1 /* aarch64-tbl.h -- AArch64 opcode description table and instruction
2 operand description table.
3 Copyright 2012, 2013 Free Software Foundation, Inc.
5 This file is part of the GNU opcodes library.
7 This library is free software; you can redistribute it and/or modify
8 it under the terms of the GNU General Public License as published by
9 the Free Software Foundation; either version 3, or (at your option)
12 It is distributed in the hope that it will be useful, but WITHOUT
13 ANY WARRANTY; without even the implied warranty of MERCHANTABILITY
14 or FITNESS FOR A PARTICULAR PURPOSE. See the GNU General Public
15 License for more details.
17 You should have received a copy of the GNU General Public License
18 along with this file; see the file COPYING. If not, write to the
19 Free Software Foundation, 51 Franklin Street - Fifth Floor, Boston,
20 MA 02110-1301, USA. */
22 #include "aarch64-opc.h"
26 #define OPND(x) AARCH64_OPND_##x
28 #define OP1(a) {OPND(a)}
29 #define OP2(a,b) {OPND(a), OPND(b)}
30 #define OP3(a,b,c) {OPND(a), OPND(b), OPND(c)}
31 #define OP4(a,b,c,d) {OPND(a), OPND(b), OPND(c), OPND(d)}
32 #define OP5(a,b,c,d,e) {OPND(a), OPND(b), OPND(c), OPND(d), OPND(e)}
34 #define QLF(x) AARCH64_OPND_QLF_##x
35 #define QLF1(a) {QLF(a)}
36 #define QLF2(a,b) {QLF(a), QLF(b)}
37 #define QLF3(a,b,c) {QLF(a), QLF(b), QLF(c)}
38 #define QLF4(a,b,c,d) {QLF(a), QLF(b), QLF(c), QLF(d)}
39 #define QLF5(a,b,c,d,e) {QLF(a), QLF(b), QLF(c), QLF(d), QLF(e)}
41 /* Qualifiers list. */
43 /* e.g. MSR <systemreg>, <Xt>. */
49 /* e.g. MRS <Xt>, <systemreg>. */
55 /* e.g. SYS #<op1>, <Cn>, <Cm>, #<op2>{, <Xt>}. */
58 QLF5(NIL,NIL,NIL,NIL,X), \
61 /* e.g. SYSL <Xt>, #<op1>, <Cn>, <Cm>, #<op2>. */
64 QLF5(X,NIL,NIL,NIL,NIL), \
67 /* e.g. ADRP <Xd>, <label>. */
73 /* e.g. B.<cond> <label>. */
74 #define QL_PCREL_NIL \
79 /* e.g. TBZ <Xt>, #<imm>, <label>. */
82 QLF3(X,imm_0_63,NIL), \
85 /* e.g. BL <label>. */
91 /* e.g. LDRSW <Xt>, <label>. */
97 /* e.g. LDR <Wt>, <label>. */
104 /* e.g. LDR <Dt>, <label>. */
105 #define QL_FP_PCREL \
112 /* e.g. PRFM <prfop>, <label>. */
113 #define QL_PRFM_PCREL \
124 /* e.g. RBIT <Wd>, <Wn>. */
131 /* e.g. CMN <Wn|WSP>, <Wm>{, <extend> {#<amount>}}. */
139 /* e.g. MOV <Wd|WSP>, <Wn|WSP>, at least one SP. */
148 /* e.g. REV <Wd>, <Wn>. */
154 /* e.g. REV32 <Xd>, <Xn>. */
166 /* e.g. SMULH <Xd>, <Xn>, <Xm>. */
172 /* e.g. UDIV <Xd>, <Xn>, <Xm>. */
179 /* e.g. ADDS <Xd>, <Xn|SP>, <R><m>{, <extend> {#<amount>}}. */
187 /* e.g. MADD <Xd>, <Xn>, <Xm>, <Xa>. */
194 /* e.g. SMADDL <Xd>, <Wn>, <Wm>, <Xa>. */
200 /* e.g. SMADDL <Xd>, <Wn>, <Wm>, <Xa>. */
206 /* e.g. CSINC <Xd>, <Xn>, <Xm>, <cond>. */
209 QLF4(W, W, W, NIL), \
210 QLF4(X, X, X, NIL), \
213 /* e.g. CSET <Wd>, <cond>. */
220 /* e.g. BFM <Wd>, <Wn>, #<immr>, #<imms>. */
223 QLF4(W,W,imm_0_31,imm_0_31), \
224 QLF4(X,X,imm_0_63,imm_0_63), \
227 /* e.g. UBFIZ <Wd>, <Wn>, #<lsb>, #<width>. */
230 QLF4(W,W,imm_0_31,imm_1_32), \
231 QLF4(X,X,imm_0_63,imm_1_64), \
234 /* e.g. SCVTF <Sd>, <Xn>, #<fbits>. */
237 QLF3(S_D,W,imm_1_32), \
238 QLF3(S_S,W,imm_1_32), \
239 QLF3(S_D,X,imm_1_64), \
240 QLF3(S_S,X,imm_1_64), \
243 /* e.g. FCVTZS <Wd>, <Dn>, #<fbits>. */
246 QLF3(W,S_D,imm_1_32), \
247 QLF3(W,S_S,imm_1_32), \
248 QLF3(X,S_D,imm_1_64), \
249 QLF3(X,S_S,imm_1_64), \
252 /* e.g. SCVTF <Dd>, <Wn>. */
261 /* e.g. FCVTNS <Xd>, <Dn>. */
270 /* e.g. FMOV <Xd>, <Vn>.D[1]. */
276 /* e.g. FMOV <Vd>.D[1], <Xn>. */
282 /* e.g. EXTR <Xd>, <Xn>, <Xm>, #<lsb>. */
285 QLF4(W,W,W,imm_0_31), \
286 QLF4(X,X,X,imm_0_63), \
289 /* e.g. LSL <Wd>, <Wn>, #<uimm>. */
292 QLF3(W,W,imm_0_31), \
293 QLF3(X,X,imm_0_63), \
296 /* e.g. UXTH <Xd>, <Wn>. */
303 /* e.g. UXTW <Xd>, <Wn>. */
309 /* e.g. SQSHL <V><d>, <V><n>, #<shift>. */
312 QLF3(S_B , S_B , S_B ), \
313 QLF3(S_H , S_H , S_H ), \
314 QLF3(S_S , S_S , S_S ), \
315 QLF3(S_D , S_D , S_D ) \
318 /* e.g. SSHR <V><d>, <V><n>, #<shift>. */
319 #define QL_SSHIFT_D \
321 QLF3(S_D , S_D , S_D ) \
324 /* e.g. UCVTF <Vd>.<T>, <Vn>.<T>, #<fbits>. */
325 #define QL_SSHIFT_SD \
327 QLF3(S_S , S_S , S_S ), \
328 QLF3(S_D , S_D , S_D ) \
331 /* e.g. SQSHRUN <Vb><d>, <Va><n>, #<shift>. */
334 QLF3(S_B , S_H , S_B ), \
335 QLF3(S_H , S_S , S_H ), \
336 QLF3(S_S , S_D , S_S ), \
339 /* e.g. SSHR <Vd>.<T>, <Vn>.<T>, #<shift>.
340 The register operand variant qualifiers are deliberately used for the
341 immediate operand to ease the operand encoding/decoding and qualifier
342 sequence matching. */
345 QLF3(V_8B , V_8B , V_8B ), \
346 QLF3(V_16B, V_16B, V_16B), \
347 QLF3(V_4H , V_4H , V_4H ), \
348 QLF3(V_8H , V_8H , V_8H ), \
349 QLF3(V_2S , V_2S , V_2S ), \
350 QLF3(V_4S , V_4S , V_4S ), \
351 QLF3(V_2D , V_2D , V_2D ) \
354 /* e.g. SCVTF <Vd>.<T>, <Vn>.<T>, #<fbits>. */
355 #define QL_VSHIFT_SD \
357 QLF3(V_2S , V_2S , V_2S ), \
358 QLF3(V_4S , V_4S , V_4S ), \
359 QLF3(V_2D , V_2D , V_2D ) \
362 /* e.g. SHRN<Q> <Vd>.<Tb>, <Vn>.<Ta>, #<shift>. */
365 QLF3(V_8B , V_8H , V_8B ), \
366 QLF3(V_4H , V_4S , V_4H ), \
367 QLF3(V_2S , V_2D , V_2S ), \
370 /* e.g. SHRN<Q> <Vd>.<Tb>, <Vn>.<Ta>, #<shift>. */
371 #define QL_VSHIFTN2 \
373 QLF3(V_16B, V_8H, V_16B), \
374 QLF3(V_8H , V_4S , V_8H ), \
375 QLF3(V_4S , V_2D , V_4S ), \
378 /* e.g. SSHLL<Q> <Vd>.<Ta>, <Vn>.<Tb>, #<shift>.
379 the 3rd qualifier is used to help the encoding. */
382 QLF3(V_8H , V_8B , V_8B ), \
383 QLF3(V_4S , V_4H , V_4H ), \
384 QLF3(V_2D , V_2S , V_2S ), \
387 /* e.g. SSHLL<Q> <Vd>.<Ta>, <Vn>.<Tb>, #<shift>. */
388 #define QL_VSHIFTL2 \
390 QLF3(V_8H , V_16B, V_16B), \
391 QLF3(V_4S , V_8H , V_8H ), \
392 QLF3(V_2D , V_4S , V_4S ), \
398 QLF3(V_8B , V_16B, V_8B ), \
399 QLF3(V_16B, V_16B, V_16B), \
408 /* e.g. ABS <V><d>, <V><n>. */
414 /* e.g. CMGT <V><d>, <V><n>, #0. */
415 #define QL_SISD_CMP_0 \
417 QLF3(S_D, S_D, NIL), \
420 /* e.g. FCMEQ <V><d>, <V><n>, #0. */
421 #define QL_SISD_FCMP_0 \
423 QLF3(S_S, S_S, NIL), \
424 QLF3(S_D, S_D, NIL), \
427 /* e.g. FMAXNMP <V><d>, <Vn>.<T>. */
428 #define QL_SISD_PAIR \
434 /* e.g. ADDP <V><d>, <Vn>.<T>. */
435 #define QL_SISD_PAIR_D \
440 /* e.g. DUP <V><d>, <Vn>.<T>[<index>]. */
449 /* e.g. FCVTNS <V><d>, <V><n>. */
450 #define QL_S_2SAMESD \
456 /* e.g. SQXTN <Vb><d>, <Va><n>. */
457 #define QL_SISD_NARROW \
464 /* e.g. FCVTXN <Vb><d>, <Va><n>. */
465 #define QL_SISD_NARROW_S \
481 /* FMOV <Dd>, <Dn>. */
488 /* e.g. SQADD <V><d>, <V><n>, <V><m>. */
491 QLF3(S_B, S_B, S_B), \
492 QLF3(S_H, S_H, S_H), \
493 QLF3(S_S, S_S, S_S), \
494 QLF3(S_D, S_D, S_D), \
497 /* e.g. CMGE <V><d>, <V><n>, <V><m>. */
498 #define QL_S_3SAMED \
500 QLF3(S_D, S_D, S_D), \
503 /* e.g. SQDMULH <V><d>, <V><n>, <V><m>. */
506 QLF3(S_H, S_H, S_H), \
507 QLF3(S_S, S_S, S_S), \
510 /* e.g. SQDMLAL <Va><d>, <Vb><n>, <Vb><m>. */
511 #define QL_SISDL_HS \
513 QLF3(S_S, S_H, S_H), \
514 QLF3(S_D, S_S, S_S), \
517 /* FMUL <Sd>, <Sn>, <Sm>. */
520 QLF3(S_S, S_S, S_S), \
521 QLF3(S_D, S_D, S_D), \
524 /* FMADD <Dd>, <Dn>, <Dm>, <Da>. */
527 QLF4(S_S, S_S, S_S, S_S), \
528 QLF4(S_D, S_D, S_D, S_D), \
531 /* e.g. FCMP <Dn>, #0.0. */
538 /* FCSEL <Sd>, <Sn>, <Sm>, <cond>. */
541 QLF4(S_S, S_S, S_S, NIL), \
542 QLF4(S_D, S_D, S_D, NIL), \
545 /* e.g. CCMN <Xn>, <Xm>, #<nzcv>, <cond>. */
548 QLF4(W, W, NIL, NIL), \
549 QLF4(X, X, NIL, NIL), \
552 /* e.g. CCMN <Xn>, #<imm>, #<nzcv>, <cond>, */
553 #define QL_CCMP_IMM \
555 QLF4(W, NIL, NIL, NIL), \
556 QLF4(X, NIL, NIL, NIL), \
559 /* e.g. FCCMP <Sn>, <Sm>, #<nzcv>, <cond>. */
562 QLF4(S_S, S_S, NIL, NIL), \
563 QLF4(S_D, S_D, NIL, NIL), \
566 /* e.g. DUP <Vd>.<T>, <Vn>.<Ts>[<index>]. */
578 /* e.g. DUP <Vd>.<T>, <Wn>. */
590 /* e.g. INS <Vd>.<Ts>[<index>], <Wn>. */
599 /* e.g. SMOV <Wd>, <Vn>.<Ts>[<index>]. */
609 /* e.g. UMOV <Wd>, <Vn>.<Ts>[<index>]. */
618 /* e.g. MOV <Wd>, <Vn>.<Ts>[<index>]. */
625 /* e.g. SUQADD <Vd>.<T>, <Vn>.<T>. */
628 QLF2(V_8B , V_8B ), \
629 QLF2(V_16B, V_16B), \
630 QLF2(V_4H , V_4H ), \
631 QLF2(V_8H , V_8H ), \
632 QLF2(V_2S , V_2S ), \
633 QLF2(V_4S , V_4S ), \
634 QLF2(V_2D , V_2D ), \
637 /* e.g. URSQRTE <Vd>.<T>, <Vn>.<T>. */
640 QLF2(V_2S , V_2S ), \
641 QLF2(V_4S , V_4S ), \
644 /* e.g. REV32 <Vd>.<T>, <Vn>.<T>. */
645 #define QL_V2SAMEBH \
647 QLF2(V_8B , V_8B ), \
648 QLF2(V_16B, V_16B), \
649 QLF2(V_4H , V_4H ), \
650 QLF2(V_8H , V_8H ), \
653 /* e.g. FRINTN <Vd>.<T>, <Vn>.<T>. */
654 #define QL_V2SAMESD \
656 QLF2(V_2S , V_2S ), \
657 QLF2(V_4S , V_4S ), \
658 QLF2(V_2D , V_2D ), \
661 /* e.g. REV64 <Vd>.<T>, <Vn>.<T>. */
662 #define QL_V2SAMEBHS \
664 QLF2(V_8B , V_8B ), \
665 QLF2(V_16B, V_16B), \
666 QLF2(V_4H , V_4H ), \
667 QLF2(V_8H , V_8H ), \
668 QLF2(V_2S , V_2S ), \
669 QLF2(V_4S , V_4S ), \
672 /* e.g. REV16 <Vd>.<T>, <Vn>.<T>. */
675 QLF2(V_8B , V_8B ), \
676 QLF2(V_16B, V_16B), \
679 /* e.g. SADDLP <Vd>.<Ta>, <Vn>.<Tb>. */
680 #define QL_V2PAIRWISELONGBHS \
682 QLF2(V_4H , V_8B ), \
683 QLF2(V_8H , V_16B), \
684 QLF2(V_2S , V_4H ), \
685 QLF2(V_4S , V_8H ), \
686 QLF2(V_1D , V_2S ), \
687 QLF2(V_2D , V_4S ), \
690 /* e.g. SHLL<Q> <Vd>.<Ta>, <Vn>.<Tb>, #<shift>. */
691 #define QL_V2LONGBHS \
693 QLF2(V_8H , V_8B ), \
694 QLF2(V_4S , V_4H ), \
695 QLF2(V_2D , V_2S ), \
698 /* e.g. SHLL<Q> <Vd>.<Ta>, <Vn>.<Tb>, #<shift>. */
699 #define QL_V2LONGBHS2 \
701 QLF2(V_8H , V_16B), \
702 QLF2(V_4S , V_8H ), \
703 QLF2(V_2D , V_4S ), \
709 QLF3(V_8B , V_8B , V_8B ), \
710 QLF3(V_16B, V_16B, V_16B), \
711 QLF3(V_4H , V_4H , V_4H ), \
712 QLF3(V_8H , V_8H , V_8H ), \
713 QLF3(V_2S , V_2S , V_2S ), \
714 QLF3(V_4S , V_4S , V_4S ), \
715 QLF3(V_2D , V_2D , V_2D ) \
719 #define QL_V3SAMEBHS \
721 QLF3(V_8B , V_8B , V_8B ), \
722 QLF3(V_16B, V_16B, V_16B), \
723 QLF3(V_4H , V_4H , V_4H ), \
724 QLF3(V_8H , V_8H , V_8H ), \
725 QLF3(V_2S , V_2S , V_2S ), \
726 QLF3(V_4S , V_4S , V_4S ), \
729 /* e.g. FCVTXN<Q> <Vd>.<Tb>, <Vn>.<Ta>. */
732 QLF2(V_2S , V_2D ), \
735 /* e.g. FCVTXN<Q> <Vd>.<Tb>, <Vn>.<Ta>. */
736 #define QL_V2NARRS2 \
738 QLF2(V_4S , V_2D ), \
741 /* e.g. FCVTN<Q> <Vd>.<Tb>, <Vn>.<Ta>. */
742 #define QL_V2NARRHS \
744 QLF2(V_4H , V_4S ), \
745 QLF2(V_2S , V_2D ), \
748 /* e.g. FCVTN<Q> <Vd>.<Tb>, <Vn>.<Ta>. */
749 #define QL_V2NARRHS2 \
751 QLF2(V_8H , V_4S ), \
752 QLF2(V_4S , V_2D ), \
755 /* e.g. FCVTL<Q> <Vd>.<Ta>, <Vn>.<Tb>. */
756 #define QL_V2LONGHS \
758 QLF2(V_4S , V_4H ), \
759 QLF2(V_2D , V_2S ), \
762 /* e.g. FCVTL<Q> <Vd>.<Ta>, <Vn>.<Tb>. */
763 #define QL_V2LONGHS2 \
765 QLF2(V_4S , V_8H ), \
766 QLF2(V_2D , V_4S ), \
769 /* e.g. XTN<Q> <Vd>.<Tb>, <Vn>.<Ta>. */
770 #define QL_V2NARRBHS \
772 QLF2(V_8B , V_8H ), \
773 QLF2(V_4H , V_4S ), \
774 QLF2(V_2S , V_2D ), \
777 /* e.g. XTN<Q> <Vd>.<Tb>, <Vn>.<Ta>. */
778 #define QL_V2NARRBHS2 \
780 QLF2(V_16B, V_8H ), \
781 QLF2(V_8H , V_4S ), \
782 QLF2(V_4S , V_2D ), \
788 QLF2(V_8B , V_8B ), \
789 QLF2(V_16B, V_16B), \
793 #define QL_V2SAME16B \
795 QLF2(V_16B, V_16B), \
799 #define QL_V2SAME4S \
805 #define QL_V3SAME4S \
807 QLF3(V_4S, V_4S, V_4S), \
813 QLF3(V_8B , V_8B , V_8B ), \
814 QLF3(V_16B, V_16B, V_16B), \
817 /* e.g. EXT <Vd>.<T>, <Vn>.<T>, <Vm>.<T>, #<index>. */
820 QLF4(V_8B , V_8B , V_8B , imm_0_7), \
821 QLF4(V_16B, V_16B, V_16B, imm_0_15), \
825 #define QL_V3SAMEHS \
827 QLF3(V_4H , V_4H , V_4H ), \
828 QLF3(V_8H , V_8H , V_8H ), \
829 QLF3(V_2S , V_2S , V_2S ), \
830 QLF3(V_4S , V_4S , V_4S ), \
834 #define QL_V3SAMESD \
836 QLF3(V_2S , V_2S , V_2S ), \
837 QLF3(V_4S , V_4S , V_4S ), \
838 QLF3(V_2D , V_2D , V_2D ) \
841 /* e.g. SQDMLAL<Q> <Vd>.<Ta>, <Vn>.<Tb>, <Vm>.<Tb>. */
842 #define QL_V3LONGHS \
844 QLF3(V_4S , V_4H , V_4H ), \
845 QLF3(V_2D , V_2S , V_2S ), \
848 /* e.g. SQDMLAL<Q> <Vd>.<Ta>, <Vn>.<Tb>, <Vm>.<Tb>. */
849 #define QL_V3LONGHS2 \
851 QLF3(V_4S , V_8H , V_8H ), \
852 QLF3(V_2D , V_4S , V_4S ), \
855 /* e.g. SADDL<Q> <Vd>.<Ta>, <Vn>.<Tb>, <Vm>.<Tb>. */
856 #define QL_V3LONGBHS \
858 QLF3(V_8H , V_8B , V_8B ), \
859 QLF3(V_4S , V_4H , V_4H ), \
860 QLF3(V_2D , V_2S , V_2S ), \
863 /* e.g. SADDL<Q> <Vd>.<Ta>, <Vn>.<Tb>, <Vm>.<Tb>. */
864 #define QL_V3LONGBHS2 \
866 QLF3(V_8H , V_16B , V_16B ), \
867 QLF3(V_4S , V_8H , V_8H ), \
868 QLF3(V_2D , V_4S , V_4S ), \
871 /* e.g. SADDW<Q> <Vd>.<Ta>, <Vn>.<Ta>, <Vm>.<Tb>. */
872 #define QL_V3WIDEBHS \
874 QLF3(V_8H , V_8H , V_8B ), \
875 QLF3(V_4S , V_4S , V_4H ), \
876 QLF3(V_2D , V_2D , V_2S ), \
879 /* e.g. SADDW<Q> <Vd>.<Ta>, <Vn>.<Ta>, <Vm>.<Tb>. */
880 #define QL_V3WIDEBHS2 \
882 QLF3(V_8H , V_8H , V_16B ), \
883 QLF3(V_4S , V_4S , V_8H ), \
884 QLF3(V_2D , V_2D , V_4S ), \
887 /* e.g. ADDHN<Q> <Vd>.<Tb>, <Vn>.<Ta>, <Vm>.<Ta>. */
888 #define QL_V3NARRBHS \
890 QLF3(V_8B , V_8H , V_8H ), \
891 QLF3(V_4H , V_4S , V_4S ), \
892 QLF3(V_2S , V_2D , V_2D ), \
895 /* e.g. ADDHN<Q> <Vd>.<Tb>, <Vn>.<Ta>, <Vm>.<Ta>. */
896 #define QL_V3NARRBHS2 \
898 QLF3(V_16B , V_8H , V_8H ), \
899 QLF3(V_8H , V_4S , V_4S ), \
900 QLF3(V_4S , V_2D , V_2D ), \
906 QLF3(V_8H , V_8B , V_8B ), \
909 /* e.g. PMULL crypto. */
912 QLF3(V_1Q , V_1D , V_1D ), \
916 #define QL_V3LONGB2 \
918 QLF3(V_8H , V_16B, V_16B), \
921 /* e.g. PMULL2 crypto. */
922 #define QL_V3LONGD2 \
924 QLF3(V_1Q , V_2D , V_2D ), \
930 QLF3(S_Q, S_S, V_4S), \
934 #define QL_SHA256UPT \
936 QLF3(S_Q, S_Q, V_4S), \
939 /* e.g. LDXRB <Wt>, [<Xn|SP>{,#0}]. */
940 #define QL_W1_LDST_EXC \
945 /* e.g. LDXR <Xt>, [<Xn|SP>{,#0}]. */
952 /* e.g. STXRB <Ws>, <Wt>, [<Xn|SP>{,#0}]. */
953 #define QL_W2_LDST_EXC \
958 /* e.g. STXR <Ws>, <Xt>, [<Xn|SP>{,#0}]. */
959 #define QL_R2_LDST_EXC \
965 /* e.g. LDXP <Xt1>, <Xt2>, [<Xn|SP>{,#0}]. */
972 /* e.g. STXP <Ws>, <Xt1>, <Xt2>, [<Xn|SP>{,#0}]. */
973 #define QL_R3_LDST_EXC \
975 QLF4(W, W, W, NIL), \
976 QLF4(W, X, X, NIL), \
979 /* e.g. STR <Qt>, [<Xn|SP>, <R><m>{, <extend> {<amount>}}]. */
989 /* e.g. STR <Xt>, [<Xn|SP>, <R><m>{, <extend> {<amount>}}]. */
996 /* e.g. STRB <Wt>, [<Xn|SP>, <R><m>{, <extend> {<amount>}}]. */
1002 /* e.g. LDRSB <Wt>, [<Xn|SP>, <R><m>{, <extend> {<amount>}}]. */
1003 #define QL_LDST_R8 \
1009 /* e.g. STRH <Wt>, [<Xn|SP>, <R><m>{, <extend> {<amount>}}]. */
1010 #define QL_LDST_W16 \
1015 /* e.g. LDRSW <Xt>, [<Xn|SP>, <R><m>{, <extend> {<amount>}}]. */
1016 #define QL_LDST_X32 \
1021 /* e.g. LDRSH <Wt>, [<Xn|SP>, <R><m>{, <extend> {<amount>}}]. */
1022 #define QL_LDST_R16 \
1028 /* e.g. PRFM <prfop>, [<Xn|SP>, <R><m>{, <extend> {<amount>}}]. */
1029 #define QL_LDST_PRFM \
1034 /* e.g. LDPSW <Xt1>, <Xt2>, [<Xn|SP>{, #<imm>}]. */
1035 #define QL_LDST_PAIR_X32 \
1040 /* e.g. STP <Wt1>, <Wt2>, [<Xn|SP>, #<imm>]!. */
1041 #define QL_LDST_PAIR_R \
1047 /* e.g. STNP <Qt1>, <Qt2>, [<Xn|SP>{, #<imm>}]. */
1048 #define QL_LDST_PAIR_FP \
1050 QLF3(S_S, S_S, S_S), \
1051 QLF3(S_D, S_D, S_D), \
1052 QLF3(S_Q, S_Q, S_Q), \
1055 /* e.g. LD3 {<Vt>.<T>, <Vt2>.<T>, <Vt3>.<T>}, [<Xn|SP>]. */
1056 #define QL_SIMD_LDST \
1067 /* e.g. LD1 {<Vt>.<T>, <Vt2>.<T>, <Vt3>.<T>}, [<Xn|SP>]. */
1068 #define QL_SIMD_LDST_ANY \
1080 /* e.g. LD4 {<Vt>.<T>, <Vt2a>.<T>, <Vt3a>.<T>, <Vt4a>.<T>}[<index>], [<Xn|SP>]. */
1081 #define QL_SIMD_LDSTONE \
1089 /* e.g. ADDV <V><d>, <Vn>.<T>. */
1099 /* e.g. FMINV <V><d>, <Vn>.<T>. */
1100 #define QL_XLANES_FP \
1105 /* e.g. SADDLV <V><d>, <Vn>.<T>. */
1106 #define QL_XLANES_L \
1115 /* e.g. MUL <Vd>.<T>, <Vn>.<T>, <Vm>.<Ts>[<index>]. */
1116 #define QL_ELEMENT \
1118 QLF3(V_4H, V_4H, S_H), \
1119 QLF3(V_8H, V_8H, S_H), \
1120 QLF3(V_2S, V_2S, S_S), \
1121 QLF3(V_4S, V_4S, S_S), \
1124 /* e.g. SMLAL <Vd>.<Ta>, <Vn>.<Tb>, <Vm>.<Ts>[<index>]. */
1125 #define QL_ELEMENT_L \
1127 QLF3(V_4S, V_4H, S_H), \
1128 QLF3(V_2D, V_2S, S_S), \
1131 /* e.g. SMLAL2 <Vd>.<Ta>, <Vn>.<Tb>, <Vm>.<Ts>[<index>]. */
1132 #define QL_ELEMENT_L2 \
1134 QLF3(V_4S, V_8H, S_H), \
1135 QLF3(V_2D, V_4S, S_S), \
1138 /* e.g. FMLA <V><d>, <V><n>, <Vm>.<Ts>[<index>]. */
1139 #define QL_ELEMENT_FP \
1141 QLF3(V_2S, V_2S, S_S), \
1142 QLF3(V_4S, V_4S, S_S), \
1143 QLF3(V_2D, V_2D, S_D), \
1146 /* e.g. MOVI <Vd>.4S, #<imm8> {, LSL #<amount>}. */
1147 #define QL_SIMD_IMM_S0W \
1153 /* e.g. MOVI <Vd>.4S, #<imm8>, MSL #<amount>. */
1154 #define QL_SIMD_IMM_S1W \
1160 /* e.g. MOVI <Vd>.4H, #<imm8> {, LSL #<amount>}. */
1161 #define QL_SIMD_IMM_S0H \
1167 /* e.g. FMOV <Vd>.<T>, #<imm>. */
1168 #define QL_SIMD_IMM_S \
1174 /* e.g. MOVI <Vd>.8B, #<imm8> {, LSL #<amount>}. */
1175 #define QL_SIMD_IMM_B \
1180 /* e.g. MOVI <Dd>, #<imm>. */
1181 #define QL_SIMD_IMM_D \
1186 /* e.g. MOVI <Vd>.2D, #<imm>. */
1187 #define QL_SIMD_IMM_V2D \
1194 static const aarch64_feature_set aarch64_feature_v8
=
1195 AARCH64_FEATURE (AARCH64_FEATURE_V8
, 0);
1196 static const aarch64_feature_set aarch64_feature_fp
=
1197 AARCH64_FEATURE (AARCH64_FEATURE_FP
, 0);
1198 static const aarch64_feature_set aarch64_feature_simd
=
1199 AARCH64_FEATURE (AARCH64_FEATURE_SIMD
, 0);
1200 static const aarch64_feature_set aarch64_feature_crypto
=
1201 AARCH64_FEATURE (AARCH64_FEATURE_CRYPTO
, 0);
1203 #define CORE &aarch64_feature_v8
1204 #define FP &aarch64_feature_fp
1205 #define SIMD &aarch64_feature_simd
1206 #define CRYPTO &aarch64_feature_crypto
1208 struct aarch64_opcode aarch64_opcode_table
[] =
1210 /* Add/subtract (with carry). */
1211 {"adc", 0x1a000000, 0x7fe0fc00, addsub_carry
, 0, CORE
, OP3 (Rd
, Rn
, Rm
), QL_I3SAMER
, F_SF
},
1212 {"adcs", 0x3a000000, 0x7fe0fc00, addsub_carry
, 0, CORE
, OP3 (Rd
, Rn
, Rm
), QL_I3SAMER
, F_SF
},
1213 {"sbc", 0x5a000000, 0x7fe0fc00, addsub_carry
, 0, CORE
, OP3 (Rd
, Rn
, Rm
), QL_I3SAMER
, F_HAS_ALIAS
| F_SF
},
1214 {"ngc", 0x5a0003e0, 0x7fe0ffe0, addsub_carry
, 0, CORE
, OP2 (Rd
, Rm
), QL_I2SAME
, F_ALIAS
| F_SF
},
1215 {"sbcs", 0x7a000000, 0x7fe0fc00, addsub_carry
, 0, CORE
, OP3 (Rd
, Rn
, Rm
), QL_I3SAMER
, F_HAS_ALIAS
| F_SF
},
1216 {"ngcs", 0x7a0003e0, 0x7fe0ffe0, addsub_carry
, 0, CORE
, OP2 (Rd
, Rm
), QL_I2SAME
, F_ALIAS
| F_SF
},
1217 /* Add/subtract (extended register). */
1218 {"add", 0x0b200000, 0x7fe00000, addsub_ext
, 0, CORE
, OP3 (Rd_SP
, Rn_SP
, Rm_EXT
), QL_I3_EXT
, F_SF
},
1219 {"adds", 0x2b200000, 0x7fe00000, addsub_ext
, 0, CORE
, OP3 (Rd
, Rn_SP
, Rm_EXT
), QL_I3_EXT
, F_HAS_ALIAS
| F_SF
},
1220 {"cmn", 0x2b20001f, 0x7fe0001f, addsub_ext
, 0, CORE
, OP2 (Rn_SP
, Rm_EXT
), QL_I2_EXT
, F_ALIAS
| F_SF
},
1221 {"sub", 0x4b200000, 0x7fe00000, addsub_ext
, 0, CORE
, OP3 (Rd_SP
, Rn_SP
, Rm_EXT
), QL_I3_EXT
, F_SF
},
1222 {"subs", 0x6b200000, 0x7fe00000, addsub_ext
, 0, CORE
, OP3 (Rd
, Rn_SP
, Rm_EXT
), QL_I3_EXT
, F_HAS_ALIAS
| F_SF
},
1223 {"cmp", 0x6b20001f, 0x7fe0001f, addsub_ext
, 0, CORE
, OP2 (Rn_SP
, Rm_EXT
), QL_I2_EXT
, F_ALIAS
| F_SF
},
1224 /* Add/subtract (immediate). */
1225 {"add", 0x11000000, 0x7f000000, addsub_imm
, OP_ADD
, CORE
, OP3 (Rd_SP
, Rn_SP
, AIMM
), QL_R2NIL
, F_HAS_ALIAS
| F_SF
},
1226 {"mov", 0x11000000, 0x7ffffc00, addsub_imm
, 0, CORE
, OP2 (Rd_SP
, Rn_SP
), QL_I2SP
, F_ALIAS
| F_SF
},
1227 {"adds", 0x31000000, 0x7f000000, addsub_imm
, 0, CORE
, OP3 (Rd
, Rn_SP
, AIMM
), QL_R2NIL
, F_HAS_ALIAS
| F_SF
},
1228 {"cmn", 0x3100001f, 0x7f00001f, addsub_imm
, 0, CORE
, OP2 (Rn_SP
, AIMM
), QL_R1NIL
, F_ALIAS
| F_SF
},
1229 {"sub", 0x51000000, 0x7f000000, addsub_imm
, 0, CORE
, OP3 (Rd_SP
, Rn_SP
, AIMM
), QL_R2NIL
, F_SF
},
1230 {"subs", 0x71000000, 0x7f000000, addsub_imm
, 0, CORE
, OP3 (Rd
, Rn_SP
, AIMM
), QL_R2NIL
, F_HAS_ALIAS
| F_SF
},
1231 {"cmp", 0x7100001f, 0x7f00001f, addsub_imm
, 0, CORE
, OP2 (Rn_SP
, AIMM
), QL_R1NIL
, F_ALIAS
| F_SF
},
1232 /* Add/subtract (shifted register). */
1233 {"add", 0xb000000, 0x7f200000, addsub_shift
, 0, CORE
, OP3 (Rd
, Rn
, Rm_SFT
), QL_I3SAMER
, F_SF
},
1234 {"adds", 0x2b000000, 0x7f200000, addsub_shift
, 0, CORE
, OP3 (Rd
, Rn
, Rm_SFT
), QL_I3SAMER
, F_HAS_ALIAS
| F_SF
},
1235 {"cmn", 0x2b00001f, 0x7f20001f, addsub_shift
, 0, CORE
, OP2 (Rn
, Rm_SFT
), QL_I2SAME
, F_ALIAS
| F_SF
},
1236 {"sub", 0x4b000000, 0x7f200000, addsub_shift
, 0, CORE
, OP3 (Rd
, Rn
, Rm_SFT
), QL_I3SAMER
, F_HAS_ALIAS
| F_SF
},
1237 {"neg", 0x4b0003e0, 0x7f2003e0, addsub_shift
, 0, CORE
, OP2 (Rd
, Rm_SFT
), QL_I2SAME
, F_ALIAS
| F_SF
},
1238 {"subs", 0x6b000000, 0x7f200000, addsub_shift
, 0, CORE
, OP3 (Rd
, Rn
, Rm_SFT
), QL_I3SAMER
, F_HAS_ALIAS
| F_SF
},
1239 {"cmp", 0x6b00001f, 0x7f20001f, addsub_shift
, 0, CORE
, OP2 (Rn
, Rm_SFT
), QL_I2SAME
, F_ALIAS
| F_SF
},
1240 {"negs", 0x6b0003e0, 0x7f2003e0, addsub_shift
, 0, CORE
, OP2 (Rd
, Rm_SFT
), QL_I2SAME
, F_ALIAS
| F_SF
},
1241 /* AdvSIMD across lanes. */
1242 {"saddlv", 0xe303800, 0xbf3ffc00, asimdall
, 0, SIMD
, OP2 (Fd
, Vn
), QL_XLANES_L
, F_SIZEQ
},
1243 {"smaxv", 0xe30a800, 0xbf3ffc00, asimdall
, 0, SIMD
, OP2 (Fd
, Vn
), QL_XLANES
, F_SIZEQ
},
1244 {"sminv", 0xe31a800, 0xbf3ffc00, asimdall
, 0, SIMD
, OP2 (Fd
, Vn
), QL_XLANES
, F_SIZEQ
},
1245 {"addv", 0xe31b800, 0xbf3ffc00, asimdall
, 0, SIMD
, OP2 (Fd
, Vn
), QL_XLANES
, F_SIZEQ
},
1246 {"uaddlv", 0x2e303800, 0xbf3ffc00, asimdall
, 0, SIMD
, OP2 (Fd
, Vn
), QL_XLANES_L
, F_SIZEQ
},
1247 {"umaxv", 0x2e30a800, 0xbf3ffc00, asimdall
, 0, SIMD
, OP2 (Fd
, Vn
), QL_XLANES
, F_SIZEQ
},
1248 {"uminv", 0x2e31a800, 0xbf3ffc00, asimdall
, 0, SIMD
, OP2 (Fd
, Vn
), QL_XLANES
, F_SIZEQ
},
1249 {"fmaxnmv", 0x2e30c800, 0xbfbffc00, asimdall
, 0, SIMD
, OP2 (Fd
, Vn
), QL_XLANES_FP
, F_SIZEQ
},
1250 {"fmaxv", 0x2e30f800, 0xbfbffc00, asimdall
, 0, SIMD
, OP2 (Fd
, Vn
), QL_XLANES_FP
, F_SIZEQ
},
1251 {"fminnmv", 0x2eb0c800, 0xbfbffc00, asimdall
, 0, SIMD
, OP2 (Fd
, Vn
), QL_XLANES_FP
, F_SIZEQ
},
1252 {"fminv", 0x2eb0f800, 0xbfbffc00, asimdall
, 0, SIMD
, OP2 (Fd
, Vn
), QL_XLANES_FP
, F_SIZEQ
},
1253 /* AdvSIMD three different. */
1254 {"saddl", 0x0e200000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3LONGBHS
, F_SIZEQ
},
1255 {"saddl2", 0x4e200000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3LONGBHS2
, F_SIZEQ
},
1256 {"saddw", 0x0e201000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3WIDEBHS
, F_SIZEQ
},
1257 {"saddw2", 0x4e201000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3WIDEBHS2
, F_SIZEQ
},
1258 {"ssubl", 0x0e202000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3LONGBHS
, F_SIZEQ
},
1259 {"ssubl2", 0x4e202000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3LONGBHS2
, F_SIZEQ
},
1260 {"ssubw", 0x0e203000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3WIDEBHS
, F_SIZEQ
},
1261 {"ssubw2", 0x4e203000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3WIDEBHS2
, F_SIZEQ
},
1262 {"addhn", 0x0e204000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3NARRBHS
, F_SIZEQ
},
1263 {"addhn2", 0x4e204000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3NARRBHS2
, F_SIZEQ
},
1264 {"sabal", 0x0e205000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3LONGBHS
, F_SIZEQ
},
1265 {"sabal2", 0x4e205000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3LONGBHS2
, F_SIZEQ
},
1266 {"subhn", 0x0e206000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3NARRBHS
, F_SIZEQ
},
1267 {"subhn2", 0x4e206000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3NARRBHS2
, F_SIZEQ
},
1268 {"sabdl", 0x0e207000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3LONGBHS
, F_SIZEQ
},
1269 {"sabdl2", 0x4e207000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3LONGBHS2
, F_SIZEQ
},
1270 {"smlal", 0x0e208000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3LONGBHS
, F_SIZEQ
},
1271 {"smlal2", 0x4e208000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3LONGBHS2
, F_SIZEQ
},
1272 {"sqdmlal", 0x0e209000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3LONGHS
, F_SIZEQ
},
1273 {"sqdmlal2", 0x4e209000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3LONGHS2
, F_SIZEQ
},
1274 {"smlsl", 0x0e20a000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3LONGBHS
, F_SIZEQ
},
1275 {"smlsl2", 0x4e20a000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3LONGBHS2
, F_SIZEQ
},
1276 {"sqdmlsl", 0x0e20b000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3LONGHS
, F_SIZEQ
},
1277 {"sqdmlsl2", 0x4e20b000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3LONGHS2
, F_SIZEQ
},
1278 {"smull", 0x0e20c000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3LONGBHS
, F_SIZEQ
},
1279 {"smull2", 0x4e20c000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3LONGBHS2
, F_SIZEQ
},
1280 {"sqdmull", 0x0e20d000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3LONGHS
, F_SIZEQ
},
1281 {"sqdmull2", 0x4e20d000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3LONGHS2
, F_SIZEQ
},
1282 {"pmull", 0x0e20e000, 0xffe0fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3LONGB
, 0},
1283 {"pmull", 0x0ee0e000, 0xffe0fc00, asimddiff
, 0, CRYPTO
, OP3 (Vd
, Vn
, Vm
), QL_V3LONGD
, 0},
1284 {"pmull2", 0x4e20e000, 0xffe0fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3LONGB2
, 0},
1285 {"pmull2", 0x4ee0e000, 0xffe0fc00, asimddiff
, 0, CRYPTO
, OP3 (Vd
, Vn
, Vm
), QL_V3LONGD2
, 0},
1286 {"uaddl", 0x2e200000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3LONGBHS
, F_SIZEQ
},
1287 {"uaddl2", 0x6e200000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3LONGBHS2
, F_SIZEQ
},
1288 {"uaddw", 0x2e201000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3WIDEBHS
, F_SIZEQ
},
1289 {"uaddw2", 0x6e201000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3WIDEBHS2
, F_SIZEQ
},
1290 {"usubl", 0x2e202000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3LONGBHS
, F_SIZEQ
},
1291 {"usubl2", 0x6e202000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3LONGBHS2
, F_SIZEQ
},
1292 {"usubw", 0x2e203000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3WIDEBHS
, F_SIZEQ
},
1293 {"usubw2", 0x6e203000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3WIDEBHS2
, F_SIZEQ
},
1294 {"raddhn", 0x2e204000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3NARRBHS
, F_SIZEQ
},
1295 {"raddhn2", 0x6e204000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3NARRBHS2
, F_SIZEQ
},
1296 {"uabal", 0x2e205000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3LONGBHS
, F_SIZEQ
},
1297 {"uabal2", 0x6e205000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3LONGBHS2
, F_SIZEQ
},
1298 {"rsubhn", 0x2e206000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3NARRBHS
, F_SIZEQ
},
1299 {"rsubhn2", 0x6e206000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3NARRBHS2
, F_SIZEQ
},
1300 {"uabdl", 0x2e207000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3LONGBHS
, F_SIZEQ
},
1301 {"uabdl2", 0x6e207000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3LONGBHS2
, F_SIZEQ
},
1302 {"umlal", 0x2e208000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3LONGBHS
, F_SIZEQ
},
1303 {"umlal2", 0x6e208000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3LONGBHS2
, F_SIZEQ
},
1304 {"umlsl", 0x2e20a000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3LONGBHS
, F_SIZEQ
},
1305 {"umlsl2", 0x6e20a000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3LONGBHS2
, F_SIZEQ
},
1306 {"umull", 0x2e20c000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3LONGBHS
, F_SIZEQ
},
1307 {"umull2", 0x6e20c000, 0xff20fc00, asimddiff
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3LONGBHS2
, F_SIZEQ
},
1308 /* AdvSIMD vector x indexed element. */
1309 {"smlal", 0x0f002000, 0xff00f400, asimdelem
, 0, SIMD
, OP3 (Vd
, Vn
, Em
), QL_ELEMENT_L
, F_SIZEQ
},
1310 {"smlal2", 0x4f002000, 0xff00f400, asimdelem
, 0, SIMD
, OP3 (Vd
, Vn
, Em
), QL_ELEMENT_L2
, F_SIZEQ
},
1311 {"sqdmlal", 0x0f003000, 0xff00f400, asimdelem
, 0, SIMD
, OP3 (Vd
, Vn
, Em
), QL_ELEMENT_L
, F_SIZEQ
},
1312 {"sqdmlal2", 0x4f003000, 0xff00f400, asimdelem
, 0, SIMD
, OP3 (Vd
, Vn
, Em
), QL_ELEMENT_L2
, F_SIZEQ
},
1313 {"smlsl", 0x0f006000, 0xff00f400, asimdelem
, 0, SIMD
, OP3 (Vd
, Vn
, Em
), QL_ELEMENT_L
, F_SIZEQ
},
1314 {"smlsl2", 0x4f006000, 0xff00f400, asimdelem
, 0, SIMD
, OP3 (Vd
, Vn
, Em
), QL_ELEMENT_L2
, F_SIZEQ
},
1315 {"sqdmlsl", 0x0f007000, 0xff00f400, asimdelem
, 0, SIMD
, OP3 (Vd
, Vn
, Em
), QL_ELEMENT_L
, F_SIZEQ
},
1316 {"sqdmlsl2", 0x4f007000, 0xff00f400, asimdelem
, 0, SIMD
, OP3 (Vd
, Vn
, Em
), QL_ELEMENT_L2
, F_SIZEQ
},
1317 {"mul", 0xf008000, 0xbf00f400, asimdelem
, 0, SIMD
, OP3 (Vd
, Vn
, Em
), QL_ELEMENT
, F_SIZEQ
},
1318 {"smull", 0x0f00a000, 0xff00f400, asimdelem
, 0, SIMD
, OP3 (Vd
, Vn
, Em
), QL_ELEMENT_L
, F_SIZEQ
},
1319 {"smull2", 0x4f00a000, 0xff00f400, asimdelem
, 0, SIMD
, OP3 (Vd
, Vn
, Em
), QL_ELEMENT_L2
, F_SIZEQ
},
1320 {"sqdmull", 0x0f00b000, 0xff00f400, asimdelem
, 0, SIMD
, OP3 (Vd
, Vn
, Em
), QL_ELEMENT_L
, F_SIZEQ
},
1321 {"sqdmull2", 0x4f00b000, 0xff00f400, asimdelem
, 0, SIMD
, OP3 (Vd
, Vn
, Em
), QL_ELEMENT_L2
, F_SIZEQ
},
1322 {"sqdmulh", 0xf00c000, 0xbf00f400, asimdelem
, 0, SIMD
, OP3 (Vd
, Vn
, Em
), QL_ELEMENT
, F_SIZEQ
},
1323 {"sqrdmulh", 0xf00d000, 0xbf00f400, asimdelem
, 0, SIMD
, OP3 (Vd
, Vn
, Em
), QL_ELEMENT
, F_SIZEQ
},
1324 {"fmla", 0xf801000, 0xbf80f400, asimdelem
, 0, SIMD
, OP3 (Vd
, Vn
, Em
), QL_ELEMENT_FP
, F_SIZEQ
},
1325 {"fmls", 0xf805000, 0xbf80f400, asimdelem
, 0, SIMD
, OP3 (Vd
, Vn
, Em
), QL_ELEMENT_FP
, F_SIZEQ
},
1326 {"fmul", 0xf809000, 0xbf80f400, asimdelem
, 0, SIMD
, OP3 (Vd
, Vn
, Em
), QL_ELEMENT_FP
, F_SIZEQ
},
1327 {"mla", 0x2f000000, 0xbf00f400, asimdelem
, 0, SIMD
, OP3 (Vd
, Vn
, Em
), QL_ELEMENT
, F_SIZEQ
},
1328 {"umlal", 0x2f002000, 0xff00f400, asimdelem
