (decrease) in frame rate.
 // Lower frame rate means higher per-frame-bandwidth, so easier to encode.
 // At the bitrate in this test, this means better rate control after the
 // update(s) to lower frame rate. So expect less frame drops, and max values
 // for the rate control metrics can be lower. One key frame (first frame only).
 // Note: quality after update should be higher but we currently compute quality
 // metrics averaged over whole sequence run.
@@ skipping 12 matching lines @@
   SetCodecParameters(&process_settings, kVideoCodecVP8, 0.0f, -1, 1, false,
                      true, true, false);
   // Metrics for expected quality.
   QualityMetrics quality_metrics;
   SetQualityMetrics(&quality_metrics, 31.0, 22.0, 0.80, 0.65);
   // Metrics for rate control.
   RateControlMetrics rc_metrics[3];
   SetRateControlMetrics(rc_metrics, 0, 40, 20, 75, 15, 60, 0, 1);
   SetRateControlMetrics(rc_metrics, 1, 10, 0, 25, 10, 35, 0, 0);
   SetRateControlMetrics(rc_metrics, 2, 0, 0, 20, 10, 15, 0, 0);
-  ProcessFramesAndVerify(quality_metrics,
-                         rate_profile,
-                         process_settings,
+  ProcessFramesAndVerify(quality_metrics, rate_profile, process_settings,
                          rc_metrics);
 }
 
 // Run with no packet loss, at low bitrate. During this time we should've
 // resized once. Expect 2 key frames generated (first and one for resize).
 TEST_F(VideoProcessorIntegrationTest,
        DISABLED_ON_ANDROID(ProcessNoLossSpatialResizeFrameDropVP8)) {
   config_.networking_config.packet_loss_probability = 0;
   // Bitrate and frame rate profile.
   RateProfile rate_profile;
   SetRateProfilePars(&rate_profile, 0, 50, 30, 0);
   rate_profile.frame_index_rate_update[1] = kNbrFramesLong + 1;
   rate_profile.num_frames = kNbrFramesLong;
   // Codec/network settings.
   CodecConfigPars process_settings;
-  SetCodecParameters(&process_settings, kVideoCodecVP8, 0.0f, -1,
-                     1, false, true, true, true);
+  SetCodecParameters(&process_settings, kVideoCodecVP8, 0.0f, -1, 1, false,
+                     true, true, true);
   // Metrics for expected quality.
   QualityMetrics quality_metrics;
   SetQualityMetrics(&quality_metrics, 25.0, 15.0, 0.70, 0.40);
   // Metrics for rate control.
   RateControlMetrics rc_metrics[1];
   SetRateControlMetrics(rc_metrics, 0, 160, 60, 120, 20, 70, 1, 2);
-  ProcessFramesAndVerify(quality_metrics,
-                         rate_profile,
-                         process_settings,
+  ProcessFramesAndVerify(quality_metrics, rate_profile, process_settings,
                          rc_metrics);
 }
 
 // VP8: Run with no packet loss, with 3 temporal layers, with a rate update in
 // the middle of the sequence. The max values for the frame size mismatch and
 // encoding rate mismatch are applied to each layer.
 // No dropped frames in this test, and internal spatial resizer is off.
 // One key frame (first frame only) in sequence, so no spatial resizing.
 TEST_F(VideoProcessorIntegrationTest,
        DISABLED_ON_ANDROID(ProcessNoLossTemporalLayersVP8)) {
   config_.networking_config.packet_loss_probability = 0;
   // Bitrate and frame rate profile.
   RateProfile rate_profile;
   SetRateProfilePars(&rate_profile, 0, 200, 30, 0);
   SetRateProfilePars(&rate_profile, 1, 400, 30, 150);
   rate_profile.frame_index_rate_update[2] = kNbrFramesLong + 1;
   rate_profile.num_frames = kNbrFramesLong;
   // Codec/network settings.
   CodecConfigPars process_settings;
   SetCodecParameters(&process_settings, kVideoCodecVP8, 0.0f, -1, 3, false,
                      true, true, false);
   // Metrics for expected quality.
   QualityMetrics quality_metrics;
   SetQualityMetrics(&quality_metrics, 32.5, 30.0, 0.85, 0.80);
   // Metrics for rate control.
   RateControlMetrics rc_metrics[2];
   SetRateControlMetrics(rc_metrics, 0, 0, 20, 30, 10, 10, 0, 1);
   SetRateControlMetrics(rc_metrics, 1, 0, 0, 30, 15, 10, 0, 0);
-  ProcessFramesAndVerify(quality_metrics,
-                         rate_profile,
-                         process_settings,
+  ProcessFramesAndVerify(quality_metrics, rate_profile, process_settings,
                          rc_metrics);
 }
 }  // namespace webrtc