# Gtkmmproc Output module
#
# Copyright 2001 Free Software Foundation
#
# This program 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 2 of the License, or
# (at your option) any later version.
#
# This program 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 this program. If not, see <http://www.gnu.org/licenses/>.
#
package Output;
use strict;
use open IO => ":utf8";
use Function qw(FLAG_PARAM_OPTIONAL FLAG_PARAM_OUTPUT FLAG_PARAM_NULLPTR
FLAG_PARAM_EMPTY_STRING);
use DocsParser;
BEGIN { @Namespace::ISA=qw(main); }
# $objOutputter new()
sub new
{
my ($m4path, $macrodirs) = @_;
my $self = {};
bless $self;
$$self{out} = [];
$$self{source} = "";
$$self{tmpdir} = File::Spec->tmpdir();
$$self{destdir} = "";
$$self{objDefsParser} = undef; # It will be set in set_defsparser()
$$self{m4path} = $m4path;
$$self{m4args} = "-I";
$$self{m4args} .= join(" -I", @$macrodirs);
return $self;
}
sub set_defsparser($$)
{
my ($self, $objDefsParser) = @_;
$$self{objDefsParser} = $objDefsParser; #Remember it so that we can use it in our output methods.
}
sub m4args_append($$)
{
my ($self, $str) = @_;
$$self{m4args} .= $str;
}
sub append($$)
{
my ($self, $str) = @_;
push(@{$$self{out}}, $str);
}
# void output_wrap_failed($cname, $error)
# Puts a comment in the header about the error during code-generation.
sub output_wrap_failed($$$)
{
my ($self, $cname, $error) = @_;
# See "MS Visual Studio" comment in gmmproc.in.
my $str = sprintf("//gtkmmproc error: %s : %s", $cname, $error);
print STDERR "Output.pm, $main::source, $cname : $error\n";
$self->append($str);
}
sub error
{
my $format=shift @_;
printf STDERR "Output.pm, $main::source: $format",@_;
}
# void check_deprecation($file_deprecated, $defs_deprecated, $wrap_deprecated,
# $entity_name, $entity_type, $wrapper)
sub check_deprecation($$$$$$)
{
my ($file_deprecated, $defs_deprecated, $wrap_deprecated,
$entity_name, $entity_type, $wrapper) = @_;
# Don't print a warning if the whole .hg file is deprecated.
return if ($file_deprecated);
if ($defs_deprecated && !$wrap_deprecated)
{
print STDERR "Warning, $main::source: The $entity_name $entity_type" .
" is deprecated in the .defs file, but not in _WRAP_$wrapper.\n";
}
elsif (!$defs_deprecated && $wrap_deprecated)
{
print STDERR "Warning, $main::source: The $entity_name $entity_type" .
" is deprecated in _WRAP_$wrapper, but not in the .defs file.\n";
}
}
sub ifdef($$)
{
my ($self, $ifdef) = @_;
if ($ifdef)
{
$self->append("\n#ifdef $ifdef\n");
}
}
sub endif($$)
{
my ($self, $ifdef) = @_;
if ($ifdef)
{
$self->append("\n#endif // $ifdef\n");
}
}
### Convert _WRAP to a virtual
# _VFUNC_H(signame,rettype,`<cppargs>')
# _VFUNC_PH(gtkname,crettype,cargs and names)
# void output_wrap_vfunc_h($filename, $line_num, $objCppfunc, $objCDefsFunc)
sub output_wrap_vfunc_h($$$$$$)
{
my ($self, $filename, $line_num, $objCppfunc, $objCDefsFunc, $ifdef) = @_;
#Old code. We removed _VFUNC_H from the .m4 file
# my $str = sprintf("_VFUNC_H(%s,%s,\`%s\',%s)dnl\n",
# $$objCppfunc{name},
# $$objCppfunc{rettype},
# $objCppfunc->args_types_and_names(),
# $objCppfunc->get_is_const()
# );
# $self->append($str);
$self->ifdef($ifdef);
# Prepend a Doxygen @throws directive to the declaration if the virtual
# function throws an error.
if($$objCDefsFunc{throw_any_errors})
{
$self->append('/// @throws Glib::Error.' . "\n");
}
my $cppVfuncDecl = "virtual " . $$objCppfunc{rettype} . " " . $$objCppfunc{name} . "(" . $objCppfunc->args_types_and_names() . ")";
if($objCppfunc->get_is_const())
{
$cppVfuncDecl .= " const";
}
$self->append(" $cppVfuncDecl;\n");
$self->endif($ifdef);
#The default callback, which will call *_vfunc, which will then call the base default callback.
#Declares the callback in the private *Class class and sets it in the class_init function.
my $str = sprintf("_VFUNC_PH(%s,%s,\`%s\',%s)dnl\n",
$$objCDefsFunc{name},
$$objCDefsFunc{rettype},
$objCDefsFunc->args_types_and_names(),
$ifdef
);
$self->append($str);
}
# _VFUNC_CC(signame,gtkname,rettype,crettype,`<cppargs>',`<cargs>')
sub output_wrap_vfunc_cc($$$$$$$$)
{
my ($self, $filename, $line_num, $objCppfunc, $objCFunc,
$custom_vfunc, $custom_vfunc_callback, $ifdef) = @_;
my $cname = $$objCFunc{name};
my $errthrow = "";
if($$objCFunc{throw_any_errors})
{
$errthrow = "errthrow"
}
# e.g. Gtk::Button::draw_indicator:
#Use a different macro for Interfaces, to generate an extra convenience method.
if (!$custom_vfunc)
{
my $refreturn = "";
$refreturn = "refreturn" if($$objCppfunc{rettype_needs_ref});
my $returnValue = $$objCppfunc{return_value};
my ($conversions, $declarations, $initializations) =
convert_args_cpp_to_c($objCppfunc, $objCFunc, 0, $line_num, $errthrow);
my $no_slot_copy = "";
$no_slot_copy = "no_slot_copy" if ($$objCppfunc{no_slot_copy});
my $str = sprintf("_VFUNC_CC(%s,%s,%s,%s,\`%s\',\`%s\',%s,%s,%s,%s,%s,%s,%s,%s)dnl\n",
$$objCppfunc{name},
$cname,
$$objCppfunc{rettype},
$$objCFunc{rettype},
$objCppfunc->args_types_and_names(),
$conversions,
$objCppfunc->get_is_const(),
$refreturn,
$ifdef,
$errthrow,
$$objCppfunc{slot_type},
$$objCppfunc{slot_name},
$no_slot_copy,
$returnValue);
$self->append($str);
}
# e.g. Gtk::ButtonClass::draw_indicator():
if (!$custom_vfunc_callback)
{
my $refreturn_ctype = "";
$refreturn_ctype = "refreturn_ctype" if($$objCFunc{rettype_needs_ref});
my $keep_return = "";
$keep_return = "keep_return" if($$objCppfunc{keep_return});
