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/* bind.c -- key binding and startup file support for the readline library. */
/* bind.c -- key binding and startup file support for the readline library. */
 
 
/* Copyright (C) 1987-2005 Free Software Foundation, Inc.
/* Copyright (C) 1987-2005 Free Software Foundation, Inc.
 
 
   This file is part of the GNU Readline Library, a library for
   This file is part of the GNU Readline Library, a library for
   reading lines of text with interactive input and history editing.
   reading lines of text with interactive input and history editing.
 
 
   The GNU Readline Library is free software; you can redistribute it
   The GNU Readline Library is free software; you can redistribute it
   and/or modify it under the terms of the GNU General Public License
   and/or modify it under the terms of the GNU General Public License
   as published by the Free Software Foundation; either version 2, or
   as published by the Free Software Foundation; either version 2, or
   (at your option) any later version.
   (at your option) any later version.
 
 
   The GNU Readline Library is distributed in the hope that it will be
   The GNU Readline Library is distributed in the hope that it will be
   useful, but WITHOUT ANY WARRANTY; without even the implied warranty
   useful, but WITHOUT ANY WARRANTY; without even the implied warranty
   of MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE.  See the
   of MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE.  See the
   GNU General Public License for more details.
   GNU General Public License for more details.
 
 
   The GNU General Public License is often shipped with GNU software, and
   The GNU General Public License is often shipped with GNU software, and
   is generally kept in a file called COPYING or LICENSE.  If you do not
   is generally kept in a file called COPYING or LICENSE.  If you do not
   have a copy of the license, write to the Free Software Foundation,
   have a copy of the license, write to the Free Software Foundation,
   59 Temple Place, Suite 330, Boston, MA 02111 USA. */
   59 Temple Place, Suite 330, Boston, MA 02111 USA. */
 
 
#define READLINE_LIBRARY
#define READLINE_LIBRARY
 
 
#if defined (__TANDEM)
#if defined (__TANDEM)
#  include <floss.h>
#  include <floss.h>
#endif
#endif
 
 
#if defined (HAVE_CONFIG_H)
#if defined (HAVE_CONFIG_H)
#  include <config.h>
#  include <config.h>
#endif
#endif
 
 
#include <stdio.h>
#include <stdio.h>
#include <sys/types.h>
#include <sys/types.h>
#include <fcntl.h>
#include <fcntl.h>
#if defined (HAVE_SYS_FILE_H)
#if defined (HAVE_SYS_FILE_H)
#  include <sys/file.h>
#  include <sys/file.h>
#endif /* HAVE_SYS_FILE_H */
#endif /* HAVE_SYS_FILE_H */
 
 
#if defined (HAVE_UNISTD_H)
#if defined (HAVE_UNISTD_H)
#  include <unistd.h>
#  include <unistd.h>
#endif /* HAVE_UNISTD_H */
#endif /* HAVE_UNISTD_H */
 
 
#if defined (HAVE_STDLIB_H)
#if defined (HAVE_STDLIB_H)
#  include <stdlib.h>
#  include <stdlib.h>
#else
#else
#  include "ansi_stdlib.h"
#  include "ansi_stdlib.h"
#endif /* HAVE_STDLIB_H */
#endif /* HAVE_STDLIB_H */
 
 
#include <errno.h>
#include <errno.h>
 
 
#if !defined (errno)
#if !defined (errno)
extern int errno;
extern int errno;
#endif /* !errno */
#endif /* !errno */
 
 
#include "posixstat.h"
#include "posixstat.h"
 
 
/* System-specific feature definitions and include files. */
/* System-specific feature definitions and include files. */
#include "rldefs.h"
#include "rldefs.h"
 
 
/* Some standard library routines. */
/* Some standard library routines. */
#include "readline.h"
#include "readline.h"
#include "history.h"
#include "history.h"
 
 
#include "rlprivate.h"
#include "rlprivate.h"
#include "rlshell.h"
#include "rlshell.h"
#include "xmalloc.h"
#include "xmalloc.h"
 
 
#if !defined (strchr) && !defined (__STDC__)
#if !defined (strchr) && !defined (__STDC__)
extern char *strchr (), *strrchr ();
extern char *strchr (), *strrchr ();
#endif /* !strchr && !__STDC__ */
#endif /* !strchr && !__STDC__ */
 
 
/* Variables exported by this file. */
/* Variables exported by this file. */
Keymap rl_binding_keymap;
Keymap rl_binding_keymap;
 
 
static char *_rl_read_file PARAMS((char *, size_t *));
static char *_rl_read_file PARAMS((char *, size_t *));
static void _rl_init_file_error PARAMS((const char *));
static void _rl_init_file_error PARAMS((const char *));
static int _rl_read_init_file PARAMS((const char *, int));
static int _rl_read_init_file PARAMS((const char *, int));
static int glean_key_from_name PARAMS((char *));
static int glean_key_from_name PARAMS((char *));
static int find_boolean_var PARAMS((const char *));
static int find_boolean_var PARAMS((const char *));
 
 
static char *_rl_get_string_variable_value PARAMS((const char *));
static char *_rl_get_string_variable_value PARAMS((const char *));
static int substring_member_of_array PARAMS((char *, const char **));
static int substring_member_of_array PARAMS((char *, const char **));
 
 
static int currently_reading_init_file;
static int currently_reading_init_file;
 
 
/* used only in this file */
/* used only in this file */
static int _rl_prefer_visible_bell = 1;
static int _rl_prefer_visible_bell = 1;
 
 
/* **************************************************************** */
/* **************************************************************** */
/*                                                                  */
/*                                                                  */
/*                      Binding keys                                */
/*                      Binding keys                                */
/*                                                                  */
/*                                                                  */
/* **************************************************************** */
/* **************************************************************** */
 
 
/* rl_add_defun (char *name, rl_command_func_t *function, int key)
/* rl_add_defun (char *name, rl_command_func_t *function, int key)
   Add NAME to the list of named functions.  Make FUNCTION be the function
   Add NAME to the list of named functions.  Make FUNCTION be the function
   that gets called.  If KEY is not -1, then bind it. */
   that gets called.  If KEY is not -1, then bind it. */
int
int
rl_add_defun (name, function, key)
rl_add_defun (name, function, key)
     const char *name;
     const char *name;
     rl_command_func_t *function;
     rl_command_func_t *function;
     int key;
     int key;
{
{
  if (key != -1)
  if (key != -1)
    rl_bind_key (key, function);
    rl_bind_key (key, function);
  rl_add_funmap_entry (name, function);
  rl_add_funmap_entry (name, function);
  return 0;
  return 0;
}
}
 
 
/* Bind KEY to FUNCTION.  Returns non-zero if KEY is out of range. */
/* Bind KEY to FUNCTION.  Returns non-zero if KEY is out of range. */
int
int
rl_bind_key (key, function)
rl_bind_key (key, function)
     int key;
     int key;
     rl_command_func_t *function;
     rl_command_func_t *function;
{
{
  if (key < 0)
  if (key < 0)
    return (key);
    return (key);
 
 
  if (META_CHAR (key) && _rl_convert_meta_chars_to_ascii)
  if (META_CHAR (key) && _rl_convert_meta_chars_to_ascii)
    {
    {
      if (_rl_keymap[ESC].type == ISKMAP)
      if (_rl_keymap[ESC].type == ISKMAP)
        {
        {
          Keymap escmap;
          Keymap escmap;
 
 
          escmap = FUNCTION_TO_KEYMAP (_rl_keymap, ESC);
          escmap = FUNCTION_TO_KEYMAP (_rl_keymap, ESC);
          key = UNMETA (key);
          key = UNMETA (key);
          escmap[key].type = ISFUNC;
          escmap[key].type = ISFUNC;
          escmap[key].function = function;
          escmap[key].function = function;
          return (0);
          return (0);
        }
        }
      return (key);
      return (key);
    }
    }
 
 
  _rl_keymap[key].type = ISFUNC;
  _rl_keymap[key].type = ISFUNC;
  _rl_keymap[key].function = function;
  _rl_keymap[key].function = function;
  rl_binding_keymap = _rl_keymap;
  rl_binding_keymap = _rl_keymap;
  return (0);
  return (0);
}
}
 
 
/* Bind KEY to FUNCTION in MAP.  Returns non-zero in case of invalid
/* Bind KEY to FUNCTION in MAP.  Returns non-zero in case of invalid
   KEY. */
   KEY. */
int
int
rl_bind_key_in_map (key, function, map)
rl_bind_key_in_map (key, function, map)
     int key;
     int key;
     rl_command_func_t *function;
     rl_command_func_t *function;
     Keymap map;
     Keymap map;
{
{
  int result;
  int result;
  Keymap oldmap;
  Keymap oldmap;
 
 
  oldmap = _rl_keymap;
  oldmap = _rl_keymap;
  _rl_keymap = map;
  _rl_keymap = map;
  result = rl_bind_key (key, function);
  result = rl_bind_key (key, function);
  _rl_keymap = oldmap;
  _rl_keymap = oldmap;
  return (result);
  return (result);
}
}
 
 
/* Bind key sequence KEYSEQ to DEFAULT_FUNC if KEYSEQ is unbound.  Right
/* Bind key sequence KEYSEQ to DEFAULT_FUNC if KEYSEQ is unbound.  Right
   now, this is always used to attempt to bind the arrow keys, hence the
   now, this is always used to attempt to bind the arrow keys, hence the
   check for rl_vi_movement_mode. */
   check for rl_vi_movement_mode. */
int
int
rl_bind_key_if_unbound_in_map (key, default_func, kmap)
rl_bind_key_if_unbound_in_map (key, default_func, kmap)
     int key;
     int key;
     rl_command_func_t *default_func;
     rl_command_func_t *default_func;
     Keymap kmap;
     Keymap kmap;
{
{
  char keyseq[2];
  char keyseq[2];
 
 
  keyseq[0] = (unsigned char)key;
  keyseq[0] = (unsigned char)key;
  keyseq[1] = '\0';
  keyseq[1] = '\0';
  return (rl_bind_keyseq_if_unbound_in_map (keyseq, default_func, kmap));
  return (rl_bind_keyseq_if_unbound_in_map (keyseq, default_func, kmap));
}
}
 
 
int
int
rl_bind_key_if_unbound (key, default_func)
rl_bind_key_if_unbound (key, default_func)
     int key;
     int key;
     rl_command_func_t *default_func;
     rl_command_func_t *default_func;
{
{
  char keyseq[2];
  char keyseq[2];
 
 
  keyseq[0] = (unsigned char)key;
  keyseq[0] = (unsigned char)key;
  keyseq[1] = '\0';
  keyseq[1] = '\0';
  return (rl_bind_keyseq_if_unbound_in_map (keyseq, default_func, _rl_keymap));
  return (rl_bind_keyseq_if_unbound_in_map (keyseq, default_func, _rl_keymap));
}
}
 
 
/* Make KEY do nothing in the currently selected keymap.
/* Make KEY do nothing in the currently selected keymap.
   Returns non-zero in case of error. */
   Returns non-zero in case of error. */
int
int
rl_unbind_key (key)
rl_unbind_key (key)
     int key;
     int key;
{
{
  return (rl_bind_key (key, (rl_command_func_t *)NULL));
  return (rl_bind_key (key, (rl_command_func_t *)NULL));
}
}
 
 
/* Make KEY do nothing in MAP.
/* Make KEY do nothing in MAP.
   Returns non-zero in case of error. */
   Returns non-zero in case of error. */
int
int
rl_unbind_key_in_map (key, map)
rl_unbind_key_in_map (key, map)
     int key;
     int key;
     Keymap map;
     Keymap map;
{
{
  return (rl_bind_key_in_map (key, (rl_command_func_t *)NULL, map));
  return (rl_bind_key_in_map (key, (rl_command_func_t *)NULL, map));
}
}
 
 
/* Unbind all keys bound to FUNCTION in MAP. */
/* Unbind all keys bound to FUNCTION in MAP. */
int
int
rl_unbind_function_in_map (func, map)
rl_unbind_function_in_map (func, map)
     rl_command_func_t *func;
     rl_command_func_t *func;
     Keymap map;
     Keymap map;
{
{
  register int i, rval;
  register int i, rval;
 
 
  for (i = rval = 0; i < KEYMAP_SIZE; i++)
  for (i = rval = 0; i < KEYMAP_SIZE; i++)
    {
    {
      if (map[i].type == ISFUNC && map[i].function == func)
      if (map[i].type == ISFUNC && map[i].function == func)
        {
        {
          map[i].function = (rl_command_func_t *)NULL;
          map[i].function = (rl_command_func_t *)NULL;
          rval = 1;
          rval = 1;
        }
        }
    }
    }
  return rval;
  return rval;
}
}
 
 
int
int
rl_unbind_command_in_map (command, map)
rl_unbind_command_in_map (command, map)
     const char *command;
     const char *command;
     Keymap map;
     Keymap map;
{
{
  rl_command_func_t *func;
  rl_command_func_t *func;
 
 
  func = rl_named_function (command);
  func = rl_named_function (command);
  if (func == 0)
  if (func == 0)
    return 0;
    return 0;
  return (rl_unbind_function_in_map (func, map));
  return (rl_unbind_function_in_map (func, map));
}
}
 
 
/* Bind the key sequence represented by the string KEYSEQ to
/* Bind the key sequence represented by the string KEYSEQ to
   FUNCTION, starting in the current keymap.  This makes new
   FUNCTION, starting in the current keymap.  This makes new
   keymaps as necessary. */
   keymaps as necessary. */
int
int
rl_bind_keyseq (keyseq, function)
rl_bind_keyseq (keyseq, function)
     const char *keyseq;
     const char *keyseq;
     rl_command_func_t *function;
     rl_command_func_t *function;
{
{
  return (rl_generic_bind (ISFUNC, keyseq, (char *)function, _rl_keymap));
  return (rl_generic_bind (ISFUNC, keyseq, (char *)function, _rl_keymap));
}
}
 
 
/* Bind the key sequence represented by the string KEYSEQ to
/* Bind the key sequence represented by the string KEYSEQ to
   FUNCTION.  This makes new keymaps as necessary.  The initial
   FUNCTION.  This makes new keymaps as necessary.  The initial
   place to do bindings is in MAP. */
   place to do bindings is in MAP. */
int
int
rl_bind_keyseq_in_map (keyseq, function, map)
rl_bind_keyseq_in_map (keyseq, function, map)
     const char *keyseq;
     const char *keyseq;
     rl_command_func_t *function;
     rl_command_func_t *function;
     Keymap map;
     Keymap map;
{
{
  return (rl_generic_bind (ISFUNC, keyseq, (char *)function, map));
  return (rl_generic_bind (ISFUNC, keyseq, (char *)function, map));
}
}
 
 
/* Backwards compatibility; equivalent to rl_bind_keyseq_in_map() */
/* Backwards compatibility; equivalent to rl_bind_keyseq_in_map() */
int
int
rl_set_key (keyseq, function, map)
rl_set_key (keyseq, function, map)
     const char *keyseq;
     const char *keyseq;
     rl_command_func_t *function;
     rl_command_func_t *function;
     Keymap map;
     Keymap map;
{
{
  return (rl_generic_bind (ISFUNC, keyseq, (char *)function, map));
  return (rl_generic_bind (ISFUNC, keyseq, (char *)function, map));
}
}
 
