eeprom.c 15 KB

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  1. /*
  2. * (C) Copyright 2001
  3. * Murray Jensen, CSIRO-MIT, <Murray.Jensen@csiro.au>
  4. *
  5. * See file CREDITS for list of people who contributed to this
  6. * project.
  7. *
  8. * This program is free software; you can redistribute it and/or
  9. * modify it under the terms of the GNU General Public License as
  10. * published by the Free Software Foundation; either version 2 of
  11. * the License, or (at your option) any later version.
  12. *
  13. * This program is distributed in the hope that it will be useful,
  14. * but WITHOUT ANY WARRANTY; without even the implied warranty of
  15. * MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
  16. * GNU General Public License for more details.
  17. *
  18. * You should have received a copy of the GNU General Public License
  19. * along with this program; if not, write to the Free Software
  20. * Foundation, Inc., 59 Temple Place, Suite 330, Boston,
  21. * MA 02111-1307 USA
  22. */
  23. #include <common.h>
  24. #include <mpc8260.h>
  25. /* imports from fetch.c */
  26. extern int fetch_and_parse (char *, ulong, int (*)(uchar *, uchar *));
  27. /* imports from input.c */
  28. extern int hymod_get_serno (const char *);
  29. /* this is relative to the root of the server's tftp directory */
  30. static char *def_bddb_cfgdir = "/hymod/bddb";
  31. static int
  32. hymod_eeprom_load (int which, hymod_eeprom_t *ep)
  33. {
  34. unsigned dev_addr = CFG_I2C_EEPROM_ADDR | \
  35. (which ? HYMOD_EEOFF_MEZZ : HYMOD_EEOFF_MAIN);
  36. unsigned offset = 0;
  37. uchar data[HYMOD_EEPROM_SIZE], *dp, *edp;
  38. hymod_eehdr_t *hp;
  39. ulong len, crc;
  40. memset (ep, 0, sizeof *ep);
  41. memset (data, 0, HYMOD_EEPROM_SIZE);
  42. crc = 0;
  43. hp = (hymod_eehdr_t *)data;
  44. eeprom_read (dev_addr, offset, (uchar *)hp, sizeof (*hp));
  45. offset += sizeof (*hp);
  46. if (hp->id != HYMOD_EEPROM_ID || hp->ver > HYMOD_EEPROM_VER ||
  47. (len = hp->len) > HYMOD_EEPROM_MAXLEN)
  48. return (0);
  49. dp = (uchar *)(hp + 1); edp = dp + len;
  50. eeprom_read (dev_addr, offset, dp, len);
  51. offset += len;
  52. eeprom_read (dev_addr, offset, (uchar *)&crc, sizeof (ulong));
  53. if (crc32 (0, data, edp - data) != crc)
  54. return (0);
  55. ep->ver = hp->ver;
  56. for (;;) {
  57. hymod_eerec_t *rp = (hymod_eerec_t *)dp;
  58. ulong rtyp;
  59. uchar rlen, *rdat;
  60. uint rsiz;
  61. if (rp->small.topbit == 0) {
  62. rtyp = rp->small.type;
  63. rlen = rp->small.len;
  64. rdat = rp->small.data;
  65. rsiz = offsetof (hymod_eerec_t, small.data) + rlen;
  66. }
  67. else if (rp->medium.nxtbit == 0) {
  68. rtyp = rp->medium.type;
  69. rlen = rp->medium.len;
  70. rdat = rp->medium.data;
  71. rsiz = offsetof (hymod_eerec_t, medium.data) + rlen;
  72. }
  73. else {
  74. rtyp = rp->large.type;
  75. rlen = rp->large.len;
  76. rdat = rp->large.data;
