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/************************************************************************/
/* * The Coq Proof Assistant / The Coq Development Team */
/* v * Copyright INRIA, CNRS and contributors */
/* <O___,, * (see version control and CREDITS file for authors & dates) */
/* \VV/ **************************************************************/
/* // * This file is distributed under the terms of the */
/* * GNU Lesser General Public License Version 2.1 */
/* * (see LICENSE file for the text of the license) */
/************************************************************************/
# pragma once
# include <caml/callback.h>
# include <caml/stack.h>
#define Is_uint63(v) (Tag_val(v) == Custom_tag)
#define uint_of_value(val) (((uint32_t)(val)) >> 1)
# define DECLARE_NULLOP(name) \
value uint63_##name() { \
static value const *cb = 0; \
CAMLparam0(); \
if (!cb) cb = caml_named_value("uint63 " #name); \
CAMLreturn(*cb); \
}
# define DECLARE_UNOP(name) \
value uint63_##name##_ml(value x) { \
static value const *cb = 0; \
CAMLparam1(x); \
if (!cb) cb = caml_named_value("uint63 " #name); \
CAMLreturn(caml_callback(*cb, x)); \
}
# define CALL_UNOP_NOASSIGN(name, x) \
value uint63_return_value__; \
value uint63_arg_x__ = (x); \
Setup_for_gc; \
uint63_return_value__ = uint63_##name##_ml(uint63_arg_x__); \
Restore_after_gc
# define CALL_UNOP(name, x) do{ \
CALL_UNOP_NOASSIGN(name, x); \
accu = uint63_return_value__; \
}while(0)
# define CALL_PREDICATE(r, name, x) do{ \
CALL_UNOP_NOASSIGN(name, x); \
(r) = Int_val(uint63_return_value__); \
}while(0)
# define DECLARE_BINOP(name) \
value uint63_##name##_ml(value x, value y) { \
static value const *cb = 0; \
CAMLparam2(x, y); \
if (!cb) cb = caml_named_value("uint63 " #name); \
CAMLreturn(caml_callback2(*cb, x, y)); \
}
# define CALL_BINOP_NOASSIGN(name, x, y) \
value uint63_return_value__; \
value uint63_arg_x__ = (x); \
value uint63_arg_y__ = (y); \
Setup_for_gc; \
uint63_return_value__ = uint63_##name##_ml(uint63_arg_x__, uint63_arg_y__); \
Restore_after_gc
# define CALL_BINOP(name, x, y) do{ \
CALL_BINOP_NOASSIGN(name, x, y); \
accu = uint63_return_value__; \
}while(0)
# define CALL_RELATION(r, name, x, y) do{ \
CALL_BINOP_NOASSIGN(name, x, y); \
(r) = Int_val(uint63_return_value__); \
}while(0)
# define DECLARE_TEROP(name) \
value uint63_##name##_ml(value x, value y, value z) { \
static value const *cb = 0; \
CAMLparam3(x, y, z); \
if (!cb) cb = caml_named_value("uint63 " #name); \
CAMLreturn(caml_callback3(*cb, x, y, z)); \
}
# define CALL_TEROP(name, x, y, z) do{ \
value uint63_return_value__; \
value uint63_arg_x__ = (x); \
value uint63_arg_y__ = (y); \
value uint63_arg_z__ = (z); \
Setup_for_gc; \
uint63_return_value__ = uint63_##name##_ml(uint63_arg_x__, uint63_arg_y__, uint63_arg_z__); \
Restore_after_gc; \
accu = uint63_return_value__; \
}while(0)
DECLARE_NULLOP(zero)
DECLARE_NULLOP(one)
DECLARE_UNOP(neg)
