truffle: src/share/vm/opto/library

comparison src/share/vm/opto/library_call.cpp @ 11080:b800986664f4

7088419: Use x86 Hardware CRC32 Instruction with java.util.zip.CRC32 Summary: add intrinsics using new instruction to interpreter, C1, C2, for suitable x86; add test Reviewed-by: kvn, twisti

author	drchase
date	Tue, 02 Jul 2013 20:42:12 -0400
parents	f2110083203d
children	acedd49a1bce

comparison

equal deleted inserted replaced

-:738e04fb1232
+:b800986664f4
 bool inline_aescrypt_Block(vmIntrinsics::ID id);
 bool inline_cipherBlockChaining_AESCrypt(vmIntrinsics::ID id);
 Node* inline_cipherBlockChaining_AESCrypt_predicate(bool decrypting);
 Node* get_key_start_from_aescrypt_object(Node* aescrypt_object);
 bool inline_encodeISOArray();
+bool inline_updateCRC32();
+bool inline_updateBytesCRC32();
+bool inline_updateByteBufferCRC32();
 };
 //---------------------------make_vm_intrinsic----------------------------
 CallGenerator* Compile::make_vm_intrinsic(ciMethod* m, bool is_virtual) {
 if (!UseAESIntrinsics) return NULL;
 // these two require the predicated logic
 is_predicted = true;
 break;
+case vmIntrinsics::_updateCRC32:
+case vmIntrinsics::_updateBytesCRC32:
+case vmIntrinsics::_updateByteBufferCRC32:
+if (!UseCRC32Intrinsics) return NULL;
+break;
 default:
 assert(id <= vmIntrinsics::LAST_COMPILER_INLINE, "caller responsibility");
 assert(id != vmIntrinsics::_Object_init && id != vmIntrinsics::_invoke, "enum out of order?");
 break;
 }
 return inline_cipherBlockChaining_AESCrypt(intrinsic_id());
 case vmIntrinsics::_encodeISOArray:
 return inline_encodeISOArray();
+case vmIntrinsics::_updateCRC32:
+return inline_updateCRC32();
+case vmIntrinsics::_updateBytesCRC32:
+return inline_updateBytesCRC32();
+case vmIntrinsics::_updateByteBufferCRC32:
+return inline_updateByteBufferCRC32();
 default:
 // If you get here, it may be that someone has added a new intrinsic
 // to the list in vmSymbols.hpp without implementing it here.
 #ifndef PRODUCT
 if ((PrintMiscellaneous && (Verbose || WizardMode)) || PrintOpto) {
 return NULL;
 }
 IfNode* iff = create_and_map_if(control(), test, true_prob, COUNT_UNKNOWN);
-Node* if_slow = _gvn.transform( new (C) IfTrueNode(iff) );
+Node* if_slow = _gvn.transform(new (C) IfTrueNode(iff));
 if (if_slow == top()) {
 // The slow branch is never taken.  No need to build this guard.
 return NULL;
 }
 if (region != NULL)
 region->add_req(if_slow);
-Node* if_fast = _gvn.transform( new (C) IfFalseNode(iff) );
+Node* if_fast = _gvn.transform(new (C) IfFalseNode(iff));
 set_control(if_fast);
 return if_slow;
 }
 Node* *pos_index) {
 if (stopped())
 return NULL;                // already stopped
 if (_gvn.type(index)->higher_equal(TypeInt::POS)) // [0,maxint]
 return NULL;                // index is already adequately typed
-Node* cmp_lt = _gvn.transform( new (C) CmpINode(index, intcon(0)) );
+Node* cmp_lt = _gvn.transform(new (C) CmpINode(index, intcon(0)));
-Node* bol_lt = _gvn.transform( new (C) BoolNode(cmp_lt, BoolTest::lt) );
+Node* bol_lt = _gvn.transform(new (C) BoolNode(cmp_lt, BoolTest::lt));
 Node* is_neg = generate_guard(bol_lt, region, PROB_MIN);
 if (is_neg != NULL && pos_index != NULL) {
 // Emulate effect of Parse::adjust_map_after_if.
 Node* ccast = new (C) CastIINode(index, TypeInt::POS);
 ccast->set_req(0, control());
 Node* *pos_index) {
 if (stopped())
 return NULL;                // already stopped
 if (_gvn.type(index)->higher_equal(TypeInt::POS1)) // [1,maxint]
 return NULL;                // index is already adequately typed
-Node* cmp_le = _gvn.transform( new (C) CmpINode(index, intcon(0)) );
+Node* cmp_le = _gvn.transform(new (C) CmpINode(index, intcon(0)));
 BoolTest::mask le_or_eq = (never_negative ? BoolTest::eq : BoolTest::le);
-Node* bol_le = _gvn.transform( new (C) BoolNode(cmp_le, le_or_eq) );
+Node* bol_le = _gvn.transform(new (C) BoolNode(cmp_le, le_or_eq));
 Node* is_notp = generate_guard(bol_le, NULL, PROB_MIN);
 if (is_notp != NULL && pos_index != NULL) {
 // Emulate effect of Parse::adjust_map_after_if.