 
/* Bind key sequence KEYSEQ to DEFAULT_FUNC if KEYSEQ is unbound.  Right
/* Bind key sequence KEYSEQ to DEFAULT_FUNC if KEYSEQ is unbound.  Right
   now, this is always used to attempt to bind the arrow keys, hence the
   now, this is always used to attempt to bind the arrow keys, hence the
   check for rl_vi_movement_mode. */
   check for rl_vi_movement_mode. */
int
int
rl_bind_keyseq_if_unbound_in_map (keyseq, default_func, kmap)
rl_bind_keyseq_if_unbound_in_map (keyseq, default_func, kmap)
     const char *keyseq;
     const char *keyseq;
     rl_command_func_t *default_func;
     rl_command_func_t *default_func;
     Keymap kmap;
     Keymap kmap;
{
{
  rl_command_func_t *func;
  rl_command_func_t *func;
 
 
  if (keyseq)
  if (keyseq)
    {
    {
      func = rl_function_of_keyseq (keyseq, kmap, (int *)NULL);
      func = rl_function_of_keyseq (keyseq, kmap, (int *)NULL);
#if defined (VI_MODE)
#if defined (VI_MODE)
      if (!func || func == rl_do_lowercase_version || func == rl_vi_movement_mode)
      if (!func || func == rl_do_lowercase_version || func == rl_vi_movement_mode)
#else
#else
      if (!func || func == rl_do_lowercase_version)
      if (!func || func == rl_do_lowercase_version)
#endif
#endif
        return (rl_bind_keyseq_in_map (keyseq, default_func, kmap));
        return (rl_bind_keyseq_in_map (keyseq, default_func, kmap));
      else
      else
        return 1;
        return 1;
    }
    }
  return 0;
  return 0;
}
}
 
 
int
int
rl_bind_keyseq_if_unbound (keyseq, default_func)
rl_bind_keyseq_if_unbound (keyseq, default_func)
     const char *keyseq;
     const char *keyseq;
     rl_command_func_t *default_func;
     rl_command_func_t *default_func;
{
{
  return (rl_bind_keyseq_if_unbound_in_map (keyseq, default_func, _rl_keymap));
  return (rl_bind_keyseq_if_unbound_in_map (keyseq, default_func, _rl_keymap));
}
}
 
 
/* Bind the key sequence represented by the string KEYSEQ to
/* Bind the key sequence represented by the string KEYSEQ to
   the string of characters MACRO.  This makes new keymaps as
   the string of characters MACRO.  This makes new keymaps as
   necessary.  The initial place to do bindings is in MAP. */
   necessary.  The initial place to do bindings is in MAP. */
int
int
rl_macro_bind (keyseq, macro, map)
rl_macro_bind (keyseq, macro, map)
     const char *keyseq, *macro;
     const char *keyseq, *macro;
     Keymap map;
     Keymap map;
{
{
  char *macro_keys;
  char *macro_keys;
  int macro_keys_len;
  int macro_keys_len;
 
 
  macro_keys = (char *)xmalloc ((2 * strlen (macro)) + 1);
  macro_keys = (char *)xmalloc ((2 * strlen (macro)) + 1);
 
 
  if (rl_translate_keyseq (macro, macro_keys, &macro_keys_len))
  if (rl_translate_keyseq (macro, macro_keys, &macro_keys_len))
    {
    {
      free (macro_keys);
      free (macro_keys);
      return -1;
      return -1;
    }
    }
  rl_generic_bind (ISMACR, keyseq, macro_keys, map);
  rl_generic_bind (ISMACR, keyseq, macro_keys, map);
  return 0;
  return 0;
}
}
 
 
/* Bind the key sequence represented by the string KEYSEQ to
/* Bind the key sequence represented by the string KEYSEQ to
   the arbitrary pointer DATA.  TYPE says what kind of data is
   the arbitrary pointer DATA.  TYPE says what kind of data is
   pointed to by DATA, right now this can be a function (ISFUNC),
   pointed to by DATA, right now this can be a function (ISFUNC),
   a macro (ISMACR), or a keymap (ISKMAP).  This makes new keymaps
   a macro (ISMACR), or a keymap (ISKMAP).  This makes new keymaps
   as necessary.  The initial place to do bindings is in MAP. */
   as necessary.  The initial place to do bindings is in MAP. */
int
int
rl_generic_bind (type, keyseq, data, map)
rl_generic_bind (type, keyseq, data, map)
     int type;
     int type;
     const char *keyseq;
     const char *keyseq;
     char *data;
     char *data;
     Keymap map;
     Keymap map;
{
{
  char *keys;
  char *keys;
  int keys_len;
  int keys_len;
  register int i;
  register int i;
  KEYMAP_ENTRY k;
  KEYMAP_ENTRY k;
 
 
  k.function = 0;
  k.function = 0;
 
 
  /* If no keys to bind to, exit right away. */
  /* If no keys to bind to, exit right away. */
  if (keyseq == 0 || *keyseq == 0)
  if (keyseq == 0 || *keyseq == 0)
    {
    {
      if (type == ISMACR)
      if (type == ISMACR)
        free (data);
        free (data);
      return -1;
      return -1;
    }
    }
 
 
  keys = (char *)xmalloc (1 + (2 * strlen (keyseq)));
  keys = (char *)xmalloc (1 + (2 * strlen (keyseq)));
 
 
  /* Translate the ASCII representation of KEYSEQ into an array of
  /* Translate the ASCII representation of KEYSEQ into an array of
     characters.  Stuff the characters into KEYS, and the length of
     characters.  Stuff the characters into KEYS, and the length of
     KEYS into KEYS_LEN. */
     KEYS into KEYS_LEN. */
  if (rl_translate_keyseq (keyseq, keys, &keys_len))
  if (rl_translate_keyseq (keyseq, keys, &keys_len))
    {
    {
      free (keys);
      free (keys);
      return -1;
      return -1;
    }
    }
 
 
  /* Bind keys, making new keymaps as necessary. */
  /* Bind keys, making new keymaps as necessary. */
  for (i = 0; i < keys_len; i++)
  for (i = 0; i < keys_len; i++)
    {
    {
      unsigned char uc = keys[i];
      unsigned char uc = keys[i];
      int ic;
      int ic;
 
 
      ic = uc;
      ic = uc;
      if (ic < 0 || ic >= KEYMAP_SIZE)
      if (ic < 0 || ic >= KEYMAP_SIZE)
        return -1;
        return -1;
 
 
      if (META_CHAR (ic) && _rl_convert_meta_chars_to_ascii)
      if (META_CHAR (ic) && _rl_convert_meta_chars_to_ascii)
        {
        {
          ic = UNMETA (ic);
          ic = UNMETA (ic);
          if (map[ESC].type == ISKMAP)
          if (map[ESC].type == ISKMAP)
            map = FUNCTION_TO_KEYMAP (map, ESC);
            map = FUNCTION_TO_KEYMAP (map, ESC);
        }
        }
 
 
      if ((i + 1) < keys_len)
      if ((i + 1) < keys_len)
        {
        {
          if (map[ic].type != ISKMAP)
          if (map[ic].type != ISKMAP)
            {
            {
              /* We allow subsequences of keys.  If a keymap is being
              /* We allow subsequences of keys.  If a keymap is being
                 created that will `shadow' an existing function or macro
                 created that will `shadow' an existing function or macro
                 key binding, we save that keybinding into the ANYOTHERKEY
                 key binding, we save that keybinding into the ANYOTHERKEY
                 index in the new map.  The dispatch code will look there
                 index in the new map.  The dispatch code will look there
                 to find the function to execute if the subsequence is not
                 to find the function to execute if the subsequence is not
                 matched.  ANYOTHERKEY was chosen to be greater than
                 matched.  ANYOTHERKEY was chosen to be greater than
                 UCHAR_MAX. */
                 UCHAR_MAX. */
              k = map[ic];
              k = map[ic];
 
 
              map[ic].type = ISKMAP;
              map[ic].type = ISKMAP;
              map[ic].function = KEYMAP_TO_FUNCTION (rl_make_bare_keymap());
              map[ic].function = KEYMAP_TO_FUNCTION (rl_make_bare_keymap());
            }
            }
          map = FUNCTION_TO_KEYMAP (map, ic);
          map = FUNCTION_TO_KEYMAP (map, ic);
          /* The dispatch code will return this function if no matching
          /* The dispatch code will return this function if no matching
             key sequence is found in the keymap.  This (with a little
             key sequence is found in the keymap.  This (with a little
             help from the dispatch code in readline.c) allows `a' to be
             help from the dispatch code in readline.c) allows `a' to be
             mapped to something, `abc' to be mapped to something else,
             mapped to something, `abc' to be mapped to something else,
             and the function bound  to `a' to be executed when the user
             and the function bound  to `a' to be executed when the user
             types `abx', leaving `bx' in the input queue. */
             types `abx', leaving `bx' in the input queue. */
          if (k.function && ((k.type == ISFUNC && k.function != rl_do_lowercase_version) || k.type == ISMACR))
          if (k.function && ((k.type == ISFUNC && k.function != rl_do_lowercase_version) || k.type == ISMACR))
            {
            {
              map[ANYOTHERKEY] = k;
              map[ANYOTHERKEY] = k;
              k.function = 0;
              k.function = 0;
            }
            }
        }
        }
      else
      else
        {
        {
          if (map[ic].type == ISMACR)
          if (map[ic].type == ISMACR)
            free ((char *)map[ic].function);
            free ((char *)map[ic].function);
          else if (map[ic].type == ISKMAP)
          else if (map[ic].type == ISKMAP)
            {
            {
              map = FUNCTION_TO_KEYMAP (map, ic);
              map = FUNCTION_TO_KEYMAP (map, ic);
              ic = ANYOTHERKEY;
              ic = ANYOTHERKEY;
            }
            }
 
 
          map[ic].function = KEYMAP_TO_FUNCTION (data);
          map[ic].function = KEYMAP_TO_FUNCTION (data);
          map[ic].type = type;
          map[ic].type = type;
        }
        }
 
 
      rl_binding_keymap = map;
      rl_binding_keymap = map;
    }
    }
  free (keys);
  free (keys);
  return 0;
  return 0;
}
}
 
 
/* Translate the ASCII representation of SEQ, stuffing the values into ARRAY,
/* Translate the ASCII representation of SEQ, stuffing the values into ARRAY,
   an array of characters.  LEN gets the final length of ARRAY.  Return
   an array of characters.  LEN gets the final length of ARRAY.  Return
   non-zero if there was an error parsing SEQ. */
   non-zero if there was an error parsing SEQ. */
int
int
rl_translate_keyseq (seq, array, len)
rl_translate_keyseq (seq, array, len)
     const char *seq;
     const char *seq;
     char *array;
     char *array;
     int *len;
     int *len;
{
{
  register int i, c, l, temp;
  register int i, c, l, temp;
 
 
  for (i = l = 0; c = seq[i]; i++)
  for (i = l = 0; c = seq[i]; i++)
    {
    {
      if (c == '\\')
      if (c == '\\')
        {
        {
          c = seq[++i];
          c = seq[++i];
 
 
          if (c == 0)
          if (c == 0)
            break;
            break;
 
 
          /* Handle \C- and \M- prefixes. */
          /* Handle \C- and \M- prefixes. */
          if ((c == 'C' || c == 'M') && seq[i + 1] == '-')
          if ((c == 'C' || c == 'M') && seq[i + 1] == '-')
            {
            {
              /* Handle special case of backwards define. */
              /* Handle special case of backwards define. */
              if (strncmp (&seq[i], "C-\\M-", 5) == 0)
              if (strncmp (&seq[i], "C-\\M-", 5) == 0)
                {
                {
                  array[l++] = ESC;     /* ESC is meta-prefix */
                  array[l++] = ESC;     /* ESC is meta-prefix */
                  i += 5;
                  i += 5;
                  array[l++] = CTRL (_rl_to_upper (seq[i]));
                  array[l++] = CTRL (_rl_to_upper (seq[i]));
                  if (seq[i] == '\0')
                  if (seq[i] == '\0')
                    i--;
                    i--;
                }
                }
              else if (c == 'M')
              else if (c == 'M')
                {
                {
                  i++;
                  i++;
                  /* XXX - should obey convert-meta setting? */
                  /* XXX - should obey convert-meta setting? */
                  if (_rl_convert_meta_chars_to_ascii && _rl_keymap[ESC].type == ISKMAP)
                  if (_rl_convert_meta_chars_to_ascii && _rl_keymap[ESC].type == ISKMAP)
                    array[l++] = ESC;   /* ESC is meta-prefix */
                    array[l++] = ESC;   /* ESC is meta-prefix */
                  else
                  else
                    {
                    {
                      i++;
                      i++;
                      array[l++] = META (seq[i]);
                      array[l++] = META (seq[i]);
                    }
                    }
                }
                }
              else if (c == 'C')
              else if (c == 'C')
                {
                {
                  i += 2;
                  i += 2;
                  /* Special hack for C-?... */
                  /* Special hack for C-?... */
                  array[l++] = (seq[i] == '?') ? RUBOUT : CTRL (_rl_to_upper (seq[i]));
                  array[l++] = (seq[i] == '?') ? RUBOUT : CTRL (_rl_to_upper (seq[i]));
                }
                }
              continue;
              continue;
            }
            }
 
 
          /* Translate other backslash-escaped characters.  These are the
          /* Translate other backslash-escaped characters.  These are the
             same escape sequences that bash's `echo' and `printf' builtins
             same escape sequences that bash's `echo' and `printf' builtins
             handle, with the addition of \d -> RUBOUT.  A backslash
             handle, with the addition of \d -> RUBOUT.  A backslash
             preceding a character that is not special is stripped. */
             preceding a character that is not special is stripped. */
          switch (c)
          switch (c)
            {
            {
            case 'a':
            case 'a':
              array[l++] = '\007';
              array[l++] = '\007';
              break;
              break;
            case 'b':
            case 'b':
              array[l++] = '\b';
              array[l++] = '\b';
              break;
              break;
            case 'd':
            case 'd':
              array[l++] = RUBOUT;      /* readline-specific */
              array[l++] = RUBOUT;      /* readline-specific */
              break;
              break;
            case 'e':
            case 'e':
              array[l++] = ESC;
              array[l++] = ESC;
              break;
              break;
            case 'f':
            case 'f':
              array[l++] = '\f';
              array[l++] = '\f';
              break;
              break;
            case 'n':
            case 'n':
              array[l++] = NEWLINE;
              array[l++] = NEWLINE;
              break;
              break;
            case 'r':
            case 'r':
              array[l++] = RETURN;
              array[l++] = RETURN;
              break;
              break;
            case 't':
            case 't':
              array[l++] = TAB;
              array[l++] = TAB;
              break;
              break;
            case 'v':
            case 'v':
              array[l++] = 0x0B;
              array[l++] = 0x0B;
              break;
              break;
            case '\\':
            case '\\':
              array[l++] = '\\';
              array[l++] = '\\';
              break;
              break;
            case '0': case '1': case '2': case '3':
            case '0': case '1': case '2': case '3':
            case '4': case '5': case '6': case '7':
            case '4': case '5': case '6': case '7':
              i++;
              i++;
              for (temp = 2, c -= '0'; ISOCTAL (seq[i]) && temp--; i++)
              for (temp = 2, c -= '0'; ISOCTAL (seq[i]) && temp--; i++)
                c = (c * 8) + OCTVALUE (seq[i]);
                c = (c * 8) + OCTVALUE (seq[i]);
              i--;      /* auto-increment in for loop */
              i--;      /* auto-increment in for loop */
              array[l++] = c & largest_char;
              array[l++] = c & largest_char;
              break;
              break;
            case 'x':
            case 'x':
              i++;
              i++;
              for (temp = 2, c = 0; ISXDIGIT ((unsigned char)seq[i]) && temp--; i++)
              for (temp = 2, c = 0; ISXDIGIT ((unsigned char)seq[i]) && temp--; i++)
                c = (c * 16) + HEXVALUE (seq[i]);
                c = (c * 16) + HEXVALUE (seq[i]);
              if (temp == 2)
              if (temp == 2)
                c = 'x';
                c = 'x';
              i--;      /* auto-increment in for loop */
              i--;      /* auto-increment in for loop */
              array[l++] = c & largest_char;
              array[l++] = c & largest_char;
              break;
              break;
            default:    /* backslashes before non-special chars just add the char */
            default:    /* backslashes before non-special chars just add the char */
              array[l++] = c;
              array[l++] = c;
              break;    /* the backslash is stripped */
              break;    /* the backslash is stripped */
            }
            }
          continue;
          continue;
        }
        }
 
