{
static const size_t sizes[] = {
[TYPE_ATOMIC] = sizeof(atomic_type_t),
- [TYPE_COMPLEX] = sizeof(complex_type_t),
- [TYPE_IMAGINARY] = sizeof(imaginary_type_t),
[TYPE_COMPOUND_STRUCT] = sizeof(compound_type_t),
[TYPE_COMPOUND_UNION] = sizeof(compound_type_t),
[TYPE_ENUM] = sizeof(enum_type_t),
*/
atomic_type_properties_t atomic_type_properties[ATOMIC_TYPE_LAST+1] = {
[ATOMIC_TYPE_VOID] = {
- .size = 0,
- .alignment = 0,
- .flags = ATOMIC_TYPE_FLAG_NONE
+ .size = 1,
+ .alignment = 1,
+ .flags = ATOMIC_TYPE_FLAG_NONE,
+ .rank = 0,
},
- [ATOMIC_TYPE_WCHAR_T] = {
- .size = (unsigned)-1,
- .alignment = (unsigned)-1,
- .flags = ATOMIC_TYPE_FLAG_INTEGER | ATOMIC_TYPE_FLAG_ARITHMETIC,
+ [ATOMIC_TYPE_BOOL] = {
+ .size = 1,
+ .alignment = 1,
+ .flags = ATOMIC_TYPE_FLAG_INTEGER | ATOMIC_TYPE_FLAG_ARITHMETIC,
+ .rank = 1,
},
[ATOMIC_TYPE_CHAR] = {
.size = 1,
.alignment = 1,
.flags = ATOMIC_TYPE_FLAG_INTEGER | ATOMIC_TYPE_FLAG_ARITHMETIC,
+ .rank = 2,
},
[ATOMIC_TYPE_SCHAR] = {
.size = 1,
.alignment = 1,
.flags = ATOMIC_TYPE_FLAG_INTEGER | ATOMIC_TYPE_FLAG_ARITHMETIC
| ATOMIC_TYPE_FLAG_SIGNED,
+ .rank = 2,
},
[ATOMIC_TYPE_UCHAR] = {
.size = 1,
.alignment = 1,
.flags = ATOMIC_TYPE_FLAG_INTEGER | ATOMIC_TYPE_FLAG_ARITHMETIC,
+ .rank = 2,
},
[ATOMIC_TYPE_SHORT] = {
.size = 2,
.alignment = 2,
.flags = ATOMIC_TYPE_FLAG_INTEGER | ATOMIC_TYPE_FLAG_ARITHMETIC
- | ATOMIC_TYPE_FLAG_SIGNED
+ | ATOMIC_TYPE_FLAG_SIGNED,
+ .rank = 3,
},
[ATOMIC_TYPE_USHORT] = {
.size = 2,
.alignment = 2,
.flags = ATOMIC_TYPE_FLAG_INTEGER | ATOMIC_TYPE_FLAG_ARITHMETIC,
+ .rank = 3,
},
[ATOMIC_TYPE_INT] = {
.size = (unsigned) -1,
.alignment = (unsigned) -1,
.flags = ATOMIC_TYPE_FLAG_INTEGER | ATOMIC_TYPE_FLAG_ARITHMETIC
| ATOMIC_TYPE_FLAG_SIGNED,
+ .rank = 4,
},
[ATOMIC_TYPE_UINT] = {
.size = (unsigned) -1,
.alignment = (unsigned) -1,
.flags = ATOMIC_TYPE_FLAG_INTEGER | ATOMIC_TYPE_FLAG_ARITHMETIC,
+ .rank = 4,
},
[ATOMIC_TYPE_LONG] = {
.size = (unsigned) -1,
.alignment = (unsigned) -1,
.flags = ATOMIC_TYPE_FLAG_INTEGER | ATOMIC_TYPE_FLAG_ARITHMETIC
| ATOMIC_TYPE_FLAG_SIGNED,
+ .rank = 5,
},
[ATOMIC_TYPE_ULONG] = {
.size = (unsigned) -1,
.alignment = (unsigned) -1,
.flags = ATOMIC_TYPE_FLAG_INTEGER | ATOMIC_TYPE_FLAG_ARITHMETIC,
+ .rank = 5,
},
- [ATOMIC_TYPE_BOOL] = {
- .size = 1,
- .alignment = 1,
+ [ATOMIC_TYPE_LONGLONG] = {
+ .size = 8,
+ .alignment = 8,
+ .flags = ATOMIC_TYPE_FLAG_INTEGER | ATOMIC_TYPE_FLAG_ARITHMETIC
+ | ATOMIC_TYPE_FLAG_SIGNED,
+ .rank = 6,
+ },
+ [ATOMIC_TYPE_ULONGLONG] = {
+ .size = 8,
+ .alignment = 8,
.flags = ATOMIC_TYPE_FLAG_INTEGER | ATOMIC_TYPE_FLAG_ARITHMETIC,
+ .rank = 6,
},
[ATOMIC_TYPE_FLOAT] = {
.size = 4,
.alignment = 4,
.flags = ATOMIC_TYPE_FLAG_FLOAT | ATOMIC_TYPE_FLAG_ARITHMETIC
| ATOMIC_TYPE_FLAG_SIGNED,
+ .rank = 0,
},
[ATOMIC_TYPE_DOUBLE] = {
.size = 8,
.alignment = 8,
.flags = ATOMIC_TYPE_FLAG_FLOAT | ATOMIC_TYPE_FLAG_ARITHMETIC
| ATOMIC_TYPE_FLAG_SIGNED,
+ .rank = 0,
+ },
+ [ATOMIC_TYPE_WCHAR_T] = {
+ .size = (unsigned)-1,
