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22732 changed files with 4815320 additions and 2 deletions
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/*
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* Copyright 2017 The WebRTC project authors. All Rights Reserved.
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*
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* Use of this source code is governed by a BSD-style license
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* that can be found in the LICENSE file in the root of the source
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* tree. An additional intellectual property rights grant can be found
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* in the file PATENTS. All contributing project authors may
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* be found in the AUTHORS file in the root of the source tree.
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*/
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#include <memory>
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#include <set>
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#include <string>
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#include <utility>
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#include <vector>
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#include "absl/types/optional.h"
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#include "api/jsep.h"
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#include "api/jsep_session_description.h"
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#include "api/peer_connection_interface.h"
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#include "api/rtc_error.h"
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#include "api/scoped_refptr.h"
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#include "api/task_queue/default_task_queue_factory.h"
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#include "api/task_queue/task_queue_factory.h"
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#include "api/test/mock_async_dns_resolver.h"
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#include "media/base/media_engine.h"
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#include "p2p/base/port_allocator.h"
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#include "p2p/client/basic_port_allocator.h"
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#include "pc/peer_connection.h"
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#include "pc/peer_connection_factory.h"
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#include "pc/peer_connection_proxy.h"
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#include "pc/peer_connection_wrapper.h"
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#include "pc/sdp_utils.h"
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#include "pc/test/enable_fake_media.h"
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#include "pc/test/mock_peer_connection_observers.h"
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#include "pc/usage_pattern.h"
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#include "pc/webrtc_sdp.h"
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#include "rtc_base/arraysize.h"
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#include "rtc_base/checks.h"
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#include "rtc_base/fake_mdns_responder.h"
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#include "rtc_base/fake_network.h"
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#include "rtc_base/gunit.h"
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#include "rtc_base/mdns_responder_interface.h"
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#include "rtc_base/socket_address.h"
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#include "rtc_base/thread.h"
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#include "rtc_base/virtual_socket_server.h"
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#include "system_wrappers/include/metrics.h"
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#include "test/gmock.h"
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#include "test/gtest.h"
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namespace webrtc {
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using RTCConfiguration = PeerConnectionInterface::RTCConfiguration;
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using RTCOfferAnswerOptions = PeerConnectionInterface::RTCOfferAnswerOptions;
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using ::testing::NiceMock;
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using ::testing::Values;
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static const char kUsagePatternMetric[] = "WebRTC.PeerConnection.UsagePattern";
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static constexpr int kDefaultTimeout = 10000;
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static const rtc::SocketAddress kLocalAddrs[2] = {
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rtc::SocketAddress("1.1.1.1", 0), rtc::SocketAddress("2.2.2.2", 0)};
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static const rtc::SocketAddress kPrivateLocalAddress("10.1.1.1", 0);
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static const rtc::SocketAddress kPrivateIpv6LocalAddress("fd12:3456:789a:1::1",
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0);
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int MakeUsageFingerprint(std::set<UsageEvent> events) {
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int signature = 0;
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for (const auto it : events) {
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signature |= static_cast<int>(it);
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}
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return signature;
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}
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class PeerConnectionFactoryForUsageHistogramTest
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: public PeerConnectionFactory {
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public:
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PeerConnectionFactoryForUsageHistogramTest()
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: PeerConnectionFactory([] {
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PeerConnectionFactoryDependencies dependencies;
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dependencies.network_thread = rtc::Thread::Current();
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dependencies.worker_thread = rtc::Thread::Current();
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dependencies.signaling_thread = rtc::Thread::Current();
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dependencies.task_queue_factory = CreateDefaultTaskQueueFactory();
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EnableFakeMedia(dependencies);
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return dependencies;
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}()) {}
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};
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class PeerConnectionWrapperForUsageHistogramTest;
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typedef PeerConnectionWrapperForUsageHistogramTest* RawWrapperPtr;
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class ObserverForUsageHistogramTest : public MockPeerConnectionObserver {
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public:
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void OnIceCandidate(const IceCandidateInterface* candidate) override;
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void OnInterestingUsage(int usage_pattern) override {
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interesting_usage_detected_ = usage_pattern;
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}
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void PrepareToExchangeCandidates(RawWrapperPtr other) {
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candidate_target_ = other;
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}
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bool HaveDataChannel() { return last_datachannel_ != nullptr; }
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absl::optional<int> interesting_usage_detected() {
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return interesting_usage_detected_;
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}
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void ClearInterestingUsageDetector() {
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interesting_usage_detected_ = absl::optional<int>();
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}
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bool candidate_gathered() const { return candidate_gathered_; }
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private:
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absl::optional<int> interesting_usage_detected_;
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bool candidate_gathered_ = false;
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RawWrapperPtr candidate_target_; // Note: Not thread-safe against deletions.
