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optimizations for the recompiler arm backend (M-HT)

Imported-from: https://svn.code.sf.net/p/dosbox/code-0/dosbox/trunk@3435
This commit is contained in:
Sebastian Strohhäcker 2009-06-27 12:51:10 +00:00
parent bf3652563b
commit eb9633a6e4
5 changed files with 576 additions and 738 deletions

View file

@ -16,7 +16,7 @@
* Foundation, Inc., 59 Temple Place - Suite 330, Boston, MA 02111-1307, USA.
*/
/* $Id: risc_armv4le-o3.h,v 1.5 2009-06-25 19:31:43 c2woody Exp $ */
/* $Id: risc_armv4le-o3.h,v 1.6 2009-06-27 12:51:10 c2woody Exp $ */
/* ARMv4 (little endian) backend by M-HT (size-tweaked arm version) */
@ -24,11 +24,11 @@
// temporary registers
#define temp1 HOST_ip
#define temp2 HOST_v5
#define temp2 HOST_v3
#define temp3 HOST_v4
// register that holds function return values
#define FC_RETOP HOST_v3
#define FC_RETOP HOST_a1
// register used for address calculations,
#define FC_ADDR HOST_v1 // has to be saved across calls, see DRC_PROTECT_ADDR_REG
@ -627,7 +627,6 @@ static void INLINE gen_call_function_raw(void * func) {
cache_addd( ADD_IMM(HOST_lr, HOST_pc, 4, 0) ); // add lr, pc, #4
cache_addd( BX(temp1) ); // bx temp1
cache_addd((Bit32u)func); // .int func
cache_addd( MOV_REG_LSL_IMM(FC_RETOP, HOST_a1, 0) ); // mov FC_RETOP, a1
}
// generate a call to a function with paramcount parameters
@ -786,7 +785,7 @@ static void INLINE gen_fill_branch_long(Bit32u data) {
static void gen_run_code(void) {
cache_addd(0xe92d4000); // stmfd sp!, {lr}
cache_addd(0xe92d0df0); // stmfd sp!, {v1-v5,v7,v8}
cache_addd(0xe92d0cf0); // stmfd sp!, {v1-v4,v7,v8}
// adr: 8
cache_addd( LDR_IMM(FC_SEGS_ADDR, HOST_pc, 64 - (8 + 8)) ); // ldr FC_SEGS_ADDR, [pc, #(&Segs)]
@ -797,7 +796,7 @@ static void gen_run_code(void) {
cache_addd(0xe92d4000); // stmfd sp!, {lr}
cache_addd( BX(HOST_r0) ); // bx r0
cache_addd(0xe8bd0df0); // ldmfd sp!, {v1-v5,v7,v8}
cache_addd(0xe8bd0cf0); // ldmfd sp!, {v1-v4,v7,v8}
cache_addd(0xe8bd4000); // ldmfd sp!, {lr}
cache_addd( BX(HOST_lr) ); // bx lr
@ -818,7 +817,6 @@ static void gen_run_code(void) {
// return from a function
static void gen_return_function(void) {
cache_addd( MOV_REG_LSL_IMM(HOST_a1, FC_RETOP, 0) ); // mov a1, FC_RETOP
cache_addd(0xe8bd4000); // ldmfd sp!, {lr}
cache_addd( BX(HOST_lr) ); // bx lr
}
@ -835,31 +833,41 @@ static void gen_fill_function_ptr(Bit8u * pos,void* fct_ptr,Bitu flags_type) {
case t_ADDw:
case t_ADDd:
*(Bit32u*)pos=ADD_REG_LSL_IMM(FC_RETOP, HOST_a1, HOST_a2, 0); // add FC_RETOP, a1, a2
*(Bit32u*)(pos+4)=B_FWD(8); // b (pc+2*4)
*(Bit32u*)(pos+4)=NOP; // nop
*(Bit32u*)(pos+8)=NOP; // nop
*(Bit32u*)(pos+12)=NOP; // nop
break;
case t_ORb:
case t_ORw:
case t_ORd:
*(Bit32u*)pos=ORR_REG_LSL_IMM(FC_RETOP, HOST_a1, HOST_a2, 0); // orr FC_RETOP, a1, a2
*(Bit32u*)(pos+4)=B_FWD(8); // b (pc+2*4)
*(Bit32u*)(pos+4)=NOP; // nop
*(Bit32u*)(pos+8)=NOP; // nop
*(Bit32u*)(pos+12)=NOP; // nop
break;
case t_ANDb:
case t_ANDw:
case t_ANDd:
*(Bit32u*)pos=AND_REG_LSL_IMM(FC_RETOP, HOST_a1, HOST_a2, 0); // and FC_RETOP, a1, a2
*(Bit32u*)(pos+4)=B_FWD(8); // b (pc+2*4)
*(Bit32u*)(pos+4)=NOP; // nop
*(Bit32u*)(pos+8)=NOP; // nop
*(Bit32u*)(pos+12)=NOP; // nop
break;
case t_SUBb:
case t_SUBw:
case t_SUBd:
*(Bit32u*)pos=SUB_REG_LSL_IMM(FC_RETOP, HOST_a1, HOST_a2, 0); // sub FC_RETOP, a1, a2
*(Bit32u*)(pos+4)=B_FWD(8); // b (pc+2*4)
*(Bit32u*)(pos+4)=NOP; // nop
*(Bit32u*)(pos+8)=NOP; // nop
*(Bit32u*)(pos+12)=NOP; // nop
break;
case t_XORb:
case t_XORw:
case t_XORd:
*(Bit32u*)pos=EOR_REG_LSL_IMM(FC_RETOP, HOST_a1, HOST_a2, 0); // eor FC_RETOP, a1, a2
*(Bit32u*)(pos+4)=B_FWD(8); // b (pc+2*4)
*(Bit32u*)(pos+4)=NOP; // nop
*(Bit32u*)(pos+8)=NOP; // nop
*(Bit32u*)(pos+12)=NOP; // nop
break;
case t_CMPb:
case t_CMPw:
@ -867,106 +875,105 @@ static void gen_fill_function_ptr(Bit8u * pos,void* fct_ptr,Bitu flags_type) {
case t_TESTb:
case t_TESTw:
case t_TESTd:
*(Bit32u*)pos=B_FWD(12); // b (pc+3*4)
*(Bit32u*)pos=B_FWD(8); // b (pc+2*4)
break;
case t_INCb:
case t_INCw:
case t_INCd:
*(Bit32u*)pos=ADD_IMM(FC_RETOP, HOST_a1, 1, 0); // add FC_RETOP, a1, #1
*(Bit32u*)(pos+4)=B_FWD(8); // b (pc+2*4)
*(Bit32u*)(pos+4)=NOP; // nop
*(Bit32u*)(pos+8)=NOP; // nop
*(Bit32u*)(pos+12)=NOP; // nop
break;
case t_DECb:
case t_DECw:
case t_DECd:
*(Bit32u*)pos=SUB_IMM(FC_RETOP, HOST_a1, 1, 0); // sub FC_RETOP, a1, #1
*(Bit32u*)(pos+4)=B_FWD(8); // b (pc+2*4)
*(Bit32u*)(pos+4)=NOP; // nop
*(Bit32u*)(pos+8)=NOP; // nop
*(Bit32u*)(pos+12)=NOP; // nop
break;
case t_SHLb:
case t_SHLw:
case t_SHLd:
*(Bit32u*)pos=MOV_REG_LSL_REG(FC_RETOP, HOST_a1, HOST_a2); // mov FC_RETOP, a1, lsl a2
*(Bit32u*)(pos+4)=B_FWD(8); // b (pc+2*4)
*(Bit32u*)(pos+4)=NOP; // nop
*(Bit32u*)(pos+8)=NOP; // nop
*(Bit32u*)(pos+12)=NOP; // nop
break;
case t_SHRb:
*(Bit32u*)pos=AND_IMM(FC_RETOP, HOST_a1, 0xff, 0); // and FC_RETOP, a1, #0xff
*(Bit32u*)(pos+4)=MOV_REG_LSR_REG(FC_RETOP, FC_RETOP, HOST_a2); // mov FC_RETOP, FC_RETOP, lsr a2
*(Bit32u*)(pos+8)=NOP; // nop
*(Bit32u*)(pos+12)=NOP; // nop
*(Bit32u*)(pos+16)=NOP; // nop
break;
case t_SHRw:
*(Bit32u*)pos=MOV_REG_LSL_IMM(FC_RETOP, HOST_a1, 16); // mov FC_RETOP, a1, lsl #16
*(Bit32u*)(pos+4)=MOV_REG_LSR_IMM(FC_RETOP, FC_RETOP, 16); // mov FC_RETOP, FC_RETOP, lsr #16
*(Bit32u*)(pos+8)=MOV_REG_LSR_REG(FC_RETOP, FC_RETOP, HOST_a2); // mov FC_RETOP, FC_RETOP, lsr a2
*(Bit32u*)(pos+12)=NOP; // nop
*(Bit32u*)(pos+16)=NOP; // nop
break;
case t_SHRd:
*(Bit32u*)pos=MOV_REG_LSR_REG(FC_RETOP, HOST_a1, HOST_a2); // mov FC_RETOP, a1, lsr a2
*(Bit32u*)(pos+4)=B_FWD(8); // b (pc+2*4)
*(Bit32u*)(pos+4)=NOP; // nop
*(Bit32u*)(pos+8)=NOP; // nop
*(Bit32u*)(pos+12)=NOP; // nop
break;
case t_SARb:
*(Bit32u*)pos=MOV_REG_LSL_IMM(FC_RETOP, HOST_a1, 24); // mov FC_RETOP, a1, lsl #24
*(Bit32u*)(pos+4)=MOV_REG_ASR_IMM(FC_RETOP, FC_RETOP, 24); // mov FC_RETOP, FC_RETOP, asr #24
*(Bit32u*)(pos+8)=MOV_REG_ASR_REG(FC_RETOP, FC_RETOP, HOST_a2); // mov FC_RETOP, FC_RETOP, asr a2
*(Bit32u*)(pos+12)=NOP; // nop
*(Bit32u*)(pos+16)=NOP; // nop
break;
case t_SARw:
*(Bit32u*)pos=MOV_REG_LSL_IMM(FC_RETOP, HOST_a1, 16); // mov FC_RETOP, a1, lsl #16
*(Bit32u*)(pos+4)=MOV_REG_ASR_IMM(FC_RETOP, FC_RETOP, 16); // mov FC_RETOP, FC_RETOP, asr #16
*(Bit32u*)(pos+8)=MOV_REG_ASR_REG(FC_RETOP, FC_RETOP, HOST_a2); // mov FC_RETOP, FC_RETOP, asr a2
*(Bit32u*)(pos+12)=NOP; // nop
*(Bit32u*)(pos+16)=NOP; // nop
break;
case t_SARd:
*(Bit32u*)pos=MOV_REG_ASR_REG(FC_RETOP, HOST_a1, HOST_a2); // mov FC_RETOP, a1, asr a2
*(Bit32u*)(pos+4)=B_FWD(8); // b (pc+2*4)
*(Bit32u*)(pos+4)=NOP; // nop
*(Bit32u*)(pos+8)=NOP; // nop
*(Bit32u*)(pos+12)=NOP; // nop
break;
case t_RORb:
*(Bit32u*)pos=MOV_REG_LSL_IMM(FC_RETOP, HOST_a1, 24); // mov FC_RETOP, a1, lsl #24
*(Bit32u*)(pos+4)=ORR_REG_LSR_IMM(FC_RETOP, FC_RETOP, FC_RETOP, 8); // orr FC_RETOP, FC_RETOP, FC_RETOP, lsr #8
*(Bit32u*)(pos+8)=ORR_REG_LSR_IMM(FC_RETOP, FC_RETOP, FC_RETOP, 16); // orr FC_RETOP, FC_RETOP, FC_RETOP, lsr #16
*(Bit32u*)(pos+12)=MOV_REG_ROR_REG(FC_RETOP, FC_RETOP, HOST_a2); // mov FC_RETOP, FC_RETOP, ror a2
*(Bit32u*)(pos+16)=NOP; // nop
break;
case t_RORw:
*(Bit32u*)pos=MOV_REG_LSL_IMM(FC_RETOP, HOST_a1, 16); // mov FC_RETOP, a1, lsl #16
*(Bit32u*)(pos+4)=ORR_REG_LSR_IMM(FC_RETOP, FC_RETOP, FC_RETOP, 16); // orr FC_RETOP, FC_RETOP, FC_RETOP, lsr #16
*(Bit32u*)(pos+8)=MOV_REG_ROR_REG(FC_RETOP, FC_RETOP, HOST_a2); // mov FC_RETOP, FC_RETOP, ror a2
*(Bit32u*)(pos+12)=NOP; // nop
*(Bit32u*)(pos+16)=NOP; // nop
break;
case t_RORd:
*(Bit32u*)pos=MOV_REG_ROR_REG(FC_RETOP, HOST_a1, HOST_a2); // mov FC_RETOP, a1, ror a2
*(Bit32u*)(pos+4)=B_FWD(8); // b (pc+2*4)
break;
case t_ROLb:
*(Bit32u*)pos=MOV_REG_LSL_IMM(FC_RETOP, HOST_a1, 24); // mov FC_RETOP, a1, lsl #24
*(Bit32u*)(pos+4)=RSB_IMM(HOST_a2, HOST_a2, 32, 0); // rsb a2, a2, #32
*(Bit32u*)(pos+8)=ORR_REG_LSR_IMM(FC_RETOP, FC_RETOP, FC_RETOP, 8); // orr FC_RETOP, FC_RETOP, FC_RETOP, lsr #8
*(Bit32u*)(pos+12)=ORR_REG_LSR_IMM(FC_RETOP, FC_RETOP, FC_RETOP, 16); // orr FC_RETOP, FC_RETOP, FC_RETOP, lsr #16
*(Bit32u*)(pos+16)=MOV_REG_ROR_REG(FC_RETOP, FC_RETOP, HOST_a2); // mov FC_RETOP, FC_RETOP, ror a2
*(Bit32u*)(pos+4)=NOP; // nop
*(Bit32u*)(pos+8)=NOP; // nop
*(Bit32u*)(pos+12)=NOP; // nop
break;
case t_ROLw:
*(Bit32u*)pos=MOV_REG_LSL_IMM(FC_RETOP, HOST_a1, 16); // mov FC_RETOP, a1, lsl #16
*(Bit32u*)(pos+4)=RSB_IMM(HOST_a2, HOST_a2, 32, 0); // rsb a2, a2, #32
*(Bit32u*)(pos+8)=ORR_REG_LSR_IMM(FC_RETOP, FC_RETOP, FC_RETOP, 16); // orr FC_RETOP, FC_RETOP, FC_RETOP, lsr #16
*(Bit32u*)(pos+12)=MOV_REG_ROR_REG(FC_RETOP, FC_RETOP, HOST_a2); // mov FC_RETOP, FC_RETOP, ror a2
*(Bit32u*)(pos+16)=NOP; // nop
break;
case t_ROLd:
*(Bit32u*)pos=RSB_IMM(HOST_a2, HOST_a2, 32, 0); // rsb a2, a2, #32
*(Bit32u*)(pos+4)=MOV_REG_ROR_REG(FC_RETOP, HOST_a1, HOST_a2); // mov FC_RETOP, a1, ror a2
*(Bit32u*)(pos+8)=NOP; // nop
*(Bit32u*)(pos+12)=NOP; // nop
*(Bit32u*)(pos+16)=NOP; // nop
break;
case t_NEGb:
case t_NEGw:
case t_NEGd:
*(Bit32u*)pos=RSB_IMM(FC_RETOP, HOST_a1, 0, 0); // rsb FC_RETOP, a1, #0
*(Bit32u*)(pos+4)=B_FWD(8); // b (pc+2*4)
*(Bit32u*)(pos+4)=NOP; // nop
*(Bit32u*)(pos+8)=NOP; // nop
*(Bit32u*)(pos+12)=NOP; // nop
break;
default:
*(Bit32u*)(pos+12)=(Bit32u)fct_ptr; // simple_func

View file

@ -16,7 +16,7 @@
* Foundation, Inc., 59 Temple Place - Suite 330, Boston, MA 02111-1307, USA.
*/
/* $Id: risc_armv4le-s3.h,v 1.5 2009-06-25 19:31:43 c2woody Exp $ */
/* $Id: risc_armv4le-s3.h,v 1.6 2009-06-27 12:51:10 c2woody Exp $ */
/* ARMv4 (little endian) backend by M-HT (speed-tweaked arm version) */
@ -24,11 +24,11 @@
// temporary registers
#define temp1 HOST_ip
#define temp2 HOST_v5
#define temp2 HOST_v3
#define temp3 HOST_v4
// register that holds function return values
#define FC_RETOP HOST_v3
#define FC_RETOP HOST_a1
// register used for address calculations,
#define FC_ADDR HOST_v1 // has to be saved across calls, see DRC_PROTECT_ADDR_REG
@ -475,7 +475,6 @@ static void INLINE gen_call_function_raw(void * func) {
cache_addd( ADD_IMM(HOST_lr, HOST_pc, 4, 0) ); // add lr, pc, #4
cache_addd( BX(temp1) ); // bx temp1
cache_addd((Bit32u)func); // .int func
cache_addd( MOV_REG_LSL_IMM(FC_RETOP, HOST_a1, 0) ); // mov FC_RETOP, a1
}
// generate a call to a function with paramcount parameters
@ -622,7 +621,7 @@ static void INLINE gen_fill_branch_long(Bit32u data) {
static void gen_run_code(void) {
cache_addd(0xe92d4000); // stmfd sp!, {lr}
cache_addd(0xe92d0df0); // stmfd sp!, {v1-v5,v7,v8}
cache_addd(0xe92d0cf0); // stmfd sp!, {v1-v4,v7,v8}
// adr: 8
cache_addd( LDR_IMM(FC_SEGS_ADDR, HOST_pc, 64 - (8 + 8)) ); // ldr FC_SEGS_ADDR, [pc, #(&Segs)]
@ -633,7 +632,7 @@ static void gen_run_code(void) {
cache_addd(0xe92d4000); // stmfd sp!, {lr}
cache_addd( BX(HOST_r0) ); // bx r0
cache_addd(0xe8bd0df0); // ldmfd sp!, {v1-v5,v7,v8}
cache_addd(0xe8bd0cf0); // ldmfd sp!, {v1-v4,v7,v8}
cache_addd(0xe8bd4000); // ldmfd sp!, {lr}
cache_addd( BX(HOST_lr) ); // bx lr
@ -654,7 +653,6 @@ static void gen_run_code(void) {
// return from a function
static void gen_return_function(void) {
cache_addd( MOV_REG_LSL_IMM(HOST_a1, FC_RETOP, 0) ); // mov a1, FC_RETOP
cache_addd(0xe8bd4000); // ldmfd sp!, {lr}
cache_addd( BX(HOST_lr) ); // bx lr
}
@ -671,31 +669,41 @@ static void gen_fill_function_ptr(Bit8u * pos,void* fct_ptr,Bitu flags_type) {
case t_ADDw:
case t_ADDd:
*(Bit32u*)pos=ADD_REG_LSL_IMM(FC_RETOP, HOST_a1, HOST_a2, 0); // add FC_RETOP, a1, a2
*(Bit32u*)(pos+4)=B_FWD(8); // b (pc+2*4)
*(Bit32u*)(pos+4)=NOP; // nop
*(Bit32u*)(pos+8)=NOP; // nop
*(Bit32u*)(pos+12)=NOP; // nop
break;
case t_ORb:
case t_ORw:
case t_ORd:
*(Bit32u*)pos=ORR_REG_LSL_IMM(FC_RETOP, HOST_a1, HOST_a2, 0); // orr FC_RETOP, a1, a2
*(Bit32u*)(pos+4)=B_FWD(8); // b (pc+2*4)
*(Bit32u*)(pos+4)=NOP; // nop
*(Bit32u*)(pos+8)=NOP; // nop
*(Bit32u*)(pos+12)=NOP; // nop
break;
case t_ANDb:
case t_ANDw:
case t_ANDd:
*(Bit32u*)pos=AND_REG_LSL_IMM(FC_RETOP, HOST_a1, HOST_a2, 0); // and FC_RETOP, a1, a2
*(Bit32u*)(pos+4)=B_FWD(8); // b (pc+2*4)
*(Bit32u*)(pos+4)=NOP; // nop
*(Bit32u*)(pos+8)=NOP; // nop
*(Bit32u*)(pos+12)=NOP; // nop
break;
case t_SUBb:
case t_SUBw:
case t_SUBd:
*(Bit32u*)pos=SUB_REG_LSL_IMM(FC_RETOP, HOST_a1, HOST_a2, 0); // sub FC_RETOP, a1, a2
*(Bit32u*)(pos+4)=B_FWD(8); // b (pc+2*4)
*(Bit32u*)(pos+4)=NOP; // nop
*(Bit32u*)(pos+8)=NOP; // nop
*(Bit32u*)(pos+12)=NOP; // nop
break;
case t_XORb:
case t_XORw:
case t_XORd:
*(Bit32u*)pos=EOR_REG_LSL_IMM(FC_RETOP, HOST_a1, HOST_a2, 0); // eor FC_RETOP, a1, a2
*(Bit32u*)(pos+4)=B_FWD(8); // b (pc+2*4)
*(Bit32u*)(pos+4)=NOP; // nop
*(Bit32u*)(pos+8)=NOP; // nop
*(Bit32u*)(pos+12)=NOP; // nop
break;
case t_CMPb:
case t_CMPw:
@ -703,106 +711,105 @@ static void gen_fill_function_ptr(Bit8u * pos,void* fct_ptr,Bitu flags_type) {
case t_TESTb:
case t_TESTw:
case t_TESTd:
*(Bit32u*)pos=B_FWD(12); // b (pc+3*4)
*(Bit32u*)pos=B_FWD(8); // b (pc+2*4)
break;
case t_INCb:
case t_INCw:
case t_INCd:
*(Bit32u*)pos=ADD_IMM(FC_RETOP, HOST_a1, 1, 0); // add FC_RETOP, a1, #1
*(Bit32u*)(pos+4)=B_FWD(8); // b (pc+2*4)
*(Bit32u*)(pos+4)=NOP; // nop
*(Bit32u*)(pos+8)=NOP; // nop
*(Bit32u*)(pos+12)=NOP; // nop
break;
case t_DECb:
case t_DECw:
case t_DECd:
*(Bit32u*)pos=SUB_IMM(FC_RETOP, HOST_a1, 1, 0); // sub FC_RETOP, a1, #1
*(Bit32u*)(pos+4)=B_FWD(8); // b (pc+2*4)
*(Bit32u*)(pos+4)=NOP; // nop
*(Bit32u*)(pos+8)=NOP; // nop
*(Bit32u*)(pos+12)=NOP; // nop
break;
case t_SHLb:
case t_SHLw:
case t_SHLd:
*(Bit32u*)pos=MOV_REG_LSL_REG(FC_RETOP, HOST_a1, HOST_a2); // mov FC_RETOP, a1, lsl a2
*(Bit32u*)(pos+4)=B_FWD(8); // b (pc+2*4)
*(Bit32u*)(pos+4)=NOP; // nop
*(Bit32u*)(pos+8)=NOP; // nop
*(Bit32u*)(pos+12)=NOP; // nop
break;
case t_SHRb:
*(Bit32u*)pos=AND_IMM(FC_RETOP, HOST_a1, 0xff, 0); // and FC_RETOP, a1, #0xff
*(Bit32u*)(pos+4)=MOV_REG_LSR_REG(FC_RETOP, FC_RETOP, HOST_a2); // mov FC_RETOP, FC_RETOP, lsr a2
*(Bit32u*)(pos+8)=NOP; // nop
*(Bit32u*)(pos+12)=NOP; // nop
*(Bit32u*)(pos+16)=NOP; // nop
break;
case t_SHRw:
*(Bit32u*)pos=MOV_REG_LSL_IMM(FC_RETOP, HOST_a1, 16); // mov FC_RETOP, a1, lsl #16
*(Bit32u*)(pos+4)=MOV_REG_LSR_IMM(FC_RETOP, FC_RETOP, 16); // mov FC_RETOP, FC_RETOP, lsr #16
*(Bit32u*)(pos+8)=MOV_REG_LSR_REG(FC_RETOP, FC_RETOP, HOST_a2); // mov FC_RETOP, FC_RETOP, lsr a2
*(Bit32u*)(pos+12)=NOP; // nop
*(Bit32u*)(pos+16)=NOP; // nop
break;
case t_SHRd:
*(Bit32u*)pos=MOV_REG_LSR_REG(FC_RETOP, HOST_a1, HOST_a2); // mov FC_RETOP, a1, lsr a2
*(Bit32u*)(pos+4)=B_FWD(8); // b (pc+2*4)
*(Bit32u*)(pos+4)=NOP; // nop
*(Bit32u*)(pos+8)=NOP; // nop
*(Bit32u*)(pos+12)=NOP; // nop
break;
case t_SARb:
*(Bit32u*)pos=MOV_REG_LSL_IMM(FC_RETOP, HOST_a1, 24); // mov FC_RETOP, a1, lsl #24
*(Bit32u*)(pos+4)=MOV_REG_ASR_IMM(FC_RETOP, FC_RETOP, 24); // mov FC_RETOP, FC_RETOP, asr #24
*(Bit32u*)(pos+8)=MOV_REG_ASR_REG(FC_RETOP, FC_RETOP, HOST_a2); // mov FC_RETOP, FC_RETOP, asr a2
*(Bit32u*)(pos+12)=NOP; // nop
*(Bit32u*)(pos+16)=NOP; // nop
break;
case t_SARw:
*(Bit32u*)pos=MOV_REG_LSL_IMM(FC_RETOP, HOST_a1, 16); // mov FC_RETOP, a1, lsl #16
*(Bit32u*)(pos+4)=MOV_REG_ASR_IMM(FC_RETOP, FC_RETOP, 16); // mov FC_RETOP, FC_RETOP, asr #16
*(Bit32u*)(pos+8)=MOV_REG_ASR_REG(FC_RETOP, FC_RETOP, HOST_a2); // mov FC_RETOP, FC_RETOP, asr a2
*(Bit32u*)(pos+12)=NOP; // nop
*(Bit32u*)(pos+16)=NOP; // nop
break;
case t_SARd:
*(Bit32u*)pos=MOV_REG_ASR_REG(FC_RETOP, HOST_a1, HOST_a2); // mov FC_RETOP, a1, asr a2
*(Bit32u*)(pos+4)=B_FWD(8); // b (pc+2*4)
*(Bit32u*)(pos+4)=NOP; // nop
*(Bit32u*)(pos+8)=NOP; // nop
*(Bit32u*)(pos+12)=NOP; // nop
break;
case t_RORb:
*(Bit32u*)pos=MOV_REG_LSL_IMM(FC_RETOP, HOST_a1, 24); // mov FC_RETOP, a1, lsl #24
*(Bit32u*)(pos+4)=ORR_REG_LSR_IMM(FC_RETOP, FC_RETOP, FC_RETOP, 8); // orr FC_RETOP, FC_RETOP, FC_RETOP, lsr #8
*(Bit32u*)(pos+8)=ORR_REG_LSR_IMM(FC_RETOP, FC_RETOP, FC_RETOP, 16); // orr FC_RETOP, FC_RETOP, FC_RETOP, lsr #16
*(Bit32u*)(pos+12)=MOV_REG_ROR_REG(FC_RETOP, FC_RETOP, HOST_a2); // mov FC_RETOP, FC_RETOP, ror a2
*(Bit32u*)(pos+16)=NOP; // nop
break;
case t_RORw:
*(Bit32u*)pos=MOV_REG_LSL_IMM(FC_RETOP, HOST_a1, 16); // mov FC_RETOP, a1, lsl #16
*(Bit32u*)(pos+4)=ORR_REG_LSR_IMM(FC_RETOP, FC_RETOP, FC_RETOP, 16); // orr FC_RETOP, FC_RETOP, FC_RETOP, lsr #16
*(Bit32u*)(pos+8)=MOV_REG_ROR_REG(FC_RETOP, FC_RETOP, HOST_a2); // mov FC_RETOP, FC_RETOP, ror a2
*(Bit32u*)(pos+12)=NOP; // nop
*(Bit32u*)(pos+16)=NOP; // nop
break;
case t_RORd:
*(Bit32u*)pos=MOV_REG_ROR_REG(FC_RETOP, HOST_a1, HOST_a2); // mov FC_RETOP, a1, ror a2
*(Bit32u*)(pos+4)=B_FWD(8); // b (pc+2*4)
break;
case t_ROLb:
*(Bit32u*)pos=MOV_REG_LSL_IMM(FC_RETOP, HOST_a1, 24); // mov FC_RETOP, a1, lsl #24
*(Bit32u*)(pos+4)=RSB_IMM(HOST_a2, HOST_a2, 32, 0); // rsb a2, a2, #32
*(Bit32u*)(pos+8)=ORR_REG_LSR_IMM(FC_RETOP, FC_RETOP, FC_RETOP, 8); // orr FC_RETOP, FC_RETOP, FC_RETOP, lsr #8
*(Bit32u*)(pos+12)=ORR_REG_LSR_IMM(FC_RETOP, FC_RETOP, FC_RETOP, 16); // orr FC_RETOP, FC_RETOP, FC_RETOP, lsr #16
*(Bit32u*)(pos+16)=MOV_REG_ROR_REG(FC_RETOP, FC_RETOP, HOST_a2); // mov FC_RETOP, FC_RETOP, ror a2
*(Bit32u*)(pos+4)=NOP; // nop
*(Bit32u*)(pos+8)=NOP; // nop
*(Bit32u*)(pos+12)=NOP; // nop
break;
case t_ROLw:
*(Bit32u*)pos=MOV_REG_LSL_IMM(FC_RETOP, HOST_a1, 16); // mov FC_RETOP, a1, lsl #16
*(Bit32u*)(pos+4)=RSB_IMM(HOST_a2, HOST_a2, 32, 0); // rsb a2, a2, #32
*(Bit32u*)(pos+8)=ORR_REG_LSR_IMM(FC_RETOP, FC_RETOP, FC_RETOP, 16); // orr FC_RETOP, FC_RETOP, FC_RETOP, lsr #16
*(Bit32u*)(pos+12)=MOV_REG_ROR_REG(FC_RETOP, FC_RETOP, HOST_a2); // mov FC_RETOP, FC_RETOP, ror a2
*(Bit32u*)(pos+16)=NOP; // nop
break;
case t_ROLd:
*(Bit32u*)pos=RSB_IMM(HOST_a2, HOST_a2, 32, 0); // rsb a2, a2, #32
*(Bit32u*)(pos+4)=MOV_REG_ROR_REG(FC_RETOP, HOST_a1, HOST_a2); // mov FC_RETOP, a1, ror a2
*(Bit32u*)(pos+8)=NOP; // nop
*(Bit32u*)(pos+12)=NOP; // nop
*(Bit32u*)(pos+16)=NOP; // nop
break;
case t_NEGb:
case t_NEGw:
case t_NEGd:
*(Bit32u*)pos=RSB_IMM(FC_RETOP, HOST_a1, 0, 0); // rsb FC_RETOP, a1, #0
*(Bit32u*)(pos+4)=B_FWD(8); // b (pc+2*4)
*(Bit32u*)(pos+4)=NOP; // nop
*(Bit32u*)(pos+8)=NOP; // nop
*(Bit32u*)(pos+12)=NOP; // nop
break;
default:
*(Bit32u*)(pos+12)=(Bit32u)fct_ptr; // simple_func

View file

@ -16,7 +16,7 @@
* Foundation, Inc., 59 Temple Place - Suite 330, Boston, MA 02111-1307, USA.
*/
/* $Id: risc_armv4le-thumb-iw.h,v 1.4 2009-06-25 19:31:43 c2woody Exp $ */
/* $Id: risc_armv4le-thumb-iw.h,v 1.5 2009-06-27 12:51:10 c2woody Exp $ */
/* ARMv4 (little endian) backend by M-HT (thumb version with data pool, requires -mthumb-interwork switch when compiling dosbox) */
@ -25,15 +25,10 @@
// temporary "lo" registers
#define templo1 HOST_v3
#define templo2 HOST_v4
// temporary "lo" register - value must be preserved when using it
#define templosav HOST_a3
// temporary "hi" register
#define temphi1 HOST_ip
#define templo3 HOST_v2
// register that holds function return values
#define FC_RETOP HOST_v2
#define FC_RETOP HOST_a1
// register used for address calculations,
#define FC_ADDR HOST_v1 // has to be saved across calls, see DRC_PROTECT_ADDR_REG
@ -86,8 +81,6 @@
#define ADD_IMM8(dst, imm) (0x3000 + ((dst) << 8) + (imm) )
// add dst, src1, src2
#define ADD_REG(dst, src1, src2) (0x1800 + (dst) + ((src1) << 3) + ((src2) << 6) )
// add dst, src
#define ADD_LO_HI(dst, src) (0x4440 + (dst) + (((src) - HOST_r8) << 3) )
// add dst, pc, #imm @ 0 <= imm < 1024 & imm mod 4 = 0
#define ADD_LO_PC_IMM(dst, imm) (0xa000 + ((dst) << 8) + ((imm) >> 2) )
// sub dst, src1, src2
@ -502,11 +495,9 @@ static void gen_extend_word(bool sign,HostReg reg) {
// add a 32bit value from memory to a full register
static void gen_add(HostReg reg,void* op) {
gen_mov_word_to_reg(templo3, op, 1);
cache_checkinstr(2);
cache_addw( MOV_HI_LO(temphi1, reg) ); // mov temphi1, reg
gen_mov_word_to_reg(reg, op, 1);
cache_checkinstr(2);
cache_addw( ADD_LO_HI(reg, temphi1) ); // add reg, temphi1
cache_addw( ADD_REG(reg, reg, templo3) ); // add reg, reg, templo3
}
// add a 32bit constant value to a full register
@ -528,12 +519,8 @@ static void gen_and_imm(HostReg reg,Bit32u imm) {
// move a 32bit constant value into memory
static void gen_mov_direct_dword(void* dest,Bit32u imm) {
cache_checkinstr(2);
cache_addw( MOV_HI_LO(temphi1, templosav) ); // mov temphi1, templosav
gen_mov_dword_to_reg_imm(templosav, imm);
gen_mov_word_from_reg(templosav, dest, 1);
cache_checkinstr(2);
cache_addw( MOV_LO_HI(templosav, temphi1) ); // mov templosav, temphi1
gen_mov_dword_to_reg_imm(templo3, imm);
gen_mov_word_from_reg(templo3, dest, 1);
}
// move an address into memory
@ -544,19 +531,15 @@ static void INLINE gen_mov_direct_ptr(void* dest,DRC_PTR_SIZE_IM imm) {
// add an 8bit constant value to a dword memory value
static void gen_add_direct_byte(void* dest,Bit8s imm) {
if(!imm) return;
cache_checkinstr(2);
cache_addw( MOV_HI_LO(temphi1, templosav) ); // mov temphi1, templosav
gen_mov_dword_to_reg_imm(templo2, (Bit32u)dest);
gen_mov_word_to_reg_helper(templosav, dest, 1, templo2);
gen_mov_word_to_reg_helper(templo3, dest, 1, templo2);
cache_checkinstr(2);
if (imm >= 0) {
cache_addw( ADD_IMM8(templosav, (Bit32s)imm) ); // add templosav, #(imm)
cache_addw( ADD_IMM8(templo3, (Bit32s)imm) ); // add templo3, #(imm)
} else {
cache_addw( SUB_IMM8(templosav, -((Bit32s)imm)) ); // sub templosav, #(-imm)
cache_addw( SUB_IMM8(templo3, -((Bit32s)imm)) ); // sub templo3, #(-imm)
}
gen_mov_word_from_reg_helper(templosav, dest, 1, templo2);
cache_checkinstr(2);
cache_addw( MOV_LO_HI(templosav, temphi1) ); // mov templosav, temphi1
gen_mov_word_from_reg_helper(templo3, dest, 1, templo2);
}
// add a 32bit (dword==true) or 16bit (dword==false) constant value to a memory value
@ -566,38 +549,30 @@ static void gen_add_direct_word(void* dest,Bit32u imm,bool dword) {
gen_add_direct_byte(dest,(Bit8s)imm);
return;
}
cache_checkinstr(2);
cache_addw( MOV_HI_LO(temphi1, templosav) ); // mov temphi1, templosav
gen_mov_dword_to_reg_imm(templo2, (Bit32u)dest);
gen_mov_word_to_reg_helper(templosav, dest, dword, templo2);
gen_mov_word_to_reg_helper(templo3, dest, dword, templo2);
if (dword) {
gen_mov_dword_to_reg_imm(templo1, imm);
} else {
gen_mov_word_to_reg_imm(templo1, (Bit16u)imm);
}
cache_checkinstr(2);
cache_addw( ADD_REG(templosav, templosav, templo1) ); // add templosav, templosav, templo1
gen_mov_word_from_reg_helper(templosav, dest, dword, templo2);
cache_checkinstr(2);
cache_addw( MOV_LO_HI(templosav, temphi1) ); // mov templosav, temphi1
cache_addw( ADD_REG(templo3, templo3, templo1) ); // add templo3, templo3, templo1
gen_mov_word_from_reg_helper(templo3, dest, dword, templo2);
}
// subtract an 8bit constant value from a dword memory value
static void gen_sub_direct_byte(void* dest,Bit8s imm) {
if(!imm) return;
cache_checkinstr(2);
cache_addw( MOV_HI_LO(temphi1, templosav) ); // mov temphi1, templosav
gen_mov_dword_to_reg_imm(templo2, (Bit32u)dest);
gen_mov_word_to_reg_helper(templosav, dest, 1, templo2);
gen_mov_word_to_reg_helper(templo3, dest, 1, templo2);
cache_checkinstr(2);