+ .alignment = (unsigned)-1,
+ .flags = ATOMIC_TYPE_FLAG_INTEGER | ATOMIC_TYPE_FLAG_ARITHMETIC,
+ .rank = (unsigned)-1,
},
};
atomic_type_properties_t pointer_properties = {
pointer_properties.alignment = long_size;
pointer_properties.struct_alignment = long_size;
- props[ATOMIC_TYPE_LONGLONG] = props[ATOMIC_TYPE_LONG];
- props[ATOMIC_TYPE_ULONGLONG] = props[ATOMIC_TYPE_ULONG];
props[ATOMIC_TYPE_LONG_DOUBLE] = props[ATOMIC_TYPE_DOUBLE];
props[ATOMIC_TYPE_WCHAR_T] = props[ATOMIC_TYPE_INT];
/* set struct alignments to the same value as alignment */
- for (size_t i = 0;
- i < sizeof(atomic_type_properties)/sizeof(atomic_type_properties[0]);
- ++i) {
+ for (size_t i = 0; i != lengthof(atomic_type_properties); ++i) {
props[i].struct_alignment = props[i].alignment;
}
}
*
* @param type The type.
*/
-static void print_complex_type(const complex_type_t *type)
+static void print_complex_type(const atomic_type_t *type)
{
print_type_qualifiers(type->base.qualifiers, QUAL_SEP_END);
print_string("_Complex");
*
* @param type The type.
*/
-static void print_imaginary_type(const imaginary_type_t *type)
+static void print_imaginary_type(const atomic_type_t *type)
{
print_type_qualifiers(type->base.qualifiers, QUAL_SEP_END);
print_string("_Imaginary ");
static void print_function_type_pre(const function_type_t *type)
{
switch (type->linkage) {
- case LINKAGE_INVALID:
- break;
-
case LINKAGE_C:
if (c_mode & _CXX)
print_string("extern \"C\" ");
static void print_function_type_post(const function_type_t *type,
const scope_t *parameters)
{
- print_string("(");
+ print_char('(');
bool first = true;
if (parameters == NULL) {
function_parameter_t *parameter = type->parameters;
if (first && !type->unspecified_parameters) {
print_string("void");
}
- print_string(")");
+ print_char(')');
intern_print_type_post(type->return_type);
}
print_string(variable->base.base.symbol->string);
print_string(") ");
}
- print_string("*");
+ print_char('*');
print_type_qualifiers(type->base.qualifiers, QUAL_SEP_START);
}
{
type_t const *const points_to = type->points_to;
if (points_to->kind == TYPE_ARRAY || points_to->kind == TYPE_FUNCTION)
- print_string(")");
+ print_char(')');
intern_print_type_post(points_to);
}
intern_print_type_pre(refers_to);
if (refers_to->kind == TYPE_ARRAY || refers_to->kind == TYPE_FUNCTION)
print_string(" (");
- print_string("&");
+ print_char('&');
}
/**
{
type_t const *const refers_to = type->refers_to;
if (refers_to->kind == TYPE_ARRAY || refers_to->kind == TYPE_FUNCTION)
- print_string(")");
+ print_char(')');
intern_print_type_post(refers_to);
}
*/
static void print_array_type_post(const array_type_t *type)
{
- print_string("[");
+ print_char('[');
if (type->is_static) {
print_string("static ");
}
&& (print_implicit_array_size || !type->has_implicit_size)) {
print_expression(type->size_expression);
}
- print_string("]");
+ print_char(']');
intern_print_type_post(type->element_type);
}
-/**
- * Prints an enum definition.
