eVision C++ API 26.10.0-beta.2.dev
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eVision::EasyDeepLearning::ELocator Class Reference

EasyLocate tool - axis aligned bounding box version. More...

#include <eVision/EasyDeepLearning/EasyLocate/ELocator.h>

Inheritance diagram for eVision::EasyDeepLearning::ELocator:
Collaboration diagram for eVision::EasyDeepLearning::ELocator:

Public Member Functions

 ELocator ()
 Constructs a ELocator object.
 ELocator (const eVision::EasyDeepLearning::ELocator &other)
 Copy constructor of a ELocator object.
virtual ~ELocator () throw ()
eVision::EasyDeepLearning::ELocator & operator= (const eVision::EasyDeepLearning::ELocator &other)
 Assignment operator.
virtual void SerializeSettings (eVision::ESerializer *serializer)
 Serializes the settings of the locator.
virtual eVision::EasyDeepLearning::EDeepLearningToolType GetToolType () const
 Type of the deep learning tool.
std::vector< eVision::ESize > GenerateAnchors (const eVision::EasyDeepLearning::EDataset &dataset) const
 Generates anchors based on the objects in the dataset or a formal specification.
std::vector< eVision::ESize > GenerateAnchors (float minDimension, float maxDimension, int numSubScales, std::vector< float > aspectRatios) const
 Generates anchors based on the objects in the dataset or a formal specification.
void SetSameLabelMaxOverlap (float val)
 Maximum overlap (intersection over union) between two predicted objects with the same label.
float GetSameLabelMaxOverlap () const
 Maximum overlap (intersection over union) between two predicted objects with the same label.
void SetAbsoluteMaxOverlap (float val)
 Maximum overlap (intersection over union) between two predicted objects regardless of their label.
float GetAbsoluteMaxOverlap () const
 Maximum overlap (intersection over union) between two predicted objects regardless of their label.
 ELocator (CppWrapperInternal::InternalConstructor)
Public Member Functions inherited from eVision::EasyDeepLearning::ELocatorBase
virtual ~ELocatorBase () throw ()
void SetCapacity (eVision::EasyDeepLearning::ELocatorCapacity capacity)
 Capacity of the ELocatorBase.
eVision::EasyDeepLearning::ELocatorCapacity GetCapacity () const
 Capacity of the ELocatorBase.
void SetWidth (uint32_t width)
 Width of input images.
uint32_t GetWidth () const
 Width of input images.
void SetHeight (uint32_t height)
 Height of input images.
uint32_t GetHeight () const
 Height of input images.
void SetChannels (uint32_t channels)
 Number of channels of input images. It can either be 1 for grayscale images or 3 for color images.
uint32_t GetChannels () const
 Number of channels of input images. It can either be 1 for grayscale images or 3 for color images.
void SetPredictionAnchors (const std::vector< eVision::ESize > &anchors)
 Prediction anchors.
std::vector< eVision::ESize > GetPredictionAnchors () const
 Prediction anchors.
eVision::EasyDeepLearning::ELocatorMetrics GetTrainingMetrics (int iteration) const
 Training metrics at the given iteration.
eVision::EasyDeepLearning::ELocatorMetrics GetValidationMetrics (int iteration) const
 Validation metrics at the given iteration.
void Train (eVision::EasyDeepLearning::EDataset &dataset)
 Trains the ELocatorBase with the given dataset for the specified number of iterations.
void Train (eVision::EasyDeepLearning::EDataset &dataset, const eVision::EasyDeepLearning::EDataAugmentation &dataAugmentation)
 Trains the ELocatorBase with the given dataset for the specified number of iterations.
void Train (eVision::EasyDeepLearning::EDataset &trainingDataset, eVision::EasyDeepLearning::EDataset &validationDataset)
 Trains the ELocatorBase with the given dataset for the specified number of iterations.
void Train (eVision::EasyDeepLearning::EDataset &trainingDataset, eVision::EasyDeepLearning::EDataset &validationDataset, const eVision::EasyDeepLearning::EDataAugmentation &dataAugmentation)
 Trains the ELocatorBase with the given dataset for the specified number of iterations.
void Train (eVision::EasyDeepLearning::EDataset &dataset, int iterations)
 Trains the ELocatorBase with the given dataset for the specified number of iterations.
void Train (eVision::EasyDeepLearning::EDataset &dataset, const eVision::EasyDeepLearning::EDataAugmentation &dataAugmentation, int iterations)
 Trains the ELocatorBase with the given dataset for the specified number of iterations.
void Train (eVision::EasyDeepLearning::EDataset &trainingDataset, eVision::EasyDeepLearning::EDataset &validationDataset, int iterations)
 Trains the ELocatorBase with the given dataset for the specified number of iterations.
void Train (eVision::EasyDeepLearning::EDataset &trainingDataset, eVision::EasyDeepLearning::EDataset &validationDataset, const eVision::EasyDeepLearning::EDataAugmentation &dataAugmentation, int iterations)