# Get the conversions.
my $conversions =
convert_args_c_to_cpp($objCFunc, $objCppfunc, $line_num);
my $returnValue = $$objCppfunc{return_value};
my $errReturnValue = $$objCppfunc{err_return_value};
my $exceptionHandler = $$objCppfunc{exception_handler};
my $str = sprintf("_VFUNC_PCC(%s,%s,%s,%s,\`%s\',\`%s\',\`%s\',%s,%s,%s,%s,%s,%s,%s,%s,%s,%s)dnl\n",
$$objCppfunc{name},
$cname,
$$objCppfunc{rettype},
$$objCFunc{rettype},
$objCFunc->args_types_and_names(),
$objCFunc->args_names_only(),
$conversions,
${$objCFunc->get_param_names()}[0],
$refreturn_ctype,
$keep_return,
$ifdef,
$errthrow,
$$objCppfunc{slot_type},
$$objCppfunc{c_data_param_name},
$returnValue,
$errReturnValue,
$exceptionHandler);
$self->append($str);
}
}
### Convert _WRAP to a signal
# _SIGNAL_H(signame,rettype, `<cppargs>', ifdef)
# _SIGNAL_PH(gtkname,crettype, cargs and names, ifdef, deprecated)
# void output_wrap_default_signal_handler_h($filename, $line_num, $objCppfunc,
# $objCDefsFunc, $ifdef, $deprecated, $exceptionHandler)
sub output_wrap_default_signal_handler_h($$$$$$$$)
{
my ($self, $filename, $line_num, $objCppfunc, $objCDefsFunc, $ifdef, $deprecated, $exceptionHandler) = @_;
# The default signal handler is a virtual function.
# It's not hidden by deprecation, since that would break ABI.
my $str = sprintf("_SIGNAL_H(%s,%s,\`%s\',%s)dnl\n",
$$objCppfunc{name},
$$objCppfunc{rettype},
$objCppfunc->args_types_and_names(),
$ifdef
);
$self->append($str);
#The default callback, which will call on_* or the base default callback.
#Declares the callback in the private *Class class and sets it in the class_init function.
#This is hidden by deprecation.
$str = sprintf("_SIGNAL_PH(%s,%s,\`%s\',%s,%s,%s)dnl\n",
$$objCDefsFunc{name},
$$objCDefsFunc{rettype},
$objCDefsFunc->args_types_and_names(),
$ifdef,
$deprecated,
$exceptionHandler
);
$self->append($str);
}
# _SIGNAL_CC(signame, gtkname, rettype, crettype,`<cppargs>',`<cargs>', const, refreturn, ifdef, exceptionHandler)
sub output_wrap_default_signal_handler_cc($$$$$$$$$$$)
{
my ($self, $filename, $line_num, $objCppfunc, $objDefsSignal, $bImplement,
$bCustomCCallback, $bRefreturn, $ifdef, $deprecated, $exceptionHandler) = @_;
my $cname = $$objDefsSignal{name};
# $cname = $1 if ($args[3] =~ /"(.*)"/); #TODO: What's this about?
# e.g. Gtk::Button::on_clicked:
if($bImplement eq 1)
{
my $refreturn = "";
$refreturn = "refreturn" if($bRefreturn eq 1);
my ($conversions, $declarations, $initializations) =
convert_args_cpp_to_c($objCppfunc, $objDefsSignal, 0, $line_num);
# The default signal handler is a virtual function.
# It's not hidden by deprecation, since that would break ABI.
my $str = sprintf("_SIGNAL_CC(%s,%s,%s,%s,\`%s\',\`%s\',%s,%s,%s)dnl\n",
$$objCppfunc{name},
$cname,
$$objCppfunc{rettype},
$$objDefsSignal{rettype},
$objCppfunc->args_types_and_names(),
$conversions,
$$objCppfunc{const},
$refreturn,
$ifdef
);
$self->append($str);
}
# e.g. Gtk::ButtonClass::on_clicked():
#Callbacks always take the object instance as the first argument:
# my $arglist_names = "object";
# my $arglist_names_extra = $objDefsSignal->args_names_only();
# if ($arglist_names_extra)
# {
# $arglist_names .= ", ";
# $arglist_names .= $arglist_names_extra;
# }
if($bCustomCCallback ne 1)
{
my $conversions =
convert_args_c_to_cpp($objDefsSignal, $objCppfunc, $line_num);
#This is hidden by deprecation.
my $str = sprintf("_SIGNAL_PCC(%s,%s,%s,%s,\`%s\',\`%s\',\`%s\',\`%s\',%s,%s,%s)dnl\n",
$$objCppfunc{name},
$cname,
$$objCppfunc{rettype},
$$objDefsSignal{rettype},
$objDefsSignal->args_types_and_names(),
$objDefsSignal->args_names_only(),
$conversions,
${$objDefsSignal->get_param_names()}[0],
$ifdef,
$deprecated,
$exceptionHandler);
$self->append($str);
}
}
### Convert _WRAP to a method
# _METHOD(cppname,cname,cpprettype,crettype,arglist,cargs,const)
# void output_wrap_meth($filename, $line_num, $objCppFunc, $objCDefsFunc, $cppMethodDecl, $documentation, $ifdef)
sub output_wrap_meth($$$$$$$)
{
my ($self, $filename, $line_num, $objCppfunc, $objCDefsFunc, $cppMethodDecl, $documentation, $ifdef) = @_;
my $objDefsParser = $$self{objDefsParser};
my $cpp_param_names = $$objCppfunc{param_names};
my $cpp_param_types = $$objCppfunc{param_types};
my $c_param_name_mappings = $$objCppfunc{param_mappings};
my $num_args_list = $objCppfunc->get_num_possible_args_list();
my $output_var_name;
my $output_var_type;
if(defined($$c_param_name_mappings{"OUT"}))
{
$output_var_name = $$cpp_param_names[$$c_param_name_mappings{"OUT"}];
$output_var_type = $$cpp_param_types[$$c_param_name_mappings{"OUT"}];
}
for(my $arg_list = 0; $arg_list < $num_args_list; $arg_list++)
{
# Allow the generated .h/.cc code to have an #ifndef around it, and add
# deprecation docs to the generated documentation.
my $deprecated = "";
if($$objCDefsFunc{deprecated})
{
$deprecated = "deprecated";
}
#Declaration:
if($deprecated ne "")
{
$self->append("\n_DEPRECATE_IFDEF_START");
}
$self->ifdef($ifdef);
if($arg_list == 0)
{
# Doxygen documentation before the method declaration:
$self->output_wrap_meth_docs_only($filename, $line_num, $documentation);
}
else
{
$self->append("\n\n /// A $$objCppfunc{name}() convenience overload.\n");
}
$self->append(" " . $objCppfunc->get_declaration($arg_list));
$self->endif($ifdef);
if($deprecated ne "")
{
$self->append("\n_DEPRECATE_IFDEF_END\n");
}
my $refneeded = "";
if($$objCDefsFunc{rettype_needs_ref})
{
$refneeded = "refreturn"
}
my $errthrow = "";
if($$objCDefsFunc{throw_any_errors})
{
$errthrow = "errthrow"
}
my $constversion = ""; #Whether it is just a const overload (so it can reuse code)
if($$objCDefsFunc{constversion})
{
$constversion = "constversion"
}
#Implementation:
my $str;
if ($$objCppfunc{static}) {
my ($conversions, $declarations, $initializations) =
convert_args_cpp_to_c($objCppfunc, $objCDefsFunc, 1, $line_num,
$errthrow, $arg_list); #1 means it's static, so it has 'object'.
