// -*- mode: C++; c-file-style: "cc-mode" -*- //************************************************************************* // // Copyright 2010-2011 by Wilson Snyder. This program is free software; you can // redistribute it and/or modify it under the terms of either the GNU // Lesser General Public License Version 3 or the Perl Artistic License. // Version 2.0. // // Verilator is distributed in the hope that it will be useful, // but WITHOUT ANY WARRANTY; without even the implied warranty of // MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the // GNU General Public License for more details. // //************************************************************************* #include "Vt_vpi_var.h" #include "verilated.h" #include "svdpi.h" #include "Vt_vpi_var__Dpi.h" #include "verilated_vpi.h" #include "verilated_vpi.cpp" #include "verilated_vcd_c.h" #include // __FILE__ is too long #define FILENM "t_vpi_var.cpp" unsigned int main_time = false; unsigned int callback_count = false; unsigned int callback_count_half = false; //====================================================================== class VlVpiHandle { /// For testing, etc, wrap vpiHandle in an auto-releasing class vpiHandle m_handle; public: VlVpiHandle() : m_handle(NULL) { } VlVpiHandle(vpiHandle h) : m_handle(h) { } ~VlVpiHandle() { if (m_handle) { vpi_release_handle(m_handle); m_handle=NULL; } } operator vpiHandle () const { return m_handle; } inline VlVpiHandle& operator= (vpiHandle h) { m_handle = h; return *this; } }; //====================================================================== #define CHECK_RESULT_VH(got, exp) \ if ((got) != (exp)) { \ printf("%%Error: %s:%d: GOT = %p EXP = %p\n", \ FILENM,__LINE__, (got), (exp)); \ return __LINE__; \ } #define CHECK_RESULT_NZ(got) \ if (!(got)) { \ printf("%%Error: %s:%d: GOT = NULL EXP = !NULL\n", FILENM,__LINE__); \ return __LINE__; \ } // Use cout to avoid issues with %d/%lx etc #define CHECK_RESULT(got, exp) \ if ((got != exp)) { \ cout<", (exp)?(exp):""); \ return __LINE__; \ } int _mon_check_mcd() { PLI_INT32 status; PLI_UINT32 mcd; PLI_BYTE8* filename = (PLI_BYTE8*)"obj_dir/t_vpi_var/mcd_open.tmp"; mcd = vpi_mcd_open(filename); CHECK_RESULT_NZ(mcd); { // Check it got written FILE* fp = fopen(filename,"r"); CHECK_RESULT_NZ(fp); fclose(fp); } status = vpi_mcd_printf(mcd, (PLI_BYTE8*)"hello %s", "vpi_mcd_printf"); CHECK_RESULT(status, strlen("hello vpi_mcd_printf")); status = vpi_mcd_flush(mcd); CHECK_RESULT(status, 0); status = vpi_mcd_close(mcd); CHECK_RESULT(status, 0); status = vpi_flush(); CHECK_RESULT(status, 0); return 0; } int _mon_check_callbacks() { t_cb_data cb_data; cb_data.reason = cbEndOfSimulation; cb_data.cb_rtn = NULL; cb_data.user_data = 0; vpiHandle vh = vpi_register_cb(&cb_data); CHECK_RESULT_NZ(vh); PLI_INT32 status = vpi_remove_cb(vh); CHECK_RESULT_NZ(status); return 0; } int _value_callback(p_cb_data cb_data) { CHECK_RESULT(cb_data->value->value.integer+10, main_time); callback_count++; return 