########################################################################
##
## Copyright (C) 2007-2023 The Octave Project Developers
##
## See the file COPYRIGHT.md in the top-level directory of this
## distribution or <https://octave.org/copyright/>.
##
## This file is part of Octave.
##
## Octave is free software: you can redistribute it and/or modify it
## under the terms of the GNU General Public License as published by
## the Free Software Foundation, either version 3 of the License, or
## (at your option) any later version.
##
## Octave is distributed in the hope that it will be useful, but
## WITHOUT ANY WARRANTY; without even the implied warranty of
## MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE.  See the
## GNU General Public License for more details.
##
## You should have received a copy of the GNU General Public License
## along with Octave; see the file COPYING.  If not, see
## <https://www.gnu.org/licenses/>.
##
########################################################################
##
## Generate the graphics.h file from graphics.h.in and write the
## output to stdout.
##
## If the variable emit_graphics_props is set on the command line,
## generate the graphics-props.cc file from graphics.h.in and write
## the output to stdout.
##
## Lines between the BEGIN_PROPERTIES and END_PROPERTIES markers have
## one of the following formats:
##
##   TYPE NAME
##   TYPE NAME QUALIFIERS
##   mutable TYPE NAME
##   mutable TYPE NAME QUALIFIERS
##
## For each property, we generate a declaration for the property.
##
## If QUALIFIERS is omitted, we generate the following functions directly
## in the class declaration:
##
##   TYPE
##   get_NAME () const
##   {
##     return NAME;
##   }
##
##   void
##   set_NAME (const TYPE& val)
##   {
##     NAME = val;
##   }
##
##   void
##   set_NAME (const octave_value& val)
##   {
##     set_NAME (TYPE (val));
##   }
##
## If present, the QUALIFIERS string may include any of the characters
## g, G, m, s, S, o, O, h, d which have the following meanings:
##
##   g:  There is a custom inline definition for the get function,
##       so we don't emit one.
##
##   G:  There is a custom extern definition for the get function,
##       so we emit only the declaration.
##
##   s:  There is a custom inline definition for the type-specific set
##       function, so we don't emit one.
##
##   S:  There is a custom extern definition for the type-specific set
##       function, so we emit only the declaration.
##
##   d:  The property is deprecated and a warning is emitted when accessing it.
##
################################################################################
##   'o','O','a' are currently not processed.  They are commented out in code.
################################################################################
##
##   o:  There is a custom inline definition for the octave_value version
##       of the set function, so we don't emit one.
##
##   O:  There is a custom extern definition for the octave_value version
##       of the set function, so we emit only the declaration.
##
##   a:  The octave_value version of the set function will use assignment:
##
##         void
##         set_NAME (const octave_value& val)
##         {
##           TYPE tmp (NAME);
##           tmp = val;
##           set_NAME (tmp);
##         }
##
##       This is useful for things like the radio_value classes which
##       use an overloaded assignment operator of the form
##
##         radio_property& operator = (const octave_value& val);
##
##       that preserves the list of possible values, which is different
##       from what would happen if we simply used the
##
##         TYPE (const octave_value&)
##
##       constructor, which creates a new radio_property and so cannot
##       preserve the old list of possible values.
################################################################################
##
##   l:  Add the line
##
##         update_axis_limits ("NAME");
##
##       to the type-specific set function.
##
##   m:  Add the line
##
##         set_NAMEmode ("manual");
##
##       to the type-specific set function.
##
##   h:  Make the property hidden
##
##   r:  Make the property read-only. A read-only property is not
##       settable from the global set (caseless_str, octave_value)
##       method, but still has set_X accessor.
##
##   u:  The property has an inline updater method. This effectively
##       add the line
##
##         update_NAME ();
##
##       to the type-specific set function. This line is added before
##       any other update call (like those added by the 'l' or 'm'
##       modifiers.
##
##   U:  Like 'u' modifier except that the updater is not inline.
##       A declaration for the updater function will be emitted.
##
##   f:  The property does not have any factory default value.
##
## The 'o' and 'O' qualifiers are only useful when the property type
## is something other than octave_value.