 Node* ccast = new (C) CastIINode(index, TypeInt::POS1);
 ccast->set_req(0, control());
 bool zero_offset = _gvn.type(offset) == TypeInt::ZERO;
 if (zero_offset && subseq_length->eqv_uncast(array_length))
 return NULL;                // common case of whole-array copy
 Node* last = subseq_length;
 if (!zero_offset)             // last += offset
-last = _gvn.transform( new (C) AddINode(last, offset));
+last = _gvn.transform(new (C) AddINode(last, offset));
-Node* cmp_lt = _gvn.transform( new (C) CmpUNode(array_length, last) );
+Node* cmp_lt = _gvn.transform(new (C) CmpUNode(array_length, last));
-Node* bol_lt = _gvn.transform( new (C) BoolNode(cmp_lt, BoolTest::lt) );
+Node* bol_lt = _gvn.transform(new (C) BoolNode(cmp_lt, BoolTest::lt));
 Node* is_over = generate_guard(bol_lt, region, PROB_MIN);
 return is_over;
 }
 // Get length of argument
 Node* argument_cnt  = load_String_length(no_ctrl, argument);
 // Check for receiver count != argument count
-Node* cmp = _gvn.transform( new(C) CmpINode(receiver_cnt, argument_cnt) );
+Node* cmp = _gvn.transform(new(C) CmpINode(receiver_cnt, argument_cnt));
-Node* bol = _gvn.transform( new(C) BoolNode(cmp, BoolTest::ne) );
+Node* bol = _gvn.transform(new(C) BoolNode(cmp, BoolTest::ne));
 Node* if_ne = generate_slow_guard(bol, NULL);
 if (if_ne != NULL) {
 phi->init_req(4, intcon(0));
 region->init_req(4, if_ne);
 }
 Node* source        = load_String_value(no_ctrl, string_object);
 Node* sourceOffset  = load_String_offset(no_ctrl, string_object);
 Node* sourceCount   = load_String_length(no_ctrl, string_object);
-Node* target = _gvn.transform( makecon(TypeOopPtr::make_from_constant(target_array, true)) );
+Node* target = _gvn.transform( makecon(TypeOopPtr::make_from_constant(target_array, true)));
 jint target_length = target_array->length();
 const TypeAry* target_array_type = TypeAry::make(TypeInt::CHAR, TypeInt::make(0, target_length, Type::WidenMin));
 const TypeAryPtr* target_type = TypeAryPtr::make(TypePtr::BotPTR, target_array_type, target_array->klass(), true, Type::OffsetBot);
 IdealKit kit(this, false, true);
 // Get length of source string
 Node* substr_cnt  = load_String_length(no_ctrl, arg);
 // Check for substr count > string count
-Node* cmp = _gvn.transform( new(C) CmpINode(substr_cnt, source_cnt) );
+Node* cmp = _gvn.transform(new(C) CmpINode(substr_cnt, source_cnt));
-Node* bol = _gvn.transform( new(C) BoolNode(cmp, BoolTest::gt) );
+Node* bol = _gvn.transform(new(C) BoolNode(cmp, BoolTest::gt));
 Node* if_gt = generate_slow_guard(bol, NULL);
 if (if_gt != NULL) {
 result_phi->init_req(2, intcon(-1));
 result_rgn->init_req(2, if_gt);
 }
 if (!stopped()) {
 // Check for substr count == 0
-cmp = _gvn.transform( new(C) CmpINode(substr_cnt, intcon(0)) );
+cmp = _gvn.transform(new(C) CmpINode(substr_cnt, intcon(0)));
-bol = _gvn.transform( new(C) BoolNode(cmp, BoolTest::eq) );
+bol = _gvn.transform(new(C) BoolNode(cmp, BoolTest::eq));
 Node* if_zero = generate_slow_guard(bol, NULL);
 if (if_zero != NULL) {
 result_phi->init_req(3, intcon(0));
 result_rgn->init_req(3, if_zero);
 }
 // Node for PI/4 constant
 Node *pi4 = makecon(TypeD::make(pi_4));
 // Check PI/4 : abs(arg)
 Node *cmp = _gvn.transform(new (C) CmpDNode(pi4,abs));
 // Check: If PI/4 < abs(arg) then go slow
-Node *bol = _gvn.transform( new (C) BoolNode( cmp, BoolTest::lt ) );
+Node *bol = _gvn.transform(new (C) BoolNode( cmp, BoolTest::lt ));
 // Branch either way
 IfNode *iff = create_and_xform_if(control(),bol, PROB_STATIC_FREQUENT, COUNT_UNKNOWN);
 set_control(opt_iff(r,iff));
 // Set fast path result
 } else {
 // If this inlining ever returned NaN in the past, we compile a call
 // to the runtime to properly handle corner cases
 IfNode* iff = create_and_xform_if(control(), bolisnum, PROB_STATIC_FREQUENT, COUNT_UNKNOWN);
-Node* if_slow = _gvn.transform( new (C) IfFalseNode(iff) );
+Node* if_slow = _gvn.transform(new (C) IfFalseNode(iff));
-Node* if_fast = _gvn.transform( new (C) IfTrueNode(iff) );
+Node* if_fast = _gvn.transform(new (C) IfTrueNode(iff));
 if (!if_slow->is_top()) {
 RegionNode* result_region = new (C) RegionNode(3);
 PhiNode*    result_val = new (C) PhiNode(result_region, Type::DOUBLE);
 // Node for 0 constant
 Node *zeronode = makecon(TypeD::ZERO);
 // Check x:0
 Node *cmp = _gvn.transform(new (C) CmpDNode(x, zeronode));
 // Check: If (x<=0) then go complex path
-Node *bol1 = _gvn.transform( new (C) BoolNode( cmp, BoolTest::le ) );
+Node *bol1 = _gvn.transform(new (C) BoolNode( cmp, BoolTest::le ));
 // Branch either way
 IfNode *if1 = create_and_xform_if(control(),bol1, PROB_STATIC_INFREQUENT, COUNT_UNKNOWN);
 // Fast path taken; set region slot 3
-Node *fast_taken = _gvn.transform( new (C) IfFalseNode(if1) );
+Node *fast_taken = _gvn.transform(new (C) IfFalseNode(if1));
 r->init_req(3,fast_taken); // Capture fast-control
 // Fast path not-taken, i.e. slow path
-Node *complex_path = _gvn.transform( new (C) IfTrueNode(if1) );
+Node *complex_path = _gvn.transform(new (C) IfTrueNode(if1));
 // Set fast path result
-Node *fast_result = _gvn.transform( new (C) PowDNode(C, control(), x, y) );
+Node *fast_result = _gvn.transform(new (C) PowDNode(C, control(), x, y));
 phi->init_req(3, fast_result);
 // Complex path
 // Build the second if node (if y is long)
 // Node for (long)y
-Node *longy = _gvn.transform( new (C) ConvD2LNode(y));
+Node *longy = _gvn.transform(new (C) ConvD2LNode(y));
 // Node for (double)((long) y)
-Node *doublelongy= _gvn.transform( new (C) ConvL2DNode(longy));
+Node *doublelongy= _gvn.transform(new (C) ConvL2DNode(longy));
 // Check (double)((long) y) : y
 Node *cmplongy= _gvn.transform(new (C) CmpDNode(doublelongy, y));
 // Check if (y isn't long) then go to slow path
-Node *bol2 = _gvn.transform( new (C) BoolNode( cmplongy, BoolTest::ne ) );
+Node *bol2 = _gvn.transform(new (C) BoolNode( cmplongy, BoolTest::ne ));
 // Branch either way
 IfNode *if2 = create_and_xform_if(complex_path,bol2, PROB_STATIC_INFREQUENT, COUNT_UNKNOWN);
-Node* ylong_path = _gvn.transform( new (C) IfFalseNode(if2));
+Node* ylong_path = _gvn.transform(new (C) IfFalseNode(if2));
-Node *slow_path = _gvn.transform( new (C) IfTrueNode(if2) );
+Node *slow_path = _gvn.transform(new (C) IfTrueNode(if2));
 // Calculate DPow(abs(x), y)*(1 & (long)y)
 // Node for constant 1
 Node *conone = longcon(1);
 // 1& (long)y
-Node *signnode= _gvn.transform( new (C) AndLNode(conone, longy) );
+Node *signnode= _gvn.transform(new (C) AndLNode(conone, longy));
 // A huge number is always even. Detect a huge number by checking
 // if y + 1 == y and set integer to be tested for parity to 0.
 // Required for corner case:
 // (long)9.223372036854776E18 = max_jlong
 // (double)(long)9.223372036854776E18 = 9.223372036854776E18
 // max_jlong is odd but 9.223372036854776E18 is even
-Node* yplus1 = _gvn.transform( new (C) AddDNode(y, makecon(TypeD::make(1))));
+Node* yplus1 = _gvn.transform(new (C) AddDNode(y, makecon(TypeD::make(1))));
 Node *cmpyplus1= _gvn.transform(new (C) CmpDNode(yplus1, y));
-Node *bolyplus1 = _gvn.transform( new (C) BoolNode( cmpyplus1, BoolTest::eq ) );
+Node *bolyplus1 = _gvn.transform(new (C) BoolNode( cmpyplus1, BoolTest::eq ));
 Node* correctedsign = NULL;
 if (ConditionalMoveLimit != 0) {
 correctedsign = _gvn.transform( CMoveNode::make(C, NULL, bolyplus1, signnode, longcon(0), TypeLong::LONG));
 } else {
 IfNode *ifyplus1 = create_and_xform_if(ylong_path,bolyplus1, PROB_FAIR, COUNT_UNKNOWN);
 RegionNode *r = new (C) RegionNode(3);
 Node *phi = new (C) PhiNode(r, TypeLong::LONG);
-r->init_req(1, _gvn.transform( new (C) IfFalseNode(ifyplus1)));
+r->init_req(1, _gvn.transform(new (C) IfFalseNode(ifyplus1)));
-r->init_req(2, _gvn.transform( new (C) IfTrueNode(ifyplus1)));
+r->init_req(2, _gvn.transform(new (C) IfTrueNode(ifyplus1)));
 phi->init_req(1, signnode);
 phi->init_req(2, longcon(0));
 correctedsign = _gvn.transform(phi);
 ylong_path = _gvn.transform(r);
 record_for_igvn(r);
 // zero node
 Node *conzero = longcon(0);
 // Check (1&(long)y)==0?
 Node *cmpeq1 = _gvn.transform(new (C) CmpLNode(correctedsign, conzero));
 // Check if (1&(long)y)!=0?, if so the result is negative
-Node *bol3 = _gvn.transform( new (C) BoolNode( cmpeq1, BoolTest::ne ) );
+Node *bol3 = _gvn.transform(new (C) BoolNode( cmpeq1, BoolTest::ne ));
 // abs(x)
-Node *absx=_gvn.transform( new (C) AbsDNode(x));
+Node *absx=_gvn.transform(new (C) AbsDNode(x));
 // abs(x)^y
-Node *absxpowy = _gvn.transform( new (C) PowDNode(C, control(), absx, y) );
+Node *absxpowy = _gvn.transform(new (C) PowDNode(C, control(), absx, y));
 // -abs(x)^y
 Node *negabsxpowy = _gvn.transform(new (C) NegDNode (absxpowy));
 // (1&(long)y)==1?-DPow(abs(x), y):DPow(abs(x), y)
 Node *signresult = NULL;
 if (ConditionalMoveLimit != 0) {
 signresult = _gvn.transform( CMoveNode::make(C, NULL, bol3, absxpowy, negabsxpowy, Type::DOUBLE));
 } else {
 IfNode *ifyeven = create_and_xform_if(ylong_path,bol3, PROB_FAIR, COUNT_UNKNOWN);
 RegionNode *r = new (C) RegionNode(3);
 Node *phi = new (C) PhiNode(r, Type::DOUBLE);
-r->init_req(1, _gvn.transform( new (C) IfFalseNode(ifyeven)));
+r->init_req(1, _gvn.transform(new (C) IfFalseNode(ifyeven)));
-r->init_req(2, _gvn.transform( new (C) IfTrueNode(ifyeven)));
+r->init_req(2, _gvn.transform(new (C) IfTrueNode(ifyeven)));
 phi->init_req(1, absxpowy);
 phi->init_req(2, negabsxpowy);
 signresult = _gvn.transform(phi);
 ylong_path = _gvn.transform(r);
 record_for_igvn(r);
 // and similar uses of System.arraycopy.
 // First, compute the normalized version of CmpI(x, y).
 int   cmp_op = Op_CmpI;
 Node* xkey = xvalue;
 Node* ykey = yvalue;
-Node* ideal_cmpxy = _gvn.transform( new(C) CmpINode(xkey, ykey) );
+Node* ideal_cmpxy = _gvn.transform(new(C) CmpINode(xkey, ykey));
 if (ideal_cmpxy->is_Cmp()) {
 // E.g., if we have CmpI(length - offset, count),
 // it might idealize to CmpI(length, count + offset)
 cmp_op = ideal_cmpxy->Opcode();
 xkey = ideal_cmpxy->in(1);
 Node* answer_if_false = NULL;
 switch (best_btest) {
 default:
 if (cmpxy == NULL)
 cmpxy = ideal_cmpxy;
-best_bol = _gvn.transform( new(C) BoolNode(cmpxy, BoolTest::lt) );
+best_bol = _gvn.transform(new(C) BoolNode(cmpxy, BoolTest::lt));
 // and fall through:
 case BoolTest::lt:          // x < y
 case BoolTest::le:          // x <= y
 answer_if_true  = (want_max ? yvalue : xvalue);
 answer_if_false = (want_max ? xvalue : yvalue);
 if (base_type == NULL) {
 // Unknown type.
 return Type::AnyPtr;
 } else if (base_type == TypePtr::NULL_PTR) {
 // Since this is a NULL+long form, we have to switch to a rawptr.