my $no_slot_copy = "";
my $slot_type = "";
my $slot_name = "";
# A slot may be optional so if it is signaled by
# convert_args_cpp_to_c() to not be included, then don't.
if ($$objCppfunc{include_slot})
{
$slot_type = $$objCppfunc{slot_type};
$slot_name = $$objCppfunc{slot_name};
$no_slot_copy = "no_slot_copy" if ($$objCppfunc{no_slot_copy});
}
$str = sprintf("_STATIC_METHOD(%s,%s,\`%s\',%s,\`%s\',\`%s\',\`%s\',\`%s\',%s,%s,%s,%s,%s,%s,`%s',`%s',`%s',%s)dnl\n",
$$objCppfunc{name},
$$objCDefsFunc{c_name},
$$objCppfunc{rettype},
$objCDefsFunc->get_return_type_for_methods(),
$objCppfunc->args_types_and_names($arg_list),
$declarations,
$conversions,
$initializations,
$refneeded,
$errthrow,
$deprecated,
$ifdef,
$output_var_name,
$output_var_type,
$slot_type,
$slot_name,
$no_slot_copy,
$line_num
);
} else {
my ($conversions, $declarations, $initializations) =
convert_args_cpp_to_c($objCppfunc, $objCDefsFunc, 0, $line_num,
$errthrow, $arg_list);
my $no_slot_copy = "";
my $slot_type = "";
my $slot_name = "";
# A slot may be optional so if it is signaled by
# convert_args_cpp_to_c() to not be included, then don't.
if ($$objCppfunc{include_slot})
{
$slot_type = $$objCppfunc{slot_type};
$slot_name = $$objCppfunc{slot_name};
$no_slot_copy = "no_slot_copy" if ($$objCppfunc{no_slot_copy});
}
$str = sprintf("_METHOD(%s,%s,\`%s\',%s,\`%s\',\`%s\',\`%s\',\`%s\',%s,%s,%s,%s,%s,\`%s\',%s,%s,%s,`%s',`%s',`%s',%s)dnl\n",
$$objCppfunc{name},
$$objCDefsFunc{c_name},
$$objCppfunc{rettype},
$objCDefsFunc->get_return_type_for_methods(),
$objCppfunc->args_types_and_names($arg_list),
$declarations,
$conversions,
$initializations,
$$objCppfunc{const},
$refneeded,
$errthrow,
$deprecated,
$constversion,
$objCppfunc->args_names_only($arg_list),
$ifdef,
$output_var_name,
$output_var_type,
$slot_type,
$slot_name,
$no_slot_copy,
$line_num
);
}
$self->append($str);
}
}
### Convert _WRAP to a method
# _METHOD(cppname,cname,cpprettype,crettype,arglist,cargs,const)
# void output_wrap_meth($filename, $line_num, $documentation)
sub output_wrap_meth_docs_only($$$$)
{
my ($self, $filename, $line_num, $documentation) = @_;
my $objDefsParser = $$self{objDefsParser};
# Doxygen documentation before the method declaration:
$self->append("\n${documentation}");
}
### Convert _WRAP_CTOR to a ctor
# _METHOD(cppname,cname,cpprettype,crettype,arglist,cargs,const)
# void output_wrap_ctor($filename, $line_num, $objCppFunc, $objCDefsFunc, $cppMethodDecl)
sub output_wrap_ctor($$$$$)
{
my ($self, $filename, $line_num, $objCppfunc, $objCDefsFunc, $cppMethodDecl) = @_;
my $objDefsParser = $$self{objDefsParser};
my $num_args_list = $objCppfunc->get_num_possible_args_list();
for(my $arg_list = 0; $arg_list < $num_args_list; $arg_list++)
{
if ($arg_list > 0)
{
$self->append("\n\n /// A $$objCppfunc{name}() convenience overload.\n");
}
#Ctor Declaration:
$self->append(" explicit " . $objCppfunc->get_declaration($arg_list) . "\n");
my $errthrow = "";
if($$objCDefsFunc{throw_any_errors})
{
$errthrow = "errthrow";
}
#Implementation:
my $str = sprintf("_CTOR_IMPL(%s,%s,\`%s\',\`%s\')dnl\n",
$$objCppfunc{name},
$$objCDefsFunc{c_name},
$objCppfunc->args_types_and_names($arg_list),
get_ctor_properties($objCppfunc, $objCDefsFunc, $line_num, $errthrow, $arg_list)
);
$self->append($str);
}
}
sub output_wrap_create($$$)
{
my ($self, $args_type_and_name_with_default_values, $objWrapParser) = @_;
#Re-use Function in a very hacky way, to separate the argument types_and_names.
my $fake_decl = "void fake_func(" . $args_type_and_name_with_default_values . ")";
my $objFunction = &Function::new($fake_decl, $objWrapParser);
my $num_args_list = $objFunction->get_num_possible_args_list();
for(my $arg_list = 0; $arg_list < $num_args_list; $arg_list++)
{
my $args_names_only = $objFunction->args_names_only($arg_list);
my $args_type_and_name_hpp =
$objFunction->args_types_and_names_with_default_values($arg_list);
my $args_type_and_name_cpp = $objFunction->args_types_and_names($arg_list);
if ($arg_list > 0) {
$self->append("\n /// A create() convenience overload.");
}
my $str = sprintf("_CREATE_METHOD(\`%s\',\`%s\',\`%s\')dnl\n",
$args_type_and_name_hpp, , $args_type_and_name_cpp, $args_names_only);
$self->append($str)
}
}
# void output_wrap_sig_decl($filename, $line_num, $objCSignal, $objCppfunc, $signal_name,
# $bCustomCCallback, $ifdef, $commentblock, $deprecated, $deprecation_docs,
# $newin, $exceptionHandler, $detail_name, $bTwoSignalMethods)
sub output_wrap_sig_decl($$$$$$$$$$$$$$)
{
my ($self, $filename, $line_num, $objCSignal, $objCppfunc, $signal_name,
$bCustomCCallback, $ifdef, $commentblock, $deprecated, $deprecation_docs,
$newin, $exceptionHandler, $detail_name, $bTwoSignalMethods) = @_;
# _SIGNAL_PROXY(c_signal_name, c_return_type, `<c_arg_types_and_names>',
# cpp_signal_name, cpp_return_type, `<cpp_arg_types>',`<c_args_to_cpp>',
# refdoc_comment, exceptionHandler)
# Get the signal name with underscores only (to look up docs -- they are
# stored that way).
my $underscored_signal_name = $signal_name;
$underscored_signal_name =~ s/-/_/g;
# Get the existing signal documentation from the parsed docs.
my $documentation = DocsParser::lookup_documentation(
"$$objCSignal{class}::$underscored_signal_name", $deprecation_docs, $newin, $objCppfunc);
# Create a merged Doxygen comment block for the signal from the looked up
# docs (the block will also contain a prototype of the slot as an example).
my $doxycomment = $objCppfunc->get_refdoc_comment($documentation, $$objCSignal{flags});
# If there was already a previous doxygen comment, we want to merge this
# one with the previous so it is one big comment. If
# $commentblock is not emtpy, it contains the previous doxygen comment without
# opening and closing tokens (/** and */).
if($commentblock ne "")
{
# Strip leading whitespace
$doxycomment =~ s/^\s+//;
# Add a level of m4 quotes. Necessary if $commentblock contains __FT__ or __BT__.
# DocsParser::lookup_documentation() adds it in $documentation.
$commentblock = "`" . $commentblock . "'";
# We don't have something to add, so just use $commentblock with
# opening and closing tokens added.
if($doxycomment eq "")
{
$doxycomment = ' /**' . $commentblock . "\n */";
}
else
{
# Merge the two comments, but remove the first three characters from the
# second comment (/**) that mark the beginning of the comment.
$doxycomment = substr($doxycomment, 3);
$doxycomment =~ s/^\s+//;
$doxycomment = ' /**' . $commentblock . "\n *\n " . $doxycomment;
}
}
my $conversions =
convert_args_c_to_cpp($objCSignal, $objCppfunc, $line_num);
my $str = sprintf("_SIGNAL_PROXY(%s,%s,\`%s\',%s,%s,\`%s\',\`%s\',\`%s\',%s,\`%s\',%s,%s,%s,%s)dnl\n",
$signal_name,
$$objCSignal{rettype},
$objCSignal->args_types_and_names_without_object(),
$$objCppfunc{name},
$$objCppfunc{rettype},
$objCppfunc->args_types_only(),
$conversions,
$bCustomCCallback, #When this is true, it will not write the *_callback implementation for you.
$deprecated,
$doxycomment,
$ifdef,
$exceptionHandler,
$detail_name, # If a detailed name is supported (signal_name::detail_name)
$bTwoSignalMethods # If separate signal_xxx() methods for detailed and general name.
);
$self->append($str);
}
# void output_wrap_enum($filename, $line_num, $cpp_type, $c_type,
# $comment, $ref_subst_in, $ref_subst_out, $no_gtype,
# $deprecated, $deprecation_docs, $newin)
sub output_wrap_enum($$$$$$$$$$$$)
{
my ($self, $filename, $line_num, $cpp_type, $c_type,
$comment, $ref_subst_in, $ref_subst_out, $no_gtype,
$deprecated, $deprecation_docs, $newin) = @_;
my $objEnum = GtkDefs::lookup_enum($c_type);
if(!$objEnum)
{
$self->output_wrap_failed($c_type, "enum defs lookup failed.");
return;
}
$objEnum->beautify_values();
my $elements = $objEnum->build_element_list($ref_subst_in, $ref_subst_out, " ");
add_m4_quotes(\$elements);
if(!$elements)
{
$self->output_wrap_failed($c_type, "unknown _WRAP_ENUM() flag");
return;
}
my $value_suffix = "Enum";
$value_suffix = "Flags" if($$objEnum{flags});
# Get the enum documentation from the parsed docs.
my $enum_docs = DocsParser::lookup_enum_documentation("$c_type", "$cpp_type",
" ", $ref_subst_in, $ref_subst_out, $deprecation_docs, $newin);
# Merge the passed in comment to the existing enum documentation.
$comment .= "\n * " . $enum_docs if $enum_docs ne "";
my $str = sprintf("_ENUM(%s,%s,%s,\`%s\',\`%s\',\`%s\',\`%s\')dnl\n",
$cpp_type,
$c_type,
$value_suffix,
$elements,
$no_gtype,
$comment,
$deprecated
);
$self->append($str);
}
sub output_wrap_enum_docs_only($$$$$$$$$$$)
{
my ($self, $filename, $line_num, $module_canonical, $cpp_type, $c_type,
$comment, $ref_subst_in, $ref_subst_out, $deprecation_docs, $newin) = @_;
# Get the existing enum description from the parsed docs.
my $enum_docs = DocsParser::lookup_enum_documentation("$c_type", "$cpp_type",
" ", $ref_subst_in, $ref_subst_out, $deprecation_docs, $newin);
if($enum_docs eq "")
{
$self->output_wrap_failed($c_type, "failed to find documentation.");
return;
}
# Include the enum docs in the module's enum docs group.
$enum_docs .= "\n *\n * \@ingroup ${module_canonical}Enums";
# Merge the passed in comment to the existing enum documentation.
$comment = "/** " . $comment . "\n * " . $enum_docs . "\n */\n";
$self->append($comment);
}
# void output_wrap_gerror($filename, $line_num, $cpp_type, $c_type, $domain,
# $class_docs, $ref_subst_in, $ref_subst_out, $no_gtype,
# $deprecated, $deprecation_docs, $newin)
sub output_wrap_gerror($$$$$$$$$$$$$)
{
my ($self, $filename, $line_num, $cpp_type, $c_type, $domain,
$class_docs, $ref_subst_in, $ref_subst_out, $no_gtype,
$deprecated, $deprecation_docs, $newin) = @_;
my $objDefsParser = $$self{objDefsParser};
my $objEnum = GtkDefs::lookup_enum($c_type);
if(!$objEnum)
{
$self->output_wrap_failed($c_type, "enum defs lookup failed.");
return;
}
# Shouldn't happen, and if it does, I'd like to know that.
warn if($$objEnum{flags});
$objEnum->beautify_values();
# cut off the module prefix, e.g. GDK_
my $prefix = $domain;
$prefix =~ s/^[^_]+_//;
# Chop off the domain prefix, because we put the enum into the class.
unshift(@$ref_subst_in, "^${prefix}_");
unshift(@$ref_subst_out, "");
my $elements = $objEnum->build_element_list($ref_subst_in, $ref_subst_out, " ");
add_m4_quotes(\$elements);
# Get the enum documentation from the parsed docs.
my $enum_docs = DocsParser::lookup_enum_documentation("$c_type", "Code",
" ", $ref_subst_in, $ref_subst_out, $deprecation_docs, $newin);
# Prevent Doxygen from auto-linking to a class called Error.
$enum_docs =~ s/([^%])(Error code)/$1%$2/g;
# Add @newin and @deprecated to the class documentation, if appropriate.
my $extra_class_docs = "";
if ($newin ne "" and !($class_docs =~ /\@newin/))
{
$extra_class_docs .= "\n *\n *" if $class_docs;
$extra_class_docs .= " \@newin{$newin}";
}
if ($deprecation_docs ne "" and !($class_docs =~ /\@deprecated/))
{
$extra_class_docs .= "\n *\n *" if $class_docs or $extra_class_docs;
$extra_class_docs .= " \@deprecated $deprecation_docs";
}
if ($extra_class_docs ne "")
