static void slow_call_thr_specific(MacroAssembler* _masm, Register thread) {
// slow call to of thr_getspecific
// int thr_getspecific(thread_key_t key, void **value);
// Consider using pthread_getspecific instead.
__ push(0); // allocate space for return value
if (thread != rax) __ push(rax); // save rax, if caller still wants it
__ push(rcx); // save caller save
__ push(rdx); // save caller save
if (thread != rax) {
__ lea(thread, Address(rsp, 3 * sizeof(int))); // address of return value
} else {
__ lea(thread, Address(rsp, 2 * sizeof(int))); // address of return value
}
__ push(thread); // and pass the address
__ push(ThreadLocalStorage::thread_index()); // the key
__ call(RuntimeAddress(CAST_FROM_FN_PTR(address, thr_getspecific)));
__ increment(rsp, 2 * wordSize);
__ pop(rdx);
__ pop(rcx);
if (thread != rax) __ pop(rax);
__ pop(thread);
}
// Helper to insert argument slots into the stack.
// arg_slots must be a multiple of stack_move_unit() and <= 0
void MethodHandles::insert_arg_slots(MacroAssembler* _masm,
RegisterOrConstant arg_slots,
int arg_mask,
Register rax_argslot,
Register rbx_temp, Register rdx_temp, Register temp3_reg) {
assert(temp3_reg == noreg, "temp3 not required");
assert_different_registers(rax_argslot, rbx_temp, rdx_temp,
(!arg_slots.is_register() ? rsp : arg_slots.as_register()));
#ifdef ASSERT
verify_argslot(_masm, rax_argslot, "insertion point must fall within current frame");
if (arg_slots.is_register()) {
Label L_ok, L_bad;
__ cmpptr(arg_slots.as_register(), (int32_t) NULL_WORD);
__ jccb(Assembler::greater, L_bad);
__ testl(arg_slots.as_register(), -stack_move_unit() - 1);
__ jccb(Assembler::zero, L_ok);
__ bind(L_bad);
__ stop("assert arg_slots <= 0 and clear low bits");
__ bind(L_ok);
} else {
assert(arg_slots.as_constant() <= 0, "");
assert(arg_slots.as_constant() % -stack_move_unit() == 0, "");
}
#endif //ASSERT
#ifdef _LP64
if (arg_slots.is_register()) {
// clean high bits of stack motion register (was loaded as an int)
__ movslq(arg_slots.as_register(), arg_slots.as_register());
}
#endif
// Make space on the stack for the inserted argument(s).
// Then pull down everything shallower than rax_argslot.
// The stacked return address gets pulled down with everything else.
// That is, copy [rsp, argslot) downward by -size words. In pseudo-code:
// rsp -= size;
// for (rdx = rsp + size; rdx < argslot; rdx++)
// rdx[-size] = rdx[0]
// argslot -= size;
BLOCK_COMMENT("insert_arg_slots {");
__ mov(rdx_temp, rsp); // source pointer for copy
__ lea(rsp, Address(rsp, arg_slots, Address::times_ptr));
{
Label loop;
__ BIND(loop);
// pull one word down each time through the loop
__ movptr(rbx_temp, Address(rdx_temp, 0));
__ movptr(Address(rdx_temp, arg_slots, Address::times_ptr), rbx_temp);
__ addptr(rdx_temp, wordSize);
__ cmpptr(rdx_temp, rax_argslot);
__ jccb(Assembler::less, loop);
}
// Now move the argslot down, to point to the opened-up space.
__ lea(rax_argslot, Address(rax_argslot, arg_slots, Address::times_ptr));
BLOCK_COMMENT("} insert_arg_slots");
}
void main()
{
int n;
void inorden (struct nodo *raiz);
struct nodo *raiz=NULL;
int ins_avl(struct nodo **,int);
int lea();
printf ("lea n \n"); n = lea();
while (n != 9999) {
ins_avl (&raiz,n);
printf ("lea n \n"); n = lea();
}
inorden(raiz);
}
// inputs should be preserved outside if required since we do a call
// num_std_need_to_save registers will be preserved
char * m2n_gen_push_m2n(char * buf, Method_Handle method,
frame_type current_frame_type,
bool handles,
unsigned num_callee_saves,
unsigned num_std_need_to_save,
I_32 bytes_to_m2n_top) {
// skip callee-saves registers
bytes_to_m2n_top -= num_callee_saves * LcgEM64TContext::GR_SIZE;
// TODO: check if it makes sense to save all callee-saves registers here
//store rest of callee-saves registers
for (unsigned i = num_callee_saves; i < LcgEM64TContext::MAX_GR_LOCALS; i++) {
bytes_to_m2n_top -= LcgEM64TContext::GR_SIZE;
buf = mov(buf,
M_Base_Opnd(rsp_reg, bytes_to_m2n_top),
LcgEM64TContext::get_reg_from_map(LcgEM64TContext::GR_LOCALS_OFFSET + i),
size_64);
}
// init pop_regs to null
bytes_to_m2n_top -= LcgEM64TContext::GR_SIZE;
buf = mov(buf, M_Base_Opnd(rsp_reg, bytes_to_m2n_top),
Imm_Opnd(size_32, 0), size_64);
// store current_frame_type
bytes_to_m2n_top -= LcgEM64TContext::GR_SIZE;
assert(fit32(current_frame_type));
buf = mov(buf, M_Base_Opnd(rsp_reg, bytes_to_m2n_top),
Imm_Opnd(size_32, current_frame_type), size_64);
// store a method associated with the current m2n frame
bytes_to_m2n_top -= LcgEM64TContext::GR_SIZE;
if (fit32((int64)method)) {
buf = mov(buf, M_Base_Opnd(rsp_reg, bytes_to_m2n_top),
Imm_Opnd(size_32, (int64)method), size_64);
} else {
buf = mov(buf, rax_opnd, Imm_Opnd(size_64, (int64)method), size_64);
buf = mov(buf, M_Base_Opnd(rsp_reg, bytes_to_m2n_top), rax_opnd);
}
// store local object handles
bytes_to_m2n_top -= LcgEM64TContext::GR_SIZE;
buf = mov(buf, M_Base_Opnd(rsp_reg, bytes_to_m2n_top),
Imm_Opnd(size_64, (int64)0), size_64);
// move pointer to the current VM_Thread structure to rax
buf = m2n_gen_ts_to_register(buf, &rax_opnd,
num_callee_saves, LcgEM64TContext::MAX_GR_LOCALS,
num_std_need_to_save, 0);
// shift to the last_m2n_frame field
I_32 last_m2n_frame_offset = (I_32)(int64)&((VM_thread*)0)->last_m2n_frame;
buf = alu(buf, add_opc, rax_opnd, Imm_Opnd(size_32, last_m2n_frame_offset), size_64);
// store pointer to pointer to last m2n frame
bytes_to_m2n_top -= LcgEM64TContext::GR_SIZE;
buf = mov(buf, M_Base_Opnd(rsp_reg, bytes_to_m2n_top), rax_opnd, size_64);
// save pointer to the previous m2n frame
bytes_to_m2n_top -= LcgEM64TContext::GR_SIZE;
buf = mov(buf, r9_opnd, M_Base_Opnd(rax_reg, 0));
buf = mov(buf, M_Base_Opnd(rsp_reg, bytes_to_m2n_top), r9_opnd, size_64);
// update last m2n frame of the current thread
buf = lea(buf, r9_opnd, M_Base_Opnd(rsp_reg, bytes_to_m2n_top));
buf = mov(buf, M_Base_Opnd(rax_reg, 0), r9_opnd, size_64);
return buf;
}
Code()
: Xbyak::CodeGenerator(sizeof(buf), buf)
{
puts("generate");
printf("ptr=%p, %p\n", getCode(), buf);
Xbyak::CodeArray::protect(buf, sizeof(buf), true);
#ifdef XBYAK32
mov(eax, ptr [esp + 4]);
add(eax, ptr [esp + 8]);
#elif defined(XBYAK64_WIN)
lea(rax, ptr [rcx + rdx]);
#else
lea(rax, ptr [rdi + rsi]);
#endif
ret();
}
int lea_grafo (V grafo[],V g_invertido[],
int *nv, int *nact )
{
void ins_lista (V g[],int v, int ad,
int act, int tiempo);
int v,ad,i,n,act,tiempo;
int lea();
PR("De numero de vertices...");
SALTO;
*nv = n = lea();
PR("De numero de actividades...");
SALTO;
*nact = lea();
for (i=1; i <= n; i++) {
grafo[i].v = g_invertido [i].v = 0;
grafo[i].cab = g_invertido [i].cab = NULL;
}
PR ("Lea el primer vertice. 99 para terminar...");
SALTO;
v = lea();
grafo[v].v = v;
while (v != 99) {
PR ("Lea adjunto, actividad, tiempo al vertice");
printf ("%d ",v);
PR(". 99 para terminar");
SALTO;
ad = lea(); act = lea(); tiempo = lea();
while (ad != 99) {
ins_lista (grafo,v,ad,act,tiempo);
ins_lista (g_invertido,ad,v,act,tiempo);
PR ("Lea adjunto, actividad, tiempo al vertice ");
printf ("%d ",v);
PR(". 99 para terminar");
SALTO;
ad = lea(); act = lea(); tiempo = lea();
}
PR ("Lea otro vertice. 99 para terminar...");
SALTO;
v = lea();
grafo[v].v = v;
}
return (n);
}
void InterpreterRuntime::SignatureHandlerGenerator::generate(uint64_t fingerprint) {
// generate code to handle arguments
iterate(fingerprint);
// return result handler
__ lea(rax, ExternalAddress(Interpreter::result_handler(method()->result_type())));
__ ret(0);
__ flush();
}
void ArrayCopyStub::emit_code(LIR_Assembler* ce) {
//---------------slow case: call to native-----------------
__ bind(_entry);
// Figure out where the args should go
// This should really convert the IntrinsicID to the Method* and signature
// but I don't know how to do that.
//
VMRegPair args[5];
BasicType signature[5] = { T_OBJECT, T_INT, T_OBJECT, T_INT, T_INT};
SharedRuntime::java_calling_convention(signature, args, 5, true);
// push parameters
// (src, src_pos, dest, destPos, length)
Register r[5];
r[0] = src()->as_register();
r[1] = src_pos()->as_register();
r[2] = dst()->as_register();
r[3] = dst_pos()->as_register();
r[4] = length()->as_register();
// next registers will get stored on the stack
for (int i = 0; i < 5 ; i++ ) {
VMReg r_1 = args[i].first();
if (r_1->is_stack()) {
int st_off = r_1->reg2stack() * wordSize;
__ str (r[i], Address(sp, st_off));
} else {
assert(r[i] == args[i].first()->as_Register(), "Wrong register for arg ");
}
}
ce->align_call(lir_static_call);
ce->emit_static_call_stub();
if (ce->compilation()->bailed_out()) {
return; // CodeCache is full
}
Address resolve(SharedRuntime::get_resolve_static_call_stub(),
relocInfo::static_call_type);
address call = __ trampoline_call(resolve);
if (call == NULL) {
ce->bailout("trampoline stub overflow");
return;
}
ce->add_call_info_here(info());
#ifndef PRODUCT
__ lea(rscratch2, ExternalAddress((address)&Runtime1::_arraycopy_slowcase_cnt));
__ incrementw(Address(rscratch2));
#endif
__ b(_continuation);
}
int lea_grafo (int grafo[][MAXIMO])
{
int v,ad,i,j,n,costo,lea();
PR("De numero de vertices...");
SALTO;
n = lea();
for (i=1; i <= n; i++)
for (j=1; j <=n; j++)
grafo[i][j] = 32767;
PR ("Vertice ... ");
v = 1;
printf ("%d",v);
SALTO;
while (v <= n) {
PR ("Lea el primer adjunto al vertice ");
printf ("%d ",v);
PR(". 99 para terminar");
SALTO;
ad = lea();
while (ad != 99) {
PR("Lea costo del arco");SALTO;
costo = lea();
grafo [v][ad] = costo;
PR ("Lea otro adjunto al vertice ");
printf ("%d ",v);
PR(". 99 para terminar");
SALTO;
ad = lea();
}
PR ("Vertice ...");
v++;
printf ("%d ",v);
SALTO;
}
return (n);
}
void main()
{
pagina *raiz=NULL;
int x,min,s;
int lea();
void ins_b (pagina **raiz,int x,int *s);
void listar1_b (pagina *p,int l);
void retira_b (pagina **raiz, int x, int *s);
printf ("Comienzo..\n");
printf ("De llave\n");
min = lea();
while (min != 9999) {
ins_b (&raiz, min, &s);
if (s == 1)
printf ("La llave ya existe\n");
printf ("De llave\n");
min = lea();
}
printf ("\n");
listar1_b (raiz,0);
getch();
printf ("\nRetiros\n");
printf ("De llave a retirar\n");
x = lea();
while (x != 9999) {
retira_b (&raiz, x, &s);
if (s == 0)
printf ("La llave no existe\n");
printf ("De llave a retirar\n");
x = lea();
}
printf ("\n");
listar1_b (raiz,0);
getch();
}
/**
* Method entry for static native methods:
* int java.util.zip.CRC32.update(int crc, int b)
*/
address TemplateInterpreterGenerator::generate_CRC32_update_entry() {
if (UseCRC32Intrinsics) {
address entry = __ pc();
// rbx,: Method*
// r13: senderSP must preserved for slow path, set SP to it on fast path
// c_rarg0: scratch (rdi on non-Win64, rcx on Win64)
// c_rarg1: scratch (rsi on non-Win64, rdx on Win64)
Label slow_path;
// If we need a safepoint check, generate full interpreter entry.
ExternalAddress state(SafepointSynchronize::address_of_state());
__ cmp32(ExternalAddress(SafepointSynchronize::address_of_state()),
SafepointSynchronize::_not_synchronized);
__ jcc(Assembler::notEqual, slow_path);
// We don't generate local frame and don't align stack because
// we call stub code and there is no safepoint on this path.
// Load parameters
const Register crc = rax; // crc
const Register val = c_rarg0; // source java byte value
const Register tbl = c_rarg1; // scratch
// Arguments are reversed on java expression stack
__ movl(val, Address(rsp, wordSize)); // byte value
__ movl(crc, Address(rsp, 2*wordSize)); // Initial CRC
__ lea(tbl, ExternalAddress(StubRoutines::crc_table_addr()));
__ notl(crc); // ~crc
__ update_byte_crc32(crc, val, tbl);
__ notl(crc); // ~crc
// result in rax
// _areturn
__ pop(rdi); // get return address
__ mov(rsp, r13); // set sp to sender sp
__ jmp(rdi);
// generate a vanilla native entry as the slow path
__ bind(slow_path);
__ jump_to_entry(Interpreter::entry_for_kind(Interpreter::native));
return entry;
}
return NULL;
}
void MethodHandles::trace_method_handle(MacroAssembler* _masm, const char* adaptername) {
if (!TraceMethodHandles) return;
BLOCK_COMMENT("trace_method_handle {");
__ push(rax);
__ lea(rax, Address(rsp, wordSize*6)); // entry_sp
__ pusha();
// arguments:
__ push(rbp); // interpreter frame pointer
__ push(rsi); // saved_sp
__ push(rax); // entry_sp
__ push(rcx); // mh
__ push(rcx);
__ movptr(Address(rsp, 0), (intptr_t) adaptername);
__ call_VM_leaf(CAST_FROM_FN_PTR(address, trace_method_handle_stub), 5);
__ popa();
__ pop(rax);
BLOCK_COMMENT("} trace_method_handle");
}
static void slow_call_thr_specific(MacroAssembler* _masm, Register thread) {
// slow call to of thr_getspecific
// int thr_getspecific(thread_key_t key, void **value);
// Consider using pthread_getspecific instead.
if (thread != rax) {
__ push(rax);
}
__ push(0); // space for return value
__ push(rdi);
__ push(rsi);
__ lea(rsi, Address(rsp, 16)); // pass return value address
__ push(rdx);
__ push(rcx);
__ push(r8);
__ push(r9);
__ push(r10);
// XXX
__ mov(r10, rsp);
__ andptr(rsp, -16);
__ push(r10);
__ push(r11);
__ movl(rdi, ThreadLocalStorage::thread_index());
__ call(RuntimeAddress(CAST_FROM_FN_PTR(address, thr_getspecific)));
__ pop(r11);
__ pop(rsp);
__ pop(r10);
__ pop(r9);
__ pop(r8);
__ pop(rcx);
__ pop(rdx);
__ pop(rsi);
__ pop(rdi);
__ pop(thread); // load return value
if (thread != rax) {
__ pop(rax);
}
}
main() {
int ant,i,n,*p;
printf ("Cuantos elementos desea Clasificar?\n");
n = lea();
printf ("\nDe el valor de los elementos\n");
p = (int *) calloc (n,2);
for (i = 1; i <= n; i++ ) {
p[i] = random (1000);
printf ("%d\n",p[i]);
}
S_INSERCION (p,n);
ant = p[1];
for (i=1; i<=n; i++) {
if (ant > p[i]) {
printf ("error");getch();
exit(1);
}
else ant = p[i];
printf ("%d ",p[i]);
}
getch();
}
main() {
int ant,i,n,*p;
printf ("Cuantos elementos desea Clasificar?\n");
n = lea();
printf ("\nDe el valor de los elementos\n");
p = (int *) calloc (n,2);
for (i = 0; i < n; i++ ) {
p[i] = random (1000);
printf ("%d\n",p[i]);
}
QUICK_SORT (p,0,n-1);
ant = p[0];
for (i=0; i<n; i++) {
if (ant > p[i]) {
printf ("error");getch();
exit(1);
}
else ant = p[i];
printf ("%d ",p[i]);
}
getch();
}
/*
double jit(double x);
@note 32bit: x : [esp+4], return fp0
64bit: x [rcx](win), xmm0(gcc), return xmm0
*/
Jit()
: negConst_(0x8000000000000000ULL)
, constTblPos_(0)
, regIdx_(-1)
#ifdef XBYAK32
, varTbl_(eax)
, tbl_(edx)
#elif defined(XBYAK64_WIN)
, tbl_(rcx)
#else
, tbl_(rdi)
#endif
{
#ifdef XBYAK32
lea(varTbl_, ptr[esp+4]);
#else
#ifdef XBYAK64_WIN
movaps(ptr [rsp + 8], xm6); // save xm6, xm7
movaps(ptr [rsp + 8 + 16], xm7);
#endif
movaps(xm7, xm0); // save xm0
#endif
mov(tbl_, (size_t)constTbl_);
}
address JNI_FastGetField::generate_fast_get_float_field0(BasicType type) {
const char *name;
switch (type) {
case T_FLOAT: name = "jni_fast_GetFloatField"; break;
case T_DOUBLE: name = "jni_fast_GetDoubleField"; break;
default: ShouldNotReachHere();
}
ResourceMark rm;
BufferBlob* b = BufferBlob::create(name, BUFFER_SIZE*wordSize);
address fast_entry = b->instructions_begin();
CodeBuffer cbuf(fast_entry, b->instructions_size());
MacroAssembler* masm = new MacroAssembler(&cbuf);
Label slow_with_pop, slow;
// stack layout: offset from rsp (in words):
// return pc 0
// jni env 1
// obj 2
// jfieldID 3
ExternalAddress counter(SafepointSynchronize::safepoint_counter_addr());
__ mov32 (rcx, counter);
__ testb (rcx, 1);
__ jcc (Assembler::notZero, slow);
if (os::is_MP()) {
__ mov(rax, rcx);
__ andptr(rax, 1); // rax, must end up 0
__ movptr(rdx, Address(rsp, rax, Address::times_1, 2*wordSize));
// obj, notice rax, is 0.
