// Copyright 2014 The Chromium Authors. All rights reserved. // Use of this source code is governed by a BSD-style license that can be // found in the LICENSE file. #include "components/gcm_driver/gcm_driver_desktop.h" #include "base/bind.h" #include "base/bind_helpers.h" #include "base/files/scoped_temp_dir.h" #include "base/location.h" #include "base/metrics/field_trial.h" #include "base/prefs/pref_registry_simple.h" #include "base/prefs/testing_pref_service.h" #include "base/run_loop.h" #include "base/strings/string_util.h" #include "base/test/test_simple_task_runner.h" #include "base/thread_task_runner_handle.h" #include "base/threading/thread.h" #include "components/gcm_driver/fake_gcm_app_handler.h" #include "components/gcm_driver/fake_gcm_client.h" #include "components/gcm_driver/fake_gcm_client_factory.h" #include "components/gcm_driver/gcm_app_handler.h" #include "components/gcm_driver/gcm_channel_status_request.h" #include "components/gcm_driver/gcm_channel_status_syncer.h" #include "components/gcm_driver/gcm_client_factory.h" #include "components/gcm_driver/gcm_connection_observer.h" #include "net/url_request/test_url_fetcher_factory.h" #include "net/url_request/url_fetcher_delegate.h" #include "net/url_request/url_request_context_getter.h" #include "net/url_request/url_request_test_util.h" #include "sync/protocol/experiment_status.pb.h" #include "sync/protocol/experiments_specifics.pb.h" #include "testing/gtest/include/gtest/gtest.h" namespace gcm { namespace { const char kTestAppID1[] = "TestApp1"; const char kTestAppID2[] = "TestApp2"; const char kUserID1[] = "user1"; const char kScope[] = "GCM"; const char kInstanceID1[] = "IID1"; const char kInstanceID2[] = "IID2"; class FakeGCMConnectionObserver : public GCMConnectionObserver { public: FakeGCMConnectionObserver(); ~FakeGCMConnectionObserver() override; // gcm::GCMConnectionObserver implementation: void OnConnected(const net::IPEndPoint& ip_endpoint) override; void OnDisconnected() override; bool connected() const { return connected_; } private: bool connected_; }; FakeGCMConnectionObserver::FakeGCMConnectionObserver() : connected_(false) { } FakeGCMConnectionObserver::~FakeGCMConnectionObserver() { } void FakeGCMConnectionObserver::OnConnected( const net::IPEndPoint& ip_endpoint) { connected_ = true; } void FakeGCMConnectionObserver::OnDisconnected() { connected_ = false; } void PumpCurrentLoop() { base::MessageLoop::ScopedNestableTaskAllower nestable_task_allower(base::MessageLoop::current()); base::RunLoop().RunUntilIdle(); } void PumpUILoop() { PumpCurrentLoop(); } std::vector ToSenderList(const std::string& sender_ids) { return base::SplitString( sender_ids, ",", base::KEEP_WHITESPACE, base::SPLIT_WANT_NONEMPTY); } } // namespace class GCMDriverTest : public testing::Test { public: enum WaitToFinish { DO_NOT_WAIT, WAIT }; GCMDriverTest(); ~GCMDriverTest() override; // testing::Test: void SetUp() override; void TearDown() override; GCMDriverDesktop* driver() { return driver_.get(); } FakeGCMAppHandler* gcm_app_handler() { return gcm_app_handler_.get(); } FakeGCMConnectionObserver* gcm_connection_observer() { return gcm_connection_observer_.get(); } const std::string& registration_id() const { return registration_id_; } GCMClient::Result registration_result() const { return registration_result_; } const std::string& send_message_id() const { return send_message_id_; } GCMClient::Result send_result() const { return send_result_; } GCMClient::Result unregistration_result() const { return unregistration_result_; } void PumpIOLoop(); void ClearResults(); bool HasAppHandlers() const; FakeGCMClient* GetGCMClient(); void CreateDriver(); void ShutdownDriver(); void AddAppHandlers(); void RemoveAppHandlers(); void Register(const std::string& app_id, const std::vector& sender_ids, WaitToFinish wait_to_finish); void Send(const std::string& app_id, const std::string& receiver_id, const OutgoingMessage& message, WaitToFinish wait_to_finish); void Unregister(const std::string& app_id, WaitToFinish wait_to_finish); void WaitForAsyncOperation(); void RegisterCompleted(const std::string& registration_id, GCMClient::Result result); void SendCompleted(const std::string& message_id, GCMClient::Result result); void UnregisterCompleted(GCMClient::Result result); const base::Closure& async_operation_completed_callback() const { return async_operation_completed_callback_; } void set_async_operation_completed_callback(const base::Closure& callback) { async_operation_completed_callback_ = callback; } private: base::ScopedTempDir temp_dir_; TestingPrefServiceSimple prefs_; scoped_refptr task_runner_; base::MessageLoopForUI message_loop_; base::Thread io_thread_; base::FieldTrialList field_trial_list_; scoped_ptr driver_; scoped_ptr gcm_app_handler_; scoped_ptr gcm_connection_observer_; base::Closure async_operation_completed_callback_; std::string registration_id_; GCMClient::Result registration_result_; std::string send_message_id_; GCMClient::Result send_result_; GCMClient::Result unregistration_result_; DISALLOW_COPY_AND_ASSIGN(GCMDriverTest); }; GCMDriverTest::GCMDriverTest() : task_runner_(new base::TestSimpleTaskRunner()), io_thread_("IOThread"), field_trial_list_(NULL), registration_result_(GCMClient::UNKNOWN_ERROR), send_result_(GCMClient::UNKNOWN_ERROR), unregistration_result_(GCMClient::UNKNOWN_ERROR) { } GCMDriverTest::~GCMDriverTest() { } void GCMDriverTest::SetUp() { GCMChannelStatusSyncer::RegisterPrefs(prefs_.registry()); io_thread_.Start(); ASSERT_TRUE(temp_dir_.CreateUniqueTempDir()); } void GCMDriverTest::TearDown() { if (!driver_) return; ShutdownDriver(); driver_.reset(); PumpIOLoop(); io_thread_.Stop(); } void GCMDriverTest::PumpIOLoop() { base::RunLoop run_loop; io_thread_.task_runner()->PostTaskAndReply( FROM_HERE, base::Bind(&PumpCurrentLoop), run_loop.QuitClosure()); run_loop.Run(); } void GCMDriverTest::ClearResults() { registration_id_.clear(); registration_result_ = GCMClient::UNKNOWN_ERROR; send_message_id_.clear(); send_result_ = GCMClient::UNKNOWN_ERROR; unregistration_result_ = GCMClient::UNKNOWN_ERROR; } bool GCMDriverTest::HasAppHandlers() const { return !driver_->app_handlers().empty(); } FakeGCMClient* GCMDriverTest::GetGCMClient() { return static_cast(driver_->GetGCMClientForTesting()); } void GCMDriverTest::CreateDriver() { scoped_refptr request_context = new net::TestURLRequestContextGetter(io_thread_.task_runner()); // TODO(johnme): Need equivalent test coverage of GCMDriverAndroid. driver_.reset(new GCMDriverDesktop( scoped_ptr( new FakeGCMClientFactory(base::ThreadTaskRunnerHandle::Get(), io_thread_.task_runner())).Pass(), GCMClient::ChromeBuildInfo(), "http://channel.status.request.url", "user-agent-string", &prefs_, temp_dir_.path(), request_context, base::ThreadTaskRunnerHandle::Get(), io_thread_.task_runner(), task_runner_)); gcm_app_handler_.reset(new FakeGCMAppHandler); gcm_connection_observer_.reset(new FakeGCMConnectionObserver); driver_->AddConnectionObserver(gcm_connection_observer_.get()); } void GCMDriverTest::ShutdownDriver() { if (gcm_connection_observer()) driver()->RemoveConnectionObserver(gcm_connection_observer()); driver()->Shutdown(); } void GCMDriverTest::AddAppHandlers() { driver_->AddAppHandler(kTestAppID1, gcm_app_handler_.get()); driver_->AddAppHandler(kTestAppID2, gcm_app_handler_.get()); } void GCMDriverTest::RemoveAppHandlers() { driver_->RemoveAppHandler(kTestAppID1); driver_->RemoveAppHandler(kTestAppID2); } void GCMDriverTest::Register(const std::string& app_id, const std::vector& sender_ids, WaitToFinish wait_to_finish) { base::RunLoop run_loop; async_operation_completed_callback_ = run_loop.QuitClosure(); driver_->Register(app_id, sender_ids, base::Bind(&GCMDriverTest::RegisterCompleted, base::Unretained(this))); if (wait_to_finish == WAIT) run_loop.Run(); } void GCMDriverTest::Send(const std::string& app_id, const std::string& receiver_id, const OutgoingMessage& message, WaitToFinish wait_to_finish) { base::RunLoop run_loop; async_operation_completed_callback_ = run_loop.QuitClosure(); driver_->Send(app_id, receiver_id, message, base::Bind(&GCMDriverTest::SendCompleted, base::Unretained(this))); if (wait_to_finish == WAIT) run_loop.Run(); } void GCMDriverTest::Unregister(const std::string& app_id, WaitToFinish wait_to_finish) { base::RunLoop run_loop; async_operation_completed_callback_ = run_loop.QuitClosure(); driver_->Unregister(app_id, base::Bind(&GCMDriverTest::UnregisterCompleted, base::Unretained(this))); if (wait_to_finish == WAIT) run_loop.Run(); } void GCMDriverTest::WaitForAsyncOperation() { base::RunLoop run_loop; async_operation_completed_callback_ = run_loop.QuitClosure(); run_loop.Run(); } void GCMDriverTest::RegisterCompleted(const std::string& registration_id, GCMClient::Result result) { registration_id_ = registration_id; registration_result_ = result; if (!async_operation_completed_callback_.is_null()) async_operation_completed_callback_.Run(); } void GCMDriverTest::SendCompleted(const std::string& message_id, GCMClient::Result result) { send_message_id_ = message_id; send_result_ = result; if (!async_operation_completed_callback_.is_null()) async_operation_completed_callback_.Run(); } void GCMDriverTest::UnregisterCompleted(GCMClient::Result result) { unregistration_result_ = result; if (!async_operation_completed_callback_.is_null()) async_operation_completed_callback_.Run(); } TEST_F(GCMDriverTest, Create) { // Create GCMDriver first. By default GCM is set to delay start. CreateDriver(); EXPECT_FALSE(driver()->IsStarted()); // Adding an app handler will not start GCM. AddAppHandlers(); PumpIOLoop(); PumpUILoop(); EXPECT_FALSE(driver()->IsStarted()); EXPECT_FALSE(driver()->IsConnected()); EXPECT_FALSE(gcm_connection_observer()->connected()); // The