#include <intprops.h>
INLINE_HEADER_BEGIN
-#ifndef LISP_INLINE
-# define LISP_INLINE INLINE
-#endif
/* The ubiquitous max and min macros. */
#undef min
ARGS should be parenthesized. Implement the function by calling
lisp_h_NAME ARGS. */
#define LISP_MACRO_DEFUN(name, type, argdecls, args) \
- LISP_INLINE type (name) argdecls { return lisp_h_##name args; }
+ INLINE type (name) argdecls { return lisp_h_##name args; }
/* like LISP_MACRO_DEFUN, except NAME returns void. */
#define LISP_MACRO_DEFUN_VOID(name, argdecls, args) \
- LISP_INLINE void (name) argdecls { lisp_h_##name args; }
+ INLINE void (name) argdecls { lisp_h_##name args; }
/* Define the fundamental Lisp data structures. */
/* Make a Lisp integer representing the value of the low order
bits of N. */
-LISP_INLINE Lisp_Object
+INLINE Lisp_Object
make_number (EMACS_INT n)
{
return XIL (USE_LSB_TAG ? n << INTTYPEBITS : n & INTMASK);
}
/* Extract A's value as a signed integer. */
-LISP_INLINE EMACS_INT
+INLINE EMACS_INT
XINT (Lisp_Object a)
{
EMACS_INT i = XLI (a);
/* Like XINT (A), but may be faster. A must be nonnegative.
If ! USE_LSB_TAG, this takes advantage of the fact that Lisp
integers have zero-bits in their tags. */
-LISP_INLINE EMACS_INT
+INLINE EMACS_INT
XFASTINT (Lisp_Object a)
{
EMACS_INT n = USE_LSB_TAG ? XINT (a) : XLI (a);
}
/* Extract A's type. */
-LISP_INLINE enum Lisp_Type
+INLINE enum Lisp_Type
XTYPE (Lisp_Object a)
{
EMACS_UINT i = XLI (a);
}
/* Extract A's pointer value, assuming A's type is TYPE. */
-LISP_INLINE void *
+INLINE void *
XUNTAG (Lisp_Object a, int type)
{
if (USE_LSB_TAG)
#endif /* ! USE_LSB_TAG */
/* Extract A's value as an unsigned integer. */
-LISP_INLINE EMACS_UINT
+INLINE EMACS_UINT
XUINT (Lisp_Object a)
{
EMACS_UINT i = XLI (a);
LISP_MACRO_DEFUN (XHASH, EMACS_INT, (Lisp_Object a), (a))
/* Like make_number (N), but may be faster. N must be in nonnegative range. */
-LISP_INLINE Lisp_Object
+INLINE Lisp_Object
make_natnum (EMACS_INT n)
{
eassert (0 <= n && n <= MOST_POSITIVE_FIXNUM);
#define FIXNUM_OVERFLOW_P(i) \
(! ((0 <= (i) || MOST_NEGATIVE_FIXNUM <= (i)) && (i) <= MOST_POSITIVE_FIXNUM))
-LISP_INLINE ptrdiff_t
+INLINE ptrdiff_t
clip_to_bounds (ptrdiff_t lower, EMACS_INT num, ptrdiff_t upper)
{
return num < lower ? lower : num <= upper ? num : upper;
/* Defined in this file. */
union Lisp_Fwd;
-LISP_INLINE bool BOOL_VECTOR_P (Lisp_Object);
-LISP_INLINE bool BUFFER_OBJFWDP (union Lisp_Fwd *);
-LISP_INLINE bool BUFFERP (Lisp_Object);
-LISP_INLINE bool CHAR_TABLE_P (Lisp_Object);
-LISP_INLINE Lisp_Object CHAR_TABLE_REF_ASCII (Lisp_Object, ptrdiff_t);
-LISP_INLINE bool (CONSP) (Lisp_Object);
-LISP_INLINE bool (FLOATP) (Lisp_Object);
-LISP_INLINE bool functionp (Lisp_Object);
-LISP_INLINE bool (INTEGERP) (Lisp_Object);
-LISP_INLINE bool (MARKERP) (Lisp_Object);
-LISP_INLINE bool (MISCP) (Lisp_Object);
-LISP_INLINE bool (NILP) (Lisp_Object);
-LISP_INLINE bool OVERLAYP (Lisp_Object);
-LISP_INLINE bool PROCESSP (Lisp_Object);
-LISP_INLINE bool PSEUDOVECTORP (Lisp_Object, int);
-LISP_INLINE bool SAVE_VALUEP (Lisp_Object);
-LISP_INLINE void set_sub_char_table_contents (Lisp_Object, ptrdiff_t,
+INLINE bool BOOL_VECTOR_P (Lisp_Object);
+INLINE bool BUFFER_OBJFWDP (union Lisp_Fwd *);
+INLINE bool BUFFERP (Lisp_Object);
+INLINE bool CHAR_TABLE_P (Lisp_Object);
+INLINE Lisp_Object CHAR_TABLE_REF_ASCII (Lisp_Object, ptrdiff_t);
+INLINE bool (CONSP) (Lisp_Object);
+INLINE bool (FLOATP) (Lisp_Object);
+INLINE bool functionp (Lisp_Object);
+INLINE bool (INTEGERP) (Lisp_Object);
+INLINE bool (MARKERP) (Lisp_Object);
+INLINE bool (MISCP) (Lisp_Object);
+INLINE bool (NILP) (Lisp_Object);
+INLINE bool OVERLAYP (Lisp_Object);
+INLINE bool PROCESSP (Lisp_Object);
+INLINE bool PSEUDOVECTORP (Lisp_Object, int);
+INLINE bool SAVE_VALUEP (Lisp_Object);
+INLINE void set_sub_char_table_contents (Lisp_Object, ptrdiff_t,
Lisp_Object);
-LISP_INLINE bool STRINGP (Lisp_Object);
-LISP_INLINE bool SUB_CHAR_TABLE_P (Lisp_Object);
-LISP_INLINE bool SUBRP (Lisp_Object);
-LISP_INLINE bool (SYMBOLP) (Lisp_Object);
-LISP_INLINE bool (VECTORLIKEP) (Lisp_Object);
-LISP_INLINE bool WINDOWP (Lisp_Object);
-LISP_INLINE struct Lisp_Save_Value *XSAVE_VALUE (Lisp_Object);
+INLINE bool STRINGP (Lisp_Object);
+INLINE bool SUB_CHAR_TABLE_P (Lisp_Object);
+INLINE bool SUBRP (Lisp_Object);
+INLINE bool (SYMBOLP) (Lisp_Object);
+INLINE bool (VECTORLIKEP) (Lisp_Object);
+INLINE bool WINDOWP (Lisp_Object);
+INLINE struct Lisp_Save_Value *XSAVE_VALUE (Lisp_Object);
/* Defined in chartab.c. */
extern Lisp_Object char_table_ref (Lisp_Object, int);
LISP_MACRO_DEFUN (XCONS, struct Lisp_Cons *, (Lisp_Object a), (a))
-LISP_INLINE struct Lisp_Vector *
+INLINE struct Lisp_Vector *
XVECTOR (Lisp_Object a)
{
eassert (VECTORLIKEP (a));
return XUNTAG (a, Lisp_Vectorlike);
}
-LISP_INLINE struct Lisp_String *
+INLINE struct Lisp_String *
XSTRING (Lisp_Object a)
{
eassert (STRINGP (a));
LISP_MACRO_DEFUN (XSYMBOL, struct Lisp_Symbol *, (Lisp_Object a), (a))
-LISP_INLINE struct Lisp_Float *
+INLINE struct Lisp_Float *
XFLOAT (Lisp_Object a)
{
eassert (FLOATP (a));
/* Pseudovector types. */
-LISP_INLINE struct Lisp_Process *
+INLINE struct Lisp_Process *
XPROCESS (Lisp_Object a)
{
eassert (PROCESSP (a));
return XUNTAG (a, Lisp_Vectorlike);
}
-LISP_INLINE struct window *
+INLINE struct window *
XWINDOW (Lisp_Object a)
{
eassert (WINDOWP (a));
return XUNTAG (a, Lisp_Vectorlike);
}
-LISP_INLINE struct terminal *
+INLINE struct terminal *
XTERMINAL (Lisp_Object a)
{
return XUNTAG (a, Lisp_Vectorlike);
}
-LISP_INLINE struct Lisp_Subr *
+INLINE struct Lisp_Subr *
XSUBR (Lisp_Object a)
{
eassert (SUBRP (a));
return XUNTAG (a, Lisp_Vectorlike);
}
-LISP_INLINE struct buffer *
+INLINE struct buffer *
XBUFFER (Lisp_Object a)
{
eassert (BUFFERP (a));
return XUNTAG (a, Lisp_Vectorlike);
}
-LISP_INLINE struct Lisp_Char_Table *
+INLINE struct Lisp_Char_Table *
XCHAR_TABLE (Lisp_Object a)
{
eassert (CHAR_TABLE_P (a));
return XUNTAG (a, Lisp_Vectorlike);
}
-LISP_INLINE struct Lisp_Sub_Char_Table *
+INLINE struct Lisp_Sub_Char_Table *
XSUB_CHAR_TABLE (Lisp_Object a)
{
eassert (SUB_CHAR_TABLE_P (a));
return XUNTAG (a, Lisp_Vectorlike);
}
-LISP_INLINE struct Lisp_Bool_Vector *
+INLINE struct Lisp_Bool_Vector *
XBOOL_VECTOR (Lisp_Object a)
{
eassert (BOOL_VECTOR_P (a));
/* Construct a Lisp_Object from a value or address. */
-LISP_INLINE Lisp_Object
+INLINE Lisp_Object
make_lisp_ptr (void *ptr, enum Lisp_Type type)
{
EMACS_UINT utype = type;
return a;
}
-LISP_INLINE Lisp_Object
+INLINE Lisp_Object
make_lisp_proc (struct Lisp_Process *p)
{
return make_lisp_ptr (p, Lisp_Vectorlike);
fields are not accessible. (What if we want to switch to
a copying collector someday? Cached cons cell field addresses may be
invalidated at arbitrary points.) */
-LISP_INLINE Lisp_Object *
+INLINE Lisp_Object *
xcar_addr (Lisp_Object c)
{
return &XCONS (c)->car;
}
-LISP_INLINE Lisp_Object *
+INLINE Lisp_Object *
xcdr_addr (Lisp_Object c)
{
return &XCONS (c)->u.cdr;
