}

func TestNewPodAddedSetReconciled(t *testing.T) {
	tCtx := ktesting.Init(t)

	// Create and touch new test pods, return the new pods and touched pod. We should create new pod list
	// before touching to avoid data race.
	newTestPods := func(touchStatus, touchSpec bool) ([]*v1.Pod, *v1.Pod) {
		pods := []*v1.Pod{
			CreateValidPod("changeable-pod-0", "new"),
			CreateValidPod("constant-pod-1", "new"),

		res = sig

	default:
		// only types and functions can be generic
		panic(fmt.Sprintf("%v: cannot instantiate %v", pos, orig))
	}

	// Update all contexts; it's possible that we've lost a race.
	return updateContexts(res)
}

// validateTArgLen checks that the number of type arguments (got) matches the
// number of type parameters (want); if they don't match an error is reported.

// and controls where the stack trace begins. Passing skip=0 begins the
// trace in the function calling Add. For example, given this
// execution stack:
//
//	Add
//	called from rpc.NewClient
//	called from mypkg.Run
//	called from main.main
//
// Passing skip=0 begins the stack trace at the call to Add inside rpc.NewClient.
// Passing skip=1 begins the stack trace at the call to NewClient inside mypkg.Run.

    thread.join();
    // It's possible to race and suspend the thread just before the park call actually takes effect,
    // causing the thread to be suspended for 3.5 seconds, and then park itself for 2 seconds after
    // being resumed. To avoid a flake in this scenario, calculate how long that thread actually
    // waited and assert based on that time. Empirically, the race where the thread ends up waiting

			return err
		}
		// If there are no IPAddress depending on this ServiceCIDR is safe to remove it,
		// however, there can be a race when the allocators still consider the ServiceCIDR
		// ready and allocate a new IPAddress from them, to avoid that, we wait during a
		// a grace period to be sure the deletion change has been propagated to the allocators
		// and no new IPAddress is going to be allocated.

		// (It is safe and non-racy to do so on Unix platforms, and users might not
		// test with the race detector on all platforms;
		// see https://go.dev/issue/62596.)
		//
		// So we will pass the fully resolved path to os.StartProcess, but leave
		// c.Path as is: missing a bit of logging information seems less harmful
		// than triggering a surprising data race, and if the user really cares

	workers    int64
	maxWorkers int64
	// workerStartMu sync.Mutex
	lastStarted time.Time

	wg sync.WaitGroup

	// Channel of log entries.
	// Reading logCh must hold read lock on logChMu (to avoid read race)
	// Sending a value on logCh must hold read lock on logChMu (to avoid closing)
	logCh   chan interface{}
	logChMu sync.RWMutex

	// If this webhook is being re-configured we will

	if e != nil {
		return nil, &PathError{Op: "open", Path: name, Err: e}
	}

	// open(2) itself won't handle the sticky bit on *BSD and Solaris
	if setSticky {
		setStickyBit(name)
	}

	// There's a race here with fork/exec, which we are
	// content to live with. See ../syscall/exec_unix.go.
	if !supportsCloseOnExec {
		syscall.CloseOnExec(r)
	}

	f := newFile(r, name, kindOpenFile, unix.HasNonblockFlag(flag))

	con := ctx.XdsConnection()
	// Do not call: defer close(con.pushChannel). The push channel will be garbage collected
	// when the connection is no longer used. Closing the channel can cause subtle race conditions
	// with push. According to the spec: "It's only necessary to close a channel when it is important
	// to tell the receiving goroutines that all data have been sent."

	waitReasonFlushProcCaches                         // "flushing proc caches"
	waitReasonTraceGoroutineStatus                    // "trace goroutine status"
	waitReasonTraceProcStatus                         // "trace proc status"
	waitReasonPageTraceFlush                          // "page trace flush"
	waitReasonCoroutine                               // "coroutine"
)

var waitReasonStrings = [...]string{