if obj == nil {
		return p.Delegate.PrintObj(obj, w)
	}
	if !obj.GetObjectKind().GroupVersionKind().Empty() {
		return p.Delegate.PrintObj(obj, w)
	}

	// we were empty coming in, make sure we're empty going out.  This makes the call thread-unsafe
	defer func() {
		obj.GetObjectKind().SetGroupVersionKind(schema.GroupVersionKind{})
	}()

	gvks, _, err := p.Typer.ObjectKinds(obj)
	if err != nil {

	close(r.done)
}

func TestReadAll() {
	c := make(chan int)
	go func() {
		c <- 4
		c <- 2
		c <- 5
		close(c)
	}()
	got := _ReadAll(context.Background(), c)
	want := []int{4, 2, 5}
	if !_SliceEqual(got, want) {
		panic(fmt.Sprintf("_ReadAll returned %v, want %v", got, want))
	}
}

func TestMerge() {
	c1 := make(chan int)
	c2 := make(chan int)
	go func() {
		c1 <- 1
		c1 <- 3

        """

        writeSourceFile()

        when:
        run("javadoc")

        then:
        file("build/javadoc/Foo.html").exists()
    }

    def "changing standard doclet options makes task out-of-date"() {
        buildFile << """
            task javadoc(type: Javadoc) {
                destinationDir = file("build/javadoc")
                source "src/main/java"
                options {

A lot of problems with traditional build systems is that they don't make the difference between a producer and a consumer.

A _consumer_ needs to be understood in the large sense:

- a project that depends on another project is a _consumer_
- a _task_ that depends on an artifact is a finer grained consumer

		// So, it's enough to just check the length of tolerations to notice the update.
		// And, any updates in tolerations could make Pod schedulable.
		logger.V(5).Info("a new toleration is added for the Pod, and it may make it schedulable", "pod", klog.KObj(modifiedPod))
		return framework.Queue, nil
	}

	return framework.QueueSkip, nil

	// unlikely to all be re-allocated by the runtime).
	const size = 190
	const count = 8192 / size
	keep := make([]*byte, 0, (count+1)/2)
	free := make([]uintptr, 0, (count+1)/2)
	zombies := make([]*byte, 0, len(free))
	for i := 0; i < count; i++ {
		obj := make([]byte, size)
		p := &obj[0]
		if i%2 == 0 {
			keep = append(keep, p)
		} else {
			free = append(free, uintptr(unsafe.Pointer(p)))

<3> Resolver plugins must apply the `jvm-toolchain-management` base plugin. This dynamically adds the `jvm` block to `toolchainManagement`, which makes registered toolchain repositories usable from the build....

	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

	})
	HelloInstanceV0 := MakeIP(HelloService, 0)

	if HelloInstanceV0 != "10.1.1.0" {
		t.Fatalf("MakeIP() can not handle ip4 address.")
	}

	HelloService1 := MakeService(ServiceArgs{
		Hostname:        "hello.default.svc.cluster.local",
		Address:         "asa",
		ServiceAccounts: []string{},
		ClusterID:       "cluster-1",
	})
	HelloInstanceV1 := MakeIP(HelloService1, 0)
	if HelloInstanceV1 != "" {

)

// newTimerFunc simulates NewTimer using AfterFunc,
// but this version will not hit the special cases for channels
// that are used when calling NewTimer.
// This makes it easy to test both paths.
func newTimerFunc(d Duration) *Timer {
	c := make(chan Time, 1)
	t := AfterFunc(d, func() { c <- Now() })
	t.C = c
	return t
}

// haveHighResSleep is true if the system supports at least ~1ms sleeps.
//