## simple accessor

function emit_get_accessor (i, rtype, faccess)
{
  printf ("  %s get_%s () const", rtype, name[i]);

  if (emit_get[i] == "definition" && deprecated[i])
    printf ("\n  {\n    warning_with_id (\"Octave:deprecated-property\",\"'%s' is deprecated and will be removed from a future version of Octave\");\n    return m_%s.%s ();\n  }\n", name[i], name[i], faccess);
  else if (emit_get[i] == "definition")
    printf (" { return m_%s.%s (); }\n", name[i], faccess);
  else
    printf (";\n");
}

## bool_property

function emit_get_bool (i)
{
  printf ("  bool is_%s () const", name[i]);

  if (emit_get[i] == "definition")
    printf (" { return m_%s.is_on (); }\n", name[i]);
  else
    printf (";\n");

  emit_get_accessor(i, "std::string", "current_value");
}

## radio_property

function emit_get_radio (i)
{
  printf ("  bool %s_is (const std::string& v) const", name[i]);

  if (emit_get[i] == "definition")
    printf (" { return m_%s.is (v); }\n", name[i]);
  else
    printf (";\n");

  emit_get_accessor(i, "std::string", "current_value");
}

## color_property

function emit_get_color (i)
{
  printf ("  bool %s_is_rgb () const { return m_%s.is_rgb (); }\n", name[i], name[i]);

  printf ("  bool %s_is (const std::string& v) const", name[i]);

  if (emit_get[i] == "definition")
    printf (" { return m_%s.is (v); }\n", name[i]);
  else
    printf (";\n");

  printf ("  Matrix get_%s_rgb () const", name[i]);

  if (emit_get[i] == "definition")
    printf (" { return (m_%s.is_rgb () ? m_%s.rgb () : Matrix ()); }\n", name[i], name[i]);
  else
    printf (";\n");

  emit_get_accessor(i, "octave_value", "get");
}

## double_radio_property

function emit_get_double_radio (i)
{
  printf ("  bool %s_is_double () const { return m_%s.is_double (); }\n", name[i], name[i]);

  printf ("  bool %s_is (const std::string& v) const", name[i]);

  if (emit_get[i] == "definition")
    printf (" { return m_%s.is (v); }\n", name[i]);
  else
    printf (";\n");

  printf ("  double get_%s_double () const", name[i]);

  if (emit_get[i] == "definition")
    printf (" { return (m_%s.is_double () ? m_%s.double_value () : 0); }\n", name[i], name[i]);
  else
    printf (";\n");

  emit_get_accessor(i, "octave_value", "get");
}

## callback_property

function emit_get_callback (i)
{
  printf ("  void execute_%s (const octave_value& new_data = octave_value ()) const", name[i]);

  if (emit_get[i] == "definition")
    printf (" { m_%s.execute (new_data); }\n", name[i]);
  else
    printf (";\n");

  emit_get_accessor(i, "octave_value", "get");
}

## array_property

function emit_get_array (i)
{
  emit_get_accessor(i, "octave_value", "get");
}

## string_array_property

function emit_get_string_array (i)
{
  printf ("  std::string get_%s_string () const", name[i]);

  if (emit_get[i] == "definition")
    printf (" { return m_%s.string_value (); }\n", name[i]);
  else
    printf (";\n");

  printf ("  string_vector get_%s_vector () const", name[i]);

  if (emit_get[i] == "definition")
    printf (" { return m_%s.string_vector_value (); }\n", name[i]);
  else
    printf (";\n");

