Mercurial > hg > truffle
comparison src/share/vm/opto/mathexactnode.cpp @ 18041:52b4284cb496
Merge with jdk8u20-b26
author | Gilles Duboscq <duboscq@ssw.jku.at> |
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date | Wed, 15 Oct 2014 16:02:50 +0200 |
parents | 4ca6dc0799b6 |
children |
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17606:45d7b2c7029d | 18041:52b4284cb496 |
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29 #include "opto/machnode.hpp" | 29 #include "opto/machnode.hpp" |
30 #include "opto/matcher.hpp" | 30 #include "opto/matcher.hpp" |
31 #include "opto/mathexactnode.hpp" | 31 #include "opto/mathexactnode.hpp" |
32 #include "opto/subnode.hpp" | 32 #include "opto/subnode.hpp" |
33 | 33 |
34 MathExactNode::MathExactNode(Node* ctrl, Node* in1) : MultiNode(2) { | 34 template <typename OverflowOp> |
35 init_class_id(Class_MathExact); | 35 class AddHelper { |
36 init_req(0, ctrl); | 36 public: |
37 init_req(1, in1); | 37 typedef typename OverflowOp::TypeClass TypeClass; |
38 } | 38 typedef typename TypeClass::NativeType NativeType; |
39 | 39 |
40 MathExactNode::MathExactNode(Node* ctrl, Node* in1, Node* in2) : MultiNode(3) { | 40 static bool will_overflow(NativeType value1, NativeType value2) { |
41 init_class_id(Class_MathExact); | 41 NativeType result = value1 + value2; |
42 init_req(0, ctrl); | |
43 init_req(1, in1); | |
44 init_req(2, in2); | |
45 } | |
46 | |
47 BoolNode* MathExactNode::bool_node() const { | |
48 Node* flags = flags_node(); | |
49 BoolNode* boolnode = flags->unique_out()->as_Bool(); | |
50 assert(boolnode != NULL, "must have BoolNode"); | |
51 return boolnode; | |
52 } | |
53 | |
54 IfNode* MathExactNode::if_node() const { | |
55 BoolNode* boolnode = bool_node(); | |
56 IfNode* ifnode = boolnode->unique_out()->as_If(); | |
57 assert(ifnode != NULL, "must have IfNode"); | |
58 return ifnode; | |
59 } | |
60 | |
61 Node* MathExactNode::control_node() const { | |
62 IfNode* ifnode = if_node(); | |
63 return ifnode->in(0); | |
64 } | |
65 | |
66 Node* MathExactNode::non_throwing_branch() const { | |
67 IfNode* ifnode = if_node(); | |
68 if (bool_node()->_test._test == BoolTest::overflow) { | |
69 return ifnode->proj_out(0); | |
70 } | |
71 return ifnode->proj_out(1); | |
72 } | |
73 | |
74 // If the MathExactNode won't overflow we have to replace the | |
75 // FlagsProjNode and ProjNode that is generated by the MathExactNode | |
76 Node* MathExactNode::no_overflow(PhaseGVN* phase, Node* new_result) { | |
77 PhaseIterGVN* igvn = phase->is_IterGVN(); | |
78 if (igvn) { | |
79 ProjNode* result = result_node(); | |
80 ProjNode* flags = flags_node(); | |
81 | |
82 if (result != NULL) { | |
83 igvn->replace_node(result, new_result); | |
84 } | |
85 | |
86 if (flags != NULL) { | |
87 BoolNode* boolnode = bool_node(); | |
88 switch (boolnode->_test._test) { | |
89 case BoolTest::overflow: | |
90 // if the check is for overflow - never taken | |
91 igvn->replace_node(boolnode, phase->intcon(0)); | |
92 break; | |
93 case BoolTest::no_overflow: | |
94 // if the check is for no overflow - always taken | |
95 igvn->replace_node(boolnode, phase->intcon(1)); | |
96 break; | |
97 default: | |
98 fatal("Unexpected value of BoolTest"); | |
99 break; | |
100 } | |
101 flags->del_req(0); | |
102 } | |
103 } | |
104 return new_result; | |
105 } | |
106 | |
107 Node* MathExactINode::match(const ProjNode* proj, const Matcher* m) { | |
108 uint ideal_reg = proj->ideal_reg(); | |
