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| 1 /* |
| 2 * Copyright 2012 The WebRTC project authors. All Rights Reserved. |
| 3 * |
| 4 * Use of this source code is governed by a BSD-style license |
| 5 * that can be found in the LICENSE file in the root of the source |
| 6 * tree. An additional intellectual property rights grant can be found |
| 7 * in the file PATENTS. All contributing project authors may |
| 8 * be found in the AUTHORS file in the root of the source tree. |
| 9 */ |
| 10 |
| 11 #include <stdio.h> |
| 12 |
| 13 #include <algorithm> |
| 14 #include <functional> |
| 15 #include <list> |
| 16 #include <map> |
| 17 #include <memory> |
| 18 #include <utility> |
| 19 #include <vector> |
| 20 |
| 21 #include "webrtc/api/fakemetricsobserver.h" |
| 22 #include "webrtc/api/mediastreaminterface.h" |
| 23 #include "webrtc/api/peerconnectioninterface.h" |
| 24 #include "webrtc/api/test/fakeconstraints.h" |
| 25 #include "webrtc/base/fakenetwork.h" |
| 26 #include "webrtc/base/gunit.h" |
| 27 #include "webrtc/base/helpers.h" |
| 28 #include "webrtc/base/physicalsocketserver.h" |
| 29 #include "webrtc/base/ssladapter.h" |
| 30 #include "webrtc/base/sslstreamadapter.h" |
| 31 #include "webrtc/base/thread.h" |
| 32 #include "webrtc/base/virtualsocketserver.h" |
| 33 #include "webrtc/media/engine/fakewebrtcvideoengine.h" |
| 34 #include "webrtc/p2p/base/p2pconstants.h" |
| 35 #include "webrtc/p2p/base/portinterface.h" |
| 36 #include "webrtc/p2p/base/sessiondescription.h" |
| 37 #include "webrtc/p2p/base/testturnserver.h" |
| 38 #include "webrtc/p2p/client/basicportallocator.h" |
| 39 #include "webrtc/pc/dtmfsender.h" |
| 40 #include "webrtc/pc/localaudiosource.h" |
| 41 #include "webrtc/pc/mediasession.h" |
| 42 #include "webrtc/pc/peerconnection.h" |
| 43 #include "webrtc/pc/peerconnectionfactory.h" |
| 44 #include "webrtc/pc/test/fakeaudiocapturemodule.h" |
| 45 #include "webrtc/pc/test/fakeperiodicvideocapturer.h" |
| 46 #include "webrtc/pc/test/fakertccertificategenerator.h" |
| 47 #include "webrtc/pc/test/fakevideotrackrenderer.h" |
| 48 #include "webrtc/pc/test/mockpeerconnectionobservers.h" |
| 49 |
| 50 using cricket::ContentInfo; |
| 51 using cricket::FakeWebRtcVideoDecoder; |
| 52 using cricket::FakeWebRtcVideoDecoderFactory; |
| 53 using cricket::FakeWebRtcVideoEncoder; |
| 54 using cricket::FakeWebRtcVideoEncoderFactory; |
| 55 using cricket::MediaContentDescription; |
| 56 using webrtc::DataBuffer; |
| 57 using webrtc::DataChannelInterface; |
| 58 using webrtc::DtmfSender; |
| 59 using webrtc::DtmfSenderInterface; |
| 60 using webrtc::DtmfSenderObserverInterface; |
| 61 using webrtc::FakeConstraints; |
| 62 using webrtc::MediaConstraintsInterface; |
| 63 using webrtc::MediaStreamInterface; |
| 64 using webrtc::MediaStreamTrackInterface; |
| 65 using webrtc::MockCreateSessionDescriptionObserver; |
| 66 using webrtc::MockDataChannelObserver; |
| 67 using webrtc::MockSetSessionDescriptionObserver; |
| 68 using webrtc::MockStatsObserver; |
| 69 using webrtc::ObserverInterface; |
| 70 using webrtc::PeerConnectionInterface; |
| 71 using webrtc::PeerConnectionFactory; |
| 72 using webrtc::SessionDescriptionInterface; |
| 73 using webrtc::StreamCollectionInterface; |
| 74 |
| 75 namespace { |
| 76 |
| 77 static const int kDefaultTimeout = 10000; |
| 78 // Disable for TSan v2, see |
| 79 // https://code.google.com/p/webrtc/issues/detail?id=1205 for details. |
| 80 // This declaration is also #ifdef'd as it causes uninitialized-variable |
| 81 // warnings. |
| 82 #if !defined(THREAD_SANITIZER) |
| 83 static const int kMaxWaitForStatsMs = 3000; |
| 84 #endif |
| 85 static const int kMaxWaitForActivationMs = 5000; |
| 86 static const int kMaxWaitForFramesMs = 10000; |
| 87 static const int kEndAudioFrameCount = 3; |
| 88 static const int kEndVideoFrameCount = 3; |
| 89 |
| 90 static const char kDefaultStreamLabel[] = "stream_label"; |
| 91 static const char kDefaultVideoTrackId[] = "video_track"; |
| 92 static const char kDefaultAudioTrackId[] = "audio_track"; |
| 93 static const char kDataChannelLabel[] = "data_channel"; |
| 94 |
| 95 // Disable for TSan v2, see |
| 96 // https://code.google.com/p/webrtc/issues/detail?id=1205 for details. |
| 97 // This declaration is also #ifdef'd as it causes unused-variable errors. |
| 98 #if !defined(THREAD_SANITIZER) |
| 99 // SRTP cipher name negotiated by the tests. This must be updated if the |
| 100 // default changes. |
| 101 static const int kDefaultSrtpCryptoSuite = rtc::SRTP_AES128_CM_SHA1_32; |
| 102 static const int kDefaultSrtpCryptoSuiteGcm = rtc::SRTP_AEAD_AES_256_GCM; |
| 103 #endif |
| 104 |
| 105 // Used to simulate signaling ICE/SDP between two PeerConnections. |
| 106 enum Message { MSG_SDP_MESSAGE, MSG_ICE_MESSAGE }; |
| 107 |
| 108 struct SdpMessage { |
| 109 std::string type; |
| 110 std::string msg; |
| 111 }; |
| 112 |
| 113 struct IceMessage { |
| 114 std::string sdp_mid; |
| 115 int sdp_mline_index; |
| 116 std::string msg; |
| 117 }; |
| 118 |
| 119 // Helper function for constructing offer/answer options to initiate an ICE |
| 120 // restart. |
| 121 PeerConnectionInterface::RTCOfferAnswerOptions IceRestartOfferAnswerOptions() { |
| 122 PeerConnectionInterface::RTCOfferAnswerOptions options; |
| 123 options.ice_restart = true; |
| 124 return options; |
| 125 } |
| 126 |
| 127 class SignalingMessageReceiver { |
| 128 public: |
| 129 virtual void ReceiveSdpMessage(const std::string& type, std::string& msg) = 0; |
| 130 virtual void ReceiveIceMessage(const std::string& sdp_mid, |
| 131 int sdp_mline_index, |
| 132 const std::string& msg) = 0; |
| 133 |
| 134 protected: |
| 135 SignalingMessageReceiver() {} |
| 136 virtual ~SignalingMessageReceiver() {} |
| 137 }; |
| 138 |
| 139 class MockRtpReceiverObserver : public webrtc::RtpReceiverObserverInterface { |
| 140 public: |
| 141 MockRtpReceiverObserver(cricket::MediaType media_type) |
| 142 : expected_media_type_(media_type) {} |
| 143 |
| 144 void OnFirstPacketReceived(cricket::MediaType media_type) override { |
| 145 ASSERT_EQ(expected_media_type_, media_type); |
| 146 first_packet_received_ = true; |
| 147 } |
| 148 |
| 149 bool first_packet_received() const { return first_packet_received_; } |
| 150 |
| 151 virtual ~MockRtpReceiverObserver() {} |
| 152 |
| 153 private: |
| 154 bool first_packet_received_ = false; |
| 155 cricket::MediaType expected_media_type_; |
| 156 }; |
| 157 |
| 158 // Helper class that wraps a peer connection, observes it, and can accept |
| 159 // signaling messages from another wrapper. |
| 160 // |
| 161 // Uses a fake network, fake A/V capture, and optionally fake |
| 162 // encoders/decoders, though they aren't used by default since they don't |
| 163 // advertise support of any codecs. |
| 164 class PeerConnectionWrapper : public webrtc::PeerConnectionObserver, |
| 165 public SignalingMessageReceiver, |
| 166 public ObserverInterface, |
| 167 public rtc::MessageHandler { |
| 168 public: |
| 169 // Different factory methods for convenience. |
| 170 static PeerConnectionWrapper* CreateWithDtlsIdentityStore( |
| 171 const std::string& debug_name, |
| 172 std::unique_ptr<rtc::RTCCertificateGeneratorInterface> cert_generator, |
| 173 rtc::Thread* network_thread, |
| 174 rtc::Thread* worker_thread) { |
| 175 PeerConnectionWrapper* client(new PeerConnectionWrapper(debug_name)); |
| 176 if (!client->Init(nullptr, nullptr, nullptr, std::move(cert_generator), |
| 177 network_thread, worker_thread)) { |
| 178 delete client; |
| 179 return nullptr; |
| 180 } |
| 181 return client; |
| 182 } |
| 183 |
| 184 static PeerConnectionWrapper* CreateWithConfig( |
| 185 const std::string& debug_name, |
| 186 const PeerConnectionInterface::RTCConfiguration& config, |
| 187 rtc::Thread* network_thread, |
| 188 rtc::Thread* worker_thread) { |
| 189 std::unique_ptr<FakeRTCCertificateGenerator> cert_generator( |
| 190 new FakeRTCCertificateGenerator()); |
| 191 PeerConnectionWrapper* client(new PeerConnectionWrapper(debug_name)); |
| 192 if (!client->Init(nullptr, nullptr, &config, std::move(cert_generator), |
| 193 network_thread, worker_thread)) { |
| 194 delete client; |
| 195 return nullptr; |
| 196 } |
| 197 return client; |
| 198 } |
| 199 |
| 200 static PeerConnectionWrapper* CreateWithOptions( |
| 201 const std::string& debug_name, |
| 202 const PeerConnectionFactory::Options& options, |
| 203 rtc::Thread* network_thread, |
| 204 rtc::Thread* worker_thread) { |
| 205 std::unique_ptr<FakeRTCCertificateGenerator> cert_generator( |
| 206 new FakeRTCCertificateGenerator()); |
| 207 PeerConnectionWrapper* client(new PeerConnectionWrapper(debug_name)); |
| 208 if (!client->Init(nullptr, &options, nullptr, std::move(cert_generator), |
| 209 network_thread, worker_thread)) { |
| 210 delete client; |
| 211 return nullptr; |
| 212 } |
| 213 return client; |
| 214 } |
| 215 |
| 216 static PeerConnectionWrapper* CreateWithConstraints( |
| 217 const std::string& debug_name, |
| 218 const MediaConstraintsInterface* constraints, |
| 219 rtc::Thread* network_thread, |
| 220 rtc::Thread* worker_thread) { |
| 221 std::unique_ptr<FakeRTCCertificateGenerator> cert_generator( |
| 222 new FakeRTCCertificateGenerator()); |
| 223 PeerConnectionWrapper* client(new PeerConnectionWrapper(debug_name)); |
| 224 if (!client->Init(constraints, nullptr, nullptr, std::move(cert_generator), |
| 225 network_thread, worker_thread)) { |
| 226 delete client; |
| 227 return nullptr; |
| 228 } |
| 229 return client; |
| 230 } |
| 231 |
| 232 webrtc::PeerConnectionInterface* pc() const { return peer_connection_.get(); } |
| 233 |
| 234 // If a signaling message receiver is set (typically via |
| 235 // ConnectFakeSignaling), this will set the whole offer/answer exchange in |
| 236 // motion. Just need to wait for the signaling state to reach "stable". |
| 237 void CreateSetAndSignalOffer() { |
| 238 std::unique_ptr<SessionDescriptionInterface> offer; |
| 239 ASSERT_TRUE(CreateOffer(&offer)); |
| 240 EXPECT_TRUE(SetLocalDescriptionAndSendSdpMessage(std::move(offer))); |
| 241 } |
| 242 |
| 243 // Sets the options to be used when CreateSetAndSignalOffer is called, or |
| 244 // when a remote offer is received (via fake signaling) and an answer is |
| 245 // generated. By default, uses default options. |
| 246 void SetOfferAnswerOptions( |
| 247 const PeerConnectionInterface::RTCOfferAnswerOptions& options) { |
| 248 offer_answer_options_ = options; |
| 249 } |
| 250 |
| 251 // Set a callback to be invoked when SDP is received via the fake signaling |
| 252 // channel, which provides an opportunity to munge (modify) the SDP. This is |
| 253 // used to test SDP being applied that a PeerConnection would normally not |
| 254 // generate, but a non-JSEP endpoint might. |
| 255 // TODO(deadbeef): Make this operate on SessionDescriptions instead of |
| 256 // strings. |
| 257 void SetReceivedSdpMunger( |
| 258 std::function<void(cricket::SessionDescription*)> munger) { |
| 259 received_sdp_munger_ = munger; |
| 260 } |
| 261 |
| 262 // Siimlar to the above, but this is run on SDP immediately after it's |
| 263 // generated. |
| 264 void SetGeneratedSdpMunger( |
| 265 std::function<void(cricket::SessionDescription*)> munger) { |
| 266 generated_sdp_munger_ = munger; |
| 267 } |
| 268 |
| 269 // Number of times the gathering state has transitioned to "gathering". |
| 270 // Useful for telling if an ICE restart occurred as expected. |
| 271 int transitions_to_gathering_state() const { |
| 272 return transitions_to_gathering_state_; |
| 273 } |
| 274 |
| 275 // TODO(deadbeef): Switch the majority of these tests to use AddTrack instead |
| 276 // of AddStream since AddStream is deprecated. |
| 277 void AddAudioVideoMediaStream() { |
| 278 AddMediaStreamFromTracks(CreateLocalAudioTrack(), CreateLocalVideoTrack()); |
| 279 } |
| 280 |
| 281 void AddAudioOnlyMediaStream() { |
| 282 AddMediaStreamFromTracks(CreateLocalAudioTrack(), nullptr); |
| 283 } |
| 284 |
| 285 void AddVideoOnlyMediaStream() { |
| 286 AddMediaStreamFromTracks(nullptr, CreateLocalVideoTrack()); |
| 287 } |
| 288 |
| 289 rtc::scoped_refptr<webrtc::AudioTrackInterface> CreateLocalAudioTrack() { |
| 290 FakeConstraints constraints; |
| 291 // Disable highpass filter so that we can get all the test audio frames. |
| 292 constraints.AddMandatory(MediaConstraintsInterface::kHighpassFilter, false); |
| 293 rtc::scoped_refptr<webrtc::AudioSourceInterface> source = |
| 294 peer_connection_factory_->CreateAudioSource(&constraints); |
| 295 // TODO(perkj): Test audio source when it is implemented. Currently audio |
| 296 // always use the default input. |
| 297 return peer_connection_factory_->CreateAudioTrack(kDefaultAudioTrackId, |
| 298 source); |
| 299 } |
| 300 |
| 301 rtc::scoped_refptr<webrtc::VideoTrackInterface> CreateLocalVideoTrack() { |
| 302 return CreateLocalVideoTrackInternal( |
| 303 kDefaultVideoTrackId, FakeConstraints(), webrtc::kVideoRotation_0); |
| 304 } |
| 305 |
| 306 rtc::scoped_refptr<webrtc::VideoTrackInterface> |
| 307 CreateLocalVideoTrackWithConstraints(const FakeConstraints& constraints) { |
| 308 return CreateLocalVideoTrackInternal(kDefaultVideoTrackId, constraints, |
| 309 webrtc::kVideoRotation_0); |
| 310 } |
| 311 |
| 312 rtc::scoped_refptr<webrtc::VideoTrackInterface> |
| 313 CreateLocalVideoTrackWithRotation(webrtc::VideoRotation rotation) { |
| 314 return CreateLocalVideoTrackInternal(kDefaultVideoTrackId, |
| 315 FakeConstraints(), rotation); |
| 316 } |
| 317 |
| 318 rtc::scoped_refptr<webrtc::VideoTrackInterface> CreateLocalVideoTrackWithId( |
| 319 const std::string& id) { |
| 320 return CreateLocalVideoTrackInternal(id, FakeConstraints(), |
| 321 webrtc::kVideoRotation_0); |
| 322 } |
| 323 |
| 324 void AddMediaStreamFromTracks( |
| 325 rtc::scoped_refptr<webrtc::AudioTrackInterface> audio, |
| 326 rtc::scoped_refptr<webrtc::VideoTrackInterface> video) { |
| 327 AddMediaStreamFromTracksWithLabel(audio, video, kDefaultStreamLabel); |
| 328 } |
| 329 |
| 330 void AddMediaStreamFromTracksWithLabel( |
| 331 rtc::scoped_refptr<webrtc::AudioTrackInterface> audio, |
| 332 rtc::scoped_refptr<webrtc::VideoTrackInterface> video, |
| 333 const std::string& stream_label) { |
| 334 rtc::scoped_refptr<MediaStreamInterface> stream = |
| 335 peer_connection_factory_->CreateLocalMediaStream(stream_label); |
| 336 if (audio) { |
| 337 stream->AddTrack(audio); |
| 338 } |
| 339 if (video) { |
| 340 stream->AddTrack(video); |
| 341 } |
| 342 EXPECT_TRUE(pc()->AddStream(stream)); |
| 343 } |
| 344 |
| 345 bool SignalingStateStable() { |
| 346 return pc()->signaling_state() == webrtc::PeerConnectionInterface::kStable; |
| 347 } |
| 348 |
| 349 void CreateDataChannel() { CreateDataChannel(nullptr); } |
| 350 |
| 351 void CreateDataChannel(const webrtc::DataChannelInit* init) { |
| 352 data_channel_ = pc()->CreateDataChannel(kDataChannelLabel, init); |
| 353 ASSERT_TRUE(data_channel_.get() != nullptr); |
| 354 data_observer_.reset(new MockDataChannelObserver(data_channel_)); |
| 355 } |
| 356 |
| 357 DataChannelInterface* data_channel() { return data_channel_; } |
| 358 const MockDataChannelObserver* data_observer() const { |
| 359 return data_observer_.get(); |
| 360 } |
| 361 |
| 362 bool ReceivedAudioFrames(int number_of_frames) const { |
| 363 return number_of_frames <= fake_audio_capture_module_->frames_received(); |
| 364 } |
| 365 |
| 366 int audio_frames_received() const { |
| 367 return fake_audio_capture_module_->frames_received(); |
| 368 } |
| 369 |
| 370 bool ReceivedVideoFramesForEachTrack(int number_of_frames) { |
| 371 if (video_decoder_factory_enabled_) { |
| 372 const std::vector<FakeWebRtcVideoDecoder*>& decoders = |
| 373 fake_video_decoder_factory_->decoders(); |
| 374 if (decoders.empty()) { |
| 375 return number_of_frames <= 0; |
| 376 } |
| 377 // Note - this checks that EACH decoder has the requisite number |
| 378 // of frames. The video_frames_received() function sums them. |
| 379 for (FakeWebRtcVideoDecoder* decoder : decoders) { |
| 380 if (number_of_frames > decoder->GetNumFramesReceived()) { |
| 381 return false; |
| 382 } |
| 383 } |
| 384 return true; |
| 385 } else { |
| 386 if (fake_video_renderers_.empty()) { |
| 387 return number_of_frames <= 0; |
| 388 } |
| 389 |
| 390 for (const auto& pair : fake_video_renderers_) { |
| 391 if (number_of_frames > pair.second->num_rendered_frames()) { |
| 392 return false; |
| 393 } |
| 394 } |
| 395 return true; |
| 396 } |
| 397 } |
| 398 |
| 399 int video_frames_received() const { |
| 400 int total = 0; |
| 401 if (video_decoder_factory_enabled_) { |
| 402 const std::vector<FakeWebRtcVideoDecoder*>& decoders = |
| 403 fake_video_decoder_factory_->decoders(); |
| 404 for (const FakeWebRtcVideoDecoder* decoder : decoders) { |
| 405 total += decoder->GetNumFramesReceived(); |
| 406 } |
| 407 } else { |
| 408 for (const auto& pair : fake_video_renderers_) { |
| 409 total += pair.second->num_rendered_frames(); |
| 410 } |
| 411 for (const auto& renderer : removed_fake_video_renderers_) { |
| 412 total += renderer->num_rendered_frames(); |
| 413 } |
| 414 } |
| 415 return total; |
| 416 } |
| 417 |
| 418 // Returns a MockStatsObserver in a state after stats gathering finished, |
