1 /* Print i386 instructions for GDB, the GNU debugger.
2 Copyright (C) 1988-2019 Free Software Foundation, Inc.
4 This file is part of the GNU opcodes library.
6 This library is free software; you can redistribute it and/or modify
7 it under the terms of the GNU General Public License as published by
8 the Free Software Foundation; either version 3, or (at your option)
11 It is distributed in the hope that it will be useful, but WITHOUT
12 ANY WARRANTY; without even the implied warranty of MERCHANTABILITY
13 or FITNESS FOR A PARTICULAR PURPOSE. See the GNU General Public
14 License for more details.
16 You should have received a copy of the GNU General Public License
17 along with this program; if not, write to the Free Software
18 Foundation, Inc., 51 Franklin Street - Fifth Floor, Boston,
19 MA 02110-1301, USA. */
22 /* 80386 instruction printer by Pace Willisson (pace@prep.ai.mit.edu)
24 modified by John Hassey (hassey@dg-rtp.dg.com)
25 x86-64 support added by Jan Hubicka (jh@suse.cz)
26 VIA PadLock support by Michal Ludvig (mludvig@suse.cz). */
28 /* The main tables describing the instructions is essentially a copy
29 of the "Opcode Map" chapter (Appendix A) of the Intel 80386
30 Programmers Manual. Usually, there is a capital letter, followed
31 by a small letter. The capital letter tell the addressing mode,
32 and the small letter tells about the operand size. Refer to
33 the Intel manual for details. */
36 #include "disassemble.h"
38 #include "opcode/i386.h"
39 #include "libiberty.h"
43 static int print_insn (bfd_vma
, disassemble_info
*);
44 static void dofloat (int);
45 static void OP_ST (int, int);
46 static void OP_STi (int, int);
47 static int putop (const char *, int);
48 static void oappend (const char *);
49 static void append_seg (void);
50 static void OP_indirE (int, int);
51 static void print_operand_value (char *, int, bfd_vma
);
52 static void OP_E_register (int, int);
53 static void OP_E_memory (int, int);
54 static void print_displacement (char *, bfd_vma
);
55 static void OP_E (int, int);
56 static void OP_G (int, int);
57 static bfd_vma
get64 (void);
58 static bfd_signed_vma
get32 (void);
59 static bfd_signed_vma
get32s (void);
60 static int get16 (void);
61 static void set_op (bfd_vma
, int);
62 static void OP_Skip_MODRM (int, int);
63 static void OP_REG (int, int);
64 static void OP_IMREG (int, int);
65 static void OP_I (int, int);
66 static void OP_I64 (int, int);
67 static void OP_sI (int, int);
68 static void OP_J (int, int);
69 static void OP_SEG (int, int);
70 static void OP_DIR (int, int);
71 static void OP_OFF (int, int);
72 static void OP_OFF64 (int, int);
73 static void ptr_reg (int, int);
74 static void OP_ESreg (int, int);
75 static void OP_DSreg (int, int);
76 static void OP_C (int, int);
77 static void OP_D (int, int);
78 static void OP_T (int, int);
79 static void OP_R (int, int);
80 static void OP_MMX (int, int);
81 static void OP_XMM (int, int);
82 static void OP_EM (int, int);
83 static void OP_EX (int, int);
84 static void OP_EMC (int,int);
85 static void OP_MXC (int,int);
86 static void OP_MS (int, int);
87 static void OP_XS (int, int);
88 static void OP_M (int, int);
89 static void OP_VEX (int, int);
90 static void OP_EX_Vex (int, int);
91 static void OP_EX_VexW (int, int);
92 static void OP_EX_VexImmW (int, int);
93 static void OP_XMM_Vex (int, int);
94 static void OP_XMM_VexW (int, int);
95 static void OP_Rounding (int, int);
96 static void OP_REG_VexI4 (int, int);
97 static void PCLMUL_Fixup (int, int);
98 static void VCMP_Fixup (int, int);
99 static void VPCMP_Fixup (int, int);
100 static void VPCOM_Fixup (int, int);
101 static void OP_0f07 (int, int);
102 static void OP_Monitor (int, int);
103 static void OP_Mwait (int, int);
104 static void OP_Mwaitx (int, int);
105 static void NOP_Fixup1 (int, int);
106 static void NOP_Fixup2 (int, int);
107 static void OP_3DNowSuffix (int, int);
108 static void CMP_Fixup (int, int);
109 static void BadOp (void);
110 static void REP_Fixup (int, int);
111 static void BND_Fixup (int, int);
112 static void NOTRACK_Fixup (int, int);
113 static void HLE_Fixup1 (int, int);
114 static void HLE_Fixup2 (int, int);
115 static void HLE_Fixup3 (int, int);
116 static void CMPXCHG8B_Fixup (int, int);
117 static void XMM_Fixup (int, int);
118 static void CRC32_Fixup (int, int);
119 static void FXSAVE_Fixup (int, int);
120 static void PCMPESTR_Fixup (int, int);
121 static void OP_LWPCB_E (int, int);
122 static void OP_LWP_E (int, int);
123 static void OP_Vex_2src_1 (int, int);
124 static void OP_Vex_2src_2 (int, int);
126 static void MOVBE_Fixup (int, int);
128 static void OP_Mask (int, int);
131 /* Points to first byte not fetched. */
132 bfd_byte
*max_fetched
;
133 bfd_byte the_buffer
[MAX_MNEM_SIZE
];
136 OPCODES_SIGJMP_BUF bailout
;
146 enum address_mode address_mode
;
148 /* Flags for the prefixes for the current instruction. See below. */
151 /* REX prefix the current instruction. See below. */
153 /* Bits of REX we've already used. */
155 /* REX bits in original REX prefix ignored. */
156 static int rex_ignored
;
157 /* Mark parts used in the REX prefix. When we are testing for
158 empty prefix (for 8bit register REX extension), just mask it
159 out. Otherwise test for REX bit is excuse for existence of REX
160 only in case value is nonzero. */
161 #define USED_REX(value) \
166 rex_used |= (value) | REX_OPCODE; \
169 rex_used |= REX_OPCODE; \
172 /* Flags for prefixes which we somehow handled when printing the
173 current instruction. */
174 static int used_prefixes
;
176 /* Flags stored in PREFIXES. */
177 #define PREFIX_REPZ 1
178 #define PREFIX_REPNZ 2
179 #define PREFIX_LOCK 4
181 #define PREFIX_SS 0x10
182 #define PREFIX_DS 0x20
183 #define PREFIX_ES 0x40
184 #define PREFIX_FS 0x80
185 #define PREFIX_GS 0x100
186 #define PREFIX_DATA 0x200
187 #define PREFIX_ADDR 0x400
188 #define PREFIX_FWAIT 0x800
190 /* Make sure that bytes from INFO->PRIVATE_DATA->BUFFER (inclusive)
191 to ADDR (exclusive) are valid. Returns 1 for success, longjmps
193 #define FETCH_DATA(info, addr) \
194 ((addr) <= ((struct dis_private *) (info->private_data))->max_fetched \
195 ? 1 : fetch_data ((info), (addr)))
198 fetch_data (struct disassemble_info
*info
, bfd_byte
*addr
)
201 struct dis_private
*priv
= (struct dis_private
*) info
->private_data
;
202 bfd_vma start
= priv
->insn_start
+ (priv
->max_fetched
- priv
->the_buffer
);
204 if (addr
<= priv
->the_buffer
+ MAX_MNEM_SIZE
)
205 status
= (*info
->read_memory_func
) (start
,
207 addr
- priv
->max_fetched
,
213 /* If we did manage to read at least one byte, then
214 print_insn_i386 will do something sensible. Otherwise, print
215 an error. We do that here because this is where we know
217 if (priv
->max_fetched
== priv
->the_buffer
)
218 (*info
->memory_error_func
) (status
, start
, info
);
219 OPCODES_SIGLONGJMP (priv
->bailout
, 1);
222 priv
->max_fetched
= addr
;
226 /* Possible values for prefix requirement. */
227 #define PREFIX_IGNORED_SHIFT 16
228 #define PREFIX_IGNORED_REPZ (PREFIX_REPZ << PREFIX_IGNORED_SHIFT)
229 #define PREFIX_IGNORED_REPNZ (PREFIX_REPNZ << PREFIX_IGNORED_SHIFT)
230 #define PREFIX_IGNORED_DATA (PREFIX_DATA << PREFIX_IGNORED_SHIFT)
231 #define PREFIX_IGNORED_ADDR (PREFIX_ADDR << PREFIX_IGNORED_SHIFT)
232 #define PREFIX_IGNORED_LOCK (PREFIX_LOCK << PREFIX_IGNORED_SHIFT)
234 /* Opcode prefixes. */
235 #define PREFIX_OPCODE (PREFIX_REPZ \
239 /* Prefixes ignored. */
240 #define PREFIX_IGNORED (PREFIX_IGNORED_REPZ \
241 | PREFIX_IGNORED_REPNZ \
242 | PREFIX_IGNORED_DATA)
244 #define XX { NULL, 0 }
245 #define Bad_Opcode NULL, { { NULL, 0 } }, 0
247 #define Eb { OP_E, b_mode }
248 #define Ebnd { OP_E, bnd_mode }
249 #define EbS { OP_E, b_swap_mode }
250 #define EbndS { OP_E, bnd_swap_mode }
251 #define Ev { OP_E, v_mode }
252 #define Eva { OP_E, va_mode }
253 #define Ev_bnd { OP_E, v_bnd_mode }
254 #define EvS { OP_E, v_swap_mode }
255 #define Ed { OP_E, d_mode }
256 #define Edq { OP_E, dq_mode }
257 #define Edqw { OP_E, dqw_mode }
258 #define Edqb { OP_E, dqb_mode }
259 #define Edb { OP_E, db_mode }
260 #define Edw { OP_E, dw_mode }
261 #define Edqd { OP_E, dqd_mode }
262 #define Eq { OP_E, q_mode }
263 #define indirEv { OP_indirE, indir_v_mode }
264 #define indirEp { OP_indirE, f_mode }
265 #define stackEv { OP_E, stack_v_mode }
266 #define Em { OP_E, m_mode }
267 #define Ew { OP_E, w_mode }
268 #define M { OP_M, 0 } /* lea, lgdt, etc. */
269 #define Ma { OP_M, a_mode }
270 #define Mb { OP_M, b_mode }
271 #define Md { OP_M, d_mode }
272 #define Mo { OP_M, o_mode }
273 #define Mp { OP_M, f_mode } /* 32 or 48 bit memory operand for LDS, LES etc */
274 #define Mq { OP_M, q_mode }
275 #define Mv_bnd { OP_M, v_bndmk_mode }
276 #define Mx { OP_M, x_mode }
277 #define Mxmm { OP_M, xmm_mode }
278 #define Gb { OP_G, b_mode }
279 #define Gbnd { OP_G, bnd_mode }
280 #define Gv { OP_G, v_mode }
281 #define Gd { OP_G, d_mode }
282 #define Gdq { OP_G, dq_mode }
283 #define Gm { OP_G, m_mode }
284 #define Gva { OP_G, va_mode }
285 #define Gw { OP_G, w_mode }
286 #define Rd { OP_R, d_mode }
287 #define Rdq { OP_R, dq_mode }
288 #define Rm { OP_R, m_mode }
289 #define Ib { OP_I, b_mode }
290 #define sIb { OP_sI, b_mode } /* sign extened byte */
291 #define sIbT { OP_sI, b_T_mode } /* sign extened byte like 'T' */
292 #define Iv { OP_I, v_mode }
293 #define sIv { OP_sI, v_mode }
294 #define Iv64 { OP_I64, v_mode }
295 #define Id { OP_I, d_mode }
296 #define Iw { OP_I, w_mode }
297 #define I1 { OP_I, const_1_mode }
298 #define Jb { OP_J, b_mode }
299 #define Jv { OP_J, v_mode }
300 #define Cm { OP_C, m_mode }
301 #define Dm { OP_D, m_mode }
302 #define Td { OP_T, d_mode }
303 #define Skip_MODRM { OP_Skip_MODRM, 0 }
305 #define RMeAX { OP_REG, eAX_reg }
306 #define RMeBX { OP_REG, eBX_reg }
307 #define RMeCX { OP_REG, eCX_reg }
308 #define RMeDX { OP_REG, eDX_reg }
309 #define RMeSP { OP_REG, eSP_reg }
310 #define RMeBP { OP_REG, eBP_reg }
311 #define RMeSI { OP_REG, eSI_reg }
312 #define RMeDI { OP_REG, eDI_reg }
313 #define RMrAX { OP_REG, rAX_reg }
314 #define RMrBX { OP_REG, rBX_reg }
315 #define RMrCX { OP_REG, rCX_reg }
316 #define RMrDX { OP_REG, rDX_reg }
317 #define RMrSP { OP_REG, rSP_reg }
318 #define RMrBP { OP_REG, rBP_reg }
319 #define RMrSI { OP_REG, rSI_reg }
320 #define RMrDI { OP_REG, rDI_reg }
321 #define RMAL { OP_REG, al_reg }
322 #define RMCL { OP_REG, cl_reg }
323 #define RMDL { OP_REG, dl_reg }
324 #define RMBL { OP_REG, bl_reg }
325 #define RMAH { OP_REG, ah_reg }
326 #define RMCH { OP_REG, ch_reg }
327 #define RMDH { OP_REG, dh_reg }
328 #define RMBH { OP_REG, bh_reg }
329 #define RMAX { OP_REG, ax_reg }
330 #define RMDX { OP_REG, dx_reg }
332 #define eAX { OP_IMREG, eAX_reg }
333 #define eBX { OP_IMREG, eBX_reg }
334 #define eCX { OP_IMREG, eCX_reg }
335 #define eDX { OP_IMREG, eDX_reg }
336 #define eSP { OP_IMREG, eSP_reg }
337 #define eBP { OP_IMREG, eBP_reg }
338 #define eSI { OP_IMREG, eSI_reg }
339 #define eDI { OP_IMREG, eDI_reg }
340 #define AL { OP_IMREG, al_reg }
341 #define CL { OP_IMREG, cl_reg }
342 #define DL { OP_IMREG, dl_reg }
343 #define BL { OP_IMREG, bl_reg }
344 #define AH { OP_IMREG, ah_reg }
345 #define CH { OP_IMREG, ch_reg }
346 #define DH { OP_IMREG, dh_reg }
347 #define BH { OP_IMREG, bh_reg }
348 #define AX { OP_IMREG, ax_reg }
349 #define DX { OP_IMREG, dx_reg }
350 #define zAX { OP_IMREG, z_mode_ax_reg }
351 #define indirDX { OP_IMREG, indir_dx_reg }
353 #define Sw { OP_SEG, w_mode }
354 #define Sv { OP_SEG, v_mode }
355 #define Ap { OP_DIR, 0 }
356 #define Ob { OP_OFF64, b_mode }
357 #define Ov { OP_OFF64, v_mode }
358 #define Xb { OP_DSreg, eSI_reg }
359 #define Xv { OP_DSreg, eSI_reg }
360 #define Xz { OP_DSreg, eSI_reg }
361 #define Yb { OP_ESreg, eDI_reg }
362 #define Yv { OP_ESreg, eDI_reg }
363 #define DSBX { OP_DSreg, eBX_reg }
365 #define es { OP_REG, es_reg }
366 #define ss { OP_REG, ss_reg }
367 #define cs { OP_REG, cs_reg }
368 #define ds { OP_REG, ds_reg }
369 #define fs { OP_REG, fs_reg }
370 #define gs { OP_REG, gs_reg }
372 #define MX { OP_MMX, 0 }
373 #define XM { OP_XMM, 0 }
374 #define XMScalar { OP_XMM, scalar_mode }
375 #define XMGatherQ { OP_XMM, vex_vsib_q_w_dq_mode }
376 #define XMM { OP_XMM, xmm_mode }
377 #define XMxmmq { OP_XMM, xmmq_mode }
378 #define EM { OP_EM, v_mode }
379 #define EMS { OP_EM, v_swap_mode }
380 #define EMd { OP_EM, d_mode }
381 #define EMx { OP_EM, x_mode }
382 #define EXbScalar { OP_EX, b_scalar_mode }
383 #define EXw { OP_EX, w_mode }
384 #define EXwScalar { OP_EX, w_scalar_mode }
385 #define EXd { OP_EX, d_mode }
386 #define EXdScalar { OP_EX, d_scalar_mode }
387 #define EXdS { OP_EX, d_swap_mode }
388 #define EXdScalarS { OP_EX, d_scalar_swap_mode }
389 #define EXq { OP_EX, q_mode }
390 #define EXqScalar { OP_EX, q_scalar_mode }
391 #define EXqScalarS { OP_EX, q_scalar_swap_mode }
392 #define EXqS { OP_EX, q_swap_mode }
393 #define EXx { OP_EX, x_mode }
394 #define EXxS { OP_EX, x_swap_mode }
395 #define EXxmm { OP_EX, xmm_mode }
396 #define EXymm { OP_EX, ymm_mode }
397 #define EXxmmq { OP_EX, xmmq_mode }
398 #define EXEvexHalfBcstXmmq { OP_EX, evex_half_bcst_xmmq_mode }
399 #define EXxmm_mb { OP_EX, xmm_mb_mode }
400 #define EXxmm_mw { OP_EX, xmm_mw_mode }
401 #define EXxmm_md { OP_EX, xmm_md_mode }
402 #define EXxmm_mq { OP_EX, xmm_mq_mode }
403 #define EXxmm_mdq { OP_EX, xmm_mdq_mode }
404 #define EXxmmdw { OP_EX, xmmdw_mode }
405 #define EXxmmqd { OP_EX, xmmqd_mode }
406 #define EXymmq { OP_EX, ymmq_mode }
407 #define EXVexWdq { OP_EX, vex_w_dq_mode }
408 #define EXVexWdqScalar { OP_EX, vex_scalar_w_dq_mode }
409 #define EXEvexXGscat { OP_EX, evex_x_gscat_mode }
410 #define EXEvexXNoBcst { OP_EX, evex_x_nobcst_mode }
411 #define MS { OP_MS, v_mode }
412 #define XS { OP_XS, v_mode }
413 #define EMCq { OP_EMC, q_mode }
414 #define MXC { OP_MXC, 0 }
415 #define OPSUF { OP_3DNowSuffix, 0 }
416 #define CMP { CMP_Fixup, 0 }
417 #define XMM0 { XMM_Fixup, 0 }
418 #define FXSAVE { FXSAVE_Fixup, 0 }
419 #define Vex_2src_1 { OP_Vex_2src_1, 0 }
420 #define Vex_2src_2 { OP_Vex_2src_2, 0 }
422 #define Vex { OP_VEX, vex_mode }
423 #define VexScalar { OP_VEX, vex_scalar_mode }
424 #define VexGatherQ { OP_VEX, vex_vsib_q_w_dq_mode }
425 #define Vex128 { OP_VEX, vex128_mode }
426 #define Vex256 { OP_VEX, vex256_mode }
427 #define VexGdq { OP_VEX, dq_mode }
428 #define EXdVex { OP_EX_Vex, d_mode }
429 #define EXdVexS { OP_EX_Vex, d_swap_mode }
430 #define EXdVexScalarS { OP_EX_Vex, d_scalar_swap_mode }
431 #define EXqVex { OP_EX_Vex, q_mode }
432 #define EXqVexS { OP_EX_Vex, q_swap_mode }
433 #define EXqVexScalarS { OP_EX_Vex, q_scalar_swap_mode }
434 #define EXVexW { OP_EX_VexW, x_mode }
435 #define EXdVexW { OP_EX_VexW, d_mode }
436 #define EXqVexW { OP_EX_VexW, q_mode }
437 #define EXVexImmW { OP_EX_VexImmW, x_mode }
438 #define XMVex { OP_XMM_Vex, 0 }
439 #define XMVexScalar { OP_XMM_Vex, scalar_mode }
440 #define XMVexW { OP_XMM_VexW, 0 }
441 #define XMVexI4 { OP_REG_VexI4, x_mode }
442 #define PCLMUL { PCLMUL_Fixup, 0 }
443 #define VCMP { VCMP_Fixup, 0 }
444 #define VPCMP { VPCMP_Fixup, 0 }
445 #define VPCOM { VPCOM_Fixup, 0 }
447 #define EXxEVexR { OP_Rounding, evex_rounding_mode }
448 #define EXxEVexR64 { OP_Rounding, evex_rounding_64_mode }
449 #define EXxEVexS { OP_Rounding, evex_sae_mode }
451 #define XMask { OP_Mask, mask_mode }
452 #define MaskG { OP_G, mask_mode }
453 #define MaskE { OP_E, mask_mode }
454 #define MaskBDE { OP_E, mask_bd_mode }
455 #define MaskR { OP_R, mask_mode }
456 #define MaskVex { OP_VEX, mask_mode }
458 #define MVexVSIBDWpX { OP_M, vex_vsib_d_w_dq_mode }
459 #define MVexVSIBDQWpX { OP_M, vex_vsib_d_w_d_mode }
460 #define MVexVSIBQWpX { OP_M, vex_vsib_q_w_dq_mode }
461 #define MVexVSIBQDWpX { OP_M, vex_vsib_q_w_d_mode }
463 /* Used handle "rep" prefix for string instructions. */
464 #define Xbr { REP_Fixup, eSI_reg }
465 #define Xvr { REP_Fixup, eSI_reg }
466 #define Ybr { REP_Fixup, eDI_reg }
467 #define Yvr { REP_Fixup, eDI_reg }
468 #define Yzr { REP_Fixup, eDI_reg }
469 #define indirDXr { REP_Fixup, indir_dx_reg }
470 #define ALr { REP_Fixup, al_reg }
471 #define eAXr { REP_Fixup, eAX_reg }
473 /* Used handle HLE prefix for lockable instructions. */
474 #define Ebh1 { HLE_Fixup1, b_mode }
475 #define Evh1 { HLE_Fixup1, v_mode }
476 #define Ebh2 { HLE_Fixup2, b_mode }
477 #define Evh2 { HLE_Fixup2, v_mode }
478 #define Ebh3 { HLE_Fixup3, b_mode }
479 #define Evh3 { HLE_Fixup3, v_mode }
481 #define BND { BND_Fixup, 0 }
482 #define NOTRACK { NOTRACK_Fixup, 0 }
484 #define cond_jump_flag { NULL, cond_jump_mode }
485 #define loop_jcxz_flag { NULL, loop_jcxz_mode }
487 /* bits in sizeflag */
488 #define SUFFIX_ALWAYS 4
496 /* byte operand with operand swapped */
498 /* byte operand, sign extend like 'T' suffix */
500 /* operand size depends on prefixes */
502 /* operand size depends on prefixes with operand swapped */
504 /* operand size depends on address prefix */
508 /* double word operand */
510 /* double word operand with operand swapped */
512 /* quad word operand */
514 /* quad word operand with operand swapped */
516 /* ten-byte operand */
518 /* 16-byte XMM, 32-byte YMM or 64-byte ZMM operand. In EVEX with
519 broadcast enabled. */
521 /* Similar to x_mode, but with different EVEX mem shifts. */
523 /* Similar to x_mode, but with disabled broadcast. */
525 /* Similar to x_mode, but with operands swapped and disabled broadcast
528 /* 16-byte XMM operand */
530 /* XMM, XMM or YMM register operand, or quad word, xmmword or ymmword
531 memory operand (depending on vector length). Broadcast isn't
534 /* Same as xmmq_mode, but broadcast is allowed. */
535 evex_half_bcst_xmmq_mode
,
536 /* XMM register or byte memory operand */
538 /* XMM register or word memory operand */
540 /* XMM register or double word memory operand */
542 /* XMM register or quad word memory operand */
544 /* XMM register or double/quad word memory operand, depending on
547 /* 16-byte XMM, word, double word or quad word operand. */
549 /* 16-byte XMM, double word, quad word operand or xmm word operand. */
551 /* 32-byte YMM operand */
553 /* quad word, ymmword or zmmword memory operand. */
555 /* 32-byte YMM or 16-byte word operand */
557 /* d_mode in 32bit, q_mode in 64bit mode. */
559 /* pair of v_mode operands */
564 /* like v_bnd_mode in 32bit, no RIP-rel in 64bit mode. */
566 /* operand size depends on REX prefixes. */
568 /* registers like dq_mode, memory like w_mode. */
572 /* bounds operand with operand swapped */
574 /* 4- or 6-byte pointer operand */
577 /* v_mode for indirect branch opcodes. */
579 /* v_mode for stack-related opcodes. */
581 /* non-quad operand size depends on prefixes */
583 /* 16-byte operand */
585 /* registers like dq_mode, memory like b_mode. */
587 /* registers like d_mode, memory like b_mode. */
589 /* registers like d_mode, memory like w_mode. */
591 /* registers like dq_mode, memory like d_mode. */
593 /* normal vex mode */
595 /* 128bit vex mode */
597 /* 256bit vex mode */
599 /* operand size depends on the VEX.W bit. */
602 /* Similar to vex_w_dq_mode, with VSIB dword indices. */
603 vex_vsib_d_w_dq_mode
,
604 /* Similar to vex_vsib_d_w_dq_mode, with smaller memory. */
606 /* Similar to vex_w_dq_mode, with VSIB qword indices. */
607 vex_vsib_q_w_dq_mode
,
608 /* Similar to vex_vsib_q_w_dq_mode, with smaller memory. */
611 /* scalar, ignore vector length. */
613 /* like b_mode, ignore vector length. */
615 /* like w_mode, ignore vector length. */
617 /* like d_mode, ignore vector length. */
619 /* like d_swap_mode, ignore vector length. */
621 /* like q_mode, ignore vector length. */
623 /* like q_swap_mode, ignore vector length. */
625 /* like vex_mode, ignore vector length. */
627 /* like vex_w_dq_mode, ignore vector length. */
628 vex_scalar_w_dq_mode
,
630 /* Static rounding. */
632 /* Static rounding, 64-bit mode only. */
633 evex_rounding_64_mode
,
634 /* Supress all exceptions. */
637 /* Mask register operand. */
639 /* Mask register operand. */
707 #define FLOAT NULL, { { NULL, FLOATCODE } }, 0
709 #define DIS386(T, I) NULL, { { NULL, (T)}, { NULL, (I) } }, 0
710 #define DIS386_PREFIX(T, I, P) NULL, { { NULL, (T)}, { NULL, (I) } }, P
711 #define REG_TABLE(I) DIS386 (USE_REG_TABLE, (I))
712 #define MOD_TABLE(I) DIS386 (USE_MOD_TABLE, (I))
713 #define RM_TABLE(I) DIS386 (USE_RM_TABLE, (I))
714 #define PREFIX_TABLE(I) DIS386 (USE_PREFIX_TABLE, (I))
715 #define X86_64_TABLE(I) DIS386 (USE_X86_64_TABLE, (I))
716 #define THREE_BYTE_TABLE(I) DIS386 (USE_3BYTE_TABLE, (I))
717 #define THREE_BYTE_TABLE_PREFIX(I, P) DIS386_PREFIX (USE_3BYTE_TABLE, (I), P)
718 #define XOP_8F_TABLE(I) DIS386 (USE_XOP_8F_TABLE, (I))
719 #define VEX_C4_TABLE(I) DIS386 (USE_VEX_C4_TABLE, (I))
720 #define VEX_C5_TABLE(I) DIS386 (USE_VEX_C5_TABLE, (I))
721 #define VEX_LEN_TABLE(I) DIS386 (USE_VEX_LEN_TABLE, (I))
722 #define VEX_W_TABLE(I) DIS386 (USE_VEX_W_TABLE, (I))
723 #define EVEX_TABLE(I) DIS386 (USE_EVEX_TABLE, (I))
724 #define EVEX_LEN_TABLE(I) DIS386 (USE_EVEX_LEN_TABLE, (I))
852 MOD_VEX_0F12_PREFIX_0
,
854 MOD_VEX_0F16_PREFIX_0
,
857 MOD_VEX_W_0_0F41_P_0_LEN_1
,
858 MOD_VEX_W_1_0F41_P_0_LEN_1
,
859 MOD_VEX_W_0_0F41_P_2_LEN_1
,
860 MOD_VEX_W_1_0F41_P_2_LEN_1
,
861 MOD_VEX_W_0_0F42_P_0_LEN_1
,
862 MOD_VEX_W_1_0F42_P_0_LEN_1
,
863 MOD_VEX_W_0_0F42_P_2_LEN_1
,
864 MOD_VEX_W_1_0F42_P_2_LEN_1
,
865 MOD_VEX_W_0_0F44_P_0_LEN_1
,
866 MOD_VEX_W_1_0F44_P_0_LEN_1
,
867 MOD_VEX_W_0_0F44_P_2_LEN_1
,
868 MOD_VEX_W_1_0F44_P_2_LEN_1
,
869 MOD_VEX_W_0_0F45_P_0_LEN_1
,
870 MOD_VEX_W_1_0F45_P_0_LEN_1
,
871 MOD_VEX_W_0_0F45_P_2_LEN_1
,
872 MOD_VEX_W_1_0F45_P_2_LEN_1
,
873 MOD_VEX_W_0_0F46_P_0_LEN_1
,
874 MOD_VEX_W_1_0F46_P_0_LEN_1
,
875 MOD_VEX_W_0_0F46_P_2_LEN_1
,
876 MOD_VEX_W_1_0F46_P_2_LEN_1
,
877 MOD_VEX_W_0_0F47_P_0_LEN_1
,
878 MOD_VEX_W_1_0F47_P_0_LEN_1
,
879 MOD_VEX_W_0_0F47_P_2_LEN_1
,
880 MOD_VEX_W_1_0F47_P_2_LEN_1
,
881 MOD_VEX_W_0_0F4A_P_0_LEN_1
,
882 MOD_VEX_W_1_0F4A_P_0_LEN_1
,
883 MOD_VEX_W_0_0F4A_P_2_LEN_1
,
884 MOD_VEX_W_1_0F4A_P_2_LEN_1
,
885 MOD_VEX_W_0_0F4B_P_0_LEN_1
,
886 MOD_VEX_W_1_0F4B_P_0_LEN_1
,
887 MOD_VEX_W_0_0F4B_P_2_LEN_1
,
899 MOD_VEX_W_0_0F91_P_0_LEN_0
,
900 MOD_VEX_W_1_0F91_P_0_LEN_0
,
901 MOD_VEX_W_0_0F91_P_2_LEN_0
,
902 MOD_VEX_W_1_0F91_P_2_LEN_0
,
903 MOD_VEX_W_0_0F92_P_0_LEN_0
,
904 MOD_VEX_W_0_0F92_P_2_LEN_0
,
905 MOD_VEX_0F92_P_3_LEN_0
,
906 MOD_VEX_W_0_0F93_P_0_LEN_0
,
907 MOD_VEX_W_0_0F93_P_2_LEN_0
,
908 MOD_VEX_0F93_P_3_LEN_0
,
909 MOD_VEX_W_0_0F98_P_0_LEN_0
,
910 MOD_VEX_W_1_0F98_P_0_LEN_0
,
911 MOD_VEX_W_0_0F98_P_2_LEN_0
,
912 MOD_VEX_W_1_0F98_P_2_LEN_0
,
913 MOD_VEX_W_0_0F99_P_0_LEN_0
,
914 MOD_VEX_W_1_0F99_P_0_LEN_0
,
915 MOD_VEX_W_0_0F99_P_2_LEN_0
,
916 MOD_VEX_W_1_0F99_P_2_LEN_0
,
919 MOD_VEX_0FD7_PREFIX_2
,
920 MOD_VEX_0FE7_PREFIX_2
,
921 MOD_VEX_0FF0_PREFIX_3
,
922 MOD_VEX_0F381A_PREFIX_2
,
923 MOD_VEX_0F382A_PREFIX_2
,
924 MOD_VEX_0F382C_PREFIX_2
,
925 MOD_VEX_0F382D_PREFIX_2
,
926 MOD_VEX_0F382E_PREFIX_2
,
927 MOD_VEX_0F382F_PREFIX_2
,
928 MOD_VEX_0F385A_PREFIX_2
,
929 MOD_VEX_0F388C_PREFIX_2
,
930 MOD_VEX_0F388E_PREFIX_2
,
931 MOD_VEX_W_0_0F3A30_P_2_LEN_0
,
932 MOD_VEX_W_1_0F3A30_P_2_LEN_0
,
933 MOD_VEX_W_0_0F3A31_P_2_LEN_0
,
934 MOD_VEX_W_1_0F3A31_P_2_LEN_0
,
935 MOD_VEX_W_0_0F3A32_P_2_LEN_0
,
936 MOD_VEX_W_1_0F3A32_P_2_LEN_0
,
937 MOD_VEX_W_0_0F3A33_P_2_LEN_0
,
938 MOD_VEX_W_1_0F3A33_P_2_LEN_0
,
940 MOD_EVEX_0F10_PREFIX_1
,
941 MOD_EVEX_0F10_PREFIX_3
,
942 MOD_EVEX_0F11_PREFIX_1
,
943 MOD_EVEX_0F11_PREFIX_3
,
944 MOD_EVEX_0F12_PREFIX_0
,
945 MOD_EVEX_0F16_PREFIX_0
,
946 MOD_EVEX_0F38C6_REG_1
,
947 MOD_EVEX_0F38C6_REG_2
,
948 MOD_EVEX_0F38C6_REG_5
,
949 MOD_EVEX_0F38C6_REG_6
,
950 MOD_EVEX_0F38C7_REG_1
,
951 MOD_EVEX_0F38C7_REG_2
,
952 MOD_EVEX_0F38C7_REG_5
,
953 MOD_EVEX_0F38C7_REG_6
974 PREFIX_MOD_0_0F01_REG_5
,
975 PREFIX_MOD_3_0F01_REG_5_RM_0
,
976 PREFIX_MOD_3_0F01_REG_5_RM_2
,
1022 PREFIX_MOD_0_0FAE_REG_4
,
1023 PREFIX_MOD_3_0FAE_REG_4
,
1024 PREFIX_MOD_0_0FAE_REG_5
,
1025 PREFIX_MOD_3_0FAE_REG_5
,
1026 PREFIX_MOD_0_0FAE_REG_6
,
1027 PREFIX_MOD_1_0FAE_REG_6
,
1034 PREFIX_MOD_0_0FC7_REG_6
,
1035 PREFIX_MOD_3_0FC7_REG_6
,
1036 PREFIX_MOD_3_0FC7_REG_7
,
1166 PREFIX_VEX_0F71_REG_2
,
1167 PREFIX_VEX_0F71_REG_4
,
1168 PREFIX_VEX_0F71_REG_6
,
1169 PREFIX_VEX_0F72_REG_2
,
1170 PREFIX_VEX_0F72_REG_4
,
1171 PREFIX_VEX_0F72_REG_6
,
1172 PREFIX_VEX_0F73_REG_2
,
1173 PREFIX_VEX_0F73_REG_3
,
1174 PREFIX_VEX_0F73_REG_6
,
1175 PREFIX_VEX_0F73_REG_7
,
1348 PREFIX_VEX_0F38F3_REG_1
,
1349 PREFIX_VEX_0F38F3_REG_2
,
1350 PREFIX_VEX_0F38F3_REG_3
,
1469 PREFIX_EVEX_0F71_REG_2
,
1470 PREFIX_EVEX_0F71_REG_4
,
1471 PREFIX_EVEX_0F71_REG_6
,
1472 PREFIX_EVEX_0F72_REG_0
,
1473 PREFIX_EVEX_0F72_REG_1
,
1474 PREFIX_EVEX_0F72_REG_2
,
1475 PREFIX_EVEX_0F72_REG_4
,
1476 PREFIX_EVEX_0F72_REG_6
,
1477 PREFIX_EVEX_0F73_REG_2
,
1478 PREFIX_EVEX_0F73_REG_3
,
1479 PREFIX_EVEX_0F73_REG_6
,
1480 PREFIX_EVEX_0F73_REG_7
,
1677 PREFIX_EVEX_0F38C6_REG_1
,
1678 PREFIX_EVEX_0F38C6_REG_2
,
1679 PREFIX_EVEX_0F38C6_REG_5
,
1680 PREFIX_EVEX_0F38C6_REG_6
,
1681 PREFIX_EVEX_0F38C7_REG_1
,
1682 PREFIX_EVEX_0F38C7_REG_2
,
1683 PREFIX_EVEX_0F38C7_REG_5
,
1684 PREFIX_EVEX_0F38C7_REG_6
,
1786 THREE_BYTE_0F38
= 0,
1813 VEX_LEN_0F12_P_0_M_0
= 0,
1814 VEX_LEN_0F12_P_0_M_1
,
1817 VEX_LEN_0F16_P_0_M_0
,
1818 VEX_LEN_0F16_P_0_M_1
,
1855 VEX_LEN_0FAE_R_2_M_0
,
1856 VEX_LEN_0FAE_R_3_M_0
,
1863 VEX_LEN_0F381A_P_2_M_0
,
1866 VEX_LEN_0F385A_P_2_M_0
,
1869 VEX_LEN_0F38F3_R_1_P_0
,
1870 VEX_LEN_0F38F3_R_2_P_0
,
1871 VEX_LEN_0F38F3_R_3_P_0
,
1914 VEX_LEN_0FXOP_08_CC
,
1915 VEX_LEN_0FXOP_08_CD
,
1916 VEX_LEN_0FXOP_08_CE
,
1917 VEX_LEN_0FXOP_08_CF
,
1918 VEX_LEN_0FXOP_08_EC
,
1919 VEX_LEN_0FXOP_08_ED
,
1920 VEX_LEN_0FXOP_08_EE
,
1921 VEX_LEN_0FXOP_08_EF
,
1922 VEX_LEN_0FXOP_09_80
,
1928 EVEX_LEN_0F6E_P_2
= 0,
1932 EVEX_LEN_0F3819_P_2_W_0
,
1933 EVEX_LEN_0F3819_P_2_W_1
,
1934 EVEX_LEN_0F381A_P_2_W_0
,
1935 EVEX_LEN_0F381A_P_2_W_1
,
1936 EVEX_LEN_0F381B_P_2_W_0
,
1937 EVEX_LEN_0F381B_P_2_W_1
,
1938 EVEX_LEN_0F385A_P_2_W_0
,
1939 EVEX_LEN_0F385A_P_2_W_1
,
1940 EVEX_LEN_0F385B_P_2_W_0
,
1941 EVEX_LEN_0F385B_P_2_W_1
,
1942 EVEX_LEN_0F3A18_P_2_W_0
,
1943 EVEX_LEN_0F3A18_P_2_W_1
,
1944 EVEX_LEN_0F3A19_P_2_W_0
,
1945 EVEX_LEN_0F3A19_P_2_W_1
,
1946 EVEX_LEN_0F3A1A_P_2_W_0
,
1947 EVEX_LEN_0F3A1A_P_2_W_1
,
1948 EVEX_LEN_0F3A1B_P_2_W_0
,
1949 EVEX_LEN_0F3A1B_P_2_W_1
,
1950 EVEX_LEN_0F3A23_P_2_W_0
,
1951 EVEX_LEN_0F3A23_P_2_W_1
,
1952 EVEX_LEN_0F3A38_P_2_W_0
,
1953 EVEX_LEN_0F3A38_P_2_W_1
,
1954 EVEX_LEN_0F3A39_P_2_W_0
,
1955 EVEX_LEN_0F3A39_P_2_W_1
,
1956 EVEX_LEN_0F3A3A_P_2_W_0
,
1957 EVEX_LEN_0F3A3A_P_2_W_1
,
1958 EVEX_LEN_0F3A3B_P_2_W_0
,
1959 EVEX_LEN_0F3A3B_P_2_W_1
,
1960 EVEX_LEN_0F3A43_P_2_W_0
,
1961 EVEX_LEN_0F3A43_P_2_W_1
1966 VEX_W_0F41_P_0_LEN_1
= 0,
1967 VEX_W_0F41_P_2_LEN_1
,
1968 VEX_W_0F42_P_0_LEN_1
,
1969 VEX_W_0F42_P_2_LEN_1
,
1970 VEX_W_0F44_P_0_LEN_0
,
1971 VEX_W_0F44_P_2_LEN_0
,
1972 VEX_W_0F45_P_0_LEN_1
,
1973 VEX_W_0F45_P_2_LEN_1
,
1974 VEX_W_0F46_P_0_LEN_1
,
1975 VEX_W_0F46_P_2_LEN_1
,
1976 VEX_W_0F47_P_0_LEN_1
,
1977 VEX_W_0F47_P_2_LEN_1
,
1978 VEX_W_0F4A_P_0_LEN_1
,
1979 VEX_W_0F4A_P_2_LEN_1
,
1980 VEX_W_0F4B_P_0_LEN_1
,
1981 VEX_W_0F4B_P_2_LEN_1
,
1982 VEX_W_0F90_P_0_LEN_0
,
1983 VEX_W_0F90_P_2_LEN_0
,
1984 VEX_W_0F91_P_0_LEN_0
,
1985 VEX_W_0F91_P_2_LEN_0
,
1986 VEX_W_0F92_P_0_LEN_0
,
1987 VEX_W_0F92_P_2_LEN_0
,
1988 VEX_W_0F93_P_0_LEN_0
,
1989 VEX_W_0F93_P_2_LEN_0
,
1990 VEX_W_0F98_P_0_LEN_0
,
1991 VEX_W_0F98_P_2_LEN_0
,
1992 VEX_W_0F99_P_0_LEN_0
,
1993 VEX_W_0F99_P_2_LEN_0
,
2001 VEX_W_0F381A_P_2_M_0
,
2002 VEX_W_0F382C_P_2_M_0
,
2003 VEX_W_0F382D_P_2_M_0
,
2004 VEX_W_0F382E_P_2_M_0
,
2005 VEX_W_0F382F_P_2_M_0
,
2010 VEX_W_0F385A_P_2_M_0
,
2022 VEX_W_0F3A30_P_2_LEN_0
,
2023 VEX_W_0F3A31_P_2_LEN_0
,
2024 VEX_W_0F3A32_P_2_LEN_0
,
2025 VEX_W_0F3A33_P_2_LEN_0
,
2038 EVEX_W_0F10_P_1_M_0
,
2039 EVEX_W_0F10_P_1_M_1
,
2041 EVEX_W_0F10_P_3_M_0
,
2042 EVEX_W_0F10_P_3_M_1
,
2044 EVEX_W_0F11_P_1_M_0
,
2045 EVEX_W_0F11_P_1_M_1
,
2047 EVEX_W_0F11_P_3_M_0
,
2048 EVEX_W_0F11_P_3_M_1
,
2049 EVEX_W_0F12_P_0_M_0
,
2050 EVEX_W_0F12_P_0_M_1
,
2060 EVEX_W_0F16_P_0_M_0
,
2061 EVEX_W_0F16_P_0_M_1
,
2130 EVEX_W_0F72_R_2_P_2
,
2131 EVEX_W_0F72_R_6_P_2
,
2132 EVEX_W_0F73_R_2_P_2
,
2133 EVEX_W_0F73_R_6_P_2
,
2243 EVEX_W_0F38C7_R_1_P_2
,
2244 EVEX_W_0F38C7_R_2_P_2
,
2245 EVEX_W_0F38C7_R_5_P_2
,
2246 EVEX_W_0F38C7_R_6_P_2
,
2285 typedef void (*op_rtn
) (int bytemode
, int sizeflag
);
2294 unsigned int prefix_requirement
;
2297 /* Upper case letters in the instruction names here are macros.
2298 'A' => print 'b' if no register operands or suffix_always is true
2299 'B' => print 'b' if suffix_always is true
2300 'C' => print 's' or 'l' ('w' or 'd' in Intel mode) depending on operand
2302 'D' => print 'w' if no register operands or 'w', 'l' or 'q', if
2303 suffix_always is true
2304 'E' => print 'e' if 32-bit form of jcxz
2305 'F' => print 'w' or 'l' depending on address size prefix (loop insns)
2306 'G' => print 'w' or 'l' depending on operand size prefix (i/o insns)
2307 'H' => print ",pt" or ",pn" branch hint
2308 'I' => honor following macro letter even in Intel mode (implemented only
2309 for some of the macro letters)
2311 'K' => print 'd' or 'q' if rex prefix is present.
2312 'L' => print 'l' if suffix_always is true
2313 'M' => print 'r' if intel_mnemonic is false.
2314 'N' => print 'n' if instruction has no wait "prefix"
2315 'O' => print 'd' or 'o' (or 'q' in Intel mode)
2316 'P' => print 'w', 'l' or 'q' if instruction has an operand size prefix,
2317 or suffix_always is true. print 'q' if rex prefix is present.
2318 'Q' => print 'w', 'l' or 'q' for memory operand or suffix_always
2320 'R' => print 'w', 'l' or 'q' ('d' for 'l' and 'e' in Intel mode)
2321 'S' => print 'w', 'l' or 'q' if suffix_always is true
2322 'T' => print 'q' in 64bit mode if instruction has no operand size
2323 prefix and behave as 'P' otherwise
2324 'U' => print 'q' in 64bit mode if instruction has no operand size
2325 prefix and behave as 'Q' otherwise
2326 'V' => print 'q' in 64bit mode if instruction has no operand size
2327 prefix and behave as 'S' otherwise
2328 'W' => print 'b', 'w' or 'l' ('d' in Intel mode)
2329 'X' => print 's', 'd' depending on data16 prefix (for XMM)
2331 'Z' => print 'q' in 64bit mode and behave as 'L' otherwise
2332 '!' => change condition from true to false or from false to true.
2333 '%' => add 1 upper case letter to the macro.
2334 '^' => print 'w' or 'l' depending on operand size prefix or
2335 suffix_always is true (lcall/ljmp).
2336 '@' => print 'q' for Intel64 ISA, 'w' or 'q' for AMD64 ISA depending
2337 on operand size prefix.
2338 '&' => print 'q' in 64bit mode for Intel64 ISA or if instruction
2339 has no operand size prefix for AMD64 ISA, behave as 'P'
2342 2 upper case letter macros:
2343 "XY" => print 'x' or 'y' if suffix_always is true or no register
2344 operands and no broadcast.
2345 "XZ" => print 'x', 'y', or 'z' if suffix_always is true or no
2346 register operands and no broadcast.
2347 "XW" => print 's', 'd' depending on the VEX.W bit (for FMA)
2348 "LQ" => print 'l' ('d' in Intel mode) or 'q' for memory operand
2349 or suffix_always is true
2350 "LB" => print "abs" in 64bit mode and behave as 'B' otherwise
2351 "LS" => print "abs" in 64bit mode and behave as 'S' otherwise
2352 "LV" => print "abs" for 64bit operand and behave as 'S' otherwise
2353 "LW" => print 'd', 'q' depending on the VEX.W bit
2354 "LP" => print 'w' or 'l' ('d' in Intel mode) if instruction has
2355 an operand size prefix, or suffix_always is true. print
2356 'q' if rex prefix is present.
