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qemu-patch-raspberry4/tcg/tcg-op-gvec.c
Richard Henderson 37ee55a081 tcg: Add INDEX_op_dupm_vec 
Allow the backend to expand dup from memory directly, instead of
forcing the value into a temp first.  This is especially important
if integer/vector register moves do not exist.

Note that officially tcg_out_dupm_vec is allowed to fail.
If it did, we could fix this up relatively easily:

  VECE == 32/64:
    Load the value into a vector register, then dup.
    Both of these must work.

  VECE == 8/16:
    If the value happens to be at an offset such that an aligned
    load would place the desired value in the least significant
    end of the register, go ahead and load w/garbage in high bits.

    Load the value w/INDEX_op_ld{8,16}_i32.
    Attempt a move directly to vector reg, which may fail.
    Store the value into the backing store for OTS.
    Load the value into the vector reg w/TCG_TYPE_I32, which must work.
    Duplicate from the vector reg into itself, which must work.

All of which is well and good, except that all supported
hosts can support dupm for all vece, so all of the failure
paths would be dead code and untestable.

Reviewed-by: Alex Bennée <alex.bennee@linaro.org>
Signed-off-by: Richard Henderson <richard.henderson@linaro.org>
2019-05-13 22:52:08 +00:00

2724 lines
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/*
* Generic vector operation expansion
*
* Copyright (c) 2018 Linaro
*
* 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 2.1 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-common.h"
#include "tcg.h"
#include "tcg-op.h"
#include "tcg-op-gvec.h"
#include "tcg-gvec-desc.h"
#define MAX_UNROLL 4
#ifdef CONFIG_DEBUG_TCG
static const TCGOpcode vecop_list_empty[1] = { 0 };
#else
#define vecop_list_empty NULL
#endif
/* Verify vector size and alignment rules. OFS should be the OR of all
of the operand offsets so that we can check them all at once. */
static void check_size_align(uint32_t oprsz, uint32_t maxsz, uint32_t ofs)
{
uint32_t opr_align = oprsz >= 16 ? 15 : 7;
uint32_t max_align = maxsz >= 16 || oprsz >= 16 ? 15 : 7;
tcg_debug_assert(oprsz > 0);
tcg_debug_assert(oprsz <= maxsz);
tcg_debug_assert((oprsz & opr_align) == 0);
tcg_debug_assert((maxsz & max_align) == 0);
tcg_debug_assert((ofs & max_align) == 0);
}
/* Verify vector overlap rules for two operands. */
static void check_overlap_2(uint32_t d, uint32_t a, uint32_t s)
{
tcg_debug_assert(d == a || d + s <= a || a + s <= d);
}
/* Verify vector overlap rules for three operands. */
static void check_overlap_3(uint32_t d, uint32_t a, uint32_t b, uint32_t s)
{
check_overlap_2(d, a, s);
check_overlap_2(d, b, s);
check_overlap_2(a, b, s);
}
/* Verify vector overlap rules for four operands. */
static void check_overlap_4(uint32_t d, uint32_t a, uint32_t b,
uint32_t c, uint32_t s)
{
check_overlap_2(d, a, s);
check_overlap_2(d, b, s);
check_overlap_2(d, c, s);
check_overlap_2(a, b, s);
check_overlap_2(a, c, s);
check_overlap_2(b, c, s);
}
/* Create a descriptor from components. */
uint32_t simd_desc(uint32_t oprsz, uint32_t maxsz, int32_t data)
{
uint32_t desc = 0;
assert(oprsz % 8 == 0 && oprsz <= (8 << SIMD_OPRSZ_BITS));
assert(maxsz % 8 == 0 && maxsz <= (8 << SIMD_MAXSZ_BITS));
assert(data == sextract32(data, 0, SIMD_DATA_BITS));
oprsz = (oprsz / 8) - 1;
maxsz = (maxsz / 8) - 1;
desc = deposit32(desc, SIMD_OPRSZ_SHIFT, SIMD_OPRSZ_BITS, oprsz);
desc = deposit32(desc, SIMD_MAXSZ_SHIFT, SIMD_MAXSZ_BITS, maxsz);
desc = deposit32(desc, SIMD_DATA_SHIFT, SIMD_DATA_BITS, data);
return desc;
}
/* Generate a call to a gvec-style helper with two vector operands. */
void tcg_gen_gvec_2_ool(uint32_t dofs, uint32_t aofs,
uint32_t oprsz, uint32_t maxsz, int32_t data,
gen_helper_gvec_2 *fn)
{
TCGv_ptr a0, a1;
TCGv_i32 desc = tcg_const_i32(simd_desc(oprsz, maxsz, data));
a0 = tcg_temp_new_ptr();
a1 = tcg_temp_new_ptr();
tcg_gen_addi_ptr(a0, cpu_env, dofs);
tcg_gen_addi_ptr(a1, cpu_env, aofs);
fn(a0, a1, desc);
tcg_temp_free_ptr(a0);
tcg_temp_free_ptr(a1);
tcg_temp_free_i32(desc);
}
/* Generate a call to a gvec-style helper with two vector operands
and one scalar operand. */
void tcg_gen_gvec_2i_ool(uint32_t dofs, uint32_t aofs, TCGv_i64 c,
uint32_t oprsz, uint32_t maxsz, int32_t data,
gen_helper_gvec_2i *fn)
{
TCGv_ptr a0, a1;
TCGv_i32 desc = tcg_const_i32(simd_desc(oprsz, maxsz, data));
a0 = tcg_temp_new_ptr();
a1 = tcg_temp_new_ptr();
tcg_gen_addi_ptr(a0, cpu_env, dofs);
tcg_gen_addi_ptr(a1, cpu_env, aofs);
fn(a0, a1, c, desc);
tcg_temp_free_ptr(a0);
tcg_temp_free_ptr(a1);
tcg_temp_free_i32(desc);
}
/* Generate a call to a gvec-style helper with three vector operands. */
void tcg_gen_gvec_3_ool(uint32_t dofs, uint32_t aofs, uint32_t bofs,
uint32_t oprsz, uint32_t maxsz, int32_t data,
gen_helper_gvec_3 *fn)
{
TCGv_ptr a0, a1, a2;
TCGv_i32 desc = tcg_const_i32(simd_desc(oprsz, maxsz, data));
a0 = tcg_temp_new_ptr();
a1 = tcg_temp_new_ptr();
a2 = tcg_temp_new_ptr();
tcg_gen_addi_ptr(a0, cpu_env, dofs);
tcg_gen_addi_ptr(a1, cpu_env, aofs);
tcg_gen_addi_ptr(a2, cpu_env, bofs);
fn(a0, a1, a2, desc);
tcg_temp_free_ptr(a0);
tcg_temp_free_ptr(a1);
tcg_temp_free_ptr(a2);
tcg_temp_free_i32(desc);
}
/* Generate a call to a gvec-style helper with four vector operands. */
void tcg_gen_gvec_4_ool(uint32_t dofs, uint32_t aofs, uint32_t bofs,
uint32_t cofs, uint32_t oprsz, uint32_t maxsz,
int32_t data, gen_helper_gvec_4 *fn)
{
TCGv_ptr a0, a1, a2, a3;
TCGv_i32 desc = tcg_const_i32(simd_desc(oprsz, maxsz, data));
a0 = tcg_temp_new_ptr();
a1 = tcg_temp_new_ptr();
a2 = tcg_temp_new_ptr();
a3 = tcg_temp_new_ptr();
tcg_gen_addi_ptr(a0, cpu_env, dofs);
tcg_gen_addi_ptr(a1, cpu_env, aofs);
tcg_gen_addi_ptr(a2, cpu_env, bofs);
tcg_gen_addi_ptr(a3, cpu_env, cofs);
fn(a0, a1, a2, a3, desc);
tcg_temp_free_ptr(a0);
tcg_temp_free_ptr(a1);
tcg_temp_free_ptr(a2);
tcg_temp_free_ptr(a3);
tcg_temp_free_i32(desc);
}
/* Generate a call to a gvec-style helper with five vector operands. */
void tcg_gen_gvec_5_ool(uint32_t dofs, uint32_t aofs, uint32_t bofs,
uint32_t cofs, uint32_t xofs, uint32_t oprsz,
uint32_t maxsz, int32_t data, gen_helper_gvec_5 *fn)
{
TCGv_ptr a0, a1, a2, a3, a4;
TCGv_i32 desc = tcg_const_i32(simd_desc(oprsz, maxsz, data));
a0 = tcg_temp_new_ptr();
a1 = tcg_temp_new_ptr();
a2 = tcg_temp_new_ptr();
a3 = tcg_temp_new_ptr();
a4 = tcg_temp_new_ptr();
tcg_gen_addi_ptr(a0, cpu_env, dofs);
tcg_gen_addi_ptr(a1, cpu_env, aofs);
tcg_gen_addi_ptr(a2, cpu_env, bofs);
tcg_gen_addi_ptr(a3, cpu_env, cofs);
tcg_gen_addi_ptr(a4, cpu_env, xofs);
fn(a0, a1, a2, a3, a4, desc);
tcg_temp_free_ptr(a0);
tcg_temp_free_ptr(a1);
tcg_temp_free_ptr(a2);
tcg_temp_free_ptr(a3);
tcg_temp_free_ptr(a4);
tcg_temp_free_i32(desc);
}
/* Generate a call to a gvec-style helper with three vector operands
and an extra pointer operand. */
void tcg_gen_gvec_2_ptr(uint32_t dofs, uint32_t aofs,
TCGv_ptr ptr, uint32_t oprsz, uint32_t maxsz,
int32_t data, gen_helper_gvec_2_ptr *fn)
{
TCGv_ptr a0, a1;
TCGv_i32 desc = tcg_const_i32(simd_desc(oprsz, maxsz, data));
a0 = tcg_temp_new_ptr();
a1 = tcg_temp_new_ptr();
tcg_gen_addi_ptr(a0, cpu_env, dofs);
tcg_gen_addi_ptr(a1, cpu_env, aofs);
fn(a0, a1, ptr, desc);
tcg_temp_free_ptr(a0);
tcg_temp_free_ptr(a1);
tcg_temp_free_i32(desc);
}
/* Generate a call to a gvec-style helper with three vector operands
and an extra pointer operand. */
void tcg_gen_gvec_3_ptr(uint32_t dofs, uint32_t aofs, uint32_t bofs,
TCGv_ptr ptr, uint32_t oprsz, uint32_t maxsz,
int32_t data, gen_helper_gvec_3_ptr *fn)
{
TCGv_ptr a0, a1, a2;
TCGv_i32 desc = tcg_const_i32(simd_desc(oprsz, maxsz, data));
a0 = tcg_temp_new_ptr();
a1 = tcg_temp_new_ptr();
a2 = tcg_temp_new_ptr();
tcg_gen_addi_ptr(a0, cpu_env, dofs);
tcg_gen_addi_ptr(a1, cpu_env, aofs);
tcg_gen_addi_ptr(a2, cpu_env, bofs);
fn(a0, a1, a2, ptr, desc);
tcg_temp_free_ptr(a0);
tcg_temp_free_ptr(a1);
tcg_temp_free_ptr(a2);
tcg_temp_free_i32(desc);
}
/* Generate a call to a gvec-style helper with four vector operands
and an extra pointer operand. */
void tcg_gen_gvec_4_ptr(uint32_t dofs, uint32_t aofs, uint32_t bofs,
uint32_t cofs, TCGv_ptr ptr, uint32_t oprsz,
uint32_t maxsz, int32_t data,
gen_helper_gvec_4_ptr *fn)
{
TCGv_ptr a0, a1, a2, a3;
TCGv_i32 desc = tcg_const_i32(simd_desc(oprsz, maxsz, data));
a0 = tcg_temp_new_ptr();
a1 = tcg_temp_new_ptr();
a2 = tcg_temp_new_ptr();
a3 = tcg_temp_new_ptr();
tcg_gen_addi_ptr(a0, cpu_env, dofs);
tcg_gen_addi_ptr(a1, cpu_env, aofs);
tcg_gen_addi_ptr(a2, cpu_env, bofs);
tcg_gen_addi_ptr(a3, cpu_env, cofs);
fn(a0, a1, a2, a3, ptr, desc);
tcg_temp_free_ptr(a0);
tcg_temp_free_ptr(a1);
tcg_temp_free_ptr(a2);
tcg_temp_free_ptr(a3);
tcg_temp_free_i32(desc);
}
/* Return true if we want to implement something of OPRSZ bytes
in units of LNSZ. This limits the expansion of inline code. */
static inline bool check_size_impl(uint32_t oprsz, uint32_t lnsz)
{
if (oprsz % lnsz == 0) {
uint32_t lnct = oprsz / lnsz;
return lnct >= 1 && lnct <= MAX_UNROLL;
}
return false;
}
static void expand_clr(uint32_t dofs, uint32_t maxsz);
/* Duplicate C as per VECE. */
uint64_t (dup_const)(unsigned vece, uint64_t c)
{
switch (vece) {
case MO_8:
return 0x0101010101010101ull * (uint8_t)c;
case MO_16:
return 0x0001000100010001ull * (uint16_t)c;
case MO_32:
return 0x0000000100000001ull * (uint32_t)c;
case MO_64:
return c;
default:
g_assert_not_reached();
}
}
/* Duplicate IN into OUT as per VECE. */
static void gen_dup_i32(unsigned vece, TCGv_i32 out, TCGv_i32 in)
{
switch (vece) {
case MO_8:
tcg_gen_ext8u_i32(out, in);
tcg_gen_muli_i32(out, out, 0x01010101);
break;
case MO_16:
tcg_gen_deposit_i32(out, in, in, 16, 16);
break;
case MO_32:
tcg_gen_mov_i32(out, in);
break;
default:
g_assert_not_reached();
}
}
static void gen_dup_i64(unsigned vece, TCGv_i64 out, TCGv_i64 in)
{
switch (vece) {
case MO_8:
tcg_gen_ext8u_i64(out, in);
tcg_gen_muli_i64(out, out, 0x0101010101010101ull);
break;
case MO_16:
tcg_gen_ext16u_i64(out, in);
tcg_gen_muli_i64(out, out, 0x0001000100010001ull);
break;
case MO_32:
tcg_gen_deposit_i64(out, in, in, 32, 32);
break;
case MO_64:
tcg_gen_mov_i64(out, in);
break;
default:
g_assert_not_reached();
}
}
/* Select a supported vector type for implementing an operation on SIZE
* bytes. If OP is 0, assume that the real operation to be performed is
* required by all backends. Otherwise, make sure than OP can be performed
* on elements of size VECE in the selected type. Do not select V64 if
* PREFER_I64 is true. Return 0 if no vector type is selected.
*/
static TCGType choose_vector_type(const TCGOpcode *list, unsigned vece,
uint32_t size, bool prefer_i64)
{
if (TCG_TARGET_HAS_v256 && check_size_impl(size, 32)) {
/*
* Recall that ARM SVE allows vector sizes that are not a
* power of 2, but always a multiple of 16. The intent is
* that e.g. size == 80 would be expanded with 2x32 + 1x16.
* It is hard to imagine a case in which v256 is supported
* but v128 is not, but check anyway.
*/
if (tcg_can_emit_vecop_list(list, TCG_TYPE_V256, vece)
&& (size % 32 == 0
|| tcg_can_emit_vecop_list(list, TCG_TYPE_V128, vece))) {
return TCG_TYPE_V256;
}
}
if (TCG_TARGET_HAS_v128 && check_size_impl(size, 16)
&& tcg_can_emit_vecop_list(list, TCG_TYPE_V128, vece)) {
return TCG_TYPE_V128;
}
if (TCG_TARGET_HAS_v64 && !prefer_i64 && check_size_impl(size, 8)
&& tcg_can_emit_vecop_list(list, TCG_TYPE_V64, vece)) {
return TCG_TYPE_V64;
}
return 0;
}
static void do_dup_store(TCGType type, uint32_t dofs, uint32_t oprsz,
uint32_t maxsz, TCGv_vec t_vec)
{
uint32_t i = 0;
switch (type) {
case TCG_TYPE_V256:
/*
* Recall that ARM SVE allows vector sizes that are not a
* power of 2, but always a multiple of 16. The intent is
* that e.g. size == 80 would be expanded with 2x32 + 1x16.
*/
for (; i + 32 <= oprsz; i += 32) {
tcg_gen_stl_vec(t_vec, cpu_env, dofs + i, TCG_TYPE_V256);
}
/* fallthru */
case TCG_TYPE_V128:
for (; i + 16 <= oprsz; i += 16) {
tcg_gen_stl_vec(t_vec, cpu_env, dofs + i, TCG_TYPE_V128);
}
break;
case TCG_TYPE_V64:
for (; i < oprsz; i += 8) {
tcg_gen_stl_vec(t_vec, cpu_env, dofs + i, TCG_TYPE_V64);
}
break;
default:
g_assert_not_reached();
}
if (oprsz < maxsz) {
expand_clr(dofs + oprsz, maxsz - oprsz);
}
}
/* Set OPRSZ bytes at DOFS to replications of IN_32, IN_64 or IN_C.
* Only one of IN_32 or IN_64 may be set;
* IN_C is used if IN_32 and IN_64 are unset.
*/
static void do_dup(unsigned vece, uint32_t dofs, uint32_t oprsz,
uint32_t maxsz, TCGv_i32 in_32, TCGv_i64 in_64,
uint64_t in_c)
{
TCGType type;
TCGv_i64 t_64;
TCGv_i32 t_32, t_desc;
TCGv_ptr t_ptr;
uint32_t i;
assert(vece <= (in_32 ? MO_32 : MO_64));
assert(in_32 == NULL || in_64 == NULL);
/* If we're storing 0, expand oprsz to maxsz. */
if (in_32 == NULL && in_64 == NULL) {
in_c = dup_const(vece, in_c);
if (in_c == 0) {
oprsz = maxsz;
}
}
/* Implement inline with a vector type, if possible.
* Prefer integer when 64-bit host and no variable dup.
*/
type = choose_vector_type(NULL, vece, oprsz,
(TCG_TARGET_REG_BITS == 64 && in_32 == NULL
&& (in_64 == NULL || vece == MO_64)));
if (type != 0) {
TCGv_vec t_vec = tcg_temp_new_vec(type);
if (in_32) {
tcg_gen_dup_i32_vec(vece, t_vec, in_32);
} else if (in_64) {
tcg_gen_dup_i64_vec(vece, t_vec, in_64);
} else {
tcg_gen_dupi_vec(vece, t_vec, in_c);
}
do_dup_store(type, dofs, oprsz, maxsz, t_vec);
tcg_temp_free_vec(t_vec);
return;
}
/* Otherwise, inline with an integer type, unless "large". */
if (check_size_impl(oprsz, TCG_TARGET_REG_BITS / 8)) {
t_64 = NULL;
t_32 = NULL;
if (in_32) {
/* We are given a 32-bit variable input. For a 64-bit host,
use a 64-bit operation unless the 32-bit operation would
be simple enough. */
if (TCG_TARGET_REG_BITS == 64
&& (vece != MO_32 || !check_size_impl(oprsz, 4))) {
t_64 = tcg_temp_new_i64();
tcg_gen_extu_i32_i64(t_64, in_32);
gen_dup_i64(vece, t_64, t_64);
} else {
t_32 = tcg_temp_new_i32();
gen_dup_i32(vece, t_32, in_32);
}
} else if (in_64) {
/* We are given a 64-bit variable input. */
t_64 = tcg_temp_new_i64();
gen_dup_i64(vece, t_64, in_64);
} else {
/* We are given a constant input. */
/* For 64-bit hosts, use 64-bit constants for "simple" constants
or when we'd need too many 32-bit stores, or when a 64-bit
constant is really required. */
if (vece == MO_64
|| (TCG_TARGET_REG_BITS == 64
&& (in_c == 0 || in_c == -1
|| !check_size_impl(oprsz, 4)))) {
t_64 = tcg_const_i64(in_c);
} else {
t_32 = tcg_const_i32(in_c);
}
}
/* Implement inline if we picked an implementation size above. */
if (t_32) {
for (i = 0; i < oprsz; i += 4) {
tcg_gen_st_i32(t_32, cpu_env, dofs + i);
}
tcg_temp_free_i32(t_32);
goto done;
}
if (t_64) {
for (i = 0; i < oprsz; i += 8) {
tcg_gen_st_i64(t_64, cpu_env, dofs + i);
}
tcg_temp_free_i64(t_64);
goto done;
}
}
/* Otherwise implement out of line. */
t_ptr = tcg_temp_new_ptr();
tcg_gen_addi_ptr(t_ptr, cpu_env, dofs);
t_desc = tcg_const_i32(simd_desc(oprsz, maxsz, 0));
if (vece == MO_64) {
if (in_64) {
gen_helper_gvec_dup64(t_ptr, t_desc, in_64);
} else {
t_64 = tcg_const_i64(in_c);
gen_helper_gvec_dup64(t_ptr, t_desc, t_64);
tcg_temp_free_i64(t_64);
}
} else {
typedef void dup_fn(TCGv_ptr, TCGv_i32, TCGv_i32);
static dup_fn * const fns[3] = {
gen_helper_gvec_dup8,
gen_helper_gvec_dup16,
gen_helper_gvec_dup32
};
if (in_32) {
fns[vece](t_ptr, t_desc, in_32);
} else {
t_32 = tcg_temp_new_i32();
if (in_64) {
tcg_gen_extrl_i64_i32(t_32, in_64);
} else if (vece == MO_8) {
tcg_gen_movi_i32(t_32, in_c & 0xff);
} else if (vece == MO_16) {
tcg_gen_movi_i32(t_32, in_c & 0xffff);
} else {
tcg_gen_movi_i32(t_32, in_c);
}
fns[vece](t_ptr, t_desc, t_32);
tcg_temp_free_i32(t_32);
}
}
tcg_temp_free_ptr(t_ptr);
tcg_temp_free_i32(t_desc);
return;
done:
if (oprsz < maxsz) {
expand_clr(dofs + oprsz, maxsz - oprsz);
}
}
/* Likewise, but with zero. */
static void expand_clr(uint32_t dofs, uint32_t maxsz)
{
do_dup(MO_8, dofs, maxsz, maxsz, NULL, NULL, 0);
}
/* Expand OPSZ bytes worth of two-operand operations using i32 elements. */
static void expand_2_i32(uint32_t dofs, uint32_t aofs, uint32_t oprsz,
void (*fni)(TCGv_i32, TCGv_i32))
{
TCGv_i32 t0 = tcg_temp_new_i32();
uint32_t i;
for (i = 0; i < oprsz; i += 4) {
tcg_gen_ld_i32(t0, cpu_env, aofs + i);
fni(t0, t0);
tcg_gen_st_i32(t0, cpu_env, dofs + i);
}
tcg_temp_free_i32(t0);
}
static void expand_2i_i32(uint32_t dofs, uint32_t aofs, uint32_t oprsz,
int32_t c, bool load_dest,
void (*fni)(TCGv_i32, TCGv_i32, int32_t))
{
TCGv_i32 t0 = tcg_temp_new_i32();
TCGv_i32 t1 = tcg_temp_new_i32();
uint32_t i;
for (i = 0; i < oprsz; i += 4) {
tcg_gen_ld_i32(t0, cpu_env, aofs + i);
if (load_dest) {
tcg_gen_ld_i32(t1, cpu_env, dofs + i);
}
fni(t1, t0, c);
tcg_gen_st_i32(t1, cpu_env, dofs + i);
}
tcg_temp_free_i32(t0);
tcg_temp_free_i32(t1);
}
static void expand_2s_i32(uint32_t dofs, uint32_t aofs, uint32_t oprsz,
TCGv_i32 c, bool scalar_first,
void (*fni)(TCGv_i32, TCGv_i32, TCGv_i32))
{
TCGv_i32 t0 = tcg_temp_new_i32();
TCGv_i32 t1 = tcg_temp_new_i32();
uint32_t i;
for (i = 0; i < oprsz; i += 4) {
tcg_gen_ld_i32(t0, cpu_env, aofs + i);
if (scalar_first) {
fni(t1, c, t0);
} else {
fni(t1, t0, c);
}
tcg_gen_st_i32(t1, cpu_env, dofs + i);
}
tcg_temp_free_i32(t0);
tcg_temp_free_i32(t1);
}
/* Expand OPSZ bytes worth of three-operand operations using i32 elements. */
static void expand_3_i32(uint32_t dofs, uint32_t aofs,
uint32_t bofs, uint32_t oprsz, bool load_dest,
void (*fni)(TCGv_i32, TCGv_i32, TCGv_i32))
{
TCGv_i32 t0 = tcg_temp_new_i32();
TCGv_i32 t1 = tcg_temp_new_i32();
TCGv_i32 t2 = tcg_temp_new_i32();
uint32_t i;
for (i = 0; i < oprsz; i += 4) {
tcg_gen_ld_i32(t0, cpu_env, aofs + i);
tcg_gen_ld_i32(t1, cpu_env, bofs + i);
if (load_dest) {
tcg_gen_ld_i32(t2, cpu_env, dofs + i);
}
fni(t2, t0, t1);
tcg_gen_st_i32(t2, cpu_env, dofs + i);
}
tcg_temp_free_i32(t2);
tcg_temp_free_i32(t1);
tcg_temp_free_i32(t0);
}
static void expand_3i_i32(uint32_t dofs, uint32_t aofs, uint32_t bofs,
uint32_t oprsz, int32_t c, bool load_dest,
void (*fni)(TCGv_i32, TCGv_i32, TCGv_i32, int32_t))
{
TCGv_i32 t0 = tcg_temp_new_i32();
TCGv_i32 t1 = tcg_temp_new_i32();
TCGv_i32 t2 = tcg_temp_new_i32();
uint32_t i;
for (i = 0; i < oprsz; i += 4) {
tcg_gen_ld_i32(t0, cpu_env, aofs + i);
tcg_gen_ld_i32(t1, cpu_env, bofs + i);
if (load_dest) {
tcg_gen_ld_i32(t2, cpu_env, dofs + i);
}
fni(t2, t0, t1, c);
tcg_gen_st_i32(t2, cpu_env, dofs + i);
}
tcg_temp_free_i32(t0);
tcg_temp_free_i32(t1);
tcg_temp_free_i32(t2);
}
/* Expand OPSZ bytes worth of three-operand operations using i32 elements. */
static void expand_4_i32(uint32_t dofs, uint32_t aofs, uint32_t bofs,
uint32_t cofs, uint32_t oprsz, bool write_aofs,
void (*fni)(TCGv_i32, TCGv_i32, TCGv_i32, TCGv_i32))
{
TCGv_i32 t0 = tcg_temp_new_i32();
TCGv_i32 t1 = tcg_temp_new_i32();
TCGv_i32 t2 = tcg_temp_new_i32();
TCGv_i32 t3 = tcg_temp_new_i32();
uint32_t i;
for (i = 0; i < oprsz; i += 4) {
tcg_gen_ld_i32(t1, cpu_env, aofs + i);
tcg_gen_ld_i32(t2, cpu_env, bofs + i);
tcg_gen_ld_i32(t3, cpu_env, cofs + i);
fni(t0, t1, t2, t3);
tcg_gen_st_i32(t0, cpu_env, dofs + i);
if (write_aofs) {
tcg_gen_st_i32(t1, cpu_env, aofs + i);
}
}
tcg_temp_free_i32(t3);
tcg_temp_free_i32(t2);
tcg_temp_free_i32(t1);
tcg_temp_free_i32(t0);
}
/* Expand OPSZ bytes worth of two-operand operations using i64 elements. */
static void expand_2_i64(uint32_t dofs, uint32_t aofs, uint32_t oprsz,
void (*fni)(TCGv_i64, TCGv_i64))
{
TCGv_i64 t0 = tcg_temp_new_i64();
uint32_t i;
for (i = 0; i < oprsz; i += 8) {
tcg_gen_ld_i64(t0, cpu_env, aofs + i);
fni(t0, t0);
tcg_gen_st_i64(t0, cpu_env, dofs + i);
}
tcg_temp_free_i64(t0);
}
static void expand_2i_i64(uint32_t dofs, uint32_t aofs, uint32_t oprsz,
