all: replace leading spaces with tabs in assembly

Most of these are one-off mistakes. Only one file was all spaces.

Change-Id: I277c3ce4a4811aa4248c90676f66bc775ae8d062
Reviewed-on: https://go-review.googlesource.com/c/go/+/478976
Run-TryBot: Michael Pratt <mpratt@google.com>
TryBot-Result: Gopher Robot <gobot@golang.org>
Reviewed-by: Cherry Mui <cherryyz@google.com>
This commit is contained in:
Michael Pratt 2023-03-23 14:18:19 -04:00
parent 7b88715882
commit b0dfcb7465
21 changed files with 883 additions and 883 deletions

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@ -74,7 +74,7 @@ TEXT errors(SB),$0
MOVQ (AX), DR3 // ERROR "invalid instruction" MOVQ (AX), DR3 // ERROR "invalid instruction"
MOVQ (AX), DR6 // ERROR "invalid instruction" MOVQ (AX), DR6 // ERROR "invalid instruction"
MOVQ (AX), DR7 // ERROR "invalid instruction" MOVQ (AX), DR7 // ERROR "invalid instruction"
// AVX512GATHER index/index #UD cases. // AVX512GATHER index/index #UD cases.
VPGATHERQQ (BP)(X2*2), K1, X2 // ERROR "index and destination registers should be distinct" VPGATHERQQ (BP)(X2*2), K1, X2 // ERROR "index and destination registers should be distinct"
VPGATHERQQ (BP)(Y15*2), K1, Y15 // ERROR "index and destination registers should be distinct" VPGATHERQQ (BP)(Y15*2), K1, Y15 // ERROR "index and destination registers should be distinct"
VPGATHERQQ (BP)(Z20*2), K1, Z20 // ERROR "index and destination registers should be distinct" VPGATHERQQ (BP)(Z20*2), K1, Z20 // ERROR "index and destination registers should be distinct"

File diff suppressed because it is too large Load Diff

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@ -270,4 +270,4 @@ TEXT asmtest(SB), DUPOK|NOSPLIT, $0
HASHCHK -8(R1), R2 // 7fe115e5 HASHCHK -8(R1), R2 // 7fe115e5
HASHCHKP -8(R1), R2 // 7fe11565 HASHCHKP -8(R1), R2 // 7fe11565
RET RET

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@ -5,4 +5,4 @@
#include "textflag.h" #include "textflag.h"
TEXT ·singleInstruction(SB),NOSPLIT,$0 TEXT ·singleInstruction(SB),NOSPLIT,$0
RET RET

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@ -149,7 +149,7 @@ ks128Loop:
BNE ks128Loop BNE ks128Loop
CBZ R11, ksDone // If dec is nil we are done CBZ R11, ksDone // If dec is nil we are done
SUB $176, R10 SUB $176, R10
// Decryption keys are encryption keys with InverseMixColumns applied // Decryption keys are encryption keys with InverseMixColumns applied
VLD1.P 64(R10), [V0.B16, V1.B16, V2.B16, V3.B16] VLD1.P 64(R10), [V0.B16, V1.B16, V2.B16, V3.B16]
VMOV V0.B16, V7.B16 VMOV V0.B16, V7.B16
AESIMC V1.B16, V6.B16 AESIMC V1.B16, V6.B16

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@ -164,7 +164,7 @@ initEncFinish:
AESE T0.B16, B0.B16 AESE T0.B16, B0.B16
AESMC B0.B16, B0.B16 AESMC B0.B16, B0.B16
AESE T1.B16, B0.B16 AESE T1.B16, B0.B16
VEOR T2.B16, B0.B16, B0.B16 VEOR T2.B16, B0.B16, B0.B16
VREV64 B0.B16, B0.B16 VREV64 B0.B16, B0.B16

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@ -1208,7 +1208,7 @@ sqrLoop:
BR sqrLoop BR sqrLoop
done: done:
MOVD $p256mul<>+0x00(SB), CPOOL MOVD $p256mul<>+0x00(SB), CPOOL
XXPERMDI T0, T0, $2, T0 XXPERMDI T0, T0, $2, T0
XXPERMDI T1, T1, $2, T1 XXPERMDI T1, T1, $2, T1

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@ -518,7 +518,7 @@ end:
#define CALC_F2_POST(REG_A,REG_B,REG_C,REG_E) \ #define CALC_F2_POST(REG_A,REG_B,REG_C,REG_E) \
XORL REG_B, REG_A \ XORL REG_B, REG_A \
ADDL R12, REG_E \ ADDL R12, REG_E \
XORL REG_C, REG_A XORL REG_C, REG_A
#define CALC_19 \ #define CALC_19 \
CALC_F2_PRE(0x8c,DX,CX,AX) \ CALC_F2_PRE(0x8c,DX,CX,AX) \

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@ -112,11 +112,11 @@ loop:
ANDCC $7,R6,R8 // any leftover bytes ANDCC $7,R6,R8 // any leftover bytes
BEQ done // none --> done BEQ done // none --> done
MOVD R8,CTR // byte count MOVD R8,CTR // byte count
PCALIGN $16 // align short loop PCALIGN $16 // align short loop
short: short:
MOVBZ 0(R5),R8 // get v MOVBZ 0(R5),R8 // get v
MOVBZ R7,R9 // byte(crc) -> R8 BE vs LE? MOVBZ R7,R9 // byte(crc) -> R8 BE vs LE?
SRD $8,R7,R14 // crc>>8 SRD $8,R7,R14 // crc>>8
XOR R8,R9,R8 // byte(crc)^v -> R8 XOR R8,R9,R8 // byte(crc)^v -> R8
ADD $1,R5 // ptr to next v ADD $1,R5 // ptr to next v
SLD $2,R8 // convert index-> bytes SLD $2,R8 // convert index-> bytes

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@ -1090,7 +1090,7 @@ DATA ·IEEEConst+4328(SB)/8,$0xedb88320b1e6b092
GLOBL ·IEEEConst(SB),RODATA,$4336 GLOBL ·IEEEConst(SB),RODATA,$4336
/* Barrett constant m - (4^32)/n */ /* Barrett constant m - (4^32)/n */
DATA ·IEEEBarConst(SB)/8,$0x00000001f7011641 DATA ·IEEEBarConst(SB)/8,$0x00000001f7011641
DATA ·IEEEBarConst+8(SB)/8,$0x0000000000000000 DATA ·IEEEBarConst+8(SB)/8,$0x0000000000000000
DATA ·IEEEBarConst+16(SB)/8,$0x00000001db710641 DATA ·IEEEBarConst+16(SB)/8,$0x00000001db710641
@ -2184,7 +2184,7 @@ DATA ·CastConst+4328(SB)/8,$0x82f63b786ea2d55c
GLOBL ·CastConst(SB),RODATA,$4336 GLOBL ·CastConst(SB),RODATA,$4336
/* Barrett constant m - (4^32)/n */ /* Barrett constant m - (4^32)/n */
DATA ·CastBarConst(SB)/8,$0x00000000dea713f1 DATA ·CastBarConst(SB)/8,$0x00000000dea713f1
DATA ·CastBarConst+8(SB)/8,$0x0000000000000000 DATA ·CastBarConst+8(SB)/8,$0x0000000000000000
DATA ·CastBarConst+16(SB)/8,$0x0000000105ec76f1 DATA ·CastBarConst+16(SB)/8,$0x0000000105ec76f1
@ -3278,7 +3278,7 @@ DATA ·KoopConst+4328(SB)/8,$0xeb31d82e0c62ab26
GLOBL ·KoopConst(SB),RODATA,$4336 GLOBL ·KoopConst(SB),RODATA,$4336
/* Barrett constant m - (4^32)/n */ /* Barrett constant m - (4^32)/n */
DATA ·KoopBarConst(SB)/8,$0x0000000017d232cd DATA ·KoopBarConst(SB)/8,$0x0000000017d232cd
DATA ·KoopBarConst+8(SB)/8,$0x0000000000000000 DATA ·KoopBarConst+8(SB)/8,$0x0000000000000000
DATA ·KoopBarConst+16(SB)/8,$0x00000001d663b05d DATA ·KoopBarConst+16(SB)/8,$0x00000001d663b05d