109 RegMask rm; | |
110 if (proj->_con == result_proj_node) { | |
111 rm = m->mathExactI_result_proj_mask(); | |
112 } else { | |
113 assert(proj->_con == flags_proj_node, "must be result or flags"); | |
114 assert(ideal_reg == Op_RegFlags, "sanity"); | |
115 rm = m->mathExactI_flags_proj_mask(); | |
116 } | |
117 return new (m->C) MachProjNode(this, proj->_con, rm, ideal_reg); | |
118 } | |
119 | |
120 Node* MathExactLNode::match(const ProjNode* proj, const Matcher* m) { | |
121 uint ideal_reg = proj->ideal_reg(); | |
122 RegMask rm; | |
123 if (proj->_con == result_proj_node) { | |
124 rm = m->mathExactL_result_proj_mask(); | |
125 } else { | |
126 assert(proj->_con == flags_proj_node, "must be result or flags"); | |
127 assert(ideal_reg == Op_RegFlags, "sanity"); | |
128 rm = m->mathExactI_flags_proj_mask(); | |
129 } | |
130 return new (m->C) MachProjNode(this, proj->_con, rm, ideal_reg); | |
131 } | |
132 | |
133 Node* AddExactINode::Ideal(PhaseGVN* phase, bool can_reshape) { | |
134 Node* arg1 = in(1); | |
135 Node* arg2 = in(2); | |
136 | |
137 const Type* type1 = phase->type(arg1); | |
138 const Type* type2 = phase->type(arg2); | |
139 | |
140 if (type1 != Type::TOP && type1->singleton() && | |
141 type2 != Type::TOP && type2->singleton()) { | |
142 jint val1 = arg1->get_int(); | |
143 jint val2 = arg2->get_int(); | |
144 jint result = val1 + val2; | |
145 // Hacker's Delight 2-12 Overflow if both arguments have the opposite sign of the result | 42 // Hacker's Delight 2-12 Overflow if both arguments have the opposite sign of the result |
146 if ( (((val1 ^ result) & (val2 ^ result)) >= 0)) { | 43 if (((value1 ^ result) & (value2 ^ result)) >= 0) { |
147 Node* con_result = ConINode::make(phase->C, result); | 44 return false; |
148 return no_overflow(phase, con_result); | 45 } |
149 } | 46 return true; |
150 return NULL; | 47 } |
151 } | 48 |
152 | 49 static bool can_overflow(const Type* type1, const Type* type2) { |
153 if (type1 == TypeInt::ZERO || type2 == TypeInt::ZERO) { // (Add 0 x) == x | 50 if (type1 == TypeClass::ZERO || type2 == TypeClass::ZERO) { |
154 Node* add_result = new (phase->C) AddINode(arg1, arg2); | 51 return false; |
155 return no_overflow(phase, add_result); | 52 } |
156 } | 53 return true; |
157 | 54 } |
158 if (type2->singleton()) { | 55 }; |
159 return NULL; // no change - keep constant on the right | 56 |
160 } | 57 template <typename OverflowOp> |
161 | 58 class SubHelper { |
162 if (type1->singleton()) { | 59 public: |
163 // Make it x + Constant - move constant to the right | 60 typedef typename OverflowOp::TypeClass TypeClass; |
164 swap_edges(1, 2); | 61 typedef typename TypeClass::NativeType NativeType; |
165 return this; | 62 |
166 } | 63 static bool will_overflow(NativeType value1, NativeType value2) { |
167 | 64 NativeType result = value1 - value2; |
168 if (arg2->is_Load()) { | 65 // hacker's delight 2-12 overflow iff the arguments have different signs and |
169 return NULL; // no change - keep load on the right | |
170 } | |
171 | |
172 if (arg1->is_Load()) { | |
173 // Make it x + Load - move load to the right | |
174 swap_edges(1, 2); | |
175 return this; | |
176 } | |
177 | |
178 if (arg1->_idx > arg2->_idx) { | |
179 // Sort the edges | |
180 swap_edges(1, 2); | |
181 return this; | |
182 } | |
183 | |
184 return NULL; | |
185 } | |
186 | |
187 Node* AddExactLNode::Ideal(PhaseGVN* phase, bool can_reshape) { | |
188 Node* arg1 = in(1); | |
189 Node* arg2 = in(2); | |
190 | |
191 const Type* type1 = phase->type(arg1); | |
192 const Type* type2 = phase->type(arg2); | |
193 | |
194 if (type1 != Type::TOP && type1->singleton() && | |
195 type2 != Type::TOP && type2->singleton()) { | |
196 jlong val1 = arg1->get_long(); | |
197 jlong val2 = arg2->get_long(); | |
198 jlong result = val1 + val2; | |
199 // Hacker's Delight 2-12 Overflow if both arguments have the opposite sign of the result | |
200 if ( (((val1 ^ result) & (val2 ^ result)) >= 0)) { | |
201 Node* con_result = ConLNode::make(phase->C, result); | |
202 return no_overflow(phase, con_result); | |
203 } | |
204 return NULL; | |
205 } | |
206 | |
207 if (type1 == TypeLong::ZERO || type2 == TypeLong::ZERO) { // (Add 0 x) == x | |
208 Node* add_result = new (phase->C) AddLNode(arg1, arg2); | |
209 return no_overflow(phase, add_result); | |
210 } | |
211 | |
212 if (type2->singleton()) { | |
213 return NULL; // no change - keep constant on the right | |
214 } | |
215 | |
216 if (type1->singleton()) { | |
217 // Make it x + Constant - move constant to the right | |
218 swap_edges(1, 2); | |
219 return this; | |
220 } | |
221 | |
222 if (arg2->is_Load()) { | |
223 return NULL; // no change - keep load on the right | |
224 } | |
225 | |
226 if (arg1->is_Load()) { | |
227 // Make it x + Load - move load to the right | |
228 swap_edges(1, 2); | |
229 return this; | |
230 } | |
231 | |
232 if (arg1->_idx > arg2->_idx) { | |
233 // Sort the edges | |
234 swap_edges(1, 2); | |
235 return this; | |
236 } | |
237 | |
238 return NULL; | |
239 } | |
240 | |
241 Node* SubExactINode::Ideal(PhaseGVN* phase, bool can_reshape) { | |
242 Node* arg1 = in(1); | |
243 Node* arg2 = in(2); | |
244 | |
245 const Type* type1 = phase->type(arg1); | |
246 const Type* type2 = phase->type(arg2); | |
247 | |
248 if (type1 != Type::TOP && type1->singleton() && | |
249 type2 != Type::TOP && type2->singleton()) { | |
250 jint val1 = arg1->get_int(); | |
251 jint val2 = arg2->get_int(); | |
252 jint result = val1 - val2; | |
253 | |
254 // Hacker's Delight 2-12 Overflow iff the arguments have different signs and | |
255 // the sign of the result is different than the sign of arg1 | 66 // the sign of the result is different than the sign of arg1 |
256 if (((val1 ^ val2) & (val1 ^ result)) >= 0) { | 67 if (((value1 ^ value2) & (value1 ^ result)) >= 0) { |
257 Node* con_result = ConINode::make(phase->C, result); | 68 return false; |
258 return no_overflow(phase, con_result); | 69 } |
259 } | 70 return true; |
260 return NULL; | 71 } |
261 } | 72 |
262 | 73 static bool can_overflow(const Type* type1, const Type* type2) { |
263 if (type1 == TypeInt::ZERO || type2 == TypeInt::ZERO) { | 74 if (type2 == TypeClass::ZERO) { |
264 // Sub with zero is the same as add with zero | 75 return false; |
265 Node* add_result = new (phase->C) AddINode(arg1, arg2); | 76 } |
266 return no_overflow(phase, add_result); | 77 return true; |
267 } | 78 } |
268 | 79 }; |
269 return NULL; | 80 |
270 } | 81 template <typename OverflowOp> |
271 | 82 class MulHelper { |
272 Node* SubExactLNode::Ideal(PhaseGVN* phase, bool can_reshape) { | 83 public: |
273 Node* arg1 = in(1); | 84 typedef typename OverflowOp::TypeClass TypeClass; |
274 Node* arg2 = in(2); | 85 |
275 | 86 static bool can_overflow(const Type* type1, const Type* type2) { |
276 const Type* type1 = phase->type(arg1); | 87 if (type1 == TypeClass::ZERO || type2 == TypeClass::ZERO) { |
277 const Type* type2 = phase->type(arg2); | 88 return false; |
278 | 89 } else if (type1 == TypeClass::ONE || type2 == TypeClass::ONE) { |
279 if (type1 != Type::TOP && type1->singleton() && | 90 return false; |
280 type2 != Type::TOP && type2->singleton()) { | 91 } |
281 jlong val1 = arg1->get_long(); | 92 return true; |
282 jlong val2 = arg2->get_long(); | 93 } |
283 jlong result = val1 - val2; | 94 }; |
284 | 95 |
285 // Hacker's Delight 2-12 Overflow iff the arguments have different signs and | 96 bool OverflowAddINode::will_overflow(jint v1, jint v2) const { |
286 // the sign of the result is different than the sign of arg1 | 97 return AddHelper<OverflowAddINode>::will_overflow(v1, v2); |
287 if (((val1 ^ val2) & (val1 ^ result)) >= 0) { | 98 } |
288 Node* con_result = ConLNode::make(phase->C, result); | 99 |
289 return no_overflow(phase, con_result); | 100 bool OverflowSubINode::will_overflow(jint v1, jint v2) const { |
290 } | 101 return SubHelper<OverflowSubINode>::will_overflow(v1, v2); |
291 return NULL; | 102 } |
292 } | 103 |
293 | 104 bool OverflowMulINode::will_overflow(jint v1, jint v2) const { |
294 if (type1 == TypeLong::ZERO || type2 == TypeLong::ZERO) { | 105 jlong result = (jlong) v1 * (jlong) v2; |
295 // Sub with zero is the same as add with zero | |
296 Node* add_result = new (phase->C) AddLNode(arg1, arg2); | |
297 return no_overflow(phase, add_result); | |
298 } | |
299 | |
300 return NULL; | |
301 } | |
302 | |
303 Node* NegExactINode::Ideal(PhaseGVN* phase, bool can_reshape) { | |
304 Node *arg = in(1); | |
305 | |
306 const Type* type = phase->type(arg); | |
307 if (type != Type::TOP && type->singleton()) { | |
308 jint value = arg->get_int(); | |
309 if (value != min_jint) { | |
310 Node* neg_result = ConINode::make(phase->C, -value); | |
311 return no_overflow(phase, neg_result); | |
312 } | |
313 } | |
314 return NULL; | |
315 } | |
316 | |
317 Node* NegExactLNode::Ideal(PhaseGVN* phase, bool can_reshape) { | |
318 Node *arg = in(1); | |
319 | |
320 const Type* type = phase->type(arg); | |
321 if (type != Type::TOP && type->singleton()) { | |
322 jlong value = arg->get_long(); | |
323 if (value != min_jlong) { | |
324 Node* neg_result = ConLNode::make(phase->C, -value); | |
325 return no_overflow(phase, neg_result); | |
326 } | |
327 } | |
328 return NULL; | |
329 } | |
330 | |
331 Node* MulExactINode::Ideal(PhaseGVN* phase, bool can_reshape) { | |
332 Node* arg1 = in(1); | |
333 Node* arg2 = in(2); | |
334 | |
335 const Type* type1 = phase->type(arg1); | |
336 const Type* type2 = phase->type(arg2); | |
337 | |
338 if (type1 != Type::TOP && type1->singleton() && | |
339 type2 != Type::TOP && type2->singleton()) { | |
340 jint val1 = arg1->get_int(); | |
341 jint val2 = arg2->get_int(); | |
342 jlong result = (jlong) val1 * (jlong) val2; | |
343 if ((jint) result == result) { | 106 if ((jint) result == result) { |
344 // no overflow | 107 return false; |
345 Node* mul_result = ConINode::make(phase->C, result); | 108 } |
346 return no_overflow(phase, mul_result); | 109 return true; |
347 } | 110 } |
348 } | 111 |
349 | 112 bool OverflowAddLNode::will_overflow(jlong v1, jlong v2) const { |
350 if (type1 == TypeInt::ZERO || type2 == TypeInt::ZERO) { | 113 return AddHelper<OverflowAddLNode>::will_overflow(v1, v2); |
351 return no_overflow(phase, ConINode::make(phase->C, 0)); | 114 } |
352 } | 115 |
353 | 116 bool OverflowSubLNode::will_overflow(jlong v1, jlong v2) const { |
