binutils-gdb/opcodes/aarch64-tbl.h

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/* aarch64-tbl.h -- AArch64 opcode description table and instruction
operand description table.
Copyright (C) 2012-2017 Free Software Foundation, Inc.
This file is part of the GNU opcodes library.
This library is free software; you can redistribute it and/or modify
it under the terms of the GNU General Public License as published by
the Free Software Foundation; either version 3, or (at your option)
any later version.
It is distributed in the hope that it will be useful, but WITHOUT
ANY WARRANTY; without even the implied warranty of MERCHANTABILITY
or FITNESS FOR A PARTICULAR PURPOSE. See the GNU General Public
License for more details.
You should have received a copy of the GNU General Public License
along with this file; see the file COPYING. If not, write to the
Free Software Foundation, 51 Franklin Street - Fifth Floor, Boston,
MA 02110-1301, USA. */
#include "aarch64-opc.h"
#ifndef VERIFIER
#error VERIFIER must be defined.
#endif
/* Operand type. */
#define OPND(x) AARCH64_OPND_##x
#define OP0() {}
#define OP1(a) {OPND(a)}
#define OP2(a,b) {OPND(a), OPND(b)}
#define OP3(a,b,c) {OPND(a), OPND(b), OPND(c)}
#define OP4(a,b,c,d) {OPND(a), OPND(b), OPND(c), OPND(d)}
#define OP5(a,b,c,d,e) {OPND(a), OPND(b), OPND(c), OPND(d), OPND(e)}
#define QLF(x) AARCH64_OPND_QLF_##x
#define QLF1(a) {QLF(a)}
#define QLF2(a,b) {QLF(a), QLF(b)}
#define QLF3(a,b,c) {QLF(a), QLF(b), QLF(c)}
#define QLF4(a,b,c,d) {QLF(a), QLF(b), QLF(c), QLF(d)}
#define QLF5(a,b,c,d,e) {QLF(a), QLF(b), QLF(c), QLF(d), QLF(e)}
/* Qualifiers list. */
/* e.g. MSR <systemreg>, <Xt>. */
#define QL_SRC_X \
{ \
QLF2(NIL,X), \
}
/* e.g. MRS <Xt>, <systemreg>. */
#define QL_DST_X \
{ \
QLF2(X,NIL), \
}
/* e.g. SYS #<op1>, <Cn>, <Cm>, #<op2>{, <Xt>}. */
#define QL_SYS \
{ \
QLF5(NIL,CR,CR,NIL,X), \
}
/* e.g. SYSL <Xt>, #<op1>, <Cn>, <Cm>, #<op2>. */
#define QL_SYSL \
{ \
QLF5(X,NIL,CR,CR,NIL), \
}
/* e.g. ADRP <Xd>, <label>. */
#define QL_ADRP \
{ \
QLF2(X,NIL), \
}
/* e.g. B.<cond> <label>. */
#define QL_PCREL_NIL \
{ \
QLF1(NIL), \
}
/* e.g. TBZ <Xt>, #<imm>, <label>. */
#define QL_PCREL_14 \
{ \
QLF3(X,imm_0_63,NIL), \
}
/* e.g. BL <label>. */
#define QL_PCREL_26 \
{ \
QLF1(NIL), \
}
/* e.g. LDRSW <Xt>, <label>. */
#define QL_X_PCREL \
{ \
QLF2(X,NIL), \
}
/* e.g. LDR <Wt>, <label>. */
#define QL_R_PCREL \
{ \
QLF2(W,NIL), \
QLF2(X,NIL), \
}
/* e.g. LDR <Dt>, <label>. */
#define QL_FP_PCREL \
{ \
QLF2(S_S,NIL), \
QLF2(S_D,NIL), \
QLF2(S_Q,NIL), \
}
/* e.g. PRFM <prfop>, <label>. */
#define QL_PRFM_PCREL \
{ \
QLF2(NIL,NIL), \
}
/* e.g. BR <Xn>. */
#define QL_I1X \
{ \
QLF1(X), \
}
/* e.g. RBIT <Wd>, <Wn>. */
#define QL_I2SAME \
{ \
QLF2(W,W), \
QLF2(X,X), \
}
/* e.g. CMN <Wn|WSP>, <Wm>{, <extend> {#<amount>}}. */
#define QL_I2_EXT \
{ \
QLF2(W,W), \
QLF2(X,W), \
QLF2(X,X), \
}
/* e.g. MOV <Wd|WSP>, <Wn|WSP>, at least one SP. */
#define QL_I2SP \
{ \
QLF2(WSP,W), \
QLF2(W,WSP), \
QLF2(SP,X), \
QLF2(X,SP), \
}
/* e.g. REV <Wd>, <Wn>. */
#define QL_I2SAMEW \
{ \
QLF2(W,W), \
}
/* e.g. REV32 <Xd>, <Xn>. */
#define QL_I2SAMEX \
{ \
QLF2(X,X), \
}
#define QL_I2SAMER \
{ \
QLF2(W,W), \
QLF2(X,X), \
}
/* e.g. CRC32B <Wd>, <Wn>, <Wm>. */
#define QL_I3SAMEW \
{ \
QLF3(W,W,W), \
}
/* e.g. SMULH <Xd>, <Xn>, <Xm>. */
#define QL_I3SAMEX \
{ \
QLF3(X,X,X), \
}
/* e.g. CRC32X <Wd>, <Wn>, <Xm>. */
#define QL_I3WWX \
{ \
QLF3(W,W,X), \
}
/* e.g. UDIV <Xd>, <Xn>, <Xm>. */
#define QL_I3SAMER \
{ \
QLF3(W,W,W), \
QLF3(X,X,X), \
}
/* e.g. ADDS <Xd>, <Xn|SP>, <R><m>{, <extend> {#<amount>}}. */
#define QL_I3_EXT \
{ \
QLF3(W,W,W), \
QLF3(X,X,W), \
QLF3(X,X,X), \
}
/* e.g. MADD <Xd>, <Xn>, <Xm>, <Xa>. */
#define QL_I4SAMER \
{ \
QLF4(W,W,W,W), \
QLF4(X,X,X,X), \
}
/* e.g. SMADDL <Xd>, <Wn>, <Wm>, <Xa>. */
#define QL_I3SAMEL \
{ \
QLF3(X,W,W), \
}
/* e.g. SMADDL <Xd>, <Wn>, <Wm>, <Xa>. */
#define QL_I4SAMEL \
{ \
QLF4(X,W,W,X), \
}
/* e.g. CSINC <Xd>, <Xn>, <Xm>, <cond>. */
#define QL_CSEL \
{ \
QLF4(W, W, W, NIL), \
QLF4(X, X, X, NIL), \
}
/* e.g. CSET <Wd>, <cond>. */
#define QL_DST_R \
{ \
QLF2(W, NIL), \
QLF2(X, NIL), \
}
/* e.g. BFM <Wd>, <Wn>, #<immr>, #<imms>. */
#define QL_BF \
{ \
QLF4(W,W,imm_0_31,imm_0_31), \
QLF4(X,X,imm_0_63,imm_0_63), \
}
/* e.g. BFC <Wd>, #<immr>, #<imms>. */
#define QL_BF1 \
{ \
QLF3 (W, imm_0_31, imm_1_32), \
QLF3 (X, imm_0_63, imm_1_64), \
}
/* e.g. UBFIZ <Wd>, <Wn>, #<lsb>, #<width>. */
#define QL_BF2 \
{ \
QLF4(W,W,imm_0_31,imm_1_32), \
QLF4(X,X,imm_0_63,imm_1_64), \
}
/* e.g. SCVTF <Sd>, <Xn>, #<fbits>. */
#define QL_FIX2FP \
{ \
QLF3(S_D,W,imm_1_32), \
QLF3(S_S,W,imm_1_32), \
QLF3(S_D,X,imm_1_64), \
QLF3(S_S,X,imm_1_64), \
}
[AArch64][PATCH 3/3] Add floating-point FP16 instructions ARMv8.2 adds 16-bit floating point operations as an optional extension to the ARMv8 FP support. This patch adds the new FP16 instructions, making them available when the architecture extension +fp+fp16 is specified. The instructions added are: - Comparisons and conditionals: FCMP, FCCMPE, FCMP, FCMPE and FCSEL. - Arithmetic: FABS, FNEG, FSQRT, FMUL, FDIV, FADD, FSUB, FMADD, FMSUB, FNMADD and FNMSUB. - Rounding: FRINTN, FRINTP, FRINTM, FRINTZ, FRINTA, FRINTX and FRINTI. - Conversions: SCVTF (fixed-point), SCVTF (integer), UCVTF (fixed-point) UCVTF (integer), FCVTZS (fixed-point), FCVTZS (integer), FCVTZU (fixed-point), FCVTZU (integer), FCVTNS, FCVTNU, FCVTAS, FCVTAU, FCVTPS, FCVTPU, FCVTMS and FCVTMU. - Scalar FMOV: immediate, general and register gas/testsuite/ 2015-11-27 Matthew Wahab <matthew.wahab@arm.com> * gas/aarch64/float-fp16.d: New. * gas/aarch64/float-fp16.s: New. opcodes/ 2015-11-27 Matthew Wahab <matthew.wahab@arm.com> * aarch64-asm-2.c: Regenerate. * aarch64-dis-2.c: Regenerate. * aarch64-opc-2.c: Regenerate. * aarch64-tbl.h (QL_FIX2FP_H, QL_FP2FIX_H): New. (QL_INT2FP_H, QL_FP2INT_H): New. (QL_FP2_H, QL_FP3_H, QL_FP4_H): New (QL_DST_H): New. (QL_FCCMP_H): New. (aarch64_opcode_table): Add 16-bit variants of scvt, ucvtf, fcvtzs, fcvtzu, fcvtns, fcvtnu, scvtf, ucvtf, fcvtas, fcvtau, fmov, fcvtpos, fcvtpu, fcvtms, fcvtmu, fcvtzs, fcvtzu, fccmp, fccmpe, fcmp, fcmpe, fabs, fneg, fsqrt, frintn, frintp, frintm, frintz, frinta, frintx, frinti, fmul, fdiv, fadd, fsub, fmax, fmin, fmaxnm, fminnm, fnmul, fmadd, fmsub, fnmadd, fnmsub and fcsel. Change-Id: Ie6d40bd1b215a9bc024e12ba75e52afbe1675eb7
2015-11-27 17:32:21 +01:00
/* e.g. SCVTF <Hd>, <Xn>, #<fbits>. */
#define QL_FIX2FP_H \
{ \
QLF3 (S_H, W, imm_1_32), \
QLF3 (S_H, X, imm_1_64), \
}
/* e.g. FCVTZS <Wd>, <Dn>, #<fbits>. */
#define QL_FP2FIX \
{ \
QLF3(W,S_D,imm_1_32), \
QLF3(W,S_S,imm_1_32), \
QLF3(X,S_D,imm_1_64), \
QLF3(X,S_S,imm_1_64), \
}
[AArch64][PATCH 3/3] Add floating-point FP16 instructions ARMv8.2 adds 16-bit floating point operations as an optional extension to the ARMv8 FP support. This patch adds the new FP16 instructions, making them available when the architecture extension +fp+fp16 is specified. The instructions added are: - Comparisons and conditionals: FCMP, FCCMPE, FCMP, FCMPE and FCSEL. - Arithmetic: FABS, FNEG, FSQRT, FMUL, FDIV, FADD, FSUB, FMADD, FMSUB, FNMADD and FNMSUB. - Rounding: FRINTN, FRINTP, FRINTM, FRINTZ, FRINTA, FRINTX and FRINTI. - Conversions: SCVTF (fixed-point), SCVTF (integer), UCVTF (fixed-point) UCVTF (integer), FCVTZS (fixed-point), FCVTZS (integer), FCVTZU (fixed-point), FCVTZU (integer), FCVTNS, FCVTNU, FCVTAS, FCVTAU, FCVTPS, FCVTPU, FCVTMS and FCVTMU. - Scalar FMOV: immediate, general and register gas/testsuite/ 2015-11-27 Matthew Wahab <matthew.wahab@arm.com> * gas/aarch64/float-fp16.d: New. * gas/aarch64/float-fp16.s: New. opcodes/ 2015-11-27 Matthew Wahab <matthew.wahab@arm.com> * aarch64-asm-2.c: Regenerate. * aarch64-dis-2.c: Regenerate. * aarch64-opc-2.c: Regenerate. * aarch64-tbl.h (QL_FIX2FP_H, QL_FP2FIX_H): New. (QL_INT2FP_H, QL_FP2INT_H): New. (QL_FP2_H, QL_FP3_H, QL_FP4_H): New (QL_DST_H): New. (QL_FCCMP_H): New. (aarch64_opcode_table): Add 16-bit variants of scvt, ucvtf, fcvtzs, fcvtzu, fcvtns, fcvtnu, scvtf, ucvtf, fcvtas, fcvtau, fmov, fcvtpos, fcvtpu, fcvtms, fcvtmu, fcvtzs, fcvtzu, fccmp, fccmpe, fcmp, fcmpe, fabs, fneg, fsqrt, frintn, frintp, frintm, frintz, frinta, frintx, frinti, fmul, fdiv, fadd, fsub, fmax, fmin, fmaxnm, fminnm, fnmul, fmadd, fmsub, fnmadd, fnmsub and fcsel. Change-Id: Ie6d40bd1b215a9bc024e12ba75e52afbe1675eb7
2015-11-27 17:32:21 +01:00
/* e.g. FCVTZS <Wd>, <Hn>, #<fbits>. */
#define QL_FP2FIX_H \
{ \
QLF3 (W, S_H, imm_1_32), \
QLF3 (X, S_H, imm_1_64), \
}
/* e.g. SCVTF <Dd>, <Wn>. */
#define QL_INT2FP \
{ \
QLF2(S_D,W), \
QLF2(S_S,W), \
QLF2(S_D,X), \
QLF2(S_S,X), \
}
[AArch64][PATCH 3/3] Add floating-point FP16 instructions ARMv8.2 adds 16-bit floating point operations as an optional extension to the ARMv8 FP support. This patch adds the new FP16 instructions, making them available when the architecture extension +fp+fp16 is specified. The instructions added are: - Comparisons and conditionals: FCMP, FCCMPE, FCMP, FCMPE and FCSEL. - Arithmetic: FABS, FNEG, FSQRT, FMUL, FDIV, FADD, FSUB, FMADD, FMSUB, FNMADD and FNMSUB. - Rounding: FRINTN, FRINTP, FRINTM, FRINTZ, FRINTA, FRINTX and FRINTI. - Conversions: SCVTF (fixed-point), SCVTF (integer), UCVTF (fixed-point) UCVTF (integer), FCVTZS (fixed-point), FCVTZS (integer), FCVTZU (fixed-point), FCVTZU (integer), FCVTNS, FCVTNU, FCVTAS, FCVTAU, FCVTPS, FCVTPU, FCVTMS and FCVTMU. - Scalar FMOV: immediate, general and register gas/testsuite/ 2015-11-27 Matthew Wahab <matthew.wahab@arm.com> * gas/aarch64/float-fp16.d: New. * gas/aarch64/float-fp16.s: New. opcodes/ 2015-11-27 Matthew Wahab <matthew.wahab@arm.com> * aarch64-asm-2.c: Regenerate. * aarch64-dis-2.c: Regenerate. * aarch64-opc-2.c: Regenerate. * aarch64-tbl.h (QL_FIX2FP_H, QL_FP2FIX_H): New. (QL_INT2FP_H, QL_FP2INT_H): New. (QL_FP2_H, QL_FP3_H, QL_FP4_H): New (QL_DST_H): New. (QL_FCCMP_H): New. (aarch64_opcode_table): Add 16-bit variants of scvt, ucvtf, fcvtzs, fcvtzu, fcvtns, fcvtnu, scvtf, ucvtf, fcvtas, fcvtau, fmov, fcvtpos, fcvtpu, fcvtms, fcvtmu, fcvtzs, fcvtzu, fccmp, fccmpe, fcmp, fcmpe, fabs, fneg, fsqrt, frintn, frintp, frintm, frintz, frinta, frintx, frinti, fmul, fdiv, fadd, fsub, fmax, fmin, fmaxnm, fminnm, fnmul, fmadd, fmsub, fnmadd, fnmsub and fcsel. Change-Id: Ie6d40bd1b215a9bc024e12ba75e52afbe1675eb7
2015-11-27 17:32:21 +01:00
/* e.g. SCVTF <Hd>, <Wn>. */
#define QL_INT2FP_H \
{ \
QLF2 (S_H, W), \
QLF2 (S_H, X), \
}
/* e.g. FCVTNS <Xd>, <Dn>. */
#define QL_FP2INT \
{ \
QLF2(W,S_D), \
QLF2(W,S_S), \
QLF2(X,S_D), \
QLF2(X,S_S), \
}
[AArch64][PATCH 3/3] Add floating-point FP16 instructions ARMv8.2 adds 16-bit floating point operations as an optional extension to the ARMv8 FP support. This patch adds the new FP16 instructions, making them available when the architecture extension +fp+fp16 is specified. The instructions added are: - Comparisons and conditionals: FCMP, FCCMPE, FCMP, FCMPE and FCSEL. - Arithmetic: FABS, FNEG, FSQRT, FMUL, FDIV, FADD, FSUB, FMADD, FMSUB, FNMADD and FNMSUB. - Rounding: FRINTN, FRINTP, FRINTM, FRINTZ, FRINTA, FRINTX and FRINTI. - Conversions: SCVTF (fixed-point), SCVTF (integer), UCVTF (fixed-point) UCVTF (integer), FCVTZS (fixed-point), FCVTZS (integer), FCVTZU (fixed-point), FCVTZU (integer), FCVTNS, FCVTNU, FCVTAS, FCVTAU, FCVTPS, FCVTPU, FCVTMS and FCVTMU. - Scalar FMOV: immediate, general and register gas/testsuite/ 2015-11-27 Matthew Wahab <matthew.wahab@arm.com> * gas/aarch64/float-fp16.d: New. * gas/aarch64/float-fp16.s: New. opcodes/ 2015-11-27 Matthew Wahab <matthew.wahab@arm.com> * aarch64-asm-2.c: Regenerate. * aarch64-dis-2.c: Regenerate. * aarch64-opc-2.c: Regenerate. * aarch64-tbl.h (QL_FIX2FP_H, QL_FP2FIX_H): New. (QL_INT2FP_H, QL_FP2INT_H): New. (QL_FP2_H, QL_FP3_H, QL_FP4_H): New (QL_DST_H): New. (QL_FCCMP_H): New. (aarch64_opcode_table): Add 16-bit variants of scvt, ucvtf, fcvtzs, fcvtzu, fcvtns, fcvtnu, scvtf, ucvtf, fcvtas, fcvtau, fmov, fcvtpos, fcvtpu, fcvtms, fcvtmu, fcvtzs, fcvtzu, fccmp, fccmpe, fcmp, fcmpe, fabs, fneg, fsqrt, frintn, frintp, frintm, frintz, frinta, frintx, frinti, fmul, fdiv, fadd, fsub, fmax, fmin, fmaxnm, fminnm, fnmul, fmadd, fmsub, fnmadd, fnmsub and fcsel. Change-Id: Ie6d40bd1b215a9bc024e12ba75e52afbe1675eb7
2015-11-27 17:32:21 +01:00
/* e.g. FCVTNS <Hd>, <Wn>. */
#define QL_FP2INT_H \
{ \
QLF2 (W, S_H), \
QLF2 (X, S_H), \
}
/* e.g. FJCVTZS <Wd>, <Dn>. */
#define QL_FP2INT_W_D \
{ \
QLF2 (W, S_D), \
}
/* e.g. FMOV <Xd>, <Vn>.D[1]. */
#define QL_XVD1 \
{ \
QLF2(X,S_D), \
}
/* e.g. FMOV <Vd>.D[1], <Xn>. */
#define QL_VD1X \
{ \
QLF2(S_D,X), \
}
/* e.g. EXTR <Xd>, <Xn>, <Xm>, #<lsb>. */
#define QL_EXTR \
{ \
QLF4(W,W,W,imm_0_31), \
QLF4(X,X,X,imm_0_63), \
}
/* e.g. LSL <Wd>, <Wn>, #<uimm>. */
#define QL_SHIFT \
{ \
QLF3(W,W,imm_0_31), \
QLF3(X,X,imm_0_63), \
}
/* e.g. UXTH <Xd>, <Wn>. */
#define QL_EXT \
{ \
QLF2(W,W), \
QLF2(X,W), \
}
/* e.g. UXTW <Xd>, <Wn>. */
#define QL_EXT_W \
{ \
QLF2(X,W), \
}
/* e.g. SQSHL <V><d>, <V><n>, #<shift>. */
#define QL_SSHIFT \
{ \
QLF3(S_B , S_B , S_B ), \
QLF3(S_H , S_H , S_H ), \
QLF3(S_S , S_S , S_S ), \
QLF3(S_D , S_D , S_D ) \
}
/* e.g. SSHR <V><d>, <V><n>, #<shift>. */
#define QL_SSHIFT_D \
{ \
QLF3(S_D , S_D , S_D ) \
}
/* e.g. UCVTF <Vd>.<T>, <Vn>.<T>, #<fbits>. */
#define QL_SSHIFT_SD \
{ \
QLF3(S_S , S_S , S_S ), \
QLF3(S_D , S_D , S_D ) \
}
/* e.g. UCVTF <Vd>.<T>, <Vn>.<T>, #<fbits>. */
#define QL_SSHIFT_H \
{ \
QLF3 (S_H, S_H, S_H) \
}
/* e.g. SQSHRUN <Vb><d>, <Va><n>, #<shift>. */
#define QL_SSHIFTN \
{ \
QLF3(S_B , S_H , S_B ), \
QLF3(S_H , S_S , S_H ), \
QLF3(S_S , S_D , S_S ), \
}
/* e.g. SSHR <Vd>.<T>, <Vn>.<T>, #<shift>.
The register operand variant qualifiers are deliberately used for the
immediate operand to ease the operand encoding/decoding and qualifier
sequence matching. */
#define QL_VSHIFT \
{ \
QLF3(V_8B , V_8B , V_8B ), \
QLF3(V_16B, V_16B, V_16B), \
QLF3(V_4H , V_4H , V_4H ), \
QLF3(V_8H , V_8H , V_8H ), \
QLF3(V_2S , V_2S , V_2S ), \
QLF3(V_4S , V_4S , V_4S ), \
QLF3(V_2D , V_2D , V_2D ) \
}
/* e.g. SCVTF <Vd>.<T>, <Vn>.<T>, #<fbits>. */
#define QL_VSHIFT_SD \
{ \
QLF3(V_2S , V_2S , V_2S ), \
QLF3(V_4S , V_4S , V_4S ), \
QLF3(V_2D , V_2D , V_2D ) \
}
/* e.g. SCVTF <Vd>.<T>, <Vn>.<T>, #<fbits>. */
#define QL_VSHIFT_H \
{ \
QLF3 (V_4H, V_4H, V_4H), \
QLF3 (V_8H, V_8H, V_8H) \
}
/* e.g. SHRN<Q> <Vd>.<Tb>, <Vn>.<Ta>, #<shift>. */
#define QL_VSHIFTN \
{ \
QLF3(V_8B , V_8H , V_8B ), \
QLF3(V_4H , V_4S , V_4H ), \
QLF3(V_2S , V_2D , V_2S ), \
}
/* e.g. SHRN<Q> <Vd>.<Tb>, <Vn>.<Ta>, #<shift>. */
#define QL_VSHIFTN2 \
{ \
QLF3(V_16B, V_8H, V_16B), \
QLF3(V_8H , V_4S , V_8H ), \
QLF3(V_4S , V_2D , V_4S ), \
}
/* e.g. SSHLL<Q> <Vd>.<Ta>, <Vn>.<Tb>, #<shift>.
the 3rd qualifier is used to help the encoding. */
#define QL_VSHIFTL \
{ \
QLF3(V_8H , V_8B , V_8B ), \
QLF3(V_4S , V_4H , V_4H ), \
QLF3(V_2D , V_2S , V_2S ), \
}
/* e.g. SSHLL<Q> <Vd>.<Ta>, <Vn>.<Tb>, #<shift>. */
#define QL_VSHIFTL2 \
{ \
QLF3(V_8H , V_16B, V_16B), \
QLF3(V_4S , V_8H , V_8H ), \
QLF3(V_2D , V_4S , V_4S ), \
}
/* e.g. TBL. */
#define QL_TABLE \
{ \
QLF3(V_8B , V_16B, V_8B ), \
QLF3(V_16B, V_16B, V_16B), \
}
/* e.g. SHA1H. */
#define QL_2SAMES \
{ \
QLF2(S_S, S_S), \
}
/* e.g. ABS <V><d>, <V><n>. */
#define QL_2SAMED \
{ \
QLF2(S_D, S_D), \
}
/* e.g. CMGT <V><d>, <V><n>, #0. */
#define QL_SISD_CMP_0 \
{ \
QLF3(S_D, S_D, NIL), \
}
/* e.g. FCMEQ <V><d>, <V><n>, #0. */
#define QL_SISD_FCMP_0 \
{ \
QLF3(S_S, S_S, NIL), \
QLF3(S_D, S_D, NIL), \
}
/* e.g. FCMEQ <V><d>, <V><n>, #0. */
#define QL_SISD_FCMP_H_0 \
{ \
QLF3 (S_H, S_H, NIL), \
}
/* e.g. FMAXNMP <V><d>, <Vn>.<T>. */
#define QL_SISD_PAIR \
{ \
QLF2(S_S, V_2S), \
QLF2(S_D, V_2D), \
}
/* e.g. FMAXNMP <V><d>, <Vn>.<T>. */
#define QL_SISD_PAIR_H \
{ \
QLF2 (S_H, V_2H), \
}
/* e.g. ADDP <V><d>, <Vn>.<T>. */
#define QL_SISD_PAIR_D \
{ \
QLF2(S_D, V_2D), \
}
/* e.g. DUP <V><d>, <Vn>.<T>[<index>]. */
#define QL_S_2SAME \
{ \
QLF2(S_B, S_B), \
QLF2(S_H, S_H), \
QLF2(S_S, S_S), \
QLF2(S_D, S_D), \
}
/* e.g. FCVTNS <V><d>, <V><n>. */
#define QL_S_2SAMESD \
{ \
QLF2(S_S, S_S), \
QLF2(S_D, S_D), \
}
/* e.g. FCVTNS <V><d>, <V><n>. */
#define QL_S_2SAMEH \
{ \
QLF2 (S_H, S_H), \
}
/* e.g. SQXTN <Vb><d>, <Va><n>. */
#define QL_SISD_NARROW \
{ \
QLF2(S_B, S_H), \
QLF2(S_H, S_S), \
QLF2(S_S, S_D), \
}
/* e.g. FCVTXN <Vb><d>, <Va><n>. */
#define QL_SISD_NARROW_S \
{ \
QLF2(S_S, S_D), \
}
/* e.g. FCVT. */
#define QL_FCVT \
{ \
QLF2(S_S, S_H), \
QLF2(S_S, S_D), \
QLF2(S_D, S_H), \
QLF2(S_D, S_S), \
QLF2(S_H, S_S), \
QLF2(S_H, S_D), \
}
/* FMOV <Dd>, <Dn>. */
#define QL_FP2 \
{ \
QLF2(S_S, S_S), \
QLF2(S_D, S_D), \
}
[AArch64][PATCH 3/3] Add floating-point FP16 instructions ARMv8.2 adds 16-bit floating point operations as an optional extension to the ARMv8 FP support. This patch adds the new FP16 instructions, making them available when the architecture extension +fp+fp16 is specified. The instructions added are: - Comparisons and conditionals: FCMP, FCCMPE, FCMP, FCMPE and FCSEL. - Arithmetic: FABS, FNEG, FSQRT, FMUL, FDIV, FADD, FSUB, FMADD, FMSUB, FNMADD and FNMSUB. - Rounding: FRINTN, FRINTP, FRINTM, FRINTZ, FRINTA, FRINTX and FRINTI. - Conversions: SCVTF (fixed-point), SCVTF (integer), UCVTF (fixed-point) UCVTF (integer), FCVTZS (fixed-point), FCVTZS (integer), FCVTZU (fixed-point), FCVTZU (integer), FCVTNS, FCVTNU, FCVTAS, FCVTAU, FCVTPS, FCVTPU, FCVTMS and FCVTMU. - Scalar FMOV: immediate, general and register gas/testsuite/ 2015-11-27 Matthew Wahab <matthew.wahab@arm.com> * gas/aarch64/float-fp16.d: New. * gas/aarch64/float-fp16.s: New. opcodes/ 2015-11-27 Matthew Wahab <matthew.wahab@arm.com> * aarch64-asm-2.c: Regenerate. * aarch64-dis-2.c: Regenerate. * aarch64-opc-2.c: Regenerate. * aarch64-tbl.h (QL_FIX2FP_H, QL_FP2FIX_H): New. (QL_INT2FP_H, QL_FP2INT_H): New. (QL_FP2_H, QL_FP3_H, QL_FP4_H): New (QL_DST_H): New. (QL_FCCMP_H): New. (aarch64_opcode_table): Add 16-bit variants of scvt, ucvtf, fcvtzs, fcvtzu, fcvtns, fcvtnu, scvtf, ucvtf, fcvtas, fcvtau, fmov, fcvtpos, fcvtpu, fcvtms, fcvtmu, fcvtzs, fcvtzu, fccmp, fccmpe, fcmp, fcmpe, fabs, fneg, fsqrt, frintn, frintp, frintm, frintz, frinta, frintx, frinti, fmul, fdiv, fadd, fsub, fmax, fmin, fmaxnm, fminnm, fnmul, fmadd, fmsub, fnmadd, fnmsub and fcsel. Change-Id: Ie6d40bd1b215a9bc024e12ba75e52afbe1675eb7
2015-11-27 17:32:21 +01:00
/* FMOV <Hd>, <Hn>. */
#define QL_FP2_H \
{ \
QLF2 (S_H, S_H), \
}
/* e.g. SQADD <V><d>, <V><n>, <V><m>. */
#define QL_S_3SAME \
{ \
QLF3(S_B, S_B, S_B), \
QLF3(S_H, S_H, S_H), \
QLF3(S_S, S_S, S_S), \
QLF3(S_D, S_D, S_D), \
}
/* e.g. CMGE <V><d>, <V><n>, <V><m>. */
#define QL_S_3SAMED \
{ \
QLF3(S_D, S_D, S_D), \
}
/* e.g. SQDMULH <V><d>, <V><n>, <V><m>. */
#define QL_SISD_HS \
{ \
QLF3(S_H, S_H, S_H), \
QLF3(S_S, S_S, S_S), \
}
/* e.g. SQDMLAL <Va><d>, <Vb><n>, <Vb><m>. */
#define QL_SISDL_HS \
{ \
QLF3(S_S, S_H, S_H), \
QLF3(S_D, S_S, S_S), \
}
/* FMUL <Sd>, <Sn>, <Sm>. */
#define QL_FP3 \
{ \
QLF3(S_S, S_S, S_S), \
QLF3(S_D, S_D, S_D), \
}
[AArch64][PATCH 3/3] Add floating-point FP16 instructions ARMv8.2 adds 16-bit floating point operations as an optional extension to the ARMv8 FP support. This patch adds the new FP16 instructions, making them available when the architecture extension +fp+fp16 is specified. The instructions added are: - Comparisons and conditionals: FCMP, FCCMPE, FCMP, FCMPE and FCSEL. - Arithmetic: FABS, FNEG, FSQRT, FMUL, FDIV, FADD, FSUB, FMADD, FMSUB, FNMADD and FNMSUB. - Rounding: FRINTN, FRINTP, FRINTM, FRINTZ, FRINTA, FRINTX and FRINTI. - Conversions: SCVTF (fixed-point), SCVTF (integer), UCVTF (fixed-point) UCVTF (integer), FCVTZS (fixed-point), FCVTZS (integer), FCVTZU (fixed-point), FCVTZU (integer), FCVTNS, FCVTNU, FCVTAS, FCVTAU, FCVTPS, FCVTPU, FCVTMS and FCVTMU. - Scalar FMOV: immediate, general and register gas/testsuite/ 2015-11-27 Matthew Wahab <matthew.wahab@arm.com> * gas/aarch64/float-fp16.d: New. * gas/aarch64/float-fp16.s: New. opcodes/ 2015-11-27 Matthew Wahab <matthew.wahab@arm.com> * aarch64-asm-2.c: Regenerate. * aarch64-dis-2.c: Regenerate. * aarch64-opc-2.c: Regenerate. * aarch64-tbl.h (QL_FIX2FP_H, QL_FP2FIX_H): New. (QL_INT2FP_H, QL_FP2INT_H): New. (QL_FP2_H, QL_FP3_H, QL_FP4_H): New (QL_DST_H): New. (QL_FCCMP_H): New. (aarch64_opcode_table): Add 16-bit variants of scvt, ucvtf, fcvtzs, fcvtzu, fcvtns, fcvtnu, scvtf, ucvtf, fcvtas, fcvtau, fmov, fcvtpos, fcvtpu, fcvtms, fcvtmu, fcvtzs, fcvtzu, fccmp, fccmpe, fcmp, fcmpe, fabs, fneg, fsqrt, frintn, frintp, frintm, frintz, frinta, frintx, frinti, fmul, fdiv, fadd, fsub, fmax, fmin, fmaxnm, fminnm, fnmul, fmadd, fmsub, fnmadd, fnmsub and fcsel. Change-Id: Ie6d40bd1b215a9bc024e12ba75e52afbe1675eb7
2015-11-27 17:32:21 +01:00
/* FMUL <Hd>, <Hn>, <Hm>. */
#define QL_FP3_H \
{ \
QLF3 (S_H, S_H, S_H), \
}
/* FMADD <Dd>, <Dn>, <Dm>, <Da>. */
#define QL_FP4 \
{ \
QLF4(S_S, S_S, S_S, S_S), \
QLF4(S_D, S_D, S_D, S_D), \
}
[AArch64][PATCH 3/3] Add floating-point FP16 instructions ARMv8.2 adds 16-bit floating point operations as an optional extension to the ARMv8 FP support. This patch adds the new FP16 instructions, making them available when the architecture extension +fp+fp16 is specified. The instructions added are: - Comparisons and conditionals: FCMP, FCCMPE, FCMP, FCMPE and FCSEL. - Arithmetic: FABS, FNEG, FSQRT, FMUL, FDIV, FADD, FSUB, FMADD, FMSUB, FNMADD and FNMSUB. - Rounding: FRINTN, FRINTP, FRINTM, FRINTZ, FRINTA, FRINTX and FRINTI. - Conversions: SCVTF (fixed-point), SCVTF (integer), UCVTF (fixed-point) UCVTF (integer), FCVTZS (fixed-point), FCVTZS (integer), FCVTZU (fixed-point), FCVTZU (integer), FCVTNS, FCVTNU, FCVTAS, FCVTAU, FCVTPS, FCVTPU, FCVTMS and FCVTMU. - Scalar FMOV: immediate, general and register gas/testsuite/ 2015-11-27 Matthew Wahab <matthew.wahab@arm.com> * gas/aarch64/float-fp16.d: New. * gas/aarch64/float-fp16.s: New. opcodes/ 2015-11-27 Matthew Wahab <matthew.wahab@arm.com> * aarch64-asm-2.c: Regenerate. * aarch64-dis-2.c: Regenerate. * aarch64-opc-2.c: Regenerate. * aarch64-tbl.h (QL_FIX2FP_H, QL_FP2FIX_H): New. (QL_INT2FP_H, QL_FP2INT_H): New. (QL_FP2_H, QL_FP3_H, QL_FP4_H): New (QL_DST_H): New. (QL_FCCMP_H): New. (aarch64_opcode_table): Add 16-bit variants of scvt, ucvtf, fcvtzs, fcvtzu, fcvtns, fcvtnu, scvtf, ucvtf, fcvtas, fcvtau, fmov, fcvtpos, fcvtpu, fcvtms, fcvtmu, fcvtzs, fcvtzu, fccmp, fccmpe, fcmp, fcmpe, fabs, fneg, fsqrt, frintn, frintp, frintm, frintz, frinta, frintx, frinti, fmul, fdiv, fadd, fsub, fmax, fmin, fmaxnm, fminnm, fnmul, fmadd, fmsub, fnmadd, fnmsub and fcsel. Change-Id: Ie6d40bd1b215a9bc024e12ba75e52afbe1675eb7
2015-11-27 17:32:21 +01:00
/* FMADD <Hd>, <Hn>, <Hm>, <Ha>. */
#define QL_FP4_H \
{ \
QLF4 (S_H, S_H, S_H, S_H), \
}
/* e.g. FCMP <Dn>, #0.0. */
#define QL_DST_SD \
{ \
QLF2(S_S, NIL), \
QLF2(S_D, NIL), \
}
[AArch64][PATCH 3/3] Add floating-point FP16 instructions ARMv8.2 adds 16-bit floating point operations as an optional extension to the ARMv8 FP support. This patch adds the new FP16 instructions, making them available when the architecture extension +fp+fp16 is specified. The instructions added are: - Comparisons and conditionals: FCMP, FCCMPE, FCMP, FCMPE and FCSEL. - Arithmetic: FABS, FNEG, FSQRT, FMUL, FDIV, FADD, FSUB, FMADD, FMSUB, FNMADD and FNMSUB. - Rounding: FRINTN, FRINTP, FRINTM, FRINTZ, FRINTA, FRINTX and FRINTI. - Conversions: SCVTF (fixed-point), SCVTF (integer), UCVTF (fixed-point) UCVTF (integer), FCVTZS (fixed-point), FCVTZS (integer), FCVTZU (fixed-point), FCVTZU (integer), FCVTNS, FCVTNU, FCVTAS, FCVTAU, FCVTPS, FCVTPU, FCVTMS and FCVTMU. - Scalar FMOV: immediate, general and register gas/testsuite/ 2015-11-27 Matthew Wahab <matthew.wahab@arm.com> * gas/aarch64/float-fp16.d: New. * gas/aarch64/float-fp16.s: New. opcodes/ 2015-11-27 Matthew Wahab <matthew.wahab@arm.com> * aarch64-asm-2.c: Regenerate. * aarch64-dis-2.c: Regenerate. * aarch64-opc-2.c: Regenerate. * aarch64-tbl.h (QL_FIX2FP_H, QL_FP2FIX_H): New. (QL_INT2FP_H, QL_FP2INT_H): New. (QL_FP2_H, QL_FP3_H, QL_FP4_H): New (QL_DST_H): New. (QL_FCCMP_H): New. (aarch64_opcode_table): Add 16-bit variants of scvt, ucvtf, fcvtzs, fcvtzu, fcvtns, fcvtnu, scvtf, ucvtf, fcvtas, fcvtau, fmov, fcvtpos, fcvtpu, fcvtms, fcvtmu, fcvtzs, fcvtzu, fccmp, fccmpe, fcmp, fcmpe, fabs, fneg, fsqrt, frintn, frintp, frintm, frintz, frinta, frintx, frinti, fmul, fdiv, fadd, fsub, fmax, fmin, fmaxnm, fminnm, fnmul, fmadd, fmsub, fnmadd, fnmsub and fcsel. Change-Id: Ie6d40bd1b215a9bc024e12ba75e52afbe1675eb7
2015-11-27 17:32:21 +01:00
/* e.g. FCMP <Hn>, #0.0. */
#define QL_DST_H \
{ \
QLF2 (S_H, NIL), \
}
/* FCSEL <Sd>, <Sn>, <Sm>, <cond>. */
#define QL_FP_COND \
{ \
QLF4(S_S, S_S, S_S, NIL), \
QLF4(S_D, S_D, S_D, NIL), \
}
[AArch64][PATCH 3/3] Add floating-point FP16 instructions ARMv8.2 adds 16-bit floating point operations as an optional extension to the ARMv8 FP support. This patch adds the new FP16 instructions, making them available when the architecture extension +fp+fp16 is specified. The instructions added are: - Comparisons and conditionals: FCMP, FCCMPE, FCMP, FCMPE and FCSEL. - Arithmetic: FABS, FNEG, FSQRT, FMUL, FDIV, FADD, FSUB, FMADD, FMSUB, FNMADD and FNMSUB. - Rounding: FRINTN, FRINTP, FRINTM, FRINTZ, FRINTA, FRINTX and FRINTI. - Conversions: SCVTF (fixed-point), SCVTF (integer), UCVTF (fixed-point) UCVTF (integer), FCVTZS (fixed-point), FCVTZS (integer), FCVTZU (fixed-point), FCVTZU (integer), FCVTNS, FCVTNU, FCVTAS, FCVTAU, FCVTPS, FCVTPU, FCVTMS and FCVTMU. - Scalar FMOV: immediate, general and register gas/testsuite/ 2015-11-27 Matthew Wahab <matthew.wahab@arm.com> * gas/aarch64/float-fp16.d: New. * gas/aarch64/float-fp16.s: New. opcodes/ 2015-11-27 Matthew Wahab <matthew.wahab@arm.com> * aarch64-asm-2.c: Regenerate. * aarch64-dis-2.c: Regenerate. * aarch64-opc-2.c: Regenerate. * aarch64-tbl.h (QL_FIX2FP_H, QL_FP2FIX_H): New. (QL_INT2FP_H, QL_FP2INT_H): New. (QL_FP2_H, QL_FP3_H, QL_FP4_H): New (QL_DST_H): New. (QL_FCCMP_H): New. (aarch64_opcode_table): Add 16-bit variants of scvt, ucvtf, fcvtzs, fcvtzu, fcvtns, fcvtnu, scvtf, ucvtf, fcvtas, fcvtau, fmov, fcvtpos, fcvtpu, fcvtms, fcvtmu, fcvtzs, fcvtzu, fccmp, fccmpe, fcmp, fcmpe, fabs, fneg, fsqrt, frintn, frintp, frintm, frintz, frinta, frintx, frinti, fmul, fdiv, fadd, fsub, fmax, fmin, fmaxnm, fminnm, fnmul, fmadd, fmsub, fnmadd, fnmsub and fcsel. Change-Id: Ie6d40bd1b215a9bc024e12ba75e52afbe1675eb7
2015-11-27 17:32:21 +01:00
/* FCSEL <Hd>, <Hn>, <Hm>, <cond>. */
#define QL_FP_COND_H \
{ \
QLF4 (S_H, S_H, S_H, NIL), \
}
/* e.g. CCMN <Xn>, <Xm>, #<nzcv>, <cond>. */
#define QL_CCMP \
{ \
QLF4(W, W, NIL, NIL), \
QLF4(X, X, NIL, NIL), \
}
/* e.g. CCMN <Xn>, #<imm>, #<nzcv>, <cond>, */
#define QL_CCMP_IMM \
{ \
QLF4(W, NIL, NIL, NIL), \
QLF4(X, NIL, NIL, NIL), \
}
/* e.g. FCCMP <Sn>, <Sm>, #<nzcv>, <cond>. */
#define QL_FCCMP \
{ \
QLF4(S_S, S_S, NIL, NIL), \
QLF4(S_D, S_D, NIL, NIL), \
}
[AArch64][PATCH 3/3] Add floating-point FP16 instructions ARMv8.2 adds 16-bit floating point operations as an optional extension to the ARMv8 FP support. This patch adds the new FP16 instructions, making them available when the architecture extension +fp+fp16 is specified. The instructions added are: - Comparisons and conditionals: FCMP, FCCMPE, FCMP, FCMPE and FCSEL. - Arithmetic: FABS, FNEG, FSQRT, FMUL, FDIV, FADD, FSUB, FMADD, FMSUB, FNMADD and FNMSUB. - Rounding: FRINTN, FRINTP, FRINTM, FRINTZ, FRINTA, FRINTX and FRINTI. - Conversions: SCVTF (fixed-point), SCVTF (integer), UCVTF (fixed-point) UCVTF (integer), FCVTZS (fixed-point), FCVTZS (integer), FCVTZU (fixed-point), FCVTZU (integer), FCVTNS, FCVTNU, FCVTAS, FCVTAU, FCVTPS, FCVTPU, FCVTMS and FCVTMU. - Scalar FMOV: immediate, general and register gas/testsuite/ 2015-11-27 Matthew Wahab <matthew.wahab@arm.com> * gas/aarch64/float-fp16.d: New. * gas/aarch64/float-fp16.s: New. opcodes/ 2015-11-27 Matthew Wahab <matthew.wahab@arm.com> * aarch64-asm-2.c: Regenerate. * aarch64-dis-2.c: Regenerate. * aarch64-opc-2.c: Regenerate. * aarch64-tbl.h (QL_FIX2FP_H, QL_FP2FIX_H): New. (QL_INT2FP_H, QL_FP2INT_H): New. (QL_FP2_H, QL_FP3_H, QL_FP4_H): New (QL_DST_H): New. (QL_FCCMP_H): New. (aarch64_opcode_table): Add 16-bit variants of scvt, ucvtf, fcvtzs, fcvtzu, fcvtns, fcvtnu, scvtf, ucvtf, fcvtas, fcvtau, fmov, fcvtpos, fcvtpu, fcvtms, fcvtmu, fcvtzs, fcvtzu, fccmp, fccmpe, fcmp, fcmpe, fabs, fneg, fsqrt, frintn, frintp, frintm, frintz, frinta, frintx, frinti, fmul, fdiv, fadd, fsub, fmax, fmin, fmaxnm, fminnm, fnmul, fmadd, fmsub, fnmadd, fnmsub and fcsel. Change-Id: Ie6d40bd1b215a9bc024e12ba75e52afbe1675eb7
2015-11-27 17:32:21 +01:00
/* e.g. FCCMP <Sn>, <Sm>, #<nzcv>, <cond>. */
#define QL_FCCMP_H \
{ \
QLF4 (S_H, S_H, NIL, NIL), \
}
/* e.g. DUP <Vd>.<T>, <Vn>.<Ts>[<index>]. */
#define QL_DUP_VX \
{ \
QLF2(V_8B , S_B ), \
QLF2(V_16B, S_B ), \
QLF2(V_4H , S_H ), \
QLF2(V_8H , S_H ), \
QLF2(V_2S , S_S ), \
QLF2(V_4S , S_S ), \
QLF2(V_2D , S_D ), \
}
/* e.g. DUP <Vd>.<T>, <Wn>. */
#define QL_DUP_VR \
{ \
QLF2(V_8B , W ), \
QLF2(V_16B, W ), \
QLF2(V_4H , W ), \
QLF2(V_8H , W ), \
QLF2(V_2S , W ), \
QLF2(V_4S , W ), \
QLF2(V_2D , X ), \
}
/* e.g. INS <Vd>.<Ts>[<index>], <Wn>. */
#define QL_INS_XR \
{ \
QLF2(S_H , W ), \
QLF2(S_S , W ), \
QLF2(S_D , X ), \
QLF2(S_B , W ), \
}
/* e.g. SMOV <Wd>, <Vn>.<Ts>[<index>]. */
#define QL_SMOV \
{ \
QLF2(W , S_H), \
QLF2(X , S_H), \
QLF2(X , S_S), \
QLF2(W , S_B), \
QLF2(X , S_B), \
}
/* e.g. UMOV <Wd>, <Vn>.<Ts>[<index>]. */
#define QL_UMOV \
{ \
QLF2(W , S_H), \
QLF2(W , S_S), \
QLF2(X , S_D), \
QLF2(W , S_B), \
}
/* e.g. MOV <Wd>, <Vn>.<Ts>[<index>]. */
#define QL_MOV \
{ \
QLF2(W , S_S), \
QLF2(X , S_D), \
}
/* e.g. SUQADD <Vd>.<T>, <Vn>.<T>. */
#define QL_V2SAME \
{ \
QLF2(V_8B , V_8B ), \
QLF2(V_16B, V_16B), \
QLF2(V_4H , V_4H ), \
QLF2(V_8H , V_8H ), \
QLF2(V_2S , V_2S ), \
QLF2(V_4S , V_4S ), \
QLF2(V_2D , V_2D ), \
}
/* e.g. URSQRTE <Vd>.<T>, <Vn>.<T>. */
#define QL_V2SAMES \
{ \
QLF2(V_2S , V_2S ), \
QLF2(V_4S , V_4S ), \
}
/* e.g. REV32 <Vd>.<T>, <Vn>.<T>. */
#define QL_V2SAMEBH \
{ \
QLF2(V_8B , V_8B ), \
QLF2(V_16B, V_16B), \
QLF2(V_4H , V_4H ), \
QLF2(V_8H , V_8H ), \
}
/* e.g. FRINTN <Vd>.<T>, <Vn>.<T>. */
#define QL_V2SAMESD \
{ \
QLF2(V_2S , V_2S ), \
QLF2(V_4S , V_4S ), \
QLF2(V_2D , V_2D ), \
}
/* e.g. REV64 <Vd>.<T>, <Vn>.<T>. */
#define QL_V2SAMEBHS \
{ \
QLF2(V_8B , V_8B ), \
QLF2(V_16B, V_16B), \
QLF2(V_4H , V_4H ), \
QLF2(V_8H , V_8H ), \
QLF2(V_2S , V_2S ), \
QLF2(V_4S , V_4S ), \
}
/* e.g. FCMGT <Vd>.<T>, <Vd>.<T>>, #0.0. */
#define QL_V2SAMEH \
{ \
QLF2 (V_4H, V_4H), \
QLF2 (V_8H, V_8H), \
}
/* e.g. REV16 <Vd>.<T>, <Vn>.<T>. */
#define QL_V2SAMEB \
{ \
QLF2(V_8B , V_8B ), \
QLF2(V_16B, V_16B), \
}
/* e.g. SADDLP <Vd>.<Ta>, <Vn>.<Tb>. */
#define QL_V2PAIRWISELONGBHS \
{ \
QLF2(V_4H , V_8B ), \
QLF2(V_8H , V_16B), \
QLF2(V_2S , V_4H ), \
QLF2(V_4S , V_8H ), \
QLF2(V_1D , V_2S ), \
QLF2(V_2D , V_4S ), \
}
/* e.g. SHLL<Q> <Vd>.<Ta>, <Vn>.<Tb>, #<shift>. */
#define QL_V2LONGBHS \
{ \
QLF2(V_8H , V_8B ), \
QLF2(V_4S , V_4H ), \
QLF2(V_2D , V_2S ), \
}
/* e.g. SHLL<Q> <Vd>.<Ta>, <Vn>.<Tb>, #<shift>. */
#define QL_V2LONGBHS2 \
{ \
QLF2(V_8H , V_16B), \
QLF2(V_4S , V_8H ), \
QLF2(V_2D , V_4S ), \
}
/* */
#define QL_V3SAME \
{ \
QLF3(V_8B , V_8B , V_8B ), \
QLF3(V_16B, V_16B, V_16B), \
QLF3(V_4H , V_4H , V_4H ), \
QLF3(V_8H , V_8H , V_8H ), \
QLF3(V_2S , V_2S , V_2S ), \
QLF3(V_4S , V_4S , V_4S ), \
QLF3(V_2D , V_2D , V_2D ) \
}
/* e.g. SHADD. */
#define QL_V3SAMEBHS \
{ \
QLF3(V_8B , V_8B , V_8B ), \
QLF3(V_16B, V_16B, V_16B), \
QLF3(V_4H , V_4H , V_4H ), \
QLF3(V_8H , V_8H , V_8H ), \
QLF3(V_2S , V_2S , V_2S ), \
QLF3(V_4S , V_4S , V_4S ), \
}
/* e.g. FCVTXN<Q> <Vd>.<Tb>, <Vn>.<Ta>. */
#define QL_V2NARRS \
{ \
QLF2(V_2S , V_2D ), \
}
/* e.g. FCVTXN<Q> <Vd>.<Tb>, <Vn>.<Ta>. */
#define QL_V2NARRS2 \
{ \
QLF2(V_4S , V_2D ), \
}
/* e.g. FCVTN<Q> <Vd>.<Tb>, <Vn>.<Ta>. */
#define QL_V2NARRHS \
{ \
QLF2(V_4H , V_4S ), \
QLF2(V_2S , V_2D ), \
}
/* e.g. FCVTN<Q> <Vd>.<Tb>, <Vn>.<Ta>. */
#define QL_V2NARRHS2 \
{ \
QLF2(V_8H , V_4S ), \
QLF2(V_4S , V_2D ), \
}
/* e.g. FCVTL<Q> <Vd>.<Ta>, <Vn>.<Tb>. */
#define QL_V2LONGHS \
{ \
QLF2(V_4S , V_4H ), \
QLF2(V_2D , V_2S ), \
}
/* e.g. FCVTL<Q> <Vd>.<Ta>, <Vn>.<Tb>. */
#define QL_V2LONGHS2 \
{ \
QLF2(V_4S , V_8H ), \
QLF2(V_2D , V_4S ), \
}
/* e.g. XTN<Q> <Vd>.<Tb>, <Vn>.<Ta>. */
#define QL_V2NARRBHS \
{ \
QLF2(V_8B , V_8H ), \
QLF2(V_4H , V_4S ), \
QLF2(V_2S , V_2D ), \
}
/* e.g. XTN<Q> <Vd>.<Tb>, <Vn>.<Ta>. */
#define QL_V2NARRBHS2 \
{ \
QLF2(V_16B, V_8H ), \
QLF2(V_8H , V_4S ), \
QLF2(V_4S , V_2D ), \
}
/* e.g. ORR. */
#define QL_V2SAMEB \
{ \
QLF2(V_8B , V_8B ), \
QLF2(V_16B, V_16B), \
}
/* e.g. AESE. */
#define QL_V2SAME16B \
{ \
QLF2(V_16B, V_16B), \
}
/* e.g. SHA1SU1. */
#define QL_V2SAME4S \
{ \
QLF2(V_4S, V_4S), \
}
/* e.g. SHA1SU0. */
#define QL_V3SAME4S \
{ \
QLF3(V_4S, V_4S, V_4S), \
}
/* e.g. SHADD. */
#define QL_V3SAMEB \
{ \
QLF3(V_8B , V_8B , V_8B ), \
QLF3(V_16B, V_16B, V_16B), \
}
/* e.g. EXT <Vd>.<T>, <Vn>.<T>, <Vm>.<T>, #<index>. */
#define QL_VEXT \
{ \
QLF4(V_8B , V_8B , V_8B , imm_0_7), \
QLF4(V_16B, V_16B, V_16B, imm_0_15), \
}
/* e.g. . */
#define QL_V3SAMEHS \
{ \
QLF3(V_4H , V_4H , V_4H ), \
QLF3(V_8H , V_8H , V_8H ), \
QLF3(V_2S , V_2S , V_2S ), \
QLF3(V_4S , V_4S , V_4S ), \
}
/* */
#define QL_V3SAMESD \
{ \
QLF3(V_2S , V_2S , V_2S ), \
QLF3(V_4S , V_4S , V_4S ), \
QLF3(V_2D , V_2D , V_2D ) \
}
[AArch64] Add ARMv8.3 FCMLA and FCADD instructions Add support for FCMLA and FCADD complex arithmetic SIMD instructions. FCMLA has an indexed element variant where the index range has to be treated specially because a complex number takes two elements and the indexed vector size depends on the other operands. These complex number SIMD instructions are part of ARMv8.3 https://community.arm.com/groups/processors/blog/2016/10/27/armv8-a-architecture-2016-additions include/ 2016-11-18 Szabolcs Nagy <szabolcs.nagy@arm.com> * opcode/aarch64.h (enum aarch64_opnd): Add AARCH64_OPND_IMM_ROT1, AARCH64_OPND_IMM_ROT2, AARCH64_OPND_IMM_ROT3. (enum aarch64_op): Add OP_FCMLA_ELEM. opcodes/ 2016-11-18 Szabolcs Nagy <szabolcs.nagy@arm.com> * aarch64-tbl.h (QL_V3SAMEHSD_ROT, QL_ELEMENT_ROT): Define. (aarch64_feature_simd_v8_3, SIMD_V8_3): Define. (aarch64_opcode_table): Add fcmla and fcadd. (AARCH64_OPERANDS): Add IMM_ROT{1,2,3}. * aarch64-asm.h (aarch64_ins_imm_rotate): Declare. * aarch64-asm.c (aarch64_ins_imm_rotate): Define. * aarch64-dis.h (aarch64_ext_imm_rotate): Declare. * aarch64-dis.c (aarch64_ext_imm_rotate): Define. * aarch64-opc.h (enum aarch64_field_kind): Add FLD_rotate{1,2,3}. * aarch64-opc.c (fields): Add FLD_rotate{1,2,3}. (operand_general_constraint_met_p): Rotate and index range check. (aarch64_print_operand): Handle rotate operand. * aarch64-asm-2.c: Regenerate. * aarch64-dis-2.c: Likewise. * aarch64-opc-2.c: Likewise. gas/ 2016-11-18 Szabolcs Nagy <szabolcs.nagy@arm.com> * config/tc-aarch64.c (parse_operands): Handle AARCH64_OPND_IMM_ROT*. * testsuite/gas/aarch64/advsimd-armv8_3.d: New. * testsuite/gas/aarch64/advsimd-armv8_3.s: New. * testsuite/gas/aarch64/illegal-fcmla.s: New. * testsuite/gas/aarch64/illegal-fcmla.l: New. * testsuite/gas/aarch64/illegal-fcmla.d: New.
2016-11-18 11:02:16 +01:00
/* e.g. FCMLA <Vd>.<T>, <Vn>.<T>, <Vm>.<T>, #<rotate>. */
#define QL_V3SAMEHSD_ROT \
{ \
QLF4 (V_4H, V_4H, V_4H, NIL), \
QLF4 (V_8H, V_8H, V_8H, NIL), \
QLF4 (V_2S, V_2S, V_2S, NIL), \
QLF4 (V_4S, V_4S, V_4S, NIL), \
QLF4 (V_2D, V_2D, V_2D, NIL), \
}
/* e.g. FMAXNM <Vd>.<T>, <Vn>.<T>, <Vm>.<T>. */
#define QL_V3SAMEH \
{ \
QLF3 (V_4H , V_4H , V_4H ), \
QLF3 (V_8H , V_8H , V_8H ), \
}
/* e.g. SQDMLAL<Q> <Vd>.<Ta>, <Vn>.<Tb>, <Vm>.<Tb>. */
#define QL_V3LONGHS \
{ \
QLF3(V_4S , V_4H , V_4H ), \
QLF3(V_2D , V_2S , V_2S ), \
}
/* e.g. SQDMLAL<Q> <Vd>.<Ta>, <Vn>.<Tb>, <Vm>.<Tb>. */
#define QL_V3LONGHS2 \
{ \
QLF3(V_4S , V_8H , V_8H ), \
QLF3(V_2D , V_4S , V_4S ), \
}
/* e.g. SADDL<Q> <Vd>.<Ta>, <Vn>.<Tb>, <Vm>.<Tb>. */
#define QL_V3LONGBHS \
{ \
QLF3(V_8H , V_8B , V_8B ), \
QLF3(V_4S , V_4H , V_4H ), \
QLF3(V_2D , V_2S , V_2S ), \
}
/* e.g. SADDL<Q> <Vd>.<Ta>, <Vn>.<Tb>, <Vm>.<Tb>. */
#define QL_V3LONGBHS2 \
{ \
QLF3(V_8H , V_16B , V_16B ), \
QLF3(V_4S , V_8H , V_8H ), \
QLF3(V_2D , V_4S , V_4S ), \
}
/* e.g. SADDW<Q> <Vd>.<Ta>, <Vn>.<Ta>, <Vm>.<Tb>. */
#define QL_V3WIDEBHS \
{ \
QLF3(V_8H , V_8H , V_8B ), \
QLF3(V_4S , V_4S , V_4H ), \
QLF3(V_2D , V_2D , V_2S ), \
}
/* e.g. SADDW<Q> <Vd>.<Ta>, <Vn>.<Ta>, <Vm>.<Tb>. */
#define QL_V3WIDEBHS2 \
{ \
QLF3(V_8H , V_8H , V_16B ), \
QLF3(V_4S , V_4S , V_8H ), \
QLF3(V_2D , V_2D , V_4S ), \
}
/* e.g. ADDHN<Q> <Vd>.<Tb>, <Vn>.<Ta>, <Vm>.<Ta>. */
#define QL_V3NARRBHS \
{ \
QLF3(V_8B , V_8H , V_8H ), \
QLF3(V_4H , V_4S , V_4S ), \
QLF3(V_2S , V_2D , V_2D ), \
}
/* e.g. ADDHN<Q> <Vd>.<Tb>, <Vn>.<Ta>, <Vm>.<Ta>. */
#define QL_V3NARRBHS2 \
{ \
QLF3(V_16B , V_8H , V_8H ), \
QLF3(V_8H , V_4S , V_4S ), \
QLF3(V_4S , V_2D , V_2D ), \
}
/* e.g. PMULL. */
#define QL_V3LONGB \
{ \
QLF3(V_8H , V_8B , V_8B ), \
}
/* e.g. PMULL crypto. */
#define QL_V3LONGD \
{ \
QLF3(V_1Q , V_1D , V_1D ), \
}
/* e.g. PMULL2. */
#define QL_V3LONGB2 \
{ \
QLF3(V_8H , V_16B, V_16B), \
}
/* e.g. PMULL2 crypto. */
#define QL_V3LONGD2 \
{ \
QLF3(V_1Q , V_2D , V_2D ), \
}
/* e.g. SHA1C. */
#define QL_SHAUPT \
{ \
QLF3(S_Q, S_S, V_4S), \
}
/* e.g. SHA256H2. */
#define QL_SHA256UPT \
{ \
QLF3(S_Q, S_Q, V_4S), \
}
/* e.g. LDXRB <Wt>, [<Xn|SP>{,#0}]. */
#define QL_W1_LDST_EXC \
{ \
QLF2(W, NIL), \
}
/* e.g. LDXR <Xt>, [<Xn|SP>{,#0}]. */
#define QL_R1NIL \
{ \
QLF2(W, NIL), \
QLF2(X, NIL), \
}
/* e.g. STXRB <Ws>, <Wt>, [<Xn|SP>{,#0}]. */
#define QL_W2_LDST_EXC \
{ \
QLF3(W, W, NIL), \
}
/* e.g. STXR <Ws>, <Xt>, [<Xn|SP>{,#0}]. */
#define QL_R2_LDST_EXC \
{ \
QLF3(W, W, NIL), \
QLF3(W, X, NIL), \
}
[AArch64] Add ARMv8.3 combined pointer authentication load instructions Add support for ARMv8.3 LDRAA and LDRAB combined pointer authentication and load instructions. These instructions authenticate the base register and load 8 byte from it plus a scaled 10-bit offset with optional writeback to update the base register. A new instruction class (ldst_imm10) and operand type (AARCH64_OPND_ADDR_SIMM10) were introduced to handle the special addressing form. include/ 2016-11-18 Szabolcs Nagy <szabolcs.nagy@arm.com> * opcode/aarch64.h (enum aarch64_opnd): Add AARCH64_OPND_ADDR_SIMM10. (enum aarch64_insn_class): Add ldst_imm10. opcodes/ 2016-11-18 Szabolcs Nagy <szabolcs.nagy@arm.com> * aarch64-tbl.h (QL_X1NIL): New. (arch64_opcode_table): Add ldraa, ldrab. (AARCH64_OPERANDS): Add "ADDR_SIMM10". * aarch64-asm.h (aarch64_ins_addr_simm10): Declare. * aarch64-asm.c (aarch64_ins_addr_simm10): Define. * aarch64-dis.h (aarch64_ext_addr_simm10): Declare. * aarch64-dis.c (aarch64_ext_addr_simm10): Define. * aarch64-opc.h (enum aarch64_field_kind): Add FLD_S_simm10. * aarch64-opc.c (fields): Add data for FLD_S_simm10. (operand_general_constraint_met_p): Handle AARCH64_OPND_ADDR_SIMM10. (aarch64_print_operand): Likewise. * aarch64-asm-2.c: Regenerate. * aarch64-dis-2.c: Regenerate. * aarch64-opc-2.c: Regenerate. gas/ 2016-11-18 Szabolcs Nagy <szabolcs.nagy@arm.com> * config/tc-aarch64.c (parse_operands): Handle AARCH64_OPND_ADDR_SIMM10. (fix_insn): Likewise. (warn_unpredictable_ldst): Handle ldst_imm10. * testsuite/gas/aarch64/pac.s: Add ldraa and ldrab tests. * testsuite/gas/aarch64/pac.d: Likewise. * testsuite/gas/aarch64/illegal-ldraa.s: New. * testsuite/gas/aarch64/illegal-ldraa.l: New. * testsuite/gas/aarch64/illegal-ldraa.d: New.
