1 /*
2 * Copyright (c) 2012, 2017, Oracle and/or its affiliates. All rights reserved.
3 * DO NOT ALTER OR REMOVE COPYRIGHT NOTICES OR THIS FILE HEADER.
4 *
5 * This code is free software; you can redistribute it and/or modify it
6 * under the terms of the GNU General Public License version 2 only, as
7 * published by the Free Software Foundation. Oracle designates this
8 * particular file as subject to the "Classpath" exception as provided
9 * by Oracle in the LICENSE file that accompanied this code.
10 *
11 * This code is distributed in the hope that it will be useful, but WITHOUT
12 * ANY WARRANTY; without even the implied warranty of MERCHANTABILITY or
13 * FITNESS FOR A PARTICULAR PURPOSE. See the GNU General Public License
14 * version 2 for more details (a copy is included in the LICENSE file that
15 * accompanied this code).
16 *
17 * You should have received a copy of the GNU General Public License version
18 * 2 along with this work; if not, write to the Free Software Foundation,
19 * Inc., 51 Franklin St, Fifth Floor, Boston, MA 02110-1301 USA.
20 *
21 * Please contact Oracle, 500 Oracle Parkway, Redwood Shores, CA 94065 USA
22 * or visit www.oracle.com if you need additional information or have any
23 * questions.
24 */
25
26 package java.lang.reflect;
27
28 import java.lang.annotation.*;
29 import java.util.Map;
30 import java.util.Objects;
31 import java.util.StringJoiner;
32
33 import jdk.internal.misc.SharedSecrets;
34 import sun.reflect.annotation.AnnotationParser;
35 import sun.reflect.annotation.AnnotationSupport;
36 import sun.reflect.annotation.TypeAnnotationParser;
37 import sun.reflect.annotation.TypeAnnotation;
38 import sun.reflect.generics.repository.ConstructorRepository;
39
40 /**
41 * A shared superclass for the common functionality of {@link Method}
42 * and {@link Constructor}.
43 *
44 * @since 1.8
45 */
46 public abstract class Executable extends AccessibleObject
47 implements Member, GenericDeclaration {
48 /*
49 * Only grant package-visibility to the constructor.
50 */
51 Executable() {}
52
53 /**
54 * Accessor method to allow code sharing
55 */
56 abstract byte[] getAnnotationBytes();
57
58 /**
59 * Does the Executable have generic information.
60 */
61 abstract boolean hasGenericInformation();
62
63 abstract ConstructorRepository getGenericInfo();
64
65 boolean equalParamTypes(Class<?>[] params1, Class<?>[] params2) {
66 /* Avoid unnecessary cloning */
67 if (params1.length == params2.length) {
68 for (int i = 0; i < params1.length; i++) {
69 if (params1[i] != params2[i])
70 return false;
71 }
72 return true;
73 }
74 return false;
75 }
76
77 Annotation[][] parseParameterAnnotations(byte[] parameterAnnotations) {
78 return AnnotationParser.parseParameterAnnotations(
79 parameterAnnotations,
80 SharedSecrets.getJavaLangAccess().
81 getConstantPool(getDeclaringClass()),
82 getDeclaringClass());
83 }
84
85 void printModifiersIfNonzero(StringBuilder sb, int mask, boolean isDefault) {
86 int mod = getModifiers() & mask;
87
88 if (mod != 0 && !isDefault) {
89 sb.append(Modifier.toString(mod)).append(' ');
90 } else {
91 int access_mod = mod & Modifier.ACCESS_MODIFIERS;
92 if (access_mod != 0)
93 sb.append(Modifier.toString(access_mod)).append(' ');
94 if (isDefault)
95 sb.append("default ");
96 mod = (mod & ~Modifier.ACCESS_MODIFIERS);
97 if (mod != 0)
98 sb.append(Modifier.toString(mod)).append(' ');
99 }
100 }
101
102 String sharedToString(int modifierMask,
103 boolean isDefault,
104 Class<?>[] parameterTypes,
105 Class<?>[] exceptionTypes) {
106 try {
107 StringBuilder sb = new StringBuilder();
108
109 printModifiersIfNonzero(sb, modifierMask, isDefault);
110 specificToStringHeader(sb);
111 sb.append('(');
112 StringJoiner sj = new StringJoiner(",");
113 for (Class<?> parameterType : parameterTypes) {
114 sj.add(parameterType.getTypeName());
115 }
116 sb.append(sj.toString());
117 sb.append(')');
118
119 if (exceptionTypes.length > 0) {
120 StringJoiner joiner = new StringJoiner(",", " throws ", "");
121 for (Class<?> exceptionType : exceptionTypes) {
122 joiner.add(exceptionType.getTypeName());
123 }
124 sb.append(joiner.toString());
125 }
126 return sb.toString();
127 } catch (Exception e) {
128 return "<" + e + ">";
129 }
130 }
131
132 /**
133 * Generate toString header information specific to a method or
134 * constructor.
