def suspicious_type( type_ ):
if not declarations.is_reference( type_ ):
return False
type_no_ref = declarations.remove_reference( type_ )
return not declarations.is_const( type_no_ref ) \
and ( declarations.is_fundamental( type_no_ref )
or declarations.is_enum( type_no_ref ) )
def __find_out_class_dependencies( self, class_ ):
full_name = declarations.full_name
#class depends on it's base classes
i_depend_on_them = set( [ full_name( base.related_class ) for base in class_.bases ] )
#class depends on all classes that used in function as argument
# types and those arguments have default value
calldefs = filter( lambda decl: isinstance( decl, declarations.calldef_t )
, declarations.make_flatten( class_ ))
for calldef in calldefs:
for arg in calldef.arguments:
if declarations.is_enum( arg.type ):
top_class_inst = self.__get_top_class_inst( declarations.enum_declaration( arg.type ) )
if top_class_inst:
i_depend_on_them.add( full_name( top_class_inst ) )
continue
if not arg.default_value:
continue
if declarations.is_pointer( arg.type ) and arg.default_value == 0:
continue
base_type = declarations.base_type( arg.type )
if not isinstance( base_type, declarations.declarated_t ):
continue
top_class_inst = self.__get_top_class_inst( base_type.declaration )
if top_class_inst:
i_depend_on_them.add( full_name( top_class_inst ) )
for internal_cls in class_.classes(allow_empty=True):
internal_cls_dependencies = self.__find_out_class_dependencies( internal_cls )
i_depend_on_them.update( internal_cls_dependencies )
i_depend_on_them = list( i_depend_on_them )
i_depend_on_them.sort()
return i_depend_on_them
def is_immutable( type_ ):
"""returns True, if type_ represents Python immutable type"""
return declarations.is_fundamental( type_ ) \
or declarations.is_enum( type_ ) \
or declarations.is_std_string( type_ ) \
or declarations.is_std_wstring( type_ ) \
or declarations.smart_pointer_traits.is_smart_pointer( type_ )
def suspicious_type(type_):
if not declarations.is_reference(type_):
return False
type_no_ref = declarations.remove_reference(type_)
return not declarations.is_const(type_no_ref) and (
declarations.is_fundamental(type_no_ref) or declarations.is_enum(type_no_ref)
)
def _convert_opaque_to_token(x):
"""
convert either a string from re or a value from pygccxml to a struct token
"""
if type(x) is str:
return {
"BOOL": "?",
"UINT8_T": "B",
"INT8_T": "b",
"UINT16_T": "H",
"INT16_T": "h",
"UINT32_T": "I",
"INT32_T": "i",
"UINT64_T": "Q",
"INT64_T": "q",
"FLOAT": "f",
"DOUBLE": "d"
}[x.upper()]
elif isinstance(x,
declarations.declarated_t) and not declarations.is_enum(x):
return _convert_opaque_to_token(declarations.remove_alias(x))
elif declarations.is_integral(x) or declarations.is_enum(x):
basetoken = {1: "b", 2: "h", 4: "i", 8: "q"}[int(x.byte_size)]
try:
if "unsigned" in x.CPPNAME:
basetoken = basetoken.upper()
if "bool" in x.CPPNAME:
basetoken = '?'
except AttributeError:
pass
return basetoken
elif declarations.is_floating_point(x):
if isinstance(x, declarations.float_t):
return "f"
else:
return "d"
elif declarations.is_array(x):
basetoken = _convert_opaque_to_token(declarations.array_item_type(x))
return basetoken * x.size
else:
raise ValueError("unknown instance: " + repr(x))
def __is_unqualified_enum(self, func, arg):
type_ = declarations.remove_reference(declarations.remove_cv(arg.type))
if not declarations.is_enum(type_):
return False
enum_type = declarations.enum_declaration(type_)