| 419 // which can be used to access the gathered stats. |
| 420 rtc::scoped_refptr<MockStatsObserver> GetStatsForTrack( |
| 421 webrtc::MediaStreamTrackInterface* track) { |
| 422 rtc::scoped_refptr<MockStatsObserver> observer( |
| 423 new rtc::RefCountedObject<MockStatsObserver>()); |
| 424 EXPECT_TRUE(peer_connection_->GetStats( |
| 425 observer, nullptr, PeerConnectionInterface::kStatsOutputLevelStandard)); |
| 426 EXPECT_TRUE_WAIT(observer->called(), kDefaultTimeout); |
| 427 return observer; |
| 428 } |
| 429 |
| 430 // Version that doesn't take a track "filter", and gathers all stats. |
| 431 rtc::scoped_refptr<MockStatsObserver> GetStats() { |
| 432 return GetStatsForTrack(nullptr); |
| 433 } |
| 434 |
| 435 int rendered_width() { |
| 436 EXPECT_FALSE(fake_video_renderers_.empty()); |
| 437 return fake_video_renderers_.empty() |
| 438 ? 1 |
| 439 : fake_video_renderers_.begin()->second->width(); |
| 440 } |
| 441 |
| 442 int rendered_height() { |
| 443 EXPECT_FALSE(fake_video_renderers_.empty()); |
| 444 return fake_video_renderers_.empty() |
| 445 ? 1 |
| 446 : fake_video_renderers_.begin()->second->height(); |
| 447 } |
| 448 |
| 449 double rendered_aspect_ratio() { |
| 450 if (rendered_height() == 0) { |
| 451 return 0.0; |
| 452 } |
| 453 return static_cast<double>(rendered_width()) / rendered_height(); |
| 454 } |
| 455 |
| 456 webrtc::VideoRotation rendered_rotation() { |
| 457 EXPECT_FALSE(fake_video_renderers_.empty()); |
| 458 return fake_video_renderers_.empty() |
| 459 ? webrtc::kVideoRotation_0 |
| 460 : fake_video_renderers_.begin()->second->rotation(); |
| 461 } |
| 462 |
| 463 int local_rendered_width() { |
| 464 return local_video_renderer_ ? local_video_renderer_->width() : 1; |
| 465 } |
| 466 |
| 467 int local_rendered_height() { |
| 468 return local_video_renderer_ ? local_video_renderer_->height() : 1; |
| 469 } |
| 470 |
| 471 double local_rendered_aspect_ratio() { |
| 472 if (local_rendered_height() == 0) { |
| 473 return 0.0; |
| 474 } |
| 475 return static_cast<double>(local_rendered_width()) / |
| 476 local_rendered_height(); |
| 477 } |
| 478 |
| 479 size_t number_of_remote_streams() { |
| 480 if (!pc()) |
| 481 return 0; |
| 482 return pc()->remote_streams()->count(); |
| 483 } |
| 484 |
| 485 StreamCollectionInterface* remote_streams() const { |
| 486 if (!pc()) { |
| 487 ADD_FAILURE(); |
| 488 return nullptr; |
| 489 } |
| 490 return pc()->remote_streams(); |
| 491 } |
| 492 |
| 493 StreamCollectionInterface* local_streams() { |
| 494 if (!pc()) { |
| 495 ADD_FAILURE(); |
| 496 return nullptr; |
| 497 } |
| 498 return pc()->local_streams(); |
| 499 } |
| 500 |
| 501 webrtc::PeerConnectionInterface::SignalingState signaling_state() { |
| 502 return pc()->signaling_state(); |
| 503 } |
| 504 |
| 505 webrtc::PeerConnectionInterface::IceConnectionState ice_connection_state() { |
| 506 return pc()->ice_connection_state(); |
| 507 } |
| 508 |
| 509 webrtc::PeerConnectionInterface::IceGatheringState ice_gathering_state() { |
| 510 return pc()->ice_gathering_state(); |
| 511 } |
| 512 |
| 513 // Returns a MockRtpReceiverObserver for each RtpReceiver returned by |
| 514 // GetReceivers. They're updated automatically when a remote offer/answer |
| 515 // from the fake signaling channel is applied, or when |
| 516 // ResetRtpReceiverObservers below is called. |
| 517 std::vector<std::unique_ptr<MockRtpReceiverObserver>> const& |
| 518 rtp_receiver_observers() { |
| 519 return rtp_receiver_observers_; |
| 520 } |
| 521 |
| 522 void ResetRtpReceiverObservers() { |
| 523 rtp_receiver_observers_.clear(); |
| 524 for (auto receiver : pc()->GetReceivers()) { |
| 525 std::unique_ptr<MockRtpReceiverObserver> observer( |
| 526 new MockRtpReceiverObserver(receiver->media_type())); |
| 527 receiver->SetObserver(observer.get()); |
| 528 rtp_receiver_observers_.push_back(std::move(observer)); |
| 529 } |
| 530 } |
| 531 |
| 532 private: |
| 533 void SendSdpMessage(const std::string& type, std::string& msg) { |
| 534 LOG(LS_INFO) << "Queue SDP message for " << debug_name_; |
| 535 LOG(LS_INFO) << msg; |
| 536 rtc::Thread::Current()->PostDelayed( |
| 537 RTC_FROM_HERE, signaling_delay_ms_, this, MSG_SDP_MESSAGE, |
| 538 new rtc::TypedMessageData<SdpMessage>({type, msg})); |
| 539 } |
| 540 |
| 541 void SendIceMessage(const std::string& sdp_mid, |
| 542 int sdp_mline_index, |
| 543 const std::string& msg) { |
| 544 LOG(LS_INFO) << "Queue ICE message for " << debug_name_; |
| 545 rtc::Thread::Current()->PostDelayed( |
| 546 RTC_FROM_HERE, signaling_delay_ms_, this, MSG_ICE_MESSAGE, |
| 547 new rtc::TypedMessageData<IceMessage>({sdp_mid, sdp_mline_index, msg})); |
| 548 } |
| 549 |
| 550 // MessageHandler callback. |
| 551 // TODO(deadbeef): Simplify this code by using AsyncInvoker. |
| 552 void OnMessage(rtc::Message* msg) override { |
| 553 switch (msg->message_id) { |
| 554 case MSG_SDP_MESSAGE: { |
| 555 auto sdp_message = |
| 556 static_cast<rtc::TypedMessageData<SdpMessage>*>(msg->pdata); |
| 557 if (signaling_message_receiver_) { |
| 558 signaling_message_receiver_->ReceiveSdpMessage( |
| 559 sdp_message->data().type, sdp_message->data().msg); |
| 560 } |
| 561 delete sdp_message; |
| 562 break; |
| 563 } |
| 564 case MSG_ICE_MESSAGE: { |
| 565 auto ice_message = |
| 566 static_cast<rtc::TypedMessageData<IceMessage>*>(msg->pdata); |
| 567 if (signaling_message_receiver_) { |
| 568 signaling_message_receiver_->ReceiveIceMessage( |
| 569 ice_message->data().sdp_mid, ice_message->data().sdp_mline_index, |
| 570 ice_message->data().msg); |
| 571 } |
| 572 delete ice_message; |
| 573 break; |
| 574 } |
| 575 default: |
| 576 RTC_CHECK(false); |
| 577 } |
| 578 } |
| 579 |
| 580 // SignalingMessageReceiver callback. |
| 581 void ReceiveSdpMessage(const std::string& type, std::string& msg) override { |
| 582 if (type == webrtc::SessionDescriptionInterface::kOffer) { |
| 583 HandleIncomingOffer(msg); |
| 584 } else { |
| 585 HandleIncomingAnswer(msg); |
| 586 } |
| 587 } |
| 588 |
| 589 // SignalingMessageReceiver callback. |
| 590 void ReceiveIceMessage(const std::string& sdp_mid, |
| 591 int sdp_mline_index, |
| 592 const std::string& msg) override { |
| 593 LOG(LS_INFO) << debug_name_ << ": ReceiveIceMessage"; |
| 594 std::unique_ptr<webrtc::IceCandidateInterface> candidate( |
| 595 webrtc::CreateIceCandidate(sdp_mid, sdp_mline_index, msg, nullptr)); |
| 596 EXPECT_TRUE(pc()->AddIceCandidate(candidate.get())); |
| 597 } |
| 598 |
| 599 // PeerConnectionObserver callbacks. |
| 600 void OnSignalingChange( |
| 601 webrtc::PeerConnectionInterface::SignalingState new_state) override { |
| 602 EXPECT_EQ(pc()->signaling_state(), new_state); |
| 603 } |
| 604 void OnAddStream( |
| 605 rtc::scoped_refptr<MediaStreamInterface> media_stream) override { |
| 606 media_stream->RegisterObserver(this); |
| 607 for (size_t i = 0; i < media_stream->GetVideoTracks().size(); ++i) { |
| 608 const std::string id = media_stream->GetVideoTracks()[i]->id(); |
| 609 ASSERT_TRUE(fake_video_renderers_.find(id) == |
| 610 fake_video_renderers_.end()); |
| 611 fake_video_renderers_[id].reset(new webrtc::FakeVideoTrackRenderer( |
| 612 media_stream->GetVideoTracks()[i])); |
| 613 } |
| 614 } |
| 615 void OnRemoveStream( |
| 616 rtc::scoped_refptr<MediaStreamInterface> media_stream) override {} |
| 617 void OnRenegotiationNeeded() override {} |
| 618 void OnIceConnectionChange( |
| 619 webrtc::PeerConnectionInterface::IceConnectionState new_state) override { |
| 620 EXPECT_EQ(pc()->ice_connection_state(), new_state); |
| 621 } |
| 622 void OnIceGatheringChange( |
| 623 webrtc::PeerConnectionInterface::IceGatheringState new_state) override { |
| 624 if (new_state == PeerConnectionInterface::kIceGatheringGathering) { |
| 625 ++transitions_to_gathering_state_; |
| 626 } |
| 627 EXPECT_EQ(pc()->ice_gathering_state(), new_state); |
| 628 } |
| 629 void OnIceCandidate(const webrtc::IceCandidateInterface* candidate) override { |
| 630 LOG(LS_INFO) << debug_name_ << ": OnIceCandidate"; |
| 631 |
| 632 std::string ice_sdp; |
| 633 EXPECT_TRUE(candidate->ToString(&ice_sdp)); |
| 634 if (signaling_message_receiver_ == nullptr) { |
| 635 // Remote party may be deleted. |
| 636 return; |
| 637 } |
| 638 SendIceMessage(candidate->sdp_mid(), candidate->sdp_mline_index(), ice_sdp); |
| 639 } |
| 640 void OnDataChannel( |
| 641 rtc::scoped_refptr<DataChannelInterface> data_channel) override { |
| 642 LOG(LS_INFO) << debug_name_ << ": OnDataChannel"; |
| 643 data_channel_ = data_channel; |
| 644 data_observer_.reset(new MockDataChannelObserver(data_channel)); |
| 645 } |
| 646 |
| 647 // MediaStreamInterface callback |
| 648 void OnChanged() override { |
| 649 // Track added or removed from MediaStream, so update our renderers. |
| 650 rtc::scoped_refptr<StreamCollectionInterface> remote_streams = |
| 651 pc()->remote_streams(); |
| 652 // Remove renderers for tracks that were removed. |
| 653 for (auto it = fake_video_renderers_.begin(); |
| 654 it != fake_video_renderers_.end();) { |
| 655 if (remote_streams->FindVideoTrack(it->first) == nullptr) { |
| 656 auto to_remove = it++; |
| 657 removed_fake_video_renderers_.push_back(std::move(to_remove->second)); |
| 658 fake_video_renderers_.erase(to_remove); |
| 659 } else { |
| 660 ++it; |
| 661 } |
| 662 } |
| 663 // Create renderers for new video tracks. |
| 664 for (size_t stream_index = 0; stream_index < remote_streams->count(); |
| 665 ++stream_index) { |
| 666 MediaStreamInterface* remote_stream = remote_streams->at(stream_index); |
| 667 for (size_t track_index = 0; |
| 668 track_index < remote_stream->GetVideoTracks().size(); |
| 669 ++track_index) { |
| 670 const std::string id = |
| 671 remote_stream->GetVideoTracks()[track_index]->id(); |
| 672 if (fake_video_renderers_.find(id) != fake_video_renderers_.end()) { |
| 673 continue; |
| 674 } |
| 675 fake_video_renderers_[id].reset(new webrtc::FakeVideoTrackRenderer( |
| 676 remote_stream->GetVideoTracks()[track_index])); |
| 677 } |
| 678 } |
| 679 } |
| 680 |
| 681 void set_signaling_message_receiver( |
| 682 SignalingMessageReceiver* signaling_message_receiver) { |
| 683 signaling_message_receiver_ = signaling_message_receiver; |
| 684 } |
| 685 |
| 686 void set_signaling_delay_ms(int delay_ms) { signaling_delay_ms_ = delay_ms; } |
| 687 |
| 688 void EnableVideoDecoderFactory() { |
| 689 video_decoder_factory_enabled_ = true; |
| 690 fake_video_decoder_factory_->AddSupportedVideoCodecType( |
| 691 webrtc::kVideoCodecVP8); |
| 692 } |
| 693 |
| 694 explicit PeerConnectionWrapper(const std::string& debug_name) |
| 695 : debug_name_(debug_name) {} |
| 696 |
| 697 bool Init( |
| 698 const MediaConstraintsInterface* constraints, |
| 699 const PeerConnectionFactory::Options* options, |
| 700 const PeerConnectionInterface::RTCConfiguration* config, |
| 701 std::unique_ptr<rtc::RTCCertificateGeneratorInterface> cert_generator, |
| 702 rtc::Thread* network_thread, |
| 703 rtc::Thread* worker_thread) { |
| 704 // There's an error in this test code if Init ends up being called twice. |
| 705 RTC_DCHECK(!peer_connection_); |
| 706 RTC_DCHECK(!peer_connection_factory_); |
| 707 |
| 708 fake_network_manager_.reset(new rtc::FakeNetworkManager()); |
| 709 fake_network_manager_->AddInterface(rtc::SocketAddress("192.168.1.1", 0)); |
| 710 |
| 711 std::unique_ptr<cricket::PortAllocator> port_allocator( |
| 712 new cricket::BasicPortAllocator(fake_network_manager_.get())); |
| 713 fake_audio_capture_module_ = FakeAudioCaptureModule::Create(); |
| 714 if (!fake_audio_capture_module_) { |
| 715 return false; |
| 716 } |
| 717 // Note that these factories don't end up getting used unless supported |
| 718 // codecs are added to them. |
| 719 fake_video_decoder_factory_ = new FakeWebRtcVideoDecoderFactory(); |
| 720 fake_video_encoder_factory_ = new FakeWebRtcVideoEncoderFactory(); |
| 721 rtc::Thread* const signaling_thread = rtc::Thread::Current(); |
| 722 peer_connection_factory_ = webrtc::CreatePeerConnectionFactory( |
| 723 network_thread, worker_thread, signaling_thread, |
| 724 fake_audio_capture_module_, fake_video_encoder_factory_, |
| 725 fake_video_decoder_factory_); |
| 726 if (!peer_connection_factory_) { |
| 727 return false; |
| 728 } |
| 729 if (options) { |
| 730 peer_connection_factory_->SetOptions(*options); |
| 731 } |
| 732 peer_connection_ = |
| 733 CreatePeerConnection(std::move(port_allocator), constraints, config, |
| 734 std::move(cert_generator)); |
| 735 return peer_connection_.get() != nullptr; |
| 736 } |
| 737 |
| 738 rtc::scoped_refptr<webrtc::PeerConnectionInterface> CreatePeerConnection( |
| 739 std::unique_ptr<cricket::PortAllocator> port_allocator, |
| 740 const MediaConstraintsInterface* constraints, |
| 741 const PeerConnectionInterface::RTCConfiguration* config, |
| 742 std::unique_ptr<rtc::RTCCertificateGeneratorInterface> cert_generator) { |
| 743 PeerConnectionInterface::RTCConfiguration modified_config; |
| 744 // If |config| is null, this will result in a default configuration being |
| 745 // used. |
| 746 if (config) { |
| 747 modified_config = *config; |
| 748 } |
| 749 // Disable resolution adaptation, we don't want it interfering with the |
| 750 // test results. |
| 751 // TODO(deadbeef): Do something more robust. |
| 752 modified_config.set_cpu_adaptation(false); |
| 753 |
| 754 return peer_connection_factory_->CreatePeerConnection( |
| 755 modified_config, constraints, std::move(port_allocator), |
| 756 std::move(cert_generator), this); |
| 757 } |
| 758 |
| 759 rtc::scoped_refptr<webrtc::VideoTrackInterface> CreateLocalVideoTrackInternal( |
| 760 const std::string& track_id, |
| 761 const FakeConstraints& constraints, |
| 762 webrtc::VideoRotation rotation) { |
| 763 // Set max frame rate to 10fps to reduce the risk of test flakiness. |
| 764 // TODO(deadbeef): Do something more robust. |
| 765 FakeConstraints source_constraints = constraints; |
| 766 source_constraints.SetMandatoryMaxFrameRate(10); |
| 767 |
| 768 cricket::FakeVideoCapturer* fake_capturer = |
| 769 new webrtc::FakePeriodicVideoCapturer(); |
| 770 fake_capturer->SetRotation(rotation); |
| 771 video_capturers_.push_back(fake_capturer); |
| 772 rtc::scoped_refptr<webrtc::VideoTrackSourceInterface> source = |
| 773 peer_connection_factory_->CreateVideoSource(fake_capturer, |
| 774 &source_constraints); |
| 775 rtc::scoped_refptr<webrtc::VideoTrackInterface> track( |
| 776 peer_connection_factory_->CreateVideoTrack(track_id, source)); |
| 777 if (!local_video_renderer_) { |
| 778 local_video_renderer_.reset(new webrtc::FakeVideoTrackRenderer(track)); |
| 779 } |
| 780 return track; |
| 781 } |
| 782 |
| 783 void HandleIncomingOffer(const std::string& msg) { |
| 784 LOG(LS_INFO) << debug_name_ << ": HandleIncomingOffer"; |
| 785 std::unique_ptr<SessionDescriptionInterface> desc( |
| 786 webrtc::CreateSessionDescription("offer", msg, nullptr)); |
| 787 if (received_sdp_munger_) { |
| 788 received_sdp_munger_(desc->description()); |
| 789 } |
| 790 |
| 791 EXPECT_TRUE(SetRemoteDescription(std::move(desc))); |
| 792 // Setting a remote description may have changed the number of receivers, |
| 793 // so reset the receiver observers. |
| 794 ResetRtpReceiverObservers(); |
| 795 std::unique_ptr<SessionDescriptionInterface> answer; |
| 796 EXPECT_TRUE(CreateAnswer(&answer)); |
| 797 EXPECT_TRUE(SetLocalDescriptionAndSendSdpMessage(std::move(answer))); |
| 798 } |
| 799 |
| 800 void HandleIncomingAnswer(const std::string& msg) { |
| 801 LOG(LS_INFO) << debug_name_ << ": HandleIncomingAnswer"; |
| 802 std::unique_ptr<SessionDescriptionInterface> desc( |
| 803 webrtc::CreateSessionDescription("answer", msg, nullptr)); |
| 804 if (received_sdp_munger_) { |
| 805 received_sdp_munger_(desc->description()); |
| 806 } |
| 807 |
| 808 EXPECT_TRUE(SetRemoteDescription(std::move(desc))); |
| 809 // Set the RtpReceiverObserver after receivers are created. |
| 810 ResetRtpReceiverObservers(); |
| 811 } |
| 812 |
| 813 bool CreateOfferOrAnswer(std::unique_ptr<SessionDescriptionInterface>* desc, |
| 814 bool offer) { |
| 815 rtc::scoped_refptr<MockCreateSessionDescriptionObserver> observer( |
| 816 new rtc::RefCountedObject<MockCreateSessionDescriptionObserver>()); |
| 817 if (offer) { |
| 818 pc()->CreateOffer(observer, offer_answer_options_); |
| 819 } else { |
| 820 pc()->CreateAnswer(observer, offer_answer_options_); |
| 821 } |
| 822 |
| 823 EXPECT_EQ_WAIT(true, observer->called(), kDefaultTimeout); |
| 824 desc->reset(observer->release_desc()); |
| 825 if (desc && generated_sdp_munger_) { |
| 826 generated_sdp_munger_((*desc)->description()); |
| 827 } |
| 828 return observer->result(); |
| 829 } |
| 830 |
| 831 bool CreateOffer(std::unique_ptr<SessionDescriptionInterface>* desc) { |
| 832 return CreateOfferOrAnswer(desc, true); |
| 833 } |
| 834 |
| 835 bool CreateAnswer(std::unique_ptr<SessionDescriptionInterface>* desc) { |
| 836 return CreateOfferOrAnswer(desc, false); |
| 837 } |
| 838 |
| 839 // Setting the local description and sending the SDP message over the fake |
| 840 // signaling channel is combined into the same method because the SDP message |
| 841 // needs to be sent as soon as SetLocalDescription finishes, without waiting |
| 842 // for the observer to be called. This ensures that ICE candidates don't |
