/// Testbench for the example GreenConfig
int sc_main(int argc, char *argv[]) {
/// GreenControl Core instance
gs::ctr::GC_Core core;
// GreenConfig Plugin
gs::cnf::ConfigDatabase cnfdatabase("ConfigDatabase");
gs::cnf::ConfigPlugin configPlugin(&cnfdatabase);
// Configuration with GreenConfig config files
gs::cnf::ConfigFile_Tool configTool("ConfigFileTool");
configTool.parseCommandLine(argc, argv); // parses the command line for --configfile
configTool.config("array_test1.cfg"); // reads in a config file
ArrayOwnerModule owner ("Owner");
ArrayUserModule user ("User");
//ShowSCObjects::showSCObjects();
sc_core::sc_report_handler::set_actions(sc_core::SC_ERROR, sc_core::SC_ABORT);
std::cout << "------ Simulation start ---------" << std::endl;
sc_core::sc_start();
std::cout << "------ Simulation stopped ---------" << std::endl;
return EXIT_SUCCESS;
}
/// Testbench for the GreenControl analysis (GreenAV) example
int sc_main(int argc, char *argv[]) {
// GreenControl Core instance
gs::ctr::GC_Core core;
// GreenConfig Plugin
gs::cnf::ConfigDatabase cnfdatabase("ConfigDatabase");
gs::cnf::ConfigPlugin configPlugin(&cnfdatabase);
// GreenAV Plugin
gs::av::GAV_Plugin analysisPlugin("AnalysisPlugin"); // Leave out the plugin completely to show that the simulation does not crash (but does not analyze of course)
AVnewStatCalc tool("AVnewStatCalc");
AVnewStatCalcFormulaTest formulaTest("AVnewStatCalcFormulaTest");
// Add user defined calculation functions to Calculator class
// This function will be usable by any Calculator<int> and Calculator_bit<int>
gs::av::Calculator<int>::addFunc(&average,"average");
// This function will be usable by any Calculator<double> and Calculator_bit<double>
gs::av::Calculator<double>::addFunc(&Surrounding_Class::divide_by_three,"div3");
std::cout << "-------------------- SIMULATION START -----------------------" << std::endl;
sc_core::sc_start();
std::cout << "-------------------- SIMULATION ENDED -----------------------" << std::endl;
//ShowSCObjects::showSCObjects();
return EXIT_SUCCESS;
}
/// main
int sc_main(int argc, char* argv[])
{
/// GreenControl Core instance
gs::ctr::GC_Core core("ControlCore");
// GreenConfig Plugin
gs::cnf::ConfigDatabase cnfdatabase("ConfigDatabase");
gs::cnf::ConfigPlugin configPlugin("ConfigPlugin", &cnfdatabase);
SlaveMem s1("Slave1",3);
s1.setAddress(0x4000,0x400F);
//Slave s2("Slave2",3); // zweiter Parameter: ACK-Delay in Taktzyklen
//s2.setAddress(0x5000,0x500F);
Master m1("M1");
m1.init_port.target_addr = 0x4000;
m1.init_port(s1.target_port);
sc_core::sc_start();
std::cout << std::endl << "Simulation stopped"<<std::endl;
return 0;
}
int sc_main(int argc, char** argv) {
//sc_core::sc_report_handler::set_actions(sc_core::SC_ERROR, sc_core::SC_ABORT); // make a breakpoint in SystemC file sc_stop_here.cpp
//sc_core::sc_report_handler::set_actions(sc_core::SC_WARNING, sc_core::SC_ABORT); // make a breakpoint in SystemC file sc_stop_here.cpp
// Configure warnings about accesses to write protected register bits:
sc_core::sc_report_handler::set_actions("/GreenSocs/GreenReg/write_protected/unequal_current", sc_core::SC_DISPLAY);