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};
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class PeerConnectionWrapperForUsageHistogramTest
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: public PeerConnectionWrapper {
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public:
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using PeerConnectionWrapper::PeerConnectionWrapper;
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PeerConnection* GetInternalPeerConnection() {
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auto* pci =
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static_cast<PeerConnectionProxyWithInternal<PeerConnectionInterface>*>(
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pc());
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return static_cast<PeerConnection*>(pci->internal());
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}
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// Override with different return type
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ObserverForUsageHistogramTest* observer() {
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return static_cast<ObserverForUsageHistogramTest*>(
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PeerConnectionWrapper::observer());
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}
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void PrepareToExchangeCandidates(
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PeerConnectionWrapperForUsageHistogramTest* other) {
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observer()->PrepareToExchangeCandidates(other);
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other->observer()->PrepareToExchangeCandidates(this);
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}
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bool IsConnected() {
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return pc()->ice_connection_state() ==
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PeerConnectionInterface::kIceConnectionConnected ||
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pc()->ice_connection_state() ==
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PeerConnectionInterface::kIceConnectionCompleted;
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}
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bool HaveDataChannel() {
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return static_cast<ObserverForUsageHistogramTest*>(observer())
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->HaveDataChannel();
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}
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void BufferIceCandidate(const IceCandidateInterface* candidate) {
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std::string sdp;
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EXPECT_TRUE(candidate->ToString(&sdp));
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std::unique_ptr<IceCandidateInterface> candidate_copy(CreateIceCandidate(
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candidate->sdp_mid(), candidate->sdp_mline_index(), sdp, nullptr));
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buffered_candidates_.push_back(std::move(candidate_copy));
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}
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void AddBufferedIceCandidates() {
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for (const auto& candidate : buffered_candidates_) {
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EXPECT_TRUE(pc()->AddIceCandidate(candidate.get()));
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}
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buffered_candidates_.clear();
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}
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// This method performs the following actions in sequence:
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// 1. Exchange Offer and Answer.
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// 2. Exchange ICE candidates after both caller and callee complete
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// gathering.
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// 3. Wait for ICE to connect.
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//
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// This guarantees a deterministic sequence of events and also rules out the
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// occurrence of prflx candidates if the offer/answer signaling and the
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// candidate trickling race in order. In case prflx candidates need to be
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// simulated, see the approach used by tests below for that.
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bool ConnectTo(PeerConnectionWrapperForUsageHistogramTest* callee) {
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PrepareToExchangeCandidates(callee);
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if (!ExchangeOfferAnswerWith(callee)) {
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return false;
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}
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// Wait until the gathering completes before we signal the candidate.
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WAIT(observer()->ice_gathering_complete_, kDefaultTimeout);
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WAIT(callee->observer()->ice_gathering_complete_, kDefaultTimeout);
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AddBufferedIceCandidates();
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callee->AddBufferedIceCandidates();
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WAIT(IsConnected(), kDefaultTimeout);
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WAIT(callee->IsConnected(), kDefaultTimeout);
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return IsConnected() && callee->IsConnected();
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}
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bool GenerateOfferAndCollectCandidates() {
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auto offer = CreateOffer(RTCOfferAnswerOptions());
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if (!offer) {
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return false;
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}
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bool set_local_offer =
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SetLocalDescription(CloneSessionDescription(offer.get()));
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EXPECT_TRUE(set_local_offer);
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if (!set_local_offer) {
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return false;
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}
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EXPECT_TRUE_WAIT(observer()->ice_gathering_complete_, kDefaultTimeout);
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return true;
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}
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PeerConnectionInterface::IceGatheringState ice_gathering_state() {
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return pc()->ice_gathering_state();
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}
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private:
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// Candidates that have been sent but not yet configured
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std::vector<std::unique_ptr<IceCandidateInterface>> buffered_candidates_;
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};
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// Buffers candidates until we add them via AddBufferedIceCandidates.
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void ObserverForUsageHistogramTest::OnIceCandidate(
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const IceCandidateInterface* candidate) {
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// If target is not set, ignore. This happens in one-ended unit tests.
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if (candidate_target_) {
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this->candidate_target_->BufferIceCandidate(candidate);
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}
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candidate_gathered_ = true;
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}
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class PeerConnectionUsageHistogramTest : public ::testing::Test {
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protected:
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typedef std::unique_ptr<PeerConnectionWrapperForUsageHistogramTest>
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WrapperPtr;
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PeerConnectionUsageHistogramTest()
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: vss_(new rtc::VirtualSocketServer()),
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socket_factory_(new rtc::BasicPacketSocketFactory(vss_.get())),
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main_(vss_.get()) {
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metrics::Reset();
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}
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WrapperPtr CreatePeerConnection() {
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RTCConfiguration config;
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config.sdp_semantics = SdpSemantics::kUnifiedPlan;
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return CreatePeerConnection(
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config, PeerConnectionFactoryInterface::Options(), nullptr);
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}
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WrapperPtr CreatePeerConnection(const RTCConfiguration& config) {
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return CreatePeerConnection(
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config, PeerConnectionFactoryInterface::Options(), nullptr);
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}
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WrapperPtr CreatePeerConnectionWithMdns(const RTCConfiguration& config) {
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auto resolver_factory =
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std::make_unique<NiceMock<MockAsyncDnsResolverFactory>>();
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PeerConnectionDependencies deps(nullptr /* observer_in */);
