ATOMIC_TYPE_LONG_DOUBLE,
ATOMIC_TYPE_BOOL,
- ATOMIC_TYPE_FLOAT_COMPLEX,
- ATOMIC_TYPE_DOUBLE_COMPLEX,
- ATOMIC_TYPE_LONG_DOUBLE_COMPLEX,
- ATOMIC_TYPE_FLOAT_IMAGINARY,
- ATOMIC_TYPE_DOUBLE_IMAGINARY,
- ATOMIC_TYPE_LONG_DOUBLE_IMAGINARY,
-
- ATOMIC_TYPE_LAST = ATOMIC_TYPE_LONG_DOUBLE_IMAGINARY
+ ATOMIC_TYPE_LAST = ATOMIC_TYPE_BOOL
} atomic_type_kind_t;
typedef enum {
typedef struct type_base_t type_base_t;
typedef struct atomic_type_t atomic_type_t;
+typedef struct complex_type_t complex_type_t;
+typedef struct imaginary_type_t imaginary_type_t;
typedef struct pointer_type_t pointer_type_t;
typedef struct function_parameter_t function_parameter_t;
typedef struct function_type_t function_type_t;
*/
bool is_type_float(const type_t *type);
+bool is_type_real(const type_t *type);
+
/**
* returns true if the type is valid. A type is valid if it contains no
* unresolved references anymore and is not of TYPE_INVALID.
bool type_valid(const type_t *type);
/**
- * returns true if the type is an arithmetic type (6.2.18)
+ * returns true if the type is an arithmetic type (§6.2.5 clause 18)
*/
bool is_type_arithmetic(const type_t *type);
/**
- * returns true if the type is a scalar type (6.2.21)
+ * returns true if the type is a scalar type (§6.2.5 clause 21)
*/
bool is_type_scalar(const type_t *type);
bool is_type_incomplete(const type_t *type);
-bool types_compatible(const type_t *type1, const type_t *type2);
+bool is_type_object(const type_t *type);
-bool pointers_compatible(const type_t *type1, const type_t *type2);
+bool types_compatible(const type_t *type1, const type_t *type2);
type_t *get_unqualified_type(type_t *type);
type_t *skip_typeref(type_t *type);
*/
unsigned get_atomic_type_flags(atomic_type_kind_t kind);
+atomic_type_kind_t get_intptr_kind(void);
+atomic_type_kind_t get_uintptr_kind(void);
+
/**
* Find the atomic type kind representing a given size (signed).
*/