- *
- * @param declaration The enum's type declaration.
- */
void print_enum_definition(const enum_t *enume)
{
print_string("{\n");
print_string(entry->base.symbol->string);
if (entry->enum_value.value != NULL) {
print_string(" = ");
-
- /* skip the implicit cast */
- expression_t *expression = entry->enum_value.value;
- print_expression(expression);
+ print_expression(entry->enum_value.value);
}
print_string(",\n");
}
change_indent(-1);
print_indent();
- print_string("}");
+ print_char('}');
}
/**
*/
static void print_type_enum(const enum_type_t *type)
{
- print_type_qualifiers(type->base.qualifiers, QUAL_SEP_END);
+ print_type_qualifiers(type->base.base.qualifiers, QUAL_SEP_END);
print_string("enum ");
enum_t *enume = type->enume;
}
}
-/**
- * Print the compound part of a compound type.
- */
void print_compound_definition(const compound_t *compound)
{
print_string("{\n");
print_indent();
print_entity(entity);
- print_string("\n");
+ print_char('\n');
}
change_indent(-1);
print_indent();
- print_string("}");
+ print_char('}');
if (compound->modifiers & DM_TRANSPARENT_UNION) {
print_string("__attribute__((__transparent_union__))");
}
} else {
print_type(type->typeof_type);
}
- print_string(")");
+ print_char(')');
}
/**
case TYPE_ERROR:
print_string("<error>");
return;
- case TYPE_INVALID:
- print_string("<invalid>");
- return;
case TYPE_ENUM:
print_type_enum(&type->enumt);
return;
print_atomic_type(&type->atomic);
return;
case TYPE_COMPLEX:
- print_complex_type(&type->complex);
+ print_complex_type(&type->atomic);
return;
case TYPE_IMAGINARY:
- print_imaginary_type(&type->imaginary);
+ print_imaginary_type(&type->atomic);
return;
case TYPE_COMPOUND_STRUCT:
case TYPE_COMPOUND_UNION:
print_array_type_post(&type->array);
return;
case TYPE_ERROR:
- case TYPE_INVALID:
case TYPE_ATOMIC:
case TYPE_COMPLEX:
case TYPE_IMAGINARY:
}
}
-/**
- * Prints a type.
- *
- * @param type The type.
- */
void print_type(const type_t *const type)
{
print_type_ext(type, NULL, NULL);
{
intern_print_type_pre(type);
if (symbol != NULL) {
- print_string(" ");
+ print_char(' ');
print_string(symbol->string);
}
if (type->kind == TYPE_FUNCTION) {
}
}
-/**
- * Duplicates a type.
- *
- * @param type The type to copy.
- * @return A copy of the type.
- *
- * @note This does not produce a deep copy!
- */
type_t *duplicate_type(const type_t *type)
{
size_t size = get_type_struct_size(type->kind);
return copy;
}
-/**
- * Returns the unqualified type of a given type.
- *
- * @param type The type.
- * @returns The unqualified type.
- */
type_t *get_unqualified_type(type_t *type)
{
assert(!is_typeref(type));
return identify_new_type(copy);
}
-/**
- * Check if a type is valid.
- *
- * @param type The type to check.
- * @return true if type represents a valid type.
- */
-bool type_valid(const type_t *type)
-{
- return type->kind != TYPE_INVALID;
-}
-
static bool test_atomic_type_flag(atomic_type_kind_t kind,
atomic_type_flag_t flag)
{
return (atomic_type_properties[kind].flags & flag) != 0;
}
-/**
- * Returns true if the given type is an integer type.
- *
- * @param type The type to check.
- * @return True if type is an integer type.
- */
bool is_type_integer(const type_t *type)
{
assert(!is_typeref(type));
return test_atomic_type_flag(type->atomic.akind, ATOMIC_TYPE_FLAG_INTEGER);
}
-/**
- * Returns true if the given type is an enum type.
- *
- * @param type The type to check.
- * @return True if type is an enum type.
