@Override
    public int setCount(@ParametricNullness E element, int count) {
      synchronized (mutex) {
        return delegate().setCount(element, count);
      }
    }

    @Override
    public boolean setCount(@ParametricNullness E element, int oldCount, int newCount) {
      synchronized (mutex) {
        return delegate().setCount(element, oldCount, newCount);
      }
    }

    @Override

    @Override
    public int setCount(@ParametricNullness E element, int count) {
      synchronized (mutex) {
        return delegate().setCount(element, count);
      }
    }

    @Override
    public boolean setCount(@ParametricNullness E element, int oldCount, int newCount) {
      synchronized (mutex) {
        return delegate().setCount(element, oldCount, newCount);
      }
    }

    @Override

    RankedTensorType list_element_ty =
        subtypes.front().dyn_cast<RankedTensorType>();
    if (!list_element_ty) return failure();

    // Extract tensor elements for the TensorList and construct result type
    // based on the number of elements and element shape.
    const std::vector<tensorflow::Tensor> &tensors = list->tensors();
    llvm::SmallVector<int64_t, 4> result_shape = {
        static_cast<int64_t>(tensors.size())};

	t, err := sliceElementType(s)
	if err != nil {
		return nil, err
	}

	// If the elements are not maps...
	if t.Kind() != reflect.Map {
		// Sort the elements, because they may have been merged out of order.
		return deduplicateAndSortScalars(s), nil
	}

	// Elements are maps - if one of the keys of the map is a map or a
	// list, we may need to recurse into it.
	newS := []interface{}{}

func appendGCProg(dst []byte, typ *abi.Type) []byte {
	if typ.Kind_&abi.KindGCProg != 0 {
		// Element has GC program; emit one element.
		n := uintptr(*(*uint32)(unsafe.Pointer(typ.GCData)))
		prog := typ.GcSlice(4, 4+n-1)
		return append(dst, prog...)
	}

	// Element is small with pointer mask; use as literal bits.
	ptrs := typ.PtrBytes / goarch.PtrSize
	mask := typ.GcSlice(0, (ptrs+7)/8)

	// is case sensitive and done on a path element by element basis. A path
	// element refers to the list of labels in the path split by the '/'
	// separator. A request is a match for path p if every p is an element-wise
	// prefix of p of the request path. Note that if the last element of the
	// path is a substring of the last element in request path, it is not a

// repeated until we hit "start+s.elemsize".
// This tiling algorithm supports array data, since the type always refers to
// the element type of the array. Single objects are considered the same as
// single-element arrays.
// The tiling algorithm may scan data past the end of the compiler-recognized
// object, but any unused data within the allocation slot (i.e. within s.elemsize)

// were indented wholesale (starting with the very first element, rather
// than starting at the first line break).
func (p *printer) indentList(list []ast.Expr) bool {
	// Heuristic: indentList reports whether there are more than one multi-
	// line element in the list, or if there is any element that is not
	// starting on the same line as the previous one ends.
	if len(list) >= 2 {

                  protected Set<String> create(String[] elements) {
                    int size = elements.length;
                    // Remove last element, if size > 1
                    Set<String> set1 =
                        (size > 1)
                            ? Sets.newHashSet(Arrays.asList(elements).subList(0, size - 1))
                            : Sets.newHashSet(elements);
                    // Remove first element, if size > 0

			typ = check.typ(e.Type)
			base = typ

		case hint != nil:
			// no composite literal type present - use hint (element type of enclosing type)
			typ = hint
			base, _ = deref(coreType(typ)) // *T implies &T{}
			if base == nil {
				check.errorf(e, InvalidLit, "invalid composite literal element type %s (no core type)", typ)
				goto Error
			}

		default: