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77c9c6c2 | 1 | /* Expand the basic unary and binary arithmetic operations, for GNU compiler. |
34e56753 | 2 | Copyright (C) 1987, 1988, 1992 Free Software Foundation, Inc. |
77c9c6c2 RK |
3 | |
4 | This file is part of GNU CC. | |
5 | ||
6 | GNU CC is free software; you can redistribute it and/or modify | |
7 | it under the terms of the GNU General Public License as published by | |
8 | the Free Software Foundation; either version 2, or (at your option) | |
9 | any later version. | |
10 | ||
11 | GNU CC is distributed in the hope that it will be useful, | |
12 | but WITHOUT ANY WARRANTY; without even the implied warranty of | |
13 | MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the | |
14 | GNU General Public License for more details. | |
15 | ||
16 | You should have received a copy of the GNU General Public License | |
17 | along with GNU CC; see the file COPYING. If not, write to | |
18 | the Free Software Foundation, 675 Mass Ave, Cambridge, MA 02139, USA. */ | |
19 | ||
20 | ||
21 | #include "config.h" | |
22 | #include "rtl.h" | |
23 | #include "tree.h" | |
24 | #include "flags.h" | |
25 | #include "insn-flags.h" | |
26 | #include "insn-codes.h" | |
27 | #include "expr.h" | |
28 | #include "insn-config.h" | |
29 | #include "recog.h" | |
30 | ||
31 | /* Each optab contains info on how this target machine | |
32 | can perform a particular operation | |
33 | for all sizes and kinds of operands. | |
34 | ||
35 | The operation to be performed is often specified | |
36 | by passing one of these optabs as an argument. | |
37 | ||
38 | See expr.h for documentation of these optabs. */ | |
39 | ||
40 | optab add_optab; | |
41 | optab sub_optab; | |
42 | optab smul_optab; | |
43 | optab smul_widen_optab; | |
44 | optab umul_widen_optab; | |
45 | optab sdiv_optab; | |
46 | optab sdivmod_optab; | |
47 | optab udiv_optab; | |
48 | optab udivmod_optab; | |
49 | optab smod_optab; | |
50 | optab umod_optab; | |
51 | optab flodiv_optab; | |
52 | optab ftrunc_optab; | |
53 | optab and_optab; | |
54 | optab ior_optab; | |
55 | optab xor_optab; | |
56 | optab ashl_optab; | |
57 | optab lshr_optab; | |
58 | optab lshl_optab; | |
59 | optab ashr_optab; | |
60 | optab rotl_optab; | |
61 | optab rotr_optab; | |
62 | optab smin_optab; | |
63 | optab smax_optab; | |
64 | optab umin_optab; | |
65 | optab umax_optab; | |
66 | ||
67 | optab mov_optab; | |
68 | optab movstrict_optab; | |
69 | ||
70 | optab neg_optab; | |
71 | optab abs_optab; | |
72 | optab one_cmpl_optab; | |
73 | optab ffs_optab; | |
74 | ||
75 | optab cmp_optab; | |
76 | optab ucmp_optab; /* Used only for libcalls for unsigned comparisons. */ | |
77 | optab tst_optab; | |
78 | ||
79 | /* SYMBOL_REF rtx's for the library functions that are called | |
80 | implicitly and not via optabs. */ | |
81 | ||
82 | rtx extendsfdf2_libfunc; | |
83 | rtx truncdfsf2_libfunc; | |
84 | rtx memcpy_libfunc; | |
85 | rtx bcopy_libfunc; | |
86 | rtx memcmp_libfunc; | |
87 | rtx bcmp_libfunc; | |
88 | rtx memset_libfunc; | |
89 | rtx bzero_libfunc; | |
90 | rtx eqsf2_libfunc; | |
91 | rtx nesf2_libfunc; | |
92 | rtx gtsf2_libfunc; | |
93 | rtx gesf2_libfunc; | |
94 | rtx ltsf2_libfunc; | |
95 | rtx lesf2_libfunc; | |
96 | rtx eqdf2_libfunc; | |
97 | rtx nedf2_libfunc; | |
98 | rtx gtdf2_libfunc; | |
99 | rtx gedf2_libfunc; | |
100 | rtx ltdf2_libfunc; | |
101 | rtx ledf2_libfunc; | |
6bce1b78 RK |
102 | rtx floatdisf_libfunc; |
103 | rtx floatsisf_libfunc; | |
104 | rtx floatdidf_libfunc; | |
105 | rtx floatsidf_libfunc; | |
106 | rtx fixsfsi_libfunc; | |
107 | rtx fixsfdi_libfunc; | |
108 | rtx fixdfsi_libfunc; | |
109 | rtx fixdfdi_libfunc; | |
110 | rtx fixunssfsi_libfunc; | |
111 | rtx fixunssfdi_libfunc; | |
112 | rtx fixunsdfsi_libfunc; | |
113 | rtx fixunsdfdi_libfunc; | |
77c9c6c2 RK |
114 | |
115 | /* Indexed by the rtx-code for a conditional (eg. EQ, LT,...) | |
116 | gives the gen_function to make a branch to test that condition. */ | |
117 | ||
118 | rtxfun bcc_gen_fctn[NUM_RTX_CODE]; | |
119 | ||
120 | /* Indexed by the rtx-code for a conditional (eg. EQ, LT,...) | |
121 | gives the insn code to make a store-condition insn | |
122 | to test that condition. */ | |
123 | ||
124 | enum insn_code setcc_gen_code[NUM_RTX_CODE]; | |
125 | ||
126 | static void emit_float_lib_cmp (); | |
127 | \f | |
128 | /* Add a REG_EQUAL note to the last insn in SEQ. TARGET is being set to | |
129 | the result of operation CODE applied to OP0 (and OP1 if it is a binary | |
130 | operation). | |
131 | ||
132 | If the last insn does not set TARGET, don't do anything, but return 1. | |
133 | ||
134 | If a previous insn sets TARGET and TARGET is one of OP0 or OP1, | |
135 | don't add the REG_EQUAL note but return 0. Our caller can then try | |
136 | again, ensuring that TARGET is not one of the operands. */ | |
137 | ||
138 | static int | |
139 | add_equal_note (seq, target, code, op0, op1) | |
140 | rtx seq; | |
141 | rtx target; | |
142 | enum rtx_code code; | |
143 | rtx op0, op1; | |
144 | { | |
145 | rtx set; | |
146 | int i; | |
147 | rtx note; | |
148 | ||
149 | if ((GET_RTX_CLASS (code) != '1' && GET_RTX_CLASS (code) != '2' | |
150 | && GET_RTX_CLASS (code) != 'c' && GET_RTX_CLASS (code) != '<') | |
151 | || GET_CODE (seq) != SEQUENCE | |
152 | || (set = single_set (XVECEXP (seq, 0, XVECLEN (seq, 0) - 1))) == 0 | |
153 | || GET_CODE (target) == ZERO_EXTRACT | |
154 | || (! rtx_equal_p (SET_DEST (set), target) | |
155 | /* For a STRICT_LOW_PART, the REG_NOTE applies to what is inside the | |
156 | SUBREG. */ | |
157 | && (GET_CODE (SET_DEST (set)) != STRICT_LOW_PART | |
158 | || ! rtx_equal_p (SUBREG_REG (XEXP (SET_DEST (set), 0)), | |
159 | target)))) | |
160 | return 1; | |
161 | ||
162 | /* If TARGET is in OP0 or OP1, check if anything in SEQ sets TARGET | |
163 | besides the last insn. */ | |
164 | if (reg_overlap_mentioned_p (target, op0) | |
165 | || (op1 && reg_overlap_mentioned_p (target, op1))) | |
166 | for (i = XVECLEN (seq, 0) - 2; i >= 0; i--) | |
167 | if (reg_set_p (target, XVECEXP (seq, 0, i))) | |
168 | return 0; | |
169 | ||
170 | if (GET_RTX_CLASS (code) == '1') | |
171 | note = gen_rtx (code, GET_MODE (target), op0); | |
172 | else | |
173 | note = gen_rtx (code, GET_MODE (target), op0, op1); | |
174 | ||
175 | REG_NOTES (XVECEXP (seq, 0, XVECLEN (seq, 0) - 1)) | |
176 | = gen_rtx (EXPR_LIST, REG_EQUAL, note, | |
177 | REG_NOTES (XVECEXP (seq, 0, XVECLEN (seq, 0) - 1))); | |
178 | ||
179 | return 1; | |
180 | } | |
181 | \f | |
182 | /* Generate code to perform an operation specified by BINOPTAB | |
183 | on operands OP0 and OP1, with result having machine-mode MODE. | |
184 | ||
185 | UNSIGNEDP is for the case where we have to widen the operands | |
186 | to perform the operation. It says to use zero-extension. | |
187 | ||
188 | If TARGET is nonzero, the value | |
189 | is generated there, if it is convenient to do so. | |
190 | In all cases an rtx is returned for the locus of the value; | |
191 | this may or may not be TARGET. */ | |
192 | ||
193 | rtx | |
194 | expand_binop (mode, binoptab, op0, op1, target, unsignedp, methods) | |
195 | enum machine_mode mode; | |
196 | optab binoptab; | |
197 | rtx op0, op1; | |
198 | rtx target; | |
199 | int unsignedp; | |
200 | enum optab_methods methods; | |
201 | { | |
202 | enum mode_class class; | |
203 | enum machine_mode wider_mode; | |
77c9c6c2 RK |
204 | register rtx temp; |
205 | int commutative_op = 0; | |
206 | int shift_op = (binoptab->code == ASHIFT | |
207 | || binoptab->code == ASHIFTRT | |
208 | || binoptab->code == LSHIFT | |
209 | || binoptab->code == LSHIFTRT | |
210 | || binoptab->code == ROTATE | |
211 | || binoptab->code == ROTATERT); | |
212 | rtx last; | |
213 | ||
214 | class = GET_MODE_CLASS (mode); | |
215 | ||
216 | op0 = protect_from_queue (op0, 0); | |
217 | op1 = protect_from_queue (op1, 0); | |
218 | if (target) | |
219 | target = protect_from_queue (target, 1); | |
220 | ||
221 | if (flag_force_mem) | |
222 | { | |
223 | op0 = force_not_mem (op0); | |
224 | op1 = force_not_mem (op1); | |
225 | } | |
226 | ||
227 | /* If we are inside an appropriately-short loop and one operand is an | |
228 | expensive constant, force it into a register. */ | |
229 | if (CONSTANT_P (op0) && preserve_subexpressions_p () && rtx_cost (op0) > 2) | |
230 | op0 = force_reg (mode, op0); | |
231 | ||
232 | if (CONSTANT_P (op1) && preserve_subexpressions_p () && rtx_cost (op1) > 2) | |
34e56753 | 233 | op1 = force_reg (shift_op ? word_mode : mode, op1); |
77c9c6c2 RK |
234 | |
235 | #if 0 /* Turned off because it seems to be a kludgy method. */ | |
236 | /* If subtracting integer from pointer, and the pointer has a special mode, | |
237 | then change it to an add. We use the add insn of Pmode for combining | |
238 | integers with pointers, and the sub insn to subtract two pointers. */ | |
239 | ||
240 | if (binoptab == sub_optab | |
241 | && GET_MODE (op0) == Pmode && GET_MODE (op1) != Pmode) | |
242 | { | |
243 | op1 = negate_rtx (GET_MODE(op1), op1); | |
244 | binoptab = add_optab; | |
245 | } | |
246 | #endif /* 0 */ | |
247 | ||
248 | /* Record where to delete back to if we backtrack. */ | |
249 | last = get_last_insn (); | |
250 | ||
251 | /* If operation is commutative, | |
252 | try to make the first operand a register. | |
253 | Even better, try to make it the same as the target. | |
254 | Also try to make the last operand a constant. */ | |
255 | if (GET_RTX_CLASS (binoptab->code) == 'c' | |
256 | || binoptab == smul_widen_optab | |
257 | || binoptab == umul_widen_optab) | |
258 | { | |
259 | commutative_op = 1; | |
260 | ||
261 | if (((target == 0 || GET_CODE (target) == REG) | |
262 | ? ((GET_CODE (op1) == REG | |
263 | && GET_CODE (op0) != REG) | |
264 | || target == op1) | |
265 | : rtx_equal_p (op1, target)) | |
266 | || GET_CODE (op0) == CONST_INT) | |
267 | { | |
268 | temp = op1; | |
269 | op1 = op0; | |
270 | op0 = temp; | |
271 | } | |
272 | } | |
273 | ||
274 | /* If we can do it with a three-operand insn, do so. */ | |
275 | ||
276 | if (methods != OPTAB_MUST_WIDEN | |
277 | && binoptab->handlers[(int) mode].insn_code != CODE_FOR_nothing) | |
278 | { | |
279 | int icode = (int) binoptab->handlers[(int) mode].insn_code; | |
280 | enum machine_mode mode0 = insn_operand_mode[icode][1]; | |
281 | enum machine_mode mode1 = insn_operand_mode[icode][2]; | |
282 | rtx pat; | |
283 | rtx xop0 = op0, xop1 = op1; | |
284 | ||
285 | if (target) | |
286 | temp = target; | |
287 | else | |
288 | temp = gen_reg_rtx (mode); | |
289 | ||
290 | /* If it is a commutative operator and the modes would match | |
291 | if we would swap the operands, we can save the conversions. */ | |
292 | if (commutative_op) | |
293 | { | |
294 | if (GET_MODE (op0) != mode0 && GET_MODE (op1) != mode1 | |
295 | && GET_MODE (op0) == mode1 && GET_MODE (op1) == mode0) | |
296 | { | |
297 | register rtx tmp; | |
298 | ||
299 | tmp = op0; op0 = op1; op1 = tmp; | |
300 | tmp = xop0; xop0 = xop1; xop1 = tmp; | |
301 | } | |
302 | } | |
303 | ||
304 | /* In case the insn wants input operands in modes different from | |
305 | the result, convert the operands. */ | |
306 | ||
307 | if (GET_MODE (op0) != VOIDmode | |
308 | && GET_MODE (op0) != mode0) | |
309 | xop0 = convert_to_mode (mode0, xop0, unsignedp); | |
310 | ||
311 | if (GET_MODE (xop1) != VOIDmode | |
312 | && GET_MODE (xop1) != mode1) | |
313 | xop1 = convert_to_mode (mode1, xop1, unsignedp); | |
314 | ||
315 | /* Now, if insn's predicates don't allow our operands, put them into | |
316 | pseudo regs. */ | |
317 | ||
318 | if (! (*insn_operand_predicate[icode][1]) (xop0, mode0)) | |
319 | xop0 = copy_to_mode_reg (mode0, xop0); | |
320 | ||
321 | if (! (*insn_operand_predicate[icode][2]) (xop1, mode1)) | |
322 | xop1 = copy_to_mode_reg (mode1, xop1); | |
323 | ||
324 | if (! (*insn_operand_predicate[icode][0]) (temp, mode)) | |
325 | temp = gen_reg_rtx (mode); | |
326 | ||
327 | pat = GEN_FCN (icode) (temp, xop0, xop1); | |
328 | if (pat) | |
329 | { | |
330 | /* If PAT is a multi-insn sequence, try to add an appropriate | |
331 | REG_EQUAL note to it. If we can't because TEMP conflicts with an | |
332 | operand, call ourselves again, this time without a target. */ | |
333 | if (GET_CODE (pat) == SEQUENCE | |
334 | && ! add_equal_note (pat, temp, binoptab->code, xop0, xop1)) | |
335 | { | |
336 | delete_insns_since (last); | |
337 | return expand_binop (mode, binoptab, op0, op1, 0, unsignedp, | |
338 | methods); | |
339 | } | |
340 | ||
341 | emit_insn (pat); | |
342 | return temp; | |
343 | } | |
344 | else | |
345 | delete_insns_since (last); | |
346 | } | |
347 | ||
348 | /* These can be done a word at a time. */ | |
349 | if ((binoptab == and_optab || binoptab == ior_optab || binoptab == xor_optab) | |
350 | && class == MODE_INT | |
351 | && GET_MODE_SIZE (mode) > UNITS_PER_WORD | |
34e56753 | 352 | && binoptab->handlers[(int) word_mode].insn_code != CODE_FOR_nothing) |
77c9c6c2 RK |
353 | { |
354 | int i; | |
355 | rtx insns; | |
356 | rtx equiv_value; | |
357 | ||
358 | /* If TARGET is the same as one of the operands, the REG_EQUAL note | |
359 | won't be accurate, so use a new target. */ | |
360 | if (target == 0 || target == op0 || target == op1) | |
361 | target = gen_reg_rtx (mode); | |
362 | ||
363 | start_sequence (); | |
364 | ||
365 | /* Do the actual arithmetic. */ | |
366 | for (i = 0; i < GET_MODE_BITSIZE (mode) / BITS_PER_WORD; i++) | |
367 | { | |
368 | rtx target_piece = operand_subword (target, i, 1, mode); | |
34e56753 | 369 | rtx x = expand_binop (word_mode, binoptab, |
77c9c6c2 RK |
370 | operand_subword_force (op0, i, mode), |
371 | operand_subword_force (op1, i, mode), | |
372 | target_piece, unsignedp, methods); | |
373 | if (target_piece != x) | |
374 | emit_move_insn (target_piece, x); | |
375 | } | |
376 | ||
377 | insns = get_insns (); | |
378 | end_sequence (); | |
379 | ||
380 | if (binoptab->code != UNKNOWN) | |
381 | equiv_value = gen_rtx (binoptab->code, mode, op0, op1); | |
382 | else | |
383 | equiv_value = 0; | |
384 | ||
385 | emit_no_conflict_block (insns, target, op0, op1, equiv_value); | |
386 | return target; | |
387 | } | |
388 | ||
389 | /* These can be done a word at a time by propagating carries. */ | |
390 | if ((binoptab == add_optab || binoptab == sub_optab) | |
391 | && class == MODE_INT | |
392 | && GET_MODE_SIZE (mode) >= 2 * UNITS_PER_WORD | |
34e56753 | 393 | && binoptab->handlers[(int) word_mode].insn_code != CODE_FOR_nothing) |
77c9c6c2 RK |
394 | { |
395 | int i; | |
34e56753 | 396 | rtx carry_tmp = gen_reg_rtx (word_mode); |
77c9c6c2 RK |
397 | optab otheroptab = binoptab == add_optab ? sub_optab : add_optab; |
398 | int nwords = GET_MODE_BITSIZE (mode) / BITS_PER_WORD; | |
399 | rtx carry_in, carry_out; | |
400 | ||
401 | /* We can handle either a 1 or -1 value for the carry. If STORE_FLAG | |
402 | value is one of those, use it. Otherwise, use 1 since it is the | |
403 | one easiest to get. */ | |
404 | #if STORE_FLAG_VALUE == 1 || STORE_FLAG_VALUE == -1 | |
405 | int normalizep = STORE_FLAG_VALUE; | |
406 | #else | |
407 | int normalizep = 1; | |
408 | #endif | |
409 | ||
410 | /* Prepare the operands. */ | |
411 | op0 = force_reg (mode, op0); | |
412 | op1 = force_reg (mode, op1); | |
413 | ||
414 | if (target == 0 || GET_CODE (target) != REG | |
415 | || target == op0 || target == op1) | |
416 | target = gen_reg_rtx (mode); | |
417 | ||
418 | /* Do the actual arithmetic. */ | |
419 | for (i = 0; i < nwords; i++) | |
420 | { | |
421 | int index = (WORDS_BIG_ENDIAN ? nwords - i - 1 : i); | |
422 | rtx target_piece = operand_subword (target, index, 1, mode); | |
423 | rtx op0_piece = operand_subword_force (op0, index, mode); | |
424 | rtx op1_piece = operand_subword_force (op1, index, mode); | |
425 | rtx x; | |
426 | ||
427 | /* Main add/subtract of the input operands. */ | |
34e56753 | 428 | x = expand_binop (word_mode, binoptab, |
77c9c6c2 RK |
429 | op0_piece, op1_piece, |
430 | target_piece, unsignedp, methods); | |
431 | if (x == 0) | |
432 | break; | |
433 | ||
434 | if (i + 1 < nwords) | |
435 | { | |
436 | /* Store carry from main add/subtract. */ | |
34e56753 | 437 | carry_out = gen_reg_rtx (word_mode); |
77c9c6c2 RK |
438 | carry_out = emit_store_flag (carry_out, |
439 | binoptab == add_optab ? LTU : GTU, | |
440 | x, op0_piece, | |
34e56753 | 441 | word_mode, 1, normalizep); |
77c9c6c2 RK |
442 | if (!carry_out) |
443 | break; | |
444 | } | |
445 | ||
446 | if (i > 0) | |
447 | { | |
448 | /* Add/subtract previous carry to main result. */ | |
34e56753 | 449 | x = expand_binop (word_mode, |
77c9c6c2 RK |
450 | normalizep == 1 ? binoptab : otheroptab, |
451 | x, carry_in, | |
452 | target_piece, 1, methods); | |
453 | if (target_piece != x) | |
454 | emit_move_insn (target_piece, x); | |
455 | ||
456 | if (i + 1 < nwords) | |
457 | { | |
458 | /* THIS CODE HAS NOT BEEN TESTED. */ | |
459 | /* Get out carry from adding/subtracting carry in. */ | |
460 | carry_tmp = emit_store_flag (carry_tmp, | |
461 | binoptab == add_optab | |
462 | ? LTU : GTU, | |
463 | x, carry_in, | |
34e56753 | 464 | word_mode, 1, normalizep); |
77c9c6c2 | 465 | /* Logical-ior the two poss. carry together. */ |
34e56753 | 466 | carry_out = expand_binop (word_mode, ior_optab, |
77c9c6c2 RK |
467 | carry_out, carry_tmp, |
468 | carry_out, 0, methods); | |
469 | if (!carry_out) | |
470 | break; | |
471 | } | |
472 | } | |
473 | ||
474 | carry_in = carry_out; | |
475 | } | |
476 | ||
477 | if (i == GET_MODE_BITSIZE (mode) / BITS_PER_WORD) | |
478 | { | |
479 | rtx temp; | |
480 | ||
481 | temp = emit_move_insn (target, target); | |
482 | REG_NOTES (temp) = gen_rtx (EXPR_LIST, REG_EQUAL, | |
483 | gen_rtx (binoptab->code, mode, op0, op1), | |
484 | REG_NOTES (temp)); | |
485 | return target; | |
486 | } | |
487 | else | |
488 | delete_insns_since (last); | |
489 | } | |
490 | ||
491 | /* If we want to multiply two two-word values and have normal and widening | |
492 | multiplies of single-word values, we can do this with three smaller | |
493 | multiplications. Note that we do not make a REG_NO_CONFLICT block here | |
494 | because we are not operating on one word at a time. | |
495 | ||
496 | The multiplication proceeds as follows: | |
34e56753 RS |
497 | _______________________ |
498 | [__op0_high_|__op0_low__] | |
499 | _______________________ | |
500 | * [__op1_high_|__op1_low__] | |
501 | _______________________________________________ | |
502 | _______________________ | |
503 | (1) [__op0_low__*__op1_low__] | |
504 | _______________________ | |
505 | (2a) [__op0_low__*__op1_high_] | |
506 | _______________________ | |
507 | (2b) [__op0_high_*__op1_low__] | |
508 | _______________________ | |
509 | (3) [__op0_high_*__op1_high_] | |
77c9c6c2 RK |
510 | |
511 | ||
512 | This gives a 4-word result. Since we are only interested in the | |
513 | lower 2 words, partial result (3) and the upper words of (2a) and | |
514 | (2b) don't need to be calculated. Hence (2a) and (2b) can be | |
515 | calculated using non-widening multiplication. | |
516 | ||
517 | (1), however, needs to be calculated with an unsigned widening | |
518 | multiplication. If this operation is not directly supported we | |
519 | try using a signed widening multiplication and adjust the result. | |
520 | This adjustment works as follows: | |
521 | ||
522 | If both operands are positive then no adjustment is needed. | |
523 | ||
524 | If the operands have different signs, for example op0_low < 0 and | |
525 | op1_low >= 0, the instruction treats the most significant bit of | |
526 | op0_low as a sign bit instead of a bit with significance | |
527 | 2**(BITS_PER_WORD-1), i.e. the instruction multiplies op1_low | |
528 | with 2**BITS_PER_WORD - op0_low, and two's complements the | |
529 | result. Conclusion: We need to add op1_low * 2**BITS_PER_WORD to | |
530 | the result. | |
531 | ||
532 | Similarly, if both operands are negative, we need to add | |
533 | (op0_low + op1_low) * 2**BITS_PER_WORD. | |
534 | ||
535 | We use a trick to adjust quickly. We logically shift op0_low right | |
536 | (op1_low) BITS_PER_WORD-1 steps to get 0 or 1, and add this to | |
537 | op0_high (op1_high) before it is used to calculate 2b (2a). If no | |
538 | logical shift exists, we do an arithmetic right shift and subtract | |
539 | the 0 or -1. */ | |
540 | ||
541 | if (binoptab == smul_optab | |
542 | && class == MODE_INT | |
543 | && GET_MODE_SIZE (mode) == 2 * UNITS_PER_WORD | |
34e56753 RS |
544 | && smul_optab->handlers[(int) word_mode].insn_code != CODE_FOR_nothing |
545 | && add_optab->handlers[(int) word_mode].insn_code != CODE_FOR_nothing | |
77c9c6c2 RK |
546 | && ((umul_widen_optab->handlers[(int) mode].insn_code |
547 | != CODE_FOR_nothing) | |
548 | || (smul_widen_optab->handlers[(int) mode].insn_code | |
549 | != CODE_FOR_nothing))) | |
550 | { | |
551 | int low = (WORDS_BIG_ENDIAN ? 1 : 0); | |
552 | int high = (WORDS_BIG_ENDIAN ? 0 : 1); | |
553 | rtx op0_high = operand_subword_force (op0, high, mode); | |
554 | rtx op0_low = operand_subword_force (op0, low, mode); | |
555 | rtx op1_high = operand_subword_force (op1, high, mode); | |
556 | rtx op1_low = operand_subword_force (op1, low, mode); | |
557 | rtx product = 0; | |
558 | rtx op0_xhigh; | |
559 | rtx op1_xhigh; | |
560 | ||
561 | /* If the target is the same as one of the inputs, don't use it. This | |
562 | prevents problems with the REG_EQUAL note. */ | |
563 | if (target == op0 || target == op1) | |
564 | target = 0; | |
565 | ||
566 | /* Multiply the two lower words to get a double-word product. | |
567 | If unsigned widening multiplication is available, use that; | |
568 | otherwise use the signed form and compensate. */ | |
569 | ||
570 | if (umul_widen_optab->handlers[(int) mode].insn_code != CODE_FOR_nothing) | |
571 | { | |
572 | product = expand_binop (mode, umul_widen_optab, op0_low, op1_low, | |
573 | target, 1, OPTAB_DIRECT); | |
574 | ||
575 | /* If we didn't succeed, delete everything we did so far. */ | |
576 | if (product == 0) | |
577 | delete_insns_since (last); | |
578 | else | |
579 | op0_xhigh = op0_high, op1_xhigh = op1_high; | |
580 | } | |
581 | ||
582 | if (product == 0 | |
583 | && smul_widen_optab->handlers[(int) mode].insn_code | |
584 | != CODE_FOR_nothing) | |
585 | { | |
586 | rtx wordm1 = gen_rtx (CONST_INT, VOIDmode, BITS_PER_WORD - 1); | |
587 | product = expand_binop (mode, smul_widen_optab, op0_low, op1_low, | |
588 | target, 1, OPTAB_DIRECT); | |
34e56753 | 589 | op0_xhigh = expand_binop (word_mode, lshr_optab, op0_low, wordm1, |
77c9c6c2 RK |
590 | 0, 1, OPTAB_DIRECT); |
591 | if (op0_xhigh) | |
34e56753 RS |
592 | op0_xhigh = expand_binop (word_mode, add_optab, op0_high, |
593 | op0_xhigh, op0_xhigh, 0, OPTAB_DIRECT); | |
77c9c6c2 RK |
594 | else |
595 | { | |
34e56753 | 596 | op0_xhigh = expand_binop (word_mode, ashr_optab, op0_low, wordm1, |
77c9c6c2 RK |
597 | 0, 0, OPTAB_DIRECT); |
598 | if (op0_xhigh) | |
34e56753 | 599 | op0_xhigh = expand_binop (word_mode, sub_optab, op0_high, |
77c9c6c2 RK |
600 | op0_xhigh, op0_xhigh, 0, |
601 | OPTAB_DIRECT); | |
602 | } | |
603 | ||
34e56753 | 604 | op1_xhigh = expand_binop (word_mode, lshr_optab, op1_low, wordm1, |
77c9c6c2 RK |
605 | 0, 1, OPTAB_DIRECT); |
606 | if (op1_xhigh) | |
34e56753 RS |
607 | op1_xhigh = expand_binop (word_mode, add_optab, op1_high, |
608 | op1_xhigh, op1_xhigh, 0, OPTAB_DIRECT); | |
77c9c6c2 RK |
609 | else |
610 | { | |
34e56753 | 611 | op1_xhigh = expand_binop (word_mode, ashr_optab, op1_low, wordm1, |
77c9c6c2 RK |
612 | 0, 0, OPTAB_DIRECT); |
613 | if (op1_xhigh) | |
34e56753 | 614 | op1_xhigh = expand_binop (word_mode, sub_optab, op1_high, |
77c9c6c2 RK |
615 | op1_xhigh, op1_xhigh, 0, |
616 | OPTAB_DIRECT); | |
617 | } | |
618 | } | |
619 | ||
620 | /* If we have been able to directly compute the product of the | |
621 | low-order words of the operands and perform any required adjustments | |
622 | of the operands, we proceed by trying two more multiplications | |
623 | and then computing the appropriate sum. | |
624 | ||
625 | We have checked above that the required addition is provided. | |
626 | Full-word addition will normally always succeed, especially if | |
627 | it is provided at all, so we don't worry about its failure. The | |
628 | multiplication may well fail, however, so we do handle that. */ | |
629 | ||
630 | if (product && op0_xhigh && op1_xhigh) | |
631 | { | |
632 | rtx product_piece; | |
633 | rtx product_high = operand_subword (product, high, 1, mode); | |
34e56753 | 634 | rtx temp = expand_binop (word_mode, binoptab, op0_low, op1_xhigh, 0, |
77c9c6c2 RK |
635 | 0, OPTAB_DIRECT); |
636 | ||
637 | if (temp) | |
638 | { | |
34e56753 | 639 | product_piece = expand_binop (word_mode, add_optab, temp, |
77c9c6c2 RK |
640 | product_high, product_high, |
641 | 0, OPTAB_LIB_WIDEN); | |
642 | if (product_piece != product_high) | |
643 | emit_move_insn (product_high, product_piece); | |
644 | ||
34e56753 | 645 | temp = expand_binop (word_mode, binoptab, op1_low, op0_xhigh, 0, |
77c9c6c2 RK |
646 | 0, OPTAB_DIRECT); |
647 | ||
34e56753 | 648 | product_piece = expand_binop (word_mode, add_optab, temp, |
77c9c6c2 RK |
649 | product_high, product_high, |
650 | 0, OPTAB_LIB_WIDEN); | |
651 | if (product_piece != product_high) | |
652 | emit_move_insn (product_high, product_piece); | |
653 | ||
654 | temp = emit_move_insn (product, product); | |
655 | REG_NOTES (temp) = gen_rtx (EXPR_LIST, REG_EQUAL, | |
656 | gen_rtx (MULT, mode, op0, op1), | |
657 | REG_NOTES (temp)); | |
658 | ||
659 | return product; | |
660 | } | |
661 | } | |
662 | ||
663 | /* If we get here, we couldn't do it for some reason even though we | |
664 | originally thought we could. Delete anything we've emitted in | |
665 | trying to do it. */ | |
666 | ||
667 | delete_insns_since (last); | |
668 | } | |
669 | ||
670 | /* It can't be open-coded in this mode. | |
671 | Use a library call if one is available and caller says that's ok. */ | |
672 | ||
673 | if (binoptab->handlers[(int) mode].libfunc | |
674 | && (methods == OPTAB_LIB || methods == OPTAB_LIB_WIDEN)) | |
675 | { | |
676 | rtx insns; | |
677 | rtx funexp = binoptab->handlers[(int) mode].libfunc; | |
678 | ||
679 | start_sequence (); | |
680 | ||
681 | /* Pass 1 for NO_QUEUE so we don't lose any increments | |
682 | if the libcall is cse'd or moved. */ | |
683 | emit_library_call (binoptab->handlers[(int) mode].libfunc, | |
684 | 1, mode, 2, op0, mode, op1, | |
34e56753 | 685 | (shift_op ? word_mode : mode)); |
77c9c6c2 RK |
686 | |
687 | insns = get_insns (); | |
688 | end_sequence (); | |
689 | ||
690 | target = gen_reg_rtx (mode); | |
691 | emit_libcall_block (insns, target, hard_libcall_value (mode), | |
692 | gen_rtx (binoptab->code, mode, op0, op1)); | |
693 | ||
694 | return target; | |
695 | } | |
696 | ||
697 | delete_insns_since (last); | |
698 | ||
699 | /* It can't be done in this mode. Can we do it in a wider mode? */ | |
700 | ||
701 | if (! (methods == OPTAB_WIDEN || methods == OPTAB_LIB_WIDEN | |
702 | || methods == OPTAB_MUST_WIDEN)) | |
703 | return 0; /* Caller says, don't even try. */ | |
704 | ||
705 | /* Compute the value of METHODS to pass to recursive calls. | |
706 | Don't allow widening to be tried recursively. */ | |
707 | ||
708 | methods = (methods == OPTAB_LIB_WIDEN ? OPTAB_LIB : OPTAB_DIRECT); | |
709 | ||
34e56753 RS |
710 | /* Look for a wider mode of the same class for which it appears we can do |
711 | the operation. */ | |
77c9c6c2 RK |
712 | |
713 | if (class == MODE_INT || class == MODE_FLOAT || class == MODE_COMPLEX_FLOAT) | |
714 | { | |
34e56753 | 715 | for (wider_mode = GET_MODE_WIDER_MODE (mode); wider_mode != VOIDmode; |
77c9c6c2 RK |
716 | wider_mode = GET_MODE_WIDER_MODE (wider_mode)) |
717 | { | |
718 | if ((binoptab->handlers[(int) wider_mode].insn_code | |
719 | != CODE_FOR_nothing) | |
720 | || (methods == OPTAB_LIB | |
721 | && binoptab->handlers[(int) wider_mode].libfunc)) | |
722 | { | |
723 | rtx xop0 = op0, xop1 = op1; | |
724 | int no_extend = 0; | |
725 | ||
34e56753 | 726 | /* For certain integer operations, we need not actually extend |
77c9c6c2 RK |
727 | the narrow operands, as long as we will truncate |
728 | the results to the same narrowness. */ | |
729 | ||
34e56753 RS |
730 | if ((binoptab == ior_optab || binoptab == and_optab |
731 | || binoptab == xor_optab | |
732 | || binoptab == add_optab || binoptab == sub_optab | |
733 | || binoptab == smul_optab | |
734 | || binoptab == ashl_optab || binoptab == lshl_optab) | |
735 | && class == MODE_INT) | |
77c9c6c2 RK |
736 | no_extend = 1; |
737 | ||
34e56753 RS |
738 | /* If an operand is a constant integer, we might as well |
739 | convert it since that is more efficient than using a SUBREG, | |
740 | unlike the case for other operands. */ | |
741 | ||
742 | if (no_extend && GET_MODE (xop0) != VOIDmode) | |
743 | xop0 = gen_rtx (SUBREG, wider_mode, | |
744 | force_reg (GET_MODE (xop0), xop0), 0); | |
745 | else | |
746 | xop0 = convert_to_mode (wider_mode, xop0, unsignedp); | |
747 | ||
748 | if (no_extend && GET_MODE (xop1) != VOIDmode) | |
749 | xop1 = gen_rtx (SUBREG, wider_mode, | |
750 | force_reg (GET_MODE (xop1), xop1), 0); | |
751 | else | |
752 | xop1 = convert_to_mode (wider_mode, xop1, unsignedp); | |
77c9c6c2 RK |
753 | |
754 | temp = expand_binop (wider_mode, binoptab, xop0, xop1, 0, | |
755 | unsignedp, methods); | |
756 | if (temp) | |
757 | { | |
34e56753 | 758 | if (class != MODE_INT) |
77c9c6c2 RK |
759 | { |
760 | if (target == 0) | |
761 | target = gen_reg_rtx (mode); | |
762 | convert_move (target, temp, 0); | |
763 | return target; | |
764 | } | |
765 | else | |
766 | return gen_lowpart (mode, temp); | |
767 | } | |
768 | else | |
769 | delete_insns_since (last); | |
770 | } | |
771 | } | |
772 | } | |
773 | ||
774 | return 0; | |
775 | } | |
776 | \f | |
777 | /* Expand a binary operator which has both signed and unsigned forms. | |
778 | UOPTAB is the optab for unsigned operations, and SOPTAB is for | |
779 | signed operations. | |
780 | ||
781 | If we widen unsigned operands, we may use a signed wider operation instead | |
782 | of an unsigned wider operation, since the result would be the same. */ | |
783 | ||
784 | rtx | |
785 | sign_expand_binop (mode, uoptab, soptab, op0, op1, target, unsignedp, methods) | |
786 | enum machine_mode mode; | |
787 | optab uoptab, soptab; | |
788 | rtx op0, op1, target; | |
789 | int unsignedp; | |
790 | enum optab_methods methods; | |
791 | { | |
792 | register rtx temp; | |
793 | optab direct_optab = unsignedp ? uoptab : soptab; | |
794 | struct optab wide_soptab; | |
795 | ||
796 | /* Do it without widening, if possible. */ | |
797 | temp = expand_binop (mode, direct_optab, op0, op1, target, | |
798 | unsignedp, OPTAB_DIRECT); | |
799 | if (temp || methods == OPTAB_DIRECT) | |
800 | return temp; | |
801 | ||
802 | /* Try widening to a signed int. Make a fake signed optab that | |
803 | hides any signed insn for direct use. */ | |
804 | wide_soptab = *soptab; | |
805 | wide_soptab.handlers[(int) mode].insn_code = CODE_FOR_nothing; | |
806 | wide_soptab.handlers[(int) mode].libfunc = 0; | |
807 | ||
808 | temp = expand_binop (mode, &wide_soptab, op0, op1, target, | |
809 | unsignedp, OPTAB_WIDEN); | |
810 | ||
811 | /* For unsigned operands, try widening to an unsigned int. */ | |
812 | if (temp == 0 && unsignedp) | |
813 | temp = expand_binop (mode, uoptab, op0, op1, target, | |
814 | unsignedp, OPTAB_WIDEN); | |
815 | if (temp || methods == OPTAB_WIDEN) | |
816 | return temp; | |
817 | ||
818 | /* Use the right width lib call if that exists. */ | |
819 | temp = expand_binop (mode, direct_optab, op0, op1, target, unsignedp, OPTAB_LIB); | |
820 | if (temp || methods == OPTAB_LIB) | |
821 | return temp; | |
822 | ||
823 | /* Must widen and use a lib call, use either signed or unsigned. */ | |
824 | temp = expand_binop (mode, &wide_soptab, op0, op1, target, | |
825 | unsignedp, methods); | |
826 | if (temp != 0) | |
827 | return temp; | |
828 | if (unsignedp) | |
829 | return expand_binop (mode, uoptab, op0, op1, target, | |
830 | unsignedp, methods); | |
831 | return 0; | |
832 | } | |
833 | \f | |
834 | /* Generate code to perform an operation specified by BINOPTAB | |
835 | on operands OP0 and OP1, with two results to TARG1 and TARG2. | |
836 | We assume that the order of the operands for the instruction | |
837 | is TARG0, OP0, OP1, TARG1, which would fit a pattern like | |
838 | [(set TARG0 (operate OP0 OP1)) (set TARG1 (operate ...))]. | |
839 | ||
840 | Either TARG0 or TARG1 may be zero, but what that means is that | |
841 | that result is not actually wanted. We will generate it into | |
842 | a dummy pseudo-reg and discard it. They may not both be zero. | |
843 | ||
844 | Returns 1 if this operation can be performed; 0 if not. */ | |
845 | ||
846 | int | |
847 | expand_twoval_binop (binoptab, op0, op1, targ0, targ1, unsignedp) | |
848 | optab binoptab; | |
849 | rtx op0, op1; | |
850 | rtx targ0, targ1; | |
851 | int unsignedp; | |
852 | { | |
853 | enum machine_mode mode = GET_MODE (targ0 ? targ0 : targ1); | |
854 | enum mode_class class; | |
855 | enum machine_mode wider_mode; | |
856 | rtx last; | |
857 | ||
858 | class = GET_MODE_CLASS (mode); | |
859 | ||
860 | op0 = protect_from_queue (op0, 0); | |
861 | op1 = protect_from_queue (op1, 0); | |
862 | ||
863 | if (flag_force_mem) | |
864 | { | |
865 | op0 = force_not_mem (op0); | |
866 | op1 = force_not_mem (op1); | |
867 | } | |
868 | ||
869 | /* If we are inside an appropriately-short loop and one operand is an | |
870 | expensive constant, force it into a register. */ | |
871 | if (CONSTANT_P (op0) && preserve_subexpressions_p () && rtx_cost (op0) > 2) | |
872 | op0 = force_reg (mode, op0); | |
873 | ||
874 | if (CONSTANT_P (op1) && preserve_subexpressions_p () && rtx_cost (op1) > 2) | |
875 | op1 = force_reg (mode, op1); | |
876 | ||
877 | if (targ0) | |
878 | targ0 = protect_from_queue (targ0, 1); | |
879 | else | |
880 | targ0 = gen_reg_rtx (mode); | |
881 | if (targ1) | |
882 | targ1 = protect_from_queue (targ1, 1); | |
883 | else | |
884 | targ1 = gen_reg_rtx (mode); | |
885 | ||
886 | /* Record where to go back to if we fail. */ | |
887 | last = get_last_insn (); | |
888 | ||
889 | if (binoptab->handlers[(int) mode].insn_code != CODE_FOR_nothing) | |
890 | { | |
891 | int icode = (int) binoptab->handlers[(int) mode].insn_code; | |
892 | enum machine_mode mode0 = insn_operand_mode[icode][1]; | |
893 | enum machine_mode mode1 = insn_operand_mode[icode][2]; | |
894 | rtx pat; | |
895 | rtx xop0 = op0, xop1 = op1; | |
896 | ||
897 | /* In case this insn wants input operands in modes different from the | |
898 | result, convert the operands. */ | |
899 | if (GET_MODE (op0) != VOIDmode && GET_MODE (op0) != mode0) | |
900 | xop0 = convert_to_mode (mode0, xop0, unsignedp); | |
901 | ||
902 | if (GET_MODE (op1) != VOIDmode && GET_MODE (op1) != mode1) | |
903 | xop1 = convert_to_mode (mode1, xop1, unsignedp); | |
904 | ||
905 | /* Now, if insn doesn't accept these operands, put them into pseudos. */ | |
906 | if (! (*insn_operand_predicate[icode][1]) (xop0, mode0)) | |
907 | xop0 = copy_to_mode_reg (mode0, xop0); | |
908 | ||
909 | if (! (*insn_operand_predicate[icode][2]) (xop1, mode1)) | |
910 | xop1 = copy_to_mode_reg (mode1, xop1); | |
911 | ||
912 | /* We could handle this, but we should always be called with a pseudo | |
913 | for our targets and all insns should take them as outputs. */ | |
914 | if (! (*insn_operand_predicate[icode][0]) (targ0, mode) | |
915 | || ! (*insn_operand_predicate[icode][3]) (targ1, mode)) | |
916 | abort (); | |
917 | ||
918 | pat = GEN_FCN (icode) (targ0, xop0, xop1, targ1); | |
919 | if (pat) | |
920 | { | |
921 | emit_insn (pat); | |
922 | return 1; | |
923 | } | |
924 | else | |
925 | delete_insns_since (last); | |
926 | } | |
927 | ||
928 | /* It can't be done in this mode. Can we do it in a wider mode? */ | |
929 | ||
930 | if (class == MODE_INT || class == MODE_FLOAT || class == MODE_COMPLEX_FLOAT) | |
931 | { | |
34e56753 | 932 | for (wider_mode = GET_MODE_WIDER_MODE (mode); wider_mode != VOIDmode; |
77c9c6c2 RK |
933 | wider_mode = GET_MODE_WIDER_MODE (wider_mode)) |
934 | { | |
935 | if (binoptab->handlers[(int) wider_mode].insn_code | |
936 | != CODE_FOR_nothing) | |
937 | { | |
938 | register rtx t0 = gen_reg_rtx (wider_mode); | |
939 | register rtx t1 = gen_reg_rtx (wider_mode); | |
940 | ||
941 | if (expand_twoval_binop (binoptab, | |
942 | convert_to_mode (wider_mode, op0, | |
943 | unsignedp), | |
944 | convert_to_mode (wider_mode, op1, | |
945 | unsignedp), | |
946 | t0, t1, unsignedp)) | |
947 | { | |
948 | convert_move (targ0, t0, unsignedp); | |
949 | convert_move (targ1, t1, unsignedp); | |
950 | return 1; | |
951 | } | |
952 | else | |
953 | delete_insns_since (last); | |
954 | } | |
955 | } | |
956 | } | |
957 | ||
958 | return 0; | |
959 | } | |
960 | \f | |
961 | /* Generate code to perform an operation specified by UNOPTAB | |
962 | on operand OP0, with result having machine-mode MODE. | |
963 | ||
964 | UNSIGNEDP is for the case where we have to widen the operands | |
965 | to perform the operation. It says to use zero-extension. | |
966 | ||
967 | If TARGET is nonzero, the value | |
968 | is generated there, if it is convenient to do so. | |
969 | In all cases an rtx is returned for the locus of the value; | |
970 | this may or may not be TARGET. */ | |
971 | ||
972 | rtx | |
973 | expand_unop (mode, unoptab, op0, target, unsignedp) | |
974 | enum machine_mode mode; | |
975 | optab unoptab; | |
976 | rtx op0; | |
977 | rtx target; | |
978 | int unsignedp; | |
979 | { | |
980 | enum mode_class class; | |
981 | enum machine_mode wider_mode; | |
77c9c6c2 RK |
982 | register rtx temp; |
983 | rtx last = get_last_insn (); | |