2358 Many of the above letters print nothing in Intel mode. See "putop"
2361 Braces '{' and '}', and vertical bars '|', indicate alternative
2362 mnemonic strings for AT&T and Intel. */
2364 static const struct dis386 dis386
[] = {
2366 { "addB", { Ebh1
, Gb
}, 0 },
2367 { "addS", { Evh1
, Gv
}, 0 },
2368 { "addB", { Gb
, EbS
}, 0 },
2369 { "addS", { Gv
, EvS
}, 0 },
2370 { "addB", { AL
, Ib
}, 0 },
2371 { "addS", { eAX
, Iv
}, 0 },
2372 { X86_64_TABLE (X86_64_06
) },
2373 { X86_64_TABLE (X86_64_07
) },
2375 { "orB", { Ebh1
, Gb
}, 0 },
2376 { "orS", { Evh1
, Gv
}, 0 },
2377 { "orB", { Gb
, EbS
}, 0 },
2378 { "orS", { Gv
, EvS
}, 0 },
2379 { "orB", { AL
, Ib
}, 0 },
2380 { "orS", { eAX
, Iv
}, 0 },
2381 { X86_64_TABLE (X86_64_0D
) },
2382 { Bad_Opcode
}, /* 0x0f extended opcode escape */
2384 { "adcB", { Ebh1
, Gb
}, 0 },
2385 { "adcS", { Evh1
, Gv
}, 0 },
2386 { "adcB", { Gb
, EbS
}, 0 },
2387 { "adcS", { Gv
, EvS
}, 0 },
2388 { "adcB", { AL
, Ib
}, 0 },
2389 { "adcS", { eAX
, Iv
}, 0 },
2390 { X86_64_TABLE (X86_64_16
) },
2391 { X86_64_TABLE (X86_64_17
) },
2393 { "sbbB", { Ebh1
, Gb
}, 0 },
2394 { "sbbS", { Evh1
, Gv
}, 0 },
2395 { "sbbB", { Gb
, EbS
}, 0 },
2396 { "sbbS", { Gv
, EvS
}, 0 },
2397 { "sbbB", { AL
, Ib
}, 0 },
2398 { "sbbS", { eAX
, Iv
}, 0 },
2399 { X86_64_TABLE (X86_64_1E
) },
2400 { X86_64_TABLE (X86_64_1F
) },
2402 { "andB", { Ebh1
, Gb
}, 0 },
2403 { "andS", { Evh1
, Gv
}, 0 },
2404 { "andB", { Gb
, EbS
}, 0 },
2405 { "andS", { Gv
, EvS
}, 0 },
2406 { "andB", { AL
, Ib
}, 0 },
2407 { "andS", { eAX
, Iv
}, 0 },
2408 { Bad_Opcode
}, /* SEG ES prefix */
2409 { X86_64_TABLE (X86_64_27
) },
2411 { "subB", { Ebh1
, Gb
}, 0 },
2412 { "subS", { Evh1
, Gv
}, 0 },
2413 { "subB", { Gb
, EbS
}, 0 },
2414 { "subS", { Gv
, EvS
}, 0 },
2415 { "subB", { AL
, Ib
}, 0 },
2416 { "subS", { eAX
, Iv
}, 0 },
2417 { Bad_Opcode
}, /* SEG CS prefix */
2418 { X86_64_TABLE (X86_64_2F
) },
2420 { "xorB", { Ebh1
, Gb
}, 0 },
2421 { "xorS", { Evh1
, Gv
}, 0 },
2422 { "xorB", { Gb
, EbS
}, 0 },
2423 { "xorS", { Gv
, EvS
}, 0 },
2424 { "xorB", { AL
, Ib
}, 0 },
2425 { "xorS", { eAX
, Iv
}, 0 },
2426 { Bad_Opcode
}, /* SEG SS prefix */
2427 { X86_64_TABLE (X86_64_37
) },
2429 { "cmpB", { Eb
, Gb
}, 0 },
2430 { "cmpS", { Ev
, Gv
}, 0 },
2431 { "cmpB", { Gb
, EbS
}, 0 },
2432 { "cmpS", { Gv
, EvS
}, 0 },
2433 { "cmpB", { AL
, Ib
}, 0 },
2434 { "cmpS", { eAX
, Iv
}, 0 },
2435 { Bad_Opcode
}, /* SEG DS prefix */
2436 { X86_64_TABLE (X86_64_3F
) },
2438 { "inc{S|}", { RMeAX
}, 0 },
2439 { "inc{S|}", { RMeCX
}, 0 },
2440 { "inc{S|}", { RMeDX
}, 0 },
2441 { "inc{S|}", { RMeBX
}, 0 },
2442 { "inc{S|}", { RMeSP
}, 0 },
2443 { "inc{S|}", { RMeBP
}, 0 },
2444 { "inc{S|}", { RMeSI
}, 0 },
2445 { "inc{S|}", { RMeDI
}, 0 },
2447 { "dec{S|}", { RMeAX
}, 0 },
2448 { "dec{S|}", { RMeCX
}, 0 },
2449 { "dec{S|}", { RMeDX
}, 0 },
2450 { "dec{S|}", { RMeBX
}, 0 },
2451 { "dec{S|}", { RMeSP
}, 0 },
2452 { "dec{S|}", { RMeBP
}, 0 },
2453 { "dec{S|}", { RMeSI
}, 0 },
2454 { "dec{S|}", { RMeDI
}, 0 },
2456 { "pushV", { RMrAX
}, 0 },
2457 { "pushV", { RMrCX
}, 0 },
2458 { "pushV", { RMrDX
}, 0 },
2459 { "pushV", { RMrBX
}, 0 },
2460 { "pushV", { RMrSP
}, 0 },
2461 { "pushV", { RMrBP
}, 0 },
2462 { "pushV", { RMrSI
}, 0 },
2463 { "pushV", { RMrDI
}, 0 },
2465 { "popV", { RMrAX
}, 0 },
2466 { "popV", { RMrCX
}, 0 },
2467 { "popV", { RMrDX
}, 0 },
2468 { "popV", { RMrBX
}, 0 },
2469 { "popV", { RMrSP
}, 0 },
2470 { "popV", { RMrBP
}, 0 },
2471 { "popV", { RMrSI
}, 0 },
2472 { "popV", { RMrDI
}, 0 },
2474 { X86_64_TABLE (X86_64_60
) },
2475 { X86_64_TABLE (X86_64_61
) },
2476 { X86_64_TABLE (X86_64_62
) },
2477 { X86_64_TABLE (X86_64_63
) },
2478 { Bad_Opcode
}, /* seg fs */
2479 { Bad_Opcode
}, /* seg gs */
2480 { Bad_Opcode
}, /* op size prefix */
2481 { Bad_Opcode
}, /* adr size prefix */
2483 { "pushT", { sIv
}, 0 },
2484 { "imulS", { Gv
, Ev
, Iv
}, 0 },
2485 { "pushT", { sIbT
}, 0 },
2486 { "imulS", { Gv
, Ev
, sIb
}, 0 },
2487 { "ins{b|}", { Ybr
, indirDX
}, 0 },
2488 { X86_64_TABLE (X86_64_6D
) },
2489 { "outs{b|}", { indirDXr
, Xb
}, 0 },
2490 { X86_64_TABLE (X86_64_6F
) },
2492 { "joH", { Jb
, BND
, cond_jump_flag
}, 0 },
2493 { "jnoH", { Jb
, BND
, cond_jump_flag
}, 0 },
2494 { "jbH", { Jb
, BND
, cond_jump_flag
}, 0 },
2495 { "jaeH", { Jb
, BND
, cond_jump_flag
}, 0 },
2496 { "jeH", { Jb
, BND
, cond_jump_flag
}, 0 },
2497 { "jneH", { Jb
, BND
, cond_jump_flag
}, 0 },
2498 { "jbeH", { Jb
, BND
, cond_jump_flag
}, 0 },
2499 { "jaH", { Jb
, BND
, cond_jump_flag
}, 0 },
2501 { "jsH", { Jb
, BND
, cond_jump_flag
}, 0 },
2502 { "jnsH", { Jb
, BND
, cond_jump_flag
}, 0 },
2503 { "jpH", { Jb
, BND
, cond_jump_flag
}, 0 },
2504 { "jnpH", { Jb
, BND
, cond_jump_flag
}, 0 },
2505 { "jlH", { Jb
, BND
, cond_jump_flag
}, 0 },
2506 { "jgeH", { Jb
, BND
, cond_jump_flag
}, 0 },
2507 { "jleH", { Jb
, BND
, cond_jump_flag
}, 0 },
2508 { "jgH", { Jb
, BND
, cond_jump_flag
}, 0 },
2510 { REG_TABLE (REG_80
) },
2511 { REG_TABLE (REG_81
) },
2512 { X86_64_TABLE (X86_64_82
) },
2513 { REG_TABLE (REG_83
) },
2514 { "testB", { Eb
, Gb
}, 0 },
2515 { "testS", { Ev
, Gv
}, 0 },
2516 { "xchgB", { Ebh2
, Gb
}, 0 },
2517 { "xchgS", { Evh2
, Gv
}, 0 },
2519 { "movB", { Ebh3
, Gb
}, 0 },
2520 { "movS", { Evh3
, Gv
}, 0 },
2521 { "movB", { Gb
, EbS
}, 0 },
2522 { "movS", { Gv
, EvS
}, 0 },
2523 { "movD", { Sv
, Sw
}, 0 },
2524 { MOD_TABLE (MOD_8D
) },
2525 { "movD", { Sw
, Sv
}, 0 },
2526 { REG_TABLE (REG_8F
) },
2528 { PREFIX_TABLE (PREFIX_90
) },
2529 { "xchgS", { RMeCX
, eAX
}, 0 },
2530 { "xchgS", { RMeDX
, eAX
}, 0 },
2531 { "xchgS", { RMeBX
, eAX
}, 0 },
2532 { "xchgS", { RMeSP
, eAX
}, 0 },
2533 { "xchgS", { RMeBP
, eAX
}, 0 },
2534 { "xchgS", { RMeSI
, eAX
}, 0 },
2535 { "xchgS", { RMeDI
, eAX
}, 0 },
2537 { "cW{t|}R", { XX
}, 0 },
2538 { "cR{t|}O", { XX
}, 0 },
2539 { X86_64_TABLE (X86_64_9A
) },
2540 { Bad_Opcode
}, /* fwait */
2541 { "pushfT", { XX
}, 0 },
2542 { "popfT", { XX
}, 0 },
2543 { "sahf", { XX
}, 0 },
2544 { "lahf", { XX
}, 0 },
2546 { "mov%LB", { AL
, Ob
}, 0 },
2547 { "mov%LS", { eAX
, Ov
}, 0 },
2548 { "mov%LB", { Ob
, AL
}, 0 },
2549 { "mov%LS", { Ov
, eAX
}, 0 },
2550 { "movs{b|}", { Ybr
, Xb
}, 0 },
2551 { "movs{R|}", { Yvr
, Xv
}, 0 },
2552 { "cmps{b|}", { Xb
, Yb
}, 0 },
2553 { "cmps{R|}", { Xv
, Yv
}, 0 },
2555 { "testB", { AL
, Ib
}, 0 },
2556 { "testS", { eAX
, Iv
}, 0 },
2557 { "stosB", { Ybr
, AL
}, 0 },
2558 { "stosS", { Yvr
, eAX
}, 0 },
2559 { "lodsB", { ALr
, Xb
}, 0 },
2560 { "lodsS", { eAXr
, Xv
}, 0 },
2561 { "scasB", { AL
, Yb
}, 0 },
2562 { "scasS", { eAX
, Yv
}, 0 },
2564 { "movB", { RMAL
, Ib
}, 0 },
2565 { "movB", { RMCL
, Ib
}, 0 },
2566 { "movB", { RMDL
, Ib
}, 0 },
2567 { "movB", { RMBL
, Ib
}, 0 },
2568 { "movB", { RMAH
, Ib
}, 0 },
2569 { "movB", { RMCH
, Ib
}, 0 },
2570 { "movB", { RMDH
, Ib
}, 0 },
2571 { "movB", { RMBH
, Ib
}, 0 },
2573 { "mov%LV", { RMeAX
, Iv64
}, 0 },
2574 { "mov%LV", { RMeCX
, Iv64
}, 0 },
2575 { "mov%LV", { RMeDX
, Iv64
}, 0 },
2576 { "mov%LV", { RMeBX
, Iv64
}, 0 },
2577 { "mov%LV", { RMeSP
, Iv64
}, 0 },
2578 { "mov%LV", { RMeBP
, Iv64
}, 0 },
2579 { "mov%LV", { RMeSI
, Iv64
}, 0 },
2580 { "mov%LV", { RMeDI
, Iv64
}, 0 },
2582 { REG_TABLE (REG_C0
) },
2583 { REG_TABLE (REG_C1
) },
2584 { "retT", { Iw
, BND
}, 0 },
2585 { "retT", { BND
}, 0 },
2586 { X86_64_TABLE (X86_64_C4
) },
2587 { X86_64_TABLE (X86_64_C5
) },
2588 { REG_TABLE (REG_C6
) },
2589 { REG_TABLE (REG_C7
) },
2591 { "enterT", { Iw
, Ib
}, 0 },
2592 { "leaveT", { XX
}, 0 },
2593 { "Jret{|f}P", { Iw
}, 0 },
2594 { "Jret{|f}P", { XX
}, 0 },
2595 { "int3", { XX
}, 0 },
2596 { "int", { Ib
}, 0 },
2597 { X86_64_TABLE (X86_64_CE
) },
2598 { "iret%LP", { XX
}, 0 },
2600 { REG_TABLE (REG_D0
) },
2601 { REG_TABLE (REG_D1
) },
2602 { REG_TABLE (REG_D2
) },
2603 { REG_TABLE (REG_D3
) },
2604 { X86_64_TABLE (X86_64_D4
) },
2605 { X86_64_TABLE (X86_64_D5
) },
2607 { "xlat", { DSBX
}, 0 },
2618 { "loopneFH", { Jb
, XX
, loop_jcxz_flag
}, 0 },
2619 { "loopeFH", { Jb
, XX
, loop_jcxz_flag
}, 0 },
2620 { "loopFH", { Jb
, XX
, loop_jcxz_flag
}, 0 },
2621 { "jEcxzH", { Jb
, XX
, loop_jcxz_flag
}, 0 },
2622 { "inB", { AL
, Ib
}, 0 },
2623 { "inG", { zAX
, Ib
}, 0 },
2624 { "outB", { Ib
, AL
}, 0 },
2625 { "outG", { Ib
, zAX
}, 0 },
2627 { X86_64_TABLE (X86_64_E8
) },
2628 { X86_64_TABLE (X86_64_E9
) },
2629 { X86_64_TABLE (X86_64_EA
) },
2630 { "jmp", { Jb
, BND
}, 0 },
2631 { "inB", { AL
, indirDX
}, 0 },
2632 { "inG", { zAX
, indirDX
}, 0 },
2633 { "outB", { indirDX
, AL
}, 0 },
2634 { "outG", { indirDX
, zAX
}, 0 },
2636 { Bad_Opcode
}, /* lock prefix */
2637 { "icebp", { XX
}, 0 },
2638 { Bad_Opcode
}, /* repne */
2639 { Bad_Opcode
}, /* repz */
2640 { "hlt", { XX
}, 0 },
2641 { "cmc", { XX
}, 0 },
2642 { REG_TABLE (REG_F6
) },
2643 { REG_TABLE (REG_F7
) },
2645 { "clc", { XX
}, 0 },
2646 { "stc", { XX
}, 0 },
2647 { "cli", { XX
}, 0 },
2648 { "sti", { XX
}, 0 },
2649 { "cld", { XX
}, 0 },
2650 { "std", { XX
}, 0 },
2651 { REG_TABLE (REG_FE
) },
2652 { REG_TABLE (REG_FF
) },
2655 static const struct dis386 dis386_twobyte
[] = {
2657 { REG_TABLE (REG_0F00
) },
2658 { REG_TABLE (REG_0F01
) },
2659 { "larS", { Gv
, Ew
}, 0 },
2660 { "lslS", { Gv
, Ew
}, 0 },
2662 { "syscall", { XX
}, 0 },
2663 { "clts", { XX
}, 0 },
2664 { "sysret%LP", { XX
}, 0 },
2666 { "invd", { XX
}, 0 },
2667 { PREFIX_TABLE (PREFIX_0F09
) },
2669 { "ud2", { XX
}, 0 },
2671 { REG_TABLE (REG_0F0D
) },
2672 { "femms", { XX
}, 0 },
2673 { "", { MX
, EM
, OPSUF
}, 0 }, /* See OP_3DNowSuffix. */
2675 { PREFIX_TABLE (PREFIX_0F10
) },
2676 { PREFIX_TABLE (PREFIX_0F11
) },
2677 { PREFIX_TABLE (PREFIX_0F12
) },
2678 { MOD_TABLE (MOD_0F13
) },
2679 { "unpcklpX", { XM
, EXx
}, PREFIX_OPCODE
},
2680 { "unpckhpX", { XM
, EXx
}, PREFIX_OPCODE
},
2681 { PREFIX_TABLE (PREFIX_0F16
) },
2682 { MOD_TABLE (MOD_0F17
) },
2684 { REG_TABLE (REG_0F18
) },
2685 { "nopQ", { Ev
}, 0 },
2686 { PREFIX_TABLE (PREFIX_0F1A
) },
2687 { PREFIX_TABLE (PREFIX_0F1B
) },
2688 { PREFIX_TABLE (PREFIX_0F1C
) },
2689 { "nopQ", { Ev
}, 0 },
2690 { PREFIX_TABLE (PREFIX_0F1E
) },
2691 { "nopQ", { Ev
}, 0 },
2693 { "movZ", { Rm
, Cm
}, 0 },
2694 { "movZ", { Rm
, Dm
}, 0 },
2695 { "movZ", { Cm
, Rm
}, 0 },
2696 { "movZ", { Dm
, Rm
}, 0 },
2697 { MOD_TABLE (MOD_0F24
) },
2699 { MOD_TABLE (MOD_0F26
) },
2702 { "movapX", { XM
, EXx
}, PREFIX_OPCODE
},
2703 { "movapX", { EXxS
, XM
}, PREFIX_OPCODE
},
2704 { PREFIX_TABLE (PREFIX_0F2A
) },
2705 { PREFIX_TABLE (PREFIX_0F2B
) },
2706 { PREFIX_TABLE (PREFIX_0F2C
) },
2707 { PREFIX_TABLE (PREFIX_0F2D
) },
2708 { PREFIX_TABLE (PREFIX_0F2E
) },
2709 { PREFIX_TABLE (PREFIX_0F2F
) },
2711 { "wrmsr", { XX
}, 0 },
2712 { "rdtsc", { XX
}, 0 },
2713 { "rdmsr", { XX
}, 0 },
2714 { "rdpmc", { XX
}, 0 },
2715 { "sysenter", { XX
}, 0 },
2716 { "sysexit", { XX
}, 0 },
2718 { "getsec", { XX
}, 0 },
2720 { THREE_BYTE_TABLE_PREFIX (THREE_BYTE_0F38
, PREFIX_OPCODE
) },
2722 { THREE_BYTE_TABLE_PREFIX (THREE_BYTE_0F3A
, PREFIX_OPCODE
) },
2729 { "cmovoS", { Gv
, Ev
}, 0 },
2730 { "cmovnoS", { Gv
, Ev
}, 0 },
2731 { "cmovbS", { Gv
, Ev
}, 0 },
2732 { "cmovaeS", { Gv
, Ev
}, 0 },
2733 { "cmoveS", { Gv
, Ev
}, 0 },
2734 { "cmovneS", { Gv
, Ev
}, 0 },
2735 { "cmovbeS", { Gv
, Ev
}, 0 },
2736 { "cmovaS", { Gv
, Ev
}, 0 },
2738 { "cmovsS", { Gv
, Ev
}, 0 },
2739 { "cmovnsS", { Gv
, Ev
}, 0 },
2740 { "cmovpS", { Gv
, Ev
}, 0 },
2741 { "cmovnpS", { Gv
, Ev
}, 0 },
2742 { "cmovlS", { Gv
, Ev
}, 0 },
2743 { "cmovgeS", { Gv
, Ev
}, 0 },
2744 { "cmovleS", { Gv
, Ev
}, 0 },
2745 { "cmovgS", { Gv
, Ev
}, 0 },
2747 { MOD_TABLE (MOD_0F51
) },
2748 { PREFIX_TABLE (PREFIX_0F51
) },
2749 { PREFIX_TABLE (PREFIX_0F52
) },
2750 { PREFIX_TABLE (PREFIX_0F53
) },
2751 { "andpX", { XM
, EXx
}, PREFIX_OPCODE
},
2752 { "andnpX", { XM
, EXx
}, PREFIX_OPCODE
},
2753 { "orpX", { XM
, EXx
}, PREFIX_OPCODE
},
2754 { "xorpX", { XM
, EXx
}, PREFIX_OPCODE
},
2756 { PREFIX_TABLE (PREFIX_0F58
) },
2757 { PREFIX_TABLE (PREFIX_0F59
) },
2758 { PREFIX_TABLE (PREFIX_0F5A
) },
2759 { PREFIX_TABLE (PREFIX_0F5B
) },
2760 { PREFIX_TABLE (PREFIX_0F5C
) },
2761 { PREFIX_TABLE (PREFIX_0F5D
) },
2762 { PREFIX_TABLE (PREFIX_0F5E
) },
2763 { PREFIX_TABLE (PREFIX_0F5F
) },
2765 { PREFIX_TABLE (PREFIX_0F60
) },
2766 { PREFIX_TABLE (PREFIX_0F61
) },
2767 { PREFIX_TABLE (PREFIX_0F62
) },
2768 { "packsswb", { MX
, EM
}, PREFIX_OPCODE
},
2769 { "pcmpgtb", { MX
, EM
}, PREFIX_OPCODE
},
2770 { "pcmpgtw", { MX
, EM
}, PREFIX_OPCODE
},
2771 { "pcmpgtd", { MX
, EM
}, PREFIX_OPCODE
},
2772 { "packuswb", { MX
, EM
}, PREFIX_OPCODE
},
2774 { "punpckhbw", { MX
, EM
}, PREFIX_OPCODE
},
2775 { "punpckhwd", { MX
, EM
}, PREFIX_OPCODE
},
2776 { "punpckhdq", { MX
, EM
}, PREFIX_OPCODE
},
2777 { "packssdw", { MX
, EM
}, PREFIX_OPCODE
},
2778 { PREFIX_TABLE (PREFIX_0F6C
) },
2779 { PREFIX_TABLE (PREFIX_0F6D
) },
2780 { "movK", { MX
, Edq
}, PREFIX_OPCODE
},
2781 { PREFIX_TABLE (PREFIX_0F6F
) },
2783 { PREFIX_TABLE (PREFIX_0F70
) },
2784 { REG_TABLE (REG_0F71
) },
2785 { REG_TABLE (REG_0F72
) },
2786 { REG_TABLE (REG_0F73
) },
2787 { "pcmpeqb", { MX
, EM
}, PREFIX_OPCODE
},
2788 { "pcmpeqw", { MX
, EM
}, PREFIX_OPCODE
},
2789 { "pcmpeqd", { MX
, EM
}, PREFIX_OPCODE
},
2790 { "emms", { XX
}, PREFIX_OPCODE
},
2792 { PREFIX_TABLE (PREFIX_0F78
) },
2793 { PREFIX_TABLE (PREFIX_0F79
) },
2796 { PREFIX_TABLE (PREFIX_0F7C
) },
2797 { PREFIX_TABLE (PREFIX_0F7D
) },
2798 { PREFIX_TABLE (PREFIX_0F7E
) },
2799 { PREFIX_TABLE (PREFIX_0F7F
) },
2801 { "joH", { Jv
, BND
, cond_jump_flag
}, 0 },
2802 { "jnoH", { Jv
, BND
, cond_jump_flag
}, 0 },
2803 { "jbH", { Jv
, BND
, cond_jump_flag
}, 0 },
2804 { "jaeH", { Jv
, BND
, cond_jump_flag
}, 0 },
2805 { "jeH", { Jv
, BND
, cond_jump_flag
}, 0 },
2806 { "jneH", { Jv
, BND
, cond_jump_flag
}, 0 },
2807 { "jbeH", { Jv
, BND
, cond_jump_flag
}, 0 },
2808 { "jaH", { Jv
, BND
, cond_jump_flag
}, 0 },
2810 { "jsH", { Jv
, BND
, cond_jump_flag
}, 0 },
2811 { "jnsH", { Jv
, BND
, cond_jump_flag
}, 0 },
2812 { "jpH", { Jv
, BND
, cond_jump_flag
}, 0 },
2813 { "jnpH", { Jv
, BND
, cond_jump_flag
}, 0 },
2814 { "jlH", { Jv
, BND
, cond_jump_flag
}, 0 },
2815 { "jgeH", { Jv
, BND
, cond_jump_flag
}, 0 },
2816 { "jleH", { Jv
, BND
, cond_jump_flag
}, 0 },
2817 { "jgH", { Jv
, BND
, cond_jump_flag
}, 0 },
2819 { "seto", { Eb
}, 0 },
2820 { "setno", { Eb
}, 0 },
2821 { "setb", { Eb
}, 0 },
2822 { "setae", { Eb
}, 0 },
2823 { "sete", { Eb
}, 0 },
2824 { "setne", { Eb
}, 0 },
2825 { "setbe", { Eb
}, 0 },
2826 { "seta", { Eb
}, 0 },
2828 { "sets", { Eb
}, 0 },
2829 { "setns", { Eb
}, 0 },
2830 { "setp", { Eb
}, 0 },
2831 { "setnp", { Eb
}, 0 },
2832 { "setl", { Eb
}, 0 },
2833 { "setge", { Eb
}, 0 },
2834 { "setle", { Eb
}, 0 },
2835 { "setg", { Eb
}, 0 },
2837 { "pushT", { fs
}, 0 },
2838 { "popT", { fs
}, 0 },
2839 { "cpuid", { XX
}, 0 },
2840 { "btS", { Ev
, Gv
}, 0 },
2841 { "shldS", { Ev
, Gv
, Ib
}, 0 },
2842 { "shldS", { Ev
, Gv
, CL
}, 0 },
2843 { REG_TABLE (REG_0FA6
) },
2844 { REG_TABLE (REG_0FA7
) },
2846 { "pushT", { gs
}, 0 },
2847 { "popT", { gs
}, 0 },
2848 { "rsm", { XX
}, 0 },
2849 { "btsS", { Evh1
, Gv
}, 0 },
2850 { "shrdS", { Ev
, Gv
, Ib
}, 0 },
2851 { "shrdS", { Ev
, Gv
, CL
}, 0 },
2852 { REG_TABLE (REG_0FAE
) },
2853 { "imulS", { Gv
, Ev
}, 0 },
2855 { "cmpxchgB", { Ebh1
, Gb
}, 0 },
2856 { "cmpxchgS", { Evh1
, Gv
}, 0 },
2857 { MOD_TABLE (MOD_0FB2
) },
2858 { "btrS", { Evh1
, Gv
}, 0 },
2859 { MOD_TABLE (MOD_0FB4
) },
2860 { MOD_TABLE (MOD_0FB5
) },
2861 { "movz{bR|x}", { Gv
, Eb
}, 0 },
2862 { "movz{wR|x}", { Gv
, Ew
}, 0 }, /* yes, there really is movzww ! */
2864 { PREFIX_TABLE (PREFIX_0FB8
) },
2865 { "ud1S", { Gv
, Ev
}, 0 },
2866 { REG_TABLE (REG_0FBA
) },
2867 { "btcS", { Evh1
, Gv
}, 0 },
2868 { PREFIX_TABLE (PREFIX_0FBC
) },
2869 { PREFIX_TABLE (PREFIX_0FBD
) },
2870 { "movs{bR|x}", { Gv
, Eb
}, 0 },
2871 { "movs{wR|x}", { Gv
, Ew
}, 0 }, /* yes, there really is movsww ! */
2873 { "xaddB", { Ebh1
, Gb
}, 0 },
2874 { "xaddS", { Evh1
, Gv
}, 0 },
2875 { PREFIX_TABLE (PREFIX_0FC2
) },
2876 { MOD_TABLE (MOD_0FC3
) },
2877 { "pinsrw", { MX
, Edqw
, Ib
}, PREFIX_OPCODE
},
2878 { "pextrw", { Gdq
, MS
, Ib
}, PREFIX_OPCODE
},
2879 { "shufpX", { XM
, EXx
, Ib
}, PREFIX_OPCODE
},
2880 { REG_TABLE (REG_0FC7
) },
2882 { "bswap", { RMeAX
}, 0 },
2883 { "bswap", { RMeCX
}, 0 },
2884 { "bswap", { RMeDX
}, 0 },
2885 { "bswap", { RMeBX
}, 0 },
2886 { "bswap", { RMeSP
}, 0 },
2887 { "bswap", { RMeBP
}, 0 },
2888 { "bswap", { RMeSI
}, 0 },
2889 { "bswap", { RMeDI
}, 0 },
2891 { PREFIX_TABLE (PREFIX_0FD0
) },
2892 { "psrlw", { MX
, EM
}, PREFIX_OPCODE
},
2893 { "psrld", { MX
, EM
}, PREFIX_OPCODE
},
2894 { "psrlq", { MX
, EM
}, PREFIX_OPCODE
},
2895 { "paddq", { MX
, EM
}, PREFIX_OPCODE
},
2896 { "pmullw", { MX
, EM
}, PREFIX_OPCODE
},
2897 { PREFIX_TABLE (PREFIX_0FD6
) },
2898 { MOD_TABLE (MOD_0FD7
) },
2900 { "psubusb", { MX
, EM
}, PREFIX_OPCODE
},
2901 { "psubusw", { MX
, EM
}, PREFIX_OPCODE
},
2902 { "pminub", { MX
, EM
}, PREFIX_OPCODE
},
2903 { "pand", { MX
, EM
}, PREFIX_OPCODE
},
2904 { "paddusb", { MX
, EM
}, PREFIX_OPCODE
},
2905 { "paddusw", { MX
, EM
}, PREFIX_OPCODE
},
2906 { "pmaxub", { MX
, EM
}, PREFIX_OPCODE
},
2907 { "pandn", { MX
, EM
}, PREFIX_OPCODE
},
2909 { "pavgb", { MX
, EM
}, PREFIX_OPCODE
},
2910 { "psraw", { MX
, EM
}, PREFIX_OPCODE
},
2911 { "psrad", { MX
, EM
}, PREFIX_OPCODE
},
2912 { "pavgw", { MX
, EM
}, PREFIX_OPCODE
},
2913 { "pmulhuw", { MX
, EM
}, PREFIX_OPCODE
},
2914 { "pmulhw", { MX
, EM
}, PREFIX_OPCODE
},
2915 { PREFIX_TABLE (PREFIX_0FE6
) },
2916 { PREFIX_TABLE (PREFIX_0FE7
) },
2918 { "psubsb", { MX
, EM
}, PREFIX_OPCODE
},
2919 { "psubsw", { MX
, EM
}, PREFIX_OPCODE
},
2920 { "pminsw", { MX
, EM
}, PREFIX_OPCODE
},
2921 { "por", { MX
, EM
}, PREFIX_OPCODE
},
2922 { "paddsb", { MX
, EM
}, PREFIX_OPCODE
},
2923 { "paddsw", { MX
, EM
}, PREFIX_OPCODE
},
2924 { "pmaxsw", { MX
, EM
}, PREFIX_OPCODE
},
2925 { "pxor", { MX
, EM
}, PREFIX_OPCODE
},
2927 { PREFIX_TABLE (PREFIX_0FF0
) },
2928 { "psllw", { MX
, EM
}, PREFIX_OPCODE
},
2929 { "pslld", { MX
, EM
}, PREFIX_OPCODE
},
2930 { "psllq", { MX
, EM
}, PREFIX_OPCODE
},
2931 { "pmuludq", { MX
, EM
}, PREFIX_OPCODE
},
2932 { "pmaddwd", { MX
, EM
}, PREFIX_OPCODE
},
2933 { "psadbw", { MX
, EM
}, PREFIX_OPCODE
},
2934 { PREFIX_TABLE (PREFIX_0FF7
) },
2936 { "psubb", { MX
, EM
}, PREFIX_OPCODE
},
2937 { "psubw", { MX
, EM
}, PREFIX_OPCODE
},
2938 { "psubd", { MX
, EM
}, PREFIX_OPCODE
},
2939 { "psubq", { MX
, EM
}, PREFIX_OPCODE
},
2940 { "paddb", { MX
, EM
}, PREFIX_OPCODE
},
2941 { "paddw", { MX
, EM
}, PREFIX_OPCODE
},
2942 { "paddd", { MX
, EM
}, PREFIX_OPCODE
},
2943 { "ud0S", { Gv
, Ev
}, 0 },
2946 static const unsigned char onebyte_has_modrm
[256] = {
2947 /* 0 1 2 3 4 5 6 7 8 9 a b c d e f */
2948 /* ------------------------------- */
2949 /* 00 */ 1,1,1,1,0,0,0,0,1,1,1,1,0,0,0,0, /* 00 */
2950 /* 10 */ 1,1,1,1,0,0,0,0,1,1,1,1,0,0,0,0, /* 10 */
2951 /* 20 */ 1,1,1,1,0,0,0,0,1,1,1,1,0,0,0,0, /* 20 */
2952 /* 30 */ 1,1,1,1,0,0,0,0,1,1,1,1,0,0,0,0, /* 30 */
2953 /* 40 */ 0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0, /* 40 */
2954 /* 50 */ 0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0, /* 50 */
2955 /* 60 */ 0,0,1,1,0,0,0,0,0,1,0,1,0,0,0,0, /* 60 */
2956 /* 70 */ 0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0, /* 70 */
2957 /* 80 */ 1,1,1,1,1,1,1,1,1,1,1,1,1,1,1,1, /* 80 */
2958 /* 90 */ 0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0, /* 90 */
2959 /* a0 */ 0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0, /* a0 */
2960 /* b0 */ 0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0, /* b0 */
2961 /* c0 */ 1,1,0,0,1,1,1,1,0,0,0,0,0,0,0,0, /* c0 */
2962 /* d0 */ 1,1,1,1,0,0,0,0,1,1,1,1,1,1,1,1, /* d0 */
2963 /* e0 */ 0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0, /* e0 */
2964 /* f0 */ 0,0,0,0,0,0,1,1,0,0,0,0,0,0,1,1 /* f0 */
2965 /* ------------------------------- */
2966 /* 0 1 2 3 4 5 6 7 8 9 a b c d e f */
2969 static const unsigned char twobyte_has_modrm
[256] = {
2970 /* 0 1 2 3 4 5 6 7 8 9 a b c d e f */
2971 /* ------------------------------- */
2972 /* 00 */ 1,1,1,1,0,0,0,0,0,0,0,0,0,1,0,1, /* 0f */
2973 /* 10 */ 1,1,1,1,1,1,1,1,1,1,1,1,1,1,1,1, /* 1f */
2974 /* 20 */ 1,1,1,1,1,1,1,0,1,1,1,1,1,1,1,1, /* 2f */
2975 /* 30 */ 0,0,0,0,0,0,0,0,1,0,1,0,0,0,0,0, /* 3f */
2976 /* 40 */ 1,1,1,1,1,1,1,1,1,1,1,1,1,1,1,1, /* 4f */
2977 /* 50 */ 1,1,1,1,1,1,1,1,1,1,1,1,1,1,1,1, /* 5f */
2978 /* 60 */ 1,1,1,1,1,1,1,1,1,1,1,1,1,1,1,1, /* 6f */
2979 /* 70 */ 1,1,1,1,1,1,1,0,1,1,1,1,1,1,1,1, /* 7f */
2980 /* 80 */ 0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0, /* 8f */
2981 /* 90 */ 1,1,1,1,1,1,1,1,1,1,1,1,1,1,1,1, /* 9f */
2982 /* a0 */ 0,0,0,1,1,1,1,1,0,0,0,1,1,1,1,1, /* af */
2983 /* b0 */ 1,1,1,1,1,1,1,1,1,1,1,1,1,1,1,1, /* bf */
2984 /* c0 */ 1,1,1,1,1,1,1,1,0,0,0,0,0,0,0,0, /* cf */
2985 /* d0 */ 1,1,1,1,1,1,1,1,1,1,1,1,1,1,1,1, /* df */
2986 /* e0 */ 1,1,1,1,1,1,1,1,1,1,1,1,1,1,1,1, /* ef */
2987 /* f0 */ 1,1,1,1,1,1,1,1,1,1,1,1,1,1,1,1 /* ff */
2988 /* ------------------------------- */
2989 /* 0 1 2 3 4 5 6 7 8 9 a b c d e f */
2992 static char obuf
[100];
2994 static char *mnemonicendp
;
2995 static char scratchbuf
[100];
2996 static unsigned char *start_codep
;
2997 static unsigned char *insn_codep
;
2998 static unsigned char *codep
;
2999 static unsigned char *end_codep
;
3000 static int last_lock_prefix
;
3001 static int last_repz_prefix
;
3002 static int last_repnz_prefix
;
3003 static int last_data_prefix
;
3004 static int last_addr_prefix
;
3005 static int last_rex_prefix
;
3006 static int last_seg_prefix
;
3007 static int fwait_prefix
;
3008 /* The active segment register prefix. */
3009 static int active_seg_prefix
;
3010 #define MAX_CODE_LENGTH 15
3011 /* We can up to 14 prefixes since the maximum instruction length is
3013 static int all_prefixes
[MAX_CODE_LENGTH
- 1];
3014 static disassemble_info
*the_info
;
3022 static unsigned char need_modrm
;
3032 int register_specifier
;
3039 int mask_register_specifier
;
3045 static unsigned char need_vex
;
3046 static unsigned char need_vex_reg
;
3047 static unsigned char vex_w_done
;
3055 /* If we are accessing mod/rm/reg without need_modrm set, then the
3056 values are stale. Hitting this abort likely indicates that you
3057 need to update onebyte_has_modrm or twobyte_has_modrm. */
3058 #define MODRM_CHECK if (!need_modrm) abort ()
3060 static const char **names64
;
3061 static const char **names32
;
3062 static const char **names16
;
3063 static const char **names8
;
3064 static const char **names8rex
;
3065 static const char **names_seg
;
3066 static const char *index64
;
3067 static const char *index32
;
3068 static const char **index16
;
3069 static const char **names_bnd
;
3071 static const char *intel_names64
[] = {
3072 "rax", "rcx", "rdx", "rbx", "rsp", "rbp", "rsi", "rdi",
3073 "r8", "r9", "r10", "r11", "r12", "r13", "r14", "r15"
3075 static const char *intel_names32
[] = {
3076 "eax", "ecx", "edx", "ebx", "esp", "ebp", "esi", "edi",
3077 "r8d", "r9d", "r10d", "r11d", "r12d", "r13d", "r14d", "r15d"
3079 static const char *intel_names16
[] = {
3080 "ax", "cx", "dx", "bx", "sp", "bp", "si", "di",
3081 "r8w", "r9w", "r10w", "r11w", "r12w", "r13w", "r14w", "r15w"
3083 static const char *intel_names8
[] = {
3084 "al", "cl", "dl", "bl", "ah", "ch", "dh", "bh",
3086 static const char *intel_names8rex
[] = {
3087 "al", "cl", "dl", "bl", "spl", "bpl", "sil", "dil",
3088 "r8b", "r9b", "r10b", "r11b", "r12b", "r13b", "r14b", "r15b"
3090 static const char *intel_names_seg
[] = {
3091 "es", "cs", "ss", "ds", "fs", "gs", "?", "?",
3093 static const char *intel_index64
= "riz";
3094 static const char *intel_index32
= "eiz";
3095 static const char *intel_index16
[] = {
3096 "bx+si", "bx+di", "bp+si", "bp+di", "si", "di", "bp", "bx"
3099 static const char *att_names64
[] = {
3100 "%rax", "%rcx", "%rdx", "%rbx", "%rsp", "%rbp", "%rsi", "%rdi",
3101 "%r8", "%r9", "%r10", "%r11", "%r12", "%r13", "%r14", "%r15"
3103 static const char *att_names32
[] = {
3104 "%eax", "%ecx", "%edx", "%ebx", "%esp", "%ebp", "%esi", "%edi",
3105 "%r8d", "%r9d", "%r10d", "%r11d", "%r12d", "%r13d", "%r14d", "%r15d"
3107 static const char *att_names16
[] = {
3108 "%ax", "%cx", "%dx", "%bx", "%sp", "%bp", "%si", "%di",
3109 "%r8w", "%r9w", "%r10w", "%r11w", "%r12w", "%r13w", "%r14w", "%r15w"
3111 static const char *att_names8
[] = {
3112 "%al", "%cl", "%dl", "%bl", "%ah", "%ch", "%dh", "%bh",
3114 static const char *att_names8rex
[] = {
3115 "%al", "%cl", "%dl", "%bl", "%spl", "%bpl", "%sil", "%dil",
3116 "%r8b", "%r9b", "%r10b", "%r11b", "%r12b", "%r13b", "%r14b", "%r15b"
3118 static const char *att_names_seg
[] = {
3119 "%es", "%cs", "%ss", "%ds", "%fs", "%gs", "%?", "%?",
3121 static const char *att_index64
= "%riz";
3122 static const char *att_index32
= "%eiz";
3123 static const char *att_index16
[] = {
3124 "%bx,%si", "%bx,%di", "%bp,%si", "%bp,%di", "%si", "%di", "%bp", "%bx"
3127 static const char **names_mm
;
3128 static const char *intel_names_mm
[] = {
3129 "mm0", "mm1", "mm2", "mm3",
3130 "mm4", "mm5", "mm6", "mm7"
3132 static const char *att_names_mm
[] = {
3133 "%mm0", "%mm1", "%mm2", "%mm3",
3134 "%mm4", "%mm5", "%mm6", "%mm7"
3137 static const char *intel_names_bnd
[] = {
3138 "bnd0", "bnd1", "bnd2", "bnd3"
3141 static const char *att_names_bnd
[] = {
3142 "%bnd0", "%bnd1", "%bnd2", "%bnd3"
3145 static const char **names_xmm
;
3146 static const char *intel_names_xmm
[] = {
3147 "xmm0", "xmm1", "xmm2", "xmm3",
3148 "xmm4", "xmm5", "xmm6", "xmm7",
3149 "xmm8", "xmm9", "xmm10", "xmm11",
3150 "xmm12", "xmm13", "xmm14", "xmm15",
3151 "xmm16", "xmm17", "xmm18", "xmm19",
3152 "xmm20", "xmm21", "xmm22", "xmm23",
3153 "xmm24", "xmm25", "xmm26", "xmm27",
3154 "xmm28", "xmm29", "xmm30", "xmm31"
3156 static const char *att_names_xmm
[] = {
3157 "%xmm0", "%xmm1", "%xmm2", "%xmm3",
3158 "%xmm4", "%xmm5", "%xmm6", "%xmm7",
3159 "%xmm8", "%xmm9", "%xmm10", "%xmm11",
3160 "%xmm12", "%xmm13", "%xmm14", "%xmm15",
3161 "%xmm16", "%xmm17", "%xmm18", "%xmm19",
3162 "%xmm20", "%xmm21", "%xmm22", "%xmm23",
3163 "%xmm24", "%xmm25", "%xmm26", "%xmm27",
3164 "%xmm28", "%xmm29", "%xmm30", "%xmm31"
3167 static const char **names_ymm
;
3168 static const char *intel_names_ymm
[] = {
3169 "ymm0", "ymm1", "ymm2", "ymm3",
3170 "ymm4", "ymm5", "ymm6", "ymm7",
3171 "ymm8", "ymm9", "ymm10", "ymm11",
3172 "ymm12", "ymm13", "ymm14", "ymm15",
3173 "ymm16", "ymm17", "ymm18", "ymm19",
3174 "ymm20", "ymm21", "ymm22", "ymm23",
3175 "ymm24", "ymm25", "ymm26", "ymm27",
3176 "ymm28", "ymm29", "ymm30", "ymm31"
3178 static const char *att_names_ymm
[] = {
3179 "%ymm0", "%ymm1", "%ymm2", "%ymm3",
3180 "%ymm4", "%ymm5", "%ymm6", "%ymm7",
3181 "%ymm8", "%ymm9", "%ymm10", "%ymm11",
3182 "%ymm12", "%ymm13", "%ymm14", "%ymm15",
3183 "%ymm16", "%ymm17", "%ymm18", "%ymm19",
3184 "%ymm20", "%ymm21", "%ymm22", "%ymm23",
3185 "%ymm24", "%ymm25", "%ymm26", "%ymm27",
3186 "%ymm28", "%ymm29", "%ymm30", "%ymm31"
3189 static const char **names_zmm
;
3190 static const char *intel_names_zmm
[] = {
3191 "zmm0", "zmm1", "zmm2", "zmm3",
3192 "zmm4", "zmm5", "zmm6", "zmm7",
3193 "zmm8", "zmm9", "zmm10", "zmm11",
3194 "zmm12", "zmm13", "zmm14", "zmm15",
3195 "zmm16", "zmm17", "zmm18", "zmm19",
3196 "zmm20", "zmm21", "zmm22", "zmm23",
3197 "zmm24", "zmm25", "zmm26", "zmm27",
3198 "zmm28", "zmm29", "zmm30", "zmm31"
3200 static const char *att_names_zmm
[] = {
3201 "%zmm0", "%zmm1", "%zmm2", "%zmm3",
3202 "%zmm4", "%zmm5", "%zmm6", "%zmm7",
3203 "%zmm8", "%zmm9", "%zmm10", "%zmm11",
3204 "%zmm12", "%zmm13", "%zmm14", "%zmm15",
3205 "%zmm16", "%zmm17", "%zmm18", "%zmm19",
3206 "%zmm20", "%zmm21", "%zmm22", "%zmm23",
3207 "%zmm24", "%zmm25", "%zmm26", "%zmm27",
3208 "%zmm28", "%zmm29", "%zmm30", "%zmm31"
3211 static const char **names_mask
;
3212 static const char *intel_names_mask
[] = {
3213 "k0", "k1", "k2", "k3", "k4", "k5", "k6", "k7"
3215 static const char *att_names_mask
[] = {
3216 "%k0", "%k1", "%k2", "%k3", "%k4", "%k5", "%k6", "%k7"
3219 static const char *names_rounding
[] =
3227 static const struct dis386 reg_table
[][8] = {
3230 { "addA", { Ebh1
, Ib
}, 0 },
3231 { "orA", { Ebh1
, Ib
}, 0 },
3232 { "adcA", { Ebh1
, Ib
}, 0 },
3233 { "sbbA", { Ebh1
, Ib
}, 0 },
3234 { "andA", { Ebh1
, Ib
}, 0 },
3235 { "subA", { Ebh1
, Ib
}, 0 },
3236 { "xorA", { Ebh1
, Ib
}, 0 },
3237 { "cmpA", { Eb
, Ib
}, 0 },
3241 { "addQ", { Evh1
, Iv
}, 0 },
3242 { "orQ", { Evh1
, Iv
}, 0 },
3243 { "adcQ", { Evh1
, Iv
}, 0 },
3244 { "sbbQ", { Evh1
, Iv
}, 0 },
3245 { "andQ", { Evh1
, Iv
}, 0 },
3246 { "subQ", { Evh1
, Iv
}, 0 },
3247 { "xorQ", { Evh1
, Iv
}, 0 },
3248 { "cmpQ", { Ev
, Iv
}, 0 },
3252 { "addQ", { Evh1
, sIb
}, 0 },
3253 { "orQ", { Evh1
, sIb
}, 0 },
3254 { "adcQ", { Evh1
, sIb
}, 0 },
3255 { "sbbQ", { Evh1
, sIb
}, 0 },
3256 { "andQ", { Evh1
, sIb
}, 0 },
3257 { "subQ", { Evh1
, sIb
}, 0 },
3258 { "xorQ", { Evh1
, sIb
}, 0 },
3259 { "cmpQ", { Ev
, sIb
}, 0 },
3263 { "popU", { stackEv
}, 0 },
3264 { XOP_8F_TABLE (XOP_09
) },
3268 { XOP_8F_TABLE (XOP_09
) },
3272 { "rolA", { Eb
, Ib
}, 0 },
3273 { "rorA", { Eb
, Ib
}, 0 },
3274 { "rclA", { Eb
, Ib
}, 0 },
3275 { "rcrA", { Eb
, Ib
}, 0 },
3276 { "shlA", { Eb
, Ib
}, 0 },
3277 { "shrA", { Eb
, Ib
}, 0 },
3278 { "shlA", { Eb
, Ib
}, 0 },
3279 { "sarA", { Eb
, Ib
}, 0 },
3283 { "rolQ", { Ev
, Ib
}, 0 },
3284 { "rorQ", { Ev
, Ib
}, 0 },
3285 { "rclQ", { Ev
, Ib
}, 0 },
3286 { "rcrQ", { Ev
, Ib
}, 0 },
3287 { "shlQ", { Ev
, Ib
}, 0 },
3288 { "shrQ", { Ev
, Ib
}, 0 },
3289 { "shlQ", { Ev
, Ib
}, 0 },
3290 { "sarQ", { Ev
, Ib
}, 0 },
3294 { "movA", { Ebh3
, Ib
}, 0 },
3301 { MOD_TABLE (MOD_C6_REG_7
) },
3305 { "movQ", { Evh3
, Iv
}, 0 },
3312 { MOD_TABLE (MOD_C7_REG_7
) },
3316 { "rolA", { Eb
, I1
}, 0 },
3317 { "rorA", { Eb
, I1
}, 0 },
3318 { "rclA", { Eb
, I1
}, 0 },
3319 { "rcrA", { Eb
, I1
}, 0 },
3320 { "shlA", { Eb
, I1
}, 0 },
3321 { "shrA", { Eb
, I1
}, 0 },
3322 { "shlA", { Eb
, I1
}, 0 },
3323 { "sarA", { Eb
, I1
}, 0 },
3327 { "rolQ", { Ev
, I1
}, 0 },
3328 { "rorQ", { Ev
, I1
}, 0 },
3329 { "rclQ", { Ev
, I1
}, 0 },
3330 { "rcrQ", { Ev
, I1
}, 0 },
3331 { "shlQ", { Ev
, I1
}, 0 },
3332 { "shrQ", { Ev
, I1
}, 0 },
3333 { "shlQ", { Ev
, I1
}, 0 },
3334 { "sarQ", { Ev
, I1
}, 0 },
3338 { "rolA", { Eb
, CL
}, 0 },
3339 { "rorA", { Eb
, CL
}, 0 },
3340 { "rclA", { Eb
, CL
}, 0 },
3341 { "rcrA", { Eb
, CL
}, 0 },
3342 { "shlA", { Eb
, CL
}, 0 },
3343 { "shrA", { Eb
, CL
}, 0 },
3344 { "shlA", { Eb
, CL
}, 0 },
3345 { "sarA", { Eb
, CL
}, 0 },
3349 { "rolQ", { Ev
, CL
}, 0 },
3350 { "rorQ", { Ev
, CL
}, 0 },
3351 { "rclQ", { Ev
, CL
}, 0 },
3352 { "rcrQ", { Ev
, CL
}, 0 },
3353 { "shlQ", { Ev
, CL
}, 0 },
3354 { "shrQ", { Ev
, CL
}, 0 },
3355 { "shlQ", { Ev
, CL
}, 0 },
3356 { "sarQ", { Ev
, CL
}, 0 },
3360 { "testA", { Eb
, Ib
}, 0 },
3361 { "testA", { Eb
, Ib
}, 0 },
3362 { "notA", { Ebh1
}, 0 },
3363 { "negA", { Ebh1
}, 0 },
3364 { "mulA", { Eb
}, 0 }, /* Don't print the implicit %al register, */
3365 { "imulA", { Eb
}, 0 }, /* to distinguish these opcodes from other */
3366 { "divA", { Eb
}, 0 }, /* mul/imul opcodes. Do the same for div */
3367 { "idivA", { Eb
}, 0 }, /* and idiv for consistency. */
3371 { "testQ", { Ev
, Iv
}, 0 },
3372 { "testQ", { Ev
, Iv
}, 0 },
3373 { "notQ", { Evh1
}, 0 },
3374 { "negQ", { Evh1
}, 0 },
3375 { "mulQ", { Ev
}, 0 }, /* Don't print the implicit register. */
3376 { "imulQ", { Ev
}, 0 },
3377 { "divQ", { Ev
}, 0 },
3378 { "idivQ", { Ev
}, 0 },
3382 { "incA", { Ebh1
}, 0 },
3383 { "decA", { Ebh1
}, 0 },
3387 { "incQ", { Evh1
}, 0 },
3388 { "decQ", { Evh1
}, 0 },
3389 { "call{&|}", { NOTRACK
, indirEv
, BND
}, 0 },
3390 { MOD_TABLE (MOD_FF_REG_3
) },
3391 { "jmp{&|}", { NOTRACK
, indirEv
, BND
}, 0 },
3392 { MOD_TABLE (MOD_FF_REG_5
) },
3393 { "pushU", { stackEv
}, 0 },
3398 { "sldtD", { Sv
}, 0 },
3399 { "strD", { Sv
}, 0 },
3400 { "lldt", { Ew
}, 0 },
3401 { "ltr", { Ew
}, 0 },
3402 { "verr", { Ew
}, 0 },
3403 { "verw", { Ew
}, 0 },
3409 { MOD_TABLE (MOD_0F01_REG_0
) },
3410 { MOD_TABLE (MOD_0F01_REG_1
) },
3411 { MOD_TABLE (MOD_0F01_REG_2
) },
3412 { MOD_TABLE (MOD_0F01_REG_3
) },
3413 { "smswD", { Sv
}, 0 },
3414 { MOD_TABLE (MOD_0F01_REG_5
) },
3415 { "lmsw", { Ew
}, 0 },
3416 { MOD_TABLE (MOD_0F01_REG_7
) },
3420 { "prefetch", { Mb
}, 0 },
3421 { "prefetchw", { Mb
}, 0 },
3422 { "prefetchwt1", { Mb
}, 0 },
3423 { "prefetch", { Mb
}, 0 },
3424 { "prefetch", { Mb
}, 0 },
3425 { "prefetch", { Mb
}, 0 },
3426 { "prefetch", { Mb
}, 0 },
3427 { "prefetch", { Mb
}, 0 },
3431 { MOD_TABLE (MOD_0F18_REG_0
) },
3432 { MOD_TABLE (MOD_0F18_REG_1
) },
3433 { MOD_TABLE (MOD_0F18_REG_2
) },
3434 { MOD_TABLE (MOD_0F18_REG_3
) },
3435 { MOD_TABLE (MOD_0F18_REG_4
) },
3436 { MOD_TABLE (MOD_0F18_REG_5
) },
3437 { MOD_TABLE (MOD_0F18_REG_6
) },
3438 { MOD_TABLE (MOD_0F18_REG_7
) },
3440 /* REG_0F1C_MOD_0 */
3442 { "cldemote", { Mb
}, 0 },
3443 { "nopQ", { Ev
}, 0 },
3444 { "nopQ", { Ev
}, 0 },
3445 { "nopQ", { Ev
}, 0 },
3446 { "nopQ", { Ev
}, 0 },
3447 { "nopQ", { Ev
}, 0 },
3448 { "nopQ", { Ev
}, 0 },
3449 { "nopQ", { Ev
}, 0 },
3451 /* REG_0F1E_MOD_3 */
3453 { "nopQ", { Ev
}, 0 },
3454 { "rdsspK", { Rdq
}, PREFIX_OPCODE
},
3455 { "nopQ", { Ev
}, 0 },
3456 { "nopQ", { Ev
}, 0 },
3457 { "nopQ", { Ev
}, 0 },
3458 { "nopQ", { Ev
}, 0 },
3459 { "nopQ", { Ev
}, 0 },
3460 { RM_TABLE (RM_0F1E_MOD_3_REG_7
) },
3466 { MOD_TABLE (MOD_0F71_REG_2
) },
3468 { MOD_TABLE (MOD_0F71_REG_4
) },
3470 { MOD_TABLE (MOD_0F71_REG_6
) },
3476 { MOD_TABLE (MOD_0F72_REG_2
) },
3478 { MOD_TABLE (MOD_0F72_REG_4
) },
3480 { MOD_TABLE (MOD_0F72_REG_6
) },
3486 { MOD_TABLE (MOD_0F73_REG_2
) },
3487 { MOD_TABLE (MOD_0F73_REG_3
) },
3490 { MOD_TABLE (MOD_0F73_REG_6
) },
3491 { MOD_TABLE (MOD_0F73_REG_7
) },
3495 { "montmul", { { OP_0f07
, 0 } }, 0 },
3496 { "xsha1", { { OP_0f07
, 0 } }, 0 },
3497 { "xsha256", { { OP_0f07
, 0 } }, 0 },
3501 { "xstore-rng", { { OP_0f07
, 0 } }, 0 },
3502 { "xcrypt-ecb", { { OP_0f07
, 0 } }, 0 },
3503 { "xcrypt-cbc", { { OP_0f07
, 0 } }, 0 },
3504 { "xcrypt-ctr", { { OP_0f07
, 0 } }, 0 },
3505 { "xcrypt-cfb", { { OP_0f07
, 0 } }, 0 },
3506 { "xcrypt-ofb", { { OP_0f07
, 0 } }, 0 },
3510 { MOD_TABLE (MOD_0FAE_REG_0
) },
3511 { MOD_TABLE (MOD_0FAE_REG_1
) },
3512 { MOD_TABLE (MOD_0FAE_REG_2
) },
3513 { MOD_TABLE (MOD_0FAE_REG_3
) },
3514 { MOD_TABLE (MOD_0FAE_REG_4
) },
3515 { MOD_TABLE (MOD_0FAE_REG_5
) },
3516 { MOD_TABLE (MOD_0FAE_REG_6
) },
3517 { MOD_TABLE (MOD_0FAE_REG_7
) },
3525 { "btQ", { Ev
, Ib
}, 0 },
3526 { "btsQ", { Evh1
, Ib
}, 0 },
3527 { "btrQ", { Evh1
, Ib
}, 0 },
3528 { "btcQ", { Evh1
, Ib
}, 0 },
3533 { "cmpxchg8b", { { CMPXCHG8B_Fixup
, q_mode
} }, 0 },
3535 { MOD_TABLE (MOD_0FC7_REG_3
) },
3536 { MOD_TABLE (MOD_0FC7_REG_4
) },
3537 { MOD_TABLE (MOD_0FC7_REG_5
) },
3538 { MOD_TABLE (MOD_0FC7_REG_6
) },
3539 { MOD_TABLE (MOD_0FC7_REG_7
) },
3545 { MOD_TABLE (MOD_VEX_0F71_REG_2
) },
3547 { MOD_TABLE (MOD_VEX_0F71_REG_4
) },
3549 { MOD_TABLE (MOD_VEX_0F71_REG_6
) },
3555 { MOD_TABLE (MOD_VEX_0F72_REG_2
) },
3557 { MOD_TABLE (MOD_VEX_0F72_REG_4
) },
3559 { MOD_TABLE (MOD_VEX_0F72_REG_6
) },
3565 { MOD_TABLE (MOD_VEX_0F73_REG_2
) },
3566 { MOD_TABLE (MOD_VEX_0F73_REG_3
) },
3569 { MOD_TABLE (MOD_VEX_0F73_REG_6
) },
3570 { MOD_TABLE (MOD_VEX_0F73_REG_7
) },
3576 { MOD_TABLE (MOD_VEX_0FAE_REG_2
) },
3577 { MOD_TABLE (MOD_VEX_0FAE_REG_3
) },
3579 /* REG_VEX_0F38F3 */
3582 { PREFIX_TABLE (PREFIX_VEX_0F38F3_REG_1
) },
3583 { PREFIX_TABLE (PREFIX_VEX_0F38F3_REG_2
) },
3584 { PREFIX_TABLE (PREFIX_VEX_0F38F3_REG_3
) },
3588 { "llwpcb", { { OP_LWPCB_E
, 0 } }, 0 },
3589 { "slwpcb", { { OP_LWPCB_E
, 0 } }, 0 },
3593 { "lwpins", { { OP_LWP_E
, 0 }, Ed
, Id
}, 0 },
3594 { "lwpval", { { OP_LWP_E
, 0 }, Ed
, Id
}, 0 },
3596 /* REG_XOP_TBM_01 */
3599 { "blcfill", { { OP_LWP_E
, 0 }, Edq
}, 0 },
3600 { "blsfill", { { OP_LWP_E
, 0 }, Edq
}, 0 },
3601 { "blcs", { { OP_LWP_E
, 0 }, Edq
}, 0 },
3602 { "tzmsk", { { OP_LWP_E
, 0 }, Edq
}, 0 },
3603 { "blcic", { { OP_LWP_E
, 0 }, Edq
}, 0 },
3604 { "blsic", { { OP_LWP_E
, 0 }, Edq
}, 0 },
3605 { "t1mskc", { { OP_LWP_E
, 0 }, Edq
}, 0 },
3607 /* REG_XOP_TBM_02 */
3610 { "blcmsk", { { OP_LWP_E
, 0 }, Edq
}, 0 },
3615 { "blci", { { OP_LWP_E
, 0 }, Edq
}, 0 },
3618 #include "i386-dis-evex-reg.h"
3621 static const struct dis386 prefix_table
[][4] = {
3624 { "xchgS", { { NOP_Fixup1
, eAX_reg
}, { NOP_Fixup2
, eAX_reg
} }, 0 },
3625 { "pause", { XX
}, 0 },
3626 { "xchgS", { { NOP_Fixup1
, eAX_reg
}, { NOP_Fixup2
, eAX_reg
} }, 0 },
3627 { NULL
, { { NULL
, 0 } }, PREFIX_IGNORED
}
3630 /* PREFIX_MOD_0_0F01_REG_5 */
3633 { "rstorssp", { Mq
}, PREFIX_OPCODE
},
3636 /* PREFIX_MOD_3_0F01_REG_5_RM_0 */
3639 { "setssbsy", { Skip_MODRM
}, PREFIX_OPCODE
},
3642 /* PREFIX_MOD_3_0F01_REG_5_RM_2 */
3645 { "saveprevssp", { Skip_MODRM
}, PREFIX_OPCODE
},
3650 { "wbinvd", { XX
}, 0 },
3651 { "wbnoinvd", { XX
}, 0 },
3656 { "movups", { XM
, EXx
}, PREFIX_OPCODE
},
3657 { "movss", { XM
, EXd
}, PREFIX_OPCODE
},
3658 { "movupd", { XM
, EXx
}, PREFIX_OPCODE
},
3659 { "movsd", { XM
, EXq
}, PREFIX_OPCODE
},
3664 { "movups", { EXxS
, XM
}, PREFIX_OPCODE
},
3665 { "movss", { EXdS
, XM
}, PREFIX_OPCODE
},
3666 { "movupd", { EXxS
, XM
}, PREFIX_OPCODE
},
3667 { "movsd", { EXqS
, XM
}, PREFIX_OPCODE
},
3672 { MOD_TABLE (MOD_0F12_PREFIX_0
) },
3673 { "movsldup", { XM
, EXx
}, PREFIX_OPCODE
},
3674 { "movlpd", { XM
, EXq
}, PREFIX_OPCODE
},
3675 { "movddup", { XM
, EXq
}, PREFIX_OPCODE
},
3680 { MOD_TABLE (MOD_0F16_PREFIX_0
) },
3681 { "movshdup", { XM
, EXx
}, PREFIX_OPCODE
},
3682 { "movhpd", { XM
, EXq
}, PREFIX_OPCODE
},
3687 { MOD_TABLE (MOD_0F1A_PREFIX_0
) },
3688 { "bndcl", { Gbnd
, Ev_bnd
}, 0 },
3689 { "bndmov", { Gbnd
, Ebnd
}, 0 },
3690 { "bndcu", { Gbnd
, Ev_bnd
}, 0 },
3695 { MOD_TABLE (MOD_0F1B_PREFIX_0
) },
3696 { MOD_TABLE (MOD_0F1B_PREFIX_1
) },
3697 { "bndmov", { EbndS
, Gbnd
}, 0 },
3698 { "bndcn", { Gbnd
, Ev_bnd
}, 0 },
3703 { MOD_TABLE (MOD_0F1C_PREFIX_0
) },
3704 { "nopQ", { Ev
}, PREFIX_OPCODE
},
3705 { "nopQ", { Ev
}, PREFIX_OPCODE
},
3706 { "nopQ", { Ev
}, PREFIX_OPCODE
},
3711 { "nopQ", { Ev
}, PREFIX_OPCODE
},
3712 { MOD_TABLE (MOD_0F1E_PREFIX_1
) },
3713 { "nopQ", { Ev
}, PREFIX_OPCODE
},
3714 { "nopQ", { Ev
}, PREFIX_OPCODE
},
3719 { "cvtpi2ps", { XM
, EMCq
}, PREFIX_OPCODE
},
3720 { "cvtsi2ss%LQ", { XM
, Edq
}, PREFIX_OPCODE
},
3721 { "cvtpi2pd", { XM
, EMCq
}, PREFIX_OPCODE
},
3722 { "cvtsi2sd%LQ", { XM
, Edq
}, 0 },
3727 { MOD_TABLE (MOD_0F2B_PREFIX_0
) },
3728 { MOD_TABLE (MOD_0F2B_PREFIX_1
) },
3729 { MOD_TABLE (MOD_0F2B_PREFIX_2
) },
3730 { MOD_TABLE (MOD_0F2B_PREFIX_3
) },
3735 { "cvttps2pi", { MXC
, EXq
}, PREFIX_OPCODE
},
3736 { "cvttss2si", { Gdq
, EXd
}, PREFIX_OPCODE
},
3737 { "cvttpd2pi", { MXC
, EXx
}, PREFIX_OPCODE
},
3738 { "cvttsd2si", { Gdq
, EXq
}, PREFIX_OPCODE
},
3743 { "cvtps2pi", { MXC
, EXq
}, PREFIX_OPCODE
},
3744 { "cvtss2si", { Gdq
, EXd
}, PREFIX_OPCODE
},
3745 { "cvtpd2pi", { MXC
, EXx
}, PREFIX_OPCODE
},
3746 { "cvtsd2si", { Gdq
, EXq
}, PREFIX_OPCODE
},
3751 { "ucomiss",{ XM
, EXd
}, 0 },
3753 { "ucomisd",{ XM
, EXq
}, 0 },
3758 { "comiss", { XM
, EXd
}, 0 },
3760 { "comisd", { XM
, EXq
}, 0 },
3765 { "sqrtps", { XM
, EXx
}, PREFIX_OPCODE
},
3766 { "sqrtss", { XM
, EXd
}, PREFIX_OPCODE
},
3767 { "sqrtpd", { XM
, EXx
}, PREFIX_OPCODE
},
3768 { "sqrtsd", { XM
, EXq
}, PREFIX_OPCODE
},
3773 { "rsqrtps",{ XM
, EXx
}, PREFIX_OPCODE
},
3774 { "rsqrtss",{ XM
, EXd
}, PREFIX_OPCODE
},
3779 { "rcpps", { XM
, EXx
}, PREFIX_OPCODE
},
3780 { "rcpss", { XM
, EXd
}, PREFIX_OPCODE
},
3785 { "addps", { XM
, EXx
}, PREFIX_OPCODE
},
3786 { "addss", { XM
, EXd
}, PREFIX_OPCODE
},
3787 { "addpd", { XM
, EXx
}, PREFIX_OPCODE
},
3788 { "addsd", { XM
, EXq
}, PREFIX_OPCODE
},
3793 { "mulps", { XM
, EXx
}, PREFIX_OPCODE
},
3794 { "mulss", { XM
, EXd
}, PREFIX_OPCODE
},
3795 { "mulpd", { XM
, EXx
}, PREFIX_OPCODE
},
3796 { "mulsd", { XM
, EXq
}, PREFIX_OPCODE
},
3801 { "cvtps2pd", { XM
, EXq
}, PREFIX_OPCODE
},
3802 { "cvtss2sd", { XM
, EXd
}, PREFIX_OPCODE
},
3803 { "cvtpd2ps", { XM
, EXx
}, PREFIX_OPCODE
},
3804 { "cvtsd2ss", { XM
, EXq
}, PREFIX_OPCODE
},
3809 { "cvtdq2ps", { XM
, EXx
}, PREFIX_OPCODE
},
3810 { "cvttps2dq", { XM
, EXx
}, PREFIX_OPCODE
},
3811 { "cvtps2dq", { XM
, EXx
}, PREFIX_OPCODE
},
3816 { "subps", { XM
, EXx
}, PREFIX_OPCODE
},
3817 { "subss", { XM
, EXd
}, PREFIX_OPCODE
},
3818 { "subpd", { XM
, EXx
}, PREFIX_OPCODE
},
3819 { "subsd", { XM
, EXq
}, PREFIX_OPCODE
},
3824 { "minps", { XM
, EXx
}, PREFIX_OPCODE
},
3825 { "minss", { XM
, EXd
}, PREFIX_OPCODE
},
3826 { "minpd", { XM
, EXx
}, PREFIX_OPCODE
},
3827 { "minsd", { XM
, EXq
}, PREFIX_OPCODE
},
3832 { "divps", { XM
, EXx
}, PREFIX_OPCODE
},
3833 { "divss", { XM
, EXd
}, PREFIX_OPCODE
},
3834 { "divpd", { XM
, EXx
}, PREFIX_OPCODE
},
3835 { "divsd", { XM
, EXq
}, PREFIX_OPCODE
},
3840 { "maxps", { XM
, EXx
}, PREFIX_OPCODE
},
3841 { "maxss", { XM
, EXd
}, PREFIX_OPCODE
},
3842 { "maxpd", { XM
, EXx
}, PREFIX_OPCODE
},
3843 { "maxsd", { XM
, EXq
}, PREFIX_OPCODE
},
3848 { "punpcklbw",{ MX
, EMd
}, PREFIX_OPCODE
},
3850 { "punpcklbw",{ MX
, EMx
}, PREFIX_OPCODE
},
3855 { "punpcklwd",{ MX
, EMd
}, PREFIX_OPCODE
},
3857 { "punpcklwd",{ MX
, EMx
}, PREFIX_OPCODE
},
3862 { "punpckldq",{ MX
, EMd
}, PREFIX_OPCODE
},
3864 { "punpckldq",{ MX
, EMx
}, PREFIX_OPCODE
},
3871 { "punpcklqdq", { XM
, EXx
}, PREFIX_OPCODE
},
3878 { "punpckhqdq", { XM
, EXx
}, PREFIX_OPCODE
},
3883 { "movq", { MX
, EM
}, PREFIX_OPCODE
},
3884 { "movdqu", { XM
, EXx
}, PREFIX_OPCODE
},
3885 { "movdqa", { XM
, EXx
}, PREFIX_OPCODE
},
3890 { "pshufw", { MX
, EM
, Ib
}, PREFIX_OPCODE
},
3891 { "pshufhw",{ XM
, EXx
, Ib
}, PREFIX_OPCODE
},
3892 { "pshufd", { XM
, EXx
, Ib
}, PREFIX_OPCODE
},
3893 { "pshuflw",{ XM
, EXx
, Ib
}, PREFIX_OPCODE
},
3896 /* PREFIX_0F73_REG_3 */
3900 { "psrldq", { XS
, Ib
}, 0 },
3903 /* PREFIX_0F73_REG_7 */
3907 { "pslldq", { XS
, Ib
}, 0 },
3912 {"vmread", { Em
, Gm
}, 0 },
3914 {"extrq", { XS
, Ib
, Ib
}, 0 },
3915 {"insertq", { XM
, XS
, Ib
, Ib
}, 0 },
3920 {"vmwrite", { Gm
, Em
}, 0 },
3922 {"extrq", { XM
, XS
}, 0 },
3923 {"insertq", { XM
, XS
}, 0 },
3930 { "haddpd", { XM
, EXx
}, PREFIX_OPCODE
},
3931 { "haddps", { XM
, EXx
}, PREFIX_OPCODE
},
3938 { "hsubpd", { XM
, EXx
}, PREFIX_OPCODE
},
3939 { "hsubps", { XM
, EXx
}, PREFIX_OPCODE
},
3944 { "movK", { Edq
, MX
}, PREFIX_OPCODE
},
3945 { "movq", { XM
, EXq
}, PREFIX_OPCODE
},
3946 { "movK", { Edq
, XM
}, PREFIX_OPCODE
},
3951 { "movq", { EMS
, MX
}, PREFIX_OPCODE
},
3952 { "movdqu", { EXxS
, XM
}, PREFIX_OPCODE
},
3953 { "movdqa", { EXxS
, XM
}, PREFIX_OPCODE
},
3956 /* PREFIX_0FAE_REG_0 */
3959 { "rdfsbase", { Ev
}, 0 },
3962 /* PREFIX_0FAE_REG_1 */
3965 { "rdgsbase", { Ev
}, 0 },
3968 /* PREFIX_0FAE_REG_2 */
3971 { "wrfsbase", { Ev
}, 0 },
3974 /* PREFIX_0FAE_REG_3 */
3977 { "wrgsbase", { Ev
}, 0 },
3980 /* PREFIX_MOD_0_0FAE_REG_4 */
3982 { "xsave", { FXSAVE
}, 0 },
3983 { "ptwrite%LQ", { Edq
}, 0 },
3986 /* PREFIX_MOD_3_0FAE_REG_4 */
3989 { "ptwrite%LQ", { Edq
}, 0 },
3992 /* PREFIX_MOD_0_0FAE_REG_5 */
3994 { "xrstor", { FXSAVE
}, PREFIX_OPCODE
},
3997 /* PREFIX_MOD_3_0FAE_REG_5 */
3999 { "lfence", { Skip_MODRM
}, 0 },
4000 { "incsspK", { Rdq
}, PREFIX_OPCODE
},
4003 /* PREFIX_MOD_0_0FAE_REG_6 */
4005 { "xsaveopt", { FXSAVE
}, PREFIX_OPCODE
},
4006 { "clrssbsy", { Mq
}, PREFIX_OPCODE
},
4007 { "clwb", { Mb
}, PREFIX_OPCODE
},
4010 /* PREFIX_MOD_1_0FAE_REG_6 */
4012 { RM_TABLE (RM_0FAE_REG_6
) },
4013 { "umonitor", { Eva
}, PREFIX_OPCODE
},
4014 { "tpause", { Edq
}, PREFIX_OPCODE
},
4015 { "umwait", { Edq
}, PREFIX_OPCODE
},
4018 /* PREFIX_0FAE_REG_7 */
4020 { "clflush", { Mb
}, 0 },
4022 { "clflushopt", { Mb
}, 0 },
4028 { "popcntS", { Gv
, Ev
}, 0 },
4033 { "bsfS", { Gv
, Ev
}, 0 },
4034 { "tzcntS", { Gv
, Ev
}, 0 },
4035 { "bsfS", { Gv
, Ev
}, 0 },
4040 { "bsrS", { Gv
, Ev
}, 0 },
4041 { "lzcntS", { Gv
, Ev
}, 0 },
4042 { "bsrS", { Gv
, Ev
}, 0 },
4047 { "cmpps", { XM
, EXx
, CMP
}, PREFIX_OPCODE
},
4048 { "cmpss", { XM
, EXd
, CMP
}, PREFIX_OPCODE
},
4049 { "cmppd", { XM
, EXx
, CMP
}, PREFIX_OPCODE
},
4050 { "cmpsd", { XM
, EXq
, CMP
}, PREFIX_OPCODE
},
4053 /* PREFIX_MOD_0_0FC3 */
4055 { "movntiS", { Edq
, Gdq
}, PREFIX_OPCODE
},
4058 /* PREFIX_MOD_0_0FC7_REG_6 */
4060 { "vmptrld",{ Mq
}, 0 },
4061 { "vmxon", { Mq
}, 0 },
4062 { "vmclear",{ Mq
}, 0 },
4065 /* PREFIX_MOD_3_0FC7_REG_6 */
4067 { "rdrand", { Ev
}, 0 },
4069 { "rdrand", { Ev
}, 0 }
4072 /* PREFIX_MOD_3_0FC7_REG_7 */
4074 { "rdseed", { Ev
}, 0 },
4075 { "rdpid", { Em
}, 0 },
4076 { "rdseed", { Ev
}, 0 },
4083 { "addsubpd", { XM
, EXx
}, 0 },
4084 { "addsubps", { XM
, EXx
}, 0 },
4090 { "movq2dq",{ XM
, MS
}, 0 },
4091 { "movq", { EXqS
, XM
}, 0 },
4092 { "movdq2q",{ MX
, XS
}, 0 },
4098 { "cvtdq2pd", { XM
, EXq
}, PREFIX_OPCODE
},
4099 { "cvttpd2dq", { XM
, EXx
}, PREFIX_OPCODE
},
4100 { "cvtpd2dq", { XM
, EXx
}, PREFIX_OPCODE
},
4105 { "movntq", { Mq
, MX
}, PREFIX_OPCODE
},
4107 { MOD_TABLE (MOD_0FE7_PREFIX_2
) },
4115 { MOD_TABLE (MOD_0FF0_PREFIX_3
) },
4120 { "maskmovq", { MX
, MS
}, PREFIX_OPCODE
},
4122 { "maskmovdqu", { XM
, XS
}, PREFIX_OPCODE
},
4129 { "pblendvb", { XM
, EXx
, XMM0
}, PREFIX_OPCODE
},
4136 { "blendvps", { XM
, EXx
, XMM0
}, PREFIX_OPCODE
},
4143 { "blendvpd", { XM
, EXx
, XMM0
}, PREFIX_OPCODE
},
4150 { "ptest", { XM
, EXx
}, PREFIX_OPCODE
},
4157 { "pmovsxbw", { XM
, EXq
}, PREFIX_OPCODE
},
4164 { "pmovsxbd", { XM
, EXd
}, PREFIX_OPCODE
},
4171 { "pmovsxbq", { XM
, EXw
}, PREFIX_OPCODE
},
4178 { "pmovsxwd", { XM
, EXq
}, PREFIX_OPCODE
},
4185 { "pmovsxwq", { XM
, EXd
}, PREFIX_OPCODE
},
4192 { "pmovsxdq", { XM
, EXq
}, PREFIX_OPCODE
},
4199 { "pmuldq", { XM
, EXx
}, PREFIX_OPCODE
},
4206 { "pcmpeqq", { XM
, EXx
}, PREFIX_OPCODE
},
4213 { MOD_TABLE (MOD_0F382A_PREFIX_2
) },
4220 { "packusdw", { XM
, EXx
}, PREFIX_OPCODE
},
4227 { "pmovzxbw", { XM
, EXq
}, PREFIX_OPCODE
},
4234 { "pmovzxbd", { XM
, EXd
}, PREFIX_OPCODE
},
4241 { "pmovzxbq", { XM
, EXw
}, PREFIX_OPCODE
},
4248 { "pmovzxwd", { XM
, EXq
}, PREFIX_OPCODE
},
4255 { "pmovzxwq", { XM
, EXd
}, PREFIX_OPCODE
},
4262 { "pmovzxdq", { XM
, EXq
}, PREFIX_OPCODE
},
4269 { "pcmpgtq", { XM
, EXx
}, PREFIX_OPCODE
},
4276 { "pminsb", { XM
, EXx
}, PREFIX_OPCODE
},
4283 { "pminsd", { XM
, EXx
}, PREFIX_OPCODE
},
4290 { "pminuw", { XM
, EXx
}, PREFIX_OPCODE
},
4297 { "pminud", { XM
, EXx
}, PREFIX_OPCODE
},
4304 { "pmaxsb", { XM
, EXx
}, PREFIX_OPCODE
},
4311 { "pmaxsd", { XM
, EXx
}, PREFIX_OPCODE
},
4318 { "pmaxuw", { XM
, EXx
}, PREFIX_OPCODE
},
4325 { "pmaxud", { XM
, EXx
}, PREFIX_OPCODE
},
4332 { "pmulld", { XM
, EXx
}, PREFIX_OPCODE
},
4339 { "phminposuw", { XM
, EXx
}, PREFIX_OPCODE
},
4346 { "invept", { Gm
, Mo
}, PREFIX_OPCODE
},
4353 { "invvpid", { Gm
, Mo
}, PREFIX_OPCODE
},
4360 { "invpcid", { Gm
, M
}, PREFIX_OPCODE
},
4365 { "sha1nexte", { XM
, EXxmm
}, PREFIX_OPCODE
},
4370 { "sha1msg1", { XM
, EXxmm
}, PREFIX_OPCODE
},
4375 { "sha1msg2", { XM
, EXxmm
}, PREFIX_OPCODE
},
4380 { "sha256rnds2", { XM
, EXxmm
, XMM0
}, PREFIX_OPCODE
},
4385 { "sha256msg1", { XM
, EXxmm
}, PREFIX_OPCODE
},
4390 { "sha256msg2", { XM
, EXxmm
}, PREFIX_OPCODE
},
4397 { "gf2p8mulb", { XM
, EXxmm
}, PREFIX_OPCODE
},
4404 { "aesimc", { XM
, EXx
}, PREFIX_OPCODE
},
4411 { "aesenc", { XM
, EXx
}, PREFIX_OPCODE
},
4418 { "aesenclast", { XM
, EXx
}, PREFIX_OPCODE
},
4425 { "aesdec", { XM
, EXx
}, PREFIX_OPCODE
},
4432 { "aesdeclast", { XM
, EXx
}, PREFIX_OPCODE
},
4437 { "movbeS", { Gv
, { MOVBE_Fixup
, v_mode
} }, PREFIX_OPCODE
},
4439 { "movbeS", { Gv
, { MOVBE_Fixup
, v_mode
} }, PREFIX_OPCODE
},
4440 { "crc32", { Gdq
, { CRC32_Fixup
, b_mode
} }, PREFIX_OPCODE
},
4445 { "movbeS", { { MOVBE_Fixup
, v_mode
}, Gv
}, PREFIX_OPCODE
},
4447 { "movbeS", { { MOVBE_Fixup
, v_mode
}, Gv
}, PREFIX_OPCODE
},
4448 { "crc32", { Gdq
, { CRC32_Fixup
, v_mode
} }, PREFIX_OPCODE
},
4455 { MOD_TABLE (MOD_0F38F5_PREFIX_2
) },
4460 { MOD_TABLE (MOD_0F38F6_PREFIX_0
) },
4461 { "adoxS", { Gdq
, Edq
}, PREFIX_OPCODE
},
4462 { "adcxS", { Gdq
, Edq
}, PREFIX_OPCODE
},
4469 { MOD_TABLE (MOD_0F38F8_PREFIX_1
) },
4470 { MOD_TABLE (MOD_0F38F8_PREFIX_2
) },
4471 { MOD_TABLE (MOD_0F38F8_PREFIX_3
) },
4476 { MOD_TABLE (MOD_0F38F9_PREFIX_0
) },
4483 { "roundps", { XM
, EXx
, Ib
}, PREFIX_OPCODE
},
4490 { "roundpd", { XM
, EXx
, Ib
}, PREFIX_OPCODE
},
4497 { "roundss", { XM
, EXd
, Ib
}, PREFIX_OPCODE
},
4504 { "roundsd", { XM
, EXq
, Ib
}, PREFIX_OPCODE
},
4511 { "blendps", { XM
, EXx
, Ib
}, PREFIX_OPCODE
},
4518 { "blendpd", { XM
, EXx
, Ib
}, PREFIX_OPCODE
},
4525 { "pblendw", { XM
, EXx
, Ib
}, PREFIX_OPCODE
},
4532 { "pextrb", { Edqb
, XM
, Ib
}, PREFIX_OPCODE
},
4539 { "pextrw", { Edqw
, XM
, Ib
}, PREFIX_OPCODE
},
4546 { "pextrK", { Edq
, XM
, Ib
}, PREFIX_OPCODE
},
4553 { "extractps", { Edqd
, XM
, Ib
}, PREFIX_OPCODE
},
4560 { "pinsrb", { XM
, Edqb
, Ib
}, PREFIX_OPCODE
},
4567 { "insertps", { XM
, EXd
, Ib
}, PREFIX_OPCODE
},
4574 { "pinsrK", { XM
, Edq
, Ib
}, PREFIX_OPCODE
},
4581 { "dpps", { XM
, EXx
, Ib
}, PREFIX_OPCODE
},
4588 { "dppd", { XM
, EXx
, Ib
}, PREFIX_OPCODE
},
4595 { "mpsadbw", { XM
, EXx
, Ib
}, PREFIX_OPCODE
},
4602 { "pclmulqdq", { XM
, EXx
, PCLMUL
}, PREFIX_OPCODE
},
4609 { "pcmpestrm", { XM
, { PCMPESTR_Fixup
, x_mode
}, Ib
}, PREFIX_OPCODE
},
4616 { "pcmpestri", { XM
, { PCMPESTR_Fixup
, x_mode
}, Ib
}, PREFIX_OPCODE
},
4623 { "pcmpistrm", { XM
, EXx
, Ib
}, PREFIX_OPCODE
},
4630 { "pcmpistri", { XM
, EXx
, Ib
}, PREFIX_OPCODE
},
4635 { "sha1rnds4", { XM
, EXxmm
, Ib
}, PREFIX_OPCODE
},
4642 { "gf2p8affineqb", { XM
, EXxmm
, Ib
}, PREFIX_OPCODE
},
4649 { "gf2p8affineinvqb", { XM
, EXxmm
, Ib
}, PREFIX_OPCODE
},
4656 { "aeskeygenassist", { XM
, EXx
, Ib
}, PREFIX_OPCODE
},
4659 /* PREFIX_VEX_0F10 */
4661 { "vmovups", { XM
, EXx
}, 0 },
4662 { "vmovss", { XMVexScalar
, VexScalar
, EXdScalar
}, 0 },
4663 { "vmovupd", { XM
, EXx
}, 0 },
4664 { "vmovsd", { XMVexScalar
, VexScalar
, EXqScalar
}, 0 },
4667 /* PREFIX_VEX_0F11 */
4669 { "vmovups", { EXxS
, XM
}, 0 },
4670 { "vmovss", { EXdVexScalarS
, VexScalar
, XMScalar
}, 0 },
4671 { "vmovupd", { EXxS
, XM
}, 0 },
4672 { "vmovsd", { EXqVexScalarS
, VexScalar
, XMScalar
}, 0 },
4675 /* PREFIX_VEX_0F12 */
4677 { MOD_TABLE (MOD_VEX_0F12_PREFIX_0
) },
4678 { "vmovsldup", { XM
, EXx
}, 0 },
4679 { VEX_LEN_TABLE (VEX_LEN_0F12_P_2
) },
4680 { "vmovddup", { XM
, EXymmq
}, 0 },
4683 /* PREFIX_VEX_0F16 */
4685 { MOD_TABLE (MOD_VEX_0F16_PREFIX_0
) },
4686 { "vmovshdup", { XM
, EXx
}, 0 },
4687 { VEX_LEN_TABLE (VEX_LEN_0F16_P_2
) },
4690 /* PREFIX_VEX_0F2A */
4693 { "vcvtsi2ss%LQ", { XMScalar
, VexScalar
, Edq
}, 0 },
4695 { "vcvtsi2sd%LQ", { XMScalar
, VexScalar
, Edq
}, 0 },
4698 /* PREFIX_VEX_0F2C */
4701 { "vcvttss2si", { Gdq
, EXdScalar
}, 0 },
4703 { "vcvttsd2si", { Gdq
, EXqScalar
}, 0 },
4706 /* PREFIX_VEX_0F2D */
4709 { "vcvtss2si", { Gdq
, EXdScalar
}, 0 },
4711 { "vcvtsd2si", { Gdq
, EXqScalar
}, 0 },
4714 /* PREFIX_VEX_0F2E */
4716 { "vucomiss", { XMScalar
, EXdScalar
}, 0 },
4718 { "vucomisd", { XMScalar
, EXqScalar
}, 0 },
4721 /* PREFIX_VEX_0F2F */
4723 { "vcomiss", { XMScalar
, EXdScalar
}, 0 },
4725 { "vcomisd", { XMScalar
, EXqScalar
}, 0 },
4728 /* PREFIX_VEX_0F41 */
4730 { VEX_LEN_TABLE (VEX_LEN_0F41_P_0
) },
4732 { VEX_LEN_TABLE (VEX_LEN_0F41_P_2
) },
4735 /* PREFIX_VEX_0F42 */
4737 { VEX_LEN_TABLE (VEX_LEN_0F42_P_0
) },
4739 { VEX_LEN_TABLE (VEX_LEN_0F42_P_2
) },
4742 /* PREFIX_VEX_0F44 */
4744 { VEX_LEN_TABLE (VEX_LEN_0F44_P_0
) },
4746 { VEX_LEN_TABLE (VEX_LEN_0F44_P_2
) },
4749 /* PREFIX_VEX_0F45 */
4751 { VEX_LEN_TABLE (VEX_LEN_0F45_P_0
) },
4753 { VEX_LEN_TABLE (VEX_LEN_0F45_P_2
) },
4756 /* PREFIX_VEX_0F46 */
4758 { VEX_LEN_TABLE (VEX_LEN_0F46_P_0
) },
4760 { VEX_LEN_TABLE (VEX_LEN_0F46_P_2
) },
4763 /* PREFIX_VEX_0F47 */
4765 { VEX_LEN_TABLE (VEX_LEN_0F47_P_0
) },
4767 { VEX_LEN_TABLE (VEX_LEN_0F47_P_2
) },
4770 /* PREFIX_VEX_0F4A */
4772 { VEX_LEN_TABLE (VEX_LEN_0F4A_P_0
) },
4774 { VEX_LEN_TABLE (VEX_LEN_0F4A_P_2
) },
4777 /* PREFIX_VEX_0F4B */
4779 { VEX_LEN_TABLE (VEX_LEN_0F4B_P_0
) },
4781 { VEX_LEN_TABLE (VEX_LEN_0F4B_P_2
) },
4784 /* PREFIX_VEX_0F51 */
4786 { "vsqrtps", { XM
, EXx
}, 0 },
4787 { "vsqrtss", { XMScalar
, VexScalar
, EXdScalar
}, 0 },
4788 { "vsqrtpd", { XM
, EXx
}, 0 },
4789 { "vsqrtsd", { XMScalar
, VexScalar
, EXqScalar
}, 0 },
4792 /* PREFIX_VEX_0F52 */
4794 { "vrsqrtps", { XM
, EXx
}, 0 },
4795 { "vrsqrtss", { XMScalar
, VexScalar
, EXdScalar
}, 0 },
4798 /* PREFIX_VEX_0F53 */
4800 { "vrcpps", { XM
, EXx
}, 0 },
4801 { "vrcpss", { XMScalar
, VexScalar
, EXdScalar
}, 0 },
4804 /* PREFIX_VEX_0F58 */
4806 { "vaddps", { XM
, Vex
, EXx
}, 0 },
4807 { "vaddss", { XMScalar
, VexScalar
, EXdScalar
}, 0 },
4808 { "vaddpd", { XM
, Vex
, EXx
}, 0 },
4809 { "vaddsd", { XMScalar
, VexScalar
, EXqScalar
}, 0 },
4812 /* PREFIX_VEX_0F59 */
4814 { "vmulps", { XM
, Vex
, EXx
}, 0 },
4815 { "vmulss", { XMScalar
, VexScalar
, EXdScalar
}, 0 },
4816 { "vmulpd", { XM
, Vex
, EXx
}, 0 },
4817 { "vmulsd", { XMScalar
, VexScalar
, EXqScalar
}, 0 },
4820 /* PREFIX_VEX_0F5A */
4822 { "vcvtps2pd", { XM
, EXxmmq
}, 0 },
4823 { "vcvtss2sd", { XMScalar
, VexScalar
, EXdScalar
}, 0 },
4824 { "vcvtpd2ps%XY",{ XMM
, EXx
}, 0 },
4825 { "vcvtsd2ss", { XMScalar
, VexScalar
, EXqScalar
}, 0 },
4828 /* PREFIX_VEX_0F5B */
4830 { "vcvtdq2ps", { XM
, EXx
}, 0 },
4831 { "vcvttps2dq", { XM
, EXx
}, 0 },
4832 { "vcvtps2dq", { XM
, EXx
}, 0 },
4835 /* PREFIX_VEX_0F5C */
4837 { "vsubps", { XM
, Vex
, EXx
}, 0 },
4838 { "vsubss", { XMScalar
, VexScalar
, EXdScalar
}, 0 },
4839 { "vsubpd", { XM
, Vex
, EXx
}, 0 },
4840 { "vsubsd", { XMScalar
, VexScalar
, EXqScalar
}, 0 },
4843 /* PREFIX_VEX_0F5D */
4845 { "vminps", { XM
, Vex
, EXx
}, 0 },
4846 { "vminss", { XMScalar
, VexScalar
, EXdScalar
}, 0 },
4847 { "vminpd", { XM
, Vex
, EXx
}, 0 },
4848 { "vminsd", { XMScalar
, VexScalar
, EXqScalar
}, 0 },
4851 /* PREFIX_VEX_0F5E */
4853 { "vdivps", { XM
, Vex
, EXx
}, 0 },
4854 { "vdivss", { XMScalar
, VexScalar
, EXdScalar
}, 0 },
4855 { "vdivpd", { XM
, Vex
, EXx
}, 0 },
4856 { "vdivsd", { XMScalar
, VexScalar
, EXqScalar
}, 0 },
4859 /* PREFIX_VEX_0F5F */
4861 { "vmaxps", { XM
, Vex
, EXx
}, 0 },
4862 { "vmaxss", { XMScalar
, VexScalar
, EXdScalar
}, 0 },
4863 { "vmaxpd", { XM
, Vex
, EXx
}, 0 },
4864 { "vmaxsd", { XMScalar
, VexScalar
, EXqScalar
}, 0 },
4867 /* PREFIX_VEX_0F60 */
4871 { "vpunpcklbw", { XM
, Vex
, EXx
}, 0 },
4874 /* PREFIX_VEX_0F61 */
4878 { "vpunpcklwd", { XM
, Vex
, EXx
}, 0 },
4881 /* PREFIX_VEX_0F62 */
4885 { "vpunpckldq", { XM
, Vex
, EXx
}, 0 },
4888 /* PREFIX_VEX_0F63 */