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auto fake_network = NewFakeNetwork();
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fake_network->set_mdns_responder(
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std::make_unique<FakeMdnsResponder>(rtc::Thread::Current()));
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fake_network->AddInterface(NextLocalAddress());
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std::unique_ptr<cricket::BasicPortAllocator> port_allocator(
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new cricket::BasicPortAllocator(fake_network, socket_factory_.get()));
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deps.async_dns_resolver_factory = std::move(resolver_factory);
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deps.allocator = std::move(port_allocator);
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return CreatePeerConnection(
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config, PeerConnectionFactoryInterface::Options(), std::move(deps));
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}
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WrapperPtr CreatePeerConnectionWithImmediateReport() {
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RTCConfiguration configuration;
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configuration.sdp_semantics = SdpSemantics::kUnifiedPlan;
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configuration.report_usage_pattern_delay_ms = 0;
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return CreatePeerConnection(
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configuration, PeerConnectionFactoryInterface::Options(), nullptr);
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}
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WrapperPtr CreatePeerConnectionWithPrivateLocalAddresses() {
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auto* fake_network = NewFakeNetwork();
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fake_network->AddInterface(NextLocalAddress());
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fake_network->AddInterface(kPrivateLocalAddress);
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auto port_allocator = std::make_unique<cricket::BasicPortAllocator>(
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fake_network, socket_factory_.get());
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RTCConfiguration config;
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config.sdp_semantics = SdpSemantics::kUnifiedPlan;
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return CreatePeerConnection(config,
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PeerConnectionFactoryInterface::Options(),
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std::move(port_allocator));
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}
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WrapperPtr CreatePeerConnectionWithPrivateIpv6LocalAddresses() {
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auto* fake_network = NewFakeNetwork();
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fake_network->AddInterface(NextLocalAddress());
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fake_network->AddInterface(kPrivateIpv6LocalAddress);
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auto port_allocator = std::make_unique<cricket::BasicPortAllocator>(
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fake_network, socket_factory_.get());
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RTCConfiguration config;
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config.sdp_semantics = SdpSemantics::kUnifiedPlan;
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return CreatePeerConnection(config,
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PeerConnectionFactoryInterface::Options(),
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std::move(port_allocator));
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}
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WrapperPtr CreatePeerConnection(
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const RTCConfiguration& config,
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const PeerConnectionFactoryInterface::Options factory_options,
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std::unique_ptr<cricket::PortAllocator> allocator) {
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PeerConnectionDependencies deps(nullptr);
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deps.allocator = std::move(allocator);
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return CreatePeerConnection(config, factory_options, std::move(deps));
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}
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WrapperPtr CreatePeerConnection(
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const RTCConfiguration& config,
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const PeerConnectionFactoryInterface::Options factory_options,
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PeerConnectionDependencies deps) {
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auto pc_factory =
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rtc::make_ref_counted<PeerConnectionFactoryForUsageHistogramTest>();
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pc_factory->SetOptions(factory_options);
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// If no allocator is provided, one will be created using a network manager
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// that uses the host network. This doesn't work on all trybots.
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if (!deps.allocator) {
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auto fake_network = NewFakeNetwork();
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fake_network->AddInterface(NextLocalAddress());
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deps.allocator = std::make_unique<cricket::BasicPortAllocator>(
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fake_network, socket_factory_.get());
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}
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auto observer = std::make_unique<ObserverForUsageHistogramTest>();
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deps.observer = observer.get();
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auto result =
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pc_factory->CreatePeerConnectionOrError(config, std::move(deps));
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if (!result.ok()) {
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return nullptr;
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}
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observer->SetPeerConnectionInterface(result.value().get());
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auto wrapper = std::make_unique<PeerConnectionWrapperForUsageHistogramTest>(
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pc_factory, result.MoveValue(), std::move(observer));
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return wrapper;
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}
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int ObservedFingerprint() {
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// This works correctly only if there is only one sample value
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// that has been counted.
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// Returns -1 for "not found".
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return metrics::MinSample(kUsagePatternMetric);
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}
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// The PeerConnection's port allocator is tied to the PeerConnection's
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// lifetime and expects the underlying NetworkManager to outlive it. That
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// prevents us from having the PeerConnectionWrapper own the fake network.
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// Therefore, the test fixture will own all the fake networks even though
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// tests should access the fake network through the PeerConnectionWrapper.
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rtc::FakeNetworkManager* NewFakeNetwork() {
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fake_networks_.emplace_back(std::make_unique<rtc::FakeNetworkManager>());
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return fake_networks_.back().get();
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}
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rtc::SocketAddress NextLocalAddress() {
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RTC_DCHECK(next_local_address_ < (int)arraysize(kLocalAddrs));
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return kLocalAddrs[next_local_address_++];
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}
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std::vector<std::unique_ptr<rtc::FakeNetworkManager>> fake_networks_;
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int next_local_address_ = 0;
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std::unique_ptr<rtc::VirtualSocketServer> vss_;
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std::unique_ptr<rtc::BasicPacketSocketFactory> socket_factory_;
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rtc::AutoSocketServerThread main_;
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};
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TEST_F(PeerConnectionUsageHistogramTest, UsageFingerprintHistogramFromTimeout) {
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auto pc = CreatePeerConnectionWithImmediateReport();
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int expected_fingerprint = MakeUsageFingerprint({});
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EXPECT_METRIC_EQ_WAIT(1, metrics::NumSamples(kUsagePatternMetric),
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kDefaultTimeout);
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EXPECT_METRIC_EQ(
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1, metrics::NumEvents(kUsagePatternMetric, expected_fingerprint));
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}
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#ifndef WEBRTC_ANDROID
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// These tests do not work on Android. Why is unclear.
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// https://bugs.webrtc.org/9461
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// Test getting the usage fingerprint for an audio/video connection.
