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shell_unittests.cc
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shell_unittests.cc
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// Copyright 2013 The Flutter Authors. All rights reserved.
// Use of this source code is governed by a BSD-style license that can be
// found in the LICENSE file.
#define FML_USED_ON_EMBEDDER
#include <algorithm>
#include <functional>
#include <future>
#include <memory>
#include "flutter/flow/layers/layer_tree.h"
#include "flutter/flow/layers/picture_layer.h"
#include "flutter/flow/layers/transform_layer.h"
#include "flutter/fml/command_line.h"
#include "flutter/fml/dart/dart_converter.h"
#include "flutter/fml/make_copyable.h"
#include "flutter/fml/message_loop.h"
#include "flutter/fml/synchronization/count_down_latch.h"
#include "flutter/fml/synchronization/waitable_event.h"
#include "flutter/runtime/dart_vm.h"
#include "flutter/shell/common/platform_view.h"
#include "flutter/shell/common/rasterizer.h"
#include "flutter/shell/common/shell_test.h"
#include "flutter/shell/common/switches.h"
#include "flutter/shell/common/thread_host.h"
#include "flutter/shell/common/vsync_waiter_fallback.h"
#include "flutter/testing/testing.h"
#include "third_party/tonic/converter/dart_converter.h"
namespace flutter {
namespace testing {
static bool ValidateShell(Shell* shell) {
if (!shell) {
return false;
}
if (!shell->IsSetup()) {
return false;
}
ShellTest::PlatformViewNotifyCreated(shell);
{
fml::AutoResetWaitableEvent latch;
fml::TaskRunner::RunNowOrPostTask(
shell->GetTaskRunners().GetPlatformTaskRunner(), [shell, &latch]() {
shell->GetPlatformView()->NotifyDestroyed();
latch.Signal();
});
latch.Wait();
}
return true;
}
TEST_F(ShellTest, InitializeWithInvalidThreads) {
ASSERT_FALSE(DartVMRef::IsInstanceRunning());
Settings settings = CreateSettingsForFixture();
TaskRunners task_runners("test", nullptr, nullptr, nullptr, nullptr);
auto shell = CreateShell(std::move(settings), std::move(task_runners));
ASSERT_FALSE(shell);
ASSERT_FALSE(DartVMRef::IsInstanceRunning());
}
TEST_F(ShellTest, InitializeWithDifferentThreads) {
ASSERT_FALSE(DartVMRef::IsInstanceRunning());
Settings settings = CreateSettingsForFixture();
ThreadHost thread_host("io.flutter.test." + GetCurrentTestName() + ".",
ThreadHost::Type::Platform | ThreadHost::Type::GPU |
ThreadHost::Type::IO | ThreadHost::Type::UI);
TaskRunners task_runners("test", thread_host.platform_thread->GetTaskRunner(),
thread_host.gpu_thread->GetTaskRunner(),
thread_host.ui_thread->GetTaskRunner(),
thread_host.io_thread->GetTaskRunner());
auto shell = CreateShell(std::move(settings), std::move(task_runners));
ASSERT_TRUE(ValidateShell(shell.get()));
ASSERT_TRUE(DartVMRef::IsInstanceRunning());
DestroyShell(std::move(shell), std::move(task_runners));
ASSERT_FALSE(DartVMRef::IsInstanceRunning());
}
TEST_F(ShellTest, InitializeWithSingleThread) {
ASSERT_FALSE(DartVMRef::IsInstanceRunning());
Settings settings = CreateSettingsForFixture();
ThreadHost thread_host("io.flutter.test." + GetCurrentTestName() + ".",
ThreadHost::Type::Platform);
auto task_runner = thread_host.platform_thread->GetTaskRunner();
TaskRunners task_runners("test", task_runner, task_runner, task_runner,
task_runner);
auto shell = CreateShell(std::move(settings), task_runners);
ASSERT_TRUE(DartVMRef::IsInstanceRunning());
ASSERT_TRUE(ValidateShell(shell.get()));
DestroyShell(std::move(shell), std::move(task_runners));
ASSERT_FALSE(DartVMRef::IsInstanceRunning());
}
TEST_F(ShellTest, InitializeWithSingleThreadWhichIsTheCallingThread) {
ASSERT_FALSE(DartVMRef::IsInstanceRunning());
Settings settings = CreateSettingsForFixture();
fml::MessageLoop::EnsureInitializedForCurrentThread();
auto task_runner = fml::MessageLoop::GetCurrent().GetTaskRunner();
TaskRunners task_runners("test", task_runner, task_runner, task_runner,
task_runner);
auto shell = CreateShell(std::move(settings), task_runners);
ASSERT_TRUE(ValidateShell(shell.get()));
ASSERT_TRUE(DartVMRef::IsInstanceRunning());
DestroyShell(std::move(shell), std::move(task_runners));
ASSERT_FALSE(DartVMRef::IsInstanceRunning());
}
TEST_F(ShellTest,
InitializeWithMultipleThreadButCallingThreadAsPlatformThread) {
ASSERT_FALSE(DartVMRef::IsInstanceRunning());
Settings settings = CreateSettingsForFixture();
ThreadHost thread_host(
"io.flutter.test." + GetCurrentTestName() + ".",
ThreadHost::Type::GPU | ThreadHost::Type::IO | ThreadHost::Type::UI);
fml::MessageLoop::EnsureInitializedForCurrentThread();
TaskRunners task_runners("test",
fml::MessageLoop::GetCurrent().GetTaskRunner(),
thread_host.gpu_thread->GetTaskRunner(),
thread_host.ui_thread->GetTaskRunner(),
thread_host.io_thread->GetTaskRunner());
auto shell = Shell::Create(
std::move(task_runners), settings,
[](Shell& shell) {
// This is unused in the platform view as we are not using the simulated
// vsync mechanism. We should have better DI in the tests.
