JDK14/Java14源码在线阅读
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#ifndef CPU_X86_MACROASSEMBLER_X86_HPP
#define CPU_X86_MACROASSEMBLER_X86_HPP
#include "asm/assembler.hpp"
#include "utilities/macros.hpp"
#include "runtime/rtmLocking.hpp"
// MacroAssembler extends Assembler by frequently used macros.
//
// Instructions for which a 'better' code sequence exists depending
// on arguments should also go in here.
class MacroAssembler: public Assembler {
friend class LIR_Assembler;
friend class Runtime1; // as_Address()
public:
// Support for VM calls
//
// This is the base routine called by the different versions of call_VM_leaf. The interpreter
// may customize this version by overriding it for its purposes (e.g., to save/restore
// additional registers when doing a VM call).
virtual void call_VM_leaf_base(
address entry_point, // the entry point
int number_of_arguments // the number of arguments to pop after the call
);
protected:
// This is the base routine called by the different versions of call_VM. The interpreter
// may customize this version by overriding it for its purposes (e.g., to save/restore
// additional registers when doing a VM call).
//
// If no java_thread register is specified (noreg) than rdi will be used instead. call_VM_base
// returns the register which contains the thread upon return. If a thread register has been
// specified, the return value will correspond to that register. If no last_java_sp is specified
// (noreg) than rsp will be used instead.
virtual void call_VM_base( // returns the register containing the thread upon return
Register oop_result, // where an oop-result ends up if any; use noreg otherwise
Register java_thread, // the thread if computed before ; use noreg otherwise
Register last_java_sp, // to set up last_Java_frame in stubs; use noreg otherwise
address entry_point, // the entry point
int number_of_arguments, // the number of arguments (w/o thread) to pop after the call
bool check_exceptions // whether to check for pending exceptions after return
);
void call_VM_helper(Register oop_result, address entry_point, int number_of_arguments, bool check_exceptions = true);
// helpers for FPU flag access
// tmp is a temporary register, if none is available use noreg
void save_rax (Register tmp);
void restore_rax(Register tmp);
public:
MacroAssembler(CodeBuffer* code) : Assembler(code) {}
// These routines should emit JVMTI PopFrame and ForceEarlyReturn handling code.
// The implementation is only non-empty for the InterpreterMacroAssembler,
// as only the interpreter handles PopFrame and ForceEarlyReturn requests.
virtual void check_and_handle_popframe(Register java_thread);
virtual void check_and_handle_earlyret(Register java_thread);
Address as_Address(AddressLiteral adr);
Address as_Address(ArrayAddress adr);
// Support for NULL-checks
//
// Generates code that causes a NULL OS exception if the content of reg is NULL.
// If the accessed location is M[reg + offset] and the offset is known, provide the
// offset. No explicit code generation is needed if the offset is within a certain
// range (0 <= offset <= page_size).
void null_check(Register reg, int offset = -1);
static bool needs_explicit_null_check(intptr_t offset);
static bool uses_implicit_null_check(void* address);
// Required platform-specific helpers for Label::patch_instructions.
// They _shadow_ the declarations in AbstractAssembler, which are undefined.
void pd_patch_instruction(address branch, address target, const char* file, int line) {
unsigned char op = branch[0];
assert(op == 0xE8 /* call */ ||
op == 0xE9 /* jmp */ ||
op == 0xEB /* short jmp */ ||
(op & 0xF0) == 0x70 /* short jcc */ ||
op == 0x0F && (branch[1] & 0xF0) == 0x80 /* jcc */ ||
op == 0xC7 && branch[1] == 0xF8 /* xbegin */,
"Invalid opcode at patch point");
if (op == 0xEB || (op & 0xF0) == 0x70) {
// short offset operators (jmp and jcc)
char* disp = (char*) &branch[1];
int imm8 = target - (address) &disp[1];
guarantee(this->is8bit(imm8), "Short forward jump exceeds 8-bit offset at %s:%d",
file == NULL ? "<NULL>" : file, line);
*disp = imm8;
} else {
int* disp = (int*) &branch[(op == 0x0F || op == 0xC7)? 2: 1];
int imm32 = target - (address) &disp[1];
*disp = imm32;
}
}
// The following 4 methods return the offset of the appropriate move instruction
// Support for fast byte/short loading with zero extension (depending on particular CPU)
int load_unsigned_byte(Register dst, Address src);
int load_unsigned_short(Register dst, Address src);
// Support for fast byte/short loading with sign extension (depending on particular CPU)
int load_signed_byte(Register dst, Address src);
int load_signed_short(Register dst, Address src);
// Support for sign-extension (hi:lo = extend_sign(lo))
void extend_sign(Register hi, Register lo);
// Load and store values by size and signed-ness
void load_sized_value(Register dst, Address src, size_t size_in_bytes, bool is_signed, Register dst2 = noreg);
void store_sized_value(Address dst, Register src, size_t size_in_bytes, Register src2 = noreg);
// Support for inc/dec with optimal instruction selection depending on value
void increment(Register reg, int value = 1) { LP64_ONLY(incrementq(reg, value)) NOT_LP64(incrementl(reg, value)) ; }
void decrement(Register reg, int value = 1) { LP64_ONLY(decrementq(reg, value)) NOT_LP64(decrementl(reg, value)) ; }
void decrementl(Address dst, int value = 1);
void decrementl(Register reg, int value = 1);
void decrementq(Register reg, int value = 1);
void decrementq(Address dst, int value = 1);
void incrementl(Address dst, int value = 1);
void incrementl(Register reg, int value = 1);
void incrementq(Register reg, int value = 1);
void incrementq(Address dst, int value = 1);
#ifdef COMPILER2
// special instructions for EVEX
void setvectmask(Register dst, Register src);
void restorevectmask();
#endif
// Support optimal SSE move instructions.
void movflt(XMMRegister dst, XMMRegister src) {
if (dst-> encoding() == src->encoding()) return;
if (UseXmmRegToRegMoveAll) { movaps(dst, src); return; }
else { movss (dst, src); return; }
}
void movflt(XMMRegister dst, Address src) { movss(dst, src); }
void movflt(XMMRegister dst, AddressLiteral src);
void movflt(Address dst, XMMRegister src) { movss(dst, src); }
void movdbl(XMMRegister dst, XMMRegister src) {
if (dst-> encoding() == src->encoding()) return;
if (UseXmmRegToRegMoveAll) { movapd(dst, src); return; }
else { movsd (dst, src); return; }
}
void movdbl(XMMRegister dst, AddressLiteral src);
void movdbl(XMMRegister dst, Address src) {
if (UseXmmLoadAndClearUpper) { movsd (dst, src); return; }
else { movlpd(dst, src); return; }
}
void movdbl(Address dst, XMMRegister src) { movsd(dst, src); }
void incrementl(AddressLiteral dst);
void incrementl(ArrayAddress dst);
void incrementq(AddressLiteral dst);
// Alignment
void align(int modulus);
void align(int modulus, int target);
// A 5 byte nop that is safe for patching (see patch_verified_entry)
void fat_nop();
// Stack frame creation/removal
void enter();
void leave();
// Support for getting the JavaThread pointer (i.e.; a reference to thread-local information)
// The pointer will be loaded into the thread register.
void get_thread(Register thread);
// Support for VM calls
//
// It is imperative that all calls into the VM are handled via the call_VM macros.
// They make sure that the stack linkage is setup correctly. call_VM's correspond
// to ENTRY/ENTRY_X entry points while call_VM_leaf's correspond to LEAF entry points.
void call_VM(Register oop_result,
address entry_point,
bool check_exceptions = true);
void call_VM(Register oop_result,
address entry_point,
Register arg_1,
bool check_exceptions = true);
void call_VM(Register oop_result,
address entry_point,
Register arg_1, Register arg_2,
bool check_exceptions = true);
void call_VM(Register oop_result,
address entry_point,
Register arg_1, Register arg_2, Register arg_3,
bool check_exceptions = true);
// Overloadings with last_Java_sp
void call_VM(Register oop_result,
Register last_java_sp,
address entry_point,
int number_of_arguments = 0,
bool check_exceptions = true);
void call_VM(Register oop_result,
Register last_java_sp,
address entry_point,
Register arg_1, bool
check_exceptions = true);
void call_VM(Register oop_result,
Register last_java_sp,
address entry_point,
Register arg_1, Register arg_2,
bool check_exceptions = true);
void call_VM(Register oop_result,
Register last_java_sp,
address entry_point,
Register arg_1, Register arg_2, Register arg_3,
bool check_exceptions = true);
void get_vm_result (Register oop_result, Register thread);
void get_vm_result_2(Register metadata_result, Register thread);
// These always tightly bind to MacroAssembler::call_VM_base
// bypassing the virtual implementation
void super_call_VM(Register oop_result, Register last_java_sp, address entry_point, int number_of_arguments = 0, bool check_exceptions = true);
void super_call_VM(Register oop_result, Register last_java_sp, address entry_point, Register arg_1, bool check_exceptions = true);
void super_call_VM(Register oop_result, Register last_java_sp, address entry_point, Register arg_1, Register arg_2, bool check_exceptions = true);
void super_call_VM(Register oop_result, Register last_java_sp, address entry_point, Register arg_1, Register arg_2, Register arg_3, bool check_exceptions = true);
void super_call_VM(Register oop_result, Register last_java_sp, address entry_point, Register arg_1, Register arg_2, Register arg_3, Register arg_4, bool check_exceptions = true);
void call_VM_leaf0(address entry_point);
void call_VM_leaf(address entry_point,
int number_of_arguments = 0);
void call_VM_leaf(address entry_point,
Register arg_1);
void call_VM_leaf(address entry_point,
Register arg_1, Register arg_2);
void call_VM_leaf(address entry_point,
Register arg_1, Register arg_2, Register arg_3);
// These always tightly bind to MacroAssembler::call_VM_leaf_base
// bypassing the virtual implementation
void super_call_VM_leaf(address entry_point);
void super_call_VM_leaf(address entry_point, Register arg_1);
void super_call_VM_leaf(address entry_point, Register arg_1, Register arg_2);
void super_call_VM_leaf(address entry_point, Register arg_1, Register arg_2, Register arg_3);
void super_call_VM_leaf(address entry_point, Register arg_1, Register arg_2, Register arg_3, Register arg_4);
// last Java Frame (fills frame anchor)
void set_last_Java_frame(Register thread,
Register last_java_sp,
Register last_java_fp,
address last_java_pc);
// thread in the default location (r15_thread on 64bit)
void set_last_Java_frame(Register last_java_sp,
Register last_java_fp,
address last_java_pc);
void reset_last_Java_frame(Register thread, bool clear_fp);
// thread in the default location (r15_thread on 64bit)
void reset_last_Java_frame(bool clear_fp);
// jobjects
void clear_jweak_tag(Register possibly_jweak);
void resolve_jobject(Register value, Register thread, Register tmp);
// C 'boolean' to Java boolean: x == 0 ? 0 : 1
void c2bool(Register x);
// C++ bool manipulation
void movbool(Register dst, Address src);
void movbool(Address dst, bool boolconst);
void movbool(Address dst, Register src);
void testbool(Register dst);
void resolve_oop_handle(Register result, Register tmp = rscratch2);
void resolve_weak_handle(Register result, Register tmp);
void load_mirror(Register mirror, Register method, Register tmp = rscratch2);
void load_method_holder_cld(Register rresult, Register rmethod);
void load_method_holder(Register holder, Register method);
// oop manipulations
void load_klass(Register dst, Register src);
void store_klass(Register dst, Register src);
void access_load_at(BasicType type, DecoratorSet decorators, Register dst, Address src,
Register tmp1, Register thread_tmp);
void access_store_at(BasicType type, DecoratorSet decorators, Address dst, Register src,
Register tmp1, Register tmp2);
// Resolves obj access. Result is placed in the same register.
