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ixj.c
资源名称：rtsp-1.0.1.tar.gz　[点击查看]
上传用户：sy_wanhua
上传日期：2013-07-25
资源大小：3048k
文件大小：219k
源码类别：

流媒体/Mpeg4/MP4

开发平台：

C/C++

ixj.c：源码内容
  1. ixj_play_stop(board);
  2. ixj_play_stop(arg);
  3. idle(board);
  4. idle(arg);
  5. break;
  6. case IXJCTL_INTERCOM_START:
  7. ixj[board].intercom = arg;
  8. ixj[arg].intercom = board;
  9. ixj_play_start(arg);
  10. ixj_record_start(board);
  11. ixj_play_start(board);
  12. ixj_record_start(arg);
  13. idle(board);
  14. idle(arg);
  15. break;
  16. }
  17. return retval;
  18. }
  20. static int ixj_fasync(int fd, struct file *file_p, int mode)
  21. {
  22. IXJ *j = &ixj[NUM(file_p->f_dentry->d_inode->i_rdev)];
  23. return fasync_helper(fd, file_p, mode, &j->async_queue);
  24. }
  26. struct file_operations ixj_fops =
  27. {
  28. NULL, /* ixj_lseek */
  29. ixj_enhanced_read,
  30. ixj_enhanced_write,
  31. NULL, /* ixj_readdir */
  32. ixj_poll,
  33. ixj_ioctl,
  34. NULL, /* ixj_mmap */
  35. //  ixj_open,
  36. NULL, /* ixj_open */
  37. NULL, /* ixj_flush */
  38. ixj_release,
  39. NULL, /* ixj_fsync */
  40. ixj_fasync, /* ixj_fasync */
  41. NULL, /* media change */
  42. NULL, /* revalidate */
  43. NULL /* lock */
  44. };
  46. static int ixj_linetest(int board)
  47. {
  48. unsigned long jifwait;
  49. IXJ *j = &ixj[board];
  51. if (!j->flags.pots_correct) {
  52. j->flags.pots_correct = 1; // Testing
  54. daa_int_read(board); //Clear DAA Interrupt flags
  55. //
  56. // Hold all relays in the normally de-energized position.
  57. //
  59. j->pld_slicw.bits.rly1 = 0;
  60. j->pld_slicw.bits.rly2 = 0;
  61. j->pld_slicw.bits.rly3 = 0;
  62. outb_p(j->pld_slicw.byte, j->XILINXbase + 0x01);
  63. j->pld_scrw.bits.daafsyncen = 0; // Turn off DAA Frame Sync
  65. outb_p(j->pld_scrw.byte, j->XILINXbase);
  66. j->pld_slicr.byte = inb_p(j->XILINXbase + 0x01);
  67. if (j->pld_slicr.bits.potspstn) {
  68. j->flags.pots_pstn = 1;
  69. j->flags.pots_correct = 0;
  70. LED_SetState(0x4, board);
  71. } else {
  72. j->flags.pots_pstn = 0;
  73. j->pld_slicw.bits.rly1 = 0;
  74. j->pld_slicw.bits.rly2 = 0;
  75. j->pld_slicw.bits.rly3 = 1;
  76. outb_p(j->pld_slicw.byte, j->XILINXbase + 0x01);
  77. j->pld_scrw.bits.daafsyncen = 0; // Turn off DAA Frame Sync
  79. outb_p(j->pld_scrw.byte, j->XILINXbase);
  80. daa_set_mode(board, SOP_PU_CONVERSATION);
  81. jifwait = jiffies + hertz;
  82. while (time_before(jiffies, jifwait)) {
  83. current->state = TASK_INTERRUPTIBLE;
  84. schedule_timeout(1);
  85. }
  86. daa_int_read(board);
  87. daa_set_mode(board, SOP_PU_SLEEP);
  88. if (j->m_DAAShadowRegs.XOP_REGS.XOP.xr0.bitreg.VDD_OK) {
  89. j->flags.pots_correct = 0; // Should not be line voltage on POTS port.