| 843 // outrace the description. |
| 844 bool SetLocalDescriptionAndSendSdpMessage( |
| 845 std::unique_ptr<SessionDescriptionInterface> desc) { |
| 846 rtc::scoped_refptr<MockSetSessionDescriptionObserver> observer( |
| 847 new rtc::RefCountedObject<MockSetSessionDescriptionObserver>()); |
| 848 LOG(LS_INFO) << debug_name_ << ": SetLocalDescriptionAndSendSdpMessage"; |
| 849 std::string type = desc->type(); |
| 850 std::string sdp; |
| 851 EXPECT_TRUE(desc->ToString(&sdp)); |
| 852 pc()->SetLocalDescription(observer, desc.release()); |
| 853 // As mentioned above, we need to send the message immediately after |
| 854 // SetLocalDescription. |
| 855 SendSdpMessage(type, sdp); |
| 856 EXPECT_TRUE_WAIT(observer->called(), kDefaultTimeout); |
| 857 return true; |
| 858 } |
| 859 |
| 860 bool SetRemoteDescription(std::unique_ptr<SessionDescriptionInterface> desc) { |
| 861 rtc::scoped_refptr<MockSetSessionDescriptionObserver> observer( |
| 862 new rtc::RefCountedObject<MockSetSessionDescriptionObserver>()); |
| 863 LOG(LS_INFO) << debug_name_ << ": SetRemoteDescription"; |
| 864 pc()->SetRemoteDescription(observer, desc.release()); |
| 865 EXPECT_TRUE_WAIT(observer->called(), kDefaultTimeout); |
| 866 return observer->result(); |
| 867 } |
| 868 |
| 869 std::string debug_name_; |
| 870 |
| 871 std::unique_ptr<rtc::FakeNetworkManager> fake_network_manager_; |
| 872 |
| 873 rtc::scoped_refptr<webrtc::PeerConnectionInterface> peer_connection_; |
| 874 rtc::scoped_refptr<webrtc::PeerConnectionFactoryInterface> |
| 875 peer_connection_factory_; |
| 876 |
| 877 // Needed to keep track of number of frames sent. |
| 878 rtc::scoped_refptr<FakeAudioCaptureModule> fake_audio_capture_module_; |
| 879 // Needed to keep track of number of frames received. |
| 880 std::map<std::string, std::unique_ptr<webrtc::FakeVideoTrackRenderer>> |
| 881 fake_video_renderers_; |
| 882 // Needed to ensure frames aren't received for removed tracks. |
| 883 std::vector<std::unique_ptr<webrtc::FakeVideoTrackRenderer>> |
| 884 removed_fake_video_renderers_; |
| 885 // Needed to keep track of number of frames received when external decoder |
| 886 // used. |
| 887 FakeWebRtcVideoDecoderFactory* fake_video_decoder_factory_ = nullptr; |
| 888 FakeWebRtcVideoEncoderFactory* fake_video_encoder_factory_ = nullptr; |
| 889 bool video_decoder_factory_enabled_ = false; |
| 890 |
| 891 // For remote peer communication. |
| 892 SignalingMessageReceiver* signaling_message_receiver_ = nullptr; |
| 893 int signaling_delay_ms_ = 0; |
| 894 |
| 895 // Store references to the video capturers we've created, so that we can stop |
| 896 // them, if required. |
| 897 std::vector<cricket::FakeVideoCapturer*> video_capturers_; |
| 898 // |local_video_renderer_| attached to the first created local video track. |
| 899 std::unique_ptr<webrtc::FakeVideoTrackRenderer> local_video_renderer_; |
| 900 |
| 901 PeerConnectionInterface::RTCOfferAnswerOptions offer_answer_options_; |
| 902 std::function<void(cricket::SessionDescription*)> received_sdp_munger_; |
| 903 std::function<void(cricket::SessionDescription*)> generated_sdp_munger_; |
| 904 |
| 905 rtc::scoped_refptr<DataChannelInterface> data_channel_; |
| 906 std::unique_ptr<MockDataChannelObserver> data_observer_; |
| 907 |
| 908 std::vector<std::unique_ptr<MockRtpReceiverObserver>> rtp_receiver_observers_; |
| 909 |
| 910 int transitions_to_gathering_state_ = 0; |
| 911 |
| 912 friend class PeerConnectionIntegrationTest; |
| 913 }; |
| 914 |
| 915 // Tests two PeerConnections connecting to each other end-to-end, using a |
| 916 // virtual network, fake A/V capture and fake encoder/decoders. The |
| 917 // PeerConnections share the threads/socket servers, but use separate versions |
| 918 // of everything else (including PeerConnectionFactory's). |
| 919 class PeerConnectionIntegrationTest : public testing::Test { |
| 920 public: |
| 921 PeerConnectionIntegrationTest() |
| 922 : pss_(new rtc::PhysicalSocketServer), |
| 923 ss_(new rtc::VirtualSocketServer(pss_.get())), |
| 924 network_thread_(new rtc::Thread(ss_.get())), |
| 925 worker_thread_(rtc::Thread::Create()) { |
| 926 RTC_CHECK(network_thread_->Start()); |
| 927 RTC_CHECK(worker_thread_->Start()); |
| 928 } |
| 929 |
| 930 ~PeerConnectionIntegrationTest() { |
| 931 if (caller_pc_wrapper_) { |
| 932 caller_pc_wrapper_->set_signaling_message_receiver(nullptr); |
| 933 } |
| 934 if (callee_pc_wrapper_) { |
| 935 callee_pc_wrapper_->set_signaling_message_receiver(nullptr); |
| 936 } |
| 937 } |
| 938 |
| 939 bool SignalingStateStable() { |
| 940 return caller_pc_wrapper_->SignalingStateStable() && |
| 941 callee_pc_wrapper_->SignalingStateStable(); |
| 942 } |
| 943 |
| 944 bool CreatePeerConnectionWrappers() { |
| 945 return CreatePeerConnectionWrappersWithConfig( |
| 946 PeerConnectionInterface::RTCConfiguration(), |
| 947 PeerConnectionInterface::RTCConfiguration()); |
| 948 } |
| 949 |
| 950 bool CreatePeerConnectionWrappersWithConstraints( |
| 951 MediaConstraintsInterface* caller_constraints, |
| 952 MediaConstraintsInterface* callee_constraints) { |
| 953 caller_pc_wrapper_.reset(PeerConnectionWrapper::CreateWithConstraints( |
| 954 "Caller", caller_constraints, network_thread_.get(), |
| 955 worker_thread_.get())); |
| 956 callee_pc_wrapper_.reset(PeerConnectionWrapper::CreateWithConstraints( |
| 957 "Callee", callee_constraints, network_thread_.get(), |
| 958 worker_thread_.get())); |
| 959 return caller_pc_wrapper_ && callee_pc_wrapper_; |
| 960 } |
| 961 |
| 962 bool CreatePeerConnectionWrappersWithConfig( |
| 963 const PeerConnectionInterface::RTCConfiguration& caller_config, |
| 964 const PeerConnectionInterface::RTCConfiguration& callee_config) { |
| 965 caller_pc_wrapper_.reset(PeerConnectionWrapper::CreateWithConfig( |
| 966 "Caller", caller_config, network_thread_.get(), worker_thread_.get())); |
| 967 callee_pc_wrapper_.reset(PeerConnectionWrapper::CreateWithConfig( |
| 968 "Callee", callee_config, network_thread_.get(), worker_thread_.get())); |
| 969 return caller_pc_wrapper_ && callee_pc_wrapper_; |
| 970 } |
| 971 |
| 972 bool CreatePeerConnectionWrappersWithOptions( |
| 973 const PeerConnectionFactory::Options& caller_options, |
| 974 const PeerConnectionFactory::Options& callee_options) { |
| 975 caller_pc_wrapper_.reset(PeerConnectionWrapper::CreateWithOptions( |
| 976 "Caller", caller_options, network_thread_.get(), worker_thread_.get())); |
| 977 callee_pc_wrapper_.reset(PeerConnectionWrapper::CreateWithOptions( |
| 978 "Callee", callee_options, network_thread_.get(), worker_thread_.get())); |
| 979 return caller_pc_wrapper_ && callee_pc_wrapper_; |
| 980 } |
| 981 |
| 982 // Once called, SDP blobs and ICE candidates will be automatically signaled |
| 983 // between PeerConnections. |
| 984 void ConnectFakeSignaling() { |
| 985 caller_pc_wrapper_->set_signaling_message_receiver( |
| 986 callee_pc_wrapper_.get()); |
| 987 callee_pc_wrapper_->set_signaling_message_receiver( |
| 988 caller_pc_wrapper_.get()); |
| 989 } |
| 990 |
| 991 void SetSignalingDelayMs(int delay_ms) { |
| 992 caller_pc_wrapper_->set_signaling_delay_ms(delay_ms); |
| 993 callee_pc_wrapper_->set_signaling_delay_ms(delay_ms); |
| 994 } |
| 995 |
| 996 void EnableVideoDecoderFactory() { |
| 997 caller_pc_wrapper_->EnableVideoDecoderFactory(); |
| 998 callee_pc_wrapper_->EnableVideoDecoderFactory(); |
| 999 } |
| 1000 |
| 1001 PeerConnectionWrapper* CreatePeerConnectionWrapperWithAlternateKey() { |
| 1002 std::unique_ptr<FakeRTCCertificateGenerator> cert_generator( |
| 1003 new FakeRTCCertificateGenerator()); |
| 1004 cert_generator->use_alternate_key(); |
| 1005 |
| 1006 // Make sure the new client is using a different certificate. |
| 1007 return PeerConnectionWrapper::CreateWithDtlsIdentityStore( |
| 1008 "New Peer", std::move(cert_generator), network_thread_.get(), |
| 1009 worker_thread_.get()); |
| 1010 } |
| 1011 |
| 1012 // Messages may get lost on the unreliable DataChannel, so we send multiple |
| 1013 // times to avoid test flakiness. |
| 1014 void SendRtpDataWithRetries(webrtc::DataChannelInterface* dc, |
| 1015 const std::string& data, |
| 1016 int retries) { |
| 1017 for (int i = 0; i < retries; ++i) { |
| 1018 dc->Send(DataBuffer(data)); |
| 1019 } |
| 1020 } |
| 1021 |
| 1022 rtc::Thread* network_thread() { return network_thread_.get(); } |
| 1023 |
| 1024 rtc::VirtualSocketServer* virtual_socket_server() { return ss_.get(); } |
| 1025 |
| 1026 PeerConnectionWrapper* caller_pc_wrapper() { |
| 1027 return caller_pc_wrapper_.get(); |
| 1028 } |
| 1029 |
| 1030 // Set the |caller_pc_wrapper_| to the |client| passed in and return the |
| 1031 // original |caller_pc_wrapper_|. |
| 1032 PeerConnectionWrapper* SetCallerPcWrapperAndReturnCurrent( |
| 1033 PeerConnectionWrapper* client) { |
| 1034 PeerConnectionWrapper* old = caller_pc_wrapper_.release(); |
| 1035 caller_pc_wrapper_.reset(client); |
| 1036 return old; |
| 1037 } |
| 1038 |
| 1039 PeerConnectionWrapper* callee_pc_wrapper() { |
| 1040 return callee_pc_wrapper_.get(); |
| 1041 } |
| 1042 |
| 1043 // Set the |callee_pc_wrapper_| to the |client| passed in and return the |
| 1044 // original |callee_pc_wrapper_|. |
| 1045 PeerConnectionWrapper* SetCalleePcWrapperAndReturnCurrent( |
| 1046 PeerConnectionWrapper* client) { |
| 1047 PeerConnectionWrapper* old = callee_pc_wrapper_.release(); |
| 1048 callee_pc_wrapper_.reset(client); |
| 1049 return old; |
| 1050 } |
| 1051 |
| 1052 void TestGcmNegotiationUsesCipherSuite(bool local_gcm_enabled, |
| 1053 bool remote_gcm_enabled, |
| 1054 int expected_cipher_suite) { |
| 1055 PeerConnectionFactory::Options caller_options; |
| 1056 caller_options.crypto_options.enable_gcm_crypto_suites = local_gcm_enabled; |
| 1057 PeerConnectionFactory::Options callee_options; |
| 1058 callee_options.crypto_options.enable_gcm_crypto_suites = remote_gcm_enabled; |
| 1059 ASSERT_TRUE(CreatePeerConnectionWrappersWithOptions(caller_options, |
| 1060 callee_options)); |
| 1061 rtc::scoped_refptr<webrtc::FakeMetricsObserver> caller_observer = |
| 1062 new rtc::RefCountedObject<webrtc::FakeMetricsObserver>(); |
| 1063 caller_pc_wrapper()->pc()->RegisterUMAObserver(caller_observer); |
| 1064 ConnectFakeSignaling(); |
| 1065 caller_pc_wrapper()->AddAudioVideoMediaStream(); |
| 1066 callee_pc_wrapper()->AddAudioVideoMediaStream(); |
| 1067 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 1068 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 1069 EXPECT_EQ_WAIT(rtc::SrtpCryptoSuiteToName(expected_cipher_suite), |
| 1070 caller_pc_wrapper()->GetStats()->SrtpCipher(), |
| 1071 kDefaultTimeout); |
| 1072 EXPECT_EQ( |
| 1073 1, caller_observer->GetEnumCounter(webrtc::kEnumCounterAudioSrtpCipher, |
| 1074 expected_cipher_suite)); |
| 1075 caller_pc_wrapper()->pc()->RegisterUMAObserver(nullptr); |
| 1076 } |
| 1077 |
| 1078 private: |
| 1079 // |ss_| is used by |network_thread_| so it must be destroyed later. |
| 1080 std::unique_ptr<rtc::PhysicalSocketServer> pss_; |
| 1081 std::unique_ptr<rtc::VirtualSocketServer> ss_; |
| 1082 // |network_thread_| and |worker_thread_| are used by both |
| 1083 // |caller_pc_wrapper_| and |callee_pc_wrapper_| so they must be destroyed |
| 1084 // later. |
| 1085 std::unique_ptr<rtc::Thread> network_thread_; |
| 1086 std::unique_ptr<rtc::Thread> worker_thread_; |
| 1087 std::unique_ptr<PeerConnectionWrapper> caller_pc_wrapper_; |
| 1088 std::unique_ptr<PeerConnectionWrapper> callee_pc_wrapper_; |
| 1089 }; |
| 1090 |
| 1091 // Disable for TSan v2, see |
| 1092 // https://code.google.com/p/webrtc/issues/detail?id=1205 for details. |
| 1093 #if !defined(THREAD_SANITIZER) |
| 1094 |
| 1095 // Test the OnFirstPacketReceived callback from audio/video RtpReceivers. This |
| 1096 // includes testing that the callback is invoked if an observer is connected |
| 1097 // after the first packet has already been received. |
| 1098 TEST_F(PeerConnectionIntegrationTest, |
| 1099 RtpReceiverObserverOnFirstPacketReceived) { |
| 1100 ASSERT_TRUE(CreatePeerConnectionWrappers()); |
| 1101 ConnectFakeSignaling(); |
| 1102 caller_pc_wrapper()->AddAudioVideoMediaStream(); |
| 1103 callee_pc_wrapper()->AddAudioVideoMediaStream(); |
| 1104 // Start offer/answer exchange and wait for it to complete. |
| 1105 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 1106 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 1107 // Should be one receiver each for audio/video. |
| 1108 EXPECT_EQ(2, caller_pc_wrapper()->rtp_receiver_observers().size()); |
| 1109 EXPECT_EQ(2, callee_pc_wrapper()->rtp_receiver_observers().size()); |
| 1110 // Wait for all "first packet received" callbacks to be fired. |
| 1111 EXPECT_TRUE_WAIT( |
| 1112 std::all_of(caller_pc_wrapper()->rtp_receiver_observers().begin(), |
| 1113 caller_pc_wrapper()->rtp_receiver_observers().end(), |
| 1114 [](const std::unique_ptr<MockRtpReceiverObserver>& o) { |
| 1115 return o->first_packet_received(); |
| 1116 }), |
| 1117 kMaxWaitForFramesMs); |
| 1118 EXPECT_TRUE_WAIT( |
| 1119 std::all_of(callee_pc_wrapper()->rtp_receiver_observers().begin(), |
| 1120 callee_pc_wrapper()->rtp_receiver_observers().end(), |
| 1121 [](const std::unique_ptr<MockRtpReceiverObserver>& o) { |
| 1122 return o->first_packet_received(); |
| 1123 }), |
| 1124 kMaxWaitForFramesMs); |
| 1125 // If new observers are set after the first packet was already received, the |
| 1126 // callback should still be invoked. |
| 1127 caller_pc_wrapper()->ResetRtpReceiverObservers(); |
| 1128 callee_pc_wrapper()->ResetRtpReceiverObservers(); |
| 1129 EXPECT_EQ(2, caller_pc_wrapper()->rtp_receiver_observers().size()); |
| 1130 EXPECT_EQ(2, callee_pc_wrapper()->rtp_receiver_observers().size()); |
| 1131 EXPECT_TRUE( |
| 1132 std::all_of(caller_pc_wrapper()->rtp_receiver_observers().begin(), |
| 1133 caller_pc_wrapper()->rtp_receiver_observers().end(), |
| 1134 [](const std::unique_ptr<MockRtpReceiverObserver>& o) { |
| 1135 return o->first_packet_received(); |
| 1136 })); |
| 1137 EXPECT_TRUE( |
| 1138 std::all_of(callee_pc_wrapper()->rtp_receiver_observers().begin(), |
| 1139 callee_pc_wrapper()->rtp_receiver_observers().end(), |
| 1140 [](const std::unique_ptr<MockRtpReceiverObserver>& o) { |
| 1141 return o->first_packet_received(); |
| 1142 })); |
| 1143 } |
| 1144 |
| 1145 class DummyDtmfObserver : public DtmfSenderObserverInterface { |
| 1146 public: |
| 1147 DummyDtmfObserver() : completed_(false) {} |
| 1148 |
| 1149 // Implements DtmfSenderObserverInterface. |
| 1150 void OnToneChange(const std::string& tone) override { |
| 1151 tones_.push_back(tone); |
| 1152 if (tone.empty()) { |
| 1153 completed_ = true; |
| 1154 } |
| 1155 } |
| 1156 |
| 1157 const std::vector<std::string>& tones() const { return tones_; } |
| 1158 bool completed() const { return completed_; } |
| 1159 |
| 1160 private: |
| 1161 bool completed_; |
| 1162 std::vector<std::string> tones_; |
| 1163 }; |
| 1164 |
| 1165 void TestDtmfBetween(PeerConnectionWrapper* sender, |
| 1166 PeerConnectionWrapper* receiver) { |
| 1167 DummyDtmfObserver observer; |
| 1168 rtc::scoped_refptr<DtmfSenderInterface> dtmf_sender; |
| 1169 |
| 1170 // We should be able to create a DTMF sender from a local track. |
| 1171 webrtc::AudioTrackInterface* localtrack = |
| 1172 sender->local_streams()->at(0)->GetAudioTracks()[0]; |
| 1173 dtmf_sender = sender->pc()->CreateDtmfSender(localtrack); |
| 1174 ASSERT_NE(nullptr, dtmf_sender.get()); |
| 1175 dtmf_sender->RegisterObserver(&observer); |
| 1176 |
| 1177 // Test the DtmfSender object just created. |
| 1178 EXPECT_TRUE(dtmf_sender->CanInsertDtmf()); |
| 1179 EXPECT_TRUE(dtmf_sender->InsertDtmf("1a", 100, 50)); |
| 1180 |
| 1181 EXPECT_TRUE_WAIT(observer.completed(), kDefaultTimeout); |
| 1182 std::vector<std::string> tones; |
| 1183 tones.push_back("1"); |
| 1184 tones.push_back("a"); |
| 1185 tones.push_back(""); |
| 1186 EXPECT_EQ(tones, observer.tones()); |
| 1187 dtmf_sender->UnregisterObserver(); |
| 1188 // TODO(deadbeef): Verify the tones were actually received end-to-end. |
| 1189 } |
| 1190 |
| 1191 // Verifies the DtmfSenderObserver callbacks for a DtmfSender (one in each |
| 1192 // direction). |
| 1193 TEST_F(PeerConnectionIntegrationTest, DtmfSenderObserver) { |
| 1194 ASSERT_TRUE(CreatePeerConnectionWrappers()); |
| 1195 ConnectFakeSignaling(); |
| 1196 // Only need audio for DTMF. |
| 1197 caller_pc_wrapper()->AddAudioOnlyMediaStream(); |
| 1198 callee_pc_wrapper()->AddAudioOnlyMediaStream(); |
| 1199 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 1200 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 1201 TestDtmfBetween(caller_pc_wrapper(), callee_pc_wrapper()); |
| 1202 TestDtmfBetween(callee_pc_wrapper(), caller_pc_wrapper()); |
| 1203 } |
| 1204 |
| 1205 // Basic end-to-end test, verifying media can be encoded/transmitted/decoded |
| 1206 // between two connections, using DTLS-SRTP. |
| 1207 TEST_F(PeerConnectionIntegrationTest, EndToEndCallWithDtls) { |
| 1208 ASSERT_TRUE(CreatePeerConnectionWrappers()); |
| 1209 ConnectFakeSignaling(); |
| 1210 // Do normal offer/answer and wait for some frames to be received in each |
| 1211 // direction. |
| 1212 caller_pc_wrapper()->AddAudioVideoMediaStream(); |
| 1213 callee_pc_wrapper()->AddAudioVideoMediaStream(); |