// rdx is data dependent on rcx.
} else {
__ movptr(rdx, Address(rsp, 2*wordSize)); // obj
}
__ movptr(rax, Address(rsp, 3*wordSize)); // jfieldID
__ movptr(rdx, Address(rdx, 0)); // *obj
__ shrptr(rax, 2); // offset
assert(count < LIST_CAPACITY, "LIST_CAPACITY too small");
speculative_load_pclist[count] = __ pc();
switch (type) {
#ifndef _LP64
case T_FLOAT: __ fld_s (Address(rdx, rax, Address::times_1)); break;
case T_DOUBLE: __ fld_d (Address(rdx, rax, Address::times_1)); break;
#else
case T_FLOAT: __ movflt (xmm0, Address(robj, roffset, Address::times_1)); break;
case T_DOUBLE: __ movdbl (xmm0, Address(robj, roffset, Address::times_1)); break;
#endif // _LP64
default: ShouldNotReachHere();
}
Address ca1;
if (os::is_MP()) {
__ fst_s (Address(rsp, -4));
__ lea(rdx, counter);
__ movl (rax, Address(rsp, -4));
// garbage hi-order bits on 64bit are harmless.
__ xorptr(rdx, rax);
__ xorptr(rdx, rax);
__ cmp32(rcx, Address(rdx, 0));
// rax, ^ counter_addr ^ rax, = address
// ca1 is data dependent on the field
// access.
} else {
__ cmp32(rcx, counter);
}
__ jcc (Assembler::notEqual, slow_with_pop);
#ifndef _WINDOWS
__ ret (0);
#else
// __stdcall calling convention
__ ret (3*wordSize);
#endif
__ bind (slow_with_pop);
// invalid load. pop FPU stack.
__ fstp_d (0);
slowcase_entry_pclist[count++] = __ pc();
__ bind (slow);
address slow_case_addr;
switch (type) {
case T_FLOAT: slow_case_addr = jni_GetFloatField_addr(); break;
case T_DOUBLE: slow_case_addr = jni_GetDoubleField_addr(); break;
default: ShouldNotReachHere();
}
// tail call
__ jump (ExternalAddress(slow_case_addr));
__ flush ();
#ifndef _WINDOWS
return fast_entry;
#else
switch (type) {
case T_FLOAT: jni_fast_GetFloatField_fp = (GetFloatField_t)fast_entry; break;
case T_DOUBLE: jni_fast_GetDoubleField_fp = (GetDoubleField_t)fast_entry;
}
return os::win32::fast_jni_accessor_wrapper(type);
#endif
}
address JNI_FastGetField::generate_fast_get_long_field() {
const char *name = "jni_fast_GetLongField";
ResourceMark rm;
BufferBlob* b = BufferBlob::create(name, BUFFER_SIZE*wordSize);
address fast_entry = b->instructions_begin();
CodeBuffer cbuf(fast_entry, b->instructions_size());
MacroAssembler* masm = new MacroAssembler(&cbuf);
Label slow;
// stack layout: offset from rsp (in words):
// old rsi 0
// return pc 1
// jni env 2
// obj 3
// jfieldID 4
ExternalAddress counter(SafepointSynchronize::safepoint_counter_addr());
__ push (rsi);
__ mov32 (rcx, counter);
__ testb (rcx, 1);
__ jcc (Assembler::notZero, slow);
if (os::is_MP()) {
__ mov(rax, rcx);
__ andptr(rax, 1); // rax, must end up 0
__ movptr(rdx, Address(rsp, rax, Address::times_1, 3*wordSize));
// obj, notice rax, is 0.
// rdx is data dependent on rcx.
} else {
__ movptr(rdx, Address(rsp, 3*wordSize)); // obj
}
__ movptr(rsi, Address(rsp, 4*wordSize)); // jfieldID
__ movptr(rdx, Address(rdx, 0)); // *obj
__ shrptr(rsi, 2); // offset
assert(count < LIST_CAPACITY-1, "LIST_CAPACITY too small");
speculative_load_pclist[count++] = __ pc();
__ movptr(rax, Address(rdx, rsi, Address::times_1));
#ifndef _LP64
speculative_load_pclist[count] = __ pc();
__ movl(rdx, Address(rdx, rsi, Address::times_1, 4));
#endif // _LP64
if (os::is_MP()) {
__ lea(rsi, counter);
__ xorptr(rsi, rdx);
__ xorptr(rsi, rax);
__ xorptr(rsi, rdx);
__ xorptr(rsi, rax);
__ cmp32(rcx, Address(rsi, 0));
// ca1 is the same as ca because
// rax, ^ rdx ^ counter_addr ^ rax, ^ rdx = address
// ca1 is data dependent on both rax, and rdx.
} else {
__ cmp32(rcx, counter);
}
__ jcc (Assembler::notEqual, slow);
__ pop (rsi);
#ifndef _WINDOWS
__ ret (0);
#else
// __stdcall calling convention
__ ret (3*wordSize);
#endif
slowcase_entry_pclist[count-1] = __ pc();
slowcase_entry_pclist[count++] = __ pc();
__ bind (slow);
__ pop (rsi);
address slow_case_addr = jni_GetLongField_addr();;
// tail call
__ jump (ExternalAddress(slow_case_addr));
__ flush ();
#ifndef _WINDOWS
return fast_entry;
#else
jni_fast_GetLongField_fp = (GetLongField_t)fast_entry;
return os::win32::fast_jni_accessor_wrapper(T_LONG);
#endif
}
struct code encode(struct instruction instr)
{
switch (instr.opcode) {
case INSTR_ADD:
return add(instr.optype, instr.source, instr.dest);
case INSTR_NOT:
return not(instr.optype, instr.source);
case INSTR_MUL:
return mul(instr.optype, instr.source);
case INSTR_XOR:
return xor(instr.optype, instr.source, instr.dest);
case INSTR_DIV:
return encode_div(instr.optype, instr.source);
case INSTR_AND:
return and(instr.optype, instr.source, instr.dest);
case INSTR_OR:
return or(instr.optype, instr.source, instr.dest);
case INSTR_SHL:
return shl(instr.optype, instr.source, instr.dest);
case INSTR_SHR:
return shr(instr.optype, instr.source, instr.dest);
case INSTR_SAR:
return sar(instr.optype, instr.source, instr.dest);
case INSTR_CALL:
return call(instr.optype, instr.source);
case INSTR_CMP:
return cmp(instr.optype, instr.source, instr.dest);
case INSTR_MOV:
return mov(instr.optype, instr.source, instr.dest);
case INSTR_MOVSX:
return movsx(instr.optype, instr.source, instr.dest);
case INSTR_MOVZX:
return movzx(instr.optype, instr.source, instr.dest);
case INSTR_MOVAPS:
return movaps(instr.optype, instr.source, instr.dest);
case INSTR_PUSH:
return push(instr.optype, instr.source);
case INSTR_SUB:
return sub(instr.optype, instr.source, instr.dest);
case INSTR_LEA:
return lea(instr.optype, instr.source, instr.dest);
case INSTR_LEAVE:
return leave();
case INSTR_REP_MOVSQ:
assert(instr.optype == OPT_NONE);
return rep_movsq();
case INSTR_RET:
return ret();
case INSTR_JMP:
return jmp(instr.optype, instr.source);
case INSTR_JA:
return jcc(instr.optype, TEST_A, instr.source);
case INSTR_JG:
return jcc(instr.optype, TEST_G, instr.source);
case INSTR_JZ:
return jcc(instr.optype, TEST_Z, instr.source);