135 */
136 abstract void specificToStringHeader(StringBuilder sb);
137
138 String sharedToGenericString(int modifierMask, boolean isDefault) {
139 try {
140 StringBuilder sb = new StringBuilder();
141
142 printModifiersIfNonzero(sb, modifierMask, isDefault);
143
144 TypeVariable<?>[] typeparms = getTypeParameters();
145 if (typeparms.length > 0) {
146 StringJoiner sj = new StringJoiner(",", "<", "> ");
147 for(TypeVariable<?> typeparm: typeparms) {
148 sj.add(typeparm.getTypeName());
149 }
150 sb.append(sj.toString());
151 }
152
153 specificToGenericStringHeader(sb);
154
155 sb.append('(');
156 StringJoiner sj = new StringJoiner(",");
157 Type[] params = getGenericParameterTypes();
158 for (int j = 0; j < params.length; j++) {
159 String param = params[j].getTypeName();
160 if (isVarArgs() && (j == params.length - 1)) // replace T[] with T...
161 param = param.replaceFirst("\\[\\]$", "...");
162 sj.add(param);
163 }
164 sb.append(sj.toString());
165 sb.append(')');
166
167 Type[] exceptionTypes = getGenericExceptionTypes();
168 if (exceptionTypes.length > 0) {
169 StringJoiner joiner = new StringJoiner(",", " throws ", "");
170 for (Type exceptionType : exceptionTypes) {
171 joiner.add(exceptionType.getTypeName());
172 }
173 sb.append(joiner.toString());
174 }
175 return sb.toString();
176 } catch (Exception e) {
177 return "<" + e + ">";
178 }
179 }
180
181 /**
182 * Generate toGenericString header information specific to a
183 * method or constructor.
184 */
185 abstract void specificToGenericStringHeader(StringBuilder sb);
186
187 /**
188 * Returns the {@code Class} object representing the class or interface
189 * that declares the executable represented by this object.
190 */
191 public abstract Class<?> getDeclaringClass();
192
193 /**
194 * Returns the name of the executable represented by this object.
195 */
196 public abstract String getName();
197
198 /**
199 * Returns the Java language {@linkplain Modifier modifiers} for
200 * the executable represented by this object.
201 */
202 public abstract int getModifiers();
203
204 /**
205 * Returns an array of {@code TypeVariable} objects that represent the
206 * type variables declared by the generic declaration represented by this
207 * {@code GenericDeclaration} object, in declaration order. Returns an
208 * array of length 0 if the underlying generic declaration declares no type
209 * variables.
210 *
211 * @return an array of {@code TypeVariable} objects that represent
212 * the type variables declared by this generic declaration
213 * @throws GenericSignatureFormatError if the generic
214 * signature of this generic declaration does not conform to
215 * the format specified in
216 * <cite>The Java™ Virtual Machine Specification</cite>
217 */
218 public abstract TypeVariable<?>[] getTypeParameters();
219
220 // returns shared array of parameter types - must never give it out
221 // to the untrusted code...
222 abstract Class<?>[] getSharedParameterTypes();
223
224 // returns shared array of exception types - must never give it out
225 // to the untrusted code...
226 abstract Class<?>[] getSharedExceptionTypes();
227
228 /**
229 * Returns an array of {@code Class} objects that represent the formal
230 * parameter types, in declaration order, of the executable
231 * represented by this object. Returns an array of length
232 * 0 if the underlying executable takes no parameters.
233 *
234 * @return the parameter types for the executable this object
235 * represents
236 */
237 public abstract Class<?>[] getParameterTypes();
238
239 /**
240 * Returns the number of formal parameters (whether explicitly
241 * declared or implicitly declared or neither) for the executable
242 * represented by this object.
243 *
244 * @return The number of formal parameters for the executable this
245 * object represents
246 */
247 public int getParameterCount() {
248 throw new AbstractMethodError();
249 }
250
251 /**
252 * Returns an array of {@code Type} objects that represent the formal
253 * parameter types, in declaration order, of the executable represented by
254 * this object. Returns an array of length 0 if the
255 * underlying executable takes no parameters.
