OpenFPGA/openfpga/src/fpga_verilog/verilog_testbench_options.cpp

326 lines
11 KiB
C++

/******************************************************************************
* Memember functions for data structure VerilogTestbenchOption
******************************************************************************/
#include "verilog_testbench_options.h"
#include "openfpga_naming.h"
#include "vtr_assert.h"
#include "vtr_log.h"
/* begin namespace openfpga */
namespace openfpga {
/**************************************************
* Public Constructors
*************************************************/
VerilogTestbenchOption::VerilogTestbenchOption() {
output_directory_.clear();
top_module_ = "top_tb";
dut_module_ = "fpga_top";
fabric_netlist_file_path_.clear();
reference_benchmark_file_path_.clear();
print_preconfig_top_testbench_ = false;
print_formal_verification_top_netlist_ = false;
print_top_testbench_ = false;
simulation_ini_path_.clear();
explicit_port_mapping_ = false;
include_signal_init_ = false;
default_net_type_ = VERILOG_DEFAULT_NET_TYPE_NONE;
embedded_bitstream_hdl_type_ = EMBEDDED_BITSTREAM_HDL_MODELSIM;
time_unit_ = 1E-3;
time_stamp_ = true;
use_relative_path_ = false;
simulator_type_ = e_simulator_type::IVERILOG;
dump_waveform_ = false;
verbose_output_ = false;
SIMULATOR_TYPE_STRING_ = {{"iverilog", "vcs"}};
}
/**************************************************
* Public Accessors
*************************************************/
std::string VerilogTestbenchOption::output_directory() const {
return output_directory_;
}
std::string VerilogTestbenchOption::dut_module() const { return dut_module_; }
std::string VerilogTestbenchOption::top_module() const { return top_module_; }
std::string VerilogTestbenchOption::fabric_netlist_file_path() const {
return fabric_netlist_file_path_;
}
std::string VerilogTestbenchOption::reference_benchmark_file_path() const {
return reference_benchmark_file_path_;
}
bool VerilogTestbenchOption::print_formal_verification_top_netlist() const {
return print_formal_verification_top_netlist_;
}
bool VerilogTestbenchOption::print_preconfig_top_testbench() const {
return print_preconfig_top_testbench_;
}
bool VerilogTestbenchOption::print_top_testbench() const {
return print_top_testbench_;
}
bool VerilogTestbenchOption::fast_configuration() const {
return fast_configuration_;
}
bool VerilogTestbenchOption::print_simulation_ini() const {
return !simulation_ini_path_.empty();
}
std::string VerilogTestbenchOption::simulation_ini_path() const {
return simulation_ini_path_;
}
bool VerilogTestbenchOption::explicit_port_mapping() const {
return explicit_port_mapping_;
}
bool VerilogTestbenchOption::include_signal_init() const {
return include_signal_init_;
}
bool VerilogTestbenchOption::dump_waveform() const { return dump_waveform_; }
bool VerilogTestbenchOption::no_self_checking() const {
return reference_benchmark_file_path_.empty();
}
e_verilog_default_net_type VerilogTestbenchOption::default_net_type() const {
return default_net_type_;
}
float VerilogTestbenchOption::time_unit() const { return time_unit_; }
e_embedded_bitstream_hdl_type
VerilogTestbenchOption::embedded_bitstream_hdl_type() const {
return embedded_bitstream_hdl_type_;
}
bool VerilogTestbenchOption::time_stamp() const { return time_stamp_; }
bool VerilogTestbenchOption::use_relative_path() const {
return use_relative_path_;
}
bool VerilogTestbenchOption::verbose_output() const { return verbose_output_; }
VerilogTestbenchOption::e_simulator_type
VerilogTestbenchOption::simulator_type() const {
