blob: c29dc2230e67b6eb93b3f3bddde51fff4263b992 [file] [log] [blame]
; Test encoding of MIPS32 floating point arithmetic instructions
; REQUIRES: allow_dump
; Compile using standalone assembler.
; RUN: %p2i --filetype=asm -i %s --target=mips32 --args -O2 \
; RUN: --allow-externally-defined-symbols --skip-unimplemented \
; RUN: | FileCheck %s --check-prefix=ASM
; Show bytes in assembled standalone code.
; RUN: %p2i --filetype=asm -i %s --target=mips32 --assemble --disassemble \
; RUN: --args -O2 --allow-externally-defined-symbols --skip-unimplemented \
; RUN: | FileCheck %s --check-prefix=DIS
; Compile using integrated assembler.
; RUN: %p2i --filetype=iasm -i %s --target=mips32 --args -O2 \
; RUN: --allow-externally-defined-symbols --skip-unimplemented \
; RUN: | FileCheck %s --check-prefix=IASM
; Show bytes in assembled integrated code.
; RUN: %p2i --filetype=iasm -i %s --target=mips32 --assemble --disassemble \
; RUN: --args -O2 --allow-externally-defined-symbols --skip-unimplemented \
; RUN: | FileCheck %s --check-prefix=DIS
declare float @llvm.fabs.f32(float)
declare double @llvm.fabs.f64(double)
declare float @llvm.sqrt.f32(float)
declare double @llvm.sqrt.f64(double)
define internal float @encAbsFloat(float %a) {
entry:
%c = call float @llvm.fabs.f32(float %a)
ret float %c
}
; ASM-LABEL: encAbsFloat
; ASM-NEXT: .LencAbsFloat$entry:
; ASM-NEXT: abs.s $f12, $f12
; ASM-NEXT: mov.s $f0, $f12
; ASM-NEXT: jr $ra
; DIS-LABEL: 00000000 <encAbsFloat>:
; DIS-NEXT: 0: 46006305 abs.s $f12,$f12
; DIS-NEXT: 4: 46006006 mov.s $f0,$f12
; DIS-NEXT: 8: 03e00008 jr ra
; DIS-NEXT: c: 00000000 nop
; IASM-LABEL: encAbsFloat:
; IASM-NEXT: .LencAbsFloat$entry:
; IASM-NEXT: .byte 0x5
; IASM-NEXT: .byte 0x63
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x46
; IASM-NEXT: .byte 0x6
; IASM-NEXT: .byte 0x60
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x46
; IASM-NEXT: .byte 0x8
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0xe0
; IASM-NEXT: .byte 0x3
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x0
define internal double @encAbsDouble(double %a) {
entry:
%c = call double @llvm.fabs.f64(double %a)
ret double %c
}
; ASM-LABEL: encAbsDouble:
; ASM-NEXT: .LencAbsDouble$entry:
; ASM-NEXT: abs.d $f12, $f12
; ASM-NEXT: mov.d $f0, $f12
; ASM-NEXT: jr $ra
; DIS-LABEL: 00000010 <encAbsDouble>:
; DIS-NEXT: 10: 46206305 abs.d $f12,$f12
; DIS-NEXT: 14: 46206006 mov.d $f0,$f12
; DIS-NEXT: 18: 03e00008 jr ra
; DIS-NEXT: 1c: 00000000 nop
; IASM-LABEL: encAbsDouble:
; IASM-NEXT: .LencAbsDouble$entry:
; IASM-NEXT: .byte 0x5
; IASM-NEXT: .byte 0x63
; IASM-NEXT: .byte 0x20
; IASM-NEXT: .byte 0x46
; IASM-NEXT: .byte 0x6
; IASM-NEXT: .byte 0x60
; IASM-NEXT: .byte 0x20
; IASM-NEXT: .byte 0x46
; IASM-NEXT: .byte 0x8
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0xe0
; IASM-NEXT: .byte 0x3