256 *
257 * <p>If a formal parameter type is a parameterized type,
258 * the {@code Type} object returned for it must accurately reflect
259 * the actual type parameters used in the source code.
260 *
261 * <p>If a formal parameter type is a type variable or a parameterized
262 * type, it is created. Otherwise, it is resolved.
263 *
264 * @return an array of {@code Type}s that represent the formal
265 * parameter types of the underlying executable, in declaration order
266 * @throws GenericSignatureFormatError
267 * if the generic method signature does not conform to the format
268 * specified in
269 * <cite>The Java™ Virtual Machine Specification</cite>
270 * @throws TypeNotPresentException if any of the parameter
271 * types of the underlying executable refers to a non-existent type
272 * declaration
273 * @throws MalformedParameterizedTypeException if any of
274 * the underlying executable's parameter types refer to a parameterized
275 * type that cannot be instantiated for any reason
276 */
277 public Type[] getGenericParameterTypes() {
278 if (hasGenericInformation())
279 return getGenericInfo().getParameterTypes();
280 else
281 return getParameterTypes();
282 }
283
284 /**
285 * Behaves like {@code getGenericParameterTypes}, but returns type
286 * information for all parameters, including synthetic parameters.
287 */
288 Type[] getAllGenericParameterTypes() {
289 final boolean genericInfo = hasGenericInformation();
290
291 // Easy case: we don't have generic parameter information. In
292 // this case, we just return the result of
293 // getParameterTypes().
294 if (!genericInfo) {
295 return getParameterTypes();
296 } else {
297 final boolean realParamData = hasRealParameterData();
298 final Type[] genericParamTypes = getGenericParameterTypes();
299 final Type[] nonGenericParamTypes = getParameterTypes();
300 final Type[] out = new Type[nonGenericParamTypes.length];
301 final Parameter[] params = getParameters();
302 int fromidx = 0;
303 // If we have real parameter data, then we use the
304 // synthetic and mandate flags to our advantage.
305 if (realParamData) {
306 for (int i = 0; i < out.length; i++) {
307 final Parameter param = params[i];
308 if (param.isSynthetic() || param.isImplicit()) {
309 // If we hit a synthetic or mandated parameter,
310 // use the non generic parameter info.
311 out[i] = nonGenericParamTypes[i];
312 } else {
313 // Otherwise, use the generic parameter info.
314 out[i] = genericParamTypes[fromidx];
315 fromidx++;
316 }
317 }
318 } else {
319 // Otherwise, use the non-generic parameter data.
320 // Without method parameter reflection data, we have
321 // no way to figure out which parameters are
322 // synthetic/mandated, thus, no way to match up the
323 // indexes.
324 return genericParamTypes.length == nonGenericParamTypes.length ?
325 genericParamTypes : nonGenericParamTypes;
326 }
327 return out;
328 }
329 }
330
331 /**
332 * Returns an array of {@code Parameter} objects that represent
333 * all the parameters to the underlying executable represented by
334 * this object. Returns an array of length 0 if the executable
335 * has no parameters.
336 *
337 * <p>The parameters of the underlying executable do not necessarily
338 * have unique names, or names that are legal identifiers in the
339 * Java programming language (JLS 3.8).
340 *
341 * @throws MalformedParametersException if the class file contains
342 * a MethodParameters attribute that is improperly formatted.
343 * @return an array of {@code Parameter} objects representing all
344 * the parameters to the executable this object represents.
345 */
346 public Parameter[] getParameters() {
347 // TODO: This may eventually need to be guarded by security
348 // mechanisms similar to those in Field, Method, etc.
349 //
350 // Need to copy the cached array to prevent users from messing
351 // with it. Since parameters are immutable, we can
352 // shallow-copy.
353 return privateGetParameters().clone();
354 }
355
356 private Parameter[] synthesizeAllParams() {
357 final int realparams = getParameterCount();
358 final Parameter[] out = new Parameter[realparams];
359 for (int i = 0; i < realparams; i++)
360 // TODO: is there a way to synthetically derive the
361 // modifiers? Probably not in the general case, since
362 // we'd have no way of knowing about them, but there
363 // may be specific cases.