const auto vsync_clock = std::make_shared<ShellTestVsyncClock>();
return std::make_unique<ShellTestPlatformView>(
shell, shell.GetTaskRunners(), vsync_clock,
[task_runners = shell.GetTaskRunners()]() {
return static_cast<std::unique_ptr<VsyncWaiter>>(
std::make_unique<VsyncWaiterFallback>(task_runners));
});
},
[](Shell& shell) {
return std::make_unique<Rasterizer>(shell, shell.GetTaskRunners());
});
ASSERT_TRUE(ValidateShell(shell.get()));
ASSERT_TRUE(DartVMRef::IsInstanceRunning());
DestroyShell(std::move(shell), std::move(task_runners));
ASSERT_FALSE(DartVMRef::IsInstanceRunning());
}
TEST_F(ShellTest, InitializeWithGPUAndPlatformThreadsTheSame) {
ASSERT_FALSE(DartVMRef::IsInstanceRunning());
Settings settings = CreateSettingsForFixture();
ThreadHost thread_host(
"io.flutter.test." + GetCurrentTestName() + ".",
ThreadHost::Type::Platform | ThreadHost::Type::IO | ThreadHost::Type::UI);
TaskRunners task_runners(
"test",
thread_host.platform_thread->GetTaskRunner(), // platform
thread_host.platform_thread->GetTaskRunner(), // gpu
thread_host.ui_thread->GetTaskRunner(), // ui
thread_host.io_thread->GetTaskRunner() // io
);
auto shell = CreateShell(std::move(settings), std::move(task_runners));
ASSERT_TRUE(DartVMRef::IsInstanceRunning());
ASSERT_TRUE(ValidateShell(shell.get()));
DestroyShell(std::move(shell), std::move(task_runners));
ASSERT_FALSE(DartVMRef::IsInstanceRunning());
}
TEST_F(ShellTest, FixturesAreFunctional) {
ASSERT_FALSE(DartVMRef::IsInstanceRunning());
auto settings = CreateSettingsForFixture();
auto shell = CreateShell(settings);
ASSERT_TRUE(ValidateShell(shell.get()));
auto configuration = RunConfiguration::InferFromSettings(settings);
ASSERT_TRUE(configuration.IsValid());
configuration.SetEntrypoint("fixturesAreFunctionalMain");
fml::AutoResetWaitableEvent main_latch;
AddNativeCallback(
"SayHiFromFixturesAreFunctionalMain",
CREATE_NATIVE_ENTRY([&main_latch](auto args) { main_latch.Signal(); }));
RunEngine(shell.get(), std::move(configuration));
main_latch.Wait();
ASSERT_TRUE(DartVMRef::IsInstanceRunning());
DestroyShell(std::move(shell));
ASSERT_FALSE(DartVMRef::IsInstanceRunning());
}
TEST_F(ShellTest, SecondaryIsolateBindingsAreSetupViaShellSettings) {
ASSERT_FALSE(DartVMRef::IsInstanceRunning());
auto settings = CreateSettingsForFixture();
auto shell = CreateShell(settings);
ASSERT_TRUE(ValidateShell(shell.get()));
auto configuration = RunConfiguration::InferFromSettings(settings);
ASSERT_TRUE(configuration.IsValid());
configuration.SetEntrypoint("testCanLaunchSecondaryIsolate");
fml::CountDownLatch latch(2);
AddNativeCallback("NotifyNative", CREATE_NATIVE_ENTRY([&latch](auto args) {
latch.CountDown();
}));
RunEngine(shell.get(), std::move(configuration));
latch.Wait();
ASSERT_TRUE(DartVMRef::IsInstanceRunning());
DestroyShell(std::move(shell));
ASSERT_FALSE(DartVMRef::IsInstanceRunning());
}
TEST_F(ShellTest, LastEntrypoint) {
ASSERT_FALSE(DartVMRef::IsInstanceRunning());
auto settings = CreateSettingsForFixture();
auto shell = CreateShell(settings);
ASSERT_TRUE(ValidateShell(shell.get()));
auto configuration = RunConfiguration::InferFromSettings(settings);
ASSERT_TRUE(configuration.IsValid());
std::string entry_point = "fixturesAreFunctionalMain";
configuration.SetEntrypoint(entry_point);
fml::AutoResetWaitableEvent main_latch;
std::string last_entry_point;
AddNativeCallback(
"SayHiFromFixturesAreFunctionalMain", CREATE_NATIVE_ENTRY([&](auto args) {
last_entry_point = shell->GetEngine()->GetLastEntrypoint();
main_latch.Signal();
}));
RunEngine(shell.get(), std::move(configuration));
main_latch.Wait();
EXPECT_EQ(entry_point, last_entry_point);
ASSERT_TRUE(DartVMRef::IsInstanceRunning());
DestroyShell(std::move(shell));
ASSERT_FALSE(DartVMRef::IsInstanceRunning());
}
TEST(ShellTestNoFixture, EnableMirrorsIsWhitelisted) {
if (DartVM::IsRunningPrecompiledCode()) {
// This covers profile and release modes which use AOT (where this flag does
// not make sense anyway).