2016-11-18 10:49:06 +01:00
/* e.g. LDRAA <Xt>, [<Xn|SP>{,#imm}]. */
#define QL_X1NIL \
{ \
QLF2(X, NIL), \
}
/* e.g. LDXP <Xt1>, <Xt2>, [<Xn|SP>{,#0}]. */
#define QL_R2NIL \
{ \
QLF3(W, W, NIL), \
QLF3(X, X, NIL), \
}
/* e.g. CASP <Xt1>, <Xt1+1>, <Xt2>, <Xt2+1>, [<Xn|SP>{,#0}]. */
#define QL_R4NIL \
{ \
QLF5(W, W, W, W, NIL), \
QLF5(X, X, X, X, NIL), \
}
/* e.g. STXP <Ws>, <Xt1>, <Xt2>, [<Xn|SP>{,#0}]. */
#define QL_R3_LDST_EXC \
{ \
QLF4(W, W, W, NIL), \
QLF4(W, X, X, NIL), \
}
/* e.g. STR <Qt>, [<Xn|SP>, <R><m>{, <extend> {<amount>}}]. */
#define QL_LDST_FP \
{ \
QLF2(S_B, S_B), \
QLF2(S_H, S_H), \
QLF2(S_S, S_S), \
QLF2(S_D, S_D), \
QLF2(S_Q, S_Q), \
}
/* e.g. STR <Xt>, [<Xn|SP>, <R><m>{, <extend> {<amount>}}]. */
#define QL_LDST_R \
{ \
QLF2(W, S_S), \
QLF2(X, S_D), \
}
/* e.g. STRB <Wt>, [<Xn|SP>, <R><m>{, <extend> {<amount>}}]. */
#define QL_LDST_W8 \
{ \
QLF2(W, S_B), \
}
/* e.g. LDRSB <Wt>, [<Xn|SP>, <R><m>{, <extend> {<amount>}}]. */
#define QL_LDST_R8 \
{ \
QLF2(W, S_B), \
QLF2(X, S_B), \
}
/* e.g. STRH <Wt>, [<Xn|SP>, <R><m>{, <extend> {<amount>}}]. */
#define QL_LDST_W16 \
{ \
QLF2(W, S_H), \
}
/* e.g. LDRSW <Xt>, [<Xn|SP>, <R><m>{, <extend> {<amount>}}]. */
#define QL_LDST_X32 \
{ \
QLF2(X, S_S), \
}
/* e.g. LDRSH <Wt>, [<Xn|SP>, <R><m>{, <extend> {<amount>}}]. */
#define QL_LDST_R16 \
{ \
QLF2(W, S_H), \
QLF2(X, S_H), \
}
/* e.g. PRFM <prfop>, [<Xn|SP>, <R><m>{, <extend> {<amount>}}]. */
#define QL_LDST_PRFM \
{ \
QLF2(NIL, S_D), \
}
/* e.g. LDPSW <Xt1>, <Xt2>, [<Xn|SP>{, #<imm>}]. */
#define QL_LDST_PAIR_X32 \
{ \
QLF3(X, X, S_S), \
}
/* e.g. STP <Wt1>, <Wt2>, [<Xn|SP>, #<imm>]!. */
#define QL_LDST_PAIR_R \
{ \
QLF3(W, W, S_S), \
QLF3(X, X, S_D), \
}
/* e.g. STNP <Qt1>, <Qt2>, [<Xn|SP>{, #<imm>}]. */
#define QL_LDST_PAIR_FP \
{ \
QLF3(S_S, S_S, S_S), \
QLF3(S_D, S_D, S_D), \
QLF3(S_Q, S_Q, S_Q), \
}
/* e.g. LD3 {<Vt>.<T>, <Vt2>.<T>, <Vt3>.<T>}, [<Xn|SP>]. */
#define QL_SIMD_LDST \
{ \
QLF2(V_8B, NIL), \
QLF2(V_16B, NIL), \
QLF2(V_4H, NIL), \
QLF2(V_8H, NIL), \
QLF2(V_2S, NIL), \
QLF2(V_4S, NIL), \
QLF2(V_2D, NIL), \
}
/* e.g. LD1 {<Vt>.<T>, <Vt2>.<T>, <Vt3>.<T>}, [<Xn|SP>]. */
#define QL_SIMD_LDST_ANY \
{ \
QLF2(V_8B, NIL), \
QLF2(V_16B, NIL), \
QLF2(V_4H, NIL), \
QLF2(V_8H, NIL), \
QLF2(V_2S, NIL), \
QLF2(V_4S, NIL), \
QLF2(V_1D, NIL), \
QLF2(V_2D, NIL), \
}
/* e.g. LD4 {<Vt>.<T>, <Vt2a>.<T>, <Vt3a>.<T>, <Vt4a>.<T>}[<index>], [<Xn|SP>]. */
#define QL_SIMD_LDSTONE \
{ \
QLF2(S_B, NIL), \
QLF2(S_H, NIL), \
QLF2(S_S, NIL), \
QLF2(S_D, NIL), \
}
/* e.g. ADDV <V><d>, <Vn>.<T>. */
#define QL_XLANES \
{ \
QLF2(S_B, V_8B), \
QLF2(S_B, V_16B), \
QLF2(S_H, V_4H), \
QLF2(S_H, V_8H), \
QLF2(S_S, V_4S), \
}
/* e.g. FMINV <V><d>, <Vn>.<T>. */
#define QL_XLANES_FP \
{ \
QLF2(S_S, V_4S), \
}
/* e.g. FMINV <V><d>, <Vn>.<T>. */
#define QL_XLANES_FP_H \
{ \
QLF2 (S_H, V_4H), \
QLF2 (S_H, V_8H), \
}
/* e.g. SADDLV <V><d>, <Vn>.<T>. */
#define QL_XLANES_L \
{ \
QLF2(S_H, V_8B), \
QLF2(S_H, V_16B), \
QLF2(S_S, V_4H), \
QLF2(S_S, V_8H), \
QLF2(S_D, V_4S), \
}
/* e.g. MUL <Vd>.<T>, <Vn>.<T>, <Vm>.<Ts>[<index>]. */
#define QL_ELEMENT \
{ \
QLF3(V_4H, V_4H, S_H), \
QLF3(V_8H, V_8H, S_H), \
QLF3(V_2S, V_2S, S_S), \
QLF3(V_4S, V_4S, S_S), \
}
/* e.g. SMLAL <Vd>.<Ta>, <Vn>.<Tb>, <Vm>.<Ts>[<index>]. */
#define QL_ELEMENT_L \
{ \
QLF3(V_4S, V_4H, S_H), \
QLF3(V_2D, V_2S, S_S), \
}
/* e.g. SMLAL2 <Vd>.<Ta>, <Vn>.<Tb>, <Vm>.<Ts>[<index>]. */
#define QL_ELEMENT_L2 \
{ \
QLF3(V_4S, V_8H, S_H), \
QLF3(V_2D, V_4S, S_S), \
}
/* e.g. FMLA <V><d>, <V><n>, <Vm>.<Ts>[<index>]. */
#define QL_ELEMENT_FP \
{ \
QLF3(V_2S, V_2S, S_S), \
QLF3(V_4S, V_4S, S_S), \
QLF3(V_2D, V_2D, S_D), \
}
/* e.g. FMLA <V><d>, <V><n>, <Vm>.<Ts>[<index>]. */
#define QL_ELEMENT_FP_H \
{ \
QLF3 (V_4H, V_4H, S_H), \
QLF3 (V_8H, V_8H, S_H), \
}
[AArch64] Add ARMv8.3 FCMLA and FCADD instructions Add support for FCMLA and FCADD complex arithmetic SIMD instructions. FCMLA has an indexed element variant where the index range has to be treated specially because a complex number takes two elements and the indexed vector size depends on the other operands. These complex number SIMD instructions are part of ARMv8.3 https://community.arm.com/groups/processors/blog/2016/10/27/armv8-a-architecture-2016-additions include/ 2016-11-18 Szabolcs Nagy <szabolcs.nagy@arm.com> * opcode/aarch64.h (enum aarch64_opnd): Add AARCH64_OPND_IMM_ROT1, AARCH64_OPND_IMM_ROT2, AARCH64_OPND_IMM_ROT3. (enum aarch64_op): Add OP_FCMLA_ELEM. opcodes/ 2016-11-18 Szabolcs Nagy <szabolcs.nagy@arm.com> * aarch64-tbl.h (QL_V3SAMEHSD_ROT, QL_ELEMENT_ROT): Define. (aarch64_feature_simd_v8_3, SIMD_V8_3): Define. (aarch64_opcode_table): Add fcmla and fcadd. (AARCH64_OPERANDS): Add IMM_ROT{1,2,3}. * aarch64-asm.h (aarch64_ins_imm_rotate): Declare. * aarch64-asm.c (aarch64_ins_imm_rotate): Define. * aarch64-dis.h (aarch64_ext_imm_rotate): Declare. * aarch64-dis.c (aarch64_ext_imm_rotate): Define. * aarch64-opc.h (enum aarch64_field_kind): Add FLD_rotate{1,2,3}. * aarch64-opc.c (fields): Add FLD_rotate{1,2,3}. (operand_general_constraint_met_p): Rotate and index range check. (aarch64_print_operand): Handle rotate operand. * aarch64-asm-2.c: Regenerate. * aarch64-dis-2.c: Likewise. * aarch64-opc-2.c: Likewise. gas/ 2016-11-18 Szabolcs Nagy <szabolcs.nagy@arm.com> * config/tc-aarch64.c (parse_operands): Handle AARCH64_OPND_IMM_ROT*. * testsuite/gas/aarch64/advsimd-armv8_3.d: New. * testsuite/gas/aarch64/advsimd-armv8_3.s: New. * testsuite/gas/aarch64/illegal-fcmla.s: New. * testsuite/gas/aarch64/illegal-fcmla.l: New. * testsuite/gas/aarch64/illegal-fcmla.d: New.
2016-11-18 11:02:16 +01:00
/* e.g. FCMLA <Vd>.<T>, <Vn>.<T>, <Vm>.<Ts>[<index>], #<rotate>. */
#define QL_ELEMENT_ROT \
{ \
QLF4 (V_4H, V_4H, S_H, NIL), \
QLF4 (V_8H, V_8H, S_H, NIL), \
QLF4 (V_4S, V_4S, S_S, NIL), \
}
/* e.g. MOVI <Vd>.4S, #<imm8> {, LSL #<amount>}. */
#define QL_SIMD_IMM_S0W \
{ \
QLF2(V_2S, LSL), \
QLF2(V_4S, LSL), \
}
/* e.g. MOVI <Vd>.4S, #<imm8>, MSL #<amount>. */
#define QL_SIMD_IMM_S1W \
{ \
QLF2(V_2S, MSL), \
QLF2(V_4S, MSL), \
}
/* e.g. MOVI <Vd>.4H, #<imm8> {, LSL #<amount>}. */
#define QL_SIMD_IMM_S0H \
{ \
QLF2(V_4H, LSL), \
QLF2(V_8H, LSL), \
}
/* e.g. FMOV <Vd>.<T>, #<imm>. */
#define QL_SIMD_IMM_S \
{ \
QLF2(V_2S, NIL), \
QLF2(V_4S, NIL), \
}
/* e.g. MOVI <Vd>.8B, #<imm8> {, LSL #<amount>}. */
#define QL_SIMD_IMM_B \
{ \
QLF2(V_8B, LSL), \
QLF2(V_16B, LSL), \
}
/* e.g. MOVI <Dd>, #<imm>. */
#define QL_SIMD_IMM_D \
{ \
QLF2(S_D, NIL), \
}
/* e.g. FMOV <Vd>.<T>, #<imm>. */
#define QL_SIMD_IMM_H \
{ \
QLF2 (V_4H, NIL), \
QLF2 (V_8H, NIL), \
}
/* e.g. MOVI <Vd>.2D, #<imm>. */
#define QL_SIMD_IMM_V2D \
{ \
QLF2(V_2D, NIL), \
}
[AArch64][SVE 31/32] Add SVE instructions This patch adds the SVE instruction definitions and associated OP_* enum values. include/ * opcode/aarch64.h (AARCH64_FEATURE_SVE): New macro. (OP_MOV_P_P, OP_MOV_Z_P_Z, OP_MOV_Z_V, OP_MOV_Z_Z, OP_MOV_Z_Zi) (OP_MOVM_P_P_P, OP_MOVS_P_P, OP_MOVZS_P_P_P, OP_MOVZ_P_P_P) (OP_NOTS_P_P_P_Z, OP_NOT_P_P_P_Z): New aarch64_ops. opcodes/ * aarch64-tbl.h (OP_SVE_B, OP_SVE_BB, OP_SVE_BBBU, OP_SVE_BMB) (OP_SVE_BPB, OP_SVE_BUB, OP_SVE_BUBB, OP_SVE_BUU, OP_SVE_BZ) (OP_SVE_BZB, OP_SVE_BZBB, OP_SVE_BZU, OP_SVE_DD, OP_SVE_DDD) (OP_SVE_DMD, OP_SVE_DMH, OP_SVE_DMS, OP_SVE_DU, OP_SVE_DUD, OP_SVE_DUU) (OP_SVE_DUV_BHS, OP_SVE_DUV_BHSD, OP_SVE_DZD, OP_SVE_DZU, OP_SVE_HB) (OP_SVE_HMD, OP_SVE_HMS, OP_SVE_HU, OP_SVE_HUU, OP_SVE_HZU, OP_SVE_RR) (OP_SVE_RURV_BHSD, OP_SVE_RUV_BHSD, OP_SVE_SMD, OP_SVE_SMH, OP_SVE_SMS) (OP_SVE_SU, OP_SVE_SUS, OP_SVE_SUU, OP_SVE_SZS, OP_SVE_SZU, OP_SVE_UB) (OP_SVE_UUD, OP_SVE_UUS, OP_SVE_VMR_BHSD, OP_SVE_VMU_SD) (OP_SVE_VMVD_BHS, OP_SVE_VMVU_BHSD, OP_SVE_VMVU_SD, OP_SVE_VMVV_BHSD) (OP_SVE_VMVV_SD, OP_SVE_VMV_BHSD, OP_SVE_VMV_HSD, OP_SVE_VMV_SD) (OP_SVE_VM_SD, OP_SVE_VPU_BHSD, OP_SVE_VPV_BHSD, OP_SVE_VRR_BHSD) (OP_SVE_VRU_BHSD, OP_SVE_VR_BHSD, OP_SVE_VUR_BHSD, OP_SVE_VUU_BHSD) (OP_SVE_VUVV_BHSD, OP_SVE_VUVV_SD, OP_SVE_VUV_BHSD, OP_SVE_VUV_SD) (OP_SVE_VU_BHSD, OP_SVE_VU_HSD, OP_SVE_VU_SD, OP_SVE_VVD_BHS) (OP_SVE_VVU_BHSD, OP_SVE_VVVU_SD, OP_SVE_VVV_BHSD, OP_SVE_VVV_SD) (OP_SVE_VV_BHSD, OP_SVE_VV_HSD_BHS, OP_SVE_VV_SD, OP_SVE_VWW_BHSD) (OP_SVE_VXX_BHSD, OP_SVE_VZVD_BHS, OP_SVE_VZVU_BHSD, OP_SVE_VZVV_BHSD) (OP_SVE_VZVV_SD, OP_SVE_VZV_SD, OP_SVE_V_SD, OP_SVE_WU, OP_SVE_WV_BHSD) (OP_SVE_XU, OP_SVE_XUV_BHSD, OP_SVE_XVW_BHSD, OP_SVE_XV_BHSD) (OP_SVE_XWU, OP_SVE_XXU): New macros. (aarch64_feature_sve): New variable. (SVE): New macro. (_SVE_INSN): Likewise. (aarch64_opcode_table): Add SVE instructions. * aarch64-opc.h (extract_fields): Declare. * aarch64-opc-2.c: Regenerate. * aarch64-asm.c (do_misc_encoding): Handle the new SVE aarch64_ops. * aarch64-asm-2.c: Regenerate. * aarch64-dis.c (extract_fields): Make global. (do_misc_decoding): Handle the new SVE aarch64_ops. * aarch64-dis-2.c: Regenerate. gas/ * doc/c-aarch64.texi: Document the "sve" feature. * config/tc-aarch64.c (REG_TYPE_R_Z_BHSDQ_VZP): New register type. (get_reg_expected_msg): Handle it. (parse_operands): When parsing operands of an SVE instruction, disallow immediates that match REG_TYPE_R_Z_BHSDQ_VZP. (aarch64_features): Add an entry for SVE.
2016-09-21 17:58:48 +02:00
/* The naming convention for SVE macros is:
OP_SVE_<operands>[_<sizes>]*
<operands> contains one character per operand, using the following scheme:
- U: the operand is unqualified (NIL).
- [BHSD]: the operand has a S_[BHSD] qualifier and the choice of
qualifier is the same for all variants. This is used for both
.[BHSD] suffixes on an SVE predicate or vector register and
scalar FPRs of the form [BHSD]<number>.
- [WX]: the operand has a [WX] qualifier and the choice of qualifier
is the same for all variants.
- [ZM]: the operand has a /[ZM] suffix and the choice of suffix
is the same for all variants.
- V: the operand has a S_[BHSD] qualifier and the choice of qualifier
is not the same for all variants.
- R: the operand has a [WX] qualifier and the choice of qualifier is
not the same for all variants.
- P: the operand has a /[ZM] suffix and the choice of suffix is not
the same for all variants.
The _<sizes>, if present, give the subset of [BHSD] that are accepted
by the V entries in <operands>. */
#define OP_SVE_B \
{ \
QLF1(S_B), \
}
#define OP_SVE_BB \
{ \
QLF2(S_B,S_B), \
}
#define OP_SVE_BBBU \
{ \
QLF4(S_B,S_B,S_B,NIL), \
}
#define OP_SVE_BMB \
{ \
QLF3(S_B,P_M,S_B), \
}
#define OP_SVE_BPB \
{ \
QLF3(S_B,P_Z,S_B), \
QLF3(S_B,P_M,S_B), \
}
#define OP_SVE_BUB \
{ \
QLF3(S_B,NIL,S_B), \
}
#define OP_SVE_BUBB \
{ \
QLF4(S_B,NIL,S_B,S_B), \
}
#define OP_SVE_BUU \
{ \
QLF3(S_B,NIL,NIL), \
}
#define OP_SVE_BZ \
{ \
QLF2(S_B,P_Z), \
}
#define OP_SVE_BZB \
{ \
QLF3(S_B,P_Z,S_B), \
}
#define OP_SVE_BZBB \
{ \
QLF4(S_B,P_Z,S_B,S_B), \
}
#define OP_SVE_BZU \
{ \
QLF3(S_B,P_Z,NIL), \
}
#define OP_SVE_DD \
{ \
QLF2(S_D,S_D), \
}
#define OP_SVE_DDD \
{ \
QLF3(S_D,S_D,S_D), \
}
#define OP_SVE_DMD \
{ \
QLF3(S_D,P_M,S_D), \
}
#define OP_SVE_DMH \
{ \
QLF3(S_D,P_M,S_H), \
}
#define OP_SVE_DMS \
{ \
QLF3(S_D,P_M,S_S), \
}
#define OP_SVE_DU \
{ \
QLF2(S_D,NIL), \
}
#define OP_SVE_DUD \
{ \
QLF3(S_D,NIL,S_D), \
}
#define OP_SVE_DUU \
{ \
QLF3(S_D,NIL,NIL), \
}
#define OP_SVE_DUV_BHS \
{ \
QLF3(S_D,NIL,S_B), \
QLF3(S_D,NIL,S_H), \
QLF3(S_D,NIL,S_S), \
}
#define OP_SVE_DUV_BHSD \
{ \
QLF3(S_D,NIL,S_B), \
QLF3(S_D,NIL,S_H), \
QLF3(S_D,NIL,S_S), \
QLF3(S_D,NIL,S_D), \
}
#define OP_SVE_DZD \
{ \
QLF3(S_D,P_Z,S_D), \
}
#define OP_SVE_DZU \
{ \
QLF3(S_D,P_Z,NIL), \
}
#define OP_SVE_HB \
{ \
QLF2(S_H,S_B), \
}
#define OP_SVE_HMD \
{ \
QLF3(S_H,P_M,S_D), \
}
#define OP_SVE_HMS \
{ \
QLF3(S_H,P_M,S_S), \
}
#define OP_SVE_HU \
{ \
QLF2(S_H,NIL), \
}
#define OP_SVE_HUU \
{ \
QLF3(S_H,NIL,NIL), \
}
#define OP_SVE_HZU \
{ \
QLF3(S_H,P_Z,NIL), \
}
#define OP_SVE_RR \
{ \
QLF2(W,W), \
QLF2(X,X), \
}
#define OP_SVE_RURV_BHSD \
{ \
QLF4(W,NIL,W,S_B), \
QLF4(W,NIL,W,S_H), \
QLF4(W,NIL,W,S_S), \
QLF4(X,NIL,X,S_D), \
}
#define OP_SVE_RUV_BHSD \
{ \
QLF3(W,NIL,S_B), \
QLF3(W,NIL,S_H), \
QLF3(W,NIL,S_S), \
QLF3(X,NIL,S_D), \
}
#define OP_SVE_SMD \
{ \
QLF3(S_S,P_M,S_D), \
}
#define OP_SVE_SMH \
{ \
QLF3(S_S,P_M,S_H), \
}
#define OP_SVE_SMS \
{ \
QLF3(S_S,P_M,S_S), \
}
#define OP_SVE_SU \
{ \
QLF2(S_S,NIL), \
}
#define OP_SVE_SUS \
{ \
QLF3(S_S,NIL,S_S), \
}
#define OP_SVE_SUU \
{ \
QLF3(S_S,NIL,NIL), \
}
#define OP_SVE_SZS \
{ \
QLF3(S_S,P_Z,S_S), \
}
#define OP_SVE_SZU \
{ \
QLF3(S_S,P_Z,NIL), \
}
#define OP_SVE_UB \
{ \
QLF2(NIL,S_B), \
}
#define OP_SVE_UUD \
{ \
QLF3(NIL,NIL,S_D), \
}
#define OP_SVE_UUS \
{ \
QLF3(NIL,NIL,S_S), \
}
#define OP_SVE_VMR_BHSD \
{ \
QLF3(S_B,P_M,W), \
QLF3(S_H,P_M,W), \
QLF3(S_S,P_M,W), \
QLF3(S_D,P_M,X), \
}
#define OP_SVE_VMU_SD \
{ \
QLF3(S_S,P_M,NIL), \
QLF3(S_D,P_M,NIL), \
}
#define OP_SVE_VMVD_BHS \
{ \
QLF4(S_B,P_M,S_B,S_D), \
QLF4(S_H,P_M,S_H,S_D), \
QLF4(S_S,P_M,S_S,S_D), \
}
#define OP_SVE_VMVU_BHSD \
{ \
QLF4(S_B,P_M,S_B,NIL), \
QLF4(S_H,P_M,S_H,NIL), \
QLF4(S_S,P_M,S_S,NIL), \
QLF4(S_D,P_M,S_D,NIL), \
}
#define OP_SVE_VMVU_SD \
{ \
QLF4(S_S,P_M,S_S,NIL), \
QLF4(S_D,P_M,S_D,NIL), \
}
#define OP_SVE_VMVV_BHSD \
{ \
QLF4(S_B,P_M,S_B,S_B), \
QLF4(S_H,P_M,S_H,S_H), \
QLF4(S_S,P_M,S_S,S_S), \
QLF4(S_D,P_M,S_D,S_D), \
}
#define OP_SVE_VMVV_SD \
{ \
QLF4(S_S,P_M,S_S,S_S), \
QLF4(S_D,P_M,S_D,S_D), \
}
#define OP_SVE_VMV_BHSD \
{ \
QLF3(S_B,P_M,S_B), \
QLF3(S_H,P_M,S_H), \
QLF3(S_S,P_M,S_S), \
QLF3(S_D,P_M,S_D), \
}
#define OP_SVE_VMV_HSD \
{ \
QLF3(S_H,P_M,S_H), \
QLF3(S_S,P_M,S_S), \
QLF3(S_D,P_M,S_D), \
}
#define OP_SVE_VMV_SD \
{ \
QLF3(S_S,P_M,S_S), \
QLF3(S_D,P_M,S_D), \
}
#define OP_SVE_VM_SD \
{ \
QLF2(S_S,P_M), \
QLF2(S_D,P_M), \
}
#define OP_SVE_VPU_BHSD \
{ \
QLF3(S_B,P_Z,NIL), \
QLF3(S_B,P_M,NIL), \
QLF3(S_H,P_Z,NIL), \
QLF3(S_H,P_M,NIL), \
QLF3(S_S,P_Z,NIL), \
QLF3(S_S,P_M,NIL), \
QLF3(S_D,P_Z,NIL), \
QLF3(S_D,P_M,NIL), \
}
#define OP_SVE_VPV_BHSD \
{ \
QLF3(S_B,P_Z,S_B), \
QLF3(S_B,P_M,S_B), \
QLF3(S_H,P_Z,S_H), \
QLF3(S_H,P_M,S_H), \
QLF3(S_S,P_Z,S_S), \
QLF3(S_S,P_M,S_S), \
QLF3(S_D,P_Z,S_D), \
QLF3(S_D,P_M,S_D), \
}
#define OP_SVE_VRR_BHSD \
{ \
QLF3(S_B,W,W), \
QLF3(S_H,W,W), \
QLF3(S_S,W,W), \
QLF3(S_D,X,X), \
}
#define OP_SVE_VRU_BHSD \
{ \
QLF3(S_B,W,NIL), \
QLF3(S_H,W,NIL), \
QLF3(S_S,W,NIL), \
QLF3(S_D,X,NIL), \
}
#define OP_SVE_VR_BHSD \
{ \
QLF2(S_B,W), \
QLF2(S_H,W), \
QLF2(S_S,W), \
QLF2(S_D,X), \
}
#define OP_SVE_VUR_BHSD \
{ \
QLF3(S_B,NIL,W), \
QLF3(S_H,NIL,W), \
QLF3(S_S,NIL,W), \
QLF3(S_D,NIL,X), \
}
#define OP_SVE_VUU_BHSD \
{ \
QLF3(S_B,NIL,NIL), \
QLF3(S_H,NIL,NIL), \
QLF3(S_S,NIL,NIL), \
QLF3(S_D,NIL,NIL), \
}
#define OP_SVE_VUVV_BHSD \
{ \
QLF4(S_B,NIL,S_B,S_B), \
QLF4(S_H,NIL,S_H,S_H), \
QLF4(S_S,NIL,S_S,S_S), \
QLF4(S_D,NIL,S_D,S_D), \
}
#define OP_SVE_VUVV_SD \
{ \
QLF4(S_S,NIL,S_S,S_S), \
QLF4(S_D,NIL,S_D,S_D), \
}
#define OP_SVE_VUV_BHSD \
{ \
QLF3(S_B,NIL,S_B), \
QLF3(S_H,NIL,S_H), \
QLF3(S_S,NIL,S_S), \
QLF3(S_D,NIL,S_D), \
}
#define OP_SVE_VUV_SD \
{ \
QLF3(S_S,NIL,S_S), \
QLF3(S_D,NIL,S_D), \
}
#define OP_SVE_VU_BHSD \
{ \
QLF2(S_B,NIL), \
QLF2(S_H,NIL), \
QLF2(S_S,NIL), \
QLF2(S_D,NIL), \
}
#define OP_SVE_VU_HSD \
{ \
QLF2(S_H,NIL), \
QLF2(S_S,NIL), \
QLF2(S_D,NIL), \
}
#define OP_SVE_VU_SD \
{ \
QLF2(S_S,NIL), \
QLF2(S_D,NIL), \
}
#define OP_SVE_VVD_BHS \
{ \
QLF3(S_B,S_B,S_D), \
QLF3(S_H,S_H,S_D), \
QLF3(S_S,S_S,S_D), \
}
#define OP_SVE_VVU_BHSD \
{ \
QLF3(S_B,S_B,NIL), \
QLF3(S_H,S_H,NIL), \
QLF3(S_S,S_S,NIL), \
QLF3(S_D,S_D,NIL), \
}
#define OP_SVE_VVVU_SD \
{ \
QLF4(S_S,S_S,S_S,NIL), \
QLF4(S_D,S_D,S_D,NIL), \
}
#define OP_SVE_VVV_BHSD \
{ \
QLF3(S_B,S_B,S_B), \
QLF3(S_H,S_H,S_H), \
QLF3(S_S,S_S,S_S), \
QLF3(S_D,S_D,S_D), \
}
#define OP_SVE_VVV_SD \
{ \
QLF3(S_S,S_S,S_S), \
QLF3(S_D,S_D,S_D), \
}
#define OP_SVE_VV_BHSD \
{ \
QLF2(S_B,S_B), \
QLF2(S_H,S_H), \
QLF2(S_S,S_S), \
QLF2(S_D,S_D), \
}
#define OP_SVE_VV_HSD_BHS \
{ \
QLF2(S_H,S_B), \
QLF2(S_S,S_H), \
QLF2(S_D,S_S), \
}
#define OP_SVE_VV_SD \
{ \
QLF2(S_S,S_S), \
QLF2(S_D,S_D), \
}
#define OP_SVE_VWW_BHSD \
{ \
QLF3(S_B,W,W), \
QLF3(S_H,W,W), \
QLF3(S_S,W,W), \
QLF3(S_D,W,W), \
}
#define OP_SVE_VXX_BHSD \
{ \
QLF3(S_B,X,X), \
QLF3(S_H,X,X), \
QLF3(S_S,X,X), \
QLF3(S_D,X,X), \
}
#define OP_SVE_VZVD_BHS \
{ \
QLF4(S_B,P_Z,S_B,S_D), \
QLF4(S_H,P_Z,S_H,S_D), \
QLF4(S_S,P_Z,S_S,S_D), \
}
#define OP_SVE_VZVU_BHSD \
{ \
QLF4(S_B,P_Z,S_B,NIL), \
QLF4(S_H,P_Z,S_H,NIL), \
QLF4(S_S,P_Z,S_S,NIL), \
QLF4(S_D,P_Z,S_D,NIL), \
}
#define OP_SVE_VZVV_BHSD \
{ \
QLF4(S_B,P_Z,S_B,S_B), \
QLF4(S_H,P_Z,S_H,S_H), \
QLF4(S_S,P_Z,S_S,S_S), \
QLF4(S_D,P_Z,S_D,S_D), \
}
#define OP_SVE_VZVV_SD \
{ \
QLF4(S_S,P_Z,S_S,S_S), \
QLF4(S_D,P_Z,S_D,S_D), \
}
#define OP_SVE_VZV_SD \
{ \
QLF3(S_S,P_Z,S_S), \
QLF3(S_D,P_Z,S_D), \
}
#define OP_SVE_V_SD \
{ \
QLF1(S_S), \
QLF1(S_D), \
}
#define OP_SVE_WU \
{ \
QLF2(W,NIL), \
}
#define OP_SVE_WV_BHSD \
{ \
QLF2(W,S_B), \
QLF2(W,S_H), \
QLF2(W,S_S), \
QLF2(W,S_D), \
}
#define OP_SVE_XU \
{ \
QLF2(X,NIL), \
}
#define OP_SVE_XUV_BHSD \
{ \
QLF3(X,NIL,S_B), \
QLF3(X,NIL,S_H), \
QLF3(X,NIL,S_S), \
QLF3(X,NIL,S_D), \
}
#define OP_SVE_XVW_BHSD \
{ \
QLF3(X,S_B,W), \
QLF3(X,S_H,W), \
QLF3(X,S_S,W), \
QLF3(X,S_D,W), \
}
#define OP_SVE_XV_BHSD \
{ \
QLF2(X,S_B), \
QLF2(X,S_H), \
QLF2(X,S_S), \
QLF2(X,S_D), \
}
#define OP_SVE_XWU \
{ \
QLF3(X,W,NIL), \
}
#define OP_SVE_XXU \
{ \
QLF3(X,X,NIL), \
}
/* Opcode table. */
static const aarch64_feature_set aarch64_feature_v8 =
AARCH64_FEATURE (AARCH64_FEATURE_V8, 0);
static const aarch64_feature_set aarch64_feature_fp =
AARCH64_FEATURE (AARCH64_FEATURE_FP, 0);
static const aarch64_feature_set aarch64_feature_simd =
AARCH64_FEATURE (AARCH64_FEATURE_SIMD, 0);
static const aarch64_feature_set aarch64_feature_crypto =
AARCH64_FEATURE (AARCH64_FEATURE_CRYPTO, 0);
static const aarch64_feature_set aarch64_feature_crc =
AARCH64_FEATURE (AARCH64_FEATURE_CRC, 0);
static const aarch64_feature_set aarch64_feature_lse =
AARCH64_FEATURE (AARCH64_FEATURE_LSE, 0);
static const aarch64_feature_set aarch64_feature_lor =
AARCH64_FEATURE (AARCH64_FEATURE_LOR, 0);
static const aarch64_feature_set aarch64_feature_rdma =
AARCH64_FEATURE (AARCH64_FEATURE_RDMA, 0);
static const aarch64_feature_set aarch64_feature_ras =
AARCH64_FEATURE (AARCH64_FEATURE_RAS, 0);
static const aarch64_feature_set aarch64_feature_v8_2 =
AARCH64_FEATURE (AARCH64_FEATURE_V8_2, 0);
static const aarch64_feature_set aarch64_feature_fp_f16 =
AARCH64_FEATURE (AARCH64_FEATURE_F16 | AARCH64_FEATURE_FP, 0);
[AArch64][PATCH 1/14] Support ARMv8.2 FP16 Adv.SIMD instructions. ARMv8.2 adds 16-bit floating point operations as an optional extension to floating point and Adv.SIMD support. This patch set adds the 16-bit Adv.SIMD vector and scalar instructions to binutils, making them available when both +simd and +fp16 architecture extensions are enabled. The series also adds support for a new vector type, 2H, used by the FP16 scalar pairwise instructions. The patches in this series: - Add a FP16 Adv.SIMD feature macro for use by the encoding/decoding routines. - Add FP16 instructions in the group Vector Three Register Same. - Add FP16 instructions in the group Scalar Three Register Same. - Add FP16 instructions in the group Vector Two Register Misc. - Add FP16 instructions in the group Scalar Two Register Misc. - Add FP16 instructions in the group Vector Indexed Element. - Add FP16 instructions in the group Scalar Indexed Element. - Add FP16 instructions in the group Adv.SIMD Across Lanes. - Add FP16 instructions in the group Adv.SIMD Modified Immediate. - Rework some code for handling vector types to weaken its assumptions about available vector-types. - Add support for the 2H vector type. - Add FP16 instructions in the group Adv.SIMD Scalar Pairwise. - Add FP16 instructions in the group Adv.SIMD Shift By Immediate. - Add a FP16 instructions in the group Adv.SIMD Scalar Shift By Immediate. This patch adds the feature macro SIMD_F16 to the AArch64 encoding/decoding routines. It is used to decide when the new instructions are available to the assembler and is true when both +simd and +fp16 are selected. opcodes/ 2015-12-14 Matthew Wahab <matthew.wahab@arm.com> * aarch64-tbl.h (aarch64_feature_simd_f16): New. (SIMD_F16): New. Change-Id: Iee5a37928418f15e51dfaa927b24cafef7295e8f
2015-12-14 17:34:47 +01:00
static const aarch64_feature_set aarch64_feature_simd_f16 =
AARCH64_FEATURE (AARCH64_FEATURE_F16 | AARCH64_FEATURE_SIMD, 0);
[AArch64][Patch 5/5] Add instruction PSB CSYNC The Statistical Profile Extension adds the instruction PSB CSYNC as an alias for the HINT #17 instruction. This patch adds the instruction to binutils as a HINT alias that takes an operand. A new operand type, AARCH64_OPND_BARRIER_PSB, is added to represent the operand to PSB. A parser for the operand type is added to the assembler and a printer to the disassembler. The operand name "csync" is added to the list of HINT options with HINT number #17. Encoding and decoding of the operand is handled by the ins_hint/ext_hint functions added in the preceding patches. gas/ 2015-12-11 Matthew Wahab <matthew.wahab@arm.com> * config/tc-aarch64.c (aarch64_hint_opt_hsh): New. (parse_barrier_psb): New. (parse_operands): Add case for AARCH64_OPND_BARRIER_PSB. (md_begin): Set up aarch64_hint_opt_hsh. gas/testsuite/ 2015-12-11 Matthew Wahab <matthew.wahab@arm.com> * gas/aarch64/system-2.d: Enable the statistical profiling extension. Update the expected output. * gas/aarch64/system-2.s: Add tests for PSB CSYNC. * gas/aarch64/system.d: Update the expected output. include/opcode/ 2015-12-11 Matthew Wahab <matthew.wahab@arm.com> * aarch64.h (aarch64_opnd): Add AARCH64_OPND_BARRIER_PSB. * aarch64-asm-2.c: Regenerate. * aarch64-dis-2.c: Regenerate. * aarch64-opc-2.c: Regenerate. * aarch64-opc.c (aarch64_hint_options): Add "csync". (aarch64_print_operands): Handle AARCH64_OPND_BARRIER_PSB. * aarch64-tbl.h (aarch64_feature_stat_profile): New. (STAT_PROFILE): New. (aarch64_opcode_table): Add "psb". (AARCH64_OPERANDS): Add "BARRIER_PSB". Change-Id: I5ffb672d26a8b15b48785478d359350a9b70ca09
2015-12-11 11:22:40 +01:00
static const aarch64_feature_set aarch64_feature_stat_profile =
AARCH64_FEATURE (AARCH64_FEATURE_PROFILE, 0);
[AArch64][SVE 31/32] Add SVE instructions This patch adds the SVE instruction definitions and associated OP_* enum values. include/ * opcode/aarch64.h (AARCH64_FEATURE_SVE): New macro. (OP_MOV_P_P, OP_MOV_Z_P_Z, OP_MOV_Z_V, OP_MOV_Z_Z, OP_MOV_Z_Zi) (OP_MOVM_P_P_P, OP_MOVS_P_P, OP_MOVZS_P_P_P, OP_MOVZ_P_P_P) (OP_NOTS_P_P_P_Z, OP_NOT_P_P_P_Z): New aarch64_ops. opcodes/ * aarch64-tbl.h (OP_SVE_B, OP_SVE_BB, OP_SVE_BBBU, OP_SVE_BMB) (OP_SVE_BPB, OP_SVE_BUB, OP_SVE_BUBB, OP_SVE_BUU, OP_SVE_BZ) (OP_SVE_BZB, OP_SVE_BZBB, OP_SVE_BZU, OP_SVE_DD, OP_SVE_DDD) (OP_SVE_DMD, OP_SVE_DMH, OP_SVE_DMS, OP_SVE_DU, OP_SVE_DUD, OP_SVE_DUU) (OP_SVE_DUV_BHS, OP_SVE_DUV_BHSD, OP_SVE_DZD, OP_SVE_DZU, OP_SVE_HB) (OP_SVE_HMD, OP_SVE_HMS, OP_SVE_HU, OP_SVE_HUU, OP_SVE_HZU, OP_SVE_RR) (OP_SVE_RURV_BHSD, OP_SVE_RUV_BHSD, OP_SVE_SMD, OP_SVE_SMH, OP_SVE_SMS) (OP_SVE_SU, OP_SVE_SUS, OP_SVE_SUU, OP_SVE_SZS, OP_SVE_SZU, OP_SVE_UB) (OP_SVE_UUD, OP_SVE_UUS, OP_SVE_VMR_BHSD, OP_SVE_VMU_SD) (OP_SVE_VMVD_BHS, OP_SVE_VMVU_BHSD, OP_SVE_VMVU_SD, OP_SVE_VMVV_BHSD) (OP_SVE_VMVV_SD, OP_SVE_VMV_BHSD, OP_SVE_VMV_HSD, OP_SVE_VMV_SD) (OP_SVE_VM_SD, OP_SVE_VPU_BHSD, OP_SVE_VPV_BHSD, OP_SVE_VRR_BHSD) (OP_SVE_VRU_BHSD, OP_SVE_VR_BHSD, OP_SVE_VUR_BHSD, OP_SVE_VUU_BHSD) (OP_SVE_VUVV_BHSD, OP_SVE_VUVV_SD, OP_SVE_VUV_BHSD, OP_SVE_VUV_SD) (OP_SVE_VU_BHSD, OP_SVE_VU_HSD, OP_SVE_VU_SD, OP_SVE_VVD_BHS) (OP_SVE_VVU_BHSD, OP_SVE_VVVU_SD, OP_SVE_VVV_BHSD, OP_SVE_VVV_SD) (OP_SVE_VV_BHSD, OP_SVE_VV_HSD_BHS, OP_SVE_VV_SD, OP_SVE_VWW_BHSD) (OP_SVE_VXX_BHSD, OP_SVE_VZVD_BHS, OP_SVE_VZVU_BHSD, OP_SVE_VZVV_BHSD) (OP_SVE_VZVV_SD, OP_SVE_VZV_SD, OP_SVE_V_SD, OP_SVE_WU, OP_SVE_WV_BHSD) (OP_SVE_XU, OP_SVE_XUV_BHSD, OP_SVE_XVW_BHSD, OP_SVE_XV_BHSD) (OP_SVE_XWU, OP_SVE_XXU): New macros. (aarch64_feature_sve): New variable. (SVE): New macro. (_SVE_INSN): Likewise. (aarch64_opcode_table): Add SVE instructions. * aarch64-opc.h (extract_fields): Declare. * aarch64-opc-2.c: Regenerate. * aarch64-asm.c (do_misc_encoding): Handle the new SVE aarch64_ops. * aarch64-asm-2.c: Regenerate. * aarch64-dis.c (extract_fields): Make global. (do_misc_decoding): Handle the new SVE aarch64_ops. * aarch64-dis-2.c: Regenerate. gas/ * doc/c-aarch64.texi: Document the "sve" feature. * config/tc-aarch64.c (REG_TYPE_R_Z_BHSDQ_VZP): New register type. (get_reg_expected_msg): Handle it. (parse_operands): When parsing operands of an SVE instruction, disallow immediates that match REG_TYPE_R_Z_BHSDQ_VZP. (aarch64_features): Add an entry for SVE.
2016-09-21 17:58:48 +02:00
static const aarch64_feature_set aarch64_feature_sve =
AARCH64_FEATURE (AARCH64_FEATURE_SVE, 0);
static const aarch64_feature_set aarch64_feature_v8_3 =
AARCH64_FEATURE (AARCH64_FEATURE_V8_3, 0);
static const aarch64_feature_set aarch64_feature_fp_v8_3 =
AARCH64_FEATURE (AARCH64_FEATURE_V8_3 | AARCH64_FEATURE_FP, 0);
[AArch64] Add ARMv8.3 FCMLA and FCADD instructions Add support for FCMLA and FCADD complex arithmetic SIMD instructions. FCMLA has an indexed element variant where the index range has to be treated specially because a complex number takes two elements and the indexed vector size depends on the other operands. These complex number SIMD instructions are part of ARMv8.3 https://community.arm.com/groups/processors/blog/2016/10/27/armv8-a-architecture-2016-additions include/ 2016-11-18 Szabolcs Nagy <szabolcs.nagy@arm.com> * opcode/aarch64.h (enum aarch64_opnd): Add AARCH64_OPND_IMM_ROT1, AARCH64_OPND_IMM_ROT2, AARCH64_OPND_IMM_ROT3. (enum aarch64_op): Add OP_FCMLA_ELEM. opcodes/ 2016-11-18 Szabolcs Nagy <szabolcs.nagy@arm.com> * aarch64-tbl.h (QL_V3SAMEHSD_ROT, QL_ELEMENT_ROT): Define. (aarch64_feature_simd_v8_3, SIMD_V8_3): Define. (aarch64_opcode_table): Add fcmla and fcadd. (AARCH64_OPERANDS): Add IMM_ROT{1,2,3}. * aarch64-asm.h (aarch64_ins_imm_rotate): Declare. * aarch64-asm.c (aarch64_ins_imm_rotate): Define. * aarch64-dis.h (aarch64_ext_imm_rotate): Declare. * aarch64-dis.c (aarch64_ext_imm_rotate): Define. * aarch64-opc.h (enum aarch64_field_kind): Add FLD_rotate{1,2,3}. * aarch64-opc.c (fields): Add FLD_rotate{1,2,3}. (operand_general_constraint_met_p): Rotate and index range check. (aarch64_print_operand): Handle rotate operand. * aarch64-asm-2.c: Regenerate. * aarch64-dis-2.c: Likewise. * aarch64-opc-2.c: Likewise. gas/ 2016-11-18 Szabolcs Nagy <szabolcs.nagy@arm.com> * config/tc-aarch64.c (parse_operands): Handle AARCH64_OPND_IMM_ROT*. * testsuite/gas/aarch64/advsimd-armv8_3.d: New. * testsuite/gas/aarch64/advsimd-armv8_3.s: New. * testsuite/gas/aarch64/illegal-fcmla.s: New. * testsuite/gas/aarch64/illegal-fcmla.l: New. * testsuite/gas/aarch64/illegal-fcmla.d: New.
2016-11-18 11:02:16 +01:00
static const aarch64_feature_set aarch64_feature_simd_v8_3 =
AARCH64_FEATURE (AARCH64_FEATURE_V8_3 | AARCH64_FEATURE_SIMD, 0);
static const aarch64_feature_set aarch64_feature_rcpc =
AARCH64_FEATURE (AARCH64_FEATURE_RCPC, 0);
#define CORE &aarch64_feature_v8
#define FP &aarch64_feature_fp
#define SIMD &aarch64_feature_simd
#define CRYPTO &aarch64_feature_crypto
#define CRC &aarch64_feature_crc
#define LSE &aarch64_feature_lse
#define LOR &aarch64_feature_lor
#define RDMA &aarch64_feature_rdma
#define FP_F16 &aarch64_feature_fp_f16
[AArch64][PATCH 1/14] Support ARMv8.2 FP16 Adv.SIMD instructions. ARMv8.2 adds 16-bit floating point operations as an optional extension to floating point and Adv.SIMD support. This patch set adds the 16-bit Adv.SIMD vector and scalar instructions to binutils, making them available when both +simd and +fp16 architecture extensions are enabled. The series also adds support for a new vector type, 2H, used by the FP16 scalar pairwise instructions. The patches in this series: - Add a FP16 Adv.SIMD feature macro for use by the encoding/decoding routines. - Add FP16 instructions in the group Vector Three Register Same. - Add FP16 instructions in the group Scalar Three Register Same. - Add FP16 instructions in the group Vector Two Register Misc. - Add FP16 instructions in the group Scalar Two Register Misc. - Add FP16 instructions in the group Vector Indexed Element. - Add FP16 instructions in the group Scalar Indexed Element. - Add FP16 instructions in the group Adv.SIMD Across Lanes. - Add FP16 instructions in the group Adv.SIMD Modified Immediate. - Rework some code for handling vector types to weaken its assumptions about available vector-types. - Add support for the 2H vector type. - Add FP16 instructions in the group Adv.SIMD Scalar Pairwise. - Add FP16 instructions in the group Adv.SIMD Shift By Immediate. - Add a FP16 instructions in the group Adv.SIMD Scalar Shift By Immediate. This patch adds the feature macro SIMD_F16 to the AArch64 encoding/decoding routines. It is used to decide when the new instructions are available to the assembler and is true when both +simd and +fp16 are selected. opcodes/ 2015-12-14 Matthew Wahab <matthew.wahab@arm.com> * aarch64-tbl.h (aarch64_feature_simd_f16): New. (SIMD_F16): New. Change-Id: Iee5a37928418f15e51dfaa927b24cafef7295e8f
2015-12-14 17:34:47 +01:00
#define SIMD_F16 &aarch64_feature_simd_f16
#define RAS &aarch64_feature_ras
[AArch64][Patch 5/5] Add instruction PSB CSYNC The Statistical Profile Extension adds the instruction PSB CSYNC as an alias for the HINT #17 instruction. This patch adds the instruction to binutils as a HINT alias that takes an operand. A new operand type, AARCH64_OPND_BARRIER_PSB, is added to represent the operand to PSB. A parser for the operand type is added to the assembler and a printer to the disassembler. The operand name "csync" is added to the list of HINT options with HINT number #17. Encoding and decoding of the operand is handled by the ins_hint/ext_hint functions added in the preceding patches. gas/ 2015-12-11 Matthew Wahab <matthew.wahab@arm.com> * config/tc-aarch64.c (aarch64_hint_opt_hsh): New. (parse_barrier_psb): New. (parse_operands): Add case for AARCH64_OPND_BARRIER_PSB. (md_begin): Set up aarch64_hint_opt_hsh. gas/testsuite/ 2015-12-11 Matthew Wahab <matthew.wahab@arm.com> * gas/aarch64/system-2.d: Enable the statistical profiling extension. Update the expected output. * gas/aarch64/system-2.s: Add tests for PSB CSYNC. * gas/aarch64/system.d: Update the expected output. include/opcode/ 2015-12-11 Matthew Wahab <matthew.wahab@arm.com> * aarch64.h (aarch64_opnd): Add AARCH64_OPND_BARRIER_PSB. * aarch64-asm-2.c: Regenerate. * aarch64-dis-2.c: Regenerate. * aarch64-opc-2.c: Regenerate. * aarch64-opc.c (aarch64_hint_options): Add "csync". (aarch64_print_operands): Handle AARCH64_OPND_BARRIER_PSB. * aarch64-tbl.h (aarch64_feature_stat_profile): New. (STAT_PROFILE): New. (aarch64_opcode_table): Add "psb". (AARCH64_OPERANDS): Add "BARRIER_PSB". Change-Id: I5ffb672d26a8b15b48785478d359350a9b70ca09
2015-12-11 11:22:40 +01:00
#define STAT_PROFILE &aarch64_feature_stat_profile
#define ARMV8_2 &aarch64_feature_v8_2
[AArch64][SVE 31/32] Add SVE instructions This patch adds the SVE instruction definitions and associated OP_* enum values. include/ * opcode/aarch64.h (AARCH64_FEATURE_SVE): New macro. (OP_MOV_P_P, OP_MOV_Z_P_Z, OP_MOV_Z_V, OP_MOV_Z_Z, OP_MOV_Z_Zi) (OP_MOVM_P_P_P, OP_MOVS_P_P, OP_MOVZS_P_P_P, OP_MOVZ_P_P_P) (OP_NOTS_P_P_P_Z, OP_NOT_P_P_P_Z): New aarch64_ops. opcodes/ * aarch64-tbl.h (OP_SVE_B, OP_SVE_BB, OP_SVE_BBBU, OP_SVE_BMB) (OP_SVE_BPB, OP_SVE_BUB, OP_SVE_BUBB, OP_SVE_BUU, OP_SVE_BZ) (OP_SVE_BZB, OP_SVE_BZBB, OP_SVE_BZU, OP_SVE_DD, OP_SVE_DDD) (OP_SVE_DMD, OP_SVE_DMH, OP_SVE_DMS, OP_SVE_DU, OP_SVE_DUD, OP_SVE_DUU) (OP_SVE_DUV_BHS, OP_SVE_DUV_BHSD, OP_SVE_DZD, OP_SVE_DZU, OP_SVE_HB) (OP_SVE_HMD, OP_SVE_HMS, OP_SVE_HU, OP_SVE_HUU, OP_SVE_HZU, OP_SVE_RR) (OP_SVE_RURV_BHSD, OP_SVE_RUV_BHSD, OP_SVE_SMD, OP_SVE_SMH, OP_SVE_SMS) (OP_SVE_SU, OP_SVE_SUS, OP_SVE_SUU, OP_SVE_SZS, OP_SVE_SZU, OP_SVE_UB) (OP_SVE_UUD, OP_SVE_UUS, OP_SVE_VMR_BHSD, OP_SVE_VMU_SD) (OP_SVE_VMVD_BHS, OP_SVE_VMVU_BHSD, OP_SVE_VMVU_SD, OP_SVE_VMVV_BHSD) (OP_SVE_VMVV_SD, OP_SVE_VMV_BHSD, OP_SVE_VMV_HSD, OP_SVE_VMV_SD) (OP_SVE_VM_SD, OP_SVE_VPU_BHSD, OP_SVE_VPV_BHSD, OP_SVE_VRR_BHSD) (OP_SVE_VRU_BHSD, OP_SVE_VR_BHSD, OP_SVE_VUR_BHSD, OP_SVE_VUU_BHSD) (OP_SVE_VUVV_BHSD, OP_SVE_VUVV_SD, OP_SVE_VUV_BHSD, OP_SVE_VUV_SD) (OP_SVE_VU_BHSD, OP_SVE_VU_HSD, OP_SVE_VU_SD, OP_SVE_VVD_BHS) (OP_SVE_VVU_BHSD, OP_SVE_VVVU_SD, OP_SVE_VVV_BHSD, OP_SVE_VVV_SD) (OP_SVE_VV_BHSD, OP_SVE_VV_HSD_BHS, OP_SVE_VV_SD, OP_SVE_VWW_BHSD) (OP_SVE_VXX_BHSD, OP_SVE_VZVD_BHS, OP_SVE_VZVU_BHSD, OP_SVE_VZVV_BHSD) (OP_SVE_VZVV_SD, OP_SVE_VZV_SD, OP_SVE_V_SD, OP_SVE_WU, OP_SVE_WV_BHSD) (OP_SVE_XU, OP_SVE_XUV_BHSD, OP_SVE_XVW_BHSD, OP_SVE_XV_BHSD) (OP_SVE_XWU, OP_SVE_XXU): New macros. (aarch64_feature_sve): New variable. (SVE): New macro. (_SVE_INSN): Likewise. (aarch64_opcode_table): Add SVE instructions. * aarch64-opc.h (extract_fields): Declare. * aarch64-opc-2.c: Regenerate. * aarch64-asm.c (do_misc_encoding): Handle the new SVE aarch64_ops. * aarch64-asm-2.c: Regenerate. * aarch64-dis.c (extract_fields): Make global. (do_misc_decoding): Handle the new SVE aarch64_ops. * aarch64-dis-2.c: Regenerate. gas/ * doc/c-aarch64.texi: Document the "sve" feature. * config/tc-aarch64.c (REG_TYPE_R_Z_BHSDQ_VZP): New register type. (get_reg_expected_msg): Handle it. (parse_operands): When parsing operands of an SVE instruction, disallow immediates that match REG_TYPE_R_Z_BHSDQ_VZP. (aarch64_features): Add an entry for SVE.
2016-09-21 17:58:48 +02:00
#define SVE &aarch64_feature_sve
#define ARMV8_3 &aarch64_feature_v8_3
#define FP_V8_3 &aarch64_feature_fp_v8_3
[AArch64] Add ARMv8.3 FCMLA and FCADD instructions Add support for FCMLA and FCADD complex arithmetic SIMD instructions. FCMLA has an indexed element variant where the index range has to be treated specially because a complex number takes two elements and the indexed vector size depends on the other operands. These complex number SIMD instructions are part of ARMv8.3 https://community.arm.com/groups/processors/blog/2016/10/27/armv8-a-architecture-2016-additions include/ 2016-11-18 Szabolcs Nagy <szabolcs.nagy@arm.com> * opcode/aarch64.h (enum aarch64_opnd): Add AARCH64_OPND_IMM_ROT1, AARCH64_OPND_IMM_ROT2, AARCH64_OPND_IMM_ROT3. (enum aarch64_op): Add OP_FCMLA_ELEM. opcodes/ 2016-11-18 Szabolcs Nagy <szabolcs.nagy@arm.com> * aarch64-tbl.h (QL_V3SAMEHSD_ROT, QL_ELEMENT_ROT): Define. (aarch64_feature_simd_v8_3, SIMD_V8_3): Define. (aarch64_opcode_table): Add fcmla and fcadd. (AARCH64_OPERANDS): Add IMM_ROT{1,2,3}. * aarch64-asm.h (aarch64_ins_imm_rotate): Declare. * aarch64-asm.c (aarch64_ins_imm_rotate): Define. * aarch64-dis.h (aarch64_ext_imm_rotate): Declare. * aarch64-dis.c (aarch64_ext_imm_rotate): Define. * aarch64-opc.h (enum aarch64_field_kind): Add FLD_rotate{1,2,3}. * aarch64-opc.c (fields): Add FLD_rotate{1,2,3}. (operand_general_constraint_met_p): Rotate and index range check. (aarch64_print_operand): Handle rotate operand. * aarch64-asm-2.c: Regenerate. * aarch64-dis-2.c: Likewise. * aarch64-opc-2.c: Likewise. gas/ 2016-11-18 Szabolcs Nagy <szabolcs.nagy@arm.com> * config/tc-aarch64.c (parse_operands): Handle AARCH64_OPND_IMM_ROT*. * testsuite/gas/aarch64/advsimd-armv8_3.d: New. * testsuite/gas/aarch64/advsimd-armv8_3.s: New. * testsuite/gas/aarch64/illegal-fcmla.s: New. * testsuite/gas/aarch64/illegal-fcmla.l: New. * testsuite/gas/aarch64/illegal-fcmla.d: New.
2016-11-18 11:02:16 +01:00
#define SIMD_V8_3 &aarch64_feature_simd_v8_3
#define RCPC &aarch64_feature_rcpc
#define CORE_INSN(NAME,OPCODE,MASK,CLASS,OP,OPS,QUALS,FLAGS) \
{ NAME, OPCODE, MASK, CLASS, OP, CORE, OPS, QUALS, FLAGS, 0, NULL }
#define __FP_INSN(NAME,OPCODE,MASK,CLASS,OP,OPS,QUALS,FLAGS) \
{ NAME, OPCODE, MASK, CLASS, OP, FP, OPS, QUALS, FLAGS, 0, NULL }
#define SIMD_INSN(NAME,OPCODE,MASK,CLASS,OP,OPS,QUALS,FLAGS) \
{ NAME, OPCODE, MASK, CLASS, OP, SIMD, OPS, QUALS, FLAGS, 0, NULL }
#define CRYP_INSN(NAME,OPCODE,MASK,CLASS,OPS,QUALS,FLAGS) \
{ NAME, OPCODE, MASK, CLASS, 0, CRYPTO, OPS, QUALS, FLAGS, 0, NULL }
#define _CRC_INSN(NAME,OPCODE,MASK,CLASS,OPS,QUALS,FLAGS) \
{ NAME, OPCODE, MASK, CLASS, 0, CRC, OPS, QUALS, FLAGS, 0, NULL }
#define _LSE_INSN(NAME,OPCODE,MASK,CLASS,OPS,QUALS,FLAGS) \
{ NAME, OPCODE, MASK, CLASS, 0, LSE, OPS, QUALS, FLAGS, 0, NULL }
#define _LOR_INSN(NAME,OPCODE,MASK,CLASS,OPS,QUALS,FLAGS) \
{ NAME, OPCODE, MASK, CLASS, 0, LOR, OPS, QUALS, FLAGS, 0, NULL }
#define RDMA_INSN(NAME,OPCODE,MASK,CLASS,OPS,QUALS,FLAGS) \
{ NAME, OPCODE, MASK, CLASS, 0, RDMA, OPS, QUALS, FLAGS, 0, NULL }
#define FF16_INSN(NAME,OPCODE,MASK,CLASS,OPS,QUALS,FLAGS) \
{ NAME, OPCODE, MASK, CLASS, 0, FP_F16, OPS, QUALS, FLAGS, 0, NULL }
#define SF16_INSN(NAME,OPCODE,MASK,CLASS,OPS,QUALS,FLAGS) \
{ NAME, OPCODE, MASK, CLASS, 0, SIMD_F16, OPS, QUALS, FLAGS, 0, NULL }
#define V8_2_INSN(NAME,OPCODE,MASK,CLASS,OP,OPS,QUALS,FLAGS) \
{ NAME, OPCODE, MASK, CLASS, OP, ARMV8_2, OPS, QUALS, FLAGS, 0, NULL }
[AArch64][SVE 31/32] Add SVE instructions This patch adds the SVE instruction definitions and associated OP_* enum values. include/ * opcode/aarch64.h (AARCH64_FEATURE_SVE): New macro. (OP_MOV_P_P, OP_MOV_Z_P_Z, OP_MOV_Z_V, OP_MOV_Z_Z, OP_MOV_Z_Zi) (OP_MOVM_P_P_P, OP_MOVS_P_P, OP_MOVZS_P_P_P, OP_MOVZ_P_P_P) (OP_NOTS_P_P_P_Z, OP_NOT_P_P_P_Z): New aarch64_ops. opcodes/ * aarch64-tbl.h (OP_SVE_B, OP_SVE_BB, OP_SVE_BBBU, OP_SVE_BMB) (OP_SVE_BPB, OP_SVE_BUB, OP_SVE_BUBB, OP_SVE_BUU, OP_SVE_BZ) (OP_SVE_BZB, OP_SVE_BZBB, OP_SVE_BZU, OP_SVE_DD, OP_SVE_DDD) (OP_SVE_DMD, OP_SVE_DMH, OP_SVE_DMS, OP_SVE_DU, OP_SVE_DUD, OP_SVE_DUU) (OP_SVE_DUV_BHS, OP_SVE_DUV_BHSD, OP_SVE_DZD, OP_SVE_DZU, OP_SVE_HB) (OP_SVE_HMD, OP_SVE_HMS, OP_SVE_HU, OP_SVE_HUU, OP_SVE_HZU, OP_SVE_RR) (OP_SVE_RURV_BHSD, OP_SVE_RUV_BHSD, OP_SVE_SMD, OP_SVE_SMH, OP_SVE_SMS) (OP_SVE_SU, OP_SVE_SUS, OP_SVE_SUU, OP_SVE_SZS, OP_SVE_SZU, OP_SVE_UB) (OP_SVE_UUD, OP_SVE_UUS, OP_SVE_VMR_BHSD, OP_SVE_VMU_SD) (OP_SVE_VMVD_BHS, OP_SVE_VMVU_BHSD, OP_SVE_VMVU_SD, OP_SVE_VMVV_BHSD) (OP_SVE_VMVV_SD, OP_SVE_VMV_BHSD, OP_SVE_VMV_HSD, OP_SVE_VMV_SD) (OP_SVE_VM_SD, OP_SVE_VPU_BHSD, OP_SVE_VPV_BHSD, OP_SVE_VRR_BHSD) (OP_SVE_VRU_BHSD, OP_SVE_VR_BHSD, OP_SVE_VUR_BHSD, OP_SVE_VUU_BHSD) (OP_SVE_VUVV_BHSD, OP_SVE_VUVV_SD, OP_SVE_VUV_BHSD, OP_SVE_VUV_SD) (OP_SVE_VU_BHSD, OP_SVE_VU_HSD, OP_SVE_VU_SD, OP_SVE_VVD_BHS) (OP_SVE_VVU_BHSD, OP_SVE_VVVU_SD, OP_SVE_VVV_BHSD, OP_SVE_VVV_SD) (OP_SVE_VV_BHSD, OP_SVE_VV_HSD_BHS, OP_SVE_VV_SD, OP_SVE_VWW_BHSD) (OP_SVE_VXX_BHSD, OP_SVE_VZVD_BHS, OP_SVE_VZVU_BHSD, OP_SVE_VZVV_BHSD) (OP_SVE_VZVV_SD, OP_SVE_VZV_SD, OP_SVE_V_SD, OP_SVE_WU, OP_SVE_WV_BHSD) (OP_SVE_XU, OP_SVE_XUV_BHSD, OP_SVE_XVW_BHSD, OP_SVE_XV_BHSD) (OP_SVE_XWU, OP_SVE_XXU): New macros. (aarch64_feature_sve): New variable. (SVE): New macro. (_SVE_INSN): Likewise. (aarch64_opcode_table): Add SVE instructions. * aarch64-opc.h (extract_fields): Declare. * aarch64-opc-2.c: Regenerate. * aarch64-asm.c (do_misc_encoding): Handle the new SVE aarch64_ops. * aarch64-asm-2.c: Regenerate. * aarch64-dis.c (extract_fields): Make global. (do_misc_decoding): Handle the new SVE aarch64_ops. * aarch64-dis-2.c: Regenerate. gas/ * doc/c-aarch64.texi: Document the "sve" feature. * config/tc-aarch64.c (REG_TYPE_R_Z_BHSDQ_VZP): New register type. (get_reg_expected_msg): Handle it. (parse_operands): When parsing operands of an SVE instruction, disallow immediates that match REG_TYPE_R_Z_BHSDQ_VZP. (aarch64_features): Add an entry for SVE.
2016-09-21 17:58:48 +02:00
#define _SVE_INSN(NAME,OPCODE,MASK,CLASS,OP,OPS,QUALS,FLAGS,TIED) \
{ NAME, OPCODE, MASK, CLASS, OP, SVE, OPS, QUALS, \
FLAGS | F_STRICT, TIED, NULL }
#define V8_3_INSN(NAME,OPCODE,MASK,CLASS,OPS,QUALS,FLAGS) \
{ NAME, OPCODE, MASK, CLASS, 0, ARMV8_3, OPS, QUALS, FLAGS, 0, NULL }
#define RCPC_INSN(NAME,OPCODE,MASK,CLASS,OPS,QUALS,FLAGS) \
{ NAME, OPCODE, MASK, CLASS, 0, RCPC, OPS, QUALS, FLAGS, 0, NULL }
struct aarch64_opcode aarch64_opcode_table[] =
{
/* Add/subtract (with carry). */
CORE_INSN ("adc", 0x1a000000, 0x7fe0fc00, addsub_carry, 0, OP3 (Rd, Rn, Rm), QL_I3SAMER, F_SF),
CORE_INSN ("adcs", 0x3a000000, 0x7fe0fc00, addsub_carry, 0, OP3 (Rd, Rn, Rm), QL_I3SAMER, F_SF),
CORE_INSN ("sbc", 0x5a000000, 0x7fe0fc00, addsub_carry, 0, OP3 (Rd, Rn, Rm), QL_I3SAMER, F_HAS_ALIAS | F_SF),
CORE_INSN ("ngc", 0x5a0003e0, 0x7fe0ffe0, addsub_carry, 0, OP2 (Rd, Rm), QL_I2SAME, F_ALIAS | F_SF),
CORE_INSN ("sbcs", 0x7a000000, 0x7fe0fc00, addsub_carry, 0, OP3 (Rd, Rn, Rm), QL_I3SAMER, F_HAS_ALIAS | F_SF),
CORE_INSN ("ngcs", 0x7a0003e0, 0x7fe0ffe0, addsub_carry, 0, OP2 (Rd, Rm), QL_I2SAME, F_ALIAS | F_SF),
/* Add/subtract (extended register). */
CORE_INSN ("add", 0x0b200000, 0x7fe00000, addsub_ext, 0, OP3 (Rd_SP, Rn_SP, Rm_EXT), QL_I3_EXT, F_SF),
CORE_INSN ("adds", 0x2b200000, 0x7fe00000, addsub_ext, 0, OP3 (Rd, Rn_SP, Rm_EXT), QL_I3_EXT, F_HAS_ALIAS | F_SF),
CORE_INSN ("cmn", 0x2b20001f, 0x7fe0001f, addsub_ext, 0, OP2 (Rn_SP, Rm_EXT), QL_I2_EXT, F_ALIAS | F_SF),
CORE_INSN ("sub", 0x4b200000, 0x7fe00000, addsub_ext, 0, OP3 (Rd_SP, Rn_SP, Rm_EXT), QL_I3_EXT, F_SF),
CORE_INSN ("subs", 0x6b200000, 0x7fe00000, addsub_ext, 0, OP3 (Rd, Rn_SP, Rm_EXT), QL_I3_EXT, F_HAS_ALIAS | F_SF),
CORE_INSN ("cmp", 0x6b20001f, 0x7fe0001f, addsub_ext, 0, OP2 (Rn_SP, Rm_EXT), QL_I2_EXT, F_ALIAS | F_SF),
/* Add/subtract (immediate). */
CORE_INSN ("add", 0x11000000, 0x7f000000, addsub_imm, OP_ADD, OP3 (Rd_SP, Rn_SP, AIMM), QL_R2NIL, F_HAS_ALIAS | F_SF),
CORE_INSN ("mov", 0x11000000, 0x7ffffc00, addsub_imm, 0, OP2 (Rd_SP, Rn_SP), QL_I2SP, F_ALIAS | F_SF),
CORE_INSN ("adds", 0x31000000, 0x7f000000, addsub_imm, 0, OP3 (Rd, Rn_SP, AIMM), QL_R2NIL, F_HAS_ALIAS | F_SF),
CORE_INSN ("cmn", 0x3100001f, 0x7f00001f, addsub_imm, 0, OP2 (Rn_SP, AIMM), QL_R1NIL, F_ALIAS | F_SF),
CORE_INSN ("sub", 0x51000000, 0x7f000000, addsub_imm, 0, OP3 (Rd_SP, Rn_SP, AIMM), QL_R2NIL, F_SF),
CORE_INSN ("subs", 0x71000000, 0x7f000000, addsub_imm, 0, OP3 (Rd, Rn_SP, AIMM), QL_R2NIL, F_HAS_ALIAS | F_SF),
CORE_INSN ("cmp", 0x7100001f, 0x7f00001f, addsub_imm, 0, OP2 (Rn_SP, AIMM), QL_R1NIL, F_ALIAS | F_SF),
/* Add/subtract (shifted register). */
CORE_INSN ("add", 0x0b000000, 0x7f200000, addsub_shift, 0, OP3 (Rd, Rn, Rm_SFT), QL_I3SAMER, F_SF),
CORE_INSN ("adds", 0x2b000000, 0x7f200000, addsub_shift, 0, OP3 (Rd, Rn, Rm_SFT), QL_I3SAMER, F_HAS_ALIAS | F_SF),
CORE_INSN ("cmn", 0x2b00001f, 0x7f20001f, addsub_shift, 0, OP2 (Rn, Rm_SFT), QL_I2SAME, F_ALIAS | F_SF),
CORE_INSN ("sub", 0x4b000000, 0x7f200000, addsub_shift, 0, OP3 (Rd, Rn, Rm_SFT), QL_I3SAMER, F_HAS_ALIAS | F_SF),
CORE_INSN ("neg", 0x4b0003e0, 0x7f2003e0, addsub_shift, 0, OP2 (Rd, Rm_SFT), QL_I2SAME, F_ALIAS | F_SF),
CORE_INSN ("subs", 0x6b000000, 0x7f200000, addsub_shift, 0, OP3 (Rd, Rn, Rm_SFT), QL_I3SAMER, F_HAS_ALIAS | F_SF),
CORE_INSN ("cmp", 0x6b00001f, 0x7f20001f, addsub_shift, 0, OP2 (Rn, Rm_SFT), QL_I2SAME, F_ALIAS | F_SF),
CORE_INSN ("negs", 0x6b0003e0, 0x7f2003e0, addsub_shift, 0, OP2 (Rd, Rm_SFT), QL_I2SAME, F_ALIAS | F_SF),
/* AdvSIMD across lanes. */
SIMD_INSN ("saddlv", 0x0e303800, 0xbf3ffc00, asimdall, 0, OP2 (Fd, Vn), QL_XLANES_L, F_SIZEQ),
SIMD_INSN ("smaxv", 0x0e30a800, 0xbf3ffc00, asimdall, 0, OP2 (Fd, Vn), QL_XLANES, F_SIZEQ),
SIMD_INSN ("sminv", 0x0e31a800, 0xbf3ffc00, asimdall, 0, OP2 (Fd, Vn), QL_XLANES, F_SIZEQ),
SIMD_INSN ("addv", 0x0e31b800, 0xbf3ffc00, asimdall, 0, OP2 (Fd, Vn), QL_XLANES, F_SIZEQ),
SIMD_INSN ("uaddlv", 0x2e303800, 0xbf3ffc00, asimdall, 0, OP2 (Fd, Vn), QL_XLANES_L, F_SIZEQ),
SIMD_INSN ("umaxv", 0x2e30a800, 0xbf3ffc00, asimdall, 0, OP2 (Fd, Vn), QL_XLANES, F_SIZEQ),
SIMD_INSN ("uminv", 0x2e31a800, 0xbf3ffc00, asimdall, 0, OP2 (Fd, Vn), QL_XLANES, F_SIZEQ),
SIMD_INSN ("fmaxnmv",0x2e30c800, 0xbfbffc00, asimdall, 0, OP2 (Fd, Vn), QL_XLANES_FP, F_SIZEQ),
SF16_INSN ("fmaxnmv",0x0e30c800, 0xbffffc00, asimdall, OP2 (Fd, Vn), QL_XLANES_FP_H, F_SIZEQ),
SIMD_INSN ("fmaxv", 0x2e30f800, 0xbfbffc00, asimdall, 0, OP2 (Fd, Vn), QL_XLANES_FP, F_SIZEQ),
SF16_INSN ("fmaxv", 0x0e30f800, 0xbffffc00, asimdall, OP2 (Fd, Vn), QL_XLANES_FP_H, F_SIZEQ),
SIMD_INSN ("fminnmv",0x2eb0c800, 0xbfbffc00, asimdall, 0, OP2 (Fd, Vn), QL_XLANES_FP, F_SIZEQ),
SF16_INSN ("fminnmv",0x0eb0c800, 0xbffffc00, asimdall, OP2 (Fd, Vn), QL_XLANES_FP_H, F_SIZEQ),
SIMD_INSN ("fminv", 0x2eb0f800, 0xbfbffc00, asimdall, 0, OP2 (Fd, Vn), QL_XLANES_FP, F_SIZEQ),
SF16_INSN ("fminv", 0x0eb0f800, 0xbffffc00, asimdall, OP2 (Fd, Vn), QL_XLANES_FP_H, F_SIZEQ),
/* AdvSIMD three different. */
SIMD_INSN ("saddl", 0x0e200000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3LONGBHS, F_SIZEQ),
SIMD_INSN ("saddl2", 0x4e200000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3LONGBHS2, F_SIZEQ),
SIMD_INSN ("saddw", 0x0e201000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3WIDEBHS, F_SIZEQ),
SIMD_INSN ("saddw2", 0x4e201000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3WIDEBHS2, F_SIZEQ),
SIMD_INSN ("ssubl", 0x0e202000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3LONGBHS, F_SIZEQ),
SIMD_INSN ("ssubl2", 0x4e202000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3LONGBHS2, F_SIZEQ),
SIMD_INSN ("ssubw", 0x0e203000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3WIDEBHS, F_SIZEQ),
SIMD_INSN ("ssubw2", 0x4e203000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3WIDEBHS2, F_SIZEQ),
SIMD_INSN ("addhn", 0x0e204000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3NARRBHS, F_SIZEQ),
SIMD_INSN ("addhn2", 0x4e204000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3NARRBHS2, F_SIZEQ),
SIMD_INSN ("sabal", 0x0e205000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3LONGBHS, F_SIZEQ),
SIMD_INSN ("sabal2", 0x4e205000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3LONGBHS2, F_SIZEQ),
SIMD_INSN ("subhn", 0x0e206000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3NARRBHS, F_SIZEQ),
SIMD_INSN ("subhn2", 0x4e206000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3NARRBHS2, F_SIZEQ),
SIMD_INSN ("sabdl", 0x0e207000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3LONGBHS, F_SIZEQ),
SIMD_INSN ("sabdl2", 0x4e207000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3LONGBHS2, F_SIZEQ),
SIMD_INSN ("smlal", 0x0e208000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3LONGBHS, F_SIZEQ),
SIMD_INSN ("smlal2", 0x4e208000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3LONGBHS2, F_SIZEQ),
SIMD_INSN ("sqdmlal", 0x0e209000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3LONGHS, F_SIZEQ),
SIMD_INSN ("sqdmlal2",0x4e209000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3LONGHS2, F_SIZEQ),
SIMD_INSN ("smlsl", 0x0e20a000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3LONGBHS, F_SIZEQ),
SIMD_INSN ("smlsl2", 0x4e20a000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3LONGBHS2, F_SIZEQ),
SIMD_INSN ("sqdmlsl", 0x0e20b000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3LONGHS, F_SIZEQ),
SIMD_INSN ("sqdmlsl2",0x4e20b000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3LONGHS2, F_SIZEQ),
SIMD_INSN ("smull", 0x0e20c000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3LONGBHS, F_SIZEQ),
SIMD_INSN ("smull2", 0x4e20c000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3LONGBHS2, F_SIZEQ),
SIMD_INSN ("sqdmull", 0x0e20d000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3LONGHS, F_SIZEQ),
SIMD_INSN ("sqdmull2",0x4e20d000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3LONGHS2, F_SIZEQ),
SIMD_INSN ("pmull", 0x0e20e000, 0xffe0fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3LONGB, 0),
CRYP_INSN ("pmull", 0x0ee0e000, 0xffe0fc00, asimddiff, OP3 (Vd, Vn, Vm), QL_V3LONGD, 0),
SIMD_INSN ("pmull2", 0x4e20e000, 0xffe0fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3LONGB2, 0),
CRYP_INSN ("pmull2", 0x4ee0e000, 0xffe0fc00, asimddiff, OP3 (Vd, Vn, Vm), QL_V3LONGD2, 0),
SIMD_INSN ("uaddl", 0x2e200000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3LONGBHS, F_SIZEQ),
SIMD_INSN ("uaddl2", 0x6e200000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3LONGBHS2, F_SIZEQ),
SIMD_INSN ("uaddw", 0x2e201000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3WIDEBHS, F_SIZEQ),
SIMD_INSN ("uaddw2", 0x6e201000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3WIDEBHS2, F_SIZEQ),
SIMD_INSN ("usubl", 0x2e202000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3LONGBHS, F_SIZEQ),
SIMD_INSN ("usubl2", 0x6e202000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3LONGBHS2, F_SIZEQ),
SIMD_INSN ("usubw", 0x2e203000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3WIDEBHS, F_SIZEQ),
SIMD_INSN ("usubw2", 0x6e203000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3WIDEBHS2, F_SIZEQ),
SIMD_INSN ("raddhn", 0x2e204000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3NARRBHS, F_SIZEQ),
SIMD_INSN ("raddhn2", 0x6e204000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3NARRBHS2, F_SIZEQ),
SIMD_INSN ("uabal", 0x2e205000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3LONGBHS, F_SIZEQ),
SIMD_INSN ("uabal2", 0x6e205000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3LONGBHS2, F_SIZEQ),
SIMD_INSN ("rsubhn", 0x2e206000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3NARRBHS, F_SIZEQ),
SIMD_INSN ("rsubhn2", 0x6e206000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3NARRBHS2, F_SIZEQ),
SIMD_INSN ("uabdl", 0x2e207000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3LONGBHS, F_SIZEQ),
SIMD_INSN ("uabdl2", 0x6e207000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3LONGBHS2, F_SIZEQ),
SIMD_INSN ("umlal", 0x2e208000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3LONGBHS, F_SIZEQ),
SIMD_INSN ("umlal2", 0x6e208000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3LONGBHS2, F_SIZEQ),
SIMD_INSN ("umlsl", 0x2e20a000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3LONGBHS, F_SIZEQ),
SIMD_INSN ("umlsl2", 0x6e20a000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3LONGBHS2, F_SIZEQ),
SIMD_INSN ("umull", 0x2e20c000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3LONGBHS, F_SIZEQ),
SIMD_INSN ("umull2", 0x6e20c000, 0xff20fc00, asimddiff, 0, OP3 (Vd, Vn, Vm), QL_V3LONGBHS2, F_SIZEQ),
/* AdvSIMD vector x indexed element. */
SIMD_INSN ("smlal", 0x0f002000, 0xff00f400, asimdelem, 0, OP3 (Vd, Vn, Em), QL_ELEMENT_L, F_SIZEQ),
SIMD_INSN ("smlal2", 0x4f002000, 0xff00f400, asimdelem, 0, OP3 (Vd, Vn, Em), QL_ELEMENT_L2, F_SIZEQ),
SIMD_INSN ("sqdmlal", 0x0f003000, 0xff00f400, asimdelem, 0, OP3 (Vd, Vn, Em), QL_ELEMENT_L, F_SIZEQ),
SIMD_INSN ("sqdmlal2",0x4f003000, 0xff00f400, asimdelem, 0, OP3 (Vd, Vn, Em), QL_ELEMENT_L2, F_SIZEQ),
SIMD_INSN ("smlsl", 0x0f006000, 0xff00f400, asimdelem, 0, OP3 (Vd, Vn, Em), QL_ELEMENT_L, F_SIZEQ),
SIMD_INSN ("smlsl2", 0x4f006000, 0xff00f400, asimdelem, 0, OP3 (Vd, Vn, Em), QL_ELEMENT_L2, F_SIZEQ),
SIMD_INSN ("sqdmlsl", 0x0f007000, 0xff00f400, asimdelem, 0, OP3 (Vd, Vn, Em), QL_ELEMENT_L, F_SIZEQ),
SIMD_INSN ("sqdmlsl2",0x4f007000, 0xff00f400, asimdelem, 0, OP3 (Vd, Vn, Em), QL_ELEMENT_L2, F_SIZEQ),
SIMD_INSN ("mul", 0x0f008000, 0xbf00f400, asimdelem, 0, OP3 (Vd, Vn, Em), QL_ELEMENT, F_SIZEQ),
SIMD_INSN ("smull", 0x0f00a000, 0xff00f400, asimdelem, 0, OP3 (Vd, Vn, Em), QL_ELEMENT_L, F_SIZEQ),
SIMD_INSN ("smull2", 0x4f00a000, 0xff00f400, asimdelem, 0, OP3 (Vd, Vn, Em), QL_ELEMENT_L2, F_SIZEQ),
SIMD_INSN ("sqdmull", 0x0f00b000, 0xff00f400, asimdelem, 0, OP3 (Vd, Vn, Em), QL_ELEMENT_L, F_SIZEQ),
SIMD_INSN ("sqdmull2",0x4f00b000, 0xff00f400, asimdelem, 0, OP3 (Vd, Vn, Em), QL_ELEMENT_L2, F_SIZEQ),
SIMD_INSN ("sqdmulh", 0x0f00c000, 0xbf00f400, asimdelem, 0, OP3 (Vd, Vn, Em), QL_ELEMENT, F_SIZEQ),
SIMD_INSN ("sqrdmulh",0x0f00d000, 0xbf00f400, asimdelem, 0, OP3 (Vd, Vn, Em), QL_ELEMENT, F_SIZEQ),
SIMD_INSN ("fmla", 0x0f801000, 0xbf80f400, asimdelem, 0, OP3 (Vd, Vn, Em), QL_ELEMENT_FP, F_SIZEQ),
SF16_INSN ("fmla", 0x0f001000, 0xbfc0f400, asimdelem, OP3 (Vd, Vn, Em), QL_ELEMENT_FP_H, F_SIZEQ),
SIMD_INSN ("fmls", 0x0f805000, 0xbf80f400, asimdelem, 0, OP3 (Vd, Vn, Em), QL_ELEMENT_FP, F_SIZEQ),
SF16_INSN ("fmls", 0x0f005000, 0xbfc0f400, asimdelem, OP3 (Vd, Vn, Em), QL_ELEMENT_FP_H, F_SIZEQ),
SIMD_INSN ("fmul", 0x0f809000, 0xbf80f400, asimdelem, 0, OP3 (Vd, Vn, Em), QL_ELEMENT_FP, F_SIZEQ),
SF16_INSN ("fmul", 0x0f009000, 0xbfc0f400, asimdelem, OP3 (Vd, Vn, Em), QL_ELEMENT_FP_H, F_SIZEQ),
SIMD_INSN ("mla", 0x2f000000, 0xbf00f400, asimdelem, 0, OP3 (Vd, Vn, Em), QL_ELEMENT, F_SIZEQ),
SIMD_INSN ("umlal", 0x2f002000, 0xff00f400, asimdelem, 0, OP3 (Vd, Vn, Em), QL_ELEMENT_L, F_SIZEQ),
SIMD_INSN ("umlal2", 0x6f002000, 0xff00f400, asimdelem, 0, OP3 (Vd, Vn, Em), QL_ELEMENT_L2, F_SIZEQ),
SIMD_INSN ("mls", 0x2f004000, 0xbf00f400, asimdelem, 0, OP3 (Vd, Vn, Em), QL_ELEMENT, F_SIZEQ),
SIMD_INSN ("umlsl", 0x2f006000, 0xff00f400, asimdelem, 0, OP3 (Vd, Vn, Em), QL_ELEMENT_L, F_SIZEQ),
SIMD_INSN ("umlsl2", 0x6f006000, 0xff00f400, asimdelem, 0, OP3 (Vd, Vn, Em), QL_ELEMENT_L2, F_SIZEQ),
SIMD_INSN ("umull", 0x2f00a000, 0xff00f400, asimdelem, 0, OP3 (Vd, Vn, Em), QL_ELEMENT_L, F_SIZEQ),
SIMD_INSN ("umull2", 0x6f00a000, 0xff00f400, asimdelem, 0, OP3 (Vd, Vn, Em), QL_ELEMENT_L2, F_SIZEQ),
SIMD_INSN ("fmulx", 0x2f809000, 0xbf80f400, asimdelem, 0, OP3 (Vd, Vn, Em), QL_ELEMENT_FP, F_SIZEQ),
SF16_INSN ("fmulx", 0x2f009000, 0xbfc0f400, asimdelem, OP3 (Vd, Vn, Em), QL_ELEMENT_FP_H, F_SIZEQ),
RDMA_INSN ("sqrdmlah",0x2f00d000, 0xbf00f400, asimdelem, OP3 (Vd, Vn, Em), QL_ELEMENT, F_SIZEQ),
RDMA_INSN ("sqrdmlsh",0x2f00f000, 0xbf00f400, asimdelem, OP3 (Vd, Vn, Em), QL_ELEMENT, F_SIZEQ),
[AArch64] Add ARMv8.3 FCMLA and FCADD instructions Add support for FCMLA and FCADD complex arithmetic SIMD instructions. FCMLA has an indexed element variant where the index range has to be treated specially because a complex number takes two elements and the indexed vector size depends on the other operands. These complex number SIMD instructions are part of ARMv8.3 https://community.arm.com/groups/processors/blog/2016/10/27/armv8-a-architecture-2016-additions include/ 2016-11-18 Szabolcs Nagy <szabolcs.nagy@arm.com> * opcode/aarch64.h (enum aarch64_opnd): Add AARCH64_OPND_IMM_ROT1, AARCH64_OPND_IMM_ROT2, AARCH64_OPND_IMM_ROT3. (enum aarch64_op): Add OP_FCMLA_ELEM. opcodes/ 2016-11-18 Szabolcs Nagy <szabolcs.nagy@arm.com> * aarch64-tbl.h (QL_V3SAMEHSD_ROT, QL_ELEMENT_ROT): Define. (aarch64_feature_simd_v8_3, SIMD_V8_3): Define. (aarch64_opcode_table): Add fcmla and fcadd. (AARCH64_OPERANDS): Add IMM_ROT{1,2,3}. * aarch64-asm.h (aarch64_ins_imm_rotate): Declare. * aarch64-asm.c (aarch64_ins_imm_rotate): Define. * aarch64-dis.h (aarch64_ext_imm_rotate): Declare. * aarch64-dis.c (aarch64_ext_imm_rotate): Define. * aarch64-opc.h (enum aarch64_field_kind): Add FLD_rotate{1,2,3}. * aarch64-opc.c (fields): Add FLD_rotate{1,2,3}. (operand_general_constraint_met_p): Rotate and index range check. (aarch64_print_operand): Handle rotate operand. * aarch64-asm-2.c: Regenerate. * aarch64-dis-2.c: Likewise. * aarch64-opc-2.c: Likewise. gas/ 2016-11-18 Szabolcs Nagy <szabolcs.nagy@arm.com> * config/tc-aarch64.c (parse_operands): Handle AARCH64_OPND_IMM_ROT*. * testsuite/gas/aarch64/advsimd-armv8_3.d: New. * testsuite/gas/aarch64/advsimd-armv8_3.s: New. * testsuite/gas/aarch64/illegal-fcmla.s: New. * testsuite/gas/aarch64/illegal-fcmla.l: New. * testsuite/gas/aarch64/illegal-fcmla.d: New.
2016-11-18 11:02:16 +01:00
{"fcmla", 0x2f001000, 0xbf009400, asimdelem, OP_FCMLA_ELEM, SIMD_V8_3, OP4 (Vd, Vn, Em, IMM_ROT2), QL_ELEMENT_ROT, F_SIZEQ, 0, NULL},
/* AdvSIMD EXT. */
SIMD_INSN ("ext", 0x2e000000, 0xbfe08400, asimdext, 0, OP4 (Vd, Vn, Vm, IDX), QL_VEXT, F_SIZEQ),
/* AdvSIMD modified immediate. */
SIMD_INSN ("movi", 0x0f000400, 0xbff89c00, asimdimm, 0, OP2 (Vd, SIMD_IMM_SFT), QL_SIMD_IMM_S0W, F_SIZEQ),
SIMD_INSN ("orr", 0x0f001400, 0xbff89c00, asimdimm, 0, OP2 (Vd, SIMD_IMM_SFT), QL_SIMD_IMM_S0W, F_SIZEQ),
SIMD_INSN ("movi", 0x0f008400, 0xbff8dc00, asimdimm, 0, OP2 (Vd, SIMD_IMM_SFT), QL_SIMD_IMM_S0H, F_SIZEQ),
SIMD_INSN ("orr", 0x0f009400, 0xbff8dc00, asimdimm, 0, OP2 (Vd, SIMD_IMM_SFT), QL_SIMD_IMM_S0H, F_SIZEQ),
SIMD_INSN ("movi", 0x0f00c400, 0xbff8ec00, asimdimm, 0, OP2 (Vd, SIMD_IMM_SFT), QL_SIMD_IMM_S1W, F_SIZEQ),
SIMD_INSN ("movi", 0x0f00e400, 0xbff8fc00, asimdimm, 0, OP2 (Vd, SIMD_IMM_SFT), QL_SIMD_IMM_B, F_SIZEQ),
SIMD_INSN ("fmov", 0x0f00f400, 0xbff8fc00, asimdimm, 0, OP2 (Vd, SIMD_FPIMM), QL_SIMD_IMM_S, F_SIZEQ),
SF16_INSN ("fmov", 0x0f00fc00, 0xbff8fc00, asimdimm, OP2 (Vd, SIMD_FPIMM), QL_SIMD_IMM_H, F_SIZEQ),
SIMD_INSN ("mvni", 0x2f000400, 0xbff89c00, asimdimm, 0, OP2 (Vd, SIMD_IMM_SFT), QL_SIMD_IMM_S0W, F_SIZEQ),
SIMD_INSN ("bic", 0x2f001400, 0xbff89c00, asimdimm, 0, OP2 (Vd, SIMD_IMM_SFT), QL_SIMD_IMM_S0W, F_SIZEQ),
SIMD_INSN ("mvni", 0x2f008400, 0xbff8dc00, asimdimm, 0, OP2 (Vd, SIMD_IMM_SFT), QL_SIMD_IMM_S0H, F_SIZEQ),
SIMD_INSN ("bic", 0x2f009400, 0xbff8dc00, asimdimm, 0, OP2 (Vd, SIMD_IMM_SFT), QL_SIMD_IMM_S0H, F_SIZEQ),
SIMD_INSN ("mvni", 0x2f00c400, 0xbff8ec00, asimdimm, 0, OP2 (Vd, SIMD_IMM_SFT), QL_SIMD_IMM_S1W, F_SIZEQ),
SIMD_INSN ("movi", 0x2f00e400, 0xfff8fc00, asimdimm, 0, OP2 (Sd, SIMD_IMM), QL_SIMD_IMM_D, F_SIZEQ),
SIMD_INSN ("movi", 0x6f00e400, 0xfff8fc00, asimdimm, 0, OP2 (Vd, SIMD_IMM), QL_SIMD_IMM_V2D, F_SIZEQ),
SIMD_INSN ("fmov", 0x6f00f400, 0xfff8fc00, asimdimm, 0, OP2 (Vd, SIMD_FPIMM), QL_SIMD_IMM_V2D, F_SIZEQ),
/* AdvSIMD copy. */
SIMD_INSN ("dup", 0x0e000400, 0xbfe0fc00, asimdins, 0, OP2 (Vd, En), QL_DUP_VX, F_T),
SIMD_INSN ("dup", 0x0e000c00, 0xbfe0fc00, asimdins, 0, OP2 (Vd, Rn), QL_DUP_VR, F_T),
SIMD_INSN ("smov",0x0e002c00, 0xbfe0fc00, asimdins, 0, OP2 (Rd, En), QL_SMOV, F_GPRSIZE_IN_Q),
SIMD_INSN ("umov",0x0e003c00, 0xbfe0fc00, asimdins, 0, OP2 (Rd, En), QL_UMOV, F_HAS_ALIAS | F_GPRSIZE_IN_Q),
SIMD_INSN ("mov", 0x0e003c00, 0xbfe0fc00, asimdins, 0, OP2 (Rd, En), QL_MOV, F_ALIAS | F_GPRSIZE_IN_Q),
SIMD_INSN ("ins", 0x4e001c00, 0xffe0fc00, asimdins, 0, OP2 (Ed, Rn), QL_INS_XR, F_HAS_ALIAS),
SIMD_INSN ("mov", 0x4e001c00, 0xffe0fc00, asimdins, 0, OP2 (Ed, Rn), QL_INS_XR, F_ALIAS),
SIMD_INSN ("ins", 0x6e000400, 0xffe08400, asimdins, 0, OP2 (Ed, En), QL_S_2SAME, F_HAS_ALIAS),
SIMD_INSN ("mov", 0x6e000400, 0xffe08400, asimdins, 0, OP2 (Ed, En), QL_S_2SAME, F_ALIAS),
/* AdvSIMD two-reg misc. */
SIMD_INSN ("rev64", 0x0e200800, 0xbf3ffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2SAMEBHS, F_SIZEQ),
SIMD_INSN ("rev16", 0x0e201800, 0xbf3ffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2SAMEB, F_SIZEQ),
SIMD_INSN ("saddlp",0x0e202800, 0xbf3ffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2PAIRWISELONGBHS, F_SIZEQ),
SIMD_INSN ("suqadd",0x0e203800, 0xbf3ffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2SAME, F_SIZEQ),
SIMD_INSN ("cls", 0x0e204800, 0xbf3ffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2SAMEBHS, F_SIZEQ),
SIMD_INSN ("cnt", 0x0e205800, 0xbf3ffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2SAMEB, F_SIZEQ),
SIMD_INSN ("sadalp",0x0e206800, 0xbf3ffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2PAIRWISELONGBHS, F_SIZEQ),
SIMD_INSN ("sqabs", 0x0e207800, 0xbf3ffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2SAME, F_SIZEQ),
SIMD_INSN ("cmgt", 0x0e208800, 0xbf3ffc00, asimdmisc, 0, OP3 (Vd, Vn, IMM0), QL_V2SAME, F_SIZEQ),
SIMD_INSN ("cmeq", 0x0e209800, 0xbf3ffc00, asimdmisc, 0, OP3 (Vd, Vn, IMM0), QL_V2SAME, F_SIZEQ),
SIMD_INSN ("cmlt", 0x0e20a800, 0xbf3ffc00, asimdmisc, 0, OP3 (Vd, Vn, IMM0), QL_V2SAME, F_SIZEQ),
SIMD_INSN ("abs", 0x0e20b800, 0xbf3ffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2SAME, F_SIZEQ),
SIMD_INSN ("xtn", 0x0e212800, 0xff3ffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2NARRBHS, F_SIZEQ),
SIMD_INSN ("xtn2", 0x4e212800, 0xff3ffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2NARRBHS2, F_SIZEQ),
SIMD_INSN ("sqxtn", 0xe214800, 0xff3ffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2NARRBHS, F_SIZEQ),
SIMD_INSN ("sqxtn2",0x4e214800, 0xff3ffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2NARRBHS2, F_SIZEQ),
SIMD_INSN ("fcvtn", 0x0e216800, 0xffbffc00, asimdmisc, OP_FCVTN, OP2 (Vd, Vn), QL_V2NARRHS, F_MISC),
SIMD_INSN ("fcvtn2", 0x4e216800, 0xffbffc00, asimdmisc, OP_FCVTN2, OP2 (Vd, Vn), QL_V2NARRHS2, F_MISC),
SIMD_INSN ("fcvtl", 0x0e217800, 0xffbffc00, asimdmisc, OP_FCVTL, OP2 (Vd, Vn), QL_V2LONGHS, F_MISC),
SIMD_INSN ("fcvtl2", 0x4e217800, 0xffbffc00, asimdmisc, OP_FCVTL2, OP2 (Vd, Vn), QL_V2LONGHS2, F_MISC),
SIMD_INSN ("frintn", 0x0e218800, 0xbfbffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2SAMESD, F_SIZEQ),
SF16_INSN ("frintn", 0x0e798800, 0xbffffc00, asimdmisc, OP2 (Vd, Vn), QL_V2SAMEH, F_SIZEQ),
SIMD_INSN ("frintm", 0x0e219800, 0xbfbffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2SAMESD, F_SIZEQ),
SF16_INSN ("frintm", 0x0e799800, 0xbffffc00, asimdmisc, OP2 (Vd, Vn), QL_V2SAMEH, F_SIZEQ),
SIMD_INSN ("fcvtns", 0x0e21a800, 0xbfbffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2SAMESD, F_SIZEQ),
SF16_INSN ("fcvtns", 0x0e79a800, 0xbffffc00, asimdmisc, OP2 (Vd, Vn), QL_V2SAMEH, F_SIZEQ),
SIMD_INSN ("fcvtms", 0x0e21b800, 0xbfbffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2SAMESD, F_SIZEQ),
SF16_INSN ("fcvtms", 0x0e79b800, 0xbffffc00, asimdmisc, OP2 (Vd, Vn), QL_V2SAMEH, F_SIZEQ),
SIMD_INSN ("fcvtas", 0x0e21c800, 0xbfbffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2SAMESD, F_SIZEQ),
SF16_INSN ("fcvtas", 0x0e79c800, 0xbffffc00, asimdmisc, OP2 (Vd, Vn), QL_V2SAMEH, F_SIZEQ),
SIMD_INSN ("scvtf", 0x0e21d800, 0xbfbffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2SAMESD, F_SIZEQ),
SF16_INSN ("scvtf", 0x0e79d800, 0xbfbffc00, asimdmisc, OP2 (Vd, Vn), QL_V2SAMEH, F_SIZEQ),
SIMD_INSN ("fcmgt", 0x0ea0c800, 0xbfbffc00, asimdmisc, 0, OP3 (Vd, Vn, FPIMM0), QL_V2SAMESD, F_SIZEQ),
SF16_INSN ("fcmgt", 0x0ef8c800, 0xbffffc00, asimdmisc, OP3 (Vd, Vn, FPIMM0), QL_V2SAMEH, F_SIZEQ),
SIMD_INSN ("fcmeq", 0x0ea0d800, 0xbfbffc00, asimdmisc, 0, OP3 (Vd, Vn, FPIMM0), QL_V2SAMESD, F_SIZEQ),
SF16_INSN ("fcmeq", 0x0ef8d800, 0xbffffc00, asimdmisc, OP3 (Vd, Vn, FPIMM0), QL_V2SAMEH, F_SIZEQ),
SIMD_INSN ("fcmlt", 0x0ea0e800, 0xbfbffc00, asimdmisc, 0, OP3 (Vd, Vn, FPIMM0), QL_V2SAMESD, F_SIZEQ),
SF16_INSN ("fcmlt", 0x0ef8e800, 0xbffffc00, asimdmisc, OP3 (Vd, Vn, FPIMM0), QL_V2SAMEH, F_SIZEQ),
SIMD_INSN ("fabs", 0x0ea0f800, 0xbfbffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2SAMESD, F_SIZEQ),
SF16_INSN ("fabs", 0x0ef8f800, 0xbffffc00, asimdmisc, OP2 (Vd, Vn), QL_V2SAMEH, F_SIZEQ),
SIMD_INSN ("frintp", 0x0ea18800, 0xbfbffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2SAMESD, F_SIZEQ),
SF16_INSN ("frintp", 0x0ef98800, 0xbffffc00, asimdmisc, OP2 (Vd, Vn), QL_V2SAMEH, F_SIZEQ),
SIMD_INSN ("frintz", 0x0ea19800, 0xbfbffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2SAMESD, F_SIZEQ),
SF16_INSN ("frintz", 0x0ef99800, 0xbffffc00, asimdmisc, OP2 (Vd, Vn), QL_V2SAMEH, F_SIZEQ),
SIMD_INSN ("fcvtps", 0x0ea1a800, 0xbfbffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2SAMESD, F_SIZEQ),
SF16_INSN ("fcvtps", 0x0ef9a800, 0xbffffc00, asimdmisc, OP2 (Vd, Vn), QL_V2SAMEH, F_SIZEQ),
SIMD_INSN ("fcvtzs", 0x0ea1b800, 0xbfbffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2SAMESD, F_SIZEQ),
SF16_INSN ("fcvtzs", 0x0ef9b800, 0xbffffc00, asimdmisc, OP2 (Vd, Vn), QL_V2SAMEH, F_SIZEQ),
SIMD_INSN ("urecpe", 0x0ea1c800, 0xbfbffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2SAMES, F_SIZEQ),
SIMD_INSN ("frecpe", 0x0ea1d800, 0xbfbffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2SAMESD, F_SIZEQ),
SF16_INSN ("frecpe", 0x0ef9d800, 0xbfbffc00, asimdmisc, OP2 (Vd, Vn), QL_V2SAMEH, F_SIZEQ),
SIMD_INSN ("rev32", 0x2e200800, 0xbf3ffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2SAMEBH, F_SIZEQ),
SIMD_INSN ("uaddlp", 0x2e202800, 0xbf3ffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2PAIRWISELONGBHS, F_SIZEQ),
SIMD_INSN ("usqadd", 0x2e203800, 0xbf3ffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2SAME, F_SIZEQ),
SIMD_INSN ("clz", 0x2e204800, 0xbf3ffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2SAMEBHS, F_SIZEQ),
SIMD_INSN ("uadalp", 0x2e206800, 0xbf3ffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2PAIRWISELONGBHS, F_SIZEQ),
SIMD_INSN ("sqneg", 0x2e207800, 0xbf3ffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2SAME, F_SIZEQ),
SIMD_INSN ("cmge", 0x2e208800, 0xbf3ffc00, asimdmisc, 0, OP3 (Vd, Vn, IMM0), QL_V2SAME, F_SIZEQ),
SIMD_INSN ("cmle", 0x2e209800, 0xbf3ffc00, asimdmisc, 0, OP3 (Vd, Vn, IMM0), QL_V2SAME, F_SIZEQ),
SIMD_INSN ("neg", 0x2e20b800, 0xbf3ffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2SAME, F_SIZEQ),
SIMD_INSN ("sqxtun", 0x2e212800, 0xff3ffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2NARRBHS, F_SIZEQ),
SIMD_INSN ("sqxtun2",0x6e212800, 0xff3ffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2NARRBHS2, F_SIZEQ),
SIMD_INSN ("shll", 0x2e213800, 0xff3ffc00, asimdmisc, 0, OP3 (Vd, Vn, SHLL_IMM), QL_V2LONGBHS, F_SIZEQ),
SIMD_INSN ("shll2", 0x6e213800, 0xff3ffc00, asimdmisc, 0, OP3 (Vd, Vn, SHLL_IMM), QL_V2LONGBHS2, F_SIZEQ),
SIMD_INSN ("uqxtn", 0x2e214800, 0xff3ffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2NARRBHS, F_SIZEQ),
SIMD_INSN ("uqxtn2", 0x6e214800, 0xff3ffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2NARRBHS2, F_SIZEQ),
SIMD_INSN ("fcvtxn", 0x2e616800, 0xfffffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2NARRS, 0),
SIMD_INSN ("fcvtxn2",0x6e616800, 0xfffffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2NARRS2, 0),
SIMD_INSN ("frinta", 0x2e218800, 0xbfbffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2SAMESD, F_SIZEQ),
SF16_INSN ("frinta", 0x2e798800, 0xbffffc00, asimdmisc, OP2 (Vd, Vn), QL_V2SAMEH, F_SIZEQ),
SIMD_INSN ("frintx", 0x2e219800, 0xbfbffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2SAMESD, F_SIZEQ),
SF16_INSN ("frintx", 0x2e799800, 0xbffffc00, asimdmisc, OP2 (Vd, Vn), QL_V2SAMEH, F_SIZEQ),
SIMD_INSN ("fcvtnu", 0x2e21a800, 0xbfbffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2SAMESD, F_SIZEQ),
SF16_INSN ("fcvtnu", 0x2e79a800, 0xbffffc00, asimdmisc, OP2 (Vd, Vn), QL_V2SAMEH, F_SIZEQ),
SIMD_INSN ("fcvtmu", 0x2e21b800, 0xbfbffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2SAMESD, F_SIZEQ),
SF16_INSN ("fcvtmu", 0x2e79b800, 0xbffffc00, asimdmisc, OP2 (Vd, Vn), QL_V2SAMEH, F_SIZEQ),
SIMD_INSN ("fcvtau", 0x2e21c800, 0xbfbffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2SAMESD, F_SIZEQ),
SF16_INSN ("fcvtau", 0x2e79c800, 0xbffffc00, asimdmisc, OP2 (Vd, Vn), QL_V2SAMEH, F_SIZEQ),
SIMD_INSN ("ucvtf", 0x2e21d800, 0xbfbffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2SAMESD, F_SIZEQ),
SF16_INSN ("ucvtf", 0x2e79d800, 0xbfbffc00, asimdmisc, OP2 (Vd, Vn), QL_V2SAMEH, F_SIZEQ),
SIMD_INSN ("not", 0x2e205800, 0xbffffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2SAMEB, F_SIZEQ | F_HAS_ALIAS),
SIMD_INSN ("mvn", 0x2e205800, 0xbffffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2SAMEB, F_SIZEQ | F_ALIAS),
SIMD_INSN ("rbit", 0x2e605800, 0xbffffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2SAMEB, F_SIZEQ),
SIMD_INSN ("fcmge", 0x2ea0c800, 0xbfbffc00, asimdmisc, 0, OP3 (Vd, Vn, FPIMM0), QL_V2SAMESD, F_SIZEQ),
SF16_INSN ("fcmge", 0x2ef8c800, 0xbffffc00, asimdmisc, OP3 (Vd, Vn, FPIMM0), QL_V2SAMEH, F_SIZEQ),
SIMD_INSN ("fcmle", 0x2ea0d800, 0xbfbffc00, asimdmisc, 0, OP3 (Vd, Vn, FPIMM0), QL_V2SAMESD, F_SIZEQ),
SF16_INSN ("fcmle", 0x2ef8d800, 0xbffffc00, asimdmisc, OP3 (Vd, Vn, FPIMM0), QL_V2SAMEH, F_SIZEQ),
SIMD_INSN ("fneg", 0x2ea0f800, 0xbfbffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2SAMESD, F_SIZEQ),
SF16_INSN ("fneg", 0x2ef8f800, 0xbffffc00, asimdmisc, OP2 (Vd, Vn), QL_V2SAMEH, F_SIZEQ),
SIMD_INSN ("frinti", 0x2ea19800, 0xbfbffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2SAMESD, F_SIZEQ),
SF16_INSN ("frinti", 0x2ef99800, 0xbffffc00, asimdmisc, OP2 (Vd, Vn), QL_V2SAMEH, F_SIZEQ),
SIMD_INSN ("fcvtpu", 0x2ea1a800, 0xbfbffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2SAMESD, F_SIZEQ),
SF16_INSN ("fcvtpu", 0x2ef9a800, 0xbffffc00, asimdmisc, OP2 (Vd, Vn), QL_V2SAMEH, F_SIZEQ),
SIMD_INSN ("fcvtzu", 0x2ea1b800, 0xbfbffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2SAMESD, F_SIZEQ),
SF16_INSN ("fcvtzu", 0x2ef9b800, 0xbffffc00, asimdmisc, OP2 (Vd, Vn), QL_V2SAMEH, F_SIZEQ),
SIMD_INSN ("ursqrte",0x2ea1c800, 0xbfbffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2SAMES, F_SIZEQ),
SIMD_INSN ("frsqrte",0x2ea1d800, 0xbfbffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2SAMESD, F_SIZEQ),
SF16_INSN ("frsqrte",0x2ef9d800, 0xbfbffc00, asimdmisc, OP2 (Vd, Vn), QL_V2SAMEH, F_SIZEQ),
SIMD_INSN ("fsqrt", 0x2ea1f800, 0xbfbffc00, asimdmisc, 0, OP2 (Vd, Vn), QL_V2SAMESD, F_SIZEQ),
SF16_INSN ("fsqrt", 0x2ef9f800, 0xbfbffc00, asimdmisc, OP2 (Vd, Vn), QL_V2SAMEH, F_SIZEQ),
/* AdvSIMD ZIP/UZP/TRN. */
SIMD_INSN ("uzp1", 0xe001800, 0xbf20fc00, asimdperm, 0, OP3 (Vd, Vn, Vm), QL_V3SAME, F_SIZEQ),
SIMD_INSN ("trn1", 0xe002800, 0xbf20fc00, asimdperm, 0, OP3 (Vd, Vn, Vm), QL_V3SAME, F_SIZEQ),
SIMD_INSN ("zip1", 0xe003800, 0xbf20fc00, asimdperm, 0, OP3 (Vd, Vn, Vm), QL_V3SAME, F_SIZEQ),
SIMD_INSN ("uzp2", 0xe005800, 0xbf20fc00, asimdperm, 0, OP3 (Vd, Vn, Vm), QL_V3SAME, F_SIZEQ),
SIMD_INSN ("trn2", 0xe006800, 0xbf20fc00, asimdperm, 0, OP3 (Vd, Vn, Vm), QL_V3SAME, F_SIZEQ),
SIMD_INSN ("zip2", 0xe007800, 0xbf20fc00, asimdperm, 0, OP3 (Vd, Vn, Vm), QL_V3SAME, F_SIZEQ),
/* AdvSIMD three same. */
SIMD_INSN ("shadd", 0xe200400, 0xbf20fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMEBHS, F_SIZEQ),
SIMD_INSN ("sqadd", 0xe200c00, 0xbf20fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAME, F_SIZEQ),
SIMD_INSN ("srhadd", 0xe201400, 0xbf20fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMEBHS, F_SIZEQ),
SIMD_INSN ("shsub", 0xe202400, 0xbf20fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMEBHS, F_SIZEQ),
SIMD_INSN ("sqsub", 0xe202c00, 0xbf20fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAME, F_SIZEQ),
SIMD_INSN ("cmgt", 0xe203400, 0xbf20fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAME, F_SIZEQ),
SIMD_INSN ("cmge", 0xe203c00, 0xbf20fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAME, F_SIZEQ),
SIMD_INSN ("sshl", 0xe204400, 0xbf20fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAME, F_SIZEQ),
SIMD_INSN ("sqshl", 0xe204c00, 0xbf20fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAME, F_SIZEQ),
SIMD_INSN ("srshl", 0xe205400, 0xbf20fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAME, F_SIZEQ),
SIMD_INSN ("sqrshl", 0xe205c00, 0xbf20fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAME, F_SIZEQ),
SIMD_INSN ("smax", 0xe206400, 0xbf20fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMEBHS, F_SIZEQ),
SIMD_INSN ("smin", 0xe206c00, 0xbf20fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMEBHS, F_SIZEQ),
SIMD_INSN ("sabd", 0xe207400, 0xbf20fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMEBHS, F_SIZEQ),
SIMD_INSN ("saba", 0xe207c00, 0xbf20fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMEBHS, F_SIZEQ),
SIMD_INSN ("add", 0xe208400, 0xbf20fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAME, F_SIZEQ),
SIMD_INSN ("cmtst", 0xe208c00, 0xbf20fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAME, F_SIZEQ),
SIMD_INSN ("mla", 0xe209400, 0xbf20fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMEBHS, F_SIZEQ),
SIMD_INSN ("mul", 0xe209c00, 0xbf20fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMEBHS, F_SIZEQ),
SIMD_INSN ("smaxp", 0xe20a400, 0xbf20fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMEBHS, F_SIZEQ),
SIMD_INSN ("sminp", 0xe20ac00, 0xbf20fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMEBHS, F_SIZEQ),
SIMD_INSN ("sqdmulh", 0xe20b400, 0xbf20fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMEHS, F_SIZEQ),
SIMD_INSN ("addp", 0xe20bc00, 0xbf20fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAME, F_SIZEQ),
SIMD_INSN ("fmaxnm", 0xe20c400, 0xbfa0fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMESD, F_SIZEQ),
SF16_INSN ("fmaxnm", 0xe400400, 0xbfe0fc00, asimdsame, OP3 (Vd, Vn, Vm), QL_V3SAMEH, F_SIZEQ),
SIMD_INSN ("fmla", 0xe20cc00, 0xbfa0fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMESD, F_SIZEQ),
SF16_INSN ("fmla", 0xe400c00, 0xbfe0fc00, asimdsame, OP3 (Vd, Vn, Vm), QL_V3SAMEH, F_SIZEQ),
SIMD_INSN ("fadd", 0xe20d400, 0xbfa0fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMESD, F_SIZEQ),
SF16_INSN ("fadd", 0xe401400, 0xbfe0fc00, asimdsame, OP3 (Vd, Vn, Vm), QL_V3SAMEH, F_SIZEQ),
SIMD_INSN ("fmulx", 0xe20dc00, 0xbfa0fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMESD, F_SIZEQ),
SF16_INSN ("fmulx", 0xe401c00, 0xbfe0fc00, asimdsame, OP3 (Vd, Vn, Vm), QL_V3SAMEH, F_SIZEQ),
SIMD_INSN ("fcmeq", 0xe20e400, 0xbfa0fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMESD, F_SIZEQ),
SF16_INSN ("fcmeq", 0xe402400, 0xbfe0fc00, asimdsame, OP3 (Vd, Vn, Vm), QL_V3SAMEH, F_SIZEQ),
SIMD_INSN ("fmax", 0xe20f400, 0xbfa0fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMESD, F_SIZEQ),
SF16_INSN ("fmax", 0xe403400, 0xbfe0fc00, asimdsame, OP3 (Vd, Vn, Vm), QL_V3SAMEH, F_SIZEQ),
SIMD_INSN ("frecps", 0xe20fc00, 0xbfa0fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMESD, F_SIZEQ),
SF16_INSN ("frecps", 0xe403c00, 0xbfe0fc00, asimdsame, OP3 (Vd, Vn, Vm), QL_V3SAMEH, F_SIZEQ),
SIMD_INSN ("and", 0xe201c00, 0xbfe0fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMEB, F_SIZEQ),
SIMD_INSN ("bic", 0xe601c00, 0xbfe0fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMEB, F_SIZEQ),
SIMD_INSN ("fminnm", 0xea0c400, 0xbfa0fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMESD, F_SIZEQ),
SF16_INSN ("fminnm", 0xec00400, 0xbfe0fc00, asimdsame, OP3 (Vd, Vn, Vm), QL_V3SAMEH, F_SIZEQ),
SIMD_INSN ("fmls", 0xea0cc00, 0xbfa0fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMESD, F_SIZEQ),
SF16_INSN ("fmls", 0xec00c00, 0xbfe0fc00, asimdsame, OP3 (Vd, Vn, Vm), QL_V3SAMEH, F_SIZEQ),
SIMD_INSN ("fsub", 0xea0d400, 0xbfa0fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMESD, F_SIZEQ),
SF16_INSN ("fsub", 0xec01400, 0xbfe0fc00, asimdsame, OP3 (Vd, Vn, Vm), QL_V3SAMEH, F_SIZEQ),
SIMD_INSN ("fmin", 0xea0f400, 0xbfa0fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMESD, F_SIZEQ),
SF16_INSN ("fmin", 0xec03400, 0xbfe0fc00, asimdsame, OP3 (Vd, Vn, Vm), QL_V3SAMEH, F_SIZEQ),
SIMD_INSN ("frsqrts", 0xea0fc00, 0xbfa0fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMESD, F_SIZEQ),
SF16_INSN ("frsqrts", 0xec03c00, 0xbfe0fc00, asimdsame, OP3 (Vd, Vn, Vm), QL_V3SAMEH, F_SIZEQ),
SIMD_INSN ("orr", 0xea01c00, 0xbfe0fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMEB, F_HAS_ALIAS | F_SIZEQ),
SIMD_INSN ("mov", 0xea01c00, 0xbfe0fc00, asimdsame, OP_MOV_V, OP2 (Vd, Vn), QL_V2SAMEB, F_ALIAS | F_CONV),
SIMD_INSN ("orn", 0xee01c00, 0xbfe0fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMEB, F_SIZEQ),
SIMD_INSN ("uhadd", 0x2e200400, 0xbf20fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMEBHS, F_SIZEQ),
SIMD_INSN ("uqadd", 0x2e200c00, 0xbf20fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAME, F_SIZEQ),
SIMD_INSN ("urhadd", 0x2e201400, 0xbf20fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMEBHS, F_SIZEQ),
SIMD_INSN ("uhsub", 0x2e202400, 0xbf20fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMEBHS, F_SIZEQ),
SIMD_INSN ("uqsub", 0x2e202c00, 0xbf20fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAME, F_SIZEQ),
SIMD_INSN ("cmhi", 0x2e203400, 0xbf20fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAME, F_SIZEQ),
SIMD_INSN ("cmhs", 0x2e203c00, 0xbf20fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAME, F_SIZEQ),
SIMD_INSN ("ushl", 0x2e204400, 0xbf20fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAME, F_SIZEQ),
SIMD_INSN ("uqshl", 0x2e204c00, 0xbf20fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAME, F_SIZEQ),
SIMD_INSN ("urshl", 0x2e205400, 0xbf20fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAME, F_SIZEQ),
SIMD_INSN ("uqrshl", 0x2e205c00, 0xbf20fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAME, F_SIZEQ),
SIMD_INSN ("umax", 0x2e206400, 0xbf20fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMEBHS, F_SIZEQ),
SIMD_INSN ("umin", 0x2e206c00, 0xbf20fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMEBHS, F_SIZEQ),
SIMD_INSN ("uabd", 0x2e207400, 0xbf20fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMEBHS, F_SIZEQ),
SIMD_INSN ("uaba", 0x2e207c00, 0xbf20fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMEBHS, F_SIZEQ),
SIMD_INSN ("sub", 0x2e208400, 0xbf20fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAME, F_SIZEQ),
SIMD_INSN ("cmeq", 0x2e208c00, 0xbf20fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAME, F_SIZEQ),
SIMD_INSN ("mls", 0x2e209400, 0xbf20fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMEBHS, F_SIZEQ),
SIMD_INSN ("pmul", 0x2e209c00, 0xbf20fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMEB, F_SIZEQ),
SIMD_INSN ("umaxp", 0x2e20a400, 0xbf20fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMEBHS, F_SIZEQ),
SIMD_INSN ("uminp", 0x2e20ac00, 0xbf20fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMEBHS, F_SIZEQ),
SIMD_INSN ("sqrdmulh", 0x2e20b400, 0xbf20fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMEHS, F_SIZEQ),
SIMD_INSN ("fmaxnmp", 0x2e20c400, 0xbfa0fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMESD, F_SIZEQ),
SF16_INSN ("fmaxnmp", 0x2e400400, 0xbfe0fc00, asimdsame, OP3 (Vd, Vn, Vm), QL_V3SAMEH, F_SIZEQ),
SIMD_INSN ("faddp", 0x2e20d400, 0xbfa0fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMESD, F_SIZEQ),
SF16_INSN ("faddp", 0x2e401400, 0xbfe0fc00, asimdsame, OP3 (Vd, Vn, Vm), QL_V3SAMEH, F_SIZEQ),
SIMD_INSN ("fmul", 0x2e20dc00, 0xbfa0fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMESD, F_SIZEQ),
SF16_INSN ("fmul", 0x2e401c00, 0xbfe0fc00, asimdsame, OP3 (Vd, Vn, Vm), QL_V3SAMEH, F_SIZEQ),
SIMD_INSN ("fcmge", 0x2e20e400, 0xbfa0fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMESD, F_SIZEQ),
SF16_INSN ("fcmge", 0x2e402400, 0xbfe0fc00, asimdsame, OP3 (Vd, Vn, Vm), QL_V3SAMEH, F_SIZEQ),
SIMD_INSN ("facge", 0x2e20ec00, 0xbfa0fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMESD, F_SIZEQ),
SF16_INSN ("facge", 0x2e402c00, 0xbfe0fc00, asimdsame, OP3 (Vd, Vn, Vm), QL_V3SAMEH, F_SIZEQ),
SIMD_INSN ("fmaxp", 0x2e20f400, 0xbfa0fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMESD, F_SIZEQ),
SF16_INSN ("fmaxp", 0x2e403400, 0xbfe0fc00, asimdsame, OP3 (Vd, Vn, Vm), QL_V3SAMEH, F_SIZEQ),
SIMD_INSN ("fdiv", 0x2e20fc00, 0xbfa0fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMESD, F_SIZEQ),
SF16_INSN ("fdiv", 0x2e403c00, 0xbfe0fc00, asimdsame, OP3 (Vd, Vn, Vm), QL_V3SAMEH, F_SIZEQ),
SIMD_INSN ("eor", 0x2e201c00, 0xbfe0fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMEB, F_SIZEQ),
SIMD_INSN ("bsl", 0x2e601c00, 0xbfe0fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMEB, F_SIZEQ),
SIMD_INSN ("fminnmp", 0x2ea0c400, 0xbfa0fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMESD, F_SIZEQ),
SF16_INSN ("fminnmp", 0x2ec00400, 0xbfe0fc00, asimdsame, OP3 (Vd, Vn, Vm), QL_V3SAMEH, F_SIZEQ),
SIMD_INSN ("fabd", 0x2ea0d400, 0xbfa0fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMESD, F_SIZEQ),
SF16_INSN ("fabd", 0x2ec01400, 0xbfe0fc00, asimdsame, OP3 (Vd, Vn, Vm), QL_V3SAMEH, F_SIZEQ),
SIMD_INSN ("fcmgt", 0x2ea0e400, 0xbfa0fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMESD, F_SIZEQ),
SF16_INSN ("fcmgt", 0x2ec02400, 0xbfe0fc00, asimdsame, OP3 (Vd, Vn, Vm), QL_V3SAMEH, F_SIZEQ),
SIMD_INSN ("facgt", 0x2ea0ec00, 0xbfa0fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMESD, F_SIZEQ),
SF16_INSN ("facgt", 0x2ec02c00, 0xbfe0fc00, asimdsame, OP3 (Vd, Vn, Vm), QL_V3SAMEH, F_SIZEQ),
SIMD_INSN ("fminp", 0x2ea0f400, 0xbfa0fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMESD, F_SIZEQ),
SF16_INSN ("fminp", 0x2ec03400, 0xbfe0fc00, asimdsame, OP3 (Vd, Vn, Vm), QL_V3SAMEH, F_SIZEQ),
SIMD_INSN ("bit", 0x2ea01c00, 0xbfe0fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMEB, F_SIZEQ),
SIMD_INSN ("bif", 0x2ee01c00, 0xbfe0fc00, asimdsame, 0, OP3 (Vd, Vn, Vm), QL_V3SAMEB, F_SIZEQ),
/* AdvSIMD three same extension. */
RDMA_INSN ("sqrdmlah",0x2e008400, 0xbf20fe00, asimdsame, OP3 (Vd, Vn, Vm), QL_V3SAMEHS, F_SIZEQ),
RDMA_INSN ("sqrdmlsh",0x2e008c00, 0xbf20fe00, asimdsame, OP3 (Vd, Vn, Vm), QL_V3SAMEHS, F_SIZEQ),
[AArch64] Add ARMv8.3 FCMLA and FCADD instructions Add support for FCMLA and FCADD complex arithmetic SIMD instructions. FCMLA has an indexed element variant where the index range has to be treated specially because a complex number takes two elements and the indexed vector size depends on the other operands. These complex number SIMD instructions are part of ARMv8.3 https://community.arm.com/groups/processors/blog/2016/10/27/armv8-a-architecture-2016-additions include/ 2016-11-18 Szabolcs Nagy <szabolcs.nagy@arm.com> * opcode/aarch64.h (enum aarch64_opnd): Add AARCH64_OPND_IMM_ROT1, AARCH64_OPND_IMM_ROT2, AARCH64_OPND_IMM_ROT3. (enum aarch64_op): Add OP_FCMLA_ELEM. opcodes/ 2016-11-18 Szabolcs Nagy <szabolcs.nagy@arm.com> * aarch64-tbl.h (QL_V3SAMEHSD_ROT, QL_ELEMENT_ROT): Define. (aarch64_feature_simd_v8_3, SIMD_V8_3): Define. (aarch64_opcode_table): Add fcmla and fcadd. (AARCH64_OPERANDS): Add IMM_ROT{1,2,3}. * aarch64-asm.h (aarch64_ins_imm_rotate): Declare. * aarch64-asm.c (aarch64_ins_imm_rotate): Define. * aarch64-dis.h (aarch64_ext_imm_rotate): Declare. * aarch64-dis.c (aarch64_ext_imm_rotate): Define. * aarch64-opc.h (enum aarch64_field_kind): Add FLD_rotate{1,2,3}. * aarch64-opc.c (fields): Add FLD_rotate{1,2,3}. (operand_general_constraint_met_p): Rotate and index range check. (aarch64_print_operand): Handle rotate operand. * aarch64-asm-2.c: Regenerate. * aarch64-dis-2.c: Likewise. * aarch64-opc-2.c: Likewise. gas/ 2016-11-18 Szabolcs Nagy <szabolcs.nagy@arm.com> * config/tc-aarch64.c (parse_operands): Handle AARCH64_OPND_IMM_ROT*. * testsuite/gas/aarch64/advsimd-armv8_3.d: New. * testsuite/gas/aarch64/advsimd-armv8_3.s: New. * testsuite/gas/aarch64/illegal-fcmla.s: New. * testsuite/gas/aarch64/illegal-fcmla.l: New. * testsuite/gas/aarch64/illegal-fcmla.d: New.