case INSTR_JAE:
return jcc(instr.optype, TEST_AE, instr.source);
case INSTR_JGE:
return jcc(instr.optype, TEST_GE, instr.source);
case INSTR_SETZ:
return setcc(instr.optype, TEST_Z, instr.source);
case INSTR_SETA:
return setcc(instr.optype, TEST_A, instr.source);
case INSTR_SETG:
return setcc(instr.optype, TEST_G, instr.source);
case INSTR_SETAE:
return setcc(instr.optype, TEST_AE, instr.source);
case INSTR_SETGE:
return setcc(instr.optype, TEST_GE, instr.source);
case INSTR_TEST:
return test(instr.optype, instr.source, instr.dest);
default:
return nop();
}
}
explicit Code(int mode, size_t size, void *p)
: Xbyak::CodeGenerator(size, p)
{
inLocalLabel();
#ifdef XBYAK64
const Xbyak::Reg64& a = rax;
const Xbyak::Reg64& c = rcx;
#ifdef XBYAK64_WIN
mov(rax, rcx);
#else
mov(rax, rdi);
#endif
#else
const Xbyak::Reg32& a = eax;
const Xbyak::Reg32& c = ecx;
mov(a, ptr [esp + 4]);
#endif
switch (mode) {
case 0:
mov(c, ".jmp_table");
lea(c, ptr [c + a * 8]);
jmp(c);
align(8);
L(".jmp_table");
mov(a, expectTbl[0]);
ret();
align(8);
mov(a, expectTbl[1]);
ret();
align(8);
mov(a, expectTbl[2]);
ret();
break;
case 1:
/*
the label for putL is defined when called
*/
mov(c, ".jmp_table");
jmp(ptr [c + a * (int)sizeof(size_t)]);
L(".label1");
mov(a, expectTbl[0]);
jmp(".end");
L(".label2");
mov(a, expectTbl[1]);
jmp(".end");
L(".label3");
mov(a, expectTbl[2]);
jmp(".end");
L(".end");
ret();
ud2();
align(8);
L(".jmp_table");
putL(".label1");
putL(".label2");
putL(".label3");
break;
case 2:
/*
the label for putL is not defined when called
*/
jmp(".in");
ud2();
align(8);
L(".jmp_table");
putL(".label1");
putL(".label2");
putL(".label3");
L(".in");
mov(c, ".jmp_table");
jmp(ptr [c + a * (int)sizeof(size_t)]);
L(".label1");
mov(a, expectTbl[0]);
jmp(".end");
L(".label2");
mov(a, expectTbl[1]);
jmp(".end");
L(".label3");
mov(a, expectTbl[2]);
jmp(".end");
L(".end");
ret();
break;
}
outLocalLabel();
}
void MacroAssembler::fast_exp(XMMRegister xmm0, XMMRegister xmm1, XMMRegister xmm2, XMMRegister xmm3, XMMRegister xmm4, XMMRegister xmm5, XMMRegister xmm6, XMMRegister xmm7, Register eax, Register ecx, Register edx, Register tmp) {
Label L_2TAG_PACKET_0_0_2, L_2TAG_PACKET_1_0_2, L_2TAG_PACKET_2_0_2, L_2TAG_PACKET_3_0_2;
Label L_2TAG_PACKET_4_0_2, L_2TAG_PACKET_5_0_2, L_2TAG_PACKET_6_0_2, L_2TAG_PACKET_7_0_2;
Label L_2TAG_PACKET_8_0_2, L_2TAG_PACKET_9_0_2, L_2TAG_PACKET_10_0_2, L_2TAG_PACKET_11_0_2;
Label L_2TAG_PACKET_12_0_2, L_2TAG_PACKET_13_0_2, B1_3, B1_5, start;
assert_different_registers(tmp, eax, ecx, edx);
jmp(start);
address static_const_table = (address)_static_const_table;
bind(start);
subl(rsp, 120);
movl(Address(rsp, 64), tmp);
lea(tmp, ExternalAddress(static_const_table));
movdqu(xmm0, Address(rsp, 128));
unpcklpd(xmm0, xmm0);
movdqu(xmm1, Address(tmp, 64)); // 0x652b82feUL, 0x40571547UL, 0x652b82feUL, 0x40571547UL
movdqu(xmm6, Address(tmp, 48)); // 0x00000000UL, 0x43380000UL, 0x00000000UL, 0x43380000UL
movdqu(xmm2, Address(tmp, 80)); // 0xfefa0000UL, 0x3f862e42UL, 0xfefa0000UL, 0x3f862e42UL
movdqu(xmm3, Address(tmp, 96)); // 0xbc9e3b3aUL, 0x3d1cf79aUL, 0xbc9e3b3aUL, 0x3d1cf79aUL
pextrw(eax, xmm0, 3);
andl(eax, 32767);
movl(edx, 16527);
subl(edx, eax);
subl(eax, 15504);
orl(edx, eax);
cmpl(edx, INT_MIN);
jcc(Assembler::aboveEqual, L_2TAG_PACKET_0_0_2);
mulpd(xmm1, xmm0);
addpd(xmm1, xmm6);
movapd(xmm7, xmm1);
subpd(xmm1, xmm6);
mulpd(xmm2, xmm1);
movdqu(xmm4, Address(tmp, 128)); // 0xe3289860UL, 0x3f56c15cUL, 0x555b9e25UL, 0x3fa55555UL
mulpd(xmm3, xmm1);
movdqu(xmm5, Address(tmp, 144)); // 0xc090cf0fUL, 0x3f811115UL, 0x55548ba1UL, 0x3fc55555UL
subpd(xmm0, xmm2);
movdl(eax, xmm7);
movl(ecx, eax);
andl(ecx, 63);
shll(ecx, 4);
sarl(eax, 6);
movl(edx, eax);
movdqu(xmm6, Address(tmp, 16)); // 0xffffffc0UL, 0x00000000UL, 0xffffffc0UL, 0x00000000UL
pand(xmm7, xmm6);
movdqu(xmm6, Address(tmp, 32)); // 0x0000ffc0UL, 0x00000000UL, 0x0000ffc0UL, 0x00000000UL
paddq(xmm7, xmm6);
psllq(xmm7, 46);
subpd(xmm0, xmm3);
movdqu(xmm2, Address(tmp, ecx, Address::times_1, 160));
mulpd(xmm4, xmm0);
movapd(xmm6, xmm0);
movapd(xmm1, xmm0);
mulpd(xmm6, xmm6);
mulpd(xmm0, xmm6);
addpd(xmm5, xmm4);
mulsd(xmm0, xmm6);
mulpd(xmm6, Address(tmp, 112)); // 0xfffffffeUL, 0x3fdfffffUL, 0xfffffffeUL, 0x3fdfffffUL
addsd(xmm1, xmm2);
unpckhpd(xmm2, xmm2);
mulpd(xmm0, xmm5);
addsd(xmm1, xmm0);
por(xmm2, xmm7);
unpckhpd(xmm0, xmm0);
addsd(xmm0, xmm1);
addsd(xmm0, xmm6);
addl(edx, 894);
cmpl(edx, 1916);
jcc (Assembler::above, L_2TAG_PACKET_1_0_2);
mulsd(xmm0, xmm2);
addsd(xmm0, xmm2);
jmp(L_2TAG_PACKET_2_0_2);
bind(L_2TAG_PACKET_1_0_2);
fnstcw(Address(rsp, 24));
movzwl(edx, Address(rsp, 24));
orl(edx, 768);
movw(Address(rsp, 28), edx);
fldcw(Address(rsp, 28));
movl(edx, eax);
sarl(eax, 1);
subl(edx, eax);
movdqu(xmm6, Address(tmp, 0)); // 0x00000000UL, 0xfff00000UL, 0x00000000UL, 0xfff00000UL
pandn(xmm6, xmm2);
addl(eax, 1023);
movdl(xmm3, eax);
psllq(xmm3, 52);
por(xmm6, xmm3);
addl(edx, 1023);
movdl(xmm4, edx);
psllq(xmm4, 52);
movsd(Address(rsp, 8), xmm0);
fld_d(Address(rsp, 8));
movsd(Address(rsp, 16), xmm6);
fld_d(Address(rsp, 16));
fmula(1);
faddp(1);
movsd(Address(rsp, 8), xmm4);
fld_d(Address(rsp, 8));
fmulp(1);
fstp_d(Address(rsp, 8));
movsd(xmm0,Address(rsp, 8));
fldcw(Address(rsp, 24));
pextrw(ecx, xmm0, 3);
andl(ecx, 32752);
cmpl(ecx, 32752);
jcc(Assembler::greaterEqual, L_2TAG_PACKET_3_0_2);
cmpl(ecx, 0);
jcc(Assembler::equal, L_2TAG_PACKET_4_0_2);
jmp(L_2TAG_PACKET_2_0_2);
cmpl(ecx, INT_MIN);
jcc(Assembler::less, L_2TAG_PACKET_3_0_2);
cmpl(ecx, -1064950997);
jcc(Assembler::less, L_2TAG_PACKET_2_0_2);
jcc(Assembler::greater, L_2TAG_PACKET_4_0_2);
movl(edx, Address(rsp, 128));
cmpl(edx ,-17155601);
jcc(Assembler::less, L_2TAG_PACKET_2_0_2);
jmp(L_2TAG_PACKET_4_0_2);