  77. rsiz = offsetof (hymod_eerec_t, large.data) + rlen;
  78. }
  79. if (rtyp == 0)
  80. break;
  81. dp += rsiz;
  82. if (dp > edp) /* error? */
  83. break;
  84. switch (rtyp) {
  85. case HYMOD_EEREC_SERNO: /* serial number */
  86. if (rlen == sizeof (ulong))
  87. memcpy (&ep->serno, rdat, sizeof (ulong));
  88. break;
  89. case HYMOD_EEREC_DATE: /* date */
  90. if (rlen == sizeof (hymod_date_t))
  91. memcpy (&ep->date, rdat, sizeof (hymod_date_t));
  92. break;
  93. case HYMOD_EEREC_BATCH: /* batch */
  94. if (rlen <= HYMOD_MAX_BATCH)
  95. memcpy (ep->batch, rdat, ep->batchlen = rlen);
  96. break;
  97. case HYMOD_EEREC_TYPE: /* board type */
  98. if (rlen == 1)
  99. ep->bdtype = *rdat;
  100. break;
  101. case HYMOD_EEREC_REV: /* board revision */
  102. if (rlen == 1)
  103. ep->bdrev = *rdat;
  104. break;
  105. case HYMOD_EEREC_SDRAM: /* sdram size(s) */
  106. if (rlen > 0 && rlen <= HYMOD_MAX_SDRAM) {
  107. int i;
  108. for (i = 0; i < rlen; i++)
  109. ep->sdramsz[i] = rdat[i];
  110. ep->nsdram = rlen;
  111. }
  112. break;
  113. case HYMOD_EEREC_FLASH: /* flash size(s) */
  114. if (rlen > 0 && rlen <= HYMOD_MAX_FLASH) {
  115. int i;
  116. for (i = 0; i < rlen; i++)
  117. ep->flashsz[i] = rdat[i];
  118. ep->nflash = rlen;
  119. }
  120. break;
  121. case HYMOD_EEREC_ZBT: /* zbt ram size(s) */
  122. if (rlen > 0 && rlen <= HYMOD_MAX_ZBT) {
  123. int i;
  124. for (i = 0; i < rlen; i++)
  125. ep->zbtsz[i] = rdat[i];
  126. ep->nzbt = rlen;
  127. }
  128. break;
  129. case HYMOD_EEREC_XLXTYP: /* xilinx fpga type(s) */
  130. if (rlen > 0 && rlen <= HYMOD_MAX_XLX) {
  131. int i;
  132. for (i = 0; i < rlen; i++)
  133. ep->xlx[i].type = rdat[i];
  134. ep->nxlx = rlen;
  135. }
  136. break;
  137. case HYMOD_EEREC_XLXSPD: /* xilinx fpga speed(s) */
  138. if (rlen > 0 && rlen <= HYMOD_MAX_XLX) {
  139. int i;
  140. for (i = 0; i < rlen; i++)
  141. ep->xlx[i].speed = rdat[i];
  142. }
  143. break;
  144. case HYMOD_EEREC_XLXTMP: /* xilinx fpga temperature(s) */
  145. if (rlen > 0 && rlen <= HYMOD_MAX_XLX) {
  146. int i;
  147. for (i = 0; i < rlen; i++)
  148. ep->xlx[i].temp = rdat[i];
  149. }
  150. break;
  151. case HYMOD_EEREC_XLXGRD: /* xilinx fpga grade(s) */
  152. if (rlen > 0 && rlen <= HYMOD_MAX_XLX) {
  153. int i;
  154. for (i = 0; i < rlen; i++)
  155. ep->xlx[i].grade = rdat[i];
  156. }
  157. break;
  158. case HYMOD_EEREC_CPUTYP: /* CPU type */
  159. if (rlen == 1)
  160. ep->mpc.type = *rdat;
  161. break;
  162. case HYMOD_EEREC_CPUSPD: /* CPU speed */
  163. if (rlen == 1)
  164. ep->mpc.cpuspd = *rdat;
  165. break;
  166. case HYMOD_EEREC_CPMSPD: /* CPM speed */
  167. if (rlen == 1)
  168. ep->mpc.cpmspd = *rdat;
  169. break;
  170. case HYMOD_EEREC_BUSSPD: /* bus speed */
  171. if (rlen == 1)
  172. ep->mpc.busspd = *rdat;
  173. break;
  174. case HYMOD_EEREC_HSTYPE: /* hs-serial chip type */
  175. if (rlen == 1)
  176. ep->hss.type = *rdat;
