return (ir == NULL) ? false : ir->is_value(2.0, 2);
}
+static inline bool
+is_vec_four(ir_constant *ir)
+{
+ return (ir == NULL) ? false : ir->is_value(4.0, 4);
+}
+
static inline bool
is_vec_negative_one(ir_constant *ir)
{
ir_expression *op_expr[4] = {NULL, NULL, NULL, NULL};
unsigned int i;
+ if (ir->operation == ir_binop_mul &&
+ ir->operands[0]->type->is_matrix() &&
+ ir->operands[1]->type->is_vector()) {
+ ir_expression *matrix_mul = ir->operands[0]->as_expression();
+
+ if (matrix_mul && matrix_mul->operation == ir_binop_mul &&
+ matrix_mul->operands[0]->type->is_matrix() &&
+ matrix_mul->operands[1]->type->is_matrix()) {
+
+ return mul(matrix_mul->operands[0],
+ mul(matrix_mul->operands[1], ir->operands[1]));
+ }
+ }
+
assert(ir->get_num_operands() <= 4);
for (i = 0; i < ir->get_num_operands(); i++) {
if (ir->operands[i]->type->is_matrix())
break;
}
+ case ir_unop_saturate:
+ if (op_expr[0] && op_expr[0]->operation == ir_binop_add) {
+ ir_expression *b2f_0 = op_expr[0]->operands[0]->as_expression();
+ ir_expression *b2f_1 = op_expr[0]->operands[1]->as_expression();
+
+ if (b2f_0 && b2f_0->operation == ir_unop_b2f &&
+ b2f_1 && b2f_1->operation == ir_unop_b2f) {
+ return b2f(logic_or(b2f_0->operands[0], b2f_1->operands[0]));
+ }
+ }
+ break;
+
case ir_binop_add:
if (is_vec_zero(op_const[0]))
return ir->operands[1];
continue;
ir_expression *add_expr = floor_expr->operands[0]->as_expression();
+ if (!add_expr)
+ continue;
for (int j = 0; j < 2; j++) {
ir_expression *abs_expr = add_expr->operands[j]->as_expression();
return mul(x, x);
}
+ if (is_vec_four(op_const[1])) {
+ ir_variable *x = new(ir) ir_variable(ir->operands[1]->type, "x",
+ ir_var_temporary);
+ base_ir->insert_before(x);
+ base_ir->insert_before(assign(x, ir->operands[0]));
+
+ ir_variable *squared = new(ir) ir_variable(ir->operands[1]->type,
+ "squared",
+ ir_var_temporary);
+ base_ir->insert_before(squared);
+ base_ir->insert_before(assign(squared, mul(x, x)));
+ return mul(squared, squared);
+ }
+
break;
case ir_binop_min: