The Thrill of the Apertura Final Stage
The anticipation is palpable as El Salvador gears up for the thrilling finale of the Primera Division - Apertura. Tomorrow's matches promise to be a spectacle, with teams vying for supremacy in what promises to be an unforgettable day of football. As fans eagerly await the action, expert betting predictions offer insights into potential outcomes, adding an extra layer of excitement to the proceedings.
Match Highlights and Expert Predictions
The final stage of the Apertura is set to showcase some of the most intense matchups in Salvadoran football history. Each team has battled through a grueling season, and now, only a few will emerge victorious. Here’s a closer look at tomorrow’s fixtures and expert betting predictions:
- Team A vs Team B: Known for their aggressive playstyle, Team A faces a formidable opponent in Team B. Experts predict a closely contested match with a slight edge towards Team A due to their recent form.
- Team C vs Team D: This clash features two teams with contrasting styles. Team C's defensive prowess will be tested against Team D's attacking flair. Betting experts suggest a draw could be likely.
- Team E vs Team F: With both teams fighting for top spots, this match is expected to be high-scoring. Analysts predict multiple goals, favoring an over bet.
As fans gear up for tomorrow's matches, these predictions add an intriguing dimension to the games, encouraging viewers to engage deeply with each play.
In-Depth Analysis: Key Players and Strategies
The success of any team hinges on its key players and strategic execution. Let's delve into some pivotal players and strategies that could influence tomorrow's outcomes.
Key Players to Watch
- Player X from Team A: Renowned for his leadership on the field, Player X has been instrumental in guiding his team through challenging matches.
- Player Y from Team C: With an impressive record of defensive tackles, Player Y is expected to play a crucial role in neutralizing Team D's attack.
- Player Z from Team E: Known for his speed and agility, Player Z could turn the tide in favor of his team with decisive plays.
Tactical Approaches
Teams will employ various strategies to gain an upper hand:
- Solid Defense: Teams like C are likely to focus on strengthening their defense to counteract aggressive opponents.
- Prolific Offense: Teams such as E might adopt an offensive strategy, aiming to overwhelm their rivals with relentless attacks.
- Balanced Play: Some teams may opt for a balanced approach, maintaining flexibility between defense and offense based on game dynamics.
Understanding these elements can provide deeper insights into how matches might unfold.
The Role of Fan Support
In football, fan support can significantly influence team morale and performance. Tomorrow’s matches will see passionate fans rallying behind their teams, creating an electrifying atmosphere that could sway game results.
Fan Engagement Strategies
<|file_sep|>#ifndef __AVX512F_H__
#define __AVX512F_H__
#include "x86.h"
/*
* AVX512F Instruction Set
*/
/*
* Opcode Map
*/
#define VEX_LIG_OP_MASK 0xf0000000
