RTLIL::Const unified_param(RTLIL::IdString cell_type, RTLIL::IdString param, RTLIL::Const value)
{
- if (cell_type.substr(0, 1) != "$" || cell_type.substr(0, 2) == "$_")
+ if (!cell_type.begins_with("$") || cell_type.begins_with("$_"))
return value;
#define param_bool(_n) if (param == _n) return value.as_bool();
- param_bool("\\ARST_POLARITY");
- param_bool("\\A_SIGNED");
- param_bool("\\B_SIGNED");
- param_bool("\\CLK_ENABLE");
- param_bool("\\CLK_POLARITY");
- param_bool("\\CLR_POLARITY");
- param_bool("\\EN_POLARITY");
- param_bool("\\SET_POLARITY");
- param_bool("\\TRANSPARENT");
+ param_bool(ID(ARST_POLARITY));
+ param_bool(ID(A_SIGNED));
+ param_bool(ID(B_SIGNED));
+ param_bool(ID(CLK_ENABLE));
+ param_bool(ID(CLK_POLARITY));
+ param_bool(ID(CLR_POLARITY));
+ param_bool(ID(EN_POLARITY));
+ param_bool(ID(SET_POLARITY));
+ param_bool(ID(TRANSPARENT));
#undef param_bool
#define param_int(_n) if (param == _n) return value.as_int();
- param_int("\\ABITS")
- param_int("\\A_WIDTH")
- param_int("\\B_WIDTH")
- param_int("\\CTRL_IN_WIDTH")
- param_int("\\CTRL_OUT_WIDTH")
- param_int("\\OFFSET")
- param_int("\\PRIORITY")
- param_int("\\RD_PORTS")
- param_int("\\SIZE")
- param_int("\\STATE_BITS")
- param_int("\\STATE_NUM")
- param_int("\\STATE_NUM_LOG2")
- param_int("\\STATE_RST")
- param_int("\\S_WIDTH")
- param_int("\\TRANS_NUM")
- param_int("\\WIDTH")
- param_int("\\WR_PORTS")
- param_int("\\Y_WIDTH")
+ param_int(ID(ABITS))
+ param_int(ID(A_WIDTH))
+ param_int(ID(B_WIDTH))
+ param_int(ID(CTRL_IN_WIDTH))
+ param_int(ID(CTRL_OUT_WIDTH))
+ param_int(ID(OFFSET))
+ param_int(ID(PRIORITY))
+ param_int(ID(RD_PORTS))
+ param_int(ID(SIZE))
+ param_int(ID(STATE_BITS))
+ param_int(ID(STATE_NUM))
+ param_int(ID(STATE_NUM_LOG2))
+ param_int(ID(STATE_RST))
+ param_int(ID(S_WIDTH))
+ param_int(ID(TRANS_NUM))
+ param_int(ID(WIDTH))
+ param_int(ID(WR_PORTS))
+ param_int(ID(Y_WIDTH))
#undef param_int
return value;
RTLIL::SigSpec needleSig = conn.second;
RTLIL::SigSpec haystackSig = haystackCell->getPort(portMapping.at(conn.first.str()));
- for (int i = 0; i < std::min(needleSig.size(), haystackSig.size()); i++) {
+ for (int i = 0; i < min(needleSig.size(), haystackSig.size()); i++) {
RTLIL::Wire *needleWire = needleSig[i].wire, *haystackWire = haystackSig[i].wire;
if (needleWire != lastNeedleWire || haystackWire != lastHaystackWire)
if (!compareAttributes(wire_attr, needleWire ? needleWire->attributes : emptyAttr, haystackWire ? haystackWire->attributes : emptyAttr))
continue;
std::string type = cell->type.str();
- if (sel == NULL && type.substr(0, 2) == "\\$")
+ if (sel == NULL && type.compare(0, 2, "\\$") == 0)
type = type.substr(1);
graph.createNode(cell->name.str(), type, (void*)cell);
bool compareSortNeedleList(RTLIL::Module *left, RTLIL::Module *right)
{
int left_idx = 0, right_idx = 0;
- if (left->attributes.count("\\extract_order") > 0)
- left_idx = left->attributes.at("\\extract_order").as_int();
- if (right->attributes.count("\\extract_order") > 0)
- right_idx = right->attributes.at("\\extract_order").as_int();
+ if (left->attributes.count(ID(extract_order)) > 0)
+ left_idx = left->attributes.at(ID(extract_order)).as_int();
