else if (rhs_type->interface_type() != NULL)
return Expression::convert_interface_to_type(context, lhs_type, rhs_type,
rhs_tree, location);
- else if (lhs_type->is_open_array_type()
- && rhs_type->is_nil_type())
+ else if (lhs_type->is_slice_type() && rhs_type->is_nil_type())
{
// Assigning nil to an open array.
go_assert(TREE_CODE(lhs_type_tree) == RECORD_TYPE);
mpfr_clear(imag);
}
- if (type->is_open_array_type() && type->named_type() == NULL)
+ if (type->is_slice_type() && type->named_type() == NULL)
{
Type* element_type = type->array_type()->element_type()->forwarded();
bool is_byte = element_type == Type::lookup_integer_type("uint8");
len);
}
}
- else if (type->is_open_array_type() && expr_type->is_string_type())
+ else if (type->is_slice_type() && expr_type->is_string_type())
{
Type* e = type->array_type()->element_type()->forwarded();
go_assert(e->integer_type() != NULL);
source_location loc = this->location();
bool use_view_convert = false;
- if (t->is_open_array_type())
+ if (t->is_slice_type())
{
- go_assert(et->is_open_array_type());
+ go_assert(et->is_slice_type());
use_view_convert = true;
}
else if (t->map_type() != NULL)
if (args == NULL || args->empty())
return this;
Type* slice_type = args->front()->type();
- if (!slice_type->is_open_array_type())
+ if (!slice_type->is_slice_type())
{
error_at(args->front()->location(), "argument 1 must be a slice");
this->set_is_error();
bool is_slice = false;
bool is_map = false;
bool is_chan = false;
- if (type->is_open_array_type())
+ if (type->is_slice_type())
is_slice = true;
else if (type->map_type() != NULL)
is_map = true;
if (arg_type->points_to() != NULL
&& arg_type->points_to()->array_type() != NULL
- && !arg_type->points_to()->is_open_array_type())
+ && !arg_type->points_to()->is_slice_type())
arg_type = arg_type->points_to();
if (arg_type->array_type() != NULL
if (arg_type->points_to() != NULL
&& arg_type->points_to()->array_type() != NULL
- && !arg_type->points_to()->is_open_array_type())
+ && !arg_type->points_to()->is_slice_type())
arg_type = arg_type->points_to();
if (arg_type->array_type() != NULL
Type* arg_type = this->one_arg()->type();
if (arg_type->points_to() != NULL
&& arg_type->points_to()->array_type() != NULL
- && !arg_type->points_to()->is_open_array_type())
+ && !arg_type->points_to()->is_slice_type())
arg_type = arg_type->points_to();
if (this->code_ == BUILTIN_CAP)
{
|| type->channel_type() != NULL
|| type->map_type() != NULL
|| type->function_type() != NULL
- || type->is_open_array_type())
+ || type->is_slice_type())
;
else
this->report_error(_("unsupported argument type to "
break;
Type* e1;
- if (arg1_type->is_open_array_type())
+ if (arg1_type->is_slice_type())
e1 = arg1_type->array_type()->element_type();
else
{
}
Type* e2;
- if (arg2_type->is_open_array_type())
+ if (arg2_type->is_slice_type())
e2 = arg2_type->array_type()->element_type();
else if (arg2_type->is_string_type())
e2 = Type::lookup_integer_type("uint8");
{
arg_type = arg_type->points_to();
go_assert(arg_type->array_type() != NULL
- && !arg_type->is_open_array_type());
+ && !arg_type->is_slice_type());
go_assert(POINTER_TYPE_P(TREE_TYPE(arg_tree)));
arg_tree = build_fold_indirect_ref(arg_tree);
}
fnname = "__go_print_interface";
}
}
- else if (type->is_open_array_type())
+ else if (type->is_slice_type())
{
static tree print_slice_fndecl;
pfndecl = &print_slice_fndecl;
Type* arg2_type = arg2->type();
tree arg2_val;
tree arg2_len;
- if (arg2_type->is_open_array_type())
+ if (arg2_type->is_slice_type())
{
at = arg2_type->array_type();
arg2_tree = save_expr(arg2_tree);
source_location loc = this->location();
go_assert(param_count > 0);
- go_assert(varargs_type->is_open_array_type());
+ go_assert(varargs_type->is_slice_type());
size_t arg_count = this->args_ == NULL ? 0 : this->args_->size();
if (arg_count < param_count - 1)
return Expression::make_array_index(left, start, end, location);
else if (type->points_to() != NULL
&& type->points_to()->array_type() != NULL
- && !type->points_to()->is_open_array_type())
+ && !type->points_to()->is_slice_type())
{
Expression* deref = Expression::make_unary(OPERATOR_MULT, left,
location);
this->type_ = Type::make_error_type();
else if (this->end_ == NULL)
this->type_ = type->element_type();
- else if (type->is_open_array_type())
+ else if (type->is_slice_type())
{
// A slice of a slice has the same type as the original
// slice.