bind(L_2TAG_PACKET_3_0_2);
movl(edx, 14);
jmp(L_2TAG_PACKET_5_0_2);
bind(L_2TAG_PACKET_4_0_2);
movl(edx, 15);
bind(L_2TAG_PACKET_5_0_2);
movsd(Address(rsp, 0), xmm0);
movsd(xmm0, Address(rsp, 128));
fld_d(Address(rsp, 0));
jmp(L_2TAG_PACKET_6_0_2);
bind(L_2TAG_PACKET_7_0_2);
cmpl(eax, 2146435072);
jcc(Assembler::greaterEqual, L_2TAG_PACKET_8_0_2);
movl(eax, Address(rsp, 132));
cmpl(eax, INT_MIN);
jcc(Assembler::greaterEqual, L_2TAG_PACKET_9_0_2);
movsd(xmm0, Address(tmp, 1208)); // 0xffffffffUL, 0x7fefffffUL
mulsd(xmm0, xmm0);
movl(edx, 14);
jmp(L_2TAG_PACKET_5_0_2);
bind(L_2TAG_PACKET_9_0_2);
movsd(xmm0, Address(tmp, 1216));
mulsd(xmm0, xmm0);
movl(edx, 15);
jmp(L_2TAG_PACKET_5_0_2);
bind(L_2TAG_PACKET_8_0_2);
movl(edx, Address(rsp, 128));
cmpl(eax, 2146435072);
jcc(Assembler::above, L_2TAG_PACKET_10_0_2);
cmpl(edx, 0);
jcc(Assembler::notEqual, L_2TAG_PACKET_10_0_2);
movl(eax, Address(rsp, 132));
cmpl(eax, 2146435072);
jcc(Assembler::notEqual, L_2TAG_PACKET_11_0_2);
movsd(xmm0, Address(tmp, 1192)); // 0x00000000UL, 0x7ff00000UL
jmp(L_2TAG_PACKET_2_0_2);
bind(L_2TAG_PACKET_11_0_2);
movsd(xmm0, Address(tmp, 1200)); // 0x00000000UL, 0x00000000UL
jmp(L_2TAG_PACKET_2_0_2);
bind(L_2TAG_PACKET_10_0_2);
movsd(xmm0, Address(rsp, 128));
addsd(xmm0, xmm0);
jmp(L_2TAG_PACKET_2_0_2);
bind(L_2TAG_PACKET_0_0_2);
movl(eax, Address(rsp, 132));
andl(eax, 2147483647);
cmpl(eax, 1083179008);
jcc(Assembler::aboveEqual, L_2TAG_PACKET_7_0_2);
movsd(xmm0, Address(rsp, 128));
addsd(xmm0, Address(tmp, 1184)); // 0x00000000UL, 0x3ff00000UL
jmp(L_2TAG_PACKET_2_0_2);
bind(L_2TAG_PACKET_2_0_2);
movsd(Address(rsp, 48), xmm0);
fld_d(Address(rsp, 48));
bind(L_2TAG_PACKET_6_0_2);
movl(tmp, Address(rsp, 64));
}
void GSDrawScanlineCodeGenerator::Init()
{
// int skip = left & 3;
mov(rbx, rdx);
and(rdx, 3);
// left -= skip;
sub(rbx, rdx);
// int steps = pixels + skip - 4;
lea(rcx, ptr[rcx + rdx - 4]);
// GSVector4i test = m_test[skip] | m_test[7 + (steps & (steps >> 31))];
shl(rdx, 4);
vmovdqa(xmm15, ptr[rdx + r10]);
mov(rax, rcx);
sar(rax, 63);
and(rax, rcx);
shl(rax, 4);
vpor(xmm15, ptr[rax + r10 + 7 * 16]);
// GSVector2i* fza_base = &m_local.gd->fzbr[top];
mov(rax, (size_t)m_local.gd->fzbr);
lea(rsi, ptr[rax + r8 * 8]);
// GSVector2i* fza_offset = &m_local.gd->fzbc[left >> 2];
mov(rax, (size_t)m_local.gd->fzbc);
lea(rdi, ptr[rax + rbx * 2]);
if(!m_sel.sprite && (m_sel.fwrite && m_sel.fge || m_sel.zb) || m_sel.fb && (m_sel.edge || m_sel.tfx != TFX_NONE || m_sel.iip))
{
// edx = &m_local.d[skip]
lea(rdx, ptr[rdx * 8 + r11 + offsetof(GSScanlineLocalData, d)]);
}
if(!m_sel.sprite)
{
if(m_sel.fwrite && m_sel.fge || m_sel.zb)
{
vmovaps(xmm0, ptr[r9 + offsetof(GSVertexSW, p)]); // v.p
if(m_sel.fwrite && m_sel.fge)
{
// f = GSVector4i(vp).zzzzh().zzzz().add16(m_local.d[skip].f);
vcvttps2dq(xmm9, xmm0);
vpshufhw(xmm9, xmm9, _MM_SHUFFLE(2, 2, 2, 2));
vpshufd(xmm9, xmm9, _MM_SHUFFLE(2, 2, 2, 2));
vpaddw(xmm9, ptr[rdx + 16 * 6]);
}
if(m_sel.zb)
{
// z = vp.zzzz() + m_local.d[skip].z;
vshufps(xmm8, xmm0, xmm0, _MM_SHUFFLE(2, 2, 2, 2));
vaddps(xmm8, ptr[rdx]);
}
}
}
else
{
if(m_sel.ztest)
{
vmovdqa(xmm8, ptr[r11 + offsetof(GSScanlineLocalData, p.z)]);
}
}
if(m_sel.fb)
{
if(m_sel.edge || m_sel.tfx != TFX_NONE)
{
vmovaps(xmm0, ptr[r9 + offsetof(GSVertexSW, t)]); // v.t
}
if(m_sel.edge)
{
vpshufhw(xmm1, xmm0, _MM_SHUFFLE(2, 2, 2, 2));
vpshufd(xmm1, xmm1, _MM_SHUFFLE(3, 3, 3, 3));
vpsrlw(xmm1, 9);
vmovdqa(ptr[r11 + offsetof(GSScanlineLocalData, temp.cov)], xmm1);
}
if(m_sel.tfx != TFX_NONE)
{
if(m_sel.fst)
{
// GSVector4i vti(vt);
vcvttps2dq(xmm0, xmm0);
// s = vti.xxxx() + m_local.d[skip].s;
// t = vti.yyyy(); if(!sprite) t += m_local.d[skip].t;
vpshufd(xmm10, xmm0, _MM_SHUFFLE(0, 0, 0, 0));
vpshufd(xmm11, xmm0, _MM_SHUFFLE(1, 1, 1, 1));
vpaddd(xmm10, ptr[rdx + offsetof(GSScanlineLocalData::skip, s)]);
if(!m_sel.sprite || m_sel.mmin)
{
vpaddd(xmm11, ptr[rdx + offsetof(GSScanlineLocalData::skip, t)]);
}
else
{
if(m_sel.ltf)
{
vpshuflw(xmm6, xmm11, _MM_SHUFFLE(2, 2, 0, 0));
vpshufhw(xmm6, xmm6, _MM_SHUFFLE(2, 2, 0, 0));
vpsrlw(xmm6, 1);
}
}
}
else
{
// s = vt.xxxx() + m_local.d[skip].s;
// t = vt.yyyy() + m_local.d[skip].t;
// q = vt.zzzz() + m_local.d[skip].q;
vshufps(xmm10, xmm0, xmm0, _MM_SHUFFLE(0, 0, 0, 0));
vshufps(xmm11, xmm0, xmm0, _MM_SHUFFLE(1, 1, 1, 1));
vshufps(xmm12, xmm0, xmm0, _MM_SHUFFLE(2, 2, 2, 2));
vaddps(xmm10, ptr[rdx + offsetof(GSScanlineLocalData::skip, s)]);
vaddps(xmm11, ptr[rdx + offsetof(GSScanlineLocalData::skip, t)]);
vaddps(xmm12, ptr[rdx + offsetof(GSScanlineLocalData::skip, q)]);
}
}
if(!(m_sel.tfx == TFX_DECAL && m_sel.tcc))
{
if(m_sel.iip)
{
// GSVector4i vc = GSVector4i(v.c);
vcvttps2dq(xmm0, ptr[r9 + offsetof(GSVertexSW, c)]); // v.c
// vc = vc.upl16(vc.zwxy());
vpshufd(xmm1, xmm0, _MM_SHUFFLE(1, 0, 3, 2));
vpunpcklwd(xmm0, xmm1);
// rb = vc.xxxx().add16(m_local.d[skip].rb);
// ga = vc.zzzz().add16(m_local.d[skip].ga);
vpshufd(xmm13, xmm0, _MM_SHUFFLE(0, 0, 0, 0));
vpshufd(xmm14, xmm0, _MM_SHUFFLE(2, 2, 2, 2));
vpaddw(xmm13, ptr[rdx + offsetof(GSScanlineLocalData::skip, rb)]);
vpaddw(xmm14, ptr[rdx + offsetof(GSScanlineLocalData::skip, ga)]);
}
else
{
vmovdqa(xmm13, ptr[r11 + offsetof(GSScanlineLocalData, c.rb)]);
vmovdqa(xmm14, ptr[r11 + offsetof(GSScanlineLocalData, c.ga)]);
}
}
}
}
void MacroAssembler::fast_log(XMMRegister xmm0, XMMRegister xmm1, XMMRegister xmm2, XMMRegister xmm3, XMMRegister xmm4, XMMRegister xmm5, XMMRegister xmm6, XMMRegister xmm7, Register eax, Register ecx, Register edx, Register tmp1, Register tmp2) {
Label L_2TAG_PACKET_0_0_2, L_2TAG_PACKET_1_0_2, L_2TAG_PACKET_2_0_2, L_2TAG_PACKET_3_0_2;
Label L_2TAG_PACKET_4_0_2, L_2TAG_PACKET_5_0_2, L_2TAG_PACKET_6_0_2, L_2TAG_PACKET_7_0_2;
Label L_2TAG_PACKET_8_0_2;