{
# $class_docs has got ` and ' replaced and m4 quotes added in WrapParser::
# on_comment_doxygen() and extract_preceding_documentation().
# Fix $extra_class_docs here. $deprecation_docs can contain any characters.
add_m4_quotes(\$extra_class_docs);
$class_docs .= $extra_class_docs;
}
# Prevent Doxygen from auto-linking to a class called Exception.
$class_docs =~ s/([^%])(Exception class)/$1%$2/g;
my $str = sprintf("_GERROR(%s,%s,%s,\`%s\',%s,\`%s\',\`%s\',\`%s\')dnl\n",
$cpp_type,
$c_type,
$domain,
$elements,
$no_gtype,
$class_docs,
$enum_docs,
$deprecated
);
$self->append($str);
}
# _PROPERTY_PROXY(name, cpp_type) and _CHILD_PROPERTY_PROXY(name, cpp_type)
# void output_wrap_any_property($filename, $line_num, $name, $cpp_type, $c_class, $deprecated, $deprecation_docs, $objProperty, $proxy_macro)
sub output_wrap_any_property($$$$$$$$$$)
{
my ($self, $filename, $line_num, $name, $cpp_type, $c_class, $deprecated,
$deprecation_docs, $newin, $objProperty, $proxy_macro) = @_;
my $objDefsParser = $$self{objDefsParser};
# We use a suffix to specify a particular Glib::PropertyProxy* class.
my $proxy_suffix = "";
# Read/Write:
if ($objProperty->get_construct_only())
{
# construct-only functions can be read, but not written.
$proxy_suffix = "_ReadOnly";
if (!$objProperty->get_readable())
{
$self->output_wrap_failed($name, "attempt to wrap write-only and construct-only property.");
return;
}
}
elsif (!$objProperty->get_readable())
{
$proxy_suffix = "_WriteOnly";
}
elsif (!$objProperty->get_writable())
{
$proxy_suffix = "_ReadOnly";
}
# Convert - to _ so we can use it in C++ method and variable names:
my $name_underscored = $name;
$name_underscored =~ tr/-/_/;
# Get the existing property documentation, if any, from the parsed docs.
my $documentation = DocsParser::lookup_documentation(
"$$objProperty{class}:$name_underscored", $deprecation_docs, $newin);
if ($documentation ne "")
{
# Remove leading "/**" and trailing "*/". They will be added by the m4 macro.
$documentation =~ s/^\s*\/\*\*\s*//;
$documentation =~ s/\s*\*\/\s*$//;
}
if ($documentation =~ /^`?[*\s]*
(?:
\@newin\{[\d,]+\}
|[Ss]ince[:\h]+\d+\.\d+
|\@deprecated\s
|[Dd]eprecated[:\s]
)/x)
{
# The documentation begins with a "@newin", "Since", "@deprecated" or
# "Deprecated" line. Get documentation also from the Property object,
# but don't add another @newin or @deprecated.
my $objdoc = $objProperty->get_docs("", "");
if ($objdoc ne "")
{
$documentation = "$objdoc\n *\n * $documentation";
}
}
elsif ($documentation eq "")
{
# Try to get the (usually short) documentation from the Property object.
$documentation = $objProperty->get_docs($deprecation_docs, $newin);
}
# Default value, if available:
my $default_value = $objProperty->get_default_value();
if (defined($default_value))
{
DocsParser::convert_value_to_cpp(\$default_value);
# Add double quotes around a string value.
if ($objProperty->get_type() eq "GParamString")
{
$default_value = "\"" . $default_value . "\"";
}
$default_value = "Default value: $default_value";
add_m4_quotes(\$default_value);
if ($documentation ne "")
{
$documentation .= "\n *\n * ";
}
$documentation .= $default_value;
}
#Declaration:
if($deprecated ne "")
{
$self->append("\n_DEPRECATE_IFDEF_START\n");
}
my $str = sprintf("$proxy_macro(%s,%s,%s,%s,%s,`%s')dnl\n",
$name,
$name_underscored,
$cpp_type,
$proxy_suffix,
$deprecated,
$documentation
);
$self->append($str);
$self->append("\n");
# If the property is not already read-only, and the property can be read,
# then add a second const accessor for a read-only propertyproxy:
if( ($proxy_suffix ne "_ReadOnly") && ($objProperty->get_readable()) )
{
my $str = sprintf("$proxy_macro(%s,%s,%s,%s,%s,`%s')dnl\n",
$name,
$name_underscored,
$cpp_type,
"_ReadOnly",
$deprecated,
$documentation
);
$self->append($str);
}
if($deprecated ne "")
{
$self->append("\n_DEPRECATE_IFDEF_END");
}
}
# _PROPERTY_PROXY(name, cpp_type)
# void output_wrap_property($filename, $line_num, $name, $cpp_type, $file_deprecated,
# $deprecated, $deprecation_docs)
sub output_wrap_property($$$$$$$$$$)
{
my ($self, $filename, $line_num, $name, $cpp_type, $c_class, $file_deprecated,
$deprecated, $deprecation_docs, $newin) = @_;
my $objProperty = GtkDefs::lookup_property($c_class, $name);
if($objProperty eq 0) #If the lookup failed:
{
$self->output_wrap_failed($name, "property defs lookup failed.");
}
else
{
Output::check_deprecation($file_deprecated, $objProperty->get_deprecated(),
$deprecated, $name, "property", "PROPERTY");
$self->output_wrap_any_property($filename, $line_num, $name, $cpp_type, $c_class,
$deprecated, $deprecation_docs, $newin, $objProperty, "_PROPERTY_PROXY");
}
}
# _CHILD_PROPERTY_PROXY(name, cpp_type)
# void output_wrap_child_property($filename, $line_num, $name, $cpp_type, $file_deprecated,
# $deprecated, $deprecation_docs)
sub output_wrap_child_property($$$$$$$$$$)
{
my ($self, $filename, $line_num, $name, $cpp_type, $c_class, $file_deprecated,
$deprecated, $deprecation_docs, $newin) = @_;
my $objChildProperty = GtkDefs::lookup_child_property($c_class, $name);
if($objChildProperty eq 0) #If the lookup failed:
{
$self->output_wrap_failed($name, "child property defs lookup failed.");
}
else
{
Output::check_deprecation($file_deprecated, $objChildProperty->get_deprecated(),
$deprecated, $name, "child property", "CHILD_PROPERTY");
$self->output_wrap_any_property($filename, $line_num, $name, $cpp_type, $c_class,
$deprecated, $deprecation_docs, $newin, $objChildProperty, "_CHILD_PROPERTY_PROXY");
}
}
sub add_m4_quotes($)
{
my ($text) = @_;
# __BT__ and __FT__ are M4 macros defined in the base.m4 file that produce
# a "`" and a "'" resp. without M4 errors.
my %m4_quotes = (
"`" => "'__BT__`",
"'" => "'__FT__`",
);
$$text =~ s/([`'])/$m4_quotes{$1}/g;
$$text = "`" . $$text . "'";
}
# void output_temp_g1($module, $glibmm_version) e.g. output_temp_g1(gtkmm, 2.38.0)
sub output_temp_g1($$$)
{
my ($self, $module, $glibmm_version) = @_;
# Write out *.g1 temporary file
open(FILE, '>', "$$self{tmpdir}/gtkmmproc_$$.g1"); # $$ is the Process ID
print FILE "include(base.m4)dnl\n";
my $module_canonical = Util::string_canonical($module); #In case there is a / character in the module.