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x0
define internal float @encAddFloat(float %a, float %b) {
entry:
%c = fadd float %a, %b
ret float %c
}
; ASM-LABEL: encAddFloat
; ASM-NEXT: .LencAddFloat$entry:
; ASM-NEXT: add.s $f12, $f12, $f14
; ASM-NEXT: mov.s $f0, $f12
; ASM-NEXT: jr $ra
; DIS-LABEL: 00000020 <encAddFloat>:
; DIS-NEXT: 20: 460e6300 add.s $f12,$f12,$f14
; DIS-NEXT: 24: 46006006 mov.s $f0,$f12
; DIS-NEXT: 28: 03e00008 jr ra
; DIS-NEXT: 2c: 00000000 nop
; IASM-LABEL: encAddFloat:
; IASM-NEXT: .LencAddFloat$entry:
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x63
; IASM-NEXT: .byte 0xe
; IASM-NEXT: .byte 0x46
; IASM-NEXT: .byte 0x6
; IASM-NEXT: .byte 0x60
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x46
; IASM-NEXT: .byte 0x8
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0xe0
; IASM-NEXT: .byte 0x3
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x0
define internal double @encAddDouble(double %a, double %b) {
entry:
%c = fadd double %a, %b
ret double %c
}
; ASM-LABEL: encAddDouble
; ASM-NEXT: .LencAddDouble$entry:
; ASM-NEXT: add.d $f12, $f12, $f14
; ASM-NEXT: mov.d $f0, $f12
; ASM-NEXT: jr $ra
; DIS-LABEL: 00000030 <encAddDouble>:
; DIS-NEXT: 30: 462e6300 add.d $f12,$f12,$f14
; DIS-NEXT: 34: 46206006 mov.d $f0,$f12
; DIS-NEXT: 38: 03e00008 jr ra
; DIS-NEXT: 3c: 00000000 nop
; IASM-LABEL: encAddDouble:
; IASM-NEXT: .LencAddDouble$entry:
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x63
; IASM-NEXT: .byte 0x2e
; IASM-NEXT: .byte 0x46
; IASM-NEXT: .byte 0x6
; IASM-NEXT: .byte 0x60
; IASM-NEXT: .byte 0x20
; IASM-NEXT: .byte 0x46
; IASM-NEXT: .byte 0x8
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0xe0
; IASM-NEXT: .byte 0x3
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x0
define internal float @encDivFloat(float %a, float %b) {
entry:
%c = fdiv float %a, %b
ret float %c
}
; ASM-LABEL: encDivFloat
; ASM-NEXT: .LencDivFloat$entry:
; ASM-NEXT: div.s $f12, $f12, $f14
; ASM-NEXT: mov.s $f0, $f12
; ASM-NEXT: jr $ra
; DIS-LABEL: 00000040 <encDivFloat>:
; DIS-NEXT: 40: 460e6303 div.s $f12,$f12,$f14
; DIS-NEXT: 44: 46006006 mov.s $f0,$f12
; DIS-NEXT: 48: 03e00008 jr ra
; DIS-NEXT: 4c: 00000000 nop
; IASM-LABEL: encDivFloat:
; IASM-NEXT: .LencDivFloat$entry:
; IASM-NEXT: .byte 0x3
; IASM-NEXT: .byte 0x63
; IASM-NEXT: .byte 0xe
; IASM-NEXT: .byte 0x46
; IASM-NEXT: .byte 0x6
; IASM-NEXT: .byte 0x60
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x46
; IASM-NEXT: .byte 0x8
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0xe0
; IASM-NEXT: .byte 0x3
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x0
define internal double @encDivDouble(double %a, double %b) {
entry:
%c = fdiv double %a, %b
ret double %c
}
; ASM-LABEL: encDivDouble
; ASM-NEXT: .LencDivDouble$entry:
; ASM-NEXT: div.d $f12, $f12, $f14
; ASM-NEXT: mov.d $f0, $f12
; ASM-NEXT: jr $ra
