func NewSlice3() [][][]T

	// NewSliceOfSlice is not a factory function because slices of a ...
	func NewSliceOfSlice() [][]T


TYPES
	// 
	type T struct{}

	// 
	func New() T

	// 
	func NewArray() [1]T

	// 
	func NewPointer() *T

	// 
	func NewPointerArray() [1]*T

	// 
	func NewPointerOfPointer() **T

	// 
	func NewPointerSlice() []*T

	// 

	func NewSlice3() [][][]T

	// NewSliceOfSlice is not a factory function because slices of a ...
	func NewSliceOfSlice() [][]T


TYPES
	// 
	type T struct{}

	// 
	func New() T

	// 
	func NewArray() [1]T

	// 
	func NewPointer() *T

	// 
	func NewPointerArray() [1]*T

	// 
	func NewPointerOfPointer() **T

	// 
	func NewPointerSlice() []*T

	// 

	//         (r1 [2]int32, r2 [1]int32, r3 [0]int32, r4 [1][1]int32) {
	i32 := types.Types[types.TINT32]
	ae := types.NewArray(i32, 0)
	a1 := types.NewArray(i32, 1)
	a2 := types.NewArray(i32, 2)
	aa1 := types.NewArray(a1, 1)
	ft := mkFuncType(nil, []*types.Type{a1, ae, aa1, a2},
		[]*types.Type{a2, a1, ae, aa1})

	exp := makeExpectedDump(`

	typs[28] = types.Types[types.TSTRING]
	typs[29] = newSig(params(typs[28]), nil)
	typs[30] = newSig(params(typs[2]), nil)
	typs[31] = newSig(params(typs[5]), nil)
	typs[32] = types.NewArray(typs[0], 32)
	typs[33] = types.NewPtr(typs[32])
	typs[34] = newSig(params(typs[33], typs[28], typs[28]), params(typs[28]))
	typs[35] = newSig(params(typs[33], typs[28], typs[28], typs[28]), params(typs[28]))

}


internal
fun MethodVisitor.visitTypeInsn(opcode: Int, type: InternalName) {
    visitTypeInsn(opcode, type.value)
}


internal
fun MethodVisitor.NEWARRAY(primitiveType: Int) {
    visitIntInsn(Opcodes.NEWARRAY, primitiveType)
}


internal
fun MethodVisitor.LDC(type: InternalName) {
    visitLdcInsn(Type.getType("L${type.value};"))
}


internal

                if (array.length == inserted) {
                    return array;
                }
                Object[] newArray = new Object[inserted];
                System.arraycopy(array, 0, newArray, 0, inserted);
                return newArray;
            }
        }

        @SuppressWarnings("unchecked")
        public static <T> ImmutableUniqueList<T> empty() {

  }

  static <T> T[] newArray(T[] reference, int length) {
    T[] empty = reference.length == 0 ? reference : Arrays.copyOf(reference, 0);
    return Arrays.copyOf(empty, length);
  }

  /** Equivalent to Arrays.copyOfRange(source, from, to, arrayOfType.getClass()). */
  static <T> T[] copy(Object[] source, int from, int to, T[] arrayOfType) {
    T[] result = newArray(arrayOfType, to - from);

	defer func() {
		if !ok {
			merged = nil
			next = nil
		}
	}()

	ix := -1
	extend := func(newLow *int, newArray *[]rune, pc uint32) bool {
		if ix > 0 && (*newArray)[*newLow] <= merged[ix] {
			return false
		}
		merged = append(merged, (*newArray)[*newLow], (*newArray)[*newLow+1])
		*newLow += 2
		ix += 2
		next = append(next, pc)
		return true
	}

	for lx < leftLen || rx < rightLen {

func NewPointer() *T           { return &T{} }
func NewPointerSlice() []*T    { return []*T{&T{}} }
func NewSlice() []T            { return []T{T{}} }
func NewPointerOfPointer() **T { x := &T{}; return &x }
func NewArray() [1]T           { return [1]T{T{}} }
func NewPointerArray() [1]*T   { return [1]*T{&T{}} }

// NewSliceOfSlice is not a factory function because slices of a slice of
// type *T are not factory functions of type T.

   * this implementation.
   *
   * @since 7.0
   */
  protected @Nullable Object[] standardToArray() {
    @Nullable Object[] newArray = new @Nullable Object[size()];
    return toArray(newArray);
  }

  /**
   * A sensible definition of {@link #toArray(Object[])} in terms of {@link #size} and {@link