- */
bool is_type_enum(const type_t *type)
{
assert(!is_typeref(type));
return type->kind == TYPE_ENUM;
}
-/**
- * Returns true if the given type is an floating point type.
- *
- * @param type The type to check.
- * @return True if type is a floating point type.
- */
bool is_type_float(const type_t *type)
{
assert(!is_typeref(type));
return test_atomic_type_flag(type->atomic.akind, ATOMIC_TYPE_FLAG_FLOAT);
}
-/**
- * Returns true if the given type is an complex type.
- *
- * @param type The type to check.
- * @return True if type is a complex type.
- */
bool is_type_complex(const type_t *type)
{
assert(!is_typeref(type));
return test_atomic_type_flag(type->atomic.akind, ATOMIC_TYPE_FLAG_COMPLEX);
}
-/**
- * Returns true if the given type is a signed type.
- *
- * @param type The type to check.
- * @return True if type is a signed type.
- */
bool is_type_signed(const type_t *type)
{
assert(!is_typeref(type));
return test_atomic_type_flag(type->atomic.akind, ATOMIC_TYPE_FLAG_SIGNED);
}
-/**
- * Returns true if the given type represents an arithmetic type.
- *
- * @param type The type to check.
- * @return True if type represents an arithmetic type.
- */
bool is_type_arithmetic(const type_t *type)
{
assert(!is_typeref(type));
case TYPE_ENUM:
return true;
case TYPE_ATOMIC:
- return test_atomic_type_flag(type->atomic.akind, ATOMIC_TYPE_FLAG_ARITHMETIC);
case TYPE_COMPLEX:
- return test_atomic_type_flag(type->complex.akind, ATOMIC_TYPE_FLAG_ARITHMETIC);
case TYPE_IMAGINARY:
- return test_atomic_type_flag(type->imaginary.akind, ATOMIC_TYPE_FLAG_ARITHMETIC);
+ return test_atomic_type_flag(type->atomic.akind, ATOMIC_TYPE_FLAG_ARITHMETIC);
default:
return false;
}
}
-/**
- * Returns true if the given type is an integer or float type.
- *
- * @param type The type to check.
- * @return True if type is an integer or float type.
- */
bool is_type_real(const type_t *type)
{
/* 6.2.5 (17) */
return is_type_integer(type) || is_type_float(type);
}
-/**
- * Returns true if the given type represents a scalar type.
- *
- * @param type The type to check.
- * @return True if type represents a scalar type.
- */
bool is_type_scalar(const type_t *type)
{
assert(!is_typeref(type));
return is_type_arithmetic(type);
}
-/**
- * Check if a given type is incomplete.
- *
- * @param type The type to check.
- * @return True if the given type is incomplete (ie. just forward).
- */
bool is_type_incomplete(const type_t *type)
{
assert(!is_typeref(type));
&& !type->array.size_constant;
case TYPE_ATOMIC:
- return type->atomic.akind == ATOMIC_TYPE_VOID;
-
- case TYPE_COMPLEX:
- return type->complex.akind == ATOMIC_TYPE_VOID;
-
case TYPE_IMAGINARY:
- return type->imaginary.akind == ATOMIC_TYPE_VOID;
+ case TYPE_COMPLEX:
+ return type->atomic.akind == ATOMIC_TYPE_VOID;
case TYPE_FUNCTION:
case TYPE_POINTER:
case TYPE_TYPEDEF:
case TYPE_TYPEOF:
panic("is_type_incomplete called without typerefs skipped");
- case TYPE_INVALID:
- break;
}
panic("invalid type found");
return array1->size == array2->size;
}
-/**
- * Check if two types are compatible.
- */
bool types_compatible(const type_t *type1, const type_t *type2)
{
assert(!is_typeref(type1));
case TYPE_FUNCTION:
return function_types_compatible(&type1->function, &type2->function);
case TYPE_ATOMIC:
- return type1->atomic.akind == type2->atomic.akind;
- case TYPE_COMPLEX:
- return type1->complex.akind == type2->complex.akind;
case TYPE_IMAGINARY:
- return type1->imaginary.akind == type2->imaginary.akind;
+ case TYPE_COMPLEX:
+ return type1->atomic.akind == type2->atomic.akind;
case TYPE_ARRAY:
return array_types_compatible(&type1->array, &type2->array);
case TYPE_ERROR:
/* Hmm, the error type should be compatible to all other types */
return true;
- case TYPE_INVALID:
- panic("invalid type found in compatible types");
case TYPE_TYPEDEF:
case TYPE_TYPEOF:
panic("typerefs not skipped in compatible types?!?");
unsigned get_type_size(type_t *type)
{
switch (type->kind) {
- case TYPE_INVALID:
- break;
case TYPE_ERROR:
return 0;
case TYPE_ATOMIC:
+ case TYPE_IMAGINARY:
+ case TYPE_ENUM:
return get_atomic_type_size(type->atomic.akind);
case TYPE_COMPLEX:
- return get_atomic_type_size(type->complex.akind) * 2;
- case TYPE_IMAGINARY:
- return get_atomic_type_size(type->imaginary.akind);
+ return get_atomic_type_size(type->atomic.akind) * 2;
case TYPE_COMPOUND_UNION:
layout_union_type(&type->compound);
return type->compound.compound->size;
case TYPE_COMPOUND_STRUCT:
layout_struct_type(&type->compound);
return type->compound.compound->size;
- case TYPE_ENUM:
- return get_atomic_type_size(type->enumt.akind);
case TYPE_FUNCTION:
- return 0; /* non-const (but "address-const") */
+ return 1; /* strange GNU extensions: sizeof(function) == 1 */
case TYPE_REFERENCE:
case TYPE_POINTER:
return pointer_properties.size;
case TYPE_TYPEDEF:
return get_type_size(type->typedeft.typedefe->type);
case TYPE_TYPEOF:
- if (type->typeoft.typeof_type) {
- return get_type_size(type->typeoft.typeof_type);
- } else {
- return get_type_size(type->typeoft.expression->base.type);
- }
+ return get_type_size(type->typeoft.typeof_type);
}
panic("invalid type in get_type_size");
}
unsigned get_type_alignment(type_t *type)
{
switch (type->kind) {
- case TYPE_INVALID:
- break;
case TYPE_ERROR:
return 0;
case TYPE_ATOMIC:
- return get_atomic_type_alignment(type->atomic.akind);
- case TYPE_COMPLEX:
- return get_atomic_type_alignment(type->complex.akind);
case TYPE_IMAGINARY:
- return get_atomic_type_alignment(type->imaginary.akind);
+ case TYPE_COMPLEX:
+ case TYPE_ENUM:
+ return get_atomic_type_alignment(type->atomic.akind);
case TYPE_COMPOUND_UNION:
layout_union_type(&type->compound);
return type->compound.compound->alignment;
case TYPE_COMPOUND_STRUCT:
layout_struct_type(&type->compound);
return type->compound.compound->alignment;
- case TYPE_ENUM:
- return get_atomic_type_alignment(type->enumt.akind);
case TYPE_FUNCTION:
/* gcc says 1 here... */
return 1;
return alignment;
}
case TYPE_TYPEOF:
- if (type->typeoft.typeof_type) {
- return get_type_alignment(type->typeoft.typeof_type);
- } else {
- return get_type_alignment(type->typeoft.expression->base.type);
- }
+ return get_type_alignment(type->typeoft.typeof_type);
}
panic("invalid type in get_type_alignment");
}
-unsigned get_type_alignment_compound(type_t *type)
+/**
+ * get alignment of a type when used inside a compound.
+ * Some ABIs are broken and alignment inside a compound is different from
+ * recommended alignment of a type
+ */
+static unsigned get_type_alignment_compound(type_t *const type)
{
+ assert(!is_typeref(type));
if (type->kind == TYPE_ATOMIC)
return atomic_type_properties[type->atomic.akind].struct_alignment;
return get_type_alignment(type);
decl_modifiers_t get_type_modifiers(const type_t *type)
{
switch(type->kind) {
- case TYPE_INVALID:
case TYPE_ERROR:
break;
case TYPE_COMPOUND_STRUCT:
return modifiers;
}
case TYPE_TYPEOF:
- if (type->typeoft.typeof_type) {
- return get_type_modifiers(type->typeoft.typeof_type);
- } else {
- return get_type_modifiers(type->typeoft.expression->base.type);
- }
+ return get_type_modifiers(type->typeoft.typeof_type);
}
panic("invalid type found in get_type_modifiers");
}
* @param akind The kind of the atomic type.
* @param qualifiers Type qualifiers for the new type.
