; Assembly test for simple arithmetic operations. ; RUN: %if --need=target_X8632 --command %p2i --filetype=obj --disassemble \ ; RUN: --target x8632 -i %s --args -O2 \ ; RUN: | %if --need=target_X8632 --command FileCheck %s ; RUN: %if --need=target_ARM32 \ ; RUN: --command %p2i --filetype=obj --disassemble --target arm32 \ ; RUN: -i %s --args -O2 \ ; RUN: | %if --need=target_ARM32 \ ; RUN: --command FileCheck --check-prefix ARM32 --check-prefix ARM-OPT2 %s ; RUN: %if --need=target_ARM32 \ ; RUN: --command %p2i --filetype=obj --disassemble --target arm32 \ ; RUN: -i %s --args -O2 --mattr=hwdiv-arm \ ; RUN: | %if --need=target_ARM32 \ ; RUN: --command FileCheck --check-prefix ARM32HWDIV %s ; RUN: %if --need=target_ARM32 \ ; RUN: --command %p2i --filetype=obj --disassemble --target arm32 \ ; RUN: -i %s --args -Om1 \ ; RUN: | %if --need=target_ARM32 \ ; RUN: --command FileCheck --check-prefix ARM32 --check-prefix ARM32-OPTM1 %s ; ; RUN: %if --need=target_MIPS32 --need=allow_dump \ ; RUN: --command %p2i --filetype=asm --assemble --disassemble --target mips32\ ; RUN: -i %s --args -O2 \ ; RUN: | %if --need=target_MIPS32 --need=allow_dump \ ; RUN: --command FileCheck --check-prefix MIPS32 %s ; RUN: %if --need=target_MIPS32 --need=allow_dump \ ; RUN: --command %p2i --filetype=asm --assemble --disassemble --target mips32\ ; RUN: -i %s --args -Om1 \ ; RUN: | %if --need=target_MIPS32 --need=allow_dump \ ; RUN: --command FileCheck --check-prefix MIPS32 %s define internal i32 @Add(i32 %a, i32 %b) { entry: %add = add i32 %b, %a ret i32 %add } ; CHECK-LABEL: Add ; CHECK: add e ; ARM32-LABEL: Add ; ARM32: add r ; MIPS32-LABEL: Add ; MIPS32: add define internal i32 @And(i32 %a, i32 %b) { entry: %and = and i32 %b, %a ret i32 %and } ; CHECK-LABEL: And ; CHECK: and e ; ARM32-LABEL: And ; ARM32: and r ; MIPS32-LABEL: And ; MIPS32: and define internal i32 @Or(i32 %a, i32 %b) { entry: %or = or i32 %b, %a ret i32 %or } ; CHECK-LABEL: Or ; CHECK: or e ; ARM32-LABEL: Or ; ARM32: orr r ; MIPS32-LABEL: Or ; MIPS32: or define internal i32 @Xor(i32 %a, i32 %b) { entry: %xor = xor i32 %b, %a ret i32 %xor } ; CHECK-LABEL: Xor ; CHECK: xor e ; ARM32-LABEL: Xor ; ARM32: eor r ; MIPS32-LABEL: Xor ; MIPS32: xor define internal i32 @Sub(i32 %a, i32 %b) { entry: %sub = sub i32 %a, %b ret i32 %sub } ; CHECK-LABEL: Sub ; CHECK: sub e ; ARM32-LABEL: Sub ; ARM32: sub r ; MIPS32-LABEL: Sub ; MIPS32: sub define internal i32 @Mul(i32 %a, i32 %b) { entry: %mul = mul i32 %b, %a ret i32 %mul } ; CHECK-LABEL: Mul ; CHECK: imul e ; ARM32-LABEL: Mul ; ARM32: mul r ; MIPS32-LABEL: Mul ; MIPS32: mul ; Check for a valid ARM mul instruction where operands have to be registers. ; On the other hand x86-32 does allow an immediate. define internal i32 @MulImm(i32 %a, i32 %b) { entry: %mul = mul i32 %a, 99 ret i32 %mul } ; CHECK-LABEL: MulImm ; CHECK: imul e{{.*}},e{{.*}},0x63 ; ARM32-LABEL: MulImm ; ARM32-OPTM1: mov {{.*}}, #99 ; ARM32-OPTM1: mul r{{.*}}, r{{.*}}, r{{.*}} ; ARM32-OPT2: rsb [[T:r[0-9]+]], [[S:r[0-9]+]], [[S]], lsl #2 ; ARM32-OPT2-DAG: add [[T]], [[T]], [[S]], lsl #7 ; ARM32-OPT2-DAG: sub [[T]], [[T]], [[S]], lsl #5 ; MIPS32-LABEL: MulImm ; MIPS32: mul ; Check for a valid addressing mode in the x86-32 mul instruction when ; the second source operand is an immediate. define internal i64 @MulImm64(i64 %a) { entry: %mul = mul i64 %a, 99 ret i64 %mul } ; NOTE: the lowering is currently a bit inefficient for small 64-bit constants. ; The top bits of the immediate are 0, but the instructions modeling that ; multiply by 0 are not eliminated (see expanded 64-bit ARM lowering). ; CHECK-LABEL: MulImm64 ; CHECK: mov {{.