static statement_t *parse_compound_statement(bool inside_expression_statement);
static statement_t *parse_statement(void);
-static expression_t *parse_sub_expression(precedence_t);
+static expression_t *parse_subexpression(precedence_t);
static expression_t *parse_expression(void);
static type_t *parse_typename(void);
static void parse_externals(void);
static expression_t *parse_constant_expression(void)
{
- expression_t *result = parse_sub_expression(PREC_CONDITIONAL);
+ expression_t *result = parse_subexpression(PREC_CONDITIONAL);
if (!is_constant_expression(result)) {
errorf(&result->base.source_position,
static expression_t *parse_assignment_expression(void)
{
- return parse_sub_expression(PREC_ASSIGNMENT);
+ return parse_subexpression(PREC_ASSIGNMENT);
}
static void warn_string_concat(const source_position_t *pos)
expression_t *cast = allocate_expression_zero(EXPR_UNARY_CAST);
cast->base.source_position = source_position;
- expression_t *value = parse_sub_expression(PREC_CAST);
+ expression_t *value = parse_subexpression(PREC_CAST);
cast->base.type = type;
cast->unary.value = value;
goto typeprop_expression;
}
} else {
- expression = parse_sub_expression(PREC_UNARY);
+ expression = parse_subexpression(PREC_UNARY);
typeprop_expression:
tp_expression->typeprop.tp_expression = expression;
expect(':', end_error);
end_error:;
expression_t *false_expression =
- parse_sub_expression(c_mode & _CXX ? PREC_ASSIGNMENT : PREC_CONDITIONAL);
+ parse_subexpression(c_mode & _CXX ? PREC_ASSIGNMENT : PREC_CONDITIONAL);
type_t *const orig_true_type = true_expression->base.type;
type_t *const orig_false_type = false_expression->base.type;
bool old_gcc_extension = in_gcc_extension;
in_gcc_extension = true;
- expression_t *expression = parse_sub_expression(PREC_UNARY);
+ expression_t *expression = parse_subexpression(PREC_UNARY);
in_gcc_extension = old_gcc_extension;
return expression;
}
end_error:;
}
- expression_t *const value = parse_sub_expression(PREC_CAST);
+ expression_t *const value = parse_subexpression(PREC_CAST);
result->unary.value = value;
type_t *const type = skip_typeref(value->base.type);
expression_t *unary_expression \
= allocate_expression_zero(unexpression_type); \
eat(token_type); \
- unary_expression->unary.value = parse_sub_expression(PREC_UNARY); \
+ unary_expression->unary.value = parse_subexpression(PREC_UNARY); \
\
sfunc(&unary_expression->unary); \
\
binexpr->binary.left = left; \
eat(token_type); \
\
- expression_t *right = parse_sub_expression(prec_r); \
+ expression_t *right = parse_subexpression(prec_r); \
\
binexpr->binary.right = right; \
sfunc(&binexpr->binary); \
CREATE_BINEXPR_PARSER(',', EXPR_BINARY_COMMA, PREC_ASSIGNMENT, semantic_comma)
-static expression_t *parse_sub_expression(precedence_t precedence)
+static expression_t *parse_subexpression(precedence_t precedence)
{
if (token.type < 0) {
return expected_expression_error();
*/
static expression_t *parse_expression(void)
{
- return parse_sub_expression(PREC_EXPRESSION);
+ return parse_subexpression(PREC_EXPRESSION);
}
/**
expect('(', end_error);
add_anchor_token(')');
- add_anchor_token(':');
+ if (token.type != T_STRING_LITERAL) {
+ parse_error_expected("after asm(", T_STRING_LITERAL, NULL);
+ goto end_of_asm;
+ }
asm_statement->asm_text = parse_string_literals();
+ add_anchor_token(':');
if (!next_if(':')) {
rem_anchor_token(':');
goto end_of_asm;