# GCCXML does not qualify an enum value in the default argument
# but CastXML does. Split the default value and use only the
# enum value for fixing it.
return enum_type.has_value_name(arg.default_value.split('::')[-1])
def __find_out_class_dependencies(self, class_):
full_name = declarations.full_name
#class depends on it's base classes
i_depend_on_them = set(
[full_name(base.related_class) for base in class_.bases])
#class depends on all classes that used in function as argument
# types and those arguments have default value
calldefs = [
decl for decl in declarations.make_flatten(class_)
if isinstance(decl, declarations.calldef_t)
]
for calldef in calldefs:
for arg in calldef.arguments:
if declarations.is_enum(arg.type):
top_class_inst = self.__get_top_class_inst(
declarations.enum_declaration(arg.type))
if top_class_inst:
i_depend_on_them.add(full_name(top_class_inst))
continue
if not arg.default_value:
continue
if declarations.is_pointer(
arg.type) and arg.default_value == 0:
continue
base_type = declarations.base_type(arg.type)
if not isinstance(base_type, declarations.declarated_t):
continue
top_class_inst = self.__get_top_class_inst(
base_type.declaration)
if top_class_inst:
i_depend_on_them.add(full_name(top_class_inst))
if self.__include_vars:
vars = [
decl for decl in declarations.make_flatten(class_)
if isinstance(decl, declarations.variable_t)
]
for var in vars:
if declarations.is_pointer(var.type):
continue
base_type = declarations.base_type(var.type)
if not isinstance(base_type, declarations.declarated_t):
continue
top_class_inst = self.__get_top_class_inst(
base_type.declaration)
if top_class_inst:
i_depend_on_them.add(full_name(top_class_inst))
for internal_cls in class_.classes(allow_empty=True):
internal_cls_dependencies = self.__find_out_class_dependencies(
internal_cls)
i_depend_on_them.update(internal_cls_dependencies)
i_depend_on_them = list(i_depend_on_them)
i_depend_on_them.sort()
return i_depend_on_them
def __is_unqualified_enum(self, func, arg):
type_ = declarations.remove_reference(declarations.remove_cv(arg.type))
if not declarations.is_enum(type_):
return False
enum_type = declarations.enum_declaration(type_)
# GCCXML does not qualify an enum value in the default argument
# but CastXML does. Split the default value and use only the
# enum value for fixing it.
return enum_type.has_value_name(
arg.default_value.split('::')[-1])
def customize_module( mb ):
extmodule = mb.code_creator
extmodule.license = customization_data.license
# Insert a custom init call
extmodule.adopt_creator( code_creators.custom_text_t('extern void InitialiseTnFOXPython();\n\n'), len(extmodule.creators)-1)
extmodule.body.adopt_creator( code_creators.custom_text_t(' InitialiseTnFOXPython();\n\n'), 0)
# Remove all standard headers in favour of precompiled header
includes = filter( lambda creator: isinstance( creator, code_creators.include_t )
, extmodule.creators )
map( lambda creator: extmodule.remove_creator( creator ), includes )
position = extmodule.last_include_index() + 1
extmodule.adopt_creator( code_creators.namespace_using_t('::FX'), position )
extmodule.user_defined_directories.append( settings.generated_files_dir )
extmodule.adopt_include( code_creators.include_t( header='../common.h' ) )
extmodule.precompiled_header = '../common.h'
extmodule.adopt_include( code_creators.include_t( header='../patches.cpp.h' ) )
# Fix bug in gccxml where default args with function as value gain an extra ()
try:
constr = mb.constructor( 'FXPrimaryButton', arg_types=[None]*15 )
constr.arguments[10].default_value = '(FX::FXWindow::defaultPadding() * 4)'
constr.arguments[11].default_value = '(FX::FXWindow::defaultPadding() * 4)'
except: pass
# Patch default args with enums to be number (to avoid undeclared enum problem)
def args_declaration_wa( self ):
args = []
for index, arg in enumerate( self.declaration.arguments ):
result = arg.type.decl_string + ' ' + self.argument_name(index)
if arg.default_value:
result += '=%s' % arg.wrapper_default_value
args.append( result )
if len( args ) == 1:
return args[ 0 ]
return ', '.join( args )
code_creators.calldef.calldef_wrapper_t.args_declaration = args_declaration_wa
allfuncs = mb.calldefs()
for func in allfuncs:
#print type(func), type(func.parent), func
for arg in func.arguments:
if not arg.default_value:
continue
arg.wrapper_default_value = arg.default_value
if not declarations.is_enum( arg.type ):
continue