GTEST_SKIP();
return;
}
#if FLUTTER_RELEASE
GTEST_SKIP();
return;
#endif
const std::vector<fml::CommandLine::Option> options = {
fml::CommandLine::Option("dart-flags", "--enable_mirrors")};
fml::CommandLine command_line("", options, std::vector<std::string>());
flutter::Settings settings = flutter::SettingsFromCommandLine(command_line);
EXPECT_EQ(settings.dart_flags.size(), 1u);
}
TEST_F(ShellTest, BlacklistedDartVMFlag) {
// Run this test in a thread-safe manner, otherwise gtest will complain.
::testing::FLAGS_gtest_death_test_style = "threadsafe";
const std::vector<fml::CommandLine::Option> options = {
fml::CommandLine::Option("dart-flags", "--verify_after_gc")};
fml::CommandLine command_line("", options, std::vector<std::string>());
#if !FLUTTER_RELEASE
// Upon encountering a non-whitelisted Dart flag the process terminates.
const char* expected =
"Encountered blacklisted Dart VM flag: --verify_after_gc";
ASSERT_DEATH(flutter::SettingsFromCommandLine(command_line), expected);
#else
flutter::Settings settings = flutter::SettingsFromCommandLine(command_line);
EXPECT_EQ(settings.dart_flags.size(), 0u);
#endif
}
TEST_F(ShellTest, WhitelistedDartVMFlag) {
const std::vector<fml::CommandLine::Option> options = {
fml::CommandLine::Option("dart-flags",
"--max_profile_depth 1,--random_seed 42")};
fml::CommandLine command_line("", options, std::vector<std::string>());
flutter::Settings settings = flutter::SettingsFromCommandLine(command_line);
#if !FLUTTER_RELEASE
EXPECT_EQ(settings.dart_flags.size(), 2u);
EXPECT_EQ(settings.dart_flags[0], "--max_profile_depth 1");
EXPECT_EQ(settings.dart_flags[1], "--random_seed 42");
#else
EXPECT_EQ(settings.dart_flags.size(), 0u);
#endif
}
TEST_F(ShellTest, NoNeedToReportTimingsByDefault) {
auto settings = CreateSettingsForFixture();
std::unique_ptr<Shell> shell = CreateShell(settings);
// Create the surface needed by rasterizer
PlatformViewNotifyCreated(shell.get());
auto configuration = RunConfiguration::InferFromSettings(settings);
configuration.SetEntrypoint("emptyMain");
RunEngine(shell.get(), std::move(configuration));
PumpOneFrame(shell.get());
ASSERT_FALSE(GetNeedsReportTimings(shell.get()));
// This assertion may or may not be the direct result of needs_report_timings_
// being false. The count could be 0 simply because we just cleared
// unreported timings by reporting them. Hence this can't replace the
// ASSERT_FALSE(GetNeedsReportTimings(shell.get())) check. We added
// this assertion for an additional confidence that we're not pushing
// back to unreported timings unnecessarily.
//
// Conversely, do not assert UnreportedTimingsCount(shell.get()) to be
// positive in any tests. Otherwise those tests will be flaky as the clearing
// of unreported timings is unpredictive.
ASSERT_EQ(UnreportedTimingsCount(shell.get()), 0);
DestroyShell(std::move(shell));
}
TEST_F(ShellTest, NeedsReportTimingsIsSetWithCallback) {
auto settings = CreateSettingsForFixture();
std::unique_ptr<Shell> shell = CreateShell(settings);
// Create the surface needed by rasterizer
PlatformViewNotifyCreated(shell.get());
auto configuration = RunConfiguration::InferFromSettings(settings);
configuration.SetEntrypoint("dummyReportTimingsMain");
RunEngine(shell.get(), std::move(configuration));
PumpOneFrame(shell.get());
ASSERT_TRUE(GetNeedsReportTimings(shell.get()));
DestroyShell(std::move(shell));
}
static void CheckFrameTimings(const std::vector<FrameTiming>& timings,
fml::TimePoint start,
fml::TimePoint finish) {
fml::TimePoint last_frame_start;
for (size_t i = 0; i < timings.size(); i += 1) {
// Ensure that timings are sorted.
