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7dbe11acd8
qemu-e2k/target-ppc/op.c
j_mayer 7dbe11acd8 Handle all MMU models in switches, even if it's just to abort because of lack 
of supporting code.
Implement 74xx software TLB model.
Keep 74xx with software TLB disabled, as Linux is not able to handle TLB miss
  on those processors.


git-svn-id: svn://svn.savannah.nongnu.org/qemu/trunk@3307 c046a42c-6fe2-441c-8c8c-71466251a162
2007-10-01 05:16:57 +00:00

3356 lines
49 KiB
C
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/*
* PowerPC emulation micro-operations for qemu.
*
* Copyright (c) 2003-2007 Jocelyn Mayer
*
* 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, write to the Free Software
* Foundation, Inc., 59 Temple Place, Suite 330, Boston, MA 02111-1307 USA
*/
//#define DEBUG_OP
#include "config.h"
#include "exec.h"
#include "op_helper.h"
#define REG 0
#include "op_template.h"
#define REG 1
#include "op_template.h"
#define REG 2
#include "op_template.h"
#define REG 3
#include "op_template.h"
#define REG 4
#include "op_template.h"
#define REG 5
#include "op_template.h"
#define REG 6
#include "op_template.h"
#define REG 7
#include "op_template.h"
#define REG 8
#include "op_template.h"
#define REG 9
#include "op_template.h"
#define REG 10
#include "op_template.h"
#define REG 11
#include "op_template.h"
#define REG 12
#include "op_template.h"
#define REG 13
#include "op_template.h"
#define REG 14
#include "op_template.h"
#define REG 15
#include "op_template.h"
#define REG 16
#include "op_template.h"
#define REG 17
#include "op_template.h"
#define REG 18
#include "op_template.h"
#define REG 19
#include "op_template.h"
#define REG 20
#include "op_template.h"
#define REG 21
#include "op_template.h"
#define REG 22
#include "op_template.h"
#define REG 23
#include "op_template.h"
#define REG 24
#include "op_template.h"
#define REG 25
#include "op_template.h"
#define REG 26
#include "op_template.h"
#define REG 27
#include "op_template.h"
#define REG 28
#include "op_template.h"
#define REG 29
#include "op_template.h"
#define REG 30
#include "op_template.h"
#define REG 31
#include "op_template.h"
void OPPROTO op_print_mem_EA (void)
{
do_print_mem_EA(T0);
RETURN();
}
/* PowerPC state maintenance operations */
/* set_Rc0 */
void OPPROTO op_set_Rc0 (void)
{
env->crf[0] = T0 | xer_so;
RETURN();
}
/* Set Rc1 (for floating point arithmetic) */
void OPPROTO op_set_Rc1 (void)
{
env->crf[1] = env->fpscr[7];
RETURN();
}
/* Constants load */
void OPPROTO op_reset_T0 (void)
{
T0 = 0;
RETURN();
}
void OPPROTO op_set_T0 (void)
{
T0 = (uint32_t)PARAM1;
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_set_T0_64 (void)
{
T0 = ((uint64_t)PARAM1 << 32) | (uint64_t)PARAM2;
RETURN();
}
#endif
void OPPROTO op_set_T1 (void)
{
T1 = (uint32_t)PARAM1;
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_set_T1_64 (void)
{
T1 = ((uint64_t)PARAM1 << 32) | (uint64_t)PARAM2;
RETURN();
}
#endif
#if 0 // unused
void OPPROTO op_set_T2 (void)
{
T2 = PARAM1;
RETURN();
}
#endif
void OPPROTO op_move_T1_T0 (void)
{
T1 = T0;
RETURN();
}
void OPPROTO op_move_T2_T0 (void)
{
T2 = T0;
RETURN();
}
/* Generate exceptions */
void OPPROTO op_raise_exception_err (void)
{
do_raise_exception_err(PARAM1, PARAM2);
}
void OPPROTO op_update_nip (void)
{
env->nip = (uint32_t)PARAM1;
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_update_nip_64 (void)
{
env->nip = ((uint64_t)PARAM1 << 32) | (uint64_t)PARAM2;
RETURN();
}
#endif
void OPPROTO op_debug (void)
{
do_raise_exception(EXCP_DEBUG);
}
void OPPROTO op_exit_tb (void)
{
EXIT_TB();
}
/* Load/store special registers */
void OPPROTO op_load_cr (void)
{
do_load_cr();
RETURN();
}
void OPPROTO op_store_cr (void)
{
do_store_cr(PARAM1);
RETURN();
}
void OPPROTO op_load_cro (void)
{
T0 = env->crf[PARAM1];
RETURN();
}
void OPPROTO op_store_cro (void)
{
env->crf[PARAM1] = T0;
RETURN();
}
void OPPROTO op_load_xer_cr (void)
{
T0 = (xer_so << 3) | (xer_ov << 2) | (xer_ca << 1);
RETURN();
}
void OPPROTO op_clear_xer_ov (void)
{
xer_so = 0;
xer_ov = 0;
RETURN();
}
void OPPROTO op_clear_xer_ca (void)
{
xer_ca = 0;
RETURN();
}
void OPPROTO op_load_xer_bc (void)
{
T1 = xer_bc;
RETURN();
}
void OPPROTO op_store_xer_bc (void)
{
xer_bc = T0;
RETURN();
}
void OPPROTO op_load_xer (void)
{
do_load_xer();
RETURN();
}
void OPPROTO op_store_xer (void)
{
do_store_xer();
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_store_pri (void)
{
do_store_pri(PARAM1);
RETURN();
}
#endif
#if !defined(CONFIG_USER_ONLY)
/* Segment registers load and store */
void OPPROTO op_load_sr (void)
{
T0 = env->sr[T1];
RETURN();
}
void OPPROTO op_store_sr (void)
{
do_store_sr(env, T1, T0);
RETURN();
}
void OPPROTO op_load_sdr1 (void)
{
T0 = env->sdr1;
RETURN();
}
void OPPROTO op_store_sdr1 (void)
{
do_store_sdr1(env, T0);
RETURN();
}
#if defined (TARGET_PPC64)
void OPPROTO op_load_asr (void)
{
T0 = env->asr;
RETURN();
}
void OPPROTO op_store_asr (void)
{
ppc_store_asr(env, T0);
RETURN();
}
#endif
void OPPROTO op_load_msr (void)
{
T0 = do_load_msr(env);
RETURN();
}
void OPPROTO op_store_msr (void)
{
do_store_msr(env, T0);
RETURN();
}
void OPPROTO op_update_riee (void)
{
msr_ri = (T0 >> MSR_RI) & 1;
msr_ee = (T0 >> MSR_EE) & 1;
RETURN();
}
#if defined (TARGET_PPC64)
void OPPROTO op_store_msr_32 (void)
{
ppc_store_msr_32(env, T0);
RETURN();
}
#endif
#endif
/* SPR */
void OPPROTO op_load_spr (void)
{
T0 = env->spr[PARAM1];
RETURN();
}
void OPPROTO op_store_spr (void)
{
env->spr[PARAM1] = T0;
RETURN();
}
void OPPROTO op_load_dump_spr (void)
{
T0 = ppc_load_dump_spr(PARAM1);
RETURN();
}
void OPPROTO op_store_dump_spr (void)
{
ppc_store_dump_spr(PARAM1, T0);
RETURN();
}
void OPPROTO op_mask_spr (void)
{