984 | rtx pat; | |
985 | ||
986 | class = GET_MODE_CLASS (mode); | |
987 | ||
988 | op0 = protect_from_queue (op0, 0); | |
989 | ||
990 | if (flag_force_mem) | |
991 | { | |
992 | op0 = force_not_mem (op0); | |
993 | } | |
994 | ||
995 | if (target) | |
996 | target = protect_from_queue (target, 1); | |
997 | ||
998 | if (unoptab->handlers[(int) mode].insn_code != CODE_FOR_nothing) | |
999 | { | |
1000 | int icode = (int) unoptab->handlers[(int) mode].insn_code; | |
1001 | enum machine_mode mode0 = insn_operand_mode[icode][1]; | |
1002 | rtx xop0 = op0; | |
1003 | ||
1004 | if (target) | |
1005 | temp = target; | |
1006 | else | |
1007 | temp = gen_reg_rtx (mode); | |
1008 | ||
1009 | if (GET_MODE (xop0) != VOIDmode | |
1010 | && GET_MODE (xop0) != mode0) | |
1011 | xop0 = convert_to_mode (mode0, xop0, unsignedp); | |
1012 | ||
1013 | /* Now, if insn doesn't accept our operand, put it into a pseudo. */ | |
1014 | ||
1015 | if (! (*insn_operand_predicate[icode][1]) (xop0, mode0)) | |
1016 | xop0 = copy_to_mode_reg (mode0, xop0); | |
1017 | ||
1018 | if (! (*insn_operand_predicate[icode][0]) (temp, mode)) | |
1019 | temp = gen_reg_rtx (mode); | |
1020 | ||
1021 | pat = GEN_FCN (icode) (temp, xop0); | |
1022 | if (pat) | |
1023 | { | |
1024 | if (GET_CODE (pat) == SEQUENCE | |
1025 | && ! add_equal_note (pat, temp, unoptab->code, xop0, 0)) | |
1026 | { | |
1027 | delete_insns_since (last); | |
1028 | return expand_unop (mode, unoptab, op0, 0, unsignedp); | |
1029 | } | |
1030 | ||
1031 | emit_insn (pat); | |
1032 | ||
1033 | return temp; | |
1034 | } | |
1035 | else | |
1036 | delete_insns_since (last); | |
1037 | } | |
1038 | ||
1039 | /* These can be done a word at a time. */ | |
1040 | if (unoptab == one_cmpl_optab | |
1041 | && class == MODE_INT | |
1042 | && GET_MODE_SIZE (mode) > UNITS_PER_WORD | |
34e56753 | 1043 | && unoptab->handlers[(int) word_mode].insn_code != CODE_FOR_nothing) |
77c9c6c2 RK |
1044 | { |
1045 | int i; | |
1046 | rtx insns; | |
1047 | ||
1048 | if (target == 0 || target == op0) | |
1049 | target = gen_reg_rtx (mode); | |
1050 | ||
1051 | start_sequence (); | |
1052 | ||
1053 | /* Do the actual arithmetic. */ | |
1054 | for (i = 0; i < GET_MODE_BITSIZE (mode) / BITS_PER_WORD; i++) | |
1055 | { | |
1056 | rtx target_piece = operand_subword (target, i, 1, mode); | |
34e56753 | 1057 | rtx x = expand_unop (word_mode, unoptab, |
77c9c6c2 RK |
1058 | operand_subword_force (op0, i, mode), |
1059 | target_piece, unsignedp); | |
1060 | if (target_piece != x) | |
1061 | emit_move_insn (target_piece, x); | |
1062 | } | |
1063 | ||
1064 | insns = get_insns (); | |
1065 | end_sequence (); | |
1066 | ||
1067 | emit_no_conflict_block (insns, target, op0, 0, | |
1068 | gen_rtx (unoptab->code, mode, op0)); | |
1069 | return target; | |
1070 | } | |
1071 | ||
1072 | if (unoptab->handlers[(int) mode].libfunc) | |
1073 | { | |
1074 | rtx insns; | |
1075 | rtx funexp = unoptab->handlers[(int) mode].libfunc; | |
1076 | ||
1077 | start_sequence (); | |
1078 | ||
1079 | /* Pass 1 for NO_QUEUE so we don't lose any increments | |
1080 | if the libcall is cse'd or moved. */ | |
1081 | emit_library_call (unoptab->handlers[(int) mode].libfunc, | |
1082 | 1, mode, 1, op0, mode); | |
1083 | insns = get_insns (); | |
1084 | end_sequence (); | |
1085 | ||
1086 | target = gen_reg_rtx (mode); | |
1087 | emit_libcall_block (insns, target, hard_libcall_value (mode), | |
1088 | gen_rtx (unoptab->code, mode, op0)); | |
1089 | ||
1090 | return target; | |
1091 | } | |
1092 | ||
1093 | /* It can't be done in this mode. Can we do it in a wider mode? */ | |
1094 | ||
1095 | if (class == MODE_INT || class == MODE_FLOAT || class == MODE_COMPLEX_FLOAT) | |
1096 | { | |
34e56753 | 1097 | for (wider_mode = GET_MODE_WIDER_MODE (mode); wider_mode != VOIDmode; |
77c9c6c2 RK |
1098 | wider_mode = GET_MODE_WIDER_MODE (wider_mode)) |
1099 | { | |
1100 | if ((unoptab->handlers[(int) wider_mode].insn_code | |
1101 | != CODE_FOR_nothing) | |
1102 | || unoptab->handlers[(int) wider_mode].libfunc) | |
1103 | { | |
34e56753 RS |
1104 | rtx xop0 = op0; |
1105 | ||
1106 | /* For certain operations, we need not actually extend | |
1107 | the narrow operand, as long as we will truncate the | |
1108 | results to the same narrowness. */ | |
1109 | ||
1110 | if ((unoptab == neg_optab || unoptab == one_cmpl_optab) | |
1111 | && class == MODE_INT) | |
1112 | xop0 = gen_rtx (SUBREG, wider_mode, force_reg (mode, xop0), 0); | |
1113 | else | |
1114 | xop0 = convert_to_mode (wider_mode, xop0, unsignedp); | |
77c9c6c2 | 1115 | |
34e56753 RS |
1116 | temp = expand_unop (wider_mode, unoptab, xop0, 0, unsignedp); |
1117 | ||
1118 | if (temp) | |
77c9c6c2 | 1119 | { |
34e56753 RS |
1120 | if (class != MODE_INT) |
1121 | { | |
1122 | if (target == 0) | |
1123 | target = gen_reg_rtx (mode); | |
1124 | convert_move (target, temp, 0); | |
1125 | return target; | |
1126 | } | |
1127 | else | |
1128 | return gen_lowpart (mode, temp); | |
77c9c6c2 RK |
1129 | } |
1130 | else | |
34e56753 | 1131 | delete_insns_since (last); |
77c9c6c2 RK |
1132 | } |
1133 | } | |
1134 | } | |
1135 | ||
1136 | return 0; | |
1137 | } | |
1138 | \f | |
1139 | /* Generate an instruction whose insn-code is INSN_CODE, | |
1140 | with two operands: an output TARGET and an input OP0. | |
1141 | TARGET *must* be nonzero, and the output is always stored there. | |
1142 | CODE is an rtx code such that (CODE OP0) is an rtx that describes | |
1143 | the value that is stored into TARGET. */ | |
1144 | ||
1145 | void | |
1146 | emit_unop_insn (icode, target, op0, code) | |
1147 | int icode; | |
1148 | rtx target; | |
1149 | rtx op0; | |
1150 | enum rtx_code code; | |
1151 | { | |
1152 | register rtx temp; | |
1153 | enum machine_mode mode0 = insn_operand_mode[icode][1]; | |
1154 | rtx pat; | |
1155 | ||
1156 | temp = target = protect_from_queue (target, 1); | |
1157 | ||
1158 | op0 = protect_from_queue (op0, 0); | |
1159 | ||
1160 | if (flag_force_mem) | |
1161 | op0 = force_not_mem (op0); | |
1162 | ||
1163 | /* Now, if insn does not accept our operands, put them into pseudos. */ | |
1164 | ||
1165 | if (! (*insn_operand_predicate[icode][1]) (op0, mode0)) | |
1166 | op0 = copy_to_mode_reg (mode0, op0); | |
1167 | ||
1168 | if (! (*insn_operand_predicate[icode][0]) (temp, GET_MODE (temp)) | |
1169 | || (flag_force_mem && GET_CODE (temp) == MEM)) | |
1170 | temp = gen_reg_rtx (GET_MODE (temp)); | |
1171 | ||
1172 | pat = GEN_FCN (icode) (temp, op0); | |
1173 | ||
1174 | if (GET_CODE (pat) == SEQUENCE && code != UNKNOWN) | |
1175 | add_equal_note (pat, temp, code, op0, 0); | |
1176 | ||
1177 | emit_insn (pat); | |
1178 | ||
1179 | if (temp != target) | |
1180 | emit_move_insn (target, temp); | |
1181 | } | |
1182 | \f | |
1183 | /* Emit code to perform a series of operations on a multi-word quantity, one | |
1184 | word at a time. | |
1185 | ||
1186 | Such a block is preceeded by a CLOBBER of the output, consists of multiple | |
1187 | insns, each setting one word of the output, and followed by a SET copying | |
1188 | the output to itself. | |
1189 | ||
1190 | Each of the insns setting words of the output receives a REG_NO_CONFLICT | |
1191 | note indicating that it doesn't conflict with the (also multi-word) | |
1192 | inputs. The entire block is surrounded by REG_LIBCALL and REG_RETVAL | |
1193 | notes. | |
1194 | ||
1195 | INSNS is a block of code generated to perform the operation, not including | |
1196 | the CLOBBER and final copy. All insns that compute intermediate values | |
1197 | are first emitted, followed by the block as described above. Only | |
1198 | INSNs are allowed in the block; no library calls or jumps may be | |
1199 | present. | |
1200 | ||
1201 | TARGET, OP0, and OP1 are the output and inputs of the operations, | |
1202 | respectively. OP1 may be zero for a unary operation. | |
1203 | ||
1204 | EQUIV, if non-zero, is an expression to be placed into a REG_EQUAL note | |
1205 | on the last insn. | |
1206 | ||
1207 | If TARGET is not a register, INSNS is simply emitted with no special | |
1208 | processing. | |
1209 | ||
1210 | The final insn emitted is returned. */ | |
1211 | ||
1212 | rtx | |
1213 | emit_no_conflict_block (insns, target, op0, op1, equiv) | |
1214 | rtx insns; | |
1215 | rtx target; | |
1216 | rtx op0, op1; | |
1217 | rtx equiv; | |
1218 | { | |
1219 | rtx prev, next, first, last, insn; | |
1220 | ||
1221 | if (GET_CODE (target) != REG || reload_in_progress) | |
1222 | return emit_insns (insns); | |
1223 | ||
1224 | /* First emit all insns that do not store into words of the output and remove | |
1225 | these from the list. */ | |
1226 | for (insn = insns; insn; insn = next) | |
1227 | { | |
1228 | rtx set = 0; | |
1229 | int i; | |
1230 | ||
1231 | next = NEXT_INSN (insn); | |
1232 | ||
1233 | if (GET_CODE (insn) != INSN) | |
1234 | abort (); | |
1235 | ||
1236 | if (GET_CODE (PATTERN (insn)) == SET) | |
1237 | set = PATTERN (insn); | |
1238 | else if (GET_CODE (PATTERN (insn)) == PARALLEL) | |
1239 | { | |
1240 | for (i = 0; i < XVECLEN (PATTERN (insn), 0); i++) | |
1241 | if (GET_CODE (XVECEXP (PATTERN (insn), 0, i)) == SET) | |
1242 | { | |
1243 | set = XVECEXP (PATTERN (insn), 0, i); | |
1244 | break; | |
1245 | } | |
1246 | } | |
1247 | ||
1248 | if (set == 0) | |
1249 | abort (); | |
1250 | ||
1251 | if (! reg_overlap_mentioned_p (target, SET_DEST (set))) | |
1252 | { | |
1253 | if (PREV_INSN (insn)) | |
1254 | NEXT_INSN (PREV_INSN (insn)) = next; | |
1255 | else | |
1256 | insns = next; | |
1257 | ||
1258 | if (next) | |
1259 | PREV_INSN (next) = PREV_INSN (insn); | |
1260 | ||
1261 | add_insn (insn); | |
1262 | } | |
1263 | } | |
1264 | ||
1265 | prev = get_last_insn (); | |
1266 | ||
1267 | /* Now write the CLOBBER of the output, followed by the setting of each | |
1268 | of the words, followed by the final copy. */ | |
1269 | if (target != op0 && target != op1) | |
1270 | emit_insn (gen_rtx (CLOBBER, VOIDmode, target)); | |
1271 | ||
1272 | for (insn = insns; insn; insn = next) | |
1273 | { | |
1274 | next = NEXT_INSN (insn); | |
1275 | add_insn (insn); | |
1276 | ||
1277 | if (op1 && GET_CODE (op1) == REG) | |
1278 | REG_NOTES (insn) = gen_rtx (EXPR_LIST, REG_NO_CONFLICT, op1, | |
1279 | REG_NOTES (insn)); | |
1280 | ||
1281 | if (op0 && GET_CODE (op0) == REG) | |
1282 | REG_NOTES (insn) = gen_rtx (EXPR_LIST, REG_NO_CONFLICT, op0, | |
1283 | REG_NOTES (insn)); | |
1284 | } | |
1285 | ||
1286 | last = emit_move_insn (target, target); | |
1287 | if (equiv) | |
1288 | REG_NOTES (last) = gen_rtx (EXPR_LIST, REG_EQUAL, equiv, REG_NOTES (last)); | |
1289 | ||
1290 | if (prev == 0) | |
1291 | first = get_insns (); | |
1292 | else | |
1293 | first = NEXT_INSN (prev); | |
1294 | ||
1295 | /* Encapsulate the block so it gets manipulated as a unit. */ | |
1296 | REG_NOTES (first) = gen_rtx (INSN_LIST, REG_LIBCALL, last, | |
1297 | REG_NOTES (first)); | |
1298 | REG_NOTES (last) = gen_rtx (INSN_LIST, REG_RETVAL, first, REG_NOTES (last)); | |
1299 | ||
1300 | return last; | |
1301 | } | |
1302 | \f | |
1303 | /* Emit code to make a call to a constant function or a library call. | |
1304 | ||
1305 | INSNS is a list containing all insns emitted in the call. | |
1306 | These insns leave the result in RESULT. Our block is to copy RESULT | |
1307 | to TARGET, which is logically equivalent to EQUIV. | |
1308 | ||
1309 | We first emit any insns that set a pseudo on the assumption that these are | |
1310 | loading constants into registers; doing so allows them to be safely cse'ed | |
1311 | between blocks. Then we emit all the other insns in the block, followed by | |
1312 | an insn to move RESULT to TARGET. This last insn will have a REQ_EQUAL | |
1313 | note with an operand of EQUIV. | |
1314 | ||
1315 | Except for the first group of insns (the ones setting pseudos), the | |
1316 | block is delimited by REG_RETVAL and REG_LIBCALL notes. */ | |
1317 | ||
1318 | void | |
1319 | emit_libcall_block (insns, target, result, equiv) | |
1320 | rtx insns; | |
1321 | rtx target; | |
1322 | rtx result; | |
1323 | rtx equiv; | |
1324 | { | |
1325 | rtx prev, next, first, last, insn; | |
1326 | ||
1327 | /* First emit all insns that set pseudos. Remove them from the list as | |
1328 | we go. */ | |
1329 | ||
1330 | for (insn = insns; insn; insn = next) | |
1331 | { | |
1332 | rtx set = single_set (insn); | |
1333 | ||
1334 | next = NEXT_INSN (insn); | |
1335 | ||
1336 | if (set != 0 && GET_CODE (SET_DEST (set)) == REG | |
1337 | && REGNO (SET_DEST (set)) >= FIRST_PSEUDO_REGISTER) | |
1338 | { | |
1339 | if (PREV_INSN (insn)) | |
1340 | NEXT_INSN (PREV_INSN (insn)) = next; | |
1341 | else | |
1342 | insns = next; | |
1343 | ||
1344 | if (next) | |
1345 | PREV_INSN (next) = PREV_INSN (insn); | |
1346 | ||
1347 | add_insn (insn); | |
1348 | } | |
1349 | } | |
1350 | ||
1351 | prev = get_last_insn (); | |
1352 | ||
1353 | /* Write the remaining insns followed by the final copy. */ | |
1354 | ||
1355 | for (insn = insns; insn; insn = next) | |
1356 | { | |
1357 | next = NEXT_INSN (insn); | |
1358 | ||
1359 | add_insn (insn); | |
1360 | } | |
1361 | ||
1362 | last = emit_move_insn (target, result); | |
1363 | REG_NOTES (last) = gen_rtx (EXPR_LIST, REG_EQUAL, equiv, REG_NOTES (last)); | |
1364 | ||
1365 | if (prev == 0) | |
1366 | first = get_insns (); | |
1367 | else | |
1368 | first = NEXT_INSN (prev); | |
1369 | ||
1370 | /* Encapsulate the block so it gets manipulated as a unit. */ | |
1371 | REG_NOTES (first) = gen_rtx (INSN_LIST, REG_LIBCALL, last, | |
1372 | REG_NOTES (first)); | |
1373 | REG_NOTES (last) = gen_rtx (INSN_LIST, REG_RETVAL, first, REG_NOTES (last)); | |
1374 | } | |
1375 | \f | |
1376 | /* Generate code to store zero in X. */ | |
1377 | ||
1378 | void | |
1379 | emit_clr_insn (x) | |
1380 | rtx x; | |
1381 | { | |
1382 | emit_move_insn (x, const0_rtx); | |
1383 | } | |
1384 | ||
1385 | /* Generate code to store 1 in X | |
1386 | assuming it contains zero beforehand. */ | |
1387 | ||
1388 | void | |
1389 | emit_0_to_1_insn (x) | |
1390 | rtx x; | |
1391 | { | |
1392 | emit_move_insn (x, const1_rtx); | |
1393 | } | |
1394 | ||
1395 | /* Generate code to compare X with Y | |
1396 | so that the condition codes are set. | |
1397 | ||
1398 | MODE is the mode of the inputs (in case they are const_int). | |
1399 | UNSIGNEDP nonzero says that X and Y are unsigned; | |
1400 | this matters if they need to be widened. | |
1401 | ||
1402 | If they have mode BLKmode, then SIZE specifies the size of both X and Y, | |
1403 | and ALIGN specifies the known shared alignment of X and Y. | |
1404 | ||
1405 | COMPARISON is the rtl operator to compare with (EQ, NE, GT, etc.). | |
1406 | It is ignored for fixed-point and block comparisons; | |
1407 | it is used only for floating-point comparisons. */ | |
1408 | ||
1409 | void | |
1410 | emit_cmp_insn (x, y, comparison, size, mode, unsignedp, align) | |
1411 | rtx x, y; | |
1412 | enum rtx_code comparison; | |
1413 | rtx size; | |
1414 | int unsignedp; | |
1415 | int align; | |
1416 | { | |
1417 | enum mode_class class; | |
1418 | enum machine_mode wider_mode; | |
1419 | ||
1420 | class = GET_MODE_CLASS (mode); | |
1421 | ||
1422 | /* They could both be VOIDmode if both args are immediate constants, | |
1423 | but we should fold that at an earlier stage. | |
1424 | With no special code here, this will call abort, | |
1425 | reminding the programmer to implement such folding. */ | |
1426 | ||
1427 | if (mode != BLKmode && flag_force_mem) | |
1428 | { | |
1429 | x = force_not_mem (x); | |
1430 | y = force_not_mem (y); | |
1431 | } | |
1432 | ||
1433 | /* If we are inside an appropriately-short loop and one operand is an | |
1434 | expensive constant, force it into a register. */ | |
1435 | if (CONSTANT_P (x) && preserve_subexpressions_p () && rtx_cost (x) > 2) | |
1436 | x = force_reg (mode, x); | |
1437 | ||
1438 | if (CONSTANT_P (y) && preserve_subexpressions_p () && rtx_cost (y) > 2) | |
1439 | y = force_reg (mode, y); | |
1440 | ||
1441 | /* Don't let both operands fail to indicate the mode. */ | |
1442 | if (GET_MODE (x) == VOIDmode && GET_MODE (y) == VOIDmode) | |
1443 | x = force_reg (mode, x); | |
1444 | ||
1445 | /* Handle all BLKmode compares. */ | |
1446 | ||
1447 | if (mode == BLKmode) | |
1448 | { | |
1449 | emit_queue (); | |
1450 | x = protect_from_queue (x, 0); | |
1451 | y = protect_from_queue (y, 0); | |
1452 | ||
1453 | if (size == 0) | |
1454 | abort (); | |
1455 | #ifdef HAVE_cmpstrqi | |
1456 | if (HAVE_cmpstrqi | |
1457 | && GET_CODE (size) == CONST_INT | |
1458 | && INTVAL (size) < (1 << GET_MODE_BITSIZE (QImode))) | |
1459 | { | |
1460 | enum machine_mode result_mode | |
1461 | = insn_operand_mode[(int) CODE_FOR_cmpstrqi][0]; | |
1462 | rtx result = gen_reg_rtx (result_mode); | |
1463 | emit_insn (gen_cmpstrqi (result, x, y, size, | |
1464 | gen_rtx (CONST_INT, VOIDmode, align))); | |
1465 | emit_cmp_insn (result, const0_rtx, comparison, 0, result_mode, 0, 0); | |
1466 | } | |
1467 | else | |
1468 | #endif | |
1469 | #ifdef HAVE_cmpstrhi | |
1470 | if (HAVE_cmpstrhi | |
1471 | && GET_CODE (size) == CONST_INT | |
1472 | && INTVAL (size) < (1 << GET_MODE_BITSIZE (HImode))) | |
1473 | { | |
1474 | enum machine_mode result_mode | |
1475 | = insn_operand_mode[(int) CODE_FOR_cmpstrhi][0]; | |
1476 | rtx result = gen_reg_rtx (result_mode); | |
1477 | emit_insn (gen_cmpstrhi (result, x, y, size, | |
1478 | gen_rtx (CONST_INT, VOIDmode, align))); | |
1479 | emit_cmp_insn (result, const0_rtx, comparison, 0, result_mode, 0, 0); | |
1480 | } | |
1481 | else | |
1482 | #endif | |
1483 | #ifdef HAVE_cmpstrsi | |
1484 | if (HAVE_cmpstrsi) | |
1485 | { | |
1486 | enum machine_mode result_mode | |
1487 | = insn_operand_mode[(int) CODE_FOR_cmpstrsi][0]; | |
1488 | rtx result = gen_reg_rtx (result_mode); | |
1489 | emit_insn (gen_cmpstrsi (result, x, y, | |
1490 | convert_to_mode (SImode, size, 1), | |
1491 | gen_rtx (CONST_INT, VOIDmode, align))); | |
1492 | emit_cmp_insn (result, const0_rtx, comparison, 0, result_mode, 0, 0); | |
1493 | } | |
1494 | else | |
1495 | #endif | |
1496 | { | |
1497 | #ifdef TARGET_MEM_FUNCTIONS | |
1498 | emit_library_call (memcmp_libfunc, 0, | |
1499 | TYPE_MODE (integer_type_node), 3, | |
1500 | XEXP (x, 0), Pmode, XEXP (y, 0), Pmode, | |
1501 | size, Pmode); | |
1502 | #else | |
1503 | emit_library_call (bcmp_libfunc, 0, | |
1504 | TYPE_MODE (integer_type_node), 3, | |
1505 | XEXP (x, 0), Pmode, XEXP (y, 0), Pmode, | |
1506 | size, Pmode); | |
1507 | #endif | |
1508 | emit_cmp_insn (hard_libcall_value (TYPE_MODE (integer_type_node)), | |
1509 | const0_rtx, comparison, 0, | |
1510 | TYPE_MODE (integer_type_node), 0, 0); | |
1511 | } | |
1512 | return; | |
1513 | } | |
1514 | ||
1515 | /* Handle some compares against zero. */ | |
1516 | ||
1517 | if (y == CONST0_RTX (mode) | |
1518 | && tst_optab->handlers[(int) mode].insn_code != CODE_FOR_nothing) | |
1519 | { | |