#define Uint63_neg(x) CALL_UNOP(neg, x)
DECLARE_BINOP(add)
#define Uint63_add(x, y) CALL_BINOP(add, x, y)
DECLARE_BINOP(addcarry)
#define Uint63_addcarry(x, y) CALL_BINOP(addcarry, x, y)
DECLARE_TEROP(addmuldiv)
#define Uint63_addmuldiv(x, y, z) CALL_TEROP(addmuldiv, x, y, z)
DECLARE_BINOP(div)
#define Uint63_div(x, y) CALL_BINOP(div, x, y)
DECLARE_BINOP(divs)
#define Uint63_divs(x, y) CALL_BINOP(divs, x, y)
DECLARE_BINOP(eq)
#define Uint63_eq(r, x, y) CALL_RELATION(r, eq, x, y)
DECLARE_UNOP(eq0)
#define Uint63_eq0(r, x) CALL_PREDICATE(r, eq0, x)
DECLARE_UNOP(eqm1)
#define Uint63_eqm1(r, x) CALL_PREDICATE(r, eqm1, x)
DECLARE_UNOP(head0)
#define Uint63_head0(x) CALL_UNOP(head0, x)
DECLARE_BINOP(land)
#define Uint63_land(x, y) CALL_BINOP(land, x, y)
DECLARE_BINOP(leq)
#define Uint63_leq(r, x, y) CALL_RELATION(r, leq, x, y)
DECLARE_BINOP(les)
#define Uint63_les(r, x, y) CALL_RELATION(r, les, x, y)
DECLARE_BINOP(lor)
#define Uint63_lor(x, y) CALL_BINOP(lor, x, y)
DECLARE_BINOP(lsl)
#define Uint63_lsl(x, y) CALL_BINOP(lsl, x, y)
DECLARE_BINOP(lsr)
#define Uint63_lsr(x, y) CALL_BINOP(lsr, x, y)
DECLARE_BINOP(asr)
#define Uint63_asr(x, y) CALL_BINOP(asr, x, y)
DECLARE_BINOP(lt)
#define Uint63_lt(r, x, y) CALL_RELATION(r, lt, x, y)
DECLARE_BINOP(lts)
#define Uint63_lts(r, x, y) CALL_RELATION(r, lts, x, y)
DECLARE_BINOP(lxor)
#define Uint63_lxor(x, y) CALL_BINOP(lxor, x, y)
DECLARE_BINOP(mod)
#define Uint63_mod(x, y) CALL_BINOP(mod, x, y)
DECLARE_BINOP(mods)
#define Uint63_mods(x, y) CALL_BINOP(mods, x, y)
DECLARE_BINOP(mul)
#define Uint63_mul(x, y) CALL_BINOP(mul, x, y)
DECLARE_BINOP(sub)
#define Uint63_sub(x, y) CALL_BINOP(sub, x, y)
DECLARE_BINOP(subcarry)
#define Uint63_subcarry(x, y) CALL_BINOP(subcarry, x, y)
DECLARE_UNOP(tail0)
#define Uint63_tail0(x) CALL_UNOP(tail0, x)
DECLARE_TEROP(div21_ml)
# define Uint63_div21(x, y, z, q) do{ \
value uint63_return_value__; \
value uint63_arg_x__ = (x); \
value uint63_arg_y__ = (y); \
value uint63_arg_z__ = (z); \
Setup_for_gc; \
uint63_return_value__ = \
uint63_div21_ml_ml(uint63_arg_x__, uint63_arg_y__, uint63_arg_z__); \
Restore_after_gc; \
*q = Field(uint63_return_value__, 0); \
accu = Field(uint63_return_value__, 1); \
}while(0)
DECLARE_BINOP(mulc_ml)
# define Uint63_mulc(x, y, h) do{ \
value uint63_return_value__; \
value uint63_arg_x__ = (x); \
value uint63_arg_y__ = (y); \
Setup_for_gc; \
uint63_return_value__ = \
uint63_mulc_ml_ml(uint63_arg_x__, uint63_arg_y__); \
Restore_after_gc; \
*(h) = Field(uint63_return_value__, 0); \
accu = Field(uint63_return_value__, 1); \
}while(0)
DECLARE_UNOP(to_float)
#define Uint63_to_double(x) CALL_UNOP(to_float, x)
DECLARE_UNOP(of_float)
#define Uint63_of_double(f) do{ \
Coq_copy_double(f); \
CALL_UNOP(of_float, accu); \
}while(0)
DECLARE_UNOP(of_int)
#define Uint63_of_int(x) CALL_UNOP(of_int, x)
DECLARE_BINOP(to_int_min)
#define Uint63_to_int_min(n, m) CALL_BINOP(to_int_min, n, m)
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