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TEST_F(PeerConnectionUsageHistogramTest, FingerprintAudioVideo) {
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auto caller = CreatePeerConnection();
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auto callee = CreatePeerConnection();
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caller->AddAudioTrack("audio");
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caller->AddVideoTrack("video");
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ASSERT_TRUE(caller->ConnectTo(callee.get()));
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caller->pc()->Close();
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callee->pc()->Close();
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int expected_fingerprint = MakeUsageFingerprint(
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{UsageEvent::AUDIO_ADDED, UsageEvent::VIDEO_ADDED,
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UsageEvent::SET_LOCAL_DESCRIPTION_SUCCEEDED,
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UsageEvent::SET_REMOTE_DESCRIPTION_SUCCEEDED,
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UsageEvent::CANDIDATE_COLLECTED, UsageEvent::ADD_ICE_CANDIDATE_SUCCEEDED,
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UsageEvent::ICE_STATE_CONNECTED, UsageEvent::REMOTE_CANDIDATE_ADDED,
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UsageEvent::DIRECT_CONNECTION_SELECTED, UsageEvent::CLOSE_CALLED});
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// In this case, we may or may not have PRIVATE_CANDIDATE_COLLECTED,
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// depending on the machine configuration.
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EXPECT_METRIC_EQ(2, metrics::NumSamples(kUsagePatternMetric));
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EXPECT_METRIC_TRUE(
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metrics::NumEvents(kUsagePatternMetric, expected_fingerprint) == 2 ||
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metrics::NumEvents(
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kUsagePatternMetric,
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expected_fingerprint |
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static_cast<int>(UsageEvent::PRIVATE_CANDIDATE_COLLECTED)) == 2);
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}
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// Test getting the usage fingerprint when the caller collects an mDNS
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// candidate.
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TEST_F(PeerConnectionUsageHistogramTest, FingerprintWithMdnsCaller) {
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RTCConfiguration config;
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config.sdp_semantics = SdpSemantics::kUnifiedPlan;
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// Enable hostname candidates with mDNS names.
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auto caller = CreatePeerConnectionWithMdns(config);
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auto callee = CreatePeerConnection(config);
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caller->AddAudioTrack("audio");
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caller->AddVideoTrack("video");
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ASSERT_TRUE(caller->ConnectTo(callee.get()));
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caller->pc()->Close();
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callee->pc()->Close();
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int expected_fingerprint_caller = MakeUsageFingerprint(
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{UsageEvent::AUDIO_ADDED, UsageEvent::VIDEO_ADDED,
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UsageEvent::SET_LOCAL_DESCRIPTION_SUCCEEDED,
|
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UsageEvent::SET_REMOTE_DESCRIPTION_SUCCEEDED,
|
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UsageEvent::CANDIDATE_COLLECTED, UsageEvent::MDNS_CANDIDATE_COLLECTED,
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UsageEvent::ADD_ICE_CANDIDATE_SUCCEEDED, UsageEvent::ICE_STATE_CONNECTED,
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UsageEvent::REMOTE_CANDIDATE_ADDED,
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UsageEvent::DIRECT_CONNECTION_SELECTED, UsageEvent::CLOSE_CALLED});
|
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|
||||
// Without a resolver, the callee cannot resolve the received mDNS candidate
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// but can still connect with the caller via a prflx candidate. As a result,
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||||
// the bit for the direct connection should not be logged.
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int expected_fingerprint_callee = MakeUsageFingerprint(
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{UsageEvent::AUDIO_ADDED, UsageEvent::VIDEO_ADDED,
|
||||
UsageEvent::SET_LOCAL_DESCRIPTION_SUCCEEDED,
|
||||
UsageEvent::SET_REMOTE_DESCRIPTION_SUCCEEDED,
|
||||
UsageEvent::CANDIDATE_COLLECTED, UsageEvent::ADD_ICE_CANDIDATE_SUCCEEDED,
|
||||
UsageEvent::REMOTE_MDNS_CANDIDATE_ADDED, UsageEvent::ICE_STATE_CONNECTED,
|
||||
UsageEvent::REMOTE_CANDIDATE_ADDED, UsageEvent::CLOSE_CALLED});
|
||||
EXPECT_METRIC_EQ(2, metrics::NumSamples(kUsagePatternMetric));
|
||||
EXPECT_METRIC_EQ(
|
||||
1, metrics::NumEvents(kUsagePatternMetric, expected_fingerprint_caller));
|
||||
EXPECT_METRIC_EQ(
|
||||
1, metrics::NumEvents(kUsagePatternMetric, expected_fingerprint_callee));
|
||||
}
|
||||
|
||||
// Test getting the usage fingerprint when the callee collects an mDNS
|
||||
// candidate.
|
||||
TEST_F(PeerConnectionUsageHistogramTest, FingerprintWithMdnsCallee) {
|
||||
RTCConfiguration config;
|
||||
config.sdp_semantics = SdpSemantics::kUnifiedPlan;
|
||||
|
||||
// Enable hostname candidates with mDNS names.
|
||||
auto caller = CreatePeerConnection(config);
|
||||
auto callee = CreatePeerConnectionWithMdns(config);
|
||||
|
||||
caller->AddAudioTrack("audio");
|
||||
caller->AddVideoTrack("video");
|
||||
ASSERT_TRUE(caller->ConnectTo(callee.get()));
|
||||
caller->pc()->Close();
|
||||
callee->pc()->Close();
|
||||
|
||||
// Similar to the test above, the caller connects with the callee via a prflx
|
||||
// candidate.