env->spr[PARAM1] &= ~T0;
RETURN();
}
void OPPROTO op_load_lr (void)
{
T0 = env->lr;
RETURN();
}
void OPPROTO op_store_lr (void)
{
env->lr = T0;
RETURN();
}
void OPPROTO op_load_ctr (void)
{
T0 = env->ctr;
RETURN();
}
void OPPROTO op_store_ctr (void)
{
env->ctr = T0;
RETURN();
}
void OPPROTO op_load_tbl (void)
{
T0 = cpu_ppc_load_tbl(env);
RETURN();
}
void OPPROTO op_load_tbu (void)
{
T0 = cpu_ppc_load_tbu(env);
RETURN();
}
void OPPROTO op_load_atbl (void)
{
T0 = cpu_ppc_load_atbl(env);
RETURN();
}
void OPPROTO op_load_atbu (void)
{
T0 = cpu_ppc_load_atbu(env);
RETURN();
}
#if !defined(CONFIG_USER_ONLY)
void OPPROTO op_store_tbl (void)
{
cpu_ppc_store_tbl(env, T0);
RETURN();
}
void OPPROTO op_store_tbu (void)
{
cpu_ppc_store_tbu(env, T0);
RETURN();
}
void OPPROTO op_store_atbl (void)
{
cpu_ppc_store_atbl(env, T0);
RETURN();
}
void OPPROTO op_store_atbu (void)
{
cpu_ppc_store_atbu(env, T0);
RETURN();
}
void OPPROTO op_load_decr (void)
{
T0 = cpu_ppc_load_decr(env);
RETURN();
}
void OPPROTO op_store_decr (void)
{
cpu_ppc_store_decr(env, T0);
RETURN();
}
void OPPROTO op_load_ibat (void)
{
T0 = env->IBAT[PARAM1][PARAM2];
RETURN();
}
void OPPROTO op_store_ibatu (void)
{
do_store_ibatu(env, PARAM1, T0);
RETURN();
}
void OPPROTO op_store_ibatl (void)
{
#if 1
env->IBAT[1][PARAM1] = T0;
#else
do_store_ibatl(env, PARAM1, T0);
#endif
RETURN();
}
void OPPROTO op_load_dbat (void)
{
T0 = env->DBAT[PARAM1][PARAM2];
RETURN();
}
void OPPROTO op_store_dbatu (void)
{
do_store_dbatu(env, PARAM1, T0);
RETURN();
}
void OPPROTO op_store_dbatl (void)
{
#if 1
env->DBAT[1][PARAM1] = T0;
#else
do_store_dbatl(env, PARAM1, T0);
#endif
RETURN();
}
#endif /* !defined(CONFIG_USER_ONLY) */
/* FPSCR */
void OPPROTO op_load_fpscr (void)
{
do_load_fpscr();
RETURN();
}
void OPPROTO op_store_fpscr (void)
{
do_store_fpscr(PARAM1);
RETURN();
}
void OPPROTO op_reset_scrfx (void)
{
env->fpscr[7] &= ~0x8;
RETURN();
}
/* crf operations */
void OPPROTO op_getbit_T0 (void)
{
T0 = (T0 >> PARAM1) & 1;
RETURN();
}
void OPPROTO op_getbit_T1 (void)
{
T1 = (T1 >> PARAM1) & 1;
RETURN();
}
void OPPROTO op_setcrfbit (void)
{
T1 = (T1 & PARAM1) | (T0 << PARAM2);
RETURN();
}
/* Branch */
#define EIP env->nip
void OPPROTO op_setlr (void)
{
env->lr = (uint32_t)PARAM1;
RETURN();
}
#if defined (TARGET_PPC64)
void OPPROTO op_setlr_64 (void)
{
env->lr = ((uint64_t)PARAM1 << 32) | (uint64_t)PARAM2;
RETURN();
}
#endif
void OPPROTO op_goto_tb0 (void)
{
GOTO_TB(op_goto_tb0, PARAM1, 0);
}
void OPPROTO op_goto_tb1 (void)
{
GOTO_TB(op_goto_tb1, PARAM1, 1);
}
void OPPROTO op_b_T1 (void)
{
env->nip = (uint32_t)(T1 & ~3);
RETURN();
}
#if defined (TARGET_PPC64)
void OPPROTO op_b_T1_64 (void)
{
env->nip = (uint64_t)(T1 & ~3);
RETURN();
}
#endif
void OPPROTO op_jz_T0 (void)
{
if (!T0)
GOTO_LABEL_PARAM(1);
RETURN();
}
void OPPROTO op_btest_T1 (void)
{
if (T0) {
env->nip = (uint32_t)(T1 & ~3);
} else {
env->nip = (uint32_t)PARAM1;
}
RETURN();
}
#if defined (TARGET_PPC64)
void OPPROTO op_btest_T1_64 (void)
{
if (T0) {
env->nip = (uint64_t)(T1 & ~3);
} else {
env->nip = ((uint64_t)PARAM1 << 32) | (uint64_t)PARAM2;
}
RETURN();
}
#endif
void OPPROTO op_movl_T1_ctr (void)
{
T1 = env->ctr;
RETURN();
}
void OPPROTO op_movl_T1_lr (void)
{
T1 = env->lr;
RETURN();
}
/* tests with result in T0 */
void OPPROTO op_test_ctr (void)
{
T0 = (uint32_t)env->ctr;
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_test_ctr_64 (void)
{
T0 = (uint64_t)env->ctr;
RETURN();
}
#endif
void OPPROTO op_test_ctr_true (void)
{
T0 = ((uint32_t)env->ctr != 0 && (T0 & PARAM1) != 0);
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_test_ctr_true_64 (void)
{
T0 = ((uint64_t)env->ctr != 0 && (T0 & PARAM1) != 0);
RETURN();
}
#endif
void OPPROTO op_test_ctr_false (void)
{
T0 = ((uint32_t)env->ctr != 0 && (T0 & PARAM1) == 0);
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_test_ctr_false_64 (void)
{
T0 = ((uint64_t)env->ctr != 0 && (T0 & PARAM1) == 0);
RETURN();
}
#endif
void OPPROTO op_test_ctrz (void)
{
T0 = ((uint32_t)env->ctr == 0);
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_test_ctrz_64 (void)
{
T0 = ((uint64_t)env->ctr == 0);
RETURN();
}
#endif
void OPPROTO op_test_ctrz_true (void)
{
T0 = ((uint32_t)env->ctr == 0 && (T0 & PARAM1) != 0);
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_test_ctrz_true_64 (void)
{
T0 = ((uint64_t)env->ctr == 0 && (T0 & PARAM1) != 0);
RETURN();
}
#endif
void OPPROTO op_test_ctrz_false (void)
{
T0 = ((uint32_t)env->ctr == 0 && (T0 & PARAM1) == 0);
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_test_ctrz_false_64 (void)
{
T0 = ((uint64_t)env->ctr == 0 && (T0 & PARAM1) == 0);
RETURN();
}
#endif
void OPPROTO op_test_true (void)
{
T0 = (T0 & PARAM1);
RETURN();
}
void OPPROTO op_test_false (void)
{
T0 = ((T0 & PARAM1) == 0);
RETURN();
}
/* CTR maintenance */
void OPPROTO op_dec_ctr (void)
{
env->ctr--;
RETURN();
}
/*** Integer arithmetic ***/
/* add */
void OPPROTO op_add (void)
{
T0 += T1;
RETURN();
}
void OPPROTO op_check_addo (void)
{
if (likely(!(((uint32_t)T2 ^ (uint32_t)T1 ^ UINT32_MAX) &
((uint32_t)T2 ^ (uint32_t)T0) & (1UL << 31)))) {
xer_ov = 0;
} else {
xer_ov = 1;
xer_so = 1;
}
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_check_addo_64 (void)
{
if (likely(!(((uint64_t)T2 ^ (uint64_t)T1 ^ UINT64_MAX) &
((uint64_t)T2 ^ (uint64_t)T0) & (1ULL << 63)))) {
xer_ov = 0;
} else {
xer_ov = 1;
xer_so = 1;
}
RETURN();
}
#endif
/* add carrying */
void OPPROTO op_check_addc (void)
{
if (likely((uint32_t)T0 >= (uint32_t)T2)) {
xer_ca = 0;
} else {
xer_ca = 1;
}
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_check_addc_64 (void)
{
if (likely((uint64_t)T0 >= (uint64_t)T2)) {
xer_ca = 0;
} else {
xer_ca = 1;
}
RETURN();
}