364 out[i] = new Parameter("arg" + i, 0, this, i);
365 return out;
366 }
367
368 private void verifyParameters(final Parameter[] parameters) {
369 final int mask = Modifier.FINAL | Modifier.SYNTHETIC | Modifier.MANDATED;
370
371 if (getParameterTypes().length != parameters.length)
372 throw new MalformedParametersException("Wrong number of parameters in MethodParameters attribute");
373
374 for (Parameter parameter : parameters) {
375 final String name = parameter.getRealName();
376 final int mods = parameter.getModifiers();
377
378 if (name != null) {
379 if (name.isEmpty() || name.indexOf('.') != -1 ||
380 name.indexOf(';') != -1 || name.indexOf('[') != -1 ||
381 name.indexOf('/') != -1) {
382 throw new MalformedParametersException("Invalid parameter name \"" + name + "\"");
383 }
384 }
385
386 if (mods != (mods & mask)) {
387 throw new MalformedParametersException("Invalid parameter modifiers");
388 }
389 }
390 }
391
392 private Parameter[] privateGetParameters() {
393 // Use tmp to avoid multiple writes to a volatile.
394 Parameter[] tmp = parameters;
395
396 if (tmp == null) {
397
398 // Otherwise, go to the JVM to get them
399 try {
400 tmp = getParameters0();
401 } catch(IllegalArgumentException e) {
402 // Rethrow ClassFormatErrors
403 throw new MalformedParametersException("Invalid constant pool index");
404 }
405
406 // If we get back nothing, then synthesize parameters
407 if (tmp == null) {
408 hasRealParameterData = false;
409 tmp = synthesizeAllParams();
410 } else {
411 hasRealParameterData = true;
412 verifyParameters(tmp);
413 }
414
415 parameters = tmp;
416 }
417
418 return tmp;
419 }
420
421 boolean hasRealParameterData() {
422 // If this somehow gets called before parameters gets
423 // initialized, force it into existence.
424 if (parameters == null) {
425 privateGetParameters();
426 }
427 return hasRealParameterData;
428 }
429
430 private transient volatile boolean hasRealParameterData;
431 private transient volatile Parameter[] parameters;
432
433 private native Parameter[] getParameters0();
434 native byte[] getTypeAnnotationBytes0();
435
436 // Needed by reflectaccess
437 byte[] getTypeAnnotationBytes() {
438 return getTypeAnnotationBytes0();
439 }
440
441 /**
442 * Returns an array of {@code Class} objects that represent the
443 * types of exceptions declared to be thrown by the underlying
444 * executable represented by this object. Returns an array of
445 * length 0 if the executable declares no exceptions in its {@code
446 * throws} clause.
447 *
448 * @return the exception types declared as being thrown by the
449 * executable this object represents
450 */
451 public abstract Class<?>[] getExceptionTypes();
452
453 /**
454 * Returns an array of {@code Type} objects that represent the
455 * exceptions declared to be thrown by this executable object.
456 * Returns an array of length 0 if the underlying executable declares
457 * no exceptions in its {@code throws} clause.
458 *
459 * <p>If an exception type is a type variable or a parameterized
460 * type, it is created. Otherwise, it is resolved.
461 *
462 * @return an array of Types that represent the exception types
463 * thrown by the underlying executable
464 * @throws GenericSignatureFormatError
465 * if the generic method signature does not conform to the format
466 * specified in
467 * <cite>The Java™ Virtual Machine Specification</cite>
468 * @throws TypeNotPresentException if the underlying executable's
469 * {@code throws} clause refers to a non-existent type declaration
470 * @throws MalformedParameterizedTypeException if
471 * the underlying executable's {@code throws} clause refers to a
472 * parameterized type that cannot be instantiated for any reason
473 */
474 public Type[] getGenericExceptionTypes() {
475 Type[] result;
476 if (hasGenericInformation() &&
477 ((result = getGenericInfo().getExceptionTypes()).length > 0))
478 return result;
479 else
480 return getExceptionTypes();
481 }
482
483 /**
484 * Returns a string describing this {@code Executable}, including
485 * any type parameters.
486 * @return a string describing this {@code Executable}, including
487 * any type parameters
488 */
489 public abstract String toGenericString();
490
491 /**
492 * Returns {@code true} if this executable was declared to take a
493 * variable number of arguments; returns {@code false} otherwise.
494 *
495 * @return {@code true} if an only if this executable was declared
496 * to take a variable number of arguments.
497 */
498 public boolean isVarArgs() {
499 return (getModifiers() & Modifier.VARARGS) != 0;
500 }
501
502 /**
503 * Returns {@code true} if this executable is a synthetic
504 * construct; returns {@code false} otherwise.
505 *
506 * @return true if and only if this executable is a synthetic
507 * construct as defined by
508 * <cite>The Java™ Language Specification</cite>.