, 0, SIMD
, OP3 (Vd
, Vn
, Em
), QL_ELEMENT_L
, F_SIZEQ
},
1329 {"umlal2", 0x6f002000, 0xff00f400, asimdelem
, 0, SIMD
, OP3 (Vd
, Vn
, Em
), QL_ELEMENT_L2
, F_SIZEQ
},
1330 {"mls", 0x2f004000, 0xbf00f400, asimdelem
, 0, SIMD
, OP3 (Vd
, Vn
, Em
), QL_ELEMENT
, F_SIZEQ
},
1331 {"umlsl", 0x2f006000, 0xff00f400, asimdelem
, 0, SIMD
, OP3 (Vd
, Vn
, Em
), QL_ELEMENT_L
, F_SIZEQ
},
1332 {"umlsl2", 0x6f006000, 0xff00f400, asimdelem
, 0, SIMD
, OP3 (Vd
, Vn
, Em
), QL_ELEMENT_L2
, F_SIZEQ
},
1333 {"umull", 0x2f00a000, 0xff00f400, asimdelem
, 0, SIMD
, OP3 (Vd
, Vn
, Em
), QL_ELEMENT_L
, F_SIZEQ
},
1334 {"umull2", 0x6f00a000, 0xff00f400, asimdelem
, 0, SIMD
, OP3 (Vd
, Vn
, Em
), QL_ELEMENT_L2
, F_SIZEQ
},
1335 {"fmulx", 0x2f809000, 0xbf80f400, asimdelem
, 0, SIMD
, OP3 (Vd
, Vn
, Em
), QL_ELEMENT_FP
, F_SIZEQ
},
1337 {"ext", 0x2e000000, 0xbfe0c400, asimdext
, 0, SIMD
, OP4 (Vd
, Vn
, Vm
, IDX
), QL_VEXT
, F_SIZEQ
},
1338 /* AdvSIMD modified immediate. */
1339 {"movi", 0xf000400, 0xbff89c00, asimdimm
, 0, SIMD
, OP2 (Vd
, SIMD_IMM_SFT
), QL_SIMD_IMM_S0W
, F_SIZEQ
},
1340 {"orr", 0xf001400, 0xbff89c00, asimdimm
, 0, SIMD
, OP2 (Vd
, SIMD_IMM_SFT
), QL_SIMD_IMM_S0W
, F_SIZEQ
},
1341 {"movi", 0xf008400, 0xbff8dc00, asimdimm
, 0, SIMD
, OP2 (Vd
, SIMD_IMM_SFT
), QL_SIMD_IMM_S0H
, F_SIZEQ
},
1342 {"orr", 0xf009400, 0xbff8dc00, asimdimm
, 0, SIMD
, OP2 (Vd
, SIMD_IMM_SFT
), QL_SIMD_IMM_S0H
, F_SIZEQ
},
1343 {"movi", 0xf00c400, 0xbff8ec00, asimdimm
, 0, SIMD
, OP2 (Vd
, SIMD_IMM_SFT
), QL_SIMD_IMM_S1W
, F_SIZEQ
},
1344 {"movi", 0xf00e400, 0xbff8fc00, asimdimm
, 0, SIMD
, OP2 (Vd
, SIMD_IMM_SFT
), QL_SIMD_IMM_B
, F_SIZEQ
},
1345 {"fmov", 0xf00f400, 0xbff8fc00, asimdimm
, 0, SIMD
, OP2 (Vd
, SIMD_FPIMM
), QL_SIMD_IMM_S
, F_SIZEQ
},
1346 {"mvni", 0x2f000400, 0xbff89c00, asimdimm
, 0, SIMD
, OP2 (Vd
, SIMD_IMM_SFT
), QL_SIMD_IMM_S0W
, F_SIZEQ
},
1347 {"bic", 0x2f001400, 0xbff89c00, asimdimm
, 0, SIMD
, OP2 (Vd
, SIMD_IMM_SFT
), QL_SIMD_IMM_S0W
, F_SIZEQ
},
1348 {"mvni", 0x2f008400, 0xbff8dc00, asimdimm
, 0, SIMD
, OP2 (Vd
, SIMD_IMM_SFT
), QL_SIMD_IMM_S0H
, F_SIZEQ
},
1349 {"bic", 0x2f009400, 0xbff8dc00, asimdimm
, 0, SIMD
, OP2 (Vd
, SIMD_IMM_SFT
), QL_SIMD_IMM_S0H
, F_SIZEQ
},
1350 {"mvni", 0x2f00c400, 0xbff8ec00, asimdimm
, 0, SIMD
, OP2 (Vd
, SIMD_IMM_SFT
), QL_SIMD_IMM_S1W
, F_SIZEQ
},
1351 {"movi", 0x2f00e400, 0xfff8fc00, asimdimm
, 0, SIMD
, OP2 (Sd
, SIMD_IMM
), QL_SIMD_IMM_D
, F_SIZEQ
},
1352 {"movi", 0x6f00e400, 0xfff8fc00, asimdimm
, 0, SIMD
, OP2 (Vd
, SIMD_IMM
), QL_SIMD_IMM_V2D
, F_SIZEQ
},
1353 {"fmov", 0x6f00f400, 0xfff8fc00, asimdimm
, 0, SIMD
, OP2 (Vd
, SIMD_FPIMM
), QL_SIMD_IMM_V2D
, F_SIZEQ
},
1355 {"dup", 0xe000400, 0xbfe0fc00, asimdins
, 0, SIMD
, OP2 (Vd
, En
), QL_DUP_VX
, F_T
},
1356 {"dup", 0xe000c00, 0xbfe0fc00, asimdins
, 0, SIMD
, OP2 (Vd
, Rn
), QL_DUP_VR
, F_T
},
1357 {"smov", 0xe002c00, 0xbfe0fc00, asimdins
, 0, SIMD
, OP2 (Rd
, En
), QL_SMOV
, F_GPRSIZE_IN_Q
},
1358 {"umov", 0xe003c00, 0xbfe0fc00, asimdins
, 0, SIMD
, OP2 (Rd
, En
), QL_UMOV
, F_HAS_ALIAS
| F_GPRSIZE_IN_Q
},
1359 {"mov", 0xe003c00, 0xbfe0fc00, asimdins
, 0, SIMD
, OP2 (Rd
, En
), QL_MOV
, F_ALIAS
| F_GPRSIZE_IN_Q
},
1360 {"ins", 0x4e001c00, 0xffe0fc00, asimdins
, 0, SIMD
, OP2 (Ed
, Rn
), QL_INS_XR
, F_HAS_ALIAS
},
1361 {"mov", 0x4e001c00, 0xffe0fc00, asimdins
, 0, SIMD
, OP2 (Ed
, Rn
), QL_INS_XR
, F_ALIAS
},
1362 {"ins", 0x6e000400, 0xffe08400, asimdins
, 0, SIMD
, OP2 (Ed
, En
), QL_S_2SAME
, F_HAS_ALIAS
},
1363 {"mov", 0x6e000400, 0xffe08400, asimdins
, 0, SIMD
, OP2 (Ed
, En
), QL_S_2SAME
, F_ALIAS
},
1364 /* AdvSIMD two-reg misc. */
1365 {"rev64", 0xe200800, 0xbf3ffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2SAMEBHS
, F_SIZEQ
},
1366 {"rev16", 0xe201800, 0xbf3ffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2SAMEB
, F_SIZEQ
},
1367 {"saddlp", 0xe202800, 0xbf3ffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2PAIRWISELONGBHS
, F_SIZEQ
},
1368 {"suqadd", 0xe203800, 0xbf3ffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2SAME
, F_SIZEQ
},
1369 {"cls", 0xe204800, 0xbf3ffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2SAMEBHS
, F_SIZEQ
},
1370 {"cnt", 0xe205800, 0xbf3ffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2SAMEB
, F_SIZEQ
},
1371 {"sadalp", 0xe206800, 0xbf3ffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2PAIRWISELONGBHS
, F_SIZEQ
},
1372 {"sqabs", 0xe207800, 0xbf3ffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2SAME
, F_SIZEQ
},
1373 {"cmgt", 0xe208800, 0xbf3ffc00, asimdmisc
, 0, SIMD
, OP3 (Vd
, Vn
, IMM0
), QL_V2SAME
, F_SIZEQ
},
1374 {"cmeq", 0xe209800, 0xbf3ffc00, asimdmisc
, 0, SIMD
, OP3 (Vd
, Vn
, IMM0
), QL_V2SAME
, F_SIZEQ
},
1375 {"cmlt", 0xe20a800, 0xbf3ffc00, asimdmisc
, 0, SIMD
, OP3 (Vd
, Vn
, IMM0
), QL_V2SAME
, F_SIZEQ
},
1376 {"abs", 0xe20b800, 0xbf3ffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2SAME
, F_SIZEQ
},
1377 {"xtn", 0xe212800, 0xff3ffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2NARRBHS
, F_SIZEQ
},
1378 {"xtn2", 0x4e212800, 0xff3ffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2NARRBHS2
, F_SIZEQ
},
1379 {"sqxtn", 0xe214800, 0xff3ffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2NARRBHS
, F_SIZEQ
},
1380 {"sqxtn2", 0x4e214800, 0xff3ffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2NARRBHS2
, F_SIZEQ
},
1381 {"fcvtn", 0xe216800, 0xffbffc00, asimdmisc
, OP_FCVTN
, SIMD
, OP2 (Vd
, Vn
), QL_V2NARRHS
, F_MISC
},
1382 {"fcvtn2", 0x4e216800, 0xffbffc00, asimdmisc
, OP_FCVTN2
, SIMD
, OP2 (Vd
, Vn
), QL_V2NARRHS2
, F_MISC
},
1383 {"fcvtl", 0xe217800, 0xffbffc00, asimdmisc
, OP_FCVTL
, SIMD
, OP2 (Vd
, Vn
), QL_V2LONGHS
, F_MISC
},
1384 {"fcvtl2", 0x4e217800, 0xffbffc00, asimdmisc
, OP_FCVTL2
, SIMD
, OP2 (Vd
, Vn
), QL_V2LONGHS2
, F_MISC
},
1385 {"frintn", 0xe218800, 0xbfbffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2SAMESD
, F_SIZEQ
},
1386 {"frintm", 0xe219800, 0xbfbffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2SAMESD
, F_SIZEQ
},
1387 {"fcvtns", 0xe21a800, 0xbfbffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2SAMESD
, F_SIZEQ
},
1388 {"fcvtms", 0xe21b800, 0xbfbffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2SAMESD
, F_SIZEQ
},
1389 {"fcvtas", 0xe21c800, 0xbfbffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2SAMESD
, F_SIZEQ
},
1390 {"scvtf", 0xe21d800, 0xbfbffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2SAMESD
, F_SIZEQ
},
1391 {"fcmgt", 0xea0c800, 0xbfbffc00, asimdmisc
, 0, SIMD
, OP3 (Vd
, Vn
, IMM0
), QL_V2SAMESD
, F_SIZEQ
},
1392 {"fcmeq", 0xea0d800, 0xbfbffc00, asimdmisc
, 0, SIMD
, OP3 (Vd
, Vn
, IMM0
), QL_V2SAMESD
, F_SIZEQ
},
1393 {"fcmlt", 0xea0e800, 0xbfbffc00, asimdmisc
, 0, SIMD
, OP3 (Vd
, Vn
, IMM0
), QL_V2SAMESD
, F_SIZEQ
},
1394 {"fabs", 0xea0f800, 0xbfbffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2SAMESD
, F_SIZEQ
},
1395 {"frintp", 0xea18800, 0xbfbffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2SAMESD
, F_SIZEQ
},
1396 {"frintz", 0xea19800, 0xbfbffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2SAMESD
, F_SIZEQ
},
1397 {"fcvtps", 0xea1a800, 0xbfbffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2SAMESD
, F_SIZEQ
},
1398 {"fcvtzs", 0xea1b800, 0xbfbffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2SAMESD
, F_SIZEQ
},
1399 {"urecpe", 0xea1c800, 0xbfbffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2SAMES
, F_SIZEQ
},
1400 {"frecpe", 0xea1d800, 0xbfbffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2SAMESD
, F_SIZEQ
},
1401 {"rev32", 0x2e200800, 0xbf3ffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2SAMEBH
, F_SIZEQ
},
1402 {"uaddlp", 0x2e202800, 0xbf3ffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2PAIRWISELONGBHS
, F_SIZEQ
},
1403 {"usqadd", 0x2e203800, 0xbf3ffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2SAME
, F_SIZEQ
},
1404 {"clz", 0x2e204800, 0xbf3ffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2SAMEBHS
, F_SIZEQ
},
1405 {"uadalp", 0x2e206800, 0xbf3ffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2PAIRWISELONGBHS
, F_SIZEQ
},
1406 {"sqneg", 0x2e207800, 0xbf3ffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2SAME
, F_SIZEQ
},
1407 {"cmge", 0x2e208800, 0xbf3ffc00, asimdmisc
, 0, SIMD
, OP3 (Vd
, Vn
, IMM0
), QL_V2SAME
, F_SIZEQ
},
1408 {"cmle", 0x2e209800, 0xbf3ffc00, asimdmisc
, 0, SIMD
, OP3 (Vd
, Vn
, IMM0
), QL_V2SAME
, F_SIZEQ
},
1409 {"neg", 0x2e20b800, 0xbf3ffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2SAME
, F_SIZEQ
},
1410 {"sqxtun", 0x2e212800, 0xff3ffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2NARRBHS
, F_SIZEQ
},
1411 {"sqxtun2", 0x6e212800, 0xff3ffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2NARRBHS2
, F_SIZEQ
},
1412 {"shll", 0x2e213800, 0xff3ffc00, asimdmisc
, 0, SIMD
, OP3 (Vd
, Vn
, SHLL_IMM
), QL_V2LONGBHS
, F_SIZEQ
},
1413 {"shll2", 0x6e213800, 0xff3ffc00, asimdmisc
, 0, SIMD
, OP3 (Vd
, Vn
, SHLL_IMM
), QL_V2LONGBHS2
, F_SIZEQ
},
1414 {"uqxtn", 0x2e214800, 0xff3ffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2NARRBHS
, F_SIZEQ
},
1415 {"uqxtn2", 0x6e214800, 0xff3ffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2NARRBHS2
, F_SIZEQ
},
1416 {"fcvtxn", 0x2e616800, 0xfffffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2NARRS
, 0},
1417 {"fcvtxn2", 0x6e616800, 0xfffffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2NARRS2
, 0},
1418 {"frinta", 0x2e218800, 0xbfbffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2SAMESD
, F_SIZEQ
},
1419 {"frintx", 0x2e219800, 0xbfbffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2SAMESD
, F_SIZEQ
},
1420 {"fcvtnu", 0x2e21a800, 0xbfbffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2SAMESD
, F_SIZEQ
},
1421 {"fcvtmu", 0x2e21b800, 0xbfbffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2SAMESD
, F_SIZEQ
},
1422 {"fcvtau", 0x2e21c800, 0xbfbffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2SAMESD
, F_SIZEQ
},
1423 {"ucvtf", 0x2e21d800, 0xbfbffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2SAMESD
, F_SIZEQ
},
1424 {"not", 0x2e205800, 0xbffffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2SAMEB
, F_SIZEQ
| F_HAS_ALIAS
},
1425 {"mvn", 0x2e205800, 0xbffffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2SAMEB
, F_SIZEQ
| F_ALIAS
},
1426 {"rbit", 0x2e605800, 0xbffffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2SAMEB
, F_SIZEQ
},
1427 {"fcmge", 0x2ea0c800, 0xbfbffc00, asimdmisc
, 0, SIMD
, OP3 (Vd
, Vn
, IMM0
), QL_V2SAMESD
, F_SIZEQ
},
1428 {"fcmle", 0x2ea0d800, 0xbfbffc00, asimdmisc
, 0, SIMD
, OP3 (Vd
, Vn
, IMM0
), QL_V2SAMESD
, F_SIZEQ
},
1429 {"fneg", 0x2ea0f800, 0xbfbffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2SAMESD
, F_SIZEQ
},
1430 {"frinti", 0x2ea19800, 0xbfbffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2SAMESD
, F_SIZEQ
},
1431 {"fcvtpu", 0x2ea1a800, 0xbfbffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2SAMESD
, F_SIZEQ
},
1432 {"fcvtzu", 0x2ea1b800, 0xbfbffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2SAMESD
, F_SIZEQ
},
1433 {"ursqrte", 0x2ea1c800, 0xbfbffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2SAMES
, F_SIZEQ
},
1434 {"frsqrte", 0x2ea1d800, 0xbfbffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2SAMESD
, F_SIZEQ
},
1435 {"fsqrt", 0x2ea1f800, 0xbfbffc00, asimdmisc
, 0, SIMD
, OP2 (Vd
, Vn
), QL_V2SAMESD
, F_SIZEQ
},
1436 /* AdvSIMD ZIP/UZP/TRN. */
1437 {"uzp1", 0xe001800, 0xbf20fc00, asimdperm
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAME
, F_SIZEQ
},
1438 {"trn1", 0xe002800, 0xbf20fc00, asimdperm
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAME
, F_SIZEQ
},
1439 {"zip1", 0xe003800, 0xbf20fc00, asimdperm
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAME
, F_SIZEQ
},
1440 {"uzp2", 0xe005800, 0xbf20fc00, asimdperm
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAME
, F_SIZEQ
},
1441 {"trn2", 0xe006800, 0xbf20fc00, asimdperm
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAME
, F_SIZEQ
},
1442 {"zip2", 0xe007800, 0xbf20fc00, asimdperm
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAME
, F_SIZEQ
},
1443 /* AdvSIMD three same. */
1444 {"shadd", 0xe200400, 0xbf20fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMEBHS
, F_SIZEQ
},
1445 {"sqadd", 0xe200c00, 0xbf20fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAME
, F_SIZEQ
},
1446 {"srhadd", 0xe201400, 0xbf20fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMEBHS
, F_SIZEQ
},
1447 {"shsub", 0xe202400, 0xbf20fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMEBHS
, F_SIZEQ
},
1448 {"sqsub", 0xe202c00, 0xbf20fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAME
, F_SIZEQ
},
1449 {"cmgt", 0xe203400, 0xbf20fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAME
, F_SIZEQ
},
1450 {"cmge", 0xe203c00, 0xbf20fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAME
, F_SIZEQ
},
1451 {"sshl", 0xe204400, 0xbf20fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAME
, F_SIZEQ
},
1452 {"sqshl", 0xe204c00, 0xbf20fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAME
, F_SIZEQ
},
1453 {"srshl", 0xe205400, 0xbf20fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAME
, F_SIZEQ
},
1454 {"sqrshl", 0xe205c00, 0xbf20fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAME
, F_SIZEQ
},
1455 {"smax", 0xe206400, 0xbf20fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMEBHS
, F_SIZEQ
},
1456 {"smin", 0xe206c00, 0xbf20fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMEBHS
, F_SIZEQ
},
1457 {"sabd", 0xe207400, 0xbf20fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMEBHS
, F_SIZEQ
},
1458 {"saba", 0xe207c00, 0xbf20fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMEBHS
, F_SIZEQ
},
1459 {"add", 0xe208400, 0xbf20fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAME
, F_SIZEQ
},
1460 {"cmtst", 0xe208c00, 0xbf20fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAME
, F_SIZEQ
},
1461 {"mla", 0xe209400, 0xbf20fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMEBHS
, F_SIZEQ
},
1462 {"mul", 0xe209c00, 0xbf20fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMEBHS
, F_SIZEQ
},
1463 {"smaxp", 0xe20a400, 0xbf20fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMEBHS
, F_SIZEQ
},
1464 {"sminp", 0xe20ac00, 0xbf20fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMEBHS
, F_SIZEQ
},
1465 {"sqdmulh", 0xe20b400, 0xbf20fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMEHS
, F_SIZEQ
},
1466 {"addp", 0xe20bc00, 0xbf20fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAME
, F_SIZEQ
},
1467 {"fmaxnm", 0xe20c400, 0xbfa0fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMESD
, F_SIZEQ
},
1468 {"fmla", 0xe20cc00, 0xbfa0fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMESD
, F_SIZEQ
},
1469 {"fadd", 0xe20d400, 0xbfa0fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMESD
, F_SIZEQ
},
1470 {"fmulx", 0xe20dc00, 0xbfa0fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMESD
, F_SIZEQ
},
1471 {"fcmeq", 0xe20e400, 0xbfa0fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMESD
, F_SIZEQ
},
1472 {"fmax", 0xe20f400, 0xbfa0fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMESD
, F_SIZEQ
},
1473 {"frecps", 0xe20fc00, 0xbfa0fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMESD
, F_SIZEQ
},
1474 {"and", 0xe201c00, 0xbfe0fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMEB
, F_SIZEQ
},
1475 {"bic", 0xe601c00, 0xbfe0fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMEB
, F_SIZEQ
},
1476 {"fminnm", 0xea0c400, 0xbfa0fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMESD
, F_SIZEQ
},
1477 {"fmls", 0xea0cc00, 0xbfa0fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMESD
, F_SIZEQ
},
1478 {"fsub", 0xea0d400, 0xbfa0fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMESD
, F_SIZEQ
},
1479 {"fmin", 0xea0f400, 0xbfa0fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMESD
, F_SIZEQ
},
1480 {"frsqrts", 0xea0fc00, 0xbfa0fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMESD
, F_SIZEQ
},
1481 {"orr", 0xea01c00, 0xbfe0fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMEB
, F_HAS_ALIAS
| F_SIZEQ
},
1482 {"mov", 0xea01c00, 0xbfe0fc00, asimdsame
, OP_MOV_V
, SIMD
, OP2 (Vd
, Vn
), QL_V2SAMEB
, F_ALIAS
| F_CONV
},
1483 {"orn", 0xee01c00, 0xbfe0fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMEB
, F_SIZEQ
},
1484 {"uhadd", 0x2e200400, 0xbf20fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMEBHS
, F_SIZEQ
},
1485 {"uqadd", 0x2e200c00, 0xbf20fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAME
, F_SIZEQ
},
1486 {"urhadd", 0x2e201400, 0xbf20fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMEBHS
, F_SIZEQ
},
1487 {"uhsub", 0x2e202400, 0xbf20fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMEBHS
, F_SIZEQ
},
1488 {"uqsub", 0x2e202c00, 0xbf20fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAME
, F_SIZEQ
},
1489 {"cmhi", 0x2e203400, 0xbf20fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAME
, F_SIZEQ
},
1490 {"cmhs", 0x2e203c00, 0xbf20fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAME
, F_SIZEQ
},
1491 {"ushl", 0x2e204400, 0xbf20fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAME
, F_SIZEQ
},
1492 {"uqshl", 0x2e204c00, 0xbf20fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAME
, F_SIZEQ
},
1493 {"urshl", 0x2e205400, 0xbf20fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAME
, F_SIZEQ
},
1494 {"uqrshl", 0x2e205c00, 0xbf20fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAME
, F_SIZEQ
},
1495 {"umax", 0x2e206400, 0xbf20fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMEBHS
, F_SIZEQ
},
1496 {"umin", 0x2e206c00, 0xbf20fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMEBHS
, F_SIZEQ
},
1497 {"uabd", 0x2e207400, 0xbf20fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMEBHS
, F_SIZEQ
},
1498 {"uaba", 0x2e207c00, 0xbf20fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMEBHS
, F_SIZEQ
},
1499 {"sub", 0x2e208400, 0xbf20fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAME
, F_SIZEQ
},
1500 {"cmeq", 0x2e208c00, 0xbf20fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAME
, F_SIZEQ
},
1501 {"mls", 0x2e209400, 0xbf20fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMEBHS
, F_SIZEQ
},
1502 {"pmul", 0x2e209c00, 0xbf20fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMEB
, F_SIZEQ
},
1503 {"umaxp", 0x2e20a400, 0xbf20fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMEBHS
, F_SIZEQ
},
1504 {"uminp", 0x2e20ac00, 0xbf20fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMEBHS
, F_SIZEQ
},
1505 {"sqrdmulh", 0x2e20b400, 0xbf20fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMEHS
, F_SIZEQ
},
1506 {"fmaxnmp", 0x2e20c400, 0xbfa0fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMESD
, F_SIZEQ
},
1507 {"faddp", 0x2e20d400, 0xbfa0fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMESD
, F_SIZEQ
},
1508 {"fmul", 0x2e20dc00, 0xbfa0fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMESD
, F_SIZEQ
},
1509 {"fcmge", 0x2e20e400, 0xbfa0fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMESD
, F_SIZEQ
},
1510 {"facge", 0x2e20ec00, 0xbfa0fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMESD
, F_SIZEQ
},
1511 {"fmaxp", 0x2e20f400, 0xbfa0fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMESD
, F_SIZEQ
},
1512 {"fdiv", 0x2e20fc00, 0xbfa0fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMESD
, F_SIZEQ
},
1513 {"eor", 0x2e201c00, 0xbfe0fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMEB
, F_SIZEQ
},
1514 {"bsl", 0x2e601c00, 0xbfe0fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMEB
, F_SIZEQ
},
1515 {"fminnmp", 0x2ea0c400, 0xbfa0fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMESD
, F_SIZEQ
},
1516 {"fabd", 0x2ea0d400, 0xbfa0fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMESD
, F_SIZEQ
},
1517 {"fcmgt", 0x2ea0e400, 0xbfa0fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMESD
, F_SIZEQ
},
1518 {"facgt", 0x2ea0ec00, 0xbfa0fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMESD
, F_SIZEQ
},
1519 {"fminp", 0x2ea0f400, 0xbfa0fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMESD
, F_SIZEQ
},
1520 {"bit", 0x2ea01c00, 0xbfe0fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMEB
, F_SIZEQ
},
1521 {"bif", 0x2ee01c00, 0xbfe0fc00, asimdsame
, 0, SIMD
, OP3 (Vd
, Vn
, Vm
), QL_V3SAMEB
, F_SIZEQ
},
1522 /* AdvSIMD shift by immediate. */
1523 {"sshr", 0xf000400, 0xbf80fc00, asimdshf
, 0, SIMD
, OP3 (Vd
, Vn
, IMM_VLSR
), QL_VSHIFT
, 0},
1524 {"ssra", 0xf001400, 0xbf80fc00, asimdshf
, 0, SIMD
, OP3 (Vd
, Vn
, IMM_VLSR
), QL_VSHIFT
, 0},
1525 {"srshr", 0xf002400, 0xbf80fc00, asimdshf
, 0, SIMD
, OP3 (Vd
, Vn
, IMM_VLSR
), QL_VSHIFT
, 0},
1526 {"srsra", 0xf003400, 0xbf80fc00, asimdshf
, 0, SIMD
, OP3 (Vd
, Vn
, IMM_VLSR
), QL_VSHIFT
, 0},
1527 {"shl", 0xf005400, 0xbf80fc00, asimdshf
, 0, SIMD
, OP3 (Vd
, Vn
, IMM_VLSL
), QL_VSHIFT
, 0},
1528 {"sqshl", 0xf007400, 0xbf80fc00, asimdshf
, 0, SIMD
, OP3 (Vd
, Vn
, IMM_VLSL
), QL_VSHIFT
, 0},
1529 {"shrn", 0xf008400, 0xff80fc00, asimdshf
, 0, SIMD
, OP3 (Vd
, Vn
, IMM_VLSR
), QL_VSHIFTN
, 0},
1530 {"shrn2", 0x4f008400, 0xff80fc00, asimdshf
, 0, SIMD
, OP3 (Vd
, Vn
, IMM_VLSR
), QL_VSHIFTN2
, 0},
1531 {"rshrn", 0xf008c00, 0xff80fc00, asimdshf
, 0, SIMD
, OP3 (Vd
, Vn
, IMM_VLSR
), QL_VSHIFTN
, 0},
1532 {"rshrn2", 0x4f008c00, 0xff80fc00, asimdshf
, 0, SIMD
, OP3 (Vd
, Vn
, IMM_VLSR
), QL_VSHIFTN2
, 0},
1533 {"sqshrn", 0xf009400, 0xff80fc00, asimdshf
, 0, SIMD
, OP3 (Vd
, Vn
, IMM_VLSR
), QL_VSHIFTN
, 0},
1534 {"sqshrn2", 0x4f009400, 0xff80fc00, asimdshf
, 0, SIMD
, OP3 (Vd
, Vn
, IMM_VLSR
), QL_VSHIFTN2
, 0},
1535 {"sqrshrn", 0xf009c00, 0xff80fc00, asimdshf
, 0, SIMD
, OP3 (Vd
, Vn
, IMM_VLSR
), QL_VSHIFTN
, 0},
1536 {"sqrshrn2", 0x4f009c00, 0xff80fc00, asimdshf
, 0, SIMD
, OP3 (Vd
, Vn
, IMM_VLSR
), QL_VSHIFTN2
, 0},
1537 {"sshll", 0xf00a400, 0xff80fc00, asimdshf
, 0, SIMD
, OP3 (Vd
, Vn
, IMM_VLSL
), QL_VSHIFTL
, 0},
1538 {"sshll2", 0x4f00a400, 0xff80fc00, asimdshf
, 0, SIMD
, OP3 (Vd
, Vn
, IMM_VLSL
), QL_VSHIFTL2
, 0},
1539 {"scvtf", 0xf00e400, 0xbf80fc00, asimdshf
, 0, SIMD
, OP3 (Vd
, Vn
, IMM_VLSR
), QL_VSHIFT_SD
, 0},
1540 {"fcvtzs", 0xf00fc00, 0xbf80fc00, asimdshf
, 0, SIMD
, OP3 (Vd
, Vn
, IMM_VLSR
), QL_VSHIFT_SD
, 0},
1541 {"ushr", 0x2f000400, 0xbf80fc00, asimdshf
, 0, SIMD
, OP3 (Vd
, Vn
, IMM_VLSR
), QL_VSHIFT
, 0},
1542 {"usra", 0x2f001400, 0xbf80fc00, asimdshf
, 0, SIMD
, OP3 (Vd
, Vn
, IMM_VLSR
), QL_VSHIFT
, 0},
1543 {"urshr", 0x2f002400, 0xbf80fc00, asimdshf
, 0, SIMD
, OP3 (Vd
, Vn
, IMM_VLSR
), QL_VSHIFT
, 0},
1544 {"ursra", 0x2f003400, 0xbf80fc00, asimdshf
, 0, SIMD
, OP3 (Vd
, Vn
, IMM_VLSR
), QL_VSHIFT
, 0},
1545 {"sri", 0x2f004400, 0xbf80fc00, asimdshf
, 0, SIMD
, OP3 (Vd
, Vn
, IMM_VLSR
), QL_VSHIFT
, 0},
1546 {"sli", 0x2f005400, 0xbf80fc00, asimdshf
, 0, SIMD
, OP3 (Vd
, Vn
, IMM_VLSL
), QL_VSHIFT
, 0},
1547 {"sqshlu", 0x2f006400, 0xbf80fc00, asimdshf
, 0, SIMD
, OP3 (Vd
, Vn
, IMM_VLSL
), QL_VSHIFT
, 0},
1548 {"uqshl", 0x2f007400, 0xbf80fc00, asimdshf
, 0, SIMD
, OP3 (Vd
, Vn
, IMM_VLSL
), QL_VSHIFT
, 0},
1549 {"sqshrun", 0x2f008400, 0xff80fc00, asimdshf
, 0, SIMD
, OP3 (Vd
, Vn
, IMM_VLSR
), QL_VSHIFTN
, 0},
1550 {"sqshrun2", 0x6f008400, 0xff80fc00, asimdshf
, 0, SIMD
, OP3 (Vd
, Vn
, IMM_VLSR
), QL_VSHIFTN2
, 0},
1551 {"sqrshrun", 0x2f008c00, 0xff80fc00, asimdshf
, 0, SIMD
, OP3 (Vd
, Vn
, IMM_VLSR
), QL_VSHIFTN
, 0},
1552 {"sqrshrun2", 0x6f008c00, 0xff80fc00, asimdshf
, 0, SIMD
, OP3 (Vd
, Vn
, IMM_VLSR
), QL_VSHIFTN2
, 0},
1553 {"uqshrn", 0x2f009400, 0xff80fc00, asimdshf
, 0, SIMD
, OP3 (Vd
, Vn
, IMM_VLSR
), QL_VSHIFTN
, 0},
1554 {"uqshrn2", 0x6f009400, 0xff80fc00, asimdshf
, 0, SIMD
, OP3 (Vd
, Vn
, IMM_VLSR
), QL_VSHIFTN2
, 0},
1555 {"uqrshrn", 0x2f009c00, 0xff80fc00, asimdshf
, 0, SIMD
, OP3 (Vd
, Vn
, IMM_VLSR
), QL_VSHIFTN
, 0},
1556 {"uqrshrn2", 0x6f009c00, 0xff80fc00, asimdshf
, 0, SIMD
, OP3 (Vd
, Vn
, IMM_VLSR
), QL_VSHIFTN2
, 0},
1557 {"ushll", 0x2f00a400, 0xff80fc00, asimdshf
, 0, SIMD
, OP3 (Vd
, Vn
, IMM_VLSL
), QL_VSHIFTL
, 0},
1558 {"ushll2", 0x6f00a400, 0xff80fc00, asimdshf
, 0, SIMD
, OP3 (Vd
, Vn
, IMM_VLSL
), QL_VSHIFTL2
, 0},
1559 {"ucvtf", 0x2f00e400, 0xbf80fc00, asimdshf
, 0, SIMD
, OP3 (Vd
, Vn
, IMM_VLSR
), QL_VSHIFT_SD
, 0},
1560 {"fcvtzu", 0x2f00fc00, 0xbf80fc00, asimdshf
, 0, SIMD
, OP3 (Vd
, Vn
, IMM_VLSR
), QL_VSHIFT_SD
, 0},
1561 /* AdvSIMD TBL/TBX. */
1562 {"tbl", 0xe000000, 0xbfe09c00, asimdtbl
, 0, SIMD
, OP3 (Vd
, LVn
, Vm
), QL_TABLE
, F_SIZEQ
},
1563 {"tbx", 0xe001000, 0xbfe09c00, asimdtbl
, 0, SIMD
, OP3 (Vd
, LVn
, Vm
), QL_TABLE
, F_SIZEQ
},
1564 /* AdvSIMD scalar three different. */
1565 {"sqdmlal", 0x5e209000, 0xff20fc00, asisddiff
, 0, SIMD
, OP3 (Sd
, Sn
, Sm
), QL_SISDL_HS
, F_SSIZE
},
1566 {"sqdmlsl", 0x5e20b000, 0xff20fc00, asisddiff
, 0, SIMD
, OP3 (Sd
, Sn
, Sm
), QL_SISDL_HS
, F_SSIZE
},
1567 {"sqdmull", 0x5e20d000, 0xff20fc00, asisddiff
, 0, SIMD
, OP3 (Sd
, Sn
, Sm
), QL_SISDL_HS
, F_SSIZE
},
1568 /* AdvSIMD scalar x indexed element. */
1569 {"sqdmlal", 0x5f003000, 0xff00f400, asisdelem
, 0, SIMD
, OP3 (Sd
, Sn
, Em
), QL_SISDL_HS
, F_SSIZE
},
1570 {"sqdmlsl", 0x5f007000, 0xff00f400, asisdelem
, 0, SIMD
, OP3 (Sd
, Sn
, Em
), QL_SISDL_HS
, F_SSIZE
},
1571 {"sqdmull", 0x5f00b000, 0xff00f400, asisdelem
, 0, SIMD
, OP3 (Sd
, Sn
, Em
), QL_SISDL_HS
, F_SSIZE
},
1572 {"sqdmulh", 0x5f00c000, 0xff00f400, asisdelem
, 0, SIMD
, OP3 (Sd
, Sn
, Em
), QL_SISD_HS
, F_SSIZE
},
1573 {"sqrdmulh", 0x5f00d000, 0xff00f400, asisdelem
, 0, SIMD
, OP3 (Sd
, Sn
, Em
), QL_SISD_HS
, F_SSIZE
},
1574 {"fmla", 0x5f801000, 0xff80f400, asisdelem
, 0, SIMD
, OP3 (Sd
, Sn
, Em
), QL_FP3
, F_SSIZE
},
1575 {"fmls", 0x5f805000, 0xff80f400, asisdelem
, 0, SIMD
, OP3 (Sd
, Sn
, Em
), QL_FP3
, F_SSIZE
},
1576 {"fmul", 0x5f809000, 0xff80f400, asisdelem
, 0, SIMD
, OP3 (Sd
, Sn
, Em
), QL_FP3
, F_SSIZE
},
1577 {"fmulx", 0x7f809000, 0xff80f400, asisdelem
, 0, SIMD
, OP3 (Sd
, Sn
, Em
), QL_FP3
, F_SSIZE
},
1578 /* AdvSIMD load/store multiple structures. */
1579 {"st4", 0xc000000, 0xbfff0000, asisdlse
, 0, SIMD
, OP2 (LVt
, SIMD_ADDR_SIMPLE
), QL_SIMD_LDST
, F_SIZEQ
| F_OD(4)},
1580 {"st1", 0xc000000, 0xbfff0000, asisdlse
, 0, SIMD
, OP2 (LVt
, SIMD_ADDR_SIMPLE
), QL_SIMD_LDST_ANY
, F_SIZEQ
| F_OD(1)},
1581 {"st2", 0xc000000, 0xbfff0000, asisdlse
, 0, SIMD
, OP2 (LVt
, SIMD_ADDR_SIMPLE
), QL_SIMD_LDST
, F_SIZEQ
| F_OD(2)},
1582 {"st3", 0xc000000, 0xbfff0000, asisdlse
, 0, SIMD
, OP2 (LVt
, SIMD_ADDR_SIMPLE
), QL_SIMD_LDST
, F_SIZEQ
| F_OD(3)},
1583 {"ld4", 0xc400000, 0xbfff0000, asisdlse
, 0, SIMD
, OP2 (LVt
, SIMD_ADDR_SIMPLE
), QL_SIMD_LDST
, F_SIZEQ
| F_OD(4)},
1584 {"ld1", 0xc400000, 0xbfff0000, asisdlse
, 0, SIMD
, OP2 (LVt
, SIMD_ADDR_SIMPLE
), QL_SIMD_LDST_ANY
, F_SIZEQ
| F_OD(1)},
1585 {"ld2", 0xc400000, 0xbfff0000, asisdlse
, 0, SIMD
, OP2 (LVt
, SIMD_ADDR_SIMPLE
), QL_SIMD_LDST
, F_SIZEQ
| F_OD(2)},
1586 {"ld3", 0xc400000, 0xbfff0000, asisdlse
, 0, SIMD
, OP2 (LVt
, SIMD_ADDR_SIMPLE
), QL_SIMD_LDST
, F_SIZEQ
| F_OD(3)},
1587 /* AdvSIMD load/store multiple structures (post-indexed). */
1588 {"st4", 0xc800000, 0xbfe00000, asisdlsep
, 0, SIMD
, OP2 (LVt
, SIMD_ADDR_POST
), QL_SIMD_LDST
, F_SIZEQ
| F_OD(4)},
1589 {"st1", 0xc800000, 0xbfe00000, asisdlsep
, 0, SIMD
, OP2 (LVt
, SIMD_ADDR_POST
), QL_SIMD_LDST_ANY
, F_SIZEQ
| F_OD(1)},
1590 {"st2", 0xc800000, 0xbfe00000, asisdlsep
, 0, SIMD
, OP2 (LVt
, SIMD_ADDR_POST
), QL_SIMD_LDST
, F_SIZEQ
| F_OD(2)},
1591 {"st3", 0xc800000, 0xbfe00000, asisdlsep
, 0, SIMD
, OP2 (LVt
, SIMD_ADDR_POST
), QL_SIMD_LDST
, F_SIZEQ
| F_OD(3)},
1592 {"ld4", 0xcc00000, 0xbfe00000, asisdlsep
, 0, SIMD
, OP2 (LVt
, SIMD_ADDR_POST
), QL_SIMD_LDST
, F_SIZEQ
| F_OD(4)},
1593 {"ld1", 0xcc00000, 0xbfe00000, asisdlsep
, 0, SIMD
, OP2 (LVt
, SIMD_ADDR_POST
), QL_SIMD_LDST_ANY
, F_SIZEQ
| F_OD(1)},
1594 {"ld2", 0xcc00000, 0xbfe00000, asisdlsep
, 0, SIMD
, OP2 (LVt
, SIMD_ADDR_POST
), QL_SIMD_LDST
, F_SIZEQ
| F_OD(2)},
1595 {"ld3", 0xcc00000, 0xbfe00000, asisdlsep
, 0, SIMD
, OP2 (LVt
, SIMD_ADDR_POST
), QL_SIMD_LDST
, F_SIZEQ
| F_OD(3)},
1596 /* AdvSIMD load/store single structure. */
1597 {"st1", 0xd000000, 0xbfff2000, asisdlso
, 0, SIMD
, OP2 (LEt
, SIMD_ADDR_SIMPLE
), QL_SIMD_LDSTONE
, F_OD(1)},
1598 {"st3", 0xd002000, 0xbfff2000, asisdlso
, 0, SIMD
, OP2 (LEt
, SIMD_ADDR_SIMPLE
), QL_SIMD_LDSTONE
, F_OD(3)},
1599 {"st2", 0xd200000, 0xbfff2000, asisdlso
, 0, SIMD
, OP2 (LEt
, SIMD_ADDR_SIMPLE
), QL_SIMD_LDSTONE
, F_OD(2)},
1600 {"st4", 0xd202000, 0xbfff2000, asisdlso
, 0, SIMD
, OP2 (LEt
, SIMD_ADDR_SIMPLE
), QL_SIMD_LDSTONE
, F_OD(4)},
1601 {"ld1", 0xd400000, 0xbfff2000, asisdlso
, 0, SIMD
, OP2 (LEt
, SIMD_ADDR_SIMPLE
), QL_SIMD_LDSTONE
, F_OD(1)},
1602 {"ld3", 0xd402000, 0xbfff2000, asisdlso
, 0, SIMD
, OP2 (LEt
, SIMD_ADDR_SIMPLE
), QL_SIMD_LDSTONE
, F_OD(3)},
1603 {"ld1r", 0xd40c000, 0xbfffe000, asisdlso
, 0, SIMD
, OP2 (LVt_AL
, SIMD_ADDR_SIMPLE
), QL_SIMD_LDST_ANY
, F_SIZEQ
| F_OD(1)},
1604 {"ld3r", 0xd40e000, 0xbfffe000, asisdlso
, 0, SIMD
, OP2 (LVt_AL
, SIMD_ADDR_SIMPLE
), QL_SIMD_LDST_ANY
, F_SIZEQ
| F_OD(3)},
1605 {"ld2", 0xd600000, 0xbfff2000, asisdlso
, 0, SIMD
, OP2 (LEt
, SIMD_ADDR_SIMPLE
), QL_SIMD_LDSTONE
, F_OD(2)},
