The Design and Implementation of the FreeBSD Operating System, Second Edition
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FreeBSD/Linux Kernel Cross Reference
sys/sparc64/sparc64/db_disasm.c

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    1 /*-
    2  * Copyright (c) 1994 David S. Miller, davem@nadzieja.rutgers.edu
    3  * Copyright (c) 1995 Paul Kranenburg
    4  * All rights reserved.
    5  *
    6  * Redistribution and use in source and binary forms, with or without
    7  * modification, are permitted provided that the following conditions
    8  * are met:
    9  * 1. Redistributions of source code must retain the above copyright
   10  *    notice, this list of conditions and the following disclaimer.
   11  * 2. Redistributions in binary form must reproduce the above copyright
   12  *    notice, this list of conditions and the following disclaimer in the
   13  *    documentation and/or other materials provided with the distribution.
   14  * 3. All advertising materials mentioning features or use of this software
   15  *    must display the following acknowledgement:
   16  *      This product includes software developed by David Miller.
   17  * 4. The name of the author may not be used to endorse or promote products
   18  *    derived from this software without specific prior written permission
   19  *
   20  * THIS SOFTWARE IS PROVIDED BY THE AUTHOR ``AS IS'' AND ANY EXPRESS OR
   21  * IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE IMPLIED WARRANTIES
   22  * OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE ARE DISCLAIMED.
   23  * IN NO EVENT SHALL THE AUTHOR BE LIABLE FOR ANY DIRECT, INDIRECT,
   24  * INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT
   25  * NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
   26  * DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
   27  * THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
   28  * (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF
   29  * THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
   30  *      from: NetBSD: db_disasm.c,v 1.9 2000/08/16 11:29:42 pk Exp
   31  * $FreeBSD: releng/6.0/sys/sparc64/sparc64/db_disasm.c 139825 2005-01-07 02:29:27Z imp $
   32  */
   33 
   34 #include <sys/param.h>
   35 #include <sys/systm.h>
   36 
   37 #include <ddb/ddb.h>
   38 #include <ddb/db_access.h>
   39 #include <ddb/db_sym.h>
   40 
   41 #include <machine/db_machdep.h>
   42 #include <machine/instr.h>
   43 
   44 #define SIGN(v)                 (((v)<0)?"-":"")
   45 
   46 /*
   47  * All Sparc instructions are 32-bits, with the one exception being
   48  * the set instruction which is actually a macro which expands into
   49  * two instructions...
   50  *
   51  * There are 5 different fields that can be used to identify which
   52  * operation is encoded into a particular 32-bit insn. There are 3
   53  * formats for instuctions, which one being used is determined by
   54  * bits 30-31 of the insn. Here are the bit fields and their names:
   55  *
   56  * 1100 0000 0000 0000 0000 0000 0000 0000 op field, determines format
   57  * 0000 0001 1100 0000 0000 0000 0000 0000 op2 field, format 2 only
   58  * 0000 0001 1111 1000 0000 0000 0000 0000 op3 field, format 3 only
   59  * 0000 0000 0000 0000 0010 0000 0000 0000 f3i bit, format 3 only
   60  * 0000 0000 0000 0000 0001 0000 0000 0000 X bit, format 3 only
   61  */
   62 
   63 /* FORMAT macros used in sparc_i table to decode each opcode */
   64 #define FORMAT1(a)      (EIF_OP(a))
   65 #define FORMAT2(a,b)    (EIF_OP(a) | EIF_F2_OP2(b))
   66 /* For formats 3 and 4 */
   67 #define FORMAT3(a,b,c)  (EIF_OP(a) | EIF_F3_OP3(b) | EIF_F3_I(c))
   68 #define FORMAT3F(a,b,c) (EIF_OP(a) | EIF_F3_OP3(b) | EIF_F3_OPF(c))
   69 
   70 /* Helper macros to construct OP3 & OPF */
   71 #define OP3_X(x,y)      ((((x) & 3) << 4) | ((y) & 0xf))
   72 #define OPF_X(x,y)      ((((x) & 0x1f) << 4) | ((y) & 0xf))
   73 
   74 /* COND condition codes field... */
   75 #define COND2(y,x)      (((((y)<<4) & 1)|((x) & 0xf)) << 14)
   76 
   77 struct sparc_insn {
   78           unsigned int match;
   79           char* name;
   80           char* format;
   81 };
   82 
   83 char* regs[] = {
   84         "g0", "g1", "g2", "g3", "g4", "g5", "g6", "g7",
   85         "o0", "o1", "o2", "o3", "o4", "o5", "sp", "o7",
   86         "l0", "l1", "l2", "l3", "l4", "l5", "l6", "l7",
   87         "i0", "i1", "i2", "i3", "i4", "i5", "fp", "i7"
   88 };
   89 
   90 char* priv_regs[] = {
   91         "tpc", "tnpc", "tstate", "tt", "tick", "tba", "pstate", "tl",
   92         "pil", "cwp", "cansave", "canrestore", "cleanwin", "otherwin",
   93         "wstate", "fq",
   94         "", "", "", "", "", "", "", "",
   95         "", "", "", "", "", "", "", "ver"
   96 };
   97 
   98 char* state_regs[] = {
   99         "y", "", "ccr", "asi", "tick", "pc", "fprs", "asr",
  100         "", "", "", "", "", "", "", "",
  101         "pcr", "pic", "dcr", "gsr", "set_softint", "clr_softint", "softint", "tick_cmpr", "",
  102         "", "", "", "", "", "", "", ""
  103 };
  104 
  105 char* ccodes[] = {
  106         "fcc0", "fcc1", "fcc2", "fcc3", "icc", "", "xcc", ""
  107 };
  108 
  109 char* prefetch[] = {
  110         "n_reads", "one_read", "n_writes", "one_write", "page"
  111 };
  112 
  113 
  114 /* The sparc instruction table has a format field which tells what
  115    the operand structure for this instruction is. Here are the codes:
  116 
  117 Modifiers (nust be first):
  118         a -- opcode has annul bit
  119         p -- opcode has branch prediction bit
  120 
  121 Codes:
  122         1 -- source register operand stored in rs1
  123         2 -- source register operand stored in rs2
  124         d -- destination register operand stored in rd
  125         3 -- floating source register in rs1
  126         4 -- floating source register in rs2
  127         e -- floating destination register in rd
  128         i -- 13-bit immediate value stored in simm13
  129         j -- 11-bit immediate value stored in simm11
  130         l -- displacement using d16lo and d16hi
  131         m -- 22-bit fcc displacement value
  132         n -- 30-bit displacement used in call insns
  133         o -- %fcc number specified in cc1 and cc0 fields
  134         p -- address computed by the contents of rs1+rs2
  135         q -- address computed by the contents of rs1+simm13
  136         r -- prefetch
  137         s -- %asi is implicit in the insn, rs1 value not used
  138         t -- immediate 8-bit asi value
  139         u -- 19-bit fcc displacement value
  140         5 -- hard register, %fsr lower-half
  141         6 -- hard register, %fsr all
  142         7 -- [reg_addr rs1+rs2] imm_asi
  143         8 -- [reg_addr rs1+simm13] %asi
  144         9 -- logical or of the cmask and mmask fields (membar insn)
  145         0 -- icc or xcc condition codes register
  146         . -- %fcc, %icc, or %xcc in opf_cc field
  147         r -- prefection function stored in fcn field