Note that both arguments may refer to the same object, so 'n'
should not be read after 'c' is first modified. */
-LISP_INLINE void
+INLINE void
XSETCAR (Lisp_Object c, Lisp_Object n)
{
*xcar_addr (c) = n;
}
-LISP_INLINE void
+INLINE void
XSETCDR (Lisp_Object c, Lisp_Object n)
{
*xcdr_addr (c) = n;
}
/* Take the car or cdr of something whose type is not known. */
-LISP_INLINE Lisp_Object
+INLINE Lisp_Object
CAR (Lisp_Object c)
{
return (CONSP (c) ? XCAR (c)
: NILP (c) ? Qnil
: wrong_type_argument (Qlistp, c));
}
-LISP_INLINE Lisp_Object
+INLINE Lisp_Object
CDR (Lisp_Object c)
{
return (CONSP (c) ? XCDR (c)
}
/* Take the car or cdr of something whose type is not known. */
-LISP_INLINE Lisp_Object
+INLINE Lisp_Object
CAR_SAFE (Lisp_Object c)
{
return CONSP (c) ? XCAR (c) : Qnil;
}
-LISP_INLINE Lisp_Object
+INLINE Lisp_Object
CDR_SAFE (Lisp_Object c)
{
return CONSP (c) ? XCDR (c) : Qnil;
};
/* True if STR is a multibyte string. */
-LISP_INLINE bool
+INLINE bool
STRING_MULTIBYTE (Lisp_Object str)
{
return 0 <= XSTRING (str)->size_byte;
/* Convenience functions for dealing with Lisp strings. */
-LISP_INLINE unsigned char *
+INLINE unsigned char *
SDATA (Lisp_Object string)
{
return XSTRING (string)->data;
}
-LISP_INLINE char *
+INLINE char *
SSDATA (Lisp_Object string)
{
/* Avoid "differ in sign" warnings. */
return (char *) SDATA (string);
}
-LISP_INLINE unsigned char
+INLINE unsigned char
SREF (Lisp_Object string, ptrdiff_t index)
{
return SDATA (string)[index];
}
-LISP_INLINE void
+INLINE void
SSET (Lisp_Object string, ptrdiff_t index, unsigned char new)
{
SDATA (string)[index] = new;
}
-LISP_INLINE ptrdiff_t
+INLINE ptrdiff_t
SCHARS (Lisp_Object string)
{
return XSTRING (string)->size;
#ifdef GC_CHECK_STRING_BYTES
extern ptrdiff_t string_bytes (struct Lisp_String *);
#endif
-LISP_INLINE ptrdiff_t
+INLINE ptrdiff_t
STRING_BYTES (struct Lisp_String *s)
{
#ifdef GC_CHECK_STRING_BYTES
#endif
}
-LISP_INLINE ptrdiff_t
+INLINE ptrdiff_t
SBYTES (Lisp_Object string)
{
return STRING_BYTES (XSTRING (string));
}
-LISP_INLINE void
+INLINE void
STRING_SET_CHARS (Lisp_Object string, ptrdiff_t newsize)
{
XSTRING (string)->size = newsize;
}
-LISP_INLINE void
+INLINE void
STRING_COPYIN (Lisp_Object string, ptrdiff_t index, char const *new,
ptrdiff_t count)
{
/* Conveniences for dealing with Lisp arrays. */
-LISP_INLINE Lisp_Object
+INLINE Lisp_Object
AREF (Lisp_Object array, ptrdiff_t idx)
{
return XVECTOR (array)->contents[idx];
}
-LISP_INLINE Lisp_Object *
+INLINE Lisp_Object *
aref_addr (Lisp_Object array, ptrdiff_t idx)
{
return & XVECTOR (array)->contents[idx];
}
-LISP_INLINE ptrdiff_t
+INLINE ptrdiff_t
ASIZE (Lisp_Object array)
{
return XVECTOR (array)->header.size;
}
-LISP_INLINE void
+INLINE void
ASET (Lisp_Object array, ptrdiff_t idx, Lisp_Object val)
{
eassert (0 <= idx && idx < ASIZE (array));
XVECTOR (array)->contents[idx] = val;
}
-LISP_INLINE void
+INLINE void
gc_aset (Lisp_Object array, ptrdiff_t idx, Lisp_Object val)
{
/* Like ASET, but also can be used in the garbage collector:
Lisp_Object contents[FLEXIBLE_ARRAY_MEMBER];
};
-LISP_INLINE Lisp_Object
+INLINE Lisp_Object
CHAR_TABLE_REF_ASCII (Lisp_Object ct, ptrdiff_t idx)
{
struct Lisp_Char_Table *tbl = NULL;
/* Almost equivalent to Faref (CT, IDX) with optimization for ASCII
characters. Do not check validity of CT. */
-LISP_INLINE Lisp_Object
+INLINE Lisp_Object
CHAR_TABLE_REF (Lisp_Object ct, int idx)
{
return (ASCII_CHAR_P (idx)
/* Equivalent to Faset (CT, IDX, VAL) with optimization for ASCII and
