/* Give TELNET a way to find out what version this is */ int handle_version_command(struct command_context_s *cmd_ctx, char *cmd, char **args, int argc) { if (argc!=0) return ERROR_COMMAND_SYNTAX_ERROR; command_print(cmd_ctx, OPENOCD_VERSION); return ERROR_OK; }
static int mips32_verify_pointer(struct command_context *cmd_ctx, struct mips32_common *mips32) { if (mips32->common_magic != MIPS32_COMMON_MAGIC) { command_print(cmd_ctx, "target is not an MIPS32"); return ERROR_TARGET_INVALID; } return ERROR_OK; }
static int arm720t_verify_pointer(struct command_context *cmd_ctx, struct arm720t_common *arm720t) { if (arm720t->common_magic != ARM720T_COMMON_MAGIC) { command_print(cmd_ctx, "target is not an ARM720"); return ERROR_TARGET_INVALID; } return ERROR_OK; }
int handle_peek_command(struct command_context_s *cmd_ctx, char *cmd, char **args, int argc) { if (argc != 1) { return ERROR_COMMAND_SYNTAX_ERROR; } volatile int *address=(volatile int *)strtoul(args[0], NULL, 0); int value=*address; command_print(cmd_ctx, "0x%x : 0x%x", address, value); return ERROR_OK; }
/* * Main function for shell. */ int main(int argc, char *argv[]) { int quiet = 0; char input[BUFSIZ]; int r = 0; // Check for '-q' option: be quiet -- print no prompts if (argc > 1 && strcmp(argv[1], "-q") == 0) quiet = 1; while (!feof(stdin)) { parsestate_t parsestate; command_t *cmdlist; // Print the prompt if (!quiet) { printf("prog1$ "); fflush(stdout); } // Read a string, checking for error or EOF if (fgets(input, BUFSIZ, stdin) == NULL) { if (ferror(stdin)) // This function prints a description of the // error, preceded by 'cs111_fall07: '. perror("prog1"); break; } // TODO: invoke some function(s) in cmdline.c for parsing the read string. parse_init(&parsestate, input); cmdlist = command_line_parse(&parsestate, PARENS_OUT); if (!cmdlist) { printf("Syntax error\n"); continue; } // print the command list if (!quiet) { // TODO: invoke some function(s) in cmdline.c for printing out the command for debugging. command_print(cmdlist, 0); // why do we need to do this? fflush(stdout); } // and run it! if (cmdlist) command_line_exec(cmdlist); } return 0; }
static void show_config_target_power(struct command_context *ctx) { const char *target_power; const char *current_target_power; if (!config.target_power) target_power = "off"; else target_power = "on"; if (!tmp_config.target_power) current_target_power = "off"; else current_target_power = "on"; if (config.target_power != tmp_config.target_power) command_print(ctx, "Target power supply: %s [%s]", target_power, current_target_power); else command_print(ctx, "Target power supply: %s", target_power); }
int nand_fileio_start(struct command_context *cmd_ctx, struct nand_device *nand, const char *filename, int filemode, struct nand_fileio_state *state) { if (state->address % nand->page_size) { command_print(cmd_ctx, "only page-aligned addresses are supported"); return ERROR_COMMAND_SYNTAX_ERROR; } duration_start(&state->bench); if (NULL != filename) { int retval = fileio_open(&state->fileio, filename, filemode, FILEIO_BINARY); if (ERROR_OK != retval) { const char *msg = (FILEIO_READ == filemode) ? "read" : "write"; command_print(cmd_ctx, "failed to open '%s' for %s access", filename, msg); return retval; } state->file_opened = true; } if (!(state->oob_format & NAND_OOB_ONLY)) { state->page_size = nand->page_size; state->page = malloc(nand->page_size); } if (state->oob_format & (NAND_OOB_RAW | NAND_OOB_SW_ECC | NAND_OOB_SW_ECC_KW)) { if (nand->page_size == 512) { state->oob_size = 16; state->eccpos = nand_oob_16.eccpos; } else if (nand->page_size == 2048) { state->oob_size = 64; state->eccpos = nand_oob_64.eccpos; } state->oob = malloc(state->oob_size); } return ERROR_OK; }