1606 {"ld4", 0xd602000, 0xbfff2000, asisdlso
, 0, SIMD
, OP2 (LEt
, SIMD_ADDR_SIMPLE
), QL_SIMD_LDSTONE
, F_OD(4)},
1607 {"ld2r", 0xd60c000, 0xbfffe000, asisdlso
, 0, SIMD
, OP2 (LVt_AL
, SIMD_ADDR_SIMPLE
), QL_SIMD_LDST_ANY
, F_SIZEQ
| F_OD(2)},
1608 {"ld4r", 0xd60e000, 0xbfffe000, asisdlso
, 0, SIMD
, OP2 (LVt_AL
, SIMD_ADDR_SIMPLE
), QL_SIMD_LDST_ANY
, F_SIZEQ
| F_OD(4)},
1609 /* AdvSIMD load/store single structure (post-indexed). */
1610 {"st1", 0xd800000, 0xbfe02000, asisdlsop
, 0, SIMD
, OP2 (LEt
, SIMD_ADDR_POST
), QL_SIMD_LDSTONE
, F_OD(1)},
1611 {"st3", 0xd802000, 0xbfe02000, asisdlsop
, 0, SIMD
, OP2 (LEt
, SIMD_ADDR_POST
), QL_SIMD_LDSTONE
, F_OD(3)},
1612 {"st2", 0xda00000, 0xbfe02000, asisdlsop
, 0, SIMD
, OP2 (LEt
, SIMD_ADDR_POST
), QL_SIMD_LDSTONE
, F_OD(2)},
1613 {"st4", 0xda02000, 0xbfe02000, asisdlsop
, 0, SIMD
, OP2 (LEt
, SIMD_ADDR_POST
), QL_SIMD_LDSTONE
, F_OD(4)},
1614 {"ld1", 0xdc00000, 0xbfe02000, asisdlsop
, 0, SIMD
, OP2 (LEt
, SIMD_ADDR_POST
), QL_SIMD_LDSTONE
, F_OD(1)},
1615 {"ld3", 0xdc02000, 0xbfe02000, asisdlsop
, 0, SIMD
, OP2 (LEt
, SIMD_ADDR_POST
), QL_SIMD_LDSTONE
, F_OD(3)},
1616 {"ld1r", 0xdc0c000, 0xbfe0e000, asisdlsop
, 0, SIMD
, OP2 (LVt_AL
, SIMD_ADDR_POST
), QL_SIMD_LDST_ANY
, F_SIZEQ
| F_OD(1)},
1617 {"ld3r", 0xdc0e000, 0xbfe0e000, asisdlsop
, 0, SIMD
, OP2 (LVt_AL
, SIMD_ADDR_POST
), QL_SIMD_LDST_ANY
, F_SIZEQ
| F_OD(3)},
1618 {"ld2", 0xde00000, 0xbfe02000, asisdlsop
, 0, SIMD
, OP2 (LEt
, SIMD_ADDR_POST
), QL_SIMD_LDSTONE
, F_OD(2)},
1619 {"ld4", 0xde02000, 0xbfe02000, asisdlsop
, 0, SIMD
, OP2 (LEt
, SIMD_ADDR_POST
), QL_SIMD_LDSTONE
, F_OD(4)},
1620 {"ld2r", 0xde0c000, 0xbfe0e000, asisdlsop
, 0, SIMD
, OP2 (LVt_AL
, SIMD_ADDR_POST
), QL_SIMD_LDST_ANY
, F_SIZEQ
| F_OD(2)},
1621 {"ld4r", 0xde0e000, 0xbfe0e000, asisdlsop
, 0, SIMD
, OP2 (LVt_AL
, SIMD_ADDR_POST
), QL_SIMD_LDST_ANY
, F_SIZEQ
| F_OD(4)},
1622 /* AdvSIMD scalar two-reg misc. */
1623 {"suqadd", 0x5e203800, 0xff3ffc00, asisdmisc
, 0, SIMD
, OP2 (Sd
, Sn
), QL_S_2SAME
, F_SSIZE
},
1624 {"sqabs", 0x5e207800, 0xff3ffc00, asisdmisc
, 0, SIMD
, OP2 (Sd
, Sn
), QL_S_2SAME
, F_SSIZE
},
1625 {"cmgt", 0x5e208800, 0xff3ffc00, asisdmisc
, 0, SIMD
, OP3 (Sd
, Sn
, IMM0
), QL_SISD_CMP_0
, F_SSIZE
},
1626 {"cmeq", 0x5e209800, 0xff3ffc00, asisdmisc
, 0, SIMD
, OP3 (Sd
, Sn
, IMM0
), QL_SISD_CMP_0
, F_SSIZE
},
1627 {"cmlt", 0x5e20a800, 0xff3ffc00, asisdmisc
, 0, SIMD
, OP3 (Sd
, Sn
, IMM0
), QL_SISD_CMP_0
, F_SSIZE
},
1628 {"abs", 0x5e20b800, 0xff3ffc00, asisdmisc
, 0, SIMD
, OP2 (Sd
, Sn
), QL_2SAMED
, F_SSIZE
},
1629 {"sqxtn", 0x5e214800, 0xff3ffc00, asisdmisc
, 0, SIMD
, OP2 (Sd
, Sn
), QL_SISD_NARROW
, F_SSIZE
},
1630 {"fcvtns", 0x5e21a800, 0xffbffc00, asisdmisc
, 0, SIMD
, OP2 (Sd
, Sn
), QL_S_2SAMESD
, F_SSIZE
},
1631 {"fcvtms", 0x5e21b800, 0xffbffc00, asisdmisc
, 0, SIMD
, OP2 (Sd
, Sn
), QL_S_2SAMESD
, F_SSIZE
},
1632 {"fcvtas", 0x5e21c800, 0xffbffc00, asisdmisc
, 0, SIMD
, OP2 (Sd
, Sn
), QL_S_2SAMESD
, F_SSIZE
},
1633 {"scvtf", 0x5e21d800, 0xffbffc00, asisdmisc
, 0, SIMD
, OP2 (Sd
, Sn
), QL_S_2SAMESD
, F_SSIZE
},
1634 {"fcmgt", 0x5ea0c800, 0xffbffc00, asisdmisc
, 0, SIMD
, OP3 (Sd
, Sn
, IMM0
), QL_SISD_FCMP_0
, F_SSIZE
},
1635 {"fcmeq", 0x5ea0d800, 0xffbffc00, asisdmisc
, 0, SIMD
, OP3 (Sd
, Sn
, IMM0
), QL_SISD_FCMP_0
, F_SSIZE
},
1636 {"fcmlt", 0x5ea0e800, 0xffbffc00, asisdmisc
, 0, SIMD
, OP3 (Sd
, Sn
, IMM0
), QL_SISD_FCMP_0
, F_SSIZE
},
1637 {"fcvtps", 0x5ea1a800, 0xffbffc00, asisdmisc
, 0, SIMD
, OP2 (Sd
, Sn
), QL_S_2SAMESD
, F_SSIZE
},
1638 {"fcvtzs", 0x5ea1b800, 0xffbffc00, asisdmisc
, 0, SIMD
, OP2 (Sd
, Sn
), QL_S_2SAMESD
, F_SSIZE
},
1639 {"frecpe", 0x5ea1d800, 0xffbffc00, asisdmisc
, 0, SIMD
, OP2 (Sd
, Sn
), QL_S_2SAMESD
, F_SSIZE
},
1640 {"frecpx", 0x5ea1f800, 0xffbffc00, asisdmisc
, 0, SIMD
, OP2 (Sd
, Sn
), QL_S_2SAMESD
, F_SSIZE
},
1641 {"usqadd", 0x7e203800, 0xff3ffc00, asisdmisc
, 0, SIMD
, OP2 (Sd
, Sn
), QL_S_2SAME
, F_SSIZE
},
1642 {"sqneg", 0x7e207800, 0xff3ffc00, asisdmisc
, 0, SIMD
, OP2 (Sd
, Sn
), QL_S_2SAME
, F_SSIZE
},
1643 {"cmge", 0x7e208800, 0xff3ffc00, asisdmisc
, 0, SIMD
, OP3 (Sd
, Sn
, IMM0
), QL_SISD_CMP_0
, F_SSIZE
},
1644 {"cmle", 0x7e209800, 0xff3ffc00, asisdmisc
, 0, SIMD
, OP3 (Sd
, Sn
, IMM0
), QL_SISD_CMP_0
, F_SSIZE
},
1645 {"neg", 0x7e20b800, 0xff3ffc00, asisdmisc
, 0, SIMD
, OP2 (Sd
, Sn
), QL_2SAMED
, F_SSIZE
},
1646 {"sqxtun", 0x7e212800, 0xff3ffc00, asisdmisc
, 0, SIMD
, OP2 (Sd
, Sn
), QL_SISD_NARROW
, F_SSIZE
},
1647 {"uqxtn", 0x7e214800, 0xff3ffc00, asisdmisc
, 0, SIMD
, OP2 (Sd
, Sn
), QL_SISD_NARROW
, F_SSIZE
},
1648 {"fcvtxn", 0x7e216800, 0xffbffc00, asisdmisc
, OP_FCVTXN_S
, SIMD
, OP2 (Sd
, Sn
), QL_SISD_NARROW_S
, F_MISC
},
1649 {"fcvtnu", 0x7e21a800, 0xffbffc00, asisdmisc
, 0, SIMD
, OP2 (Sd
, Sn
), QL_S_2SAMESD
, F_SSIZE
},
1650 {"fcvtmu", 0x7e21b800, 0xffbffc00, asisdmisc
, 0, SIMD
, OP2 (Sd
, Sn
), QL_S_2SAMESD
, F_SSIZE
},
1651 {"fcvtau", 0x7e21c800, 0xffbffc00, asisdmisc
, 0, SIMD
, OP2 (Sd
, Sn
), QL_S_2SAMESD
, F_SSIZE
},
1652 {"ucvtf", 0x7e21d800, 0xffbffc00, asisdmisc
, 0, SIMD
, OP2 (Sd
, Sn
), QL_S_2SAMESD
, F_SSIZE
},
1653 {"fcmge", 0x7ea0c800, 0xffbffc00, asisdmisc
, 0, SIMD
, OP3 (Sd
, Sn
, IMM0
), QL_SISD_FCMP_0
, F_SSIZE
},
1654 {"fcmle", 0x7ea0d800, 0xffbffc00, asisdmisc
, 0, SIMD
, OP3 (Sd
, Sn
, IMM0
), QL_SISD_FCMP_0
, F_SSIZE
},
1655 {"fcvtpu", 0x7ea1a800, 0xffbffc00, asisdmisc
, 0, SIMD
, OP2 (Sd
, Sn
), QL_S_2SAMESD
, F_SSIZE
},
1656 {"fcvtzu", 0x7ea1b800, 0xffbffc00, asisdmisc
, 0, SIMD
, OP2 (Sd
, Sn
), QL_S_2SAMESD
, F_SSIZE
},
1657 {"frsqrte", 0x7ea1d800, 0xffbffc00, asisdmisc
, 0, SIMD
, OP2 (Sd
, Sn
), QL_S_2SAMESD
, F_SSIZE
},
1658 /* AdvSIMD scalar copy. */
1659 {"dup", 0x5e000400, 0xffe0fc00, asisdone
, 0, SIMD
, OP2 (Sd
, En
), QL_S_2SAME
, F_HAS_ALIAS
},
1660 {"mov", 0x5e000400, 0xffe0fc00, asisdone
, 0, SIMD
, OP2 (Sd
, En
), QL_S_2SAME
, F_ALIAS
},
1661 /* AdvSIMD scalar pairwise. */
1662 {"addp", 0x5e31b800, 0xff3ffc00, asisdpair
, 0, SIMD
, OP2 (Sd
, Vn
), QL_SISD_PAIR_D
, F_SIZEQ
},
1663 {"fmaxnmp", 0x7e30c800, 0xffbffc00, asisdpair
, 0, SIMD
, OP2 (Sd
, Vn
), QL_SISD_PAIR
, F_SIZEQ
},
1664 {"faddp", 0x7e30d800, 0xffbffc00, asisdpair
, 0, SIMD
, OP2 (Sd
, Vn
), QL_SISD_PAIR
, F_SIZEQ
},
1665 {"fmaxp", 0x7e30f800, 0xffbffc00, asisdpair
, 0, SIMD
, OP2 (Sd
, Vn
), QL_SISD_PAIR
, F_SIZEQ
},
1666 {"fminnmp", 0x7eb0c800, 0xffbffc00, asisdpair
, 0, SIMD
, OP2 (Sd
, Vn
), QL_SISD_PAIR
, F_SIZEQ
},
1667 {"fminp", 0x7eb0f800, 0xffbffc00, asisdpair
, 0, SIMD
, OP2 (Sd
, Vn
), QL_SISD_PAIR
, F_SIZEQ
},
1668 /* AdvSIMD scalar three same. */
1669 {"sqadd", 0x5e200c00, 0xff20fc00, asisdsame
, 0, SIMD
, OP3 (Sd
, Sn
, Sm
), QL_S_3SAME
, F_SSIZE
},
1670 {"sqsub", 0x5e202c00, 0xff20fc00, asisdsame
, 0, SIMD
, OP3 (Sd
, Sn
, Sm
), QL_S_3SAME
, F_SSIZE
},
1671 {"sqshl", 0x5e204c00, 0xff20fc00, asisdsame
, 0, SIMD
, OP3 (Sd
, Sn
, Sm
), QL_S_3SAME
, F_SSIZE
},
1672 {"sqrshl", 0x5e205c00, 0xff20fc00, asisdsame
, 0, SIMD
, OP3 (Sd
, Sn
, Sm
), QL_S_3SAME
, F_SSIZE
},
1673 {"sqdmulh", 0x5e20b400, 0xff20fc00, asisdsame
, 0, SIMD
, OP3 (Sd
, Sn
, Sm
), QL_SISD_HS
, F_SSIZE
},
1674 {"fmulx", 0x5e20dc00, 0xffa0fc00, asisdsame
, 0, SIMD
, OP3 (Sd
, Sn
, Sm
), QL_FP3
, F_SSIZE
},
1675 {"fcmeq", 0x5e20e400, 0xffa0fc00, asisdsame
, 0, SIMD
, OP3 (Sd
, Sn
, Sm
), QL_FP3
, F_SSIZE
},
1676 {"frecps", 0x5e20fc00, 0xffa0fc00, asisdsame
, 0, SIMD
, OP3 (Sd
, Sn
, Sm
), QL_FP3
, F_SSIZE
},
1677 {"frsqrts", 0x5ea0fc00, 0xffa0fc00, asisdsame
, 0, SIMD
, OP3 (Sd
, Sn
, Sm
), QL_FP3
, F_SSIZE
},
1678 {"cmgt", 0x5ee03400, 0xffe0fc00, asisdsame
, 0, SIMD
, OP3 (Sd
, Sn
, Sm
), QL_S_3SAMED
, F_SSIZE
},
1679 {"cmge", 0x5ee03c00, 0xffe0fc00, asisdsame
, 0, SIMD
, OP3 (Sd
, Sn
, Sm
), QL_S_3SAMED
, F_SSIZE
},
1680 {"sshl", 0x5ee04400, 0xffe0fc00, asisdsame
, 0, SIMD
, OP3 (Sd
, Sn
, Sm
), QL_S_3SAMED
, F_SSIZE
},
1681 {"srshl", 0x5ee05400, 0xffe0fc00, asisdsame
, 0, SIMD
, OP3 (Sd
, Sn
, Sm
), QL_S_3SAMED
, F_SSIZE
},
1682 {"add", 0x5ee08400, 0xffe0fc00, asisdsame
, 0, SIMD
, OP3 (Sd
, Sn
, Sm
), QL_S_3SAMED
, F_SSIZE
},
1683 {"cmtst", 0x5ee08c00, 0xffe0fc00, asisdsame
, 0, SIMD
, OP3 (Sd
, Sn
, Sm
), QL_S_3SAMED
, F_SSIZE
},
1684 {"uqadd", 0x7e200c00, 0xff20fc00, asisdsame
, 0, SIMD
, OP3 (Sd
, Sn
, Sm
), QL_S_3SAME
, F_SSIZE
},
1685 {"uqsub", 0x7e202c00, 0xff20fc00, asisdsame
, 0, SIMD
, OP3 (Sd
, Sn
, Sm
), QL_S_3SAME
, F_SSIZE
},
1686 {"uqshl", 0x7e204c00, 0xff20fc00, asisdsame
, 0, SIMD
, OP3 (Sd
, Sn
, Sm
), QL_S_3SAME
, F_SSIZE
},
1687 {"uqrshl", 0x7e205c00, 0xff20fc00, asisdsame
, 0, SIMD
, OP3 (Sd
, Sn
, Sm
), QL_S_3SAME
, F_SSIZE
},
1688 {"sqrdmulh", 0x7e20b400, 0xff20fc00, asisdsame
, 0, SIMD
, OP3 (Sd
, Sn
, Sm
), QL_SISD_HS
, F_SSIZE
},
1689 {"fcmge", 0x7e20e400, 0xffa0fc00, asisdsame
, 0, SIMD
, OP3 (Sd
, Sn
, Sm
), QL_FP3
, F_SSIZE
},
1690 {"facge", 0x7e20ec00, 0xffa0fc00, asisdsame
, 0, SIMD
, OP3 (Sd
, Sn
, Sm
), QL_FP3
, F_SSIZE
},
1691 {"fabd", 0x7ea0d400, 0xffa0fc00, asisdsame
, 0, SIMD
, OP3 (Sd
, Sn
, Sm
), QL_FP3
, F_SSIZE
},
1692 {"fcmgt", 0x7ea0e400, 0xffa0fc00, asisdsame
, 0, SIMD
, OP3 (Sd
, Sn
, Sm
), QL_FP3
, F_SSIZE
},
1693 {"facgt", 0x7ea0ec00, 0xffa0fc00, asisdsame
, 0, SIMD
, OP3 (Sd
, Sn
, Sm
), QL_FP3
, F_SSIZE
},
1694 {"cmhi", 0x7ee03400, 0xffe0fc00, asisdsame
, 0, SIMD
, OP3 (Sd
, Sn
, Sm
), QL_S_3SAMED
, F_SSIZE
},
1695 {"cmhs", 0x7ee03c00, 0xffe0fc00, asisdsame
, 0, SIMD
, OP3 (Sd
, Sn
, Sm
), QL_S_3SAMED
, F_SSIZE
},
1696 {"ushl", 0x7ee04400, 0xffe0fc00, asisdsame
, 0, SIMD
, OP3 (Sd
, Sn
, Sm
), QL_S_3SAMED
, F_SSIZE
},
1697 {"urshl", 0x7ee05400, 0xffe0fc00, asisdsame
, 0, SIMD
, OP3 (Sd
, Sn
, Sm
), QL_S_3SAMED
, F_SSIZE
},
1698 {"sub", 0x7ee08400, 0xffe0fc00, asisdsame
, 0, SIMD
, OP3 (Sd
, Sn
, Sm
), QL_S_3SAMED
, F_SSIZE
},
1699 {"cmeq", 0x7ee08c00, 0xffe0fc00, asisdsame
, 0, SIMD
, OP3 (Sd
, Sn
, Sm
), QL_S_3SAMED
, F_SSIZE
},
1700 /* AdvSIMD scalar shift by immediate. */
1701 {"sshr", 0x5f000400, 0xff80fc00, asisdshf
, 0, SIMD
, OP3 (Sd
, Sn
, IMM_VLSR
), QL_SSHIFT_D
, 0},
1702 {"ssra", 0x5f001400, 0xff80fc00, asisdshf
, 0, SIMD
, OP3 (Sd
, Sn
, IMM_VLSR
), QL_SSHIFT_D
, 0},
1703 {"srshr", 0x5f002400, 0xff80fc00, asisdshf
, 0, SIMD
, OP3 (Sd
, Sn
, IMM_VLSR
), QL_SSHIFT_D
, 0},
1704 {"srsra", 0x5f003400, 0xff80fc00, asisdshf
, 0, SIMD
, OP3 (Sd
, Sn
, IMM_VLSR
), QL_SSHIFT_D
, 0},
1705 {"shl", 0x5f005400, 0xff80fc00, asisdshf
, 0, SIMD
, OP3 (Sd
, Sn
, IMM_VLSL
), QL_SSHIFT_D
, 0},
1706 {"sqshl", 0x5f007400, 0xff80fc00, asisdshf
, 0, SIMD
, OP3 (Sd
, Sn
, IMM_VLSL
), QL_SSHIFT
, 0},
1707 {"sqshrn", 0x5f009400, 0xff80fc00, asisdshf
, 0, SIMD
, OP3 (Sd
, Sn
, IMM_VLSR
), QL_SSHIFTN
, 0},
1708 {"sqrshrn", 0x5f009c00, 0xff80fc00, asisdshf
, 0, SIMD
, OP3 (Sd
, Sn
, IMM_VLSR
), QL_SSHIFTN
, 0},
1709 {"scvtf", 0x5f00e400, 0xff80fc00, asisdshf
, 0, SIMD
, OP3 (Sd
, Sn
, IMM_VLSR
), QL_SSHIFT_SD
, 0},
1710 {"fcvtzs", 0x5f00fc00, 0xff80fc00, asisdshf
, 0, SIMD
, OP3 (Sd
, Sn
, IMM_VLSR
), QL_SSHIFT_SD
, 0},
1711 {"ushr", 0x7f000400, 0xff80fc00, asisdshf
, 0, SIMD
, OP3 (Sd
, Sn
, IMM_VLSR
), QL_SSHIFT_D
, 0},
1712 {"usra", 0x7f001400, 0xff80fc00, asisdshf
, 0, SIMD
, OP3 (Sd
, Sn
, IMM_VLSR
), QL_SSHIFT_D
, 0},
1713 {"urshr", 0x7f002400, 0xff80fc00, asisdshf
, 0, SIMD
, OP3 (Sd
, Sn
, IMM_VLSR
), QL_SSHIFT_D
, 0},
1714 {"ursra", 0x7f003400, 0xff80fc00, asisdshf
, 0, SIMD
, OP3 (Sd
, Sn
, IMM_VLSR
), QL_SSHIFT_D
, 0},
1715 {"sri", 0x7f004400, 0xff80fc00, asisdshf
, 0, SIMD
, OP3 (Sd
, Sn
, IMM_VLSR
), QL_SSHIFT_D
, 0},
1716 {"sli", 0x7f005400, 0xff80fc00, asisdshf
, 0, SIMD
, OP3 (Sd
, Sn
, IMM_VLSL
), QL_SSHIFT_D
, 0},
1717 {"sqshlu", 0x7f006400, 0xff80fc00, asisdshf
, 0, SIMD
, OP3 (Sd
, Sn
, IMM_VLSL
), QL_SSHIFT
, 0},
1718 {"uqshl", 0x7f007400, 0xff80fc00, asisdshf
, 0, SIMD
, OP3 (Sd
, Sn
, IMM_VLSL
), QL_SSHIFT
, 0},
1719 {"sqshrun", 0x7f008400, 0xff80fc00, asisdshf
, 0, SIMD
, OP3 (Sd
, Sn
, IMM_VLSR
), QL_SSHIFTN
, 0},
1720 {"sqrshrun", 0x7f008c00, 0xff80fc00, asisdshf
, 0, SIMD
, OP3 (Sd
, Sn
, IMM_VLSR
), QL_SSHIFTN
, 0},
1721 {"uqshrn", 0x7f009400, 0xff80fc00, asisdshf
, 0, SIMD
, OP3 (Sd
, Sn
, IMM_VLSR
), QL_SSHIFTN
, 0},
1722 {"uqrshrn", 0x7f009c00, 0xff80fc00, asisdshf
, 0, SIMD
, OP3 (Sd
, Sn
, IMM_VLSR
), QL_SSHIFTN
, 0},
1723 {"ucvtf", 0x7f00e400, 0xff80fc00, asisdshf
, 0, SIMD
, OP3 (Sd
, Sn
, IMM_VLSR
), QL_SSHIFT_SD
, 0},
1724 {"fcvtzu", 0x7f00fc00, 0xff80fc00, asisdshf
, 0, SIMD
, OP3 (Sd
, Sn
, IMM_VLSR
), QL_SSHIFT_SD
, 0},
1726 {"sbfm", 0x13000000, 0x7f800000, bitfield
, 0, CORE
, OP4 (Rd
, Rn
, IMMR
, IMMS
), QL_BF
, F_HAS_ALIAS
| F_SF
| F_N
},
1727 {"sbfiz", 0x13000000, 0x7f800000, bitfield
, OP_SBFIZ
, CORE
, OP4 (Rd
, Rn
, IMM
, WIDTH
), QL_BF2
, F_ALIAS
| F_P1
| F_CONV
},
1728 {"sbfx", 0x13000000, 0x7f800000, bitfield
, OP_SBFX
, CORE
, OP4 (Rd
, Rn
, IMM
, WIDTH
), QL_BF2
, F_ALIAS
| F_P1
| F_CONV
},
1729 {"sxtb", 0x13001c00, 0x7fbffc00, bitfield
, 0, CORE
, OP2 (Rd
, Rn
), QL_EXT
, F_ALIAS
| F_P3
| F_SF
| F_N
},
1730 {"sxth", 0x13003c00, 0x7fbffc00, bitfield
, 0, CORE
, OP2 (Rd
, Rn
), QL_EXT
, F_ALIAS
| F_P3
| F_SF
| F_N
},
1731 {"sxtw", 0x93407c00, 0xfffffc00, bitfield
, 0, CORE
, OP2 (Rd
, Rn
), QL_EXT_W
, F_ALIAS
| F_P3
},
1732 {"asr", 0x13000000, 0x7f800000, bitfield
, OP_ASR_IMM
, CORE
, OP3 (Rd
, Rn
, IMM
), QL_SHIFT
, F_ALIAS
| F_P2
| F_CONV
},
1733 {"bfm", 0x33000000, 0x7f800000, bitfield
, 0, CORE
, OP4 (Rd
, Rn
, IMMR
, IMMS
), QL_BF
, F_HAS_ALIAS
| F_SF
| F_N
},
1734 {"bfi", 0x33000000, 0x7f800000, bitfield
, OP_BFI
, CORE
, OP4 (Rd
, Rn
, IMM
, WIDTH
), QL_BF2
, F_ALIAS
| F_P1
| F_CONV
},
1735 {"bfxil", 0x33000000, 0x7f800000, bitfield
, OP_BFXIL
, CORE
, OP4 (Rd
, Rn
, IMM
, WIDTH
), QL_BF2
, F_ALIAS
| F_P1
| F_CONV
},
1736 {"ubfm", 0x53000000, 0x7f800000, bitfield
, 0, CORE
, OP4 (Rd
, Rn
, IMMR
, IMMS
), QL_BF
, F_HAS_ALIAS
| F_SF
| F_N
},
1737 {"ubfiz", 0x53000000, 0x7f800000, bitfield
, OP_UBFIZ
, CORE
, OP4 (Rd
, Rn
, IMM
, WIDTH
), QL_BF2
, F_ALIAS
| F_P1
| F_CONV
},
1738 {"ubfx", 0x53000000, 0x7f800000, bitfield
, OP_UBFX
, CORE
, OP4 (Rd
, Rn
, IMM
, WIDTH
), QL_BF2
, F_ALIAS
| F_P1
| F_CONV
},
1739 {"uxtb", 0x53001c00, 0xfffffc00, bitfield
, OP_UXTB
, CORE
, OP2 (Rd
, Rn
), QL_I2SAMEW
, F_ALIAS
| F_P3
},
1740 {"uxth", 0x53003c00, 0xfffffc00, bitfield
, OP_UXTH
, CORE
, OP2 (Rd
, Rn
), QL_I2SAMEW
, F_ALIAS
| F_P3
},
1741 {"lsl", 0x53000000, 0x7f800000, bitfield
, OP_LSL_IMM
, CORE
, OP3 (Rd
, Rn
, IMM
), QL_SHIFT
, F_ALIAS
| F_P2
| F_CONV
},
1742 {"lsr", 0x53000000, 0x7f800000, bitfield
, OP_LSR_IMM
, CORE
, OP3 (Rd
, Rn
, IMM
), QL_SHIFT
, F_ALIAS
| F_P2
| F_CONV
},
