implements Serializable {
    @ParametricNullness private final E element;
    private final int count;

    ImmutableEntry(@ParametricNullness E element, int count) {
      this.element = element;
      this.count = count;
      checkNonnegative(count, "count");
    }

    @Override
    @ParametricNullness
    public final E getElement() {
      return element;
    }

	CheckPet(t, pets[0], *user.Pets[0])

	if count := DB.Model(&user).Where("name = ?", user.Pets[1].Name).Association("Pets").Count(); count != 1 {
		t.Fatalf("should only find one pets, but got %v", count)
	}

	if count := DB.Model(&user).Where("name = ?", "not found").Association("Pets").Count(); count != 0 {
		t.Fatalf("should only find no pet with invalid conditions, but got %v", count)
	}

	// Count
	AssertAssociationCount(t, user, "Pets", 2, "")

	// on the actual floating-point value.

	// determine binary or decimal exponent contribution of radix point
	var exp2, exp5 int64
	if fcount < 0 {
		// The mantissa has a radix point ddd.dddd; and
		// -fcount is the number of digits to the right
		// of '.'. Adjust relevant exponent accordingly.
		d := int64(fcount)
		switch base {
		case 10:
			exp5 = d

				}
				for plName, hr, nCount := cts.popHeldRequest(); hr != nil; plName, hr, nCount = cts.popHeldRequest() {
					desired := desiredPLNames.Has(plName) || mandPLs[plName] != nil
					if testDebugLogs {
						t.Logf("Releasing held request %#+v, desired=%v, plName=%s, count:=%d", hr.rd, desired, plName, nCount)
					}
					close(hr.finishCh)
				}
				cts.requestWG.Wait()

	}

	count := 3

	var languages []Language
	for i := 0; i < count; i++ {
		language := Language{Code: fmt.Sprintf("consurrent %d", i)}
		db.Create(&language)
		languages = append(languages, language)
	}

	user := User{}
	db.Create(&user)
	db.Preload("Languages").FirstOrCreate(&user)

	var wg sync.WaitGroup
	for i := 0; i < count; i++ {
		wg.Add(1)

	// "byte*cpu-seconds", and "bytes/second/second".
	//
	// For histograms, multiple units may apply. For instance, the units of the buckets and
	// the count. By convention, for histograms, the units of the count are always "samples"
	// with the type of sample evident by the metric's name, while the unit in the name
	// specifies the buckets' unit.
	//

			for i := range objects.alloc.Counts {
				if objects.alloc.Counts[i] < objects.free.Counts[i] {
					t.Errorf("found more allocs than frees in object dist bucket %d", i)
					continue
				}
				gotAlloc += objects.alloc.Counts[i]
				gotFree += objects.free.Counts[i]
			}
			if got := gotAlloc - gotFree; got != want {
				t.Errorf("object distribution counts don't match count of live objects: got %d, want %d", got, want)

			maxVols:      3,
			test:         "new pod's count considers PVCs backed by AzureDisk volumes",
		},
		{
			newPod:       splitPVCPod(azureDiskVolumeFilterType),
			existingPods: []*v1.Pod{splitAzureDiskPod, oneAzureDiskPod},
			filterName:   azureDiskVolumeFilterType,
			maxVols:      3,
			test:         "new pod's count ignores PVCs not backed by AzureDisk volumes",
		},
		{

	count: countThreadCreate,
	write: writeThreadCreate,
}

var heapProfile = &Profile{
	name:  "heap",
	count: countHeap,
	write: writeHeap,
}

var allocsProfile = &Profile{
	name:  "allocs",
	count: countHeap, // identical to heap profile
	write: writeAlloc,
}

var blockProfile = &Profile{
	name:  "block",
	count: countBlock,
	write: writeBlock,
}

			// continue to avoid unnecessary calculation.
			// Per-node counts are also skipped, as they are done during Score.
			tpCount := state.TopologyPairToPodCounts[pair]
			if tpCount == nil {
				continue
			}
			count := countPodsMatchSelector(nodeInfo.Pods, c.Selector, pod.Namespace)
			atomic.AddInt64(tpCount, int64(count))
		}
	}
	pl.parallelizer.Until(ctx, len(allNodes), processAllNode, pl.Name())