 
      array[l++] = c;
      array[l++] = c;
    }
    }
 
 
  *len = l;
  *len = l;
  array[l] = '\0';
  array[l] = '\0';
  return (0);
  return (0);
}
}
 
 
char *
char *
rl_untranslate_keyseq (seq)
rl_untranslate_keyseq (seq)
     int seq;
     int seq;
{
{
  static char kseq[16];
  static char kseq[16];
  int i, c;
  int i, c;
 
 
  i = 0;
  i = 0;
  c = seq;
  c = seq;
  if (META_CHAR (c))
  if (META_CHAR (c))
    {
    {
      kseq[i++] = '\\';
      kseq[i++] = '\\';
      kseq[i++] = 'M';
      kseq[i++] = 'M';
      kseq[i++] = '-';
      kseq[i++] = '-';
      c = UNMETA (c);
      c = UNMETA (c);
    }
    }
  else if (CTRL_CHAR (c))
  else if (CTRL_CHAR (c))
    {
    {
      kseq[i++] = '\\';
      kseq[i++] = '\\';
      kseq[i++] = 'C';
      kseq[i++] = 'C';
      kseq[i++] = '-';
      kseq[i++] = '-';
      c = _rl_to_lower (UNCTRL (c));
      c = _rl_to_lower (UNCTRL (c));
    }
    }
  else if (c == RUBOUT)
  else if (c == RUBOUT)
    {
    {
      kseq[i++] = '\\';
      kseq[i++] = '\\';
      kseq[i++] = 'C';
      kseq[i++] = 'C';
      kseq[i++] = '-';
      kseq[i++] = '-';
      c = '?';
      c = '?';
    }
    }
 
 
  if (c == ESC)
  if (c == ESC)
    {
    {
      kseq[i++] = '\\';
      kseq[i++] = '\\';
      c = 'e';
      c = 'e';
    }
    }
  else if (c == '\\' || c == '"')
  else if (c == '\\' || c == '"')
    {
    {
      kseq[i++] = '\\';
      kseq[i++] = '\\';
    }
    }
 
 
  kseq[i++] = (unsigned char) c;
  kseq[i++] = (unsigned char) c;
  kseq[i] = '\0';
  kseq[i] = '\0';
  return kseq;
  return kseq;
}
}
 
 
static char *
static char *
_rl_untranslate_macro_value (seq)
_rl_untranslate_macro_value (seq)
     char *seq;
     char *seq;
{
{
  char *ret, *r, *s;
  char *ret, *r, *s;
  int c;
  int c;
 
 
  r = ret = (char *)xmalloc (7 * strlen (seq) + 1);
  r = ret = (char *)xmalloc (7 * strlen (seq) + 1);
  for (s = seq; *s; s++)
  for (s = seq; *s; s++)
    {
    {
      c = *s;
      c = *s;
      if (META_CHAR (c))
      if (META_CHAR (c))
        {
        {
          *r++ = '\\';
          *r++ = '\\';
          *r++ = 'M';
          *r++ = 'M';
          *r++ = '-';
          *r++ = '-';
          c = UNMETA (c);
          c = UNMETA (c);
        }
        }
      else if (CTRL_CHAR (c) && c != ESC)
      else if (CTRL_CHAR (c) && c != ESC)
        {
        {
          *r++ = '\\';
          *r++ = '\\';
          *r++ = 'C';
          *r++ = 'C';
          *r++ = '-';
          *r++ = '-';
          c = _rl_to_lower (UNCTRL (c));
          c = _rl_to_lower (UNCTRL (c));
        }
        }
      else if (c == RUBOUT)
      else if (c == RUBOUT)
        {
        {
          *r++ = '\\';
          *r++ = '\\';
          *r++ = 'C';
          *r++ = 'C';
          *r++ = '-';
          *r++ = '-';
          c = '?';
          c = '?';
        }
        }
 
 
      if (c == ESC)
      if (c == ESC)
        {
        {
          *r++ = '\\';
          *r++ = '\\';
          c = 'e';
          c = 'e';
        }
        }
      else if (c == '\\' || c == '"')
      else if (c == '\\' || c == '"')
        *r++ = '\\';
        *r++ = '\\';
 
 
      *r++ = (unsigned char)c;
      *r++ = (unsigned char)c;
    }
    }
  *r = '\0';
  *r = '\0';
  return ret;
  return ret;
}
}
 
 
/* Return a pointer to the function that STRING represents.
/* Return a pointer to the function that STRING represents.
   If STRING doesn't have a matching function, then a NULL pointer
   If STRING doesn't have a matching function, then a NULL pointer
   is returned. */
   is returned. */
rl_command_func_t *
rl_command_func_t *
rl_named_function (string)
rl_named_function (string)
     const char *string;
     const char *string;
{
{
  register int i;
  register int i;
 
 
  rl_initialize_funmap ();
  rl_initialize_funmap ();
 
 
  for (i = 0; funmap[i]; i++)
  for (i = 0; funmap[i]; i++)
    if (_rl_stricmp (funmap[i]->name, string) == 0)
    if (_rl_stricmp (funmap[i]->name, string) == 0)
      return (funmap[i]->function);
      return (funmap[i]->function);
  return ((rl_command_func_t *)NULL);
  return ((rl_command_func_t *)NULL);
}
}
 
 
/* Return the function (or macro) definition which would be invoked via
/* Return the function (or macro) definition which would be invoked via
   KEYSEQ if executed in MAP.  If MAP is NULL, then the current keymap is
   KEYSEQ if executed in MAP.  If MAP is NULL, then the current keymap is
   used.  TYPE, if non-NULL, is a pointer to an int which will receive the
   used.  TYPE, if non-NULL, is a pointer to an int which will receive the
   type of the object pointed to.  One of ISFUNC (function), ISKMAP (keymap),
   type of the object pointed to.  One of ISFUNC (function), ISKMAP (keymap),
   or ISMACR (macro). */
   or ISMACR (macro). */
rl_command_func_t *
rl_command_func_t *
rl_function_of_keyseq (keyseq, map, type)
rl_function_of_keyseq (keyseq, map, type)
     const char *keyseq;
     const char *keyseq;
     Keymap map;
     Keymap map;
     int *type;
     int *type;
{
{
  register int i;
  register int i;
 
 
  if (!map)
  if (!map)
    map = _rl_keymap;
    map = _rl_keymap;
 
 
  for (i = 0; keyseq && keyseq[i]; i++)
  for (i = 0; keyseq && keyseq[i]; i++)
    {
    {
      unsigned char ic = keyseq[i];
      unsigned char ic = keyseq[i];
 
 
      if (META_CHAR (ic) && _rl_convert_meta_chars_to_ascii)
      if (META_CHAR (ic) && _rl_convert_meta_chars_to_ascii)
        {
        {
          if (map[ESC].type != ISKMAP)
          if (map[ESC].type != ISKMAP)
            {
            {
              if (type)
              if (type)
                *type = map[ESC].type;
                *type = map[ESC].type;
 
 
              return (map[ESC].function);
              return (map[ESC].function);
            }
            }
          else
          else
            {
            {
              map = FUNCTION_TO_KEYMAP (map, ESC);
              map = FUNCTION_TO_KEYMAP (map, ESC);
              ic = UNMETA (ic);
              ic = UNMETA (ic);
            }
            }
        }
        }
 
 
      if (map[ic].type == ISKMAP)
      if (map[ic].type == ISKMAP)
        {
        {
          /* If this is the last key in the key sequence, return the
          /* If this is the last key in the key sequence, return the
             map. */
             map. */
          if (!keyseq[i + 1])
          if (!keyseq[i + 1])
            {
            {
              if (type)
              if (type)
                *type = ISKMAP;
                *type = ISKMAP;
 
 
              return (map[ic].function);
              return (map[ic].function);
            }
            }
          else
          else
            map = FUNCTION_TO_KEYMAP (map, ic);
            map = FUNCTION_TO_KEYMAP (map, ic);
        }
        }
      else
      else
        {
        {
          if (type)
          if (type)
            *type = map[ic].type;
            *type = map[ic].type;
 
 
          return (map[ic].function);
          return (map[ic].function);
        }
        }
    }
    }
  return ((rl_command_func_t *) NULL);
  return ((rl_command_func_t *) NULL);
}
}
 
 
/* The last key bindings file read. */
/* The last key bindings file read. */
static char *last_readline_init_file = (char *)NULL;
static char *last_readline_init_file = (char *)NULL;
 
 
/* The file we're currently reading key bindings from. */
/* The file we're currently reading key bindings from. */
static const char *current_readline_init_file;
static const char *current_readline_init_file;
static int current_readline_init_include_level;
static int current_readline_init_include_level;
static int current_readline_init_lineno;
static int current_readline_init_lineno;
 
 
/* Read FILENAME into a locally-allocated buffer and return the buffer.
/* Read FILENAME into a locally-allocated buffer and return the buffer.
   The size of the buffer is returned in *SIZEP.  Returns NULL if any
   The size of the buffer is returned in *SIZEP.  Returns NULL if any
   errors were encountered. */
   errors were encountered. */
static char *
static char *
_rl_read_file (filename, sizep)
_rl_read_file (filename, sizep)
     char *filename;
     char *filename;
     size_t *sizep;
     size_t *sizep;
{
{
  struct stat finfo;
  struct stat finfo;
  size_t file_size;
  size_t file_size;
  char *buffer;
  char *buffer;
  int i, file;
  int i, file;
 
 
  if ((stat (filename, &finfo) < 0) || (file = open (filename, O_RDONLY, 0666)) < 0)
  if ((stat (filename, &finfo) < 0) || (file = open (filename, O_RDONLY, 0666)) < 0)
    return ((char *)NULL);
    return ((char *)NULL);
 
 
  file_size = (size_t)finfo.st_size;
  file_size = (size_t)finfo.st_size;
 
 
  /* check for overflow on very large files */
  /* check for overflow on very large files */
  if (file_size != finfo.st_size || file_size + 1 < file_size)
  if (file_size != finfo.st_size || file_size + 1 < file_size)
    {
    {
      if (file >= 0)
      if (file >= 0)
        close (file);
        close (file);
#if defined (EFBIG)
#if defined (EFBIG)
      errno = EFBIG;
      errno = EFBIG;
#endif
#endif
      return ((char *)NULL);
      return ((char *)NULL);
    }
    }
 
 
  /* Read the file into BUFFER. */
  /* Read the file into BUFFER. */
  buffer = (char *)xmalloc (file_size + 1);
  buffer = (char *)xmalloc (file_size + 1);
  i = read (file, buffer, file_size);
  i = read (file, buffer, file_size);
  close (file);
  close (file);
 
 
  if (i < 0)
  if (i < 0)
    {
    {
      free (buffer);
      free (buffer);
      return ((char *)NULL);
      return ((char *)NULL);
    }
    }
 
 
  buffer[i] = '\0';
  buffer[i] = '\0';
  if (sizep)
  if (sizep)
    *sizep = i;
    *sizep = i;
 
 
  return (buffer);
  return (buffer);
}
}
 
 
/* Re-read the current keybindings file. */
/* Re-read the current keybindings file. */
int
int
rl_re_read_init_file (count, ignore)
rl_re_read_init_file (count, ignore)
     int count, ignore;
     int count, ignore;
{
{
  int r;
  int r;
  r = rl_read_init_file ((const char *)NULL);
  r = rl_read_init_file ((const char *)NULL);
  rl_set_keymap_from_edit_mode ();
  rl_set_keymap_from_edit_mode ();
  return r;
  return r;
}
}
 
 
/* Do key bindings from a file.  If FILENAME is NULL it defaults
/* Do key bindings from a file.  If FILENAME is NULL it defaults
   to the first non-null filename from this list:
   to the first non-null filename from this list:
     1. the filename used for the previous call
     1. the filename used for the previous call
     2. the value of the shell variable `INPUTRC'
     2. the value of the shell variable `INPUTRC'
     3. ~/.inputrc
     3. ~/.inputrc
   If the file existed and could be opened and read, 0 is returned,
   If the file existed and could be opened and read, 0 is returned,
   otherwise errno is returned. */
   otherwise errno is returned. */
int
int
rl_read_init_file (filename)
rl_read_init_file (filename)
     const char *filename;
     const char *filename;
{
{
  /* Default the filename. */
  /* Default the filename. */
  if (filename == 0)
  if (filename == 0)
    {
    {
      filename = last_readline_init_file;
      filename = last_readline_init_file;
      if (filename == 0)
      if (filename == 0)
        filename = sh_get_env_value ("INPUTRC");
        filename = sh_get_env_value ("INPUTRC");
      if (filename == 0)
      if (filename == 0)
        filename = DEFAULT_INPUTRC;
        filename = DEFAULT_INPUTRC;
    }
    }
 
 
  if (*filename == 0)
  if (*filename == 0)
    filename = DEFAULT_INPUTRC;
    filename = DEFAULT_INPUTRC;
 
 
#if defined (__MSDOS__)
#if defined (__MSDOS__)
  if (_rl_read_init_file (filename, 0) == 0)
  if (_rl_read_init_file (filename, 0) == 0)
    return 0;
    return 0;
  filename = "~/_inputrc";
  filename = "~/_inputrc";
#endif
#endif
  return (_rl_read_init_file (filename, 0));
  return (_rl_read_init_file (filename, 0));
}
}
 
 
static int
static int
_rl_read_init_file (filename, include_level)
_rl_read_init_file (filename, include_level)
     const char *filename;
     const char *filename;
     int include_level;
     int include_level;
{
{
  register int i;
  register int i;
  char *buffer, *openname, *line, *end;
  char *buffer, *openname, *line, *end;
  size_t file_size;
  size_t file_size;
 
 
  current_readline_init_file = filename;
  current_readline_init_file = filename;
  current_readline_init_include_level = include_level;
  current_readline_init_include_level = include_level;
 
 
  openname = tilde_expand (filename);
  openname = tilde_expand (filename);
  buffer = _rl_read_file (openname, &file_size);
  buffer = _rl_read_file (openname, &file_size);
  free (openname);
  free (openname);
 
 
  if (buffer == 0)
  if (buffer == 0)
    return (errno);
    return (errno);
 
 
  if (include_level == 0 && filename != last_readline_init_file)
  if (include_level == 0 && filename != last_readline_init_file)
    {
    {
      FREE (last_readline_init_file);
      FREE (last_readline_init_file);
      last_readline_init_file = savestring (filename);
      last_readline_init_file = savestring (filename);
    }
    }
 
 
  currently_reading_init_file = 1;
  currently_reading_init_file = 1;
 
 
  /* Loop over the lines in the file.  Lines that start with `#' are
  /* Loop over the lines in the file.  Lines that start with `#' are
     comments; all other lines are commands for readline initialization. */
     comments; all other lines are commands for readline initialization. */
  current_readline_init_lineno = 1;
  current_readline_init_lineno = 1;
  line = buffer;
  line = buffer;
  end = buffer + file_size;
  end = buffer + file_size;
  while (line < end)
  while (line < end)
    {
    {
      /* Find the end of this line. */
      /* Find the end of this line. */
      for (i = 0; line + i != end && line[i] != '\n'; i++);
      for (i = 0; line + i != end && line[i] != '\n'; i++);
 