|
||||
int expected_fingerprint_caller = MakeUsageFingerprint(
|
||||
{UsageEvent::AUDIO_ADDED, UsageEvent::VIDEO_ADDED,
|
||||
UsageEvent::SET_LOCAL_DESCRIPTION_SUCCEEDED,
|
||||
UsageEvent::SET_REMOTE_DESCRIPTION_SUCCEEDED,
|
||||
UsageEvent::CANDIDATE_COLLECTED, UsageEvent::ADD_ICE_CANDIDATE_SUCCEEDED,
|
||||
UsageEvent::REMOTE_MDNS_CANDIDATE_ADDED, UsageEvent::ICE_STATE_CONNECTED,
|
||||
UsageEvent::REMOTE_CANDIDATE_ADDED, UsageEvent::CLOSE_CALLED});
|
||||
|
||||
int expected_fingerprint_callee = MakeUsageFingerprint(
|
||||
{UsageEvent::AUDIO_ADDED, UsageEvent::VIDEO_ADDED,
|
||||
UsageEvent::SET_LOCAL_DESCRIPTION_SUCCEEDED,
|
||||
UsageEvent::SET_REMOTE_DESCRIPTION_SUCCEEDED,
|
||||
UsageEvent::CANDIDATE_COLLECTED, UsageEvent::MDNS_CANDIDATE_COLLECTED,
|
||||
UsageEvent::ADD_ICE_CANDIDATE_SUCCEEDED, UsageEvent::ICE_STATE_CONNECTED,
|
||||
UsageEvent::REMOTE_CANDIDATE_ADDED,
|
||||
UsageEvent::DIRECT_CONNECTION_SELECTED, UsageEvent::CLOSE_CALLED});
|
||||
EXPECT_METRIC_EQ(2, metrics::NumSamples(kUsagePatternMetric));
|
||||
EXPECT_METRIC_EQ(
|
||||
1, metrics::NumEvents(kUsagePatternMetric, expected_fingerprint_caller));
|
||||
EXPECT_METRIC_EQ(
|
||||
1, metrics::NumEvents(kUsagePatternMetric, expected_fingerprint_callee));
|
||||
}
|
||||
|
||||
#ifdef WEBRTC_HAVE_SCTP
|
||||
TEST_F(PeerConnectionUsageHistogramTest, FingerprintDataOnly) {
|
||||
auto caller = CreatePeerConnection();
|
||||
auto callee = CreatePeerConnection();
|
||||
caller->CreateDataChannel("foodata");
|
||||
ASSERT_TRUE(caller->ConnectTo(callee.get()));
|
||||
ASSERT_TRUE_WAIT(callee->HaveDataChannel(), kDefaultTimeout);
|
||||
caller->pc()->Close();
|
||||
callee->pc()->Close();
|
||||
int expected_fingerprint = MakeUsageFingerprint(
|
||||
{UsageEvent::DATA_ADDED, UsageEvent::SET_LOCAL_DESCRIPTION_SUCCEEDED,
|
||||
UsageEvent::SET_REMOTE_DESCRIPTION_SUCCEEDED,
|
||||
UsageEvent::CANDIDATE_COLLECTED, UsageEvent::ADD_ICE_CANDIDATE_SUCCEEDED,
|
||||
UsageEvent::ICE_STATE_CONNECTED, UsageEvent::REMOTE_CANDIDATE_ADDED,
|
||||
UsageEvent::DIRECT_CONNECTION_SELECTED, UsageEvent::CLOSE_CALLED});
|
||||
EXPECT_METRIC_EQ(2, metrics::NumSamples(kUsagePatternMetric));
|
||||
EXPECT_METRIC_TRUE(
|
||||
metrics::NumEvents(kUsagePatternMetric, expected_fingerprint) == 2 ||
|
||||
metrics::NumEvents(
|
||||
kUsagePatternMetric,
|
||||
expected_fingerprint |
|
||||
static_cast<int>(UsageEvent::PRIVATE_CANDIDATE_COLLECTED)) == 2);
|
||||
}
|
||||
#endif // WEBRTC_HAVE_SCTP
|
||||
#endif // WEBRTC_ANDROID
|
||||
|
||||
TEST_F(PeerConnectionUsageHistogramTest, FingerprintStunTurn) {
|
||||
RTCConfiguration configuration;
|
||||
configuration.sdp_semantics = SdpSemantics::kUnifiedPlan;
|
||||
PeerConnection::IceServer server;
|
||||
server.urls = {"stun:dummy.stun.server"};
|
||||
configuration.servers.push_back(server);
|
||||
server.urls = {"turn:dummy.turn.server"};
|
||||
server.username = "username";
|
||||
server.password = "password";
|
||||
configuration.servers.push_back(server);
|
||||
auto caller = CreatePeerConnection(configuration);
|
||||
ASSERT_TRUE(caller);
|
||||
caller->pc()->Close();
|
||||
int expected_fingerprint = MakeUsageFingerprint(
|
||||
{UsageEvent::STUN_SERVER_ADDED, UsageEvent::TURN_SERVER_ADDED,
|
||||
UsageEvent::CLOSE_CALLED});
|
||||
EXPECT_METRIC_EQ(1, metrics::NumSamples(kUsagePatternMetric));
|
||||
EXPECT_METRIC_EQ(
|
||||
1, metrics::NumEvents(kUsagePatternMetric, expected_fingerprint));
|
||||
}
|
||||
|
||||
TEST_F(PeerConnectionUsageHistogramTest, FingerprintStunTurnInReconfiguration) {
|
||||
RTCConfiguration configuration;
|
||||
configuration.sdp_semantics = SdpSemantics::kUnifiedPlan;
|
||||
PeerConnection::IceServer server;
|
||||
server.urls = {"stun:dummy.stun.server"};
|
||||
configuration.servers.push_back(server);
|
||||
server.urls = {"turn:dummy.turn.server"};
|
||||
server.username = "username";
|
||||
server.password = "password";
|
||||
configuration.servers.push_back(server);
|
||||
auto caller = CreatePeerConnection();
|
||||
ASSERT_TRUE(caller);
|