#define VEX_LIG_OP_SSE4 0x70000000
#define VEX_W_OPSIZE_MASK 0x80000000
#define VEX_W_OPSIZE_64BIT 0x80000000
#define VEX_L_OPSIZE_MASK 0x40000000
#define VEX_L_OPSIZE_32BIT 0x40000000
#define VEX_R_OPSIZE_MASK VEX_L_OPSIZE_MASK
/*
* Register Map
*/
/* ZMM registers */
#define REX_W 1 << (11 + REG_R)
#define R_EX REG_R << (8 + REG_X)
#define R_EV REG_R << (8 + REG_V)
/* EV registers */
#define EV_RE REG_R << (8 + REG_E)
#define EV_RX REG_R << (8 + REG_X)
/* VX registers */
#define VX_VE REG_V << (8 + REG_E)
#define VX_VX REG_V << (8 + REG_X)
/* EX registers */
#define EX_RX REG_R << (8 + REG_X)
/* Special Registers */
/* EV registers */
enum {
EV_K1 = EV_RX | ((1) << (7+REG_X)),
EV_K2 = EV_RX | ((2) << (7+REG_X)),
EV_K3 = EV_RX | ((3) << (7+REG_X)),
EV_K4 = EV_RX | ((4) << (7+REG_X)),
EV_K5 = EV_RX | ((5) << (7+REG_X)),
EV_K6 = EV_RX | ((6) << (7+REG_X)),
EV_K7 = EV_RX | ((7) << (7+REG_X))
};
#endif /* __AVX512F_H__ */<|repo_name|>microsoft/Windows-driver-samples<|file_sep#include "avx512f.h"
void print_instruction(const x86_insn_t *insn)
{
if(insn->opcode & XOP_OPCODE)
print_xop_instruction(insn);
else if(insn->opcode & AVX512F_OPCODE)
print_avx512f_instruction(insn);
else if(insn->opcode & AVX_OPCODE)
print_avx_instruction(insn);
else if(insn->opcode & SSE4_OPCODE)
print_sse4_instruction(insn);
else if(insn->opcode & SSE3_OPCODE)
print_sse3_instruction(insn);
else if(insn->opcode & SSE2_OPCODE)
print_sse2_instruction(insn);
else if(insn->opcode & MMX_OPCODE)
print_mmx_instruction(insn);
else if((insn->opcode == REPNE_PREFIX || insn->opcode == REP_PREFIX))
print_rep_prefix_instruction();
else if((insn->opcode == LOCK_PREFIX))
print_lock_prefix_instruction();
else
print_default_instruction();
}
void print_default_instruction()
{
printf("Unknown Instructionn");
}
void print_rep_prefix_instruction()
{
printf("REP or REPNZ prefixn");
}
void print_lock_prefix_instruction()
{
printf("LOCK prefixn");
}
void print_mmx_instruction(const x86_insn_t *insn)
{
int opcode;
opcode = insn->opcode;
switch(opcode){
case MOVQ_MqRq:
case MOVQ_RqMq:
case MOVDQA_MdqRdq:
case MOVDQA_RdqMdq:
case MOVDQU_MdqRdq:
case MOVDQU_RdqMdq:
case PADD_BrRb:
case PADDW_BrRw:
case PADDD_BrRd:
case PADDSB_BrRb:
case PADDSW_BrRw:
case PADDUSB_BrRb:
case PADDUSW_BrRw:
case PAND_MdRd:
case PANDN_MdRd:
case PAUSE:
case PCMPGT_BrBr:
case PMADDWD_BrBr:
case PMULHRSW_BrBr:
case PMULHUW_BrBr:
case PMULHW_BrBr:
case PMULLW_BrBr:
//case PSADBW_BwBw:
//case PSHUFB_MbMb:
//case PSIGNB_MbMb:
//case PSIGNW_MwMw:
//case PSIGND_MdMd:
//case PSLL_DiDbDiDwDdDiDqDqDiDaDaDiDbDiDdDiDuDuDiDrDrDiDsDsDiDtDtDiDbDiDdDiDuDuDiDrDrDiDsDsDiDtDt :
//case PSRA_DiDbDiDwDdDiDqDq :
//case PSRL_DiDbDiDwDd :
//case PSUBSB_BrBr :
//case PSUBSW_BrBr :
//case PUNPCKLBW_MvLv :
//case PUNPCKLWD_MvLv :
//case PUNPCKLDQ_MvLv :
//case PUNPCKLQ_DvLv :
//case PUNPCKHBW_MvLv :
//case PUNPCKHWD_MvLv :
//case PUNPCKHDQ_MvLv :
//case PUNPCKHQDQ_DvLv :
//
//
//
//
//
//
//
//
//
//
default :
printf("Unknown MMX Instructionn");
break;
}
}
void print_sse2_instruction(const x86_insn_t *insn)
{
int opcode;
opcode = insn->opcode;
switch(opcode){
default :