  177. break;
  178. case HYMOD_EEREC_HSCHIN: /* num hs-serial input chans */
  179. if (rlen == 1)
  180. ep->hss.nchin = *rdat;
  181. break;
  182. case HYMOD_EEREC_HSCHOUT: /* num hs-serial output chans */
  183. if (rlen == 1)
  184. ep->hss.nchout = *rdat;
  185. break;
  186. default: /* ignore */
  187. break;
  188. }
  189. }
  190. return (1);
  191. }
  192. /* maps an ascii "name=value" into a binary eeprom data record */
  193. typedef
  194. struct _eerec_map {
  195. char *name;
  196. uint type;
  197. uchar *(*handler) \
  198. (struct _eerec_map *, uchar *, uchar *, uchar *);
  199. uint length;
  200. uint maxlen;
  201. }
  202. eerec_map_t;
  203. static uchar *
  204. uint_handler (eerec_map_t *rp, uchar *val, uchar *dp, uchar *edp)
  205. {
  206. uchar *eval;
  207. union {
  208. uchar cval[4];
  209. ushort sval[2];
  210. ulong lval;
  211. } rdata;
  212. rdata.lval = simple_strtol (val, (char **)&eval, 10);
  213. if (eval == val || *eval != '\0') {
  214. printf ("%s rec (%s) is not a valid uint\n",
  215. rp->name, val);
  216. return (NULL);
  217. }
  218. if (dp + 2 + rp->length > edp) {
  219. printf ("can't fit %s rec into eeprom\n", rp->name);
  220. return (NULL);
  221. }
  222. *dp++ = rp->type;
  223. *dp++ = rp->length;
  224. switch (rp->length) {
  225. case 1:
  226. if (rdata.lval >= 256) {
  227. printf ("%s rec value (%lu) out of range (0-255)\n",
  228. rp->name, rdata.lval);
  229. return (NULL);
  230. }
  231. *dp++ = rdata.cval[3];
  232. break;
  233. case 2:
  234. if (rdata.lval >= 65536) {
  235. printf ("%s rec value (%lu) out of range (0-65535)\n",
  236. rp->name, rdata.lval);
  237. return (NULL);
  238. }
  239. memcpy (dp, &rdata.sval[1], 2);
  240. dp += 2;
  241. break;
  242. case 4:
  243. memcpy (dp, &rdata.lval, 4);
  244. dp += 4;
  245. break;
  246. default:
  247. printf ("huh? rp->length not 1, 2 or 4! (%d)\n", rp->length);
  248. return (NULL);
  249. }
  250. return (dp);
  251. }
  252. static uchar *
  253. date_handler (eerec_map_t *rp, uchar *val, uchar *dp, uchar *edp)
  254. {
  255. hymod_date_t date;
  256. uchar *p = val, *ep;
  257. date.year = simple_strtol (p, (char **)&ep, 10);
  258. if (ep == p || *ep++ != '-') {
  259. bad_date:
  260. printf ("%s rec (%s) is not a valid date\n", rp->name, val);
  261. return (NULL);
  262. }
  263. date.month = simple_strtol (p = ep, (char **)&ep, 10);
  264. if (ep == p || *ep++ != '-' || date.month == 0 || date.month > 12)
  265. goto bad_date;
  266. date.day = simple_strtol (p = ep, (char **)&ep, 10);
  267. if (ep == p || *ep != '\0' || date.day == 0 || date.day > 31)
  268. goto bad_date;
  269. if (dp + 2 + sizeof (hymod_date_t) > edp) {
  270. printf ("can't fit %s rec into eeprom\n", rp->name);
  271. return (NULL);
  272. }
  273. *dp++ = rp->type;
  274. *dp++ = sizeof (hymod_date_t);
  275. memcpy (dp, &date, sizeof (hymod_date_t));
  276. dp += sizeof (hymod_date_t);
