// to call the C-implemented binary fp operation routines we need to end up
// with the double precision floating point operands in r0 and r1 (for the
// value in r1) and r2 and r3 (for the value in r0).
-static void HandleBinaryOpSlowCases(MacroAssembler* masm,
+void GenericBinaryOpStub::HandleBinaryOpSlowCases(MacroAssembler* masm,
Label* not_smi,
- const Builtins::JavaScript& builtin,
- Token::Value operation,
- OverwriteMode mode) {
+ const Builtins::JavaScript& builtin) {
Label slow, slow_pop_2_first, do_the_call;
Label r0_is_smi, r1_is_smi, finished_loading_r0, finished_loading_r1;
- // Smi-smi case (overflow).
- // Since both are Smis there is no heap number to overwrite, so allocate.
- // The new heap number is in r5. r6 and r7 are scratch.
- AllocateHeapNumber(masm, &slow, r5, r6, r7);
-
// If we have floating point hardware, inline ADD, SUB, MUL, and DIV,
// using registers d7 and d6 for the double values.
bool use_fp_registers = CpuFeatures::IsSupported(VFP3) &&
- Token::MOD != operation;
- if (use_fp_registers) {
- CpuFeatures::Scope scope(VFP3);
- __ mov(r7, Operand(r0, ASR, kSmiTagSize));
- __ vmov(s15, r7);
- __ vcvt(d7, s15);
- __ mov(r7, Operand(r1, ASR, kSmiTagSize));
- __ vmov(s13, r7);
- __ vcvt(d6, s13);
- } else {
- // Write Smi from r0 to r3 and r2 in double format. r6 is scratch.
- __ mov(r7, Operand(r0));
- ConvertToDoubleStub stub1(r3, r2, r7, r6);
- __ push(lr);
- __ Call(stub1.GetCode(), RelocInfo::CODE_TARGET);
- // Write Smi from r1 to r1 and r0 in double format. r6 is scratch.
- __ mov(r7, Operand(r1));
- ConvertToDoubleStub stub2(r1, r0, r7, r6);
- __ Call(stub2.GetCode(), RelocInfo::CODE_TARGET);
- __ pop(lr);
+ Token::MOD != op_;
+
+ if (ShouldGenerateSmiCode()) {
+ // Smi-smi case (overflow).
+ // Since both are Smis there is no heap number to overwrite, so allocate.
+ // The new heap number is in r5. r6 and r7 are scratch.
+ AllocateHeapNumber(masm, &slow, r5, r6, r7);
+
+ if (use_fp_registers) {
+ CpuFeatures::Scope scope(VFP3);
+ __ mov(r7, Operand(r0, ASR, kSmiTagSize));
+ __ vmov(s15, r7);
+ __ vcvt(d7, s15);
+ __ mov(r7, Operand(r1, ASR, kSmiTagSize));
+ __ vmov(s13, r7);
+ __ vcvt(d6, s13);
+ } else {
+ // Write Smi from r0 to r3 and r2 in double format. r6 is scratch.
+ __ mov(r7, Operand(r0));
+ ConvertToDoubleStub stub1(r3, r2, r7, r6);
+ __ push(lr);
+ __ Call(stub1.GetCode(), RelocInfo::CODE_TARGET);
+ // Write Smi from r1 to r1 and r0 in double format. r6 is scratch.
+ __ mov(r7, Operand(r1));
+ ConvertToDoubleStub stub2(r1, r0, r7, r6);
+ __ Call(stub2.GetCode(), RelocInfo::CODE_TARGET);
+ __ pop(lr);
+ }
+
+ __ jmp(&do_the_call); // Tail call. No return.
}
- __ jmp(&do_the_call); // Tail call. No return.
+ // We branch here if at least one of r0 and r1 is not a Smi.
+ __ bind(not_smi);
+
+ if (ShouldGenerateFPCode()) {
+ if (runtime_operands_type_ == BinaryOpIC::DEFAULT) {
+ switch (op_) {
+ case Token::ADD:
+ case Token::SUB:
+ case Token::MUL:
+ case Token::DIV:
+ GenerateTypeTransition(masm);
+ break;
+
+ default:
+ break;
+ }
+ }
+
+ if (mode_ == NO_OVERWRITE) {
+ // In the case where there is no chance of an overwritable float we may as
+ // well do the allocation immediately while r0 and r1 are untouched.
+ AllocateHeapNumber(masm, &slow, r5, r6, r7);
+ }
+
+ // Move r0 to a double in r2-r3.