print FILE "_START($$self{source},$module,$module_canonical,$glibmm_version)dnl\n";
print FILE join("", @{$$self{out}});
print FILE "_END()\n";
close(FILE);
}
sub make_g2_from_g1($)
{
my ($self) = @_;
# Execute m4 to get *.g2 file:
system("$$self{m4path} $$self{m4args} \"$$self{tmpdir}/gtkmmproc_$$.g1\" > \"$$self{tmpdir}/gtkmmproc_$$.g2\"");
return ($? >> 8);
}
# void write_sections_to_files()
# This is where we snip the /tmp/gtkmmproc*.g2 file into sections (,h, .cc, _private.h)
sub write_sections_to_files()
{
my ($self) = @_;
my $fname_h = "$$self{destdir}/$$self{source}.h";
my $fname_ph = "$$self{destdir}/private/$$self{source}_p.h";
my $fname_cc = "$$self{destdir}/$$self{source}.cc";
open(INPUT, '<', "$$self{tmpdir}/gtkmmproc_$$.g2"); # $$ is the process ID.
# open temporary file for each section
open(OUTPUT_H, '>', "$fname_h.tmp");
open(OUTPUT_PH, '>', "$fname_ph.tmp");
open(OUTPUT_CC, '>', "$fname_cc.tmp");
my $oldfh = select(OUTPUT_H);
my $blank = 0;
while(<INPUT>)
{
# section switching
if(/^#S 0/) { select(OUTPUT_H); next; }
if(/^#S 1/) { select(OUTPUT_PH); next; }
if(/^#S 2/) { select(OUTPUT_CC); next; }
# get rid of bogus blank lines
if(/^\s*$/) { ++$blank; } else { $blank = 0; }
next if($blank > 2);
print $_;
}
select($oldfh);
close(INPUT);
close(OUTPUT_H);
close(OUTPUT_PH);
close(OUTPUT_CC);
foreach($fname_h, $fname_ph, $fname_cc)
{
# overwrite the source file only if it has actually changed
# Win32 does fail at this, so we do the two steps separately:
#system("cmp -s '$_.tmp' '$_' || cp '$_.tmp' '$_'" ; rm -f '$_.tmp');
system("cmp -s '$_.tmp' '$_' || cp '$_.tmp' '$_'");
system("rm -f '$_.tmp'");
}
}
sub remove_temp_files($)
{
my ($self) = @_;
system("rm -f \"$$self{tmpdir}/gtkmmproc_$$.g1\"");
system("rm -f \"$$self{tmpdir}/gtkmmproc_$$.g2\"");
}
# procedure for generating CONVERT macros, C declarations (for C output
# variables), and INITIALIZE macros (to set the corresponding C++ parameters
# from the C output parameters) for the specified argument list
# (string, string, string) convert_args_cpp_to_c($objCppfunc, $objCDefsFunc, $static, $wrap_line_number,$automatic_error, $index = 0)
# The return is an array of 3 strings: The _CONVERT macros, the C declarations
# and the _INITIALIZE macros.
# The optional index specifies which arg list out of the possible combination
# of arguments based on whether any arguments are optional. index = 0 ==> all
# the arguments.
sub convert_args_cpp_to_c($$$$$)
{
my ($objCppfunc, $objCDefsFunc, $static, $wrap_line_number, $automatic_error, $index) = @_;
$automatic_error = "" unless defined $automatic_error;
$index = 0 unless defined $index;
my $cpp_param_names = $$objCppfunc{param_names};
my $cpp_param_types = $$objCppfunc{param_types};
my $cpp_param_flags = $$objCppfunc{param_flags};
my $c_param_name_mappings = $$objCppfunc{param_mappings};
my $c_param_types = $$objCDefsFunc{param_types};
my $c_param_names = $$objCDefsFunc{param_names};
my @conversions = ();
my @declarations = ();
my @initializations = ();
my $num_c_args_expected = scalar(@{$c_param_types});
if( !($static) ) { $num_c_args_expected--; } #The cpp method will need an Object* paramater at the start.
my $num_cpp_args = scalar(@{$cpp_param_types});
my $has_output_param = 0;
my $output_param_index;
# See if there is an output parameter. If so, temporarily decrement the
# number of C++ arguments so that the possible GError addition works and
# note the existence.
if(defined($$c_param_name_mappings{"OUT"}))
{
$num_cpp_args--;
$has_output_param = 1;
$output_param_index = $$c_param_name_mappings{"OUT"};
}
else
{
# Check for possible void return mismatch (warn if the option was
# specified to gmmproc at the command line).
if($main::return_mismatches &&
$$objCppfunc{rettype} eq "void" && $$objCDefsFunc{rettype} ne "void")
{
Output::error(
"void return of $$objCppfunc{name}() does not match the "
. "$$objCDefsFunc{rettype} return type.\n");
}
}
# add implicit last error parameter;
if ( $automatic_error ne "" &&
$num_cpp_args == ($num_c_args_expected - 1) &&
${$c_param_types}[-1] eq "GError**" )
{
$num_cpp_args++;
$cpp_param_names = [@{$cpp_param_names},"gerror"];
$cpp_param_types = [@{$cpp_param_types},"GError*&"];
$cpp_param_flags = [@{$cpp_param_flags}, 0];
# Map from the C gerror param name to the newly added C++ param index.
# The correct C++ index to map to (from the C name) depends on if there
# is an output parameter since it will be readded.
my $cpp_index = $num_cpp_args - 1;
$cpp_index++ if($has_output_param);
$$c_param_name_mappings{$$c_param_names[$num_c_args_expected]} = $cpp_index;
}
# If the method has a slot temporarily decrement the C arg count when
# comparing the C++ and C argument count because the C function would
# have a final 'gpointer data' parameter.
$num_c_args_expected-- if ($$objCppfunc{slot_name});
if ( $num_cpp_args != $num_c_args_expected )
{
Output::error( "convert_args_cpp_to_c(): Incorrect number of arguments. (%d != %d)\n",
$num_cpp_args,
$num_c_args_expected );
$objCppfunc->dump();
$objCDefsFunc->dump();
return ("", "", "");
}
# Reincrement the expected C argument count if there is a slot.
$num_c_args_expected++ if ($$objCppfunc{slot_name});