int64_t c, bool load_dest,
void (*fni)(TCGv_i64, TCGv_i64, int64_t))
{
TCGv_i64 t0 = tcg_temp_new_i64();
TCGv_i64 t1 = tcg_temp_new_i64();
uint32_t i;
for (i = 0; i < oprsz; i += 8) {
tcg_gen_ld_i64(t0, cpu_env, aofs + i);
if (load_dest) {
tcg_gen_ld_i64(t1, cpu_env, dofs + i);
}
fni(t1, t0, c);
tcg_gen_st_i64(t1, cpu_env, dofs + i);
}
tcg_temp_free_i64(t0);
tcg_temp_free_i64(t1);
}
static void expand_2s_i64(uint32_t dofs, uint32_t aofs, uint32_t oprsz,
TCGv_i64 c, bool scalar_first,
void (*fni)(TCGv_i64, TCGv_i64, TCGv_i64))
{
TCGv_i64 t0 = tcg_temp_new_i64();
TCGv_i64 t1 = tcg_temp_new_i64();
uint32_t i;
for (i = 0; i < oprsz; i += 8) {
tcg_gen_ld_i64(t0, cpu_env, aofs + i);
if (scalar_first) {
fni(t1, c, t0);
} else {
fni(t1, t0, c);
}
tcg_gen_st_i64(t1, cpu_env, dofs + i);
}
tcg_temp_free_i64(t0);
tcg_temp_free_i64(t1);
}
/* Expand OPSZ bytes worth of three-operand operations using i64 elements. */
static void expand_3_i64(uint32_t dofs, uint32_t aofs,
uint32_t bofs, uint32_t oprsz, bool load_dest,
void (*fni)(TCGv_i64, TCGv_i64, TCGv_i64))
{
TCGv_i64 t0 = tcg_temp_new_i64();
TCGv_i64 t1 = tcg_temp_new_i64();
TCGv_i64 t2 = tcg_temp_new_i64();
uint32_t i;
for (i = 0; i < oprsz; i += 8) {
tcg_gen_ld_i64(t0, cpu_env, aofs + i);
tcg_gen_ld_i64(t1, cpu_env, bofs + i);
if (load_dest) {
tcg_gen_ld_i64(t2, cpu_env, dofs + i);
}
fni(t2, t0, t1);
tcg_gen_st_i64(t2, cpu_env, dofs + i);
}
tcg_temp_free_i64(t2);
tcg_temp_free_i64(t1);
tcg_temp_free_i64(t0);
}
static void expand_3i_i64(uint32_t dofs, uint32_t aofs, uint32_t bofs,
uint32_t oprsz, int64_t c, bool load_dest,
void (*fni)(TCGv_i64, TCGv_i64, TCGv_i64, int64_t))
{
TCGv_i64 t0 = tcg_temp_new_i64();
TCGv_i64 t1 = tcg_temp_new_i64();
TCGv_i64 t2 = tcg_temp_new_i64();
uint32_t i;
for (i = 0; i < oprsz; i += 8) {
tcg_gen_ld_i64(t0, cpu_env, aofs + i);
tcg_gen_ld_i64(t1, cpu_env, bofs + i);
if (load_dest) {
tcg_gen_ld_i64(t2, cpu_env, dofs + i);
}
fni(t2, t0, t1, c);
tcg_gen_st_i64(t2, cpu_env, dofs + i);
}
tcg_temp_free_i64(t0);
tcg_temp_free_i64(t1);
tcg_temp_free_i64(t2);
}
/* Expand OPSZ bytes worth of three-operand operations using i64 elements. */
static void expand_4_i64(uint32_t dofs, uint32_t aofs, uint32_t bofs,
uint32_t cofs, uint32_t oprsz, bool write_aofs,
void (*fni)(TCGv_i64, TCGv_i64, TCGv_i64, TCGv_i64))
{
TCGv_i64 t0 = tcg_temp_new_i64();
TCGv_i64 t1 = tcg_temp_new_i64();
TCGv_i64 t2 = tcg_temp_new_i64();
TCGv_i64 t3 = tcg_temp_new_i64();
uint32_t i;
for (i = 0; i < oprsz; i += 8) {
tcg_gen_ld_i64(t1, cpu_env, aofs + i);
tcg_gen_ld_i64(t2, cpu_env, bofs + i);
tcg_gen_ld_i64(t3, cpu_env, cofs + i);
fni(t0, t1, t2, t3);
tcg_gen_st_i64(t0, cpu_env, dofs + i);
if (write_aofs) {
tcg_gen_st_i64(t1, cpu_env, aofs + i);
}
}
tcg_temp_free_i64(t3);
tcg_temp_free_i64(t2);
tcg_temp_free_i64(t1);
tcg_temp_free_i64(t0);
}
/* Expand OPSZ bytes worth of two-operand operations using host vectors. */
static void expand_2_vec(unsigned vece, uint32_t dofs, uint32_t aofs,
uint32_t oprsz, uint32_t tysz, TCGType type,
void (*fni)(unsigned, TCGv_vec, TCGv_vec))
{
TCGv_vec t0 = tcg_temp_new_vec(type);
uint32_t i;
for (i = 0; i < oprsz; i += tysz) {
tcg_gen_ld_vec(t0, cpu_env, aofs + i);
fni(vece, t0, t0);
tcg_gen_st_vec(t0, cpu_env, dofs + i);
}
tcg_temp_free_vec(t0);
}
/* Expand OPSZ bytes worth of two-vector operands and an immediate operand
using host vectors. */
static void expand_2i_vec(unsigned vece, uint32_t dofs, uint32_t aofs,
uint32_t oprsz, uint32_t tysz, TCGType type,
int64_t c, bool load_dest,
void (*fni)(unsigned, TCGv_vec, TCGv_vec, int64_t))
{
TCGv_vec t0 = tcg_temp_new_vec(type);
TCGv_vec t1 = tcg_temp_new_vec(type);
uint32_t i;
for (i = 0; i < oprsz; i += tysz) {
tcg_gen_ld_vec(t0, cpu_env, aofs + i);
if (load_dest) {
tcg_gen_ld_vec(t1, cpu_env, dofs + i);
}
fni(vece, t1, t0, c);
tcg_gen_st_vec(t1, cpu_env, dofs + i);
}
tcg_temp_free_vec(t0);
tcg_temp_free_vec(t1);
}
static void expand_2s_vec(unsigned vece, uint32_t dofs, uint32_t aofs,
uint32_t oprsz, uint32_t tysz, TCGType type,
TCGv_vec c, bool scalar_first,
void (*fni)(unsigned, TCGv_vec, TCGv_vec, TCGv_vec))
{
TCGv_vec t0 = tcg_temp_new_vec(type);
TCGv_vec t1 = tcg_temp_new_vec(type);
uint32_t i;
for (i = 0; i < oprsz; i += tysz) {
tcg_gen_ld_vec(t0, cpu_env, aofs + i);
if (scalar_first) {
fni(vece, t1, c, t0);
} else {
fni(vece, t1, t0, c);
}
tcg_gen_st_vec(t1, cpu_env, dofs + i);
}
tcg_temp_free_vec(t0);
tcg_temp_free_vec(t1);
}
/* Expand OPSZ bytes worth of three-operand operations using host vectors. */
static void expand_3_vec(unsigned vece, uint32_t dofs, uint32_t aofs,
uint32_t bofs, uint32_t oprsz,
uint32_t tysz, TCGType type, bool load_dest,
void (*fni)(unsigned, TCGv_vec, TCGv_vec, TCGv_vec))
{
TCGv_vec t0 = tcg_temp_new_vec(type);
TCGv_vec t1 = tcg_temp_new_vec(type);
TCGv_vec t2 = tcg_temp_new_vec(type);
uint32_t i;
for (i = 0; i < oprsz; i += tysz) {
tcg_gen_ld_vec(t0, cpu_env, aofs + i);
tcg_gen_ld_vec(t1, cpu_env, bofs + i);
if (load_dest) {
tcg_gen_ld_vec(t2, cpu_env, dofs + i);
}
fni(vece, t2, t0, t1);
tcg_gen_st_vec(t2, cpu_env, dofs + i);
}
tcg_temp_free_vec(t2);
tcg_temp_free_vec(t1);
tcg_temp_free_vec(t0);
}
/*
* Expand OPSZ bytes worth of three-vector operands and an immediate operand
* using host vectors.
*/
static void expand_3i_vec(unsigned vece, uint32_t dofs, uint32_t aofs,
uint32_t bofs, uint32_t oprsz, uint32_t tysz,
TCGType type, int64_t c, bool load_dest,
void (*fni)(unsigned, TCGv_vec, TCGv_vec, TCGv_vec,
int64_t))
{
TCGv_vec t0 = tcg_temp_new_vec(type);
TCGv_vec t1 = tcg_temp_new_vec(type);
TCGv_vec t2 = tcg_temp_new_vec(type);
uint32_t i;
for (i = 0; i < oprsz; i += tysz) {
tcg_gen_ld_vec(t0, cpu_env, aofs + i);
tcg_gen_ld_vec(t1, cpu_env, bofs + i);
if (load_dest) {
tcg_gen_ld_vec(t2, cpu_env, dofs + i);
}
fni(vece, t2, t0, t1, c);
tcg_gen_st_vec(t2, cpu_env, dofs + i);
}
tcg_temp_free_vec(t0);
tcg_temp_free_vec(t1);
tcg_temp_free_vec(t2);
}
/* Expand OPSZ bytes worth of four-operand operations using host vectors. */
static void expand_4_vec(unsigned vece, uint32_t dofs, uint32_t aofs,
uint32_t bofs, uint32_t cofs, uint32_t oprsz,
uint32_t tysz, TCGType type, bool write_aofs,
void (*fni)(unsigned, TCGv_vec, TCGv_vec,
TCGv_vec, TCGv_vec))
{
TCGv_vec t0 = tcg_temp_new_vec(type);
TCGv_vec t1 = tcg_temp_new_vec(type);
TCGv_vec t2 = tcg_temp_new_vec(type);
TCGv_vec t3 = tcg_temp_new_vec(type);
uint32_t i;
for (i = 0; i < oprsz; i += tysz) {
tcg_gen_ld_vec(t1, cpu_env, aofs + i);
tcg_gen_ld_vec(t2, cpu_env, bofs + i);
tcg_gen_ld_vec(t3, cpu_env, cofs + i);
fni(vece, t0, t1, t2, t3);
tcg_gen_st_vec(t0, cpu_env, dofs + i);
if (write_aofs) {
tcg_gen_st_vec(t1, cpu_env, aofs + i);
}
}
tcg_temp_free_vec(t3);
tcg_temp_free_vec(t2);
tcg_temp_free_vec(t1);
tcg_temp_free_vec(t0);
}
/* Expand a vector two-operand operation. */
void tcg_gen_gvec_2(uint32_t dofs, uint32_t aofs,
uint32_t oprsz, uint32_t maxsz, const GVecGen2 *g)
{
const TCGOpcode *this_list = g->opt_opc ? : vecop_list_empty;
const TCGOpcode *hold_list = tcg_swap_vecop_list(this_list);
TCGType type;
uint32_t some;
check_size_align(oprsz, maxsz, dofs | aofs);
check_overlap_2(dofs, aofs, maxsz);
type = 0;
if (g->fniv) {
type = choose_vector_type(g->opt_opc, g->vece, oprsz, g->prefer_i64);
}
switch (type) {
case TCG_TYPE_V256:
/* Recall that ARM SVE allows vector sizes that are not a
* power of 2, but always a multiple of 16. The intent is
* that e.g. size == 80 would be expanded with 2x32 + 1x16.
*/
some = QEMU_ALIGN_DOWN(oprsz, 32);
expand_2_vec(g->vece, dofs, aofs, some, 32, TCG_TYPE_V256, g->fniv);
if (some == oprsz) {
break;
}
dofs += some;
aofs += some;
oprsz -= some;
maxsz -= some;
/* fallthru */
case TCG_TYPE_V128:
expand_2_vec(g->vece, dofs, aofs, oprsz, 16, TCG_TYPE_V128, g->fniv);
break;
case TCG_TYPE_V64:
expand_2_vec(g->vece, dofs, aofs, oprsz, 8, TCG_TYPE_V64, g->fniv);
break;
case 0:
if (g->fni8 && check_size_impl(oprsz, 8)) {
expand_2_i64(dofs, aofs, oprsz, g->fni8);
} else if (g->fni4 && check_size_impl(oprsz, 4)) {
expand_2_i32(dofs, aofs, oprsz, g->fni4);
} else {
assert(g->fno != NULL);
tcg_gen_gvec_2_ool(dofs, aofs, oprsz, maxsz, g->data, g->fno);
oprsz = maxsz;
}
break;
default:
g_assert_not_reached();
}
tcg_swap_vecop_list(hold_list);
if (oprsz < maxsz) {
expand_clr(dofs + oprsz, maxsz - oprsz);
}
}
/* Expand a vector operation with two vectors and an immediate. */
void tcg_gen_gvec_2i(uint32_t dofs, uint32_t aofs, uint32_t oprsz,
uint32_t maxsz, int64_t c, const GVecGen2i *g)
{
const TCGOpcode *this_list = g->opt_opc ? : vecop_list_empty;
const TCGOpcode *hold_list = tcg_swap_vecop_list(this_list);
TCGType type;
uint32_t some;
check_size_align(oprsz, maxsz, dofs | aofs);
check_overlap_2(dofs, aofs, maxsz);
type = 0;
if (g->fniv) {
type = choose_vector_type(g->opt_opc, g->vece, oprsz, g->prefer_i64);
}
switch (type) {
case TCG_TYPE_V256:
/* Recall that ARM SVE allows vector sizes that are not a
* power of 2, but always a multiple of 16. The intent is
* that e.g. size == 80 would be expanded with 2x32 + 1x16.
