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qemu-e2k/target/mips/fpu_helper.c
Aleksandar Markovic 9579f78168 target/mips: fpu: Refactor conversion from ieee to mips exception flags 
The original coversion function is used for regular and MSA floating
point instructions handling. Since there are some nuanced differences
between regular and MSA floating point exception handling, provide two
instances of the conversion function, rather than just a single common
one. Inline both instances of this function instances for the sake of
performance. Improve variable naming in surrounding code for clarity.

Reviewed-by: Aleksandar Rikalo <aleksandar.rikalo@syrmia.com>
Signed-off-by: Aleksandar Markovic <aleksandar.qemu.devel@gmail.com>
Message-Id: <20200518200920.17344-17-aleksandar.qemu.devel@gmail.com>
2020-06-09 17:32:45 +02:00

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/*
* Helpers for emulation of FPU-related MIPS instructions.
*
* Copyright (C) 2004-2005 Jocelyn Mayer
* Copyright (C) 2020 Wave Computing, Inc.
* Copyright (C) 2020 Aleksandar Markovic <amarkovic@wavecomp.com>
*
* This library is free software; you can redistribute it and/or
* modify it under the terms of the GNU Lesser General Public
* License as published by the Free Software Foundation; either
* version 2 of the License, or (at your option) any later version.
*
* This library is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the GNU
* Lesser General Public License for more details.
*
* You should have received a copy of the GNU Lesser General Public
* License along with this library; if not, see <http://www.gnu.org/licenses/>.
*
*/
#include "qemu/osdep.h"
#include "qemu/main-loop.h"
#include "cpu.h"
#include "internal.h"
#include "qemu/host-utils.h"
#include "exec/helper-proto.h"
#include "exec/exec-all.h"
#include "exec/cpu_ldst.h"
#include "exec/memop.h"
#include "sysemu/kvm.h"
#include "fpu/softfloat.h"
/* Complex FPU operations which may need stack space. */
#define FLOAT_TWO32 make_float32(1 << 30)
#define FLOAT_TWO64 make_float64(1ULL << 62)
#define FP_TO_INT32_OVERFLOW 0x7fffffff
#define FP_TO_INT64_OVERFLOW 0x7fffffffffffffffULL
/* convert MIPS rounding mode in FCR31 to IEEE library */
unsigned int ieee_rm[] = {
float_round_nearest_even,
float_round_to_zero,
float_round_up,
float_round_down
};
target_ulong helper_cfc1(CPUMIPSState *env, uint32_t reg)
{
target_ulong arg1 = 0;
switch (reg) {
case 0:
arg1 = (int32_t)env->active_fpu.fcr0;
break;
case 1:
/* UFR Support - Read Status FR */
if (env->active_fpu.fcr0 & (1 << FCR0_UFRP)) {
if (env->CP0_Config5 & (1 << CP0C5_UFR)) {
arg1 = (int32_t)
((env->CP0_Status & (1 << CP0St_FR)) >> CP0St_FR);
} else {
do_raise_exception(env, EXCP_RI, GETPC());
}
}
break;
case 5:
/* FRE Support - read Config5.FRE bit */
if (env->active_fpu.fcr0 & (1 << FCR0_FREP)) {
if (env->CP0_Config5 & (1 << CP0C5_UFE)) {
arg1 = (env->CP0_Config5 >> CP0C5_FRE) & 1;
} else {
helper_raise_exception(env, EXCP_RI);
}
}
break;
case 25:
arg1 = ((env->active_fpu.fcr31 >> 24) & 0xfe) |
((env->active_fpu.fcr31 >> 23) & 0x1);
break;
case 26:
arg1 = env->active_fpu.fcr31 & 0x0003f07c;
break;
case 28:
arg1 = (env->active_fpu.fcr31 & 0x00000f83) |
((env->active_fpu.fcr31 >> 22) & 0x4);
break;
default:
arg1 = (int32_t)env->active_fpu.fcr31;
break;
}
return arg1;
}
void helper_ctc1(CPUMIPSState *env, target_ulong arg1, uint32_t fs, uint32_t rt)
{
switch (fs) {
case 1:
/* UFR Alias - Reset Status FR */
if (!((env->active_fpu.fcr0 & (1 << FCR0_UFRP)) && (rt == 0))) {
return;
}
if (env->CP0_Config5 & (1 << CP0C5_UFR)) {
env->CP0_Status &= ~(1 << CP0St_FR);
compute_hflags(env);
} else {
do_raise_exception(env, EXCP_RI, GETPC());
}
break;
case 4:
/* UNFR Alias - Set Status FR */
if (!((env->active_fpu.fcr0 & (1 << FCR0_UFRP)) && (rt == 0))) {
return;
}
if (env->CP0_Config5 & (1 << CP0C5_UFR)) {
env->CP0_Status |= (1 << CP0St_FR);
compute_hflags(env);
} else {
do_raise_exception(env, EXCP_RI, GETPC());
}
break;
case 5:
/* FRE Support - clear Config5.FRE bit */
if (!((env->active_fpu.fcr0 & (1 << FCR0_FREP)) && (rt == 0))) {
return;
}
if (env->CP0_Config5 & (1 << CP0C5_UFE)) {
env->CP0_Config5 &= ~(1 << CP0C5_FRE);
compute_hflags(env);
} else {
helper_raise_exception(env, EXCP_RI);
}
break;
case 6:
/* FRE Support - set Config5.FRE bit */
if (!((env->active_fpu.fcr0 & (1 << FCR0_FREP)) && (rt == 0))) {
return;
}
if (env->CP0_Config5 & (1 << CP0C5_UFE)) {
env->CP0_Config5 |= (1 << CP0C5_FRE);
compute_hflags(env);
} else {
helper_raise_exception(env, EXCP_RI);
}
break;
case 25:
if ((env->insn_flags & ISA_MIPS32R6) || (arg1 & 0xffffff00)) {
return;
}
env->active_fpu.fcr31 = (env->active_fpu.fcr31 & 0x017fffff) |
((arg1 & 0xfe) << 24) |
((arg1 & 0x1) << 23);
break;
case 26:
if (arg1 & 0x007c0000) {
return;
}
env->active_fpu.fcr31 = (env->active_fpu.fcr31 & 0xfffc0f83) |
(arg1 & 0x0003f07c);
break;
case 28:
if (arg1 & 0x007c0000) {
return;
}
env->active_fpu.fcr31 = (env->active_fpu.fcr31 & 0xfefff07c) |
(arg1 & 0x00000f83) |
((arg1 & 0x4) << 22);
break;
case 31:
env->active_fpu.fcr31 = (arg1 & env->active_fpu.fcr31_rw_bitmask) |
(env->active_fpu.fcr31 & ~(env->active_fpu.fcr31_rw_bitmask));
break;
default:
if (env->insn_flags & ISA_MIPS32R6) {
do_raise_exception(env, EXCP_RI, GETPC());
}
return;
}
restore_fp_status(env);
set_float_exception_flags(0, &env->active_fpu.fp_status);
if ((GET_FP_ENABLE(env->active_fpu.fcr31) | 0x20) &
GET_FP_CAUSE(env->active_fpu.fcr31)) {
do_raise_exception(env, EXCP_FPE, GETPC());
}
}
static inline int ieee_to_mips_xcpt(int ieee_xcpt)
{
int mips_xcpt = 0;
if (ieee_xcpt & float_flag_invalid) {
mips_xcpt |= FP_INVALID;
}
if (ieee_xcpt & float_flag_overflow) {
mips_xcpt |= FP_OVERFLOW;
}
if (ieee_xcpt & float_flag_underflow) {
mips_xcpt |= FP_UNDERFLOW;
}
if (ieee_xcpt & float_flag_divbyzero) {
mips_xcpt |= FP_DIV0;
}
if (ieee_xcpt & float_flag_inexact) {
mips_xcpt |= FP_INEXACT;
}
return mips_xcpt;
}
static inline void update_fcr31(CPUMIPSState *env, uintptr_t pc)
{
int ieee_exception_flags = get_float_exception_flags(
&env->active_fpu.fp_status);
int mips_exception_flags = 0;
if (ieee_exception_flags) {
mips_exception_flags = ieee_to_mips_xcpt(ieee_exception_flags);
}
SET_FP_CAUSE(env->active_fpu.fcr31, mips_exception_flags);
if (mips_exception_flags) {
set_float_exception_flags(0, &env->active_fpu.fp_status);
if (GET_FP_ENABLE(env->active_fpu.fcr31) & mips_exception_flags) {
do_raise_exception(env, EXCP_FPE, pc);
} else {
UPDATE_FP_FLAGS(env->active_fpu.fcr31, mips_exception_flags);
}
}
}
/*
* Float support.
* Single precition routines have a "s" suffix, double precision a
* "d" suffix, 32bit integer "w", 64bit integer "l", paired single "ps",
* paired single lower "pl", paired single upper "pu".