 Trains the ELocatorBase with the given dataset for the specified number of iterations.
eVision::EasyDeepLearning::ELocatorResult Apply (const eVision::EBaseROI &img)
 Applies the tool on the given image and its mask region.
eVision::EasyDeepLearning::ELocatorResult Apply (const eVision::EBaseROI &img, const eVision::ERegion &mask)
 Applies the tool on the given image and its mask region.
eVision::EasyDeepLearning::ELocatorResult Apply (const eVision::EBaseROI &img, const eVision::EFrame &frame)
 Applies the tool on the given image and its mask region.
eVision::EasyDeepLearning::ELocatorResult Apply (const eVision::EBaseROI &img, const eVision::EFrame &frame, const eVision::ERegion &mask)
 Applies the tool on the given image and its mask region.
std::vector< eVision::EasyDeepLearning::ELocatorResult > Apply (const std::vector< eVision::EImageBW8 > &imgs)
 Applies the tool on the given image and its mask region.
std::vector< eVision::EasyDeepLearning::ELocatorResult > Apply (const std::vector< eVision::EImageBW8 > &imgs, const std::vector< eVision::ERegion > &masks)
 Applies the tool on the given image and its mask region.
std::vector< eVision::EasyDeepLearning::ELocatorResult > Apply (const std::vector< eVision::EImageBW16 > &imgs)
 Applies the tool on the given image and its mask region.
std::vector< eVision::EasyDeepLearning::ELocatorResult > Apply (const std::vector< eVision::EImageBW16 > &imgs, const std::vector< eVision::ERegion > &masks)
 Applies the tool on the given image and its mask region.
std::vector< eVision::EasyDeepLearning::ELocatorResult > Apply (const std::vector< eVision::EImageC24 > &imgs)
 Applies the tool on the given image and its mask region.
std::vector< eVision::EasyDeepLearning::ELocatorResult > Apply (const std::vector< eVision::EImageC24 > &imgs, const std::vector< eVision::ERegion > &masks)
 Applies the tool on the given image and its mask region.
std::vector< eVision::EasyDeepLearning::ELocatorResult > Apply (const std::vector< const eVision::EBaseROI * > &imgs)
 Applies the tool on the given image and its mask region.
std::vector< eVision::EasyDeepLearning::ELocatorResult > Apply (const std::vector< const eVision::EBaseROI * > &imgs, const std::vector< eVision::ERegion > &masks)
 Applies the tool on the given image and its mask region.
eVision::EasyDeepLearning::ELocatorMetrics Evaluate (const eVision::EasyDeepLearning::EDataset &dataset)
 Evaluates the dataset.
float GetDetectionThreshold () const
 Detection threshold. The detection threshold is set automatically during training to maximize accuracy. It can also be changed after training to obtain a different true positive/false positive tradeoff.
void SetDetectionThreshold (float threshold)
 Detection threshold. The detection threshold is set automatically during training to maximize accuracy. It can also be changed after training to obtain a different true positive/false positive tradeoff.
void SetMaxNumberOfObjects (int val)
 Maximum number of objects in an image (default value: 100).
int GetMaxNumberOfObjects () const
 Maximum number of objects in an image (default value: 100).
void SetSameLabelMaxObjectProximity (float val)
 Maximum proximity between two predicted objects with the same label.
float GetSameLabelMaxObjectProximity () const
 Maximum proximity between two predicted objects with the same label.
void SetAbsoluteMaxObjectProximity (float val)
 Maximum proximity between two predicted objects regardless of their label.
float GetAbsoluteMaxObjectProximity () const
 Maximum proximity between two predicted objects regardless of their label.
int GetLocatorFeatures () const
 The features supported by the locator.
bool HasFeature (eVision::EasyDeepLearning::ELocatorFeature feature)
 Whether the given feature is enabled.
 ELocatorBase (CppWrapperInternal::InternalConstructor)
Public Member Functions inherited from eVision::EasyDeepLearning::EDeepLearningTool
virtual ~EDeepLearningTool () throw ()
virtual void Load (const std::string &filePath)
 Loads a deep learning tool. The given ESerializer must have been created for reading.
virtual void Load (eVision::ESerializer *serializer)
 Loads a deep learning tool. The given ESerializer must have been created for reading.
std::unique_ptr< eVision::EasyDeepLearning::EDeepLearningTool > Clone () const
 Clones this tool.
virtual void Save (const std::string &filePath, bool includeTrainingModel)
 Saves the settings, inference and training model of the deep learning tool.
virtual void Save (const std::string &filePath)
 Saves the settings, inference and training model of the deep learning tool.
virtual void Save (eVision::ESerializer *serializer, bool includeTrainingModel)