*/
some = QEMU_ALIGN_DOWN(oprsz, 32);
expand_2i_vec(g->vece, dofs, aofs, some, 32, TCG_TYPE_V256,
c, g->load_dest, g->fniv);
if (some == oprsz) {
break;
}
dofs += some;
aofs += some;
oprsz -= some;
maxsz -= some;
/* fallthru */
case TCG_TYPE_V128:
expand_2i_vec(g->vece, dofs, aofs, oprsz, 16, TCG_TYPE_V128,
c, g->load_dest, g->fniv);
break;
case TCG_TYPE_V64:
expand_2i_vec(g->vece, dofs, aofs, oprsz, 8, TCG_TYPE_V64,
c, g->load_dest, g->fniv);
break;
case 0:
if (g->fni8 && check_size_impl(oprsz, 8)) {
expand_2i_i64(dofs, aofs, oprsz, c, g->load_dest, g->fni8);
} else if (g->fni4 && check_size_impl(oprsz, 4)) {
expand_2i_i32(dofs, aofs, oprsz, c, g->load_dest, g->fni4);
} else {
if (g->fno) {
tcg_gen_gvec_2_ool(dofs, aofs, oprsz, maxsz, c, g->fno);
} else {
TCGv_i64 tcg_c = tcg_const_i64(c);
tcg_gen_gvec_2i_ool(dofs, aofs, tcg_c, oprsz,
maxsz, c, g->fnoi);
tcg_temp_free_i64(tcg_c);
}
oprsz = maxsz;
}
break;
default:
g_assert_not_reached();
}
tcg_swap_vecop_list(hold_list);
if (oprsz < maxsz) {
expand_clr(dofs + oprsz, maxsz - oprsz);
}
}
/* Expand a vector operation with two vectors and a scalar. */
void tcg_gen_gvec_2s(uint32_t dofs, uint32_t aofs, uint32_t oprsz,
uint32_t maxsz, TCGv_i64 c, const GVecGen2s *g)
{
TCGType type;
check_size_align(oprsz, maxsz, dofs | aofs);
check_overlap_2(dofs, aofs, maxsz);
type = 0;
if (g->fniv) {
type = choose_vector_type(g->opt_opc, g->vece, oprsz, g->prefer_i64);
}
if (type != 0) {
const TCGOpcode *this_list = g->opt_opc ? : vecop_list_empty;
const TCGOpcode *hold_list = tcg_swap_vecop_list(this_list);
TCGv_vec t_vec = tcg_temp_new_vec(type);
uint32_t some;
tcg_gen_dup_i64_vec(g->vece, t_vec, c);
switch (type) {
case TCG_TYPE_V256:
/* Recall that ARM SVE allows vector sizes that are not a
* power of 2, but always a multiple of 16. The intent is
* that e.g. size == 80 would be expanded with 2x32 + 1x16.
*/
some = QEMU_ALIGN_DOWN(oprsz, 32);
expand_2s_vec(g->vece, dofs, aofs, some, 32, TCG_TYPE_V256,
t_vec, g->scalar_first, g->fniv);
if (some == oprsz) {
break;
}
dofs += some;
aofs += some;
oprsz -= some;
maxsz -= some;
/* fallthru */
case TCG_TYPE_V128:
expand_2s_vec(g->vece, dofs, aofs, oprsz, 16, TCG_TYPE_V128,
t_vec, g->scalar_first, g->fniv);
break;
case TCG_TYPE_V64:
expand_2s_vec(g->vece, dofs, aofs, oprsz, 8, TCG_TYPE_V64,
t_vec, g->scalar_first, g->fniv);
break;
default:
g_assert_not_reached();
}
tcg_temp_free_vec(t_vec);
tcg_swap_vecop_list(hold_list);
} else if (g->fni8 && check_size_impl(oprsz, 8)) {
TCGv_i64 t64 = tcg_temp_new_i64();
gen_dup_i64(g->vece, t64, c);
expand_2s_i64(dofs, aofs, oprsz, t64, g->scalar_first, g->fni8);
tcg_temp_free_i64(t64);
} else if (g->fni4 && check_size_impl(oprsz, 4)) {
TCGv_i32 t32 = tcg_temp_new_i32();
tcg_gen_extrl_i64_i32(t32, c);
gen_dup_i32(g->vece, t32, t32);
expand_2s_i32(dofs, aofs, oprsz, t32, g->scalar_first, g->fni4);
tcg_temp_free_i32(t32);
} else {
tcg_gen_gvec_2i_ool(dofs, aofs, c, oprsz, maxsz, 0, g->fno);
return;
}
if (oprsz < maxsz) {
expand_clr(dofs + oprsz, maxsz - oprsz);
}
}
/* Expand a vector three-operand operation. */
void tcg_gen_gvec_3(uint32_t dofs, uint32_t aofs, uint32_t bofs,
uint32_t oprsz, uint32_t maxsz, const GVecGen3 *g)
{
const TCGOpcode *this_list = g->opt_opc ? : vecop_list_empty;
const TCGOpcode *hold_list = tcg_swap_vecop_list(this_list);
TCGType type;
uint32_t some;
check_size_align(oprsz, maxsz, dofs | aofs | bofs);
check_overlap_3(dofs, aofs, bofs, maxsz);
type = 0;
if (g->fniv) {
type = choose_vector_type(g->opt_opc, g->vece, oprsz, g->prefer_i64);
}
switch (type) {
case TCG_TYPE_V256:
/* Recall that ARM SVE allows vector sizes that are not a
* power of 2, but always a multiple of 16. The intent is
* that e.g. size == 80 would be expanded with 2x32 + 1x16.
*/
some = QEMU_ALIGN_DOWN(oprsz, 32);
expand_3_vec(g->vece, dofs, aofs, bofs, some, 32, TCG_TYPE_V256,
g->load_dest, g->fniv);
if (some == oprsz) {
break;
}
dofs += some;
aofs += some;
bofs += some;
oprsz -= some;
maxsz -= some;
/* fallthru */
case TCG_TYPE_V128:
expand_3_vec(g->vece, dofs, aofs, bofs, oprsz, 16, TCG_TYPE_V128,
g->load_dest, g->fniv);
break;
case TCG_TYPE_V64:
expand_3_vec(g->vece, dofs, aofs, bofs, oprsz, 8, TCG_TYPE_V64,
g->load_dest, g->fniv);
break;
case 0:
if (g->fni8 && check_size_impl(oprsz, 8)) {
expand_3_i64(dofs, aofs, bofs, oprsz, g->load_dest, g->fni8);
} else if (g->fni4 && check_size_impl(oprsz, 4)) {
expand_3_i32(dofs, aofs, bofs, oprsz, g->load_dest, g->fni4);
} else {
assert(g->fno != NULL);
tcg_gen_gvec_3_ool(dofs, aofs, bofs, oprsz,
maxsz, g->data, g->fno);
oprsz = maxsz;
}
break;
default:
g_assert_not_reached();
}
tcg_swap_vecop_list(hold_list);
if (oprsz < maxsz) {
expand_clr(dofs + oprsz, maxsz - oprsz);
}
}
/* Expand a vector operation with three vectors and an immediate. */
void tcg_gen_gvec_3i(uint32_t dofs, uint32_t aofs, uint32_t bofs,
uint32_t oprsz, uint32_t maxsz, int64_t c,
const GVecGen3i *g)
{
const TCGOpcode *this_list = g->opt_opc ? : vecop_list_empty;
const TCGOpcode *hold_list = tcg_swap_vecop_list(this_list);
TCGType type;
uint32_t some;
check_size_align(oprsz, maxsz, dofs | aofs | bofs);
check_overlap_3(dofs, aofs, bofs, maxsz);
type = 0;
if (g->fniv) {
type = choose_vector_type(g->opt_opc, g->vece, oprsz, g->prefer_i64);
}
switch (type) {
case TCG_TYPE_V256:
/*
* Recall that ARM SVE allows vector sizes that are not a
* power of 2, but always a multiple of 16. The intent is
* that e.g. size == 80 would be expanded with 2x32 + 1x16.
*/
some = QEMU_ALIGN_DOWN(oprsz, 32);
expand_3i_vec(g->vece, dofs, aofs, bofs, some, 32, TCG_TYPE_V256,
c, g->load_dest, g->fniv);
if (some == oprsz) {
break;
}
dofs += some;
aofs += some;
bofs += some;
oprsz -= some;
maxsz -= some;
/* fallthru */
case TCG_TYPE_V128:
expand_3i_vec(g->vece, dofs, aofs, bofs, oprsz, 16, TCG_TYPE_V128,
c, g->load_dest, g->fniv);
break;
case TCG_TYPE_V64:
expand_3i_vec(g->vece, dofs, aofs, bofs, oprsz, 8, TCG_TYPE_V64,
c, g->load_dest, g->fniv);
break;
case 0:
if (g->fni8 && check_size_impl(oprsz, 8)) {
expand_3i_i64(dofs, aofs, bofs, oprsz, c, g->load_dest, g->fni8);
} else if (g->fni4 && check_size_impl(oprsz, 4)) {
expand_3i_i32(dofs, aofs, bofs, oprsz, c, g->load_dest, g->fni4);
} else {
assert(g->fno != NULL);
tcg_gen_gvec_3_ool(dofs, aofs, bofs, oprsz, maxsz, c, g->fno);
oprsz = maxsz;
}
break;
default:
g_assert_not_reached();
}
tcg_swap_vecop_list(hold_list);
if (oprsz < maxsz) {
expand_clr(dofs + oprsz, maxsz - oprsz);
}
}
/* Expand a vector four-operand operation. */
void tcg_gen_gvec_4(uint32_t dofs, uint32_t aofs, uint32_t bofs, uint32_t cofs,
uint32_t oprsz, uint32_t maxsz, const GVecGen4 *g)
{
const TCGOpcode *this_list = g->opt_opc ? : vecop_list_empty;
const TCGOpcode *hold_list = tcg_swap_vecop_list(this_list);
TCGType type;
uint32_t some;
check_size_align(oprsz, maxsz, dofs | aofs | bofs | cofs);
check_overlap_4(dofs, aofs, bofs, cofs, maxsz);
type = 0;
if (g->fniv) {
type = choose_vector_type(g->opt_opc, g->vece, oprsz, g->prefer_i64);
}
switch (type) {
case TCG_TYPE_V256:
/* Recall that ARM SVE allows vector sizes that are not a
* power of 2, but always a multiple of 16. The intent is
* that e.g. size == 80 would be expanded with 2x32 + 1x16.
*/
some = QEMU_ALIGN_DOWN(oprsz, 32);
expand_4_vec(g->vece, dofs, aofs, bofs, cofs, some,
32, TCG_TYPE_V256, g->write_aofs, g->fniv);
if (some == oprsz) {
break;
}
dofs += some;
aofs += some;
bofs += some;
cofs += some;
oprsz -= some;
maxsz -= some;
/* fallthru */
case TCG_TYPE_V128:
expand_4_vec(g->vece, dofs, aofs, bofs, cofs, oprsz,
16, TCG_TYPE_V128, g->write_aofs, g->fniv);
break;
case TCG_TYPE_V64:
expand_4_vec(g->vece, dofs, aofs, bofs, cofs, oprsz,
8, TCG_TYPE_V64, g->write_aofs, g->fniv);
break;
case 0:
if (g->fni8 && check_size_impl(oprsz, 8)) {
expand_4_i64(dofs, aofs, bofs, cofs, oprsz,
g->write_aofs, g->fni8);
} else if (g->fni4 && check_size_impl(oprsz, 4)) {
expand_4_i32(dofs, aofs, bofs, cofs, oprsz,
g->write_aofs, g->fni4);
} else {
assert(g->fno != NULL);
tcg_gen_gvec_4_ool(dofs, aofs, bofs, cofs,
oprsz, maxsz, g->data, g->fno);
oprsz = maxsz;
}
break;
default:
g_assert_not_reached();
}
tcg_swap_vecop_list(hold_list);
if (oprsz < maxsz) {
expand_clr(dofs + oprsz, maxsz - oprsz);
}
}
/*
* Expand specific vector operations.