*/
/* unary operations, modifying fp status */
uint64_t helper_float_sqrt_d(CPUMIPSState *env, uint64_t fdt0)
{
fdt0 = float64_sqrt(fdt0, &env->active_fpu.fp_status);
update_fcr31(env, GETPC());
return fdt0;
}
uint32_t helper_float_sqrt_s(CPUMIPSState *env, uint32_t fst0)
{
fst0 = float32_sqrt(fst0, &env->active_fpu.fp_status);
update_fcr31(env, GETPC());
return fst0;
}
uint64_t helper_float_cvtd_s(CPUMIPSState *env, uint32_t fst0)
{
uint64_t fdt2;
fdt2 = float32_to_float64(fst0, &env->active_fpu.fp_status);
update_fcr31(env, GETPC());
return fdt2;
}
uint64_t helper_float_cvtd_w(CPUMIPSState *env, uint32_t wt0)
{
uint64_t fdt2;
fdt2 = int32_to_float64(wt0, &env->active_fpu.fp_status);
update_fcr31(env, GETPC());
return fdt2;
}
uint64_t helper_float_cvtd_l(CPUMIPSState *env, uint64_t dt0)
{
uint64_t fdt2;
fdt2 = int64_to_float64(dt0, &env->active_fpu.fp_status);
update_fcr31(env, GETPC());
return fdt2;
}
uint64_t helper_float_cvt_l_d(CPUMIPSState *env, uint64_t fdt0)
{
uint64_t dt2;
dt2 = float64_to_int64(fdt0, &env->active_fpu.fp_status);
if (get_float_exception_flags(&env->active_fpu.fp_status)
& (float_flag_invalid | float_flag_overflow)) {
dt2 = FP_TO_INT64_OVERFLOW;
}
update_fcr31(env, GETPC());
return dt2;
}
uint64_t helper_float_cvt_l_s(CPUMIPSState *env, uint32_t fst0)
{
uint64_t dt2;
dt2 = float32_to_int64(fst0, &env->active_fpu.fp_status);
if (get_float_exception_flags(&env->active_fpu.fp_status)
& (float_flag_invalid | float_flag_overflow)) {
dt2 = FP_TO_INT64_OVERFLOW;
}
update_fcr31(env, GETPC());
return dt2;
}
uint64_t helper_float_cvtps_pw(CPUMIPSState *env, uint64_t dt0)
{
uint32_t fst2;
uint32_t fsth2;
fst2 = int32_to_float32(dt0 & 0XFFFFFFFF, &env->active_fpu.fp_status);
fsth2 = int32_to_float32(dt0 >> 32, &env->active_fpu.fp_status);
update_fcr31(env, GETPC());
return ((uint64_t)fsth2 << 32) | fst2;
}
uint64_t helper_float_cvtpw_ps(CPUMIPSState *env, uint64_t fdt0)
{
uint32_t wt2;
uint32_t wth2;
int excp, excph;
wt2 = float32_to_int32(fdt0 & 0XFFFFFFFF, &env->active_fpu.fp_status);
excp = get_float_exception_flags(&env->active_fpu.fp_status);
if (excp & (float_flag_overflow | float_flag_invalid)) {
wt2 = FP_TO_INT32_OVERFLOW;
}
set_float_exception_flags(0, &env->active_fpu.fp_status);
wth2 = float32_to_int32(fdt0 >> 32, &env->active_fpu.fp_status);
excph = get_float_exception_flags(&env->active_fpu.fp_status);
if (excph & (float_flag_overflow | float_flag_invalid)) {
wth2 = FP_TO_INT32_OVERFLOW;
}
set_float_exception_flags(excp | excph, &env->active_fpu.fp_status);
update_fcr31(env, GETPC());
return ((uint64_t)wth2 << 32) | wt2;
}
uint32_t helper_float_cvts_d(CPUMIPSState *env, uint64_t fdt0)
{
uint32_t fst2;
fst2 = float64_to_float32(fdt0, &env->active_fpu.fp_status);
update_fcr31(env, GETPC());
return fst2;
}
uint32_t helper_float_cvts_w(CPUMIPSState *env, uint32_t wt0)
{
uint32_t fst2;
fst2 = int32_to_float32(wt0, &env->active_fpu.fp_status);
update_fcr31(env, GETPC());
return fst2;
}
uint32_t helper_float_cvts_l(CPUMIPSState *env, uint64_t dt0)
{
uint32_t fst2;
fst2 = int64_to_float32(dt0, &env->active_fpu.fp_status);
update_fcr31(env, GETPC());
return fst2;
}
uint32_t helper_float_cvts_pl(CPUMIPSState *env, uint32_t wt0)
{
uint32_t wt2;
wt2 = wt0;
update_fcr31(env, GETPC());
return wt2;
}
uint32_t helper_float_cvts_pu(CPUMIPSState *env, uint32_t wth0)
{
uint32_t wt2;
wt2 = wth0;
update_fcr31(env, GETPC());
return wt2;
}
uint32_t helper_float_cvt_w_s(CPUMIPSState *env, uint32_t fst0)
{
uint32_t wt2;
wt2 = float32_to_int32(fst0, &env->active_fpu.fp_status);
if (get_float_exception_flags(&env->active_fpu.fp_status)
& (float_flag_invalid | float_flag_overflow)) {
wt2 = FP_TO_INT32_OVERFLOW;
}
update_fcr31(env, GETPC());
return wt2;
}
uint32_t helper_float_cvt_w_d(CPUMIPSState *env, uint64_t fdt0)
{
uint32_t wt2;
wt2 = float64_to_int32(fdt0, &env->active_fpu.fp_status);
if (get_float_exception_flags(&env->active_fpu.fp_status)
& (float_flag_invalid | float_flag_overflow)) {
wt2 = FP_TO_INT32_OVERFLOW;
}
update_fcr31(env, GETPC());
return wt2;
}
uint64_t helper_float_round_l_d(CPUMIPSState *env, uint64_t fdt0)
{
uint64_t dt2;
set_float_rounding_mode(float_round_nearest_even,
&env->active_fpu.fp_status);
dt2 = float64_to_int64(fdt0, &env->active_fpu.fp_status);
restore_rounding_mode(env);
if (get_float_exception_flags(&env->active_fpu.fp_status)
& (float_flag_invalid | float_flag_overflow)) {
dt2 = FP_TO_INT64_OVERFLOW;
}
update_fcr31(env, GETPC());
return dt2;
}
uint64_t helper_float_round_l_s(CPUMIPSState *env, uint32_t fst0)
{
uint64_t dt2;
set_float_rounding_mode(float_round_nearest_even,
&env->active_fpu.fp_status);
dt2 = float32_to_int64(fst0, &env->active_fpu.fp_status);
restore_rounding_mode(env);
if (get_float_exception_flags(&env->active_fpu.fp_status)
& (float_flag_invalid | float_flag_overflow)) {
dt2 = FP_TO_INT64_OVERFLOW;
}
update_fcr31(env, GETPC());
return dt2;
}
uint32_t helper_float_round_w_d(CPUMIPSState *env, uint64_t fdt0)
{
uint32_t wt2;
set_float_rounding_mode(float_round_nearest_even,
&env->active_fpu.fp_status);
wt2 = float64_to_int32(fdt0, &env->active_fpu.fp_status);
restore_rounding_mode(env);
if (get_float_exception_flags(&env->active_fpu.fp_status)
& (float_flag_invalid | float_flag_overflow)) {
wt2 = FP_TO_INT32_OVERFLOW;
}
update_fcr31(env, GETPC());
return wt2;
}
uint32_t helper_float_round_w_s(CPUMIPSState *env, uint32_t fst0)
{
uint32_t wt2;
set_float_rounding_mode(float_round_nearest_even,
&env->active_fpu.fp_status);
wt2 = float32_to_int32(fst0, &env->active_fpu.fp_status);
restore_rounding_mode(env);
if (get_float_exception_flags(&env->active_fpu.fp_status)
& (float_flag_invalid | float_flag_overflow)) {
wt2 = FP_TO_INT32_OVERFLOW;
}
update_fcr31(env, GETPC());
return wt2;
}
uint64_t helper_float_trunc_l_d(CPUMIPSState *env, uint64_t fdt0)
{
uint64_t dt2;
dt2 = float64_to_int64_round_to_zero(fdt0,
&env->active_fpu.fp_status);
if (get_float_exception_flags(&env->active_fpu.fp_status)
& (float_flag_invalid | float_flag_overflow)) {
dt2 = FP_TO_INT64_OVERFLOW;
}
update_fcr31(env, GETPC());
return dt2;
}
uint64_t helper_float_trunc_l_s(CPUMIPSState *env, uint32_t fst0)
{
uint64_t dt2;
dt2 = float32_to_int64_round_to_zero(fst0, &env->active_fpu.fp_status);
if (get_float_exception_flags(&env->active_fpu.fp_status)
& (float_flag_invalid | float_flag_overflow)) {
dt2 = FP_TO_INT64_OVERFLOW;
}
update_fcr31(env, GETPC());
return dt2;
}
uint32_t helper_float_trunc_w_d(CPUMIPSState *env, uint64_t fdt0)
{
uint32_t wt2;
wt2 = float64_to_int32_round_to_zero(fdt0, &env->active_fpu.fp_status);
if (get_float_exception_flags(&env->active_fpu.fp_status)
& (float_flag_invalid | float_flag_overflow)) {
wt2 = FP_TO_INT32_OVERFLOW;
}
update_fcr31(env, GETPC());
return wt2;
}
uint32_t helper_float_trunc_w_s(CPUMIPSState *env, uint32_t fst0)
{
uint32_t wt2;
wt2 = float32_to_int32_round_to_zero(fst0, &env->active_fpu.fp_status);
if (get_float_exception_flags(&env->active_fpu.fp_status)
& (float_flag_invalid | float_flag_overflow)) {
wt2 = FP_TO_INT32_OVERFLOW;
}
update_fcr31(env, GETPC());
return wt2;
}
uint64_t helper_float_ceil_l_d(CPUMIPSState *env, uint64_t fdt0)
{
uint64_t dt2;
set_float_rounding_mode(float_round_up, &env->active_fpu.fp_status);
dt2 = float64_to_int64(fdt0, &env->active_fpu.fp_status);
restore_rounding_mode(env);
if (get_float_exception_flags(&env->active_fpu.fp_status)
& (float_flag_invalid | float_flag_overflow)) {
