Gather up another utility.
[u/mdw/catacomb] / perftest.c
1 /* -*-c-*-
2 *
3 * $Id$
4 *
5 * Measure performance of various operations (Unix-specific)
6 *
7 * (c) 2004 Straylight/Edgeware
8 */
9
10 /*----- Licensing notice --------------------------------------------------*
11 *
12 * This file is part of Catacomb.
13 *
14 * Catacomb is free software; you can redistribute it and/or modify
15 * it under the terms of the GNU Library General Public License as
16 * published by the Free Software Foundation; either version 2 of the
17 * License, or (at your option) any later version.
18 *
19 * Catacomb is distributed in the hope that it will be useful,
20 * but WITHOUT ANY WARRANTY; without even the implied warranty of
21 * MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
22 * GNU Library General Public License for more details.
23 *
24 * You should have received a copy of the GNU Library General Public
25 * License along with Catacomb; if not, write to the Free
26 * Software Foundation, Inc., 59 Temple Place - Suite 330, Boston,
27 * MA 02111-1307, USA.
28 */
29
30 /*----- Header files ------------------------------------------------------*/
31
32 #include "config.h"
33
34 #include <errno.h>
35 #include <limits.h>
36 #include <math.h>
37 #include <stdio.h>
38 #include <string.h>
39 #include <stdlib.h>
40 #include <time.h>
41
42 #include <sys/types.h>
43 #include <sys/time.h>
44 #include <unistd.h>
45
46 #include <mLib/alloc.h>
47 #include <mLib/dstr.h>
48 #include <mLib/mdwopt.h>
49 #include <mLib/quis.h>
50 #include <mLib/report.h>
51 #include <mLib/sub.h>
52 #include <mLib/tv.h>
53
54 #include "rand.h"
55 #include "mp.h"
56 #include "mprand.h"
57 #include "fibrand.h"
58 #include "rsa.h"
59 #include "mpmont.h"
60 #include "mpbarrett.h"
61 #include "dh.h"
62 #include "pgen.h"
63 #include "ec.h"
64 #include "group.h"
65
66 #include "cc.h"
67 #include "gcipher.h"
68 #include "ghash.h"
69 #include "gmac.h"
70 #include "ectab.h"
71 #include "ptab.h"
72
73 /*----- Options -----------------------------------------------------------*/
74
75 typedef struct opts {
76 const char *name; /* Pre-configured named thing */
77 unsigned fbits; /* Field size bits */
78 unsigned gbits; /* Group size bits */
79 unsigned n; /* Number of factors */
80 unsigned i; /* Number of intervals (or zero) */
81 double t; /* Time for each interval (secs) */
82 } opts;
83
84 /*----- Job switch --------------------------------------------------------*/
85
86 /* --- Barrett exponentiation --- */
87
88 typedef struct bar_ctx {
89 size_t n;
90 mpbarrett b;
91 mp_expfactor *e;
92 } bar_ctx;
93
94 static void *bar_init(opts *o)
95 {
96 bar_ctx *c = CREATE(bar_ctx);
97 gprime_param gp;
98 qd_parse qd;
99 size_t i;
100
101 if (o->name) {
102 qd.p = o->name;
103 if (dh_parse(&qd, &gp))
104 die(1, "bad prime group: %s", qd.e);
105 } else {
106 if (!o->fbits) o->fbits = 1024;
107 dh_gen(&gp, o->gbits, o->fbits, 0, &rand_global, pgen_evspin, 0);
108 }
109 mpbarrett_create(&c->b, gp.p);
110 if (!o->n) o->n = 1;
111 c->n = o->n;
112 c->e = xmalloc(c->n * sizeof(group_expfactor));
113 for (i = 0; i < c->n; i++) {
114 c->e[i].base = mprand_range(MP_NEW, gp.p, &rand_global, 0);
115 c->e[i].exp = mprand_range(MP_NEW, gp.q, &rand_global, 0);
116 }
117 dh_paramfree(&gp);
118 return (c);
119 }
120
121 static void bar_run(void *cc)
122 {
123 bar_ctx *c = cc;
124 mp *d = mpbarrett_exp(&c->b, MP_NEW, c->e[0].base, c->e[0].exp);
125 MP_DROP(d);
126 }
127
128 static void barsim_run(void *cc)
129 {
130 bar_ctx *c = cc;
131 mp *d = mpbarrett_mexp(&c->b, MP_NEW, c->e, c->n);
132 MP_DROP(d);
133 }
134
135 /* --- Montgomery exponentiation --- */
136
137 typedef struct mont_ctx {
138 size_t n;
139 mpmont m;
140 mp_expfactor *e;
141 } mont_ctx;
142
143 static void *mont_init(opts *o)
144 {
145 mont_ctx *c = CREATE(mont_ctx);
146 gprime_param gp;
147 qd_parse qd;
148 size_t i;
149
150 if (o->name) {
151 qd.p = o->name;
152 if (dh_parse(&qd, &gp))
153 die(1, "bad prime group: %s", qd.e);
154 } else {
155 if (!o->fbits) o->fbits = 1024;
156 dh_gen(&gp, o->gbits, o->fbits, 0, &rand_global, pgen_evspin, 0);
157 }
158 mpmont_create(&c->m, gp.p);
159 if (!o->n) o->n = 1;
160 c->n = o->n;
161 c->e = xmalloc(c->n * sizeof(mp_expfactor));
162 for (i = 0; i < c->n; i++) {
163 c->e[i].base = mprand_range(MP_NEW, gp.p, &rand_global, 0);
164 c->e[i].exp = mprand_range(MP_NEW, gp.q, &rand_global, 0);
165 }
166 dh_paramfree(&gp);
167 return (c);
168 }
169
170 static void mont_run(void *cc)
171 {
172 mont_ctx *c = cc;
173 mp *d = mpmont_expr(&c->m, MP_NEW, c->e[0].base, c->e[0].exp);
174 MP_DROP(d);
175 }
176
177 static void montsim_run(void *cc)
178 {
179 mont_ctx *c = cc;
180 mp *d = mpmont_mexpr(&c->m, MP_NEW, c->e, c->n);
181 MP_DROP(d);
182 }
183
184 /* --- Group exponentiation --- */
185
186 typedef struct gr_ctx {
187 size_t n;
188 group *g;
189 group_expfactor *e;
190 } gr_ctx;
191
192 static void *grp_init(opts *o)
193 {
194 gr_ctx *c = CREATE(gr_ctx);
195 const char *e;
196 gprime_param gp;
197 qd_parse qd;
198 size_t i;
199
200 if (o->name) {
201 qd.p = o->name;
202 if (dh_parse(&qd, &gp))
203 die(1, "bad prime group: %s", qd.e);
204 } else {
205 if (!o->fbits) o->fbits = 1024;
206 dh_gen(&gp, o->gbits, o->fbits, 0, &rand_global, pgen_evspin, 0);
207 }
208 c->g = group_prime(&gp);
209 if ((e = G_CHECK(c->g, &rand_global)) != 0)
210 die(1, "bad group: %s", e);
211 if (!o->n) o->n = 1;
212 c->n = o->n;
213 c->e = xmalloc(c->n * sizeof(group_expfactor));
214 for (i = 0; i < c->n; i++) {
215 c->e[i].base = G_CREATE(c->g);
216 G_FROMINT(c->g, c->e[i].base,
217 mprand_range(MP_NEW, gp.p, &rand_global, 0));
218 c->e[i].exp = mprand_range(MP_NEW, gp.q, &rand_global, 0);
219 }
220 dh_paramfree(&gp);
221 return (c);
222 }
223
224 static void *grec_init(opts *o)
225 {
226 gr_ctx *c = CREATE(gr_ctx);
227 const char *e;
228 ec_info ei;
229 ec p = EC_INIT;
230 size_t i;
231
232 if (!o->name)
233 die(1, "can't generate elliptic curves");
234 if ((e = ec_getinfo(&ei, o->name)) != 0)
235 die(1, "bad curve: %s", e);
236 c->g = group_ec(&ei);
237 if ((e = G_CHECK(c->g, &rand_global)) != 0)
238 die(1, "bad group: %s", e);
239 if (!o->n) o->n = 1;
240 c->n = o->n;
241 c->e = xmalloc(c->n * sizeof(group_expfactor));
242 for (i = 0; i < c->n; i++) {
243 c->e[i].base = G_CREATE(c->g);