||||
ASSERT_TRUE(caller->pc()->SetConfiguration(configuration).ok());
|
||||
caller->pc()->Close();
|
||||
int expected_fingerprint = MakeUsageFingerprint(
|
||||
{UsageEvent::STUN_SERVER_ADDED, UsageEvent::TURN_SERVER_ADDED,
|
||||
UsageEvent::CLOSE_CALLED});
|
||||
EXPECT_METRIC_EQ(1, metrics::NumSamples(kUsagePatternMetric));
|
||||
EXPECT_METRIC_EQ(
|
||||
1, metrics::NumEvents(kUsagePatternMetric, expected_fingerprint));
|
||||
}
|
||||
|
||||
TEST_F(PeerConnectionUsageHistogramTest, FingerprintWithPrivateIPCaller) {
|
||||
auto caller = CreatePeerConnectionWithPrivateLocalAddresses();
|
||||
auto callee = CreatePeerConnection();
|
||||
caller->AddAudioTrack("audio");
|
||||
ASSERT_TRUE(caller->ConnectTo(callee.get()));
|
||||
caller->pc()->Close();
|
||||
callee->pc()->Close();
|
||||
|
||||
int expected_fingerprint_caller = MakeUsageFingerprint(
|
||||
{UsageEvent::AUDIO_ADDED, UsageEvent::SET_LOCAL_DESCRIPTION_SUCCEEDED,
|
||||
UsageEvent::SET_REMOTE_DESCRIPTION_SUCCEEDED,
|
||||
UsageEvent::CANDIDATE_COLLECTED, UsageEvent::PRIVATE_CANDIDATE_COLLECTED,
|
||||
UsageEvent::ADD_ICE_CANDIDATE_SUCCEEDED, UsageEvent::ICE_STATE_CONNECTED,
|
||||
UsageEvent::REMOTE_CANDIDATE_ADDED,
|
||||
UsageEvent::DIRECT_CONNECTION_SELECTED, UsageEvent::CLOSE_CALLED});
|
||||
|
||||
int expected_fingerprint_callee = MakeUsageFingerprint(
|
||||
{UsageEvent::AUDIO_ADDED, UsageEvent::SET_LOCAL_DESCRIPTION_SUCCEEDED,
|
||||
UsageEvent::SET_REMOTE_DESCRIPTION_SUCCEEDED,
|
||||
UsageEvent::CANDIDATE_COLLECTED, UsageEvent::ADD_ICE_CANDIDATE_SUCCEEDED,
|
||||
UsageEvent::REMOTE_PRIVATE_CANDIDATE_ADDED,
|
||||
UsageEvent::ICE_STATE_CONNECTED, UsageEvent::REMOTE_CANDIDATE_ADDED,
|
||||
UsageEvent::DIRECT_CONNECTION_SELECTED, UsageEvent::CLOSE_CALLED});
|
||||
EXPECT_METRIC_EQ(2, metrics::NumSamples(kUsagePatternMetric));
|
||||
EXPECT_METRIC_EQ(
|
||||
1, metrics::NumEvents(kUsagePatternMetric, expected_fingerprint_caller));
|
||||
EXPECT_METRIC_EQ(
|
||||
1, metrics::NumEvents(kUsagePatternMetric, expected_fingerprint_callee));
|
||||
}
|
||||
|
||||
TEST_F(PeerConnectionUsageHistogramTest, FingerprintWithPrivateIpv6Callee) {
|
||||
auto caller = CreatePeerConnection();
|
||||
auto callee = CreatePeerConnectionWithPrivateIpv6LocalAddresses();
|
||||
caller->AddAudioTrack("audio");
|
||||
ASSERT_TRUE(caller->ConnectTo(callee.get()));
|
||||
caller->pc()->Close();
|
||||
callee->pc()->Close();
|
||||
|
||||
int expected_fingerprint_caller = MakeUsageFingerprint(
|
||||
{UsageEvent::AUDIO_ADDED, UsageEvent::SET_LOCAL_DESCRIPTION_SUCCEEDED,
|
||||
UsageEvent::SET_REMOTE_DESCRIPTION_SUCCEEDED,
|
||||
UsageEvent::CANDIDATE_COLLECTED, UsageEvent::ADD_ICE_CANDIDATE_SUCCEEDED,
|
||||
UsageEvent::REMOTE_PRIVATE_CANDIDATE_ADDED,
|
||||
UsageEvent::ICE_STATE_CONNECTED, UsageEvent::REMOTE_CANDIDATE_ADDED,
|
||||
UsageEvent::REMOTE_IPV6_CANDIDATE_ADDED,
|
||||
UsageEvent::DIRECT_CONNECTION_SELECTED, UsageEvent::CLOSE_CALLED});
|
||||
|
||||
int expected_fingerprint_callee = MakeUsageFingerprint(
|
||||
{UsageEvent::AUDIO_ADDED, UsageEvent::SET_LOCAL_DESCRIPTION_SUCCEEDED,
|
||||
UsageEvent::SET_REMOTE_DESCRIPTION_SUCCEEDED,
|
||||
UsageEvent::CANDIDATE_COLLECTED, UsageEvent::PRIVATE_CANDIDATE_COLLECTED,
|
||||
UsageEvent::IPV6_CANDIDATE_COLLECTED,
|
||||
UsageEvent::ADD_ICE_CANDIDATE_SUCCEEDED,
|
||||
UsageEvent::REMOTE_CANDIDATE_ADDED, UsageEvent::ICE_STATE_CONNECTED,
|
||||
UsageEvent::DIRECT_CONNECTION_SELECTED, UsageEvent::CLOSE_CALLED});
|
||||
EXPECT_METRIC_EQ(2, metrics::NumSamples(kUsagePatternMetric));
|
||||
EXPECT_METRIC_EQ(
|
||||
1, metrics::NumEvents(kUsagePatternMetric, expected_fingerprint_caller));
|
||||
EXPECT_METRIC_EQ(
|
||||
1, metrics::NumEvents(kUsagePatternMetric, expected_fingerprint_callee));
|
||||
}
|
||||
|
||||
#ifndef WEBRTC_ANDROID
|
||||
#ifdef WEBRTC_HAVE_SCTP
|
||||
// Test that the usage pattern bits for adding remote (private IPv6) candidates
|
||||
// are set when the remote candidates are retrieved from the Offer SDP instead
|
||||
// of trickled ICE messages.