GCM registration will kick off the GCM. Register(kTestAppID1, ToSenderList("sender"), GCMDriverTest::WAIT); EXPECT_TRUE(driver()->IsStarted()); EXPECT_TRUE(driver()->IsConnected()); EXPECT_TRUE(gcm_connection_observer()->connected()); } TEST_F(GCMDriverTest, Shutdown) { CreateDriver(); EXPECT_FALSE(HasAppHandlers()); AddAppHandlers(); EXPECT_TRUE(HasAppHandlers()); ShutdownDriver(); EXPECT_FALSE(HasAppHandlers()); EXPECT_FALSE(driver()->IsConnected()); EXPECT_FALSE(gcm_connection_observer()->connected()); } TEST_F(GCMDriverTest, DisableAndReenableGCM) { CreateDriver(); AddAppHandlers(); PumpIOLoop(); PumpUILoop(); EXPECT_FALSE(driver()->IsStarted()); // The GCM registration will kick off the GCM. Register(kTestAppID1, ToSenderList("sender"), GCMDriverTest::WAIT); EXPECT_TRUE(driver()->IsStarted()); // Disables the GCM. GCM will be stopped. driver()->Disable(); PumpIOLoop(); PumpUILoop(); EXPECT_FALSE(driver()->IsStarted()); // Enables the GCM. GCM will be started. driver()->Enable(); PumpIOLoop(); PumpUILoop(); EXPECT_TRUE(driver()->IsStarted()); } TEST_F(GCMDriverTest, StartOrStopGCMOnDemand) { CreateDriver(); PumpIOLoop(); PumpUILoop(); EXPECT_FALSE(driver()->IsStarted()); // Adding an app handler will not start GCM. driver()->AddAppHandler(kTestAppID1, gcm_app_handler()); PumpIOLoop(); PumpUILoop(); EXPECT_FALSE(driver()->IsStarted()); // The GCM registration will kick off the GCM. Register(kTestAppID1, ToSenderList("sender"), GCMDriverTest::WAIT); EXPECT_TRUE(driver()->IsStarted()); // Add another app handler. driver()->AddAppHandler(kTestAppID2, gcm_app_handler()); PumpIOLoop(); PumpUILoop(); EXPECT_TRUE(driver()->IsStarted()); // GCMClient remains active after one app handler is gone. driver()->RemoveAppHandler(kTestAppID1); PumpIOLoop(); PumpUILoop(); EXPECT_TRUE(driver()->IsStarted()); // GCMClient should be stopped after the last app handler is gone. driver()->RemoveAppHandler(kTestAppID2); PumpIOLoop(); PumpUILoop(); EXPECT_FALSE(driver()->IsStarted()); // GCMClient is restarted after an app handler has been added. driver()->AddAppHandler(kTestAppID2, gcm_app_handler()); PumpIOLoop(); PumpUILoop(); EXPECT_TRUE(driver()->IsStarted()); } TEST_F(GCMDriverTest, RegisterFailed) { std::vector sender_ids; sender_ids.push_back("sender1"); CreateDriver(); // Registration fails when the no app handler is added. Register(kTestAppID1, sender_ids, GCMDriverTest::WAIT); EXPECT_TRUE(registration_id().empty()); EXPECT_EQ(GCMClient::UNKNOWN_ERROR, registration_result()); ClearResults(); // Registration fails when GCM is disabled. AddAppHandlers(); driver()->Disable(); Register(kTestAppID1, sender_ids, GCMDriverTest::WAIT); EXPECT_TRUE(registration_id().empty()); EXPECT_EQ(GCMClient::GCM_DISABLED, registration_result()); } TEST_F(GCMDriverTest, UnregisterFailed) { CreateDriver(); // Unregistration fails when the no app handler is added. Unregister(kTestAppID1, GCMDriverTest::WAIT); EXPECT_EQ(GCMClient::UNKNOWN_ERROR, unregistration_result()); ClearResults(); // Unregistration fails when GCM is disabled. AddAppHandlers(); driver()->Disable(); Unregister(kTestAppID1, GCMDriverTest::WAIT); EXPECT_EQ(GCMClient::GCM_DISABLED, unregistration_result()); } TEST_F(GCMDriverTest, SendFailed) { OutgoingMessage message; message.id = "1"; message.data["key1"] = "value1"; CreateDriver(); // Sending fails when the no app handler is added. Send(kTestAppID1, kUserID1, message, GCMDriverTest::WAIT); EXPECT_TRUE(send_message_id().empty()); EXPECT_EQ(GCMClient::UNKNOWN_ERROR, send_result()); ClearResults(); // Sending fails when GCM is disabled. AddAppHandlers(); driver()->Disable(); Send(kTestAppID1, kUserID1, message, GCMDriverTest::WAIT); EXPECT_TRUE(send_message_id().empty()); EXPECT_EQ(GCMClient::GCM_DISABLED, send_result()); } TEST_F(GCMDriverTest, GCMClientNotReadyBeforeRegistration) { CreateDriver(); PumpIOLoop(); PumpUILoop(); // Make GCMClient not ready until PerformDelayedStart is called. GetGCMClient()->set_start_mode_overridding( FakeGCMClient::FORCE_TO_ALWAYS_DELAY_START_GCM); AddAppHandlers(); // The registration is on hold until GCMClient is ready. std::vector sender_ids; sender_ids.push_back("sender1"); Register(kTestAppID1, sender_ids, GCMDriverTest::DO_NOT_WAIT); PumpIOLoop(); PumpUILoop(); EXPECT_TRUE(registration_id().empty()); EXPECT_EQ(GCMClient::UNKNOWN_ERROR, registration_result()); // Register operation will be invoked after GCMClient becomes ready. GetGCMClient()->PerformDelayedStart(); WaitForAsyncOperation(); EXPECT_FALSE(registration_id().empty()); EXPECT_EQ(GCMClient::SUCCESS, registration_result()); } TEST_F(GCMDriverTest, GCMClientNotReadyBeforeSending) { CreateDriver(); PumpIOLoop(); PumpUILoop(); // Make GCMClient not ready until PerformDelayedStart is