printf("Unknown SSE2 Instructionn");
break;
}
}
void print_sse3_instruction(const x86_insn_t *insn)
{
int opcode;
opcode = insn->opcode;
switch(opcode){
default :
printf("Unknown SSE3 Instructionn");
break;
}
}
void print_sse4_instruction(const x86_insn_t *insn)
{
int opcode;
opcode = insn->opcode;
switch(opcode){
default :
printf("Unknown SSE4 Instructionn");
break;
}
}
void print_avx_instruction(const x86_insn_t *insn)
{
int opcode;
opcode = insn->opcode;
switch(opcode){
default :
printf("Unknown AVX Instructionn");
break;
}
}
/*
*
*/
static void avx512f_print_maskreg(unsigned char regno);
static void avx512f_print_vex_reg(unsigned char vexreg);
static void avx512f_print_zmm(unsigned char zmm);
static void avx512f_print_ev(unsigned char ev);
static void avx512f_print_vex_reg_mem(unsigned char vexreg,
const struct memref_t* memref);
static void avx512f_print_vex_reg_imm(unsigned char vexreg,
unsigned int imm);
static void avx512f_print_vex_reg_zmm(unsigned char vexreg,
unsigned char zmm);
static void avex_fprint_memref(FILE* fptr,
const struct memref_t* memref);
static void avex_fprint_memref(FILE* fptr,
const struct memref_t* memref){
fprintf(fptr,"[");
if(memref != NULL && memref -> disp != NULL){
if(memref -> scale >1 )
fprintf(fptr,"%u",memref -> scale);
fprintf(fptr,"%c",memreg[memref -> base]);
if(memreg[memref -> index] != ' ')
fprintf(fptr,"+%c",memreg[memref -> index]);
if(memref -> disp != NULL && *(int*)memref -> disp != NULL){
fprintf(fptr,"%s",(char*)memref -> disp);
}
fprintf(fptr,"]");
}
}
/*
*
*/
void avex_fprint_op(FILE* fptr,const struct opnd_desc* opnddesc){
if(opnddesc != NULL){
switch(opnddesc -> type){
case OPND_REG:
fprintf(fptr,"%c",regno[opnddesc -> regno]);
break;
case OPND_MEM:
fprintf(fptr,"[");
fprintf(fptr,"%c",regno[opnddesc -> regno]);
fprintf(fptr,",%u",opnddesc -> scale);
fprintf(fptr,"%c",memreg[opnddesc -> base]);
fprintf(fptr,"+%c",
memreg[opnddesc ->
index]);
fprintf(fptr,"+%s",
opnddesc ->
disp_str);
fprintf(fptr,"]");
break;
case OPND_IMM:
fprintf(fptr,"%u",opnddesc ->
immediate_val);
break;
default:
printf("Invalid Operand Descriptor Type.n");
exit(1);
break;
} /* end switch(opnd_desc.type) */
} /* end if(opnd_desc != NULL) */
} /* end function avex_fprint_op() */
/*
*
*/
int parse_vex_reg(struct opnd_desc* opnd_desc,unsigned int modrm){
unsigned int rm=modrm&RM_MASK;
unsigned int reg=modrm&R_REG_MASK;
unsigned int mod=modrm&M_MODRM_MOD_MASK;
unsigned int vex_w=(modrm&MODRM_MOD_W)?1:0;
unsigned int vex_l=(modrm&MODRM_MOD_L)?1:0;
unsigned int rex_w=(modrm&REX_W)?1:0;
if(mod == MODRM_MOD_11){ //Mod/RM == '11' , register only mode.
switch(rm){
case R_EX:
opnd_desc -> type=OPND_REG;
opnd_desc ->
regno=((rex_w<<9)+((rex_w<<8)+
reg))>>9;
return SUCCESS;
case R_EV:
opnd_desc ->
type=OPND_REG;
opnd_desc ->
regno=((rex_w<<10)+(rex_w<<9)+
reg)>>10;
return SUCCESS;
case VX_VE:
opnd_desc ->
type=OPND_REG;
opnd_desc ->
regno=((rex_w<<11)+(rex_w<<10)+
rex_w+(rex_w<<9)+(
rex_w<<8)+(
reg))>>11;
return SUCCESS;
default :
printf("tError Parsing Mod/RM byte.n");
exit(1);
return FAILURE;
} /* end switch(rm) */
} else { //Mod/RM not '11', register/memory mode.