  91. LED_SetState(0x4, board);
  92. j->pld_slicw.bits.rly3 = 0;
  93. outb_p(j->pld_slicw.byte, j->XILINXbase + 0x01);
  94. } else {
  95. j->flags.pots_correct = 1;
  96. LED_SetState(0x8, board);
  97. j->pld_slicw.bits.rly1 = 1;
  98. j->pld_slicw.bits.rly2 = 0;
  99. j->pld_slicw.bits.rly3 = 0;
  100. outb_p(j->pld_slicw.byte, j->XILINXbase + 0x01);
  101. }
  102. }
  103. }
  104. if (!j->flags.pstn_present) {
  105. j->pld_slicw.bits.rly3 = 0;
  106. outb_p(j->pld_slicw.byte, j->XILINXbase + 0x01);
  107. daa_set_mode(board, SOP_PU_CONVERSATION);
  108. jifwait = jiffies + hertz;
  109. while (time_before(jiffies, jifwait)) {
  110. current->state = TASK_INTERRUPTIBLE;
  111. schedule_timeout(1);
  112. }
  113. daa_int_read(board);
  114. daa_set_mode(board, SOP_PU_SLEEP);
  115. if (j->m_DAAShadowRegs.XOP_REGS.XOP.xr0.bitreg.VDD_OK) {
  116. j->flags.pstn_present = 1;
  117. } else {
  118. j->flags.pstn_present = 0;
  119. }
  120. }
  121. if (j->flags.pstn_present) {
  122. if (j->flags.pots_correct) {
  123. LED_SetState(0xA, board);
  124. } else {
  125. LED_SetState(0x6, board);
  126. }
  127. } else {
  128. if (j->flags.pots_correct) {
  129. LED_SetState(0x9, board);
  130. } else {
  131. LED_SetState(0x5, board);
  132. }
  133. }
  134. return j->flags.pstn_present;
  135. }
  137. static int ixj_selfprobe(int board)
  138. {
  139. unsigned short cmd;
  140. unsigned long jif;
  141. BYTES bytes;
  142. IXJ *j = &ixj[board];
  144. if (ixjdebug > 0)
  145. printk(KERN_INFO "Write IDLE to Software Control Registern");
  147. if (ixj_WriteDSPCommand(0x0000, board)) /* Write IDLE to Software Control Register */
  148. return -1;
  150. // The read values of the SSR should be 0x00 for the IDLE command
  151. if (j->ssr.low || j->ssr.high)
  152. return -1;
  154. if (ixjdebug > 0)
  155. printk(KERN_INFO "Get Device ID Coden");
  157. if (ixj_WriteDSPCommand(0x3400, board)) /* Get Device ID Code */
  158. return -1;
  160. j->dsp.low = j->ssr.low;
  161. j->dsp.high = j->ssr.high;
  163. if (ixjdebug > 0)
  164. printk(KERN_INFO "Get Device Version Coden");
  166. if (ixj_WriteDSPCommand(0x3800, board)) /* Get Device Version Code */
  167. return -1;
  169. j->ver.low = j->ssr.low;
  170. j->ver.high = j->ssr.high;
  172. if (!j->cardtype) {
  173. if (j->dsp.low == 0x21) {
  174. //      j->XILINXbase = j->DSPbase + 0x10;
  175. bytes.high = bytes.low = inb_p(j->XILINXbase + 0x02);
  176. outb_p(bytes.low ^ 0xFF, j->XILINXbase + 0x02);
  177.       // Test for Internet LineJACK or Internet PhoneJACK Lite
  178. bytes.low = inb_p(j->XILINXbase + 0x02);
  179. if (bytes.low == bytes.high) //  Register is read only on
  180.                                     //  Internet PhoneJack Lite
  181.  {
  182. j->cardtype = 400; // Internet PhoneJACK Lite
  184. if (check_region(j->XILINXbase, 4)) {
  185. printk(KERN_INFO "ixj: can't get I/O address 0x%xn", j->XILINXbase);
  186. return -1;
  187. }
  188. request_region(j->XILINXbase, 4, "ixj control");
  189. j->pld_slicw.pcib.e1 = 1;
  190. outb_p(j->pld_slicw.byte, j->XILINXbase);
  191. } else {
