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[/] [openrisc/] [trunk/] [gnu-src/] [gdb-7.1/] [opcodes/] [lm32-desc.c] - Blame information for rev 613

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1 227 jeremybenn 
/* CPU data for lm32.
2 
 
3 
THIS FILE IS MACHINE GENERATED WITH CGEN.
4 
 
5 
Copyright 1996-2010 Free Software Foundation, Inc.
6 
 
7 
This file is part of the GNU Binutils and/or GDB, the GNU debugger.
8 
 
9 
   This file is free software; you can redistribute it and/or modify
10 
   it under the terms of the GNU General Public License as published by
11 
   the Free Software Foundation; either version 3, or (at your option)
12 
   any later version.
13 
 
14 
   It is distributed in the hope that it will be useful, but WITHOUT
15 
   ANY WARRANTY; without even the implied warranty of MERCHANTABILITY
16 
   or FITNESS FOR A PARTICULAR PURPOSE.  See the GNU General Public
17 
   License for more details.
18 
 
19 
   You should have received a copy of the GNU General Public License along
20 
   with this program; if not, write to the Free Software Foundation, Inc.,
21 
   51 Franklin Street - Fifth Floor, Boston, MA 02110-1301, USA.
22 
 
23 
*/
24 
 
25 
#include "sysdep.h"
26 
#include <stdio.h>
27 
#include <stdarg.h>
28 
#include "ansidecl.h"
29 
#include "bfd.h"
30 
#include "symcat.h"
31 
#include "lm32-desc.h"
32 
#include "lm32-opc.h"
33 
#include "opintl.h"
34 
#include "libiberty.h"
35 
#include "xregex.h"
36 
 
37 
/* Attributes.  */
38 
 
39 
static const CGEN_ATTR_ENTRY bool_attr[] =
40 
{
41 
  { "#f", 0 },
42 
  { "#t", 1 },
43 
  { 0, 0 }
44 
};
45 
 
46 
static const CGEN_ATTR_ENTRY MACH_attr[] ATTRIBUTE_UNUSED =
47 
{
48 
  { "base", MACH_BASE },
49 
  { "lm32", MACH_LM32 },
50 
  { "max", MACH_MAX },
51 
  { 0, 0 }
52 
};
53 
 
54 
static const CGEN_ATTR_ENTRY ISA_attr[] ATTRIBUTE_UNUSED =
55 
{
56 
  { "lm32", ISA_LM32 },
57 
  { "max", ISA_MAX },
58 
  { 0, 0 }
59 
};
60 
 
61 
const CGEN_ATTR_TABLE lm32_cgen_ifield_attr_table[] =
62 
{
63 
  { "MACH", & MACH_attr[0], & MACH_attr[0] },
64 
  { "VIRTUAL", &bool_attr[0], &bool_attr[0] },
65 
  { "PCREL-ADDR", &bool_attr[0], &bool_attr[0] },
66 
  { "ABS-ADDR", &bool_attr[0], &bool_attr[0] },
67 
  { "RESERVED", &bool_attr[0], &bool_attr[0] },
68 
  { "SIGN-OPT", &bool_attr[0], &bool_attr[0] },
69 
  { "SIGNED", &bool_attr[0], &bool_attr[0] },
70 
  { 0, 0, 0 }
71 
};
72 
 
73 
const CGEN_ATTR_TABLE lm32_cgen_hardware_attr_table[] =
74 
{
75 
  { "MACH", & MACH_attr[0], & MACH_attr[0] },
76 
  { "VIRTUAL", &bool_attr[0], &bool_attr[0] },
77 
  { "CACHE-ADDR", &bool_attr[0], &bool_attr[0] },
78 
  { "PC", &bool_attr[0], &bool_attr[0] },
79 
  { "PROFILE", &bool_attr[0], &bool_attr[0] },
80 
  { 0, 0, 0 }
81 
};
82 
 
83 
const CGEN_ATTR_TABLE lm32_cgen_operand_attr_table[] =
84 
{
85 
  { "MACH", & MACH_attr[0], & MACH_attr[0] },
86 
  { "VIRTUAL", &bool_attr[0], &bool_attr[0] },
87 
  { "PCREL-ADDR", &bool_attr[0], &bool_attr[0] },
88 
  { "ABS-ADDR", &bool_attr[0], &bool_attr[0] },
89 
  { "SIGN-OPT", &bool_attr[0], &bool_attr[0] },
90 
  { "SIGNED", &bool_attr[0], &bool_attr[0] },
91 
  { "NEGATIVE", &bool_attr[0], &bool_attr[0] },
92 
  { "RELAX", &bool_attr[0], &bool_attr[0] },
93 
  { "SEM-ONLY", &bool_attr[0], &bool_attr[0] },
94 
  { 0, 0, 0 }
95 
};
96 
 
97 
const CGEN_ATTR_TABLE lm32_cgen_insn_attr_table[] =
98 
{
99 
  { "MACH", & MACH_attr[0], & MACH_attr[0] },
100 
  { "ALIAS", &bool_attr[0], &bool_attr[0] },
101 
  { "VIRTUAL", &bool_attr[0], &bool_attr[0] },
102 
  { "UNCOND-CTI", &bool_attr[0], &bool_attr[0] },
103 
  { "COND-CTI", &bool_attr[0], &bool_attr[0] },
104 
  { "SKIP-CTI", &bool_attr[0], &bool_attr[0] },
105 
  { "DELAY-SLOT", &bool_attr[0], &bool_attr[0] },
106 
  { "RELAXABLE", &bool_attr[0], &bool_attr[0] },
107 
  { "RELAXED", &bool_attr[0], &bool_attr[0] },
108 
  { "NO-DIS", &bool_attr[0], &bool_attr[0] },
109 
  { "PBB", &bool_attr[0], &bool_attr[0] },
110 
  { 0, 0, 0 }
111 
};
112 
 
113 
/* Instruction set variants.  */
114 
 
115 
static const CGEN_ISA lm32_cgen_isa_table[] = {
116 
  { "lm32", 32, 32, 32, 32 },
117 
  { 0, 0, 0, 0, 0 }
118 
};
119 
 
120 
/* Machine variants.  */
121 
 
122 
static const CGEN_MACH lm32_cgen_mach_table[] = {
123 
  { "lm32", "lm32", MACH_LM32, 0 },
124 
  { 0, 0, 0, 0 }
125 
};
126 
 