  emit_get_accessor(i, "octave_value", "get");
}

## common section

function emit_common_declarations ()
{
  printf ("public:\n");
  printf ("  properties (const graphics_handle& mh, const graphics_handle& p);\n\n");
  printf ("  ~properties () { }\n\n");
  printf ("  void set (const caseless_str& pname, const octave_value& val);\n\n");
  printf ("  octave_value get (bool all = false) const;\n\n");
  printf ("  octave_value get (const caseless_str& pname) const;\n\n");
  printf ("  octave_value get (const std::string& pname) const\n  {\n    return get (caseless_str (pname));\n  }\n\n");
  printf ("  octave_value get (const char *pname) const\n  {\n    return get (caseless_str (pname));\n  }\n\n");
  printf ("  property get_property (const caseless_str& pname);\n\n");
  printf ("  std::string graphics_object_name () const { return s_go_name; }\n\n");
  printf ("  static property_list::pval_map_type factory_defaults ();\n\n");
  printf ("private:\n  static std::string s_go_name;\n\n");
}

function emit_declarations ()
{
  if (class_name && ! base)
    emit_common_declarations();

  printf ("public:\n\n\n  static std::set<std::string> core_property_names ();\n\n  static std::set<std::string> readonly_property_names ();\n\n  static bool has_core_property (const caseless_str& pname);\n\n  static bool has_readonly_property (const caseless_str& pname);\n\n  std::set<std::string> all_property_names () const;\n\n");

  if (! base)
    printf ("  bool has_property (const caseless_str& pname) const;\n\n");

  if (idx > 0)
    print (base ? "protected:\n" : "private:\n");

  for (i = 1; i <= idx; i++)
    printf ("  %s%s m_%s;\n", mutable[i] ? "mutable " : "", type[i], name[i]);

  if (idx > 0)
    print "\npublic:\n";

  if (idx > 0)
  {
    printf ("  enum\n  {");
    for (i = 1; i <= idx; i++)
    {
      printf ("%s\n    ID_%s = %d", (i == 1 ? "" : ","), toupper(name[i]), pcount);
      pcount++;
    }
    printf ("\n  };\n\n");
    pcount = (int(pcount/1000)+1)*1000;
  }

  for (i = 1; i <= idx; i++)
  {
    if (emit_get[i])
    {
      if (type[i] == "any_property")
        emit_get_accessor(i, "octave_value", "get");
      else if (type[i] == "handle_property")
        emit_get_accessor(i, "graphics_handle", "handle_value");
      else if (type[i] == "string_property")
        emit_get_accessor(i, "std::string", "string_value");
      else if (type[i] == "text_label_property")
        emit_get_accessor(i, "octave_value", "get");
      else if (type[i] == "double_property")
        emit_get_accessor(i, "double", "double_value");
      else if (type[i] == "double_radio_property")
        emit_get_double_radio(i);
      else if (type[i] == "array_property" \
               || type[i] == "row_vector_property")
        emit_get_array(i);
      else if (type[i] == "bool_property")
        emit_get_bool(i);
      else if (type[i] == "radio_property")
        emit_get_radio(i);
      else if (type[i] == "color_property")
        emit_get_color(i);
      else if (type[i] == "callback_property")
        emit_get_callback(i);
      else if (type[i] == "string_array_property")
        emit_get_string_array(i);
      else
      {
        printf ("  %s get_%s () const", type[i], name[i]);

        if (emit_get[i] == "definition")
          printf (" { return m_%s; }\n", name[i]);
        else
          printf (";\n");
      }
      printf ("\n");
    }
  }

  if (idx > 0)
    printf ("\n");

  for (i = 1; i <= idx; i++)
  {
    if (emit_set[i])
    {
      ## Allow mutable properties to be set from const methods by
      ## declaring the corresponding set method const.  The idea here is
      ## to allow "constant" properties to be set after initialization.
      ## For example, info about the OpenGL context for a figure can
      ## only be set once the context is established, and that happens
      ## after the figure object is created.  Properties handled this
      ## way should probably also be declared read only.