+ __ tst(r0, Operand(kSmiTagMask));
+ __ b(eq, &r0_is_smi); // It's a Smi so don't check it's a heap number.
+ __ CompareObjectType(r0, r4, r4, HEAP_NUMBER_TYPE);
+ __ b(ne, &slow);
+ if (mode_ == OVERWRITE_RIGHT) {
+ __ mov(r5, Operand(r0)); // Overwrite this heap number.
+ }
+ if (use_fp_registers) {
+ CpuFeatures::Scope scope(VFP3);
+ // Load the double from tagged HeapNumber r0 to d7.
+ __ sub(r7, r0, Operand(kHeapObjectTag));
+ __ vldr(d7, r7, HeapNumber::kValueOffset);
+ } else {
+ // Calling convention says that second double is in r2 and r3.
+ __ ldr(r2, FieldMemOperand(r0, HeapNumber::kValueOffset));
+ __ ldr(r3, FieldMemOperand(r0, HeapNumber::kValueOffset + 4));
+ }
+ __ jmp(&finished_loading_r0);
+ __ bind(&r0_is_smi);
+ if (mode_ == OVERWRITE_RIGHT) {
+ // We can't overwrite a Smi so get address of new heap number into r5.
+ AllocateHeapNumber(masm, &slow, r5, r6, r7);
+ }
+
+ if (use_fp_registers) {
+ CpuFeatures::Scope scope(VFP3);
+ // Convert smi in r0 to double in d7.
+ __ mov(r7, Operand(r0, ASR, kSmiTagSize));
+ __ vmov(s15, r7);
+ __ vcvt(d7, s15);
+ } else {
+ // Write Smi from r0 to r3 and r2 in double format.
+ __ mov(r7, Operand(r0));
+ ConvertToDoubleStub stub3(r3, r2, r7, r6);
+ __ push(lr);
+ __ Call(stub3.GetCode(), RelocInfo::CODE_TARGET);
+ __ pop(lr);
+ }
+
+ __ bind(&finished_loading_r0);
+
+ // Move r1 to a double in r0-r1.
+ __ tst(r1, Operand(kSmiTagMask));
+ __ b(eq, &r1_is_smi); // It's a Smi so don't check it's a heap number.
+ __ CompareObjectType(r1, r4, r4, HEAP_NUMBER_TYPE);
+ __ b(ne, &slow);
+ if (mode_ == OVERWRITE_LEFT) {
+ __ mov(r5, Operand(r1)); // Overwrite this heap number.
+ }
+ if (use_fp_registers) {
+ CpuFeatures::Scope scope(VFP3);
+ // Load the double from tagged HeapNumber r1 to d6.
+ __ sub(r7, r1, Operand(kHeapObjectTag));
+ __ vldr(d6, r7, HeapNumber::kValueOffset);
+ } else {
+ // Calling convention says that first double is in r0 and r1.
+ __ ldr(r0, FieldMemOperand(r1, HeapNumber::kValueOffset));
+ __ ldr(r1, FieldMemOperand(r1, HeapNumber::kValueOffset + 4));
+ }
+ __ jmp(&finished_loading_r1);
+ __ bind(&r1_is_smi);
+ if (mode_ == OVERWRITE_LEFT) {
+ // We can't overwrite a Smi so get address of new heap number into r5.
+ AllocateHeapNumber(masm, &slow, r5, r6, r7);
+ }
+
+ if (use_fp_registers) {
+ CpuFeatures::Scope scope(VFP3);
+ // Convert smi in r1 to double in d6.
+ __ mov(r7, Operand(r1, ASR, kSmiTagSize));
+ __ vmov(s13, r7);
+ __ vcvt(d6, s13);
+ } else {
+ // Write Smi from r1 to r1 and r0 in double format.
+ __ mov(r7, Operand(r1));
+ ConvertToDoubleStub stub4(r1, r0, r7, r6);
+ __ push(lr);
+ __ Call(stub4.GetCode(), RelocInfo::CODE_TARGET);
+ __ pop(lr);
+ }
+ __ bind(&finished_loading_r1);
+
+ __ bind(&do_the_call);
+ // If we are inlining the operation using VFP3 instructions for
+ // add, subtract, multiply, or divide, the arguments are in d6 and d7.
+ if (use_fp_registers) {
+ CpuFeatures::Scope scope(VFP3);
+ // ARMv7 VFP3 instructions to implement
+ // double precision, add, subtract, multiply, divide.
