return
	}
}

func testGetStringValue(t *testing.T, k registry.Key, test ValueTest) {
	got, gottype, err := k.GetStringValue(test.Name)
	if err != nil {
		t.Errorf("GetStringValue(%s) failed: %v", test.Name, err)
		return
	}
	if got != test.Value {
		t.Errorf("want %s value %q, got %q", test.Name, test.Value, got)
		return
	}
	if gottype != test.Type {

	// If we want a type but don't have one, stop right here and avoid potential problems
	// with missing underlying types. This also gives better error messages in some cases
	// (see go.dev/issue/65344).
	_, gotType := obj.(*TypeName)
	if !gotType && wantType {
		check.errorf(e, NotAType, "%s is not a type", obj.Name())
		// avoid "declared but not used" errors
		// (don't use Checker.use - we don't want to evaluate too much)

	// If we want a type but don't have one, stop right here and avoid potential problems
	// with missing underlying types. This also gives better error messages in some cases
	// (see go.dev/issue/65344).
	_, gotType := obj.(*TypeName)
	if !gotType && wantType {
		check.errorf(e, NotAType, "%s is not a type", obj.Name())
		// avoid "declared but not used" errors
		// (don't use Checker.use - we don't want to evaluate too much)

				off += pad
				npad++
			}
			ctype += fmt.Sprintf("\t\t%s %s;\n", t.C, name)
			fmt.Fprintf(gotype, "\t\t%s ", name)
			noSourceConf.Fprint(gotype, fset, typ)
			fmt.Fprintf(gotype, "\n")
			off += t.Size
		}
		if fn.Recv != nil {
			argField(fn.Recv.List[0].Type, "recv")
		}
		fntype := fn.Type
		forFieldList(fntype.Params,
			func(i int, aname string, atype ast.Expr) {

		return tInt.gobType(), nil

	case reflect.Uint, reflect.Uint8, reflect.Uint16, reflect.Uint32, reflect.Uint64, reflect.Uintptr:
		return tUint.gobType(), nil

	case reflect.Float32, reflect.Float64:
		return tFloat.gobType(), nil

	case reflect.Complex64, reflect.Complex128:
		return tComplex.gobType(), nil

	case reflect.String:
		return tString.gobType(), nil

	case reflect.Interface:

                return new DefaultAnnotationProcessorDetails(result.getClassName(), toType(result.getType()), result.getExecutionTimeInMillis());
            }

            private AnnotationProcessorDetails.Type toType(IncrementalAnnotationProcessorType type) {
                if (type == IncrementalAnnotationProcessorType.AGGREGATING) {

                if (element != typeNesting.get(typeNesting.size() - 1)) {
                    typeName.append("$");
                }
            }
        });
        typeName.append(";");

        return Type.getType(typeName.toString());
    }

    @Override
    public Type visitError(ErrorType t, Void unused) {
        throw unsupportedType(t);
    }

    @Override

            Type expected = new Key<Set<Set<Set<Integer>>>>() {}.getType();
            assertEquals(expected, simplifyType(type));
        }

        {
            Type type = new Key<Set<Set<? extends Set<Integer>>>>() {}.getType();
            Type expected = new Key<Set<Set<Set<Integer>>>>() {}.getType();
            assertEquals(expected, simplifyType(type));

      }
    }
    assertNotNull(new MyLocalClass<String>().getType());
  }

  private static <T> Type staticMethodWithAnonymousClass() {
    return new Object() {
      Type getType() {
        return new TypeToken<T>(getClass()) {}.getType();
      }
    }.getType();
  }

  public void testAnonymousClassInsideStaticMethod() {
    assertNotNull(staticMethodWithAnonymousClass());
  }

      }
    }
    assertNotNull(new MyLocalClass<String>().getType());
  }

  private static <T> Type staticMethodWithAnonymousClass() {
    return new Object() {
      Type getType() {
        return new TypeToken<T>(getClass()) {}.getType();
      }
    }.getType();
  }

  public void testAnonymousClassInsideStaticMethod() {
    assertNotNull(staticMethodWithAnonymousClass());
  }