127 
static CGEN_KEYWORD_ENTRY lm32_cgen_opval_h_gr_entries[] =
128 
{
129 
  { "gp", 26, {0, {{{0, 0}}}}, 0, 0 },
130 
  { "fp", 27, {0, {{{0, 0}}}}, 0, 0 },
131 
  { "sp", 28, {0, {{{0, 0}}}}, 0, 0 },
132 
  { "ra", 29, {0, {{{0, 0}}}}, 0, 0 },
133 
  { "ea", 30, {0, {{{0, 0}}}}, 0, 0 },
134 
  { "ba", 31, {0, {{{0, 0}}}}, 0, 0 },
135 
  { "r0", 0, {0, {{{0, 0}}}}, 0, 0 },
136 
  { "r1", 1, {0, {{{0, 0}}}}, 0, 0 },
137 
  { "r2", 2, {0, {{{0, 0}}}}, 0, 0 },
138 
  { "r3", 3, {0, {{{0, 0}}}}, 0, 0 },
139 
  { "r4", 4, {0, {{{0, 0}}}}, 0, 0 },
140 
  { "r5", 5, {0, {{{0, 0}}}}, 0, 0 },
141 
  { "r6", 6, {0, {{{0, 0}}}}, 0, 0 },
142 
  { "r7", 7, {0, {{{0, 0}}}}, 0, 0 },
143 
  { "r8", 8, {0, {{{0, 0}}}}, 0, 0 },
144 
  { "r9", 9, {0, {{{0, 0}}}}, 0, 0 },
145 
  { "r10", 10, {0, {{{0, 0}}}}, 0, 0 },
146 
  { "r11", 11, {0, {{{0, 0}}}}, 0, 0 },
147 
  { "r12", 12, {0, {{{0, 0}}}}, 0, 0 },
148 
  { "r13", 13, {0, {{{0, 0}}}}, 0, 0 },
149 
  { "r14", 14, {0, {{{0, 0}}}}, 0, 0 },
150 
  { "r15", 15, {0, {{{0, 0}}}}, 0, 0 },
151 
  { "r16", 16, {0, {{{0, 0}}}}, 0, 0 },
152 
  { "r17", 17, {0, {{{0, 0}}}}, 0, 0 },
153 
  { "r18", 18, {0, {{{0, 0}}}}, 0, 0 },
154 
  { "r19", 19, {0, {{{0, 0}}}}, 0, 0 },
155 
  { "r20", 20, {0, {{{0, 0}}}}, 0, 0 },
156 
  { "r21", 21, {0, {{{0, 0}}}}, 0, 0 },
157 
  { "r22", 22, {0, {{{0, 0}}}}, 0, 0 },
158 
  { "r23", 23, {0, {{{0, 0}}}}, 0, 0 },
159 
  { "r24", 24, {0, {{{0, 0}}}}, 0, 0 },
160 
  { "r25", 25, {0, {{{0, 0}}}}, 0, 0 },
161 
  { "r26", 26, {0, {{{0, 0}}}}, 0, 0 },
162 
  { "r27", 27, {0, {{{0, 0}}}}, 0, 0 },
163 
  { "r28", 28, {0, {{{0, 0}}}}, 0, 0 },
164 
  { "r29", 29, {0, {{{0, 0}}}}, 0, 0 },
165 
  { "r30", 30, {0, {{{0, 0}}}}, 0, 0 },
166 
  { "r31", 31, {0, {{{0, 0}}}}, 0, 0 }
167 
};
168 
 
169 
CGEN_KEYWORD lm32_cgen_opval_h_gr =
170 
{
171 
  & lm32_cgen_opval_h_gr_entries[0],
172 
  38,
173 
  0, 0, 0, 0, ""
174 
};
175 
 
176 
static CGEN_KEYWORD_ENTRY lm32_cgen_opval_h_csr_entries[] =
177 
{
178 
  { "IE", 0, {0, {{{0, 0}}}}, 0, 0 },
179 
  { "IM", 1, {0, {{{0, 0}}}}, 0, 0 },
180 
  { "IP", 2, {0, {{{0, 0}}}}, 0, 0 },
181 
  { "ICC", 3, {0, {{{0, 0}}}}, 0, 0 },
182 
  { "DCC", 4, {0, {{{0, 0}}}}, 0, 0 },
183 
  { "CC", 5, {0, {{{0, 0}}}}, 0, 0 },
184 
  { "CFG", 6, {0, {{{0, 0}}}}, 0, 0 },
185 
  { "EBA", 7, {0, {{{0, 0}}}}, 0, 0 },
186 
  { "DC", 8, {0, {{{0, 0}}}}, 0, 0 },
187 
  { "DEBA", 9, {0, {{{0, 0}}}}, 0, 0 },
188 
  { "JTX", 14, {0, {{{0, 0}}}}, 0, 0 },
189 
  { "JRX", 15, {0, {{{0, 0}}}}, 0, 0 },
190 
  { "BP0", 16, {0, {{{0, 0}}}}, 0, 0 },
191 
  { "BP1", 17, {0, {{{0, 0}}}}, 0, 0 },
192 
  { "BP2", 18, {0, {{{0, 0}}}}, 0, 0 },
193 
  { "BP3", 19, {0, {{{0, 0}}}}, 0, 0 },
194 
  { "WP0", 24, {0, {{{0, 0}}}}, 0, 0 },
195 
  { "WP1", 25, {0, {{{0, 0}}}}, 0, 0 },
196 
  { "WP2", 26, {0, {{{0, 0}}}}, 0, 0 },
197 
  { "WP3", 27, {0, {{{0, 0}}}}, 0, 0 }
198 
};
199 
 
200 
CGEN_KEYWORD lm32_cgen_opval_h_csr =
201 
{
202 
  & lm32_cgen_opval_h_csr_entries[0],
203 
  20,
204 
  0, 0, 0, 0, ""
205 
};
206 
 
207 
 
208 
/* The hardware table.  */
209 
 
210 
#define A(a) (1 << CGEN_HW_##a)
211 
 
212 
const CGEN_HW_ENTRY lm32_cgen_hw_table[] =
213 
{
214 
  { "h-memory", HW_H_MEMORY, CGEN_ASM_NONE, 0, { 0, { { { (1<<MACH_BASE), 0 } } } } },
215 
  { "h-sint", HW_H_SINT, CGEN_ASM_NONE, 0, { 0, { { { (1<<MACH_BASE), 0 } } } } },
216 
  { "h-uint", HW_H_UINT, CGEN_ASM_NONE, 0, { 0, { { { (1<<MACH_BASE), 0 } } } } },
217 
  { "h-addr", HW_H_ADDR, CGEN_ASM_NONE, 0, { 0, { { { (1<<MACH_BASE), 0 } } } } },
218 
  { "h-iaddr", HW_H_IADDR, CGEN_ASM_NONE, 0, { 0, { { { (1<<MACH_BASE), 0 } } } } },
219 
  { "h-pc", HW_H_PC, CGEN_ASM_NONE, 0, { 0|A(PC), { { { (1<<MACH_BASE), 0 } } } } },
220 
  { "h-gr", HW_H_GR, CGEN_ASM_KEYWORD, (PTR) & lm32_cgen_opval_h_gr, { 0, { { { (1<<MACH_BASE), 0 } } } } },
221 
  { "h-csr", HW_H_CSR, CGEN_ASM_KEYWORD, (PTR) & lm32_cgen_opval_h_csr, { 0, { { { (1<<MACH_BASE), 0 } } } } },
222 
  { 0, 0, CGEN_ASM_NONE, 0, { 0, { { { (1<<MACH_BASE), 0 } } } } }
223 
};
224 
 