dt2 = FP_TO_INT64_OVERFLOW;
}
update_fcr31(env, GETPC());
return dt2;
}
uint64_t helper_float_ceil_l_s(CPUMIPSState *env, uint32_t fst0)
{
uint64_t dt2;
set_float_rounding_mode(float_round_up, &env->active_fpu.fp_status);
dt2 = float32_to_int64(fst0, &env->active_fpu.fp_status);
restore_rounding_mode(env);
if (get_float_exception_flags(&env->active_fpu.fp_status)
& (float_flag_invalid | float_flag_overflow)) {
dt2 = FP_TO_INT64_OVERFLOW;
}
update_fcr31(env, GETPC());
return dt2;
}
uint32_t helper_float_ceil_w_d(CPUMIPSState *env, uint64_t fdt0)
{
uint32_t wt2;
set_float_rounding_mode(float_round_up, &env->active_fpu.fp_status);
wt2 = float64_to_int32(fdt0, &env->active_fpu.fp_status);
restore_rounding_mode(env);
if (get_float_exception_flags(&env->active_fpu.fp_status)
& (float_flag_invalid | float_flag_overflow)) {
wt2 = FP_TO_INT32_OVERFLOW;
}
update_fcr31(env, GETPC());
return wt2;
}
uint32_t helper_float_ceil_w_s(CPUMIPSState *env, uint32_t fst0)
{
uint32_t wt2;
set_float_rounding_mode(float_round_up, &env->active_fpu.fp_status);
wt2 = float32_to_int32(fst0, &env->active_fpu.fp_status);
restore_rounding_mode(env);
if (get_float_exception_flags(&env->active_fpu.fp_status)
& (float_flag_invalid | float_flag_overflow)) {
wt2 = FP_TO_INT32_OVERFLOW;
}
update_fcr31(env, GETPC());
return wt2;
}
uint64_t helper_float_floor_l_d(CPUMIPSState *env, uint64_t fdt0)
{
uint64_t dt2;
set_float_rounding_mode(float_round_down, &env->active_fpu.fp_status);
dt2 = float64_to_int64(fdt0, &env->active_fpu.fp_status);
restore_rounding_mode(env);
if (get_float_exception_flags(&env->active_fpu.fp_status)
& (float_flag_invalid | float_flag_overflow)) {
dt2 = FP_TO_INT64_OVERFLOW;
}
update_fcr31(env, GETPC());
return dt2;
}
uint64_t helper_float_floor_l_s(CPUMIPSState *env, uint32_t fst0)
{
uint64_t dt2;
set_float_rounding_mode(float_round_down, &env->active_fpu.fp_status);
dt2 = float32_to_int64(fst0, &env->active_fpu.fp_status);
restore_rounding_mode(env);
if (get_float_exception_flags(&env->active_fpu.fp_status)
& (float_flag_invalid | float_flag_overflow)) {
dt2 = FP_TO_INT64_OVERFLOW;
}
update_fcr31(env, GETPC());
return dt2;
}
uint32_t helper_float_floor_w_d(CPUMIPSState *env, uint64_t fdt0)
{
uint32_t wt2;
set_float_rounding_mode(float_round_down, &env->active_fpu.fp_status);
wt2 = float64_to_int32(fdt0, &env->active_fpu.fp_status);
restore_rounding_mode(env);
if (get_float_exception_flags(&env->active_fpu.fp_status)
& (float_flag_invalid | float_flag_overflow)) {
wt2 = FP_TO_INT32_OVERFLOW;
}
update_fcr31(env, GETPC());
return wt2;
}
uint32_t helper_float_floor_w_s(CPUMIPSState *env, uint32_t fst0)
{
uint32_t wt2;
set_float_rounding_mode(float_round_down, &env->active_fpu.fp_status);
wt2 = float32_to_int32(fst0, &env->active_fpu.fp_status);
restore_rounding_mode(env);
if (get_float_exception_flags(&env->active_fpu.fp_status)
& (float_flag_invalid | float_flag_overflow)) {
wt2 = FP_TO_INT32_OVERFLOW;
}
update_fcr31(env, GETPC());
return wt2;
}
uint64_t helper_float_cvt_2008_l_d(CPUMIPSState *env, uint64_t fdt0)
{
uint64_t dt2;
dt2 = float64_to_int64(fdt0, &env->active_fpu.fp_status);
if (get_float_exception_flags(&env->active_fpu.fp_status)
& float_flag_invalid) {
if (float64_is_any_nan(fdt0)) {
dt2 = 0;
}
}
update_fcr31(env, GETPC());
return dt2;
}
uint64_t helper_float_cvt_2008_l_s(CPUMIPSState *env, uint32_t fst0)
{
uint64_t dt2;
dt2 = float32_to_int64(fst0, &env->active_fpu.fp_status);
if (get_float_exception_flags(&env->active_fpu.fp_status)
& float_flag_invalid) {
if (float32_is_any_nan(fst0)) {
dt2 = 0;
}
}
update_fcr31(env, GETPC());
return dt2;
}
uint32_t helper_float_cvt_2008_w_d(CPUMIPSState *env, uint64_t fdt0)
{
uint32_t wt2;
wt2 = float64_to_int32(fdt0, &env->active_fpu.fp_status);
if (get_float_exception_flags(&env->active_fpu.fp_status)
& float_flag_invalid) {
if (float64_is_any_nan(fdt0)) {
wt2 = 0;
}
}
update_fcr31(env, GETPC());
return wt2;
}
uint32_t helper_float_cvt_2008_w_s(CPUMIPSState *env, uint32_t fst0)
{
uint32_t wt2;
wt2 = float32_to_int32(fst0, &env->active_fpu.fp_status);
if (get_float_exception_flags(&env->active_fpu.fp_status)
& float_flag_invalid) {
if (float32_is_any_nan(fst0)) {
wt2 = 0;
}
}
update_fcr31(env, GETPC());
return wt2;
}
uint64_t helper_float_round_2008_l_d(CPUMIPSState *env, uint64_t fdt0)
{
uint64_t dt2;
set_float_rounding_mode(float_round_nearest_even,
&env->active_fpu.fp_status);
dt2 = float64_to_int64(fdt0, &env->active_fpu.fp_status);
restore_rounding_mode(env);
if (get_float_exception_flags(&env->active_fpu.fp_status)
& float_flag_invalid) {
if (float64_is_any_nan(fdt0)) {
dt2 = 0;
}
}
update_fcr31(env, GETPC());
return dt2;
}
uint64_t helper_float_round_2008_l_s(CPUMIPSState *env, uint32_t fst0)
{
uint64_t dt2;
set_float_rounding_mode(float_round_nearest_even,
&env->active_fpu.fp_status);
dt2 = float32_to_int64(fst0, &env->active_fpu.fp_status);
restore_rounding_mode(env);
if (get_float_exception_flags(&env->active_fpu.fp_status)
& float_flag_invalid) {
if (float32_is_any_nan(fst0)) {
dt2 = 0;
}
}
update_fcr31(env, GETPC());
return dt2;
}
uint32_t helper_float_round_2008_w_d(CPUMIPSState *env, uint64_t fdt0)
{
uint32_t wt2;
set_float_rounding_mode(float_round_nearest_even,
&env->active_fpu.fp_status);
wt2 = float64_to_int32(fdt0, &env->active_fpu.fp_status);
restore_rounding_mode(env);
if (get_float_exception_flags(&env->active_fpu.fp_status)
& float_flag_invalid) {
if (float64_is_any_nan(fdt0)) {
wt2 = 0;
}
}
update_fcr31(env, GETPC());
return wt2;
}
uint32_t helper_float_round_2008_w_s(CPUMIPSState *env, uint32_t fst0)
{
uint32_t wt2;
set_float_rounding_mode(float_round_nearest_even,
&env->active_fpu.fp_status);
wt2 = float32_to_int32(fst0, &env->active_fpu.fp_status);
restore_rounding_mode(env);
if (get_float_exception_flags(&env->active_fpu.fp_status)
& float_flag_invalid) {
if (float32_is_any_nan(fst0)) {
wt2 = 0;
}
}
update_fcr31(env, GETPC());
return wt2;
}
uint64_t helper_float_trunc_2008_l_d(CPUMIPSState *env, uint64_t fdt0)
{
uint64_t dt2;
dt2 = float64_to_int64_round_to_zero(fdt0, &env->active_fpu.fp_status);
if (get_float_exception_flags(&env->active_fpu.fp_status)
& float_flag_invalid) {
if (float64_is_any_nan(fdt0)) {
dt2 = 0;
}
}
update_fcr31(env, GETPC());
return dt2;
}
uint64_t helper_float_trunc_2008_l_s(CPUMIPSState *env, uint32_t fst0)
{
uint64_t dt2;
dt2 = float32_to_int64_round_to_zero(fst0, &env->active_fpu.fp_status);
if (get_float_exception_flags(&env->active_fpu.fp_status)
& float_flag_invalid) {
if (float32_is_any_nan(fst0)) {
dt2 = 0;
}
}
update_fcr31(env, GETPC());
return dt2;
}
uint32_t helper_float_trunc_2008_w_d(CPUMIPSState *env, uint64_t fdt0)
{
uint32_t wt2;
wt2 = float64_to_int32_round_to_zero(fdt0, &env->active_fpu.fp_status);
if (get_float_exception_flags(&env->active_fpu.fp_status)
& float_flag_invalid) {
if (float64_is_any_nan(fdt0)) {
wt2 = 0;
}
}
update_fcr31(env, GETPC());
return wt2;
}
uint32_t helper_float_trunc_2008_w_s(CPUMIPSState *env, uint32_t fst0)
{
uint32_t wt2;
wt2 = float32_to_int32_round_to_zero(fst0, &env->active_fpu.fp_status);
if (get_float_exception_flags(&env->active_fpu.fp_status)
& float_flag_invalid) {
if (float32_is_any_nan(fst0)) {
wt2 = 0;
}
}
update_fcr31(env, GETPC());
return wt2;
}
uint64_t helper_float_ceil_2008_l_d(CPUMIPSState *env, uint64_t fdt0)
{
uint64_t dt2;
set_float_rounding_mode(float_round_up, &env->active_fpu.fp_status);