return simulator_type_;
}
/******************************************************************************
* Private Mutators
******************************************************************************/
void VerilogTestbenchOption::set_output_directory(
const std::string& output_dir) {
output_directory_ = output_dir;
}
void VerilogTestbenchOption::set_top_module(const std::string& top_module) {
/* Precheck: avoid naming conflicts */
if (top_module == generate_fpga_top_module_name() ||
top_module == generate_fpga_core_module_name()) {
VTR_LOG_ERROR(
"Conflicted module name '%s' as top-levle module! Please avoid [%s|%s]\n",
top_module.c_str(), generate_fpga_top_module_name().c_str(),
generate_fpga_core_module_name().c_str());
exit(1);
}
top_module_ = top_module;
}
void VerilogTestbenchOption::set_dut_module(const std::string& dut_module) {
/* Precheck: only accept two legal names */
if (dut_module != generate_fpga_top_module_name() &&
dut_module != generate_fpga_core_module_name()) {
VTR_LOG_ERROR(
"Invalid module name '%s' for Design Under Test (DUT)! Expect [%s|%s]\n",
dut_module.c_str(), generate_fpga_top_module_name().c_str(),
generate_fpga_core_module_name().c_str());
exit(1);
}
dut_module_ = dut_module;
}
void VerilogTestbenchOption::set_fabric_netlist_file_path(
const std::string& fabric_netlist_file_path) {
fabric_netlist_file_path_ = fabric_netlist_file_path;
}
void VerilogTestbenchOption::set_reference_benchmark_file_path(
const std::string& reference_benchmark_file_path) {
reference_benchmark_file_path_ = reference_benchmark_file_path;
/* Chain effect on other options:
* Enable/disable the print_preconfig_top_testbench and print_top_testbench
*/
set_print_preconfig_top_testbench(print_preconfig_top_testbench_);
set_print_top_testbench(print_top_testbench_);
}
void VerilogTestbenchOption::set_print_formal_verification_top_netlist(
const bool& enabled) {
print_formal_verification_top_netlist_ = enabled;
}
void VerilogTestbenchOption::set_fast_configuration(const bool& enabled) {
fast_configuration_ = enabled;
}
void VerilogTestbenchOption::set_print_preconfig_top_testbench(
const bool& enabled) {
print_preconfig_top_testbench_ =
enabled && (!reference_benchmark_file_path_.empty());
/* Enable print formal verification top_netlist if this is enabled */
if (true == print_preconfig_top_testbench_) {
if (false == print_formal_verification_top_netlist_) {
VTR_LOG_WARN(
"Forcely enable to print top-level Verilog netlist in formal "
"verification purpose as print pre-configured top-level Verilog "
"testbench is enabled\n");
print_formal_verification_top_netlist_ = true;
}
}
}
void VerilogTestbenchOption::set_print_top_testbench(const bool& enabled) {
print_top_testbench_ = enabled && (!reference_benchmark_file_path_.empty());
}
void VerilogTestbenchOption::set_print_simulation_ini(
const std::string& simulation_ini_path) {
simulation_ini_path_ = simulation_ini_path;
}
void VerilogTestbenchOption::set_explicit_port_mapping(const bool& enabled) {
explicit_port_mapping_ = enabled;
}
void VerilogTestbenchOption::set_include_signal_init(const bool& enabled) {
include_signal_init_ = enabled;
}
void VerilogTestbenchOption::set_dump_waveform(const bool& enabled) {
dump_waveform_ = enabled;
}
void VerilogTestbenchOption::set_default_net_type(
const std::string& default_net_type) {
/* Decode from net type string */;
if (default_net_type ==
std::string(
VERILOG_DEFAULT_NET_TYPE_STRING[VERILOG_DEFAULT_NET_TYPE_NONE])) {
default_net_type_ = VERILOG_DEFAULT_NET_TYPE_NONE;
} else if (default_net_type ==