*/
static void vec_mov2(unsigned vece, TCGv_vec a, TCGv_vec b)
{
tcg_gen_mov_vec(a, b);
}
void tcg_gen_gvec_mov(unsigned vece, uint32_t dofs, uint32_t aofs,
uint32_t oprsz, uint32_t maxsz)
{
static const GVecGen2 g = {
.fni8 = tcg_gen_mov_i64,
.fniv = vec_mov2,
.fno = gen_helper_gvec_mov,
.prefer_i64 = TCG_TARGET_REG_BITS == 64,
};
if (dofs != aofs) {
tcg_gen_gvec_2(dofs, aofs, oprsz, maxsz, &g);
} else {
check_size_align(oprsz, maxsz, dofs);
if (oprsz < maxsz) {
expand_clr(dofs + oprsz, maxsz - oprsz);
}
}
}
void tcg_gen_gvec_dup_i32(unsigned vece, uint32_t dofs, uint32_t oprsz,
uint32_t maxsz, TCGv_i32 in)
{
check_size_align(oprsz, maxsz, dofs);
tcg_debug_assert(vece <= MO_32);
do_dup(vece, dofs, oprsz, maxsz, in, NULL, 0);
}
void tcg_gen_gvec_dup_i64(unsigned vece, uint32_t dofs, uint32_t oprsz,
uint32_t maxsz, TCGv_i64 in)
{
check_size_align(oprsz, maxsz, dofs);
tcg_debug_assert(vece <= MO_64);
do_dup(vece, dofs, oprsz, maxsz, NULL, in, 0);
}
void tcg_gen_gvec_dup_mem(unsigned vece, uint32_t dofs, uint32_t aofs,
uint32_t oprsz, uint32_t maxsz)
{
if (vece <= MO_64) {
TCGType type = choose_vector_type(0, vece, oprsz, 0);
if (type != 0) {
TCGv_vec t_vec = tcg_temp_new_vec(type);
tcg_gen_dup_mem_vec(vece, t_vec, cpu_env, aofs);
do_dup_store(type, dofs, oprsz, maxsz, t_vec);
tcg_temp_free_vec(t_vec);
return;
}
}
if (vece <= MO_32) {
TCGv_i32 in = tcg_temp_new_i32();
switch (vece) {
case MO_8:
tcg_gen_ld8u_i32(in, cpu_env, aofs);
break;
case MO_16:
tcg_gen_ld16u_i32(in, cpu_env, aofs);
break;
case MO_32:
tcg_gen_ld_i32(in, cpu_env, aofs);
break;
}
tcg_gen_gvec_dup_i32(vece, dofs, oprsz, maxsz, in);
tcg_temp_free_i32(in);
} else if (vece == MO_64) {
TCGv_i64 in = tcg_temp_new_i64();
tcg_gen_ld_i64(in, cpu_env, aofs);
tcg_gen_gvec_dup_i64(MO_64, dofs, oprsz, maxsz, in);
tcg_temp_free_i64(in);
} else {
/* 128-bit duplicate. */
/* ??? Dup to 256-bit vector. */
int i;
tcg_debug_assert(vece == 4);
tcg_debug_assert(oprsz >= 16);
if (TCG_TARGET_HAS_v128) {
TCGv_vec in = tcg_temp_new_vec(TCG_TYPE_V128);
tcg_gen_ld_vec(in, cpu_env, aofs);
for (i = 0; i < oprsz; i += 16) {
tcg_gen_st_vec(in, cpu_env, dofs + i);
}
tcg_temp_free_vec(in);
} else {
TCGv_i64 in0 = tcg_temp_new_i64();
TCGv_i64 in1 = tcg_temp_new_i64();
tcg_gen_ld_i64(in0, cpu_env, aofs);
tcg_gen_ld_i64(in1, cpu_env, aofs + 8);
for (i = 0; i < oprsz; i += 16) {
tcg_gen_st_i64(in0, cpu_env, dofs + i);
tcg_gen_st_i64(in1, cpu_env, dofs + i + 8);
}
tcg_temp_free_i64(in0);
tcg_temp_free_i64(in1);
}
}
}
void tcg_gen_gvec_dup64i(uint32_t dofs, uint32_t oprsz,
uint32_t maxsz, uint64_t x)
{
check_size_align(oprsz, maxsz, dofs);
do_dup(MO_64, dofs, oprsz, maxsz, NULL, NULL, x);
}
void tcg_gen_gvec_dup32i(uint32_t dofs, uint32_t oprsz,
uint32_t maxsz, uint32_t x)
{
check_size_align(oprsz, maxsz, dofs);
do_dup(MO_32, dofs, oprsz, maxsz, NULL, NULL, x);
}
void tcg_gen_gvec_dup16i(uint32_t dofs, uint32_t oprsz,
uint32_t maxsz, uint16_t x)
{
check_size_align(oprsz, maxsz, dofs);
do_dup(MO_16, dofs, oprsz, maxsz, NULL, NULL, x);
}
void tcg_gen_gvec_dup8i(uint32_t dofs, uint32_t oprsz,
uint32_t maxsz, uint8_t x)
{
check_size_align(oprsz, maxsz, dofs);
do_dup(MO_8, dofs, oprsz, maxsz, NULL, NULL, x);
}
void tcg_gen_gvec_not(unsigned vece, uint32_t dofs, uint32_t aofs,
uint32_t oprsz, uint32_t maxsz)
{
static const GVecGen2 g = {
.fni8 = tcg_gen_not_i64,
.fniv = tcg_gen_not_vec,
.fno = gen_helper_gvec_not,
.prefer_i64 = TCG_TARGET_REG_BITS == 64,
};
tcg_gen_gvec_2(dofs, aofs, oprsz, maxsz, &g);
}
/* Perform a vector addition using normal addition and a mask. The mask
should be the sign bit of each lane. This 6-operation form is more
efficient than separate additions when there are 4 or more lanes in
the 64-bit operation. */
static void gen_addv_mask(TCGv_i64 d, TCGv_i64 a, TCGv_i64 b, TCGv_i64 m)
{
TCGv_i64 t1 = tcg_temp_new_i64();
TCGv_i64 t2 = tcg_temp_new_i64();
TCGv_i64 t3 = tcg_temp_new_i64();
tcg_gen_andc_i64(t1, a, m);
tcg_gen_andc_i64(t2, b, m);
tcg_gen_xor_i64(t3, a, b);
tcg_gen_add_i64(d, t1, t2);
tcg_gen_and_i64(t3, t3, m);
tcg_gen_xor_i64(d, d, t3);
tcg_temp_free_i64(t1);
tcg_temp_free_i64(t2);
tcg_temp_free_i64(t3);
}
void tcg_gen_vec_add8_i64(TCGv_i64 d, TCGv_i64 a, TCGv_i64 b)
{
TCGv_i64 m = tcg_const_i64(dup_const(MO_8, 0x80));
gen_addv_mask(d, a, b, m);
tcg_temp_free_i64(m);
}
void tcg_gen_vec_add16_i64(TCGv_i64 d, TCGv_i64 a, TCGv_i64 b)
{
TCGv_i64 m = tcg_const_i64(dup_const(MO_16, 0x8000));
gen_addv_mask(d, a, b, m);
tcg_temp_free_i64(m);
}
void tcg_gen_vec_add32_i64(TCGv_i64 d, TCGv_i64 a, TCGv_i64 b)
{
TCGv_i64 t1 = tcg_temp_new_i64();
TCGv_i64 t2 = tcg_temp_new_i64();
tcg_gen_andi_i64(t1, a, ~0xffffffffull);
tcg_gen_add_i64(t2, a, b);
tcg_gen_add_i64(t1, t1, b);
tcg_gen_deposit_i64(d, t1, t2, 0, 32);
tcg_temp_free_i64(t1);
tcg_temp_free_i64(t2);
}
static const TCGOpcode vecop_list_add[] = { INDEX_op_add_vec, 0 };
void tcg_gen_gvec_add(unsigned vece, uint32_t dofs, uint32_t aofs,
uint32_t bofs, uint32_t oprsz, uint32_t maxsz)
{
static const GVecGen3 g[4] = {
{ .fni8 = tcg_gen_vec_add8_i64,
.fniv = tcg_gen_add_vec,
.fno = gen_helper_gvec_add8,
.opt_opc = vecop_list_add,
.vece = MO_8 },
{ .fni8 = tcg_gen_vec_add16_i64,
.fniv = tcg_gen_add_vec,
.fno = gen_helper_gvec_add16,
.opt_opc = vecop_list_add,
.vece = MO_16 },
{ .fni4 = tcg_gen_add_i32,
.fniv = tcg_gen_add_vec,
.fno = gen_helper_gvec_add32,
.opt_opc = vecop_list_add,
.vece = MO_32 },
{ .fni8 = tcg_gen_add_i64,
.fniv = tcg_gen_add_vec,
.fno = gen_helper_gvec_add64,
.opt_opc = vecop_list_add,
.prefer_i64 = TCG_TARGET_REG_BITS == 64,
.vece = MO_64 },
};
tcg_debug_assert(vece <= MO_64);
tcg_gen_gvec_3(dofs, aofs, bofs, oprsz, maxsz, &g[vece]);
}
void tcg_gen_gvec_adds(unsigned vece, uint32_t dofs, uint32_t aofs,
TCGv_i64 c, uint32_t oprsz, uint32_t maxsz)
{
static const GVecGen2s g[4] = {
{ .fni8 = tcg_gen_vec_add8_i64,
.fniv = tcg_gen_add_vec,
.fno = gen_helper_gvec_adds8,
.opt_opc = vecop_list_add,
.vece = MO_8 },
{ .fni8 = tcg_gen_vec_add16_i64,
.fniv = tcg_gen_add_vec,
.fno = gen_helper_gvec_adds16,
.opt_opc = vecop_list_add,
.vece = MO_16 },
{ .fni4 = tcg_gen_add_i32,
.fniv = tcg_gen_add_vec,
.fno = gen_helper_gvec_adds32,
.opt_opc = vecop_list_add,
.vece = MO_32 },
{ .fni8 = tcg_gen_add_i64,
.fniv = tcg_gen_add_vec,
.fno = gen_helper_gvec_adds64,
.opt_opc = vecop_list_add,
.prefer_i64 = TCG_TARGET_REG_BITS == 64,
.vece = MO_64 },
};
tcg_debug_assert(vece <= MO_64);
tcg_gen_gvec_2s(dofs, aofs, oprsz, maxsz, c, &g[vece]);
}
void tcg_gen_gvec_addi(unsigned vece, uint32_t dofs, uint32_t aofs,
int64_t c, uint32_t oprsz, uint32_t maxsz)
{
TCGv_i64 tmp = tcg_const_i64(c);
tcg_gen_gvec_adds(vece, dofs, aofs, tmp, oprsz, maxsz);
tcg_temp_free_i64(tmp);
}
static const TCGOpcode vecop_list_sub[] = { INDEX_op_sub_vec, 0 };
void tcg_gen_gvec_subs(unsigned vece, uint32_t dofs, uint32_t aofs,
TCGv_i64 c, uint32_t oprsz, uint32_t maxsz)
{
static const GVecGen2s g[4] = {
{ .fni8 = tcg_gen_vec_sub8_i64,
.fniv = tcg_gen_sub_vec,
.fno = gen_helper_gvec_subs8,
.opt_opc = vecop_list_sub,
.vece = MO_8 },
{ .fni8 = tcg_gen_vec_sub16_i64,
.fniv = tcg_gen_sub_vec,
.fno = gen_helper_gvec_subs16,
.opt_opc = vecop_list_sub,
.vece = MO_16 },
{ .fni4 = tcg_gen_sub_i32,
.fniv = tcg_gen_sub_vec,
.fno = gen_helper_gvec_subs32,
.opt_opc = vecop_list_sub,
.vece = MO_32 },
{ .fni8 = tcg_gen_sub_i64,
.fniv = tcg_gen_sub_vec,
.fno = gen_helper_gvec_subs64,
.opt_opc = vecop_list_sub,
.prefer_i64 = TCG_TARGET_REG_BITS == 64,
.vece = MO_64 },
};
tcg_debug_assert(vece <= MO_64);
tcg_gen_gvec_2s(dofs, aofs, oprsz, maxsz, c, &g[vece]);
}
/* Perform a vector subtraction using normal subtraction and a mask.
Compare gen_addv_mask above. */
static void gen_subv_mask(TCGv_i64 d, TCGv_i64 a, TCGv_i64 b, TCGv_i64 m)
{
TCGv_i64 t1 = tcg_temp_new_i64();
TCGv_i64 t2 = tcg_temp_new_i64();
TCGv_i64 t3 = tcg_temp_new_i64();
tcg_gen_or_i64(t1, a, m);
tcg_gen_andc_i64(t2, b, m);
tcg_gen_eqv_i64(t3, a, b);
tcg_gen_sub_i64(d, t1, t2);
tcg_gen_and_i64(t3, t3, m);
tcg_gen_xor_i64(d, d, t3);
tcg_temp_free_i64(t1);
tcg_temp_free_i64(t2);
tcg_temp_free_i64(t3);
}
void tcg_gen_vec_sub8_i64(TCGv_i64 d, TCGv_i64 a, TCGv_i64 b)
{
TCGv_i64 m = tcg_const_i64(dup_const(MO_8, 0x80));
gen_subv_mask(d, a, b, m);
tcg_temp_free_i64(m);
}
void tcg_gen_vec_sub16_i64(TCGv_i64 d, TCGv_i64 a, TCGv_i64 b)
{
TCGv_i64 m = tcg_const_i64(dup_const(MO_16, 0x8000));
gen_subv_mask(d, a, b, m);
tcg_temp_free_i64(m);
}
void tcg_gen_vec_sub32_i64(TCGv_i64 d, TCGv_i64 a, TCGv_i64 b)
{
TCGv_i64 t1 = tcg_temp_new_i64();
TCGv_i64 t2 = tcg_temp_new_i64();
tcg_gen_andi_i64(t1, b, ~0xffffffffull);
tcg_gen_sub_i64(t2, a, b);
tcg_gen_sub_i64(t1, a, t1);
tcg_gen_deposit_i64(d, t1, t2, 0, 32);
tcg_temp_free_i64(t1);
tcg_temp_free_i64(t2);
}
void tcg_gen_gvec_sub(unsigned vece, uint32_t dofs, uint32_t aofs,
uint32_t bofs, uint32_t oprsz, uint32_t maxsz)
{
static const GVecGen3 g[4] = {
{ .fni8 = tcg_gen_vec_sub8_i64,
.fniv = tcg_gen_sub_vec,
.fno = gen_helper_gvec_sub8,
.opt_opc = vecop_list_sub,
.vece = MO_8 },
{ .fni8 = tcg_gen_vec_sub16_i64,
.fniv = tcg_gen_sub_vec,
.fno = gen_helper_gvec_sub16,
.opt_opc = vecop_list_sub,
.vece = MO_16 },
{ .fni4 = tcg_gen_sub_i32,
.fniv = tcg_gen_sub_vec,
.fno = gen_helper_gvec_sub32,
.opt_opc = vecop_list_sub,
.vece = MO_32 },
{ .fni8 = tcg_gen_sub_i64,
.fniv = tcg_gen_sub_vec,
.fno = gen_helper_gvec_sub64,
.opt_opc = vecop_list_sub,
.prefer_i64 = TCG_TARGET_REG_BITS == 64,
.vece = MO_64 },
};
tcg_debug_assert(vece <= MO_64);
tcg_gen_gvec_3(dofs, aofs, bofs, oprsz, maxsz, &g[vece]);
}
static const TCGOpcode vecop_list_mul[] = { INDEX_op_mul_vec, 0 };
void tcg_gen_gvec_mul(unsigned vece, uint32_t dofs, uint32_t aofs,
uint32_t bofs, uint32_t oprsz, uint32_t maxsz)
{
static const GVecGen3 g[4] = {
{ .fniv = tcg_gen_mul_vec,
.fno = gen_helper_gvec_mul8,
.opt_opc = vecop_list_mul,
.vece = MO_8 },
{ .fniv = tcg_gen_mul_vec,
.fno = gen_helper_gvec_mul16,
.opt_opc = vecop_list_mul,
.vece = MO_16 },
{ .fni4 = tcg_gen_mul_i32,
.fniv = tcg_gen_mul_vec,
.fno = gen_helper_gvec_mul32,
.opt_opc = vecop_list_mul,
.vece = MO_32 },
{ .fni8 = tcg_gen_mul_i64,
.fniv = tcg_gen_mul_vec,
.fno = gen_helper_gvec_mul64,
.opt_opc = vecop_list_mul,
.prefer_i64 = TCG_TARGET_REG_BITS == 64,
.vece = MO_64 },
};
tcg_debug_assert(vece <= MO_64);
tcg_gen_gvec_3(dofs, aofs, bofs, oprsz, maxsz, &g[vece]);
}
void tcg_gen_gvec_muls(unsigned vece, uint32_t dofs, uint32_t aofs,
TCGv_i64 c, uint32_t oprsz, uint32_t maxsz)
{
static const GVecGen2s g[4] = {
{ .fniv = tcg_gen_mul_vec,
.fno = gen_helper_gvec_muls8,
.opt_opc = vecop_list_mul,
.vece = MO_8 },
{ .fniv = tcg_gen_mul_vec,
.fno = gen_helper_gvec_muls16,
.opt_opc = vecop_list_mul,
.vece = MO_16 },
{ .fni4 = tcg_gen_mul_i32,
.fniv = tcg_gen_mul_vec,
.fno = gen_helper_gvec_muls32,
.opt_opc = vecop_list_mul,
.vece = MO_32 },
{ .fni8 = tcg_gen_mul_i64,
.fniv = tcg_gen_mul_vec,
.fno = gen_helper_gvec_muls64,
.opt_opc = vecop_list_mul,
.prefer_i64 = TCG_TARGET_REG_BITS == 64,
.vece = MO_64 },
};
tcg_debug_assert(vece <= MO_64);
tcg_gen_gvec_2s(dofs, aofs, oprsz, maxsz, c, &g[vece]);
}
void tcg_gen_gvec_muli(unsigned vece, uint32_t dofs, uint32_t aofs,
int64_t c, uint32_t oprsz, uint32_t maxsz)
{
TCGv_i64 tmp = tcg_const_i64(c);
tcg_gen_gvec_muls(vece, dofs, aofs, tmp, oprsz, maxsz);
tcg_temp_free_i64(tmp);
}
void tcg_gen_gvec_ssadd(unsigned vece, uint32_t dofs, uint32_t aofs,
uint32_t bofs, uint32_t oprsz, uint32_t maxsz)
{
static const TCGOpcode vecop_list[] = { INDEX_op_ssadd_vec, 0 };
static const GVecGen3 g[4] = {
{ .fniv = tcg_gen_ssadd_vec,
.fno = gen_helper_gvec_ssadd8,
.opt_opc = vecop_list,
.vece = MO_8 },
{ .fniv = tcg_gen_ssadd_vec,
.fno = gen_helper_gvec_ssadd16,
.opt_opc = vecop_list,
.vece = MO_16 },
{ .fniv = tcg_gen_ssadd_vec,
.fno = gen_helper_gvec_ssadd32,
.opt_opc = vecop_list,
.vece = MO_32 },
{ .fniv = tcg_gen_ssadd_vec,
.fno = gen_helper_gvec_ssadd64,
.opt_opc = vecop_list,
.vece = MO_64 },
};
tcg_debug_assert(vece <= MO_64);
tcg_gen_gvec_3(dofs, aofs, bofs, oprsz, maxsz, &g[vece]);
}
void tcg_gen_gvec_sssub(unsigned vece, uint32_t dofs, uint32_t aofs,
uint32_t bofs, uint32_t oprsz, uint32_t maxsz)
{
static const TCGOpcode vecop_list[] = { INDEX_op_sssub_vec, 0 };
static const GVecGen3 g[4] = {
{ .fniv = tcg_gen_sssub_vec,
.fno = gen_helper_gvec_sssub8,
.opt_opc = vecop_list,
.vece = MO_8 },
{ .fniv = tcg_gen_sssub_vec,
.fno = gen_helper_gvec_sssub16,
.opt_opc = vecop_list,
.vece = MO_16 },
{ .fniv = tcg_gen_sssub_vec,
.fno = gen_helper_gvec_sssub32,
.opt_opc = vecop_list,
.vece = MO_32 },
{ .fniv = tcg_gen_sssub_vec,
.fno = gen_helper_gvec_sssub64,
.opt_opc = vecop_list,
.vece = MO_64 },
};
tcg_debug_assert(vece <= MO_64);
tcg_gen_gvec_3(dofs, aofs, bofs, oprsz, maxsz, &g[vece]);
}
static void tcg_gen_usadd_i32(TCGv_i32 d, TCGv_i32 a, TCGv_i32 b)
{
TCGv_i32 max = tcg_const_i32(-1);
tcg_gen_add_i32(d, a, b);
tcg_gen_movcond_i32(TCG_COND_LTU, d, d, a, max, d);
tcg_temp_free_i32(max);
}
static void tcg_gen_usadd_i64(TCGv_i64 d, TCGv_i64 a, TCGv_i64 b)
{
TCGv_i64 max = tcg_const_i64(-1);
tcg_gen_add_i64(d, a, b);
tcg_gen_movcond_i64(TCG_COND_LTU, d, d, a, max, d);
tcg_temp_free_i64(max);
}
void tcg_gen_gvec_usadd(unsigned vece, uint32_t dofs, uint32_t aofs,
uint32_t bofs, uint32_t oprsz, uint32_t maxsz)
{
static const TCGOpcode vecop_list[] = { INDEX_op_usadd_vec, 0 };
static const GVecGen3 g[4] = {
{ .fniv = tcg_gen_usadd_vec,
.fno = gen_helper_gvec_usadd8,
.opt_opc = vecop_list,
.vece = MO_8 },
{ .fniv = tcg_gen_usadd_vec,
.fno = gen_helper_gvec_usadd16,
.opt_opc = vecop_list,
.vece = MO_16 },
{ .fni4 = tcg_gen_usadd_i32,
.fniv = tcg_gen_usadd_vec,
.fno = gen_helper_gvec_usadd32,
.opt_opc = vecop_list,
.vece = MO_32 },
{ .fni8 = tcg_gen_usadd_i64,
.fniv = tcg_gen_usadd_vec,
.fno = gen_helper_gvec_usadd64,
.opt_opc = vecop_list,
.vece = MO_64 }
};
tcg_debug_assert(vece <= MO_64);
tcg_gen_gvec_3(dofs, aofs, bofs, oprsz, maxsz, &g[vece]);
}
static void tcg_gen_ussub_i32(TCGv_i32 d, TCGv_i32 a, TCGv_i32 b)
{
TCGv_i32 min = tcg_const_i32(0);
tcg_gen_sub_i32(d, a, b);
tcg_gen_movcond_i32(TCG_COND_LTU, d, a, b, min, d);
tcg_temp_free_i32(min);
}
static void tcg_gen_ussub_i64(TCGv_i64 d, TCGv_i64 a, TCGv_i64 b)
{
TCGv_i64 min = tcg_const_i64(0);
tcg_gen_sub_i64(d, a, b);
tcg_gen_movcond_i64(TCG_COND_LTU, d, a, b, min, d);
tcg_temp_free_i64(min);
}
void tcg_gen_gvec_ussub(unsigned vece, uint32_t dofs, uint32_t aofs,
uint32_t bofs, uint32_t oprsz, uint32_t maxsz)
{
static const TCGOpcode vecop_list[] = { INDEX_op_ussub_vec, 0 };
static const GVecGen3 g[4] = {
{ .fniv = tcg_gen_ussub_vec,
.fno = gen_helper_gvec_ussub8,
.opt_opc = vecop_list,
.vece = MO_8 },
{ .fniv = tcg_gen_ussub_vec,
.fno = gen_helper_gvec_ussub16,
.opt_opc = vecop_list,
.vece = MO_16 },
{ .fni4 = tcg_gen_ussub_i32,
.fniv = tcg_gen_ussub_vec,
.fno = gen_helper_gvec_ussub32,
.opt_opc = vecop_list,
.vece = MO_32 },
{ .fni8 = tcg_gen_ussub_i64,
.fniv = tcg_gen_ussub_vec,
.fno = gen_helper_gvec_ussub64,
.opt_opc = vecop_list,
.vece = MO_64 }
};
tcg_debug_assert(vece <= MO_64);
tcg_gen_gvec_3(dofs, aofs, bofs, oprsz, maxsz, &g[vece]);
}
void tcg_gen_gvec_smin(unsigned vece, uint32_t dofs, uint32_t aofs,
uint32_t bofs, uint32_t oprsz, uint32_t maxsz)
{
static const TCGOpcode vecop_list[] = { INDEX_op_smin_vec, 0 };
static const GVecGen3 g[4] = {
{ .fniv = tcg_gen_smin_vec,
.fno = gen_helper_gvec_smin8,
.opt_opc = vecop_list,
.vece = MO_8 },
{ .fniv = tcg_gen_smin_vec,
.fno = gen_helper_gvec_smin16,
.opt_opc = vecop_list,
.vece = MO_16 },
{ .fni4 = tcg_gen_smin_i32,
.fniv = tcg_gen_smin_vec,
.fno = gen_helper_gvec_smin32,
.opt_opc = vecop_list,
.vece = MO_32 },
{ .fni8 = tcg_gen_smin_i64,
.fniv = tcg_gen_smin_vec,
.fno = gen_helper_gvec_smin64,
.opt_opc = vecop_list,
.vece = MO_64 }
};
tcg_debug_assert(vece <= MO_64);
tcg_gen_gvec_3(dofs, aofs, bofs, oprsz, maxsz, &g[vece]);
}
void tcg_gen_gvec_umin(unsigned vece, uint32_t dofs, uint32_t aofs,
uint32_t bofs, uint32_t oprsz, uint32_t maxsz)
{
static const TCGOpcode vecop_list[] = { INDEX_op_umin_vec, 0 };
static const GVecGen3 g[4] = {
{ .fniv = tcg_gen_umin_vec,
.fno = gen_helper_gvec_umin8,
.opt_opc = vecop_list,
.vece = MO_8 },
{ .fniv = tcg_gen_umin_vec,
.fno = gen_helper_gvec_umin16,
.opt_opc = vecop_list,
.vece = MO_16 },
{ .fni4 = tcg_gen_umin_i32,
.fniv = tcg_gen_umin_vec,
.fno = gen_helper_gvec_umin32,
.opt_opc = vecop_list,
.vece = MO_32 },
{ .fni8 = tcg_gen_umin_i64,
.fniv = tcg_gen_umin_vec,
.fno = gen_helper_gvec_umin64,
.opt_opc = vecop_list,
.vece = MO_64 }
};
tcg_debug_assert(vece <= MO_64);
tcg_gen_gvec_3(dofs, aofs, bofs, oprsz, maxsz, &g[vece]);
}
void tcg_gen_gvec_smax(unsigned vece, uint32_t dofs, uint32_t aofs,
uint32_t bofs, uint32_t oprsz, uint32_t maxsz)
{
static const TCGOpcode vecop_list[] = { INDEX_op_smax_vec, 0 };
static const GVecGen3 g[4] = {
{ .fniv = tcg_gen_smax_vec,
.fno = gen_helper_gvec_smax8,
.opt_opc = vecop_list,
.vece = MO_8 },
{ .fniv = tcg_gen_smax_vec,
.fno = gen_helper_gvec_smax16,
.opt_opc = vecop_list,
.vece = MO_16 },
{ .fni4 = tcg_gen_smax_i32,
.fniv = tcg_gen_smax_vec,
.fno = gen_helper_gvec_smax32,
.opt_opc = vecop_list,
.vece = MO_32 },
{ .fni8 = tcg_gen_smax_i64,
.fniv = tcg_gen_smax_vec,
.fno = gen_helper_gvec_smax64,
.opt_opc = vecop_list,
.vece = MO_64 }
};
tcg_debug_assert(vece <= MO_64);
tcg_gen_gvec_3(dofs, aofs, bofs, oprsz, maxsz, &g[vece]);
}
void tcg_gen_gvec_umax(unsigned vece, uint32_t dofs, uint32_t aofs,
uint32_t bofs, uint32_t oprsz, uint32_t maxsz)
{
static const TCGOpcode vecop_list[] = { INDEX_op_umax_vec, 0 };
static const GVecGen3 g[4] = {
{ .fniv = tcg_gen_umax_vec,
.fno = gen_helper_gvec_umax8,
.opt_opc = vecop_list,
.vece = MO_8 },
{ .fniv = tcg_gen_umax_vec,
.fno = gen_helper_gvec_umax16,
.opt_opc = vecop_list,
.vece = MO_16 },
{ .fni4 = tcg_gen_umax_i32,
.fniv = tcg_gen_umax_vec,
.fno = gen_helper_gvec_umax32,
.opt_opc = vecop_list,
.vece = MO_32 },
{ .fni8 = tcg_gen_umax_i64,
.fniv = tcg_gen_umax_vec,
.fno = gen_helper_gvec_umax64,
.opt_opc = vecop_list,
.vece = MO_64 }
};
tcg_debug_assert(vece <= MO_64);
tcg_gen_gvec_3(dofs, aofs, bofs, oprsz, maxsz, &g[vece]);
}
/* Perform a vector negation using normal negation and a mask.
Compare gen_subv_mask above. */
static void gen_negv_mask(TCGv_i64 d, TCGv_i64 b, TCGv_i64 m)
{
TCGv_i64 t2 = tcg_temp_new_i64();
TCGv_i64 t3 = tcg_temp_new_i64();
tcg_gen_andc_i64(t3, m, b);
tcg_gen_andc_i64(t2, b, m);
tcg_gen_sub_i64(d, m, t2);
tcg_gen_xor_i64(d, d, t3);
tcg_temp_free_i64(t2);
tcg_temp_free_i64(t3);
}
void tcg_gen_vec_neg8_i64(TCGv_i64 d, TCGv_i64 b)
{
TCGv_i64 m = tcg_const_i64(dup_const(MO_8, 0x80));
gen_negv_mask(d, b, m);
tcg_temp_free_i64(m);
}
void tcg_gen_vec_neg16_i64(TCGv_i64 d, TCGv_i64 b)
{
TCGv_i64 m = tcg_const_i64(dup_const(MO_16, 0x8000));
gen_negv_mask(d, b, m);
tcg_temp_free_i64(m);
}
void tcg_gen_vec_neg32_i64(TCGv_i64 d, TCGv_i64 b)
{
TCGv_i64 t1 = tcg_temp_new_i64();
TCGv_i64 t2 = tcg_temp_new_i64();
tcg_gen_andi_i64(t1, b, ~0xffffffffull);
tcg_gen_neg_i64(t2, b);
tcg_gen_neg_i64(t1, t1);
tcg_gen_deposit_i64(d, t1, t2, 0, 32);
tcg_temp_free_i64(t1);
tcg_temp_free_i64(t2);
}
void tcg_gen_gvec_neg(unsigned vece, uint32_t dofs, uint32_t aofs,
uint32_t oprsz, uint32_t maxsz)
{
static const TCGOpcode vecop_list[] = { INDEX_op_neg_vec, 0 };
static const GVecGen2 g[4] = {
{ .fni8 = tcg_gen_vec_neg8_i64,
.fniv = tcg_gen_neg_vec,
.fno = gen_helper_gvec_neg8,
.opt_opc = vecop_list,
.vece = MO_8 },
{ .fni8 = tcg_gen_vec_neg16_i64,
.fniv = tcg_gen_neg_vec,
.fno = gen_helper_gvec_neg16,
.opt_opc = vecop_list,
.vece = MO_16 },
{ .fni4 = tcg_gen_neg_i32,
.fniv = tcg_gen_neg_vec,
.fno = gen_helper_gvec_neg32,
.opt_opc = vecop_list,
.vece = MO_32 },
{ .fni8 = tcg_gen_neg_i64,
.fniv = tcg_gen_neg_vec,
.fno = gen_helper_gvec_neg64,
.opt_opc = vecop_list,
.prefer_i64 = TCG_TARGET_REG_BITS == 64,
.vece = MO_64 },
};
tcg_debug_assert(vece <= MO_64);
tcg_gen_gvec_2(dofs, aofs, oprsz, maxsz, &g[vece]);
}
void tcg_gen_gvec_and(unsigned vece, uint32_t dofs, uint32_t aofs,
uint32_t bofs, uint32_t oprsz, uint32_t maxsz)
{
static const GVecGen3 g = {
.fni8 = tcg_gen_and_i64,
.fniv = tcg_gen_and_vec,
.fno = gen_helper_gvec_and,
.prefer_i64 = TCG_TARGET_REG_BITS == 64,
};
if (aofs == bofs) {
tcg_gen_gvec_mov(vece, dofs, aofs, oprsz, maxsz);
} else {
tcg_gen_gvec_3(dofs, aofs, bofs, oprsz, maxsz, &g);
}
}
void tcg_gen_gvec_or(unsigned vece, uint32_t dofs, uint32_t aofs,
uint32_t bofs, uint32_t oprsz, uint32_t maxsz)
{
static const GVecGen3 g = {
.fni8 = tcg_gen_or_i64,
.fniv = tcg_gen_or_vec,
.fno = gen_helper_gvec_or,
.prefer_i64 = TCG_TARGET_REG_BITS == 64,
};
if (aofs == bofs) {
tcg_gen_gvec_mov(vece, dofs, aofs, oprsz, maxsz);
} else {
tcg_gen_gvec_3(dofs, aofs, bofs, oprsz, maxsz, &g);
}
}
void tcg_gen_gvec_xor(unsigned vece, uint32_t dofs, uint32_t aofs,
uint32_t bofs, uint32_t oprsz, uint32_t maxsz)
{
static const GVecGen3 g = {
.fni8 = tcg_gen_xor_i64,
.fniv = tcg_gen_xor_vec,
.fno = gen_helper_gvec_xor,
.prefer_i64 = TCG_TARGET_REG_BITS == 64,
};
if (aofs == bofs) {
tcg_gen_gvec_dup8i(dofs, oprsz, maxsz, 0);
} else {
tcg_gen_gvec_3(dofs, aofs, bofs, oprsz, maxsz, &g);
}
}
void tcg_gen_gvec_andc(unsigned vece, uint32_t dofs, uint32_t aofs,
uint32_t bofs, uint32_t oprsz, uint32_t maxsz)
{
static const GVecGen3 g = {
.fni8 = tcg_gen_andc_i64,
.fniv = tcg_gen_andc_vec,
.fno = gen_helper_gvec_andc,
.prefer_i64 = TCG_TARGET_REG_BITS == 64,
};
if (aofs == bofs) {
tcg_gen_gvec_dup8i(dofs, oprsz, maxsz, 0);
} else {
tcg_gen_gvec_3(dofs, aofs, bofs, oprsz, maxsz, &g);
}
}
void tcg_gen_gvec_orc(unsigned vece, uint32_t dofs, uint32_t aofs,
uint32_t bofs, uint32_t oprsz, uint32_t maxsz)
{
static const GVecGen3 g = {
.fni8 = tcg_gen_orc_i64,
.fniv = tcg_gen_orc_vec,
.fno = gen_helper_gvec_orc,
.prefer_i64 = TCG_TARGET_REG_BITS == 64,
};
if (aofs == bofs) {
tcg_gen_gvec_dup8i(dofs, oprsz, maxsz, -1);
} else {
tcg_gen_gvec_3(dofs, aofs, bofs, oprsz, maxsz, &g);
}
}
void tcg_gen_gvec_nand(unsigned vece, uint32_t dofs, uint32_t aofs,
uint32_t bofs, uint32_t oprsz, uint32_t maxsz)
{
static const GVecGen3 g = {
.fni8 = tcg_gen_nand_i64,
.fniv = tcg_gen_nand_vec,
.fno = gen_helper_gvec_nand,
.prefer_i64 = TCG_TARGET_REG_BITS == 64,
};
if (aofs == bofs) {
tcg_gen_gvec_not(vece, dofs, aofs, oprsz, maxsz);
} else {
tcg_gen_gvec_3(dofs, aofs, bofs, oprsz, maxsz, &g);
}
}
void tcg_gen_gvec_nor(unsigned vece, uint32_t dofs, uint32_t aofs,
uint32_t bofs, uint32_t oprsz, uint32_t maxsz)
{
static const GVecGen3 g = {
.fni8 = tcg_gen_nor_i64,
.fniv = tcg_gen_nor_vec,
.fno = gen_helper_gvec_nor,
.prefer_i64 = TCG_TARGET_REG_BITS == 64,
};
if (aofs == bofs) {
tcg_gen_gvec_not(vece, dofs, aofs, oprsz, maxsz);
} else {
tcg_gen_gvec_3(dofs, aofs, bofs, oprsz, maxsz, &g);
}
}
void tcg_gen_gvec_eqv(unsigned vece, uint32_t dofs, uint32_t aofs,
uint32_t bofs, uint32_t oprsz, uint32_t maxsz)
{
static const GVecGen3 g = {
.fni8 = tcg_gen_eqv_i64,
.fniv = tcg_gen_eqv_vec,
.fno = gen_helper_gvec_eqv,
.prefer_i64 = TCG_TARGET_REG_BITS == 64,
};
if (aofs == bofs) {
tcg_gen_gvec_dup8i(dofs, oprsz, maxsz, -1);
} else {
tcg_gen_gvec_3(dofs, aofs, bofs, oprsz, maxsz, &g);
}
}
static const GVecGen2s gop_ands = {
.fni8 = tcg_gen_and_i64,
.fniv = tcg_gen_and_vec,
.fno = gen_helper_gvec_ands,
.prefer_i64 = TCG_TARGET_REG_BITS == 64,
.vece = MO_64
};
void tcg_gen_gvec_ands(unsigned vece, uint32_t dofs, uint32_t aofs,
TCGv_i64 c, uint32_t oprsz, uint32_t maxsz)
{
TCGv_i64 tmp = tcg_temp_new_i64();
gen_dup_i64(vece, tmp, c);
tcg_gen_gvec_2s(dofs, aofs, oprsz, maxsz, tmp, &gop_ands);
tcg_temp_free_i64(tmp);
}
void tcg_gen_gvec_andi(unsigned vece, uint32_t dofs, uint32_t aofs,
int64_t c, uint32_t oprsz, uint32_t maxsz)
{
TCGv_i64 tmp = tcg_const_i64(dup_const(vece, c));
tcg_gen_gvec_2s(dofs, aofs, oprsz, maxsz, tmp, &gop_ands);
tcg_temp_free_i64(tmp);
}
static const GVecGen2s gop_xors = {
.fni8 = tcg_gen_xor_i64,
.fniv = tcg_gen_xor_vec,
.fno = gen_helper_gvec_xors,
.prefer_i64 = TCG_TARGET_REG_BITS == 64,
.vece = MO_64
};
void tcg_gen_gvec_xors(unsigned vece, uint32_t dofs, uint32_t aofs,
TCGv_i64 c, uint32_t oprsz, uint32_t maxsz)
{
TCGv_i64 tmp = tcg_temp_new_i64();
gen_dup_i64(vece, tmp, c);
tcg_gen_gvec_2s(dofs, aofs, oprsz, maxsz, tmp, &gop_xors);
tcg_temp_free_i64(tmp);
}
void tcg_gen_gvec_xori(unsigned vece, uint32_t dofs, uint32_t aofs,
int64_t c, uint32_t oprsz, uint32_t maxsz)
{
TCGv_i64 tmp = tcg_const_i64(dup_const(vece, c));
tcg_gen_gvec_2s(dofs, aofs, oprsz, maxsz, tmp, &gop_xors);
tcg_temp_free_i64(tmp);
}
static const GVecGen2s gop_ors = {
.fni8 = tcg_gen_or_i64,
.fniv = tcg_gen_or_vec,
.fno = gen_helper_gvec_ors,
.prefer_i64 = TCG_TARGET_REG_BITS == 64,
.vece = MO_64
};
void tcg_gen_gvec_ors(unsigned vece, uint32_t dofs, uint32_t aofs,
TCGv_i64 c, uint32_t oprsz, uint32_t maxsz)
{
TCGv_i64 tmp = tcg_temp_new_i64();
gen_dup_i64(vece, tmp, c);
tcg_gen_gvec_2s(dofs, aofs, oprsz, maxsz, tmp, &gop_ors);
tcg_temp_free_i64(tmp);
}
void tcg_gen_gvec_ori(unsigned vece, uint32_t dofs, uint32_t aofs,
int64_t c, uint32_t oprsz, uint32_t maxsz)
{
TCGv_i64 tmp = tcg_const_i64(dup_const(vece, c));
tcg_gen_gvec_2s(dofs, aofs, oprsz, maxsz, tmp, &gop_ors);
tcg_temp_free_i64(tmp);
}
void tcg_gen_vec_shl8i_i64(TCGv_i64 d, TCGv_i64 a, int64_t c)
{
uint64_t mask = dup_const(MO_8, 0xff << c);
tcg_gen_shli_i64(d, a, c);
tcg_gen_andi_i64(d, d, mask);
}
void tcg_gen_vec_shl16i_i64(TCGv_i64 d, TCGv_i64 a, int64_t c)
{
uint64_t mask = dup_const(MO_16, 0xffff << c);
tcg_gen_shli_i64(d, a, c);
tcg_gen_andi_i64(d, d, mask);
}
void tcg_gen_gvec_shli(unsigned vece, uint32_t dofs, uint32_t aofs,
int64_t shift, uint32_t oprsz, uint32_t maxsz)
{
static const TCGOpcode vecop_list[] = { INDEX_op_shli_vec, 0 };
static const GVecGen2i g[4] = {
{ .fni8 = tcg_gen_vec_shl8i_i64,
.fniv = tcg_gen_shli_vec,
.fno = gen_helper_gvec_shl8i,
.opt_opc = vecop_list,
.vece = MO_8 },
{ .fni8 = tcg_gen_vec_shl16i_i64,
.fniv = tcg_gen_shli_vec,
.fno = gen_helper_gvec_shl16i,
.opt_opc = vecop_list,
.vece = MO_16 },
{ .fni4 = tcg_gen_shli_i32,
.fniv = tcg_gen_shli_vec,
.fno = gen_helper_gvec_shl32i,
.opt_opc = vecop_list,
.vece = MO_32 },
{ .fni8 = tcg_gen_shli_i64,
.fniv = tcg_gen_shli_vec,
.fno = gen_helper_gvec_shl64i,
.opt_opc = vecop_list,
.prefer_i64 = TCG_TARGET_REG_BITS == 64,
.vece = MO_64 },
};
tcg_debug_assert(vece <= MO_64);
tcg_debug_assert(shift >= 0 && shift < (8 << vece));
if (shift == 0) {
tcg_gen_gvec_mov(vece, dofs, aofs, oprsz, maxsz);
} else {
tcg_gen_gvec_2i(dofs, aofs, oprsz, maxsz, shift, &g[vece]);
}
}
void tcg_gen_vec_shr8i_i64(TCGv_i64 d, TCGv_i64 a, int64_t c)
{
uint64_t mask = dup_const(MO_8, 0xff >> c);
tcg_gen_shri_i64(d, a, c);
tcg_gen_andi_i64(d, d, mask);
}
void tcg_gen_vec_shr16i_i64(TCGv_i64 d, TCGv_i64 a, int64_t c)
{
uint64_t mask = dup_const(MO_16, 0xffff >> c);
tcg_gen_shri_i64(d, a, c);
tcg_gen_andi_i64(d, d, mask);
}
void tcg_gen_gvec_shri(unsigned vece, uint32_t dofs, uint32_t aofs,
int64_t shift, uint32_t oprsz, uint32_t maxsz)
{
static const TCGOpcode vecop_list[] = { INDEX_op_shri_vec, 0 };
static const GVecGen2i g[4] = {
{ .fni8 = tcg_gen_vec_shr8i_i64,
.fniv = tcg_gen_shri_vec,
.fno = gen_helper_gvec_shr8i,
.opt_opc = vecop_list,
.vece = MO_8 },
{ .fni8 = tcg_gen_vec_shr16i_i64,
.fniv = tcg_gen_shri_vec,
.fno = gen_helper_gvec_shr16i,
.opt_opc = vecop_list,
.vece = MO_16 },
{ .fni4 = tcg_gen_shri_i32,
.fniv = tcg_gen_shri_vec,
.fno = gen_helper_gvec_shr32i,
.opt_opc = vecop_list,
.vece = MO_32 },
{ .fni8 = tcg_gen_shri_i64,
.fniv = tcg_gen_shri_vec,
.fno = gen_helper_gvec_shr64i,
.opt_opc = vecop_list,
.prefer_i64 = TCG_TARGET_REG_BITS == 64,
.vece = MO_64 },
};
tcg_debug_assert(vece <= MO_64);
tcg_debug_assert(shift >= 0 && shift < (8 << vece));
if (shift == 0) {
tcg_gen_gvec_mov(vece, dofs, aofs, oprsz, maxsz);
} else {
tcg_gen_gvec_2i(dofs, aofs, oprsz, maxsz, shift, &g[vece]);
}
}
void tcg_gen_vec_sar8i_i64(TCGv_i64 d, TCGv_i64 a, int64_t c)
{
uint64_t s_mask = dup_const(MO_8, 0x80 >> c);
uint64_t c_mask = dup_const(MO_8, 0xff >> c);
TCGv_i64 s = tcg_temp_new_i64();
tcg_gen_shri_i64(d, a, c);
tcg_gen_andi_i64(s, d, s_mask); /* isolate (shifted) sign bit */
tcg_gen_muli_i64(s, s, (2 << c) - 2); /* replicate isolated signs */
tcg_gen_andi_i64(d, d, c_mask); /* clear out bits above sign */
tcg_gen_or_i64(d, d, s); /* include sign extension */
tcg_temp_free_i64(s);
}
void tcg_gen_vec_sar16i_i64(TCGv_i64 d, TCGv_i64 a, int64_t c)
{
uint64_t s_mask = dup_const(MO_16, 0x8000 >> c);
uint64_t c_mask = dup_const(MO_16, 0xffff >> c);
TCGv_i64 s = tcg_temp_new_i64();
tcg_gen_shri_i64(d, a, c);
tcg_gen_andi_i64(s, d, s_mask); /* isolate (shifted) sign bit */
tcg_gen_andi_i64(d, d, c_mask); /* clear out bits above sign */
tcg_gen_muli_i64(s, s, (2 << c) - 2); /* replicate isolated signs */
tcg_gen_or_i64(d, d, s); /* include sign extension */
tcg_temp_free_i64(s);
}
void tcg_gen_gvec_sari(unsigned vece, uint32_t dofs, uint32_t aofs,
int64_t shift, uint32_t oprsz, uint32_t maxsz)
{
static const TCGOpcode vecop_list[] = { INDEX_op_sari_vec, 0 };
static const GVecGen2i g[4] = {
{ .fni8 = tcg_gen_vec_sar8i_i64,
.fniv = tcg_gen_sari_vec,
.fno = gen_helper_gvec_sar8i,
.opt_opc = vecop_list,
.vece = MO_8 },
{ .fni8 = tcg_gen_vec_sar16i_i64,
.fniv = tcg_gen_sari_vec,
.fno = gen_helper_gvec_sar16i,
.opt_opc = vecop_list,
.vece = MO_16 },
{ .fni4 = tcg_gen_sari_i32,
.fniv = tcg_gen_sari_vec,
.fno = gen_helper_gvec_sar32i,
.opt_opc = vecop_list,
.vece = MO_32 },
{ .fni8 = tcg_gen_sari_i64,
.fniv = tcg_gen_sari_vec,
.fno = gen_helper_gvec_sar64i,
.opt_opc = vecop_list,
.prefer_i64 = TCG_TARGET_REG_BITS == 64,
.vece = MO_64 },
};
tcg_debug_assert(vece <= MO_64);
tcg_debug_assert(shift >= 0 && shift < (8 << vece));
if (shift == 0) {
tcg_gen_gvec_mov(vece, dofs, aofs, oprsz, maxsz);
} else {
tcg_gen_gvec_2i(dofs, aofs, oprsz, maxsz, shift, &g[vece]);
}
}
/* Expand OPSZ bytes worth of three-operand operations using i32 elements. */
static void expand_cmp_i32(uint32_t dofs, uint32_t aofs, uint32_t bofs,
uint32_t oprsz, TCGCond cond)
{
TCGv_i32 t0 = tcg_temp_new_i32();
TCGv_i32 t1 = tcg_temp_new_i32();
uint32_t i;
for (i = 0; i < oprsz; i += 4) {
tcg_gen_ld_i32(t0, cpu_env, aofs + i);
tcg_gen_ld_i32(t1, cpu_env, bofs + i);
tcg_gen_setcond_i32(cond, t0, t0, t1);
tcg_gen_neg_i32(t0, t0);
tcg_gen_st_i32(t0, cpu_env, dofs + i);
}
tcg_temp_free_i32(t1);
tcg_temp_free_i32(t0);
}
static void expand_cmp_i64(uint32_t dofs, uint32_t aofs, uint32_t bofs,
uint32_t oprsz, TCGCond cond)
{
TCGv_i64 t0 = tcg_temp_new_i64();
TCGv_i64 t1 = tcg_temp_new_i64();
uint32_t i;
for (i = 0; i < oprsz; i += 8) {
tcg_gen_ld_i64(t0, cpu_env, aofs + i);
tcg_gen_ld_i64(t1, cpu_env, bofs + i);
tcg_gen_setcond_i64(cond, t0, t0, t1);
tcg_gen_neg_i64(t0, t0);
tcg_gen_st_i64(t0, cpu_env, dofs + i);
}
tcg_temp_free_i64(t1);
tcg_temp_free_i64(t0);
}
static void expand_cmp_vec(unsigned vece, uint32_t dofs, uint32_t aofs,
uint32_t bofs, uint32_t oprsz, uint32_t tysz,
TCGType type, TCGCond cond)
{
TCGv_vec t0 = tcg_temp_new_vec(type);
TCGv_vec t1 = tcg_temp_new_vec(type);
uint32_t i;
for (i = 0; i < oprsz; i += tysz) {
tcg_gen_ld_vec(t0, cpu_env, aofs + i);
tcg_gen_ld_vec(t1, cpu_env, bofs + i);
tcg_gen_cmp_vec(cond, vece, t0, t0, t1);
tcg_gen_st_vec(t0, cpu_env, dofs + i);
}
tcg_temp_free_vec(t1);
tcg_temp_free_vec(t0);
}
void tcg_gen_gvec_cmp(TCGCond cond, unsigned vece, uint32_t dofs,
uint32_t aofs, uint32_t bofs,
uint32_t oprsz, uint32_t maxsz)
{
static const TCGOpcode cmp_list[] = { INDEX_op_cmp_vec, 0 };
static gen_helper_gvec_3 * const eq_fn[4] = {
gen_helper_gvec_eq8, gen_helper_gvec_eq16,
gen_helper_gvec_eq32, gen_helper_gvec_eq64
};
static gen_helper_gvec_3 * const ne_fn[4] = {
gen_helper_gvec_ne8, gen_helper_gvec_ne16,
gen_helper_gvec_ne32, gen_helper_gvec_ne64
};
static gen_helper_gvec_3 * const lt_fn[4] = {
gen_helper_gvec_lt8, gen_helper_gvec_lt16,
gen_helper_gvec_lt32, gen_helper_gvec_lt64
};
static gen_helper_gvec_3 * const le_fn[4] = {
gen_helper_gvec_le8, gen_helper_gvec_le16,
gen_helper_gvec_le32, gen_helper_gvec_le64
};
static gen_helper_gvec_3 * const ltu_fn[4] = {
gen_helper_gvec_ltu8, gen_helper_gvec_ltu16,
gen_helper_gvec_ltu32, gen_helper_gvec_ltu64
};
static gen_helper_gvec_3 * const leu_fn[4] = {
gen_helper_gvec_leu8, gen_helper_gvec_leu16,
gen_helper_gvec_leu32, gen_helper_gvec_leu64
};
static gen_helper_gvec_3 * const * const fns[16] = {
[TCG_COND_EQ] = eq_fn,
[TCG_COND_NE] = ne_fn,
[TCG_COND_LT] = lt_fn,
[TCG_COND_LE] = le_fn,
[TCG_COND_LTU] = ltu_fn,
[TCG_COND_LEU] = leu_fn,
};
const TCGOpcode *hold_list;
TCGType type;
uint32_t some;
check_size_align(oprsz, maxsz, dofs | aofs | bofs);
check_overlap_3(dofs, aofs, bofs, maxsz);
if (cond == TCG_COND_NEVER || cond == TCG_COND_ALWAYS) {
do_dup(MO_8, dofs, oprsz, maxsz,
NULL, NULL, -(cond == TCG_COND_ALWAYS));
return;
}
/*
* Implement inline with a vector type, if possible.
* Prefer integer when 64-bit host and 64-bit comparison.
*/
hold_list = tcg_swap_vecop_list(cmp_list);
type = choose_vector_type(cmp_list, vece, oprsz,
TCG_TARGET_REG_BITS == 64 && vece == MO_64);
switch (type) {
case TCG_TYPE_V256:
/* Recall that ARM SVE allows vector sizes that are not a
* power of 2, but always a multiple of 16. The intent is
* that e.g. size == 80 would be expanded with 2x32 + 1x16.
*/
some = QEMU_ALIGN_DOWN(oprsz, 32);
expand_cmp_vec(vece, dofs, aofs, bofs, some, 32, TCG_TYPE_V256, cond);
if (some == oprsz) {
break;
}
dofs += some;
aofs += some;
bofs += some;
oprsz -= some;
maxsz -= some;
/* fallthru */
case TCG_TYPE_V128:
expand_cmp_vec(vece, dofs, aofs, bofs, oprsz, 16, TCG_TYPE_V128, cond);
break;
case TCG_TYPE_V64:
expand_cmp_vec(vece, dofs, aofs, bofs, oprsz, 8, TCG_TYPE_V64, cond);
break;
case 0:
if (vece == MO_64 && check_size_impl(oprsz, 8)) {
expand_cmp_i64(dofs, aofs, bofs, oprsz, cond);
} else if (vece == MO_32 && check_size_impl(oprsz, 4)) {
expand_cmp_i32(dofs, aofs, bofs, oprsz, cond);
} else {
gen_helper_gvec_3 * const *fn = fns[cond];
if (fn == NULL) {
uint32_t tmp;
tmp = aofs, aofs = bofs, bofs = tmp;
cond = tcg_swap_cond(cond);
fn = fns[cond];
assert(fn != NULL);
}
tcg_gen_gvec_3_ool(dofs, aofs, bofs, oprsz, maxsz, 0, fn[vece]);
oprsz = maxsz;
}
break;
default:
g_assert_not_reached();
}
tcg_swap_vecop_list(hold_list);
if (oprsz < maxsz) {
expand_clr(dofs + oprsz, maxsz - oprsz);
}
}
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