dt2 = float64_to_int64(fdt0, &env->active_fpu.fp_status);
restore_rounding_mode(env);
if (get_float_exception_flags(&env->active_fpu.fp_status)
& float_flag_invalid) {
if (float64_is_any_nan(fdt0)) {
dt2 = 0;
}
}
update_fcr31(env, GETPC());
return dt2;
}
uint64_t helper_float_ceil_2008_l_s(CPUMIPSState *env, uint32_t fst0)
{
uint64_t dt2;
set_float_rounding_mode(float_round_up, &env->active_fpu.fp_status);
dt2 = float32_to_int64(fst0, &env->active_fpu.fp_status);
restore_rounding_mode(env);
if (get_float_exception_flags(&env->active_fpu.fp_status)
& float_flag_invalid) {
if (float32_is_any_nan(fst0)) {
dt2 = 0;
}
}
update_fcr31(env, GETPC());
return dt2;
}
uint32_t helper_float_ceil_2008_w_d(CPUMIPSState *env, uint64_t fdt0)
{
uint32_t wt2;
set_float_rounding_mode(float_round_up, &env->active_fpu.fp_status);
wt2 = float64_to_int32(fdt0, &env->active_fpu.fp_status);
restore_rounding_mode(env);
if (get_float_exception_flags(&env->active_fpu.fp_status)
& float_flag_invalid) {
if (float64_is_any_nan(fdt0)) {
wt2 = 0;
}
}
update_fcr31(env, GETPC());
return wt2;
}
uint32_t helper_float_ceil_2008_w_s(CPUMIPSState *env, uint32_t fst0)
{
uint32_t wt2;
set_float_rounding_mode(float_round_up, &env->active_fpu.fp_status);
wt2 = float32_to_int32(fst0, &env->active_fpu.fp_status);
restore_rounding_mode(env);
if (get_float_exception_flags(&env->active_fpu.fp_status)
& float_flag_invalid) {
if (float32_is_any_nan(fst0)) {
wt2 = 0;
}
}
update_fcr31(env, GETPC());
return wt2;
}
uint64_t helper_float_floor_2008_l_d(CPUMIPSState *env, uint64_t fdt0)
{
uint64_t dt2;
set_float_rounding_mode(float_round_down, &env->active_fpu.fp_status);
dt2 = float64_to_int64(fdt0, &env->active_fpu.fp_status);
restore_rounding_mode(env);
if (get_float_exception_flags(&env->active_fpu.fp_status)
& float_flag_invalid) {
if (float64_is_any_nan(fdt0)) {
dt2 = 0;
}
}
update_fcr31(env, GETPC());
return dt2;
}
uint64_t helper_float_floor_2008_l_s(CPUMIPSState *env, uint32_t fst0)
{
uint64_t dt2;
set_float_rounding_mode(float_round_down, &env->active_fpu.fp_status);
dt2 = float32_to_int64(fst0, &env->active_fpu.fp_status);
restore_rounding_mode(env);
if (get_float_exception_flags(&env->active_fpu.fp_status)
& float_flag_invalid) {
if (float32_is_any_nan(fst0)) {
dt2 = 0;
}
}
update_fcr31(env, GETPC());
return dt2;
}
uint32_t helper_float_floor_2008_w_d(CPUMIPSState *env, uint64_t fdt0)
{
uint32_t wt2;
set_float_rounding_mode(float_round_down, &env->active_fpu.fp_status);
wt2 = float64_to_int32(fdt0, &env->active_fpu.fp_status);
restore_rounding_mode(env);
if (get_float_exception_flags(&env->active_fpu.fp_status)
& float_flag_invalid) {
if (float64_is_any_nan(fdt0)) {
wt2 = 0;
}
}
update_fcr31(env, GETPC());
return wt2;
}
uint32_t helper_float_floor_2008_w_s(CPUMIPSState *env, uint32_t fst0)
{
uint32_t wt2;
set_float_rounding_mode(float_round_down, &env->active_fpu.fp_status);
wt2 = float32_to_int32(fst0, &env->active_fpu.fp_status);
restore_rounding_mode(env);
if (get_float_exception_flags(&env->active_fpu.fp_status)
& float_flag_invalid) {
if (float32_is_any_nan(fst0)) {
wt2 = 0;
}
}
update_fcr31(env, GETPC());
return wt2;
}
/* unary operations, not modifying fp status */
#define FLOAT_UNOP(name) \
uint64_t helper_float_ ## name ## _d(uint64_t fdt0) \
{ \
return float64_ ## name(fdt0); \
} \
uint32_t helper_float_ ## name ## _s(uint32_t fst0) \
{ \
return float32_ ## name(fst0); \
} \
uint64_t helper_float_ ## name ## _ps(uint64_t fdt0) \
{ \
uint32_t wt0; \
uint32_t wth0; \
\
wt0 = float32_ ## name(fdt0 & 0XFFFFFFFF); \
wth0 = float32_ ## name(fdt0 >> 32); \
return ((uint64_t)wth0 << 32) | wt0; \
}
FLOAT_UNOP(abs)
FLOAT_UNOP(chs)
#undef FLOAT_UNOP
/* MIPS specific unary operations */
uint64_t helper_float_recip_d(CPUMIPSState *env, uint64_t fdt0)
{
uint64_t fdt2;
fdt2 = float64_div(float64_one, fdt0, &env->active_fpu.fp_status);
update_fcr31(env, GETPC());
return fdt2;
}
uint32_t helper_float_recip_s(CPUMIPSState *env, uint32_t fst0)
{
uint32_t fst2;
fst2 = float32_div(float32_one, fst0, &env->active_fpu.fp_status);
update_fcr31(env, GETPC());
return fst2;
}
uint64_t helper_float_rsqrt_d(CPUMIPSState *env, uint64_t fdt0)
{
uint64_t fdt2;
fdt2 = float64_sqrt(fdt0, &env->active_fpu.fp_status);
fdt2 = float64_div(float64_one, fdt2, &env->active_fpu.fp_status);
update_fcr31(env, GETPC());
return fdt2;
}
uint32_t helper_float_rsqrt_s(CPUMIPSState *env, uint32_t fst0)
{
uint32_t fst2;
fst2 = float32_sqrt(fst0, &env->active_fpu.fp_status);
fst2 = float32_div(float32_one, fst2, &env->active_fpu.fp_status);
update_fcr31(env, GETPC());
return fst2;
}
uint64_t helper_float_recip1_d(CPUMIPSState *env, uint64_t fdt0)
{
uint64_t fdt2;
fdt2 = float64_div(float64_one, fdt0, &env->active_fpu.fp_status);
update_fcr31(env, GETPC());
return fdt2;
}
uint32_t helper_float_recip1_s(CPUMIPSState *env, uint32_t fst0)
{
uint32_t fst2;
fst2 = float32_div(float32_one, fst0, &env->active_fpu.fp_status);
update_fcr31(env, GETPC());
return fst2;
}
uint64_t helper_float_recip1_ps(CPUMIPSState *env, uint64_t fdt0)
{
uint32_t fstl2;
uint32_t fsth2;
fstl2 = float32_div(float32_one, fdt0 & 0XFFFFFFFF,
&env->active_fpu.fp_status);
fsth2 = float32_div(float32_one, fdt0 >> 32, &env->active_fpu.fp_status);
update_fcr31(env, GETPC());
return ((uint64_t)fsth2 << 32) | fstl2;
}
uint64_t helper_float_rsqrt1_d(CPUMIPSState *env, uint64_t fdt0)
{
uint64_t fdt2;
fdt2 = float64_sqrt(fdt0, &env->active_fpu.fp_status);
fdt2 = float64_div(float64_one, fdt2, &env->active_fpu.fp_status);
update_fcr31(env, GETPC());
return fdt2;
}
uint32_t helper_float_rsqrt1_s(CPUMIPSState *env, uint32_t fst0)
{
uint32_t fst2;
fst2 = float32_sqrt(fst0, &env->active_fpu.fp_status);
fst2 = float32_div(float32_one, fst2, &env->active_fpu.fp_status);
update_fcr31(env, GETPC());
return fst2;
}
uint64_t helper_float_rsqrt1_ps(CPUMIPSState *env, uint64_t fdt0)
{
uint32_t fstl2;
uint32_t fsth2;
fstl2 = float32_sqrt(fdt0 & 0XFFFFFFFF, &env->active_fpu.fp_status);
fsth2 = float32_sqrt(fdt0 >> 32, &env->active_fpu.fp_status);
fstl2 = float32_div(float32_one, fstl2, &env->active_fpu.fp_status);
fsth2 = float32_div(float32_one, fsth2, &env->active_fpu.fp_status);
update_fcr31(env, GETPC());
return ((uint64_t)fsth2 << 32) | fstl2;
}
uint64_t helper_float_rint_d(CPUMIPSState *env, uint64_t fs)
{
uint64_t fdret;
fdret = float64_round_to_int(fs, &env->active_fpu.fp_status);
update_fcr31(env, GETPC());
return fdret;
}
uint32_t helper_float_rint_s(CPUMIPSState *env, uint32_t fs)
{
uint32_t fdret;
fdret = float32_round_to_int(fs, &env->active_fpu.fp_status);
update_fcr31(env, GETPC());
return fdret;
}
#define FLOAT_CLASS_SIGNALING_NAN 0x001
#define FLOAT_CLASS_QUIET_NAN 0x002
#define FLOAT_CLASS_NEGATIVE_INFINITY 0x004
#define FLOAT_CLASS_NEGATIVE_NORMAL 0x008
#define FLOAT_CLASS_NEGATIVE_SUBNORMAL 0x010
#define FLOAT_CLASS_NEGATIVE_ZERO 0x020
#define FLOAT_CLASS_POSITIVE_INFINITY 0x040
#define FLOAT_CLASS_POSITIVE_NORMAL 0x080
#define FLOAT_CLASS_POSITIVE_SUBNORMAL 0x100
#define FLOAT_CLASS_POSITIVE_ZERO 0x200
uint64_t float_class_d(uint64_t arg, float_status *status)
{
if (float64_is_signaling_nan(arg, status)) {
return FLOAT_CLASS_SIGNALING_NAN;
} else if (float64_is_quiet_nan(arg, status)) {
return FLOAT_CLASS_QUIET_NAN;
} else if (float64_is_neg(arg)) {
if (float64_is_infinity(arg)) {
return FLOAT_CLASS_NEGATIVE_INFINITY;
} else if (float64_is_zero(arg)) {
return FLOAT_CLASS_NEGATIVE_ZERO;