switch(rm){
case R_EX:
opnd_desc->
type=OPND_MEM;
opnd_desc->
base=R_REG_BASE_GPR_BASES+
reg;
opnd_desc->
index=R_REG_INDEX_GPR_INDEXES+
reg;
modrm=get_next_byte();
mod=(modrm&M_MODRM_MOD_MASK)>>MODRM_MOD_SHFT_AMT;
switch(mod){
case MODRM_MOD_00 :
switch(rm){
case R_EX :
if(vex_l==1){ //if l==1 then use r/m as displacement.
modrm=get_next_byte();
mod=(modrm&M_MODRM_MOD_MASK)>>MODRM_MOD_SHFT_AMT;
if(mod==MODRM_MOD_01 ||
mod==MODRM_MOD_10 ||
mod==MODRM_MOD_11 ){
oprdDesc->
disp_str=
get_disp(modrm,&displacement_size);
return SUCCESS;
}else{
printf("tError Parsing Mod/RM byte.n");
exit(1);
return FAILURE;
}
}else{
displacement_size=SIZEMOD_RM_SIZE_MAP[displacement_size];
displacement_val=get_disp(modrm,&displacement_size);
sprintf(displacement_str,"+%lu",(unsigned long)(displacement_val));
oprdDesc->
disp_str=
displacement_str;
return SUCCESS;
}
default :
printf("tError Parsing Mod/RM byte.n");
exit(1);
return FAILURE;
}
case MODRM_MOD_01 :
switch(rm){
case R_EX :
displacement_size=SIZEMOD_RM_SIZE_MAP[displacement_size];
displacement_val=get_disp(modrm,&displacement_size);
sprintf(displacement_str,"+%lu",(unsigned long)(displacement_val));
oprdDesc->
disp_str=
displacement_str;
return SUCCESS;
default :
printf("tError Parsing Mod/RM byte.n");
exit(1);
return FAILURE;
}
case MODRM_MOD_10 :
switch(rm){
case R_EX :
get_next_byte(); //read sib byte.
get_next_byte(); //read displacement.
displacement_size=SIZEMOD_RM_SIZE_MAP[displacement_size];
displacement_val=get_disp(modrm,&displacement_size);
sprintf(displacement_str,"+%lu",(unsigned long)(displacement_val));
oprdDesc->
disp_str=
displacement_str;
return SUCCESS;
default :
printf("tError Parsing Mod/RM byte.n");
exit(1);
return FAILURE;
}
default:
printf("tError Parsing Mod/RM byte.n");
exit(1);
return FAILURE;
}
}
}
} /* end function parse_vex_reg() */
/*
*
*/
int parse_vex_mem(struct opnd_desc* oprdDesc,unsigned int modrm){
unsigned int rm=modrm&RM_MASK;
unsigned int reg=modrm&R_REG_MASK;
unsigned int mod=modrm&M_MODRM_MOD_MASK;
unsigned int vex_l=(modrm&MODRM_MOD_L)?1:0;
unsigned int rex_w=(modrm&REX_W)?1:0;
if(mod == MODRM_MOD_11){ //Mod/RM == '11' , register only mode.
switch(rm){
case R_EV:
oprdDesc ->
type=OPRD_TYPE_REGMEMZMM_EVZMM_MAP[rv];
oprdDesc ->
zmmzvv=((rex_w<<10)+(rex_w<<9)+
reg)>>10 ;
return SUCCESS;
default :
printf("tError Parsing Mod/RM byte.n");
exit(1);
return FAILURE;
} /* end switch(rm) */
} else { //Mod/RM not '11', register/memory mode.
switch(rm){
case R_EV:
get_next_byte(); //read sib byte.
get_next_byte(); //read displacement.
displacement_size=SIZEMOD_RM_SIZE_MAP[displacement_size];
displacement_val=get_disp(modrm,&displacement_size);
sprintf(displament_str,"+%lu",(unsigned long)(displament_val));
oprdDesc ->
type=OPRD_TYPE_MEMEV_MEMEV_MAP[r];
base=R_REG_BASE_GPR_BASES+
reg;
index=R_REG_INDEX_GPR_INDEXES+
reg;
disp_str=
displament_str;
return SUCCESS;
default:
printf("tError Parsing Mod/RM byte.n");
exit(1);
return FAILURE;
}
}
} /* end function parse_vex_mem() */
/*
*
*/
int parse_vex_zmm(struct oprd_desc* oprdDesc,unsigned int mod_rm){
unsigned short rm=(mod_rm)& RM_MASK ;
unsigned short rex_r =(mod_rm)&REX_R ? REGR_REXR:(short )REGR_REXR_DEFAULT_VAL ;
unsigned short rex_b =(mod_rm)&REX_B ? REGB_REXB:(short )REGB_REXB_DEFAULT_VAL ;
unsigned short rex_x =(mod_rm)&REX_X ? REGX_REXX:(short )REGX_REXX_DEFAULT_VAL ;
unsigned short rex_r_ex =(rex_r>>5)<<5 ;
unsigned short rex_b_ex =(rex_b>>5)<<5 ;
unsigned short rex_x_ex =(rex_x>>5)<<5 ;
unsigned short r=(rex_r_ex+(rex_r))>>5 ;
unsigned short b=(rex_b_ex+(rex_b))>>5 ;
unsigned short x=(rex_x_ex+(rex_x))>>5 ;
switch(rm){
oprdDesc->
type =
OPND_TYPE_ZMM ;
zmm =
((((((long)r)<<12)+(((long)x)<<9))+(((long)b)<<6))+(((long)y)))>>6 ;
ret_status =
SUCCESS ;
break ;
ret_status =
FAILURE ;
goto EXIT_PARSE_VEX_ZMM ;
ret_status =
FAILURE ;
goto EXIT_PARSE_VEX_ZMM ;
ret_status =
FAILURE ;
goto EXIT_PARSE_VEX_ZMM ;
ret_status =
FAILURE ;
goto EXIT_PARSE_VEX_ZMM ;
ret_status =
FAILURE ;
goto EXIT_PARSE_VEX_ZMM ;
}
EXIT_PARSE_VEX_ZMM:
return(ret_status);
} /* end function parse_vex_zmm() */
/*
*/
int parse_mod_rm(struct operand_descriptor* operand_descriptor,unsigned char nextbyte){
int status ;
status =
parse_register_operand_descriptor(nextbyte,
operand_descriptor);
return(status);
}
/*
*/
int parse_register_operand_descriptor(unsigned char nextbyte,
struct operand_descriptor*
operand_descriptor ){
int status ;
struct register_operand_descriptor*
register_operand_descriptor=NULL;
status =
check_for_register_operand(nextbyte,
&(register_operand_descriptor));
if(status!=SUCCESS)
{
status=
failure;
goto EXIT_PARSE_REGISTER_OPERAND_DESCRIPTOR;
}
memcpy((char*)operand_descriptor,
(char*)register_operand_descriptor,
sizeof(struct register_operand_descriptor));
EXIT_PARSE_REGISTER_OPERAND_DESCRIPTOR:
return(status);
} /* end function parse_register_operand_descriptor() */
/*
*/
int check_for_register_operand(unsigned char nextbyte,
struct register_operand_descripto*
register_operand_descripto_ptr ){
int status ;
struct general_purpose_register*
general_purpose_register=NULL;
struct xmm_register*
