}

// fields is a pointer to a slice of *Field.
// This saves space in Types that do not have fields or methods
// compared to a simple slice of *Field.
type fields struct {
	s *[]*Field
}

// Slice returns the entries in f as a slice.
// Changes to the slice entries will be reflected in f.
func (f *fields) Slice() []*Field {
	if f.s == nil {
		return nil
	}
	return *f.s

}

func TestSlicePrinter(t *testing.T) {
	slice := []int{}
	s := Sprint(slice)
	if s != "[]" {
		t.Errorf("empty slice printed as %q not %q", s, "[]")
	}
	slice = []int{1, 2, 3}
	s = Sprint(slice)
	if s != "[1 2 3]" {
		t.Errorf("slice: got %q expected %q", s, "[1 2 3]")
	}
	s = Sprint(&slice)
	if s != "&[1 2 3]" {
		t.Errorf("&slice: got %q expected %q", s, "&[1 2 3]")
	}
}

	// Slicing.
	{"slice[:]", "{{slice .SI}}", "[3 4 5]", tVal, true},
	{"slice[1:]", "{{slice .SI 1}}", "[4 5]", tVal, true},
	{"slice[1:2]", "{{slice .SI 1 2}}", "[4]", tVal, true},
	{"slice[-1:]", "{{slice .SI -1}}", "", tVal, false},
	{"slice[1:-2]", "{{slice .SI 1 -2}}", "", tVal, false},
	{"slice[1:2:-1]", "{{slice .SI 1 2 -1}}", "", tVal, false},
	{"slice[2:1]", "{{slice .SI 2 1}}", "", tVal, false},

  // CHECK: %[[SLICE:.*]] = "tf.Slice"
  // CHECK: %[[ELEM_SHAPE:.*]] = "tf.Const"() <{value = dense<3> : tensor<1xi32>}>
  // CHECK: %[[ELEM:.*]] = "tf.Reshape"(%[[SLICE]], %[[ELEM_SHAPE]])
  %val = "tf.TensorArrayReadV3"(%ta#0, %index, %ta#1) : (tensor<!tf_type.resource<tensor<*xf32>>>, tensor<i32>, tensor<f32>) -> tensor<*xf32>

func (e *edgeState) processDest(loc Location, vid ID, splice **Value, pos src.XPos) bool {
	pos = pos.WithNotStmt()
	occupant := e.contents[loc]
	if occupant.vid == vid {
		// Value is already in the correct place.
		e.contents[loc] = contentRecord{vid, occupant.c, true, pos}
		if splice != nil {
			(*splice).Uses--
			*splice = occupant.c
			occupant.c.Uses++
		}
		// Note: if splice==nil then c will appear dead. This is

	"k8s.io/utils/ptr"
)

func (proxier *FakeProxier) addEndpointSlice(slice *discovery.EndpointSlice) {
	proxier.endpointsChanges.EndpointSliceUpdate(slice, false)
}

func (proxier *FakeProxier) updateEndpointSlice(oldSlice, slice *discovery.EndpointSlice) {
	proxier.endpointsChanges.EndpointSliceUpdate(slice, false)
}

func (proxier *FakeProxier) deleteEndpointSlice(slice *discovery.EndpointSlice) {

	}
	RtlInitUnicodeString(&u, s16)
	return &u, nil
}

// Slice returns a uint16 slice that aliases the data in the NTUnicodeString.
func (s *NTUnicodeString) Slice() []uint16 {
	slice := unsafe.Slice(s.Buffer, s.MaximumLength)
	return slice[:s.Length]
}

func (s *NTUnicodeString) String() string {
	return UTF16ToString(s.Slice())
}

// NewNTString returns a new NTString structure for use with native

    }
  }

  // This function rewrites the original op into a series of slice and concat op
  // to produce the same result. It first slices the first `$index` rows. Then
  // expands the dimension of the `$item`, followed by another slice of the
  // remaining rows starting from `$index` + 1. Lastly it concatenates the
  // three parts together.

	x[5] = uint8(certificateOctets >> 8)
	x[6] = uint8(certificateOctets)

	y := x[7:]
	for _, slice := range m.certificates {
		y[0] = uint8(len(slice) >> 16)
		y[1] = uint8(len(slice) >> 8)
		y[2] = uint8(len(slice))
		copy(y[3:], slice)
		y = y[3+len(slice):]
	}

	return x, nil
}

func (m *certificateMsg) unmarshal(data []byte) bool {
	if len(data) < 7 {

	Map   map[string]Small
	MapP  map[string]*Small
	PMap  *map[string]Small
	PMapP *map[string]*Small

	EmptyMap map[string]Small
	NilMap   map[string]Small

	Slice   []Small
	SliceP  []*Small
	PSlice  *[]Small
	PSliceP *[]*Small

	EmptySlice []Small
	NilSlice   []Small

	StringSlice []string
	ByteSlice   []byte

	Small   Small
	PSmall  *Small