8-bit European characters. Do not check validity of CT. */
-LISP_INLINE void
+INLINE void
CHAR_TABLE_SET (Lisp_Object ct, int idx, Lisp_Object val)
{
if (ASCII_CHAR_P (idx) && SUB_CHAR_TABLE_P (XCHAR_TABLE (ct)->ascii))
/* Return the number of "extra" slots in the char table CT. */
-LISP_INLINE int
+INLINE int
CHAR_TABLE_EXTRA_SLOTS (struct Lisp_Char_Table *ct)
{
return ((ct->header.size & PSEUDOVECTOR_SIZE_MASK)
LISP_MACRO_DEFUN (SYMBOL_VAL, Lisp_Object, (struct Lisp_Symbol *sym), (sym))
-LISP_INLINE struct Lisp_Symbol *
+INLINE struct Lisp_Symbol *
SYMBOL_ALIAS (struct Lisp_Symbol *sym)
{
eassert (sym->redirect == SYMBOL_VARALIAS);
return sym->val.alias;
}
-LISP_INLINE struct Lisp_Buffer_Local_Value *
+INLINE struct Lisp_Buffer_Local_Value *
SYMBOL_BLV (struct Lisp_Symbol *sym)
{
eassert (sym->redirect == SYMBOL_LOCALIZED);
return sym->val.blv;
}
-LISP_INLINE union Lisp_Fwd *
+INLINE union Lisp_Fwd *
SYMBOL_FWD (struct Lisp_Symbol *sym)
{
eassert (sym->redirect == SYMBOL_FORWARDED);
LISP_MACRO_DEFUN_VOID (SET_SYMBOL_VAL,
(struct Lisp_Symbol *sym, Lisp_Object v), (sym, v))
-LISP_INLINE void
+INLINE void
SET_SYMBOL_ALIAS (struct Lisp_Symbol *sym, struct Lisp_Symbol *v)
{
eassert (sym->redirect == SYMBOL_VARALIAS);
sym->val.alias = v;
}
-LISP_INLINE void
+INLINE void
SET_SYMBOL_BLV (struct Lisp_Symbol *sym, struct Lisp_Buffer_Local_Value *v)
{
eassert (sym->redirect == SYMBOL_LOCALIZED);
sym->val.blv = v;
}
-LISP_INLINE void
+INLINE void
SET_SYMBOL_FWD (struct Lisp_Symbol *sym, union Lisp_Fwd *v)
{
eassert (sym->redirect == SYMBOL_FORWARDED);
sym->val.fwd = v;
}
-LISP_INLINE Lisp_Object
+INLINE Lisp_Object
SYMBOL_NAME (Lisp_Object sym)
{
return XSYMBOL (sym)->name;
/* Value is true if SYM is an interned symbol. */
-LISP_INLINE bool
+INLINE bool
SYMBOL_INTERNED_P (Lisp_Object sym)
{
return XSYMBOL (sym)->interned != SYMBOL_UNINTERNED;
/* Value is true if SYM is interned in initial_obarray. */
-LISP_INLINE bool
+INLINE bool
SYMBOL_INTERNED_IN_INITIAL_OBARRAY_P (Lisp_Object sym)
{
return XSYMBOL (sym)->interned == SYMBOL_INTERNED_IN_INITIAL_OBARRAY;
};
-LISP_INLINE struct Lisp_Hash_Table *
+INLINE struct Lisp_Hash_Table *
XHASH_TABLE (Lisp_Object a)
{
return XUNTAG (a, Lisp_Vectorlike);
#define XSET_HASH_TABLE(VAR, PTR) \
(XSETPSEUDOVECTOR (VAR, PTR, PVEC_HASH_TABLE))
-LISP_INLINE bool
+INLINE bool
HASH_TABLE_P (Lisp_Object a)
{
return PSEUDOVECTORP (a, PVEC_HASH_TABLE);
}
/* Value is the key part of entry IDX in hash table H. */
-LISP_INLINE Lisp_Object
+INLINE Lisp_Object
HASH_KEY (struct Lisp_Hash_Table *h, ptrdiff_t idx)
{
return AREF (h->key_and_value, 2 * idx);
}
/* Value is the value part of entry IDX in hash table H. */
-LISP_INLINE Lisp_Object
+INLINE Lisp_Object
HASH_VALUE (struct Lisp_Hash_Table *h, ptrdiff_t idx)
{
return AREF (h->key_and_value, 2 * idx + 1);
/* Value is the index of the next entry following the one at IDX
in hash table H. */
-LISP_INLINE Lisp_Object
+INLINE Lisp_Object
HASH_NEXT (struct Lisp_Hash_Table *h, ptrdiff_t idx)
{
return AREF (h->next, idx);
}
/* Value is the hash code computed for entry IDX in hash table H. */
-LISP_INLINE Lisp_Object
+INLINE Lisp_Object
HASH_HASH (struct Lisp_Hash_Table *h, ptrdiff_t idx)
{
return AREF (h->hash, idx);
/* Value is the index of the element in hash table H that is the
start of the collision list at index IDX in the index vector of H. */
-LISP_INLINE Lisp_Object
+INLINE Lisp_Object
HASH_INDEX (struct Lisp_Hash_Table *h, ptrdiff_t idx)
{
return AREF (h->index, idx);
}