      printf ("  void set_%s (const octave_value& val)%s",
              name[i], mutable[i] ? " const" : "");

      if (emit_set[i] == "definition")
      {
        if (updaters[i] || limits[i] || mode[i])
          has_builtin_listeners = 1;
        else
          has_builtin_listeners = 0;

        printf ("\n  {\n    if (m_%s.set (val, %s))\n      {\n",
          name[i], (has_builtin_listeners ? "false" : "true"));
        if (mode[i])
          printf ("        set_%smode (\"manual\");\n", name[i]);
        if (updater[i])
          printf ("        update_%s ();\n", name[i]);
        if (deprecated[i])
          printf ("        warning_with_id (\"Octave:deprecated-property\",\"'%s' is deprecated and will be removed from a future version of Octave\");\n", name[i]);
        if (limits[i])
          printf ("        update_axis_limits (\"%s\");\n", name[i]);
        if (has_builtin_listeners)
          printf ("        m_%s.run_listeners (GCB_POSTSET);\n", name[i]);
        if (! mutable[i])
          printf ("        mark_modified ();\n");
        printf ("      }\n");
        if (mode[i])
          printf ("    else\n      set_%smode (\"manual\");\n", name[i]);
        printf ("  }\n\n");
      }
      else
        printf (";\n\n");
    }

    if (updater[i] == "extern")
    {
      printf ("  void update_%s ();\n\n", name[i]);
    }

##    if (emit_ov_set[i])
##    {
##      printf ("  void set_%s (const octave_value& val)", name[i]);
##
##      if (emit_ov_set[i] == "definition")
##        printf (" { set_%s (%s (val)); }\n\n", name[i], type[i]);
##      else if (emit_ov_set[i] == "assignment")
##      {
##        printf ("\n  {\n    %s tmp (%s);\n    tmp = val;\n    set_%s (tmp);\n  };\n\n",
##                type[i], name[i], name[i], name[i]);
##      }
##      else
##        printf (";\n");
##    }
  }

##  if (idx > 0)
##    print "\nprivate:";
}

function emit_source ()
{
  if (class_name)
  {
    printf ("// ******** %s ********\n\n", class_name);

    ## constructor

    if (base)
      printf ("base_properties::base_properties (const std::string& ty, const graphics_handle& mh, const graphics_handle& p)\n  : ");
    else
    {
      printf ("%s::properties::properties (const graphics_handle& mh, const graphics_handle& p)\n", class_name);
      printf ("  : base_properties (s_go_name, mh, p),\n");
    }

    for (i = 1; i <= idx; i++)
    {
      if (ptype[i])
        printf ("    m_%s (\"%s\", mh, %s)", name[i], name[i], defval[i]);
      else
        printf ("    m_%s (%s)", name[i], defval[i]);
      if (i < idx)
        printf (",");
      printf ("\n");
    }

    printf ("{\n");

    for (i = 1; i <= idx; i++)
    {
      if (ptype[i])
      {
        printf ("  m_%s.set_id (ID_%s);\n", name[i], toupper(name[i]));
        if (hidden[i])
          printf ("  m_%s.set_hidden (true);\n", name[i]);
      }
    }

    printf ("  init ();\n}\n\n");

    ## set method

    if (base)
      printf ("void\nbase_properties::set (const caseless_str& pname, const octave_value& val)\n{\n");
    else
      printf ("void\n%s::properties::set (const caseless_str& pname_arg, const octave_value& val)\n{\n",
              class_name);

    if (! base)
        printf ("  const std::set<std::string>& pnames = all_property_names ();\n\n  caseless_str pname = validate_property_name (\"set\", s_go_name, pnames, pname_arg);\n\n  if (has_readonly_property (pname))\n    {\n      error (\"set: \\\"%%s\\\" is read-only\", pname.c_str ());\n      return;\n    }\n\n");

    first = 1;

    for (i = 1; i <= idx; i++)
    {
      if (! readonly[i])
      {
        printf ("  %sif (pname.compare (\"%s\"))\n    set_%s (val);\n",
                (first == 0 ? "else " : ""), name[i], name[i]);
        first = 0;
      }
    }

    if (base)
      printf ("  else\n    set_dynamic (pname, val);\n}\n\n");
    else
      printf ("  else\n    base_properties::set (pname, val);\n}\n\n");

    ## get "all" method

    if (base)
    {
      printf ("octave_value\nbase_properties::get (bool all) const\n{\n");
      printf ("  octave_map m = get_dynamic (all).map_value ();\n\n");
    }
    else
    {
      printf ("octave_value\n%s::properties::get (bool all) const\n{\n", class_name);
      printf ("  octave_map m = base_properties::get (all).map_value ();\n\n");
    }

    for (i = 1; i <= idx; i++)
    {
      if (hidden[i])
        printf ("  if (all)\n    m.assign (\"%s\", octave_value (get_%s ()%s));\n", name[i], name[i],
                (type[i] == "handle_property" || type[i] == "graphics_handle" ? ".as_octave_value ()" : ""));
      else
        printf ("  m.assign (\"%s\", octave_value (get_%s ()%s));\n", name[i], name[i],
                (type[i] == "handle_property" || type[i] == "graphics_handle" ? ".as_octave_value ()" : ""));
    }

    printf ("\n  return m;\n}\n\n");

    ## get "one" method

    if (base)
      printf ("octave_value\nbase_properties::get (const caseless_str& pname) const\n{\n");
    else
      printf ("octave_value\n%s::properties::get (const caseless_str& pname_arg) const\n{\n",
              class_name);
    printf ("  octave_value retval;\n\n");

    if (! base)
      printf ("  const std::set<std::string>& pnames = all_property_names ();\n\n  caseless_str pname = validate_property_name (\"get\", s_go_name, pnames, pname_arg);\n\n");

    for (i = 1; i<= idx; i++)
    {
      printf ("  %sif (pname.compare (\"%s\"))\n",
              (i > 1 ? "else " : ""), name[i]);
      printf ("    retval = get_%s ()%s;\n", name[i],
              (type[i] == "handle_property" || type[i] == "graphics_handle" ? ".as_octave_value ()" : ""));
    }

    if (base)
      printf ("  else\n    retval = get_dynamic (pname);\n\n");
    else
      printf ("  else\n    retval = base_properties::get (pname);\n\n");
    printf ("  return retval;\n}\n\n");

    ## get_property method

    if (base)
      printf ("property\nbase_properties::get_property (const caseless_str& pname)\n{\n");
    else
      printf ("property\n%s::properties::get_property (const caseless_str& pname_arg)\n{\n",
              class_name);

    if (! base)
      printf ("  const std::set<std::string>& pnames = all_property_names ();\n\n  caseless_str pname = validate_property_name (\"get\", s_go_name, pnames, pname_arg);\n\n");

    for (i = 1; i<= idx; i++)
    {
      if (ptype[i])
      {
        printf ("  %sif (pname.compare (\"%s\"))\n",
                (i > 1 ? "else " : ""), name[i]);
        printf ("    return property (&m_%s, true);\n", name[i]);
      }
    }

    if (base)
      printf ("  else\n    return get_property_dynamic (pname);\n");
    else
      printf ("  else\n    return base_properties::get_property (pname);\n");
    printf ("}\n\n");


    ## factory defaults method

    if (base)
    {
      printf ("property_list::pval_map_type\nbase_properties::factory_defaults ()\n{\n");
      printf ("  property_list::pval_map_type m;\n\n");
    }
    else
    {
      printf ("property_list::pval_map_type\n%s::properties::factory_defaults ()\n{\n",
              class_name);
      printf ("  property_list::pval_map_type m = base_properties::factory_defaults ();\n\n");
    }

    for (i = 1; i <= idx; i++)
    {
      if (factory[i])
      {
        dval = defval[i];
        if (type[i] == "radio_property")
        {
          k = index (dval, "{");
          dval = substr (dval, k+1);
          l = index (dval, "}");
          if (k > 0 && l > 0)
            dval = "\"" substr (dval, 1, l-1) "\"";
          else
            dval = "octave_value ()";
        }

        printf ("  m[\"%s\"] = %s%s;\n", name[i], dval,
                (type[i] == "handle_property" || type[i] == "graphics_handle" ? ".as_octave_value ()" : ""));
      }
    }

    printf ("\n  return m;\n}\n\n");

