Archipelago » qemu

/*

 *  MMX/3DNow!/SSE/SSE2/SSE3/SSSE3/SSE4/PNI support

 *

 *  Copyright (c) 2005 Fabrice Bellard

 *  Copyright (c) 2008 Intel Corporation  <andrew.zaborowski@intel.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/>.

 */

#if SHIFT == 0

#define Reg MMXReg

#define XMM_ONLY(...)

#define B(n) MMX_B(n)

#define W(n) MMX_W(n)

#define L(n) MMX_L(n)

#define Q(n) q

#define SUFFIX _mmx

#else

#define Reg XMMReg

#define XMM_ONLY(...) __VA_ARGS__

#define B(n) XMM_B(n)

#define W(n) XMM_W(n)

#define L(n) XMM_L(n)

#define Q(n) XMM_Q(n)

#define SUFFIX _xmm

#endif

void glue(helper_psrlw, SUFFIX)(CPUX86State *env, Reg *d, Reg *s)

{

    int shift;

    if (s->Q(0) > 15) {

        d->Q(0) = 0;

#if SHIFT == 1

        d->Q(1) = 0;

#endif

    } else {

        shift = s->B(0);

        d->W(0) >>= shift;

        d->W(1) >>= shift;

        d->W(2) >>= shift;

        d->W(3) >>= shift;

#if SHIFT == 1

        d->W(4) >>= shift;

        d->W(5) >>= shift;

        d->W(6) >>= shift;

        d->W(7) >>= shift;

#endif

    }

}

void glue(helper_psraw, SUFFIX)(CPUX86State *env, Reg *d, Reg *s)

{

    int shift;

    if (s->Q(0) > 15) {

        shift = 15;

    } else {

        shift = s->B(0);

    }

    d->W(0) = (int16_t)d->W(0) >> shift;

    d->W(1) = (int16_t)d->W(1) >> shift;

    d->W(2) = (int16_t)d->W(2) >> shift;

    d->W(3) = (int16_t)d->W(3) >> shift;

#if SHIFT == 1

    d->W(4) = (int16_t)d->W(4) >> shift;

    d->W(5) = (int16_t)d->W(5) >> shift;

    d->W(6) = (int16_t)d->W(6) >> shift;

    d->W(7) = (int16_t)d->W(7) >> shift;

#endif

}

void glue(helper_psllw, SUFFIX)(CPUX86State *env, Reg *d, Reg *s)

{

    int shift;

    if (s->Q(0) > 15) {

        d->Q(0) = 0;

#if SHIFT == 1

        d->Q(1) = 0;

#endif

    } else {

        shift = s->B(0);

        d->W(0) <<= shift;

        d->W(1) <<= shift;

        d->W(2) <<= shift;

        d->W(3) <<= shift;

#if SHIFT == 1

        d->W(4) <<= shift;

        d->W(5) <<= shift;

        d->W(6) <<= shift;

        d->W(7) <<= shift;

#endif

    }

}

void glue(helper_psrld, SUFFIX)(CPUX86State *env, Reg *d, Reg *s)

{

    int shift;

    if (s->Q(0) > 31) {

        d->Q(0) = 0;

#if SHIFT == 1

        d->Q(1) = 0;

#endif

    } else {

        shift = s->B(0);

        d->L(0) >>= shift;

        d->L(1) >>= shift;

#if SHIFT == 1

        d->L(2) >>= shift;

        d->L(3) >>= shift;

#endif

    }

}

void glue(helper_psrad, SUFFIX)(CPUX86State *env, Reg *d, Reg *s)

{

    int shift;

    if (s->Q(0) > 31) {

        shift = 31;

    } else {

        shift = s->B(0);

    }

    d->L(0) = (int32_t)d->L(0) >> shift;

    d->L(1) = (int32_t)d->L(1) >> shift;

#if SHIFT == 1

    d->L(2) = (int32_t)d->L(2) >> shift;

    d->L(3) = (int32_t)d->L(3) >> shift;

#endif

}

void glue(helper_pslld, SUFFIX)(CPUX86State *env, Reg *d, Reg *s)