xmm_register=NULL;
struct mmx_register*
mmx_register=NULL;
struct ymm_register*
ymm_register=NULL;
struct k_register*
k_register=NULL;
status =
check_for_general_purpose(register_operand_descripto_ptr,
nextbyte,
&general_purpose_reigster);
exit_check_for_general_purpose :
status=
check_for_xmm(register_operand_descripto_ptr,
nextbyte,
xmm_reigster);
if(status!=SUCCESS)
goto exit_check_for_xmm;
exit_check_for_xmm :
status=
check_for_mmx(register_operand_descripto_ptr,
nextbyte,
mm_reigster);
if(status!=SUCCESS)
goto exit_check_for_mmx;
exit_check_for_mmx :
status=
check_for_yyy(register_operand_descripto_ptr,
nextbyte,
yyy_reigster);
if(status!=SUCCESS)
goto exit_check_for_yyy;
exit_check_for_yyy :
status=
check_for_kk(register_operand_descripto_ptr,
nextbyte,
kk_reigster);
if(status!=SUCCESS)
goto exit_check_for_kk;
exit_check_for_kk :
return(SUCCESS);
} /* end function check_for_general_purpose() */
/*
*/
int check_for_general_purpose(struct register_operad_decriptor*
register_operad_decriptor_ptr ,
unsigned char nextbyte ,
struct general_purpose_reigstrer**
general_purpoise_reigstrer_ptr_ptr ){
long long temp_long_long ;
temp_long_long =
(((long long)((nextby >> GPR_SHIFT_AMOUNT_BYT)))
+(long long)((nextby & GPR_BITMASK)));
if(temp_long_long >=GPR_LOWEST_VALUE&&temp_long_long <=GPR_HIGHEST_VALUE)
{
(*general_purpoise_reigstrer_ptr_ptr)=&(gpr[temp_long_long-GPR_LOWEST_VALUE]);
register_operad_decriptor_ptr-
type=GPR_REGISTER_TYPE_VALUE;
return(SUCCESS);
}
else
{
register_operad_decriptor_ptr-
type=GPR_REGISTER_TYPE_VALUE;
return(FAILURE);
}
} /* end function checkfor_generalpurpose() */
/*
*/
int checkforxmm(struct register_operator_adectector*
operator_adectector ,
unsgined_char nextby ,
struct xmm_reigsterr** xmmreigsterrpptr ){
long long temp_llong ;
temp_llong =
(((long long)((nextby >> XMM_SHIFT_AMOUNT_BYT)))
+(long long)((nextby & XMM_BITMASK)));
if(temp_llong>=xmm_lowest_value&&temp_llong<=xmm_highest_value)
{
*xmmreigsterrpptr=&(xmm[temp_llong-xmm_lowest_value]);
operator_adectector-
type=xmmmregister_type_value;
return(success);
}
else
{
operator_adectector-
type=xmmmregister_type_value;
return(FAILURE);
}
} /* end function checkforxmm() */
/*
*/
int checkformmx(struct regrister_operator_dectector*
operator_dectector ,
unsgined_char next_by ,
struc mmxxregister ** mxxreixgter_pptr ){
long llng ;
llng=
(((long)((next_by >> MMR_SHIFT_AMOUNT_BYT)))
+(long)((next_by & MMR_BITMASK)));
if(llng>=mmm_lowest_value&&llng<=mmm_highest_value)
{
*mxxreixgter_pptr=&(mmm[llng-mmr_lowest_value]);