int handle_meminfo_command(struct command_context_s *cmd_ctx, char *cmd, char **args, int argc) { static int prev = 0; struct mallinfo info; if (argc != 0) { command_print(cmd_ctx, "meminfo"); return ERROR_INVALID_ARGUMENTS; } info = mallinfo(); if (prev > 0) { command_print(cmd_ctx, "Diff: %d", prev - info.fordblks); } prev = info.fordblks; command_print(cmd_ctx, "Available ram: %d", info.fordblks ); return ERROR_OK; }
static void show_config(struct command_context *ctx) { command_print(ctx, "J-Link device configuration:"); show_config_usb_address(ctx); if (jaylink_has_cap(caps, JAYLINK_DEV_CAP_SET_TARGET_POWER)) show_config_target_power(ctx); if (jaylink_has_cap(caps, JAYLINK_DEV_CAP_ETHERNET)) { show_config_ip_address(ctx); show_config_mac_address(ctx); } }
static void show_config_ip_address(struct command_context *ctx) { if (!memcmp(config.ip_address, tmp_config.ip_address, 4)) command_print(ctx, "IP address: %d.%d.%d.%d", config.ip_address[3], config.ip_address[2], config.ip_address[1], config.ip_address[0]); else command_print(ctx, "IP address: %d.%d.%d.%d [%d.%d.%d.%d]", config.ip_address[3], config.ip_address[2], config.ip_address[1], config.ip_address[0], tmp_config.ip_address[3], tmp_config.ip_address[2], tmp_config.ip_address[1], tmp_config.ip_address[0]); if (!memcmp(config.subnet_mask, tmp_config.subnet_mask, 4)) command_print(ctx, "Subnet mask: %d.%d.%d.%d", config.subnet_mask[3], config.subnet_mask[2], config.subnet_mask[1], config.subnet_mask[0]); else command_print(ctx, "Subnet mask: %d.%d.%d.%d [%d.%d.%d.%d]", config.subnet_mask[3], config.subnet_mask[2], config.subnet_mask[1], config.subnet_mask[0], tmp_config.subnet_mask[3], tmp_config.subnet_mask[2], tmp_config.subnet_mask[1], tmp_config.subnet_mask[0]); }
int str9xpec_handle_flash_disable_turbo_command(struct command_context_s *cmd_ctx, char *cmd, char **args, int argc) { flash_bank_t *bank; jtag_tap_t *tap; str9xpec_flash_controller_t *str9xpec_info = NULL; if (argc < 1) { command_print(cmd_ctx, "str9xpec disable_turbo <bank>"); return ERROR_OK; } bank = get_flash_bank_by_num(strtoul(args[0], NULL, 0)); if (!bank) { command_print(cmd_ctx, "flash bank '#%s' is out of bounds", args[0]); return ERROR_OK; } str9xpec_info = bank->driver_priv; tap = str9xpec_info->tap; if (tap == NULL) return ERROR_FAIL; /* exit turbo mode via RESET */ str9xpec_set_instr(tap, ISC_NOOP, TAP_RESET); jtag_execute_queue(); /* restore previous scan chain */ if (tap->next_tap) { tap->next_tap->enabled = 1; } return ERROR_OK; }
/* Function: direct_input */ void direct_input() { #ifdef DEBUG_TEST printf("TEST: Read and parse command from STDIN\n"); #endif char buffer[CMD_MAX]; while(TRUE) { printf("# "); fgets(buffer, CMD_MAX, stdin); cmd = command_parse(buffer); command_print(cmd); command_free(cmd); } }
int handle_trunc_command(struct command_context_s *cmd_ctx, char *cmd, char **args, int argc) { if (argc != 1) { command_print(cmd_ctx, "trunc <filename>"); return ERROR_INVALID_ARGUMENTS; } FILE *config_file = NULL; config_file = fopen(args[0], "w"); if (config_file != NULL) fclose(config_file); return ERROR_OK; }
int handle_trace_point_command(struct command_context_s *cmd_ctx, char *cmd, char **args, int argc) { target_t *target = get_current_target(cmd_ctx); trace_t *trace = target->trace_info; if (argc == 0) { int i; for (i = 0; i < trace->num_trace_points; i++) { command_print(cmd_ctx, "trace point 0x%8.8x (%"PRIi64" times hit)", trace->trace_points[i].address, trace->trace_points[i].hit_counter); } return ERROR_OK; } if (!strcmp(args[0], "clear")) { if (trace->trace_points) { free(trace->trace_points); trace->trace_points = NULL; } trace->num_trace_points = 0; trace->trace_points_size = 0; return ERROR_OK; } /* resize array if necessary */ if (!trace->trace_points || (trace->trace_points_size == trace->num_trace_points)) { trace->trace_points = realloc(trace->trace_points, sizeof(trace_point_t) * (trace->trace_points_size + 32)); trace->trace_points_size += 32; } trace->trace_points[trace->num_trace_points].address = strtoul(args[0], NULL, 0); trace->trace_points[trace->num_trace_points].hit_counter = 0; trace->num_trace_points++; return ERROR_OK; }
COMMAND_HELPER(server_port_command, unsigned short *out) { switch (CMD_ARGC) { case 0: command_print(CMD_CTX, "%d", *out); break; case 1: { uint16_t port; COMMAND_PARSE_NUMBER(u16, CMD_ARGV[0], port); *out = port; break; } default: return ERROR_COMMAND_SYNTAX_ERROR; } return ERROR_OK; }
SERVER_PORT_COMMAND() { switch (CMD_ARGC) { case 0: command_print(CMD_CTX, "%d", *out); break; case 1: { uint16_t port; COMMAND_PARSE_NUMBER(u16, CMD_ARGV[0], port); *out = port; break; } default: return ERROR_COMMAND_SYNTAX_ERROR; } return ERROR_OK; }
SERVER_PIPE_COMMAND() { switch (CMD_ARGC) { case 0: command_print(CMD_CTX, "%s", *out); break; case 1: { const char *t = strdup(CMD_ARGV[0]); free((void *)*out); *out = t; break; } default: return ERROR_COMMAND_SYNTAX_ERROR; } return ERROR_OK; }
COMMAND_HELPER(flash_command_get_bank, unsigned name_index, struct flash_bank **bank) { const char *name = CMD_ARGV[name_index]; *bank = get_flash_bank_by_name(name); if (*bank) return ERROR_OK; unsigned bank_num; COMMAND_PARSE_NUMBER(uint, name, bank_num); *bank = get_flash_bank_by_num(bank_num); if (!*bank) { command_print(CMD_CTX, "flash bank '%s' not found", name); return ERROR_INVALID_ARGUMENTS; } return ERROR_OK; }
COMMAND_HELPER(server_pipe_command, char **out) { switch (CMD_ARGC) { case 0: command_print(CMD_CTX, "%s", *out); break; case 1: { if (CMD_CTX->mode == COMMAND_EXEC) { LOG_WARNING("unable to change server port after init"); return ERROR_COMMAND_ARGUMENT_INVALID; } free(*out); *out = strdup(CMD_ARGV[0]); break; } default: return ERROR_COMMAND_SYNTAX_ERROR; } return ERROR_OK; }
SERVER_PIPE_COMMAND() { switch (CMD_ARGC) { case 0: command_print(CMD_CTX, "%s", *out); break; case 1: { if (CMD_CTX->mode == COMMAND_EXEC) { LOG_WARNING("unable to change server port after init"); return ERROR_COMMAND_ARGUMENT_INVALID; } const char *t = strdup(CMD_ARGV[0]); free((void *)*out); *out = t; break; } default: return ERROR_COMMAND_SYNTAX_ERROR; } return ERROR_OK; }
static int handle_xsvf_command(struct command_context_s *cmd_ctx, char *cmd, char **args, int argc) { u8 *dr_out_buf = NULL; /* from host to device (TDI) */ u8 *dr_in_buf = NULL; /* from device to host (TDO) */ u8 *dr_in_mask = NULL; int xsdrsize = 0; int xruntest = 0; /* number of TCK cycles OR microseconds */ int xrepeat = 0; /* number of retries */ tap_state_t xendir = TAP_IDLE; /* see page 8 of the SVF spec, initial xendir to be TAP_IDLE */ tap_state_t xenddr = TAP_IDLE; u8 opcode; u8 uc; long file_offset = 0; int loop_count = 0; tap_state_t loop_state = TAP_IDLE; int loop_clocks = 0; int loop_usecs = 0; int do_abort = 0; int unsupported = 0; int tdo_mismatch = 0; int result; int verbose = 1; char* filename; int runtest_requires_tck = 0; /* a flag telling whether to clock TCK during waits, or simply sleep, controled by virt2 */ /* use NULL to indicate a "plain" xsvf file which accounts for additional devices in the scan chain, otherwise the device that should be affected */ jtag_tap_t *tap = NULL; if (argc < 2) { command_print(cmd_ctx, "usage: xsvf <device#|plain> <file> [<variant>] [quiet]"); return ERROR_FAIL; } filename = args[1]; /* we mess with args starting point below, snapshot filename here */ if (strcmp(args[0], "plain") != 0) { tap = jtag_TapByString( args[0] ); if (!tap ) { command_print( cmd_ctx, "Tap: %s unknown", args[0] ); return ERROR_FAIL; } } if ((xsvf_fd = open(filename, O_RDONLY)) < 0) { command_print(cmd_ctx, "file \"%s\" not found", filename); return ERROR_FAIL; } /* if this argument is present, then interpret xruntest counts as TCK cycles rather than as usecs */ if ((argc > 2) && (strcmp(args[2], "virt2") == 0)) { runtest_requires_tck = 1; --argc; ++args; } if ((argc > 2) && (strcmp(args[2], "quiet") == 0)) { verbose = 0; } LOG_USER("xsvf processing file: \"%s\"", filename); while( read(xsvf_fd, &opcode, 1) > 0 ) { /* record the position of the just read opcode within the file */ file_offset = lseek(xsvf_fd, 