/* * Copyright 2017 The Cartographer Authors * * Licensed under the Apache License, Version 2.0 (the "License"); * you may not use this file except in compliance with the License. * You may obtain a copy of the License at * * http://www.apache.org/licenses/LICENSE-2.0 * * Unless required by applicable law or agreed to in writing, software * distributed under the License is distributed on an "AS IS" BASIS, * WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied. * See the License for the specific language governing permissions and * limitations under the License. */ #include #include #include "cartographer/mapping/internal/test_helpers.h" #include "cartographer/mapping/local_slam_result_data.h" #include "cartographer_grpc/client/map_builder_stub.h" #include "cartographer_grpc/map_builder_server.h" #include "cartographer_grpc/map_builder_server_options.h" #include "cartographer_grpc/testing/mock_map_builder.h" #include "cartographer_grpc/testing/mock_trajectory_builder.h" #include "glog/logging.h" #include "gmock/gmock.h" #include "gtest/gtest.h" using cartographer::mapping::MapBuilder; using cartographer::mapping::MapBuilderInterface; using cartographer::mapping::PoseGraphInterface; using cartographer::mapping::TrajectoryBuilderInterface; using SensorId = cartographer::mapping::TrajectoryBuilderInterface::SensorId; using testing::_; namespace cartographer_grpc { namespace { const SensorId kImuSensorId{SensorId::SensorType::IMU, "imu"}; const SensorId kRangeSensorId{SensorId::SensorType::RANGE, "range"}; constexpr double kDuration = 4.; // Seconds. constexpr double kTimeStep = 0.1; // Seconds. constexpr double kTravelDistance = 1.2; // Meters. class ClientServerTest : public ::testing::Test { protected: void SetUp() override { // TODO(cschuet): Due to the hard-coded addresses these tests will become // flaky when run in parallel. const std::string kMapBuilderServerLua = R"text( include "map_builder_server.lua" MAP_BUILDER.use_trajectory_builder_2d = true MAP_BUILDER.pose_graph.optimize_every_n_nodes = 0 MAP_BUILDER_SERVER.num_event_threads = 1 MAP_BUILDER_SERVER.num_grpc_threads = 1 MAP_BUILDER_SERVER.uplink_server_address = "" return MAP_BUILDER_SERVER)text"; auto map_builder_server_parameters = cartographer::mapping::test::ResolveLuaParameters(kMapBuilderServerLua); map_builder_server_options_ = CreateMapBuilderServerOptions(map_builder_server_parameters.get()); const std::string kTrajectoryBuilderLua = R"text( include "trajectory_builder.lua" TRAJECTORY_BUILDER.trajectory_builder_2d.use_imu_data = false TRAJECTORY_BUILDER.trajectory_builder_2d.submaps.num_range_data = 4 return TRAJECTORY_BUILDER)text"; auto trajectory_builder_parameters = cartographer::mapping::test::ResolveLuaParameters( kTrajectoryBuilderLua); trajectory_builder_options_ = cartographer::mapping::CreateTrajectoryBuilderOptions( trajectory_builder_parameters.get()); local_slam_result_callback_ = [this]( int, cartographer::common::Time, cartographer::transform::Rigid3d local_pose, cartographer::sensor::RangeData, std::unique_ptr) { std::unique_lock lock(local_slam_result_mutex_); local_slam_result_poses_.push_back(local_pose); lock.unlock(); local_slam_result_condition_.notify_all(); }; } void InitializeRealServer() { auto map_builder = cartographer::common::make_unique( map_builder_server_options_.map_builder_options()); server_ = cartographer::common::make_unique( map_builder_server_options_, std::move(map_builder)); EXPECT_TRUE(server_ != nullptr); } void InitializeServerWithMockMapBuilder() { auto mock_map_builder = cartographer::common::make_unique(); mock_map_builder_ = mock_map_builder.get(); server_ = cartographer::common::make_unique( map_builder_server_options_, std::move(mock_map_builder)); EXPECT_TRUE(server_ != nullptr); mock_trajectory_builder_ = cartographer::common::make_unique(); } void InitializeStub() { stub_ = cartographer::common::make_unique( map_builder_server_options_.server_address()); EXPECT_TRUE(stub_ != nullptr); } void WaitForLocalSlamResults(size_t size) { std::unique_lock lock(local_slam_result_mutex_); local_slam_result_condition_.wait( lock, [&] { return local_slam_result_poses_.size() >= size; }); } proto::MapBuilderServerOptions map_builder_server_options_; testing::MockMapBuilder* mock_map_builder_; std::unique_ptr mock_trajectory_builder_; cartographer::mapping::proto::TrajectoryBuilderOptions trajectory_builder_options_; std::unique_ptr server_; std::unique_ptr stub_; TrajectoryBuilderInterface::LocalSlamResultCallback local_slam_result_callback_; std::condition_variable local_slam_result_condition_; std::mutex local_slam_result_mutex_; std::vector local_slam_result_poses_; }; TEST_F(ClientServerTest, StartAndStopServer) { InitializeRealServer(); server_->Start(); server_->Shutdown(); } TEST_F(ClientServerTest, AddTrajectoryBuilder) { InitializeRealServer(); server_->Start(); InitializeStub(); int trajectory_id = stub_->AddTrajectoryBuilder( {kImuSensorId}, trajectory_builder_options_, nullptr); stub_->FinishTrajectory(trajectory_id); server_->Shutdown(); } TEST_F(ClientServerTest, AddTrajectoryBuilderWithMock) { InitializeServerWithMockMapBuilder(); server_->Start(); InitializeStub(); std::set expected_sensor_ids = {kImuSensorId}; EXPECT_CALL( *mock_map_builder_, AddTrajectoryBuilder(::testing::ContainerEq(expected_sensor_ids), _, _)) .WillOnce(::testing::Return(3)); EXPECT_CALL(*mock_map_builder_, GetTrajectoryBuilder(_)) .WillRepeatedly(::testing::Return(nullptr)); int trajectory_id = stub_->AddTrajectoryBuilder( expected_sensor_ids, trajectory_builder_options_, nullptr); EXPECT_EQ(trajectory_id, 3); EXPECT_CALL(*mock_map_builder_, FinishTrajectory(trajectory_id)); stub_->FinishTrajectory(trajectory_id); server_->Shutdown(); } TEST_F(ClientServerTest, AddSensorData) { trajectory_builder_options_.mutable_trajectory_builder_2d_options() ->set_use_imu_data(true); InitializeRealServer(); server_->Start(); InitializeStub(); int trajectory_id = stub_->AddTrajectoryBuilder( {kImuSensorId}, trajectory_builder_options_, nullptr); TrajectoryBuilderInterface* trajectory_stub = stub_->GetTrajectoryBuilder(trajectory_id); cartographer::sensor::ImuData imu_data{ cartographer::common::FromUniversal(42), Eigen::Vector3d(0., 0., 9.8), Eigen::Vector3d::Zero()}; trajectory_stub->AddSensorData(kImuSensorId.id, imu_data); stub_->FinishTrajectory(trajectory_id); server_->Shutdown(); } TEST_F(ClientServerTest, AddSensorDataWithMock) { InitializeServerWithMockMapBuilder(); server_->Start(); InitializeStub(); std::set expected_sensor_ids = {kImuSensorId}; EXPECT_CALL( *mock_map_builder_, AddTrajectoryBuilder(::testing::ContainerEq(expected_sensor_ids), _, _)) .WillOnce(::testing::Return(3)); int trajectory_id = stub_->AddTrajectoryBuilder( expected_sensor_ids, trajectory_builder_options_, nullptr); EXPECT_EQ(trajectory_id, 