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2026-08-06 13:32:20 -07:00
#include <gtest/gtest.h>
#include <rtabmap/core/SensorCaptureThread.h>
#include <rtabmap/core/Camera.h>
#include <rtabmap/core/Lidar.h>
#include <rtabmap/core/SensorData.h>
#include <rtabmap/core/SensorCaptureInfo.h>
#include <rtabmap/core/Transform.h>
#include <rtabmap/core/Parameters.h>
#include <rtabmap/core/LaserScan.h>
#include <rtabmap/utilite/UTimer.h>
#include <rtabmap/utilite/UThread.h>
#include <opencv2/core.hpp>
using namespace rtabmap;
// Mock Camera implementation for testing
class MockCamera : public Camera
{
public:
MockCamera(float imageRate = 0, const Transform & localTransform = Transform::getIdentity()) :
Camera(imageRate, localTransform),
initCalled_(false),
initResult_(true),
serial_("MOCK_CAMERA_001"),
calibrated_(false),
odomProvided_(false),
captureCount_(0)
{
}
virtual ~MockCamera() {}
virtual bool init(const std::string & calibrationFolder = ".", const std::string & cameraName = "")
{
initCalled_ = true;
calibrationFolder_ = calibrationFolder;
cameraName_ = cameraName;
return initResult_;
}
virtual std::string getSerial() const
{
return serial_;
}
virtual bool isCalibrated() const
{
return calibrated_;
}
virtual bool odomProvided() const
{
return odomProvided_;
}
virtual bool getPose(double stamp, Transform & pose, cv::Mat & covariance, double maxWaitTime = 0.06)
{
if (odomProvided_)
{
pose = Transform(1, 0, 0, 0, 0, 0, 1);
covariance = cv::Mat::eye(6, 6, CV_64FC1);
return true;
}
return false;
}
// Test helpers
void setInitResult(bool result) { initResult_ = result; }
void setSerial(const std::string & serial) { serial_ = serial; }
void setCalibrated(bool calibrated) { calibrated_ = calibrated; }
void setOdomProvided(bool provided) { odomProvided_ = provided; }
bool wasInitCalled() const { return initCalled_; }
std::string getCalibrationFolder() const { return calibrationFolder_; }
std::string getCameraName() const { return cameraName_; }
int getCaptureCount() const { return captureCount_; }
protected:
virtual SensorData captureImage(SensorCaptureInfo * info = 0)
{
++captureCount_;
cv::Mat image = cv::Mat::ones(480, 640, CV_8UC3) * 128;
SensorData data(image, getNextSeqID(), UTimer::now());
return data;
}
private:
bool initCalled_;
bool initResult_;
std::string serial_;
bool calibrated_;
bool odomProvided_;
std::string calibrationFolder_;
std::string cameraName_;
int captureCount_;
};
// Mock Lidar implementation for testing
class MockLidar : public Lidar
{
public:
MockLidar(float lidarRate = 0, const Transform & localTransform = Transform::getIdentity()) :
Lidar(lidarRate, localTransform),
initCalled_(false),
initResult_(true),
serial_("MOCK_LIDAR_001"),
captureCount_(0)
{
}
virtual ~MockLidar() {}
virtual bool init(const std::string & calibrationFolder = ".", const std::string & cameraName = "")
{
initCalled_ = true;
calibrationFolder_ = calibrationFolder;
cameraName_ = cameraName;
return initResult_;
}
virtual std::string getSerial() const
{
return serial_;
}
// Test helpers
void setInitResult(bool result) { initResult_ = result; }
void setSerial(const std::string & serial) { serial_ = serial; }
bool wasInitCalled() const { return initCalled_; }
std::string getCalibrationFolder() const { return calibrationFolder_; }
std::string getCameraName() const { return cameraName_; }
int getCaptureCount() const { return captureCount_; }
protected:
virtual SensorData captureData(SensorCaptureInfo * info = 0)
{
++captureCount_;
// Create a simple laser scan