Label L_2TAG_PACKET_12_0_2, L_2TAG_PACKET_13_0_2, B1_3, B1_5, start;
assert_different_registers(tmp1, tmp2, eax, ecx, edx);
jmp(start);
address L_tbl = (address)_L_tbl;
address log2 = (address)_log2;
address coeff = (address)_coeff;
bind(start);
subq(rsp, 24);
movsd(Address(rsp, 0), xmm0);
mov64(rax, 0x3ff0000000000000);
movdq(xmm2, rax);
mov64(rdx, 0x77f0000000000000);
movdq(xmm3, rdx);
movl(ecx, 32768);
movdl(xmm4, rcx);
mov64(tmp1, 0xffffe00000000000);
movdq(xmm5, tmp1);
movdqu(xmm1, xmm0);
pextrw(eax, xmm0, 3);
por(xmm0, xmm2);
movl(ecx, 16352);
psrlq(xmm0, 27);
lea(tmp2, ExternalAddress(L_tbl));
psrld(xmm0, 2);
rcpps(xmm0, xmm0);
psllq(xmm1, 12);
pshufd(xmm6, xmm5, 228);
psrlq(xmm1, 12);
subl(eax, 16);
cmpl(eax, 32736);
jcc(Assembler::aboveEqual, L_2TAG_PACKET_0_0_2);
bind(L_2TAG_PACKET_1_0_2);
paddd(xmm0, xmm4);
por(xmm1, xmm3);
movdl(edx, xmm0);
psllq(xmm0, 29);
pand(xmm5, xmm1);
pand(xmm0, xmm6);
subsd(xmm1, xmm5);
mulpd(xmm5, xmm0);
andl(eax, 32752);
subl(eax, ecx);
cvtsi2sdl(xmm7, eax);
mulsd(xmm1, xmm0);
movq(xmm6, ExternalAddress(log2)); // 0xfefa3800UL, 0x3fa62e42UL
movdqu(xmm3, ExternalAddress(coeff)); // 0x92492492UL, 0x3fc24924UL, 0x00000000UL, 0xbfd00000UL
subsd(xmm5, xmm2);
andl(edx, 16711680);
shrl(edx, 12);
movdqu(xmm0, Address(tmp2, edx));
movdqu(xmm4, ExternalAddress(16 + coeff)); // 0x3d6fb175UL, 0xbfc5555eUL, 0x55555555UL, 0x3fd55555UL
addsd(xmm1, xmm5);
movdqu(xmm2, ExternalAddress(32 + coeff)); // 0x9999999aUL, 0x3fc99999UL, 0x00000000UL, 0xbfe00000UL
mulsd(xmm6, xmm7);
movddup(xmm5, xmm1);
mulsd(xmm7, ExternalAddress(8 + log2)); // 0x93c76730UL, 0x3ceef357UL
mulsd(xmm3, xmm1);
addsd(xmm0, xmm6);
mulpd(xmm4, xmm5);
mulpd(xmm5, xmm5);
movddup(xmm6, xmm0);
addsd(xmm0, xmm1);
addpd(xmm4, xmm2);
mulpd(xmm3, xmm5);
subsd(xmm6, xmm0);
mulsd(xmm4, xmm1);
pshufd(xmm2, xmm0, 238);
addsd(xmm1, xmm6);
mulsd(xmm5, xmm5);
addsd(xmm7, xmm2);
addpd(xmm4, xmm3);
addsd(xmm1, xmm7);
mulpd(xmm4, xmm5);
addsd(xmm1, xmm4);
pshufd(xmm5, xmm4, 238);
addsd(xmm1, xmm5);
addsd(xmm0, xmm1);
jmp(B1_5);
bind(L_2TAG_PACKET_0_0_2);
movq(xmm0, Address(rsp, 0));
movq(xmm1, Address(rsp, 0));
addl(eax, 16);
cmpl(eax, 32768);
jcc(Assembler::aboveEqual, L_2TAG_PACKET_2_0_2);
cmpl(eax, 16);
jcc(Assembler::below, L_2TAG_PACKET_3_0_2);
bind(L_2TAG_PACKET_4_0_2);
addsd(xmm0, xmm0);
jmp(B1_5);
bind(L_2TAG_PACKET_5_0_2);
jcc(Assembler::above, L_2TAG_PACKET_4_0_2);
cmpl(edx, 0);
jcc(Assembler::above, L_2TAG_PACKET_4_0_2);
jmp(L_2TAG_PACKET_6_0_2);
bind(L_2TAG_PACKET_3_0_2);
xorpd(xmm1, xmm1);
addsd(xmm1, xmm0);
movdl(edx, xmm1);
psrlq(xmm1, 32);
movdl(ecx, xmm1);
orl(edx, ecx);
cmpl(edx, 0);
jcc(Assembler::equal, L_2TAG_PACKET_7_0_2);
xorpd(xmm1, xmm1);
movl(eax, 18416);
pinsrw(xmm1, eax, 3);
mulsd(xmm0, xmm1);
movdqu(xmm1, xmm0);
pextrw(eax, xmm0, 3);
por(xmm0, xmm2);
psrlq(xmm0, 27);
movl(ecx, 18416);
psrld(xmm0, 2);
rcpps(xmm0, xmm0);
psllq(xmm1, 12);
pshufd(xmm6, xmm5, 228);
psrlq(xmm1, 12);
jmp(L_2TAG_PACKET_1_0_2);
bind(L_2TAG_PACKET_2_0_2);
movdl(edx, xmm1);
psrlq(xmm1, 32);
movdl(ecx, xmm1);
addl(ecx, ecx);
cmpl(ecx, -2097152);
jcc(Assembler::aboveEqual, L_2TAG_PACKET_5_0_2);
orl(edx, ecx);
cmpl(edx, 0);
jcc(Assembler::equal, L_2TAG_PACKET_7_0_2);
bind(L_2TAG_PACKET_6_0_2);
xorpd(xmm1, xmm1);
xorpd(xmm0, xmm0);
movl(eax, 32752);
pinsrw(xmm1, eax, 3);
mulsd(xmm0, xmm1);
movl(Address(rsp, 16), 3);
jmp(L_2TAG_PACKET_8_0_2);
bind(L_2TAG_PACKET_7_0_2);
xorpd(xmm1, xmm1);
xorpd(xmm0, xmm0);
movl(eax, 49136);
pinsrw(xmm0, eax, 3);
divsd(xmm0, xmm1);
movl(Address(rsp, 16), 2);
bind(L_2TAG_PACKET_8_0_2);
movq(Address(rsp, 8), xmm0);
bind(B1_3);
movq(xmm0, Address(rsp, 8));
bind(B1_5);
addq(rsp, 24);
}
VtableStub* VtableStubs::create_vtable_stub(int vtable_index) {
const int aarch64_code_length = VtableStub::pd_code_size_limit(true);
VtableStub* s = new(aarch64_code_length) VtableStub(true, vtable_index);
ResourceMark rm;
CodeBuffer cb(s->entry_point(), aarch64_code_length);
MacroAssembler* masm = new MacroAssembler(&cb);
#ifndef PRODUCT
if (CountCompiledCalls) {
__ lea(r19, ExternalAddress((address) SharedRuntime::nof_megamorphic_calls_addr()));
__ incrementw(Address(r19));
}
#endif
// get receiver (need to skip return address on top of stack)
assert(VtableStub::receiver_location() == j_rarg0->as_VMReg(), "receiver expected in j_rarg0");
// get receiver klass
address npe_addr = __ pc();
__ load_klass(r19, j_rarg0);
#ifndef PRODUCT
if (DebugVtables) {
Label L;
// check offset vs vtable length
__ ldrw(rscratch1, Address(r19, Klass::vtable_length_offset()));
__ cmpw(rscratch1, vtable_index * vtableEntry::size());
__ br(Assembler::GT, L);
__ enter();
__ mov(r2, vtable_index);
__ call_VM(noreg,
CAST_FROM_FN_PTR(address, bad_compiled_vtable_index), j_rarg0, r2);
__ leave();
__ bind(L);
}
#endif // PRODUCT
__ lookup_virtual_method(r19, vtable_index, rmethod);
if (DebugVtables) {
Label L;
__ cbz(rmethod, L);
__ ldr(rscratch1, Address(rmethod, Method::from_compiled_offset()));
__ cbnz(rscratch1, L);
__ stop("Vtable entry is NULL");
__ bind(L);
}
// r0: receiver klass
// rmethod: Method*
// r2: receiver
address ame_addr = __ pc();
__ ldr(rscratch1, Address(rmethod, Method::from_compiled_offset()));
__ br(rscratch1);
__ flush();
if (PrintMiscellaneous && (WizardMode || Verbose)) {
tty->print_cr("vtable #%d at " PTR_FORMAT "[%d] left over: %d",
vtable_index, p2i(s->entry_point()),
(int)(s->code_end() - s->entry_point()),
(int)(s->code_end() - __ pc()));
}
guarantee(__ pc() <= s->code_end(), "overflowed buffer");
s->set_exception_points(npe_addr, ame_addr);
return s;
}
VtableStub* VtableStubs::create_itable_stub(int itable_index) {
// Note well: pd_code_size_limit is the absolute minimum we can get
// away with. If you add code here, bump the code stub size
// returned by pd_code_size_limit!