enum_ = declarations.enum_declaration( arg.type )
if isinstance( enum_.parent, declarations.namespace_t ):
continue #global enum
# Be lazy, and just lookup the last part
value = arg.default_value[ arg.default_value.rfind('::')+2: ]
arg.default_value = arg.type.declaration.values[ value ] + '/*' + arg.default_value + '*/'
def __should_use_enum_wa(self, arg):
global use_enum_workaround
if not declarations.is_enum(arg.type):
return False
if use_enum_workaround:
return True
#enum belongs to the class we are working on
if self.__decl.parent is declarations.enum_declaration( arg.type ).parent \
and isinstance( self.__decl, declarations.constructor_t ):
return True
return False
def __should_use_enum_wa( self, arg ):
global use_enum_workaround
if not declarations.is_enum( arg.type ):
return False
if use_enum_workaround:
return True
#enum belongs to the class we are working on
if self.__decl.parent is declarations.enum_declaration( arg.type ).parent \
and isinstance( self.__decl, declarations.constructor_t ):
return True
return False
def wrap_one_call_policy(fn):
rt = fn.return_type
if fn.return_type.decl_string == "char const *":
return # use default for strings
if fn.return_type.decl_string == "char *":
return # use default for strings
elif fn.return_type.decl_string == "void *":
return # use default for void pointers
elif fn.return_type.decl_string == "::GLvoid const *":
return # use default for void pointers
parent_ref = declarations.reference_t(declarations.declarated_t(fn.parent))
if declarations.is_reference(rt):
# Need type without reference for next type checks
nonref_rt = rt.base
if declarations.is_arithmetic(nonref_rt) or declarations.is_enum(
nonref_rt):
# returning const& double can cause compile trouble if return_internal_reference is used
if declarations.is_const(nonref_rt):
fn.call_policies = return_value_policy(copy_const_reference)
return
# int& might need to be copy_non_const_reference...
else:
fn.call_policies = return_value_policy(
copy_non_const_reference)
return
# Const string references should be copied to python strings
if declarations.is_std_string(nonref_rt) and declarations.is_const(
nonref_rt):
fn.call_policies = return_value_policy(copy_const_reference)
return
# Returning reference to this same class looks like return_self() [does this always work?]
if declarations.is_same(parent_ref, rt):
fn.call_policies = return_self()
return
elif declarations.is_pointer(rt):
# Clone methods
if re.search(r'^clone', fn.name):
fn.call_policies = return_value_policy(reference_existing_object)
return
else:
return
# Everything else probably returns an internal reference
fn.call_policies = return_internal_reference()
return
def wrap_one_call_policy(fn):
rt = fn.return_type
if fn.return_type.decl_string == "char const *":
return # use default for strings
if fn.return_type.decl_string == "char *":
return # use default for strings
elif fn.return_type.decl_string == "void *":
return # use default for void pointers
elif fn.return_type.decl_string == "::GLvoid const *":
return # use default for void pointers
parent_ref = declarations.reference_t(declarations.declarated_t(fn.parent))
if declarations.is_reference(rt):
# Need type without reference for next type checks
nonref_rt = rt.base
if declarations.is_arithmetic(nonref_rt) or declarations.is_enum(nonref_rt):
# returning const& double can cause compile trouble if return_internal_reference is used
if declarations.is_const(nonref_rt):
fn.call_policies = return_value_policy(copy_const_reference)
return
# int& might need to be copy_non_const_reference...
else:
fn.call_policies = return_value_policy(copy_non_const_reference)
return
# Const string references should be copied to python strings
if declarations.is_std_string(nonref_rt) and declarations.is_const(nonref_rt):
fn.call_policies = return_value_policy(copy_const_reference)
return
# Returning reference to this same class looks like return_self() [does this always work?]
if declarations.is_same(parent_ref, rt):
fn.call_policies = return_self()
return
elif declarations.is_pointer(rt):
# Clone methods
if re.search(r'^clone', fn.name):
fn.call_policies = return_value_policy(reference_existing_object)
return
else:
return
# Everything else probably returns an internal reference
fn.call_policies = return_internal_reference()
return
def check_args_exportable ( function, ns ):
""" Look at each argument in the function and determine that we have exported it
or it's a special.