operator_dectector-
type=mrrgister_type_value;
return(success);
}
else
{
operator_dectector-
type=mrrgister_type_value;
return(FAILURE);
}
} /* enfd function chcekformmx() */
/*
*/
int chekcforymm(struct regrister_operator_dector *
operator_dector ,
unsgined_char nexy_by ,
struc yyyxxregister ** yyyreixgter_pptr ){
long llng ;
llng=
(((long)((nexy_by >> YYY_SHIFT_AMOUNT_BYT)))
+(long)((nexy_by & YYY_BITMASK)));
if(llng>=yyy_lowest_value&&llng<=yyy_highest_value)
{
*yryeixgter_pptr=&(
yyy[llng-yyy_lowest_value]);
operator_dctor-
type=yrrgister_type_value;
return(success);
}
else
{
operator_dctor-
type=yrrgister_type_vaue;
return(FALURE);
}
} /* endfunction chekcforymm() */
/*
*/
int chceckforkk(struct regrister_operator_docter *
operator_docter,
unsgined_char nexyty_by,
struc kkxxregister ** kkreixgter_pptr ){
long lng ;
lng=
(((long)((nexyty_by >> KKK_SHIFT_AMOUNT_BYT)))
+(lonl)((nexyty_by & KKK_BITMASK)));
if(lng>=kkk_lowest_vaule&&lng<=kkk_highest_vaule)
{
*kkreixgter_pptr=&(
kkk[lng-kkk_lowest_vaule]);
operator_docter-
type=kkriger_type_vaule;
retun(success);
}
else
{
operator_docter-
type=kkriger_type_vaule;
retun(FALURE);
}
} /* enedfunction chceckforkk() */
/*
*/
struct opernadetior{
unsigned cahr type ;
union{
struct gpr gpr ;
struct xmm xmm ;
struct mmi mmi ;
struct yyy yyy ;
struct kkk kkk ;
};
};
/*
*/
struct opernadetior decode_mod_rm(byte by)
{
unsigned char tipe ;
union{
struct gpr gpr ; struct xmm xmm ; struct mmi mmi ; struct yyy yyy ; struc kkk kkk ; };
switch(by&TYPE_BITMASK)
{
default:
break ;
}
switch(by&TYPED_SUBTYPE_BITMASK)
{
default:
break ;
}
}
decode_mod_rm()
{
switch(by&TYPED_SUBTYPE_BITMASK)
{
default:
break ;
}
}
}
decode_mod_rm()
{
unsigned cahr tipe ;
union {
struct gpr gpr ;
struct xmm xmm ;
struc mmi mmi ;
struc yyy yyy ;
struc kkk kkk };
switch(by&TYPED_SUBTYPE_BITMASK)
{
default:
break ;
}
}
}
decode_mod_rm()
{
switch(by&TYPED_SUBTYPE_BITMASK)
{
default:
break ;
}
}
}
decode_mod_rm()
{
switch(by&TYPED_SUBTYPE_BITMASK)
{
default:
break ;
}
}
}
decode_mod_rm()
{
unsigned cahr tipe ;
union {
struct gpr gpr ;
struct xmm xmm ;
struc mmi mmi ;
struc yyy yyy ;
struc kkk kkk };
switch(by&TYPED_SUBTYPE_BITMASK)
{
default:
break ;
}
}
}
decode_mod_rm()
{
switch(by&TYPED_SUBTYPE_BITMASK)
{
default:
break ;
}
}
}
decode_mod_rm()
{
unsigned cahr tipe ;
union {
struct gpr gpr ;
struct xmm xmm .
struc mmi mmi .
struc yyy yyy .
struc kkk kkk .
}
switch(by&TYPED_SUBTYPE_BITMASK)
{
default:
break .
}
switch(by&MASK_FOR_GENERAL_PURPOSE_REGISTER)
{
default:
break .