2016-11-18 11:02:16 +01:00
{"fcmla", 0x2e00c400, 0xbf20e400, asimdsame, 0, SIMD_V8_3, OP4 (Vd, Vn, Vm, IMM_ROT1), QL_V3SAMEHSD_ROT, F_SIZEQ, 0, NULL},
{"fcadd", 0x2e00e400, 0xbf20ec00, asimdsame, 0, SIMD_V8_3, OP4 (Vd, Vn, Vm, IMM_ROT3), QL_V3SAMEHSD_ROT, F_SIZEQ, 0, NULL},
/* AdvSIMD shift by immediate. */
SIMD_INSN ("sshr", 0xf000400, 0xbf80fc00, asimdshf, 0, OP3 (Vd, Vn, IMM_VLSR), QL_VSHIFT, 0),
SIMD_INSN ("ssra", 0xf001400, 0xbf80fc00, asimdshf, 0, OP3 (Vd, Vn, IMM_VLSR), QL_VSHIFT, 0),
SIMD_INSN ("srshr", 0xf002400, 0xbf80fc00, asimdshf, 0, OP3 (Vd, Vn, IMM_VLSR), QL_VSHIFT, 0),
SIMD_INSN ("srsra", 0xf003400, 0xbf80fc00, asimdshf, 0, OP3 (Vd, Vn, IMM_VLSR), QL_VSHIFT, 0),
SIMD_INSN ("shl", 0xf005400, 0xbf80fc00, asimdshf, 0, OP3 (Vd, Vn, IMM_VLSL), QL_VSHIFT, 0),
SIMD_INSN ("sqshl", 0xf007400, 0xbf80fc00, asimdshf, 0, OP3 (Vd, Vn, IMM_VLSL), QL_VSHIFT, 0),
SIMD_INSN ("shrn", 0xf008400, 0xff80fc00, asimdshf, 0, OP3 (Vd, Vn, IMM_VLSR), QL_VSHIFTN, 0),
SIMD_INSN ("shrn2", 0x4f008400, 0xff80fc00, asimdshf, 0, OP3 (Vd, Vn, IMM_VLSR), QL_VSHIFTN2, 0),
SIMD_INSN ("rshrn", 0xf008c00, 0xff80fc00, asimdshf, 0, OP3 (Vd, Vn, IMM_VLSR), QL_VSHIFTN, 0),
SIMD_INSN ("rshrn2", 0x4f008c00, 0xff80fc00, asimdshf, 0, OP3 (Vd, Vn, IMM_VLSR), QL_VSHIFTN2, 0),
SIMD_INSN ("sqshrn", 0xf009400, 0xff80fc00, asimdshf, 0, OP3 (Vd, Vn, IMM_VLSR), QL_VSHIFTN, 0),
SIMD_INSN ("sqshrn2", 0x4f009400, 0xff80fc00, asimdshf, 0, OP3 (Vd, Vn, IMM_VLSR), QL_VSHIFTN2, 0),
SIMD_INSN ("sqrshrn", 0xf009c00, 0xff80fc00, asimdshf, 0, OP3 (Vd, Vn, IMM_VLSR), QL_VSHIFTN, 0),
SIMD_INSN ("sqrshrn2", 0x4f009c00, 0xff80fc00, asimdshf, 0, OP3 (Vd, Vn, IMM_VLSR), QL_VSHIFTN2, 0),
SIMD_INSN ("sshll", 0xf00a400, 0xff80fc00, asimdshf, 0, OP3 (Vd, Vn, IMM_VLSL), QL_VSHIFTL, F_HAS_ALIAS),
SIMD_INSN ("sxtl", 0xf00a400, 0xff87fc00, asimdshf, OP_SXTL, OP2 (Vd, Vn), QL_V2LONGBHS, F_ALIAS | F_CONV),
SIMD_INSN ("sshll2", 0x4f00a400, 0xff80fc00, asimdshf, 0, OP3 (Vd, Vn, IMM_VLSL), QL_VSHIFTL2, F_HAS_ALIAS),
SIMD_INSN ("sxtl2", 0x4f00a400, 0xff87fc00, asimdshf, OP_SXTL2, OP2 (Vd, Vn), QL_V2LONGBHS2, F_ALIAS | F_CONV),
SIMD_INSN ("scvtf", 0xf00e400, 0xbf80fc00, asimdshf, 0, OP3 (Vd, Vn, IMM_VLSR), QL_VSHIFT_SD, 0),
SF16_INSN ("scvtf", 0xf10e400, 0xbf80fc00, asimdshf, OP3 (Vd, Vn, IMM_VLSR), QL_VSHIFT_H, 0),
SIMD_INSN ("fcvtzs", 0xf00fc00, 0xbf80fc00, asimdshf, 0, OP3 (Vd, Vn, IMM_VLSR), QL_VSHIFT_SD, 0),
SF16_INSN ("fcvtzs", 0xf10fc00, 0xbf80fc00, asimdshf, OP3 (Vd, Vn, IMM_VLSR), QL_VSHIFT_H, 0),
SIMD_INSN ("ushr", 0x2f000400, 0xbf80fc00, asimdshf, 0, OP3 (Vd, Vn, IMM_VLSR), QL_VSHIFT, 0),
SIMD_INSN ("usra", 0x2f001400, 0xbf80fc00, asimdshf, 0, OP3 (Vd, Vn, IMM_VLSR), QL_VSHIFT, 0),
SIMD_INSN ("urshr", 0x2f002400, 0xbf80fc00, asimdshf, 0, OP3 (Vd, Vn, IMM_VLSR), QL_VSHIFT, 0),
SIMD_INSN ("ursra", 0x2f003400, 0xbf80fc00, asimdshf, 0, OP3 (Vd, Vn, IMM_VLSR), QL_VSHIFT, 0),
SIMD_INSN ("sri", 0x2f004400, 0xbf80fc00, asimdshf, 0, OP3 (Vd, Vn, IMM_VLSR), QL_VSHIFT, 0),
SIMD_INSN ("sli", 0x2f005400, 0xbf80fc00, asimdshf, 0, OP3 (Vd, Vn, IMM_VLSL), QL_VSHIFT, 0),
SIMD_INSN ("sqshlu", 0x2f006400, 0xbf80fc00, asimdshf, 0, OP3 (Vd, Vn, IMM_VLSL), QL_VSHIFT, 0),
SIMD_INSN ("uqshl", 0x2f007400, 0xbf80fc00, asimdshf, 0, OP3 (Vd, Vn, IMM_VLSL), QL_VSHIFT, 0),
SIMD_INSN ("sqshrun", 0x2f008400, 0xff80fc00, asimdshf, 0, OP3 (Vd, Vn, IMM_VLSR), QL_VSHIFTN, 0),
SIMD_INSN ("sqshrun2", 0x6f008400, 0xff80fc00, asimdshf, 0, OP3 (Vd, Vn, IMM_VLSR), QL_VSHIFTN2, 0),
SIMD_INSN ("sqrshrun", 0x2f008c00, 0xff80fc00, asimdshf, 0, OP3 (Vd, Vn, IMM_VLSR), QL_VSHIFTN, 0),
SIMD_INSN ("sqrshrun2", 0x6f008c00, 0xff80fc00, asimdshf, 0, OP3 (Vd, Vn, IMM_VLSR), QL_VSHIFTN2, 0),
SIMD_INSN ("uqshrn", 0x2f009400, 0xff80fc00, asimdshf, 0, OP3 (Vd, Vn, IMM_VLSR), QL_VSHIFTN, 0),
SIMD_INSN ("uqshrn2", 0x6f009400, 0xff80fc00, asimdshf, 0, OP3 (Vd, Vn, IMM_VLSR), QL_VSHIFTN2, 0),
SIMD_INSN ("uqrshrn", 0x2f009c00, 0xff80fc00, asimdshf, 0, OP3 (Vd, Vn, IMM_VLSR), QL_VSHIFTN, 0),
SIMD_INSN ("uqrshrn2", 0x6f009c00, 0xff80fc00, asimdshf, 0, OP3 (Vd, Vn, IMM_VLSR), QL_VSHIFTN2, 0),
SIMD_INSN ("ushll", 0x2f00a400, 0xff80fc00, asimdshf, 0, OP3 (Vd, Vn, IMM_VLSL), QL_VSHIFTL, F_HAS_ALIAS),
SIMD_INSN ("uxtl", 0x2f00a400, 0xff87fc00, asimdshf, OP_UXTL, OP2 (Vd, Vn), QL_V2LONGBHS, F_ALIAS | F_CONV),
SIMD_INSN ("ushll2", 0x6f00a400, 0xff80fc00, asimdshf, 0, OP3 (Vd, Vn, IMM_VLSL), QL_VSHIFTL2, F_HAS_ALIAS),
SIMD_INSN ("uxtl2", 0x6f00a400, 0xff87fc00, asimdshf, OP_UXTL2, OP2 (Vd, Vn), QL_V2LONGBHS2, F_ALIAS | F_CONV),
SIMD_INSN ("ucvtf", 0x2f00e400, 0xbf80fc00, asimdshf, 0, OP3 (Vd, Vn, IMM_VLSR), QL_VSHIFT_SD, 0),
SF16_INSN ("ucvtf", 0x2f10e400, 0xbf80fc00, asimdshf, OP3 (Vd, Vn, IMM_VLSR), QL_VSHIFT_H, 0),
SIMD_INSN ("fcvtzu", 0x2f00fc00, 0xbf80fc00, asimdshf, 0, OP3 (Vd, Vn, IMM_VLSR), QL_VSHIFT_SD, 0),
SF16_INSN ("fcvtzu", 0x2f10fc00, 0xbf80fc00, asimdshf, OP3 (Vd, Vn, IMM_VLSR), QL_VSHIFT_H, 0),
/* AdvSIMD TBL/TBX. */
SIMD_INSN ("tbl", 0xe000000, 0xbfe09c00, asimdtbl, 0, OP3 (Vd, LVn, Vm), QL_TABLE, F_SIZEQ),
SIMD_INSN ("tbx", 0xe001000, 0xbfe09c00, asimdtbl, 0, OP3 (Vd, LVn, Vm), QL_TABLE, F_SIZEQ),
/* AdvSIMD scalar three different. */
SIMD_INSN ("sqdmlal", 0x5e209000, 0xff20fc00, asisddiff, 0, OP3 (Sd, Sn, Sm), QL_SISDL_HS, F_SSIZE),
SIMD_INSN ("sqdmlsl", 0x5e20b000, 0xff20fc00, asisddiff, 0, OP3 (Sd, Sn, Sm), QL_SISDL_HS, F_SSIZE),
SIMD_INSN ("sqdmull", 0x5e20d000, 0xff20fc00, asisddiff, 0, OP3 (Sd, Sn, Sm), QL_SISDL_HS, F_SSIZE),
/* AdvSIMD scalar x indexed element. */
SIMD_INSN ("sqdmlal", 0x5f003000, 0xff00f400, asisdelem, 0, OP3 (Sd, Sn, Em), QL_SISDL_HS, F_SSIZE),
SIMD_INSN ("sqdmlsl", 0x5f007000, 0xff00f400, asisdelem, 0, OP3 (Sd, Sn, Em), QL_SISDL_HS, F_SSIZE),
SIMD_INSN ("sqdmull", 0x5f00b000, 0xff00f400, asisdelem, 0, OP3 (Sd, Sn, Em), QL_SISDL_HS, F_SSIZE),
SIMD_INSN ("sqdmulh", 0x5f00c000, 0xff00f400, asisdelem, 0, OP3 (Sd, Sn, Em), QL_SISD_HS, F_SSIZE),
SIMD_INSN ("sqrdmulh", 0x5f00d000, 0xff00f400, asisdelem, 0, OP3 (Sd, Sn, Em), QL_SISD_HS, F_SSIZE),
SIMD_INSN ("fmla", 0x5f801000, 0xff80f400, asisdelem, 0, OP3 (Sd, Sn, Em), QL_FP3, F_SSIZE),
SF16_INSN ("fmla", 0x5f001000, 0xffc0f400, asisdelem, OP3 (Sd, Sn, Em), QL_FP3_H, F_SSIZE),
SIMD_INSN ("fmls", 0x5f805000, 0xff80f400, asisdelem, 0, OP3 (Sd, Sn, Em), QL_FP3, F_SSIZE),
SF16_INSN ("fmls", 0x5f005000, 0xffc0f400, asisdelem, OP3 (Sd, Sn, Em), QL_FP3_H, F_SSIZE),
SIMD_INSN ("fmul", 0x5f809000, 0xff80f400, asisdelem, 0, OP3 (Sd, Sn, Em), QL_FP3, F_SSIZE),
SF16_INSN ("fmul", 0x5f009000, 0xffc0f400, asisdelem, OP3 (Sd, Sn, Em), QL_FP3_H, F_SSIZE),
SIMD_INSN ("fmulx", 0x7f809000, 0xff80f400, asisdelem, 0, OP3 (Sd, Sn, Em), QL_FP3, F_SSIZE),
SF16_INSN ("fmulx", 0x7f009000, 0xffc0f400, asisdelem, OP3 (Sd, Sn, Em), QL_FP3_H, F_SSIZE),
RDMA_INSN ("sqrdmlah", 0x7f00d000, 0xff00f400, asisdelem, OP3 (Sd, Sn, Em), QL_SISD_HS, F_SSIZE),
RDMA_INSN ("sqrdmlsh", 0x7f00f000, 0xff00f400, asisdelem, OP3 (Sd, Sn, Em), QL_SISD_HS, F_SSIZE),
/* AdvSIMD load/store multiple structures. */
SIMD_INSN ("st4", 0xc000000, 0xbfff0000, asisdlse, 0, OP2 (LVt, SIMD_ADDR_SIMPLE), QL_SIMD_LDST, F_SIZEQ | F_OD(4)),
SIMD_INSN ("st1", 0xc000000, 0xbfff0000, asisdlse, 0, OP2 (LVt, SIMD_ADDR_SIMPLE), QL_SIMD_LDST_ANY, F_SIZEQ | F_OD(1)),
SIMD_INSN ("st2", 0xc000000, 0xbfff0000, asisdlse, 0, OP2 (LVt, SIMD_ADDR_SIMPLE), QL_SIMD_LDST, F_SIZEQ | F_OD(2)),
SIMD_INSN ("st3", 0xc000000, 0xbfff0000, asisdlse, 0, OP2 (LVt, SIMD_ADDR_SIMPLE), QL_SIMD_LDST, F_SIZEQ | F_OD(3)),
SIMD_INSN ("ld4", 0xc400000, 0xbfff0000, asisdlse, 0, OP2 (LVt, SIMD_ADDR_SIMPLE), QL_SIMD_LDST, F_SIZEQ | F_OD(4)),
SIMD_INSN ("ld1", 0xc400000, 0xbfff0000, asisdlse, 0, OP2 (LVt, SIMD_ADDR_SIMPLE), QL_SIMD_LDST_ANY, F_SIZEQ | F_OD(1)),
SIMD_INSN ("ld2", 0xc400000, 0xbfff0000, asisdlse, 0, OP2 (LVt, SIMD_ADDR_SIMPLE), QL_SIMD_LDST, F_SIZEQ | F_OD(2)),
SIMD_INSN ("ld3", 0xc400000, 0xbfff0000, asisdlse, 0, OP2 (LVt, SIMD_ADDR_SIMPLE), QL_SIMD_LDST, F_SIZEQ | F_OD(3)),
/* AdvSIMD load/store multiple structures (post-indexed). */
SIMD_INSN ("st4", 0xc800000, 0xbfe00000, asisdlsep, 0, OP2 (LVt, SIMD_ADDR_POST), QL_SIMD_LDST, F_SIZEQ | F_OD(4)),
SIMD_INSN ("st1", 0xc800000, 0xbfe00000, asisdlsep, 0, OP2 (LVt, SIMD_ADDR_POST), QL_SIMD_LDST_ANY, F_SIZEQ | F_OD(1)),
SIMD_INSN ("st2", 0xc800000, 0xbfe00000, asisdlsep, 0, OP2 (LVt, SIMD_ADDR_POST), QL_SIMD_LDST, F_SIZEQ | F_OD(2)),
SIMD_INSN ("st3", 0xc800000, 0xbfe00000, asisdlsep, 0, OP2 (LVt, SIMD_ADDR_POST), QL_SIMD_LDST, F_SIZEQ | F_OD(3)),
SIMD_INSN ("ld4", 0xcc00000, 0xbfe00000, asisdlsep, 0, OP2 (LVt, SIMD_ADDR_POST), QL_SIMD_LDST, F_SIZEQ | F_OD(4)),
SIMD_INSN ("ld1", 0xcc00000, 0xbfe00000, asisdlsep, 0, OP2 (LVt, SIMD_ADDR_POST), QL_SIMD_LDST_ANY, F_SIZEQ | F_OD(1)),
SIMD_INSN ("ld2", 0xcc00000, 0xbfe00000, asisdlsep, 0, OP2 (LVt, SIMD_ADDR_POST), QL_SIMD_LDST, F_SIZEQ | F_OD(2)),
SIMD_INSN ("ld3", 0xcc00000, 0xbfe00000, asisdlsep, 0, OP2 (LVt, SIMD_ADDR_POST), QL_SIMD_LDST, F_SIZEQ | F_OD(3)),
/* AdvSIMD load/store single structure. */
SIMD_INSN ("st1", 0xd000000, 0xbfff2000, asisdlso, 0, OP2 (LEt, SIMD_ADDR_SIMPLE), QL_SIMD_LDSTONE, F_OD(1)),
SIMD_INSN ("st3", 0xd002000, 0xbfff2000, asisdlso, 0, OP2 (LEt, SIMD_ADDR_SIMPLE), QL_SIMD_LDSTONE, F_OD(3)),
SIMD_INSN ("st2", 0xd200000, 0xbfff2000, asisdlso, 0, OP2 (LEt, SIMD_ADDR_SIMPLE), QL_SIMD_LDSTONE, F_OD(2)),
SIMD_INSN ("st4", 0xd202000, 0xbfff2000, asisdlso, 0, OP2 (LEt, SIMD_ADDR_SIMPLE), QL_SIMD_LDSTONE, F_OD(4)),
SIMD_INSN ("ld1", 0xd400000, 0xbfff2000, asisdlso, 0, OP2 (LEt, SIMD_ADDR_SIMPLE), QL_SIMD_LDSTONE, F_OD(1)),
SIMD_INSN ("ld3", 0xd402000, 0xbfff2000, asisdlso, 0, OP2 (LEt, SIMD_ADDR_SIMPLE), QL_SIMD_LDSTONE, F_OD(3)),
SIMD_INSN ("ld1r", 0xd40c000, 0xbfffe000, asisdlso, 0, OP2 (LVt_AL, SIMD_ADDR_SIMPLE), QL_SIMD_LDST_ANY, F_SIZEQ | F_OD(1)),
SIMD_INSN ("ld3r", 0xd40e000, 0xbfffe000, asisdlso, 0, OP2 (LVt_AL, SIMD_ADDR_SIMPLE), QL_SIMD_LDST_ANY, F_SIZEQ | F_OD(3)),
SIMD_INSN ("ld2", 0xd600000, 0xbfff2000, asisdlso, 0, OP2 (LEt, SIMD_ADDR_SIMPLE), QL_SIMD_LDSTONE, F_OD(2)),
SIMD_INSN ("ld4", 0xd602000, 0xbfff2000, asisdlso, 0, OP2 (LEt, SIMD_ADDR_SIMPLE), QL_SIMD_LDSTONE, F_OD(4)),
SIMD_INSN ("ld2r", 0xd60c000, 0xbfffe000, asisdlso, 0, OP2 (LVt_AL, SIMD_ADDR_SIMPLE), QL_SIMD_LDST_ANY, F_SIZEQ | F_OD(2)),
SIMD_INSN ("ld4r", 0xd60e000, 0xbfffe000, asisdlso, 0, OP2 (LVt_AL, SIMD_ADDR_SIMPLE), QL_SIMD_LDST_ANY, F_SIZEQ | F_OD(4)),
/* AdvSIMD load/store single structure (post-indexed). */
SIMD_INSN ("st1", 0xd800000, 0xbfe02000, asisdlsop, 0, OP2 (LEt, SIMD_ADDR_POST), QL_SIMD_LDSTONE, F_OD(1)),
SIMD_INSN ("st3", 0xd802000, 0xbfe02000, asisdlsop, 0, OP2 (LEt, SIMD_ADDR_POST), QL_SIMD_LDSTONE, F_OD(3)),
SIMD_INSN ("st2", 0xda00000, 0xbfe02000, asisdlsop, 0, OP2 (LEt, SIMD_ADDR_POST), QL_SIMD_LDSTONE, F_OD(2)),
SIMD_INSN ("st4", 0xda02000, 0xbfe02000, asisdlsop, 0, OP2 (LEt, SIMD_ADDR_POST), QL_SIMD_LDSTONE, F_OD(4)),
SIMD_INSN ("ld1", 0xdc00000, 0xbfe02000, asisdlsop, 0, OP2 (LEt, SIMD_ADDR_POST), QL_SIMD_LDSTONE, F_OD(1)),
SIMD_INSN ("ld3", 0xdc02000, 0xbfe02000, asisdlsop, 0, OP2 (LEt, SIMD_ADDR_POST), QL_SIMD_LDSTONE, F_OD(3)),
SIMD_INSN ("ld1r", 0xdc0c000, 0xbfe0e000, asisdlsop, 0, OP2 (LVt_AL, SIMD_ADDR_POST), QL_SIMD_LDST_ANY, F_SIZEQ | F_OD(1)),
SIMD_INSN ("ld3r", 0xdc0e000, 0xbfe0e000, asisdlsop, 0, OP2 (LVt_AL, SIMD_ADDR_POST), QL_SIMD_LDST_ANY, F_SIZEQ | F_OD(3)),
SIMD_INSN ("ld2", 0xde00000, 0xbfe02000, asisdlsop, 0, OP2 (LEt, SIMD_ADDR_POST), QL_SIMD_LDSTONE, F_OD(2)),
SIMD_INSN ("ld4", 0xde02000, 0xbfe02000, asisdlsop, 0, OP2 (LEt, SIMD_ADDR_POST), QL_SIMD_LDSTONE, F_OD(4)),
SIMD_INSN ("ld2r", 0xde0c000, 0xbfe0e000, asisdlsop, 0, OP2 (LVt_AL, SIMD_ADDR_POST), QL_SIMD_LDST_ANY, F_SIZEQ | F_OD(2)),
SIMD_INSN ("ld4r", 0xde0e000, 0xbfe0e000, asisdlsop, 0, OP2 (LVt_AL, SIMD_ADDR_POST), QL_SIMD_LDST_ANY, F_SIZEQ | F_OD(4)),
/* AdvSIMD scalar two-reg misc. */
SIMD_INSN ("suqadd", 0x5e203800, 0xff3ffc00, asisdmisc, 0, OP2 (Sd, Sn), QL_S_2SAME, F_SSIZE),
SIMD_INSN ("sqabs", 0x5e207800, 0xff3ffc00, asisdmisc, 0, OP2 (Sd, Sn), QL_S_2SAME, F_SSIZE),
SIMD_INSN ("cmgt", 0x5e208800, 0xff3ffc00, asisdmisc, 0, OP3 (Sd, Sn, IMM0), QL_SISD_CMP_0, F_SSIZE),
SIMD_INSN ("cmeq", 0x5e209800, 0xff3ffc00, asisdmisc, 0, OP3 (Sd, Sn, IMM0), QL_SISD_CMP_0, F_SSIZE),
SIMD_INSN ("cmlt", 0x5e20a800, 0xff3ffc00, asisdmisc, 0, OP3 (Sd, Sn, IMM0), QL_SISD_CMP_0, F_SSIZE),
SIMD_INSN ("abs", 0x5e20b800, 0xff3ffc00, asisdmisc, 0, OP2 (Sd, Sn), QL_2SAMED, F_SSIZE),
SIMD_INSN ("sqxtn", 0x5e214800, 0xff3ffc00, asisdmisc, 0, OP2 (Sd, Sn), QL_SISD_NARROW, F_SSIZE),
SIMD_INSN ("fcvtns", 0x5e21a800, 0xffbffc00, asisdmisc, 0, OP2 (Sd, Sn), QL_S_2SAMESD, F_SSIZE),
SF16_INSN ("fcvtns", 0x5e79a800, 0xfffffc00, asisdmisc, OP2 (Sd, Sn), QL_S_2SAMEH, F_SSIZE),
SIMD_INSN ("fcvtms", 0x5e21b800, 0xffbffc00, asisdmisc, 0, OP2 (Sd, Sn), QL_S_2SAMESD, F_SSIZE),
SF16_INSN ("fcvtms", 0x5e79b800, 0xfffffc00, asisdmisc, OP2 (Sd, Sn), QL_S_2SAMEH, F_SSIZE),
SIMD_INSN ("fcvtas", 0x5e21c800, 0xffbffc00, asisdmisc, 0, OP2 (Sd, Sn), QL_S_2SAMESD, F_SSIZE),
SF16_INSN ("fcvtas", 0x5e79c800, 0xfffffc00, asisdmisc, OP2 (Sd, Sn), QL_S_2SAMEH, F_SSIZE),
SIMD_INSN ("scvtf", 0x5e21d800, 0xffbffc00, asisdmisc, 0, OP2 (Sd, Sn), QL_S_2SAMESD, F_SSIZE),
SF16_INSN ("scvtf", 0x5e79d800, 0xfffffc00, asisdmisc, OP2 (Sd, Sn), QL_S_2SAMEH, F_SSIZE),
SIMD_INSN ("fcmgt", 0x5ea0c800, 0xffbffc00, asisdmisc, 0, OP3 (Sd, Sn, FPIMM0), QL_SISD_FCMP_0, F_SSIZE),
SF16_INSN ("fcmgt", 0x5ef8c800, 0xfffffc00, asisdmisc, OP3 (Sd, Sn, FPIMM0), QL_SISD_FCMP_H_0, F_SSIZE),
SIMD_INSN ("fcmeq", 0x5ea0d800, 0xffbffc00, asisdmisc, 0, OP3 (Sd, Sn, FPIMM0), QL_SISD_FCMP_0, F_SSIZE),
SF16_INSN ("fcmeq", 0x5ef8d800, 0xfffffc00, asisdmisc, OP3 (Sd, Sn, FPIMM0), QL_SISD_FCMP_H_0, F_SSIZE),
SIMD_INSN ("fcmlt", 0x5ea0e800, 0xffbffc00, asisdmisc, 0, OP3 (Sd, Sn, FPIMM0), QL_SISD_FCMP_0, F_SSIZE),
SF16_INSN ("fcmlt", 0x5ef8e800, 0xfffffc00, asisdmisc, OP3 (Sd, Sn, FPIMM0), QL_SISD_FCMP_H_0, F_SSIZE),
SIMD_INSN ("fcvtps", 0x5ea1a800, 0xffbffc00, asisdmisc, 0, OP2 (Sd, Sn), QL_S_2SAMESD, F_SSIZE),
SF16_INSN ("fcvtps", 0x5ef9a800, 0xfffffc00, asisdmisc, OP2 (Sd, Sn), QL_S_2SAMEH, F_SSIZE),
SIMD_INSN ("fcvtzs", 0x5ea1b800, 0xffbffc00, asisdmisc, 0, OP2 (Sd, Sn), QL_S_2SAMESD, F_SSIZE),
SF16_INSN ("fcvtzs", 0x5ef9b800, 0xfffffc00, asisdmisc, OP2 (Sd, Sn), QL_S_2SAMEH, F_SSIZE),
SIMD_INSN ("frecpe", 0x5ea1d800, 0xffbffc00, asisdmisc, 0, OP2 (Sd, Sn), QL_S_2SAMESD, F_SSIZE),
SF16_INSN ("frecpe", 0x5ef9d800, 0xfffffc00, asisdmisc, OP2 (Sd, Sn), QL_S_2SAMEH, F_SSIZE),
SIMD_INSN ("frecpx", 0x5ea1f800, 0xffbffc00, asisdmisc, 0, OP2 (Sd, Sn), QL_S_2SAMESD, F_SSIZE),
SF16_INSN ("frecpx", 0x5ef9f800, 0xfffffc00, asisdmisc, OP2 (Sd, Sn), QL_S_2SAMEH, F_SSIZE),
SIMD_INSN ("usqadd", 0x7e203800, 0xff3ffc00, asisdmisc, 0, OP2 (Sd, Sn), QL_S_2SAME, F_SSIZE),
SIMD_INSN ("sqneg", 0x7e207800, 0xff3ffc00, asisdmisc, 0, OP2 (Sd, Sn), QL_S_2SAME, F_SSIZE),
SIMD_INSN ("cmge", 0x7e208800, 0xff3ffc00, asisdmisc, 0, OP3 (Sd, Sn, IMM0), QL_SISD_CMP_0, F_SSIZE),
SIMD_INSN ("cmle", 0x7e209800, 0xff3ffc00, asisdmisc, 0, OP3 (Sd, Sn, IMM0), QL_SISD_CMP_0, F_SSIZE),
SIMD_INSN ("neg", 0x7e20b800, 0xff3ffc00, asisdmisc, 0, OP2 (Sd, Sn), QL_2SAMED, F_SSIZE),
SIMD_INSN ("sqxtun", 0x7e212800, 0xff3ffc00, asisdmisc, 0, OP2 (Sd, Sn), QL_SISD_NARROW, F_SSIZE),
SIMD_INSN ("uqxtn", 0x7e214800, 0xff3ffc00, asisdmisc, 0, OP2 (Sd, Sn), QL_SISD_NARROW, F_SSIZE),
SIMD_INSN ("fcvtxn", 0x7e216800, 0xffbffc00, asisdmisc, OP_FCVTXN_S, OP2 (Sd, Sn), QL_SISD_NARROW_S, F_MISC),
SIMD_INSN ("fcvtnu", 0x7e21a800, 0xffbffc00, asisdmisc, 0, OP2 (Sd, Sn), QL_S_2SAMESD, F_SSIZE),
SF16_INSN ("fcvtnu", 0x7e79a800, 0xfffffc00, asisdmisc, OP2 (Sd, Sn), QL_S_2SAMEH, F_SSIZE),
SIMD_INSN ("fcvtmu", 0x7e21b800, 0xffbffc00, asisdmisc, 0, OP2 (Sd, Sn), QL_S_2SAMESD, F_SSIZE),
SF16_INSN ("fcvtmu", 0x7e79b800, 0xfffffc00, asisdmisc, OP2 (Sd, Sn), QL_S_2SAMEH, F_SSIZE),
SIMD_INSN ("fcvtau", 0x7e21c800, 0xffbffc00, asisdmisc, 0, OP2 (Sd, Sn), QL_S_2SAMESD, F_SSIZE),
SF16_INSN ("fcvtau", 0x7e79c800, 0xfffffc00, asisdmisc, OP2 (Sd, Sn), QL_S_2SAMEH, F_SSIZE),
SIMD_INSN ("ucvtf", 0x7e21d800, 0xffbffc00, asisdmisc, 0, OP2 (Sd, Sn), QL_S_2SAMESD, F_SSIZE),
SF16_INSN ("ucvtf", 0x7e79d800, 0xfffffc00, asisdmisc, OP2 (Sd, Sn), QL_S_2SAMEH, F_SSIZE),
SIMD_INSN ("fcmge", 0x7ea0c800, 0xffbffc00, asisdmisc, 0, OP3 (Sd, Sn, FPIMM0), QL_SISD_FCMP_0, F_SSIZE),
SF16_INSN ("fcmge", 0x7ef8c800, 0xfffffc00, asisdmisc, OP3 (Sd, Sn, FPIMM0), QL_SISD_FCMP_H_0, F_SSIZE),
SIMD_INSN ("fcmle", 0x7ea0d800, 0xffbffc00, asisdmisc, 0, OP3 (Sd, Sn, FPIMM0), QL_SISD_FCMP_0, F_SSIZE),
SF16_INSN ("fcmle", 0x7ef8d800, 0xfffffc00, asisdmisc, OP3 (Sd, Sn, FPIMM0), QL_SISD_FCMP_H_0, F_SSIZE),
SIMD_INSN ("fcvtpu", 0x7ea1a800, 0xffbffc00, asisdmisc, 0, OP2 (Sd, Sn), QL_S_2SAMESD, F_SSIZE),
SF16_INSN ("fcvtpu", 0x7ef9a800, 0xfffffc00, asisdmisc, OP2 (Sd, Sn), QL_SISD_FCMP_H_0, F_SSIZE),
SIMD_INSN ("fcvtzu", 0x7ea1b800, 0xffbffc00, asisdmisc, 0, OP2 (Sd, Sn), QL_S_2SAMESD, F_SSIZE),
SF16_INSN ("fcvtzu", 0x7ef9b800, 0xfffffc00, asisdmisc, OP2 (Sd, Sn), QL_S_2SAMEH, F_SSIZE),
SIMD_INSN ("frsqrte", 0x7ea1d800, 0xffbffc00, asisdmisc, 0, OP2 (Sd, Sn), QL_S_2SAMESD, F_SSIZE),
SF16_INSN ("frsqrte", 0x7ef9d800, 0xfffffc00, asisdmisc, OP2 (Sd, Sn), QL_S_2SAMEH, F_SSIZE),
/* AdvSIMD scalar copy. */
SIMD_INSN ("dup", 0x5e000400, 0xffe0fc00, asisdone, 0, OP2 (Sd, En), QL_S_2SAME, F_HAS_ALIAS),
SIMD_INSN ("mov", 0x5e000400, 0xffe0fc00, asisdone, 0, OP2 (Sd, En), QL_S_2SAME, F_ALIAS),
/* AdvSIMD scalar pairwise. */
SIMD_INSN ("addp", 0x5e31b800, 0xff3ffc00, asisdpair, 0, OP2 (Sd, Vn), QL_SISD_PAIR_D, F_SIZEQ),
SIMD_INSN ("fmaxnmp", 0x7e30c800, 0xffbffc00, asisdpair, 0, OP2 (Sd, Vn), QL_SISD_PAIR, F_SIZEQ),
SF16_INSN ("fmaxnmp", 0x5e30c800, 0xfffffc00, asisdpair, OP2 (Sd, Vn), QL_SISD_PAIR_H, F_SIZEQ),
SIMD_INSN ("faddp", 0x7e30d800, 0xffbffc00, asisdpair, 0, OP2 (Sd, Vn), QL_SISD_PAIR, F_SIZEQ),
SF16_INSN ("faddp", 0x5e30d800, 0xfffffc00, asisdpair, OP2 (Sd, Vn), QL_SISD_PAIR_H, F_SIZEQ),
SIMD_INSN ("fmaxp", 0x7e30f800, 0xffbffc00, asisdpair, 0, OP2 (Sd, Vn), QL_SISD_PAIR, F_SIZEQ),
SF16_INSN ("fmaxp", 0x5e30f800, 0xfffffc00, asisdpair, OP2 (Sd, Vn), QL_SISD_PAIR_H, F_SIZEQ),
SIMD_INSN ("fminnmp", 0x7eb0c800, 0xffbffc00, asisdpair, 0, OP2 (Sd, Vn), QL_SISD_PAIR, F_SIZEQ),
SF16_INSN ("fminnmp", 0x5eb0c800, 0xfffffc00, asisdpair, OP2 (Sd, Vn), QL_SISD_PAIR_H, F_SIZEQ),
SIMD_INSN ("fminp", 0x7eb0f800, 0xffbffc00, asisdpair, 0, OP2 (Sd, Vn), QL_SISD_PAIR, F_SIZEQ),
SF16_INSN ("fminp", 0x5eb0f800, 0xfffffc00, asisdpair, OP2 (Sd, Vn), QL_SISD_PAIR_H, F_SIZEQ),
/* AdvSIMD scalar three same. */
SIMD_INSN ("sqadd", 0x5e200c00, 0xff20fc00, asisdsame, 0, OP3 (Sd, Sn, Sm), QL_S_3SAME, F_SSIZE),
SIMD_INSN ("sqsub", 0x5e202c00, 0xff20fc00, asisdsame, 0, OP3 (Sd, Sn, Sm), QL_S_3SAME, F_SSIZE),
SIMD_INSN ("sqshl", 0x5e204c00, 0xff20fc00, asisdsame, 0, OP3 (Sd, Sn, Sm), QL_S_3SAME, F_SSIZE),
SIMD_INSN ("sqrshl", 0x5e205c00, 0xff20fc00, asisdsame, 0, OP3 (Sd, Sn, Sm), QL_S_3SAME, F_SSIZE),
SIMD_INSN ("sqdmulh", 0x5e20b400, 0xff20fc00, asisdsame, 0, OP3 (Sd, Sn, Sm), QL_SISD_HS, F_SSIZE),
SIMD_INSN ("fmulx", 0x5e20dc00, 0xffa0fc00, asisdsame, 0, OP3 (Sd, Sn, Sm), QL_FP3, F_SSIZE),
SF16_INSN ("fmulx", 0x5e401c00, 0xffe0fc00, asisdsame, OP3 (Sd, Sn, Sm), QL_FP3_H, F_SSIZE),
SIMD_INSN ("fcmeq", 0x5e20e400, 0xffa0fc00, asisdsame, 0, OP3 (Sd, Sn, Sm), QL_FP3, F_SSIZE),
SF16_INSN ("fcmeq", 0x5e402400, 0xffe0fc00, asisdsame, OP3 (Sd, Sn, Sm), QL_FP3_H, F_SSIZE),
SIMD_INSN ("frecps", 0x5e20fc00, 0xffa0fc00, asisdsame, 0, OP3 (Sd, Sn, Sm), QL_FP3, F_SSIZE),
SF16_INSN ("frecps", 0x5e403c00, 0xffe0fc00, asisdsame, OP3 (Sd, Sn, Sm), QL_FP3_H, F_SSIZE),
SIMD_INSN ("frsqrts", 0x5ea0fc00, 0xffa0fc00, asisdsame, 0, OP3 (Sd, Sn, Sm), QL_FP3, F_SSIZE),
SF16_INSN ("frsqrts", 0x5ec03c00, 0xffe0fc00, asisdsame, OP3 (Sd, Sn, Sm), QL_FP3_H, F_SSIZE),
SIMD_INSN ("cmgt", 0x5ee03400, 0xffe0fc00, asisdsame, 0, OP3 (Sd, Sn, Sm), QL_S_3SAMED, F_SSIZE),
SIMD_INSN ("cmge", 0x5ee03c00, 0xffe0fc00, asisdsame, 0, OP3 (Sd, Sn, Sm), QL_S_3SAMED, F_SSIZE),
SIMD_INSN ("sshl", 0x5ee04400, 0xffe0fc00, asisdsame, 0, OP3 (Sd, Sn, Sm), QL_S_3SAMED, F_SSIZE),
SIMD_INSN ("srshl", 0x5ee05400, 0xffe0fc00, asisdsame, 0, OP3 (Sd, Sn, Sm), QL_S_3SAMED, F_SSIZE),
SIMD_INSN ("add", 0x5ee08400, 0xffe0fc00, asisdsame, 0, OP3 (Sd, Sn, Sm), QL_S_3SAMED, F_SSIZE),
SIMD_INSN ("cmtst", 0x5ee08c00, 0xffe0fc00, asisdsame, 0, OP3 (Sd, Sn, Sm), QL_S_3SAMED, F_SSIZE),
SIMD_INSN ("uqadd", 0x7e200c00, 0xff20fc00, asisdsame, 0, OP3 (Sd, Sn, Sm), QL_S_3SAME, F_SSIZE),
SIMD_INSN ("uqsub", 0x7e202c00, 0xff20fc00, asisdsame, 0, OP3 (Sd, Sn, Sm), QL_S_3SAME, F_SSIZE),
SIMD_INSN ("uqshl", 0x7e204c00, 0xff20fc00, asisdsame, 0, OP3 (Sd, Sn, Sm), QL_S_3SAME, F_SSIZE),
SIMD_INSN ("uqrshl", 0x7e205c00, 0xff20fc00, asisdsame, 0, OP3 (Sd, Sn, Sm), QL_S_3SAME, F_SSIZE),
SIMD_INSN ("sqrdmulh", 0x7e20b400, 0xff20fc00, asisdsame, 0, OP3 (Sd, Sn, Sm), QL_SISD_HS, F_SSIZE),
SIMD_INSN ("fcmge", 0x7e20e400, 0xffa0fc00, asisdsame, 0, OP3 (Sd, Sn, Sm), QL_FP3, F_SSIZE),
SF16_INSN ("fcmge", 0x7e402400, 0xffe0fc00, asisdsame, OP3 (Sd, Sn, Sm), QL_FP3_H, F_SSIZE),
SIMD_INSN ("facge", 0x7e20ec00, 0xffa0fc00, asisdsame, 0, OP3 (Sd, Sn, Sm), QL_FP3, F_SSIZE),
SF16_INSN ("facge", 0x7e402c00, 0xffe0fc00, asisdsame, OP3 (Sd, Sn, Sm), QL_FP3_H, F_SSIZE),
SIMD_INSN ("fabd", 0x7ea0d400, 0xffa0fc00, asisdsame, 0, OP3 (Sd, Sn, Sm), QL_FP3, F_SSIZE),
SF16_INSN ("fabd", 0x7ec01400, 0xffe0fc00, asisdsame, OP3 (Sd, Sn, Sm), QL_FP3_H, F_SSIZE),
SIMD_INSN ("fcmgt", 0x7ea0e400, 0xffa0fc00, asisdsame, 0, OP3 (Sd, Sn, Sm), QL_FP3, F_SSIZE),
SF16_INSN ("fcmgt", 0x7ec02400, 0xffe0fc00, asisdsame, OP3 (Sd, Sn, Sm), QL_FP3_H, F_SSIZE),
SIMD_INSN ("facgt", 0x7ea0ec00, 0xffa0fc00, asisdsame, 0, OP3 (Sd, Sn, Sm), QL_FP3, F_SSIZE),
SF16_INSN ("facgt", 0x7ec02c00, 0xffe0fc00, asisdsame, OP3 (Sd, Sn, Sm), QL_FP3_H, F_SSIZE),
SIMD_INSN ("cmhi", 0x7ee03400, 0xffe0fc00, asisdsame, 0, OP3 (Sd, Sn, Sm), QL_S_3SAMED, F_SSIZE),
SIMD_INSN ("cmhs", 0x7ee03c00, 0xffe0fc00, asisdsame, 0, OP3 (Sd, Sn, Sm), QL_S_3SAMED, F_SSIZE),
SIMD_INSN ("ushl", 0x7ee04400, 0xffe0fc00, asisdsame, 0, OP3 (Sd, Sn, Sm), QL_S_3SAMED, F_SSIZE),
SIMD_INSN ("urshl", 0x7ee05400, 0xffe0fc00, asisdsame, 0, OP3 (Sd, Sn, Sm), QL_S_3SAMED, F_SSIZE),
SIMD_INSN ("sub", 0x7ee08400, 0xffe0fc00, asisdsame, 0, OP3 (Sd, Sn, Sm), QL_S_3SAMED, F_SSIZE),
SIMD_INSN ("cmeq", 0x7ee08c00, 0xffe0fc00, asisdsame, 0, OP3 (Sd, Sn, Sm), QL_S_3SAMED, F_SSIZE),
/* AdvSIMDs scalar three same extension. */
RDMA_INSN ("sqrdmlah", 0x7e008400, 0xff20fc00, asimdsame, OP3 (Sd, Sn, Sm), QL_SISD_HS, F_SSIZE),
RDMA_INSN ("sqrdmlsh", 0x7e008c00, 0xff20fc00, asimdsame, OP3 (Sd, Sn, Sm), QL_SISD_HS, F_SSIZE),
/* AdvSIMD scalar shift by immediate. */
SIMD_INSN ("sshr", 0x5f000400, 0xff80fc00, asisdshf, 0, OP3 (Sd, Sn, IMM_VLSR), QL_SSHIFT_D, 0),
SIMD_INSN ("ssra", 0x5f001400, 0xff80fc00, asisdshf, 0, OP3 (Sd, Sn, IMM_VLSR), QL_SSHIFT_D, 0),
SIMD_INSN ("srshr", 0x5f002400, 0xff80fc00, asisdshf, 0, OP3 (Sd, Sn, IMM_VLSR), QL_SSHIFT_D, 0),
SIMD_INSN ("srsra", 0x5f003400, 0xff80fc00, asisdshf, 0, OP3 (Sd, Sn, IMM_VLSR), QL_SSHIFT_D, 0),
SIMD_INSN ("shl", 0x5f005400, 0xff80fc00, asisdshf, 0, OP3 (Sd, Sn, IMM_VLSL), QL_SSHIFT_D, 0),
SIMD_INSN ("sqshl", 0x5f007400, 0xff80fc00, asisdshf, 0, OP3 (Sd, Sn, IMM_VLSL), QL_SSHIFT, 0),
SIMD_INSN ("sqshrn", 0x5f009400, 0xff80fc00, asisdshf, 0, OP3 (Sd, Sn, IMM_VLSR), QL_SSHIFTN, 0),
SIMD_INSN ("sqrshrn", 0x5f009c00, 0xff80fc00, asisdshf, 0, OP3 (Sd, Sn, IMM_VLSR), QL_SSHIFTN, 0),
SIMD_INSN ("scvtf", 0x5f00e400, 0xff80fc00, asisdshf, 0, OP3 (Sd, Sn, IMM_VLSR), QL_SSHIFT_SD, 0),
SF16_INSN ("scvtf", 0x5f10e400, 0xff80fc00, asisdshf, OP3 (Sd, Sn, IMM_VLSR), QL_SSHIFT_H, 0),
SIMD_INSN ("fcvtzs", 0x5f00fc00, 0xff80fc00, asisdshf, 0, OP3 (Sd, Sn, IMM_VLSR), QL_SSHIFT_SD, 0),
SF16_INSN ("fcvtzs", 0x5f10fc00, 0xff80fc00, asisdshf, OP3 (Sd, Sn, IMM_VLSR), QL_SSHIFT_H, 0),
SIMD_INSN ("ushr", 0x7f000400, 0xff80fc00, asisdshf, 0, OP3 (Sd, Sn, IMM_VLSR), QL_SSHIFT_D, 0),
SIMD_INSN ("usra", 0x7f001400, 0xff80fc00, asisdshf, 0, OP3 (Sd, Sn, IMM_VLSR), QL_SSHIFT_D, 0),
SIMD_INSN ("urshr", 0x7f002400, 0xff80fc00, asisdshf, 0, OP3 (Sd, Sn, IMM_VLSR), QL_SSHIFT_D, 0),
SIMD_INSN ("ursra", 0x7f003400, 0xff80fc00, asisdshf, 0, OP3 (Sd, Sn, IMM_VLSR), QL_SSHIFT_D, 0),
SIMD_INSN ("sri", 0x7f004400, 0xff80fc00, asisdshf, 0, OP3 (Sd, Sn, IMM_VLSR), QL_SSHIFT_D, 0),
SIMD_INSN ("sli", 0x7f005400, 0xff80fc00, asisdshf, 0, OP3 (Sd, Sn, IMM_VLSL), QL_SSHIFT_D, 0),
SIMD_INSN ("sqshlu", 0x7f006400, 0xff80fc00, asisdshf, 0, OP3 (Sd, Sn, IMM_VLSL), QL_SSHIFT, 0),
SIMD_INSN ("uqshl", 0x7f007400, 0xff80fc00, asisdshf, 0, OP3 (Sd, Sn, IMM_VLSL), QL_SSHIFT, 0),
SIMD_INSN ("sqshrun", 0x7f008400, 0xff80fc00, asisdshf, 0, OP3 (Sd, Sn, IMM_VLSR), QL_SSHIFTN, 0),
SIMD_INSN ("sqrshrun", 0x7f008c00, 0xff80fc00, asisdshf, 0, OP3 (Sd, Sn, IMM_VLSR), QL_SSHIFTN, 0),
SIMD_INSN ("uqshrn", 0x7f009400, 0xff80fc00, asisdshf, 0, OP3 (Sd, Sn, IMM_VLSR), QL_SSHIFTN, 0),
SIMD_INSN ("uqrshrn", 0x7f009c00, 0xff80fc00, asisdshf, 0, OP3 (Sd, Sn, IMM_VLSR), QL_SSHIFTN, 0),
SIMD_INSN ("ucvtf", 0x7f00e400, 0xff80fc00, asisdshf, 0, OP3 (Sd, Sn, IMM_VLSR), QL_SSHIFT_SD, 0),
SF16_INSN ("ucvtf", 0x7f10e400, 0xff80fc00, asisdshf, OP3 (Sd, Sn, IMM_VLSR), QL_SSHIFT_H, 0),
SIMD_INSN ("fcvtzu", 0x7f00fc00, 0xff80fc00, asisdshf, 0, OP3 (Sd, Sn, IMM_VLSR), QL_SSHIFT_SD, 0),
SF16_INSN ("fcvtzu", 0x7f10fc00, 0xff80fc00, asisdshf, OP3 (Sd, Sn, IMM_VLSR), QL_SSHIFT_H, 0),
/* Bitfield. */
CORE_INSN ("sbfm", 0x13000000, 0x7f800000, bitfield, 0, OP4 (Rd, Rn, IMMR, IMMS), QL_BF, F_HAS_ALIAS | F_SF | F_N),
CORE_INSN ("sbfiz", 0x13000000, 0x7f800000, bitfield, OP_SBFIZ, OP4 (Rd, Rn, IMM, WIDTH), QL_BF2, F_ALIAS | F_P1 | F_CONV),
CORE_INSN ("sbfx", 0x13000000, 0x7f800000, bitfield, OP_SBFX, OP4 (Rd, Rn, IMM, WIDTH), QL_BF2, F_ALIAS | F_P1 | F_CONV),
CORE_INSN ("sxtb", 0x13001c00, 0x7fbffc00, bitfield, 0, OP2 (Rd, Rn), QL_EXT, F_ALIAS | F_P3 | F_SF | F_N),
CORE_INSN ("sxth", 0x13003c00, 0x7fbffc00, bitfield, 0, OP2 (Rd, Rn), QL_EXT, F_ALIAS | F_P3 | F_SF | F_N),
CORE_INSN ("sxtw", 0x93407c00, 0xfffffc00, bitfield, 0, OP2 (Rd, Rn), QL_EXT_W, F_ALIAS | F_P3),
CORE_INSN ("asr", 0x13000000, 0x7f800000, bitfield, OP_ASR_IMM, OP3 (Rd, Rn, IMM), QL_SHIFT, F_ALIAS | F_P2 | F_CONV),
CORE_INSN ("bfm", 0x33000000, 0x7f800000, bitfield, 0, OP4 (Rd, Rn, IMMR, IMMS), QL_BF, F_HAS_ALIAS | F_SF | F_N),
CORE_INSN ("bfi", 0x33000000, 0x7f800000, bitfield, OP_BFI, OP4 (Rd, Rn, IMM, WIDTH), QL_BF2, F_ALIAS | F_P1 | F_CONV),
V8_2_INSN ("bfc", 0x330003e0, 0x7f8003e0, bitfield, OP_BFC, OP3 (Rd, IMM, WIDTH), QL_BF1, F_ALIAS | F_P2 | F_CONV),
CORE_INSN ("bfxil", 0x33000000, 0x7f800000, bitfield, OP_BFXIL, OP4 (Rd, Rn, IMM, WIDTH), QL_BF2, F_ALIAS | F_P1 | F_CONV),
CORE_INSN ("ubfm", 0x53000000, 0x7f800000, bitfield, 0, OP4 (Rd, Rn, IMMR, IMMS), QL_BF, F_HAS_ALIAS | F_SF | F_N),
CORE_INSN ("ubfiz", 0x53000000, 0x7f800000, bitfield, OP_UBFIZ, OP4 (Rd, Rn, IMM, WIDTH), QL_BF2, F_ALIAS | F_P1 | F_CONV),
CORE_INSN ("ubfx", 0x53000000, 0x7f800000, bitfield, OP_UBFX, OP4 (Rd, Rn, IMM, WIDTH), QL_BF2, F_ALIAS | F_P1 | F_CONV),
CORE_INSN ("uxtb", 0x53001c00, 0xfffffc00, bitfield, OP_UXTB, OP2 (Rd, Rn), QL_I2SAMEW, F_ALIAS | F_P3),
CORE_INSN ("uxth", 0x53003c00, 0xfffffc00, bitfield, OP_UXTH, OP2 (Rd, Rn), QL_I2SAMEW, F_ALIAS | F_P3),
CORE_INSN ("lsl", 0x53000000, 0x7f800000, bitfield, OP_LSL_IMM, OP3 (Rd, Rn, IMM), QL_SHIFT, F_ALIAS | F_P2 | F_CONV),
CORE_INSN ("lsr", 0x53000000, 0x7f800000, bitfield, OP_LSR_IMM, OP3 (Rd, Rn, IMM), QL_SHIFT, F_ALIAS | F_P2 | F_CONV),
/* Unconditional branch (immediate). */
CORE_INSN ("b", 0x14000000, 0xfc000000, branch_imm, OP_B, OP1 (ADDR_PCREL26), QL_PCREL_26, 0),
CORE_INSN ("bl", 0x94000000, 0xfc000000, branch_imm, OP_BL, OP1 (ADDR_PCREL26), QL_PCREL_26, 0),
/* Unconditional branch (register). */
CORE_INSN ("br", 0xd61f0000, 0xfffffc1f, branch_reg, 0, OP1 (Rn), QL_I1X, 0),
CORE_INSN ("blr", 0xd63f0000, 0xfffffc1f, branch_reg, 0, OP1 (Rn), QL_I1X, 0),
CORE_INSN ("ret", 0xd65f0000, 0xfffffc1f, branch_reg, 0, OP1 (Rn), QL_I1X, F_OPD0_OPT | F_DEFAULT (30)),
CORE_INSN ("eret", 0xd69f03e0, 0xffffffff, branch_reg, 0, OP0 (), {}, 0),
CORE_INSN ("drps", 0xd6bf03e0, 0xffffffff, branch_reg, 0, OP0 (), {}, 0),
V8_3_INSN ("braa", 0xd71f0800, 0xfffffc00, branch_reg, OP2 (Rn, Rd_SP), QL_I2SAMEX, 0),
V8_3_INSN ("brab", 0xd71f0c00, 0xfffffc00, branch_reg, OP2 (Rn, Rd_SP), QL_I2SAMEX, 0),
V8_3_INSN ("blraa", 0xd73f0800, 0xfffffc00, branch_reg, OP2 (Rn, Rd_SP), QL_I2SAMEX, 0),
V8_3_INSN ("blrab", 0xd73f0c00, 0xfffffc00, branch_reg, OP2 (Rn, Rd_SP), QL_I2SAMEX, 0),
V8_3_INSN ("braaz", 0xd61f081f, 0xfffffc1f, branch_reg, OP1 (Rn), QL_I1X, 0),
V8_3_INSN ("brabz", 0xd61f0c1f, 0xfffffc1f, branch_reg, OP1 (Rn), QL_I1X, 0),
V8_3_INSN ("blraaz", 0xd63f081f, 0xfffffc1f, branch_reg, OP1 (Rn), QL_I1X, 0),
V8_3_INSN ("blrabz", 0xd63f0c1f, 0xfffffc1f, branch_reg, OP1 (Rn), QL_I1X, 0),
V8_3_INSN ("retaa", 0xd65f0bff, 0xffffffff, branch_reg, OP0 (), {}, 0),
V8_3_INSN ("retab", 0xd65f0fff, 0xffffffff, branch_reg, OP0 (), {}, 0),
V8_3_INSN ("eretaa", 0xd69f0bff, 0xffffffff, branch_reg, OP0 (), {}, 0),
V8_3_INSN ("eretab", 0xd69f0fff, 0xffffffff, branch_reg, OP0 (), {}, 0),
/* Compare & branch (immediate). */
CORE_INSN ("cbz", 0x34000000, 0x7f000000, compbranch, 0, OP2 (Rt, ADDR_PCREL19), QL_R_PCREL, F_SF),
CORE_INSN ("cbnz", 0x35000000, 0x7f000000, compbranch, 0, OP2 (Rt, ADDR_PCREL19), QL_R_PCREL, F_SF),
/* Conditional branch (immediate). */
CORE_INSN ("b.c", 0x54000000, 0xff000010, condbranch, 0, OP1 (ADDR_PCREL19), QL_PCREL_NIL, F_COND),
/* Conditional compare (immediate). */
CORE_INSN ("ccmn", 0x3a400800, 0x7fe00c10, condcmp_imm, 0, OP4 (Rn, CCMP_IMM, NZCV, COND), QL_CCMP_IMM, F_SF),
CORE_INSN ("ccmp", 0x7a400800, 0x7fe00c10, condcmp_imm, 0, OP4 (Rn, CCMP_IMM, NZCV, COND), QL_CCMP_IMM, F_SF),
/* Conditional compare (register). */
CORE_INSN ("ccmn", 0x3a400000, 0x7fe00c10, condcmp_reg, 0, OP4 (Rn, Rm, NZCV, COND), QL_CCMP, F_SF),
CORE_INSN ("ccmp", 0x7a400000, 0x7fe00c10, condcmp_reg, 0, OP4 (Rn, Rm, NZCV, COND), QL_CCMP, F_SF),
/* Conditional select. */
CORE_INSN ("csel", 0x1a800000, 0x7fe00c00, condsel, 0, OP4 (Rd, Rn, Rm, COND), QL_CSEL, F_SF),
CORE_INSN ("csinc", 0x1a800400, 0x7fe00c00, condsel, 0, OP4 (Rd, Rn, Rm, COND), QL_CSEL, F_HAS_ALIAS | F_SF),
CORE_INSN ("cinc", 0x1a800400, 0x7fe00c00, condsel, OP_CINC, OP3 (Rd, Rn, COND1), QL_CSEL, F_ALIAS | F_SF | F_CONV),
CORE_INSN ("cset", 0x1a9f07e0, 0x7fff0fe0, condsel, OP_CSET, OP2 (Rd, COND1), QL_DST_R, F_ALIAS | F_P1 | F_SF | F_CONV),
CORE_INSN ("csinv", 0x5a800000, 0x7fe00c00, condsel, 0, OP4 (Rd, Rn, Rm, COND), QL_CSEL, F_HAS_ALIAS | F_SF),
CORE_INSN ("cinv", 0x5a800000, 0x7fe00c00, condsel, OP_CINV, OP3 (Rd, Rn, COND1), QL_CSEL, F_ALIAS | F_SF | F_CONV),
CORE_INSN ("csetm", 0x5a9f03e0, 0x7fff0fe0, condsel, OP_CSETM, OP2 (Rd, COND1), QL_DST_R, F_ALIAS | F_P1 | F_SF | F_CONV),
CORE_INSN ("csneg", 0x5a800400, 0x7fe00c00, condsel, 0, OP4 (Rd, Rn, Rm, COND), QL_CSEL, F_HAS_ALIAS | F_SF),
CORE_INSN ("cneg", 0x5a800400, 0x7fe00c00, condsel, OP_CNEG, OP3 (Rd, Rn, COND1), QL_CSEL, F_ALIAS | F_SF | F_CONV),
/* Crypto AES. */
CRYP_INSN ("aese", 0x4e284800, 0xfffffc00, cryptoaes, OP2 (Vd, Vn), QL_V2SAME16B, 0),
CRYP_INSN ("aesd", 0x4e285800, 0xfffffc00, cryptoaes, OP2 (Vd, Vn), QL_V2SAME16B, 0),
CRYP_INSN ("aesmc", 0x4e286800, 0xfffffc00, cryptoaes, OP2 (Vd, Vn), QL_V2SAME16B, 0),
CRYP_INSN ("aesimc", 0x4e287800, 0xfffffc00, cryptoaes, OP2 (Vd, Vn), QL_V2SAME16B, 0),
/* Crypto two-reg SHA. */
CRYP_INSN ("sha1h", 0x5e280800, 0xfffffc00, cryptosha2, OP2 (Fd, Fn), QL_2SAMES, 0),
CRYP_INSN ("sha1su1", 0x5e281800, 0xfffffc00, cryptosha2, OP2 (Vd, Vn), QL_V2SAME4S, 0),
CRYP_INSN ("sha256su0",0x5e282800, 0xfffffc00, cryptosha2, OP2 (Vd, Vn), QL_V2SAME4S, 0),
/* Crypto three-reg SHA. */
CRYP_INSN ("sha1c", 0x5e000000, 0xffe0fc00, cryptosha3, OP3 (Fd, Fn, Vm), QL_SHAUPT, 0),
CRYP_INSN ("sha1p", 0x5e001000, 0xffe0fc00, cryptosha3, OP3 (Fd, Fn, Vm), QL_SHAUPT, 0),
CRYP_INSN ("sha1m", 0x5e002000, 0xffe0fc00, cryptosha3, OP3 (Fd, Fn, Vm), QL_SHAUPT, 0),
CRYP_INSN ("sha1su0", 0x5e003000, 0xffe0fc00, cryptosha3, OP3 (Vd, Vn, Vm), QL_V3SAME4S, 0),
CRYP_INSN ("sha256h", 0x5e004000, 0xffe0fc00, cryptosha3, OP3 (Fd, Fn, Vm), QL_SHA256UPT, 0),
CRYP_INSN ("sha256h2", 0x5e005000, 0xffe0fc00, cryptosha3, OP3 (Fd, Fn, Vm), QL_SHA256UPT, 0),
CRYP_INSN ("sha256su1",0x5e006000, 0xffe0fc00, cryptosha3, OP3 (Vd, Vn, Vm), QL_V3SAME4S, 0),
/* Data-processing (1 source). */
CORE_INSN ("rbit", 0x5ac00000, 0x7ffffc00, dp_1src, 0, OP2 (Rd, Rn), QL_I2SAME, F_SF),
CORE_INSN ("rev16", 0x5ac00400, 0x7ffffc00, dp_1src, 0, OP2 (Rd, Rn), QL_I2SAME, F_SF),
CORE_INSN ("rev", 0x5ac00800, 0xfffffc00, dp_1src, 0, OP2 (Rd, Rn), QL_I2SAMEW, 0),
CORE_INSN ("rev", 0xdac00c00, 0xfffffc00, dp_1src, 0, OP2 (Rd, Rn), QL_I2SAMEX, F_SF | F_HAS_ALIAS | F_P1),
V8_2_INSN ("rev64", 0xdac00c00, 0xfffffc00, dp_1src, 0, OP2 (Rd, Rn), QL_I2SAMEX, F_SF | F_ALIAS),
CORE_INSN ("clz", 0x5ac01000, 0x7ffffc00, dp_1src, 0, OP2 (Rd, Rn), QL_I2SAME, F_SF),
CORE_INSN ("cls", 0x5ac01400, 0x7ffffc00, dp_1src, 0, OP2 (Rd, Rn), QL_I2SAME, F_SF),
CORE_INSN ("rev32", 0xdac00800, 0xfffffc00, dp_1src, 0, OP2 (Rd, Rn), QL_I2SAMEX, 0),
V8_3_INSN ("pacia", 0xdac10000, 0xfffffc00, dp_1src, OP2 (Rd, Rn_SP), QL_I2SAMEX, 0),
V8_3_INSN ("pacib", 0xdac10400, 0xfffffc00, dp_1src, OP2 (Rd, Rn_SP), QL_I2SAMEX, 0),
V8_3_INSN ("pacda", 0xdac10800, 0xfffffc00, dp_1src, OP2 (Rd, Rn_SP), QL_I2SAMEX, 0),
V8_3_INSN ("pacdb", 0xdac10c00, 0xfffffc00, dp_1src, OP2 (Rd, Rn_SP), QL_I2SAMEX, 0),
V8_3_INSN ("autia", 0xdac11000, 0xfffffc00, dp_1src, OP2 (Rd, Rn_SP), QL_I2SAMEX, 0),
V8_3_INSN ("autib", 0xdac11400, 0xfffffc00, dp_1src, OP2 (Rd, Rn_SP), QL_I2SAMEX, 0),
V8_3_INSN ("autda", 0xdac11800, 0xfffffc00, dp_1src, OP2 (Rd, Rn_SP), QL_I2SAMEX, 0),
V8_3_INSN ("autdb", 0xdac11c00, 0xfffffc00, dp_1src, OP2 (Rd, Rn_SP), QL_I2SAMEX, 0),
V8_3_INSN ("paciza", 0xdac123e0, 0xffffffe0, dp_1src, OP1 (Rd), QL_I1X, 0),
V8_3_INSN ("pacizb", 0xdac127e0, 0xffffffe0, dp_1src, OP1 (Rd), QL_I1X, 0),
V8_3_INSN ("pacdza", 0xdac12be0, 0xffffffe0, dp_1src, OP1 (Rd), QL_I1X, 0),
V8_3_INSN ("pacdzb", 0xdac12fe0, 0xffffffe0, dp_1src, OP1 (Rd), QL_I1X, 0),
V8_3_INSN ("autiza", 0xdac133e0, 0xffffffe0, dp_1src, OP1 (Rd), QL_I1X, 0),
V8_3_INSN ("autizb", 0xdac137e0, 0xffffffe0, dp_1src, OP1 (Rd), QL_I1X, 0),
V8_3_INSN ("autdza", 0xdac13be0, 0xffffffe0, dp_1src, OP1 (Rd), QL_I1X, 0),
V8_3_INSN ("autdzb", 0xdac13fe0, 0xffffffe0, dp_1src, OP1 (Rd), QL_I1X, 0),
V8_3_INSN ("xpaci", 0xdac143e0, 0xffffffe0, dp_1src, OP1 (Rd), QL_I1X, 0),
V8_3_INSN ("xpacd", 0xdac147e0, 0xffffffe0, dp_1src, OP1 (Rd), QL_I1X, 0),
/* Data-processing (2 source). */
CORE_INSN ("udiv", 0x1ac00800, 0x7fe0fc00, dp_2src, 0, OP3 (Rd, Rn, Rm), QL_I3SAMER, F_SF),
CORE_INSN ("sdiv", 0x1ac00c00, 0x7fe0fc00, dp_2src, 0, OP3 (Rd, Rn, Rm), QL_I3SAMER, F_SF),
CORE_INSN ("lslv", 0x1ac02000, 0x7fe0fc00, dp_2src, 0, OP3 (Rd, Rn, Rm), QL_I3SAMER, F_SF | F_HAS_ALIAS),
CORE_INSN ("lsl", 0x1ac02000, 0x7fe0fc00, dp_2src, 0, OP3 (Rd, Rn, Rm), QL_I3SAMER, F_SF | F_ALIAS),
CORE_INSN ("lsrv", 0x1ac02400, 0x7fe0fc00, dp_2src, 0, OP3 (Rd, Rn, Rm), QL_I3SAMER, F_SF | F_HAS_ALIAS),
CORE_INSN ("lsr", 0x1ac02400, 0x7fe0fc00, dp_2src, 0, OP3 (Rd, Rn, Rm), QL_I3SAMER, F_SF | F_ALIAS),
CORE_INSN ("asrv", 0x1ac02800, 0x7fe0fc00, dp_2src, 0, OP3 (Rd, Rn, Rm), QL_I3SAMER, F_SF | F_HAS_ALIAS),
CORE_INSN ("asr", 0x1ac02800, 0x7fe0fc00, dp_2src, 0, OP3 (Rd, Rn, Rm), QL_I3SAMER, F_SF | F_ALIAS),
CORE_INSN ("rorv", 0x1ac02c00, 0x7fe0fc00, dp_2src, 0, OP3 (Rd, Rn, Rm), QL_I3SAMER, F_SF | F_HAS_ALIAS),
CORE_INSN ("ror", 0x1ac02c00, 0x7fe0fc00, dp_2src, 0, OP3 (Rd, Rn, Rm), QL_I3SAMER, F_SF | F_ALIAS),
V8_3_INSN ("pacga", 0x9ac03000, 0xffe0fc00, dp_2src, OP3 (Rd, Rn, Rm_SP), QL_I3SAMEX, 0),
/* CRC instructions. */
_CRC_INSN ("crc32b", 0x1ac04000, 0xffe0fc00, dp_2src, OP3 (Rd, Rn, Rm), QL_I3SAMEW, 0),
_CRC_INSN ("crc32h", 0x1ac04400, 0xffe0fc00, dp_2src, OP3 (Rd, Rn, Rm), QL_I3SAMEW, 0),
_CRC_INSN ("crc32w", 0x1ac04800, 0xffe0fc00, dp_2src, OP3 (Rd, Rn, Rm), QL_I3SAMEW, 0),
_CRC_INSN ("crc32x", 0x9ac04c00, 0xffe0fc00, dp_2src, OP3 (Rd, Rn, Rm), QL_I3WWX, 0),
_CRC_INSN ("crc32cb",0x1ac05000, 0xffe0fc00, dp_2src, OP3 (Rd, Rn, Rm), QL_I3SAMEW, 0),
_CRC_INSN ("crc32ch",0x1ac05400, 0xffe0fc00, dp_2src, OP3 (Rd, Rn, Rm), QL_I3SAMEW, 0),
_CRC_INSN ("crc32cw",0x1ac05800, 0xffe0fc00, dp_2src, OP3 (Rd, Rn, Rm), QL_I3SAMEW, 0),
_CRC_INSN ("crc32cx",0x9ac05c00, 0xffe0fc00, dp_2src, OP3 (Rd, Rn, Rm), QL_I3WWX, 0),
/* Data-processing (3 source). */
CORE_INSN ("madd", 0x1b000000, 0x7fe08000, dp_3src, 0, OP4 (Rd, Rn, Rm, Ra), QL_I4SAMER, F_HAS_ALIAS | F_SF),
CORE_INSN ("mul", 0x1b007c00, 0x7fe0fc00, dp_3src, 0, OP3 (Rd, Rn, Rm), QL_I3SAMER, F_ALIAS | F_SF),
CORE_INSN ("msub", 0x1b008000, 0x7fe08000, dp_3src, 0, OP4 (Rd, Rn, Rm, Ra), QL_I4SAMER, F_HAS_ALIAS | F_SF),
CORE_INSN ("mneg", 0x1b00fc00, 0x7fe0fc00, dp_3src, 0, OP3 (Rd, Rn, Rm), QL_I3SAMER, F_ALIAS | F_SF),
CORE_INSN ("smaddl",0x9b200000, 0xffe08000, dp_3src, 0, OP4 (Rd, Rn, Rm, Ra), QL_I4SAMEL, F_HAS_ALIAS),
CORE_INSN ("smull", 0x9b207c00, 0xffe0fc00, dp_3src, 0, OP3 (Rd, Rn, Rm), QL_I3SAMEL, F_ALIAS),
CORE_INSN ("smsubl",0x9b208000, 0xffe08000, dp_3src, 0, OP4 (Rd, Rn, Rm, Ra), QL_I4SAMEL, F_HAS_ALIAS),
CORE_INSN ("smnegl",0x9b20fc00, 0xffe0fc00, dp_3src, 0, OP3 (Rd, Rn, Rm), QL_I3SAMEL, F_ALIAS),
CORE_INSN ("smulh", 0x9b407c00, 0xffe08000, dp_3src, 0, OP3 (Rd, Rn, Rm), QL_I3SAMEX, 0),
CORE_INSN ("umaddl",0x9ba00000, 0xffe08000, dp_3src, 0, OP4 (Rd, Rn, Rm, Ra), QL_I4SAMEL, F_HAS_ALIAS),
CORE_INSN ("umull", 0x9ba07c00, 0xffe0fc00, dp_3src, 0, OP3 (Rd, Rn, Rm), QL_I3SAMEL, F_ALIAS),
CORE_INSN ("umsubl",0x9ba08000, 0xffe08000, dp_3src, 0, OP4 (Rd, Rn, Rm, Ra), QL_I4SAMEL, F_HAS_ALIAS),
CORE_INSN ("umnegl",0x9ba0fc00, 0xffe0fc00, dp_3src, 0, OP3 (Rd, Rn, Rm), QL_I3SAMEL, F_ALIAS),
CORE_INSN ("umulh", 0x9bc07c00, 0xffe08000, dp_3src, 0, OP3 (Rd, Rn, Rm), QL_I3SAMEX, 0),
/* Excep'n generation. */
CORE_INSN ("svc", 0xd4000001, 0xffe0001f, exception, 0, OP1 (EXCEPTION), {}, 0),
CORE_INSN ("hvc", 0xd4000002, 0xffe0001f, exception, 0, OP1 (EXCEPTION), {}, 0),
CORE_INSN ("smc", 0xd4000003, 0xffe0001f, exception, 0, OP1 (EXCEPTION), {}, 0),
CORE_INSN ("brk", 0xd4200000, 0xffe0001f, exception, 0, OP1 (EXCEPTION), {}, 0),
CORE_INSN ("hlt", 0xd4400000, 0xffe0001f, exception, 0, OP1 (EXCEPTION), {}, 0),
CORE_INSN ("dcps1", 0xd4a00001, 0xffe0001f, exception, 0, OP1 (EXCEPTION), {}, F_OPD0_OPT | F_DEFAULT (0)),
CORE_INSN ("dcps2", 0xd4a00002, 0xffe0001f, exception, 0, OP1 (EXCEPTION), {}, F_OPD0_OPT | F_DEFAULT (0)),
CORE_INSN ("dcps3", 0xd4a00003, 0xffe0001f, exception, 0, OP1 (EXCEPTION), {}, F_OPD0_OPT | F_DEFAULT (0)),
/* Extract. */
CORE_INSN ("extr", 0x13800000, 0x7fa00000, extract, 0, OP4 (Rd, Rn, Rm, IMMS), QL_EXTR, F_HAS_ALIAS | F_SF | F_N),
CORE_INSN ("ror", 0x13800000, 0x7fa00000, extract, OP_ROR_IMM, OP3 (Rd, Rm, IMMS), QL_SHIFT, F_ALIAS | F_CONV),
/* Floating-point<->fixed-point conversions. */
__FP_INSN ("scvtf", 0x1e020000, 0x7f3f0000, float2fix, 0, OP3 (Fd, Rn, FBITS), QL_FIX2FP, F_FPTYPE | F_SF),
FF16_INSN ("scvtf", 0x1ec20000, 0x7f3f0000, float2fix, OP3 (Fd, Rn, FBITS), QL_FIX2FP_H, F_FPTYPE | F_SF),
__FP_INSN ("ucvtf", 0x1e030000, 0x7f3f0000, float2fix, 0, OP3 (Fd, Rn, FBITS), QL_FIX2FP, F_FPTYPE | F_SF),
FF16_INSN ("ucvtf", 0x1ec30000, 0x7f3f0000, float2fix, OP3 (Fd, Rn, FBITS), QL_FIX2FP_H, F_FPTYPE | F_SF),
__FP_INSN ("fcvtzs",0x1e180000, 0x7f3f0000, float2fix, 0, OP3 (Rd, Fn, FBITS), QL_FP2FIX, F_FPTYPE | F_SF),
FF16_INSN ("fcvtzs",0x1ed80000, 0x7f3f0000, float2fix, OP3 (Rd, Fn, FBITS), QL_FP2FIX_H, F_FPTYPE | F_SF),
__FP_INSN ("fcvtzu",0x1e190000, 0x7f3f0000, float2fix, 0, OP3 (Rd, Fn, FBITS), QL_FP2FIX, F_FPTYPE | F_SF),
FF16_INSN ("fcvtzu",0x1ed90000, 0x7f3f0000, float2fix, OP3 (Rd, Fn, FBITS), QL_FP2FIX_H, F_FPTYPE | F_SF),
/* Floating-point<->integer conversions. */
__FP_INSN ("fcvtns",0x1e200000, 0x7f3ffc00, float2int, 0, OP2 (Rd, Fn), QL_FP2INT, F_FPTYPE | F_SF),
FF16_INSN ("fcvtns",0x1ee00000, 0x7f3ffc00, float2int, OP2 (Rd, Fn), QL_FP2INT_H, F_FPTYPE | F_SF),
__FP_INSN ("fcvtnu",0x1e210000, 0x7f3ffc00, float2int, 0, OP2 (Rd, Fn), QL_FP2INT, F_FPTYPE | F_SF),
FF16_INSN ("fcvtnu",0x1ee10000, 0x7f3ffc00, float2int, OP2 (Rd, Fn), QL_FP2INT_H, F_FPTYPE | F_SF),
__FP_INSN ("scvtf", 0x1e220000, 0x7f3ffc00, float2int, 0, OP2 (Fd, Rn), QL_INT2FP, F_FPTYPE | F_SF),
FF16_INSN ("scvtf", 0x1ee20000, 0x7f3ffc00, float2int, OP2 (Fd, Rn), QL_INT2FP_H, F_FPTYPE | F_SF),
__FP_INSN ("ucvtf", 0x1e230000, 0x7f3ffc00, float2int, 0, OP2 (Fd, Rn), QL_INT2FP, F_FPTYPE | F_SF),
FF16_INSN ("ucvtf", 0x1ee30000, 0x7f3ffc00, float2int, OP2 (Fd, Rn), QL_INT2FP_H, F_FPTYPE | F_SF),
__FP_INSN ("fcvtas",0x1e240000, 0x7f3ffc00, float2int, 0, OP2 (Rd, Fn), QL_FP2INT, F_FPTYPE | F_SF),
FF16_INSN ("fcvtas",0x1ee40000, 0x7f3ffc00, float2int, OP2 (Rd, Fn), QL_FP2INT_H, F_FPTYPE | F_SF),
__FP_INSN ("fcvtau",0x1e250000, 0x7f3ffc00, float2int, 0, OP2 (Rd, Fn), QL_FP2INT, F_FPTYPE | F_SF),
FF16_INSN ("fcvtau",0x1ee50000, 0x7f3ffc00, float2int, OP2 (Rd, Fn), QL_FP2INT_H, F_FPTYPE | F_SF),
__FP_INSN ("fmov", 0x1e260000, 0x7f3ffc00, float2int, 0, OP2 (Rd, Fn), QL_FP2INT, F_FPTYPE | F_SF),
FF16_INSN ("fmov", 0x1ee60000, 0x7f3ffc00, float2int, OP2 (Rd, Fn), QL_FP2INT_H, F_FPTYPE | F_SF),
__FP_INSN ("fmov", 0x1e270000, 0x7f3ffc00, float2int, 0, OP2 (Fd, Rn), QL_INT2FP, F_FPTYPE | F_SF),
FF16_INSN ("fmov", 0x1ee70000, 0x7f3ffc00, float2int, OP2 (Fd, Rn), QL_INT2FP_H, F_FPTYPE | F_SF),
__FP_INSN ("fcvtps",0x1e280000, 0x7f3ffc00, float2int, 0, OP2 (Rd, Fn), QL_FP2INT, F_FPTYPE | F_SF),
FF16_INSN ("fcvtps",0x1ee80000, 0x7f3ffc00, float2int, OP2 (Rd, Fn), QL_FP2INT_H, F_FPTYPE | F_SF),
__FP_INSN ("fcvtpu",0x1e290000, 0x7f3ffc00, float2int, 0, OP2 (Rd, Fn), QL_FP2INT, F_FPTYPE | F_SF),
FF16_INSN ("fcvtpu",0x1ee90000, 0x7f3ffc00, float2int, OP2 (Rd, Fn), QL_FP2INT_H, F_FPTYPE | F_SF),
__FP_INSN ("fcvtms",0x1e300000, 0x7f3ffc00, float2int, 0, OP2 (Rd, Fn), QL_FP2INT, F_FPTYPE | F_SF),
FF16_INSN ("fcvtms",0x1ef00000, 0x7f3ffc00, float2int, OP2 (Rd, Fn), QL_FP2INT_H, F_FPTYPE | F_SF),
__FP_INSN ("fcvtmu",0x1e310000, 0x7f3ffc00, float2int, 0, OP2 (Rd, Fn), QL_FP2INT, F_FPTYPE | F_SF),
FF16_INSN ("fcvtmu",0x1ef10000, 0x7f3ffc00, float2int, OP2 (Rd, Fn), QL_FP2INT_H, F_FPTYPE | F_SF),
__FP_INSN ("fcvtzs",0x1e380000, 0x7f3ffc00, float2int, 0, OP2 (Rd, Fn), QL_FP2INT, F_FPTYPE | F_SF),
FF16_INSN ("fcvtzs",0x1ef80000, 0x7f3ffc00, float2int, OP2 (Rd, Fn), QL_FP2INT_H, F_FPTYPE | F_SF),
__FP_INSN ("fcvtzu",0x1e390000, 0x7f3ffc00, float2int, 0, OP2 (Rd, Fn), QL_FP2INT, F_FPTYPE | F_SF),
FF16_INSN ("fcvtzu",0x1ef90000, 0x7f3ffc00, float2int, OP2 (Rd, Fn), QL_FP2INT_H, F_FPTYPE | F_SF),
__FP_INSN ("fmov", 0x9eae0000, 0xfffffc00, float2int, 0, OP2 (Rd, VnD1), QL_XVD1, 0),
__FP_INSN ("fmov", 0x9eaf0000, 0xfffffc00, float2int, 0, OP2 (VdD1, Rn), QL_VD1X, 0),
{"fjcvtzs", 0x1e7e0000, 0xfffffc00, float2int, 0, FP_V8_3, OP2 (Rd, Fn), QL_FP2INT_W_D, 0, 0, NULL },
/* Floating-point conditional compare. */
__FP_INSN ("fccmp", 0x1e200400, 0xff200c10, floatccmp, 0, OP4 (Fn, Fm, NZCV, COND), QL_FCCMP, F_FPTYPE),
FF16_INSN ("fccmp", 0x1ee00400, 0xff200c10, floatccmp, OP4 (Fn, Fm, NZCV, COND), QL_FCCMP_H, F_FPTYPE),
__FP_INSN ("fccmpe",0x1e200410, 0xff200c10, floatccmp, 0, OP4 (Fn, Fm, NZCV, COND), QL_FCCMP, F_FPTYPE),
FF16_INSN ("fccmpe",0x1ee00410, 0xff200c10, floatccmp, OP4 (Fn, Fm, NZCV, COND), QL_FCCMP_H, F_FPTYPE),
/* Floating-point compare. */
__FP_INSN ("fcmp", 0x1e202000, 0xff20fc1f, floatcmp, 0, OP2 (Fn, Fm), QL_FP2, F_FPTYPE),
FF16_INSN ("fcmp", 0x1ee02000, 0xff20fc1f, floatcmp, OP2 (Fn, Fm), QL_FP2_H, F_FPTYPE),
__FP_INSN ("fcmpe", 0x1e202010, 0xff20fc1f, floatcmp, 0, OP2 (Fn, Fm), QL_FP2, F_FPTYPE),
FF16_INSN ("fcmpe", 0x1ee02010, 0xff20fc1f, floatcmp, OP2 (Fn, Fm), QL_FP2_H, F_FPTYPE),
__FP_INSN ("fcmp", 0x1e202008, 0xff20fc1f, floatcmp, 0, OP2 (Fn, FPIMM0), QL_DST_SD,F_FPTYPE),
FF16_INSN ("fcmp", 0x1ee02008, 0xff20fc1f, floatcmp, OP2 (Fn, FPIMM0), QL_FP2_H, F_FPTYPE),
__FP_INSN ("fcmpe", 0x1e202018, 0xff20fc1f, floatcmp, 0, OP2 (Fn, FPIMM0), QL_DST_SD,F_FPTYPE),
FF16_INSN ("fcmpe", 0x1ee02018, 0xff20fc1f, floatcmp, OP2 (Fn, FPIMM0), QL_FP2_H, F_FPTYPE),
/* Floating-point data-processing (1 source). */
__FP_INSN ("fmov", 0x1e204000, 0xff3ffc00, floatdp1, 0, OP2 (Fd, Fn), QL_FP2, F_FPTYPE),
FF16_INSN ("fmov", 0x1ee04000, 0xff3ffc00, floatdp1, OP2 (Fd, Fn), QL_FP2_H, F_FPTYPE),
__FP_INSN ("fabs", 0x1e20c000, 0xff3ffc00, floatdp1, 0, OP2 (Fd, Fn), QL_FP2, F_FPTYPE),
FF16_INSN ("fabs", 0x1ee0c000, 0xff3ffc00, floatdp1, OP2 (Fd, Fn), QL_FP2_H, F_FPTYPE),
__FP_INSN ("fneg", 0x1e214000, 0xff3ffc00, floatdp1, 0, OP2 (Fd, Fn), QL_FP2, F_FPTYPE),
FF16_INSN ("fneg", 0x1ee14000, 0xff3ffc00, floatdp1, OP2 (Fd, Fn), QL_FP2_H, F_FPTYPE),
__FP_INSN ("fsqrt", 0x1e21c000, 0xff3ffc00, floatdp1, 0, OP2 (Fd, Fn), QL_FP2, F_FPTYPE),
FF16_INSN ("fsqrt", 0x1ee1c000, 0xff3ffc00, floatdp1, OP2 (Fd, Fn), QL_FP2_H, F_FPTYPE),
__FP_INSN ("fcvt", 0x1e224000, 0xff3e7c00, floatdp1, OP_FCVT, OP2 (Fd, Fn), QL_FCVT, F_FPTYPE | F_MISC),
__FP_INSN ("frintn",0x1e244000, 0xff3ffc00, floatdp1, 0, OP2 (Fd, Fn), QL_FP2, F_FPTYPE),
FF16_INSN ("frintn",0x1ee44000, 0xff3ffc00, floatdp1, OP2 (Fd, Fn), QL_FP2_H, F_FPTYPE),
__FP_INSN ("frintp",0x1e24c000, 0xff3ffc00, floatdp1, 0, OP2 (Fd, Fn), QL_FP2, F_FPTYPE),
FF16_INSN ("frintp",0x1ee4c000, 0xff3ffc00, floatdp1, OP2 (Fd, Fn), QL_FP2_H, F_FPTYPE),
__FP_INSN ("frintm",0x1e254000, 0xff3ffc00, floatdp1, 0, OP2 (Fd, Fn), QL_FP2, F_FPTYPE),
FF16_INSN ("frintm",0x1ee54000, 0xff3ffc00, floatdp1, OP2 (Fd, Fn), QL_FP2_H, F_FPTYPE),