const int code_length = VtableStub::pd_code_size_limit(false);
VtableStub* s = new(code_length) VtableStub(false, itable_index);
ResourceMark rm;
CodeBuffer cb(s->entry_point(), code_length);
MacroAssembler* masm = new MacroAssembler(&cb);
#ifndef PRODUCT
if (CountCompiledCalls) {
__ lea(r10, ExternalAddress((address) SharedRuntime::nof_megamorphic_calls_addr()));
__ incrementw(Address(r10));
}
#endif
// Entry arguments:
// rscratch2: Interface
// j_rarg0: Receiver
// Free registers (non-args) are r0 (interface), rmethod
// get receiver (need to skip return address on top of stack)
assert(VtableStub::receiver_location() == j_rarg0->as_VMReg(), "receiver expected in j_rarg0");
// get receiver klass (also an implicit null-check)
address npe_addr = __ pc();
// Most registers are in use; we'll use r0, rmethod, r10, r11
__ load_klass(r10, j_rarg0);
Label throw_icce;
// Get Method* and entrypoint for compiler
__ lookup_interface_method(// inputs: rec. class, interface, itable index
r10, rscratch2, itable_index,
// outputs: method, scan temp. reg
rmethod, r11,
throw_icce);
// method (rmethod): Method*
// j_rarg0: receiver
#ifdef ASSERT
if (DebugVtables) {
Label L2;
__ cbz(rmethod, L2);
__ ldr(rscratch1, Address(rmethod, Method::from_compiled_offset()));
__ cbnz(rscratch1, L2);
__ stop("compiler entrypoint is null");
__ bind(L2);
}
#endif // ASSERT
// rmethod: Method*
// j_rarg0: receiver
address ame_addr = __ pc();
__ ldr(rscratch1, Address(rmethod, Method::from_compiled_offset()));
__ br(rscratch1);
__ bind(throw_icce);
__ far_jump(RuntimeAddress(StubRoutines::throw_IncompatibleClassChangeError_entry()));
__ flush();
if (PrintMiscellaneous && (WizardMode || Verbose)) {
tty->print_cr("itable #%d at " PTR_FORMAT "[%d] left over: %d",
itable_index, p2i(s->entry_point()),
(int)(s->code_end() - s->entry_point()),
(int)(s->code_end() - __ pc()));
}
guarantee(__ pc() <= s->code_end(), "overflowed buffer");
s->set_exception_points(npe_addr, ame_addr);
return s;
}
address JNI_FastGetField::generate_fast_get_int_field0(BasicType type) {
const char *name;
switch (type) {
case T_BOOLEAN: name = "jni_fast_GetBooleanField"; break;
case T_BYTE: name = "jni_fast_GetByteField"; break;
case T_CHAR: name = "jni_fast_GetCharField"; break;
case T_SHORT: name = "jni_fast_GetShortField"; break;
case T_INT: name = "jni_fast_GetIntField"; break;
default: ShouldNotReachHere();
}
ResourceMark rm;
BufferBlob* b = BufferBlob::create(name, BUFFER_SIZE*wordSize);
address fast_entry = b->instructions_begin();
CodeBuffer cbuf(fast_entry, b->instructions_size());
MacroAssembler* masm = new MacroAssembler(&cbuf);
Label slow;
// stack layout: offset from rsp (in words):
// return pc 0
// jni env 1
// obj 2
// jfieldID 3
ExternalAddress counter(SafepointSynchronize::safepoint_counter_addr());
__ mov32 (rcx, counter);
__ testb (rcx, 1);
__ jcc (Assembler::notZero, slow);
if (os::is_MP()) {
__ mov(rax, rcx);
__ andptr(rax, 1); // rax, must end up 0
__ movptr(rdx, Address(rsp, rax, Address::times_1, 2*wordSize));
// obj, notice rax, is 0.
// rdx is data dependent on rcx.
} else {
__ movptr (rdx, Address(rsp, 2*wordSize)); // obj
}
__ movptr(rax, Address(rsp, 3*wordSize)); // jfieldID
__ movptr(rdx, Address(rdx, 0)); // *obj
__ shrptr (rax, 2); // offset
assert(count < LIST_CAPACITY, "LIST_CAPACITY too small");
speculative_load_pclist[count] = __ pc();
switch (type) {
case T_BOOLEAN: __ movzbl (rax, Address(rdx, rax, Address::times_1)); break;
case T_BYTE: __ movsbl (rax, Address(rdx, rax, Address::times_1)); break;
case T_CHAR: __ movzwl (rax, Address(rdx, rax, Address::times_1)); break;
case T_SHORT: __ movswl (rax, Address(rdx, rax, Address::times_1)); break;
case T_INT: __ movl (rax, Address(rdx, rax, Address::times_1)); break;
default: ShouldNotReachHere();
}
Address ca1;
if (os::is_MP()) {
__ lea(rdx, counter);
__ xorptr(rdx, rax);
__ xorptr(rdx, rax);
__ cmp32(rcx, Address(rdx, 0));
// ca1 is the same as ca because
// rax, ^ counter_addr ^ rax, = address
// ca1 is data dependent on rax,.
} else {
__ cmp32(rcx, counter);
}
__ jcc (Assembler::notEqual, slow);
#ifndef _WINDOWS
__ ret (0);
#else
// __stdcall calling convention
__ ret (3*wordSize);
#endif
slowcase_entry_pclist[count++] = __ pc();
__ bind (slow);
address slow_case_addr;
switch (type) {
case T_BOOLEAN: slow_case_addr = jni_GetBooleanField_addr(); break;
case T_BYTE: slow_case_addr = jni_GetByteField_addr(); break;
case T_CHAR: slow_case_addr = jni_GetCharField_addr(); break;
case T_SHORT: slow_case_addr = jni_GetShortField_addr(); break;
case T_INT: slow_case_addr = jni_GetIntField_addr();
}
// tail call
__ jump (ExternalAddress(slow_case_addr));
__ flush ();
#ifndef _WINDOWS
return fast_entry;
#else
switch (type) {
case T_BOOLEAN: jni_fast_GetBooleanField_fp = (GetBooleanField_t)fast_entry; break;
case T_BYTE: jni_fast_GetByteField_fp = (GetByteField_t)fast_entry; break;
case T_CHAR: jni_fast_GetCharField_fp = (GetCharField_t)fast_entry; break;
case T_SHORT: jni_fast_GetShortField_fp = (GetShortField_t)fast_entry; break;
case T_INT: jni_fast_GetIntField_fp = (GetIntField_t)fast_entry;
}
return os::win32::fast_jni_accessor_wrapper(type);
#endif
}
static char* gen_invoke_common_managed_func(char* stub) {
// Defines stack alignment on managed function enter.
const I_32 STACK_ALIGNMENT = MANAGED_STACK_ALIGNMENT;
const I_32 STACK_ALIGNMENT_MASK = ~(STACK_ALIGNMENT - 1);
const char * LOOP_BEGIN = "loop_begin";
const char * LOOP_END = "loop_end";
// [ebp + 8] - args
// [ebp + 12] - size
// [ebp + 16] - func
const I_32 STACK_ARGS_OFFSET = 8;
const I_32 STACK_NARGS_OFFSET = 12;
const I_32 STACK_FUNC_OFFSET = 16;
const I_32 STACK_CALLEE_SAVED_OFFSET = -12;
tl::MemoryPool pool;
LilCguLabelAddresses labels(&pool, stub);
// Initialize ebp-based stack frame.
stub = push(stub, ebp_opnd);
stub = mov(stub, ebp_opnd, esp_opnd);
// Preserve callee-saved registers.
stub = push(stub, ebx_opnd);
stub = push(stub, esi_opnd);
stub = push(stub, edi_opnd);
// Load an array of arguments ('args') and its size from the stack.
stub = mov(stub, eax_opnd, M_Base_Opnd(ebp_reg, STACK_ARGS_OFFSET));
stub = mov(stub, ecx_opnd, M_Base_Opnd(ebp_reg, STACK_NARGS_OFFSET));
// Align memory stack.
stub = lea(stub, ebx_opnd, M_Index_Opnd(n_reg, ecx_reg, 4, 4));
stub = mov(stub, esi_opnd, ebx_opnd);
stub = neg(stub, esi_opnd);
stub = alu(stub, add_opc, esi_opnd, esp_opnd);
stub = alu(stub, and_opc, esi_opnd, Imm_Opnd(size_32, STACK_ALIGNMENT_MASK));
stub = alu(stub, add_opc, ebx_opnd, esi_opnd);
stub = mov(stub, esp_opnd, ebx_opnd);
// Load a pointer to the last argument of 'args' array.
stub = lea(stub, eax_opnd, M_Index_Opnd(eax_reg, ecx_reg, -4, 4));
stub = alu(stub, sub_opc, eax_opnd, esp_opnd);
stub = alu(stub, or_opc, ecx_opnd, ecx_opnd);
stub = branch8(stub, Condition_Z, Imm_Opnd(size_8, 0));
labels.add_patch_to_label(LOOP_END, stub - 1, LPT_Rel8);
// LOOP_BEGIN:
// Push inputs on the stack.
labels.define_label(LOOP_BEGIN, stub, false);
stub = push(stub, M_Index_Opnd(esp_reg, eax_reg, 0, 1));
stub = loop(stub, Imm_Opnd(size_8, 0));
labels.add_patch_to_label(LOOP_BEGIN, stub - 1, LPT_Rel8);
// LOOP_END:
labels.define_label(LOOP_END, stub, false);
// Call target function.
stub = mov(stub, eax_opnd, M_Base_Opnd(ebp_reg, STACK_FUNC_OFFSET));
stub = call(stub, eax_opnd);
// Restore callee-saved registers from the stack.
stub = lea(stub, esp_opnd, M_Base_Opnd(ebp_reg, STACK_CALLEE_SAVED_OFFSET));
stub = pop(stub, edi_opnd);
stub = pop(stub, esi_opnd);
stub = pop(stub, ebx_opnd);
// Leave current frame.
stub = pop(stub, ebp_opnd);
return stub;
}
address JNI_FastGetField::generate_fast_get_int_field0(BasicType type) {
const char *name;
switch (type) {
case T_BOOLEAN: name = "jni_fast_GetBooleanField"; break;
case T_BYTE: name = "jni_fast_GetByteField"; break;
case T_CHAR: name = "jni_fast_GetCharField"; break;
case T_SHORT: name = "jni_fast_GetShortField"; break;
case T_INT: name = "jni_fast_GetIntField"; break;
case T_LONG: name = "jni_fast_GetLongField"; break;
case T_FLOAT: name = "jni_fast_GetFloatField"; break;
case T_DOUBLE: name = "jni_fast_GetDoubleField"; break;
default: ShouldNotReachHere();
}
ResourceMark rm;
BufferBlob* blob = BufferBlob::create(name, BUFFER_SIZE);
CodeBuffer cbuf(blob);
MacroAssembler* masm = new MacroAssembler(&cbuf);
address fast_entry = __ pc();
Label slow;
unsigned long offset;
__ adrp(rcounter_addr,
SafepointSynchronize::safepoint_counter_addr(), offset);
Address safepoint_counter_addr(rcounter_addr, offset);
__ ldrw(rcounter, safepoint_counter_addr);
__ andw(rscratch1, rcounter, 1);
__ cbnzw(rscratch1, slow);
__ eor(robj, c_rarg1, rcounter);
__ eor(robj, robj, rcounter); // obj, since
// robj ^ rcounter ^ rcounter == robj
// robj is address dependent on rcounter.
__ ldr(robj, Address(robj, 0)); // *obj
__ lsr(roffset, c_rarg2, 2); // offset
assert(count < LIST_CAPACITY, "LIST_CAPACITY too small");
speculative_load_pclist[count] = __ pc(); // Used by the segfault handler
switch (type) {
case T_BOOLEAN: __ ldrb (result, Address(robj, roffset)); break;
case T_BYTE: __ ldrsb (result, Address(robj, roffset)); break;
case T_CHAR: __ ldrh (result, Address(robj, roffset)); break;
case T_SHORT: __ ldrsh (result, Address(robj, roffset)); break;
case T_FLOAT: __ ldrw (result, Address(robj, roffset)); break;
case T_INT: __ ldrsw (result, Address(robj, roffset)); break;
case T_DOUBLE:
case T_LONG: __ ldr (result, Address(robj, roffset)); break;
default: ShouldNotReachHere();
}
// counter_addr is address dependent on result.
__ eor(rcounter_addr, rcounter_addr, result);
__ eor(rcounter_addr, rcounter_addr, result);
__ ldrw(rscratch1, safepoint_counter_addr);
__ cmpw(rcounter, rscratch1);
__ br (Assembler::NE, slow);
switch (type) {
case T_FLOAT: __ fmovs(v0, result); break;
case T_DOUBLE: __ fmovd(v0, result); break;
default: __ mov(r0, result); break;
}
__ ret(lr);
slowcase_entry_pclist[count++] = __ pc();
__ bind(slow);
address slow_case_addr;
switch (type) {
case T_BOOLEAN: slow_case_addr = jni_GetBooleanField_addr(); break;
case T_BYTE: slow_case_addr = jni_GetByteField_addr(); break;
case T_CHAR: slow_case_addr = jni_GetCharField_addr(); break;
case T_SHORT: slow_case_addr = jni_GetShortField_addr(); break;
case T_INT: slow_case_addr = jni_GetIntField_addr(); break;
case T_LONG: slow_case_addr = jni_GetLongField_addr(); break;
case T_FLOAT: slow_case_addr = jni_GetFloatField_addr(); break;
case T_DOUBLE: slow_case_addr = jni_GetDoubleField_addr(); break;
default: ShouldNotReachHere();
}
{
__ enter();
__ lea(rscratch1, ExternalAddress(slow_case_addr));
__ blr(rscratch1);
__ maybe_isb();
__ leave();
__ ret(lr);
}
__ flush ();
return fast_entry;
}
void GPUDrawScanlineCodeGenerator::Init()
{
mov(eax, dword[esp + _top]);
// uint16* fb = (uint16*)m_global.vm + (top << (10 + sel.scalex)) + left;
mov(edi, eax);
shl(edi, 10 + m_sel.scalex);
add(edi, edx);
lea(edi, ptr[edi * 2 + (size_t)m_local.gd->vm]);
// int steps = pixels - 8;
sub(ecx, 8);
if(m_sel.dtd)
{
// dither = GSVector4i::load<false>(&m_dither[top & 3][left & 3]);
and(eax, 3);
shl(eax, 5);
and(edx, 3);
shl(edx, 1);
movdqu(xmm0, ptr[eax + edx + (size_t)m_dither]);
movdqa(ptr[&m_local.temp.dither], xmm0);
}
mov(edx, dword[esp + _v]);
if(m_sel.tme)
{
mov(esi, dword[&m_local.gd->tex]);
// GSVector4i vt = GSVector4i(v.t).xxzzl();
cvttps2dq(xmm4, ptr[edx + offsetof(GSVertexSW, t)]);
pshuflw(xmm4, xmm4, _MM_SHUFFLE(2, 2, 0, 0));
// s = vt.xxxx().add16(m_local.d.s);
// t = vt.yyyy().add16(m_local.d.t);
pshufd(xmm2, xmm4, _MM_SHUFFLE(0, 0, 0, 0));
pshufd(xmm3, xmm4, _MM_SHUFFLE(1, 1, 1, 1));
paddw(xmm2, ptr[&m_local.d.s]);
if(!m_sel.sprite)
{
paddw(xmm3, ptr[&m_local.d.t]);
}
else
{
if(m_sel.ltf)
{
movdqa(xmm0, xmm3);
psllw(xmm0, 8);
psrlw(xmm0, 1);
movdqa(ptr[&m_local.temp.vf], xmm0);
}
}
movdqa(ptr[&m_local.temp.s], xmm2);
movdqa(ptr[&m_local.temp.t], xmm3);
}
if(m_sel.tfx != 3) // != decal
{
// GSVector4i vc = GSVector4i(v.c).xxzzlh();
cvttps2dq(xmm6, ptr[edx + offsetof(GSVertexSW, c)]);
pshuflw(xmm6, xmm6, _MM_SHUFFLE(2, 2, 0, 0));
pshufhw(xmm6, xmm6, _MM_SHUFFLE(2, 2, 0, 0));
// r = vc.xxxx();
// g = vc.yyyy();
// b = vc.zzzz();
pshufd(xmm4, xmm6, _MM_SHUFFLE(0, 0, 0, 0));
pshufd(xmm5, xmm6, _MM_SHUFFLE(1, 1, 1, 1));
pshufd(xmm6, xmm6, _MM_SHUFFLE(2, 2, 2, 2));
if(m_sel.iip)
{
// r = r.add16(m_local.d.r);
// g = g.add16(m_local.d.g);
// b = b.add16(m_local.d.b);
paddw(xmm4, ptr[&m_local.d.r]);
paddw(xmm5, ptr[&m_local.d.g]);
paddw(xmm6, ptr[&m_local.d.b]);
}
movdqa(ptr[&m_local.temp.r], xmm4);
movdqa(ptr[&m_local.temp.g], xmm5);
movdqa(ptr[&m_local.temp.b], xmm6);
}
}
void CompactingPermGenGen::generate_vtable_methods(void** vtbl_list,
void** vtable,
char** md_top,
char* md_end,
char** mc_top,
char* mc_end) {
intptr_t vtable_bytes = (num_virtuals * vtbl_list_size) * sizeof(void*);
*(intptr_t *)(*md_top) = vtable_bytes;
*md_top += sizeof(intptr_t);
void** dummy_vtable = (void**)*md_top;
*vtable = dummy_vtable;
*md_top += vtable_bytes;
// Get ready to generate dummy methods.
CodeBuffer cb((unsigned char*)*mc_top, mc_end - *mc_top);
MacroAssembler* masm = new MacroAssembler(&cb);
Label common_code;
for (int i = 0; i < vtbl_list_size; ++i) {
for (int j = 0; j < num_virtuals; ++j) {
dummy_vtable[num_virtuals * i + j] = (void*)masm->pc();
// Load eax with a value indicating vtable/offset pair.
// -- bits[ 7..0] (8 bits) which virtual method in table?
// -- bits[12..8] (5 bits) which virtual method table?
// -- must fit in 13-bit instruction immediate field.
__ movl(rax, (i << 8) + j);
__ jmp(common_code);
}
}
__ bind(common_code);
// Expecting to be called with "thiscall" convections -- the arguments
// are on the stack and the "this" pointer is in c_rarg0. In addition, rax
// was set (above) to the offset of the method in the table.
__ push(c_rarg1); // save & free register
__ push(c_rarg0); // save "this"
__ mov(c_rarg0, rax);
__ shrptr(c_rarg0, 8); // isolate vtable identifier.
__ shlptr(c_rarg0, LogBytesPerWord);
__ lea(c_rarg1, ExternalAddress((address)vtbl_list)); // ptr to correct vtable list.
__ addptr(c_rarg1, c_rarg0); // ptr to list entry.
__ movptr(c_rarg1, Address(c_rarg1, 0)); // get correct vtable address.
__ pop(c_rarg0); // restore "this"
__ movptr(Address(c_rarg0, 0), c_rarg1); // update vtable pointer.
__ andptr(rax, 0x00ff); // isolate vtable method index
__ shlptr(rax, LogBytesPerWord);
__ addptr(rax, c_rarg1); // address of real method pointer.
__ pop(c_rarg1); // restore register.
__ movptr(rax, Address(rax, 0)); // get real method pointer.
__ jmp(rax); // jump to the real method.
__ flush();
*mc_top = (char*)__ pc();
}