0; } int _value_callback_half(p_cb_data cb_data) { CHECK_RESULT(cb_data->value->value.integer*2+10, main_time); callback_count_half++; return 0; } int _mon_check_value_callbacks() { vpiHandle vh1 = vpi_handle_by_name((PLI_BYTE8*)"t.count", NULL); CHECK_RESULT_NZ(vh1); s_vpi_value v; v.format = vpiIntVal; vpi_get_value(vh1, &v); t_cb_data cb_data; cb_data.reason = cbValueChange; cb_data.cb_rtn = _value_callback; cb_data.obj = vh1; cb_data.value = &v; vpiHandle vh = vpi_register_cb(&cb_data); CHECK_RESULT_NZ(vh); vh1 = vpi_handle_by_name((PLI_BYTE8*)"t.half_count", NULL); CHECK_RESULT_NZ(vh1); cb_data.obj = vh1; cb_data.cb_rtn = _value_callback_half; vh = vpi_register_cb(&cb_data); CHECK_RESULT_NZ(vh); return 0; } int _mon_check_var() { VlVpiHandle vh1 = vpi_handle_by_name((PLI_BYTE8*)"t.onebit", NULL); CHECK_RESULT_NZ(vh1); VlVpiHandle vh2 = vpi_handle_by_name((PLI_BYTE8*)"t", NULL); CHECK_RESULT_NZ(vh2); // scope attributes const char* p; p = vpi_get_str(vpiName, vh2); CHECK_RESULT_CSTR(p, "t"); p = vpi_get_str(vpiFullName, vh2); CHECK_RESULT_CSTR(p, "t"); VlVpiHandle vh3 = vpi_handle_by_name((PLI_BYTE8*)"onebit", vh2); CHECK_RESULT_NZ(vh3); // onebit attributes PLI_INT32 d; d = vpi_get(vpiType, vh3); CHECK_RESULT(d, vpiReg); d = vpi_get(vpiDirection, vh3); CHECK_RESULT(d, vpiNoDirection); d = vpi_get(vpiVector, vh3); CHECK_RESULT(d, 0); p = vpi_get_str(vpiName, vh3); CHECK_RESULT_CSTR(p, "onebit"); p = vpi_get_str(vpiFullName, vh3); CHECK_RESULT_CSTR(p, "t.onebit"); // array attributes VlVpiHandle vh4 = vpi_handle_by_name((PLI_BYTE8*)"t.fourthreetwoone", NULL); CHECK_RESULT_NZ(vh4); d = vpi_get(vpiVector, vh4); CHECK_RESULT(d, 1); t_vpi_value tmpValue; tmpValue.format = vpiIntVal; { VlVpiHandle vh10 = vpi_handle(vpiLeftRange, vh4); CHECK_RESULT_NZ(vh10); vpi_get_value(vh10, &tmpValue); CHECK_RESULT(tmpValue.value.integer,2); } { VlVpiHandle vh10 = vpi_handle(vpiRightRange, vh4); CHECK_RESULT_NZ(vh10); vpi_get_value(vh10, &tmpValue); CHECK_RESULT(tmpValue.value.integer,1); } { VlVpiHandle vh10 = vpi_iterate(vpiMemoryWord, vh4); CHECK_RESULT_NZ(vh10); VlVpiHandle vh11 = vpi_scan(vh10); CHECK_RESULT_NZ(vh11); VlVpiHandle vh12 = vpi_handle(vpiLeftRange, vh11); CHECK_RESULT_NZ(vh12); vpi_get_value(vh12, &tmpValue); CHECK_RESULT(tmpValue.value.integer,4); VlVpiHandle vh13 = vpi_handle(vpiRightRange, vh11); CHECK_RESULT_NZ(vh13); vpi_get_value(vh13, &tmpValue); CHECK_RESULT(tmpValue.value.integer,3); } return 0; } int _mon_check_varlist() { const char* p; VlVpiHandle vh2 = vpi_handle_by_name((PLI_BYTE8*)"t.sub", NULL); CHECK_RESULT_NZ(vh2); VlVpiHandle vh10 = vpi_iterate(vpiReg, vh2); CHECK_RESULT_NZ(vh10); VlVpiHandle vh11 = vpi_scan(vh10); CHECK_RESULT_NZ(vh11); p = vpi_get_str(vpiFullName, vh11); CHECK_RESULT_CSTR(p, "t.sub.subsig1"); VlVpiHandle vh12 = vpi_scan(vh10); CHECK_RESULT_NZ(vh12); p = vpi_get_str(vpiFullName, vh12); CHECK_RESULT_CSTR(p, "t.sub.subsig2"); VlVpiHandle vh13 = vpi_scan(vh10); CHECK_RESULT(vh13,0); return 