+
+ if (Token::MUL == op_) {
+ __ vmul(d5, d6, d7);
+ } else if (Token::DIV == op_) {
+ __ vdiv(d5, d6, d7);
+ } else if (Token::ADD == op_) {
+ __ vadd(d5, d6, d7);
+ } else if (Token::SUB == op_) {
+ __ vsub(d5, d6, d7);
+ } else {
+ UNREACHABLE();
+ }
+ __ sub(r0, r5, Operand(kHeapObjectTag));
+ __ vstr(d5, r0, HeapNumber::kValueOffset);
+ __ add(r0, r0, Operand(kHeapObjectTag));
+ __ mov(pc, lr);
+ } else {
+ // If we did not inline the operation, then the arguments are in:
+ // r0: Left value (least significant part of mantissa).
+ // r1: Left value (sign, exponent, top of mantissa).
+ // r2: Right value (least significant part of mantissa).
+ // r3: Right value (sign, exponent, top of mantissa).
+ // r5: Address of heap number for result.
+
+ __ push(lr); // For later.
+ __ push(r5); // Address of heap number that is answer.
+ __ AlignStack(0);
+ // Call C routine that may not cause GC or other trouble.
+ __ mov(r5, Operand(ExternalReference::double_fp_operation(op_)));
+ __ Call(r5);
+ __ pop(r4); // Address of heap number.
+ __ cmp(r4, Operand(Smi::FromInt(0)));
+ __ pop(r4, eq); // Conditional pop instruction
+ // to get rid of alignment push.
+ // Store answer in the overwritable heap number.
+ #if !defined(USE_ARM_EABI)
+ // Double returned in fp coprocessor register 0 and 1, encoded as register
+ // cr8. Offsets must be divisible by 4 for coprocessor so we need to
+ // substract the tag from r4.
+ __ sub(r5, r4, Operand(kHeapObjectTag));
+ __ stc(p1, cr8, MemOperand(r5, HeapNumber::kValueOffset));
+ #else
+ // Double returned in registers 0 and 1.
+ __ str(r0, FieldMemOperand(r4, HeapNumber::kValueOffset));
+ __ str(r1, FieldMemOperand(r4, HeapNumber::kValueOffset + 4));
+ #endif
+ __ mov(r0, Operand(r4));
+ // And we are done.
+ __ pop(pc);
+ }
+ }
// We jump to here if something goes wrong (one param is not a number of any
// sort or new-space allocation fails).
__ bind(&slow);
__ push(r1);
__ push(r0);
- if (Token::ADD == operation) {
+ if (Token::ADD == op_) {
// Test for string arguments before calling runtime.
// r1 : first argument
// r0 : second argument
}
__ InvokeBuiltin(builtin, JUMP_JS); // Tail call. No return.
-
- // We branch here if at least one of r0 and r1 is not a Smi.
- __ bind(not_smi);
- if (mode == NO_OVERWRITE) {
- // In the case where there is no chance of an overwritable float we may as
- // well do the allocation immediately while r0 and r1 are untouched.
- AllocateHeapNumber(masm, &slow, r5, r6, r7);
- }
-
- // Move r0 to a double in r2-r3.
- __ tst(r0, Operand(kSmiTagMask));
- __ b(eq, &r0_is_smi); // It's a Smi so don't check it's a heap number.
- __ CompareObjectType(r0, r4, r4, HEAP_NUMBER_TYPE);
- __ b(ne, &slow);
- if (mode == OVERWRITE_RIGHT) {
- __ mov(r5, Operand(r0)); // Overwrite this heap number.
- }
- if (use_fp_registers) {
- CpuFeatures::Scope scope(VFP3);
- // Load the double from tagged HeapNumber r0 to d7.
- __ sub(r7, r0, Operand(kHeapObjectTag));
- __ vldr(d7, r7, HeapNumber::kValueOffset);
- } else {
- // Calling convention says that second double is in r2 and r3.
- __ ldr(r2, FieldMemOperand(r0, HeapNumber::kValueOffset));
- __ ldr(r3, FieldMemOperand(r0, HeapNumber::kValueOffset + 4));
- }
- __ jmp(&finished_loading_r0);
- __ bind(&r0_is_smi);
- if (mode == OVERWRITE_RIGHT) {
- // We can't overwrite a Smi so get address of new heap number into r5.
- AllocateHeapNumber(masm, &slow, r5, r6, r7);
- }
-
- if (use_fp_registers) {
- CpuFeatures::Scope scope(VFP3);
- // Convert smi in r0 to double in d7.
- __ mov(r7, Operand(r0, ASR, kSmiTagSize));
- __ vmov(s15, r7);
- __ vcvt(d7, s15);
- } else {
- // Write Smi from r0 to r3 and r2 in double format.
- __ mov(r7, Operand(r0));
- ConvertToDoubleStub stub3(r3, r2, r7, r6);
- __ push(lr);
- __ Call(stub3.GetCode(), RelocInfo::CODE_TARGET);
- __ pop(lr);
- }
-
- __ bind(&finished_loading_r0);
-
- // Move r1 to a double in r0-r1.
- __ tst(r1, Operand(kSmiTagMask));
- __ b(eq, &r1_is_smi); // It's a Smi so don't check it's a heap number.
- __ CompareObjectType(r1, r4, r4, HEAP_NUMBER_TYPE);
- __ b(ne, &slow);
- if (mode == OVERWRITE_LEFT) {
- __ mov(r5, Operand(r1)); // Overwrite this heap number.
- }
- if (use_fp_registers) {
- CpuFeatures::Scope scope(VFP3);
- // Load the double from tagged HeapNumber r1 to d6.
- __ sub(r7, r1, Operand(kHeapObjectTag));
- __ vldr(d6, r7, HeapNumber::kValueOffset);
- } else {
- // Calling convention says that first double is in r0 and r1.
- __ ldr(r0, FieldMemOperand(r1, HeapNumber::kValueOffset));
- __ ldr(r1, FieldMemOperand(r1, HeapNumber::kValueOffset + 4));
- }
- __ jmp(&finished_loading_r1);
- __ bind(&r1_is_smi);
- if (mode == OVERWRITE_LEFT) {
- // We can't overwrite a Smi so get address of new heap number into r5.
- AllocateHeapNumber(masm, &slow, r5, r6, r7);
- }
-
- if (use_fp_registers) {
- CpuFeatures::Scope scope(VFP3);
- // Convert smi in r1 to double in d6.
- __ mov(r7, Operand(r1, ASR, kSmiTagSize));
- __ vmov(s13, r7);
- __ vcvt(d6, s13);
- } else {
- // Write Smi from r1 to r1 and r0 in double format.
- __ mov(r7, Operand(r1));
- ConvertToDoubleStub stub4(r1, r0, r7, r6);
- __ push(lr);
- __ Call(stub4.GetCode(), RelocInfo::CODE_TARGET);
- __ pop(lr);
- }
-
- __ bind(&finished_loading_r1);
-
- __ bind(&do_the_call);
- // If we are inlining the operation using VFP3 instructions for
- // add, subtract, multiply, or divide, the arguments are in d6 and d7.
- if (use_fp_registers) {
- CpuFeatures::Scope scope(VFP3);
- // ARMv7 VFP3 instructions to implement
- // double precision, add, subtract, multiply, divide.
-
- if (Token::MUL == operation) {
- __ vmul(d5, d6, d7);
- } else if (Token::DIV == operation) {
- __ vdiv(d5, d6, d7);
- } else if (Token::ADD == operation) {
- __ vadd(d5, d6, d7);
- } else if (Token::SUB == operation) {
- __ vsub(d5, d6, d7);
- } else {
- UNREACHABLE();
- }
- __ sub(r0, r5, Operand(kHeapObjectTag));
- __ vstr(d5, r0, HeapNumber::kValueOffset);
- __ add(r0, r0, Operand(kHeapObjectTag));
- __ mov(pc, lr);
- return;
- }
-
- // If we did not inline the operation, then the arguments are in:
- // r0: Left value (least significant part of mantissa).
- // r1: Left value (sign, exponent, top of mantissa).
- // r2: Right value (least significant part of mantissa).
- // r3: Right value (sign, exponent, top of mantissa).
- // r5: Address of heap number for result.
-
- __ push(lr); // For later.
- __ push(r5); // Address of heap number that is answer.
- __ AlignStack(0);
- // Call C routine that may not cause GC or other trouble.
- __ mov(r5, Operand(ExternalReference::double_fp_operation(operation)));
- __ Call(r5);
- __ pop(r4); // Address of heap number.
- __ cmp(r4, Operand(Smi::FromInt(0)));
- __ pop(r4, eq); // Conditional pop instruction to get rid of alignment push.
- // Store answer in the overwritable heap number.
-#if !defined(USE_ARM_EABI)
- // Double returned in fp coprocessor register 0 and 1, encoded as register
- // cr8. Offsets must be divisible by 4 for coprocessor so we need to
- // substract the tag from r4.
- __ sub(r5, r4, Operand(kHeapObjectTag));
- __ stc(p1, cr8, MemOperand(r5, HeapNumber::kValueOffset));
-#else
- // Double returned in registers 0 and 1.
- __ str(r0, FieldMemOperand(r4, HeapNumber::kValueOffset));
- __ str(r1, FieldMemOperand(r4, HeapNumber::kValueOffset + 4));
-#endif
- __ mov(r0, Operand(r4));
- // And we are done.
- __ pop(pc);
}
// All ops need to know whether we are dealing with two Smis. Set up r2 to
// tell us that.
- __ orr(r2, r1, Operand(r0)); // r2 = x | y;
+ if (ShouldGenerateSmiCode()) {
+ __ orr(r2, r1, Operand(r0)); // r2 = x | y;
+ }
switch (op_) {
case Token::ADD: {
Label not_smi;
// Fast path.
- ASSERT(kSmiTag == 0); // Adjust code below.
- __ tst(r2, Operand(kSmiTagMask));
- __ b(ne, ¬_smi);
- __ add(r0, r1, Operand(r0), SetCC); // Add y optimistically.
- // Return if no overflow.
- __ Ret(vc);
- __ sub(r0, r0, Operand(r1)); // Revert optimistic add.
-
- HandleBinaryOpSlowCases(masm,
- ¬_smi,
- Builtins::ADD,
- Token::ADD,
- mode_);
+ if (ShouldGenerateSmiCode()) {
+ ASSERT(kSmiTag == 0); // Adjust code below.
+ __ tst(r2, Operand(kSmiTagMask));
+ __ b(ne, ¬_smi);
+ __ add(r0, r1, Operand(r0), SetCC); // Add y optimistically.
+ // Return if no overflow.
+ __ Ret(vc);
+ __ sub(r0, r0, Operand(r1)); // Revert optimistic add.
+ }
+ HandleBinaryOpSlowCases(masm, ¬_smi, Builtins::ADD);
break;
}
case Token::SUB: {
Label not_smi;
// Fast path.
- ASSERT(kSmiTag == 0); // Adjust code below.
- __ tst(r2, Operand(kSmiTagMask));
- __ b(ne, ¬_smi);
- __ sub(r0, r1, Operand(r0), SetCC); // Subtract y optimistically.
- // Return if no overflow.
- __ Ret(vc);
- __ sub(r0, r1, Operand(r0)); // Revert optimistic subtract.
-
- HandleBinaryOpSlowCases(masm,
- ¬_smi,
- Builtins::SUB,
- Token::SUB,
- mode_);
+ if (ShouldGenerateSmiCode()) {
+ ASSERT(kSmiTag == 0); // Adjust code below.
+ __ tst(r2, Operand(kSmiTagMask));
+ __ b(ne, ¬_smi);
+ __ sub(r0, r1, Operand(r0), SetCC); // Subtract y optimistically.
+ // Return if no overflow.
+ __ Ret(vc);
+ __ sub(r0, r1, Operand(r0)); // Revert optimistic subtract.
+ }
+ HandleBinaryOpSlowCases(masm, ¬_smi, Builtins::SUB);
break;
}
case Token::MUL: {
Label not_smi, slow;
- ASSERT(kSmiTag == 0); // adjust code below
- __ tst(r2, Operand(kSmiTagMask));
- __ b(ne, ¬_smi);
- // Remove tag from one operand (but keep sign), so that result is Smi.
- __ mov(ip, Operand(r0, ASR, kSmiTagSize));
- // Do multiplication
- __ smull(r3, r2, r1, ip); // r3 = lower 32 bits of ip*r1.
- // Go slow on overflows (overflow bit is not set).
- __ mov(ip, Operand(r3, ASR, 31));
- __ cmp(ip, Operand(r2)); // no overflow if higher 33 bits are identical
- __ b(ne, &slow);
- // Go slow on zero result to handle -0.
- __ tst(r3, Operand(r3));
- __ mov(r0, Operand(r3), LeaveCC, ne);
- __ Ret(ne);
- // We need -0 if we were multiplying a negative number with 0 to get 0.
- // We know one of them was zero.
- __ add(r2, r0, Operand(r1), SetCC);
- __ mov(r0, Operand(Smi::FromInt(0)), LeaveCC, pl);
- __ Ret(pl); // Return Smi 0 if the non-zero one was positive.
- // Slow case. We fall through here if we multiplied a negative number
- // with 0, because that would mean we should produce -0.
- __ bind(&slow);
-
- HandleBinaryOpSlowCases(masm,
- ¬_smi,
- Builtins::MUL,
- Token::MUL,
- mode_);
+ if (ShouldGenerateSmiCode()) {
+ ASSERT(kSmiTag == 0); // adjust code below
+ __ tst(r2, Operand(kSmiTagMask));
+ __ b(ne, ¬_smi);
+ // Remove tag from one operand (but keep sign), so that result is Smi.
+ __ mov(ip, Operand(r0, ASR, kSmiTagSize));
+ // Do multiplication
+ __ smull(r3, r2, r1, ip); // r3 = lower 32 bits of ip*r1.
+ // Go slow on overflows (overflow bit is not set).
+ __ mov(ip, Operand(r3, ASR, 31));
+ __ cmp(ip, Operand(r2)); // no overflow if higher 33 bits are identical
+ __ b(ne, &slow);
+ // Go slow on zero result to handle -0.
+ __ tst(r3, Operand(r3));
+ __ mov(r0, Operand(r3), LeaveCC, ne);
+ __ Ret(ne);
+ // We need -0 if we were multiplying a negative number with 0 to get 0.
+ // We know one of them was zero.
+ __ add(r2, r0, Operand(r1), SetCC);
+ __ mov(r0, Operand(Smi::FromInt(0)), LeaveCC, pl);
+ __ Ret(pl); // Return Smi 0 if the non-zero one was positive.
+ // Slow case. We fall through here if we multiplied a negative number
+ // with 0, because that would mean we should produce -0.
+ __ bind(&slow);
+ }
+ HandleBinaryOpSlowCases(masm, ¬_smi, Builtins::MUL);
break;
}
case Token::DIV:
case Token::MOD: {
Label not_smi;
- if (specialized_on_rhs_) {
+ if (ShouldGenerateSmiCode()) {
Label smi_is_unsuitable;
__ BranchOnNotSmi(r1, ¬_smi);
if (IsPowerOf2(constant_rhs_)) {
}
__ Ret();
__ bind(&smi_is_unsuitable);
- } else {
- __ jmp(¬_smi);
}
- HandleBinaryOpSlowCases(masm,
- ¬_smi,
- op_ == Token::MOD ? Builtins::MOD : Builtins::DIV,
- op_,
- mode_);
+ HandleBinaryOpSlowCases(
+ masm,
+ ¬_smi,
+ op_ == Token::MOD ? Builtins::MOD : Builtins::DIV);
break;
}
}
// This code should be unreachable.
__ stop("Unreachable");
+
+ // Generate an unreachable reference to the DEFAULT stub so that it can be
+ // found at the end of this stub when clearing ICs at GC.
+ // TODO(kaznacheev): Check performance impact and get rid of this.
+ if (runtime_operands_type_ != BinaryOpIC::DEFAULT) {
+ GenericBinaryOpStub uninit(MinorKey(), BinaryOpIC::DEFAULT);
+ __ CallStub(&uninit);
+ }
+}
+
+
+void GenericBinaryOpStub::GenerateTypeTransition(MacroAssembler* masm) {
+ Label get_result;
+
+ __ push(r1);
+ __ push(r0);
+
+ // Internal frame is necessary to handle exceptions properly.
+ __ EnterInternalFrame();
+ // Call the stub proper to get the result in r0.
+ __ Call(&get_result);
+ __ LeaveInternalFrame();
+
+ __ push(r0);
+
+ __ mov(r0, Operand(Smi::FromInt(MinorKey())));
+ __ push(r0);
+ __ mov(r0, Operand(Smi::FromInt(op_)));
+ __ push(r0);
+ __ mov(r0, Operand(Smi::FromInt(runtime_operands_type_)));
+ __ push(r0);
+
+ __ TailCallExternalReference(
+ ExternalReference(IC_Utility(IC::kBinaryOp_Patch)),
+ 6,
+ 1);
+
+ // The entry point for the result calculation is assumed to be immediately
+ // after this sequence.
+ __ bind(&get_result);
}
Handle<Code> GetBinaryOpStub(int key, BinaryOpIC::TypeInfo type_info) {
- return Handle<Code>::null();
+ GenericBinaryOpStub stub(key, type_info);
+ return stub.GetCode();
}
projects / platform / upstream / v8.git / commitdiff