{

    int shift;

    if (s->Q(0) > 31) {

        d->Q(0) = 0;

#if SHIFT == 1

        d->Q(1) = 0;

#endif

    } else {

        shift = s->B(0);

        d->L(0) <<= shift;

        d->L(1) <<= shift;

#if SHIFT == 1

        d->L(2) <<= shift;

        d->L(3) <<= shift;

#endif

    }

}

void glue(helper_psrlq, SUFFIX)(CPUX86State *env, Reg *d, Reg *s)

{

    int shift;

    if (s->Q(0) > 63) {

        d->Q(0) = 0;

#if SHIFT == 1

        d->Q(1) = 0;

#endif

    } else {

        shift = s->B(0);

        d->Q(0) >>= shift;

#if SHIFT == 1

        d->Q(1) >>= shift;

#endif

    }

}

void glue(helper_psllq, SUFFIX)(CPUX86State *env, Reg *d, Reg *s)

{

    int shift;

    if (s->Q(0) > 63) {

        d->Q(0) = 0;

#if SHIFT == 1

        d->Q(1) = 0;

#endif

    } else {

        shift = s->B(0);

        d->Q(0) <<= shift;

#if SHIFT == 1

        d->Q(1) <<= shift;

#endif

    }

}

#if SHIFT == 1

void glue(helper_psrldq, SUFFIX)(CPUX86State *env, Reg *d, Reg *s)

{

    int shift, i;

    shift = s->L(0);

    if (shift > 16) {

        shift = 16;

    }

    for (i = 0; i < 16 - shift; i++) {

        d->B(i) = d->B(i + shift);

    }

    for (i = 16 - shift; i < 16; i++) {

        d->B(i) = 0;

    }

}

void glue(helper_pslldq, SUFFIX)(CPUX86State *env, Reg *d, Reg *s)

{

    int shift, i;

    shift = s->L(0);

    if (shift > 16) {

        shift = 16;

    }

    for (i = 15; i >= shift; i--) {

        d->B(i) = d->B(i - shift);

    }

    for (i = 0; i < shift; i++) {

        d->B(i) = 0;