  192. j->cardtype = 300; // Internet LineJACK
  194. if (check_region(j->XILINXbase, 8)) {
  195. printk(KERN_INFO "ixj: can't get I/O address 0x%xn", j->XILINXbase);
  196. return -1;
  197. }
  198. request_region(j->XILINXbase, 8, "ixj control");
  199. }
  200. } else if (j->dsp.low == 0x22) {
  201. j->cardtype = 500; // Internet PhoneJACK PCI
  203. request_region(j->XILINXbase, 4, "ixj control");
  204. j->pld_slicw.pcib.e1 = 1;
  205. outb_p(j->pld_slicw.byte, j->XILINXbase);
  206. } else
  207. j->cardtype = 100; // Internet PhoneJACK
  209. } else {
  210. switch (j->cardtype) {
  211. case 100: // Internet PhoneJACK
  213. if (!j->dsp.low != 0x20) {
  214. j->dsp.high = 0x80;
  215. j->dsp.low = 0x20;
  216. ixj_WriteDSPCommand(0x3800, board);
  217. j->ver.low = j->ssr.low;
  218. j->ver.high = j->ssr.high;
  219. }
  220. break;
  221. case 300: // Internet LineJACK
  223. if (check_region(j->XILINXbase, 8)) {
  224. printk(KERN_INFO "ixj: can't get I/O address 0x%xn", j->XILINXbase);
  225. return -1;
  226. }
  227. request_region(j->XILINXbase, 8, "ixj control");
  228. break;
  229. case 400: //Internet PhoneJACK Lite
  231. case 500: //Internet PhoneJACK PCI
  233. if (check_region(j->XILINXbase, 4)) {
  234. printk(KERN_INFO "ixj: can't get I/O address 0x%xn", j->XILINXbase);
  235. return -1;
  236. }
  237. request_region(j->XILINXbase, 4, "ixj control");
  238. j->pld_slicw.pcib.e1 = 1;
  239. outb_p(j->pld_slicw.byte, j->XILINXbase);
  240. break;
  241. }
  242. }
  243. if (j->dsp.low == 0x20 || j->cardtype == 400 || j->cardtype == 500) {
  244. if (ixjdebug > 0)
  245. printk(KERN_INFO "Write CODEC config to Software Control Registern");
  247. if (ixj_WriteDSPCommand(0xC462, board)) /* Write CODEC config to Software Control Register */
  248. return -1;
  250. if (ixjdebug > 0)
  251. printk(KERN_INFO "Write CODEC timing to Software Control Registern");
  253. if (j->cardtype == 100) {
  254. cmd = 0x9FF2;
  255. } else {
  256. cmd = 0x9FF5;
  257. }
  258. if (ixj_WriteDSPCommand(cmd, board)) /* Write CODEC timing to Software Control Register */
  259. return -1;
  260. } else {
  261. if (set_base_frame(board, 30) != 30)
  262. return -1;
  264. if (j->cardtype == 300) {
  265. if (ixjdebug > 0)
  266. printk(KERN_INFO "Write CODEC config to Software Control Registern");
  268. if (ixj_WriteDSPCommand(0xC528, board)) /* Write CODEC config to Software Control Register */
  269. return -1;
  271. if (ixjdebug > 0)
  272. printk(KERN_INFO "Turn on the PLD Clock at 8Khzn");
  274. j->pld_clock.byte = 0;
  275. outb_p(j->pld_clock.byte, j->XILINXbase + 0x04);
  276. }
  277. }
  279. if (j->dsp.low == 0x20) {
  280. if (ixjdebug > 0)
  281. printk(KERN_INFO "Configure GPIO pinsn");
  283. j->gpio.bytes.high = 0x09;
  284. /*  bytes.low = 0xEF;  0xF7 */
  285. j->gpio.bits.gpio1 = 1;
  286. j->gpio.bits.gpio2 = 1;
  287. j->gpio.bits.gpio3 = 0;
  288. j->gpio.bits.gpio4 = 1;
  289. j->gpio.bits.gpio5 = 1;
  290. j->gpio.bits.gpio6 = 1;
  291. j->gpio.bits.gpio7 = 1;
  292. ixj_WriteDSPCommand(ixj[board].gpio.word, board); /* Set GPIO pin directions */