if (imm >= 0) {
cache_addw( SUB_IMM8(templosav, (Bit32s)imm) ); // sub templosav, #(imm)
cache_addw( SUB_IMM8(templo3, (Bit32s)imm) ); // sub templo3, #(imm)
} else {
cache_addw( ADD_IMM8(templosav, -((Bit32s)imm)) ); // add templosav, #(-imm)
cache_addw( ADD_IMM8(templo3, -((Bit32s)imm)) ); // add templo3, #(-imm)
}
gen_mov_word_from_reg_helper(templosav, dest, 1, templo2);
cache_checkinstr(2);
cache_addw( MOV_LO_HI(templosav, temphi1) ); // mov templosav, temphi1
gen_mov_word_from_reg_helper(templo3, dest, 1, templo2);
}
// subtract a 32bit (dword==true) or 16bit (dword==false) constant value from a memory value
@ -607,20 +582,16 @@ static void gen_sub_direct_word(void* dest,Bit32u imm,bool dword) {
gen_sub_direct_byte(dest,(Bit8s)imm);
return;
}
cache_checkinstr(2);
cache_addw( MOV_HI_LO(temphi1, templosav) ); // mov temphi1, templosav
gen_mov_dword_to_reg_imm(templo2, (Bit32u)dest);
gen_mov_word_to_reg_helper(templosav, dest, dword, templo2);
gen_mov_word_to_reg_helper(templo3, dest, dword, templo2);
if (dword) {
gen_mov_dword_to_reg_imm(templo1, imm);
} else {
gen_mov_word_to_reg_imm(templo1, (Bit16u)imm);
}
cache_checkinstr(2);
cache_addw( SUB_REG(templosav, templosav, templo1) ); // sub templosav, templosav, templo1
gen_mov_word_from_reg_helper(templosav, dest, dword, templo2);
cache_checkinstr(2);
cache_addw( MOV_LO_HI(templosav, temphi1) ); // mov templosav, temphi1
cache_addw( SUB_REG(templo3, templo3, templo1) ); // sub templo3, templo3, templo1
gen_mov_word_from_reg_helper(templo3, dest, dword, templo2);
}
// effective address calculation, destination is dest_reg
@ -673,12 +644,11 @@ static void gen_call_function_helper(void * func) {
// after_call:
// thumb state from now on
cache_addw( MOV_REG(FC_RETOP, HOST_a1) ); // mov FC_RETOP, a1
}
// generate a call to a parameterless function
static void INLINE gen_call_function_raw(void * func) {
cache_checkinstr(14);
cache_checkinstr(12);
gen_call_function_helper(func);
}
@ -686,13 +656,13 @@ static void INLINE gen_call_function_raw(void * func) {
// note: the parameters are loaded in the architecture specific way
// using the gen_load_param_ functions below
static Bit32u INLINE gen_call_function_setup(void * func,Bitu paramcount,bool fastcall=false) {
cache_checkinstr(14);
cache_checkinstr(12);
Bit32u proc_addr = (Bit32u)cache.pos;
gen_call_function_helper(func);
return proc_addr;
// if proc_addr is on word boundary ((proc_addr & 0x03) == 0)
// then length of generated code is 14 bytes
// otherwise length of generated code is 12 bytes
// then length of generated code is 12 bytes
// otherwise length of generated code is 10 bytes
}
#if (1)
@ -723,33 +693,31 @@ static void INLINE gen_load_param_mem(Bitu mem,Bitu param) {
// jump to an address pointed at by ptr, offset is in imm
static void gen_jmp_ptr(void * ptr,Bits imm=0) {
cache_checkinstr(2);
cache_addw( MOV_HI_LO(temphi1, templosav) ); // mov temphi1, templosav
gen_mov_word_to_reg(templosav, ptr, 1);
gen_mov_word_to_reg(templo3, ptr, 1);
if (imm) {
gen_mov_dword_to_reg_imm(templo2, imm);
cache_checkinstr(2);
cache_addw( ADD_REG(templosav, templosav, templo2) ); // add templosav, templosav, templo2
cache_addw( ADD_REG(templo3, templo3, templo2) ); // add templo3, templo3, templo2
}
#if (1)
// (*ptr) should be word aligned
if ((imm & 0x03) == 0) {
cache_checkinstr(8);
cache_addw( LDR_IMM(templo2, templosav, 0) ); // ldr templo2, [templosav]
cache_checkinstr(6);
cache_addw( LDR_IMM(templo2, templo3, 0) ); // ldr templo2, [templo3]
} else
#endif
{
cache_checkinstr(26);
cache_addw( LDRB_IMM(templo2, templosav, 0) ); // ldrb templo2, [templosav]
cache_addw( LDRB_IMM(templo1, templosav, 1) ); // ldrb templo1, [templosav, #1]
cache_checkinstr(24);
cache_addw( LDRB_IMM(templo2, templo3, 0) ); // ldrb templo2, [templo3]
cache_addw( LDRB_IMM(templo1, templo3, 1) ); // ldrb templo1, [templo3, #1]
cache_addw( LSL_IMM(templo1, templo1, 8) ); // lsl templo1, templo1, #8
cache_addw( ORR(templo2, templo1) ); // orr templo2, templo1
cache_addw( LDRB_IMM(templo1, templosav, 2) ); // ldrb templo1, [templosav, #2]
cache_addw( LDRB_IMM(templo1, templo3, 2) ); // ldrb templo1, [templo3, #2]
cache_addw( LSL_IMM(templo1, templo1, 16) ); // lsl templo1, templo1, #16
cache_addw( ORR(templo2, templo1) ); // orr templo2, templo1
cache_addw( LDRB_IMM(templo1, templosav, 3) ); // ldrb templo1, [templosav, #3]
cache_addw( LDRB_IMM(templo1, templo3, 3) ); // ldrb templo1, [templo3, #3]
cache_addw( LSL_IMM(templo1, templo1, 24) ); // lsl templo1, templo1, #24
cache_addw( ORR(templo2, templo1) ); // orr templo2, templo1
}
@ -757,8 +725,6 @@ static void gen_jmp_ptr(void * ptr,Bits imm=0) {
// increase jmp address to keep thumb state
cache_addw( ADD_IMM3(templo2, templo2, 1) ); // add templo2, templo2, #1
cache_addw( MOV_LO_HI(templosav, temphi1) ); // mov templosav, temphi1
cache_addw( BX(templo2) ); // bx templo2
}
@ -898,8 +864,7 @@ static void gen_run_code(void) {
// return from a function
static void gen_return_function(void) {
cache_checkinstr(6);
cache_addw( MOV_REG(HOST_a1, FC_RETOP) ); // mov a1, FC_RETOP
cache_checkinstr(4);
cache_addw(0xbc08); // pop {r3}
cache_addw( BX(HOST_r3) ); // bx r3
}
@ -933,35 +898,32 @@ static void gen_fill_function_ptr(Bit8u * pos,void* fct_ptr,Bitu flags_type) {
case t_ADDb:
case t_ADDw:
case t_ADDd:
*(Bit16u*)pos=ADD_REG(FC_RETOP, HOST_a1, HOST_a2); // add FC_RETOP, a1, a2
*(Bit16u*)(pos+2)=B_FWD(8); // b after_call (pc+8)
*(Bit16u*)pos=ADD_REG(HOST_a1, HOST_a1, HOST_a2); // add a1, a1, a2
*(Bit16u*)(pos+2)=B_FWD(6); // b after_call (pc+6)
break;
case t_ORb:
case t_ORw:
case t_ORd:
*(Bit16u*)pos=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+2)=ORR(FC_RETOP, HOST_a2); // orr FC_RETOP, a2
*(Bit16u*)(pos+4)=B_FWD(6); // b after_call (pc+6)
*(Bit16u*)pos=ORR(HOST_a1, HOST_a2); // orr a1, a2
*(Bit16u*)(pos+2)=B_FWD(6); // b after_call (pc+6)
break;
case t_ANDb:
case t_ANDw:
case t_ANDd:
*(Bit16u*)pos=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+2)=AND(FC_RETOP, HOST_a2); // and FC_RETOP, a2
*(Bit16u*)(pos+4)=B_FWD(6); // b after_call (pc+6)
*(Bit16u*)pos=AND(HOST_a1, HOST_a2); // and a1, a2
*(Bit16u*)(pos+2)=B_FWD(6); // b after_call (pc+6)
break;
case t_SUBb:
case t_SUBw:
case t_SUBd:
*(Bit16u*)pos=SUB_REG(FC_RETOP, HOST_a1, HOST_a2); // sub FC_RETOP, a1, a2
*(Bit16u*)(pos+2)=B_FWD(8); // b after_call (pc+8)
*(Bit16u*)pos=SUB_REG(HOST_a1, HOST_a1, HOST_a2); // sub a1, a1, a2
*(Bit16u*)(pos+2)=B_FWD(6); // b after_call (pc+6)
break;
case t_XORb:
case t_XORw:
case t_XORd:
*(Bit16u*)pos=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+2)=EOR(FC_RETOP, HOST_a2); // eor FC_RETOP, a2
*(Bit16u*)(pos+4)=B_FWD(6); // b after_call (pc+6)
*(Bit16u*)pos=EOR(HOST_a1, HOST_a2); // eor a1, a2
*(Bit16u*)(pos+2)=B_FWD(6); // b after_call (pc+6)
break;
case t_CMPb:
case t_CMPw:
@ -969,117 +931,107 @@ static void gen_fill_function_ptr(Bit8u * pos,void* fct_ptr,Bitu flags_type) {
case t_TESTb:
case t_TESTw:
case t_TESTd:
*(Bit16u*)pos=B_FWD(10); // b after_call (pc+10)
*(Bit16u*)pos=B_FWD(8); // b after_call (pc+8)
break;
case t_INCb:
case t_INCw:
case t_INCd:
*(Bit16u*)pos=ADD_IMM3(FC_RETOP, HOST_a1, 1); // add FC_RETOP, a1, #1
*(Bit16u*)(pos+2)=B_FWD(8); // b after_call (pc+8)
*(Bit16u*)pos=ADD_IMM3(HOST_a1, HOST_a1, 1); // add a1, a1, #1
*(Bit16u*)(pos+2)=B_FWD(6); // b after_call (pc+6)
break;
case t_DECb:
case t_DECw:
case t_DECd:
*(Bit16u*)pos=SUB_IMM3(FC_RETOP, HOST_a1, 1); // sub FC_RETOP, a1, #1
*(Bit16u*)(pos+2)=B_FWD(8); // b after_call (pc+8)
*(Bit16u*)pos=SUB_IMM3(HOST_a1, HOST_a1, 1); // sub a1, a1, #1
*(Bit16u*)(pos+2)=B_FWD(6); // b after_call (pc+6)
break;
case t_SHLb:
case t_SHLw:
case t_SHLd:
*(Bit16u*)pos=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+2)=LSL_REG(FC_RETOP, HOST_a2); // lsl FC_RETOP, a2
*(Bit16u*)(pos+4)=B_FWD(6); // b after_call (pc+6)
*(Bit16u*)pos=LSL_REG(HOST_a1, HOST_a2); // lsl a1, a2
*(Bit16u*)(pos+2)=B_FWD(6); // b after_call (pc+6)
break;
case t_SHRb:
*(Bit16u*)pos=LSL_IMM(FC_RETOP, HOST_a1, 24); // lsl FC_RETOP, a1, #24
*(Bit16u*)(pos+2)=LSR_IMM(FC_RETOP, FC_RETOP, 24); // lsr FC_RETOP, FC_RETOP, #24
*(Bit16u*)(pos+4)=LSR_REG(FC_RETOP, HOST_a2); // lsr FC_RETOP, a2
*(Bit16u*)(pos+6)=B_FWD(4); // b after_call (pc+4)
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 24); // lsl a1, a1, #24
*(Bit16u*)(pos+2)=NOP; // nop
*(Bit16u*)(pos+4)=LSR_IMM(HOST_a1, HOST_a1, 24); // lsr a1, a1, #24
*(Bit16u*)(pos+6)=NOP; // nop
*(Bit16u*)(pos+8)=LSR_REG(HOST_a1, HOST_a2); // lsr a1, a2
*(Bit16u*)(pos+10)=NOP; // nop
break;
case t_SHRw:
*(Bit16u*)pos=LSL_IMM(FC_RETOP, HOST_a1, 16); // lsl FC_RETOP, a1, #16
*(Bit16u*)(pos+2)=LSR_IMM(FC_RETOP, FC_RETOP, 16); // lsr FC_RETOP, FC_RETOP, #16
*(Bit16u*)(pos+4)=LSR_REG(FC_RETOP, HOST_a2); // lsr FC_RETOP, a2
*(Bit16u*)(pos+6)=B_FWD(4); // b after_call (pc+4)
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 16); // lsl a1, a1, #16
*(Bit16u*)(pos+2)=NOP; // nop
*(Bit16u*)(pos+4)=LSR_IMM(HOST_a1, HOST_a1, 16); // lsr a1, a1, #16
*(Bit16u*)(pos+6)=NOP; // nop
*(Bit16u*)(pos+8)=LSR_REG(HOST_a1, HOST_a2); // lsr a1, a2
*(Bit16u*)(pos+10)=NOP; // nop
break;
case t_SHRd:
*(Bit16u*)pos=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+2)=LSR_REG(FC_RETOP, HOST_a2); // lsr FC_RETOP, a2
*(Bit16u*)(pos+4)=B_FWD(6); // b after_call (pc+6)
*(Bit16u*)pos=LSR_REG(HOST_a1, HOST_a2); // lsr a1, a2
*(Bit16u*)(pos+2)=B_FWD(6); // b after_call (pc+6)
break;
case t_SARb:
*(Bit16u*)pos=LSL_IMM(FC_RETOP, HOST_a1, 24); // lsl FC_RETOP, a1, #24
*(Bit16u*)(pos+2)=ASR_IMM(FC_RETOP, FC_RETOP, 24); // asr FC_RETOP, FC_RETOP, #24
*(Bit16u*)(pos+4)=ASR_REG(FC_RETOP, HOST_a2); // asr FC_RETOP, a2
*(Bit16u*)(pos+6)=B_FWD(4); // b after_call (pc+4)
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 24); // lsl a1, a1, #24
*(Bit16u*)(pos+2)=NOP; // nop
*(Bit16u*)(pos+4)=ASR_IMM(HOST_a1, HOST_a1, 24); // asr a1, a1, #24
*(Bit16u*)(pos+6)=NOP; // nop
*(Bit16u*)(pos+8)=ASR_REG(HOST_a1, HOST_a2); // asr a1, a2
*(Bit16u*)(pos+10)=NOP; // nop
break;
case t_SARw:
*(Bit16u*)pos=LSL_IMM(FC_RETOP, HOST_a1, 16); // lsl FC_RETOP, a1, #16
*(Bit16u*)(pos+2)=ASR_IMM(FC_RETOP, FC_RETOP, 16); // asr FC_RETOP, FC_RETOP, #16
*(Bit16u*)(pos+4)=ASR_REG(FC_RETOP, HOST_a2); // asr FC_RETOP, a2
*(Bit16u*)(pos+6)=B_FWD(4); // b after_call (pc+4)
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 16); // lsl a1, a1, #16
*(Bit16u*)(pos+2)=NOP; // nop
*(Bit16u*)(pos+4)=ASR_IMM(HOST_a1, HOST_a1, 16); // asr a1, a1, #16
*(Bit16u*)(pos+6)=NOP; // nop
*(Bit16u*)(pos+8)=ASR_REG(HOST_a1, HOST_a2); // asr a1, a2
*(Bit16u*)(pos+10)=NOP; // nop
break;
case t_SARd:
*(Bit16u*)pos=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+2)=ASR_REG(FC_RETOP, HOST_a2); // asr FC_RETOP, a2
*(Bit16u*)(pos+4)=B_FWD(6); // b after_call (pc+6)
*(Bit16u*)pos=ASR_REG(HOST_a1, HOST_a2); // asr a1, a2
*(Bit16u*)(pos+2)=B_FWD(6); // b after_call (pc+6)
break;
case t_RORb:
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 24); // lsl a1, a1, #24
*(Bit16u*)(pos+2)=LSR_IMM(FC_RETOP, HOST_a1, 8); // lsr FC_RETOP, a1, #8
*(Bit16u*)(pos+4)=ORR(HOST_a1, FC_RETOP); // orr a1, FC_RETOP
*(Bit16u*)(pos+6)=LSR_IMM(FC_RETOP, HOST_a1, 16); // lsr FC_RETOP, a1, #16
*(Bit16u*)(pos+8)=ORR(FC_RETOP, HOST_a1); // orr FC_RETOP, a1
*(Bit16u*)(pos+10)=NOP; // nop
*(Bit16u*)(pos+12)=ROR_REG(FC_RETOP, HOST_a2); // ror FC_RETOP, a2
*(Bit16u*)(pos+2)=LSR_IMM(templo1, HOST_a1, 8); // lsr templo1, a1, #8
*(Bit16u*)(pos+4)=ORR(HOST_a1, templo1); // orr a1, templo1
*(Bit16u*)(pos+6)=LSR_IMM(templo1, HOST_a1, 16); // lsr templo1, a1, #16
*(Bit16u*)(pos+8)=ORR(HOST_a1, templo1); // orr a1, templo1
*(Bit16u*)(pos+10)=ROR_REG(HOST_a1, HOST_a2); // ror a1, a2
break;
case t_RORw:
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 16); // lsl a1, a1, #16
*(Bit16u*)(pos+2)=NOP; // nop
*(Bit16u*)(pos+4)=LSR_IMM(FC_RETOP, HOST_a1, 16); // lsr FC_RETOP, a1, #16
*(Bit16u*)(pos+6)=NOP; // nop
*(Bit16u*)(pos+8)=ORR(FC_RETOP, HOST_a1); // orr FC_RETOP, a1
*(Bit16u*)(pos+10)=NOP; // nop
*(Bit16u*)(pos+12)=ROR_REG(FC_RETOP, HOST_a2); // ror FC_RETOP, a2
*(Bit16u*)(pos+2)=LSR_IMM(templo1, HOST_a1, 16); // lsr templo1, a1, #16
*(Bit16u*)(pos+4)=NOP; // nop
*(Bit16u*)(pos+6)=ORR(HOST_a1, templo1); // orr a1, templo1
*(Bit16u*)(pos+8)=NOP; // nop
*(Bit16u*)(pos+10)=ROR_REG(HOST_a1, HOST_a2); // ror a1, a2
break;
case t_RORd:
*(Bit16u*)pos=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+2)=ROR_REG(FC_RETOP, HOST_a2); // ror FC_RETOP, a2
*(Bit16u*)(pos+4)=B_FWD(6); // b after_call (pc+6)
*(Bit16u*)pos=ROR_REG(HOST_a1, HOST_a2); // ror a1, a2
*(Bit16u*)(pos+2)=B_FWD(6); // b after_call (pc+6)
break;
/*case t_ROLb:
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 24); // lsl a1, a1, #24
*(Bit16u*)(pos+2)=NEG(templo1, HOST_a2); // neg templo1, a2
*(Bit16u*)(pos+4)=LSR_IMM(FC_RETOP, HOST_a1, 8); // lsr FC_RETOP, a1, #8
*(Bit16u*)(pos+6)=ADD_IMM8(templo1, 32); // add templo1, #32
*(Bit16u*)(pos+8)=ORR(HOST_a1, FC_RETOP); // orr a1, FC_RETOP
*(Bit16u*)(pos+10)=LSR_IMM(FC_RETOP, HOST_a1, 16); // lsr FC_RETOP, a1, #16
*(Bit16u*)(pos+12)=ORR(FC_RETOP, HOST_a1); // orr FC_RETOP, a1
*(Bit16u*)(pos+14)=ROR_REG(FC_RETOP, templo1); // ror FC_RETOP, templo1
break;*/
case t_ROLw:
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 16); // lsl a1, a1, #16
*(Bit16u*)(pos+2)=NEG(templo1, HOST_a2); // neg templo1, a2
*(Bit16u*)(pos+4)=LSR_IMM(FC_RETOP, HOST_a1, 16); // lsr FC_RETOP, a1, #16
*(Bit16u*)(pos+6)=ADD_IMM8(templo1, 32); // add templo1, #32
*(Bit16u*)(pos+8)=ORR(FC_RETOP, HOST_a1); // orr FC_RETOP, a1
*(Bit16u*)(pos+10)=NOP; // nop
*(Bit16u*)(pos+12)=ROR_REG(FC_RETOP, templo1); // ror FC_RETOP, templo1
*(Bit16u*)(pos+2)=NEG(HOST_a2, HOST_a2); // neg a2, a2
*(Bit16u*)(pos+4)=LSR_IMM(templo1, HOST_a1, 16); // lsr templo1, a1, #16
*(Bit16u*)(pos+6)=ADD_IMM8(HOST_a2, 32); // add a2, #32
*(Bit16u*)(pos+8)=ORR(HOST_a1, templo1); // orr a1, templo1
*(Bit16u*)(pos+10)=ROR_REG(HOST_a1, HOST_a2); // ror a1, a2
break;
case t_ROLd:
*(Bit16u*)pos=NEG(templo1, HOST_a2); // neg templo1, a2
*(Bit16u*)(pos+2)=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+4)=NOP; // nop
*(Bit16u*)(pos+6)=ADD_IMM8(templo1, 32); // add templo1, #32
*(Bit16u*)(pos+8)=NOP; // nop
*(Bit16u*)(pos+10)=ROR_REG(FC_RETOP, templo1); // ror FC_RETOP, templo1
*(Bit16u*)(pos+12)=NOP; // nop
*(Bit16u*)pos=NEG(HOST_a2, HOST_a2); // neg a2, a2
*(Bit16u*)(pos+2)=NOP; // nop
*(Bit16u*)(pos+4)=ADD_IMM8(HOST_a2, 32); // add a2, #32
*(Bit16u*)(pos+6)=NOP; // nop
*(Bit16u*)(pos+8)=ROR_REG(HOST_a1, HOST_a2); // ror a1, a2
*(Bit16u*)(pos+10)=NOP; // nop
break;
case t_NEGb:
case t_NEGw:
case t_NEGd:
*(Bit16u*)pos=NEG(FC_RETOP, HOST_a1); // neg FC_RETOP, a1
*(Bit16u*)(pos+2)=B_FWD(8); // b after_call (pc+8)
*(Bit16u*)pos=NEG(HOST_a1, HOST_a1); // neg a1, a1
*(Bit16u*)(pos+2)=B_FWD(6); // b after_call (pc+6)
break;
default:
*(Bit32u*)( ( ((Bit32u) (*pos)) << 2 ) + ((Bit32u)pos + 4) ) = (Bit32u)fct_ptr; // simple_func
@ -1093,35 +1045,32 @@ static void gen_fill_function_ptr(Bit8u * pos,void* fct_ptr,Bitu flags_type) {
case t_ADDb:
case t_ADDw:
case t_ADDd:
*(Bit16u*)pos=ADD_REG(FC_RETOP, HOST_a1, HOST_a2); // add FC_RETOP, a1, a2
*(Bit16u*)(pos+2)=B_FWD(6); // b after_call (pc+6)
*(Bit16u*)pos=ADD_REG(HOST_a1, HOST_a1, HOST_a2); // add a1, a1, a2
*(Bit16u*)(pos+2)=B_FWD(4); // b after_call (pc+4)
break;
case t_ORb:
case t_ORw:
case t_ORd:
*(Bit16u*)pos=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+2)=ORR(FC_RETOP, HOST_a2); // orr FC_RETOP, a2
*(Bit16u*)(pos+4)=B_FWD(4); // b after_call (pc+4)
*(Bit16u*)pos=ORR(HOST_a1, HOST_a2); // orr a1, a2
*(Bit16u*)(pos+2)=B_FWD(4); // b after_call (pc+4)
break;
case t_ANDb:
case t_ANDw:
case t_ANDd:
*(Bit16u*)pos=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+2)=AND(FC_RETOP, HOST_a2); // and FC_RETOP, a2
*(Bit16u*)(pos+4)=B_FWD(4); // b after_call (pc+4)
*(Bit16u*)pos=AND(HOST_a1, HOST_a2); // and a1, a2
*(Bit16u*)(pos+2)=B_FWD(4); // b after_call (pc+4)
break;
case t_SUBb:
case t_SUBw:
case t_SUBd:
*(Bit16u*)pos=SUB_REG(FC_RETOP, HOST_a1, HOST_a2); // sub FC_RETOP, a1, a2
*(Bit16u*)(pos+2)=B_FWD(6); // b after_call (pc+6)
*(Bit16u*)pos=SUB_REG(HOST_a1, HOST_a1, HOST_a2); // sub a1, a1, a2
*(Bit16u*)(pos+2)=B_FWD(4); // b after_call (pc+4)
break;
case t_XORb:
case t_XORw:
case t_XORd:
*(Bit16u*)pos=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+2)=EOR(FC_RETOP, HOST_a2); // eor FC_RETOP, a2
*(Bit16u*)(pos+4)=B_FWD(4); // b after_call (pc+4)
*(Bit16u*)pos=EOR(HOST_a1, HOST_a2); // eor a1, a2
*(Bit16u*)(pos+2)=B_FWD(4); // b after_call (pc+4)
break;
case t_CMPb:
case t_CMPw:
@ -1129,121 +1078,85 @@ static void gen_fill_function_ptr(Bit8u * pos,void* fct_ptr,Bitu flags_type) {
case t_TESTb:
case t_TESTw:
case t_TESTd:
*(Bit16u*)pos=B_FWD(8); // b after_call (pc+8)
*(Bit16u*)pos=B_FWD(6); // b after_call (pc+6)
break;
case t_INCb:
case t_INCw:
case t_INCd:
*(Bit16u*)pos=ADD_IMM3(FC_RETOP, HOST_a1, 1); // add FC_RETOP, a1, #1
*(Bit16u*)(pos+2)=B_FWD(6); // b after_call (pc+6)
*(Bit16u*)pos=ADD_IMM3(HOST_a1, HOST_a1, 1); // add a1, a1, #1
*(Bit16u*)(pos+2)=B_FWD(4); // b after_call (pc+4)
break;
case t_DECb:
case t_DECw:
case t_DECd:
*(Bit16u*)pos=SUB_IMM3(FC_RETOP, HOST_a1, 1); // sub FC_RETOP, a1, #1
*(Bit16u*)(pos+2)=B_FWD(6); // b after_call (pc+6)
*(Bit16u*)pos=SUB_IMM3(HOST_a1, HOST_a1, 1); // sub a1, a1, #1
*(Bit16u*)(pos+2)=B_FWD(4); // b after_call (pc+4)
break;
case t_SHLb:
case t_SHLw:
case t_SHLd:
*(Bit16u*)pos=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+2)=LSL_REG(FC_RETOP, HOST_a2); // lsl FC_RETOP, a2
*(Bit16u*)(pos+4)=B_FWD(4); // b after_call (pc+4)
*(Bit16u*)pos=LSL_REG(HOST_a1, HOST_a2); // lsl a1, a2
*(Bit16u*)(pos+2)=B_FWD(4); // b after_call (pc+4)
break;
case t_SHRb:
*(Bit16u*)pos=LSL_IMM(FC_RETOP, HOST_a1, 24); // lsl FC_RETOP, a1, #24
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 24); // lsl a1, a1, #24
*(Bit16u*)(pos+2)=NOP; // nop
*(Bit16u*)(pos+4)=LSR_IMM(FC_RETOP, FC_RETOP, 24); // lsr FC_RETOP, FC_RETOP, #24
*(Bit16u*)(pos+4)=LSR_IMM(HOST_a1, HOST_a1, 24); // lsr a1, a1, #24
*(Bit16u*)(pos+6)=NOP; // nop
*(Bit16u*)(pos+8)=LSR_REG(FC_RETOP, HOST_a2); // lsr FC_RETOP, a2
*(Bit16u*)(pos+10)=NOP; // nop
*(Bit16u*)(pos+8)=LSR_REG(HOST_a1, HOST_a2); // lsr a1, a2
break;
case t_SHRw:
*(Bit16u*)pos=LSL_IMM(FC_RETOP, HOST_a1, 16); // lsl FC_RETOP, a1, #16
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 16); // lsl a1, a1, #16
*(Bit16u*)(pos+2)=NOP; // nop
*(Bit16u*)(pos+4)=LSR_IMM(FC_RETOP, FC_RETOP, 16); // lsr FC_RETOP, FC_RETOP, #16
*(Bit16u*)(pos+4)=LSR_IMM(HOST_a1, HOST_a1, 16); // lsr a1, a1, #16
*(Bit16u*)(pos+6)=NOP; // nop
*(Bit16u*)(pos+8)=LSR_REG(FC_RETOP, HOST_a2); // lsr FC_RETOP, a2
*(Bit16u*)(pos+10)=NOP; // nop
*(Bit16u*)(pos+8)=LSR_REG(HOST_a1, HOST_a2); // lsr a1, a2
break;
case t_SHRd:
*(Bit16u*)pos=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+2)=LSR_REG(FC_RETOP, HOST_a2); // lsr FC_RETOP, a2
*(Bit16u*)(pos+4)=B_FWD(4); // b after_call (pc+4)
*(Bit16u*)pos=LSR_REG(HOST_a1, HOST_a2); // lsr a1, a2
*(Bit16u*)(pos+2)=B_FWD(4); // b after_call (pc+4)
break;
case t_SARb:
*(Bit16u*)pos=LSL_IMM(FC_RETOP, HOST_a1, 24); // lsl FC_RETOP, a1, #24
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 24); // lsl a1, a1, #24
*(Bit16u*)(pos+2)=NOP; // nop
*(Bit16u*)(pos+4)=ASR_IMM(FC_RETOP, FC_RETOP, 24); // asr FC_RETOP, FC_RETOP, #24
*(Bit16u*)(pos+4)=ASR_IMM(HOST_a1, HOST_a1, 24); // asr a1, a1, #24
*(Bit16u*)(pos+6)=NOP; // nop
*(Bit16u*)(pos+8)=ASR_REG(FC_RETOP, HOST_a2); // asr FC_RETOP, a2
*(Bit16u*)(pos+10)=NOP; // nop
*(Bit16u*)(pos+8)=ASR_REG(HOST_a1, HOST_a2); // asr a1, a2
break;
case t_SARw:
*(Bit16u*)pos=LSL_IMM(FC_RETOP, HOST_a1, 16); // lsl FC_RETOP, a1, #16
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 16); // lsl a1, a1, #16
*(Bit16u*)(pos+2)=NOP; // nop
*(Bit16u*)(pos+4)=ASR_IMM(FC_RETOP, FC_RETOP, 16); // asr FC_RETOP, FC_RETOP, #16
*(Bit16u*)(pos+4)=ASR_IMM(HOST_a1, HOST_a1, 16); // asr a1, a1, #16
*(Bit16u*)(pos+6)=NOP; // nop
*(Bit16u*)(pos+8)=ASR_REG(FC_RETOP, HOST_a2); // asr FC_RETOP, a2
*(Bit16u*)(pos+10)=NOP; // nop
*(Bit16u*)(pos+8)=ASR_REG(HOST_a1, HOST_a2); // asr a1, a2
break;
case t_SARd:
*(Bit16u*)pos=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+2)=ASR_REG(FC_RETOP, HOST_a2); // asr FC_RETOP, a2
*(Bit16u*)(pos+4)=B_FWD(4); // b after_call (pc+4)
break;
case t_RORb:
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 24); // lsl a1, a1, #24
*(Bit16u*)(pos+2)=LSR_IMM(FC_RETOP, HOST_a1, 8); // lsr FC_RETOP, a1, #8
*(Bit16u*)(pos+4)=ORR(HOST_a1, FC_RETOP); // orr a1, FC_RETOP
*(Bit16u*)(pos+6)=LSR_IMM(FC_RETOP, HOST_a1, 16); // lsr FC_RETOP, a1, #16
*(Bit16u*)(pos+8)=ORR(FC_RETOP, HOST_a1); // orr FC_RETOP, a1
*(Bit16u*)(pos+10)=ROR_REG(FC_RETOP, HOST_a2); // ror FC_RETOP, a2
*(Bit16u*)pos=ASR_REG(HOST_a1, HOST_a2); // asr a1, a2
*(Bit16u*)(pos+2)=B_FWD(4); // b after_call (pc+4)
break;
case t_RORw:
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 16); // lsl a1, a1, #16
*(Bit16u*)(pos+2)=LSR_IMM(FC_RETOP, HOST_a1, 16); // lsr FC_RETOP, a1, #16
*(Bit16u*)(pos+2)=LSR_IMM(templo1, HOST_a1, 16); // lsr templo1, a1, #16
*(Bit16u*)(pos+4)=NOP; // nop
*(Bit16u*)(pos+6)=ORR(FC_RETOP, HOST_a1); // orr FC_RETOP, a1
*(Bit16u*)(pos+8)=NOP; // nop
*(Bit16u*)(pos+10)=ROR_REG(FC_RETOP, HOST_a2); // ror FC_RETOP, a2
*(Bit16u*)(pos+6)=ORR(HOST_a1, templo1); // orr a1, templo1
*(Bit16u*)(pos+8)=ROR_REG(HOST_a1, HOST_a2); // ror a1, a2
break;
case t_RORd:
*(Bit16u*)pos=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+2)=ROR_REG(FC_RETOP, HOST_a2); // ror FC_RETOP, a2
*(Bit16u*)(pos+4)=B_FWD(4); // b after_call (pc+4)
break;
/*case t_ROLb:
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 24); // lsl a1, a1, #24
*(Bit16u*)(pos+2)=NEG(templo1, HOST_a2); // neg templo1, a2
*(Bit16u*)(pos+4)=LSR_IMM(FC_RETOP, HOST_a1, 8); // lsr FC_RETOP, a1, #8
*(Bit16u*)(pos+6)=ADD_IMM8(templo1, 32); // add templo1, #32
*(Bit16u*)(pos+8)=ORR(HOST_a1, FC_RETOP); // orr a1, FC_RETOP
*(Bit16u*)(pos+10)=LSR_IMM(FC_RETOP, HOST_a1, 16); // lsr FC_RETOP, a1, #16
*(Bit16u*)(pos+12)=ORR(FC_RETOP, HOST_a1); // orr FC_RETOP, a1
*(Bit16u*)(pos+14)=ROR_REG(FC_RETOP, templo1); // ror FC_RETOP, templo1
break;*/
case t_ROLw:
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 16); // lsl a1, a1, #16
*(Bit16u*)(pos+2)=NEG(templo1, HOST_a2); // neg templo1, a2
*(Bit16u*)(pos+4)=LSR_IMM(FC_RETOP, HOST_a1, 16); // lsr FC_RETOP, a1, #16
*(Bit16u*)(pos+6)=ADD_IMM8(templo1, 32); // add templo1, #32
*(Bit16u*)(pos+8)=ORR(FC_RETOP, HOST_a1); // orr FC_RETOP, a1
*(Bit16u*)(pos+10)=ROR_REG(FC_RETOP, templo1); // ror FC_RETOP, templo1
*(Bit16u*)pos=ROR_REG(HOST_a1, HOST_a2); // ror a1, a2
*(Bit16u*)(pos+2)=B_FWD(4); // b after_call (pc+4)
break;
case t_ROLd:
*(Bit16u*)pos=NEG(templo1, HOST_a2); // neg templo1, a2
*(Bit16u*)(pos+2)=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+4)=ADD_IMM8(templo1, 32); // add templo1, #32
*(Bit16u*)pos=NEG(HOST_a2, HOST_a2); // neg a2, a2
*(Bit16u*)(pos+2)=NOP; // nop
*(Bit16u*)(pos+4)=ADD_IMM8(HOST_a2, 32); // add a2, #32
*(Bit16u*)(pos+6)=NOP; // nop
*(Bit16u*)(pos+8)=ROR_REG(FC_RETOP, templo1); // ror FC_RETOP, templo1
*(Bit16u*)(pos+10)=NOP; // nop
*(Bit16u*)(pos+8)=ROR_REG(HOST_a1, HOST_a2); // ror a1, a2
break;
case t_NEGb:
case t_NEGw:
case t_NEGd:
*(Bit16u*)pos=NEG(FC_RETOP, HOST_a1); // neg FC_RETOP, a1
*(Bit16u*)(pos+2)=B_FWD(6); // b after_call (pc+6)
*(Bit16u*)pos=NEG(HOST_a1, HOST_a1); // neg a1, a1
*(Bit16u*)(pos+2)=B_FWD(4); // b after_call (pc+4)
break;
default:
*(Bit32u*)( ( ((Bit32u) (*pos)) << 2 ) + ((Bit32u)pos + 2) ) = (Bit32u)fct_ptr; // simple_func

View file

@ -16,7 +16,7 @@
* Foundation, Inc., 59 Temple Place - Suite 330, Boston, MA 02111-1307, USA.
*/
/* $Id: risc_armv4le-thumb-niw.h,v 1.4 2009-06-25 19:31:43 c2woody Exp $ */
/* $Id: risc_armv4le-thumb-niw.h,v 1.5 2009-06-27 12:51:10 c2woody Exp $ */
/* ARMv4 (little endian) backend by M-HT (thumb version with data pool) */
@ -25,15 +25,10 @@
// temporary "lo" registers
#define templo1 HOST_v3
#define templo2 HOST_v4
// temporary "lo" register - value must be preserved when using it
#define templosav HOST_a3
// temporary "hi" register
#define temphi1 HOST_ip
#define templo3 HOST_v2
// register that holds function return values
#define FC_RETOP HOST_v2
#define FC_RETOP HOST_a1
// register used for address calculations,
#define FC_ADDR HOST_v1 // has to be saved across calls, see DRC_PROTECT_ADDR_REG
@ -86,8 +81,6 @@
#define ADD_IMM8(dst, imm) (0x3000 + ((dst) << 8) + (imm) )
// add dst, src1, src2
#define ADD_REG(dst, src1, src2) (0x1800 + (dst) + ((src1) << 3) + ((src2) << 6) )
// add dst, src
#define ADD_LO_HI(dst, src) (0x4440 + (dst) + (((src) - HOST_r8) << 3) )
// add dst, pc, #imm @ 0 <= imm < 1024 & imm mod 4 = 0
#define ADD_LO_PC_IMM(dst, imm) (0xa000 + ((dst) << 8) + ((imm) >> 2) )
// sub dst, src1, src2
@ -502,11 +495,9 @@ static void gen_extend_word(bool sign,HostReg reg) {
// add a 32bit value from memory to a full register
static void gen_add(HostReg reg,void* op) {
gen_mov_word_to_reg(templo3, op, 1);
cache_checkinstr(2);
cache_addw( MOV_HI_LO(temphi1, reg) ); // mov temphi1, reg
gen_mov_word_to_reg(reg, op, 1);
cache_checkinstr(2);
cache_addw( ADD_LO_HI(reg, temphi1) ); // add reg, temphi1
cache_addw( ADD_REG(reg, reg, templo3) ); // add reg, reg, templo3
}
// add a 32bit constant value to a full register
@ -528,12 +519,8 @@ static void gen_and_imm(HostReg reg,Bit32u imm) {
// move a 32bit constant value into memory
static void gen_mov_direct_dword(void* dest,Bit32u imm) {
cache_checkinstr(2);
cache_addw( MOV_HI_LO(temphi1, templosav) ); // mov temphi1, templosav
gen_mov_dword_to_reg_imm(templosav, imm);
gen_mov_word_from_reg(templosav, dest, 1);
cache_checkinstr(2);
cache_addw( MOV_LO_HI(templosav, temphi1) ); // mov templosav, temphi1
gen_mov_dword_to_reg_imm(templo3, imm);
gen_mov_word_from_reg(templo3, dest, 1);
}
// move an address into memory
@ -544,19 +531,15 @@ static void INLINE gen_mov_direct_ptr(void* dest,DRC_PTR_SIZE_IM imm) {
// add an 8bit constant value to a dword memory value
static void gen_add_direct_byte(void* dest,Bit8s imm) {
if(!imm) return;
cache_checkinstr(2);
cache_addw( MOV_HI_LO(temphi1, templosav) ); // mov temphi1, templosav
gen_mov_dword_to_reg_imm(templo2, (Bit32u)dest);
gen_mov_word_to_reg_helper(templosav, dest, 1, templo2);
gen_mov_word_to_reg_helper(templo3, dest, 1, templo2);
cache_checkinstr(2);
if (imm >= 0) {
cache_addw( ADD_IMM8(templosav, (Bit32s)imm) ); // add templosav, #(imm)
cache_addw( ADD_IMM8(templo3, (Bit32s)imm) ); // add templo3, #(imm)
} else {
cache_addw( SUB_IMM8(templosav, -((Bit32s)imm)) ); // sub templosav, #(-imm)
cache_addw( SUB_IMM8(templo3, -((Bit32s)imm)) ); // sub templo3, #(-imm)
}
gen_mov_word_from_reg_helper(templosav, dest, 1, templo2);
cache_checkinstr(2);
cache_addw( MOV_LO_HI(templosav, temphi1) ); // mov templosav, temphi1
gen_mov_word_from_reg_helper(templo3, dest, 1, templo2);
}
// add a 32bit (dword==true) or 16bit (dword==false) constant value to a memory value