ASSERT_TRUE(timings[i].Get(FrameTiming::kPhases[0]) >= last_frame_start);
last_frame_start = timings[i].Get(FrameTiming::kPhases[0]);
fml::TimePoint last_phase_time;
for (auto phase : FrameTiming::kPhases) {
ASSERT_TRUE(timings[i].Get(phase) >= start);
ASSERT_TRUE(timings[i].Get(phase) <= finish);
// phases should have weakly increasing time points
ASSERT_TRUE(last_phase_time <= timings[i].Get(phase));
last_phase_time = timings[i].Get(phase);
}
}
}
// TODO(43192): This test is disable because of flakiness.
TEST_F(ShellTest, DISABLED_ReportTimingsIsCalled) {
fml::TimePoint start = fml::TimePoint::Now();
auto settings = CreateSettingsForFixture();
std::unique_ptr<Shell> shell = CreateShell(settings);
// Create the surface needed by rasterizer
PlatformViewNotifyCreated(shell.get());
auto configuration = RunConfiguration::InferFromSettings(settings);
ASSERT_TRUE(configuration.IsValid());
configuration.SetEntrypoint("reportTimingsMain");
fml::AutoResetWaitableEvent reportLatch;
std::vector<int64_t> timestamps;
auto nativeTimingCallback = [&reportLatch,
×tamps](Dart_NativeArguments args) {
Dart_Handle exception = nullptr;
timestamps = tonic::DartConverter<std::vector<int64_t>>::FromArguments(
args, 0, exception);
reportLatch.Signal();
};
AddNativeCallback("NativeReportTimingsCallback",
CREATE_NATIVE_ENTRY(nativeTimingCallback));
RunEngine(shell.get(), std::move(configuration));
// Pump many frames so we can trigger the report quickly instead of waiting
// for the 1 second threshold.
for (int i = 0; i < 200; i += 1) {
PumpOneFrame(shell.get());
}
reportLatch.Wait();
DestroyShell(std::move(shell));
fml::TimePoint finish = fml::TimePoint::Now();
ASSERT_TRUE(timestamps.size() > 0);
ASSERT_TRUE(timestamps.size() % FrameTiming::kCount == 0);
std::vector<FrameTiming> timings(timestamps.size() / FrameTiming::kCount);
for (size_t i = 0; i * FrameTiming::kCount < timestamps.size(); i += 1) {
for (auto phase : FrameTiming::kPhases) {
timings[i].Set(
phase,
fml::TimePoint::FromEpochDelta(fml::TimeDelta::FromMicroseconds(
timestamps[i * FrameTiming::kCount + phase])));
}
}
CheckFrameTimings(timings, start, finish);
}
TEST_F(ShellTest, FrameRasterizedCallbackIsCalled) {
fml::TimePoint start = fml::TimePoint::Now();
auto settings = CreateSettingsForFixture();
fml::AutoResetWaitableEvent timingLatch;
FrameTiming timing;
for (auto phase : FrameTiming::kPhases) {
timing.Set(phase, fml::TimePoint());
// Check that the time points are initially smaller than start, so
// CheckFrameTimings will fail if they're not properly set later.
ASSERT_TRUE(timing.Get(phase) < start);
}
settings.frame_rasterized_callback = [&timing,
&timingLatch](const FrameTiming& t) {
timing = t;
timingLatch.Signal();
};
std::unique_ptr<Shell> shell = CreateShell(settings);
// Create the surface needed by rasterizer
PlatformViewNotifyCreated(shell.get());
auto configuration = RunConfiguration::InferFromSettings(settings);
configuration.SetEntrypoint("onBeginFrameMain");
int64_t frame_target_time;
auto nativeOnBeginFrame = [&frame_target_time](Dart_NativeArguments args) {
Dart_Handle exception = nullptr;
frame_target_time =
tonic::DartConverter<int64_t>::FromArguments(args, 0, exception);
};
AddNativeCallback("NativeOnBeginFrame",
CREATE_NATIVE_ENTRY(nativeOnBeginFrame));
RunEngine(shell.get(), std::move(configuration));
PumpOneFrame(shell.get());
// Check that timing is properly set. This implies that
// settings.frame_rasterized_callback is called.
timingLatch.Wait();
fml::TimePoint finish = fml::TimePoint::Now();
std::vector<FrameTiming> timings = {timing};
CheckFrameTimings(timings, start, finish);
// Check that onBeginFrame, which is the frame_target_time, is after
// FrameTiming's build start
int64_t build_start =
timing.Get(FrameTiming::kBuildStart).ToEpochDelta().ToMicroseconds();
ASSERT_GT(frame_target_time, build_start);
DestroyShell(std::move(shell));
}
TEST(SettingsTest, FrameTimingSetsAndGetsProperly) {
// Ensure that all phases are in kPhases.