    }

}

#endif

#define SSE_HELPER_B(name, F)                                   \

    void glue(name, SUFFIX)(CPUX86State *env, Reg *d, Reg *s)   \

    {                                                           \

        d->B(0) = F(d->B(0), s->B(0));                          \

        d->B(1) = F(d->B(1), s->B(1));                          \

        d->B(2) = F(d->B(2), s->B(2));                          \

        d->B(3) = F(d->B(3), s->B(3));                          \

        d->B(4) = F(d->B(4), s->B(4));                          \

        d->B(5) = F(d->B(5), s->B(5));                          \

        d->B(6) = F(d->B(6), s->B(6));                          \

        d->B(7) = F(d->B(7), s->B(7));                          \

        XMM_ONLY(                                               \

                 d->B(8) = F(d->B(8), s->B(8));                 \

                 d->B(9) = F(d->B(9), s->B(9));                 \

                 d->B(10) = F(d->B(10), s->B(10));              \

                 d->B(11) = F(d->B(11), s->B(11));              \

                 d->B(12) = F(d->B(12), s->B(12));              \

                 d->B(13) = F(d->B(13), s->B(13));              \

                 d->B(14) = F(d->B(14), s->B(14));              \

                 d->B(15) = F(d->B(15), s->B(15));              \

                                                        )       \

            }

#define SSE_HELPER_W(name, F)                                   \

    void glue(name, SUFFIX)(CPUX86State *env, Reg *d, Reg *s)   \

    {                                                           \

        d->W(0) = F(d->W(0), s->W(0));                          \

        d->W(1) = F(d->W(1), s->W(1));                          \

        d->W(2) = F(d->W(2), s->W(2));                          \

        d->W(3) = F(d->W(3), s->W(3));                          \

        XMM_ONLY(                                               \

                 d->W(4) = F(d->W(4), s->W(4));                 \

                 d->W(5) = F(d->W(5), s->W(5));                 \

                 d->W(6) = F(d->W(6), s->W(6));                 \

                 d->W(7) = F(d->W(7), s->W(7));                 \

                                                        )       \

            }

#define SSE_HELPER_L(name, F)                                   \

    void glue(name, SUFFIX)(CPUX86State *env, Reg *d, Reg *s)   \

    {                                                           \

        d->L(0) = F(d->L(0), s->L(0));                          \

        d->L(1) = F(d->L(1), s->L(1));                          \

        XMM_ONLY(                                               \

                 d->L(2) = F(d->L(2), s->L(2));                 \

                 d->L(3) = F(d->L(3), s->L(3));                 \

                                                        )       \

            }

#define SSE_HELPER_Q(name, F)                                   \

    void glue(name, SUFFIX)(CPUX86State *env, Reg *d, Reg *s)   \

    {                                                           \

        d->Q(0) = F(d->Q(0), s->Q(0));                          \

        XMM_ONLY(                                               \

                 d->Q(1) = F(d->Q(1), s->Q(1));                 \

                                                        )       \

            }

#if SHIFT == 0

static inline int satub(int x)

{

    if (x < 0) {

        return 0;

    } else if (x > 255) {

        return 255;

    } else {

        return x;

    }

}

static inline int satuw(int x)

{

    if (x < 0) {

        return 0;

    } else if (x > 65535) {

        return 65535;

    } else {

        return x;

    }

}

static inline int satsb(int x)

{

    if (x < -128) {

        return -128;

    } else if (x > 127) {

        return 127;

    } else {

        return x;

    }

}

static inline int satsw(int x)

{

    if (x < -32768) {

        return -32768;

    } else if (x > 32767) {

        return 32767;

    } else {

        return x;

    }

}

#define FADD(a, b) ((a) + (b))

#define FADDUB(a, b) satub((a) + (b))

#define FADDUW(a, b) satuw((a) + (b))

#define FADDSB(a, b) satsb((int8_t)(a) + (int8_t)(b))

#define FADDSW(a, b) satsw((int16_t)(a) + (int16_t)(b))

#define FSUB(a, b) ((a) - (b))

#define FSUBUB(a, b) satub((a) - (b))

#define FSUBUW(a, b) satuw((a) - (b))

#define FSUBSB(a, b) satsb((int8_t)(a) - (int8_t)(b))

#define FSUBSW(a, b) satsw((int16_t)(a) - (int16_t)(b))

#define FMINUB(a, b) ((a) < (b)) ? (a) : (b)

#define FMINSW(a, b) ((int16_t)(a) < (int16_t)(b)) ? (a) : (b)

#define FMAXUB(a, b) ((a) > (b)) ? (a) : (b)

#define FMAXSW(a, b) ((int16_t)(a) > (int16_t)(b)) ? (a) : (b)

#define FAND(a, b) ((a) & (b))

#define FANDN(a, b) ((~(a)) & (b))

#define FOR(a, b) ((a) | (b))

#define FXOR(a, b) ((a) ^ (b))

#define FCMPGTB(a, b) ((int8_t)(a) > (int8_t)(b) ? -1 : 0)

#define FCMPGTW(a, b) ((int16_t)(a) > (int16_t)(b) ? -1 : 0)

#define FCMPGTL(a, b) ((int32_t)(a) > (int32_t)(b) ? -1 : 0)

#define FCMPEQ(a, b) ((a) == (b) ? -1 : 0)

#define FMULLW(a, b) ((a) * (b))

#define FMULHRW(a, b) (((int16_t)(a) * (int16_t)(b) + 0x8000) >> 16)

#define FMULHUW(a, b) ((a) * (b) >> 16)

#define FMULHW(a, b) ((int16_t)(a) * (int16_t)(b) >> 16)

#define FAVG(a, b) (((a) + (b) + 1) >> 1)

#endif

SSE_HELPER_B(helper_paddb, FADD)

SSE_HELPER_W(helper_paddw, FADD)

SSE_HELPER_L(helper_paddl, FADD)

SSE_HELPER_Q(helper_paddq, FADD)

SSE_HELPER_B(helper_psubb, FSUB)

SSE_HELPER_W(helper_psubw, FSUB)

SSE_HELPER_L(helper_psubl, FSUB)