+ if (right->attributes.count(ID(extract_order)) > 0)
+ right_idx = right->attributes.at(ID(extract_order)).as_int();
if (left_idx != right_idx)
return left_idx < right_idx;
return left->name < right->name;
struct ExtractPass : public Pass {
ExtractPass() : Pass("extract", "find subcircuits and replace them with cells") { }
- virtual void help()
+ void help() YS_OVERRIDE
{
// |---v---|---v---|---v---|---v---|---v---|---v---|---v---|---v---|---v---|---v---|
log("\n");
log("See 'help techmap' for a pass that does the opposite thing.\n");
log("\n");
}
- virtual void execute(std::vector<std::string> args, RTLIL::Design *design)
+ void execute(std::vector<std::string> args, RTLIL::Design *design) YS_OVERRIDE
{
- log_header("Executing EXTRACT pass (map subcircuits to cells).\n");
+ log_header(design, "Executing EXTRACT pass (map subcircuits to cells).\n");
log_push();
SubCircuitSolver solver;
map = new RTLIL::Design;
for (auto &filename : map_filenames)
{
- if (filename.substr(0, 1) == "%")
+ if (filename.compare(0, 1, "%") == 0)
{
if (!saved_designs.count(filename.substr(1))) {
delete map;
delete map;
log_cmd_error("Can't open map file `%s'.\n", filename.c_str());
}
- Frontend::frontend_call(map, &f, filename, (filename.size() > 3 && filename.substr(filename.size()-3) == ".il") ? "ilang" : "verilog");
+ Frontend::frontend_call(map, &f, filename, (filename.size() > 3 && filename.compare(filename.size()-3, std::string::npos, ".il") == 0 ? "ilang" : "verilog"));
f.close();
- if (filename.size() <= 3 || filename.substr(filename.size()-3) != ".il") {
+ if (filename.size() <= 3 || filename.compare(filename.size()-3, std::string::npos, ".il") != 0) {
Pass::call(map, "proc");
Pass::call(map, "opt_clean");
}
std::map<std::string, RTLIL::Module*> needle_map, haystack_map;
std::vector<RTLIL::Module*> needle_list;
- log_header("Creating graphs for SubCircuit library.\n");
+ log_header(design, "Creating graphs for SubCircuit library.\n");
if (!mine_mode)
for (auto &mod_it : map->modules_) {
if (!mine_mode)
{
std::vector<SubCircuit::Solver::Result> results;
- log_header("Running solver from SubCircuit library.\n");
+ log_header(design, "Running solver from SubCircuit library.\n");
std::sort(needle_list.begin(), needle_list.end(), compareSortNeedleList);
if (results.size() > 0)
{
- log_header("Substitute SubCircuits with cells.\n");
+ log_header(design, "Substitute SubCircuits with cells.\n");
for (int i = 0; i < int(results.size()); i++) {
auto &result = results[i];
{
std::vector<SubCircuit::Solver::MineResult> results;
- log_header("Running miner from SubCircuit library.\n");
+ log_header(design, "Running miner from SubCircuit library.\n");
solver.mine(results, mine_cells_min, mine_cells_max, mine_min_freq, mine_limit_mod);
map = new RTLIL::Design;
RTLIL::Cell *newCell = newMod->addCell(cell->name, cell->type);
newCell->parameters = cell->parameters;
for (auto &conn : cell->connections()) {
- std::vector<RTLIL::SigChunk> chunks = sigmap(conn.second);
+ std::vector<SigChunk> chunks = sigmap(conn.second);
for (auto &chunk : chunks)
if (chunk.wire != NULL)
chunk.wire = newMod->wires_.at(chunk.wire->name);