// A slice of an array requires an addressable array. A slice of a
// slice is always possible.
- if (this->end_ != NULL && !array_type->is_open_array_type())
+ if (this->end_ != NULL && !array_type->is_slice_type())
{
if (!this->array_->is_addressable())
this->report_error(_("array is not addressable"));
return false;
// An index into a slice is addressable.
- if (this->array_->type()->is_open_array_type())
+ if (this->array_->type()->is_slice_type())
return true;
// An index into an array is addressable if the array is
Expression::make_slice_composite_literal(Type* type, Expression_list* vals,
source_location location)
{
- go_assert(type->is_open_array_type());
+ go_assert(type->is_slice_type());
return new Open_array_construction_expression(type, vals, location);
}
// Return whether this is an open array type.
bool
-Type::is_open_array_type() const
+Type::is_slice_type() const
{
return this->array_type() != NULL && this->array_type()->length() == NULL;
}
if (lhs->is_nil_type()
&& (rhs->points_to() != NULL
|| rhs->interface_type() != NULL
- || rhs->is_open_array_type()
+ || rhs->is_slice_type()
|| rhs->map_type() != NULL
|| rhs->channel_type() != NULL
|| rhs->function_type() != NULL))
if (rhs->is_nil_type()
&& (lhs->points_to() != NULL
|| lhs->interface_type() != NULL
- || lhs->is_open_array_type()
+ || lhs->is_slice_type()
|| lhs->map_type() != NULL
|| lhs->channel_type() != NULL
|| lhs->function_type() != NULL))
if (rhs->is_nil_type()
&& (lhs->points_to() != NULL
|| lhs->function_type() != NULL
- || lhs->is_open_array_type()
+ || lhs->is_slice_type()
|| lhs->map_type() != NULL
|| lhs->channel_type() != NULL
|| lhs->interface_type() != NULL))
{
if (rhs->integer_type() != NULL)
return true;
- if (rhs->is_open_array_type() && rhs->named_type() == NULL)
+ if (rhs->is_slice_type() && rhs->named_type() == NULL)
{
const Type* e = rhs->array_type()->element_type()->forwarded();
if (e->integer_type() != NULL
// A string may be converted to []byte or []int.
if (rhs->is_string_type()
- && lhs->is_open_array_type()
+ && lhs->is_slice_type()
&& lhs->named_type() == NULL)
{
const Type* e = lhs->array_type()->element_type()->forwarded();
// essentially a pointer: a pointer, a slice, a function, a map, or
// a channel.
if (type->points_to() != NULL
- || type->is_open_array_type()
+ || type->is_slice_type()
|| type->function_type() != NULL
|| type->map_type() != NULL
|| type->channel_type() != NULL)
case TYPE_ARRAY:
// Slice types were completed in create_placeholder.
- if (!base->is_open_array_type())
+ if (!base->is_slice_type())
{
Btype* bet = base->array_type()->get_backend_element(gogo);
Bexpression* blen = base->array_type()->get_backend_length(gogo);
break;
case TYPE_ARRAY:
- if (base->is_open_array_type())
+ if (base->is_slice_type())
bt = gogo->backend()->placeholder_struct_type(this->name(),
this->location_);
else
this->named_btype_ = bt;
- if (base->is_open_array_type())
+ if (base->is_slice_type())
{
// We do not record slices as dependencies of other types,
// because we can fill them in completely here with the final