1743 /* Unconditional branch (immediate). */
1744 {"b", 0x14000000, 0xfc000000, branch_imm
, OP_B
, CORE
, OP1 (ADDR_PCREL26
), QL_PCREL_26
, 0},
1745 {"bl", 0x94000000, 0xfc000000, branch_imm
, OP_BL
, CORE
, OP1 (ADDR_PCREL26
), QL_PCREL_26
, 0},
1746 /* Unconditional branch (register). */
1747 {"br", 0xd61f0000, 0xfffffc1f, branch_reg
, 0, CORE
, OP1 (Rn
), QL_I1X
, 0},
1748 {"blr", 0xd63f0000, 0xfffffc1f, branch_reg
, 0, CORE
, OP1 (Rn
), QL_I1X
, 0},
1749 {"ret", 0xd65f0000, 0xfffffc1f, branch_reg
, 0, CORE
, OP1 (Rn
), QL_I1X
, F_OPD0_OPT
| F_DEFAULT (30)},
1750 {"eret", 0xd69f03e0, 0xffffffff, branch_reg
, 0, CORE
, OP0 (), {}, 0},
1751 {"drps", 0xd6bf03e0, 0xffffffff, branch_reg
, 0, CORE
, OP0 (), {}, 0},
1752 /* Compare & branch (immediate). */
1753 {"cbz", 0x34000000, 0x7f000000, compbranch
, 0, CORE
, OP2 (Rt
, ADDR_PCREL19
), QL_R_PCREL
, F_SF
},
1754 {"cbnz", 0x35000000, 0x7f000000, compbranch
, 0, CORE
, OP2 (Rt
, ADDR_PCREL19
), QL_R_PCREL
, F_SF
},
1755 /* Conditional branch (immediate). */
1756 {"b.c", 0x54000000, 0xff000010, condbranch
, 0, CORE
, OP1 (ADDR_PCREL19
), QL_PCREL_NIL
, F_COND
},
1757 /* Conditional compare (immediate). */
1758 {"ccmn", 0x3a400800, 0x7fe00c10, condcmp_imm
, 0, CORE
, OP4 (Rn
, CCMP_IMM
, NZCV
, COND
), QL_CCMP_IMM
, F_SF
},
1759 {"ccmp", 0x7a400800, 0x7fe00c10, condcmp_imm
, 0, CORE
, OP4 (Rn
, CCMP_IMM
, NZCV
, COND
), QL_CCMP_IMM
, F_SF
},
1760 /* Conditional compare (register). */
1761 {"ccmn", 0x3a400000, 0x7fe00c10, condcmp_reg
, 0, CORE
, OP4 (Rn
, Rm
, NZCV
, COND
), QL_CCMP
, F_SF
},
1762 {"ccmp", 0x7a400000, 0x7fe00c10, condcmp_reg
, 0, CORE
, OP4 (Rn
, Rm
, NZCV
, COND
), QL_CCMP
, F_SF
},
1763 /* Conditional select. */
1764 {"csel", 0x1a800000, 0x7fe00c00, condsel
, 0, CORE
, OP4 (Rd
, Rn
, Rm
, COND
), QL_CSEL
, F_SF
},
1765 {"csinc", 0x1a800400, 0x7fe00c00, condsel
, 0, CORE
, OP4 (Rd
, Rn
, Rm
, COND
), QL_CSEL
, F_HAS_ALIAS
| F_SF
},
1766 {"cinc", 0x1a800400, 0x7fe00c00, condsel
, OP_CINC
, CORE
, OP3 (Rd
, Rn
, COND
), QL_CSEL
, F_ALIAS
| F_SF
| F_CONV
},
1767 {"cset", 0x1a9f07e0, 0x7fff0fe0, condsel
, OP_CSET
, CORE
, OP2 (Rd
, COND
), QL_DST_R
, F_ALIAS
| F_P1
| F_SF
| F_CONV
},
1768 {"csinv", 0x5a800000, 0x7fe00c00, condsel
, 0, CORE
, OP4 (Rd
, Rn
, Rm
, COND
), QL_CSEL
, F_HAS_ALIAS
| F_SF
},
1769 {"cinv", 0x5a800000, 0x7fe00c00, condsel
, OP_CINV
, CORE
, OP3 (Rd
, Rn
, COND
), QL_CSEL
, F_ALIAS
| F_SF
| F_CONV
},
1770 {"csetm", 0x5a9f03e0, 0x7fff0fe0, condsel
, OP_CSETM
, CORE
, OP2 (Rd
, COND
), QL_DST_R
, F_ALIAS
| F_P1
| F_SF
| F_CONV
},
1771 {"csneg", 0x5a800400, 0x7fe00c00, condsel
, 0, CORE
, OP4 (Rd
, Rn
, Rm
, COND
), QL_CSEL
, F_HAS_ALIAS
| F_SF
},
1772 {"cneg", 0x5a800400, 0x7fe00c00, condsel
, OP_CNEG
, CORE
, OP3 (Rd
, Rn
, COND
), QL_CSEL
, F_ALIAS
| F_SF
| F_CONV
},
1774 {"aese", 0x4e284800, 0xfffffc00, cryptoaes
, 0, CRYPTO
, OP2 (Vd
, Vn
), QL_V2SAME16B
, 0},
1775 {"aesd", 0x4e285800, 0xfffffc00, cryptoaes
, 0, CRYPTO
, OP2 (Vd
, Vn
), QL_V2SAME16B
, 0},
1776 {"aesmc", 0x4e286800, 0xfffffc00, cryptoaes
, 0, CRYPTO
, OP2 (Vd
, Vn
), QL_V2SAME16B
, 0},
1777 {"aesimc", 0x4e287800, 0xfffffc00, cryptoaes
, 0, CRYPTO
, OP2 (Vd
, Vn
), QL_V2SAME16B
, 0},
1778 /* Crypto two-reg SHA. */
1779 {"sha1h", 0x5e280800, 0xfffffc00, cryptosha2
, 0, CRYPTO
, OP2 (Fd
, Fn
), QL_2SAMES
, 0},
1780 {"sha1su1", 0x5e281800, 0xfffffc00, cryptosha2
, 0, CRYPTO
, OP2 (Vd
, Vn
), QL_V2SAME4S
, 0},
1781 {"sha256su0", 0x5e282800, 0xfffffc00, cryptosha2
, 0, CRYPTO
, OP2 (Vd
, Vn
), QL_V2SAME4S
, 0},
1782 /* Crypto three-reg SHA. */
1783 {"sha1c", 0x5e000000, 0xffe0fc00, cryptosha3
, 0, CRYPTO
, OP3 (Fd
, Fn
, Vm
), QL_SHAUPT
, 0},
1784 {"sha1p", 0x5e001000, 0xffe0fc00, cryptosha3
, 0, CRYPTO
, OP3 (Fd
, Fn
, Vm
), QL_SHAUPT
, 0},
1785 {"sha1m", 0x5e002000, 0xffe0fc00, cryptosha3
, 0, CRYPTO
, OP3 (Fd
, Fn
, Vm
), QL_SHAUPT
, 0},
1786 {"sha1su0", 0x5e003000, 0xffe0fc00, cryptosha3
, 0, CRYPTO
, OP3 (Vd
, Vn
, Vm
), QL_V3SAME4S
, 0},
1787 {"sha256h", 0x5e004000, 0xffe0fc00, cryptosha3
, 0, CRYPTO
, OP3 (Fd
, Fn
, Vm
), QL_SHA256UPT
, 0},
1788 {"sha256h2", 0x5e005000, 0xffe0fc00, cryptosha3
, 0, CRYPTO
, OP3 (Fd
, Fn
, Vm
), QL_SHA256UPT
, 0},
1789 {"sha256su1", 0x5e006000, 0xffe0fc00, cryptosha3
, 0, CRYPTO
, OP3 (Vd
, Vn
, Vm
), QL_V3SAME4S
, 0},
1790 /* Data-processing (1 source). */
1791 {"rbit", 0x5ac00000, 0x7ffffc00, dp_1src
, 0, CORE
, OP2 (Rd
, Rn
), QL_I2SAME
, F_SF
},
1792 {"rev16", 0x5ac00400, 0x7ffffc00, dp_1src
, 0, CORE
, OP2 (Rd
, Rn
), QL_I2SAME
, F_SF
},
1793 {"rev", 0x5ac00800, 0xfffffc00, dp_1src
, 0, CORE
, OP2 (Rd
, Rn
), QL_I2SAMEW
, 0},
1794 {"rev", 0xdac00c00, 0x7ffffc00, dp_1src
, 0, CORE
, OP2 (Rd
, Rn
), QL_I2SAMEX
, 0},
1795 {"clz", 0x5ac01000, 0x7ffffc00, dp_1src
, 0, CORE
, OP2 (Rd
, Rn
), QL_I2SAME
, F_SF
},
1796 {"cls", 0x5ac01400, 0x7ffffc00, dp_1src
, 0, CORE
, OP2 (Rd
, Rn
), QL_I2SAME
, F_SF
},
1797 {"rev32", 0xdac00800, 0xfffffc00, dp_1src
, 0, CORE
, OP2 (Rd
, Rn
), QL_I2SAMEX
, 0},
1798 /* Data-processing (2 source). */
1799 {"udiv", 0x1ac00800, 0x7fe0fc00, dp_2src
, 0, CORE
, OP3 (Rd
, Rn
, Rm
), QL_I3SAMER
, F_SF
},
1800 {"sdiv", 0x1ac00c00, 0x7fe0fc00, dp_2src
, 0, CORE
, OP3 (Rd
, Rn
, Rm
), QL_I3SAMER
, F_SF
},
1801 {"lslv", 0x1ac02000, 0x7fe0fc00, dp_2src
, 0, CORE
, OP3 (Rd
, Rn
, Rm
), QL_I3SAMER
, F_SF
| F_HAS_ALIAS
},
1802 {"lsl", 0x1ac02000, 0x7fe0fc00, dp_2src
, 0, CORE
, OP3 (Rd
, Rn
, Rm
), QL_I3SAMER
, F_SF
| F_ALIAS
},
1803 {"lsrv", 0x1ac02400, 0x7fe0fc00, dp_2src
, 0, CORE
, OP3 (Rd
, Rn
, Rm
), QL_I3SAMER
, F_SF
| F_HAS_ALIAS
},
1804 {"lsr", 0x1ac02400, 0x7fe0fc00, dp_2src
, 0, CORE
, OP3 (Rd
, Rn
, Rm
), QL_I3SAMER
, F_SF
| F_ALIAS
},
1805 {"asrv", 0x1ac02800, 0x7fe0fc00, dp_2src
, 0, CORE
, OP3 (Rd
, Rn
, Rm
), QL_I3SAMER
, F_SF
| F_HAS_ALIAS
},
1806 {"asr", 0x1ac02800, 0x7fe0fc00, dp_2src
, 0, CORE
, OP3 (Rd
, Rn
, Rm
), QL_I3SAMER
, F_SF
| F_ALIAS
},
1807 {"rorv", 0x1ac02c00, 0x7fe0fc00, dp_2src
, 0, CORE
, OP3 (Rd
, Rn
, Rm
), QL_I3SAMER
, F_SF
| F_HAS_ALIAS
},
1808 {"ror", 0x1ac02c00, 0x7fe0fc00, dp_2src
, 0, CORE
, OP3 (Rd
, Rn
, Rm
), QL_I3SAMER
, F_SF
| F_ALIAS
},
1809 /* Data-processing (3 source). */
1810 {"madd", 0x1b000000, 0x7fe08000, dp_3src
, 0, CORE
, OP4 (Rd
, Rn
, Rm
, Ra
), QL_I4SAMER
, F_HAS_ALIAS
| F_SF
},
1811 {"mul", 0x1b007c00, 0x7fe0fc00, dp_3src
, 0, CORE
, OP3 (Rd
, Rn
, Rm
), QL_I3SAMER
, F_ALIAS
| F_SF
},
1812 {"msub", 0x1b008000, 0x7fe08000, dp_3src
, 0, CORE
, OP4 (Rd
, Rn
, Rm
, Ra
), QL_I4SAMER
, F_HAS_ALIAS
| F_SF
},
1813 {"mneg", 0x1b00fc00, 0x7fe0fc00, dp_3src
, 0, CORE
, OP3 (Rd
, Rn
, Rm
), QL_I3SAMER
, F_ALIAS
| F_SF
},
1814 {"smaddl", 0x9b200000, 0xffe08000, dp_3src
, 0, CORE
, OP4 (Rd
, Rn
, Rm
, Ra
), QL_I4SAMEL
, F_HAS_ALIAS
},
1815 {"smull", 0x9b207c00, 0xffe0fc00, dp_3src
, 0, CORE
, OP3 (Rd
, Rn
, Rm
), QL_I3SAMEL
, F_ALIAS
},
1816 {"smsubl", 0x9b208000, 0xffe08000, dp_3src
, 0, CORE
, OP4 (Rd
, Rn
, Rm
, Ra
), QL_I4SAMEL
, F_HAS_ALIAS
},
1817 {"smnegl", 0x9b20fc00, 0xffe0fc00, dp_3src
, 0, CORE
, OP3 (Rd
, Rn
, Rm
), QL_I3SAMEL
, F_ALIAS
},
1818 {"smulh", 0x9b407c00, 0xffe08000, dp_3src
, 0, CORE
, OP3 (Rd
, Rn
, Rm
), QL_I3SAMEX
, 0},
1819 {"umaddl", 0x9ba00000, 0xffe08000, dp_3src
, 0, CORE
, OP4 (Rd
, Rn
, Rm
, Ra
), QL_I4SAMEL
, F_HAS_ALIAS
},
1820 {"umull", 0x9ba07c00, 0xffe0fc00, dp_3src
, 0, CORE
, OP3 (Rd
, Rn
, Rm
), QL_I3SAMEL
, F_ALIAS
},
1821 {"umsubl", 0x9ba08000, 0xffe08000, dp_3src
, 0, CORE
, OP4 (Rd
, Rn
, Rm
, Ra
), QL_I4SAMEL
, F_HAS_ALIAS
},
1822 {"umnegl", 0x9ba0fc00, 0xffe0fc00, dp_3src
, 0, CORE
, OP3 (Rd
, Rn
, Rm
), QL_I3SAMEL
, F_ALIAS
},
1823 {"umulh", 0x9bc07c00, 0xffe08000, dp_3src
, 0, CORE
, OP3 (Rd
, Rn
, Rm
), QL_I3SAMEX
, 0},
1824 /* Excep'n generation. */
1825 {"svc", 0xd4000001, 0xffe0001f, exception
, 0, CORE
, OP1 (EXCEPTION
), {}, 0},
1826 {"hvc", 0xd4000002, 0xffe0001f, exception
, 0, CORE
, OP1 (EXCEPTION
), {}, 0},
1827 {"smc", 0xd4000003, 0xffe0001f, exception
, 0, CORE
, OP1 (EXCEPTION
), {}, 0},
1828 {"brk", 0xd4200000, 0xffe0001f, exception
, 0, CORE
, OP1 (EXCEPTION
), {}, 0},
1829 {"hlt", 0xd4400000, 0xffe0001f, exception
, 0, CORE
, OP1 (EXCEPTION
), {}, 0},
1830 {"dcps1", 0xd4a00001, 0xffe0001f, exception
, 0, CORE
, OP1 (EXCEPTION
), {}, F_OPD0_OPT
| F_DEFAULT (0)},
1831 {"dcps2", 0xd4a00002, 0xffe0001f, exception
, 0, CORE
, OP1 (EXCEPTION
), {}, F_OPD0_OPT
| F_DEFAULT (0)},
1832 {"dcps3", 0xd4a00003, 0xffe0001f, exception
, 0, CORE
, OP1 (EXCEPTION
), {}, F_OPD0_OPT
| F_DEFAULT (0)},
1834 {"extr", 0x13800000, 0x7fa00000, extract
, 0, CORE
, OP4 (Rd
, Rn
, Rm
, IMMS
), QL_EXTR
, F_HAS_ALIAS
| F_SF
| F_N
},
1835 {"ror", 0x13800000, 0x7fa00000, extract
, OP_ROR_IMM
, CORE
, OP3 (Rd
, Rm
, IMMS
), QL_SHIFT
, F_ALIAS
| F_CONV
},
1836 /* Floating-point<->fixed-point conversions. */
1837 {"scvtf", 0x1e020000, 0x7f3f0000, float2fix
, 0, FP
, OP3 (Fd
, Rn
, FBITS
), QL_FIX2FP
, F_FPTYPE
| F_SF
},
1838 {"ucvtf", 0x1e030000, 0x7f3f0000, float2fix
, 0, FP
, OP3 (Fd
, Rn
, FBITS
), QL_FIX2FP
, F_FPTYPE
| F_SF
},
1839 {"fcvtzs", 0x1e180000, 0x7f3f0000, float2fix
, 0, FP
, OP3 (Rd
, Fn
, FBITS
), QL_FP2FIX
, F_FPTYPE
| F_SF
},
1840 {"fcvtzu", 0x1e190000, 0x7f3f0000, float2fix
, 0, FP
, OP3 (Rd
, Fn
, FBITS
), QL_FP2FIX
, F_FPTYPE
| F_SF
},
1841 /* Floating-point<->integer conversions. */
1842 {"fcvtns", 0x1e200000, 0x7f3ffc00, float2int
, 0, FP
, OP2 (Rd
, Fn
), QL_FP2INT
, F_FPTYPE
| F_SF
},
1843 {"fcvtnu", 0x1e210000, 0x7f3ffc00, float2int
, 0, FP
, OP2 (Rd
, Fn
), QL_FP2INT
, F_FPTYPE
| F_SF
},
1844 {"scvtf", 0x1e220000, 0x7f3ffc00, float2int
, 0, FP
, OP2 (Fd
, Rn
), QL_INT2FP
, F_FPTYPE
| F_SF
},
1845 {"ucvtf", 0x1e230000, 0x7f3ffc00, float2int
, 0, FP
, OP2 (Fd
, Rn
), QL_INT2FP
, F_FPTYPE
| F_SF
},
1846 {"fcvtas", 0x1e240000, 0x7f3ffc00, float2int
, 0, FP
, OP2 (Rd
, Fn
), QL_FP2INT
, F_FPTYPE
| F_SF
},
1847 {"fcvtau", 0x1e250000, 0x7f3ffc00, float2int
, 0, FP
, OP2 (Rd
, Fn
), QL_FP2INT
, F_FPTYPE
| F_SF
},
1848 {"fmov", 0x1e260000, 0x7f3ffc00, float2int
, 0, FP
, OP2 (Rd
, Fn
), QL_FP2INT
, F_FPTYPE
| F_SF
},
1849 {"fmov", 0x1e270000, 0x7f3ffc00, float2int
, 0, FP
, OP2 (Fd
, Rn
), QL_INT2FP
, F_FPTYPE
| F_SF
},
1850 {"fcvtps", 0x1e280000, 0x7f3ffc00, float2int
, 0, FP
, OP2 (Rd
, Fn
), QL_FP2INT
, F_FPTYPE
| F_SF
},
1851 {"fcvtpu", 0x1e290000, 0x7f3ffc00, float2int
, 0, FP
, OP2 (Rd
, Fn
), QL_FP2INT
, F_FPTYPE
| F_SF
},
1852 {"fcvtms", 0x1e300000, 0x7f3ffc00, float2int
, 0, FP
, OP2 (Rd
, Fn
), QL_FP2INT
, F_FPTYPE
| F_SF
},
1853 {"fcvtmu", 0x1e310000, 0x7f3ffc00, float2int
, 0, FP
, OP2 (Rd
, Fn
), QL_FP2INT
, F_FPTYPE
| F_SF
},
1854 {"fcvtzs", 0x1e380000, 0x7f3ffc00, float2int
, 0, FP
, OP2 (Rd
, Fn
), QL_FP2INT
, F_FPTYPE
| F_SF
},
1855 {"fcvtzu", 0x1e390000, 0x7f3ffc00, float2int
, 0, FP
, OP2 (Rd
, Fn
), QL_FP2INT
, F_FPTYPE
| F_SF
},
1856 {"fmov", 0x9eae0000, 0xfffffc00, float2int
, 0, FP
, OP2 (Rd
, VnD1
), QL_XVD1
, 0},
1857 {"fmov", 0x9eaf0000, 0xfffffc00, float2int
, 0, FP
, OP2 (VdD1
, Rn
), QL_VD1X
, 0},
1858 /* Floating-point conditional compare. */
1859 {"fccmp", 0x1e200400, 0xff200c10, floatccmp
, 0, FP
, OP4 (Fn
, Fm
, NZCV
, COND
), QL_FCCMP
, F_FPTYPE
},
1860 {"fccmpe", 0x1e200410, 0xff200c10, floatccmp
, 0, FP
, OP4 (Fn
, Fm
, NZCV
, COND
), QL_FCCMP
, F_FPTYPE
},
1861 /* Floating-point compare. */
1862 {"fcmp", 0x1e202000, 0xff20fc1f, floatcmp
, 0, FP
, OP2 (Fn
, Fm
), QL_FP2
, F_FPTYPE
},
1863 {"fcmpe", 0x1e202010, 0xff20fc1f, floatcmp
, 0, FP
, OP2 (Fn
, Fm
), QL_FP2
, F_FPTYPE
},
1864 {"fcmp", 0x1e202008, 0xff20fc1f, floatcmp
, 0, FP
, OP2 (Fn
, FPIMM0
), QL_DST_SD
, F_FPTYPE
},
1865 {"fcmpe", 0x1e202018, 0xff20fc1f, floatcmp
, 0, FP
, OP2 (Fn
, FPIMM0
), QL_DST_SD
, F_FPTYPE
},
1866 /* Floating-point data-processing (1 source). */
1867 {"fmov", 0x1e204000, 0xff3ffc00, floatdp1
, 0, FP
, OP2 (Fd
, Fn
), QL_FP2
, F_FPTYPE
},
1868 {"fabs", 0x1e20c000, 0xff3ffc00, floatdp1
, 0, FP
, OP2 (Fd
, Fn
), QL_FP2
, F_FPTYPE
},
1869 {"fneg", 0x1e214000, 0xff3ffc00, floatdp1
, 0, FP
, OP2 (Fd
, Fn
), QL_FP2
, F_FPTYPE
},
1870 {"fsqrt", 0x1e21c000, 0xff3ffc00, floatdp1
, 0, FP
, OP2 (Fd
, Fn
), QL_FP2
, F_FPTYPE
},
1871 {"fcvt", 0x1e224000, 0xff3e7c00, floatdp1
, OP_FCVT
, FP
, OP2 (Fd
, Fn
), QL_FCVT
, F_FPTYPE
| F_MISC
},
1872 {"frintn", 0x1e244000, 0xff3ffc00, floatdp1
, 0, FP
, OP2 (Fd
, Fn
), QL_FP2
, F_FPTYPE
},
1873 {"frintp", 0x1e24c000, 0xff3ffc00, floatdp1
, 0, FP
, OP2 (Fd
, Fn
), QL_FP2
, F_FPTYPE
},
1874 {"frintm", 0x1e254000, 0xff3ffc00, floatdp1
, 0, FP
, OP2 (Fd
, Fn
), QL_FP2
, F_FPTYPE
},
1875 {"frintz", 0x1e25c000, 0xff3ffc00, floatdp1
, 0, FP
, OP2 (Fd
, Fn
), QL_FP2
, F_FPTYPE
},
1876 {"frinta", 0x1e264000, 0xff3ffc00, floatdp1
, 0, FP
, OP2 (Fd
, Fn
), QL_FP2
, F_FPTYPE
},
1877 {"frintx", 0x1e274000, 0xff3ffc00, floatdp1
, 0, FP
, OP2 (Fd
, Fn
), QL_FP2
, F_FPTYPE
},
1878 {"frinti", 0x1e27c000, 0xff3ffc00, floatdp1
, 0, FP
, OP2 (Fd
, Fn
), QL_FP2
, F_FPTYPE
},
1879 /* Floating-point data-processing (2 source). */
1880 {"fmul", 0x1e200800, 0xff20fc00, floatdp2
, 0, FP
, OP3 (Fd
, Fn
, Fm
), QL_FP3
, F_FPTYPE
},
1881 {"fdiv", 0x1e201800, 0xff20fc00, floatdp2
, 0, FP
, OP3 (Fd
, Fn
, Fm
), QL_FP3
, F_FPTYPE
},
1882 {"fadd", 0x1e202800, 0xff20fc00, floatdp2
, 0, FP
, OP3 (Fd
, Fn
, Fm
), QL_FP3
, F_FPTYPE
},
1883 {"fsub", 0x1e203800, 0xff20fc00, floatdp2
, 0, FP
, OP3 (Fd
, Fn
, Fm
), QL_FP3
, F_FPTYPE
},
1884 {"fmax", 0x1e204800, 0xff20fc00, floatdp2
, 0, FP
, OP3 (Fd
, Fn
, Fm
), QL_FP3
, F_FPTYPE
},
1885 {"fmin", 0x1e205800, 0xff20fc00, floatdp2
, 0, FP
, OP3 (Fd
, Fn
, Fm
), QL_FP3
, F_FPTYPE
},
1886 {"fmaxnm", 0x1e206800, 0xff20fc00, floatdp2
, 0, FP
, OP3 (Fd
, Fn
, Fm
), QL_FP3
, F_FPTYPE
},
1887 {"fminnm", 0x1e207800, 0xff20fc00, floatdp2
, 0, FP
, OP3 (Fd
, Fn
, Fm
), QL_FP3
, F_FPTYPE
},
1888 {"fnmul", 0x1e208800, 0xff20fc00, floatdp2
, 0, FP
, OP3 (Fd
, Fn
, Fm
), QL_FP3
, F_FPTYPE
},
1889 /* Floating-point data-processing (3 source). */
1890 {"fmadd", 0x1f000000, 0xff208000, floatdp3
, 0, FP
, OP4 (Fd
, Fn
, Fm
, Fa
), QL_FP4
, F_FPTYPE
},
1891 {"fmsub", 0x1f008000, 0xff208000, floatdp3
, 0, FP
, OP4 (Fd
, Fn
, Fm
, Fa
), QL_FP4
, F_FPTYPE
},
1892 {"fnmadd", 0x1f200000, 0xff208000, floatdp3
, 0, FP
, OP4 (Fd
, Fn
, Fm
, Fa
), QL_FP4
, F_FPTYPE
},
1893 {"fnmsub", 0x1f208000, 0xff208000, floatdp3
, 0, FP
, OP4 (Fd
, Fn
, Fm
, Fa
), QL_FP4
, F_FPTYPE
},
1894 /* Floating-point immediate. */
1895 {"fmov", 0x1e201000, 0xff201fe0, floatimm
, 0, FP
, OP2 (Fd
, FPIMM
), QL_DST_SD
, F_FPTYPE
},
1896 /* Floating-point conditional select. */
1897 {"fcsel", 0x1e200c00, 0xff200c00, floatsel
, 0, FP
, OP4 (Fd