225 
#undef A
226 
 
227 
 
228 
/* The instruction field table.  */
229 
 
230 
#define A(a) (1 << CGEN_IFLD_##a)
231 
 
232 
const CGEN_IFLD lm32_cgen_ifld_table[] =
233 
{
234 
  { LM32_F_NIL, "f-nil", 0, 0, 0, 0, { 0, { { { (1<<MACH_BASE), 0 } } } }  },
235 
  { LM32_F_ANYOF, "f-anyof", 0, 0, 0, 0, { 0, { { { (1<<MACH_BASE), 0 } } } }  },
236 
  { LM32_F_OPCODE, "f-opcode", 0, 32, 31, 6, { 0, { { { (1<<MACH_BASE), 0 } } } }  },
237 
  { LM32_F_R0, "f-r0", 0, 32, 25, 5, { 0, { { { (1<<MACH_BASE), 0 } } } }  },
238 
  { LM32_F_R1, "f-r1", 0, 32, 20, 5, { 0, { { { (1<<MACH_BASE), 0 } } } }  },
239 
  { LM32_F_R2, "f-r2", 0, 32, 15, 5, { 0, { { { (1<<MACH_BASE), 0 } } } }  },
240 
  { LM32_F_RESV0, "f-resv0", 0, 32, 10, 11, { 0|A(RESERVED), { { { (1<<MACH_BASE), 0 } } } }  },
241 
  { LM32_F_SHIFT, "f-shift", 0, 32, 4, 5, { 0, { { { (1<<MACH_BASE), 0 } } } }  },
242 
  { LM32_F_IMM, "f-imm", 0, 32, 15, 16, { 0, { { { (1<<MACH_BASE), 0 } } } }  },
243 
  { LM32_F_UIMM, "f-uimm", 0, 32, 15, 16, { 0, { { { (1<<MACH_BASE), 0 } } } }  },
244 
  { LM32_F_CSR, "f-csr", 0, 32, 25, 5, { 0, { { { (1<<MACH_BASE), 0 } } } }  },
245 
  { LM32_F_USER, "f-user", 0, 32, 10, 11, { 0, { { { (1<<MACH_BASE), 0 } } } }  },
246 
  { LM32_F_EXCEPTION, "f-exception", 0, 32, 25, 26, { 0, { { { (1<<MACH_BASE), 0 } } } }  },
247 
  { LM32_F_BRANCH, "f-branch", 0, 32, 15, 16, { 0|A(PCREL_ADDR), { { { (1<<MACH_BASE), 0 } } } }  },
248 
  { LM32_F_CALL, "f-call", 0, 32, 25, 26, { 0|A(PCREL_ADDR), { { { (1<<MACH_BASE), 0 } } } }  },
249 
  { 0, 0, 0, 0, 0, 0, { 0, { { { (1<<MACH_BASE), 0 } } } } }
250 
};
251 
 
252 
#undef A
253 
 
254 
 
255 
 
256 
/* multi ifield declarations */
257 
 
258 
 
259 
 
260 
/* multi ifield definitions */
261 
 
262 
 
263 
/* The operand table.  */
264 
 
265 
#define A(a) (1 << CGEN_OPERAND_##a)
266 
#define OPERAND(op) LM32_OPERAND_##op
267 
 
268 
const CGEN_OPERAND lm32_cgen_operand_table[] =
269 
{
270 
/* pc: program counter */
271 
  { "pc", LM32_OPERAND_PC, HW_H_PC, 0, 0,
272 
    { 0, { (const PTR) &lm32_cgen_ifld_table[LM32_F_NIL] } },
273 
    { 0|A(SEM_ONLY), { { { (1<<MACH_BASE), 0 } } } }  },
274 
/* r0: register 0 */
275 
  { "r0", LM32_OPERAND_R0, HW_H_GR, 25, 5,
276 
    { 0, { (const PTR) &lm32_cgen_ifld_table[LM32_F_R0] } },
277 
    { 0, { { { (1<<MACH_BASE), 0 } } } }  },
278 
/* r1: register 1 */
279 
  { "r1", LM32_OPERAND_R1, HW_H_GR, 20, 5,
280 
    { 0, { (const PTR) &lm32_cgen_ifld_table[LM32_F_R1] } },
281 
    { 0, { { { (1<<MACH_BASE), 0 } } } }  },
282 
/* r2: register 2 */
283 
  { "r2", LM32_OPERAND_R2, HW_H_GR, 15, 5,
284 
    { 0, { (const PTR) &lm32_cgen_ifld_table[LM32_F_R2] } },
285 
    { 0, { { { (1<<MACH_BASE), 0 } } } }  },
286 
/* shift: shift amout */
287 
  { "shift", LM32_OPERAND_SHIFT, HW_H_UINT, 4, 5,
288 
    { 0, { (const PTR) &lm32_cgen_ifld_table[LM32_F_SHIFT] } },
289 
    { 0, { { { (1<<MACH_BASE), 0 } } } }  },
290 
/* imm: signed immediate */
291 
  { "imm", LM32_OPERAND_IMM, HW_H_SINT, 15, 16,
292 
    { 0, { (const PTR) &lm32_cgen_ifld_table[LM32_F_IMM] } },
293 
    { 0, { { { (1<<MACH_BASE), 0 } } } }  },
294 
/* uimm: unsigned immediate */
295 
  { "uimm", LM32_OPERAND_UIMM, HW_H_UINT, 15, 16,
296 
    { 0, { (const PTR) &lm32_cgen_ifld_table[LM32_F_UIMM] } },
297 
    { 0, { { { (1<<MACH_BASE), 0 } } } }  },
298 
/* branch: branch offset */
299 
  { "branch", LM32_OPERAND_BRANCH, HW_H_IADDR, 15, 16,
300 
    { 0, { (const PTR) &lm32_cgen_ifld_table[LM32_F_BRANCH] } },
301 
    { 0|A(PCREL_ADDR), { { { (1<<MACH_BASE), 0 } } } }  },
302 
/* call: call offset */
303 
  { "call", LM32_OPERAND_CALL, HW_H_IADDR, 25, 26,
304 
    { 0, { (const PTR) &lm32_cgen_ifld_table[LM32_F_CALL] } },
305 
    { 0|A(PCREL_ADDR), { { { (1<<MACH_BASE), 0 } } } }  },
306 
/* csr: csr */
307 
  { "csr", LM32_OPERAND_CSR, HW_H_CSR, 25, 5,
308 
    { 0, { (const PTR) &lm32_cgen_ifld_table[LM32_F_CSR] } },
309 
    { 0, { { { (1<<MACH_BASE), 0 } } } }  },
310 
/* user: user */
311 
  { "user", LM32_OPERAND_USER, HW_H_UINT, 10, 11,
312 
    { 0, { (const PTR) &lm32_cgen_ifld_table[LM32_F_USER] } },
313 
    { 0, { { { (1<<MACH_BASE), 0 } } } }  },
314 
/* exception: exception */
315 
  { "exception", LM32_OPERAND_EXCEPTION, HW_H_UINT, 25, 26,
316 
    { 0, { (const PTR) &lm32_cgen_ifld_table[LM32_F_EXCEPTION] } },
317 
    { 0, { { { (1<<MACH_BASE), 0 } } } }  },
318 
/* hi16: high 16-bit immediate */
319 
  { "hi16", LM32_OPERAND_HI16, HW_H_UINT, 15, 16,
320 
    { 0, { (const PTR) &lm32_cgen_ifld_table[LM32_F_UIMM] } },
321 
    { 0, { { { (1<<MACH_BASE), 0 } } } }  },
322 
/* lo16: low 16-bit immediate */
323 
  { "lo16", LM32_OPERAND_LO16, HW_H_UINT, 15, 16,
324 
    { 0, { (const PTR) &lm32_cgen_ifld_table[LM32_F_UIMM] } },
325 
    { 0, { { { (1<<MACH_BASE), 0 } } } }  },
326 
/* gp16: gp relative 16-bit immediate */
327 
  { "gp16", LM32_OPERAND_GP16, HW_H_SINT, 15, 16,
328 
    { 0, { (const PTR) &lm32_cgen_ifld_table[LM32_F_IMM] } },
329 
    { 0, { { { (1<<MACH_BASE), 0 } } } }  },
330 
/* got16: got 16-bit immediate */
331 
  { "got16", LM32_OPERAND_GOT16, HW_H_SINT, 15, 16,
332 
    { 0, { (const PTR) &lm32_cgen_ifld_table[LM32_F_IMM] } },
333 
    { 0, { { { (1<<MACH_BASE), 0 } } } }  },
334 
/* gotoffhi16: got offset high 16-bit immediate */
335 
  { "gotoffhi16", LM32_OPERAND_GOTOFFHI16, HW_H_SINT, 15, 16,
336 
    { 0, { (const PTR) &lm32_cgen_ifld_table[LM32_F_IMM] } },
337 
    { 0, { { { (1<<MACH_BASE), 0 } } } }  },
338 
/* gotofflo16: got offset low 16-bit immediate */
339 
  { "gotofflo16", LM32_OPERAND_GOTOFFLO16, HW_H_SINT, 15, 16,
340 
    { 0, { (const PTR) &lm32_cgen_ifld_table[LM32_F_IMM] } },
341 
    { 0, { { { (1<<MACH_BASE), 0 } } } }  },
342 
/* sentinel */
343 
  { 0, 0, 0, 0, 0,
344 
    { 0, { (const PTR) 0 } },
345 
    { 0, { { { (1<<MACH_BASE), 0 } } } } }
346 
};
347 
 