/* Value is the size of hash table H. */
-LISP_INLINE ptrdiff_t
+INLINE ptrdiff_t
HASH_TABLE_SIZE (struct Lisp_Hash_Table *h)
{
return ASIZE (h->next);
/* Combine two integers X and Y for hashing. The result might not fit
into a Lisp integer. */
-LISP_INLINE EMACS_UINT
+INLINE EMACS_UINT
sxhash_combine (EMACS_UINT x, EMACS_UINT y)
{
return (x << 4) + (x >> (BITS_PER_EMACS_INT - 4)) + y;
/* Hash X, returning a value that fits into a fixnum. */
-LISP_INLINE EMACS_UINT
+INLINE EMACS_UINT
SXHASH_REDUCE (EMACS_UINT x)
{
return (x ^ x >> (BITS_PER_EMACS_INT - FIXNUM_BITS)) & INTMASK;
};
/* Return the type of V's Nth saved value. */
-LISP_INLINE int
+INLINE int
save_type (struct Lisp_Save_Value *v, int n)
{
eassert (0 <= n && n < SAVE_VALUE_SLOTS);
/* Get and set the Nth saved pointer. */
-LISP_INLINE void *
+INLINE void *
XSAVE_POINTER (Lisp_Object obj, int n)
{
eassert (save_type (XSAVE_VALUE (obj), n) == SAVE_POINTER);
return XSAVE_VALUE (obj)->data[n].pointer;
}
-LISP_INLINE void
+INLINE void
set_save_pointer (Lisp_Object obj, int n, void *val)
{
eassert (save_type (XSAVE_VALUE (obj), n) == SAVE_POINTER);
XSAVE_VALUE (obj)->data[n].pointer = val;
}
-LISP_INLINE voidfuncptr
+INLINE voidfuncptr
XSAVE_FUNCPOINTER (Lisp_Object obj, int n)
{
eassert (save_type (XSAVE_VALUE (obj), n) == SAVE_FUNCPOINTER);
/* Likewise for the saved integer. */
-LISP_INLINE ptrdiff_t
+INLINE ptrdiff_t
XSAVE_INTEGER (Lisp_Object obj, int n)
{
eassert (save_type (XSAVE_VALUE (obj), n) == SAVE_INTEGER);
return XSAVE_VALUE (obj)->data[n].integer;
}
-LISP_INLINE void
+INLINE void
set_save_integer (Lisp_Object obj, int n, ptrdiff_t val)
{
eassert (save_type (XSAVE_VALUE (obj), n) == SAVE_INTEGER);
/* Extract Nth saved object. */
-LISP_INLINE Lisp_Object
+INLINE Lisp_Object
XSAVE_OBJECT (Lisp_Object obj, int n)
{
eassert (save_type (XSAVE_VALUE (obj), n) == SAVE_OBJECT);
struct Lisp_Save_Value u_save_value;
};
-LISP_INLINE union Lisp_Misc *
+INLINE union Lisp_Misc *
XMISC (Lisp_Object a)
{
return XUNTAG (a, Lisp_Misc);
}
-LISP_INLINE struct Lisp_Misc_Any *
+INLINE struct Lisp_Misc_Any *
XMISCANY (Lisp_Object a)
{
eassert (MISCP (a));
return & XMISC (a)->u_any;
}
-LISP_INLINE enum Lisp_Misc_Type
+INLINE enum Lisp_Misc_Type
XMISCTYPE (Lisp_Object a)
{
return XMISCANY (a)->type;
}
-LISP_INLINE struct Lisp_Marker *
+INLINE struct Lisp_Marker *
XMARKER (Lisp_Object a)
{
eassert (MARKERP (a));
return & XMISC (a)->u_marker;
}
-LISP_INLINE struct Lisp_Overlay *
+INLINE struct Lisp_Overlay *
XOVERLAY (Lisp_Object a)
{
eassert (OVERLAYP (a));
return & XMISC (a)->u_overlay;
}
-LISP_INLINE struct Lisp_Save_Value *
+INLINE struct Lisp_Save_Value *
XSAVE_VALUE (Lisp_Object a)
{
eassert (SAVE_VALUEP (a));
struct Lisp_Kboard_Objfwd u_kboard_objfwd;
};
-LISP_INLINE enum Lisp_Fwd_Type
+INLINE enum Lisp_Fwd_Type
XFWDTYPE (union Lisp_Fwd *a)
{
return a->u_intfwd.type;
}
-LISP_INLINE struct Lisp_Buffer_Objfwd *
+INLINE struct Lisp_Buffer_Objfwd *
XBUFFER_OBJFWD (union Lisp_Fwd *a)
{
eassert (BUFFER_OBJFWDP (a));
} u;
};
-LISP_INLINE double
+INLINE double
XFLOAT_DATA (Lisp_Object f)
{
return XFLOAT (f)->u.data;
LISP_MACRO_DEFUN (NILP, bool, (Lisp_Object x), (x))
-LISP_INLINE bool
+INLINE bool
NUMBERP (Lisp_Object x)
{
return INTEGERP (x) || FLOATP (x);
}
-LISP_INLINE bool
+INLINE bool
NATNUMP (Lisp_Object x)
{
return INTEGERP (x) && 0 <= XINT (x);
}
-LISP_INLINE bool
+INLINE bool
RANGED_INTEGERP (intmax_t lo, Lisp_Object x, intmax_t hi)
{
return INTEGERP (x) && lo <= XINT (x) && XINT (x) <= hi;