# If there is an output parameter it must be processed so re-increment (now)
# the number of C++ arguments.
$num_cpp_args++ if($has_output_param);
if ($index == 0)
{
# Check if the C param names in %$c_param_name_mappings exist.
foreach my $mapped_c_param_name (keys %$c_param_name_mappings)
{
next if $mapped_c_param_name eq "" || $mapped_c_param_name eq "OUT";
if (!grep($_ eq $mapped_c_param_name, @$c_param_names))
{
Output::error("convert_args_cpp_to_c(): There is no C argument called \"$mapped_c_param_name\"\n");
$objCDefsFunc->dump();
return ("", "", "");
}
}
}
# Get the desired argument list combination.
my $possible_arg_list = $$objCppfunc{possible_args_list}[$index];
# Tells if slot code should be included or not based on if a slot
# parameter is optional.
$$objCppfunc{include_slot} = 0;
# Loop through the parameters:
my $i;
my $cpp_param_max = $num_cpp_args;
# if( !($static) ) { $cpp_param_max++; }
for ($i = 0; $i < $cpp_param_max; $i++)
{
# Skip the output parameter because it is handled in output_wrap_meth().
next if($has_output_param && $i == $output_param_index);
#index of C parameter:
my $iCParam = $i;
if( !($static) ) { $iCParam++; }
# Account for a possible C++ output param in the C++ arg list.
$iCParam-- if($has_output_param && $i > $output_param_index);
my $c_param_name = $$c_param_names[$iCParam];
my $cpp_param_index = $i;
$cpp_param_index = $$c_param_name_mappings{$c_param_name} if(defined($$c_param_name_mappings{$c_param_name}));
my $cppParamType = $$cpp_param_types[$cpp_param_index];
$cppParamType =~ s/ &/&/g; #Remove space between type and &
$cppParamType =~ s/ \*/*/g; #Remove space between type and *
my $cppParamName = $$cpp_param_names[$cpp_param_index];
my $cParamType = $$c_param_types[$iCParam];
if(!($possible_arg_list =~ /\b$cpp_param_index\b/))
{
# If the C++ index is not found in the list of desired parameters, pass
# nullptr to the C func unless the param is not optional (applies to a
# possibly added GError parameter).
if ($$cpp_param_flags[$cpp_param_index] & FLAG_PARAM_OPTIONAL)
{
push(@conversions, "nullptr");
next;
}
}
if ($$cpp_param_flags[$cpp_param_index] & FLAG_PARAM_OUTPUT)
{
# Get a generic name for the C output parameter name.
my $cOutputParamName = "g_" . $$c_param_names[$iCParam];
my $cOutputParamType = $cParamType;
# Remove a possible final '*' from the output parameter type because it
# will be passed by C reference (&name).
$cOutputParamType =~ s/\*$//;
# Only initialize pointers to nullptr. Otherwise, use the default
# constructor of the type.
my $initialization = "";
if($cOutputParamType =~ /\*$/)
{
$initialization = " = nullptr";
}
else
{
$initialization = " = $cOutputParamType()";
}
push(@declarations, " $cOutputParamType $cOutputParamName$initialization;");
push(@conversions, "&" . $cOutputParamName);
push(@initializations, sprintf("_INITIALIZE(\`%s\',%s,%s,%s,%s);",
$cppParamType,
$cOutputParamType,
$cppParamName,
$cOutputParamName,
$wrap_line_number));
next;
}
# If dealing with a slot.
if ($$objCppfunc{slot_name} eq $cppParamName)
{
if ($$objCppfunc{slot_callback})
{
# The conversion for the slot is the address of the callback.
push(@conversions, "&" . $$objCppfunc{slot_callback});
}
else
{
Output::error(
"convert_args_cpp_to_c(): Missing a slot callback. " .
"Specify it with the 'slot_callback' option.\n",);
$objCppfunc->dump();
$objCDefsFunc->dump();
return ("", "", "");
}
# Get the slot type without the const and the & and store it so
# it can be passed to the m4 _*METHOD macros.
$cppParamType =~ /^const\s+(.*)&/;
$$objCppfunc{slot_type} = $1;
# Signal that the slot code should be included.
$$objCppfunc{include_slot} = 1;
next;
}
if ($cppParamType ne $cParamType) #If a type conversion is needed.
{
my $std_conversion = sprintf("_CONVERT(%s,%s,%s,%s)",
$cppParamType,
$cParamType,
$cppParamName,
$wrap_line_number);
# Shall an empty string be translated to a nullptr or to a pointer to
# an empty string? The default is "pointer to an empty string" for
# mandatory parameters, nullptr for optional parameters.
if (($$cpp_param_flags[$cpp_param_index] & FLAG_PARAM_NULLPTR) ||
(($$cpp_param_flags[$cpp_param_index] &
(FLAG_PARAM_OPTIONAL | FLAG_PARAM_EMPTY_STRING)) == FLAG_PARAM_OPTIONAL && # OPTIONAL and not EMPTY_STRING
$cppParamType =~ /^(const\s+)?(std::string|Glib::ustring)&?/))
{
push(@conversions, "$cppParamName.empty() ? nullptr : " . $std_conversion);
}
else
{
push(@conversions, $std_conversion);
}
}
else
{
push(@conversions, $cppParamName);
}
}
# Append the final slot copy parameter to the C function if the method
# has a slot. The m4 macros assume that that parameter name is
# "slot_copy". The m4 macros will either copy the slot to the
# "slot_copy" variable or set it to the address of the slot itself if
# the slot should not be copied.
if ($$objCppfunc{slot_name})
{
if ($$objCppfunc{include_slot})
{
push(@conversions, "slot_copy");
}
else
{
push(@conversions, "nullptr")
}
}
return ( join(", ", @conversions), join("\n", @declarations),
join("\n ", @initializations) );
}
# procedure for generating CONVERT macros
# Ignores the first C 'self' argument.
# $string convert_args_c_to_cpp($objCDefsFunc, $objCppFunc, $wrap_line_number)
sub convert_args_c_to_cpp($$$)
{
my ($objCDefsFunc, $objCppfunc, $wrap_line_number) = @_;
my $cpp_param_names = $$objCppfunc{param_names};
my $cpp_param_types = $$objCppfunc{param_types};
my $c_param_types = $$objCDefsFunc{param_types};
my $c_param_names = $$objCDefsFunc{param_names};
# This variable stores the C++ parameter mappings from the C++
# index to the C param name if the mappings exist.
my %cpp_index_param_mappings;
# Fill the index to param names mappings from the c param names to index
# mappings variable above.
@cpp_index_param_mappings{values %{$$objCppfunc{param_mappings}}}
= keys %{$$objCppfunc{param_mappings}};
my @result;
my $num_c_args = scalar(@{$c_param_types});
# If the the function has been marked as a function that throws errors
# (Glib::Error) don't count the last GError** argument.
$num_c_args-- if($$objCDefsFunc{throw_any_errors});
my $num_cpp_args = scalar(@{$cpp_param_types});
# If the method has a slot temporarily increment the C++ arg count when
# comparing the C++ and C argument count because the C function would
# have a final 'gpointer data' parameter and the C++ method would not.
$num_cpp_args++ if ($$objCppfunc{slot_name});
if ( ($num_cpp_args + 1) != $num_c_args )
{
Output::error( "convert_args_c_to_cpp(): Incorrect number of arguments. (%d != %d)\n",
$num_cpp_args + 1,
$num_c_args);
$objCppfunc->dump();
$objCDefsFunc->dump();
return "";