4892 { "vpacksswb", { XM
, Vex
, EXx
}, 0 },
4895 /* PREFIX_VEX_0F64 */
4899 { "vpcmpgtb", { XM
, Vex
, EXx
}, 0 },
4902 /* PREFIX_VEX_0F65 */
4906 { "vpcmpgtw", { XM
, Vex
, EXx
}, 0 },
4909 /* PREFIX_VEX_0F66 */
4913 { "vpcmpgtd", { XM
, Vex
, EXx
}, 0 },
4916 /* PREFIX_VEX_0F67 */
4920 { "vpackuswb", { XM
, Vex
, EXx
}, 0 },
4923 /* PREFIX_VEX_0F68 */
4927 { "vpunpckhbw", { XM
, Vex
, EXx
}, 0 },
4930 /* PREFIX_VEX_0F69 */
4934 { "vpunpckhwd", { XM
, Vex
, EXx
}, 0 },
4937 /* PREFIX_VEX_0F6A */
4941 { "vpunpckhdq", { XM
, Vex
, EXx
}, 0 },
4944 /* PREFIX_VEX_0F6B */
4948 { "vpackssdw", { XM
, Vex
, EXx
}, 0 },
4951 /* PREFIX_VEX_0F6C */
4955 { "vpunpcklqdq", { XM
, Vex
, EXx
}, 0 },
4958 /* PREFIX_VEX_0F6D */
4962 { "vpunpckhqdq", { XM
, Vex
, EXx
}, 0 },
4965 /* PREFIX_VEX_0F6E */
4969 { VEX_LEN_TABLE (VEX_LEN_0F6E_P_2
) },
4972 /* PREFIX_VEX_0F6F */
4975 { "vmovdqu", { XM
, EXx
}, 0 },
4976 { "vmovdqa", { XM
, EXx
}, 0 },
4979 /* PREFIX_VEX_0F70 */
4982 { "vpshufhw", { XM
, EXx
, Ib
}, 0 },
4983 { "vpshufd", { XM
, EXx
, Ib
}, 0 },
4984 { "vpshuflw", { XM
, EXx
, Ib
}, 0 },
4987 /* PREFIX_VEX_0F71_REG_2 */
4991 { "vpsrlw", { Vex
, XS
, Ib
}, 0 },
4994 /* PREFIX_VEX_0F71_REG_4 */
4998 { "vpsraw", { Vex
, XS
, Ib
}, 0 },
5001 /* PREFIX_VEX_0F71_REG_6 */
5005 { "vpsllw", { Vex
, XS
, Ib
}, 0 },
5008 /* PREFIX_VEX_0F72_REG_2 */
5012 { "vpsrld", { Vex
, XS
, Ib
}, 0 },
5015 /* PREFIX_VEX_0F72_REG_4 */
5019 { "vpsrad", { Vex
, XS
, Ib
}, 0 },
5022 /* PREFIX_VEX_0F72_REG_6 */
5026 { "vpslld", { Vex
, XS
, Ib
}, 0 },
5029 /* PREFIX_VEX_0F73_REG_2 */
5033 { "vpsrlq", { Vex
, XS
, Ib
}, 0 },
5036 /* PREFIX_VEX_0F73_REG_3 */
5040 { "vpsrldq", { Vex
, XS
, Ib
}, 0 },
5043 /* PREFIX_VEX_0F73_REG_6 */
5047 { "vpsllq", { Vex
, XS
, Ib
}, 0 },
5050 /* PREFIX_VEX_0F73_REG_7 */
5054 { "vpslldq", { Vex
, XS
, Ib
}, 0 },
5057 /* PREFIX_VEX_0F74 */
5061 { "vpcmpeqb", { XM
, Vex
, EXx
}, 0 },
5064 /* PREFIX_VEX_0F75 */
5068 { "vpcmpeqw", { XM
, Vex
, EXx
}, 0 },
5071 /* PREFIX_VEX_0F76 */
5075 { "vpcmpeqd", { XM
, Vex
, EXx
}, 0 },
5078 /* PREFIX_VEX_0F77 */
5080 { VEX_LEN_TABLE (VEX_LEN_0F77_P_0
) },
5083 /* PREFIX_VEX_0F7C */
5087 { "vhaddpd", { XM
, Vex
, EXx
}, 0 },
5088 { "vhaddps", { XM
, Vex
, EXx
}, 0 },
5091 /* PREFIX_VEX_0F7D */
5095 { "vhsubpd", { XM
, Vex
, EXx
}, 0 },
5096 { "vhsubps", { XM
, Vex
, EXx
}, 0 },
5099 /* PREFIX_VEX_0F7E */
5102 { VEX_LEN_TABLE (VEX_LEN_0F7E_P_1
) },
5103 { VEX_LEN_TABLE (VEX_LEN_0F7E_P_2
) },
5106 /* PREFIX_VEX_0F7F */
5109 { "vmovdqu", { EXxS
, XM
}, 0 },
5110 { "vmovdqa", { EXxS
, XM
}, 0 },
5113 /* PREFIX_VEX_0F90 */
5115 { VEX_LEN_TABLE (VEX_LEN_0F90_P_0
) },
5117 { VEX_LEN_TABLE (VEX_LEN_0F90_P_2
) },
5120 /* PREFIX_VEX_0F91 */
5122 { VEX_LEN_TABLE (VEX_LEN_0F91_P_0
) },
5124 { VEX_LEN_TABLE (VEX_LEN_0F91_P_2
) },
5127 /* PREFIX_VEX_0F92 */
5129 { VEX_LEN_TABLE (VEX_LEN_0F92_P_0
) },
5131 { VEX_LEN_TABLE (VEX_LEN_0F92_P_2
) },
5132 { VEX_LEN_TABLE (VEX_LEN_0F92_P_3
) },
5135 /* PREFIX_VEX_0F93 */
5137 { VEX_LEN_TABLE (VEX_LEN_0F93_P_0
) },
5139 { VEX_LEN_TABLE (VEX_LEN_0F93_P_2
) },
5140 { VEX_LEN_TABLE (VEX_LEN_0F93_P_3
) },
5143 /* PREFIX_VEX_0F98 */
5145 { VEX_LEN_TABLE (VEX_LEN_0F98_P_0
) },
5147 { VEX_LEN_TABLE (VEX_LEN_0F98_P_2
) },
5150 /* PREFIX_VEX_0F99 */
5152 { VEX_LEN_TABLE (VEX_LEN_0F99_P_0
) },
5154 { VEX_LEN_TABLE (VEX_LEN_0F99_P_2
) },
5157 /* PREFIX_VEX_0FC2 */
5159 { "vcmpps", { XM
, Vex
, EXx
, VCMP
}, 0 },
5160 { "vcmpss", { XMScalar
, VexScalar
, EXdScalar
, VCMP
}, 0 },
5161 { "vcmppd", { XM
, Vex
, EXx
, VCMP
}, 0 },
5162 { "vcmpsd", { XMScalar
, VexScalar
, EXqScalar
, VCMP
}, 0 },
5165 /* PREFIX_VEX_0FC4 */
5169 { VEX_LEN_TABLE (VEX_LEN_0FC4_P_2
) },
5172 /* PREFIX_VEX_0FC5 */
5176 { VEX_LEN_TABLE (VEX_LEN_0FC5_P_2
) },
5179 /* PREFIX_VEX_0FD0 */
5183 { "vaddsubpd", { XM
, Vex
, EXx
}, 0 },
5184 { "vaddsubps", { XM
, Vex
, EXx
}, 0 },
5187 /* PREFIX_VEX_0FD1 */
5191 { "vpsrlw", { XM
, Vex
, EXxmm
}, 0 },
5194 /* PREFIX_VEX_0FD2 */
5198 { "vpsrld", { XM
, Vex
, EXxmm
}, 0 },
5201 /* PREFIX_VEX_0FD3 */
5205 { "vpsrlq", { XM
, Vex
, EXxmm
}, 0 },
5208 /* PREFIX_VEX_0FD4 */
5212 { "vpaddq", { XM
, Vex
, EXx
}, 0 },
5215 /* PREFIX_VEX_0FD5 */
5219 { "vpmullw", { XM
, Vex
, EXx
}, 0 },
5222 /* PREFIX_VEX_0FD6 */
5226 { VEX_LEN_TABLE (VEX_LEN_0FD6_P_2
) },
5229 /* PREFIX_VEX_0FD7 */
5233 { MOD_TABLE (MOD_VEX_0FD7_PREFIX_2
) },
5236 /* PREFIX_VEX_0FD8 */
5240 { "vpsubusb", { XM
, Vex
, EXx
}, 0 },
5243 /* PREFIX_VEX_0FD9 */
5247 { "vpsubusw", { XM
, Vex
, EXx
}, 0 },
5250 /* PREFIX_VEX_0FDA */
5254 { "vpminub", { XM
, Vex
, EXx
}, 0 },
5257 /* PREFIX_VEX_0FDB */
5261 { "vpand", { XM
, Vex
, EXx
}, 0 },
5264 /* PREFIX_VEX_0FDC */
5268 { "vpaddusb", { XM
, Vex
, EXx
}, 0 },
5271 /* PREFIX_VEX_0FDD */
5275 { "vpaddusw", { XM
, Vex
, EXx
}, 0 },
5278 /* PREFIX_VEX_0FDE */
5282 { "vpmaxub", { XM
, Vex
, EXx
}, 0 },
5285 /* PREFIX_VEX_0FDF */
5289 { "vpandn", { XM
, Vex
, EXx
}, 0 },
5292 /* PREFIX_VEX_0FE0 */
5296 { "vpavgb", { XM
, Vex
, EXx
}, 0 },
5299 /* PREFIX_VEX_0FE1 */
5303 { "vpsraw", { XM
, Vex
, EXxmm
}, 0 },
5306 /* PREFIX_VEX_0FE2 */
5310 { "vpsrad", { XM
, Vex
, EXxmm
}, 0 },
5313 /* PREFIX_VEX_0FE3 */
5317 { "vpavgw", { XM
, Vex
, EXx
}, 0 },
5320 /* PREFIX_VEX_0FE4 */
5324 { "vpmulhuw", { XM
, Vex
, EXx
}, 0 },
5327 /* PREFIX_VEX_0FE5 */
5331 { "vpmulhw", { XM
, Vex
, EXx
}, 0 },
5334 /* PREFIX_VEX_0FE6 */
5337 { "vcvtdq2pd", { XM
, EXxmmq
}, 0 },
5338 { "vcvttpd2dq%XY", { XMM
, EXx
}, 0 },
5339 { "vcvtpd2dq%XY", { XMM
, EXx
}, 0 },
5342 /* PREFIX_VEX_0FE7 */
5346 { MOD_TABLE (MOD_VEX_0FE7_PREFIX_2
) },
5349 /* PREFIX_VEX_0FE8 */
5353 { "vpsubsb", { XM
, Vex
, EXx
}, 0 },
5356 /* PREFIX_VEX_0FE9 */
5360 { "vpsubsw", { XM
, Vex
, EXx
}, 0 },
5363 /* PREFIX_VEX_0FEA */
5367 { "vpminsw", { XM
, Vex
, EXx
}, 0 },
5370 /* PREFIX_VEX_0FEB */
5374 { "vpor", { XM
, Vex
, EXx
}, 0 },
5377 /* PREFIX_VEX_0FEC */
5381 { "vpaddsb", { XM
, Vex
, EXx
}, 0 },
5384 /* PREFIX_VEX_0FED */
5388 { "vpaddsw", { XM
, Vex
, EXx
}, 0 },
5391 /* PREFIX_VEX_0FEE */
5395 { "vpmaxsw", { XM
, Vex
, EXx
}, 0 },
5398 /* PREFIX_VEX_0FEF */
5402 { "vpxor", { XM
, Vex
, EXx
}, 0 },
5405 /* PREFIX_VEX_0FF0 */
5410 { MOD_TABLE (MOD_VEX_0FF0_PREFIX_3
) },
5413 /* PREFIX_VEX_0FF1 */
5417 { "vpsllw", { XM
, Vex
, EXxmm
}, 0 },
5420 /* PREFIX_VEX_0FF2 */
5424 { "vpslld", { XM
, Vex
, EXxmm
}, 0 },
5427 /* PREFIX_VEX_0FF3 */
5431 { "vpsllq", { XM
, Vex
, EXxmm
}, 0 },
5434 /* PREFIX_VEX_0FF4 */
5438 { "vpmuludq", { XM
, Vex
, EXx
}, 0 },
5441 /* PREFIX_VEX_0FF5 */
5445 { "vpmaddwd", { XM
, Vex
, EXx
}, 0 },
5448 /* PREFIX_VEX_0FF6 */
5452 { "vpsadbw", { XM
, Vex
, EXx
}, 0 },
5455 /* PREFIX_VEX_0FF7 */
5459 { VEX_LEN_TABLE (VEX_LEN_0FF7_P_2
) },
5462 /* PREFIX_VEX_0FF8 */
5466 { "vpsubb", { XM
, Vex
, EXx
}, 0 },
5469 /* PREFIX_VEX_0FF9 */
5473 { "vpsubw", { XM
, Vex
, EXx
}, 0 },
5476 /* PREFIX_VEX_0FFA */
5480 { "vpsubd", { XM
, Vex
, EXx
}, 0 },
5483 /* PREFIX_VEX_0FFB */
5487 { "vpsubq", { XM
, Vex
, EXx
}, 0 },
5490 /* PREFIX_VEX_0FFC */
5494 { "vpaddb", { XM
, Vex
, EXx
}, 0 },
5497 /* PREFIX_VEX_0FFD */
5501 { "vpaddw", { XM
, Vex
, EXx
}, 0 },
5504 /* PREFIX_VEX_0FFE */
5508 { "vpaddd", { XM
, Vex
, EXx
}, 0 },
5511 /* PREFIX_VEX_0F3800 */
5515 { "vpshufb", { XM
, Vex
, EXx
}, 0 },
5518 /* PREFIX_VEX_0F3801 */
5522 { "vphaddw", { XM
, Vex
, EXx
}, 0 },
5525 /* PREFIX_VEX_0F3802 */
5529 { "vphaddd", { XM
, Vex
, EXx
}, 0 },
5532 /* PREFIX_VEX_0F3803 */
5536 { "vphaddsw", { XM
, Vex
, EXx
}, 0 },
5539 /* PREFIX_VEX_0F3804 */
5543 { "vpmaddubsw", { XM
, Vex
, EXx
}, 0 },
5546 /* PREFIX_VEX_0F3805 */
5550 { "vphsubw", { XM
, Vex
, EXx
}, 0 },
5553 /* PREFIX_VEX_0F3806 */
5557 { "vphsubd", { XM
, Vex
, EXx
}, 0 },
5560 /* PREFIX_VEX_0F3807 */
5564 { "vphsubsw", { XM
, Vex
, EXx
}, 0 },
5567 /* PREFIX_VEX_0F3808 */
5571 { "vpsignb", { XM
, Vex
, EXx
}, 0 },
5574 /* PREFIX_VEX_0F3809 */
5578 { "vpsignw", { XM
, Vex
, EXx
}, 0 },
5581 /* PREFIX_VEX_0F380A */
5585 { "vpsignd", { XM
, Vex
, EXx
}, 0 },
5588 /* PREFIX_VEX_0F380B */
5592 { "vpmulhrsw", { XM
, Vex
, EXx
}, 0 },
5595 /* PREFIX_VEX_0F380C */
5599 { VEX_W_TABLE (VEX_W_0F380C_P_2
) },
5602 /* PREFIX_VEX_0F380D */
5606 { VEX_W_TABLE (VEX_W_0F380D_P_2
) },
5609 /* PREFIX_VEX_0F380E */
5613 { VEX_W_TABLE (VEX_W_0F380E_P_2
) },
5616 /* PREFIX_VEX_0F380F */
5620 { VEX_W_TABLE (VEX_W_0F380F_P_2
) },
5623 /* PREFIX_VEX_0F3813 */
5627 { "vcvtph2ps", { XM
, EXxmmq
}, 0 },
5630 /* PREFIX_VEX_0F3816 */
5634 { VEX_LEN_TABLE (VEX_LEN_0F3816_P_2
) },
5637 /* PREFIX_VEX_0F3817 */
5641 { "vptest", { XM
, EXx
}, 0 },
5644 /* PREFIX_VEX_0F3818 */
5648 { VEX_W_TABLE (VEX_W_0F3818_P_2
) },
5651 /* PREFIX_VEX_0F3819 */
5655 { VEX_LEN_TABLE (VEX_LEN_0F3819_P_2
) },
5658 /* PREFIX_VEX_0F381A */
5662 { MOD_TABLE (MOD_VEX_0F381A_PREFIX_2
) },
5665 /* PREFIX_VEX_0F381C */
5669 { "vpabsb", { XM
, EXx
}, 0 },
5672 /* PREFIX_VEX_0F381D */
5676 { "vpabsw", { XM
, EXx
}, 0 },
5679 /* PREFIX_VEX_0F381E */
5683 { "vpabsd", { XM
, EXx
}, 0 },
5686 /* PREFIX_VEX_0F3820 */
5690 { "vpmovsxbw", { XM
, EXxmmq
}, 0 },
5693 /* PREFIX_VEX_0F3821 */
5697 { "vpmovsxbd", { XM
, EXxmmqd
}, 0 },
5700 /* PREFIX_VEX_0F3822 */
5704 { "vpmovsxbq", { XM
, EXxmmdw
}, 0 },
5707 /* PREFIX_VEX_0F3823 */
5711 { "vpmovsxwd", { XM
, EXxmmq
}, 0 },
5714 /* PREFIX_VEX_0F3824 */
5718 { "vpmovsxwq", { XM
, EXxmmqd
}, 0 },
5721 /* PREFIX_VEX_0F3825 */
5725 { "vpmovsxdq", { XM
, EXxmmq
}, 0 },
5728 /* PREFIX_VEX_0F3828 */
5732 { "vpmuldq", { XM
, Vex
, EXx
}, 0 },
5735 /* PREFIX_VEX_0F3829 */
5739 { "vpcmpeqq", { XM
, Vex
, EXx
}, 0 },
5742 /* PREFIX_VEX_0F382A */
5746 { MOD_TABLE (MOD_VEX_0F382A_PREFIX_2
) },
5749 /* PREFIX_VEX_0F382B */
5753 { "vpackusdw", { XM
, Vex
, EXx
}, 0 },
5756 /* PREFIX_VEX_0F382C */
5760 { MOD_TABLE (MOD_VEX_0F382C_PREFIX_2
) },
5763 /* PREFIX_VEX_0F382D */
5767 { MOD_TABLE (MOD_VEX_0F382D_PREFIX_2
) },
5770 /* PREFIX_VEX_0F382E */
5774 { MOD_TABLE (MOD_VEX_0F382E_PREFIX_2
) },
5777 /* PREFIX_VEX_0F382F */
5781 { MOD_TABLE (MOD_VEX_0F382F_PREFIX_2
) },
5784 /* PREFIX_VEX_0F3830 */
5788 { "vpmovzxbw", { XM
, EXxmmq
}, 0 },
5791 /* PREFIX_VEX_0F3831 */
5795 { "vpmovzxbd", { XM
, EXxmmqd
}, 0 },
5798 /* PREFIX_VEX_0F3832 */
5802 { "vpmovzxbq", { XM
, EXxmmdw
}, 0 },
5805 /* PREFIX_VEX_0F3833 */
5809 { "vpmovzxwd", { XM
, EXxmmq
}, 0 },
5812 /* PREFIX_VEX_0F3834 */
5816 { "vpmovzxwq", { XM
, EXxmmqd
}, 0 },
5819 /* PREFIX_VEX_0F3835 */
5823 { "vpmovzxdq", { XM
, EXxmmq
}, 0 },
5826 /* PREFIX_VEX_0F3836 */
5830 { VEX_LEN_TABLE (VEX_LEN_0F3836_P_2
) },
5833 /* PREFIX_VEX_0F3837 */
5837 { "vpcmpgtq", { XM
, Vex
, EXx
}, 0 },
5840 /* PREFIX_VEX_0F3838 */
5844 { "vpminsb", { XM
, Vex
, EXx
}, 0 },
5847 /* PREFIX_VEX_0F3839 */
5851 { "vpminsd", { XM
, Vex
, EXx
}, 0 },
5854 /* PREFIX_VEX_0F383A */
5858 { "vpminuw", { XM
, Vex
, EXx
}, 0 },
5861 /* PREFIX_VEX_0F383B */
5865 { "vpminud", { XM
, Vex
, EXx
}, 0 },
5868 /* PREFIX_VEX_0F383C */
5872 { "vpmaxsb", { XM
, Vex
, EXx
}, 0 },
5875 /* PREFIX_VEX_0F383D */
5879 { "vpmaxsd", { XM
, Vex
, EXx
}, 0 },
5882 /* PREFIX_VEX_0F383E */
5886 { "vpmaxuw", { XM
, Vex
, EXx
}, 0 },
5889 /* PREFIX_VEX_0F383F */
5893 { "vpmaxud", { XM
, Vex
, EXx
}, 0 },
5896 /* PREFIX_VEX_0F3840 */
5900 { "vpmulld", { XM
, Vex
, EXx
}, 0 },
5903 /* PREFIX_VEX_0F3841 */
5907 { VEX_LEN_TABLE (VEX_LEN_0F3841_P_2
) },
5910 /* PREFIX_VEX_0F3845 */
5914 { "vpsrlv%LW", { XM
, Vex
, EXx
}, 0 },
5917 /* PREFIX_VEX_0F3846 */
5921 { VEX_W_TABLE (VEX_W_0F3846_P_2
) },
5924 /* PREFIX_VEX_0F3847 */
5928 { "vpsllv%LW", { XM
, Vex
, EXx
}, 0 },
5931 /* PREFIX_VEX_0F3858 */
5935 { VEX_W_TABLE (VEX_W_0F3858_P_2
) },
5938 /* PREFIX_VEX_0F3859 */
5942 { VEX_W_TABLE (VEX_W_0F3859_P_2
) },
5945 /* PREFIX_VEX_0F385A */
5949 { MOD_TABLE (MOD_VEX_0F385A_PREFIX_2
) },
5952 /* PREFIX_VEX_0F3878 */
5956 { VEX_W_TABLE (VEX_W_0F3878_P_2
) },
5959 /* PREFIX_VEX_0F3879 */
5963 { VEX_W_TABLE (VEX_W_0F3879_P_2
) },
5966 /* PREFIX_VEX_0F388C */
5970 { MOD_TABLE (MOD_VEX_0F388C_PREFIX_2
) },
5973 /* PREFIX_VEX_0F388E */
5977 { MOD_TABLE (MOD_VEX_0F388E_PREFIX_2
) },
5980 /* PREFIX_VEX_0F3890 */
5984 { "vpgatherd%LW", { XM
, MVexVSIBDWpX
, Vex
}, 0 },
5987 /* PREFIX_VEX_0F3891 */
5991 { "vpgatherq%LW", { XMGatherQ
, MVexVSIBQWpX
, VexGatherQ
}, 0 },
5994 /* PREFIX_VEX_0F3892 */
5998 { "vgatherdp%XW", { XM
, MVexVSIBDWpX
, Vex
}, 0 },
6001 /* PREFIX_VEX_0F3893 */
6005 { "vgatherqp%XW", { XMGatherQ
, MVexVSIBQWpX
, VexGatherQ
}, 0 },
6008 /* PREFIX_VEX_0F3896 */
6012 { "vfmaddsub132p%XW", { XM
, Vex
, EXx
}, 0 },
6015 /* PREFIX_VEX_0F3897 */
6019 { "vfmsubadd132p%XW", { XM
, Vex
, EXx
}, 0 },
6022 /* PREFIX_VEX_0F3898 */
6026 { "vfmadd132p%XW", { XM
, Vex
, EXx
}, 0 },
6029 /* PREFIX_VEX_0F3899 */
6033 { "vfmadd132s%XW", { XMScalar
, VexScalar
, EXVexWdqScalar
}, 0 },
6036 /* PREFIX_VEX_0F389A */
6040 { "vfmsub132p%XW", { XM
, Vex
, EXx
}, 0 },
6043 /* PREFIX_VEX_0F389B */
6047 { "vfmsub132s%XW", { XMScalar
, VexScalar
, EXVexWdqScalar
}, 0 },
6050 /* PREFIX_VEX_0F389C */
6054 { "vfnmadd132p%XW", { XM
, Vex
, EXx
}, 0 },
6057 /* PREFIX_VEX_0F389D */
6061 { "vfnmadd132s%XW", { XMScalar
, VexScalar
, EXVexWdqScalar
}, 0 },
6064 /* PREFIX_VEX_0F389E */
6068 { "vfnmsub132p%XW", { XM
, Vex
, EXx
}, 0 },
6071 /* PREFIX_VEX_0F389F */
6075 { "vfnmsub132s%XW", { XMScalar
, VexScalar
, EXVexWdqScalar
}, 0 },
6078 /* PREFIX_VEX_0F38A6 */
6082 { "vfmaddsub213p%XW", { XM
, Vex
, EXx
}, 0 },
6086 /* PREFIX_VEX_0F38A7 */
6090 { "vfmsubadd213p%XW", { XM
, Vex
, EXx
}, 0 },
6093 /* PREFIX_VEX_0F38A8 */
6097 { "vfmadd213p%XW", { XM
, Vex
, EXx
}, 0 },
6100 /* PREFIX_VEX_0F38A9 */
6104 { "vfmadd213s%XW", { XMScalar
, VexScalar
, EXVexWdqScalar
}, 0 },
6107 /* PREFIX_VEX_0F38AA */
6111 { "vfmsub213p%XW", { XM
, Vex
, EXx
}, 0 },
6114 /* PREFIX_VEX_0F38AB */
6118 { "vfmsub213s%XW", { XMScalar
, VexScalar
, EXVexWdqScalar
}, 0 },
6121 /* PREFIX_VEX_0F38AC */
6125 { "vfnmadd213p%XW", { XM
, Vex
, EXx
}, 0 },
6128 /* PREFIX_VEX_0F38AD */
6132 { "vfnmadd213s%XW", { XMScalar
, VexScalar
, EXVexWdqScalar
}, 0 },
6135 /* PREFIX_VEX_0F38AE */
6139 { "vfnmsub213p%XW", { XM
, Vex
, EXx
}, 0 },
6142 /* PREFIX_VEX_0F38AF */
6146 { "vfnmsub213s%XW", { XMScalar
, VexScalar
, EXVexWdqScalar
}, 0 },
6149 /* PREFIX_VEX_0F38B6 */
6153 { "vfmaddsub231p%XW", { XM
, Vex
, EXx
}, 0 },
6156 /* PREFIX_VEX_0F38B7 */
6160 { "vfmsubadd231p%XW", { XM
, Vex
, EXx
}, 0 },
6163 /* PREFIX_VEX_0F38B8 */
6167 { "vfmadd231p%XW", { XM
, Vex
, EXx
}, 0 },
6170 /* PREFIX_VEX_0F38B9 */
6174 { "vfmadd231s%XW", { XMScalar
, VexScalar
, EXVexWdqScalar
}, 0 },
6177 /* PREFIX_VEX_0F38BA */
6181 { "vfmsub231p%XW", { XM
, Vex
, EXx
}, 0 },
6184 /* PREFIX_VEX_0F38BB */
6188 { "vfmsub231s%XW", { XMScalar
, VexScalar
, EXVexWdqScalar
}, 0 },
6191 /* PREFIX_VEX_0F38BC */
6195 { "vfnmadd231p%XW", { XM
, Vex
, EXx
}, 0 },
6198 /* PREFIX_VEX_0F38BD */
6202 { "vfnmadd231s%XW", { XMScalar
, VexScalar
, EXVexWdqScalar
}, 0 },
6205 /* PREFIX_VEX_0F38BE */
6209 { "vfnmsub231p%XW", { XM
, Vex
, EXx
}, 0 },
6212 /* PREFIX_VEX_0F38BF */
6216 { "vfnmsub231s%XW", { XMScalar
, VexScalar
, EXVexWdqScalar
}, 0 },
6219 /* PREFIX_VEX_0F38CF */
6223 { VEX_W_TABLE (VEX_W_0F38CF_P_2
) },
6226 /* PREFIX_VEX_0F38DB */
6230 { VEX_LEN_TABLE (VEX_LEN_0F38DB_P_2
) },
6233 /* PREFIX_VEX_0F38DC */
6237 { "vaesenc", { XM
, Vex
, EXx
}, 0 },
6240 /* PREFIX_VEX_0F38DD */
6244 { "vaesenclast", { XM
, Vex
, EXx
}, 0 },
6247 /* PREFIX_VEX_0F38DE */
6251 { "vaesdec", { XM
, Vex
, EXx
}, 0 },
6254 /* PREFIX_VEX_0F38DF */
6258 { "vaesdeclast", { XM
, Vex
, EXx
}, 0 },
6261 /* PREFIX_VEX_0F38F2 */
6263 { VEX_LEN_TABLE (VEX_LEN_0F38F2_P_0
) },
6266 /* PREFIX_VEX_0F38F3_REG_1 */
6268 { VEX_LEN_TABLE (VEX_LEN_0F38F3_R_1_P_0
) },
6271 /* PREFIX_VEX_0F38F3_REG_2 */
6273 { VEX_LEN_TABLE (VEX_LEN_0F38F3_R_2_P_0
) },
6276 /* PREFIX_VEX_0F38F3_REG_3 */
6278 { VEX_LEN_TABLE (VEX_LEN_0F38F3_R_3_P_0
) },
6281 /* PREFIX_VEX_0F38F5 */
6283 { VEX_LEN_TABLE (VEX_LEN_0F38F5_P_0
) },
6284 { VEX_LEN_TABLE (VEX_LEN_0F38F5_P_1
) },
6286 { VEX_LEN_TABLE (VEX_LEN_0F38F5_P_3
) },
6289 /* PREFIX_VEX_0F38F6 */
6294 { VEX_LEN_TABLE (VEX_LEN_0F38F6_P_3
) },
6297 /* PREFIX_VEX_0F38F7 */
6299 { VEX_LEN_TABLE (VEX_LEN_0F38F7_P_0
) },
6300 { VEX_LEN_TABLE (VEX_LEN_0F38F7_P_1
) },
6301 { VEX_LEN_TABLE (VEX_LEN_0F38F7_P_2
) },
6302 { VEX_LEN_TABLE (VEX_LEN_0F38F7_P_3
) },
6305 /* PREFIX_VEX_0F3A00 */
6309 { VEX_LEN_TABLE (VEX_LEN_0F3A00_P_2
) },
6312 /* PREFIX_VEX_0F3A01 */
6316 { VEX_LEN_TABLE (VEX_LEN_0F3A01_P_2
) },
6319 /* PREFIX_VEX_0F3A02 */
6323 { VEX_W_TABLE (VEX_W_0F3A02_P_2
) },
6326 /* PREFIX_VEX_0F3A04 */
6330 { VEX_W_TABLE (VEX_W_0F3A04_P_2
) },
6333 /* PREFIX_VEX_0F3A05 */
6337 { VEX_W_TABLE (VEX_W_0F3A05_P_2
) },
6340 /* PREFIX_VEX_0F3A06 */
6344 { VEX_LEN_TABLE (VEX_LEN_0F3A06_P_2
) },
6347 /* PREFIX_VEX_0F3A08 */
6351 { "vroundps", { XM
, EXx
, Ib
}, 0 },
6354 /* PREFIX_VEX_0F3A09 */
6358 { "vroundpd", { XM
, EXx
, Ib
}, 0 },
6361 /* PREFIX_VEX_0F3A0A */
6365 { "vroundss", { XMScalar
, VexScalar
, EXdScalar
, Ib
}, 0 },
6368 /* PREFIX_VEX_0F3A0B */
6372 { "vroundsd", { XMScalar
, VexScalar
, EXqScalar
, Ib
}, 0 },
6375 /* PREFIX_VEX_0F3A0C */
6379 { "vblendps", { XM
, Vex
, EXx
, Ib
}, 0 },
6382 /* PREFIX_VEX_0F3A0D */
6386 { "vblendpd", { XM
, Vex
, EXx
, Ib
}, 0 },
6389 /* PREFIX_VEX_0F3A0E */
6393 { "vpblendw", { XM
, Vex
, EXx
, Ib
}, 0 },
6396 /* PREFIX_VEX_0F3A0F */
6400 { "vpalignr", { XM
, Vex
, EXx
, Ib
}, 0 },
6403 /* PREFIX_VEX_0F3A14 */
6407 { VEX_LEN_TABLE (VEX_LEN_0F3A14_P_2
) },
6410 /* PREFIX_VEX_0F3A15 */
6414 { VEX_LEN_TABLE (VEX_LEN_0F3A15_P_2
) },
6417 /* PREFIX_VEX_0F3A16 */
6421 { VEX_LEN_TABLE (VEX_LEN_0F3A16_P_2
) },
6424 /* PREFIX_VEX_0F3A17 */
6428 { VEX_LEN_TABLE (VEX_LEN_0F3A17_P_2
) },
6431 /* PREFIX_VEX_0F3A18 */
6435 { VEX_LEN_TABLE (VEX_LEN_0F3A18_P_2
) },
6438 /* PREFIX_VEX_0F3A19 */
6442 { VEX_LEN_TABLE (VEX_LEN_0F3A19_P_2
) },
6445 /* PREFIX_VEX_0F3A1D */
6449 { "vcvtps2ph", { EXxmmq
, XM
, Ib
}, 0 },
6452 /* PREFIX_VEX_0F3A20 */
6456 { VEX_LEN_TABLE (VEX_LEN_0F3A20_P_2
) },
6459 /* PREFIX_VEX_0F3A21 */
6463 { VEX_LEN_TABLE (VEX_LEN_0F3A21_P_2
) },
6466 /* PREFIX_VEX_0F3A22 */
6470 { VEX_LEN_TABLE (VEX_LEN_0F3A22_P_2
) },
6473 /* PREFIX_VEX_0F3A30 */
6477 { VEX_LEN_TABLE (VEX_LEN_0F3A30_P_2
) },
6480 /* PREFIX_VEX_0F3A31 */
6484 { VEX_LEN_TABLE (VEX_LEN_0F3A31_P_2
) },
6487 /* PREFIX_VEX_0F3A32 */
6491 { VEX_LEN_TABLE (VEX_LEN_0F3A32_P_2
) },
6494 /* PREFIX_VEX_0F3A33 */
6498 { VEX_LEN_TABLE (VEX_LEN_0F3A33_P_2
) },
6501 /* PREFIX_VEX_0F3A38 */
6505 { VEX_LEN_TABLE (VEX_LEN_0F3A38_P_2
) },
6508 /* PREFIX_VEX_0F3A39 */
6512 { VEX_LEN_TABLE (VEX_LEN_0F3A39_P_2
) },
6515 /* PREFIX_VEX_0F3A40 */
6519 { "vdpps", { XM
, Vex
, EXx
, Ib
}, 0 },
6522 /* PREFIX_VEX_0F3A41 */
6526 { VEX_LEN_TABLE (VEX_LEN_0F3A41_P_2
) },
6529 /* PREFIX_VEX_0F3A42 */
6533 { "vmpsadbw", { XM
, Vex
, EXx
, Ib
}, 0 },
6536 /* PREFIX_VEX_0F3A44 */
6540 { "vpclmulqdq", { XM
, Vex
, EXx
, PCLMUL
}, 0 },
6543 /* PREFIX_VEX_0F3A46 */
6547 { VEX_LEN_TABLE (VEX_LEN_0F3A46_P_2
) },
6550 /* PREFIX_VEX_0F3A48 */
6554 { VEX_W_TABLE (VEX_W_0F3A48_P_2
) },
6557 /* PREFIX_VEX_0F3A49 */
6561 { VEX_W_TABLE (VEX_W_0F3A49_P_2
) },
6564 /* PREFIX_VEX_0F3A4A */
6568 { VEX_W_TABLE (VEX_W_0F3A4A_P_2
) },
6571 /* PREFIX_VEX_0F3A4B */
6575 { VEX_W_TABLE (VEX_W_0F3A4B_P_2
) },
6578 /* PREFIX_VEX_0F3A4C */
6582 { VEX_W_TABLE (VEX_W_0F3A4C_P_2
) },
6585 /* PREFIX_VEX_0F3A5C */
6589 { "vfmaddsubps", { XMVexW
, Vex
, EXVexW
, EXVexW
}, 0 },
6592 /* PREFIX_VEX_0F3A5D */
6596 { "vfmaddsubpd", { XMVexW
, Vex
, EXVexW
, EXVexW
}, 0 },
6599 /* PREFIX_VEX_0F3A5E */
6603 { "vfmsubaddps", { XMVexW
, Vex
, EXVexW
, EXVexW
}, 0 },
6606 /* PREFIX_VEX_0F3A5F */
6610 { "vfmsubaddpd", { XMVexW
, Vex
, EXVexW
, EXVexW
}, 0 },
6613 /* PREFIX_VEX_0F3A60 */
6617 { VEX_LEN_TABLE (VEX_LEN_0F3A60_P_2
) },
6621 /* PREFIX_VEX_0F3A61 */
6625 { VEX_LEN_TABLE (VEX_LEN_0F3A61_P_2
) },
6628 /* PREFIX_VEX_0F3A62 */
6632 { VEX_LEN_TABLE (VEX_LEN_0F3A62_P_2
) },
6635 /* PREFIX_VEX_0F3A63 */
6639 { VEX_LEN_TABLE (VEX_LEN_0F3A63_P_2
) },
6642 /* PREFIX_VEX_0F3A68 */
6646 { "vfmaddps", { XMVexW
, Vex
, EXVexW
, EXVexW
}, 0 },
6649 /* PREFIX_VEX_0F3A69 */
6653 { "vfmaddpd", { XMVexW
, Vex
, EXVexW
, EXVexW
}, 0 },
6656 /* PREFIX_VEX_0F3A6A */
6660 { VEX_LEN_TABLE (VEX_LEN_0F3A6A_P_2
) },
6663 /* PREFIX_VEX_0F3A6B */
6667 { VEX_LEN_TABLE (VEX_LEN_0F3A6B_P_2
) },
6670 /* PREFIX_VEX_0F3A6C */
6674 { "vfmsubps", { XMVexW
, Vex
, EXVexW
, EXVexW
}, 0 },
6677 /* PREFIX_VEX_0F3A6D */
6681 { "vfmsubpd", { XMVexW
, Vex
, EXVexW
, EXVexW
}, 0 },
6684 /* PREFIX_VEX_0F3A6E */
6688 { VEX_LEN_TABLE (VEX_LEN_0F3A6E_P_2
) },
6691 /* PREFIX_VEX_0F3A6F */
6695 { VEX_LEN_TABLE (VEX_LEN_0F3A6F_P_2
) },
6698 /* PREFIX_VEX_0F3A78 */
6702 { "vfnmaddps", { XMVexW
, Vex
, EXVexW
, EXVexW
}, 0 },
6705 /* PREFIX_VEX_0F3A79 */
6709 { "vfnmaddpd", { XMVexW
, Vex
, EXVexW
, EXVexW
}, 0 },
6712 /* PREFIX_VEX_0F3A7A */
6716 { VEX_LEN_TABLE (VEX_LEN_0F3A7A_P_2
) },
6719 /* PREFIX_VEX_0F3A7B */
6723 { VEX_LEN_TABLE (VEX_LEN_0F3A7B_P_2
) },
6726 /* PREFIX_VEX_0F3A7C */
6730 { "vfnmsubps", { XMVexW
, Vex
, EXVexW
, EXVexW
}, 0 },
6734 /* PREFIX_VEX_0F3A7D */
6738 { "vfnmsubpd", { XMVexW
, Vex
, EXVexW
, EXVexW
}, 0 },
6741 /* PREFIX_VEX_0F3A7E */
6745 { VEX_LEN_TABLE (VEX_LEN_0F3A7E_P_2
) },
6748 /* PREFIX_VEX_0F3A7F */
6752 { VEX_LEN_TABLE (VEX_LEN_0F3A7F_P_2
) },
6755 /* PREFIX_VEX_0F3ACE */
6759 { VEX_W_TABLE (VEX_W_0F3ACE_P_2
) },
6762 /* PREFIX_VEX_0F3ACF */
6766 { VEX_W_TABLE (VEX_W_0F3ACF_P_2
) },
6769 /* PREFIX_VEX_0F3ADF */
6773 { VEX_LEN_TABLE (VEX_LEN_0F3ADF_P_2
) },
6776 /* PREFIX_VEX_0F3AF0 */
6781 { VEX_LEN_TABLE (VEX_LEN_0F3AF0_P_3
) },
6784 #include "i386-dis-evex-prefix.h"
6787 static const struct dis386 x86_64_table
[][2] = {
6790 { "pushP", { es
}, 0 },
6795 { "popP", { es
}, 0 },
6800 { "pushP", { cs
}, 0 },
6805 { "pushP", { ss
}, 0 },
6810 { "popP", { ss
}, 0 },
6815 { "pushP", { ds
}, 0 },
6820 { "popP", { ds
}, 0 },
6825 { "daa", { XX
}, 0 },
6830 { "das", { XX
}, 0 },
6835 { "aaa", { XX
}, 0 },
6840 { "aas", { XX
}, 0 },
6845 { "pushaP", { XX
}, 0 },
6850 { "popaP", { XX
}, 0 },
6855 { MOD_TABLE (MOD_62_32BIT
) },
6856 { EVEX_TABLE (EVEX_0F
) },
6861 { "arpl", { Ew
, Gw
}, 0 },
6862 { "movs{lq|xd}", { Gv
, Ed
}, 0 },
6867 { "ins{R|}", { Yzr
, indirDX
}, 0 },
6868 { "ins{G|}", { Yzr
, indirDX
}, 0 },
6873 { "outs{R|}", { indirDXr
, Xz
}, 0 },
6874 { "outs{G|}", { indirDXr
, Xz
}, 0 },
6879 /* Opcode 0x82 is an alias of opcode 0x80 in 32-bit mode. */
6880 { REG_TABLE (REG_80
) },
6885 { "Jcall{T|}", { Ap
}, 0 },
6890 { MOD_TABLE (MOD_C4_32BIT
) },
6891 { VEX_C4_TABLE (VEX_0F
) },
6896 { MOD_TABLE (MOD_C5_32BIT
) },
6897 { VEX_C5_TABLE (VEX_0F
) },
6902 { "into", { XX
}, 0 },
6907 { "aam", { Ib
}, 0 },
6912 { "aad", { Ib
}, 0 },
6917 { "callP", { Jv
, BND
}, 0 },
6918 { "call@", { Jv
, BND
}, 0 }
6923 { "jmpP", { Jv
, BND
}, 0 },
6924 { "jmp@", { Jv
, BND
}, 0 }
6929 { "Jjmp{T|}", { Ap
}, 0 },
6932 /* X86_64_0F01_REG_0 */
6934 { "sgdt{Q|IQ}", { M
}, 0 },
6935 { "sgdt", { M
}, 0 },
6938 /* X86_64_0F01_REG_1 */
6940 { "sidt{Q|IQ}", { M
}, 0 },
6941 { "sidt", { M
}, 0 },
6944 /* X86_64_0F01_REG_2 */
6946 { "lgdt{Q|Q}", { M
}, 0 },
6947 { "lgdt", { M
}, 0 },
6950 /* X86_64_0F01_REG_3 */
6952 { "lidt{Q|Q}", { M
}, 0 },
6953 { "lidt", { M
}, 0 },
6957 static const struct dis386 three_byte_table
[][256] = {
6959 /* THREE_BYTE_0F38 */
6962 { "pshufb", { MX
, EM
}, PREFIX_OPCODE
},
6963 { "phaddw", { MX
, EM
}, PREFIX_OPCODE
},
6964 { "phaddd", { MX
, EM
}, PREFIX_OPCODE
},
6965 { "phaddsw", { MX
, EM
}, PREFIX_OPCODE
},
6966 { "pmaddubsw", { MX
, EM
}, PREFIX_OPCODE
},
6967 { "phsubw", { MX
, EM
}, PREFIX_OPCODE
},
6968 { "phsubd", { MX
, EM
}, PREFIX_OPCODE
},
6969 { "phsubsw", { MX
, EM
}, PREFIX_OPCODE
},
6971 { "psignb", { MX
, EM
}, PREFIX_OPCODE
},
6972 { "psignw", { MX
, EM
}, PREFIX_OPCODE
},
6973 { "psignd", { MX
, EM
}, PREFIX_OPCODE
},
6974 { "pmulhrsw", { MX
, EM
}, PREFIX_OPCODE
},
6980 { PREFIX_TABLE (PREFIX_0F3810
) },
6984 { PREFIX_TABLE (PREFIX_0F3814
) },
6985 { PREFIX_TABLE (PREFIX_0F3815
) },
6987 { PREFIX_TABLE (PREFIX_0F3817
) },
6993 { "pabsb", { MX
, EM
}, PREFIX_OPCODE
},
6994 { "pabsw", { MX
, EM
}, PREFIX_OPCODE
},
6995 { "pabsd", { MX
, EM
}, PREFIX_OPCODE
},
6998 { PREFIX_TABLE (PREFIX_0F3820
) },
6999 { PREFIX_TABLE (PREFIX_0F3821
) },
7000 { PREFIX_TABLE (PREFIX_0F3822
) },
7001 { PREFIX_TABLE (PREFIX_0F3823
) },
7002 { PREFIX_TABLE (PREFIX_0F3824
) },
7003 { PREFIX_TABLE (PREFIX_0F3825
) },
7007 { PREFIX_TABLE (PREFIX_0F3828
) },
7008 { PREFIX_TABLE (PREFIX_0F3829
) },
7009 { PREFIX_TABLE (PREFIX_0F382A
) },
7010 { PREFIX_TABLE (PREFIX_0F382B
) },
7016 { PREFIX_TABLE (PREFIX_0F3830
) },
7017 { PREFIX_TABLE (PREFIX_0F3831
) },
7018 { PREFIX_TABLE (PREFIX_0F3832
) },
7019 { PREFIX_TABLE (PREFIX_0F3833
) },
7020 { PREFIX_TABLE (PREFIX_0F3834
) },
7021 { PREFIX_TABLE (PREFIX_0F3835
) },
7023 { PREFIX_TABLE (PREFIX_0F3837
) },
7025 { PREFIX_TABLE (PREFIX_0F3838
) },
7026 { PREFIX_TABLE (PREFIX_0F3839
) },
7027 { PREFIX_TABLE (PREFIX_0F383A
) },
7028 { PREFIX_TABLE (PREFIX_0F383B
) },
7029 { PREFIX_TABLE (PREFIX_0F383C
) },
7030 { PREFIX_TABLE (PREFIX_0F383D
) },
7031 { PREFIX_TABLE (PREFIX_0F383E
) },
7032 { PREFIX_TABLE (PREFIX_0F383F
) },
7034 { PREFIX_TABLE (PREFIX_0F3840
) },
7035 { PREFIX_TABLE (PREFIX_0F3841
) },
7106 { PREFIX_TABLE (PREFIX_0F3880
) },
7107 { PREFIX_TABLE (PREFIX_0F3881
) },
7108 { PREFIX_TABLE (PREFIX_0F3882
) },
7187 { PREFIX_TABLE (PREFIX_0F38C8
) },
7188 { PREFIX_TABLE (PREFIX_0F38C9
) },
7189 { PREFIX_TABLE (PREFIX_0F38CA
) },
7190 { PREFIX_TABLE (PREFIX_0F38CB
) },
7191 { PREFIX_TABLE (PREFIX_0F38CC
) },
7192 { PREFIX_TABLE (PREFIX_0F38CD
) },
7194 { PREFIX_TABLE (PREFIX_0F38CF
) },
7208 { PREFIX_TABLE (PREFIX_0F38DB
) },
7209 { PREFIX_TABLE (PREFIX_0F38DC
) },
7210 { PREFIX_TABLE (PREFIX_0F38DD
) },
7211 { PREFIX_TABLE (PREFIX_0F38DE
) },
7212 { PREFIX_TABLE (PREFIX_0F38DF
) },
7232 { PREFIX_TABLE (PREFIX_0F38F0
) },
7233 { PREFIX_TABLE (PREFIX_0F38F1
) },
7237 { PREFIX_TABLE (PREFIX_0F38F5
) },
7238 { PREFIX_TABLE (PREFIX_0F38F6
) },
7241 { PREFIX_TABLE (PREFIX_0F38F8
) },
7242 { PREFIX_TABLE (PREFIX_0F38F9
) },
7250 /* THREE_BYTE_0F3A */
7262 { PREFIX_TABLE (PREFIX_0F3A08
) },
7263 { PREFIX_TABLE (PREFIX_0F3A09
) },
7264 { PREFIX_TABLE (PREFIX_0F3A0A
) },
7265 { PREFIX_TABLE (PREFIX_0F3A0B
) },
7266 { PREFIX_TABLE (PREFIX_0F3A0C
) },
7267 { PREFIX_TABLE (PREFIX_0F3A0D
) },
7268 { PREFIX_TABLE (PREFIX_0F3A0E
) },
7269 { "palignr", { MX
, EM
, Ib
}, PREFIX_OPCODE
},
7275 { PREFIX_TABLE (PREFIX_0F3A14
) },
7276 { PREFIX_TABLE (PREFIX_0F3A15
) },
7277 { PREFIX_TABLE (PREFIX_0F3A16
) },
7278 { PREFIX_TABLE (PREFIX_0F3A17
) },
7289 { PREFIX_TABLE (PREFIX_0F3A20
) },
7290 { PREFIX_TABLE (PREFIX_0F3A21
) },
7291 { PREFIX_TABLE (PREFIX_0F3A22
) },
7325 { PREFIX_TABLE (PREFIX_0F3A40
) },
7326 { PREFIX_TABLE (PREFIX_0F3A41
) },
7327 { PREFIX_TABLE (PREFIX_0F3A42
) },
7329 { PREFIX_TABLE (PREFIX_0F3A44
) },
7361 { PREFIX_TABLE (PREFIX_0F3A60
) },
7362 { PREFIX_TABLE (PREFIX_0F3A61
) },
7363 { PREFIX_TABLE (PREFIX_0F3A62
) },
7364 { PREFIX_TABLE (PREFIX_0F3A63
) },
7482 { PREFIX_TABLE (PREFIX_0F3ACC
) },
7484 { PREFIX_TABLE (PREFIX_0F3ACE
) },
7485 { PREFIX_TABLE (PREFIX_0F3ACF
) },
7503 { PREFIX_TABLE (PREFIX_0F3ADF
) },