sc_core::sc_report_handler::set_actions("/GreenSocs/GreenReg/write_protected/unequal_zero", sc_core::SC_DO_NOTHING);
sc_core::sc_report_handler::set_actions("/GreenSocs/GreenReg/write_protected/bit_range_access", sc_core::SC_DISPLAY);
sc_core::sc_report_handler::set_actions("/GreenSocs/GreenReg/write_protected/bit_access", sc_core::SC_DISPLAY);
int opt = 0;
if (argc!=2) {helpMsg;}
else {
opt = atoi(argv[1]);
std::cout << "You gave " << opt << "\n";
if ((opt!=1) && (opt!=2) && (opt!=3) && (opt!=4)) helpMsg;
}
/// GreenControl and GreenConfig
gs::ctr::GC_Core core("ControlCore");
gs::cnf::ConfigDatabase cnfdatabase("ConfigDatabase");
gs::cnf::ConfigPlugin configPlugin(&cnfdatabase);
newMod nmod("newMod", opt);
std::cout << "\nEntering sc_start : simulation starting\n";
sc_core::sc_start(); // (1000, SC_NS); // Start the simulation
std::cout << "Exited sc_start : simulation finished\n\n";
return( 0);
}
/// main
int sc_main(int argc, char* argv[])
{
//sc_report_handler::set_actions(SC_ERROR, SC_ABORT);
/// GreenControl Core instance
gs::ctr::GC_Core core;
// GreenConfig Plugin
gs::cnf::ConfigDatabase cnfdatabase("ConfigDatabase");
gs::cnf::ConfigPlugin configPlugin(&cnfdatabase);
SlaveMemBidir s1("Slave1",3);
s1.setAddress(0x4000,0x400F);
BidirModule m1("M1");
m1.bidir_port.target_addr = 0x4000;
// connect initiators and targets
m1.bidir_port(s1.target_port);
//ShowSCObjects::showSCObjects();
sc_core::sc_start();
std::cout << std::endl << "Simulation stopped"<<std::endl;
return 0;
}
/// main
int sc_main(int, char**)
{
// sc_report_handler::set_actions(SC_ERROR, SC_ABORT);
#ifdef USE_GPSOCKET
/// GreenControl Core instance
gs::ctr::GC_Core core("ControlCore");
// GreenConfig Plugin
gs::cnf::ConfigDatabase cnfdatabase("ConfigDatabase");
gs::cnf::ConfigPlugin configPlugin("ConfigPlugin", &cnfdatabase);
#endif
sillysort m("sillysort");
simplememory s("simplememory");
m.init_port(s.target_port);
sc_core::sc_start(-1);
return 0;
}
/// main
int sc_main(int, char**)
{
// sc_report_handler::set_actions(SC_ERROR, SC_ABORT);
#ifdef USE_GPSOCKET
/// GreenControl Core instance
gs::ctr::GC_Core core();
// GreenConfig Plugin
gs::cnf::ConfigDatabase cnfdatabase("ConfigDatabase");
gs::cnf::ConfigPlugin configPlugin(&cnfdatabase);
#endif
gs::gp::SimpleBusProtocol<32> p("Protocol", 10);
gs::gp::fixedPriorityScheduler s("Scheduler");
gs::gp::GenericRouter<32> r("Router");
r.protocol_port(p);
p.router_port(r);
p.scheduler_port(s);
sillysort m("sillysort");
simplememory s1("simplememory1");
s1.target_port.base_addr = 0x0;
s1.target_port.high_addr = 0x10;
simplememory s2("simplememory2");
s2.target_port.base_addr = 0x11;
s2.target_port.high_addr = 0xFFFF;
m.init_port(r.target_socket);
r.init_socket(s1.target_port);
r.init_socket(s2.target_port);
// m.init_port(s.target_port);
sc_core::sc_start();
return 0;
}
/// main
int sc_main(int argc, char* argv[])
{
/// GreenControl Core instance
gs::ctr::GC_Core core("ControlCore");
// GreenConfig Plugin
gs::cnf::ConfigDatabase cnfdatabase("ConfigDatabase");
gs::cnf::ConfigPlugin configPlugin("ConfigPlugin", &cnfdatabase);