|
||||
TEST_F(PeerConnectionUsageHistogramTest,
|
||||
AddRemoteCandidatesFromRemoteDescription) {
|
||||
// We construct the following data-channel-only scenario. The caller collects
|
||||
// IPv6 private local candidates and appends them in the Offer as in
|
||||
// non-trickled sessions. The callee collects mDNS candidates that are not
|
||||
// contained in the Answer as in Trickle ICE. Only the Offer and Answer are
|
||||
// signaled and we expect a connection with prflx remote candidates at the
|
||||
// caller side.
|
||||
auto caller = CreatePeerConnectionWithPrivateIpv6LocalAddresses();
|
||||
RTCConfiguration config;
|
||||
config.sdp_semantics = SdpSemantics::kUnifiedPlan;
|
||||
auto callee = CreatePeerConnectionWithMdns(config);
|
||||
caller->CreateDataChannel("test_channel");
|
||||
ASSERT_TRUE(caller->SetLocalDescription(caller->CreateOffer()));
|
||||
// Wait until the gathering completes so that the session description would
|
||||
// have contained ICE candidates.
|
||||
EXPECT_EQ_WAIT(PeerConnectionInterface::kIceGatheringComplete,
|
||||
caller->ice_gathering_state(), kDefaultTimeout);
|
||||
EXPECT_TRUE(caller->observer()->candidate_gathered());
|
||||
// Get the current offer that contains candidates and pass it to the callee.
|
||||
//
|
||||
// Note that we cannot use CloneSessionDescription on `cur_offer` to obtain an
|
||||
// SDP with candidates. The method above does not strictly copy everything, in
|
||||
// particular, not copying the ICE candidates.
|
||||
// TODO(qingsi): Technically, this is a bug. Fix it.
|
||||
auto cur_offer = caller->pc()->local_description();
|
||||
ASSERT_TRUE(cur_offer);
|
||||
std::string sdp_with_candidates_str;
|
||||
cur_offer->ToString(&sdp_with_candidates_str);
|
||||
auto offer = std::make_unique<JsepSessionDescription>(SdpType::kOffer);
|
||||
ASSERT_TRUE(SdpDeserialize(sdp_with_candidates_str, offer.get(),
|
||||
nullptr /* error */));
|
||||
ASSERT_TRUE(callee->SetRemoteDescription(std::move(offer)));
|
||||
|
||||
// By default, the Answer created does not contain ICE candidates.
|
||||
auto answer = callee->CreateAnswer();
|
||||
callee->SetLocalDescription(CloneSessionDescription(answer.get()));
|
||||
caller->SetRemoteDescription(std::move(answer));
|
||||
EXPECT_TRUE_WAIT(caller->IsConnected(), kDefaultTimeout);
|
||||
EXPECT_TRUE_WAIT(callee->IsConnected(), kDefaultTimeout);
|
||||
// The callee needs to process the open message to have the data channel open.
|
||||
EXPECT_TRUE_WAIT(callee->observer()->last_datachannel_ != nullptr,
|
||||
kDefaultTimeout);
|
||||
caller->pc()->Close();
|
||||
callee->pc()->Close();
|
||||
|
||||
// The caller should not have added any remote candidate either via
|
||||
// AddIceCandidate or from the remote description. Also, the caller connects
|
||||
// with the callee via a prflx candidate and hence no direct connection bit
|
||||
// should be set.