}
if(tipe==GENERAL_PURPOSE_REGISTER)
{
gprr.grr=grr_decode_function(general_purppose_grr_bitmask,nextby);
opernadetior.type=tipe;
opernadetior.gpr=grr_grr_decode_function(general_purppose_grr_bitmask,nextby);
}
else {
gprr.grr=grr_decode_function(xxxx_gpr_bitmask,nextby);
opernadetior.type=tipe;
opernadetior.xxxx=xxxx_decode_function(xxxx_gpr_bitmask,nextby);
}
else {
gprr.grr=grr_decode_function(mmr_gpr_bitmask,nextby);
operpadetior.type=tipe;
operpadetior.mmr=mnr_decode_function(mmr_gpr_bitmask,nextby);
}
else {
gprr.grr=grr_decode_function(yyr_gbr_bitmask,nextby);
operpadetior.type=tipe;
operpadetior.yyr=yry_decode_function(yyr_gbr_bitmask,nextby);
}
else {
gprr.gpp=gpp_decode_function(kkr_gbr_bitmask,nextby);
operpadetior.type=tipe;
}
}
decode_mod_rm(){
unsigned cahr tipe;
union {
}
;
switch(by&MASK_FOR_GENERAL_PURPOSE_REGISTER)
{
{
}
}
}
}
decode_mod_rm(){
<|repo_name|>microsoft/Windows-driver-samples<|file_sep|>/windows-driver-samples/x64/x64emu/x64emu.c
#include "arch.h"
#include "amd64.h"
#include "amd64emu.h"
#include "amd64util.h"
#include "avxinstruction.h"
#include "common.h"
#include "debug.h"
#include "instructionset.h"
extern FILE *trace_fp;
extern FILE *log_fp;
extern FILE *error_fp;
extern uint32_t trace_on_flag;
uint32_t amd64_emulate(int argc,char **argv,uint32_t trace_on_flag,uint32_t log_on_flag,uint32_t error_on_flag,uint32_t quiet_on_flag,uint32_t dump_bytes_flag,uint32_t dump_disasm_flag,int timeout_ms,int step,int max_instr_count,int file_offset,int file_length,void **start_addr,void **end_addr,char **dump_filename,char **error_filename,char **log_filename,char **trace_filename,uint16_t segment_selector_list[],uint16_t segment_selector_count,x86_cpu_state_data cpu_state_data[])
{
uint16_t cs_selector_index,i,j,k,l,m,n,o,p,q,r,s,t,u,v,w,x,y,z,a,b,c,d,e,f,g,h,i,j,k,l,m,n,o,p,q,r,s,t,u,v,w,x,y,z,a,b,c,d,e,f,g,h,i,j,k,l,m,n,o,p,q,r,s,t,u,v,w,x,y,z,a,b,c,d,e,f,g,h,i,j,k,l,m,n,o,p,q,r,s,t,u,v,w,x,y,z,a,b,c,d,e,f,g,h,i,j,k,l,m,n,o,p,q,r,s,t,u,v,w,x,y,z,a,b,c,d,e,f,g,h,i,j,k,l,m,n,o,p,q,r,s,t,u,v,w,x,y,z,a,b,c,d,e,f,g,h,i,j,k,l,m,n,o,p,q,r,s,t,u,v,w,x,y,z,a,b,c,d,e,f,g,h,i,j,k,l,m,n,o,p,q,r,s,t,u,v,w,x,y,z,a,b,c,d,e,f,g,h,i,j,k,l,m,n,o,p,q,r,s,t,u,v,w,x,y,z,a,b,c,d,e,f,g,h,i,j,k,l,m,n,o,p,q,r,s,t,u,v,w,x,y,z,a,b,c,d,e,f,g,h,i,j,k,l,m,n,o,p,q,r,s,t,u,v,w,x,y,z,a,b,c,d,e,f,g,h,i,j,k,l,m,n,o,p,q,r,s,t,u,v,w,x,y,z,a,b,c,d,e,f,g,h,i,j,k,l,m,n,o,p,q,r,s,t,u,v,w,x,y,z,a,b,c,d,e,f,g,h,i,j,k,l,m,n,o,p,q,r,s,t,u,v,w,x,y,z,a,b,c,d,e,f,g,h,i,j,k,l,m,n,o,p,q,r,s,t,u,v,w,x,y,z,
rsp_orig,
rbp_orig,
rdi_orig,
rsi_orig,
rdx_orig,
rcx_orig,
rax_orig,
rbx_orig,
r8_orig,
r9_orig,
r10_orig,
r11_orig,
r12_orig,
r13_orig,
r14_orig,
r15_orig,start_addr_local,end_addr_local,error_filename_local,error_fp_local,error_msg_local,error_msg_len_local,error_msg_written_local,error_msg_written_index_local,error_found_local,error_found_index_local,max_instr_count_original,max_instr_count_current,count_original,count_current,instruction_count_current,instruction_count_original,instruction_address_original,instruction_address_current,current_ip_current,current_ip_original,current_ip_original_next,current_ip_previous,current_ip_previous_next,current_ip_previous_previous,current_ip_previous_previous_next,cpuid_cpuid_ecxeax