SlaveMem s1("Slave1",3);
s1.setAddress(0x4000,0x4FFF);
Master m1("M1");
m1.init_port.target_addr = 0x4000;
/*
// Use generic router
gs::gp::SimpleBusProtocol<32> p("Protocol", sc_core::sc_time(10, sc_core::SC_NS));
gs::gp::fixedPriorityScheduler s("Scheduler");
gs::gp::GenericRouter<32> r("Router");
r.protocol_port(p);
p.router_port(r);
p.scheduler_port(s);
// connect initiators and targets to the generic router ///////////////////
m1.init_port(r.target_socket);
r.init_socket(s1.target_port);
*/
// direct connect without router
m1.init_port(s1.target_port);
sc_core::sc_start();
std::cout << std::endl << "Simulation stopped"<<std::endl;
return 0;
}
/// main
int sc_main(int argc, char* argv[])
{
/// GreenControl Core instance
gs::ctr::GC_Core core("ControlCore");
// GreenConfig Plugin
gs::cnf::ConfigDatabase cnfdatabase("ConfigDatabase");
gs::cnf::ConfigPlugin configPlugin("ConfigPlugin", &cnfdatabase);
TestSlave sl("Slave",3);
sl.setAddress(0x4000,0x400F);
TestMaster ma("Master");
ma.init_port.target_addr = 0x4000;
ma.init_port(sl.target_port);
sc_core::sc_start();
std::cout << std::endl << "Simulation stopped"<<std::endl;
return 0;
}
int sc_main(int argc, char** argv){
bool provoke_bind_error=false;
if (argc>1){
if (std::string(argv[1])=="provoke_bind_error")
provoke_bind_error=true;
}
#ifdef USE_GS_MONITOR
/// GreenControl Core instance
gs::ctr::GC_Core core("ControlCore");
// GreenConfig Plugin
gs::cnf::ConfigDatabase cnfdatabase("ConfigDatabase");
gs::cnf::ConfigPlugin configPlugin(&cnfdatabase);
gs::av::GAV_Plugin analysisPlugin("AnalysisPlugin", gs::av::STDOUT_OUT);
#endif
simple_b_gs_secure_adapter* a;
if (!provoke_bind_error) a=new simple_b_gs_secure_adapter("A");
simple_b_gs_master m("M");
simple_b_gs_slave s0("S0",true, false);
simple_b_gs_slave_hier s1("S1", false, true);
ExplicitLTTarget s2("S2");
simple_b_gs_secure_slave s3("S3");
#ifdef USE_GS_MONITOR
gs::socket::monitor<>* mon1=0, *mon2=0, *mon3=0, *mon4=0, *mon5=0;
mon1=gs::socket::connect_with_monitor<32, tlm::tlm_base_protocol_types>(m.socket0, s0.socket);
mon2=gs::socket::connect_with_monitor<32, tlm::tlm_base_protocol_types>(m.socket1, s1.socket);
mon3=gs::socket::connect_with_monitor<32, tlm::tlm_base_protocol_types>(m.socket2, s2.socket);
#else
m.socket0(s0.socket);
m.socket1(s1.socket);
m.socket2(s2.socket);
#endif
if (provoke_bind_error)
m.socket3(s3.socket);
else{
#ifdef USE_GS_MONITOR
mon4=gs::socket::connect_with_monitor<32, tlm::tlm_base_protocol_types>(m.socket3, a->t_socket);
mon5=gs::socket::connect_with_monitor<32, tlm::tlm_base_protocol_types>(a->i_socket, s3.socket);
#else
m.socket3(a->t_socket);
a->i_socket(s3.socket);
#endif
}
#ifdef USE_GS_MONITOR
#define TEXT_OUT(mon) \
if (mon) \
gs::av::GAV_Api::getApiInstance(NULL)->add_to_default_output(\
gs::av::TXT_FILE_OUT, \
gs::cnf::GCnf_Api::getApiInstance(NULL)->getPar(mon->get_param().getName()))
TEXT_OUT(mon1);
TEXT_OUT(mon2);
TEXT_OUT(mon3);
TEXT_OUT(mon4);
TEXT_OUT(mon5);
#undef TEXT(OUT)
#endif
sc_core::sc_start();
#ifdef USE_GS_MONITOR
delete mon1;
delete mon2;
delete mon3;
delete mon4;
delete mon5;
#endif
return 0;
}