7543 static const struct dis386 xop_table
[][256] = {
7696 { "vpmacssww", { XMVexW
, Vex
, EXVexW
, EXVexW
}, 0 },
7697 { "vpmacsswd", { XMVexW
, Vex
, EXVexW
, EXVexW
}, 0 },
7698 { "vpmacssdql", { XMVexW
, Vex
, EXVexW
, EXVexW
}, 0 },
7706 { "vpmacssdd", { XMVexW
, Vex
, EXVexW
, EXVexW
}, 0 },
7707 { "vpmacssdqh", { XMVexW
, Vex
, EXVexW
, EXVexW
}, 0 },
7714 { "vpmacsww", { XMVexW
, Vex
, EXVexW
, EXVexW
}, 0 },
7715 { "vpmacswd", { XMVexW
, Vex
, EXVexW
, EXVexW
}, 0 },
7716 { "vpmacsdql", { XMVexW
, Vex
, EXVexW
, EXVexW
}, 0 },
7724 { "vpmacsdd", { XMVexW
, Vex
, EXVexW
, EXVexW
}, 0 },
7725 { "vpmacsdqh", { XMVexW
, Vex
, EXVexW
, EXVexW
}, 0 },
7729 { "vpcmov", { XMVexW
, Vex
, EXVexW
, EXVexW
}, 0 },
7730 { "vpperm", { XMVexW
, Vex
, EXVexW
, EXVexW
}, 0 },
7733 { "vpmadcsswd", { XMVexW
, Vex
, EXVexW
, EXVexW
}, 0 },
7751 { "vpmadcswd", { XMVexW
, Vex
, EXVexW
, EXVexW
}, 0 },
7763 { "vprotb", { XM
, Vex_2src_1
, Ib
}, 0 },
7764 { "vprotw", { XM
, Vex_2src_1
, Ib
}, 0 },
7765 { "vprotd", { XM
, Vex_2src_1
, Ib
}, 0 },
7766 { "vprotq", { XM
, Vex_2src_1
, Ib
}, 0 },
7776 { VEX_LEN_TABLE (VEX_LEN_0FXOP_08_CC
) },
7777 { VEX_LEN_TABLE (VEX_LEN_0FXOP_08_CD
) },
7778 { VEX_LEN_TABLE (VEX_LEN_0FXOP_08_CE
) },
7779 { VEX_LEN_TABLE (VEX_LEN_0FXOP_08_CF
) },
7812 { VEX_LEN_TABLE (VEX_LEN_0FXOP_08_EC
) },
7813 { VEX_LEN_TABLE (VEX_LEN_0FXOP_08_ED
) },
7814 { VEX_LEN_TABLE (VEX_LEN_0FXOP_08_EE
) },
7815 { VEX_LEN_TABLE (VEX_LEN_0FXOP_08_EF
) },
7839 { REG_TABLE (REG_XOP_TBM_01
) },
7840 { REG_TABLE (REG_XOP_TBM_02
) },
7858 { REG_TABLE (REG_XOP_LWPCB
) },
7982 { VEX_LEN_TABLE (VEX_LEN_0FXOP_09_80
) },
7983 { VEX_LEN_TABLE (VEX_LEN_0FXOP_09_81
) },
7984 { "vfrczss", { XM
, EXd
}, 0 },
7985 { "vfrczsd", { XM
, EXq
}, 0 },
8000 { "vprotb", { XM
, Vex_2src_1
, Vex_2src_2
}, 0 },
8001 { "vprotw", { XM
, Vex_2src_1
, Vex_2src_2
}, 0 },
8002 { "vprotd", { XM
, Vex_2src_1
, Vex_2src_2
}, 0 },
8003 { "vprotq", { XM
, Vex_2src_1
, Vex_2src_2
}, 0 },
8004 { "vpshlb", { XM
, Vex_2src_1
, Vex_2src_2
}, 0 },
8005 { "vpshlw", { XM
, Vex_2src_1
, Vex_2src_2
}, 0 },
8006 { "vpshld", { XM
, Vex_2src_1
, Vex_2src_2
}, 0 },
8007 { "vpshlq", { XM
, Vex_2src_1
, Vex_2src_2
}, 0 },
8009 { "vpshab", { XM
, Vex_2src_1
, Vex_2src_2
}, 0 },
8010 { "vpshaw", { XM
, Vex_2src_1
, Vex_2src_2
}, 0 },
8011 { "vpshad", { XM
, Vex_2src_1
, Vex_2src_2
}, 0 },
8012 { "vpshaq", { XM
, Vex_2src_1
, Vex_2src_2
}, 0 },
8055 { "vphaddbw", { XM
, EXxmm
}, 0 },
8056 { "vphaddbd", { XM
, EXxmm
}, 0 },
8057 { "vphaddbq", { XM
, EXxmm
}, 0 },
8060 { "vphaddwd", { XM
, EXxmm
}, 0 },
8061 { "vphaddwq", { XM
, EXxmm
}, 0 },
8066 { "vphadddq", { XM
, EXxmm
}, 0 },
8073 { "vphaddubw", { XM
, EXxmm
}, 0 },
8074 { "vphaddubd", { XM
, EXxmm
}, 0 },
8075 { "vphaddubq", { XM
, EXxmm
}, 0 },
8078 { "vphadduwd", { XM
, EXxmm
}, 0 },
8079 { "vphadduwq", { XM
, EXxmm
}, 0 },
8084 { "vphaddudq", { XM
, EXxmm
}, 0 },
8091 { "vphsubbw", { XM
, EXxmm
}, 0 },
8092 { "vphsubwd", { XM
, EXxmm
}, 0 },
8093 { "vphsubdq", { XM
, EXxmm
}, 0 },
8147 { "bextrS", { Gdq
, Edq
, Id
}, 0 },
8149 { REG_TABLE (REG_XOP_LWP
) },
8419 static const struct dis386 vex_table
[][256] = {
8441 { PREFIX_TABLE (PREFIX_VEX_0F10
) },
8442 { PREFIX_TABLE (PREFIX_VEX_0F11
) },
8443 { PREFIX_TABLE (PREFIX_VEX_0F12
) },
8444 { MOD_TABLE (MOD_VEX_0F13
) },
8445 { "vunpcklpX", { XM
, Vex
, EXx
}, 0 },
8446 { "vunpckhpX", { XM
, Vex
, EXx
}, 0 },
8447 { PREFIX_TABLE (PREFIX_VEX_0F16
) },
8448 { MOD_TABLE (MOD_VEX_0F17
) },
8468 { "vmovapX", { XM
, EXx
}, 0 },
8469 { "vmovapX", { EXxS
, XM
}, 0 },
8470 { PREFIX_TABLE (PREFIX_VEX_0F2A
) },
8471 { MOD_TABLE (MOD_VEX_0F2B
) },
8472 { PREFIX_TABLE (PREFIX_VEX_0F2C
) },
8473 { PREFIX_TABLE (PREFIX_VEX_0F2D
) },
8474 { PREFIX_TABLE (PREFIX_VEX_0F2E
) },
8475 { PREFIX_TABLE (PREFIX_VEX_0F2F
) },
8496 { PREFIX_TABLE (PREFIX_VEX_0F41
) },
8497 { PREFIX_TABLE (PREFIX_VEX_0F42
) },
8499 { PREFIX_TABLE (PREFIX_VEX_0F44
) },
8500 { PREFIX_TABLE (PREFIX_VEX_0F45
) },
8501 { PREFIX_TABLE (PREFIX_VEX_0F46
) },
8502 { PREFIX_TABLE (PREFIX_VEX_0F47
) },
8506 { PREFIX_TABLE (PREFIX_VEX_0F4A
) },
8507 { PREFIX_TABLE (PREFIX_VEX_0F4B
) },
8513 { MOD_TABLE (MOD_VEX_0F50
) },
8514 { PREFIX_TABLE (PREFIX_VEX_0F51
) },
8515 { PREFIX_TABLE (PREFIX_VEX_0F52
) },
8516 { PREFIX_TABLE (PREFIX_VEX_0F53
) },
8517 { "vandpX", { XM
, Vex
, EXx
}, 0 },
8518 { "vandnpX", { XM
, Vex
, EXx
}, 0 },
8519 { "vorpX", { XM
, Vex
, EXx
}, 0 },
8520 { "vxorpX", { XM
, Vex
, EXx
}, 0 },
8522 { PREFIX_TABLE (PREFIX_VEX_0F58
) },
8523 { PREFIX_TABLE (PREFIX_VEX_0F59
) },
8524 { PREFIX_TABLE (PREFIX_VEX_0F5A
) },
8525 { PREFIX_TABLE (PREFIX_VEX_0F5B
) },
8526 { PREFIX_TABLE (PREFIX_VEX_0F5C
) },
8527 { PREFIX_TABLE (PREFIX_VEX_0F5D
) },
8528 { PREFIX_TABLE (PREFIX_VEX_0F5E
) },
8529 { PREFIX_TABLE (PREFIX_VEX_0F5F
) },
8531 { PREFIX_TABLE (PREFIX_VEX_0F60
) },
8532 { PREFIX_TABLE (PREFIX_VEX_0F61
) },
8533 { PREFIX_TABLE (PREFIX_VEX_0F62
) },
8534 { PREFIX_TABLE (PREFIX_VEX_0F63
) },
8535 { PREFIX_TABLE (PREFIX_VEX_0F64
) },
8536 { PREFIX_TABLE (PREFIX_VEX_0F65
) },
8537 { PREFIX_TABLE (PREFIX_VEX_0F66
) },
8538 { PREFIX_TABLE (PREFIX_VEX_0F67
) },
8540 { PREFIX_TABLE (PREFIX_VEX_0F68
) },
8541 { PREFIX_TABLE (PREFIX_VEX_0F69
) },
8542 { PREFIX_TABLE (PREFIX_VEX_0F6A
) },
8543 { PREFIX_TABLE (PREFIX_VEX_0F6B
) },
8544 { PREFIX_TABLE (PREFIX_VEX_0F6C
) },
8545 { PREFIX_TABLE (PREFIX_VEX_0F6D
) },
8546 { PREFIX_TABLE (PREFIX_VEX_0F6E
) },
8547 { PREFIX_TABLE (PREFIX_VEX_0F6F
) },
8549 { PREFIX_TABLE (PREFIX_VEX_0F70
) },
8550 { REG_TABLE (REG_VEX_0F71
) },
8551 { REG_TABLE (REG_VEX_0F72
) },
8552 { REG_TABLE (REG_VEX_0F73
) },
8553 { PREFIX_TABLE (PREFIX_VEX_0F74
) },
8554 { PREFIX_TABLE (PREFIX_VEX_0F75
) },
8555 { PREFIX_TABLE (PREFIX_VEX_0F76
) },
8556 { PREFIX_TABLE (PREFIX_VEX_0F77
) },
8562 { PREFIX_TABLE (PREFIX_VEX_0F7C
) },
8563 { PREFIX_TABLE (PREFIX_VEX_0F7D
) },
8564 { PREFIX_TABLE (PREFIX_VEX_0F7E
) },
8565 { PREFIX_TABLE (PREFIX_VEX_0F7F
) },
8585 { PREFIX_TABLE (PREFIX_VEX_0F90
) },
8586 { PREFIX_TABLE (PREFIX_VEX_0F91
) },
8587 { PREFIX_TABLE (PREFIX_VEX_0F92
) },
8588 { PREFIX_TABLE (PREFIX_VEX_0F93
) },
8594 { PREFIX_TABLE (PREFIX_VEX_0F98
) },
8595 { PREFIX_TABLE (PREFIX_VEX_0F99
) },
8618 { REG_TABLE (REG_VEX_0FAE
) },
8641 { PREFIX_TABLE (PREFIX_VEX_0FC2
) },
8643 { PREFIX_TABLE (PREFIX_VEX_0FC4
) },
8644 { PREFIX_TABLE (PREFIX_VEX_0FC5
) },
8645 { "vshufpX", { XM
, Vex
, EXx
, Ib
}, 0 },
8657 { PREFIX_TABLE (PREFIX_VEX_0FD0
) },
8658 { PREFIX_TABLE (PREFIX_VEX_0FD1
) },
8659 { PREFIX_TABLE (PREFIX_VEX_0FD2
) },
8660 { PREFIX_TABLE (PREFIX_VEX_0FD3
) },
8661 { PREFIX_TABLE (PREFIX_VEX_0FD4
) },
8662 { PREFIX_TABLE (PREFIX_VEX_0FD5
) },
8663 { PREFIX_TABLE (PREFIX_VEX_0FD6
) },
8664 { PREFIX_TABLE (PREFIX_VEX_0FD7
) },
8666 { PREFIX_TABLE (PREFIX_VEX_0FD8
) },
8667 { PREFIX_TABLE (PREFIX_VEX_0FD9
) },
8668 { PREFIX_TABLE (PREFIX_VEX_0FDA
) },
8669 { PREFIX_TABLE (PREFIX_VEX_0FDB
) },
8670 { PREFIX_TABLE (PREFIX_VEX_0FDC
) },
8671 { PREFIX_TABLE (PREFIX_VEX_0FDD
) },
8672 { PREFIX_TABLE (PREFIX_VEX_0FDE
) },
8673 { PREFIX_TABLE (PREFIX_VEX_0FDF
) },
8675 { PREFIX_TABLE (PREFIX_VEX_0FE0
) },
8676 { PREFIX_TABLE (PREFIX_VEX_0FE1
) },
8677 { PREFIX_TABLE (PREFIX_VEX_0FE2
) },
8678 { PREFIX_TABLE (PREFIX_VEX_0FE3
) },
8679 { PREFIX_TABLE (PREFIX_VEX_0FE4
) },
8680 { PREFIX_TABLE (PREFIX_VEX_0FE5
) },
8681 { PREFIX_TABLE (PREFIX_VEX_0FE6
) },
8682 { PREFIX_TABLE (PREFIX_VEX_0FE7
) },
8684 { PREFIX_TABLE (PREFIX_VEX_0FE8
) },
8685 { PREFIX_TABLE (PREFIX_VEX_0FE9
) },
8686 { PREFIX_TABLE (PREFIX_VEX_0FEA
) },
8687 { PREFIX_TABLE (PREFIX_VEX_0FEB
) },
8688 { PREFIX_TABLE (PREFIX_VEX_0FEC
) },
8689 { PREFIX_TABLE (PREFIX_VEX_0FED
) },
8690 { PREFIX_TABLE (PREFIX_VEX_0FEE
) },
8691 { PREFIX_TABLE (PREFIX_VEX_0FEF
) },
8693 { PREFIX_TABLE (PREFIX_VEX_0FF0
) },
8694 { PREFIX_TABLE (PREFIX_VEX_0FF1
) },
8695 { PREFIX_TABLE (PREFIX_VEX_0FF2
) },
8696 { PREFIX_TABLE (PREFIX_VEX_0FF3
) },
8697 { PREFIX_TABLE (PREFIX_VEX_0FF4
) },
8698 { PREFIX_TABLE (PREFIX_VEX_0FF5
) },
8699 { PREFIX_TABLE (PREFIX_VEX_0FF6
) },
8700 { PREFIX_TABLE (PREFIX_VEX_0FF7
) },
8702 { PREFIX_TABLE (PREFIX_VEX_0FF8
) },
8703 { PREFIX_TABLE (PREFIX_VEX_0FF9
) },
8704 { PREFIX_TABLE (PREFIX_VEX_0FFA
) },
8705 { PREFIX_TABLE (PREFIX_VEX_0FFB
) },
8706 { PREFIX_TABLE (PREFIX_VEX_0FFC
) },
8707 { PREFIX_TABLE (PREFIX_VEX_0FFD
) },
8708 { PREFIX_TABLE (PREFIX_VEX_0FFE
) },
8714 { PREFIX_TABLE (PREFIX_VEX_0F3800
) },
8715 { PREFIX_TABLE (PREFIX_VEX_0F3801
) },
8716 { PREFIX_TABLE (PREFIX_VEX_0F3802
) },
8717 { PREFIX_TABLE (PREFIX_VEX_0F3803
) },
8718 { PREFIX_TABLE (PREFIX_VEX_0F3804
) },
8719 { PREFIX_TABLE (PREFIX_VEX_0F3805
) },
8720 { PREFIX_TABLE (PREFIX_VEX_0F3806
) },
8721 { PREFIX_TABLE (PREFIX_VEX_0F3807
) },
8723 { PREFIX_TABLE (PREFIX_VEX_0F3808
) },
8724 { PREFIX_TABLE (PREFIX_VEX_0F3809
) },
8725 { PREFIX_TABLE (PREFIX_VEX_0F380A
) },
8726 { PREFIX_TABLE (PREFIX_VEX_0F380B
) },
8727 { PREFIX_TABLE (PREFIX_VEX_0F380C
) },
8728 { PREFIX_TABLE (PREFIX_VEX_0F380D
) },
8729 { PREFIX_TABLE (PREFIX_VEX_0F380E
) },
8730 { PREFIX_TABLE (PREFIX_VEX_0F380F
) },
8735 { PREFIX_TABLE (PREFIX_VEX_0F3813
) },
8738 { PREFIX_TABLE (PREFIX_VEX_0F3816
) },
8739 { PREFIX_TABLE (PREFIX_VEX_0F3817
) },
8741 { PREFIX_TABLE (PREFIX_VEX_0F3818
) },
8742 { PREFIX_TABLE (PREFIX_VEX_0F3819
) },
8743 { PREFIX_TABLE (PREFIX_VEX_0F381A
) },
8745 { PREFIX_TABLE (PREFIX_VEX_0F381C
) },
8746 { PREFIX_TABLE (PREFIX_VEX_0F381D
) },
8747 { PREFIX_TABLE (PREFIX_VEX_0F381E
) },
8750 { PREFIX_TABLE (PREFIX_VEX_0F3820
) },
8751 { PREFIX_TABLE (PREFIX_VEX_0F3821
) },
8752 { PREFIX_TABLE (PREFIX_VEX_0F3822
) },
8753 { PREFIX_TABLE (PREFIX_VEX_0F3823
) },
8754 { PREFIX_TABLE (PREFIX_VEX_0F3824
) },
8755 { PREFIX_TABLE (PREFIX_VEX_0F3825
) },
8759 { PREFIX_TABLE (PREFIX_VEX_0F3828
) },
8760 { PREFIX_TABLE (PREFIX_VEX_0F3829
) },
8761 { PREFIX_TABLE (PREFIX_VEX_0F382A
) },
8762 { PREFIX_TABLE (PREFIX_VEX_0F382B
) },
8763 { PREFIX_TABLE (PREFIX_VEX_0F382C
) },
8764 { PREFIX_TABLE (PREFIX_VEX_0F382D
) },
8765 { PREFIX_TABLE (PREFIX_VEX_0F382E
) },
8766 { PREFIX_TABLE (PREFIX_VEX_0F382F
) },
8768 { PREFIX_TABLE (PREFIX_VEX_0F3830
) },
8769 { PREFIX_TABLE (PREFIX_VEX_0F3831
) },
8770 { PREFIX_TABLE (PREFIX_VEX_0F3832
) },
8771 { PREFIX_TABLE (PREFIX_VEX_0F3833
) },
8772 { PREFIX_TABLE (PREFIX_VEX_0F3834
) },
8773 { PREFIX_TABLE (PREFIX_VEX_0F3835
) },
8774 { PREFIX_TABLE (PREFIX_VEX_0F3836
) },
8775 { PREFIX_TABLE (PREFIX_VEX_0F3837
) },
8777 { PREFIX_TABLE (PREFIX_VEX_0F3838
) },
8778 { PREFIX_TABLE (PREFIX_VEX_0F3839
) },
8779 { PREFIX_TABLE (PREFIX_VEX_0F383A
) },
8780 { PREFIX_TABLE (PREFIX_VEX_0F383B
) },
8781 { PREFIX_TABLE (PREFIX_VEX_0F383C
) },
8782 { PREFIX_TABLE (PREFIX_VEX_0F383D
) },
8783 { PREFIX_TABLE (PREFIX_VEX_0F383E
) },
8784 { PREFIX_TABLE (PREFIX_VEX_0F383F
) },
8786 { PREFIX_TABLE (PREFIX_VEX_0F3840
) },
8787 { PREFIX_TABLE (PREFIX_VEX_0F3841
) },
8791 { PREFIX_TABLE (PREFIX_VEX_0F3845
) },
8792 { PREFIX_TABLE (PREFIX_VEX_0F3846
) },
8793 { PREFIX_TABLE (PREFIX_VEX_0F3847
) },
8813 { PREFIX_TABLE (PREFIX_VEX_0F3858
) },
8814 { PREFIX_TABLE (PREFIX_VEX_0F3859
) },
8815 { PREFIX_TABLE (PREFIX_VEX_0F385A
) },
8849 { PREFIX_TABLE (PREFIX_VEX_0F3878
) },
8850 { PREFIX_TABLE (PREFIX_VEX_0F3879
) },
8871 { PREFIX_TABLE (PREFIX_VEX_0F388C
) },
8873 { PREFIX_TABLE (PREFIX_VEX_0F388E
) },
8876 { PREFIX_TABLE (PREFIX_VEX_0F3890
) },
8877 { PREFIX_TABLE (PREFIX_VEX_0F3891
) },
8878 { PREFIX_TABLE (PREFIX_VEX_0F3892
) },
8879 { PREFIX_TABLE (PREFIX_VEX_0F3893
) },
8882 { PREFIX_TABLE (PREFIX_VEX_0F3896
) },
8883 { PREFIX_TABLE (PREFIX_VEX_0F3897
) },
8885 { PREFIX_TABLE (PREFIX_VEX_0F3898
) },
8886 { PREFIX_TABLE (PREFIX_VEX_0F3899
) },
8887 { PREFIX_TABLE (PREFIX_VEX_0F389A
) },
8888 { PREFIX_TABLE (PREFIX_VEX_0F389B
) },
8889 { PREFIX_TABLE (PREFIX_VEX_0F389C
) },
8890 { PREFIX_TABLE (PREFIX_VEX_0F389D
) },
8891 { PREFIX_TABLE (PREFIX_VEX_0F389E
) },
8892 { PREFIX_TABLE (PREFIX_VEX_0F389F
) },
8900 { PREFIX_TABLE (PREFIX_VEX_0F38A6
) },
8901 { PREFIX_TABLE (PREFIX_VEX_0F38A7
) },
8903 { PREFIX_TABLE (PREFIX_VEX_0F38A8
) },
8904 { PREFIX_TABLE (PREFIX_VEX_0F38A9
) },
8905 { PREFIX_TABLE (PREFIX_VEX_0F38AA
) },
8906 { PREFIX_TABLE (PREFIX_VEX_0F38AB
) },
8907 { PREFIX_TABLE (PREFIX_VEX_0F38AC
) },
8908 { PREFIX_TABLE (PREFIX_VEX_0F38AD
) },
8909 { PREFIX_TABLE (PREFIX_VEX_0F38AE
) },
8910 { PREFIX_TABLE (PREFIX_VEX_0F38AF
) },
8918 { PREFIX_TABLE (PREFIX_VEX_0F38B6
) },
8919 { PREFIX_TABLE (PREFIX_VEX_0F38B7
) },
8921 { PREFIX_TABLE (PREFIX_VEX_0F38B8
) },
8922 { PREFIX_TABLE (PREFIX_VEX_0F38B9
) },
8923 { PREFIX_TABLE (PREFIX_VEX_0F38BA
) },
8924 { PREFIX_TABLE (PREFIX_VEX_0F38BB
) },
8925 { PREFIX_TABLE (PREFIX_VEX_0F38BC
) },
8926 { PREFIX_TABLE (PREFIX_VEX_0F38BD
) },
8927 { PREFIX_TABLE (PREFIX_VEX_0F38BE
) },
8928 { PREFIX_TABLE (PREFIX_VEX_0F38BF
) },
8946 { PREFIX_TABLE (PREFIX_VEX_0F38CF
) },
8960 { PREFIX_TABLE (PREFIX_VEX_0F38DB
) },
8961 { PREFIX_TABLE (PREFIX_VEX_0F38DC
) },
8962 { PREFIX_TABLE (PREFIX_VEX_0F38DD
) },
8963 { PREFIX_TABLE (PREFIX_VEX_0F38DE
) },
8964 { PREFIX_TABLE (PREFIX_VEX_0F38DF
) },
8986 { PREFIX_TABLE (PREFIX_VEX_0F38F2
) },
8987 { REG_TABLE (REG_VEX_0F38F3
) },
8989 { PREFIX_TABLE (PREFIX_VEX_0F38F5
) },
8990 { PREFIX_TABLE (PREFIX_VEX_0F38F6
) },
8991 { PREFIX_TABLE (PREFIX_VEX_0F38F7
) },
9005 { PREFIX_TABLE (PREFIX_VEX_0F3A00
) },
9006 { PREFIX_TABLE (PREFIX_VEX_0F3A01
) },
9007 { PREFIX_TABLE (PREFIX_VEX_0F3A02
) },
9009 { PREFIX_TABLE (PREFIX_VEX_0F3A04
) },
9010 { PREFIX_TABLE (PREFIX_VEX_0F3A05
) },
9011 { PREFIX_TABLE (PREFIX_VEX_0F3A06
) },
9014 { PREFIX_TABLE (PREFIX_VEX_0F3A08
) },
9015 { PREFIX_TABLE (PREFIX_VEX_0F3A09
) },
9016 { PREFIX_TABLE (PREFIX_VEX_0F3A0A
) },
9017 { PREFIX_TABLE (PREFIX_VEX_0F3A0B
) },
9018 { PREFIX_TABLE (PREFIX_VEX_0F3A0C
) },
9019 { PREFIX_TABLE (PREFIX_VEX_0F3A0D
) },
9020 { PREFIX_TABLE (PREFIX_VEX_0F3A0E
) },
9021 { PREFIX_TABLE (PREFIX_VEX_0F3A0F
) },
9027 { PREFIX_TABLE (PREFIX_VEX_0F3A14
) },
9028 { PREFIX_TABLE (PREFIX_VEX_0F3A15
) },
9029 { PREFIX_TABLE (PREFIX_VEX_0F3A16
) },
9030 { PREFIX_TABLE (PREFIX_VEX_0F3A17
) },
9032 { PREFIX_TABLE (PREFIX_VEX_0F3A18
) },
9033 { PREFIX_TABLE (PREFIX_VEX_0F3A19
) },
9037 { PREFIX_TABLE (PREFIX_VEX_0F3A1D
) },
9041 { PREFIX_TABLE (PREFIX_VEX_0F3A20
) },
9042 { PREFIX_TABLE (PREFIX_VEX_0F3A21
) },
9043 { PREFIX_TABLE (PREFIX_VEX_0F3A22
) },
9059 { PREFIX_TABLE (PREFIX_VEX_0F3A30
) },
9060 { PREFIX_TABLE (PREFIX_VEX_0F3A31
) },
9061 { PREFIX_TABLE (PREFIX_VEX_0F3A32
) },
9062 { PREFIX_TABLE (PREFIX_VEX_0F3A33
) },
9068 { PREFIX_TABLE (PREFIX_VEX_0F3A38
) },
9069 { PREFIX_TABLE (PREFIX_VEX_0F3A39
) },
9077 { PREFIX_TABLE (PREFIX_VEX_0F3A40
) },
9078 { PREFIX_TABLE (PREFIX_VEX_0F3A41
) },
9079 { PREFIX_TABLE (PREFIX_VEX_0F3A42
) },
9081 { PREFIX_TABLE (PREFIX_VEX_0F3A44
) },
9083 { PREFIX_TABLE (PREFIX_VEX_0F3A46
) },
9086 { PREFIX_TABLE (PREFIX_VEX_0F3A48
) },
9087 { PREFIX_TABLE (PREFIX_VEX_0F3A49
) },
9088 { PREFIX_TABLE (PREFIX_VEX_0F3A4A
) },
9089 { PREFIX_TABLE (PREFIX_VEX_0F3A4B
) },
9090 { PREFIX_TABLE (PREFIX_VEX_0F3A4C
) },
9108 { PREFIX_TABLE (PREFIX_VEX_0F3A5C
) },
9109 { PREFIX_TABLE (PREFIX_VEX_0F3A5D
) },
9110 { PREFIX_TABLE (PREFIX_VEX_0F3A5E
) },
9111 { PREFIX_TABLE (PREFIX_VEX_0F3A5F
) },
9113 { PREFIX_TABLE (PREFIX_VEX_0F3A60
) },
9114 { PREFIX_TABLE (PREFIX_VEX_0F3A61
) },
9115 { PREFIX_TABLE (PREFIX_VEX_0F3A62
) },
9116 { PREFIX_TABLE (PREFIX_VEX_0F3A63
) },
9122 { PREFIX_TABLE (PREFIX_VEX_0F3A68
) },
9123 { PREFIX_TABLE (PREFIX_VEX_0F3A69
) },
9124 { PREFIX_TABLE (PREFIX_VEX_0F3A6A
) },
9125 { PREFIX_TABLE (PREFIX_VEX_0F3A6B
) },
9126 { PREFIX_TABLE (PREFIX_VEX_0F3A6C
) },
9127 { PREFIX_TABLE (PREFIX_VEX_0F3A6D
) },
9128 { PREFIX_TABLE (PREFIX_VEX_0F3A6E
) },
9129 { PREFIX_TABLE (PREFIX_VEX_0F3A6F
) },
9140 { PREFIX_TABLE (PREFIX_VEX_0F3A78
) },
9141 { PREFIX_TABLE (PREFIX_VEX_0F3A79
) },
9142 { PREFIX_TABLE (PREFIX_VEX_0F3A7A
) },
9143 { PREFIX_TABLE (PREFIX_VEX_0F3A7B
) },
9144 { PREFIX_TABLE (PREFIX_VEX_0F3A7C
) },
9145 { PREFIX_TABLE (PREFIX_VEX_0F3A7D
) },
9146 { PREFIX_TABLE (PREFIX_VEX_0F3A7E
) },
9147 { PREFIX_TABLE (PREFIX_VEX_0F3A7F
) },
9236 { PREFIX_TABLE(PREFIX_VEX_0F3ACE
) },
9237 { PREFIX_TABLE(PREFIX_VEX_0F3ACF
) },
9255 { PREFIX_TABLE (PREFIX_VEX_0F3ADF
) },
9275 { PREFIX_TABLE (PREFIX_VEX_0F3AF0
) },
9295 #include "i386-dis-evex.h"
9297 static const struct dis386 vex_len_table
[][2] = {
9298 /* VEX_LEN_0F12_P_0_M_0 */
9300 { "vmovlps", { XM
, Vex128
, EXq
}, 0 },
9303 /* VEX_LEN_0F12_P_0_M_1 */
9305 { "vmovhlps", { XM
, Vex128
, EXq
}, 0 },
9308 /* VEX_LEN_0F12_P_2 */
9310 { "vmovlpd", { XM
, Vex128
, EXq
}, 0 },
9313 /* VEX_LEN_0F13_M_0 */
9315 { "vmovlpX", { EXq
, XM
}, 0 },
9318 /* VEX_LEN_0F16_P_0_M_0 */
9320 { "vmovhps", { XM
, Vex128
, EXq
}, 0 },
9323 /* VEX_LEN_0F16_P_0_M_1 */
9325 { "vmovlhps", { XM
, Vex128
, EXq
}, 0 },
9328 /* VEX_LEN_0F16_P_2 */
9330 { "vmovhpd", { XM
, Vex128
, EXq
}, 0 },
9333 /* VEX_LEN_0F17_M_0 */
9335 { "vmovhpX", { EXq
, XM
}, 0 },
9338 /* VEX_LEN_0F41_P_0 */
9341 { VEX_W_TABLE (VEX_W_0F41_P_0_LEN_1
) },
9343 /* VEX_LEN_0F41_P_2 */
9346 { VEX_W_TABLE (VEX_W_0F41_P_2_LEN_1
) },
9348 /* VEX_LEN_0F42_P_0 */
9351 { VEX_W_TABLE (VEX_W_0F42_P_0_LEN_1
) },
9353 /* VEX_LEN_0F42_P_2 */
9356 { VEX_W_TABLE (VEX_W_0F42_P_2_LEN_1
) },
9358 /* VEX_LEN_0F44_P_0 */
9360 { VEX_W_TABLE (VEX_W_0F44_P_0_LEN_0
) },
9362 /* VEX_LEN_0F44_P_2 */
9364 { VEX_W_TABLE (VEX_W_0F44_P_2_LEN_0
) },
9366 /* VEX_LEN_0F45_P_0 */
9369 { VEX_W_TABLE (VEX_W_0F45_P_0_LEN_1
) },
9371 /* VEX_LEN_0F45_P_2 */
9374 { VEX_W_TABLE (VEX_W_0F45_P_2_LEN_1
) },
9376 /* VEX_LEN_0F46_P_0 */
9379 { VEX_W_TABLE (VEX_W_0F46_P_0_LEN_1
) },
9381 /* VEX_LEN_0F46_P_2 */
9384 { VEX_W_TABLE (VEX_W_0F46_P_2_LEN_1
) },
9386 /* VEX_LEN_0F47_P_0 */
9389 { VEX_W_TABLE (VEX_W_0F47_P_0_LEN_1
) },
9391 /* VEX_LEN_0F47_P_2 */
9394 { VEX_W_TABLE (VEX_W_0F47_P_2_LEN_1
) },
9396 /* VEX_LEN_0F4A_P_0 */
9399 { VEX_W_TABLE (VEX_W_0F4A_P_0_LEN_1
) },
9401 /* VEX_LEN_0F4A_P_2 */
9404 { VEX_W_TABLE (VEX_W_0F4A_P_2_LEN_1
) },
9406 /* VEX_LEN_0F4B_P_0 */
9409 { VEX_W_TABLE (VEX_W_0F4B_P_0_LEN_1
) },
9411 /* VEX_LEN_0F4B_P_2 */
9414 { VEX_W_TABLE (VEX_W_0F4B_P_2_LEN_1
) },
9417 /* VEX_LEN_0F6E_P_2 */
9419 { "vmovK", { XMScalar
, Edq
}, 0 },
9422 /* VEX_LEN_0F77_P_1 */
9424 { "vzeroupper", { XX
}, 0 },
9425 { "vzeroall", { XX
}, 0 },
9428 /* VEX_LEN_0F7E_P_1 */
9430 { "vmovq", { XMScalar
, EXqScalar
}, 0 },
9433 /* VEX_LEN_0F7E_P_2 */
9435 { "vmovK", { Edq
, XMScalar
}, 0 },
9438 /* VEX_LEN_0F90_P_0 */
9440 { VEX_W_TABLE (VEX_W_0F90_P_0_LEN_0
) },
9443 /* VEX_LEN_0F90_P_2 */
9445 { VEX_W_TABLE (VEX_W_0F90_P_2_LEN_0
) },
9448 /* VEX_LEN_0F91_P_0 */
9450 { VEX_W_TABLE (VEX_W_0F91_P_0_LEN_0
) },
9453 /* VEX_LEN_0F91_P_2 */
9455 { VEX_W_TABLE (VEX_W_0F91_P_2_LEN_0
) },
9458 /* VEX_LEN_0F92_P_0 */
9460 { VEX_W_TABLE (VEX_W_0F92_P_0_LEN_0
) },
9463 /* VEX_LEN_0F92_P_2 */
9465 { VEX_W_TABLE (VEX_W_0F92_P_2_LEN_0
) },
9468 /* VEX_LEN_0F92_P_3 */
9470 { MOD_TABLE (MOD_VEX_0F92_P_3_LEN_0
) },
9473 /* VEX_LEN_0F93_P_0 */
9475 { VEX_W_TABLE (VEX_W_0F93_P_0_LEN_0
) },
9478 /* VEX_LEN_0F93_P_2 */
9480 { VEX_W_TABLE (VEX_W_0F93_P_2_LEN_0
) },
9483 /* VEX_LEN_0F93_P_3 */
9485 { MOD_TABLE (MOD_VEX_0F93_P_3_LEN_0
) },
9488 /* VEX_LEN_0F98_P_0 */
9490 { VEX_W_TABLE (VEX_W_0F98_P_0_LEN_0
) },
9493 /* VEX_LEN_0F98_P_2 */
9495 { VEX_W_TABLE (VEX_W_0F98_P_2_LEN_0
) },
9498 /* VEX_LEN_0F99_P_0 */
9500 { VEX_W_TABLE (VEX_W_0F99_P_0_LEN_0
) },
9503 /* VEX_LEN_0F99_P_2 */
9505 { VEX_W_TABLE (VEX_W_0F99_P_2_LEN_0
) },
9508 /* VEX_LEN_0FAE_R_2_M_0 */
9510 { "vldmxcsr", { Md
}, 0 },
9513 /* VEX_LEN_0FAE_R_3_M_0 */
9515 { "vstmxcsr", { Md
}, 0 },
9518 /* VEX_LEN_0FC4_P_2 */
9520 { "vpinsrw", { XM
, Vex128
, Edqw
, Ib
}, 0 },
9523 /* VEX_LEN_0FC5_P_2 */
9525 { "vpextrw", { Gdq
, XS
, Ib
}, 0 },
9528 /* VEX_LEN_0FD6_P_2 */
9530 { "vmovq", { EXqScalarS
, XMScalar
}, 0 },
9533 /* VEX_LEN_0FF7_P_2 */
9535 { "vmaskmovdqu", { XM
, XS
}, 0 },
9538 /* VEX_LEN_0F3816_P_2 */
9541 { VEX_W_TABLE (VEX_W_0F3816_P_2
) },
9544 /* VEX_LEN_0F3819_P_2 */
9547 { VEX_W_TABLE (VEX_W_0F3819_P_2
) },
9550 /* VEX_LEN_0F381A_P_2_M_0 */
9553 { VEX_W_TABLE (VEX_W_0F381A_P_2_M_0
) },
9556 /* VEX_LEN_0F3836_P_2 */
9559 { VEX_W_TABLE (VEX_W_0F3836_P_2
) },
9562 /* VEX_LEN_0F3841_P_2 */
9564 { "vphminposuw", { XM
, EXx
}, 0 },
9567 /* VEX_LEN_0F385A_P_2_M_0 */
9570 { VEX_W_TABLE (VEX_W_0F385A_P_2_M_0
) },
9573 /* VEX_LEN_0F38DB_P_2 */
9575 { "vaesimc", { XM
, EXx
}, 0 },
9578 /* VEX_LEN_0F38F2_P_0 */
9580 { "andnS", { Gdq
, VexGdq
, Edq
}, 0 },
9583 /* VEX_LEN_0F38F3_R_1_P_0 */
9585 { "blsrS", { VexGdq
, Edq
}, 0 },
9588 /* VEX_LEN_0F38F3_R_2_P_0 */
9590 { "blsmskS", { VexGdq
, Edq
}, 0 },
9593 /* VEX_LEN_0F38F3_R_3_P_0 */
9595 { "blsiS", { VexGdq
, Edq
}, 0 },
9598 /* VEX_LEN_0F38F5_P_0 */
9600 { "bzhiS", { Gdq
, Edq
, VexGdq
}, 0 },
9603 /* VEX_LEN_0F38F5_P_1 */
9605 { "pextS", { Gdq
, VexGdq
, Edq
}, 0 },
9608 /* VEX_LEN_0F38F5_P_3 */
9610 { "pdepS", { Gdq
, VexGdq
, Edq
}, 0 },
9613 /* VEX_LEN_0F38F6_P_3 */
9615 { "mulxS", { Gdq
, VexGdq
, Edq
}, 0 },
9618 /* VEX_LEN_0F38F7_P_0 */
9620 { "bextrS", { Gdq
, Edq
, VexGdq
}, 0 },
9623 /* VEX_LEN_0F38F7_P_1 */
9625 { "sarxS", { Gdq
, Edq
, VexGdq
}, 0 },
9628 /* VEX_LEN_0F38F7_P_2 */
9630 { "shlxS", { Gdq
, Edq
, VexGdq
}, 0 },
9633 /* VEX_LEN_0F38F7_P_3 */
9635 { "shrxS", { Gdq
, Edq
, VexGdq
}, 0 },
9638 /* VEX_LEN_0F3A00_P_2 */
9641 { VEX_W_TABLE (VEX_W_0F3A00_P_2
) },
9644 /* VEX_LEN_0F3A01_P_2 */
9647 { VEX_W_TABLE (VEX_W_0F3A01_P_2
) },
9650 /* VEX_LEN_0F3A06_P_2 */
9653 { VEX_W_TABLE (VEX_W_0F3A06_P_2
) },
9656 /* VEX_LEN_0F3A14_P_2 */
9658 { "vpextrb", { Edqb
, XM
, Ib
}, 0 },
9661 /* VEX_LEN_0F3A15_P_2 */
9663 { "vpextrw", { Edqw
, XM
, Ib
}, 0 },
9666 /* VEX_LEN_0F3A16_P_2 */
9668 { "vpextrK", { Edq
, XM
, Ib
}, 0 },
9671 /* VEX_LEN_0F3A17_P_2 */
9673 { "vextractps", { Edqd
, XM
, Ib
}, 0 },
9676 /* VEX_LEN_0F3A18_P_2 */
9679 { VEX_W_TABLE (VEX_W_0F3A18_P_2
) },
9682 /* VEX_LEN_0F3A19_P_2 */
9685 { VEX_W_TABLE (VEX_W_0F3A19_P_2
) },
9688 /* VEX_LEN_0F3A20_P_2 */
9690 { "vpinsrb", { XM
, Vex128
, Edqb
, Ib
}, 0 },
9693 /* VEX_LEN_0F3A21_P_2 */
9695 { "vinsertps", { XM
, Vex128
, EXd
, Ib
}, 0 },
9698 /* VEX_LEN_0F3A22_P_2 */
9700 { "vpinsrK", { XM
, Vex128
, Edq
, Ib
}, 0 },
9703 /* VEX_LEN_0F3A30_P_2 */
9705 { VEX_W_TABLE (VEX_W_0F3A30_P_2_LEN_0
) },
9708 /* VEX_LEN_0F3A31_P_2 */
9710 { VEX_W_TABLE (VEX_W_0F3A31_P_2_LEN_0
) },
9713 /* VEX_LEN_0F3A32_P_2 */
9715 { VEX_W_TABLE (VEX_W_0F3A32_P_2_LEN_0
) },
9718 /* VEX_LEN_0F3A33_P_2 */
9720 { VEX_W_TABLE (VEX_W_0F3A33_P_2_LEN_0
) },
9723 /* VEX_LEN_0F3A38_P_2 */
9726 { VEX_W_TABLE (VEX_W_0F3A38_P_2
) },
9729 /* VEX_LEN_0F3A39_P_2 */
9732 { VEX_W_TABLE (VEX_W_0F3A39_P_2
) },
9735 /* VEX_LEN_0F3A41_P_2 */
9737 { "vdppd", { XM
, Vex128
, EXx
, Ib
}, 0 },
9740 /* VEX_LEN_0F3A46_P_2 */
9743 { VEX_W_TABLE (VEX_W_0F3A46_P_2
) },
9746 /* VEX_LEN_0F3A60_P_2 */
9748 { "vpcmpestrm", { XM
, { PCMPESTR_Fixup
, x_mode
}, Ib
}, 0 },
9751 /* VEX_LEN_0F3A61_P_2 */
9753 { "vpcmpestri", { XM
, { PCMPESTR_Fixup
, x_mode
}, Ib
}, 0 },
9756 /* VEX_LEN_0F3A62_P_2 */
9758 { "vpcmpistrm", { XM
, EXx
, Ib
}, 0 },
9761 /* VEX_LEN_0F3A63_P_2 */
9763 { "vpcmpistri", { XM
, EXx
, Ib
}, 0 },
9766 /* VEX_LEN_0F3A6A_P_2 */
9768 { "vfmaddss", { XMVexW
, Vex128
, EXdVexW
, EXdVexW
}, 0 },
9771 /* VEX_LEN_0F3A6B_P_2 */
9773 { "vfmaddsd", { XMVexW
, Vex128
, EXqVexW
, EXqVexW
}, 0 },
9776 /* VEX_LEN_0F3A6E_P_2 */
9778 { "vfmsubss", { XMVexW
, Vex128
, EXdVexW
, EXdVexW
}, 0 },
9781 /* VEX_LEN_0F3A6F_P_2 */
9783 { "vfmsubsd", { XMVexW
, Vex128
, EXqVexW
, EXqVexW
}, 0 },
9786 /* VEX_LEN_0F3A7A_P_2 */
9788 { "vfnmaddss", { XMVexW
, Vex128
, EXdVexW
, EXdVexW
}, 0 },
9791 /* VEX_LEN_0F3A7B_P_2 */
9793 { "vfnmaddsd", { XMVexW
, Vex128
, EXqVexW
, EXqVexW
}, 0 },
9796 /* VEX_LEN_0F3A7E_P_2 */
9798 { "vfnmsubss", { XMVexW
, Vex128
, EXdVexW
, EXdVexW
}, 0 },
9801 /* VEX_LEN_0F3A7F_P_2 */
9803 { "vfnmsubsd", { XMVexW
, Vex128
, EXqVexW
, EXqVexW
}, 0 },
9806 /* VEX_LEN_0F3ADF_P_2 */
9808 { "vaeskeygenassist", { XM
, EXx
, Ib
}, 0 },
9811 /* VEX_LEN_0F3AF0_P_3 */
9813 { "rorxS", { Gdq
, Edq
, Ib
}, 0 },
9816 /* VEX_LEN_0FXOP_08_CC */
9818 { "vpcomb", { XM
, Vex128
, EXx
, VPCOM
}, 0 },
9821 /* VEX_LEN_0FXOP_08_CD */
9823 { "vpcomw", { XM
, Vex128
, EXx
, VPCOM
}, 0 },
9826 /* VEX_LEN_0FXOP_08_CE */
9828 { "vpcomd", { XM
, Vex128
, EXx
, VPCOM
}, 0 },
9831 /* VEX_LEN_0FXOP_08_CF */
9833 { "vpcomq", { XM
, Vex128
, EXx
, VPCOM
}, 0 },
9836 /* VEX_LEN_0FXOP_08_EC */
9838 { "vpcomub", { XM
, Vex128
, EXx
, VPCOM
}, 0 },
9841 /* VEX_LEN_0FXOP_08_ED */
9843 { "vpcomuw", { XM
, Vex128
, EXx
, VPCOM
}, 0 },
9846 /* VEX_LEN_0FXOP_08_EE */
9848 { "vpcomud", { XM
, Vex128
, EXx
, VPCOM
}, 0 },
9851 /* VEX_LEN_0FXOP_08_EF */
9853 { "vpcomuq", { XM
, Vex128
, EXx
, VPCOM
}, 0 },
9856 /* VEX_LEN_0FXOP_09_80 */
9858 { "vfrczps", { XM
, EXxmm
}, 0 },
9859 { "vfrczps", { XM
, EXymmq
}, 0 },
9862 /* VEX_LEN_0FXOP_09_81 */
9864 { "vfrczpd", { XM
, EXxmm
}, 0 },
9865 { "vfrczpd", { XM
, EXymmq
}, 0 },
9869 #include "i386-dis-evex-len.h"
9871 static const struct dis386 vex_w_table
[][2] = {
9873 /* VEX_W_0F41_P_0_LEN_1 */
9874 { MOD_TABLE (MOD_VEX_W_0_0F41_P_0_LEN_1
) },
9875 { MOD_TABLE (MOD_VEX_W_1_0F41_P_0_LEN_1
) },
9878 /* VEX_W_0F41_P_2_LEN_1 */
9879 { MOD_TABLE (MOD_VEX_W_0_0F41_P_2_LEN_1
) },
9880 { MOD_TABLE (MOD_VEX_W_1_0F41_P_2_LEN_1
) }
9883 /* VEX_W_0F42_P_0_LEN_1 */
9884 { MOD_TABLE (MOD_VEX_W_0_0F42_P_0_LEN_1
) },
9885 { MOD_TABLE (MOD_VEX_W_1_0F42_P_0_LEN_1
) },
9888 /* VEX_W_0F42_P_2_LEN_1 */
9889 { MOD_TABLE (MOD_VEX_W_0_0F42_P_2_LEN_1
) },
9890 { MOD_TABLE (MOD_VEX_W_1_0F42_P_2_LEN_1
) },
9893 /* VEX_W_0F44_P_0_LEN_0 */
9894 { MOD_TABLE (MOD_VEX_W_0_0F44_P_0_LEN_1
) },
9895 { MOD_TABLE (MOD_VEX_W_1_0F44_P_0_LEN_1
) },
9898 /* VEX_W_0F44_P_2_LEN_0 */
9899 { MOD_TABLE (MOD_VEX_W_0_0F44_P_2_LEN_1
) },
9900 { MOD_TABLE (MOD_VEX_W_1_0F44_P_2_LEN_1
) },
9903 /* VEX_W_0F45_P_0_LEN_1 */
9904 { MOD_TABLE (MOD_VEX_W_0_0F45_P_0_LEN_1
) },
9905 { MOD_TABLE (MOD_VEX_W_1_0F45_P_0_LEN_1
) },
9908 /* VEX_W_0F45_P_2_LEN_1 */
9909 { MOD_TABLE (MOD_VEX_W_0_0F45_P_2_LEN_1
) },
9910 { MOD_TABLE (MOD_VEX_W_1_0F45_P_2_LEN_1
) },
9913 /* VEX_W_0F46_P_0_LEN_1 */
9914 { MOD_TABLE (MOD_VEX_W_0_0F46_P_0_LEN_1
) },
9915 { MOD_TABLE (MOD_VEX_W_1_0F46_P_0_LEN_1
) },
9918 /* VEX_W_0F46_P_2_LEN_1 */
9919 { MOD_TABLE (MOD_VEX_W_0_0F46_P_2_LEN_1
) },
9920 { MOD_TABLE (MOD_VEX_W_1_0F46_P_2_LEN_1
) },
9923 /* VEX_W_0F47_P_0_LEN_1 */
9924 { MOD_TABLE (MOD_VEX_W_0_0F47_P_0_LEN_1
) },
9925 { MOD_TABLE (MOD_VEX_W_1_0F47_P_0_LEN_1
) },
9928 /* VEX_W_0F47_P_2_LEN_1 */
9929 { MOD_TABLE (MOD_VEX_W_0_0F47_P_2_LEN_1
) },
9930 { MOD_TABLE (MOD_VEX_W_1_0F47_P_2_LEN_1
) },
9933 /* VEX_W_0F4A_P_0_LEN_1 */
9934 { MOD_TABLE (MOD_VEX_W_0_0F4A_P_0_LEN_1
) },
9935 { MOD_TABLE (MOD_VEX_W_1_0F4A_P_0_LEN_1
) },
9938 /* VEX_W_0F4A_P_2_LEN_1 */
9939 { MOD_TABLE (MOD_VEX_W_0_0F4A_P_2_LEN_1
) },
9940 { MOD_TABLE (MOD_VEX_W_1_0F4A_P_2_LEN_1
) },
9943 /* VEX_W_0F4B_P_0_LEN_1 */
9944 { MOD_TABLE (MOD_VEX_W_0_0F4B_P_0_LEN_1
) },
9945 { MOD_TABLE (MOD_VEX_W_1_0F4B_P_0_LEN_1
) },
9948 /* VEX_W_0F4B_P_2_LEN_1 */
9949 { MOD_TABLE (MOD_VEX_W_0_0F4B_P_2_LEN_1
) },
9952 /* VEX_W_0F90_P_0_LEN_0 */
9953 { "kmovw", { MaskG