3); EXPECT_CALL(*mock_map_builder_, GetTrajectoryBuilder(_)) .WillRepeatedly(::testing::Return(mock_trajectory_builder_.get())); cartographer::mapping::TrajectoryBuilderInterface* trajectory_stub = stub_->GetTrajectoryBuilder(trajectory_id); cartographer::sensor::ImuData imu_data{ cartographer::common::FromUniversal(42), Eigen::Vector3d(0., 0., 9.8), Eigen::Vector3d::Zero()}; EXPECT_CALL(*mock_trajectory_builder_, AddSensorData( ::testing::StrEq(kImuSensorId.id), ::testing::Matcher(_))) .WillOnce(::testing::Return()); trajectory_stub->AddSensorData(kImuSensorId.id, imu_data); EXPECT_CALL(*mock_map_builder_, FinishTrajectory(trajectory_id)); stub_->FinishTrajectory(trajectory_id); server_->Shutdown(); } TEST_F(ClientServerTest, LocalSlam2D) { InitializeRealServer(); server_->Start(); InitializeStub(); int trajectory_id = stub_->AddTrajectoryBuilder({kRangeSensorId}, trajectory_builder_options_, local_slam_result_callback_); TrajectoryBuilderInterface* trajectory_stub = stub_->GetTrajectoryBuilder(trajectory_id); const auto measurements = cartographer::mapping::test::GenerateFakeRangeMeasurements( kTravelDistance, kDuration, kTimeStep); for (const auto& measurement : measurements) { trajectory_stub->AddSensorData(kRangeSensorId.id, measurement); } WaitForLocalSlamResults(measurements.size()); stub_->FinishTrajectory(trajectory_id); EXPECT_EQ(local_slam_result_poses_.size(), measurements.size()); EXPECT_NEAR(kTravelDistance, (local_slam_result_poses_.back().translation() - local_slam_result_poses_.front().translation()) .norm(), 0.1 * kTravelDistance); server_->Shutdown(); } TEST_F(ClientServerTest, GlobalSlam3D) { map_builder_server_options_.mutable_map_builder_options() ->set_use_trajectory_builder_2d(false); map_builder_server_options_.mutable_map_builder_options() ->set_use_trajectory_builder_3d(true); map_builder_server_options_.mutable_map_builder_options() ->mutable_pose_graph_options() ->set_optimize_every_n_nodes(3); trajectory_builder_options_.mutable_trajectory_builder_3d_options() ->mutable_motion_filter_options() ->set_max_distance_meters(0); trajectory_builder_options_.mutable_trajectory_builder_3d_options() ->mutable_motion_filter_options() ->set_max_angle_radians(0); InitializeRealServer(); server_->Start(); InitializeStub(); int trajectory_id = stub_->AddTrajectoryBuilder( {kRangeSensorId, kImuSensorId}, trajectory_builder_options_, local_slam_result_callback_); TrajectoryBuilderInterface* trajectory_stub = stub_->GetTrajectoryBuilder(trajectory_id); const auto measurements = cartographer::mapping::test::GenerateFakeRangeMeasurements( kTravelDistance, kDuration, kTimeStep); for (const auto& measurement : measurements) { cartographer::sensor::ImuData imu_data{ measurement.time - cartographer::common::FromSeconds(kTimeStep / 2), Eigen::Vector3d(0., 0., 9.8), Eigen::Vector3d::Zero()}; trajectory_stub->AddSensorData(kImuSensorId.id, imu_data); trajectory_stub->AddSensorData(kRangeSensorId.id, measurement); } // First range data will not call back while initializing PoseExtrapolator, so // expect one less. WaitForLocalSlamResults(measurements.size() - 1); stub_->FinishTrajectory(trajectory_id); EXPECT_NEAR(kTravelDistance, (local_slam_result_poses_.back().translation() - local_slam_result_poses_.front().translation()) .norm(), 0.1 * kTravelDistance); server_->Shutdown(); } } // namespace } // namespace cartographer_grpc