  277. return (dp);
  278. }
  279. static uchar *
  280. string_handler (eerec_map_t *rp, uchar *val, uchar *dp, uchar *edp)
  281. {
  282. uint len;
  283. if ((len = strlen (val)) > rp->maxlen) {
  284. printf ("%s rec (%s) string is too long (%d>%d)\n",
  285. rp->name, val, len, rp->maxlen);
  286. return (NULL);
  287. }
  288. if (dp + 2 + len > edp) {
  289. printf ("can't fit %s rec into eeprom\n", rp->name);
  290. return (NULL);
  291. }
  292. *dp++ = rp->type;
  293. *dp++ = len;
  294. memcpy (dp, val, len);
  295. dp += len;
  296. return (dp);
  297. }
  298. static uchar *
  299. bytes_handler (eerec_map_t *rp, uchar *val, uchar *dp, uchar *edp)
  300. {
  301. uchar bytes[HYMOD_MAX_BYTES], nbytes = 0;
  302. uchar *p = val, *ep;
  303. for (;;) {
  304. if (nbytes >= HYMOD_MAX_BYTES) {
  305. printf ("%s rec (%s) byte array too long\n",
  306. rp->name, val);
  307. return (NULL);
  308. }
  309. bytes[nbytes++] = simple_strtol (p, (char **)&ep, 10);
  310. if (ep == p || (*ep != '\0' && *ep != ',')) {
  311. printf ("%s rec (%s) byte array has invalid uint\n",
  312. rp->name, val);
  313. return (NULL);
  314. }
  315. if (*ep++ == '\0')
  316. break;
  317. p = ep;
  318. }
  319. if (dp + 2 + nbytes > edp) {
  320. printf ("can't fit %s rec into eeprom\n", rp->name);
  321. return (NULL);
  322. }
  323. *dp++ = rp->type;
  324. *dp++ = nbytes;
  325. memcpy (dp, bytes, nbytes);
  326. dp += nbytes;
  327. return (dp);
  328. }
  329. static eerec_map_t eerec_map[] = {
  330. /* name type handler len max */
  331. { "serno", HYMOD_EEREC_SERNO, uint_handler, 4, 0 },
  332. { "date", HYMOD_EEREC_DATE, date_handler, 4, 0 },
  333. { "batch", HYMOD_EEREC_BATCH, string_handler, 0, HYMOD_MAX_BATCH },
  334. { "type", HYMOD_EEREC_TYPE, uint_handler, 1, 0 },
  335. { "rev", HYMOD_EEREC_REV, uint_handler, 1, 0 },
  336. { "sdram", HYMOD_EEREC_SDRAM, bytes_handler, 0, HYMOD_MAX_SDRAM },
  337. { "flash", HYMOD_EEREC_FLASH, bytes_handler, 0, HYMOD_MAX_FLASH },
  338. { "zbt", HYMOD_EEREC_ZBT, bytes_handler, 0, HYMOD_MAX_ZBT },
  339. { "xlxtyp", HYMOD_EEREC_XLXTYP, bytes_handler, 0, HYMOD_MAX_XLX },
  340. { "xlxspd", HYMOD_EEREC_XLXSPD, bytes_handler, 0, HYMOD_MAX_XLX },
  341. { "xlxtmp", HYMOD_EEREC_XLXTMP, bytes_handler, 0, HYMOD_MAX_XLX },
  342. { "xlxgrd", HYMOD_EEREC_XLXGRD, bytes_handler, 0, HYMOD_MAX_XLX },
  343. { "cputyp", HYMOD_EEREC_CPUTYP, uint_handler, 1, 0 },
  344. { "cpuspd", HYMOD_EEREC_CPUSPD, uint_handler, 1, 0 },
  345. { "cpmspd", HYMOD_EEREC_CPMSPD, uint_handler, 1, 0 },
  346. { "busspd", HYMOD_EEREC_BUSSPD, uint_handler, 1, 0 },
  347. { "hstype", HYMOD_EEREC_HSTYPE, uint_handler, 1, 0 },
  348. { "hschin", HYMOD_EEREC_HSCHIN, uint_handler, 1, 0 },
  349. { "hschout", HYMOD_EEREC_HSCHOUT, uint_handler, 1, 0 },
  350. };
  351. static int neerecs = sizeof eerec_map / sizeof eerec_map[0];
  352. static uchar data[HYMOD_EEPROM_SIZE], *sdp, *dp, *edp;