// All other registers are preserved.
void resolve(DecoratorSet decorators, Register obj);
void load_heap_oop(Register dst, Address src, Register tmp1 = noreg,
Register thread_tmp = noreg, DecoratorSet decorators = 0);
void load_heap_oop_not_null(Register dst, Address src, Register tmp1 = noreg,
Register thread_tmp = noreg, DecoratorSet decorators = 0);
void store_heap_oop(Address dst, Register src, Register tmp1 = noreg,
Register tmp2 = noreg, DecoratorSet decorators = 0);
// Used for storing NULL. All other oop constants should be
// stored using routines that take a jobject.
void store_heap_oop_null(Address dst);
void load_prototype_header(Register dst, Register src);
#ifdef _LP64
void store_klass_gap(Register dst, Register src);
// This dummy is to prevent a call to store_heap_oop from
// converting a zero (like NULL) into a Register by giving
// the compiler two choices it can't resolve
void store_heap_oop(Address dst, void* dummy);
void encode_heap_oop(Register r);
void decode_heap_oop(Register r);
void encode_heap_oop_not_null(Register r);
void decode_heap_oop_not_null(Register r);
void encode_heap_oop_not_null(Register dst, Register src);
void decode_heap_oop_not_null(Register dst, Register src);
void set_narrow_oop(Register dst, jobject obj);
void set_narrow_oop(Address dst, jobject obj);
void cmp_narrow_oop(Register dst, jobject obj);
void cmp_narrow_oop(Address dst, jobject obj);
void encode_klass_not_null(Register r);
void decode_klass_not_null(Register r);
void encode_klass_not_null(Register dst, Register src);
void decode_klass_not_null(Register dst, Register src);
void set_narrow_klass(Register dst, Klass* k);
void set_narrow_klass(Address dst, Klass* k);
void cmp_narrow_klass(Register dst, Klass* k);
void cmp_narrow_klass(Address dst, Klass* k);
// Returns the byte size of the instructions generated by decode_klass_not_null()
// when compressed klass pointers are being used.
static int instr_size_for_decode_klass_not_null();
// if heap base register is used - reinit it with the correct value
void reinit_heapbase();
DEBUG_ONLY(void verify_heapbase(const char* msg);)
#endif // _LP64
// Int division/remainder for Java
// (as idivl, but checks for special case as described in JVM spec.)
// returns idivl instruction offset for implicit exception handling
int corrected_idivl(Register reg);
// Long division/remainder for Java
// (as idivq, but checks for special case as described in JVM spec.)
// returns idivq instruction offset for implicit exception handling
int corrected_idivq(Register reg);
void int3();
// Long operation macros for a 32bit cpu
// Long negation for Java
void lneg(Register hi, Register lo);
// Long multiplication for Java
// (destroys contents of eax, ebx, ecx and edx)
void lmul(int x_rsp_offset, int y_rsp_offset); // rdx:rax = x * y
// Long shifts for Java
// (semantics as described in JVM spec.)
void lshl(Register hi, Register lo); // hi:lo << (rcx & 0x3f)
void lshr(Register hi, Register lo, bool sign_extension = false); // hi:lo >> (rcx & 0x3f)
// Long compare for Java
// (semantics as described in JVM spec.)
void lcmp2int(Register x_hi, Register x_lo, Register y_hi, Register y_lo); // x_hi = lcmp(x, y)
// misc
// Sign extension
void sign_extend_short(Register reg);
void sign_extend_byte(Register reg);
// Division by power of 2, rounding towards 0
void division_with_shift(Register reg, int shift_value);
// Compares the top-most stack entries on the FPU stack and sets the eflags as follows:
//
// CF (corresponds to C0) if x < y
// PF (corresponds to C2) if unordered
// ZF (corresponds to C3) if x = y
//
// The arguments are in reversed order on the stack (i.e., top of stack is first argument).
// tmp is a temporary register, if none is available use noreg (only matters for non-P6 code)
void fcmp(Register tmp);
// Variant of the above which allows y to be further down the stack
// and which only pops x and y if specified. If pop_right is
// specified then pop_left must also be specified.
void fcmp(Register tmp, int index, bool pop_left, bool pop_right);
// Floating-point comparison for Java
// Compares the top-most stack entries on the FPU stack and stores the result in dst.
// The arguments are in reversed order on the stack (i.e., top of stack is first argument).
// (semantics as described in JVM spec.)
void fcmp2int(Register dst, bool unordered_is_less);
// Variant of the above which allows y to be further down the stack
// and which only pops x and y if specified. If pop_right is
// specified then pop_left must also be specified.
void fcmp2int(Register dst, bool unordered_is_less, int index, bool pop_left, bool pop_right);
// Floating-point remainder for Java (ST0 = ST0 fremr ST1, ST1 is empty afterwards)
// tmp is a temporary register, if none is available use noreg
void fremr(Register tmp);
// dst = c = a * b + c
void fmad(XMMRegister dst, XMMRegister a, XMMRegister b, XMMRegister c);
void fmaf(XMMRegister dst, XMMRegister a, XMMRegister b, XMMRegister c);
void vfmad(XMMRegister dst, XMMRegister a, XMMRegister b, XMMRegister c, int vector_len);
void vfmaf(XMMRegister dst, XMMRegister a, XMMRegister b, XMMRegister c, int vector_len);
void vfmad(XMMRegister dst, XMMRegister a, Address b, XMMRegister c, int vector_len);
void vfmaf(XMMRegister dst, XMMRegister a, Address b, XMMRegister c, int vector_len);
// same as fcmp2int, but using SSE2
void cmpss2int(XMMRegister opr1, XMMRegister opr2, Register dst, bool unordered_is_less);
void cmpsd2int(XMMRegister opr1, XMMRegister opr2, Register dst, bool unordered_is_less);
// branch to L if FPU flag C2 is set/not set
// tmp is a temporary register, if none is available use noreg
void jC2 (Register tmp, Label& L);
void jnC2(Register tmp, Label& L);
// Pop ST (ffree & fincstp combined)
void fpop();
// Load float value from 'address'. If UseSSE >= 1, the value is loaded into
// register xmm0. Otherwise, the value is loaded onto the FPU stack.
void load_float(Address src);
// Store float value to 'address'. If UseSSE >= 1, the value is stored
// from register xmm0. Otherwise, the value is stored from the FPU stack.
void store_float(Address dst);
// Load double value from 'address'. If UseSSE >= 2, the value is loaded into
// register xmm0. Otherwise, the value is loaded onto the FPU stack.
void load_double(Address src);
// Store double value to 'address'. If UseSSE >= 2, the value is stored
// from register xmm0. Otherwise, the value is stored from the FPU stack.
void store_double(Address dst);
// pushes double TOS element of FPU stack on CPU stack; pops from FPU stack
void push_fTOS();
// pops double TOS element from CPU stack and pushes on FPU stack
void pop_fTOS();
void empty_FPU_stack();
void push_IU_state();
void pop_IU_state();
void push_FPU_state();
void pop_FPU_state();
void push_CPU_state();
void pop_CPU_state();
// Round up to a power of two
void round_to(Register reg, int modulus);
// Callee saved registers handling
void push_callee_saved_registers();
void pop_callee_saved_registers();
// allocation
void eden_allocate(
Register thread, // Current thread
Register obj, // result: pointer to object after successful allocation
Register var_size_in_bytes, // object size in bytes if unknown at compile time; invalid otherwise
int con_size_in_bytes, // object size in bytes if known at compile time
Register t1, // temp register
Label& slow_case // continuation point if fast allocation fails
);
void tlab_allocate(
Register thread, // Current thread
Register obj, // result: pointer to object after successful allocation
Register var_size_in_bytes, // object size in bytes if unknown at compile time; invalid otherwise
int con_size_in_bytes, // object size in bytes if known at compile time
Register t1, // temp register
Register t2, // temp register
Label& slow_case // continuation point if fast allocation fails
);
void zero_memory(Register address, Register length_in_bytes, int offset_in_bytes, Register temp);
// interface method calling
void lookup_interface_method(Register recv_klass,
Register intf_klass,
RegisterOrConstant itable_index,
Register method_result,
Register scan_temp,
Label& no_such_interface,
bool return_method = true);
// virtual method calling
void lookup_virtual_method(Register recv_klass,
RegisterOrConstant vtable_index,
Register method_result);
// Test sub_klass against super_klass, with fast and slow paths.