, MaskE
}, 0 },
9954 { "kmovq", { MaskG
, MaskE
}, 0 },
9957 /* VEX_W_0F90_P_2_LEN_0 */
9958 { "kmovb", { MaskG
, MaskBDE
}, 0 },
9959 { "kmovd", { MaskG
, MaskBDE
}, 0 },
9962 /* VEX_W_0F91_P_0_LEN_0 */
9963 { MOD_TABLE (MOD_VEX_W_0_0F91_P_0_LEN_0
) },
9964 { MOD_TABLE (MOD_VEX_W_1_0F91_P_0_LEN_0
) },
9967 /* VEX_W_0F91_P_2_LEN_0 */
9968 { MOD_TABLE (MOD_VEX_W_0_0F91_P_2_LEN_0
) },
9969 { MOD_TABLE (MOD_VEX_W_1_0F91_P_2_LEN_0
) },
9972 /* VEX_W_0F92_P_0_LEN_0 */
9973 { MOD_TABLE (MOD_VEX_W_0_0F92_P_0_LEN_0
) },
9976 /* VEX_W_0F92_P_2_LEN_0 */
9977 { MOD_TABLE (MOD_VEX_W_0_0F92_P_2_LEN_0
) },
9980 /* VEX_W_0F93_P_0_LEN_0 */
9981 { MOD_TABLE (MOD_VEX_W_0_0F93_P_0_LEN_0
) },
9984 /* VEX_W_0F93_P_2_LEN_0 */
9985 { MOD_TABLE (MOD_VEX_W_0_0F93_P_2_LEN_0
) },
9988 /* VEX_W_0F98_P_0_LEN_0 */
9989 { MOD_TABLE (MOD_VEX_W_0_0F98_P_0_LEN_0
) },
9990 { MOD_TABLE (MOD_VEX_W_1_0F98_P_0_LEN_0
) },
9993 /* VEX_W_0F98_P_2_LEN_0 */
9994 { MOD_TABLE (MOD_VEX_W_0_0F98_P_2_LEN_0
) },
9995 { MOD_TABLE (MOD_VEX_W_1_0F98_P_2_LEN_0
) },
9998 /* VEX_W_0F99_P_0_LEN_0 */
9999 { MOD_TABLE (MOD_VEX_W_0_0F99_P_0_LEN_0
) },
10000 { MOD_TABLE (MOD_VEX_W_1_0F99_P_0_LEN_0
) },
10003 /* VEX_W_0F99_P_2_LEN_0 */
10004 { MOD_TABLE (MOD_VEX_W_0_0F99_P_2_LEN_0
) },
10005 { MOD_TABLE (MOD_VEX_W_1_0F99_P_2_LEN_0
) },
10008 /* VEX_W_0F380C_P_2 */
10009 { "vpermilps", { XM
, Vex
, EXx
}, 0 },
10012 /* VEX_W_0F380D_P_2 */
10013 { "vpermilpd", { XM
, Vex
, EXx
}, 0 },
10016 /* VEX_W_0F380E_P_2 */
10017 { "vtestps", { XM
, EXx
}, 0 },
10020 /* VEX_W_0F380F_P_2 */
10021 { "vtestpd", { XM
, EXx
}, 0 },
10024 /* VEX_W_0F3816_P_2 */
10025 { "vpermps", { XM
, Vex
, EXx
}, 0 },
10028 /* VEX_W_0F3818_P_2 */
10029 { "vbroadcastss", { XM
, EXxmm_md
}, 0 },
10032 /* VEX_W_0F3819_P_2 */
10033 { "vbroadcastsd", { XM
, EXxmm_mq
}, 0 },
10036 /* VEX_W_0F381A_P_2_M_0 */
10037 { "vbroadcastf128", { XM
, Mxmm
}, 0 },
10040 /* VEX_W_0F382C_P_2_M_0 */
10041 { "vmaskmovps", { XM
, Vex
, Mx
}, 0 },
10044 /* VEX_W_0F382D_P_2_M_0 */
10045 { "vmaskmovpd", { XM
, Vex
, Mx
}, 0 },
10048 /* VEX_W_0F382E_P_2_M_0 */
10049 { "vmaskmovps", { Mx
, Vex
, XM
}, 0 },
10052 /* VEX_W_0F382F_P_2_M_0 */
10053 { "vmaskmovpd", { Mx
, Vex
, XM
}, 0 },
10056 /* VEX_W_0F3836_P_2 */
10057 { "vpermd", { XM
, Vex
, EXx
}, 0 },
10060 /* VEX_W_0F3846_P_2 */
10061 { "vpsravd", { XM
, Vex
, EXx
}, 0 },
10064 /* VEX_W_0F3858_P_2 */
10065 { "vpbroadcastd", { XM
, EXxmm_md
}, 0 },
10068 /* VEX_W_0F3859_P_2 */
10069 { "vpbroadcastq", { XM
, EXxmm_mq
}, 0 },
10072 /* VEX_W_0F385A_P_2_M_0 */
10073 { "vbroadcasti128", { XM
, Mxmm
}, 0 },
10076 /* VEX_W_0F3878_P_2 */
10077 { "vpbroadcastb", { XM
, EXxmm_mb
}, 0 },
10080 /* VEX_W_0F3879_P_2 */
10081 { "vpbroadcastw", { XM
, EXxmm_mw
}, 0 },
10084 /* VEX_W_0F38CF_P_2 */
10085 { "vgf2p8mulb", { XM
, Vex
, EXx
}, 0 },
10088 /* VEX_W_0F3A00_P_2 */
10090 { "vpermq", { XM
, EXx
, Ib
}, 0 },
10093 /* VEX_W_0F3A01_P_2 */
10095 { "vpermpd", { XM
, EXx
, Ib
}, 0 },
10098 /* VEX_W_0F3A02_P_2 */
10099 { "vpblendd", { XM
, Vex
, EXx
, Ib
}, 0 },
10102 /* VEX_W_0F3A04_P_2 */
10103 { "vpermilps", { XM
, EXx
, Ib
}, 0 },
10106 /* VEX_W_0F3A05_P_2 */
10107 { "vpermilpd", { XM
, EXx
, Ib
}, 0 },
10110 /* VEX_W_0F3A06_P_2 */
10111 { "vperm2f128", { XM
, Vex256
, EXx
, Ib
}, 0 },
10114 /* VEX_W_0F3A18_P_2 */
10115 { "vinsertf128", { XM
, Vex256
, EXxmm
, Ib
}, 0 },
10118 /* VEX_W_0F3A19_P_2 */
10119 { "vextractf128", { EXxmm
, XM
, Ib
}, 0 },
10122 /* VEX_W_0F3A30_P_2_LEN_0 */
10123 { MOD_TABLE (MOD_VEX_W_0_0F3A30_P_2_LEN_0
) },
10124 { MOD_TABLE (MOD_VEX_W_1_0F3A30_P_2_LEN_0
) },
10127 /* VEX_W_0F3A31_P_2_LEN_0 */
10128 { MOD_TABLE (MOD_VEX_W_0_0F3A31_P_2_LEN_0
) },
10129 { MOD_TABLE (MOD_VEX_W_1_0F3A31_P_2_LEN_0
) },
10132 /* VEX_W_0F3A32_P_2_LEN_0 */
10133 { MOD_TABLE (MOD_VEX_W_0_0F3A32_P_2_LEN_0
) },
10134 { MOD_TABLE (MOD_VEX_W_1_0F3A32_P_2_LEN_0
) },
10137 /* VEX_W_0F3A33_P_2_LEN_0 */
10138 { MOD_TABLE (MOD_VEX_W_0_0F3A33_P_2_LEN_0
) },
10139 { MOD_TABLE (MOD_VEX_W_1_0F3A33_P_2_LEN_0
) },
10142 /* VEX_W_0F3A38_P_2 */
10143 { "vinserti128", { XM
, Vex256
, EXxmm
, Ib
}, 0 },
10146 /* VEX_W_0F3A39_P_2 */
10147 { "vextracti128", { EXxmm
, XM
, Ib
}, 0 },
10150 /* VEX_W_0F3A46_P_2 */
10151 { "vperm2i128", { XM
, Vex256
, EXx
, Ib
}, 0 },
10154 /* VEX_W_0F3A48_P_2 */
10155 { "vpermil2ps", { XMVexW
, Vex
, EXVexImmW
, EXVexImmW
, EXVexImmW
}, 0 },
10156 { "vpermil2ps", { XMVexW
, Vex
, EXVexImmW
, EXVexImmW
, EXVexImmW
}, 0 },
10159 /* VEX_W_0F3A49_P_2 */
10160 { "vpermil2pd", { XMVexW
, Vex
, EXVexImmW
, EXVexImmW
, EXVexImmW
}, 0 },
10161 { "vpermil2pd", { XMVexW
, Vex
, EXVexImmW
, EXVexImmW
, EXVexImmW
}, 0 },
10164 /* VEX_W_0F3A4A_P_2 */
10165 { "vblendvps", { XM
, Vex
, EXx
, XMVexI4
}, 0 },
10168 /* VEX_W_0F3A4B_P_2 */
10169 { "vblendvpd", { XM
, Vex
, EXx
, XMVexI4
}, 0 },
10172 /* VEX_W_0F3A4C_P_2 */
10173 { "vpblendvb", { XM
, Vex
, EXx
, XMVexI4
}, 0 },
10176 /* VEX_W_0F3ACE_P_2 */
10178 { "vgf2p8affineqb", { XM
, Vex
, EXx
, Ib
}, 0 },
10181 /* VEX_W_0F3ACF_P_2 */
10183 { "vgf2p8affineinvqb", { XM
, Vex
, EXx
, Ib
}, 0 },
10186 #include "i386-dis-evex-w.h"
10189 static const struct dis386 mod_table
[][2] = {
10192 { "leaS", { Gv
, M
}, 0 },
10197 { RM_TABLE (RM_C6_REG_7
) },
10202 { RM_TABLE (RM_C7_REG_7
) },
10206 { "Jcall^", { indirEp
}, 0 },
10210 { "Jjmp^", { indirEp
}, 0 },
10213 /* MOD_0F01_REG_0 */
10214 { X86_64_TABLE (X86_64_0F01_REG_0
) },
10215 { RM_TABLE (RM_0F01_REG_0
) },
10218 /* MOD_0F01_REG_1 */
10219 { X86_64_TABLE (X86_64_0F01_REG_1
) },
10220 { RM_TABLE (RM_0F01_REG_1
) },
10223 /* MOD_0F01_REG_2 */
10224 { X86_64_TABLE (X86_64_0F01_REG_2
) },
10225 { RM_TABLE (RM_0F01_REG_2
) },
10228 /* MOD_0F01_REG_3 */
10229 { X86_64_TABLE (X86_64_0F01_REG_3
) },
10230 { RM_TABLE (RM_0F01_REG_3
) },
10233 /* MOD_0F01_REG_5 */
10234 { PREFIX_TABLE (PREFIX_MOD_0_0F01_REG_5
) },
10235 { RM_TABLE (RM_0F01_REG_5
) },
10238 /* MOD_0F01_REG_7 */
10239 { "invlpg", { Mb
}, 0 },
10240 { RM_TABLE (RM_0F01_REG_7
) },
10243 /* MOD_0F12_PREFIX_0 */
10244 { "movlps", { XM
, EXq
}, PREFIX_OPCODE
},
10245 { "movhlps", { XM
, EXq
}, PREFIX_OPCODE
},
10249 { "movlpX", { EXq
, XM
}, PREFIX_OPCODE
},
10252 /* MOD_0F16_PREFIX_0 */
10253 { "movhps", { XM
, EXq
}, 0 },
10254 { "movlhps", { XM
, EXq
}, 0 },
10258 { "movhpX", { EXq
, XM
}, PREFIX_OPCODE
},
10261 /* MOD_0F18_REG_0 */
10262 { "prefetchnta", { Mb
}, 0 },
10265 /* MOD_0F18_REG_1 */
10266 { "prefetcht0", { Mb
}, 0 },
10269 /* MOD_0F18_REG_2 */
10270 { "prefetcht1", { Mb
}, 0 },
10273 /* MOD_0F18_REG_3 */
10274 { "prefetcht2", { Mb
}, 0 },
10277 /* MOD_0F18_REG_4 */
10278 { "nop/reserved", { Mb
}, 0 },
10281 /* MOD_0F18_REG_5 */
10282 { "nop/reserved", { Mb
}, 0 },
10285 /* MOD_0F18_REG_6 */
10286 { "nop/reserved", { Mb
}, 0 },
10289 /* MOD_0F18_REG_7 */
10290 { "nop/reserved", { Mb
}, 0 },
10293 /* MOD_0F1A_PREFIX_0 */
10294 { "bndldx", { Gbnd
, Mv_bnd
}, 0 },
10295 { "nopQ", { Ev
}, 0 },
10298 /* MOD_0F1B_PREFIX_0 */
10299 { "bndstx", { Mv_bnd
, Gbnd
}, 0 },
10300 { "nopQ", { Ev
}, 0 },
10303 /* MOD_0F1B_PREFIX_1 */
10304 { "bndmk", { Gbnd
, Mv_bnd
}, 0 },
10305 { "nopQ", { Ev
}, 0 },
10308 /* MOD_0F1C_PREFIX_0 */
10309 { REG_TABLE (REG_0F1C_MOD_0
) },
10310 { "nopQ", { Ev
}, 0 },
10313 /* MOD_0F1E_PREFIX_1 */
10314 { "nopQ", { Ev
}, 0 },
10315 { REG_TABLE (REG_0F1E_MOD_3
) },
10320 { "movL", { Rd
, Td
}, 0 },
10325 { "movL", { Td
, Rd
}, 0 },
10328 /* MOD_0F2B_PREFIX_0 */
10329 {"movntps", { Mx
, XM
}, PREFIX_OPCODE
},
10332 /* MOD_0F2B_PREFIX_1 */
10333 {"movntss", { Md
, XM
}, PREFIX_OPCODE
},
10336 /* MOD_0F2B_PREFIX_2 */
10337 {"movntpd", { Mx
, XM
}, PREFIX_OPCODE
},
10340 /* MOD_0F2B_PREFIX_3 */
10341 {"movntsd", { Mq
, XM
}, PREFIX_OPCODE
},
10346 { "movmskpX", { Gdq
, XS
}, PREFIX_OPCODE
},
10349 /* MOD_0F71_REG_2 */
10351 { "psrlw", { MS
, Ib
}, 0 },
10354 /* MOD_0F71_REG_4 */
10356 { "psraw", { MS
, Ib
}, 0 },
10359 /* MOD_0F71_REG_6 */
10361 { "psllw", { MS
, Ib
}, 0 },
10364 /* MOD_0F72_REG_2 */
10366 { "psrld", { MS
, Ib
}, 0 },
10369 /* MOD_0F72_REG_4 */
10371 { "psrad", { MS
, Ib
}, 0 },
10374 /* MOD_0F72_REG_6 */
10376 { "pslld", { MS
, Ib
}, 0 },
10379 /* MOD_0F73_REG_2 */
10381 { "psrlq", { MS
, Ib
}, 0 },
10384 /* MOD_0F73_REG_3 */
10386 { PREFIX_TABLE (PREFIX_0F73_REG_3
) },
10389 /* MOD_0F73_REG_6 */
10391 { "psllq", { MS
, Ib
}, 0 },
10394 /* MOD_0F73_REG_7 */
10396 { PREFIX_TABLE (PREFIX_0F73_REG_7
) },
10399 /* MOD_0FAE_REG_0 */
10400 { "fxsave", { FXSAVE
}, 0 },
10401 { PREFIX_TABLE (PREFIX_0FAE_REG_0
) },
10404 /* MOD_0FAE_REG_1 */
10405 { "fxrstor", { FXSAVE
}, 0 },
10406 { PREFIX_TABLE (PREFIX_0FAE_REG_1
) },
10409 /* MOD_0FAE_REG_2 */
10410 { "ldmxcsr", { Md
}, 0 },
10411 { PREFIX_TABLE (PREFIX_0FAE_REG_2
) },
10414 /* MOD_0FAE_REG_3 */
10415 { "stmxcsr", { Md
}, 0 },
10416 { PREFIX_TABLE (PREFIX_0FAE_REG_3
) },
10419 /* MOD_0FAE_REG_4 */
10420 { PREFIX_TABLE (PREFIX_MOD_0_0FAE_REG_4
) },
10421 { PREFIX_TABLE (PREFIX_MOD_3_0FAE_REG_4
) },
10424 /* MOD_0FAE_REG_5 */
10425 { PREFIX_TABLE (PREFIX_MOD_0_0FAE_REG_5
) },
10426 { PREFIX_TABLE (PREFIX_MOD_3_0FAE_REG_5
) },
10429 /* MOD_0FAE_REG_6 */
10430 { PREFIX_TABLE (PREFIX_MOD_0_0FAE_REG_6
) },
10431 { PREFIX_TABLE (PREFIX_MOD_1_0FAE_REG_6
) },
10434 /* MOD_0FAE_REG_7 */
10435 { PREFIX_TABLE (PREFIX_0FAE_REG_7
) },
10436 { RM_TABLE (RM_0FAE_REG_7
) },
10440 { "lssS", { Gv
, Mp
}, 0 },
10444 { "lfsS", { Gv
, Mp
}, 0 },
10448 { "lgsS", { Gv
, Mp
}, 0 },
10452 { PREFIX_TABLE (PREFIX_MOD_0_0FC3
) },
10455 /* MOD_0FC7_REG_3 */
10456 { "xrstors", { FXSAVE
}, 0 },
10459 /* MOD_0FC7_REG_4 */
10460 { "xsavec", { FXSAVE
}, 0 },
10463 /* MOD_0FC7_REG_5 */
10464 { "xsaves", { FXSAVE
}, 0 },
10467 /* MOD_0FC7_REG_6 */
10468 { PREFIX_TABLE (PREFIX_MOD_0_0FC7_REG_6
) },
10469 { PREFIX_TABLE (PREFIX_MOD_3_0FC7_REG_6
) }
10472 /* MOD_0FC7_REG_7 */
10473 { "vmptrst", { Mq
}, 0 },
10474 { PREFIX_TABLE (PREFIX_MOD_3_0FC7_REG_7
) }
10479 { "pmovmskb", { Gdq
, MS
}, 0 },
10482 /* MOD_0FE7_PREFIX_2 */
10483 { "movntdq", { Mx
, XM
}, 0 },
10486 /* MOD_0FF0_PREFIX_3 */
10487 { "lddqu", { XM
, M
}, 0 },
10490 /* MOD_0F382A_PREFIX_2 */
10491 { "movntdqa", { XM
, Mx
}, 0 },
10494 /* MOD_0F38F5_PREFIX_2 */
10495 { "wrussK", { M
, Gdq
}, PREFIX_OPCODE
},
10498 /* MOD_0F38F6_PREFIX_0 */
10499 { "wrssK", { M
, Gdq
}, PREFIX_OPCODE
},
10502 /* MOD_0F38F8_PREFIX_1 */
10503 { "enqcmds", { Gva
, M
}, PREFIX_OPCODE
},
10506 /* MOD_0F38F8_PREFIX_2 */
10507 { "movdir64b", { Gva
, M
}, PREFIX_OPCODE
},
10510 /* MOD_0F38F8_PREFIX_3 */
10511 { "enqcmd", { Gva
, M
}, PREFIX_OPCODE
},
10514 /* MOD_0F38F9_PREFIX_0 */
10515 { "movdiri", { Em
, Gv
}, PREFIX_OPCODE
},
10519 { "bound{S|}", { Gv
, Ma
}, 0 },
10520 { EVEX_TABLE (EVEX_0F
) },
10524 { "lesS", { Gv
, Mp
}, 0 },
10525 { VEX_C4_TABLE (VEX_0F
) },
10529 { "ldsS", { Gv
, Mp
}, 0 },
10530 { VEX_C5_TABLE (VEX_0F
) },
10533 /* MOD_VEX_0F12_PREFIX_0 */
10534 { VEX_LEN_TABLE (VEX_LEN_0F12_P_0_M_0
) },
10535 { VEX_LEN_TABLE (VEX_LEN_0F12_P_0_M_1
) },
10539 { VEX_LEN_TABLE (VEX_LEN_0F13_M_0
) },
10542 /* MOD_VEX_0F16_PREFIX_0 */
10543 { VEX_LEN_TABLE (VEX_LEN_0F16_P_0_M_0
) },
10544 { VEX_LEN_TABLE (VEX_LEN_0F16_P_0_M_1
) },
10548 { VEX_LEN_TABLE (VEX_LEN_0F17_M_0
) },
10552 { "vmovntpX", { Mx
, XM
}, 0 },
10555 /* MOD_VEX_W_0_0F41_P_0_LEN_1 */
10557 { "kandw", { MaskG
, MaskVex
, MaskR
}, 0 },
10560 /* MOD_VEX_W_1_0F41_P_0_LEN_1 */
10562 { "kandq", { MaskG
, MaskVex
, MaskR
}, 0 },
10565 /* MOD_VEX_W_0_0F41_P_2_LEN_1 */
10567 { "kandb", { MaskG
, MaskVex
, MaskR
}, 0 },
10570 /* MOD_VEX_W_1_0F41_P_2_LEN_1 */
10572 { "kandd", { MaskG
, MaskVex
, MaskR
}, 0 },
10575 /* MOD_VEX_W_0_0F42_P_0_LEN_1 */
10577 { "kandnw", { MaskG
, MaskVex
, MaskR
}, 0 },
10580 /* MOD_VEX_W_1_0F42_P_0_LEN_1 */
10582 { "kandnq", { MaskG
, MaskVex
, MaskR
}, 0 },
10585 /* MOD_VEX_W_0_0F42_P_2_LEN_1 */
10587 { "kandnb", { MaskG
, MaskVex
, MaskR
}, 0 },
10590 /* MOD_VEX_W_1_0F42_P_2_LEN_1 */
10592 { "kandnd", { MaskG
, MaskVex
, MaskR
}, 0 },
10595 /* MOD_VEX_W_0_0F44_P_0_LEN_0 */
10597 { "knotw", { MaskG
, MaskR
}, 0 },
10600 /* MOD_VEX_W_1_0F44_P_0_LEN_0 */
10602 { "knotq", { MaskG
, MaskR
}, 0 },
10605 /* MOD_VEX_W_0_0F44_P_2_LEN_0 */
10607 { "knotb", { MaskG
, MaskR
}, 0 },
10610 /* MOD_VEX_W_1_0F44_P_2_LEN_0 */
10612 { "knotd", { MaskG
, MaskR
}, 0 },
10615 /* MOD_VEX_W_0_0F45_P_0_LEN_1 */
10617 { "korw", { MaskG
, MaskVex
, MaskR
}, 0 },
10620 /* MOD_VEX_W_1_0F45_P_0_LEN_1 */
10622 { "korq", { MaskG
, MaskVex
, MaskR
}, 0 },
10625 /* MOD_VEX_W_0_0F45_P_2_LEN_1 */
10627 { "korb", { MaskG
, MaskVex
, MaskR
}, 0 },
10630 /* MOD_VEX_W_1_0F45_P_2_LEN_1 */
10632 { "kord", { MaskG
, MaskVex
, MaskR
}, 0 },
10635 /* MOD_VEX_W_0_0F46_P_0_LEN_1 */
10637 { "kxnorw", { MaskG
, MaskVex
, MaskR
}, 0 },
10640 /* MOD_VEX_W_1_0F46_P_0_LEN_1 */
10642 { "kxnorq", { MaskG
, MaskVex
, MaskR
}, 0 },
10645 /* MOD_VEX_W_0_0F46_P_2_LEN_1 */
10647 { "kxnorb", { MaskG
, MaskVex
, MaskR
}, 0 },
10650 /* MOD_VEX_W_1_0F46_P_2_LEN_1 */
10652 { "kxnord", { MaskG
, MaskVex
, MaskR
}, 0 },
10655 /* MOD_VEX_W_0_0F47_P_0_LEN_1 */
10657 { "kxorw", { MaskG
, MaskVex
, MaskR
}, 0 },
10660 /* MOD_VEX_W_1_0F47_P_0_LEN_1 */
10662 { "kxorq", { MaskG
, MaskVex
, MaskR
}, 0 },
10665 /* MOD_VEX_W_0_0F47_P_2_LEN_1 */
10667 { "kxorb", { MaskG
, MaskVex
, MaskR
}, 0 },
10670 /* MOD_VEX_W_1_0F47_P_2_LEN_1 */
10672 { "kxord", { MaskG
, MaskVex
, MaskR
}, 0 },
10675 /* MOD_VEX_W_0_0F4A_P_0_LEN_1 */
10677 { "kaddw", { MaskG
, MaskVex
, MaskR
}, 0 },
10680 /* MOD_VEX_W_1_0F4A_P_0_LEN_1 */
10682 { "kaddq", { MaskG
, MaskVex
, MaskR
}, 0 },
10685 /* MOD_VEX_W_0_0F4A_P_2_LEN_1 */
10687 { "kaddb", { MaskG
, MaskVex
, MaskR
}, 0 },
10690 /* MOD_VEX_W_1_0F4A_P_2_LEN_1 */
10692 { "kaddd", { MaskG
, MaskVex
, MaskR
}, 0 },
10695 /* MOD_VEX_W_0_0F4B_P_0_LEN_1 */
10697 { "kunpckwd", { MaskG
, MaskVex
, MaskR
}, 0 },
10700 /* MOD_VEX_W_1_0F4B_P_0_LEN_1 */
10702 { "kunpckdq", { MaskG
, MaskVex
, MaskR
}, 0 },
10705 /* MOD_VEX_W_0_0F4B_P_2_LEN_1 */
10707 { "kunpckbw", { MaskG
, MaskVex
, MaskR
}, 0 },
10712 { "vmovmskpX", { Gdq
, XS
}, 0 },
10715 /* MOD_VEX_0F71_REG_2 */
10717 { PREFIX_TABLE (PREFIX_VEX_0F71_REG_2
) },
10720 /* MOD_VEX_0F71_REG_4 */
10722 { PREFIX_TABLE (PREFIX_VEX_0F71_REG_4
) },
10725 /* MOD_VEX_0F71_REG_6 */
10727 { PREFIX_TABLE (PREFIX_VEX_0F71_REG_6
) },
10730 /* MOD_VEX_0F72_REG_2 */
10732 { PREFIX_TABLE (PREFIX_VEX_0F72_REG_2
) },
10735 /* MOD_VEX_0F72_REG_4 */
10737 { PREFIX_TABLE (PREFIX_VEX_0F72_REG_4
) },
10740 /* MOD_VEX_0F72_REG_6 */
10742 { PREFIX_TABLE (PREFIX_VEX_0F72_REG_6
) },
10745 /* MOD_VEX_0F73_REG_2 */
10747 { PREFIX_TABLE (PREFIX_VEX_0F73_REG_2
) },
10750 /* MOD_VEX_0F73_REG_3 */
10752 { PREFIX_TABLE (PREFIX_VEX_0F73_REG_3
) },
10755 /* MOD_VEX_0F73_REG_6 */
10757 { PREFIX_TABLE (PREFIX_VEX_0F73_REG_6
) },
10760 /* MOD_VEX_0F73_REG_7 */
10762 { PREFIX_TABLE (PREFIX_VEX_0F73_REG_7
) },
10765 /* MOD_VEX_W_0_0F91_P_0_LEN_0 */
10766 { "kmovw", { Ew
, MaskG
}, 0 },
10770 /* MOD_VEX_W_0_0F91_P_0_LEN_0 */
10771 { "kmovq", { Eq
, MaskG
}, 0 },
10775 /* MOD_VEX_W_0_0F91_P_2_LEN_0 */
10776 { "kmovb", { Eb
, MaskG
}, 0 },
10780 /* MOD_VEX_W_0_0F91_P_2_LEN_0 */
10781 { "kmovd", { Ed
, MaskG
}, 0 },
10785 /* MOD_VEX_W_0_0F92_P_0_LEN_0 */
10787 { "kmovw", { MaskG
, Rdq
}, 0 },
10790 /* MOD_VEX_W_0_0F92_P_2_LEN_0 */
10792 { "kmovb", { MaskG
, Rdq
}, 0 },
10795 /* MOD_VEX_0F92_P_3_LEN_0 */
10797 { "kmovK", { MaskG
, Rdq
}, 0 },
10800 /* MOD_VEX_W_0_0F93_P_0_LEN_0 */
10802 { "kmovw", { Gdq
, MaskR
}, 0 },
10805 /* MOD_VEX_W_0_0F93_P_2_LEN_0 */
10807 { "kmovb", { Gdq
, MaskR
}, 0 },
10810 /* MOD_VEX_0F93_P_3_LEN_0 */
10812 { "kmovK", { Gdq
, MaskR
}, 0 },
10815 /* MOD_VEX_W_0_0F98_P_0_LEN_0 */
10817 { "kortestw", { MaskG
, MaskR
}, 0 },
10820 /* MOD_VEX_W_1_0F98_P_0_LEN_0 */
10822 { "kortestq", { MaskG
, MaskR
}, 0 },
10825 /* MOD_VEX_W_0_0F98_P_2_LEN_0 */
10827 { "kortestb", { MaskG
, MaskR
}, 0 },
10830 /* MOD_VEX_W_1_0F98_P_2_LEN_0 */
10832 { "kortestd", { MaskG
, MaskR
}, 0 },
10835 /* MOD_VEX_W_0_0F99_P_0_LEN_0 */
10837 { "ktestw", { MaskG
, MaskR
}, 0 },
10840 /* MOD_VEX_W_1_0F99_P_0_LEN_0 */
10842 { "ktestq", { MaskG
, MaskR
}, 0 },
10845 /* MOD_VEX_W_0_0F99_P_2_LEN_0 */
10847 { "ktestb", { MaskG
, MaskR
}, 0 },
10850 /* MOD_VEX_W_1_0F99_P_2_LEN_0 */
10852 { "ktestd", { MaskG
, MaskR
}, 0 },
10855 /* MOD_VEX_0FAE_REG_2 */
10856 { VEX_LEN_TABLE (VEX_LEN_0FAE_R_2_M_0
) },
10859 /* MOD_VEX_0FAE_REG_3 */
10860 { VEX_LEN_TABLE (VEX_LEN_0FAE_R_3_M_0
) },
10863 /* MOD_VEX_0FD7_PREFIX_2 */
10865 { "vpmovmskb", { Gdq
, XS
}, 0 },
10868 /* MOD_VEX_0FE7_PREFIX_2 */
10869 { "vmovntdq", { Mx
, XM
}, 0 },
10872 /* MOD_VEX_0FF0_PREFIX_3 */
10873 { "vlddqu", { XM
, M
}, 0 },
10876 /* MOD_VEX_0F381A_PREFIX_2 */
10877 { VEX_LEN_TABLE (VEX_LEN_0F381A_P_2_M_0
) },
10880 /* MOD_VEX_0F382A_PREFIX_2 */
10881 { "vmovntdqa", { XM
, Mx
}, 0 },
10884 /* MOD_VEX_0F382C_PREFIX_2 */
10885 { VEX_W_TABLE (VEX_W_0F382C_P_2_M_0
) },
10888 /* MOD_VEX_0F382D_PREFIX_2 */
10889 { VEX_W_TABLE (VEX_W_0F382D_P_2_M_0
) },
10892 /* MOD_VEX_0F382E_PREFIX_2 */
10893 { VEX_W_TABLE (VEX_W_0F382E_P_2_M_0
) },
10896 /* MOD_VEX_0F382F_PREFIX_2 */
10897 { VEX_W_TABLE (VEX_W_0F382F_P_2_M_0
) },
10900 /* MOD_VEX_0F385A_PREFIX_2 */
10901 { VEX_LEN_TABLE (VEX_LEN_0F385A_P_2_M_0
) },
10904 /* MOD_VEX_0F388C_PREFIX_2 */
10905 { "vpmaskmov%LW", { XM
, Vex
, Mx
}, 0 },
10908 /* MOD_VEX_0F388E_PREFIX_2 */
10909 { "vpmaskmov%LW", { Mx
, Vex
, XM
}, 0 },
10912 /* MOD_VEX_W_0_0F3A30_P_2_LEN_0 */
10914 { "kshiftrb", { MaskG
, MaskR
, Ib
}, 0 },
10917 /* MOD_VEX_W_1_0F3A30_P_2_LEN_0 */
10919 { "kshiftrw", { MaskG
, MaskR
, Ib
}, 0 },
10922 /* MOD_VEX_W_0_0F3A31_P_2_LEN_0 */
10924 { "kshiftrd", { MaskG
, MaskR
, Ib
}, 0 },
10927 /* MOD_VEX_W_1_0F3A31_P_2_LEN_0 */
10929 { "kshiftrq", { MaskG
, MaskR
, Ib
}, 0 },
10932 /* MOD_VEX_W_0_0F3A32_P_2_LEN_0 */
10934 { "kshiftlb", { MaskG
, MaskR
, Ib
}, 0 },
10937 /* MOD_VEX_W_1_0F3A32_P_2_LEN_0 */
10939 { "kshiftlw", { MaskG
, MaskR
, Ib
}, 0 },
10942 /* MOD_VEX_W_0_0F3A33_P_2_LEN_0 */
10944 { "kshiftld", { MaskG
, MaskR
, Ib
}, 0 },
10947 /* MOD_VEX_W_1_0F3A33_P_2_LEN_0 */
10949 { "kshiftlq", { MaskG
, MaskR
, Ib
}, 0 },
10952 #include "i386-dis-evex-mod.h"
10955 static const struct dis386 rm_table
[][8] = {
10958 { "xabort", { Skip_MODRM
, Ib
}, 0 },
10962 { "xbeginT", { Skip_MODRM
, Jv
}, 0 },
10965 /* RM_0F01_REG_0 */
10966 { "enclv", { Skip_MODRM
}, 0 },
10967 { "vmcall", { Skip_MODRM
}, 0 },
10968 { "vmlaunch", { Skip_MODRM
}, 0 },
10969 { "vmresume", { Skip_MODRM
}, 0 },
10970 { "vmxoff", { Skip_MODRM
}, 0 },
10971 { "pconfig", { Skip_MODRM
}, 0 },
10974 /* RM_0F01_REG_1 */
10975 { "monitor", { { OP_Monitor
, 0 } }, 0 },
10976 { "mwait", { { OP_Mwait
, 0 } }, 0 },
10977 { "clac", { Skip_MODRM
}, 0 },
10978 { "stac", { Skip_MODRM
}, 0 },
10982 { "encls", { Skip_MODRM
}, 0 },
10985 /* RM_0F01_REG_2 */
10986 { "xgetbv", { Skip_MODRM
}, 0 },
10987 { "xsetbv", { Skip_MODRM
}, 0 },
10990 { "vmfunc", { Skip_MODRM
}, 0 },
10991 { "xend", { Skip_MODRM
}, 0 },
10992 { "xtest", { Skip_MODRM
}, 0 },
10993 { "enclu", { Skip_MODRM
}, 0 },
10996 /* RM_0F01_REG_3 */
10997 { "vmrun", { Skip_MODRM
}, 0 },
10998 { "vmmcall", { Skip_MODRM
}, 0 },
10999 { "vmload", { Skip_MODRM
}, 0 },
11000 { "vmsave", { Skip_MODRM
}, 0 },
11001 { "stgi", { Skip_MODRM
}, 0 },
11002 { "clgi", { Skip_MODRM
}, 0 },
11003 { "skinit", { Skip_MODRM
}, 0 },
11004 { "invlpga", { Skip_MODRM
}, 0 },
11007 /* RM_0F01_REG_5 */
11008 { PREFIX_TABLE (PREFIX_MOD_3_0F01_REG_5_RM_0
) },
11010 { PREFIX_TABLE (PREFIX_MOD_3_0F01_REG_5_RM_2
) },
11014 { "rdpkru", { Skip_MODRM
}, 0 },
11015 { "wrpkru", { Skip_MODRM
}, 0 },
11018 /* RM_0F01_REG_7 */
11019 { "swapgs", { Skip_MODRM
}, 0 },
11020 { "rdtscp", { Skip_MODRM
}, 0 },
11021 { "monitorx", { { OP_Monitor
, 0 } }, 0 },
11022 { "mwaitx", { { OP_Mwaitx
, 0 } }, 0 },
11023 { "clzero", { Skip_MODRM
}, 0 },
11026 /* RM_0F1E_MOD_3_REG_7 */
11027 { "nopQ", { Ev
}, 0 },
11028 { "nopQ", { Ev
}, 0 },
11029 { "endbr64", { Skip_MODRM
}, PREFIX_OPCODE
},
11030 { "endbr32", { Skip_MODRM
}, PREFIX_OPCODE
},
11031 { "nopQ", { Ev
}, 0 },
11032 { "nopQ", { Ev
}, 0 },
11033 { "nopQ", { Ev
}, 0 },
11034 { "nopQ", { Ev
}, 0 },
11037 /* RM_0FAE_REG_6 */
11038 { "mfence", { Skip_MODRM
}, 0 },
11041 /* RM_0FAE_REG_7 */
11042 { "sfence", { Skip_MODRM
}, 0 },
11047 #define INTERNAL_DISASSEMBLER_ERROR _("<internal disassembler error>")
11049 /* We use the high bit to indicate different name for the same
11051 #define REP_PREFIX (0xf3 | 0x100)
11052 #define XACQUIRE_PREFIX (0xf2 | 0x200)
11053 #define XRELEASE_PREFIX (0xf3 | 0x400)
11054 #define BND_PREFIX (0xf2 | 0x400)
11055 #define NOTRACK_PREFIX (0x3e | 0x100)
11060 int newrex
, i
, length
;
11066 last_lock_prefix
= -1;
11067 last_repz_prefix
= -1;
11068 last_repnz_prefix
= -1;
11069 last_data_prefix
= -1;
11070 last_addr_prefix
= -1;
11071 last_rex_prefix
= -1;
11072 last_seg_prefix
= -1;
11074 active_seg_prefix
= 0;
11075 for (i
= 0; i
< (int) ARRAY_SIZE (all_prefixes
); i
++)
11076 all_prefixes
[i
] = 0;
11079 /* The maximum instruction length is 15bytes. */
11080 while (length
< MAX_CODE_LENGTH
- 1)
11082 FETCH_DATA (the_info
, codep
+ 1);
11086 /* REX prefixes family. */
11103 if (address_mode
== mode_64bit
)
11107 last_rex_prefix
= i
;
11110 prefixes
|= PREFIX_REPZ
;
11111 last_repz_prefix
= i
;
11114 prefixes
|= PREFIX_REPNZ
;
11115 last_repnz_prefix
= i
;
11118 prefixes
|= PREFIX_LOCK
;
11119 last_lock_prefix
= i
;
11122 prefixes
|= PREFIX_CS
;
11123 last_seg_prefix
= i
;
11124 active_seg_prefix
= PREFIX_CS
;
11127 prefixes
|= PREFIX_SS
;
11128 last_seg_prefix
= i
;
11129 active_seg_prefix
= PREFIX_SS
;
11132 prefixes
|= PREFIX_DS
;
11133 last_seg_prefix
= i
;
11134 active_seg_prefix
= PREFIX_DS
;
11137 prefixes
|= PREFIX_ES
;
11138 last_seg_prefix
= i
;
11139 active_seg_prefix
= PREFIX_ES
;
11142 prefixes
|= PREFIX_FS
;
11143 last_seg_prefix
= i
;
11144 active_seg_prefix
= PREFIX_FS
;
11147 prefixes
|= PREFIX_GS
;
11148 last_seg_prefix
= i
;
11149 active_seg_prefix
= PREFIX_GS
;
11152 prefixes
|= PREFIX_DATA
;
11153 last_data_prefix
= i
;
11156 prefixes
|= PREFIX_ADDR
;
11157 last_addr_prefix
= i
;
11160 /* fwait is really an instruction. If there are prefixes
11161 before the fwait, they belong to the fwait, *not* to the
11162 following instruction. */
11164 if (prefixes
|| rex
)
11166 prefixes
|= PREFIX_FWAIT
;
11168 /* This ensures that the previous REX prefixes are noticed
11169 as unused prefixes, as in the return case below. */
11173 prefixes
= PREFIX_FWAIT
;
11178 /* Rex is ignored when followed by another prefix. */
11184 if (*codep
!= FWAIT_OPCODE
)
11185 all_prefixes
[i
++] = *codep
;
11193 /* Return the name of the prefix byte PREF, or NULL if PREF is not a
11196 static const char *
11197 prefix_name (int pref
, int sizeflag
)
11199 static const char *rexes
[16] =
11202 "rex.B", /* 0x41 */
11203 "rex.X", /* 0x42 */
11204 "rex.XB", /* 0x43 */
11205 "rex.R", /* 0x44 */
11206 "rex.RB", /* 0x45 */
11207 "rex.RX", /* 0x46 */
11208 "rex.RXB", /* 0x47 */
11209 "rex.W", /* 0x48 */
11210 "rex.WB", /* 0x49 */
11211 "rex.WX", /* 0x4a */
11212 "rex.WXB", /* 0x4b */
11213 "rex.WR", /* 0x4c */
11214 "rex.WRB", /* 0x4d */
11215 "rex.WRX", /* 0x4e */
11216 "rex.WRXB", /* 0x4f */
11221 /* REX prefixes family. */
11238 return rexes
[pref
- 0x40];
11258 return (sizeflag
& DFLAG
) ? "data16" : "data32";
11260 if (address_mode
== mode_64bit
)
11261 return (sizeflag
& AFLAG
) ? "addr32" : "addr64";
11263 return (sizeflag
& AFLAG
) ? "addr16" : "addr32";
11268 case XACQUIRE_PREFIX
:
11270 case XRELEASE_PREFIX
:
11274 case NOTRACK_PREFIX
:
11281 static char op_out
[MAX_OPERANDS
][100];
11282 static int op_ad
, op_index
[MAX_OPERANDS
];
11283 static int two_source_ops
;
11284 static bfd_vma op_address
[MAX_OPERANDS
];
11285 static bfd_vma op_riprel
[MAX_OPERANDS
];
11286 static bfd_vma start_pc
;
11289 * On the 386's of 1988, the maximum length of an instruction is 15 bytes.
11290 * (see topic "Redundant prefixes" in the "Differences from 8086"
11291 * section of the "Virtual 8086 Mode" chapter.)
11292 * 'pc' should be the address of this instruction, it will
11293 * be used to print the target address if this is a relative jump or call
11294 * The function returns the length of this instruction in bytes.
11297 static char intel_syntax
;
11298 static char intel_mnemonic
= !SYSV386_COMPAT
;
11299 static char open_char
;
11300 static char close_char
;
11301 static char separator_char
;
11302 static char scale_char
;
11310 static enum x86_64_isa isa64
;
11312 /* Here for backwards compatibility. When gdb stops using
11313 print_insn_i386_att and print_insn_i386_intel these functions can
11314 disappear, and print_insn_i386 be merged into print_insn. */
11316 print_insn_i386_att (bfd_vma pc
, disassemble_info
*info
)
11320 return print_insn (pc
, info
);
11324 print_insn_i386_intel (bfd_vma pc
, disassemble_info
*info
)
11328 return print_insn (pc
, info
);
11332 print_insn_i386 (bfd_vma pc
, disassemble_info
*info
)
11336 return print_insn (pc
, info
);
11340 print_i386_disassembler_options (FILE *stream
)
11342 fprintf (stream
, _("\n\
11343 The following i386/x86-64 specific disassembler options are supported for use\n\
11344 with the -M switch (multiple options should be separated by commas):\n"));
11346 fprintf (stream
, _(" x86-64 Disassemble in 64bit mode\n"));
11347 fprintf (stream
, _(" i386 Disassemble in 32bit mode\n"));
11348 fprintf (stream
, _(" i8086 Disassemble in 16bit mode\n"));
11349 fprintf (stream
, _(" att Display instruction in AT&T syntax\n"));
11350 fprintf (stream
, _(" intel Display instruction in Intel syntax\n"));
11351 fprintf (stream
, _(" att-mnemonic\n"
11352 " Display instruction in AT&T mnemonic\n"));
11353 fprintf (stream
, _(" intel-mnemonic\n"
11354 " Display instruction in Intel mnemonic\n"));
11355 fprintf (stream
, _(" addr64 Assume 64bit address size\n"));
11356 fprintf (stream
, _(" addr32 Assume 32bit address size\n"));
11357 fprintf (stream
, _(" addr16 Assume 16bit address size\n"));
11358 fprintf (stream
, _(" data32 Assume 32bit data size\n"));
11359 fprintf (stream
, _(" data16 Assume 16bit data size\n"));
11360 fprintf (stream
, _(" suffix Always display instruction suffix in AT&T syntax\n"));
11361 fprintf (stream
, _(" amd64 Display instruction in AMD64 ISA\n"));
11362 fprintf (stream
, _(" intel64 Display instruction in Intel64 ISA\n"));
11366 static const struct dis386 bad_opcode
= { "(bad)", { XX
}, 0 };
11368 /* Get a pointer to struct dis386 with a valid name. */
11370 static const struct dis386
*
11371 get_valid_dis386 (const struct dis386
*dp
, disassemble_info
*info
)
11373 int vindex
, vex_table_index
;
11375 if (dp
->name
!= NULL
)
11378 switch (dp
->op
[0].bytemode
)
11380 case USE_REG_TABLE
:
11381 dp
= ®_table
[dp
->op
[1].bytemode
][modrm
.reg
];
11384 case USE_MOD_TABLE
:
11385 vindex
= modrm
.mod
== 0x3 ? 1 : 0;
11386 dp
= &mod_table
[dp
->op
[1].bytemode
][vindex
];
11390 dp
= &rm_table
[dp
->op
[1].bytemode
][modrm
.rm
];
11393 case USE_PREFIX_TABLE
:
11396 /* The prefix in VEX is implicit. */
11397 switch (vex
.prefix
)
11402 case REPE_PREFIX_OPCODE
:
11405 case DATA_PREFIX_OPCODE
:
11408 case REPNE_PREFIX_OPCODE
:
11418 int last_prefix
= -1;
11421 /* We check PREFIX_REPNZ and PREFIX_REPZ before PREFIX_DATA.