  353. static int
  354. eerec_callback (uchar *name, uchar *val)
  355. {
  356. eerec_map_t *rp;
  357. for (rp = eerec_map; rp < &eerec_map[neerecs]; rp++)
  358. if (strcmp (name, rp->name) == 0)
  359. break;
  360. if (rp >= &eerec_map[neerecs])
  361. return (0);
  362. if ((dp = (*rp->handler) (rp, val, dp, edp)) == NULL)
  363. return (0);
  364. return (1);
  365. }
  366. static int
  367. hymod_eeprom_fetch(int which, char *filename, ulong addr)
  368. {
  369. unsigned dev_addr = CFG_I2C_EEPROM_ADDR | \
  370. (which ? HYMOD_EEOFF_MEZZ : HYMOD_EEOFF_MAIN);
  371. hymod_eehdr_t *hp = (hymod_eehdr_t *)&data[0];
  372. ulong crc;
  373. hp->id = HYMOD_EEPROM_ID;
  374. hp->ver = HYMOD_EEPROM_VER;
  375. dp = sdp = (uchar *)(hp + 1);
  376. edp = dp + HYMOD_EEPROM_MAXLEN;
  377. if (fetch_and_parse (filename, addr, eerec_callback) == 0)
  378. return (0);
  379. hp->len = dp - sdp;
  380. crc = crc32 (0, data, dp - data);
  381. memcpy (dp, &crc, sizeof (ulong));
  382. dp += sizeof (ulong);
  383. eeprom_write (dev_addr, 0, data, dp - data);
  384. return (1);
  385. }
  386. static char *type_vals[] = {
  387. "NONE", "IO", "CLP", "DSP", "INPUT", "ALT-INPUT", "DISPLAY"
  388. };
  389. static char *xlxtyp_vals[] = {
  390. "NONE", "XCV300E", "XCV400E", "XCV600E"
  391. };
  392. static char *xlxspd_vals[] = {
  393. "NONE", "6", "7", "8"
  394. };
  395. static char *xlxtmp_vals[] = {
  396. "NONE", "COM", "IND"
  397. };
  398. static char *xlxgrd_vals[] = {
  399. "NONE", "NORMAL", "ENGSAMP"
  400. };
  401. static char *cputyp_vals[] = {
  402. "NONE", "MPC8260"
  403. };
  404. static char *clk_vals[] = {
  405. "NONE", "33", "66", "100", "133", "166", "200"
  406. };
  407. static char *hstype_vals[] = {
  408. "NONE", "AMCC-S2064A"
  409. };
  410. static void
  411. print_mem (char *l, char *s, uchar n, uchar a[])
  412. {
  413. if (n > 0) {
  414. if (n == 1)
  415. printf ("%s%dMB %s", s, 1 << (a[0] - 20), l);
  416. else {
  417. ulong t = 0;
  418. int i;
  419. for (i = 0; i < n; i++)
  420. t += 1 << (a[i] - 20);
  421. printf ("%s%luMB %s (%d banks:", s, t, l, n);
  422. for (i = 0; i < n; i++)
  423. printf ("%dMB%s",
  424. 1 << (a[i] - 20),
  425. (i == n - 1) ? ")" : ",");
  426. }
  427. }
  428. else
  429. printf ("%sNO %s", s, l);
  430. }
  431. void
  432. hymod_eeprom_print (hymod_eeprom_t *ep)
  433. {
  434. int i;
  435. printf (" Hymod %s board, rev %03d\n",
  436. type_vals[ep->bdtype], ep->bdrev);
  437. printf (" serial #: %010lu, date %04d-%02d-%02d",
  438. ep->serno, ep->date.year, ep->date.month, ep->date.day);
  439. if (ep->batchlen > 0)
  440. printf (", batch \"%.*s\"", ep->batchlen, ep->batch);
  441. puts ("\n");
  442. switch (ep->bdtype) {
  443. case HYMOD_BDTYPE_IO:
  444. case HYMOD_BDTYPE_CLP:
  445. case HYMOD_BDTYPE_DSP:
  446. printf (" Motorola %s CPU, speeds: %s/%s/%s",
  447. cputyp_vals[ep->mpc.type], clk_vals[ep->mpc.cpuspd],