244 ec_rand(ei.c, &p, &rand_global);
245 G_FROMEC(c->g, c->e[i].base, &p);
246 c->e[i].exp = mprand_range(MP_NEW, ei.r, &rand_global, 0);
247 }
248 EC_DESTROY(&p);
249 return (c);
250 }
251
252 static void gr_run(void *cc)
253 {
254 gr_ctx *c = cc;
255 ge *x = G_CREATE(c->g);
256 G_EXP(c->g, x, c->e[0].base, c->e[0].exp);
257 G_DESTROY(c->g, x);
258 }
259
260 static void grsim_run(void *cc)
261 {
262 gr_ctx *c = cc;
263 ge *x = G_CREATE(c->g);
264 G_MEXP(c->g, x, c->e, c->n);
265 G_DESTROY(c->g, x);
266 }
267
268 /* --- RSA --- */
269
270 typedef struct rsapriv_ctx {
271 rsa_priv rp;
272 rsa_privctx rpc;
273 mp *m;
274 } rsapriv_ctx;
275
276 static void *rsapriv_init(opts *o)
277 {
278 rsapriv_ctx *c = CREATE(rsapriv_ctx);
279
280 if (!o->fbits) o->fbits = 1024;
281 rsa_gen(&c->rp, o->fbits, &rand_global, 0, pgen_evspin, 0);
282 rsa_privcreate(&c->rpc, &c->rp, 0);
283 c->m = mprand_range(MP_NEW, c->rp.n, &rand_global, 0);
284 return (c);
285 }
286
287 static void *rsaprivblind_init(opts *o)
288 {
289 rsapriv_ctx *c = CREATE(rsapriv_ctx);
290
291 if (!o->fbits) o->fbits = 1024;
292 rsa_gen(&c->rp, o->fbits, &rand_global, 0, pgen_evspin, 0);
293 rsa_privcreate(&c->rpc, &c->rp, fibrand_create(0));
294 c->m = mprand_range(MP_NEW, c->rp.n, &rand_global, 0);
295 return (c);
296 }
297
298 static void rsapriv_run(void *cc)
299 {
300 rsapriv_ctx *c = cc;
301 mp *d = rsa_privop(&c->rpc, MP_NEW, c->m);
302 MP_DROP(d);
303 }
304
305 typedef struct rsapub_ctx {
306 rsa_pub rp;
307 rsa_pubctx rpc;
308 mp *m;
309 } rsapub_ctx;
310
311 static void *rsapub_init(opts *o)
312 {
313 rsapub_ctx *c = CREATE(rsapub_ctx);
314 rsa_priv rp;
315
316 if (!o->fbits) o->fbits = 1024;
317 rsa_gen(&rp, o->fbits, &rand_global, 0, pgen_evspin, 0);
318 c->rp.n = MP_COPY(rp.n);
319 c->rp.e = MP_COPY(rp.e);
320 rsa_privfree(&rp);
321 rsa_pubcreate(&c->rpc, &c->rp);
322 c->m = mprand_range(MP_NEW, c->rp.n, &rand_global, 0);
323 return (c);
324 }
325
326 static void rsapub_run(void *cc)
327 {
328 rsapub_ctx *c = cc;
329 mp *d = rsa_pubop(&c->rpc, MP_NEW, c->m);
330 MP_DROP(d);
331 }
332
333 /* --- Symmetric encryption --- */
334
335 typedef struct ksched_ctx {
336 const gccipher *c;
337 octet *k;
338 size_t ksz;
339 } ksched_ctx;
340
341 static void *ksched_init(opts *o)
342 {
343 ksched_ctx *c = CREATE(ksched_ctx);
344 if (!o->name)
345 die(1, "must specify encryption scheme name");
346 if ((c->c = gcipher_byname(o->name)) == 0)
347 die(1, "encryption scheme `%s' not known", o->name);
348 c->ksz = keysz(o->gbits/8, c->c->keysz);
349 c->k = xmalloc(c->ksz);
350 rand_get(RAND_GLOBAL, c->k, c->ksz);
351 return (c);
352 }
353
354 static void ksched_run(void *cc)
355 {
356 ksched_ctx *c = cc;
357 gcipher *gc = GC_INIT(c->c, c->k, c->ksz);
358 GC_DESTROY(gc);
359 }
360
361 typedef struct enc_ctx {
362 gcipher *c;
363 octet *m;
364 size_t sz;
365 size_t n;
366 } enc_ctx;
367
368 static void *enc_init(opts *o)
369 {
370 enc_ctx *c = CREATE(enc_ctx);
371 const gccipher *cc;
372 size_t ksz;
373 octet *k;
374 if (!o->name)
375 die(1, "must specify encryption scheme name");
376 if ((cc = gcipher_byname(o->name)) == 0)