} else if (float64_is_zero_or_denormal(arg)) {
return FLOAT_CLASS_NEGATIVE_SUBNORMAL;
} else {
return FLOAT_CLASS_NEGATIVE_NORMAL;
}
} else {
if (float64_is_infinity(arg)) {
return FLOAT_CLASS_POSITIVE_INFINITY;
} else if (float64_is_zero(arg)) {
return FLOAT_CLASS_POSITIVE_ZERO;
} else if (float64_is_zero_or_denormal(arg)) {
return FLOAT_CLASS_POSITIVE_SUBNORMAL;
} else {
return FLOAT_CLASS_POSITIVE_NORMAL;
}
}
}
uint64_t helper_float_class_d(CPUMIPSState *env, uint64_t arg)
{
return float_class_d(arg, &env->active_fpu.fp_status);
}
uint32_t float_class_s(uint32_t arg, float_status *status)
{
if (float32_is_signaling_nan(arg, status)) {
return FLOAT_CLASS_SIGNALING_NAN;
} else if (float32_is_quiet_nan(arg, status)) {
return FLOAT_CLASS_QUIET_NAN;
} else if (float32_is_neg(arg)) {
if (float32_is_infinity(arg)) {
return FLOAT_CLASS_NEGATIVE_INFINITY;
} else if (float32_is_zero(arg)) {
return FLOAT_CLASS_NEGATIVE_ZERO;
} else if (float32_is_zero_or_denormal(arg)) {
return FLOAT_CLASS_NEGATIVE_SUBNORMAL;
} else {
return FLOAT_CLASS_NEGATIVE_NORMAL;
}
} else {
if (float32_is_infinity(arg)) {
return FLOAT_CLASS_POSITIVE_INFINITY;
} else if (float32_is_zero(arg)) {
return FLOAT_CLASS_POSITIVE_ZERO;
} else if (float32_is_zero_or_denormal(arg)) {
return FLOAT_CLASS_POSITIVE_SUBNORMAL;
} else {
return FLOAT_CLASS_POSITIVE_NORMAL;
}
}
}
uint32_t helper_float_class_s(CPUMIPSState *env, uint32_t arg)
{
return float_class_s(arg, &env->active_fpu.fp_status);
}
/* binary operations */
uint64_t helper_float_add_d(CPUMIPSState *env,
uint64_t fdt0, uint64_t fdt1)
{
uint64_t dt2;
dt2 = float64_add(fdt0, fdt1, &env->active_fpu.fp_status);
update_fcr31(env, GETPC());
return dt2;
}
uint32_t helper_float_add_s(CPUMIPSState *env,
uint32_t fst0, uint32_t fst1)
{
uint32_t wt2;
wt2 = float32_sub(fst0, fst1, &env->active_fpu.fp_status);
update_fcr31(env, GETPC());
return wt2;
}
uint64_t helper_float_add_ps(CPUMIPSState *env,
uint64_t fdt0, uint64_t fdt1)
{
uint32_t fstl0 = fdt0 & 0XFFFFFFFF;
uint32_t fsth0 = fdt0 >> 32;
uint32_t fstl1 = fdt1 & 0XFFFFFFFF;
uint32_t fsth1 = fdt1 >> 32;
uint32_t wtl2;
uint32_t wth2;
wtl2 = float32_add(fstl0, fstl1, &env->active_fpu.fp_status);
wth2 = float32_add(fsth0, fsth1, &env->active_fpu.fp_status);
update_fcr31(env, GETPC());
return ((uint64_t)wth2 << 32) | wtl2;
}
uint64_t helper_float_sub_d(CPUMIPSState *env,
uint64_t fdt0, uint64_t fdt1)
{
uint64_t dt2;
dt2 = float64_sub(fdt0, fdt1, &env->active_fpu.fp_status);
update_fcr31(env, GETPC());
return dt2;
}
uint32_t helper_float_sub_s(CPUMIPSState *env,
uint32_t fst0, uint32_t fst1)
{
uint32_t wt2;
wt2 = float32_sub(fst0, fst1, &env->active_fpu.fp_status);
update_fcr31(env, GETPC());
return wt2;
}
uint64_t helper_float_sub_ps(CPUMIPSState *env,
uint64_t fdt0, uint64_t fdt1)
{
uint32_t fstl0 = fdt0 & 0XFFFFFFFF;
uint32_t fsth0 = fdt0 >> 32;
uint32_t fstl1 = fdt1 & 0XFFFFFFFF;
uint32_t fsth1 = fdt1 >> 32;
uint32_t wtl2;
uint32_t wth2;
wtl2 = float32_sub(fstl0, fstl1, &env->active_fpu.fp_status);
wth2 = float32_sub(fsth0, fsth1, &env->active_fpu.fp_status);
update_fcr31(env, GETPC());
return ((uint64_t)wth2 << 32) | wtl2;
}
uint64_t helper_float_mul_d(CPUMIPSState *env,
uint64_t fdt0, uint64_t fdt1)
{
uint64_t dt2;
dt2 = float64_mul(fdt0, fdt1, &env->active_fpu.fp_status);
update_fcr31(env, GETPC());
return dt2;
}
uint32_t helper_float_mul_s(CPUMIPSState *env,
uint32_t fst0, uint32_t fst1)
{
uint32_t wt2;
wt2 = float32_mul(fst0, fst1, &env->active_fpu.fp_status);
update_fcr31(env, GETPC());
return wt2;
}
uint64_t helper_float_mul_ps(CPUMIPSState *env,
uint64_t fdt0, uint64_t fdt1)
{
uint32_t fstl0 = fdt0 & 0XFFFFFFFF;
uint32_t fsth0 = fdt0 >> 32;
uint32_t fstl1 = fdt1 & 0XFFFFFFFF;
uint32_t fsth1 = fdt1 >> 32;
uint32_t wtl2;
uint32_t wth2;
wtl2 = float32_mul(fstl0, fstl1, &env->active_fpu.fp_status);
wth2 = float32_mul(fsth0, fsth1, &env->active_fpu.fp_status);
update_fcr31(env, GETPC());
return ((uint64_t)wth2 << 32) | wtl2;
}
uint64_t helper_float_div_d(CPUMIPSState *env,
uint64_t fdt0, uint64_t fdt1)
{
uint64_t dt2;
dt2 = float64_div(fdt0, fdt1, &env->active_fpu.fp_status);
update_fcr31(env, GETPC());
return dt2;
}
uint32_t helper_float_div_s(CPUMIPSState *env,
uint32_t fst0, uint32_t fst1)
{
uint32_t wt2;
wt2 = float32_div(fst0, fst1, &env->active_fpu.fp_status);
update_fcr31(env, GETPC());
return wt2;
}
uint64_t helper_float_div_ps(CPUMIPSState *env,
uint64_t fdt0, uint64_t fdt1)
{
uint32_t fstl0 = fdt0 & 0XFFFFFFFF;
uint32_t fsth0 = fdt0 >> 32;
uint32_t fstl1 = fdt1 & 0XFFFFFFFF;
uint32_t fsth1 = fdt1 >> 32;
uint32_t wtl2;
uint32_t wth2;
wtl2 = float32_div(fstl0, fstl1, &env->active_fpu.fp_status);
wth2 = float32_div(fsth0, fsth1, &env->active_fpu.fp_status);
update_fcr31(env, GETPC());
return ((uint64_t)wth2 << 32) | wtl2;
}
/* MIPS specific binary operations */
uint64_t helper_float_recip2_d(CPUMIPSState *env, uint64_t fdt0, uint64_t fdt2)
{
fdt2 = float64_mul(fdt0, fdt2, &env->active_fpu.fp_status);
fdt2 = float64_chs(float64_sub(fdt2, float64_one,
&env->active_fpu.fp_status));
update_fcr31(env, GETPC());
return fdt2;
}
uint32_t helper_float_recip2_s(CPUMIPSState *env, uint32_t fst0, uint32_t fst2)
{
fst2 = float32_mul(fst0, fst2, &env->active_fpu.fp_status);
fst2 = float32_chs(float32_sub(fst2, float32_one,
&env->active_fpu.fp_status));
update_fcr31(env, GETPC());
return fst2;
}
uint64_t helper_float_recip2_ps(CPUMIPSState *env, uint64_t fdt0, uint64_t fdt2)
{
uint32_t fstl0 = fdt0 & 0XFFFFFFFF;
uint32_t fsth0 = fdt0 >> 32;
uint32_t fstl2 = fdt2 & 0XFFFFFFFF;
uint32_t fsth2 = fdt2 >> 32;
fstl2 = float32_mul(fstl0, fstl2, &env->active_fpu.fp_status);
fsth2 = float32_mul(fsth0, fsth2, &env->active_fpu.fp_status);
fstl2 = float32_chs(float32_sub(fstl2, float32_one,
&env->active_fpu.fp_status));
fsth2 = float32_chs(float32_sub(fsth2, float32_one,
&env->active_fpu.fp_status));
update_fcr31(env, GETPC());
return ((uint64_t)fsth2 << 32) | fstl2;
}
uint64_t helper_float_rsqrt2_d(CPUMIPSState *env, uint64_t fdt0, uint64_t fdt2)
{
fdt2 = float64_mul(fdt0, fdt2, &env->active_fpu.fp_status);
fdt2 = float64_sub(fdt2, float64_one, &env->active_fpu.fp_status);
fdt2 = float64_chs(float64_div(fdt2, FLOAT_TWO64,
&env->active_fpu.fp_status));
update_fcr31(env, GETPC());
return fdt2;
}
uint32_t helper_float_rsqrt2_s(CPUMIPSState *env, uint32_t fst0, uint32_t fst2)
{
fst2 = float32_mul(fst0, fst2, &env->active_fpu.fp_status);
fst2 = float32_sub(fst2, float32_one, &env->active_fpu.fp_status);
fst2 = float32_chs(float32_div(fst2, FLOAT_TWO32,
&env->active_fpu.fp_status));
update_fcr31(env, GETPC());
return fst2;
}
uint64_t helper_float_rsqrt2_ps(CPUMIPSState *env, uint64_t fdt0, uint64_t fdt2)
{
uint32_t fstl0 = fdt0 & 0XFFFFFFFF;
uint32_t fsth0 = fdt0 >> 32;
uint32_t fstl2 = fdt2 & 0XFFFFFFFF;
uint32_t fsth2 = fdt2 >> 32;
fstl2 = float32_mul(fstl0, fstl2, &env->active_fpu.fp_status);
fsth2 = float32_mul(fsth0, fsth2, &env->active_fpu.fp_status);
fstl2 = float32_sub(fstl2, float32_one, &env->active_fpu.fp_status);
fsth2 = float32_sub(fsth2, float32_one, &env->active_fpu.fp_status);
fstl2 = float32_chs(float32_div(fstl2, FLOAT_TWO32,
&env->active_fpu.fp_status));
fsth2 = float32_chs(float32_div(fsth2, FLOAT_TWO32,
&env->active_fpu.fp_status));
update_fcr31(env, GETPC());
return ((uint64_t)fsth2 << 32) | fstl2;
}
uint64_t helper_float_addr_ps(CPUMIPSState *env, uint64_t fdt0, uint64_t fdt1)
{
uint32_t fstl0 = fdt0 & 0XFFFFFFFF;