 
#if defined (__CYGWIN__)
#if defined (__CYGWIN__)
      /* ``Be liberal in what you accept.'' */
      /* ``Be liberal in what you accept.'' */
      if (line[i] == '\n' && line[i-1] == '\r')
      if (line[i] == '\n' && line[i-1] == '\r')
        line[i - 1] = '\0';
        line[i - 1] = '\0';
#endif
#endif
 
 
      /* Mark end of line. */
      /* Mark end of line. */
      line[i] = '\0';
      line[i] = '\0';
 
 
      /* Skip leading whitespace. */
      /* Skip leading whitespace. */
      while (*line && whitespace (*line))
      while (*line && whitespace (*line))
        {
        {
          line++;
          line++;
          i--;
          i--;
        }
        }
 
 
      /* If the line is not a comment, then parse it. */
      /* If the line is not a comment, then parse it. */
      if (*line && *line != '#')
      if (*line && *line != '#')
        rl_parse_and_bind (line);
        rl_parse_and_bind (line);
 
 
      /* Move to the next line. */
      /* Move to the next line. */
      line += i + 1;
      line += i + 1;
      current_readline_init_lineno++;
      current_readline_init_lineno++;
    }
    }
 
 
  free (buffer);
  free (buffer);
  currently_reading_init_file = 0;
  currently_reading_init_file = 0;
  return (0);
  return (0);
}
}
 
 
static void
static void
_rl_init_file_error (msg)
_rl_init_file_error (msg)
     const char *msg;
     const char *msg;
{
{
  if (currently_reading_init_file)
  if (currently_reading_init_file)
    fprintf (stderr, "readline: %s: line %d: %s\n", current_readline_init_file,
    fprintf (stderr, "readline: %s: line %d: %s\n", current_readline_init_file,
                     current_readline_init_lineno, msg);
                     current_readline_init_lineno, msg);
  else
  else
    fprintf (stderr, "readline: %s\n", msg);
    fprintf (stderr, "readline: %s\n", msg);
}
}
 
 
/* **************************************************************** */
/* **************************************************************** */
/*                                                                  */
/*                                                                  */
/*                      Parser Directives                           */
/*                      Parser Directives                           */
/*                                                                  */
/*                                                                  */
/* **************************************************************** */
/* **************************************************************** */
 
 
typedef int _rl_parser_func_t PARAMS((char *));
typedef int _rl_parser_func_t PARAMS((char *));
 
 
/* Things that mean `Control'. */
/* Things that mean `Control'. */
const char *_rl_possible_control_prefixes[] = {
const char *_rl_possible_control_prefixes[] = {
  "Control-", "C-", "CTRL-", (const char *)NULL
  "Control-", "C-", "CTRL-", (const char *)NULL
};
};
 
 
const char *_rl_possible_meta_prefixes[] = {
const char *_rl_possible_meta_prefixes[] = {
  "Meta", "M-", (const char *)NULL
  "Meta", "M-", (const char *)NULL
};
};
 
 
/* Conditionals. */
/* Conditionals. */
 
 
/* Calling programs set this to have their argv[0]. */
/* Calling programs set this to have their argv[0]. */
const char *rl_readline_name = "other";
const char *rl_readline_name = "other";
 
 
/* Stack of previous values of parsing_conditionalized_out. */
/* Stack of previous values of parsing_conditionalized_out. */
static unsigned char *if_stack = (unsigned char *)NULL;
static unsigned char *if_stack = (unsigned char *)NULL;
static int if_stack_depth;
static int if_stack_depth;
static int if_stack_size;
static int if_stack_size;
 
 
/* Push _rl_parsing_conditionalized_out, and set parser state based
/* Push _rl_parsing_conditionalized_out, and set parser state based
   on ARGS. */
   on ARGS. */
static int
static int
parser_if (args)
parser_if (args)
     char *args;
     char *args;
{
{
  register int i;
  register int i;
 
 
  /* Push parser state. */
  /* Push parser state. */
  if (if_stack_depth + 1 >= if_stack_size)
  if (if_stack_depth + 1 >= if_stack_size)
    {
    {
      if (!if_stack)
      if (!if_stack)
        if_stack = (unsigned char *)xmalloc (if_stack_size = 20);
        if_stack = (unsigned char *)xmalloc (if_stack_size = 20);
      else
      else
        if_stack = (unsigned char *)xrealloc (if_stack, if_stack_size += 20);
        if_stack = (unsigned char *)xrealloc (if_stack, if_stack_size += 20);
    }
    }
  if_stack[if_stack_depth++] = _rl_parsing_conditionalized_out;
  if_stack[if_stack_depth++] = _rl_parsing_conditionalized_out;
 
 
  /* If parsing is turned off, then nothing can turn it back on except
  /* If parsing is turned off, then nothing can turn it back on except
     for finding the matching endif.  In that case, return right now. */
     for finding the matching endif.  In that case, return right now. */
  if (_rl_parsing_conditionalized_out)
  if (_rl_parsing_conditionalized_out)
    return 0;
    return 0;
 
 
  /* Isolate first argument. */
  /* Isolate first argument. */
  for (i = 0; args[i] && !whitespace (args[i]); i++);
  for (i = 0; args[i] && !whitespace (args[i]); i++);
 
 
  if (args[i])
  if (args[i])
    args[i++] = '\0';
    args[i++] = '\0';
 
 
  /* Handle "$if term=foo" and "$if mode=emacs" constructs.  If this
  /* Handle "$if term=foo" and "$if mode=emacs" constructs.  If this
     isn't term=foo, or mode=emacs, then check to see if the first
     isn't term=foo, or mode=emacs, then check to see if the first
     word in ARGS is the same as the value stored in rl_readline_name. */
     word in ARGS is the same as the value stored in rl_readline_name. */
  if (rl_terminal_name && _rl_strnicmp (args, "term=", 5) == 0)
  if (rl_terminal_name && _rl_strnicmp (args, "term=", 5) == 0)
    {
    {
      char *tem, *tname;
      char *tem, *tname;
 
 
      /* Terminals like "aaa-60" are equivalent to "aaa". */
      /* Terminals like "aaa-60" are equivalent to "aaa". */
      tname = savestring (rl_terminal_name);
      tname = savestring (rl_terminal_name);
      tem = strchr (tname, '-');
      tem = strchr (tname, '-');
      if (tem)
      if (tem)
        *tem = '\0';
        *tem = '\0';
 
 
      /* Test the `long' and `short' forms of the terminal name so that
      /* Test the `long' and `short' forms of the terminal name so that
         if someone has a `sun-cmd' and does not want to have bindings
         if someone has a `sun-cmd' and does not want to have bindings
         that will be executed if the terminal is a `sun', they can put
         that will be executed if the terminal is a `sun', they can put
         `$if term=sun-cmd' into their .inputrc. */
         `$if term=sun-cmd' into their .inputrc. */
      _rl_parsing_conditionalized_out = _rl_stricmp (args + 5, tname) &&
      _rl_parsing_conditionalized_out = _rl_stricmp (args + 5, tname) &&
                                        _rl_stricmp (args + 5, rl_terminal_name);
                                        _rl_stricmp (args + 5, rl_terminal_name);
      free (tname);
      free (tname);
    }
    }
#if defined (VI_MODE)
#if defined (VI_MODE)
  else if (_rl_strnicmp (args, "mode=", 5) == 0)
  else if (_rl_strnicmp (args, "mode=", 5) == 0)
    {
    {
      int mode;
      int mode;
 
 
      if (_rl_stricmp (args + 5, "emacs") == 0)
      if (_rl_stricmp (args + 5, "emacs") == 0)
        mode = emacs_mode;
        mode = emacs_mode;
      else if (_rl_stricmp (args + 5, "vi") == 0)
      else if (_rl_stricmp (args + 5, "vi") == 0)
        mode = vi_mode;
        mode = vi_mode;
      else
      else
        mode = no_mode;
        mode = no_mode;
 
 
      _rl_parsing_conditionalized_out = mode != rl_editing_mode;
      _rl_parsing_conditionalized_out = mode != rl_editing_mode;
    }
    }
#endif /* VI_MODE */
#endif /* VI_MODE */
  /* Check to see if the first word in ARGS is the same as the
  /* Check to see if the first word in ARGS is the same as the
     value stored in rl_readline_name. */
     value stored in rl_readline_name. */
  else if (_rl_stricmp (args, rl_readline_name) == 0)
  else if (_rl_stricmp (args, rl_readline_name) == 0)
    _rl_parsing_conditionalized_out = 0;
    _rl_parsing_conditionalized_out = 0;
  else
  else
    _rl_parsing_conditionalized_out = 1;
    _rl_parsing_conditionalized_out = 1;
  return 0;
  return 0;
}
}
 
 
/* Invert the current parser state if there is anything on the stack. */
/* Invert the current parser state if there is anything on the stack. */
static int
static int
parser_else (args)
parser_else (args)
     char *args;
     char *args;
{
{
  register int i;
  register int i;
 
 
  if (if_stack_depth == 0)
  if (if_stack_depth == 0)
    {
    {
      _rl_init_file_error ("$else found without matching $if");
      _rl_init_file_error ("$else found without matching $if");
      return 0;
      return 0;
    }
    }
 
 
#if 0
#if 0
  /* Check the previous (n - 1) levels of the stack to make sure that
  /* Check the previous (n - 1) levels of the stack to make sure that
     we haven't previously turned off parsing. */
     we haven't previously turned off parsing. */
  for (i = 0; i < if_stack_depth - 1; i++)
  for (i = 0; i < if_stack_depth - 1; i++)
#else
#else
  /* Check the previous (n) levels of the stack to make sure that
  /* Check the previous (n) levels of the stack to make sure that
     we haven't previously turned off parsing. */
     we haven't previously turned off parsing. */
  for (i = 0; i < if_stack_depth; i++)
  for (i = 0; i < if_stack_depth; i++)
#endif
#endif
    if (if_stack[i] == 1)
    if (if_stack[i] == 1)
      return 0;
      return 0;
 
 
  /* Invert the state of parsing if at top level. */
  /* Invert the state of parsing if at top level. */
  _rl_parsing_conditionalized_out = !_rl_parsing_conditionalized_out;
  _rl_parsing_conditionalized_out = !_rl_parsing_conditionalized_out;
  return 0;
  return 0;
}
}
 
 
/* Terminate a conditional, popping the value of
/* Terminate a conditional, popping the value of
   _rl_parsing_conditionalized_out from the stack. */
   _rl_parsing_conditionalized_out from the stack. */
static int
static int
parser_endif (args)
parser_endif (args)
     char *args;
     char *args;
{
{
  if (if_stack_depth)
  if (if_stack_depth)
    _rl_parsing_conditionalized_out = if_stack[--if_stack_depth];
    _rl_parsing_conditionalized_out = if_stack[--if_stack_depth];
  else
  else
    _rl_init_file_error ("$endif without matching $if");
    _rl_init_file_error ("$endif without matching $if");
  return 0;
  return 0;
}
}
 
 
static int
static int
parser_include (args)
parser_include (args)
     char *args;
     char *args;
{
{
  const char *old_init_file;
  const char *old_init_file;
  char *e;
  char *e;
  int old_line_number, old_include_level, r;
  int old_line_number, old_include_level, r;
 
 
  if (_rl_parsing_conditionalized_out)
  if (_rl_parsing_conditionalized_out)
    return (0);
    return (0);
 
 
  old_init_file = current_readline_init_file;
  old_init_file = current_readline_init_file;
  old_line_number = current_readline_init_lineno;
  old_line_number = current_readline_init_lineno;
  old_include_level = current_readline_init_include_level;
  old_include_level = current_readline_init_include_level;
 
 
  e = strchr (args, '\n');
  e = strchr (args, '\n');
  if (e)
  if (e)
    *e = '\0';
    *e = '\0';
  r = _rl_read_init_file ((const char *)args, old_include_level + 1);
  r = _rl_read_init_file ((const char *)args, old_include_level + 1);
 
 
  current_readline_init_file = old_init_file;
  current_readline_init_file = old_init_file;
  current_readline_init_lineno = old_line_number;
  current_readline_init_lineno = old_line_number;
  current_readline_init_include_level = old_include_level;
  current_readline_init_include_level = old_include_level;
 
 
  return r;
  return r;
}
}
 
 
/* Associate textual names with actual functions. */
/* Associate textual names with actual functions. */
static struct {
static struct {
  const char *name;
  const char *name;
  _rl_parser_func_t *function;
  _rl_parser_func_t *function;
} parser_directives [] = {
} parser_directives [] = {
  { "if", parser_if },
  { "if", parser_if },
  { "endif", parser_endif },
  { "endif", parser_endif },
  { "else", parser_else },
  { "else", parser_else },
  { "include", parser_include },
  { "include", parser_include },
  { (char *)0x0, (_rl_parser_func_t *)0x0 }
  { (char *)0x0, (_rl_parser_func_t *)0x0 }
};
};
 
 
/* Handle a parser directive.  STATEMENT is the line of the directive
/* Handle a parser directive.  STATEMENT is the line of the directive
   without any leading `$'. */
   without any leading `$'. */
static int
static int
handle_parser_directive (statement)
handle_parser_directive (statement)
     char *statement;
     char *statement;
{
{
  register int i;
  register int i;
  char *directive, *args;
  char *directive, *args;
 
 
  /* Isolate the actual directive. */
  /* Isolate the actual directive. */
 
 
  /* Skip whitespace. */
  /* Skip whitespace. */
  for (i = 0; whitespace (statement[i]); i++);
  for (i = 0; whitespace (statement[i]); i++);
 
 
  directive = &statement[i];
  directive = &statement[i];
 
 
  for (; statement[i] && !whitespace (statement[i]); i++);
  for (; statement[i] && !whitespace (statement[i]); i++);
 
 
  if (statement[i])
  if (statement[i])
    statement[i++] = '\0';
    statement[i++] = '\0';
 
 
  for (; statement[i] && whitespace (statement[i]); i++);
  for (; statement[i] && whitespace (statement[i]); i++);
 
 
  args = &statement[i];
  args = &statement[i];
 
 
  /* Lookup the command, and act on it. */
  /* Lookup the command, and act on it. */
  for (i = 0; parser_directives[i].name; i++)
  for (i = 0; parser_directives[i].name; i++)
    if (_rl_stricmp (directive, parser_directives[i].name) == 0)
    if (_rl_stricmp (directive, parser_directives[i].name) == 0)
      {
      {
        (*parser_directives[i].function) (args);
        (*parser_directives[i].function) (args);
        return (0);
        return (0);
      }
      }
 
 
  /* display an error message about the unknown parser directive */
  /* display an error message about the unknown parser directive */
  _rl_init_file_error ("unknown parser directive");
  _rl_init_file_error ("unknown parser directive");
  return (1);
  return (1);
}
}
 
 
/* Read the binding command from STRING and perform it.
/* Read the binding command from STRING and perform it.
   A key binding command looks like: Keyname: function-name\0,
   A key binding command looks like: Keyname: function-name\0,
   a variable binding command looks like: set variable value.
   a variable binding command looks like: set variable value.
   A new-style keybinding looks like "\C-x\C-x": exchange-point-and-mark. */
   A new-style keybinding looks like "\C-x\C-x": exchange-point-and-mark. */
int
int
rl_parse_and_bind (string)
rl_parse_and_bind (string)
     char *string;
     char *string;
{
{
  char *funname, *kname;
  char *funname, *kname;
  register int c, i;
  register int c, i;
  int key, equivalency;
  int key, equivalency;
 
 
  while (string && whitespace (*string))
  while (string && whitespace (*string))
    string++;
    string++;
 
 
  if (!string || !*string || *string == '#')
  if (!string || !*string || *string == '#')
    return 0;
    return 0;
 