  148         A -- privileged register encoded in rs1
  149         B -- state register encoded in rs1
  150         C -- %hi(value) where value is stored in imm22 field
  151         D -- 32-bit shift count in shcnt32
  152         E -- 64-bit shift count in shcnt64
  153         F -- software trap number stored in sw_trap
  154         G -- privileged register encoded in rd
  155         H -- state register encoded in rd
  156 
  157 V8 only:
  158         Y -- write y register
  159         P -- write psr register
  160         T -- write tbr register
  161         W -- write wim register
  162 */
  163 
  164 
  165 struct sparc_insn sparc_i[] = {
  166 
  167         /*
  168          * Format 1: Call
  169          */
  170         {(FORMAT1(1)), "call", "n"},
  171 
  172         /*
  173          * Format 0: Sethi & Branches
  174          */
  175         /* Illegal Instruction Trap */
  176         {(FORMAT2(0, 0)), "illtrap", "m"},
  177 
  178         /* Note: if imm22 is zero then this is actually a "nop" grrr... */
  179         {(FORMAT2(0, 0x4)), "sethi", "Cd"},
  180 
  181         /* Branch on Integer Co`ndition Codes "Bicc" */
  182         {(FORMAT2(0, 2) | EIF_F2_COND(8)), "ba", "a,m"},
  183         {(FORMAT2(0, 2) | EIF_F2_COND(0)), "bn", "a,m"},
  184         {(FORMAT2(0, 2) | EIF_F2_COND(9)), "bne", "a,m"},
  185         {(FORMAT2(0, 2) | EIF_F2_COND(1)), "be", "a,m"},
  186         {(FORMAT2(0, 2) | EIF_F2_COND(10)), "bg", "a,m"},
  187         {(FORMAT2(0, 2) | EIF_F2_COND(2)), "ble", "a,m"},
  188         {(FORMAT2(0, 2) | EIF_F2_COND(11)), "bge", "a,m"},
  189         {(FORMAT2(0, 2) | EIF_F2_COND(3)), "bl", "a,m"},
  190         {(FORMAT2(0, 2) | EIF_F2_COND(12)), "bgu", "a,m"},
  191         {(FORMAT2(0, 2) | EIF_F2_COND(4)), "bleu", "a,m"},
  192         {(FORMAT2(0, 2) | EIF_F2_COND(13)), "bcc", "a,m"},
  193         {(FORMAT2(0, 2) | EIF_F2_COND(5)), "bcs", "a,m"},
  194         {(FORMAT2(0, 2) | EIF_F2_COND(14)), "bpos", "a,m"},
  195         {(FORMAT2(0, 2) | EIF_F2_COND(6)), "bneg", "a,m"},
  196         {(FORMAT2(0, 2) | EIF_F2_COND(15)), "bvc", "a,m"},
  197         {(FORMAT2(0, 2) | EIF_F2_COND(7)), "bvs", "a,m"},
  198 
  199         /* Branch on Integer Condition Codes with Prediction "BPcc" */
  200         {(FORMAT2(0, 1) | EIF_F2_COND(8)), "ba", "ap,u"},
  201         {(FORMAT2(0, 1) | EIF_F2_COND(0)), "bn", "ap,u"},
  202         {(FORMAT2(0, 1) | EIF_F2_COND(9)), "bne", "ap,u"},
  203         {(FORMAT2(0, 1) | EIF_F2_COND(1)), "be", "ap,u"},
  204         {(FORMAT2(0, 1) | EIF_F2_COND(10)), "bg", "ap,u"},
  205         {(FORMAT2(0, 1) | EIF_F2_COND(2)), "ble", "ap,u"},
  206         {(FORMAT2(0, 1) | EIF_F2_COND(11)), "bge", "ap,u"},
  207         {(FORMAT2(0, 1) | EIF_F2_COND(3)), "bl", "ap,u"},
  208         {(FORMAT2(0, 1) | EIF_F2_COND(12)), "bgu", "ap,u"},
  209         {(FORMAT2(0, 1) | EIF_F2_COND(4)), "bleu", "ap,u"},
  210         {(FORMAT2(0, 1) | EIF_F2_COND(13)), "bcc", "ap,u"},
  211         {(FORMAT2(0, 1) | EIF_F2_COND(5)), "bcs", "ap,u"},
  212         {(FORMAT2(0, 1) | EIF_F2_COND(14)), "bpos", "ap,u"},
  213         {(FORMAT2(0, 1) | EIF_F2_COND(6)), "bneg", "ap,u"},
  214         {(FORMAT2(0, 1) | EIF_F2_COND(15)), "bvc", "ap,u"},
  215         {(FORMAT2(0, 1) | EIF_F2_COND(7)), "bvs", "ap,u"},
  216 
  217         /* Branch on Integer Register with Prediction "BPr" */
  218         {(FORMAT2(0, 3) | EIF_F2_RCOND(1)), "brz", "ap,1l"},
  219         {(FORMAT2(0, 3) | EIF_F2_A(1) | EIF_F2_P(1) |
  220             EIF_F2_RCOND(2)), "brlex", "ap,1l"},
  221         {(FORMAT2(0, 3) | EIF_F2_RCOND(3)), "brlz", "ap,1l"},
  222         {(FORMAT2(0, 3) | EIF_F2_RCOND(5)), "brnz", "ap,1l"},
  223         {(FORMAT2(0, 3) | EIF_F2_RCOND(6)), "brgz", "ap,1l"},
  224         {(FORMAT2(0, 3) | EIF_F2_RCOND(7)), "brgez", "ap,1l"},
  225 
  226         /* Branch on Floating-Point Condition Codes with Prediction "FBPfcc" */
  227         {(FORMAT2(0, 5) | EIF_F2_COND(8)), "fba", "ap,m"},
  228         {(FORMAT2(0, 5) | EIF_F2_COND(0)), "fbn", "ap,m"},
  229         {(FORMAT2(0, 5) | EIF_F2_COND(7)), "fbu", "ap,m"},
  230         {(FORMAT2(0, 5) | EIF_F2_COND(6)), "fbg", "ap,m"},
  231         {(FORMAT2(0, 5) | EIF_F2_COND(5)), "fbug", "ap,m"},
  232         {(FORMAT2(0, 5) | EIF_F2_COND(4)), "fbl", "ap,m"},
  233         {(FORMAT2(0, 5) | EIF_F2_COND(3)), "fbul", "ap,m"},
  234         {(FORMAT2(0, 5) | EIF_F2_COND(2)), "fblg", "ap,m"},
  235         {(FORMAT2(0, 5) | EIF_F2_COND(1)), "fbne", "ap,m"},
  236         {(FORMAT2(0, 5) | EIF_F2_COND(9)), "fbe", "ap,m"},
  237         {(FORMAT2(0, 5) | EIF_F2_COND(10)), "fbue", "ap,m"},
  238         {(FORMAT2(0, 5) | EIF_F2_COND(11)), "fbge", "ap,m"},
  239         {(FORMAT2(0, 5) | EIF_F2_COND(12)), "fbuge", "ap,m"},
  240         {(FORMAT2(0, 5) | EIF_F2_COND(13)), "fble", "ap,m"},
  241         {(FORMAT2(0, 5) | EIF_F2_COND(14)), "fbule", "ap,m"},
  242         {(FORMAT2(0, 5) | EIF_F2_COND(15)), "fbo", "ap,m"},
  243 
  244         /* Branch on Floating-Point Condition Codes "FBfcc" */
  245         {(FORMAT2(0, 6) | EIF_F2_COND(8)), "fba", "a,m"},
  246         {(FORMAT2(0, 6) | EIF_F2_COND(0)), "fbn", "a,m"},
  247         {(FORMAT2(0, 6) | EIF_F2_COND(7)), "fbu", "a,m"},
  248         {(FORMAT2(0, 6) | EIF_F2_COND(6)), "fbg", "a,m"},
  249         {(FORMAT2(0, 6) | EIF_F2_COND(5)), "fbug", "a,m"},
  250         {(FORMAT2(0, 6) | EIF_F2_COND(4)), "fbl", "a,m"},
  251         {(FORMAT2(0, 6) | EIF_F2_COND(3)), "fbul", "a,m"},
  252         {(FORMAT2(0, 6) | EIF_F2_COND(2)), "fblg", "a,m"},
  253         {(FORMAT2(0, 6) | EIF_F2_COND(1)), "fbne", "a,m"},
  254         {(FORMAT2(0, 6) | EIF_F2_COND(9)), "fbe", "a,m"},
  255         {(FORMAT2(0, 6) | EIF_F2_COND(10)), "fbue", "a,m"},
  256         {(FORMAT2(0, 6) | EIF_F2_COND(11)), "fbge", "a,m"},
  257         {(FORMAT2(0, 6) | EIF_F2_COND(12)), "fbuge", "a,m"},
  258         {(FORMAT2(0, 6) | EIF_F2_COND(13)), "fble", "a,m"},
  259         {(FORMAT2(0, 6) | EIF_F2_COND(14)), "fbule", "a,m"},
  260         {(FORMAT2(0, 6) | EIF_F2_COND(15)), "fbo", "a,m"},
  261 
  262 
  263 
  264         /*
  265          * Format 3/2: Arithmetic & misc (table 32, appendix E)
  266          */
  267         {FORMAT3(2, OP3_X(0,0), 0), "add", "12d"},
  268         {FORMAT3(2, OP3_X(0,0), 1), "add", "1id"},
  269         {FORMAT3(2, OP3_X(1,0), 0), "addcc", "12d"},
  270         {FORMAT3(2, OP3_X(1,0), 1), "addcc", "1id"},
  271         {FORMAT3(2, OP3_X(2,0), 0), "taddcc", "12d"},
  272         {FORMAT3(2, OP3_X(2,0), 1), "taddcc", "1id"},
  273         {(FORMAT3(2, 0x30, 1) | EIF_F3_RD(0xf)), "sir", "i"},
  274         {FORMAT3(2, OP3_X(3,0), 0), "wr", "12H"},
  275         {FORMAT3(2, OP3_X(3,0), 1), "wr", "1iH"},
  276 
  277         {FORMAT3(2, OP3_X(0,1), 0), "and", "12d"},
  278         {FORMAT3(2, OP3_X(0,1), 1), "and", "1id"},
  279         {FORMAT3(2, OP3_X(1,1), 0), "andcc", "12d"},
  280         {FORMAT3(2, OP3_X(1,1), 1), "andcc", "1id"},
  281         {FORMAT3(2, OP3_X(2,1), 0), "tsubcc", "12d"},
  282         {FORMAT3(2, OP3_X(2,1), 1), "tsubcc", "1id"},
  283         {FORMAT3(2, OP3_X(3,1), 0), "saved", ""},
  284         {FORMAT3(2, OP3_X(3,1), 0) | EIF_F3_FCN(1), "restored", ""},
  285 
  286         {FORMAT3(2, OP3_X(0,2), 0), "or", "12d"},
  287         {FORMAT3(2, OP3_X(0,2), 1), "or", "1id"},
  288         {FORMAT3(2, OP3_X(1,2), 0), "orcc", "12d"},
  289         {FORMAT3(2, OP3_X(1,2), 1), "orcc", "1id"},
  290         {FORMAT3(2, OP3_X(2,2), 0), "taddcctv", "12d"},
  291         {FORMAT3(2, OP3_X(2,2), 1), "taddcctv", "1id"},
  292         {FORMAT3(2, OP3_X(3,2), 0), "wrpr", "12G"},
  293         {FORMAT3(2, OP3_X(3,2), 1), "wrpr", "1iG"},
  294 
  295         {FORMAT3(2, OP3_X(0,3), 0), "xor", "12d"},
  296         {FORMAT3(2, OP3_X(0,3), 1), "xor", "1id"},
  297         {FORMAT3(2, OP3_X(1,3), 0), "xorcc", "12d"},
  298         {FORMAT3(2, OP3_X(1,3), 1), "xorcc", "1id"},
  299         {FORMAT3(2, OP3_X(2,3), 0), "tsubcctv", "12d"},
  300         {FORMAT3(2, OP3_X(2,3), 1), "tsubcctv", "1id"},
  301         {FORMAT3(2, OP3_X(3,3), 0), "UNDEFINED", ""},
  302 
  303         {FORMAT3(2, OP3_X(0,4), 0), "sub", "12d"},
  304         {FORMAT3(2, OP3_X(0,4), 1), "sub", "1id"},
  305         {FORMAT3(2, OP3_X(1,4), 0), "subcc", "12d"},
  306         {FORMAT3(2, OP3_X(1,4), 1), "subcc", "1id"},
  307         {FORMAT3(2, OP3_X(2,4), 0), "mulscc", "12d"},
  308         {FORMAT3(2, OP3_X(2,4), 1), "mulscc", "1id"},
  309         {FORMAT3(2, OP3_X(3,4), 1), "FPop1", ""},       /* see below */
  310 
  311         {FORMAT3(2, OP3_X(0,5), 0), "andn", "12d"},
  312         {FORMAT3(2, OP3_X(0,5), 1), "andn", "1id"},
  313         {FORMAT3(2, OP3_X(1,5), 0), "andncc", "12d"},
  314         {FORMAT3(2, OP3_X(1,5), 1), "andncc", "1id"},
  315         {FORMAT3(2, OP3_X(2,5), 0), "sll", "12d"},
  316         {FORMAT3(2, OP3_X(2,5), 1), "sll", "1Dd"},
  317         {FORMAT3(2, OP3_X(2,5), 0) | EIF_F3_X(1), "sllx", "12d"},
  318         {FORMAT3(2, OP3_X(2,5), 1) | EIF_F3_X(1), "sllx", "1Ed"},
  319         {FORMAT3(2, OP3_X(3,5), 1), "FPop2", ""},       /* see below */
  320 
  321         {FORMAT3(2, OP3_X(0,6), 0), "orn", "12d"},
  322         {FORMAT3(2, OP3_X(0,6), 1), "orn", "1id"},
  323         {FORMAT3(2, OP3_X(1,6), 0), "orncc", "12d"},
  324         {FORMAT3(2, OP3_X(1,6), 1), "orncc", "1id"},
  325         {FORMAT3(2, OP3_X(2,6), 0), "srl", "12d"},
  326         {FORMAT3(2, OP3_X(2,6), 1), "srl", "1Dd"},
  327         {FORMAT3(2, OP3_X(2,6), 0) | EIF_F3_X(1), "srlx", "12d"},
  328         {FORMAT3(2, OP3_X(2,6), 1) | EIF_F3_X(1), "srlx", "1Ed"},
  329         {FORMAT3(2, OP3_X(3,6), 1), "impdep1", ""},
  330 
  331         {FORMAT3(2, OP3_X(0,7), 0), "xorn", "12d"},
  332         {FORMAT3(2, OP3_X(0,7), 1), "xorn", "1id"},
  333         {FORMAT3(2, OP3_X(1,7), 0), "xorncc", "12d"},
  334         {FORMAT3(2, OP3_X(1,7), 1), "xorncc", "1id"},
  335         {FORMAT3(2, OP3_X(2,7), 0), "sra", "12d"},
  336         {FORMAT3(2, OP3_X(2,7), 1), "sra", "1Dd"},
  337         {FORMAT3(2, OP3_X(2,7), 0) | EIF_F3_X(1), "srax", "12d"},
  338         {FORMAT3(2, OP3_X(2,7), 1) | EIF_F3_X(1), "srax", "1Ed"},
  339         {FORMAT3(2, OP3_X(3,7), 1), "impdep2", ""},
  340 
  341         {FORMAT3(2, OP3_X(0,8), 0), "addc", "12d"},
  342         {FORMAT3(2, OP3_X(0,8), 1), "addc", "1id"},
  343         {FORMAT3(2, OP3_X(1,8), 0), "addccc", "12d"},
  344         {FORMAT3(2, OP3_X(1,8), 1), "addccc", "1id"},
  345         {(FORMAT3(2, 0x28, 1) | EIF_F3_RS1(15)), "membar", "9"},
  346         {(FORMAT3(2, 0x28, 0) | EIF_F3_RS1(15)), "stbar", ""},
  347         {FORMAT3(2, OP3_X(2,8), 0), "rd", "Bd"},
  348 
  349         {FORMAT3(2, OP3_X(3,8), 0), "jmpl", "pd"},
  350         {FORMAT3(2, OP3_X(3,8), 1), "jmpl", "qd"},
  351 
  352         {FORMAT3(2, OP3_X(0,9), 0), "mulx", "12d"},
  353         {FORMAT3(2, OP3_X(0,9), 1), "mulx", "1id"},
  354         {FORMAT3(2, OP3_X(1,9), 0), "UNDEFINED", ""},
  355         {FORMAT3(2, OP3_X(2,9), 0), "UNDEFINED", ""},
  356         {FORMAT3(2, OP3_X(3,9), 0), "return", "p"},
  357         {FORMAT3(2, OP3_X(3,9), 1), "return", "q"},
  358 
  359         {FORMAT3(2, OP3_X(0,10), 0), "umul", "12d"},
  360         {FORMAT3(2, OP3_X(0,10), 1), "umul", "1id"},
  361         {FORMAT3(2, OP3_X(1,10), 0), "umulcc", "12d"},
  362         {FORMAT3(2, OP3_X(1,10), 1), "umulcc", "1id"},
  363         {FORMAT3(2, OP3_X(2,10), 0), "rdpr", "Ad"},
  364                 /*
  365                  * OP3 = (3,10): TCC: Trap on Integer Condition Codes
  366                  */
  367                 {(FORMAT3(2, OP3_X(3,10), 0) | EIF_F4_TCOND(0x8)), "ta", "12F"},
  368                 {(FORMAT3(2, OP3_X(3,10), 1) | EIF_F4_TCOND(0x8)), "ta", "0F"},
  369                 {(FORMAT3(2, OP3_X(3,10), 0) | EIF_F4_TCOND(0x0)), "tn", "12F"},
  370                 {(FORMAT3(2, OP3_X(3,10), 1) | EIF_F4_TCOND(0x0)), "tn", "0F"},
  371                 {(FORMAT3(2, OP3_X(3,10), 0) | EIF_F4_TCOND(0x9)), "tne", "12F"},
  372                 {(FORMAT3(2, OP3_X(3,10), 1) | EIF_F4_TCOND(0x9)), "tne", "0F"},
  373                 {(FORMAT3(2, OP3_X(3,10), 0) | EIF_F4_TCOND(0x1)), "te", "12F"},
  374                 {(FORMAT3(2, OP3_X(3,10), 1) | EIF_F4_TCOND(0x1)), "te", "0F"},
  375                 {(FORMAT3(2, OP3_X(3,10), 0) | EIF_F4_TCOND(0xa)), "tg", "12F"},
  376                 {(FORMAT3(2, OP3_X(3,10), 1) | EIF_F4_TCOND(0xa)), "tg", "0F"},
  377                 {(FORMAT3(2, OP3_X(3,10), 0) | EIF_F4_TCOND(0x2)), "tle", "12F"},
  378                 {(FORMAT3(2, OP3_X(3,10), 1) | EIF_F4_TCOND(0x2)), "tle", "0F"},
  379                 {(FORMAT3(2, OP3_X(3,10), 0) | EIF_F4_TCOND(0xb)), "tge", "12F"},
  380                 {(FORMAT3(2, OP3_X(3,10), 1) | EIF_F4_TCOND(0xb)), "tge", "0F"},
  381                 {(FORMAT3(2, OP3_X(3,10), 0) | EIF_F4_TCOND(0x3)), "tl", "12F"},
  382                 {(FORMAT3(2, OP3_X(3,10), 1) | EIF_F4_TCOND(0x3)), "tl", "0F"},
  383                 {(FORMAT3(2, OP3_X(3,10), 0) | EIF_F4_TCOND(0xc)), "tgu", "12F"},
  384                 {(FORMAT3(2, OP3_X(3,10), 1) | EIF_F4_TCOND(0xc)), "tgu", "0F"},
  385                 {(FORMAT3(2, OP3_X(3,10), 0) | EIF_F4_TCOND(0x4)), "tleu", "12F"},
  386                 {(FORMAT3(2, OP3_X(3,10), 1) | EIF_F4_TCOND(0x4)), "tleu", "0F"},
  387                 {(FORMAT3(2, OP3_X(3,10), 0) | EIF_F4_TCOND(0xd)), "tcc", "12F"},
  388                 {(FORMAT3(2, OP3_X(3,10), 1) | EIF_F4_TCOND(0xd)), "tcc", "0F"},
  389                 {(FORMAT3(2, OP3_X(3,10), 0) | EIF_F4_TCOND(0x5)), "tcs", "12F"},
  390                 {(FORMAT3(2, OP3_X(3,10), 1) | EIF_F4_TCOND(0x5)), "tcs", "0F"},
  391                 {(FORMAT3(2, OP3_X(3,10), 0) | EIF_F4_TCOND(0xe)), "tpos", "12F"},
  392                 {(FORMAT3(2, OP3_X(3,10), 1) | EIF_F4_TCOND(0xe)), "tpos", "0F"},
  393                 {(FORMAT3(2, OP3_X(3,10), 0) | EIF_F4_TCOND(0x6)), "tneg", "12F"},
  394                 {(FORMAT3(2, OP3_X(3,10), 1) | EIF_F4_TCOND(0x6)), "tneg", "0F"},
  395                 {(FORMAT3(2, OP3_X(3,10), 0) | EIF_F4_TCOND(0xf)), "tvc", "12F"},
  396                 {(FORMAT3(2, OP3_X(3,10), 1) | EIF_F4_TCOND(0xf)), "tvc", "0F"},
  397                 {(FORMAT3(2, OP3_X(3,10), 0) | EIF_F4_TCOND(0x7)), "tvs", "12F"},
  398                 {(FORMAT3(2, OP3_X(3,10), 1) | EIF_F4_TCOND(0x7)), "tvs", "0F"},
  399 
  400         {FORMAT3(2, OP3_X(0,11), 0), "smul", "12d"},
  401         {FORMAT3(2, OP3_X(0,11), 1), "smul", "1id"},
  402         {FORMAT3(2, OP3_X(1,11), 0), "smulcc", "12d"},
  403         {FORMAT3(2, OP3_X(1,11), 1), "smulcc", "1id"},
  404         {FORMAT3(2, OP3_X(2,11), 0), "flushw", ""},
  405         {FORMAT3(2, OP3_X(3,11), 0), "flush", "p"},
  406         {FORMAT3(2, OP3_X(3,11), 1), "flush", "q"},
  407 
  408         {FORMAT3(2, OP3_X(0,12), 0), "subc", "12d"},
  409         {FORMAT3(2, OP3_X(0,12), 1), "subc", "1id"},
  410         {FORMAT3(2, OP3_X(1,12), 0), "subccc", "12d"},
  411         {FORMAT3(2, OP3_X(1,12), 1), "subccc", "1id"},
  412                 /*
  413                  * OP3 = (2,12): MOVcc, Move Integer Register on Condition
  414                  */
  415                 /* For Integer Condition Codes */
  416                 {(FORMAT3(2, OP3_X(2,12), 1) | COND2(1,8)), "mova", "0jd"},
  417                 {(FORMAT3(2, OP3_X(2,12), 0) | COND2(1,8)), "mova", "02d"},
  418                 {(FORMAT3(2, OP3_X(2,12), 1) | COND2(1,0)), "movn", "0jd"},
  419                 {(FORMAT3(2, OP3_X(2,12), 0) | COND2(1,0)), "movn", "02d"},
  420                 {(FORMAT3(2, OP3_X(2,12), 1) | COND2(1,9)), "movne", "0jd"},
  421                 {(FORMAT3(2, OP3_X(2,12), 0) | COND2(1,9)), "movne", "02d"},
  422                 {(FORMAT3(2, OP3_X(2,12), 1) | COND2(1,1)), "move", "0jd"},
  423                 {(FORMAT3(2, OP3_X(2,12), 0) | COND2(1,1)), "move", "02d"},
  424                 {(FORMAT3(2, OP3_X(2,12), 1) | COND2(1,10)), "movg", "0jd"},
  425                 {(FORMAT3(2, OP3_X(2,12), 0) | COND2(1,10)), "movg", "02d"},
  426                 {(FORMAT3(2, OP3_X(2,12), 1) | COND2(1,2)), "movle", "0jd"},
  427                 {(FORMAT3(2, OP3_X(2,12), 0) | COND2(1,2)), "movle", "02d"},
  428                 {(FORMAT3(2, OP3_X(2,12), 1) | COND2(1,11)), "movge", "0jd"},
  429                 {(FORMAT3(2, OP3_X(2,12), 0) | COND2(1,11)), "movge", "02d"},
  430                 {(FORMAT3(2, OP3_X(2,12), 1) | COND2(1,3)), "movl", "0jd"},
  431                 {(FORMAT3(2, OP3_X(2,12), 0) | COND2(1,3)), "movl", "02d"},
  432                 {(FORMAT3(2, OP3_X(2,12), 1) | COND2(1,12)), "movgu", "0jd"},
  433                 {(FORMAT3(2, OP3_X(2,12), 0) | COND2(1,12)), "movgu", "02d"},
  434                 {(FORMAT3(2, OP3_X(2,12), 1) | COND2(1,4)), "movleu", "0jd"},
  435                 {(FORMAT3(2, OP3_X(2,12), 0) | COND2(1,4)), "movleu", "02d"},
  436                 {(FORMAT3(2, OP3_X(2,12), 1) | COND2(1,13)), "movcc", "0jd"},
  437                 {(FORMAT3(2, OP3_X(2,12), 0) | COND2(1,13)), "movcc", "02d"},
  438                 {(FORMAT3(2, OP3_X(2,12), 1) | COND2(1,5)), "movcs", "0jd"},
  439                 {(FORMAT3(2, OP3_X(2,12), 0) | COND2(1,5)), "movcs", "02d"},
  440                 {(FORMAT3(2, OP3_X(2,12), 1) | COND2(1,14)), "movpos", "0jd"},
  441                 {(FORMAT3(2, OP3_X(2,12), 0) | COND2(1,14)), "movpos", "02d"},
  442                 {(FORMAT3(2, OP3_X(2,12), 1) | COND2(1,6)), "movneg", "0jd"},
  443                 {(FORMAT3(2, OP3_X(2,12), 0) | COND2(1,6)), "movneg", "02d"},
  444                 {(FORMAT3(2, OP3_X(2,12), 1) | COND2(1,15)), "movvc", "0jd"},
  445                 {(FORMAT3(2, OP3_X(2,12), 0) | COND2(1,15)), "movvc", "02d"},
  446                 {(FORMAT3(2, OP3_X(2,12), 1) | COND2(1,7)), "movvs", "0jd"},
  447                 {(FORMAT3(2, OP3_X(2,12), 0) | COND2(1,7)), "movvs", "02d"},
  448 
  449                 /* For Floating-Point Condition Codes */
  450                 {(FORMAT3(2, OP3_X(2,12), 1) | COND2(0,8)), "mova", "ojd"},
  451                 {(FORMAT3(2, OP3_X(2,12), 0) | COND2(0,8)), "mova", "o2d"},
  452                 {(FORMAT3(2, OP3_X(2,12), 1) | COND2(0,0)), "movn", "ojd"},
  453                 {(FORMAT3(2, OP3_X(2,12), 0) | COND2(0,0)), "movn", "o2d"},
  454                 {(FORMAT3(2, OP3_X(2,12), 1) | COND2(0,7)), "movu", "ojd"},
  455                 {(FORMAT3(2, OP3_X(2,12), 0) | COND2(0,7)), "movu", "o2d"},
  456                 {(FORMAT3(2, OP3_X(2,12), 1) | COND2(0,6)), "movg", "ojd"},
  457                 {(FORMAT3(2, OP3_X(2,12), 0) | COND2(0,6)), "movg", "o2d"},
  458                 {(FORMAT3(2, OP3_X(2,12), 1) | COND2(0,5)), "movug", "ojd"},
  459                 {(FORMAT3(2, OP3_X(2,12), 0) | COND2(0,5)), "movug", "o2d"},
  460                 {(FORMAT3(2, OP3_X(2,12), 1) | COND2(0,4)), "movl", "ojd"},
  461                 {(FORMAT3(2, OP3_X(2,12), 0) | COND2(0,4)), "movl", "o2d"},
  462                 {(FORMAT3(2, OP3_X(2,12), 1) | COND2(0,3)), "movul", "ojd"},
  463                 {(FORMAT3(2, OP3_X(2,12), 0) | COND2(0,3)), "movul", "o2d"},
  464                 {(FORMAT3(2, OP3_X(2,12), 1) | COND2(0,2)), "movlg", "ojd"},
  465                 {(FORMAT3(2, OP3_X(2,12), 0) | COND2(0,2)), "movlg", "o2d"},
  466                 {(FORMAT3(2, OP3_X(2,12), 1) | COND2(0,1)), "movne", "ojd"},
  467                 {(FORMAT3(2, OP3_X(2,12), 0) | COND2(0,1)), "movne", "o2d"},
  468                 {(FORMAT3(2, OP3_X(2,12), 1) | COND2(0,9)), "move", "ojd"},
  469                 {(FORMAT3(2, OP3_X(2,12), 0) | COND2(0,9)), "move", "o2d"},
  470                 {(FORMAT3(2, OP3_X(2,12), 1) | COND2(0,10)), "movue", "ojd"},
  471                 {(FORMAT3(2, OP3_X(2,12), 0) | COND2(0,10)), "movue", "o2d"},
  472                 {(FORMAT3(2, OP3_X(2,12), 1) | COND2(0,11)), "movge", "ojd"},
  473                 {(FORMAT3(2, OP3_X(2,12), 0) | COND2(0,11)), "movge", "o2d"},
  474                 {(FORMAT3(2, OP3_X(2,12), 1) | COND2(0,12)), "movuge", "ojd"},
  475                 {(FORMAT3(2, OP3_X(2,12), 0) | COND2(0,12)), "movuge", "o2d"},
  476                 {(FORMAT3(2, OP3_X(2,12), 1) | COND2(0,13)), "movle", "ojd"},
  477                 {(FORMAT3(2, OP3_X(2,12), 0) | COND2(0,13)), "movle", "o2d"},
  478                 {(FORMAT3(2, OP3_X(2,12), 1) | COND2(0,14)), "movule", "ojd"},
  479                 {(FORMAT3(2, OP3_X(2,12), 0) | COND2(0,14)), "movule", "o2d"},
  480                 {(FORMAT3(2, OP3_X(2,12), 1) | COND2(0,15)), "movo", "ojd"},
  481                 {(FORMAT3(2, OP3_X(2,12), 0) | COND2(0,15)), "movo", "o2d"},
  482 
  483         {FORMAT3(2, OP3_X(3,12), 0), "save", "12d"},
  484         {FORMAT3(2, OP3_X(3,12), 1), "save", "1id"},
  485 
  486         {FORMAT3(2, OP3_X(0,13), 0), "udivx", "12d"},
  487         {FORMAT3(2, OP3_X(0,13), 1), "udivx", "1id"},
  488         {FORMAT3(2, OP3_X(1,13), 0), "UNDEFINED", ""},
  489         {FORMAT3(2, OP3_X(2,13), 0), "sdivx", "12d"},
  490         {FORMAT3(2, OP3_X(2,13), 1), "sdivx", "1id"},
  491         {FORMAT3(2, OP3_X(3,13), 0), "restore", "12d"},
  492         {FORMAT3(2, OP3_X(3,13), 1), "restore", "1id"},
  493 
  494         {FORMAT3(2, OP3_X(0,14), 0), "udiv", "12d"},
  495         {FORMAT3(2, OP3_X(0,14), 1), "udiv", "1id"},
  496         {FORMAT3(2, OP3_X(1,14), 0), "udivcc", "12d"},
  497         {FORMAT3(2, OP3_X(1,14), 1), "udivcc", "1id"},
  498         {FORMAT3(2, OP3_X(2,14), 0), "popc", "2d"},
  499         {FORMAT3(2, OP3_X(2,14), 1), "popc", "id"},
  500 
  501         {FORMAT3(2, OP3_X(3,14), 0), "done", ""},
  502         {FORMAT3(2, OP3_X(3,14) | EIF_F3_FCN(1), 1), "retry", ""},
  503 
  504         {FORMAT3(2, OP3_X(0,15), 0), "sdiv", "12d"},
  505         {FORMAT3(2, OP3_X(0,15), 1), "sdiv", "1id"},
  506         {FORMAT3(2, OP3_X(1,15), 0), "sdivcc", "12d"},
  507         {FORMAT3(2, OP3_X(1,15), 1), "sdivcc", "1id"},
  508                 /*
  509                  * OP3 = (2,15): MOVr:
  510                  *      Move Integer Register on Register Condition
  511                  */
  512                 {(FORMAT3(2, OP3_X(2,15), 1) | EIF_F3_RCOND(1)), "movrz", "1jd"},
  513                 {(FORMAT3(2, OP3_X(2,15), 0) | EIF_F3_RCOND(1)), "movrz", "12d"},
  514                 {(FORMAT3(2, OP3_X(2,15), 1) | EIF_F3_RCOND(2)), "movrlez", "1jd"},
  515                 {(FORMAT3(2, OP3_X(2,15), 0) | EIF_F3_RCOND(2)), "movrlez", "12d"},
  516                 {(FORMAT3(2, OP3_X(2,15), 1) | EIF_F3_RCOND(3)), "movrlz", "1jd"},
  517                 {(FORMAT3(2, OP3_X(2,15), 0) | EIF_F3_RCOND(3)), "movrlz", "12d"},
  518                 {(FORMAT3(2, OP3_X(2,15), 1) | EIF_F3_RCOND(5)), "movrnz", "1jd"},
  519                 {(FORMAT3(2, OP3_X(2,15), 0) | EIF_F3_RCOND(5)), "movrnz", "12d"},
  520                 {(FORMAT3(2, OP3_X(2,15), 1) | EIF_F3_RCOND(6)), "movrgz", "1jd"},
  521                 {(FORMAT3(2, OP3_X(2,15), 0) | EIF_F3_RCOND(6)), "movrgz", "12d"},
  522                 {(FORMAT3(2, OP3_X(2,15), 1) | EIF_F3_RCOND(7)), "movrgez", "1jd"},
  523                 {(FORMAT3(2, OP3_X(2,15), 0) | EIF_F3_RCOND(7)), "movrgez", "12d"},
  524 
  525         {FORMAT3(2, OP3_X(3,15), 0), "UNDEFINED", ""},
  526 
  527 
  528         /*
  529          * Format 3/3: Load and store (appendix E, table 33)
  530          */
  531 
  532         /* Loads */
  533         {(FORMAT3(3, OP3_X(0,0), 0)), "lduw", "pd"},
  534         {(FORMAT3(3, OP3_X(0,0), 1)), "lduw", "qd"},
  535         {(FORMAT3(3, OP3_X(1,0), 0)), "lduwa", "7d"},
  536         {(FORMAT3(3, OP3_X(1,0), 1)), "lduwa", "8d"},
  537         {(FORMAT3(3, OP3_X(2,0), 0)), "ldf", "pe"},
  538         {(FORMAT3(3, OP3_X(2,0), 1)), "ldf", "qe"},
  539         {(FORMAT3(3, OP3_X(3,0), 0)), "ldfa", "7e"},
  540         {(FORMAT3(3, OP3_X(3,0), 1)), "ldfa", "8e"},
  541 
  542         {(FORMAT3(3, OP3_X(0,1), 0)), "ldub", "pd"},
  543         {(FORMAT3(3, OP3_X(0,1), 1)), "ldub", "qd"},
  544         {(FORMAT3(3, OP3_X(1,1), 0)), "lduba", "7d"},
  545         {(FORMAT3(3, OP3_X(1,1), 1)), "lduba", "8d"},
  546         {(FORMAT3(3, OP3_X(2,1), 0) | EIF_F3_RD(0)), "lduw", "p5"},
  547         {(FORMAT3(3, OP3_X(2,1), 1) | EIF_F3_RD(0)), "lduw", "q5"},
  548         {(FORMAT3(3, OP3_X(2,1), 0) | EIF_F3_RD(1)), "ldx", "p6"},
  549         {(FORMAT3(3, OP3_X(2,1), 1) | EIF_F3_RD(1)), "ldx", "q6"},
  550 
  551         {(FORMAT3(3, OP3_X(0,2), 0)), "lduh", "pd"},
  552         {(FORMAT3(3, OP3_X(0,2), 1)), "lduh", "qd"},
  553         {(FORMAT3(3, OP3_X(1,2), 0)), "lduha", "7d"},
  554         {(FORMAT3(3, OP3_X(1,2), 1)), "lduha", "8d"},
  555         {(FORMAT3(3, OP3_X(2,2), 0)), "ldq", "pe"},
  556         {(FORMAT3(3, OP3_X(2,2), 1)), "ldq", "qe"},
  557         {(FORMAT3(3, OP3_X(3,2), 0)), "ldqa", "7e"},
  558         {(FORMAT3(3, OP3_X(3,2), 1)), "ldqa", "8e"},
  559 
  560         {(FORMAT3(3, OP3_X(0,3), 0)), "ldd", "pd"},
  561         {(FORMAT3(3, OP3_X(0,3), 1)), "ldd", "qd"},
  562         {(FORMAT3(3, OP3_X(1,3), 0)), "ldda", "7d"},
  563         {(FORMAT3(3, OP3_X(1,3), 1)), "ldda", "8d"},
  564         {(FORMAT3(3, OP3_X(2,3), 0)), "ldd", "pe"},
  565         {(FORMAT3(3, OP3_X(2,3), 1)), "ldd", "qe"},
  566         {(FORMAT3(3, OP3_X(3,3), 0)), "ldda", "7e"},
  567         {(FORMAT3(3, OP3_X(3,3), 1)), "ldda", "8e"},
  568 
  569         {(FORMAT3(3, OP3_X(0,4), 0)), "stw", "dp"},
  570         {(FORMAT3(3, OP3_X(0,4), 1)), "stw", "dq"},
  571         {(FORMAT3(3, OP3_X(1,4), 0)), "stwa", "d7"},
  572         {(FORMAT3(3, OP3_X(1,4), 1)), "stwa", "d8"},
  573         {(FORMAT3(3, OP3_X(2,4), 0)), "stf", "ep"},
  574         {(FORMAT3(3, OP3_X(2,4), 1)), "stf", "eq"},
  575         {(FORMAT3(3, OP3_X(3,4), 0)), "stfa", "e7"},
  576         {(FORMAT3(3, OP3_X(3,4), 1)), "stfa", "e8"},
  577 
  578         {(FORMAT3(3, OP3_X(0,5), 0)), "stb", "dp"},
  579         {(FORMAT3(3, OP3_X(0,5), 1)), "stb", "dq"},
  580         {(FORMAT3(3, OP3_X(1,5), 0)), "stba", "d7"},
  581         {(FORMAT3(3, OP3_X(1,5), 1)), "stba", "d8"},
  582         {(FORMAT3(3, OP3_X(2,5), 0)), "stw", "5p"},
  583         {(FORMAT3(3, OP3_X(2,5), 1)), "stw", "5q"},
  584         {(FORMAT3(3, OP3_X(2,5), 0) | EIF_F3_RD(1)), "stx", "6p"},
  585         {(FORMAT3(3, OP3_X(2,5), 1) | EIF_F3_RD(1)), "stx", "6q"},
  586 
  587         {(FORMAT3(3, OP3_X(0,6), 0)), "sth", "dp"},
  588         {(FORMAT3(3, OP3_X(0,6), 1)), "sth", "dq"},
  589         {(FORMAT3(3, OP3_X(1,6), 0)), "stha", "d7"},
  590         {(FORMAT3(3, OP3_X(1,6), 1)), "stha", "d8"},
  591         {(FORMAT3(3, OP3_X(2,6), 0)), "stq", "ep"},
  592         {(FORMAT3(3, OP3_X(2,6), 1)), "stq", "eq"},
  593         {(FORMAT3(3, OP3_X(3,6), 0)), "stqa", "e7"},
  594         {(FORMAT3(3, OP3_X(3,6), 1)), "stqa", "e8"},
  595 
  596         {(FORMAT3(3, OP3_X(0,7), 0)), "std", "dp"},
  597         {(FORMAT3(3, OP3_X(0,7), 1)), "std", "dq"},
  598         {(FORMAT3(3, OP3_X(1,7), 0)), "stda", "d7"},
  599         {(FORMAT3(3, OP3_X(1,7), 1)), "stda", "d8"},
  600         {(FORMAT3(3, OP3_X(2,7), 0)), "std", "ep"},
  601         {(FORMAT3(3, OP3_X(2,7), 1)), "std", "eq"},
  602         {(FORMAT3(3, OP3_X(3,7), 0)), "stda", "e7"},
  603         {(FORMAT3(3, OP3_X(3,7), 1)), "stda", "e8"},
  604 
  605         {(FORMAT3(3, OP3_X(0,8), 0)), "ldsw", "pd"},
  606         {(FORMAT3(3, OP3_X(0,8), 1)), "ldsw", "qd"},
  607         {(FORMAT3(3, OP3_X(1,8), 0)), "ldswa", "7d"},
  608         {(FORMAT3(3, OP3_X(1,8), 1)), "ldswa", "8d"},
  609 
  610         {(FORMAT3(3, OP3_X(0,9), 0)), "ldsb", "pd"},
  611         {(FORMAT3(3, OP3_X(0,9), 1)), "ldsb", "qd"},
  612         {(FORMAT3(3, OP3_X(1,9), 0)), "ldsba", "7d"},
  613         {(FORMAT3(3, OP3_X(1,9), 1)), "ldsba", "8d"},
  614 
  615         {(FORMAT3(3, OP3_X(0,10), 0)), "ldsh", "pd"},
  616         {(FORMAT3(3, OP3_X(0,10), 1)), "ldsh", "qd"},
  617         {(FORMAT3(3, OP3_X(1,10), 0)), "ldsha", "7d"},
  618         {(FORMAT3(3, OP3_X(1,10), 1)), "ldsha", "8d"},
  619 
  620         {(FORMAT3(3, OP3_X(0,11), 0)), "ldx", "pd"},
  621         {(FORMAT3(3, OP3_X(0,11), 1)), "ldx", "qd"},
  622         {(FORMAT3(3, OP3_X(1,11), 0)), "ldxa", "7d"},
  623         {(FORMAT3(3, OP3_X(1,11), 1)), "ldxa", "8d"},
  624 
  625         {(FORMAT3(3, OP3_X(3,12), 1)), "casa", "s2d"},
  626         {(FORMAT3(3, OP3_X(3,12), 0)), "casa", "t2d"},
  627 
  628         {(FORMAT3(3, OP3_X(0,13), 0)), "ldstub", "7d"},
  629         {(FORMAT3(3, OP3_X(0,13), 1)), "ldstub", "8d"},
  630         {(FORMAT3(3, OP3_X(1,13), 0)), "ldstuba", "pd"},
  631         {(FORMAT3(3, OP3_X(1,13), 1)), "ldstuba", "qd"},
  632         {(FORMAT3(3, OP3_X(2,13), 0)), "prefetch", "pr"},
  633         {(FORMAT3(3, OP3_X(2,13), 1)), "prefetch", "qr"},
  634         {(FORMAT3(3, OP3_X(3,13), 0)), "prefetcha", "7r"},
  635         {(FORMAT3(3, OP3_X(3,13), 1)), "prefetcha", "8r"},
  636 
  637         {(FORMAT3(3, OP3_X(0,14), 0)), "stx", "dp"},
  638         {(FORMAT3(3, OP3_X(0,14), 1)), "stx", "dq"},
  639         {(FORMAT3(3, OP3_X(1,14), 0)), "stxa", "d7"},
  640         {(FORMAT3(3, OP3_X(1,14), 1)), "stxa", "d8"},
  641         {(FORMAT3(3, OP3_X(3,14), 0)), "casxa", "t2d"},
  642         {(FORMAT3(3, OP3_X(3,14), 1)), "casxa", "s2d"},
  643 
  644         /* Swap Register */
  645         {(FORMAT3(3, OP3_X(0,15), 0)), "swap", "pd"},
  646         {(FORMAT3(3, OP3_X(0,15), 1)), "swap", "qd"},
  647         {(FORMAT3(3, OP3_X(1,15), 0)), "swapa", "7d"},
  648         {(FORMAT3(3, OP3_X(1,15), 1)), "swapa", "8d"},
  649 
  650 
  651         /*
  652          * OP3 = (3,4): FPop1 (table 34)
  653          */
  654         {(FORMAT3F(2, OP3_X(3,4), OPF_X(0,1))), "fmovs", ".4e"},
  655         {(FORMAT3F(2, OP3_X(3,4), OPF_X(0,2))), "fmovd", ".4e"},
  656         {(FORMAT3F(2, OP3_X(3,4), OPF_X(0,3))), "fmovq", ".4e"},
  657         {(FORMAT3F(2, OP3_X(3,4), OPF_X(0,5))), "fnegs", "4e"},
  658         {(FORMAT3F(2, OP3_X(3,4), OPF_X(0,6))), "fnegd", "4e"},
  659         {(FORMAT3F(2, OP3_X(3,4), OPF_X(0,7))), "fnegq", "4e"},
  660         {(FORMAT3F(2, OP3_X(3,4), OPF_X(0,9))), "fabss", "4e"},
  661         {(FORMAT3F(2, OP3_X(3,4), OPF_X(0,10))), "fabsd", "4e"},
  662         {(FORMAT3F(2, OP3_X(3,4), OPF_X(0,11))), "fabsq", "4e"},
  663 
  664         {(FORMAT3F(2, OP3_X(3,4), OPF_X(2,9))), "fsqrts", "4e"},
  665         {(FORMAT3F(2, OP3_X(3,4), OPF_X(2,10))), "fsqrtd", "4e"},
  666         {(FORMAT3F(2, OP3_X(3,4), OPF_X(2,11))), "fsqrtq", "4e"},
  667 
  668         {(FORMAT3F(2, OP3_X(3,4), OPF_X(4,1))), "fadds", "34e"},
  669         {(FORMAT3F(2, OP3_X(3,4), OPF_X(4,2))), "faddd", "34e"},
  670         {(FORMAT3F(2, OP3_X(3,4), OPF_X(4,3))), "faddq", "34e"},
  671         {(FORMAT3F(2, OP3_X(3,4), OPF_X(4,5))), "fsubs", "34e"},
  672         {(FORMAT3F(2, OP3_X(3,4), OPF_X(4,6))), "fsubd", "34e"},
  673         {(FORMAT3F(2, OP3_X(3,4), OPF_X(4,7))), "fsubq", "34e"},
  674         {(FORMAT3F(2, OP3_X(3,4), OPF_X(4,9))), "fmuls", "34e"},
  675         {(FORMAT3F(2, OP3_X(3,4), OPF_X(4,10))), "fmuld", "34e"},
  676         {(FORMAT3F(2, OP3_X(3,4), OPF_X(4,11))), "fmulq", "34e"},
  677         {(FORMAT3F(2, OP3_X(3,4), OPF_X(4,13))), "fdivs", "34e"},
  678         {(FORMAT3F(2, OP3_X(3,4), OPF_X(4,14))), "fdivd", "34e"},
  679         {(FORMAT3F(2, OP3_X(3,4), OPF_X(4,15))), "fdivq", "34e"},
  680 
  681         {(FORMAT3F(2, OP3_X(3,4), OPF_X(6,9))), "fsmuld", "34e"},
  682         {(FORMAT3F(2, OP3_X(3,4), OPF_X(6,14))), "fdmulq", "34e"},
  683 
  684         {(FORMAT3F(2, OP3_X(3,4), OPF_X(8,1))), "fstox", "4e"},
  685         {(FORMAT3F(2, OP3_X(3,4), OPF_X(8,2))), "fdtox", "4e"},
  686         {(FORMAT3F(2, OP3_X(3,4), OPF_X(8,3))), "fqtox", "4e"},
  687         {(FORMAT3F(2, OP3_X(3,4), OPF_X(8,4))), "fxtos", "4e"},
  688         {(FORMAT3F(2, OP3_X(3,4), OPF_X(8,8))), "fxtod", "4e"},
  689         {(FORMAT3F(2, OP3_X(3,4), OPF_X(8,12))), "fxtoq", "4e"},
  690 
  691         {(FORMAT3F(2, OP3_X(3,4), OPF_X(12,4))), "fitos", "4e"},
  692         {(FORMAT3F(2, OP3_X(3,4), OPF_X(12,6))), "fdtos", "4e"},
  693         {(FORMAT3F(2, OP3_X(3,4), OPF_X(12,7))), "fqtos", "4e"},
  694         {(FORMAT3F(2, OP3_X(3,4), OPF_X(12,8))), "fitod", "4e"},
  695         {(FORMAT3F(2, OP3_X(3,4), OPF_X(12,9))), "fstod", "4e"},
  696         {(FORMAT3F(2, OP3_X(3,4), OPF_X(12,11))), "fqtod", "4e"},
  697         {(FORMAT3F(2, OP3_X(3,4), OPF_X(12,12))), "fitoq", "4e"},
  698         {(FORMAT3F(2, OP3_X(3,4), OPF_X(12,13))), "fstoq", "4e"},
  699         {(FORMAT3F(2, OP3_X(3,4), OPF_X(12,14))), "fdtoq", "4e"},
  700 
  701         {(FORMAT3F(2, OP3_X(3,4), OPF_X(13,1))), "fstoi", "4e"},
  702         {(FORMAT3F(2, OP3_X(3,4), OPF_X(13,2))), "fdtoi", "4e"},
  703         {(FORMAT3F(2, OP3_X(3,4), OPF_X(13,3))), "fqtoi", "4e"},
  704 
  705 
  706 #ifdef xxx
  707         /*
  708          * OP3 =(3,5): FPop2 (table 35)
  709          */
  710         {(FORMAT3F(2, OP3_X(3,5), 81)), "fcmps", "o34"},
  711         {(FORMAT3F(2, OP3_X(3,5), 82)), "fcmpd", "o34"},
  712         {(FORMAT3F(2, OP3_X(3,5), 83)), "fcmpq", "o34"},
  713         {(FORMAT3F(2, OP3_X(3,5), 85)), "fcmpes", "o34"},
  714         {(FORMAT3F(2, OP3_X(3,5), 86)), "fcmped", "o34"},
  715         {(FORMAT3F(2, OP3_X(3,5), 87)), "fcmpeq", "o34"},
  716 
  717         /* Move Floating-Point Register on Condition "FMOVcc" */
  718         /* FIXME should check for single, double, and quad movements */
  719         /* Integer Condition Codes */
  720         {(FORMAT3(2, OP3_X(3,5), 0) | COND2(0,8)), "fmova", "04e"},
  721         {(FORMAT3(2, OP3_X(3,5), 0) | COND2(0,0)), "fmovn", "04e"},
  722         {(FORMAT3(2, OP3_X(3,5), 0) | COND2(0,9)), "fmovne", "04e"},
  723         {(FORMAT3(2, OP3_X(3,5), 0) | COND2(0,1)), "fmove", "04e"},
  724         {(FORMAT3(2, OP3_X(3,5), 0) | COND2(0,10)), "fmovg", "04e"},
  725         {(FORMAT3(2, OP3_X(3,5), 0) | COND2(0,2)), "fmovle", "04e"},
  726         {(FORMAT3(2, OP3_X(3,5), 0) | COND2(0,11)), "fmovge", "04e"},
  727         {(FORMAT3(2, OP3_X(3,5), 0) | COND2(0,3)), "fmovl", "04e"},
  728         {(FORMAT3(2, OP3_X(3,5), 0) | COND2(0,12)), "fmovgu", "04e"},
  729         {(FORMAT3(2, OP3_X(3,5), 0) | COND2(0,4)), "fmovleu", "04e"},
  730         {(FORMAT3(2, OP3_X(3,5), 0) | COND2(0,13)), "fmovcc", "04e"},
  731         {(FORMAT3(2, OP3_X(3,5), 0) | COND2(0,5)), "fmovcs", "04e"},
  732         {(FORMAT3(2, OP3_X(3,5), 0) | COND2(0,14)), "fmovpos", "04e"},
  733         {(FORMAT3(2, OP3_X(3,5), 0) | COND2(0,6)), "fmovneg", "04e"},
  734         {(FORMAT3(2, OP3_X(3,5), 0) | COND2(0,15)), "fmovvc", "04e"},
  735         {(FORMAT3(2, OP3_X(3,5), 0) | COND2(0,7)), "fmovvs", "04e"},
  736 
  737         /* Floating-Point Condition Codes */
  738         {(FORMAT3(2, OP3_X(3,5), 0) | COND2(0,8)), "fmova", "o4e"},
  739         {(FORMAT3(2, OP3_X(3,5), 0) | COND2(0,0)), "fmovn", "o4e"},
  740         {(FORMAT3(2, OP3_X(3,5), 0) | COND2(0,7)), "fmovu", "o4e"},
  741         {(FORMAT3(2, OP3_X(3,5), 0) | COND2(0,6)), "fmovg", "o4e"},
  742         {(FORMAT3(2, OP3_X(3,5), 0) | COND2(0,5)), "fmovug", "o4e"},
  743         {(FORMAT3(2, OP3_X(3,5), 0) | COND2(0,4)), "fmovk", "o4e"},
  744         {(FORMAT3(2, OP3_X(3,5), 0) | COND2(0,3)), "fmovul", "o4e"},
  745         {(FORMAT3(2, OP3_X(3,5), 0) | COND2(0,2)), "fmovlg", "o4e"},
  746         {(FORMAT3(2, OP3_X(3,5), 0) | COND2(0,1)), "fmovne", "o4e"},
  747         {(FORMAT3(2, OP3_X(3,5), 0) | COND2(0,9)), "fmove", "o4e"},
  748         {(FORMAT3(2, OP3_X(3,5), 0) | COND2(0,10)), "fmovue", "o4e"},
  749         {(FORMAT3(2, OP3_X(3,5), 0) | COND2(0,11)), "fmovge", "o4e"},
  750         {(FORMAT3(2, OP3_X(3,5), 0) | COND2(0,12)), "fmovuge", "o4e"},
  751         {(FORMAT3(2, OP3_X(3,5), 0) | COND2(0,13)), "fmovle", "o4e"},
  752         {(FORMAT3(2, OP3_X(3,5), 0) | COND2(0,14)), "fmovule", "o4e"},
  753         {(FORMAT3(2, OP3_X(3,5), 0) | COND2(0,15)), "fmovo", "o4e"},
  754 
  755         /* Move F-P Register on Integer Register Condition "FMOVr" */
  756         /* FIXME: check for short, double, and quad's */
  757         {(FORMAT3(2, OP3_X(3,5), 0) | EIF_F3_RCOND(1)), "fmovre", "14e"},
  758         {(FORMAT3(2, OP3_X(3,5), 0) | EIF_F3_RCOND(2)), "fmovrlez", "14e"},
  759         {(FORMAT3(2, OP3_X(3,5), 0) | EIF_F3_RCOND(3)), "fmovrlz", "14e"},
  760         {(FORMAT3(2, OP3_X(3,5), 0) | EIF_F3_RCOND(5)), "fmovrne", "14e"},
  761         {(FORMAT3(2, OP3_X(3,5), 0) | EIF_F3_RCOND(6)), "fmovrgz", "14e"},
  762         {(FORMAT3(2, OP3_X(3,5), 0) | EIF_F3_RCOND(7)), "fmovrgez", "14e"},
  763 #endif
  764         /* FP logical insns -- UltraSPARC extens */
  765         {(FORMAT3F(2, OP3_X(3,6), OPF_X(6,0))), "fzero", "e"},
  766         {(FORMAT3F(2, OP3_X(3,6), OPF_X(6,1))), "fzeros", "e"},
  767         {(FORMAT3F(2, OP3_X(3,6), OPF_X(7,14))), "fone", "e"},
  768         {(FORMAT3F(2, OP3_X(3,6), OPF_X(7,15))), "fones", "e"},
  769         {(FORMAT3F(2, OP3_X(3,6), OPF_X(7,4))), "fsrc1", "3e"},
  770         {(FORMAT3F(2, OP3_X(3,6), OPF_X(7,5))), "fsrc1s", "3e"},
  771         {(FORMAT3F(2, OP3_X(3,6), OPF_X(7,8))), "fsrc2", "4e"},
  772         {(FORMAT3F(2, OP3_X(3,6), OPF_X(7,9))), "fsrc2s", "4e"},
  773         {(FORMAT3F(2, OP3_X(3,6), OPF_X(6,10))), "fnot1", "3e"},
  774         {(FORMAT3F(2, OP3_X(3,6), OPF_X(6,11))), "fnot1s", "3e"},
  775         {(FORMAT3F(2, OP3_X(3,6), OPF_X(6,6))), "fnot2", "4e"},
  776         {(FORMAT3F(2, OP3_X(3,6), OPF_X(6,7))), "fnot2s", "4e"},
  777         {(FORMAT3F(2, OP3_X(3,6), OPF_X(7,12))), "for", "34e"},
  778         {(FORMAT3F(2, OP3_X(3,6), OPF_X(7,13))), "fors", "34e"},
  779         {(FORMAT3F(2, OP3_X(3,6), OPF_X(6,2))), "fnor", "34e"},
  780         {(FORMAT3F(2, OP3_X(3,6), OPF_X(6,3))), "fnors", "34e"},
  781         {(FORMAT3F(2, OP3_X(3,6), OPF_X(7,0))), "fand", "34e"},
  782         {(FORMAT3F(2, OP3_X(3,6), OPF_X(7,1))), "fands", "34e"},
  783         {(FORMAT3F(2, OP3_X(3,6), OPF_X(6,14))), "fnand", "34e"},
  784         {(FORMAT3F(2, OP3_X(3,6), OPF_X(6,15))), "fnands", "34e"},
  785         {(FORMAT3F(2, OP3_X(3,6), OPF_X(6,12))), "fxor", "34e"},
  786         {(FORMAT3F(2, OP3_X(3,6), OPF_X(6,13))), "fxors", "34e"},
  787         {(FORMAT3F(2, OP3_X(3,6), OPF_X(7,2))), "fxnor", "34e"},
  788         {(FORMAT3F(2, OP3_X(3,6), OPF_X(7,3))), "fxnors", "34e"},
  789         {(FORMAT3F(2, OP3_X(3,6), OPF_X(7,10))), "fornot1", "34e"},
  790         {(FORMAT3F(2, OP3_X(3,6), OPF_X(7,11))), "fornot1s", "34e"},
  791         {(FORMAT3F(2, OP3_X(3,6), OPF_X(7,6))), "fornot2", "34e"},
  792         {(FORMAT3F(2, OP3_X(3,6), OPF_X(7,7))), "fornot2s", "34e"},
  793         {(FORMAT3F(2, OP3_X(3,6), OPF_X(6,8))), "fandnot1", "34e"},
  794         {(FORMAT3F(2, OP3_X(3,6), OPF_X(6,9))), "fandnot1s", "34e"},
  795         {(FORMAT3F(2, OP3_X(3,6), OPF_X(6,4))), "fandnot2", "34e"},
  796         {(FORMAT3F(2, OP3_X(3,6), OPF_X(6,5))), "fandnot2s", "34e"},
  797 
  798         /* grrrr.... */
  799         {0, 0, 0}
  800 
  801 };
  802 
  803 db_addr_t
  804 db_disasm(db_addr_t loc, boolean_t altfmt)
  805 {
  806         struct sparc_insn*      i_ptr = (struct sparc_insn *)&sparc_i;
  807 
  808         unsigned int insn, you_lose, bitmask;
  809         int matchp;
  810         char* f_ptr, *cp;
  811 
  812         you_lose = 0;
  813         matchp = 0;
  814         insn = db_get_value(loc, 4, 0);
  815 
  816         if (insn == 0x01000000) {
  817                 db_printf("nop\n");
  818                 return loc + 4;
  819         }
  820 
  821         while (i_ptr->name) {
  822                 /* calculate YOU_LOSE value */
  823                 bitmask= (i_ptr->match);
  824                 you_lose = (~bitmask);
  825 
  826                 if (((bitmask>>30) & 0x3) == 0x1) {
  827                         /* Call */
  828                         you_lose = ((~0x1)<<30);
  829                 } else if (((bitmask>>30) & 0x3) == 0x0) {
  830                         if (((bitmask>>22) & 0x7) == 0x4) {
  831                                 /* Sethi */
  832                                 you_lose &= (FORMAT2(0x3,0x7));
  833                         } else {
  834                                 /* Branches */
  835                                 you_lose &= (FORMAT2(0x3,0x7) |
  836                                     EIF_F2_COND(0xf));
  837                         }
  838                 } else if (((bitmask>>30) & 0x3) == 0x2 &&
  839                            ((bitmask>>19) & 0x3f) == 0x34) /* XXX */ {
  840                         /* FPop1 */
  841                         you_lose &= (FORMAT3(0x3,0x3f,0x1) |
  842                             EIF_F3_OPF(0x1ff));
  843                 } else if (((bitmask>>30) & 0x3) == 0x2 &&
  844                            ((bitmask>>19) & 0x3f) == 0x3a) /* XXX */ {
  845                         /* Tcc */
  846                         you_lose &= (FORMAT3(0x3,0x3f,0x1) | EIF_F4_TCOND(0xf));
  847                 } else if (((bitmask>>30) & 0x3) == 0x2 &&
  848                            ((bitmask>>21) & 0xf) == 0x9 &&
  849                            ((bitmask>>19) & 0x3) != 0) /* XXX */ {
  850                         /* shifts */
  851                         you_lose &= (FORMAT3(0x3,0x3f,0x1)) | EIF_F3_X(1);
  852                 } else if (((bitmask>>30) & 0x3) == 0x2 &&
  853                            ((bitmask>>19) & 0x3f) == 0x2c) /* XXX */ {
  854                         /* cmov */
  855                         you_lose &= (FORMAT3(0x3,0x3f,0x1) | COND2(1,0xf));
  856                 } else if (((bitmask>>30) & 0x3) == 0x2 &&
  857                            ((bitmask>>19) & 0x3f) == 0x35) /* XXX */ {
  858                         /* fmov */
  859                         you_lose &= (FORMAT3(0x3,0x3f,0x1) | COND2(1,0xf));
  860                 } else {
  861                         you_lose &= (FORMAT3(0x3,0x3f,0x1));
  862                 }
  863 
  864                 if (((bitmask & insn) == bitmask) && ((you_lose & insn) == 0)) {
  865                         matchp = 1;
  866                         break;
  867                 }
  868                 i_ptr++;
  869         };
  870 
  871         if (!matchp) {
  872                 db_printf("undefined\n");
  873                 return loc + 4;
  874         }
  875 
  876         db_printf("%s", i_ptr->name);
  877 
  878         f_ptr = i_ptr->format;
  879 
  880         for (cp = f_ptr; *cp; cp++) {
  881                 if (*cp == ',') {
  882                         for (;f_ptr < cp; f_ptr++)
  883                                 switch (*f_ptr) {
  884                                 case 'a':
  885                                         if (insn & EIF_F2_A(1))
  886                                                 db_printf(",a");
  887                                         break;
  888                                 case 'p':
  889                                         if (insn & EIF_F2_P(1))
  890                                                 db_printf(",pt");
  891                                         else
  892                                                 db_printf(",pn");
  893                                         break;
  894                                 }
  895                         f_ptr++;
  896                         break;
  897                 }
  898         }
  899         db_printf("      \t");
  900 
  901         while (*f_ptr) {
  902                 switch (*f_ptr) {
  903                         int64_t val;
  904                 case '1':
  905                         db_printf("%%%s", regs[((insn >> 14) & 0x1f)]);
  906                         break;
  907                 case '2':
  908                         db_printf("%%%s", regs[(insn & 0x1f)]);
  909                         break;
  910                 case 'd':
  911                         db_printf("%%%s", regs[((insn >> 25) & 0x1f)]);
  912                         break;
  913                 case '3':
  914                         db_printf("%%f%d", ((insn >> 14) & 0x1f));
  915                         break;
  916                 case '4':
  917                         db_printf("%%f%d", (insn & 0x1f));
  918                         break;
  919                 case 'e':
  920                         db_printf("%%f%d", ((insn >> 25) & 0x1f));
  921                         break;
  922                 case 'i':
  923                         /* simm13 -- signed */
  924                         val = IF_SIMM(insn, 13);
  925                         db_printf("%s0x%x", SIGN(val), (int)abs(val));
  926                         break;
  927                 case 'j':
  928                         /* simm11 -- signed */
  929                         val = IF_SIMM(insn, 11);
  930                         db_printf("%s0x%x", SIGN(val), (int)abs(val));
  931                         break;
  932                 case 'l':
  933                         val = (((insn>>20)&0x3)<<13)|(insn & 0x1fff);
  934                         val = IF_SIMM(val, 16);
  935                         db_printsym((db_addr_t)(loc + (4 * val)), DB_STGY_ANY);
  936                         break;
  937                 case 'm':
  938                         db_printsym((db_addr_t)(loc + (4 * IF_SIMM(insn, 22))),
  939                                 DB_STGY_ANY);
  940                         break;
  941                 case 'u':
  942                         db_printsym((db_addr_t)(loc + (4 * IF_SIMM(insn, 19))),
  943                             DB_STGY_ANY);
  944                         break;
  945                 case 'n':
  946                         db_printsym((db_addr_t)(loc + (4 * IF_SIMM(insn, 30))),
  947                             DB_STGY_PROC);
  948                         break;
  949                 case 's':
  950                         db_printf("%%asi");
  951                         break;
  952                 case 't':
  953                         db_printf("0x%-2.2x", ((insn >> 5) & 0xff));
  954                         break;
  955                 case 'o':
  956                         db_printf("%%fcc%d", ((insn >> 25) & 0x3));
  957                         break;
  958                 case 'p':
  959                 case '7':
  960                         db_printf("[%%%s + %%%s]",
  961                                   regs[((insn >> 14) & 0x1f)],
  962                                   regs[(insn & 0x1f)]);
  963                         if (*f_ptr == '7')
  964                                 db_printf(" %d", ((insn >> 5) & 0xff));
  965                         break;
  966                 case 'q':
  967                 case '8':
  968                         val = IF_SIMM(insn, 13);
  969                         db_printf("[%%%s %c 0x%x]",
  970                                 regs[((insn >> 14) & 0x1f)],
  971                                 (int)((val<0)?'-':'+'),
  972                                 (int)abs(val));
  973                         if (*f_ptr == '8')
  974                                 db_printf(" %%asi");
  975                         break;
  976                 case '5':
  977                         db_printf("%%fsr");
  978                         break;
  979                 case '6':
  980                         db_printf("%%fsr");
  981                         break;
  982                 case '9':
  983                         db_printf("0x%xl",
  984                                   ((insn & 0xf) | ((insn >> 4) & 0x7)));
  985                         break;
  986                 case '':
  987                         db_printf("%%%s", ccodes[((insn >> 11) & 0x3) + 4]);
  988                         break;
  989                 case '.':
  990                         db_printf("%%%s", ccodes[((insn >> 11) & 0x7)]);
  991                         break;
  992                 case 'r':
  993                         db_printf("#%s", prefetch[((insn >> 25) & 0x1f)]);
  994                         break;
  995                 case 'A':
  996                         db_printf("%%%s", priv_regs[((insn >> 14) & 0x1f)]);
  997                         break;
  998                 case 'B':
  999                         db_printf("%%%s", state_regs[((insn >> 14) & 0x1f)]);
 1000                         break;
 1001                 case 'C':
 1002                         db_printf("%%hi(0x%x)", ((insn & 0x3fffff) << 10));
 1003                         break;
 1004                 case 'D':
 1005                         db_printf("0x%x", (insn & 0x1f));
 1006                         break;
 1007                 case 'E':
 1008                         db_printf("%d", (insn & 0x3f));
 1009                         break;
 1010                 case 'F':
 1011                         db_printf("%d", (insn & 0x3f));
 1012                         break;
 1013                 case 'G':
 1014                         db_printf("%%%s", priv_regs[((insn >> 25) & 0x1f)]);
 1015                         break;
 1016                 case 'H':
 1017                         db_printf("%%%s", state_regs[((insn >> 25) & 0x1f)]);
 1018                         break;
 1019                 default:
 1020                         db_printf("(UNKNOWN)");
 1021                         break;
 1022                 }
 1023                 if (*(++f_ptr))
 1024                         db_printf(", ");
 1025         };
 1026 
 1027         db_printf("\n");
 1028 
 1029         return (loc + 4);
 1030 }
 1031 

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