377 die(1, "encryption scheme `%s' not known", o->name);
378 ksz = keysz(0, cc->keysz);
379 k = xmalloc(ksz);
380 rand_get(RAND_GLOBAL, k, ksz);
381 c->c = GC_INIT(cc, k, ksz);
382 xfree(k);
383 c->sz = o->gbits ? o->gbits : 65536;
384 c->n = o->n ? o->n : 16;
385 c->m = xmalloc(c->sz);
386 return (c);
387 }
388
389 static void enc_run(void *cc)
390 {
391 enc_ctx *c = cc;
392 size_t i;
393 for (i = 0; i < c->n; i++)
394 GC_ENCRYPT(c->c, c->m, c->m, c->sz);
395 }
396
397 /* --- Hashing --- */
398
399 typedef struct hash_ctx {
400 const gchash *h;
401 octet *m;
402 size_t sz;
403 size_t n;
404 } hash_ctx;
405
406 static void *hash_init(opts *o)
407 {
408 hash_ctx *c = CREATE(hash_ctx);
409 if (!o->name)
410 die(1, "must specify hash function name");
411 if ((c->h = ghash_byname(o->name)) == 0)
412 die(1, "hash function `%s' not known", o->name);
413 c->sz = o->gbits ? o->gbits : 65536;
414 c->n = o->n ? o->n : 16;
415 c->m = xmalloc(c->sz);
416 return (c);
417 }
418
419 static void hash_run(void *cc)
420 {
421 hash_ctx *c = cc;
422 size_t i;
423 ghash *h = GH_INIT(c->h);
424 for (i = 0; i < c->n; i++)
425 GH_HASH(h, c->m, c->sz);
426 GH_DONE(h, 0);
427 GH_DESTROY(h);
428 }
429
430 /* --- Job table --- */
431
432 typedef struct jobops {
433 const char *name;
434 void *(*init)(opts *);
435 void (*run)(void *);
436 } jobops;
437
438 static const jobops jobtab[] = {
439 { "g-prime-exp", grp_init, gr_run },
440 { "g-ec-mul", grec_init, gr_run },
441 { "g-prime-exp-sim", grp_init, grsim_run },
442 { "g-ec-mul-sim", grec_init, grsim_run },
443 { "barrett-exp", bar_init, bar_run },
444 { "barrett-exp-sim", bar_init, barsim_run },
445 { "mont-exp", mont_init, mont_run },
446 { "mont-exp-sim", mont_init, montsim_run },
447 { "rsa-priv", rsapriv_init, rsapriv_run },
448 { "rsa-priv-blind", rsaprivblind_init, rsapriv_run },
449 { "rsa-pub", rsapub_init, rsapub_run },
450 { "ksched", ksched_init, ksched_run },
451 { "enc", enc_init, enc_run },
452 { "hash", hash_init, hash_run },
453 { 0, 0, 0 }
454 };
455
456 /*----- Main code ---------------------------------------------------------*/
457
458 void version(FILE *fp)
459 {
460 pquis(fp, "$, Catacomb " VERSION "\n");
461 }
462
463 static void usage(FILE *fp)
464 {
465 pquis(fp, "Usage: $ [-options] job\n");
466 }
467
468 static void help(FILE *fp)
469 {
470 version(fp);
471 putc('\n', fp);
472 usage(fp);
473 pquis(fp, "\n\
474 Various performance tests.\n\
475 \n\
476 Options:\n\
477 \n\
478 -h, --help Show this help text.\n\
479 -v, --version Show program version number.\n\
480 -u, --usage Show terse usage message.\n\
481 -l, --list [ITEM...] List all the various names of things.\n\
482 \n\
483 -C, --name=NAME Select curve/DH-group/enc/hash name.\n\
484 -b, --field-bits Field size for g-prime and rsa.\n\
485 -B, --group-bits Group size for g-prime; key size for ksched;\n\
486 data size for enc and hash.\n\
487 -n, --factors=COUNT Number of factors for {exp,mul}-sim.\n\
488 -i, --intervals=COUNT Number of intervals to run for. [0; forever]\n\
489 -t, --time=TIME Length of an interval in seconds. [1]\n\
490 ");
491 }
492
493 #define LISTS(LI) \
494 LI("Lists", list, \
495 listtab[i].name, listtab[i].name) \
496 LI("Jobs", job, \
497 jobtab[i].name, jobtab[i].name) \
498 LI("Elliptic curves", ec, \
499 ectab[i].name, ectab[i].name) \
500 LI("Diffie-Hellman groups", dh, \
501 ptab[i].name, ptab[i].name) \
502 LI("Encryption algorithms", cipher, \
503 gciphertab[i], gciphertab[i]->name) \
504 LI("Hash functions", hash, \
505 ghashtab[i], ghashtab[i]->name)
506
507 MAKELISTTAB(listtab, LISTS)
508
509 static unsigned uarg(const char *what, const char *p)
510 {
511 char *q;
512 unsigned long u;
513 errno = 0;
514 u = strtoul(p, &q, 0);
515 if (*q || u > UINT_MAX || q == p || errno)
516 die(1, "bad %s `%s'", what, p);
517 return (u);
518 }
519
520 static double farg(const char *what, const char *p)
521 {
522 char *q;
523 double f;
524 errno = 0;
525 f = strtod(p, &q);
526 if (*q || q == p || errno)
527 die(1, "bad %s `%s'", what, p);
528 return (f);
529 }
530
531 int main(int argc, char *argv[])
532 {
533 int i;
534 opts o = { 0 };
535 const jobops *j;
536 struct timeval tv_next, tv_now;
537 double t, ttot;
538 unsigned n;
539 unsigned long ii;
540 clock_t c_start, c_stop;
541 double itot;
542 void *p;
543
544 ego(argv[0]);
545 o.t = 1;
546 for (;;) {
547 static const struct option opts[] = {
548 { "help", 0, 0, 'h' },
549 { "version", 0, 0, 'v' },
550 { "usage", 0, 0, 'u' },
551 { "list", 0, 0, 'l' },
552 { "name", OPTF_ARGREQ, 0, 'C' },
553 { "field-bits", OPTF_ARGREQ, 0, 'b' },
554 { "group-bits", OPTF_ARGREQ, 0, 'B' },
555 { "factors", OPTF_ARGREQ, 0, 'n' },
556 { "intervals", OPTF_ARGREQ, 0, 'i' },
557 { "time", OPTF_ARGREQ, 0, 't' },
558 { 0, 0, 0, 0 }
559 };
560
561 i = mdwopt(argc, argv, "hvulC:b:B:n:i:t:", opts, 0, 0, 0);
562 if (i < 0) break;
563 switch (i) {
564 case 'h': help(stdout); exit(0);
565 case 'v': version(stdout); exit(0);
566 case 'u': usage(stdout); exit(0);
567 case 'l': exit(displaylists(listtab, argv + optind));
568 case 'C': o.name = optarg; break;
569 case 'b': o.fbits = uarg("field bits", optarg); break;
570 case 'B': o.gbits = uarg("subgroup bits", optarg); break;
571 case 'n': o.n = uarg("factor count", optarg); break;
572 case 'i': o.i = uarg("interval count", optarg); break;
573 case 't': o.t = farg("interval length", optarg); break;
574 default: usage(stderr); exit(1);
575 }
576 }
577 if (optind + 1 != argc) { usage(stderr); exit(1); }
578
579 for (j = jobtab; j->name; j++)
580 if (strcmp(j->name, argv[optind]) == 0) break;
581 if (!j->name) die(1, "unknown job type `%s'", argv[optind]);
582 p = j->init(&o);
583
584 n = 0;
585 ttot = itot = 0;
586 gettimeofday(&tv_now, 0);
587 do {
588 tv_addl(&tv_next, &tv_now, o.t, fmod(o.t * MILLION, MILLION));
589 ii = 0;
590 c_start = clock();
591 do {
592 j->run(p);
593 ii++;
594 gettimeofday(&tv_now, 0);
595 } while (TV_CMP(&tv_now, <, &tv_next));
596 c_stop = clock();
597 t = (double)(c_stop - c_start)/CLOCKS_PER_SEC;
598 itot += ii;
599 ttot += t;
600 printf("%5u: did = %5lu; /sec = %5f; avg /sec = %5f\n",
601 n, ii, ii/t, itot/ttot);
602 fflush(stdout);
603 n++;
604 } while (!o.i || n < o.i);
605
606 return (0);
607 }
608
609 /*----- That's all, folks -------------------------------------------------*/