// The fast path produces a tri-state answer: yes / no / maybe-slow.
// One of the three labels can be NULL, meaning take the fall-through.
// If super_check_offset is -1, the value is loaded up from super_klass.
// No registers are killed, except temp_reg.
void check_klass_subtype_fast_path(Register sub_klass,
Register super_klass,
Register temp_reg,
Label* L_success,
Label* L_failure,
Label* L_slow_path,
RegisterOrConstant super_check_offset = RegisterOrConstant(-1));
// The rest of the type check; must be wired to a corresponding fast path.
// It does not repeat the fast path logic, so don't use it standalone.
// The temp_reg and temp2_reg can be noreg, if no temps are available.
// Updates the sub's secondary super cache as necessary.
// If set_cond_codes, condition codes will be Z on success, NZ on failure.
void check_klass_subtype_slow_path(Register sub_klass,
Register super_klass,
Register temp_reg,
Register temp2_reg,
Label* L_success,
Label* L_failure,
bool set_cond_codes = false);
// Simplified, combined version, good for typical uses.
// Falls through on failure.
void check_klass_subtype(Register sub_klass,
Register super_klass,
Register temp_reg,
Label& L_success);
void clinit_barrier(Register klass,
Register thread,
Label* L_fast_path = NULL,
Label* L_slow_path = NULL);
// method handles (JSR 292)
Address argument_address(RegisterOrConstant arg_slot, int extra_slot_offset = 0);
//----
void set_word_if_not_zero(Register reg); // sets reg to 1 if not zero, otherwise 0
// Debugging
// only if +VerifyOops
// TODO: Make these macros with file and line like sparc version!
void verify_oop(Register reg, const char* s = "broken oop");
void verify_oop_addr(Address addr, const char * s = "broken oop addr");
// TODO: verify method and klass metadata (compare against vptr?)
void _verify_method_ptr(Register reg, const char * msg, const char * file, int line) {}
void _verify_klass_ptr(Register reg, const char * msg, const char * file, int line){}
#define verify_method_ptr(reg) _verify_method_ptr(reg, "broken method " #reg, __FILE__, __LINE__)
#define verify_klass_ptr(reg) _verify_klass_ptr(reg, "broken klass " #reg, __FILE__, __LINE__)
// only if +VerifyFPU
void verify_FPU(int stack_depth, const char* s = "illegal FPU state");
// Verify or restore cpu control state after JNI call
void restore_cpu_control_state_after_jni();
// prints msg, dumps registers and stops execution
void stop(const char* msg);
// prints msg and continues
void warn(const char* msg);
// dumps registers and other state
void print_state();
static void debug32(int rdi, int rsi, int rbp, int rsp, int rbx, int rdx, int rcx, int rax, int eip, char* msg);
static void debug64(char* msg, int64_t pc, int64_t regs[]);
static void print_state32(int rdi, int rsi, int rbp, int rsp, int rbx, int rdx, int rcx, int rax, int eip);
static void print_state64(int64_t pc, int64_t regs[]);
void os_breakpoint();
void untested() { stop("untested"); }
void unimplemented(const char* what = "");
void should_not_reach_here() { stop("should not reach here"); }
void print_CPU_state();
// Stack overflow checking
void bang_stack_with_offset(int offset) {
// stack grows down, caller passes positive offset
assert(offset > 0, "must bang with negative offset");
movl(Address(rsp, (-offset)), rax);
}
// Writes to stack successive pages until offset reached to check for
// stack overflow + shadow pages. Also, clobbers tmp
void bang_stack_size(Register size, Register tmp);
// Check for reserved stack access in method being exited (for JIT)
void reserved_stack_check();
virtual RegisterOrConstant delayed_value_impl(intptr_t* delayed_value_addr,
Register tmp,
int offset);
// If thread_reg is != noreg the code assumes the register passed contains
// the thread (required on 64 bit).
void safepoint_poll(Label& slow_path, Register thread_reg, Register temp_reg);
void verify_tlab();
// Biased locking support
// lock_reg and obj_reg must be loaded up with the appropriate values.
// swap_reg must be rax, and is killed.
// tmp_reg is optional. If it is supplied (i.e., != noreg) it will
// be killed; if not supplied, push/pop will be used internally to
// allocate a temporary (inefficient, avoid if possible).
// Optional slow case is for implementations (interpreter and C1) which branch to
// slow case directly. Leaves condition codes set for C2's Fast_Lock node.
// Returns offset of first potentially-faulting instruction for null
// check info (currently consumed only by C1). If
// swap_reg_contains_mark is true then returns -1 as it is assumed
// the calling code has already passed any potential faults.
int biased_locking_enter(Register lock_reg, Register obj_reg,
Register swap_reg, Register tmp_reg,
bool swap_reg_contains_mark,
Label& done, Label* slow_case = NULL,
BiasedLockingCounters* counters = NULL);
void biased_locking_exit (Register obj_reg, Register temp_reg, Label& done);
#ifdef COMPILER2
// Code used by cmpFastLock and cmpFastUnlock mach instructions in .ad file.
// See full desription in macroAssembler_x86.cpp.
void fast_lock(Register obj, Register box, Register tmp,
Register scr, Register cx1, Register cx2,
BiasedLockingCounters* counters,
RTMLockingCounters* rtm_counters,
RTMLockingCounters* stack_rtm_counters,
Metadata* method_data,
bool use_rtm, bool profile_rtm);
void fast_unlock(Register obj, Register box, Register tmp, bool use_rtm);
#if INCLUDE_RTM_OPT
void rtm_counters_update(Register abort_status, Register rtm_counters);
void branch_on_random_using_rdtsc(Register tmp, Register scr, int count, Label& brLabel);
void rtm_abort_ratio_calculation(Register tmp, Register rtm_counters_reg,
RTMLockingCounters* rtm_counters,
Metadata* method_data);
void rtm_profiling(Register abort_status_Reg, Register rtm_counters_Reg,
RTMLockingCounters* rtm_counters, Metadata* method_data, bool profile_rtm);
void rtm_retry_lock_on_abort(Register retry_count, Register abort_status, Label& retryLabel);
void rtm_retry_lock_on_busy(Register retry_count, Register box, Register tmp, Register scr, Label& retryLabel);
void rtm_stack_locking(Register obj, Register tmp, Register scr,
Register retry_on_abort_count,
RTMLockingCounters* stack_rtm_counters,
Metadata* method_data, bool profile_rtm,
Label& DONE_LABEL, Label& IsInflated);
void rtm_inflated_locking(Register obj, Register box, Register tmp,
Register scr, Register retry_on_busy_count,
Register retry_on_abort_count,
RTMLockingCounters* rtm_counters,
Metadata* method_data, bool profile_rtm,
Label& DONE_LABEL);
#endif
#endif
Condition negate_condition(Condition cond);
// Instructions that use AddressLiteral operands. These instruction can handle 32bit/64bit
// operands. In general the names are modified to avoid hiding the instruction in Assembler
// so that we don't need to implement all the varieties in the Assembler with trivial wrappers
// here in MacroAssembler. The major exception to this rule is call
// Arithmetics
void addptr(Address dst, int32_t src) { LP64_ONLY(addq(dst, src)) NOT_LP64(addl(dst, src)) ; }
void addptr(Address dst, Register src);
void addptr(Register dst, Address src) { LP64_ONLY(addq(dst, src)) NOT_LP64(addl(dst, src)); }
void addptr(Register dst, int32_t src);
void addptr(Register dst, Register src);
void addptr(Register dst, RegisterOrConstant src) {
if (src.is_constant()) addptr(dst, (int) src.as_constant());
else addptr(dst, src.as_register());
}
void andptr(Register dst, int32_t src);
void andptr(Register src1, Register src2) { LP64_ONLY(andq(src1, src2)) NOT_LP64(andl(src1, src2)) ; }
void cmp8(AddressLiteral src1, int imm);
// renamed to drag out the casting of address to int32_t/intptr_t
void cmp32(Register src1, int32_t imm);
void cmp32(AddressLiteral src1, int32_t imm);
// compare reg - mem, or reg - &mem
void cmp32(Register src1, AddressLiteral src2);
void cmp32(Register src1, Address src2);
#ifndef _LP64
void cmpklass(Address dst, Metadata* obj);
void cmpklass(Register dst, Metadata* obj);
void cmpoop(Address dst, jobject obj);
void cmpoop_raw(Address dst, jobject obj);
#endif // _LP64
void cmpoop(Register src1, Register src2);