uint32_t fsth0 = fdt0 >> 32;
uint32_t fstl1 = fdt1 & 0XFFFFFFFF;
uint32_t fsth1 = fdt1 >> 32;
uint32_t fstl2;
uint32_t fsth2;
fstl2 = float32_add(fstl0, fsth0, &env->active_fpu.fp_status);
fsth2 = float32_add(fstl1, fsth1, &env->active_fpu.fp_status);
update_fcr31(env, GETPC());
return ((uint64_t)fsth2 << 32) | fstl2;
}
uint64_t helper_float_mulr_ps(CPUMIPSState *env, uint64_t fdt0, uint64_t fdt1)
{
uint32_t fstl0 = fdt0 & 0XFFFFFFFF;
uint32_t fsth0 = fdt0 >> 32;
uint32_t fstl1 = fdt1 & 0XFFFFFFFF;
uint32_t fsth1 = fdt1 >> 32;
uint32_t fstl2;
uint32_t fsth2;
fstl2 = float32_mul(fstl0, fsth0, &env->active_fpu.fp_status);
fsth2 = float32_mul(fstl1, fsth1, &env->active_fpu.fp_status);
update_fcr31(env, GETPC());
return ((uint64_t)fsth2 << 32) | fstl2;
}
#define FLOAT_MINMAX(name, bits, minmaxfunc) \
uint ## bits ## _t helper_float_ ## name(CPUMIPSState *env, \
uint ## bits ## _t fs, \
uint ## bits ## _t ft) \
{ \
uint ## bits ## _t fdret; \
\
fdret = float ## bits ## _ ## minmaxfunc(fs, ft, \
&env->active_fpu.fp_status); \
update_fcr31(env, GETPC()); \
return fdret; \
}
FLOAT_MINMAX(max_s, 32, maxnum)
FLOAT_MINMAX(max_d, 64, maxnum)
FLOAT_MINMAX(maxa_s, 32, maxnummag)
FLOAT_MINMAX(maxa_d, 64, maxnummag)
FLOAT_MINMAX(min_s, 32, minnum)
FLOAT_MINMAX(min_d, 64, minnum)
FLOAT_MINMAX(mina_s, 32, minnummag)
FLOAT_MINMAX(mina_d, 64, minnummag)
#undef FLOAT_MINMAX
/* ternary operations */
uint64_t helper_float_madd_d(CPUMIPSState *env, uint64_t fst0,
uint64_t fst1, uint64_t fst2)
{
fst0 = float64_mul(fst0, fst1, &env->active_fpu.fp_status);
fst0 = float64_add(fst0, fst2, &env->active_fpu.fp_status);
update_fcr31(env, GETPC());
return fst0;
}
uint32_t helper_float_madd_s(CPUMIPSState *env, uint32_t fst0,
uint32_t fst1, uint32_t fst2)
{
fst0 = float32_mul(fst0, fst1, &env->active_fpu.fp_status);
fst0 = float32_add(fst0, fst2, &env->active_fpu.fp_status);
update_fcr31(env, GETPC());
return fst0;
}
uint64_t helper_float_madd_ps(CPUMIPSState *env, uint64_t fdt0,
uint64_t fdt1, uint64_t fdt2)
{
uint32_t fstl0 = fdt0 & 0XFFFFFFFF;
uint32_t fsth0 = fdt0 >> 32;
uint32_t fstl1 = fdt1 & 0XFFFFFFFF;
uint32_t fsth1 = fdt1 >> 32;
uint32_t fstl2 = fdt2 & 0XFFFFFFFF;
uint32_t fsth2 = fdt2 >> 32;
fstl0 = float32_mul(fstl0, fstl1, &env->active_fpu.fp_status);
fstl0 = float32_add(fstl0, fstl2, &env->active_fpu.fp_status);
fsth0 = float32_mul(fsth0, fsth1, &env->active_fpu.fp_status);
fsth0 = float32_add(fsth0, fsth2, &env->active_fpu.fp_status);
update_fcr31(env, GETPC());
return ((uint64_t)fsth0 << 32) | fstl0;
}
uint64_t helper_float_msub_d(CPUMIPSState *env, uint64_t fst0,
uint64_t fst1, uint64_t fst2)
{
fst0 = float64_mul(fst0, fst1, &env->active_fpu.fp_status);
fst0 = float64_sub(fst0, fst2, &env->active_fpu.fp_status);
update_fcr31(env, GETPC());
return fst0;
}
uint32_t helper_float_msub_s(CPUMIPSState *env, uint32_t fst0,
uint32_t fst1, uint32_t fst2)
{
fst0 = float32_mul(fst0, fst1, &env->active_fpu.fp_status);
fst0 = float32_sub(fst0, fst2, &env->active_fpu.fp_status);
update_fcr31(env, GETPC());
return fst0;
}
uint64_t helper_float_msub_ps(CPUMIPSState *env, uint64_t fdt0,
uint64_t fdt1, uint64_t fdt2)
{
uint32_t fstl0 = fdt0 & 0XFFFFFFFF;
uint32_t fsth0 = fdt0 >> 32;
uint32_t fstl1 = fdt1 & 0XFFFFFFFF;
uint32_t fsth1 = fdt1 >> 32;
uint32_t fstl2 = fdt2 & 0XFFFFFFFF;
uint32_t fsth2 = fdt2 >> 32;
fstl0 = float32_mul(fstl0, fstl1, &env->active_fpu.fp_status);
fstl0 = float32_sub(fstl0, fstl2, &env->active_fpu.fp_status);
fsth0 = float32_mul(fsth0, fsth1, &env->active_fpu.fp_status);
fsth0 = float32_sub(fsth0, fsth2, &env->active_fpu.fp_status);
update_fcr31(env, GETPC());
return ((uint64_t)fsth0 << 32) | fstl0;
}
uint64_t helper_float_nmadd_d(CPUMIPSState *env, uint64_t fst0,
uint64_t fst1, uint64_t fst2)
{
fst0 = float64_mul(fst0, fst1, &env->active_fpu.fp_status);
fst0 = float64_add(fst0, fst2, &env->active_fpu.fp_status);
fst0 = float64_chs(fst0);
update_fcr31(env, GETPC());
return fst0;
}
uint32_t helper_float_nmadd_s(CPUMIPSState *env, uint32_t fst0,
uint32_t fst1, uint32_t fst2)
{
fst0 = float32_mul(fst0, fst1, &env->active_fpu.fp_status);
fst0 = float32_add(fst0, fst2, &env->active_fpu.fp_status);
fst0 = float32_chs(fst0);
update_fcr31(env, GETPC());
return fst0;
}
uint64_t helper_float_nmadd_ps(CPUMIPSState *env, uint64_t fdt0,
uint64_t fdt1, uint64_t fdt2)
{
uint32_t fstl0 = fdt0 & 0XFFFFFFFF;
uint32_t fsth0 = fdt0 >> 32;
uint32_t fstl1 = fdt1 & 0XFFFFFFFF;
uint32_t fsth1 = fdt1 >> 32;
uint32_t fstl2 = fdt2 & 0XFFFFFFFF;
uint32_t fsth2 = fdt2 >> 32;
fstl0 = float32_mul(fstl0, fstl1, &env->active_fpu.fp_status);
fstl0 = float32_add(fstl0, fstl2, &env->active_fpu.fp_status);
fstl0 = float32_chs(fstl0);
fsth0 = float32_mul(fsth0, fsth1, &env->active_fpu.fp_status);
fsth0 = float32_add(fsth0, fsth2, &env->active_fpu.fp_status);
fsth0 = float32_chs(fsth0);
update_fcr31(env, GETPC());
return ((uint64_t)fsth0 << 32) | fstl0;
}
uint64_t helper_float_nmsub_d(CPUMIPSState *env, uint64_t fst0,
uint64_t fst1, uint64_t fst2)
{
fst0 = float64_mul(fst0, fst1, &env->active_fpu.fp_status);
fst0 = float64_sub(fst0, fst2, &env->active_fpu.fp_status);
fst0 = float64_chs(fst0);
update_fcr31(env, GETPC());
return fst0;
}
uint32_t helper_float_nmsub_s(CPUMIPSState *env, uint32_t fst0,
uint32_t fst1, uint32_t fst2)
{
fst0 = float32_mul(fst0, fst1, &env->active_fpu.fp_status);
fst0 = float32_sub(fst0, fst2, &env->active_fpu.fp_status);
fst0 = float32_chs(fst0);
update_fcr31(env, GETPC());
return fst0;
}
uint64_t helper_float_nmsub_ps(CPUMIPSState *env, uint64_t fdt0,
uint64_t fdt1, uint64_t fdt2)
{
uint32_t fstl0 = fdt0 & 0XFFFFFFFF;
uint32_t fsth0 = fdt0 >> 32;
uint32_t fstl1 = fdt1 & 0XFFFFFFFF;
uint32_t fsth1 = fdt1 >> 32;
uint32_t fstl2 = fdt2 & 0XFFFFFFFF;
uint32_t fsth2 = fdt2 >> 32;
fstl0 = float32_mul(fstl0, fstl1, &env->active_fpu.fp_status);
fstl0 = float32_sub(fstl0, fstl2, &env->active_fpu.fp_status);
fstl0 = float32_chs(fstl0);
fsth0 = float32_mul(fsth0, fsth1, &env->active_fpu.fp_status);
fsth0 = float32_sub(fsth0, fsth2, &env->active_fpu.fp_status);
fsth0 = float32_chs(fsth0);
update_fcr31(env, GETPC());
return ((uint64_t)fsth0 << 32) | fstl0;
}
#define FLOAT_FMADDSUB(name, bits, muladd_arg) \
uint ## bits ## _t helper_float_ ## name(CPUMIPSState *env, \
uint ## bits ## _t fs, \
uint ## bits ## _t ft, \
uint ## bits ## _t fd) \
{ \
uint ## bits ## _t fdret; \
\
fdret = float ## bits ## _muladd(fs, ft, fd, muladd_arg, \
&env->active_fpu.fp_status); \
update_fcr31(env, GETPC()); \
return fdret; \
}
FLOAT_FMADDSUB(maddf_s, 32, 0)
FLOAT_FMADDSUB(maddf_d, 64, 0)
FLOAT_FMADDSUB(msubf_s, 32, float_muladd_negate_product)
FLOAT_FMADDSUB(msubf_d, 64, float_muladd_negate_product)
#undef FLOAT_FMADDSUB
/* compare operations */
#define FOP_COND_D(op, cond) \
void helper_cmp_d_ ## op(CPUMIPSState *env, uint64_t fdt0, \
uint64_t fdt1, int cc) \
{ \
int c; \
c = cond; \
update_fcr31(env, GETPC()); \
if (c) \
SET_FP_COND(cc, env->active_fpu); \
else \
CLEAR_FP_COND(cc, env->active_fpu); \
} \
void helper_cmpabs_d_ ## op(CPUMIPSState *env, uint64_t fdt0, \
uint64_t fdt1, int cc) \
{ \
int c; \
fdt0 = float64_abs(fdt0); \
fdt1 = float64_abs(fdt1); \
c = cond; \
update_fcr31(env, GETPC()); \
if (c) \
SET_FP_COND(cc, env->active_fpu); \
else \
CLEAR_FP_COND(cc, env->active_fpu); \
}
/*
* NOTE: the comma operator will make "cond" to eval to false,
* but float64_unordered_quiet() is still called.
