func badlinkname_rtype_Len(*rtype) int

//go:linkname badlinkname_rtype_Method reflect.(*rtype).Method
func badlinkname_rtype_Method(*rtype, int) Method

//go:linkname badlinkname_rtype_MethodByName reflect.(*rtype).MethodByName
func badlinkname_rtype_MethodByName(*rtype, string) (Method, bool)

//go:linkname badlinkname_rtype_Name reflect.(*rtype).Name
func badlinkname_rtype_Name(*rtype) string

func (A1) m() {} // ERROR "cannot define new methods on non-local type|may not define methods on non-local type"
func (A2) m() {} // ERROR "invalid receiver type"
func (A3) m() {} // ERROR "cannot define new methods on non-local type|may not define methods on non-local type"
func (A4) m() {} // ERROR "cannot define new methods on non-local type|may not define methods on non-local type"

type B1 = struct{}

				if p.identical(q) {
					return true // same pair was compared before
				}
				p = p.prev
			}
			// The method set of x must be a subset of the method set
			// of y or vice versa, and the common methods must unify.
			xmethods := xset.methods
			ymethods := yset.methods
			// The smaller method set must be the subset, if it exists.
			if len(xmethods) > len(ymethods) {
				xmethods, ymethods = ymethods, xmethods
			}

				if p.identical(q) {
					return true // same pair was compared before
				}
				p = p.prev
			}
			// The method set of x must be a subset of the method set
			// of y or vice versa, and the common methods must unify.
			xmethods := xset.methods
			ymethods := yset.methods
			// The smaller method set must be the subset, if it exists.
			if len(xmethods) > len(ymethods) {
				xmethods, ymethods = ymethods, xmethods
			}

 * Information about the artifacts can be accessed via the methods of {@link ComponentGraphResolveState}.</p>
 */
public interface VariantGraphResolveMetadata extends HasAttributes {
    /**
     * Returns the name for this variant, which is unique for the variants of its owning component.
     *
     * In general, this method should be avoided. The internal engine should not need to know the name of a node and

func (S0) m4 () (x *S0.m4 /* ERROR "S0.m4 is not a type" */ ) { return }

// interfaces may not have any blank methods
type BlankI interface {
	_ /* ERROR "methods must have a unique non-blank name" */ ()
	_ /* ERROR "methods must have a unique non-blank name" */ (float32) int
	m()
}

// non-interface types may have multiple blank methods
type BlankT struct{}

func (BlankT) _() {}
func (BlankT) _(int) {}

      to:
        - operation:
            methods: ["method", "method-prefix-*", "*-suffix-method", "*"]
            hosts: ["exact.com", "*.suffix.com", "prefix.*", "*"]
            ports: ["80", "90"]
            paths: ["/exact", "/prefix/*", "*/suffix", "*", "/path/template/{*}", "/{**}/path/template"]
            notMethods: ["not-method", "not-method-prefix-*", "*-not-suffix-method", "*"]

			//
			// In this case the interface will not be substituted here, because its
			// method signatures do not depend on the type parameter P, but we still
			// need to create new interface methods to hold the instantiated
			// receiver. This is handled by Named.expandUnderlying.
			iface.methods, _ = replaceRecvType(methods, t, iface)

			// If check != nil, check.newInterface will have saved the interface for later completion.

	}
	return sig
}

// Recv returns the receiver of signature s (if a method), or nil if a
// function. It is ignored when comparing signatures for identity.
//
// For an abstract method, Recv returns the enclosing interface either
// as a *Named or an *Interface. Due to embedding, an interface may
// contain methods whose receiver type is a different interface.
func (s *Signature) Recv() *Var { return s.recv }

	return signature, nil
}

// Returns new HTTP request object.
func newTestStreamingRequest(method, urlStr string, dataLength, chunkSize int64, body io.ReadSeeker) (*http.Request, error) {
	if method == "" {
		method = http.MethodPost
	}

	req, err := http.NewRequest(method, urlStr, nil)
	if err != nil {
		return nil, err
	}

	if body == nil {