void cmpoop(Register src1, Address src2);
void cmpoop(Register dst, jobject obj);
void cmpoop_raw(Register dst, jobject obj);
// NOTE src2 must be the lval. This is NOT an mem-mem compare
void cmpptr(Address src1, AddressLiteral src2);
void cmpptr(Register src1, AddressLiteral src2);
void cmpptr(Register src1, Register src2) { LP64_ONLY(cmpq(src1, src2)) NOT_LP64(cmpl(src1, src2)) ; }
void cmpptr(Register src1, Address src2) { LP64_ONLY(cmpq(src1, src2)) NOT_LP64(cmpl(src1, src2)) ; }
// void cmpptr(Address src1, Register src2) { LP64_ONLY(cmpq(src1, src2)) NOT_LP64(cmpl(src1, src2)) ; }
void cmpptr(Register src1, int32_t src2) { LP64_ONLY(cmpq(src1, src2)) NOT_LP64(cmpl(src1, src2)) ; }
void cmpptr(Address src1, int32_t src2) { LP64_ONLY(cmpq(src1, src2)) NOT_LP64(cmpl(src1, src2)) ; }
// cmp64 to avoild hiding cmpq
void cmp64(Register src1, AddressLiteral src);
void cmpxchgptr(Register reg, Address adr);
void locked_cmpxchgptr(Register reg, AddressLiteral adr);
void imulptr(Register dst, Register src) { LP64_ONLY(imulq(dst, src)) NOT_LP64(imull(dst, src)); }
void imulptr(Register dst, Register src, int imm32) { LP64_ONLY(imulq(dst, src, imm32)) NOT_LP64(imull(dst, src, imm32)); }
void negptr(Register dst) { LP64_ONLY(negq(dst)) NOT_LP64(negl(dst)); }
void notptr(Register dst) { LP64_ONLY(notq(dst)) NOT_LP64(notl(dst)); }
void shlptr(Register dst, int32_t shift);
void shlptr(Register dst) { LP64_ONLY(shlq(dst)) NOT_LP64(shll(dst)); }
void shrptr(Register dst, int32_t shift);
void shrptr(Register dst) { LP64_ONLY(shrq(dst)) NOT_LP64(shrl(dst)); }
void sarptr(Register dst) { LP64_ONLY(sarq(dst)) NOT_LP64(sarl(dst)); }
void sarptr(Register dst, int32_t src) { LP64_ONLY(sarq(dst, src)) NOT_LP64(sarl(dst, src)); }
void subptr(Address dst, int32_t src) { LP64_ONLY(subq(dst, src)) NOT_LP64(subl(dst, src)); }
void subptr(Register dst, Address src) { LP64_ONLY(subq(dst, src)) NOT_LP64(subl(dst, src)); }
void subptr(Register dst, int32_t src);
// Force generation of a 4 byte immediate value even if it fits into 8bit
void subptr_imm32(Register dst, int32_t src);
void subptr(Register dst, Register src);
void subptr(Register dst, RegisterOrConstant src) {
if (src.is_constant()) subptr(dst, (int) src.as_constant());
else subptr(dst, src.as_register());
}
void sbbptr(Address dst, int32_t src) { LP64_ONLY(sbbq(dst, src)) NOT_LP64(sbbl(dst, src)); }
void sbbptr(Register dst, int32_t src) { LP64_ONLY(sbbq(dst, src)) NOT_LP64(sbbl(dst, src)); }
void xchgptr(Register src1, Register src2) { LP64_ONLY(xchgq(src1, src2)) NOT_LP64(xchgl(src1, src2)) ; }
void xchgptr(Register src1, Address src2) { LP64_ONLY(xchgq(src1, src2)) NOT_LP64(xchgl(src1, src2)) ; }
void xaddptr(Address src1, Register src2) { LP64_ONLY(xaddq(src1, src2)) NOT_LP64(xaddl(src1, src2)) ; }
// Helper functions for statistics gathering.
// Conditionally (atomically, on MPs) increments passed counter address, preserving condition codes.
void cond_inc32(Condition cond, AddressLiteral counter_addr);
// Unconditional atomic increment.
void atomic_incl(Address counter_addr);
void atomic_incl(AddressLiteral counter_addr, Register scr = rscratch1);
#ifdef _LP64
void atomic_incq(Address counter_addr);
void atomic_incq(AddressLiteral counter_addr, Register scr = rscratch1);
#endif
void atomic_incptr(AddressLiteral counter_addr, Register scr = rscratch1) { LP64_ONLY(atomic_incq(counter_addr, scr)) NOT_LP64(atomic_incl(counter_addr, scr)) ; }
void atomic_incptr(Address counter_addr) { LP64_ONLY(atomic_incq(counter_addr)) NOT_LP64(atomic_incl(counter_addr)) ; }
void lea(Register dst, AddressLiteral adr);
void lea(Address dst, AddressLiteral adr);
void lea(Register dst, Address adr) { Assembler::lea(dst, adr); }
void leal32(Register dst, Address src) { leal(dst, src); }
// Import other testl() methods from the parent class or else
// they will be hidden by the following overriding declaration.
using Assembler::testl;
void testl(Register dst, AddressLiteral src);
void orptr(Register dst, Address src) { LP64_ONLY(orq(dst, src)) NOT_LP64(orl(dst, src)); }
void orptr(Register dst, Register src) { LP64_ONLY(orq(dst, src)) NOT_LP64(orl(dst, src)); }
void orptr(Register dst, int32_t src) { LP64_ONLY(orq(dst, src)) NOT_LP64(orl(dst, src)); }
void orptr(Address dst, int32_t imm32) { LP64_ONLY(orq(dst, imm32)) NOT_LP64(orl(dst, imm32)); }
void testptr(Register src, int32_t imm32) { LP64_ONLY(testq(src, imm32)) NOT_LP64(testl(src, imm32)); }
void testptr(Register src1, Address src2) { LP64_ONLY(testq(src1, src2)) NOT_LP64(testl(src1, src2)); }
void testptr(Register src1, Register src2);
void xorptr(Register dst, Register src) { LP64_ONLY(xorq(dst, src)) NOT_LP64(xorl(dst, src)); }
void xorptr(Register dst, Address src) { LP64_ONLY(xorq(dst, src)) NOT_LP64(xorl(dst, src)); }
// Calls
void call(Label& L, relocInfo::relocType rtype);
void call(Register entry);
// NOTE: this call transfers to the effective address of entry NOT
// the address contained by entry. This is because this is more natural
// for jumps/calls.
void call(AddressLiteral entry);
// Emit the CompiledIC call idiom
void ic_call(address entry, jint method_index = 0);
// Jumps
// NOTE: these jumps tranfer to the effective address of dst NOT
// the address contained by dst. This is because this is more natural
// for jumps/calls.
void jump(AddressLiteral dst);
void jump_cc(Condition cc, AddressLiteral dst);
// 32bit can do a case table jump in one instruction but we no longer allow the base
// to be installed in the Address class. This jump will tranfers to the address
// contained in the location described by entry (not the address of entry)
void jump(ArrayAddress entry);
// Floating
void andpd(XMMRegister dst, Address src) { Assembler::andpd(dst, src); }
void andpd(XMMRegister dst, AddressLiteral src, Register scratch_reg = rscratch1);
void andpd(XMMRegister dst, XMMRegister src) { Assembler::andpd(dst, src); }
void andps(XMMRegister dst, XMMRegister src) { Assembler::andps(dst, src); }
void andps(XMMRegister dst, Address src) { Assembler::andps(dst, src); }
void andps(XMMRegister dst, AddressLiteral src, Register scratch_reg = rscratch1);
void comiss(XMMRegister dst, XMMRegister src) { Assembler::comiss(dst, src); }
void comiss(XMMRegister dst, Address src) { Assembler::comiss(dst, src); }
void comiss(XMMRegister dst, AddressLiteral src);
void comisd(XMMRegister dst, XMMRegister src) { Assembler::comisd(dst, src); }
void comisd(XMMRegister dst, Address src) { Assembler::comisd(dst, src); }
void comisd(XMMRegister dst, AddressLiteral src);
void fadd_s(Address src) { Assembler::fadd_s(src); }
void fadd_s(AddressLiteral src) { Assembler::fadd_s(as_Address(src)); }
void fldcw(Address src) { Assembler::fldcw(src); }
void fldcw(AddressLiteral src);
void fld_s(int index) { Assembler::fld_s(index); }
void fld_s(Address src) { Assembler::fld_s(src); }
void fld_s(AddressLiteral src);
void fld_d(Address src) { Assembler::fld_d(src); }
void fld_d(AddressLiteral src);
void fld_x(Address src) { Assembler::fld_x(src); }
void fld_x(AddressLiteral src);
void fmul_s(Address src) { Assembler::fmul_s(src); }
void fmul_s(AddressLiteral src) { Assembler::fmul_s(as_Address(src)); }
void ldmxcsr(Address src) { Assembler::ldmxcsr(src); }
void ldmxcsr(AddressLiteral src);
#ifdef _LP64
private:
void sha256_AVX2_one_round_compute(
Register reg_old_h,
Register reg_a,
Register reg_b,
Register reg_c,
Register reg_d,
Register reg_e,
Register reg_f,
Register reg_g,
Register reg_h,
int iter);
void sha256_AVX2_four_rounds_compute_first(int start);
void sha256_AVX2_four_rounds_compute_last(int start);
void sha256_AVX2_one_round_and_sched(
XMMRegister xmm_0, /* == ymm4 on 0, 1, 2, 3 iterations, then rotate 4 registers left on 4, 8, 12 iterations */
XMMRegister xmm_1, /* ymm5 */ /* full cycle is 16 iterations */
XMMRegister xmm_2, /* ymm6 */
XMMRegister xmm_3, /* ymm7 */
Register reg_a, /* == eax on 0 iteration, then rotate 8 register right on each next iteration */
Register reg_b, /* ebx */ /* full cycle is 8 iterations */
Register reg_c, /* edi */