*/
-type_t *make_complex_type(atomic_type_kind_t akind, type_qualifiers_t qualifiers)
+type_t *make_complex_type(atomic_type_kind_t akind,
+ type_qualifiers_t qualifiers)
{
type_t *const type = allocate_type_zero(TYPE_COMPLEX);
type->base.qualifiers = qualifiers;
- type->complex.akind = akind;
+ type->atomic.akind = akind;
return identify_new_type(type);
}
* @param akind The kind of the atomic type.
* @param qualifiers Type qualifiers for the new type.
*/
-type_t *make_imaginary_type(atomic_type_kind_t akind, type_qualifiers_t qualifiers)
+type_t *make_imaginary_type(atomic_type_kind_t akind,
+ type_qualifiers_t qualifiers)
{
type_t *const type = allocate_type_zero(TYPE_IMAGINARY);
type->base.qualifiers = qualifiers;
- type->imaginary.akind = akind;
+ type->atomic.akind = akind;
return identify_new_type(type);
}
if (!member->compound_member.bitfield)
break;
- type_t *base_type = member->declaration.type;
+ type_t *const base_type = skip_typeref(member->declaration.type);
il_alignment_t base_alignment = get_type_alignment_compound(base_type);
il_alignment_t alignment_mask = base_alignment-1;
if (base_alignment > alignment)
entity_t *entry = compound->members.entities;
while (entry != NULL) {
- if (entry->kind != ENTITY_COMPOUND_MEMBER) {
- entry = entry->base.next;
- continue;
- }
+ if (entry->kind != ENTITY_COMPOUND_MEMBER)
+ goto next;
- type_t *m_type = entry->declaration.type;
- type_t *skipped = skip_typeref(m_type);
- if (! is_type_valid(skipped)) {
- entry = entry->base.next;
- continue;
- }
+ type_t *const m_type = skip_typeref(entry->declaration.type);
+ if (!is_type_valid(m_type))
+ goto next;
if (entry->compound_member.bitfield) {
entry = pack_bitfield_members(&offset, &alignment,
entry->compound_member.offset = offset;
offset += get_type_size(m_type);
+next:
entry = entry->base.next;
}
if (entry->kind != ENTITY_COMPOUND_MEMBER)
continue;
- type_t *m_type = entry->declaration.type;
+ type_t *m_type = skip_typeref(entry->declaration.type);
if (! is_type_valid(skip_typeref(m_type)))
continue;
}
type_t *make_function_2_type(type_t *return_type, type_t *argument_type1,
- type_t *argument_type2)
+ type_t *argument_type2, decl_modifiers_t modifiers)
{
function_parameter_t *const parameter2 = allocate_parameter(argument_type2);
function_parameter_t *const parameter1 = allocate_parameter(argument_type1);
type_t *type = allocate_type_zero(TYPE_FUNCTION);
type->function.return_type = return_type;
type->function.parameters = parameter1;
+ type->function.modifiers |= modifiers;
type->function.linkage = LINKAGE_C;
return identify_new_type(type);
}
-type_t *make_function_1_type(type_t *return_type, type_t *argument_type)
+type_t *make_function_1_type(type_t *return_type, type_t *argument_type,
+ decl_modifiers_t modifiers)
{
function_parameter_t *const parameter = allocate_parameter(argument_type);
type_t *type = allocate_type_zero(TYPE_FUNCTION);
type->function.return_type = return_type;
type->function.parameters = parameter;
+ type->function.modifiers |= modifiers;
type->function.linkage = LINKAGE_C;
return identify_new_type(type);
}
type_t *make_function_1_type_variadic(type_t *return_type,
- type_t *argument_type)
+ type_t *argument_type,
+ decl_modifiers_t modifiers)
{
function_parameter_t *const parameter = allocate_parameter(argument_type);
type->function.return_type = return_type;
type->function.parameters = parameter;
type->function.variadic = true;
+ type->function.modifiers |= modifiers;
type->function.linkage = LINKAGE_C;
return identify_new_type(type);
}
-type_t *make_function_0_type(type_t *return_type)
+type_t *make_function_0_type(type_t *return_type, decl_modifiers_t modifiers)
{
type_t *type = allocate_type_zero(TYPE_FUNCTION);
type->function.return_type = return_type;
type->function.parameters = NULL;
+ type->function.modifiers |= modifiers;
type->function.linkage = LINKAGE_C;
return identify_new_type(type);
{
print_to_file(stderr);
print_type(type);
- print_string("\n");
+ print_char('\n');
fflush(stderr);
}