; RUN: llc -march=mips -mattr=+msa,+fp64 < %s | FileCheck -check-prefix=MIPS32 %s ; RUN: llc -march=mipsel -mattr=+msa,+fp64 < %s | FileCheck -check-prefix=MIPS32 %s @v4f32 = global <4 x float> @v2f64 = global <2 x double> @f32 = global float 0.0 @f64 = global double 0.0 define void @const_v4f32() nounwind { ; MIPS32: const_v4f32: store volatile <4 x float> , <4 x float>*@v4f32 ; MIPS32: ldi.b [[R1:\$w[0-9]+]], 0 store volatile <4 x float> , <4 x float>*@v4f32 ; MIPS32: lui [[R1:\$[0-9]+]], 16256 ; MIPS32: fill.w [[R2:\$w[0-9]+]], [[R1]] store volatile <4 x float> , <4 x float>*@v4f32 ; MIPS32: addiu [[G_PTR:\$[0-9]+]], {{.*}}, %lo($ ; MIPS32: ld.w [[R1:\$w[0-9]+]], 0([[G_PTR]]) store volatile <4 x float> , <4 x float>*@v4f32 ; MIPS32: lui [[R1:\$[0-9]+]], 18304 ; MIPS32: ori [[R2:\$[0-9]+]], [[R1]], 128 ; MIPS32: fill.w [[R3:\$w[0-9]+]], [[R2]] store volatile <4 x float> , <4 x float>*@v4f32 ; MIPS32: addiu [[G_PTR:\$[0-9]+]], {{.*}}, %lo($ ; MIPS32: ld.w [[R1:\$w[0-9]+]], 0([[G_PTR]]) store volatile <4 x float> , <4 x float>*@v4f32 ; MIPS32: addiu [[G_PTR:\$[0-9]+]], {{.*}}, %lo($ ; MIPS32: ld.w [[R1:\$w[0-9]+]], 0([[G_PTR]]) ret void ; MIPS32: .size const_v4f32 } define void @const_v2f64() nounwind { ; MIPS32: const_v2f64: store volatile <2 x double> , <2 x double>*@v2f64 ; MIPS32: ldi.b [[R1:\$w[0-9]+]], 0 store volatile <2 x double> , <2 x double>*@v2f64 ; MIPS32: addiu [[G_PTR:\$[0-9]+]], {{.*}}, %lo($ ; MIPS32: ld.d [[R1:\$w[0-9]+]], 0([[G_PTR]]) store volatile <2 x double> , <2 x double>*@v2f64 ; MIPS32: addiu [[G_PTR:\$[0-9]+]], {{.*}}, %lo($ ; MIPS32: ld.d [[R1:\$w[0-9]+]], 0([[G_PTR]]) store volatile <2 x double> , <2 x double>*@v2f64 ; MIPS32: addiu [[G_PTR:\$[0-9]+]], {{.*}}, %lo($ ; MIPS32: ld.d [[R1:\$w[0-9]+]], 0([[G_PTR]]) store volatile <2 x double> , <2 x double>*@v2f64 ; MIPS32: addiu [[G_PTR:\$[0-9]+]], {{.*}}, %lo($ ; MIPS32: ld.d [[R1:\$w[0-9]+]], 0([[G_PTR]]) store volatile <2 x double> , <2 x double>*@v2f64 ; MIPS32: addiu [[G_PTR:\$[0-9]+]], {{.*}}, %lo($ ; MIPS32: ld.d [[R1:\$w[0-9]+]], 0([[G_PTR]]) store volatile <2 x double> , <2 x double>*@v2f64 ; MIPS32: addiu [[G_PTR:\$[0-9]+]], {{.*}}, %lo($ ; MIPS32: ld.d [[R1:\$w[0-9]+]], 0([[G_PTR]]) ret void ; MIPS32: .size const_v2f64 } define void @nonconst_v4f32() nounwind { ; MIPS32: nonconst_v4f32: %1 = load float *@f32 %2 = insertelement <4 x float> undef, float %1, i32 0 %3 = insertelement <4 x float> %2, float %1, i32 1 %4 = insertelement <4 x float> %3, float %1, i32 2 %5 = insertelement <4 x float> %4, float %1, i32 3 store volatile <4 x float> %5, <4 x float>*@v4f32 ; MIPS32: lwc1 $f[[R1:[0-9]+]], 0( ; MIPS32: splati.w [[R2:\$w[0-9]+]], $w[[R1]] ret void ; MIPS32: .size nonconst_v4f32 } define void @nonconst_v2f64() nounwind { ; MIPS32: nonconst_v2f64: %1 = load double *@f64 %2 = insertelement <2 x double> undef, double %1, i32 0 %3 = insertelement <2 x double> %2, double %1, i32 1 store volatile <2 x double> %3, <2 x double>*@v2f64 ; MIPS32: ldc1 $f[[R1:[0-9]+]], 0( ; MIPS32: splati.d [[R2:\$w[0-9]+]], $w[[R1]] ret void ; MIPS32: .size nonconst_v2f64 } define float @extract_v4f32() nounwind { ; MIPS32: extract_v4f32: %1 = load <4 x float>* @v4f32 ; MIPS32-DAG: ld.w [[R1:\$w[0-9]+]], %2 = fadd <4 x float> %1, %1 ; MIPS32-DAG: fadd.w [[R2:\$w[0-9]+]], [[R1]], [[R1]] %3 = extractelement <4 x float> %2, i32 1 ; Element 1 can be obtained by splatting it across the vector and extracting ; $w0:sub_lo ; MIPS32-DAG: splati.w $w0, [[R1]][1] ret float %3 ; MIPS32: .size extract_v4f32 } define float @extract_v4f32_elt0() nounwind { ; MIPS32: extract_v4f32_elt0: %1 = load <4 x float>* @v4f32 ; MIPS32-DAG: ld.w [[R1:\$w[0-9]+]], %2 = fadd <4 x float> %1, %1 ; MIPS32-DAG: fadd.w $w0, [[R1]], [[R1]] %3 = extractelement <4 x float> %2, i32 0 ; Element 0 can be obtained by extracting $w0:sub_lo ($f0) ; MIPS32-NOT: copy_u.w ; MIPS32-NOT: mtc1 ret float %3 ; MIPS32: .size extract_v4f32_elt0 } define float @extract_v4f32_elt2() nounwind { ; MIPS32: extract_v4f32_elt2: %1 = load <4 x float>* @v4f32 ; MIPS32-DAG: ld.w [[R1:\$w[0-9]+]], %2 = fadd <4 x float> %1, %1 ; MIPS32-DAG: fadd.w [[R2:\$w[0-9]+]], [[R1]], [[R1]] %3 = extractelement <4 x float> %2, i32 2 ; Element 2 can be obtained by splatting it across the vector and extracting ; $w0:sub_lo ; MIPS32-DAG: splati.w $w0, [[R1]][2] ret float %3 ; MIPS32: .size extract_v4f32_elt2 } define double @extract_v2f64() nounwind { ; MIPS32: extract_v2f64: %1 = load <2 x double>* @v2f64 ; MIPS32-DAG: ld.d [[R1:\$w[0-9]+]], %2 = fadd <2 x double> %1, %1 ; MIPS32-DAG: fadd.d [[R2:\$w[0-9]+]], [[R1]], [[R1]] %3 = extractelement <2 x double> %2, i32 1 ; Element 1 can be obtained by splatting it across the vector and extracting ; $w0:sub_64 ; MIPS32-DAG: splati.d $w0, [[R1]][1] ; MIPS32-NOT: copy_u.w ; MIPS32-NOT: mtc1 ; MIPS32-NOT: mthc1 ; MIPS32-NOT: sll ; MIPS32-NOT: sra ret double %3 ; MIPS32: .size extract_v2f64 } define double @extract_v2f64_elt0() nounwind { ; MIPS32: extract_v2f64_elt0: %1 = load <2 x double>* @v2f64 ; MIPS32-DAG: ld.d [[R1:\$w[0-9]+]], %2 = fadd <2 x double> %1, %1 ; MIPS32-DAG: fadd.d $w0, [[R1]], [[R1]] %3 = extractelement <2 x double> %2, i32 0 ; Element 0 can be obtained by extracting $w0:sub_64 ($f0) ; MIPS32-NOT: copy_u.w ; MIPS32-NOT: mtc1 ; MIPS32-NOT: mthc1 ; MIPS32-NOT: sll ; MIPS32-NOT: sra ret double %3 ; MIPS32: .size extract_v2f64_elt0 } define void @insert_v4f32(float %a) nounwind { ; MIPS32: insert_v4f32: %1 = load <4 x float>* @v4f32 ; MIPS32-DAG: ld.w [[R1:\$w[0-9]+]], %2 = insertelement <4 x float> %1, float %a, i32 1 ; float argument passed in $f12 ; MIPS32-DAG: insve.w [[R1]][1], $w12[0] store <4 x float> %2, <4 x float>* @v4f32 ; MIPS32-DAG: st.w [[R1]] ret void ; MIPS32: .size insert_v4f32 } define void @insert_v2f64(double %a) nounwind { ; MIPS32: insert_v2f64: %1 = load <2 x double>* @v2f64 ; MIPS32-DAG: ld.d [[R1:\$w[0-9]+]], %2 = insertelement <2 x double> %1, double %a, i32 1 ; double argument passed in $f12 ; MIPS32-DAG: insve.d [[R1]][1], $w12[0] store <2 x double> %2, <2 x double>* @v2f64 ; MIPS32-DAG: st.d [[R1]] ret void ; MIPS32: .size insert_v2f64 }