@ -566,38 +549,30 @@ static void gen_add_direct_word(void* dest,Bit32u imm,bool dword) {
gen_add_direct_byte(dest,(Bit8s)imm);
return;
}
cache_checkinstr(2);
cache_addw( MOV_HI_LO(temphi1, templosav) ); // mov temphi1, templosav
gen_mov_dword_to_reg_imm(templo2, (Bit32u)dest);
gen_mov_word_to_reg_helper(templosav, dest, dword, templo2);
gen_mov_word_to_reg_helper(templo3, dest, dword, templo2);
if (dword) {
gen_mov_dword_to_reg_imm(templo1, imm);
} else {
gen_mov_word_to_reg_imm(templo1, (Bit16u)imm);
}
cache_checkinstr(2);
cache_addw( ADD_REG(templosav, templosav, templo1) ); // add templosav, templosav, templo1
gen_mov_word_from_reg_helper(templosav, dest, dword, templo2);
cache_checkinstr(2);
cache_addw( MOV_LO_HI(templosav, temphi1) ); // mov templosav, temphi1
cache_addw( ADD_REG(templo3, templo3, templo1) ); // add templo3, templo3, templo1
gen_mov_word_from_reg_helper(templo3, dest, dword, templo2);
}
// subtract an 8bit constant value from a dword memory value
static void gen_sub_direct_byte(void* dest,Bit8s imm) {
if(!imm) return;
cache_checkinstr(2);
cache_addw( MOV_HI_LO(temphi1, templosav) ); // mov temphi1, templosav
gen_mov_dword_to_reg_imm(templo2, (Bit32u)dest);
gen_mov_word_to_reg_helper(templosav, dest, 1, templo2);
gen_mov_word_to_reg_helper(templo3, dest, 1, templo2);
cache_checkinstr(2);
if (imm >= 0) {
cache_addw( SUB_IMM8(templosav, (Bit32s)imm) ); // sub templosav, #(imm)
cache_addw( SUB_IMM8(templo3, (Bit32s)imm) ); // sub templo3, #(imm)
} else {
cache_addw( ADD_IMM8(templosav, -((Bit32s)imm)) ); // add templosav, #(-imm)
cache_addw( ADD_IMM8(templo3, -((Bit32s)imm)) ); // add templo3, #(-imm)
}
gen_mov_word_from_reg_helper(templosav, dest, 1, templo2);
cache_checkinstr(2);
cache_addw( MOV_LO_HI(templosav, temphi1) ); // mov templosav, temphi1
gen_mov_word_from_reg_helper(templo3, dest, 1, templo2);
}
// subtract a 32bit (dword==true) or 16bit (dword==false) constant value from a memory value
@ -607,20 +582,16 @@ static void gen_sub_direct_word(void* dest,Bit32u imm,bool dword) {
gen_sub_direct_byte(dest,(Bit8s)imm);
return;
}
cache_checkinstr(2);
cache_addw( MOV_HI_LO(temphi1, templosav) ); // mov temphi1, templosav
gen_mov_dword_to_reg_imm(templo2, (Bit32u)dest);
gen_mov_word_to_reg_helper(templosav, dest, dword, templo2);
gen_mov_word_to_reg_helper(templo3, dest, dword, templo2);
if (dword) {
gen_mov_dword_to_reg_imm(templo1, imm);
} else {
gen_mov_word_to_reg_imm(templo1, (Bit16u)imm);
}
cache_checkinstr(2);
cache_addw( SUB_REG(templosav, templosav, templo1) ); // sub templosav, templosav, templo1
gen_mov_word_from_reg_helper(templosav, dest, dword, templo2);
cache_checkinstr(2);
cache_addw( MOV_LO_HI(templosav, temphi1) ); // mov templosav, temphi1
cache_addw( SUB_REG(templo3, templo3, templo1) ); // sub templo3, templo3, templo1
gen_mov_word_from_reg_helper(templo3, dest, dword, templo2);
}
// effective address calculation, destination is dest_reg
@ -675,12 +646,11 @@ static void gen_call_function_helper(void * func) {
cache_addd(0xe12fff10 + (templo1)); // bx templo1
// thumb state from now on
cache_addw( MOV_REG(FC_RETOP, HOST_a1) ); // mov FC_RETOP, a1
}
// generate a call to a parameterless function
static void INLINE gen_call_function_raw(void * func) {
cache_checkinstr(20);
cache_checkinstr(18);
gen_call_function_helper(func);
}
@ -688,13 +658,13 @@ static void INLINE gen_call_function_raw(void * func) {
// note: the parameters are loaded in the architecture specific way
// using the gen_load_param_ functions below
static Bit32u INLINE gen_call_function_setup(void * func,Bitu paramcount,bool fastcall=false) {
cache_checkinstr(20);
cache_checkinstr(18);
Bit32u proc_addr = (Bit32u)cache.pos;
gen_call_function_helper(func);
return proc_addr;
// if proc_addr is on word boundary ((proc_addr & 0x03) == 0)
// then length of generated code is 18 bytes
// otherwise length of generated code is 20 bytes
// then length of generated code is 16 bytes
// otherwise length of generated code is 18 bytes
}
#if (1)
@ -725,33 +695,31 @@ static void INLINE gen_load_param_mem(Bitu mem,Bitu param) {
// jump to an address pointed at by ptr, offset is in imm
static void gen_jmp_ptr(void * ptr,Bits imm=0) {
cache_checkinstr(2);
cache_addw( MOV_HI_LO(temphi1, templosav) ); // mov temphi1, templosav
gen_mov_word_to_reg(templosav, ptr, 1);
gen_mov_word_to_reg(templo3, ptr, 1);
if (imm) {
gen_mov_dword_to_reg_imm(templo2, imm);
cache_checkinstr(2);
cache_addw( ADD_REG(templosav, templosav, templo2) ); // add templosav, templosav, templo2
cache_addw( ADD_REG(templo3, templo3, templo2) ); // add templo3, templo3, templo2
}
#if (1)
// (*ptr) should be word aligned
if ((imm & 0x03) == 0) {
cache_checkinstr(8);
cache_addw( LDR_IMM(templo2, templosav, 0) ); // ldr templo2, [templosav]
cache_checkinstr(6);
cache_addw( LDR_IMM(templo2, templo3, 0) ); // ldr templo2, [templo3]
} else
#endif
{
cache_checkinstr(26);
cache_addw( LDRB_IMM(templo2, templosav, 0) ); // ldrb templo2, [templosav]
cache_addw( LDRB_IMM(templo1, templosav, 1) ); // ldrb templo1, [templosav, #1]
cache_checkinstr(24);
cache_addw( LDRB_IMM(templo2, templo3, 0) ); // ldrb templo2, [templo3]
cache_addw( LDRB_IMM(templo1, templo3, 1) ); // ldrb templo1, [templo3, #1]
cache_addw( LSL_IMM(templo1, templo1, 8) ); // lsl templo1, templo1, #8
cache_addw( ORR(templo2, templo1) ); // orr templo2, templo1
cache_addw( LDRB_IMM(templo1, templosav, 2) ); // ldrb templo1, [templosav, #2]
cache_addw( LDRB_IMM(templo1, templo3, 2) ); // ldrb templo1, [templo3, #2]
cache_addw( LSL_IMM(templo1, templo1, 16) ); // lsl templo1, templo1, #16
cache_addw( ORR(templo2, templo1) ); // orr templo2, templo1
cache_addw( LDRB_IMM(templo1, templosav, 3) ); // ldrb templo1, [templosav, #3]
cache_addw( LDRB_IMM(templo1, templo3, 3) ); // ldrb templo1, [templo3, #3]
cache_addw( LSL_IMM(templo1, templo1, 24) ); // lsl templo1, templo1, #24
cache_addw( ORR(templo2, templo1) ); // orr templo2, templo1
}
@ -759,8 +727,6 @@ static void gen_jmp_ptr(void * ptr,Bits imm=0) {
// increase jmp address to keep thumb state
cache_addw( ADD_IMM3(templo2, templo2, 1) ); // add templo2, templo2, #1
cache_addw( MOV_LO_HI(templosav, temphi1) ); // mov templosav, temphi1
cache_addw( BX(templo2) ); // bx templo2
}
@ -900,8 +866,7 @@ static void gen_run_code(void) {
// return from a function
static void gen_return_function(void) {
cache_checkinstr(6);
cache_addw( MOV_REG(HOST_a1, FC_RETOP) ); // mov a1, FC_RETOP
cache_checkinstr(4);
cache_addw(0xbc08); // pop {r3}
cache_addw( BX(HOST_r3) ); // bx r3
}
@ -935,35 +900,32 @@ static void gen_fill_function_ptr(Bit8u * pos,void* fct_ptr,Bitu flags_type) {
case t_ADDb:
case t_ADDw:
case t_ADDd:
*(Bit16u*)pos=ADD_REG(FC_RETOP, HOST_a1, HOST_a2); // add FC_RETOP, a1, a2
*(Bit16u*)(pos+2)=B_FWD(12); // b after_call (pc+12)
*(Bit16u*)pos=ADD_REG(HOST_a1, HOST_a1, HOST_a2); // add a1, a1, a2
*(Bit16u*)(pos+2)=B_FWD(10); // b after_call (pc+10)
break;
case t_ORb:
case t_ORw:
case t_ORd:
*(Bit16u*)pos=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+2)=ORR(FC_RETOP, HOST_a2); // orr FC_RETOP, a2
*(Bit16u*)(pos+4)=B_FWD(10); // b after_call (pc+10)
*(Bit16u*)pos=ORR(HOST_a1, HOST_a2); // orr a1, a2
*(Bit16u*)(pos+2)=B_FWD(10); // b after_call (pc+10)
break;
case t_ANDb:
case t_ANDw:
case t_ANDd:
*(Bit16u*)pos=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+2)=AND(FC_RETOP, HOST_a2); // and FC_RETOP, a2
*(Bit16u*)(pos+4)=B_FWD(10); // b after_call (pc+10)
*(Bit16u*)pos=AND(HOST_a1, HOST_a2); // and a1, a2
*(Bit16u*)(pos+2)=B_FWD(10); // b after_call (pc+10)
break;
case t_SUBb:
case t_SUBw:
case t_SUBd:
*(Bit16u*)pos=SUB_REG(FC_RETOP, HOST_a1, HOST_a2); // sub FC_RETOP, a1, a2
*(Bit16u*)(pos+2)=B_FWD(12); // b after_call (pc+12)
*(Bit16u*)pos=SUB_REG(HOST_a1, HOST_a1, HOST_a2); // sub a1, a1, a2
*(Bit16u*)(pos+2)=B_FWD(10); // b after_call (pc+10)
break;
case t_XORb:
case t_XORw:
case t_XORd:
*(Bit16u*)pos=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+2)=EOR(FC_RETOP, HOST_a2); // eor FC_RETOP, a2
*(Bit16u*)(pos+4)=B_FWD(10); // b after_call (pc+10)
*(Bit16u*)pos=EOR(HOST_a1, HOST_a2); // eor a1, a2
*(Bit16u*)(pos+2)=B_FWD(10); // b after_call (pc+10)
break;
case t_CMPb:
case t_CMPw:
@ -971,118 +933,110 @@ static void gen_fill_function_ptr(Bit8u * pos,void* fct_ptr,Bitu flags_type) {
case t_TESTb:
case t_TESTw:
case t_TESTd:
*(Bit16u*)pos=B_FWD(14); // b after_call (pc+14)
*(Bit16u*)pos=B_FWD(12); // b after_call (pc+12)
break;
case t_INCb:
case t_INCw:
case t_INCd:
*(Bit16u*)pos=ADD_IMM3(FC_RETOP, HOST_a1, 1); // add FC_RETOP, a1, #1
*(Bit16u*)(pos+2)=B_FWD(12); // b after_call (pc+12)
*(Bit16u*)pos=ADD_IMM3(HOST_a1, HOST_a1, 1); // add a1, a1, #1
*(Bit16u*)(pos+2)=B_FWD(10); // b after_call (pc+10)
break;
case t_DECb:
case t_DECw:
case t_DECd:
*(Bit16u*)pos=SUB_IMM3(FC_RETOP, HOST_a1, 1); // sub FC_RETOP, a1, #1
*(Bit16u*)(pos+2)=B_FWD(12); // b after_call (pc+12)
*(Bit16u*)pos=SUB_IMM3(HOST_a1, HOST_a1, 1); // sub a1, a1, #1
*(Bit16u*)(pos+2)=B_FWD(10); // b after_call (pc+10)
break;
case t_SHLb:
case t_SHLw:
case t_SHLd:
*(Bit16u*)pos=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+2)=LSL_REG(FC_RETOP, HOST_a2); // lsl FC_RETOP, a2
*(Bit16u*)(pos+4)=B_FWD(10); // b after_call (pc+10)
*(Bit16u*)pos=LSL_REG(HOST_a1, HOST_a2); // lsl a1, a2
*(Bit16u*)(pos+2)=B_FWD(10); // b after_call (pc+10)
break;
case t_SHRb:
*(Bit16u*)pos=LSL_IMM(FC_RETOP, HOST_a1, 24); // lsl FC_RETOP, a1, #24
*(Bit16u*)(pos+2)=LSR_IMM(FC_RETOP, FC_RETOP, 24); // lsr FC_RETOP, FC_RETOP, #24
*(Bit16u*)(pos+4)=LSR_REG(FC_RETOP, HOST_a2); // lsr FC_RETOP, a2
*(Bit16u*)(pos+6)=B_FWD(8); // b after_call (pc+8)
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 24); // lsl a1, a1, #24
*(Bit16u*)(pos+2)=LSR_IMM(HOST_a1, HOST_a1, 24); // lsr a1, a1, #24
*(Bit16u*)(pos+4)=LSR_REG(HOST_a1, HOST_a2); // lsr a1, a2
*(Bit16u*)(pos+6)=B_FWD(6); // b after_call (pc+6)
break;
case t_SHRw:
*(Bit16u*)pos=LSL_IMM(FC_RETOP, HOST_a1, 16); // lsl FC_RETOP, a1, #16
*(Bit16u*)(pos+2)=LSR_IMM(FC_RETOP, FC_RETOP, 16); // lsr FC_RETOP, FC_RETOP, #16
*(Bit16u*)(pos+4)=LSR_REG(FC_RETOP, HOST_a2); // lsr FC_RETOP, a2
*(Bit16u*)(pos+6)=B_FWD(8); // b after_call (pc+8)
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 16); // lsl a1, a1, #16
*(Bit16u*)(pos+2)=LSR_IMM(HOST_a1, HOST_a1, 16); // lsr a1, a1, #16
*(Bit16u*)(pos+4)=LSR_REG(HOST_a1, HOST_a2); // lsr a1, a2
*(Bit16u*)(pos+6)=B_FWD(6); // b after_call (pc+6)
break;
case t_SHRd:
*(Bit16u*)pos=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+2)=LSR_REG(FC_RETOP, HOST_a2); // lsr FC_RETOP, a2
*(Bit16u*)(pos+4)=B_FWD(10); // b after_call (pc+10)
*(Bit16u*)pos=LSR_REG(HOST_a1, HOST_a2); // lsr a1, a2
*(Bit16u*)(pos+2)=B_FWD(10); // b after_call (pc+10)
break;
case t_SARb:
*(Bit16u*)pos=LSL_IMM(FC_RETOP, HOST_a1, 24); // lsl FC_RETOP, a1, #24
*(Bit16u*)(pos+2)=ASR_IMM(FC_RETOP, FC_RETOP, 24); // asr FC_RETOP, FC_RETOP, #24
*(Bit16u*)(pos+4)=ASR_REG(FC_RETOP, HOST_a2); // asr FC_RETOP, a2
*(Bit16u*)(pos+6)=B_FWD(8); // b after_call (pc+8)
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 24); // lsl a1, a1, #24
*(Bit16u*)(pos+2)=ASR_IMM(HOST_a1, HOST_a1, 24); // asr a1, a1, #24
*(Bit16u*)(pos+4)=ASR_REG(HOST_a1, HOST_a2); // asr a1, a2
*(Bit16u*)(pos+6)=B_FWD(6); // b after_call (pc+6)
break;
case t_SARw:
*(Bit16u*)pos=LSL_IMM(FC_RETOP, HOST_a1, 16); // lsl FC_RETOP, a1, #16
*(Bit16u*)(pos+2)=ASR_IMM(FC_RETOP, FC_RETOP, 16); // asr FC_RETOP, FC_RETOP, #16
*(Bit16u*)(pos+4)=ASR_REG(FC_RETOP, HOST_a2); // asr FC_RETOP, a2
*(Bit16u*)(pos+6)=B_FWD(8); // b after_call (pc+8)
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 16); // lsl a1, a1, #16
*(Bit16u*)(pos+2)=ASR_IMM(HOST_a1, HOST_a1, 16); // asr a1, a1, #16
*(Bit16u*)(pos+4)=ASR_REG(HOST_a1, HOST_a2); // asr a1, a2
*(Bit16u*)(pos+6)=B_FWD(6); // b after_call (pc+6)
break;
case t_SARd:
*(Bit16u*)pos=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+2)=ASR_REG(FC_RETOP, HOST_a2); // asr FC_RETOP, a2
*(Bit16u*)(pos+4)=B_FWD(10); // b after_call (pc+10)
*(Bit16u*)pos=ASR_REG(HOST_a1, HOST_a2); // asr a1, a2
*(Bit16u*)(pos+2)=B_FWD(10); // b after_call (pc+10)
break;
case t_RORb:
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 24); // lsl a1, a1, #24
*(Bit16u*)(pos+2)=LSR_IMM(FC_RETOP, HOST_a1, 8); // lsr FC_RETOP, a1, #8
*(Bit16u*)(pos+4)=ORR(HOST_a1, FC_RETOP); // orr a1, FC_RETOP
*(Bit16u*)(pos+2)=LSR_IMM(templo1, HOST_a1, 8); // lsr templo1, a1, #8
*(Bit16u*)(pos+4)=ORR(HOST_a1, templo1); // orr a1, templo1
*(Bit16u*)(pos+6)=NOP; // nop
*(Bit16u*)(pos+8)=LSR_IMM(FC_RETOP, HOST_a1, 16); // lsr FC_RETOP, a1, #16
*(Bit16u*)(pos+8)=LSR_IMM(templo1, HOST_a1, 16); // lsr templo1, a1, #16
*(Bit16u*)(pos+10)=NOP; // nop
*(Bit16u*)(pos+12)=ORR(FC_RETOP, HOST_a1); // orr FC_RETOP, a1
*(Bit16u*)(pos+14)=NOP; // nop
*(Bit16u*)(pos+16)=ROR_REG(FC_RETOP, HOST_a2); // ror FC_RETOP, a2
*(Bit16u*)(pos+12)=ORR(HOST_a1, templo1); // orr a1, templo1
*(Bit16u*)(pos+14)=ROR_REG(HOST_a1, HOST_a2); // ror a1, a2
break;
case t_RORw:
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 16); // lsl a1, a1, #16
*(Bit16u*)(pos+2)=LSR_IMM(FC_RETOP, HOST_a1, 16); // lsr FC_RETOP, a1, #16
*(Bit16u*)(pos+4)=ORR(FC_RETOP, HOST_a1); // orr FC_RETOP, a1
*(Bit16u*)(pos+6)=ROR_REG(FC_RETOP, HOST_a2); // ror FC_RETOP, a2
*(Bit16u*)(pos+8)=B_FWD(6); // b after_call (pc+6)
*(Bit16u*)(pos+2)=LSR_IMM(templo1, HOST_a1, 16); // lsr templo1, a1, #16
*(Bit16u*)(pos+4)=ORR(HOST_a1, templo1); // orr a1, templo1
*(Bit16u*)(pos+6)=ROR_REG(HOST_a1, HOST_a2); // ror a1, a2