called. GetGCMClient()->set_start_mode_overridding( FakeGCMClient::FORCE_TO_ALWAYS_DELAY_START_GCM); AddAppHandlers(); // The sending is on hold until GCMClient is ready. OutgoingMessage message; message.id = "1"; message.data["key1"] = "value1"; message.data["key2"] = "value2"; Send(kTestAppID1, kUserID1, message, GCMDriverTest::DO_NOT_WAIT); PumpIOLoop(); PumpUILoop(); EXPECT_TRUE(send_message_id().empty()); EXPECT_EQ(GCMClient::UNKNOWN_ERROR, send_result()); // Send operation will be invoked after GCMClient becomes ready. GetGCMClient()->PerformDelayedStart(); WaitForAsyncOperation(); EXPECT_EQ(message.id, send_message_id()); EXPECT_EQ(GCMClient::SUCCESS, send_result()); } // Tests a single instance of GCMDriver. class GCMDriverFunctionalTest : public GCMDriverTest { public: GCMDriverFunctionalTest(); ~GCMDriverFunctionalTest() override; // GCMDriverTest: void SetUp() override; private: DISALLOW_COPY_AND_ASSIGN(GCMDriverFunctionalTest); }; GCMDriverFunctionalTest::GCMDriverFunctionalTest() { } GCMDriverFunctionalTest::~GCMDriverFunctionalTest() { } void GCMDriverFunctionalTest::SetUp() { GCMDriverTest::SetUp(); CreateDriver(); AddAppHandlers(); PumpIOLoop(); PumpUILoop(); } TEST_F(GCMDriverFunctionalTest, Register) { std::vector sender_ids; sender_ids.push_back("sender1"); Register(kTestAppID1, sender_ids, GCMDriverTest::WAIT); const std::string expected_registration_id = FakeGCMClient::GenerateGCMRegistrationID(sender_ids); EXPECT_EQ(expected_registration_id, registration_id()); EXPECT_EQ(GCMClient::SUCCESS, registration_result()); } TEST_F(GCMDriverFunctionalTest, RegisterError) { std::vector sender_ids; sender_ids.push_back("sender1@error"); Register(kTestAppID1, sender_ids, GCMDriverTest::WAIT); EXPECT_TRUE(registration_id().empty()); EXPECT_NE(GCMClient::SUCCESS, registration_result()); } TEST_F(GCMDriverFunctionalTest, RegisterAgainWithSameSenderIDs) { std::vector sender_ids; sender_ids.push_back("sender1"); sender_ids.push_back("sender2"); Register(kTestAppID1, sender_ids, GCMDriverTest::WAIT); const std::string expected_registration_id = FakeGCMClient::GenerateGCMRegistrationID(sender_ids); EXPECT_EQ(expected_registration_id, registration_id()); EXPECT_EQ(GCMClient::SUCCESS, registration_result()); // Clears the results the would be set by the Register callback in preparation // to call register 2nd time. ClearResults(); // Calling register 2nd time with the same set of sender IDs but different // ordering will get back the same registration ID. std::vector another_sender_ids; another_sender_ids.push_back("sender2"); another_sender_ids.push_back("sender1"); Register(kTestAppID1, another_sender_ids, GCMDriverTest::WAIT); EXPECT_EQ(expected_registration_id, registration_id()); EXPECT_EQ(GCMClient::SUCCESS, registration_result()); } TEST_F(GCMDriverFunctionalTest, RegisterAgainWithDifferentSenderIDs) { std::vector sender_ids; sender_ids.push_back("sender1"); Register(kTestAppID1, sender_ids, GCMDriverTest::WAIT); const std::string expected_registration_id = FakeGCMClient::GenerateGCMRegistrationID(sender_ids); EXPECT_EQ(expected_registration_id, registration_id()); EXPECT_EQ(GCMClient::SUCCESS, registration_result()); // Make sender IDs different. sender_ids.push_back("sender2"); const std::string expected_registration_id2 = FakeGCMClient::GenerateGCMRegistrationID(sender_ids); // Calling register 2nd time with the different sender IDs will get back a new // registration ID. Register(kTestAppID1, sender_ids, GCMDriverTest::WAIT); EXPECT_EQ(expected_registration_id2, registration_id()); EXPECT_EQ(GCMClient::SUCCESS, registration_result()); } TEST_F(GCMDriverFunctionalTest, UnregisterExplicitly) { std::vector sender_ids; sender_ids.push_back("sender1"); Register(kTestAppID1, sender_ids, GCMDriverTest::WAIT); EXPECT_FALSE(registration_id().empty()); EXPECT_EQ(GCMClient::SUCCESS, registration_result()); Unregister(kTestAppID1, GCMDriverTest::WAIT); EXPECT_EQ(GCMClient::SUCCESS, unregistration_result()); } TEST_F(GCMDriverFunctionalTest, UnregisterWhenAsyncOperationPending) { std::vector sender_ids; sender_ids.push_back("sender1"); // First start registration without waiting for it to complete. Register(kTestAppID1, sender_ids, GCMDriverTest::DO_NOT_WAIT); // Test that unregistration fails with async operation pending when there is a // registration already in progress. Unregister(kTestAppID1, GCMDriverTest::WAIT); EXPECT_EQ(GCMClient::ASYNC_OPERATION_PENDING, unregistration_result()); // Complete the unregistration. WaitForAsyncOperation(); EXPECT_EQ(GCMClient::SUCCESS, registration_result()); // Start unregistration without waiting for it to complete. This time no async // operation is pending. Unregister(kTestAppID1, GCMDriverTest::DO_NOT_WAIT); // Test that unregistration fails with async operation pending when there is // an unregistration already in progress. Unregister(kTestAppID1, GCMDriverTest::WAIT); EXPECT_EQ(GCMClient::ASYNC_OPERATION_PENDING, unregistration_result()); ClearResults(); // Complete unregistration. WaitForAsyncOperation(); EXPECT_EQ(GCMClient::SUCCESS, unregistration_result()); } TEST_F(GCMDriverFunctionalTest, RegisterWhenAsyncOperationPending) { std::vector sender_ids; sender_ids.push_back("sender1"); // First start registration without waiting for it to complete. Register(kTestAppID1, sender_ids, GCMDriverTest::DO_NOT_WAIT); // Test that registration fails with async operation pending when there is a // registration already in progress. Register(kTestAppID1, sender_ids, GCMDriverTest::WAIT); EXPECT_EQ(GCMClient::ASYNC_OPERATION_PENDING, registration_result()); ClearResults(); // Complete the registration. WaitForAsyncOperation(); EXPECT_EQ(GCMClient::SUCCESS, registration_result()); } TEST_F(GCMDriverFunctionalTest, RegisterAfterUnfinishedUnregister) { // Register and wait for it to complete. std::vector sender_ids; sender_ids.push_back("sender1"); Register(kTestAppID1, sender_ids, GCMDriverTest::WAIT); EXPECT_EQ(GCMClient::SUCCESS, registration_result()); EXPECT_EQ(FakeGCMClient::GenerateGCMRegistrationID(sender_ids), registration_id()); // Clears the results the would be set by the Register callback in preparation // to call register 2nd time. ClearResults(); // Start unregistration without waiting for it to complete. Unregister(kTestAppID1, GCMDriverTest::DO_NOT_WAIT); // Register immeidately after unregistration is not completed. sender_ids.push_back("sender2"); Register(kTestAppID1, sender_ids, GCMDriverTest::WAIT); // We need one more waiting since the waiting in Register is indeed for // uncompleted Unregister. WaitForAsyncOperation(); EXPECT_EQ(GCMClient::SUCCESS, registration_result()); EXPECT_EQ(FakeGCMClient::GenerateGCMRegistrationID(sender_ids), registration_id()); } TEST_F(GCMDriverFunctionalTest, Send) { OutgoingMessage message; message.id = "1@ack"; message.data["key1"] = "value1"; message.data["key2"] = "value2"; Send(kTestAppID1, kUserID1, message, GCMDriverTest::WAIT); EXPECT_EQ(message.id, send_message_id()); EXPECT_EQ(GCMClient::SUCCESS, send_result()); gcm_app_handler()->WaitForNotification(); EXPECT_EQ(message.id, gcm_app_handler()->acked_message_id()); EXPECT_EQ(kTestAppID1, gcm_app_handler()->app_id()); } TEST_F(GCMDriverFunctionalTest, SendError) { OutgoingMessage message; // Embedding error in id will tell the mock to simulate the send error. message.id = "1@error"; message.data["key1"] = "value1"; message.data["key2"] = "value2"; Send(kTestAppID1, kUserID1, message, GCMDriverTest::WAIT); EXPECT_EQ(message.id, send_message_id()); EXPECT_EQ(GCMClient::SUCCESS, send_result()); // Wait for the send error. gcm_app_handler()->WaitForNotification(); EXPECT_EQ(FakeGCMAppHandler::SEND_ERROR_EVENT, gcm_app_handler()->received_event()); EXPECT_EQ(kTestAppID1, gcm_app_handler()->app_id()); EXPECT_EQ(message.id, gcm_app_handler()->send_error_details().message_id); EXPECT_NE(GCMClient::SUCCESS, gcm_app_handler()->send_error_details().result); EXPECT_EQ(message.data, gcm_app_handler()->send_error_details().additional_data); } TEST_F(GCMDriverFunctionalTest, MessageReceived) { // GCM registration has to be performed otherwise GCM will not be started. Register(kTestAppID1, ToSenderList("sender"), GCMDriverTest::WAIT); IncomingMessage message; message.data["key1"] = "value1"; message.data["key2"] = "value2"; message.sender_id = "sender"; GetGCMClient()->ReceiveMessage(kTestAppID1, message); gcm_app_handler()->WaitForNotification(); EXPECT_EQ(FakeGCMAppHandler::MESSAGE_EVENT, gcm_app_handler()->received_event()); EXPECT_EQ(kTestAppID1, gcm_app_handler()->app_id()); EXPECT_EQ(message.data, gcm_app_handler()->message().data); EXPECT_TRUE(gcm_app_handler()->message().collapse_key.empty()); EXPECT_EQ(message.sender_id, gcm_app_handler()->message().sender_id); } TEST_F(GCMDriverFunctionalTest, MessageWithCollapseKeyReceived) { // GCM registration has to be performed otherwise GCM will not be started. Register(kTestAppID1, ToSenderList("sender"), GCMDriverTest::WAIT); IncomingMessage message; message.data["key1"] = "value1"; message.collapse_key = "collapse_key_value"; message.sender_id = "sender"; GetGCMClient()->ReceiveMessage(kTestAppID1, message); gcm_app_handler()->WaitForNotification(); EXPECT_EQ(FakeGCMAppHandler::MESSAGE_EVENT, gcm_app_handler()->received_event()); EXPECT_EQ(kTestAppID1, gcm_app_handler()->app_id()); EXPECT_EQ(message.data, gcm_app_handler()->message().data); EXPECT_EQ(message.collapse_key, gcm_app_handler()->message().collapse_key); } TEST_F(GCMDriverFunctionalTest, MessagesDeleted) { // GCM registration has to be performed otherwise GCM will not be started. Register(kTestAppID1, ToSenderList("sender"), GCMDriverTest::WAIT); GetGCMClient()->DeleteMessages(kTestAppID1); gcm_app_handler()->WaitForNotification(); EXPECT_EQ(FakeGCMAppHandler::MESSAGES_DELETED_EVENT, gcm_app_handler()->received_event()); EXPECT_EQ(kTestAppID1, gcm_app_handler()->app_id()); } TEST_F(GCMDriverFunctionalTest, LastTokenFetchTime) { // GCM