SSE_HELPER_Q(helper_psubq, FSUB)

SSE_HELPER_B(helper_paddusb, FADDUB)

SSE_HELPER_B(helper_paddsb, FADDSB)

SSE_HELPER_B(helper_psubusb, FSUBUB)

SSE_HELPER_B(helper_psubsb, FSUBSB)

SSE_HELPER_W(helper_paddusw, FADDUW)

SSE_HELPER_W(helper_paddsw, FADDSW)

SSE_HELPER_W(helper_psubusw, FSUBUW)

SSE_HELPER_W(helper_psubsw, FSUBSW)

SSE_HELPER_B(helper_pminub, FMINUB)

SSE_HELPER_B(helper_pmaxub, FMAXUB)

SSE_HELPER_W(helper_pminsw, FMINSW)

SSE_HELPER_W(helper_pmaxsw, FMAXSW)

SSE_HELPER_Q(helper_pand, FAND)

SSE_HELPER_Q(helper_pandn, FANDN)

SSE_HELPER_Q(helper_por, FOR)

SSE_HELPER_Q(helper_pxor, FXOR)

SSE_HELPER_B(helper_pcmpgtb, FCMPGTB)

SSE_HELPER_W(helper_pcmpgtw, FCMPGTW)

SSE_HELPER_L(helper_pcmpgtl, FCMPGTL)

SSE_HELPER_B(helper_pcmpeqb, FCMPEQ)

SSE_HELPER_W(helper_pcmpeqw, FCMPEQ)

SSE_HELPER_L(helper_pcmpeql, FCMPEQ)

SSE_HELPER_W(helper_pmullw, FMULLW)

#if SHIFT == 0

SSE_HELPER_W(helper_pmulhrw, FMULHRW)

#endif

SSE_HELPER_W(helper_pmulhuw, FMULHUW)

SSE_HELPER_W(helper_pmulhw, FMULHW)

SSE_HELPER_B(helper_pavgb, FAVG)

SSE_HELPER_W(helper_pavgw, FAVG)

void glue(helper_pmuludq, SUFFIX)(CPUX86State *env, Reg *d, Reg *s)

{

    d->Q(0) = (uint64_t)s->L(0) * (uint64_t)d->L(0);

#if SHIFT == 1

    d->Q(1) = (uint64_t)s->L(2) * (uint64_t)d->L(2);

#endif

}

void glue(helper_pmaddwd, SUFFIX)(CPUX86State *env, Reg *d, Reg *s)

{

    int i;

    for (i = 0; i < (2 << SHIFT); i++) {

        d->L(i) = (int16_t)s->W(2 * i) * (int16_t)d->W(2 * i) +

            (int16_t)s->W(2 * i + 1) * (int16_t)d->W(2 * i + 1);

    }

}

#if SHIFT == 0

static inline int abs1(int a)

{

    if (a < 0) {

        return -a;

    } else {

        return a;

    }

}

#endif

void glue(helper_psadbw, SUFFIX)(CPUX86State *env, Reg *d, Reg *s)

{

    unsigned int val;

    val = 0;

    val += abs1(d->B(0) - s->B(0));

    val += abs1(d->B(1) - s->B(1));

    val += abs1(d->B(2) - s->B(2));

    val += abs1(d->B(3) - s->B(3));

    val += abs1(d->B(4) - s->B(4));

    val += abs1(d->B(5) - s->B(5));

    val += abs1(d->B(6) - s->B(6));

    val += abs1(d->B(7) - s->B(7));

    d->Q(0) = val;

#if SHIFT == 1

    val = 0;

    val += abs1(d->B(8) - s->B(8));

    val += abs1(d->B(9) - s->B(9));

    val += abs1(d->B(10) - s->B(10));

    val += abs1(d->B(11) - s->B(11));

    val += abs1(d->B(12) - s->B(12));

    val += abs1(d->B(13) - s->B(13));

    val += abs1(d->B(14) - s->B(14));

    val += abs1(d->B(15) - s->B(15));

    d->Q(1) = val;

#endif

}

void glue(helper_maskmov, SUFFIX)(CPUX86State *env, Reg *d, Reg *s,

                                  target_ulong a0)