Register reg_d, /* esi */
Register reg_e, /* r8d */
Register reg_f, /* r9d */
Register reg_g, /* r10d */
Register reg_h, /* r11d */
int iter);
void addm(int disp, Register r1, Register r2);
void gfmul(XMMRegister tmp0, XMMRegister t);
void schoolbookAAD(int i, Register subkeyH, XMMRegister data, XMMRegister tmp0,
XMMRegister tmp1, XMMRegister tmp2, XMMRegister tmp3);
void generateHtbl_one_block(Register htbl);
void generateHtbl_eight_blocks(Register htbl);
public:
void sha256_AVX2(XMMRegister msg, XMMRegister state0, XMMRegister state1, XMMRegister msgtmp0,
XMMRegister msgtmp1, XMMRegister msgtmp2, XMMRegister msgtmp3, XMMRegister msgtmp4,
Register buf, Register state, Register ofs, Register limit, Register rsp,
bool multi_block, XMMRegister shuf_mask);
void avx_ghash(Register state, Register htbl, Register data, Register blocks);
#endif
#ifdef _LP64
private:
void sha512_AVX2_one_round_compute(Register old_h, Register a, Register b, Register c, Register d,
Register e, Register f, Register g, Register h, int iteration);
void sha512_AVX2_one_round_and_schedule(XMMRegister xmm4, XMMRegister xmm5, XMMRegister xmm6, XMMRegister xmm7,
Register a, Register b, Register c, Register d, Register e, Register f,
Register g, Register h, int iteration);
void addmq(int disp, Register r1, Register r2);
public:
void sha512_AVX2(XMMRegister msg, XMMRegister state0, XMMRegister state1, XMMRegister msgtmp0,
XMMRegister msgtmp1, XMMRegister msgtmp2, XMMRegister msgtmp3, XMMRegister msgtmp4,
Register buf, Register state, Register ofs, Register limit, Register rsp, bool multi_block,
XMMRegister shuf_mask);
private:
void roundEnc(XMMRegister key, int rnum);
void lastroundEnc(XMMRegister key, int rnum);
void roundDec(XMMRegister key, int rnum);
void lastroundDec(XMMRegister key, int rnum);
void ev_load_key(XMMRegister xmmdst, Register key, int offset, XMMRegister xmm_shuf_mask);
public:
void aesecb_encrypt(Register source_addr, Register dest_addr, Register key, Register len);
void aesecb_decrypt(Register source_addr, Register dest_addr, Register key, Register len);
void aesctr_encrypt(Register src_addr, Register dest_addr, Register key, Register counter,
Register len_reg, Register used, Register used_addr, Register saved_encCounter_start);
#endif
void fast_sha1(XMMRegister abcd, XMMRegister e0, XMMRegister e1, XMMRegister msg0,
XMMRegister msg1, XMMRegister msg2, XMMRegister msg3, XMMRegister shuf_mask,
Register buf, Register state, Register ofs, Register limit, Register rsp,
bool multi_block);
#ifdef _LP64
void fast_sha256(XMMRegister msg, XMMRegister state0, XMMRegister state1, XMMRegister msgtmp0,
XMMRegister msgtmp1, XMMRegister msgtmp2, XMMRegister msgtmp3, XMMRegister msgtmp4,
Register buf, Register state, Register ofs, Register limit, Register rsp,
bool multi_block, XMMRegister shuf_mask);
#else
void fast_sha256(XMMRegister msg, XMMRegister state0, XMMRegister state1, XMMRegister msgtmp0,
XMMRegister msgtmp1, XMMRegister msgtmp2, XMMRegister msgtmp3, XMMRegister msgtmp4,
Register buf, Register state, Register ofs, Register limit, Register rsp,
bool multi_block);
#endif
void fast_exp(XMMRegister xmm0, XMMRegister xmm1, XMMRegister xmm2, XMMRegister xmm3,
XMMRegister xmm4, XMMRegister xmm5, XMMRegister xmm6, XMMRegister xmm7,
Register rax, Register rcx, Register rdx, Register tmp);
#ifdef _LP64
void fast_log(XMMRegister xmm0, XMMRegister xmm1, XMMRegister xmm2, XMMRegister xmm3,
XMMRegister xmm4, XMMRegister xmm5, XMMRegister xmm6, XMMRegister xmm7,
Register rax, Register rcx, Register rdx, Register tmp1, Register tmp2);
void fast_log10(XMMRegister xmm0, XMMRegister xmm1, XMMRegister xmm2, XMMRegister xmm3,
XMMRegister xmm4, XMMRegister xmm5, XMMRegister xmm6, XMMRegister xmm7,
Register rax, Register rcx, Register rdx, Register r11);
void fast_pow(XMMRegister xmm0, XMMRegister xmm1, XMMRegister xmm2, XMMRegister xmm3, XMMRegister xmm4,
XMMRegister xmm5, XMMRegister xmm6, XMMRegister xmm7, Register rax, Register rcx,
Register rdx, Register tmp1, Register tmp2, Register tmp3, Register tmp4);
void fast_sin(XMMRegister xmm0, XMMRegister xmm1, XMMRegister xmm2, XMMRegister xmm3,
XMMRegister xmm4, XMMRegister xmm5, XMMRegister xmm6, XMMRegister xmm7,
Register rax, Register rbx, Register rcx, Register rdx, Register tmp1, Register tmp2,
Register tmp3, Register tmp4);
void fast_cos(XMMRegister xmm0, XMMRegister xmm1, XMMRegister xmm2, XMMRegister xmm3,
XMMRegister xmm4, XMMRegister xmm5, XMMRegister xmm6, XMMRegister xmm7,
Register rax, Register rcx, Register rdx, Register tmp1,
Register tmp2, Register tmp3, Register tmp4);
void fast_tan(XMMRegister xmm0, XMMRegister xmm1, XMMRegister xmm2, XMMRegister xmm3,
XMMRegister xmm4, XMMRegister xmm5, XMMRegister xmm6, XMMRegister xmm7,
Register rax, Register rcx, Register rdx, Register tmp1,
Register tmp2, Register tmp3, Register tmp4);
#else
void fast_log(XMMRegister xmm0, XMMRegister xmm1, XMMRegister xmm2, XMMRegister xmm3,
XMMRegister xmm4, XMMRegister xmm5, XMMRegister xmm6, XMMRegister xmm7,
Register rax, Register rcx, Register rdx, Register tmp1);
void fast_log10(XMMRegister xmm0, XMMRegister xmm1, XMMRegister xmm2, XMMRegister xmm3,
XMMRegister xmm4, XMMRegister xmm5, XMMRegister xmm6, XMMRegister xmm7,
Register rax, Register rcx, Register rdx, Register tmp);
void fast_pow(XMMRegister xmm0, XMMRegister xmm1, XMMRegister xmm2, XMMRegister xmm3, XMMRegister xmm4,
XMMRegister xmm5, XMMRegister xmm6, XMMRegister xmm7, Register rax, Register rcx,
Register rdx, Register tmp);
void fast_sin(XMMRegister xmm0, XMMRegister xmm1, XMMRegister xmm2, XMMRegister xmm3,
XMMRegister xmm4, XMMRegister xmm5, XMMRegister xmm6, XMMRegister xmm7,
Register rax, Register rbx, Register rdx);
void fast_cos(XMMRegister xmm0, XMMRegister xmm1, XMMRegister xmm2, XMMRegister xmm3,
XMMRegister xmm4, XMMRegister xmm5, XMMRegister xmm6, XMMRegister xmm7,
Register rax, Register rcx, Register rdx, Register tmp);
void libm_sincos_huge(XMMRegister xmm0, XMMRegister xmm1, Register eax, Register ecx,
Register edx, Register ebx, Register esi, Register edi,
Register ebp, Register esp);
void libm_reduce_pi04l(Register eax, Register ecx, Register edx, Register ebx,
Register esi, Register edi, Register ebp, Register esp);
void libm_tancot_huge(XMMRegister xmm0, XMMRegister xmm1, Register eax, Register ecx,
Register edx, Register ebx, Register esi, Register edi,
Register ebp, Register esp);
void fast_tan(XMMRegister xmm0, XMMRegister xmm1, XMMRegister xmm2, XMMRegister xmm3,
XMMRegister xmm4, XMMRegister xmm5, XMMRegister xmm6, XMMRegister xmm7,
Register rax, Register rcx, Register rdx, Register tmp);
#endif
void increase_precision();
void restore_precision();
private:
// these are private because users should be doing movflt/movdbl
void movss(XMMRegister dst, XMMRegister src) { Assembler::movss(dst, src); }
void movss(Address dst, XMMRegister src) { Assembler::movss(dst, src); }
void movss(XMMRegister dst, Address src) { Assembler::movss(dst, src); }
void movss(XMMRegister dst, AddressLiteral src);
void movlpd(XMMRegister dst, Address src) {Assembler::movlpd(dst, src); }
void movlpd(XMMRegister dst, AddressLiteral src);
public:
void addsd(XMMRegister dst, XMMRegister src) { Assembler::addsd(dst, src); }
void addsd(XMMRegister dst, Address src) { Assembler::addsd(dst, src); }
void addsd(XMMRegister dst, AddressLiteral src);
void addss(XMMRegister dst, XMMRegister src) { Assembler::addss(dst, src); }
void addss(XMMRegister dst, Address src) { Assembler::addss(dst, src); }
void addss(XMMRegister dst, AddressLiteral src);
void addpd(XMMRegister dst, XMMRegister src) { Assembler::addpd(dst, src); }
void addpd(XMMRegister dst, Address src) { Assembler::addpd(dst, src); }
void addpd(XMMRegister dst, AddressLiteral src);
void divsd(XMMRegister dst, XMMRegister src) { Assembler::divsd(dst, src); }
void divsd(XMMRegister dst, Address src) { Assembler::divsd(dst, src); }
void divsd(XMMRegister dst, AddressLiteral src);
void divss(XMMRegister dst, XMMRegister src) { Assembler::divss(dst, src); }