#endif
/* add extended */
void OPPROTO op_adde (void)
{
do_adde();
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_adde_64 (void)
{
do_adde_64();
RETURN();
}
#endif
/* add immediate */
void OPPROTO op_addi (void)
{
T0 += (int32_t)PARAM1;
RETURN();
}
/* add to minus one extended */
void OPPROTO op_add_me (void)
{
T0 += xer_ca + (-1);
if (likely((uint32_t)T1 != 0))
xer_ca = 1;
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_add_me_64 (void)
{
T0 += xer_ca + (-1);
if (likely((uint64_t)T1 != 0))
xer_ca = 1;
RETURN();
}
#endif
void OPPROTO op_addmeo (void)
{
do_addmeo();
RETURN();
}
void OPPROTO op_addmeo_64 (void)
{
do_addmeo();
RETURN();
}
/* add to zero extended */
void OPPROTO op_add_ze (void)
{
T0 += xer_ca;
RETURN();
}
/* divide word */
void OPPROTO op_divw (void)
{
if (unlikely(((int32_t)T0 == INT32_MIN && (int32_t)T1 == -1) ||
(int32_t)T1 == 0)) {
T0 = (int32_t)((-1) * ((uint32_t)T0 >> 31));
} else {
T0 = (int32_t)T0 / (int32_t)T1;
}
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_divd (void)
{
if (unlikely(((int64_t)T0 == INT64_MIN && (int64_t)T1 == -1) ||
(int64_t)T1 == 0)) {
T0 = (int64_t)((-1ULL) * ((uint64_t)T0 >> 63));
} else {
T0 = (int64_t)T0 / (int64_t)T1;
}
RETURN();
}
#endif
void OPPROTO op_divwo (void)
{
do_divwo();
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_divdo (void)
{
do_divdo();
RETURN();
}
#endif
/* divide word unsigned */
void OPPROTO op_divwu (void)
{
if (unlikely(T1 == 0)) {
T0 = 0;
} else {
T0 = (uint32_t)T0 / (uint32_t)T1;
}
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_divdu (void)
{
if (unlikely(T1 == 0)) {
T0 = 0;
} else {
T0 /= T1;
}
RETURN();
}
#endif
void OPPROTO op_divwuo (void)
{
do_divwuo();
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_divduo (void)
{
do_divduo();
RETURN();
}
#endif
/* multiply high word */
void OPPROTO op_mulhw (void)
{
T0 = ((int64_t)((int32_t)T0) * (int64_t)((int32_t)T1)) >> 32;
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_mulhd (void)
{
uint64_t tl, th;
do_imul64(&tl, &th);
T0 = th;
RETURN();
}
#endif
/* multiply high word unsigned */
void OPPROTO op_mulhwu (void)
{
T0 = ((uint64_t)(uint32_t)T0 * (uint64_t)(uint32_t)T1) >> 32;
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_mulhdu (void)
{
uint64_t tl, th;
do_mul64(&tl, &th);
T0 = th;
RETURN();
}
#endif
/* multiply low immediate */
void OPPROTO op_mulli (void)
{
T0 = ((int32_t)T0 * (int32_t)PARAM1);
RETURN();
}
/* multiply low word */
void OPPROTO op_mullw (void)
{
T0 = (int32_t)(T0 * T1);
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_mulld (void)
{
T0 *= T1;
RETURN();
}
#endif
void OPPROTO op_mullwo (void)
{
do_mullwo();
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_mulldo (void)
{
do_mulldo();
RETURN();
}
#endif
/* negate */
void OPPROTO op_neg (void)
{
if (likely(T0 != INT32_MIN)) {
T0 = -(int32_t)T0;
}
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_neg_64 (void)
{
if (likely(T0 != INT64_MIN)) {
T0 = -(int64_t)T0;
}
RETURN();
}
#endif
void OPPROTO op_nego (void)
{
do_nego();
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_nego_64 (void)
{
do_nego_64();
RETURN();
}
#endif
/* subtract from */
void OPPROTO op_subf (void)
{
T0 = T1 - T0;
RETURN();
}
void OPPROTO op_check_subfo (void)
{
if (likely(!(((uint32_t)(~T2) ^ (uint32_t)T1 ^ UINT32_MAX) &
((uint32_t)(~T2) ^ (uint32_t)T0) & (1UL << 31)))) {
xer_ov = 0;
} else {
xer_ov = 1;
xer_so = 1;
}
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_check_subfo_64 (void)
{
if (likely(!(((uint64_t)(~T2) ^ (uint64_t)T1 ^ UINT64_MAX) &
((uint64_t)(~T2) ^ (uint64_t)T0) & (1ULL << 63)))) {
xer_ov = 0;
} else {
xer_ov = 1;
xer_so = 1;
}
RETURN();
}
#endif
/* subtract from carrying */
void OPPROTO op_check_subfc (void)
{
if (likely((uint32_t)T0 > (uint32_t)T1)) {
xer_ca = 0;
} else {
xer_ca = 1;
}
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_check_subfc_64 (void)
{
if (likely((uint64_t)T0 > (uint64_t)T1)) {
xer_ca = 0;
} else {
xer_ca = 1;
}
RETURN();
}
#endif
/* subtract from extended */
void OPPROTO op_subfe (void)
{
do_subfe();
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_subfe_64 (void)
{
do_subfe_64();
RETURN();
}
#endif
/* subtract from immediate carrying */
void OPPROTO op_subfic (void)
{
T0 = (int32_t)PARAM1 + ~T0 + 1;
if ((uint32_t)T0 <= (uint32_t)PARAM1) {
xer_ca = 1;
} else {
xer_ca = 0;
}
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_subfic_64 (void)
{
T0 = PARAM1 + ~T0 + 1;
if ((uint64_t)T0 <= (uint64_t)PARAM1) {
xer_ca = 1;
} else {
xer_ca = 0;
}
RETURN();
}
#endif
/* subtract from minus one extended */
void OPPROTO op_subfme (void)
{
T0 = ~T0 + xer_ca - 1;
if (likely((uint32_t)T0 != (uint32_t)-1))
xer_ca = 1;
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_subfme_64 (void)
{
T0 = ~T0 + xer_ca - 1;
if (likely((uint64_t)T0 != (uint64_t)-1))
xer_ca = 1;
RETURN();
}
#endif
void OPPROTO op_subfmeo (void)
{
do_subfmeo();
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_subfmeo_64 (void)
{
do_subfmeo_64();
RETURN();
}
#endif
/* subtract from zero extended */
void OPPROTO op_subfze (void)
{
T1 = ~T0;
T0 = T1 + xer_ca;
if ((uint32_t)T0 < (uint32_t)T1) {
xer_ca = 1;
} else {
xer_ca = 0;
}
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_subfze_64 (void)
{
T1 = ~T0;
T0 = T1 + xer_ca;
if ((uint64_t)T0 < (uint64_t)T1) {
xer_ca = 1;
} else {
xer_ca = 0;
}
RETURN();
}
#endif
void OPPROTO op_subfzeo (void)
{
do_subfzeo();
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_subfzeo_64 (void)
{
do_subfzeo_64();
RETURN();
}
#endif
/*** Integer comparison ***/
/* compare */
void OPPROTO op_cmp (void)
{
if ((int32_t)T0 < (int32_t)T1) {
T0 = 0x08;
} else if ((int32_t)T0 > (int32_t)T1) {
T0 = 0x04;
} else {