std::string(VERILOG_DEFAULT_NET_TYPE_STRING
[VERILOG_DEFAULT_NET_TYPE_WIRE])) {
default_net_type_ = VERILOG_DEFAULT_NET_TYPE_WIRE;
} else {
VTR_LOG_WARN(
"Invalid default net type: '%s'! Expect ['%s'|'%s']\n",
default_net_type.c_str(),
VERILOG_DEFAULT_NET_TYPE_STRING[VERILOG_DEFAULT_NET_TYPE_NONE],
VERILOG_DEFAULT_NET_TYPE_STRING[VERILOG_DEFAULT_NET_TYPE_WIRE]);
}
}
void VerilogTestbenchOption::set_embedded_bitstream_hdl_type(
const std::string& embedded_bitstream_hdl_type) {
/* Decode from HDL type string */;
if (embedded_bitstream_hdl_type ==
std::string(
EMBEDDED_BITSTREAM_HDL_TYPE_STRING[NUM_EMBEDDED_BITSTREAM_HDL_TYPES])) {
embedded_bitstream_hdl_type_ = NUM_EMBEDDED_BITSTREAM_HDL_TYPES;
} else if (embedded_bitstream_hdl_type ==
std::string(EMBEDDED_BITSTREAM_HDL_TYPE_STRING
[EMBEDDED_BITSTREAM_HDL_IVERILOG])) {
embedded_bitstream_hdl_type_ = EMBEDDED_BITSTREAM_HDL_IVERILOG;
} else if (embedded_bitstream_hdl_type ==
std::string(EMBEDDED_BITSTREAM_HDL_TYPE_STRING
[EMBEDDED_BITSTREAM_HDL_MODELSIM])) {
embedded_bitstream_hdl_type_ = EMBEDDED_BITSTREAM_HDL_MODELSIM;
} else {
VTR_LOG_WARN(
"Invalid embedded bitstream type: '%s'! Expect ['%s'|'%s'|'%s']\n",
embedded_bitstream_hdl_type.c_str(),
EMBEDDED_BITSTREAM_HDL_TYPE_STRING[NUM_EMBEDDED_BITSTREAM_HDL_TYPES],
EMBEDDED_BITSTREAM_HDL_TYPE_STRING[EMBEDDED_BITSTREAM_HDL_IVERILOG],
EMBEDDED_BITSTREAM_HDL_TYPE_STRING[EMBEDDED_BITSTREAM_HDL_MODELSIM]);
}
}
void VerilogTestbenchOption::set_time_unit(const float& time_unit) {
time_unit_ = time_unit;
}
void VerilogTestbenchOption::set_time_stamp(const bool& enabled) {
time_stamp_ = enabled;
}
void VerilogTestbenchOption::set_use_relative_path(const bool& enabled) {
use_relative_path_ = enabled;
}
void VerilogTestbenchOption::set_verbose_output(const bool& enabled) {
verbose_output_ = enabled;
}
int VerilogTestbenchOption::set_simulator_type(const std::string& value) {
simulator_type_ = str2simulator_type(value);
return valid_simulator_type(simulator_type_);
}
std::string VerilogTestbenchOption::simulator_type_all2str() const {
std::string full_types = "[";
for (int itype = size_t(VerilogTestbenchOption::e_simulator_type::IVERILOG);
itype != size_t(VerilogTestbenchOption::e_simulator_type::NUM_TYPES);
++itype) {
full_types += std::string(SIMULATOR_TYPE_STRING_[itype]) + std::string("|");
}
full_types.pop_back();
full_types += "]";
return full_types;
}
VerilogTestbenchOption::e_simulator_type
VerilogTestbenchOption::str2simulator_type(const std::string& type_str,
const bool& verbose) const {
for (int itype = size_t(VerilogTestbenchOption::e_simulator_type::IVERILOG);
itype != size_t(VerilogTestbenchOption::e_simulator_type::NUM_TYPES);
++itype) {
if (type_str == std::string(SIMULATOR_TYPE_STRING_[itype])) {
return static_cast<VerilogTestbenchOption::e_simulator_type>(itype);
}
}
VTR_LOGV_ERROR(verbose, "Invalid simulator type! Expect %s\n",
simulator_type_all2str().c_str());
return VerilogTestbenchOption::e_simulator_type::NUM_TYPES;
}
std::string VerilogTestbenchOption::simulator_type2str(
const VerilogTestbenchOption::e_simulator_type& sim_type,
const bool& verbose) const {
if (!valid_simulator_type(sim_type)) {
VTR_LOGV_ERROR(verbose, "Invalid type for simulator! Expect %s\n",
simulator_type_all2str().c_str());
return std::string();
}
return std::string(SIMULATOR_TYPE_STRING_[size_t(sim_type)]);
}
bool VerilogTestbenchOption::valid_simulator_type(
const VerilogTestbenchOption::e_simulator_type& sim_type) const {
return sim_type != VerilogTestbenchOption::e_simulator_type::NUM_TYPES;
}
} /* end namespace openfpga */