ASSERT_EQ(sizeof(FrameTiming::kPhases),
FrameTiming::kCount * sizeof(FrameTiming::Phase));
int lastPhaseIndex = -1;
FrameTiming timing;
for (auto phase : FrameTiming::kPhases) {
ASSERT_TRUE(phase > lastPhaseIndex); // Ensure that kPhases are in order.
lastPhaseIndex = phase;
auto fake_time =
fml::TimePoint::FromEpochDelta(fml::TimeDelta::FromMicroseconds(phase));
timing.Set(phase, fake_time);
ASSERT_TRUE(timing.Get(phase) == fake_time);
}
}
#if FLUTTER_RELEASE
TEST_F(ShellTest, ReportTimingsIsCalledLaterInReleaseMode) {
#else
TEST_F(ShellTest, ReportTimingsIsCalledSoonerInNonReleaseMode) {
#endif
fml::TimePoint start = fml::TimePoint::Now();
auto settings = CreateSettingsForFixture();
std::unique_ptr<Shell> shell = CreateShell(settings);
// Create the surface needed by rasterizer
PlatformViewNotifyCreated(shell.get());
auto configuration = RunConfiguration::InferFromSettings(settings);
ASSERT_TRUE(configuration.IsValid());
configuration.SetEntrypoint("reportTimingsMain");
// Wait for 2 reports: the first one is the immediate callback of the first
// frame; the second one will exercise the batching logic.
fml::CountDownLatch reportLatch(2);
std::vector<int64_t> timestamps;
auto nativeTimingCallback = [&reportLatch,
×tamps](Dart_NativeArguments args) {
Dart_Handle exception = nullptr;
timestamps = tonic::DartConverter<std::vector<int64_t>>::FromArguments(
args, 0, exception);
reportLatch.CountDown();
};
AddNativeCallback("NativeReportTimingsCallback",
CREATE_NATIVE_ENTRY(nativeTimingCallback));
RunEngine(shell.get(), std::move(configuration));
PumpOneFrame(shell.get());
PumpOneFrame(shell.get());
reportLatch.Wait();
DestroyShell(std::move(shell));
fml::TimePoint finish = fml::TimePoint::Now();
fml::TimeDelta ellapsed = finish - start;
#if FLUTTER_RELEASE
// Our batch time is 1000ms. Hopefully the 800ms limit is relaxed enough to
// make it not too flaky.
ASSERT_TRUE(ellapsed >= fml::TimeDelta::FromMilliseconds(800));
#else
// Our batch time is 100ms. Hopefully the 500ms limit is relaxed enough to
// make it not too flaky.
ASSERT_TRUE(ellapsed <= fml::TimeDelta::FromMilliseconds(500));
#endif
}
TEST_F(ShellTest, ReportTimingsIsCalledImmediatelyAfterTheFirstFrame) {
auto settings = CreateSettingsForFixture();
std::unique_ptr<Shell> shell = CreateShell(settings);
// Create the surface needed by rasterizer
PlatformViewNotifyCreated(shell.get());
auto configuration = RunConfiguration::InferFromSettings(settings);
ASSERT_TRUE(configuration.IsValid());
configuration.SetEntrypoint("reportTimingsMain");
fml::AutoResetWaitableEvent reportLatch;
std::vector<int64_t> timestamps;
auto nativeTimingCallback = [&reportLatch,
×tamps](Dart_NativeArguments args) {
Dart_Handle exception = nullptr;
timestamps = tonic::DartConverter<std::vector<int64_t>>::FromArguments(
args, 0, exception);
reportLatch.Signal();
};
AddNativeCallback("NativeReportTimingsCallback",
CREATE_NATIVE_ENTRY(nativeTimingCallback));
RunEngine(shell.get(), std::move(configuration));
for (int i = 0; i < 10; i += 1) {
PumpOneFrame(shell.get());
}
reportLatch.Wait();
DestroyShell(std::move(shell));
// Check for the immediate callback of the first frame that doesn't wait for
// the other 9 frames to be rasterized.
ASSERT_EQ(timestamps.size(), FrameTiming::kCount);
}
TEST_F(ShellTest, ReloadSystemFonts) {
auto settings = CreateSettingsForFixture();
fml::MessageLoop::EnsureInitializedForCurrentThread();
auto task_runner = fml::MessageLoop::GetCurrent().GetTaskRunner();
TaskRunners task_runners("test", task_runner, task_runner, task_runner,
task_runner);
auto shell = CreateShell(std::move(settings), std::move(task_runners));
auto fontCollection = GetFontCollection(shell.get());
std::vector<std::string> families(1, "Robotofake");
auto font =
fontCollection->GetMinikinFontCollectionForFamilies(families, "en");
if (font == nullptr) {
// The system does not have default font. Aborts this test.
return;
}
unsigned int id = font->getId();
// The result should be cached.
font = fontCollection->GetMinikinFontCollectionForFamilies(families, "en");
ASSERT_EQ(font->getId(), id);
bool result = shell->ReloadSystemFonts();
// The cache is cleared, and FontCollection will be assigned a new id.
