#include "simpc_ui.h" #include "simpc_config.h" #include "disas.h" #define NCUR_X 5 #define MEMORY_CONTEXT 3 #include #define PRINT_ME(y, x, ...) \ { mvprintw(y, x, __VA_ARGS__); } #define PRINT_ME_W(w, y, x, ...) \ { mvwprintw(w, y, x, __VA_ARGS__); } #define PRINT_NEXT(dly) \ { \ refresh(); \ if (dly) { \ napms(NCUR_DELAY_MS); \ } \ wrefresh(status_top); \ wrefresh(clock_regs); \ } #define SIMPLE_BORDER(w, lr, tb, c) \ { wborder(w, lr, lr, tb, tb, c, c, c, c); } static WINDOW *status_top = NULL; static WINDOW *clock_regs = NULL; #include "Vcomputer.h" #include "Vcomputer___024root.h" #include "Vcomputer_comb_mem.h" #include "Vcomputer_computer.h" #include "Vcomputer_my_mem__D10_DB10000.h" #include "verilated.h" #include #include #include bool paused = false; static void handle_key(); void simpc_ui_write(const std::unique_ptr &topp, uint64_t &i, StepPosition_t sp) { uint16_t opcode = topp->computer->PC_content_int; PRINT_ME_W(status_top, 1, 1, "Step: %10lu \b%c", i, sp == StepPosition_t::BEFORE_EVAL ? 'A' : 'B'); PRINT_ME_W(status_top, 2, 1, "%-20s", paused ? "Paused" : "Running"); PRINT_ME_W(clock_regs, 1, NCUR_X, "CLK: %4d\tPC: 0x%04X\tINS: 0x%04X\tHLT: %6d", topp->clk_in, // wrong // topp->computer->clk_in, topp->computer->PC_addr_int, opcode, topp->halt); PRINT_ME_W(clock_regs, 2, NCUR_X, "A: 0x%04X\tD: 0x%04X\tM: 0x%04X\tRES: 0x%04X", topp->computer->reg_A_int, topp->computer->reg_D_int, topp->computer->reg_pA_int, topp->computer->result_int); PRINT_ME_W( clock_regs, 3, NCUR_X, "%c%8d\t%c %8d\t%c %8d\t%11d", topp->computer->store_to_A_int ? '*' : ' ', topp->computer->reg_A_int, topp->computer->store_to_D_int ? '*' : ' ', topp->computer->reg_D_int, topp->computer->store_to_pA_int ? '*' : ' ', topp->computer->reg_pA_int, topp->computer->result_int); const int ram1_pos_offset = 35 + 1; const int ram2_pos_offset = ram1_pos_offset + 14 + 1; PRINT_ME(10, NCUR_X, "%-35s", "--- ROM ---"); PRINT_ME(10, NCUR_X + ram1_pos_offset, "%-35s", "--- RAM1 ---"); PRINT_ME(10, NCUR_X + ram2_pos_offset, "%-35s", "-- RAM2 --"); for (int i = -MEMORY_CONTEXT; i <= MEMORY_CONTEXT; i++) { const int ypos_base = 10 + 1 + MEMORY_CONTEXT; const char *prefix = i == 0 ? "> " : " "; int32_t current_ROM_address = topp->computer->PC_addr_int + i; int32_t current_RAM_address = topp->computer->reg_A_int + i; if (current_ROM_address < 0) { PRINT_ME( ypos_base + i, NCUR_X, "%.35s", "---------------------------------------------------------------"); } else { const uint16_t p = current_ROM_address; const uint16_t program_op_code = topp->computer->ROM->r_datastore[p]; auto disas_code = print_decoded(program_op_code, true); PRINT_ME(ypos_base + i, NCUR_X, "%04X %s%04X %-30s", current_ROM_address, prefix, program_op_code, disas_code.c_str()); // mvchgat in bold } if (current_RAM_address < 0) { PRINT_ME( ypos_base + i, NCUR_X + ram1_pos_offset, "%.12s", "---------------------------------------------------------------"); } else { const uint16_t p = current_RAM_address; const uint16_t mem_content = topp->computer->RAM->nand_memory->r_datastore[p]; PRINT_ME(ypos_base + i, NCUR_X + ram1_pos_offset, "%04X %s%04X", current_RAM_address, prefix, mem_content); } { const uint16_t p = MEMORY_CONTEXT + i; const uint16_t mem_content = topp->computer->RAM->nand_memory->r_datastore[p]; PRINT_ME(ypos_base + i, NCUR_X + ram2_pos_offset, "%04X %04X%30c", p, mem_content, ' '); } } // PRINT_ME(7 + NCUR_OFFSET, NCUR_X, "ALU"); // PRINT_ME(8 + NCUR_OFFSET, NCUR_X, "X: %5d\tY: %5d", // topp->computer->CPU->my_alu->int_op_x, // topp->computer->CPU->my_alu->int_op_y); PRINT_ME(getmaxy(stdscr) - 1, 1, " q - Quit; p - (Un)pause; s - step (while paused) "); PRINT_NEXT(true); handle_key(); } void simpc_ui_finish_message(const std::unique_ptr &contextp, const std::unique_ptr &topp) { attron(A_BOLD); auto xpos = 20; PRINT_ME_W(status_top, 1, xpos, "Simulation finished."); const char *msg; if (topp->halt) { msg = "Halt encountered."; } else if (!contextp->gotFinish()) { msg = "Step count exceeded."; } else { msg = "Regular finish."; } PRINT_ME_W(status_top, 2, xpos, "%s", msg); PRINT_NEXT(false); attroff(A_BOLD); } void simpc_ui_init(void) { #if NCUR initscr(); curs_set(0); // lines, cols, ypos, xpos status_top = newwin(4, 50, 0, 0); SIMPLE_BORDER(status_top, '!', '~', 'X'); wrefresh(status_top); clock_regs = newwin(5, 80, 3, 0); SIMPLE_BORDER(clock_regs, '!', '~', 'X'); wrefresh(clock_regs); wgetch(clock_regs); int rc; rc = wresize(stdscr, getmaxy(stdscr) - 3, getmaxx(stdscr)); assert(rc == 0); rc = mvwin(stdscr, 3, 0); assert(rc == 0); SIMPLE_BORDER(stdscr, '|', '-', '+'); nodelay(stdscr, TRUE); noecho(); cbreak(); #endif } void simpc_ui_cleanup(void) { #if NCUR nocbreak(); echo(); if (status_top) { delwin(status_top); } if (clock_regs) { delwin(clock_regs); } endwin(); #endif } void simpc_ui_confirm_finish(void) { #if NCUR nodelay(stdscr, FALSE); getch(); #endif } static void handle_key() { bool block_here = paused; do { int ch = getch(); switch (ch) { case 'p': // pass *current* state. // pass false (currently running) - getch will block (entering step mode). // pass true (currently paused) - getch will be non-blocking. nodelay(stdscr, paused); paused = !paused; break; case 'q': simpc_ui_cleanup(); exit(0); break; case 's': block_here = false; break; } } while (block_here); }