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[/] [or1k/] [tags/] [nog_patch_66/] [or1ksim/] [toplevel.c] - Diff between revs 1061 and 1242

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Line 58... Line 58...
#include "mprofiler.h"
#include "mprofiler.h"
#include "mc.h"
#include "mc.h"
#include "atahost.h"
#include "atahost.h"
 
 
/* CVS revision number. */
/* CVS revision number. */
const char rcsrev[] = "$Revision: 1.96 $";
const char rcsrev[] = "$Revision: 1.97 $";
 
 
/* History of execution */
/* History of execution */
int histexec[HISTEXEC_LEN];
int histexec[HISTEXEC_LEN];
 
 
char *sim_commands [] = {
char *sim_commands [] = {
Line 143... Line 143...
  PRINTF("pr <r> <value>     - patch register <r> with <value>\n");
  PRINTF("pr <r> <value>     - patch register <r> with <value>\n");
  PRINTF("dm <fromaddr> [<toaddr>] - display memory from <fromaddr> to <toaddr>\n");
  PRINTF("dm <fromaddr> [<toaddr>] - display memory from <fromaddr> to <toaddr>\n");
  PRINTF("de <fromaddr> [<toaddr>] - debug insn memory\n");
  PRINTF("de <fromaddr> [<toaddr>] - debug insn memory\n");
  PRINTF("pm <addr> <value>  - patch memory location <addr> with <value>\n");
  PRINTF("pm <addr> <value>  - patch memory location <addr> with <value>\n");
  PRINTF("pc <value>     - patch PC register with <value>\n");
  PRINTF("pc <value>     - patch PC register with <value>\n");
  PRINTF("break <addr>     - toggle breakpoint at address <addr>\n");
  PRINTF("cm <fromaddr> <toaddr> <size> - copy memory
  PRINTF("breaks           - print all set breakpoints\n");
  PRINTF("break <addr>      - toggle breakpoint at address <addr>\n");
  PRINTF("reset      - simulator reset\n");
  PRINTF("breaks            - print all set breakpoints\n");
  PRINTF("hist       - execution history\n");
  PRINTF("reset             - simulator reset\n");
  PRINTF("stall                    - stalls the processor and gives control to the debugger\n");
  PRINTF("hist              - execution history\n");
  PRINTF("stats <num|clear>    - execution statistics num or clear it.\n");
  PRINTF("stall             - stalls the processor and gives control to the debugger\n");
  PRINTF("info       - configuration info (caches etc.)\n");
  PRINTF("stats <num|clear> - execution statistics num or clear it.\n");
  PRINTF("dv <fromaddr> [<toaddr>] [<modname>] - dumps memory as verilog (use redirect)\n");
  PRINTF("info              - configuration info (caches etc.)\n");
  PRINTF("dh <fromaddr> [<toaddr>] - dumps memory as hex code (use redirect)\n");
  PRINTF("dv <fromaddr> [<toaddr>] [<modname>] - dumps memory as verilog (use redirect)\n");
  PRINTF("<cmd> > <filename>   - redirect simulator stdout to <filename> (and not emulated PRINTF)\n");
  PRINTF("dh <fromaddr> [<toaddr>]             - dumps memory as hex code (use redirect)\n");
#if !FAST_SIM
  PRINTF("<cmd> > <filename> - redirect simulator stdout to <filename> (and not emulated PRINTF)\n");
  PRINTF("set <section> <item> = <param>  - set configuration.  See sim.cfg for more information.\n");
#if !FAST_SIM
  PRINTF("debug      - toggles simulator debug mode\n");
  PRINTF("set <section> <item> = <param>  - set configuration.  See sim.cfg for more information.\n");
  mp_help ();
  PRINTF("debug      - toggles simulator debug mode\n");
  prof_help ();
  mp_help ();
  PRINTF("cuc        - enters Custom Unit Compiler command prompt\n");
  prof_help ();
#endif
  PRINTF("cuc        - enters Custom Unit Compiler command prompt\n");
  PRINTF("help       - available commands (this list)\n");
#endif
}
  PRINTF("help       - available commands (this list)\n");
 
}
void debugmem (unsigned long from, unsigned long to );
 
 
void debugmem (unsigned long from, unsigned long to );
/* Resets all subunits */
 
void sim_reset ()
/* Resets all subunits */
{
void sim_reset ()
  SCHED_INIT();
{
  uart_reset();
  SCHED_INIT();
  dma_reset();
  uart_reset();
  eth_reset();
  dma_reset();
  gpio_reset();
  eth_reset();
  vga_reset ();
  gpio_reset();
  fb_reset ();
  vga_reset ();
  kbd_reset ();
  fb_reset ();
  ata_reset();
  kbd_reset ();
  tick_reset();
  ata_reset();
  pm_reset();
  tick_reset();
  pic_reset();
  pm_reset();
  mc_reset();
  pic_reset();
  du_reset ();
  mc_reset();
  cpu_reset();
  du_reset ();
}
  cpu_reset();
 
}
/* Initalizes all devices and sim */
 
void sim_init ()
/* Initalizes all devices and sim */
{
void sim_init ()
  init_memory_table ();
{
  init_labels();
  init_memory_table ();
  init_breakpoints();
  init_labels();
  initstats();
  init_breakpoints();
  build_automata();
  initstats();
 
  build_automata();
  if (config.sim.profile) {
 
    runtime.sim.fprof = fopen(config.sim.prof_fn, "wt+");
  if (config.sim.profile) {
    if(!runtime.sim.fprof) {
    runtime.sim.fprof = fopen(config.sim.prof_fn, "wt+");
      fprintf(stderr, "ERROR: Problems opening profile file.\n");
    if(!runtime.sim.fprof) {
      exit (1);
      fprintf(stderr, "ERROR: Problems opening profile file.\n");
    } else
      exit (1);
      fprintf(runtime.sim.fprof, "+00000000 FFFFFFFF FFFFFFFF [outside_functions]\n");
    } else
  }
      fprintf(runtime.sim.fprof, "+00000000 FFFFFFFF FFFFFFFF [outside_functions]\n");
 
  }
  if (config.sim.mprofile) {
 
    runtime.sim.fmprof = fopen(config.sim.mprof_fn, "wb+");
  if (config.sim.mprofile) {
    if(!runtime.sim.fmprof) {
    runtime.sim.fmprof = fopen(config.sim.mprof_fn, "wb+");
      fprintf(stderr, "ERROR: Problems opening memory profile file.\n");
    if(!runtime.sim.fmprof) {
      exit (1);
      fprintf(stderr, "ERROR: Problems opening memory profile file.\n");
    }
      exit (1);
  }
    }
 