  448. clk_vals[ep->mpc.cpmspd], clk_vals[ep->mpc.busspd]);
  449. print_mem ("SDRAM", ", ", ep->nsdram, ep->sdramsz);
  450. print_mem ("FLASH", ", ", ep->nflash, ep->flashsz);
  451. puts ("\n");
  452. print_mem ("ZBT", " ", ep->nzbt, ep->zbtsz);
  453. if (ep->nxlx > 0) {
  454. hymod_xlx_t *xp;
  455. if (ep->nxlx == 1) {
  456. xp = &ep->xlx[0];
  457. printf (", Xilinx %s FPGA (%s/%s/%s)",
  458. xlxtyp_vals[xp->type],
  459. xlxspd_vals[xp->speed],
  460. xlxtmp_vals[xp->temp],
  461. xlxgrd_vals[xp->grade]);
  462. }
  463. else {
  464. printf (", %d Xilinx FPGAs (", ep->nxlx);
  465. for (i = 0; i < ep->nxlx; i++) {
  466. xp = &ep->xlx[i];
  467. printf ("%s[%s/%s/%s]%s",
  468. xlxtyp_vals[xp->type],
  469. xlxspd_vals[xp->speed],
  470. xlxtmp_vals[xp->temp],
  471. xlxgrd_vals[xp->grade],
  472. (i == ep->nxlx - 1) ? ")" : ", ");
  473. }
  474. }
  475. }
  476. else
  477. puts(", NO FPGAs");
  478. puts ("\n");
  479. if (ep->hss.type > 0)
  480. printf (" High Speed Serial: "
  481. "%s, %d input%s, %d output%s\n",
  482. hstype_vals[ep->hss.type],
  483. ep->hss.nchin,
  484. (ep->hss.nchin == 1 ? "" : "s"),
  485. ep->hss.nchout,
  486. (ep->hss.nchout == 1 ? "" : "s"));
  487. break;
  488. case HYMOD_BDTYPE_INPUT:
  489. case HYMOD_BDTYPE_ALTINPUT:
  490. case HYMOD_BDTYPE_DISPLAY:
  491. break;
  492. default:
  493. /* crap! */
  494. printf (" UNKNOWN BOARD TYPE: %d\n", ep->bdtype);
  495. break;
  496. }
  497. }
  498. int
  499. hymod_eeprom_read (int which, hymod_eeprom_t *ep)
  500. {
  501. char *label = which ? "mezzanine" : "main";
  502. unsigned dev_addr = CFG_I2C_EEPROM_ADDR | \
  503. (which ? HYMOD_EEOFF_MEZZ : HYMOD_EEOFF_MAIN);
  504. char filename[50], prompt[50], *dir;
  505. int serno, count = 0, rc;
  506. rc = eeprom_probe (dev_addr, 0);
  507. if (rc > 0) {
  508. printf ("*** probe for eeprom failed with code %d\n", rc);
  509. return (0);
  510. }
  511. if (rc < 0)
  512. return (rc);
  513. sprintf (prompt, "Enter %s board serial number: ", label);
  514. if ((dir = getenv ("bddb_cfgdir")) == NULL)
  515. dir = def_bddb_cfgdir;
  516. for (;;) {
  517. int rc;
  518. if (hymod_eeprom_load (which, ep))
  519. return (1);
  520. printf ("*** %s board EEPROM contents are %sinvalid\n",
  521. label, count == 0 ? "" : "STILL ");
  522. puts ("*** will fetch from server (Ctrl-C to abort)\n");
  523. serno = hymod_get_serno (prompt);
  524. if (serno < 0) {
  525. if (serno == -1)
  526. puts ("\n*** interrupted!");
  527. else
  528. puts ("\n*** timeout!");
  529. puts (" - ignoring eeprom contents\n");
  530. return (0);
  531. }
  532. sprintf (filename, "%s/%010d.cfg", dir, serno);
  533. printf ("*** fetching %s board EEPROM contents from server\n",
  534. label);
  535. rc = hymod_eeprom_fetch (which, filename, CFG_LOAD_ADDR);
  536. if (rc == 0) {
  537. puts ("*** fetch failed - ignoring eeprom contents\n");
  538. return (0);
  539. }
  540. count++;
  541. }
  542. }