 
  /* If this is a parser directive, act on it. */
  /* If this is a parser directive, act on it. */
  if (*string == '$')
  if (*string == '$')
    {
    {
      handle_parser_directive (&string[1]);
      handle_parser_directive (&string[1]);
      return 0;
      return 0;
    }
    }
 
 
  /* If we aren't supposed to be parsing right now, then we're done. */
  /* If we aren't supposed to be parsing right now, then we're done. */
  if (_rl_parsing_conditionalized_out)
  if (_rl_parsing_conditionalized_out)
    return 0;
    return 0;
 
 
  i = 0;
  i = 0;
  /* If this keyname is a complex key expression surrounded by quotes,
  /* If this keyname is a complex key expression surrounded by quotes,
     advance to after the matching close quote.  This code allows the
     advance to after the matching close quote.  This code allows the
     backslash to quote characters in the key expression. */
     backslash to quote characters in the key expression. */
  if (*string == '"')
  if (*string == '"')
    {
    {
      int passc = 0;
      int passc = 0;
 
 
      for (i = 1; c = string[i]; i++)
      for (i = 1; c = string[i]; i++)
        {
        {
          if (passc)
          if (passc)
            {
            {
              passc = 0;
              passc = 0;
              continue;
              continue;
            }
            }
 
 
          if (c == '\\')
          if (c == '\\')
            {
            {
              passc++;
              passc++;
              continue;
              continue;
            }
            }
 
 
          if (c == '"')
          if (c == '"')
            break;
            break;
        }
        }
      /* If we didn't find a closing quote, abort the line. */
      /* If we didn't find a closing quote, abort the line. */
      if (string[i] == '\0')
      if (string[i] == '\0')
        {
        {
          _rl_init_file_error ("no closing `\"' in key binding");
          _rl_init_file_error ("no closing `\"' in key binding");
          return 1;
          return 1;
        }
        }
    }
    }
 
 
  /* Advance to the colon (:) or whitespace which separates the two objects. */
  /* Advance to the colon (:) or whitespace which separates the two objects. */
  for (; (c = string[i]) && c != ':' && c != ' ' && c != '\t'; i++ );
  for (; (c = string[i]) && c != ':' && c != ' ' && c != '\t'; i++ );
 
 
  equivalency = (c == ':' && string[i + 1] == '=');
  equivalency = (c == ':' && string[i + 1] == '=');
 
 
  /* Mark the end of the command (or keyname). */
  /* Mark the end of the command (or keyname). */
  if (string[i])
  if (string[i])
    string[i++] = '\0';
    string[i++] = '\0';
 
 
  /* If doing assignment, skip the '=' sign as well. */
  /* If doing assignment, skip the '=' sign as well. */
  if (equivalency)
  if (equivalency)
    string[i++] = '\0';
    string[i++] = '\0';
 
 
  /* If this is a command to set a variable, then do that. */
  /* If this is a command to set a variable, then do that. */
  if (_rl_stricmp (string, "set") == 0)
  if (_rl_stricmp (string, "set") == 0)
    {
    {
      char *var, *value, *e;
      char *var, *value, *e;
 
 
      var = string + i;
      var = string + i;
      /* Make VAR point to start of variable name. */
      /* Make VAR point to start of variable name. */
      while (*var && whitespace (*var)) var++;
      while (*var && whitespace (*var)) var++;
 
 
      /* Make VALUE point to start of value string. */
      /* Make VALUE point to start of value string. */
      value = var;
      value = var;
      while (*value && !whitespace (*value)) value++;
      while (*value && !whitespace (*value)) value++;
      if (*value)
      if (*value)
        *value++ = '\0';
        *value++ = '\0';
      while (*value && whitespace (*value)) value++;
      while (*value && whitespace (*value)) value++;
 
 
      /* Strip trailing whitespace from values to boolean variables.  Temp
      /* Strip trailing whitespace from values to boolean variables.  Temp
         fix until I get a real quoted-string parser here. */
         fix until I get a real quoted-string parser here. */
      i = find_boolean_var (var);
      i = find_boolean_var (var);
      if (i >= 0)
      if (i >= 0)
        {
        {
          /* remove trailing whitespace */
          /* remove trailing whitespace */
          e = value + strlen (value) - 1;
          e = value + strlen (value) - 1;
          while (e >= value && whitespace (*e))
          while (e >= value && whitespace (*e))
            e--;
            e--;
          e++;          /* skip back to whitespace or EOS */
          e++;          /* skip back to whitespace or EOS */
          if (*e && e >= value)
          if (*e && e >= value)
            *e = '\0';
            *e = '\0';
        }
        }
 
 
      rl_variable_bind (var, value);
      rl_variable_bind (var, value);
      return 0;
      return 0;
    }
    }
 
 
  /* Skip any whitespace between keyname and funname. */
  /* Skip any whitespace between keyname and funname. */
  for (; string[i] && whitespace (string[i]); i++);
  for (; string[i] && whitespace (string[i]); i++);
  funname = &string[i];
  funname = &string[i];
 
 
  /* Now isolate funname.
  /* Now isolate funname.
     For straight function names just look for whitespace, since
     For straight function names just look for whitespace, since
     that will signify the end of the string.  But this could be a
     that will signify the end of the string.  But this could be a
     macro definition.  In that case, the string is quoted, so skip
     macro definition.  In that case, the string is quoted, so skip
     to the matching delimiter.  We allow the backslash to quote the
     to the matching delimiter.  We allow the backslash to quote the
     delimiter characters in the macro body. */
     delimiter characters in the macro body. */
  /* This code exists to allow whitespace in macro expansions, which
  /* This code exists to allow whitespace in macro expansions, which
     would otherwise be gobbled up by the next `for' loop.*/
     would otherwise be gobbled up by the next `for' loop.*/
  /* XXX - it may be desirable to allow backslash quoting only if " is
  /* XXX - it may be desirable to allow backslash quoting only if " is
     the quoted string delimiter, like the shell. */
     the quoted string delimiter, like the shell. */
  if (*funname == '\'' || *funname == '"')
  if (*funname == '\'' || *funname == '"')
    {
    {
      int delimiter, passc;
      int delimiter, passc;
 
 
      delimiter = string[i++];
      delimiter = string[i++];
      for (passc = 0; c = string[i]; i++)
      for (passc = 0; c = string[i]; i++)
        {
        {
          if (passc)
          if (passc)
            {
            {
              passc = 0;
              passc = 0;
              continue;
              continue;
            }
            }
 
 
          if (c == '\\')
          if (c == '\\')
            {
            {
              passc = 1;
              passc = 1;
              continue;
              continue;
            }
            }
 
 
          if (c == delimiter)
          if (c == delimiter)
            break;
            break;
        }
        }
      if (c)
      if (c)
        i++;
        i++;
    }
    }
 
 
  /* Advance to the end of the string.  */
  /* Advance to the end of the string.  */
  for (; string[i] && !whitespace (string[i]); i++);
  for (; string[i] && !whitespace (string[i]); i++);
 
 
  /* No extra whitespace at the end of the string. */
  /* No extra whitespace at the end of the string. */
  string[i] = '\0';
  string[i] = '\0';
 
 
  /* Handle equivalency bindings here.  Make the left-hand side be exactly
  /* Handle equivalency bindings here.  Make the left-hand side be exactly
     whatever the right-hand evaluates to, including keymaps. */
     whatever the right-hand evaluates to, including keymaps. */
  if (equivalency)
  if (equivalency)
    {
    {
      return 0;
      return 0;
    }
    }
 
 
  /* If this is a new-style key-binding, then do the binding with
  /* If this is a new-style key-binding, then do the binding with
     rl_bind_keyseq ().  Otherwise, let the older code deal with it. */
     rl_bind_keyseq ().  Otherwise, let the older code deal with it. */
  if (*string == '"')
  if (*string == '"')
    {
    {
      char *seq;
      char *seq;
      register int j, k, passc;
      register int j, k, passc;
 
 
      seq = (char *)xmalloc (1 + strlen (string));
      seq = (char *)xmalloc (1 + strlen (string));
      for (j = 1, k = passc = 0; string[j]; j++)
      for (j = 1, k = passc = 0; string[j]; j++)
        {
        {
          /* Allow backslash to quote characters, but leave them in place.
          /* Allow backslash to quote characters, but leave them in place.
             This allows a string to end with a backslash quoting another
             This allows a string to end with a backslash quoting another
             backslash, or with a backslash quoting a double quote.  The
             backslash, or with a backslash quoting a double quote.  The
             backslashes are left in place for rl_translate_keyseq (). */
             backslashes are left in place for rl_translate_keyseq (). */
          if (passc || (string[j] == '\\'))
          if (passc || (string[j] == '\\'))
            {
            {
              seq[k++] = string[j];
              seq[k++] = string[j];
              passc = !passc;
              passc = !passc;
              continue;
              continue;
            }
            }
 
 
          if (string[j] == '"')
          if (string[j] == '"')
            break;
            break;
 
 
          seq[k++] = string[j];
          seq[k++] = string[j];
        }
        }
      seq[k] = '\0';
      seq[k] = '\0';
 
 
      /* Binding macro? */
      /* Binding macro? */
      if (*funname == '\'' || *funname == '"')
      if (*funname == '\'' || *funname == '"')
        {
        {
          j = strlen (funname);
          j = strlen (funname);
 
 
          /* Remove the delimiting quotes from each end of FUNNAME. */
          /* Remove the delimiting quotes from each end of FUNNAME. */
          if (j && funname[j - 1] == *funname)
          if (j && funname[j - 1] == *funname)
            funname[j - 1] = '\0';
            funname[j - 1] = '\0';
 
 
          rl_macro_bind (seq, &funname[1], _rl_keymap);
          rl_macro_bind (seq, &funname[1], _rl_keymap);
        }
        }
      else
      else
        rl_bind_keyseq (seq, rl_named_function (funname));
        rl_bind_keyseq (seq, rl_named_function (funname));
 
 
      free (seq);
      free (seq);
      return 0;
      return 0;
    }
    }
 
 
  /* Get the actual character we want to deal with. */
  /* Get the actual character we want to deal with. */
  kname = strrchr (string, '-');
  kname = strrchr (string, '-');
  if (!kname)
  if (!kname)
    kname = string;
    kname = string;
  else
  else
    kname++;
    kname++;
 
 
  key = glean_key_from_name (kname);
  key = glean_key_from_name (kname);
 
 
  /* Add in control and meta bits. */
  /* Add in control and meta bits. */
  if (substring_member_of_array (string, _rl_possible_control_prefixes))
  if (substring_member_of_array (string, _rl_possible_control_prefixes))
    key = CTRL (_rl_to_upper (key));
    key = CTRL (_rl_to_upper (key));
 
 
  if (substring_member_of_array (string, _rl_possible_meta_prefixes))
  if (substring_member_of_array (string, _rl_possible_meta_prefixes))
    key = META (key);
    key = META (key);
 
 
  /* Temporary.  Handle old-style keyname with macro-binding. */
  /* Temporary.  Handle old-style keyname with macro-binding. */
  if (*funname == '\'' || *funname == '"')
  if (*funname == '\'' || *funname == '"')
    {
    {
      char useq[2];
      char useq[2];
      int fl = strlen (funname);
      int fl = strlen (funname);
 
 
      useq[0] = key; useq[1] = '\0';
      useq[0] = key; useq[1] = '\0';
      if (fl && funname[fl - 1] == *funname)
      if (fl && funname[fl - 1] == *funname)
        funname[fl - 1] = '\0';
        funname[fl - 1] = '\0';
 
 
      rl_macro_bind (useq, &funname[1], _rl_keymap);
      rl_macro_bind (useq, &funname[1], _rl_keymap);
    }
    }
#if defined (PREFIX_META_HACK)
#if defined (PREFIX_META_HACK)
  /* Ugly, but working hack to keep prefix-meta around. */
  /* Ugly, but working hack to keep prefix-meta around. */
  else if (_rl_stricmp (funname, "prefix-meta") == 0)
  else if (_rl_stricmp (funname, "prefix-meta") == 0)
    {
    {
      char seq[2];
      char seq[2];
 
 
      seq[0] = key;
      seq[0] = key;
      seq[1] = '\0';
      seq[1] = '\0';
      rl_generic_bind (ISKMAP, seq, (char *)emacs_meta_keymap, _rl_keymap);
      rl_generic_bind (ISKMAP, seq, (char *)emacs_meta_keymap, _rl_keymap);
    }
    }
#endif /* PREFIX_META_HACK */
#endif /* PREFIX_META_HACK */
  else
  else
    rl_bind_key (key, rl_named_function (funname));
    rl_bind_key (key, rl_named_function (funname));
  return 0;
  return 0;
}
}
 
 
/* Simple structure for boolean readline variables (i.e., those that can
/* Simple structure for boolean readline variables (i.e., those that can
   have one of two values; either "On" or 1 for truth, or "Off" or 0 for
   have one of two values; either "On" or 1 for truth, or "Off" or 0 for
   false. */
   false. */
 
 
#define V_SPECIAL       0x1
#define V_SPECIAL       0x1
 
 
static struct {
static struct {
  const char *name;
  const char *name;
  int *value;
  int *value;
  int flags;
  int flags;
} boolean_varlist [] = {
} boolean_varlist [] = {
  { "bind-tty-special-chars",   &_rl_bind_stty_chars,           0 },
  { "bind-tty-special-chars",   &_rl_bind_stty_chars,           0 },
  { "blink-matching-paren",     &rl_blink_matching_paren,       V_SPECIAL },
  { "blink-matching-paren",     &rl_blink_matching_paren,       V_SPECIAL },
  { "byte-oriented",            &rl_byte_oriented,              0 },
  { "byte-oriented",            &rl_byte_oriented,              0 },
  { "completion-ignore-case",   &_rl_completion_case_fold,      0 },
  { "completion-ignore-case",   &_rl_completion_case_fold,      0 },
  { "convert-meta",             &_rl_convert_meta_chars_to_ascii, 0 },
  { "convert-meta",             &_rl_convert_meta_chars_to_ascii, 0 },
  { "disable-completion",       &rl_inhibit_completion,         0 },
  { "disable-completion",       &rl_inhibit_completion,         0 },
  { "enable-keypad",            &_rl_enable_keypad,             0 },
  { "enable-keypad",            &_rl_enable_keypad,             0 },
  { "expand-tilde",             &rl_complete_with_tilde_expansion, 0 },
  { "expand-tilde",             &rl_complete_with_tilde_expansion, 0 },
  { "history-preserve-point",   &_rl_history_preserve_point,    0 },
  { "history-preserve-point",   &_rl_history_preserve_point,    0 },
  { "horizontal-scroll-mode",   &_rl_horizontal_scroll_mode,    0 },
  { "horizontal-scroll-mode",   &_rl_horizontal_scroll_mode,    0 },
  { "input-meta",               &_rl_meta_flag,                 0 },
  { "input-meta",               &_rl_meta_flag,                 0 },
  { "mark-directories",         &_rl_complete_mark_directories, 0 },
  { "mark-directories",         &_rl_complete_mark_directories, 0 },
  { "mark-modified-lines",      &_rl_mark_modified_lines,       0 },
  { "mark-modified-lines",      &_rl_mark_modified_lines,       0 },
  { "mark-symlinked-directories", &_rl_complete_mark_symlink_dirs, 0 },
  { "mark-symlinked-directories", &_rl_complete_mark_symlink_dirs, 0 },
  { "match-hidden-files",       &_rl_match_hidden_files,        0 },
  { "match-hidden-files",       &_rl_match_hidden_files,        0 },
  { "meta-flag",                &_rl_meta_flag,                 0 },
  { "meta-flag",                &_rl_meta_flag,                 0 },
  { "output-meta",              &_rl_output_meta_chars,         0 },
  { "output-meta",              &_rl_output_meta_chars,         0 },
  { "page-completions",         &_rl_page_completions,          0 },
  { "page-completions",         &_rl_page_completions,          0 },
  { "prefer-visible-bell",      &_rl_prefer_visible_bell,       V_SPECIAL },
  { "prefer-visible-bell",      &_rl_prefer_visible_bell,       V_SPECIAL },
  { "print-completions-horizontally", &_rl_print_completions_horizontally, 0 },
  { "print-completions-horizontally", &_rl_print_completions_horizontally, 0 },
  { "show-all-if-ambiguous",    &_rl_complete_show_all,         0 },
  { "show-all-if-ambiguous",    &_rl_complete_show_all,         0 },
  { "show-all-if-unmodified",   &_rl_complete_show_unmodified,  0 },
  { "show-all-if-unmodified",   &_rl_complete_show_unmodified,  0 },
#if defined (VISIBLE_STATS)
#if defined (VISIBLE_STATS)
  { "visible-stats",            &rl_visible_stats,              0 },
  { "visible-stats",            &rl_visible_stats,              0 },
#endif /* VISIBLE_STATS */
#endif /* VISIBLE_STATS */
  { (char *)NULL, (int *)NULL }
  { (char *)NULL, (int *)NULL }
};
};
 
 
static int
static int
find_boolean_var (name)
find_boolean_var (name)
     const char *name;
     const char *name;
{
{
  register int i;
  register int i;
 
 
  for (i = 0; boolean_varlist[i].name; i++)
  for (i = 0; boolean_varlist[i].name; i++)
    if (_rl_stricmp (name, boolean_varlist[i].name) == 0)
    if (_rl_stricmp (name, boolean_varlist[i].name) == 0)
      return i;
      return i;
  return -1;
  return -1;
}
}
 