354 if (type1 == TypeInt::ONE) { | 117 return SubHelper<OverflowSubLNode>::will_overflow(v1, v2); |
355 Node* mul_result = new (phase->C) AddINode(arg2, phase->intcon(0)); | 118 } |
356 return no_overflow(phase, mul_result); | 119 |
357 } | 120 bool OverflowMulLNode::will_overflow(jlong val1, jlong val2) const { |
358 if (type2 == TypeInt::ONE) { | |
359 Node* mul_result = new (phase->C) AddINode(arg1, phase->intcon(0)); | |
360 return no_overflow(phase, mul_result); | |
361 } | |
362 | |
363 if (type1 == TypeInt::MINUS_1) { | |
364 return new (phase->C) NegExactINode(NULL, arg2); | |
365 } | |
366 | |
367 if (type2 == TypeInt::MINUS_1) { | |
368 return new (phase->C) NegExactINode(NULL, arg1); | |
369 } | |
370 | |
371 return NULL; | |
372 } | |
373 | |
374 Node* MulExactLNode::Ideal(PhaseGVN* phase, bool can_reshape) { | |
375 Node* arg1 = in(1); | |
376 Node* arg2 = in(2); | |
377 | |
378 const Type* type1 = phase->type(arg1); | |
379 const Type* type2 = phase->type(arg2); | |
380 | |
381 if (type1 != Type::TOP && type1->singleton() && | |
382 type2 != Type::TOP && type2->singleton()) { | |
383 jlong val1 = arg1->get_long(); | |
384 jlong val2 = arg2->get_long(); | |
385 | |
386 jlong result = val1 * val2; | 121 jlong result = val1 * val2; |
387 jlong ax = (val1 < 0 ? -val1 : val1); | 122 jlong ax = (val1 < 0 ? -val1 : val1); |
388 jlong ay = (val2 < 0 ? -val2 : val2); | 123 jlong ay = (val2 < 0 ? -val2 : val2); |
389 | 124 |
390 bool overflow = false; | 125 bool overflow = false; |
396 } else if (val2 != 0 && (result / val2 != val1)) { | 131 } else if (val2 != 0 && (result / val2 != val1)) { |
397 overflow = true; | 132 overflow = true; |
398 } | 133 } |
399 } | 134 } |
400 | 135 |
401 if (!overflow) { | 136 return overflow; |
402 Node* mul_result = ConLNode::make(phase->C, result); | 137 } |
403 return no_overflow(phase, mul_result); | 138 |
404 } | 139 bool OverflowAddINode::can_overflow(const Type* t1, const Type* t2) const { |
405 } | 140 return AddHelper<OverflowAddINode>::can_overflow(t1, t2); |
406 | 141 } |
407 if (type1 == TypeLong::ZERO || type2 == TypeLong::ZERO) { | 142 |
408 return no_overflow(phase, ConLNode::make(phase->C, 0)); | 143 bool OverflowSubINode::can_overflow(const Type* t1, const Type* t2) const { |
409 } | 144 if (in(1) == in(2)) { |
410 | 145 return false; |
411 if (type1 == TypeLong::ONE) { | 146 } |
412 Node* mul_result = new (phase->C) AddLNode(arg2, phase->longcon(0)); | 147 return SubHelper<OverflowSubINode>::can_overflow(t1, t2); |
413 return no_overflow(phase, mul_result); | 148 } |
414 } | 149 |
415 if (type2 == TypeLong::ONE) { | 150 bool OverflowMulINode::can_overflow(const Type* t1, const Type* t2) const { |
416 Node* mul_result = new (phase->C) AddLNode(arg1, phase->longcon(0)); | 151 return MulHelper<OverflowMulINode>::can_overflow(t1, t2); |
417 return no_overflow(phase, mul_result); | 152 } |
418 } | 153 |
419 | 154 bool OverflowAddLNode::can_overflow(const Type* t1, const Type* t2) const { |
420 if (type1 == TypeLong::MINUS_1) { | 155 return AddHelper<OverflowAddLNode>::can_overflow(t1, t2); |
421 return new (phase->C) NegExactLNode(NULL, arg2); | 156 } |
422 } | 157 |
423 | 158 bool OverflowSubLNode::can_overflow(const Type* t1, const Type* t2) const { |
424 if (type2 == TypeLong::MINUS_1) { | 159 if (in(1) == in(2)) { |
425 return new (phase->C) NegExactLNode(NULL, arg1); | 160 return false; |
426 } | 161 } |
427 | 162 return SubHelper<OverflowSubLNode>::can_overflow(t1, t2); |