void divss(XMMRegister dst, Address src) { Assembler::divss(dst, src); }
void divss(XMMRegister dst, AddressLiteral src);
// Move Unaligned Double Quadword
void movdqu(Address dst, XMMRegister src);
void movdqu(XMMRegister dst, Address src);
void movdqu(XMMRegister dst, XMMRegister src);
void movdqu(XMMRegister dst, AddressLiteral src, Register scratchReg = rscratch1);
// AVX Unaligned forms
void vmovdqu(Address dst, XMMRegister src);
void vmovdqu(XMMRegister dst, Address src);
void vmovdqu(XMMRegister dst, XMMRegister src);
void vmovdqu(XMMRegister dst, AddressLiteral src, Register scratch_reg = rscratch1);
void evmovdquq(XMMRegister dst, Address src, int vector_len) { Assembler::evmovdquq(dst, src, vector_len); }
void evmovdquq(XMMRegister dst, XMMRegister src, int vector_len) { Assembler::evmovdquq(dst, src, vector_len); }
void evmovdquq(Address dst, XMMRegister src, int vector_len) { Assembler::evmovdquq(dst, src, vector_len); }
void evmovdquq(XMMRegister dst, AddressLiteral src, int vector_len, Register rscratch);
// Move Aligned Double Quadword
void movdqa(XMMRegister dst, Address src) { Assembler::movdqa(dst, src); }
void movdqa(XMMRegister dst, XMMRegister src) { Assembler::movdqa(dst, src); }
void movdqa(XMMRegister dst, AddressLiteral src);
void movsd(XMMRegister dst, XMMRegister src) { Assembler::movsd(dst, src); }
void movsd(Address dst, XMMRegister src) { Assembler::movsd(dst, src); }
void movsd(XMMRegister dst, Address src) { Assembler::movsd(dst, src); }
void movsd(XMMRegister dst, AddressLiteral src);
void mulpd(XMMRegister dst, XMMRegister src) { Assembler::mulpd(dst, src); }
void mulpd(XMMRegister dst, Address src) { Assembler::mulpd(dst, src); }
void mulpd(XMMRegister dst, AddressLiteral src);
void mulsd(XMMRegister dst, XMMRegister src) { Assembler::mulsd(dst, src); }
void mulsd(XMMRegister dst, Address src) { Assembler::mulsd(dst, src); }
void mulsd(XMMRegister dst, AddressLiteral src);
void mulss(XMMRegister dst, XMMRegister src) { Assembler::mulss(dst, src); }
void mulss(XMMRegister dst, Address src) { Assembler::mulss(dst, src); }
void mulss(XMMRegister dst, AddressLiteral src);
// Carry-Less Multiplication Quadword
void pclmulldq(XMMRegister dst, XMMRegister src) {
// 0x00 - multiply lower 64 bits [0:63]
Assembler::pclmulqdq(dst, src, 0x00);
}
void pclmulhdq(XMMRegister dst, XMMRegister src) {
// 0x11 - multiply upper 64 bits [64:127]
Assembler::pclmulqdq(dst, src, 0x11);
}
void pcmpeqb(XMMRegister dst, XMMRegister src);
void pcmpeqw(XMMRegister dst, XMMRegister src);
void pcmpestri(XMMRegister dst, Address src, int imm8);
void pcmpestri(XMMRegister dst, XMMRegister src, int imm8);
void pmovzxbw(XMMRegister dst, XMMRegister src);
void pmovzxbw(XMMRegister dst, Address src);
void pmovmskb(Register dst, XMMRegister src);
void ptest(XMMRegister dst, XMMRegister src);
void sqrtsd(XMMRegister dst, XMMRegister src) { Assembler::sqrtsd(dst, src); }
void sqrtsd(XMMRegister dst, Address src) { Assembler::sqrtsd(dst, src); }
void sqrtsd(XMMRegister dst, AddressLiteral src);
void roundsd(XMMRegister dst, XMMRegister src, int32_t rmode) { Assembler::roundsd(dst, src, rmode); }
void roundsd(XMMRegister dst, Address src, int32_t rmode) { Assembler::roundsd(dst, src, rmode); }
void roundsd(XMMRegister dst, AddressLiteral src, int32_t rmode, Register scratch_reg);
void sqrtss(XMMRegister dst, XMMRegister src) { Assembler::sqrtss(dst, src); }
void sqrtss(XMMRegister dst, Address src) { Assembler::sqrtss(dst, src); }
void sqrtss(XMMRegister dst, AddressLiteral src);
void subsd(XMMRegister dst, XMMRegister src) { Assembler::subsd(dst, src); }
void subsd(XMMRegister dst, Address src) { Assembler::subsd(dst, src); }
void subsd(XMMRegister dst, AddressLiteral src);
void subss(XMMRegister dst, XMMRegister src) { Assembler::subss(dst, src); }
void subss(XMMRegister dst, Address src) { Assembler::subss(dst, src); }
void subss(XMMRegister dst, AddressLiteral src);
void ucomiss(XMMRegister dst, XMMRegister src) { Assembler::ucomiss(dst, src); }
void ucomiss(XMMRegister dst, Address src) { Assembler::ucomiss(dst, src); }
void ucomiss(XMMRegister dst, AddressLiteral src);
void ucomisd(XMMRegister dst, XMMRegister src) { Assembler::ucomisd(dst, src); }
void ucomisd(XMMRegister dst, Address src) { Assembler::ucomisd(dst, src); }
void ucomisd(XMMRegister dst, AddressLiteral src);
// Bitwise Logical XOR of Packed Double-Precision Floating-Point Values
void xorpd(XMMRegister dst, XMMRegister src);
void xorpd(XMMRegister dst, Address src) { Assembler::xorpd(dst, src); }
void xorpd(XMMRegister dst, AddressLiteral src, Register scratch_reg = rscratch1);
// Bitwise Logical XOR of Packed Single-Precision Floating-Point Values
void xorps(XMMRegister dst, XMMRegister src);
void xorps(XMMRegister dst, Address src) { Assembler::xorps(dst, src); }
void xorps(XMMRegister dst, AddressLiteral src, Register scratch_reg = rscratch1);
// Shuffle Bytes
void pshufb(XMMRegister dst, XMMRegister src) { Assembler::pshufb(dst, src); }
void pshufb(XMMRegister dst, Address src) { Assembler::pshufb(dst, src); }
void pshufb(XMMRegister dst, AddressLiteral src);
// AVX 3-operands instructions
void vaddsd(XMMRegister dst, XMMRegister nds, XMMRegister src) { Assembler::vaddsd(dst, nds, src); }
void vaddsd(XMMRegister dst, XMMRegister nds, Address src) { Assembler::vaddsd(dst, nds, src); }
void vaddsd(XMMRegister dst, XMMRegister nds, AddressLiteral src);
void vaddss(XMMRegister dst, XMMRegister nds, XMMRegister src) { Assembler::vaddss(dst, nds, src); }
void vaddss(XMMRegister dst, XMMRegister nds, Address src) { Assembler::vaddss(dst, nds, src); }
void vaddss(XMMRegister dst, XMMRegister nds, AddressLiteral src);
void vabsss(XMMRegister dst, XMMRegister nds, XMMRegister src, AddressLiteral negate_field, int vector_len);
void vabssd(XMMRegister dst, XMMRegister nds, XMMRegister src, AddressLiteral negate_field, int vector_len);
void vpaddb(XMMRegister dst, XMMRegister nds, XMMRegister src, int vector_len);
void vpaddb(XMMRegister dst, XMMRegister nds, Address src, int vector_len);
void vpaddw(XMMRegister dst, XMMRegister nds, XMMRegister src, int vector_len);
void vpaddw(XMMRegister dst, XMMRegister nds, Address src, int vector_len);
void vpaddd(XMMRegister dst, XMMRegister nds, XMMRegister src, int vector_len) { Assembler::vpaddd(dst, nds, src, vector_len); }
void vpaddd(XMMRegister dst, XMMRegister nds, Address src, int vector_len) { Assembler::vpaddd(dst, nds, src, vector_len); }
void vpaddd(XMMRegister dst, XMMRegister nds, AddressLiteral src, int vector_len, Register rscratch);
void vpand(XMMRegister dst, XMMRegister nds, XMMRegister src, int vector_len) { Assembler::vpand(dst, nds, src, vector_len); }
void vpand(XMMRegister dst, XMMRegister nds, Address src, int vector_len) { Assembler::vpand(dst, nds, src, vector_len); }
void vpand(XMMRegister dst, XMMRegister nds, AddressLiteral src, int vector_len, Register scratch_reg = rscratch1);
void vpbroadcastw(XMMRegister dst, XMMRegister src, int vector_len);
void vpbroadcastw(XMMRegister dst, Address src, int vector_len) { Assembler::vpbroadcastw(dst, src, vector_len); }
void vpcmpeqb(XMMRegister dst, XMMRegister nds, XMMRegister src, int vector_len);
void vpcmpeqw(XMMRegister dst, XMMRegister nds, XMMRegister src, int vector_len);
void vpmovzxbw(XMMRegister dst, Address src, int vector_len);
void vpmovzxbw(XMMRegister dst, XMMRegister src, int vector_len) { Assembler::vpmovzxbw(dst, src, vector_len); }
void vpmovmskb(Register dst, XMMRegister src);
void vpmullw(XMMRegister dst, XMMRegister nds, XMMRegister src, int vector_len);
void vpmullw(XMMRegister dst, XMMRegister nds, Address src, int vector_len);
void vpsubb(XMMRegister dst, XMMRegister nds, XMMRegister src, int vector_len);
void vpsubb(XMMRegister dst, XMMRegister nds, Address src, int vector_len);
void vpsubw(XMMRegister dst, XMMRegister nds, XMMRegister src, int vector_len);
void vpsubw(XMMRegister dst, XMMRegister nds, Address src, int vector_len);
void vpsraw(XMMRegister dst, XMMRegister nds, XMMRegister shift, int vector_len);