 Saves the settings, inference and training model of the deep learning tool.
virtual void Save (eVision::ESerializer *serializer)
 Saves the settings, inference and training model of the deep learning tool.
void SerializeInferenceModel (eVision::ESerializer *serializer)
 Serializes the inference model of the tool.
void SerializeTrainingModel (eVision::ESerializer *serializer)
 Serializes the training model of the tool.
void SaveSettings (const std::string &filePath)
 Saves the settings of the tool to a file.
void SaveInferenceModel (const std::string &filePath)
 Saves the tool's inference model to a file.
void SaveTrainingModel (const std::string &filePath)
 Saves the tool's training model to a file.
void LoadSettings (const std::string &filePath)
 Loads the settings of a tool.
void LoadInferenceModel (const std::string &filePath)
 Loads the tool's inference model. The inference model is required to apply the tool on new images.
void LoadTrainingModel (const std::string &filePath)
 Loads the tool's training model. The training model is required to continue a training.
void UnloadInferenceModel ()
 Unloads the inference model.
void UnloadTrainingModel ()
 Unloads the training model.
void UnloadModels ()
 Unloads the inference and training model.
bool HasInferenceModel () const
 Whether the inference model is loaded or created when the tool is not yet trained.
bool HasTrainingModel () const
 Whether the training model is loaded or created when the tool is not yet trained.
bool IsTrained () const
 Tells whether the deep learning tool has been trained.
void SetEnableGPU (bool enable)
 Enable the use of a GPU for training and inference of the deep learning tool. If the active engine is not the default engine, EDeepLearningTool::SetEnableGPU will be false even if the active device has a GPU device type. Setting EDeepLearningTool::SetEnableGPU to any value when the active engine is not the default one will throw an exception.
bool GetEnableGPU () const
 Enable the use of a GPU for training and inference of the deep learning tool. If the active engine is not the default engine, EDeepLearningTool::SetEnableGPU will be false even if the active device has a GPU device type. Setting EDeepLearningTool::SetEnableGPU to any value when the active engine is not the default one will throw an exception.
void SetGPUIndexes (const std::vector< uint32_t > &indexes)
 Indexes of the GPUs to use for computations.
std::vector< uint32_t > GetGPUIndexes () const
 Indexes of the GPUs to use for computations.
uint32_t GetNumGPUs () const
 Number of detected NVIDIA GPU.
void SetEngine (const std::string &engineName)
 Sets the engine with which to execute or train the neural network.
std::string GetEngine () const
 Sets the engine with which to execute or train the neural network.
eVision::EasyDeepLearning::EDeepLearningInferencePrecision GetInferencePrecision () const
 Inference precision.
void SetInferencePrecision (eVision::EasyDeepLearning::EDeepLearningInferencePrecision prec)
 Inference precision.
int GetNumAvailableDevices () const
 Available devices for the current EDeepLearningTool::SetEngine.
std::string GetAvailableDeviceName (int i) const
 Name of the i-th device of the current engine.
eVision::EasyDeepLearning::EDeepLearningDevice GetAvailableDevice (int i) const
 i-th EDeepLearningDevice of the current engine.
std::vector< eVision::EasyDeepLearning::EDeepLearningDevice > GetAvailableDevices () const
 Get all available device for the current engine.
int GetNumActiveDevices () const
 Gets the number of devices with which to run or train the model.
void SetActiveDevice (const eVision::EasyDeepLearning::EDeepLearningDevice &device)
 Sets the device with which to run or train the model.
eVision::EasyDeepLearning::EDeepLearningDevice GetActiveDevice (int i) const
 Gets the active device. By default, it returns the first active device.
eVision::EasyDeepLearning::EDeepLearningDevice GetActiveDevice () const
 Gets the active device. By default, it returns the first active device.
void SetActiveDeviceByName (const std::string &name)
 Sets the device with which to run the model using its name.
void SetActiveDeviceById (int id)
 Sets the device with which to run the model using its index in the list returned by EDeepLearningTool::GetAvailableDevices.
std::vector< eVision::EasyDeepLearning::EDeepLearningDevice > GetActiveDevices () const
 Devices with which to run or train the model.
void SetActiveDevices (const std::vector< eVision::EasyDeepLearning::EDeepLearningDevice > &devices)
 Devices with which to run or train the model.
void SetActiveDevicesById (const std::vector< int > &ids)
 Sets the devices with which to run the model using their index in the list returned by EDeepLearningTool::GetAvailableDevices.
eVision::EasyDeepLearning::EDeepLearningExecutionSettings GetExecutionSettings () const
