/* -*- Mode: C; tab-width: 8; indent-tabs-mode: nil; c-basic-offset: 4 -*- * vim: set ts=4 sw=4 et tw=99: * * This Source Code Form is subject to the terms of the Mozilla Public * License, v. 2.0. If a copy of the MPL was not distributed with this * file, You can obtain one at http://mozilla.org/MPL/2.0/. */ #ifndef jsinterpinlines_h__ #define jsinterpinlines_h__ #include "jsapi.h" #include "jsbool.h" #include "jscompartment.h" #include "jsinfer.h" #include "jsinterp.h" #include "jslibmath.h" #include "jsnum.h" #include "jsprobes.h" #include "jsstr.h" #include "methodjit/MethodJIT.h" #include "jsfuninlines.h" #include "jsinferinlines.h" #include "jspropertycacheinlines.h" #include "jstypedarrayinlines.h" #include "vm/Stack-inl.h" namespace js { /* * Compute the implicit |this| parameter for a call expression where the callee * funval was resolved from an unqualified name reference to a property on obj * (an object on the scope chain). * * We can avoid computing |this| eagerly and push the implicit callee-coerced * |this| value, undefined, if any of these conditions hold: * * 1. The nominal |this|, obj, is a global object. * * 2. The nominal |this|, obj, has one of Block, Call, or DeclEnv class (this * is what IsCacheableNonGlobalScope tests). Such objects-as-scopes must be * censored with undefined. * * Otherwise, we bind |this| to obj->thisObject(). Only names inside |with| * statements and embedding-specific scope objects fall into this category. * * If the callee is a strict mode function, then code implementing JSOP_THIS * in the interpreter and JITs will leave undefined as |this|. If funval is a * function not in strict mode, JSOP_THIS code replaces undefined with funval's * global. * * We set *vp to undefined early to reduce code size and bias this code for the * common and future-friendly cases. */ inline bool ComputeImplicitThis(JSContext *cx, JSObject *obj, Value *vp) { vp->setUndefined(); if (obj->isGlobal()) return true; if (IsCacheableNonGlobalScope(obj)) return true; obj = obj->thisObject(cx); if (!obj) return false; vp->setObject(*obj); return true; } inline bool ComputeThis(JSContext *cx, StackFrame *fp) { Value &thisv = fp->thisValue(); if (thisv.isObject()) return true; if (fp->isFunctionFrame()) { if (fp->fun()->inStrictMode()) return true; /* * Eval function frames have their own |this| slot, which is a copy of the function's * |this| slot. If we lazily wrap a primitive |this| in an eval function frame, the * eval's frame will get the wrapper, but the function's frame will not. To prevent * this, we always wrap a function's |this| before pushing an eval frame, and should * thus never see an unwrapped primitive in a non-strict eval function frame. */ JS_ASSERT(!fp->isEvalFrame()); } return BoxNonStrictThis(cx, fp->callReceiver()); } /* * Every possible consumer of MagicValue(JS_OPTIMIZED_ARGUMENTS) (as determined * by ScriptAnalysis::needsArgsObj) must check for these magic values and, when * one is received, act as if the value were the function's ArgumentsObject. * Additionally, it is possible that, after 'arguments' was copied into a * temporary, the arguments object has been created a some other failed guard * that called JSScript::argumentsOptimizationFailed. In this case, it is * always valid (and necessary) to replace JS_OPTIMIZED_ARGUMENTS with the real * arguments object. */ static inline bool IsOptimizedArguments(StackFrame *fp, Value *vp) { if (vp->isMagic(JS_OPTIMIZED_ARGUMENTS) && fp->script()->needsArgsObj()) *vp = ObjectValue(fp->argsObj()); return vp->isMagic(JS_OPTIMIZED_ARGUMENTS); } /* * One optimized consumer of