void vpsraw(XMMRegister dst, XMMRegister nds, int shift, int vector_len);
void evpsraq(XMMRegister dst, XMMRegister nds, XMMRegister shift, int vector_len);
void evpsraq(XMMRegister dst, XMMRegister nds, int shift, int vector_len);
void vpsrlw(XMMRegister dst, XMMRegister nds, XMMRegister shift, int vector_len);
void vpsrlw(XMMRegister dst, XMMRegister nds, int shift, int vector_len);
void vpsllw(XMMRegister dst, XMMRegister nds, XMMRegister shift, int vector_len);
void vpsllw(XMMRegister dst, XMMRegister nds, int shift, int vector_len);
void vptest(XMMRegister dst, XMMRegister src);
void punpcklbw(XMMRegister dst, XMMRegister src);
void punpcklbw(XMMRegister dst, Address src) { Assembler::punpcklbw(dst, src); }
void pshufd(XMMRegister dst, Address src, int mode);
void pshufd(XMMRegister dst, XMMRegister src, int mode) { Assembler::pshufd(dst, src, mode); }
void pshuflw(XMMRegister dst, XMMRegister src, int mode);
void pshuflw(XMMRegister dst, Address src, int mode) { Assembler::pshuflw(dst, src, mode); }
void vandpd(XMMRegister dst, XMMRegister nds, XMMRegister src, int vector_len) { Assembler::vandpd(dst, nds, src, vector_len); }
void vandpd(XMMRegister dst, XMMRegister nds, Address src, int vector_len) { Assembler::vandpd(dst, nds, src, vector_len); }
void vandpd(XMMRegister dst, XMMRegister nds, AddressLiteral src, int vector_len, Register scratch_reg = rscratch1);
void vandps(XMMRegister dst, XMMRegister nds, XMMRegister src, int vector_len) { Assembler::vandps(dst, nds, src, vector_len); }
void vandps(XMMRegister dst, XMMRegister nds, Address src, int vector_len) { Assembler::vandps(dst, nds, src, vector_len); }
void vandps(XMMRegister dst, XMMRegister nds, AddressLiteral src, int vector_len, Register scratch_reg = rscratch1);
void vdivsd(XMMRegister dst, XMMRegister nds, XMMRegister src) { Assembler::vdivsd(dst, nds, src); }
void vdivsd(XMMRegister dst, XMMRegister nds, Address src) { Assembler::vdivsd(dst, nds, src); }
void vdivsd(XMMRegister dst, XMMRegister nds, AddressLiteral src);
void vdivss(XMMRegister dst, XMMRegister nds, XMMRegister src) { Assembler::vdivss(dst, nds, src); }
void vdivss(XMMRegister dst, XMMRegister nds, Address src) { Assembler::vdivss(dst, nds, src); }
void vdivss(XMMRegister dst, XMMRegister nds, AddressLiteral src);
void vmulsd(XMMRegister dst, XMMRegister nds, XMMRegister src) { Assembler::vmulsd(dst, nds, src); }
void vmulsd(XMMRegister dst, XMMRegister nds, Address src) { Assembler::vmulsd(dst, nds, src); }
void vmulsd(XMMRegister dst, XMMRegister nds, AddressLiteral src);
void vmulss(XMMRegister dst, XMMRegister nds, XMMRegister src) { Assembler::vmulss(dst, nds, src); }
void vmulss(XMMRegister dst, XMMRegister nds, Address src) { Assembler::vmulss(dst, nds, src); }
void vmulss(XMMRegister dst, XMMRegister nds, AddressLiteral src);
void vsubsd(XMMRegister dst, XMMRegister nds, XMMRegister src) { Assembler::vsubsd(dst, nds, src); }
void vsubsd(XMMRegister dst, XMMRegister nds, Address src) { Assembler::vsubsd(dst, nds, src); }
void vsubsd(XMMRegister dst, XMMRegister nds, AddressLiteral src);
void vsubss(XMMRegister dst, XMMRegister nds, XMMRegister src) { Assembler::vsubss(dst, nds, src); }
void vsubss(XMMRegister dst, XMMRegister nds, Address src) { Assembler::vsubss(dst, nds, src); }
void vsubss(XMMRegister dst, XMMRegister nds, AddressLiteral src);
void vnegatess(XMMRegister dst, XMMRegister nds, AddressLiteral src);
void vnegatesd(XMMRegister dst, XMMRegister nds, AddressLiteral src);
// AVX Vector instructions
void vxorpd(XMMRegister dst, XMMRegister nds, XMMRegister src, int vector_len) { Assembler::vxorpd(dst, nds, src, vector_len); }
void vxorpd(XMMRegister dst, XMMRegister nds, Address src, int vector_len) { Assembler::vxorpd(dst, nds, src, vector_len); }
void vxorpd(XMMRegister dst, XMMRegister nds, AddressLiteral src, int vector_len, Register scratch_reg = rscratch1);
void vxorps(XMMRegister dst, XMMRegister nds, XMMRegister src, int vector_len) { Assembler::vxorps(dst, nds, src, vector_len); }
void vxorps(XMMRegister dst, XMMRegister nds, Address src, int vector_len) { Assembler::vxorps(dst, nds, src, vector_len); }
void vxorps(XMMRegister dst, XMMRegister nds, AddressLiteral src, int vector_len, Register scratch_reg = rscratch1);
void vpxor(XMMRegister dst, XMMRegister nds, XMMRegister src, int vector_len) {
if (UseAVX > 1 || (vector_len < 1)) // vpxor 256 bit is available only in AVX2
Assembler::vpxor(dst, nds, src, vector_len);
else
Assembler::vxorpd(dst, nds, src, vector_len);
}
void vpxor(XMMRegister dst, XMMRegister nds, Address src, int vector_len) {
if (UseAVX > 1 || (vector_len < 1)) // vpxor 256 bit is available only in AVX2
Assembler::vpxor(dst, nds, src, vector_len);
else
Assembler::vxorpd(dst, nds, src, vector_len);
}
void vpxor(XMMRegister dst, XMMRegister nds, AddressLiteral src, int vector_len, Register scratch_reg = rscratch1);
// Simple version for AVX2 256bit vectors
void vpxor(XMMRegister dst, XMMRegister src) { Assembler::vpxor(dst, dst, src, true); }
void vpxor(XMMRegister dst, Address src) { Assembler::vpxor(dst, dst, src, true); }
void vinserti128(XMMRegister dst, XMMRegister nds, XMMRegister src, uint8_t imm8) {
if (UseAVX > 2 && VM_Version::supports_avx512novl()) {
Assembler::vinserti32x4(dst, dst, src, imm8);
} else if (UseAVX > 1) {
// vinserti128 is available only in AVX2
Assembler::vinserti128(dst, nds, src, imm8);
} else {
Assembler::vinsertf128(dst, nds, src, imm8);
}
}
void vinserti128(XMMRegister dst, XMMRegister nds, Address src, uint8_t imm8) {
if (UseAVX > 2 && VM_Version::supports_avx512novl()) {
Assembler::vinserti32x4(dst, dst, src, imm8);
} else if (UseAVX > 1) {
// vinserti128 is available only in AVX2
Assembler::vinserti128(dst, nds, src, imm8);
} else {
Assembler::vinsertf128(dst, nds, src, imm8);
}
}
void vextracti128(XMMRegister dst, XMMRegister src, uint8_t imm8) {
if (UseAVX > 2 && VM_Version::supports_avx512novl()) {
Assembler::vextracti32x4(dst, src, imm8);
} else if (UseAVX > 1) {
// vextracti128 is available only in AVX2
Assembler::vextracti128(dst, src, imm8);
} else {
Assembler::vextractf128(dst, src, imm8);
}
}
void vextracti128(Address dst, XMMRegister src, uint8_t imm8) {
if (UseAVX > 2 && VM_Version::supports_avx512novl()) {
Assembler::vextracti32x4(dst, src, imm8);
} else if (UseAVX > 1) {
// vextracti128 is available only in AVX2
Assembler::vextracti128(dst, src, imm8);
} else {
Assembler::vextractf128(dst, src, imm8);
}
}
// 128bit copy to/from high 128 bits of 256bit (YMM) vector registers
void vinserti128_high(XMMRegister dst, XMMRegister src) {
vinserti128(dst, dst, src, 1);
}
void vinserti128_high(XMMRegister dst, Address src) {
vinserti128(dst, dst, src, 1);
}
void vextracti128_high(XMMRegister dst, XMMRegister src) {
vextracti128(dst, src, 1);
}
void vextracti128_high(Address dst, XMMRegister src) {
vextracti128(dst, src, 1);
}
void vinsertf128_high(XMMRegister dst, XMMRegister src) {
if (UseAVX > 2 && VM_Version::supports_avx512novl()) {
Assembler::vinsertf32x4(dst, dst, src, 1);
} else {
Assembler::vinsertf128(dst, dst, src, 1);
}
}
void vinsertf128_high(XMMRegister dst, Address src) {
if (UseAVX > 2 && VM_Version::supports_avx512novl()) {
Assembler::vinsertf32x4(dst, dst, src, 1);
} else {
Assembler::vinsertf128(dst, dst, src, 1);
}
}
void vextractf128_high(XMMRegister dst, XMMRegister src) {
if (UseAVX > 2 && VM_Version::supports_avx512novl()) {
Assembler::vextractf32x4(dst, src, 1);
} else {
Assembler::vextractf128(dst, src, 1);
}
}
void vextractf128_high(Address dst, XMMRegister src) {
if (UseAVX > 2 && VM_Version::supports_avx512novl()) {
Assembler::vextractf32x4(dst, src, 1);
} else {
Assembler::vextractf128(dst, src, 1);
}
}
// 256bit copy to/from high 256 bits of 512bit (ZMM) vector registers
void vinserti64x4_high(XMMRegister dst, XMMRegister src) {
Assembler::vinserti64x4(dst, dst, src, 1);
}
void vinsertf64x4_high(XMMRegister dst, XMMRegister src) {
Assembler::vinsertf64x4(dst, dst, src, 1);
}
void vextracti64x4_high(XMMRegister dst, XMMRegister src) {
Assembler::vextracti64x4(dst, src, 1);
}