  294. if (ixjdebug > 0)
  295. printk(KERN_INFO "Enable SLICn");
  297. j->gpio.bytes.high = 0x0B;
  298. j->gpio.bytes.low = 0x00;
  299. j->gpio.bits.gpio1 = 0;
  300. j->gpio.bits.gpio2 = 1;
  301. j->gpio.bits.gpio5 = 0;
  302. ixj_WriteDSPCommand(ixj[board].gpio.word, board); /* send the ring stop signal */
  303. j->port = PORT_POTS;
  304. } else {
  305. if (j->cardtype == 300) {
  306. LED_SetState(0x1, board);
  307. jif = jiffies + (hertz / 10);
  308. while (time_before(jiffies, jif)) {
  309. current->state = TASK_INTERRUPTIBLE;
  310. schedule_timeout(1);
  311. }
  312. LED_SetState(0x2, board);
  313. jif = jiffies + (hertz / 10);
  314. while (time_before(jiffies, jif)) {
  315. current->state = TASK_INTERRUPTIBLE;
  316. schedule_timeout(1);
  317. }
  318. LED_SetState(0x4, board);
  319. jif = jiffies + (hertz / 10);
  320. while (time_before(jiffies, jif)) {
  321. current->state = TASK_INTERRUPTIBLE;
  322. schedule_timeout(1);
  323. }
  324. LED_SetState(0x8, board);
  325. jif = jiffies + (hertz / 10);
  326. while (time_before(jiffies, jif)) {
  327. current->state = TASK_INTERRUPTIBLE;
  328. schedule_timeout(1);
  329. }
  330. LED_SetState(0x0, board);
  332. daa_get_version(board);
  334. if (ixjdebug > 0)
  335. printk("Loading DAA Coefficientsn");
  337. DAA_Coeff_US(board);
  338. if (!ixj_daa_write(board))
  339. printk("DAA write failed on board %dn", board);
  341. ixj_daa_cid_reset(board);
  343. j->flags.pots_correct = 0;
  344. j->flags.pstn_present = 0;
  346. ixj_linetest(board);
  348. if (j->flags.pots_correct) {
  349. j->pld_scrw.bits.daafsyncen = 0; // Turn off DAA Frame Sync
  351. outb_p(j->pld_scrw.byte, j->XILINXbase);
  352. j->pld_slicw.bits.rly1 = 1;
  353. j->pld_slicw.bits.spken = 1;
  354. outb_p(j->pld_slicw.byte, j->XILINXbase + 0x01);
  355. SLIC_SetState(PLD_SLIC_STATE_STANDBY, board);
  356. j->port = PORT_POTS;
  357. }
  358. if (ixjdebug > 0)
  359. printk(KERN_INFO "Enable Mixern");
  361. ixj_mixer(0x0000, board); //Master Volume Left unmute 0db
  363. ixj_mixer(0x0100, board); //Master Volume Right unmute 0db
  365. ixj_mixer(0x0F00, board); //Mono Out Volume unmute 0db
  367. ixj_mixer(0x0C00, board); //Mono1 Volume unmute 0db
  369. ixj_mixer(0x0200, board); //Voice Left Volume unmute 0db
  371. ixj_mixer(0x0300, board); //Voice Right Volume unmute 0db
  373. ixj_mixer(0x110C, board); //Voice Left and Right out
  375. ixj_mixer(0x1401, board); //Mono1 switch on mixer left
  377. ixj_mixer(0x1501, board); //Mono1 switch on mixer right
  379. ixj_mixer(0x1700, board); //Clock select
  381. ixj_mixer(0x1800, board); //ADC Source select
  383. } else {
  384. j->port = PORT_POTS;
  385. SLIC_SetState(PLD_SLIC_STATE_STANDBY, board);
  386. }
  387. }
  389. j->intercom = -1;
  390. j->framesread = j->frameswritten = 0;
  391. j->rxreadycheck = j->txreadycheck = 0;
  393. if (ixj_WriteDSPCommand(0x0000, board)) /* Write IDLE to Software Control Register */
  394. return -1;
  396. // The read values of the SSR should be 0x00 for the IDLE command
  397. if (j->ssr.low || j->ssr.high)
  398. return -1;
  400. if (ixjdebug > 0)
  401. printk(KERN_INFO "Enable Line Monitorn");
  403. if (ixjdebug > 0)
  404. printk(KERN_INFO "Set Line Monitor to Asyncronous Moden");
  406. if (ixj_WriteDSPCommand(0x7E01, board)) // Asynchronous Line Monitor
  408. return -1;
  410. if (ixjdebug > 0)
  411. printk(KERN_INFO "Enable DTMF Detectorsn");
  413. if (ixj_WriteDSPCommand(0x5151, board)) // Enable DTMF detection
  415. return -1;
  417. if (ixj_WriteDSPCommand(0x6E01, board)) // Set Asyncronous Tone Generation
  419. return -1;
  421. set_rec_depth(board, 2); // Set Record Channel Limit to 2 frames
  423. set_play_depth(board, 2); // Set Playback Channel Limit to 2 frames
  425. j->ex.bits.dtmf_ready = 0;
  426. j->dtmf_state = 0;
  427. j->dtmf_wp = ixj[board].dtmf_rp = 0;
  429. j->rec_mode = ixj[board].play_mode = -1;
  430. j->flags.ringing = 0;
  431. j->maxrings = MAXRINGS;
  432. j->ring_cadence = USA_RING_CADENCE;
  433. j->drybuffer = 0;
  434. j->winktime = 320;
  435. j->flags.dtmf_oob = 0;
  437. /* must be a device on the specified address */
  438. /* Register with the Telephony for Linux subsystem */
  439. j->p.f_op = &ixj_fops;
  440. j->p.open = ixj_open;
  441. phone_register_device(&j->p, PHONE_UNIT_ANY);
  443. add_caps(board);
  445. return 0;
  446. }
  448. int ixj_read_proc(char *buf, char **start, off_t offset, int len, int unused)
  449. {
  450. int cnt;
  451. IXJ *j;
  452. len = 0;
  454. len += sprintf(buf + len, "n%s", ixj_c_rcsid);
  455. len += sprintf(buf + len, "n%s", ixj_h_rcsid);
  456. len += sprintf(buf + len, "n%s", ixjuser_h_rcsid);
  458. for (cnt = 0; cnt < IXJMAX; cnt++) {
  459. j = &ixj[cnt];
  460. if (j->DSPbase) {
  461. len += sprintf(buf + len, "nCard Num %d", cnt);
  462. len += sprintf(buf + len, "nDSP Base Address 0x%4.4x", j->DSPbase);
  463. if (j->cardtype != 100)
  464. len += sprintf(buf + len, "nXILINX Base Address 0x%4.4x", j->XILINXbase);
  465. len += sprintf(buf + len, "nDSP Type %2.2x%2.2x", j->dsp.high, j->dsp.low);
  466. len += sprintf(buf + len, "nDSP Version %2.2x.%2.2x", j->ver.high, j->ver.low);
  467. len += sprintf(buf + len, "nSerial Number %8.8x", j->serial);
  468. switch (j->cardtype) {
  469. case (100):
  470. len += sprintf(buf + len, "nCard Type = Internet PhoneJACK");
  471. break;
  472. case (300):
  473. len += sprintf(buf + len, "nCard Type = Internet LineJACK");
  474. if (j->flags.g729_loaded)
  475. len += sprintf(buf + len, " w/G.729 A/B");
  476. break;
  477. case (400):
  478. len += sprintf(buf + len, "nCard Type = Internet PhoneJACK Lite");
  479. if (j->flags.g729_loaded)
  480. len += sprintf(buf + len, " w/G.729 A/B");
  481. break;
  482. case (500):
  483. len += sprintf(buf + len, "nCard Type = Internet PhoneJACK PCI");
  484. if (j->flags.g729_loaded)
  485. len += sprintf(buf + len, " w/G.729 A/B");
  486. break;
  487. default:
  488. len += sprintf(buf + len, "nCard Type = %d", j->cardtype);
  489. break;
  490. }
  491. len += sprintf(buf + len, "nCapabilities %d", j->caps);
  492. if (j->dsp.low != 0x20)
  493. len += sprintf(buf + len, "nDSP Processor load %d", j->proc_load);