font = fontCollection->GetMinikinFontCollectionForFamilies(families, "en");
ASSERT_NE(font->getId(), id);
ASSERT_TRUE(result);
shell.reset();
}
TEST_F(ShellTest, WaitForFirstFrame) {
auto settings = CreateSettingsForFixture();
std::unique_ptr<Shell> shell = CreateShell(settings);
// Create the surface needed by rasterizer
PlatformViewNotifyCreated(shell.get());
auto configuration = RunConfiguration::InferFromSettings(settings);
configuration.SetEntrypoint("emptyMain");
RunEngine(shell.get(), std::move(configuration));
PumpOneFrame(shell.get());
fml::Status result =
shell->WaitForFirstFrame(fml::TimeDelta::FromMilliseconds(1000));
ASSERT_TRUE(result.ok());
DestroyShell(std::move(shell));
}
TEST_F(ShellTest, WaitForFirstFrameZeroSizeFrame) {
auto settings = CreateSettingsForFixture();
std::unique_ptr<Shell> shell = CreateShell(settings);
// Create the surface needed by rasterizer
PlatformViewNotifyCreated(shell.get());
auto configuration = RunConfiguration::InferFromSettings(settings);
configuration.SetEntrypoint("emptyMain");
RunEngine(shell.get(), std::move(configuration));
PumpOneFrame(shell.get(), {1, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0});
fml::Status result =
shell->WaitForFirstFrame(fml::TimeDelta::FromMilliseconds(1000));
ASSERT_FALSE(result.ok());
ASSERT_EQ(result.code(), fml::StatusCode::kDeadlineExceeded);
DestroyShell(std::move(shell));
}
TEST_F(ShellTest, WaitForFirstFrameTimeout) {
auto settings = CreateSettingsForFixture();
std::unique_ptr<Shell> shell = CreateShell(settings);
// Create the surface needed by rasterizer
PlatformViewNotifyCreated(shell.get());
auto configuration = RunConfiguration::InferFromSettings(settings);
configuration.SetEntrypoint("emptyMain");
RunEngine(shell.get(), std::move(configuration));
fml::Status result =
shell->WaitForFirstFrame(fml::TimeDelta::FromMilliseconds(10));
ASSERT_FALSE(result.ok());
ASSERT_EQ(result.code(), fml::StatusCode::kDeadlineExceeded);
DestroyShell(std::move(shell));
}
TEST_F(ShellTest, WaitForFirstFrameMultiple) {
auto settings = CreateSettingsForFixture();
std::unique_ptr<Shell> shell = CreateShell(settings);
// Create the surface needed by rasterizer
PlatformViewNotifyCreated(shell.get());
auto configuration = RunConfiguration::InferFromSettings(settings);
configuration.SetEntrypoint("emptyMain");
RunEngine(shell.get(), std::move(configuration));
PumpOneFrame(shell.get());
fml::Status result =
shell->WaitForFirstFrame(fml::TimeDelta::FromMilliseconds(1000));
ASSERT_TRUE(result.ok());
for (int i = 0; i < 100; ++i) {
result = shell->WaitForFirstFrame(fml::TimeDelta::FromMilliseconds(1));
ASSERT_TRUE(result.ok());
}
DestroyShell(std::move(shell));
}
/// Makes sure that WaitForFirstFrame works if we rendered a frame with the
/// single-thread setup.
TEST_F(ShellTest, WaitForFirstFrameInlined) {
Settings settings = CreateSettingsForFixture();
auto task_runner = CreateNewThread();
TaskRunners task_runners("test", task_runner, task_runner, task_runner,
task_runner);
std::unique_ptr<Shell> shell =
CreateShell(std::move(settings), std::move(task_runners));
// Create the surface needed by rasterizer
PlatformViewNotifyCreated(shell.get());
auto configuration = RunConfiguration::InferFromSettings(settings);
configuration.SetEntrypoint("emptyMain");
RunEngine(shell.get(), std::move(configuration));
PumpOneFrame(shell.get());
fml::AutoResetWaitableEvent event;
task_runner->PostTask([&shell, &event] {
fml::Status result =
shell->WaitForFirstFrame(fml::TimeDelta::FromMilliseconds(1000));
ASSERT_FALSE(result.ok());
ASSERT_EQ(result.code(), fml::StatusCode::kFailedPrecondition);
event.Signal();
});
ASSERT_FALSE(event.WaitWithTimeout(fml::TimeDelta::FromMilliseconds(1000)));
DestroyShell(std::move(shell), std::move(task_runners));
}
static size_t GetRasterizerResourceCacheBytesSync(Shell& shell) {
size_t bytes = 0;
fml::AutoResetWaitableEvent latch;
fml::TaskRunner::RunNowOrPostTask(
shell.GetTaskRunners().GetGPUTaskRunner(), [&]() {
if (auto rasterizer = shell.GetRasterizer()) {
bytes = rasterizer->GetResourceCacheMaxBytes().value_or(0U);
}
latch.Signal();
});
latch.Wait();
return bytes;
}
TEST_F(ShellTest, SetResourceCacheSize) {
Settings settings = CreateSettingsForFixture();
auto task_runner = CreateNewThread();
TaskRunners task_runners("test", task_runner, task_runner, task_runner,
task_runner);
std::unique_ptr<Shell> shell =
CreateShell(std::move(settings), std::move(task_runners));
// Create the surface needed by rasterizer
PlatformViewNotifyCreated(shell.get());
auto configuration = RunConfiguration::InferFromSettings(settings);
configuration.SetEntrypoint("emptyMain");
RunEngine(shell.get(), std::move(configuration));