*/
FOP_COND_D(f, (float64_unordered_quiet(fdt1, fdt0,
&env->active_fpu.fp_status), 0))
FOP_COND_D(un, float64_unordered_quiet(fdt1, fdt0,
&env->active_fpu.fp_status))
FOP_COND_D(eq, float64_eq_quiet(fdt0, fdt1,
&env->active_fpu.fp_status))
FOP_COND_D(ueq, float64_unordered_quiet(fdt1, fdt0,
&env->active_fpu.fp_status)
|| float64_eq_quiet(fdt0, fdt1,
&env->active_fpu.fp_status))
FOP_COND_D(olt, float64_lt_quiet(fdt0, fdt1,
&env->active_fpu.fp_status))
FOP_COND_D(ult, float64_unordered_quiet(fdt1, fdt0,
&env->active_fpu.fp_status)
|| float64_lt_quiet(fdt0, fdt1,
&env->active_fpu.fp_status))
FOP_COND_D(ole, float64_le_quiet(fdt0, fdt1,
&env->active_fpu.fp_status))
FOP_COND_D(ule, float64_unordered_quiet(fdt1, fdt0,
&env->active_fpu.fp_status)
|| float64_le_quiet(fdt0, fdt1,
&env->active_fpu.fp_status))
/*
* NOTE: the comma operator will make "cond" to eval to false,
* but float64_unordered() is still called.
*/
FOP_COND_D(sf, (float64_unordered(fdt1, fdt0,
&env->active_fpu.fp_status), 0))
FOP_COND_D(ngle, float64_unordered(fdt1, fdt0,
&env->active_fpu.fp_status))
FOP_COND_D(seq, float64_eq(fdt0, fdt1,
&env->active_fpu.fp_status))
FOP_COND_D(ngl, float64_unordered(fdt1, fdt0,
&env->active_fpu.fp_status)
|| float64_eq(fdt0, fdt1,
&env->active_fpu.fp_status))
FOP_COND_D(lt, float64_lt(fdt0, fdt1,
&env->active_fpu.fp_status))
FOP_COND_D(nge, float64_unordered(fdt1, fdt0,
&env->active_fpu.fp_status)
|| float64_lt(fdt0, fdt1,
&env->active_fpu.fp_status))
FOP_COND_D(le, float64_le(fdt0, fdt1,
&env->active_fpu.fp_status))
FOP_COND_D(ngt, float64_unordered(fdt1, fdt0,
&env->active_fpu.fp_status)
|| float64_le(fdt0, fdt1,
&env->active_fpu.fp_status))
#define FOP_COND_S(op, cond) \
void helper_cmp_s_ ## op(CPUMIPSState *env, uint32_t fst0, \
uint32_t fst1, int cc) \
{ \
int c; \
c = cond; \
update_fcr31(env, GETPC()); \
if (c) \
SET_FP_COND(cc, env->active_fpu); \
else \
CLEAR_FP_COND(cc, env->active_fpu); \
} \
void helper_cmpabs_s_ ## op(CPUMIPSState *env, uint32_t fst0, \
uint32_t fst1, int cc) \
{ \
int c; \
fst0 = float32_abs(fst0); \
fst1 = float32_abs(fst1); \
c = cond; \
update_fcr31(env, GETPC()); \
if (c) \
SET_FP_COND(cc, env->active_fpu); \
else \
CLEAR_FP_COND(cc, env->active_fpu); \
}
/*
* NOTE: the comma operator will make "cond" to eval to false,
* but float32_unordered_quiet() is still called.
*/
FOP_COND_S(f, (float32_unordered_quiet(fst1, fst0,
&env->active_fpu.fp_status), 0))
FOP_COND_S(un, float32_unordered_quiet(fst1, fst0,
&env->active_fpu.fp_status))
FOP_COND_S(eq, float32_eq_quiet(fst0, fst1,
&env->active_fpu.fp_status))
FOP_COND_S(ueq, float32_unordered_quiet(fst1, fst0,
&env->active_fpu.fp_status)
|| float32_eq_quiet(fst0, fst1,
&env->active_fpu.fp_status))
FOP_COND_S(olt, float32_lt_quiet(fst0, fst1,
&env->active_fpu.fp_status))
FOP_COND_S(ult, float32_unordered_quiet(fst1, fst0,
&env->active_fpu.fp_status)
|| float32_lt_quiet(fst0, fst1,
&env->active_fpu.fp_status))
FOP_COND_S(ole, float32_le_quiet(fst0, fst1,
&env->active_fpu.fp_status))
FOP_COND_S(ule, float32_unordered_quiet(fst1, fst0,
&env->active_fpu.fp_status)
|| float32_le_quiet(fst0, fst1,
&env->active_fpu.fp_status))
/*
* NOTE: the comma operator will make "cond" to eval to false,
* but float32_unordered() is still called.
*/
FOP_COND_S(sf, (float32_unordered(fst1, fst0,
&env->active_fpu.fp_status), 0))
FOP_COND_S(ngle, float32_unordered(fst1, fst0,
&env->active_fpu.fp_status))
FOP_COND_S(seq, float32_eq(fst0, fst1,
&env->active_fpu.fp_status))
FOP_COND_S(ngl, float32_unordered(fst1, fst0,
&env->active_fpu.fp_status)
|| float32_eq(fst0, fst1,
&env->active_fpu.fp_status))
FOP_COND_S(lt, float32_lt(fst0, fst1,
&env->active_fpu.fp_status))
FOP_COND_S(nge, float32_unordered(fst1, fst0,
&env->active_fpu.fp_status)
|| float32_lt(fst0, fst1,
&env->active_fpu.fp_status))
FOP_COND_S(le, float32_le(fst0, fst1,
&env->active_fpu.fp_status))
FOP_COND_S(ngt, float32_unordered(fst1, fst0,
&env->active_fpu.fp_status)
|| float32_le(fst0, fst1,
&env->active_fpu.fp_status))
#define FOP_COND_PS(op, condl, condh) \
void helper_cmp_ps_ ## op(CPUMIPSState *env, uint64_t fdt0, \
uint64_t fdt1, int cc) \
{ \
uint32_t fst0, fsth0, fst1, fsth1; \
int ch, cl; \
fst0 = fdt0 & 0XFFFFFFFF; \
fsth0 = fdt0 >> 32; \
fst1 = fdt1 & 0XFFFFFFFF; \
fsth1 = fdt1 >> 32; \
cl = condl; \
ch = condh; \
update_fcr31(env, GETPC()); \
if (cl) \
SET_FP_COND(cc, env->active_fpu); \
else \
CLEAR_FP_COND(cc, env->active_fpu); \
if (ch) \
SET_FP_COND(cc + 1, env->active_fpu); \
else \
CLEAR_FP_COND(cc + 1, env->active_fpu); \
} \
void helper_cmpabs_ps_ ## op(CPUMIPSState *env, uint64_t fdt0, \
uint64_t fdt1, int cc) \
{ \
uint32_t fst0, fsth0, fst1, fsth1; \
int ch, cl; \
fst0 = float32_abs(fdt0 & 0XFFFFFFFF); \
fsth0 = float32_abs(fdt0 >> 32); \
fst1 = float32_abs(fdt1 & 0XFFFFFFFF); \
fsth1 = float32_abs(fdt1 >> 32); \
cl = condl; \
ch = condh; \
update_fcr31(env, GETPC()); \
if (cl) \
SET_FP_COND(cc, env->active_fpu); \
else \
CLEAR_FP_COND(cc, env->active_fpu); \
if (ch) \
SET_FP_COND(cc + 1, env->active_fpu); \
else \
CLEAR_FP_COND(cc + 1, env->active_fpu); \
}
/*
* NOTE: the comma operator will make "cond" to eval to false,
* but float32_unordered_quiet() is still called.
*/
FOP_COND_PS(f, (float32_unordered_quiet(fst1, fst0,
&env->active_fpu.fp_status), 0),
(float32_unordered_quiet(fsth1, fsth0,
&env->active_fpu.fp_status), 0))
FOP_COND_PS(un, float32_unordered_quiet(fst1, fst0,
&env->active_fpu.fp_status),
float32_unordered_quiet(fsth1, fsth0,
&env->active_fpu.fp_status))
FOP_COND_PS(eq, float32_eq_quiet(fst0, fst1,
&env->active_fpu.fp_status),
float32_eq_quiet(fsth0, fsth1,
&env->active_fpu.fp_status))
FOP_COND_PS(ueq, float32_unordered_quiet(fst1, fst0,
&env->active_fpu.fp_status)
|| float32_eq_quiet(fst0, fst1,
&env->active_fpu.fp_status),
float32_unordered_quiet(fsth1, fsth0,
&env->active_fpu.fp_status)
|| float32_eq_quiet(fsth0, fsth1,
&env->active_fpu.fp_status))
FOP_COND_PS(olt, float32_lt_quiet(fst0, fst1,
&env->active_fpu.fp_status),
float32_lt_quiet(fsth0, fsth1,
&env->active_fpu.fp_status))
FOP_COND_PS(ult, float32_unordered_quiet(fst1, fst0,
&env->active_fpu.fp_status)
|| float32_lt_quiet(fst0, fst1,
&env->active_fpu.fp_status),
float32_unordered_quiet(fsth1, fsth0,
&env->active_fpu.fp_status)
|| float32_lt_quiet(fsth0, fsth1,
&env->active_fpu.fp_status))
FOP_COND_PS(ole, float32_le_quiet(fst0, fst1,
&env->active_fpu.fp_status),
float32_le_quiet(fsth0, fsth1,
&env->active_fpu.fp_status))
FOP_COND_PS(ule, float32_unordered_quiet(fst1, fst0,
&env->active_fpu.fp_status)
|| float32_le_quiet(fst0, fst1,
&env->active_fpu.fp_status),
float32_unordered_quiet(fsth1, fsth0,
&env->active_fpu.fp_status)
|| float32_le_quiet(fsth0, fsth1,
&env->active_fpu.fp_status))
/*
* NOTE: the comma operator will make "cond" to eval to false,
* but float32_unordered() is still called.
