// Wake all blocked assists. These will run when we
	// start the world again.
	gcWakeAllAssists()

	// Likewise, release the transition lock. Blocked
	// workers and assists will run when we start the
	// world again.
	semrelease(&work.markDoneSema)

	// In STW mode, re-enable user goroutines. These will be
	// queued to run after we start the world.
	schedEnableUser(true)

		{
			volume, "myobject", 0, 16,
			[]byte("hello, world"),
			io.ErrUnexpectedEOF,
		},
		// Reading from an offset success. - 7
		{
			volume, "myobject", 7, 5,
			[]byte("world"), nil,
		},
		// Reading from an object but buffer size greater. - 8
		{
			volume, "myobject",
			7, 8,
			[]byte("world"),
			io.ErrUnexpectedEOF,
		},

	heapScan atomic.Uint64

	// lastHeapScan is the number of bytes of heap that were scanned
	// last GC cycle. It is the same as heapMarked, but only
	// includes the "scannable" parts of objects.
	//
	// Updated when the world is stopped.
	lastHeapScan uint64

	// lastStackScan is the number of bytes of stack that were scanned
	// last GC cycle.
	lastStackScan atomic.Uint64

	gp.param = nil
	if completed {
		gcMarkDone()
	}

	if gp.gcAssistBytes < 0 {
		// We were unable steal enough credit or perform
		// enough work to pay off the assist debt. We need to
		// do one of these before letting the mutator allocate
		// more to prevent over-allocation.
		//
		// If this is because we were preempted, reschedule
		// and try some more.
		if gp.preempt {
			Gosched()
			goto retry
		}

		// if both the current and last generation were not dense.
		return sc.inUse < scavChunkHiOccPages && sc.lastInUse < scavChunkHiOccPages
	}
	// If we're one or more generations ahead, we know inUse represents the current
	// state of the chunk, since otherwise it would've been updated already.
	return sc.inUse < scavChunkHiOccPages
}

// alloc updates sc given that npages were allocated in the corresponding chunk.

	defer Remove(f.Name())
	defer f.Close()

	const data = "hello, world\n"
	io.WriteString(f, data)

	b := make([]byte, 5)
	n, err := f.ReadAt(b, 7)
	if err != nil || n != len(b) {
		t.Fatalf("ReadAt 7: %d, %v", n, err)
	}
	if string(b) != "world" {
		t.Fatalf("ReadAt 7: have %q want %q", string(b), "world")
	}
}

// Verify that ReadAt doesn't affect seek offset.

// during STW. The caller must call mProf_Flush before calling
// mProf_NextCycle again.
//
// This is called by mark termination during STW so allocations and
// frees after the world is started again count towards a new heap
// profiling cycle.
func mProf_NextCycle() {
	mProfCycle.increment()
}

// mProf_Flush flushes the events from the current heap profiling

	dswp.podManager.(mutablePodManager).RemovePod(pod)

	dswp.findAndRemoveDeletedPods()

	if !dswp.pods.processedPods[podName] {
		t.Fatalf("Pod should not been removed from desired state of world since pod state still thinks it exists")
	}

	fakePodState.removed = map[kubetypes.UID]struct{}{pod.UID: {}}

					IndexAny(x[:k], cs[:j])
				}
			})
		}
	}
}

func BenchmarkIndexAnyUTF8(b *testing.B) {
	x := Repeat("#", 2048) // Never matches set
	cs := "你好世界, hello world. 你好世界, hello world. 你好世界, hello world."
	for k := 1; k <= 2048; k <<= 4 {
		for j := 1; j <= 64; j <<= 1 {
			b.Run(fmt.Sprintf("%d:%d", k, j), func(b *testing.B) {
				for i := 0; i < b.N; i++ {
					IndexAny(x[:k], cs[:j])

			AttachmentMetadata: map[string]string{
				"foo": "bar",
			},
			AttachError: &storage.VolumeError{
				Time:    metav1.Time{},
				Message: "hello world",
			},
			DetachError: &storage.VolumeError{
				Time:    metav1.Time{},
				Message: "hello world",
			},
		},
	}, {
		ObjectMeta: metav1.ObjectMeta{Name: "foo-with-inlinespec-and-status"},
		Spec: storage.VolumeAttachmentSpec{
			Attacher: "myattacher",