  }
  if (config.sim.exe_log) {
 
    runtime.sim.fexe_log = fopen(config.sim.exe_log_fn, "wt+");
  if (config.sim.exe_log) {
    if(!runtime.sim.fexe_log) {
    runtime.sim.fexe_log = fopen(config.sim.exe_log_fn, "wt+");
      PRINTF("ERROR: Problems opening exe_log file.\n");
    if(!runtime.sim.fexe_log) {
      exit (1);
      PRINTF("ERROR: Problems opening exe_log file.\n");
    }
      exit (1);
  }
    }
 
  }
  if (config.sim.spr_log) {
 
    PRINTF("OPENING SPRLOG\n");
  if (config.sim.spr_log) {
    runtime.sim.fspr_log = fopen(config.sim.spr_log_fn, "wt+");
    PRINTF("OPENING SPRLOG\n");
    if (!runtime.sim.fspr_log) {
    runtime.sim.fspr_log = fopen(config.sim.spr_log_fn, "wt+");
      PRINTF("ERROR: Problems opening spr_log file.\n");
    if (!runtime.sim.fspr_log) {
      exit(1);
      PRINTF("ERROR: Problems opening spr_log file.\n");
    }
      exit(1);
  }
    }
 
  }
  /* Initialize memory */
 
  {
  /* Initialize memory */
    extern struct dev_memarea *dev_list;
  {
    struct dev_memarea *area;
    extern struct dev_memarea *dev_list;
    int i;
    struct dev_memarea *area;
    if (config.memory.type == MT_RANDOM) {
    int i;
      unsigned int val = 0;
    if (config.memory.type == MT_RANDOM) {
 
      unsigned int val = 0;
      if (config.memory.random_seed == -1) {
 
        runtime.memory.random_seed = time(NULL);
      if (config.memory.random_seed == -1) {
        /* Print out the seed just in case we ever need to debug */
        runtime.memory.random_seed = time(NULL);
        PRINTF("Seeding random generator with value %d\n", config.memory.random_seed);
        /* Print out the seed just in case we ever need to debug */
      } else
        PRINTF("Seeding random generator with value %d\n", config.memory.random_seed);
        runtime.memory.random_seed = config.memory.random_seed;
      } else
      srandom(runtime.memory.random_seed);
        runtime.memory.random_seed = config.memory.random_seed;
 
      srandom(runtime.memory.random_seed);
      for (area = dev_list; area; area = area->next)
 
        for(i = 0; i < area->size; i++) {
      for (area = dev_list; area; area = area->next)
          val = random();
        for(i = 0; i < area->size; i++) {
          setsim_mem8(i + area->addr_compare, val & 0xFF);
          val = random();
        }
          setsim_mem8(i + area->addr_compare, val & 0xFF);
    } else if(config.memory.type == MT_PATTERN) {
        }
      for (area = dev_list; area; area = area->next)
    } else if(config.memory.type == MT_PATTERN) {
        for(i = 0; i < area->size; i++)
      for (area = dev_list; area; area = area->next)
          setsim_mem8(i + area->addr_compare, config.memory.pattern);
        for(i = 0; i < area->size; i++)
    } else if (config.memory.type != MT_UNKNOWN) {
          setsim_mem8(i + area->addr_compare, config.memory.pattern);
      fprintf(stderr, "Invalid memory configuration type.\n");
    } else if (config.memory.type != MT_UNKNOWN) {
      exit(1);
      fprintf(stderr, "Invalid memory configuration type.\n");
    }
      exit(1);
  }
    }
 
  }
  if(runtime.sim.filename) {
 
    unsigned long endaddr = 0xFFFFFFFF;
  if(runtime.sim.filename) {
    endaddr = loadcode(runtime.sim.filename, 0, 0); /* MM170901 always load at address zero.  */
    unsigned long endaddr = 0xFFFFFFFF;
    if (endaddr == -1) {
    endaddr = loadcode(runtime.sim.filename, 0, 0); /* MM170901 always load at address zero.  */
      fprintf(stderr, "Problems loading boot code.\n");
    if (endaddr == -1) {
      exit(1);
      fprintf(stderr, "Problems loading boot code.\n");
    }
      exit(1);
  }
    }
 
  }
#if !FAST_SIM /* We assume we have valid configuration with fsim*/
 
  /* Disable gdb debugging, if debug module is not available.  */
#if !FAST_SIM /* We assume we have valid configuration with fsim*/
  if (config.debug.gdb_enabled && !config.debug.enabled) {
  /* Disable gdb debugging, if debug module is not available.  */
    config.debug.gdb_enabled = 0;
  if (config.debug.gdb_enabled && !config.debug.enabled) {
    if (config.sim.verbose)
    config.debug.gdb_enabled = 0;
      fprintf (stderr, "WARNING: Debug module not enabled, cannot start gdb.\n");
    if (config.sim.verbose)
  }
      fprintf (stderr, "WARNING: Debug module not enabled, cannot start gdb.\n");
#endif
  }
 
#endif
  if (config.debug.gdb_enabled)
 
    gdbcomm_init ();
  if (config.debug.gdb_enabled)
 
    gdbcomm_init ();
#if !FAST_SIM /* We assume we have valid configuration with fsim*/
 
  /* Enable dependency stats, if we want to do history analisis */
#if !FAST_SIM /* We assume we have valid configuration with fsim*/
  if (config.sim.history && !config.cpu.dependstats) {
  /* Enable dependency stats, if we want to do history analisis */
    config.cpu.dependstats = 1;
  if (config.sim.history && !config.cpu.dependstats) {
    if (config.sim.verbose)
    config.cpu.dependstats = 1;
      fprintf (stderr, "WARNING: dependstats stats must be enabled to do history analisis.\n");
    if (config.sim.verbose)
  }
      fprintf (stderr, "WARNING: dependstats stats must be enabled to do history analisis.\n");
#endif
  }
 
#endif
#if !FAST_SIM /* We assume we have valid configuration with fsim*/  
 
  /* Debug forces verbose */
#if !FAST_SIM /* We assume we have valid configuration with fsim*/
  if (config.sim.debug && !config.sim.verbose) {
  /* Debug forces verbose */
    config.sim.verbose = 1;
  if (config.sim.debug && !config.sim.verbose) {
    fprintf (stderr, "WARNING: verbose turned on.\n");
    config.sim.verbose = 1;
  }
    fprintf (stderr, "WARNING: verbose turned on.\n");
#endif
  }
 
#endif
  /* Start VAPI before device initialization.  */
 
  if (config.vapi.enabled) {
  /* Start VAPI before device initialization.  */
    runtime.vapi.enabled = 1;
  if (config.vapi.enabled) {
    vapi_init ();
    runtime.vapi.enabled = 1;
    if (config.sim.verbose)
    vapi_init ();
      PRINTF ("VAPI started, waiting for clients.\n");
    if (config.sim.verbose)
  }
      PRINTF ("VAPI started, waiting for clients.\n");
 
  }
  sim_reset ();
 
 
  sim_reset ();
  lock_memory_table ();
 
 
  lock_memory_table ();
  /* Wait till all test are connected.  */
 
  if (runtime.vapi.enabled) {
  /* Wait till all test are connected.  */
    int numu = vapi_num_unconnected (0);
  if (runtime.vapi.enabled) {
    if (numu) {
    int numu = vapi_num_unconnected (0);
      PRINTF ("\nWaiting for VAPI tests with ids:\n");
    if (numu) {
      vapi_num_unconnected (1);
      PRINTF ("\nWaiting for VAPI tests with ids:\n");
      PRINTF ("\n");
      vapi_num_unconnected (1);
      while (numu = vapi_num_unconnected (0)) {
      PRINTF ("\n");
        vapi_check ();
      while (numu = vapi_num_unconnected (0)) {
        PRINTF ("\rStill waiting for %i VAPI test(s) to connect.       ", numu);
        vapi_check ();
        usleep (100);
        PRINTF ("\rStill waiting for %i VAPI test(s) to connect.       ", numu);
      }
        usleep (100);
      PRINTF ("\n");
      }
    }
      PRINTF ("\n");
    PRINTF ("All devices connected                         \n");
    }
  }
    PRINTF ("All devices connected                         \n");
  /* simulator is initialized */
  }
  runtime.sim.init = 0;
  /* simulator is initialized */
}
  runtime.sim.init = 0;
 
}
/* Display info about various modules */
 
void sim_info () {
/* Display info about various modules */
  sprs_status();
void sim_info () {
  PRINTF ("\n");
  sprs_status();
  memory_table_status ();
  PRINTF ("\n");
  if (config.immu.enabled) itlb_status(-1);
  memory_table_status ();
  if (config.dmmu.enabled) dtlb_status(-1);
  if (config.immu.enabled) itlb_status(-1);
  if (config.ic.enabled) ic_info();
  if (config.dmmu.enabled) dtlb_status(-1);
  if (config.dc.enabled) dc_info();
  if (config.ic.enabled) ic_info();
 
  if (config.dc.enabled) dc_info();
  if (config.bpb.enabled) bpb_info();
 
  if (config.bpb.btic) btic_info();
  if (config.bpb.enabled) bpb_info();
 
  if (config.bpb.btic) btic_info();
  if (config.mc.enabled) mc_status();
 
  if (config.nuarts) uart_status();
  if (config.mc.enabled) mc_status();
  if (config.ndmas) dma_status();
  if (config.nuarts) uart_status();
  if (config.nethernets) eth_status();
  if (config.ndmas) dma_status();
  if (config.ngpios) gpio_status();
  if (config.nethernets) eth_status();
  if (config.natas) ata_status();
  if (config.ngpios) gpio_status();
  kbd_info();
  if (config.natas) ata_status();
}
  kbd_info();
 
}
/* Cleanup */
 
void sim_done ()
/* Cleanup */
{
void sim_done ()
  if (config.sim.profile) {
{
    fprintf(runtime.sim.fprof,"-%08X FFFFFFFF\n", runtime.sim.cycles);
  if (config.sim.profile) {
    fclose(runtime.sim.fprof);
    fprintf(runtime.sim.fprof,"-%08X FFFFFFFF\n", runtime.sim.cycles);
  }
    fclose(runtime.sim.fprof);
 
  }
  if (config.sim.mprofile) fclose(runtime.sim.fmprof);
 
  if (config.sim.exe_log)   fclose(runtime.sim.fexe_log);
  if (config.sim.mprofile) fclose(runtime.sim.fmprof);
  if (runtime.vapi.enabled)  vapi_done ();
  if (config.sim.exe_log)   fclose(runtime.sim.fexe_log);
  done_memory_table ();
  if (runtime.vapi.enabled)  vapi_done ();
  exit(0);
  done_memory_table ();
}
  exit(0);
 
}
/* Executes jobs in time queue */
 
static inline void do_scheduler ()
/* change result if item found in linestr */
{
static void addr_from_linestr(char *linestr, int index, int *result)
  void (*func)(int);
{
  int param;
        char item[20];
 
        strtoken(linestr, item, index);
  /* Execute all jobs till now */
        if (strlen(item))
  do {
        {
    func = SCHED_PEEK().func;
        if (item[0] == '_')
    param = SCHED_PEEK().param;
                        *result = eval_label(item);
    SCHED_REMOVE();
        else
    func (param);
                        *result = strtoul(item, NULL, 0);
  } while (runtime.sim.cycles >= SCHED_PEEK().time);
        };
}
};
 
 
/* Main function */
/* Executes jobs in time queue */
int main(argc, argv)
static inline void do_scheduler ()
     int argc;
{
     char *argv[];
  void (*func)(int);
{
  int param;
  char *linestr;
 
  char item1[500], b2[500], prev_str[500] = "";
  /* Execute all jobs till now */
  char *redirstr;
  do {
  int hush = 0;
    func = SCHED_PEEK().func;
  int first_prompt = 1;
    param = SCHED_PEEK().param;
 
    SCHED_REMOVE();
  srand(getpid());
    func (param);
  init_defconfig();
  } while (runtime.sim.cycles >= SCHED_PEEK().time);
  if (parse_args(argc, argv)) {
}
    PRINTF("Usage: %s [options] <filename>\n", argv[0]);
 
    PRINTF("Options:\n");
/* Main function */
    PRINTF(" -v                   version and copyright note\n");
int main(argc, argv)
    PRINTF(" -i                   enable interactive command prompt\n");
     int argc;
    PRINTF(" --nosrv              do not launch JTAG proxy server\n"); /* (CZ) */
     char *argv[];
    PRINTF(" --srv <n>            launch JTAG proxy server on port <n>; [random]\n"); /* (CZ) */
{
#if !FAST_SIM
  char *linestr;
    PRINTF(" -f or --file         load script file [sim.cfg]\n");
  char item1[500], b2[500], prev_str[500] = "";
    PRINTF(" --enable-profile     enable profiling.\n");
  char *redirstr;
    PRINTF(" --enable-mprofile    enable memory profiling.\n");
  int hush = 0;
#endif
  int first_prompt = 1;
    PRINTF(" --output-cfg         prints C structure of current\n");
 
    PRINTF("                      configuration to standard output\n");
  srand(getpid());
    PRINTF("\nor   : %s ", argv[0]);
  init_defconfig();
    mp_help ();
  if (parse_args(argc, argv)) {
    PRINTF("\nor   : %s ", argv[0]);
    PRINTF("Usage: %s [options] <filename>\n", argv[0]);
    prof_help ();
    PRINTF("Options:\n");
    exit(-1);
    PRINTF(" -v                   version and copyright note\n");
  }
    PRINTF(" -i                   enable interactive command prompt\n");
 
    PRINTF(" --nosrv              do not launch JTAG proxy server\n"); /* (CZ) */
#ifdef HAVE_LIBREADLINE
    PRINTF(" --srv <n>            launch JTAG proxy server on port <n>; [random]\n"); /* (CZ) */
  initialize_readline (); /* Bind our completer. */
#if !FAST_SIM
#endif
    PRINTF(" -f or --file         load script file [sim.cfg]\n");
 
    PRINTF(" --enable-profile     enable profiling.\n");
#if !FAST_SIM
    PRINTF(" --enable-mprofile    enable memory profiling.\n");
  /* Read configuration file.  */
#endif
  if (!runtime.sim.script_file_specified)
    PRINTF(" --output-cfg         prints C structure of current\n");
    read_script_file ("sim.cfg");
    PRINTF("                      configuration to standard output\n");
 
    PRINTF("\nor   : %s ", argv[0]);
  /* Overide parameters with command line ones */
    mp_help ();
  if (runtime.simcmd.profile) config.sim.profile = 1;
    PRINTF("\nor   : %s ", argv[0]);
  if (runtime.simcmd.mprofile) config.sim.mprofile = 1;
    prof_help ();
 
    exit(-1);
  if (!runtime.sim.script_file_specified && config.sim.verbose)
  }
    fprintf (stderr, "WARNING: No config file read, assuming default configuration.\n");
 
#else
#ifdef HAVE_LIBREADLINE
  PRINTF ("\n\tNOTE: running fast sim with fixed configuration!\n\n");
  initialize_readline (); /* Bind our completer. */
#endif
#endif
  if (runtime.sim.output_cfg) {
 
    output_cfg (stdout);
#if !FAST_SIM
    exit (0);
  /* Read configuration file.  */
  }
  if (!runtime.sim.script_file_specified)
  print_config();
    read_script_file ("sim.cfg");
  sim_init ();
 
  signal(SIGINT, ctrl_c);
  /* Overide parameters with command line ones */
 
  if (runtime.simcmd.profile) config.sim.profile = 1;
  while(1) {
  if (runtime.simcmd.mprofile) config.sim.mprofile = 1;
    if (runtime.sim.iprompt) {
 
      if (config.debug.gdb_enabled)
  if (!runtime.sim.script_file_specified && config.sim.verbose)
        {
    fprintf (stderr, "WARNING: No config file read, assuming default configuration.\n");
          PRINTF ("(sim) ");
#else
          fflush(stdout);
  PRINTF ("\n\tNOTE: running fast sim with fixed configuration!\n\n");
          HandleServerSocket(true);  /* block & check_stdin = true */
#endif
        }
  if (runtime.sim.output_cfg) {
#ifdef HAVE_LIBREADLINE
    output_cfg (stdout);
      /* Must disable readline in new mode. It isn't compatible
    exit (0);
         with non blocking environments */
  }
wait_input:
  print_config();
      if(!config.debug.gdb_enabled)
  sim_init ();
        linestr = readline("(sim) ");
  signal(SIGINT, ctrl_c);
      else
 
        linestr = fgets(b2, sizeof b2, stdin);
  while(1) {
#else
    if (runtime.sim.iprompt) {
      if(!config.debug.gdb_enabled)
      if (config.debug.gdb_enabled)
        PRINTF ("(sim) ");
        {
wait_input:
          PRINTF ("(sim) ");
      linestr = fgets(b2, sizeof b2, stdin);
          fflush(stdout);
#endif
          HandleServerSocket(true);  /* block & check_stdin = true */
    } else
        }
      strcpy(linestr = b2, "run -1 hush");
#ifdef HAVE_LIBREADLINE
 
      /* Must disable readline in new mode. It isn't compatible
    if (!linestr) {
         with non blocking environments */
      usleep (1000);
wait_input:
      goto wait_input;
      if(!config.debug.gdb_enabled)
    }
        linestr = readline("(sim) ");
    linestr = stripwhite (linestr);
      else
 
        linestr = fgets(b2, sizeof b2, stdin);
#ifdef HAVE_LIBREADLINE
#else
    /* Readline only works in the old mode */
      if(!config.debug.gdb_enabled)
    if(!server_fd)
        PRINTF ("(sim) ");
      {
wait_input:
        if (strlen(linestr) == 0) {
      linestr = fgets(b2, sizeof b2, stdin);
          char *l = repeat_last_command ();
#endif
 
    } else
          if (l) {
      strcpy(linestr = b2, "run -1 hush");
      free (linestr);
 
      linestr = l;
    if (!linestr) {
          }
      usleep (1000);
        }
      goto wait_input;
 
    }
        if (*linestr) {
    linestr = stripwhite (linestr);
          add_history (linestr);
 
        }
#ifdef HAVE_LIBREADLINE
      }
    /* Readline only works in the old mode */
#endif /* HAVE_LIBREADLINE */
    if(!server_fd)
 
      {
    if (redirstr = strstr(linestr, ">")) {
        if (strlen(linestr) == 0) {
      *redirstr = '\0';
          char *l = repeat_last_command ();
      strtoken(&redirstr[1], item1, 1);
 
      runtime.sim.fout = fopen(item1, "w+");
          if (l) {
      if (!runtime.sim.fout) runtime.sim.fout = stdout;
      free (linestr);
    }
      linestr = l;
 
          }
    if (linestr[0] == '\n')
        }
      strcpy (linestr, &prev_str[0]);
 
    else
        if (*linestr) {
      strcpy (&prev_str[0], linestr);
          add_history (linestr);
 