{

    int i;

    for (i = 0; i < (8 << SHIFT); i++) {

        if (s->B(i) & 0x80) {

            cpu_stb_data(env, a0 + i, d->B(i));

        }

    }

}

void glue(helper_movl_mm_T0, SUFFIX)(Reg *d, uint32_t val)

{

    d->L(0) = val;

    d->L(1) = 0;

#if SHIFT == 1

    d->Q(1) = 0;

#endif

}

#ifdef TARGET_X86_64

void glue(helper_movq_mm_T0, SUFFIX)(Reg *d, uint64_t val)

{

    d->Q(0) = val;

#if SHIFT == 1

    d->Q(1) = 0;

#endif

}

#endif

#if SHIFT == 0

void glue(helper_pshufw, SUFFIX)(Reg *d, Reg *s, int order)

{

    Reg r;

    r.W(0) = s->W(order & 3);

    r.W(1) = s->W((order >> 2) & 3);

    r.W(2) = s->W((order >> 4) & 3);

    r.W(3) = s->W((order >> 6) & 3);

    *d = r;

}

#else

void helper_shufps(Reg *d, Reg *s, int order)

{

    Reg r;

    r.L(0) = d->L(order & 3);

    r.L(1) = d->L((order >> 2) & 3);

    r.L(2) = s->L((order >> 4) & 3);

    r.L(3) = s->L((order >> 6) & 3);

    *d = r;

}

void helper_shufpd(Reg *d, Reg *s, int order)

{

    Reg r;

    r.Q(0) = d->Q(order & 1);

    r.Q(1) = s->Q((order >> 1) & 1);

    *d = r;

}

void glue(helper_pshufd, SUFFIX)(Reg *d, Reg *s, int order)

{

    Reg r;

    r.L(0) = s->L(order & 3);

    r.L(1) = s->L((order >> 2) & 3);

    r.L(2) = s->L((order >> 4) & 3);

    r.L(3) = s->L((order >> 6) & 3);

    *d = r;

}

void glue(helper_pshuflw, SUFFIX)(Reg *d, Reg *s, int order)

{

    Reg r;

    r.W(0) = s->W(order & 3);

    r.W(1) = s->W((order >> 2) & 3);

    r.W(2) = s->W((order >> 4) & 3);

    r.W(3) = s->W((order >> 6) & 3);

    r.Q(1) = s->Q(1);

    *d = r;

}

void glue(helper_pshufhw, SUFFIX)(Reg *d, Reg *s, int order)

{

    Reg r;

    r.Q(0) = s->Q(0);

    r.W(4) = s->W(4 + (order & 3));

    r.W(5) = s->W(4 + ((order >> 2) & 3));

    r.W(6) = s->W(4 + ((order >> 4) & 3));

    r.W(7) = s->W(4 + ((order >> 6) & 3));

    *d = r;

}

#endif

#if SHIFT == 1

/* FPU ops */

/* XXX: not accurate */

#define SSE_HELPER_S(name, F)                                           \

    void helper_ ## name ## ps(CPUX86State *env, Reg *d, Reg *s)        \

    {                                                                   \

        d->XMM_S(0) = F(32, d->XMM_S(0), s->XMM_S(0));                  \

        d->XMM_S(1) = F(32, d->XMM_S(1), s->XMM_S(1));                  \

        d->XMM_S(2) = F(32, d->XMM_S(2), s->XMM_S(2));                  \

        d->XMM_S(3) = F(32, d->XMM_S(3), s->XMM_S(3));                  \

    }                                                                   \

                                                                        \

    void helper_ ## name ## ss(CPUX86State *env, Reg *d, Reg *s)        \

    {                                                                   \

        d->XMM_S(0) = F(32, d->XMM_S(0), s->XMM_S(0));                  \

    }                                                                   \

                                                                        \

    void helper_ ## name ## pd(CPUX86State *env, Reg *d, Reg *s)        \

    {                                                                   \

        d->XMM_D(0) = F(64, d->XMM_D(0), s->XMM_D(0));                  \

        d->XMM_D(1) = F(64, d->XMM_D(1), s->XMM_D(1));                  \

    }                                                                   \

                                                                        \

    void helper_ ## name ## sd(CPUX86State *env, Reg *d, Reg *s)        \

    {                                                                   \

        d->XMM_D(0) = F(64, d->XMM_D(0), s->XMM_D(0));                  \

    }

#define FPU_ADD(size, a, b) float ## size ## _add(a, b, &env->sse_status)