| 1214 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 1215 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 1216 EXPECT_TRUE_WAIT( |
| 1217 caller_pc_wrapper()->ReceivedAudioFrames(kEndAudioFrameCount) && |
| 1218 caller_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 1219 kEndVideoFrameCount) && |
| 1220 callee_pc_wrapper()->ReceivedAudioFrames(kEndAudioFrameCount) && |
| 1221 callee_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 1222 kEndVideoFrameCount), |
| 1223 kMaxWaitForFramesMs); |
| 1224 } |
| 1225 |
| 1226 // Uses SDES instead of DTLS for key agreement. |
| 1227 TEST_F(PeerConnectionIntegrationTest, EndToEndCallWithSdes) { |
| 1228 PeerConnectionInterface::RTCConfiguration sdes_config; |
| 1229 sdes_config.enable_dtls_srtp = rtc::Optional<bool>(false); |
| 1230 ASSERT_TRUE(CreatePeerConnectionWrappersWithConfig(sdes_config, sdes_config)); |
| 1231 ConnectFakeSignaling(); |
| 1232 |
| 1233 // Do normal offer/answer and wait for some frames to be received in each |
| 1234 // direction. |
| 1235 caller_pc_wrapper()->AddAudioVideoMediaStream(); |
| 1236 callee_pc_wrapper()->AddAudioVideoMediaStream(); |
| 1237 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 1238 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 1239 EXPECT_TRUE_WAIT( |
| 1240 caller_pc_wrapper()->ReceivedAudioFrames(kEndAudioFrameCount) && |
| 1241 caller_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 1242 kEndVideoFrameCount) && |
| 1243 callee_pc_wrapper()->ReceivedAudioFrames(kEndAudioFrameCount) && |
| 1244 callee_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 1245 kEndVideoFrameCount), |
| 1246 kMaxWaitForFramesMs); |
| 1247 } |
| 1248 |
| 1249 // This test sets up a call between two parties (using DTLS) and tests that we |
| 1250 // can get a video aspect ratio of 16:9. |
| 1251 TEST_F(PeerConnectionIntegrationTest, SendAndReceive16To9AspectRatio) { |
| 1252 ASSERT_TRUE(CreatePeerConnectionWrappers()); |
| 1253 ConnectFakeSignaling(); |
| 1254 |
| 1255 // Add video tracks with 16:9 constraint. |
| 1256 FakeConstraints constraints; |
| 1257 double requested_ratio = 16.0 / 9; |
| 1258 constraints.SetMandatoryMinAspectRatio(requested_ratio); |
| 1259 caller_pc_wrapper()->AddMediaStreamFromTracks( |
| 1260 nullptr, |
| 1261 caller_pc_wrapper()->CreateLocalVideoTrackWithConstraints(constraints)); |
| 1262 callee_pc_wrapper()->AddMediaStreamFromTracks( |
| 1263 nullptr, |
| 1264 callee_pc_wrapper()->CreateLocalVideoTrackWithConstraints(constraints)); |
| 1265 |
| 1266 // Do normal offer/answer and wait for at least one frame to be received in |
| 1267 // each direction. |
| 1268 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 1269 EXPECT_TRUE_WAIT(caller_pc_wrapper()->ReceivedVideoFramesForEachTrack(1), |
| 1270 kMaxWaitForFramesMs); |
| 1271 EXPECT_TRUE_WAIT(callee_pc_wrapper()->ReceivedVideoFramesForEachTrack(1), |
| 1272 kMaxWaitForFramesMs); |
| 1273 |
| 1274 // Check rendered aspect ratio. |
| 1275 EXPECT_EQ(requested_ratio, |
| 1276 caller_pc_wrapper()->local_rendered_aspect_ratio()); |
| 1277 EXPECT_EQ(requested_ratio, caller_pc_wrapper()->rendered_aspect_ratio()); |
| 1278 EXPECT_EQ(requested_ratio, |
| 1279 callee_pc_wrapper()->local_rendered_aspect_ratio()); |
| 1280 EXPECT_EQ(requested_ratio, callee_pc_wrapper()->rendered_aspect_ratio()); |
| 1281 } |
| 1282 |
| 1283 // This test sets up a call between two parties with a source resolution of |
| 1284 // 1280x720 and |
| 1285 // verifies that a 16:9 aspect ratio is received. |
| 1286 TEST_F(PeerConnectionIntegrationTest, |
| 1287 Send1280By720ResolutionAndReceive16To9AspectRatio) { |
| 1288 ASSERT_TRUE(CreatePeerConnectionWrappers()); |
| 1289 ConnectFakeSignaling(); |
| 1290 |
| 1291 // Similar to above test, but uses MandatoryMin[Width/Height] constraint |
| 1292 // instead of aspect ratio constraint. |
| 1293 FakeConstraints constraints; |
| 1294 constraints.SetMandatoryMinWidth(1280); |
| 1295 constraints.SetMandatoryMinHeight(720); |
| 1296 caller_pc_wrapper()->AddMediaStreamFromTracks( |
| 1297 nullptr, |
| 1298 caller_pc_wrapper()->CreateLocalVideoTrackWithConstraints(constraints)); |
| 1299 callee_pc_wrapper()->AddMediaStreamFromTracks( |
| 1300 nullptr, |
| 1301 callee_pc_wrapper()->CreateLocalVideoTrackWithConstraints(constraints)); |
| 1302 |
| 1303 // Do normal offer/answer and wait for at least one frame to be received in |
| 1304 // each direction. |
| 1305 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 1306 EXPECT_TRUE_WAIT(caller_pc_wrapper()->ReceivedVideoFramesForEachTrack(1) && |
| 1307 callee_pc_wrapper()->ReceivedVideoFramesForEachTrack(1), |
| 1308 kMaxWaitForFramesMs); |
| 1309 |
| 1310 // Check rendered aspect ratio. |
| 1311 EXPECT_EQ(16.0 / 9, caller_pc_wrapper()->local_rendered_aspect_ratio()); |
| 1312 EXPECT_EQ(16.0 / 9, caller_pc_wrapper()->rendered_aspect_ratio()); |
| 1313 EXPECT_EQ(16.0 / 9, callee_pc_wrapper()->local_rendered_aspect_ratio()); |
| 1314 EXPECT_EQ(16.0 / 9, callee_pc_wrapper()->rendered_aspect_ratio()); |
| 1315 } |
| 1316 |
| 1317 // This test sets up an one-way call, with media only from caller to |
| 1318 // callee. |
| 1319 TEST_F(PeerConnectionIntegrationTest, OneWayMediaCall) { |
| 1320 ASSERT_TRUE(CreatePeerConnectionWrappers()); |
| 1321 ConnectFakeSignaling(); |
| 1322 caller_pc_wrapper()->AddAudioVideoMediaStream(); |
| 1323 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 1324 EXPECT_TRUE_WAIT( |
| 1325 callee_pc_wrapper()->ReceivedAudioFrames(kEndAudioFrameCount) && |
| 1326 callee_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 1327 kEndVideoFrameCount), |
| 1328 kMaxWaitForFramesMs); |
| 1329 } |
| 1330 |
| 1331 // This test sets up a audio call initially and then upgrades to audio/video, |
| 1332 // using DTLS. |
| 1333 TEST_F(PeerConnectionIntegrationTest, AudioToVideoUpgrade) { |
| 1334 ASSERT_TRUE(CreatePeerConnectionWrappers()); |
| 1335 ConnectFakeSignaling(); |
| 1336 // Initially, offer an audio/video stream from the caller, but refuse to |
| 1337 // send/receive video on the callee side. |
| 1338 caller_pc_wrapper()->AddAudioVideoMediaStream(); |
| 1339 callee_pc_wrapper()->AddMediaStreamFromTracks( |
| 1340 callee_pc_wrapper()->CreateLocalAudioTrack(), nullptr); |
| 1341 PeerConnectionInterface::RTCOfferAnswerOptions options; |
| 1342 options.offer_to_receive_video = 0; |
| 1343 callee_pc_wrapper()->SetOfferAnswerOptions(options); |
| 1344 // Do offer/answer and make sure audio is still received end-to-end. |
| 1345 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 1346 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 1347 EXPECT_TRUE_WAIT( |
| 1348 caller_pc_wrapper()->ReceivedAudioFrames(kEndAudioFrameCount) && |
| 1349 callee_pc_wrapper()->ReceivedAudioFrames(kEndAudioFrameCount), |
| 1350 kMaxWaitForFramesMs); |
| 1351 // Now negotiate with video and ensure negotiation succeeds, with video |
| 1352 // frames and additional audio frames being received. |
| 1353 callee_pc_wrapper()->AddMediaStreamFromTracksWithLabel( |
| 1354 nullptr, callee_pc_wrapper()->CreateLocalVideoTrack(), |
| 1355 "video_only_stream"); |
| 1356 options.offer_to_receive_video = 1; |
| 1357 callee_pc_wrapper()->SetOfferAnswerOptions(options); |
| 1358 callee_pc_wrapper()->CreateSetAndSignalOffer(); |
| 1359 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 1360 int last_caller_audio_frames = caller_pc_wrapper()->audio_frames_received(); |
| 1361 int last_callee_audio_frames = callee_pc_wrapper()->audio_frames_received(); |
| 1362 EXPECT_TRUE_WAIT(caller_pc_wrapper()->ReceivedAudioFrames( |
| 1363 kEndAudioFrameCount + last_caller_audio_frames) && |
| 1364 callee_pc_wrapper()->ReceivedAudioFrames( |
| 1365 kEndAudioFrameCount + last_callee_audio_frames) && |
| 1366 caller_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 1367 kEndVideoFrameCount) && |
| 1368 callee_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 1369 kEndVideoFrameCount), |
| 1370 kMaxWaitForFramesMs); |
| 1371 } |
| 1372 |
| 1373 // This test sets up a call that's transferred to a new caller with a different |
| 1374 // DTLS fingerprint. |
| 1375 TEST_F(PeerConnectionIntegrationTest, CallTransferredForCallee) { |
| 1376 ASSERT_TRUE(CreatePeerConnectionWrappers()); |
| 1377 ConnectFakeSignaling(); |
| 1378 caller_pc_wrapper()->AddAudioVideoMediaStream(); |
| 1379 callee_pc_wrapper()->AddAudioVideoMediaStream(); |
| 1380 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 1381 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 1382 |
| 1383 // Keep the original peer around which will still send packets to the |
| 1384 // receiving client. These SRTP packets will be dropped. |
| 1385 std::unique_ptr<PeerConnectionWrapper> original_peer( |
| 1386 SetCallerPcWrapperAndReturnCurrent( |
| 1387 CreatePeerConnectionWrapperWithAlternateKey())); |
| 1388 // TODO(deadbeef): Why do we call Close here? That goes against the comment |
| 1389 // directly above. |
| 1390 original_peer->pc()->Close(); |
| 1391 |
| 1392 // Store the last frame counts so we can ensure additional frames are |
| 1393 // received from the new peer. |
| 1394 int last_audio_frames = callee_pc_wrapper()->audio_frames_received(); |
| 1395 int last_video_frames = callee_pc_wrapper()->video_frames_received(); |
| 1396 |
| 1397 ConnectFakeSignaling(); |
| 1398 caller_pc_wrapper()->AddAudioVideoMediaStream(); |
| 1399 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 1400 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 1401 // Wait for some additional frames to be transmitted end-to-end. |
| 1402 EXPECT_TRUE_WAIT( |
| 1403 caller_pc_wrapper()->ReceivedAudioFrames(kEndAudioFrameCount) && |
| 1404 caller_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 1405 kEndVideoFrameCount) && |
| 1406 callee_pc_wrapper()->ReceivedAudioFrames(kEndAudioFrameCount + |
| 1407 last_audio_frames) && |
| 1408 callee_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 1409 kEndVideoFrameCount + last_video_frames), |
| 1410 kMaxWaitForFramesMs); |
| 1411 } |
| 1412 |
| 1413 // This test sets up a call that's transferred to a new callee with a different |
| 1414 // DTLS fingerprint. |
| 1415 TEST_F(PeerConnectionIntegrationTest, CallTransferredForCaller) { |
| 1416 ASSERT_TRUE(CreatePeerConnectionWrappers()); |
| 1417 ConnectFakeSignaling(); |
| 1418 caller_pc_wrapper()->AddAudioVideoMediaStream(); |
| 1419 callee_pc_wrapper()->AddAudioVideoMediaStream(); |
| 1420 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 1421 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 1422 |
| 1423 // Keep the original peer around which will still send packets to the |
| 1424 // receiving client. These SRTP packets will be dropped. |
| 1425 std::unique_ptr<PeerConnectionWrapper> original_peer( |
| 1426 SetCalleePcWrapperAndReturnCurrent( |
| 1427 CreatePeerConnectionWrapperWithAlternateKey())); |
| 1428 // TODO(deadbeef): Why do we call Close here? That goes against the comment |
| 1429 // directly above. |
| 1430 original_peer->pc()->Close(); |
| 1431 |
| 1432 // Store the last frame counts so we can ensure additional frames are |
| 1433 // received from the new peer. |
| 1434 int last_audio_frames = caller_pc_wrapper()->audio_frames_received(); |
| 1435 int last_video_frames = caller_pc_wrapper()->video_frames_received(); |
| 1436 |
| 1437 ConnectFakeSignaling(); |
| 1438 callee_pc_wrapper()->AddAudioVideoMediaStream(); |
| 1439 caller_pc_wrapper()->SetOfferAnswerOptions(IceRestartOfferAnswerOptions()); |
| 1440 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 1441 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 1442 // Wait for some additional frames to be transmitted end-to-end. |
| 1443 EXPECT_TRUE_WAIT( |
| 1444 caller_pc_wrapper()->ReceivedAudioFrames(kEndAudioFrameCount + |
| 1445 last_audio_frames) && |
| 1446 caller_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 1447 kEndVideoFrameCount + last_video_frames) && |
| 1448 callee_pc_wrapper()->ReceivedAudioFrames(kEndAudioFrameCount) && |
| 1449 callee_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 1450 kEndVideoFrameCount), |
| 1451 kMaxWaitForFramesMs); |
| 1452 } |
| 1453 |
| 1454 // This test sets up a non-bundled call and negotiates bundling at the same |
| 1455 // time as starting an ICE restart. When bundle is in effect in the restart, |
| 1456 // the DTLS-SRTP context should be successfully reset. |
| 1457 TEST_F(PeerConnectionIntegrationTest, BundlingEnabledWhileIceRestartOccurs) { |
| 1458 ASSERT_TRUE(CreatePeerConnectionWrappers()); |
| 1459 ConnectFakeSignaling(); |
| 1460 |
| 1461 caller_pc_wrapper()->AddAudioVideoMediaStream(); |
| 1462 callee_pc_wrapper()->AddAudioVideoMediaStream(); |
| 1463 // Remove the bundle group from the SDP received by the callee. |
| 1464 callee_pc_wrapper()->SetReceivedSdpMunger( |
| 1465 [](cricket::SessionDescription* desc) { |
| 1466 desc->RemoveGroupByName("BUNDLE"); |
| 1467 }); |
| 1468 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 1469 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 1470 EXPECT_TRUE_WAIT( |
| 1471 caller_pc_wrapper()->ReceivedAudioFrames(kEndAudioFrameCount) && |
| 1472 caller_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 1473 kEndVideoFrameCount) && |
| 1474 callee_pc_wrapper()->ReceivedAudioFrames(kEndAudioFrameCount) && |
| 1475 callee_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 1476 kEndVideoFrameCount), |
| 1477 kMaxWaitForFramesMs); |
| 1478 |
| 1479 // Now stop removing the BUNDLE group, and trigger an ICE restart. |
| 1480 callee_pc_wrapper()->SetReceivedSdpMunger(nullptr); |
| 1481 caller_pc_wrapper()->SetOfferAnswerOptions(IceRestartOfferAnswerOptions()); |
| 1482 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 1483 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 1484 EXPECT_TRUE_WAIT( |
| 1485 caller_pc_wrapper()->ReceivedAudioFrames(kEndAudioFrameCount) && |
| 1486 caller_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 1487 kEndVideoFrameCount) && |
| 1488 callee_pc_wrapper()->ReceivedAudioFrames(kEndAudioFrameCount) && |
| 1489 callee_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 1490 kEndVideoFrameCount), |
| 1491 kMaxWaitForFramesMs); |
| 1492 } |
| 1493 |
| 1494 // Test CVO (Coordination of Video Orientation). If a video source is rotated |
| 1495 // and both peers support the CVO RTP header extension, the actual video frames |
| 1496 // don't need to be encoded in different resolutions, since the rotation is |
| 1497 // communicated through the RTP header extension. |
| 1498 TEST_F(PeerConnectionIntegrationTest, RotatedVideoWithCVOExtension) { |
| 1499 ASSERT_TRUE(CreatePeerConnectionWrappers()); |
| 1500 ConnectFakeSignaling(); |
| 1501 // Add rotated video tracks. |
| 1502 caller_pc_wrapper()->AddMediaStreamFromTracks( |
| 1503 nullptr, caller_pc_wrapper()->CreateLocalVideoTrackWithRotation( |
| 1504 webrtc::kVideoRotation_90)); |
| 1505 callee_pc_wrapper()->AddMediaStreamFromTracks( |
| 1506 nullptr, callee_pc_wrapper()->CreateLocalVideoTrackWithRotation( |
| 1507 webrtc::kVideoRotation_270)); |
| 1508 |
| 1509 // Wait for video frames to be received by both sides. |
| 1510 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 1511 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 1512 EXPECT_TRUE_WAIT(caller_pc_wrapper()->ReceivedVideoFramesForEachTrack(1), |
| 1513 kMaxWaitForFramesMs); |
| 1514 EXPECT_TRUE_WAIT(callee_pc_wrapper()->ReceivedVideoFramesForEachTrack(1), |
| 1515 kMaxWaitForFramesMs); |
| 1516 |
| 1517 // Ensure that the aspect ratio is unmodified. |
| 1518 // TODO(deadbeef): Where does 4:3 come from? Should be explicit in the test, |
| 1519 // not just assumed. |
| 1520 EXPECT_EQ(4.0 / 3, caller_pc_wrapper()->local_rendered_aspect_ratio()); |
| 1521 EXPECT_EQ(4.0 / 3, caller_pc_wrapper()->rendered_aspect_ratio()); |
| 1522 EXPECT_EQ(4.0 / 3, callee_pc_wrapper()->local_rendered_aspect_ratio()); |
| 1523 EXPECT_EQ(4.0 / 3, callee_pc_wrapper()->rendered_aspect_ratio()); |
| 1524 // Ensure that the CVO bits were surfaced to the renderer. |
| 1525 EXPECT_EQ(webrtc::kVideoRotation_270, |
| 1526 caller_pc_wrapper()->rendered_rotation()); |
| 1527 EXPECT_EQ(webrtc::kVideoRotation_90, |
| 1528 callee_pc_wrapper()->rendered_rotation()); |
| 1529 } |
| 1530 |
| 1531 // Test that when the CVO extension isn't supported, video is rotated the |
| 1532 // old-fashioned way, by encoding rotated frames. |
| 1533 TEST_F(PeerConnectionIntegrationTest, RotatedVideoWithoutCVOExtension) { |
| 1534 ASSERT_TRUE(CreatePeerConnectionWrappers()); |
| 1535 ConnectFakeSignaling(); |
| 1536 // Add rotated video tracks. |
| 1537 caller_pc_wrapper()->AddMediaStreamFromTracks( |
| 1538 nullptr, caller_pc_wrapper()->CreateLocalVideoTrackWithRotation( |
| 1539 webrtc::kVideoRotation_90)); |
| 1540 callee_pc_wrapper()->AddMediaStreamFromTracks( |
| 1541 nullptr, callee_pc_wrapper()->CreateLocalVideoTrackWithRotation( |
| 1542 webrtc::kVideoRotation_270)); |
| 1543 |
| 1544 // Remove the CVO extension from the offered SDP. |
| 1545 callee_pc_wrapper()->SetReceivedSdpMunger( |
| 1546 [](cricket::SessionDescription* desc) { |
| 1547 cricket::VideoContentDescription* video = |
| 1548 GetFirstVideoContentDescription(desc); |