        }
    strtoken(linestr, item1, 1);
      }
    if (strcmp(item1, "q") == 0) {  /* quit */
#endif /* HAVE_LIBREADLINE */
      PRINTF ("\n");
 
      sim_done ();
    if (redirstr = strstr(linestr, ">")) {
    } else
      *redirstr = '\0';
    if (strcmp(item1, "help") == 0) /* help */
      strtoken(&redirstr[1], item1, 1);
      help();
      runtime.sim.fout = fopen(item1, "w+");
    else
      if (!runtime.sim.fout) runtime.sim.fout = stdout;
    if (strcmp(item1, "t") == 0) {  /* trace */
    }
      runtime.sim.cont_run = 1;
 
    } else
    if (linestr[0] == '\n')
    if (strcmp(item1, "dm") == 0) { /* dump memory */
      strcpy (linestr, &prev_str[0]);
      char item2[20];
    else
      char item3[20];
      strcpy (&prev_str[0], linestr);
      static int from = 0, to = 0;
 
 
    strtoken(linestr, item1, 1);
      strtoken(linestr, item2, 2);
    if (strcmp(item1, "q") == 0) {  /* quit */
      strtoken(linestr, item3, 3);
      PRINTF ("\n");
 
      sim_done ();
      if (strlen(item2)) {
    } else
        if (item2[0] == '_')
    if (strcmp(item1, "help") == 0) /* help */
          from = eval_label(item2);
      help();
        else
    else
          from = strtoul(item2, NULL, 0);
    if (strcmp(item1, "t") == 0) {  /* trace */
        to = from + 0x40;
      runtime.sim.cont_run = 1;
      }
    } else
      if (strlen(item3))
    if (strcmp(item1, "dm") == 0) { /* dump memory */
        to = strtoul(item3, NULL, 0);
      char item2[20];
      dumpmemory(from, to, 0, 1);
      char item3[20];
            PRINTF("\n");
      static int from = 0, to = 0;
    } else
 
    if (strcmp(item1, "dv") == 0) {/* dump memory as verilog*/
      strtoken(linestr, item2, 2);
      char item2[20];
      strtoken(linestr, item3, 3);
      char item3[20];
 
      char item4[20];
      if (strlen(item2)) {
      static int from = 0, to = 0;
        if (item2[0] == '_')
 
          from = eval_label(item2);
      strtoken(linestr, item2, 2);
        else
      strtoken(linestr, item3, 3);
          from = strtoul(item2, NULL, 0);
      strtoken(linestr, item4, 4);
        to = from + 0x40;
 
      }
      if (strlen(item2)) {
      if (strlen(item3))
        if (item2[0] == '_')
        to = strtoul(item3, NULL, 0);
          from = eval_label(item2);
      dumpmemory(from, to, 0, 1);
        else
            PRINTF("\n");
          from = strtoul(item2, NULL, 0);
    } else
        to = from + 0x40;
    if (strcmp(item1, "dv") == 0) {/* dump memory as verilog*/
      }
      char item2[20];
      if (strlen(item3))
      char item3[20];
        to = strtoul(item3, NULL, 0);
      char item4[20];
      if (!strlen(item4))
      static int from = 0, to = 0;
        strcpy(item4, "or1k_mem");
 
      dumpverilog(item4, from, to);
      strtoken(linestr, item2, 2);
        PRINTF("\n");
      strtoken(linestr, item3, 3);
    } else
      strtoken(linestr, item4, 4);
    if (strcmp(item1, "dh") == 0) {/* dump memory as hex*/
 
      char item2[20];
      if (strlen(item2)) {
      char item3[20];
        if (item2[0] == '_')
      static int from = 0, to = 0;
          from = eval_label(item2);
 
        else
      strtoken(linestr, item2, 2);
          from = strtoul(item2, NULL, 0);
      strtoken(linestr, item3, 3);
        to = from + 0x40;
 
      }
      if (strlen(item2)) {
      if (strlen(item3))
        if (item2[0] == '_')
        to = strtoul(item3, NULL, 0);
          from = eval_label(item2);
      if (!strlen(item4))
        else
        strcpy(item4, "or1k_mem");
          from = strtoul(item2, NULL, 0);
      dumpverilog(item4, from, to);
        to = from + 0x40;
        PRINTF("\n");
      }
    } else
      if (strlen(item3))
    if (strcmp(item1, "dh") == 0) {/* dump memory as hex*/
        to = strtoul(item3, NULL, 0);
      char item2[20];
      dumphex(from, to);
      char item3[20];
        PRINTF("\n");
      static int from = 0, to = 0;
    } else
 
    if (strcmp(item1, "pm") == 0) { /* patch memory */
      strtoken(linestr, item2, 2);
      char item2[20];
      strtoken(linestr, item3, 3);
      char item3[20];
 
      static int addr = 0;
      if (strlen(item2)) {
      int breakpoint = 0;
        if (item2[0] == '_')
 
          from = eval_label(item2);
      strtoken(linestr, item2, 2);
        else
      strtoken(linestr, item3, 3);
          from = strtoul(item2, NULL, 0);
      if (strlen(item2))
        to = from + 0x40;
        if (item2[0] == '_')
      }
          addr = eval_label(item2);
      if (strlen(item3))
        else
        to = strtoul(item3, NULL, 0);
          addr = strtoul(item2, NULL, 0);
      dumphex(from, to);
      set_mem32(addr, strtoul(item3, NULL, 0), &breakpoint);
        PRINTF("\n");
    } else
    } else
    if (strcmp(item1, "pr") == 0) { /* patch regs */
    if (strcmp(item1, "pm") == 0) { /* patch memory */
      char item2[20];
      char item2[20];
      char item3[20];
      char item3[20];
 
      static int addr = 0;
      strtoken(linestr, item2, 2);
      int breakpoint = 0;
      strtoken(linestr, item3, 3);
 
      setsim_reg32(strtoul(item2, NULL,0), strtoul(item3, NULL, 0));
      strtoken(linestr, item2, 2);
    } else
      strtoken(linestr, item3, 3);
    if (strcmp(item1, "pc") == 0) { /* patch PC */
      if (strlen(item2))
      char item2[20];
        if (item2[0] == '_')
 
          addr = eval_label(item2);
      strtoken(linestr, item2, 2);
        else
      pc = strtoul(item2, NULL, 0);
          addr = strtoul(item2, NULL, 0);
    } else
      set_mem32(addr, strtoul(item3, NULL, 0), &breakpoint);
    if (strcmp(item1, "breaks") == 0) { /* print breakpoints */
    } else
        print_breakpoints();
    if (strcmp(item1, "cm") == 0) {     /* copy memory 2004-01-20 hpanther*/
    } else
          static int from=0, to=0, size=0;
    if (strcmp(item1, "break") == 0) {  /* set/clear breakpoint */
      int i;
      char item2[20];
      addr_from_linestr(linestr, 2, &from);
      char *p;
      addr_from_linestr(linestr, 3, &to);
      unsigned long addr;
      addr_from_linestr(linestr, 4, &size);
      strtoken(linestr, item2, 2);
          for(i=0; i<size; i+=4)
      addr = strtoul(item2, &p, 0);
            setsim_mem32(to+i, evalsim_mem32(from+i));
      if (*p) {
    } else
        struct label_entry *l = find_label (item2);
    if (strcmp(item1, "pr") == 0) { /* patch regs */
        if (l) {
      char item2[20];
          addr = l->addr;
      char item3[20];
        } else addr = 0xffffffff;
 
      }
      strtoken(linestr, item2, 2);
      if (addr != 0xffffffff) set_insnbrkpoint(addr);
      strtoken(linestr, item3, 3);
      else PRINTF ("'%s' is invalid address!\n");
      setsim_reg32(strtoul(item2, NULL,0), strtoul(item3, NULL, 0));
    } else
    } else
    if (strcmp(item1, "r") == 0) {  /* dump regs */
    if (strcmp(item1, "pc") == 0) { /* patch PC */
      dumpreg();
      char item2[20];
    } else
 
    if (strcmp(item1, "de") == 0) { /* reset simulator */
      strtoken(linestr, item2, 2);
      char item2[20];
      pc = strtoul(item2, NULL, 0);
      char item3[20];
    } else
      static int from = 0, to = 0;
    if (strcmp(item1, "breaks") == 0) { /* print breakpoints */
 
        print_breakpoints();
      strtoken(linestr, item2, 2);
    } else
      strtoken(linestr, item3, 3);
    if (strcmp(item1, "break") == 0) {  /* set/clear breakpoint */
 
      char item2[20];
      if (strlen(item2)) {
      char *p;
        if (item2[0] == '_')
      unsigned long addr;
          from = eval_label(item2);
      strtoken(linestr, item2, 2);
        else
      addr = strtoul(item2, &p, 0);
          from = strtoul(item2, NULL, 0);
      if (*p) {
        to = from + 0x40;
        struct label_entry *l = find_label (item2);
      }
        if (l) {
      if (strlen(item3))
          addr = l->addr;
        to = strtoul(item3, NULL, 0);
        } else addr = 0xffffffff;
      debugmem(from, to);
      }
      PRINTF("\n");
      if (addr != 0xffffffff) set_insnbrkpoint(addr);
    } else
      else PRINTF ("'%s' is invalid address!\n");
    if (strcmp(item1, "reset") == 0) {  /* reset simulator */
    } else
      sim_reset();
    if (strcmp(item1, "r") == 0) {  /* dump regs */
    } else
      dumpreg();
#if !FAST_SIM
    } else
    if (strcmp(item1, "debug") == 0) {  /* debug mode */
    if (strcmp(item1, "de") == 0) { /* reset simulator */
      config.sim.debug ^= 1;
      char item2[20];
    } else
      char item3[20];
#endif
      static int from = 0, to = 0;
    if (strcmp(item1, "hist") == 0) { /* dump history */
 
      int i;
      strtoken(linestr, item2, 2);
      for(i = HISTEXEC_LEN; i; i--)
      strtoken(linestr, item3, 3);
        dumpmemory(histexec[i - 1], histexec[i - 1] + 4, 1, 1);
 
      PRINTF("\n");
      if (strlen(item2)) {
    } else
        if (item2[0] == '_')
    if (strcmp(item1, "run") == 0) { /* run */
          from = eval_label(item2);
      char item2[20];
        else
      char item3[20];
          from = strtoul(item2, NULL, 0);
 
        to = from + 0x40;
      strtoken(linestr, item2, 2);
      }
      strtoken(linestr, item3, 3);
      if (strlen(item3))
      if (strcmp(item3, "hush") == 0)
        to = strtoul(item3, NULL, 0);
        hush = 1;
      debugmem(from, to);
      else
      PRINTF("\n");
        hush = 0;
    } else
      runtime.sim.cont_run = strtol(item2, NULL, 0);
    if (strcmp(item1, "reset") == 0) {  /* reset simulator */
    } else
      sim_reset();
    if(!strcmp(item1, "stall")) { /* Added by CZ 210801 */
    } else
      set_stall_state (1);
#if !FAST_SIM
      runtime.sim.iprompt = 0;
    if (strcmp(item1, "debug") == 0) {  /* debug mode */
      runtime.sim.cont_run = -1;
      config.sim.debug ^= 1;
      hush = 1;
    } else
    } else
#endif
    if (strcmp(item1, "stats") == 0) { /* stats */
    if (strcmp(item1, "hist") == 0) { /* dump history */
      char item2[20];
      int i;
      int i = 0;
      for(i = HISTEXEC_LEN; i; i--)
 
        dumpmemory(histexec[i - 1], histexec[i - 1] + 4, 1, 1);
      strtoken(linestr, item2, 2);
      PRINTF("\n");
      if (strcmp(item2, "clear") == 0) {
    } else
        initstats();
    if (strcmp(item1, "run") == 0) { /* run */
        PRINTF("Cleared.\n");
      char item2[20];
      } else {
      char item3[20];
        i = strtoul(item2, NULL, 0);
 
        printstats(i);
      strtoken(linestr, item2, 2);
      }
      strtoken(linestr, item3, 3);
    } else
      if (strcmp(item3, "hush") == 0)
    if (strcmp(item1, "info") == 0) /* configuration info */
        hush = 1;
      sim_info ();
      else
    else
        hush = 0;
#if !FAST_SIM
      runtime.sim.cont_run = strtol(item2, NULL, 0);
    if (strcmp (item1, "profiler") == 0) { /* run profiler utility */
    } else
      char *argv[10];
    if(!strcmp(item1, "stall")) { /* Added by CZ 210801 */
      int argc = tokenize_line (linestr, argv, 10);
      set_stall_state (1);
      main_profiler (argc, argv);
      runtime.sim.iprompt = 0;
    } else
      runtime.sim.cont_run = -1;
    if (strcmp (item1, "mprofiler") == 0) { /* run mprofiler utility */
      hush = 1;
      char *argv[10];
    } else
      int argc = tokenize_line (linestr, argv, 10);
    if (strcmp(item1, "stats") == 0) { /* stats */
      main_mprofiler (argc, argv);
      char item2[20];
    } else
      int i = 0;
    if (strcmp (item1, "cuc") == 0) { /* run Custom Unit Compiler */
 
      main_cuc (runtime.sim.filename);
      strtoken(linestr, item2, 2);
    } else
      if (strcmp(item2, "clear") == 0) {
    if (strcmp(item1, "set") == 0) { /* configuration info */
        initstats();
      char *s = linestr;
        PRINTF("Cleared.\n");
      int i;
      } else {
      extern section;
        i = strtoul(item2, NULL, 0);
      extern struct section sections[];
        printstats(i);
      while (*s != ' ' && *s) s++;
      }
      set_config_command (s);
    } else
    } else
    if (strcmp(item1, "info") == 0) /* configuration info */
#endif /* !FAST_SIM */
      sim_info ();
      PRINTF("%s: Unknown command.\n", linestr);
    else
 
#if !FAST_SIM
    { /* Needed by execution */
    if (strcmp (item1, "profiler") == 0) { /* run profiler utility */
      extern int do_stats;
      char *argv[10];
      do_stats = config.cpu.dependstats || config.cpu.superscalar || config.cpu.dependstats
      int argc = tokenize_line (linestr, argv, 10);
              || config.sim.history || config.sim.exe_log;
      main_profiler (argc, argv);
    }
    } else
 
    if (strcmp (item1, "mprofiler") == 0) { /* run mprofiler utility */
 
      char *argv[10];
 
      int argc = tokenize_line (linestr, argv, 10);
 
      main_mprofiler (argc, argv);
 
    } else
 
    if (strcmp (item1, "cuc") == 0) { /* run Custom Unit Compiler */
 
      main_cuc (runtime.sim.filename);
 
    } else
 
    if (strcmp(item1, "set") == 0) { /* configuration info */
 
      char *s = linestr;
 
      int i;
 
      extern section;
 
      extern struct section sections[];
 
      while (*s != ' ' && *s) s++;
 
      set_config_command (s);
 
    } else
 
#endif /* !FAST_SIM */
 
      PRINTF("%s: Unknown command.\n", linestr);
 
 
 
    { /* Needed by execution */
 
      extern int do_stats;
 
      do_stats = config.cpu.dependstats || config.cpu.superscalar || config.cpu.dependstats
 
              || config.sim.history || config.sim.exe_log;
 
    }
 
 
 
    /* MM: 'run -1' means endless execution.  */
 
    while(runtime.sim.cont_run) {
 
      IFF (config.debug.enabled) {
 
                  du_clock();   // reset watchpoints etc.
 
        if (runtime.cpu.stalled) {
 
          if(config.debug.gdb_enabled) {
 
            BlockJTAG();
 
            HandleServerSocket(false);
 
          } else {
 
            fprintf (stderr, "WARNING: CPU stalled and gdb connection not enabled.");
 
            runtime.sim.cont_run = 0;
 
          }
 
          continue;
 
        }
 
      }
 
 
    /* MM: 'run -1' means endless execution.  */
      /* Each cycle has counter of mem_cycles; this value is joined with cycles
    while(runtime.sim.cont_run) {
 
      IFF (config.debug.enabled) {
 
        if (runtime.cpu.stalled) {
 
          if(config.debug.gdb_enabled) {
 
            BlockJTAG();
 
            HandleServerSocket(false);
 
          } else {
 
            fprintf (stderr, "WARNING: CPU stalled and gdb connection not enabled.");
 
            runtime.sim.cont_run = 0;
 
          }
 
          continue;
 
        }
 
      }
 
 
 
      /* Each cycle has counter of mem_cycles; this value is joined with cycles
 
         at the end of the cycle; no sim originated memory accesses should be
         at the end of the cycle; no sim originated memory accesses should be
         performed inbetween. */
         performed inbetween. */
      runtime.sim.mem_cycles = 0;
      runtime.sim.mem_cycles = 0;
      if (!config.pm.enabled || !testsprbits(SPR_PMR, SPR_PMR_DME | SPR_PMR_SME)) {
      if (!config.pm.enabled || !testsprbits(SPR_PMR, SPR_PMR_DME | SPR_PMR_SME)) {
        if (runtime.sim.cont_run > 0) runtime.sim.cont_run--;
        if (runtime.sim.cont_run > 0) runtime.sim.cont_run--;
        pic_clock ();
        pic_clock ();
        if (cpu_clock ()) break;
        if (cpu_clock ()) break;
        if (config.dc.enabled) dc_clock();
        if (config.dc.enabled) dc_clock();
        if (config.ic.enabled) ic_clock();
        if (config.ic.enabled) ic_clock();
      }
      }
 
 
      if (config.dmas) dma_clock();
      if (config.dmas) dma_clock();
      if (config.ethernets) eth_clock();
      if (config.ethernets) eth_clock();
      if (config.ngpios) gpio_clock();
      if (config.ngpios) gpio_clock();
      if (config.vapi.enabled && runtime.vapi.enabled) vapi_check();
      if (config.vapi.enabled && runtime.vapi.enabled) vapi_check();
      if (config.debug.gdb_enabled) HandleServerSocket(false); /* block & check_stdin = false */
      if (config.debug.gdb_enabled) HandleServerSocket(false); /* block & check_stdin = false */
      IFF(config.debug.enabled)
      IFF(config.debug.enabled)
        if (testsprbits(SPR_DMR1, SPR_DMR1_ST)) set_stall_state (1);
        if (testsprbits(SPR_DMR1, SPR_DMR1_ST)) set_stall_state (1);
 
 
      runtime.sim.cycles += runtime.sim.mem_cycles;
      runtime.sim.cycles += runtime.sim.mem_cycles;
      if (runtime.sim.cycles >= SCHED_PEEK().time) do_scheduler ();
      if (runtime.sim.cycles >= SCHED_PEEK().time) do_scheduler ();
      if (!hush) dumpreg();
      if (!hush) dumpreg();
    }
    }
    hush = 0;
    hush = 0;
    fflush(stdout);
    fflush(stdout);
    runtime.sim.fout = stdout;
    runtime.sim.fout = stdout;
 
 
 
    if (!runtime.sim.iprompt)  /* non-interactive quit */
 
      sim_done();
 
 
 
#ifdef HAVE_LIBREADLINE
 
    if (linestr)
 
      free (linestr);
 
#endif
 
 
 
  }
 
  sim_done();
 
}
 
 
 
#ifdef HAVE_LIBREADLINE
 
char *command_generator ();
 
char **sim_completion ();
 
 
    if (!runtime.sim.iprompt)  /* non-interactive quit */
/* Tell the GNU readline library how to complete.  We want to try to complete
      sim_done();
 
 
 
#ifdef HAVE_LIBREADLINE
 
    if (linestr)
 
      free (linestr);
 
#endif
 
 
 
  }
 
  sim_done();
 
}
 
 
 
#ifdef HAVE_LIBREADLINE
 
char *command_generator ();
 
char **sim_completion ();
 
 
 
/* Tell the GNU readline library how to complete.  We want to try to complete
 
   on command names if this is the first word in the line, or on filenames
   on command names if this is the first word in the line, or on filenames
   if not. */
   if not. */
void initialize_readline ()
void initialize_readline ()
{
{
  /* Allow conditional parsing of the ~/.inputrc file. */
  /* Allow conditional parsing of the ~/.inputrc file. */
  rl_readline_name = "or1ksim";
  rl_readline_name = "or1ksim";
 
 
  /* Tell the completer that we want a crack first. */
  /* Tell the completer that we want a crack first. */
  rl_attempted_completion_function = (CPPFunction *)sim_completion;
  rl_attempted_completion_function = (CPPFunction *)sim_completion;
}
}
 
 
/* Attempt to complete on the contents of TEXT.  START and END bound the
/* Attempt to complete on the contents of TEXT.  START and END bound the
   region of rl_line_buffer that contains the word to complete.  TEXT is
   region of rl_line_buffer that contains the word to complete.  TEXT is
   the word to complete.  We can use the entire contents of rl_line_buffer
   the word to complete.  We can use the entire contents of rl_line_buffer
   in case we want to do some simple parsing.  Return the array of matches,
   in case we want to do some simple parsing.  Return the array of matches,
   or NULL if there aren't any. */
   or NULL if there aren't any. */
char **
char **
sim_completion (text, start, end)
sim_completion (text, start, end)
     char *text;
     char *text;
     int start, end;
     int start, end;
{
{
  char **matches;
  char **matches;
 
 
  matches = (char **)NULL;
  matches = (char **)NULL;
 
 
  /* If this word is at the start of the line, then it is a command
  /* If this word is at the start of the line, then it is a command
     to complete.  Otherwise it is the name of a file in the current
     to complete.  Otherwise it is the name of a file in the current
     directory. */
     directory. */
  if (start == 0)
  if (start == 0)
    matches = completion_matches (text, command_generator);
    matches = completion_matches (text, command_generator);
 
 
  return (matches);
  return (matches);
}
}
 
 
/* Generator function for command completion.  STATE lets us know whether
/* Generator function for command completion.  STATE lets us know whether
   to start from scratch; without any state (i.e. STATE == 0), then we
   to start from scratch; without any state (i.e. STATE == 0), then we
   start at the top of the list. */
   start at the top of the list. */
char *
char *
command_generator (text, state)
command_generator (text, state)
     char *text;
     char *text;
     int state;
     int state;
{
{
  static int list_index, len;
  static int list_index, len;
  char *name;
  char *name;
 
 
  /* If this is a new word to complete, initialize now.  This includes
  /* If this is a new word to complete, initialize now.  This includes
     saving the length of TEXT for efficiency, and initializing the index
     saving the length of TEXT for efficiency, and initializing the index
     variable to 0. */
 
  if (!state)
 
    {
 
      list_index = 0;
 
      len = strlen (text);
 
    }
 
 
 
  /* Return the next name which partially matches from the command list. */
 
  while (name = sim_commands[list_index])
 
    {
 
      list_index++;
 
 
 
      if (strncmp (name, text, len) == 0)
 
        return (dupstr(name));
 
    }
 
 
 
  /* If no names matched, then return NULL. */
 
  return ((char *)NULL);
 
}
 
 
 
/* Repeats the last command.  */
 
char *
 
repeat_last_command ()
 
{
 
  int offset = where_history ();
 
  HIST_ENTRY *hist;
 
 
 
  if (hist = history_get (offset))
 
    return dupstr (hist->line);
 
  return 0;
 
}
 
 
 
#endif
 
 
 
extern char *disassembled;
 
void debugmem( unsigned long from, unsigned long to )
 
{
 
  int i;
 
  PRINTF("starting to dump mem...\n");
 
  for(i=from; i<to; ) {
 
    struct label_entry *entry;
 
    unsigned int _insn;
 
    PRINTF("i=%x :: ", i);
 
 
 
    if (verify_memoryarea(i) && (entry = get_label(i)))
 
      PRINTF("label: %s |", entry->name);
 
 
 
    iqueue[0].insn = _insn = evalsim_mem32(i);
 
    iqueue[0].insn_index = insn_decode(_insn);
 
    disassemble_insn (_insn);
 
    PRINTF("%08x %s\n", _insn, disassembled);
 
    i += insn_len( iqueue[0].insn_index );
 
  }
 
}
 
 
 
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     variable to 0. */
 
  if (!state)
 
    {
 
      list_index = 0;
 
      len = strlen (text);
 
    }
 
 
 
  /* Return the next name which partially matches from the command list. */
 
  while (name = sim_commands[list_index])
 
    {
 
      list_index++;
 
 
 
      if (strncmp (name, text, len) == 0)
 
        return (dupstr(name));
 
    }
 
 
 
  /* If no names matched, then return NULL. */
 
  return ((char *)NULL);
 
}
 
 
 
/* Repeats the last command.  */
 
char *
 
repeat_last_command ()
 
{
 
  int offset = where_history ();
 
  HIST_ENTRY *hist;
 
 
 
  if (hist = history_get (offset))
 
    return dupstr (hist->line);
 
  return 0;
 
}
 
 
 
#endif
 
 
 
extern char *disassembled;
 
void debugmem( unsigned long from, unsigned long to )
 
{
 
  int i;
 
  PRINTF("starting to dump mem...\n");
 
  for(i=from; i<to; ) {
 
    struct label_entry *entry;
 
    unsigned int _insn;
 
    PRINTF("i=%x :: ", i);
 
 
 
    if (verify_memoryarea(i) && (entry = get_label(i)))
 
      PRINTF("label: %s |", entry->name);
 
 
 
    iqueue[0].insn = _insn = evalsim_mem32(i);
 
    iqueue[0].insn_index = insn_decode(_insn);
 
    disassemble_insn (_insn);
 
    PRINTF("%08x %s\n", _insn, disassembled);
 
    i += insn_len( iqueue[0].insn_index );
 
  }
 
}
 
 
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