428 return NULL; | 163 } |
429 } | 164 |
430 | 165 bool OverflowMulLNode::can_overflow(const Type* t1, const Type* t2) const { |
166 return MulHelper<OverflowMulLNode>::can_overflow(t1, t2); | |
167 } | |
168 | |
169 const Type* OverflowNode::sub(const Type* t1, const Type* t2) const { | |
170 fatal(err_msg_res("sub() should not be called for '%s'", NodeClassNames[this->Opcode()])); | |
171 return TypeInt::CC; | |
172 } | |
173 | |
174 template <typename OverflowOp> | |
175 struct IdealHelper { | |
176 typedef typename OverflowOp::TypeClass TypeClass; // TypeInt, TypeLong | |
177 typedef typename TypeClass::NativeType NativeType; | |
178 | |
179 static Node* Ideal(const OverflowOp* node, PhaseGVN* phase, bool can_reshape) { | |
180 Node* arg1 = node->in(1); | |
181 Node* arg2 = node->in(2); | |
182 const Type* type1 = phase->type(arg1); | |
183 const Type* type2 = phase->type(arg2); | |
184 | |
185 if (type1 == NULL || type2 == NULL) { | |
186 return NULL; | |
187 } | |
188 | |
189 if (type1 != Type::TOP && type1->singleton() && | |
190 type2 != Type::TOP && type2->singleton()) { | |
191 NativeType val1 = TypeClass::as_self(type1)->get_con(); | |
192 NativeType val2 = TypeClass::as_self(type2)->get_con(); | |
193 if (node->will_overflow(val1, val2) == false) { | |
194 Node* con_result = ConINode::make(phase->C, 0); | |
195 return con_result; | |
196 } | |
197 return NULL; | |
198 } | |
199 return NULL; | |
200 } | |
201 | |
202 static const Type* Value(const OverflowOp* node, PhaseTransform* phase) { | |
203 const Type *t1 = phase->type( node->in(1) ); | |
204 const Type *t2 = phase->type( node->in(2) ); | |
205 if( t1 == Type::TOP ) return Type::TOP; | |
206 if( t2 == Type::TOP ) return Type::TOP; | |
207 | |
208 const TypeClass* i1 = TypeClass::as_self(t1); | |
209 const TypeClass* i2 = TypeClass::as_self(t2); | |
210 | |
211 if (i1 == NULL || i2 == NULL) { | |
212 return TypeInt::CC; | |
213 } | |
214 | |
215 if (t1->singleton() && t2->singleton()) { | |
216 NativeType val1 = i1->get_con(); | |
217 NativeType val2 = i2->get_con(); | |
218 if (node->will_overflow(val1, val2)) { | |
219 return TypeInt::CC; | |
220 } | |
221 return TypeInt::ZERO; | |
222 } else if (i1 != TypeClass::TYPE_DOMAIN && i2 != TypeClass::TYPE_DOMAIN) { | |
223 if (node->will_overflow(i1->_lo, i2->_lo)) { | |
224 return TypeInt::CC; | |
225 } else if (node->will_overflow(i1->_lo, i2->_hi)) { | |
226 return TypeInt::CC; | |
227 } else if (node->will_overflow(i1->_hi, i2->_lo)) { | |
228 return TypeInt::CC; | |
229 } else if (node->will_overflow(i1->_hi, i2->_hi)) { | |
230 return TypeInt::CC; | |
231 } | |
232 return TypeInt::ZERO; | |
233 } | |
234 | |
235 if (!node->can_overflow(t1, t2)) { | |
236 return TypeInt::ZERO; | |
237 } | |
238 return TypeInt::CC; | |
239 } | |
240 }; | |
241 | |
242 Node* OverflowINode::Ideal(PhaseGVN* phase, bool can_reshape) { | |
243 return IdealHelper<OverflowINode>::Ideal(this, phase, can_reshape); | |
244 } | |
245 | |
246 Node* OverflowLNode::Ideal(PhaseGVN* phase, bool can_reshape) { | |
247 return IdealHelper<OverflowLNode>::Ideal(this, phase, can_reshape); | |
248 } | |
249 | |
250 const Type* OverflowINode::Value(PhaseTransform* phase) const { | |
251 return IdealHelper<OverflowINode>::Value(this, phase); | |
252 } | |
253 | |
254 const Type* OverflowLNode::Value(PhaseTransform* phase) const { | |
255 return IdealHelper<OverflowLNode>::Value(this, phase); | |
256 } | |
257 |