0, SEEK_CUR) - 1; switch (opcode) { case XCOMPLETE: LOG_DEBUG("XCOMPLETE"); result = jtag_execute_queue(); if (result != ERROR_OK) { tdo_mismatch = 1; break; } break; case XTDOMASK: LOG_DEBUG("XTDOMASK"); if (dr_in_mask && (xsvf_read_buffer(xsdrsize, xsvf_fd, dr_in_mask) != ERROR_OK)) do_abort = 1; break; case XRUNTEST: { u8 xruntest_buf[4]; if (read(xsvf_fd, xruntest_buf, 4) < 0) { do_abort = 1; break; } xruntest = be_to_h_u32(xruntest_buf); LOG_DEBUG("XRUNTEST %d 0x%08X", xruntest, xruntest); } break; case XREPEAT: { u8 myrepeat; if (read(xsvf_fd, &myrepeat, 1) < 0) do_abort = 1; else { xrepeat = myrepeat; LOG_DEBUG("XREPEAT %d", xrepeat ); } } break; case XSDRSIZE: { u8 xsdrsize_buf[4]; if (read(xsvf_fd, xsdrsize_buf, 4) < 0) { do_abort = 1; break; } xsdrsize = be_to_h_u32(xsdrsize_buf); LOG_DEBUG("XSDRSIZE %d", xsdrsize); if( dr_out_buf ) free(dr_out_buf); if( dr_in_buf) free(dr_in_buf); if( dr_in_mask) free(dr_in_mask); dr_out_buf = malloc((xsdrsize + 7) / 8); dr_in_buf = malloc((xsdrsize + 7) / 8); dr_in_mask = malloc((xsdrsize + 7) / 8); } break; case XSDR: /* these two are identical except for the dr_in_buf */ case XSDRTDO: { int limit = xrepeat; int matched = 0; int attempt; const char* op_name = (opcode == XSDR ? "XSDR" : "XSDRTDO"); if (xsvf_read_buffer(xsdrsize, xsvf_fd, dr_out_buf) != ERROR_OK) { do_abort = 1; break; } if (opcode == XSDRTDO) { if(xsvf_read_buffer(xsdrsize, xsvf_fd, dr_in_buf) != ERROR_OK ) { do_abort = 1; break; } } if (limit < 1) limit = 1; LOG_DEBUG("%s %d", op_name, xsdrsize); for( attempt=0; attempt<limit; ++attempt ) { scan_field_t field; if( attempt>0 ) { /* perform the XC9500 exception handling sequence shown in xapp067.pdf and illustrated in psuedo code at end of this file. We start from state DRPAUSE: go to Exit2-DR go to Shift-DR go to Exit1-DR go to Update-DR go to Run-Test/Idle This sequence should be harmless for other devices, and it will be skipped entirely if xrepeat is set to zero. */ static tap_state_t exception_path[] = { TAP_DREXIT2, TAP_DRSHIFT, TAP_DREXIT1, TAP_DRUPDATE, TAP_IDLE, }; jtag_add_pathmove( sizeof(exception_path)/sizeof(exception_path[0]), exception_path); if (verbose) LOG_USER("%s %d retry %d", op_name, xsdrsize, attempt); } field.tap = tap; field.num_bits = xsdrsize; field.out_value = dr_out_buf; field.out_mask = NULL; field.in_value = NULL; jtag_set_check_value(&field, dr_in_buf, dr_in_mask, NULL); if (tap == NULL) jtag_add_plain_dr_scan(1, &field, TAP_DRPAUSE); else jtag_add_dr_scan(1, &field, TAP_DRPAUSE); /* LOG_DEBUG("FLUSHING QUEUE"); */ result = jtag_execute_queue(); if (result == ERROR_OK) { matched = 1; break; } } if (!matched) { LOG_USER( "%s mismatch", op_name); tdo_mismatch = 1; break; } /* See page 19 of XSVF spec regarding opcode "XSDR" */ if (xruntest) { xsvf_add_statemove(TAP_IDLE); if (runtest_requires_tck) jtag_add_clocks(xruntest); else jtag_add_sleep(xruntest); } else if (xendir != TAP_DRPAUSE) /* we are already in TAP_DRPAUSE */ xsvf_add_statemove(xenddr); } break; case XSETSDRMASKS: LOG_ERROR("unsupported XSETSDRMASKS\n"); unsupported = 1; break; case XSDRINC: LOG_ERROR("unsupported XSDRINC\n"); unsupported = 1; break; case XSDRB: LOG_ERROR("unsupported XSDRB\n"); unsupported = 1; break; case XSDRC: LOG_ERROR("unsupported XSDRC\n"); unsupported = 1; break; case XSDRE: LOG_ERROR("unsupported XSDRE\n"); unsupported = 1; break; case XSDRTDOB: LOG_ERROR("unsupported XSDRTDOB\n"); unsupported = 1; break; case XSDRTDOC: LOG_ERROR("unsupported XSDRTDOC\n"); unsupported = 1; break; case XSDRTDOE: LOG_ERROR("unsupported XSDRTDOE\n"); unsupported = 1; break; case XSTATE: { tap_state_t mystate; tap_state_t *path; int path_len; if (read(xsvf_fd, &uc, 1) < 0) { do_abort = 1; break; } mystate = xsvf_to_tap(uc); LOG_DEBUG("XSTATE 0x%02X %s", uc, tap_state_name(mystate) ); path = calloc(XSTATE_MAX_PATH, 4); path_len = 1; path[0] = mystate; if (xsvf_read_xstates(xsvf_fd, path, XSTATE_MAX_PATH, &path_len) != ERROR_OK) do_abort = 1; else { int i,lasti; /* here the trick is that jtag_add_pathmove() must end in a stable * state, so we must only invoke jtag_add_tlr() when we absolutely * have to */ for(i=0,lasti=0; i<path_len; i++) { if(path[i]==TAP_RESET) { if(i>lasti) { jtag_add_pathmove(i-lasti,path+lasti); } lasti=i+1; jtag_add_tlr(); } } if(i>=lasti) { jtag_add_pathmove(i-lasti, path+lasti); } } free(path); } break; case XENDIR: { tap_state_t mystate; if (read(xsvf_fd, &uc, 1) < 0) { do_abort = 1; break; } /* see page 22 of XSVF spec */ mystate = uc == 1 ? TAP_IRPAUSE : TAP_IDLE; LOG_DEBUG("XENDIR 0x%02X %s", uc, tap_state_name(mystate)); /* assuming that the XRUNTEST comes from SVF RUNTEST, then only these states * should come here because the SVF spec only allows these with a RUNTEST */ if (mystate != TAP_IRPAUSE && mystate != TAP_DRPAUSE && mystate != TAP_RESET && mystate != TAP_IDLE ) { LOG_ERROR("illegal XENDIR endstate: \"%s\"", tap_state_name(mystate)); unsupported = 1; break; } xendir = mystate; } break; case XENDDR: { tap_state_t mystate; if (read(xsvf_fd, &uc, 1) < 0) { do_abort = 1; break; } /* see page 22 of XSVF spec */ mystate = uc == 1 ? TAP_DRPAUSE : TAP_IDLE; LOG_DEBUG("XENDDR %02X %s", uc, tap_state_name(mystate)); if (mystate != TAP_IRPAUSE && mystate != TAP_DRPAUSE && mystate != TAP_RESET && mystate != TAP_IDLE ) { LOG_ERROR("illegal XENDDR endstate: \"%s\"", tap_state_name( mystate )); unsupported = 1; break; } xenddr = mystate; } break; case XSIR: case XSIR2: { u8 short_buf[2]; u8* ir_buf; int bitcount; tap_state_t my_end_state = xruntest ? TAP_IDLE : xendir; if( opcode == XSIR ) { /* one byte bitcount */ if (read(xsvf_fd, short_buf, 1) < 0) { do_abort = 1; break; } bitcount = short_buf[0]; LOG_DEBUG("XSIR %d", bitcount); } else { if (read(xsvf_fd, short_buf, 2) < 0) { do_abort = 1; break; } bitcount = be_to_h_u16(short_buf); LOG_DEBUG("XSIR2 %d", bitcount); } ir_buf = malloc((bitcount+7) / 8); if (xsvf_read_buffer(bitcount, xsvf_fd, ir_buf) != ERROR_OK) do_abort = 1; else { scan_field_t field; field.tap = tap; field.num_bits = bitcount; field.out_value = ir_buf; field.out_mask = NULL; field.in_value = NULL; field.in_check_value = NULL; field.in_check_mask = NULL; field.in_handler = NULL; field.in_handler_priv = NULL; if (tap == NULL) jtag_add_plain_ir_scan(1, &field, my_end_state); else jtag_add_ir_scan(1, &field, my_end_state); if (xruntest) { if (runtest_requires_tck) jtag_add_clocks(xruntest); else jtag_add_sleep(xruntest); } /* Note that an -irmask of non-zero in your config file * can cause this to fail. Setting -irmask to zero cand work * around the problem. */ /* LOG_DEBUG("FLUSHING QUEUE"); */ result = jtag_execute_queue(); if(result != ERROR_OK) { tdo_mismatch = 1; } } free(ir_buf); } break; case XCOMMENT: { int ndx = 0; char comment[128]; do { if (read(xsvf_fd, &uc, 1) < 0) { do_abort = 1; break; } if ( ndx < sizeof(comment)-1 ) comment[ndx++] = uc; } while (uc != 0); comment[sizeof(comment)-1] = 0; /* regardless, terminate */ if (verbose) LOG_USER(comment); } break; case XWAIT: { /* expected in stream: XWAIT <u8 wait_state> <u8 end_state> <u32 usecs> */ u8 wait; u8 end; u8 delay_buf[4]; tap_state_t wait_state; tap_state_t end_state; int delay; if ( read(xsvf_fd, &wait, 1) < 0 || read(xsvf_fd, &end, 1) < 0 || read(xsvf_fd, delay_buf, 4) < 0) { do_abort = 1; break; } wait_state = xsvf_to_tap(wait); end_state = xsvf_to_tap(end); delay = be_to_h_u32(delay_buf); LOG_DEBUG("XWAIT %s %s usecs:%d", tap_state_name(wait_state), tap_state_name(end_state), delay); if (runtest_requires_tck && wait_state == TAP_IDLE ) { jtag_add_runtest(delay, end_state); } else { xsvf_add_statemove( wait_state ); jtag_add_sleep(delay); xsvf_add_statemove( end_state ); } } break; case XWAITSTATE: { /* expected in stream: XWAITSTATE <u8 wait_state> <u8 end_state> <u32 clock_count> <u32 usecs> */ u8 clock_buf[4]; u8 usecs_buf[4]; u8 wait; u8 end; tap_state_t wait_state; tap_state_t