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@ -62,113 +62,113 @@ GLOBL ·atanhtabh2075<> + 0(SB), RODATA, $16
// with coefficients determined with a Remez exchange algorithm. // with coefficients determined with a Remez exchange algorithm.
TEXT ·atanhAsm(SB), NOSPLIT, $0-16 TEXT ·atanhAsm(SB), NOSPLIT, $0-16
FMOVD x+0(FP), F0 FMOVD x+0(FP), F0
MOVD $·atanhrodataL10<>+0(SB), R5 MOVD $·atanhrodataL10<>+0(SB), R5
LGDR F0, R1 LGDR F0, R1
WORD $0xC0393FEF //iilf %r3,1072693247 WORD $0xC0393FEF //iilf %r3,1072693247
BYTE $0xFF BYTE $0xFF
BYTE $0xFF BYTE $0xFF
SRAD $32, R1 SRAD $32, R1
WORD $0xB9170021 //llgtr %r2,%r1 WORD $0xB9170021 //llgtr %r2,%r1
MOVW R2, R6 MOVW R2, R6
MOVW R3, R7 MOVW R3, R7
CMPBGT R6, R7, L2 CMPBGT R6, R7, L2
WORD $0xC0392FFF //iilf %r3,805306367 WORD $0xC0392FFF //iilf %r3,805306367
BYTE $0xFF BYTE $0xFF
BYTE $0xFF BYTE $0xFF
MOVW R2, R6 MOVW R2, R6
MOVW R3, R7 MOVW R3, R7
CMPBGT R6, R7, L9 CMPBGT R6, R7, L9
L3: L3:
FMOVD 144(R5), F2 FMOVD 144(R5), F2
FMADD F2, F0, F0 FMADD F2, F0, F0
L1: L1:
FMOVD F0, ret+8(FP) FMOVD F0, ret+8(FP)
RET RET
L2: L2:
WORD $0xED005088 //cdb %f0,.L12-.L10(%r5) WORD $0xED005088 //cdb %f0,.L12-.L10(%r5)
BYTE $0x00 BYTE $0x00
BYTE $0x19 BYTE $0x19
BEQ L5 BEQ L5
WORD $0xED005080 //cdb %f0,.L13-.L10(%r5) WORD $0xED005080 //cdb %f0,.L13-.L10(%r5)
BYTE $0x00 BYTE $0x00
BYTE $0x19 BYTE $0x19
BEQ L5 BEQ L5
WFCEDBS V0, V0, V2 WFCEDBS V0, V0, V2
BVS L1 BVS L1
FMOVD 120(R5), F0 FMOVD 120(R5), F0
BR L1 BR L1
L5: L5:
WORD $0xED005070 //ddb %f0,.L15-.L10(%r5) WORD $0xED005070 //ddb %f0,.L15-.L10(%r5)
BYTE $0x00 BYTE $0x00
BYTE $0x1D BYTE $0x1D
FMOVD F0, ret+8(FP) FMOVD F0, ret+8(FP)
RET RET
L9: L9:
FMOVD F0, F2 FMOVD F0, F2
MOVD $·atanhtabh2075<>+0(SB), R2 MOVD $·atanhtabh2075<>+0(SB), R2
SRW $31, R1, R1 SRW $31, R1, R1
FMOVD 104(R5), F4 FMOVD 104(R5), F4
MOVW R1, R1 MOVW R1, R1
SLD $3, R1, R1 SLD $3, R1, R1
WORD $0x68012000 //ld %f0,0(%r1,%r2) WORD $0x68012000 //ld %f0,0(%r1,%r2)
WFMADB V2, V4, V0, V4 WFMADB V2, V4, V0, V4
VLEG $0, 96(R5), V16 VLEG $0, 96(R5), V16
FDIV F4, F2 FDIV F4, F2
WORD $0xC0298006 //iilf %r2,2147909631 WORD $0xC0298006 //iilf %r2,2147909631
BYTE $0x7F BYTE $0x7F
BYTE $0xFF BYTE $0xFF
FMOVD 88(R5), F6 FMOVD 88(R5), F6
FMOVD 80(R5), F1 FMOVD 80(R5), F1
FMOVD 72(R5), F7 FMOVD 72(R5), F7
FMOVD 64(R5), F5 FMOVD 64(R5), F5
FMOVD F2, F4 FMOVD F2, F4
WORD $0xED405088 //adb %f4,.L12-.L10(%r5) WORD $0xED405088 //adb %f4,.L12-.L10(%r5)
BYTE $0x00 BYTE $0x00
BYTE $0x1A BYTE $0x1A
LGDR F4, R4 LGDR F4, R4
SRAD $32, R4 SRAD $32, R4
FMOVD F4, F3 FMOVD F4, F3
WORD $0xED305088 //sdb %f3,.L12-.L10(%r5) WORD $0xED305088 //sdb %f3,.L12-.L10(%r5)
BYTE $0x00 BYTE $0x00
BYTE $0x1B BYTE $0x1B
SUBW R4, R2 SUBW R4, R2
WFSDB V3, V2, V3 WFSDB V3, V2, V3
RISBGZ $32, $47, $0, R2, R1 RISBGZ $32, $47, $0, R2, R1
SLD $32, R1, R1 SLD $32, R1, R1
LDGR R1, F2 LDGR R1, F2
WFMADB V4, V2, V16, V4 WFMADB V4, V2, V16, V4
SRAW $8, R2, R1 SRAW $8, R2, R1
WFMADB V4, V5, V6, V5 WFMADB V4, V5, V6, V5
WFMDB V4, V4, V6 WFMDB V4, V4, V6
WFMADB V4, V1, V7, V1 WFMADB V4, V1, V7, V1
WFMADB V2, V3, V4, V2 WFMADB V2, V3, V4, V2
WFMADB V1, V6, V5, V1 WFMADB V1, V6, V5, V1
FMOVD 56(R5), F3 FMOVD 56(R5), F3
FMOVD 48(R5), F5 FMOVD 48(R5), F5
WFMADB V4, V5, V3, V4 WFMADB V4, V5, V3, V4
FMOVD 40(R5), F3 FMOVD 40(R5), F3
FMADD F1, F6, F4 FMADD F1, F6, F4
FMOVD 32(R5), F1 FMOVD 32(R5), F1
FMADD F3, F2, F1 FMADD F3, F2, F1
ANDW $0xFFFFFF00, R1 ANDW $0xFFFFFF00, R1
WFMADB V6, V4, V1, V6 WFMADB V6, V4, V1, V6
FMOVD 24(R5), F3 FMOVD 24(R5), F3
ORW $0x45000000, R1 ORW $0x45000000, R1
WFMADB V2, V6, V3, V6 WFMADB V2, V6, V3, V6
VLVGF $0, R1, V4 VLVGF $0, R1, V4
LDEBR F4, F4 LDEBR F4, F4
RISBGZ $57, $60, $51, R2, R2 RISBGZ $57, $60, $51, R2, R2
MOVD $·atanhtab2076<>+0(SB), R1 MOVD $·atanhtab2076<>+0(SB), R1
FMOVD 16(R5), F3 FMOVD 16(R5), F3
WORD $0x68521000 //ld %f5,0(%r2,%r1) WORD $0x68521000 //ld %f5,0(%r2,%r1)
FMOVD 8(R5), F1 FMOVD 8(R5), F1
WFMADB V2, V6, V5, V2 WFMADB V2, V6, V5, V2
WFMADB V4, V3, V1, V4 WFMADB V4, V3, V1, V4
FMOVD 0(R5), F6 FMOVD 0(R5), F6
FMADD F6, F4, F2 FMADD F6, F4, F2
FMUL F2, F0 FMUL F2, F0
FMOVD F0, ret+8(FP) FMOVD F0, ret+8(FP)
RET RET