T0 = 0x02;
}
T0 |= xer_so;
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_cmp_64 (void)
{
if ((int64_t)T0 < (int64_t)T1) {
T0 = 0x08;
} else if ((int64_t)T0 > (int64_t)T1) {
T0 = 0x04;
} else {
T0 = 0x02;
}
T0 |= xer_so;
RETURN();
}
#endif
/* compare immediate */
void OPPROTO op_cmpi (void)
{
if ((int32_t)T0 < (int32_t)PARAM1) {
T0 = 0x08;
} else if ((int32_t)T0 > (int32_t)PARAM1) {
T0 = 0x04;
} else {
T0 = 0x02;
}
T0 |= xer_so;
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_cmpi_64 (void)
{
if ((int64_t)T0 < (int64_t)((int32_t)PARAM1)) {
T0 = 0x08;
} else if ((int64_t)T0 > (int64_t)((int32_t)PARAM1)) {
T0 = 0x04;
} else {
T0 = 0x02;
}
T0 |= xer_so;
RETURN();
}
#endif
/* compare logical */
void OPPROTO op_cmpl (void)
{
if ((uint32_t)T0 < (uint32_t)T1) {
T0 = 0x08;
} else if ((uint32_t)T0 > (uint32_t)T1) {
T0 = 0x04;
} else {
T0 = 0x02;
}
T0 |= xer_so;
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_cmpl_64 (void)
{
if ((uint64_t)T0 < (uint64_t)T1) {
T0 = 0x08;
} else if ((uint64_t)T0 > (uint64_t)T1) {
T0 = 0x04;
} else {
T0 = 0x02;
}
T0 |= xer_so;
RETURN();
}
#endif
/* compare logical immediate */
void OPPROTO op_cmpli (void)
{
if ((uint32_t)T0 < (uint32_t)PARAM1) {
T0 = 0x08;
} else if ((uint32_t)T0 > (uint32_t)PARAM1) {
T0 = 0x04;
} else {
T0 = 0x02;
}
T0 |= xer_so;
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_cmpli_64 (void)
{
if ((uint64_t)T0 < (uint64_t)PARAM1) {
T0 = 0x08;
} else if ((uint64_t)T0 > (uint64_t)PARAM1) {
T0 = 0x04;
} else {
T0 = 0x02;
}
T0 |= xer_so;
RETURN();
}
#endif
void OPPROTO op_isel (void)
{
if (T0)
T0 = T1;
else
T0 = T2;
RETURN();
}
void OPPROTO op_popcntb (void)
{
do_popcntb();
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_popcntb_64 (void)
{
do_popcntb_64();
RETURN();
}
#endif
/*** Integer logical ***/
/* and */
void OPPROTO op_and (void)
{
T0 &= T1;
RETURN();
}
/* andc */
void OPPROTO op_andc (void)
{
T0 &= ~T1;
RETURN();
}
/* andi. */
void OPPROTO op_andi_T0 (void)
{
T0 &= PARAM1;
RETURN();
}
void OPPROTO op_andi_T1 (void)
{
T1 &= PARAM1;
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_andi_T0_64 (void)
{
T0 &= ((uint64_t)PARAM1 << 32) | PARAM2;
RETURN();
}
void OPPROTO op_andi_T1_64 (void)
{
T1 &= ((uint64_t)PARAM1 << 32) | PARAM2;
RETURN();
}
#endif
/* count leading zero */
void OPPROTO op_cntlzw (void)
{
T0 = _do_cntlzw(T0);
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_cntlzd (void)
{
T0 = _do_cntlzd(T0);
RETURN();
}
#endif
/* eqv */
void OPPROTO op_eqv (void)
{
T0 = ~(T0 ^ T1);
RETURN();
}
/* extend sign byte */
void OPPROTO op_extsb (void)
{
#if defined (TARGET_PPC64)
T0 = (int64_t)((int8_t)T0);
#else
T0 = (int32_t)((int8_t)T0);
#endif
RETURN();
}
/* extend sign half word */
void OPPROTO op_extsh (void)
{
#if defined (TARGET_PPC64)
T0 = (int64_t)((int16_t)T0);
#else
T0 = (int32_t)((int16_t)T0);
#endif
RETURN();
}
#if defined (TARGET_PPC64)
void OPPROTO op_extsw (void)
{
T0 = (int64_t)((int32_t)T0);
RETURN();
}
#endif
/* nand */
void OPPROTO op_nand (void)
{
T0 = ~(T0 & T1);
RETURN();
}
/* nor */
void OPPROTO op_nor (void)
{
T0 = ~(T0 | T1);
RETURN();
}
/* or */
void OPPROTO op_or (void)
{
T0 |= T1;
RETURN();
}
/* orc */
void OPPROTO op_orc (void)
{
T0 |= ~T1;
RETURN();
}
/* ori */
void OPPROTO op_ori (void)
{
T0 |= PARAM1;
RETURN();
}
/* xor */
void OPPROTO op_xor (void)
{
T0 ^= T1;
RETURN();
}
/* xori */
void OPPROTO op_xori (void)
{
T0 ^= PARAM1;
RETURN();
}
/*** Integer rotate ***/
void OPPROTO op_rotl32_T0_T1 (void)
{
T0 = rotl32(T0, T1 & 0x1F);
RETURN();
}
void OPPROTO op_rotli32_T0 (void)
{
T0 = rotl32(T0, PARAM1);
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_rotl64_T0_T1 (void)
{
T0 = rotl64(T0, T1 & 0x3F);
RETURN();
}
void OPPROTO op_rotli64_T0 (void)
{
T0 = rotl64(T0, PARAM1);
RETURN();
}
#endif
/*** Integer shift ***/
/* shift left word */
void OPPROTO op_slw (void)
{
if (T1 & 0x20) {
T0 = 0;
} else {
T0 = (uint32_t)(T0 << T1);
}
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_sld (void)
{
if (T1 & 0x40) {
T0 = 0;
} else {
T0 = T0 << T1;
}
RETURN();
}
#endif
/* shift right algebraic word */
void OPPROTO op_sraw (void)
{
do_sraw();
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_srad (void)
{
do_srad();
RETURN();
}
#endif
/* shift right algebraic word immediate */
void OPPROTO op_srawi (void)
{
uint32_t mask = (uint32_t)PARAM2;
T0 = (int32_t)T0 >> PARAM1;
if ((int32_t)T1 < 0 && (T1 & mask) != 0) {
xer_ca = 1;
} else {
xer_ca = 0;
}
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_sradi (void)
{
uint64_t mask = ((uint64_t)PARAM2 << 32) | (uint64_t)PARAM3;
T0 = (int64_t)T0 >> PARAM1;
if ((int64_t)T1 < 0 && ((uint64_t)T1 & mask) != 0) {
xer_ca = 1;
} else {
xer_ca = 0;
}
RETURN();
}
#endif
/* shift right word */
void OPPROTO op_srw (void)
{
if (T1 & 0x20) {
T0 = 0;
} else {
T0 = (uint32_t)T0 >> T1;
}
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_srd (void)
{
if (T1 & 0x40) {
T0 = 0;
} else {
T0 = (uint64_t)T0 >> T1;
}
RETURN();
}
#endif
void OPPROTO op_sl_T0_T1 (void)
{
T0 = T0 << T1;
RETURN();
}
void OPPROTO op_sli_T0 (void)
{
T0 = T0 << PARAM1;
RETURN();
}
void OPPROTO op_srl_T0_T1 (void)
{
T0 = (uint32_t)T0 >> T1;
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_srl_T0_T1_64 (void)
{
T0 = (uint32_t)T0 >> T1;
RETURN();
}
#endif
void OPPROTO op_srli_T0 (void)
{
T0 = (uint32_t)T0 >> PARAM1;
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_srli_T0_64 (void)
{
T0 = (uint64_t)T0 >> PARAM1;
RETURN();
}
#endif
void OPPROTO op_srli_T1 (void)
{
T1 = (uint32_t)T1 >> PARAM1;
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_srli_T1_64 (void)
{
T1 = (uint64_t)T1 >> PARAM1;
RETURN();
}
#endif
/*** Floating-Point arithmetic ***/
/* fadd - fadd. */
void OPPROTO op_fadd (void)
{
FT0 = float64_add(FT0, FT1, &env->fp_status);
RETURN();
}
/* fsub - fsub. */
void OPPROTO op_fsub (void)
{
FT0 = float64_sub(FT0, FT1, &env->fp_status);
RETURN();
}
/* fmul - fmul. */
void OPPROTO op_fmul (void)
{
FT0 = float64_mul(FT0, FT1, &env->fp_status);
RETURN();
}
/* fdiv - fdiv. */
void OPPROTO op_fdiv (void)
{
FT0 = float64_div(FT0, FT1, &env->fp_status);
RETURN();
}
/* fsqrt - fsqrt. */
void OPPROTO op_fsqrt (void)
{
do_fsqrt();
RETURN();
}
/* fre - fre. */
void OPPROTO op_fre (void)
{
do_fre();
RETURN();
}
/* fres - fres. */
void OPPROTO op_fres (void)
{
do_fres();
RETURN();
}
/* frsqrte - frsqrte. */
void OPPROTO op_frsqrte (void)
{
do_frsqrte();
RETURN();
}
/* fsel - fsel. */
void OPPROTO op_fsel (void)
{
do_fsel();
RETURN();
}
/*** Floating-Point multiply-and-add ***/
/* fmadd - fmadd. */
void OPPROTO op_fmadd (void)
{
#if USE_PRECISE_EMULATION
do_fmadd();
#else
FT0 = float64_mul(FT0, FT1, &env->fp_status);
FT0 = float64_add(FT0, FT2, &env->fp_status);
#endif
RETURN();
}
/* fmsub - fmsub. */
void OPPROTO op_fmsub (void)
{
#if USE_PRECISE_EMULATION
do_fmsub();
#else
FT0 = float64_mul(FT0, FT1, &env->fp_status);
FT0 = float64_sub(FT0, FT2, &env->fp_status);
#endif
RETURN();
}
/* fnmadd - fnmadd. - fnmadds - fnmadds. */
void OPPROTO op_fnmadd (void)
{
do_fnmadd();
RETURN();
}
/* fnmsub - fnmsub. */
void OPPROTO op_fnmsub (void)
{
do_fnmsub();
RETURN();
}
/*** Floating-Point round & convert ***/
/* frsp - frsp. */
void OPPROTO op_frsp (void)
{
FT0 = float64_to_float32(FT0, &env->fp_status);
RETURN();
}
/* fctiw - fctiw. */
void OPPROTO op_fctiw (void)
{
do_fctiw();
RETURN();
}
/* fctiwz - fctiwz. */
void OPPROTO op_fctiwz (void)
{
do_fctiwz();
RETURN();
}
#if defined(TARGET_PPC64)
/* fcfid - fcfid. */
void OPPROTO op_fcfid (void)
{
do_fcfid();
RETURN();
}
/* fctid - fctid. */
void OPPROTO op_fctid (void)
{
do_fctid();
RETURN();
}
/* fctidz - fctidz. */
void OPPROTO op_fctidz (void)
{
do_fctidz();
RETURN();
}
#endif
void OPPROTO op_frin (void)
{
do_frin();
RETURN();
}
void OPPROTO op_friz (void)
{
do_friz();
RETURN();
}
void OPPROTO op_frip (void)
{
do_frip();
RETURN();
}
void OPPROTO op_frim (void)
{
do_frim();
RETURN();
}
/*** Floating-Point compare ***/
/* fcmpu */
void OPPROTO op_fcmpu (void)
{
do_fcmpu();
RETURN();
}
/* fcmpo */
void OPPROTO op_fcmpo (void)
{
do_fcmpo();
RETURN();
}
/*** Floating-point move ***/
/* fabs */
void OPPROTO op_fabs (void)
{
FT0 = float64_abs(FT0);
RETURN();
}
/* fnabs */
void OPPROTO op_fnabs (void)
{
FT0 = float64_abs(FT0);
FT0 = float64_chs(FT0);
RETURN();
}
/* fneg */
void OPPROTO op_fneg (void)
{
FT0 = float64_chs(FT0);
RETURN();
}
/* Load and store */
#define MEMSUFFIX _raw
#include "op_helper.h"
#include "op_mem.h"
#if !defined(CONFIG_USER_ONLY)
#define MEMSUFFIX _user
#include "op_helper.h"
#include "op_mem.h"
#define MEMSUFFIX _kernel
#include "op_helper.h"
#include "op_mem.h"
#endif
/* Special op to check and maybe clear reservation */
void OPPROTO op_check_reservation (void)
{
if ((uint32_t)env->reserve == (uint32_t)(T0 & ~0x00000003))
env->reserve = -1;
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_check_reservation_64 (void)
{
if ((uint64_t)env->reserve == (uint64_t)(T0 & ~0x00000003))
env->reserve = -1;
RETURN();
}
#endif
void OPPROTO op_wait (void)
{
env->halted = 1;
RETURN();
}
/* Return from interrupt */
#if !defined(CONFIG_USER_ONLY)
void OPPROTO op_rfi (void)
{
do_rfi();
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_rfid (void)
{
do_rfid();
RETURN();
}
#endif
#if defined(TARGET_PPC64H)
void OPPROTO op_hrfid (void)
{
do_hrfid();
RETURN();
}
#endif
/* Exception vectors */
void OPPROTO op_store_excp_prefix (void)
{
T0 &= env->ivpr_mask;
env->excp_prefix = T0;
RETURN();
}
void OPPROTO op_store_excp_vector (void)
{
T0 &= env->ivor_mask;
env->excp_vectors[PARAM1] = T0;
RETURN();
}
#endif
/* Trap word */
void OPPROTO op_tw (void)
{
do_tw(PARAM1);
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_td (void)
{
do_td(PARAM1);
RETURN();
}
#endif
#if !defined(CONFIG_USER_ONLY)
/* tlbia */
void OPPROTO op_tlbia (void)
{
ppc_tlb_invalidate_all(env);
RETURN();
}
/* tlbie */
void OPPROTO op_tlbie (void)
{
ppc_tlb_invalidate_one(env, (uint32_t)T0);
RETURN();
}
#if defined(TARGET_PPC64)
void OPPROTO op_tlbie_64 (void)
{
ppc_tlb_invalidate_one(env, T0);
RETURN();
}
#endif
#if defined(TARGET_PPC64)
void OPPROTO op_slbia (void)
{
ppc_slb_invalidate_all(env);
RETURN();
}
void OPPROTO op_slbie (void)
{
ppc_slb_invalidate_one(env, (uint32_t)T0);
RETURN();
}
void OPPROTO op_slbie_64 (void)
{
ppc_slb_invalidate_one(env, T0);
RETURN();
}
#endif
#endif
#if !defined(CONFIG_USER_ONLY)
/* PowerPC 602/603/755 software TLB load instructions */
void OPPROTO op_6xx_tlbld (void)
{
do_load_6xx_tlb(0);
RETURN();
}
void OPPROTO op_6xx_tlbli (void)
{
do_load_6xx_tlb(1);
RETURN();
}
/* PowerPC 74xx software TLB load instructions */
void OPPROTO op_74xx_tlbld (void)
{
do_load_74xx_tlb(0);
RETURN();
}
void OPPROTO op_74xx_tlbli (void)
{
do_load_74xx_tlb(1);
RETURN();
}
#endif
/* 601 specific */
void OPPROTO op_load_601_rtcl (void)
{
T0 = cpu_ppc601_load_rtcl(env);
RETURN();
}
void OPPROTO op_load_601_rtcu (void)
{
T0 = cpu_ppc601_load_rtcu(env);
RETURN();
}
#if !defined(CONFIG_USER_ONLY)
void OPPROTO op_store_601_rtcl (void)
{
cpu_ppc601_store_rtcl(env, T0);
RETURN();
}
void OPPROTO op_store_601_rtcu (void)
{
cpu_ppc601_store_rtcu(env, T0);
RETURN();
}
void OPPROTO op_load_601_bat (void)
{
T0 = env->IBAT[PARAM1][PARAM2];
RETURN();
}
#endif /* !defined(CONFIG_USER_ONLY) */
/* 601 unified BATs store.
* To avoid using specific MMU code for 601, we store BATs in
* IBAT and DBAT simultaneously, then emulate unified BATs.