 Execution settings of the tool (engine, device(s), inference precision, batch size settings).
void SetExecutionSettings (const eVision::EasyDeepLearning::EDeepLearningExecutionSettings &settings)
 Execution settings of the tool (engine, device(s), inference precision, batch size settings).
bool HasEngineSetupData () const
 Whether the inference model has engine setup data.
void ClearEngineSetupData ()
 Clears the engine data saved in the inference model. Use this method when your engine fails.
eVision::EasyDeepLearning::EDeepLearningDevice GetEngineSetupDataDevice () const
 Device corresponding to the engine data contained in the tool.
eVision::EasyDeepLearning::EDeepLearningInferencePrecision GetEngineSetupDataInferencePrecision () const
 Inference precision corresponding to the engine data contained in the tool.
int32_t GetEngineSetupDataBatchSize () const
 Batch size corresponding to the engine data contained in the tool.
bool GetOptimizeBatchSize () const
 Indicates whether to optimize the batch size (see EDeepLearningTool::SetBatchSize) to maximize the training and inference speed according to the engine, the device and the available memory.
void SetOptimizeBatchSize (bool optimize)
 Indicates whether to optimize the batch size (see EDeepLearningTool::SetBatchSize) to maximize the training and inference speed according to the engine, the device and the available memory.
int32_t GetBatchSizeForMaximumInferenceSpeed () const
 Computes the batch size that will maximize the inference speed on NVIDIA GPU. For all other devices, it will return 1.
void SetBatchSize (int32_t size)
 Batch size. The batch size is the number of images that are processed together during training and batch inference.
int32_t GetBatchSize () const
 Batch size. The batch size is the number of images that are processed together during training and batch inference.
bool IsTraining () const
 Indicates whether the object is currently training.
int WaitForTrainingCompletion (int timeout)
 Waits until the training is complete or the timeout is expired. A call to this method will block the calling thread for the shortest time between the timeout and the time it takes for the training to complete.
int WaitForTrainingCompletion ()
 Waits until the training is complete or the timeout is expired. A call to this method will block the calling thread for the shortest time between the timeout and the time it takes for the training to complete.
int WaitForIterationCompletion ()
 Waits until an iteration is complete. A call to this method will block the calling thread until a training iteration in the training thread is finished. This method returns the number of trained iterations.
int StopTraining (bool wait)
 Stops training and returns the last completed iteration. If the parameter 'wait' is set to true, the method will wait for the training thread to completely stop. Otherwise, the method will return immediately.
float GetCurrentTrainingProgression () const
 Current training progression as a percentage (between 0 and 1).
uint32_t GetCurrentTrainingFinishedIterations () const
 Number of iterations that are already finished in the current training.
uint32_t GetCurrentTrainingNumIterations () const
 Total number of training iterations that will be performed during the current training of the deep learning tool.
uint32_t GetNumTrainedIterations () const
 Number of iterations that were performed to train this deep learning tool.
int GetBestIteration () const
 Iteration at which the minimum validation error was reached. After training, the tool is in the state it was at this best iteration.
void SetImageCacheSize (uint64_t size)
 Size in byte of the image cache. The cache is used during training to store reformatted and normalized images. A correctly sized cache can reduce the hard drive accesses and the preprocessing time for each image.
uint64_t GetImageCacheSize () const
 Size in byte of the image cache. The cache is used during training to store reformatted and normalized images. A correctly sized cache can reduce the hard drive accesses and the preprocessing time for each image.
std::string GetPath () const
 Path of the tool when loaded or saved using EDeepLearningTool::Save or EDeepLearningTool::Load.
std::string GetInferenceModelPath () const
 Path of the inference model when loaded or saved using EDeepLearningTool::SaveInferenceModel, EDeepLearningTool::LoadInferenceModel or EDeepLearningTool::SerializeInferenceModel.
std::string GetTrainingModelPath () const
 Path of the training model when loaded or saved using EDeepLearningTool::SaveTrainingModel, EDeepLearningTool::LoadTrainingModel or EDeepLearningTool::SerializeTrainingModel.
std::string GetSettingsPath () const