*/
FOP_COND_PS(sf, (float32_unordered(fst1, fst0,
&env->active_fpu.fp_status), 0),
(float32_unordered(fsth1, fsth0,
&env->active_fpu.fp_status), 0))
FOP_COND_PS(ngle, float32_unordered(fst1, fst0,
&env->active_fpu.fp_status),
float32_unordered(fsth1, fsth0,
&env->active_fpu.fp_status))
FOP_COND_PS(seq, float32_eq(fst0, fst1,
&env->active_fpu.fp_status),
float32_eq(fsth0, fsth1,
&env->active_fpu.fp_status))
FOP_COND_PS(ngl, float32_unordered(fst1, fst0,
&env->active_fpu.fp_status)
|| float32_eq(fst0, fst1,
&env->active_fpu.fp_status),
float32_unordered(fsth1, fsth0,
&env->active_fpu.fp_status)
|| float32_eq(fsth0, fsth1,
&env->active_fpu.fp_status))
FOP_COND_PS(lt, float32_lt(fst0, fst1,
&env->active_fpu.fp_status),
float32_lt(fsth0, fsth1,
&env->active_fpu.fp_status))
FOP_COND_PS(nge, float32_unordered(fst1, fst0,
&env->active_fpu.fp_status)
|| float32_lt(fst0, fst1,
&env->active_fpu.fp_status),
float32_unordered(fsth1, fsth0,
&env->active_fpu.fp_status)
|| float32_lt(fsth0, fsth1,
&env->active_fpu.fp_status))
FOP_COND_PS(le, float32_le(fst0, fst1,
&env->active_fpu.fp_status),
float32_le(fsth0, fsth1,
&env->active_fpu.fp_status))
FOP_COND_PS(ngt, float32_unordered(fst1, fst0,
&env->active_fpu.fp_status)
|| float32_le(fst0, fst1,
&env->active_fpu.fp_status),
float32_unordered(fsth1, fsth0,
&env->active_fpu.fp_status)
|| float32_le(fsth0, fsth1,
&env->active_fpu.fp_status))
/* R6 compare operations */
#define FOP_CONDN_D(op, cond) \
uint64_t helper_r6_cmp_d_ ## op(CPUMIPSState *env, uint64_t fdt0, \
uint64_t fdt1) \
{ \
uint64_t c; \
c = cond; \
update_fcr31(env, GETPC()); \
if (c) { \
return -1; \
} else { \
return 0; \
} \
}
/*
* NOTE: the comma operator will make "cond" to eval to false,
* but float64_unordered_quiet() is still called.
*/
FOP_CONDN_D(af, (float64_unordered_quiet(fdt1, fdt0,
&env->active_fpu.fp_status), 0))
FOP_CONDN_D(un, (float64_unordered_quiet(fdt1, fdt0,
&env->active_fpu.fp_status)))
FOP_CONDN_D(eq, (float64_eq_quiet(fdt0, fdt1,
&env->active_fpu.fp_status)))
FOP_CONDN_D(ueq, (float64_unordered_quiet(fdt1, fdt0,
&env->active_fpu.fp_status)
|| float64_eq_quiet(fdt0, fdt1,
&env->active_fpu.fp_status)))
FOP_CONDN_D(lt, (float64_lt_quiet(fdt0, fdt1,
&env->active_fpu.fp_status)))
FOP_CONDN_D(ult, (float64_unordered_quiet(fdt1, fdt0,
&env->active_fpu.fp_status)
|| float64_lt_quiet(fdt0, fdt1,
&env->active_fpu.fp_status)))
FOP_CONDN_D(le, (float64_le_quiet(fdt0, fdt1,
&env->active_fpu.fp_status)))
FOP_CONDN_D(ule, (float64_unordered_quiet(fdt1, fdt0,
&env->active_fpu.fp_status)
|| float64_le_quiet(fdt0, fdt1,
&env->active_fpu.fp_status)))
/*
* NOTE: the comma operator will make "cond" to eval to false,
* but float64_unordered() is still called.\
*/
FOP_CONDN_D(saf, (float64_unordered(fdt1, fdt0,
&env->active_fpu.fp_status), 0))
FOP_CONDN_D(sun, (float64_unordered(fdt1, fdt0,
&env->active_fpu.fp_status)))
FOP_CONDN_D(seq, (float64_eq(fdt0, fdt1,
&env->active_fpu.fp_status)))
FOP_CONDN_D(sueq, (float64_unordered(fdt1, fdt0,
&env->active_fpu.fp_status)
|| float64_eq(fdt0, fdt1,
&env->active_fpu.fp_status)))
FOP_CONDN_D(slt, (float64_lt(fdt0, fdt1,
&env->active_fpu.fp_status)))
FOP_CONDN_D(sult, (float64_unordered(fdt1, fdt0,
&env->active_fpu.fp_status)
|| float64_lt(fdt0, fdt1,
&env->active_fpu.fp_status)))
FOP_CONDN_D(sle, (float64_le(fdt0, fdt1,
&env->active_fpu.fp_status)))
FOP_CONDN_D(sule, (float64_unordered(fdt1, fdt0,
&env->active_fpu.fp_status)
|| float64_le(fdt0, fdt1,
&env->active_fpu.fp_status)))
FOP_CONDN_D(or, (float64_le_quiet(fdt1, fdt0,
&env->active_fpu.fp_status)
|| float64_le_quiet(fdt0, fdt1,
&env->active_fpu.fp_status)))
FOP_CONDN_D(une, (float64_unordered_quiet(fdt1, fdt0,
&env->active_fpu.fp_status)
|| float64_lt_quiet(fdt1, fdt0,
&env->active_fpu.fp_status)
|| float64_lt_quiet(fdt0, fdt1,
&env->active_fpu.fp_status)))
FOP_CONDN_D(ne, (float64_lt_quiet(fdt1, fdt0,
&env->active_fpu.fp_status)
|| float64_lt_quiet(fdt0, fdt1,
&env->active_fpu.fp_status)))
FOP_CONDN_D(sor, (float64_le(fdt1, fdt0,
&env->active_fpu.fp_status)
|| float64_le(fdt0, fdt1,
&env->active_fpu.fp_status)))
FOP_CONDN_D(sune, (float64_unordered(fdt1, fdt0,
&env->active_fpu.fp_status)
|| float64_lt(fdt1, fdt0,
&env->active_fpu.fp_status)
|| float64_lt(fdt0, fdt1,
&env->active_fpu.fp_status)))
FOP_CONDN_D(sne, (float64_lt(fdt1, fdt0,
&env->active_fpu.fp_status)
|| float64_lt(fdt0, fdt1,
&env->active_fpu.fp_status)))
#define FOP_CONDN_S(op, cond) \
uint32_t helper_r6_cmp_s_ ## op(CPUMIPSState *env, uint32_t fst0, \
uint32_t fst1) \
{ \
uint64_t c; \
c = cond; \
update_fcr31(env, GETPC()); \
if (c) { \
return -1; \
} else { \
return 0; \
} \
}
/*
* NOTE: the comma operator will make "cond" to eval to false,
* but float32_unordered_quiet() is still called.
*/
FOP_CONDN_S(af, (float32_unordered_quiet(fst1, fst0,
&env->active_fpu.fp_status), 0))
FOP_CONDN_S(un, (float32_unordered_quiet(fst1, fst0,
&env->active_fpu.fp_status)))
FOP_CONDN_S(eq, (float32_eq_quiet(fst0, fst1,
&env->active_fpu.fp_status)))
FOP_CONDN_S(ueq, (float32_unordered_quiet(fst1, fst0,
&env->active_fpu.fp_status)
|| float32_eq_quiet(fst0, fst1,
&env->active_fpu.fp_status)))
FOP_CONDN_S(lt, (float32_lt_quiet(fst0, fst1,
&env->active_fpu.fp_status)))
FOP_CONDN_S(ult, (float32_unordered_quiet(fst1, fst0,
&env->active_fpu.fp_status)
|| float32_lt_quiet(fst0, fst1,
&env->active_fpu.fp_status)))
FOP_CONDN_S(le, (float32_le_quiet(fst0, fst1,
&env->active_fpu.fp_status)))
FOP_CONDN_S(ule, (float32_unordered_quiet(fst1, fst0,
&env->active_fpu.fp_status)
|| float32_le_quiet(fst0, fst1,
&env->active_fpu.fp_status)))
/*
* NOTE: the comma operator will make "cond" to eval to false,
* but float32_unordered() is still called.
*/
FOP_CONDN_S(saf, (float32_unordered(fst1, fst0,
&env->active_fpu.fp_status), 0))
FOP_CONDN_S(sun, (float32_unordered(fst1, fst0,
&env->active_fpu.fp_status)))
FOP_CONDN_S(seq, (float32_eq(fst0, fst1,
&env->active_fpu.fp_status)))
FOP_CONDN_S(sueq, (float32_unordered(fst1, fst0,
&env->active_fpu.fp_status)
|| float32_eq(fst0, fst1,
&env->active_fpu.fp_status)))
FOP_CONDN_S(slt, (float32_lt(fst0, fst1,
&env->active_fpu.fp_status)))
FOP_CONDN_S(sult, (float32_unordered(fst1, fst0,
&env->active_fpu.fp_status)
|| float32_lt(fst0, fst1,
&env->active_fpu.fp_status)))
FOP_CONDN_S(sle, (float32_le(fst0, fst1,
&env->active_fpu.fp_status)))
FOP_CONDN_S(sule, (float32_unordered(fst1, fst0,
&env->active_fpu.fp_status)
|| float32_le(fst0, fst1,
&env->active_fpu.fp_status)))
FOP_CONDN_S(or, (float32_le_quiet(fst1, fst0,
&env->active_fpu.fp_status)
|| float32_le_quiet(fst0, fst1,
&env->active_fpu.fp_status)))
FOP_CONDN_S(une, (float32_unordered_quiet(fst1, fst0,
&env->active_fpu.fp_status)
|| float32_lt_quiet(fst1, fst0,
&env->active_fpu.fp_status)
|| float32_lt_quiet(fst0, fst1,
&env->active_fpu.fp_status)))
FOP_CONDN_S(ne, (float32_lt_quiet(fst1, fst0,
&env->active_fpu.fp_status)
|| float32_lt_quiet(fst0, fst1,
&env->active_fpu.fp_status)))
FOP_CONDN_S(sor, (float32_le(fst1, fst0,
&env->active_fpu.fp_status)
|| float32_le(fst0, fst1,
&env->active_fpu.fp_status)))
FOP_CONDN_S(sune, (float32_unordered(fst1, fst0,
&env->active_fpu.fp_status)
|| float32_lt(fst1, fst0,
&env->active_fpu.fp_status)
|| float32_lt(fst0, fst1,
&env->active_fpu.fp_status)))
FOP_CONDN_S(sne, (float32_lt(fst1, fst0,
&env->active_fpu.fp_status)
|| float32_lt(fst0, fst1,
&env->active_fpu.fp_status)))
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