1520 | int icode = (int) tst_optab->handlers[(int) mode].insn_code; | |
1521 | ||
1522 | emit_queue (); | |
1523 | x = protect_from_queue (x, 0); | |
1524 | y = protect_from_queue (y, 0); | |
1525 | ||
1526 | /* Now, if insn does accept these operands, put them into pseudos. */ | |
1527 | if (! (*insn_operand_predicate[icode][0]) | |
1528 | (x, insn_operand_mode[icode][0])) | |
1529 | x = copy_to_mode_reg (insn_operand_mode[icode][0], x); | |
1530 | ||
1531 | emit_insn (GEN_FCN (icode) (x)); | |
1532 | return; | |
1533 | } | |
1534 | ||
1535 | /* Handle compares for which there is a directly suitable insn. */ | |
1536 | ||
1537 | if (cmp_optab->handlers[(int) mode].insn_code != CODE_FOR_nothing) | |
1538 | { | |
1539 | int icode = (int) cmp_optab->handlers[(int) mode].insn_code; | |
1540 | ||
1541 | emit_queue (); | |
1542 | x = protect_from_queue (x, 0); | |
1543 | y = protect_from_queue (y, 0); | |
1544 | ||
1545 | /* Now, if insn doesn't accept these operands, put them into pseudos. */ | |
1546 | if (! (*insn_operand_predicate[icode][0]) | |
1547 | (x, insn_operand_mode[icode][0])) | |
1548 | x = copy_to_mode_reg (insn_operand_mode[icode][0], x); | |
1549 | ||
1550 | if (! (*insn_operand_predicate[icode][1]) | |
1551 | (y, insn_operand_mode[icode][1])) | |
1552 | y = copy_to_mode_reg (insn_operand_mode[icode][1], y); | |
1553 | ||
1554 | emit_insn (GEN_FCN (icode) (x, y)); | |
1555 | return; | |
1556 | } | |
1557 | ||
1558 | /* Try widening if we can find a direct insn that way. */ | |
1559 | ||
1560 | if (class == MODE_INT || class == MODE_FLOAT || class == MODE_COMPLEX_FLOAT) | |
1561 | { | |
34e56753 | 1562 | for (wider_mode = GET_MODE_WIDER_MODE (mode); wider_mode != VOIDmode; |
77c9c6c2 RK |
1563 | wider_mode = GET_MODE_WIDER_MODE (wider_mode)) |
1564 | { | |
1565 | if (cmp_optab->handlers[(int) wider_mode].insn_code | |
1566 | != CODE_FOR_nothing) | |
1567 | { | |
1568 | x = convert_to_mode (wider_mode, x, unsignedp); | |
1569 | y = convert_to_mode (wider_mode, y, unsignedp); | |
1570 | emit_cmp_insn (x, y, comparison, 0, | |
1571 | wider_mode, unsignedp, align); | |
1572 | return; | |
1573 | } | |
1574 | } | |
1575 | } | |
1576 | ||
1577 | /* Handle a lib call just for the mode we are using. */ | |
1578 | ||
1579 | if (cmp_optab->handlers[(int) mode].libfunc | |
1580 | && class != MODE_FLOAT) | |
1581 | { | |
1582 | rtx libfunc = cmp_optab->handlers[(int) mode].libfunc; | |
1583 | /* If we want unsigned, and this mode has a distinct unsigned | |
1584 | comparison routine, use that. */ | |
1585 | if (unsignedp && ucmp_optab->handlers[(int) mode].libfunc) | |
1586 | libfunc = ucmp_optab->handlers[(int) mode].libfunc; | |
1587 | ||
1588 | emit_library_call (libfunc, 0, | |
1589 | SImode, 2, x, mode, y, mode); | |
1590 | ||
1591 | /* Integer comparison returns a result that must be compared against 1, | |
1592 | so that even if we do an unsigned compare afterward, | |
1593 | there is still a value that can represent the result "less than". */ | |
1594 | ||
1595 | emit_cmp_insn (hard_libcall_value (SImode), const1_rtx, | |
1596 | comparison, 0, SImode, unsignedp, 0); | |
1597 | return; | |
1598 | } | |
1599 | ||
1600 | if (class == MODE_FLOAT) | |
1601 | emit_float_lib_cmp (x, y, comparison); | |
1602 | ||
1603 | else | |
1604 | abort (); | |
1605 | } | |
1606 | ||
1607 | /* Nonzero if a compare of mode MODE can be done straightforwardly | |
1608 | (without splitting it into pieces). */ | |
1609 | ||
1610 | int | |
1611 | can_compare_p (mode) | |
1612 | enum machine_mode mode; | |
1613 | { | |
1614 | do | |
1615 | { | |
1616 | if (cmp_optab->handlers[(int)mode].insn_code != CODE_FOR_nothing) | |
1617 | return 1; | |
1618 | mode = GET_MODE_WIDER_MODE (mode); | |
1619 | } while (mode != VOIDmode); | |
1620 | ||
1621 | return 0; | |
1622 | } | |
1623 | \f | |
1624 | /* Emit a library call comparison between floating point X and Y. | |
1625 | COMPARISON is the rtl operator to compare with (EQ, NE, GT, etc.). */ | |
1626 | ||
1627 | static void | |
1628 | emit_float_lib_cmp (x, y, comparison) | |
1629 | rtx x, y; | |
1630 | enum rtx_code comparison; | |
1631 | { | |
1632 | enum machine_mode mode = GET_MODE (x); | |
1633 | rtx libfunc; | |
1634 | ||
1635 | if (mode == SFmode) | |
1636 | switch (comparison) | |
1637 | { | |
1638 | case EQ: | |
1639 | libfunc = eqsf2_libfunc; | |
1640 | break; | |
1641 | ||
1642 | case NE: | |
1643 | libfunc = nesf2_libfunc; | |
1644 | break; | |
1645 | ||
1646 | case GT: | |
1647 | libfunc = gtsf2_libfunc; | |
1648 | break; | |
1649 | ||
1650 | case GE: | |
1651 | libfunc = gesf2_libfunc; | |
1652 | break; | |
1653 | ||
1654 | case LT: | |
1655 | libfunc = ltsf2_libfunc; | |
1656 | break; | |
1657 | ||
1658 | case LE: | |
1659 | libfunc = lesf2_libfunc; | |
1660 | break; | |
1661 | } | |
1662 | else if (mode == DFmode) | |
1663 | switch (comparison) | |
1664 | { | |
1665 | case EQ: | |
1666 | libfunc = eqdf2_libfunc; | |
1667 | break; | |
1668 | ||
1669 | case NE: | |
1670 | libfunc = nedf2_libfunc; | |
1671 | break; | |
1672 | ||
1673 | case GT: | |
1674 | libfunc = gtdf2_libfunc; | |
1675 | break; | |
1676 | ||
1677 | case GE: | |
1678 | libfunc = gedf2_libfunc; | |
1679 | break; | |
1680 | ||
1681 | case LT: | |
1682 | libfunc = ltdf2_libfunc; | |
1683 | break; | |
1684 | ||
1685 | case LE: | |
1686 | libfunc = ledf2_libfunc; | |
1687 | break; | |
1688 | } | |
1689 | else | |
1690 | { | |
1691 | enum machine_mode wider_mode; | |
1692 | ||
34e56753 | 1693 | for (wider_mode = GET_MODE_WIDER_MODE (mode); wider_mode != VOIDmode; |
77c9c6c2 RK |
1694 | wider_mode = GET_MODE_WIDER_MODE (wider_mode)) |
1695 | { | |
1696 | if ((cmp_optab->handlers[(int) wider_mode].insn_code | |
1697 | != CODE_FOR_nothing) | |
1698 | || (cmp_optab->handlers[(int) wider_mode].libfunc != 0)) | |
1699 | { | |
1700 | x = convert_to_mode (wider_mode, x, 0); | |
1701 | y = convert_to_mode (wider_mode, y, 0); | |
1702 | emit_float_lib_cmp (x, y, comparison); | |
1703 | return; | |
1704 | } | |
1705 | } | |
1706 | abort (); | |
1707 | } | |
1708 | ||
1709 | emit_library_call (libfunc, 0, | |
1710 | SImode, 2, x, mode, y, mode); | |
1711 | ||
1712 | emit_cmp_insn (hard_libcall_value (SImode), const0_rtx, comparison, | |
1713 | 0, SImode, 0, 0); | |
1714 | } | |
1715 | \f | |
1716 | /* Generate code to indirectly jump to a location given in the rtx LOC. */ | |
1717 | ||
1718 | void | |
1719 | emit_indirect_jump (loc) | |
1720 | rtx loc; | |
1721 | { | |
1722 | if (! ((*insn_operand_predicate[(int)CODE_FOR_indirect_jump][0]) | |
1723 | (loc, VOIDmode))) | |
1724 | loc = copy_to_mode_reg (insn_operand_mode[(int)CODE_FOR_indirect_jump][0], | |
1725 | loc); | |
1726 | ||
1727 | emit_jump_insn (gen_indirect_jump (loc)); | |
1728 | } | |
1729 | \f | |
1730 | /* These three functions generate an insn body and return it | |
1731 | rather than emitting the insn. | |
1732 | ||
1733 | They do not protect from queued increments, | |
1734 | because they may be used 1) in protect_from_queue itself | |
1735 | and 2) in other passes where there is no queue. */ | |
1736 | ||
1737 | /* Generate and return an insn body to add Y to X. */ | |
1738 | ||
1739 | rtx | |
1740 | gen_add2_insn (x, y) | |
1741 | rtx x, y; | |
1742 | { | |
1743 | int icode = (int) add_optab->handlers[(int) GET_MODE (x)].insn_code; | |
1744 | ||
1745 | if (! (*insn_operand_predicate[icode][0]) (x, insn_operand_mode[icode][0]) | |
1746 | || ! (*insn_operand_predicate[icode][1]) (x, insn_operand_mode[icode][1]) | |
1747 | || ! (*insn_operand_predicate[icode][2]) (y, insn_operand_mode[icode][2])) | |
1748 | abort (); | |
1749 | ||
1750 | return (GEN_FCN (icode) (x, x, y)); | |
1751 | } | |
1752 | ||
1753 | int | |
1754 | have_add2_insn (mode) | |
1755 | enum machine_mode mode; | |
1756 | { | |
1757 | return add_optab->handlers[(int) mode].insn_code != CODE_FOR_nothing; | |
1758 | } | |
1759 | ||
1760 | /* Generate and return an insn body to subtract Y from X. */ | |
1761 | ||
1762 | rtx | |
1763 | gen_sub2_insn (x, y) | |
1764 | rtx x, y; | |
1765 | { | |
1766 | int icode = (int) sub_optab->handlers[(int) GET_MODE (x)].insn_code; | |
1767 | ||
1768 | if (! (*insn_operand_predicate[icode][0]) (x, insn_operand_mode[icode][0]) | |
1769 | || ! (*insn_operand_predicate[icode][1]) (x, insn_operand_mode[icode][1]) | |
1770 | || ! (*insn_operand_predicate[icode][2]) (y, insn_operand_mode[icode][2])) | |
1771 | abort (); | |
1772 | ||
1773 | return (GEN_FCN (icode) (x, x, y)); | |
1774 | } | |
1775 | ||
1776 | int | |
1777 | have_sub2_insn (mode) | |
1778 | enum machine_mode mode; | |
1779 | { | |
1780 | return sub_optab->handlers[(int) mode].insn_code != CODE_FOR_nothing; | |
1781 | } | |
1782 | ||
1783 | /* Generate the body of an instruction to copy Y into X. */ | |
1784 | ||
1785 | rtx | |
1786 | gen_move_insn (x, y) | |
1787 | rtx x, y; | |
1788 | { | |
1789 | register enum machine_mode mode = GET_MODE (x); | |
1790 | enum insn_code insn_code; | |
1791 | ||
1792 | if (mode == VOIDmode) | |
1793 | mode = GET_MODE (y); | |
1794 | ||
1795 | insn_code = mov_optab->handlers[(int) mode].insn_code; | |
1796 | ||
1797 | /* Handle MODE_CC modes: If we don't have a special move insn for this mode, | |
1798 | find a mode to do it in. If we have a movcc, use it. Otherwise, | |
1799 | find the MODE_INT mode of the same width. */ | |
1800 | ||
1801 | if (insn_code == CODE_FOR_nothing) | |
1802 | { | |
1803 | enum machine_mode tmode = VOIDmode; | |
1804 | rtx x1 = x, y1 = y; | |
1805 | ||
1806 | if (GET_MODE_CLASS (mode) == MODE_CC && mode != CCmode | |
1807 | && mov_optab->handlers[(int) CCmode].insn_code != CODE_FOR_nothing) | |
1808 | tmode = CCmode; | |
1809 | else if (GET_MODE_CLASS (mode) == MODE_CC) | |
1810 | for (tmode = QImode; tmode != VOIDmode; | |
1811 | tmode = GET_MODE_WIDER_MODE (tmode)) | |
1812 | if (GET_MODE_SIZE (tmode) == GET_MODE_SIZE (mode)) | |
1813 | break; | |
1814 | ||
1815 | if (tmode == VOIDmode) | |
1816 | abort (); | |
1817 | ||
1818 | /* Get X and Y in TMODE. We can't use gen_lowpart here because it | |
1819 | may call change_address which is not appropriate if we were | |
1820 | called when a reload was in progress. We don't have to worry | |
1821 | about changing the address since the size in bytes is supposed to | |
1822 | be the same. Copy the MEM to change the mode and move any | |
1823 | substitutions from the old MEM to the new one. */ | |
1824 | ||
1825 | if (reload_in_progress) | |
1826 | { | |
1827 | x = gen_lowpart_common (tmode, x1); | |
1828 | if (x == 0 && GET_CODE (x1) == MEM) | |
1829 | { | |
1830 | x = gen_rtx (MEM, tmode, XEXP (x1, 0)); | |
1831 | RTX_UNCHANGING_P (x) = RTX_UNCHANGING_P (x1); | |
1832 | MEM_IN_STRUCT_P (x) = MEM_IN_STRUCT_P (x1); | |
1833 | MEM_VOLATILE_P (x) = MEM_VOLATILE_P (x1); | |
1834 | copy_replacements (x1, x); | |
1835 | } | |
1836 | ||
1837 | y = gen_lowpart_common (tmode, y1); | |
1838 | if (y == 0 && GET_CODE (y1) == MEM) | |
1839 | { | |
1840 | y = gen_rtx (MEM, tmode, XEXP (y1, 0)); | |
1841 | RTX_UNCHANGING_P (y) = RTX_UNCHANGING_P (y1); | |
1842 | MEM_IN_STRUCT_P (y) = MEM_IN_STRUCT_P (y1); | |
1843 | MEM_VOLATILE_P (y) = MEM_VOLATILE_P (y1); | |
1844 | copy_replacements (y1, y); | |
1845 | } | |
1846 | } | |
1847 | else | |
1848 | { | |
1849 | x = gen_lowpart (tmode, x); | |
1850 | y = gen_lowpart (tmode, y); | |
1851 | } | |
1852 | ||
1853 | insn_code = mov_optab->handlers[(int) tmode].insn_code; | |
1854 | } | |
1855 | ||
1856 | return (GEN_FCN (insn_code) (x, y)); | |
1857 | } | |
1858 | \f | |
1859 | /* Tables of patterns for extending one integer mode to another. */ | |
34e56753 | 1860 | static enum insn_code extendtab[MAX_MACHINE_MODE][MAX_MACHINE_MODE][2]; |
77c9c6c2 | 1861 | |
34e56753 RS |
1862 | /* Return the insn code used to extend FROM_MODE to TO_MODE. |
1863 | UNSIGNEDP specifies zero-extension instead of sign-extension. If | |
1864 | no such operation exists, CODE_FOR_nothing will be returned. */ | |
77c9c6c2 | 1865 | |
34e56753 | 1866 | enum insn_code |
77c9c6c2 RK |
1867 | can_extend_p (to_mode, from_mode, unsignedp) |
1868 | enum machine_mode to_mode, from_mode; | |
1869 | int unsignedp; | |
1870 | { | |
34e56753 | 1871 | return extendtab[(int) to_mode][(int) from_mode][unsignedp]; |
77c9c6c2 RK |
1872 | } |
1873 | ||
1874 | /* Generate the body of an insn to extend Y (with mode MFROM) | |
1875 | into X (with mode MTO). Do zero-extension if UNSIGNEDP is nonzero. */ | |
1876 | ||
1877 | rtx | |
1878 | gen_extend_insn (x, y, mto, mfrom, unsignedp) | |
1879 | rtx x, y; | |
1880 | enum machine_mode mto, mfrom; | |
1881 | int unsignedp; | |
1882 | { | |
34e56753 | 1883 | return (GEN_FCN (extendtab[(int) mto][(int) mfrom][unsignedp]) (x, y)); |
77c9c6c2 RK |
1884 | } |
1885 | ||
1886 | static void | |
1887 | init_extends () | |
1888 | { | |
34e56753 RS |
1889 | enum insn_code *p; |
1890 | ||
1891 | for (p = extendtab[0][0]; | |
1892 | p < extendtab[0][0] + sizeof extendtab / sizeof extendtab[0][0][0]; | |
1893 | p++) | |
1894 | *p = CODE_FOR_nothing; | |
77c9c6c2 RK |
1895 | |
1896 | #ifdef HAVE_extendditi2 | |
1897 | if (HAVE_extendditi2) | |
34e56753 | 1898 | extendtab[(int) TImode][(int) DImode][0] = CODE_FOR_extendditi2; |
77c9c6c2 RK |
1899 | #endif |
1900 | #ifdef HAVE_extendsiti2 | |
1901 | if (HAVE_extendsiti2) | |
34e56753 | 1902 | extendtab[(int) TImode][(int) SImode][0] = CODE_FOR_extendsiti2; |
77c9c6c2 RK |
1903 | #endif |
1904 | #ifdef HAVE_extendhiti2 | |
1905 | if (HAVE_extendhiti2) | |
34e56753 | 1906 | extendtab[(int) TImode][(int) HImode][0] = CODE_FOR_extendhiti2; |
77c9c6c2 RK |
1907 | #endif |
1908 | #ifdef HAVE_extendqiti2 | |
1909 | if (HAVE_extendqiti2) | |
34e56753 | 1910 | extendtab[(int) TImode][(int) QImode][0] = CODE_FOR_extendqiti2; |
77c9c6c2 RK |
1911 | #endif |
1912 | #ifdef HAVE_extendsidi2 | |
1913 | if (HAVE_extendsidi2) | |
34e56753 | 1914 | extendtab[(int) DImode][(int) SImode][0] = CODE_FOR_extendsidi2; |
77c9c6c2 RK |
1915 | #endif |
1916 | #ifdef HAVE_extendhidi2 | |
1917 | if (HAVE_extendhidi2) | |
34e56753 | 1918 | extendtab[(int) DImode][(int) HImode][0] = CODE_FOR_extendhidi2; |
77c9c6c2 RK |
1919 | #endif |
1920 | #ifdef HAVE_extendqidi2 | |
1921 | if (HAVE_extendqidi2) | |
34e56753 | 1922 | extendtab[(int) DImode][(int) QImode][0] = CODE_FOR_extendqidi2; |
77c9c6c2 RK |
1923 | #endif |
1924 | #ifdef HAVE_extendhisi2 | |
1925 | if (HAVE_extendhisi2) | |
34e56753 | 1926 | extendtab[(int) SImode][(int) HImode][0] = CODE_FOR_extendhisi2; |
77c9c6c2 RK |
1927 | #endif |
1928 | #ifdef HAVE_extendqisi2 | |
1929 | if (HAVE_extendqisi2) | |
34e56753 | 1930 | extendtab[(int) SImode][(int) QImode][0] = CODE_FOR_extendqisi2; |
77c9c6c2 RK |
1931 | #endif |
1932 | #ifdef HAVE_extendqihi2 | |
1933 | if (HAVE_extendqihi2) | |
34e56753 | 1934 | extendtab[(int) HImode][(int) QImode][0] = CODE_FOR_extendqihi2; |
77c9c6c2 RK |
1935 | #endif |
1936 | ||
1937 | #ifdef HAVE_zero_extendditi2 | |
1938 | if (HAVE_zero_extendsiti2) | |
34e56753 | 1939 | extendtab[(int) TImode][(int) DImode][1] = CODE_FOR_zero_extendditi2; |
77c9c6c2 RK |
1940 | #endif |
1941 | #ifdef HAVE_zero_extendsiti2 | |
1942 | if (HAVE_zero_extendsiti2) | |
34e56753 | 1943 | extendtab[(int) TImode][(int) SImode][1] = CODE_FOR_zero_extendsiti2; |
77c9c6c2 RK |
1944 | #endif |
1945 | #ifdef HAVE_zero_extendhiti2 | |
1946 | if (HAVE_zero_extendhiti2) | |
34e56753 | 1947 | extendtab[(int) TImode][(int) HImode][1] = CODE_FOR_zero_extendhiti2; |
77c9c6c2 RK |
1948 | #endif |
1949 | #ifdef HAVE_zero_extendqiti2 | |
1950 | if (HAVE_zero_extendqiti2) | |
34e56753 | 1951 | extendtab[(int) TImode][(int) QImode][1] = CODE_FOR_zero_extendqiti2; |
77c9c6c2 RK |
1952 | #endif |
1953 | #ifdef HAVE_zero_extendsidi2 | |
1954 | if (HAVE_zero_extendsidi2) | |
34e56753 | 1955 | extendtab[(int) DImode][(int) SImode][1] = CODE_FOR_zero_extendsidi2; |
77c9c6c2 RK |
1956 | #endif |
1957 | #ifdef HAVE_zero_extendhidi2 | |
1958 | if (HAVE_zero_extendhidi2) | |
34e56753 | 1959 | extendtab[(int) DImode][(int) HImode][1] = CODE_FOR_zero_extendhidi2; |
77c9c6c2 RK |
1960 | #endif |
1961 | #ifdef HAVE_zero_extendqidi2 | |
1962 | if (HAVE_zero_extendqidi2) | |
34e56753 | 1963 | extendtab[(int) DImode][(int) QImode][1] = CODE_FOR_zero_extendqidi2; |
77c9c6c2 RK |
1964 | #endif |
1965 | #ifdef HAVE_zero_extendhisi2 | |
1966 | if (HAVE_zero_extendhisi2) | |
34e56753 | 1967 | extendtab[(int) SImode][(int) HImode][1] = CODE_FOR_zero_extendhisi2; |
77c9c6c2 RK |
1968 | #endif |
1969 | #ifdef HAVE_zero_extendqisi2 | |
1970 | if (HAVE_zero_extendqisi2) | |
34e56753 | 1971 | extendtab[(int) SImode][(int) QImode][1] = CODE_FOR_zero_extendqisi2; |
77c9c6c2 RK |
1972 | #endif |
1973 | #ifdef HAVE_zero_extendqihi2 | |
1974 | if (HAVE_zero_extendqihi2) | |
34e56753 | 1975 | extendtab[(int) HImode][(int) QImode][1] = CODE_FOR_zero_extendqihi2; |
77c9c6c2 RK |
1976 | #endif |
1977 | } | |
1978 | \f | |
1979 | /* can_fix_p and can_float_p say whether the target machine | |
1980 | can directly convert a given fixed point type to | |
1981 | a given floating point type, or vice versa. | |
1982 | The returned value is the CODE_FOR_... value to use, | |
1983 | or CODE_FOR_nothing if these modes cannot be directly converted. */ | |
1984 | ||
1985 | static enum insn_code fixtab[NUM_MACHINE_MODES][NUM_MACHINE_MODES][2]; | |
1986 | static enum insn_code fixtrunctab[NUM_MACHINE_MODES][NUM_MACHINE_MODES][2]; | |
1987 | static enum insn_code floattab[NUM_MACHINE_MODES][NUM_MACHINE_MODES][2]; | |
1988 | ||
1989 | /* *TRUNCP_PTR is set to 1 if it is necessary to output | |
1990 | an explicit FTRUNC insn before the fix insn; otherwise 0. */ | |
1991 | ||
1992 | static enum insn_code | |
1993 | can_fix_p (fixmode, fltmode, unsignedp, truncp_ptr) | |
1994 | enum machine_mode fltmode, fixmode; | |
1995 | int unsignedp; | |
1996 | int *truncp_ptr; | |
1997 | { | |
1998 | *truncp_ptr = 0; | |
1999 | if (fixtrunctab[(int) fltmode][(int) fixmode][unsignedp] != CODE_FOR_nothing) | |
2000 | return fixtrunctab[(int) fltmode][(int) fixmode][unsignedp]; | |
2001 | ||
2002 | if (ftrunc_optab->handlers[(int) fltmode].insn_code != CODE_FOR_nothing) | |
2003 | { | |
2004 | *truncp_ptr = 1; | |
2005 | return fixtab[(int) fltmode][(int) fixmode][unsignedp]; | |
2006 | } | |
2007 | return CODE_FOR_nothing; | |
2008 | } | |
2009 | ||
2010 | static enum insn_code | |
2011 | can_float_p (fltmode, fixmode, unsignedp) | |
2012 | enum machine_mode fixmode, fltmode; | |
2013 | int unsignedp; | |
2014 | { | |
2015 | return floattab[(int) fltmode][(int) fixmode][unsignedp]; | |
2016 | } | |
2017 | ||
2018 | void | |
2019 | init_fixtab () | |
2020 | { | |
2021 | enum insn_code *p; | |
2022 | for (p = fixtab[0][0]; | |
2023 | p < fixtab[0][0] + sizeof fixtab / sizeof (fixtab[0][0][0]); | |
2024 | p++) | |
2025 | *p = CODE_FOR_nothing; | |
2026 | for (p = fixtrunctab[0][0]; | |
2027 | p < fixtrunctab[0][0] + sizeof fixtrunctab / sizeof (fixtrunctab[0][0][0]); | |
2028 | p++) | |
2029 | *p = CODE_FOR_nothing; | |
2030 | ||
2031 | #ifdef HAVE_fixsfqi2 | |
2032 | if (HAVE_fixsfqi2) | |
2033 | fixtab[(int) SFmode][(int) QImode][0] = CODE_FOR_fixsfqi2; | |
2034 | #endif | |
2035 | #ifdef HAVE_fixsfhi2 | |
2036 | if (HAVE_fixsfhi2) | |
2037 | fixtab[(int) SFmode][(int) HImode][0] = CODE_FOR_fixsfhi2; | |
2038 | #endif | |
2039 | #ifdef HAVE_fixsfsi2 | |
2040 | if (HAVE_fixsfsi2) | |
2041 | fixtab[(int) SFmode][(int) SImode][0] = CODE_FOR_fixsfsi2; | |
2042 | #endif | |
2043 | #ifdef HAVE_fixsfdi2 | |
2044 | if (HAVE_fixsfdi2) | |
2045 | fixtab[(int) SFmode][(int) DImode][0] = CODE_FOR_fixsfdi2; | |
2046 | #endif | |
2047 | ||
2048 | #ifdef HAVE_fixdfqi2 | |
2049 | if (HAVE_fixdfqi2) | |
2050 | fixtab[(int) DFmode][(int) QImode][0] = CODE_FOR_fixdfqi2; | |
2051 | #endif | |
2052 | #ifdef HAVE_fixdfhi2 | |
2053 | if (HAVE_fixdfhi2) | |
2054 | fixtab[(int) DFmode][(int) HImode][0] = CODE_FOR_fixdfhi2; | |
2055 | #endif | |
2056 | #ifdef HAVE_fixdfsi2 | |
2057 | if (HAVE_fixdfsi2) | |
2058 | fixtab[(int) DFmode][(int) SImode][0] = CODE_FOR_fixdfsi2; | |
2059 | #endif | |
2060 | #ifdef HAVE_fixdfdi2 | |
2061 | if (HAVE_fixdfdi2) | |
2062 | fixtab[(int) DFmode][(int) DImode][0] = CODE_FOR_fixdfdi2; | |
2063 | #endif | |
2064 | #ifdef HAVE_fixdfti2 | |
2065 | if (HAVE_fixdfti2) | |
2066 | fixtab[(int) DFmode][(int) TImode][0] = CODE_FOR_fixdfti2; | |
2067 | #endif | |
2068 | ||
2069 | #ifdef HAVE_fixtfqi2 | |
2070 | if (HAVE_fixtfqi2) | |
2071 | fixtab[(int) TFmode][(int) QImode][0] = CODE_FOR_fixtfqi2; | |
2072 | #endif | |
2073 | #ifdef HAVE_fixtfhi2 | |
2074 | if (HAVE_fixtfhi2) | |
2075 | fixtab[(int) TFmode][(int) HImode][0] = CODE_FOR_fixtfhi2; | |
2076 | #endif | |
2077 | #ifdef HAVE_fixtfsi2 | |
2078 | if (HAVE_fixtfsi2) | |
2079 | fixtab[(int) TFmode][(int) SImode][0] = CODE_FOR_fixtfsi2; | |
2080 | #endif | |
2081 | #ifdef HAVE_fixtfdi2 | |
2082 | if (HAVE_fixtfdi2) | |
2083 | fixtab[(int) TFmode][(int) DImode][0] = CODE_FOR_fixtfdi2; | |
2084 | #endif | |
2085 | #ifdef HAVE_fixtfti2 | |
2086 | if (HAVE_fixtfti2) | |
2087 | fixtab[(int) TFmode][(int) TImode][0] = CODE_FOR_fixtfti2; | |
2088 | #endif | |
2089 | ||
2090 | #ifdef HAVE_fixunssfqi2 | |
2091 | if (HAVE_fixunssfqi2) | |
2092 | fixtab[(int) SFmode][(int) QImode][1] = CODE_FOR_fixunssfqi2; | |
2093 | #endif | |
2094 | #ifdef HAVE_fixunssfhi2 | |
2095 | if (HAVE_fixunssfhi2) | |
2096 | fixtab[(int) SFmode][(int) HImode][1] = CODE_FOR_fixunssfhi2; | |
2097 | #endif | |
2098 | #ifdef HAVE_fixunssfsi2 | |
2099 | if (HAVE_fixunssfsi2) | |
2100 | fixtab[(int) SFmode][(int) SImode][1] = CODE_FOR_fixunssfsi2; | |
2101 | #endif | |
2102 | #ifdef HAVE_fixunssfdi2 | |
2103 | if (HAVE_fixunssfdi2) | |
2104 | fixtab[(int) SFmode][(int) DImode][1] = CODE_FOR_fixunssfdi2; | |
2105 | #endif | |
2106 | ||
2107 | #ifdef HAVE_fixunsdfqi2 | |
2108 | if (HAVE_fixunsdfqi2) | |
2109 | fixtab[(int) DFmode][(int) QImode][1] = CODE_FOR_fixunsdfqi2; | |
2110 | #endif | |
2111 | #ifdef HAVE_fixunsdfhi2 | |
2112 | if (HAVE_fixunsdfhi2) | |
2113 | fixtab[(int) DFmode][(int) HImode][1] = CODE_FOR_fixunsdfhi2; | |
2114 | #endif | |
2115 | #ifdef HAVE_fixunsdfsi2 | |
2116 | if (HAVE_fixunsdfsi2) | |
2117 | fixtab[(int) DFmode][(int) SImode][1] = CODE_FOR_fixunsdfsi2; | |
2118 | #endif | |
2119 | #ifdef HAVE_fixunsdfdi2 | |
2120 | if (HAVE_fixunsdfdi2) | |
2121 | fixtab[(int) DFmode][(int) DImode][1] = CODE_FOR_fixunsdfdi2; | |
2122 | #endif | |
2123 | #ifdef HAVE_fixunsdfti2 | |
2124 | if (HAVE_fixunsdfti2) | |
2125 | fixtab[(int) DFmode][(int) TImode][1] = CODE_FOR_fixunsdfti2; | |
2126 | #endif | |
2127 | ||
2128 | #ifdef HAVE_fixunstfqi2 | |
2129 | if (HAVE_fixunstfqi2) | |
2130 | fixtab[(int) TFmode][(int) QImode][1] = CODE_FOR_fixunstfqi2; | |
2131 | #endif | |
2132 | #ifdef HAVE_fixunstfhi2 | |
2133 | if (HAVE_fixunstfhi2) | |
2134 | fixtab[(int) TFmode][(int) HImode][1] = CODE_FOR_fixunstfhi2; | |
2135 | #endif | |
2136 | #ifdef HAVE_fixunstfsi2 | |
2137 | if (HAVE_fixunstfsi2) | |
2138 | fixtab[(int) TFmode][(int) SImode][1] = CODE_FOR_fixunstfsi2; | |
2139 | #endif | |
2140 | #ifdef HAVE_fixunstfdi2 | |
2141 | if (HAVE_fixunstfdi2) | |
2142 | fixtab[(int) TFmode][(int) DImode][1] = CODE_FOR_fixunstfdi2; | |
2143 | #endif | |
2144 | #ifdef HAVE_fixunstfti2 | |
2145 | if (HAVE_fixunstfti2) | |
2146 | fixtab[(int) TFmode][(int) TImode][1] = CODE_FOR_fixunstfti2; | |
2147 | #endif | |
2148 | ||
2149 | #ifdef HAVE_fix_truncsfqi2 | |
2150 | if (HAVE_fix_truncsfqi2) | |
2151 | fixtrunctab[(int) SFmode][(int) QImode][0] = CODE_FOR_fix_truncsfqi2; | |
2152 | #endif | |
2153 | #ifdef HAVE_fix_truncsfhi2 | |
2154 | if (HAVE_fix_truncsfhi2) | |
2155 | fixtrunctab[(int) SFmode][(int) HImode][0] = CODE_FOR_fix_truncsfhi2; | |
2156 | #endif | |
2157 | #ifdef HAVE_fix_truncsfsi2 | |
2158 | if (HAVE_fix_truncsfsi2) | |
2159 | fixtrunctab[(int) SFmode][(int) SImode][0] = CODE_FOR_fix_truncsfsi2; | |
2160 | #endif | |
2161 | #ifdef HAVE_fix_truncsfdi2 | |
2162 | if (HAVE_fix_truncsfdi2) | |
2163 | fixtrunctab[(int) SFmode][(int) DImode][0] = CODE_FOR_fix_truncsfdi2; | |
2164 | #endif | |
2165 | ||
2166 | #ifdef HAVE_fix_truncdfqi2 | |
2167 | if (HAVE_fix_truncdfsi2) | |
2168 | fixtrunctab[(int) DFmode][(int) QImode][0] = CODE_FOR_fix_truncdfqi2; | |
2169 | #endif | |
2170 | #ifdef HAVE_fix_truncdfhi2 | |
2171 | if (HAVE_fix_truncdfhi2) | |
2172 | fixtrunctab[(int) DFmode][(int) HImode][0] = CODE_FOR_fix_truncdfhi2; | |
2173 | #endif | |
2174 | #ifdef HAVE_fix_truncdfsi2 | |
2175 | if (HAVE_fix_truncdfsi2) | |
2176 | fixtrunctab[(int) DFmode][(int) SImode][0] = CODE_FOR_fix_truncdfsi2; | |
2177 | #endif | |
2178 | #ifdef HAVE_fix_truncdfdi2 | |
2179 | if (HAVE_fix_truncdfdi2) | |
2180 | fixtrunctab[(int) DFmode][(int) DImode][0] = CODE_FOR_fix_truncdfdi2; | |
2181 | #endif | |
2182 | #ifdef HAVE_fix_truncdfti2 | |
2183 | if (HAVE_fix_truncdfti2) | |
2184 | fixtrunctab[(int) DFmode][(int) TImode][0] = CODE_FOR_fix_truncdfti2; | |
2185 | #endif | |
2186 | ||
2187 | #ifdef HAVE_fix_trunctfqi2 | |
2188 | if (HAVE_fix_trunctfqi2) | |
2189 | fixtrunctab[(int) TFmode][(int) QImode][0] = CODE_FOR_fix_trunctfqi2; | |
2190 | #endif | |
2191 | #ifdef HAVE_fix_trunctfhi2 | |
2192 | if (HAVE_fix_trunctfhi2) | |
2193 | fixtrunctab[(int) TFmode][(int) HImode][0] = CODE_FOR_fix_trunctfhi2; | |
2194 | #endif | |
2195 | #ifdef HAVE_fix_trunctfsi2 | |
2196 | if (HAVE_fix_trunctfsi2) | |
2197 | fixtrunctab[(int) TFmode][(int) SImode][0] = CODE_FOR_fix_trunctfsi2; | |
2198 | #endif | |
2199 | #ifdef HAVE_fix_trunctfdi2 | |
2200 | if (HAVE_fix_trunctfdi2) | |
2201 | fixtrunctab[(int) TFmode][(int) DImode][0] = CODE_FOR_fix_trunctfdi2; | |
2202 | #endif | |
2203 | #ifdef HAVE_fix_trunctfti2 | |
2204 | if (HAVE_fix_trunctfti2) | |
2205 | fixtrunctab[(int) TFmode][(int) TImode][0] = CODE_FOR_fix_trunctfti2; | |
2206 | #endif | |
2207 | ||
2208 | #ifdef HAVE_fixuns_truncsfqi2 | |
2209 | if (HAVE_fixuns_truncsfqi2) | |
2210 | fixtrunctab[(int) SFmode][(int) QImode][1] = CODE_FOR_fixuns_truncsfqi2; | |
2211 | #endif | |
2212 | #ifdef HAVE_fixuns_truncsfhi2 | |
2213 | if (HAVE_fixuns_truncsfhi2) | |
2214 | fixtrunctab[(int) SFmode][(int) HImode][1] = CODE_FOR_fixuns_truncsfhi2; | |
2215 | #endif | |
2216 | #ifdef HAVE_fixuns_truncsfsi2 | |
2217 | if (HAVE_fixuns_truncsfsi2) | |
2218 | fixtrunctab[(int) SFmode][(int) SImode][1] = CODE_FOR_fixuns_truncsfsi2; | |
2219 | #endif | |
2220 | #ifdef HAVE_fixuns_truncsfdi2 | |
2221 | if (HAVE_fixuns_truncsfdi2) | |
2222 | fixtrunctab[(int) SFmode][(int) DImode][1] = CODE_FOR_fixuns_truncsfdi2; | |
2223 | #endif | |
2224 | ||
2225 | #ifdef HAVE_fixuns_truncdfqi2 | |
2226 | if (HAVE_fixuns_truncdfqi2) | |
2227 | fixtrunctab[(int) DFmode][(int) QImode][1] = CODE_FOR_fixuns_truncdfqi2; | |
2228 | #endif | |
2229 | #ifdef HAVE_fixuns_truncdfhi2 | |
2230 | if (HAVE_fixuns_truncdfhi2) | |
2231 | fixtrunctab[(int) DFmode][(int) HImode][1] = CODE_FOR_fixuns_truncdfhi2; | |
2232 | #endif | |
2233 | #ifdef HAVE_fixuns_truncdfsi2 | |
2234 | if (HAVE_fixuns_truncdfsi2) | |
2235 | fixtrunctab[(int) DFmode][(int) SImode][1] = CODE_FOR_fixuns_truncdfsi2; | |
2236 | #endif | |
2237 | #ifdef HAVE_fixuns_truncdfdi2 | |
2238 | if (HAVE_fixuns_truncdfdi2) | |
2239 | fixtrunctab[(int) DFmode][(int) DImode][1] = CODE_FOR_fixuns_truncdfdi2; | |
2240 | #endif | |
2241 | #ifdef HAVE_fixuns_truncdfti2 | |
2242 | if (HAVE_fixuns_truncdfti2) | |
2243 | fixtrunctab[(int) DFmode][(int) TImode][1] = CODE_FOR_fixuns_truncdfti2; | |
2244 | #endif | |
2245 | ||
2246 | #ifdef HAVE_fixuns_trunctfqi2 | |
2247 | if (HAVE_fixuns_trunctfqi2) | |
2248 | fixtrunctab[(int) TFmode][(int) QImode][1] = CODE_FOR_fixuns_trunctfqi2; | |
2249 | #endif | |
2250 | #ifdef HAVE_fixuns_trunctfhi2 | |
2251 | if (HAVE_fixuns_trunctfhi2) | |
2252 | fixtrunctab[(int) TFmode][(int) HImode][1] = CODE_FOR_fixuns_trunctfhi2; | |
2253 | #endif | |
2254 | #ifdef HAVE_fixuns_trunctfsi2 | |
2255 | if (HAVE_fixuns_trunctfsi2) | |
2256 | fixtrunctab[(int) TFmode][(int) SImode][1] = CODE_FOR_fixuns_trunctfsi2; | |
2257 | #endif | |
2258 | #ifdef HAVE_fixuns_trunctfdi2 | |
2259 | if (HAVE_fixuns_trunctfdi2) | |
2260 | fixtrunctab[(int) TFmode][(int) DImode][1] = CODE_FOR_fixuns_trunctfdi2; | |
2261 | #endif | |
2262 | #ifdef HAVE_fixuns_trunctfti2 | |
2263 | if (HAVE_fixuns_trunctfti2) | |
2264 | fixtrunctab[(int) TFmode][(int) TImode][1] = CODE_FOR_fixuns_trunctfti2; | |
2265 | #endif | |
2266 | ||
2267 | #ifdef FIXUNS_TRUNC_LIKE_FIX_TRUNC | |
2268 | /* This flag says the same insns that convert to a signed fixnum | |
2269 | also convert validly to an unsigned one. */ | |
2270 | { | |
2271 | int i; | |
2272 | int j; | |
2273 | for (i = 0; i < NUM_MACHINE_MODES; i++) | |
2274 | for (j = 0; j < NUM_MACHINE_MODES; j++) | |
2275 | fixtrunctab[i][j][1] = fixtrunctab[i][j][0]; | |
2276 | } | |
2277 | #endif | |
2278 | } | |
2279 | ||
2280 | void | |
2281 | init_floattab () | |
2282 | { | |
2283 | enum insn_code *p; | |
2284 | for (p = floattab[0][0]; | |
2285 | p < floattab[0][0] + sizeof floattab / sizeof (floattab[0][0][0]); | |
2286 | p++) | |
2287 | *p = CODE_FOR_nothing; | |
2288 | ||
2289 | #ifdef HAVE_floatqisf2 | |
2290 | if (HAVE_floatqisf2) | |
2291 | floattab[(int) SFmode][(int) QImode][0] = CODE_FOR_floatqisf2; | |
2292 | #endif | |
2293 | #ifdef HAVE_floathisf2 | |
2294 | if (HAVE_floathisf2) | |
2295 | floattab[(int) SFmode][(int) HImode][0] = CODE_FOR_floathisf2; | |
2296 | #endif | |
2297 | #ifdef HAVE_floatsisf2 | |
2298 | if (HAVE_floatsisf2) | |
2299 | floattab[(int) SFmode][(int) SImode][0] = CODE_FOR_floatsisf2; | |
2300 | #endif | |
2301 | #ifdef HAVE_floatdisf2 | |
2302 | if (HAVE_floatdisf2) | |
2303 | floattab[(int) SFmode][(int) DImode][0] = CODE_FOR_floatdisf2; | |
2304 | #endif | |
2305 | #ifdef HAVE_floattisf2 | |
2306 | if (HAVE_floattisf2) | |
2307 | floattab[(int) SFmode][(int) TImode][0] = CODE_FOR_floattisf2; | |
2308 | #endif | |
2309 | ||
2310 | #ifdef HAVE_floatqidf2 | |
2311 | if (HAVE_floatqidf2) | |
2312 | floattab[(int) DFmode][(int) QImode][0] = CODE_FOR_floatqidf2; | |
2313 | #endif | |
2314 | #ifdef HAVE_floathidf2 | |
2315 | if (HAVE_floathidf2) | |
2316 | floattab[(int) DFmode][(int) HImode][0] = CODE_FOR_floathidf2; | |
2317 | #endif | |
2318 | #ifdef HAVE_floatsidf2 | |
2319 | if (HAVE_floatsidf2) | |
2320 | floattab[(int) DFmode][(int) SImode][0] = CODE_FOR_floatsidf2; | |
2321 | #endif | |
2322 | #ifdef HAVE_floatdidf2 | |
2323 | if (HAVE_floatdidf2) | |
2324 | floattab[(int) DFmode][(int) DImode][0] = CODE_FOR_floatdidf2; | |
2325 | #endif | |
2326 | #ifdef HAVE_floattidf2 | |
2327 | if (HAVE_floattidf2) | |
2328 | floattab[(int) DFmode][(int) TImode][0] = CODE_FOR_floattidf2; | |
2329 | #endif | |
2330 | ||
2331 | #ifdef HAVE_floatqitf2 | |
2332 | if (HAVE_floatqitf2) | |
2333 | floattab[(int) TFmode][(int) QImode][0] = CODE_FOR_floatqitf2; | |
2334 | #endif | |
2335 | #ifdef HAVE_floathitf2 | |
2336 | if (HAVE_floathitf2) | |
2337 | floattab[(int) TFmode][(int) HImode][0] = CODE_FOR_floathitf2; | |
2338 | #endif | |
2339 | #ifdef HAVE_floatsitf2 | |
2340 | if (HAVE_floatsitf2) | |
2341 | floattab[(int) TFmode][(int) SImode][0] = CODE_FOR_floatsitf2; | |
2342 | #endif | |
2343 | #ifdef HAVE_floatditf2 | |
2344 | if (HAVE_floatditf2) | |
2345 | floattab[(int) TFmode][(int) DImode][0] = CODE_FOR_floatditf2; | |
2346 | #endif | |
2347 | #ifdef HAVE_floattitf2 | |
2348 | if (HAVE_floattitf2) | |
2349 | floattab[(int) TFmode][(int) TImode][0] = CODE_FOR_floattitf2; | |
2350 | #endif | |
2351 | ||
2352 | #ifdef HAVE_floatunsqisf2 | |
2353 | if (HAVE_floatunsqisf2) | |
2354 | floattab[(int) SFmode][(int) QImode][1] = CODE_FOR_floatunsqisf2; | |
2355 | #endif | |
2356 | #ifdef HAVE_floatunshisf2 | |
2357 | if (HAVE_floatunshisf2) | |
2358 | floattab[(int) SFmode][(int) HImode][1] = CODE_FOR_floatunshisf2; | |
2359 | #endif | |
2360 | #ifdef HAVE_floatunssisf2 | |
2361 | if (HAVE_floatunssisf2) | |
2362 | floattab[(int) SFmode][(int) SImode][1] = CODE_FOR_floatunssisf2; | |
2363 | #endif | |
2364 | #ifdef HAVE_floatunsdisf2 | |
2365 | if (HAVE_floatunsdisf2) | |
2366 | floattab[(int) SFmode][(int) DImode][1] = CODE_FOR_floatunsdisf2; | |
2367 | #endif | |
2368 | #ifdef HAVE_floatunstisf2 | |
2369 | if (HAVE_floatunstisf2) | |
2370 | floattab[(int) SFmode][(int) TImode][1] = CODE_FOR_floatunstisf2; | |
2371 | #endif | |
2372 | ||
2373 | #ifdef HAVE_floatunsqidf2 | |
2374 | if (HAVE_floatunsqidf2) | |
2375 | floattab[(int) DFmode][(int) QImode][1] = CODE_FOR_floatunsqidf2; | |
2376 | #endif | |
2377 | #ifdef HAVE_floatunshidf2 | |
2378 | if (HAVE_floatunshidf2) | |
2379 | floattab[(int) DFmode][(int) HImode][1] = CODE_FOR_floatunshidf2; | |
2380 | #endif | |
2381 | #ifdef HAVE_floatunssidf2 | |
2382 | if (HAVE_floatunssidf2) | |
2383 | floattab[(int) DFmode][(int) SImode][1] = CODE_FOR_floatunssidf2; | |
2384 | #endif | |
2385 | #ifdef HAVE_floatunsdidf2 | |
2386 | if (HAVE_floatunsdidf2) | |
2387 | floattab[(int) DFmode][(int) DImode][1] = CODE_FOR_floatunsdidf2; | |
2388 | #endif | |
2389 | #ifdef HAVE_floatunstidf2 | |
2390 | if (HAVE_floatunstidf2) | |
2391 | floattab[(int) DFmode][(int) TImode][1] = CODE_FOR_floatunstidf2; | |
2392 | #endif | |
2393 | ||
2394 | #ifdef HAVE_floatunsqitf2 | |
2395 | if (HAVE_floatunsqitf2) | |
2396 | floattab[(int) TFmode][(int) QImode][1] = CODE_FOR_floatunsqitf2; | |
2397 | #endif | |
2398 | #ifdef HAVE_floatunshitf2 | |
2399 | if (HAVE_floatunshitf2) | |
2400 | floattab[(int) TFmode][(int) HImode][1] = CODE_FOR_floatunshitf2; | |
2401 | #endif | |
2402 | #ifdef HAVE_floatunssitf2 | |
2403 | if (HAVE_floatunssitf2) | |
2404 | floattab[(int) TFmode][(int) SImode][1] = CODE_FOR_floatunssitf2; | |
2405 | #endif | |
2406 | #ifdef HAVE_floatunsditf2 | |
2407 | if (HAVE_floatunsditf2) | |
2408 | floattab[(int) TFmode][(int) DImode][1] = CODE_FOR_floatunsditf2; | |
2409 | #endif | |
2410 | #ifdef HAVE_floatunstitf2 | |
2411 | if (HAVE_floatunstitf2) | |
2412 | floattab[(int) TFmode][(int) TImode][1] = CODE_FOR_floatunstitf2; | |
2413 | #endif | |
2414 | } | |
2415 | \f | |
2416 | /* Generate code to convert FROM to floating point | |
34e56753 | 2417 | and store in TO. FROM must be fixed point and not VOIDmode. |
77c9c6c2 RK |
2418 | UNSIGNEDP nonzero means regard FROM as unsigned. |
2419 | Normally this is done by correcting the final value | |
2420 | if it is negative. */ | |
2421 | ||
2422 | void | |
2423 | expand_float (to, from, unsignedp) | |
2424 | rtx to, from; | |
2425 | int unsignedp; | |
2426 | { | |
2427 | enum insn_code icode; | |
2428 | register rtx target = to; | |
2429 | enum machine_mode fmode, imode; | |
2430 | ||
34e56753 RS |
2431 | /* Crash now, because we won't be able to decide which mode to use. */ |
2432 | if (GET_MODE (from) == VOIDmode) | |
2433 | abort (); | |
2434 | ||
77c9c6c2 RK |
2435 | /* Look for an insn to do the conversion. Do it in the specified |
2436 | modes if possible; otherwise convert either input, output or both to | |
2437 | wider mode. If the integer mode is wider than the mode of FROM, | |
2438 | we can do the conversion signed even if the input is unsigned. */ | |
2439 | ||
2440 | for (imode = GET_MODE (from); imode != VOIDmode; | |
2441 | imode = GET_MODE_WIDER_MODE (imode)) | |
2442 | for (fmode = GET_MODE (to); fmode != VOIDmode; | |
2443 | fmode = GET_MODE_WIDER_MODE (fmode)) | |
2444 | { | |
2445 | int doing_unsigned = unsignedp; | |
2446 | ||
2447 | icode = can_float_p (fmode, imode, unsignedp); | |
2448 | if (icode == CODE_FOR_nothing && imode != GET_MODE (from) && unsignedp) | |
2449 | icode = can_float_p (fmode, imode, 0), doing_unsigned = 0; | |
2450 | ||
2451 | if (icode != CODE_FOR_nothing) | |
2452 | { | |
2453 | to = protect_from_queue (to, 1); | |
2454 | ||
2455 | if (imode != GET_MODE (from)) | |
2456 | from = convert_to_mode (imode, from, unsignedp); | |
2457 | else | |
2458 | from = protect_from_queue (from, 0); | |
2459 | ||
2460 | if (fmode != GET_MODE (to)) | |
2461 | target = gen_reg_rtx (fmode); | |
2462 | ||
2463 | emit_unop_insn (icode, target, from, | |
2464 | doing_unsigned ? UNSIGNED_FLOAT : FLOAT); | |
2465 | ||
2466 | if (target != to) | |
2467 | convert_move (to, target, 0); | |
2468 | return; | |
2469 | } | |
2470 | } | |
2471 | ||
2472 | #if !defined (REAL_IS_NOT_DOUBLE) || defined (REAL_ARITHMETIC) | |
2473 | ||
2474 | /* Unsigned integer, and no way to convert directly. | |
2475 | Convert as signed, then conditionally adjust the result. */ | |
2476 | if (unsignedp) | |
2477 | { | |
2478 | rtx label = gen_label_rtx (); | |
2479 | rtx temp; | |
2480 | REAL_VALUE_TYPE offset; | |
2481 | ||
2482 | emit_queue (); | |
2483 | ||
2484 | to = protect_from_queue (to, 1); | |
2485 | from = protect_from_queue (from, 0); | |
2486 | ||
2487 | if (flag_force_mem) | |
2488 | from = force_not_mem (from); | |
2489 | ||
2490 | /* If we are about to do some arithmetic to correct for an | |
2491 | unsigned operand, do it in a pseudo-register. */ | |
2492 | ||
2493 | if (GET_CODE (to) != REG || REGNO (to) <= LAST_VIRTUAL_REGISTER) | |
2494 | target = gen_reg_rtx (GET_MODE (to)); | |
2495 | ||
2496 | /* Convert as signed integer to floating. */ | |
2497 | expand_float (target, from, 0); | |
2498 | ||
2499 | /* If FROM is negative (and therefore TO is negative), | |
2500 | correct its value by 2**bitwidth. */ | |
2501 | ||
2502 | do_pending_stack_adjust (); | |
2503 | emit_cmp_insn (from, const0_rtx, GE, 0, GET_MODE (from), 0, 0); | |
2504 | emit_jump_insn (gen_bge (label)); | |
2505 | /* On SCO 3.2.1, ldexp rejects values outside [0.5, 1). | |
2506 | Rather than setting up a dconst_dot_5, let's hope SCO | |
2507 | fixes the bug. */ | |
2508 | offset = REAL_VALUE_LDEXP (dconst1, GET_MODE_BITSIZE (GET_MODE (from))); | |
2509 | temp = expand_binop (GET_MODE (to), add_optab, target, | |
2510 | immed_real_const_1 (offset, GET_MODE (to)), | |
2511 | target, 0, OPTAB_LIB_WIDEN); | |
2512 | if (temp != target) | |
2513 | emit_move_insn (target, temp); | |
2514 | do_pending_stack_adjust (); | |
2515 | emit_label (label); | |
2516 | } | |
2517 | else | |
2518 | #endif | |
2519 | ||
2520 | /* No hardware instruction available; call a library | |
2521 | to convert from SImode or DImode into SFmode or DFmode. */ | |
2522 | { | |
6bce1b78 | 2523 | rtx libfcn; |
77c9c6c2 RK |
2524 | rtx insns; |
2525 | ||
2526 | to = protect_from_queue (to, 1); | |
2527 | ||
2528 | if (GET_MODE_SIZE (GET_MODE (from)) < GET_MODE_SIZE (SImode)) | |
2529 | from = convert_to_mode (SImode, from, unsignedp); | |
2530 | else | |
2531 | from = protect_from_queue (from, 0); | |
2532 | ||
2533 | if (flag_force_mem) | |
2534 | from = force_not_mem (from); | |
2535 | ||
2536 | if (GET_MODE (to) == SFmode) | |
2537 | { | |
2538 | if (GET_MODE (from) == SImode) | |
6bce1b78 | 2539 | libfcn = floatsisf_libfunc; |
77c9c6c2 | 2540 | else if (GET_MODE (from) == DImode) |
6bce1b78 | 2541 | libfcn = floatdisf_libfunc; |
77c9c6c2 RK |
2542 | else |
2543 | abort (); | |
2544 | } | |
2545 | else if (GET_MODE (to) == DFmode) | |
2546 | { | |
2547 | if (GET_MODE (from) == SImode) | |
6bce1b78 | 2548 | libfcn = floatsidf_libfunc; |
77c9c6c2 | 2549 | else if (GET_MODE (from) == DImode) |
6bce1b78 | 2550 | libfcn = floatdidf_libfunc; |
77c9c6c2 RK |
2551 | else |
2552 | abort (); | |
2553 | } | |
2554 | else | |
2555 | abort (); | |
2556 | ||
2557 | start_sequence (); | |
2558 | ||
6bce1b78 | 2559 | emit_library_call (libfcn, 0, GET_MODE (to), 1, from, GET_MODE (from)); |
77c9c6c2 RK |
2560 | insns = get_insns (); |
2561 | end_sequence (); | |
2562 | ||
2563 | emit_libcall_block (insns, target, hard_libcall_value (GET_MODE (to)), | |
2564 | gen_rtx (FLOAT, GET_MODE (to), from)); | |
2565 | } | |
2566 | ||
2567 | /* Copy result to requested destination | |
2568 | if we have been computing in a temp location. */ | |
2569 | ||
2570 | if (target != to) | |
2571 | { | |
2572 | if (GET_MODE (target) == GET_MODE (to)) | |
2573 | emit_move_insn (to, target); | |
2574 | else | |
2575 | convert_move (to, target, 0); | |
2576 | } | |
2577 | } | |
2578 | \f | |
2579 | /* expand_fix: generate code to convert FROM to fixed point | |
2580 | and store in TO. FROM must be floating point. */ | |
2581 | ||
2582 | static rtx | |
2583 | ftruncify (x) | |
2584 | rtx x; | |
2585 | { | |
2586 | rtx temp = gen_reg_rtx (GET_MODE (x)); | |
2587 | return expand_unop (GET_MODE (x), ftrunc_optab, x, temp, 0); | |
2588 | } | |
2589 | ||
2590 | void | |
2591 | expand_fix (to, from, unsignedp) | |
2592 | register rtx to, from; | |
2593 | int unsignedp; | |
2594 | { | |
2595 | enum insn_code icode; | |
2596 | register rtx target = to; | |
2597 | enum machine_mode fmode, imode; | |
2598 | int must_trunc = 0; | |
6bce1b78 | 2599 | rtx libfcn = 0; |
77c9c6c2 RK |
2600 | |
2601 | /* We first try to find a pair of modes, one real and one integer, at | |
2602 | least as wide as FROM and TO, respectively, in which we can open-code | |
2603 | this conversion. If the integer mode is wider than the mode of TO, | |
2604 | we can do the conversion either signed or unsigned. */ | |
2605 | ||
2606 | for (imode = GET_MODE (to); imode != VOIDmode; | |
2607 | imode = GET_MODE_WIDER_MODE (imode)) | |
2608 | for (fmode = GET_MODE (from); fmode != VOIDmode; | |
2609 | fmode = GET_MODE_WIDER_MODE (fmode)) | |
2610 | { | |
2611 | int doing_unsigned = unsignedp; | |
2612 | ||
2613 | icode = can_fix_p (imode, fmode, unsignedp, &must_trunc); | |
2614 | if (icode == CODE_FOR_nothing && imode != GET_MODE (to) && unsignedp) | |
2615 | icode = can_fix_p (imode, fmode, 0, &must_trunc), doing_unsigned = 0; | |
2616 | ||
2617 | if (icode != CODE_FOR_nothing) | |
2618 | { | |
2619 | to = protect_from_queue (to, 1); | |
2620 | ||
2621 | if (fmode != GET_MODE (from)) | |
2622 | from = convert_to_mode (fmode, from, 0); | |
2623 | else | |
2624 | from = protect_from_queue (from, 0); | |
2625 | ||
2626 | if (must_trunc) | |
2627 | from = ftruncify (from); | |
2628 | ||
2629 | if (imode != GET_MODE (to)) | |
2630 | target = gen_reg_rtx (imode); | |
2631 | ||
2632 | emit_unop_insn (icode, target, from, | |
2633 | doing_unsigned ? UNSIGNED_FIX : FIX); | |
2634 | if (target != to) | |
2635 | convert_move (to, target, unsignedp); | |
2636 | return; | |
2637 | } | |
2638 | } | |
2639 | ||
2640 | #if !defined (REAL_IS_NOT_DOUBLE) || defined (REAL_ARITHMETIC) | |
2641 | /* For an unsigned conversion, there is one more way to do it. | |
2642 | If we have a signed conversion, we generate code that compares | |
2643 | the real value to the largest representable positive number. If if | |
2644 | is smaller, the conversion is done normally. Otherwise, subtract | |
2645 | one plus the highest signed number, convert, and add it back. | |
2646 | ||
2647 | We only need to check all real modes, since we know we didn't find | |
2648 | anything with a wider inetger mode. */ | |
2649 | ||
2650 | if (unsignedp && GET_MODE_BITSIZE (GET_MODE (to)) <= HOST_BITS_PER_INT) | |
2651 | for (fmode = GET_MODE (from); fmode != VOIDmode; | |
2652 | fmode = GET_MODE_WIDER_MODE (fmode)) | |
2653 | /* Make sure we won't lose significant bits doing this. */ | |
2654 | if (GET_MODE_BITSIZE (fmode) > GET_MODE_BITSIZE (GET_MODE (to)) | |
2655 | && CODE_FOR_nothing != can_fix_p (GET_MODE (to), fmode, 0, | |
2656 | &must_trunc)) | |
2657 | { | |
2658 | int bitsize = GET_MODE_BITSIZE (GET_MODE (to)); | |
2659 | REAL_VALUE_TYPE offset = REAL_VALUE_LDEXP (dconst1, bitsize - 1); | |
2660 | rtx limit = immed_real_const_1 (offset, fmode); | |
2661 | rtx lab1 = gen_label_rtx (); | |
2662 | rtx lab2 = gen_label_rtx (); | |
2663 | rtx insn; | |
2664 | ||
2665 | emit_queue (); | |
2666 | to = protect_from_queue (to, 1); | |
2667 | from = protect_from_queue (from, 0); | |
2668 | ||
2669 | if (flag_force_mem) | |
2670 | from = force_not_mem (from); | |
2671 | ||
2672 | if (fmode != GET_MODE (from)) | |
2673 | from = convert_to_mode (fmode, from, 0); | |
2674 | ||
2675 | /* See if we need to do the subtraction. */ | |
2676 | do_pending_stack_adjust (); | |
2677 | emit_cmp_insn (from, limit, GE, 0, GET_MODE (from), 0, 0); | |
2678 | emit_jump_insn (gen_bge (lab1)); | |
2679 | ||
2680 | /* If not, do the signed "fix" and branch around fixup code. */ | |
2681 | expand_fix (to, from, 0); | |
2682 | emit_jump_insn (gen_jump (lab2)); | |
2683 | emit_barrier (); | |
2684 | ||
2685 | /* Otherwise, subtract 2**(N-1), convert to signed number, | |
2686 | then add 2**(N-1). Do the addition using XOR since this | |
2687 | will often generate better code. */ | |
2688 | emit_label (lab1); | |
2689 | target = expand_binop (GET_MODE (from), sub_optab, from, limit, | |
2690 | 0, 0, OPTAB_LIB_WIDEN); | |
2691 | expand_fix (to, target, 0); | |
2692 | target = expand_binop (GET_MODE (to), xor_optab, to, | |
2693 | gen_rtx (CONST_INT, VOIDmode, | |
2694 | 1 << (bitsize - 1)), | |
2695 | to, 1, OPTAB_LIB_WIDEN); | |
2696 | ||
2697 | if (target != to) | |
2698 | emit_move_insn (to, target); | |
2699 | ||
2700 | emit_label (lab2); | |
2701 | ||
2702 | /* Make a place for a REG_NOTE and add it. */ | |
2703 | insn = emit_move_insn (to, to); | |
2704 | REG_NOTES (insn) = gen_rtx (EXPR_LIST, REG_EQUAL, | |
2705 | gen_rtx (UNSIGNED_FIX, GET_MODE (to), | |
2706 | from), REG_NOTES (insn)); | |
2707 | ||
2708 | return; | |
2709 | } | |
2710 | #endif | |
2711 | ||
2712 | /* We can't do it with an insn, so use a library call. But first ensure | |
2713 | that the mode of TO is at least as wide as SImode, since those are the | |
2714 | only library calls we know about. */ | |
2715 | ||
2716 | if (GET_MODE_SIZE (GET_MODE (to)) < GET_MODE_SIZE (SImode)) | |
2717 | { | |
2718 | target = gen_reg_rtx (SImode); | |
2719 | ||
2720 | expand_fix (target, from, unsignedp); | |
2721 | } | |
2722 | else if (GET_MODE (from) == SFmode) | |
2723 | { | |
2724 | if (GET_MODE (to) == SImode) | |
6bce1b78 | 2725 | libfcn = unsignedp ? fixunssfsi_libfunc : fixsfsi_libfunc; |
77c9c6c2 | 2726 | else if (GET_MODE (to) == DImode) |
6bce1b78 | 2727 | libfcn = unsignedp ? fixunssfdi_libfunc : fixsfdi_libfunc; |
77c9c6c2 RK |
2728 | else |
2729 | abort (); | |
2730 | } | |
2731 | else if (GET_MODE (from) == DFmode) | |
2732 | { | |
2733 | if (GET_MODE (to) == SImode) | |
6bce1b78 | 2734 | libfcn = unsignedp ? fixunsdfsi_libfunc : fixdfsi_libfunc; |
77c9c6c2 | 2735 | else if (GET_MODE (to) == DImode) |
6bce1b78 | 2736 | libfcn = unsignedp ? fixunsdfdi_libfunc : fixdfdi_libfunc; |
77c9c6c2 RK |
2737 | else |
2738 | abort (); | |
2739 | } | |
2740 | else | |
2741 | abort (); | |
2742 | ||
6bce1b78 | 2743 | if (libfcn) |
77c9c6c2 RK |
2744 | { |
2745 | rtx insns; | |
2746 | ||
2747 | to = protect_from_queue (to, 1); | |
2748 | from = protect_from_queue (from, 0); | |
2749 | ||
2750 | if (flag_force_mem) | |
2751 | from = force_not_mem (from); | |
2752 | ||
2753 | start_sequence (); | |
2754 | ||
6bce1b78 | 2755 | emit_library_call (libfcn, 0, GET_MODE (to), 1, from, GET_MODE (from)); |
77c9c6c2 RK |
2756 | insns = get_insns (); |
2757 | end_sequence (); | |
2758 | ||
2759 | emit_libcall_block (insns, target, hard_libcall_value (GET_MODE (to)), | |
2760 | gen_rtx (unsignedp ? FIX : UNSIGNED_FIX, | |
2761 | GET_MODE (to), from)); | |
2762 | } | |
2763 | ||
2764 | if (GET_MODE (to) == GET_MODE (target)) | |
2765 | emit_move_insn (to, target); | |
2766 | else | |
2767 | convert_move (to, target, 0); | |
2768 | } | |
2769 | \f | |
2770 | static optab | |
2771 | init_optab (code) | |
2772 | enum rtx_code code; | |
2773 | { | |
2774 | int i; | |
2775 | optab op = (optab) xmalloc (sizeof (struct optab)); | |
2776 | op->code = code; | |
2777 | for (i = 0; i < NUM_MACHINE_MODES; i++) | |
2778 | { | |
2779 | op->handlers[i].insn_code = CODE_FOR_nothing; | |
2780 | op->handlers[i].libfunc = 0; | |
2781 | } | |
2782 | return op; | |
2783 | } | |
2784 | ||
2785 | /* Call this once to initialize the contents of the optabs | |
2786 | appropriately for the current target machine. */ | |
2787 | ||
2788 | void | |
2789 | init_optabs () | |
2790 | { | |
2791 | int i; | |
2792 | ||
2793 | init_fixtab (); | |
2794 | init_floattab (); | |
2795 | init_extends (); | |
2796 | ||
2797 | add_optab = init_optab (PLUS); | |
2798 | sub_optab = init_optab (MINUS); | |
2799 | smul_optab = init_optab (MULT); | |
2800 | smul_widen_optab = init_optab (UNKNOWN); | |
2801 | umul_widen_optab = init_optab (UNKNOWN); | |
2802 | sdiv_optab = init_optab (DIV); | |
2803 | sdivmod_optab = init_optab (UNKNOWN); | |
2804 | udiv_optab = init_optab (UDIV); | |
2805 | udivmod_optab = init_optab (UNKNOWN); | |
2806 | smod_optab = init_optab (MOD); | |
2807 | umod_optab = init_optab (UMOD); | |
2808 | flodiv_optab = init_optab (DIV); | |
2809 | ftrunc_optab = init_optab (UNKNOWN); | |
2810 | and_optab = init_optab (AND); | |
2811 | ior_optab = init_optab (IOR); | |
2812 | xor_optab = init_optab (XOR); | |
2813 | ashl_optab = init_optab (ASHIFT); | |
2814 | ashr_optab = init_optab (ASHIFTRT); | |
2815 | lshl_optab = init_optab (LSHIFT); | |
2816 | lshr_optab = init_optab (LSHIFTRT); | |
2817 | rotl_optab = init_optab (ROTATE); | |
2818 | rotr_optab = init_optab (ROTATERT); | |
2819 | smin_optab = init_optab (SMIN); | |
2820 | smax_optab = init_optab (SMAX); | |
2821 | umin_optab = init_optab (UMIN); | |
2822 | umax_optab = init_optab (UMAX); | |
2823 | mov_optab = init_optab (UNKNOWN); | |
2824 | movstrict_optab = init_optab (UNKNOWN); | |
2825 | cmp_optab = init_optab (UNKNOWN); | |
2826 | ucmp_optab = init_optab (UNKNOWN); | |
2827 | tst_optab = init_optab (UNKNOWN); | |
2828 | neg_optab = init_optab (NEG); | |
2829 | abs_optab = init_optab (ABS); | |
2830 | one_cmpl_optab = init_optab (NOT); | |
2831 | ffs_optab = init_optab (FFS); | |
2832 | ||
2833 | #ifdef HAVE_addqi3 | |
2834 | if (HAVE_addqi3) | |
2835 | add_optab->handlers[(int) QImode].insn_code = CODE_FOR_addqi3; | |
2836 | #endif | |
2837 | #ifdef HAVE_addhi3 | |
2838 | if (HAVE_addhi3) | |
2839 | add_optab->handlers[(int) HImode].insn_code = CODE_FOR_addhi3; | |
2840 | #endif | |
2841 | #ifdef HAVE_addpsi3 | |
2842 | if (HAVE_addpsi3) | |
2843 | add_optab->handlers[(int) PSImode].insn_code = CODE_FOR_addpsi3; | |
2844 | #endif | |
2845 | #ifdef HAVE_addsi3 | |
2846 | if (HAVE_addsi3) | |
2847 | add_optab->handlers[(int) SImode].insn_code = CODE_FOR_addsi3; | |
2848 | #endif | |
2849 | #ifdef HAVE_adddi3 | |
2850 | if (HAVE_adddi3) | |
2851 | add_optab->handlers[(int) DImode].insn_code = CODE_FOR_adddi3; | |
2852 | #endif | |
2853 | #ifdef HAVE_addti3 | |
2854 | if (HAVE_addti3) | |
2855 | add_optab->handlers[(int) TImode].insn_code = CODE_FOR_addti3; | |
2856 | #endif | |
2857 | #ifdef HAVE_addsf3 | |
2858 | if (HAVE_addsf3) | |
2859 | add_optab->handlers[(int) SFmode].insn_code = CODE_FOR_addsf3; | |
2860 | #endif | |
2861 | #ifdef HAVE_adddf3 | |
2862 | if (HAVE_adddf3) | |
2863 | add_optab->handlers[(int) DFmode].insn_code = CODE_FOR_adddf3; | |
2864 | #endif | |
2865 | #ifdef HAVE_addtf3 | |
2866 | if (HAVE_addtf3) | |
2867 | add_optab->handlers[(int) TFmode].insn_code = CODE_FOR_addtf3; | |
2868 | #endif | |
2869 | add_optab->handlers[(int) SFmode].libfunc | |
2870 | = gen_rtx (SYMBOL_REF, Pmode, "__addsf3"); | |
2871 | add_optab->handlers[(int) DFmode].libfunc | |
2872 | = gen_rtx (SYMBOL_REF, Pmode, "__adddf3"); | |
2873 | ||
2874 | #ifdef HAVE_subqi3 | |
2875 | if (HAVE_subqi3) | |
2876 | sub_optab->handlers[(int) QImode].insn_code = CODE_FOR_subqi3; | |
2877 | #endif | |
2878 | #ifdef HAVE_subhi3 | |
2879 | if (HAVE_subhi3) | |
2880 | sub_optab->handlers[(int) HImode].insn_code = CODE_FOR_subhi3; | |
2881 | #endif | |
2882 | #ifdef HAVE_subpsi3 | |
2883 | if (HAVE_subpsi3) | |
2884 | sub_optab->handlers[(int) PSImode].insn_code = CODE_FOR_subpsi3; | |
2885 | #endif | |
2886 | #ifdef HAVE_subsi3 | |
2887 | if (HAVE_subsi3) | |
2888 | sub_optab->handlers[(int) SImode].insn_code = CODE_FOR_subsi3; | |
2889 | #endif | |
2890 | #ifdef HAVE_subdi3 | |
2891 | if (HAVE_subdi3) | |
2892 | sub_optab->handlers[(int) DImode].insn_code = CODE_FOR_subdi3; | |
2893 | #endif | |
2894 | #ifdef HAVE_subti3 | |
2895 | if (HAVE_subti3) | |
2896 | sub_optab->handlers[(int) Imode].insn_code = CODE_FOR_subti3; | |
2897 | #endif | |
2898 | #ifdef HAVE_subsf3 | |
2899 | if (HAVE_subsf3) | |
2900 | sub_optab->handlers[(int) SFmode].insn_code = CODE_FOR_subsf3; | |
2901 | #endif | |
2902 | #ifdef HAVE_subdf3 | |
2903 | if (HAVE_subdf3) | |
2904 | sub_optab->handlers[(int) DFmode].insn_code = CODE_FOR_subdf3; | |
2905 | #endif | |
2906 | #ifdef HAVE_subtf3 | |
2907 | if (HAVE_subtf3) | |
2908 | sub_optab->handlers[(int) TFmode].insn_code = CODE_FOR_subtf3; | |
2909 | #endif | |
2910 | sub_optab->handlers[(int) SFmode].libfunc | |
2911 | = gen_rtx (SYMBOL_REF, Pmode, "__subsf3"); | |
2912 | sub_optab->handlers[(int) DFmode].libfunc | |
2913 | = gen_rtx (SYMBOL_REF, Pmode, "__subdf3"); | |
2914 | ||
2915 | #ifdef HAVE_mulqi3 | |
2916 | if (HAVE_mulqi3) | |
2917 | smul_optab->handlers[(int) QImode].insn_code = CODE_FOR_mulqi3; | |
2918 | #endif | |
2919 | #ifdef HAVE_mulhi3 | |
2920 | if (HAVE_mulhi3) | |
2921 | smul_optab->handlers[(int) HImode].insn_code = CODE_FOR_mulhi3; | |
2922 | #endif | |
2923 | #ifdef HAVE_mulpsi3 | |
2924 | if (HAVE_mulpsi3) | |
2925 | smul_optab->handlers[(int) PSImode].insn_code = CODE_FOR_mulpsi3; | |
2926 | #endif | |
2927 | #ifdef HAVE_mulsi3 | |
2928 | if (HAVE_mulsi3) | |
2929 | smul_optab->handlers[(int) SImode].insn_code = CODE_FOR_mulsi3; | |
2930 | #endif | |
2931 | #ifdef HAVE_muldi3 | |
2932 | if (HAVE_muldi3) | |
2933 | smul_optab->handlers[(int) DImode].insn_code = CODE_FOR_muldi3; | |
2934 | #endif | |
2935 | #ifdef HAVE_multi3 | |
2936 | if (HAVE_multi3) | |
2937 | smul_optab->handlers[(int) TImode].insn_code = CODE_FOR_multi3; | |
2938 | #endif | |
2939 | #ifdef HAVE_mulsf3 | |
2940 | if (HAVE_mulsf3) | |
2941 | smul_optab->handlers[(int) SFmode].insn_code = CODE_FOR_mulsf3; | |
2942 | #endif | |
2943 | #ifdef HAVE_muldf3 | |
2944 | if (HAVE_muldf3) | |
2945 | smul_optab->handlers[(int) DFmode].insn_code = CODE_FOR_muldf3; | |
2946 | #endif | |
2947 | #ifdef HAVE_multf3 | |
2948 | if (HAVE_multf3) | |
2949 | smul_optab->handlers[(int) TFmode].insn_code = CODE_FOR_multf3; | |
2950 | #endif | |
2951 | ||
2952 | #ifdef MULSI3_LIBCALL | |
2953 | smul_optab->handlers[(int) SImode].libfunc | |
2954 | = gen_rtx (SYMBOL_REF, Pmode, MULSI3_LIBCALL); | |
2955 | #else | |
2956 | smul_optab->handlers[(int) SImode].libfunc | |
2957 | = gen_rtx (SYMBOL_REF, Pmode, "__mulsi3"); | |
2958 | #endif | |
2959 | #ifdef MULDI3_LIBCALL | |
2960 | smul_optab->handlers[(int) DImode].libfunc | |
2961 | = gen_rtx (SYMBOL_REF, Pmode, MULDI3_LIBCALL); | |
2962 | #else | |
2963 | smul_optab->handlers[(int) DImode].libfunc | |
2964 | = gen_rtx (SYMBOL_REF, Pmode, "__muldi3"); | |
2965 | #endif | |
2966 | smul_optab->handlers[(int) SFmode].libfunc | |
2967 | = gen_rtx (SYMBOL_REF, Pmode, "__mulsf3"); | |
2968 | smul_optab->handlers[(int) DFmode].libfunc | |
2969 | = gen_rtx (SYMBOL_REF, Pmode, "__muldf3"); | |
2970 | ||
2971 | #ifdef HAVE_mulqihi3 | |
2972 | if (HAVE_mulqihi3) | |
2973 | smul_widen_optab->handlers[(int) HImode].insn_code = CODE_FOR_mulqihi3; | |
2974 | #endif | |
2975 | #ifdef HAVE_mulhisi3 | |
2976 | if (HAVE_mulhisi3) | |
2977 | smul_widen_optab->handlers[(int) SImode].insn_code = CODE_FOR_mulhisi3; | |
2978 | #endif | |
2979 | #ifdef HAVE_mulsidi3 | |
2980 | if (HAVE_mulsidi3) | |
2981 | smul_widen_optab->handlers[(int) DImode].insn_code = CODE_FOR_mulsidi3; | |
2982 | #endif | |
2983 | #ifdef HAVE_mulditi3 | |
2984 | if (HAVE_mulditi3) | |
2985 | smul_widen_optab->handlers[(int) TImode].insn_code = CODE_FOR_mulditi3; | |
2986 | #endif | |
2987 | ||
2988 | #ifdef HAVE_umulqihi3 | |
2989 | if (HAVE_umulqihi3) | |
2990 | umul_widen_optab->handlers[(int) HImode].insn_code = CODE_FOR_umulqihi3; | |
2991 | #endif | |
2992 | #ifdef HAVE_umulhisi3 | |
2993 | if (HAVE_umulhisi3) | |
2994 | umul_widen_optab->handlers[(int) SImode].insn_code = CODE_FOR_umulhisi3; | |
2995 | #endif | |
2996 | #ifdef HAVE_umulsidi3 | |
2997 | if (HAVE_umulsidi3) | |
2998 | umul_widen_optab->handlers[(int) DImode].insn_code = CODE_FOR_umulsidi3; | |
2999 | #endif | |
3000 | #ifdef HAVE_umulditi3 | |
3001 | if (HAVE_umulditi3) | |
3002 | umul_widen_optab->handlers[(int) TImode].insn_code = CODE_FOR_umulditi3; | |
3003 | #endif | |
3004 | ||
3005 | #ifdef HAVE_divqi3 | |
3006 | if (HAVE_divqi3) | |
3007 | sdiv_optab->handlers[(int) QImode].insn_code = CODE_FOR_divqi3; | |
3008 | #endif | |
3009 | #ifdef HAVE_divhi3 | |
3010 | if (HAVE_divhi3) | |
3011 | sdiv_optab->handlers[(int) HImode].insn_code = CODE_FOR_divhi3; | |
3012 | #endif | |
3013 | #ifdef HAVE_divpsi3 | |
3014 | if (HAVE_divpsi3) | |
3015 | sdiv_optab->handlers[(int) PSImode].insn_code = CODE_FOR_divpsi3; | |
3016 | #endif | |
3017 | #ifdef HAVE_divsi3 | |
3018 | if (HAVE_divsi3) | |
