Loading ccsrc/Externals/LibItsSecurity_externals.cc +7 −12 Original line number Diff line number Diff line Loading @@ -270,19 +270,12 @@ namespace LibItsSecurity__Functions p__tag = OCTETSTRING(ec.tag().size(), ec.tag().data()); loggers::get_instance().log_to_hexa("fx__encryptWithEciesNistp256WithSha256: p__tag: ", p__tag); // Encrypt symmetric key // Encrypt the symmetric key OCTETSTRING encSymKey = OCTETSTRING(ec.nonce().size(), ec.symmetric_encryption_key().data()); loggers::get_instance().log_to_hexa("fx__encryptWithEciesNistp256WithSha256: p__encSymKey: ", encSymKey); // Create new instance of ECC // 1. Create new instance of ECC security_ecc ec_ecies(ec_elliptic_curves::nist_p_256); // Generate (Private,Public) keys // 2. Generate (Private,Public) keys ec_ecies.generate(); // Generate ephemeral key and derive it std::vector<unsigned char> peer_public_key_x(static_cast<const unsigned char *>(p__peerPublicKeyX), p__peerPublicKeyX.lengthof() + static_cast<const unsigned char *>(p__peerPublicKeyX)); Loading @@ -294,7 +287,7 @@ namespace LibItsSecurity__Functions loggers::get_instance().warning("fx__encryptWithEciesNistp256WithSha256: Failed to generate and derive sender's ephemeral key"); return OCTETSTRING(); } // Encrypt the symmetric encryption key using existing nonce and symmetric encryption key // 3. Encrypt the symmetric encryption key using existing nonce and symmetric encryption key std::vector<unsigned char> enc_eph_key; if (ec.encrypt(encryption_algotithm::aes_128_ccm, ec_ecies.ephemeral_key(), ec.nonce(), ec.symmetric_encryption_key(), enc_eph_key) == -1) { loggers::get_instance().warning("fx__encryptWithEciesNistp256WithSha256: Failed to encrypt message"); Loading @@ -312,6 +305,8 @@ namespace LibItsSecurity__Functions } OCTETSTRING fx__decryptWithEciesNistp256WithSha256(const OCTETSTRING& p__encryptedSecuredMessage, const OCTETSTRING& p__publicKeyX, const OCTETSTRING& p__publicKeyY, const OCTETSTRING& p__nonce, const OCTETSTRING& p__tag) { OCTETSTRING os; os = OCTETSTRING(); Loading ccsrc/Framework/TLayer.hhdeleted 100644 → 0 +0 −35 Original line number Diff line number Diff line /*! * \file t_layer.hh * \brief Header file for ITS abstract protocol layer definition. * \author ETSI STF525 * \copyright ETSI Copyright Notification * No part may be reproduced except as authorized by written permission. * The copyright and the foregoing restriction extend to reproduction in all media. * All rights reserved. * \version 0.1 */ #pragma once #include "Layer.hh" template <typename TPort> class TLayer : public Layer { typedef std::vector<TPort*> TPortList; typedef typename std::vector<TPort*>::iterator TPortListIterator; TPortList upperPorts; public: explicit TLayer() : Layer(), upperPorts() { }; explicit TLayer(const std::string& p_type) : Layer(p_type), upperPorts() { }; void addUpperPort(TPort * p_port) { upperPorts.push_back(p_port); }; void removeUpperPort(TPort*); protected: template <typename TMessage> inline void toAllUpperPorts(const TMessage& m, const Params& param) { for(TPortListIterator it=upperPorts.begin(); it<upperPorts.end(); ++it){ (*it)->receiveMsg(m, param); } } }; // End of class TLayer ccsrc/Framework/Layer.hh→ccsrc/Framework/layer.hh +36 −38 Original line number Diff line number Diff line Loading @@ -23,12 +23,12 @@ class CHARSTRING; //! Forward declaration of TITAN class class INTEGER; //! Forward declaration of TITAN class /*! * \class Layer * \class layer * \brief This class provides basic description of an ITS protocol layer */ class Layer { std::vector<Layer*> upperLayers; //! List of the upper protocol layers std::vector<Layer*> lowerLayers; //! List of the lower protocol layers class layer { std::vector<layer*> upperLayers; //! List of the upper protocol layers std::vector<layer*> lowerLayers; //! List of the lower protocol layers protected: std::string type; //! Type description, it indicates the protocol type (e.g. CAM, DENM, GN, ETH, PCAP...) Loading @@ -36,47 +36,45 @@ protected: public: //! \publicsection /*! * \brief Default constructor * Create a new instance of the Layer class * \todo Remove logs * Create a new instance of the layer class */ explicit Layer() : upperLayers(), lowerLayers(), type(std::string("")) { }; explicit layer() : upperLayers(), lowerLayers(), type(std::string("")) { }; /*! * \brief Specialized constructor * Create a new instance of the Layer class with its type description * \remark This constructor is called by the Layer factory * Create a new instance of the layer class with its type description * \param[in] p_type The port type name (e.g. GN for the GeoNetworking layer) * \remark This constructor is called by the layer factory * \see layer_factory * \todo Remove logs */ explicit Layer(const std::string& p_type) : upperLayers(), lowerLayers(), type(std::string(p_type.begin(), p_type.end())) { }; explicit layer(const std::string& p_type) : upperLayers(), lowerLayers(), type(std::string(p_type.begin(), p_type.end())) { }; /*! * \brief Default destructor * \todo Remove logs */ virtual ~Layer() { virtual ~layer() { // Double linked list, only remove layers in lowerLayers from the lowest one std::for_each(lowerLayers.rbegin(), lowerLayers.rend(), [](Layer* it) { delete it; } ); std::for_each(lowerLayers.rbegin(), lowerLayers.rend(), [](layer* it) { delete it; } ); lowerLayers.clear(); upperLayers.clear(); }; /*! * \fn void deleteLayer(); * \fn void delete_layer(); * \brief Delete this layer * \todo To be done * \todo To be implemented */ void deleteLayer() { }; void delete_layer() { }; public: //! \publicsection /*! * \inline * \fn void addUpperLayer(Layer* p_layer); * \fn void add_upper_layer(layer* p_layer); * \brief Add a new layer in the list of the upper layer * \param[in] p_layer The layer protocol to be removed * \todo Remove logs */ inline void addUpperLayer(Layer* p_layer) { inline void add_upper_layer(layer* p_layer) { if (p_layer != NULL) { upperLayers.push_back(p_layer); p_layer->lowerLayers.push_back(this); Loading @@ -84,34 +82,34 @@ public: //! \publicsection }; /*! * \fn void removeUpperLayer(Layer* p_layer); * \fn void remove_upper_layer(layer* p_layer); * \brief Remove the specified upper layer protocol from the list of the upper layer * \param[in] p_layer The layer protocol to be removed * \todo To be implemented */ void removeUpperLayer(Layer* p_layer) { }; void remove_upper_layer(layer* p_layer) { }; /*! * \virtual * \fn void sendData(OCTETSTRING& data, Params& params); * \fn void send_data(OCTETSTRING& data, Params& params); * \brief Send bytes formated data to the lower layers * \param[in] p_data The data to be sent * \param[in] p_params Some parameters to overwrite default value of the lower layers parameters * \todo Remove the logs * \virtual */ virtual void sendData(OCTETSTRING& p_data, Params& p_params) { }; virtual void send_data(OCTETSTRING& p_data, Params& p_params) { }; /*! * \virtual * \fn void receiveData(OCTETSTRING& data, Params& params); * \fn void receive_data(OCTETSTRING& data, Params& params); * \brief Receive bytes formated data from the lower layers * \param[in] p_data The bytes formated data received * \param[in] p_params Some lower layers parameters values when data was received * \todo Remove the logs * \virtual */ virtual void receiveData(OCTETSTRING& p_data, Params& p_params) { } virtual void receive_data(OCTETSTRING& p_data, Params& p_params) { } /*! * \inline Loading @@ -122,25 +120,25 @@ public: //! \publicsection inline const std::string& to_string() const { return type; }; protected: //! \protectedsection inline void toAllLayers(std::vector<Layer*>&layers, OCTETSTRING& data, Params& params) { for (std::vector<Layer*>::const_iterator it = layers.cbegin(); it != layers.cend(); ++it) { Layer * p = *it; p->receiveData(data, params); // FIXME BUG I inline void to_all_layers(std::vector<layer*>&layers, OCTETSTRING& data, Params& params) { for (std::vector<layer*>::const_iterator it = layers.cbegin(); it != layers.cend(); ++it) { layer* p = *it; p->receive_data(data, params); // FIXME BUG I } // End of 'for' statement }; inline void receiveToAllLayers(OCTETSTRING& data, Params& params) { for (std::vector<Layer*>::const_iterator it = upperLayers.cbegin(); it != upperLayers.cend(); ++it) { Layer * p = *it; p->receiveData(data, params); inline void receive_to_all_layers(OCTETSTRING& data, Params& params) { for (std::vector<layer*>::const_iterator it = upperLayers.cbegin(); it != upperLayers.cend(); ++it) { layer* p = *it; p->receive_data(data, params); } // End of 'for' statement }; inline void sendToAllLayers(OCTETSTRING& data, Params& params) { for (std::vector<Layer*>::const_iterator it = lowerLayers.cbegin(); it != lowerLayers.cend(); ++it) { Layer * p = *it; p->sendData(data, params); inline void send_to_all_layers(OCTETSTRING& data, Params& params) { for (std::vector<layer*>::const_iterator it = lowerLayers.cbegin(); it != lowerLayers.cend(); ++it) { layer* p = *it; p->send_data(data, params); } // End of 'for' statement }; }; // End of class Layer }; // End of class layer ccsrc/Framework/layer_factory.hh +8 −8 Original line number Diff line number Diff line Loading @@ -15,11 +15,11 @@ #include <vector> #include <algorithm> #include "Layer.hh" #include "layer.hh" /*! * \class layer_factory * \brief This class provides a factory class to create Layer class instances * \brief This class provides a factory class to create layer class instances * \abstract */ class layer_factory { Loading @@ -30,25 +30,25 @@ public: //! \publicsection */ layer_factory() {}; /*! * \fn Layer * create_layer(const std::string & type, const std::string & param); * \fn layer* create_layer(const std::string & type, const std::string & param); * \brief Create the layers stack based on the provided layers stack description (cf. remark) * \param[in] p_type The provided layers stack description * \param[in] p_params Optional parameters * \return 0 on success, -1 otherwise * \remark The description below introduces layers stack in case of ITS project: * CAM Layer * CAM layer * next_header : btpA|btpB (overwrite BTP.type) * header_type : tsb|gbc * header_sub_type : sh (single hop) * DENM Layer * DENM layer * next_header : btpA|btpB (overwrite BTP.type) * header_type : tsb|gbc * BTP Layer * BTP layer * type : btpA|btpB * destination port: dst_port * source port : src_port * device_mode : Set to 1 if the layer shall encapsulate upper layer PDU * GN Layer * GN layer * its_aid : ITS AID as defined by ETSI TS 102 965 V1.2.1. Default: 141 * ll_address : GeoNetworking address of the Test System * latitude : latitude of the Test System Loading Loading @@ -109,6 +109,6 @@ NodeC.geoNetworkingPort.params := "GN(ll_address=70b3d5791b48,latitude=43551050, * system.utPort.params := "UT_GN/UDP(dst_ip=192.168.1.1,dst_port=12346,src_ip=192.168.156.4,src_port=12345)/ETH(mac_src=026f8338c1e5,mac_dst=0A0027000011,eth_type=0800)/PCAP(mac_src=0800275c4959,nic=enp0s8,filter=and udp port 12346)" * \pure */ virtual Layer* create_layer(const std::string & p_type, const std::string & p_params) = 0; virtual layer* create_layer(const std::string & p_type, const std::string & p_params) = 0; }; // End of class layer_factory ccsrc/Framework/layer_stack_builder.hh +3 −3 Original line number Diff line number Diff line Loading @@ -21,7 +21,7 @@ private: //! \privatesection typedef std::map<std::string, layer_factory*> LayerFactoryMap; static layer_stack_builder * _instance; //! Smart pointer to the unique instance of the logger framework std::map<std::string, layer_factory*> _layer_factories; //! The list of the registered \see TLayer factories std::map<std::string, layer_factory*> _layer_factories; //! The list of the registered \see t_layer factories /*! * \brief Default constructor Loading Loading @@ -57,11 +57,11 @@ private: //! \privatesection public: //! \publicsection /*! * \fn Layer* create_layer_stack(const char* p_layer_stack_description); * \fn layer* create_layer_stack(const char* p_layer_stack_description); * \brief Add a new layer factory * \param[in] p_layer_stack_description A textual description of the layer to create * \return The created layer object on success, nullptr otherwise */ Layer* create_layer_stack(const char* p_layer_stack_description); layer* create_layer_stack(const char* p_layer_stack_description); }; // End of class layer_stack_builder Loading
ccsrc/Externals/LibItsSecurity_externals.cc +7 −12 Original line number Diff line number Diff line Loading @@ -270,19 +270,12 @@ namespace LibItsSecurity__Functions p__tag = OCTETSTRING(ec.tag().size(), ec.tag().data()); loggers::get_instance().log_to_hexa("fx__encryptWithEciesNistp256WithSha256: p__tag: ", p__tag); // Encrypt symmetric key // Encrypt the symmetric key OCTETSTRING encSymKey = OCTETSTRING(ec.nonce().size(), ec.symmetric_encryption_key().data()); loggers::get_instance().log_to_hexa("fx__encryptWithEciesNistp256WithSha256: p__encSymKey: ", encSymKey); // Create new instance of ECC // 1. Create new instance of ECC security_ecc ec_ecies(ec_elliptic_curves::nist_p_256); // Generate (Private,Public) keys // 2. Generate (Private,Public) keys ec_ecies.generate(); // Generate ephemeral key and derive it std::vector<unsigned char> peer_public_key_x(static_cast<const unsigned char *>(p__peerPublicKeyX), p__peerPublicKeyX.lengthof() + static_cast<const unsigned char *>(p__peerPublicKeyX)); Loading @@ -294,7 +287,7 @@ namespace LibItsSecurity__Functions loggers::get_instance().warning("fx__encryptWithEciesNistp256WithSha256: Failed to generate and derive sender's ephemeral key"); return OCTETSTRING(); } // Encrypt the symmetric encryption key using existing nonce and symmetric encryption key // 3. Encrypt the symmetric encryption key using existing nonce and symmetric encryption key std::vector<unsigned char> enc_eph_key; if (ec.encrypt(encryption_algotithm::aes_128_ccm, ec_ecies.ephemeral_key(), ec.nonce(), ec.symmetric_encryption_key(), enc_eph_key) == -1) { loggers::get_instance().warning("fx__encryptWithEciesNistp256WithSha256: Failed to encrypt message"); Loading @@ -312,6 +305,8 @@ namespace LibItsSecurity__Functions } OCTETSTRING fx__decryptWithEciesNistp256WithSha256(const OCTETSTRING& p__encryptedSecuredMessage, const OCTETSTRING& p__publicKeyX, const OCTETSTRING& p__publicKeyY, const OCTETSTRING& p__nonce, const OCTETSTRING& p__tag) { OCTETSTRING os; os = OCTETSTRING(); Loading
ccsrc/Framework/TLayer.hhdeleted 100644 → 0 +0 −35 Original line number Diff line number Diff line /*! * \file t_layer.hh * \brief Header file for ITS abstract protocol layer definition. * \author ETSI STF525 * \copyright ETSI Copyright Notification * No part may be reproduced except as authorized by written permission. * The copyright and the foregoing restriction extend to reproduction in all media. * All rights reserved. * \version 0.1 */ #pragma once #include "Layer.hh" template <typename TPort> class TLayer : public Layer { typedef std::vector<TPort*> TPortList; typedef typename std::vector<TPort*>::iterator TPortListIterator; TPortList upperPorts; public: explicit TLayer() : Layer(), upperPorts() { }; explicit TLayer(const std::string& p_type) : Layer(p_type), upperPorts() { }; void addUpperPort(TPort * p_port) { upperPorts.push_back(p_port); }; void removeUpperPort(TPort*); protected: template <typename TMessage> inline void toAllUpperPorts(const TMessage& m, const Params& param) { for(TPortListIterator it=upperPorts.begin(); it<upperPorts.end(); ++it){ (*it)->receiveMsg(m, param); } } }; // End of class TLayer
ccsrc/Framework/Layer.hh→ccsrc/Framework/layer.hh +36 −38 Original line number Diff line number Diff line Loading @@ -23,12 +23,12 @@ class CHARSTRING; //! Forward declaration of TITAN class class INTEGER; //! Forward declaration of TITAN class /*! * \class Layer * \class layer * \brief This class provides basic description of an ITS protocol layer */ class Layer { std::vector<Layer*> upperLayers; //! List of the upper protocol layers std::vector<Layer*> lowerLayers; //! List of the lower protocol layers class layer { std::vector<layer*> upperLayers; //! List of the upper protocol layers std::vector<layer*> lowerLayers; //! List of the lower protocol layers protected: std::string type; //! Type description, it indicates the protocol type (e.g. CAM, DENM, GN, ETH, PCAP...) Loading @@ -36,47 +36,45 @@ protected: public: //! \publicsection /*! * \brief Default constructor * Create a new instance of the Layer class * \todo Remove logs * Create a new instance of the layer class */ explicit Layer() : upperLayers(), lowerLayers(), type(std::string("")) { }; explicit layer() : upperLayers(), lowerLayers(), type(std::string("")) { }; /*! * \brief Specialized constructor * Create a new instance of the Layer class with its type description * \remark This constructor is called by the Layer factory * Create a new instance of the layer class with its type description * \param[in] p_type The port type name (e.g. GN for the GeoNetworking layer) * \remark This constructor is called by the layer factory * \see layer_factory * \todo Remove logs */ explicit Layer(const std::string& p_type) : upperLayers(), lowerLayers(), type(std::string(p_type.begin(), p_type.end())) { }; explicit layer(const std::string& p_type) : upperLayers(), lowerLayers(), type(std::string(p_type.begin(), p_type.end())) { }; /*! * \brief Default destructor * \todo Remove logs */ virtual ~Layer() { virtual ~layer() { // Double linked list, only remove layers in lowerLayers from the lowest one std::for_each(lowerLayers.rbegin(), lowerLayers.rend(), [](Layer* it) { delete it; } ); std::for_each(lowerLayers.rbegin(), lowerLayers.rend(), [](layer* it) { delete it; } ); lowerLayers.clear(); upperLayers.clear(); }; /*! * \fn void deleteLayer(); * \fn void delete_layer(); * \brief Delete this layer * \todo To be done * \todo To be implemented */ void deleteLayer() { }; void delete_layer() { }; public: //! \publicsection /*! * \inline * \fn void addUpperLayer(Layer* p_layer); * \fn void add_upper_layer(layer* p_layer); * \brief Add a new layer in the list of the upper layer * \param[in] p_layer The layer protocol to be removed * \todo Remove logs */ inline void addUpperLayer(Layer* p_layer) { inline void add_upper_layer(layer* p_layer) { if (p_layer != NULL) { upperLayers.push_back(p_layer); p_layer->lowerLayers.push_back(this); Loading @@ -84,34 +82,34 @@ public: //! \publicsection }; /*! * \fn void removeUpperLayer(Layer* p_layer); * \fn void remove_upper_layer(layer* p_layer); * \brief Remove the specified upper layer protocol from the list of the upper layer * \param[in] p_layer The layer protocol to be removed * \todo To be implemented */ void removeUpperLayer(Layer* p_layer) { }; void remove_upper_layer(layer* p_layer) { }; /*! * \virtual * \fn void sendData(OCTETSTRING& data, Params& params); * \fn void send_data(OCTETSTRING& data, Params& params); * \brief Send bytes formated data to the lower layers * \param[in] p_data The data to be sent * \param[in] p_params Some parameters to overwrite default value of the lower layers parameters * \todo Remove the logs * \virtual */ virtual void sendData(OCTETSTRING& p_data, Params& p_params) { }; virtual void send_data(OCTETSTRING& p_data, Params& p_params) { }; /*! * \virtual * \fn void receiveData(OCTETSTRING& data, Params& params); * \fn void receive_data(OCTETSTRING& data, Params& params); * \brief Receive bytes formated data from the lower layers * \param[in] p_data The bytes formated data received * \param[in] p_params Some lower layers parameters values when data was received * \todo Remove the logs * \virtual */ virtual void receiveData(OCTETSTRING& p_data, Params& p_params) { } virtual void receive_data(OCTETSTRING& p_data, Params& p_params) { } /*! * \inline Loading @@ -122,25 +120,25 @@ public: //! \publicsection inline const std::string& to_string() const { return type; }; protected: //! \protectedsection inline void toAllLayers(std::vector<Layer*>&layers, OCTETSTRING& data, Params& params) { for (std::vector<Layer*>::const_iterator it = layers.cbegin(); it != layers.cend(); ++it) { Layer * p = *it; p->receiveData(data, params); // FIXME BUG I inline void to_all_layers(std::vector<layer*>&layers, OCTETSTRING& data, Params& params) { for (std::vector<layer*>::const_iterator it = layers.cbegin(); it != layers.cend(); ++it) { layer* p = *it; p->receive_data(data, params); // FIXME BUG I } // End of 'for' statement }; inline void receiveToAllLayers(OCTETSTRING& data, Params& params) { for (std::vector<Layer*>::const_iterator it = upperLayers.cbegin(); it != upperLayers.cend(); ++it) { Layer * p = *it; p->receiveData(data, params); inline void receive_to_all_layers(OCTETSTRING& data, Params& params) { for (std::vector<layer*>::const_iterator it = upperLayers.cbegin(); it != upperLayers.cend(); ++it) { layer* p = *it; p->receive_data(data, params); } // End of 'for' statement }; inline void sendToAllLayers(OCTETSTRING& data, Params& params) { for (std::vector<Layer*>::const_iterator it = lowerLayers.cbegin(); it != lowerLayers.cend(); ++it) { Layer * p = *it; p->sendData(data, params); inline void send_to_all_layers(OCTETSTRING& data, Params& params) { for (std::vector<layer*>::const_iterator it = lowerLayers.cbegin(); it != lowerLayers.cend(); ++it) { layer* p = *it; p->send_data(data, params); } // End of 'for' statement }; }; // End of class Layer }; // End of class layer
ccsrc/Framework/layer_factory.hh +8 −8 Original line number Diff line number Diff line Loading @@ -15,11 +15,11 @@ #include <vector> #include <algorithm> #include "Layer.hh" #include "layer.hh" /*! * \class layer_factory * \brief This class provides a factory class to create Layer class instances * \brief This class provides a factory class to create layer class instances * \abstract */ class layer_factory { Loading @@ -30,25 +30,25 @@ public: //! \publicsection */ layer_factory() {}; /*! * \fn Layer * create_layer(const std::string & type, const std::string & param); * \fn layer* create_layer(const std::string & type, const std::string & param); * \brief Create the layers stack based on the provided layers stack description (cf. remark) * \param[in] p_type The provided layers stack description * \param[in] p_params Optional parameters * \return 0 on success, -1 otherwise * \remark The description below introduces layers stack in case of ITS project: * CAM Layer * CAM layer * next_header : btpA|btpB (overwrite BTP.type) * header_type : tsb|gbc * header_sub_type : sh (single hop) * DENM Layer * DENM layer * next_header : btpA|btpB (overwrite BTP.type) * header_type : tsb|gbc * BTP Layer * BTP layer * type : btpA|btpB * destination port: dst_port * source port : src_port * device_mode : Set to 1 if the layer shall encapsulate upper layer PDU * GN Layer * GN layer * its_aid : ITS AID as defined by ETSI TS 102 965 V1.2.1. Default: 141 * ll_address : GeoNetworking address of the Test System * latitude : latitude of the Test System Loading Loading @@ -109,6 +109,6 @@ NodeC.geoNetworkingPort.params := "GN(ll_address=70b3d5791b48,latitude=43551050, * system.utPort.params := "UT_GN/UDP(dst_ip=192.168.1.1,dst_port=12346,src_ip=192.168.156.4,src_port=12345)/ETH(mac_src=026f8338c1e5,mac_dst=0A0027000011,eth_type=0800)/PCAP(mac_src=0800275c4959,nic=enp0s8,filter=and udp port 12346)" * \pure */ virtual Layer* create_layer(const std::string & p_type, const std::string & p_params) = 0; virtual layer* create_layer(const std::string & p_type, const std::string & p_params) = 0; }; // End of class layer_factory
ccsrc/Framework/layer_stack_builder.hh +3 −3 Original line number Diff line number Diff line Loading @@ -21,7 +21,7 @@ private: //! \privatesection typedef std::map<std::string, layer_factory*> LayerFactoryMap; static layer_stack_builder * _instance; //! Smart pointer to the unique instance of the logger framework std::map<std::string, layer_factory*> _layer_factories; //! The list of the registered \see TLayer factories std::map<std::string, layer_factory*> _layer_factories; //! The list of the registered \see t_layer factories /*! * \brief Default constructor Loading Loading @@ -57,11 +57,11 @@ private: //! \privatesection public: //! \publicsection /*! * \fn Layer* create_layer_stack(const char* p_layer_stack_description); * \fn layer* create_layer_stack(const char* p_layer_stack_description); * \brief Add a new layer factory * \param[in] p_layer_stack_description A textual description of the layer to create * \return The created layer object on success, nullptr otherwise */ Layer* create_layer_stack(const char* p_layer_stack_description); layer* create_layer_stack(const char* p_layer_stack_description); }; // End of class layer_stack_builder