, Fn
, Fm
, COND
), QL_FP_COND
, F_FPTYPE
},
1898 /* Load/store register (immediate indexed). */
1899 {"strb", 0x38000400, 0xffe00400, ldst_imm9
, 0, CORE
, OP2 (Rt
, ADDR_SIMM9
), QL_LDST_W8
, 0},
1900 {"ldrb", 0x38400400, 0xffe00400, ldst_imm9
, 0, CORE
, OP2 (Rt
, ADDR_SIMM9
), QL_LDST_W8
, 0},
1901 {"ldrsb", 0x38800400, 0xffa00400, ldst_imm9
, 0, CORE
, OP2 (Rt
, ADDR_SIMM9
), QL_LDST_R8
, F_LDS_SIZE
},
1902 {"str", 0x3c000400, 0x3f600400, ldst_imm9
, 0, CORE
, OP2 (Ft
, ADDR_SIMM9
), QL_LDST_FP
, 0},
1903 {"ldr", 0x3c400400, 0x3f600400, ldst_imm9
, 0, CORE
, OP2 (Ft
, ADDR_SIMM9
), QL_LDST_FP
, 0},
1904 {"strh", 0x78000400, 0xffe00400, ldst_imm9
, 0, CORE
, OP2 (Rt
, ADDR_SIMM9
), QL_LDST_W16
, 0},
1905 {"ldrh", 0x78400400, 0xffe00400, ldst_imm9
, 0, CORE
, OP2 (Rt
, ADDR_SIMM9
), QL_LDST_W16
, 0},
1906 {"ldrsh", 0x78800400, 0xffa00400, ldst_imm9
, 0, CORE
, OP2 (Rt
, ADDR_SIMM9
), QL_LDST_R16
, F_LDS_SIZE
},
1907 {"str", 0xb8000400, 0xbfe00400, ldst_imm9
, 0, CORE
, OP2 (Rt
, ADDR_SIMM9
), QL_LDST_R
, F_GPRSIZE_IN_Q
},
1908 {"ldr", 0xb8400400, 0xbfe00400, ldst_imm9
, 0, CORE
, OP2 (Rt
, ADDR_SIMM9
), QL_LDST_R
, F_GPRSIZE_IN_Q
},
1909 {"ldrsw", 0xb8800400, 0xffe00400, ldst_imm9
, 0, CORE
, OP2 (Rt
, ADDR_SIMM9
), QL_LDST_X32
, 0},
1910 /* Load/store register (unsigned immediate). */
1911 {"strb", 0x39000000, 0xffc00000, ldst_pos
, OP_STRB_POS
, CORE
, OP2 (Rt
, ADDR_UIMM12
), QL_LDST_W8
, 0},
1912 {"ldrb", 0x39400000, 0xffc00000, ldst_pos
, OP_LDRB_POS
, CORE
, OP2 (Rt
, ADDR_UIMM12
), QL_LDST_W8
, 0},
1913 {"ldrsb", 0x39800000, 0xff800000, ldst_pos
, OP_LDRSB_POS
, CORE
, OP2 (Rt
, ADDR_UIMM12
), QL_LDST_R8
, F_LDS_SIZE
},
1914 {"str", 0x3d000000, 0x3f400000, ldst_pos
, OP_STRF_POS
, CORE
, OP2 (Ft
, ADDR_UIMM12
), QL_LDST_FP
, 0},
1915 {"ldr", 0x3d400000, 0x3f400000, ldst_pos
, OP_LDRF_POS
, CORE
, OP2 (Ft
, ADDR_UIMM12
), QL_LDST_FP
, 0},
1916 {"strh", 0x79000000, 0xffc00000, ldst_pos
, OP_STRH_POS
, CORE
, OP2 (Rt
, ADDR_UIMM12
), QL_LDST_W16
, 0},
1917 {"ldrh", 0x79400000, 0xffc00000, ldst_pos
, OP_LDRH_POS
, CORE
, OP2 (Rt
, ADDR_UIMM12
), QL_LDST_W16
, 0},
1918 {"ldrsh", 0x79800000, 0xff800000, ldst_pos
, OP_LDRSH_POS
, CORE
, OP2 (Rt
, ADDR_UIMM12
), QL_LDST_R16
, F_LDS_SIZE
},
1919 {"str", 0xb9000000, 0xbfc00000, ldst_pos
, OP_STR_POS
, CORE
, OP2 (Rt
, ADDR_UIMM12
), QL_LDST_R
, F_GPRSIZE_IN_Q
},
1920 {"ldr", 0xb9400000, 0xbfc00000, ldst_pos
, OP_LDR_POS
, CORE
, OP2 (Rt
, ADDR_UIMM12
), QL_LDST_R
, F_GPRSIZE_IN_Q
},
1921 {"ldrsw", 0xb9800000, 0xffc00000, ldst_pos
, OP_LDRSW_POS
, CORE
, OP2 (Rt
, ADDR_UIMM12
), QL_LDST_X32
, 0},
1922 {"prfm", 0xf9800000, 0xffc00000, ldst_pos
, OP_PRFM_POS
, CORE
, OP2 (PRFOP
, ADDR_UIMM12
), QL_LDST_PRFM
, 0},
1923 /* Load/store register (register offset). */
1924 {"strb", 0x38200800, 0xffe00c00, ldst_regoff
, 0, CORE
, OP2 (Rt
, ADDR_REGOFF
), QL_LDST_W8
, 0},
1925 {"ldrb", 0x38600800, 0xffe00c00, ldst_regoff
, 0, CORE
, OP2 (Rt
, ADDR_REGOFF
), QL_LDST_W8
, 0},
1926 {"ldrsb", 0x38a00800, 0xffa00c00, ldst_regoff
, 0, CORE
, OP2 (Rt
, ADDR_REGOFF
), QL_LDST_R8
, F_LDS_SIZE
},
1927 {"str", 0x3c200800, 0x3f600c00, ldst_regoff
, 0, CORE
, OP2 (Ft
, ADDR_REGOFF
), QL_LDST_FP
, 0},
1928 {"ldr", 0x3c600800, 0x3f600c00, ldst_regoff
, 0, CORE
, OP2 (Ft
, ADDR_REGOFF
), QL_LDST_FP
, 0},
1929 {"strh", 0x78200800, 0xffe00c00, ldst_regoff
, 0, CORE
, OP2 (Rt
, ADDR_REGOFF
), QL_LDST_W16
, 0},
1930 {"ldrh", 0x78600800, 0xffe00c00, ldst_regoff
, 0, CORE
, OP2 (Rt
, ADDR_REGOFF
), QL_LDST_W16
, 0},
1931 {"ldrsh", 0x78a00800, 0xffa00c00, ldst_regoff
, 0, CORE
, OP2 (Rt
, ADDR_REGOFF
), QL_LDST_R16
, F_LDS_SIZE
},
1932 {"str", 0xb8200800, 0xbfe00c00, ldst_regoff
, 0, CORE
, OP2 (Rt
, ADDR_REGOFF
), QL_LDST_R
, F_GPRSIZE_IN_Q
},
1933 {"ldr", 0xb8600800, 0xbfe00c00, ldst_regoff
, 0, CORE
, OP2 (Rt
, ADDR_REGOFF
), QL_LDST_R
, F_GPRSIZE_IN_Q
},
1934 {"ldrsw", 0xb8a00800, 0xffe00c00, ldst_regoff
, 0, CORE
, OP2 (Rt
, ADDR_REGOFF
), QL_LDST_X32
, 0},
1935 {"prfm", 0xf8a00800, 0xffe00c00, ldst_regoff
, 0, CORE
, OP2 (PRFOP
, ADDR_REGOFF
), QL_LDST_PRFM
, 0},
1936 /* Load/store register (unprivileged). */
1937 {"sttrb", 0x38000800, 0xffe00c00, ldst_unpriv
, 0, CORE
, OP2 (Rt
, ADDR_SIMM9
), QL_LDST_W8
, 0},
1938 {"ldtrb", 0x38400800, 0xffe00c00, ldst_unpriv
, 0, CORE
, OP2 (Rt
, ADDR_SIMM9
), QL_LDST_W8
, 0},
1939 {"ldtrsb", 0x38800800, 0xffa00c00, ldst_unpriv
, 0, CORE
, OP2 (Rt
, ADDR_SIMM9
), QL_LDST_R8
, F_LDS_SIZE
},
1940 {"sttrh", 0x78000800, 0xffe00c00, ldst_unpriv
, 0, CORE
, OP2 (Rt
, ADDR_SIMM9
), QL_LDST_W16
, 0},
1941 {"ldtrh", 0x78400800, 0xffe00c00, ldst_unpriv
, 0, CORE
, OP2 (Rt
, ADDR_SIMM9
), QL_LDST_W16
, 0},
1942 {"ldtrsh", 0x78800800, 0xffa00c00, ldst_unpriv
, 0, CORE
, OP2 (Rt
, ADDR_SIMM9
), QL_LDST_R16
, F_LDS_SIZE
},
1943 {"sttr", 0xb8000800, 0xbfe00c00, ldst_unpriv
, 0, CORE
, OP2 (Rt
, ADDR_SIMM9
), QL_LDST_R
, F_GPRSIZE_IN_Q
},
1944 {"ldtr", 0xb8400800, 0xbfe00c00, ldst_unpriv
, 0, CORE
, OP2 (Rt
, ADDR_SIMM9
), QL_LDST_R
, F_GPRSIZE_IN_Q
},
1945 {"ldtrsw", 0xb8800800, 0xffe00c00, ldst_unpriv
, 0, CORE
, OP2 (Rt
, ADDR_SIMM9
), QL_LDST_X32
, 0},
1946 /* Load/store register (unscaled immediate). */
1947 {"sturb", 0x38000000, 0xffe00c00, ldst_unscaled
, OP_STURB
, CORE
, OP2 (Rt
, ADDR_SIMM9
), QL_LDST_W8
, F_HAS_ALIAS
},
1948 {"ldurb", 0x38400000, 0xffe00c00, ldst_unscaled
, OP_LDURB
, CORE
, OP2 (Rt
, ADDR_SIMM9
), QL_LDST_W8
, F_HAS_ALIAS
},
1949 {"strb", 0x38000000, 0xffe00c00, ldst_unscaled
, 0, CORE
, OP2 (Rt
, ADDR_SIMM9_2
), QL_LDST_W8
, F_ALIAS
},
1950 {"ldrb", 0x38400000, 0xffe00c00, ldst_unscaled
, 0, CORE
, OP2 (Rt
, ADDR_SIMM9_2
), QL_LDST_W8
, F_ALIAS
},
1951 {"ldursb", 0x38800000, 0xffa00c00, ldst_unscaled
, OP_LDURSB
, CORE
, OP2 (Rt
, ADDR_SIMM9
), QL_LDST_R8
, F_HAS_ALIAS
| F_LDS_SIZE
},
1952 {"ldrsb", 0x38800000, 0xffa00c00, ldst_unscaled
, 0, CORE
, OP2 (Rt
, ADDR_SIMM9_2
), QL_LDST_R8
, F_ALIAS
| F_LDS_SIZE
},
1953 {"stur", 0x3c000000, 0x3f600c00, ldst_unscaled
, OP_STURV
, CORE
, OP2 (Ft
, ADDR_SIMM9
), QL_LDST_FP
, F_HAS_ALIAS
},
1954 {"ldur", 0x3c400000, 0x3f600c00, ldst_unscaled
, OP_LDURV
, CORE
, OP2 (Ft
, ADDR_SIMM9
), QL_LDST_FP
, F_HAS_ALIAS
},
1955 {"str", 0x3c000000, 0x3f600c00, ldst_unscaled
, 0, CORE
, OP2 (Ft
, ADDR_SIMM9_2
), QL_LDST_FP
, F_ALIAS
},
1956 {"ldr", 0x3c400000, 0x3f600c00, ldst_unscaled
, 0, CORE
, OP2 (Ft
, ADDR_SIMM9_2
), QL_LDST_FP
, F_ALIAS
},
1957 {"sturh", 0x78000000, 0xffe00c00, ldst_unscaled
, OP_STURH
, CORE
, OP2 (Rt
, ADDR_SIMM9
), QL_LDST_W16
, F_HAS_ALIAS
},
1958 {"ldurh", 0x78400000, 0xffe00c00, ldst_unscaled
, OP_LDURH
, CORE
, OP2 (Rt
, ADDR_SIMM9
), QL_LDST_W16
, F_HAS_ALIAS
},
1959 {"strh", 0x78000000, 0xffe00c00, ldst_unscaled
, 0, CORE
, OP2 (Rt
, ADDR_SIMM9_2
), QL_LDST_W16
, F_ALIAS
},
1960 {"ldrh", 0x78400000, 0xffe00c00, ldst_unscaled
, 0, CORE
, OP2 (Rt
, ADDR_SIMM9_2
), QL_LDST_W16
, F_ALIAS
},
1961 {"ldursh", 0x78800000, 0xffa00c00, ldst_unscaled
, OP_LDURSH
, CORE
, OP2 (Rt
, ADDR_SIMM9
), QL_LDST_R16
, F_HAS_ALIAS
| F_LDS_SIZE
},
1962 {"ldrsh", 0x78800000, 0xffa00c00, ldst_unscaled
, 0, CORE
, OP2 (Rt
, ADDR_SIMM9_2
), QL_LDST_R16
, F_ALIAS
| F_LDS_SIZE
},
1963 {"stur", 0xb8000000, 0xbfe00c00, ldst_unscaled
, OP_STUR
, CORE
, OP2 (Rt
, ADDR_SIMM9
), QL_LDST_R
, F_HAS_ALIAS
| F_GPRSIZE_IN_Q
},
1964 {"ldur", 0xb8400000, 0xbfe00c00, ldst_unscaled
, OP_LDUR
, CORE
, OP2 (Rt
, ADDR_SIMM9
), QL_LDST_R
, F_HAS_ALIAS
| F_GPRSIZE_IN_Q
},
1965 {"str", 0xb8000000, 0xbfe00c00, ldst_unscaled
, 0, CORE
, OP2 (Rt
, ADDR_SIMM9_2
), QL_LDST_R
, F_ALIAS
| F_GPRSIZE_IN_Q
},
1966 {"ldr", 0xb8400000, 0xbfe00c00, ldst_unscaled
, 0, CORE
, OP2 (Rt
, ADDR_SIMM9_2
), QL_LDST_R
, F_ALIAS
| F_GPRSIZE_IN_Q
},
1967 {"ldursw", 0xb8800000, 0xffe00c00, ldst_unscaled
, OP_LDURSW
, CORE
, OP2 (Rt
, ADDR_SIMM9
), QL_LDST_X32
, F_HAS_ALIAS
},
1968 {"ldrsw", 0xb8800000, 0xffe00c00, ldst_unscaled
, 0, CORE
, OP2 (Rt
, ADDR_SIMM9_2
), QL_LDST_X32
, F_ALIAS
},
1969 {"prfum", 0xf8800000, 0xffe00c00, ldst_unscaled
, OP_PRFUM
, CORE
, OP2 (PRFOP
, ADDR_SIMM9
), QL_LDST_PRFM
, F_HAS_ALIAS
},
1970 {"prfm", 0xf8800000, 0xffe00c00, ldst_unscaled
, 0, CORE
, OP2 (PRFOP
, ADDR_SIMM9_2
), QL_LDST_PRFM
, F_ALIAS
},
1971 /* Load/store exclusive. */
1972 {"stxrb", 0x8007c00, 0xffe08000, ldstexcl
, 0, CORE
, OP3 (Rs
, Rt
, ADDR_SIMPLE
), QL_W2_LDST_EXC
, 0},
1973 {"stlxrb", 0x800fc00, 0xffe08000, ldstexcl
, 0, CORE
, OP3 (Rs
, Rt
, ADDR_SIMPLE
), QL_W2_LDST_EXC
, 0},
1974 {"ldxrb", 0x85f7c00, 0xffe08000, ldstexcl
, 0, CORE
, OP2 (Rt
, ADDR_SIMPLE
), QL_W1_LDST_EXC
, 0},
1975 {"ldaxrb", 0x85ffc00, 0xffe08000, ldstexcl
, 0, CORE
, OP2 (Rt
, ADDR_SIMPLE
), QL_W1_LDST_EXC
, 0},
1976 {"stlrb", 0x89ffc00, 0xffe08000, ldstexcl
, 0, CORE
, OP2 (Rt
, ADDR_SIMPLE
), QL_W1_LDST_EXC
, 0},
1977 {"ldarb", 0x8dffc00, 0xffe08000, ldstexcl
, 0, CORE
, OP2 (Rt
, ADDR_SIMPLE
), QL_W1_LDST_EXC
, 0},
1978 {"stxrh", 0x48007c00, 0xffe08000, ldstexcl
, 0, CORE
, OP3 (Rs
, Rt
, ADDR_SIMPLE
), QL_W2_LDST_EXC
, 0},
1979 {"stlxrh", 0x4800fc00, 0xffe08000, ldstexcl
, 0, CORE
, OP3 (Rs
, Rt
, ADDR_SIMPLE
), QL_W2_LDST_EXC
, 0},
1980 {"ldxrh", 0x485f7c00, 0xffe08000, ldstexcl
, 0, CORE
, OP2 (Rt
, ADDR_SIMPLE
), QL_W1_LDST_EXC
, 0},
1981 {"ldaxrh", 0x485ffc00, 0xffe08000, ldstexcl
, 0, CORE
, OP2 (Rt
, ADDR_SIMPLE
), QL_W1_LDST_EXC
, 0},
1982 {"stlrh", 0x489ffc00, 0xffe08000, ldstexcl
, 0, CORE
, OP2 (Rt
, ADDR_SIMPLE
), QL_W1_LDST_EXC
, 0},
1983 {"ldarh", 0x48dffc00, 0xffe08000, ldstexcl
, 0, CORE
, OP2 (Rt
, ADDR_SIMPLE
), QL_W1_LDST_EXC
, 0},
1984 {"stxr", 0x88007c00, 0xbfe08000, ldstexcl
, 0, CORE
, OP3 (Rs
, Rt
, ADDR_SIMPLE
), QL_R2_LDST_EXC
, F_GPRSIZE_IN_Q
},
1985 {"stlxr", 0x8800fc00, 0xbfe08000, ldstexcl
, 0, CORE
, OP3 (Rs
, Rt
, ADDR_SIMPLE
), QL_R2_LDST_EXC
, F_GPRSIZE_IN_Q
},
1986 {"stxp", 0x88200000, 0xbfe08000, ldstexcl
, 0, CORE
, OP4 (Rs
, Rt
, Rt2
, ADDR_SIMPLE
), QL_R3_LDST_EXC
, F_GPRSIZE_IN_Q
},
1987 {"stlxp", 0x88208000, 0xbfe08000, ldstexcl
, 0, CORE
, OP4 (Rs
, Rt
, Rt2
, ADDR_SIMPLE
), QL_R3_LDST_EXC
, F_GPRSIZE_IN_Q
},
1988 {"ldxr", 0x885f7c00, 0xbfe08000, ldstexcl
, 0, CORE
, OP2 (Rt
, ADDR_SIMPLE
), QL_R1NIL
, F_GPRSIZE_IN_Q
},
1989 {"ldaxr", 0x885ffc00, 0xbfe08000, ldstexcl
, 0, CORE
, OP2 (Rt
, ADDR_SIMPLE
), QL_R1NIL
, F_GPRSIZE_IN_Q
},
1990 {"ldxp", 0x887f0000, 0xbfe08000, ldstexcl
, 0, CORE
, OP3 (Rt
, Rt2
, ADDR_SIMPLE
), QL_R2NIL
, F_GPRSIZE_IN_Q
},
1991 {"ldaxp", 0x887f8000, 0xbfe08000, ldstexcl
, 0, CORE
, OP3 (Rt
, Rt2
, ADDR_SIMPLE
), QL_R2NIL
, F_GPRSIZE_IN_Q
},
1992 {"stlr", 0x889ffc00, 0xbfe08000, ldstexcl
, 0, CORE
, OP2 (Rt
, ADDR_SIMPLE
), QL_R1NIL
, F_GPRSIZE_IN_Q
},
1993 {"ldar", 0x88dffc00, 0xbfe08000, ldstexcl
, 0, CORE
, OP2 (Rt
, ADDR_SIMPLE
), QL_R1NIL
, F_GPRSIZE_IN_Q
},
1994 /* Load/store no-allocate pair (offset). */
1995 {"stnp", 0x28000000, 0x7fc00000, ldstnapair_offs
, 0, CORE
, OP3 (Rt
, Rt2
, ADDR_SIMM7
), QL_LDST_PAIR_R
, F_SF
},
1996 {"ldnp", 0x28400000, 0x7fc00000, ldstnapair_offs
, 0, CORE
, OP3 (Rt
, Rt2
, ADDR_SIMM7
), QL_LDST_PAIR_R
, F_SF
},
1997 {"stnp", 0x2c000000, 0x3fc00000, ldstnapair_offs
, 0, CORE
, OP3 (Ft
, Ft2
, ADDR_SIMM7
), QL_LDST_PAIR_FP
, 0},
1998 {"ldnp", 0x2c400000, 0x3fc00000, ldstnapair_offs
, 0, CORE
, OP3 (Ft
, Ft2
, ADDR_SIMM7
), QL_LDST_PAIR_FP
, 0},
1999 /* Load/store register pair (offset). */
2000 {"stp", 0x29000000, 0x7ec00000, ldstpair_off
, 0, CORE
, OP3 (Rt
, Rt2
, ADDR_SIMM7
), QL_LDST_PAIR_R
, F_SF
},
2001 {"ldp", 0x29400000, 0x7ec00000, ldstpair_off
, 0, CORE
, OP3 (Rt
, Rt2
, ADDR_SIMM7
), QL_LDST_PAIR_R
, F_SF
},
2002 {"stp", 0x2d000000, 0x3fc00000, ldstpair_off
, 0, CORE
, OP3 (Ft
, Ft2
, ADDR_SIMM7
), QL_LDST_PAIR_FP
, 0},
2003 {"ldp", 0x2d400000, 0x3fc00000, ldstpair_off
, 0, CORE
, OP3 (Ft
, Ft2
, ADDR_SIMM7
), QL_LDST_PAIR_FP
, 0},
2004 {"ldpsw", 0x69400000, 0xffc00000, ldstpair_off
, 0, CORE
, OP3 (Rt
, Rt2
, ADDR_SIMM7
), QL_LDST_PAIR_X32
, 0},
2005 /* Load/store register pair (indexed). */
2006 {"stp", 0x28800000, 0x7ec00000, ldstpair_indexed
, 0, CORE
, OP3 (Rt
, Rt2
, ADDR_SIMM7
), QL_LDST_PAIR_R
, F_SF
},
2007 {"ldp", 0x28c00000, 0x7ec00000, ldstpair_indexed
, 0, CORE
, OP3 (Rt
, Rt2
, ADDR_SIMM7
), QL_LDST_PAIR_R
, F_SF
},
2008 {"stp", 0x2c800000, 0x3ec00000, ldstpair_indexed
, 0, CORE
, OP3 (Ft
, Ft2
, ADDR_SIMM7
), QL_LDST_PAIR_FP
, 0},
2009 {"ldp", 0x2cc00000, 0x3ec00000, ldstpair_indexed
, 0, CORE
, OP3 (Ft
, Ft2
, ADDR_SIMM7
), QL_LDST_PAIR_FP
, 0},
2010 {"ldpsw", 0x68c00000, 0xfec00000, ldstpair_indexed
, 0, CORE
, OP3 (Rt
, Rt2
, ADDR_SIMM7
), QL_LDST_PAIR_X32
, 0},
2011 /* Load register (literal). */
2012 {"ldr", 0x18000000, 0xbf000000, loadlit
, OP_LDR_LIT
, CORE
, OP2 (Rt
, ADDR_PCREL19
), QL_R_PCREL
, F_GPRSIZE_IN_Q
},
2013 {"ldr", 0x1c000000, 0x3f000000, loadlit
, OP_LDRV_LIT
, CORE
, OP2 (Ft
, ADDR_PCREL19
), QL_FP_PCREL
, 0},
2014 {"ldrsw", 0x98000000, 0xff000000, loadlit
, OP_LDRSW_LIT
, CORE
, OP2 (Rt
, ADDR_PCREL19
), QL_X_PCREL
, 0},
2015 {"prfm", 0xd8000000, 0xff000000, loadlit
, OP_PRFM_LIT
, CORE
, OP2 (PRFOP
, ADDR_PCREL19
), QL_PRFM_PCREL
, 0},
2016 /* Logical (immediate). */
2017 {"and", 0x12000000, 0x7f800000, log_imm
, 0, CORE
, OP3 (Rd_SP
, Rn
, LIMM
), QL_R2NIL
, F_HAS_ALIAS
| F_SF
},
2018 {"bic", 0x12000000, 0x7f800000, log_imm
, OP_BIC
, CORE
, OP3 (Rd_SP
, Rn
, LIMM
), QL_R2NIL
, F_ALIAS
| F_PSEUDO
| F_SF
},
2019 {"orr", 0x32000000, 0x7f800000, log_imm
, 0, CORE
, OP3 (Rd_SP
, Rn
, LIMM
), QL_R2NIL
, F_HAS_ALIAS
| F_SF
},
2020 {"mov", 0x320003e0, 0x7f8003e0, log_imm
, OP_MOV_IMM_LOG
, CORE
, OP2 (Rd_SP
, IMM_MOV
), QL_R1NIL
, F_ALIAS
| F_P1
| F_SF
| F_CONV
},
2021 {"eor", 0x52000000, 0x7f800000, log_imm
, 0, CORE
, OP3 (Rd_SP
, Rn
, LIMM
), QL_R2NIL
, F_SF
},
2022 {"ands", 0x72000000, 0x7f800000, log_imm
, 0, CORE
, OP3 (Rd
, Rn
, LIMM
), QL_R2NIL
, F_HAS_ALIAS
| F_SF
},
2023 {"tst", 0x7200001f, 0x7f80001f, log_imm
, 0, CORE
, OP2 (Rn
, LIMM
), QL_R1NIL
, F_ALIAS
| F_SF
},
2024 /* Logical (shifted register). */
2025 {"and", 0xa000000, 0x7f200000, log_shift
, 0, CORE
, OP3 (Rd
, Rn
, Rm_SFT
), QL_I3SAMER
, F_SF
},
2026 {"bic", 0xa200000, 0x7f200000, log_shift
, 0, CORE
, OP3 (Rd
, Rn
, Rm_SFT
), QL_I3SAMER
, F_SF
},
2027 {"orr", 0x2a000000, 0x7f200000, log_shift
, 0, CORE
, OP3 (Rd
, Rn
, Rm_SFT
), QL_I3SAMER
, F_HAS_ALIAS
| F_SF
},
2028 {"mov", 0x2a0003e0, 0x7f2003e0, log_shift
, 0, CORE
, OP2 (Rd
, Rm
), QL_I2SAMER
, F_ALIAS
| F_SF
},
2029 {"uxtw", 0x2a0003e0, 0x7f2003e0, log_shift
, OP_UXTW
, CORE
, OP2 (Rd
, Rm
), QL_I2SAMEW
, F_ALIAS
| F_PSEUDO
},
2030 {"orn", 0x2a200000, 0x7f200000, log_shift
, 0, CORE
, OP3 (Rd
, Rn
, Rm_SFT
), QL_I3SAMER