348 
#undef A
349 
 
350 
 
351 
/* The instruction table.  */
352 
 
353 
#define OP(field) CGEN_SYNTAX_MAKE_FIELD (OPERAND (field))
354 
#define A(a) (1 << CGEN_INSN_##a)
355 
 
356 
static const CGEN_IBASE lm32_cgen_insn_table[MAX_INSNS] =
357 
{
358 
  /* Special null first entry.
359 
     A `num' value of zero is thus invalid.
360 
     Also, the special `invalid' insn resides here.  */
361 
  { 0, 0, 0, 0, { 0, { { { (1<<MACH_BASE), 0 } } } } },
362 
/* add $r2,$r0,$r1 */
363 
  {
364 
    LM32_INSN_ADD, "add", "add", 32,
365 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
366 
  },
367 
/* addi $r1,$r0,$imm */
368 
  {
369 
    LM32_INSN_ADDI, "addi", "addi", 32,
370 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
371 
  },
372 
/* and $r2,$r0,$r1 */
373 
  {
374 
    LM32_INSN_AND, "and", "and", 32,
375 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
376 
  },
377 
/* andi $r1,$r0,$uimm */
378 
  {
379 
    LM32_INSN_ANDI, "andi", "andi", 32,
380 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
381 
  },
382 
/* andhi $r1,$r0,$hi16 */
383 
  {
384 
    LM32_INSN_ANDHII, "andhii", "andhi", 32,
385 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
386 
  },
387 
/* b $r0 */
388 
  {
389 
    LM32_INSN_B, "b", "b", 32,
390 
    { 0|A(UNCOND_CTI), { { { (1<<MACH_BASE), 0 } } } }
391 
  },
392 
/* bi $call */
393 
  {
394 
    LM32_INSN_BI, "bi", "bi", 32,
395 
    { 0|A(UNCOND_CTI), { { { (1<<MACH_BASE), 0 } } } }
396 
  },
397 
/* be $r0,$r1,$branch */
398 
  {
399 
    LM32_INSN_BE, "be", "be", 32,
400 
    { 0|A(COND_CTI), { { { (1<<MACH_BASE), 0 } } } }
401 
  },
402 
/* bg $r0,$r1,$branch */
403 
  {
404 
    LM32_INSN_BG, "bg", "bg", 32,
405 
    { 0|A(COND_CTI), { { { (1<<MACH_BASE), 0 } } } }
406 
  },
407 
/* bge $r0,$r1,$branch */
408 
  {
409 
    LM32_INSN_BGE, "bge", "bge", 32,
410 
    { 0|A(COND_CTI), { { { (1<<MACH_BASE), 0 } } } }
411 
  },
412 
/* bgeu $r0,$r1,$branch */
413 
  {
414 
    LM32_INSN_BGEU, "bgeu", "bgeu", 32,
415 
    { 0|A(COND_CTI), { { { (1<<MACH_BASE), 0 } } } }
416 
  },
417 
/* bgu $r0,$r1,$branch */
418 
  {
419 
    LM32_INSN_BGU, "bgu", "bgu", 32,
420 
    { 0|A(COND_CTI), { { { (1<<MACH_BASE), 0 } } } }
421 
  },
422 
/* bne $r0,$r1,$branch */
423 
  {
424 
    LM32_INSN_BNE, "bne", "bne", 32,
425 
    { 0|A(COND_CTI), { { { (1<<MACH_BASE), 0 } } } }
426 
  },
427 
/* call $r0 */
428 
  {
429 
    LM32_INSN_CALL, "call", "call", 32,
430 
    { 0|A(UNCOND_CTI), { { { (1<<MACH_BASE), 0 } } } }
431 
  },
432 
/* calli $call */
433 
  {
434 
    LM32_INSN_CALLI, "calli", "calli", 32,
435 
    { 0|A(UNCOND_CTI), { { { (1<<MACH_BASE), 0 } } } }
436 
  },
437 
/* cmpe $r2,$r0,$r1 */
438 
  {
439 
    LM32_INSN_CMPE, "cmpe", "cmpe", 32,
440 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
441 
  },
442 
/* cmpei $r1,$r0,$imm */
443 
  {
444 
    LM32_INSN_CMPEI, "cmpei", "cmpei", 32,
445 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
446 
  },
447 
/* cmpg $r2,$r0,$r1 */
448 
  {
449 
    LM32_INSN_CMPG, "cmpg", "cmpg", 32,
450 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
451 
  },
452 
/* cmpgi $r1,$r0,$imm */
453 
  {
454 
    LM32_INSN_CMPGI, "cmpgi", "cmpgi", 32,
455 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
456 
  },
457 
/* cmpge $r2,$r0,$r1 */
458 
  {
459 
    LM32_INSN_CMPGE, "cmpge", "cmpge", 32,
460 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
461 
  },
462 
/* cmpgei $r1,$r0,$imm */
463 
  {
464 
    LM32_INSN_CMPGEI, "cmpgei", "cmpgei", 32,
465 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
466 
  },
467 
/* cmpgeu $r2,$r0,$r1 */
468 
  {
469 
    LM32_INSN_CMPGEU, "cmpgeu", "cmpgeu", 32,
470 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
471 
  },
472 
/* cmpgeui $r1,$r0,$uimm */
473 
  {
474 
    LM32_INSN_CMPGEUI, "cmpgeui", "cmpgeui", 32,
475 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
476 
  },
477 
/* cmpgu $r2,$r0,$r1 */
478 
  {
479 
    LM32_INSN_CMPGU, "cmpgu", "cmpgu", 32,
480 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
481 
  },
482 
/* cmpgui $r1,$r0,$uimm */
483 
  {
484 
    LM32_INSN_CMPGUI, "cmpgui", "cmpgui", 32,
485 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
486 
  },
487 
/* cmpne $r2,$r0,$r1 */
488 
  {
489 
    LM32_INSN_CMPNE, "cmpne", "cmpne", 32,
490 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
491 
  },
492 
/* cmpnei $r1,$r0,$imm */
493 
  {
494 
    LM32_INSN_CMPNEI, "cmpnei", "cmpnei", 32,
495 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
496 
  },
497 
/* divu $r2,$r0,$r1 */
498 
  {
499 
    LM32_INSN_DIVU, "divu", "divu", 32,
500 
    { 0|A(UNCOND_CTI), { { { (1<<MACH_BASE), 0 } } } }
501 
  },
502 
/* lb $r1,($r0+$imm) */
503 
  {
504 
    LM32_INSN_LB, "lb", "lb", 32,
505 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
506 
  },
507 
/* lbu $r1,($r0+$imm) */
508 
  {
509 
    LM32_INSN_LBU, "lbu", "lbu", 32,
510 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
511 
  },
512 
/* lh $r1,($r0+$imm) */
513 
  {
514 
    LM32_INSN_LH, "lh", "lh", 32,
515 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
516 
  },
517 
/* lhu $r1,($r0+$imm) */
518 
  {
519 
    LM32_INSN_LHU, "lhu", "lhu", 32,
520 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
521 
  },
522 
/* lw $r1,($r0+$imm) */
523 
  {
524 
    LM32_INSN_LW, "lw", "lw", 32,
525 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
526 
  },
527 
/* modu $r2,$r0,$r1 */
528 
  {
529 
    LM32_INSN_MODU, "modu", "modu", 32,
530 
    { 0|A(UNCOND_CTI), { { { (1<<MACH_BASE), 0 } } } }
531 
  },
532 
/* mul $r2,$r0,$r1 */
533 
  {
534 
    LM32_INSN_MUL, "mul", "mul", 32,
535 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
536 
  },
537 
/* muli $r1,$r0,$imm */
538 
  {
539 
    LM32_INSN_MULI, "muli", "muli", 32,
540 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
541 
  },
542 
/* nor $r2,$r0,$r1 */
543 
  {
544 
    LM32_INSN_NOR, "nor", "nor", 32,
545 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
546 
  },
547 
/* nori $r1,$r0,$uimm */
548 
  {
549 
    LM32_INSN_NORI, "nori", "nori", 32,
550 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
551 
  },
552 
/* or $r2,$r0,$r1 */
553 
  {
554 
    LM32_INSN_OR, "or", "or", 32,
555 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
556 
  },
557 
/* ori $r1,$r0,$lo16 */
558 
  {
559 
    LM32_INSN_ORI, "ori", "ori", 32,
560 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
561 
  },
562 
/* orhi $r1,$r0,$hi16 */
563 
  {
564 
    LM32_INSN_ORHII, "orhii", "orhi", 32,
565 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
566 
  },
567 
/* rcsr $r2,$csr */
568 
  {
569 
    LM32_INSN_RCSR, "rcsr", "rcsr", 32,
570 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
571 
  },
572 
/* sb ($r0+$imm),$r1 */
573 
  {
574 
    LM32_INSN_SB, "sb", "sb", 32,
575 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
576 
  },
577 
/* sextb $r2,$r0 */
578 
  {
579 
    LM32_INSN_SEXTB, "sextb", "sextb", 32,
580 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
581 
  },
582 
/* sexth $r2,$r0 */
583 
  {
584 
    LM32_INSN_SEXTH, "sexth", "sexth", 32,
585 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
586 
  },
587 
/* sh ($r0+$imm),$r1 */
588 
  {
589 
    LM32_INSN_SH, "sh", "sh", 32,
590 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
591 
  },
592 
/* sl $r2,$r0,$r1 */
593 
  {
594 
    LM32_INSN_SL, "sl", "sl", 32,
595 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
596 
  },
597 
/* sli $r1,$r0,$imm */
598 
  {
599 
    LM32_INSN_SLI, "sli", "sli", 32,
600 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
601 
  },
602 
/* sr $r2,$r0,$r1 */
603 
  {
604 
    LM32_INSN_SR, "sr", "sr", 32,
605 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
606 
  },
607 
/* sri $r1,$r0,$imm */
608 
  {
609 
    LM32_INSN_SRI, "sri", "sri", 32,
610 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
611 
  },
612 
/* sru $r2,$r0,$r1 */
613 
  {
614 
    LM32_INSN_SRU, "sru", "sru", 32,
615 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
616 
  },
617 
/* srui $r1,$r0,$imm */
618 
  {
619 
    LM32_INSN_SRUI, "srui", "srui", 32,
620 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
621 
  },
622 
/* sub $r2,$r0,$r1 */
623 
  {
624 
    LM32_INSN_SUB, "sub", "sub", 32,
625 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
626 
  },
627 
/* sw ($r0+$imm),$r1 */
628 
  {
629 
    LM32_INSN_SW, "sw", "sw", 32,
630 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
631 
  },
632 
/* user $r2,$r0,$r1,$user */
633 
  {
634 
    LM32_INSN_USER, "user", "user", 32,
635 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
636 
  },
637 
/* wcsr $csr,$r1 */
638 
  {
639 
    LM32_INSN_WCSR, "wcsr", "wcsr", 32,
640 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
641 
  },
642 
/* xor $r2,$r0,$r1 */
643 
  {
644 
    LM32_INSN_XOR, "xor", "xor", 32,
645 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
646 
  },
647 
/* xori $r1,$r0,$uimm */
648 
  {
649 
    LM32_INSN_XORI, "xori", "xori", 32,
650 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
651 
  },
652 
/* xnor $r2,$r0,$r1 */
653 
  {
654 
    LM32_INSN_XNOR, "xnor", "xnor", 32,
655 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
656 
  },
657 
/* xnori $r1,$r0,$uimm */
658 
  {
659 
    LM32_INSN_XNORI, "xnori", "xnori", 32,
660 
    { 0, { { { (1<<MACH_BASE), 0 } } } }
661 
  },
662 
/* break */
663 
  {
664 
    LM32_INSN_BREAK, "break", "break", 32,
665 
    { 0|A(UNCOND_CTI), { { { (1<<MACH_BASE), 0 } } } }
666 
  },
667 
/* scall */
668 
  {
669 
    LM32_INSN_SCALL, "scall", "scall", 32,
670 
    { 0|A(UNCOND_CTI), { { { (1<<MACH_BASE), 0 } } } }
671 
  },
672 
/* bret */
673 
  {
674 
    -1, "bret", "bret", 32,
675 
    { 0|A(ALIAS)|A(UNCOND_CTI), { { { (1<<MACH_BASE), 0 } } } }
676 
  },
677 
/* eret */
678 
  {
679 
    -1, "eret", "eret", 32,
680 
    { 0|A(ALIAS)|A(UNCOND_CTI), { { { (1<<MACH_BASE), 0 } } } }
681 
  },
682 
/* ret */
683 
  {
684 
    -1, "ret", "ret", 32,
685 
    { 0|A(ALIAS)|A(UNCOND_CTI), { { { (1<<MACH_BASE), 0 } } } }
686 
  },
687 
/* mv $r2,$r0 */
688 
  {
689 
    -1, "mv", "mv", 32,
690 
    { 0|A(ALIAS), { { { (1<<MACH_BASE), 0 } } } }
691 
  },
692 
/* mvi $r1,$imm */
693 
  {
694 
    -1, "mvi", "mvi", 32,
695 
    { 0|A(ALIAS), { { { (1<<MACH_BASE), 0 } } } }
696 
  },
697 
/* mvu $r1,$lo16 */
698 
  {
699 
    -1, "mvui", "mvu", 32,
700 
    { 0|A(ALIAS), { { { (1<<MACH_BASE), 0 } } } }
701 
  },
702 
/* mvhi $r1,$hi16 */
703 
  {
704 
    -1, "mvhi", "mvhi", 32,
705 
    { 0|A(ALIAS), { { { (1<<MACH_BASE), 0 } } } }
706 
  },
707 
/* mva $r1,$gp16 */
708 
  {
709 
    -1, "mva", "mva", 32,
710 
    { 0|A(ALIAS), { { { (1<<MACH_BASE), 0 } } } }
711 
  },
712 
/* not $r2,$r0 */
713 
  {
714 
    -1, "not", "not", 32,
715 
    { 0|A(ALIAS), { { { (1<<MACH_BASE), 0 } } } }
716 
  },
717 
/* nop */
718 
  {
719 
    -1, "nop", "nop", 32,
720 
    { 0|A(ALIAS), { { { (1<<MACH_BASE), 0 } } } }
721 
  },
722 
/* lb $r1,$gp16 */
723 
  {
724 
    -1, "lbgprel", "lb", 32,
725 
    { 0|A(ALIAS), { { { (1<<MACH_BASE), 0 } } } }
726 
  },
727 
/* lbu $r1,$gp16 */
728 
  {
729 
    -1, "lbugprel", "lbu", 32,
730 
    { 0|A(ALIAS), { { { (1<<MACH_BASE), 0 } } } }
731 
  },
732 
/* lh $r1,$gp16 */
733 
  {
734 
    -1, "lhgprel", "lh", 32,
735 
    { 0|A(ALIAS), { { { (1<<MACH_BASE), 0 } } } }
736 
  },
737 
/* lhu $r1,$gp16 */
738 
  {
739 
    -1, "lhugprel", "lhu", 32,
740 
    { 0|A(ALIAS), { { { (1<<MACH_BASE), 0 } } } }
741 
  },
742 
/* lw $r1,$gp16 */
743 
  {
744 
    -1, "lwgprel", "lw", 32,
745 
    { 0|A(ALIAS), { { { (1<<MACH_BASE), 0 } } } }
746 
  },
747 
/* sb $gp16,$r1 */
748 
  {
749 
    -1, "sbgprel", "sb", 32,
750 
    { 0|A(ALIAS), { { { (1<<MACH_BASE), 0 } } } }
751 
  },
752 
/* sh $gp16,$r1 */
753 
  {
754 
    -1, "shgprel", "sh", 32,
755 
    { 0|A(ALIAS), { { { (1<<MACH_BASE), 0 } } } }
756 
  },
757 
/* sw $gp16,$r1 */
758 
  {
759 
    -1, "swgprel", "sw", 32,
760 
    { 0|A(ALIAS), { { { (1<<MACH_BASE), 0 } } } }
761 
  },
762 
/* lw $r1,(gp+$got16) */
763 
  {
764 
    -1, "lwgotrel", "lw", 32,
765 
    { 0|A(ALIAS), { { { (1<<MACH_BASE), 0 } } } }
766 
  },
767 
/* orhi $r1,$r0,$gotoffhi16 */
768 
  {
769 
    -1, "orhigotoffi", "orhi", 32,
770 
    { 0|A(ALIAS), { { { (1<<MACH_BASE), 0 } } } }
771 
  },
772 
/* addi $r1,$r0,$gotofflo16 */
773 
  {
774 
    -1, "addgotoff", "addi", 32,
775 
    { 0|A(ALIAS), { { { (1<<MACH_BASE), 0 } } } }
776 
  },
777 
/* sw ($r0+$gotofflo16),$r1 */
778 
  {
779 
    -1, "swgotoff", "sw", 32,
780 
    { 0|A(ALIAS), { { { (1<<MACH_BASE), 0 } } } }
781 
  },
782 
/* lw $r1,($r0+$gotofflo16) */
783 
  {
784 
    -1, "lwgotoff", "lw", 32,
785 
    { 0|A(ALIAS), { { { (1<<MACH_BASE), 0 } } } }
786 
  },
787 
/* sh ($r0+$gotofflo16),$r1 */
788 
  {
789 
    -1, "shgotoff", "sh", 32,
790 
    { 0|A(ALIAS), { { { (1<<MACH_BASE), 0 } } } }
791 
  },
792 
/* lh $r1,($r0+$gotofflo16) */
793 
  {
794 
    -1, "lhgotoff", "lh", 32,
795 
    { 0|A(ALIAS), { { { (1<<MACH_BASE), 0 } } } }
796 
  },
797 
/* lhu $r1,($r0+$gotofflo16) */
798 
  {
799 
    -1, "lhugotoff", "lhu", 32,
800 
    { 0|A(ALIAS), { { { (1<<MACH_BASE), 0 } } } }
801 
  },
802 
/* sb ($r0+$gotofflo16),$r1 */
803 
  {
804 
    -1, "sbgotoff", "sb", 32,
805 
    { 0|A(ALIAS), { { { (1<<MACH_BASE), 0 } } } }
806 
  },
807 
/* lb $r1,($r0+$gotofflo16) */
808 
  {
809 
    -1, "lbgotoff", "lb", 32,
810 
    { 0|A(ALIAS), { { { (1<<MACH_BASE), 0 } } } }
811 
  },
812 
/* lbu $r1,($r0+$gotofflo16) */
813 
  {
814 
    -1, "lbugotoff", "lbu", 32,
815 
    { 0|A(ALIAS), { { { (1<<MACH_BASE), 0 } } } }
816 
  },
817 
};
818 
 
