} else if errno == unix.EBUSY {
		// device is in use
		return true, nil
	}
	// error during call to Open
	return false, errno
}

// GetDeviceNameFromMount given a mount point, find the device name from its global mount point
func (hu *HostUtil) GetDeviceNameFromMount(mounter mount.Interface, mountPath, pluginMountDir string) (string, error) {
	return getDeviceNameFromMount(mounter, mountPath, pluginMountDir)
}

	%#v	a Go-syntax representation of the value
		(floating-point infinities and NaNs print as ±Inf and NaN)
	%T	a Go-syntax representation of the type of the value
	%%	a literal percent sign; consumes no value

Boolean:

	%t	the word true or false

Integer:

	%b	base 2
	%c	the character represented by the corresponding Unicode code point
	%d	base 10
	%o	base 8
	%O	base 8 with 0o prefix

                  (by validating that both VolumeSnapshot and VolumeSnapshotContent
                  point at each other) before using this object.'
                  type: string
                creationTime:
                  description: creationTime is the timestamp when the point-in-time
                    snapshot is taken by the underlying storage system. In dynamic snapshot

			}
		}
	}
}

func TestEncodeNonZeroMinPoint(t *testing.T) {
	points := []image.Point{
		{-8, -9},
		{-4, -4},
		{-3, +3},
		{+0, +0},
		{+2, +2},
	}
	for _, p := range points {
		src := image.NewPaletted(image.Rectangle{
			Min: p,
			Max: p.Add(image.Point{6, 6}),
		}, palette.Plan9)
		var buf bytes.Buffer
		if err := Encode(&buf, src, nil); err != nil {

    int max_vals, TF_Status* status);

// Interprets the named kernel construction attribute as string array and fills
// in `vals` and `lengths`, each of which must point to an array of length at
// least `max_values`. *status is set to TF_OK. The elements of values will
// point to addresses in `storage` which must be at least `storage_size` bytes
// in length. Ideally, max_values would be set to list_size and `storage` would

    ) {
    }
  }

  companion object {
    /** Arbitrary code point that's 2 bytes in UTF-8 and valid in IdnaMappingTable.txt. */
    private const val UNICODE_2 = 0x1a5

    /** Arbitrary code point that's 3 bytes in UTF-8 and valid in IdnaMappingTable.txt. */
    private const val UNICODE_3 = 0x2202

    /** Arbitrary code point that's 4 bytes in UTF-8 and valid in IdnaMappingTable.txt. */

	tx := DB.Begin()

	user := *GetUser("transaction-save-point", Config{})
	tx.Create(&user)

	if err := tx.First(&User{}, "name = ?", user.Name).Error; err != nil {
		t.Fatalf("Should find saved record")
	}

	if err := tx.SavePoint("save_point1").Error; err != nil {
		t.Fatalf("Failed to save point, got error %v", err)
	}

	user1 := *GetUser("transaction-save-point-1", Config{})
	tx.Create(&user1)

		mov+" %d(R29), R1\n"+mov+" R1, LO",
		regsize)

	// Add floating point control/status register FCR31 (FCR0-FCR30 are irrelevant)
	var lfp = layout{sp: "R29", stack: l.stack}
	lfp.addSpecial(
		mov+" FCR31, R1\n"+mov+" R1, %d(R29)",
		mov+" %d(R29), R1\n"+mov+" R1, FCR31",
		regsize)
	// Add floating point registers F0-F31.
	for i := 0; i <= 31; i++ {
		reg := fmt.Sprintf("F%d", i)

	KubernetesDir() string
	// PatchesDir should point to the folder where patches for components are stored
	PatchesDir() string
	// RealManifestPath gets the file path for the component in the "real" static pod manifest directory used by the kubelet
	RealManifestPath(component string) string
	// RealManifestDir should point to the static pod manifest directory used by the kubelet
	RealManifestDir() string

	n.Len = Expr(n.Len)
	n.Cap = Expr(n.Cap)

	n.Len = DefaultLit(n.Len, types.Types[types.TINT])

	if !n.Len.Type().IsInteger() && n.Type().Kind() != types.TIDEAL {
		base.Errorf("non-integer len argument in OMAKESLICECOPY")
	}

	if ir.IsConst(n.Len, constant.Int) {
		if ir.ConstOverflow(n.Len.Val(), types.Types[types.TINT]) {
			base.Fatalf("len for OMAKESLICECOPY too large")
		}
		if constant.Sign(n.Len.Val()) < 0 {