|
||||
int expected_fingerprint_caller = MakeUsageFingerprint(
|
||||
{UsageEvent::DATA_ADDED, UsageEvent::SET_LOCAL_DESCRIPTION_SUCCEEDED,
|
||||
UsageEvent::SET_REMOTE_DESCRIPTION_SUCCEEDED,
|
||||
UsageEvent::CANDIDATE_COLLECTED, UsageEvent::PRIVATE_CANDIDATE_COLLECTED,
|
||||
UsageEvent::IPV6_CANDIDATE_COLLECTED, UsageEvent::ICE_STATE_CONNECTED,
|
||||
UsageEvent::CLOSE_CALLED});
|
||||
|
||||
int expected_fingerprint_callee = MakeUsageFingerprint(
|
||||
{UsageEvent::DATA_ADDED, UsageEvent::SET_LOCAL_DESCRIPTION_SUCCEEDED,
|
||||
UsageEvent::SET_REMOTE_DESCRIPTION_SUCCEEDED,
|
||||
UsageEvent::CANDIDATE_COLLECTED, UsageEvent::MDNS_CANDIDATE_COLLECTED,
|
||||
UsageEvent::REMOTE_CANDIDATE_ADDED,
|
||||
UsageEvent::REMOTE_PRIVATE_CANDIDATE_ADDED,
|
||||
UsageEvent::REMOTE_IPV6_CANDIDATE_ADDED, UsageEvent::ICE_STATE_CONNECTED,
|
||||
UsageEvent::DIRECT_CONNECTION_SELECTED, UsageEvent::CLOSE_CALLED});
|
||||
EXPECT_METRIC_EQ(2, metrics::NumSamples(kUsagePatternMetric));
|
||||
EXPECT_METRIC_EQ(
|
||||
1, metrics::NumEvents(kUsagePatternMetric, expected_fingerprint_caller));
|
||||
EXPECT_METRIC_EQ(
|
||||
1, metrics::NumEvents(kUsagePatternMetric, expected_fingerprint_callee));
|
||||
}
|
||||
|
||||
TEST_F(PeerConnectionUsageHistogramTest, NotableUsageNoted) {
|
||||
auto caller = CreatePeerConnection();
|
||||
caller->CreateDataChannel("foo");
|
||||
caller->GenerateOfferAndCollectCandidates();
|
||||
caller->pc()->Close();
|
||||
int expected_fingerprint = MakeUsageFingerprint(
|
||||
{UsageEvent::DATA_ADDED, UsageEvent::SET_LOCAL_DESCRIPTION_SUCCEEDED,
|
||||
UsageEvent::CANDIDATE_COLLECTED, UsageEvent::CLOSE_CALLED});
|
||||
EXPECT_METRIC_EQ(1, metrics::NumSamples(kUsagePatternMetric));
|
||||
EXPECT_METRIC_TRUE(
|
||||
expected_fingerprint == ObservedFingerprint() ||
|
||||
(expected_fingerprint |
|
||||
static_cast<int>(UsageEvent::PRIVATE_CANDIDATE_COLLECTED)) ==
|
||||
ObservedFingerprint());
|
||||
EXPECT_METRIC_EQ(absl::make_optional(ObservedFingerprint()),
|
||||
caller->observer()->interesting_usage_detected());
|
||||
}
|
||||
|
||||
TEST_F(PeerConnectionUsageHistogramTest, NotableUsageOnEventFiring) {
|
||||
auto caller = CreatePeerConnection();
|
||||
caller->CreateDataChannel("foo");
|
||||
caller->GenerateOfferAndCollectCandidates();
|
||||
int expected_fingerprint = MakeUsageFingerprint(
|
||||
{UsageEvent::DATA_ADDED, UsageEvent::SET_LOCAL_DESCRIPTION_SUCCEEDED,
|
||||
UsageEvent::CANDIDATE_COLLECTED});
|
||||
EXPECT_METRIC_EQ(0, metrics::NumSamples(kUsagePatternMetric));
|
||||
caller->GetInternalPeerConnection()->RequestUsagePatternReportForTesting();
|
||||
EXPECT_METRIC_EQ_WAIT(1, metrics::NumSamples(kUsagePatternMetric),
|
||||
kDefaultTimeout);
|
||||
EXPECT_METRIC_TRUE(
|
||||
expected_fingerprint == ObservedFingerprint() ||
|
||||
(expected_fingerprint |
|
||||
static_cast<int>(UsageEvent::PRIVATE_CANDIDATE_COLLECTED)) ==
|
||||
ObservedFingerprint());
|
||||
EXPECT_METRIC_EQ(absl::make_optional(ObservedFingerprint()),
|
||||
caller->observer()->interesting_usage_detected());
|
||||
}
|
||||
|
||||
TEST_F(PeerConnectionUsageHistogramTest,
|
||||
NoNotableUsageOnEventFiringAfterClose) {
|
||||
auto caller = CreatePeerConnection();
|
||||
caller->CreateDataChannel("foo");
|
||||
caller->GenerateOfferAndCollectCandidates();
|
||||
int expected_fingerprint = MakeUsageFingerprint(
|
||||
{UsageEvent::DATA_ADDED, UsageEvent::SET_LOCAL_DESCRIPTION_SUCCEEDED,
|
||||
UsageEvent::CANDIDATE_COLLECTED, UsageEvent::CLOSE_CALLED});
|
||||
EXPECT_METRIC_EQ(0, metrics::NumSamples(kUsagePatternMetric));
|
||||
caller->pc()->Close();
|
||||
EXPECT_METRIC_EQ(1, metrics::NumSamples(kUsagePatternMetric));
|
||||
caller->GetInternalPeerConnection()->RequestUsagePatternReportForTesting();
|
||||
caller->observer()->ClearInterestingUsageDetector();
|
||||
EXPECT_METRIC_EQ_WAIT(2, metrics::NumSamples(kUsagePatternMetric),
|
||||
kDefaultTimeout);
|
||||
EXPECT_METRIC_TRUE(
|
||||
expected_fingerprint == ObservedFingerprint() ||
|
||||
(expected_fingerprint |
|
||||
static_cast<int>(UsageEvent::PRIVATE_CANDIDATE_COLLECTED)) ==
|
||||
ObservedFingerprint());
|
||||
// After close, the usage-detection callback should NOT have been called.
|
||||
EXPECT_METRIC_FALSE(caller->observer()->interesting_usage_detected());
|
||||
}
|
||||
#endif
|
||||
#endif
|
||||
|
||||
} // namespace webrtc
|
||||
Loading…
Add table
Add a link
Reference in a new issue