; point of view, because %f2 is the low register of the FP128 %f0. Pass the
; multiplier in %f4 instead.
define void @f1(double %f1, double %dummy, double %f2, fp128 *%dst) {
-; CHECK: f1:
+; CHECK-LABEL: f1:
; CHECK: mxdbr %f0, %f4
; CHECK: std %f0, 0(%r2)
; CHECK: std %f2, 8(%r2)
; Check the low end of the MXDB range.
define void @f2(double %f1, double *%ptr, fp128 *%dst) {
-; CHECK: f2:
+; CHECK-LABEL: f2:
; CHECK: mxdb %f0, 0(%r2)
; CHECK: std %f0, 0(%r3)
; CHECK: std %f2, 8(%r3)
; Check the high end of the aligned MXDB range.
define void @f3(double %f1, double *%base, fp128 *%dst) {
-; CHECK: f3:
+; CHECK-LABEL: f3:
; CHECK: mxdb %f0, 4088(%r2)
; CHECK: std %f0, 0(%r3)
; CHECK: std %f2, 8(%r3)
; Check the next doubleword up, which needs separate address logic.
; Other sequences besides this one would be OK.
define void @f4(double %f1, double *%base, fp128 *%dst) {
-; CHECK: f4:
+; CHECK-LABEL: f4:
; CHECK: aghi %r2, 4096
; CHECK: mxdb %f0, 0(%r2)
; CHECK: std %f0, 0(%r3)
; Check negative displacements, which also need separate address logic.
define void @f5(double %f1, double *%base, fp128 *%dst) {
-; CHECK: f5:
+; CHECK-LABEL: f5:
; CHECK: aghi %r2, -8
; CHECK: mxdb %f0, 0(%r2)
; CHECK: std %f0, 0(%r3)
; Check that MXDB allows indices.
define void @f6(double %f1, double *%base, i64 %index, fp128 *%dst) {
-; CHECK: f6:
+; CHECK-LABEL: f6:
; CHECK: sllg %r1, %r3, 3
; CHECK: mxdb %f0, 800(%r1,%r2)
; CHECK: std %f0, 0(%r4)
; Check that multiplications of spilled values can use MXDB rather than MXDBR.
define double @f7(double *%ptr0) {
-; CHECK: f7:
+; CHECK-LABEL: f7:
; CHECK: brasl %r14, foo@PLT
; CHECK: mxdb %f0, 160(%r15)
; CHECK: br %r14