    ## s_go_name static field

    if (! base)
      printf ("std::string %s::properties::s_go_name (\"%s\");\n\n",
              class_name, object_name);

    ## core_property_names
    printf ("std::set<std::string>\n");
    if (base)
      printf ("base_properties");
    else
      printf ("%s::properties", class_name);
    printf ("::core_property_names ()\n{\n  static std::set<std::string> all_pnames;\n\n  static bool initialized = false;\n\n  if (! initialized)\n    {\n");
    for (i = 1; i <= idx; i++)
      printf ("      all_pnames.insert (\"%s\");\n", name[i]);
    if (! base)
      printf ("\n      std::set<std::string> base_pnames = base_properties::core_property_names ();\n      all_pnames.insert (base_pnames.begin (), base_pnames.end ());\n");
    printf ("\n      initialized = true;\n    }\n\n  return all_pnames;\n}\n\n");
    ## has_core_property
    printf ("bool\n");
    if (base)
      printf ("base_properties");
    else
      printf ("%s::properties", class_name);
    printf ("::has_core_property (const caseless_str& pname)\n{\n  std::set<std::string> pnames = core_property_names ();\n\n  return pnames.find (pname) != pnames.end ();\n}\n\n", class_name);

    ## readonly_property_names
    printf ("std::set<std::string>\n");
    if (base)
      printf ("base_properties");
    else
      printf ("%s::properties", class_name);
    printf ("::readonly_property_names ()\n{\n  static std::set<std::string> all_pnames;\n\n  static bool initialized = false;\n\n  if (! initialized)\n    {\n");
    for (i = 1; i <= idx; i++)
        if (readonly[i])
        {
            printf ("      all_pnames.insert (\"%s\");\n", name[i]);
        }
    if (! base)
      printf ("\n      std::set<std::string> base_pnames = base_properties::readonly_property_names ();\n      all_pnames.insert (base_pnames.begin (), base_pnames.end ());\n");
    printf ("\n      initialized = true;\n    }\n\n  return all_pnames;\n}\n\n");
    ## has_readonly_property
    printf ("bool\n");
    if (base)
      printf ("base_properties");
    else
      printf ("%s::properties", class_name);
    printf ("::has_readonly_property (const caseless_str& pname)\n{\n  std::set<std::string> pnames = readonly_property_names ();\n\n  return pnames.find (pname) != pnames.end ();\n}\n\n", class_name);

    ## all_property_names
    printf ("std::set<std::string>\n");
    if (base)
        printf ("base_properties");
    else
      printf ("%s::properties", class_name);
    printf ("::all_property_names () const\n{\n  static std::set<std::string> all_pnames = core_property_names ();\n\n");
    if (base)
      printf ("  std::set<std::string> retval = all_pnames;\n  std::set<std::string> dyn_props = dynamic_property_names ();\n  retval.insert (dyn_props.begin (), dyn_props.end ());\n  for (std::map<caseless_str, property, cmp_caseless_str>::const_iterator p = m_all_props.begin ();\n       p != m_all_props.end (); p++)\n    retval.insert (p->first);\n\n  return retval;\n}\n\n");
    else
      printf ("  std::set<std::string> retval = all_pnames;\n  std::set<std::string> base_props = base_properties::all_property_names ();\n  retval.insert (base_props.begin (), base_props.end ());\n\n  return retval;\n}\n\n");

    if (! base)
      printf ("bool\n%s::properties::has_property (const caseless_str& pname) const\n{\n  std::set<std::string> pnames = all_property_names ();\n\n  return pnames.find (pname) != pnames.end ();\n}\n\n", class_name);
  }
}

BEGIN {
  printf ("// DO NOT EDIT!  Generated automatically by genprops.awk.\n\n")
  pcount = 0;
}

/BEGIN_PROPERTIES *\(.*\)/ {
  gather = 1;
  idx = 0;
  str = $0;
  beg = index (str, "(") + 1;
  len = index (str, ")") - beg;
  args = substr (str, beg, len);
  n = split (args, arg_list, ",");
  if (n > 0)
      class_name = arg_list[1];
  if (n > 1)
      object_name = arg_list[2];
  else
      object_name = class_name;
  gsub (/ /, "", class_name);
  gsub (/ /, "", object_name);
  base = 0;
  next;
}

/BEGIN_PROPERTIES/ {
  gather = 1;
  idx = 0;
  class_name = "";
  base = 0;
  next;
}

/BEGIN_BASE_PROPERTIES/ {
  gather = 1;
  idx = 0;
  class_name = "base";
  base = 1;
  next;
}

/END_PROPERTIES/ {
  if (emit_graphics_props)
    emit_source();
  else
    emit_declarations();
  gather = 0;
  next;
}

{
  if (gather)
  {
    if (NF < 2 || /^[ \t]*\/\//)
      next;

    idx++;

    field = 1;

    if ($field == "mutable")
    {
      mutable[idx] = 1;
      field++;
    }
    else
      mutable[idx] = 0;

    type[idx] = $(field++);
    ptype[idx] = (type[idx] ~ /^.*_property$/);
    name[idx] = $(field++);

    limits[idx] = 0;
    mode[idx] = 0;
    hidden[idx] = 0;
    readonly[idx] = 0;
    emit_get[idx] = "definition";
    emit_set[idx] = "definition";
    defval[idx] = "";
    updater[idx] = "";
    deprecated[idx] = 0;
    factory[idx] = 1;
##    if (type[idx] == "octave_value")
##      emit_ov_set[idx] = "";
##    else
##      emit_ov_set[idx] = "definition";

    if (NF >= field)
    {
      if ($field != ",")
      {
        quals = $(field++);

        if (index (quals, "l"))
          limits[idx] = 1;

        if (index (quals, "m"))
          mode[idx] = 1;

        ## There is a custom inline definition for the get function,
        ## so we don't emit anything.
        if (index (quals, "g"))
          emit_get[idx] = "";

        ## There is a custom extern definition for the get function,
        ## but we still emit the declaration.
        if (index (quals, "G"))
          emit_get[idx] = "declaration";

        ## There is a custom inline definition for the set function,
        ## so we don't emit anything.
        if (index (quals, "s"))
          emit_set[idx] = "";

        ## There is a custom extern definition for the set function,
        ## but we still emit the declaration.
        if (index (quals, "S"))
          emit_set[idx] = "declaration";

        ## The property is hidden
        if (index (quals, "h"))
          hidden[idx] = 1;

        ## The property is read-only
        if (index (quals, "r"))
          readonly[idx] = 1;

        ## There is an inline updater method that should be called
        ## from the set method
        if (index (quals, "u"))
          updater[idx] = "inline";

        ## There is an extern updater method that should be called
        ## from the set method
        if (index (quals, "U"))
          updater[idx] = "extern";

        ## The property is deprecated
        if (index (quals, "d"))
          deprecated[idx] = 1;

        ## There is not factory default value
        if (index (quals, "f"))
          factory[idx] = 0;

##        ## emit an assignment set function
##        if (index (quals, "a"))
##          emit_ov_set[idx] = "assignment";
##
##        if (type[idx] != "octave_value")
##        {
##          ## The 'o' and 'O' qualifiers are only useful when the
##          ## the property type is something other than an
##          ## octave_value.
##
##          ## There is a custom inline definition for the
##          ## octave_value version of the set function, so we
##          ## don't emit anything.
##          if (index (quals, "o"))
##            emit_ov_set[idx] = "";
##
##          ## There is a custom extern definition for the
##          ## octave_value version of the set function, but we
##          ## still emit the declaration.
##          if (index (quals, "O"))
##            emit_ov_set[idx] = "declaration";
##        }
      }

      if (NF > field && $field == ",")
      {
        field++;

        for (i = field; i <= NF; i++)
          defval[idx] = (defval[idx] (i > field ? " " : "") $i);
      }
    }

  }
  else if (! emit_graphics_props)
    print $0;
}