 Path of the settings when loaded or saved using EDeepLearningTool::SaveSettings, EDeepLearningTool::LoadSettings or EDeepLearningTool::SerializeSettings.
void SetAutoSavePeriod (int period)
 Auto-save period. The auto-save period is the number of training iterations between each automatic save of the model.
int GetAutoSavePeriod () const
 Auto-save period. The auto-save period is the number of training iterations between each automatic save of the model.
void SetLearningRate (eVision::EasyDeepLearning::EDeepLearningLearningRateType type, const std::vector< float > &parameters)
 Specifies how the value of the learning rate and how it evolves during training.
eVision::EasyDeepLearning::EDeepLearningLearningRateType GetLearningRateType () const
 Learning rate type.
std::vector< float > GetLearningRateParameters () const
 Parameters of the learning rate.
void SetEnableDeterministicTraining (bool enable)
 Whether to use deterministic training algorithm that allows to repeatable training results. Default value: false.
bool GetEnableDeterministicTraining () const
 Whether to use deterministic training algorithm that allows to repeatable training results. Default value: false.
void SetDeterministicTrainingRandomSeed (int32_t seed)
 Random seed to use when EDeepLearningTool::SetEnableDeterministicTraining is set to true. The default value is 42.
int32_t GetDeterministicTrainingRandomSeed () const
 Random seed to use when EDeepLearningTool::SetEnableDeterministicTraining is set to true. The default value is 42.
void InitializeInference (int width, int height, eVision::EImageType imageType, int numImages)
 Initializes the neural network for inference (i.e. making predictions with the neural network).
void InitializeInference (const eVision::EBaseROI &img)
 Initializes the neural network for inference (i.e. making predictions with the neural network).
void InitializeInference (std::vector< const eVision::EBaseROI * > &imgList)
 Initializes the neural network for inference (i.e. making predictions with the neural network).
void InitializeInference (std::vector< eVision::EImageBW8 > &imgList)
 Initializes the neural network for inference (i.e. making predictions with the neural network).
void InitializeInference (std::vector< eVision::EImageBW16 > &imgList)
 Initializes the neural network for inference (i.e. making predictions with the neural network).
void InitializeInference (std::vector< eVision::EImageC24 > &imgList)
 Initializes the neural network for inference (i.e. making predictions with the neural network).
uint32_t GetNumLabels () const
 Number of labels of this tool. If the tool is not trained, the method will throw an exception.
std::string GetLabel (uint32_t index) const
 Gets the label from its index. If the tool is not trained, the method may throw an exception.
virtual void SetLabel (uint32_t index, const std::string &label)
 Changes a label predicted by the tool.
void SetLabelWeight (uint32_t index, float weight)
 Sets the label weight. If the tool is not trained, the label weights are not defined. After training, they are set to the value of the training dataset label weights.
float GetLabelWeight (uint32_t index) const
 Gets the label weight. If the tool is not trained, the label weights are not defined. After training, they are set to the value of the training dataset label weights.
void SetLabelColor (uint32_t index, const eVision::ERGBColor &c)
 Changes a label color.
eVision::ERGBColor GetLabelColor (uint32_t index) const
 Label color. The label colors affect how the results will be displayed.
void SetLabelOpacity (uint32_t index, uint8_t opacity)
 Changes a label opacity (between 0 for fully transparent and 255 for opaque color).
uint8_t GetLabelOpacity (uint32_t index) const
 Gets the label opacity (between 0 for fully transparent and 255 for opaque color). The label opacities affect with the label colors how the results will be displayed.
int GetOptimalNumImagesForBatchSize (const eVision::EBaseROI &sampleImage) const
 Optimal number of images to process together for inference given the batch size and EDeepLearningTool::GetNumPatchesForImage.
int GetOptimalNumImagesForBatchSize (int imageWidth, int imageHeight) const
 Optimal number of images to process together for inference given the batch size and EDeepLearningTool::GetNumPatchesForImage.
int GetNumPatchesForImage (const eVision::EBaseROI &sampleImage) const
 Number of patches that will be extracted from an input image to perform inference.
virtual int GetNumPatchesForImage (int imageWidth, int imageHeight) const
 Number of patches that will be extracted from an input image to perform inference.
virtual void Clean ()
 Reset the engine and clean CPU and GPU memory allocated for running the model.
 EDeepLearningTool (CppWrapperInternal::InternalConstructor)

Additional Inherited Members

Static Public Member Functions inherited from eVision::EasyDeepLearning::EDeepLearningTool
static std::unique_ptr< eVision::EasyDeepLearning::EDeepLearningTool > Create (const std::string &path)
 Factory method to open a deep learning tool.
static std::unique_ptr< eVision::EasyDeepLearning::EDeepLearningTool > Create (eVision::ESerializer *serializer)
 Factory method to open a deep learning tool.
static std::unique_ptr< eVision::EasyDeepLearning::EDeepLearningTool > Create (eVision::EasyDeepLearning::EDeepLearningToolType type)
 Factory method to open a deep learning tool.
static int GetNumAvailableEngines ()
 Number of available engines.
static std::string GetAvailableEngineName (int id)
 Gets the name of the engine given its id.
static std::vector< std::string > GetAvailableEngines ()
 Available engines.
static std::vector< eVision::EasyDeepLearning::EDeepLearningDevice > GetAvailableDevicesForEngine (const std::string &engine)
 Available devices for the specified engine.
Public Attributes inherited from eVision::EasyDeepLearning::EDeepLearningTool
CppWrapperInternal::WrappedClass wrappedClass_

Detailed Description

EasyLocate tool - axis aligned bounding box version.

The ELocator locates and classifies objects (or defects). With this class, an object is defined by the axis-aligned bounding box that surrounds it and a label (see ELocatorObject class). The tool must be trained using a dataset with annotated objects. The minimum size resolution supported by the tool is 128. The maximum size of the image supported is 500 000 pixels.

The tool has 5 main parameters:

License(s): EasyLocate or EasyLocateInference

Constructor & Destructor Documentation

◆ ELocator() [1/3]

eVision::EasyDeepLearning::ELocator::ELocator ( )

Constructs a ELocator object.

◆ ELocator() [2/3]

eVision::EasyDeepLearning::ELocator::ELocator ( const eVision::EasyDeepLearning::ELocator & other)

Copy constructor of a ELocator object.

Parameters
otherReference to the ELocator object that should be copied

◆ ~ELocator()

eVision::EasyDeepLearning::ELocator::~ELocator ( )
throw ( )
virtual

◆ ELocator() [3/3]

eVision::EasyDeepLearning::ELocator::ELocator ( CppWrapperInternal::InternalConstructor )

Member Function Documentation

◆ GenerateAnchors() [1/2]

std::vector< eVision::ESize > eVision::EasyDeepLearning::ELocator::GenerateAnchors ( const eVision::EasyDeepLearning::EDataset & dataset) const

Generates anchors based on the objects in the dataset or a formal specification.