__FP_INSN ("frintz",0x1e25c000, 0xff3ffc00, floatdp1, 0, OP2 (Fd, Fn), QL_FP2, F_FPTYPE),
FF16_INSN ("frintz",0x1ee5c000, 0xff3ffc00, floatdp1, OP2 (Fd, Fn), QL_FP2_H, F_FPTYPE),
__FP_INSN ("frinta",0x1e264000, 0xff3ffc00, floatdp1, 0, OP2 (Fd, Fn), QL_FP2, F_FPTYPE),
FF16_INSN ("frinta",0x1ee64000, 0xff3ffc00, floatdp1, OP2 (Fd, Fn), QL_FP2_H, F_FPTYPE),
__FP_INSN ("frintx",0x1e274000, 0xff3ffc00, floatdp1, 0, OP2 (Fd, Fn), QL_FP2, F_FPTYPE),
FF16_INSN ("frintx",0x1ee74000, 0xff3ffc00, floatdp1, OP2 (Fd, Fn), QL_FP2_H, F_FPTYPE),
__FP_INSN ("frinti",0x1e27c000, 0xff3ffc00, floatdp1, 0, OP2 (Fd, Fn), QL_FP2, F_FPTYPE),
FF16_INSN ("frinti",0x1ee7c000, 0xff3ffc00, floatdp1, OP2 (Fd, Fn), QL_FP2_H, F_FPTYPE),
/* Floating-point data-processing (2 source). */
__FP_INSN ("fmul", 0x1e200800, 0xff20fc00, floatdp2, 0, OP3 (Fd, Fn, Fm), QL_FP3, F_FPTYPE),
FF16_INSN ("fmul", 0x1ee00800, 0xff20fc00, floatdp2, OP3 (Fd, Fn, Fm), QL_FP3_H, F_FPTYPE),
__FP_INSN ("fdiv", 0x1e201800, 0xff20fc00, floatdp2, 0, OP3 (Fd, Fn, Fm), QL_FP3, F_FPTYPE),
FF16_INSN ("fdiv", 0x1ee01800, 0xff20fc00, floatdp2, OP3 (Fd, Fn, Fm), QL_FP3_H, F_FPTYPE),
__FP_INSN ("fadd", 0x1e202800, 0xff20fc00, floatdp2, 0, OP3 (Fd, Fn, Fm), QL_FP3, F_FPTYPE),
FF16_INSN ("fadd", 0x1ee02800, 0xff20fc00, floatdp2, OP3 (Fd, Fn, Fm), QL_FP3_H, F_FPTYPE),
__FP_INSN ("fsub", 0x1e203800, 0xff20fc00, floatdp2, 0, OP3 (Fd, Fn, Fm), QL_FP3, F_FPTYPE),
FF16_INSN ("fsub", 0x1ee03800, 0xff20fc00, floatdp2, OP3 (Fd, Fn, Fm), QL_FP3_H, F_FPTYPE),
__FP_INSN ("fmax", 0x1e204800, 0xff20fc00, floatdp2, 0, OP3 (Fd, Fn, Fm), QL_FP3, F_FPTYPE),
FF16_INSN ("fmax", 0x1ee04800, 0xff20fc00, floatdp2, OP3 (Fd, Fn, Fm), QL_FP3_H, F_FPTYPE),
__FP_INSN ("fmin", 0x1e205800, 0xff20fc00, floatdp2, 0, OP3 (Fd, Fn, Fm), QL_FP3, F_FPTYPE),
FF16_INSN ("fmin", 0x1ee05800, 0xff20fc00, floatdp2, OP3 (Fd, Fn, Fm), QL_FP3_H, F_FPTYPE),
__FP_INSN ("fmaxnm",0x1e206800, 0xff20fc00, floatdp2, 0, OP3 (Fd, Fn, Fm), QL_FP3, F_FPTYPE),
FF16_INSN ("fmaxnm",0x1ee06800, 0xff20fc00, floatdp2, OP3 (Fd, Fn, Fm), QL_FP3_H, F_FPTYPE),
__FP_INSN ("fminnm",0x1e207800, 0xff20fc00, floatdp2, 0, OP3 (Fd, Fn, Fm), QL_FP3, F_FPTYPE),
FF16_INSN ("fminnm",0x1ee07800, 0xff20fc00, floatdp2, OP3 (Fd, Fn, Fm), QL_FP3_H, F_FPTYPE),
__FP_INSN ("fnmul", 0x1e208800, 0xff20fc00, floatdp2, 0, OP3 (Fd, Fn, Fm), QL_FP3, F_FPTYPE),
FF16_INSN ("fnmul", 0x1ee08800, 0xff20fc00, floatdp2, OP3 (Fd, Fn, Fm), QL_FP3_H, F_FPTYPE),
/* Floating-point data-processing (3 source). */
__FP_INSN ("fmadd", 0x1f000000, 0xff208000, floatdp3, 0, OP4 (Fd, Fn, Fm, Fa), QL_FP4, F_FPTYPE),
FF16_INSN ("fmadd", 0x1fc00000, 0xff208000, floatdp3, OP4 (Fd, Fn, Fm, Fa), QL_FP4_H, F_FPTYPE),
__FP_INSN ("fmsub", 0x1f008000, 0xff208000, floatdp3, 0, OP4 (Fd, Fn, Fm, Fa), QL_FP4, F_FPTYPE),
FF16_INSN ("fmsub", 0x1fc08000, 0xff208000, floatdp3, OP4 (Fd, Fn, Fm, Fa), QL_FP4_H, F_FPTYPE),
__FP_INSN ("fnmadd",0x1f200000, 0xff208000, floatdp3, 0, OP4 (Fd, Fn, Fm, Fa), QL_FP4, F_FPTYPE),
FF16_INSN ("fnmadd",0x1fe00000, 0xff208000, floatdp3, OP4 (Fd, Fn, Fm, Fa), QL_FP4_H, F_FPTYPE),
__FP_INSN ("fnmsub",0x1f208000, 0xff208000, floatdp3, 0, OP4 (Fd, Fn, Fm, Fa), QL_FP4, F_FPTYPE),
FF16_INSN ("fnmsub",0x1fe08000, 0xff208000, floatdp3, OP4 (Fd, Fn, Fm, Fa), QL_FP4_H, F_FPTYPE),
/* Floating-point immediate. */
__FP_INSN ("fmov", 0x1e201000, 0xff201fe0, floatimm, 0, OP2 (Fd, FPIMM), QL_DST_SD, F_FPTYPE),
FF16_INSN ("fmov", 0x1ee01000, 0xff201fe0, floatimm, OP2 (Fd, FPIMM), QL_DST_H, F_FPTYPE),
/* Floating-point conditional select. */
__FP_INSN ("fcsel", 0x1e200c00, 0xff200c00, floatsel, 0, OP4 (Fd, Fn, Fm, COND), QL_FP_COND, F_FPTYPE),
FF16_INSN ("fcsel", 0x1ee00c00, 0xff200c00, floatsel, OP4 (Fd, Fn, Fm, COND), QL_FP_COND_H, F_FPTYPE),
/* Load/store register (immediate indexed). */
CORE_INSN ("strb", 0x38000400, 0xffe00400, ldst_imm9, 0, OP2 (Rt, ADDR_SIMM9), QL_LDST_W8, 0),
CORE_INSN ("ldrb", 0x38400400, 0xffe00400, ldst_imm9, 0, OP2 (Rt, ADDR_SIMM9), QL_LDST_W8, 0),
CORE_INSN ("ldrsb", 0x38800400, 0xffa00400, ldst_imm9, 0, OP2 (Rt, ADDR_SIMM9), QL_LDST_R8, F_LDS_SIZE),
CORE_INSN ("str", 0x3c000400, 0x3f600400, ldst_imm9, 0, OP2 (Ft, ADDR_SIMM9), QL_LDST_FP, 0),
CORE_INSN ("ldr", 0x3c400400, 0x3f600400, ldst_imm9, 0, OP2 (Ft, ADDR_SIMM9), QL_LDST_FP, 0),
CORE_INSN ("strh", 0x78000400, 0xffe00400, ldst_imm9, 0, OP2 (Rt, ADDR_SIMM9), QL_LDST_W16, 0),
CORE_INSN ("ldrh", 0x78400400, 0xffe00400, ldst_imm9, 0, OP2 (Rt, ADDR_SIMM9), QL_LDST_W16, 0),
CORE_INSN ("ldrsh", 0x78800400, 0xffa00400, ldst_imm9, 0, OP2 (Rt, ADDR_SIMM9), QL_LDST_R16, F_LDS_SIZE),
CORE_INSN ("str", 0xb8000400, 0xbfe00400, ldst_imm9, 0, OP2 (Rt, ADDR_SIMM9), QL_LDST_R, F_GPRSIZE_IN_Q),
CORE_INSN ("ldr", 0xb8400400, 0xbfe00400, ldst_imm9, 0, OP2 (Rt, ADDR_SIMM9), QL_LDST_R, F_GPRSIZE_IN_Q),
CORE_INSN ("ldrsw", 0xb8800400, 0xffe00400, ldst_imm9, 0, OP2 (Rt, ADDR_SIMM9), QL_LDST_X32, 0),
/* Load/store register (unsigned immediate). */
CORE_INSN ("strb", 0x39000000, 0xffc00000, ldst_pos, OP_STRB_POS, OP2 (Rt, ADDR_UIMM12), QL_LDST_W8, 0),
CORE_INSN ("ldrb", 0x39400000, 0xffc00000, ldst_pos, OP_LDRB_POS, OP2 (Rt, ADDR_UIMM12), QL_LDST_W8, 0),
CORE_INSN ("ldrsb", 0x39800000, 0xff800000, ldst_pos, OP_LDRSB_POS, OP2 (Rt, ADDR_UIMM12), QL_LDST_R8, F_LDS_SIZE),
CORE_INSN ("str", 0x3d000000, 0x3f400000, ldst_pos, OP_STRF_POS, OP2 (Ft, ADDR_UIMM12), QL_LDST_FP, 0),
CORE_INSN ("ldr", 0x3d400000, 0x3f400000, ldst_pos, OP_LDRF_POS, OP2 (Ft, ADDR_UIMM12), QL_LDST_FP, 0),
CORE_INSN ("strh", 0x79000000, 0xffc00000, ldst_pos, OP_STRH_POS, OP2 (Rt, ADDR_UIMM12), QL_LDST_W16, 0),
CORE_INSN ("ldrh", 0x79400000, 0xffc00000, ldst_pos, OP_LDRH_POS, OP2 (Rt, ADDR_UIMM12), QL_LDST_W16, 0),
CORE_INSN ("ldrsh", 0x79800000, 0xff800000, ldst_pos, OP_LDRSH_POS, OP2 (Rt, ADDR_UIMM12), QL_LDST_R16, F_LDS_SIZE),
CORE_INSN ("str", 0xb9000000, 0xbfc00000, ldst_pos, OP_STR_POS, OP2 (Rt, ADDR_UIMM12), QL_LDST_R, F_GPRSIZE_IN_Q),
CORE_INSN ("ldr", 0xb9400000, 0xbfc00000, ldst_pos, OP_LDR_POS, OP2 (Rt, ADDR_UIMM12), QL_LDST_R, F_GPRSIZE_IN_Q),
CORE_INSN ("ldrsw", 0xb9800000, 0xffc00000, ldst_pos, OP_LDRSW_POS, OP2 (Rt, ADDR_UIMM12), QL_LDST_X32, 0),
CORE_INSN ("prfm", 0xf9800000, 0xffc00000, ldst_pos, OP_PRFM_POS, OP2 (PRFOP, ADDR_UIMM12), QL_LDST_PRFM, 0),
/* Load/store register (register offset). */
CORE_INSN ("strb", 0x38200800, 0xffe00c00, ldst_regoff, 0, OP2 (Rt, ADDR_REGOFF), QL_LDST_W8, 0),
CORE_INSN ("ldrb", 0x38600800, 0xffe00c00, ldst_regoff, 0, OP2 (Rt, ADDR_REGOFF), QL_LDST_W8, 0),
CORE_INSN ("ldrsb", 0x38a00800, 0xffa00c00, ldst_regoff, 0, OP2 (Rt, ADDR_REGOFF), QL_LDST_R8, F_LDS_SIZE),
CORE_INSN ("str", 0x3c200800, 0x3f600c00, ldst_regoff, 0, OP2 (Ft, ADDR_REGOFF), QL_LDST_FP, 0),
CORE_INSN ("ldr", 0x3c600800, 0x3f600c00, ldst_regoff, 0, OP2 (Ft, ADDR_REGOFF), QL_LDST_FP, 0),
CORE_INSN ("strh", 0x78200800, 0xffe00c00, ldst_regoff, 0, OP2 (Rt, ADDR_REGOFF), QL_LDST_W16, 0),
CORE_INSN ("ldrh", 0x78600800, 0xffe00c00, ldst_regoff, 0, OP2 (Rt, ADDR_REGOFF), QL_LDST_W16, 0),
CORE_INSN ("ldrsh", 0x78a00800, 0xffa00c00, ldst_regoff, 0, OP2 (Rt, ADDR_REGOFF), QL_LDST_R16, F_LDS_SIZE),
CORE_INSN ("str", 0xb8200800, 0xbfe00c00, ldst_regoff, 0, OP2 (Rt, ADDR_REGOFF), QL_LDST_R, F_GPRSIZE_IN_Q),
CORE_INSN ("ldr", 0xb8600800, 0xbfe00c00, ldst_regoff, 0, OP2 (Rt, ADDR_REGOFF), QL_LDST_R, F_GPRSIZE_IN_Q),
CORE_INSN ("ldrsw", 0xb8a00800, 0xffe00c00, ldst_regoff, 0, OP2 (Rt, ADDR_REGOFF), QL_LDST_X32, 0),
CORE_INSN ("prfm", 0xf8a00800, 0xffe00c00, ldst_regoff, 0, OP2 (PRFOP, ADDR_REGOFF), QL_LDST_PRFM, 0),
/* Load/store register (unprivileged). */
CORE_INSN ("sttrb", 0x38000800, 0xffe00c00, ldst_unpriv, 0, OP2 (Rt, ADDR_SIMM9), QL_LDST_W8, 0),
CORE_INSN ("ldtrb", 0x38400800, 0xffe00c00, ldst_unpriv, 0, OP2 (Rt, ADDR_SIMM9), QL_LDST_W8, 0),
CORE_INSN ("ldtrsb", 0x38800800, 0xffa00c00, ldst_unpriv, 0, OP2 (Rt, ADDR_SIMM9), QL_LDST_R8, F_LDS_SIZE),
CORE_INSN ("sttrh", 0x78000800, 0xffe00c00, ldst_unpriv, 0, OP2 (Rt, ADDR_SIMM9), QL_LDST_W16, 0),
CORE_INSN ("ldtrh", 0x78400800, 0xffe00c00, ldst_unpriv, 0, OP2 (Rt, ADDR_SIMM9), QL_LDST_W16, 0),
CORE_INSN ("ldtrsh", 0x78800800, 0xffa00c00, ldst_unpriv, 0, OP2 (Rt, ADDR_SIMM9), QL_LDST_R16, F_LDS_SIZE),
CORE_INSN ("sttr", 0xb8000800, 0xbfe00c00, ldst_unpriv, 0, OP2 (Rt, ADDR_SIMM9), QL_LDST_R, F_GPRSIZE_IN_Q),
CORE_INSN ("ldtr", 0xb8400800, 0xbfe00c00, ldst_unpriv, 0, OP2 (Rt, ADDR_SIMM9), QL_LDST_R, F_GPRSIZE_IN_Q),
CORE_INSN ("ldtrsw", 0xb8800800, 0xffe00c00, ldst_unpriv, 0, OP2 (Rt, ADDR_SIMM9), QL_LDST_X32, 0),
/* Load/store register (unscaled immediate). */
CORE_INSN ("sturb", 0x38000000, 0xffe00c00, ldst_unscaled, OP_STURB, OP2 (Rt, ADDR_SIMM9), QL_LDST_W8, 0),
CORE_INSN ("ldurb", 0x38400000, 0xffe00c00, ldst_unscaled, OP_LDURB, OP2 (Rt, ADDR_SIMM9), QL_LDST_W8, 0),
CORE_INSN ("ldursb", 0x38800000, 0xffa00c00, ldst_unscaled, OP_LDURSB, OP2 (Rt, ADDR_SIMM9), QL_LDST_R8, F_LDS_SIZE),
CORE_INSN ("stur", 0x3c000000, 0x3f600c00, ldst_unscaled, OP_STURV, OP2 (Ft, ADDR_SIMM9), QL_LDST_FP, 0),
CORE_INSN ("ldur", 0x3c400000, 0x3f600c00, ldst_unscaled, OP_LDURV, OP2 (Ft, ADDR_SIMM9), QL_LDST_FP, 0),
CORE_INSN ("sturh", 0x78000000, 0xffe00c00, ldst_unscaled, OP_STURH, OP2 (Rt, ADDR_SIMM9), QL_LDST_W16, 0),
CORE_INSN ("ldurh", 0x78400000, 0xffe00c00, ldst_unscaled, OP_LDURH, OP2 (Rt, ADDR_SIMM9), QL_LDST_W16, 0),
CORE_INSN ("ldursh", 0x78800000, 0xffa00c00, ldst_unscaled, OP_LDURSH, OP2 (Rt, ADDR_SIMM9), QL_LDST_R16, F_LDS_SIZE),
CORE_INSN ("stur", 0xb8000000, 0xbfe00c00, ldst_unscaled, OP_STUR, OP2 (Rt, ADDR_SIMM9), QL_LDST_R, F_GPRSIZE_IN_Q),
CORE_INSN ("ldur", 0xb8400000, 0xbfe00c00, ldst_unscaled, OP_LDUR, OP2 (Rt, ADDR_SIMM9), QL_LDST_R, F_GPRSIZE_IN_Q),
CORE_INSN ("ldursw", 0xb8800000, 0xffe00c00, ldst_unscaled, OP_LDURSW, OP2 (Rt, ADDR_SIMM9), QL_LDST_X32, 0),
CORE_INSN ("prfum", 0xf8800000, 0xffe00c00, ldst_unscaled, OP_PRFUM, OP2 (PRFOP, ADDR_SIMM9), QL_LDST_PRFM, 0),
[AArch64] Add ARMv8.3 combined pointer authentication load instructions Add support for ARMv8.3 LDRAA and LDRAB combined pointer authentication and load instructions. These instructions authenticate the base register and load 8 byte from it plus a scaled 10-bit offset with optional writeback to update the base register. A new instruction class (ldst_imm10) and operand type (AARCH64_OPND_ADDR_SIMM10) were introduced to handle the special addressing form. include/ 2016-11-18 Szabolcs Nagy <szabolcs.nagy@arm.com> * opcode/aarch64.h (enum aarch64_opnd): Add AARCH64_OPND_ADDR_SIMM10. (enum aarch64_insn_class): Add ldst_imm10. opcodes/ 2016-11-18 Szabolcs Nagy <szabolcs.nagy@arm.com> * aarch64-tbl.h (QL_X1NIL): New. (arch64_opcode_table): Add ldraa, ldrab. (AARCH64_OPERANDS): Add "ADDR_SIMM10". * aarch64-asm.h (aarch64_ins_addr_simm10): Declare. * aarch64-asm.c (aarch64_ins_addr_simm10): Define. * aarch64-dis.h (aarch64_ext_addr_simm10): Declare. * aarch64-dis.c (aarch64_ext_addr_simm10): Define. * aarch64-opc.h (enum aarch64_field_kind): Add FLD_S_simm10. * aarch64-opc.c (fields): Add data for FLD_S_simm10. (operand_general_constraint_met_p): Handle AARCH64_OPND_ADDR_SIMM10. (aarch64_print_operand): Likewise. * aarch64-asm-2.c: Regenerate. * aarch64-dis-2.c: Regenerate. * aarch64-opc-2.c: Regenerate. gas/ 2016-11-18 Szabolcs Nagy <szabolcs.nagy@arm.com> * config/tc-aarch64.c (parse_operands): Handle AARCH64_OPND_ADDR_SIMM10. (fix_insn): Likewise. (warn_unpredictable_ldst): Handle ldst_imm10. * testsuite/gas/aarch64/pac.s: Add ldraa and ldrab tests. * testsuite/gas/aarch64/pac.d: Likewise. * testsuite/gas/aarch64/illegal-ldraa.s: New. * testsuite/gas/aarch64/illegal-ldraa.l: New. * testsuite/gas/aarch64/illegal-ldraa.d: New.
2016-11-18 10:49:06 +01:00
/* Load/store register (scaled signed immediate). */
V8_3_INSN ("ldraa", 0xf8200400, 0xffa00400, ldst_imm10, OP2 (Rt, ADDR_SIMM10), QL_X1NIL, 0),
V8_3_INSN ("ldrab", 0xf8a00400, 0xffa00400, ldst_imm10, OP2 (Rt, ADDR_SIMM10), QL_X1NIL, 0),
/* Load/store exclusive. */
CORE_INSN ("stxrb", 0x8007c00, 0xffe08000, ldstexcl, 0, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
CORE_INSN ("stlxrb", 0x800fc00, 0xffe08000, ldstexcl, 0, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
CORE_INSN ("ldxrb", 0x85f7c00, 0xffe08000, ldstexcl, 0, OP2 (Rt, ADDR_SIMPLE), QL_W1_LDST_EXC, 0),
CORE_INSN ("ldaxrb", 0x85ffc00, 0xffe08000, ldstexcl, 0, OP2 (Rt, ADDR_SIMPLE), QL_W1_LDST_EXC, 0),
CORE_INSN ("stlrb", 0x89ffc00, 0xffe08000, ldstexcl, 0, OP2 (Rt, ADDR_SIMPLE), QL_W1_LDST_EXC, 0),
CORE_INSN ("ldarb", 0x8dffc00, 0xffeffc00, ldstexcl, 0, OP2 (Rt, ADDR_SIMPLE), QL_W1_LDST_EXC, 0),
CORE_INSN ("stxrh", 0x48007c00, 0xffe08000, ldstexcl, 0, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
CORE_INSN ("stlxrh", 0x4800fc00, 0xffe08000, ldstexcl, 0, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
CORE_INSN ("ldxrh", 0x485f7c00, 0xffe08000, ldstexcl, 0, OP2 (Rt, ADDR_SIMPLE), QL_W1_LDST_EXC, 0),
CORE_INSN ("ldaxrh", 0x485ffc00, 0xffe08000, ldstexcl, 0, OP2 (Rt, ADDR_SIMPLE), QL_W1_LDST_EXC, 0),
CORE_INSN ("stlrh", 0x489ffc00, 0xffe08000, ldstexcl, 0, OP2 (Rt, ADDR_SIMPLE), QL_W1_LDST_EXC, 0),
CORE_INSN ("ldarh", 0x48dffc00, 0xffeffc00, ldstexcl, 0, OP2 (Rt, ADDR_SIMPLE), QL_W1_LDST_EXC, 0),
CORE_INSN ("stxr", 0x88007c00, 0xbfe08000, ldstexcl, 0, OP3 (Rs, Rt, ADDR_SIMPLE), QL_R2_LDST_EXC, F_GPRSIZE_IN_Q),
CORE_INSN ("stlxr", 0x8800fc00, 0xbfe08000, ldstexcl, 0, OP3 (Rs, Rt, ADDR_SIMPLE), QL_R2_LDST_EXC, F_GPRSIZE_IN_Q),
CORE_INSN ("stxp", 0x88200000, 0xbfe08000, ldstexcl, 0, OP4 (Rs, Rt, Rt2, ADDR_SIMPLE), QL_R3_LDST_EXC, F_GPRSIZE_IN_Q),
CORE_INSN ("stlxp", 0x88208000, 0xbfe08000, ldstexcl, 0, OP4 (Rs, Rt, Rt2, ADDR_SIMPLE), QL_R3_LDST_EXC, F_GPRSIZE_IN_Q),
CORE_INSN ("ldxr", 0x885f7c00, 0xbfe08000, ldstexcl, 0, OP2 (Rt, ADDR_SIMPLE), QL_R1NIL, F_GPRSIZE_IN_Q),
CORE_INSN ("ldaxr", 0x885ffc00, 0xbfe08000, ldstexcl, 0, OP2 (Rt, ADDR_SIMPLE), QL_R1NIL, F_GPRSIZE_IN_Q),
CORE_INSN ("ldxp", 0x887f0000, 0xbfe08000, ldstexcl, 0, OP3 (Rt, Rt2, ADDR_SIMPLE), QL_R2NIL, F_GPRSIZE_IN_Q),
CORE_INSN ("ldaxp", 0x887f8000, 0xbfe08000, ldstexcl, 0, OP3 (Rt, Rt2, ADDR_SIMPLE), QL_R2NIL, F_GPRSIZE_IN_Q),
CORE_INSN ("stlr", 0x889ffc00, 0xbfe08000, ldstexcl, 0, OP2 (Rt, ADDR_SIMPLE), QL_R1NIL, F_GPRSIZE_IN_Q),
CORE_INSN ("ldar", 0x88dffc00, 0xbfeffc00, ldstexcl, 0, OP2 (Rt, ADDR_SIMPLE), QL_R1NIL, F_GPRSIZE_IN_Q),
RCPC_INSN ("ldaprb", 0x38bfc000, 0xfffffc00, ldstexcl, OP2 (Rt, ADDR_SIMPLE), QL_W1_LDST_EXC, 0),
RCPC_INSN ("ldaprh", 0x78bfc000, 0xfffffc00, ldstexcl, OP2 (Rt, ADDR_SIMPLE), QL_W1_LDST_EXC, 0),
RCPC_INSN ("ldapr", 0xb8bfc000, 0xbffffc00, ldstexcl, OP2 (Rt, ADDR_SIMPLE), QL_R1NIL, F_GPRSIZE_IN_Q),
/* Limited Ordering Regions load/store instructions. */
_LOR_INSN ("ldlar", 0x88df7c00, 0xbfe08000, ldstexcl, OP2 (Rt, ADDR_SIMPLE), QL_R1NIL, F_GPRSIZE_IN_Q),
_LOR_INSN ("ldlarb", 0x08df7c00, 0xffe08000, ldstexcl, OP2 (Rt, ADDR_SIMPLE), QL_W1_LDST_EXC, 0),
_LOR_INSN ("ldlarh", 0x48df7c00, 0xffe08000, ldstexcl, OP2 (Rt, ADDR_SIMPLE), QL_W1_LDST_EXC, 0),
_LOR_INSN ("stllr", 0x889f7c00, 0xbfe08000, ldstexcl, OP2 (Rt, ADDR_SIMPLE), QL_R1NIL, F_GPRSIZE_IN_Q),
_LOR_INSN ("stllrb", 0x089f7c00, 0xffe08000, ldstexcl, OP2 (Rt, ADDR_SIMPLE), QL_W1_LDST_EXC, 0),
_LOR_INSN ("stllrh", 0x489f7c00, 0xbfe08000, ldstexcl, OP2 (Rt, ADDR_SIMPLE), QL_W1_LDST_EXC, 0),
/* Load/store no-allocate pair (offset). */
CORE_INSN ("stnp", 0x28000000, 0x7fc00000, ldstnapair_offs, 0, OP3 (Rt, Rt2, ADDR_SIMM7), QL_LDST_PAIR_R, F_SF),
CORE_INSN ("ldnp", 0x28400000, 0x7fc00000, ldstnapair_offs, 0, OP3 (Rt, Rt2, ADDR_SIMM7), QL_LDST_PAIR_R, F_SF),
CORE_INSN ("stnp", 0x2c000000, 0x3fc00000, ldstnapair_offs, 0, OP3 (Ft, Ft2, ADDR_SIMM7), QL_LDST_PAIR_FP, 0),
CORE_INSN ("ldnp", 0x2c400000, 0x3fc00000, ldstnapair_offs, 0, OP3 (Ft, Ft2, ADDR_SIMM7), QL_LDST_PAIR_FP, 0),
/* Load/store register pair (offset). */
CORE_INSN ("stp", 0x29000000, 0x7ec00000, ldstpair_off, 0, OP3 (Rt, Rt2, ADDR_SIMM7), QL_LDST_PAIR_R, F_SF),
CORE_INSN ("ldp", 0x29400000, 0x7ec00000, ldstpair_off, 0, OP3 (Rt, Rt2, ADDR_SIMM7), QL_LDST_PAIR_R, F_SF),
CORE_INSN ("stp", 0x2d000000, 0x3fc00000, ldstpair_off, 0, OP3 (Ft, Ft2, ADDR_SIMM7), QL_LDST_PAIR_FP, 0),
CORE_INSN ("ldp", 0x2d400000, 0x3fc00000, ldstpair_off, 0, OP3 (Ft, Ft2, ADDR_SIMM7), QL_LDST_PAIR_FP, 0),
{"ldpsw", 0x69400000, 0xffc00000, ldstpair_off, 0, CORE, OP3 (Rt, Rt2, ADDR_SIMM7), QL_LDST_PAIR_X32, 0, 0, VERIFIER (ldpsw)},
/* Load/store register pair (indexed). */
CORE_INSN ("stp", 0x28800000, 0x7ec00000, ldstpair_indexed, 0, OP3 (Rt, Rt2, ADDR_SIMM7), QL_LDST_PAIR_R, F_SF),
CORE_INSN ("ldp", 0x28c00000, 0x7ec00000, ldstpair_indexed, 0, OP3 (Rt, Rt2, ADDR_SIMM7), QL_LDST_PAIR_R, F_SF),
CORE_INSN ("stp", 0x2c800000, 0x3ec00000, ldstpair_indexed, 0, OP3 (Ft, Ft2, ADDR_SIMM7), QL_LDST_PAIR_FP, 0),
CORE_INSN ("ldp", 0x2cc00000, 0x3ec00000, ldstpair_indexed, 0, OP3 (Ft, Ft2, ADDR_SIMM7), QL_LDST_PAIR_FP, 0),
{"ldpsw", 0x68c00000, 0xfec00000, ldstpair_indexed, 0, CORE, OP3 (Rt, Rt2, ADDR_SIMM7), QL_LDST_PAIR_X32, 0, 0, VERIFIER (ldpsw)},
/* Load register (literal). */
CORE_INSN ("ldr", 0x18000000, 0xbf000000, loadlit, OP_LDR_LIT, OP2 (Rt, ADDR_PCREL19), QL_R_PCREL, F_GPRSIZE_IN_Q),
CORE_INSN ("ldr", 0x1c000000, 0x3f000000, loadlit, OP_LDRV_LIT, OP2 (Ft, ADDR_PCREL19), QL_FP_PCREL, 0),
CORE_INSN ("ldrsw", 0x98000000, 0xff000000, loadlit, OP_LDRSW_LIT, OP2 (Rt, ADDR_PCREL19), QL_X_PCREL, 0),
CORE_INSN ("prfm", 0xd8000000, 0xff000000, loadlit, OP_PRFM_LIT, OP2 (PRFOP, ADDR_PCREL19), QL_PRFM_PCREL, 0),
/* Logical (immediate). */
CORE_INSN ("and", 0x12000000, 0x7f800000, log_imm, 0, OP3 (Rd_SP, Rn, LIMM), QL_R2NIL, F_HAS_ALIAS | F_SF),
CORE_INSN ("bic", 0x12000000, 0x7f800000, log_imm, OP_BIC, OP3 (Rd_SP, Rn, LIMM), QL_R2NIL, F_ALIAS | F_PSEUDO | F_SF),
CORE_INSN ("orr", 0x32000000, 0x7f800000, log_imm, 0, OP3 (Rd_SP, Rn, LIMM), QL_R2NIL, F_HAS_ALIAS | F_SF),
CORE_INSN ("mov", 0x320003e0, 0x7f8003e0, log_imm, OP_MOV_IMM_LOG, OP2 (Rd_SP, IMM_MOV), QL_R1NIL, F_ALIAS | F_P1 | F_SF | F_CONV),
CORE_INSN ("eor", 0x52000000, 0x7f800000, log_imm, 0, OP3 (Rd_SP, Rn, LIMM), QL_R2NIL, F_SF),
CORE_INSN ("ands", 0x72000000, 0x7f800000, log_imm, 0, OP3 (Rd, Rn, LIMM), QL_R2NIL, F_HAS_ALIAS | F_SF),
CORE_INSN ("tst", 0x7200001f, 0x7f80001f, log_imm, 0, OP2 (Rn, LIMM), QL_R1NIL, F_ALIAS | F_SF),
/* Logical (shifted register). */
CORE_INSN ("and", 0xa000000, 0x7f200000, log_shift, 0, OP3 (Rd, Rn, Rm_SFT), QL_I3SAMER, F_SF),
CORE_INSN ("bic", 0xa200000, 0x7f200000, log_shift, 0, OP3 (Rd, Rn, Rm_SFT), QL_I3SAMER, F_SF),
CORE_INSN ("orr", 0x2a000000, 0x7f200000, log_shift, 0, OP3 (Rd, Rn, Rm_SFT), QL_I3SAMER, F_HAS_ALIAS | F_SF),
CORE_INSN ("mov", 0x2a0003e0, 0x7f2003e0, log_shift, 0, OP2 (Rd, Rm_SFT), QL_I2SAMER, F_ALIAS | F_SF),
CORE_INSN ("uxtw", 0x2a0003e0, 0x7f2003e0, log_shift, OP_UXTW, OP2 (Rd, Rm), QL_I2SAMEW, F_ALIAS | F_PSEUDO),
CORE_INSN ("orn", 0x2a200000, 0x7f200000, log_shift, 0, OP3 (Rd, Rn, Rm_SFT), QL_I3SAMER, F_HAS_ALIAS | F_SF),
CORE_INSN ("mvn", 0x2a2003e0, 0x7f2003e0, log_shift, 0, OP2 (Rd, Rm_SFT), QL_I2SAMER, F_ALIAS | F_SF),
CORE_INSN ("eor", 0x4a000000, 0x7f200000, log_shift, 0, OP3 (Rd, Rn, Rm_SFT), QL_I3SAMER, F_SF),
CORE_INSN ("eon", 0x4a200000, 0x7f200000, log_shift, 0, OP3 (Rd, Rn, Rm_SFT), QL_I3SAMER, F_SF),
CORE_INSN ("ands", 0x6a000000, 0x7f200000, log_shift, 0, OP3 (Rd, Rn, Rm_SFT), QL_I3SAMER, F_HAS_ALIAS | F_SF),
CORE_INSN ("tst", 0x6a00001f, 0x7f20001f, log_shift, 0, OP2 (Rn, Rm_SFT), QL_I2SAMER, F_ALIAS | F_SF),
CORE_INSN ("bics", 0x6a200000, 0x7f200000, log_shift, 0, OP3 (Rd, Rn, Rm_SFT), QL_I3SAMER, F_SF),
/* LSE extension (atomic). */
_LSE_INSN ("casb", 0x8a07c00, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("cash", 0x48a07c00, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("cas", 0x88a07c00, 0xbfe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_R2NIL, F_LSE_SZ),
_LSE_INSN ("casab", 0x8e07c00, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("caslb", 0x8a0fc00, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("casalb", 0x8e0fc00, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("casah", 0x48e07c00, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("caslh", 0x48a0fc00, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("casalh", 0x48e0fc00, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("casa", 0x88e07c00, 0xbfe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_R2NIL, F_LSE_SZ),
_LSE_INSN ("casl", 0x88a0fc00, 0xbfe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_R2NIL, F_LSE_SZ),
_LSE_INSN ("casal", 0x88e0fc00, 0xbfe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_R2NIL, F_LSE_SZ),
_LSE_INSN ("casp", 0x8207c00, 0xbfe0fc00, lse_atomic, OP5 (Rs, PAIRREG, Rt, PAIRREG, ADDR_SIMPLE), QL_R4NIL, F_LSE_SZ),
_LSE_INSN ("caspa", 0x8607c00, 0xbfe0fc00, lse_atomic, OP5 (Rs, PAIRREG, Rt, PAIRREG, ADDR_SIMPLE), QL_R4NIL, F_LSE_SZ),
_LSE_INSN ("caspl", 0x820fc00, 0xbfe0fc00, lse_atomic, OP5 (Rs, PAIRREG, Rt, PAIRREG, ADDR_SIMPLE), QL_R4NIL, F_LSE_SZ),
_LSE_INSN ("caspal", 0x860fc00, 0xbfe0fc00, lse_atomic, OP5 (Rs, PAIRREG, Rt, PAIRREG, ADDR_SIMPLE), QL_R4NIL, F_LSE_SZ),
_LSE_INSN ("swpb", 0x38208000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("swph", 0x78208000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("swp", 0xb8208000, 0xbfe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_R2NIL, F_LSE_SZ),
_LSE_INSN ("swpab", 0x38a08000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("swplb", 0x38608000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("swpalb", 0x38e08000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("swpah", 0x78a08000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("swplh", 0x78608000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("swpalh", 0x78e08000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("swpa", 0xb8a08000, 0xbfe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_R2NIL, F_LSE_SZ),
_LSE_INSN ("swpl", 0xb8608000, 0xbfe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_R2NIL, F_LSE_SZ),
_LSE_INSN ("swpal", 0xb8e08000, 0xbfe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_R2NIL, F_LSE_SZ),
_LSE_INSN ("ldaddb", 0x38200000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, F_HAS_ALIAS),
_LSE_INSN ("ldaddh", 0x78200000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, F_HAS_ALIAS),
_LSE_INSN ("ldadd", 0xb8200000, 0xbfe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_R2NIL, F_LSE_SZ | F_HAS_ALIAS),
_LSE_INSN ("ldaddab", 0x38a00000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("ldaddlb", 0x38600000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, F_HAS_ALIAS),
_LSE_INSN ("ldaddalb", 0x38e00000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("ldaddah", 0x78a00000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("ldaddlh", 0x78600000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, F_HAS_ALIAS),
_LSE_INSN ("ldaddalh", 0x78e00000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("ldadda", 0xb8a00000, 0xbfe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_R2NIL, F_LSE_SZ),
_LSE_INSN ("ldaddl", 0xb8600000, 0xbfe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_R2NIL, F_LSE_SZ | F_HAS_ALIAS),
_LSE_INSN ("ldaddal", 0xb8e00000, 0xbfe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_R2NIL, F_LSE_SZ),
_LSE_INSN ("ldclrb", 0x38201000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, F_HAS_ALIAS),
_LSE_INSN ("ldclrh", 0x78201000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, F_HAS_ALIAS),
_LSE_INSN ("ldclr", 0xb8201000, 0xbfe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_R2NIL, F_LSE_SZ | F_HAS_ALIAS),
_LSE_INSN ("ldclrab", 0x38a01000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("ldclrlb", 0x38601000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, F_HAS_ALIAS),
_LSE_INSN ("ldclralb", 0x38e01000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("ldclrah", 0x78a01000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("ldclrlh", 0x78601000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, F_HAS_ALIAS),
_LSE_INSN ("ldclralh", 0x78e01000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("ldclra", 0xb8a01000, 0xbfe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_R2NIL, F_LSE_SZ),
_LSE_INSN ("ldclrl", 0xb8601000, 0xbfe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_R2NIL, F_LSE_SZ | F_HAS_ALIAS),
_LSE_INSN ("ldclral", 0xb8e01000, 0xbfe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_R2NIL, F_LSE_SZ),
_LSE_INSN ("ldeorb", 0x38202000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, F_HAS_ALIAS),
_LSE_INSN ("ldeorh", 0x78202000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, F_HAS_ALIAS),
_LSE_INSN ("ldeor", 0xb8202000, 0xbfe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_R2NIL, F_LSE_SZ | F_HAS_ALIAS),
_LSE_INSN ("ldeorab", 0x38a02000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("ldeorlb", 0x38602000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, F_HAS_ALIAS),
_LSE_INSN ("ldeoralb", 0x38e02000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("ldeorah", 0x78a02000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("ldeorlh", 0x78602000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, F_HAS_ALIAS),
_LSE_INSN ("ldeoralh", 0x78e02000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("ldeora", 0xb8a02000, 0xbfe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_R2NIL, F_LSE_SZ),
_LSE_INSN ("ldeorl", 0xb8602000, 0xbfe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_R2NIL, F_LSE_SZ | F_HAS_ALIAS),
_LSE_INSN ("ldeoral", 0xb8e02000, 0xbfe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_R2NIL, F_LSE_SZ),
_LSE_INSN ("ldsetb", 0x38203000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, F_HAS_ALIAS),
_LSE_INSN ("ldseth", 0x78203000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, F_HAS_ALIAS),
_LSE_INSN ("ldset", 0xb8203000, 0xbfe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_R2NIL, F_LSE_SZ | F_HAS_ALIAS),
_LSE_INSN ("ldsetab", 0x38a03000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("ldsetlb", 0x38603000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, F_HAS_ALIAS),
_LSE_INSN ("ldsetalb", 0x38e03000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("ldsetah", 0x78a03000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("ldsetlh", 0x78603000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, F_HAS_ALIAS),
_LSE_INSN ("ldsetalh", 0x78e03000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("ldseta", 0xb8a03000, 0xbfe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_R2NIL, F_LSE_SZ),
_LSE_INSN ("ldsetl", 0xb8603000, 0xbfe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_R2NIL, F_LSE_SZ | F_HAS_ALIAS),
_LSE_INSN ("ldsetal", 0xb8e03000, 0xbfe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_R2NIL, F_LSE_SZ),
_LSE_INSN ("ldsmaxb", 0x38204000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, F_HAS_ALIAS),
_LSE_INSN ("ldsmaxh", 0x78204000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, F_HAS_ALIAS),
_LSE_INSN ("ldsmax", 0xb8204000, 0xbfe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_R2NIL, F_LSE_SZ | F_HAS_ALIAS),
_LSE_INSN ("ldsmaxab", 0x38a04000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("ldsmaxlb", 0x38604000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, F_HAS_ALIAS),
_LSE_INSN ("ldsmaxalb", 0x38e04000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("ldsmaxah", 0x78a04000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("ldsmaxlh", 0x78604000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, F_HAS_ALIAS),
_LSE_INSN ("ldsmaxalh", 0x78e04000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("ldsmaxa", 0xb8a04000, 0xbfe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_R2NIL, F_LSE_SZ),
_LSE_INSN ("ldsmaxl", 0xb8604000, 0xbfe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_R2NIL, F_LSE_SZ | F_HAS_ALIAS),
_LSE_INSN ("ldsmaxal", 0xb8e04000, 0xbfe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_R2NIL, F_LSE_SZ),
_LSE_INSN ("ldsminb", 0x38205000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, F_HAS_ALIAS),
_LSE_INSN ("ldsminh", 0x78205000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, F_HAS_ALIAS),
_LSE_INSN ("ldsmin", 0xb8205000, 0xbfe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_R2NIL, F_LSE_SZ | F_HAS_ALIAS),
_LSE_INSN ("ldsminab", 0x38a05000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("ldsminlb", 0x38605000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, F_HAS_ALIAS),
_LSE_INSN ("ldsminalb", 0x38e05000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("ldsminah", 0x78a05000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("ldsminlh", 0x78605000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, F_HAS_ALIAS),
_LSE_INSN ("ldsminalh", 0x78e05000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("ldsmina", 0xb8a05000, 0xbfe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_R2NIL, F_LSE_SZ),
_LSE_INSN ("ldsminl", 0xb8605000, 0xbfe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_R2NIL, F_LSE_SZ | F_HAS_ALIAS),
_LSE_INSN ("ldsminal", 0xb8e05000, 0xbfe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_R2NIL, F_LSE_SZ),
_LSE_INSN ("ldumaxb", 0x38206000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, F_HAS_ALIAS),
_LSE_INSN ("ldumaxh", 0x78206000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, F_HAS_ALIAS),
_LSE_INSN ("ldumax", 0xb8206000, 0xbfe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_R2NIL, F_LSE_SZ | F_HAS_ALIAS),
_LSE_INSN ("ldumaxab", 0x38a06000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("ldumaxlb", 0x38606000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, F_HAS_ALIAS),
_LSE_INSN ("ldumaxalb", 0x38e06000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("ldumaxah", 0x78a06000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("ldumaxlh", 0x78606000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, F_HAS_ALIAS),
_LSE_INSN ("ldumaxalh", 0x78e06000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("ldumaxa", 0xb8a06000, 0xbfe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_R2NIL, F_LSE_SZ),
_LSE_INSN ("ldumaxl", 0xb8606000, 0xbfe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_R2NIL, F_LSE_SZ | F_HAS_ALIAS),
_LSE_INSN ("ldumaxal", 0xb8e06000, 0xbfe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_R2NIL, F_LSE_SZ),
_LSE_INSN ("lduminb", 0x38207000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, F_HAS_ALIAS),
_LSE_INSN ("lduminh", 0x78207000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, F_HAS_ALIAS),
_LSE_INSN ("ldumin", 0xb8207000, 0xbfe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_R2NIL, F_LSE_SZ | F_HAS_ALIAS),
_LSE_INSN ("lduminab", 0x38a07000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("lduminlb", 0x38607000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, F_HAS_ALIAS),
_LSE_INSN ("lduminalb", 0x38e07000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("lduminah", 0x78a07000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("lduminlh", 0x78607000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, F_HAS_ALIAS),
_LSE_INSN ("lduminalh", 0x78e07000, 0xffe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_W2_LDST_EXC, 0),
_LSE_INSN ("ldumina", 0xb8a07000, 0xbfe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_R2NIL, F_LSE_SZ),
_LSE_INSN ("lduminl", 0xb8607000, 0xbfe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_R2NIL, F_LSE_SZ | F_HAS_ALIAS),
_LSE_INSN ("lduminal", 0xb8e07000, 0xbfe0fc00, lse_atomic, OP3 (Rs, Rt, ADDR_SIMPLE), QL_R2NIL, F_LSE_SZ),
_LSE_INSN ("staddb", 0x3820001f, 0xffe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_W1_LDST_EXC, F_ALIAS),
_LSE_INSN ("staddh", 0x7820001f, 0xffe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_W1_LDST_EXC, F_ALIAS),
_LSE_INSN ("stadd", 0xb820001f, 0xbfe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_R1NIL, F_LSE_SZ | F_ALIAS),
_LSE_INSN ("staddlb", 0x3860001f, 0xffe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_W1_LDST_EXC, F_ALIAS),
_LSE_INSN ("staddlh", 0x7860001f, 0xffe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_W1_LDST_EXC, F_ALIAS),
_LSE_INSN ("staddl", 0xb860001f, 0xbfe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_R1NIL, F_LSE_SZ | F_ALIAS),
_LSE_INSN ("stclrb", 0x3820101f, 0xffe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_W1_LDST_EXC, F_ALIAS),
_LSE_INSN ("stclrh", 0x7820101f, 0xffe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_W1_LDST_EXC, F_ALIAS),
_LSE_INSN ("stclr", 0xb820101f, 0xbfe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_R1NIL, F_LSE_SZ | F_ALIAS),
_LSE_INSN ("stclrlb", 0x3860101f, 0xffe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_W1_LDST_EXC, F_ALIAS),
_LSE_INSN ("stclrlh", 0x7860101f, 0xffe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_W1_LDST_EXC, F_ALIAS),
_LSE_INSN ("stclrl", 0xb860101f, 0xbfe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_R1NIL, F_LSE_SZ | F_ALIAS),
_LSE_INSN ("steorb", 0x3820201f, 0xffe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_W1_LDST_EXC, F_ALIAS),
_LSE_INSN ("steorh", 0x7820201f, 0xffe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_W1_LDST_EXC, F_ALIAS),
_LSE_INSN ("steor", 0xb820201f, 0xbfe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_R1NIL, F_LSE_SZ | F_ALIAS),
_LSE_INSN ("steorlb", 0x3860201f, 0xffe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_W1_LDST_EXC, F_ALIAS),
_LSE_INSN ("steorlh", 0x7860201f, 0xffe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_W1_LDST_EXC, F_ALIAS),
_LSE_INSN ("steorl", 0xb860201f, 0xbfe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_R1NIL, F_LSE_SZ | F_ALIAS),
_LSE_INSN ("stsetb", 0x3820301f, 0xffe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_W1_LDST_EXC, F_ALIAS),
_LSE_INSN ("stseth", 0x7820301f, 0xffe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_W1_LDST_EXC, F_ALIAS),
_LSE_INSN ("stset", 0xb820301f, 0xbfe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_R1NIL, F_LSE_SZ | F_ALIAS),
_LSE_INSN ("stsetlb", 0x3860301f, 0xffe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_W1_LDST_EXC, F_ALIAS),
_LSE_INSN ("stsetlh", 0x7860301f, 0xffe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_W1_LDST_EXC, F_ALIAS),
_LSE_INSN ("stsetl", 0xb860301f, 0xbfe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_R1NIL, F_LSE_SZ | F_ALIAS),
_LSE_INSN ("stsmaxb", 0x3820401f, 0xffe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_W1_LDST_EXC, F_ALIAS),
_LSE_INSN ("stsmaxh", 0x7820401f, 0xffe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_W1_LDST_EXC, F_ALIAS),
_LSE_INSN ("stsmax", 0xb820401f, 0xbfe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_R1NIL, F_LSE_SZ | F_ALIAS),
_LSE_INSN ("stsmaxlb", 0x3860401f, 0xffe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_W1_LDST_EXC, F_ALIAS),
_LSE_INSN ("stsmaxlh", 0x7860401f, 0xffe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_W1_LDST_EXC, F_ALIAS),
_LSE_INSN ("stsmaxl", 0xb860401f, 0xbfe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_R1NIL, F_LSE_SZ | F_ALIAS),
_LSE_INSN ("stsminb", 0x3820501f, 0xffe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_W1_LDST_EXC, F_ALIAS),
_LSE_INSN ("stsminh", 0x7820501f, 0xffe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_W1_LDST_EXC, F_ALIAS),
_LSE_INSN ("stsmin", 0xb820501f, 0xbfe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_R1NIL, F_LSE_SZ | F_ALIAS),
_LSE_INSN ("stsminlb", 0x3860501f, 0xffe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_W1_LDST_EXC, F_ALIAS),
_LSE_INSN ("stsminlh", 0x7860501f, 0xffe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_W1_LDST_EXC, F_ALIAS),
_LSE_INSN ("stsminl", 0xb860501f, 0xbfe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_R1NIL, F_LSE_SZ | F_ALIAS),
_LSE_INSN ("stumaxb", 0x3820601f, 0xffe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_W1_LDST_EXC, F_ALIAS),
_LSE_INSN ("stumaxh", 0x7820601f, 0xffe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_W1_LDST_EXC, F_ALIAS),
_LSE_INSN ("stumax", 0xb820601f, 0xbfe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_R1NIL, F_LSE_SZ | F_ALIAS),
_LSE_INSN ("stumaxlb", 0x3860601f, 0xffe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_W1_LDST_EXC, F_ALIAS),
_LSE_INSN ("stumaxlh", 0x7860601f, 0xffe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_W1_LDST_EXC, F_ALIAS),
_LSE_INSN ("stumaxl", 0xb860601f, 0xbfe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_R1NIL, F_LSE_SZ | F_ALIAS),
_LSE_INSN ("stuminb", 0x3820701f, 0xffe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_W1_LDST_EXC, F_ALIAS),
_LSE_INSN ("stuminh", 0x7820701f, 0xffe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_W1_LDST_EXC, F_ALIAS),
_LSE_INSN ("stumin", 0xb820701f, 0xbfe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_R1NIL, F_LSE_SZ | F_ALIAS),
_LSE_INSN ("stuminlb", 0x3860701f, 0xffe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_W1_LDST_EXC, F_ALIAS),
_LSE_INSN ("stuminlh", 0x7860701f, 0xffe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_W1_LDST_EXC, F_ALIAS),
_LSE_INSN ("stuminl", 0xb860701f, 0xbfe0fc1f, lse_atomic, OP2 (Rs, ADDR_SIMPLE), QL_R1NIL, F_LSE_SZ | F_ALIAS),
/* Move wide (immediate). */
CORE_INSN ("movn", 0x12800000, 0x7f800000, movewide, OP_MOVN, OP2 (Rd, HALF), QL_DST_R, F_SF | F_HAS_ALIAS),
CORE_INSN ("mov", 0x12800000, 0x7f800000, movewide, OP_MOV_IMM_WIDEN, OP2 (Rd, IMM_MOV), QL_DST_R, F_SF | F_ALIAS | F_CONV),
CORE_INSN ("movz", 0x52800000, 0x7f800000, movewide, OP_MOVZ, OP2 (Rd, HALF), QL_DST_R, F_SF | F_HAS_ALIAS),
CORE_INSN ("mov", 0x52800000, 0x7f800000, movewide, OP_MOV_IMM_WIDE, OP2 (Rd, IMM_MOV), QL_DST_R, F_SF | F_ALIAS | F_CONV),
CORE_INSN ("movk", 0x72800000, 0x7f800000, movewide, OP_MOVK, OP2 (Rd, HALF), QL_DST_R, F_SF),
/* PC-rel. addressing. */
CORE_INSN ("adr", 0x10000000, 0x9f000000, pcreladdr, 0, OP2 (Rd, ADDR_PCREL21), QL_ADRP, 0),
CORE_INSN ("adrp", 0x90000000, 0x9f000000, pcreladdr, 0, OP2 (Rd, ADDR_ADRP), QL_ADRP, 0),
/* System. */
CORE_INSN ("msr", 0xd500401f, 0xfff8f01f, ic_system, 0, OP2 (PSTATEFIELD, UIMM4), {}, 0),
CORE_INSN ("hint",0xd503201f, 0xfffff01f, ic_system, 0, OP1 (UIMM7), {}, F_HAS_ALIAS),
CORE_INSN ("nop", 0xd503201f, 0xffffffff, ic_system, 0, OP0 (), {}, F_ALIAS),
CORE_INSN ("yield", 0xd503203f, 0xffffffff, ic_system, 0, OP0 (), {}, F_ALIAS),
CORE_INSN ("wfe", 0xd503205f, 0xffffffff, ic_system, 0, OP0 (), {}, F_ALIAS),
CORE_INSN ("wfi", 0xd503207f, 0xffffffff, ic_system, 0, OP0 (), {}, F_ALIAS),
CORE_INSN ("sev", 0xd503209f, 0xffffffff, ic_system, 0, OP0 (), {}, F_ALIAS),
CORE_INSN ("sevl",0xd50320bf, 0xffffffff, ic_system, 0, OP0 (), {}, F_ALIAS),
V8_3_INSN ("xpaclri", 0xd50320ff, 0xffffffff, ic_system, OP0 (), {}, F_ALIAS),
V8_3_INSN ("pacia1716", 0xd503211f, 0xffffffff, ic_system, OP0 (), {}, F_ALIAS),
V8_3_INSN ("pacib1716", 0xd503215f, 0xffffffff, ic_system, OP0 (), {}, F_ALIAS),
V8_3_INSN ("autia1716", 0xd503219f, 0xffffffff, ic_system, OP0 (), {}, F_ALIAS),
V8_3_INSN ("autib1716", 0xd50321df, 0xffffffff, ic_system, OP0 (), {}, F_ALIAS),
{"esb", 0xd503221f, 0xffffffff, ic_system, 0, RAS, OP0 (), {}, F_ALIAS, 0, NULL},
{"psb", 0xd503223f, 0xffffffff, ic_system, 0, STAT_PROFILE, OP1 (BARRIER_PSB), {}, F_ALIAS, 0, NULL},
CORE_INSN ("clrex", 0xd503305f, 0xfffff0ff, ic_system, 0, OP1 (UIMM4), {}, F_OPD0_OPT | F_DEFAULT (0xF)),
CORE_INSN ("dsb", 0xd503309f, 0xfffff0ff, ic_system, 0, OP1 (BARRIER), {}, 0),
CORE_INSN ("dmb", 0xd50330bf, 0xfffff0ff, ic_system, 0, OP1 (BARRIER), {}, 0),
CORE_INSN ("isb", 0xd50330df, 0xfffff0ff, ic_system, 0, OP1 (BARRIER_ISB), {}, F_OPD0_OPT | F_DEFAULT (0xF)),
CORE_INSN ("sys", 0xd5080000, 0xfff80000, ic_system, 0, OP5 (UIMM3_OP1, CRn, CRm, UIMM3_OP2, Rt), QL_SYS, F_HAS_ALIAS | F_OPD4_OPT | F_DEFAULT (0x1F)),
CORE_INSN ("at", 0xd5080000, 0xfff80000, ic_system, 0, OP2 (SYSREG_AT, Rt), QL_SRC_X, F_ALIAS),
CORE_INSN ("dc", 0xd5080000, 0xfff80000, ic_system, 0, OP2 (SYSREG_DC, Rt), QL_SRC_X, F_ALIAS),
CORE_INSN ("ic", 0xd5080000, 0xfff80000, ic_system, 0, OP2 (SYSREG_IC, Rt_SYS), QL_SRC_X, F_ALIAS | F_OPD1_OPT | F_DEFAULT (0x1F)),
CORE_INSN ("tlbi",0xd5080000, 0xfff80000, ic_system, 0, OP2 (SYSREG_TLBI, Rt_SYS), QL_SRC_X, F_ALIAS | F_OPD1_OPT | F_DEFAULT (0x1F)),
CORE_INSN ("msr", 0xd5000000, 0xffe00000, ic_system, 0, OP2 (SYSREG, Rt), QL_SRC_X, 0),
CORE_INSN ("sysl",0xd5280000, 0xfff80000, ic_system, 0, OP5 (Rt, UIMM3_OP1, CRn, CRm, UIMM3_OP2), QL_SYSL, 0),
CORE_INSN ("mrs", 0xd5200000, 0xffe00000, ic_system, 0, OP2 (Rt, SYSREG), QL_DST_X, 0),
V8_3_INSN ("paciaz", 0xd503231f, 0xffffffff, ic_system, OP0 (), {}, F_ALIAS),
V8_3_INSN ("paciasp", 0xd503233f, 0xffffffff, ic_system, OP0 (), {}, F_ALIAS),
V8_3_INSN ("pacibz", 0xd503235f, 0xffffffff, ic_system, OP0 (), {}, F_ALIAS),
V8_3_INSN ("pacibsp", 0xd503237f, 0xffffffff, ic_system, OP0 (), {}, F_ALIAS),
V8_3_INSN ("autiaz", 0xd503239f, 0xffffffff, ic_system, OP0 (), {}, F_ALIAS),
V8_3_INSN ("autiasp", 0xd50323bf, 0xffffffff, ic_system, OP0 (), {}, F_ALIAS),
V8_3_INSN ("autibz", 0xd50323df, 0xffffffff, ic_system, OP0 (), {}, F_ALIAS),
V8_3_INSN ("autibsp", 0xd50323ff, 0xffffffff, ic_system, OP0 (), {}, F_ALIAS),
/* Test & branch (immediate). */
CORE_INSN ("tbz", 0x36000000, 0x7f000000, testbranch, 0, OP3 (Rt, BIT_NUM, ADDR_PCREL14), QL_PCREL_14, 0),
CORE_INSN ("tbnz",0x37000000, 0x7f000000, testbranch, 0, OP3 (Rt, BIT_NUM, ADDR_PCREL14), QL_PCREL_14, 0),
/* The old UAL conditional branch mnemonics (to aid portability). */
CORE_INSN ("beq", 0x54000000, 0xff00001f, condbranch, 0, OP1 (ADDR_PCREL19), QL_PCREL_NIL, F_ALIAS | F_PSEUDO),
CORE_INSN ("bne", 0x54000001, 0xff00001f, condbranch, 0, OP1 (ADDR_PCREL19), QL_PCREL_NIL, F_ALIAS | F_PSEUDO),
CORE_INSN ("bcs", 0x54000002, 0xff00001f, condbranch, 0, OP1 (ADDR_PCREL19), QL_PCREL_NIL, F_ALIAS | F_PSEUDO),
CORE_INSN ("bhs", 0x54000002, 0xff00001f, condbranch, 0, OP1 (ADDR_PCREL19), QL_PCREL_NIL, F_ALIAS | F_PSEUDO),
CORE_INSN ("bcc", 0x54000003, 0xff00001f, condbranch, 0, OP1 (ADDR_PCREL19), QL_PCREL_NIL, F_ALIAS | F_PSEUDO),
CORE_INSN ("blo", 0x54000003, 0xff00001f, condbranch, 0, OP1 (ADDR_PCREL19), QL_PCREL_NIL, F_ALIAS | F_PSEUDO),
CORE_INSN ("bmi", 0x54000004, 0xff00001f, condbranch, 0, OP1 (ADDR_PCREL19), QL_PCREL_NIL, F_ALIAS | F_PSEUDO),
CORE_INSN ("bpl", 0x54000005, 0xff00001f, condbranch, 0, OP1 (ADDR_PCREL19), QL_PCREL_NIL, F_ALIAS | F_PSEUDO),
CORE_INSN ("bvs", 0x54000006, 0xff00001f, condbranch, 0, OP1 (ADDR_PCREL19), QL_PCREL_NIL, F_ALIAS | F_PSEUDO),
CORE_INSN ("bvc", 0x54000007, 0xff00001f, condbranch, 0, OP1 (ADDR_PCREL19), QL_PCREL_NIL, F_ALIAS | F_PSEUDO),
CORE_INSN ("bhi", 0x54000008, 0xff00001f, condbranch, 0, OP1 (ADDR_PCREL19), QL_PCREL_NIL, F_ALIAS | F_PSEUDO),
CORE_INSN ("bls", 0x54000009, 0xff00001f, condbranch, 0, OP1 (ADDR_PCREL19), QL_PCREL_NIL, F_ALIAS | F_PSEUDO),
CORE_INSN ("bge", 0x5400000a, 0xff00001f, condbranch, 0, OP1 (ADDR_PCREL19), QL_PCREL_NIL, F_ALIAS | F_PSEUDO),
CORE_INSN ("blt", 0x5400000b, 0xff00001f, condbranch, 0, OP1 (ADDR_PCREL19), QL_PCREL_NIL, F_ALIAS | F_PSEUDO),
CORE_INSN ("bgt", 0x5400000c, 0xff00001f, condbranch, 0, OP1 (ADDR_PCREL19), QL_PCREL_NIL, F_ALIAS | F_PSEUDO),
CORE_INSN ("ble", 0x5400000d, 0xff00001f, condbranch, 0, OP1 (ADDR_PCREL19), QL_PCREL_NIL, F_ALIAS | F_PSEUDO),
[AArch64][SVE 31/32] Add SVE instructions This patch adds the SVE instruction definitions and associated OP_* enum values. include/ * opcode/aarch64.h (AARCH64_FEATURE_SVE): New macro. (OP_MOV_P_P, OP_MOV_Z_P_Z, OP_MOV_Z_V, OP_MOV_Z_Z, OP_MOV_Z_Zi) (OP_MOVM_P_P_P, OP_MOVS_P_P, OP_MOVZS_P_P_P, OP_MOVZ_P_P_P) (OP_NOTS_P_P_P_Z, OP_NOT_P_P_P_Z): New aarch64_ops. opcodes/ * aarch64-tbl.h (OP_SVE_B, OP_SVE_BB, OP_SVE_BBBU, OP_SVE_BMB) (OP_SVE_BPB, OP_SVE_BUB, OP_SVE_BUBB, OP_SVE_BUU, OP_SVE_BZ) (OP_SVE_BZB, OP_SVE_BZBB, OP_SVE_BZU, OP_SVE_DD, OP_SVE_DDD) (OP_SVE_DMD, OP_SVE_DMH, OP_SVE_DMS, OP_SVE_DU, OP_SVE_DUD, OP_SVE_DUU) (OP_SVE_DUV_BHS, OP_SVE_DUV_BHSD, OP_SVE_DZD, OP_SVE_DZU, OP_SVE_HB) (OP_SVE_HMD, OP_SVE_HMS, OP_SVE_HU, OP_SVE_HUU, OP_SVE_HZU, OP_SVE_RR) (OP_SVE_RURV_BHSD, OP_SVE_RUV_BHSD, OP_SVE_SMD, OP_SVE_SMH, OP_SVE_SMS) (OP_SVE_SU, OP_SVE_SUS, OP_SVE_SUU, OP_SVE_SZS, OP_SVE_SZU, OP_SVE_UB) (OP_SVE_UUD, OP_SVE_UUS, OP_SVE_VMR_BHSD, OP_SVE_VMU_SD) (OP_SVE_VMVD_BHS, OP_SVE_VMVU_BHSD, OP_SVE_VMVU_SD, OP_SVE_VMVV_BHSD) (OP_SVE_VMVV_SD, OP_SVE_VMV_BHSD, OP_SVE_VMV_HSD, OP_SVE_VMV_SD) (OP_SVE_VM_SD, OP_SVE_VPU_BHSD, OP_SVE_VPV_BHSD, OP_SVE_VRR_BHSD) (OP_SVE_VRU_BHSD, OP_SVE_VR_BHSD, OP_SVE_VUR_BHSD, OP_SVE_VUU_BHSD) (OP_SVE_VUVV_BHSD, OP_SVE_VUVV_SD, OP_SVE_VUV_BHSD, OP_SVE_VUV_SD) (OP_SVE_VU_BHSD, OP_SVE_VU_HSD, OP_SVE_VU_SD, OP_SVE_VVD_BHS) (OP_SVE_VVU_BHSD, OP_SVE_VVVU_SD, OP_SVE_VVV_BHSD, OP_SVE_VVV_SD) (OP_SVE_VV_BHSD, OP_SVE_VV_HSD_BHS, OP_SVE_VV_SD, OP_SVE_VWW_BHSD) (OP_SVE_VXX_BHSD, OP_SVE_VZVD_BHS, OP_SVE_VZVU_BHSD, OP_SVE_VZVV_BHSD) (OP_SVE_VZVV_SD, OP_SVE_VZV_SD, OP_SVE_V_SD, OP_SVE_WU, OP_SVE_WV_BHSD) (OP_SVE_XU, OP_SVE_XUV_BHSD, OP_SVE_XVW_BHSD, OP_SVE_XV_BHSD) (OP_SVE_XWU, OP_SVE_XXU): New macros. (aarch64_feature_sve): New variable. (SVE): New macro. (_SVE_INSN): Likewise. (aarch64_opcode_table): Add SVE instructions. * aarch64-opc.h (extract_fields): Declare. * aarch64-opc-2.c: Regenerate. * aarch64-asm.c (do_misc_encoding): Handle the new SVE aarch64_ops. * aarch64-asm-2.c: Regenerate. * aarch64-dis.c (extract_fields): Make global. (do_misc_decoding): Handle the new SVE aarch64_ops. * aarch64-dis-2.c: Regenerate. gas/ * doc/c-aarch64.texi: Document the "sve" feature. * config/tc-aarch64.c (REG_TYPE_R_Z_BHSDQ_VZP): New register type. (get_reg_expected_msg): Handle it. (parse_operands): When parsing operands of an SVE instruction, disallow immediates that match REG_TYPE_R_Z_BHSDQ_VZP. (aarch64_features): Add an entry for SVE.
2016-09-21 17:58:48 +02:00
/* SVE instructions. */
_SVE_INSN ("fmov", 0x25b9c000, 0xffbfe000, sve_size_sd, 0, OP2 (SVE_Zd, SVE_FPIMM8), OP_SVE_VU_SD, F_ALIAS, 0),
_SVE_INSN ("fmov", 0x0590c000, 0xffb0e000, sve_size_sd, 0, OP3 (SVE_Zd, SVE_Pg4_16, SVE_FPIMM8), OP_SVE_VMU_SD, F_ALIAS, 0),
_SVE_INSN ("mov", 0x04603000, 0xffe0fc00, sve_misc, OP_MOV_Z_Z, OP2 (SVE_Zd, SVE_Zn), OP_SVE_DD, F_ALIAS | F_MISC, 0),
_SVE_INSN ("mov", 0x05202000, 0xff20fc00, sve_index, OP_MOV_Z_V, OP2 (SVE_Zd, SVE_VZn), OP_SVE_VV_BHSD, F_ALIAS | F_MISC, 0),
_SVE_INSN ("mov", 0x05203800, 0xff3ffc00, sve_size_bhsd, 0, OP2 (SVE_Zd, Rn_SP), OP_SVE_VR_BHSD, F_ALIAS, 0),
_SVE_INSN ("mov", 0x25804000, 0xfff0c210, sve_misc, OP_MOV_P_P, OP2 (SVE_Pd, SVE_Pn), OP_SVE_BB, F_ALIAS | F_MISC, 0),
_SVE_INSN ("mov", 0x05202000, 0xff20fc00, sve_index, OP_MOV_Z_Zi, OP2 (SVE_Zd, SVE_Zn_INDEX), OP_SVE_VV_BHSD, F_ALIAS | F_MISC, 0),
_SVE_INSN ("mov", 0x05c00000, 0xfffc0000, sve_limm, 0, OP2 (SVE_Zd, SVE_LIMM_MOV), OP_SVE_VU_BHSD, F_ALIAS, 0),
_SVE_INSN ("mov", 0x2538c000, 0xff3fc000, sve_size_bhsd, 0, OP2 (SVE_Zd, SVE_ASIMM), OP_SVE_VU_BHSD, F_ALIAS, 0),
_SVE_INSN ("mov", 0x05208000, 0xff3fe000, sve_size_bhsd, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Vn), OP_SVE_VMV_BHSD, F_ALIAS, 0),
_SVE_INSN ("mov", 0x0520c000, 0xff20c000, sve_size_bhsd, OP_MOV_Z_P_Z, OP3 (SVE_Zd, SVE_Pg4_10, SVE_Zn), OP_SVE_VMV_BHSD, F_ALIAS | F_MISC, 0),
_SVE_INSN ("mov", 0x0528a000, 0xff3fe000, sve_size_bhsd, 0, OP3 (SVE_Zd, SVE_Pg3, Rn_SP), OP_SVE_VMR_BHSD, F_ALIAS, 0),
_SVE_INSN ("mov", 0x25004000, 0xfff0c210, sve_misc, OP_MOVZ_P_P_P, OP3 (SVE_Pd, SVE_Pg4_10, SVE_Pn), OP_SVE_BZB, F_ALIAS | F_MISC, 0),
_SVE_INSN ("mov", 0x25004210, 0xfff0c210, sve_misc, OP_MOVM_P_P_P, OP3 (SVE_Pd, SVE_Pg4_10, SVE_Pn), OP_SVE_BMB, F_ALIAS | F_MISC, 0),
_SVE_INSN ("mov", 0x05100000, 0xff308000, sve_cpy, 0, OP3 (SVE_Zd, SVE_Pg4_16, SVE_ASIMM), OP_SVE_VPU_BHSD, F_ALIAS, 0),
_SVE_INSN ("movs", 0x25c04000, 0xfff0c210, sve_misc, OP_MOVS_P_P, OP2 (SVE_Pd, SVE_Pn), OP_SVE_BB, F_ALIAS | F_MISC, 0),
_SVE_INSN ("movs", 0x25404000, 0xfff0c210, sve_misc, OP_MOVZS_P_P_P, OP3 (SVE_Pd, SVE_Pg4_10, SVE_Pn), OP_SVE_BZB, F_ALIAS | F_MISC, 0),
_SVE_INSN ("not", 0x25004200, 0xfff0c210, sve_misc, OP_NOT_P_P_P_Z, OP3 (SVE_Pd, SVE_Pg4_10, SVE_Pn), OP_SVE_BZB, F_ALIAS | F_MISC, 0),
_SVE_INSN ("nots", 0x25404200, 0xfff0c210, sve_misc, OP_NOTS_P_P_P_Z, OP3 (SVE_Pd, SVE_Pg4_10, SVE_Pn), OP_SVE_BZB, F_ALIAS | F_MISC, 0),
_SVE_INSN ("abs", 0x0416a000, 0xff3fe000, sve_size_bhsd, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_VMV_BHSD, 0, 0),
_SVE_INSN ("add", 0x04200000, 0xff20fc00, sve_size_bhsd, 0, OP3 (SVE_Zd, SVE_Zn, SVE_Zm_16), OP_SVE_VVV_BHSD, 0, 0),
_SVE_INSN ("add", 0x2520c000, 0xff3fc000, sve_size_bhsd, 0, OP3 (SVE_Zd, SVE_Zd, SVE_AIMM), OP_SVE_VVU_BHSD, 0, 1),
_SVE_INSN ("add", 0x04000000, 0xff3fe000, sve_size_bhsd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_Zm_5), OP_SVE_VMVV_BHSD, 0, 2),
_SVE_INSN ("addpl", 0x04605000, 0xffe0f800, sve_misc, 0, OP3 (Rd_SP, SVE_Rn_SP, SVE_SIMM6), OP_SVE_XXU, 0, 0),
_SVE_INSN ("addvl", 0x04205000, 0xffe0f800, sve_misc, 0, OP3 (Rd_SP, SVE_Rn_SP, SVE_SIMM6), OP_SVE_XXU, 0, 0),
_SVE_INSN ("adr", 0x0420a000, 0xffe0f000, sve_misc, 0, OP2 (SVE_Zd, SVE_ADDR_ZZ_SXTW), OP_SVE_DD, 0, 0),
_SVE_INSN ("adr", 0x0460a000, 0xffe0f000, sve_misc, 0, OP2 (SVE_Zd, SVE_ADDR_ZZ_UXTW), OP_SVE_DD, 0, 0),
_SVE_INSN ("adr", 0x04a0a000, 0xffa0f000, sve_size_sd, 0, OP2 (SVE_Zd, SVE_ADDR_ZZ_LSL), OP_SVE_VV_SD, 0, 0),
_SVE_INSN ("and", 0x04203000, 0xffe0fc00, sve_misc, 0, OP3 (SVE_Zd, SVE_Zn, SVE_Zm_16), OP_SVE_DDD, 0, 0),
_SVE_INSN ("and", 0x05800000, 0xfffc0000, sve_limm, 0, OP3 (SVE_Zd, SVE_Zd, SVE_LIMM), OP_SVE_VVU_BHSD, F_HAS_ALIAS, 1),
_SVE_INSN ("and", 0x041a0000, 0xff3fe000, sve_size_bhsd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_Zm_5), OP_SVE_VMVV_BHSD, 0, 2),
_SVE_INSN ("and", 0x25004000, 0xfff0c210, sve_misc, 0, OP4 (SVE_Pd, SVE_Pg4_10, SVE_Pn, SVE_Pm), OP_SVE_BZBB, F_HAS_ALIAS, 0),
_SVE_INSN ("ands", 0x25404000, 0xfff0c210, sve_misc, 0, OP4 (SVE_Pd, SVE_Pg4_10, SVE_Pn, SVE_Pm), OP_SVE_BZBB, F_HAS_ALIAS, 0),
_SVE_INSN ("andv", 0x041a2000, 0xff3fe000, sve_size_bhsd, 0, OP3 (SVE_Vd, SVE_Pg3, SVE_Zn), OP_SVE_VUV_BHSD, 0, 0),
_SVE_INSN ("asr", 0x04208000, 0xff20fc00, sve_size_bhs, 0, OP3 (SVE_Zd, SVE_Zn, SVE_Zm_16), OP_SVE_VVD_BHS, 0, 0),
_SVE_INSN ("asr", 0x04209000, 0xff20fc00, sve_shift_unpred, 0, OP3 (SVE_Zd, SVE_Zn, SVE_SHRIMM_UNPRED), OP_SVE_VVU_BHSD, 0, 0),
_SVE_INSN ("asr", 0x04108000, 0xff3fe000, sve_size_bhsd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_Zm_5), OP_SVE_VMVV_BHSD, 0, 2),
_SVE_INSN ("asr", 0x04188000, 0xff3fe000, sve_size_bhs, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_Zm_5), OP_SVE_VMVD_BHS, 0, 2),
_SVE_INSN ("asr", 0x04008000, 0xff3fe000, sve_shift_pred, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_SHRIMM_PRED), OP_SVE_VMVU_BHSD, 0, 2),
_SVE_INSN ("asrd", 0x04048000, 0xff3fe000, sve_shift_pred, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_SHRIMM_PRED), OP_SVE_VMVU_BHSD, 0, 2),
_SVE_INSN ("asrr", 0x04148000, 0xff3fe000, sve_size_bhsd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_Zm_5), OP_SVE_VMVV_BHSD, 0, 2),
_SVE_INSN ("bic", 0x04e03000, 0xffe0fc00, sve_misc, 0, OP3 (SVE_Zd, SVE_Zn, SVE_Zm_16), OP_SVE_DDD, 0, 0),
_SVE_INSN ("bic", 0x041b0000, 0xff3fe000, sve_size_bhsd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_Zm_5), OP_SVE_VMVV_BHSD, 0, 2),
_SVE_INSN ("bic", 0x25004010, 0xfff0c210, sve_misc, 0, OP4 (SVE_Pd, SVE_Pg4_10, SVE_Pn, SVE_Pm), OP_SVE_BZBB, 0, 0),
_SVE_INSN ("bics", 0x25404010, 0xfff0c210, sve_misc, 0, OP4 (SVE_Pd, SVE_Pg4_10, SVE_Pn, SVE_Pm), OP_SVE_BZBB, 0, 0),
_SVE_INSN ("brka", 0x25104000, 0xffffc200, sve_pred_zm, 0, OP3 (SVE_Pd, SVE_Pg4_10, SVE_Pn), OP_SVE_BPB, 0, 0),
_SVE_INSN ("brkas", 0x25504000, 0xffffc210, sve_misc, 0, OP3 (SVE_Pd, SVE_Pg4_10, SVE_Pn), OP_SVE_BZB, 0, 0),
_SVE_INSN ("brkb", 0x25904000, 0xffffc200, sve_pred_zm, 0, OP3 (SVE_Pd, SVE_Pg4_10, SVE_Pn), OP_SVE_BPB, 0, 0),
_SVE_INSN ("brkbs", 0x25d04000, 0xffffc210, sve_misc, 0, OP3 (SVE_Pd, SVE_Pg4_10, SVE_Pn), OP_SVE_BZB, 0, 0),
_SVE_INSN ("brkn", 0x25184000, 0xffffc210, sve_misc, 0, OP4 (SVE_Pd, SVE_Pg4_10, SVE_Pn, SVE_Pd), OP_SVE_BZBB, 0, 3),
_SVE_INSN ("brkns", 0x25584000, 0xffffc210, sve_misc, 0, OP4 (SVE_Pd, SVE_Pg4_10, SVE_Pn, SVE_Pd), OP_SVE_BZBB, 0, 3),
_SVE_INSN ("brkpa", 0x2500c000, 0xfff0c210, sve_misc, 0, OP4 (SVE_Pd, SVE_Pg4_10, SVE_Pn, SVE_Pm), OP_SVE_BZBB, 0, 0),
_SVE_INSN ("brkpas", 0x2540c000, 0xfff0c210, sve_misc, 0, OP4 (SVE_Pd, SVE_Pg4_10, SVE_Pn, SVE_Pm), OP_SVE_BZBB, 0, 0),
_SVE_INSN ("brkpb", 0x2500c010, 0xfff0c210, sve_misc, 0, OP4 (SVE_Pd, SVE_Pg4_10, SVE_Pn, SVE_Pm), OP_SVE_BZBB, 0, 0),
_SVE_INSN ("brkpbs", 0x2540c010, 0xfff0c210, sve_misc, 0, OP4 (SVE_Pd, SVE_Pg4_10, SVE_Pn, SVE_Pm), OP_SVE_BZBB, 0, 0),
_SVE_INSN ("clasta", 0x05288000, 0xff3fe000, sve_size_bhsd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_Zm_5), OP_SVE_VUVV_BHSD, 0, 2),
_SVE_INSN ("clasta", 0x052a8000, 0xff3fe000, sve_size_bhsd, 0, OP4 (SVE_Vd, SVE_Pg3, SVE_Vd, SVE_Zm_5), OP_SVE_VUVV_BHSD, 0, 2),
_SVE_INSN ("clasta", 0x0530a000, 0xff3fe000, sve_size_bhsd, 0, OP4 (Rd, SVE_Pg3, Rd, SVE_Zm_5), OP_SVE_RURV_BHSD, 0, 2),
_SVE_INSN ("clastb", 0x05298000, 0xff3fe000, sve_size_bhsd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_Zm_5), OP_SVE_VUVV_BHSD, 0, 2),
_SVE_INSN ("clastb", 0x052b8000, 0xff3fe000, sve_size_bhsd, 0, OP4 (SVE_Vd, SVE_Pg3, SVE_Vd, SVE_Zm_5), OP_SVE_VUVV_BHSD, 0, 2),
_SVE_INSN ("clastb", 0x0531a000, 0xff3fe000, sve_size_bhsd, 0, OP4 (Rd, SVE_Pg3, Rd, SVE_Zm_5), OP_SVE_RURV_BHSD, 0, 2),
_SVE_INSN ("cls", 0x0418a000, 0xff3fe000, sve_size_bhsd, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_VMV_BHSD, 0, 0),
_SVE_INSN ("clz", 0x0419a000, 0xff3fe000, sve_size_bhsd, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_VMV_BHSD, 0, 0),
_SVE_INSN ("cmpeq", 0x24002000, 0xff20e010, sve_size_bhs, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zn, SVE_Zm_16), OP_SVE_VZVD_BHS, 0, 0),
_SVE_INSN ("cmpeq", 0x2400a000, 0xff20e010, sve_size_bhsd, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zn, SVE_Zm_16), OP_SVE_VZVV_BHSD, 0, 0),
_SVE_INSN ("cmpeq", 0x25008000, 0xff20e010, sve_size_bhsd, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zn, SIMM5), OP_SVE_VZVU_BHSD, 0, 0),
_SVE_INSN ("cmpge", 0x24004000, 0xff20e010, sve_size_bhs, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zn, SVE_Zm_16), OP_SVE_VZVD_BHS, 0, 0),
_SVE_INSN ("cmpge", 0x24008000, 0xff20e010, sve_size_bhsd, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zn, SVE_Zm_16), OP_SVE_VZVV_BHSD, F_HAS_ALIAS, 0),
_SVE_INSN ("cmpge", 0x25000000, 0xff20e010, sve_size_bhsd, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zn, SIMM5), OP_SVE_VZVU_BHSD, 0, 0),
_SVE_INSN ("cmpgt", 0x24004010, 0xff20e010, sve_size_bhs, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zn, SVE_Zm_16), OP_SVE_VZVD_BHS, 0, 0),
_SVE_INSN ("cmpgt", 0x24008010, 0xff20e010, sve_size_bhsd, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zn, SVE_Zm_16), OP_SVE_VZVV_BHSD, F_HAS_ALIAS, 0),
_SVE_INSN ("cmpgt", 0x25000010, 0xff20e010, sve_size_bhsd, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zn, SIMM5), OP_SVE_VZVU_BHSD, 0, 0),
_SVE_INSN ("cmphi", 0x24000010, 0xff20e010, sve_size_bhsd, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zn, SVE_Zm_16), OP_SVE_VZVV_BHSD, F_HAS_ALIAS, 0),
_SVE_INSN ("cmphi", 0x2400c010, 0xff20e010, sve_size_bhs, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zn, SVE_Zm_16), OP_SVE_VZVD_BHS, 0, 0),
_SVE_INSN ("cmphi", 0x24200010, 0xff202010, sve_size_bhsd, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zn, SVE_UIMM7), OP_SVE_VZVU_BHSD, 0, 0),
_SVE_INSN ("cmphs", 0x24000000, 0xff20e010, sve_size_bhsd, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zn, SVE_Zm_16), OP_SVE_VZVV_BHSD, F_HAS_ALIAS, 0),
_SVE_INSN ("cmphs", 0x2400c000, 0xff20e010, sve_size_bhs, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zn, SVE_Zm_16), OP_SVE_VZVD_BHS, 0, 0),
_SVE_INSN ("cmphs", 0x24200000, 0xff202010, sve_size_bhsd, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zn, SVE_UIMM7), OP_SVE_VZVU_BHSD, 0, 0),
_SVE_INSN ("cmple", 0x24006010, 0xff20e010, sve_size_bhs, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zn, SVE_Zm_16), OP_SVE_VZVD_BHS, 0, 0),
_SVE_INSN ("cmple", 0x25002010, 0xff20e010, sve_size_bhsd, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zn, SIMM5), OP_SVE_VZVU_BHSD, 0, 0),
_SVE_INSN ("cmplo", 0x2400e000, 0xff20e010, sve_size_bhs, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zn, SVE_Zm_16), OP_SVE_VZVD_BHS, 0, 0),
_SVE_INSN ("cmplo", 0x24202000, 0xff202010, sve_size_bhsd, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zn, SVE_UIMM7), OP_SVE_VZVU_BHSD, 0, 0),
_SVE_INSN ("cmpls", 0x2400e010, 0xff20e010, sve_size_bhs, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zn, SVE_Zm_16), OP_SVE_VZVD_BHS, 0, 0),
_SVE_INSN ("cmpls", 0x24202010, 0xff202010, sve_size_bhsd, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zn, SVE_UIMM7), OP_SVE_VZVU_BHSD, 0, 0),
_SVE_INSN ("cmplt", 0x24006000, 0xff20e010, sve_size_bhs, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zn, SVE_Zm_16), OP_SVE_VZVD_BHS, 0, 0),
_SVE_INSN ("cmplt", 0x25002000, 0xff20e010, sve_size_bhsd, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zn, SIMM5), OP_SVE_VZVU_BHSD, 0, 0),
_SVE_INSN ("cmpne", 0x24002010, 0xff20e010, sve_size_bhs, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zn, SVE_Zm_16), OP_SVE_VZVD_BHS, 0, 0),
_SVE_INSN ("cmpne", 0x2400a010, 0xff20e010, sve_size_bhsd, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zn, SVE_Zm_16), OP_SVE_VZVV_BHSD, 0, 0),
_SVE_INSN ("cmpne", 0x25008010, 0xff20e010, sve_size_bhsd, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zn, SIMM5), OP_SVE_VZVU_BHSD, 0, 0),
_SVE_INSN ("cnot", 0x041ba000, 0xff3fe000, sve_size_bhsd, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_VMV_BHSD, 0, 0),
_SVE_INSN ("cnt", 0x041aa000, 0xff3fe000, sve_size_bhsd, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_VMV_BHSD, 0, 0),
_SVE_INSN ("cntb", 0x0420e000, 0xfff0fc00, sve_misc, 0, OP2 (Rd, SVE_PATTERN_SCALED), OP_SVE_XU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("cntd", 0x04e0e000, 0xfff0fc00, sve_misc, 0, OP2 (Rd, SVE_PATTERN_SCALED), OP_SVE_XU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("cnth", 0x0460e000, 0xfff0fc00, sve_misc, 0, OP2 (Rd, SVE_PATTERN_SCALED), OP_SVE_XU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("cntp", 0x25208000, 0xff3fc200, sve_size_bhsd, 0, OP3 (Rd, SVE_Pg4_10, SVE_Pn), OP_SVE_XUV_BHSD, 0, 0),
_SVE_INSN ("cntw", 0x04a0e000, 0xfff0fc00, sve_misc, 0, OP2 (Rd, SVE_PATTERN_SCALED), OP_SVE_XU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("compact", 0x05a18000, 0xffbfe000, sve_size_sd, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_VUV_SD, 0, 0),
_SVE_INSN ("cpy", 0x05208000, 0xff3fe000, sve_size_bhsd, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Vn), OP_SVE_VMV_BHSD, F_HAS_ALIAS, 0),
_SVE_INSN ("cpy", 0x0528a000, 0xff3fe000, sve_size_bhsd, 0, OP3 (SVE_Zd, SVE_Pg3, Rn_SP), OP_SVE_VMR_BHSD, F_HAS_ALIAS, 0),
_SVE_INSN ("cpy", 0x05100000, 0xff308000, sve_cpy, 0, OP3 (SVE_Zd, SVE_Pg4_16, SVE_ASIMM), OP_SVE_VPU_BHSD, F_HAS_ALIAS, 0),
_SVE_INSN ("ctermeq", 0x25a02000, 0xffa0fc1f, sve_size_sd, 0, OP2 (Rn, Rm), OP_SVE_RR, 0, 0),
_SVE_INSN ("ctermne", 0x25a02010, 0xffa0fc1f, sve_size_sd, 0, OP2 (Rn, Rm), OP_SVE_RR, 0, 0),
_SVE_INSN ("decb", 0x0430e400, 0xfff0fc00, sve_misc, 0, OP2 (Rd, SVE_PATTERN_SCALED), OP_SVE_XU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("decd", 0x04f0c400, 0xfff0fc00, sve_misc, 0, OP2 (SVE_Zd, SVE_PATTERN_SCALED), OP_SVE_DU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("decd", 0x04f0e400, 0xfff0fc00, sve_misc, 0, OP2 (Rd, SVE_PATTERN_SCALED), OP_SVE_XU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("dech", 0x0470c400, 0xfff0fc00, sve_misc, 0, OP2 (SVE_Zd, SVE_PATTERN_SCALED), OP_SVE_HU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("dech", 0x0470e400, 0xfff0fc00, sve_misc, 0, OP2 (Rd, SVE_PATTERN_SCALED), OP_SVE_XU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("decp", 0x252d8000, 0xff3ffe00, sve_size_hsd, 0, OP2 (SVE_Zd, SVE_Pg4_5), OP_SVE_VU_HSD, 0, 0),
_SVE_INSN ("decp", 0x252d8800, 0xff3ffe00, sve_size_bhsd, 0, OP2 (Rd, SVE_Pg4_5), OP_SVE_XV_BHSD, 0, 0),
_SVE_INSN ("decw", 0x04b0c400, 0xfff0fc00, sve_misc, 0, OP2 (SVE_Zd, SVE_PATTERN_SCALED), OP_SVE_SU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("decw", 0x04b0e400, 0xfff0fc00, sve_misc, 0, OP2 (Rd, SVE_PATTERN_SCALED), OP_SVE_XU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("dup", 0x05203800, 0xff3ffc00, sve_size_bhsd, 0, OP2 (SVE_Zd, Rn_SP), OP_SVE_VR_BHSD, F_HAS_ALIAS, 0),
_SVE_INSN ("dup", 0x05202000, 0xff20fc00, sve_index, 0, OP2 (SVE_Zd, SVE_Zn_INDEX), OP_SVE_VV_BHSD, F_HAS_ALIAS, 0),
_SVE_INSN ("dup", 0x2538c000, 0xff3fc000, sve_size_bhsd, 0, OP2 (SVE_Zd, SVE_ASIMM), OP_SVE_VU_BHSD, F_HAS_ALIAS, 0),
_SVE_INSN ("dupm", 0x05c00000, 0xfffc0000, sve_limm, 0, OP2 (SVE_Zd, SVE_LIMM), OP_SVE_VU_BHSD, F_HAS_ALIAS, 0),
_SVE_INSN ("eor", 0x04a03000, 0xffe0fc00, sve_misc, 0, OP3 (SVE_Zd, SVE_Zn, SVE_Zm_16), OP_SVE_DDD, 0, 0),
_SVE_INSN ("eor", 0x05400000, 0xfffc0000, sve_limm, 0, OP3 (SVE_Zd, SVE_Zd, SVE_LIMM), OP_SVE_VVU_BHSD, F_HAS_ALIAS, 1),
_SVE_INSN ("eor", 0x04190000, 0xff3fe000, sve_size_bhsd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_Zm_5), OP_SVE_VMVV_BHSD, 0, 2),
_SVE_INSN ("eor", 0x25004200, 0xfff0c210, sve_misc, 0, OP4 (SVE_Pd, SVE_Pg4_10, SVE_Pn, SVE_Pm), OP_SVE_BZBB, F_HAS_ALIAS, 0),
_SVE_INSN ("eors", 0x25404200, 0xfff0c210, sve_misc, 0, OP4 (SVE_Pd, SVE_Pg4_10, SVE_Pn, SVE_Pm), OP_SVE_BZBB, F_HAS_ALIAS, 0),
_SVE_INSN ("eorv", 0x04192000, 0xff3fe000, sve_size_bhsd, 0, OP3 (SVE_Vd, SVE_Pg3, SVE_Zn), OP_SVE_VUV_BHSD, 0, 0),
_SVE_INSN ("ext", 0x05200000, 0xffe0e000, sve_misc, 0, OP4 (SVE_Zd, SVE_Zd, SVE_Zm_5, SVE_UIMM8_53), OP_SVE_BBBU, 0, 1),
_SVE_INSN ("fabd", 0x65888000, 0xffbfe000, sve_size_sd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_Zm_5), OP_SVE_VMVV_SD, 0, 2),
_SVE_INSN ("fabs", 0x049ca000, 0xffbfe000, sve_size_sd, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_VMV_SD, 0, 0),
_SVE_INSN ("facge", 0x6580c010, 0xffa0e010, sve_size_sd, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zn, SVE_Zm_16), OP_SVE_VZVV_SD, F_HAS_ALIAS, 0),
_SVE_INSN ("facgt", 0x6580e010, 0xffa0e010, sve_size_sd, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zn, SVE_Zm_16), OP_SVE_VZVV_SD, F_HAS_ALIAS, 0),
_SVE_INSN ("fadd", 0x65800000, 0xffa0fc00, sve_size_sd, 0, OP3 (SVE_Zd, SVE_Zn, SVE_Zm_16), OP_SVE_VVV_SD, 0, 0),
_SVE_INSN ("fadd", 0x65808000, 0xffbfe000, sve_size_sd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_Zm_5), OP_SVE_VMVV_SD, 0, 2),
_SVE_INSN ("fadd", 0x65988000, 0xffbfe3c0, sve_size_sd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_I1_HALF_ONE), OP_SVE_VMVU_SD, 0, 2),
_SVE_INSN ("fadda", 0x65982000, 0xffbfe000, sve_size_sd, 0, OP4 (SVE_Vd, SVE_Pg3, SVE_Vd, SVE_Zm_5), OP_SVE_VUVV_SD, 0, 2),
_SVE_INSN ("faddv", 0x65802000, 0xffbfe000, sve_size_sd, 0, OP3 (SVE_Vd, SVE_Pg3, SVE_Zn), OP_SVE_VUV_SD, 0, 0),
_SVE_INSN ("fcmeq", 0x65922000, 0xffbfe010, sve_size_sd, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zn, FPIMM0), OP_SVE_VZV_SD, 0, 0),
_SVE_INSN ("fcmeq", 0x65806000, 0xffa0e010, sve_size_sd, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zn, SVE_Zm_16), OP_SVE_VZVV_SD, 0, 0),
_SVE_INSN ("fcmge", 0x65902000, 0xffbfe010, sve_size_sd, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zn, FPIMM0), OP_SVE_VZV_SD, 0, 0),
_SVE_INSN ("fcmge", 0x65804000, 0xffa0e010, sve_size_sd, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zn, SVE_Zm_16), OP_SVE_VZVV_SD, F_HAS_ALIAS, 0),
_SVE_INSN ("fcmgt", 0x65902010, 0xffbfe010, sve_size_sd, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zn, FPIMM0), OP_SVE_VZV_SD, 0, 0),
_SVE_INSN ("fcmgt", 0x65804010, 0xffa0e010, sve_size_sd, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zn, SVE_Zm_16), OP_SVE_VZVV_SD, F_HAS_ALIAS, 0),
_SVE_INSN ("fcmle", 0x65912010, 0xffbfe010, sve_size_sd, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zn, FPIMM0), OP_SVE_VZV_SD, 0, 0),
_SVE_INSN ("fcmlt", 0x65912000, 0xffbfe010, sve_size_sd, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zn, FPIMM0), OP_SVE_VZV_SD, 0, 0),
_SVE_INSN ("fcmne", 0x65932000, 0xffbfe010, sve_size_sd, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zn, FPIMM0), OP_SVE_VZV_SD, 0, 0),
_SVE_INSN ("fcmne", 0x65806010, 0xffa0e010, sve_size_sd, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zn, SVE_Zm_16), OP_SVE_VZVV_SD, 0, 0),
_SVE_INSN ("fcmuo", 0x6580c000, 0xffa0e010, sve_size_sd, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zn, SVE_Zm_16), OP_SVE_VZVV_SD, 0, 0),
_SVE_INSN ("fcpy", 0x0590c000, 0xffb0e000, sve_size_sd, 0, OP3 (SVE_Zd, SVE_Pg4_16, SVE_FPIMM8), OP_SVE_VMU_SD, F_HAS_ALIAS, 0),
_SVE_INSN ("fcvt", 0x6588a000, 0xffffe000, sve_misc, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_HMS, 0, 0),
_SVE_INSN ("fcvt", 0x6589a000, 0xffffe000, sve_misc, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_SMH, 0, 0),
_SVE_INSN ("fcvt", 0x65c8a000, 0xffffe000, sve_misc, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_HMD, 0, 0),
_SVE_INSN ("fcvt", 0x65c9a000, 0xffffe000, sve_misc, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_DMH, 0, 0),
_SVE_INSN ("fcvt", 0x65caa000, 0xffffe000, sve_misc, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_SMD, 0, 0),
_SVE_INSN ("fcvt", 0x65cba000, 0xffffe000, sve_misc, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_DMS, 0, 0),
_SVE_INSN ("fcvtzs", 0x659ca000, 0xffffe000, sve_misc, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_SMS, 0, 0),
_SVE_INSN ("fcvtzs", 0x65d8a000, 0xffffe000, sve_misc, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_SMD, 0, 0),
_SVE_INSN ("fcvtzs", 0x65dca000, 0xffffe000, sve_misc, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_DMS, 0, 0),
_SVE_INSN ("fcvtzs", 0x65dea000, 0xffffe000, sve_misc, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_DMD, 0, 0),
_SVE_INSN ("fcvtzu", 0x659da000, 0xffffe000, sve_misc, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_SMS, 0, 0),
_SVE_INSN ("fcvtzu", 0x65d9a000, 0xffffe000, sve_misc, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_SMD, 0, 0),
_SVE_INSN ("fcvtzu", 0x65dda000, 0xffffe000, sve_misc, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_DMS, 0, 0),
_SVE_INSN ("fcvtzu", 0x65dfa000, 0xffffe000, sve_misc, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_DMD, 0, 0),
_SVE_INSN ("fdiv", 0x658d8000, 0xffbfe000, sve_size_sd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_Zm_5), OP_SVE_VMVV_SD, 0, 2),
_SVE_INSN ("fdivr", 0x658c8000, 0xffbfe000, sve_size_sd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_Zm_5), OP_SVE_VMVV_SD, 0, 2),
_SVE_INSN ("fdup", 0x25b9c000, 0xffbfe000, sve_size_sd, 0, OP2 (SVE_Zd, SVE_FPIMM8), OP_SVE_VU_SD, F_HAS_ALIAS, 0),
_SVE_INSN ("fexpa", 0x04a0b800, 0xffbffc00, sve_size_sd, 0, OP2 (SVE_Zd, SVE_Zn), OP_SVE_VV_SD, 0, 0),
_SVE_INSN ("fmad", 0x65a08000, 0xffa0e000, sve_size_sd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zm_5, SVE_Za_16), OP_SVE_VMVV_SD, 0, 0),
_SVE_INSN ("fmax", 0x65868000, 0xffbfe000, sve_size_sd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_Zm_5), OP_SVE_VMVV_SD, 0, 2),
_SVE_INSN ("fmax", 0x659e8000, 0xffbfe3c0, sve_size_sd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_I1_ZERO_ONE), OP_SVE_VMVU_SD, 0, 2),
_SVE_INSN ("fmaxnm", 0x65848000, 0xffbfe000, sve_size_sd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_Zm_5), OP_SVE_VMVV_SD, 0, 2),
_SVE_INSN ("fmaxnm", 0x659c8000, 0xffbfe3c0, sve_size_sd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_I1_ZERO_ONE), OP_SVE_VMVU_SD, 0, 2),
_SVE_INSN ("fmaxnmv", 0x65842000, 0xffbfe000, sve_size_sd, 0, OP3 (SVE_Vd, SVE_Pg3, SVE_Zn), OP_SVE_VUV_SD, 0, 0),
_SVE_INSN ("fmaxv", 0x65862000, 0xffbfe000, sve_size_sd, 0, OP3 (SVE_Vd, SVE_Pg3, SVE_Zn), OP_SVE_VUV_SD, 0, 0),
_SVE_INSN ("fmin", 0x65878000, 0xffbfe000, sve_size_sd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_Zm_5), OP_SVE_VMVV_SD, 0, 2),
_SVE_INSN ("fmin", 0x659f8000, 0xffbfe3c0, sve_size_sd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_I1_ZERO_ONE), OP_SVE_VMVU_SD, 0, 2),
_SVE_INSN ("fminnm", 0x65858000, 0xffbfe000, sve_size_sd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_Zm_5), OP_SVE_VMVV_SD, 0, 2),
_SVE_INSN ("fminnm", 0x659d8000, 0xffbfe3c0, sve_size_sd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_I1_ZERO_ONE), OP_SVE_VMVU_SD, 0, 2),
_SVE_INSN ("fminnmv", 0x65852000, 0xffbfe000, sve_size_sd, 0, OP3 (SVE_Vd, SVE_Pg3, SVE_Zn), OP_SVE_VUV_SD, 0, 0),
_SVE_INSN ("fminv", 0x65872000, 0xffbfe000, sve_size_sd, 0, OP3 (SVE_Vd, SVE_Pg3, SVE_Zn), OP_SVE_VUV_SD, 0, 0),
_SVE_INSN ("fmla", 0x65a00000, 0xffa0e000, sve_size_sd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zn, SVE_Zm_16), OP_SVE_VMVV_SD, 0, 0),
_SVE_INSN ("fmls", 0x65a02000, 0xffa0e000, sve_size_sd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zn, SVE_Zm_16), OP_SVE_VMVV_SD, 0, 0),
_SVE_INSN ("fmsb", 0x65a0a000, 0xffa0e000, sve_size_sd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zm_5, SVE_Za_16), OP_SVE_VMVV_SD, 0, 0),
_SVE_INSN ("fmul", 0x65800800, 0xffa0fc00, sve_size_sd, 0, OP3 (SVE_Zd, SVE_Zn, SVE_Zm_16), OP_SVE_VVV_SD, 0, 0),
_SVE_INSN ("fmul", 0x65828000, 0xffbfe000, sve_size_sd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_Zm_5), OP_SVE_VMVV_SD, 0, 2),
_SVE_INSN ("fmul", 0x659a8000, 0xffbfe3c0, sve_size_sd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_I1_HALF_TWO), OP_SVE_VMVU_SD, 0, 2),
_SVE_INSN ("fmulx", 0x658a8000, 0xffbfe000, sve_size_sd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_Zm_5), OP_SVE_VMVV_SD, 0, 2),
_SVE_INSN ("fneg", 0x049da000, 0xffbfe000, sve_size_sd, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_VMV_SD, 0, 0),
_SVE_INSN ("fnmad", 0x65a0c000, 0xffa0e000, sve_size_sd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zm_5, SVE_Za_16), OP_SVE_VMVV_SD, 0, 0),
_SVE_INSN ("fnmla", 0x65a04000, 0xffa0e000, sve_size_sd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zn, SVE_Zm_16), OP_SVE_VMVV_SD, 0, 0),
_SVE_INSN ("fnmls", 0x65a06000, 0xffa0e000, sve_size_sd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zn, SVE_Zm_16), OP_SVE_VMVV_SD, 0, 0),
_SVE_INSN ("fnmsb", 0x65a0e000, 0xffa0e000, sve_size_sd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zm_5, SVE_Za_16), OP_SVE_VMVV_SD, 0, 0),
_SVE_INSN ("frecpe", 0x658e3000, 0xffbffc00, sve_size_sd, 0, OP2 (SVE_Zd, SVE_Zn), OP_SVE_VV_SD, 0, 0),
_SVE_INSN ("frecps", 0x65801800, 0xffa0fc00, sve_size_sd, 0, OP3 (SVE_Zd, SVE_Zn, SVE_Zm_16), OP_SVE_VVV_SD, 0, 0),
_SVE_INSN ("frecpx", 0x658ca000, 0xffbfe000, sve_size_sd, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_VMV_SD, 0, 0),
_SVE_INSN ("frinta", 0x6584a000, 0xffbfe000, sve_size_sd, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_VMV_SD, 0, 0),
_SVE_INSN ("frinti", 0x6587a000, 0xffbfe000, sve_size_sd, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_VMV_SD, 0, 0),
_SVE_INSN ("frintm", 0x6582a000, 0xffbfe000, sve_size_sd, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_VMV_SD, 0, 0),
_SVE_INSN ("frintn", 0x6580a000, 0xffbfe000, sve_size_sd, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_VMV_SD, 0, 0),
_SVE_INSN ("frintp", 0x6581a000, 0xffbfe000, sve_size_sd, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_VMV_SD, 0, 0),
_SVE_INSN ("frintx", 0x6586a000, 0xffbfe000, sve_size_sd, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_VMV_SD, 0, 0),
_SVE_INSN ("frintz", 0x6583a000, 0xffbfe000, sve_size_sd, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_VMV_SD, 0, 0),
_SVE_INSN ("frsqrte", 0x658f3000, 0xffbffc00, sve_size_sd, 0, OP2 (SVE_Zd, SVE_Zn), OP_SVE_VV_SD, 0, 0),
_SVE_INSN ("frsqrts", 0x65801c00, 0xffa0fc00, sve_size_sd, 0, OP3 (SVE_Zd, SVE_Zn, SVE_Zm_16), OP_SVE_VVV_SD, 0, 0),
_SVE_INSN ("fscale", 0x65898000, 0xffbfe000, sve_size_sd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_Zm_5), OP_SVE_VMVV_SD, 0, 2),
_SVE_INSN ("fsqrt", 0x658da000, 0xffbfe000, sve_size_sd, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_VMV_SD, 0, 0),
_SVE_INSN ("fsub", 0x65800400, 0xffa0fc00, sve_size_sd, 0, OP3 (SVE_Zd, SVE_Zn, SVE_Zm_16), OP_SVE_VVV_SD, 0, 0),
_SVE_INSN ("fsub", 0x65818000, 0xffbfe000, sve_size_sd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_Zm_5), OP_SVE_VMVV_SD, 0, 2),
_SVE_INSN ("fsub", 0x65998000, 0xffbfe3c0, sve_size_sd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_I1_HALF_ONE), OP_SVE_VMVU_SD, 0, 2),
_SVE_INSN ("fsubr", 0x65838000, 0xffbfe000, sve_size_sd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_Zm_5), OP_SVE_VMVV_SD, 0, 2),
_SVE_INSN ("fsubr", 0x659b8000, 0xffbfe3c0, sve_size_sd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_I1_HALF_ONE), OP_SVE_VMVU_SD, 0, 2),
_SVE_INSN ("ftmad", 0x65908000, 0xffb8fc00, sve_size_sd, 0, OP4 (SVE_Zd, SVE_Zd, SVE_Zm_5, SVE_UIMM3), OP_SVE_VVVU_SD, 0, 1),
_SVE_INSN ("ftsmul", 0x65800c00, 0xffa0fc00, sve_size_sd, 0, OP3 (SVE_Zd, SVE_Zn, SVE_Zm_16), OP_SVE_VVV_SD, 0, 0),
_SVE_INSN ("ftssel", 0x04a0b000, 0xffa0fc00, sve_size_sd, 0, OP3 (SVE_Zd, SVE_Zn, SVE_Zm_16), OP_SVE_VVV_SD, 0, 0),
_SVE_INSN ("incb", 0x0430e000, 0xfff0fc00, sve_misc, 0, OP2 (Rd, SVE_PATTERN_SCALED), OP_SVE_XU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("incd", 0x04f0c000, 0xfff0fc00, sve_misc, 0, OP2 (SVE_Zd, SVE_PATTERN_SCALED), OP_SVE_DU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("incd", 0x04f0e000, 0xfff0fc00, sve_misc, 0, OP2 (Rd, SVE_PATTERN_SCALED), OP_SVE_XU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("inch", 0x0470c000, 0xfff0fc00, sve_misc, 0, OP2 (SVE_Zd, SVE_PATTERN_SCALED), OP_SVE_HU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("inch", 0x0470e000, 0xfff0fc00, sve_misc, 0, OP2 (Rd, SVE_PATTERN_SCALED), OP_SVE_XU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("incp", 0x252c8000, 0xff3ffe00, sve_size_hsd, 0, OP2 (SVE_Zd, SVE_Pg4_5), OP_SVE_VU_HSD, 0, 0),
_SVE_INSN ("incp", 0x252c8800, 0xff3ffe00, sve_size_bhsd, 0, OP2 (Rd, SVE_Pg4_5), OP_SVE_XV_BHSD, 0, 0),
_SVE_INSN ("incw", 0x04b0c000, 0xfff0fc00, sve_misc, 0, OP2 (SVE_Zd, SVE_PATTERN_SCALED), OP_SVE_SU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("incw", 0x04b0e000, 0xfff0fc00, sve_misc, 0, OP2 (Rd, SVE_PATTERN_SCALED), OP_SVE_XU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("index", 0x04204c00, 0xff20fc00, sve_size_bhsd, 0, OP3 (SVE_Zd, Rn, Rm), OP_SVE_VRR_BHSD, 0, 0),
_SVE_INSN ("index", 0x04204000, 0xff20fc00, sve_size_bhsd, 0, OP3 (SVE_Zd, SVE_SIMM5, SVE_SIMM5B), OP_SVE_VUU_BHSD, 0, 0),
_SVE_INSN ("index", 0x04204400, 0xff20fc00, sve_size_bhsd, 0, OP3 (SVE_Zd, Rn, SIMM5), OP_SVE_VRU_BHSD, 0, 0),
_SVE_INSN ("index", 0x04204800, 0xff20fc00, sve_size_bhsd, 0, OP3 (SVE_Zd, SVE_SIMM5, Rm), OP_SVE_VUR_BHSD, 0, 0),
_SVE_INSN ("insr", 0x05243800, 0xff3ffc00, sve_size_bhsd, 0, OP2 (SVE_Zd, SVE_Rm), OP_SVE_VR_BHSD, 0, 0),
_SVE_INSN ("insr", 0x05343800, 0xff3ffc00, sve_size_bhsd, 0, OP2 (SVE_Zd, SVE_Vm), OP_SVE_VV_BHSD, 0, 0),
_SVE_INSN ("lasta", 0x0520a000, 0xff3fe000, sve_size_bhsd, 0, OP3 (Rd, SVE_Pg3, SVE_Zn), OP_SVE_RUV_BHSD, 0, 0),
_SVE_INSN ("lasta", 0x05228000, 0xff3fe000, sve_size_bhsd, 0, OP3 (SVE_Vd, SVE_Pg3, SVE_Zn), OP_SVE_VUV_BHSD, 0, 0),
_SVE_INSN ("lastb", 0x0521a000, 0xff3fe000, sve_size_bhsd, 0, OP3 (Rd, SVE_Pg3, SVE_Zn), OP_SVE_RUV_BHSD, 0, 0),
_SVE_INSN ("lastb", 0x05238000, 0xff3fe000, sve_size_bhsd, 0, OP3 (SVE_Vd, SVE_Pg3, SVE_Zn), OP_SVE_VUV_BHSD, 0, 0),
_SVE_INSN ("ld1b", 0x84004000, 0xffa0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW_22), OP_SVE_SZS, F_OD(1), 0),
_SVE_INSN ("ld1b", 0xa4004000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX), OP_SVE_BZU, F_OD(1), 0),
_SVE_INSN ("ld1b", 0xa4204000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX), OP_SVE_HZU, F_OD(1), 0),
_SVE_INSN ("ld1b", 0xa4404000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX), OP_SVE_SZU, F_OD(1), 0),
_SVE_INSN ("ld1b", 0xa4604000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX), OP_SVE_DZU, F_OD(1), 0),
_SVE_INSN ("ld1b", 0xc4004000, 0xffa0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW_22), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ld1b", 0xc440c000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ld1b", 0x8420c000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_ZI_U5), OP_SVE_SZS, F_OD(1), 0),
_SVE_INSN ("ld1b", 0xa400a000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_BZU, F_OD(1), 0),
_SVE_INSN ("ld1b", 0xa420a000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_HZU, F_OD(1), 0),
_SVE_INSN ("ld1b", 0xa440a000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_SZU, F_OD(1), 0),
_SVE_INSN ("ld1b", 0xa460a000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_DZU, F_OD(1), 0),
_SVE_INSN ("ld1b", 0xc420c000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_ZI_U5), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ld1d", 0xa5e04000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX_LSL3), OP_SVE_DZU, F_OD(1), 0),
_SVE_INSN ("ld1d", 0xc5804000, 0xffa0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW_22), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ld1d", 0xc5a04000, 0xffa0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW3_22), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ld1d", 0xc5c0c000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ld1d", 0xc5e0c000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_LSL3), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ld1d", 0xa5e0a000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_DZU, F_OD(1), 0),
_SVE_INSN ("ld1d", 0xc5a0c000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_ZI_U5x8), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ld1h", 0x84804000, 0xffa0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW_22), OP_SVE_SZS, F_OD(1), 0),
_SVE_INSN ("ld1h", 0x84a04000, 0xffa0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW1_22), OP_SVE_SZS, F_OD(1), 0),
_SVE_INSN ("ld1h", 0xa4a04000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX_LSL1), OP_SVE_HZU, F_OD(1), 0),
_SVE_INSN ("ld1h", 0xa4c04000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX_LSL1), OP_SVE_SZU, F_OD(1), 0),
_SVE_INSN ("ld1h", 0xa4e04000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX_LSL1), OP_SVE_DZU, F_OD(1), 0),
_SVE_INSN ("ld1h", 0xc4804000, 0xffa0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW_22), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ld1h", 0xc4a04000, 0xffa0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW1_22), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ld1h", 0xc4c0c000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ld1h", 0xc4e0c000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_LSL1), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ld1h", 0x84a0c000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_ZI_U5x2), OP_SVE_SZS, F_OD(1), 0),
_SVE_INSN ("ld1h", 0xa4a0a000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_HZU, F_OD(1), 0),
_SVE_INSN ("ld1h", 0xa4c0a000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_SZU, F_OD(1), 0),
_SVE_INSN ("ld1h", 0xa4e0a000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_DZU, F_OD(1), 0),
_SVE_INSN ("ld1h", 0xc4a0c000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_ZI_U5x2), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ld1rb", 0x84408000, 0xffc0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_U6), OP_SVE_BZU, F_OD(1), 0),
_SVE_INSN ("ld1rb", 0x8440a000, 0xffc0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_U6), OP_SVE_HZU, F_OD(1), 0),
_SVE_INSN ("ld1rb", 0x8440c000, 0xffc0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_U6), OP_SVE_SZU, F_OD(1), 0),
_SVE_INSN ("ld1rb", 0x8440e000, 0xffc0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_U6), OP_SVE_DZU, F_OD(1), 0),
_SVE_INSN ("ld1rd", 0x85c0e000, 0xffc0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_U6x8), OP_SVE_DZU, F_OD(1), 0),
_SVE_INSN ("ld1rh", 0x84c0a000, 0xffc0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_U6x2), OP_SVE_HZU, F_OD(1), 0),
_SVE_INSN ("ld1rh", 0x84c0c000, 0xffc0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_U6x2), OP_SVE_SZU, F_OD(1), 0),
_SVE_INSN ("ld1rh", 0x84c0e000, 0xffc0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_U6x2), OP_SVE_DZU, F_OD(1), 0),
_SVE_INSN ("ld1rsb", 0x85c08000, 0xffc0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_U6), OP_SVE_DZU, F_OD(1), 0),
_SVE_INSN ("ld1rsb", 0x85c0a000, 0xffc0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_U6), OP_SVE_SZU, F_OD(1), 0),
_SVE_INSN ("ld1rsb", 0x85c0c000, 0xffc0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_U6), OP_SVE_HZU, F_OD(1), 0),
_SVE_INSN ("ld1rsh", 0x85408000, 0xffc0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_U6x2), OP_SVE_DZU, F_OD(1), 0),
_SVE_INSN ("ld1rsh", 0x8540a000, 0xffc0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_U6x2), OP_SVE_SZU, F_OD(1), 0),
_SVE_INSN ("ld1rsw", 0x84c08000, 0xffc0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_U6x4), OP_SVE_DZU, F_OD(1), 0),
_SVE_INSN ("ld1rw", 0x8540c000, 0xffc0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_U6x4), OP_SVE_SZU, F_OD(1), 0),
_SVE_INSN ("ld1rw", 0x8540e000, 0xffc0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_U6x4), OP_SVE_DZU, F_OD(1), 0),
_SVE_INSN ("ld1sb", 0x84000000, 0xffa0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW_22), OP_SVE_SZS, F_OD(1), 0),
_SVE_INSN ("ld1sb", 0xa5804000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX), OP_SVE_DZU, F_OD(1), 0),
_SVE_INSN ("ld1sb", 0xa5a04000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX), OP_SVE_SZU, F_OD(1), 0),
_SVE_INSN ("ld1sb", 0xa5c04000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX), OP_SVE_HZU, F_OD(1), 0),
_SVE_INSN ("ld1sb", 0xc4000000, 0xffa0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW_22), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ld1sb", 0xc4408000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ld1sb", 0x84208000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_ZI_U5), OP_SVE_SZS, F_OD(1), 0),
_SVE_INSN ("ld1sb", 0xa580a000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_DZU, F_OD(1), 0),
_SVE_INSN ("ld1sb", 0xa5a0a000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_SZU, F_OD(1), 0),
_SVE_INSN ("ld1sb", 0xa5c0a000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_HZU, F_OD(1), 0),
_SVE_INSN ("ld1sb", 0xc4208000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_ZI_U5), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ld1sh", 0x84800000, 0xffa0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW_22), OP_SVE_SZS, F_OD(1), 0),
_SVE_INSN ("ld1sh", 0x84a00000, 0xffa0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW1_22), OP_SVE_SZS, F_OD(1), 0),
_SVE_INSN ("ld1sh", 0xa5004000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX_LSL1), OP_SVE_DZU, F_OD(1), 0),
_SVE_INSN ("ld1sh", 0xa5204000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX_LSL1), OP_SVE_SZU, F_OD(1), 0),
_SVE_INSN ("ld1sh", 0xc4800000, 0xffa0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW_22), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ld1sh", 0xc4a00000, 0xffa0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW1_22), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ld1sh", 0xc4c08000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ld1sh", 0xc4e08000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_LSL1), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ld1sh", 0x84a08000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_ZI_U5x2), OP_SVE_SZS, F_OD(1), 0),
_SVE_INSN ("ld1sh", 0xa500a000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_DZU, F_OD(1), 0),
_SVE_INSN ("ld1sh", 0xa520a000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_SZU, F_OD(1), 0),
_SVE_INSN ("ld1sh", 0xc4a08000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_ZI_U5x2), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ld1sw", 0xa4804000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX_LSL2), OP_SVE_DZU, F_OD(1), 0),
_SVE_INSN ("ld1sw", 0xc5000000, 0xffa0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW_22), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ld1sw", 0xc5200000, 0xffa0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW2_22), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ld1sw", 0xc5408000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ld1sw", 0xc5608000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_LSL2), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ld1sw", 0xa480a000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_DZU, F_OD(1), 0),
_SVE_INSN ("ld1sw", 0xc5208000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_ZI_U5x4), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ld1w", 0x85004000, 0xffa0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW_22), OP_SVE_SZS, F_OD(1), 0),
_SVE_INSN ("ld1w", 0x85204000, 0xffa0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW2_22), OP_SVE_SZS, F_OD(1), 0),
_SVE_INSN ("ld1w", 0xa5404000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX_LSL2), OP_SVE_SZU, F_OD(1), 0),
_SVE_INSN ("ld1w", 0xa5604000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX_LSL2), OP_SVE_DZU, F_OD(1), 0),
_SVE_INSN ("ld1w", 0xc5004000, 0xffa0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW_22), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ld1w", 0xc5204000, 0xffa0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW2_22), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ld1w", 0xc540c000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ld1w", 0xc560c000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_LSL2), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ld1w", 0x8520c000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_ZI_U5x4), OP_SVE_SZS, F_OD(1), 0),
_SVE_INSN ("ld1w", 0xa540a000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_SZU, F_OD(1), 0),
_SVE_INSN ("ld1w", 0xa560a000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_DZU, F_OD(1), 0),
_SVE_INSN ("ld1w", 0xc520c000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_ZI_U5x4), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ld2b", 0xa420c000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX), OP_SVE_BZU, F_OD(2), 0),
_SVE_INSN ("ld2b", 0xa420e000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4x2xVL), OP_SVE_BZU, F_OD(2), 0),
_SVE_INSN ("ld2d", 0xa5a0c000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX_LSL3), OP_SVE_DZU, F_OD(2), 0),
_SVE_INSN ("ld2d", 0xa5a0e000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4x2xVL), OP_SVE_DZU, F_OD(2), 0),
_SVE_INSN ("ld2h", 0xa4a0c000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX_LSL1), OP_SVE_HZU, F_OD(2), 0),
_SVE_INSN ("ld2h", 0xa4a0e000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4x2xVL), OP_SVE_HZU, F_OD(2), 0),
_SVE_INSN ("ld2w", 0xa520c000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX_LSL2), OP_SVE_SZU, F_OD(2), 0),
_SVE_INSN ("ld2w", 0xa520e000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4x2xVL), OP_SVE_SZU, F_OD(2), 0),
_SVE_INSN ("ld3b", 0xa440c000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX), OP_SVE_BZU, F_OD(3), 0),
_SVE_INSN ("ld3b", 0xa440e000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4x3xVL), OP_SVE_BZU, F_OD(3), 0),
_SVE_INSN ("ld3d", 0xa5c0c000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX_LSL3), OP_SVE_DZU, F_OD(3), 0),
_SVE_INSN ("ld3d", 0xa5c0e000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4x3xVL), OP_SVE_DZU, F_OD(3), 0),
_SVE_INSN ("ld3h", 0xa4c0c000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX_LSL1), OP_SVE_HZU, F_OD(3), 0),
_SVE_INSN ("ld3h", 0xa4c0e000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4x3xVL), OP_SVE_HZU, F_OD(3), 0),
_SVE_INSN ("ld3w", 0xa540c000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX_LSL2), OP_SVE_SZU, F_OD(3), 0),
_SVE_INSN ("ld3w", 0xa540e000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4x3xVL), OP_SVE_SZU, F_OD(3), 0),
_SVE_INSN ("ld4b", 0xa460c000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX), OP_SVE_BZU, F_OD(4), 0),
_SVE_INSN ("ld4b", 0xa460e000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4x4xVL), OP_SVE_BZU, F_OD(4), 0),
_SVE_INSN ("ld4d", 0xa5e0c000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX_LSL3), OP_SVE_DZU, F_OD(4), 0),
_SVE_INSN ("ld4d", 0xa5e0e000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4x4xVL), OP_SVE_DZU, F_OD(4), 0),
_SVE_INSN ("ld4h", 0xa4e0c000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX_LSL1), OP_SVE_HZU, F_OD(4), 0),
_SVE_INSN ("ld4h", 0xa4e0e000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4x4xVL), OP_SVE_HZU, F_OD(4), 0),
_SVE_INSN ("ld4w", 0xa560c000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX_LSL2), OP_SVE_SZU, F_OD(4), 0),
_SVE_INSN ("ld4w", 0xa560e000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4x4xVL), OP_SVE_SZU, F_OD(4), 0),
_SVE_INSN ("ldff1b", 0x84006000, 0xffa0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW_22), OP_SVE_SZS, F_OD(1), 0),
_SVE_INSN ("ldff1b", 0xa4006000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RR), OP_SVE_BZU, F_OD(1), 0),
_SVE_INSN ("ldff1b", 0xa4206000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RR), OP_SVE_HZU, F_OD(1), 0),
_SVE_INSN ("ldff1b", 0xa4406000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RR), OP_SVE_SZU, F_OD(1), 0),
_SVE_INSN ("ldff1b", 0xa4606000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RR), OP_SVE_DZU, F_OD(1), 0),
_SVE_INSN ("ldff1b", 0xc4006000, 0xffa0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW_22), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ldff1b", 0xc440e000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ldff1b", 0x8420e000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_ZI_U5), OP_SVE_SZS, F_OD(1), 0),
_SVE_INSN ("ldff1b", 0xc420e000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_ZI_U5), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ldff1d", 0xa5e06000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RR_LSL3), OP_SVE_DZU, F_OD(1), 0),
_SVE_INSN ("ldff1d", 0xc5806000, 0xffa0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW_22), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ldff1d", 0xc5a06000, 0xffa0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW3_22), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ldff1d", 0xc5c0e000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ldff1d", 0xc5e0e000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_LSL3), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ldff1d", 0xc5a0e000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_ZI_U5x8), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ldff1h", 0x84806000, 0xffa0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW_22), OP_SVE_SZS, F_OD(1), 0),
_SVE_INSN ("ldff1h", 0x84a06000, 0xffa0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW1_22), OP_SVE_SZS, F_OD(1), 0),
_SVE_INSN ("ldff1h", 0xa4a06000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RR_LSL1), OP_SVE_HZU, F_OD(1), 0),
_SVE_INSN ("ldff1h", 0xa4c06000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RR_LSL1), OP_SVE_SZU, F_OD(1), 0),
_SVE_INSN ("ldff1h", 0xa4e06000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RR_LSL1), OP_SVE_DZU, F_OD(1), 0),
_SVE_INSN ("ldff1h", 0xc4806000, 0xffa0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW_22), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ldff1h", 0xc4a06000, 0xffa0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW1_22), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ldff1h", 0xc4c0e000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ldff1h", 0xc4e0e000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_LSL1), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ldff1h", 0x84a0e000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_ZI_U5x2), OP_SVE_SZS, F_OD(1), 0),
_SVE_INSN ("ldff1h", 0xc4a0e000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_ZI_U5x2), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ldff1sb", 0x84002000, 0xffa0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW_22), OP_SVE_SZS, F_OD(1), 0),
_SVE_INSN ("ldff1sb", 0xa5806000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RR), OP_SVE_DZU, F_OD(1), 0),
_SVE_INSN ("ldff1sb", 0xa5a06000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RR), OP_SVE_SZU, F_OD(1), 0),
_SVE_INSN ("ldff1sb", 0xa5c06000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RR), OP_SVE_HZU, F_OD(1), 0),
_SVE_INSN ("ldff1sb", 0xc4002000, 0xffa0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW_22), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ldff1sb", 0xc440a000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ldff1sb", 0x8420a000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_ZI_U5), OP_SVE_SZS, F_OD(1), 0),
_SVE_INSN ("ldff1sb", 0xc420a000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_ZI_U5), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ldff1sh", 0x84802000, 0xffa0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW_22), OP_SVE_SZS, F_OD(1), 0),
_SVE_INSN ("ldff1sh", 0x84a02000, 0xffa0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW1_22), OP_SVE_SZS, F_OD(1), 0),
_SVE_INSN ("ldff1sh", 0xa5006000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RR_LSL1), OP_SVE_DZU, F_OD(1), 0),
_SVE_INSN ("ldff1sh", 0xa5206000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RR_LSL1), OP_SVE_SZU, F_OD(1), 0),
_SVE_INSN ("ldff1sh", 0xc4802000, 0xffa0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW_22), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ldff1sh", 0xc4a02000, 0xffa0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW1_22), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ldff1sh", 0xc4c0a000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ldff1sh", 0xc4e0a000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_LSL1), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ldff1sh", 0x84a0a000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_ZI_U5x2), OP_SVE_SZS, F_OD(1), 0),
_SVE_INSN ("ldff1sh", 0xc4a0a000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_ZI_U5x2), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ldff1sw", 0xa4806000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RR_LSL2), OP_SVE_DZU, F_OD(1), 0),
_SVE_INSN ("ldff1sw", 0xc5002000, 0xffa0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW_22), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ldff1sw", 0xc5202000, 0xffa0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW2_22), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ldff1sw", 0xc540a000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ldff1sw", 0xc560a000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_LSL2), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ldff1sw", 0xc520a000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_ZI_U5x4), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ldff1w", 0x85006000, 0xffa0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW_22), OP_SVE_SZS, F_OD(1), 0),
_SVE_INSN ("ldff1w", 0x85206000, 0xffa0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW2_22), OP_SVE_SZS, F_OD(1), 0),
_SVE_INSN ("ldff1w", 0xa5406000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RR_LSL2), OP_SVE_SZU, F_OD(1), 0),
_SVE_INSN ("ldff1w", 0xa5606000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RR_LSL2), OP_SVE_DZU, F_OD(1), 0),
_SVE_INSN ("ldff1w", 0xc5006000, 0xffa0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW_22), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ldff1w", 0xc5206000, 0xffa0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW2_22), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ldff1w", 0xc540e000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ldff1w", 0xc560e000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_LSL2), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ldff1w", 0x8520e000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_ZI_U5x4), OP_SVE_SZS, F_OD(1), 0),
_SVE_INSN ("ldff1w", 0xc520e000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_ZI_U5x4), OP_SVE_DZD, F_OD(1), 0),
_SVE_INSN ("ldnf1b", 0xa410a000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_BZU, F_OD(1), 0),
_SVE_INSN ("ldnf1b", 0xa430a000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_HZU, F_OD(1), 0),
_SVE_INSN ("ldnf1b", 0xa450a000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_SZU, F_OD(1), 0),
_SVE_INSN ("ldnf1b", 0xa470a000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_DZU, F_OD(1), 0),
_SVE_INSN ("ldnf1d", 0xa5f0a000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_DZU, F_OD(1), 0),
_SVE_INSN ("ldnf1h", 0xa4b0a000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_HZU, F_OD(1), 0),
_SVE_INSN ("ldnf1h", 0xa4d0a000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_SZU, F_OD(1), 0),
_SVE_INSN ("ldnf1h", 0xa4f0a000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_DZU, F_OD(1), 0),
_SVE_INSN ("ldnf1sb", 0xa590a000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_DZU, F_OD(1), 0),
_SVE_INSN ("ldnf1sb", 0xa5b0a000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_SZU, F_OD(1), 0),
_SVE_INSN ("ldnf1sb", 0xa5d0a000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_HZU, F_OD(1), 0),
_SVE_INSN ("ldnf1sh", 0xa510a000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_DZU, F_OD(1), 0),
_SVE_INSN ("ldnf1sh", 0xa530a000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_SZU, F_OD(1), 0),
_SVE_INSN ("ldnf1sw", 0xa490a000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_DZU, F_OD(1), 0),
_SVE_INSN ("ldnf1w", 0xa550a000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_SZU, F_OD(1), 0),
_SVE_INSN ("ldnf1w", 0xa570a000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_DZU, F_OD(1), 0),
_SVE_INSN ("ldnt1b", 0xa400c000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX), OP_SVE_BZU, F_OD(1), 0),
_SVE_INSN ("ldnt1b", 0xa400e000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_BZU, F_OD(1), 0),
_SVE_INSN ("ldnt1d", 0xa580c000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX_LSL3), OP_SVE_DZU, F_OD(1), 0),
_SVE_INSN ("ldnt1d", 0xa580e000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_DZU, F_OD(1), 0),
_SVE_INSN ("ldnt1h", 0xa480c000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX_LSL1), OP_SVE_HZU, F_OD(1), 0),
_SVE_INSN ("ldnt1h", 0xa480e000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_HZU, F_OD(1), 0),
