attribute(Usage.USAGE_ATTRIBUTE, objects.named(Usage, Usage.JAVA_RUNTIME))
                        attribute(Category.CATEGORY_ATTRIBUTE, objects.named(Category, Category.DOCUMENTATION))
                        attribute(Bundling.BUNDLING_ATTRIBUTE, objects.named(Bundling, Bundling.EXTERNAL))
                        attribute(DocsType.DOCS_TYPE_ATTRIBUTE, objects.named(DocsType, DocsType.SOURCES))
                    }

package p

type T struct {
	a, b, c int
	E
}

type E struct{}

func (T) b()  {} // ERROR "field and method named b|redeclares struct field name|field and method with the same name b"
func (*T) E() {} // ERROR "field and method named E|redeclares struct field name|field and method with the same name E"

func _() {
	var x T
	_ = x.a
	_ = x.b // no follow-on error here
	x.b()   // no follow-on error here
	_ = x.c

        n1.toString() == "a"
        n2.toString() == "b"

        n1.is(factory.named(Named, "a"))
        n2.is(factory.named(Named, "b"))
    }

    def "can unpack and recreate Named instance"() {
        expect:
        def n1 = factory.named(Named, "a")
        n1 instanceof Managed
        n1.publicType() == Named
        n1.isImmutable()
        def state = n1.unpackState()
        state == "a"

                    }
                    attributes.attribute(Category.CATEGORY_ATTRIBUTE, objects.named(Category.class, "foo"))
                }
                dependencyScope("deps")
                resolvable("res") {
                    extendsFrom(deps)
                    attributes.attribute(Category.CATEGORY_ATTRIBUTE, objects.named(Category.class, "foo"))
                }
            }

            dependencies {

// named "foo", while "a/foo" is unavailable.
func ParseFiles(filenames ...string) (*Template, error) {
	return parseFiles(nil, readFileOS, filenames...)
}

// ParseFiles parses the named files and associates the resulting templates with
// t. If an error occurs, parsing stops and the returned template is nil;
// otherwise it is t. There must be at least one file.

			log.Fatal(err)
		}
		if _, err := f.Write(crash); err != nil {
			log.Fatal(err)
		}
		if err := f.Close(); err != nil {
			log.Fatal(err)
		}
		log.Fatalf("saved crash report at %s", f.Name())
	}

	// This is the application process.
	// Fork+exec the same executable in monitor mode.
	exe, err := os.Executable()
	if err != nil {
		log.Fatal(err)
	}
	cmd := exec.Command(exe, "-test.run=ExampleSetCrashOutput_monitor")

// Receiver parameter types are ignored. Named (defined) types are only equal if they
// are pointer-equal - i.e. there must be a unique types.Type for each specific named
// type. Also, a type containing a shape type is considered identical to another type
// (shape or not) if their underlying types are the same, or they are both pointers.
func Identical(t1, t2 *Type) bool {
	return identical(t1, t2, 0, nil)

        }
        return symbolEquals(other)
    }

    /**
     * All kinds of non-local named class or object symbols must have the same kind of hash code. The class ID is the best option, as the
     * same class/object may be represented by multiple different symbols.
     */
    override fun hashCode(): Int = classId?.hashCode() ?: symbolHashCode()

 * the same injector is immediately matched to this explicit binding, which means extensions
 * cannot override this binding. This is because the lookup is always short-circuited in this
 * specific situation (plain @Inject request, and plain explicit binding for the same type.)
 *
 * The simplest solution is to use a custom @Named here so it isn't bound under the plain key.

// the type system. The main consequence of this is that a user can give
// the type a new name and it will still have the same properties, e.g.,
//
//	type HL structs.HostLayout
//
// It also prevents unintentional conversion of struct{} to a named marker type.
type hostLayout struct {