 
/* Hooks for handling special boolean variables, where a
/* Hooks for handling special boolean variables, where a
   function needs to be called or another variable needs
   function needs to be called or another variable needs
   to be changed when they're changed. */
   to be changed when they're changed. */
static void
static void
hack_special_boolean_var (i)
hack_special_boolean_var (i)
     int i;
     int i;
{
{
  const char *name;
  const char *name;
 
 
  name = boolean_varlist[i].name;
  name = boolean_varlist[i].name;
 
 
  if (_rl_stricmp (name, "blink-matching-paren") == 0)
  if (_rl_stricmp (name, "blink-matching-paren") == 0)
    _rl_enable_paren_matching (rl_blink_matching_paren);
    _rl_enable_paren_matching (rl_blink_matching_paren);
  else if (_rl_stricmp (name, "prefer-visible-bell") == 0)
  else if (_rl_stricmp (name, "prefer-visible-bell") == 0)
    {
    {
      if (_rl_prefer_visible_bell)
      if (_rl_prefer_visible_bell)
        _rl_bell_preference = VISIBLE_BELL;
        _rl_bell_preference = VISIBLE_BELL;
      else
      else
        _rl_bell_preference = AUDIBLE_BELL;
        _rl_bell_preference = AUDIBLE_BELL;
    }
    }
}
}
 
 
typedef int _rl_sv_func_t PARAMS((const char *));
typedef int _rl_sv_func_t PARAMS((const char *));
 
 
/* These *must* correspond to the array indices for the appropriate
/* These *must* correspond to the array indices for the appropriate
   string variable.  (Though they're not used right now.) */
   string variable.  (Though they're not used right now.) */
#define V_BELLSTYLE     0
#define V_BELLSTYLE     0
#define V_COMBEGIN      1
#define V_COMBEGIN      1
#define V_EDITMODE      2
#define V_EDITMODE      2
#define V_ISRCHTERM     3
#define V_ISRCHTERM     3
#define V_KEYMAP        4
#define V_KEYMAP        4
 
 
#define V_STRING        1
#define V_STRING        1
#define V_INT           2
#define V_INT           2
 
 
/* Forward declarations */
/* Forward declarations */
static int sv_bell_style PARAMS((const char *));
static int sv_bell_style PARAMS((const char *));
static int sv_combegin PARAMS((const char *));
static int sv_combegin PARAMS((const char *));
static int sv_compquery PARAMS((const char *));
static int sv_compquery PARAMS((const char *));
static int sv_editmode PARAMS((const char *));
static int sv_editmode PARAMS((const char *));
static int sv_isrchterm PARAMS((const char *));
static int sv_isrchterm PARAMS((const char *));
static int sv_keymap PARAMS((const char *));
static int sv_keymap PARAMS((const char *));
 
 
static struct {
static struct {
  const char *name;
  const char *name;
  int flags;
  int flags;
  _rl_sv_func_t *set_func;
  _rl_sv_func_t *set_func;
} string_varlist[] = {
} string_varlist[] = {
  { "bell-style",       V_STRING,       sv_bell_style },
  { "bell-style",       V_STRING,       sv_bell_style },
  { "comment-begin",    V_STRING,       sv_combegin },
  { "comment-begin",    V_STRING,       sv_combegin },
  { "completion-query-items", V_INT,    sv_compquery },
  { "completion-query-items", V_INT,    sv_compquery },
  { "editing-mode",     V_STRING,       sv_editmode },
  { "editing-mode",     V_STRING,       sv_editmode },
  { "isearch-terminators", V_STRING,    sv_isrchterm },
  { "isearch-terminators", V_STRING,    sv_isrchterm },
  { "keymap",           V_STRING,       sv_keymap },
  { "keymap",           V_STRING,       sv_keymap },
  { (char *)NULL,       0 }
  { (char *)NULL,       0 }
};
};
 
 
static int
static int
find_string_var (name)
find_string_var (name)
     const char *name;
     const char *name;
{
{
  register int i;
  register int i;
 
 
  for (i = 0; string_varlist[i].name; i++)
  for (i = 0; string_varlist[i].name; i++)
    if (_rl_stricmp (name, string_varlist[i].name) == 0)
    if (_rl_stricmp (name, string_varlist[i].name) == 0)
      return i;
      return i;
  return -1;
  return -1;
}
}
 
 
/* A boolean value that can appear in a `set variable' command is true if
/* A boolean value that can appear in a `set variable' command is true if
   the value is null or empty, `on' (case-insenstive), or "1".  Any other
   the value is null or empty, `on' (case-insenstive), or "1".  Any other
   values result in 0 (false). */
   values result in 0 (false). */
static int
static int
bool_to_int (value)
bool_to_int (value)
     const char *value;
     const char *value;
{
{
  return (value == 0 || *value == '\0' ||
  return (value == 0 || *value == '\0' ||
                (_rl_stricmp (value, "on") == 0) ||
                (_rl_stricmp (value, "on") == 0) ||
                (value[0] == '1' && value[1] == '\0'));
                (value[0] == '1' && value[1] == '\0'));
}
}
 
 
char *
char *
rl_variable_value (name)
rl_variable_value (name)
     const char *name;
     const char *name;
{
{
  register int i;
  register int i;
  int   v;
  int   v;
  char *ret;
  char *ret;
 
 
  /* Check for simple variables first. */
  /* Check for simple variables first. */
  i = find_boolean_var (name);
  i = find_boolean_var (name);
  if (i >= 0)
  if (i >= 0)
    return (*boolean_varlist[i].value ? "on" : "off");
    return (*boolean_varlist[i].value ? "on" : "off");
 
 
  i = find_string_var (name);
  i = find_string_var (name);
  if (i >= 0)
  if (i >= 0)
    return (_rl_get_string_variable_value (string_varlist[i].name));
    return (_rl_get_string_variable_value (string_varlist[i].name));
 
 
  /* Unknown variable names return NULL. */
  /* Unknown variable names return NULL. */
  return 0;
  return 0;
}
}
 
 
int
int
rl_variable_bind (name, value)
rl_variable_bind (name, value)
     const char *name, *value;
     const char *name, *value;
{
{
  register int i;
  register int i;
  int   v;
  int   v;
 
 
  /* Check for simple variables first. */
  /* Check for simple variables first. */
  i = find_boolean_var (name);
  i = find_boolean_var (name);
  if (i >= 0)
  if (i >= 0)
    {
    {
      *boolean_varlist[i].value = bool_to_int (value);
      *boolean_varlist[i].value = bool_to_int (value);
      if (boolean_varlist[i].flags & V_SPECIAL)
      if (boolean_varlist[i].flags & V_SPECIAL)
        hack_special_boolean_var (i);
        hack_special_boolean_var (i);
      return 0;
      return 0;
    }
    }
 
 
  i = find_string_var (name);
  i = find_string_var (name);
 
 
  /* For the time being, unknown variable names or string names without a
  /* For the time being, unknown variable names or string names without a
     handler function are simply ignored. */
     handler function are simply ignored. */
  if (i < 0 || string_varlist[i].set_func == 0)
  if (i < 0 || string_varlist[i].set_func == 0)
    return 0;
    return 0;
 
 
  v = (*string_varlist[i].set_func) (value);
  v = (*string_varlist[i].set_func) (value);
  return v;
  return v;
}
}
 
 
static int
static int
sv_editmode (value)
sv_editmode (value)
     const char *value;
     const char *value;
{
{
  if (_rl_strnicmp (value, "vi", 2) == 0)
  if (_rl_strnicmp (value, "vi", 2) == 0)
    {
    {
#if defined (VI_MODE)
#if defined (VI_MODE)
      _rl_keymap = vi_insertion_keymap;
      _rl_keymap = vi_insertion_keymap;
      rl_editing_mode = vi_mode;
      rl_editing_mode = vi_mode;
#endif /* VI_MODE */
#endif /* VI_MODE */
      return 0;
      return 0;
    }
    }
  else if (_rl_strnicmp (value, "emacs", 5) == 0)
  else if (_rl_strnicmp (value, "emacs", 5) == 0)
    {
    {
      _rl_keymap = emacs_standard_keymap;
      _rl_keymap = emacs_standard_keymap;
      rl_editing_mode = emacs_mode;
      rl_editing_mode = emacs_mode;
      return 0;
      return 0;
    }
    }
  return 1;
  return 1;
}
}
 
 
static int
static int
sv_combegin (value)
sv_combegin (value)
     const char *value;
     const char *value;
{
{
  if (value && *value)
  if (value && *value)
    {
    {
      FREE (_rl_comment_begin);
      FREE (_rl_comment_begin);
      _rl_comment_begin = savestring (value);
      _rl_comment_begin = savestring (value);
      return 0;
      return 0;
    }
    }
  return 1;
  return 1;
}
}
 
 
static int
static int
sv_compquery (value)
sv_compquery (value)
     const char *value;
     const char *value;
{
{
  int nval = 100;
  int nval = 100;
 
 
  if (value && *value)
  if (value && *value)
    {
    {
      nval = atoi (value);
      nval = atoi (value);
      if (nval < 0)
      if (nval < 0)
        nval = 0;
        nval = 0;
    }
    }
  rl_completion_query_items = nval;
  rl_completion_query_items = nval;
  return 0;
  return 0;
}
}
 
 
static int
static int
sv_keymap (value)
sv_keymap (value)
     const char *value;
     const char *value;
{
{
  Keymap kmap;
  Keymap kmap;
 
 
  kmap = rl_get_keymap_by_name (value);
  kmap = rl_get_keymap_by_name (value);
  if (kmap)
  if (kmap)
    {
    {
      rl_set_keymap (kmap);
      rl_set_keymap (kmap);
      return 0;
      return 0;
    }
    }
  return 1;
  return 1;
}
}
 
 
static int
static int
sv_bell_style (value)
sv_bell_style (value)
     const char *value;
     const char *value;
{
{
  if (value == 0 || *value == '\0')
  if (value == 0 || *value == '\0')
    _rl_bell_preference = AUDIBLE_BELL;
    _rl_bell_preference = AUDIBLE_BELL;
  else if (_rl_stricmp (value, "none") == 0 || _rl_stricmp (value, "off") == 0)
  else if (_rl_stricmp (value, "none") == 0 || _rl_stricmp (value, "off") == 0)
    _rl_bell_preference = NO_BELL;
    _rl_bell_preference = NO_BELL;
  else if (_rl_stricmp (value, "audible") == 0 || _rl_stricmp (value, "on") == 0)
  else if (_rl_stricmp (value, "audible") == 0 || _rl_stricmp (value, "on") == 0)
    _rl_bell_preference = AUDIBLE_BELL;
    _rl_bell_preference = AUDIBLE_BELL;
  else if (_rl_stricmp (value, "visible") == 0)
  else if (_rl_stricmp (value, "visible") == 0)
    _rl_bell_preference = VISIBLE_BELL;
    _rl_bell_preference = VISIBLE_BELL;
  else
  else
    return 1;
    return 1;
  return 0;
  return 0;
}
}
 
 
static int
static int
sv_isrchterm (value)
sv_isrchterm (value)
     const char *value;
     const char *value;
{
{
  int beg, end, delim;
  int beg, end, delim;
  char *v;
  char *v;
 
 
  if (value == 0)
  if (value == 0)
    return 1;
    return 1;
 
 
  /* Isolate the value and translate it into a character string. */
  /* Isolate the value and translate it into a character string. */
  v = savestring (value);
  v = savestring (value);
  FREE (_rl_isearch_terminators);
  FREE (_rl_isearch_terminators);
  if (v[0] == '"' || v[0] == '\'')
  if (v[0] == '"' || v[0] == '\'')
    {
    {
      delim = v[0];
      delim = v[0];
      for (beg = end = 1; v[end] && v[end] != delim; end++)
      for (beg = end = 1; v[end] && v[end] != delim; end++)
        ;
        ;
    }
    }
  else
  else
    {
    {
      for (beg = end = 0; whitespace (v[end]) == 0; end++)
      for (beg = end = 0; whitespace (v[end]) == 0; end++)
        ;
        ;
    }
    }
 
 
  v[end] = '\0';
  v[end] = '\0';
 
 
  /* The value starts at v + beg.  Translate it into a character string. */
  /* The value starts at v + beg.  Translate it into a character string. */
  _rl_isearch_terminators = (char *)xmalloc (2 * strlen (v) + 1);
  _rl_isearch_terminators = (char *)xmalloc (2 * strlen (v) + 1);
  rl_translate_keyseq (v + beg, _rl_isearch_terminators, &end);
  rl_translate_keyseq (v + beg, _rl_isearch_terminators, &end);
  _rl_isearch_terminators[end] = '\0';
  _rl_isearch_terminators[end] = '\0';
 
 
  free (v);
  free (v);
  return 0;
  return 0;
}
}
 
 
/* Return the character which matches NAME.
/* Return the character which matches NAME.
   For example, `Space' returns ' '. */
   For example, `Space' returns ' '. */
 
 
typedef struct {
typedef struct {
  const char *name;
  const char *name;
  int value;
  int value;
} assoc_list;
} assoc_list;
 
 
static assoc_list name_key_alist[] = {
static assoc_list name_key_alist[] = {
  { "DEL", 0x7f },
  { "DEL", 0x7f },
  { "ESC", '\033' },
  { "ESC", '\033' },
  { "Escape", '\033' },
  { "Escape", '\033' },
  { "LFD", '\n' },
  { "LFD", '\n' },
  { "Newline", '\n' },
  { "Newline", '\n' },
  { "RET", '\r' },
  { "RET", '\r' },
  { "Return", '\r' },
  { "Return", '\r' },
  { "Rubout", 0x7f },
  { "Rubout", 0x7f },
  { "SPC", ' ' },
  { "SPC", ' ' },
  { "Space", ' ' },
  { "Space", ' ' },
  { "Tab", 0x09 },
  { "Tab", 0x09 },
  { (char *)0x0, 0 }
  { (char *)0x0, 0 }
};
};
 
 
static int
static int
glean_key_from_name (name)
glean_key_from_name (name)
     char *name;
     char *name;
{
{
  register int i;
  register int i;
 
 
  for (i = 0; name_key_alist[i].name; i++)
  for (i = 0; name_key_alist[i].name; i++)
    if (_rl_stricmp (name, name_key_alist[i].name) == 0)
    if (_rl_stricmp (name, name_key_alist[i].name) == 0)
      return (name_key_alist[i].value);
      return (name_key_alist[i].value);
 
 
  return (*(unsigned char *)name);      /* XXX was return (*name) */
  return (*(unsigned char *)name);      /* XXX was return (*name) */
}
}
 
 
/* Auxiliary functions to manage keymaps. */
/* Auxiliary functions to manage keymaps. */
static struct {
static struct {
  const char *name;
  const char *name;
  Keymap map;
  Keymap map;
} keymap_names[] = {
} keymap_names[] = {
  { "emacs", emacs_standard_keymap },
  { "emacs", emacs_standard_keymap },
  { "emacs-standard", emacs_standard_keymap },
  { "emacs-standard", emacs_standard_keymap },
  { "emacs-meta", emacs_meta_keymap },
  { "emacs-meta", emacs_meta_keymap },
  { "emacs-ctlx", emacs_ctlx_keymap },
  { "emacs-ctlx", emacs_ctlx_keymap },
#if defined (VI_MODE)
#if defined (VI_MODE)
  { "vi", vi_movement_keymap },
  { "vi", vi_movement_keymap },
  { "vi-move", vi_movement_keymap },
  { "vi-move", vi_movement_keymap },
  { "vi-command", vi_movement_keymap },
  { "vi-command", vi_movement_keymap },
  { "vi-insert", vi_insertion_keymap },
  { "vi-insert", vi_insertion_keymap },
#endif /* VI_MODE */
#endif /* VI_MODE */
  { (char *)0x0, (Keymap)0x0 }
  { (char *)0x0, (Keymap)0x0 }
};
};
 
 
Keymap
Keymap
rl_get_keymap_by_name (name)
rl_get_keymap_by_name (name)
     const char *name;
     const char *name;
{
{
  register int i;
  register int i;
 
 
  for (i = 0; keymap_names[i].name; i++)
  for (i = 0; keymap_names[i].name; i++)
    if (_rl_stricmp (name, keymap_names[i].name) == 0)
    if (_rl_stricmp (name, keymap_names[i].name) == 0)
      return (keymap_names[i].map);
      return (keymap_names[i].map);
  return ((Keymap) NULL);
  return ((Keymap) NULL);
}
}
 
 
char *
char *
rl_get_keymap_name (map)
rl_get_keymap_name (map)
     Keymap map;
     Keymap map;
{
{
  register int i;
  register int i;
  for (i = 0; keymap_names[i].name; i++)
  for (i = 0; keymap_names[i].name; i++)
    if (map == keymap_names[i].map)
    if (map == keymap_names[i].map)
      return ((char *)keymap_names[i].name);
      return ((char *)keymap_names[i].name);
  return ((char *)NULL);
  return ((char *)NULL);
}
}
 
 
void
void
rl_set_keymap (map)
rl_set_keymap (map)
     Keymap map;
     Keymap map;
{
{
  if (map)
  if (map)
    _rl_keymap = map;
    _rl_keymap = map;
}
}
 
 
Keymap
Keymap
rl_get_keymap ()
rl_get_keymap ()
{
{
  return (_rl_keymap);
  return (_rl_keymap);
}
}
 
 
void
void
rl_set_keymap_from_edit_mode ()
rl_set_keymap_from_edit_mode ()
{
{
  if (rl_editing_mode == emacs_mode)
  if (rl_editing_mode == emacs_mode)
    _rl_keymap = emacs_standard_keymap;
    _rl_keymap = emacs_standard_keymap;
#if defined (VI_MODE)
#if defined (VI_MODE)
  else if (rl_editing_mode == vi_mode)
  else if (rl_editing_mode == vi_mode)
    _rl_keymap = vi_insertion_keymap;
    _rl_keymap = vi_insertion_keymap;
#endif /* VI_MODE */
#endif /* VI_MODE */
}
}
 
 
char *
char *
rl_get_keymap_name_from_edit_mode ()
rl_get_keymap_name_from_edit_mode ()
{
{
  if (rl_editing_mode == emacs_mode)
  if (rl_editing_mode == emacs_mode)
    return "emacs";
    return "emacs";
#if defined (VI_MODE)
#if defined (VI_MODE)
  else if (rl_editing_mode == vi_mode)
  else if (rl_editing_mode == vi_mode)
    return "vi";
    return "vi";
#endif /* VI_MODE */
#endif /* VI_MODE */
  else
  else
    return "none";
    return "none";
}
}
 
 
/* **************************************************************** */
/* **************************************************************** */
/*                                                                  */
/*                                                                  */
/*                Key Binding and Function Information              */
/*                Key Binding and Function Information              */
/*                                                                  */
/*                                                                  */
/* **************************************************************** */
/* **************************************************************** */
 
 
/* Each of the following functions produces information about the
/* Each of the following functions produces information about the
   state of keybindings and functions known to Readline.  The info
   state of keybindings and functions known to Readline.  The info
   is always printed to rl_outstream, and in such a way that it can
   is always printed to rl_outstream, and in such a way that it can
   be read back in (i.e., passed to rl_parse_and_bind ()). */
   be read back in (i.e., passed to rl_parse_and_bind ()). */
 
 
/* Print the names of functions known to Readline. */
/* Print the names of functions known to Readline. */
void
void
rl_list_funmap_names ()
rl_list_funmap_names ()
{
{
  register int i;
  register int i;
  const char **funmap_names;
  const char **funmap_names;
 
 
  funmap_names = rl_funmap_names ();
  funmap_names = rl_funmap_names ();
 
 
  if (!funmap_names)
  if (!funmap_names)
    return;
    return;
 
 
  for (i = 0; funmap_names[i]; i++)
  for (i = 0; funmap_names[i]; i++)
    fprintf (rl_outstream, "%s\n", funmap_names[i]);
    fprintf (rl_outstream, "%s\n", funmap_names[i]);
 
 
  free (funmap_names);
  free (funmap_names);
}
}
 
 
static char *
static char *
_rl_get_keyname (key)
_rl_get_keyname (key)
     int key;
     int key;
{
{
  char *keyname;
  char *keyname;
  int i, c;
  int i, c;
 
 
  keyname = (char *)xmalloc (8);
  keyname = (char *)xmalloc (8);
 
 
  c = key;
  c = key;
  /* Since this is going to be used to write out keysequence-function
  /* Since this is going to be used to write out keysequence-function
     pairs for possible inclusion in an inputrc file, we don't want to
     pairs for possible inclusion in an inputrc file, we don't want to
     do any special meta processing on KEY. */
     do any special meta processing on KEY. */
 
 
#if 1
#if 1
  /* XXX - Experimental */
  /* XXX - Experimental */
  /* We might want to do this, but the old version of the code did not. */
  /* We might want to do this, but the old version of the code did not. */
 
 
  /* If this is an escape character, we don't want to do any more processing.
  /* If this is an escape character, we don't want to do any more processing.
     Just add the special ESC key sequence and return. */
     Just add the special ESC key sequence and return. */
  if (c == ESC)
  if (c == ESC)
    {
    {
      keyname[0] = '\\';
      keyname[0] = '\\';
      keyname[1] = 'e';
      keyname[1] = 'e';
      keyname[2] = '\0';
      keyname[2] = '\0';
      return keyname;
      return keyname;
    }
    }
#endif
#endif
 
 
  /* RUBOUT is translated directly into \C-? */
  /* RUBOUT is translated directly into \C-? */
  if (key == RUBOUT)
  if (key == RUBOUT)
    {
    {
      keyname[0] = '\\';
      keyname[0] = '\\';
      keyname[1] = 'C';
      keyname[1] = 'C';
      keyname[2] = '-';
      keyname[2] = '-';
      keyname[3] = '?';
      keyname[3] = '?';
      keyname[4] = '\0';
      keyname[4] = '\0';
      return keyname;
      return keyname;
    }
    }
 
 
  i = 0;
  i = 0;
  /* Now add special prefixes needed for control characters.  This can
  /* Now add special prefixes needed for control characters.  This can
     potentially change C. */
     potentially change C. */
  if (CTRL_CHAR (c))
  if (CTRL_CHAR (c))
    {
    {
      keyname[i++] = '\\';
      keyname[i++] = '\\';
      keyname[i++] = 'C';
      keyname[i++] = 'C';
      keyname[i++] = '-';
      keyname[i++] = '-';
      c = _rl_to_lower (UNCTRL (c));
      c = _rl_to_lower (UNCTRL (c));
    }
    }
 
 
  /* XXX experimental code.  Turn the characters that are not ASCII or
  /* XXX experimental code.  Turn the characters that are not ASCII or
     ISO Latin 1 (128 - 159) into octal escape sequences (\200 - \237).
     ISO Latin 1 (128 - 159) into octal escape sequences (\200 - \237).
     This changes C. */
     This changes C. */
  if (c >= 128 && c <= 159)
  if (c >= 128 && c <= 159)
    {
    {
      keyname[i++] = '\\';
      keyname[i++] = '\\';
      keyname[i++] = '2';
      keyname[i++] = '2';
      c -= 128;
      c -= 128;
      keyname[i++] = (c / 8) + '0';
      keyname[i++] = (c / 8) + '0';
      c = (c % 8) + '0';
      c = (c % 8) + '0';
    }
    }
 
 
  /* Now, if the character needs to be quoted with a backslash, do that. */
  /* Now, if the character needs to be quoted with a backslash, do that. */
  if (c == '\\' || c == '"')
  if (c == '\\' || c == '"')
    keyname[i++] = '\\';
    keyname[i++] = '\\';
 
 
  /* Now add the key, terminate the string, and return it. */
  /* Now add the key, terminate the string, and return it. */
  keyname[i++] = (char) c;
  keyname[i++] = (char) c;
  keyname[i] = '\0';
  keyname[i] = '\0';
 
 
  return keyname;
  return keyname;
}
}
 
 
/* Return a NULL terminated array of strings which represent the key
/* Return a NULL terminated array of strings which represent the key
   sequences that are used to invoke FUNCTION in MAP. */
   sequences that are used to invoke FUNCTION in MAP. */
char **
char **
rl_invoking_keyseqs_in_map (function, map)
rl_invoking_keyseqs_in_map (function, map)
     rl_command_func_t *function;
     rl_command_func_t *function;
     Keymap map;
     Keymap map;
{
{
  register int key;
  register int key;
  char **result;
  char **result;
  int result_index, result_size;
  int result_index, result_size;
 
 
  result = (char **)NULL;
  result = (char **)NULL;
  result_index = result_size = 0;
  result_index = result_size = 0;
 
 
  for (key = 0; key < KEYMAP_SIZE; key++)
  for (key = 0; key < KEYMAP_SIZE; key++)
    {
    {
      switch (map[key].type)
      switch (map[key].type)
        {
        {
        case ISMACR:
        case ISMACR:
          /* Macros match, if, and only if, the pointers are identical.
          /* Macros match, if, and only if, the pointers are identical.
             Thus, they are treated exactly like functions in here. */
             Thus, they are treated exactly like functions in here. */
        case ISFUNC:
        case ISFUNC:
          /* If the function in the keymap is the one we are looking for,
          /* If the function in the keymap is the one we are looking for,
             then add the current KEY to the list of invoking keys. */
             then add the current KEY to the list of invoking keys. */
          if (map[key].function == function)
          if (map[key].function == function)
            {
            {
              char *keyname;
              char *keyname;
 
 
              keyname = _rl_get_keyname (key);
              keyname = _rl_get_keyname (key);
 
 
              if (result_index + 2 > result_size)
              if (result_index + 2 > result_size)
                {
                {
                  result_size += 10;
                  result_size += 10;
                  result = (char **)xrealloc (result, result_size * sizeof (char *));
                  result = (char **)xrealloc (result, result_size * sizeof (char *));
                }
                }
 
 
              result[result_index++] = keyname;
              result[result_index++] = keyname;
              result[result_index] = (char *)NULL;
              result[result_index] = (char *)NULL;
            }
            }
          break;
          break;
 
 
        case ISKMAP:
        case ISKMAP:
          {
          {
            char **seqs;
            char **seqs;
            register int i;
            register int i;
 
 
            /* Find the list of keyseqs in this map which have FUNCTION as
            /* Find the list of keyseqs in this map which have FUNCTION as
               their target.  Add the key sequences found to RESULT. */
               their target.  Add the key sequences found to RESULT. */
            if (map[key].function)
            if (map[key].function)
              seqs =
              seqs =
                rl_invoking_keyseqs_in_map (function, FUNCTION_TO_KEYMAP (map, key));
                rl_invoking_keyseqs_in_map (function, FUNCTION_TO_KEYMAP (map, key));
            else
            else
              break;
              break;
 
 
            if (seqs == 0)
            if (seqs == 0)
              break;
              break;
 
 
            for (i = 0; seqs[i]; i++)
            for (i = 0; seqs[i]; i++)
              {
              {
                char *keyname = (char *)xmalloc (6 + strlen (seqs[i]));
                char *keyname = (char *)xmalloc (6 + strlen (seqs[i]));
 
 
                if (key == ESC)
                if (key == ESC)
#if 0
#if 0
                  sprintf (keyname, "\\e");
                  sprintf (keyname, "\\e");
#else
#else
                /* XXX - experimental */
                /* XXX - experimental */
                  sprintf (keyname, "\\M-");
                  sprintf (keyname, "\\M-");
#endif
#endif
                else if (CTRL_CHAR (key))
                else if (CTRL_CHAR (key))
                  sprintf (keyname, "\\C-%c", _rl_to_lower (UNCTRL (key)));
                  sprintf (keyname, "\\C-%c", _rl_to_lower (UNCTRL (key)));
                else if (key == RUBOUT)
                else if (key == RUBOUT)
                  sprintf (keyname, "\\C-?");
                  sprintf (keyname, "\\C-?");
                else if (key == '\\' || key == '"')
                else if (key == '\\' || key == '"')
                  {
                  {
                    keyname[0] = '\\';
                    keyname[0] = '\\';
                    keyname[1] = (char) key;
                    keyname[1] = (char) key;
                    keyname[2] = '\0';
                    keyname[2] = '\0';
                  }
                  }
                else
                else
                  {
                  {
                    keyname[0] = (char) key;
                    keyname[0] = (char) key;
                    keyname[1] = '\0';
                    keyname[1] = '\0';
                  }
                  }
 
 
                strcat (keyname, seqs[i]);
                strcat (keyname, seqs[i]);
                free (seqs[i]);
                free (seqs[i]);
 
 
                if (result_index + 2 > result_size)
                if (result_index + 2 > result_size)
                  {
                  {
                    result_size += 10;
                    result_size += 10;
                    result = (char **)xrealloc (result, result_size * sizeof (char *));
                    result = (char **)xrealloc (result, result_size * sizeof (char *));
                  }
                  }
 
 
                result[result_index++] = keyname;
                result[result_index++] = keyname;
                result[result_index] = (char *)NULL;
                result[result_index] = (char *)NULL;
              }
              }
 
 
            free (seqs);
            free (seqs);
          }
          }
          break;
          break;
        }
        }
    }
    }
  return (result);
  return (result);
}
}
 