*/
#if !defined(CONFIG_USER_ONLY)
void OPPROTO op_store_601_batl (void)
{
int nr = PARAM1;
env->IBAT[1][nr] = T0;
env->DBAT[1][nr] = T0;
RETURN();
}
void OPPROTO op_store_601_batu (void)
{
do_store_601_batu(PARAM1);
RETURN();
}
#endif /* !defined(CONFIG_USER_ONLY) */
/* PowerPC 601 specific instructions (POWER bridge) */
/* XXX: those micro-ops need tests ! */
void OPPROTO op_POWER_abs (void)
{
if (T0 == INT32_MIN)
T0 = INT32_MAX;
else if (T0 < 0)
T0 = -T0;
RETURN();
}
void OPPROTO op_POWER_abso (void)
{
do_POWER_abso();
RETURN();
}
void OPPROTO op_POWER_clcs (void)
{
do_POWER_clcs();
RETURN();
}
void OPPROTO op_POWER_div (void)
{
do_POWER_div();
RETURN();
}
void OPPROTO op_POWER_divo (void)
{
do_POWER_divo();
RETURN();
}
void OPPROTO op_POWER_divs (void)
{
do_POWER_divs();
RETURN();
}
void OPPROTO op_POWER_divso (void)
{
do_POWER_divso();
RETURN();
}
void OPPROTO op_POWER_doz (void)
{
if ((int32_t)T1 > (int32_t)T0)
T0 = T1 - T0;
else
T0 = 0;
RETURN();
}
void OPPROTO op_POWER_dozo (void)
{
do_POWER_dozo();
RETURN();
}
void OPPROTO op_load_xer_cmp (void)
{
T2 = xer_cmp;
RETURN();
}
void OPPROTO op_POWER_maskg (void)
{
do_POWER_maskg();
RETURN();
}
void OPPROTO op_POWER_maskir (void)
{
T0 = (T0 & ~T2) | (T1 & T2);
RETURN();
}
void OPPROTO op_POWER_mul (void)
{
uint64_t tmp;
tmp = (uint64_t)T0 * (uint64_t)T1;
env->spr[SPR_MQ] = tmp >> 32;
T0 = tmp;
RETURN();
}
void OPPROTO op_POWER_mulo (void)
{
do_POWER_mulo();
RETURN();
}
void OPPROTO op_POWER_nabs (void)
{
if (T0 > 0)
T0 = -T0;
RETURN();
}
void OPPROTO op_POWER_nabso (void)
{
/* nabs never overflows */
if (T0 > 0)
T0 = -T0;
xer_ov = 0;
RETURN();
}
/* XXX: factorise POWER rotates... */
void OPPROTO op_POWER_rlmi (void)
{
T0 = rotl32(T0, T2) & PARAM1;
T0 |= T1 & PARAM2;
RETURN();
}
void OPPROTO op_POWER_rrib (void)
{
T2 &= 0x1FUL;
T0 = rotl32(T0 & INT32_MIN, T2);
T0 |= T1 & ~rotl32(INT32_MIN, T2);
RETURN();
}
void OPPROTO op_POWER_sle (void)
{
T1 &= 0x1FUL;
env->spr[SPR_MQ] = rotl32(T0, T1);
T0 = T0 << T1;
RETURN();
}
void OPPROTO op_POWER_sleq (void)
{
uint32_t tmp = env->spr[SPR_MQ];
T1 &= 0x1FUL;
env->spr[SPR_MQ] = rotl32(T0, T1);
T0 = T0 << T1;
T0 |= tmp >> (32 - T1);
RETURN();
}
void OPPROTO op_POWER_sllq (void)
{
uint32_t msk = -1;
msk = msk << (T1 & 0x1FUL);
if (T1 & 0x20UL)
msk = ~msk;
T1 &= 0x1FUL;
T0 = (T0 << T1) & msk;
T0 |= env->spr[SPR_MQ] & ~msk;
RETURN();
}
void OPPROTO op_POWER_slq (void)
{
uint32_t msk = -1, tmp;
msk = msk << (T1 & 0x1FUL);
if (T1 & 0x20UL)
msk = ~msk;
T1 &= 0x1FUL;
tmp = rotl32(T0, T1);
T0 = tmp & msk;
env->spr[SPR_MQ] = tmp;
RETURN();
}
void OPPROTO op_POWER_sraq (void)
{
env->spr[SPR_MQ] = rotl32(T0, 32 - (T1 & 0x1FUL));
if (T1 & 0x20UL)
T0 = -1L;
else
T0 = (int32_t)T0 >> T1;
RETURN();
}
void OPPROTO op_POWER_sre (void)
{
T1 &= 0x1FUL;
env->spr[SPR_MQ] = rotl32(T0, 32 - T1);
T0 = (int32_t)T0 >> T1;
RETURN();
}
void OPPROTO op_POWER_srea (void)
{
T1 &= 0x1FUL;
env->spr[SPR_MQ] = T0 >> T1;
T0 = (int32_t)T0 >> T1;
RETURN();
}
void OPPROTO op_POWER_sreq (void)
{
uint32_t tmp;
int32_t msk;
T1 &= 0x1FUL;
msk = INT32_MIN >> T1;
tmp = env->spr[SPR_MQ];
env->spr[SPR_MQ] = rotl32(T0, 32 - T1);
T0 = T0 >> T1;
T0 |= tmp & msk;
RETURN();
}
void OPPROTO op_POWER_srlq (void)
{
uint32_t tmp;
int32_t msk;
msk = INT32_MIN >> (T1 & 0x1FUL);
if (T1 & 0x20UL)
msk = ~msk;
T1 &= 0x1FUL;
tmp = env->spr[SPR_MQ];
env->spr[SPR_MQ] = rotl32(T0, 32 - T1);
T0 = T0 >> T1;
T0 &= msk;
T0 |= tmp & ~msk;
RETURN();
}
void OPPROTO op_POWER_srq (void)
{
T1 &= 0x1FUL;
env->spr[SPR_MQ] = rotl32(T0, 32 - T1);
T0 = T0 >> T1;
RETURN();
}
/* POWER instructions not implemented in PowerPC 601 */
#if !defined(CONFIG_USER_ONLY)
void OPPROTO op_POWER_mfsri (void)
{
T1 = T0 >> 28;
T0 = env->sr[T1];
RETURN();
}
void OPPROTO op_POWER_rac (void)
{
do_POWER_rac();
RETURN();
}
void OPPROTO op_POWER_rfsvc (void)
{
do_POWER_rfsvc();
RETURN();
}
#endif
/* PowerPC 602 specific instruction */
#if !defined(CONFIG_USER_ONLY)
void OPPROTO op_602_mfrom (void)
{
do_op_602_mfrom();
RETURN();
}
#endif
/* PowerPC 4xx specific micro-ops */
void OPPROTO op_405_add_T0_T2 (void)
{
T0 = (int32_t)T0 + (int32_t)T2;
RETURN();
}
void OPPROTO op_405_mulchw (void)
{
T0 = ((int16_t)T0) * ((int16_t)(T1 >> 16));
RETURN();
}
void OPPROTO op_405_mulchwu (void)
{
T0 = ((uint16_t)T0) * ((uint16_t)(T1 >> 16));
RETURN();
}
void OPPROTO op_405_mulhhw (void)
{
T0 = ((int16_t)(T0 >> 16)) * ((int16_t)(T1 >> 16));
RETURN();
}
void OPPROTO op_405_mulhhwu (void)
{
T0 = ((uint16_t)(T0 >> 16)) * ((uint16_t)(T1 >> 16));
RETURN();
}
void OPPROTO op_405_mullhw (void)
{
T0 = ((int16_t)T0) * ((int16_t)T1);
RETURN();
}
void OPPROTO op_405_mullhwu (void)
{
T0 = ((uint16_t)T0) * ((uint16_t)T1);
RETURN();
}
void OPPROTO op_405_check_ov (void)
{
do_405_check_ov();
RETURN();
}
void OPPROTO op_405_check_sat (void)
{
do_405_check_sat();
RETURN();
}
void OPPROTO op_405_check_ovu (void)
{
if (likely(T0 >= T2)) {
xer_ov = 0;
} else {
xer_ov = 1;
xer_so = 1;
}
RETURN();
}
void OPPROTO op_405_check_satu (void)
{
if (unlikely(T0 < T2)) {
/* Saturate result */
T0 = -1;
}
RETURN();
}
void OPPROTO op_load_dcr (void)
{
do_load_dcr();
RETURN();
}
void OPPROTO op_store_dcr (void)
{
do_store_dcr();
RETURN();
}
#if !defined(CONFIG_USER_ONLY)