11422 When there are multiple PREFIX_REPNZ and PREFIX_REPZ, the
11424 if ((prefixes
& (PREFIX_REPZ
| PREFIX_REPNZ
)) != 0)
11426 if (last_repz_prefix
> last_repnz_prefix
)
11429 prefix
= PREFIX_REPZ
;
11430 last_prefix
= last_repz_prefix
;
11435 prefix
= PREFIX_REPNZ
;
11436 last_prefix
= last_repnz_prefix
;
11439 /* Check if prefix should be ignored. */
11440 if ((((prefix_table
[dp
->op
[1].bytemode
][vindex
].prefix_requirement
11441 & PREFIX_IGNORED
) >> PREFIX_IGNORED_SHIFT
)
11446 if (vindex
== 0 && (prefixes
& PREFIX_DATA
) != 0)
11449 prefix
= PREFIX_DATA
;
11450 last_prefix
= last_data_prefix
;
11455 used_prefixes
|= prefix
;
11456 all_prefixes
[last_prefix
] = 0;
11459 dp
= &prefix_table
[dp
->op
[1].bytemode
][vindex
];
11462 case USE_X86_64_TABLE
:
11463 vindex
= address_mode
== mode_64bit
? 1 : 0;
11464 dp
= &x86_64_table
[dp
->op
[1].bytemode
][vindex
];
11467 case USE_3BYTE_TABLE
:
11468 FETCH_DATA (info
, codep
+ 2);
11470 dp
= &three_byte_table
[dp
->op
[1].bytemode
][vindex
];
11472 modrm
.mod
= (*codep
>> 6) & 3;
11473 modrm
.reg
= (*codep
>> 3) & 7;
11474 modrm
.rm
= *codep
& 7;
11477 case USE_VEX_LEN_TABLE
:
11481 switch (vex
.length
)
11494 dp
= &vex_len_table
[dp
->op
[1].bytemode
][vindex
];
11497 case USE_EVEX_LEN_TABLE
:
11501 switch (vex
.length
)
11517 dp
= &evex_len_table
[dp
->op
[1].bytemode
][vindex
];
11520 case USE_XOP_8F_TABLE
:
11521 FETCH_DATA (info
, codep
+ 3);
11522 /* All bits in the REX prefix are ignored. */
11524 rex
= ~(*codep
>> 5) & 0x7;
11526 /* VEX_TABLE_INDEX is the mmmmm part of the XOP byte 1 "RCB.mmmmm". */
11527 switch ((*codep
& 0x1f))
11533 vex_table_index
= XOP_08
;
11536 vex_table_index
= XOP_09
;
11539 vex_table_index
= XOP_0A
;
11543 vex
.w
= *codep
& 0x80;
11544 if (vex
.w
&& address_mode
== mode_64bit
)
11547 vex
.register_specifier
= (~(*codep
>> 3)) & 0xf;
11548 if (address_mode
!= mode_64bit
)
11550 /* In 16/32-bit mode REX_B is silently ignored. */
11554 vex
.length
= (*codep
& 0x4) ? 256 : 128;
11555 switch ((*codep
& 0x3))
11560 vex
.prefix
= DATA_PREFIX_OPCODE
;
11563 vex
.prefix
= REPE_PREFIX_OPCODE
;
11566 vex
.prefix
= REPNE_PREFIX_OPCODE
;
11573 dp
= &xop_table
[vex_table_index
][vindex
];
11576 FETCH_DATA (info
, codep
+ 1);
11577 modrm
.mod
= (*codep
>> 6) & 3;
11578 modrm
.reg
= (*codep
>> 3) & 7;
11579 modrm
.rm
= *codep
& 7;
11582 case USE_VEX_C4_TABLE
:
11584 FETCH_DATA (info
, codep
+ 3);
11585 /* All bits in the REX prefix are ignored. */
11587 rex
= ~(*codep
>> 5) & 0x7;
11588 switch ((*codep
& 0x1f))
11594 vex_table_index
= VEX_0F
;
11597 vex_table_index
= VEX_0F38
;
11600 vex_table_index
= VEX_0F3A
;
11604 vex
.w
= *codep
& 0x80;
11605 if (address_mode
== mode_64bit
)
11612 /* For the 3-byte VEX prefix in 32-bit mode, the REX_B bit
11613 is ignored, other REX bits are 0 and the highest bit in
11614 VEX.vvvv is also ignored (but we mustn't clear it here). */
11617 vex
.register_specifier
= (~(*codep
>> 3)) & 0xf;
11618 vex
.length
= (*codep
& 0x4) ? 256 : 128;
11619 switch ((*codep
& 0x3))
11624 vex
.prefix
= DATA_PREFIX_OPCODE
;
11627 vex
.prefix
= REPE_PREFIX_OPCODE
;
11630 vex
.prefix
= REPNE_PREFIX_OPCODE
;
11637 dp
= &vex_table
[vex_table_index
][vindex
];
11639 /* There is no MODRM byte for VEX0F 77. */
11640 if (vex_table_index
!= VEX_0F
|| vindex
!= 0x77)
11642 FETCH_DATA (info
, codep
+ 1);
11643 modrm
.mod
= (*codep
>> 6) & 3;
11644 modrm
.reg
= (*codep
>> 3) & 7;
11645 modrm
.rm
= *codep
& 7;
11649 case USE_VEX_C5_TABLE
:
11651 FETCH_DATA (info
, codep
+ 2);
11652 /* All bits in the REX prefix are ignored. */
11654 rex
= (*codep
& 0x80) ? 0 : REX_R
;
11656 /* For the 2-byte VEX prefix in 32-bit mode, the highest bit in
11658 vex
.register_specifier
= (~(*codep
>> 3)) & 0xf;
11659 vex
.length
= (*codep
& 0x4) ? 256 : 128;
11660 switch ((*codep
& 0x3))
11665 vex
.prefix
= DATA_PREFIX_OPCODE
;
11668 vex
.prefix
= REPE_PREFIX_OPCODE
;
11671 vex
.prefix
= REPNE_PREFIX_OPCODE
;
11678 dp
= &vex_table
[dp
->op
[1].bytemode
][vindex
];
11680 /* There is no MODRM byte for VEX 77. */
11681 if (vindex
!= 0x77)
11683 FETCH_DATA (info
, codep
+ 1);
11684 modrm
.mod
= (*codep
>> 6) & 3;
11685 modrm
.reg
= (*codep
>> 3) & 7;
11686 modrm
.rm
= *codep
& 7;
11690 case USE_VEX_W_TABLE
:
11694 dp
= &vex_w_table
[dp
->op
[1].bytemode
][vex
.w
? 1 : 0];
11697 case USE_EVEX_TABLE
:
11698 two_source_ops
= 0;
11701 FETCH_DATA (info
, codep
+ 4);
11702 /* All bits in the REX prefix are ignored. */
11704 /* The first byte after 0x62. */
11705 rex
= ~(*codep
>> 5) & 0x7;
11706 vex
.r
= *codep
& 0x10;
11707 switch ((*codep
& 0xf))
11710 return &bad_opcode
;
11712 vex_table_index
= EVEX_0F
;
11715 vex_table_index
= EVEX_0F38
;
11718 vex_table_index
= EVEX_0F3A
;
11722 /* The second byte after 0x62. */
11724 vex
.w
= *codep
& 0x80;
11725 if (vex
.w
&& address_mode
== mode_64bit
)
11728 vex
.register_specifier
= (~(*codep
>> 3)) & 0xf;
11731 if (!(*codep
& 0x4))
11732 return &bad_opcode
;
11734 switch ((*codep
& 0x3))
11739 vex
.prefix
= DATA_PREFIX_OPCODE
;
11742 vex
.prefix
= REPE_PREFIX_OPCODE
;
11745 vex
.prefix
= REPNE_PREFIX_OPCODE
;
11749 /* The third byte after 0x62. */
11752 /* Remember the static rounding bits. */
11753 vex
.ll
= (*codep
>> 5) & 3;
11754 vex
.b
= (*codep
& 0x10) != 0;
11756 vex
.v
= *codep
& 0x8;
11757 vex
.mask_register_specifier
= *codep
& 0x7;
11758 vex
.zeroing
= *codep
& 0x80;
11760 if (address_mode
!= mode_64bit
)
11762 /* In 16/32-bit mode silently ignore following bits. */
11772 dp
= &evex_table
[vex_table_index
][vindex
];
11774 FETCH_DATA (info
, codep
+ 1);
11775 modrm
.mod
= (*codep
>> 6) & 3;
11776 modrm
.reg
= (*codep
>> 3) & 7;
11777 modrm
.rm
= *codep
& 7;
11779 /* Set vector length. */
11780 if (modrm
.mod
== 3 && vex
.b
)
11796 return &bad_opcode
;
11809 if (dp
->name
!= NULL
)
11812 return get_valid_dis386 (dp
, info
);
11816 get_sib (disassemble_info
*info
, int sizeflag
)
11818 /* If modrm.mod == 3, operand must be register. */
11820 && ((sizeflag
& AFLAG
) || address_mode
== mode_64bit
)
11824 FETCH_DATA (info
, codep
+ 2);
11825 sib
.index
= (codep
[1] >> 3) & 7;
11826 sib
.scale
= (codep
[1] >> 6) & 3;
11827 sib
.base
= codep
[1] & 7;
11832 print_insn (bfd_vma pc
, disassemble_info
*info
)
11834 const struct dis386
*dp
;
11836 char *op_txt
[MAX_OPERANDS
];
11838 int sizeflag
, orig_sizeflag
;
11840 struct dis_private priv
;
11843 priv
.orig_sizeflag
= AFLAG
| DFLAG
;
11844 if ((info
->mach
& bfd_mach_i386_i386
) != 0)
11845 address_mode
= mode_32bit
;
11846 else if (info
->mach
== bfd_mach_i386_i8086
)
11848 address_mode
= mode_16bit
;
11849 priv
.orig_sizeflag
= 0;
11852 address_mode
= mode_64bit
;
11854 if (intel_syntax
== (char) -1)
11855 intel_syntax
= (info
->mach
& bfd_mach_i386_intel_syntax
) != 0;
11857 for (p
= info
->disassembler_options
; p
!= NULL
; )
11859 if (CONST_STRNEQ (p
, "amd64"))
11861 else if (CONST_STRNEQ (p
, "intel64"))
11863 else if (CONST_STRNEQ (p
, "x86-64"))
11865 address_mode
= mode_64bit
;
11866 priv
.orig_sizeflag
= AFLAG
| DFLAG
;
11868 else if (CONST_STRNEQ (p
, "i386"))
11870 address_mode
= mode_32bit
;
11871 priv
.orig_sizeflag
= AFLAG
| DFLAG
;
11873 else if (CONST_STRNEQ (p
, "i8086"))
11875 address_mode
= mode_16bit
;
11876 priv
.orig_sizeflag
= 0;
11878 else if (CONST_STRNEQ (p
, "intel"))
11881 if (CONST_STRNEQ (p
+ 5, "-mnemonic"))
11882 intel_mnemonic
= 1;
11884 else if (CONST_STRNEQ (p
, "att"))
11887 if (CONST_STRNEQ (p
+ 3, "-mnemonic"))
11888 intel_mnemonic
= 0;
11890 else if (CONST_STRNEQ (p
, "addr"))
11892 if (address_mode
== mode_64bit
)
11894 if (p
[4] == '3' && p
[5] == '2')
11895 priv
.orig_sizeflag
&= ~AFLAG
;
11896 else if (p
[4] == '6' && p
[5] == '4')
11897 priv
.orig_sizeflag
|= AFLAG
;
11901 if (p
[4] == '1' && p
[5] == '6')
11902 priv
.orig_sizeflag
&= ~AFLAG
;
11903 else if (p
[4] == '3' && p
[5] == '2')
11904 priv
.orig_sizeflag
|= AFLAG
;
11907 else if (CONST_STRNEQ (p
, "data"))
11909 if (p
[4] == '1' && p
[5] == '6')
11910 priv
.orig_sizeflag
&= ~DFLAG
;
11911 else if (p
[4] == '3' && p
[5] == '2')
11912 priv
.orig_sizeflag
|= DFLAG
;
11914 else if (CONST_STRNEQ (p
, "suffix"))
11915 priv
.orig_sizeflag
|= SUFFIX_ALWAYS
;
11917 p
= strchr (p
, ',');
11922 if (address_mode
== mode_64bit
&& sizeof (bfd_vma
) < 8)
11924 (*info
->fprintf_func
) (info
->stream
,
11925 _("64-bit address is disabled"));
11931 names64
= intel_names64
;
11932 names32
= intel_names32
;
11933 names16
= intel_names16
;
11934 names8
= intel_names8
;
11935 names8rex
= intel_names8rex
;
11936 names_seg
= intel_names_seg
;
11937 names_mm
= intel_names_mm
;
11938 names_bnd
= intel_names_bnd
;
11939 names_xmm
= intel_names_xmm
;
11940 names_ymm
= intel_names_ymm
;
11941 names_zmm
= intel_names_zmm
;
11942 index64
= intel_index64
;
11943 index32
= intel_index32
;
11944 names_mask
= intel_names_mask
;
11945 index16
= intel_index16
;
11948 separator_char
= '+';
11953 names64
= att_names64
;
11954 names32
= att_names32
;
11955 names16
= att_names16
;
11956 names8
= att_names8
;
11957 names8rex
= att_names8rex
;
11958 names_seg
= att_names_seg
;
11959 names_mm
= att_names_mm
;
11960 names_bnd
= att_names_bnd
;
11961 names_xmm
= att_names_xmm
;
11962 names_ymm
= att_names_ymm
;
11963 names_zmm
= att_names_zmm
;
11964 index64
= att_index64
;
11965 index32
= att_index32
;
11966 names_mask
= att_names_mask
;
11967 index16
= att_index16
;
11970 separator_char
= ',';
11974 /* The output looks better if we put 7 bytes on a line, since that
11975 puts most long word instructions on a single line. Use 8 bytes
11977 if ((info
->mach
& bfd_mach_l1om
) != 0)
11978 info
->bytes_per_line
= 8;
11980 info
->bytes_per_line
= 7;
11982 info
->private_data
= &priv
;
11983 priv
.max_fetched
= priv
.the_buffer
;
11984 priv
.insn_start
= pc
;
11987 for (i
= 0; i
< MAX_OPERANDS
; ++i
)
11995 start_codep
= priv
.the_buffer
;
11996 codep
= priv
.the_buffer
;
11998 if (OPCODES_SIGSETJMP (priv
.bailout
) != 0)
12002 /* Getting here means we tried for data but didn't get it. That
12003 means we have an incomplete instruction of some sort. Just
12004 print the first byte as a prefix or a .byte pseudo-op. */
12005 if (codep
> priv
.the_buffer
)
12007 name
= prefix_name (priv
.the_buffer
[0], priv
.orig_sizeflag
);
12009 (*info
->fprintf_func
) (info
->stream
, "%s", name
);
12012 /* Just print the first byte as a .byte instruction. */
12013 (*info
->fprintf_func
) (info
->stream
, ".byte 0x%x",
12014 (unsigned int) priv
.the_buffer
[0]);
12024 sizeflag
= priv
.orig_sizeflag
;
12026 if (!ckprefix () || rex_used
)
12028 /* Too many prefixes or unused REX prefixes. */
12030 i
< (int) ARRAY_SIZE (all_prefixes
) && all_prefixes
[i
];
12032 (*info
->fprintf_func
) (info
->stream
, "%s%s",
12034 prefix_name (all_prefixes
[i
], sizeflag
));
12038 insn_codep
= codep
;
12040 FETCH_DATA (info
, codep
+ 1);
12041 two_source_ops
= (*codep
== 0x62) || (*codep
== 0xc8);
12043 if (((prefixes
& PREFIX_FWAIT
)
12044 && ((*codep
< 0xd8) || (*codep
> 0xdf))))
12046 /* Handle prefixes before fwait. */
12047 for (i
= 0; i
< fwait_prefix
&& all_prefixes
[i
];
12049 (*info
->fprintf_func
) (info
->stream
, "%s ",
12050 prefix_name (all_prefixes
[i
], sizeflag
));
12051 (*info
->fprintf_func
) (info
->stream
, "fwait");
12055 if (*codep
== 0x0f)
12057 unsigned char threebyte
;
12060 FETCH_DATA (info
, codep
+ 1);
12061 threebyte
= *codep
;
12062 dp
= &dis386_twobyte
[threebyte
];
12063 need_modrm
= twobyte_has_modrm
[*codep
];
12068 dp
= &dis386
[*codep
];
12069 need_modrm
= onebyte_has_modrm
[*codep
];
12073 /* Save sizeflag for printing the extra prefixes later before updating
12074 it for mnemonic and operand processing. The prefix names depend
12075 only on the address mode. */
12076 orig_sizeflag
= sizeflag
;
12077 if (prefixes
& PREFIX_ADDR
)
12079 if ((prefixes
& PREFIX_DATA
))
12085 FETCH_DATA (info
, codep
+ 1);
12086 modrm
.mod
= (*codep
>> 6) & 3;
12087 modrm
.reg
= (*codep
>> 3) & 7;
12088 modrm
.rm
= *codep
& 7;
12094 memset (&vex
, 0, sizeof (vex
));
12096 if (dp
->name
== NULL
&& dp
->op
[0].bytemode
== FLOATCODE
)
12098 get_sib (info
, sizeflag
);
12099 dofloat (sizeflag
);
12103 dp
= get_valid_dis386 (dp
, info
);
12104 if (dp
!= NULL
&& putop (dp
->name
, sizeflag
) == 0)
12106 get_sib (info
, sizeflag
);
12107 for (i
= 0; i
< MAX_OPERANDS
; ++i
)
12110 op_ad
= MAX_OPERANDS
- 1 - i
;
12112 (*dp
->op
[i
].rtn
) (dp
->op
[i
].bytemode
, sizeflag
);
12113 /* For EVEX instruction after the last operand masking
12114 should be printed. */
12115 if (i
== 0 && vex
.evex
)
12117 /* Don't print {%k0}. */
12118 if (vex
.mask_register_specifier
)
12121 oappend (names_mask
[vex
.mask_register_specifier
]);
12131 /* If VEX.vvvv and EVEX.vvvv are unused, they must be all 1s, which
12132 are all 0s in inverted form. */
12133 if (need_vex
&& vex
.register_specifier
!= 0)
12135 (*info
->fprintf_func
) (info
->stream
, "(bad)");
12136 return end_codep
- priv
.the_buffer
;
12139 /* Check if the REX prefix is used. */
12140 if (rex_ignored
== 0 && (rex
^ rex_used
) == 0 && last_rex_prefix
>= 0)
12141 all_prefixes
[last_rex_prefix
] = 0;
12143 /* Check if the SEG prefix is used. */
12144 if ((prefixes
& (PREFIX_CS
| PREFIX_SS
| PREFIX_DS
| PREFIX_ES
12145 | PREFIX_FS
| PREFIX_GS
)) != 0
12146 && (used_prefixes
& active_seg_prefix
) != 0)
12147 all_prefixes
[last_seg_prefix
] = 0;
12149 /* Check if the ADDR prefix is used. */
12150 if ((prefixes
& PREFIX_ADDR
) != 0
12151 && (used_prefixes
& PREFIX_ADDR
) != 0)
12152 all_prefixes
[last_addr_prefix
] = 0;
12154 /* Check if the DATA prefix is used. */
12155 if ((prefixes
& PREFIX_DATA
) != 0
12156 && (used_prefixes
& PREFIX_DATA
) != 0)
12157 all_prefixes
[last_data_prefix
] = 0;
12159 /* Print the extra prefixes. */
12161 for (i
= 0; i
< (int) ARRAY_SIZE (all_prefixes
); i
++)
12162 if (all_prefixes
[i
])
12165 name
= prefix_name (all_prefixes
[i
], orig_sizeflag
);
12168 prefix_length
+= strlen (name
) + 1;
12169 (*info
->fprintf_func
) (info
->stream
, "%s ", name
);
12172 /* If the mandatory PREFIX_REPZ/PREFIX_REPNZ/PREFIX_DATA prefix is
12173 unused, opcode is invalid. Since the PREFIX_DATA prefix may be
12174 used by putop and MMX/SSE operand and may be overriden by the
12175 PREFIX_REPZ/PREFIX_REPNZ fix, we check the PREFIX_DATA prefix
12177 if (dp
->prefix_requirement
== PREFIX_OPCODE
12178 && dp
!= &bad_opcode
12180 & (PREFIX_REPZ
| PREFIX_REPNZ
)) != 0
12182 & (PREFIX_REPZ
| PREFIX_REPNZ
)) == 0)
12184 & (PREFIX_REPZ
| PREFIX_REPNZ
| PREFIX_DATA
))
12186 && (used_prefixes
& PREFIX_DATA
) == 0))))
12188 (*info
->fprintf_func
) (info
->stream
, "(bad)");
12189 return end_codep
- priv
.the_buffer
;
12192 /* Check maximum code length. */
12193 if ((codep
- start_codep
) > MAX_CODE_LENGTH
)
12195 (*info
->fprintf_func
) (info
->stream
, "(bad)");
12196 return MAX_CODE_LENGTH
;
12199 obufp
= mnemonicendp
;
12200 for (i
= strlen (obuf
) + prefix_length
; i
< 6; i
++)
12203 (*info
->fprintf_func
) (info
->stream
, "%s", obuf
);
12205 /* The enter and bound instructions are printed with operands in the same
12206 order as the intel book; everything else is printed in reverse order. */
12207 if (intel_syntax
|| two_source_ops
)
12211 for (i
= 0; i
< MAX_OPERANDS
; ++i
)
12212 op_txt
[i
] = op_out
[i
];
12214 if (intel_syntax
&& dp
&& dp
->op
[2].rtn
== OP_Rounding
12215 && dp
->op
[3].rtn
== OP_E
&& dp
->op
[4].rtn
== NULL
)
12217 op_txt
[2] = op_out
[3];
12218 op_txt
[3] = op_out
[2];
12221 for (i
= 0; i
< (MAX_OPERANDS
>> 1); ++i
)
12223 op_ad
= op_index
[i
];
12224 op_index
[i
] = op_index
[MAX_OPERANDS
- 1 - i
];
12225 op_index
[MAX_OPERANDS
- 1 - i
] = op_ad
;
12226 riprel
= op_riprel
[i
];
12227 op_riprel
[i
] = op_riprel
[MAX_OPERANDS
- 1 - i
];
12228 op_riprel
[MAX_OPERANDS
- 1 - i
] = riprel
;
12233 for (i
= 0; i
< MAX_OPERANDS
; ++i
)
12234 op_txt
[MAX_OPERANDS
- 1 - i
] = op_out
[i
];
12238 for (i
= 0; i
< MAX_OPERANDS
; ++i
)
12242 (*info
->fprintf_func
) (info
->stream
, ",");
12243 if (op_index
[i
] != -1 && !op_riprel
[i
])
12244 (*info
->print_address_func
) ((bfd_vma
) op_address
[op_index
[i
]], info
);
12246 (*info
->fprintf_func
) (info
->stream
, "%s", op_txt
[i
]);
12250 for (i
= 0; i
< MAX_OPERANDS
; i
++)
12251 if (op_index
[i
] != -1 && op_riprel
[i
])
12253 (*info
->fprintf_func
) (info
->stream
, " # ");
12254 (*info
->print_address_func
) ((bfd_vma
) (start_pc
+ (codep
- start_codep
)
12255 + op_address
[op_index
[i
]]), info
);
12258 return codep
- priv
.the_buffer
;
12261 static const char *float_mem
[] = {
12336 static const unsigned char float_mem_mode
[] = {
12411 #define ST { OP_ST, 0 }
12412 #define STi { OP_STi, 0 }
12414 #define FGRPd9_2 NULL, { { NULL, 1 } }, 0
12415 #define FGRPd9_4 NULL, { { NULL, 2 } }, 0
12416 #define FGRPd9_5 NULL, { { NULL, 3 } }, 0
12417 #define FGRPd9_6 NULL, { { NULL, 4 } }, 0
12418 #define FGRPd9_7 NULL, { { NULL, 5 } }, 0
12419 #define FGRPda_5 NULL, { { NULL, 6 } }, 0
12420 #define FGRPdb_4 NULL, { { NULL, 7 } }, 0
12421 #define FGRPde_3 NULL, { { NULL, 8 } }, 0
12422 #define FGRPdf_4 NULL, { { NULL, 9 } }, 0
12424 static const struct dis386 float_reg
[][8] = {
12427 { "fadd", { ST
, STi
}, 0 },
12428 { "fmul", { ST
, STi
}, 0 },
12429 { "fcom", { STi
}, 0 },
12430 { "fcomp", { STi
}, 0 },
12431 { "fsub", { ST
, STi
}, 0 },
12432 { "fsubr", { ST
, STi
}, 0 },
12433 { "fdiv", { ST
, STi
}, 0 },
12434 { "fdivr", { ST
, STi
}, 0 },
12438 { "fld", { STi
}, 0 },
12439 { "fxch", { STi
}, 0 },
12449 { "fcmovb", { ST
, STi
}, 0 },
12450 { "fcmove", { ST
, STi
}, 0 },
12451 { "fcmovbe",{ ST
, STi
}, 0 },
12452 { "fcmovu", { ST
, STi
}, 0 },
12460 { "fcmovnb",{ ST
, STi
}, 0 },
12461 { "fcmovne",{ ST
, STi
}, 0 },
12462 { "fcmovnbe",{ ST
, STi
}, 0 },
12463 { "fcmovnu",{ ST
, STi
}, 0 },
12465 { "fucomi", { ST
, STi
}, 0 },
12466 { "fcomi", { ST
, STi
}, 0 },
12471 { "fadd", { STi
, ST
}, 0 },
12472 { "fmul", { STi
, ST
}, 0 },
12475 { "fsub{!M|r}", { STi
, ST
}, 0 },
12476 { "fsub{M|}", { STi
, ST
}, 0 },
12477 { "fdiv{!M|r}", { STi
, ST
}, 0 },
12478 { "fdiv{M|}", { STi
, ST
}, 0 },
12482 { "ffree", { STi
}, 0 },
12484 { "fst", { STi
}, 0 },
12485 { "fstp", { STi
}, 0 },
12486 { "fucom", { STi
}, 0 },
12487 { "fucomp", { STi
}, 0 },
12493 { "faddp", { STi
, ST
}, 0 },
12494 { "fmulp", { STi
, ST
}, 0 },
12497 { "fsub{!M|r}p", { STi
, ST
}, 0 },
12498 { "fsub{M|}p", { STi
, ST
}, 0 },
12499 { "fdiv{!M|r}p", { STi
, ST
}, 0 },
12500 { "fdiv{M|}p", { STi
, ST
}, 0 },
12504 { "ffreep", { STi
}, 0 },
12509 { "fucomip", { ST
, STi
}, 0 },
12510 { "fcomip", { ST
, STi
}, 0 },
12515 static char *fgrps
[][8] = {
12518 "(bad)","(bad)","(bad)","(bad)","(bad)","(bad)","(bad)","(bad)",
12523 "fnop","(bad)","(bad)","(bad)","(bad)","(bad)","(bad)","(bad)",
12528 "fchs","fabs","(bad)","(bad)","ftst","fxam","(bad)","(bad)",
12533 "fld1","fldl2t","fldl2e","fldpi","fldlg2","fldln2","fldz","(bad)",
12538 "f2xm1","fyl2x","fptan","fpatan","fxtract","fprem1","fdecstp","fincstp",
12543 "fprem","fyl2xp1","fsqrt","fsincos","frndint","fscale","fsin","fcos",
12548 "(bad)","fucompp","(bad)","(bad)","(bad)","(bad)","(bad)","(bad)",
12553 "fNeni(8087 only)","fNdisi(8087 only)","fNclex","fNinit",
12554 "fNsetpm(287 only)","frstpm(287 only)","(bad)","(bad)",
12559 "(bad)","fcompp","(bad)","(bad)","(bad)","(bad)","(bad)","(bad)",
12564 "fNstsw","(bad)","(bad)","(bad)","(bad)","(bad)","(bad)","(bad)",
12569 swap_operand (void)
12571 mnemonicendp
[0] = '.';
12572 mnemonicendp
[1] = 's';
12577 OP_Skip_MODRM (int bytemode ATTRIBUTE_UNUSED
,
12578 int sizeflag ATTRIBUTE_UNUSED
)
12580 /* Skip mod/rm byte. */
12586 dofloat (int sizeflag
)
12588 const struct dis386
*dp
;
12589 unsigned char floatop
;
12591 floatop
= codep
[-1];
12593 if (modrm
.mod
!= 3)
12595 int fp_indx
= (floatop
- 0xd8) * 8 + modrm
.reg
;
12597 putop (float_mem
[fp_indx
], sizeflag
);
12600 OP_E (float_mem_mode
[fp_indx
], sizeflag
);
12603 /* Skip mod/rm byte. */
12607 dp
= &float_reg
[floatop
- 0xd8][modrm
.reg
];
12608 if (dp
->name
== NULL
)
12610 putop (fgrps
[dp
->op
[0].bytemode
][modrm
.rm
], sizeflag
);
12612 /* Instruction fnstsw is only one with strange arg. */
12613 if (floatop
== 0xdf && codep
[-1] == 0xe0)
12614 strcpy (op_out
[0], names16
[0]);
12618 putop (dp
->name
, sizeflag
);
12623 (*dp
->op
[0].rtn
) (dp
->op
[0].bytemode
, sizeflag
);
12628 (*dp
->op
[1].rtn
) (dp
->op
[1].bytemode
, sizeflag
);
12632 /* Like oappend (below), but S is a string starting with '%'.
12633 In Intel syntax, the '%' is elided. */
12635 oappend_maybe_intel (const char *s
)
12637 oappend (s
+ intel_syntax
);
12641 OP_ST (int bytemode ATTRIBUTE_UNUSED
, int sizeflag ATTRIBUTE_UNUSED
)
12643 oappend_maybe_intel ("%st");
12647 OP_STi (int bytemode ATTRIBUTE_UNUSED
, int sizeflag ATTRIBUTE_UNUSED
)
12649 sprintf (scratchbuf
, "%%st(%d)", modrm
.rm
);
12650 oappend_maybe_intel (scratchbuf
);
12653 /* Capital letters in template are macros. */
12655 putop (const char *in_template
, int sizeflag
)
12660 unsigned int l
= 0, len
= 1;
12663 #define SAVE_LAST(c) \
12664 if (l < len && l < sizeof (last)) \
12669 for (p
= in_template
; *p
; p
++)
12685 while (*++p
!= '|')
12686 if (*p
== '}' || *p
== '\0')
12689 /* Fall through. */
12694 while (*++p
!= '}')
12705 if (modrm
.mod
!= 3 || (sizeflag
& SUFFIX_ALWAYS
))
12709 if (l
== 0 && len
== 1)
12714 if (sizeflag
& SUFFIX_ALWAYS
)
12727 if (address_mode
== mode_64bit
12728 && !(prefixes
& PREFIX_ADDR
))
12739 if (intel_syntax
&& !alt
)
12741 if ((prefixes
& PREFIX_DATA
) || (sizeflag
& SUFFIX_ALWAYS
))
12743 if (sizeflag
& DFLAG
)
12744 *obufp
++ = intel_syntax
? 'd' : 'l';
12746 *obufp
++ = intel_syntax
? 'w' : 's';
12747 used_prefixes
|= (prefixes
& PREFIX_DATA
);
12751 if (intel_syntax
|| !(sizeflag
& SUFFIX_ALWAYS
))
12754 if (modrm
.mod
== 3)
12760 if (sizeflag
& DFLAG
)
12761 *obufp
++ = intel_syntax
? 'd' : 'l';
12764 used_prefixes
|= (prefixes
& PREFIX_DATA
);
12770 case 'E': /* For jcxz/jecxz */
12771 if (address_mode
== mode_64bit
)
12773 if (sizeflag
& AFLAG
)
12779 if (sizeflag
& AFLAG
)
12781 used_prefixes
|= (prefixes
& PREFIX_ADDR
);
12786 if ((prefixes
& PREFIX_ADDR
) || (sizeflag
& SUFFIX_ALWAYS
))
12788 if (sizeflag
& AFLAG
)
12789 *obufp
++ = address_mode
== mode_64bit
? 'q' : 'l';
12791 *obufp
++ = address_mode
== mode_64bit
? 'l' : 'w';
12792 used_prefixes
|= (prefixes
& PREFIX_ADDR
);
12796 if (intel_syntax
|| (obufp
[-1] != 's' && !(sizeflag
& SUFFIX_ALWAYS
)))
12798 if ((rex
& REX_W
) || (sizeflag
& DFLAG
))
12802 if (!(rex
& REX_W
))
12803 used_prefixes
|= (prefixes
& PREFIX_DATA
);
12808 if ((prefixes
& (PREFIX_CS
| PREFIX_DS
)) == PREFIX_CS
12809 || (prefixes
& (PREFIX_CS
| PREFIX_DS
)) == PREFIX_DS
)
12811 used_prefixes
|= prefixes
& (PREFIX_CS
| PREFIX_DS
);
12814 if (prefixes
& PREFIX_DS
)
12833 if (l
!= 0 || len
!= 1)
12835 if (l
!= 1 || len
!= 2 || last
[0] != 'X')
12840 if (!need_vex
|| !vex
.evex
)
12843 || ((modrm
.mod
== 3 || vex
.b
) && !(sizeflag
& SUFFIX_ALWAYS
)))
12845 switch (vex
.length
)
12863 if (address_mode
== mode_64bit
&& (sizeflag
& SUFFIX_ALWAYS
))
12868 /* Fall through. */
12871 if (l
!= 0 || len
!= 1)
12879 if (sizeflag
& SUFFIX_ALWAYS
)
12883 if (intel_mnemonic
!= cond
)
12887 if ((prefixes
& PREFIX_FWAIT
) == 0)
12890 used_prefixes
|= PREFIX_FWAIT
;
12896 else if (intel_syntax
&& (sizeflag
& DFLAG
))
12900 if (!(rex
& REX_W
))
12901 used_prefixes
|= (prefixes
& PREFIX_DATA
);
12905 && address_mode
== mode_64bit
12906 && isa64
== intel64
)
12911 /* Fall through. */
12914 && address_mode
== mode_64bit
12915 && ((sizeflag
& DFLAG
) || (rex
& REX_W
)))
12920 /* Fall through. */
12923 if (l
== 0 && len
== 1)
12928 if ((rex
& REX_W
) == 0
12929 && (prefixes
& PREFIX_DATA
))
12931 if ((sizeflag
& DFLAG
) == 0)
12933 used_prefixes
|= (prefixes
& PREFIX_DATA
);
12937 if ((prefixes
& PREFIX_DATA
)
12939 || (sizeflag
& SUFFIX_ALWAYS
))
12946 if (sizeflag
& DFLAG
)
12950 used_prefixes
|= (prefixes
& PREFIX_DATA
);
12956 if (l
!= 1 || len
!= 2 || last
[0] != 'L')
12962 if ((prefixes
& PREFIX_DATA
)
12964 || (sizeflag
& SUFFIX_ALWAYS
))
12971 if (sizeflag
& DFLAG
)
12972 *obufp
++ = intel_syntax
? 'd' : 'l';
12975 used_prefixes
|= (prefixes
& PREFIX_DATA
);
12983 if (address_mode
== mode_64bit
12984 && ((sizeflag
& DFLAG
) || (rex
& REX_W
)))
12986 if (modrm
.mod
!= 3 || (sizeflag
& SUFFIX_ALWAYS
))
12990 /* Fall through. */
12993 if (l
== 0 && len
== 1)
12996 if (intel_syntax
&& !alt
)
12999 if (modrm
.mod
!= 3 || (sizeflag
& SUFFIX_ALWAYS
))
13005 if (sizeflag
& DFLAG
)
13006 *obufp
++ = intel_syntax
? 'd' : 'l';
13009 used_prefixes
|= (prefixes
& PREFIX_DATA
);
13015 if (l
!= 1 || len
!= 2 || last
[0] != 'L')
13021 || (modrm
.mod
== 3 && !(sizeflag
& SUFFIX_ALWAYS
)))
13036 else if (sizeflag
& DFLAG
)
13045 if (intel_syntax
&& !p
[1]
13046 && ((rex
& REX_W
) || (sizeflag
& DFLAG
)))
13048 if (!(rex
& REX_W
))
13049 used_prefixes
|= (prefixes
& PREFIX_DATA
);
13052 if (l
== 0 && len
== 1)
13056 if (address_mode
== mode_64bit
13057 && ((sizeflag
& DFLAG
) || (rex
& REX_W
)))
13059 if (sizeflag
& SUFFIX_ALWAYS
)
13081 /* Fall through. */
13084 if (l
== 0 && len
== 1)
13089 if (sizeflag
& SUFFIX_ALWAYS
)
13095 if (sizeflag
& DFLAG
)
13099 used_prefixes
|= (prefixes
& PREFIX_DATA
);
13113 if (address_mode
== mode_64bit
13114 && !(prefixes
& PREFIX_ADDR
))
13125 if (l
!= 0 || len
!= 1)
13130 if (need_vex
&& vex
.prefix
)
13132 if (vex
.prefix
== DATA_PREFIX_OPCODE
)
13139 if (prefixes
& PREFIX_DATA
)
13143 used_prefixes
|= (prefixes
& PREFIX_DATA
);
13147 if (l
== 0 && len
== 1)
13151 if (l
!= 1 || len
!= 2 || last
[0] != 'X')
13159 || ((modrm
.mod
== 3 || vex
.b
) && !(sizeflag
& SUFFIX_ALWAYS
)))
13161 switch (vex
.length
)
13177 if (l
== 0 && len
== 1)
13179 /* operand size flag for cwtl, cbtw */
13188 else if (sizeflag
& DFLAG
)
13192 if (!(rex
& REX_W
))
13193 used_prefixes
|= (prefixes
& PREFIX_DATA
);
13200 && last
[0] != 'L'))
13207 if (last
[0] == 'X')
13208 *obufp
++ = vex
.w
? 'd': 's';
13210 *obufp
++ = vex
.w
? 'q': 'd';
13216 if ((prefixes
& PREFIX_DATA
) || (sizeflag
& SUFFIX_ALWAYS
))
13218 if (sizeflag
& DFLAG
)
13222 used_prefixes
|= (prefixes
& PREFIX_DATA
);
13228 if (address_mode
== mode_64bit
13229 && (isa64
== intel64
13230 || ((sizeflag
& DFLAG
) || (rex
& REX_W
))))
13232 else if ((prefixes
& PREFIX_DATA
))
13234 if (!(sizeflag
& DFLAG
))
13236 used_prefixes
|= (prefixes
& PREFIX_DATA
);
13243 mnemonicendp
= obufp
;
13248 oappend (const char *s
)
13250 obufp
= stpcpy (obufp
, s
);
13256 /* Only print the active segment register. */
13257 if (!active_seg_prefix
)
13260 used_prefixes
|= active_seg_prefix
;
13261 switch (active_seg_prefix
)
13264 oappend_maybe_intel ("%cs:");
13267 oappend_maybe_intel ("%ds:");
13270 oappend_maybe_intel ("%ss:");
13273 oappend_maybe_intel ("%es:");
13276 oappend_maybe_intel ("%fs:");
13279 oappend_maybe_intel ("%gs:");
13287 OP_indirE (int bytemode
, int sizeflag
)
13291 OP_E (bytemode
, sizeflag
);
13295 print_operand_value (char *buf
, int hex
, bfd_vma disp
)
13297 if (address_mode
== mode_64bit
)
13305 sprintf_vma (tmp
, disp
);
13306 for (i
= 0; tmp
[i
] == '0' && tmp
[i
+ 1]; i
++);
13307 strcpy (buf
+ 2, tmp
+ i
);
13311 bfd_signed_vma v
= disp
;
13318 /* Check for possible overflow on 0x8000000000000000. */
13321 strcpy (buf
, "9223372036854775808");
13335 tmp
[28 - i
] = (v
% 10) + '0';
13339 strcpy (buf
, tmp
+ 29 - i
);
13345 sprintf (buf
, "0x%x", (unsigned int) disp
);
13347 sprintf (buf
, "%d", (int) disp
);
13351 /* Put DISP in BUF as signed hex number. */
13354 print_displacement (char *buf
, bfd_vma disp
)
13356 bfd_signed_vma val
= disp
;
13365 /* Check for possible overflow. */
13368 switch (address_mode
)
13371 strcpy (buf
+ j
, "0x8000000000000000");
13374 strcpy (buf
+ j
, "0x80000000");
13377 strcpy (buf
+ j
, "0x8000");
13387 sprintf_vma (tmp
, (bfd_vma
) val
);
13388 for (i
= 0; tmp
[i
] == '0'; i
++)
13390 if (tmp
[i
] == '\0')
13392 strcpy (buf
+ j
, tmp
+ i
);
13396 intel_operand_size (int bytemode
, int sizeflag
)
13400 && (bytemode
== x_mode
13401 || bytemode
== evex_half_bcst_xmmq_mode
))
13404 oappend ("QWORD PTR ");
13406 oappend ("DWORD PTR ");
13415 oappend ("BYTE PTR ");
13420 oappend ("WORD PTR ");
13423 if (address_mode
== mode_64bit
&& isa64
== intel64
)
13425 oappend ("QWORD PTR ");
13428 /* Fall through. */
13430 if (address_mode
== mode_64bit
&& ((sizeflag
& DFLAG
) || (rex
& REX_W
)))
13432 oappend ("QWORD PTR ");
13435 /* Fall through. */
13441 oappend ("QWORD PTR ");
13444 if ((sizeflag
& DFLAG
) || bytemode
== dq_mode
)
13445 oappend ("DWORD PTR ");
13447 oappend ("WORD PTR ");
13448 used_prefixes
|= (prefixes
& PREFIX_DATA
);
13452 if ((rex
& REX_W
) || (sizeflag
& DFLAG
))
13454 oappend ("WORD PTR ");
13455 if (!(rex
& REX_W
))
13456 used_prefixes
|= (prefixes
& PREFIX_DATA
);
13459 if (sizeflag
& DFLAG
)
13460 oappend ("QWORD PTR ");
13462 oappend ("DWORD PTR ");
13463 used_prefixes
|= (prefixes
& PREFIX_DATA
);
13466 case d_scalar_mode
:
13467 case d_scalar_swap_mode
:
13470 oappend ("DWORD PTR ");
13473 case q_scalar_mode
:
13474 case q_scalar_swap_mode
:
13476 oappend ("QWORD PTR ");
13479 if (address_mode
== mode_64bit
)
13480 oappend ("QWORD PTR ");
13482 oappend ("DWORD PTR ");
13485 if (sizeflag
& DFLAG
)
13486 oappend ("FWORD PTR ");
13488 oappend ("DWORD PTR ");
13489 used_prefixes
|= (prefixes
& PREFIX_DATA
);
13492 oappend ("TBYTE PTR ");
13496 case evex_x_gscat_mode
:
13497 case evex_x_nobcst_mode
:
13498 case b_scalar_mode
:
13499 case w_scalar_mode
:
13502 switch (vex
.length
)
13505 oappend ("XMMWORD PTR ");
13508 oappend ("YMMWORD PTR ");
13511 oappend ("ZMMWORD PTR ");
13518 oappend ("XMMWORD PTR ");
13521 oappend ("XMMWORD PTR ");
13524 oappend ("YMMWORD PTR ");
13527 case evex_half_bcst_xmmq_mode
:
13531 switch (vex
.length
)
13534 oappend ("QWORD PTR ");
13537 oappend ("XMMWORD PTR ");
13540 oappend ("YMMWORD PTR ");
13550 switch (vex
.length
)
13555 oappend ("BYTE PTR ");
13565 switch (vex
.length
)
13570 oappend ("WORD PTR ");
13580 switch (vex
.length
)
13585 oappend ("DWORD PTR ");
13595 switch (vex
.length
)
13600 oappend ("QWORD PTR ");
13610 switch (vex
.length
)
13613 oappend ("WORD PTR ");
13616 oappend ("DWORD PTR ");
13619 oappend ("QWORD PTR ");
13629 switch (vex
.length
)
13632 oappend ("DWORD PTR ");
13635 oappend ("QWORD PTR ");
13638 oappend ("XMMWORD PTR ");
13648 switch (vex
.length
)
13651 oappend ("QWORD PTR ");
13654 oappend ("YMMWORD PTR ");
13657 oappend ("ZMMWORD PTR ");
13667 switch (vex
.length
)
13671 oappend ("XMMWORD PTR ");
13678 oappend ("OWORD PTR ");
13681 case vex_w_dq_mode
:
13682 case vex_scalar_w_dq_mode
:
13687 oappend ("QWORD PTR ");
13689 oappend ("DWORD PTR ");
13691 case vex_vsib_d_w_dq_mode
:
13692 case vex_vsib_q_w_dq_mode
:
13699 oappend ("QWORD PTR ");
13701 oappend ("DWORD PTR ");
13705 switch (vex
.length
)
13708 oappend ("XMMWORD PTR ");
13711 oappend ("YMMWORD PTR ");
13714 oappend ("ZMMWORD PTR ");
13721 case vex_vsib_q_w_d_mode
:
13722 case vex_vsib_d_w_d_mode
:
13723 if (!need_vex
|| !vex
.evex
)
13726 switch (vex
.length
)
13729 oappend ("QWORD PTR ");
13732 oappend ("XMMWORD PTR ");
13735 oappend ("YMMWORD PTR ");
13743 if (!need_vex
|| vex
.length
!= 128)
13746 oappend ("DWORD PTR ");
13748 oappend ("BYTE PTR ");
13754 oappend ("QWORD PTR ");
13756 oappend ("WORD PTR ");
13766 OP_E_register (int bytemode
, int sizeflag
)
13768 int reg
= modrm
.rm
;
13769 const char **names
;
13775 if ((sizeflag
& SUFFIX_ALWAYS
)
13776 && (bytemode
== b_swap_mode
13777 || bytemode
== bnd_swap_mode
13778 || bytemode
== v_swap_mode
))
13804 names
= address_mode
== mode_64bit
? names64
: names32
;
13807 case bnd_swap_mode
:
13816 if (address_mode
== mode_64bit
&& isa64
== intel64
)
13821 /* Fall through. */
13823 if (address_mode
== mode_64bit
&& ((sizeflag
& DFLAG
) || (rex
& REX_W
)))
13829 /* Fall through. */
13841 if ((sizeflag
& DFLAG
)
13842 || (bytemode
!= v_mode
13843 && bytemode
!= v_swap_mode
))
13847 used_prefixes
|= (prefixes
& PREFIX_DATA
);
13851 names
= (address_mode
== mode_64bit
13852 ? names64
: names32
);
13853 if (!(prefixes
& PREFIX_ADDR
))
13854 names
= (address_mode
== mode_16bit
13855 ? names16
: names
);
13858 /* Remove "addr16/addr32". */
13859 all_prefixes
[last_addr_prefix
] = 0;
13860 names
= (address_mode
!= mode_32bit
13861 ? names32
: names16
);
13862 used_prefixes
|= PREFIX_ADDR
;
13872 names
= names_mask
;
13877 oappend (INTERNAL_DISASSEMBLER_ERROR
);
13880 oappend (names
[reg
]);
13884 OP_E_memory (int bytemode
, int sizeflag
)
13887 int add
= (rex
& REX_B
) ? 8 : 0;
13893 /* In EVEX, if operand doesn't allow broadcast, vex.b should be 0. */
13895 && bytemode
!= x_mode
13896 && bytemode
!= xmmq_mode
13897 && bytemode
!= evex_half_bcst_xmmq_mode
)
13913 if (address_mode
!= mode_64bit
)
13919 case vex_vsib_d_w_dq_mode
:
13920 case vex_vsib_d_w_d_mode
:
13921 case vex_vsib_q_w_dq_mode
:
13922 case vex_vsib_q_w_d_mode
:
13923 case evex_x_gscat_mode
:
13925 shift
= vex
.w
? 3 : 2;
13928 case evex_half_bcst_xmmq_mode
:
13932 shift
= vex
.w
? 3 : 2;
13935 /* Fall through. */
13939 case evex_x_nobcst_mode
:
13941 switch (vex
.length
)
13964 case q_scalar_mode
:
13966 case q_scalar_swap_mode
:
13972 case d_scalar_mode
:
13974 case d_scalar_swap_mode
:
13977 case w_scalar_mode
:
13981 case b_scalar_mode
:
13988 /* Make necessary corrections to shift for modes that need it.