registration has to be performed otherwise GCM will not be started. Register(kTestAppID1, ToSenderList("sender"), GCMDriverTest::WAIT); EXPECT_EQ(base::Time(), driver()->GetLastTokenFetchTime()); base::Time fetch_time = base::Time::Now(); driver()->SetLastTokenFetchTime(fetch_time); EXPECT_EQ(fetch_time, driver()->GetLastTokenFetchTime()); } // Tests a single instance of GCMDriver. class GCMChannelStatusSyncerTest : public GCMDriverTest { public: GCMChannelStatusSyncerTest(); ~GCMChannelStatusSyncerTest() override; // testing::Test: void SetUp() override; void CompleteGCMChannelStatusRequest(bool enabled, int poll_interval_seconds); bool CompareDelaySeconds(int64 expected_delay_seconds, int64 actual_delay_seconds); GCMChannelStatusSyncer* syncer() { return driver()->gcm_channel_status_syncer_for_testing(); } private: net::TestURLFetcherFactory url_fetcher_factory_; DISALLOW_COPY_AND_ASSIGN(GCMChannelStatusSyncerTest); }; GCMChannelStatusSyncerTest::GCMChannelStatusSyncerTest() { } GCMChannelStatusSyncerTest::~GCMChannelStatusSyncerTest() { } void GCMChannelStatusSyncerTest::SetUp() { GCMDriverTest::SetUp(); url_fetcher_factory_.set_remove_fetcher_on_delete(true); // Turn on all-user support. ASSERT_TRUE(base::FieldTrialList::CreateFieldTrial("GCM", "Enabled")); } void GCMChannelStatusSyncerTest::CompleteGCMChannelStatusRequest( bool enabled, int poll_interval_seconds) { sync_pb::ExperimentStatusResponse response_proto; sync_pb::ExperimentsSpecifics* experiment_specifics = response_proto.add_experiment(); experiment_specifics->mutable_gcm_channel()->set_enabled(enabled); if (poll_interval_seconds) response_proto.set_poll_interval_seconds(poll_interval_seconds); std::string response_string; response_proto.SerializeToString(&response_string); net::TestURLFetcher* fetcher = url_fetcher_factory_.GetFetcherByID(0); ASSERT_TRUE(fetcher); fetcher->set_response_code(net::HTTP_OK); fetcher->SetResponseString(response_string); fetcher->delegate()->OnURLFetchComplete(fetcher); } bool GCMChannelStatusSyncerTest::CompareDelaySeconds( int64 expected_delay_seconds, int64 actual_delay_seconds) { // Most of time, the actual delay should not be smaller than the expected // delay. if (actual_delay_seconds >= expected_delay_seconds) return true; // It is also OK that the actual delay is a bit smaller than the expected // delay in case that the test runs slowly. return expected_delay_seconds - actual_delay_seconds < 30; } TEST_F(GCMChannelStatusSyncerTest, DisableAndEnable) { // Create GCMDriver first. By default, GCM is enabled. CreateDriver(); EXPECT_TRUE(driver()->gcm_enabled()); EXPECT_TRUE(syncer()->gcm_enabled()); // Remove delay such that the request could be executed immediately. syncer()->set_delay_removed_for_testing(true); // GCM is still enabled at this point. AddAppHandlers(); EXPECT_TRUE(driver()->gcm_enabled()); EXPECT_TRUE(syncer()->gcm_enabled()); // Wait until the GCM channel status request gets triggered. PumpUILoop(); // Complete the request that disables the GCM. CompleteGCMChannelStatusRequest(false, 0); EXPECT_FALSE(driver()->gcm_enabled()); EXPECT_FALSE(syncer()->gcm_enabled()); EXPECT_FALSE(driver()->IsStarted()); // Wait until next GCM channel status request gets triggered. PumpUILoop(); // Complete the request that enables the GCM. CompleteGCMChannelStatusRequest(true, 0); EXPECT_TRUE(driver()->gcm_enabled()); EXPECT_TRUE(syncer()->gcm_enabled()); } TEST_F(GCMChannelStatusSyncerTest, DisableRestartAndEnable) { // Create GCMDriver first. By default, GCM is enabled. CreateDriver(); EXPECT_TRUE(driver()->gcm_enabled()); EXPECT_TRUE(syncer()->gcm_enabled()); // Remove delay such that the request could be executed immediately. syncer()->set_delay_removed_for_testing(true); // GCM is still enabled at this point. AddAppHandlers(); EXPECT_TRUE(driver()->gcm_enabled()); EXPECT_TRUE(syncer()->gcm_enabled()); // Wait until the GCM channel status request gets triggered. PumpUILoop(); // Complete the request that disables the GCM. CompleteGCMChannelStatusRequest(false, 0); EXPECT_FALSE(driver()->gcm_enabled()); EXPECT_FALSE(syncer()->gcm_enabled()); // Simulate browser start by recreating GCMDriver. ShutdownDriver(); CreateDriver(); // Remove delay such that the request could be executed immediately. syncer()->set_delay_removed_for_testing(true); // GCM is still disabled. EXPECT_FALSE(driver()->gcm_enabled()); EXPECT_FALSE(syncer()->gcm_enabled()); AddAppHandlers(); EXPECT_FALSE(driver()->gcm_enabled()); EXPECT_FALSE(syncer()->gcm_enabled()); // Wait until the GCM channel status request gets triggered. PumpUILoop(); // Complete the request that re-enables the GCM. CompleteGCMChannelStatusRequest(true, 