509 * @jls 13.1 The Form of a Binary
510 */
511 public boolean isSynthetic() {
512 return Modifier.isSynthetic(getModifiers());
513 }
514
515 /**
516 * Returns an array of arrays of {@code Annotation}s that
517 * represent the annotations on the formal parameters, in
518 * declaration order, of the {@code Executable} represented by
519 * this object. Synthetic and mandated parameters (see
520 * explanation below), such as the outer "this" parameter to an
521 * inner class constructor will be represented in the returned
522 * array. If the executable has no parameters (meaning no formal,
523 * no synthetic, and no mandated parameters), a zero-length array
524 * will be returned. If the {@code Executable} has one or more
525 * parameters, a nested array of length zero is returned for each
526 * parameter with no annotations. The annotation objects contained
527 * in the returned arrays are serializable. The caller of this
528 * method is free to modify the returned arrays; it will have no
529 * effect on the arrays returned to other callers.
530 *
531 * A compiler may add extra parameters that are implicitly
532 * declared in source ("mandated"), as well as parameters that
533 * are neither implicitly nor explicitly declared in source
534 * ("synthetic") to the parameter list for a method. See {@link
535 * java.lang.reflect.Parameter} for more information.
536 *
537 * @see java.lang.reflect.Parameter
538 * @see java.lang.reflect.Parameter#getAnnotations
539 * @return an array of arrays that represent the annotations on
540 * the formal and implicit parameters, in declaration order, of
541 * the executable represented by this object
542 */
543 public abstract Annotation[][] getParameterAnnotations();
544
545 Annotation[][] sharedGetParameterAnnotations(Class<?>[] parameterTypes,
546 byte[] parameterAnnotations) {
547 int numParameters = parameterTypes.length;
548 if (parameterAnnotations == null)
549 return new Annotation[numParameters][0];
550
551 Annotation[][] result = parseParameterAnnotations(parameterAnnotations);
552
553 if (result.length != numParameters &&
554 handleParameterNumberMismatch(result.length, numParameters)) {
555 Annotation[][] tmp = new Annotation[result.length+1][];
556 // Shift annotations down one to account for an implicit leading parameter
557 System.arraycopy(result, 0, tmp, 1, result.length);
558 tmp[0] = new Annotation[0];
559 result = tmp;
560 }
561 return result;
562 }
563
564 abstract boolean handleParameterNumberMismatch(int resultLength, int numParameters);
565
566 /**
567 * {@inheritDoc}
568 * @throws NullPointerException {@inheritDoc}
569 */
570 public <T extends Annotation> T getAnnotation(Class<T> annotationClass) {
571 Objects.requireNonNull(annotationClass);
572 return annotationClass.cast(declaredAnnotations().get(annotationClass));
573 }
574
575 /**
576 * {@inheritDoc}
577 * @throws NullPointerException {@inheritDoc}
578 */
579 @Override
580 public <T extends Annotation> T[] getAnnotationsByType(Class<T> annotationClass) {
581 Objects.requireNonNull(annotationClass);
582
583 return AnnotationSupport.getDirectlyAndIndirectlyPresent(declaredAnnotations(), annotationClass);
584 }
585
586 /**
587 * {@inheritDoc}
588 */
589 public Annotation[] getDeclaredAnnotations() {
590 return AnnotationParser.toArray(declaredAnnotations());
591 }
592
593 private transient volatile Map<Class<? extends Annotation>, Annotation> declaredAnnotations;
594
595 private Map<Class<? extends Annotation>, Annotation> declaredAnnotations() {
596 Map<Class<? extends Annotation>, Annotation> declAnnos;
597 if ((declAnnos = declaredAnnotations) == null) {
598 synchronized (this) {
599 if ((declAnnos = declaredAnnotations) == null) {
600 Executable root = (Executable)getRoot();
601 if (root != null) {
602 declAnnos = root.declaredAnnotations();
603 } else {
604 declAnnos = AnnotationParser.parseAnnotations(
605 getAnnotationBytes(),
606 SharedSecrets.getJavaLangAccess().
607 getConstantPool(getDeclaringClass()),
608 getDeclaringClass()
609 );
610 }
611 declaredAnnotations = declAnnos;
612 }
613 }
614 }
615 return declAnnos;
616 }
617
618 /**
619 * Returns an {@code AnnotatedType} object that represents the use of a type to
620 * specify the return type of the method/constructor represented by this
621 * Executable.
622 *
623 * If this {@code Executable} object represents a constructor, the {@code
624 * AnnotatedType} object represents the type of the constructed object.