LISP_MACRO_DEFUN (VECTORLIKEP, bool, (Lisp_Object x), (x))
LISP_MACRO_DEFUN (MARKERP, bool, (Lisp_Object x), (x))
-LISP_INLINE bool
+INLINE bool
STRINGP (Lisp_Object x)
{
return XTYPE (x) == Lisp_String;
}
-LISP_INLINE bool
+INLINE bool
VECTORP (Lisp_Object x)
{
return VECTORLIKEP (x) && ! (ASIZE (x) & PSEUDOVECTOR_FLAG);
}
-LISP_INLINE bool
+INLINE bool
OVERLAYP (Lisp_Object x)
{
return MISCP (x) && XMISCTYPE (x) == Lisp_Misc_Overlay;
}
-LISP_INLINE bool
+INLINE bool
SAVE_VALUEP (Lisp_Object x)
{
return MISCP (x) && XMISCTYPE (x) == Lisp_Misc_Save_Value;
}
-LISP_INLINE bool
+INLINE bool
AUTOLOADP (Lisp_Object x)
{
return CONSP (x) && EQ (Qautoload, XCAR (x));
}
-LISP_INLINE bool
+INLINE bool
BUFFER_OBJFWDP (union Lisp_Fwd *a)
{
return XFWDTYPE (a) == Lisp_Fwd_Buffer_Obj;
}
-LISP_INLINE bool
+INLINE bool
PSEUDOVECTOR_TYPEP (struct vectorlike_header *a, int code)
{
return ((a->size & (PSEUDOVECTOR_FLAG | PVEC_TYPE_MASK))
}
/* True if A is a pseudovector whose code is CODE. */
-LISP_INLINE bool
+INLINE bool
PSEUDOVECTORP (Lisp_Object a, int code)
{
if (! VECTORLIKEP (a))
/* Test for specific pseudovector types. */
-LISP_INLINE bool
+INLINE bool
WINDOW_CONFIGURATIONP (Lisp_Object a)
{
return PSEUDOVECTORP (a, PVEC_WINDOW_CONFIGURATION);
}
-LISP_INLINE bool
+INLINE bool
PROCESSP (Lisp_Object a)
{
return PSEUDOVECTORP (a, PVEC_PROCESS);
}
-LISP_INLINE bool
+INLINE bool
WINDOWP (Lisp_Object a)
{
return PSEUDOVECTORP (a, PVEC_WINDOW);
}
-LISP_INLINE bool
+INLINE bool
TERMINALP (Lisp_Object a)
{
return PSEUDOVECTORP (a, PVEC_TERMINAL);
}
-LISP_INLINE bool
+INLINE bool
SUBRP (Lisp_Object a)
{
return PSEUDOVECTORP (a, PVEC_SUBR);
}
-LISP_INLINE bool
+INLINE bool
COMPILEDP (Lisp_Object a)
{
return PSEUDOVECTORP (a, PVEC_COMPILED);
}
-LISP_INLINE bool
+INLINE bool
BUFFERP (Lisp_Object a)
{
return PSEUDOVECTORP (a, PVEC_BUFFER);
}
-LISP_INLINE bool
+INLINE bool
CHAR_TABLE_P (Lisp_Object a)
{
return PSEUDOVECTORP (a, PVEC_CHAR_TABLE);
}
-LISP_INLINE bool
+INLINE bool
SUB_CHAR_TABLE_P (Lisp_Object a)
{
return PSEUDOVECTORP (a, PVEC_SUB_CHAR_TABLE);
}
-LISP_INLINE bool
+INLINE bool
BOOL_VECTOR_P (Lisp_Object a)
{
return PSEUDOVECTORP (a, PVEC_BOOL_VECTOR);
}
-LISP_INLINE bool
+INLINE bool
FRAMEP (Lisp_Object a)
{
return PSEUDOVECTORP (a, PVEC_FRAME);
}
/* Test for image (image . spec) */
-LISP_INLINE bool
+INLINE bool
IMAGEP (Lisp_Object x)
{
return CONSP (x) && EQ (XCAR (x), Qimage);
}
/* Array types. */
-LISP_INLINE bool
+INLINE bool
ARRAYP (Lisp_Object x)
{
return VECTORP (x) || STRINGP (x) || CHAR_TABLE_P (x) || BOOL_VECTOR_P (x);
}
\f
-LISP_INLINE void
+INLINE void
CHECK_LIST (Lisp_Object x)
{
CHECK_TYPE (CONSP (x) || NILP (x), Qlistp, x);
LISP_MACRO_DEFUN_VOID (CHECK_SYMBOL, (Lisp_Object x), (x))
LISP_MACRO_DEFUN_VOID (CHECK_NUMBER, (Lisp_Object x), (x))
-LISP_INLINE void
+INLINE void
CHECK_STRING (Lisp_Object x)
{
CHECK_TYPE (STRINGP (x), Qstringp, x);
}
-LISP_INLINE void
+INLINE void
CHECK_STRING_CAR (Lisp_Object x)
{
CHECK_TYPE (STRINGP (XCAR (x)), Qstringp, XCAR (x));
}
-LISP_INLINE void
+INLINE void
CHECK_CONS (Lisp_Object x)
{
CHECK_TYPE (CONSP (x), Qconsp, x);
}
-LISP_INLINE void
+INLINE void
CHECK_VECTOR (Lisp_Object x)
{
CHECK_TYPE (VECTORP (x), Qvectorp, x);
}
-LISP_INLINE void
+INLINE void
CHECK_VECTOR_OR_STRING (Lisp_Object x)
{
CHECK_TYPE (VECTORP (x) || STRINGP (x), Qarrayp, x);
}
-LISP_INLINE void
+INLINE void
CHECK_ARRAY (Lisp_Object x, Lisp_Object Qxxxp)
{
CHECK_TYPE (ARRAYP (x), Qxxxp, x);
}
-LISP_INLINE void
+INLINE void
CHECK_BUFFER (Lisp_Object x)
{
CHECK_TYPE (BUFFERP (x), Qbufferp, x);
}
-LISP_INLINE void
+INLINE void
CHECK_WINDOW (Lisp_Object x)
{
CHECK_TYPE (WINDOWP (x), Qwindowp, x);
}
-LISP_INLINE void
+INLINE void
CHECK_PROCESS (Lisp_Object x)
{
CHECK_TYPE (PROCESSP (x), Qprocessp, x);
}
-LISP_INLINE void
+INLINE void
CHECK_NATNUM (Lisp_Object x)
{
CHECK_TYPE (NATNUMP (x), Qwholenump, x);
do { if (MARKERP ((x))) XSETFASTINT (x, marker_position (x)); \
else CHECK_TYPE (INTEGERP (x), Qinteger_or_marker_p, x); } while (0)
-LISP_INLINE double
+INLINE double
XFLOATINT (Lisp_Object n)
{
return extract_float (n);
}
-LISP_INLINE void
+INLINE void
CHECK_NUMBER_OR_FLOAT (Lisp_Object x)
{
CHECK_TYPE (FLOATP (x) || INTEGERP (x), Qnumberp, x);
/* Since we can't assign directly to the CAR or CDR fields of a cons
cell, use these when checking that those fields contain numbers. */
-LISP_INLINE void
+INLINE void
CHECK_NUMBER_CAR (Lisp_Object x)
{
Lisp_Object tmp = XCAR (x);
XSETCAR (x, tmp);
}
-LISP_INLINE void
+INLINE void
CHECK_NUMBER_CDR (Lisp_Object x)
{
Lisp_Object tmp = XCDR (x);
Lisp_Object, Lisp_Object, Lisp_Object, Lisp_Object)
/* True if OBJ is a Lisp function. */
-LISP_INLINE bool
+INLINE bool
FUNCTIONP (Lisp_Object obj)
{
return functionp (obj);
extern union specbinding *specpdl_ptr;
extern ptrdiff_t specpdl_size;
-LISP_INLINE ptrdiff_t
+INLINE ptrdiff_t
SPECPDL_INDEX (void)
{
return specpdl_ptr - specpdl;
/* Copy COUNT Lisp_Objects from ARGS to contents of V starting from OFFSET. */
-LISP_INLINE void
+INLINE void
vcopy (Lisp_Object v, ptrdiff_t offset, Lisp_Object *args, ptrdiff_t count)
{
eassert (0 <= offset && 0 <= count && offset + count <= ASIZE (v));
/* Functions to modify hash tables. */
-LISP_INLINE void
+INLINE void
set_hash_key_slot (struct Lisp_Hash_Table *h, ptrdiff_t idx, Lisp_Object val)
{
gc_aset (h->key_and_value, 2 * idx, val);
}
-LISP_INLINE void
+INLINE void
set_hash_value_slot (struct Lisp_Hash_Table *h, ptrdiff_t idx, Lisp_Object val)
{
gc_aset (h->key_and_value, 2 * idx + 1, val);
/* Use these functions to set Lisp_Object
or pointer slots of struct Lisp_Symbol. */
-LISP_INLINE void
+INLINE void
set_symbol_function (Lisp_Object sym, Lisp_Object function)
{
XSYMBOL (sym)->function = function;
}
-LISP_INLINE void
+INLINE void
set_symbol_plist (Lisp_Object sym, Lisp_Object plist)
{
XSYMBOL (sym)->plist = plist;
}
-LISP_INLINE void
+INLINE void
set_symbol_next (Lisp_Object sym, struct Lisp_Symbol *next)
{
XSYMBOL (sym)->next = next;
/* Buffer-local (also frame-local) variable access functions. */
-LISP_INLINE int
+INLINE int
blv_found (struct Lisp_Buffer_Local_Value *blv)
{
eassert (blv->found == !EQ (blv->defcell, blv->valcell));
/* Set overlay's property list. */
-LISP_INLINE void
+INLINE void
set_overlay_plist (Lisp_Object overlay, Lisp_Object plist)
{
XOVERLAY (overlay)->plist = plist;
/* Get text properties of S. */
-LISP_INLINE INTERVAL
+INLINE INTERVAL
string_intervals (Lisp_Object s)
{
return XSTRING (s)->intervals;
/* Set text properties of S to I. */
-LISP_INLINE void
+INLINE void
set_string_intervals (Lisp_Object s, INTERVAL i)
{
XSTRING (s)->intervals = i;
/* Set a Lisp slot in TABLE to VAL. Most code should use this instead
of setting slots directly. */
-LISP_INLINE void
+INLINE void
set_char_table_defalt (Lisp_Object table, Lisp_Object val)
{
XCHAR_TABLE (table)->defalt = val;
}
-LISP_INLINE void
+INLINE void
set_char_table_purpose (Lisp_Object table, Lisp_Object val)
{
XCHAR_TABLE (table)->purpose = val;
/* Set different slots in (sub)character tables. */
-LISP_INLINE void
+INLINE void
set_char_table_extras (Lisp_Object table, ptrdiff_t idx, Lisp_Object val)
{
eassert (0 <= idx && idx < CHAR_TABLE_EXTRA_SLOTS (XCHAR_TABLE (table)));
XCHAR_TABLE (table)->extras[idx] = val;
}
-LISP_INLINE void
+INLINE void
set_char_table_contents (Lisp_Object table, ptrdiff_t idx, Lisp_Object val)
{
eassert (0 <= idx && idx < (1 << CHARTAB_SIZE_BITS_0));
XCHAR_TABLE (table)->contents[idx] = val;
}
-LISP_INLINE void
+INLINE void
set_sub_char_table_contents (Lisp_Object table, ptrdiff_t idx, Lisp_Object val)
{
XSUB_CHAR_TABLE (table)->contents[idx] = val;
/* Build a frequently used 2/3/4-integer lists. */
-LISP_INLINE Lisp_Object
+INLINE Lisp_Object
list2i (EMACS_INT x, EMACS_INT y)
{
return list2 (make_number (x), make_number (y));
}
-LISP_INLINE Lisp_Object
+INLINE Lisp_Object
list3i (EMACS_INT x, EMACS_INT y, EMACS_INT w)
{
return list3 (make_number (x), make_number (y), make_number (w));
}
-LISP_INLINE Lisp_Object
+INLINE Lisp_Object
list4i (EMACS_INT x, EMACS_INT y, EMACS_INT w, EMACS_INT h)
{
return list4 (make_number (x), make_number (y),
/* Make unibyte string from C string when the length isn't known. */
-LISP_INLINE Lisp_Object
+INLINE Lisp_Object
build_unibyte_string (const char *str)
{
return make_unibyte_string (str, strlen (str));
/* Make a string allocated in pure space, use STR as string data. */
-LISP_INLINE Lisp_Object
+INLINE Lisp_Object
build_pure_c_string (const char *str)
{
return make_pure_c_string (str, strlen (str));
/* Make a string from the data at STR, treating it as multibyte if the
data warrants. */
-LISP_INLINE Lisp_Object
+INLINE Lisp_Object
build_string (const char *str)
{
return make_string (str, strlen (str));
ASET (v, 1, Ffunction_can_gc ());
ASET (v, 2, obj1); */
-LISP_INLINE Lisp_Object
+INLINE Lisp_Object
make_uninit_vector (ptrdiff_t size)
{
Lisp_Object v;
#ifdef GC_CHECK_CONS_LIST
extern void check_cons_list (void);
#else
-LISP_INLINE void (check_cons_list) (void) { lisp_h_check_cons_list (); }
+INLINE void (check_cons_list) (void) { lisp_h_check_cons_list (); }
#endif
#ifdef REL_ALLOC
extern Lisp_Object intern_1 (const char *, ptrdiff_t);
extern Lisp_Object intern_c_string_1 (const char *, ptrdiff_t);
extern Lisp_Object oblookup (Lisp_Object, const char *, ptrdiff_t, ptrdiff_t);
-LISP_INLINE void
+INLINE void
LOADHIST_ATTACH (Lisp_Object x)
{
if (initialized)
extern void init_lread (void);
extern void syms_of_lread (void);
-LISP_INLINE Lisp_Object
+INLINE Lisp_Object
intern (const char *str)
{
return intern_1 (str, strlen (str));
}
-LISP_INLINE Lisp_Object
+INLINE Lisp_Object
intern_c_string (const char *str)
{
return intern_c_string_1 (str, strlen (str));
void synchronize_system_messages_locale (void);
void synchronize_system_time_locale (void);
#else
-LISP_INLINE void fixup_locale (void) {}
-LISP_INLINE void synchronize_system_messages_locale (void) {}
-LISP_INLINE void synchronize_system_time_locale (void) {}
+INLINE void fixup_locale (void) {}
+INLINE void synchronize_system_messages_locale (void) {}
+INLINE void synchronize_system_time_locale (void) {}
#endif
extern void shut_down_emacs (int, Lisp_Object);
/* Check whether it's time for GC, and run it if so. */
-LISP_INLINE void
+INLINE void
maybe_gc (void)
{
if ((consing_since_gc > gc_cons_threshold
Fgarbage_collect ();
}
-LISP_INLINE bool
+INLINE bool
functionp (Lisp_Object object)
{
if (SYMBOLP (object) && !NILP (Ffboundp (object)))
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