0); EXPECT_TRUE(driver()->gcm_enabled()); EXPECT_TRUE(syncer()->gcm_enabled()); } TEST_F(GCMChannelStatusSyncerTest, FirstTimePolling) { // Start GCM. CreateDriver(); AddAppHandlers(); // The 1st request should be triggered shortly without jittering. EXPECT_EQ(GCMChannelStatusSyncer::first_time_delay_seconds(), syncer()->current_request_delay_interval().InSeconds()); } TEST_F(GCMChannelStatusSyncerTest, SubsequentPollingWithDefaultInterval) { // Create GCMDriver first. GCM is not started. CreateDriver(); // Remove delay such that the request could be executed immediately. syncer()->set_delay_removed_for_testing(true); // Now GCM is started. AddAppHandlers(); // Wait until the GCM channel status request gets triggered. PumpUILoop(); // Keep delay such that we can find out the computed delay time. syncer()->set_delay_removed_for_testing(false); // Complete the request. The default interval is intact. CompleteGCMChannelStatusRequest(true, 0); // The next request should be scheduled at the expected default interval. int64 actual_delay_seconds = syncer()->current_request_delay_interval().InSeconds(); int64 expected_delay_seconds = GCMChannelStatusRequest::default_poll_interval_seconds(); EXPECT_TRUE(CompareDelaySeconds(expected_delay_seconds, actual_delay_seconds)) << "expected delay: " << expected_delay_seconds << " actual delay: " << actual_delay_seconds; // Simulate browser start by recreating GCMDriver. ShutdownDriver(); CreateDriver(); AddAppHandlers(); // After start-up, the request should still be scheduled at the expected // default interval. actual_delay_seconds = syncer()->current_request_delay_interval().InSeconds(); EXPECT_TRUE(CompareDelaySeconds(expected_delay_seconds, actual_delay_seconds)) << "expected delay: " << expected_delay_seconds << " actual delay: " << actual_delay_seconds; } TEST_F(GCMChannelStatusSyncerTest, SubsequentPollingWithUpdatedInterval) { // Create GCMDriver first. GCM is not started. CreateDriver(); // Remove delay such that the request could be executed immediately. syncer()->set_delay_removed_for_testing(true); // Now GCM is started. AddAppHandlers(); // Wait until the GCM channel status request gets triggered. PumpUILoop(); // Keep delay such that we can find out the computed delay time. syncer()->set_delay_removed_for_testing(false); // Complete the request. The interval is being changed. int new_poll_interval_seconds = GCMChannelStatusRequest::default_poll_interval_seconds() * 2; CompleteGCMChannelStatusRequest(true, new_poll_interval_seconds); // The next request should be scheduled at the expected updated interval. int64 actual_delay_seconds = syncer()->current_request_delay_interval().InSeconds(); int64 expected_delay_seconds = new_poll_interval_seconds; EXPECT_TRUE(CompareDelaySeconds(expected_delay_seconds, actual_delay_seconds)) << "expected delay: " << expected_delay_seconds << " actual delay: " << actual_delay_seconds; // Simulate browser start by recreating GCMDriver. ShutdownDriver(); CreateDriver(); AddAppHandlers(); // After start-up, the request should still be scheduled at the expected // updated interval. actual_delay_seconds = syncer()->current_request_delay_interval().InSeconds(); EXPECT_TRUE(CompareDelaySeconds(expected_delay_seconds, actual_delay_seconds)) << "expected delay: " << expected_delay_seconds << " actual delay: " << actual_delay_seconds; } class GCMDriverInstanceIDTest : public GCMDriverTest { public: GCMDriverInstanceIDTest(); ~GCMDriverInstanceIDTest() override; void GetReady(); void GetInstanceID(const std::string& app_id, WaitToFinish wait_to_finish); void GetInstanceIDDataCompleted(const std::string& instance_id, const std::string& extra_data); void GetToken(const std::string& app_id, const std::string& authorized_entity, const std::string& scope, WaitToFinish wait_to_finish); void DeleteToken(const std::string& app_id, const std::string& authorized_entity, const std::string& scope, WaitToFinish wait_to_finish); std::string instance_id() const { return instance_id_; } std::string extra_data() const { return extra_data_; } private: std::string instance_id_; std::string extra_data_; DISALLOW_COPY_AND_ASSIGN(GCMDriverInstanceIDTest); }; GCMDriverInstanceIDTest::GCMDriverInstanceIDTest() { } GCMDriverInstanceIDTest::~GCMDriverInstanceIDTest() { } void GCMDriverInstanceIDTest::GetReady() { CreateDriver(); AddAppHandlers(); PumpIOLoop(); PumpUILoop(); } void GCMDriverInstanceIDTest::GetInstanceID(const std::string& app_id, WaitToFinish wait_to_finish) { base::RunLoop run_loop; set_async_operation_completed_callback(run_loop.QuitClosure()); driver()->GetInstanceIDData(app_id, base::Bind(&GCMDriverInstanceIDTest::GetInstanceIDDataCompleted, base::Unretained(this))); if (wait_to_finish == WAIT) run_loop.Run(); } void GCMDriverInstanceIDTest::GetInstanceIDDataCompleted( const std::string& instance_id, const