"""
ret = True
Specials = ['::Ogre::String']
for a in function.arguments:
rawarg = declarations.remove_declarated(
declarations.remove_const(
declarations.remove_reference(
declarations.remove_pointer ( a.type ))))
## now check if the arg is a fundemental type (int float etc), a void
## or a special ..
if declarations.is_arithmetic (rawarg)\
or declarations.is_void(rawarg)\
or declarations.is_enum(rawarg):
pass
elif 'Ogre::' in a.type.decl_string: # assume it's a class and needs checking
name = a.type.decl_string.split()[0] # let's grab the actual class name
if name in Specials: # we know that the classes in specials DO exist
pass
else:
try:
tcls = ns.class_(name)
if not tcls.exportable or tcls.ignore or type ( tcls.parent ) != decl_wrappers.namespace_wrapper.namespace_t:
## print "check_args_exportable: NOT EXPORTABLE:", tcls, tcls.exportable, tcls.ignore , type ( tcls.parent )
ret = False
break
else:
pass # print name, "IS exportable"
except:
print "check_args_exportable: unable to find:", name
ret = False
else:
print "check_args_exportable: NOT SURE...", a, a.type, type(a.type)
return ret
def _create_member_list(struct_info):
new_type_members = []
for i in struct_info.variables():
if i.type_qualifiers.has_static:
continue
bitfield = None
enumer = None
if declarations.is_integral(i.decl_type):
try:
for enumerator in struct_info.enumerations():
if enumerator.byte_size != declarations.remove_alias(
i.decl_type).byte_size:
continue
elif enumerator.name != snake_to_camel(i.name):
continue
else:
bitfield = enumerator.get_name2value_dict()
break
except RuntimeError:
bitfield = None
elif declarations.is_enum(i.decl_type):
try:
enumer = global_namespace.enumeration(
i.decl_type.decl_string).get_name2value_dict()
except RuntimeError:
enumer = {}
if declarations.is_class(i.decl_type):
new_type_members.append(
DeclaredMemberStruct(
i.name, _create_member_list(i.decl_type.declaration)))
else:
new_type_members.append(
DeclaredMember(i.name,
_convert_opaque_to_token(i.decl_type),
bitfield=bitfield,
enumer=enumer))
return new_type_members
def _get_has_setter(self):
no_ref = declarations.remove_reference(self.declaration.decl_type)
no_const = declarations.remove_const(no_ref)
base_type = declarations.remove_alias(no_const)
if declarations.is_const(no_ref):
return False
if declarations.is_enum(base_type):
return True
if python_traits.is_immutable(self._get_var_type()):
return True
if not isinstance(base_type, declarations.declarated_t):
return True #TODO ????
decl = base_type.declaration
if decl.is_abstract:
return False
if declarations.has_destructor(
decl) and not declarations.has_public_destructor(decl):
return False
if not declarations.has_copy_constructor(decl):
return False
return True
def __is_unqualified_enum(self, func, arg):
type_ = declarations.remove_reference( declarations.remove_cv( arg.type ) )
if not declarations.is_enum( type_ ):
return False
enum_type = declarations.enum_declaration( type_ )
return enum_type.has_value_name( arg.default_value )
def __is_unqualified_enum(self, func, arg):
type_ = declarations.remove_reference( declarations.remove_cv( arg.type ) )
if not declarations.is_enum( type_ ):
return False
enum_type = declarations.enum_declaration( type_ )
return enum_type.has_value_name( arg.default_value )