*}},0x63 ; CHECK: mov {{.*}},0x0 ; CHECK-NOT: mul {{[0-9]+}} ; ; ARM32-LABEL: MulImm64 ; ARM32: mov {{.*}}, #99 ; ARM32: mov {{.*}}, #0 ; ARM32: mul r ; ARM32: mla r ; ARM32: umull r ; ARM32: add r ; MIPS32-LABEL: MulImm64 define internal i32 @Sdiv(i32 %a, i32 %b) { entry: %div = sdiv i32 %a, %b ret i32 %div } ; CHECK-LABEL: Sdiv ; CHECK: cdq ; CHECK: idiv e ; ; ARM32-LABEL: Sdiv ; ARM32: tst [[DENOM:r.*]], [[DENOM]] ; ARM32: bne ; The following instruction is ".word 0xe7fedef0 = udf #60896 ; 0xede0". ; ARM32: e7fedef0 ; ARM32: bl {{.*}} __divsi3 ; ARM32HWDIV-LABEL: Sdiv ; ARM32HWDIV: tst ; ARM32HWDIV: bne ; ARM32HWDIV: sdiv ; MIPS32-LABEL: Sdiv ; MIPS32: div zero,{{.*}},[[REG:.*]] ; MIPS32: teq [[REG]],zero,0x7 ; MIPS32: mflo define internal i32 @SdivConst(i32 %a) { entry: %div = sdiv i32 %a, 219 ret i32 %div } ; CHECK-LABEL: SdivConst ; CHECK: cdq ; CHECK: idiv e ; ; ARM32-LABEL: SdivConst ; ARM32-NOT: tst ; ARM32: bl {{.*}} __divsi3 ; ARM32HWDIV-LABEL: SdivConst ; ARM32HWDIV-NOT: tst ; ARM32HWDIV: sdiv ; MIPS32-LABEL: SdivConst ; MIPS32: div zero,{{.*}},[[REG:.*]] ; MIPS32: teq [[REG]],zero,0x7 ; MIPS32: mflo define internal i32 @Srem(i32 %a, i32 %b) { entry: %rem = srem i32 %a, %b ret i32 %rem } ; CHECK-LABEL: Srem ; CHECK: cdq ; CHECK: idiv e ; ; ARM32-LABEL: Srem ; ARM32: tst [[DENOM:r.*]], [[DENOM]] ; ARM32: bne ; ARM32: bl {{.*}} __modsi3 ; ARM32HWDIV-LABEL: Srem ; ARM32HWDIV: tst ; ARM32HWDIV: bne ; ARM32HWDIV: sdiv ; ARM32HWDIV: mls ; MIPS32-LABEL: Srem ; MIPS32: div zero,{{.*}},[[REG:.*]] ; MIPS32: teq [[REG]],zero,0x7 ; MIPS32: mfhi define internal i32 @Udiv(i32 %a, i32 %b) { entry: %div = udiv i32 %a, %b ret i32 %div } ; CHECK-LABEL: Udiv ; CHECK: div e ; ; ARM32-LABEL: Udiv ; ARM32: tst [[DENOM:r.*]], [[DENOM]] ; ARM32: bne ; ARM32: bl {{.*}} __udivsi3 ; ARM32HWDIV-LABEL: Udiv ; ARM32HWDIV: tst ; ARM32HWDIV: bne ; ARM32HWDIV: udiv ; MIPS32-LABEL: Udiv ; MIPS32: divu zero,{{.*}},[[REG:.*]] ; MIPS32: teq [[REG]],zero,0x7 ; MIPS32: mflo define internal i32 @Urem(i32 %a, i32 %b) { entry: %rem = urem i32 %a, %b ret i32 %rem } ; CHECK-LABEL: Urem ; CHECK: div e ; ; ARM32-LABEL: Urem ; ARM32: tst [[DENOM:r.*]], [[DENOM]] ; ARM32: bne ; ARM32: bl {{.*}} __umodsi3 ; ARM32HWDIV-LABEL: Urem ; ARM32HWDIV: tst ; ARM32HWDIV: bne ; ARM32HWDIV: udiv ; ARM32HWDIV: mls ; MIPS32-LABEL: Urem ; MIPS32: divu zero,{{.*}},[[REG:.*]] ; MIPS32: teq [[REG]],zero,0x7 ; MIPS32: mfhi ; The following tests check that shift instructions don't try to use a ; ConstantRelocatable as an immediate operand. @G = internal global [4 x i8] zeroinitializer, align 4 define internal i32 @ShlReloc(i32 %a) { entry: %opnd = ptrtoint [4 x i8]* @G to i32 %result = shl i32 %a, %opnd ret i32 %result } ; CHECK-LABEL: ShlReloc ; CHECK: shl {{.*}},cl ; MIPS32-LABEL: ShlReloc ; MIPS32: lui [[REG:.*]],{{.*}} R_MIPS_HI16 G ; MIPS32: addiu [[REG]],[[REG]],{{.*}} R_MIPS_LO16 G ; MIPS32: sllv {{.*}},{{.*}},[[REG]] define internal i32 @LshrReloc(i32 %a) { entry: %opnd = ptrtoint [4 x i8]* @G to i32 %result = lshr i32 %a, %opnd ret i32 %result } ; CHECK-LABEL: LshrReloc ; CHECK: shr {{.*}},cl ; MIPS32-LABEL: LshrReloc ; MIPS32: lui [[REG:.*]],{{.*}} R_MIPS_HI16 G ; MIPS32: addiu [[REG]],[[REG]],{{.*}} R_MIPS_LO16 G ; MIPS32: srlv {{.*}},{{.*}},[[REG]] define internal i32 @AshrReloc(i32 %a) { entry: %opnd = ptrtoint [4 x i8]* @G to i32 %result = ashr i32 %a, %opnd ret i32 %result } ; CHECK-LABEL: AshrReloc ; CHECK: sar {{.*}},cl ; MIPS32-LABEL: AshrReloc ; MIPS32: lui [[REG:.*]],{{.*}} R_MIPS_HI16 G ; MIPS32: addiu [[REG]],[[REG]],{{.*}} R_MIPS_LO16 G ; MIPS32: srav {{.*}},{{.*}},[[REG]]