*(Bit16u*)(pos+8)=B_FWD(4); // b after_call (pc+4)
break;
case t_RORd:
*(Bit16u*)pos=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+2)=ROR_REG(FC_RETOP, HOST_a2); // ror FC_RETOP, a2
*(Bit16u*)(pos+4)=B_FWD(10); // b after_call (pc+10)
*(Bit16u*)pos=ROR_REG(HOST_a1, HOST_a2); // ror a1, a2
*(Bit16u*)(pos+2)=B_FWD(10); // b after_call (pc+10)
break;
case t_ROLb:
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 24); // lsl a1, a1, #24
*(Bit16u*)(pos+2)=NEG(templo1, HOST_a2); // neg templo1, a2
*(Bit16u*)(pos+4)=LSR_IMM(FC_RETOP, HOST_a1, 8); // lsr FC_RETOP, a1, #8
*(Bit16u*)(pos+6)=ADD_IMM8(templo1, 32); // add templo1, #32
*(Bit16u*)(pos+8)=ORR(HOST_a1, FC_RETOP); // orr a1, FC_RETOP
*(Bit16u*)(pos+10)=LSR_IMM(FC_RETOP, HOST_a1, 16); // lsr FC_RETOP, a1, #16
*(Bit16u*)(pos+12)=ORR(FC_RETOP, HOST_a1); // orr FC_RETOP, a1
*(Bit16u*)(pos+14)=NOP; // nop
*(Bit16u*)(pos+16)=ROR_REG(FC_RETOP, templo1); // ror FC_RETOP, templo1
*(Bit16u*)(pos+2)=NEG(HOST_a2, HOST_a2); // neg a2, a2
*(Bit16u*)(pos+4)=LSR_IMM(templo1, HOST_a1, 8); // lsr templo1, a1, #8
*(Bit16u*)(pos+6)=ADD_IMM8(HOST_a2, 32); // add a2, #32
*(Bit16u*)(pos+8)=ORR(HOST_a1, templo1); // orr a1, templo1
*(Bit16u*)(pos+10)=LSR_IMM(templo1, HOST_a1, 16); // lsr templo1, a1, #16
*(Bit16u*)(pos+12)=ORR(HOST_a1, templo1); // orr a1, templo1
*(Bit16u*)(pos+14)=ROR_REG(HOST_a1, HOST_a2); // ror a1, a2
break;
case t_ROLw:
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 16); // lsl a1, a1, #16
*(Bit16u*)(pos+2)=NEG(templo1, HOST_a2); // neg templo1, a2
*(Bit16u*)(pos+4)=LSR_IMM(FC_RETOP, HOST_a1, 16); // lsr FC_RETOP, a1, #16
*(Bit16u*)(pos+6)=ADD_IMM8(templo1, 32); // add templo1, #32
*(Bit16u*)(pos+8)=ORR(FC_RETOP, HOST_a1); // orr FC_RETOP, a1
*(Bit16u*)(pos+2)=NEG(HOST_a2, HOST_a2); // neg a2, a2
*(Bit16u*)(pos+4)=LSR_IMM(templo1, HOST_a1, 16); // lsr templo1, a1, #16
*(Bit16u*)(pos+6)=ADD_IMM8(HOST_a2, 32); // add a2, #32
*(Bit16u*)(pos+8)=ORR(HOST_a1, templo1); // orr a1, templo1
*(Bit16u*)(pos+10)=NOP; // nop
*(Bit16u*)(pos+12)=ROR_REG(FC_RETOP, templo1); // ror FC_RETOP, templo1
*(Bit16u*)(pos+12)=ROR_REG(HOST_a1, HOST_a2); // ror a1, a2
*(Bit16u*)(pos+14)=NOP; // nop
*(Bit16u*)(pos+16)=NOP; // nop
break;
case t_ROLd:
*(Bit16u*)pos=NEG(templo1, HOST_a2); // neg templo1, a2
*(Bit16u*)(pos+2)=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+4)=ADD_IMM8(templo1, 32); // add templo1, #32
*(Bit16u*)(pos+6)=ROR_REG(FC_RETOP, templo1); // ror FC_RETOP, templo1
*(Bit16u*)(pos+8)=B_FWD(6); // b after_call (pc+6)
*(Bit16u*)pos=NEG(HOST_a2, HOST_a2); // neg a2, a2
*(Bit16u*)(pos+2)=ADD_IMM8(HOST_a2, 32); // add a2, #32
*(Bit16u*)(pos+4)=ROR_REG(HOST_a1, HOST_a2); // ror a1, a2
*(Bit16u*)(pos+6)=B_FWD(6); // b after_call (pc+6)
break;
case t_NEGb:
case t_NEGw:
case t_NEGd:
*(Bit16u*)pos=NEG(FC_RETOP, HOST_a1); // neg FC_RETOP, a1
*(Bit16u*)(pos+2)=B_FWD(12); // b after_call (pc+12)
*(Bit16u*)pos=NEG(HOST_a1, HOST_a1); // neg a1, a1
*(Bit16u*)(pos+2)=B_FWD(10); // b after_call (pc+10)
break;
default:
*(Bit32u*)( ( ((Bit32u) (*pos)) << 2 ) + ((Bit32u)pos + 4) ) = (Bit32u)fct_ptr; // simple_func
@ -1096,35 +1050,32 @@ static void gen_fill_function_ptr(Bit8u * pos,void* fct_ptr,Bitu flags_type) {
case t_ADDb:
case t_ADDw:
case t_ADDd:
*(Bit16u*)pos=ADD_REG(FC_RETOP, HOST_a1, HOST_a2); // add FC_RETOP, a1, a2
*(Bit16u*)(pos+2)=B_FWD(14); // b after_call (pc+14)
*(Bit16u*)pos=ADD_REG(HOST_a1, HOST_a1, HOST_a2); // add a1, a1, a2
*(Bit16u*)(pos+2)=B_FWD(12); // b after_call (pc+12)
break;
case t_ORb:
case t_ORw:
case t_ORd:
*(Bit16u*)pos=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+2)=ORR(FC_RETOP, HOST_a2); // orr FC_RETOP, a2
*(Bit16u*)(pos+4)=B_FWD(12); // b after_call (pc+12)
*(Bit16u*)pos=ORR(HOST_a1, HOST_a2); // orr a1, a2
*(Bit16u*)(pos+2)=B_FWD(12); // b after_call (pc+12)
break;
case t_ANDb:
case t_ANDw:
case t_ANDd:
*(Bit16u*)pos=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+2)=AND(FC_RETOP, HOST_a2); // and FC_RETOP, a2
*(Bit16u*)(pos+4)=B_FWD(12); // b after_call (pc+12)
*(Bit16u*)pos=AND(HOST_a1, HOST_a2); // and a1, a2
*(Bit16u*)(pos+2)=B_FWD(12); // b after_call (pc+12)
break;
case t_SUBb:
case t_SUBw:
case t_SUBd:
*(Bit16u*)pos=SUB_REG(FC_RETOP, HOST_a1, HOST_a2); // sub FC_RETOP, a1, a2
*(Bit16u*)(pos+2)=B_FWD(14); // b after_call (pc+14)
*(Bit16u*)pos=SUB_REG(HOST_a1, HOST_a1, HOST_a2); // sub a1, a1, a2
*(Bit16u*)(pos+2)=B_FWD(12); // b after_call (pc+12)
break;
case t_XORb:
case t_XORw:
case t_XORd:
*(Bit16u*)pos=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+2)=EOR(FC_RETOP, HOST_a2); // eor FC_RETOP, a2
*(Bit16u*)(pos+4)=B_FWD(12); // b after_call (pc+12)
*(Bit16u*)pos=EOR(HOST_a1, HOST_a2); // eor a1, a2
*(Bit16u*)(pos+2)=B_FWD(12); // b after_call (pc+12)
break;
case t_CMPb:
case t_CMPw:
@ -1132,115 +1083,113 @@ static void gen_fill_function_ptr(Bit8u * pos,void* fct_ptr,Bitu flags_type) {
case t_TESTb:
case t_TESTw:
case t_TESTd:
*(Bit16u*)pos=B_FWD(16); // b after_call (pc+16)
*(Bit16u*)pos=B_FWD(14); // b after_call (pc+14)
break;
case t_INCb:
case t_INCw:
case t_INCd:
*(Bit16u*)pos=ADD_IMM3(FC_RETOP, HOST_a1, 1); // add FC_RETOP, a1, #1
*(Bit16u*)(pos+2)=B_FWD(14); // b after_call (pc+14)
*(Bit16u*)pos=ADD_IMM3(HOST_a1, HOST_a1, 1); // add a1, a1, #1
*(Bit16u*)(pos+2)=B_FWD(12); // b after_call (pc+12)
break;
case t_DECb:
case t_DECw:
case t_DECd:
*(Bit16u*)pos=SUB_IMM3(FC_RETOP, HOST_a1, 1); // sub FC_RETOP, a1, #1
*(Bit16u*)(pos+2)=B_FWD(14); // b after_call (pc+14)
*(Bit16u*)pos=SUB_IMM3(HOST_a1, HOST_a1, 1); // sub a1, a1, #1
*(Bit16u*)(pos+2)=B_FWD(12); // b after_call (pc+12)
break;
case t_SHLb:
case t_SHLw:
case t_SHLd:
*(Bit16u*)pos=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+2)=LSL_REG(FC_RETOP, HOST_a2); // lsl FC_RETOP, a2
*(Bit16u*)(pos+4)=B_FWD(12); // b after_call (pc+12)
*(Bit16u*)pos=LSL_REG(HOST_a1, HOST_a2); // lsl a1, a2
*(Bit16u*)(pos+2)=B_FWD(12); // b after_call (pc+12)
break;
case t_SHRb:
*(Bit16u*)pos=LSL_IMM(FC_RETOP, HOST_a1, 24); // lsl FC_RETOP, a1, #24
*(Bit16u*)(pos+2)=LSR_IMM(FC_RETOP, FC_RETOP, 24); // lsr FC_RETOP, FC_RETOP, #24
*(Bit16u*)(pos+4)=LSR_REG(FC_RETOP, HOST_a2); // lsr FC_RETOP, a2
*(Bit16u*)(pos+6)=B_FWD(10); // b after_call (pc+10)
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 24); // lsl a1, a1, #24
*(Bit16u*)(pos+2)=LSR_IMM(HOST_a1, HOST_a1, 24); // lsr a1, a1, #24
*(Bit16u*)(pos+4)=LSR_REG(HOST_a1, HOST_a2); // lsr a1, a2
*(Bit16u*)(pos+6)=B_FWD(8); // b after_call (pc+8)
break;
case t_SHRw:
*(Bit16u*)pos=LSL_IMM(FC_RETOP, HOST_a1, 16); // lsl FC_RETOP, a1, #16
*(Bit16u*)(pos+2)=LSR_IMM(FC_RETOP, FC_RETOP, 16); // lsr FC_RETOP, FC_RETOP, #16
*(Bit16u*)(pos+4)=LSR_REG(FC_RETOP, HOST_a2); // lsr FC_RETOP, a2
*(Bit16u*)(pos+6)=B_FWD(10); // b after_call (pc+10)
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 16); // lsl a1, a1, #16
*(Bit16u*)(pos+2)=LSR_IMM(HOST_a1, HOST_a1, 16); // lsr a1, a1, #16
*(Bit16u*)(pos+4)=LSR_REG(HOST_a1, HOST_a2); // lsr a1, a2
*(Bit16u*)(pos+6)=B_FWD(8); // b after_call (pc+8)
break;
case t_SHRd:
*(Bit16u*)pos=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+2)=LSR_REG(FC_RETOP, HOST_a2); // lsr FC_RETOP, a2
*(Bit16u*)(pos+4)=B_FWD(12); // b after_call (pc+12)
*(Bit16u*)pos=LSR_REG(HOST_a1, HOST_a2); // lsr a1, a2
*(Bit16u*)(pos+2)=B_FWD(12); // b after_call (pc+12)
break;
case t_SARb:
*(Bit16u*)pos=LSL_IMM(FC_RETOP, HOST_a1, 24); // lsl FC_RETOP, a1, #24
*(Bit16u*)(pos+2)=ASR_IMM(FC_RETOP, FC_RETOP, 24); // asr FC_RETOP, FC_RETOP, #24
*(Bit16u*)(pos+4)=ASR_REG(FC_RETOP, HOST_a2); // asr FC_RETOP, a2
*(Bit16u*)(pos+6)=B_FWD(10); // b after_call (pc+10)
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 24); // lsl a1, a1, #24
*(Bit16u*)(pos+2)=ASR_IMM(HOST_a1, HOST_a1, 24); // asr a1, a1, #24
*(Bit16u*)(pos+4)=ASR_REG(HOST_a1, HOST_a2); // asr a1, a2
*(Bit16u*)(pos+6)=B_FWD(8); // b after_call (pc+8)
break;
case t_SARw:
*(Bit16u*)pos=LSL_IMM(FC_RETOP, HOST_a1, 16); // lsl FC_RETOP, a1, #16
*(Bit16u*)(pos+2)=ASR_IMM(FC_RETOP, FC_RETOP, 16); // asr FC_RETOP, FC_RETOP, #16
*(Bit16u*)(pos+4)=ASR_REG(FC_RETOP, HOST_a2); // asr FC_RETOP, a2
*(Bit16u*)(pos+6)=B_FWD(10); // b after_call (pc+10)
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 16); // lsl a1, a1, #16
*(Bit16u*)(pos+2)=ASR_IMM(HOST_a1, HOST_a1, 16); // asr a1, a1, #16
*(Bit16u*)(pos+4)=ASR_REG(HOST_a1, HOST_a2); // asr a1, a2
*(Bit16u*)(pos+6)=B_FWD(8); // b after_call (pc+8)
break;
case t_SARd:
*(Bit16u*)pos=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+2)=ASR_REG(FC_RETOP, HOST_a2); // asr FC_RETOP, a2
*(Bit16u*)(pos+4)=B_FWD(12); // b after_call (pc+12)
*(Bit16u*)pos=ASR_REG(HOST_a1, HOST_a2); // asr a1, a2
*(Bit16u*)(pos+2)=B_FWD(12); // b after_call (pc+12)
break;
case t_RORb:
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 24); // lsl a1, a1, #24
*(Bit16u*)(pos+2)=LSR_IMM(FC_RETOP, HOST_a1, 8); // lsr FC_RETOP, a1, #8
*(Bit16u*)(pos+4)=ORR(HOST_a1, FC_RETOP); // orr a1, FC_RETOP
*(Bit16u*)(pos+6)=LSR_IMM(FC_RETOP, HOST_a1, 16); // lsr FC_RETOP, a1, #16
*(Bit16u*)(pos+8)=ORR(FC_RETOP, HOST_a1); // orr FC_RETOP, a1
*(Bit16u*)(pos+10)=ROR_REG(FC_RETOP, HOST_a2); // ror FC_RETOP, a2
*(Bit16u*)(pos+12)=B_FWD(4); // b after_call (pc+4)
*(Bit16u*)(pos+2)=LSR_IMM(templo1, HOST_a1, 8); // lsr templo1, a1, #8
*(Bit16u*)(pos+4)=ORR(HOST_a1, templo1); // orr a1, templo1
*(Bit16u*)(pos+6)=NOP; // nop
*(Bit16u*)(pos+8)=LSR_IMM(templo1, HOST_a1, 16); // lsr templo1, a1, #16
*(Bit16u*)(pos+10)=NOP; // nop
*(Bit16u*)(pos+12)=ORR(HOST_a1, templo1); // orr a1, templo1
*(Bit16u*)(pos+14)=NOP; // nop
*(Bit16u*)(pos+16)=ROR_REG(HOST_a1, HOST_a2); // ror a1, a2
break;
case t_RORw:
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 16); // lsl a1, a1, #16
*(Bit16u*)(pos+2)=LSR_IMM(FC_RETOP, HOST_a1, 16); // lsr FC_RETOP, a1, #16
*(Bit16u*)(pos+4)=ORR(FC_RETOP, HOST_a1); // orr FC_RETOP, a1
*(Bit16u*)(pos+6)=ROR_REG(FC_RETOP, HOST_a2); // ror FC_RETOP, a2
*(Bit16u*)(pos+8)=B_FWD(8); // b after_call (pc+8)
*(Bit16u*)(pos+2)=LSR_IMM(templo1, HOST_a1, 16); // lsr templo1, a1, #16
*(Bit16u*)(pos+4)=ORR(HOST_a1, templo1); // orr a1, templo1
*(Bit16u*)(pos+6)=ROR_REG(HOST_a1, HOST_a2); // ror a1, a2
*(Bit16u*)(pos+8)=B_FWD(6); // b after_call (pc+6)
break;
case t_RORd:
*(Bit16u*)pos=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+2)=ROR_REG(FC_RETOP, HOST_a2); // ror FC_RETOP, a2
*(Bit16u*)(pos+4)=B_FWD(12); // b after_call (pc+12)
*(Bit16u*)pos=ROR_REG(HOST_a1, HOST_a2); // ror a1, a2
*(Bit16u*)(pos+2)=B_FWD(12); // b after_call (pc+12)
break;
case t_ROLb:
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 24); // lsl a1, a1, #24
*(Bit16u*)(pos+2)=NEG(templo1, HOST_a2); // neg templo1, a2
*(Bit16u*)(pos+4)=LSR_IMM(FC_RETOP, HOST_a1, 8); // lsr FC_RETOP, a1, #8
*(Bit16u*)(pos+6)=ADD_IMM8(templo1, 32); // add templo1, #32
*(Bit16u*)(pos+8)=ORR(HOST_a1, FC_RETOP); // orr a1, FC_RETOP
*(Bit16u*)(pos+10)=LSR_IMM(FC_RETOP, HOST_a1, 16); // lsr FC_RETOP, a1, #16
*(Bit16u*)(pos+12)=NOP; // nop
*(Bit16u*)(pos+14)=ORR(FC_RETOP, HOST_a1); // orr FC_RETOP, a1
*(Bit16u*)(pos+16)=NOP; // nop
*(Bit16u*)(pos+18)=ROR_REG(FC_RETOP, templo1); // ror FC_RETOP, templo1
*(Bit16u*)(pos+2)=NEG(HOST_a2, HOST_a2); // neg a2, a2
*(Bit16u*)(pos+4)=LSR_IMM(templo1, HOST_a1, 8); // lsr templo1, a1, #8
*(Bit16u*)(pos+6)=ADD_IMM8(HOST_a2, 32); // add a2, #32
*(Bit16u*)(pos+8)=ORR(HOST_a1, templo1); // orr a1, templo1
*(Bit16u*)(pos+10)=LSR_IMM(templo1, HOST_a1, 16); // lsr templo1, a1, #16
*(Bit16u*)(pos+12)=ORR(HOST_a1, templo1); // orr a1, templo1
*(Bit16u*)(pos+14)=NOP; // nop
*(Bit16u*)(pos+16)=ROR_REG(HOST_a1, HOST_a2); // ror a1, a2
break;
case t_ROLw:
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 16); // lsl a1, a1, #16
*(Bit16u*)(pos+2)=NEG(templo1, HOST_a2); // neg templo1, a2
*(Bit16u*)(pos+4)=LSR_IMM(FC_RETOP, HOST_a1, 16); // lsr FC_RETOP, a1, #16
*(Bit16u*)(pos+6)=ADD_IMM8(templo1, 32); // add templo1, #32
*(Bit16u*)(pos+8)=ORR(FC_RETOP, HOST_a1); // orr FC_RETOP, a1
*(Bit16u*)(pos+10)=ROR_REG(FC_RETOP, templo1); // ror FC_RETOP, templo1
*(Bit16u*)(pos+12)=B_FWD(4); // b after_call (pc+4)
*(Bit16u*)(pos+2)=NEG(HOST_a2, HOST_a2); // neg a2, a2
*(Bit16u*)(pos+4)=LSR_IMM(templo1, HOST_a1, 16); // lsr templo1, a1, #16
*(Bit16u*)(pos+6)=ADD_IMM8(HOST_a2, 32); // add a2, #32
*(Bit16u*)(pos+8)=ORR(HOST_a1, templo1); // orr a1, templo1
*(Bit16u*)(pos+10)=NOP; // nop
*(Bit16u*)(pos+12)=ROR_REG(HOST_a1, HOST_a2); // ror a1, a2
*(Bit16u*)(pos+14)=NOP; // nop
*(Bit16u*)(pos+16)=NOP; // nop
break;
case t_ROLd:
*(Bit16u*)pos=NEG(templo1, HOST_a2); // neg templo1, a2
*(Bit16u*)(pos+2)=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+4)=ADD_IMM8(templo1, 32); // add templo1, #32
*(Bit16u*)(pos+6)=ROR_REG(FC_RETOP, templo1); // ror FC_RETOP, templo1
*(Bit16u*)(pos+8)=B_FWD(8); // b after_call (pc+8)
*(Bit16u*)pos=NEG(HOST_a2, HOST_a2); // neg a2, a2
*(Bit16u*)(pos+2)=ADD_IMM8(HOST_a2, 32); // add a2, #32
*(Bit16u*)(pos+4)=ROR_REG(HOST_a1, HOST_a2); // ror a1, a2
*(Bit16u*)(pos+6)=B_FWD(8); // b after_call (pc+8)
break;
case t_NEGb:
case t_NEGw:
case t_NEGd:
*(Bit16u*)pos=NEG(FC_RETOP, HOST_a1); // neg FC_RETOP, a1
*(Bit16u*)(pos+2)=B_FWD(14); // b after_call (pc+14)
*(Bit16u*)pos=NEG(HOST_a1, HOST_a1); // neg a1, a1
*(Bit16u*)(pos+2)=B_FWD(12); // b after_call (pc+12)
break;
default:
*(Bit32u*)( ( ((Bit32u) (*pos)) << 2 ) + ((Bit32u)pos + 2) ) = (Bit32u)fct_ptr; // simple_func

View file

@ -16,7 +16,7 @@
* Foundation, Inc., 59 Temple Place - Suite 330, Boston, MA 02111-1307, USA.