| 1549 video->ClearRtpHeaderExtensions(); |
| 1550 }); |
| 1551 // Wait for video frames to be received by both sides. |
| 1552 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 1553 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 1554 EXPECT_TRUE_WAIT(caller_pc_wrapper()->ReceivedVideoFramesForEachTrack(1), |
| 1555 kMaxWaitForFramesMs); |
| 1556 EXPECT_TRUE_WAIT(callee_pc_wrapper()->ReceivedVideoFramesForEachTrack(1), |
| 1557 kMaxWaitForFramesMs); |
| 1558 |
| 1559 // Expect that the aspect ratio is inversed to account for the 90/270 degree |
| 1560 // rotation. |
| 1561 // TODO(deadbeef): Where does 4:3 come from? Should be explicit in the test, |
| 1562 // not just assumed. |
| 1563 EXPECT_EQ(3.0 / 4, caller_pc_wrapper()->local_rendered_aspect_ratio()); |
| 1564 EXPECT_EQ(3.0 / 4, caller_pc_wrapper()->rendered_aspect_ratio()); |
| 1565 EXPECT_EQ(3.0 / 4, callee_pc_wrapper()->local_rendered_aspect_ratio()); |
| 1566 EXPECT_EQ(3.0 / 4, callee_pc_wrapper()->rendered_aspect_ratio()); |
| 1567 // Expect that each endpoint is unaware of the rotation of the other endpoint. |
| 1568 EXPECT_EQ(webrtc::kVideoRotation_0, caller_pc_wrapper()->rendered_rotation()); |
| 1569 EXPECT_EQ(webrtc::kVideoRotation_0, callee_pc_wrapper()->rendered_rotation()); |
| 1570 } |
| 1571 |
| 1572 #ifdef HAVE_SCTP |
| 1573 // This test verifies that negotiation succeeds with only a data channel in |
| 1574 // max-bundle mode. |
| 1575 // TODO(deadbeef): This only tests SetLocalDescription/SetRemoteDescription? |
| 1576 // Should go in peerconnectioninterface_unittest then. |
| 1577 TEST_F(PeerConnectionIntegrationTest, DataChannelOnlyOfferWithMaxBundlePolicy) { |
| 1578 webrtc::PeerConnectionInterface::RTCConfiguration rtc_config; |
| 1579 rtc_config.bundle_policy = |
| 1580 webrtc::PeerConnectionInterface::kBundlePolicyMaxBundle; |
| 1581 ASSERT_TRUE(CreatePeerConnectionWrappersWithConfig(rtc_config, rtc_config)); |
| 1582 caller_pc_wrapper()->CreateDataChannel(); |
| 1583 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 1584 } |
| 1585 #endif |
| 1586 |
| 1587 // TODO(deadbeef): The tests below rely on RTCOfferAnswerOptions to reject an |
| 1588 // m= section. When we implement Unified Plan SDP, the right way to do this |
| 1589 // would be by stopping an RtpTransceiver. |
| 1590 |
| 1591 // Test that if the answerer rejects the audio m= section, no audio is sent or |
| 1592 // received, but video still can be. |
| 1593 TEST_F(PeerConnectionIntegrationTest, AnswererRejectsAudioSection) { |
| 1594 ASSERT_TRUE(CreatePeerConnectionWrappers()); |
| 1595 ConnectFakeSignaling(); |
| 1596 caller_pc_wrapper()->AddAudioVideoMediaStream(); |
| 1597 // Only add video track for callee, and set offer_to_receive_audio to 0, so |
| 1598 // it will reject the audio m= section completely. |
| 1599 PeerConnectionInterface::RTCOfferAnswerOptions options; |
| 1600 options.offer_to_receive_audio = 0; |
| 1601 callee_pc_wrapper()->SetOfferAnswerOptions(options); |
| 1602 callee_pc_wrapper()->AddMediaStreamFromTracks( |
| 1603 nullptr, callee_pc_wrapper()->CreateLocalVideoTrack()); |
| 1604 // Do offer/answer and wait for successful end-to-end video frames. |
| 1605 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 1606 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 1607 EXPECT_TRUE_WAIT(caller_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 1608 kEndVideoFrameCount) && |
| 1609 callee_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 1610 kEndVideoFrameCount), |
| 1611 kMaxWaitForFramesMs); |
| 1612 // Shouldn't have received audio frames at any point. |
| 1613 EXPECT_EQ(0, caller_pc_wrapper()->audio_frames_received()); |
| 1614 EXPECT_EQ(0, callee_pc_wrapper()->audio_frames_received()); |
| 1615 // Sanity check that the callee's description has a rejected audio section. |
| 1616 ASSERT_NE(nullptr, callee_pc_wrapper()->pc()->local_description()); |
| 1617 const ContentInfo* callee_audio_content = GetFirstAudioContent( |
| 1618 callee_pc_wrapper()->pc()->local_description()->description()); |
| 1619 ASSERT_NE(nullptr, callee_audio_content); |
| 1620 EXPECT_TRUE(callee_audio_content->rejected); |
| 1621 } |
| 1622 |
| 1623 // Test that if the answerer rejects the video m= section, no video is sent or |
| 1624 // received, but audio still can be. |
| 1625 TEST_F(PeerConnectionIntegrationTest, AnswererRejectsVideoSection) { |
| 1626 ASSERT_TRUE(CreatePeerConnectionWrappers()); |
| 1627 ConnectFakeSignaling(); |
| 1628 caller_pc_wrapper()->AddAudioVideoMediaStream(); |
| 1629 // Only add audio track for callee, and set offer_to_receive_video to 0, so |
| 1630 // it will reject the video m= section completely. |
| 1631 PeerConnectionInterface::RTCOfferAnswerOptions options; |
| 1632 options.offer_to_receive_video = 0; |
| 1633 callee_pc_wrapper()->SetOfferAnswerOptions(options); |
| 1634 callee_pc_wrapper()->AddMediaStreamFromTracks( |
| 1635 callee_pc_wrapper()->CreateLocalAudioTrack(), nullptr); |
| 1636 // Do offer/answer and wait for successful end-to-end audio frames. |
| 1637 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 1638 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 1639 EXPECT_TRUE_WAIT( |
| 1640 caller_pc_wrapper()->ReceivedAudioFrames(kEndAudioFrameCount) && |
| 1641 callee_pc_wrapper()->ReceivedAudioFrames(kEndAudioFrameCount), |
| 1642 kMaxWaitForFramesMs); |
| 1643 // Shouldn't have received video frames at any point. |
| 1644 EXPECT_EQ(0, caller_pc_wrapper()->video_frames_received()); |
| 1645 EXPECT_EQ(0, callee_pc_wrapper()->video_frames_received()); |
| 1646 // Sanity check that the callee's description has a rejected video section. |
| 1647 ASSERT_NE(nullptr, callee_pc_wrapper()->pc()->local_description()); |
| 1648 const ContentInfo* callee_video_content = GetFirstVideoContent( |
| 1649 callee_pc_wrapper()->pc()->local_description()->description()); |
| 1650 ASSERT_NE(nullptr, callee_video_content); |
| 1651 EXPECT_TRUE(callee_video_content->rejected); |
| 1652 } |
| 1653 |
| 1654 // Test that if the answerer rejects both audio and video m= sections, nothing |
| 1655 // bad happens. |
| 1656 // TODO(deadbeef): Test that a data channel still works. |
| 1657 TEST_F(PeerConnectionIntegrationTest, AnswererRejectsAudioAndVideoSections) { |
| 1658 ASSERT_TRUE(CreatePeerConnectionWrappers()); |
| 1659 ConnectFakeSignaling(); |
| 1660 caller_pc_wrapper()->AddAudioVideoMediaStream(); |
| 1661 // Don't give the callee any tracks, and set offer_to_receive_X to 0, so it |
| 1662 // will reject both audio and video m= sections. |
| 1663 PeerConnectionInterface::RTCOfferAnswerOptions options; |
| 1664 options.offer_to_receive_audio = 0; |
| 1665 options.offer_to_receive_video = 0; |
| 1666 callee_pc_wrapper()->SetOfferAnswerOptions(options); |
| 1667 // Do offer/answer and wait for stable signaling state. |
| 1668 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 1669 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 1670 // Sanity check that the callee's description has rejected m= sections. |
| 1671 ASSERT_NE(nullptr, callee_pc_wrapper()->pc()->local_description()); |
| 1672 const ContentInfo* callee_audio_content = GetFirstAudioContent( |
| 1673 callee_pc_wrapper()->pc()->local_description()->description()); |
| 1674 ASSERT_NE(nullptr, callee_audio_content); |
| 1675 EXPECT_TRUE(callee_audio_content->rejected); |
| 1676 const ContentInfo* callee_video_content = GetFirstVideoContent( |
| 1677 callee_pc_wrapper()->pc()->local_description()->description()); |
| 1678 ASSERT_NE(nullptr, callee_video_content); |
| 1679 EXPECT_TRUE(callee_video_content->rejected); |
| 1680 } |
| 1681 |
| 1682 // This test sets up an audio and video call between two parties. After the |
| 1683 // call runs for a while, the caller sends an updated offer with video being |
| 1684 // rejected. Once the re-negotiation is done, the video flow should stop and |
| 1685 // the audio flow should continue. |
| 1686 TEST_F(PeerConnectionIntegrationTest, UpdateOfferWithRejectedContent) { |
| 1687 ASSERT_TRUE(CreatePeerConnectionWrappers()); |
| 1688 ConnectFakeSignaling(); |
| 1689 caller_pc_wrapper()->AddAudioVideoMediaStream(); |
| 1690 callee_pc_wrapper()->AddAudioVideoMediaStream(); |
| 1691 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 1692 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 1693 EXPECT_TRUE_WAIT( |
| 1694 caller_pc_wrapper()->ReceivedAudioFrames(kEndAudioFrameCount) && |
| 1695 caller_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 1696 kEndVideoFrameCount) && |
| 1697 callee_pc_wrapper()->ReceivedAudioFrames(kEndAudioFrameCount) && |
| 1698 callee_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 1699 kEndVideoFrameCount), |
| 1700 kMaxWaitForFramesMs); |
| 1701 |
| 1702 // Renegotiate, rejecting the video m= section. |
| 1703 // TODO(deadbeef): When an RtpTransceiver API is available, use that to |
| 1704 // reject the video m= section. |
| 1705 caller_pc_wrapper()->SetGeneratedSdpMunger( |
| 1706 [](cricket::SessionDescription* description) { |
| 1707 for (cricket::ContentInfo& content : description->contents()) { |
| 1708 if (cricket::IsVideoContent(&content)) { |
| 1709 content.rejected = true; |
| 1710 } |
| 1711 } |
| 1712 }); |
| 1713 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 1714 ASSERT_TRUE_WAIT(SignalingStateStable(), kMaxWaitForActivationMs); |
| 1715 |
| 1716 int pc1_audio_received = caller_pc_wrapper()->audio_frames_received(); |
| 1717 int pc1_video_received = caller_pc_wrapper()->video_frames_received(); |
| 1718 int pc2_audio_received = callee_pc_wrapper()->audio_frames_received(); |
| 1719 int pc2_video_received = callee_pc_wrapper()->video_frames_received(); |
| 1720 |
| 1721 // Wait for some additional audio frames to be received. |
| 1722 EXPECT_TRUE_WAIT(caller_pc_wrapper()->ReceivedAudioFrames( |
| 1723 pc1_audio_received + kEndAudioFrameCount) && |
| 1724 callee_pc_wrapper()->ReceivedAudioFrames( |
| 1725 pc2_audio_received + kEndAudioFrameCount), |
| 1726 kMaxWaitForFramesMs); |
| 1727 |
| 1728 // During this time, we shouldn't have received any additional video frames |
| 1729 // for the rejected video tracks. |
| 1730 EXPECT_EQ(pc1_video_received, caller_pc_wrapper()->video_frames_received()); |
| 1731 EXPECT_EQ(pc2_video_received, callee_pc_wrapper()->video_frames_received()); |
| 1732 } |
| 1733 |
| 1734 // Basic end-to-end test, but without SSRC/MSID signaling. This functionality |
| 1735 // is needed to support legacy endpoints. |
| 1736 // TODO(deadbeef): When we support the MID extension and demuxing on MID, also |
| 1737 // add a test for an end-to-end test without MID signaling either (basically, |
| 1738 // the minimum acceptable SDP). |
| 1739 TEST_F(PeerConnectionIntegrationTest, EndToEndCallWithoutSsrcOrMsidSignaling) { |
| 1740 ASSERT_TRUE(CreatePeerConnectionWrappers()); |
| 1741 ConnectFakeSignaling(); |
| 1742 // Add audio and video, testing that packets can be demuxed on payload type. |
| 1743 caller_pc_wrapper()->AddAudioVideoMediaStream(); |
| 1744 callee_pc_wrapper()->AddAudioVideoMediaStream(); |
| 1745 // Remove all stream information (SSRCs, track IDs, etc.) and "msid-semantic" |
| 1746 // attribute from received SDP, simulating a legacy endpoint. |
| 1747 callee_pc_wrapper()->SetReceivedSdpMunger( |
| 1748 [](cricket::SessionDescription* desc) { |
| 1749 for (ContentInfo& content : desc->contents()) { |
| 1750 MediaContentDescription* media_desc = |
| 1751 static_cast<MediaContentDescription*>(content.description); |
| 1752 media_desc->mutable_streams().clear(); |
| 1753 } |
| 1754 desc->set_msid_supported(false); |
| 1755 }); |
| 1756 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 1757 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 1758 EXPECT_TRUE_WAIT( |
| 1759 caller_pc_wrapper()->ReceivedAudioFrames(kEndAudioFrameCount) && |
| 1760 caller_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 1761 kEndVideoFrameCount) && |
| 1762 callee_pc_wrapper()->ReceivedAudioFrames(kEndAudioFrameCount) && |
| 1763 callee_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 1764 kEndVideoFrameCount), |
| 1765 kMaxWaitForFramesMs); |
| 1766 } |
| 1767 |
| 1768 // Test that if two video tracks are sent (from caller to callee, in this test), |
| 1769 // they're transmitted correctly end-to-end. |
| 1770 TEST_F(PeerConnectionIntegrationTest, EndToEndCallWithTwoVideoTracks) { |
| 1771 ASSERT_TRUE(CreatePeerConnectionWrappers()); |
| 1772 ConnectFakeSignaling(); |
| 1773 // Add one audio/video stream, and one video-only stream. |
| 1774 caller_pc_wrapper()->AddAudioVideoMediaStream(); |
| 1775 caller_pc_wrapper()->AddMediaStreamFromTracksWithLabel( |
| 1776 nullptr, caller_pc_wrapper()->CreateLocalVideoTrackWithId("extra_track"), |
| 1777 "extra_stream"); |
| 1778 // And a single audio/video stream for the callee. |
| 1779 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 1780 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 1781 ASSERT_EQ(2u, callee_pc_wrapper()->number_of_remote_streams()); |
| 1782 EXPECT_TRUE_WAIT( |
| 1783 callee_pc_wrapper()->ReceivedAudioFrames(kEndAudioFrameCount) && |
| 1784 callee_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 1785 kEndVideoFrameCount), |
| 1786 kMaxWaitForFramesMs); |
| 1787 } |
| 1788 |
| 1789 // Test that if applying a true "max bundle" offer, which uses ports of 0, |
| 1790 // "a=bundle-only", omitting "a=fingerprint", "a=setup", "a=ice-ufrag" and |
| 1791 // "a=ice-pwd" for all but the audio "m=" section, negotiation still completes |
| 1792 // successfully and media flows. |
| 1793 // TODO(deadbeef): Update this test to also omit "a=rtcp-mux", once that works. |
| 1794 // TODO(deadbeef): Won't need this test once we start generating actual |
| 1795 // standards-compliant SDP. |
| 1796 TEST_F(PeerConnectionIntegrationTest, |
| 1797 EndToEndCallWithSpecCompliantMaxBundleOffer) { |
| 1798 ASSERT_TRUE(CreatePeerConnectionWrappers()); |
| 1799 ConnectFakeSignaling(); |
| 1800 caller_pc_wrapper()->AddAudioVideoMediaStream(); |
| 1801 callee_pc_wrapper()->AddAudioVideoMediaStream(); |
| 1802 // Do the equivalent of setting the port to 0, adding a=bundle-only, and |
| 1803 // removing a=ice-ufrag, a=ice-pwd, a=fingerprint and a=setup from all |
| 1804 // but the first m= section. |
| 1805 callee_pc_wrapper()->SetReceivedSdpMunger( |
| 1806 [](cricket::SessionDescription* desc) { |
| 1807 bool first = true; |
| 1808 for (cricket::ContentInfo& content : desc->contents()) { |
| 1809 if (first) { |
| 1810 first = false; |
| 1811 continue; |
| 1812 } |
| 1813 content.bundle_only = true; |
| 1814 } |
| 1815 first = true; |
| 1816 for (cricket::TransportInfo& transport : desc->transport_infos()) { |
| 1817 if (first) { |
| 1818 first = false; |
| 1819 continue; |
| 1820 } |
| 1821 transport.description.ice_ufrag.clear(); |
| 1822 transport.description.ice_pwd.clear(); |
| 1823 transport.description.connection_role = cricket::CONNECTIONROLE_NONE; |
| 1824 transport.description.identity_fingerprint.reset(nullptr); |
| 1825 } |
| 1826 }); |
| 1827 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 1828 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 1829 EXPECT_TRUE_WAIT( |
| 1830 caller_pc_wrapper()->ReceivedAudioFrames(kEndAudioFrameCount) && |
| 1831 caller_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 1832 kEndVideoFrameCount) && |
| 1833 callee_pc_wrapper()->ReceivedAudioFrames(kEndAudioFrameCount) && |
| 1834 callee_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 1835 kEndVideoFrameCount), |
| 1836 kMaxWaitForFramesMs); |
| 1837 } |
| 1838 |
| 1839 // Test that we can receive the audio output level from a remote audio track. |
| 1840 // TODO(deadbeef): Use a fake audio source and verify that the output level is |
| 1841 // exactly what the source on the other side was configured with. |
| 1842 TEST_F(PeerConnectionIntegrationTest, GetAudioOutputLevelStats) { |
| 1843 ASSERT_TRUE(CreatePeerConnectionWrappers()); |
| 1844 ConnectFakeSignaling(); |
| 1845 // Just add an audio track. |
| 1846 caller_pc_wrapper()->AddMediaStreamFromTracks( |
| 1847 caller_pc_wrapper()->CreateLocalAudioTrack(), nullptr); |
| 1848 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 1849 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 1850 |
| 1851 // Get the audio output level stats. Note that the level is not available |
| 1852 // until a RTCP packet has been received. |
| 1853 EXPECT_TRUE_WAIT(callee_pc_wrapper()->GetStats()->AudioOutputLevel() > 0, |
| 1854 kMaxWaitForFramesMs); |
| 1855 } |
| 1856 |
| 1857 // Test that an audio input level is reported. |
| 1858 // TODO(deadbeef): Use a fake audio source and verify that the input level is |
| 1859 // exactly what the source was configured with. |
| 1860 TEST_F(PeerConnectionIntegrationTest, GetAudioInputLevelStats) { |
| 1861 ASSERT_TRUE(CreatePeerConnectionWrappers()); |
| 1862 ConnectFakeSignaling(); |
| 1863 // Just add an audio track. |
| 1864 caller_pc_wrapper()->AddMediaStreamFromTracks( |
| 1865 caller_pc_wrapper()->CreateLocalAudioTrack(), nullptr); |
| 1866 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 1867 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 1868 |
| 1869 // Get the audio input level stats. The level should be available very |
