Download OpenTimer_OpenTimer/ot/timer/verilog.cpp from SAIFIINDUSTRIES/verilog_data-2: direct link, hf CLI and curl.
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2.19 kB
| namespace ot { | |
| // Function: read_verilog | |
| Timer& Timer::read_verilog(std::filesystem::path path) { | |
| // Create a verilog module | |
| auto module = std::make_shared<vlog::Module>(); | |
| std::scoped_lock lock(_mutex); | |
| auto parser = _taskflow.emplace([module, path=std::move(path)] () { | |
| OT_LOGI("loading netlist ", path); | |
| *module = vlog::read_verilog(path); | |
| }); | |
| // reader | |
| auto reader = _taskflow.emplace([this, module] () mutable { | |
| _verilog(*module); | |
| OT_LOGI("added ", module->info()); | |
| }); | |
| // Build the task dependency | |
| parser.precede(reader); | |
| _add_to_lineage(reader); | |
| return *this; | |
| } | |
| // Procedure: _verilog | |
| // Update the circuit from a given verilog module. | |
| void Timer::_verilog(vlog::Module& module) { | |
| // Step 1: Scan the primary input and create a pin for each primary input port. | |
| // Each primary input is automatically connected to a net whose name is the same | |
| // as the name of the primary input. | |
| for(const auto& pi : module.inputs) { | |
| _insert_primary_input(pi); | |
| } | |
| // Step 2: Scan the primary output and create a pin for each primary output port. | |
| // Each primary output is automatically connected to a net whose name is the same | |
| // as the name of the primary output. | |
| for(const auto& po : module.outputs) { | |
| _insert_primary_output(po); | |
| } | |
| // Step 3: Scan the wires and insert a net for each wire. Each wire is automatically | |
| // attached to a net. The connection of each net is specified by the gates. | |
| for(const auto& wire : module.wires) { | |
| _insert_net(wire); | |
| } | |
| // Step 4: Scan the gate through verilog file. Insert a new gate for each gate | |
| // being iterated and a set of pins corresponding to each cellpin of the gate. Then, | |
| // for each pin-net mapping specified in the gate, connect the pin to the net. | |
| for(const auto& gate : module.gates) { | |
| _insert_gate(gate.name, gate.cell); | |
| for(const auto& [c, n] : gate.cellpin2net) { | |
| auto& pin = _insert_pin(gate.name + ':' + c); | |
| auto& net = _insert_net(n); | |
| _connect_pin(pin, net); | |
| } | |
| } | |
| } | |
| }; // end of namespace ot. ----------------------------------------------------------------------- | |