PumpOneFrame(shell.get());
EXPECT_EQ(GetRasterizerResourceCacheBytesSync(*shell),
static_cast<size_t>(24 * (1 << 20)));
fml::TaskRunner::RunNowOrPostTask(
shell->GetTaskRunners().GetPlatformTaskRunner(), [&shell]() {
shell->GetPlatformView()->SetViewportMetrics(
{1.0, 400, 200, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0});
});
PumpOneFrame(shell.get());
EXPECT_EQ(GetRasterizerResourceCacheBytesSync(*shell), 3840000U);
std::string request_json = R"json({
"method": "Skia.setResourceCacheMaxBytes",
"args": 10000
})json";
std::vector<uint8_t> data(request_json.begin(), request_json.end());
auto platform_message = fml::MakeRefCounted<PlatformMessage>(
"flutter/skia", std::move(data), nullptr);
SendEnginePlatformMessage(shell.get(), std::move(platform_message));
PumpOneFrame(shell.get());
EXPECT_EQ(GetRasterizerResourceCacheBytesSync(*shell), 10000U);
fml::TaskRunner::RunNowOrPostTask(
shell->GetTaskRunners().GetPlatformTaskRunner(), [&shell]() {
shell->GetPlatformView()->SetViewportMetrics(
{1.0, 800, 400, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0});
});
PumpOneFrame(shell.get());
EXPECT_EQ(GetRasterizerResourceCacheBytesSync(*shell), 10000U);
DestroyShell(std::move(shell), std::move(task_runners));
}
TEST_F(ShellTest, SetResourceCacheSizeEarly) {
Settings settings = CreateSettingsForFixture();
auto task_runner = CreateNewThread();
TaskRunners task_runners("test", task_runner, task_runner, task_runner,
task_runner);
std::unique_ptr<Shell> shell =
CreateShell(std::move(settings), std::move(task_runners));
fml::TaskRunner::RunNowOrPostTask(
shell->GetTaskRunners().GetPlatformTaskRunner(), [&shell]() {
shell->GetPlatformView()->SetViewportMetrics(
{1.0, 400, 200, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0});
});
PumpOneFrame(shell.get());
// Create the surface needed by rasterizer
PlatformViewNotifyCreated(shell.get());
auto configuration = RunConfiguration::InferFromSettings(settings);
configuration.SetEntrypoint("emptyMain");
RunEngine(shell.get(), std::move(configuration));
PumpOneFrame(shell.get());
EXPECT_EQ(GetRasterizerResourceCacheBytesSync(*shell),
static_cast<size_t>(3840000U));
DestroyShell(std::move(shell), std::move(task_runners));
}
TEST_F(ShellTest, SetResourceCacheSizeNotifiesDart) {
Settings settings = CreateSettingsForFixture();
auto task_runner = CreateNewThread();
TaskRunners task_runners("test", task_runner, task_runner, task_runner,
task_runner);
std::unique_ptr<Shell> shell =
CreateShell(std::move(settings), std::move(task_runners));
fml::TaskRunner::RunNowOrPostTask(
shell->GetTaskRunners().GetPlatformTaskRunner(), [&shell]() {
shell->GetPlatformView()->SetViewportMetrics(
{1.0, 400, 200, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0});
});
PumpOneFrame(shell.get());
// Create the surface needed by rasterizer
PlatformViewNotifyCreated(shell.get());
auto configuration = RunConfiguration::InferFromSettings(settings);
configuration.SetEntrypoint("testSkiaResourceCacheSendsResponse");
EXPECT_EQ(GetRasterizerResourceCacheBytesSync(*shell),
static_cast<size_t>(3840000U));
fml::AutoResetWaitableEvent latch;
AddNativeCallback("NotifyNative", CREATE_NATIVE_ENTRY([&latch](auto args) {
latch.Signal();
}));
RunEngine(shell.get(), std::move(configuration));
PumpOneFrame(shell.get());
latch.Wait();
EXPECT_EQ(GetRasterizerResourceCacheBytesSync(*shell),
static_cast<size_t>(10000U));
DestroyShell(std::move(shell), std::move(task_runners));
}
TEST_F(ShellTest, CanCreateImagefromDecompressedBytes) {
Settings settings = CreateSettingsForFixture();
auto task_runner = CreateNewThread();
TaskRunners task_runners("test", task_runner, task_runner, task_runner,
task_runner);
std::unique_ptr<Shell> shell =
CreateShell(std::move(settings), std::move(task_runners));
// Create the surface needed by rasterizer
PlatformViewNotifyCreated(shell.get());
auto configuration = RunConfiguration::InferFromSettings(settings);
configuration.SetEntrypoint("canCreateImageFromDecompressedData");
fml::AutoResetWaitableEvent latch;
AddNativeCallback("NotifyWidthHeight",
CREATE_NATIVE_ENTRY([&latch](auto args) {
auto width = tonic::DartConverter<int>::FromDart(
Dart_GetNativeArgument(args, 0));
auto height = tonic::DartConverter<int>::FromDart(
Dart_GetNativeArgument(args, 1));
ASSERT_EQ(width, 10);
ASSERT_EQ(height, 10);
latch.Signal();
}));
RunEngine(shell.get(), std::move(configuration));
latch.Wait();
DestroyShell(std::move(shell), std::move(task_runners));
}
class MockTexture : public Texture {
public:
MockTexture(int64_t textureId,
std::shared_ptr<fml::AutoResetWaitableEvent> latch)
: Texture(textureId), latch_(latch) {}
~MockTexture() override = default;
// Called from GPU thread.