| 1870 // soon after the test starts. |
| 1871 EXPECT_TRUE_WAIT(caller_pc_wrapper()->GetStats()->AudioInputLevel() > 0, |
| 1872 kMaxWaitForStatsMs); |
| 1873 } |
| 1874 |
| 1875 // Test that we can get incoming byte counts from both audio and video tracks. |
| 1876 TEST_F(PeerConnectionIntegrationTest, GetBytesReceivedStats) { |
| 1877 ASSERT_TRUE(CreatePeerConnectionWrappers()); |
| 1878 ConnectFakeSignaling(); |
| 1879 caller_pc_wrapper()->AddAudioVideoMediaStream(); |
| 1880 // Do offer/answer, wait for the callee to receive some frames. |
| 1881 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 1882 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 1883 EXPECT_TRUE_WAIT( |
| 1884 callee_pc_wrapper()->ReceivedAudioFrames(kEndAudioFrameCount) && |
| 1885 callee_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 1886 kEndVideoFrameCount), |
| 1887 kMaxWaitForFramesMs); |
| 1888 |
| 1889 // Get a handle to the remote tracks created, so they can be used as GetStats |
| 1890 // filters. |
| 1891 StreamCollectionInterface* remote_streams = |
| 1892 callee_pc_wrapper()->remote_streams(); |
| 1893 ASSERT_EQ(1u, remote_streams->count()); |
| 1894 ASSERT_EQ(1u, remote_streams->at(0)->GetAudioTracks().size()); |
| 1895 ASSERT_EQ(1u, remote_streams->at(0)->GetVideoTracks().size()); |
| 1896 MediaStreamTrackInterface* remote_audio_track = |
| 1897 remote_streams->at(0)->GetAudioTracks()[0]; |
| 1898 MediaStreamTrackInterface* remote_video_track = |
| 1899 remote_streams->at(0)->GetVideoTracks()[0]; |
| 1900 |
| 1901 // We received frames, so we definitely should have nonzero "received bytes" |
| 1902 // stats at this point. |
| 1903 EXPECT_GT(callee_pc_wrapper() |
| 1904 ->GetStatsForTrack(remote_audio_track) |
| 1905 ->BytesReceived(), |
| 1906 0); |
| 1907 EXPECT_GT(callee_pc_wrapper() |
| 1908 ->GetStatsForTrack(remote_video_track) |
| 1909 ->BytesReceived(), |
| 1910 0); |
| 1911 } |
| 1912 |
| 1913 // Test that we can get outgoing byte counts from both audio and video tracks. |
| 1914 TEST_F(PeerConnectionIntegrationTest, GetBytesSentStats) { |
| 1915 ASSERT_TRUE(CreatePeerConnectionWrappers()); |
| 1916 ConnectFakeSignaling(); |
| 1917 auto audio_track = caller_pc_wrapper()->CreateLocalAudioTrack(); |
| 1918 auto video_track = caller_pc_wrapper()->CreateLocalVideoTrack(); |
| 1919 caller_pc_wrapper()->AddMediaStreamFromTracks(audio_track, video_track); |
| 1920 // Do offer/answer, wait for the callee to receive some frames. |
| 1921 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 1922 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 1923 EXPECT_TRUE_WAIT( |
| 1924 callee_pc_wrapper()->ReceivedAudioFrames(kEndAudioFrameCount) && |
| 1925 callee_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 1926 kEndVideoFrameCount), |
| 1927 kMaxWaitForFramesMs); |
| 1928 |
| 1929 // The callee received frames, so we definitely should have nonzero "sent |
| 1930 // bytes" stats at this point. |
| 1931 EXPECT_GT(caller_pc_wrapper()->GetStatsForTrack(audio_track)->BytesSent(), 0); |
| 1932 EXPECT_GT(caller_pc_wrapper()->GetStatsForTrack(video_track)->BytesSent(), 0); |
| 1933 } |
| 1934 |
| 1935 // Test that DTLS 1.0 is used if both sides only support DTLS 1.0. |
| 1936 TEST_F(PeerConnectionIntegrationTest, EndToEndCallWithDtls10) { |
| 1937 PeerConnectionFactory::Options dtls_10_options; |
| 1938 dtls_10_options.ssl_max_version = rtc::SSL_PROTOCOL_DTLS_10; |
| 1939 ASSERT_TRUE(CreatePeerConnectionWrappersWithOptions(dtls_10_options, |
| 1940 dtls_10_options)); |
| 1941 ConnectFakeSignaling(); |
| 1942 // Do normal offer/answer and wait for some frames to be received in each |
| 1943 // direction. |
| 1944 caller_pc_wrapper()->AddAudioVideoMediaStream(); |
| 1945 callee_pc_wrapper()->AddAudioVideoMediaStream(); |
| 1946 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 1947 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 1948 EXPECT_TRUE_WAIT( |
| 1949 caller_pc_wrapper()->ReceivedAudioFrames(kEndAudioFrameCount) && |
| 1950 caller_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 1951 kEndVideoFrameCount) && |
| 1952 callee_pc_wrapper()->ReceivedAudioFrames(kEndAudioFrameCount) && |
| 1953 callee_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 1954 kEndVideoFrameCount), |
| 1955 kMaxWaitForFramesMs); |
| 1956 } |
| 1957 |
| 1958 // Test getting cipher stats and UMA metrics when DTLS 1.0 is negotiated. |
| 1959 TEST_F(PeerConnectionIntegrationTest, Dtls10CipherStatsAndUmaMetrics) { |
| 1960 PeerConnectionFactory::Options dtls_10_options; |
| 1961 dtls_10_options.ssl_max_version = rtc::SSL_PROTOCOL_DTLS_10; |
| 1962 ASSERT_TRUE(CreatePeerConnectionWrappersWithOptions(dtls_10_options, |
| 1963 dtls_10_options)); |
| 1964 ConnectFakeSignaling(); |
| 1965 // Register UMA observer before signaling begins. |
| 1966 rtc::scoped_refptr<webrtc::FakeMetricsObserver> caller_observer = |
| 1967 new rtc::RefCountedObject<webrtc::FakeMetricsObserver>(); |
| 1968 caller_pc_wrapper()->pc()->RegisterUMAObserver(caller_observer); |
| 1969 caller_pc_wrapper()->AddAudioVideoMediaStream(); |
| 1970 callee_pc_wrapper()->AddAudioVideoMediaStream(); |
| 1971 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 1972 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 1973 EXPECT_TRUE_WAIT( |
| 1974 rtc::SSLStreamAdapter::IsAcceptableCipher( |
| 1975 caller_pc_wrapper()->GetStats()->DtlsCipher(), rtc::KT_DEFAULT), |
| 1976 kDefaultTimeout); |
| 1977 EXPECT_EQ_WAIT(rtc::SrtpCryptoSuiteToName(kDefaultSrtpCryptoSuite), |
| 1978 caller_pc_wrapper()->GetStats()->SrtpCipher(), |
| 1979 kDefaultTimeout); |
| 1980 EXPECT_EQ(1, |
| 1981 caller_observer->GetEnumCounter(webrtc::kEnumCounterAudioSrtpCipher, |
| 1982 kDefaultSrtpCryptoSuite)); |
| 1983 } |
| 1984 |
| 1985 // Test getting cipher stats and UMA metrics when DTLS 1.2 is negotiated. |
| 1986 TEST_F(PeerConnectionIntegrationTest, Dtls12CipherStatsAndUmaMetrics) { |
| 1987 PeerConnectionFactory::Options dtls_12_options; |
| 1988 dtls_12_options.ssl_max_version = rtc::SSL_PROTOCOL_DTLS_12; |
| 1989 ASSERT_TRUE(CreatePeerConnectionWrappersWithOptions(dtls_12_options, |
| 1990 dtls_12_options)); |
| 1991 ConnectFakeSignaling(); |
| 1992 // Register UMA observer before signaling begins. |
| 1993 rtc::scoped_refptr<webrtc::FakeMetricsObserver> caller_observer = |
| 1994 new rtc::RefCountedObject<webrtc::FakeMetricsObserver>(); |
| 1995 caller_pc_wrapper()->pc()->RegisterUMAObserver(caller_observer); |
| 1996 caller_pc_wrapper()->AddAudioVideoMediaStream(); |
| 1997 callee_pc_wrapper()->AddAudioVideoMediaStream(); |
| 1998 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 1999 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 2000 EXPECT_TRUE_WAIT( |
| 2001 rtc::SSLStreamAdapter::IsAcceptableCipher( |
| 2002 caller_pc_wrapper()->GetStats()->DtlsCipher(), rtc::KT_DEFAULT), |
| 2003 kDefaultTimeout); |
| 2004 EXPECT_EQ_WAIT(rtc::SrtpCryptoSuiteToName(kDefaultSrtpCryptoSuite), |
| 2005 caller_pc_wrapper()->GetStats()->SrtpCipher(), |
| 2006 kDefaultTimeout); |
| 2007 EXPECT_EQ(1, |
| 2008 caller_observer->GetEnumCounter(webrtc::kEnumCounterAudioSrtpCipher, |
| 2009 kDefaultSrtpCryptoSuite)); |
| 2010 } |
| 2011 |
| 2012 // Test that DTLS 1.0 can be used if the caller supports DTLS 1.2 and the |
| 2013 // callee only supports 1.0. |
| 2014 TEST_F(PeerConnectionIntegrationTest, CallerDtls12ToCalleeDtls10) { |
| 2015 PeerConnectionFactory::Options caller_options; |
| 2016 caller_options.ssl_max_version = rtc::SSL_PROTOCOL_DTLS_12; |
| 2017 PeerConnectionFactory::Options callee_options; |
| 2018 callee_options.ssl_max_version = rtc::SSL_PROTOCOL_DTLS_10; |
| 2019 ASSERT_TRUE( |
| 2020 CreatePeerConnectionWrappersWithOptions(caller_options, callee_options)); |
| 2021 ConnectFakeSignaling(); |
| 2022 // Do normal offer/answer and wait for some frames to be received in each |
| 2023 // direction. |
| 2024 caller_pc_wrapper()->AddAudioVideoMediaStream(); |
| 2025 callee_pc_wrapper()->AddAudioVideoMediaStream(); |
| 2026 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 2027 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 2028 EXPECT_TRUE_WAIT( |
| 2029 caller_pc_wrapper()->ReceivedAudioFrames(kEndAudioFrameCount) && |
| 2030 caller_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 2031 kEndVideoFrameCount) && |
| 2032 callee_pc_wrapper()->ReceivedAudioFrames(kEndAudioFrameCount) && |
| 2033 callee_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 2034 kEndVideoFrameCount), |
| 2035 kMaxWaitForFramesMs); |
| 2036 } |
| 2037 |
| 2038 // Test that DTLS 1.0 can be used if the caller only supports DTLS 1.0 and the |
| 2039 // callee supports 1.2. |
| 2040 TEST_F(PeerConnectionIntegrationTest, CallerDtls10ToCalleeDtls12) { |
| 2041 PeerConnectionFactory::Options caller_options; |
| 2042 caller_options.ssl_max_version = rtc::SSL_PROTOCOL_DTLS_10; |
| 2043 PeerConnectionFactory::Options callee_options; |
| 2044 callee_options.ssl_max_version = rtc::SSL_PROTOCOL_DTLS_12; |
| 2045 ASSERT_TRUE( |
| 2046 CreatePeerConnectionWrappersWithOptions(caller_options, callee_options)); |
| 2047 ConnectFakeSignaling(); |
| 2048 // Do normal offer/answer and wait for some frames to be received in each |
| 2049 // direction. |
| 2050 caller_pc_wrapper()->AddAudioVideoMediaStream(); |
| 2051 callee_pc_wrapper()->AddAudioVideoMediaStream(); |
| 2052 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 2053 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 2054 EXPECT_TRUE_WAIT( |
| 2055 caller_pc_wrapper()->ReceivedAudioFrames(kEndAudioFrameCount) && |
| 2056 caller_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 2057 kEndVideoFrameCount) && |
| 2058 callee_pc_wrapper()->ReceivedAudioFrames(kEndAudioFrameCount) && |
| 2059 callee_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 2060 kEndVideoFrameCount), |
| 2061 kMaxWaitForFramesMs); |
| 2062 } |
| 2063 |
| 2064 // Test that a non-GCM cipher is used if both sides only support non-GCM. |
| 2065 TEST_F(PeerConnectionIntegrationTest, NonGcmCipherUsedWhenGcmNotSupported) { |
| 2066 TestGcmNegotiationUsesCipherSuite(false, false, kDefaultSrtpCryptoSuite); |
| 2067 } |
| 2068 |
| 2069 // Test that a GCM cipher is used if both ends support it. |
| 2070 TEST_F(PeerConnectionIntegrationTest, GcmCipherUsedWhenGcmSupported) { |
| 2071 TestGcmNegotiationUsesCipherSuite(true, true, kDefaultSrtpCryptoSuiteGcm); |
| 2072 } |
| 2073 |
| 2074 // Test that GCM isn't used if only the initiator supports it. |
| 2075 TEST_F(PeerConnectionIntegrationTest, GcmCipherUsedWhenOnlyCallerSupportsGcm) { |
| 2076 TestGcmNegotiationUsesCipherSuite(true, false, kDefaultSrtpCryptoSuite); |
| 2077 } |
| 2078 |
| 2079 // Test that GCM isn't used if only the receiver supports it. |
| 2080 TEST_F(PeerConnectionIntegrationTest, GcmCipherUsedWhenOnlyCalleeSupportsGcm) { |
| 2081 TestGcmNegotiationUsesCipherSuite(false, true, kDefaultSrtpCryptoSuite); |
| 2082 } |
| 2083 |
| 2084 // This test sets up a call between two parties with audio, video and an RTP |
| 2085 // data channel. |
| 2086 TEST_F(PeerConnectionIntegrationTest, EndToEndCallWithRtpDataChannel) { |
| 2087 FakeConstraints setup_constraints; |
| 2088 setup_constraints.SetAllowRtpDataChannels(); |
| 2089 ASSERT_TRUE(CreatePeerConnectionWrappersWithConstraints(&setup_constraints, |
| 2090 &setup_constraints)); |
| 2091 ConnectFakeSignaling(); |
| 2092 // Expect that data channel created on caller side will show up for callee as |
| 2093 // well. |
| 2094 caller_pc_wrapper()->CreateDataChannel(); |
| 2095 caller_pc_wrapper()->AddAudioVideoMediaStream(); |
| 2096 callee_pc_wrapper()->AddAudioVideoMediaStream(); |
| 2097 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 2098 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 2099 // Ensure the existence of the RTP data channel didn't impede audio/video. |
| 2100 EXPECT_TRUE_WAIT( |
| 2101 caller_pc_wrapper()->ReceivedAudioFrames(kEndAudioFrameCount) && |
| 2102 caller_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 2103 kEndVideoFrameCount) && |
| 2104 callee_pc_wrapper()->ReceivedAudioFrames(kEndAudioFrameCount) && |
| 2105 callee_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 2106 kEndVideoFrameCount), |
| 2107 kMaxWaitForFramesMs); |
| 2108 ASSERT_NE(nullptr, caller_pc_wrapper()->data_channel()); |
| 2109 ASSERT_NE(nullptr, callee_pc_wrapper()->data_channel()); |
| 2110 EXPECT_TRUE_WAIT(caller_pc_wrapper()->data_observer()->IsOpen(), |
| 2111 kDefaultTimeout); |
| 2112 EXPECT_TRUE_WAIT(callee_pc_wrapper()->data_observer()->IsOpen(), |
| 2113 kDefaultTimeout); |
| 2114 |
| 2115 // Ensure data can be sent in both directions. |
| 2116 std::string data = "hello world"; |
| 2117 SendRtpDataWithRetries(caller_pc_wrapper()->data_channel(), data, 5); |
| 2118 EXPECT_EQ_WAIT(data, callee_pc_wrapper()->data_observer()->last_message(), |
| 2119 kDefaultTimeout); |
| 2120 SendRtpDataWithRetries(callee_pc_wrapper()->data_channel(), data, 5); |
| 2121 EXPECT_EQ_WAIT(data, caller_pc_wrapper()->data_observer()->last_message(), |
| 2122 kDefaultTimeout); |
| 2123 } |
| 2124 |
| 2125 // Ensure that an RTP data channel is signaled as closed for the caller when |
| 2126 // the callee rejects it in a subsequent offer. |
| 2127 TEST_F(PeerConnectionIntegrationTest, |
| 2128 RtpDataChannelSignaledClosedInCalleeOffer) { |
| 2129 // Same procedure as above test. |
| 2130 FakeConstraints setup_constraints; |
| 2131 setup_constraints.SetAllowRtpDataChannels(); |
| 2132 ASSERT_TRUE(CreatePeerConnectionWrappersWithConstraints(&setup_constraints, |
| 2133 &setup_constraints)); |
| 2134 ConnectFakeSignaling(); |
| 2135 caller_pc_wrapper()->CreateDataChannel(); |
| 2136 caller_pc_wrapper()->AddAudioVideoMediaStream(); |
| 2137 callee_pc_wrapper()->AddAudioVideoMediaStream(); |
| 2138 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 2139 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 2140 ASSERT_NE(nullptr, caller_pc_wrapper()->data_channel()); |
| 2141 ASSERT_NE(nullptr, callee_pc_wrapper()->data_channel()); |
| 2142 ASSERT_TRUE_WAIT(caller_pc_wrapper()->data_observer()->IsOpen(), |
| 2143 kDefaultTimeout); |
| 2144 ASSERT_TRUE_WAIT(callee_pc_wrapper()->data_observer()->IsOpen(), |
| 2145 kDefaultTimeout); |
| 2146 |
| 2147 // Close the data channel on the callee, and do an updated offer/answer. |
| 2148 callee_pc_wrapper()->data_channel()->Close(); |
| 2149 callee_pc_wrapper()->CreateSetAndSignalOffer(); |
| 2150 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 2151 EXPECT_FALSE(caller_pc_wrapper()->data_observer()->IsOpen()); |
| 2152 EXPECT_FALSE(callee_pc_wrapper()->data_observer()->IsOpen()); |
| 2153 } |
| 2154 |
| 2155 #ifdef HAVE_SCTP |
| 2156 |
| 2157 // This test sets up a call between two parties with audio, video and an SCTP |
| 2158 // data channel. |
| 2159 TEST_F(PeerConnectionIntegrationTest, EndToEndCallWithSctpDataChannel) { |
| 2160 ASSERT_TRUE(CreatePeerConnectionWrappers()); |
| 2161 ConnectFakeSignaling(); |
| 2162 // Expect that data channel created on caller side will show up for callee as |
| 2163 // well. |
| 2164 caller_pc_wrapper()->CreateDataChannel(); |
| 2165 caller_pc_wrapper()->AddAudioVideoMediaStream(); |
| 2166 callee_pc_wrapper()->AddAudioVideoMediaStream(); |
| 2167 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 2168 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 2169 // Ensure the existence of the SCTP data channel didn't impede audio/video. |
| 2170 EXPECT_TRUE_WAIT( |
| 2171 caller_pc_wrapper()->ReceivedAudioFrames(kEndAudioFrameCount) && |
| 2172 caller_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 2173 kEndVideoFrameCount) && |
| 2174 callee_pc_wrapper()->ReceivedAudioFrames(kEndAudioFrameCount) && |
| 2175 callee_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 2176 kEndVideoFrameCount), |
| 2177 kMaxWaitForFramesMs); |
| 2178 // Caller data channel should already exist (it created one). Callee data |
| 2179 // channel may not exist yet, since negotiation happens in-band, not in SDP. |
| 2180 ASSERT_NE(nullptr, caller_pc_wrapper()->data_channel()); |
| 2181 ASSERT_TRUE_WAIT(callee_pc_wrapper()->data_channel() != nullptr, |
| 2182 kDefaultTimeout); |
| 2183 EXPECT_TRUE_WAIT(caller_pc_wrapper()->data_observer()->IsOpen(), |
| 2184 kDefaultTimeout); |
| 2185 EXPECT_TRUE_WAIT(callee_pc_wrapper()->data_observer()->IsOpen(), |
| 2186 kDefaultTimeout); |
| 2187 |
| 2188 // Ensure data can be sent in both directions. |
| 2189 std::string data = "hello world"; |
| 2190 caller_pc_wrapper()->data_channel()->Send(DataBuffer(data)); |
| 2191 EXPECT_EQ_WAIT(data, callee_pc_wrapper()->data_observer()->last_message(), |
| 2192 kDefaultTimeout); |
| 2193 callee_pc_wrapper()->data_channel()->Send(DataBuffer(data)); |
| 2194 EXPECT_EQ_WAIT(data, caller_pc_wrapper()->data_observer()->last_message(), |
| 2195 kDefaultTimeout); |
| 2196 } |
| 2197 |
| 2198 // Ensure that when the callee closes an SCTP data channel, the closing |
| 2199 // procedure results in the data channel being closed for the caller as well. |
| 2200 TEST_F(PeerConnectionIntegrationTest, CalleeClosesSctpDataChannel) { |
| 2201 // Same procedure as above test. |
| 2202 ASSERT_TRUE(CreatePeerConnectionWrappers()); |
| 2203 ConnectFakeSignaling(); |
| 2204 caller_pc_wrapper()->CreateDataChannel(); |
| 2205 caller_pc_wrapper()->AddAudioVideoMediaStream(); |
| 2206 callee_pc_wrapper()->AddAudioVideoMediaStream(); |
| 2207 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 2208 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 2209 ASSERT_NE(nullptr, caller_pc_wrapper()->data_channel()); |
| 2210 ASSERT_TRUE_WAIT(callee_pc_wrapper()->data_channel() != nullptr, |
| 2211 kDefaultTimeout); |
| 2212 ASSERT_TRUE_WAIT(caller_pc_wrapper()->data_observer()->IsOpen(), |
| 2213 kDefaultTimeout); |
| 2214 ASSERT_TRUE_WAIT(callee_pc_wrapper()->data_observer()->IsOpen(), |
| 2215 kDefaultTimeout); |
| 2216 |
| 2217 // Close the data channel on the callee side, and wait for it to reach the |
| 2218 // "closed" state on both sides. |
| 2219 callee_pc_wrapper()->data_channel()->Close(); |
| 2220 EXPECT_TRUE_WAIT(!caller_pc_wrapper()->data_observer()->IsOpen(), |
| 2221 kDefaultTimeout); |
| 2222 EXPECT_TRUE_WAIT(!callee_pc_wrapper()->data_observer()->IsOpen(), |
| 2223 kDefaultTimeout); |
| 2224 } |
| 2225 |
| 2226 // Test usrsctp's ability to process unordered data stream, where data actually |
| 2227 // arrives out of order using simulated delays. Previously there have been some |
| 2228 // bugs in this area. |
| 2229 TEST_F(PeerConnectionIntegrationTest, StressTestUnorderedSctpDataChannel) { |
| 2230 // Introduce random network delays. |
| 2231 // Otherwise it's not a true "unordered" test. |
| 2232 virtual_socket_server()->set_delay_mean(20); |
| 2233 virtual_socket_server()->set_delay_stddev(5); |
| 2234 virtual_socket_server()->UpdateDelayDistribution(); |
| 2235 // Normal procedure, but with unordered data channel config. |
| 2236 ASSERT_TRUE(CreatePeerConnectionWrappers()); |
| 2237 ConnectFakeSignaling(); |
| 2238 webrtc::DataChannelInit init; |
| 2239 init.ordered = false; |
| 2240 caller_pc_wrapper()->CreateDataChannel(&init); |
| 2241 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 2242 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 2243 ASSERT_NE(nullptr, caller_pc_wrapper()->data_channel()); |
| 2244 ASSERT_TRUE_WAIT(callee_pc_wrapper()->data_channel() != nullptr, |
| 2245 kDefaultTimeout); |
| 2246 ASSERT_TRUE_WAIT(caller_pc_wrapper()->data_observer()->IsOpen(), |
| 2247 kDefaultTimeout); |
| 2248 ASSERT_TRUE_WAIT(callee_pc_wrapper()->data_observer()->IsOpen(), |
| 2249 kDefaultTimeout); |
| 2250 |
| 2251 static constexpr int kNumMessages = 100; |
| 2252 // Deliberately chosen to be larger than the MTU so messages get fragmented. |
| 2253 static constexpr size_t kMaxMessageSize = 4096; |
| 2254 // Create and send random messages. |
| 2255 std::vector<std::string> sent_messages; |
| 2256 for (int i = 0; i < kNumMessages; ++i) { |
| 2257 size_t length = (rand() % kMaxMessageSize) + 1; |
| 2258 std::string message; |
| 2259 ASSERT_TRUE(rtc::CreateRandomString(length, &message)); |
| 2260 caller_pc_wrapper()->data_channel()->Send(DataBuffer(message)); |
| 2261 callee_pc_wrapper()->data_channel()->Send(DataBuffer(message)); |
| 2262 sent_messages.push_back(message); |
| 2263 } |
| 2264 |
| 2265 // Wait for all messages to be received. |
| 2266 EXPECT_EQ_WAIT(kNumMessages, |
| 2267 caller_pc_wrapper()->data_observer()->received_message_count(), |
| 2268 kDefaultTimeout); |
| 2269 EXPECT_EQ_WAIT(kNumMessages, |
| 2270 callee_pc_wrapper()->data_observer()->received_message_count(), |
| 2271 kDefaultTimeout); |
| 2272 |
| 2273 // Sort and compare to make sure none of the messages were corrupted. |
| 2274 std::vector<std::string> caller_pc_wrapper_received_messages = |
| 2275 caller_pc_wrapper()->data_observer()->messages(); |
| 2276 std::vector<std::string> callee_pc_wrapper_received_messages = |
| 2277 callee_pc_wrapper()->data_observer()->messages(); |
| 2278 std::sort(sent_messages.begin(), sent_messages.end()); |
| 2279 std::sort(caller_pc_wrapper_received_messages.begin(), |
| 2280 caller_pc_wrapper_received_messages.end()); |
| 2281 std::sort(callee_pc_wrapper_received_messages.begin(), |
| 2282 callee_pc_wrapper_received_messages.end()); |
| 2283 EXPECT_EQ(sent_messages, caller_pc_wrapper_received_messages); |
| 2284 EXPECT_EQ(sent_messages, callee_pc_wrapper_received_messages); |
| 2285 } |
| 2286 #endif // HAVE_SCTP |
| 2287 |
| 2288 // Tests that data is buffered until an observer is registered for a data |
| 2289 // channel. |
| 2290 // NOTE: RTP data channels can receive data before the underlying |
| 2291 // transport has detected that a channel is writable and thus data can be |
| 2292 // received before the data channel state changes to open. That is hard to test |
| 2293 // but the same buffering is expected to be used in that case. |
| 2294 TEST_F(PeerConnectionIntegrationTest, |
| 2295 DataBufferedUntilDataChannelObserverRegistered) { |
| 2296 // Use fake clock and simulated network delay so that we predictably can wait |
| 2297 // until an SCTP message has been delivered without "sleep()"ing. |
| 2298 rtc::ScopedFakeClock fake_clock; |
| 2299 // Some things use a time of "0" as a special value, so we need to start out |
| 2300 // the fake clock at a nonzero time. |
| 2301 // TODO(deadbeef): Fix this. |
| 2302 fake_clock.AdvanceTime(rtc::TimeDelta::FromSeconds(1)); |
| 2303 virtual_socket_server()->set_delay_mean(5); // 5 ms per hop. |
| 2304 virtual_socket_server()->UpdateDelayDistribution(); |
| 2305 |
| 2306 ASSERT_TRUE(CreatePeerConnectionWrappers()); |
| 2307 ConnectFakeSignaling(); |
| 2308 caller_pc_wrapper()->CreateDataChannel(); |
| 2309 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 2310 ASSERT_TRUE(caller_pc_wrapper()->data_channel() != nullptr); |
| 2311 ASSERT_TRUE_SIMULATED_WAIT(callee_pc_wrapper()->data_channel() != nullptr, |
| 2312 kDefaultTimeout, fake_clock); |
| 2313 ASSERT_TRUE_SIMULATED_WAIT(caller_pc_wrapper()->data_observer()->IsOpen(), |
| 2314 kDefaultTimeout, fake_clock); |
| 2315 ASSERT_EQ_SIMULATED_WAIT(DataChannelInterface::kOpen, |
| 2316 callee_pc_wrapper()->data_channel()->state(), |
| 2317 kDefaultTimeout, fake_clock); |
| 2318 |
| 2319 // Unregister the observer which is normally automatically registered. |
| 2320 callee_pc_wrapper()->data_channel()->UnregisterObserver(); |
| 2321 // Send data and advance fake clock until it should have been received. |
| 2322 std::string data = "hello world"; |
| 2323 caller_pc_wrapper()->data_channel()->Send(DataBuffer(data)); |
| 2324 SIMULATED_WAIT(false, 50, fake_clock); |
| 2325 |
| 2326 // Attach data channel and expect data to be received immediately. Note that |
| 2327 // EXPECT_EQ_WAIT is used, such that the simulated clock is not advanced any |
| 2328 // further, but data can be received even if the callback is asynchronous. |
| 2329 MockDataChannelObserver new_observer(callee_pc_wrapper()->data_channel()); |
| 2330 EXPECT_EQ_SIMULATED_WAIT(data, new_observer.last_message(), kDefaultTimeout, |
| 2331 fake_clock); |
| 2332 } |
| 2333 |
| 2334 // This test sets up a call between two parties with audio, video and but only |
| 2335 // the caller client supports RTP data channels. |
| 2336 TEST_F(PeerConnectionIntegrationTest, RtpDataChannelsRejectedByCallee) { |
| 2337 FakeConstraints setup_constraints_1; |
| 2338 setup_constraints_1.SetAllowRtpDataChannels(); |
| 2339 // Must disable DTLS to make negotiation succeed. |
| 2340 setup_constraints_1.SetMandatory(MediaConstraintsInterface::kEnableDtlsSrtp, |
| 2341 false); |
| 2342 FakeConstraints setup_constraints_2; |
| 2343 setup_constraints_2.SetMandatory(MediaConstraintsInterface::kEnableDtlsSrtp, |
| 2344 false); |
| 2345 ASSERT_TRUE(CreatePeerConnectionWrappersWithConstraints( |
| 2346 &setup_constraints_1, &setup_constraints_2)); |
| 2347 ConnectFakeSignaling(); |
| 2348 caller_pc_wrapper()->CreateDataChannel(); |
| 2349 caller_pc_wrapper()->AddAudioVideoMediaStream(); |
| 2350 callee_pc_wrapper()->AddAudioVideoMediaStream(); |
| 2351 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 2352 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 2353 // The caller should still have a data channel, but it should be closed, and |
| 2354 // one should ever have been created for the callee. |
| 2355 EXPECT_TRUE(caller_pc_wrapper()->data_channel() != nullptr); |
| 2356 EXPECT_FALSE(caller_pc_wrapper()->data_observer()->IsOpen()); |
| 2357 EXPECT_EQ(nullptr, callee_pc_wrapper()->data_channel()); |
| 2358 } |
| 2359 |
| 2360 #ifdef HAVE_SCTP |
| 2361 // This test sets up a call between two parties with audio, and video. When |
| 2362 // audio and video is setup and flowing, an SCTP data channel is negotiated. |
| 2363 TEST_F(PeerConnectionIntegrationTest, AddSctpDataChannelInSubsequentOffer) { |
| 2364 ASSERT_TRUE(CreatePeerConnectionWrappers()); |
| 2365 ConnectFakeSignaling(); |
| 2366 // Do initial offer/answer with audio/video. |
| 2367 caller_pc_wrapper()->AddAudioVideoMediaStream(); |
| 2368 callee_pc_wrapper()->AddAudioVideoMediaStream(); |
| 2369 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 2370 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 2371 // Create data channel and do new offer and answer. |
| 2372 caller_pc_wrapper()->CreateDataChannel(); |
| 2373 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 2374 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 2375 ASSERT_NE(nullptr, caller_pc_wrapper()->data_channel()); |
| 2376 ASSERT_NE(nullptr, callee_pc_wrapper()->data_channel()); |
| 2377 EXPECT_TRUE_WAIT(caller_pc_wrapper()->data_observer()->IsOpen(), |
| 2378 kDefaultTimeout); |
| 2379 EXPECT_TRUE_WAIT(callee_pc_wrapper()->data_observer()->IsOpen(), |
| 2380 kDefaultTimeout); |
| 2381 // Ensure data can be sent in both directions. |
| 2382 std::string data = "hello world"; |
| 2383 caller_pc_wrapper()->data_channel()->Send(DataBuffer(data)); |
| 2384 EXPECT_EQ_WAIT(data, callee_pc_wrapper()->data_observer()->last_message(), |
| 2385 kDefaultTimeout); |
| 2386 callee_pc_wrapper()->data_channel()->Send(DataBuffer(data)); |
| 2387 EXPECT_EQ_WAIT(data, caller_pc_wrapper()->data_observer()->last_message(), |
| 2388 kDefaultTimeout); |
| 2389 } |
| 2390 #endif // HAVE_SCTP |
| 2391 |
| 2392 // This test sets up a call between two parties with audio, and video. When |
| 2393 // audio and video is setup and flowing, an RTP data channel is negotiated. |
| 2394 TEST_F(PeerConnectionIntegrationTest, AddRtpDataChannelInSubsequentOffer) { |
| 2395 FakeConstraints setup_constraints; |
| 2396 setup_constraints.SetAllowRtpDataChannels(); |
| 2397 ASSERT_TRUE(CreatePeerConnectionWrappersWithConstraints(&setup_constraints, |
| 2398 &setup_constraints)); |
| 2399 ConnectFakeSignaling(); |
| 2400 // Do initial offer/answer with audio/video. |
| 2401 caller_pc_wrapper()->AddAudioVideoMediaStream(); |
| 2402 callee_pc_wrapper()->AddAudioVideoMediaStream(); |
| 2403 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 2404 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 2405 // Create data channel and do new offer and answer. |
| 2406 caller_pc_wrapper()->CreateDataChannel(); |
| 2407 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 2408 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 2409 ASSERT_NE(nullptr, caller_pc_wrapper()->data_channel()); |
| 2410 ASSERT_NE(nullptr, callee_pc_wrapper()->data_channel()); |
| 2411 EXPECT_TRUE_WAIT(caller_pc_wrapper()->data_observer()->IsOpen(), |
| 2412 kDefaultTimeout); |
| 2413 EXPECT_TRUE_WAIT(callee_pc_wrapper()->data_observer()->IsOpen(), |
| 2414 kDefaultTimeout); |
| 2415 // Ensure data can be sent in both directions. |
| 2416 std::string data = "hello world"; |
| 2417 SendRtpDataWithRetries(caller_pc_wrapper()->data_channel(), data, 5); |
| 2418 EXPECT_EQ_WAIT(data, callee_pc_wrapper()->data_observer()->last_message(), |
| 2419 kDefaultTimeout); |
| 2420 SendRtpDataWithRetries(callee_pc_wrapper()->data_channel(), data, 5); |
| 2421 EXPECT_EQ_WAIT(data, caller_pc_wrapper()->data_observer()->last_message(), |
| 2422 kDefaultTimeout); |
| 2423 } |
| 2424 |
| 2425 // Test that the ICE connection and gathering states eventually reach |
| 2426 // "complete". |
| 2427 TEST_F(PeerConnectionIntegrationTest, IceStatesReachCompletion) { |
| 2428 ASSERT_TRUE(CreatePeerConnectionWrappers()); |
| 2429 ConnectFakeSignaling(); |
| 2430 // Do normal offer/answer. |
| 2431 caller_pc_wrapper()->AddAudioVideoMediaStream(); |
| 2432 callee_pc_wrapper()->AddAudioVideoMediaStream(); |
| 2433 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 2434 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 2435 EXPECT_EQ_WAIT(webrtc::PeerConnectionInterface::kIceGatheringComplete, |
| 2436 caller_pc_wrapper()->ice_gathering_state(), |
| 2437 kMaxWaitForFramesMs); |
| 2438 EXPECT_EQ_WAIT(webrtc::PeerConnectionInterface::kIceGatheringComplete, |
| 2439 callee_pc_wrapper()->ice_gathering_state(), |
| 2440 kMaxWaitForFramesMs); |
| 2441 // After the best candidate pair is selected and all candidates are signaled, |
| 2442 // the ICE connection state should reach "complete". |
| 2443 // TODO(deadbeef): Currently, the ICE "controlled" agent (the |
| 2444 // answerer/"callee" by default) only reaches "connected". When this is |
| 2445 // fixed, this test should be updated. |
| 2446 EXPECT_EQ_WAIT(webrtc::PeerConnectionInterface::kIceConnectionCompleted, |
| 2447 caller_pc_wrapper()->ice_connection_state(), kDefaultTimeout); |
| 2448 EXPECT_EQ_WAIT(webrtc::PeerConnectionInterface::kIceConnectionConnected, |
| 2449 callee_pc_wrapper()->ice_connection_state(), kDefaultTimeout); |
| 2450 } |
| 2451 |
| 2452 // This test sets up a call between two parties with audio and video. |
| 2453 // During the call, the caller restarts ICE and the test verifies that |
| 2454 // new ICE candidates are generated and audio and video still can flow, and the |
| 2455 // ICE state reaches completed again. |
| 2456 TEST_F(PeerConnectionIntegrationTest, MediaContinuesFlowingAfterIceRestart) { |
| 2457 ASSERT_TRUE(CreatePeerConnectionWrappers()); |
| 2458 ConnectFakeSignaling(); |
| 2459 // Do normal offer/answer and wait for ICE to complete. |
| 2460 caller_pc_wrapper()->AddAudioVideoMediaStream(); |
| 2461 callee_pc_wrapper()->AddAudioVideoMediaStream(); |
| 2462 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 2463 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 2464 EXPECT_EQ_WAIT(webrtc::PeerConnectionInterface::kIceConnectionCompleted, |
| 2465 caller_pc_wrapper()->ice_connection_state(), |
| 2466 kMaxWaitForFramesMs); |
| 2467 EXPECT_EQ_WAIT(webrtc::PeerConnectionInterface::kIceConnectionConnected, |
| 2468 callee_pc_wrapper()->ice_connection_state(), |
| 2469 kMaxWaitForFramesMs); |
| 2470 |
| 2471 // To verify that the ICE restart actually occurs, get |
| 2472 // ufrag/password/candidates before and after restart. |
| 2473 // Create a SDP string of the first audio candidate for both clients. |
| 2474 const webrtc::IceCandidateCollection* audio_candidates_caller = |
| 2475 caller_pc_wrapper()->pc()->local_description()->candidates(0); |
| 2476 const webrtc::IceCandidateCollection* audio_candidates_callee = |
| 2477 callee_pc_wrapper()->pc()->local_description()->candidates(0); |
| 2478 ASSERT_GT(audio_candidates_caller->count(), 0u); |
| 2479 ASSERT_GT(audio_candidates_callee->count(), 0u); |
| 2480 std::string caller_candidate_pre_restart; |
| 2481 ASSERT_TRUE( |
| 2482 audio_candidates_caller->at(0)->ToString(&caller_candidate_pre_restart)); |
| 2483 std::string callee_candidate_pre_restart; |
| 2484 ASSERT_TRUE( |
| 2485 audio_candidates_callee->at(0)->ToString(&callee_candidate_pre_restart)); |
| 2486 std::string caller_ufrag_pre_restart = caller_pc_wrapper() |
| 2487 ->pc() |
| 2488 ->local_description() |
| 2489 ->description() |
| 2490 ->transport_infos()[0] |
| 2491 .description.ice_ufrag; |
| 2492 std::string callee_ufrag_pre_restart = callee_pc_wrapper() |
| 2493 ->pc() |
| 2494 ->local_description() |
| 2495 ->description() |
| 2496 ->transport_infos()[0] |
| 2497 .description.ice_ufrag; |
| 2498 |
| 2499 // Have the caller initiate an ICE restart. |
| 2500 caller_pc_wrapper()->SetOfferAnswerOptions(IceRestartOfferAnswerOptions()); |
| 2501 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 2502 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 2503 EXPECT_EQ_WAIT(webrtc::PeerConnectionInterface::kIceConnectionCompleted, |
| 2504 caller_pc_wrapper()->ice_connection_state(), |
| 2505 kMaxWaitForFramesMs); |
| 2506 EXPECT_EQ_WAIT(webrtc::PeerConnectionInterface::kIceConnectionConnected, |
| 2507 callee_pc_wrapper()->ice_connection_state(), |
| 2508 kMaxWaitForFramesMs); |
| 2509 |
| 2510 // Grab the ufrags/candidates again. |
| 2511 audio_candidates_caller = |
| 2512 caller_pc_wrapper()->pc()->local_description()->candidates(0); |
| 2513 audio_candidates_callee = |
| 2514 callee_pc_wrapper()->pc()->local_description()->candidates(0); |
| 2515 ASSERT_GT(audio_candidates_caller->count(), 0u); |
| 2516 ASSERT_GT(audio_candidates_callee->count(), 0u); |
| 2517 std::string caller_candidate_post_restart; |
| 2518 ASSERT_TRUE( |
| 2519 audio_candidates_caller->at(0)->ToString(&caller_candidate_post_restart)); |
| 2520 std::string callee_candidate_post_restart; |
| 2521 ASSERT_TRUE( |
| 2522 audio_candidates_callee->at(0)->ToString(&callee_candidate_post_restart)); |
| 2523 std::string caller_ufrag_post_restart = caller_pc_wrapper() |
| 2524 ->pc() |
| 2525 ->local_description() |
| 2526 ->description() |
| 2527 ->transport_infos()[0] |
| 2528 .description.ice_ufrag; |
| 2529 std::string callee_ufrag_post_restart = callee_pc_wrapper() |
| 2530 ->pc() |
| 2531 ->local_description() |
| 2532 ->description() |
| 2533 ->transport_infos()[0] |
| 2534 .description.ice_ufrag; |
| 2535 // Assert an ICE restart was actually negotiated in SDP. |
| 2536 ASSERT_NE(caller_candidate_pre_restart, caller_candidate_post_restart); |
| 2537 ASSERT_NE(callee_candidate_pre_restart, callee_candidate_post_restart); |
| 2538 ASSERT_NE(caller_ufrag_pre_restart, caller_ufrag_post_restart); |
| 2539 ASSERT_NE(callee_ufrag_pre_restart, callee_ufrag_post_restart); |
| 2540 |
| 2541 // Ensure that additional frames are received after the ICE restart. |
| 2542 int last_caller_audio_frames = caller_pc_wrapper()->audio_frames_received(); |
| 2543 int last_caller_video_frames = caller_pc_wrapper()->video_frames_received(); |
| 2544 int last_callee_audio_frames = callee_pc_wrapper()->audio_frames_received(); |
| 2545 int last_callee_video_frames = callee_pc_wrapper()->video_frames_received(); |
| 2546 EXPECT_TRUE_WAIT(caller_pc_wrapper()->ReceivedAudioFrames( |
| 2547 kEndAudioFrameCount + last_caller_audio_frames) && |
| 2548 caller_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 2549 kEndVideoFrameCount + last_caller_video_frames) && |
| 2550 callee_pc_wrapper()->ReceivedAudioFrames( |
| 2551 kEndAudioFrameCount + last_callee_audio_frames) && |
| 2552 callee_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 2553 kEndVideoFrameCount + last_callee_video_frames), |
| 2554 kMaxWaitForFramesMs); |
| 2555 } |
| 2556 |
| 2557 // Verify that audio/video can be received end-to-end when ICE renomination is |
| 2558 // enabled. |
| 2559 TEST_F(PeerConnectionIntegrationTest, EndToEndCallWithIceRenomination) { |
| 2560 PeerConnectionInterface::RTCConfiguration config; |
| 2561 config.enable_ice_renomination = true; |
| 2562 ASSERT_TRUE(CreatePeerConnectionWrappersWithConfig(config, config)); |
| 2563 ConnectFakeSignaling(); |
| 2564 // Do normal offer/answer and wait for some frames to be received in each |
| 2565 // direction. |
| 2566 caller_pc_wrapper()->AddAudioVideoMediaStream(); |
| 2567 callee_pc_wrapper()->AddAudioVideoMediaStream(); |
| 2568 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 2569 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 2570 // Sanity check that ICE renomination was actually negotiated. |
| 2571 for (const cricket::TransportInfo& info : caller_pc_wrapper() |
| 2572 ->pc() |
| 2573 ->local_description() |
| 2574 ->description() |
| 2575 ->transport_infos()) { |
| 2576 ASSERT_NE(info.description.transport_options.end(), |
| 2577 std::find(info.description.transport_options.begin(), |
| 2578 info.description.transport_options.end(), |
| 2579 cricket::ICE_RENOMINATION_STR)); |
| 2580 } |
| 2581 for (const cricket::TransportInfo& info : callee_pc_wrapper() |
| 2582 ->pc() |
| 2583 ->local_description() |
| 2584 ->description() |
| 2585 ->transport_infos()) { |
| 2586 ASSERT_NE(info.description.transport_options.end(), |
| 2587 std::find(info.description.transport_options.begin(), |
| 2588 info.description.transport_options.end(), |
| 2589 cricket::ICE_RENOMINATION_STR)); |
| 2590 } |
| 2591 EXPECT_TRUE_WAIT( |
| 2592 caller_pc_wrapper()->ReceivedAudioFrames(kEndAudioFrameCount) && |
| 2593 caller_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 2594 kEndVideoFrameCount) && |
| 2595 callee_pc_wrapper()->ReceivedAudioFrames(kEndAudioFrameCount) && |
| 2596 callee_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 2597 kEndVideoFrameCount), |
| 2598 kMaxWaitForFramesMs); |
| 2599 } |
| 2600 |
| 2601 // This test sets up a call between two parties with audio and video. It then |
| 2602 // renegotiates setting the video m-line to "port 0", then later renegotiates |
| 2603 // again, enabling video. |
| 2604 TEST_F(PeerConnectionIntegrationTest, |
| 2605 VideoFlowsAfterMediaSectionIsRejectedAndRecycled) { |
| 2606 ASSERT_TRUE(CreatePeerConnectionWrappers()); |
| 2607 ConnectFakeSignaling(); |
| 2608 |
| 2609 // Do initial negotiation, only sending media from the caller. Will result in |
| 2610 // video and audio recvonly "m=" sections. |
| 2611 caller_pc_wrapper()->AddAudioVideoMediaStream(); |
| 2612 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 2613 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 2614 |
| 2615 // Negotiate again, disabling the video "m=" section (the callee will set the |
| 2616 // port to 0 due to offer_to_receive_video = 0). |
| 2617 PeerConnectionInterface::RTCOfferAnswerOptions options; |
| 2618 options.offer_to_receive_video = 0; |
| 2619 callee_pc_wrapper()->SetOfferAnswerOptions(options); |
| 2620 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 2621 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 2622 // Sanity check that video "m=" section was actually rejected. |
| 2623 const ContentInfo* answer_video_content = cricket::GetFirstVideoContent( |
| 2624 callee_pc_wrapper()->pc()->local_description()->description()); |
| 2625 ASSERT_NE(nullptr, answer_video_content); |
| 2626 ASSERT_TRUE(answer_video_content->rejected); |
| 2627 |
| 2628 // Enable video and do negotiation again, making sure video is received |
| 2629 // end-to-end, also adding media stream to callee. |
| 2630 options.offer_to_receive_video = 1; |
| 2631 callee_pc_wrapper()->SetOfferAnswerOptions(options); |
| 2632 callee_pc_wrapper()->AddAudioVideoMediaStream(); |
| 2633 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 2634 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 2635 // Verify caller receives frames from the newly added stream, and the callee |
| 2636 // receives additional frames from the re-enabled video m= section. |
| 2637 int last_callee_audio_frames = callee_pc_wrapper()->audio_frames_received(); |
| 2638 int last_callee_video_frames = callee_pc_wrapper()->video_frames_received(); |
| 2639 EXPECT_TRUE_WAIT( |
| 2640 caller_pc_wrapper()->ReceivedAudioFrames(kEndAudioFrameCount) && |
| 2641 caller_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 2642 kEndVideoFrameCount) && |
| 2643 callee_pc_wrapper()->ReceivedAudioFrames(kEndAudioFrameCount + |
| 2644 last_callee_audio_frames) && |
| 2645 callee_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 2646 kEndVideoFrameCount + last_callee_video_frames), |
| 2647 kMaxWaitForFramesMs); |
| 2648 } |
| 2649 |
| 2650 // This test sets up a Jsep call between two parties with external |
| 2651 // VideoDecoderFactory. |
| 2652 // TODO(holmer): Disabled due to sometimes crashing on buildbots. |
| 2653 // See issue webrtc/2378. |
| 2654 TEST_F(PeerConnectionIntegrationTest, |
| 2655 DISABLED_EndToEndCallWithVideoDecoderFactory) { |
| 2656 ASSERT_TRUE(CreatePeerConnectionWrappers()); |
| 2657 EnableVideoDecoderFactory(); |
| 2658 ConnectFakeSignaling(); |
| 2659 caller_pc_wrapper()->AddAudioVideoMediaStream(); |
| 2660 callee_pc_wrapper()->AddAudioVideoMediaStream(); |
| 2661 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 2662 ASSERT_TRUE_WAIT(SignalingStateStable(), kDefaultTimeout); |
| 2663 EXPECT_TRUE_WAIT( |
| 2664 caller_pc_wrapper()->ReceivedAudioFrames(kEndAudioFrameCount) && |
| 2665 caller_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 2666 kEndVideoFrameCount) && |
| 2667 callee_pc_wrapper()->ReceivedAudioFrames(kEndAudioFrameCount) && |
| 2668 callee_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 2669 kEndVideoFrameCount), |
| 2670 kMaxWaitForFramesMs); |
| 2671 } |
| 2672 |
| 2673 // This tests that if we negotiate after calling CreateSender but before we |
| 2674 // have a track, then set a track later, frames from the newly-set track are |
| 2675 // received end-to-end. |
| 2676 // TODO(deadbeef): Change this test to use AddTransceiver, once that's |
| 2677 // implemented. |
| 2678 TEST_F(PeerConnectionIntegrationTest, |
| 2679 MediaFlowsAfterEarlyWarmupWithCreateSender) { |
| 2680 ASSERT_TRUE(CreatePeerConnectionWrappers()); |
| 2681 ConnectFakeSignaling(); |
| 2682 auto caller_audio_sender = |
| 2683 caller_pc_wrapper()->pc()->CreateSender("audio", "caller_stream"); |
| 2684 auto caller_video_sender = |
| 2685 caller_pc_wrapper()->pc()->CreateSender("video", "caller_stream"); |
| 2686 auto callee_audio_sender = |
| 2687 callee_pc_wrapper()->pc()->CreateSender("audio", "callee_stream"); |
| 2688 auto callee_video_sender = |
| 2689 callee_pc_wrapper()->pc()->CreateSender("video", "callee_stream"); |
| 2690 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 2691 ASSERT_TRUE_WAIT(SignalingStateStable(), kMaxWaitForActivationMs); |
| 2692 // Wait for ICE to complete, without any tracks being set. |
| 2693 EXPECT_EQ_WAIT(webrtc::PeerConnectionInterface::kIceConnectionCompleted, |
| 2694 caller_pc_wrapper()->ice_connection_state(), |
| 2695 kMaxWaitForFramesMs); |
| 2696 EXPECT_EQ_WAIT(webrtc::PeerConnectionInterface::kIceConnectionConnected, |
| 2697 callee_pc_wrapper()->ice_connection_state(), |
| 2698 kMaxWaitForFramesMs); |
| 2699 // Now set the tracks, and expect frames to immediately start flowing. |
| 2700 EXPECT_TRUE(caller_audio_sender->SetTrack( |
| 2701 caller_pc_wrapper()->CreateLocalAudioTrack())); |
| 2702 EXPECT_TRUE(caller_video_sender->SetTrack( |
| 2703 caller_pc_wrapper()->CreateLocalVideoTrack())); |
| 2704 EXPECT_TRUE(callee_audio_sender->SetTrack( |
| 2705 callee_pc_wrapper()->CreateLocalAudioTrack())); |
| 2706 EXPECT_TRUE(callee_video_sender->SetTrack( |
| 2707 callee_pc_wrapper()->CreateLocalVideoTrack())); |
| 2708 EXPECT_TRUE_WAIT( |
| 2709 caller_pc_wrapper()->ReceivedAudioFrames(kEndAudioFrameCount) && |
| 2710 caller_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 2711 kEndVideoFrameCount) && |
| 2712 callee_pc_wrapper()->ReceivedAudioFrames(kEndAudioFrameCount) && |
| 2713 callee_pc_wrapper()->ReceivedVideoFramesForEachTrack( |
| 2714 kEndVideoFrameCount), |
| 2715 kMaxWaitForFramesMs); |
| 2716 } |
| 2717 |
| 2718 // This test verifies that a remote video track can be added via AddStream, |
| 2719 // and sent end-to-end. For this particular test, it's simply echoed back |
| 2720 // from the caller to the callee, rather than being forwarded to a third |
| 2721 // PeerConnection. |
| 2722 TEST_F(PeerConnectionIntegrationTest, CanSendRemoteVideoTrack) { |
| 2723 ASSERT_TRUE(CreatePeerConnectionWrappers()); |
| 2724 ConnectFakeSignaling(); |
| 2725 // Just send a video track from the caller. |
| 2726 caller_pc_wrapper()->AddMediaStreamFromTracks( |
| 2727 nullptr, caller_pc_wrapper()->CreateLocalVideoTrack()); |
| 2728 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 2729 ASSERT_TRUE_WAIT(SignalingStateStable(), kMaxWaitForActivationMs); |
| 2730 ASSERT_EQ(1, callee_pc_wrapper()->remote_streams()->count()); |
| 2731 |
| 2732 // Echo the stream back, and do a new offer/anwer (initiated by callee this |
| 2733 // time). |
| 2734 callee_pc_wrapper()->pc()->AddStream( |
| 2735 callee_pc_wrapper()->remote_streams()->at(0)); |
| 2736 callee_pc_wrapper()->CreateSetAndSignalOffer(); |
| 2737 ASSERT_TRUE_WAIT(SignalingStateStable(), kMaxWaitForActivationMs); |
| 2738 |
| 2739 EXPECT_TRUE_WAIT( |
| 2740 caller_pc_wrapper()->ReceivedVideoFramesForEachTrack(kEndVideoFrameCount), |
| 2741 kMaxWaitForFramesMs); |
| 2742 } |
| 2743 |
| 2744 // Test that we achieve the expected end-to-end connection time, using a |
| 2745 // fake clock and simulated latency on the media and signaling paths. |
| 2746 // We use a TURN<->TURN connection because this is usually the quickest to |
| 2747 // set up initially, especially when we're confident the connection will work |
| 2748 // and can start sending media before we get a STUN response. |
| 2749 // |
| 2750 // With various optimizations enabled, here are the network delays we expect to |
| 2751 // be on the critical path: |
| 2752 // 1. 2 signaling trips: Signaling offer and offerer's TURN candidate, then |
| 2753 // signaling answer (with DTLS fingerprint). |
| 2754 // 2. 9 media hops: Rest of the DTLS handshake. 3 hops in each direction when |
| 2755 // using TURN<->TURN pair, and DTLS exchange is 4 packets, |
| 2756 // the first of which should have arrived before the answer. |
| 2757 TEST_F(PeerConnectionIntegrationTest, EndToEndConnectionTimeWithTurnTurnPair) { |
| 2758 rtc::ScopedFakeClock fake_clock; |
| 2759 // Some things use a time of "0" as a special value, so we need to start out |
| 2760 // the fake clock at a nonzero time. |
| 2761 // TODO(deadbeef): Fix this. |
| 2762 fake_clock.AdvanceTime(rtc::TimeDelta::FromSeconds(1)); |
| 2763 |
| 2764 static constexpr int media_hop_delay_ms = 50; |
| 2765 static constexpr int signaling_trip_delay_ms = 500; |
| 2766 // For explanation of these values, see comment above. |
| 2767 static constexpr int required_media_hops = 9; |
| 2768 static constexpr int required_signaling_trips = 2; |
| 2769 // For internal delays (such as posting an event asychronously). |
| 2770 static constexpr int allowed_internal_delay_ms = 20; |
| 2771 static constexpr int total_connection_time_ms = |
| 2772 media_hop_delay_ms * required_media_hops + |
| 2773 signaling_trip_delay_ms * required_signaling_trips + |
| 2774 allowed_internal_delay_ms; |
| 2775 |
| 2776 static const rtc::SocketAddress turn_server_1_internal_address{"88.88.88.0", |
| 2777 3478}; |
| 2778 static const rtc::SocketAddress turn_server_1_external_address{"88.88.88.1", |
| 2779 0}; |
| 2780 static const rtc::SocketAddress turn_server_2_internal_address{"99.99.99.0", |
| 2781 3478}; |
| 2782 static const rtc::SocketAddress turn_server_2_external_address{"99.99.99.1", |
| 2783 0}; |
| 2784 cricket::TestTurnServer turn_server_1(network_thread(), |
| 2785 turn_server_1_internal_address, |
| 2786 turn_server_1_external_address); |
| 2787 cricket::TestTurnServer turn_server_2(network_thread(), |
| 2788 turn_server_2_internal_address, |
| 2789 turn_server_2_external_address); |
| 2790 // Bypass permission check on received packets so media can be sent before |
| 2791 // the candidate is signaled. |
| 2792 turn_server_1.set_enable_permission_checks(false); |
| 2793 turn_server_2.set_enable_permission_checks(false); |
| 2794 |
| 2795 PeerConnectionInterface::RTCConfiguration client_1_config; |
| 2796 webrtc::PeerConnectionInterface::IceServer ice_server_1; |
| 2797 ice_server_1.urls.push_back("turn:88.88.88.0:3478"); |
| 2798 ice_server_1.username = "test"; |
| 2799 ice_server_1.password = "test"; |
| 2800 client_1_config.servers.push_back(ice_server_1); |
| 2801 client_1_config.type = webrtc::PeerConnectionInterface::kRelay; |
| 2802 client_1_config.presume_writable_when_fully_relayed = true; |
| 2803 |
| 2804 PeerConnectionInterface::RTCConfiguration client_2_config; |
| 2805 webrtc::PeerConnectionInterface::IceServer ice_server_2; |
| 2806 ice_server_2.urls.push_back("turn:99.99.99.0:3478"); |
| 2807 ice_server_2.username = "test"; |
| 2808 ice_server_2.password = "test"; |
| 2809 client_2_config.servers.push_back(ice_server_2); |
| 2810 client_2_config.type = webrtc::PeerConnectionInterface::kRelay; |
| 2811 client_2_config.presume_writable_when_fully_relayed = true; |
| 2812 |
| 2813 ASSERT_TRUE( |
| 2814 CreatePeerConnectionWrappersWithConfig(client_1_config, client_2_config)); |
| 2815 // Set up the simulated delays. |
| 2816 SetSignalingDelayMs(signaling_trip_delay_ms); |
| 2817 ConnectFakeSignaling(); |
| 2818 virtual_socket_server()->set_delay_mean(media_hop_delay_ms); |
| 2819 virtual_socket_server()->UpdateDelayDistribution(); |
| 2820 |
| 2821 // Set "offer to receive audio/video" without adding any tracks, so we just |
| 2822 // set up ICE/DTLS with no media. |
| 2823 PeerConnectionInterface::RTCOfferAnswerOptions options; |
| 2824 options.offer_to_receive_audio = 1; |
| 2825 options.offer_to_receive_video = 1; |
| 2826 caller_pc_wrapper()->SetOfferAnswerOptions(options); |
| 2827 caller_pc_wrapper()->CreateSetAndSignalOffer(); |
| 2828 // TODO(deadbeef): kIceConnectionConnected currently means both ICE and DTLS |
| 2829 // are connected. This is an important distinction. Once we have separate ICE |
| 2830 // and DTLS state, this check needs to use the DTLS state. |
| 2831 EXPECT_TRUE_SIMULATED_WAIT( |
| 2832 (callee_pc_wrapper()->ice_connection_state() == |
| 2833 webrtc::PeerConnectionInterface::kIceConnectionConnected || |
| 2834 callee_pc_wrapper()->ice_connection_state() == |
| 2835 webrtc::PeerConnectionInterface::kIceConnectionCompleted) && |
| 2836 (caller_pc_wrapper()->ice_connection_state() == |
| 2837 webrtc::PeerConnectionInterface::kIceConnectionConnected || |
| 2838 caller_pc_wrapper()->ice_connection_state() == |
| 2839 webrtc::PeerConnectionInterface::kIceConnectionCompleted), |
| 2840 total_connection_time_ms, fake_clock); |
| 2841 // Need to free the clients here since they're using things we created on |
| 2842 // the stack. |
| 2843 delete SetCallerPcWrapperAndReturnCurrent(nullptr); |
| 2844 delete SetCalleePcWrapperAndReturnCurrent(nullptr); |
| 2845 } |
| 2846 |
| 2847 #endif // if !defined(THREAD_SANITIZER) |
| 2848 |
| 2849 } // namespace |
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