819 
#undef OP
820 
#undef A
821 
 
822 
/* Initialize anything needed to be done once, before any cpu_open call.  */
823 
 
824 
static void
825 
init_tables (void)
826 
{
827 
}
828 
 
829 
static const CGEN_MACH * lookup_mach_via_bfd_name (const CGEN_MACH *, const char *);
830 
static void build_hw_table      (CGEN_CPU_TABLE *);
831 
static void build_ifield_table  (CGEN_CPU_TABLE *);
832 
static void build_operand_table (CGEN_CPU_TABLE *);
833 
static void build_insn_table    (CGEN_CPU_TABLE *);
834 
static void lm32_cgen_rebuild_tables (CGEN_CPU_TABLE *);
835 
 
836 
/* Subroutine of lm32_cgen_cpu_open to look up a mach via its bfd name.  */
837 
 
838 
static const CGEN_MACH *
839 
lookup_mach_via_bfd_name (const CGEN_MACH *table, const char *name)
840 
{
841 
  while (table->name)
842 
    {
843 
      if (strcmp (name, table->bfd_name) == 0)
844 
        return table;
845 
      ++table;
846 
    }
847 
  abort ();
848 
}
849 
 
850 
/* Subroutine of lm32_cgen_cpu_open to build the hardware table.  */
851 
 
852 
static void
853 
build_hw_table (CGEN_CPU_TABLE *cd)
854 
{
855 
  int i;
856 
  int machs = cd->machs;
857 
  const CGEN_HW_ENTRY *init = & lm32_cgen_hw_table[0];
858 
  /* MAX_HW is only an upper bound on the number of selected entries.
859 
     However each entry is indexed by it's enum so there can be holes in
860 
     the table.  */
861 
  const CGEN_HW_ENTRY **selected =
862 
    (const CGEN_HW_ENTRY **) xmalloc (MAX_HW * sizeof (CGEN_HW_ENTRY *));
863 
 
864 
  cd->hw_table.init_entries = init;
865 
  cd->hw_table.entry_size = sizeof (CGEN_HW_ENTRY);
866 
  memset (selected, 0, MAX_HW * sizeof (CGEN_HW_ENTRY *));
867 
  /* ??? For now we just use machs to determine which ones we want.  */
868 
  for (i = 0; init[i].name != NULL; ++i)
869 
    if (CGEN_HW_ATTR_VALUE (&init[i], CGEN_HW_MACH)
870 
        & machs)
871 
      selected[init[i].type] = &init[i];
872 
  cd->hw_table.entries = selected;
873 
  cd->hw_table.num_entries = MAX_HW;
874 
}
875 
 
876 
/* Subroutine of lm32_cgen_cpu_open to build the hardware table.  */
877 
 
878 
static void
879 
build_ifield_table (CGEN_CPU_TABLE *cd)
880 
{
881 
  cd->ifld_table = & lm32_cgen_ifld_table[0];
882 
}
883 
 
884 
/* Subroutine of lm32_cgen_cpu_open to build the hardware table.  */
885 
 
886 
static void
887 
build_operand_table (CGEN_CPU_TABLE *cd)
888 
{
889 
  int i;
890 
  int machs = cd->machs;
891 
  const CGEN_OPERAND *init = & lm32_cgen_operand_table[0];
892 
  /* MAX_OPERANDS is only an upper bound on the number of selected entries.
893 
     However each entry is indexed by it's enum so there can be holes in
894 
     the table.  */
895 
  const CGEN_OPERAND **selected = xmalloc (MAX_OPERANDS * sizeof (* selected));
896 
 
897 
  cd->operand_table.init_entries = init;
898 
  cd->operand_table.entry_size = sizeof (CGEN_OPERAND);
899 
  memset (selected, 0, MAX_OPERANDS * sizeof (CGEN_OPERAND *));
900 
  /* ??? For now we just use mach to determine which ones we want.  */
901 
  for (i = 0; init[i].name != NULL; ++i)
902 
    if (CGEN_OPERAND_ATTR_VALUE (&init[i], CGEN_OPERAND_MACH)
903 
        & machs)
904 
      selected[init[i].type] = &init[i];
905 
  cd->operand_table.entries = selected;
906 
  cd->operand_table.num_entries = MAX_OPERANDS;
907 
}
908 
 
909 
/* Subroutine of lm32_cgen_cpu_open to build the hardware table.
910 
   ??? This could leave out insns not supported by the specified mach/isa,
911 
   but that would cause errors like "foo only supported by bar" to become
912 
   "unknown insn", so for now we include all insns and require the app to
913 
   do the checking later.
914 
   ??? On the other hand, parsing of such insns may require their hardware or
915 
   operand elements to be in the table [which they mightn't be].  */
916 
 
917 
static void
918 
build_insn_table (CGEN_CPU_TABLE *cd)
919 
{
920 
  int i;
921 
  const CGEN_IBASE *ib = & lm32_cgen_insn_table[0];
922 
  CGEN_INSN *insns = xmalloc (MAX_INSNS * sizeof (CGEN_INSN));
923 
 
924 
  memset (insns, 0, MAX_INSNS * sizeof (CGEN_INSN));
925 
  for (i = 0; i < MAX_INSNS; ++i)
926 
    insns[i].base = &ib[i];
927 
  cd->insn_table.init_entries = insns;
928 
  cd->insn_table.entry_size = sizeof (CGEN_IBASE);
929 
  cd->insn_table.num_init_entries = MAX_INSNS;
930 
}
931 
 
932 
/* Subroutine of lm32_cgen_cpu_open to rebuild the tables.  */
933 
 
934 
static void
935 
lm32_cgen_rebuild_tables (CGEN_CPU_TABLE *cd)
936 
{
937 
  int i;
938 
  CGEN_BITSET *isas = cd->isas;
939 
  unsigned int machs = cd->machs;
940 
 
941 
  cd->int_insn_p = CGEN_INT_INSN_P;
942 
 
943 
  /* Data derived from the isa spec.  */
944 
#define UNSET (CGEN_SIZE_UNKNOWN + 1)
945 
  cd->default_insn_bitsize = UNSET;
946 
  cd->base_insn_bitsize = UNSET;
947 
  cd->min_insn_bitsize = 65535; /* Some ridiculously big number.  */
948 
  cd->max_insn_bitsize = 0;
949 
  for (i = 0; i < MAX_ISAS; ++i)
950 
    if (cgen_bitset_contains (isas, i))
951 
      {
952 
        const CGEN_ISA *isa = & lm32_cgen_isa_table[i];
953 
 
954 
        /* Default insn sizes of all selected isas must be
955 
           equal or we set the result to 0, meaning "unknown".  */
956 
        if (cd->default_insn_bitsize == UNSET)
957 
          cd->default_insn_bitsize = isa->default_insn_bitsize;
958 
        else if (isa->default_insn_bitsize == cd->default_insn_bitsize)
959 
          ; /* This is ok.  */
960 
        else
961 
          cd->default_insn_bitsize = CGEN_SIZE_UNKNOWN;
962 
 
963 
        /* Base insn sizes of all selected isas must be equal
964 
           or we set the result to 0, meaning "unknown".  */
965 
        if (cd->base_insn_bitsize == UNSET)
966 
          cd->base_insn_bitsize = isa->base_insn_bitsize;
967 
        else if (isa->base_insn_bitsize == cd->base_insn_bitsize)
968 
          ; /* This is ok.  */
969 
        else
970 
          cd->base_insn_bitsize = CGEN_SIZE_UNKNOWN;
971 
 
972 
        /* Set min,max insn sizes.  */
973 
        if (isa->min_insn_bitsize < cd->min_insn_bitsize)
974 
          cd->min_insn_bitsize = isa->min_insn_bitsize;
975 
        if (isa->max_insn_bitsize > cd->max_insn_bitsize)
976 
          cd->max_insn_bitsize = isa->max_insn_bitsize;
977 
      }
978 
 
979 
  /* Data derived from the mach spec.  */
980 
  for (i = 0; i < MAX_MACHS; ++i)
981 
    if (((1 << i) & machs) != 0)
982 
      {
983 
        const CGEN_MACH *mach = & lm32_cgen_mach_table[i];
984 
 
985 
        if (mach->insn_chunk_bitsize != 0)
986 
        {
987 
          if (cd->insn_chunk_bitsize != 0 && cd->insn_chunk_bitsize != mach->insn_chunk_bitsize)
988 
            {
989 
              fprintf (stderr, "lm32_cgen_rebuild_tables: conflicting insn-chunk-bitsize values: `%d' vs. `%d'\n",
990 
                       cd->insn_chunk_bitsize, mach->insn_chunk_bitsize);
991 
              abort ();
992 
            }
993 
 
994 
          cd->insn_chunk_bitsize = mach->insn_chunk_bitsize;
995 
        }
996 
      }
997 
 
998 
  /* Determine which hw elements are used by MACH.  */
999 
  build_hw_table (cd);
1000 
 
1001 
  /* Build the ifield table.  */
1002 
  build_ifield_table (cd);
1003 
 
1004 
  /* Determine which operands are used by MACH/ISA.  */
1005 
  build_operand_table (cd);
1006 
 
1007 
  /* Build the instruction table.  */
1008 
  build_insn_table (cd);
1009 
}
1010 
 
1011 
/* Initialize a cpu table and return a descriptor.
1012 
   It's much like opening a file, and must be the first function called.
1013 
   The arguments are a set of (type/value) pairs, terminated with
1014 
   CGEN_CPU_OPEN_END.
1015 
 
1016 
   Currently supported values:
1017 
   CGEN_CPU_OPEN_ISAS:    bitmap of values in enum isa_attr
1018 
   CGEN_CPU_OPEN_MACHS:   bitmap of values in enum mach_attr
1019 
   CGEN_CPU_OPEN_BFDMACH: specify 1 mach using bfd name
1020 
   CGEN_CPU_OPEN_ENDIAN:  specify endian choice
1021 
   CGEN_CPU_OPEN_END:     terminates arguments
1022 
 
1023 
   ??? Simultaneous multiple isas might not make sense, but it's not (yet)
1024 
   precluded.  */
1025 
 
1026 
CGEN_CPU_DESC
1027 
lm32_cgen_cpu_open (enum cgen_cpu_open_arg arg_type, ...)
1028 
{
1029 
  CGEN_CPU_TABLE *cd = (CGEN_CPU_TABLE *) xmalloc (sizeof (CGEN_CPU_TABLE));
1030 
  static int init_p;
1031 
  CGEN_BITSET *isas = 0;  /* 0 = "unspecified" */
1032 
  unsigned int machs = 0; /* 0 = "unspecified" */
1033 
  enum cgen_endian endian = CGEN_ENDIAN_UNKNOWN;
1034 
  va_list ap;
1035 
 
1036 
  if (! init_p)
1037 
    {
1038 
      init_tables ();
1039 
      init_p = 1;
1040 
    }
1041 
 
1042 
  memset (cd, 0, sizeof (*cd));
1043 
 
1044 
  va_start (ap, arg_type);
1045 
  while (arg_type != CGEN_CPU_OPEN_END)
1046 
    {
1047 
      switch (arg_type)
1048 
        {
1049 
        case CGEN_CPU_OPEN_ISAS :
1050 
          isas = va_arg (ap, CGEN_BITSET *);
1051 
          break;
1052 
        case CGEN_CPU_OPEN_MACHS :
1053 
          machs = va_arg (ap, unsigned int);
1054 
          break;
1055 
        case CGEN_CPU_OPEN_BFDMACH :
1056 
          {
1057 
            const char *name = va_arg (ap, const char *);
1058 
            const CGEN_MACH *mach =
1059 
              lookup_mach_via_bfd_name (lm32_cgen_mach_table, name);
1060 
 
1061 
            machs |= 1 << mach->num;
1062 
            break;
1063 
          }
1064 
        case CGEN_CPU_OPEN_ENDIAN :
1065 
          endian = va_arg (ap, enum cgen_endian);
1066 
          break;
1067 
        default :
1068 
          fprintf (stderr, "lm32_cgen_cpu_open: unsupported argument `%d'\n",
1069 
                   arg_type);
1070 
          abort (); /* ??? return NULL? */
1071 
        }
1072 
      arg_type = va_arg (ap, enum cgen_cpu_open_arg);
1073 
    }
1074 
  va_end (ap);
1075 
 
1076 
  /* Mach unspecified means "all".  */
1077 
  if (machs == 0)
1078 
    machs = (1 << MAX_MACHS) - 1;
1079 
  /* Base mach is always selected.  */
1080 
  machs |= 1;
1081 
  if (endian == CGEN_ENDIAN_UNKNOWN)
1082 
    {
1083 
      /* ??? If target has only one, could have a default.  */
1084 
      fprintf (stderr, "lm32_cgen_cpu_open: no endianness specified\n");
1085 
      abort ();
1086 
    }
1087 
 
1088 
  cd->isas = cgen_bitset_copy (isas);
1089 
  cd->machs = machs;
1090 
  cd->endian = endian;
1091 
  /* FIXME: for the sparc case we can determine insn-endianness statically.
1092 
     The worry here is where both data and insn endian can be independently
1093 
     chosen, in which case this function will need another argument.
1094 
     Actually, will want to allow for more arguments in the future anyway.  */
1095 
  cd->insn_endian = endian;
1096 
 
1097 
  /* Table (re)builder.  */
1098 
  cd->rebuild_tables = lm32_cgen_rebuild_tables;
1099 
  lm32_cgen_rebuild_tables (cd);
1100 
 
1101 
  /* Default to not allowing signed overflow.  */
1102 
  cd->signed_overflow_ok_p = 0;
1103 
 
1104 
  return (CGEN_CPU_DESC) cd;
1105 
}
1106 
 
1107 
/* Cover fn to lm32_cgen_cpu_open to handle the simple case of 1 isa, 1 mach.
1108 
   MACH_NAME is the bfd name of the mach.  */
1109 
 
1110 
CGEN_CPU_DESC
1111 
lm32_cgen_cpu_open_1 (const char *mach_name, enum cgen_endian endian)
1112 
{
1113 
  return lm32_cgen_cpu_open (CGEN_CPU_OPEN_BFDMACH, mach_name,
1114 
                               CGEN_CPU_OPEN_ENDIAN, endian,
1115 
                               CGEN_CPU_OPEN_END);
1116 
}
1117 
 
1118 
/* Close a cpu table.
1119 
   ??? This can live in a machine independent file, but there's currently
1120 
   no place to put this file (there's no libcgen).  libopcodes is the wrong
1121 
   place as some simulator ports use this but they don't use libopcodes.  */
1122 
 
1123 
void
1124 
lm32_cgen_cpu_close (CGEN_CPU_DESC cd)
1125 
{
1126 
  unsigned int i;
1127 
  const CGEN_INSN *insns;
1128 
 
1129 
  if (cd->macro_insn_table.init_entries)
1130 
    {
1131 
      insns = cd->macro_insn_table.init_entries;
1132 
      for (i = 0; i < cd->macro_insn_table.num_init_entries; ++i, ++insns)
1133 
        if (CGEN_INSN_RX ((insns)))
1134 
          regfree (CGEN_INSN_RX (insns));
1135 
    }
1136 
 
1137 
  if (cd->insn_table.init_entries)
1138 
    {
1139 
      insns = cd->insn_table.init_entries;
1140 
      for (i = 0; i < cd->insn_table.num_init_entries; ++i, ++insns)
1141 
        if (CGEN_INSN_RX (insns))
1142 
          regfree (CGEN_INSN_RX (insns));
1143 
    }
1144 
 
1145 
  if (cd->macro_insn_table.init_entries)
1146 
    free ((CGEN_INSN *) cd->macro_insn_table.init_entries);
1147 
 
1148 
  if (cd->insn_table.init_entries)
1149 
    free ((CGEN_INSN *) cd->insn_table.init_entries);
1150 
 
1151 
  if (cd->hw_table.entries)
1152 
    free ((CGEN_HW_ENTRY *) cd->hw_table.entries);
1153 
 
1154 
  if (cd->operand_table.entries)
1155 
    free ((CGEN_HW_ENTRY *) cd->operand_table.entries);
1156 
 
1157 
  free (cd);
1158 
}
1159 
 

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