/* * $Id$ * * [ Description ] * */ #include "Behavioural/Stage_1_Ifetch/Predictor/Meta_Predictor/Two_Level_Branch_Predictor/Two_Level_Branch_Predictor_Glue/include/Two_Level_Branch_Predictor_Glue.h" namespace morpheo { namespace behavioural { namespace stage_1_ifetch { namespace predictor { namespace meta_predictor { namespace two_level_branch_predictor { namespace two_level_branch_predictor_glue { #ifdef SYSTEMC Two_Level_Branch_Predictor_Glue::Two_Level_Branch_Predictor_Glue (sc_module_name name, #else Two_Level_Branch_Predictor_Glue::Two_Level_Branch_Predictor_Glue (string name, #endif #ifdef STATISTICS morpheo::behavioural::Parameters_Statistics param_statistics, #endif morpheo::behavioural::stage_1_ifetch::predictor::meta_predictor::two_level_branch_predictor::two_level_branch_predictor_glue::Parameters param ): _name (name) ,_param (param) // #ifdef STATISTICS // ,_param_statistics (param_statistics) // #endif { log_printf(FUNC,Two_Level_Branch_Predictor_Glue,"Two_Level_Branch_Predictor_Glue","Begin"); #ifdef STATISTICS // Allocation of statistics _stat = new Statistics (static_cast(_name), param_statistics , param); #endif #ifdef VHDL_TESTBENCH // Creation of a testbench // -> port // -> clock's signals _vhdl_testbench = new Vhdl_Testbench (_name); vhdl_testbench_port (); _vhdl_testbench->set_clock ("in_CLOCK",false); #endif #ifdef VHDL // generate the vhdl vhdl(); #endif #ifdef SYSTEMC allocation (); #if defined(STATISTICS) or defined(VHDL_TESTBENCH) SC_METHOD (transition); dont_initialize (); sensitive_pos << *(in_CLOCK); #endif SC_METHOD (genMealy_predict_ack); dont_initialize (); sensitive_neg << *(in_CLOCK); for (uint32_t i=0; i<_param._nb_prediction; i++) { if (_param._have_bht) sensitive << (*(in_PREDICT_BHT_ACK [i])); if (_param._have_pht) sensitive << (*(in_PREDICT_PHT_ACK [i])); } #ifdef SYSTEMCASS_SPECIFIC // List dependency information for (uint32_t i=0; i<_param._nb_prediction; i++) { if (_param._have_bht) (*(out_PREDICT_ACK [i])) (*(in_PREDICT_BHT_ACK [i])); if (_param._have_pht) (*(out_PREDICT_ACK [i])) (*(in_PREDICT_PHT_ACK [i])); } #endif if (_param._have_bht) { SC_METHOD (genMealy_predict_bht_address); dont_initialize (); sensitive_neg << *(in_CLOCK); for (uint32_t i=0; i<_param._nb_prediction; i++) sensitive << (*(in_PREDICT_ADDRESS [i])); #ifdef SYSTEMCASS_SPECIFIC // List dependency information for (uint32_t i=0; i<_param._nb_prediction; i++) (*(out_PREDICT_BHT_ADDRESS [i])) (*(in_PREDICT_ADDRESS [i])); #endif } if (_param._have_pht) { SC_METHOD (genMealy_predict_pht_address); dont_initialize (); sensitive_neg << *(in_CLOCK); for (uint32_t i=0; i<_param._nb_prediction; i++) { if (_param._have_bht) sensitive << (*(in_PREDICT_BHT_HISTORY [i])); sensitive << (*(in_PREDICT_ADDRESS [i])); } #ifdef SYSTEMCASS_SPECIFIC // List dependency information for (uint32_t i=0; i<_param._nb_prediction; i++) { (*(out_PREDICT_PHT_ADDRESS [i])) (*(in_PREDICT_ADDRESS [i])); if (_param._have_bht) (*(out_PREDICT_PHT_ADDRESS [i])) (*(in_PREDICT_BHT_HISTORY [i])); } #endif } SC_METHOD (genMealy_branch_complete_ack); dont_initialize (); sensitive_neg << *(in_CLOCK); for (uint32_t i=0; i<_param._nb_branch_complete; i++) { if (_param._have_bht) sensitive << (*(in_BRANCH_COMPLETE_BHT_ACK [i])); if (_param._have_pht) sensitive << (*(in_BRANCH_COMPLETE_PHT_ACK [i])); } #ifdef SYSTEMCASS_SPECIFIC // List dependency information for (uint32_t i=0; i<_param._nb_branch_complete; i++) { if (_param._have_bht) (*(out_BRANCH_COMPLETE_ACK [i])) (*(in_BRANCH_COMPLETE_BHT_ACK [i])); if (_param._have_pht) (*(out_BRANCH_COMPLETE_ACK [i])) (*(in_BRANCH_COMPLETE_PHT_ACK [i])); } #endif if (_param._have_bht) { SC_METHOD (genMealy_branch_complete_bht_address); dont_initialize (); sensitive_neg << *(in_CLOCK); for (uint32_t i=0; i<_param._nb_branch_complete; i++) sensitive << (*(in_BRANCH_COMPLETE_ADDRESS [i])); #ifdef SYSTEMCASS_SPECIFIC // List dependency information for (uint32_t i=0; i<_param._nb_branch_complete; i++) (*(out_BRANCH_COMPLETE_BHT_ADDRESS [i])) (*(in_BRANCH_COMPLETE_ADDRESS [i])); #endif } if (_param._have_pht) { SC_METHOD (genMealy_branch_complete_pht_address); dont_initialize (); sensitive_neg << *(in_CLOCK); for (uint32_t i=0; i<_param._nb_branch_complete; i++) { if (_param._have_bht) sensitive << (*(in_BRANCH_COMPLETE_BHT_HISTORY [i])); sensitive << (*(in_BRANCH_COMPLETE_ADDRESS [i])); } #ifdef SYSTEMCASS_SPECIFIC // List dependency information for (uint32_t i=0; i<_param._nb_branch_complete; i++) { (*(out_BRANCH_COMPLETE_PHT_ADDRESS [i])) (*(in_BRANCH_COMPLETE_ADDRESS [i])); if (_param._have_bht) (*(out_BRANCH_COMPLETE_PHT_ADDRESS [i])) (*(in_BRANCH_COMPLETE_BHT_HISTORY [i])); } #endif } #endif log_printf(FUNC,Two_Level_Branch_Predictor_Glue,"Two_Level_Branch_Predictor_Glue","End"); }; Two_Level_Branch_Predictor_Glue::~Two_Level_Branch_Predictor_Glue (void) { log_printf(FUNC,Two_Level_Branch_Predictor_Glue,"~Two_Level_Branch_Predictor_Glue","Begin"); #ifdef VHDL_TESTBENCH // generate the test bench _vhdl_testbench->generate_file(); delete _vhdl_testbench; #endif #ifdef STATISTICS _stat->generate_file(statistics(0)); delete _stat; #endif #ifdef SYSTEMC deallocation (); #endif log_printf(FUNC,Two_Level_Branch_Predictor_Glue,"~Two_Level_Branch_Predictor_Glue","End"); }; }; // end namespace two_level_branch_predictor_glue }; // end namespace two_level_branch_predictor }; // end namespace meta_predictor }; // end namespace predictor }; // end namespace stage_1_ifetch }; // end namespace behavioural }; // end namespace morpheo