*/
/* $Id: risc_armv4le-thumb.h,v 1.5 2009-06-25 19:31:43 c2woody Exp $ */
/* $Id: risc_armv4le-thumb.h,v 1.6 2009-06-27 12:51:10 c2woody Exp $ */
/* ARMv4 (little endian) backend by M-HT (thumb version) */
@ -25,15 +25,10 @@
// temporary "lo" registers
#define templo1 HOST_v3
#define templo2 HOST_v4
// temporary "lo" register - value must be preserved when using it
#define templosav HOST_a3
// temporary "hi" register
#define temphi1 HOST_ip
#define templo3 HOST_v2
// register that holds function return values
#define FC_RETOP HOST_v2
#define FC_RETOP HOST_a1
// register used for address calculations,
#define FC_ADDR HOST_v1 // has to be saved across calls, see DRC_PROTECT_ADDR_REG
@ -86,8 +81,6 @@
#define ADD_IMM8(dst, imm) (0x3000 + ((dst) << 8) + (imm) )
// add dst, src1, src2
#define ADD_REG(dst, src1, src2) (0x1800 + (dst) + ((src1) << 3) + ((src2) << 6) )
// add dst, src
#define ADD_LO_HI(dst, src) (0x4440 + (dst) + (((src) - HOST_r8) << 3) )
// add dst, pc, #imm @ 0 <= imm < 1024 & imm mod 4 = 0
#define ADD_LO_PC_IMM(dst, imm) (0xa000 + ((dst) << 8) + ((imm) >> 2) )
// sub dst, src1, src2
@ -364,9 +357,8 @@ static void gen_extend_word(bool sign,HostReg reg) {
// add a 32bit value from memory to a full register
static void gen_add(HostReg reg,void* op) {
cache_addw( MOV_HI_LO(temphi1, reg) ); // mov temphi1, reg
gen_mov_word_to_reg(reg, op, 1);
cache_addw( ADD_LO_HI(reg, temphi1) ); // add reg, temphi1
gen_mov_word_to_reg(templo3, op, 1);
cache_addw( ADD_REG(reg, reg, templo3) ); // add reg, reg, templo3
}
// add a 32bit constant value to a full register
@ -386,10 +378,8 @@ static void gen_and_imm(HostReg reg,Bit32u imm) {
// move a 32bit constant value into memory
static void gen_mov_direct_dword(void* dest,Bit32u imm) {
cache_addw( MOV_HI_LO(temphi1, templosav) ); // mov temphi1, templosav
gen_mov_dword_to_reg_imm(templosav, imm);
gen_mov_word_from_reg(templosav, dest, 1);
cache_addw( MOV_LO_HI(templosav, temphi1) ); // mov templosav, temphi1
gen_mov_dword_to_reg_imm(templo3, imm);
gen_mov_word_from_reg(templo3, dest, 1);
}
// move an address into memory
@ -400,16 +390,14 @@ static void INLINE gen_mov_direct_ptr(void* dest,DRC_PTR_SIZE_IM imm) {
// add an 8bit constant value to a dword memory value
static void gen_add_direct_byte(void* dest,Bit8s imm) {
if(!imm) return;
cache_addw( MOV_HI_LO(temphi1, templosav) ); // mov temphi1, templosav
gen_mov_dword_to_reg_imm(templo2, (Bit32u)dest);
gen_mov_word_to_reg_helper(templosav, dest, 1, templo2);
gen_mov_word_to_reg_helper(templo3, dest, 1, templo2);
if (imm >= 0) {
cache_addw( ADD_IMM8(templosav, (Bit32s)imm) ); // add templosav, #(imm)
cache_addw( ADD_IMM8(templo3, (Bit32s)imm) ); // add templo3, #(imm)
} else {
cache_addw( SUB_IMM8(templosav, -((Bit32s)imm)) ); // sub templosav, #(-imm)
cache_addw( SUB_IMM8(templo3, -((Bit32s)imm)) ); // sub templo3, #(-imm)
}
gen_mov_word_from_reg_helper(templosav, dest, 1, templo2);
cache_addw( MOV_LO_HI(templosav, temphi1) ); // mov templosav, temphi1
gen_mov_word_from_reg_helper(templo3, dest, 1, templo2);
}
// add a 32bit (dword==true) or 16bit (dword==false) constant value to a memory value
@ -419,32 +407,28 @@ static void gen_add_direct_word(void* dest,Bit32u imm,bool dword) {
gen_add_direct_byte(dest,(Bit8s)imm);
return;
}
cache_addw( MOV_HI_LO(temphi1, templosav) ); // mov temphi1, templosav
gen_mov_dword_to_reg_imm(templo2, (Bit32u)dest);
gen_mov_word_to_reg_helper(templosav, dest, dword, templo2);
gen_mov_word_to_reg_helper(templo3, dest, dword, templo2);
if (dword) {
gen_mov_dword_to_reg_imm(templo1, imm);
} else {
gen_mov_word_to_reg_imm(templo1, (Bit16u)imm);
}
cache_addw( ADD_REG(templosav, templosav, templo1) ); // add templosav, templosav, templo1
gen_mov_word_from_reg_helper(templosav, dest, dword, templo2);
cache_addw( MOV_LO_HI(templosav, temphi1) ); // mov templosav, temphi1
cache_addw( ADD_REG(templo3, templo3, templo1) ); // add templo3, templo3, templo1
gen_mov_word_from_reg_helper(templo3, dest, dword, templo2);
}
// subtract an 8bit constant value from a dword memory value
static void gen_sub_direct_byte(void* dest,Bit8s imm) {
if(!imm) return;
cache_addw( MOV_HI_LO(temphi1, templosav) ); // mov temphi1, templosav
gen_mov_dword_to_reg_imm(templo2, (Bit32u)dest);
gen_mov_word_to_reg_helper(templosav, dest, 1, templo2);
gen_mov_word_to_reg_helper(templo3, dest, 1, templo2);
if (imm >= 0) {
cache_addw( SUB_IMM8(templosav, (Bit32s)imm) ); // sub templosav, #(imm)
cache_addw( SUB_IMM8(templo3, (Bit32s)imm) ); // sub templo3, #(imm)
} else {
cache_addw( ADD_IMM8(templosav, -((Bit32s)imm)) ); // add templosav, #(-imm)
cache_addw( ADD_IMM8(templo3, -((Bit32s)imm)) ); // add templo3, #(-imm)
}
gen_mov_word_from_reg_helper(templosav, dest, 1, templo2);
cache_addw( MOV_LO_HI(templosav, temphi1) ); // mov templosav, temphi1
gen_mov_word_from_reg_helper(templo3, dest, 1, templo2);
}
// subtract a 32bit (dword==true) or 16bit (dword==false) constant value from a memory value
@ -454,17 +438,15 @@ static void gen_sub_direct_word(void* dest,Bit32u imm,bool dword) {
gen_sub_direct_byte(dest,(Bit8s)imm);
return;
}
cache_addw( MOV_HI_LO(temphi1, templosav) ); // mov temphi1, templosav
gen_mov_dword_to_reg_imm(templo2, (Bit32u)dest);
gen_mov_word_to_reg_helper(templosav, dest, dword, templo2);
gen_mov_word_to_reg_helper(templo3, dest, dword, templo2);
if (dword) {
gen_mov_dword_to_reg_imm(templo1, imm);
} else {
gen_mov_word_to_reg_imm(templo1, (Bit16u)imm);
}
cache_addw( SUB_REG(templosav, templosav, templo1) ); // sub templosav, templosav, templo1
gen_mov_word_from_reg_helper(templosav, dest, dword, templo2);
cache_addw( MOV_LO_HI(templosav, temphi1) ); // mov templosav, temphi1
cache_addw( SUB_REG(templo3, templo3, templo1) ); // sub templo3, templo3, templo1
gen_mov_word_from_reg_helper(templo3, dest, dword, templo2);
}
// effective address calculation, destination is dest_reg
@ -512,7 +494,6 @@ static void INLINE gen_call_function_raw(void * func) {
cache_addd(0xe12fff10 + (templo1)); // bx templo1
// thumb state from now on
cache_addw( MOV_REG(FC_RETOP, HOST_a1) ); // mov FC_RETOP, a1
}
// generate a call to a function with paramcount parameters
@ -523,8 +504,8 @@ static Bit32u INLINE gen_call_function_setup(void * func,Bitu paramcount,bool fa
gen_call_function_raw(func);
return proc_addr;
// if proc_addr is on word boundary ((proc_addr & 0x03) == 0)
// then length of generated code is 22 bytes
// otherwise length of generated code is 24 bytes
// then length of generated code is 20 bytes
// otherwise length of generated code is 22 bytes
}
#if (1)
@ -555,29 +536,28 @@ static void INLINE gen_load_param_mem(Bitu mem,Bitu param) {
// jump to an address pointed at by ptr, offset is in imm
static void gen_jmp_ptr(void * ptr,Bits imm=0) {
cache_addw( MOV_HI_LO(temphi1, templosav) ); // mov temphi1, templosav
gen_mov_word_to_reg(templosav, ptr, 1);
gen_mov_word_to_reg(templo3, ptr, 1);
if (imm) {
gen_mov_dword_to_reg_imm(templo2, imm);
cache_addw( ADD_REG(templosav, templosav, templo2) ); // add templosav, templosav, templo2
cache_addw( ADD_REG(templo3, templo3, templo2) ); // add templo3, templo3, templo2
}
#if (1)
// (*ptr) should be word aligned
if ((imm & 0x03) == 0) {
cache_addw( LDR_IMM(templo2, templosav, 0) ); // ldr templo2, [templosav]
cache_addw( LDR_IMM(templo2, templo3, 0) ); // ldr templo2, [templo3]
} else
#endif
{
cache_addw( LDRB_IMM(templo2, templosav, 0) ); // ldrb templo2, [templosav]
cache_addw( LDRB_IMM(templo1, templosav, 1) ); // ldrb templo1, [templosav, #1]
cache_addw( LDRB_IMM(templo2, templo3, 0) ); // ldrb templo2, [templo3]
cache_addw( LDRB_IMM(templo1, templo3, 1) ); // ldrb templo1, [templo3, #1]
cache_addw( LSL_IMM(templo1, templo1, 8) ); // lsl templo1, templo1, #8
cache_addw( ORR(templo2, templo1) ); // orr templo2, templo1
cache_addw( LDRB_IMM(templo1, templosav, 2) ); // ldrb templo1, [templosav, #2]
cache_addw( LDRB_IMM(templo1, templo3, 2) ); // ldrb templo1, [templo3, #2]
cache_addw( LSL_IMM(templo1, templo1, 16) ); // lsl templo1, templo1, #16
cache_addw( ORR(templo2, templo1) ); // orr templo2, templo1
cache_addw( LDRB_IMM(templo1, templosav, 3) ); // ldrb templo1, [templosav, #3]
cache_addw( LDRB_IMM(templo1, templo3, 3) ); // ldrb templo1, [templo3, #3]
cache_addw( LSL_IMM(templo1, templo1, 24) ); // lsl templo1, templo1, #24
cache_addw( ORR(templo2, templo1) ); // orr templo2, templo1
}
@ -585,8 +565,6 @@ static void gen_jmp_ptr(void * ptr,Bits imm=0) {
// increase jmp address to keep thumb state
cache_addw( ADD_IMM3(templo2, templo2, 1) ); // add templo2, templo2, #1
cache_addw( MOV_LO_HI(templosav, temphi1) ); // mov templosav, temphi1
cache_addw( BX(templo2) ); // bx templo2
}
@ -721,7 +699,6 @@ static void gen_run_code(void) {
// return from a function
static void gen_return_function(void) {
cache_addw( MOV_REG(HOST_a1, FC_RETOP) ); // mov a1, FC_RETOP
cache_addw(0xbc08); // pop {r3}
cache_addw( BX(HOST_r3) ); // bx r3
}
@ -739,35 +716,32 @@ static void gen_fill_function_ptr(Bit8u * pos,void* fct_ptr,Bitu flags_type) {
case t_ADDb:
case t_ADDw:
case t_ADDd:
*(Bit16u*)pos=ADD_REG(FC_RETOP, HOST_a1, HOST_a2); // add FC_RETOP, a1, a2
*(Bit16u*)(pos+2)=B_FWD(16); // b after_call (pc+16)
*(Bit16u*)pos=ADD_REG(HOST_a1, HOST_a1, HOST_a2); // add a1, a1, a2
*(Bit16u*)(pos+2)=B_FWD(14); // b after_call (pc+14)
break;
case t_ORb:
case t_ORw:
case t_ORd:
*(Bit16u*)pos=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+2)=ORR(FC_RETOP, HOST_a2); // orr FC_RETOP, a2
*(Bit16u*)(pos+4)=B_FWD(14); // b after_call (pc+14)
*(Bit16u*)pos=ORR(HOST_a1, HOST_a2); // orr a1, a2
*(Bit16u*)(pos+2)=B_FWD(14); // b after_call (pc+14)
break;
case t_ANDb:
case t_ANDw:
case t_ANDd:
*(Bit16u*)pos=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+2)=AND(FC_RETOP, HOST_a2); // and FC_RETOP, a2
*(Bit16u*)(pos+4)=B_FWD(14); // b after_call (pc+14)
*(Bit16u*)pos=AND(HOST_a1, HOST_a2); // and a1, a2
*(Bit16u*)(pos+2)=B_FWD(14); // b after_call (pc+14)
break;
case t_SUBb:
case t_SUBw:
case t_SUBd:
*(Bit16u*)pos=SUB_REG(FC_RETOP, HOST_a1, HOST_a2); // sub FC_RETOP, a1, a2
*(Bit16u*)(pos+2)=B_FWD(16); // b after_call (pc+16)
*(Bit16u*)pos=SUB_REG(HOST_a1, HOST_a1, HOST_a2); // sub a1, a1, a2
*(Bit16u*)(pos+2)=B_FWD(14); // b after_call (pc+14)
break;
case t_XORb:
case t_XORw:
case t_XORd:
*(Bit16u*)pos=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+2)=EOR(FC_RETOP, HOST_a2); // eor FC_RETOP, a2
*(Bit16u*)(pos+4)=B_FWD(14); // b after_call (pc+14)
*(Bit16u*)pos=EOR(HOST_a1, HOST_a2); // eor a1, a2
*(Bit16u*)(pos+2)=B_FWD(14); // b after_call (pc+14)
break;
case t_CMPb:
case t_CMPw:
@ -775,116 +749,110 @@ static void gen_fill_function_ptr(Bit8u * pos,void* fct_ptr,Bitu flags_type) {
case t_TESTb:
case t_TESTw:
case t_TESTd:
*(Bit16u*)pos=B_FWD(18); // b after_call (pc+18)
*(Bit16u*)pos=B_FWD(16); // b after_call (pc+16)
break;
case t_INCb:
case t_INCw:
case t_INCd:
*(Bit16u*)pos=ADD_IMM3(FC_RETOP, HOST_a1, 1); // add FC_RETOP, a1, #1
*(Bit16u*)(pos+2)=B_FWD(16); // b after_call (pc+16)
*(Bit16u*)pos=ADD_IMM3(HOST_a1, HOST_a1, 1); // add a1, a1, #1
*(Bit16u*)(pos+2)=B_FWD(14); // b after_call (pc+14)
break;
case t_DECb:
case t_DECw:
case t_DECd:
*(Bit16u*)pos=SUB_IMM3(FC_RETOP, HOST_a1, 1); // sub FC_RETOP, a1, #1
*(Bit16u*)(pos+2)=B_FWD(16); // b after_call (pc+16)
*(Bit16u*)pos=SUB_IMM3(HOST_a1, HOST_a1, 1); // sub a1, a1, #1
*(Bit16u*)(pos+2)=B_FWD(14); // b after_call (pc+14)
break;
case t_SHLb:
case t_SHLw:
case t_SHLd:
*(Bit16u*)pos=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+2)=LSL_REG(FC_RETOP, HOST_a2); // lsl FC_RETOP, a2
*(Bit16u*)(pos+4)=B_FWD(14); // b after_call (pc+14)
*(Bit16u*)pos=LSL_REG(HOST_a1, HOST_a2); // lsl a1, a2
*(Bit16u*)(pos+2)=B_FWD(14); // b after_call (pc+14)
break;
case t_SHRb:
*(Bit16u*)pos=LSL_IMM(FC_RETOP, HOST_a1, 24); // lsl FC_RETOP, a1, #24
*(Bit16u*)(pos+2)=LSR_IMM(FC_RETOP, FC_RETOP, 24); // lsr FC_RETOP, FC_RETOP, #24
*(Bit16u*)(pos+4)=LSR_REG(FC_RETOP, HOST_a2); // lsr FC_RETOP, a2
*(Bit16u*)(pos+6)=B_FWD(12); // b after_call (pc+12)
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 24); // lsl a1, a1, #24
*(Bit16u*)(pos+2)=LSR_IMM(HOST_a1, HOST_a1, 24); // lsr a1, a1, #24
*(Bit16u*)(pos+4)=LSR_REG(HOST_a1, HOST_a2); // lsr a1, a2
*(Bit16u*)(pos+6)=B_FWD(10); // b after_call (pc+10)
break;
case t_SHRw:
*(Bit16u*)pos=LSL_IMM(FC_RETOP, HOST_a1, 16); // lsl FC_RETOP, a1, #16
*(Bit16u*)(pos+2)=LSR_IMM(FC_RETOP, FC_RETOP, 16); // lsr FC_RETOP, FC_RETOP, #16
*(Bit16u*)(pos+4)=LSR_REG(FC_RETOP, HOST_a2); // lsr FC_RETOP, a2
*(Bit16u*)(pos+6)=B_FWD(12); // b after_call (pc+12)
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 16); // lsl a1, a1, #16
*(Bit16u*)(pos+2)=LSR_IMM(HOST_a1, HOST_a1, 16); // lsr a1, a1, #16
*(Bit16u*)(pos+4)=LSR_REG(HOST_a1, HOST_a2); // lsr a1, a2
*(Bit16u*)(pos+6)=B_FWD(10); // b after_call (pc+10)
break;
case t_SHRd:
*(Bit16u*)pos=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+2)=LSR_REG(FC_RETOP, HOST_a2); // lsr FC_RETOP, a2
*(Bit16u*)(pos+4)=B_FWD(14); // b after_call (pc+14)
*(Bit16u*)pos=LSR_REG(HOST_a1, HOST_a2); // lsr a1, a2
*(Bit16u*)(pos+2)=B_FWD(14); // b after_call (pc+14)
break;
case t_SARb:
*(Bit16u*)pos=LSL_IMM(FC_RETOP, HOST_a1, 24); // lsl FC_RETOP, a1, #24
*(Bit16u*)(pos+2)=ASR_IMM(FC_RETOP, FC_RETOP, 24); // asr FC_RETOP, FC_RETOP, #24
*(Bit16u*)(pos+4)=ASR_REG(FC_RETOP, HOST_a2); // asr FC_RETOP, a2
*(Bit16u*)(pos+6)=B_FWD(12); // b after_call (pc+12)
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 24); // lsl a1, a1, #24
*(Bit16u*)(pos+2)=ASR_IMM(HOST_a1, HOST_a1, 24); // asr a1, a1, #24
*(Bit16u*)(pos+4)=ASR_REG(HOST_a1, HOST_a2); // asr a1, a2
*(Bit16u*)(pos+6)=B_FWD(10); // b after_call (pc+10)
break;
case t_SARw:
*(Bit16u*)pos=LSL_IMM(FC_RETOP, HOST_a1, 16); // lsl FC_RETOP, a1, #16
*(Bit16u*)(pos+2)=ASR_IMM(FC_RETOP, FC_RETOP, 16); // asr FC_RETOP, FC_RETOP, #16
*(Bit16u*)(pos+4)=ASR_REG(FC_RETOP, HOST_a2); // asr FC_RETOP, a2
*(Bit16u*)(pos+6)=B_FWD(12); // b after_call (pc+12)
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 16); // lsl a1, a1, #16
*(Bit16u*)(pos+2)=ASR_IMM(HOST_a1, HOST_a1, 16); // asr a1, a1, #16
*(Bit16u*)(pos+4)=ASR_REG(HOST_a1, HOST_a2); // asr a1, a2
*(Bit16u*)(pos+6)=B_FWD(10); // b after_call (pc+10)
break;
case t_SARd:
*(Bit16u*)pos=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+2)=ASR_REG(FC_RETOP, HOST_a2); // asr FC_RETOP, a2
*(Bit16u*)(pos+4)=B_FWD(14); // b after_call (pc+14)
*(Bit16u*)pos=ASR_REG(HOST_a1, HOST_a2); // asr a1, a2
*(Bit16u*)(pos+2)=B_FWD(14); // b after_call (pc+14)
break;
case t_RORb:
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 24); // lsl a1, a1, #24