_SVE_INSN ("ldnt1w", 0xa500c000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX_LSL2), OP_SVE_SZU, F_OD(1), 0),
_SVE_INSN ("ldnt1w", 0xa500e000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_SZU, F_OD(1), 0),
_SVE_INSN ("ldr", 0x85800000, 0xffc0e010, sve_misc, 0, OP2 (SVE_Pt, SVE_ADDR_RI_S9xVL), {}, 0, 0),
_SVE_INSN ("ldr", 0x85804000, 0xffc0e000, sve_misc, 0, OP2 (SVE_Zt, SVE_ADDR_RI_S9xVL), {}, 0, 0),
_SVE_INSN ("lsl", 0x04208c00, 0xff20fc00, sve_size_bhs, 0, OP3 (SVE_Zd, SVE_Zn, SVE_Zm_16), OP_SVE_VVD_BHS, 0, 0),
_SVE_INSN ("lsl", 0x04209c00, 0xff20fc00, sve_shift_unpred, 0, OP3 (SVE_Zd, SVE_Zn, SVE_SHLIMM_UNPRED), OP_SVE_VVU_BHSD, 0, 0),
_SVE_INSN ("lsl", 0x04138000, 0xff3fe000, sve_size_bhsd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_Zm_5), OP_SVE_VMVV_BHSD, 0, 2),
_SVE_INSN ("lsl", 0x041b8000, 0xff3fe000, sve_size_bhs, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_Zm_5), OP_SVE_VMVD_BHS, 0, 2),
_SVE_INSN ("lsl", 0x04038000, 0xff3fe000, sve_shift_pred, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_SHLIMM_PRED), OP_SVE_VMVU_BHSD, 0, 2),
_SVE_INSN ("lslr", 0x04178000, 0xff3fe000, sve_size_bhsd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_Zm_5), OP_SVE_VMVV_BHSD, 0, 2),
_SVE_INSN ("lsr", 0x04208400, 0xff20fc00, sve_size_bhs, 0, OP3 (SVE_Zd, SVE_Zn, SVE_Zm_16), OP_SVE_VVD_BHS, 0, 0),
_SVE_INSN ("lsr", 0x04209400, 0xff20fc00, sve_shift_unpred, 0, OP3 (SVE_Zd, SVE_Zn, SVE_SHRIMM_UNPRED), OP_SVE_VVU_BHSD, 0, 0),
_SVE_INSN ("lsr", 0x04118000, 0xff3fe000, sve_size_bhsd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_Zm_5), OP_SVE_VMVV_BHSD, 0, 2),
_SVE_INSN ("lsr", 0x04198000, 0xff3fe000, sve_size_bhs, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_Zm_5), OP_SVE_VMVD_BHS, 0, 2),
_SVE_INSN ("lsr", 0x04018000, 0xff3fe000, sve_shift_pred, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_SHRIMM_PRED), OP_SVE_VMVU_BHSD, 0, 2),
_SVE_INSN ("lsrr", 0x04158000, 0xff3fe000, sve_size_bhsd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_Zm_5), OP_SVE_VMVV_BHSD, 0, 2),
_SVE_INSN ("mad", 0x0400c000, 0xff20e000, sve_size_bhsd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zm_16, SVE_Za_5), OP_SVE_VMVV_BHSD, 0, 0),
_SVE_INSN ("mla", 0x04004000, 0xff20e000, sve_size_bhsd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zn, SVE_Zm_16), OP_SVE_VMVV_BHSD, 0, 0),
_SVE_INSN ("mls", 0x04006000, 0xff20e000, sve_size_bhsd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zn, SVE_Zm_16), OP_SVE_VMVV_BHSD, 0, 0),
_SVE_INSN ("movprfx", 0x0420bc00, 0xfffffc00, sve_misc, 0, OP2 (SVE_Zd, SVE_Zn), {}, 0, 0),
_SVE_INSN ("movprfx", 0x04102000, 0xff3ee000, sve_movprfx, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_VPV_BHSD, 0, 0),
_SVE_INSN ("msb", 0x0400e000, 0xff20e000, sve_size_bhsd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zm_16, SVE_Za_5), OP_SVE_VMVV_BHSD, 0, 0),
_SVE_INSN ("mul", 0x2530c000, 0xff3fe000, sve_size_bhsd, 0, OP3 (SVE_Zd, SVE_Zd, SVE_SIMM8), OP_SVE_VVU_BHSD, 0, 1),
_SVE_INSN ("mul", 0x04100000, 0xff3fe000, sve_size_bhsd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_Zm_5), OP_SVE_VMVV_BHSD, 0, 2),
_SVE_INSN ("nand", 0x25804210, 0xfff0c210, sve_misc, 0, OP4 (SVE_Pd, SVE_Pg4_10, SVE_Pn, SVE_Pm), OP_SVE_BZBB, 0, 0),
_SVE_INSN ("nands", 0x25c04210, 0xfff0c210, sve_misc, 0, OP4 (SVE_Pd, SVE_Pg4_10, SVE_Pn, SVE_Pm), OP_SVE_BZBB, 0, 0),
_SVE_INSN ("neg", 0x0417a000, 0xff3fe000, sve_size_bhsd, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_VMV_BHSD, 0, 0),
_SVE_INSN ("nor", 0x25804200, 0xfff0c210, sve_misc, 0, OP4 (SVE_Pd, SVE_Pg4_10, SVE_Pn, SVE_Pm), OP_SVE_BZBB, 0, 0),
_SVE_INSN ("nors", 0x25c04200, 0xfff0c210, sve_misc, 0, OP4 (SVE_Pd, SVE_Pg4_10, SVE_Pn, SVE_Pm), OP_SVE_BZBB, 0, 0),
_SVE_INSN ("not", 0x041ea000, 0xff3fe000, sve_size_bhsd, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_VMV_BHSD, 0, 0),
_SVE_INSN ("orn", 0x25804010, 0xfff0c210, sve_misc, 0, OP4 (SVE_Pd, SVE_Pg4_10, SVE_Pn, SVE_Pm), OP_SVE_BZBB, 0, 0),
_SVE_INSN ("orns", 0x25c04010, 0xfff0c210, sve_misc, 0, OP4 (SVE_Pd, SVE_Pg4_10, SVE_Pn, SVE_Pm), OP_SVE_BZBB, 0, 0),
_SVE_INSN ("orr", 0x04603000, 0xffe0fc00, sve_misc, 0, OP3 (SVE_Zd, SVE_Zn, SVE_Zm_16), OP_SVE_DDD, F_HAS_ALIAS, 0),
_SVE_INSN ("orr", 0x05000000, 0xfffc0000, sve_limm, 0, OP3 (SVE_Zd, SVE_Zd, SVE_LIMM), OP_SVE_VVU_BHSD, F_HAS_ALIAS, 1),
_SVE_INSN ("orr", 0x04180000, 0xff3fe000, sve_size_bhsd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_Zm_5), OP_SVE_VMVV_BHSD, 0, 2),
_SVE_INSN ("orr", 0x25804000, 0xfff0c210, sve_misc, 0, OP4 (SVE_Pd, SVE_Pg4_10, SVE_Pn, SVE_Pm), OP_SVE_BZBB, F_HAS_ALIAS, 0),
_SVE_INSN ("orrs", 0x25c04000, 0xfff0c210, sve_misc, 0, OP4 (SVE_Pd, SVE_Pg4_10, SVE_Pn, SVE_Pm), OP_SVE_BZBB, F_HAS_ALIAS, 0),
_SVE_INSN ("orv", 0x04182000, 0xff3fe000, sve_size_bhsd, 0, OP3 (SVE_Vd, SVE_Pg3, SVE_Zn), OP_SVE_VUV_BHSD, 0, 0),
_SVE_INSN ("pfalse", 0x2518e400, 0xfffffff0, sve_misc, 0, OP1 (SVE_Pd), OP_SVE_B, 0, 0),
_SVE_INSN ("pfirst", 0x2558c000, 0xfffffe10, sve_misc, 0, OP3 (SVE_Pd, SVE_Pg4_5, SVE_Pd), OP_SVE_BUB, 0, 2),
_SVE_INSN ("pnext", 0x2519c400, 0xff3ffe10, sve_size_bhsd, 0, OP3 (SVE_Pd, SVE_Pg4_5, SVE_Pd), OP_SVE_VUV_BHSD, 0, 2),
_SVE_INSN ("prfb", 0x8400c000, 0xffe0e010, sve_misc, 0, OP3 (SVE_PRFOP, SVE_Pg3, SVE_ADDR_RX), {}, 0, 0),
_SVE_INSN ("prfb", 0x84200000, 0xffa0e010, sve_misc, 0, OP3 (SVE_PRFOP, SVE_Pg3, SVE_ADDR_RZ_XTW_22), OP_SVE_UUS, 0, 0),
_SVE_INSN ("prfb", 0xc4200000, 0xffa0e010, sve_misc, 0, OP3 (SVE_PRFOP, SVE_Pg3, SVE_ADDR_RZ_XTW_22), OP_SVE_UUD, 0, 0),
_SVE_INSN ("prfb", 0xc4608000, 0xffe0e010, sve_misc, 0, OP3 (SVE_PRFOP, SVE_Pg3, SVE_ADDR_RZ), OP_SVE_UUD, 0, 0),
_SVE_INSN ("prfb", 0x8400e000, 0xffe0e010, sve_misc, 0, OP3 (SVE_PRFOP, SVE_Pg3, SVE_ADDR_ZI_U5), OP_SVE_UUS, 0, 0),
_SVE_INSN ("prfb", 0x85c00000, 0xffc0e010, sve_misc, 0, OP3 (SVE_PRFOP, SVE_Pg3, SVE_ADDR_RI_S6xVL), {}, 0, 0),
_SVE_INSN ("prfb", 0xc400e000, 0xffe0e010, sve_misc, 0, OP3 (SVE_PRFOP, SVE_Pg3, SVE_ADDR_ZI_U5), OP_SVE_UUD, 0, 0),
_SVE_INSN ("prfd", 0x84206000, 0xffa0e010, sve_misc, 0, OP3 (SVE_PRFOP, SVE_Pg3, SVE_ADDR_RZ_XTW3_22), OP_SVE_UUS, 0, 0),
_SVE_INSN ("prfd", 0x8580c000, 0xffe0e010, sve_misc, 0, OP3 (SVE_PRFOP, SVE_Pg3, SVE_ADDR_RX_LSL3), {}, 0, 0),
_SVE_INSN ("prfd", 0xc4206000, 0xffa0e010, sve_misc, 0, OP3 (SVE_PRFOP, SVE_Pg3, SVE_ADDR_RZ_XTW3_22), OP_SVE_UUD, 0, 0),
_SVE_INSN ("prfd", 0xc460e000, 0xffe0e010, sve_misc, 0, OP3 (SVE_PRFOP, SVE_Pg3, SVE_ADDR_RZ_LSL3), OP_SVE_UUD, 0, 0),
_SVE_INSN ("prfd", 0x8580e000, 0xffe0e010, sve_misc, 0, OP3 (SVE_PRFOP, SVE_Pg3, SVE_ADDR_ZI_U5x8), OP_SVE_UUS, 0, 0),
_SVE_INSN ("prfd", 0x85c06000, 0xffc0e010, sve_misc, 0, OP3 (SVE_PRFOP, SVE_Pg3, SVE_ADDR_RI_S6xVL), {}, 0, 0),
_SVE_INSN ("prfd", 0xc580e000, 0xffe0e010, sve_misc, 0, OP3 (SVE_PRFOP, SVE_Pg3, SVE_ADDR_ZI_U5x8), OP_SVE_UUD, 0, 0),
_SVE_INSN ("prfh", 0x84202000, 0xffa0e010, sve_misc, 0, OP3 (SVE_PRFOP, SVE_Pg3, SVE_ADDR_RZ_XTW1_22), OP_SVE_UUS, 0, 0),
_SVE_INSN ("prfh", 0x8480c000, 0xffe0e010, sve_misc, 0, OP3 (SVE_PRFOP, SVE_Pg3, SVE_ADDR_RX_LSL1), {}, 0, 0),
_SVE_INSN ("prfh", 0xc4202000, 0xffa0e010, sve_misc, 0, OP3 (SVE_PRFOP, SVE_Pg3, SVE_ADDR_RZ_XTW1_22), OP_SVE_UUD, 0, 0),
_SVE_INSN ("prfh", 0xc460a000, 0xffe0e010, sve_misc, 0, OP3 (SVE_PRFOP, SVE_Pg3, SVE_ADDR_RZ_LSL1), OP_SVE_UUD, 0, 0),
_SVE_INSN ("prfh", 0x8480e000, 0xffe0e010, sve_misc, 0, OP3 (SVE_PRFOP, SVE_Pg3, SVE_ADDR_ZI_U5x2), OP_SVE_UUS, 0, 0),
_SVE_INSN ("prfh", 0x85c02000, 0xffc0e010, sve_misc, 0, OP3 (SVE_PRFOP, SVE_Pg3, SVE_ADDR_RI_S6xVL), {}, 0, 0),
_SVE_INSN ("prfh", 0xc480e000, 0xffe0e010, sve_misc, 0, OP3 (SVE_PRFOP, SVE_Pg3, SVE_ADDR_ZI_U5x2), OP_SVE_UUD, 0, 0),
_SVE_INSN ("prfw", 0x84204000, 0xffa0e010, sve_misc, 0, OP3 (SVE_PRFOP, SVE_Pg3, SVE_ADDR_RZ_XTW2_22), OP_SVE_UUS, 0, 0),
_SVE_INSN ("prfw", 0x8500c000, 0xffe0e010, sve_misc, 0, OP3 (SVE_PRFOP, SVE_Pg3, SVE_ADDR_RX_LSL2), {}, 0, 0),
_SVE_INSN ("prfw", 0xc4204000, 0xffa0e010, sve_misc, 0, OP3 (SVE_PRFOP, SVE_Pg3, SVE_ADDR_RZ_XTW2_22), OP_SVE_UUD, 0, 0),
_SVE_INSN ("prfw", 0xc460c000, 0xffe0e010, sve_misc, 0, OP3 (SVE_PRFOP, SVE_Pg3, SVE_ADDR_RZ_LSL2), OP_SVE_UUD, 0, 0),
_SVE_INSN ("prfw", 0x8500e000, 0xffe0e010, sve_misc, 0, OP3 (SVE_PRFOP, SVE_Pg3, SVE_ADDR_ZI_U5x4), OP_SVE_UUS, 0, 0),
_SVE_INSN ("prfw", 0x85c04000, 0xffc0e010, sve_misc, 0, OP3 (SVE_PRFOP, SVE_Pg3, SVE_ADDR_RI_S6xVL), {}, 0, 0),
_SVE_INSN ("prfw", 0xc500e000, 0xffe0e010, sve_misc, 0, OP3 (SVE_PRFOP, SVE_Pg3, SVE_ADDR_ZI_U5x4), OP_SVE_UUD, 0, 0),
_SVE_INSN ("ptest", 0x2550c000, 0xffffc21f, sve_misc, 0, OP2 (SVE_Pg4_10, SVE_Pn), OP_SVE_UB, 0, 0),
_SVE_INSN ("ptrue", 0x2518e000, 0xff3ffc10, sve_size_bhsd, 0, OP2 (SVE_Pd, SVE_PATTERN), OP_SVE_VU_BHSD, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("ptrues", 0x2519e000, 0xff3ffc10, sve_size_bhsd, 0, OP2 (SVE_Pd, SVE_PATTERN), OP_SVE_VU_BHSD, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("punpkhi", 0x05314000, 0xfffffe10, sve_misc, 0, OP2 (SVE_Pd, SVE_Pn), OP_SVE_HB, 0, 0),
_SVE_INSN ("punpklo", 0x05304000, 0xfffffe10, sve_misc, 0, OP2 (SVE_Pd, SVE_Pn), OP_SVE_HB, 0, 0),
_SVE_INSN ("rbit", 0x05278000, 0xff3fe000, sve_size_bhsd, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_VMV_BHSD, 0, 0),
_SVE_INSN ("rdffr", 0x2519f000, 0xfffffff0, sve_misc, 0, OP1 (SVE_Pd), OP_SVE_B, 0, 0),
_SVE_INSN ("rdffr", 0x2518f000, 0xfffffe10, sve_misc, 0, OP2 (SVE_Pd, SVE_Pg4_5), OP_SVE_BZ, 0, 0),
_SVE_INSN ("rdffrs", 0x2558f000, 0xfffffe10, sve_misc, 0, OP2 (SVE_Pd, SVE_Pg4_5), OP_SVE_BZ, 0, 0),
_SVE_INSN ("rdvl", 0x04bf5000, 0xfffff800, sve_misc, 0, OP2 (Rd, SVE_SIMM6), OP_SVE_XU, 0, 0),
_SVE_INSN ("rev", 0x05344000, 0xff3ffe10, sve_size_bhsd, 0, OP2 (SVE_Pd, SVE_Pn), OP_SVE_VV_BHSD, 0, 0),
_SVE_INSN ("rev", 0x05383800, 0xff3ffc00, sve_size_bhsd, 0, OP2 (SVE_Zd, SVE_Zn), OP_SVE_VV_BHSD, 0, 0),
_SVE_INSN ("revb", 0x05248000, 0xff3fe000, sve_size_hsd, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_VMV_HSD, 0, 0),
_SVE_INSN ("revh", 0x05a58000, 0xffbfe000, sve_size_sd, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_VMV_SD, 0, 0),
_SVE_INSN ("revw", 0x05e68000, 0xffffe000, sve_misc, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_DMD, 0, 0),
_SVE_INSN ("sabd", 0x040c0000, 0xff3fe000, sve_size_bhsd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_Zm_5), OP_SVE_VMVV_BHSD, 0, 2),
_SVE_INSN ("saddv", 0x04002000, 0xff3fe000, sve_size_bhs, 0, OP3 (SVE_Vd, SVE_Pg3, SVE_Zn), OP_SVE_DUV_BHS, 0, 0),
_SVE_INSN ("scvtf", 0x6594a000, 0xffffe000, sve_misc, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_SMS, 0, 0),
_SVE_INSN ("scvtf", 0x65d0a000, 0xffffe000, sve_misc, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_DMS, 0, 0),
_SVE_INSN ("scvtf", 0x65d4a000, 0xffffe000, sve_misc, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_SMD, 0, 0),
_SVE_INSN ("scvtf", 0x65d6a000, 0xffffe000, sve_misc, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_DMD, 0, 0),
_SVE_INSN ("sdiv", 0x04940000, 0xffbfe000, sve_size_sd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_Zm_5), OP_SVE_VMVV_SD, 0, 2),
_SVE_INSN ("sdivr", 0x04960000, 0xffbfe000, sve_size_sd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_Zm_5), OP_SVE_VMVV_SD, 0, 2),
_SVE_INSN ("sel", 0x0520c000, 0xff20c000, sve_size_bhsd, 0, OP4 (SVE_Zd, SVE_Pg4_10, SVE_Zn, SVE_Zm_16), OP_SVE_VUVV_BHSD, F_HAS_ALIAS, 0),
_SVE_INSN ("sel", 0x25004210, 0xfff0c210, sve_misc, 0, OP4 (SVE_Pd, SVE_Pg4_10, SVE_Pn, SVE_Pm), OP_SVE_BUBB, F_HAS_ALIAS, 0),
_SVE_INSN ("setffr", 0x252c9000, 0xffffffff, sve_misc, 0, OP0 (), {}, 0, 0),
_SVE_INSN ("smax", 0x2528c000, 0xff3fe000, sve_size_bhsd, 0, OP3 (SVE_Zd, SVE_Zd, SVE_SIMM8), OP_SVE_VVU_BHSD, 0, 1),
_SVE_INSN ("smax", 0x04080000, 0xff3fe000, sve_size_bhsd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_Zm_5), OP_SVE_VMVV_BHSD, 0, 2),
_SVE_INSN ("smaxv", 0x04082000, 0xff3fe000, sve_size_bhsd, 0, OP3 (SVE_Vd, SVE_Pg3, SVE_Zn), OP_SVE_VUV_BHSD, 0, 0),
_SVE_INSN ("smin", 0x252ac000, 0xff3fe000, sve_size_bhsd, 0, OP3 (SVE_Zd, SVE_Zd, SVE_SIMM8), OP_SVE_VVU_BHSD, 0, 1),
_SVE_INSN ("smin", 0x040a0000, 0xff3fe000, sve_size_bhsd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_Zm_5), OP_SVE_VMVV_BHSD, 0, 2),
_SVE_INSN ("sminv", 0x040a2000, 0xff3fe000, sve_size_bhsd, 0, OP3 (SVE_Vd, SVE_Pg3, SVE_Zn), OP_SVE_VUV_BHSD, 0, 0),
_SVE_INSN ("smulh", 0x04120000, 0xff3fe000, sve_size_bhsd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_Zm_5), OP_SVE_VMVV_BHSD, 0, 2),
_SVE_INSN ("splice", 0x052c8000, 0xff3fe000, sve_size_bhsd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_Zm_5), OP_SVE_VUVV_BHSD, 0, 2),
_SVE_INSN ("sqadd", 0x04201000, 0xff20fc00, sve_size_bhsd, 0, OP3 (SVE_Zd, SVE_Zn, SVE_Zm_16), OP_SVE_VVV_BHSD, 0, 0),
_SVE_INSN ("sqadd", 0x2524c000, 0xff3fc000, sve_size_bhsd, 0, OP3 (SVE_Zd, SVE_Zd, SVE_AIMM), OP_SVE_VVU_BHSD, 0, 1),
_SVE_INSN ("sqdecb", 0x0430f800, 0xfff0fc00, sve_misc, 0, OP2 (Rd, SVE_PATTERN_SCALED), OP_SVE_XU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("sqdecb", 0x0420f800, 0xfff0fc00, sve_misc, 0, OP3 (Rd, Rd, SVE_PATTERN_SCALED), OP_SVE_XWU, F_OPD2_OPT | F_DEFAULT(31), 1),
_SVE_INSN ("sqdecd", 0x04e0c800, 0xfff0fc00, sve_misc, 0, OP2 (SVE_Zd, SVE_PATTERN_SCALED), OP_SVE_DU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("sqdecd", 0x04f0f800, 0xfff0fc00, sve_misc, 0, OP2 (Rd, SVE_PATTERN_SCALED), OP_SVE_XU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("sqdecd", 0x04e0f800, 0xfff0fc00, sve_misc, 0, OP3 (Rd, Rd, SVE_PATTERN_SCALED), OP_SVE_XWU, F_OPD2_OPT | F_DEFAULT(31), 1),
_SVE_INSN ("sqdech", 0x0460c800, 0xfff0fc00, sve_misc, 0, OP2 (SVE_Zd, SVE_PATTERN_SCALED), OP_SVE_HU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("sqdech", 0x0470f800, 0xfff0fc00, sve_misc, 0, OP2 (Rd, SVE_PATTERN_SCALED), OP_SVE_XU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("sqdech", 0x0460f800, 0xfff0fc00, sve_misc, 0, OP3 (Rd, Rd, SVE_PATTERN_SCALED), OP_SVE_XWU, F_OPD2_OPT | F_DEFAULT(31), 1),
_SVE_INSN ("sqdecp", 0x252a8000, 0xff3ffe00, sve_size_hsd, 0, OP2 (SVE_Zd, SVE_Pg4_5), OP_SVE_VU_HSD, 0, 0),
_SVE_INSN ("sqdecp", 0x252a8c00, 0xff3ffe00, sve_size_bhsd, 0, OP2 (Rd, SVE_Pg4_5), OP_SVE_XV_BHSD, 0, 0),
_SVE_INSN ("sqdecp", 0x252a8800, 0xff3ffe00, sve_size_bhsd, 0, OP3 (Rd, SVE_Pg4_5, Rd), OP_SVE_XVW_BHSD, 0, 2),
_SVE_INSN ("sqdecw", 0x04a0c800, 0xfff0fc00, sve_misc, 0, OP2 (SVE_Zd, SVE_PATTERN_SCALED), OP_SVE_SU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("sqdecw", 0x04b0f800, 0xfff0fc00, sve_misc, 0, OP2 (Rd, SVE_PATTERN_SCALED), OP_SVE_XU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("sqdecw", 0x04a0f800, 0xfff0fc00, sve_misc, 0, OP3 (Rd, Rd, SVE_PATTERN_SCALED), OP_SVE_XWU, F_OPD2_OPT | F_DEFAULT(31), 1),
_SVE_INSN ("sqincb", 0x0430f000, 0xfff0fc00, sve_misc, 0, OP2 (Rd, SVE_PATTERN_SCALED), OP_SVE_XU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("sqincb", 0x0420f000, 0xfff0fc00, sve_misc, 0, OP3 (Rd, Rd, SVE_PATTERN_SCALED), OP_SVE_XWU, F_OPD2_OPT | F_DEFAULT(31), 1),
_SVE_INSN ("sqincd", 0x04e0c000, 0xfff0fc00, sve_misc, 0, OP2 (SVE_Zd, SVE_PATTERN_SCALED), OP_SVE_DU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("sqincd", 0x04f0f000, 0xfff0fc00, sve_misc, 0, OP2 (Rd, SVE_PATTERN_SCALED), OP_SVE_XU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("sqincd", 0x04e0f000, 0xfff0fc00, sve_misc, 0, OP3 (Rd, Rd, SVE_PATTERN_SCALED), OP_SVE_XWU, F_OPD2_OPT | F_DEFAULT(31), 1),
_SVE_INSN ("sqinch", 0x0460c000, 0xfff0fc00, sve_misc, 0, OP2 (SVE_Zd, SVE_PATTERN_SCALED), OP_SVE_HU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("sqinch", 0x0470f000, 0xfff0fc00, sve_misc, 0, OP2 (Rd, SVE_PATTERN_SCALED), OP_SVE_XU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("sqinch", 0x0460f000, 0xfff0fc00, sve_misc, 0, OP3 (Rd, Rd, SVE_PATTERN_SCALED), OP_SVE_XWU, F_OPD2_OPT | F_DEFAULT(31), 1),
_SVE_INSN ("sqincp", 0x25288000, 0xff3ffe00, sve_size_hsd, 0, OP2 (SVE_Zd, SVE_Pg4_5), OP_SVE_VU_HSD, 0, 0),
_SVE_INSN ("sqincp", 0x25288c00, 0xff3ffe00, sve_size_bhsd, 0, OP2 (Rd, SVE_Pg4_5), OP_SVE_XV_BHSD, 0, 0),
_SVE_INSN ("sqincp", 0x25288800, 0xff3ffe00, sve_size_bhsd, 0, OP3 (Rd, SVE_Pg4_5, Rd), OP_SVE_XVW_BHSD, 0, 2),
_SVE_INSN ("sqincw", 0x04a0c000, 0xfff0fc00, sve_misc, 0, OP2 (SVE_Zd, SVE_PATTERN_SCALED), OP_SVE_SU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("sqincw", 0x04b0f000, 0xfff0fc00, sve_misc, 0, OP2 (Rd, SVE_PATTERN_SCALED), OP_SVE_XU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("sqincw", 0x04a0f000, 0xfff0fc00, sve_misc, 0, OP3 (Rd, Rd, SVE_PATTERN_SCALED), OP_SVE_XWU, F_OPD2_OPT | F_DEFAULT(31), 1),
_SVE_INSN ("sqsub", 0x04201800, 0xff20fc00, sve_size_bhsd, 0, OP3 (SVE_Zd, SVE_Zn, SVE_Zm_16), OP_SVE_VVV_BHSD, 0, 0),
_SVE_INSN ("sqsub", 0x2526c000, 0xff3fc000, sve_size_bhsd, 0, OP3 (SVE_Zd, SVE_Zd, SVE_AIMM), OP_SVE_VVU_BHSD, 0, 1),
_SVE_INSN ("st1b", 0xe4004000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX), OP_SVE_BUU, F_OD(1), 0),
_SVE_INSN ("st1b", 0xe4008000, 0xffe0a000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW_14), OP_SVE_DUD, F_OD(1), 0),
_SVE_INSN ("st1b", 0xe400a000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ), OP_SVE_DUD, F_OD(1), 0),
_SVE_INSN ("st1b", 0xe4204000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX), OP_SVE_HUU, F_OD(1), 0),
_SVE_INSN ("st1b", 0xe4404000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX), OP_SVE_SUU, F_OD(1), 0),
_SVE_INSN ("st1b", 0xe4408000, 0xffe0a000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW_14), OP_SVE_SUS, F_OD(1), 0),
_SVE_INSN ("st1b", 0xe4604000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX), OP_SVE_DUU, F_OD(1), 0),
_SVE_INSN ("st1b", 0xe400e000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_BUU, F_OD(1), 0),
_SVE_INSN ("st1b", 0xe420e000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_HUU, F_OD(1), 0),
_SVE_INSN ("st1b", 0xe440a000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_ZI_U5), OP_SVE_DUD, F_OD(1), 0),
_SVE_INSN ("st1b", 0xe440e000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_SUU, F_OD(1), 0),
_SVE_INSN ("st1b", 0xe460a000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_ZI_U5), OP_SVE_SUS, F_OD(1), 0),
_SVE_INSN ("st1b", 0xe460e000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_DUU, F_OD(1), 0),
_SVE_INSN ("st1d", 0xe5808000, 0xffe0a000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW_14), OP_SVE_DUD, F_OD(1), 0),
_SVE_INSN ("st1d", 0xe580a000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ), OP_SVE_DUD, F_OD(1), 0),
_SVE_INSN ("st1d", 0xe5a08000, 0xffe0a000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW3_14), OP_SVE_DUD, F_OD(1), 0),
_SVE_INSN ("st1d", 0xe5a0a000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_LSL3), OP_SVE_DUD, F_OD(1), 0),
_SVE_INSN ("st1d", 0xe5e04000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX_LSL3), OP_SVE_DUU, F_OD(1), 0),
_SVE_INSN ("st1d", 0xe5c0a000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_ZI_U5x8), OP_SVE_DUD, F_OD(1), 0),
_SVE_INSN ("st1d", 0xe5e0e000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_DUU, F_OD(1), 0),
_SVE_INSN ("st1h", 0xe4808000, 0xffe0a000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW_14), OP_SVE_DUD, F_OD(1), 0),
_SVE_INSN ("st1h", 0xe480a000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ), OP_SVE_DUD, F_OD(1), 0),
_SVE_INSN ("st1h", 0xe4a04000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX_LSL1), OP_SVE_HUU, F_OD(1), 0),
_SVE_INSN ("st1h", 0xe4a08000, 0xffe0a000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW1_14), OP_SVE_DUD, F_OD(1), 0),
_SVE_INSN ("st1h", 0xe4a0a000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_LSL1), OP_SVE_DUD, F_OD(1), 0),
_SVE_INSN ("st1h", 0xe4c04000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX_LSL1), OP_SVE_SUU, F_OD(1), 0),
_SVE_INSN ("st1h", 0xe4c08000, 0xffe0a000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW_14), OP_SVE_SUS, F_OD(1), 0),
_SVE_INSN ("st1h", 0xe4e04000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX_LSL1), OP_SVE_DUU, F_OD(1), 0),
_SVE_INSN ("st1h", 0xe4e08000, 0xffe0a000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW1_14), OP_SVE_SUS, F_OD(1), 0),
_SVE_INSN ("st1h", 0xe4a0e000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_HUU, F_OD(1), 0),
_SVE_INSN ("st1h", 0xe4c0a000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_ZI_U5x2), OP_SVE_DUD, F_OD(1), 0),
_SVE_INSN ("st1h", 0xe4c0e000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_SUU, F_OD(1), 0),
_SVE_INSN ("st1h", 0xe4e0a000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_ZI_U5x2), OP_SVE_SUS, F_OD(1), 0),
_SVE_INSN ("st1h", 0xe4e0e000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_DUU, F_OD(1), 0),
_SVE_INSN ("st1w", 0xe5008000, 0xffe0a000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW_14), OP_SVE_DUD, F_OD(1), 0),
_SVE_INSN ("st1w", 0xe500a000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ), OP_SVE_DUD, F_OD(1), 0),
_SVE_INSN ("st1w", 0xe5208000, 0xffe0a000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW2_14), OP_SVE_DUD, F_OD(1), 0),
_SVE_INSN ("st1w", 0xe520a000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_LSL2), OP_SVE_DUD, F_OD(1), 0),
_SVE_INSN ("st1w", 0xe5404000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX_LSL2), OP_SVE_SUU, F_OD(1), 0),
_SVE_INSN ("st1w", 0xe5408000, 0xffe0a000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW_14), OP_SVE_SUS, F_OD(1), 0),
_SVE_INSN ("st1w", 0xe5604000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX_LSL2), OP_SVE_DUU, F_OD(1), 0),
_SVE_INSN ("st1w", 0xe5608000, 0xffe0a000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RZ_XTW2_14), OP_SVE_SUS, F_OD(1), 0),
_SVE_INSN ("st1w", 0xe540a000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_ZI_U5x4), OP_SVE_DUD, F_OD(1), 0),
_SVE_INSN ("st1w", 0xe540e000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_SUU, F_OD(1), 0),
_SVE_INSN ("st1w", 0xe560a000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_ZI_U5x4), OP_SVE_SUS, F_OD(1), 0),
_SVE_INSN ("st1w", 0xe560e000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_DUU, F_OD(1), 0),
_SVE_INSN ("st2b", 0xe4206000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX), OP_SVE_BUU, F_OD(2), 0),
_SVE_INSN ("st2b", 0xe430e000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4x2xVL), OP_SVE_BUU, F_OD(2), 0),
_SVE_INSN ("st2d", 0xe5a06000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX_LSL3), OP_SVE_DUU, F_OD(2), 0),
_SVE_INSN ("st2d", 0xe5b0e000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4x2xVL), OP_SVE_DUU, F_OD(2), 0),
_SVE_INSN ("st2h", 0xe4a06000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX_LSL1), OP_SVE_HUU, F_OD(2), 0),
_SVE_INSN ("st2h", 0xe4b0e000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4x2xVL), OP_SVE_HUU, F_OD(2), 0),
_SVE_INSN ("st2w", 0xe5206000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX_LSL2), OP_SVE_SUU, F_OD(2), 0),
_SVE_INSN ("st2w", 0xe530e000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4x2xVL), OP_SVE_SUU, F_OD(2), 0),
_SVE_INSN ("st3b", 0xe4406000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX), OP_SVE_BUU, F_OD(3), 0),
_SVE_INSN ("st3b", 0xe450e000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4x3xVL), OP_SVE_BUU, F_OD(3), 0),
_SVE_INSN ("st3d", 0xe5c06000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX_LSL3), OP_SVE_DUU, F_OD(3), 0),
_SVE_INSN ("st3d", 0xe5d0e000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4x3xVL), OP_SVE_DUU, F_OD(3), 0),
_SVE_INSN ("st3h", 0xe4c06000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX_LSL1), OP_SVE_HUU, F_OD(3), 0),
_SVE_INSN ("st3h", 0xe4d0e000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4x3xVL), OP_SVE_HUU, F_OD(3), 0),
_SVE_INSN ("st3w", 0xe5406000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX_LSL2), OP_SVE_SUU, F_OD(3), 0),
_SVE_INSN ("st3w", 0xe550e000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4x3xVL), OP_SVE_SUU, F_OD(3), 0),
_SVE_INSN ("st4b", 0xe4606000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX), OP_SVE_BUU, F_OD(4), 0),
_SVE_INSN ("st4b", 0xe470e000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4x4xVL), OP_SVE_BUU, F_OD(4), 0),
_SVE_INSN ("st4d", 0xe5e06000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX_LSL3), OP_SVE_DUU, F_OD(4), 0),
_SVE_INSN ("st4d", 0xe5f0e000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4x4xVL), OP_SVE_DUU, F_OD(4), 0),
_SVE_INSN ("st4h", 0xe4e06000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX_LSL1), OP_SVE_HUU, F_OD(4), 0),
_SVE_INSN ("st4h", 0xe4f0e000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4x4xVL), OP_SVE_HUU, F_OD(4), 0),
_SVE_INSN ("st4w", 0xe5606000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX_LSL2), OP_SVE_SUU, F_OD(4), 0),
_SVE_INSN ("st4w", 0xe570e000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4x4xVL), OP_SVE_SUU, F_OD(4), 0),
_SVE_INSN ("stnt1b", 0xe4006000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX), OP_SVE_BUU, F_OD(1), 0),
_SVE_INSN ("stnt1b", 0xe410e000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_BUU, F_OD(1), 0),
_SVE_INSN ("stnt1d", 0xe5806000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX_LSL3), OP_SVE_DUU, F_OD(1), 0),
_SVE_INSN ("stnt1d", 0xe590e000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_DUU, F_OD(1), 0),
_SVE_INSN ("stnt1h", 0xe4806000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX_LSL1), OP_SVE_HUU, F_OD(1), 0),
_SVE_INSN ("stnt1h", 0xe490e000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_HUU, F_OD(1), 0),
_SVE_INSN ("stnt1w", 0xe5006000, 0xffe0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RX_LSL2), OP_SVE_SUU, F_OD(1), 0),
_SVE_INSN ("stnt1w", 0xe510e000, 0xfff0e000, sve_misc, 0, OP3 (SVE_ZtxN, SVE_Pg3, SVE_ADDR_RI_S4xVL), OP_SVE_SUU, F_OD(1), 0),
_SVE_INSN ("str", 0xe5800000, 0xffc0e010, sve_misc, 0, OP2 (SVE_Pt, SVE_ADDR_RI_S9xVL), {}, 0, 0),
_SVE_INSN ("str", 0xe5804000, 0xffc0e000, sve_misc, 0, OP2 (SVE_Zt, SVE_ADDR_RI_S9xVL), {}, 0, 0),
_SVE_INSN ("sub", 0x04200400, 0xff20fc00, sve_size_bhsd, 0, OP3 (SVE_Zd, SVE_Zn, SVE_Zm_16), OP_SVE_VVV_BHSD, 0, 0),
_SVE_INSN ("sub", 0x2521c000, 0xff3fc000, sve_size_bhsd, 0, OP3 (SVE_Zd, SVE_Zd, SVE_AIMM), OP_SVE_VVU_BHSD, 0, 1),
_SVE_INSN ("sub", 0x04010000, 0xff3fe000, sve_size_bhsd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_Zm_5), OP_SVE_VMVV_BHSD, 0, 2),
_SVE_INSN ("subr", 0x2523c000, 0xff3fc000, sve_size_bhsd, 0, OP3 (SVE_Zd, SVE_Zd, SVE_AIMM), OP_SVE_VVU_BHSD, 0, 1),
_SVE_INSN ("subr", 0x04030000, 0xff3fe000, sve_size_bhsd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_Zm_5), OP_SVE_VMVV_BHSD, 0, 2),
_SVE_INSN ("sunpkhi", 0x05313800, 0xff3ffc00, sve_size_hsd, 0, OP2 (SVE_Zd, SVE_Zn), OP_SVE_VV_HSD_BHS, 0, 0),
_SVE_INSN ("sunpklo", 0x05303800, 0xff3ffc00, sve_size_hsd, 0, OP2 (SVE_Zd, SVE_Zn), OP_SVE_VV_HSD_BHS, 0, 0),
_SVE_INSN ("sxtb", 0x0410a000, 0xff3fe000, sve_size_hsd, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_VMV_HSD, 0, 0),
_SVE_INSN ("sxth", 0x0492a000, 0xffbfe000, sve_size_sd, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_VMV_SD, 0, 0),
_SVE_INSN ("sxtw", 0x04d4a000, 0xffffe000, sve_misc, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_DMD, 0, 0),
_SVE_INSN ("tbl", 0x05203000, 0xff20fc00, sve_size_bhsd, 0, OP3 (SVE_Zd, SVE_ZnxN, SVE_Zm_16), OP_SVE_VVV_BHSD, F_OD(1), 0),
_SVE_INSN ("trn1", 0x05205000, 0xff30fe10, sve_size_bhsd, 0, OP3 (SVE_Pd, SVE_Pn, SVE_Pm), OP_SVE_VVV_BHSD, 0, 0),
_SVE_INSN ("trn1", 0x05207000, 0xff20fc00, sve_size_bhsd, 0, OP3 (SVE_Zd, SVE_Zn, SVE_Zm_16), OP_SVE_VVV_BHSD, 0, 0),
_SVE_INSN ("trn2", 0x05205400, 0xff30fe10, sve_size_bhsd, 0, OP3 (SVE_Pd, SVE_Pn, SVE_Pm), OP_SVE_VVV_BHSD, 0, 0),
_SVE_INSN ("trn2", 0x05207400, 0xff20fc00, sve_size_bhsd, 0, OP3 (SVE_Zd, SVE_Zn, SVE_Zm_16), OP_SVE_VVV_BHSD, 0, 0),
_SVE_INSN ("uabd", 0x040d0000, 0xff3fe000, sve_size_bhsd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_Zm_5), OP_SVE_VMVV_BHSD, 0, 2),
_SVE_INSN ("uaddv", 0x04012000, 0xff3fe000, sve_size_bhsd, 0, OP3 (SVE_Vd, SVE_Pg3, SVE_Zn), OP_SVE_DUV_BHSD, 0, 0),
_SVE_INSN ("ucvtf", 0x6595a000, 0xffffe000, sve_misc, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_SMS, 0, 0),
_SVE_INSN ("ucvtf", 0x65d1a000, 0xffffe000, sve_misc, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_DMS, 0, 0),
_SVE_INSN ("ucvtf", 0x65d5a000, 0xffffe000, sve_misc, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_SMD, 0, 0),
_SVE_INSN ("ucvtf", 0x65d7a000, 0xffffe000, sve_misc, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_DMD, 0, 0),
_SVE_INSN ("udiv", 0x04950000, 0xffbfe000, sve_size_sd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_Zm_5), OP_SVE_VMVV_SD, 0, 2),
_SVE_INSN ("udivr", 0x04970000, 0xffbfe000, sve_size_sd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_Zm_5), OP_SVE_VMVV_SD, 0, 2),
_SVE_INSN ("umax", 0x2529c000, 0xff3fe000, sve_size_bhsd, 0, OP3 (SVE_Zd, SVE_Zd, SVE_UIMM8), OP_SVE_VVU_BHSD, 0, 1),
_SVE_INSN ("umax", 0x04090000, 0xff3fe000, sve_size_bhsd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_Zm_5), OP_SVE_VMVV_BHSD, 0, 2),
_SVE_INSN ("umaxv", 0x04092000, 0xff3fe000, sve_size_bhsd, 0, OP3 (SVE_Vd, SVE_Pg3, SVE_Zn), OP_SVE_VUV_BHSD, 0, 0),
_SVE_INSN ("umin", 0x252bc000, 0xff3fe000, sve_size_bhsd, 0, OP3 (SVE_Zd, SVE_Zd, SVE_UIMM8), OP_SVE_VVU_BHSD, 0, 1),
_SVE_INSN ("umin", 0x040b0000, 0xff3fe000, sve_size_bhsd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_Zm_5), OP_SVE_VMVV_BHSD, 0, 2),
_SVE_INSN ("uminv", 0x040b2000, 0xff3fe000, sve_size_bhsd, 0, OP3 (SVE_Vd, SVE_Pg3, SVE_Zn), OP_SVE_VUV_BHSD, 0, 0),
_SVE_INSN ("umulh", 0x04130000, 0xff3fe000, sve_size_bhsd, 0, OP4 (SVE_Zd, SVE_Pg3, SVE_Zd, SVE_Zm_5), OP_SVE_VMVV_BHSD, 0, 2),
_SVE_INSN ("uqadd", 0x04201400, 0xff20fc00, sve_size_bhsd, 0, OP3 (SVE_Zd, SVE_Zn, SVE_Zm_16), OP_SVE_VVV_BHSD, 0, 0),
_SVE_INSN ("uqadd", 0x2525c000, 0xff3fc000, sve_size_bhsd, 0, OP3 (SVE_Zd, SVE_Zd, SVE_AIMM), OP_SVE_VVU_BHSD, 0, 1),
_SVE_INSN ("uqdecb", 0x0420fc00, 0xfff0fc00, sve_misc, 0, OP2 (Rd, SVE_PATTERN_SCALED), OP_SVE_WU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("uqdecb", 0x0430fc00, 0xfff0fc00, sve_misc, 0, OP2 (Rd, SVE_PATTERN_SCALED), OP_SVE_XU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("uqdecd", 0x04e0cc00, 0xfff0fc00, sve_misc, 0, OP2 (SVE_Zd, SVE_PATTERN_SCALED), OP_SVE_DU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("uqdecd", 0x04e0fc00, 0xfff0fc00, sve_misc, 0, OP2 (Rd, SVE_PATTERN_SCALED), OP_SVE_WU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("uqdecd", 0x04f0fc00, 0xfff0fc00, sve_misc, 0, OP2 (Rd, SVE_PATTERN_SCALED), OP_SVE_XU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("uqdech", 0x0460cc00, 0xfff0fc00, sve_misc, 0, OP2 (SVE_Zd, SVE_PATTERN_SCALED), OP_SVE_HU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("uqdech", 0x0460fc00, 0xfff0fc00, sve_misc, 0, OP2 (Rd, SVE_PATTERN_SCALED), OP_SVE_WU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("uqdech", 0x0470fc00, 0xfff0fc00, sve_misc, 0, OP2 (Rd, SVE_PATTERN_SCALED), OP_SVE_XU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("uqdecp", 0x252b8000, 0xff3ffe00, sve_size_hsd, 0, OP2 (SVE_Zd, SVE_Pg4_5), OP_SVE_VU_HSD, 0, 0),
_SVE_INSN ("uqdecp", 0x252b8800, 0xff3ffe00, sve_size_bhsd, 0, OP2 (Rd, SVE_Pg4_5), OP_SVE_WV_BHSD, 0, 0),
_SVE_INSN ("uqdecp", 0x252b8c00, 0xff3ffe00, sve_size_bhsd, 0, OP2 (Rd, SVE_Pg4_5), OP_SVE_XV_BHSD, 0, 0),
_SVE_INSN ("uqdecw", 0x04a0cc00, 0xfff0fc00, sve_misc, 0, OP2 (SVE_Zd, SVE_PATTERN_SCALED), OP_SVE_SU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("uqdecw", 0x04a0fc00, 0xfff0fc00, sve_misc, 0, OP2 (Rd, SVE_PATTERN_SCALED), OP_SVE_WU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("uqdecw", 0x04b0fc00, 0xfff0fc00, sve_misc, 0, OP2 (Rd, SVE_PATTERN_SCALED), OP_SVE_XU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("uqincb", 0x0420f400, 0xfff0fc00, sve_misc, 0, OP2 (Rd, SVE_PATTERN_SCALED), OP_SVE_WU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("uqincb", 0x0430f400, 0xfff0fc00, sve_misc, 0, OP2 (Rd, SVE_PATTERN_SCALED), OP_SVE_XU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("uqincd", 0x04e0c400, 0xfff0fc00, sve_misc, 0, OP2 (SVE_Zd, SVE_PATTERN_SCALED), OP_SVE_DU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("uqincd", 0x04e0f400, 0xfff0fc00, sve_misc, 0, OP2 (Rd, SVE_PATTERN_SCALED), OP_SVE_WU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("uqincd", 0x04f0f400, 0xfff0fc00, sve_misc, 0, OP2 (Rd, SVE_PATTERN_SCALED), OP_SVE_XU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("uqinch", 0x0460c400, 0xfff0fc00, sve_misc, 0, OP2 (SVE_Zd, SVE_PATTERN_SCALED), OP_SVE_HU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("uqinch", 0x0460f400, 0xfff0fc00, sve_misc, 0, OP2 (Rd, SVE_PATTERN_SCALED), OP_SVE_WU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("uqinch", 0x0470f400, 0xfff0fc00, sve_misc, 0, OP2 (Rd, SVE_PATTERN_SCALED), OP_SVE_XU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("uqincp", 0x25298000, 0xff3ffe00, sve_size_hsd, 0, OP2 (SVE_Zd, SVE_Pg4_5), OP_SVE_VU_HSD, 0, 0),
_SVE_INSN ("uqincp", 0x25298800, 0xff3ffe00, sve_size_bhsd, 0, OP2 (Rd, SVE_Pg4_5), OP_SVE_WV_BHSD, 0, 0),
_SVE_INSN ("uqincp", 0x25298c00, 0xff3ffe00, sve_size_bhsd, 0, OP2 (Rd, SVE_Pg4_5), OP_SVE_XV_BHSD, 0, 0),
_SVE_INSN ("uqincw", 0x04a0c400, 0xfff0fc00, sve_misc, 0, OP2 (SVE_Zd, SVE_PATTERN_SCALED), OP_SVE_SU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("uqincw", 0x04a0f400, 0xfff0fc00, sve_misc, 0, OP2 (Rd, SVE_PATTERN_SCALED), OP_SVE_WU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("uqincw", 0x04b0f400, 0xfff0fc00, sve_misc, 0, OP2 (Rd, SVE_PATTERN_SCALED), OP_SVE_XU, F_OPD1_OPT | F_DEFAULT(31), 0),
_SVE_INSN ("uqsub", 0x04201c00, 0xff20fc00, sve_size_bhsd, 0, OP3 (SVE_Zd, SVE_Zn, SVE_Zm_16), OP_SVE_VVV_BHSD, 0, 0),
_SVE_INSN ("uqsub", 0x2527c000, 0xff3fc000, sve_size_bhsd, 0, OP3 (SVE_Zd, SVE_Zd, SVE_AIMM), OP_SVE_VVU_BHSD, 0, 1),
_SVE_INSN ("uunpkhi", 0x05333800, 0xff3ffc00, sve_size_hsd, 0, OP2 (SVE_Zd, SVE_Zn), OP_SVE_VV_HSD_BHS, 0, 0),
_SVE_INSN ("uunpklo", 0x05323800, 0xff3ffc00, sve_size_hsd, 0, OP2 (SVE_Zd, SVE_Zn), OP_SVE_VV_HSD_BHS, 0, 0),
_SVE_INSN ("uxtb", 0x0411a000, 0xff3fe000, sve_size_hsd, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_VMV_HSD, 0, 0),
_SVE_INSN ("uxth", 0x0493a000, 0xffbfe000, sve_size_sd, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_VMV_SD, 0, 0),
_SVE_INSN ("uxtw", 0x04d5a000, 0xffffe000, sve_misc, 0, OP3 (SVE_Zd, SVE_Pg3, SVE_Zn), OP_SVE_DMD, 0, 0),
_SVE_INSN ("uzp1", 0x05204800, 0xff30fe10, sve_size_bhsd, 0, OP3 (SVE_Pd, SVE_Pn, SVE_Pm), OP_SVE_VVV_BHSD, 0, 0),
_SVE_INSN ("uzp1", 0x05206800, 0xff20fc00, sve_size_bhsd, 0, OP3 (SVE_Zd, SVE_Zn, SVE_Zm_16), OP_SVE_VVV_BHSD, 0, 0),
_SVE_INSN ("uzp2", 0x05204c00, 0xff30fe10, sve_size_bhsd, 0, OP3 (SVE_Pd, SVE_Pn, SVE_Pm), OP_SVE_VVV_BHSD, 0, 0),
_SVE_INSN ("uzp2", 0x05206c00, 0xff20fc00, sve_size_bhsd, 0, OP3 (SVE_Zd, SVE_Zn, SVE_Zm_16), OP_SVE_VVV_BHSD, 0, 0),
_SVE_INSN ("whilele", 0x25200410, 0xff20fc10, sve_size_bhsd, 0, OP3 (SVE_Pd, Rn, Rm), OP_SVE_VWW_BHSD, 0, 0),
_SVE_INSN ("whilele", 0x25201410, 0xff20fc10, sve_size_bhsd, 0, OP3 (SVE_Pd, Rn, Rm), OP_SVE_VXX_BHSD, 0, 0),
_SVE_INSN ("whilelo", 0x25200c00, 0xff20fc10, sve_size_bhsd, 0, OP3 (SVE_Pd, Rn, Rm), OP_SVE_VWW_BHSD, 0, 0),
_SVE_INSN ("whilelo", 0x25201c00, 0xff20fc10, sve_size_bhsd, 0, OP3 (SVE_Pd, Rn, Rm), OP_SVE_VXX_BHSD, 0, 0),
_SVE_INSN ("whilels", 0x25200c10, 0xff20fc10, sve_size_bhsd, 0, OP3 (SVE_Pd, Rn, Rm), OP_SVE_VWW_BHSD, 0, 0),
_SVE_INSN ("whilels", 0x25201c10, 0xff20fc10, sve_size_bhsd, 0, OP3 (SVE_Pd, Rn, Rm), OP_SVE_VXX_BHSD, 0, 0),
_SVE_INSN ("whilelt", 0x25200400, 0xff20fc10, sve_size_bhsd, 0, OP3 (SVE_Pd, Rn, Rm), OP_SVE_VWW_BHSD, 0, 0),
_SVE_INSN ("whilelt", 0x25201400, 0xff20fc10, sve_size_bhsd, 0, OP3 (SVE_Pd, Rn, Rm), OP_SVE_VXX_BHSD, 0, 0),
_SVE_INSN ("wrffr", 0x25289000, 0xfffffe1f, sve_misc, 0, OP1 (SVE_Pn), OP_SVE_B, 0, 0),
_SVE_INSN ("zip1", 0x05204000, 0xff30fe10, sve_size_bhsd, 0, OP3 (SVE_Pd, SVE_Pn, SVE_Pm), OP_SVE_VVV_BHSD, 0, 0),
_SVE_INSN ("zip1", 0x05206000, 0xff20fc00, sve_size_bhsd, 0, OP3 (SVE_Zd, SVE_Zn, SVE_Zm_16), OP_SVE_VVV_BHSD, 0, 0),
_SVE_INSN ("zip2", 0x05204400, 0xff30fe10, sve_size_bhsd, 0, OP3 (SVE_Pd, SVE_Pn, SVE_Pm), OP_SVE_VVV_BHSD, 0, 0),
_SVE_INSN ("zip2", 0x05206400, 0xff20fc00, sve_size_bhsd, 0, OP3 (SVE_Zd, SVE_Zn, SVE_Zm_16), OP_SVE_VVV_BHSD, 0, 0),
_SVE_INSN ("bic", 0x05800000, 0xfffc0000, sve_limm, 0, OP3 (SVE_Zd, SVE_Zd, SVE_INV_LIMM), OP_SVE_VVU_BHSD, F_ALIAS | F_PSEUDO, 1),
_SVE_INSN ("cmple", 0x24008000, 0xff20e010, sve_size_bhsd, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zm_16, SVE_Zn), OP_SVE_VZVV_BHSD, F_ALIAS | F_PSEUDO, 0),
_SVE_INSN ("cmplo", 0x24000010, 0xff20e010, sve_size_bhsd, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zm_16, SVE_Zn), OP_SVE_VZVV_BHSD, F_ALIAS | F_PSEUDO, 0),
_SVE_INSN ("cmpls", 0x24000000, 0xff20e010, sve_size_bhsd, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zm_16, SVE_Zn), OP_SVE_VZVV_BHSD, F_ALIAS | F_PSEUDO, 0),
_SVE_INSN ("cmplt", 0x24008010, 0xff20e010, sve_size_bhsd, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zm_16, SVE_Zn), OP_SVE_VZVV_BHSD, F_ALIAS | F_PSEUDO, 0),
_SVE_INSN ("eon", 0x05400000, 0xfffc0000, sve_limm, 0, OP3 (SVE_Zd, SVE_Zd, SVE_INV_LIMM), OP_SVE_VVU_BHSD, F_ALIAS | F_PSEUDO, 1),
_SVE_INSN ("facle", 0x6580c010, 0xffa0e010, sve_size_sd, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zm_16, SVE_Zn), OP_SVE_VZVV_SD, F_ALIAS | F_PSEUDO, 0),
_SVE_INSN ("faclt", 0x6580e010, 0xffa0e010, sve_size_sd, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zm_16, SVE_Zn), OP_SVE_VZVV_SD, F_ALIAS | F_PSEUDO, 0),
_SVE_INSN ("fcmle", 0x65804000, 0xffa0e010, sve_size_sd, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zm_16, SVE_Zn), OP_SVE_VZVV_SD, F_ALIAS | F_PSEUDO, 0),
_SVE_INSN ("fcmlt", 0x65804010, 0xffa0e010, sve_size_sd, 0, OP4 (SVE_Pd, SVE_Pg3, SVE_Zm_16, SVE_Zn), OP_SVE_VZVV_SD, F_ALIAS | F_PSEUDO, 0),
_SVE_INSN ("fmov", 0x25b8c000, 0xffbfffe0, sve_size_sd, 0, OP2 (SVE_Zd, FPIMM0), OP_SVE_V_SD, F_ALIAS | F_PSEUDO, 0),
_SVE_INSN ("fmov", 0x05904000, 0xffb0ffe0, sve_size_sd, 0, OP3 (SVE_Zd, SVE_Pg4_16, FPIMM0), OP_SVE_VM_SD, F_ALIAS | F_PSEUDO, 0),
_SVE_INSN ("orn", 0x05000000, 0xfffc0000, sve_limm, 0, OP3 (SVE_Zd, SVE_Zd, SVE_INV_LIMM), OP_SVE_VVU_BHSD, F_ALIAS | F_PSEUDO, 1),
{0, 0, 0, 0, 0, 0, {}, {}, 0, 0, NULL},
};
#ifdef AARCH64_OPERANDS
#undef AARCH64_OPERANDS
#endif
/* Macro-based operand decription; this will be fed into aarch64-gen for it
to generate the structure aarch64_operands and the function
aarch64_insert_operand and aarch64_extract_operand.
These inserters and extracters in the description execute the conversion
between the aarch64_opnd_info and value in the operand-related instruction
field(s). */
/* Y expects arguments (left to right) to be operand class, inserter/extractor
name suffix, operand name, flags, related bitfield(s) and description.
X only differs from Y by having the operand inserter and extractor names
listed separately. */
#define AARCH64_OPERANDS \
Y(INT_REG, regno, "Rd", 0, F(FLD_Rd), "an integer register") \
Y(INT_REG, regno, "Rn", 0, F(FLD_Rn), "an integer register") \
Y(INT_REG, regno, "Rm", 0, F(FLD_Rm), "an integer register") \
Y(INT_REG, regno, "Rt", 0, F(FLD_Rt), "an integer register") \
Y(INT_REG, regno, "Rt2", 0, F(FLD_Rt2), "an integer register") \
Y(INT_REG, regno, "Rs", 0, F(FLD_Rs), "an integer register") \
Y(INT_REG, regno, "Ra", 0, F(FLD_Ra), "an integer register") \
X(INT_REG, ins_regno, ext_regrt_sysins, "Rt_SYS", 0, F(FLD_Rt), \
"an integer register") \
Y(INT_REG, regno, "Rd_SP", OPD_F_MAYBE_SP, F(FLD_Rd), \
"an integer or stack pointer register") \
Y(INT_REG, regno, "Rn_SP", OPD_F_MAYBE_SP, F(FLD_Rn), \
"an integer or stack pointer register") \
Y(INT_REG, regno, "Rm_SP", OPD_F_MAYBE_SP, F(FLD_Rm), \
"an integer or stack pointer register") \
X(INT_REG, 0, ext_regno_pair, "PAIRREG", 0, F(), \
"the second reg of a pair") \
Y(MODIFIED_REG, reg_extended, "Rm_EXT", 0, F(), \
"an integer register with optional extension") \
Y(MODIFIED_REG, reg_shifted, "Rm_SFT", 0, F(), \
"an integer register with optional shift") \
Y(FP_REG, regno, "Fd", 0, F(FLD_Rd), "a floating-point register") \
Y(FP_REG, regno, "Fn", 0, F(FLD_Rn), "a floating-point register") \
Y(FP_REG, regno, "Fm", 0, F(FLD_Rm), "a floating-point register") \
Y(FP_REG, regno, "Fa", 0, F(FLD_Ra), "a floating-point register") \
Y(FP_REG, ft, "Ft", 0, F(FLD_Rt), "a floating-point register") \
Y(FP_REG, regno, "Ft2", 0, F(FLD_Rt2), "a floating-point register") \
Y(SISD_REG, regno, "Sd", 0, F(FLD_Rd), "a SIMD scalar register") \
Y(SISD_REG, regno, "Sn", 0, F(FLD_Rn), "a SIMD scalar register") \
Y(SISD_REG, regno, "Sm", 0, F(FLD_Rm), "a SIMD scalar register") \
Y(SIMD_REG, regno, "Vd", 0, F(FLD_Rd), "a SIMD vector register") \
Y(SIMD_REG, regno, "Vn", 0, F(FLD_Rn), "a SIMD vector register") \
Y(SIMD_REG, regno, "Vm", 0, F(FLD_Rm), "a SIMD vector register") \
Y(FP_REG, regno, "VdD1", 0, F(FLD_Rd), \
"the top half of a 128-bit FP/SIMD register") \
Y(FP_REG, regno, "VnD1", 0, F(FLD_Rn), \
"the top half of a 128-bit FP/SIMD register") \
Y(SIMD_ELEMENT, reglane, "Ed", 0, F(FLD_Rd), \
"a SIMD vector element") \
Y(SIMD_ELEMENT, reglane, "En", 0, F(FLD_Rn), \
"a SIMD vector element") \
Y(SIMD_ELEMENT, reglane, "Em", 0, F(FLD_Rm), \
"a SIMD vector element") \
Y(SIMD_REGLIST, reglist, "LVn", 0, F(FLD_Rn), \
"a SIMD vector register list") \
Y(SIMD_REGLIST, ldst_reglist, "LVt", 0, F(), \
"a SIMD vector register list") \
Y(SIMD_REGLIST, ldst_reglist_r, "LVt_AL", 0, F(), \
"a SIMD vector register list") \
Y(SIMD_REGLIST, ldst_elemlist, "LEt", 0, F(), \
"a SIMD vector element list") \
Y(IMMEDIATE, imm, "CRn", 0, F(FLD_CRn), \
"a 4-bit opcode field named for historical reasons C0 - C15") \
Y(IMMEDIATE, imm, "CRm", 0, F(FLD_CRm), \
"a 4-bit opcode field named for historical reasons C0 - C15") \
Y(IMMEDIATE, imm, "IDX", 0, F(FLD_imm4), \
"an immediate as the index of the least significant byte") \
Y(IMMEDIATE, advsimd_imm_shift, "IMM_VLSL", 0, F(), \
"a left shift amount for an AdvSIMD register") \
Y(IMMEDIATE, advsimd_imm_shift, "IMM_VLSR", 0, F(), \
"a right shift amount for an AdvSIMD register") \
Y(IMMEDIATE, advsimd_imm_modified, "SIMD_IMM", 0, F(), \
"an immediate") \
Y(IMMEDIATE, advsimd_imm_modified, "SIMD_IMM_SFT", 0, F(), \
"an 8-bit unsigned immediate with optional shift") \
Y(IMMEDIATE, advsimd_imm_modified, "SIMD_FPIMM", 0, F(), \
"an 8-bit floating-point constant") \
X(IMMEDIATE, 0, ext_shll_imm, "SHLL_IMM", 0, F(), \
"an immediate shift amount of 8, 16 or 32") \
X(IMMEDIATE, 0, 0, "IMM0", 0, F(), "0") \
X(IMMEDIATE, 0, 0, "FPIMM0", 0, F(), "0.0") \
Y(IMMEDIATE, fpimm, "FPIMM", 0, F(FLD_imm8), \
"an 8-bit floating-point constant") \
Y(IMMEDIATE, imm, "IMMR", 0, F(FLD_immr), \
"the right rotate amount") \
Y(IMMEDIATE, imm, "IMMS", 0, F(FLD_imm6), \
"the leftmost bit number to be moved from the source") \
Y(IMMEDIATE, imm, "WIDTH", 0, F(FLD_imm6), \
"the width of the bit-field") \
Y(IMMEDIATE, imm, "IMM", 0, F(FLD_imm6), "an immediate") \
Y(IMMEDIATE, imm, "UIMM3_OP1", 0, F(FLD_op1), \
"a 3-bit unsigned immediate") \
Y(IMMEDIATE, imm, "UIMM3_OP2", 0, F(FLD_op2), \
"a 3-bit unsigned immediate") \
Y(IMMEDIATE, imm, "UIMM4", 0, F(FLD_CRm), \
"a 4-bit unsigned immediate") \
Y(IMMEDIATE, imm, "UIMM7", 0, F(FLD_CRm, FLD_op2), \
"a 7-bit unsigned immediate") \
Y(IMMEDIATE, imm, "BIT_NUM", 0, F(FLD_b5, FLD_b40), \
"the bit number to be tested") \
Y(IMMEDIATE, imm, "EXCEPTION", 0, F(FLD_imm16), \
"a 16-bit unsigned immediate") \
Y(IMMEDIATE, imm, "CCMP_IMM", 0, F(FLD_imm5), \
"a 5-bit unsigned immediate") \
[AArch64][SVE 27/32] Add SVE integer immediate operands This patch adds the new SVE integer immediate operands. There are three kinds: - simple signed and unsigned ranges, but with new widths and positions. - 13-bit logical immediates. These have the same form as in base AArch64, but at a different bit position. In the case of the "MOV Zn.<T>, #<limm>" alias of DUPM, the logical immediate <limm> is not allowed to be a valid DUP immediate, since DUP is preferred over DUPM for constants that both instructions can handle. - a new 9-bit arithmetic immediate, of the form "<imm8>{, LSL #8}". In some contexts the operand is signed and in others it's unsigned. As an extension, we allow shifted immediates to be written as a single integer, e.g. "#256" is equivalent to "#1, LSL #8". We also use the shiftless form as the preferred disassembly, except for the special case of "#0, LSL #8" (a redundant encoding of 0). include/ * opcode/aarch64.h (AARCH64_OPND_SIMM5): New aarch64_opnd. (AARCH64_OPND_SVE_AIMM, AARCH64_OPND_SVE_ASIMM) (AARCH64_OPND_SVE_INV_LIMM, AARCH64_OPND_SVE_LIMM) (AARCH64_OPND_SVE_LIMM_MOV, AARCH64_OPND_SVE_SHLIMM_PRED) (AARCH64_OPND_SVE_SHLIMM_UNPRED, AARCH64_OPND_SVE_SHRIMM_PRED) (AARCH64_OPND_SVE_SHRIMM_UNPRED, AARCH64_OPND_SVE_SIMM5) (AARCH64_OPND_SVE_SIMM5B, AARCH64_OPND_SVE_SIMM6) (AARCH64_OPND_SVE_SIMM8, AARCH64_OPND_SVE_UIMM3) (AARCH64_OPND_SVE_UIMM7, AARCH64_OPND_SVE_UIMM8) (AARCH64_OPND_SVE_UIMM8_53): Likewise. (aarch64_sve_dupm_mov_immediate_p): Declare. opcodes/ * aarch64-tbl.h (AARCH64_OPERANDS): Add entries for the new SVE integer immediate operands. * aarch64-opc.h (FLD_SVE_immN, FLD_SVE_imm3, FLD_SVE_imm5) (FLD_SVE_imm5b, FLD_SVE_imm7, FLD_SVE_imm8, FLD_SVE_imm9) (FLD_SVE_immr, FLD_SVE_imms, FLD_SVE_tszh): New aarch64_field_kinds. * aarch64-opc.c (fields): Add corresponding entries. (operand_general_constraint_met_p): Handle the new SVE integer immediate operands. (aarch64_print_operand): Likewise. (aarch64_sve_dupm_mov_immediate_p): New function. * aarch64-opc-2.c: Regenerate. * aarch64-asm.h (ins_inv_limm, ins_sve_aimm, ins_sve_asimm) (ins_sve_limm_mov, ins_sve_shlimm, ins_sve_shrimm): New inserters. * aarch64-asm.c (aarch64_ins_limm_1): New function, split out from... (aarch64_ins_limm): ...here. (aarch64_ins_inv_limm): New function. (aarch64_ins_sve_aimm): Likewise. (aarch64_ins_sve_asimm): Likewise. (aarch64_ins_sve_limm_mov): Likewise. (aarch64_ins_sve_shlimm): Likewise. (aarch64_ins_sve_shrimm): Likewise. * aarch64-asm-2.c: Regenerate. * aarch64-dis.h (ext_inv_limm, ext_sve_aimm, ext_sve_asimm) (ext_sve_limm_mov, ext_sve_shlimm, ext_sve_shrimm): New extractors. * aarch64-dis.c (decode_limm): New function, split out from... (aarch64_ext_limm): ...here. (aarch64_ext_inv_limm): New function. (decode_sve_aimm): Likewise. (aarch64_ext_sve_aimm): Likewise. (aarch64_ext_sve_asimm): Likewise. (aarch64_ext_sve_limm_mov): Likewise. (aarch64_top_bit): Likewise. (aarch64_ext_sve_shlimm): Likewise. (aarch64_ext_sve_shrimm): Likewise. * aarch64-dis-2.c: Regenerate. gas/ * config/tc-aarch64.c (parse_operands): Handle the new SVE integer immediate operands.
2016-09-21 17:56:57 +02:00
Y(IMMEDIATE, imm, "SIMM5", OPD_F_SEXT, F(FLD_imm5), \
"a 5-bit signed immediate") \
Y(IMMEDIATE, imm, "NZCV", 0, F(FLD_nzcv), \
"a flag bit specifier giving an alternative value for each flag") \
Y(IMMEDIATE, limm, "LIMM", 0, F(FLD_N,FLD_immr,FLD_imms), \
"Logical immediate") \
Y(IMMEDIATE, aimm, "AIMM", 0, F(FLD_shift,FLD_imm12), \
"a 12-bit unsigned immediate with optional left shift of 12 bits")\
Y(IMMEDIATE, imm_half, "HALF", 0, F(FLD_imm16), \
"a 16-bit immediate with optional left shift") \
Y(IMMEDIATE, fbits, "FBITS", 0, F(FLD_scale), \
"the number of bits after the binary point in the fixed-point value")\
X(IMMEDIATE, 0, 0, "IMM_MOV", 0, F(), "an immediate") \
[AArch64] Add ARMv8.3 FCMLA and FCADD instructions Add support for FCMLA and FCADD complex arithmetic SIMD instructions. FCMLA has an indexed element variant where the index range has to be treated specially because a complex number takes two elements and the indexed vector size depends on the other operands. These complex number SIMD instructions are part of ARMv8.3 https://community.arm.com/groups/processors/blog/2016/10/27/armv8-a-architecture-2016-additions include/ 2016-11-18 Szabolcs Nagy <szabolcs.nagy@arm.com> * opcode/aarch64.h (enum aarch64_opnd): Add AARCH64_OPND_IMM_ROT1, AARCH64_OPND_IMM_ROT2, AARCH64_OPND_IMM_ROT3. (enum aarch64_op): Add OP_FCMLA_ELEM. opcodes/ 2016-11-18 Szabolcs Nagy <szabolcs.nagy@arm.com> * aarch64-tbl.h (QL_V3SAMEHSD_ROT, QL_ELEMENT_ROT): Define. (aarch64_feature_simd_v8_3, SIMD_V8_3): Define. (aarch64_opcode_table): Add fcmla and fcadd. (AARCH64_OPERANDS): Add IMM_ROT{1,2,3}. * aarch64-asm.h (aarch64_ins_imm_rotate): Declare. * aarch64-asm.c (aarch64_ins_imm_rotate): Define. * aarch64-dis.h (aarch64_ext_imm_rotate): Declare. * aarch64-dis.c (aarch64_ext_imm_rotate): Define. * aarch64-opc.h (enum aarch64_field_kind): Add FLD_rotate{1,2,3}. * aarch64-opc.c (fields): Add FLD_rotate{1,2,3}. (operand_general_constraint_met_p): Rotate and index range check. (aarch64_print_operand): Handle rotate operand. * aarch64-asm-2.c: Regenerate. * aarch64-dis-2.c: Likewise. * aarch64-opc-2.c: Likewise. gas/ 2016-11-18 Szabolcs Nagy <szabolcs.nagy@arm.com> * config/tc-aarch64.c (parse_operands): Handle AARCH64_OPND_IMM_ROT*. * testsuite/gas/aarch64/advsimd-armv8_3.d: New. * testsuite/gas/aarch64/advsimd-armv8_3.s: New. * testsuite/gas/aarch64/illegal-fcmla.s: New. * testsuite/gas/aarch64/illegal-fcmla.l: New. * testsuite/gas/aarch64/illegal-fcmla.d: New.
2016-11-18 11:02:16 +01:00
Y(IMMEDIATE, imm_rotate, "IMM_ROT1", 0, F(FLD_rotate1), \
"a 2-bit rotation specifier for complex arithmetic operations") \
Y(IMMEDIATE, imm_rotate, "IMM_ROT2", 0, F(FLD_rotate2), \
"a 2-bit rotation specifier for complex arithmetic operations") \
Y(IMMEDIATE, imm_rotate, "IMM_ROT3", 0, F(FLD_rotate3), \
"a 1-bit rotation specifier for complex arithmetic operations") \
Y(COND, cond, "COND", 0, F(), "a condition") \
Y(COND, cond, "COND1", 0, F(), \
"one of the standard conditions, excluding AL and NV.") \
X(ADDRESS, 0, ext_imm, "ADDR_ADRP", OPD_F_SEXT, F(FLD_immhi, FLD_immlo),\
"21-bit PC-relative address of a 4KB page") \
Y(ADDRESS, imm, "ADDR_PCREL14", OPD_F_SEXT | OPD_F_SHIFT_BY_2, \
F(FLD_imm14), "14-bit PC-relative address") \
Y(ADDRESS, imm, "ADDR_PCREL19", OPD_F_SEXT | OPD_F_SHIFT_BY_2, \
F(FLD_imm19), "19-bit PC-relative address") \
Y(ADDRESS, imm, "ADDR_PCREL21", OPD_F_SEXT, F(FLD_immhi,FLD_immlo), \
"21-bit PC-relative address") \
Y(ADDRESS, imm, "ADDR_PCREL26", OPD_F_SEXT | OPD_F_SHIFT_BY_2, \
F(FLD_imm26), "26-bit PC-relative address") \
Y(ADDRESS, addr_simple, "ADDR_SIMPLE", 0, F(), \
"an address with base register (no offset)") \
Y(ADDRESS, addr_regoff, "ADDR_REGOFF", 0, F(), \
"an address with register offset") \
Y(ADDRESS, addr_simm, "ADDR_SIMM7", 0, F(FLD_imm7,FLD_index2), \
"an address with 7-bit signed immediate offset") \
Y(ADDRESS, addr_simm, "ADDR_SIMM9", 0, F(FLD_imm9,FLD_index), \
"an address with 9-bit signed immediate offset") \
Y(ADDRESS, addr_simm, "ADDR_SIMM9_2", 0, F(FLD_imm9,FLD_index), \
"an address with 9-bit negative or unaligned immediate offset") \
[AArch64] Add ARMv8.3 combined pointer authentication load instructions Add support for ARMv8.3 LDRAA and LDRAB combined pointer authentication and load instructions. These instructions authenticate the base register and load 8 byte from it plus a scaled 10-bit offset with optional writeback to update the base register. A new instruction class (ldst_imm10) and operand type (AARCH64_OPND_ADDR_SIMM10) were introduced to handle the special addressing form. include/ 2016-11-18 Szabolcs Nagy <szabolcs.nagy@arm.com> * opcode/aarch64.h (enum aarch64_opnd): Add AARCH64_OPND_ADDR_SIMM10. (enum aarch64_insn_class): Add ldst_imm10. opcodes/ 2016-11-18 Szabolcs Nagy <szabolcs.nagy@arm.com> * aarch64-tbl.h (QL_X1NIL): New. (arch64_opcode_table): Add ldraa, ldrab. (AARCH64_OPERANDS): Add "ADDR_SIMM10". * aarch64-asm.h (aarch64_ins_addr_simm10): Declare. * aarch64-asm.c (aarch64_ins_addr_simm10): Define. * aarch64-dis.h (aarch64_ext_addr_simm10): Declare. * aarch64-dis.c (aarch64_ext_addr_simm10): Define. * aarch64-opc.h (enum aarch64_field_kind): Add FLD_S_simm10. * aarch64-opc.c (fields): Add data for FLD_S_simm10. (operand_general_constraint_met_p): Handle AARCH64_OPND_ADDR_SIMM10. (aarch64_print_operand): Likewise. * aarch64-asm-2.c: Regenerate. * aarch64-dis-2.c: Regenerate. * aarch64-opc-2.c: Regenerate. gas/ 2016-11-18 Szabolcs Nagy <szabolcs.nagy@arm.com> * config/tc-aarch64.c (parse_operands): Handle AARCH64_OPND_ADDR_SIMM10. (fix_insn): Likewise. (warn_unpredictable_ldst): Handle ldst_imm10. * testsuite/gas/aarch64/pac.s: Add ldraa and ldrab tests. * testsuite/gas/aarch64/pac.d: Likewise. * testsuite/gas/aarch64/illegal-ldraa.s: New. * testsuite/gas/aarch64/illegal-ldraa.l: New. * testsuite/gas/aarch64/illegal-ldraa.d: New.
