// that simply returns the value passed during stub initialization.
func (s cacheSyncWaiterStub) WaitForCacheSync(_ <-chan struct{}) map[reflect.Type]bool {
	return s.startedByInformerType
}

func TestInstallPathHandlerWithHealthyFunc(t *testing.T) {
	mux := http.NewServeMux()
	readyzCh := make(chan struct{})

	hasBeenReadyCounter := 0
	hasBeenReadyFn := func() {
		hasBeenReadyCounter++
	}

						yield str(cnt + 1), v
						cnt += 2
				bp = b['overflow']


class ChanTypePrinter:
	"""Pretty print chan[T] types.

	Chan-typed go variables are really pointers. dereference them in gdb
	to inspect their contents with this pretty printer.
	"""

	pattern = re.compile(r'^chan ')

	def __init__(self, val):
		self.val = val

	def display_hint(self):
		return 'array'

func (t *testController) ConfigClusterHandler() testHandler {
	return t.component.clusters["config"]
}

func (t *testController) Run(stop chan struct{}) {
	assert.NoError(t.t, t.controller.Run(stop))
	t.client.RunAndWait(stop)
}

func TestListRemoteClusters(t *testing.T) {
	stop := make(chan struct{})
	c := buildTestController(t, false)
	c.AddSecret("s0", "c0")
	c.AddSecret("s1", "c1")
	c.Run(stop)

	// before sync

//
// Until is syntactic sugar on top of JitterUntil with zero jitter factor and
// with sliding = true (which means the timer for period starts after the f
// completes).
func Until(f func(), period time.Duration, stopCh <-chan struct{}) {
	JitterUntil(f, period, 0.0, true, stopCh)
}

// UntilWithContext loops until context is done, running f every period.
//
// UntilWithContext is syntactic sugar on top of JitterUntilWithContext

	// InvalidChanAssign occurs when a chan assignment is invalid.
	//
	// Per the spec, a value x is assignable to a channel type T if:
	//  "x is a bidirectional channel value, T is a channel type, x's type V and
	//  T have identical element types, and at least one of V or T is not a
	//  defined type."
	//
	// Example:
	//  type T1 chan int
	//  type T2 chan int
	//
	//  var x T1

	clientConn, serverConn := localPipe(t)

	serverConfig := config.Clone()
	serverConfig.DynamicRecordSizingDisabled = false
	tlsConn := Server(serverConn, serverConfig)

	handshakeDone := make(chan struct{})
	recordSizesChan := make(chan []int, 1)
	defer func() { <-recordSizesChan }() // wait for the goroutine to exit
	go func() {
		// This goroutine performs a TLS handshake over clientConn and

}

// testBasicIO tests that the data sent on c1 is properly received on c2.
func testBasicIO(t *testing.T, c1, c2 net.Conn) {
	want := make([]byte, 1<<20)
	rand.New(rand.NewSource(0)).Read(want)

	dataCh := make(chan []byte)
	go func() {
		rd := bytes.NewReader(want)
		if err := chunkedCopy(c1, rd); err != nil {
			t.Errorf("unexpected c1.Write error: %v", err)
		}
		if err := c1.Close(); err != nil {

		if y, ok := y.(*Map); ok {
			return c.identical(x.key, y.key, p) && c.identical(x.elem, y.elem, p)
		}

	case *Chan:
		// Two channel types are identical if they have identical value types
		// and the same direction.
		if y, ok := y.(*Chan); ok {
			return x.dir == y.dir && c.identical(x.elem, y.elem, p)
		}

	case *Named:
		// Two named types are identical if their type names originate

		go finalizingController.Run(5, context.StopCh)

		discoverySyncedCh := make(chan struct{})
		go discoveryController.Run(context.StopCh, discoverySyncedCh)
		select {
		case <-context.StopCh:
		case <-discoverySyncedCh:
		}

		return nil
	})
	// we don't want to report healthy until we can handle all CRDs that have already been registered.  Waiting for the informer

// function fails.
func (enc *Encoder) concreteMethod(meth *types.Func) (Path, bool) {
	// Concrete methods can only be declared on package-scoped named types. For
	// that reason we can skip the expensive walk over the package scope: the
	// path will always be package -> named type -> method. We can trivially get
	// the type name from the receiver, and only have to look over the type's
	// methods to find the method index.
	//