void vextractf64x4_high(XMMRegister dst, XMMRegister src) {
Assembler::vextractf64x4(dst, src, 1);
}
void vextractf64x4_high(Address dst, XMMRegister src) {
Assembler::vextractf64x4(dst, src, 1);
}
void vinsertf64x4_high(XMMRegister dst, Address src) {
Assembler::vinsertf64x4(dst, dst, src, 1);
}
// 128bit copy to/from low 128 bits of 256bit (YMM) vector registers
void vinserti128_low(XMMRegister dst, XMMRegister src) {
vinserti128(dst, dst, src, 0);
}
void vinserti128_low(XMMRegister dst, Address src) {
vinserti128(dst, dst, src, 0);
}
void vextracti128_low(XMMRegister dst, XMMRegister src) {
vextracti128(dst, src, 0);
}
void vextracti128_low(Address dst, XMMRegister src) {
vextracti128(dst, src, 0);
}
void vinsertf128_low(XMMRegister dst, XMMRegister src) {
if (UseAVX > 2 && VM_Version::supports_avx512novl()) {
Assembler::vinsertf32x4(dst, dst, src, 0);
} else {
Assembler::vinsertf128(dst, dst, src, 0);
}
}
void vinsertf128_low(XMMRegister dst, Address src) {
if (UseAVX > 2 && VM_Version::supports_avx512novl()) {
Assembler::vinsertf32x4(dst, dst, src, 0);
} else {
Assembler::vinsertf128(dst, dst, src, 0);
}
}
void vextractf128_low(XMMRegister dst, XMMRegister src) {
if (UseAVX > 2 && VM_Version::supports_avx512novl()) {
Assembler::vextractf32x4(dst, src, 0);
} else {
Assembler::vextractf128(dst, src, 0);
}
}
void vextractf128_low(Address dst, XMMRegister src) {
if (UseAVX > 2 && VM_Version::supports_avx512novl()) {
Assembler::vextractf32x4(dst, src, 0);
} else {
Assembler::vextractf128(dst, src, 0);
}
}
// 256bit copy to/from low 256 bits of 512bit (ZMM) vector registers
void vinserti64x4_low(XMMRegister dst, XMMRegister src) {
Assembler::vinserti64x4(dst, dst, src, 0);
}
void vinsertf64x4_low(XMMRegister dst, XMMRegister src) {
Assembler::vinsertf64x4(dst, dst, src, 0);
}
void vextracti64x4_low(XMMRegister dst, XMMRegister src) {
Assembler::vextracti64x4(dst, src, 0);
}
void vextractf64x4_low(XMMRegister dst, XMMRegister src) {
Assembler::vextractf64x4(dst, src, 0);
}
void vextractf64x4_low(Address dst, XMMRegister src) {
Assembler::vextractf64x4(dst, src, 0);
}
void vinsertf64x4_low(XMMRegister dst, Address src) {
Assembler::vinsertf64x4(dst, dst, src, 0);
}
// Carry-Less Multiplication Quadword
void vpclmulldq(XMMRegister dst, XMMRegister nds, XMMRegister src) {
// 0x00 - multiply lower 64 bits [0:63]
Assembler::vpclmulqdq(dst, nds, src, 0x00);
}
void vpclmulhdq(XMMRegister dst, XMMRegister nds, XMMRegister src) {
// 0x11 - multiply upper 64 bits [64:127]
Assembler::vpclmulqdq(dst, nds, src, 0x11);
}
void vpclmullqhqdq(XMMRegister dst, XMMRegister nds, XMMRegister src) {
// 0x10 - multiply nds[0:63] and src[64:127]
Assembler::vpclmulqdq(dst, nds, src, 0x10);
}
void vpclmulhqlqdq(XMMRegister dst, XMMRegister nds, XMMRegister src) {
//0x01 - multiply nds[64:127] and src[0:63]
Assembler::vpclmulqdq(dst, nds, src, 0x01);
}
void evpclmulldq(XMMRegister dst, XMMRegister nds, XMMRegister src, int vector_len) {
// 0x00 - multiply lower 64 bits [0:63]
Assembler::evpclmulqdq(dst, nds, src, 0x00, vector_len);
}
void evpclmulhdq(XMMRegister dst, XMMRegister nds, XMMRegister src, int vector_len) {
// 0x11 - multiply upper 64 bits [64:127]
Assembler::evpclmulqdq(dst, nds, src, 0x11, vector_len);
}
// Data
void cmov32( Condition cc, Register dst, Address src);
void cmov32( Condition cc, Register dst, Register src);
void cmov( Condition cc, Register dst, Register src) { cmovptr(cc, dst, src); }
void cmovptr(Condition cc, Register dst, Address src) { LP64_ONLY(cmovq(cc, dst, src)) NOT_LP64(cmov32(cc, dst, src)); }
void cmovptr(Condition cc, Register dst, Register src) { LP64_ONLY(cmovq(cc, dst, src)) NOT_LP64(cmov32(cc, dst, src)); }
void movoop(Register dst, jobject obj);
void movoop(Address dst, jobject obj);
void mov_metadata(Register dst, Metadata* obj);
void mov_metadata(Address dst, Metadata* obj);
void movptr(ArrayAddress dst, Register src);
// can this do an lea?
void movptr(Register dst, ArrayAddress src);
void movptr(Register dst, Address src);
#ifdef _LP64
void movptr(Register dst, AddressLiteral src, Register scratch=rscratch1);
#else
void movptr(Register dst, AddressLiteral src, Register scratch=noreg); // Scratch reg is ignored in 32-bit
#endif
void movptr(Register dst, intptr_t src);
void movptr(Register dst, Register src);
void movptr(Address dst, intptr_t src);
void movptr(Address dst, Register src);
void movptr(Register dst, RegisterOrConstant src) {
if (src.is_constant()) movptr(dst, src.as_constant());
else movptr(dst, src.as_register());
}
#ifdef _LP64
// Generally the next two are only used for moving NULL
// Although there are situations in initializing the mark word where
// they could be used. They are dangerous.
// They only exist on LP64 so that int32_t and intptr_t are not the same
// and we have ambiguous declarations.
void movptr(Address dst, int32_t imm32);
void movptr(Register dst, int32_t imm32);
#endif // _LP64
// to avoid hiding movl
void mov32(AddressLiteral dst, Register src);
void mov32(Register dst, AddressLiteral src);
// to avoid hiding movb
void movbyte(ArrayAddress dst, int src);
// Import other mov() methods from the parent class or else
// they will be hidden by the following overriding declaration.
using Assembler::movdl;
using Assembler::movq;
void movdl(XMMRegister dst, AddressLiteral src);
void movq(XMMRegister dst, AddressLiteral src);
// Can push value or effective address
void pushptr(AddressLiteral src);
void pushptr(Address src) { LP64_ONLY(pushq(src)) NOT_LP64(pushl(src)); }
void popptr(Address src) { LP64_ONLY(popq(src)) NOT_LP64(popl(src)); }
void pushoop(jobject obj);
void pushklass(Metadata* obj);
// sign extend as need a l to ptr sized element
void movl2ptr(Register dst, Address src) { LP64_ONLY(movslq(dst, src)) NOT_LP64(movl(dst, src)); }
void movl2ptr(Register dst, Register src) { LP64_ONLY(movslq(dst, src)) NOT_LP64(if (dst != src) movl(dst, src)); }
#ifdef COMPILER2
// Generic instructions support for use in .ad files C2 code generation
void vabsnegd(int opcode, XMMRegister dst, XMMRegister src, Register scr);
void vabsnegd(int opcode, XMMRegister dst, XMMRegister src, int vector_len, Register scr);
void vabsnegf(int opcode, XMMRegister dst, XMMRegister src, Register scr);
void vabsnegf(int opcode, XMMRegister dst, XMMRegister src, int vector_len, Register scr);
void vextendbw(bool sign, XMMRegister dst, XMMRegister src, int vector_len);
void vextendbw(bool sign, XMMRegister dst, XMMRegister src);
void vshiftd(int opcode, XMMRegister dst, XMMRegister src);
void vshiftd(int opcode, XMMRegister dst, XMMRegister nds, XMMRegister src, int vector_len);
void vshiftw(int opcode, XMMRegister dst, XMMRegister src);
void vshiftw(int opcode, XMMRegister dst, XMMRegister nds, XMMRegister src, int vector_len);
void vshiftq(int opcode, XMMRegister dst, XMMRegister src);
void vshiftq(int opcode, XMMRegister dst, XMMRegister nds, XMMRegister src, int vector_len);
#endif
// C2 compiled method's prolog code.
void verified_entry(int framesize, int stack_bang_size, bool fp_mode_24b, bool is_stub);
// clear memory of size 'cnt' qwords, starting at 'base';
// if 'is_large' is set, do not try to produce short loop
void clear_mem(Register base, Register cnt, Register rtmp, XMMRegister xtmp, bool is_large);
// clear memory of size 'cnt' qwords, starting at 'base' using XMM/YMM registers
void xmm_clear_mem(Register base, Register cnt, XMMRegister xtmp);
#ifdef COMPILER2
void string_indexof_char(Register str1, Register cnt1, Register ch, Register result,
XMMRegister vec1, XMMRegister vec2, XMMRegister vec3, Register tmp);
// IndexOf strings.
// Small strings are loaded through stack if they cross page boundary.
void string_indexof(Register str1, Register str2,
Register cnt1, Register cnt2,
int int_cnt2, Register result,
XMMRegister vec, Register tmp,
int ae);
// IndexOf for constant substrings with size >= 8 elements
// which don't need to be loaded through stack.
void string_indexofC8(Register str1, Register str2,
Register cnt1, Register cnt2,
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