LaserScan scan = LaserScan::backwardCompatibility(cv::Mat(1, 100, CV_32FC2));
SensorData data;
data.setLaserScan(scan);
data.setStamp(UTimer::now());
return data;
}
private:
bool initCalled_;
bool initResult_;
std::string serial_;
std::string calibrationFolder_;
std::string cameraName_;
int captureCount_;
};
// Constructor Tests
TEST(SensorCaptureThreadTest, ConstructorCameraOnly)
{
MockCamera * camera = new MockCamera();
SensorCaptureThread thread(camera);
EXPECT_FALSE(thread.isCapturing());
EXPECT_TRUE(thread.isPaused());
EXPECT_EQ(thread.camera(), camera);
EXPECT_EQ(thread.lidar(), nullptr);
EXPECT_EQ(thread.odomSensor(), nullptr);
EXPECT_FALSE(thread.odomProvided());
// Thread was never started, destructor will handle cleanup
}
TEST(SensorCaptureThreadTest, ConstructorLidarOnly)
{
MockLidar * lidar = new MockLidar();
SensorCaptureThread thread(lidar);
EXPECT_FALSE(thread.isCapturing());
EXPECT_TRUE(thread.isPaused());
EXPECT_EQ(thread.lidar(), lidar);
EXPECT_EQ(thread.camera(), nullptr);
EXPECT_EQ(thread.odomSensor(), nullptr);
// Thread was never started, destructor will handle cleanup
}
TEST(SensorCaptureThreadTest, ConstructorLidarWithCamera)
{
MockLidar * lidar = new MockLidar();
MockCamera * camera = new MockCamera();
SensorCaptureThread thread(lidar, camera);
EXPECT_FALSE(thread.isCapturing());
EXPECT_EQ(thread.lidar(), lidar);
EXPECT_EQ(thread.camera(), camera);
EXPECT_EQ(thread.odomSensor(), nullptr);
// Thread was never started, destructor will handle cleanup
}
TEST(SensorCaptureThreadTest, ConstructorCameraWithOdomSensor)
{
MockCamera * camera = new MockCamera();
MockCamera * odomSensor = new MockCamera();
Transform extrinsics = Transform::getIdentity();
SensorCaptureThread thread(camera, odomSensor, extrinsics, 0.0, 1.0f, 0.1);
EXPECT_FALSE(thread.isCapturing());
EXPECT_EQ(thread.camera(), camera);
EXPECT_EQ(thread.odomSensor(), odomSensor);
// Thread was never started, destructor will handle cleanup
}
TEST(SensorCaptureThreadTest, ConstructorLidarWithOdomSensor)
{
MockLidar * lidar = new MockLidar();
MockCamera * odomSensor = new MockCamera();
SensorCaptureThread thread(lidar, odomSensor, 0.0, 1.0f, 0.1);
EXPECT_FALSE(thread.isCapturing());
EXPECT_EQ(thread.lidar(), lidar);
EXPECT_EQ(thread.odomSensor(), odomSensor);
// Thread was never started, destructor will handle cleanup
}
TEST(SensorCaptureThreadTest, ConstructorLidarCameraOdom)
{
MockLidar * lidar = new MockLidar();
MockCamera * camera = new MockCamera();
MockCamera * odomSensor = new MockCamera();
Transform extrinsics = Transform::getIdentity();
SensorCaptureThread thread(lidar, camera, odomSensor, extrinsics, 0.0, 1.0f, 0.1);
EXPECT_FALSE(thread.isCapturing());
EXPECT_EQ(thread.lidar(), lidar);
EXPECT_EQ(thread.camera(), camera);
EXPECT_EQ(thread.odomSensor(), odomSensor);
// Thread was never started, destructor will handle cleanup
}
// Configuration Tests
TEST(SensorCaptureThreadTest, SetGetMirroring)
{
MockCamera * camera = new MockCamera();
SensorCaptureThread thread(camera);
thread.setMirroringEnabled(true);
// No getter, so we can't verify directly, but it shouldn't crash
// Thread was never started, destructor will handle cleanup
}
TEST(SensorCaptureThreadTest, SetGetStereoExposureCompensation)
{
MockCamera * camera = new MockCamera();
SensorCaptureThread thread(camera);
thread.setStereoExposureCompensation(true);
// No getter, so we can't verify directly, but it shouldn't crash
// Thread was never started, destructor will handle cleanup
}
TEST(SensorCaptureThreadTest, SetGetColorOnly)
{
MockCamera * camera = new MockCamera();