*(Bit16u*)(pos+2)=LSR_IMM(FC_RETOP, HOST_a1, 8); // lsr FC_RETOP, a1, #8
*(Bit16u*)(pos+4)=ORR(HOST_a1, FC_RETOP); // orr a1, FC_RETOP
*(Bit16u*)(pos+6)=LSR_IMM(FC_RETOP, HOST_a1, 16); // lsr FC_RETOP, a1, #16
*(Bit16u*)(pos+8)=ORR(FC_RETOP, HOST_a1); // orr FC_RETOP, a1
*(Bit16u*)(pos+10)=ROR_REG(FC_RETOP, HOST_a2); // ror FC_RETOP, a2
*(Bit16u*)(pos+12)=B_FWD(6); // b after_call (pc+6)
*(Bit16u*)(pos+2)=LSR_IMM(templo1, HOST_a1, 8); // lsr templo1, a1, #8
*(Bit16u*)(pos+4)=ORR(HOST_a1, templo1); // orr a1, templo1
*(Bit16u*)(pos+6)=LSR_IMM(templo1, HOST_a1, 16); // lsr templo1, a1, #16
*(Bit16u*)(pos+8)=ORR(HOST_a1, templo1); // orr a1, templo1
*(Bit16u*)(pos+10)=ROR_REG(HOST_a1, HOST_a2); // ror a1, a2
*(Bit16u*)(pos+12)=B_FWD(4); // b after_call (pc+4)
break;
case t_RORw:
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 16); // lsl a1, a1, #16
*(Bit16u*)(pos+2)=LSR_IMM(FC_RETOP, HOST_a1, 16); // lsr FC_RETOP, a1, #16
*(Bit16u*)(pos+4)=ORR(FC_RETOP, HOST_a1); // orr FC_RETOP, a1
*(Bit16u*)(pos+6)=ROR_REG(FC_RETOP, HOST_a2); // ror FC_RETOP, a2
*(Bit16u*)(pos+8)=B_FWD(10); // b after_call (pc+10)
*(Bit16u*)(pos+2)=LSR_IMM(templo1, HOST_a1, 16); // lsr templo1, a1, #16
*(Bit16u*)(pos+4)=ORR(HOST_a1, templo1); // orr a1, templo1
*(Bit16u*)(pos+6)=ROR_REG(HOST_a1, HOST_a2); // ror a1, a2
*(Bit16u*)(pos+8)=B_FWD(8); // b after_call (pc+8)
break;
case t_RORd:
*(Bit16u*)pos=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+2)=ROR_REG(FC_RETOP, HOST_a2); // ror FC_RETOP, a2
*(Bit16u*)(pos+4)=B_FWD(14); // b after_call (pc+14)
*(Bit16u*)pos=ROR_REG(HOST_a1, HOST_a2); // ror a1, a2
*(Bit16u*)(pos+2)=B_FWD(14); // b after_call (pc+14)
break;
case t_ROLb:
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 24); // lsl a1, a1, #24
*(Bit16u*)(pos+2)=NEG(templo1, HOST_a2); // neg templo1, a2
*(Bit16u*)(pos+4)=LSR_IMM(FC_RETOP, HOST_a1, 8); // lsr FC_RETOP, a1, #8
*(Bit16u*)(pos+6)=ADD_IMM8(templo1, 32); // add templo1, #32
*(Bit16u*)(pos+8)=ORR(HOST_a1, FC_RETOP); // orr a1, FC_RETOP
*(Bit16u*)(pos+2)=NEG(HOST_a2, HOST_a2); // neg a2, a2
*(Bit16u*)(pos+4)=LSR_IMM(templo1, HOST_a1, 8); // lsr templo1, a1, #8
*(Bit16u*)(pos+6)=ADD_IMM8(HOST_a2, 32); // add a2, #32
*(Bit16u*)(pos+8)=ORR(HOST_a1, templo1); // orr a1, templo1
*(Bit16u*)(pos+10)=NOP; // nop
*(Bit16u*)(pos+12)=LSR_IMM(FC_RETOP, HOST_a1, 16); // lsr FC_RETOP, a1, #16
*(Bit16u*)(pos+12)=LSR_IMM(templo1, HOST_a1, 16); // lsr templo1, a1, #16
*(Bit16u*)(pos+14)=NOP; // nop
*(Bit16u*)(pos+16)=ORR(FC_RETOP, HOST_a1); // orr FC_RETOP, a1
*(Bit16u*)(pos+18)=NOP; // nop
*(Bit16u*)(pos+20)=ROR_REG(FC_RETOP, templo1); // ror FC_RETOP, templo1
*(Bit16u*)(pos+16)=ORR(HOST_a1, templo1); // orr a1, templo1
*(Bit16u*)(pos+18)=ROR_REG(HOST_a1, HOST_a2); // ror a1, a2
break;
case t_ROLw:
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 16); // lsl a1, a1, #16
*(Bit16u*)(pos+2)=NEG(templo1, HOST_a2); // neg templo1, a2
*(Bit16u*)(pos+4)=LSR_IMM(FC_RETOP, HOST_a1, 16); // lsr FC_RETOP, a1, #16
*(Bit16u*)(pos+6)=ADD_IMM8(templo1, 32); // add templo1, #32
*(Bit16u*)(pos+8)=ORR(FC_RETOP, HOST_a1); // orr FC_RETOP, a1
*(Bit16u*)(pos+10)=ROR_REG(FC_RETOP, templo1); // ror FC_RETOP, templo1
*(Bit16u*)(pos+12)=B_FWD(6); // b after_call (pc+6)
*(Bit16u*)(pos+2)=NEG(HOST_a2, HOST_a2); // neg a2, a2
*(Bit16u*)(pos+4)=LSR_IMM(templo1, HOST_a1, 16); // lsr templo1, a1, #16
*(Bit16u*)(pos+6)=ADD_IMM8(HOST_a2, 32); // add a2, #32
*(Bit16u*)(pos+8)=ORR(HOST_a1, templo1); // orr a1, templo1
*(Bit16u*)(pos+10)=ROR_REG(HOST_a1, HOST_a2); // ror a1, a2
*(Bit16u*)(pos+12)=B_FWD(4); // b after_call (pc+4)
break;
case t_ROLd:
*(Bit16u*)pos=NEG(templo1, HOST_a2); // neg templo1, a2
*(Bit16u*)(pos+2)=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+4)=ADD_IMM8(templo1, 32); // add templo1, #32
*(Bit16u*)(pos+6)=ROR_REG(FC_RETOP, templo1); // ror FC_RETOP, templo1
*(Bit16u*)(pos+8)=B_FWD(10); // b after_call (pc+10)
*(Bit16u*)pos=NEG(HOST_a2, HOST_a2); // neg a2, a2
*(Bit16u*)(pos+2)=ADD_IMM8(HOST_a2, 32); // add a2, #32
*(Bit16u*)(pos+4)=ROR_REG(HOST_a1, HOST_a2); // ror a1, a2
*(Bit16u*)(pos+6)=B_FWD(10); // b after_call (pc+10)
break;
case t_NEGb:
case t_NEGw:
case t_NEGd:
*(Bit16u*)pos=NEG(FC_RETOP, HOST_a1); // neg FC_RETOP, a1
*(Bit16u*)(pos+2)=B_FWD(16); // b after_call (pc+16)
*(Bit16u*)pos=NEG(HOST_a1, HOST_a1); // neg a1, a1
*(Bit16u*)(pos+2)=B_FWD(14); // b after_call (pc+14)
break;
default:
*(Bit32u*)(pos+8)=(Bit32u)fct_ptr; // simple_func
@ -898,35 +866,32 @@ static void gen_fill_function_ptr(Bit8u * pos,void* fct_ptr,Bitu flags_type) {
case t_ADDb:
case t_ADDw:
case t_ADDd:
*(Bit16u*)pos=ADD_REG(FC_RETOP, HOST_a1, HOST_a2); // add FC_RETOP, a1, a2
*(Bit16u*)(pos+2)=B_FWD(18); // b after_call (pc+18)
*(Bit16u*)pos=ADD_REG(HOST_a1, HOST_a1, HOST_a2); // add a1, a1, a2
*(Bit16u*)(pos+2)=B_FWD(16); // b after_call (pc+16)
break;
case t_ORb:
case t_ORw:
case t_ORd:
*(Bit16u*)pos=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+2)=ORR(FC_RETOP, HOST_a2); // orr FC_RETOP, a2
*(Bit16u*)(pos+4)=B_FWD(16); // b after_call (pc+16)
*(Bit16u*)pos=ORR(HOST_a1, HOST_a2); // orr a1, a2
*(Bit16u*)(pos+2)=B_FWD(16); // b after_call (pc+16)
break;
case t_ANDb:
case t_ANDw:
case t_ANDd:
*(Bit16u*)pos=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+2)=AND(FC_RETOP, HOST_a2); // and FC_RETOP, a2
*(Bit16u*)(pos+4)=B_FWD(16); // b after_call (pc+16)
*(Bit16u*)pos=AND(HOST_a1, HOST_a2); // and a1, a2
*(Bit16u*)(pos+2)=B_FWD(16); // b after_call (pc+16)
break;
case t_SUBb:
case t_SUBw:
case t_SUBd:
*(Bit16u*)pos=SUB_REG(FC_RETOP, HOST_a1, HOST_a2); // sub FC_RETOP, a1, a2
*(Bit16u*)(pos+2)=B_FWD(18); // b after_call (pc+18)
*(Bit16u*)pos=SUB_REG(HOST_a1, HOST_a1, HOST_a2); // sub a1, a1, a2
*(Bit16u*)(pos+2)=B_FWD(16); // b after_call (pc+16)
break;
case t_XORb:
case t_XORw:
case t_XORd:
*(Bit16u*)pos=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+2)=EOR(FC_RETOP, HOST_a2); // eor FC_RETOP, a2
*(Bit16u*)(pos+4)=B_FWD(16); // b after_call (pc+16)
*(Bit16u*)pos=EOR(HOST_a1, HOST_a2); // eor a1, a2
*(Bit16u*)(pos+2)=B_FWD(16); // b after_call (pc+16)
break;
case t_CMPb:
case t_CMPw:
@ -934,114 +899,111 @@ static void gen_fill_function_ptr(Bit8u * pos,void* fct_ptr,Bitu flags_type) {
case t_TESTb:
case t_TESTw:
case t_TESTd:
*(Bit16u*)pos=B_FWD(20); // b after_call (pc+20)
*(Bit16u*)pos=B_FWD(18); // b after_call (pc+18)
break;
case t_INCb:
case t_INCw:
case t_INCd:
*(Bit16u*)pos=ADD_IMM3(FC_RETOP, HOST_a1, 1); // add FC_RETOP, a1, #1
*(Bit16u*)(pos+2)=B_FWD(18); // b after_call (pc+18)
*(Bit16u*)pos=ADD_IMM3(HOST_a1, HOST_a1, 1); // add a1, a1, #1
*(Bit16u*)(pos+2)=B_FWD(16); // b after_call (pc+16)
break;
case t_DECb:
case t_DECw:
case t_DECd:
*(Bit16u*)pos=SUB_IMM3(FC_RETOP, HOST_a1, 1); // sub FC_RETOP, a1, #1
*(Bit16u*)(pos+2)=B_FWD(18); // b after_call (pc+18)
*(Bit16u*)pos=SUB_IMM3(HOST_a1, HOST_a1, 1); // sub a1, a1, #1
*(Bit16u*)(pos+2)=B_FWD(16); // b after_call (pc+16)
break;
case t_SHLb:
case t_SHLw:
case t_SHLd:
*(Bit16u*)pos=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+2)=LSL_REG(FC_RETOP, HOST_a2); // lsl FC_RETOP, a2
*(Bit16u*)(pos+4)=B_FWD(16); // b after_call (pc+16)
*(Bit16u*)pos=LSL_REG(HOST_a1, HOST_a2); // lsl a1, a2
*(Bit16u*)(pos+2)=B_FWD(16); // b after_call (pc+16)
break;
case t_SHRb:
*(Bit16u*)pos=LSL_IMM(FC_RETOP, HOST_a1, 24); // lsl FC_RETOP, a1, #24
*(Bit16u*)(pos+2)=LSR_IMM(FC_RETOP, FC_RETOP, 24); // lsr FC_RETOP, FC_RETOP, #24
*(Bit16u*)(pos+4)=LSR_REG(FC_RETOP, HOST_a2); // lsr FC_RETOP, a2
*(Bit16u*)(pos+6)=B_FWD(14); // b after_call (pc+14)
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 24); // lsl a1, a1, #24
*(Bit16u*)(pos+2)=LSR_IMM(HOST_a1, HOST_a1, 24); // lsr a1, a1, #24
*(Bit16u*)(pos+4)=LSR_REG(HOST_a1, HOST_a2); // lsr a1, a2
*(Bit16u*)(pos+6)=B_FWD(12); // b after_call (pc+12)
break;
case t_SHRw:
*(Bit16u*)pos=LSL_IMM(FC_RETOP, HOST_a1, 16); // lsl FC_RETOP, a1, #16
*(Bit16u*)(pos+2)=LSR_IMM(FC_RETOP, FC_RETOP, 16); // lsr FC_RETOP, FC_RETOP, #16
*(Bit16u*)(pos+4)=LSR_REG(FC_RETOP, HOST_a2); // lsr FC_RETOP, a2
*(Bit16u*)(pos+6)=B_FWD(14); // b after_call (pc+14)
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 16); // lsl a1, a1, #16
*(Bit16u*)(pos+2)=LSR_IMM(HOST_a1, HOST_a1, 16); // lsr a1, a1, #16
*(Bit16u*)(pos+4)=LSR_REG(HOST_a1, HOST_a2); // lsr a1, a2
*(Bit16u*)(pos+6)=B_FWD(12); // b after_call (pc+12)
break;
case t_SHRd:
*(Bit16u*)pos=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+2)=LSR_REG(FC_RETOP, HOST_a2); // lsr FC_RETOP, a2
*(Bit16u*)(pos+4)=B_FWD(16); // b after_call (pc+16)
*(Bit16u*)pos=LSR_REG(HOST_a1, HOST_a2); // lsr a1, a2
*(Bit16u*)(pos+2)=B_FWD(16); // b after_call (pc+16)
break;
case t_SARb:
*(Bit16u*)pos=LSL_IMM(FC_RETOP, HOST_a1, 24); // lsl FC_RETOP, a1, #24
*(Bit16u*)(pos+2)=ASR_IMM(FC_RETOP, FC_RETOP, 24); // asr FC_RETOP, FC_RETOP, #24
*(Bit16u*)(pos+4)=ASR_REG(FC_RETOP, HOST_a2); // asr FC_RETOP, a2
*(Bit16u*)(pos+6)=B_FWD(14); // b after_call (pc+14)
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 24); // lsl a1, a1, #24
*(Bit16u*)(pos+2)=ASR_IMM(HOST_a1, HOST_a1, 24); // asr a1, a1, #24
*(Bit16u*)(pos+4)=ASR_REG(HOST_a1, HOST_a2); // asr a1, a2
*(Bit16u*)(pos+6)=B_FWD(12); // b after_call (pc+12)
break;
case t_SARw:
*(Bit16u*)pos=LSL_IMM(FC_RETOP, HOST_a1, 16); // lsl FC_RETOP, a1, #16
*(Bit16u*)(pos+2)=ASR_IMM(FC_RETOP, FC_RETOP, 16); // asr FC_RETOP, FC_RETOP, #16
*(Bit16u*)(pos+4)=ASR_REG(FC_RETOP, HOST_a2); // asr FC_RETOP, a2
*(Bit16u*)(pos+6)=B_FWD(14); // b after_call (pc+14)
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 16); // lsl a1, a1, #16
*(Bit16u*)(pos+2)=ASR_IMM(HOST_a1, HOST_a1, 16); // asr a1, a1, #16
*(Bit16u*)(pos+4)=ASR_REG(HOST_a1, HOST_a2); // asr a1, a2
*(Bit16u*)(pos+6)=B_FWD(12); // b after_call (pc+12)
break;
case t_SARd:
*(Bit16u*)pos=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+2)=ASR_REG(FC_RETOP, HOST_a2); // asr FC_RETOP, a2
*(Bit16u*)(pos+4)=B_FWD(16); // b after_call (pc+16)
*(Bit16u*)pos=ASR_REG(HOST_a1, HOST_a2); // asr a1, a2
*(Bit16u*)(pos+2)=B_FWD(16); // b after_call (pc+16)
break;
case t_RORb:
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 24); // lsl a1, a1, #24
*(Bit16u*)(pos+2)=LSR_IMM(FC_RETOP, HOST_a1, 8); // lsr FC_RETOP, a1, #8
*(Bit16u*)(pos+4)=ORR(HOST_a1, FC_RETOP); // orr a1, FC_RETOP
*(Bit16u*)(pos+6)=LSR_IMM(FC_RETOP, HOST_a1, 16); // lsr FC_RETOP, a1, #16
*(Bit16u*)(pos+8)=ORR(FC_RETOP, HOST_a1); // orr FC_RETOP, a1
*(Bit16u*)(pos+10)=ROR_REG(FC_RETOP, HOST_a2); // ror FC_RETOP, a2
*(Bit16u*)(pos+12)=B_FWD(8); // b after_call (pc+8)
*(Bit16u*)(pos+2)=LSR_IMM(templo1, HOST_a1, 8); // lsr templo1, a1, #8
*(Bit16u*)(pos+4)=ORR(HOST_a1, templo1); // orr a1, templo1
*(Bit16u*)(pos+6)=LSR_IMM(templo1, HOST_a1, 16); // lsr templo1, a1, #16
*(Bit16u*)(pos+8)=ORR(HOST_a1, templo1); // orr a1, templo1
*(Bit16u*)(pos+10)=ROR_REG(HOST_a1, HOST_a2); // ror a1, a2
*(Bit16u*)(pos+12)=B_FWD(6); // b after_call (pc+6)
break;
case t_RORw:
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 16); // lsl a1, a1, #16
*(Bit16u*)(pos+2)=LSR_IMM(FC_RETOP, HOST_a1, 16); // lsr FC_RETOP, a1, #16
*(Bit16u*)(pos+4)=ORR(FC_RETOP, HOST_a1); // orr FC_RETOP, a1
*(Bit16u*)(pos+6)=ROR_REG(FC_RETOP, HOST_a2); // ror FC_RETOP, a2
*(Bit16u*)(pos+8)=B_FWD(12); // b after_call (pc+12)
*(Bit16u*)(pos+2)=LSR_IMM(templo1, HOST_a1, 16); // lsr templo1, a1, #16
*(Bit16u*)(pos+4)=ORR(HOST_a1, templo1); // orr a1, templo1
*(Bit16u*)(pos+6)=ROR_REG(HOST_a1, HOST_a2); // ror a1, a2
*(Bit16u*)(pos+8)=B_FWD(10); // b after_call (pc+10)
break;
case t_RORd:
*(Bit16u*)pos=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+2)=ROR_REG(FC_RETOP, HOST_a2); // ror FC_RETOP, a2
*(Bit16u*)(pos+4)=B_FWD(16); // b after_call (pc+16)
*(Bit16u*)pos=ROR_REG(HOST_a1, HOST_a2); // ror a1, a2
*(Bit16u*)(pos+2)=B_FWD(16); // b after_call (pc+16)
break;
case t_ROLb:
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 24); // lsl a1, a1, #24
*(Bit16u*)(pos+2)=NEG(templo1, HOST_a2); // neg templo1, a2
*(Bit16u*)(pos+4)=LSR_IMM(FC_RETOP, HOST_a1, 8); // lsr FC_RETOP, a1, #8
*(Bit16u*)(pos+6)=ADD_IMM8(templo1, 32); // add templo1, #32
*(Bit16u*)(pos+8)=ORR(HOST_a1, FC_RETOP); // orr a1, FC_RETOP
*(Bit16u*)(pos+10)=LSR_IMM(FC_RETOP, HOST_a1, 16); // lsr FC_RETOP, a1, #16
*(Bit16u*)(pos+12)=ORR(FC_RETOP, HOST_a1); // orr FC_RETOP, a1
*(Bit16u*)(pos+14)=ROR_REG(FC_RETOP, templo1); // ror FC_RETOP, templo1
*(Bit16u*)(pos+16)=B_FWD(4); // b after_call (pc+4)
*(Bit16u*)(pos+2)=NEG(HOST_a2, HOST_a2); // neg a2, a2
*(Bit16u*)(pos+4)=LSR_IMM(templo1, HOST_a1, 8); // lsr templo1, a1, #8
*(Bit16u*)(pos+6)=ADD_IMM8(HOST_a2, 32); // add a2, #32
*(Bit16u*)(pos+8)=ORR(HOST_a1, templo1); // orr a1, templo1
*(Bit16u*)(pos+10)=NOP; // nop
*(Bit16u*)(pos+12)=LSR_IMM(templo1, HOST_a1, 16); // lsr templo1, a1, #16
*(Bit16u*)(pos+14)=NOP; // nop
*(Bit16u*)(pos+16)=ORR(HOST_a1, templo1); // orr a1, templo1
*(Bit16u*)(pos+18)=NOP; // nop
*(Bit16u*)(pos+20)=ROR_REG(HOST_a1, HOST_a2); // ror a1, a2
break;
case t_ROLw:
*(Bit16u*)pos=LSL_IMM(HOST_a1, HOST_a1, 16); // lsl a1, a1, #16
*(Bit16u*)(pos+2)=NEG(templo1, HOST_a2); // neg templo1, a2
*(Bit16u*)(pos+4)=LSR_IMM(FC_RETOP, HOST_a1, 16); // lsr FC_RETOP, a1, #16
*(Bit16u*)(pos+6)=ADD_IMM8(templo1, 32); // add templo1, #32
*(Bit16u*)(pos+8)=ORR(FC_RETOP, HOST_a1); // orr FC_RETOP, a1
*(Bit16u*)(pos+10)=ROR_REG(FC_RETOP, templo1); // ror FC_RETOP, templo1
*(Bit16u*)(pos+12)=B_FWD(8); // b after_call (pc+8)
*(Bit16u*)(pos+2)=NEG(HOST_a2, HOST_a2); // neg a2, a2
*(Bit16u*)(pos+4)=LSR_IMM(templo1, HOST_a1, 16); // lsr templo1, a1, #16
*(Bit16u*)(pos+6)=ADD_IMM8(HOST_a2, 32); // add a2, #32
*(Bit16u*)(pos+8)=ORR(HOST_a1, templo1); // orr a1, templo1
*(Bit16u*)(pos+10)=ROR_REG(HOST_a1, HOST_a2); // ror a1, a2
*(Bit16u*)(pos+12)=B_FWD(6); // b after_call (pc+6)
break;
case t_ROLd:
*(Bit16u*)pos=NEG(templo1, HOST_a2); // neg templo1, a2
*(Bit16u*)(pos+2)=MOV_REG(FC_RETOP, HOST_a1); // mov FC_RETOP, a1
*(Bit16u*)(pos+4)=ADD_IMM8(templo1, 32); // add templo1, #32
*(Bit16u*)(pos+6)=ROR_REG(FC_RETOP, templo1); // ror FC_RETOP, templo1
*(Bit16u*)(pos+8)=B_FWD(12); // b after_call (pc+12)
*(Bit16u*)pos=NEG(HOST_a2, HOST_a2); // neg a2, a2
*(Bit16u*)(pos+2)=ADD_IMM8(HOST_a2, 32); // add a2, #32
*(Bit16u*)(pos+4)=ROR_REG(HOST_a1, HOST_a2); // ror a1, a2
*(Bit16u*)(pos+6)=B_FWD(12); // b after_call (pc+12)
break;
case t_NEGb:
case t_NEGw:
case t_NEGd:
*(Bit16u*)pos=NEG(FC_RETOP, HOST_a1); // neg FC_RETOP, a1
*(Bit16u*)(pos+2)=B_FWD(18); // b after_call (pc+18)
*(Bit16u*)pos=NEG(HOST_a1, HOST_a1); // neg a1, a1
*(Bit16u*)(pos+2)=B_FWD(16); // b after_call (pc+16)
break;
default:
*(Bit32u*)(pos+10)=(Bit32u)fct_ptr; // simple_func