; DIS-LABEL: 00000050 <encDivDouble>:
; DIS-NEXT: 50: 462e6303 div.d $f12,$f12,$f14
; DIS-NEXT: 54: 46206006 mov.d $f0,$f12
; DIS-NEXT: 58: 03e00008 jr ra
; DIS-NEXT: 5c: 00000000 nop
; IASM-LABEL: encDivDouble:
; IASM-NEXT: .LencDivDouble$entry:
; IASM-NEXT: .byte 0x3
; IASM-NEXT: .byte 0x63
; IASM-NEXT: .byte 0x2e
; IASM-NEXT: .byte 0x46
; IASM-NEXT: .byte 0x6
; IASM-NEXT: .byte 0x60
; IASM-NEXT: .byte 0x20
; IASM-NEXT: .byte 0x46
; IASM-NEXT: .byte 0x8
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0xe0
; IASM-NEXT: .byte 0x3
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x0
define internal float @encMulFloat(float %a, float %b) {
entry:
%c = fmul float %a, %b
ret float %c
}
; ASM-LABEL: encMulFloat
; ASM-NEXT: .LencMulFloat$entry:
; ASM-NEXT: mul.s $f12, $f12, $f14
; ASM-NEXT: mov.s $f0, $f12
; ASM-NEXT: jr $ra
; DIS-LABEL: 00000060 <encMulFloat>:
; DIS-NEXT: 60: 460e6302 mul.s $f12,$f12,$f14
; DIS-NEXT: 64: 46006006 mov.s $f0,$f12
; DIS-NEXT: 68: 03e00008 jr ra
; DIS-NEXT: 6c: 00000000 nop
; IASM-LABEL: encMulFloat:
; IASM-NEXT: .LencMulFloat$entry:
; IASM-NEXT: .byte 0x2
; IASM-NEXT: .byte 0x63
; IASM-NEXT: .byte 0xe
; IASM-NEXT: .byte 0x46
; IASM-NEXT: .byte 0x6
; IASM-NEXT: .byte 0x60
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x46
; IASM-NEXT: .byte 0x8
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0xe0
; IASM-NEXT: .byte 0x3
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x0
define internal double @encMulDouble(double %a, double %b) {
entry:
%c = fmul double %a, %b
ret double %c
}
; ASM-LABEL: encMulDouble
; ASM-NEXT: .LencMulDouble$entry:
; ASM-NEXT: mul.d $f12, $f12, $f14
; ASM-NEXT: mov.d $f0, $f12
; ASM-NEXT: jr $ra
; DIS-LABEL: 00000070 <encMulDouble>:
; DIS-NEXT: 70: 462e6302 mul.d $f12,$f12,$f14
; DIS-NEXT: 74: 46206006 mov.d $f0,$f12
; DIS-NEXT: 78: 03e00008 jr ra
; DIS-NEXT: 7c: 00000000 nop
; IASM-LABEL: encMulDouble:
; IASM-NEXT: .LencMulDouble$entry:
; IASM-NEXT: .byte 0x2
; IASM-NEXT: .byte 0x63
; IASM-NEXT: .byte 0x2e
; IASM-NEXT: .byte 0x46
; IASM-NEXT: .byte 0x6
; IASM-NEXT: .byte 0x60
; IASM-NEXT: .byte 0x20
; IASM-NEXT: .byte 0x46
; IASM-NEXT: .byte 0x8
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0xe0
; IASM-NEXT: .byte 0x3
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x0
define internal float @encSqrtFloat(float %a) {
entry:
%c = call float @llvm.sqrt.f32(float %a)
ret float %c
}
; ASM-LABEL: encSqrtFloat
; ASM-NEXT: .LencSqrtFloat$entry:
; ASM-NEXT: sqrt.s $f12, $f12
; ASM-NEXT: mov.s $f0, $f12
; ASM-NEXT: jr $ra
; DIS-LABEL: 00000080 <encSqrtFloat>:
; DIS-NEXT: 80: 46006304 sqrt.s $f12,$f12
; DIS-NEXT: 84: 46006006 mov.s $f0,$f12
; DIS-NEXT: 88: 03e00008 jr ra
; DIS-NEXT: 8c: 00000000 nop
; IASM-LABEL: encSqrtFloat:
; IASM-NEXT: .LencSqrtFloat$entry:
; IASM-NEXT: .byte 0x4
; IASM-NEXT: .byte 0x63
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x46