/* Return from critical interrupt :
* same as rfi, except nip & MSR are loaded from SRR2/3 instead of SRR0/1
*/
void OPPROTO op_40x_rfci (void)
{
do_40x_rfci();
RETURN();
}
void OPPROTO op_rfci (void)
{
do_rfci();
RETURN();
}
void OPPROTO op_rfdi (void)
{
do_rfdi();
RETURN();
}
void OPPROTO op_rfmci (void)
{
do_rfmci();
RETURN();
}
void OPPROTO op_wrte (void)
{
msr_ee = T0 >> 16;
RETURN();
}
void OPPROTO op_440_tlbre (void)
{
do_440_tlbre(PARAM1);
RETURN();
}
void OPPROTO op_440_tlbsx (void)
{
T0 = ppcemb_tlb_search(env, T0, env->spr[SPR_440_MMUCR] & 0xFF);
RETURN();
}
void OPPROTO op_4xx_tlbsx_check (void)
{
int tmp;
tmp = xer_so;
if (T0 != -1)
tmp |= 0x02;
env->crf[0] = tmp;
RETURN();
}
void OPPROTO op_440_tlbwe (void)
{
do_440_tlbwe(PARAM1);
RETURN();
}
void OPPROTO op_4xx_tlbre_lo (void)
{
do_4xx_tlbre_lo();
RETURN();
}
void OPPROTO op_4xx_tlbre_hi (void)
{
do_4xx_tlbre_hi();
RETURN();
}
void OPPROTO op_4xx_tlbsx (void)
{
T0 = ppcemb_tlb_search(env, T0, env->spr[SPR_40x_PID]);
RETURN();
}
void OPPROTO op_4xx_tlbwe_lo (void)
{
do_4xx_tlbwe_lo();
RETURN();
}
void OPPROTO op_4xx_tlbwe_hi (void)
{
do_4xx_tlbwe_hi();
RETURN();
}
#endif
/* SPR micro-ops */
/* 440 specific */
void OPPROTO op_440_dlmzb (void)
{
do_440_dlmzb();
RETURN();
}
void OPPROTO op_440_dlmzb_update_Rc (void)
{
if (T0 == 8)
T0 = 0x2;
else if (T0 < 4)
T0 = 0x4;
else
T0 = 0x8;
RETURN();
}
#if !defined(CONFIG_USER_ONLY)
void OPPROTO op_store_pir (void)
{
env->spr[SPR_PIR] = T0 & 0x0000000FUL;
RETURN();
}
void OPPROTO op_load_403_pb (void)
{
do_load_403_pb(PARAM1);
RETURN();
}
void OPPROTO op_store_403_pb (void)
{
do_store_403_pb(PARAM1);
RETURN();
}
void OPPROTO op_load_40x_pit (void)
{
T0 = load_40x_pit(env);
RETURN();
}
void OPPROTO op_store_40x_pit (void)
{
store_40x_pit(env, T0);
RETURN();
}
void OPPROTO op_store_40x_dbcr0 (void)
{
store_40x_dbcr0(env, T0);
RETURN();
}
void OPPROTO op_store_40x_sler (void)
{
store_40x_sler(env, T0);
RETURN();
}
void OPPROTO op_store_booke_tcr (void)
{
store_booke_tcr(env, T0);
RETURN();
}
void OPPROTO op_store_booke_tsr (void)
{
store_booke_tsr(env, T0);
RETURN();
}
#endif /* !defined(CONFIG_USER_ONLY) */
#if defined(TARGET_PPCEMB)
/* SPE extension */
void OPPROTO op_splatw_T1_64 (void)
{
T1_64 = (T1_64 << 32) | (T1_64 & 0x00000000FFFFFFFFULL);
RETURN();
}
void OPPROTO op_splatwi_T0_64 (void)
{
uint64_t tmp = PARAM1;
T0_64 = (tmp << 32) | tmp;
RETURN();
}
void OPPROTO op_splatwi_T1_64 (void)
{
uint64_t tmp = PARAM1;
T1_64 = (tmp << 32) | tmp;
RETURN();
}
void OPPROTO op_extsh_T1_64 (void)
{
T1_64 = (int32_t)((int16_t)T1_64);
RETURN();
}
void OPPROTO op_sli16_T1_64 (void)
{
T1_64 = T1_64 << 16;
RETURN();
}
void OPPROTO op_sli32_T1_64 (void)
{
T1_64 = T1_64 << 32;
RETURN();
}
void OPPROTO op_srli32_T1_64 (void)
{
T1_64 = T1_64 >> 32;
RETURN();
}
void OPPROTO op_evsel (void)
{
do_evsel();
RETURN();
}
void OPPROTO op_evaddw (void)
{
do_evaddw();
RETURN();
}
void OPPROTO op_evsubfw (void)
{
do_evsubfw();
RETURN();
}
void OPPROTO op_evneg (void)
{
do_evneg();
RETURN();
}
void OPPROTO op_evabs (void)
{
do_evabs();
RETURN();
}
void OPPROTO op_evextsh (void)
{
T0_64 = ((uint64_t)((int32_t)(int16_t)(T0_64 >> 32)) << 32) |
(uint64_t)((int32_t)(int16_t)T0_64);
RETURN();
}
void OPPROTO op_evextsb (void)
{
T0_64 = ((uint64_t)((int32_t)(int8_t)(T0_64 >> 32)) << 32) |
(uint64_t)((int32_t)(int8_t)T0_64);
RETURN();
}
void OPPROTO op_evcntlzw (void)
{
do_evcntlzw();
RETURN();
}
void OPPROTO op_evrndw (void)
{
do_evrndw();
RETURN();
}
void OPPROTO op_brinc (void)
{
do_brinc();
RETURN();
}
void OPPROTO op_evcntlsw (void)
{
do_evcntlsw();
RETURN();
}
void OPPROTO op_evand (void)
{
T0_64 &= T1_64;
RETURN();
}
void OPPROTO op_evandc (void)
{
T0_64 &= ~T1_64;
RETURN();
}
void OPPROTO op_evor (void)
{
T0_64 |= T1_64;
RETURN();
}
void OPPROTO op_evxor (void)
{
T0_64 ^= T1_64;
RETURN();
}
void OPPROTO op_eveqv (void)
{
T0_64 = ~(T0_64 ^ T1_64);
RETURN();
}
void OPPROTO op_evnor (void)
{
T0_64 = ~(T0_64 | T1_64);
RETURN();
}
void OPPROTO op_evorc (void)
{
T0_64 |= ~T1_64;
RETURN();
}
void OPPROTO op_evnand (void)
{
T0_64 = ~(T0_64 & T1_64);
RETURN();
}
void OPPROTO op_evsrws (void)
{
do_evsrws();
RETURN();
}
void OPPROTO op_evsrwu (void)
{
do_evsrwu();
RETURN();
}
void OPPROTO op_evslw (void)
{
do_evslw();
RETURN();
}
void OPPROTO op_evrlw (void)
{
do_evrlw();
RETURN();
}
void OPPROTO op_evmergelo (void)
{
T0_64 = (T0_64 << 32) | (T1_64 & 0x00000000FFFFFFFFULL);
RETURN();
}
void OPPROTO op_evmergehi (void)
{
T0_64 = (T0_64 & 0xFFFFFFFF00000000ULL) | (T1_64 >> 32);
RETURN();
}
void OPPROTO op_evmergelohi (void)
{
T0_64 = (T0_64 << 32) | (T1_64 >> 32);
RETURN();
}
void OPPROTO op_evmergehilo (void)
{
T0_64 = (T0_64 & 0xFFFFFFFF00000000ULL) | (T1_64 & 0x00000000FFFFFFFFULL);
RETURN();
}
void OPPROTO op_evcmpgts (void)
{
do_evcmpgts();
RETURN();
}
void OPPROTO op_evcmpgtu (void)
{
do_evcmpgtu();
RETURN();
}
void OPPROTO op_evcmplts (void)
{
do_evcmplts();
RETURN();
}
void OPPROTO op_evcmpltu (void)
{
do_evcmpltu();
RETURN();
}
void OPPROTO op_evcmpeq (void)
{
do_evcmpeq();
RETURN();
}
void OPPROTO op_evfssub (void)
{
do_evfssub();
RETURN();
}
void OPPROTO op_evfsadd (void)
{
do_evfsadd();
RETURN();
}
void OPPROTO op_evfsnabs (void)