 
/* Return a NULL terminated array of strings which represent the key
/* Return a NULL terminated array of strings which represent the key
   sequences that can be used to invoke FUNCTION using the current keymap. */
   sequences that can be used to invoke FUNCTION using the current keymap. */
char **
char **
rl_invoking_keyseqs (function)
rl_invoking_keyseqs (function)
     rl_command_func_t *function;
     rl_command_func_t *function;
{
{
  return (rl_invoking_keyseqs_in_map (function, _rl_keymap));
  return (rl_invoking_keyseqs_in_map (function, _rl_keymap));
}
}
 
 
/* Print all of the functions and their bindings to rl_outstream.  If
/* Print all of the functions and their bindings to rl_outstream.  If
   PRINT_READABLY is non-zero, then print the output in such a way
   PRINT_READABLY is non-zero, then print the output in such a way
   that it can be read back in. */
   that it can be read back in. */
void
void
rl_function_dumper (print_readably)
rl_function_dumper (print_readably)
     int print_readably;
     int print_readably;
{
{
  register int i;
  register int i;
  const char **names;
  const char **names;
  const char *name;
  const char *name;
 
 
  names = rl_funmap_names ();
  names = rl_funmap_names ();
 
 
  fprintf (rl_outstream, "\n");
  fprintf (rl_outstream, "\n");
 
 
  for (i = 0; name = names[i]; i++)
  for (i = 0; name = names[i]; i++)
    {
    {
      rl_command_func_t *function;
      rl_command_func_t *function;
      char **invokers;
      char **invokers;
 
 
      function = rl_named_function (name);
      function = rl_named_function (name);
      invokers = rl_invoking_keyseqs_in_map (function, _rl_keymap);
      invokers = rl_invoking_keyseqs_in_map (function, _rl_keymap);
 
 
      if (print_readably)
      if (print_readably)
        {
        {
          if (!invokers)
          if (!invokers)
            fprintf (rl_outstream, "# %s (not bound)\n", name);
            fprintf (rl_outstream, "# %s (not bound)\n", name);
          else
          else
            {
            {
              register int j;
              register int j;
 
 
              for (j = 0; invokers[j]; j++)
              for (j = 0; invokers[j]; j++)
                {
                {
                  fprintf (rl_outstream, "\"%s\": %s\n",
                  fprintf (rl_outstream, "\"%s\": %s\n",
                           invokers[j], name);
                           invokers[j], name);
                  free (invokers[j]);
                  free (invokers[j]);
                }
                }
 
 
              free (invokers);
              free (invokers);
            }
            }
        }
        }
      else
      else
        {
        {
          if (!invokers)
          if (!invokers)
            fprintf (rl_outstream, "%s is not bound to any keys\n",
            fprintf (rl_outstream, "%s is not bound to any keys\n",
                     name);
                     name);
          else
          else
            {
            {
              register int j;
              register int j;
 
 
              fprintf (rl_outstream, "%s can be found on ", name);
              fprintf (rl_outstream, "%s can be found on ", name);
 
 
              for (j = 0; invokers[j] && j < 5; j++)
              for (j = 0; invokers[j] && j < 5; j++)
                {
                {
                  fprintf (rl_outstream, "\"%s\"%s", invokers[j],
                  fprintf (rl_outstream, "\"%s\"%s", invokers[j],
                           invokers[j + 1] ? ", " : ".\n");
                           invokers[j + 1] ? ", " : ".\n");
                }
                }
 
 
              if (j == 5 && invokers[j])
              if (j == 5 && invokers[j])
                fprintf (rl_outstream, "...\n");
                fprintf (rl_outstream, "...\n");
 
 
              for (j = 0; invokers[j]; j++)
              for (j = 0; invokers[j]; j++)
                free (invokers[j]);
                free (invokers[j]);
 
 
              free (invokers);
              free (invokers);
            }
            }
        }
        }
    }
    }
}
}
 
 
/* Print all of the current functions and their bindings to
/* Print all of the current functions and their bindings to
   rl_outstream.  If an explicit argument is given, then print
   rl_outstream.  If an explicit argument is given, then print
   the output in such a way that it can be read back in. */
   the output in such a way that it can be read back in. */
int
int
rl_dump_functions (count, key)
rl_dump_functions (count, key)
     int count, key;
     int count, key;
{
{
  if (rl_dispatching)
  if (rl_dispatching)
    fprintf (rl_outstream, "\r\n");
    fprintf (rl_outstream, "\r\n");
  rl_function_dumper (rl_explicit_arg);
  rl_function_dumper (rl_explicit_arg);
  rl_on_new_line ();
  rl_on_new_line ();
  return (0);
  return (0);
}
}
 
 
static void
static void
_rl_macro_dumper_internal (print_readably, map, prefix)
_rl_macro_dumper_internal (print_readably, map, prefix)
     int print_readably;
     int print_readably;
     Keymap map;
     Keymap map;
     char *prefix;
     char *prefix;
{
{
  register int key;
  register int key;
  char *keyname, *out;
  char *keyname, *out;
  int prefix_len;
  int prefix_len;
 
 
  for (key = 0; key < KEYMAP_SIZE; key++)
  for (key = 0; key < KEYMAP_SIZE; key++)
    {
    {
      switch (map[key].type)
      switch (map[key].type)
        {
        {
        case ISMACR:
        case ISMACR:
          keyname = _rl_get_keyname (key);
          keyname = _rl_get_keyname (key);
          out = _rl_untranslate_macro_value ((char *)map[key].function);
          out = _rl_untranslate_macro_value ((char *)map[key].function);
 
 
          if (print_readably)
          if (print_readably)
            fprintf (rl_outstream, "\"%s%s\": \"%s\"\n", prefix ? prefix : "",
            fprintf (rl_outstream, "\"%s%s\": \"%s\"\n", prefix ? prefix : "",
                                                         keyname,
                                                         keyname,
                                                         out ? out : "");
                                                         out ? out : "");
          else
          else
            fprintf (rl_outstream, "%s%s outputs %s\n", prefix ? prefix : "",
            fprintf (rl_outstream, "%s%s outputs %s\n", prefix ? prefix : "",
                                                        keyname,
                                                        keyname,
                                                        out ? out : "");
                                                        out ? out : "");
          free (keyname);
          free (keyname);
          free (out);
          free (out);
          break;
          break;
        case ISFUNC:
        case ISFUNC:
          break;
          break;
        case ISKMAP:
        case ISKMAP:
          prefix_len = prefix ? strlen (prefix) : 0;
          prefix_len = prefix ? strlen (prefix) : 0;
          if (key == ESC)
          if (key == ESC)
            {
            {
              keyname = (char *)xmalloc (3 + prefix_len);
              keyname = (char *)xmalloc (3 + prefix_len);
              if (prefix)
              if (prefix)
                strcpy (keyname, prefix);
                strcpy (keyname, prefix);
              keyname[prefix_len] = '\\';
              keyname[prefix_len] = '\\';
              keyname[prefix_len + 1] = 'e';
              keyname[prefix_len + 1] = 'e';
              keyname[prefix_len + 2] = '\0';
              keyname[prefix_len + 2] = '\0';
            }
            }
          else
          else
            {
            {
              keyname = _rl_get_keyname (key);
              keyname = _rl_get_keyname (key);
              if (prefix)
              if (prefix)
                {
                {
                  out = (char *)xmalloc (strlen (keyname) + prefix_len + 1);
                  out = (char *)xmalloc (strlen (keyname) + prefix_len + 1);
                  strcpy (out, prefix);
                  strcpy (out, prefix);
                  strcpy (out + prefix_len, keyname);
                  strcpy (out + prefix_len, keyname);
                  free (keyname);
                  free (keyname);
                  keyname = out;
                  keyname = out;
                }
                }
            }
            }
 
 
          _rl_macro_dumper_internal (print_readably, FUNCTION_TO_KEYMAP (map, key), keyname);
          _rl_macro_dumper_internal (print_readably, FUNCTION_TO_KEYMAP (map, key), keyname);
          free (keyname);
          free (keyname);
          break;
          break;
        }
        }
    }
    }
}
}
 
 
void
void
rl_macro_dumper (print_readably)
rl_macro_dumper (print_readably)
     int print_readably;
     int print_readably;
{
{
  _rl_macro_dumper_internal (print_readably, _rl_keymap, (char *)NULL);
  _rl_macro_dumper_internal (print_readably, _rl_keymap, (char *)NULL);
}
}
 
 
int
int
rl_dump_macros (count, key)
rl_dump_macros (count, key)
     int count, key;
     int count, key;
{
{
  if (rl_dispatching)
  if (rl_dispatching)
    fprintf (rl_outstream, "\r\n");
    fprintf (rl_outstream, "\r\n");
  rl_macro_dumper (rl_explicit_arg);
  rl_macro_dumper (rl_explicit_arg);
  rl_on_new_line ();
  rl_on_new_line ();
  return (0);
  return (0);
}
}
 
 
static char *
static char *
_rl_get_string_variable_value (name)
_rl_get_string_variable_value (name)
     const char *name;
     const char *name;
{
{
  static char numbuf[32];
  static char numbuf[32];
  char *ret;
  char *ret;
  int n;
  int n;
 
 
  if (_rl_stricmp (name, "bell-style") == 0)
  if (_rl_stricmp (name, "bell-style") == 0)
    {
    {
      switch (_rl_bell_preference)
      switch (_rl_bell_preference)
        {
        {
          case NO_BELL:
          case NO_BELL:
            return "none";
            return "none";
          case VISIBLE_BELL:
          case VISIBLE_BELL:
            return "visible";
            return "visible";
          case AUDIBLE_BELL:
          case AUDIBLE_BELL:
          default:
          default:
            return "audible";
            return "audible";
        }
        }
    }
    }
  else if (_rl_stricmp (name, "comment-begin") == 0)
  else if (_rl_stricmp (name, "comment-begin") == 0)
    return (_rl_comment_begin ? _rl_comment_begin : RL_COMMENT_BEGIN_DEFAULT);
    return (_rl_comment_begin ? _rl_comment_begin : RL_COMMENT_BEGIN_DEFAULT);
  else if (_rl_stricmp (name, "completion-query-items") == 0)
  else if (_rl_stricmp (name, "completion-query-items") == 0)
    {
    {
      sprintf (numbuf, "%d", rl_completion_query_items);
      sprintf (numbuf, "%d", rl_completion_query_items);
      return (numbuf);
      return (numbuf);
    }
    }
  else if (_rl_stricmp (name, "editing-mode") == 0)
  else if (_rl_stricmp (name, "editing-mode") == 0)
    return (rl_get_keymap_name_from_edit_mode ());
    return (rl_get_keymap_name_from_edit_mode ());
  else if (_rl_stricmp (name, "isearch-terminators") == 0)
  else if (_rl_stricmp (name, "isearch-terminators") == 0)
    {
    {
      if (_rl_isearch_terminators == 0)
      if (_rl_isearch_terminators == 0)
        return 0;
        return 0;
      ret = _rl_untranslate_macro_value (_rl_isearch_terminators);
      ret = _rl_untranslate_macro_value (_rl_isearch_terminators);
      if (ret)
      if (ret)
        {
        {
          strncpy (numbuf, ret, sizeof (numbuf) - 1);
          strncpy (numbuf, ret, sizeof (numbuf) - 1);
          free (ret);
          free (ret);
          numbuf[sizeof(numbuf) - 1] = '\0';
          numbuf[sizeof(numbuf) - 1] = '\0';
        }
        }
      else
      else
        numbuf[0] = '\0';
        numbuf[0] = '\0';
      return numbuf;
      return numbuf;
    }
    }
  else if (_rl_stricmp (name, "keymap") == 0)
  else if (_rl_stricmp (name, "keymap") == 0)
    {
    {
      ret = rl_get_keymap_name (_rl_keymap);
      ret = rl_get_keymap_name (_rl_keymap);
      if (ret == 0)
      if (ret == 0)
        ret = rl_get_keymap_name_from_edit_mode ();
        ret = rl_get_keymap_name_from_edit_mode ();
      return (ret ? ret : "none");
      return (ret ? ret : "none");
    }
    }
  else
  else
    return (0);
    return (0);
}
}
 
 
void
void
rl_variable_dumper (print_readably)
rl_variable_dumper (print_readably)
     int print_readably;
     int print_readably;
{
{
  int i;
  int i;
  char *v;
  char *v;
 
 
  for (i = 0; boolean_varlist[i].name; i++)
  for (i = 0; boolean_varlist[i].name; i++)
    {
    {
      if (print_readably)
      if (print_readably)
        fprintf (rl_outstream, "set %s %s\n", boolean_varlist[i].name,
        fprintf (rl_outstream, "set %s %s\n", boolean_varlist[i].name,
                               *boolean_varlist[i].value ? "on" : "off");
                               *boolean_varlist[i].value ? "on" : "off");
      else
      else
        fprintf (rl_outstream, "%s is set to `%s'\n", boolean_varlist[i].name,
        fprintf (rl_outstream, "%s is set to `%s'\n", boolean_varlist[i].name,
                               *boolean_varlist[i].value ? "on" : "off");
                               *boolean_varlist[i].value ? "on" : "off");
    }
    }
 
 
  for (i = 0; string_varlist[i].name; i++)
  for (i = 0; string_varlist[i].name; i++)
    {
    {
      v = _rl_get_string_variable_value (string_varlist[i].name);
      v = _rl_get_string_variable_value (string_varlist[i].name);
      if (v == 0)        /* _rl_isearch_terminators can be NULL */
      if (v == 0)        /* _rl_isearch_terminators can be NULL */
        continue;
        continue;
      if (print_readably)
      if (print_readably)
        fprintf (rl_outstream, "set %s %s\n", string_varlist[i].name, v);
        fprintf (rl_outstream, "set %s %s\n", string_varlist[i].name, v);
      else
      else
        fprintf (rl_outstream, "%s is set to `%s'\n", string_varlist[i].name, v);
        fprintf (rl_outstream, "%s is set to `%s'\n", string_varlist[i].name, v);
    }
    }
}
}
 
 
/* Print all of the current variables and their values to
/* Print all of the current variables and their values to
   rl_outstream.  If an explicit argument is given, then print
   rl_outstream.  If an explicit argument is given, then print
   the output in such a way that it can be read back in. */
   the output in such a way that it can be read back in. */
int
int
rl_dump_variables (count, key)
rl_dump_variables (count, key)
     int count, key;
     int count, key;
{
{
  if (rl_dispatching)
  if (rl_dispatching)
    fprintf (rl_outstream, "\r\n");
    fprintf (rl_outstream, "\r\n");
  rl_variable_dumper (rl_explicit_arg);
  rl_variable_dumper (rl_explicit_arg);
  rl_on_new_line ();
  rl_on_new_line ();
  return (0);
  return (0);
}
}
 
 
/* Return non-zero if any members of ARRAY are a substring in STRING. */
/* Return non-zero if any members of ARRAY are a substring in STRING. */
static int
static int
substring_member_of_array (string, array)
substring_member_of_array (string, array)
     char *string;
     char *string;
     const char **array;
     const char **array;
{
{
  while (*array)
  while (*array)
    {
    {
      if (_rl_strindex (string, *array))
      if (_rl_strindex (string, *array))
        return (1);
        return (1);
      array++;
      array++;
    }
    }
  return (0);
  return (0);
}
}
 
 

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