For the version that takes a dataset, the properties ELocatorBase::SetWidth and ELocatorBase::SetHeight must be set.

Parameters
datasetDataset

The dimension of an object corresponds to the square root of its area.

◆ GenerateAnchors() [2/2]

std::vector< eVision::ESize > eVision::EasyDeepLearning::ELocator::GenerateAnchors ( float minDimension,
float maxDimension,
int numSubScales,
std::vector< float > aspectRatios ) const

Generates anchors based on the objects in the dataset or a formal specification.

For the version that takes a dataset, the properties ELocatorBase::SetWidth and ELocatorBase::SetHeight must be set.

Parameters
minDimensionMinimum dimension of objects (minimum value: 16)
maxDimensionMaximum dimension of objects.
numSubScalesNumber of sub-scales to produce for each scale covered by the given dimensions.
aspectRatiosAspect ratios to generate at each scale. The aspect ratios are the ratios between the width and height of the anchor. Recommended value: {1.0f, 0.5f, 2.0f}.

The dimension of an object corresponds to the square root of its area.

◆ GetAbsoluteMaxOverlap()

float eVision::EasyDeepLearning::ELocator::GetAbsoluteMaxOverlap ( ) const

Maximum overlap (intersection over union) between two predicted objects regardless of their label.

The value of the parameter must be between 0 (no overlap allowed between two predicted objects with different labels) and 1 (full overlap allowed between two predicted objects with different labels).

Default value: 1.

This parameter can be changed before and after training.

◆ GetSameLabelMaxOverlap()

float eVision::EasyDeepLearning::ELocator::GetSameLabelMaxOverlap ( ) const

Maximum overlap (intersection over union) between two predicted objects with the same label.

The value of the parameter must be between 0 (no overlap allowed between two predicted objects with the same label) and 1 (full overlap allowed between two predicted objects with the same label). A low value will reduce the amount of falsely detected objects but may increase the number of missed objects. A high value will increase the number of falsely detected objects and reduce the number of missed objects.

Default value: 0.5

This parameter is also used to compute the matching between ground truth and predicted objects during evaluation.

This parameter can be changed before and after training.

◆ GetToolType()

eVision::EasyDeepLearning::EDeepLearningToolType eVision::EasyDeepLearning::ELocator::GetToolType ( ) const
virtual

Type of the deep learning tool.

Implements eVision::EasyDeepLearning::EDeepLearningTool.

◆ operator=()

eVision::EasyDeepLearning::ELocator & eVision::EasyDeepLearning::ELocator::operator= ( const eVision::EasyDeepLearning::ELocator & other)

Assignment operator.

Parameters
otherReference to the ELocator object that should be copied

◆ SerializeSettings()

void eVision::EasyDeepLearning::ELocator::SerializeSettings ( eVision::ESerializer * serializer)
virtual

Serializes the settings of the locator.

Parameters
serializerPointer to ESerializer

Reimplemented from eVision::EasyDeepLearning::ELocatorBase.

◆ SetAbsoluteMaxOverlap()

void eVision::EasyDeepLearning::ELocator::SetAbsoluteMaxOverlap ( float val)

Maximum overlap (intersection over union) between two predicted objects regardless of their label.

The value of the parameter must be between 0 (no overlap allowed between two predicted objects with different labels) and 1 (full overlap allowed between two predicted objects with different labels).

Default value: 1.

Parameters
valMaximum overlap

This parameter can be changed before and after training.

◆ SetSameLabelMaxOverlap()

void eVision::EasyDeepLearning::ELocator::SetSameLabelMaxOverlap ( float val)

Maximum overlap (intersection over union) between two predicted objects with the same label.

The value of the parameter must be between 0 (no overlap allowed between two predicted objects with the same label) and 1 (full overlap allowed between two predicted objects with the same label). A low value will reduce the amount of falsely detected objects but may increase the number of missed objects. A high value will increase the number of falsely detected objects and reduce the number of missed objects.

Default value: 0.5

Parameters
valMaximum overlap

This parameter is also used to compute the matching between ground truth and predicted objects during evaluation.

This parameter can be changed before and after training.