end_state; int clock_count; int usecs; if ( read(xsvf_fd, &wait, 1) < 0 || read(xsvf_fd, &end, 1) < 0 || read(xsvf_fd, clock_buf, 4) < 0 || read(xsvf_fd, usecs_buf, 4) < 0 ) { do_abort = 1; break; } wait_state = xsvf_to_tap( wait ); end_state = xsvf_to_tap( end ); clock_count = be_to_h_u32(clock_buf); usecs = be_to_h_u32(usecs_buf); LOG_DEBUG("XWAITSTATE %s %s clocks:%i usecs:%i", tap_state_name(wait_state), tap_state_name(end_state), clock_count, usecs); /* the following states are 'stable', meaning that they have a transition * in the state diagram back to themselves. This is necessary because we will * be issuing a number of clocks in this state. This set of allowed states is also * determined by the SVF RUNTEST command's allowed states. */ if (wait_state != TAP_IRPAUSE && wait_state != TAP_DRPAUSE && wait_state != TAP_RESET && wait_state != TAP_IDLE) { LOG_ERROR("illegal XWAITSTATE wait_state: \"%s\"", tap_state_name( wait_state )); unsupported = 1; } xsvf_add_statemove( wait_state ); jtag_add_clocks( clock_count ); jtag_add_sleep( usecs ); xsvf_add_statemove( end_state ); } break; case LCOUNT: { /* expected in stream: LCOUNT <u32 loop_count> */ u8 count_buf[4]; if ( read(xsvf_fd, count_buf, 4) < 0 ) { do_abort = 1; break; } loop_count = be_to_h_u32(count_buf); LOG_DEBUG("LCOUNT %d", loop_count); } break; case LDELAY: { /* expected in stream: LDELAY <u8 wait_state> <u32 clock_count> <u32 usecs_to_sleep> */ u8 state; u8 clock_buf[4]; u8 usecs_buf[4]; if ( read(xsvf_fd, &state, 1) < 0 || read(xsvf_fd, clock_buf, 4) < 0 || read(xsvf_fd, usecs_buf, 4) < 0 ) { do_abort = 1; break; } loop_state = xsvf_to_tap(state); loop_clocks = be_to_h_u32(clock_buf); loop_usecs = be_to_h_u32(usecs_buf); LOG_DEBUG("LDELAY %s clocks:%d usecs:%d", tap_state_name(loop_state), loop_clocks, loop_usecs); } break; /* LSDR is more like XSDRTDO than it is like XSDR. It uses LDELAY which * comes with clocks !AND! sleep requirements. */ case LSDR: { int limit = loop_count; int matched = 0; int attempt; LOG_DEBUG("LSDR"); if ( xsvf_read_buffer(xsdrsize, xsvf_fd, dr_out_buf) != ERROR_OK || xsvf_read_buffer(xsdrsize, xsvf_fd, dr_in_buf) != ERROR_OK ) { do_abort = 1; break; } if (limit < 1) limit = 1; for( attempt=0; attempt<limit; ++attempt ) { scan_field_t field; xsvf_add_statemove( loop_state ); jtag_add_clocks(loop_clocks); jtag_add_sleep(loop_usecs); field.tap = tap; field.num_bits = xsdrsize; field.out_value = dr_out_buf; field.out_mask = NULL; field.in_value = NULL; if (attempt > 0 && verbose) LOG_USER("LSDR retry %d", attempt); jtag_set_check_value(&field, dr_in_buf, dr_in_mask, NULL); if (tap == NULL) jtag_add_plain_dr_scan(1, &field, TAP_DRPAUSE); else jtag_add_dr_scan(1, &field, TAP_DRPAUSE); /* LOG_DEBUG("FLUSHING QUEUE"); */ result = jtag_execute_queue(); if(result == ERROR_OK) { matched = 1; break; } } if (!matched ) { LOG_USER( "LSDR mismatch" ); tdo_mismatch = 1; break; } } break; case XTRST: { u8 trst_mode; if (read(xsvf_fd, &trst_mode, 1) < 0) { do_abort = 1; break; } switch( trst_mode ) { case XTRST_ON: jtag_add_reset(1, 0); break; case XTRST_OFF: case XTRST_Z: jtag_add_reset(0, 0); break; case XTRST_ABSENT: break; default: LOG_ERROR( "XTRST mode argument (0x%02X) out of range", trst_mode ); do_abort = 1; } } break; default: LOG_ERROR("unknown xsvf command (0x%02X)\n", uc); unsupported = 1; } if (do_abort || unsupported || tdo_mismatch) { LOG_DEBUG("xsvf failed, setting taps to reasonable state"); /* upon error, return the TAPs to a reasonable state */ xsvf_add_statemove( TAP_IDLE ); jtag_execute_queue(); break; } } if (tdo_mismatch) { command_print(cmd_ctx, "TDO mismatch, somewhere near offset %lu in xsvf file, aborting", file_offset ); return ERROR_FAIL; } if (unsupported) { command_print(cmd_ctx, "unsupported xsvf command: 0x%02X in xsvf file at offset %ld, aborting", uc, lseek(xsvf_fd, 0, SEEK_CUR)-1 ); return ERROR_FAIL; } if (do_abort) { command_print(cmd_ctx, "premature end of xsvf file detected, aborting"); return ERROR_FAIL; } if (dr_out_buf) free(dr_out_buf); if (dr_in_buf) free(dr_in_buf); if (dr_in_mask) free(dr_in_mask); close(xsvf_fd); command_print(cmd_ctx, "XSVF file programmed successfully"); return ERROR_OK; }
int str9xpec_handle_flash_options_read_command(struct command_context_s *cmd_ctx, char *cmd, char **args, int argc) { flash_bank_t *bank; u8 status; str9xpec_flash_controller_t *str9xpec_info = NULL; if (argc < 1) { command_print(cmd_ctx, "str9xpec options_read <bank>"); return ERROR_OK; } bank = get_flash_bank_by_num(strtoul(args[0], NULL, 0)); if (!bank) { command_print(cmd_ctx, "flash bank '#%s' is out of bounds", args[0]); return ERROR_OK; } str9xpec_info = bank->driver_priv; status = str9xpec_read_config(bank); if ((status & ISC_STATUS_ERROR) != STR9XPEC_ISC_SUCCESS) return ERROR_FLASH_OPERATION_FAILED; /* boot bank */ if (buf_get_u32(str9xpec_info->options, STR9XPEC_OPT_CSMAPBIT, 1)) command_print(cmd_ctx, "CS Map: bank1"); else command_print(cmd_ctx, "CS Map: bank0"); /* OTP lock */ if (buf_get_u32(str9xpec_info->options, STR9XPEC_OPT_OTPBIT, 1)) command_print(cmd_ctx, "OTP Lock: OTP Locked"); else command_print(cmd_ctx, "OTP Lock: OTP Unlocked"); /* LVD Threshold */ if (buf_get_u32(str9xpec_info->options, STR9XPEC_OPT_LVDTHRESBIT, 1)) command_print(cmd_ctx, "LVD Threshold: 2.7v"); else command_print(cmd_ctx, "LVD Threshold: 2.4v"); /* LVD reset warning */ if (buf_get_u32(str9xpec_info->options, STR9XPEC_OPT_LVDWARNBIT, 1)) command_print(cmd_ctx, "LVD Reset Warning: VDD or VDDQ Inputs"); else command_print(cmd_ctx, "LVD Reset Warning: VDD Input Only"); /* LVD reset select */ if (buf_get_u32(str9xpec_info->options, STR9XPEC_OPT_LVDSELBIT, 1)) command_print(cmd_ctx, "LVD Reset Selection: VDD or VDDQ Inputs"); else command_print(cmd_ctx, "LVD Reset Selection: VDD Input Only"); return ERROR_OK; }
COMMAND_HELPER(nand_fileio_parse_args, struct nand_fileio_state *state, struct nand_device **dev, enum fileio_access filemode, bool need_size, bool sw_ecc) { nand_fileio_init(state); unsigned minargs = need_size ? 4 : 3; if (CMD_ARGC < minargs) return ERROR_COMMAND_SYNTAX_ERROR; struct nand_device *nand; int retval = CALL_COMMAND_HANDLER(nand_command_get_device, 0, &nand); if (ERROR_OK != retval) return retval; if (NULL == nand->device) { command_print(CMD_CTX, "#%s: not probed", CMD_ARGV[0]); return ERROR_OK; } COMMAND_PARSE_NUMBER(u32, CMD_ARGV[2], state->address); if (need_size) { COMMAND_PARSE_NUMBER(u32, CMD_ARGV[3], state->size); if (state->size % nand->page_size) { command_print(CMD_CTX, "only page-aligned sizes are supported"); return ERROR_COMMAND_SYNTAX_ERROR; } } if (CMD_ARGC > minargs) { for (unsigned i = minargs; i < CMD_ARGC; i++) { if (!strcmp(CMD_ARGV[i], "oob_raw")) state->oob_format |= NAND_OOB_RAW; else if (!strcmp(CMD_ARGV[i], "oob_only")) state->oob_format |= NAND_OOB_RAW | NAND_OOB_ONLY; else if (sw_ecc && !strcmp(CMD_ARGV[i], "oob_softecc")) state->oob_format |= NAND_OOB_SW_ECC; else if (sw_ecc && !strcmp(CMD_ARGV[i], "oob_softecc_kw")) state->oob_format |= NAND_OOB_SW_ECC_KW; else { command_print(CMD_CTX, "unknown option: %s", CMD_ARGV[i]); return ERROR_COMMAND_SYNTAX_ERROR; } } } retval = nand_fileio_start(CMD_CTX, nand, CMD_ARGV[1], filemode, state); if (ERROR_OK != retval) return retval; if (!need_size) { int filesize; retval = fileio_size(&state->fileio, &filesize); if (retval != ERROR_OK) return retval; state->size = filesize; } *dev = nand; return ERROR_OK; }
int handle_arm9tdmi_catch_vectors_command(struct command_context_s *cmd_ctx, char *cmd, char **args, int argc) { target_t *target = get_current_target(cmd_ctx); armv4_5_common_t *armv4_5; arm7_9_common_t *arm7_9; arm9tdmi_common_t *arm9tdmi; reg_t *vector_catch; u32 vector_catch_value; int i, j; if (arm9tdmi_get_arch_pointers(target, &armv4_5, &arm7_9, &arm9tdmi) != ERROR_OK) { command_print(cmd_ctx, "current target isn't an ARM9TDMI based target"); return ERROR_OK; } vector_catch = &arm7_9->eice_cache->reg_list[EICE_VEC_CATCH]; /* read the vector catch register if necessary */ if (!vector_catch->valid) embeddedice_read_reg(vector_catch); /* get the current setting */ vector_catch_value = buf_get_u32(vector_catch->value, 0, 32); if (argc > 0) { vector_catch_value = 0x0; if (strcmp(args[0], "all") == 0) { vector_catch_value = 0xdf; } else if (strcmp(args[0], "none") == 0) { /* do nothing */ } else { for (i = 0; i < argc; i++) { /* go through list of vectors */ for(j = 0; arm9tdmi_vectors[j].name; j++) { if (strcmp(args[i], arm9tdmi_vectors[j].name) == 0) { vector_catch_value |= arm9tdmi_vectors[j].value; break; } } /* complain if vector wasn't found */ if (!arm9tdmi_vectors[j].name) { command_print(cmd_ctx, "vector '%s' not found, leaving current setting unchanged", args[i]); /* reread current setting */ vector_catch_value = buf_get_u32(vector_catch->value, 0, 32); break; } } } /* store new settings */ buf_set_u32(vector_catch->value, 0, 32, vector_catch_value); embeddedice_store_reg(vector_catch); } /* output current settings (skip RESERVED vector) */ for (i = 0; i < 8; i++) { if (i != 5) { command_print(cmd_ctx, "%s: %s", arm9tdmi_vectors[i].name, (vector_catch_value & (1 << i)) ? "catch" : "don't catch"); } } return ERROR_OK; }
void command_print(command_t *cmd, int indent) { int argc, i; if (cmd == NULL) { printf("%*s[NULL]\n", indent, ""); return; } for (argc = 0; argc < MAXTOKENS && cmd->argv[argc]; argc++) /* do nothing */; // More than MAXTOKENS is an error assert(argc <= MAXTOKENS); printf("%*s[%d args", indent, "", argc); for (i = 0; i < argc; i++) printf(" \"%s\"", cmd->argv[i]); // Print redirections if (cmd->redirect_filename[STDIN_FILENO]) printf(" <%s", cmd->redirect_filename[STDIN_FILENO]); if (cmd->redirect_filename[STDOUT_FILENO]) printf(" >%s", cmd->redirect_filename[STDOUT_FILENO]); if (cmd->redirect_filename[STDERR_FILENO]) printf(" 2>%s", cmd->redirect_filename[STDERR_FILENO]); // Print the subshell command, if any if (cmd->subshell) { printf("\n"); command_print(cmd->subshell, indent + 2); } printf("] "); switch (cmd->controlop) { case TOK_SEMICOLON: printf(";"); break; case TOK_AMPERSAND: printf("&"); break; case TOK_PIPE: printf("|"); break; case TOK_DOUBLEAMP: printf("&&"); break; case TOK_DOUBLEPIPE: printf("||"); break; case TOK_END: // we write "END" as a dot printf("."); break; default: assert(0); } // Done! printf("\n"); // if next is NULL, then controlop should be CMD_END, CMD_BACKGROUND, // or CMD_SEMICOLON assert(cmd->next || cmd->controlop == CMD_END || cmd->controlop == CMD_BACKGROUND || cmd->controlop == CMD_SEMICOLON); if (cmd->next) command_print(cmd->next, indent); }
static int nand_list_walker(struct nand_flash_controller *c, void *x) { struct command_context *cmd_ctx = (struct command_context *)x; command_print(cmd_ctx, " %s", c->name); return ERROR_OK; }
int handle_cp_command(struct command_context_s *cmd_ctx, char *cmd, char **args, int argc) { if (argc != 2) { return ERROR_INVALID_ARGUMENTS; } // NOTE!!! we only have line printing capability so we print the entire file as a single line. void *data; int len; int retval = loadFile(args[0], &data, &len); if (retval != ERROR_OK) return retval; FILE *f = fopen(args[1], "wb"); if (f == NULL) retval = ERROR_INVALID_ARGUMENTS; int pos = 0; for (;;) { int chunk = len - pos; static const int maxChunk = 512 * 1024; // ~1/sec if (chunk > maxChunk) { chunk = maxChunk; } if ((retval==ERROR_OK)&&(fwrite(((char *)data)+pos, 1, chunk, f)!=chunk)) retval = ERROR_INVALID_ARGUMENTS; if (retval != ERROR_OK) { break; } command_print(cmd_ctx, "%d", len - pos); pos += chunk; if (pos == len) break; } if (retval == ERROR_OK) { command_print(cmd_ctx, "Copied %s to %s", args[0], args[1]); } else { command_print(cmd_ctx, "Failed: %d", retval); } if (data != NULL) free(data); if (f != NULL) fclose(f); if (retval != ERROR_OK) unlink(args[1]); return retval; }