3019 | sdiv_optab->handlers[(int) SImode].insn_code = CODE_FOR_divsi3; | |
3020 | #endif | |
3021 | #ifdef HAVE_divdi3 | |
3022 | if (HAVE_divdi3) | |
3023 | sdiv_optab->handlers[(int) DImode].insn_code = CODE_FOR_divdi3; | |
3024 | #endif | |
3025 | #ifdef HAVE_divti3 | |
3026 | if (HAVE_divti3) | |
3027 | sdiv_optab->handlers[(int) TImode].insn_code = CODE_FOR_divti3; | |
3028 | #endif | |
3029 | ||
3030 | #ifdef DIVSI3_LIBCALL | |
3031 | sdiv_optab->handlers[(int) SImode].libfunc | |
3032 | = gen_rtx (SYMBOL_REF, Pmode, DIVSI3_LIBCALL); | |
3033 | #else | |
3034 | sdiv_optab->handlers[(int) SImode].libfunc | |
3035 | = gen_rtx (SYMBOL_REF, Pmode, "__divsi3"); | |
3036 | #endif | |
3037 | #ifdef DIVDI3_LIBCALL | |
3038 | sdiv_optab->handlers[(int) DImode].libfunc | |
3039 | = gen_rtx (SYMBOL_REF, Pmode, DIVDI3_LIBCALL); | |
3040 | #else | |
3041 | sdiv_optab->handlers[(int) DImode].libfunc | |
3042 | = gen_rtx (SYMBOL_REF, Pmode, "__divdi3"); | |
3043 | #endif | |
3044 | ||
3045 | #ifdef HAVE_udivqi3 | |
3046 | if (HAVE_udivqi3) | |
3047 | udiv_optab->handlers[(int) QImode].insn_code = CODE_FOR_udivqi3; | |
3048 | #endif | |
3049 | #ifdef HAVE_udivhi3 | |
3050 | if (HAVE_udivhi3) | |
3051 | udiv_optab->handlers[(int) HImode].insn_code = CODE_FOR_udivhi3; | |
3052 | #endif | |
3053 | #ifdef HAVE_udivpsi3 | |
3054 | if (HAVE_udivpsi3) | |
3055 | udiv_optab->handlers[(int) PSImode].insn_code = CODE_FOR_udivpsi3; | |
3056 | #endif | |
3057 | #ifdef HAVE_udivsi3 | |
3058 | if (HAVE_udivsi3) | |
3059 | udiv_optab->handlers[(int) SImode].insn_code = CODE_FOR_udivsi3; | |
3060 | #endif | |
3061 | #ifdef HAVE_udivdi3 | |
3062 | if (HAVE_udivdi3) | |
3063 | udiv_optab->handlers[(int) DImode].insn_code = CODE_FOR_udivdi3; | |
3064 | #endif | |
3065 | #ifdef HAVE_udivti3 | |
3066 | if (HAVE_udivti3) | |
3067 | udiv_optab->handlers[(int) TImode].insn_code = CODE_FOR_udivti3; | |
3068 | #endif | |
3069 | ||
3070 | #ifdef UDIVSI3_LIBCALL | |
3071 | udiv_optab->handlers[(int) SImode].libfunc | |
3072 | = gen_rtx (SYMBOL_REF, Pmode, UDIVSI3_LIBCALL); | |
3073 | #else | |
3074 | udiv_optab->handlers[(int) SImode].libfunc | |
3075 | = gen_rtx (SYMBOL_REF, Pmode, "__udivsi3"); | |
3076 | #endif | |
3077 | #ifdef UDIVDI3_LIBCALL | |
3078 | udiv_optab->handlers[(int) DImode].libfunc | |
3079 | = gen_rtx (SYMBOL_REF, Pmode, UDIVDI3_LIBCALL); | |
3080 | #else | |
3081 | udiv_optab->handlers[(int) DImode].libfunc | |
3082 | = gen_rtx (SYMBOL_REF, Pmode, "__udivdi3"); | |
3083 | #endif | |
3084 | ||
3085 | #ifdef HAVE_divmodqi4 | |
3086 | if (HAVE_divmodqi4) | |
3087 | sdivmod_optab->handlers[(int) QImode].insn_code = CODE_FOR_divmodqi4; | |
3088 | #endif | |
3089 | #ifdef HAVE_divmodhi4 | |
3090 | if (HAVE_divmodhi4) | |
3091 | sdivmod_optab->handlers[(int) HImode].insn_code = CODE_FOR_divmodhi4; | |
3092 | #endif | |
3093 | #ifdef HAVE_divmodsi4 | |
3094 | if (HAVE_divmodsi4) | |
3095 | sdivmod_optab->handlers[(int) SImode].insn_code = CODE_FOR_divmodsi4; | |
3096 | #endif | |
3097 | #ifdef HAVE_divmoddi4 | |
3098 | if (HAVE_divmoddi4) | |
3099 | sdivmod_optab->handlers[(int) DImode].insn_code = CODE_FOR_divmoddi4; | |
3100 | #endif | |
3101 | #ifdef HAVE_divmodti4 | |
3102 | if (HAVE_divmodti4) | |
3103 | sdivmod_optab->handlers[(int) TImode].insn_code = CODE_FOR_divmodti4; | |
3104 | #endif | |
3105 | ||
3106 | #ifdef HAVE_udivmodqi4 | |
3107 | if (HAVE_udivmodqi4) | |
3108 | udivmod_optab->handlers[(int) QImode].insn_code = CODE_FOR_udivmodqi4; | |
3109 | #endif | |
3110 | #ifdef HAVE_udivmodhi4 | |
3111 | if (HAVE_udivmodhi4) | |
3112 | udivmod_optab->handlers[(int) HImode].insn_code = CODE_FOR_udivmodhi4; | |
3113 | #endif | |
3114 | #ifdef HAVE_udivmodsi4 | |
3115 | if (HAVE_udivmodsi4) | |
3116 | udivmod_optab->handlers[(int) SImode].insn_code = CODE_FOR_udivmodsi4; | |
3117 | #endif | |
3118 | #ifdef HAVE_udivmoddi4 | |
3119 | if (HAVE_udivmoddi4) | |
3120 | udivmod_optab->handlers[(int) DImode].insn_code = CODE_FOR_udivmoddi4; | |
3121 | #endif | |
3122 | #ifdef HAVE_udivmodti4 | |
3123 | if (HAVE_udivmodti4) | |
3124 | udivmod_optab->handlers[(int) TImode].insn_code = CODE_FOR_udivmodti4; | |
3125 | #endif | |
3126 | ||
3127 | #ifdef HAVE_modqi3 | |
3128 | if (HAVE_modqi3) | |
3129 | smod_optab->handlers[(int) QImode].insn_code = CODE_FOR_modqi3; | |
3130 | #endif | |
3131 | #ifdef HAVE_modhi3 | |
3132 | if (HAVE_modhi3) | |
3133 | smod_optab->handlers[(int) HImode].insn_code = CODE_FOR_modhi3; | |
3134 | #endif | |
3135 | #ifdef HAVE_modpsi3 | |
3136 | if (HAVE_modpsi3) | |
3137 | smod_optab->handlers[(int) PSImode].insn_code = CODE_FOR_modpsi3; | |
3138 | #endif | |
3139 | #ifdef HAVE_modsi3 | |
3140 | if (HAVE_modsi3) | |
3141 | smod_optab->handlers[(int) SImode].insn_code = CODE_FOR_modsi3; | |
3142 | #endif | |
3143 | #ifdef HAVE_moddi3 | |
3144 | if (HAVE_moddi3) | |
3145 | smod_optab->handlers[(int) DImode].insn_code = CODE_FOR_moddi3; | |
3146 | #endif | |
3147 | #ifdef HAVE_modti3 | |
3148 | if (HAVE_modti3) | |
3149 | smod_optab->handlers[(int) TImode].insn_code = CODE_FOR_modti3; | |
3150 | #endif | |
3151 | ||
3152 | #ifdef MODSI3_LIBCALL | |
3153 | smod_optab->handlers[(int) SImode].libfunc | |
3154 | = gen_rtx (SYMBOL_REF, Pmode, MODSI3_LIBCALL); | |
3155 | #else | |
3156 | smod_optab->handlers[(int) SImode].libfunc | |
3157 | = gen_rtx (SYMBOL_REF, Pmode, "__modsi3"); | |
3158 | #endif | |
3159 | #ifdef MODDI3_LIBCALL | |
3160 | smod_optab->handlers[(int) DImode].libfunc | |
3161 | = gen_rtx (SYMBOL_REF, Pmode, MODDI3_LIBCALL); | |
3162 | #else | |
3163 | smod_optab->handlers[(int) DImode].libfunc | |
3164 | = gen_rtx (SYMBOL_REF, Pmode, "__moddi3"); | |
3165 | #endif | |
3166 | ||
3167 | #ifdef HAVE_umodqi3 | |
3168 | if (HAVE_umodqi3) | |
3169 | umod_optab->handlers[(int) QImode].insn_code = CODE_FOR_umodqi3; | |
3170 | #endif | |
3171 | #ifdef HAVE_umodhi3 | |
3172 | if (HAVE_umodhi3) | |
3173 | umod_optab->handlers[(int) HImode].insn_code = CODE_FOR_umodhi3; | |
3174 | #endif | |
3175 | #ifdef HAVE_umodpsi3 | |
3176 | if (HAVE_umodpsi3) | |
3177 | umod_optab->handlers[(int) PSImode].insn_code = CODE_FOR_umodpsi3; | |
3178 | #endif | |
3179 | #ifdef HAVE_umodsi3 | |
3180 | if (HAVE_umodsi3) | |
3181 | umod_optab->handlers[(int) SImode].insn_code = CODE_FOR_umodsi3; | |
3182 | #endif | |
3183 | #ifdef HAVE_umoddi3 | |
3184 | if (HAVE_umoddi3) | |
3185 | umod_optab->handlers[(int) DImode].insn_code = CODE_FOR_umoddi3; | |
3186 | #endif | |
3187 | #ifdef HAVE_umodti3 | |
3188 | if (HAVE_umodti3) | |
3189 | umod_optab->handlers[(int) TImode].insn_code = CODE_FOR_umodti3; | |
3190 | #endif | |
3191 | ||
3192 | #ifdef UMODSI3_LIBCALL | |
3193 | umod_optab->handlers[(int) SImode].libfunc | |
3194 | = gen_rtx (SYMBOL_REF, Pmode, UMODSI3_LIBCALL); | |
3195 | #else | |
3196 | umod_optab->handlers[(int) SImode].libfunc | |
3197 | = gen_rtx (SYMBOL_REF, Pmode, "__umodsi3"); | |
3198 | #endif | |
3199 | #ifdef UMODDI3_LIBCALL | |
3200 | umod_optab->handlers[(int) DImode].libfunc | |
3201 | = gen_rtx (SYMBOL_REF, Pmode, UMODDI3_LIBCALL); | |
3202 | #else | |
3203 | umod_optab->handlers[(int) DImode].libfunc | |
3204 | = gen_rtx (SYMBOL_REF, Pmode, "__umoddi3"); | |
3205 | #endif | |
3206 | ||
3207 | #ifdef HAVE_divsf3 | |
3208 | if (HAVE_divsf3) | |
3209 | flodiv_optab->handlers[(int) SFmode].insn_code = CODE_FOR_divsf3; | |
3210 | #endif | |
3211 | #ifdef HAVE_divdf3 | |
3212 | if (HAVE_divdf3) | |
3213 | flodiv_optab->handlers[(int) DFmode].insn_code = CODE_FOR_divdf3; | |
3214 | #endif | |
3215 | #ifdef HAVE_divtf3 | |
3216 | if (HAVE_divtf3) | |
3217 | flodiv_optab->handlers[(int) TFmode].insn_code = CODE_FOR_divtf3; | |
3218 | #endif | |
3219 | flodiv_optab->handlers[(int) SFmode].libfunc | |
3220 | = gen_rtx (SYMBOL_REF, Pmode, "__divsf3"); | |
3221 | flodiv_optab->handlers[(int) DFmode].libfunc | |
3222 | = gen_rtx (SYMBOL_REF, Pmode, "__divdf3"); | |
3223 | ||
3224 | #ifdef HAVE_ftruncsf2 | |
3225 | if (HAVE_ftruncsf2) | |
3226 | ftrunc_optab->handlers[(int) SFmode].insn_code = CODE_FOR_ftruncsf2; | |
3227 | #endif | |
3228 | #ifdef HAVE_ftruncdf2 | |
3229 | if (HAVE_ftruncdf2) | |
3230 | ftrunc_optab->handlers[(int) DFmode].insn_code = CODE_FOR_ftruncdf2; | |
3231 | #endif | |
3232 | #ifdef HAVE_ftrunctf2 | |
3233 | if (HAVE_ftrunctf2) | |
3234 | ftrunc_optab->handlers[(int) TFmode].insn_code = CODE_FOR_ftrunctf2; | |
3235 | #endif | |
3236 | ||
3237 | #ifdef HAVE_andqi3 | |
3238 | if (HAVE_andqi3) | |
3239 | and_optab->handlers[(int) QImode].insn_code = CODE_FOR_andqi3; | |
3240 | #endif | |
3241 | #ifdef HAVE_andhi3 | |
3242 | if (HAVE_andhi3) | |
3243 | and_optab->handlers[(int) HImode].insn_code = CODE_FOR_andhi3; | |
3244 | #endif | |
3245 | #ifdef HAVE_andpsi3 | |
3246 | if (HAVE_andpsi3) | |
3247 | and_optab->handlers[(int) PSImode].insn_code = CODE_FOR_andpsi3; | |
3248 | #endif | |
3249 | #ifdef HAVE_andsi3 | |
3250 | if (HAVE_andsi3) | |
3251 | and_optab->handlers[(int) SImode].insn_code = CODE_FOR_andsi3; | |
3252 | #endif | |
3253 | #ifdef HAVE_anddi3 | |
3254 | if (HAVE_anddi3) | |
3255 | and_optab->handlers[(int) DImode].insn_code = CODE_FOR_anddi3; | |
3256 | #endif | |
3257 | #ifdef HAVE_andti3 | |
3258 | if (HAVE_andti3) | |
3259 | and_optab->handlers[(int) TImode].insn_code = CODE_FOR_andti3; | |
3260 | #endif | |
3261 | ||
3262 | #ifdef HAVE_iorqi3 | |
3263 | if (HAVE_iorqi3) | |
3264 | ior_optab->handlers[(int) QImode].insn_code = CODE_FOR_iorqi3; | |
3265 | #endif | |
3266 | #ifdef HAVE_iorhi3 | |
3267 | if (HAVE_iorhi3) | |
3268 | ior_optab->handlers[(int) HImode].insn_code = CODE_FOR_iorhi3; | |
3269 | #endif | |
3270 | #ifdef HAVE_iorpsi3 | |
3271 | if (HAVE_iorpsi3) | |
3272 | ior_optab->handlers[(int) PSImode].insn_code = CODE_FOR_iorpsi3; | |
3273 | #endif | |
3274 | #ifdef HAVE_iorsi3 | |
3275 | if (HAVE_iorsi3) | |
3276 | ior_optab->handlers[(int) SImode].insn_code = CODE_FOR_iorsi3; | |
3277 | #endif | |
3278 | #ifdef HAVE_iordi3 | |
3279 | if (HAVE_iordi3) | |
3280 | ior_optab->handlers[(int) DImode].insn_code = CODE_FOR_iordi3; | |
3281 | #endif | |
3282 | #ifdef HAVE_iorti3 | |
3283 | if (HAVE_iorti3) | |
3284 | ior_optab->handlers[(int) TImode].insn_code = CODE_FOR_iorti3; | |
3285 | #endif | |
3286 | ||
3287 | #ifdef HAVE_xorqi3 | |
3288 | if (HAVE_xorqi3) | |
3289 | xor_optab->handlers[(int) QImode].insn_code = CODE_FOR_xorqi3; | |
3290 | #endif | |
3291 | #ifdef HAVE_xorhi3 | |
3292 | if (HAVE_xorhi3) | |
3293 | xor_optab->handlers[(int) HImode].insn_code = CODE_FOR_xorhi3; | |
3294 | #endif | |
3295 | #ifdef HAVE_xorpsi3 | |
3296 | if (HAVE_xorpsi3) | |
3297 | xor_optab->handlers[(int) PSImode].insn_code = CODE_FOR_xorpsi3; | |
3298 | #endif | |
3299 | #ifdef HAVE_xorsi3 | |
3300 | if (HAVE_xorsi3) | |
3301 | xor_optab->handlers[(int) SImode].insn_code = CODE_FOR_xorsi3; | |
3302 | #endif | |
3303 | #ifdef HAVE_xordi3 | |
3304 | if (HAVE_xordi3) | |
3305 | xor_optab->handlers[(int) DImode].insn_code = CODE_FOR_xordi3; | |
3306 | #endif | |
3307 | #ifdef HAVE_xorti3 | |
3308 | if (HAVE_xorti3) | |
3309 | xor_optab->handlers[(int) TImode].insn_code = CODE_FOR_xorti3; | |
3310 | #endif | |
3311 | ||
3312 | #ifdef HAVE_ashlqi3 | |
3313 | if (HAVE_ashlqi3) | |
3314 | ashl_optab->handlers[(int) QImode].insn_code = CODE_FOR_ashlqi3; | |
3315 | #endif | |
3316 | #ifdef HAVE_ashlhi3 | |
3317 | if (HAVE_ashlhi3) | |
3318 | ashl_optab->handlers[(int) HImode].insn_code = CODE_FOR_ashlhi3; | |
3319 | #endif | |
3320 | #ifdef HAVE_ashlpsi3 | |
3321 | if (HAVE_ashlpsi3) | |
3322 | ashl_optab->handlers[(int) PSImode].insn_code = CODE_FOR_ashlpsi3; | |
3323 | #endif | |
3324 | #ifdef HAVE_ashlsi3 | |
3325 | if (HAVE_ashlsi3) | |
3326 | ashl_optab->handlers[(int) SImode].insn_code = CODE_FOR_ashlsi3; | |
3327 | #endif | |
3328 | #ifdef HAVE_ashldi3 | |
3329 | if (HAVE_ashldi3) | |
3330 | ashl_optab->handlers[(int) DImode].insn_code = CODE_FOR_ashldi3; | |
3331 | #endif | |
3332 | #ifdef HAVE_ashlti3 | |
3333 | if (HAVE_ashlti3) | |
3334 | ashl_optab->handlers[(int) TImode].insn_code = CODE_FOR_ashlti3; | |
3335 | #endif | |
3336 | ashl_optab->handlers[(int) SImode].libfunc | |
3337 | = gen_rtx (SYMBOL_REF, Pmode, "__ashlsi3"); | |
3338 | ashl_optab->handlers[(int) DImode].libfunc | |
3339 | = gen_rtx (SYMBOL_REF, Pmode, "__ashldi3"); | |
3340 | ||
3341 | #ifdef HAVE_ashrqi3 | |
3342 | if (HAVE_ashrqi3) | |
3343 | ashr_optab->handlers[(int) QImode].insn_code = CODE_FOR_ashrqi3; | |
3344 | #endif | |
3345 | #ifdef HAVE_ashrhi3 | |
3346 | if (HAVE_ashrhi3) | |
3347 | ashr_optab->handlers[(int) HImode].insn_code = CODE_FOR_ashrhi3; | |
3348 | #endif | |
3349 | #ifdef HAVE_ashrpsi3 | |
3350 | if (HAVE_ashrpsi3) | |
3351 | ashr_optab->handlers[(int) PSImode].insn_code = CODE_FOR_ashrpsi3; | |
3352 | #endif | |
3353 | #ifdef HAVE_ashrsi3 | |
3354 | if (HAVE_ashrsi3) | |
3355 | ashr_optab->handlers[(int) SImode].insn_code = CODE_FOR_ashrsi3; | |
3356 | #endif | |
3357 | #ifdef HAVE_ashrdi3 | |
3358 | if (HAVE_ashrdi3) | |
3359 | ashr_optab->handlers[(int) DImode].insn_code = CODE_FOR_ashrdi3; | |
3360 | #endif | |
3361 | #ifdef HAVE_ashrti3 | |
3362 | if (HAVE_ashrti3) | |
3363 | ashr_optab->handlers[(int) TImode].insn_code = CODE_FOR_ashrti3; | |
3364 | #endif | |
3365 | ashr_optab->handlers[(int) SImode].libfunc | |
3366 | = gen_rtx (SYMBOL_REF, Pmode, "__ashrsi3"); | |
3367 | ashr_optab->handlers[(int) DImode].libfunc | |
3368 | = gen_rtx (SYMBOL_REF, Pmode, "__ashrdi3"); | |
3369 | ||
3370 | #ifdef HAVE_lshlqi3 | |
3371 | if (HAVE_lshlqi3) | |
3372 | lshl_optab->handlers[(int) QImode].insn_code = CODE_FOR_lshlqi3; | |
3373 | #endif | |
3374 | #ifdef HAVE_lshlhi3 | |
3375 | if (HAVE_lshlhi3) | |
3376 | lshl_optab->handlers[(int) HImode].insn_code = CODE_FOR_lshlhi3; | |
3377 | #endif | |
3378 | #ifdef HAVE_lshlpsi3 | |
3379 | if (HAVE_lshlpsi3) | |
3380 | lshl_optab->handlers[(int) PSImode].insn_code = CODE_FOR_lshlpsi3; | |
3381 | #endif | |
3382 | #ifdef HAVE_lshlsi3 | |
3383 | if (HAVE_lshlsi3) | |
3384 | lshl_optab->handlers[(int) SImode].insn_code = CODE_FOR_lshlsi3; | |
3385 | #endif | |
3386 | #ifdef HAVE_lshldi3 | |
3387 | if (HAVE_lshldi3) | |
3388 | lshl_optab->handlers[(int) DImode].insn_code = CODE_FOR_lshldi3; | |
3389 | #endif | |
3390 | #ifdef HAVE_lshlti3 | |
3391 | if (HAVE_lshlti3) | |
3392 | lshl_optab->handlers[(int) TImode].insn_code = CODE_FOR_lshlti3; | |
3393 | #endif | |
3394 | lshl_optab->handlers[(int) SImode].libfunc | |
3395 | = gen_rtx (SYMBOL_REF, Pmode, "__lshlsi3"); | |
3396 | lshl_optab->handlers[(int) DImode].libfunc | |
3397 | = gen_rtx (SYMBOL_REF, Pmode, "__lshldi3"); | |
3398 | ||
3399 | #ifdef HAVE_lshrqi3 | |
3400 | if (HAVE_lshrqi3) | |
3401 | lshr_optab->handlers[(int) QImode].insn_code = CODE_FOR_lshrqi3; | |
3402 | #endif | |
3403 | #ifdef HAVE_lshrhi3 | |
3404 | if (HAVE_lshrhi3) | |
3405 | lshr_optab->handlers[(int) HImode].insn_code = CODE_FOR_lshrhi3; | |
3406 | #endif | |
3407 | #ifdef HAVE_lshrpsi3 | |
3408 | if (HAVE_lshrpsi3) | |
3409 | lshr_optab->handlers[(int) PSImode].insn_code = CODE_FOR_lshrpsi3; | |
3410 | #endif | |
3411 | #ifdef HAVE_lshrsi3 | |
3412 | if (HAVE_lshrsi3) | |
3413 | lshr_optab->handlers[(int) SImode].insn_code = CODE_FOR_lshrsi3; | |
3414 | #endif | |
3415 | #ifdef HAVE_lshrdi3 | |
3416 | if (HAVE_lshrdi3) | |
3417 | lshr_optab->handlers[(int) DImode].insn_code = CODE_FOR_lshrdi3; | |
3418 | #endif | |
3419 | #ifdef HAVE_lshrti3 | |
3420 | if (HAVE_lshrti3) | |
3421 | lshr_optab->handlers[(int) TImode].insn_code = CODE_FOR_lshrti3; | |
3422 | #endif | |
3423 | lshr_optab->handlers[(int) SImode].libfunc | |
3424 | = gen_rtx (SYMBOL_REF, Pmode, "__lshrsi3"); | |
3425 | lshr_optab->handlers[(int) DImode].libfunc | |
3426 | = gen_rtx (SYMBOL_REF, Pmode, "__lshrdi3"); | |
3427 | ||
3428 | #ifdef HAVE_rotlqi3 | |
3429 | if (HAVE_rotlqi3) | |
3430 | rotl_optab->handlers[(int) QImode].insn_code = CODE_FOR_rotlqi3; | |
3431 | #endif | |
3432 | #ifdef HAVE_rotlhi3 | |
3433 | if (HAVE_rotlhi3) | |
3434 | rotl_optab->handlers[(int) HImode].insn_code = CODE_FOR_rotlhi3; | |
3435 | #endif | |
3436 | #ifdef HAVE_rotlpsi3 | |
3437 | if (HAVE_rotlpsi3) | |
3438 | rotl_optab->handlers[(int) PSImode].insn_code = CODE_FOR_rotlpsi3; | |
3439 | #endif | |
3440 | #ifdef HAVE_rotlsi3 | |
3441 | if (HAVE_rotlsi3) | |
3442 | rotl_optab->handlers[(int) SImode].insn_code = CODE_FOR_rotlsi3; | |
3443 | #endif | |
3444 | #ifdef HAVE_rotldi3 | |
3445 | if (HAVE_rotldi3) | |
3446 | rotl_optab->handlers[(int) DImode].insn_code = CODE_FOR_rotldi3; | |
3447 | #endif | |
3448 | #ifdef HAVE_rotlti3 | |
3449 | if (HAVE_rotlti3) | |
3450 | rotl_optab->handlers[(int) TImode].insn_code = CODE_FOR_rotlti3; | |
3451 | #endif | |
3452 | rotl_optab->handlers[(int) SImode].libfunc | |
3453 | = gen_rtx (SYMBOL_REF, Pmode, "__rotlsi3"); | |
3454 | rotl_optab->handlers[(int) DImode].libfunc | |
3455 | = gen_rtx (SYMBOL_REF, Pmode, "__rotldi3"); | |
3456 | ||
3457 | #ifdef HAVE_rotrqi3 | |
3458 | if (HAVE_rotrqi3) | |
3459 | rotr_optab->handlers[(int) QImode].insn_code = CODE_FOR_rotrqi3; | |
3460 | #endif | |
3461 | #ifdef HAVE_rotrhi3 | |
3462 | if (HAVE_rotrhi3) | |
3463 | rotr_optab->handlers[(int) HImode].insn_code = CODE_FOR_rotrhi3; | |
3464 | #endif | |
3465 | #ifdef HAVE_rotrpsi3 | |
3466 | if (HAVE_rotrpsi3) | |
3467 | rotr_optab->handlers[(int) PSImode].insn_code = CODE_FOR_rotrpsi3; | |
3468 | #endif | |
3469 | #ifdef HAVE_rotrsi3 | |
3470 | if (HAVE_rotrsi3) | |
3471 | rotr_optab->handlers[(int) SImode].insn_code = CODE_FOR_rotrsi3; | |
3472 | #endif | |
3473 | #ifdef HAVE_rotrdi3 | |
3474 | if (HAVE_rotrdi3) | |
3475 | rotr_optab->handlers[(int) DImode].insn_code = CODE_FOR_rotrdi3; | |
3476 | #endif | |
3477 | #ifdef HAVE_rotrti3 | |
3478 | if (HAVE_rotrti3) | |
3479 | rotr_optab->handlers[(int) TImode].insn_code = CODE_FOR_rotrti3; | |
3480 | #endif | |
3481 | rotr_optab->handlers[(int) SImode].libfunc | |
3482 | = gen_rtx (SYMBOL_REF, Pmode, "__rotrsi3"); | |
3483 | rotr_optab->handlers[(int) DImode].libfunc | |
3484 | = gen_rtx (SYMBOL_REF, Pmode, "__rotrdi3"); | |
3485 | ||
3486 | #ifdef HAVE_sminqi3 | |
3487 | if (HAVE_sminqi3) | |
3488 | smin_optab->handlers[(int) QImode].insn_code = CODE_FOR_sminqi3; | |
3489 | #endif | |
3490 | #ifdef HAVE_sminhi3 | |
3491 | if (HAVE_sminhi3) | |
3492 | smin_optab->handlers[(int) HImode].insn_code = CODE_FOR_sminhi3; | |
3493 | #endif | |
3494 | #ifdef HAVE_sminsi3 | |
3495 | if (HAVE_sminsi3) | |
3496 | smin_optab->handlers[(int) SImode].insn_code = CODE_FOR_sminsi3; | |
3497 | #endif | |
3498 | #ifdef HAVE_smindi3 | |
3499 | if (HAVE_smindi3) | |
3500 | smin_optab->handlers[(int) DImode].insn_code = CODE_FOR_smindi3; | |
3501 | #endif | |
3502 | #ifdef HAVE_sminti3 | |
3503 | if (HAVE_sminti3) | |
3504 | smin_optab->handlers[(int) TImode].insn_code = CODE_FOR_sminti3; | |
3505 | #endif | |
3506 | #ifdef HAVE_sminsf3 | |
3507 | if (HAVE_sminsf3) | |
3508 | smin_optab->handlers[(int) SFmode].insn_code = CODE_FOR_sminsf3; | |
3509 | #endif | |