SensorCaptureThread thread(camera);
thread.setColorOnly(true);
// No getter, so we can't verify directly, but it shouldn't crash
// Thread was never started, destructor will handle cleanup
}
TEST(SensorCaptureThreadTest, SetGetImageDecimation)
{
MockCamera * camera = new MockCamera();
SensorCaptureThread thread(camera);
thread.setImageDecimation(2);
// No getter, so we can't verify directly, but it shouldn't crash
thread.setImageDecimation(4);
thread.setImageDecimation(1);
// Thread was never started, destructor will handle cleanup
}
TEST(SensorCaptureThreadTest, SetGetHistogramMethod)
{
MockCamera * camera = new MockCamera();
SensorCaptureThread thread(camera);
thread.setHistogramMethod(0); // None
thread.setHistogramMethod(1); // EqualizeHist
thread.setHistogramMethod(2); // CLAHE
// Thread was never started, destructor will handle cleanup
}
TEST(SensorCaptureThreadTest, SetGetStereoToDepth)
{
MockCamera * camera = new MockCamera();
SensorCaptureThread thread(camera);
thread.setStereoToDepth(true);
thread.setStereoToDepth(false);
// Thread was never started, destructor will handle cleanup
}
TEST(SensorCaptureThreadTest, SetGetFrameRate)
{
MockCamera * camera = new MockCamera();
SensorCaptureThread thread(camera);
thread.setFrameRate(30.0f);
thread.setFrameRate(0.0f);
thread.setFrameRate(60.0f);
// Thread was never started, destructor will handle cleanup
}
TEST(SensorCaptureThreadTest, SetOdomAsGroundTruth)
{
MockCamera * camera = new MockCamera();
MockCamera * odomSensor = new MockCamera();
Transform extrinsics = Transform::getIdentity();
SensorCaptureThread thread(camera, odomSensor, extrinsics);
thread.setOdomAsGroundTruth(true);
thread.setOdomAsGroundTruth(false);
// Thread was never started, destructor will handle cleanup
}
TEST(SensorCaptureThreadTest, EnableDisableBilateralFiltering)
{
MockCamera * camera = new MockCamera();
SensorCaptureThread thread(camera);
thread.enableBilateralFiltering(5.0f, 50.0f);
thread.disableBilateralFiltering();
// Thread was never started, destructor will handle cleanup
}
TEST(SensorCaptureThreadTest, EnableDisableIMUFiltering)
{
MockCamera * camera = new MockCamera();
SensorCaptureThread thread(camera);
ParametersMap params;
thread.enableIMUFiltering(1, params, false); // Complementary filter
thread.disableIMUFiltering();
// Thread was never started, destructor will handle cleanup
}
TEST(SensorCaptureThreadTest, EnableDisableFeatureDetection)
{
MockCamera * camera = new MockCamera();
SensorCaptureThread thread(camera);
ParametersMap params;
thread.enableFeatureDetection(params);
thread.disableFeatureDetection();
// Thread was never started, destructor will handle cleanup
}
TEST(SensorCaptureThreadTest, SetScanParameters)
{
MockLidar * lidar = new MockLidar();
SensorCaptureThread thread(lidar);
thread.setScanParameters(
false, // fromDepth
1, // downsampleStep
0.0f, // rangeMin
10.0f, // rangeMax
0.05f, // voxelSize
10, // normalsK
0.1f, // normalsRadius
0.8f, // groundNormalsUp
true // deskewing
);
// Thread was never started, destructor will handle cleanup
}
TEST(SensorCaptureThreadTest, SetScanParametersFromDepth)
{
MockLidar * lidar = new MockLidar();
SensorCaptureThread thread(lidar);
thread.setScanParameters(
true, // fromDepth
2, // downsampleStep (image decimation)
0.0f, // rangeMin
0.0f, // rangeMax
0.0f, // voxelSize
0, // normalsK
0.0f, // normalsRadius
0.0f, // groundNormalsUp
false // deskewing
);
// Thread was never started, destructor will handle cleanup
}
// Thread State Tests
TEST(SensorCaptureThreadTest, InitialState)
