if ((x) >= (((EMACS_INT) 1) << (VALBITS-1)) || \
(x) <= - (((EMACS_INT) 1) << (VALBITS-1)) - 1) \
range_error (name, num); \
- XSET (i, Lisp_Int, (EMACS_INT)(x)); \
+ XSETINT (i, (EMACS_INT)(x)); \
} \
while (0)
#define FLOAT_TO_INT2(x, i, name, num1, num2) \
if ((x) >= (((EMACS_INT) 1) << (VALBITS-1)) || \
(x) <= - (((EMACS_INT) 1) << (VALBITS-1)) - 1) \
range_error2 (name, num1, num2); \
- XSET (i, Lisp_Int, (EMACS_INT)(x)); \
+ XSETINT (i, (EMACS_INT)(x)); \
} \
while (0)
if (INTEGERP (arg1) /* common lisp spec */
&& INTEGERP (arg2)) /* don't promote, if both are ints */
{ /* this can be improved by pre-calculating */
- int acc, x, y; /* some binary powers of x then accumulating */
+ EMACS_INT acc, x, y; /* some binary powers of x then accumulating */
Lisp_Object val;
x = XINT (arg1);
y = (unsigned)y >> 1;
}
}
- XSET (val, Lisp_Int, acc);
+ XSETINT (val, acc);
return val;
}
f1 = FLOATP (arg1) ? XFLOAT (arg1)->data : XINT (arg1);
if (FLOATP (arg))
IN_FLOAT (arg = make_float (fabs (XFLOAT (arg)->data)), "abs", arg);
else if (XINT (arg) < 0)
- XSETINT (arg, - XFASTINT (arg));
+ XSETINT (arg, - XINT (arg));
return arg;
}
Lisp_Object arg;
{
Lisp_Object val;
- int value;
+ EMACS_INT value;
double f = extract_float (arg);
if (f == 0.0)
IN_FLOAT (value = logb (f), "logb", arg);
#else
#ifdef HAVE_FREXP
- IN_FLOAT (frexp (f, &value), "logb", arg);
- value--;
+ int ivalue;
+ IN_FLOAT (frexp (f, &ivalue), "logb", arg);
+ value = ivalue - 1;
#else
int i;
double d;
#endif
#endif
}
- XSET (val, Lisp_Int, value);
+ XSETINT (val, value);
return val;
}
if (! NILP (divisor))
{
- int i1, i2;
+ EMACS_INT i1, i2;
CHECK_NUMBER_OR_FLOAT (divisor, 1);
? (i1 <= 0 ? -i1 / -i2 : -1 - ((i1 - 1) / -i2))
: (i1 < 0 ? -1 - ((-1 - i1) / i2) : i1 / i2));
- XSET (arg, Lisp_Int, i1);
+ XSETINT (arg, i1);
return arg;
}