MagicValue(JS_OPTIMIZED_ARGUMENTS) is f.apply. * However, this speculation must be guarded before calling 'apply' in case it * is not the builtin Function.prototype.apply. */ static inline bool GuardFunApplyArgumentsOptimization(JSContext *cx) { FrameRegs ®s = cx->regs(); if (IsOptimizedArguments(regs.fp(), ®s.sp[-1])) { CallArgs args = CallArgsFromSp(GET_ARGC(regs.pc), regs.sp); if (!IsNativeFunction(args.calleev(), js_fun_apply)) { if (!JSScript::argumentsOptimizationFailed(cx, regs.fp()->script())) return false; regs.sp[-1] = ObjectValue(regs.fp()->argsObj()); } } return true; } /* * Return an object on which we should look for the properties of |value|. * This helps us implement the custom [[Get]] method that ES5's GetValue * algorithm uses for primitive values, without actually constructing the * temporary object that the specification does. * * For objects, return the object itself. For string, boolean, and number * primitive values, return the appropriate constructor's prototype. For * undefined and null, throw an error and return NULL, attributing the * problem to the value at |spindex| on the stack. */ JS_ALWAYS_INLINE JSObject * ValuePropertyBearer(JSContext *cx, StackFrame *fp, const Value &v, int spindex) { if (v.isObject()) return &v.toObject(); GlobalObject &global = fp->global(); if (v.isString()) return global.getOrCreateStringPrototype(cx); if (v.isNumber()) return global.getOrCreateNumberPrototype(cx); if (v.isBoolean()) return global.getOrCreateBooleanPrototype(cx); JS_ASSERT(v.isNull() || v.isUndefined()); js_ReportIsNullOrUndefined(cx, spindex, v, NULL); return NULL; } inline bool NativeGet(JSContext *cx, Handle obj, Handle pobj, Shape *shape, unsigned getHow, Value *vp) { if (shape->isDataDescriptor() && shape->hasDefaultGetter()) { /* Fast path for Object instance properties. */ JS_ASSERT(shape->hasSlot()); *vp = pobj->nativeGetSlot(shape->slot()); } else { if (!js_NativeGet(cx, obj, pobj, shape, getHow, vp)) return false; } return true; } #if defined(DEBUG) && !defined(JS_THREADSAFE) && !defined(JSGC_ROOT_ANALYSIS) extern void AssertValidPropertyCacheHit(JSContext *cx, JSObject *start, JSObject *found, PropertyCacheEntry *entry); #else inline void AssertValidPropertyCacheHit(JSContext *cx, JSObject *start, JSObject *found, PropertyCacheEntry *entry) {} #endif inline bool GetPropertyGenericMaybeCallXML(JSContext *cx, JSOp op, HandleObject obj, HandleId id, Value *vp) { /* * Various XML properties behave differently when accessed in a * call vs. normal context, and getGeneric will not work right. */ #if JS_HAS_XML_SUPPORT if (op == JSOP_CALLPROP && obj->isXML()) return js_GetXMLMethod(cx, obj, id, vp); #endif return obj->getGeneric(cx, id, vp); } inline bool GetPropertyOperation(JSContext *cx, JSScript *script, jsbytecode *pc, Value &lval, Value *vp) { JS_ASSERT(vp != &lval); JSOp op = JSOp(*pc); if (op == JSOP_LENGTH) { /* Optimize length accesses on strings, arrays, and arguments. */ if (lval.isString()) { *vp = Int32Value(lval.toString()->length()); return true; } if (IsOptimizedArguments(cx->fp(), &lval)) { *vp = Int32Value(cx->fp()->numActualArgs()); return true; } if (lval.isObject()) { JSObject *obj = &lval.toObject(); if (obj->isArray()) { uint32_t length = obj->getArrayLength(); *vp = NumberValue(length); return true; } if (obj->isArguments()) { ArgumentsObject *argsobj = &obj->asArguments(); if (!argsobj->hasOverriddenLength()) { uint32_t length = argsobj->initialLength(); JS_ASSERT(length < INT32_MAX); *vp = Int32Value(int32_t(length)); return true; } } if (obj->isTypedArray()) { *vp = Int32Value(TypedArray::length(obj)); return true; } } } RootedObject obj(cx, ValueToObject(cx, lval)); if (!obj) return false; PropertyCacheEntry *entry; Rooted obj2(cx); PropertyName *name; JS_PROPERTY_CACHE(cx).test(cx, pc, obj.get(), obj2.get(), entry, name); if (!name) { AssertValidPropertyCacheHit(cx, obj, obj2, entry); if (!NativeGet(cx, obj, obj2, entry->prop, JSGET_CACHE_RESULT, vp)) return false; return true; } RootedId id(cx, NameToId(name)); if (obj->getOps()->getProperty) { if (!GetPropertyGenericMaybeCallXML(cx, op, obj, id, vp)) return false; } else { if (!GetPropertyHelper(cx, obj, id, JSGET_CACHE_RESULT, vp)) return false; } #if JS_HAS_NO_SUCH_METHOD if (op == JSOP_CALLPROP && JS_UNLIKELY(vp->isPrimitive()) && lval.isObject()) { if (!OnUnknownMethod(cx, obj, IdToValue(id), vp)) return false; } #endif return true; } inline bool SetPropertyOperation(JSContext *cx, jsbytecode *pc, const Value &lval, const Value &rval) { RootedObject obj(cx, ValueToObject(cx, lval)); if (!obj) return false; JS_ASSERT_IF(*pc == JSOP_SETNAME || *pc == JSOP_SETGNAME, lval.isObject()); JS_ASSERT_IF(*pc == JSOP_SETGNAME, obj == &cx->fp()->global()); PropertyCacheEntry *entry; JSObject *obj2; PropertyName *name; if (JS_PROPERTY_CACHE(cx).testForSet(cx, pc, obj, &entry, &obj2, &name)) { /* * Property cache hit, only partially confirmed by testForSet. We * know that the entry applies to regs.pc and that obj's shape * matches. * * The entry predicts a set either an existing "own" property, or * on a prototype property that has a setter. */ Shape *shape = entry->prop; JS_ASSERT_IF(shape->isDataDescriptor(), shape->writable()); JS_ASSERT_IF(shape->hasSlot(), entry->isOwnPropertyHit()); if (entry->isOwnPropertyHit() || ((obj2 = obj->getProto()) && obj2->lastProperty() == entry->pshape)) { #ifdef DEBUG if (entry->isOwnPropertyHit()) { JS_ASSERT(obj->nativeLookupNoAllocation(shape->propid()) == shape); } else { JS_ASSERT(obj2->nativeLookupNoAllocation(shape->propid()) == shape); JS_ASSERT(entry->isPrototypePropertyHit()); JS_ASSERT(entry->kshape != entry->pshape); JS_ASSERT(!shape->hasSlot()); } #endif if (shape->hasDefaultSetter() && shape->hasSlot()) { /* Fast path for, e.g., plain Object instance properties. */ obj->nativeSetSlotWithType(cx, shape, rval); } else { RootedValue rref(cx, rval); bool strict = cx->stack.currentScript()->strictModeCode; if (!js_NativeSet(cx, obj, obj, shape, false, strict, rref.address())) return false; } return true; } GET_NAME_FROM_BYTECODE(cx->stack.currentScript(), pc, 0, name); } bool strict = cx->stack.currentScript()->strictModeCode; RootedValue rref(cx, rval); JSOp op = JSOp(*pc); RootedId id(cx, NameToId(name)); if (JS_LIKELY(!obj->getOps()->setProperty)) { unsigned defineHow = (op == JSOP_SETNAME) ? DNP_CACHE_RESULT | DNP_UNQUALIFIED : DNP_CACHE_RESULT; if (!baseops::SetPropertyHelper(cx, obj, obj, id, defineHow, rref.address(), strict)) return false; } else { if (!obj->setGeneric(cx, obj, id, rref.address(), strict)) return false; } return true; } inline bool NameOperation(JSContext *cx, JSScript *script, jsbytecode *pc, Value *vp) { RootedObject obj(cx, cx->stack.currentScriptedScopeChain()); /* * Skip along the scope chain to the enclosing global object. This is * used for GNAME opcodes where the bytecode emitter has determined a * name access must be on the global. It also insulates us from bugs * in the emitter: type inference will assume that GNAME opcodes are * accessing the global object, and the inferred behavior should match * the actual behavior even if the id could be found on the scope chain * before the global object. */ if (js_CodeSpec[*pc].format & JOF_GNAME) obj = &obj->global(); PropertyCacheEntry *entry; Rooted obj2(cx); RootedPropertyName name(cx); JS_PROPERTY_CACHE(cx).test(cx, pc, obj.get(), obj2.get(), entry, name.get()); if (!name) { AssertValidPropertyCacheHit(cx, obj, obj2, entry); if (!NativeGet(cx, obj, obj2, entry->prop, 0, vp)) return false; return true; } RootedShape shape(cx); if (!FindPropertyHelper(cx, name, true, obj, &obj, &obj2, &shape)) return false; if (!shape) { /* Kludge to allow (typeof foo == "undefined") tests. */ JSOp op2 = JSOp(pc[JSOP_NAME_LENGTH]); if (op2 == JSOP_TYPEOF) { vp->setUndefined(); return true; } JSAutoByteString printable; if (js_AtomToPrintableString(cx, name, &printable)) js_ReportIsNotDefined(cx, printable.ptr()); return false; } /* Take the slow path if shape was not found in a native object. */ if (!obj->isNative() || !obj2->isNative()) { Rooted id(cx, NameToId(name)); if (!obj->getGeneric(cx, id, vp)) return false; } else { Rooted normalized(cx, obj); if (normalized->getClass() == &WithClass && !shape->hasDefaultGetter()) normalized = &normalized->asWith().object(); if (!NativeGet(cx, normalized, obj2, shape, 0, vp)) return false; } return true; } inline bool DefVarOrConstOperation(JSContext *cx, HandleObject varobj, HandlePropertyName dn, unsigned attrs) { JS_ASSERT(varobj->isVarObj()); JS_ASSERT(!varobj->getOps()->defineProperty || varobj->isDebugScope()); RootedShape prop(cx); RootedObject obj2(cx); if (!varobj->lookupProperty(cx, dn, &obj2, &prop)) return false; /* Steps 8c, 8d. */ if (!prop || (obj2 != varobj && varobj->isGlobal())) { if (!varobj->defineProperty(cx, dn, UndefinedValue(), JS_PropertyStub, JS_StrictPropertyStub, attrs)) { return false; } } else { /* * Extension: ordinarily we'd be done here -- but for |const|. If we * see a redeclaration that's |const|, we consider it a conflict. */ unsigned oldAttrs; if (!varobj->getPropertyAttributes(cx, dn, &oldAttrs)) return false; if (attrs & JSPROP_READONLY) { JSAutoByteString bytes; if (js_AtomToPrintableString(cx, dn, &bytes)) { JS_ALWAYS_FALSE(JS_ReportErrorFlagsAndNumber(cx, JSREPORT_ERROR, js_GetErrorMessage, NULL, JSMSG_REDECLARED_VAR, (oldAttrs & JSPROP_READONLY) ? "const" : "var", bytes.ptr())); } return false; } } return true; } inline void InterpreterFrames::enableInterruptsIfRunning(JSScript *script) { if (script == regs->fp()->script()) enabler.enableInterrupts(); } static JS_ALWAYS_INLINE bool AddOperation(JSContext *cx, const Value &lhs, const Value &rhs, Value *res) { if (lhs.isInt32() && rhs.isInt32()) { int32_t l = lhs.toInt32(), r = rhs.toInt32(); int32_t sum = l + r; if (JS_UNLIKELY(bool((l ^ sum) & (r ^ sum) & 0x80000000))) { res->setDouble(double(l) + double(r)); types::TypeScript::MonitorOverflow(cx); } else { res->setInt32(sum); } } else #if JS_HAS_XML_SUPPORT if (IsXML(lhs) && IsXML(rhs)) { if (!js_ConcatenateXML(cx, &lhs.toObject(), &rhs.toObject(), res)) return false; types::TypeScript::MonitorUnknown(cx); } else #endif { RootedValue lval_(cx, lhs); RootedValue rval_(cx, rhs); Value &lval = lval_.get(); Value &rval = rval_.get(); /* * If either operand is an object, any non-integer result must be * reported to inference. */ bool lIsObject = lval.isObject(), rIsObject = rval.isObject(); if (!ToPrimitive(cx, &lval)) return false; if (!ToPrimitive(cx, &rval)) return false; bool lIsString, rIsString; if ((lIsString = lval.isString()) | (rIsString = rval.isString())) { RootedString lstr(cx), rstr(cx); if (lIsString) { lstr = lval.toString(); } else { lstr = ToString(cx, lval); if (!lstr) return false; } if (rIsString) { rstr = rval.toString(); } else { rstr = ToString(cx, rval); if (!rstr) return false; } JSString *str = js_ConcatStrings(cx, lstr, rstr); if (!str) return false; if (lIsObject || rIsObject) types::TypeScript::MonitorString(cx); res->setString(str); } else { double l, r; if (!ToNumber(cx, lval, &l) || !ToNumber(cx, rval, &r)) return false; l += r; if (!res->setNumber(l) && (lIsObject || rIsObject || (!lval.isDouble() && !rval.isDouble()))) { types::TypeScript::MonitorOverflow(cx); } } } return true; } static JS_ALWAYS_INLINE bool SubOperation(JSContext *cx, HandleValue lhs, HandleValue rhs, Value *res) { double d1, d2; if (!ToNumber(cx, lhs, &d1) || !ToNumber(cx, rhs, &d2)) return false; double d = d1 - d2; if (!res->setNumber(d) && !(lhs.isDouble() || rhs.isDouble())) types::TypeScript::MonitorOverflow(cx); return true; } static JS_ALWAYS_INLINE bool MulOperation(JSContext *cx, HandleValue lhs, HandleValue rhs, Value *res) { double d1, d2; if (!ToNumber(cx, lhs, &d1) || !ToNumber(cx, rhs, &d2)) return false; double d = d1 * d2; if (!res->setNumber(d) && !(lhs.isDouble() || rhs.isDouble())) types::TypeScript::MonitorOverflow(cx); return true; } static JS_ALWAYS_INLINE bool DivOperation(JSContext *cx, HandleValue lhs, HandleValue rhs, Value *res) { double d1, d2; if (!ToNumber(cx, lhs, &d1) || !ToNumber(cx, rhs, &d2)) return false; res->setNumber(NumberDiv(d1, d2)); if (d2 == 0 || (res->isDouble() && !(lhs.isDouble() || rhs.isDouble()))) types::TypeScript::MonitorOverflow(cx); return true; } static JS_ALWAYS_INLINE bool ModOperation(JSContext *cx, HandleValue lhs, HandleValue rhs, Value *res) { int32_t l, r; if (lhs.isInt32() && rhs.isInt32() && (l = lhs.toInt32()) >= 0 && (r = rhs.toInt32()) > 0) { int32_t mod = l % r; res->setInt32(mod); return true; } double d1, d2; if (!ToNumber(cx, lhs, &d1) || !ToNumber(cx, rhs, &d2)) return false; if (d2 == 0) res->setDouble(js_NaN); else res->setDouble(js_fmod(d1, d2)); types::TypeScript::MonitorOverflow(cx); return true; } static inline bool FetchElementId(JSContext *cx, JSObject *obj, const Value &idval, jsid *idp, Value *vp) { int32_t i_; if (ValueFitsInInt32(idval, &i_) && INT_FITS_IN_JSID(i_)) { *idp = INT_TO_JSID(i_); return true; } return !!InternNonIntElementId(cx, obj, idval, idp, vp); } static JS_ALWAYS_INLINE bool ToIdOperation(JSContext *cx, const Value &objval, const Value &idval, Value *res) { if (idval.isInt32()) { *res = idval; return true; } JSObject *obj = ValueToObject(cx, objval); if (!obj) return false; jsid dummy; if (!InternNonIntElementId(cx, obj, idval, &dummy, res)) return false; if (!res->isInt32()) types::TypeScript::MonitorUnknown(cx); return true; } static JS_ALWAYS_INLINE bool GetObjectElementOperation(JSContext *cx, JSOp op, HandleObject obj, const Value &rref, Value *res) { #if JS_HAS_XML_SUPPORT if (op == JSOP_CALLELEM && JS_UNLIKELY(obj->isXML())) { jsid id; if (!FetchElementId(cx, obj, rref, &id, res)) return false; return js_GetXMLMethod(cx, obj, id, res); } #endif uint32_t index; if (IsDefinitelyIndex(rref, &index)) { do { if (obj->isDenseArray()) { if (index < obj->getDenseArrayInitializedLength()) { *res = obj->getDenseArrayElement(index); if (!res->isMagic()) break; } } else if (obj->isArguments()) { if (obj->asArguments().maybeGetElement(index, res)) break; } if (!obj->getElement(cx, index, res)) return false; } while(0); } else { JSScript *script; jsbytecode *pc; types::TypeScript::GetPcScript(cx, &script, &pc); if (script->hasAnalysis()) script->analysis()->getCode(pc).getStringElement = true; SpecialId special; *res = rref; if (ValueIsSpecial(obj, res, &special, cx)) { if (!obj->getSpecial(cx, obj, special, res)) return false; } else { JSAtom *name = ToAtom(cx, *res); if (!name) return false; if (name->isIndex(&index)) { if (!obj->getElement(cx, index, res)) return false; } else { if (!obj->getProperty(cx, name->asPropertyName(), res)) return false; } } } assertSameCompartment(cx, *res); return true; } static JS_ALWAYS_INLINE bool GetElementOperation(JSContext *cx, JSOp op, Value &lref, const Value &rref, Value *res) { JS_ASSERT(op == JSOP_GETELEM || op == JSOP_CALLELEM); if (lref.isString() && rref.isInt32()) { JSString *str = lref.toString(); int32_t i = rref.toInt32(); if (size_t(i) < str->length()) { str = cx->runtime->staticStrings.getUnitStringForElement(cx, str, size_t(i)); if (!str) return false; res->setString(str); return true; } } StackFrame *fp = cx->fp(); if (IsOptimizedArguments(fp, &lref)) { if (rref.isInt32()) { int32_t i = rref.toInt32(); if (i >= 0 && uint32_t(i) < fp->numActualArgs()) { *res = fp->unaliasedActual(i); return true; } } if (!JSScript::argumentsOptimizationFailed(cx, fp->script())) return false; lref = ObjectValue(fp->argsObj()); } bool isObject = lref.isObject(); RootedObject obj(cx, ValueToObject(cx, lref)); if (!obj) return false; if (!GetObjectElementOperation(cx, op, obj, rref, res)) return false; #if JS_HAS_NO_SUCH_METHOD if (op == JSOP_CALLELEM && JS_UNLIKELY(res->isPrimitive()) && isObject) { if (!OnUnknownMethod(cx, obj, rref, res)) return false; } #endif return true; } static JS_ALWAYS_INLINE bool SetObjectElementOperation(JSContext *cx, Handle obj, HandleId id, const Value &value, bool strict) { types::TypeScript::MonitorAssign(cx, obj, id); do { if (obj->isDenseArray() && JSID_IS_INT(id)) { uint32_t length = obj->getDenseArrayInitializedLength(); int32_t i = JSID_TO_INT(id); if ((uint32_t)i < length) { if (obj->getDenseArrayElement(i).isMagic(JS_ARRAY_HOLE)) { if (js_PrototypeHasIndexedProperties(cx, obj)) break; if ((uint32_t)i >= obj->getArrayLength()) obj->setArrayLength(cx, i + 1); } obj->setDenseArrayElementWithType(cx, i, value); return true; } else { JSScript *script; jsbytecode *pc; types::TypeScript::GetPcScript(cx, &script, &pc); if (script->hasAnalysis()) script->analysis()->getCode(pc).arrayWriteHole = true; } } } while (0); RootedValue tmp(cx, value); return obj->setGeneric(cx, obj, id, tmp.address(), strict); } #define RELATIONAL_OP(OP) \ JS_BEGIN_MACRO \ RootedValue lvalRoot(cx, lhs), rvalRoot(cx, rhs); \ Value &lval = lvalRoot.get(); \ Value &rval = rvalRoot.get(); \ /* Optimize for two int-tagged operands (typical loop control). */ \ if (lval.isInt32() && rval.isInt32()) { \ *res = lval.toInt32() OP rval.toInt32(); \ } else { \ if (!ToPrimitive(cx, JSTYPE_NUMBER, &lval)) \ return false; \ if (!ToPrimitive(cx, JSTYPE_NUMBER, &rval)) \ return false; \ if (lval.isString() && rval.isString()) { \ JSString *l = lval.toString(), *r = rval.toString(); \ int32_t result; \ if (!CompareStrings(cx, l, r, &result)) \ return false; \ *res = result OP 0; \ } else { \ double l, r; \ if (!ToNumber(cx, lval, &l) || !ToNumber(cx, rval, &r)) \ return false;; \ *res = (l OP r); \ } \ } \ return true; \ JS_END_MACRO static JS_ALWAYS_INLINE bool LessThanOperation(JSContext *cx, const Value &lhs, const Value &rhs, bool *res) { RELATIONAL_OP(<); } static JS_ALWAYS_INLINE bool LessThanOrEqualOperation(JSContext *cx, const Value &lhs, const Value &rhs, bool *res) { RELATIONAL_OP(<=); } static JS_ALWAYS_INLINE bool GreaterThanOperation(JSContext *cx, const Value &lhs, const Value &rhs, bool *res) { RELATIONAL_OP(>); } static JS_ALWAYS_INLINE bool GreaterThanOrEqualOperation(JSContext *cx, const Value &lhs, const Value &rhs, bool *res) { RELATIONAL_OP(>=); } #undef RELATIONAL_OP } /* namespace js */ #endif /* jsinterpinlines_h__ */