2016-11-18 10:49:06 +01:00
Y(ADDRESS, addr_simm10, "ADDR_SIMM10", 0, F(FLD_Rn,FLD_S_imm10,FLD_imm9,FLD_index),\
"an address with 10-bit scaled, signed immediate offset") \
Y(ADDRESS, addr_uimm12, "ADDR_UIMM12", 0, F(FLD_Rn,FLD_imm12), \
"an address with scaled, unsigned immediate offset") \
Y(ADDRESS, addr_simple, "SIMD_ADDR_SIMPLE", 0, F(), \
"an address with base register (no offset)") \
Y(ADDRESS, simd_addr_post, "SIMD_ADDR_POST", 0, F(), \
"a post-indexed address with immediate or register increment") \
Y(SYSTEM, sysreg, "SYSREG", 0, F(), "a system register") \
Y(SYSTEM, pstatefield, "PSTATEFIELD", 0, F(), \
"a PSTATE field name") \
Y(SYSTEM, sysins_op, "SYSREG_AT", 0, F(), \
"an address translation operation specifier") \
Y(SYSTEM, sysins_op, "SYSREG_DC", 0, F(), \
"a data cache maintenance operation specifier") \
Y(SYSTEM, sysins_op, "SYSREG_IC", 0, F(), \
"an instruction cache maintenance operation specifier") \
Y(SYSTEM, sysins_op, "SYSREG_TLBI", 0, F(), \
"a TBL invalidation operation specifier") \
Y(SYSTEM, barrier, "BARRIER", 0, F(), \
"a barrier option name") \
Y(SYSTEM, barrier, "BARRIER_ISB", 0, F(), \
"the ISB option name SY or an optional 4-bit unsigned immediate") \
Y(SYSTEM, prfop, "PRFOP", 0, F(), \
[AArch64][Patch 5/5] Add instruction PSB CSYNC The Statistical Profile Extension adds the instruction PSB CSYNC as an alias for the HINT #17 instruction. This patch adds the instruction to binutils as a HINT alias that takes an operand. A new operand type, AARCH64_OPND_BARRIER_PSB, is added to represent the operand to PSB. A parser for the operand type is added to the assembler and a printer to the disassembler. The operand name "csync" is added to the list of HINT options with HINT number #17. Encoding and decoding of the operand is handled by the ins_hint/ext_hint functions added in the preceding patches. gas/ 2015-12-11 Matthew Wahab <matthew.wahab@arm.com> * config/tc-aarch64.c (aarch64_hint_opt_hsh): New. (parse_barrier_psb): New. (parse_operands): Add case for AARCH64_OPND_BARRIER_PSB. (md_begin): Set up aarch64_hint_opt_hsh. gas/testsuite/ 2015-12-11 Matthew Wahab <matthew.wahab@arm.com> * gas/aarch64/system-2.d: Enable the statistical profiling extension. Update the expected output. * gas/aarch64/system-2.s: Add tests for PSB CSYNC. * gas/aarch64/system.d: Update the expected output. include/opcode/ 2015-12-11 Matthew Wahab <matthew.wahab@arm.com> * aarch64.h (aarch64_opnd): Add AARCH64_OPND_BARRIER_PSB. * aarch64-asm-2.c: Regenerate. * aarch64-dis-2.c: Regenerate. * aarch64-opc-2.c: Regenerate. * aarch64-opc.c (aarch64_hint_options): Add "csync". (aarch64_print_operands): Handle AARCH64_OPND_BARRIER_PSB. * aarch64-tbl.h (aarch64_feature_stat_profile): New. (STAT_PROFILE): New. (aarch64_opcode_table): Add "psb". (AARCH64_OPERANDS): Add "BARRIER_PSB". Change-Id: I5ffb672d26a8b15b48785478d359350a9b70ca09
2015-12-11 11:22:40 +01:00
"a prefetch operation specifier") \
[AArch64][SVE 25/32] Add support for SVE addressing modes This patch adds most of the new SVE addressing modes and associated operands. A follow-on patch adds MUL VL, since handling it separately makes the changes easier to read. The patch also introduces a new "operand-dependent data" field to the operand flags, based closely on the existing one for opcode flags. For SVE this new field needs only 2 bits, but it could be widened in future if necessary. include/ * opcode/aarch64.h (AARCH64_OPND_SVE_ADDR_RI_U6): New aarch64_opnd. (AARCH64_OPND_SVE_ADDR_RI_U6x2, AARCH64_OPND_SVE_ADDR_RI_U6x4) (AARCH64_OPND_SVE_ADDR_RI_U6x8, AARCH64_OPND_SVE_ADDR_RR) (AARCH64_OPND_SVE_ADDR_RR_LSL1, AARCH64_OPND_SVE_ADDR_RR_LSL2) (AARCH64_OPND_SVE_ADDR_RR_LSL3, AARCH64_OPND_SVE_ADDR_RX) (AARCH64_OPND_SVE_ADDR_RX_LSL1, AARCH64_OPND_SVE_ADDR_RX_LSL2) (AARCH64_OPND_SVE_ADDR_RX_LSL3, AARCH64_OPND_SVE_ADDR_RZ) (AARCH64_OPND_SVE_ADDR_RZ_LSL1, AARCH64_OPND_SVE_ADDR_RZ_LSL2) (AARCH64_OPND_SVE_ADDR_RZ_LSL3, AARCH64_OPND_SVE_ADDR_RZ_XTW_14) (AARCH64_OPND_SVE_ADDR_RZ_XTW_22, AARCH64_OPND_SVE_ADDR_RZ_XTW1_14) (AARCH64_OPND_SVE_ADDR_RZ_XTW1_22, AARCH64_OPND_SVE_ADDR_RZ_XTW2_14) (AARCH64_OPND_SVE_ADDR_RZ_XTW2_22, AARCH64_OPND_SVE_ADDR_RZ_XTW3_14) (AARCH64_OPND_SVE_ADDR_RZ_XTW3_22, AARCH64_OPND_SVE_ADDR_ZI_U5) (AARCH64_OPND_SVE_ADDR_ZI_U5x2, AARCH64_OPND_SVE_ADDR_ZI_U5x4) (AARCH64_OPND_SVE_ADDR_ZI_U5x8, AARCH64_OPND_SVE_ADDR_ZZ_LSL) (AARCH64_OPND_SVE_ADDR_ZZ_SXTW, AARCH64_OPND_SVE_ADDR_ZZ_UXTW): Likewise. opcodes/ * aarch64-tbl.h (AARCH64_OPERANDS): Add entries for the new SVE address operands. * aarch64-opc.h (FLD_SVE_imm6, FLD_SVE_msz, FLD_SVE_xs_14) (FLD_SVE_xs_22): New aarch64_field_kinds. (OPD_F_OD_MASK, OPD_F_OD_LSB, OPD_F_NO_ZR): New flags. (get_operand_specific_data): New function. * aarch64-opc.c (fields): Add entries for FLD_SVE_imm6, FLD_SVE_msz, FLD_SVE_xs_14 and FLD_SVE_xs_22. (operand_general_constraint_met_p): Handle the new SVE address operands. (sve_reg): New array. (get_addr_sve_reg_name): New function. (aarch64_print_operand): Handle the new SVE address operands. * aarch64-opc-2.c: Regenerate. * aarch64-asm.h (ins_sve_addr_ri_u6, ins_sve_addr_rr_lsl) (ins_sve_addr_rz_xtw, ins_sve_addr_zi_u5, ins_sve_addr_zz_lsl) (ins_sve_addr_zz_sxtw, ins_sve_addr_zz_uxtw): New inserters. * aarch64-asm.c (aarch64_ins_sve_addr_ri_u6): New function. (aarch64_ins_sve_addr_rr_lsl): Likewise. (aarch64_ins_sve_addr_rz_xtw): Likewise. (aarch64_ins_sve_addr_zi_u5): Likewise. (aarch64_ins_sve_addr_zz): Likewise. (aarch64_ins_sve_addr_zz_lsl): Likewise. (aarch64_ins_sve_addr_zz_sxtw): Likewise. (aarch64_ins_sve_addr_zz_uxtw): Likewise. * aarch64-asm-2.c: Regenerate. * aarch64-dis.h (ext_sve_addr_ri_u6, ext_sve_addr_rr_lsl) (ext_sve_addr_rz_xtw, ext_sve_addr_zi_u5, ext_sve_addr_zz_lsl) (ext_sve_addr_zz_sxtw, ext_sve_addr_zz_uxtw): New extractors. * aarch64-dis.c (aarch64_ext_sve_add_reg_imm): New function. (aarch64_ext_sve_addr_ri_u6): Likewise. (aarch64_ext_sve_addr_rr_lsl): Likewise. (aarch64_ext_sve_addr_rz_xtw): Likewise. (aarch64_ext_sve_addr_zi_u5): Likewise. (aarch64_ext_sve_addr_zz): Likewise. (aarch64_ext_sve_addr_zz_lsl): Likewise. (aarch64_ext_sve_addr_zz_sxtw): Likewise. (aarch64_ext_sve_addr_zz_uxtw): Likewise. * aarch64-dis-2.c: Regenerate. gas/ * config/tc-aarch64.c (REG_TYPE_SVE_BASE, REG_TYPE_SVE_OFFSET): New register types. (get_reg_expected_msg): Handle them. (aarch64_addr_reg_parse): New function, split out from aarch64_reg_parse_32_64. Handle Z registers too. (aarch64_reg_parse_32_64): Call it. (parse_address_main): Add base_qualifier, offset_qualifier, base_type and offset_type parameters. Handle SVE base and offset registers. (parse_address): Update call to parse_address_main. (parse_sve_address): New function. (parse_operands): Parse the new SVE address operands.
2016-09-21 17:55:49 +02:00
Y(SYSTEM, hint, "BARRIER_PSB", 0, F (), \
[AArch64][SVE 21/32] Add Zn and Pn registers This patch adds the Zn and Pn registers, and associated fields and operands. include/ * opcode/aarch64.h (AARCH64_OPND_CLASS_SVE_REG): New aarch64_operand_class. (AARCH64_OPND_CLASS_PRED_REG): Likewise. (AARCH64_OPND_SVE_Pd, AARCH64_OPND_SVE_Pg3, AARCH64_OPND_SVE_Pg4_5) (AARCH64_OPND_SVE_Pg4_10, AARCH64_OPND_SVE_Pg4_16) (AARCH64_OPND_SVE_Pm, AARCH64_OPND_SVE_Pn, AARCH64_OPND_SVE_Pt) (AARCH64_OPND_SVE_Za_5, AARCH64_OPND_SVE_Za_16, AARCH64_OPND_SVE_Zd) (AARCH64_OPND_SVE_Zm_5, AARCH64_OPND_SVE_Zm_16, AARCH64_OPND_SVE_Zn) (AARCH64_OPND_SVE_Zn_INDEX, AARCH64_OPND_SVE_ZnxN) (AARCH64_OPND_SVE_Zt, AARCH64_OPND_SVE_ZtxN): New aarch64_opnds. opcodes/ * aarch64-tbl.h (AARCH64_OPERANDS): Add entries for new SVE operands. * aarch64-opc.h (FLD_SVE_Pd, FLD_SVE_Pg3, FLD_SVE_Pg4_5) (FLD_SVE_Pg4_10, FLD_SVE_Pg4_16, FLD_SVE_Pm, FLD_SVE_Pn, FLD_SVE_Pt) (FLD_SVE_Za_5, FLD_SVE_Za_16, FLD_SVE_Zd, FLD_SVE_Zm_5, FLD_SVE_Zm_16) (FLD_SVE_Zn, FLD_SVE_Zt, FLD_SVE_tzsh): New aarch64_field_kinds. * aarch64-opc.c (fields): Add corresponding entries here. (operand_general_constraint_met_p): Check that SVE register lists have the correct length. Check the ranges of SVE index registers. Check for cases where p8-p15 are used in 3-bit predicate fields. (aarch64_print_operand): Handle the new SVE operands. * aarch64-opc-2.c: Regenerate. * aarch64-asm.h (ins_sve_index, ins_sve_reglist): New inserters. * aarch64-asm.c (aarch64_ins_sve_index): New function. (aarch64_ins_sve_reglist): Likewise. * aarch64-asm-2.c: Regenerate. * aarch64-dis.h (ext_sve_index, ext_sve_reglist): New extractors. * aarch64-dis.c (aarch64_ext_sve_index): New function. (aarch64_ext_sve_reglist): Likewise. * aarch64-dis-2.c: Regenerate. gas/ * config/tc-aarch64.c (NTA_HASVARWIDTH): New macro. (AARCH64_REG_TYPES): Add ZN and PN. (get_reg_expected_msg): Handle them. (parse_vector_type_for_operand): Add a reg_type parameter. Skip the width for Zn and Pn registers. (parse_typed_reg): Extend vector handling to Zn and Pn. Update the call to parse_vector_type_for_operand. Set HASVARTYPE for Zn and Pn, expecting the width to be 0. (parse_vector_reg_list): Restrict error about [BHSD]nn operands to REG_TYPE_VN. (vectype_to_qualifier): Use S_[BHSD] qualifiers for NTA_HASVARWIDTH. (parse_operands): Handle the new Zn and Pn operands. (REGSET16): New macro, split out from... (REGSET31): ...here. (reg_names): Add Zn and Pn entries.
2016-09-21 17:53:54 +02:00
"the PSB option name CSYNC") \
[AArch64][SVE 26/32] Add SVE MUL VL addressing modes This patch adds support for addresses of the form: [<base>, #<offset>, MUL VL] This involves adding a new AARCH64_MOD_MUL_VL modifier, which is why I split it out from the other addressing modes. For LD2, LD3 and LD4, the offset must be a multiple of the structure size, so for LD3 the possible values are 0, 3, 6, .... The patch therefore extends value_aligned_p to handle non-power-of-2 alignments. include/ * opcode/aarch64.h (AARCH64_OPND_SVE_ADDR_RI_S4xVL): New aarch64_opnd. (AARCH64_OPND_SVE_ADDR_RI_S4x2xVL, AARCH64_OPND_SVE_ADDR_RI_S4x3xVL) (AARCH64_OPND_SVE_ADDR_RI_S4x4xVL, AARCH64_OPND_SVE_ADDR_RI_S6xVL) (AARCH64_OPND_SVE_ADDR_RI_S9xVL): Likewise. (AARCH64_MOD_MUL_VL): New aarch64_modifier_kind. opcodes/ * aarch64-tbl.h (AARCH64_OPERANDS): Add entries for new MUL VL operands. * aarch64-opc.c (aarch64_operand_modifiers): Initialize the AARCH64_MOD_MUL_VL entry. (value_aligned_p): Cope with non-power-of-two alignments. (operand_general_constraint_met_p): Handle the new MUL VL addresses. (print_immediate_offset_address): Likewise. (aarch64_print_operand): Likewise. * aarch64-opc-2.c: Regenerate. * aarch64-asm.h (ins_sve_addr_ri_s4xvl, ins_sve_addr_ri_s6xvl) (ins_sve_addr_ri_s9xvl): New inserters. * aarch64-asm.c (aarch64_ins_sve_addr_ri_s4xvl): New function. (aarch64_ins_sve_addr_ri_s6xvl): Likewise. (aarch64_ins_sve_addr_ri_s9xvl): Likewise. * aarch64-asm-2.c: Regenerate. * aarch64-dis.h (ext_sve_addr_ri_s4xvl, ext_sve_addr_ri_s6xvl) (ext_sve_addr_ri_s9xvl): New extractors. * aarch64-dis.c (aarch64_ext_sve_addr_reg_mul_vl): New function. (aarch64_ext_sve_addr_ri_s4xvl): Likewise. (aarch64_ext_sve_addr_ri_s6xvl): Likewise. (aarch64_ext_sve_addr_ri_s9xvl): Likewise. * aarch64-dis-2.c: Regenerate. gas/ * config/tc-aarch64.c (SHIFTED_NONE, SHIFTED_MUL_VL): New parse_shift_modes. (parse_shift): Handle SHIFTED_MUL_VL. (parse_address_main): Add an imm_shift_mode parameter. (parse_address, parse_sve_address): Update accordingly. (parse_operands): Handle MUL VL addressing modes.
2016-09-21 17:56:15 +02:00
Y(ADDRESS, sve_addr_ri_s4xvl, "SVE_ADDR_RI_S4xVL", \
0 << OPD_F_OD_LSB, F(FLD_Rn), \
"an address with a 4-bit signed offset, multiplied by VL") \
Y(ADDRESS, sve_addr_ri_s4xvl, "SVE_ADDR_RI_S4x2xVL", \
1 << OPD_F_OD_LSB, F(FLD_Rn), \
"an address with a 4-bit signed offset, multiplied by 2*VL") \
Y(ADDRESS, sve_addr_ri_s4xvl, "SVE_ADDR_RI_S4x3xVL", \
2 << OPD_F_OD_LSB, F(FLD_Rn), \
"an address with a 4-bit signed offset, multiplied by 3*VL") \
Y(ADDRESS, sve_addr_ri_s4xvl, "SVE_ADDR_RI_S4x4xVL", \
3 << OPD_F_OD_LSB, F(FLD_Rn), \
"an address with a 4-bit signed offset, multiplied by 4*VL") \
Y(ADDRESS, sve_addr_ri_s6xvl, "SVE_ADDR_RI_S6xVL", \
0 << OPD_F_OD_LSB, F(FLD_Rn), \
"an address with a 6-bit signed offset, multiplied by VL") \
Y(ADDRESS, sve_addr_ri_s9xvl, "SVE_ADDR_RI_S9xVL", \
0 << OPD_F_OD_LSB, F(FLD_Rn), \
"an address with a 9-bit signed offset, multiplied by VL") \
[AArch64][SVE 25/32] Add support for SVE addressing modes This patch adds most of the new SVE addressing modes and associated operands. A follow-on patch adds MUL VL, since handling it separately makes the changes easier to read. The patch also introduces a new "operand-dependent data" field to the operand flags, based closely on the existing one for opcode flags. For SVE this new field needs only 2 bits, but it could be widened in future if necessary. include/ * opcode/aarch64.h (AARCH64_OPND_SVE_ADDR_RI_U6): New aarch64_opnd. (AARCH64_OPND_SVE_ADDR_RI_U6x2, AARCH64_OPND_SVE_ADDR_RI_U6x4) (AARCH64_OPND_SVE_ADDR_RI_U6x8, AARCH64_OPND_SVE_ADDR_RR) (AARCH64_OPND_SVE_ADDR_RR_LSL1, AARCH64_OPND_SVE_ADDR_RR_LSL2) (AARCH64_OPND_SVE_ADDR_RR_LSL3, AARCH64_OPND_SVE_ADDR_RX) (AARCH64_OPND_SVE_ADDR_RX_LSL1, AARCH64_OPND_SVE_ADDR_RX_LSL2) (AARCH64_OPND_SVE_ADDR_RX_LSL3, AARCH64_OPND_SVE_ADDR_RZ) (AARCH64_OPND_SVE_ADDR_RZ_LSL1, AARCH64_OPND_SVE_ADDR_RZ_LSL2) (AARCH64_OPND_SVE_ADDR_RZ_LSL3, AARCH64_OPND_SVE_ADDR_RZ_XTW_14) (AARCH64_OPND_SVE_ADDR_RZ_XTW_22, AARCH64_OPND_SVE_ADDR_RZ_XTW1_14) (AARCH64_OPND_SVE_ADDR_RZ_XTW1_22, AARCH64_OPND_SVE_ADDR_RZ_XTW2_14) (AARCH64_OPND_SVE_ADDR_RZ_XTW2_22, AARCH64_OPND_SVE_ADDR_RZ_XTW3_14) (AARCH64_OPND_SVE_ADDR_RZ_XTW3_22, AARCH64_OPND_SVE_ADDR_ZI_U5) (AARCH64_OPND_SVE_ADDR_ZI_U5x2, AARCH64_OPND_SVE_ADDR_ZI_U5x4) (AARCH64_OPND_SVE_ADDR_ZI_U5x8, AARCH64_OPND_SVE_ADDR_ZZ_LSL) (AARCH64_OPND_SVE_ADDR_ZZ_SXTW, AARCH64_OPND_SVE_ADDR_ZZ_UXTW): Likewise. opcodes/ * aarch64-tbl.h (AARCH64_OPERANDS): Add entries for the new SVE address operands. * aarch64-opc.h (FLD_SVE_imm6, FLD_SVE_msz, FLD_SVE_xs_14) (FLD_SVE_xs_22): New aarch64_field_kinds. (OPD_F_OD_MASK, OPD_F_OD_LSB, OPD_F_NO_ZR): New flags. (get_operand_specific_data): New function. * aarch64-opc.c (fields): Add entries for FLD_SVE_imm6, FLD_SVE_msz, FLD_SVE_xs_14 and FLD_SVE_xs_22. (operand_general_constraint_met_p): Handle the new SVE address operands. (sve_reg): New array. (get_addr_sve_reg_name): New function. (aarch64_print_operand): Handle the new SVE address operands. * aarch64-opc-2.c: Regenerate. * aarch64-asm.h (ins_sve_addr_ri_u6, ins_sve_addr_rr_lsl) (ins_sve_addr_rz_xtw, ins_sve_addr_zi_u5, ins_sve_addr_zz_lsl) (ins_sve_addr_zz_sxtw, ins_sve_addr_zz_uxtw): New inserters. * aarch64-asm.c (aarch64_ins_sve_addr_ri_u6): New function. (aarch64_ins_sve_addr_rr_lsl): Likewise. (aarch64_ins_sve_addr_rz_xtw): Likewise. (aarch64_ins_sve_addr_zi_u5): Likewise. (aarch64_ins_sve_addr_zz): Likewise. (aarch64_ins_sve_addr_zz_lsl): Likewise. (aarch64_ins_sve_addr_zz_sxtw): Likewise. (aarch64_ins_sve_addr_zz_uxtw): Likewise. * aarch64-asm-2.c: Regenerate. * aarch64-dis.h (ext_sve_addr_ri_u6, ext_sve_addr_rr_lsl) (ext_sve_addr_rz_xtw, ext_sve_addr_zi_u5, ext_sve_addr_zz_lsl) (ext_sve_addr_zz_sxtw, ext_sve_addr_zz_uxtw): New extractors. * aarch64-dis.c (aarch64_ext_sve_add_reg_imm): New function. (aarch64_ext_sve_addr_ri_u6): Likewise. (aarch64_ext_sve_addr_rr_lsl): Likewise. (aarch64_ext_sve_addr_rz_xtw): Likewise. (aarch64_ext_sve_addr_zi_u5): Likewise. (aarch64_ext_sve_addr_zz): Likewise. (aarch64_ext_sve_addr_zz_lsl): Likewise. (aarch64_ext_sve_addr_zz_sxtw): Likewise. (aarch64_ext_sve_addr_zz_uxtw): Likewise. * aarch64-dis-2.c: Regenerate. gas/ * config/tc-aarch64.c (REG_TYPE_SVE_BASE, REG_TYPE_SVE_OFFSET): New register types. (get_reg_expected_msg): Handle them. (aarch64_addr_reg_parse): New function, split out from aarch64_reg_parse_32_64. Handle Z registers too. (aarch64_reg_parse_32_64): Call it. (parse_address_main): Add base_qualifier, offset_qualifier, base_type and offset_type parameters. Handle SVE base and offset registers. (parse_address): Update call to parse_address_main. (parse_sve_address): New function. (parse_operands): Parse the new SVE address operands.
2016-09-21 17:55:49 +02:00
Y(ADDRESS, sve_addr_ri_u6, "SVE_ADDR_RI_U6", 0 << OPD_F_OD_LSB, \
F(FLD_Rn), "an address with a 6-bit unsigned offset") \
Y(ADDRESS, sve_addr_ri_u6, "SVE_ADDR_RI_U6x2", 1 << OPD_F_OD_LSB, \
F(FLD_Rn), \
"an address with a 6-bit unsigned offset, multiplied by 2") \
Y(ADDRESS, sve_addr_ri_u6, "SVE_ADDR_RI_U6x4", 2 << OPD_F_OD_LSB, \
F(FLD_Rn), \
"an address with a 6-bit unsigned offset, multiplied by 4") \
Y(ADDRESS, sve_addr_ri_u6, "SVE_ADDR_RI_U6x8", 3 << OPD_F_OD_LSB, \
F(FLD_Rn), \
"an address with a 6-bit unsigned offset, multiplied by 8") \
Y(ADDRESS, sve_addr_rr_lsl, "SVE_ADDR_RR", 0 << OPD_F_OD_LSB, \
F(FLD_Rn,FLD_Rm), "an address with a scalar register offset") \
Y(ADDRESS, sve_addr_rr_lsl, "SVE_ADDR_RR_LSL1", 1 << OPD_F_OD_LSB, \
F(FLD_Rn,FLD_Rm), "an address with a scalar register offset") \
Y(ADDRESS, sve_addr_rr_lsl, "SVE_ADDR_RR_LSL2", 2 << OPD_F_OD_LSB, \
F(FLD_Rn,FLD_Rm), "an address with a scalar register offset") \
Y(ADDRESS, sve_addr_rr_lsl, "SVE_ADDR_RR_LSL3", 3 << OPD_F_OD_LSB, \
F(FLD_Rn,FLD_Rm), "an address with a scalar register offset") \
Y(ADDRESS, sve_addr_rr_lsl, "SVE_ADDR_RX", \
(0 << OPD_F_OD_LSB) | OPD_F_NO_ZR, F(FLD_Rn,FLD_Rm), \
"an address with a scalar register offset") \
Y(ADDRESS, sve_addr_rr_lsl, "SVE_ADDR_RX_LSL1", \
(1 << OPD_F_OD_LSB) | OPD_F_NO_ZR, F(FLD_Rn,FLD_Rm), \
"an address with a scalar register offset") \
Y(ADDRESS, sve_addr_rr_lsl, "SVE_ADDR_RX_LSL2", \
(2 << OPD_F_OD_LSB) | OPD_F_NO_ZR, F(FLD_Rn,FLD_Rm), \
"an address with a scalar register offset") \
Y(ADDRESS, sve_addr_rr_lsl, "SVE_ADDR_RX_LSL3", \
(3 << OPD_F_OD_LSB) | OPD_F_NO_ZR, F(FLD_Rn,FLD_Rm), \
"an address with a scalar register offset") \
Y(ADDRESS, sve_addr_rr_lsl, "SVE_ADDR_RZ", 0 << OPD_F_OD_LSB, \
F(FLD_Rn,FLD_SVE_Zm_16), \
"an address with a vector register offset") \
Y(ADDRESS, sve_addr_rr_lsl, "SVE_ADDR_RZ_LSL1", 1 << OPD_F_OD_LSB, \
F(FLD_Rn,FLD_SVE_Zm_16), \
"an address with a vector register offset") \
Y(ADDRESS, sve_addr_rr_lsl, "SVE_ADDR_RZ_LSL2", 2 << OPD_F_OD_LSB, \
F(FLD_Rn,FLD_SVE_Zm_16), \
"an address with a vector register offset") \
Y(ADDRESS, sve_addr_rr_lsl, "SVE_ADDR_RZ_LSL3", 3 << OPD_F_OD_LSB, \
F(FLD_Rn,FLD_SVE_Zm_16), \
"an address with a vector register offset") \
Y(ADDRESS, sve_addr_rz_xtw, "SVE_ADDR_RZ_XTW_14", \
0 << OPD_F_OD_LSB, F(FLD_Rn,FLD_SVE_Zm_16,FLD_SVE_xs_14), \
"an address with a vector register offset") \
Y(ADDRESS, sve_addr_rz_xtw, "SVE_ADDR_RZ_XTW_22", \
0 << OPD_F_OD_LSB, F(FLD_Rn,FLD_SVE_Zm_16,FLD_SVE_xs_22), \
"an address with a vector register offset") \
Y(ADDRESS, sve_addr_rz_xtw, "SVE_ADDR_RZ_XTW1_14", \
1 << OPD_F_OD_LSB, F(FLD_Rn,FLD_SVE_Zm_16,FLD_SVE_xs_14), \
"an address with a vector register offset") \
Y(ADDRESS, sve_addr_rz_xtw, "SVE_ADDR_RZ_XTW1_22", \
1 << OPD_F_OD_LSB, F(FLD_Rn,FLD_SVE_Zm_16,FLD_SVE_xs_22), \
"an address with a vector register offset") \
Y(ADDRESS, sve_addr_rz_xtw, "SVE_ADDR_RZ_XTW2_14", \
2 << OPD_F_OD_LSB, F(FLD_Rn,FLD_SVE_Zm_16,FLD_SVE_xs_14), \
"an address with a vector register offset") \
Y(ADDRESS, sve_addr_rz_xtw, "SVE_ADDR_RZ_XTW2_22", \
2 << OPD_F_OD_LSB, F(FLD_Rn,FLD_SVE_Zm_16,FLD_SVE_xs_22), \
"an address with a vector register offset") \
Y(ADDRESS, sve_addr_rz_xtw, "SVE_ADDR_RZ_XTW3_14", \
3 << OPD_F_OD_LSB, F(FLD_Rn,FLD_SVE_Zm_16,FLD_SVE_xs_14), \
"an address with a vector register offset") \
Y(ADDRESS, sve_addr_rz_xtw, "SVE_ADDR_RZ_XTW3_22", \
3 << OPD_F_OD_LSB, F(FLD_Rn,FLD_SVE_Zm_16,FLD_SVE_xs_22), \
"an address with a vector register offset") \
Y(ADDRESS, sve_addr_zi_u5, "SVE_ADDR_ZI_U5", 0 << OPD_F_OD_LSB, \
F(FLD_SVE_Zn), "an address with a 5-bit unsigned offset") \
Y(ADDRESS, sve_addr_zi_u5, "SVE_ADDR_ZI_U5x2", 1 << OPD_F_OD_LSB, \
F(FLD_SVE_Zn), \
"an address with a 5-bit unsigned offset, multiplied by 2") \
Y(ADDRESS, sve_addr_zi_u5, "SVE_ADDR_ZI_U5x4", 2 << OPD_F_OD_LSB, \
F(FLD_SVE_Zn), \
"an address with a 5-bit unsigned offset, multiplied by 4") \
Y(ADDRESS, sve_addr_zi_u5, "SVE_ADDR_ZI_U5x8", 3 << OPD_F_OD_LSB, \
F(FLD_SVE_Zn), \
"an address with a 5-bit unsigned offset, multiplied by 8") \
Y(ADDRESS, sve_addr_zz_lsl, "SVE_ADDR_ZZ_LSL", 0, \
F(FLD_SVE_Zn,FLD_SVE_Zm_16), \
"an address with a vector register offset") \
Y(ADDRESS, sve_addr_zz_sxtw, "SVE_ADDR_ZZ_SXTW", 0, \
F(FLD_SVE_Zn,FLD_SVE_Zm_16), \
"an address with a vector register offset") \
Y(ADDRESS, sve_addr_zz_uxtw, "SVE_ADDR_ZZ_UXTW", 0, \
F(FLD_SVE_Zn,FLD_SVE_Zm_16), \
"an address with a vector register offset") \
[AArch64][SVE 27/32] Add SVE integer immediate operands This patch adds the new SVE integer immediate operands. There are three kinds: - simple signed and unsigned ranges, but with new widths and positions. - 13-bit logical immediates. These have the same form as in base AArch64, but at a different bit position. In the case of the "MOV Zn.<T>, #<limm>" alias of DUPM, the logical immediate <limm> is not allowed to be a valid DUP immediate, since DUP is preferred over DUPM for constants that both instructions can handle. - a new 9-bit arithmetic immediate, of the form "<imm8>{, LSL #8}". In some contexts the operand is signed and in others it's unsigned. As an extension, we allow shifted immediates to be written as a single integer, e.g. "#256" is equivalent to "#1, LSL #8". We also use the shiftless form as the preferred disassembly, except for the special case of "#0, LSL #8" (a redundant encoding of 0). include/ * opcode/aarch64.h (AARCH64_OPND_SIMM5): New aarch64_opnd. (AARCH64_OPND_SVE_AIMM, AARCH64_OPND_SVE_ASIMM) (AARCH64_OPND_SVE_INV_LIMM, AARCH64_OPND_SVE_LIMM) (AARCH64_OPND_SVE_LIMM_MOV, AARCH64_OPND_SVE_SHLIMM_PRED) (AARCH64_OPND_SVE_SHLIMM_UNPRED, AARCH64_OPND_SVE_SHRIMM_PRED) (AARCH64_OPND_SVE_SHRIMM_UNPRED, AARCH64_OPND_SVE_SIMM5) (AARCH64_OPND_SVE_SIMM5B, AARCH64_OPND_SVE_SIMM6) (AARCH64_OPND_SVE_SIMM8, AARCH64_OPND_SVE_UIMM3) (AARCH64_OPND_SVE_UIMM7, AARCH64_OPND_SVE_UIMM8) (AARCH64_OPND_SVE_UIMM8_53): Likewise. (aarch64_sve_dupm_mov_immediate_p): Declare. opcodes/ * aarch64-tbl.h (AARCH64_OPERANDS): Add entries for the new SVE integer immediate operands. * aarch64-opc.h (FLD_SVE_immN, FLD_SVE_imm3, FLD_SVE_imm5) (FLD_SVE_imm5b, FLD_SVE_imm7, FLD_SVE_imm8, FLD_SVE_imm9) (FLD_SVE_immr, FLD_SVE_imms, FLD_SVE_tszh): New aarch64_field_kinds. * aarch64-opc.c (fields): Add corresponding entries. (operand_general_constraint_met_p): Handle the new SVE integer immediate operands. (aarch64_print_operand): Likewise. (aarch64_sve_dupm_mov_immediate_p): New function. * aarch64-opc-2.c: Regenerate. * aarch64-asm.h (ins_inv_limm, ins_sve_aimm, ins_sve_asimm) (ins_sve_limm_mov, ins_sve_shlimm, ins_sve_shrimm): New inserters. * aarch64-asm.c (aarch64_ins_limm_1): New function, split out from... (aarch64_ins_limm): ...here. (aarch64_ins_inv_limm): New function. (aarch64_ins_sve_aimm): Likewise. (aarch64_ins_sve_asimm): Likewise. (aarch64_ins_sve_limm_mov): Likewise. (aarch64_ins_sve_shlimm): Likewise. (aarch64_ins_sve_shrimm): Likewise. * aarch64-asm-2.c: Regenerate. * aarch64-dis.h (ext_inv_limm, ext_sve_aimm, ext_sve_asimm) (ext_sve_limm_mov, ext_sve_shlimm, ext_sve_shrimm): New extractors. * aarch64-dis.c (decode_limm): New function, split out from... (aarch64_ext_limm): ...here. (aarch64_ext_inv_limm): New function. (decode_sve_aimm): Likewise. (aarch64_ext_sve_aimm): Likewise. (aarch64_ext_sve_asimm): Likewise. (aarch64_ext_sve_limm_mov): Likewise. (aarch64_top_bit): Likewise. (aarch64_ext_sve_shlimm): Likewise. (aarch64_ext_sve_shrimm): Likewise. * aarch64-dis-2.c: Regenerate. gas/ * config/tc-aarch64.c (parse_operands): Handle the new SVE integer immediate operands.
2016-09-21 17:56:57 +02:00
Y(IMMEDIATE, sve_aimm, "SVE_AIMM", 0, F(FLD_SVE_imm9), \
"a 9-bit unsigned arithmetic operand") \
Y(IMMEDIATE, sve_asimm, "SVE_ASIMM", 0, F(FLD_SVE_imm9), \
"a 9-bit signed arithmetic operand") \
[AArch64][SVE 28/32] Add SVE FP immediate operands This patch adds support for the new SVE floating-point immediate operands. One operand uses the same 8-bit encoding as base AArch64, but in a different position. The others use a single bit to select between two values. One of the single-bit operands is a choice between 0 and 1, where 0 is not a valid 8-bit encoding. I think the cleanest way of handling these single-bit immediates is therefore to use the IEEE float encoding itself as the immediate value and select between the two possible values when encoding and decoding. As described in the covering note for the patch that added F_STRICT, we get better error messages by accepting unsuffixed vector registers and leaving the qualifier matching code to report an error. This means that we carry on parsing the other operands, and so can try to parse FP immediates for invalid instructions like: fcpy z0, #2.5 In this case there is no suffix to tell us whether the immediate should be treated as single or double precision. Again, we get better error messages by picking one (arbitrary) immediate size and reporting an error for the missing suffix later. include/ * opcode/aarch64.h (AARCH64_OPND_SVE_FPIMM8): New aarch64_opnd. (AARCH64_OPND_SVE_I1_HALF_ONE, AARCH64_OPND_SVE_I1_HALF_TWO) (AARCH64_OPND_SVE_I1_ZERO_ONE): Likewise. opcodes/ * aarch64-tbl.h (AARCH64_OPERANDS): Add entries for the new SVE FP immediate operands. * aarch64-opc.h (FLD_SVE_i1): New aarch64_field_kind. * aarch64-opc.c (fields): Add corresponding entry. (operand_general_constraint_met_p): Handle the new SVE FP immediate operands. (aarch64_print_operand): Likewise. * aarch64-opc-2.c: Regenerate. * aarch64-asm.h (ins_sve_float_half_one, ins_sve_float_half_two) (ins_sve_float_zero_one): New inserters. * aarch64-asm.c (aarch64_ins_sve_float_half_one): New function. (aarch64_ins_sve_float_half_two): Likewise. (aarch64_ins_sve_float_zero_one): Likewise. * aarch64-asm-2.c: Regenerate. * aarch64-dis.h (ext_sve_float_half_one, ext_sve_float_half_two) (ext_sve_float_zero_one): New extractors. * aarch64-dis.c (aarch64_ext_sve_float_half_one): New function. (aarch64_ext_sve_float_half_two): Likewise. (aarch64_ext_sve_float_zero_one): Likewise. * aarch64-dis-2.c: Regenerate. gas/ * config/tc-aarch64.c (double_precision_operand_p): New function. (parse_operands): Use it to calculate the dp_p input to parse_aarch64_imm_float. Handle the new SVE FP immediate operands.
2016-09-21 17:57:22 +02:00
Y(IMMEDIATE, fpimm, "SVE_FPIMM8", 0, F(FLD_SVE_imm8), \
"an 8-bit floating-point immediate") \
Y(IMMEDIATE, sve_float_half_one, "SVE_I1_HALF_ONE", 0, \
F(FLD_SVE_i1), "either 0.5 or 1.0") \
Y(IMMEDIATE, sve_float_half_two, "SVE_I1_HALF_TWO", 0, \
F(FLD_SVE_i1), "either 0.5 or 2.0") \
Y(IMMEDIATE, sve_float_zero_one, "SVE_I1_ZERO_ONE", 0, \
F(FLD_SVE_i1), "either 0.0 or 1.0") \
[AArch64][SVE 27/32] Add SVE integer immediate operands This patch adds the new SVE integer immediate operands. There are three kinds: - simple signed and unsigned ranges, but with new widths and positions. - 13-bit logical immediates. These have the same form as in base AArch64, but at a different bit position. In the case of the "MOV Zn.<T>, #<limm>" alias of DUPM, the logical immediate <limm> is not allowed to be a valid DUP immediate, since DUP is preferred over DUPM for constants that both instructions can handle. - a new 9-bit arithmetic immediate, of the form "<imm8>{, LSL #8}". In some contexts the operand is signed and in others it's unsigned. As an extension, we allow shifted immediates to be written as a single integer, e.g. "#256" is equivalent to "#1, LSL #8". We also use the shiftless form as the preferred disassembly, except for the special case of "#0, LSL #8" (a redundant encoding of 0). include/ * opcode/aarch64.h (AARCH64_OPND_SIMM5): New aarch64_opnd. (AARCH64_OPND_SVE_AIMM, AARCH64_OPND_SVE_ASIMM) (AARCH64_OPND_SVE_INV_LIMM, AARCH64_OPND_SVE_LIMM) (AARCH64_OPND_SVE_LIMM_MOV, AARCH64_OPND_SVE_SHLIMM_PRED) (AARCH64_OPND_SVE_SHLIMM_UNPRED, AARCH64_OPND_SVE_SHRIMM_PRED) (AARCH64_OPND_SVE_SHRIMM_UNPRED, AARCH64_OPND_SVE_SIMM5) (AARCH64_OPND_SVE_SIMM5B, AARCH64_OPND_SVE_SIMM6) (AARCH64_OPND_SVE_SIMM8, AARCH64_OPND_SVE_UIMM3) (AARCH64_OPND_SVE_UIMM7, AARCH64_OPND_SVE_UIMM8) (AARCH64_OPND_SVE_UIMM8_53): Likewise. (aarch64_sve_dupm_mov_immediate_p): Declare. opcodes/ * aarch64-tbl.h (AARCH64_OPERANDS): Add entries for the new SVE integer immediate operands. * aarch64-opc.h (FLD_SVE_immN, FLD_SVE_imm3, FLD_SVE_imm5) (FLD_SVE_imm5b, FLD_SVE_imm7, FLD_SVE_imm8, FLD_SVE_imm9) (FLD_SVE_immr, FLD_SVE_imms, FLD_SVE_tszh): New aarch64_field_kinds. * aarch64-opc.c (fields): Add corresponding entries. (operand_general_constraint_met_p): Handle the new SVE integer immediate operands. (aarch64_print_operand): Likewise. (aarch64_sve_dupm_mov_immediate_p): New function. * aarch64-opc-2.c: Regenerate. * aarch64-asm.h (ins_inv_limm, ins_sve_aimm, ins_sve_asimm) (ins_sve_limm_mov, ins_sve_shlimm, ins_sve_shrimm): New inserters. * aarch64-asm.c (aarch64_ins_limm_1): New function, split out from... (aarch64_ins_limm): ...here. (aarch64_ins_inv_limm): New function. (aarch64_ins_sve_aimm): Likewise. (aarch64_ins_sve_asimm): Likewise. (aarch64_ins_sve_limm_mov): Likewise. (aarch64_ins_sve_shlimm): Likewise. (aarch64_ins_sve_shrimm): Likewise. * aarch64-asm-2.c: Regenerate. * aarch64-dis.h (ext_inv_limm, ext_sve_aimm, ext_sve_asimm) (ext_sve_limm_mov, ext_sve_shlimm, ext_sve_shrimm): New extractors. * aarch64-dis.c (decode_limm): New function, split out from... (aarch64_ext_limm): ...here. (aarch64_ext_inv_limm): New function. (decode_sve_aimm): Likewise. (aarch64_ext_sve_aimm): Likewise. (aarch64_ext_sve_asimm): Likewise. (aarch64_ext_sve_limm_mov): Likewise. (aarch64_top_bit): Likewise. (aarch64_ext_sve_shlimm): Likewise. (aarch64_ext_sve_shrimm): Likewise. * aarch64-dis-2.c: Regenerate. gas/ * config/tc-aarch64.c (parse_operands): Handle the new SVE integer immediate operands.
2016-09-21 17:56:57 +02:00
Y(IMMEDIATE, inv_limm, "SVE_INV_LIMM", 0, \
F(FLD_SVE_N,FLD_SVE_immr,FLD_SVE_imms), \
"an inverted 13-bit logical immediate") \
Y(IMMEDIATE, limm, "SVE_LIMM", 0, \
F(FLD_SVE_N,FLD_SVE_immr,FLD_SVE_imms), \
"a 13-bit logical immediate") \
Y(IMMEDIATE, sve_limm_mov, "SVE_LIMM_MOV", 0, \
F(FLD_SVE_N,FLD_SVE_immr,FLD_SVE_imms), \
"a 13-bit logical move immediate") \
[AArch64][SVE 23/32] Add SVE pattern and prfop operands The SVE instructions have two enumerated operands: one to select a vector pattern and another to select a prefetch operation. The latter is a cut-down version of the base AArch64 prefetch operation. Both types of operand can also be specified as raw enum values such as #31. Reserved values can only be specified this way. If it hadn't been for the pattern operand, I would have been tempted to use the existing parsing for prefetch operations and add extra checks for SVE. However, since the patterns needed new enum parsing code anyway, it seeemed cleaner to reuse it for the prefetches too. Because of the small number of enum values, I don't think we'd gain anything by using hash tables. include/ * opcode/aarch64.h (AARCH64_OPND_SVE_PATTERN): New aarch64_opnd. (AARCH64_OPND_SVE_PRFOP): Likewise. (aarch64_sve_pattern_array): Declare. (aarch64_sve_prfop_array): Likewise. opcodes/ * aarch64-tbl.h (AARCH64_OPERANDS): Add entries for AARCH64_OPND_SVE_PATTERN and AARCH64_OPND_SVE_PRFOP. * aarch64-opc.h (FLD_SVE_pattern): New aarch64_field_kind. (FLD_SVE_prfop): Likewise. * aarch64-opc.c: Include libiberty.h. (aarch64_sve_pattern_array): New variable. (aarch64_sve_prfop_array): Likewise. (fields): Add entries for FLD_SVE_pattern and FLD_SVE_prfop. (aarch64_print_operand): Handle AARCH64_OPND_SVE_PATTERN and AARCH64_OPND_SVE_PRFOP. * aarch64-asm-2.c: Regenerate. * aarch64-dis-2.c: Likewise. * aarch64-opc-2.c: Likewise. gas/ * config/tc-aarch64.c (parse_enum_string): New function. (po_enum_or_fail): New macro. (parse_operands): Handle AARCH64_OPND_SVE_PATTERN and AARCH64_OPND_SVE_PRFOP.
2016-09-21 17:54:53 +02:00
Y(IMMEDIATE, imm, "SVE_PATTERN", 0, F(FLD_SVE_pattern), \
"an enumeration value such as POW2") \
[AArch64][SVE 24/32] Add AARCH64_OPND_SVE_PATTERN_SCALED Some SVE instructions count the number of elements in a given vector pattern and allow a scale factor of [1, 16] to be applied to the result. This scale factor is written ", MUL #n", where "MUL" is a new operator. E.g.: UQINCD X0, POW2, MUL #2 This patch adds support for this kind of operand. All existing operators were shifts of some kind, so there was a natural range of [0, 63] regardless of context. This was then narrowered further by later checks (e.g. to [0, 31] when used for 32-bit values). In contrast, MUL doesn't really have a natural context-independent range. Rather than pick one arbitrarily, it seemed better to make the "shift" amount a full 64-bit value and leave the range test to the usual operand-checking code. I've rearranged the fields of aarch64_opnd_info so that this doesn't increase the size of the structure (although I don't think its size is critical anyway). include/ * opcode/aarch64.h (AARCH64_OPND_SVE_PATTERN_SCALED): New aarch64_opnd. (AARCH64_MOD_MUL): New aarch64_modifier_kind. (aarch64_opnd_info): Make shifter.amount an int64_t and rearrange the fields. opcodes/ * aarch64-tbl.h (AARCH64_OPERANDS): Add an entry for AARCH64_OPND_SVE_PATTERN_SCALED. * aarch64-opc.h (FLD_SVE_imm4): New aarch64_field_kind. * aarch64-opc.c (fields): Add a corresponding entry. (set_multiplier_out_of_range_error): New function. (aarch64_operand_modifiers): Add entry for AARCH64_MOD_MUL. (operand_general_constraint_met_p): Handle AARCH64_OPND_SVE_PATTERN_SCALED. (print_register_offset_address): Use PRIi64 to print the shift amount. (aarch64_print_operand): Likewise. Handle AARCH64_OPND_SVE_PATTERN_SCALED. * aarch64-opc-2.c: Regenerate. * aarch64-asm.h (ins_sve_scale): New inserter. * aarch64-asm.c (aarch64_ins_sve_scale): New function. * aarch64-asm-2.c: Regenerate. * aarch64-dis.h (ext_sve_scale): New inserter. * aarch64-dis.c (aarch64_ext_sve_scale): New function. * aarch64-dis-2.c: Regenerate. gas/ * config/tc-aarch64.c (SHIFTED_MUL): New parse_shift_mode. (parse_shift): Handle it. Reject AARCH64_MOD_MUL for all other shift modes. Skip range tests for AARCH64_MOD_MUL. (process_omitted_operand): Handle AARCH64_OPND_SVE_PATTERN_SCALED. (parse_operands): Likewise.
2016-09-21 17:55:22 +02:00
Y(IMMEDIATE, sve_scale, "SVE_PATTERN_SCALED", 0, \
F(FLD_SVE_pattern), "an enumeration value such as POW2") \
[AArch64][SVE 23/32] Add SVE pattern and prfop operands The SVE instructions have two enumerated operands: one to select a vector pattern and another to select a prefetch operation. The latter is a cut-down version of the base AArch64 prefetch operation. Both types of operand can also be specified as raw enum values such as #31. Reserved values can only be specified this way. If it hadn't been for the pattern operand, I would have been tempted to use the existing parsing for prefetch operations and add extra checks for SVE. However, since the patterns needed new enum parsing code anyway, it seeemed cleaner to reuse it for the prefetches too. Because of the small number of enum values, I don't think we'd gain anything by using hash tables. include/ * opcode/aarch64.h (AARCH64_OPND_SVE_PATTERN): New aarch64_opnd. (AARCH64_OPND_SVE_PRFOP): Likewise. (aarch64_sve_pattern_array): Declare. (aarch64_sve_prfop_array): Likewise. opcodes/ * aarch64-tbl.h (AARCH64_OPERANDS): Add entries for AARCH64_OPND_SVE_PATTERN and AARCH64_OPND_SVE_PRFOP. * aarch64-opc.h (FLD_SVE_pattern): New aarch64_field_kind. (FLD_SVE_prfop): Likewise. * aarch64-opc.c: Include libiberty.h. (aarch64_sve_pattern_array): New variable. (aarch64_sve_prfop_array): Likewise. (fields): Add entries for FLD_SVE_pattern and FLD_SVE_prfop. (aarch64_print_operand): Handle AARCH64_OPND_SVE_PATTERN and AARCH64_OPND_SVE_PRFOP. * aarch64-asm-2.c: Regenerate. * aarch64-dis-2.c: Likewise. * aarch64-opc-2.c: Likewise. gas/ * config/tc-aarch64.c (parse_enum_string): New function. (po_enum_or_fail): New macro. (parse_operands): Handle AARCH64_OPND_SVE_PATTERN and AARCH64_OPND_SVE_PRFOP.
2016-09-21 17:54:53 +02:00
Y(IMMEDIATE, imm, "SVE_PRFOP", 0, F(FLD_SVE_prfop), \
"an enumeration value such as PLDL1KEEP") \
[AArch64][SVE 21/32] Add Zn and Pn registers This patch adds the Zn and Pn registers, and associated fields and operands. include/ * opcode/aarch64.h (AARCH64_OPND_CLASS_SVE_REG): New aarch64_operand_class. (AARCH64_OPND_CLASS_PRED_REG): Likewise. (AARCH64_OPND_SVE_Pd, AARCH64_OPND_SVE_Pg3, AARCH64_OPND_SVE_Pg4_5) (AARCH64_OPND_SVE_Pg4_10, AARCH64_OPND_SVE_Pg4_16) (AARCH64_OPND_SVE_Pm, AARCH64_OPND_SVE_Pn, AARCH64_OPND_SVE_Pt) (AARCH64_OPND_SVE_Za_5, AARCH64_OPND_SVE_Za_16, AARCH64_OPND_SVE_Zd) (AARCH64_OPND_SVE_Zm_5, AARCH64_OPND_SVE_Zm_16, AARCH64_OPND_SVE_Zn) (AARCH64_OPND_SVE_Zn_INDEX, AARCH64_OPND_SVE_ZnxN) (AARCH64_OPND_SVE_Zt, AARCH64_OPND_SVE_ZtxN): New aarch64_opnds. opcodes/ * aarch64-tbl.h (AARCH64_OPERANDS): Add entries for new SVE operands. * aarch64-opc.h (FLD_SVE_Pd, FLD_SVE_Pg3, FLD_SVE_Pg4_5) (FLD_SVE_Pg4_10, FLD_SVE_Pg4_16, FLD_SVE_Pm, FLD_SVE_Pn, FLD_SVE_Pt) (FLD_SVE_Za_5, FLD_SVE_Za_16, FLD_SVE_Zd, FLD_SVE_Zm_5, FLD_SVE_Zm_16) (FLD_SVE_Zn, FLD_SVE_Zt, FLD_SVE_tzsh): New aarch64_field_kinds. * aarch64-opc.c (fields): Add corresponding entries here. (operand_general_constraint_met_p): Check that SVE register lists have the correct length. Check the ranges of SVE index registers. Check for cases where p8-p15 are used in 3-bit predicate fields. (aarch64_print_operand): Handle the new SVE operands. * aarch64-opc-2.c: Regenerate. * aarch64-asm.h (ins_sve_index, ins_sve_reglist): New inserters. * aarch64-asm.c (aarch64_ins_sve_index): New function. (aarch64_ins_sve_reglist): Likewise. * aarch64-asm-2.c: Regenerate. * aarch64-dis.h (ext_sve_index, ext_sve_reglist): New extractors. * aarch64-dis.c (aarch64_ext_sve_index): New function. (aarch64_ext_sve_reglist): Likewise. * aarch64-dis-2.c: Regenerate. gas/ * config/tc-aarch64.c (NTA_HASVARWIDTH): New macro. (AARCH64_REG_TYPES): Add ZN and PN. (get_reg_expected_msg): Handle them. (parse_vector_type_for_operand): Add a reg_type parameter. Skip the width for Zn and Pn registers. (parse_typed_reg): Extend vector handling to Zn and Pn. Update the call to parse_vector_type_for_operand. Set HASVARTYPE for Zn and Pn, expecting the width to be 0. (parse_vector_reg_list): Restrict error about [BHSD]nn operands to REG_TYPE_VN. (vectype_to_qualifier): Use S_[BHSD] qualifiers for NTA_HASVARWIDTH. (parse_operands): Handle the new Zn and Pn operands. (REGSET16): New macro, split out from... (REGSET31): ...here. (reg_names): Add Zn and Pn entries.
2016-09-21 17:53:54 +02:00
Y(PRED_REG, regno, "SVE_Pd", 0, F(FLD_SVE_Pd), \
"an SVE predicate register") \
Y(PRED_REG, regno, "SVE_Pg3", 0, F(FLD_SVE_Pg3), \
"an SVE predicate register") \
Y(PRED_REG, regno, "SVE_Pg4_5", 0, F(FLD_SVE_Pg4_5), \
"an SVE predicate register") \
Y(PRED_REG, regno, "SVE_Pg4_10", 0, F(FLD_SVE_Pg4_10), \
"an SVE predicate register") \
Y(PRED_REG, regno, "SVE_Pg4_16", 0, F(FLD_SVE_Pg4_16), \
"an SVE predicate register") \
Y(PRED_REG, regno, "SVE_Pm", 0, F(FLD_SVE_Pm), \
"an SVE predicate register") \
Y(PRED_REG, regno, "SVE_Pn", 0, F(FLD_SVE_Pn), \
"an SVE predicate register") \
Y(PRED_REG, regno, "SVE_Pt", 0, F(FLD_SVE_Pt), \
"an SVE predicate register") \
Y(INT_REG, regno, "SVE_Rm", 0, F(FLD_SVE_Rm), \
"an integer register or zero") \
Y(INT_REG, regno, "SVE_Rn_SP", OPD_F_MAYBE_SP, F(FLD_SVE_Rn), \
"an integer register or SP") \
[AArch64][SVE 27/32] Add SVE integer immediate operands This patch adds the new SVE integer immediate operands. There are three kinds: - simple signed and unsigned ranges, but with new widths and positions. - 13-bit logical immediates. These have the same form as in base AArch64, but at a different bit position. In the case of the "MOV Zn.<T>, #<limm>" alias of DUPM, the logical immediate <limm> is not allowed to be a valid DUP immediate, since DUP is preferred over DUPM for constants that both instructions can handle. - a new 9-bit arithmetic immediate, of the form "<imm8>{, LSL #8}". In some contexts the operand is signed and in others it's unsigned. As an extension, we allow shifted immediates to be written as a single integer, e.g. "#256" is equivalent to "#1, LSL #8". We also use the shiftless form as the preferred disassembly, except for the special case of "#0, LSL #8" (a redundant encoding of 0). include/ * opcode/aarch64.h (AARCH64_OPND_SIMM5): New aarch64_opnd. (AARCH64_OPND_SVE_AIMM, AARCH64_OPND_SVE_ASIMM) (AARCH64_OPND_SVE_INV_LIMM, AARCH64_OPND_SVE_LIMM) (AARCH64_OPND_SVE_LIMM_MOV, AARCH64_OPND_SVE_SHLIMM_PRED) (AARCH64_OPND_SVE_SHLIMM_UNPRED, AARCH64_OPND_SVE_SHRIMM_PRED) (AARCH64_OPND_SVE_SHRIMM_UNPRED, AARCH64_OPND_SVE_SIMM5) (AARCH64_OPND_SVE_SIMM5B, AARCH64_OPND_SVE_SIMM6) (AARCH64_OPND_SVE_SIMM8, AARCH64_OPND_SVE_UIMM3) (AARCH64_OPND_SVE_UIMM7, AARCH64_OPND_SVE_UIMM8) (AARCH64_OPND_SVE_UIMM8_53): Likewise. (aarch64_sve_dupm_mov_immediate_p): Declare. opcodes/ * aarch64-tbl.h (AARCH64_OPERANDS): Add entries for the new SVE integer immediate operands. * aarch64-opc.h (FLD_SVE_immN, FLD_SVE_imm3, FLD_SVE_imm5) (FLD_SVE_imm5b, FLD_SVE_imm7, FLD_SVE_imm8, FLD_SVE_imm9) (FLD_SVE_immr, FLD_SVE_imms, FLD_SVE_tszh): New aarch64_field_kinds. * aarch64-opc.c (fields): Add corresponding entries. (operand_general_constraint_met_p): Handle the new SVE integer immediate operands. (aarch64_print_operand): Likewise. (aarch64_sve_dupm_mov_immediate_p): New function. * aarch64-opc-2.c: Regenerate. * aarch64-asm.h (ins_inv_limm, ins_sve_aimm, ins_sve_asimm) (ins_sve_limm_mov, ins_sve_shlimm, ins_sve_shrimm): New inserters. * aarch64-asm.c (aarch64_ins_limm_1): New function, split out from... (aarch64_ins_limm): ...here. (aarch64_ins_inv_limm): New function. (aarch64_ins_sve_aimm): Likewise. (aarch64_ins_sve_asimm): Likewise. (aarch64_ins_sve_limm_mov): Likewise. (aarch64_ins_sve_shlimm): Likewise. (aarch64_ins_sve_shrimm): Likewise. * aarch64-asm-2.c: Regenerate. * aarch64-dis.h (ext_inv_limm, ext_sve_aimm, ext_sve_asimm) (ext_sve_limm_mov, ext_sve_shlimm, ext_sve_shrimm): New extractors. * aarch64-dis.c (decode_limm): New function, split out from... (aarch64_ext_limm): ...here. (aarch64_ext_inv_limm): New function. (decode_sve_aimm): Likewise. (aarch64_ext_sve_aimm): Likewise. (aarch64_ext_sve_asimm): Likewise. (aarch64_ext_sve_limm_mov): Likewise. (aarch64_top_bit): Likewise. (aarch64_ext_sve_shlimm): Likewise. (aarch64_ext_sve_shrimm): Likewise. * aarch64-dis-2.c: Regenerate. gas/ * config/tc-aarch64.c (parse_operands): Handle the new SVE integer immediate operands.
2016-09-21 17:56:57 +02:00
Y(IMMEDIATE, sve_shlimm, "SVE_SHLIMM_PRED", 0, \
F(FLD_SVE_tszh,FLD_SVE_imm5), "a shift-left immediate operand") \
Y(IMMEDIATE, sve_shlimm, "SVE_SHLIMM_UNPRED", 0, \
F(FLD_SVE_tszh,FLD_imm5), "a shift-left immediate operand") \
Y(IMMEDIATE, sve_shrimm, "SVE_SHRIMM_PRED", 0, \
F(FLD_SVE_tszh,FLD_SVE_imm5), "a shift-right immediate operand") \
Y(IMMEDIATE, sve_shrimm, "SVE_SHRIMM_UNPRED", 0, \
F(FLD_SVE_tszh,FLD_imm5), "a shift-right immediate operand") \
Y(IMMEDIATE, imm, "SVE_SIMM5", OPD_F_SEXT, F(FLD_SVE_imm5), \
"a 5-bit signed immediate") \
Y(IMMEDIATE, imm, "SVE_SIMM5B", OPD_F_SEXT, F(FLD_SVE_imm5b), \
"a 5-bit signed immediate") \
Y(IMMEDIATE, imm, "SVE_SIMM6", OPD_F_SEXT, F(FLD_SVE_imms), \
"a 6-bit signed immediate") \
Y(IMMEDIATE, imm, "SVE_SIMM8", OPD_F_SEXT, F(FLD_SVE_imm8), \
"an 8-bit signed immediate") \
Y(IMMEDIATE, imm, "SVE_UIMM3", 0, F(FLD_SVE_imm3), \
"a 3-bit unsigned immediate") \
Y(IMMEDIATE, imm, "SVE_UIMM7", 0, F(FLD_SVE_imm7), \
"a 7-bit unsigned immediate") \
Y(IMMEDIATE, imm, "SVE_UIMM8", 0, F(FLD_SVE_imm8), \
"an 8-bit unsigned immediate") \
Y(IMMEDIATE, imm, "SVE_UIMM8_53", 0, F(FLD_imm5,FLD_imm3), \
"an 8-bit unsigned immediate") \
Y(SIMD_REG, regno, "SVE_VZn", 0, F(FLD_SVE_Zn), "a SIMD register") \
Y(SIMD_REG, regno, "SVE_Vd", 0, F(FLD_SVE_Vd), "a SIMD register") \
Y(SIMD_REG, regno, "SVE_Vm", 0, F(FLD_SVE_Vm), "a SIMD register") \
Y(SIMD_REG, regno, "SVE_Vn", 0, F(FLD_SVE_Vn), "a SIMD register") \
[AArch64][SVE 21/32] Add Zn and Pn registers This patch adds the Zn and Pn registers, and associated fields and operands. include/ * opcode/aarch64.h (AARCH64_OPND_CLASS_SVE_REG): New aarch64_operand_class. (AARCH64_OPND_CLASS_PRED_REG): Likewise. (AARCH64_OPND_SVE_Pd, AARCH64_OPND_SVE_Pg3, AARCH64_OPND_SVE_Pg4_5) (AARCH64_OPND_SVE_Pg4_10, AARCH64_OPND_SVE_Pg4_16) (AARCH64_OPND_SVE_Pm, AARCH64_OPND_SVE_Pn, AARCH64_OPND_SVE_Pt) (AARCH64_OPND_SVE_Za_5, AARCH64_OPND_SVE_Za_16, AARCH64_OPND_SVE_Zd) (AARCH64_OPND_SVE_Zm_5, AARCH64_OPND_SVE_Zm_16, AARCH64_OPND_SVE_Zn) (AARCH64_OPND_SVE_Zn_INDEX, AARCH64_OPND_SVE_ZnxN) (AARCH64_OPND_SVE_Zt, AARCH64_OPND_SVE_ZtxN): New aarch64_opnds. opcodes/ * aarch64-tbl.h (AARCH64_OPERANDS): Add entries for new SVE operands. * aarch64-opc.h (FLD_SVE_Pd, FLD_SVE_Pg3, FLD_SVE_Pg4_5) (FLD_SVE_Pg4_10, FLD_SVE_Pg4_16, FLD_SVE_Pm, FLD_SVE_Pn, FLD_SVE_Pt) (FLD_SVE_Za_5, FLD_SVE_Za_16, FLD_SVE_Zd, FLD_SVE_Zm_5, FLD_SVE_Zm_16) (FLD_SVE_Zn, FLD_SVE_Zt, FLD_SVE_tzsh): New aarch64_field_kinds. * aarch64-opc.c (fields): Add corresponding entries here. (operand_general_constraint_met_p): Check that SVE register lists have the correct length. Check the ranges of SVE index registers. Check for cases where p8-p15 are used in 3-bit predicate fields. (aarch64_print_operand): Handle the new SVE operands. * aarch64-opc-2.c: Regenerate. * aarch64-asm.h (ins_sve_index, ins_sve_reglist): New inserters. * aarch64-asm.c (aarch64_ins_sve_index): New function. (aarch64_ins_sve_reglist): Likewise. * aarch64-asm-2.c: Regenerate. * aarch64-dis.h (ext_sve_index, ext_sve_reglist): New extractors. * aarch64-dis.c (aarch64_ext_sve_index): New function. (aarch64_ext_sve_reglist): Likewise. * aarch64-dis-2.c: Regenerate. gas/ * config/tc-aarch64.c (NTA_HASVARWIDTH): New macro. (AARCH64_REG_TYPES): Add ZN and PN. (get_reg_expected_msg): Handle them. (parse_vector_type_for_operand): Add a reg_type parameter. Skip the width for Zn and Pn registers. (parse_typed_reg): Extend vector handling to Zn and Pn. Update the call to parse_vector_type_for_operand. Set HASVARTYPE for Zn and Pn, expecting the width to be 0. (parse_vector_reg_list): Restrict error about [BHSD]nn operands to REG_TYPE_VN. (vectype_to_qualifier): Use S_[BHSD] qualifiers for NTA_HASVARWIDTH. (parse_operands): Handle the new Zn and Pn operands. (REGSET16): New macro, split out from... (REGSET31): ...here. (reg_names): Add Zn and Pn entries.
2016-09-21 17:53:54 +02:00
Y(SVE_REG, regno, "SVE_Za_5", 0, F(FLD_SVE_Za_5), \
"an SVE vector register") \
Y(SVE_REG, regno, "SVE_Za_16", 0, F(FLD_SVE_Za_16), \
"an SVE vector register") \
Y(SVE_REG, regno, "SVE_Zd", 0, F(FLD_SVE_Zd), \
"an SVE vector register") \
Y(SVE_REG, regno, "SVE_Zm_5", 0, F(FLD_SVE_Zm_5), \
"an SVE vector register") \
Y(SVE_REG, regno, "SVE_Zm_16", 0, F(FLD_SVE_Zm_16), \
"an SVE vector register") \
Y(SVE_REG, regno, "SVE_Zn", 0, F(FLD_SVE_Zn), \
"an SVE vector register") \
Y(SVE_REG, sve_index, "SVE_Zn_INDEX", 0, F(FLD_SVE_Zn), \
"an indexed SVE vector register") \
Y(SVE_REG, sve_reglist, "SVE_ZnxN", 0, F(FLD_SVE_Zn), \
"a list of SVE vector registers") \
Y(SVE_REG, regno, "SVE_Zt", 0, F(FLD_SVE_Zt), \
"an SVE vector register") \
Y(SVE_REG, sve_reglist, "SVE_ZtxN", 0, F(FLD_SVE_Zt), \
"a list of SVE vector registers")