-base   = _gvn.transform( new (C) CastX2PNode(offset) );
+base   = _gvn.transform(new (C) CastX2PNode(offset));
 offset = MakeConX(0);
 return Type::RawPtr;
 } else if (base_type->base() == Type::RawPtr) {
 return Type::RawPtr;
 } else if (base_type->isa_oopptr()) {
 val = dstore_rounding(val);
 break;
 case T_ADDRESS:
 // Repackage the long as a pointer.
 val = ConvL2X(val);
-val = _gvn.transform( new (C) CastX2PNode(val) );
+val = _gvn.transform(new (C) CastX2PNode(val));
 break;
 }
 if (type != T_OBJECT ) {
 (void) store_to_memory(control(), adr, val, type, adr_type, is_volatile);
 }
 // SCMemProjNodes represent the memory state of a LoadStore. Their
 // main role is to prevent LoadStore nodes from being optimized away
 // when their results aren't used.
-Node* proj = _gvn.transform( new (C) SCMemProjNode(load_store));
+Node* proj = _gvn.transform(new (C) SCMemProjNode(load_store));
 set_memory(proj, alias_idx);
 // Add the trailing membar surrounding the access
 insert_mem_bar(Op_MemBarCPUOrder);
 insert_mem_bar(Op_MemBarAcquire);
 // (a) Receiving thread must be the current thread.
 Node* rec_thr = argument(0);
 Node* tls_ptr = NULL;
 Node* cur_thr = generate_current_thread(tls_ptr);
-Node* cmp_thr = _gvn.transform( new (C) CmpPNode(cur_thr, rec_thr) );
+Node* cmp_thr = _gvn.transform(new (C) CmpPNode(cur_thr, rec_thr));
-Node* bol_thr = _gvn.transform( new (C) BoolNode(cmp_thr, BoolTest::ne) );
+Node* bol_thr = _gvn.transform(new (C) BoolNode(cmp_thr, BoolTest::ne));
 generate_slow_guard(bol_thr, slow_region);
 // (b) Interrupt bit on TLS must be false.
 Node* p = basic_plus_adr(top()/*!oop*/, tls_ptr, in_bytes(JavaThread::osthread_offset()));
 Node* osthread = make_load(NULL, p, TypeRawPtr::NOTNULL, T_ADDRESS);
 p = basic_plus_adr(top()/*!oop*/, osthread, in_bytes(OSThread::interrupted_offset()));
 // Set the control input on the field _interrupted read to prevent it floating up.
 Node* int_bit = make_load(control(), p, TypeInt::BOOL, T_INT);
-Node* cmp_bit = _gvn.transform( new (C) CmpINode(int_bit, intcon(0)) );
+Node* cmp_bit = _gvn.transform(new (C) CmpINode(int_bit, intcon(0)));
-Node* bol_bit = _gvn.transform( new (C) BoolNode(cmp_bit, BoolTest::ne) );
+Node* bol_bit = _gvn.transform(new (C) BoolNode(cmp_bit, BoolTest::ne));
 IfNode* iff_bit = create_and_map_if(control(), bol_bit, PROB_UNLIKELY_MAG(3), COUNT_UNKNOWN);
 // First fast path:  if (!TLS._interrupted) return false;
-Node* false_bit = _gvn.transform( new (C) IfFalseNode(iff_bit) );
+Node* false_bit = _gvn.transform(new (C) IfFalseNode(iff_bit));
 result_rgn->init_req(no_int_result_path, false_bit);
 result_val->init_req(no_int_result_path, intcon(0));
 // drop through to next case
-set_control( _gvn.transform(new (C) IfTrueNode(iff_bit)) );
+set_control( _gvn.transform(new (C) IfTrueNode(iff_bit)));
 // (c) Or, if interrupt bit is set and clear_int is false, use 2nd fast path.
 Node* clr_arg = argument(1);
-Node* cmp_arg = _gvn.transform( new (C) CmpINode(clr_arg, intcon(0)) );
+Node* cmp_arg = _gvn.transform(new (C) CmpINode(clr_arg, intcon(0)));
-Node* bol_arg = _gvn.transform( new (C) BoolNode(cmp_arg, BoolTest::ne) );
+Node* bol_arg = _gvn.transform(new (C) BoolNode(cmp_arg, BoolTest::ne));
 IfNode* iff_arg = create_and_map_if(control(), bol_arg, PROB_FAIR, COUNT_UNKNOWN);
 // Second fast path:  ... else if (!clear_int) return true;
-Node* false_arg = _gvn.transform( new (C) IfFalseNode(iff_arg) );
+Node* false_arg = _gvn.transform(new (C) IfFalseNode(iff_arg));
 result_rgn->init_req(no_clear_result_path, false_arg);
 result_val->init_req(no_clear_result_path, intcon(1));
 // drop through to next case
-set_control( _gvn.transform(new (C) IfTrueNode(iff_arg)) );
+set_control( _gvn.transform(new (C) IfTrueNode(iff_arg)));
 // (d) Otherwise, go to the slow path.
 slow_region->add_req(control());
-set_control( _gvn.transform(slow_region) );
+set_control( _gvn.transform(slow_region));
 if (stopped()) {
 // There is no slow path.
 result_rgn->init_req(slow_result_path, top());
 result_val->init_req(slow_result_path, top());
 int null_path,
 int offset) {
 if (region == NULL)  never_see_null = true;
 Node* p = basic_plus_adr(mirror, offset);
 const TypeKlassPtr*  kls_type = TypeKlassPtr::OBJECT_OR_NULL;
-Node* kls = _gvn.transform( LoadKlassNode::make(_gvn, immutable_memory(), p, TypeRawPtr::BOTTOM, kls_type) );
+Node* kls = _gvn.transform( LoadKlassNode::make(_gvn, immutable_memory(), p, TypeRawPtr::BOTTOM, kls_type));
 Node* null_ctl = top();
 kls = null_check_oop(kls, &null_ctl, never_see_null);
 if (region != NULL) {
 // Set region->in(null_path) if the mirror is a primitive (e.g, int.class).
 region->init_req(null_path, null_ctl);
 // Like generate_guard, adds a new path onto the region.