}
# Re-decrement the expected C++ argument count if there is a slot.
$num_cpp_args-- if ($$objCppfunc{slot_name});
# Loop through the C++ parameters:
my $i;
my $cpp_param_max = $num_cpp_args;
my $num_c_args = scalar(@{$c_param_names});
for ($i = 0; $i < $cpp_param_max; $i++)
{
my $cParamName = "";
my $c_index = 0;
if (defined $cpp_index_param_mappings{$i})
{
# If a mapping exists from the current index to a C param name,
# use that C param for the conversion.
$cParamName = $cpp_index_param_mappings{$i};
# Get the C index based on the C param name.
++$c_index until $c_index >= $num_c_args || $$c_param_names[$c_index] eq $cParamName;
if ($c_index >= $num_c_args)
{
Output::error("convert_args_c_to_cpp(): There is no C argument called \"$cParamName\"\n");
$objCDefsFunc->dump();
return "";
}
}
else
{
# If no mapping exists, the C index is the C++ index + 1 (to skip
# The 'self' argument of the C function).
$c_index = $i + 1;
$cParamName = $$c_param_names[$c_index];
}
my $cParamType = $$c_param_types[$c_index];
my $cppParamName = $$cpp_param_names[$i];
my $cppParamType = $$cpp_param_types[$i];
$cppParamType =~ s/ &/&/g; #Remove space between type and &.
$cppParamType =~ s/ \*/*/g; #Remove space between type and *
if ($$objCppfunc{slot_name})
{
# If the current parameter is the slot parameter insert the
# derefenced name of the variable containing the slot which is
# assumed to be '*slot'. The m4 macro is responsible for ensuring
# that the variable is declared and the slot in the 'user_data' C
# param is placed in the variable.
if ($$objCppfunc{slot_name} eq $cppParamName)
{
push(@result, "*slot");
# Get the slot type without the const and the '&' and store it so
# it can be passed to the m4 macro.
$cppParamType =~ /^const\s+(.*)&/;
# If the type does not contain
# any '::' then assume that it is in the library standard namespace
# by prepending '__NAMESPACE__::' to it which the m4 macros will
# translate to the library namespace.
my $plainCppParamType = $1;
$plainCppParamType = "__NAMESPACE__::" . $plainCppParamType
if (!($plainCppParamType =~ /::/));
$$objCppfunc{slot_type} = $plainCppParamType;
# Store the name of the C data parameter so it can be passed
# to the m4 macro so it can extract the slot.
$$objCppfunc{c_data_param_name} = $$c_param_names[$num_c_args - 1];
next;
}
}
if ($cParamType ne $cppParamType) #If a type conversion is needed.
{
push(@result, sprintf("_CONVERT(%s,%s,%s,%s)\n",
$cParamType,
$cppParamType,
$cParamName,
$wrap_line_number) );
}
else
{
push(@result, $cParamName);
}
}
return join(", ",@result);
}
# generates the XXX in g_object_new(get_type(), XXX): A list of property names
# and values. Uses the cpp arg name as the property name.
#
# - The optional index specifies which arg list out of the possible combination
# of arguments based on whether any arguments are optional. index = 0 ==> all
# the arguments.
#
# - The errthrow parameter tells if the C new function has a final GError**
# parameter. That parameter is ignored since it will not form part of the
# property list.
#
# $string get_ctor_properties($objCppfunc, $objCDefsFunc, $wrap_line_number, $errthrow, $index = 0)
sub get_ctor_properties($$$$$$)
{
my ($objCppfunc, $objCDefsFunc, $wrap_line_number, $errthrow, $index) = @_;
$index = 0 unless defined $index;
my $cpp_param_names = $$objCppfunc{param_names};
my $cpp_param_types = $$objCppfunc{param_types};
my $cpp_param_flags = $$objCppfunc{param_flags};
my $c_param_name_mappings = $$objCppfunc{param_mappings};
my $c_param_types = $$objCDefsFunc{param_types};
my $c_param_names = $$objCDefsFunc{param_names};
my @result;
my $num_args = scalar(@{$c_param_types});
# If the C function has a final GError** parameter, ignore it.
$num_args-- if ($errthrow eq "errthrow");
my $num_cpp_args = scalar(@{$cpp_param_types});
if ( $num_cpp_args != $num_args )
{
Output::error("get_ctor_properties(): Incorrect number of arguments. (%d != %d)\n",
$num_cpp_args,
$num_args );
return "";
}
if ($index == 0)
{
# Check if the C param names in %$c_param_name_mappings exist.
foreach my $mapped_c_param_name (keys %$c_param_name_mappings)
{
next if $mapped_c_param_name eq "";
if (!grep($_ eq $mapped_c_param_name, @$c_param_names))
{
Output::error("get_ctor_properties(): There is no C argument called \"$mapped_c_param_name\"\n");
$objCDefsFunc->dump();
return ("", "", "");
}
}
}
# Get the desired argument list combination.
my $possible_arg_list = $$objCppfunc{possible_args_list}[$index];
# Loop through the parameters:
my $i = 0;
for ($i = 0; $i < $num_args; $i++)
{
my $c_param_name = $$c_param_names[$i];
my $cpp_param_index = $i;
$cpp_param_index = $$c_param_name_mappings{$c_param_name} if(defined($$c_param_name_mappings{$c_param_name}));
my $cppParamType = $$cpp_param_types[$cpp_param_index];
$cppParamType =~ s/ &/&/g; #Remove space between type and &
$cppParamType =~ s/ \*/*/g; #Remove space between type and *
my $cppParamName = $$cpp_param_names[$cpp_param_index];
my $cParamType = $$c_param_types[$i];
# Property name:
push(@result, "\"" . $cppParamName . "\"");
if(!($possible_arg_list =~ /\b$cpp_param_index\b/))
{
# If the C++ index is not found in the list of desired parameters, pass
# nullptr to the C func unless the param is not optional.
if ($$cpp_param_flags[$cpp_param_index] & FLAG_PARAM_OPTIONAL)
{
push(@result, "nullptr");
next;
}
}
# C property value:
if ($cppParamType ne $cParamType) #If a type conversion is needed.
{
push(@result, sprintf("_CONVERT(%s,%s,%s,%s)",
$cppParamType,
$cParamType,
$cppParamName,
$wrap_line_number) );
}
else
{
push(@result, $cppParamName);
}
}
return join(", ", @result);
}
### Convert _WRAP to a corba method
# _CORBA_METHOD(retype, method_name,args, arg_names_only) - implemented in libbonobomm.
# void output_wrap_corba_method($filename, $line_num, $objCppFunc)
sub output_wrap_corba_method($$$$)
{
my ($self, $filename, $line_num, $objCppfunc) = @_;
my $str = sprintf("_CORBA_METHOD(%s,%s,\`%s\',\`%s\')dnl\n",
$$objCppfunc{rettype},
$$objCppfunc{name},
$objCppfunc->args_types_and_names(),
$objCppfunc->args_names_only()
);
$self->append($str);
}
sub output_implements_interface($$)
{
my ($self, $interface, $ifdef) = @_;
my $str = sprintf("_IMPLEMENTS_INTERFACE_CC(%s, %s)dnl\n",
$interface,
$ifdef);
$self->append($str);
}
1; # indicate proper module load.