3510 | #ifdef HAVE_smindf3 | |
3511 | if (HAVE_smindf3) | |
3512 | smin_optab->handlers[(int) DFmode].insn_code = CODE_FOR_smindf3; | |
3513 | #endif | |
3514 | #ifdef HAVE_smintf3 | |
3515 | if (HAVE_smintf3) | |
3516 | smin_optab->handlers[(int) TFmode].insn_code = CODE_FOR_smintf3; | |
3517 | #endif | |
3518 | ||
3519 | #ifdef HAVE_smaxqi3 | |
3520 | if (HAVE_smaxqi3) | |
3521 | smax_optab->handlers[(int) QImode].insn_code = CODE_FOR_smaxqi3; | |
3522 | #endif | |
3523 | #ifdef HAVE_smaxhi3 | |
3524 | if (HAVE_smaxhi3) | |
3525 | smax_optab->handlers[(int) HImode].insn_code = CODE_FOR_smaxhi3; | |
3526 | #endif | |
3527 | #ifdef HAVE_smaxsi3 | |
3528 | if (HAVE_smaxsi3) | |
3529 | smax_optab->handlers[(int) SImode].insn_code = CODE_FOR_smaxsi3; | |
3530 | #endif | |
3531 | #ifdef HAVE_smaxdi3 | |
3532 | if (HAVE_smaxdi3) | |
3533 | smax_optab->handlers[(int) DImode].insn_code = CODE_FOR_smaxdi3; | |
3534 | #endif | |
3535 | #ifdef HAVE_smaxti3 | |
3536 | if (HAVE_smaxti3) | |
3537 | smax_optab->handlers[(int) TImode].insn_code = CODE_FOR_smaxti3; | |
3538 | #endif | |
3539 | #ifdef HAVE_smaxsf3 | |
3540 | if (HAVE_smaxsf3) | |
3541 | smax_optab->handlers[(int) SFmode].insn_code = CODE_FOR_smaxsf3; | |
3542 | #endif | |
3543 | #ifdef HAVE_smaxdf3 | |
3544 | if (HAVE_smaxdf3) | |
3545 | smax_optab->handlers[(int) DFmode].insn_code = CODE_FOR_smaxdf3; | |
3546 | #endif | |
3547 | #ifdef HAVE_smaxtf3 | |
3548 | if (HAVE_smaxtf3) | |
3549 | smax_optab->handlers[(int) TFmode].insn_code = CODE_FOR_smaxtf3; | |
3550 | #endif | |
3551 | ||
3552 | #ifdef HAVE_uminqi3 | |
3553 | if (HAVE_uminqi3) | |
3554 | umin_optab->handlers[(int) QImode].insn_code = CODE_FOR_uminqi3; | |
3555 | #endif | |
3556 | #ifdef HAVE_uminhi3 | |
3557 | if (HAVE_uminhi3) | |
3558 | umin_optab->handlers[(int) HImode].insn_code = CODE_FOR_uminhi3; | |
3559 | #endif | |
3560 | #ifdef HAVE_uminsi3 | |
3561 | if (HAVE_uminsi3) | |
3562 | umin_optab->handlers[(int) SImode].insn_code = CODE_FOR_uminsi3; | |
3563 | #endif | |
3564 | #ifdef HAVE_umindi3 | |
3565 | if (HAVE_umindi3) | |
3566 | umin_optab->handlers[(int) DImode].insn_code = CODE_FOR_umindi3; | |
3567 | #endif | |
3568 | #ifdef HAVE_uminti3 | |
3569 | if (HAVE_uminti3) | |
3570 | umin_optab->handlers[(int) TImode].insn_code = CODE_FOR_uminti3; | |
3571 | #endif | |
3572 | ||
3573 | #ifdef HAVE_umaxqi3 | |
3574 | if (HAVE_umaxqi3) | |
3575 | umax_optab->handlers[(int) QImode].insn_code = CODE_FOR_umaxqi3; | |
3576 | #endif | |
3577 | #ifdef HAVE_umaxhi3 | |
3578 | if (HAVE_umaxhi3) | |
3579 | umax_optab->handlers[(int) HImode].insn_code = CODE_FOR_umaxhi3; | |
3580 | #endif | |
3581 | #ifdef HAVE_umaxsi3 | |
3582 | if (HAVE_umaxsi3) | |
3583 | umax_optab->handlers[(int) SImode].insn_code = CODE_FOR_umaxsi3; | |
3584 | #endif | |
3585 | #ifdef HAVE_umaxdi3 | |
3586 | if (HAVE_umaxdi3) | |
3587 | umax_optab->handlers[(int) DImode].insn_code = CODE_FOR_umaxdi3; | |
3588 | #endif | |
3589 | #ifdef HAVE_umaxti3 | |
3590 | if (HAVE_umaxti3) | |
3591 | umax_optab->handlers[(int) TImode].insn_code = CODE_FOR_umaxti3; | |
3592 | #endif | |
3593 | ||
3594 | #ifdef HAVE_negqi2 | |
3595 | if (HAVE_negqi2) | |
3596 | neg_optab->handlers[(int) QImode].insn_code = CODE_FOR_negqi2; | |
3597 | #endif | |
3598 | #ifdef HAVE_neghi2 | |
3599 | if (HAVE_neghi2) | |
3600 | neg_optab->handlers[(int) HImode].insn_code = CODE_FOR_neghi2; | |
3601 | #endif | |
3602 | #ifdef HAVE_negpsi2 | |
3603 | if (HAVE_negpsi2) | |
3604 | neg_optab->handlers[(int) PSImode].insn_code = CODE_FOR_negpsi2; | |
3605 | #endif | |
3606 | #ifdef HAVE_negsi2 | |
3607 | if (HAVE_negsi2) | |
3608 | neg_optab->handlers[(int) SImode].insn_code = CODE_FOR_negsi2; | |
3609 | #endif | |
3610 | #ifdef HAVE_negdi2 | |
3611 | if (HAVE_negdi2) | |
3612 | neg_optab->handlers[(int) DImode].insn_code = CODE_FOR_negdi2; | |
3613 | #endif | |
3614 | #ifdef HAVE_negti2 | |
3615 | if (HAVE_negti2) | |
3616 | neg_optab->handlers[(int) TImode].insn_code = CODE_FOR_negti2; | |
3617 | #endif | |
3618 | #ifdef HAVE_negsf2 | |
3619 | if (HAVE_negsf2) | |
3620 | neg_optab->handlers[(int) SFmode].insn_code = CODE_FOR_negsf2; | |
3621 | #endif | |
3622 | #ifdef HAVE_negdf2 | |
3623 | if (HAVE_negdf2) | |
3624 | neg_optab->handlers[(int) DFmode].insn_code = CODE_FOR_negdf2; | |
3625 | #endif | |
3626 | #ifdef HAVE_negtf2 | |
3627 | if (HAVE_negtf2) | |
3628 | neg_optab->handlers[(int) TFmode].insn_code = CODE_FOR_negtf2; | |
3629 | #endif | |
3630 | neg_optab->handlers[(int) SImode].libfunc | |
3631 | = gen_rtx (SYMBOL_REF, Pmode, "__negsi2"); | |
3632 | neg_optab->handlers[(int) DImode].libfunc | |
3633 | = gen_rtx (SYMBOL_REF, Pmode, "__negdi2"); | |
3634 | neg_optab->handlers[(int) SFmode].libfunc | |
3635 | = gen_rtx (SYMBOL_REF, Pmode, "__negsf2"); | |
3636 | neg_optab->handlers[(int) DFmode].libfunc | |
3637 | = gen_rtx (SYMBOL_REF, Pmode, "__negdf2"); | |
3638 | ||
3639 | #ifdef HAVE_absqi2 | |
3640 | if (HAVE_absqi2) | |
3641 | abs_optab->handlers[(int) QImode].insn_code = CODE_FOR_absqi2; | |
3642 | #endif | |
3643 | #ifdef HAVE_abshi2 | |
3644 | if (HAVE_abshi2) | |
3645 | abs_optab->handlers[(int) HImode].insn_code = CODE_FOR_abshi2; | |
3646 | #endif | |
3647 | #ifdef HAVE_abspsi2 | |
3648 | if (HAVE_abspsi2) | |
3649 | abs_optab->handlers[(int) PSImode].insn_code = CODE_FOR_abspsi2; | |
3650 | #endif | |
3651 | #ifdef HAVE_abssi2 | |
3652 | if (HAVE_abssi2) | |
3653 | abs_optab->handlers[(int) SImode].insn_code = CODE_FOR_abssi2; | |
3654 | #endif | |
3655 | #ifdef HAVE_absdi2 | |
3656 | if (HAVE_absdi2) | |
3657 | abs_optab->handlers[(int) DImode].insn_code = CODE_FOR_absdi2; | |
3658 | #endif | |
3659 | #ifdef HAVE_absti2 | |
3660 | if (HAVE_absti2) | |
3661 | abs_optab->handlers[(int) TImode].insn_code = CODE_FOR_absti2; | |
3662 | #endif | |
3663 | #ifdef HAVE_abssf2 | |
3664 | if (HAVE_abssf2) | |
3665 | abs_optab->handlers[(int) SFmode].insn_code = CODE_FOR_abssf2; | |
3666 | #endif | |
3667 | #ifdef HAVE_absdf2 | |
3668 | if (HAVE_absdf2) | |
3669 | abs_optab->handlers[(int) DFmode].insn_code = CODE_FOR_absdf2; | |
3670 | #endif | |
3671 | #ifdef HAVE_abstf2 | |
3672 | if (HAVE_abstf2) | |
3673 | abs_optab->handlers[(int) TFmode].insn_code = CODE_FOR_abstf2; | |
3674 | #endif | |
3675 | /* No library calls here! If there is no abs instruction, | |
3676 | expand_expr will generate a conditional negation. */ | |
3677 | ||
3678 | #ifdef HAVE_one_cmplqi2 | |
3679 | if (HAVE_one_cmplqi2) | |
3680 | one_cmpl_optab->handlers[(int) QImode].insn_code = CODE_FOR_one_cmplqi2; | |
3681 | #endif | |
3682 | #ifdef HAVE_one_cmplhi2 | |
3683 | if (HAVE_one_cmplhi2) | |
3684 | one_cmpl_optab->handlers[(int) HImode].insn_code = CODE_FOR_one_cmplhi2; | |
3685 | #endif | |
3686 | #ifdef HAVE_one_cmplpsi2 | |
3687 | if (HAVE_one_cmplpsi2) | |
3688 | one_cmpl_optab->handlers[(int) PSImode].insn_code = CODE_FOR_one_cmplpsi2; | |
3689 | #endif | |
3690 | #ifdef HAVE_one_cmplsi2 | |
3691 | if (HAVE_one_cmplsi2) | |
3692 | one_cmpl_optab->handlers[(int) SImode].insn_code = CODE_FOR_one_cmplsi2; | |
3693 | #endif | |
3694 | #ifdef HAVE_one_cmpldi2 | |
3695 | if (HAVE_one_cmpldi2) | |
3696 | one_cmpl_optab->handlers[(int) DImode].insn_code = CODE_FOR_one_cmpldi2; | |
3697 | #endif | |
3698 | #ifdef HAVE_one_cmplti2 | |
3699 | if (HAVE_one_cmplti2) | |
3700 | one_cmpl_optab->handlers[(int) TImode].insn_code = CODE_FOR_one_cmplti2; | |
3701 | #endif | |
3702 | one_cmpl_optab->handlers[(int) SImode].libfunc | |
3703 | = gen_rtx (SYMBOL_REF, Pmode, "__one_cmplsi2"); | |
3704 | ||
3705 | #ifdef HAVE_ffsqi2 | |
3706 | if (HAVE_ffsqi2) | |
3707 | ffs_optab->handlers[(int) QImode].insn_code = CODE_FOR_ffsqi2; | |
3708 | #endif | |
3709 | #ifdef HAVE_ffshi2 | |
3710 | if (HAVE_ffshi2) | |
3711 | ffs_optab->handlers[(int) HImode].insn_code = CODE_FOR_ffshi2; | |
3712 | #endif | |
3713 | #ifdef HAVE_ffspsi2 | |
3714 | if (HAVE_ffspsi2) | |
3715 | ffs_optab->handlers[(int) PSImode].insn_code = CODE_FOR_ffspsi2; | |
3716 | #endif | |
3717 | #ifdef HAVE_ffssi2 | |
3718 | if (HAVE_ffssi2) | |
3719 | ffs_optab->handlers[(int) SImode].insn_code = CODE_FOR_ffssi2; | |
3720 | #endif | |
3721 | #ifdef HAVE_ffsdi2 | |
3722 | if (HAVE_ffsdi2) | |
3723 | ffs_optab->handlers[(int) DImode].insn_code = CODE_FOR_ffsdi2; | |
3724 | #endif | |
3725 | #ifdef HAVE_ffsti2 | |
3726 | if (HAVE_ffsti2) | |
3727 | ffs_optab->handlers[(int) TImode].insn_code = CODE_FOR_ffsti2; | |
3728 | #endif | |
3729 | ffs_optab->handlers[(int) SImode].libfunc | |
3730 | = gen_rtx (SYMBOL_REF, Pmode, "ffs"); | |
3731 | ||
3732 | #ifdef HAVE_movqi | |
3733 | if (HAVE_movqi) | |
3734 | mov_optab->handlers[(int) QImode].insn_code = CODE_FOR_movqi; | |
3735 | #endif | |
3736 | #ifdef HAVE_movhi | |
3737 | if (HAVE_movhi) | |
3738 | mov_optab->handlers[(int) HImode].insn_code = CODE_FOR_movhi; | |
3739 | #endif | |
3740 | #ifdef HAVE_movpsi | |
3741 | if (HAVE_movpsi) | |
3742 | mov_optab->handlers[(int) PSImode].insn_code = CODE_FOR_movpsi; | |
3743 | #endif | |
3744 | #ifdef HAVE_movsi | |
3745 | if (HAVE_movsi) | |
3746 | mov_optab->handlers[(int) SImode].insn_code = CODE_FOR_movsi; | |
3747 | #endif | |
3748 | #ifdef HAVE_movdi | |
3749 | if (HAVE_movdi) | |
3750 | mov_optab->handlers[(int) DImode].insn_code = CODE_FOR_movdi; | |
3751 | #endif | |
3752 | #ifdef HAVE_movti | |
3753 | if (HAVE_movti) | |
3754 | mov_optab->handlers[(int) TImode].insn_code = CODE_FOR_movti; | |
3755 | #endif | |
3756 | #ifdef HAVE_movsf | |
3757 | if (HAVE_movsf) | |
3758 | mov_optab->handlers[(int) SFmode].insn_code = CODE_FOR_movsf; | |
3759 | #endif | |
3760 | #ifdef HAVE_movdf | |
3761 | if (HAVE_movdf) | |
3762 | mov_optab->handlers[(int) DFmode].insn_code = CODE_FOR_movdf; | |
3763 | #endif | |
3764 | #ifdef HAVE_movtf | |
3765 | if (HAVE_movtf) | |
3766 | mov_optab->handlers[(int) TFmode].insn_code = CODE_FOR_movtf; | |
3767 | #endif | |
3768 | #ifdef HAVE_movcc | |
3769 | if (HAVE_movcc) | |
3770 | mov_optab->handlers[(int) CCmode].insn_code = CODE_FOR_movcc; | |
3771 | #endif | |
3772 | ||
3773 | #ifdef EXTRA_CC_MODES | |
3774 | init_mov_optab (); | |
3775 | #endif | |
3776 | ||
3777 | #ifdef HAVE_movstrictqi | |
3778 | if (HAVE_movstrictqi) | |
3779 | movstrict_optab->handlers[(int) QImode].insn_code = CODE_FOR_movstrictqi; | |
3780 | #endif | |
3781 | #ifdef HAVE_movstricthi | |
3782 | if (HAVE_movstricthi) | |
3783 | movstrict_optab->handlers[(int) HImode].insn_code = CODE_FOR_movstricthi; | |
3784 | #endif | |
3785 | #ifdef HAVE_movstrictpsi | |
3786 | if (HAVE_movstrictpsi) | |
3787 | movstrict_optab->handlers[(int) PSImode].insn_code = CODE_FOR_movstrictpsi; | |
3788 | #endif | |
3789 | #ifdef HAVE_movstrictsi | |
3790 | if (HAVE_movstrictsi) | |
3791 | movstrict_optab->handlers[(int) SImode].insn_code = CODE_FOR_movstrictsi; | |
3792 | #endif | |
3793 | #ifdef HAVE_movstrictdi | |
3794 | if (HAVE_movstrictdi) | |
3795 | movstrict_optab->handlers[(int) DImode].insn_code = CODE_FOR_movstrictdi; | |
3796 | #endif | |
3797 | #ifdef HAVE_movstrictti | |
3798 | if (HAVE_movstrictti) | |
3799 | movstrict_optab->handlers[(int) TImode].insn_code = CODE_FOR_movstrictti; | |
3800 | #endif | |
3801 | ||
3802 | #ifdef HAVE_cmpqi | |
3803 | if (HAVE_cmpqi) | |
3804 | cmp_optab->handlers[(int) QImode].insn_code = CODE_FOR_cmpqi; | |
3805 | #endif | |
3806 | #ifdef HAVE_cmphi | |
3807 | if (HAVE_cmphi) | |
3808 | cmp_optab->handlers[(int) HImode].insn_code = CODE_FOR_cmphi; | |
3809 | #endif | |
3810 | #ifdef HAVE_cmppsi | |
3811 | if (HAVE_cmppsi) | |
3812 | cmp_optab->handlers[(int) PSImode].insn_code = CODE_FOR_cmppsi; | |
3813 | #endif | |
3814 | #ifdef HAVE_cmpsi | |
3815 | if (HAVE_cmpsi) | |
3816 | cmp_optab->handlers[(int) SImode].insn_code = CODE_FOR_cmpsi; | |
3817 | #endif | |
3818 | #ifdef HAVE_cmpdi | |
3819 | if (HAVE_cmpdi) | |
3820 | cmp_optab->handlers[(int) DImode].insn_code = CODE_FOR_cmpdi; | |
3821 | #endif | |
3822 | #ifdef HAVE_cmpti | |
3823 | if (HAVE_cmpti) | |
3824 | cmp_optab->handlers[(int) TImode].insn_code = CODE_FOR_cmpti; | |
3825 | #endif | |
3826 | #ifdef HAVE_cmpsf | |
3827 | if (HAVE_cmpsf) | |
3828 | cmp_optab->handlers[(int) SFmode].insn_code = CODE_FOR_cmpsf; | |
3829 | #endif | |
3830 | #ifdef HAVE_cmpdf | |
3831 | if (HAVE_cmpdf) | |
3832 | cmp_optab->handlers[(int) DFmode].insn_code = CODE_FOR_cmpdf; | |
3833 | #endif | |
3834 | #ifdef HAVE_cmptf | |
3835 | if (HAVE_cmptf) | |
3836 | cmp_optab->handlers[(int) TFmode].insn_code = CODE_FOR_cmptf; | |
3837 | #endif | |
3838 | #ifdef HAVE_tstqi | |
3839 | if (HAVE_tstqi) | |
3840 | tst_optab->handlers[(int) QImode].insn_code = CODE_FOR_tstqi; | |
3841 | #endif | |
3842 | #ifdef HAVE_tsthi | |
3843 | if (HAVE_tsthi) | |
3844 | tst_optab->handlers[(int) HImode].insn_code = CODE_FOR_tsthi; | |
3845 | #endif | |
3846 | #ifdef HAVE_tstpsi | |
3847 | if (HAVE_tstpsi) | |
3848 | tst_optab->handlers[(int) PSImode].insn_code = CODE_FOR_tstpsi; | |
3849 | #endif | |
3850 | #ifdef HAVE_tstsi | |
3851 | if (HAVE_tstsi) | |
3852 | tst_optab->handlers[(int) SImode].insn_code = CODE_FOR_tstsi; | |
3853 | #endif | |
3854 | #ifdef HAVE_tstdi | |
3855 | if (HAVE_tstdi) | |
3856 | tst_optab->handlers[(int) DImode].insn_code = CODE_FOR_tstdi; | |
3857 | #endif | |
3858 | #ifdef HAVE_tstti | |
3859 | if (HAVE_tstti) | |
3860 | tst_optab->handlers[(int) TImode].insn_code = CODE_FOR_tstti; | |
3861 | #endif | |
3862 | #ifdef HAVE_tstsf | |
3863 | if (HAVE_tstsf) | |
3864 | tst_optab->handlers[(int) SFmode].insn_code = CODE_FOR_tstsf; | |
3865 | #endif | |
3866 | #ifdef HAVE_tstdf | |
3867 | if (HAVE_tstdf) | |
3868 | tst_optab->handlers[(int) DFmode].insn_code = CODE_FOR_tstdf; | |
3869 | #endif | |
3870 | #ifdef HAVE_tsttf | |
3871 | if (HAVE_tsttf) | |
3872 | tst_optab->handlers[(int) TFmode].insn_code = CODE_FOR_tsttf; | |
3873 | #endif | |
3874 | /* Comparison libcalls for integers MUST come in pairs, signed/unsigned. */ | |
3875 | cmp_optab->handlers[(int) DImode].libfunc | |
3876 | = gen_rtx (SYMBOL_REF, Pmode, "__cmpdi2"); | |
3877 | ucmp_optab->handlers[(int) DImode].libfunc | |
3878 | = gen_rtx (SYMBOL_REF, Pmode, "__ucmpdi2"); | |
3879 | ||
3880 | #ifdef HAVE_beq | |
3881 | if (HAVE_beq) | |
3882 | bcc_gen_fctn[(int) EQ] = gen_beq; | |
3883 | #endif | |
3884 | #ifdef HAVE_bne | |
3885 | if (HAVE_bne) | |
3886 | bcc_gen_fctn[(int) NE] = gen_bne; | |
3887 | #endif | |
3888 | #ifdef HAVE_bgt | |
3889 | if (HAVE_bgt) | |
3890 | bcc_gen_fctn[(int) GT] = gen_bgt; | |
3891 | #endif | |
3892 | #ifdef HAVE_bge | |
3893 | if (HAVE_bge) | |
3894 | bcc_gen_fctn[(int) GE] = gen_bge; | |
3895 | #endif | |
3896 | #ifdef HAVE_bgtu | |
3897 | if (HAVE_bgtu) | |
3898 | bcc_gen_fctn[(int) GTU] = gen_bgtu; | |
3899 | #endif | |
3900 | #ifdef HAVE_bgeu | |
3901 | if (HAVE_bgeu) | |
3902 | bcc_gen_fctn[(int) GEU] = gen_bgeu; | |
3903 | #endif | |
3904 | #ifdef HAVE_blt | |
3905 | if (HAVE_blt) | |
3906 | bcc_gen_fctn[(int) LT] = gen_blt; | |
3907 | #endif | |
3908 | #ifdef HAVE_ble | |
3909 | if (HAVE_ble) | |
3910 | bcc_gen_fctn[(int) LE] = gen_ble; | |
3911 | #endif | |
3912 | #ifdef HAVE_bltu | |
3913 | if (HAVE_bltu) | |
3914 | bcc_gen_fctn[(int) LTU] = gen_bltu; | |
3915 | #endif | |
3916 | #ifdef HAVE_bleu | |
3917 | if (HAVE_bleu) | |
3918 | bcc_gen_fctn[(int) LEU] = gen_bleu; | |
3919 | #endif | |
3920 | ||
3921 | for (i = 0; i < NUM_RTX_CODE; i++) | |
3922 | setcc_gen_code[i] = CODE_FOR_nothing; | |
3923 | ||
3924 | #ifdef HAVE_seq | |
3925 | if (HAVE_seq) | |
3926 | setcc_gen_code[(int) EQ] = CODE_FOR_seq; | |
3927 | #endif | |
3928 | #ifdef HAVE_sne | |
3929 | if (HAVE_sne) | |
3930 | setcc_gen_code[(int) NE] = CODE_FOR_sne; | |
3931 | #endif | |
3932 | #ifdef HAVE_sgt | |
3933 | if (HAVE_sgt) | |
3934 | setcc_gen_code[(int) GT] = CODE_FOR_sgt; | |
3935 | #endif | |
3936 | #ifdef HAVE_sge | |
3937 | if (HAVE_sge) | |
3938 | setcc_gen_code[(int) GE] = CODE_FOR_sge; | |
3939 | #endif | |
3940 | #ifdef HAVE_sgtu | |
3941 | if (HAVE_sgtu) | |
3942 | setcc_gen_code[(int) GTU] = CODE_FOR_sgtu; | |
3943 | #endif | |
3944 | #ifdef HAVE_sgeu | |
3945 | if (HAVE_sgeu) | |
3946 | setcc_gen_code[(int) GEU] = CODE_FOR_sgeu; | |
3947 | #endif | |
3948 | #ifdef HAVE_slt | |
3949 | if (HAVE_slt) | |
3950 | setcc_gen_code[(int) LT] = CODE_FOR_slt; | |
3951 | #endif | |
3952 | #ifdef HAVE_sle | |
3953 | if (HAVE_sle) | |
3954 | setcc_gen_code[(int) LE] = CODE_FOR_sle; | |
3955 | #endif | |
3956 | #ifdef HAVE_sltu | |
3957 | if (HAVE_sltu) | |
3958 | setcc_gen_code[(int) LTU] = CODE_FOR_sltu; | |
3959 | #endif | |
3960 | #ifdef HAVE_sleu | |
3961 | if (HAVE_sleu) | |
3962 | setcc_gen_code[(int) LEU] = CODE_FOR_sleu; | |
3963 | #endif | |
3964 | ||
3965 | extendsfdf2_libfunc = gen_rtx (SYMBOL_REF, Pmode, "__extendsfdf2"); | |
3966 | truncdfsf2_libfunc = gen_rtx (SYMBOL_REF, Pmode, "__truncdfsf2"); | |
3967 | memcpy_libfunc = gen_rtx (SYMBOL_REF, Pmode, "memcpy"); | |
3968 | bcopy_libfunc = gen_rtx (SYMBOL_REF, Pmode, "bcopy"); | |
3969 | memcmp_libfunc = gen_rtx (SYMBOL_REF, Pmode, "memcmp"); | |
3970 | bcmp_libfunc = gen_rtx (SYMBOL_REF, Pmode, "bcmp"); | |
3971 | memset_libfunc = gen_rtx (SYMBOL_REF, Pmode, "memset"); | |
3972 | bzero_libfunc = gen_rtx (SYMBOL_REF, Pmode, "bzero"); | |
3973 | eqsf2_libfunc = gen_rtx (SYMBOL_REF, Pmode, "__eqsf2"); | |
3974 | nesf2_libfunc = gen_rtx (SYMBOL_REF, Pmode, "__nesf2"); | |
3975 | gtsf2_libfunc = gen_rtx (SYMBOL_REF, Pmode, "__gtsf2"); | |
3976 | gesf2_libfunc = gen_rtx (SYMBOL_REF, Pmode, "__gesf2"); | |
3977 | ltsf2_libfunc = gen_rtx (SYMBOL_REF, Pmode, "__ltsf2"); | |
3978 | lesf2_libfunc = gen_rtx (SYMBOL_REF, Pmode, "__lesf2"); | |
3979 | eqdf2_libfunc = gen_rtx (SYMBOL_REF, Pmode, "__eqdf2"); | |
3980 | nedf2_libfunc = gen_rtx (SYMBOL_REF, Pmode, "__nedf2"); | |
3981 | gtdf2_libfunc = gen_rtx (SYMBOL_REF, Pmode, "__gtdf2"); | |
3982 | gedf2_libfunc = gen_rtx (SYMBOL_REF, Pmode, "__gedf2"); | |
3983 | ltdf2_libfunc = gen_rtx (SYMBOL_REF, Pmode, "__ltdf2"); | |
3984 | ledf2_libfunc = gen_rtx (SYMBOL_REF, Pmode, "__ledf2"); | |
6bce1b78 RK |
3985 | floatdisf_libfunc = gen_rtx (SYMBOL_REF, Pmode, "__floatdisf"); |
3986 | floatsisf_libfunc = gen_rtx (SYMBOL_REF, Pmode, "__floatsisf"); | |
3987 | floatdidf_libfunc = gen_rtx (SYMBOL_REF, Pmode, "__floatdidf"); | |
3988 | floatsidf_libfunc = gen_rtx (SYMBOL_REF, Pmode, "__floatsidf"); | |
3989 | fixsfsi_libfunc = gen_rtx (SYMBOL_REF, Pmode, "__fixsfsi"); | |
3990 | fixsfdi_libfunc = gen_rtx (SYMBOL_REF, Pmode, "__fixsfdi"); | |
3991 | fixdfsi_libfunc = gen_rtx (SYMBOL_REF, Pmode, "__fixdfsi"); | |
3992 | fixdfdi_libfunc = gen_rtx (SYMBOL_REF, Pmode, "__fixdfdi"); | |
3993 | fixunssfsi_libfunc = gen_rtx (SYMBOL_REF, Pmode, "__fixunssfsi"); | |
3994 | fixunssfdi_libfunc = gen_rtx (SYMBOL_REF, Pmode, "__fixunssfdi"); | |
3995 | fixunsdfsi_libfunc = gen_rtx (SYMBOL_REF, Pmode, "__fixunsdfsi"); | |
3996 | fixunsdfdi_libfunc = gen_rtx (SYMBOL_REF, Pmode, "__fixunsdfdi"); | |
77c9c6c2 | 3997 | } |