 Node* modp = basic_plus_adr(kls, in_bytes(Klass::access_flags_offset()));
 Node* mods = make_load(NULL, modp, TypeInt::INT, T_INT);
 Node* mask = intcon(modifier_mask);
 Node* bits = intcon(modifier_bits);
-Node* mbit = _gvn.transform( new (C) AndINode(mods, mask) );
+Node* mbit = _gvn.transform(new (C) AndINode(mods, mask));
-Node* cmp  = _gvn.transform( new (C) CmpINode(mbit, bits) );
+Node* cmp  = _gvn.transform(new (C) CmpINode(mbit, bits));
-Node* bol  = _gvn.transform( new (C) BoolNode(cmp, BoolTest::ne) );
+Node* bol  = _gvn.transform(new (C) BoolNode(cmp, BoolTest::ne));
 return generate_fair_guard(bol, region);
 }
 Node* LibraryCallKit::generate_interface_guard(Node* kls, RegionNode* region) {
 return generate_access_flags_guard(kls, JVM_ACC_INTERFACE, 0, region);
 }
 if (generate_array_guard(kls, region) != NULL)
 // A guard was added.  If the guard is taken, it was an array.
 phi->add_req(makecon(TypeInstPtr::make(env()->Object_klass()->java_mirror())));
 // If we fall through, it's a plain class.  Get its _super.
 p = basic_plus_adr(kls, in_bytes(Klass::super_offset()));
-kls = _gvn.transform( LoadKlassNode::make(_gvn, immutable_memory(), p, TypeRawPtr::BOTTOM, TypeKlassPtr::OBJECT_OR_NULL) );
+kls = _gvn.transform( LoadKlassNode::make(_gvn, immutable_memory(), p, TypeRawPtr::BOTTOM, TypeKlassPtr::OBJECT_OR_NULL));
 null_ctl = top();
 kls = null_check_oop(kls, &null_ctl);
 if (null_ctl != top()) {
 // If the guard is taken, Object.superClass is null (both klass and mirror).
 region->add_req(null_ctl);
 // we must return true when they are identical primitives.
 // It is convenient to test this after the first null klass check.
 set_control(region->in(_prim_0_path)); // go back to first null check
 if (!stopped()) {
 // Since superc is primitive, make a guard for the superc==subc case.
-Node* cmp_eq = _gvn.transform( new (C) CmpPNode(args[0], args[1]) );
+Node* cmp_eq = _gvn.transform(new (C) CmpPNode(args[0], args[1]));
-Node* bol_eq = _gvn.transform( new (C) BoolNode(cmp_eq, BoolTest::eq) );
+Node* bol_eq = _gvn.transform(new (C) BoolNode(cmp_eq, BoolTest::eq));
 generate_guard(bol_eq, region, PROB_FAIR);
 if (region->req() == PATH_LIMIT+1) {
 // A guard was added.  If the added guard is taken, superc==subc.
 region->swap_edges(PATH_LIMIT, _prim_same_path);
 region->del_req(PATH_LIMIT);
 // Now test the correct condition.
 jint  nval = (obj_array
 ? ((jint)Klass::_lh_array_tag_type_value
 <<    Klass::_lh_array_tag_shift)
 : Klass::_lh_neutral_value);
-Node* cmp = _gvn.transform( new(C) CmpINode(layout_val, intcon(nval)) );
+Node* cmp = _gvn.transform(new(C) CmpINode(layout_val, intcon(nval)));
 BoolTest::mask btest = BoolTest::lt;  // correct for testing is_[obj]array
 // invert the test if we are looking for a non-array
 if (not_array)  btest = BoolTest(btest).negate();
-Node* bol = _gvn.transform( new(C) BoolNode(cmp, btest) );
+Node* bol = _gvn.transform(new(C) BoolNode(cmp, btest));
 return generate_fair_guard(bol, region);
 }
 //-----------------------inline_native_newArray--------------------------
 result_mem->init_req(_normal_path, reset_memory());
 }
 // Return the combined state.
 set_i_o(        _gvn.transform(result_io)  );
-set_all_memory( _gvn.transform(result_mem) );
+set_all_memory( _gvn.transform(result_mem));
 C->set_has_split_ifs(true); // Has chance for split-if optimization
 set_result(result_reg, result_val);
 return true;
 }
 // Compare the target method with the expected method (e.g., Object.hashCode).
 const TypePtr* native_call_addr = TypeMetadataPtr::make(method);
 Node* native_call = makecon(native_call_addr);
-Node* chk_native  = _gvn.transform( new(C) CmpPNode(target_call, native_call) );
+Node* chk_native  = _gvn.transform(new(C) CmpPNode(target_call, native_call));
-Node* test_native = _gvn.transform( new(C) BoolNode(chk_native, BoolTest::ne) );
+Node* test_native = _gvn.transform(new(C) BoolNode(chk_native, BoolTest::ne));
 return generate_slow_guard(test_native, slow_region);
 }
 //-----------------------generate_method_call----------------------------
 Node* header_addr = basic_plus_adr(obj, oopDesc::mark_offset_in_bytes());
 Node* header = make_load(control(), header_addr, TypeX_X, TypeX_X->basic_type());
 // Test the header to see if it is unlocked.
 Node *lock_mask      = _gvn.MakeConX(markOopDesc::biased_lock_mask_in_place);
-Node *lmasked_header = _gvn.transform( new (C) AndXNode(header, lock_mask) );
+Node *lmasked_header = _gvn.transform(new (C) AndXNode(header, lock_mask));
 Node *unlocked_val   = _gvn.MakeConX(markOopDesc::unlocked_value);
-Node *chk_unlocked   = _gvn.transform( new (C) CmpXNode( lmasked_header, unlocked_val));
+Node *chk_unlocked   = _gvn.transform(new (C) CmpXNode( lmasked_header, unlocked_val));
-Node *test_unlocked  = _gvn.transform( new (C) BoolNode( chk_unlocked, BoolTest::ne) );
+Node *test_unlocked  = _gvn.transform(new (C) BoolNode( chk_unlocked, BoolTest::ne));
 generate_slow_guard(test_unlocked, slow_region);
 // Get the hash value and check to see that it has been properly assigned.
 // We depend on hash_mask being at most 32 bits and avoid the use of
 // hash_mask_in_place because it could be larger than 32 bits in a 64-bit
 // vm: see markOop.hpp.