void Paint(SkCanvas& canvas,
const SkRect& bounds,
bool freeze,
GrContext* context) override {}
void OnGrContextCreated() override {}
void OnGrContextDestroyed() override {}
void MarkNewFrameAvailable() override {
frames_available_++;
latch_->Signal();
}
void OnTextureUnregistered() override {
unregistered_ = true;
latch_->Signal();
}
bool unregistered() { return unregistered_; }
int frames_available() { return frames_available_; }
private:
bool unregistered_ = false;
int frames_available_ = 0;
std::shared_ptr<fml::AutoResetWaitableEvent> latch_;
};
TEST_F(ShellTest, TextureFrameMarkedAvailableAndUnregister) {
Settings settings = CreateSettingsForFixture();
auto configuration = RunConfiguration::InferFromSettings(settings);
auto task_runner = CreateNewThread();
TaskRunners task_runners("test", task_runner, task_runner, task_runner,
task_runner);
std::unique_ptr<Shell> shell =
CreateShell(std::move(settings), std::move(task_runners));
ASSERT_TRUE(ValidateShell(shell.get()));
PlatformViewNotifyCreated(shell.get());
RunEngine(shell.get(), std::move(configuration));
std::shared_ptr<fml::AutoResetWaitableEvent> latch =
std::make_shared<fml::AutoResetWaitableEvent>();
std::shared_ptr<MockTexture> mockTexture =
std::make_shared<MockTexture>(0, latch);
fml::TaskRunner::RunNowOrPostTask(
shell->GetTaskRunners().GetGPUTaskRunner(), [&]() {
shell->GetPlatformView()->RegisterTexture(mockTexture);
shell->GetPlatformView()->MarkTextureFrameAvailable(0);
});
latch->Wait();
EXPECT_EQ(mockTexture->frames_available(), 1);
fml::TaskRunner::RunNowOrPostTask(
shell->GetTaskRunners().GetGPUTaskRunner(),
[&]() { shell->GetPlatformView()->UnregisterTexture(0); });
latch->Wait();
EXPECT_EQ(mockTexture->unregistered(), true);
DestroyShell(std::move(shell), std::move(task_runners));
}
TEST_F(ShellTest, IsolateCanAccessPersistentIsolateData) {
const std::string message = "dummy isolate launch data.";
Settings settings = CreateSettingsForFixture();
settings.persistent_isolate_data =
std::make_shared<fml::DataMapping>(message);
TaskRunners task_runners("test", // label
GetCurrentTaskRunner(), // platform
CreateNewThread(), // gpu
CreateNewThread(), // ui
CreateNewThread() // io
);
fml::AutoResetWaitableEvent message_latch;
AddNativeCallback("NotifyMessage",
CREATE_NATIVE_ENTRY([&](Dart_NativeArguments args) {
const auto message_from_dart =
tonic::DartConverter<std::string>::FromDart(
Dart_GetNativeArgument(args, 0));
ASSERT_EQ(message, message_from_dart);
message_latch.Signal();
}));
std::unique_ptr<Shell> shell =
CreateShell(std::move(settings), std::move(task_runners));
ASSERT_TRUE(shell->IsSetup());
auto configuration = RunConfiguration::InferFromSettings(settings);
configuration.SetEntrypoint("canAccessIsolateLaunchData");
fml::AutoResetWaitableEvent event;
shell->RunEngine(std::move(configuration), [&](auto result) {
ASSERT_EQ(result, Engine::RunStatus::Success);
});
message_latch.Wait();
DestroyShell(std::move(shell), std::move(task_runners));
}
TEST_F(ShellTest, Screenshot) {
auto settings = CreateSettingsForFixture();
fml::AutoResetWaitableEvent firstFrameLatch;
settings.frame_rasterized_callback =
[&firstFrameLatch](const FrameTiming& t) { firstFrameLatch.Signal(); };
std::unique_ptr<Shell> shell = CreateShell(settings);
// Create the surface needed by rasterizer