; IASM-NEXT: .byte 0x6
; IASM-NEXT: .byte 0x60
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x46
; IASM-NEXT: .byte 0x8
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0xe0
; IASM-NEXT: .byte 0x3
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x0
define internal double @encSqrtDouble(double %a) {
entry:
%c = call double @llvm.sqrt.f64(double %a)
ret double %c
}
; ASM-LABEL: encSqrtDouble
; ASM-NEXT: .LencSqrtDouble$entry:
; ASM-NEXT: sqrt.d $f12, $f12
; ASM-NEXT: mov.d $f0, $f12
; ASM-NEXT: jr $ra
; DIS-LABEL: 00000090 <encSqrtDouble>:
; DIS-NEXT: 90: 46206304 sqrt.d $f12,$f12
; DIS-NEXT: 94: 46206006 mov.d $f0,$f12
; DIS-NEXT: 98: 03e00008 jr ra
; DIS-NEXT: 9c: 00000000 nop
; IASM-LABEL: encSqrtDouble:
; IASM-NEXT: .LencSqrtDouble$entry:
; IASM-NEXT: .byte 0x4
; IASM-NEXT: .byte 0x63
; IASM-NEXT: .byte 0x20
; IASM-NEXT: .byte 0x46
; IASM-NEXT: .byte 0x6
; IASM-NEXT: .byte 0x60
; IASM-NEXT: .byte 0x20
; IASM-NEXT: .byte 0x46
; IASM-NEXT: .byte 0x8
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0xe0
; IASM-NEXT: .byte 0x3
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x0
define internal float @encSubFloat(float %a, float %b) {
entry:
%c = fsub float %a, %b
ret float %c
}
; ASM-LABEL: encSubFloat
; ASM-NEXT: .LencSubFloat$entry:
; ASM-NEXT: sub.s $f12, $f12, $f14
; ASM-NEXT: mov.s $f0, $f12
; ASM-NEXT: jr $ra
; DIS-LABEL: 000000a0 <encSubFloat>:
; DIS-NEXT: a0: 460e6301 sub.s $f12,$f12,$f14
; DIS-NEXT: a4: 46006006 mov.s $f0,$f12
; DIS-NEXT: a8: 03e00008 jr ra
; DIS-NEXT: ac: 00000000 nop
; IASM-LABEL: encSubFloat:
; IASM-NEXT: .LencSubFloat$entry:
; IASM-NEXT: .byte 0x1
; IASM-NEXT: .byte 0x63
; IASM-NEXT: .byte 0xe
; IASM-NEXT: .byte 0x46
; IASM-NEXT: .byte 0x6
; IASM-NEXT: .byte 0x60
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x46
; IASM-NEXT: .byte 0x8
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0xe0
; IASM-NEXT: .byte 0x3
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x0
define internal double @encSubDouble(double %a, double %b) {
entry:
%c = fsub double %a, %b
ret double %c
}
; ASM-LABEL: encSubDouble
; ASM-NEXT: .LencSubDouble$entry:
; ASM-NEXT: sub.d $f12, $f12, $f14
; ASM-NEXT: mov.d $f0, $f12
; ASM-NEXT: jr $ra
; DIS-LABEL: 000000b0 <encSubDouble>:
; DIS-NEXT: b0: 462e6301 sub.d $f12,$f12,$f14
; DIS-NEXT: b4: 46206006 mov.d $f0,$f12
; DIS-NEXT: b8: 03e00008 jr ra
; DIS-NEXT: bc: 00000000 nop
; IASM-LABEL: encSubDouble:
; IASM-NEXT: .LencSubDouble$entry:
; IASM-NEXT: .byte 0x1
; IASM-NEXT: .byte 0x63
; IASM-NEXT: .byte 0x2e
; IASM-NEXT: .byte 0x46
; IASM-NEXT: .byte 0x6
; IASM-NEXT: .byte 0x60
; IASM-NEXT: .byte 0x20
; IASM-NEXT: .byte 0x46
; IASM-NEXT: .byte 0x8
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0xe0
; IASM-NEXT: .byte 0x3
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x0
; IASM-NEXT: .byte 0x0