 Node *hash_mask      = _gvn.intcon(markOopDesc::hash_mask);
 Node *hash_shift     = _gvn.intcon(markOopDesc::hash_shift);
-Node *hshifted_header= _gvn.transform( new (C) URShiftXNode(header, hash_shift) );
+Node *hshifted_header= _gvn.transform(new (C) URShiftXNode(header, hash_shift));
 // This hack lets the hash bits live anywhere in the mark object now, as long
 // as the shift drops the relevant bits into the low 32 bits.  Note that
 // Java spec says that HashCode is an int so there's no point in capturing
 // an 'X'-sized hashcode (32 in 32-bit build or 64 in 64-bit build).
 hshifted_header      = ConvX2I(hshifted_header);
-Node *hash_val       = _gvn.transform( new (C) AndINode(hshifted_header, hash_mask) );
+Node *hash_val       = _gvn.transform(new (C) AndINode(hshifted_header, hash_mask));
 Node *no_hash_val    = _gvn.intcon(markOopDesc::no_hash);
-Node *chk_assigned   = _gvn.transform( new (C) CmpINode( hash_val, no_hash_val));
+Node *chk_assigned   = _gvn.transform(new (C) CmpINode( hash_val, no_hash_val));
-Node *test_assigned  = _gvn.transform( new (C) BoolNode( chk_assigned, BoolTest::eq) );
+Node *test_assigned  = _gvn.transform(new (C) BoolNode( chk_assigned, BoolTest::eq));
 generate_slow_guard(test_assigned, slow_region);
 Node* init_mem = reset_memory();
 // fill in the rest of the null path:
 result_mem ->set_req(_slow_path, reset_memory());
 }
 // Return the combined state.
 set_i_o(        _gvn.transform(result_io)  );
-set_all_memory( _gvn.transform(result_mem) );
+set_all_memory( _gvn.transform(result_mem));
 set_result(result_reg, result_val);
 return true;
 }
 // NaN case is less traveled, which makes all the difference.
 IfNode *ifisnan = create_and_xform_if(control(), bolisnan, PROB_STATIC_FREQUENT, COUNT_UNKNOWN);
 Node *opt_isnan = _gvn.transform(ifisnan);
 assert( opt_isnan->is_If(), "Expect an IfNode");
 IfNode *opt_ifisnan = (IfNode*)opt_isnan;
-Node *iftrue = _gvn.transform( new (C) IfTrueNode(opt_ifisnan) );
+Node *iftrue = _gvn.transform(new (C) IfTrueNode(opt_ifisnan));
 set_control(iftrue);
 static const jlong nan_bits = CONST64(0x7ff8000000000000);
 Node *slow_result = longcon(nan_bits); // return NaN
 // NaN case is less traveled, which makes all the difference.
 IfNode *ifisnan = create_and_xform_if(control(), bolisnan, PROB_STATIC_FREQUENT, COUNT_UNKNOWN);
 Node *opt_isnan = _gvn.transform(ifisnan);
 assert( opt_isnan->is_If(), "Expect an IfNode");
 IfNode *opt_ifisnan = (IfNode*)opt_isnan;
-Node *iftrue = _gvn.transform( new (C) IfTrueNode(opt_ifisnan) );
+Node *iftrue = _gvn.transform(new (C) IfTrueNode(opt_ifisnan));
 set_control(iftrue);
 static const jint nan_bits = 0x7fc00000;
 Node *slow_result = makecon(TypeInt::make(nan_bits)); // return NaN
 src  = basic_plus_adr(src,  base_off);
 dest = basic_plus_adr(dest, base_off);
 // Compute the length also, if needed:
 Node* countx = size;
-countx = _gvn.transform( new (C) SubXNode(countx, MakeConX(base_off)) );
+countx = _gvn.transform(new (C) SubXNode(countx, MakeConX(base_off)));
-countx = _gvn.transform( new (C) URShiftXNode(countx, intcon(LogBytesPerLong) ));
+countx = _gvn.transform(new (C) URShiftXNode(countx, intcon(LogBytesPerLong) ));
 const TypePtr* raw_adr_type = TypeRawPtr::BOTTOM;
 bool disjoint_bases = true;
 generate_unchecked_arraycopy(raw_adr_type, T_LONG, disjoint_bases,
 src, NULL, dest, NULL, countx,
 result_i_o ->set_req(_slow_path, i_o());
 result_mem ->set_req(_slow_path, reset_memory());
 }
 // Return the combined state.
-set_control(    _gvn.transform(result_reg) );
+set_control(    _gvn.transform(result_reg));
-set_i_o(        _gvn.transform(result_i_o) );
+set_i_o(        _gvn.transform(result_i_o));
-set_all_memory( _gvn.transform(result_mem) );
+set_all_memory( _gvn.transform(result_mem));
 } // original reexecute is set back here
 set_result(_gvn.transform(result_val));
 return true;
 }
 // We have to initialize the *uncopied* part of the array to zero.
 // The copy destination is the slice dest[off..off+len].  The other slices
 // are dest_head = dest[0..off] and dest_tail = dest[off+len..dest.length].
 Node* dest_size   = alloc->in(AllocateNode::AllocSize);
 Node* dest_length = alloc->in(AllocateNode::ALength);
-Node* dest_tail   = _gvn.transform( new(C) AddINode(dest_offset,
+Node* dest_tail   = _gvn.transform(new(C) AddINode(dest_offset,
-copy_length) );
+copy_length));
 // If there is a head section that needs zeroing, do it now.
 if (find_int_con(dest_offset, -1) != 0) {
 generate_clear_array(adr_type, dest, basic_elem_type,
 intcon(0), dest_offset,
 // There are two wins:  Avoid generating the ClearArray
 // with its attendant messy index arithmetic, and upgrade
 // the copy to a more hardware-friendly word size of 64 bits.
 Node* tail_ctl = NULL;
 if (!stopped() && !dest_tail->eqv_uncast(dest_length)) {
-Node* cmp_lt   = _gvn.transform( new(C) CmpINode(dest_tail, dest_length) );
+Node* cmp_lt   = _gvn.transform(new(C) CmpINode(dest_tail, dest_length));
-Node* bol_lt   = _gvn.transform( new(C) BoolNode(cmp_lt, BoolTest::lt) );
+Node* bol_lt   = _gvn.transform(new(C) BoolNode(cmp_lt, BoolTest::lt));
 tail_ctl = generate_slow_guard(bol_lt, NULL);
 assert(tail_ctl != NULL || !stopped(), "must be an outcome");
 }
 // At this point, let's assume there is no tail.
 generate_clear_array(adr_type, dest, basic_elem_type,
 dest_tail, NULL,
 dest_size);
 done_ctl->init_req(2, control());
 done_mem->init_req(2, memory(adr_type));
-set_control( _gvn.transform(done_ctl) );
+set_control( _gvn.transform(done_ctl));
 set_memory(  _gvn.transform(done_mem), adr_type );
 }
 }
 }
 set_control(checked_control);
 if (!stopped()) {
 // Clean up after the checked call.
 // The returned value is either 0 or -1^K,
 // where K = number of partially transferred array elements.
-Node* cmp = _gvn.transform( new(C) CmpINode(checked_value, intcon(0)) );
+Node* cmp = _gvn.transform(new(C) CmpINode(checked_value, intcon(0)));
-Node* bol = _gvn.transform( new(C) BoolNode(cmp, BoolTest::eq) );
+Node* bol = _gvn.transform(new(C) BoolNode(cmp, BoolTest::eq));
 IfNode* iff = create_and_map_if(control(), bol, PROB_MAX, COUNT_UNKNOWN);
 // If it is 0, we are done, so transfer to the end.
-Node* checks_done = _gvn.transform( new(C) IfTrueNode(iff) );
+Node* checks_done = _gvn.transform(new(C) IfTrueNode(iff));
 result_region->init_req(checked_path, checks_done);
 result_i_o   ->init_req(checked_path, checked_i_o);
 result_memory->init_req(checked_path, checked_mem);
 // If it is not zero, merge into the slow call.
-set_control( _gvn.transform( new(C) IfFalseNode(iff) ));
+set_control( _gvn.transform(new(C) IfFalseNode(iff) ));
 RegionNode* slow_reg2 = new(C) RegionNode(3);
 PhiNode*    slow_i_o2 = new(C) PhiNode(slow_reg2, Type::ABIO);
 PhiNode*    slow_mem2 = new(C) PhiNode(slow_reg2, Type::MEMORY, adr_type);
 record_for_igvn(slow_reg2);
 slow_reg2  ->init_req(1, slow_control);
 // This can cause double writes, but that's OK since dest is brand new.
 // So we ignore the low 31 bits of the value returned from the stub.
 } else {
 // We must continue the copy exactly where it failed, or else
 // another thread might see the wrong number of writes to dest.
-Node* checked_offset = _gvn.transform( new(C) XorINode(checked_value, intcon(-1)) );
+Node* checked_offset = _gvn.transform(new(C) XorINode(checked_value, intcon(-1)));
 Node* slow_offset    = new(C) PhiNode(slow_reg2, TypeInt::INT);
 slow_offset->init_req(1, intcon(0));
 slow_offset->init_req(2, checked_offset);
 slow_offset  = _gvn.transform(slow_offset);
 // Adjust the arguments by the conditionally incoming offset.
-Node* src_off_plus  = _gvn.transform( new(C) AddINode(src_offset,  slow_offset) );
+Node* src_off_plus  = _gvn.transform(new(C) AddINode(src_offset,  slow_offset));
-Node* dest_off_plus = _gvn.transform( new(C) AddINode(dest_offset, slow_offset) );
+Node* dest_off_plus = _gvn.transform(new(C) AddINode(dest_offset, slow_offset));
-Node* length_minus  = _gvn.transform( new(C) SubINode(copy_length, slow_offset) );
+Node* length_minus  = _gvn.transform(new(C) SubINode(copy_length, slow_offset));
 // Tweak the node variables to adjust the code produced below:
 src_offset  = src_off_plus;
 dest_offset = dest_off_plus;
 copy_length = length_minus;
 if (result_region->in(i) == NULL)
 result_region->init_req(i, top());
 }
 // Finished; return the combined state.
-set_control( _gvn.transform(result_region) );
+set_control( _gvn.transform(result_region));
 set_i_o(     _gvn.transform(result_i_o)    );
 set_memory(  _gvn.transform(result_memory), adr_type );
 // The memory edges above are precise in order to model effects around
 // array copies accurately to allow value numbering of field loads around
 // End offset = round_up(abase + ((slice_idx_con + slice_len) << scale), 8)
 intptr_t end_base  = abase + (slice_idx_con << scale);
 int      end_round = (-1 << scale) & (BytesPerLong  - 1);
 Node*    end       = ConvI2X(slice_len);
 if (scale != 0)
-end = _gvn.transform( new(C) LShiftXNode(end, intcon(scale) ));
+end = _gvn.transform(new(C) LShiftXNode(end, intcon(scale) ));
 end_base += end_round;
-end = _gvn.transform( new(C) AddXNode(end, MakeConX(end_base)) );
+end = _gvn.transform(new(C) AddXNode(end, MakeConX(end_base)));
-end = _gvn.transform( new(C) AndXNode(end, MakeConX(~end_round)) );
+end = _gvn.transform(new(C) AndXNode(end, MakeConX(~end_round)));
 mem = ClearArrayNode::clear_memory(control(), mem, dest,
 start_con, end, &_gvn);
 } else if (start_con < 0 && dest_size != top()) {
 // Non-constant start, pre-rounded end after the tail of the array.
 // This is almost certainly a "round-to-end" operation.
 Node* start = slice_idx;
 start = ConvI2X(start);
 if (scale != 0)
-start = _gvn.transform( new(C) LShiftXNode( start, intcon(scale) ));
+start = _gvn.transform(new(C) LShiftXNode( start, intcon(scale) ));
-start = _gvn.transform( new(C) AddXNode(start, MakeConX(abase)) );
+start = _gvn.transform(new(C) AddXNode(start, MakeConX(abase)));
 if ((bump_bit | clear_low) != 0) {
 int to_clear = (bump_bit | clear_low);
 // Align up mod 8, then store a jint zero unconditionally
 // just before the mod-8 boundary.
 if (((abase + bump_bit) & ~to_clear) - bump_bit
 < arrayOopDesc::length_offset_in_bytes() + BytesPerInt) {
 bump_bit = 0;
 assert((abase & to_clear) == 0, "array base must be long-aligned");
 } else {
 // Bump 'start' up to (or past) the next jint boundary:
-start = _gvn.transform( new(C) AddXNode(start, MakeConX(bump_bit)) );
+start = _gvn.transform(new(C) AddXNode(start, MakeConX(bump_bit)));
 assert((abase & clear_low) == 0, "array base must be int-aligned");
 }
 // Round bumped 'start' down to jlong boundary in body of array.
-start = _gvn.transform( new(C) AndXNode(start, MakeConX(~to_clear)) );
+start = _gvn.transform(new(C) AndXNode(start, MakeConX(~to_clear)));
 if (bump_bit != 0) {
 // Store a zero to the immediately preceding jint:
-Node* x1 = _gvn.transform( new(C) AddXNode(start, MakeConX(-bump_bit)) );
+Node* x1 = _gvn.transform(new(C) AddXNode(start, MakeConX(-bump_bit)));
 Node* p1 = basic_plus_adr(dest, x1);
 mem = StoreNode::make(_gvn, control(), mem, p1, adr_type, intcon(0), T_INT);
 mem = _gvn.transform(mem);
 }
 }
 // Do this copy by giant steps.
 Node* sptr  = basic_plus_adr(src,  src_off);
 Node* dptr  = basic_plus_adr(dest, dest_off);
 Node* countx = dest_size;
-countx = _gvn.transform( new (C) SubXNode(countx, MakeConX(dest_off)) );
+countx = _gvn.transform(new (C) SubXNode(countx, MakeConX(dest_off)));
-countx = _gvn.transform( new (C) URShiftXNode(countx, intcon(LogBytesPerLong)) );
+countx = _gvn.transform(new (C) URShiftXNode(countx, intcon(LogBytesPerLong)));
 bool disjoint_bases = true;   // since alloc != NULL
 generate_unchecked_arraycopy(adr_type, T_LONG, disjoint_bases,
 sptr, NULL, dptr, NULL, countx, dest_uninitialized);
 set_memory(res_mem, mtype);
 set_result(enc);
 return true;
 }
+/**
+* Calculate CRC32 for byte.
+* int java.util.zip.CRC32.update(int crc, int b)
+*/
+bool LibraryCallKit::inline_updateCRC32() {
+assert(UseCRC32Intrinsics, "need AVX and LCMUL instructions support");
+assert(callee()->signature()->size() == 2, "update has 2 parameters");
+// no receiver since it is static method
+Node* crc  = argument(0); // type: int
+Node* b    = argument(1); // type: int
+/*
+*    int c = ~ crc;
+*    b = timesXtoThe32[(b ^ c) & 0xFF];
+*    b = b ^ (c >>> 8);
+*    crc = ~b;
+*/
+Node* M1 = intcon(-1);
+crc = _gvn.transform(new (C) XorINode(crc, M1));
+Node* result = _gvn.transform(new (C) XorINode(crc, b));
+result = _gvn.transform(new (C) AndINode(result, intcon(0xFF)));
+Node* base = makecon(TypeRawPtr::make(StubRoutines::crc_table_addr()));
+Node* offset = _gvn.transform(new (C) LShiftINode(result, intcon(0x2)));
+Node* adr = basic_plus_adr(top(), base, ConvI2X(offset));
+result = make_load(control(), adr, TypeInt::INT, T_INT);
+crc = _gvn.transform(new (C) URShiftINode(crc, intcon(8)));
+result = _gvn.transform(new (C) XorINode(crc, result));
+result = _gvn.transform(new (C) XorINode(result, M1));
+set_result(result);
+return true;
+}
+/**
+* Calculate CRC32 for byte[] array.
+* int java.util.zip.CRC32.updateBytes(int crc, byte[] buf, int off, int len)
+*/
+bool LibraryCallKit::inline_updateBytesCRC32() {
+assert(UseCRC32Intrinsics, "need AVX and LCMUL instructions support");
+assert(callee()->signature()->size() == 4, "updateBytes has 4 parameters");
+// no receiver since it is static method
+Node* crc     = argument(0); // type: int
+Node* src     = argument(1); // type: oop
+Node* offset  = argument(2); // type: int
+Node* length  = argument(3); // type: int
+const Type* src_type = src->Value(&_gvn);
+const TypeAryPtr* top_src = src_type->isa_aryptr();
+if (top_src  == NULL || top_src->klass()  == NULL) {
+// failed array check
+return false;
+}
+// Figure out the size and type of the elements we will be copying.
+BasicType src_elem = src_type->isa_aryptr()->klass()->as_array_klass()->element_type()->basic_type();
+if (src_elem != T_BYTE) {
+return false;
+}
+// 'src_start' points to src array + scaled offset
+Node* src_start = array_element_address(src, offset, src_elem);
+// We assume that range check is done by caller.
+// TODO: generate range check (offset+length < src.length) in debug VM.
+// Call the stub.
+address stubAddr = StubRoutines::updateBytesCRC32();
+const char *stubName = "updateBytesCRC32";
+Node* call = make_runtime_call(RC_LEAF|RC_NO_FP, OptoRuntime::updateBytesCRC32_Type(),
+stubAddr, stubName, TypePtr::BOTTOM,
+crc, src_start, length);
+Node* result = _gvn.transform(new (C) ProjNode(call, TypeFunc::Parms));
+set_result(result);
+return true;
+}
+/**
+* Calculate CRC32 for ByteBuffer.
+* int java.util.zip.CRC32.updateByteBuffer(int crc, long buf, int off, int len)
+*/
+bool LibraryCallKit::inline_updateByteBufferCRC32() {
+assert(UseCRC32Intrinsics, "need AVX and LCMUL instructions support");
+assert(callee()->signature()->size() == 5, "updateByteBuffer has 4 parameters and one is long");
+// no receiver since it is static method
+Node* crc     = argument(0); // type: int
+Node* src     = argument(1); // type: long
+Node* offset  = argument(3); // type: int
+Node* length  = argument(4); // type: int
+src = ConvL2X(src);  // adjust Java long to machine word
+Node* base = _gvn.transform(new (C) CastX2PNode(src));
+offset = ConvI2X(offset);
+// 'src_start' points to src array + scaled offset
+Node* src_start = basic_plus_adr(top(), base, offset);
+// Call the stub.
+address stubAddr = StubRoutines::updateBytesCRC32();
+const char *stubName = "updateBytesCRC32";
+Node* call = make_runtime_call(RC_LEAF|RC_NO_FP, OptoRuntime::updateBytesCRC32_Type(),
+stubAddr, stubName, TypePtr::BOTTOM,
+crc, src_start, length);
+Node* result = _gvn.transform(new (C) ProjNode(call, TypeFunc::Parms));
+set_result(result);
+return true;
+}
 //----------------------------inline_reference_get----------------------------
 // public T java.lang.ref.Reference.get();
 bool LibraryCallKit::inline_reference_get() {
 const int referent_offset = java_lang_ref_Reference::referent_offset;
 guarantee(referent_offset > 0, "should have already been set");

Mercurial > hg > truffle

comparison src/share/vm/opto/library_call.cpp @ 11080:b800986664f4