{
do_evfsnabs();
RETURN();
}
void OPPROTO op_evfsabs (void)
{
do_evfsabs();
RETURN();
}
void OPPROTO op_evfsneg (void)
{
do_evfsneg();
RETURN();
}
void OPPROTO op_evfsdiv (void)
{
do_evfsdiv();
RETURN();
}
void OPPROTO op_evfsmul (void)
{
do_evfsmul();
RETURN();
}
void OPPROTO op_evfscmplt (void)
{
do_evfscmplt();
RETURN();
}
void OPPROTO op_evfscmpgt (void)
{
do_evfscmpgt();
RETURN();
}
void OPPROTO op_evfscmpeq (void)
{
do_evfscmpeq();
RETURN();
}
void OPPROTO op_evfscfsi (void)
{
do_evfscfsi();
RETURN();
}
void OPPROTO op_evfscfui (void)
{
do_evfscfui();
RETURN();
}
void OPPROTO op_evfscfsf (void)
{
do_evfscfsf();
RETURN();
}
void OPPROTO op_evfscfuf (void)
{
do_evfscfuf();
RETURN();
}
void OPPROTO op_evfsctsi (void)
{
do_evfsctsi();
RETURN();
}
void OPPROTO op_evfsctui (void)
{
do_evfsctui();
RETURN();
}
void OPPROTO op_evfsctsf (void)
{
do_evfsctsf();
RETURN();
}
void OPPROTO op_evfsctuf (void)
{
do_evfsctuf();
RETURN();
}
void OPPROTO op_evfsctuiz (void)
{
do_evfsctuiz();
RETURN();
}
void OPPROTO op_evfsctsiz (void)
{
do_evfsctsiz();
RETURN();
}
void OPPROTO op_evfststlt (void)
{
do_evfststlt();
RETURN();
}
void OPPROTO op_evfststgt (void)
{
do_evfststgt();
RETURN();
}
void OPPROTO op_evfststeq (void)
{
do_evfststeq();
RETURN();
}
void OPPROTO op_efssub (void)
{
T0_64 = _do_efssub(T0_64, T1_64);
RETURN();
}
void OPPROTO op_efsadd (void)
{
T0_64 = _do_efsadd(T0_64, T1_64);
RETURN();
}
void OPPROTO op_efsnabs (void)
{
T0_64 = _do_efsnabs(T0_64);
RETURN();
}
void OPPROTO op_efsabs (void)
{
T0_64 = _do_efsabs(T0_64);
RETURN();
}
void OPPROTO op_efsneg (void)
{
T0_64 = _do_efsneg(T0_64);
RETURN();
}
void OPPROTO op_efsdiv (void)
{
T0_64 = _do_efsdiv(T0_64, T1_64);
RETURN();
}
void OPPROTO op_efsmul (void)
{
T0_64 = _do_efsmul(T0_64, T1_64);
RETURN();
}
void OPPROTO op_efscmplt (void)
{
do_efscmplt();
RETURN();
}
void OPPROTO op_efscmpgt (void)
{
do_efscmpgt();
RETURN();
}
void OPPROTO op_efscfd (void)
{
do_efscfd();
RETURN();
}
void OPPROTO op_efscmpeq (void)
{
do_efscmpeq();
RETURN();
}
void OPPROTO op_efscfsi (void)
{
do_efscfsi();
RETURN();
}
void OPPROTO op_efscfui (void)
{
do_efscfui();
RETURN();
}
void OPPROTO op_efscfsf (void)
{
do_efscfsf();
RETURN();
}
void OPPROTO op_efscfuf (void)
{
do_efscfuf();
RETURN();
}
void OPPROTO op_efsctsi (void)
{
do_efsctsi();
RETURN();
}
void OPPROTO op_efsctui (void)
{
do_efsctui();
RETURN();
}
void OPPROTO op_efsctsf (void)
{
do_efsctsf();
RETURN();
}
void OPPROTO op_efsctuf (void)
{
do_efsctuf();
RETURN();
}
void OPPROTO op_efsctsiz (void)
{
do_efsctsiz();
RETURN();
}
void OPPROTO op_efsctuiz (void)
{
do_efsctuiz();
RETURN();
}
void OPPROTO op_efststlt (void)
{
T0 = _do_efststlt(T0_64, T1_64);
RETURN();
}
void OPPROTO op_efststgt (void)
{
T0 = _do_efststgt(T0_64, T1_64);
RETURN();
}
void OPPROTO op_efststeq (void)
{
T0 = _do_efststeq(T0_64, T1_64);
RETURN();
}
void OPPROTO op_efdsub (void)
{
union {
uint64_t u;
float64 f;
} u1, u2;
u1.u = T0_64;
u2.u = T1_64;
u1.f = float64_sub(u1.f, u2.f, &env->spe_status);
T0_64 = u1.u;
RETURN();
}
void OPPROTO op_efdadd (void)
{
union {
uint64_t u;
float64 f;
} u1, u2;
u1.u = T0_64;
u2.u = T1_64;
u1.f = float64_add(u1.f, u2.f, &env->spe_status);
T0_64 = u1.u;
RETURN();
}
void OPPROTO op_efdcfsid (void)
{
do_efdcfsi();
RETURN();
}
void OPPROTO op_efdcfuid (void)
{
do_efdcfui();
RETURN();
}
void OPPROTO op_efdnabs (void)
{
T0_64 |= 0x8000000000000000ULL;
RETURN();
}
void OPPROTO op_efdabs (void)
{
T0_64 &= ~0x8000000000000000ULL;
RETURN();
}
void OPPROTO op_efdneg (void)
{
T0_64 ^= 0x8000000000000000ULL;
RETURN();
}
void OPPROTO op_efddiv (void)
{
union {
uint64_t u;
float64 f;
} u1, u2;
u1.u = T0_64;
u2.u = T1_64;
u1.f = float64_div(u1.f, u2.f, &env->spe_status);
T0_64 = u1.u;
RETURN();
}
void OPPROTO op_efdmul (void)
{
union {
uint64_t u;
float64 f;
} u1, u2;
u1.u = T0_64;
u2.u = T1_64;
u1.f = float64_mul(u1.f, u2.f, &env->spe_status);
T0_64 = u1.u;
RETURN();
}
void OPPROTO op_efdctsidz (void)
{
do_efdctsiz();
RETURN();
}
void OPPROTO op_efdctuidz (void)
{
do_efdctuiz();
RETURN();
}
void OPPROTO op_efdcmplt (void)
{
do_efdcmplt();
RETURN();
}
void OPPROTO op_efdcmpgt (void)
{
do_efdcmpgt();
RETURN();
}
void OPPROTO op_efdcfs (void)
{
do_efdcfs();
RETURN();
}
void OPPROTO op_efdcmpeq (void)
{
do_efdcmpeq();
RETURN();
}
void OPPROTO op_efdcfsi (void)
{
do_efdcfsi();
RETURN();
}
void OPPROTO op_efdcfui (void)
{
do_efdcfui();
RETURN();
}
void OPPROTO op_efdcfsf (void)
{
do_efdcfsf();
RETURN();
}
void OPPROTO op_efdcfuf (void)
{
do_efdcfuf();
RETURN();
}
void OPPROTO op_efdctsi (void)
{
do_efdctsi();
RETURN();
}
void OPPROTO op_efdctui (void)
{
do_efdctui();
RETURN();
}
void OPPROTO op_efdctsf (void)
{
do_efdctsf();
RETURN();
}
void OPPROTO op_efdctuf (void)
{
do_efdctuf();
RETURN();
}
void OPPROTO op_efdctuiz (void)
{
do_efdctuiz();
RETURN();
}
void OPPROTO op_efdctsiz (void)
{
do_efdctsiz();
RETURN();
}
void OPPROTO op_efdtstlt (void)
{
T0 = _do_efdtstlt(T0_64, T1_64);
RETURN();
}
void OPPROTO op_efdtstgt (void)
{
T0 = _do_efdtstgt(T0_64, T1_64);
RETURN();
}
void OPPROTO op_efdtsteq (void)
{
T0 = _do_efdtsteq(T0_64, T1_64);
RETURN();
}
#endif /* defined(TARGET_PPCEMB) */
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