625 *
626 * If this {@code Executable} object represents a method, the {@code
627 * AnnotatedType} object represents the use of a type to specify the return
628 * type of the method.
629 *
630 * @return an object representing the return type of the method
631 * or constructor represented by this {@code Executable}
632 */
633 public abstract AnnotatedType getAnnotatedReturnType();
634
635 /* Helper for subclasses of Executable.
636 *
637 * Returns an AnnotatedType object that represents the use of a type to
638 * specify the return type of the method/constructor represented by this
639 * Executable.
640 */
641 AnnotatedType getAnnotatedReturnType0(Type returnType) {
642 return TypeAnnotationParser.buildAnnotatedType(getTypeAnnotationBytes0(),
643 SharedSecrets.getJavaLangAccess().
644 getConstantPool(getDeclaringClass()),
645 this,
646 getDeclaringClass(),
647 returnType,
648 TypeAnnotation.TypeAnnotationTarget.METHOD_RETURN);
649 }
650
651 /**
652 * Returns an {@code AnnotatedType} object that represents the use of a
653 * type to specify the receiver type of the method/constructor represented
654 * by this {@code Executable} object.
655 *
656 * The receiver type of a method/constructor is available only if the
657 * method/constructor has a receiver parameter (JLS 8.4.1). If this {@code
658 * Executable} object <em>represents an instance method or represents a
659 * constructor of an inner member class</em>, and the
660 * method/constructor <em>either</em> has no receiver parameter or has a
661 * receiver parameter with no annotations on its type, then the return
662 * value is an {@code AnnotatedType} object representing an element with no
663 * annotations.
664 *
665 * If this {@code Executable} object represents a static method or
666 * represents a constructor of a top level, static member, local, or
667 * anonymous class, then the return value is null.
668 *
669 * @return an object representing the receiver type of the method or
670 * constructor represented by this {@code Executable} or {@code null} if
671 * this {@code Executable} can not have a receiver parameter
672 */
673 public AnnotatedType getAnnotatedReceiverType() {
674 if (Modifier.isStatic(this.getModifiers()))
675 return null;
676 return TypeAnnotationParser.buildAnnotatedType(getTypeAnnotationBytes0(),
677 SharedSecrets.getJavaLangAccess().
678 getConstantPool(getDeclaringClass()),
679 this,
680 getDeclaringClass(),
681 getDeclaringClass(),
682 TypeAnnotation.TypeAnnotationTarget.METHOD_RECEIVER);
683 }
684
685 /**
686 * Returns an array of {@code AnnotatedType} objects that represent the use
687 * of types to specify formal parameter types of the method/constructor
688 * represented by this Executable. The order of the objects in the array
689 * corresponds to the order of the formal parameter types in the
690 * declaration of the method/constructor.
691 *
692 * Returns an array of length 0 if the method/constructor declares no
693 * parameters.
694 *
695 * @return an array of objects representing the types of the
696 * formal parameters of the method or constructor represented by this
697 * {@code Executable}
698 */
699 public AnnotatedType[] getAnnotatedParameterTypes() {
700 return TypeAnnotationParser.buildAnnotatedTypes(getTypeAnnotationBytes0(),
701 SharedSecrets.getJavaLangAccess().
702 getConstantPool(getDeclaringClass()),
703 this,
704 getDeclaringClass(),
705 getAllGenericParameterTypes(),
706 TypeAnnotation.TypeAnnotationTarget.METHOD_FORMAL_PARAMETER);
707 }
708
709 /**
710 * Returns an array of {@code AnnotatedType} objects that represent the use
711 * of types to specify the declared exceptions of the method/constructor
712 * represented by this Executable. The order of the objects in the array
713 * corresponds to the order of the exception types in the declaration of
714 * the method/constructor.
715 *
716 * Returns an array of length 0 if the method/constructor declares no
717 * exceptions.
718 *
719 * @return an array of objects representing the declared
720 * exceptions of the method or constructor represented by this {@code
721 * Executable}
722 */
723 public AnnotatedType[] getAnnotatedExceptionTypes() {
724 return TypeAnnotationParser.buildAnnotatedTypes(getTypeAnnotationBytes0(),
725 SharedSecrets.getJavaLangAccess().
726 getConstantPool(getDeclaringClass()),
727 this,
728 getDeclaringClass(),
729 getGenericExceptionTypes(),
730 TypeAnnotation.TypeAnnotationTarget.THROWS);
731 }
732
733 }