{
MockCamera * camera = new MockCamera();
SensorCaptureThread thread(camera);
EXPECT_FALSE(thread.isCapturing());
EXPECT_TRUE(thread.isPaused());
// Thread was never started, destructor will handle cleanup
}
TEST(SensorCaptureThreadTest, StartStopThread)
{
MockCamera * camera = new MockCamera();
camera->init(); // Initialize camera before starting thread
SensorCaptureThread thread(camera);
// Start thread
thread.start();
// Give it a moment to start
uSleep(50);
EXPECT_TRUE(thread.isCapturing());
EXPECT_FALSE(thread.isPaused());
// Stop thread
thread.kill();
thread.join();
EXPECT_FALSE(thread.isCapturing());
EXPECT_TRUE(thread.isPaused());
}
TEST(SensorCaptureThreadTest, OdomProvided)
{
MockCamera * camera = new MockCamera();
MockCamera * odomSensor = new MockCamera();
odomSensor->setOdomProvided(true);
Transform extrinsics = Transform::getIdentity();
SensorCaptureThread thread(camera, odomSensor, extrinsics);
EXPECT_TRUE(thread.odomProvided());
// Thread was never started, destructor will handle cleanup
}
TEST(SensorCaptureThreadTest, OdomNotProvided)
{
MockCamera * camera = new MockCamera();
SensorCaptureThread thread(camera);
EXPECT_FALSE(thread.odomProvided());
// Thread was never started, destructor will handle cleanup
}
// Comprehensive Usage Test
TEST(SensorCaptureThreadTest, ComprehensiveConfiguration)
{
MockCamera * camera = new MockCamera();
ParametersMap params;
SensorCaptureThread thread(camera, params);
// Configure all settings
thread.setMirroringEnabled(true);
thread.setStereoExposureCompensation(false);
thread.setColorOnly(false);
thread.setImageDecimation(2);
thread.setHistogramMethod(2); // CLAHE
thread.setStereoToDepth(false);
thread.setFrameRate(30.0f);
thread.setOdomAsGroundTruth(false);
thread.enableBilateralFiltering(5.0f, 50.0f);
// Verify thread state
EXPECT_FALSE(thread.isCapturing());
EXPECT_TRUE(thread.isPaused());
EXPECT_EQ(thread.camera(), camera);
// Thread was never started, destructor will handle cleanup
}
// Edge Cases
TEST(SensorCaptureThreadTest, MultipleConfigurationChanges)
{
MockCamera * camera = new MockCamera();
SensorCaptureThread thread(camera);
// Change settings multiple times
for (int i = 0; i < 10; ++i)
{
thread.setImageDecimation(i % 4 + 1);
thread.setHistogramMethod(i % 3);
thread.setFrameRate((float)(i * 10));
}
// Should not crash
EXPECT_FALSE(thread.isCapturing());
// Thread was never started, destructor will handle cleanup
}
TEST(SensorCaptureThreadTest, ZeroFrameRate)
{
MockCamera * camera = new MockCamera();
SensorCaptureThread thread(camera);
thread.setFrameRate(0.0f); // Unlimited
// Should handle zero frame rate gracefully
EXPECT_FALSE(thread.isCapturing());
// Thread was never started, destructor will handle cleanup
}
TEST(SensorCaptureThreadTest, VeryHighFrameRate)
{
MockCamera * camera = new MockCamera();
SensorCaptureThread thread(camera);
thread.setFrameRate(1000.0f); // Very high frame rate
// Should handle high frame rate gracefully
EXPECT_FALSE(thread.isCapturing());
// Thread was never started, destructor will handle cleanup
}
TEST(SensorCaptureThreadTest, ScanParametersEdgeCases)
{
MockLidar * lidar = new MockLidar();
SensorCaptureThread thread(lidar);
// Test with all zeros (disabled features)
thread.setScanParameters(false, 1, 0.0f, 0.0f, 0.0f, 0, 0.0f, 0.0f, false);
// Test with maximum values
thread.setScanParameters(false, 10, 100.0f, 1000.0f, 1.0f, 100, 5.0f, 1.0f, true);
// Should not crash
EXPECT_FALSE(thread.isCapturing());
// Thread was never started, destructor will handle cleanup
}