std::string& extra_data) { instance_id_ = instance_id; extra_data_ = extra_data; if (!async_operation_completed_callback().is_null()) async_operation_completed_callback().Run(); } void GCMDriverInstanceIDTest::GetToken(const std::string& app_id, const std::string& authorized_entity, const std::string& scope, WaitToFinish wait_to_finish) { base::RunLoop run_loop; set_async_operation_completed_callback(run_loop.QuitClosure()); std::map options; driver()->GetToken(app_id, authorized_entity, scope, options, base::Bind(&GCMDriverTest::RegisterCompleted, base::Unretained(this))); if (wait_to_finish == WAIT) run_loop.Run(); } void GCMDriverInstanceIDTest::DeleteToken(const std::string& app_id, const std::string& authorized_entity, const std::string& scope, WaitToFinish wait_to_finish) { base::RunLoop run_loop; set_async_operation_completed_callback(run_loop.QuitClosure()); driver()->DeleteToken(app_id, authorized_entity, scope, base::Bind(&GCMDriverTest::UnregisterCompleted, base::Unretained(this))); if (wait_to_finish == WAIT) run_loop.Run(); } TEST_F(GCMDriverInstanceIDTest, InstanceIDData) { GetReady(); driver()->AddInstanceIDData(kTestAppID1, kInstanceID1, "Foo"); GetInstanceID(kTestAppID1, GCMDriverTest::WAIT); EXPECT_EQ(kInstanceID1, instance_id()); EXPECT_EQ("Foo", extra_data()); driver()->RemoveInstanceIDData(kTestAppID1); GetInstanceID(kTestAppID1, GCMDriverTest::WAIT); EXPECT_TRUE(instance_id().empty()); EXPECT_TRUE(extra_data().empty()); } TEST_F(GCMDriverInstanceIDTest, GCMClientNotReadyBeforeInstanceIDData) { CreateDriver(); PumpIOLoop(); PumpUILoop(); // Make GCMClient not ready until PerformDelayedStart is called. GetGCMClient()->set_start_mode_overridding( FakeGCMClient::FORCE_TO_ALWAYS_DELAY_START_GCM); AddAppHandlers(); // All operations are on hold until GCMClient is ready. driver()->AddInstanceIDData(kTestAppID1, kInstanceID1, "Foo"); driver()->AddInstanceIDData(kTestAppID2, kInstanceID2, "Bar"); driver()->RemoveInstanceIDData(kTestAppID1); GetInstanceID(kTestAppID2, GCMDriverTest::DO_NOT_WAIT); PumpIOLoop(); PumpUILoop(); EXPECT_TRUE(instance_id().empty()); EXPECT_TRUE(extra_data().empty()); // All operations will be performed after GCMClient becomes ready. GetGCMClient()->PerformDelayedStart(); WaitForAsyncOperation(); EXPECT_EQ(kInstanceID2, instance_id()); EXPECT_EQ("Bar", extra_data()); } TEST_F(GCMDriverInstanceIDTest, GetToken) { GetReady(); const std::string expected_token = FakeGCMClient::GenerateInstanceIDToken(kUserID1, kScope); GetToken(kTestAppID1, kUserID1, kScope, GCMDriverTest::WAIT); EXPECT_EQ(expected_token, registration_id()); EXPECT_EQ(GCMClient::SUCCESS, registration_result()); } TEST_F(GCMDriverInstanceIDTest, GetTokenError) { GetReady(); std::string error_entity = "sender@error"; GetToken(kTestAppID1, error_entity, kScope, GCMDriverTest::WAIT); EXPECT_TRUE(registration_id().empty()); EXPECT_NE(GCMClient::SUCCESS, registration_result()); } TEST_F(GCMDriverInstanceIDTest, GCMClientNotReadyBeforeGetToken) { CreateDriver(); PumpIOLoop(); PumpUILoop(); // Make GCMClient not ready until PerformDelayedStart is called. GetGCMClient()->set_start_mode_overridding( FakeGCMClient::FORCE_TO_ALWAYS_DELAY_START_GCM); AddAppHandlers(); // GetToken operation is on hold until GCMClient is ready. GetToken(kTestAppID1, kUserID1, kScope, GCMDriverTest::DO_NOT_WAIT); PumpIOLoop(); PumpUILoop(); EXPECT_TRUE(registration_id().empty()); EXPECT_EQ(GCMClient::UNKNOWN_ERROR, registration_result()); // GetToken operation will be invoked after GCMClient becomes ready. GetGCMClient()->PerformDelayedStart(); WaitForAsyncOperation(); EXPECT_FALSE(registration_id().empty()); EXPECT_EQ(GCMClient::SUCCESS, registration_result()); } TEST_F(GCMDriverInstanceIDTest, DeleteToken) { GetReady(); const std::string expected_token = FakeGCMClient::GenerateInstanceIDToken(kUserID1, kScope); GetToken(kTestAppID1, kUserID1, kScope, GCMDriverTest::WAIT); EXPECT_EQ(expected_token, registration_id()); EXPECT_EQ(GCMClient::SUCCESS, registration_result()); DeleteToken(kTestAppID1, kUserID1, kScope, GCMDriverTest::WAIT); EXPECT_EQ(GCMClient::SUCCESS, unregistration_result()); } TEST_F(GCMDriverInstanceIDTest, GCMClientNotReadyBeforeDeleteToken) { CreateDriver(); PumpIOLoop(); PumpUILoop(); // Make GCMClient not ready until PerformDelayedStart is called. GetGCMClient()->set_start_mode_overridding( FakeGCMClient::FORCE_TO_ALWAYS_DELAY_START_GCM); AddAppHandlers(); // DeleteToken operation is on hold until GCMClient is ready. DeleteToken(kTestAppID1, kUserID1, kScope, GCMDriverTest::DO_NOT_WAIT); PumpIOLoop(); PumpUILoop(); EXPECT_EQ(GCMClient::UNKNOWN_ERROR, unregistration_result()); // DeleteToken operation will be invoked after GCMClient becomes ready. GetGCMClient()->PerformDelayedStart(); WaitForAsyncOperation(); EXPECT_EQ(GCMClient::SUCCESS, unregistration_result()); } } // namespace gcm