*
   * This needs to be a @JsMethod so that J2CL knows to look for a JavaScript implemention of
   * it in Platform.native.js. (The JavaScript implementation inline below is visible to *GWT*, but
   * *J2CL* doesn't look at it.)
   *
   * However, once it's a @JsMethod, GWT produces a warning. That's because (a) the *other* purpose
   * of @JsMethod is to make a method *callable* from JavaScript and (b) this method would not be

import jsinterop.annotations.JsMethod;
import jsinterop.annotations.JsOptional;
import jsinterop.annotations.JsPackage;
import jsinterop.annotations.JsType;
import org.checkerframework.checker.nullness.qual.Nullable;

/**
 * Java super source for ListenableFuture, implementing a structural thenable via a default method.
 * For restrictions, please refer to the documentation of the then() method.
 */
@ElementTypesAreNonnullByDefault

import (
	"runtime"
	"testing"
)

type I1 interface {
	Method1()
}

type I2 interface {
	Method1()
	Method2()
}

type TS uint16
type TM uintptr
type TL [2]uintptr

func (TS) Method1() {}
func (TS) Method2() {}
func (TM) Method1() {}
func (TM) Method2() {}
func (TL) Method1() {}
func (TL) Method2() {}

type T8 uint8
type T16 uint16
type T32 uint32
type T64 uint64

	// MethodB has a blank receiver type parameter. 
	func (t Type[_]) MethodB()

	// MethodC has a lower-case receiver type parameter. 

	// MethodB has a blank receiver type parameter. 
	func (t Type[_]) MethodB()

	// MethodC has a lower-case receiver type parameter. 

type store map[string]Driver

// Get lets you retrieve a CSI Driver by name.
// This method is protected by a mutex.
func (s *DriversStore) Get(driverName string) (Driver, bool) {
	s.RLock()
	defer s.RUnlock()

	driver, ok := s.store[driverName]
	return driver, ok
}

// Set lets you save a CSI Driver to the list and give it a specific name.
// This method is protected by a mutex.
func (s *DriversStore) Set(driverName string, driver Driver) {

func Constructor[lowerCase any]() Type[lowerCase] {
	return Type[lowerCase]{}
}

// MethodA uses a different name for its receiver type parameter.
func (t Type[A]) MethodA(p A) {}

// MethodB has a blank receiver type parameter.
func (t Type[_]) MethodB() {}

// MethodC has a lower-case receiver type parameter.
func (t Type[c]) MethodC() {}

// Constraint is a constraint interface with two type parameters.

value (argument) or a function or method call, possibly with multiple arguments:

	Argument
		The result is the value of evaluating the argument.
	.Method [Argument...]
		The method can be alone or the last element of a chain but,
		unlike methods in the middle of a chain, it can take arguments.
		The result is the value of calling the method with the
		arguments:
			dot.Method(Argument1, etc.)
	functionName [Argument...]

            def task() { task inMethod }
            task()
            def cl = { -> task inClosure }
            cl()
            task all(dependsOn: [dynamic0, dynamic1, inBlock, inMethod, inClosure])
        """

        expect:
        succeeds ":dynamic0", ":dynamic1", ":inBlock", ":inClosure", ":inMethod", ":all"
    }

    def "can define tasks using task method expression"() {
        buildFile << """

	var ms []*types.Field
	for i, sl := range slist {
		slist[i].field = nil
		sl.field.Sym.SetUniq(false)

		var f *types.Field
		path, _ := dotpath(sl.field.Sym, t, &f, false)
		if path == nil {
			continue
		}

		// dotpath may have dug out arbitrary fields, we only want methods.
		if !f.IsMethod() {
			continue
		}

		// add it to the base type method list