13989 For these modes we currently have shift 4, 5 or 6 depending on
13990 vex.length (it corresponds to xmmword, ymmword or zmmword
13991 operand). We might want to make it 3, 4 or 5 (e.g. for
13992 xmmq_mode). In case of broadcast enabled the corrections
13993 aren't needed, as element size is always 32 or 64 bits. */
13995 && (bytemode
== xmmq_mode
13996 || bytemode
== evex_half_bcst_xmmq_mode
))
13998 else if (bytemode
== xmmqd_mode
)
14000 else if (bytemode
== xmmdw_mode
)
14002 else if (bytemode
== ymmq_mode
&& vex
.length
== 128)
14010 intel_operand_size (bytemode
, sizeflag
);
14013 if ((sizeflag
& AFLAG
) || address_mode
== mode_64bit
)
14015 /* 32/64 bit address mode */
14025 int addr32flag
= !((sizeflag
& AFLAG
)
14026 || bytemode
== v_bnd_mode
14027 || bytemode
== v_bndmk_mode
14028 || bytemode
== bnd_mode
14029 || bytemode
== bnd_swap_mode
);
14030 const char **indexes64
= names64
;
14031 const char **indexes32
= names32
;
14041 vindex
= sib
.index
;
14047 case vex_vsib_d_w_dq_mode
:
14048 case vex_vsib_d_w_d_mode
:
14049 case vex_vsib_q_w_dq_mode
:
14050 case vex_vsib_q_w_d_mode
:
14060 switch (vex
.length
)
14063 indexes64
= indexes32
= names_xmm
;
14067 || bytemode
== vex_vsib_q_w_dq_mode
14068 || bytemode
== vex_vsib_q_w_d_mode
)
14069 indexes64
= indexes32
= names_ymm
;
14071 indexes64
= indexes32
= names_xmm
;
14075 || bytemode
== vex_vsib_q_w_dq_mode
14076 || bytemode
== vex_vsib_q_w_d_mode
)
14077 indexes64
= indexes32
= names_zmm
;
14079 indexes64
= indexes32
= names_ymm
;
14086 haveindex
= vindex
!= 4;
14093 rbase
= base
+ add
;
14101 if (address_mode
== mode_64bit
&& !havesib
)
14104 if (riprel
&& bytemode
== v_bndmk_mode
)
14112 FETCH_DATA (the_info
, codep
+ 1);
14114 if ((disp
& 0x80) != 0)
14116 if (vex
.evex
&& shift
> 0)
14129 && address_mode
!= mode_16bit
)
14131 if (address_mode
== mode_64bit
)
14133 /* Display eiz instead of addr32. */
14134 needindex
= addr32flag
;
14139 /* In 32-bit mode, we need index register to tell [offset]
14140 from [eiz*1 + offset]. */
14145 havedisp
= (havebase
14147 || (havesib
&& (haveindex
|| scale
!= 0)));
14150 if (modrm
.mod
!= 0 || base
== 5)
14152 if (havedisp
|| riprel
)
14153 print_displacement (scratchbuf
, disp
);
14155 print_operand_value (scratchbuf
, 1, disp
);
14156 oappend (scratchbuf
);
14160 oappend (!addr32flag
? "(%rip)" : "(%eip)");
14164 if ((havebase
|| haveindex
|| needindex
|| needaddr32
|| riprel
)
14165 && (bytemode
!= v_bnd_mode
)
14166 && (bytemode
!= v_bndmk_mode
)
14167 && (bytemode
!= bnd_mode
)
14168 && (bytemode
!= bnd_swap_mode
))
14169 used_prefixes
|= PREFIX_ADDR
;
14171 if (havedisp
|| (intel_syntax
&& riprel
))
14173 *obufp
++ = open_char
;
14174 if (intel_syntax
&& riprel
)
14177 oappend (!addr32flag
? "rip" : "eip");
14181 oappend (address_mode
== mode_64bit
&& !addr32flag
14182 ? names64
[rbase
] : names32
[rbase
]);
14185 /* ESP/RSP won't allow index. If base isn't ESP/RSP,
14186 print index to tell base + index from base. */
14190 || (havebase
&& base
!= ESP_REG_NUM
))
14192 if (!intel_syntax
|| havebase
)
14194 *obufp
++ = separator_char
;
14198 oappend (address_mode
== mode_64bit
&& !addr32flag
14199 ? indexes64
[vindex
] : indexes32
[vindex
]);
14201 oappend (address_mode
== mode_64bit
&& !addr32flag
14202 ? index64
: index32
);
14204 *obufp
++ = scale_char
;
14206 sprintf (scratchbuf
, "%d", 1 << scale
);
14207 oappend (scratchbuf
);
14211 && (disp
|| modrm
.mod
!= 0 || base
== 5))
14213 if (!havedisp
|| (bfd_signed_vma
) disp
>= 0)
14218 else if (modrm
.mod
!= 1 && disp
!= -disp
)
14222 disp
= - (bfd_signed_vma
) disp
;
14226 print_displacement (scratchbuf
, disp
);
14228 print_operand_value (scratchbuf
, 1, disp
);
14229 oappend (scratchbuf
);
14232 *obufp
++ = close_char
;
14235 else if (intel_syntax
)
14237 if (modrm
.mod
!= 0 || base
== 5)
14239 if (!active_seg_prefix
)
14241 oappend (names_seg
[ds_reg
- es_reg
]);
14244 print_operand_value (scratchbuf
, 1, disp
);
14245 oappend (scratchbuf
);
14251 /* 16 bit address mode */
14252 used_prefixes
|= prefixes
& PREFIX_ADDR
;
14259 if ((disp
& 0x8000) != 0)
14264 FETCH_DATA (the_info
, codep
+ 1);
14266 if ((disp
& 0x80) != 0)
14268 if (vex
.evex
&& shift
> 0)
14273 if ((disp
& 0x8000) != 0)
14279 if (modrm
.mod
!= 0 || modrm
.rm
== 6)
14281 print_displacement (scratchbuf
, disp
);
14282 oappend (scratchbuf
);
14285 if (modrm
.mod
!= 0 || modrm
.rm
!= 6)
14287 *obufp
++ = open_char
;
14289 oappend (index16
[modrm
.rm
]);
14291 && (disp
|| modrm
.mod
!= 0 || modrm
.rm
== 6))
14293 if ((bfd_signed_vma
) disp
>= 0)
14298 else if (modrm
.mod
!= 1)
14302 disp
= - (bfd_signed_vma
) disp
;
14305 print_displacement (scratchbuf
, disp
);
14306 oappend (scratchbuf
);
14309 *obufp
++ = close_char
;
14312 else if (intel_syntax
)
14314 if (!active_seg_prefix
)
14316 oappend (names_seg
[ds_reg
- es_reg
]);
14319 print_operand_value (scratchbuf
, 1, disp
& 0xffff);
14320 oappend (scratchbuf
);
14323 if (vex
.evex
&& vex
.b
14324 && (bytemode
== x_mode
14325 || bytemode
== xmmq_mode
14326 || bytemode
== evex_half_bcst_xmmq_mode
))
14329 || bytemode
== xmmq_mode
14330 || bytemode
== evex_half_bcst_xmmq_mode
)
14332 switch (vex
.length
)
14335 oappend ("{1to2}");
14338 oappend ("{1to4}");
14341 oappend ("{1to8}");
14349 switch (vex
.length
)
14352 oappend ("{1to4}");
14355 oappend ("{1to8}");
14358 oappend ("{1to16}");
14368 OP_E (int bytemode
, int sizeflag
)
14370 /* Skip mod/rm byte. */
14374 if (modrm
.mod
== 3)
14375 OP_E_register (bytemode
, sizeflag
);
14377 OP_E_memory (bytemode
, sizeflag
);
14381 OP_G (int bytemode
, int sizeflag
)
14384 const char **names
;
14393 oappend (names8rex
[modrm
.reg
+ add
]);
14395 oappend (names8
[modrm
.reg
+ add
]);
14398 oappend (names16
[modrm
.reg
+ add
]);
14403 oappend (names32
[modrm
.reg
+ add
]);
14406 oappend (names64
[modrm
.reg
+ add
]);
14409 if (modrm
.reg
> 0x3)
14414 oappend (names_bnd
[modrm
.reg
]);
14423 oappend (names64
[modrm
.reg
+ add
]);
14426 if ((sizeflag
& DFLAG
) || bytemode
!= v_mode
)
14427 oappend (names32
[modrm
.reg
+ add
]);
14429 oappend (names16
[modrm
.reg
+ add
]);
14430 used_prefixes
|= (prefixes
& PREFIX_DATA
);
14434 names
= (address_mode
== mode_64bit
14435 ? names64
: names32
);
14436 if (!(prefixes
& PREFIX_ADDR
))
14438 if (address_mode
== mode_16bit
)
14443 /* Remove "addr16/addr32". */
14444 all_prefixes
[last_addr_prefix
] = 0;
14445 names
= (address_mode
!= mode_32bit
14446 ? names32
: names16
);
14447 used_prefixes
|= PREFIX_ADDR
;
14449 oappend (names
[modrm
.reg
+ add
]);
14452 if (address_mode
== mode_64bit
)
14453 oappend (names64
[modrm
.reg
+ add
]);
14455 oappend (names32
[modrm
.reg
+ add
]);
14459 if ((modrm
.reg
+ add
) > 0x7)
14464 oappend (names_mask
[modrm
.reg
+ add
]);
14467 oappend (INTERNAL_DISASSEMBLER_ERROR
);
14480 FETCH_DATA (the_info
, codep
+ 8);
14481 a
= *codep
++ & 0xff;
14482 a
|= (*codep
++ & 0xff) << 8;
14483 a
|= (*codep
++ & 0xff) << 16;
14484 a
|= (*codep
++ & 0xffu
) << 24;
14485 b
= *codep
++ & 0xff;
14486 b
|= (*codep
++ & 0xff) << 8;
14487 b
|= (*codep
++ & 0xff) << 16;
14488 b
|= (*codep
++ & 0xffu
) << 24;
14489 x
= a
+ ((bfd_vma
) b
<< 32);
14497 static bfd_signed_vma
14500 bfd_signed_vma x
= 0;
14502 FETCH_DATA (the_info
, codep
+ 4);
14503 x
= *codep
++ & (bfd_signed_vma
) 0xff;
14504 x
|= (*codep
++ & (bfd_signed_vma
) 0xff) << 8;
14505 x
|= (*codep
++ & (bfd_signed_vma
) 0xff) << 16;
14506 x
|= (*codep
++ & (bfd_signed_vma
) 0xff) << 24;
14510 static bfd_signed_vma
14513 bfd_signed_vma x
= 0;
14515 FETCH_DATA (the_info
, codep
+ 4);
14516 x
= *codep
++ & (bfd_signed_vma
) 0xff;
14517 x
|= (*codep
++ & (bfd_signed_vma
) 0xff) << 8;
14518 x
|= (*codep
++ & (bfd_signed_vma
) 0xff) << 16;
14519 x
|= (*codep
++ & (bfd_signed_vma
) 0xff) << 24;
14521 x
= (x
^ ((bfd_signed_vma
) 1 << 31)) - ((bfd_signed_vma
) 1 << 31);
14531 FETCH_DATA (the_info
, codep
+ 2);
14532 x
= *codep
++ & 0xff;
14533 x
|= (*codep
++ & 0xff) << 8;
14538 set_op (bfd_vma op
, int riprel
)
14540 op_index
[op_ad
] = op_ad
;
14541 if (address_mode
== mode_64bit
)
14543 op_address
[op_ad
] = op
;
14544 op_riprel
[op_ad
] = riprel
;
14548 /* Mask to get a 32-bit address. */
14549 op_address
[op_ad
] = op
& 0xffffffff;
14550 op_riprel
[op_ad
] = riprel
& 0xffffffff;
14555 OP_REG (int code
, int sizeflag
)
14562 case es_reg
: case ss_reg
: case cs_reg
:
14563 case ds_reg
: case fs_reg
: case gs_reg
:
14564 oappend (names_seg
[code
- es_reg
]);
14576 case ax_reg
: case cx_reg
: case dx_reg
: case bx_reg
:
14577 case sp_reg
: case bp_reg
: case si_reg
: case di_reg
:
14578 s
= names16
[code
- ax_reg
+ add
];
14580 case al_reg
: case ah_reg
: case cl_reg
: case ch_reg
:
14581 case dl_reg
: case dh_reg
: case bl_reg
: case bh_reg
:
14584 s
= names8rex
[code
- al_reg
+ add
];
14586 s
= names8
[code
- al_reg
];
14588 case rAX_reg
: case rCX_reg
: case rDX_reg
: case rBX_reg
:
14589 case rSP_reg
: case rBP_reg
: case rSI_reg
: case rDI_reg
:
14590 if (address_mode
== mode_64bit
14591 && ((sizeflag
& DFLAG
) || (rex
& REX_W
)))
14593 s
= names64
[code
- rAX_reg
+ add
];
14596 code
+= eAX_reg
- rAX_reg
;
14597 /* Fall through. */
14598 case eAX_reg
: case eCX_reg
: case eDX_reg
: case eBX_reg
:
14599 case eSP_reg
: case eBP_reg
: case eSI_reg
: case eDI_reg
:
14602 s
= names64
[code
- eAX_reg
+ add
];
14605 if (sizeflag
& DFLAG
)
14606 s
= names32
[code
- eAX_reg
+ add
];
14608 s
= names16
[code
- eAX_reg
+ add
];
14609 used_prefixes
|= (prefixes
& PREFIX_DATA
);
14613 s
= INTERNAL_DISASSEMBLER_ERROR
;
14620 OP_IMREG (int code
, int sizeflag
)
14632 case ax_reg
: case cx_reg
: case dx_reg
: case bx_reg
:
14633 case sp_reg
: case bp_reg
: case si_reg
: case di_reg
:
14634 s
= names16
[code
- ax_reg
];
14636 case es_reg
: case ss_reg
: case cs_reg
:
14637 case ds_reg
: case fs_reg
: case gs_reg
:
14638 s
= names_seg
[code
- es_reg
];
14640 case al_reg
: case ah_reg
: case cl_reg
: case ch_reg
:
14641 case dl_reg
: case dh_reg
: case bl_reg
: case bh_reg
:
14644 s
= names8rex
[code
- al_reg
];
14646 s
= names8
[code
- al_reg
];
14648 case eAX_reg
: case eCX_reg
: case eDX_reg
: case eBX_reg
:
14649 case eSP_reg
: case eBP_reg
: case eSI_reg
: case eDI_reg
:
14652 s
= names64
[code
- eAX_reg
];
14655 if (sizeflag
& DFLAG
)
14656 s
= names32
[code
- eAX_reg
];
14658 s
= names16
[code
- eAX_reg
];
14659 used_prefixes
|= (prefixes
& PREFIX_DATA
);
14662 case z_mode_ax_reg
:
14663 if ((rex
& REX_W
) || (sizeflag
& DFLAG
))
14667 if (!(rex
& REX_W
))
14668 used_prefixes
|= (prefixes
& PREFIX_DATA
);
14671 s
= INTERNAL_DISASSEMBLER_ERROR
;
14678 OP_I (int bytemode
, int sizeflag
)
14681 bfd_signed_vma mask
= -1;
14686 FETCH_DATA (the_info
, codep
+ 1);
14696 if (sizeflag
& DFLAG
)
14706 used_prefixes
|= (prefixes
& PREFIX_DATA
);
14722 oappend (INTERNAL_DISASSEMBLER_ERROR
);
14727 scratchbuf
[0] = '$';
14728 print_operand_value (scratchbuf
+ 1, 1, op
);
14729 oappend_maybe_intel (scratchbuf
);
14730 scratchbuf
[0] = '\0';
14734 OP_I64 (int bytemode
, int sizeflag
)
14736 if (bytemode
!= v_mode
|| address_mode
!= mode_64bit
|| !(rex
& REX_W
))
14738 OP_I (bytemode
, sizeflag
);
14744 scratchbuf
[0] = '$';
14745 print_operand_value (scratchbuf
+ 1, 1, get64 ());
14746 oappend_maybe_intel (scratchbuf
);
14747 scratchbuf
[0] = '\0';
14751 OP_sI (int bytemode
, int sizeflag
)
14759 FETCH_DATA (the_info
, codep
+ 1);
14761 if ((op
& 0x80) != 0)
14763 if (bytemode
== b_T_mode
)
14765 if (address_mode
!= mode_64bit
14766 || !((sizeflag
& DFLAG
) || (rex
& REX_W
)))
14768 /* The operand-size prefix is overridden by a REX prefix. */
14769 if ((sizeflag
& DFLAG
) || (rex
& REX_W
))
14777 if (!(rex
& REX_W
))
14779 if (sizeflag
& DFLAG
)
14787 /* The operand-size prefix is overridden by a REX prefix. */
14788 if ((sizeflag
& DFLAG
) || (rex
& REX_W
))
14794 oappend (INTERNAL_DISASSEMBLER_ERROR
);
14798 scratchbuf
[0] = '$';
14799 print_operand_value (scratchbuf
+ 1, 1, op
);
14800 oappend_maybe_intel (scratchbuf
);
14804 OP_J (int bytemode
, int sizeflag
)
14808 bfd_vma segment
= 0;
14813 FETCH_DATA (the_info
, codep
+ 1);
14815 if ((disp
& 0x80) != 0)
14819 if (isa64
== amd64
)
14821 if ((sizeflag
& DFLAG
)
14822 || (address_mode
== mode_64bit
14823 && (isa64
!= amd64
|| (rex
& REX_W
))))
14828 if ((disp
& 0x8000) != 0)
14830 /* In 16bit mode, address is wrapped around at 64k within
14831 the same segment. Otherwise, a data16 prefix on a jump
14832 instruction means that the pc is masked to 16 bits after
14833 the displacement is added! */
14835 if ((prefixes
& PREFIX_DATA
) == 0)
14836 segment
= ((start_pc
+ (codep
- start_codep
))
14837 & ~((bfd_vma
) 0xffff));
14839 if (address_mode
!= mode_64bit
14840 || (isa64
== amd64
&& !(rex
& REX_W
)))
14841 used_prefixes
|= (prefixes
& PREFIX_DATA
);
14844 oappend (INTERNAL_DISASSEMBLER_ERROR
);
14847 disp
= ((start_pc
+ (codep
- start_codep
) + disp
) & mask
) | segment
;
14849 print_operand_value (scratchbuf
, 1, disp
);
14850 oappend (scratchbuf
);
14854 OP_SEG (int bytemode
, int sizeflag
)
14856 if (bytemode
== w_mode
)
14857 oappend (names_seg
[modrm
.reg
]);
14859 OP_E (modrm
.mod
== 3 ? bytemode
: w_mode
, sizeflag
);
14863 OP_DIR (int dummy ATTRIBUTE_UNUSED
, int sizeflag
)
14867 if (sizeflag
& DFLAG
)
14877 used_prefixes
|= (prefixes
& PREFIX_DATA
);
14879 sprintf (scratchbuf
, "0x%x:0x%x", seg
, offset
);
14881 sprintf (scratchbuf
, "$0x%x,$0x%x", seg
, offset
);
14882 oappend (scratchbuf
);
14886 OP_OFF (int bytemode
, int sizeflag
)
14890 if (intel_syntax
&& (sizeflag
& SUFFIX_ALWAYS
))
14891 intel_operand_size (bytemode
, sizeflag
);
14894 if ((sizeflag
& AFLAG
) || address_mode
== mode_64bit
)
14901 if (!active_seg_prefix
)
14903 oappend (names_seg
[ds_reg
- es_reg
]);
14907 print_operand_value (scratchbuf
, 1, off
);
14908 oappend (scratchbuf
);
14912 OP_OFF64 (int bytemode
, int sizeflag
)
14916 if (address_mode
!= mode_64bit
14917 || (prefixes
& PREFIX_ADDR
))
14919 OP_OFF (bytemode
, sizeflag
);
14923 if (intel_syntax
&& (sizeflag
& SUFFIX_ALWAYS
))
14924 intel_operand_size (bytemode
, sizeflag
);
14931 if (!active_seg_prefix
)
14933 oappend (names_seg
[ds_reg
- es_reg
]);
14937 print_operand_value (scratchbuf
, 1, off
);
14938 oappend (scratchbuf
);
14942 ptr_reg (int code
, int sizeflag
)
14946 *obufp
++ = open_char
;
14947 used_prefixes
|= (prefixes
& PREFIX_ADDR
);
14948 if (address_mode
== mode_64bit
)
14950 if (!(sizeflag
& AFLAG
))
14951 s
= names32
[code
- eAX_reg
];
14953 s
= names64
[code
- eAX_reg
];
14955 else if (sizeflag
& AFLAG
)
14956 s
= names32
[code
- eAX_reg
];
14958 s
= names16
[code
- eAX_reg
];
14960 *obufp
++ = close_char
;
14965 OP_ESreg (int code
, int sizeflag
)
14971 case 0x6d: /* insw/insl */
14972 intel_operand_size (z_mode
, sizeflag
);
14974 case 0xa5: /* movsw/movsl/movsq */
14975 case 0xa7: /* cmpsw/cmpsl/cmpsq */
14976 case 0xab: /* stosw/stosl */
14977 case 0xaf: /* scasw/scasl */
14978 intel_operand_size (v_mode
, sizeflag
);
14981 intel_operand_size (b_mode
, sizeflag
);
14984 oappend_maybe_intel ("%es:");
14985 ptr_reg (code
, sizeflag
);
14989 OP_DSreg (int code
, int sizeflag
)
14995 case 0x6f: /* outsw/outsl */
14996 intel_operand_size (z_mode
, sizeflag
);
14998 case 0xa5: /* movsw/movsl/movsq */
14999 case 0xa7: /* cmpsw/cmpsl/cmpsq */
15000 case 0xad: /* lodsw/lodsl/lodsq */
15001 intel_operand_size (v_mode
, sizeflag
);
15004 intel_operand_size (b_mode
, sizeflag
);
15007 /* Set active_seg_prefix to PREFIX_DS if it is unset so that the
15008 default segment register DS is printed. */
15009 if (!active_seg_prefix
)
15010 active_seg_prefix
= PREFIX_DS
;
15012 ptr_reg (code
, sizeflag
);
15016 OP_C (int dummy ATTRIBUTE_UNUSED
, int sizeflag ATTRIBUTE_UNUSED
)
15024 else if (address_mode
!= mode_64bit
&& (prefixes
& PREFIX_LOCK
))
15026 all_prefixes
[last_lock_prefix
] = 0;
15027 used_prefixes
|= PREFIX_LOCK
;
15032 sprintf (scratchbuf
, "%%cr%d", modrm
.reg
+ add
);
15033 oappend_maybe_intel (scratchbuf
);
15037 OP_D (int dummy ATTRIBUTE_UNUSED
, int sizeflag ATTRIBUTE_UNUSED
)
15046 sprintf (scratchbuf
, "db%d", modrm
.reg
+ add
);
15048 sprintf (scratchbuf
, "%%db%d", modrm
.reg
+ add
);
15049 oappend (scratchbuf
);
15053 OP_T (int dummy ATTRIBUTE_UNUSED
, int sizeflag ATTRIBUTE_UNUSED
)
15055 sprintf (scratchbuf
, "%%tr%d", modrm
.reg
);
15056 oappend_maybe_intel (scratchbuf
);
15060 OP_R (int bytemode
, int sizeflag
)
15062 /* Skip mod/rm byte. */
15065 OP_E_register (bytemode
, sizeflag
);
15069 OP_MMX (int bytemode ATTRIBUTE_UNUSED
, int sizeflag ATTRIBUTE_UNUSED
)
15071 int reg
= modrm
.reg
;
15072 const char **names
;
15074 used_prefixes
|= (prefixes
& PREFIX_DATA
);
15075 if (prefixes
& PREFIX_DATA
)
15084 oappend (names
[reg
]);
15088 OP_XMM (int bytemode
, int sizeflag ATTRIBUTE_UNUSED
)
15090 int reg
= modrm
.reg
;
15091 const char **names
;
15103 && bytemode
!= xmm_mode
15104 && bytemode
!= xmmq_mode
15105 && bytemode
!= evex_half_bcst_xmmq_mode
15106 && bytemode
!= ymm_mode
15107 && bytemode
!= scalar_mode
)
15109 switch (vex
.length
)
15116 || (bytemode
!= vex_vsib_q_w_dq_mode
15117 && bytemode
!= vex_vsib_q_w_d_mode
))
15129 else if (bytemode
== xmmq_mode
15130 || bytemode
== evex_half_bcst_xmmq_mode
)
15132 switch (vex
.length
)
15145 else if (bytemode
== ymm_mode
)
15149 oappend (names
[reg
]);
15153 OP_EM (int bytemode
, int sizeflag
)
15156 const char **names
;
15158 if (modrm
.mod
!= 3)
15161 && (bytemode
== v_mode
|| bytemode
== v_swap_mode
))
15163 bytemode
= (prefixes
& PREFIX_DATA
) ? x_mode
: q_mode
;
15164 used_prefixes
|= (prefixes
& PREFIX_DATA
);
15166 OP_E (bytemode
, sizeflag
);
15170 if ((sizeflag
& SUFFIX_ALWAYS
) && bytemode
== v_swap_mode
)
15173 /* Skip mod/rm byte. */
15176 used_prefixes
|= (prefixes
& PREFIX_DATA
);
15178 if (prefixes
& PREFIX_DATA
)
15187 oappend (names
[reg
]);
15190 /* cvt* are the only instructions in sse2 which have
15191 both SSE and MMX operands and also have 0x66 prefix
15192 in their opcode. 0x66 was originally used to differentiate
15193 between SSE and MMX instruction(operands). So we have to handle the
15194 cvt* separately using OP_EMC and OP_MXC */
15196 OP_EMC (int bytemode
, int sizeflag
)
15198 if (modrm
.mod
!= 3)
15200 if (intel_syntax
&& bytemode
== v_mode
)
15202 bytemode
= (prefixes
& PREFIX_DATA
) ? x_mode
: q_mode
;
15203 used_prefixes
|= (prefixes
& PREFIX_DATA
);
15205 OP_E (bytemode
, sizeflag
);
15209 /* Skip mod/rm byte. */
15212 used_prefixes
|= (prefixes
& PREFIX_DATA
);
15213 oappend (names_mm
[modrm
.rm
]);
15217 OP_MXC (int bytemode ATTRIBUTE_UNUSED
, int sizeflag ATTRIBUTE_UNUSED
)
15219 used_prefixes
|= (prefixes
& PREFIX_DATA
);
15220 oappend (names_mm
[modrm
.reg
]);
15224 OP_EX (int bytemode
, int sizeflag
)
15227 const char **names
;
15229 /* Skip mod/rm byte. */
15233 if (modrm
.mod
!= 3)
15235 OP_E_memory (bytemode
, sizeflag
);
15250 if ((sizeflag
& SUFFIX_ALWAYS
)
15251 && (bytemode
== x_swap_mode
15252 || bytemode
== d_swap_mode
15253 || bytemode
== d_scalar_swap_mode
15254 || bytemode
== q_swap_mode
15255 || bytemode
== q_scalar_swap_mode
))
15259 && bytemode
!= xmm_mode
15260 && bytemode
!= xmmdw_mode
15261 && bytemode
!= xmmqd_mode
15262 && bytemode
!= xmm_mb_mode
15263 && bytemode
!= xmm_mw_mode
15264 && bytemode
!= xmm_md_mode
15265 && bytemode
!= xmm_mq_mode
15266 && bytemode
!= xmm_mdq_mode
15267 && bytemode
!= xmmq_mode
15268 && bytemode
!= evex_half_bcst_xmmq_mode
15269 && bytemode
!= ymm_mode
15270 && bytemode
!= d_scalar_mode
15271 && bytemode
!= d_scalar_swap_mode
15272 && bytemode
!= q_scalar_mode
15273 && bytemode
!= q_scalar_swap_mode
15274 && bytemode
!= vex_scalar_w_dq_mode
)
15276 switch (vex
.length
)
15291 else if (bytemode
== xmmq_mode
15292 || bytemode
== evex_half_bcst_xmmq_mode
)
15294 switch (vex
.length
)
15307 else if (bytemode
== ymm_mode
)
15311 oappend (names
[reg
]);
15315 OP_MS (int bytemode
, int sizeflag
)
15317 if (modrm
.mod
== 3)
15318 OP_EM (bytemode
, sizeflag
);
15324 OP_XS (int bytemode
, int sizeflag
)
15326 if (modrm
.mod
== 3)
15327 OP_EX (bytemode
, sizeflag
);
15333 OP_M (int bytemode
, int sizeflag
)
15335 if (modrm
.mod
== 3)
15336 /* bad bound,lea,lds,les,lfs,lgs,lss,cmpxchg8b,vmptrst modrm */
15339 OP_E (bytemode
, sizeflag
);
15343 OP_0f07 (int bytemode
, int sizeflag
)
15345 if (modrm
.mod
!= 3 || modrm
.rm
!= 0)
15348 OP_E (bytemode
, sizeflag
);
15351 /* NOP is an alias of "xchg %ax,%ax" in 16bit mode, "xchg %eax,%eax" in
15352 32bit mode and "xchg %rax,%rax" in 64bit mode. */
15355 NOP_Fixup1 (int bytemode
, int sizeflag
)
15357 if ((prefixes
& PREFIX_DATA
) != 0
15360 && address_mode
== mode_64bit
))
15361 OP_REG (bytemode
, sizeflag
);
15363 strcpy (obuf
, "nop");
15367 NOP_Fixup2 (int bytemode
, int sizeflag
)
15369 if ((prefixes
& PREFIX_DATA
) != 0
15372 && address_mode
== mode_64bit
))
15373 OP_IMREG (bytemode
, sizeflag
);
15376 static const char *const Suffix3DNow
[] = {
15377 /* 00 */ NULL
, NULL
, NULL
, NULL
,
15378 /* 04 */ NULL
, NULL
, NULL
, NULL
,
15379 /* 08 */ NULL
, NULL
, NULL
, NULL
,
15380 /* 0C */ "pi2fw", "pi2fd", NULL
, NULL
,
15381 /* 10 */ NULL
, NULL
, NULL
, NULL
,
15382 /* 14 */ NULL
, NULL
, NULL
, NULL
,
15383 /* 18 */ NULL
, NULL
, NULL
, NULL
,
15384 /* 1C */ "pf2iw", "pf2id", NULL
, NULL
,
15385 /* 20 */ NULL
, NULL
, NULL
, NULL
,
15386 /* 24 */ NULL
, NULL
, NULL
, NULL
,
15387 /* 28 */ NULL
, NULL
, NULL
, NULL
,
15388 /* 2C */ NULL
, NULL
, NULL
, NULL
,
15389 /* 30 */ NULL
, NULL
, NULL
, NULL
,
15390 /* 34 */ NULL
, NULL
, NULL
, NULL
,
15391 /* 38 */ NULL
, NULL
, NULL
, NULL
,
15392 /* 3C */ NULL
, NULL
, NULL
, NULL
,
15393 /* 40 */ NULL
, NULL
, NULL
, NULL
,
15394 /* 44 */ NULL
, NULL
, NULL
, NULL
,
15395 /* 48 */ NULL
, NULL
, NULL
, NULL
,
15396 /* 4C */ NULL
, NULL
, NULL
, NULL
,
15397 /* 50 */ NULL
, NULL
, NULL
, NULL
,
15398 /* 54 */ NULL
, NULL
, NULL
, NULL
,
15399 /* 58 */ NULL
, NULL
, NULL
, NULL
,
15400 /* 5C */ NULL
, NULL
, NULL
, NULL
,
15401 /* 60 */ NULL
, NULL
, NULL
, NULL
,
15402 /* 64 */ NULL
, NULL
, NULL
, NULL
,
15403 /* 68 */ NULL
, NULL
, NULL
, NULL
,
15404 /* 6C */ NULL
, NULL
, NULL
, NULL
,
15405 /* 70 */ NULL
, NULL
, NULL
, NULL
,
15406 /* 74 */ NULL
, NULL
, NULL
, NULL
,
15407 /* 78 */ NULL
, NULL
, NULL
, NULL
,
15408 /* 7C */ NULL
, NULL
, NULL
, NULL
,
15409 /* 80 */ NULL
, NULL
, NULL
, NULL
,
15410 /* 84 */ NULL
, NULL
, NULL
, NULL
,
15411 /* 88 */ NULL
, NULL
, "pfnacc", NULL
,
15412 /* 8C */ NULL
, NULL
, "pfpnacc", NULL
,
15413 /* 90 */ "pfcmpge", NULL
, NULL
, NULL
,
15414 /* 94 */ "pfmin", NULL
, "pfrcp", "pfrsqrt",
15415 /* 98 */ NULL
, NULL
, "pfsub", NULL
,
15416 /* 9C */ NULL
, NULL
, "pfadd", NULL
,
15417 /* A0 */ "pfcmpgt", NULL
, NULL
, NULL
,
15418 /* A4 */ "pfmax", NULL
, "pfrcpit1", "pfrsqit1",
15419 /* A8 */ NULL
, NULL
, "pfsubr", NULL
,
15420 /* AC */ NULL
, NULL
, "pfacc", NULL
,
15421 /* B0 */ "pfcmpeq", NULL
, NULL
, NULL
,
15422 /* B4 */ "pfmul", NULL
, "pfrcpit2", "pmulhrw",
15423 /* B8 */ NULL
, NULL
, NULL
, "pswapd",
15424 /* BC */ NULL
, NULL
, NULL
, "pavgusb",
15425 /* C0 */ NULL
, NULL
, NULL
, NULL
,
15426 /* C4 */ NULL
, NULL
, NULL
, NULL
,
15427 /* C8 */ NULL
, NULL
, NULL
, NULL
,
15428 /* CC */ NULL
, NULL
, NULL
, NULL
,
15429 /* D0 */ NULL
, NULL
, NULL
, NULL
,
15430 /* D4 */ NULL
, NULL
, NULL
, NULL
,
15431 /* D8 */ NULL
, NULL
, NULL
, NULL
,
15432 /* DC */ NULL
, NULL
, NULL
, NULL
,
15433 /* E0 */ NULL
, NULL
, NULL
, NULL
,
15434 /* E4 */ NULL
, NULL
, NULL
, NULL
,
15435 /* E8 */ NULL
, NULL
, NULL
, NULL
,
15436 /* EC */ NULL
, NULL
, NULL
, NULL
,
15437 /* F0 */ NULL
, NULL
, NULL
, NULL
,
15438 /* F4 */ NULL
, NULL
, NULL
, NULL
,
15439 /* F8 */ NULL
, NULL
, NULL
, NULL
,
15440 /* FC */ NULL
, NULL
, NULL
, NULL
,
15444 OP_3DNowSuffix (int bytemode ATTRIBUTE_UNUSED
, int sizeflag ATTRIBUTE_UNUSED
)
15446 const char *mnemonic
;
15448 FETCH_DATA (the_info
, codep
+ 1);
15449 /* AMD 3DNow! instructions are specified by an opcode suffix in the
15450 place where an 8-bit immediate would normally go. ie. the last
15451 byte of the instruction. */
15452 obufp
= mnemonicendp
;
15453 mnemonic
= Suffix3DNow
[*codep
++ & 0xff];
15455 oappend (mnemonic
);
15458 /* Since a variable sized modrm/sib chunk is between the start
15459 of the opcode (0x0f0f) and the opcode suffix, we need to do
15460 all the modrm processing first, and don't know until now that
15461 we have a bad opcode. This necessitates some cleaning up. */
15462 op_out
[0][0] = '\0';
15463 op_out
[1][0] = '\0';
15466 mnemonicendp
= obufp
;
15469 static struct op simd_cmp_op
[] =
15471 { STRING_COMMA_LEN ("eq") },
15472 { STRING_COMMA_LEN ("lt") },
15473 { STRING_COMMA_LEN ("le") },
15474 { STRING_COMMA_LEN ("unord") },
15475 { STRING_COMMA_LEN ("neq") },
15476 { STRING_COMMA_LEN ("nlt") },
15477 { STRING_COMMA_LEN ("nle") },
15478 { STRING_COMMA_LEN ("ord") }
15482 CMP_Fixup (int bytemode ATTRIBUTE_UNUSED
, int sizeflag ATTRIBUTE_UNUSED
)
15484 unsigned int cmp_type
;
15486 FETCH_DATA (the_info
, codep
+ 1);
15487 cmp_type
= *codep
++ & 0xff;
15488 if (cmp_type
< ARRAY_SIZE (simd_cmp_op
))
15491 char *p
= mnemonicendp
- 2;
15495 sprintf (p
, "%s%s", simd_cmp_op
[cmp_type
].name
, suffix
);
15496 mnemonicendp
+= simd_cmp_op
[cmp_type
].len
;
15500 /* We have a reserved extension byte. Output it directly. */
15501 scratchbuf
[0] = '$';
15502 print_operand_value (scratchbuf
+ 1, 1, cmp_type
);
15503 oappend_maybe_intel (scratchbuf
);
15504 scratchbuf
[0] = '\0';
15509 OP_Mwaitx (int bytemode ATTRIBUTE_UNUSED
,
15510 int sizeflag ATTRIBUTE_UNUSED
)
15512 /* mwaitx %eax,%ecx,%ebx */
15515 const char **names
= (address_mode
== mode_64bit
15516 ? names64
: names32
);
15517 strcpy (op_out
[0], names
[0]);
15518 strcpy (op_out
[1], names
[1]);
15519 strcpy (op_out
[2], names
[3]);
15520 two_source_ops
= 1;
15522 /* Skip mod/rm byte. */
15528 OP_Mwait (int bytemode ATTRIBUTE_UNUSED
,
15529 int sizeflag ATTRIBUTE_UNUSED
)
15531 /* mwait %eax,%ecx */
15534 const char **names
= (address_mode
== mode_64bit
15535 ? names64
: names32
);
15536 strcpy (op_out
[0], names
[0]);
15537 strcpy (op_out
[1], names
[1]);
15538 two_source_ops
= 1;
15540 /* Skip mod/rm byte. */
15546 OP_Monitor (int bytemode ATTRIBUTE_UNUSED
,
15547 int sizeflag ATTRIBUTE_UNUSED
)
15549 /* monitor %eax,%ecx,%edx" */
15552 const char **op1_names
;
15553 const char **names
= (address_mode
== mode_64bit
15554 ? names64
: names32
);
15556 if (!(prefixes
& PREFIX_ADDR
))
15557 op1_names
= (address_mode
== mode_16bit
15558 ? names16
: names
);
15561 /* Remove "addr16/addr32". */
15562 all_prefixes
[last_addr_prefix
] = 0;
15563 op1_names
= (address_mode
!= mode_32bit
15564 ? names32
: names16
);
15565 used_prefixes
|= PREFIX_ADDR
;
15567 strcpy (op_out
[0], op1_names
[0]);
15568 strcpy (op_out
[1], names
[1]);
15569 strcpy (op_out
[2], names
[2]);
15570 two_source_ops
= 1;
15572 /* Skip mod/rm byte. */
15580 /* Throw away prefixes and 1st. opcode byte. */
15581 codep
= insn_codep
+ 1;
15586 REP_Fixup (int bytemode
, int sizeflag
)
15588 /* The 0xf3 prefix should be displayed as "rep" for ins, outs, movs,
15590 if (prefixes
& PREFIX_REPZ
)
15591 all_prefixes
[last_repz_prefix
] = REP_PREFIX
;
15598 OP_IMREG (bytemode
, sizeflag
);
15601 OP_ESreg (bytemode
, sizeflag
);
15604 OP_DSreg (bytemode
, sizeflag
);
15612 /* For BND-prefixed instructions 0xF2 prefix should be displayed as
15616 BND_Fixup (int bytemode ATTRIBUTE_UNUSED
, int sizeflag ATTRIBUTE_UNUSED
)
15618 if (prefixes
& PREFIX_REPNZ
)
15619 all_prefixes
[last_repnz_prefix
] = BND_PREFIX
;
15622 /* For NOTRACK-prefixed instructions, 0x3E prefix should be displayed as
15626 NOTRACK_Fixup (int bytemode ATTRIBUTE_UNUSED
,
15627 int sizeflag ATTRIBUTE_UNUSED
)
15629 if (active_seg_prefix
== PREFIX_DS
15630 && (address_mode
!= mode_64bit
|| last_data_prefix
< 0))
15632 /* NOTRACK prefix is only valid on indirect branch instructions.
15633 NB: DATA prefix is unsupported for Intel64. */
15634 active_seg_prefix
= 0;
15635 all_prefixes
[last_seg_prefix
] = NOTRACK_PREFIX
;
15639 /* Similar to OP_E. But the 0xf2/0xf3 prefixes should be displayed as
15640 "xacquire"/"xrelease" for memory operand if there is a LOCK prefix.
15644 HLE_Fixup1 (int bytemode
, int sizeflag
)
15647 && (prefixes
& PREFIX_LOCK
) != 0)
15649 if (prefixes
& PREFIX_REPZ
)
15650 all_prefixes
[last_repz_prefix
] = XRELEASE_PREFIX
;
15651 if (prefixes
& PREFIX_REPNZ
)
15652 all_prefixes
[last_repnz_prefix
] = XACQUIRE_PREFIX
;
15655 OP_E (bytemode
, sizeflag
);
15658 /* Similar to OP_E. But the 0xf2/0xf3 prefixes should be displayed as
15659 "xacquire"/"xrelease" for memory operand. No check for LOCK prefix.
15663 HLE_Fixup2 (int bytemode
, int sizeflag
)
15665 if (modrm
.mod
!= 3)
15667 if (prefixes
& PREFIX_REPZ
)
15668 all_prefixes
[last_repz_prefix
] = XRELEASE_PREFIX
;
15669 if (prefixes
& PREFIX_REPNZ
)
15670 all_prefixes
[last_repnz_prefix
] = XACQUIRE_PREFIX
;
15673 OP_E (bytemode
, sizeflag
);
15676 /* Similar to OP_E. But the 0xf3 prefixes should be displayed as
15677 "xrelease" for memory operand. No check for LOCK prefix. */
15680 HLE_Fixup3 (int bytemode
, int sizeflag
)
15683 && last_repz_prefix
> last_repnz_prefix
15684 && (prefixes
& PREFIX_REPZ
) != 0)
15685 all_prefixes
[last_repz_prefix
] = XRELEASE_PREFIX
;
15687 OP_E (bytemode
, sizeflag
);
15691 CMPXCHG8B_Fixup (int bytemode
, int sizeflag
)
15696 /* Change cmpxchg8b to cmpxchg16b. */
15697 char *p
= mnemonicendp
- 2;
15698 mnemonicendp
= stpcpy (p
, "16b");
15701 else if ((prefixes
& PREFIX_LOCK
) != 0)
15703 if (prefixes
& PREFIX_REPZ
)
15704 all_prefixes
[last_repz_prefix
] = XRELEASE_PREFIX
;
15705 if (prefixes
& PREFIX_REPNZ
)
15706 all_prefixes
[last_repnz_prefix
] = XACQUIRE_PREFIX
;
15709 OP_M (bytemode
, sizeflag
);
15713 XMM_Fixup (int reg
, int sizeflag ATTRIBUTE_UNUSED
)
15715 const char **names
;
15719 switch (vex
.length
)
15733 oappend (names
[reg
]);
15737 CRC32_Fixup (int bytemode
, int sizeflag
)
15739 /* Add proper suffix to "crc32". */
15740 char *p
= mnemonicendp
;
15759 if (sizeflag
& DFLAG
)
15763 used_prefixes
|= (prefixes
& PREFIX_DATA
);
15767 oappend (INTERNAL_DISASSEMBLER_ERROR
);
15774 if (modrm
.mod
== 3)
15778 /* Skip mod/rm byte. */
15783 add
= (rex
& REX_B
) ? 8 : 0;
15784 if (bytemode
== b_mode
)
15788 oappend (names8rex
[modrm
.rm
+ add
]);
15790 oappend (names8
[modrm
.rm
+ add
]);
15796 oappend (names64
[modrm
.rm
+ add
]);
15797 else if ((prefixes
& PREFIX_DATA
))
15798 oappend (names16
[modrm
.rm
+ add
]);
15800 oappend (names32
[modrm
.rm
+ add
]);
15804 OP_E (bytemode
, sizeflag
);
15808 FXSAVE_Fixup (int bytemode
, int sizeflag
)
15810 /* Add proper suffix to "fxsave" and "fxrstor". */
15814 char *p
= mnemonicendp
;
15820 OP_M (bytemode
, sizeflag
);
15824 PCMPESTR_Fixup (int bytemode
, int sizeflag
)
15826 /* Add proper suffix to "{,v}pcmpestr{i,m}". */
15829 char *p
= mnemonicendp
;
15834 else if (sizeflag
& SUFFIX_ALWAYS
)
15841 OP_EX (bytemode
, sizeflag
);
15844 /* Display the destination register operand for instructions with
15848 OP_VEX (int bytemode
, int sizeflag ATTRIBUTE_UNUSED
)
15851 const char **names
;
15859 reg
= vex
.register_specifier
;
15860 vex
.register_specifier
= 0;
15861 if (address_mode
!= mode_64bit
)
15863 else if (vex
.evex
&& !vex
.v
)
15866 if (bytemode
== vex_scalar_mode
)
15868 oappend (names_xmm
[reg
]);
15872 switch (vex
.length
)
15879 case vex_vsib_q_w_dq_mode
:
15880 case vex_vsib_q_w_d_mode
:
15896 names
= names_mask
;
15910 case vex_vsib_q_w_dq_mode
:
15911 case vex_vsib_q_w_d_mode
:
15912 names
= vex
.w
? names_ymm
: names_xmm
;
15921 names
= names_mask
;
15924 /* See PR binutils/20893 for a reproducer. */
15936 oappend (names
[reg
]);
15939 /* Get the VEX immediate byte without moving codep. */
15941 static unsigned char
15942 get_vex_imm8 (int sizeflag
, int opnum
)
15944 int bytes_before_imm
= 0;
15946 if (modrm
.mod
!= 3)
15948 /* There are SIB/displacement bytes. */
15949 if ((sizeflag
& AFLAG
) || address_mode
== mode_64bit
)
15951 /* 32/64 bit address mode */
15952 int base
= modrm
.rm
;
15954 /* Check SIB byte. */
15957 FETCH_DATA (the_info
, codep
+ 1);
15959 /* When decoding the third source, don't increase
15960 bytes_before_imm as this has already been incremented
15961 by one in OP_E_memory while decoding the second
15964 bytes_before_imm
++;
15967 /* Don't increase bytes_before_imm when decoding the third source,
15968 it has already been incremented by OP_E_memory while decoding
15969 the second source operand. */
15975 /* When modrm.rm == 5 or modrm.rm == 4 and base in
15976 SIB == 5, there is a 4 byte displacement. */
15978 /* No displacement. */
15980 /* Fall through. */
15982 /* 4 byte displacement. */
15983 bytes_before_imm
+= 4;
15986 /* 1 byte displacement. */
15987 bytes_before_imm
++;
15994 /* 16 bit address mode */
15995 /* Don't increase bytes_before_imm when decoding the third source,
15996 it has already been incremented by OP_E_memory while decoding
15997 the second source operand. */
16003 /* When modrm.rm == 6, there is a 2 byte displacement. */
16005 /* No displacement. */
16007 /* Fall through. */
16009 /* 2 byte displacement. */
16010 bytes_before_imm
+= 2;
16013 /* 1 byte displacement: when decoding the third source,
16014 don't increase bytes_before_imm as this has already
16015 been incremented by one in OP_E_memory while decoding
16016 the second source operand. */
16018 bytes_before_imm
++;
16026 FETCH_DATA (the_info
, codep
+ bytes_before_imm
+ 1);
16027 return codep
[bytes_before_imm
];
16031 OP_EX_VexReg (int bytemode
, int sizeflag
, int reg
)
16033 const char **names
;
16035 if (reg
== -1 && modrm
.mod
!= 3)
16037 OP_E_memory (bytemode
, sizeflag
);
16049 if (address_mode
!= mode_64bit
)
16053 switch (vex
.length
)
16064 oappend (names
[reg
]);
16068 OP_EX_VexImmW (int bytemode
, int sizeflag
)
16071 static unsigned char vex_imm8
;
16073 if (vex_w_done
== 0)
16077 /* Skip mod/rm byte. */
16081 vex_imm8
= get_vex_imm8 (sizeflag
, 0);
16084 reg
= vex_imm8
>> 4;
16086 OP_EX_VexReg (bytemode
, sizeflag
, reg
);
16088 else if (vex_w_done
== 1)
16093 reg
= vex_imm8
>> 4;
16095 OP_EX_VexReg (bytemode
, sizeflag
, reg
);
16099 /* Output the imm8 directly. */
16100 scratchbuf
[0] = '$';
16101 print_operand_value (scratchbuf
+ 1, 1, vex_imm8
& 0xf);
16102 oappend_maybe_intel (scratchbuf
);
16103 scratchbuf
[0] = '\0';
16109 OP_Vex_2src (int bytemode
, int sizeflag
)
16111 if (modrm
.mod
== 3)
16113 int reg
= modrm
.rm
;
16117 oappend (names_xmm
[reg
]);
16122 && (bytemode
== v_mode
|| bytemode
== v_swap_mode
))
16124 bytemode
= (prefixes
& PREFIX_DATA
) ? x_mode
: q_mode
;
16125 used_prefixes
|= (prefixes
& PREFIX_DATA
);
16127 OP_E (bytemode
, sizeflag
);
16132 OP_Vex_2src_1 (int bytemode
, int sizeflag
)
16134 if (modrm
.mod
== 3)
16136 /* Skip mod/rm byte. */
16143 unsigned int reg
= vex
.register_specifier
;
16144 vex
.register_specifier
= 0;
16146 if (address_mode
!= mode_64bit
)
16148 oappend (names_xmm
[reg
]);
16151 OP_Vex_2src (bytemode
, sizeflag
);
16155 OP_Vex_2src_2 (int bytemode
, int sizeflag
)
16158 OP_Vex_2src (bytemode
, sizeflag
);
16161 unsigned int reg
= vex
.register_specifier
;
16162 vex
.register_specifier
= 0;
16164 if (address_mode
!= mode_64bit
)
16166 oappend (names_xmm
[reg
]);
16171 OP_EX_VexW (int bytemode
, int sizeflag
)
16177 /* Skip mod/rm byte. */
16182 reg
= get_vex_imm8 (sizeflag
, 0) >> 4;
16187 reg
= get_vex_imm8 (sizeflag
, 1) >> 4;
16190 OP_EX_VexReg (bytemode
, sizeflag
, reg
);
16198 OP_REG_VexI4 (int bytemode
, int sizeflag ATTRIBUTE_UNUSED
)
16201 const char **names
;
16203 FETCH_DATA (the_info
, codep
+ 1);
16206 if (bytemode
!= x_mode
)
16210 if (address_mode
!= mode_64bit
)
16213 switch (vex
.length
)
16224 oappend (names
[reg
]);
16228 OP_XMM_VexW (int bytemode
, int sizeflag
)
16230 /* Turn off the REX.W bit since it is used for swapping operands
16233 OP_XMM (bytemode
, sizeflag
);
16237 OP_EX_Vex (int bytemode
, int sizeflag
)
16239 if (modrm
.mod
!= 3)
16241 OP_EX (bytemode
, sizeflag
);
16245 OP_XMM_Vex (int bytemode
, int sizeflag
)
16247 if (modrm
.mod
!= 3)
16249 OP_XMM (bytemode
, sizeflag
);
16252 static struct op vex_cmp_op
[] =
16254 { STRING_COMMA_LEN ("eq") },
16255 { STRING_COMMA_LEN ("lt") },
16256 { STRING_COMMA_LEN ("le") },
16257 { STRING_COMMA_LEN ("unord") },
16258 { STRING_COMMA_LEN ("neq") },
16259 { STRING_COMMA_LEN ("nlt") },
16260 { STRING_COMMA_LEN ("nle") },
16261 { STRING_COMMA_LEN ("ord") },
16262 { STRING_COMMA_LEN ("eq_uq") },
16263 { STRING_COMMA_LEN ("nge") },
16264 { STRING_COMMA_LEN ("ngt") },
16265 { STRING_COMMA_LEN ("false") },
16266 { STRING_COMMA_LEN ("neq_oq") },
16267 { STRING_COMMA_LEN ("ge") },
16268 { STRING_COMMA_LEN ("gt") },
16269 { STRING_COMMA_LEN ("true") },
16270 { STRING_COMMA_LEN ("eq_os") },
16271 { STRING_COMMA_LEN ("lt_oq") },
16272 { STRING_COMMA_LEN ("le_oq") },
16273 { STRING_COMMA_LEN ("unord_s") },
16274 { STRING_COMMA_LEN ("neq_us") },
16275 { STRING_COMMA_LEN ("nlt_uq") },
16276 { STRING_COMMA_LEN ("nle_uq") },
16277 { STRING_COMMA_LEN ("ord_s") },
16278 { STRING_COMMA_LEN ("eq_us") },
16279 { STRING_COMMA_LEN ("nge_uq") },
16280 { STRING_COMMA_LEN ("ngt_uq") },
16281 { STRING_COMMA_LEN ("false_os") },
16282 { STRING_COMMA_LEN ("neq_os") },
16283 { STRING_COMMA_LEN ("ge_oq") },
16284 { STRING_COMMA_LEN ("gt_oq") },
16285 { STRING_COMMA_LEN ("true_us") },
16289 VCMP_Fixup (int bytemode ATTRIBUTE_UNUSED
, int sizeflag ATTRIBUTE_UNUSED
)
16291 unsigned int cmp_type
;
16293 FETCH_DATA (the_info
, codep
+ 1);
16294 cmp_type
= *codep
++ & 0xff;
16295 if (cmp_type
< ARRAY_SIZE (vex_cmp_op
))
16298 char *p
= mnemonicendp
- 2;
16302 sprintf (p
, "%s%s", vex_cmp_op
[cmp_type
].name
, suffix
);
16303 mnemonicendp
+= vex_cmp_op
[cmp_type
].len
;
16307 /* We have a reserved extension byte. Output it directly. */
16308 scratchbuf
[0] = '$';
16309 print_operand_value (scratchbuf
+ 1, 1, cmp_type
);
16310 oappend_maybe_intel (scratchbuf
);
16311 scratchbuf
[0] = '\0';
16316 VPCMP_Fixup (int bytemode ATTRIBUTE_UNUSED
,
16317 int sizeflag ATTRIBUTE_UNUSED
)
16319 unsigned int cmp_type
;
16324 FETCH_DATA (the_info
, codep
+ 1);
16325 cmp_type
= *codep
++ & 0xff;
16326 /* There are aliases for immediates 0, 1, 2, 4, 5, 6.
16327 If it's the case, print suffix, otherwise - print the immediate. */
16328 if (cmp_type
< ARRAY_SIZE (simd_cmp_op
)
16333 char *p
= mnemonicendp
- 2;
16335 /* vpcmp* can have both one- and two-lettered suffix. */
16349 sprintf (p
, "%s%s", simd_cmp_op
[cmp_type
].name
, suffix
);
16350 mnemonicendp
+= simd_cmp_op
[cmp_type
].len
;
16354 /* We have a reserved extension byte. Output it directly. */
16355 scratchbuf
[0] = '$';
16356 print_operand_value (scratchbuf
+ 1, 1, cmp_type
);
16357 oappend_maybe_intel (scratchbuf
);
16358 scratchbuf
[0] = '\0';
16362 static const struct op xop_cmp_op
[] =
16364 { STRING_COMMA_LEN ("lt") },
16365 { STRING_COMMA_LEN ("le") },
16366 { STRING_COMMA_LEN ("gt") },
16367 { STRING_COMMA_LEN ("ge") },
16368 { STRING_COMMA_LEN ("eq") },
16369 { STRING_COMMA_LEN ("neq") },
16370 { STRING_COMMA_LEN ("false") },
16371 { STRING_COMMA_LEN ("true") }
16375 VPCOM_Fixup (int bytemode ATTRIBUTE_UNUSED
,
16376 int sizeflag ATTRIBUTE_UNUSED
)
16378 unsigned int cmp_type
;
16380 FETCH_DATA (the_info
, codep
+ 1);
16381 cmp_type
= *codep
++ & 0xff;
16382 if (cmp_type
< ARRAY_SIZE (xop_cmp_op
))
16385 char *p
= mnemonicendp
- 2;
16387 /* vpcom* can have both one- and two-lettered suffix. */
16401 sprintf (p
, "%s%s", xop_cmp_op
[cmp_type
].name
, suffix
);
16402 mnemonicendp
+= xop_cmp_op
[cmp_type
].len
;
16406 /* We have a reserved extension byte. Output it directly. */
16407 scratchbuf
[0] = '$';
16408 print_operand_value (scratchbuf
+ 1, 1, cmp_type
);
16409 oappend_maybe_intel (scratchbuf
);
16410 scratchbuf
[0] = '\0';
16414 static const struct op pclmul_op
[] =
16416 { STRING_COMMA_LEN ("lql") },
16417 { STRING_COMMA_LEN ("hql") },
16418 { STRING_COMMA_LEN ("lqh") },
16419 { STRING_COMMA_LEN ("hqh") }
16423 PCLMUL_Fixup (int bytemode ATTRIBUTE_UNUSED
,
16424 int sizeflag ATTRIBUTE_UNUSED
)
16426 unsigned int pclmul_type
;
16428 FETCH_DATA (the_info
, codep
+ 1);
16429 pclmul_type
= *codep
++ & 0xff;
16430 switch (pclmul_type
)
16441 if (pclmul_type
< ARRAY_SIZE (pclmul_op
))
16444 char *p
= mnemonicendp
- 3;
16449 sprintf (p
, "%s%s", pclmul_op
[pclmul_type
].name
, suffix
);
16450 mnemonicendp
+= pclmul_op
[pclmul_type
].len
;
16454 /* We have a reserved extension byte. Output it directly. */
16455 scratchbuf
[0] = '$';
16456 print_operand_value (scratchbuf
+ 1, 1, pclmul_type
);
16457 oappend_maybe_intel (scratchbuf
);
16458 scratchbuf
[0] = '\0';
16463 MOVBE_Fixup (int bytemode
, int sizeflag
)
16465 /* Add proper suffix to "movbe". */
16466 char *p
= mnemonicendp
;
16475 if (sizeflag
& SUFFIX_ALWAYS
)
16481 if (sizeflag
& DFLAG
)
16485 used_prefixes
|= (prefixes
& PREFIX_DATA
);
16490 oappend (INTERNAL_DISASSEMBLER_ERROR
);
16497 OP_M (bytemode
, sizeflag
);
16501 OP_LWPCB_E (int bytemode ATTRIBUTE_UNUSED
, int sizeflag ATTRIBUTE_UNUSED
)
16504 const char **names
;
16506 /* Skip mod/rm byte. */
16520 oappend (names
[reg
]);
16524 OP_LWP_E (int bytemode ATTRIBUTE_UNUSED
, int sizeflag ATTRIBUTE_UNUSED
)
16526 const char **names
;
16527 unsigned int reg
= vex
.register_specifier
;
16528 vex
.register_specifier
= 0;
16535 if (address_mode
!= mode_64bit
)
16537 oappend (names
[reg
]);
16541 OP_Mask (int bytemode
, int sizeflag ATTRIBUTE_UNUSED
)
16544 || (bytemode
!= mask_mode
&& bytemode
!= mask_bd_mode
))
16548 if ((rex
& REX_R
) != 0 || !vex
.r
)
16554 oappend (names_mask
[modrm
.reg
]);
16558 OP_Rounding (int bytemode
, int sizeflag ATTRIBUTE_UNUSED
)
16561 || (bytemode
!= evex_rounding_mode
16562 && bytemode
!= evex_rounding_64_mode
16563 && bytemode
!= evex_sae_mode
))
16565 if (modrm
.mod
== 3 && vex
.b
)
16568 case evex_rounding_64_mode
:
16569 if (address_mode
!= mode_64bit
)
16574 /* Fall through. */
16575 case evex_rounding_mode
:
16576 oappend (names_rounding
[vex
.ll
]);
16578 case evex_sae_mode
: