nodeAddresses, err := manager.NodeAddresses()
			if (err != nil) != test.wantErr {
				t.Errorf("unexpected err: %v", err)
			}
			if got, want := nodeAddresses, test.wantAddrs; !reflect.DeepEqual(got, want) {
				t.Errorf("Unexpected diff of node addresses: %v", cmp.Diff(got, want))
			}
		})
	}

		t.Skip("the iOS exec wrapper is unable to properly handle the panic from Add")
	}
	sum.i = 0
	C.doAdd(10, 6)

	want := 10 * (10 - 1) / 2 * 6
	if sum.i != want {
		t.Fatalf("sum=%d, want %d", sum.i, want)
	}
}

// Benchmark measuring overhead from C to Go in a C thread.
// Create a new C thread and invoke Go function repeatedly in the new C thread.

	wg.Add(2)
	go cpu10(&wg)
	go cpu20(&wg)
	wg.Wait()

	// checkHeapMetrics relies on this.
	allocHog(25 * time.Millisecond)

	// checkProcStartStop relies on this.
	var wg2 sync.WaitGroup
	for i := 0; i < runtime.GOMAXPROCS(0); i++ {
		wg2.Add(1)
		go func() {
			defer wg2.Done()
			cpuHog(50 * time.Millisecond)
		}()
	}
	wg2.Wait()

	// checkSyscalls relies on this.
	done := make(chan error)

			}

			c.gc(test.now)

			for k, want := range test.want {
				got, ok := c.Get(k)
				if !ok {
					t.Errorf("expected cache to have entry for key=%q but found none", k)
					continue
				}
				if got != want {
					t.Errorf("unexpected value for key=%q: got=%q, want=%q", k, got, want)
				}
			}
			if got, want := c.Len(), len(test.want); got != want {

			// routines to confirm that they see the
			// wanted value for KEEPCAPS.
			for k := 0; k < routines; k++ {
				question <- want
			}

			// At this point, we should have a large
			// number of locked OS threads all wanting to
			// reply.
			for k := 0; k < routines; k++ {
				if got := <-response; got != want {

// Run should block.
func (c *Controller) Run(stop <-chan struct{}) {
	// The details here are subtle but important to get right. We want to mark our controller ready
	// only after it has processed the state of the world when we started. That is, we must have
	// Reconciled() each Pod. The queueing introduces some indirection, though - we want to make sure
	// we have fully processed each item, not simply added it to the Queue. The queue exposes a

		"/readyz/poststarthook/wrapping-post-start-hook",
		"/readyz/shutdown",
	}
	checkExpectedPathsAtRoot(server.URL, expectedPaths, t)

	// wait for health (max-in-flight-filter is initialized asynchronously, can take a few milliseconds to initialize)
	if err := wait.PollImmediate(100*time.Millisecond, wait.ForeverTestTimeout, func() (bool, error) {
		// healthz checks are installed in PrepareRun

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	n := runtime.Callers(0, pc)
	cf := runtime.CallersFrames(pc[:n])
	var frames []runtime.Frame
	for {
		frame, more := cf.Next()
		frames = append(frames, frame)
		if !more {
			break
		}
	}

	want := []struct {
		function string
		line     int
	}{
		{"main.G2", 0},
		{"cFunction", 0x10200},
		{"cFunction", 0x200},
		{"cFunction", 0x10201},
		{"cFunction", 0x201},
		{"main.G1", 0},

			})
			if err != nil {
				t.Fatal(err)
			}
			s.ScheduleOne(ctx)
			// Wait for pod to succeed or fail scheduling
			select {
			case <-eventChan:
			case <-time.After(wait.ForeverTestTimeout):
				t.Fatalf("scheduling timeout after %v", wait.ForeverTestTimeout)
			}
			stopFunc()
			// Wait for scheduling to return an error or succeed binding.
			var (
				gotErr  error