#define FPU_SUB(size, a, b) float ## size ## _sub(a, b, &env->sse_status)

#define FPU_MUL(size, a, b) float ## size ## _mul(a, b, &env->sse_status)

#define FPU_DIV(size, a, b) float ## size ## _div(a, b, &env->sse_status)

#define FPU_SQRT(size, a, b) float ## size ## _sqrt(b, &env->sse_status)

/* Note that the choice of comparison op here is important to get the

 * special cases right: for min and max Intel specifies that (-0,0),

 * (NaN, anything) and (anything, NaN) return the second argument.

 */

#define FPU_MIN(size, a, b)                                     \

    (float ## size ## _lt(a, b, &env->sse_status) ? (a) : (b))

#define FPU_MAX(size, a, b)                                     \

    (float ## size ## _lt(b, a, &env->sse_status) ? (a) : (b))

SSE_HELPER_S(add, FPU_ADD)

SSE_HELPER_S(sub, FPU_SUB)

SSE_HELPER_S(mul, FPU_MUL)

SSE_HELPER_S(div, FPU_DIV)

SSE_HELPER_S(min, FPU_MIN)

SSE_HELPER_S(max, FPU_MAX)

SSE_HELPER_S(sqrt, FPU_SQRT)

/* float to float conversions */

void helper_cvtps2pd(CPUX86State *env, Reg *d, Reg *s)

{

    float32 s0, s1;

    s0 = s->XMM_S(0);

    s1 = s->XMM_S(1);

    d->XMM_D(0) = float32_to_float64(s0, &env->sse_status);

    d->XMM_D(1) = float32_to_float64(s1, &env->sse_status);

}

void helper_cvtpd2ps(CPUX86State *env, Reg *d, Reg *s)

{

    d->XMM_S(0) = float64_to_float32(s->XMM_D(0), &env->sse_status);

    d->XMM_S(1) = float64_to_float32(s->XMM_D(1), &env->sse_status);

    d->Q(1) = 0;

}

void helper_cvtss2sd(CPUX86State *env, Reg *d, Reg *s)

{

    d->XMM_D(0) = float32_to_float64(s->XMM_S(0), &env->sse_status);

}

void helper_cvtsd2ss(CPUX86State *env, Reg *d, Reg *s)

{

    d->XMM_S(0) = float64_to_float32(s->XMM_D(0), &env->sse_status);

}

/* integer to float */

void helper_cvtdq2ps(CPUX86State *env, Reg *d, Reg *s)

{

    d->XMM_S(0) = int32_to_float32(s->XMM_L(0), &env->sse_status);

    d->XMM_S(1) = int32_to_float32(s->XMM_L(1), &env->sse_status);

    d->XMM_S(2) = int32_to_float32(s->XMM_L(2), &env->sse_status);

    d->XMM_S(3) = int32_to_float32(s->XMM_L(3), &env->sse_status);

}

void helper_cvtdq2pd(CPUX86State *env, Reg *d, Reg *s)

{

    int32_t l0, l1;

    l0 = (int32_t)s->XMM_L(0);

    l1 = (int32_t)s->XMM_L(1);

    d->XMM_D(0) = int32_to_float64(l0, &env->sse_status);

    d->XMM_D(1) = int32_to_float64(l1, &env->sse_status);

}

void helper_cvtpi2ps(CPUX86State *env, XMMReg *d, MMXReg *s)

{

    d->XMM_S(0) = int32_to_float32(s->MMX_L(0), &env->sse_status);

    d->XMM_S(1) = int32_to_float32(s->MMX_L(1), &env->sse_status);

}

void helper_cvtpi2pd(CPUX86State *env, XMMReg *d, MMXReg *s)

{

    d->XMM_D(0) = int32_to_float64(s->MMX_L(0), &env->sse_status);

    d->XMM_D(1) = int32_to_float64(s->MMX_L(1), &env->sse_status);

}

void helper_cvtsi2ss(CPUX86State *env, XMMReg *d, uint32_t val)

{

    d->XMM_S(0) = int32_to_float32(val, &env->sse_status);

}

void helper_cvtsi2sd(CPUX86State *env, XMMReg *d, uint32_t val)

{

    d->XMM_D(0) = int32_to_float64(val, &env->sse_status);

}

#ifdef TARGET_X86_64

void helper_cvtsq2ss(CPUX86State *env, XMMReg *d, uint64_t val)

{

    d->XMM_S(0) = int64_to_float32(val, &env->sse_status);

}

void helper_cvtsq2sd(CPUX86State *env, XMMReg *d, uint64_t val)

{

    d->XMM_D(0) = int64_to_float64(val, &env->sse_status);

}

#endif

/* float to integer */

void helper_cvtps2dq(CPUX86State *env, XMMReg *d, XMMReg *s)

{

    d->XMM_L(0) = float32_to_int32(s->XMM_S(0), &env->sse_status);

    d->XMM_L(1) = float32_to_int32(s->XMM_S(1), &env->sse_status);

    d->XMM_L(2) = float32_to_int32(s->XMM_S(2), &env->sse_status);

    d->XMM_L(3) = float32_to_int32(s->XMM_S(3), &env->sse_status);

}

void helper_cvtpd2dq(CPUX86State *env, XMMReg *d, XMMReg *s)

{

    d->XMM_L(0) = float64_to_int32(s->XMM_D(0), &env->sse_status);

    d->XMM_L(1) = float64_to_int32(s->XMM_D(1), &env->sse_status);

    d->XMM_Q(1) = 0;

}

void helper_cvtps2pi(CPUX86State *env, MMXReg *d, XMMReg *s)

{

    d->MMX_L(0) = float32_to_int32(s->XMM_S(0), &env->sse_status);

    d->MMX_L(1) = float32_to_int32(s->XMM_S(1), &env->sse_status);

}

void helper_cvtpd2pi(CPUX86State *env, MMXReg *d, XMMReg *s)

{

    d->MMX_L(0) = float64_to_int32(s->XMM_D(0), &env->sse_status);

    d->MMX_L(1) = float64_to_int32(s->XMM_D(1), &env->sse_status);

}

int32_t helper_cvtss2si(CPUX86State *env, XMMReg *s)

{

    return float32_to_int32(s->XMM_S(0), &env->sse_status);

}

int32_t helper_cvtsd2si(CPUX86State *env, XMMReg *s)

{

    return float64_to_int32(s->XMM_D(0), &env->sse_status);

}

#ifdef TARGET_X86_64

int64_t helper_cvtss2sq(CPUX86State *env, XMMReg *s)

{

    return float32_to_int64(s->XMM_S(0), &env->sse_status);

}

int64_t helper_cvtsd2sq(CPUX86State *env, XMMReg *s)

{

    return float64_to_int64(s->XMM_D(0), &env->sse_status);

}

#endif

/* float to integer truncated */

void helper_cvttps2dq(CPUX86State *env, XMMReg *d, XMMReg *s)

{

    d->XMM_L(0) = float32_to_int32_round_to_zero(s->XMM_S(0), &env->sse_status);

    d->XMM_L(1) = float32_to_int32_round_to_zero(s->XMM_S(1), &env->sse_status);

    d->XMM_L(2) = float32_to_int32_round_to_zero(s->XMM_S(2), &env->sse_status);

    d->XMM_L(3) = float32_to_int32_round_to_zero(s->XMM_S(3), &env->sse_status);

}

void helper_cvttpd2dq(CPUX86State *env, XMMReg *d, XMMReg *s)

{

    d->XMM_L(0) = float64_to_int32_round_to_zero(s->XMM_D(0), &env->sse_status);

    d->XMM_L(1) = float64_to_int32_round_to_zero(s->XMM_D(1), &env->sse_status);

    d->XMM_Q(1) = 0;

}

void helper_cvttps2pi(CPUX86State *env, MMXReg *d, XMMReg *s)

{

    d->MMX_L(0) = float32_to_int32_round_to_zero(s->XMM_S(0), &env->sse_status);

    d->MMX_L(1) = float32_to_int32_round_to_zero(s->XMM_S(1), &env->sse_status);

}

void helper_cvttpd2pi(CPUX86State *env, MMXReg *d, XMMReg *s)

{

    d->MMX_L(0) = float64_to_int32_round_to_zero(s->XMM_D(0), &env->sse_status);

    d->MMX_L(1) = float64_to_int32_round_to_zero(s->XMM_D(1), &env->sse_status);

}

int32_t helper_cvttss2si(CPUX86State *env, XMMReg *s)

{

    return float32_to_int32_round_to_zero(s->XMM_S(0), &env->sse_status);

}

int32_t helper_cvttsd2si(CPUX86State *env, XMMReg *s)

{

    return float64_to_int32_round_to_zero(s->XMM_D(0), &env->sse_status);

}

#ifdef TARGET_X86_64

int64_t helper_cvttss2sq(CPUX86State *env, XMMReg *s)

{

    return float32_to_int64_round_to_zero(s->XMM_S(0), &env->sse_status);

}

int64_t helper_cvttsd2sq(CPUX86State *env, XMMReg *s)

{

    return float64_to_int64_round_to_zero(s->XMM_D(0), &env->sse_status);

}

#endif

void helper_rsqrtps(CPUX86State *env, XMMReg *d, XMMReg *s)

{

    d->XMM_S(0) = float32_div(float32_one,

                              float32_sqrt(s->XMM_S(0), &env->sse_status),

                              &env->sse_status);

    d->XMM_S(1) = float32_div(float32_one,

                              float32_sqrt(s->XMM_S(1), &env->sse_status),

                              &env->sse_status);

    d->XMM_S(2) = float32_div(float32_one,

                              float32_sqrt(s->XMM_S(2), &env->sse_status),

                              &env->sse_status);

    d->XMM_S(3) = float32_div(float32_one,

                              float32_sqrt(s->XMM_S(3), &env->sse_status),

                              &env->sse_status);

}

void helper_rsqrtss(CPUX86State *env, XMMReg *d, XMMReg *s)

{

    d->XMM_S(0) = float32_div(float32_one,

                              float32_sqrt(s->XMM_S(0), &env->sse_status),

                              &env->sse_status);

}

void helper_rcpps(CPUX86State *env, XMMReg *d, XMMReg *s)

{

    d->XMM_S(0) = float32_div(float32_one, s->XMM_S(0), &env->sse_status);

    d->XMM_S(1) = float32_div(float32_one, s->XMM_S(1), &env->sse_status);

    d->XMM_S(2) = float32_div(float32_one, s->XMM_S(2), &env->sse_status);

    d->XMM_S(3) = float32_div(float32_one, s->XMM_S(3), &env->sse_status);

}

void helper_rcpss(CPUX86State *env, XMMReg *d, XMMReg *s)

{

    d->XMM_S(0) = float32_div(float32_one, s->XMM_S(0), &env->sse_status);

}

static inline uint64_t helper_extrq(uint64_t src, int shift, int len)

{

    uint64_t mask;

    if (len == 0) {

        mask = ~0LL;

    } else {

        mask = (1ULL << len) - 1;

    }

    return (src >> shift) & mask;

}

void helper_extrq_r(CPUX86State *env, XMMReg *d, XMMReg *s)

{

    d->XMM_Q(0) = helper_extrq(d->XMM_Q(0), s->XMM_B(1), s->XMM_B(0));

}

void helper_extrq_i(CPUX86State *env, XMMReg *d, int index, int length)

{

    d->XMM_Q(0) = helper_extrq(d->XMM_Q(0), index, length);

}

static inline uint64_t helper_insertq(uint64_t src, int shift, int len)

{

    uint64_t mask;

    if (len == 0) {

        mask = ~0ULL;

    } else {

        mask = (1ULL << len) - 1;

    }

    return (src & ~(mask << shift)) | ((src & mask) << shift);