package lib

type FMap[K comparable, V comparable] map[K]V

//go:noinline
func (m FMap[K, V]) Flip() FMap[V, K] {
	out := make(FMap[V, K])
	return out
}

type MyType uint8

const (
	FIRST MyType = 0
)

var typeStrs = FMap[MyType, string]{
	FIRST: "FIRST",
}

func (self MyType) String() string {
	return typeStrs[self]

		{Type: Modified, Object: &myType{"foo", "goodbye world 3"}},
		{Type: Deleted, Object: &myType{"bar", "hello world 4"}},
	}

	// The broadcaster we're testing
	m := NewBroadcaster(0, WaitIfChannelFull)

	// Add a bunch of watchers
	const testWatchers = 2
	wg := sync.WaitGroup{}
	wg.Add(testWatchers)
	for i := 0; i < testWatchers; i++ {
		w, err := m.Watch()
		if err != nil {

    # TYPE apiserver_authorization_decisions_total counter`
	metrics := []string{
		namespace + "_" + subsystem + "_decisions_total",
	}

	authorizationDecisionsTotal.Reset()
	RegisterMetrics()

	dummyAuthorizer := &dummyAuthorizer{}
	a := InstrumentedAuthorizer("mytype", "myname", dummyAuthorizer)

	// allow
	{

// assigned to interfaces, but only if reflect.Type.Method is
// never used. Test it here.

package main

import "reflect"

var called = false

type M int

func (m M) UniqueMethodName() {
	called = true
}

var v M

type MyType interface {
	Method(int) reflect.Method
}

func main() {
	var t MyType = reflect.TypeOf(v)
	t.Method(0).Func.Interface().(func(M))(v)

// assigned to interfaces, but only if reflect.Type.MethodByName is
// never used. Test it here.

package main

import reflect1 "reflect"

var called = false

type M int

func (m M) UniqueMethodName() {
	called = true
}

var v M

type MyType interface {
	MethodByName(string) (reflect1.Method, bool)
}

func main() {
	var t MyType = reflect1.TypeOf(v)

// for registering the hardware.
// Subclasses must implement the pure virtual function interface and
// define static member variable that retrieves string identifying the Target
// Hardware. Example,
// class MyType : public TargetHardware {
//  public:
//   static constexpr char kId[] = "MyHardware";
// };
class TargetHardware {
 public:
  virtual ~TargetHardware() = default;

    def parser = NotationParserBuilder.toType(ExternalModuleDependency).converter(new DependencyMapNotationConverter<DefaultExternalModuleDependency>(TestUtil.instantiatorFactory().decorateLenient(), DefaultExternalModuleDependency.class)).toComposite()

    def "with artifact"() {
        when:
        def d = parser.parseNotation([group: 'org.gradle', name: 'gradle-core', version: '4.4-beta2', ext: 'mytype'])

        then:

        !d.force
        !d.transitive
        !d.changing

        d.artifacts.size() == 1
        d.artifacts.find { it.name == 'gradle-core' && it.classifier == null && it.type == 'mytype' }
    }

    def "with classified artifact"() {
        when:
        def d = parse(parser, 'org.gradle:gradle-core:10:jdk-1.4@zip')

        then:
        d.name == 'gradle-core'

public class ReflectionTest extends TestCase {

  public void testGetPackageName() throws Exception {
    assertEquals("java.lang", Reflection.getPackageName(Iterable.class));
    assertEquals("java", Reflection.getPackageName("java.MyType"));
    assertEquals("java.lang", Reflection.getPackageName(Iterable.class.getName()));
    assertEquals("", Reflection.getPackageName("NoPackage"));
    assertEquals("java.util", Reflection.getPackageName(Map.Entry.class));
  }

	// (*unsafe.Pointer)(x) where x is type *bad -> (*unsafe.Pointer)(unsafe.Pointer(x))
	// (*bad.type)(x) where x is type *unsafe.Pointer -> (*bad.type)(unsafe.Pointer(x))
	walk(f, func(n any) {
		if n == nil {
			return
		}
		// Find pattern like (*a.b)(x)
		c, ok := n.(*ast.CallExpr)
		if !ok {
			return
		}
		if len(c.Args) != 1 {
			return
		}
		p, ok := c.Fun.(*ast.ParenExpr)
		if !ok {