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@ -97,7 +97,7 @@ TEXT ·archLog(SB),NOSPLIT,$0
SUBSD X2, X0 // x0= (hfsq-(s*(hfsq+R)+k*Ln2Lo))-f, x1= k SUBSD X2, X0 // x0= (hfsq-(s*(hfsq+R)+k*Ln2Lo))-f, x1= k
MULSD $Ln2Hi, X1 // x0= (hfsq-(s*(hfsq+R)+k*Ln2Lo))-f, x1= k*Ln2Hi MULSD $Ln2Hi, X1 // x0= (hfsq-(s*(hfsq+R)+k*Ln2Lo))-f, x1= k*Ln2Hi
SUBSD X0, X1 // x1= k*Ln2Hi-((hfsq-(s*(hfsq+R)+k*Ln2Lo))-f) SUBSD X0, X1 // x1= k*Ln2Hi-((hfsq-(s*(hfsq+R)+k*Ln2Lo))-f)
MOVSD X1, ret+8(FP) MOVSD X1, ret+8(FP)
RET RET
isInfOrNaN: isInfOrNaN:
MOVQ BX, ret+8(FP) // +Inf or NaN, return x MOVQ BX, ret+8(FP) // +Inf or NaN, return x

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@ -83,8 +83,8 @@ TEXT runtime·asminit(SB),NOSPLIT|NOFRAME,$0-0
RET RET
TEXT runtime·mstart(SB),NOSPLIT|TOPFRAME,$0 TEXT runtime·mstart(SB),NOSPLIT|TOPFRAME,$0
JAL runtime·mstart0(SB) JAL runtime·mstart0(SB)
RET // not reached RET // not reached
// func cputicks() int64 // func cputicks() int64
TEXT runtime·cputicks(SB),NOSPLIT,$0-8 TEXT runtime·cputicks(SB),NOSPLIT,$0-8

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@ -652,7 +652,7 @@ retry:
// Increment wbBuf.next position. // Increment wbBuf.next position.
ADDV R25, R2 ADDV R25, R2
// Is the buffer full? // Is the buffer full?
SGTU R2, R23, R23 SGTU R2, R23, R23
BNE R23, flush BNE R23, flush
// Commit to the larger buffer. // Commit to the larger buffer.
MOVV R2, (p_wbBuf+wbBuf_next)(R1) MOVV R2, (p_wbBuf+wbBuf_next)(R1)

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@ -106,7 +106,7 @@ lt64gt8:
ADD $32, TGT ADD $32, TGT
lt32gt8: lt32gt8:
// At this point >= 8 and < 32 // At this point >= 8 and < 32
// Move 16 bytes if possible // Move 16 bytes if possible
CMP DWORDS, $2 CMP DWORDS, $2
BLT lt16 BLT lt16

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@ -279,7 +279,7 @@ TEXT runtime·sigtramp(SB),NOSPLIT|TOPFRAME|NOFRAME,$0
ADJSP $-24 ADJSP $-24
POP_REGS_HOST_TO_ABI0() POP_REGS_HOST_TO_ABI0()
RET RET
// Called using C ABI. // Called using C ABI.

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@ -353,7 +353,7 @@ TEXT runtime·sigtramp(SB),NOSPLIT|TOPFRAME|NOFRAME,$0
ADJSP $-24 ADJSP $-24
POP_REGS_HOST_TO_ABI0() POP_REGS_HOST_TO_ABI0()
RET RET
// Called using C ABI. // Called using C ABI.

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@ -652,8 +652,8 @@ TEXT runtime·cgoSigtramp(SB),NOSPLIT|NOFRAME,$0
BEQ sigtramp BEQ sigtramp
// Inspect the g in TLS without clobbering R30/R31 via runtime.load_g. // Inspect the g in TLS without clobbering R30/R31 via runtime.load_g.
MOVD runtime·tls_g(SB), R9 MOVD runtime·tls_g(SB), R9
MOVD 0(R9), R9 MOVD 0(R9), R9
// Figure out if we are currently in a cgo call. // Figure out if we are currently in a cgo call.
// If not, just do usual sigtramp. // If not, just do usual sigtramp.

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@ -324,7 +324,7 @@ TEXT runtime·sigtramp(SB),NOSPLIT|TOPFRAME|NOFRAME,$0
ADJSP $-24 ADJSP $-24
POP_REGS_HOST_TO_ABI0() POP_REGS_HOST_TO_ABI0()
RET RET
TEXT runtime·mmap(SB),NOSPLIT,$0 TEXT runtime·mmap(SB),NOSPLIT,$0

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@ -112,7 +112,7 @@ TEXT runtime·lastcontinuetramp(SB),NOSPLIT,$0-0
JMP sigtramp<>(SB) JMP sigtramp<>(SB)
TEXT runtime·callbackasm1(SB),NOSPLIT,$0 TEXT runtime·callbackasm1(SB),NOSPLIT,$0
MOVL 0(SP), AX // will use to find our callback context MOVL 0(SP), AX // will use to find our callback context
// remove return address from stack, we are not returning to callbackasm, but to its caller. // remove return address from stack, we are not returning to callbackasm, but to its caller.
ADDL $4, SP ADDL $4, SP

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@ -151,15 +151,15 @@ TEXT runtime·callbackasm1(SB),NOSPLIT|NOFRAME,$0
// In any case, even if function has 0,1,2,3,4 args, there is reserved // In any case, even if function has 0,1,2,3,4 args, there is reserved
// but uninitialized "shadow space" for the first 4 args. // but uninitialized "shadow space" for the first 4 args.
// The values are in registers. // The values are in registers.
MOVQ CX, (16+0)(SP) MOVQ CX, (16+0)(SP)
MOVQ DX, (16+8)(SP) MOVQ DX, (16+8)(SP)
MOVQ R8, (16+16)(SP) MOVQ R8, (16+16)(SP)
MOVQ R9, (16+24)(SP) MOVQ R9, (16+24)(SP)
// R8 = address of args vector // R8 = address of args vector
LEAQ (16+0)(SP), R8 LEAQ (16+0)(SP), R8
// remove return address from stack, we are not returning to callbackasm, but to its caller. // remove return address from stack, we are not returning to callbackasm, but to its caller.
MOVQ 0(SP), AX MOVQ 0(SP), AX
ADDQ $8, SP ADDQ $8, SP
// determine index into runtime·cbs table // determine index into runtime·cbs table