}
        return property;
    }

    void superType(Class<?> type) {
        superTypes.add(type);
    }

    void method(Method method) {
        methods.add(method);
    }

    void instanceMethod(Method method) {
        instanceMethods.add(method);
    }

    MutablePropertyDetails property(String propertyName) {
        MutablePropertyDetails property = properties.get(propertyName);

func (a, b, c /* ERROR "method has multiple receivers" */ T3) _() {}

// Methods associated with non-local or unnamed types.
func (int /* ERROR "cannot define new methods on non-local type int" */ ) m() {}
func ([ /* ERROR "invalid receiver" */ ]int) m() {}
func (time /* ERROR "cannot define new methods on non-local type time.Time" */ .Time) m() {}

import java.lang.annotation.Target;

/**
 * Marks a method as an event subscriber.
 *
 * <p>The type of event will be indicated by the method's first (and only) parameter, which cannot
 * be primitive. If this annotation is applied to methods with zero parameters, or more than one
 * parameter, the object containing the method will not be able to register for event delivery from
 * the {@link EventBus}.
 *

import java.lang.annotation.Target;

/**
 * Marks a method as an event subscriber.
 *
 * <p>The type of event will be indicated by the method's first (and only) parameter, which cannot
 * be primitive. If this annotation is applied to methods with zero parameters, or more than one
 * parameter, the object containing the method will not be able to register for event delivery from
 * the {@link EventBus}.
 *

func (_ A[P]) a() {}

var _ T5[A[int], int]

// Invoking methods with parameterized receiver types uses
// type inference to determine the actual type arguments matching
// the receiver type parameters from the actual receiver argument.
// Go does implicit address-taking and dereferenciation depending
// on the actual receiver and the method's receiver type. To make
// type inference work, the type-checker matches "pointer-ness"

}

// matchingMethods adds to methodSet all the methods that would result in a
// match if passed to routingNode.match with the given host and path.
func (root *routingNode) matchingMethods(host, path string, methodSet map[string]bool) {
	if host != "" {
		root.findChild(host).matchingMethodsPath(path, methodSet)
	}
	root.emptyChild.matchingMethodsPath(path, methodSet)
	if methodSet["GET"] {
		methodSet["HEAD"] = true
	}

import (
	"io/fs"
	"syscall"
)

// Getpagesize returns the underlying system's memory page size.
func Getpagesize() int { return syscall.Getpagesize() }

// File represents an open file descriptor.
//
// The methods of File are safe for concurrent use.
type File struct {
	*file // os specific
}

// A FileInfo describes a file and is returned by [Stat] and [Lstat].
type FileInfo = fs.FileInfo

// package-level objects, and may be nil.
//
// Examples:
//
//	"field (T) f int"
//	"method (T) f(X) Y"
//	"method expr (T) f(X) Y"
func SelectionString(s *Selection, qf Qualifier) string {
	var k string
	switch s.kind {
	case FieldVal:
		k = "field "
	case MethodVal:
		k = "method "
	case MethodExpr:
		k = "method expr "
	default:
		panic("unreachable")
	}
	var buf bytes.Buffer

	if len(methods) == 0 && len(embeddeds) == 0 {
		return &emptyInterface
	}

	// set method receivers if necessary
	typ := (*Checker)(nil).newInterface()
	for _, m := range methods {
		if sig := m.typ.(*Signature); sig.recv == nil {
			sig.recv = NewVar(m.pos, m.pkg, "", typ)
		}
	}

	// sort for API stability
	sortMethods(methods)

	typ.methods = methods
	typ.embeddeds = embeddeds

// package-level objects, and may be nil.
//
// Examples:
//
//	"field (T) f int"
//	"method (T) f(X) Y"
//	"method expr (T) f(X) Y"
func SelectionString(s *Selection, qf Qualifier) string {
	var k string
	switch s.kind {
	case FieldVal:
		k = "field "
	case MethodVal:
		k = "method "
	case MethodExpr:
		k = "method expr "
	default:
		panic("unreachable")
	}
	var buf bytes.Buffer