, F_HAS_ALIAS
| F_SF
},
2031 {"mvn", 0x2a2003e0, 0x7f2003e0, log_shift
, 0, CORE
, OP2 (Rd
, Rm_SFT
), QL_I2SAMER
, F_ALIAS
| F_SF
},
2032 {"eor", 0x4a000000, 0x7f200000, log_shift
, 0, CORE
, OP3 (Rd
, Rn
, Rm_SFT
), QL_I3SAMER
, F_SF
},
2033 {"eon", 0x4a200000, 0x7f200000, log_shift
, 0, CORE
, OP3 (Rd
, Rn
, Rm_SFT
), QL_I3SAMER
, F_SF
},
2034 {"ands", 0x6a000000, 0x7f200000, log_shift
, 0, CORE
, OP3 (Rd
, Rn
, Rm_SFT
), QL_I3SAMER
, F_HAS_ALIAS
| F_SF
},
2035 {"tst", 0x6a00001f, 0x7f20001f, log_shift
, 0, CORE
, OP2 (Rn
, Rm_SFT
), QL_I2SAMER
, F_ALIAS
| F_SF
},
2036 {"bics", 0x6a200000, 0x7f200000, log_shift
, 0, CORE
, OP3 (Rd
, Rn
, Rm_SFT
), QL_I3SAMER
, F_SF
},
2037 /* Move wide (immediate). */
2038 {"movn", 0x12800000, 0x7f800000, movewide
, OP_MOVN
, CORE
, OP2 (Rd
, HALF
), QL_DST_R
, F_SF
| F_HAS_ALIAS
},
2039 {"mov", 0x12800000, 0x7f800000, movewide
, OP_MOV_IMM_WIDEN
, CORE
, OP2 (Rd
, IMM_MOV
), QL_DST_R
, F_SF
| F_ALIAS
| F_CONV
},
2040 {"movz", 0x52800000, 0x7f800000, movewide
, OP_MOVZ
, CORE
, OP2 (Rd
, HALF
), QL_DST_R
, F_SF
| F_HAS_ALIAS
},
2041 {"mov", 0x52800000, 0x7f800000, movewide
, OP_MOV_IMM_WIDE
, CORE
, OP2 (Rd
, IMM_MOV
), QL_DST_R
, F_SF
| F_ALIAS
| F_CONV
},
2042 {"movk", 0x72800000, 0x7f800000, movewide
, OP_MOVK
, CORE
, OP2 (Rd
, HALF
), QL_DST_R
, F_SF
},
2043 /* PC-rel. addressing. */
2044 {"adr", 0x10000000, 0x9f000000, pcreladdr
, 0, CORE
, OP2 (Rd
, ADDR_PCREL21
), QL_ADRP
, 0},
2045 {"adrp", 0x90000000, 0x9f000000, pcreladdr
, 0, CORE
, OP2 (Rd
, ADDR_ADRP
), QL_ADRP
, 0},
2047 {"msr", 0xd500401f, 0xfff8f01f, ic_system
, 0, CORE
, OP2 (PSTATEFIELD
, UIMM4
), {}, 0},
2048 {"hint", 0xd503201f, 0xfffff01f, ic_system
, 0, CORE
, OP1 (UIMM7
), {}, F_HAS_ALIAS
},
2049 {"nop", 0xd503201f, 0xffffffff, ic_system
, 0, CORE
, OP0 (), {}, F_ALIAS
},
2050 {"yield", 0xd503203f, 0xffffffff, ic_system
, 0, CORE
, OP0 (), {}, F_ALIAS
},
2051 {"wfe", 0xd503205f, 0xffffffff, ic_system
, 0, CORE
, OP0 (), {}, F_ALIAS
},
2052 {"wfi", 0xd503207f, 0xffffffff, ic_system
, 0, CORE
, OP0 (), {}, F_ALIAS
},
2053 {"sev", 0xd503209f, 0xffffffff, ic_system
, 0, CORE
, OP0 (), {}, F_ALIAS
},
2054 {"sevl", 0xd50320bf, 0xffffffff, ic_system
, 0, CORE
, OP0 (), {}, F_ALIAS
},
2055 {"clrex", 0xd503305f, 0xfffff0ff, ic_system
, 0, CORE
, OP1 (UIMM4
), {}, F_OPD0_OPT
| F_DEFAULT (0xF)},
2056 {"dsb", 0xd503309f, 0xfffff0ff, ic_system
, 0, CORE
, OP1 (BARRIER
), {}, 0},
2057 {"dmb", 0xd50330bf, 0xfffff0ff, ic_system
, 0, CORE
, OP1 (BARRIER
), {}, 0},
2058 {"isb", 0xd50330df, 0xfffff0ff, ic_system
, 0, CORE
, OP1 (BARRIER_ISB
), {}, F_OPD0_OPT
| F_DEFAULT (0xF)},
2059 {"sys", 0xd5080000, 0xfff80000, ic_system
, 0, CORE
, OP5 (UIMM3_OP1
, Cn
, Cm
, UIMM3_OP2
, Rt
), QL_SYS
, F_HAS_ALIAS
| F_OPD4_OPT
| F_DEFAULT (0x1F)},
2060 {"at", 0xd5080000, 0xfff80000, ic_system
, 0, CORE
, OP2 (SYSREG_AT
, Rt
), QL_SRC_X
, F_ALIAS
},
2061 {"dc", 0xd5080000, 0xfff80000, ic_system
, 0, CORE
, OP2 (SYSREG_DC
, Rt
), QL_SRC_X
, F_ALIAS
},
2062 {"ic", 0xd5080000, 0xfff80000, ic_system
, 0, CORE
, OP2 (SYSREG_IC
, Rt_SYS
), QL_SRC_X
, F_ALIAS
| F_OPD1_OPT
| F_DEFAULT (0x1F)},
2063 {"tlbi", 0xd5080000, 0xfff80000, ic_system
, 0, CORE
, OP2 (SYSREG_TLBI
, Rt_SYS
), QL_SRC_X
, F_ALIAS
| F_OPD1_OPT
| F_DEFAULT (0x1F)},
2064 {"msr", 0xd5100000, 0xfff00000, ic_system
, 0, CORE
, OP2 (SYSREG
, Rt
), QL_SRC_X
, 0},
2065 {"sysl", 0xd5280000, 0xfff80000, ic_system
, 0, CORE
, OP5 (Rt
, UIMM3_OP1
, Cn
, Cm
, UIMM3_OP2
), QL_SYSL
, 0},
2066 {"mrs", 0xd5300000, 0xfff00000, ic_system
, 0, CORE
, OP2 (Rt
, SYSREG
), QL_DST_X
, 0},
2067 /* Test & branch (immediate). */
2068 {"tbz", 0x36000000, 0x7f000000, testbranch
, 0, CORE
, OP3 (Rt
, BIT_NUM
, ADDR_PCREL14
), QL_PCREL_14
, 0},
2069 {"tbnz", 0x37000000, 0x7f000000, testbranch
, 0, CORE
, OP3 (Rt
, BIT_NUM
, ADDR_PCREL14
), QL_PCREL_14
, 0},
2070 /* The old UAL conditional branch mnemonics (to aid portability). */
2071 {"beq", 0x54000000, 0xff00001f, condbranch
, 0, CORE
, OP1 (ADDR_PCREL19
), QL_PCREL_NIL
, F_ALIAS
| F_PSEUDO
},
2072 {"bne", 0x54000001, 0xff00001f, condbranch
, 0, CORE
, OP1 (ADDR_PCREL19
), QL_PCREL_NIL
, F_ALIAS
| F_PSEUDO
},
2073 {"bcs", 0x54000002, 0xff00001f, condbranch
, 0, CORE
, OP1 (ADDR_PCREL19
), QL_PCREL_NIL
, F_ALIAS
| F_PSEUDO
},
2074 {"bhs", 0x54000002, 0xff00001f, condbranch
, 0, CORE
, OP1 (ADDR_PCREL19
), QL_PCREL_NIL
, F_ALIAS
| F_PSEUDO
},
2075 {"bcc", 0x54000003, 0xff00001f, condbranch
, 0, CORE
, OP1 (ADDR_PCREL19
), QL_PCREL_NIL
, F_ALIAS
| F_PSEUDO
},
2076 {"blo", 0x54000003, 0xff00001f, condbranch
, 0, CORE
, OP1 (ADDR_PCREL19
), QL_PCREL_NIL
, F_ALIAS
| F_PSEUDO
},
2077 {"bmi", 0x54000004, 0xff00001f, condbranch
, 0, CORE
, OP1 (ADDR_PCREL19
), QL_PCREL_NIL
, F_ALIAS
| F_PSEUDO
},
2078 {"bpl", 0x54000005, 0xff00001f, condbranch
, 0, CORE
, OP1 (ADDR_PCREL19
), QL_PCREL_NIL
, F_ALIAS
| F_PSEUDO
},
2079 {"bvs", 0x54000006, 0xff00001f, condbranch
, 0, CORE
, OP1 (ADDR_PCREL19
), QL_PCREL_NIL
, F_ALIAS
| F_PSEUDO
},
2080 {"bvc", 0x54000007, 0xff00001f, condbranch
, 0, CORE
, OP1 (ADDR_PCREL19
), QL_PCREL_NIL
, F_ALIAS
| F_PSEUDO
},
2081 {"bhi", 0x54000008, 0xff00001f, condbranch
, 0, CORE
, OP1 (ADDR_PCREL19
), QL_PCREL_NIL
, F_ALIAS
| F_PSEUDO
},
2082 {"bls", 0x54000009, 0xff00001f, condbranch
, 0, CORE
, OP1 (ADDR_PCREL19
), QL_PCREL_NIL
, F_ALIAS
| F_PSEUDO
},
2083 {"bge", 0x5400000a, 0xff00001f, condbranch
, 0, CORE
, OP1 (ADDR_PCREL19
), QL_PCREL_NIL
, F_ALIAS
| F_PSEUDO
},
2084 {"blt", 0x5400000b, 0xff00001f, condbranch
, 0, CORE
, OP1 (ADDR_PCREL19
), QL_PCREL_NIL
, F_ALIAS
| F_PSEUDO
},
2085 {"bgt", 0x5400000c, 0xff00001f, condbranch
, 0, CORE
, OP1 (ADDR_PCREL19
), QL_PCREL_NIL
, F_ALIAS
| F_PSEUDO
},
2086 {"ble", 0x5400000d, 0xff00001f, condbranch
, 0, CORE
, OP1 (ADDR_PCREL19
), QL_PCREL_NIL
, F_ALIAS
| F_PSEUDO
},
2088 {0, 0, 0, 0, 0, 0, {}, {}, 0},
2091 #ifdef AARCH64_OPERANDS
2092 #undef AARCH64_OPERANDS
2095 /* Macro-based operand decription; this will be fed into aarch64-gen for it
2096 to generate the structure aarch64_operands and the function
2097 aarch64_insert_operand and aarch64_extract_operand.
2099 These inserters and extracters in the description execute the conversion
2100 between the aarch64_opnd_info and value in the operand-related instruction
2103 /* Y expects arguments (left to right) to be operand class, inserter/extractor
2104 name suffix, operand name, flags, related bitfield(s) and description.
2105 X only differs from Y by having the operand inserter and extractor names
2106 listed separately. */
2108 #define AARCH64_OPERANDS \
2109 Y(INT_REG, regno, "Rd", 0, F(FLD_Rd), "an integer register") \
2110 Y(INT_REG, regno, "Rn", 0, F(FLD_Rn), "an integer register") \
2111 Y(INT_REG, regno, "Rm", 0, F(FLD_Rm), "an integer register") \
2112 Y(INT_REG, regno, "Rt", 0, F(FLD_Rt), "an integer register") \
2113 Y(INT_REG, regno, "Rt2", 0, F(FLD_Rt2), "an integer register") \
2114 Y(INT_REG, regno, "Rs", 0, F(FLD_Rs), "an integer register") \
2115 Y(INT_REG, regno, "Ra", 0, F(FLD_Ra), "an integer register") \
2116 X(INT_REG, ins_regno, ext_regrt_sysins, "Rt_SYS", 0, F(FLD_Rt), \
2117 "an integer register") \
2118 Y(INT_REG, regno, "Rd_SP", OPD_F_MAYBE_SP, F(FLD_Rd), \
2119 "an integer or stack pointer register") \
2120 Y(INT_REG, regno, "Rn_SP", OPD_F_MAYBE_SP, F(FLD_Rn), \
2121 "an integer or stack pointer register") \
2122 Y(MODIFIED_REG, reg_extended, "Rm_EXT", 0, F(), \
2123 "an integer register with optional extension") \
2124 Y(MODIFIED_REG, reg_shifted, "Rm_SFT", 0, F(), \
2125 "an integer register with optional shift") \
2126 Y(FP_REG, regno, "Fd", 0, F(FLD_Rd), "a floating-point register") \
2127 Y(FP_REG, regno, "Fn", 0, F(FLD_Rn), "a floating-point register") \
2128 Y(FP_REG, regno, "Fm", 0, F(FLD_Rm), "a floating-point register") \
2129 Y(FP_REG, regno, "Fa", 0, F(FLD_Ra), "a floating-point register") \
2130 Y(FP_REG, ft, "Ft", 0, F(FLD_Rt), "a floating-point register") \
2131 Y(FP_REG, regno, "Ft2", 0, F(FLD_Rt2), "a floating-point register") \
2132 Y(SISD_REG, regno, "Sd", 0, F(FLD_Rd), "a SIMD scalar register") \
2133 Y(SISD_REG, regno, "Sn", 0, F(FLD_Rn), "a SIMD scalar register") \
2134 Y(SISD_REG, regno, "Sm", 0, F(FLD_Rm), "a SIMD scalar register") \
2135 Y(SIMD_REG, regno, "Vd", 0, F(FLD_Rd), "a SIMD vector register") \
2136 Y(SIMD_REG, regno, "Vn", 0, F(FLD_Rn), "a SIMD vector register") \
2137 Y(SIMD_REG, regno, "Vm", 0, F(FLD_Rm), "a SIMD vector register") \
2138 Y(FP_REG, regno, "VdD1", 0, F(FLD_Rd), \
2139 "the top half of a 128-bit FP/SIMD register") \
2140 Y(FP_REG, regno, "VnD1", 0, F(FLD_Rn), \
2141 "the top half of a 128-bit FP/SIMD register") \
2142 Y(SIMD_ELEMENT, reglane, "Ed", 0, F(FLD_Rd), \
2143 "a SIMD vector element") \
2144 Y(SIMD_ELEMENT, reglane, "En", 0, F(FLD_Rn), \
2145 "a SIMD vector element") \
2146 Y(SIMD_ELEMENT, reglane, "Em", 0, F(FLD_Rm), \
2147 "a SIMD vector element") \
2148 Y(SIMD_REGLIST, reglist, "LVn", 0, F(FLD_Rn), \
2149 "a SIMD vector register list") \
2150 Y(SIMD_REGLIST, ldst_reglist, "LVt", 0, F(), \
2151 "a SIMD vector register list") \
2152 Y(SIMD_REGLIST, ldst_reglist_r, "LVt_AL", 0, F(), \
2153 "a SIMD vector register list") \
2154 Y(SIMD_REGLIST, ldst_elemlist, "LEt", 0, F(), \
2155 "a SIMD vector element list") \
2156 Y(CP_REG, regno, "Cn", 0, F(FLD_CRn), \
2157 "a 4-bit opcode field named for historical reasons C0 - C15") \
2158 Y(CP_REG, regno, "Cm", 0, F(FLD_CRm), \
2159 "a 4-bit opcode field named for historical reasons C0 - C15") \
2160 Y(IMMEDIATE, imm, "IDX", 0, F(FLD_imm4), \
2161 "an immediate as the index of the least significant byte") \
2162 Y(IMMEDIATE, advsimd_imm_shift, "IMM_VLSL", 0, F(), \
2163 "a left shift amount for an AdvSIMD register") \
2164 Y(IMMEDIATE, advsimd_imm_shift, "IMM_VLSR", 0, F(), \
2165 "a right shift amount for an AdvSIMD register") \
2166 Y(IMMEDIATE, advsimd_imm_modified, "SIMD_IMM", 0, F(), \
2168 Y(IMMEDIATE, advsimd_imm_modified, "SIMD_IMM_SFT", 0, F(), \
2169 "an 8-bit unsigned immediate with optional shift") \
2170 Y(IMMEDIATE, advsimd_imm_modified, "SIMD_FPIMM", 0, F(), \
2171 "an 8-bit floating-point constant") \
2172 X(IMMEDIATE, 0, ext_shll_imm, "SHLL_IMM", 0, F(), \
2173 "an immediate shift amount of 8, 16 or 32") \
2174 X(IMMEDIATE, 0, 0, "IMM0", 0, F(), "0") \
2175 X(IMMEDIATE, 0, 0, "FPIMM0", 0, F(), "0.0") \
2176 Y(IMMEDIATE, imm, "FPIMM", 0, F(FLD_imm8), \
2177 "an 8-bit floating-point constant") \
2178 Y(IMMEDIATE, imm, "IMMR", 0, F(FLD_immr), \
2179 "the right rotate amount") \
2180 Y(IMMEDIATE, imm, "IMMS", 0, F(FLD_imm6), \
2181 "the leftmost bit number to be moved from the source") \
2182 Y(IMMEDIATE, imm, "WIDTH", 0, F(FLD_imm6), \
2183 "the width of the bit-field") \
2184 Y(IMMEDIATE, imm, "IMM", 0, F(FLD_imm6), "an immediate") \
2185 Y(IMMEDIATE, imm, "UIMM3_OP1", 0, F(FLD_op1), \
2186 "a 3-bit unsigned immediate") \
2187 Y(IMMEDIATE, imm, "UIMM3_OP2", 0, F(FLD_op2), \
2188 "a 3-bit unsigned immediate") \
2189 Y(IMMEDIATE, imm, "UIMM4", 0, F(FLD_CRm), \
2190 "a 4-bit unsigned immediate") \
2191 Y(IMMEDIATE, imm, "UIMM7", 0, F(FLD_CRm, FLD_op2), \
2192 "a 7-bit unsigned immediate") \
2193 Y(IMMEDIATE, imm, "BIT_NUM", 0, F(FLD_b5, FLD_b40), \
2194 "the bit number to be tested") \
2195 Y(IMMEDIATE, imm, "EXCEPTION", 0, F(FLD_imm16), \
2196 "a 16-bit unsigned immediate") \
2197 Y(IMMEDIATE, imm, "CCMP_IMM", 0, F(FLD_imm5), \
2198 "a 5-bit unsigned immediate") \
2199 Y(IMMEDIATE, imm, "NZCV", 0, F(FLD_nzcv), \
2200 "a flag bit specifier giving an alternative value for each flag") \
2201 Y(IMMEDIATE, limm, "LIMM", 0, F(FLD_N,FLD_immr,FLD_imms), \
2202 "Logical immediate") \
2203 Y(IMMEDIATE, aimm, "AIMM", 0, F(FLD_shift,FLD_imm12), \
2204 "a 12-bit unsigned immediate with optional left shift of 12 bits")\
2205 Y(IMMEDIATE, imm_half, "HALF", 0, F(FLD_imm16), \
2206 "a 16-bit immediate with optional left shift") \
2207 Y(IMMEDIATE, fbits, "FBITS", 0, F(FLD_scale), \
2208 "the number of bits after the binary point in the fixed-point value")\
2209 X(IMMEDIATE, 0, 0, "IMM_MOV", 0, F(), "an immediate") \
2210 Y(NIL, cond, "COND", 0, F(), "a condition") \
2211 X(ADDRESS, 0, ext_imm, "ADDR_ADRP", OPD_F_SEXT, F(FLD_immhi, FLD_immlo),\
2212 "21-bit PC-relative address of a 4KB page") \
2213 Y(ADDRESS, imm, "ADDR_PCREL14", OPD_F_SEXT | OPD_F_SHIFT_BY_2, \
2214 F(FLD_imm14), "14-bit PC-relative address") \
2215 Y(ADDRESS, imm, "ADDR_PCREL19", OPD_F_SEXT | OPD_F_SHIFT_BY_2, \
2216 F(FLD_imm19), "19-bit PC-relative address") \
2217 Y(ADDRESS, imm, "ADDR_PCREL21", OPD_F_SEXT, F(FLD_immhi,FLD_immlo), \
2218 "21-bit PC-relative address") \
2219 Y(ADDRESS, imm, "ADDR_PCREL26", OPD_F_SEXT | OPD_F_SHIFT_BY_2, \
2220 F(FLD_imm26), "26-bit PC-relative address") \
2221 Y(ADDRESS, addr_simple, "ADDR_SIMPLE", 0, F(), \
2222 "an address with base register (no offset)") \
2223 Y(ADDRESS, addr_regoff, "ADDR_REGOFF", 0, F(), \
2224 "an address with register offset") \
2225 Y(ADDRESS, addr_simm, "ADDR_SIMM7", 0, F(FLD_imm7,FLD_index2), \
2226 "an address with 7-bit signed immediate offset") \
2227 Y(ADDRESS, addr_simm, "ADDR_SIMM9", 0, F(FLD_imm9,FLD_index), \
2228 "an address with 9-bit signed immediate offset") \
2229 Y(ADDRESS, addr_simm, "ADDR_SIMM9_2", 0, F(FLD_imm9,FLD_index), \
2230 "an address with 9-bit negative or unaligned immediate offset") \
2231 Y(ADDRESS, addr_uimm12, "ADDR_UIMM12", 0, F(FLD_Rn,FLD_imm12), \
2232 "an address with scaled, unsigned immediate offset") \
2233 Y(ADDRESS, addr_simple, "SIMD_ADDR_SIMPLE", 0, F(), \
2234 "an address with base register (no offset)") \
2235 Y(ADDRESS, simd_addr_post, "SIMD_ADDR_POST", 0, F(), \
2236 "a post-indexed address with immediate or register increment") \
2237 Y(SYSTEM, sysreg, "SYSREG", 0, F(), "a system register") \
2238 Y(SYSTEM, pstatefield, "PSTATEFIELD", 0, F(), \
2239 "a PSTATE field name") \
2240 Y(SYSTEM, sysins_op, "SYSREG_AT", 0, F(), \
2241 "an address translation operation specifier") \
2242 Y(SYSTEM, sysins_op, "SYSREG_DC", 0, F(), \
2243 "a data cache maintenance operation specifier") \
2244 Y(SYSTEM, sysins_op, "SYSREG_IC", 0, F(), \
2245 "an instructin cache maintenance operation specifier") \
2246 Y(SYSTEM, sysins_op, "SYSREG_TLBI", 0, F(), \
2247 "a TBL invalidation operation specifier") \
2248 Y(SYSTEM, barrier, "BARRIER", 0, F(), \
2249 "a barrier option name") \
2250 Y(SYSTEM, barrier, "BARRIER_ISB", 0, F(), \
2251 "the ISB option name SY or an optional 4-bit unsigned immediate") \
2252 Y(SYSTEM, prfop, "PRFOP", 0, F(), \
2253 "an prefetch operation specifier")