0; } int _mon_check_getput() { VlVpiHandle vh2 = vpi_handle_by_name((PLI_BYTE8*)"t.onebit", NULL); CHECK_RESULT_NZ(vh2); s_vpi_value v; v.format = vpiIntVal; vpi_get_value(vh2, &v); CHECK_RESULT(v.value.integer, 0); s_vpi_time t; t.type = vpiSimTime; t.high = 0; t.low = 0; v.value.integer = 1; vpi_put_value(vh2, &v, &t, vpiNoDelay); vpi_get_value(vh2, &v); CHECK_RESULT(v.value.integer, 1); return 0; } int _mon_check_quad() { VlVpiHandle vh2 = vpi_handle_by_name((PLI_BYTE8*)"t.quads", NULL); CHECK_RESULT_NZ(vh2); s_vpi_value v; t_vpi_vecval vv; bzero(&vv,sizeof(vv)); s_vpi_time t; t.type = vpiSimTime; t.high = 0; t.low = 0; VlVpiHandle vhidx2 = vpi_handle_by_index(vh2, 2); CHECK_RESULT_NZ(vhidx2); VlVpiHandle vhidx3 = vpi_handle_by_index(vh2, 3); CHECK_RESULT_NZ(vhidx2); v.format = vpiVectorVal; v.value.vector = &vv; v.value.vector[1].aval = 0x12819213UL; v.value.vector[0].aval = 0xabd31a1cUL; vpi_put_value(vhidx2, &v, &t, vpiNoDelay); v.format = vpiVectorVal; v.value.vector = &vv; v.value.vector[1].aval = 0x1c77bb9bUL; v.value.vector[0].aval = 0x3784ea09UL; vpi_put_value(vhidx3, &v, &t, vpiNoDelay); vpi_get_value(vhidx2, &v); CHECK_RESULT(v.value.vector[1].aval, 0x12819213UL); CHECK_RESULT(v.value.vector[1].bval, 0); vpi_get_value(vhidx3, &v); CHECK_RESULT(v.value.vector[1].aval, 0x1c77bb9bUL); CHECK_RESULT(v.value.vector[1].bval, 0); return 0; } int mon_check() { // Callback from initial block in monitor if (int status = _mon_check_mcd()) return status; if (int status = _mon_check_callbacks()) return status; if (int status = _mon_check_value_callbacks()) return status; if (int status = _mon_check_var()) return status; if (int status = _mon_check_varlist()) return status; if (int status = _mon_check_getput()) return status; if (int status = _mon_check_quad()) return status; return 0; // Ok } //====================================================================== double sc_time_stamp () { return main_time; } int main(int argc, char **argv, char **env) { double sim_time = 1100; Verilated::commandArgs(argc, argv); Verilated::debug(0); VM_PREFIX* topp = new VM_PREFIX (""); // Note null name - we're flattening it out #ifdef VERILATOR # ifdef TEST_VERBOSE Verilated::scopesDump(); # endif #endif Verilated::traceEverOn(true); VerilatedVcdC* tfp = new VerilatedVcdC; #if VM_TRACE VL_PRINTF("Enabling waves...\n"); topp->trace (tfp, 99); tfp->open ("obj_dir/t_vpi_var/simx.vcd"); #endif topp->eval(); topp->clk = 0; main_time += 10; while (sc_time_stamp() < sim_time && !Verilated::gotFinish()) { main_time += 1; topp->eval(); VerilatedVpi::callValueCbs(); topp->clk = !topp->clk; //mon_do(); #if VM_TRACE if (tfp) tfp->dump (main_time); #endif } CHECK_RESULT(callback_count, 501); CHECK_RESULT(callback_count_half, 250); if (!Verilated::gotFinish()) { vl_fatal(FILENM,__LINE__,"main", "%Error: Timeout; never got a $finish"); } topp->final(); #if VM_TRACE if (tfp) tfp->close(); #endif delete topp; topp=NULL; exit(0L); }