  494. //    if(j->intercom != -1)
  495. //      len += sprintf(buf+len, "nIntercom call to board %2.2x", j->intercom);
  497. //    len += sprintf(buf+len, "nRead buffer size %d", j->read_buffer_size);
  498. //    len += sprintf(buf+len, "nWrite buffer size %d", j->write_buffer_size);
  499. len += sprintf(buf + len, "nPlay CODEC ");
  500. switch (j->play_codec) {
  501. case G723_63:
  502. len += sprintf(buf + len, "G.723.1 6.3");
  503. break;
  504. case G723_53:
  505. len += sprintf(buf + len, "G.723.1 5.3");
  506. break;
  507. case TS85:
  508. len += sprintf(buf + len, "TrueSpeech 8.5");
  509. break;
  510. case TS48:
  511. len += sprintf(buf + len, "TrueSpeech 4.8");
  512. break;
  513. case TS41:
  514. len += sprintf(buf + len, "TrueSpeech 4.1");
  515. break;
  516. case G728:
  517. len += sprintf(buf + len, "G.728");
  518. break;
  519. case G729:
  520. len += sprintf(buf + len, "G.729");
  521. break;
  522. case ULAW:
  523. len += sprintf(buf + len, "uLaw");
  524. break;
  525. case ALAW:
  526. len += sprintf(buf + len, "aLaw");
  527. break;
  528. case LINEAR16:
  529. len += sprintf(buf + len, "16 bit Linear");
  530. break;
  531. case LINEAR8:
  532. len += sprintf(buf + len, "8 bit Linear");
  533. break;
  534. case WSS:
  535. len += sprintf(buf + len, "Windows Sound System");
  536. break;
  537. default:
  538. len += sprintf(buf + len, "NO CODEC CHOSEN");
  539. break;
  540. }
  541. //    len += sprintf(buf+len, "nPlay Frame Size %d", j->play_frame_size);
  542. //    len += sprintf(buf+len, "nInfo_write.convert_mode = %d", j->Info_write.convert_mode);
  543. //    len += sprintf(buf+len, "nInfo_write.convert_dir = %d", j->Info_write.convert_dir);
  544. len += sprintf(buf + len, "nRecord CODEC ");
  545. switch (j->rec_codec) {
  546. case G723_63:
  547. len += sprintf(buf + len, "G.723.1 6.3");
  548. break;
  549. case G723_53:
  550. len += sprintf(buf + len, "G.723.1 5.3");
  551. break;
  552. case TS85:
  553. len += sprintf(buf + len, "TrueSpeech 8.5");
  554. break;
  555. case TS48:
  556. len += sprintf(buf + len, "TrueSpeech 4.8");
  557. break;
  558. case TS41:
  559. len += sprintf(buf + len, "TrueSpeech 4.1");
  560. break;
  561. case G728:
  562. len += sprintf(buf + len, "G.728");
  563. break;
  564. case G729:
  565. len += sprintf(buf + len, "G.729");
  566. break;
  567. case ULAW:
  568. len += sprintf(buf + len, "uLaw");
  569. break;
  570. case ALAW:
  571. len += sprintf(buf + len, "aLaw");
  572. break;
  573. case LINEAR16:
  574. len += sprintf(buf + len, "16 bit Linear");
  575. break;
  576. case LINEAR8:
  577. len += sprintf(buf + len, "8 bit Linear");
  578. break;
  579. case WSS:
  580. len += sprintf(buf + len, "Windows Sound System");
  581. break;
  582. default:
  583. len += sprintf(buf + len, "NO CODEC CHOSEN");
  584. break;
  585. }
  586. //    len += sprintf(buf+len, "nRecord Frame Size %d", j->rec_frame_size);
  587. switch (j->aec_level) {
  588. case AEC_OFF:
  589. len += sprintf(buf + len, "n AEC OFF");
  590. break;
  591. case AEC_LOW:
  592. len += sprintf(buf + len, "n AEC LOW");
  593. break;
  594. case AEC_MED:
  595. len += sprintf(buf + len, "n AEC MED");
  596. break;
  597. case AEC_HIGH:
  598. len += sprintf(buf + len, "n AEC HIGH");
  599. break;
  600. }
  601. //    len += sprintf(buf+len, "nInfo_read.convert_mode = %d", j->Info_read.convert_mode);
  602. //    len += sprintf(buf+len, "nInfo_read.convert_dir = %d", j->Info_read.convert_dir);
  603. len += sprintf(buf + len, "nHook state %d", j->r_hook); // ixj_hookstate(cnt));
  605. if (j->cardtype == 300) {
  606. len += sprintf(buf + len, "nPOTS Correct %d", j->flags.pots_correct);
  607. len += sprintf(buf + len, "nPSTN Present %d", j->flags.pstn_present);
  608. len += sprintf(buf + len, "nPOTS to PSTN %d", j->flags.pots_pstn);
  609. //      len += sprintf(buf+len, "nDAA Interrupt flags %d", j->m_DAAShadowRegs.XOP_REGS.XOP.xr0.reg);
  610. //      len += sprintf(buf+len, "nDAA version %d", j->m_DAAShadowRegs.SOP_REGS.SOP.cr5.reg);
  611. switch (j->daa_mode) {
  612. case SOP_PU_SLEEP:
  613. len += sprintf(buf + len, "nDAA PSTN On Hook");
  614. break;
  615. case SOP_PU_RINGING:
  616. len += sprintf(buf + len, "nDAA PSTN Ringing");
  617. break;
  618. case SOP_PU_CONVERSATION:
  619. len += sprintf(buf + len, "nDAA PSTN Off Hook");
  620. break;
  621. case SOP_PU_PULSEDIALING:
  622. len += sprintf(buf + len, "nDAA PSTN Pulse Dialing");
  623. break;
  624. }
  625. //      len += sprintf(buf+len, "nDAA PSTN Ring flag = %d", j->pstn_ringing);
  626. }
  627. switch (j->port) {
  628. case PORT_POTS:
  629. len += sprintf(buf + len, "nPort POTS");
  630. break;
  631. case PORT_PSTN:
  632. len += sprintf(buf + len, "nPort PSTN");
  633. break;
  634. case PORT_SPEAKER:
  635. len += sprintf(buf + len, "nPort SPEAKER/MIC");
  636. break;
  637. case PORT_HANDSET:
  638. len += sprintf(buf + len, "nPort HANDSET");
  639. break;
  640. }
  641. if (j->dsp.low == 0x21 || j->dsp.low == 0x22) {
  642. len += sprintf(buf + len, "nSLIC state ");
  643. switch (SLIC_GetState(cnt)) {
  644. case PLD_SLIC_STATE_OC:
  645. len += sprintf(buf + len, "OC");
  646. break;
  647. case PLD_SLIC_STATE_RINGING:
  648. len += sprintf(buf + len, "RINGING");
  649. break;
  650. case PLD_SLIC_STATE_ACTIVE:
  651. len += sprintf(buf + len, "ACTIVE");
  652. break;
  653. case PLD_SLIC_STATE_OHT: // On-hook transmit
  655. len += sprintf(buf + len, "OHT");
  656. break;
  657. case PLD_SLIC_STATE_TIPOPEN:
  658. len += sprintf(buf + len, "TIPOPEN");
  659. break;
  660. case PLD_SLIC_STATE_STANDBY:
  661. len += sprintf(buf + len, "STANDBY");
  662. break;
  663. case PLD_SLIC_STATE_APR: // Active polarity reversal
  665. len += sprintf(buf + len, "APR");
  666. break;
  667. case PLD_SLIC_STATE_OHTPR: // OHT polarity reversal
  669. len += sprintf(buf + len, "OHTPR");
  670. break;
  671. default:
  672. len += sprintf(buf + len, "%d", SLIC_GetState(cnt));
  673. break;
  674. }
  675. }
  676. //    len += sprintf(buf+len, "nRead buffers ready %d", j->read_buffer_ready);
  677. //    len += sprintf(buf+len, "nWrite buffers empty %d",j->write_buffers_empty);
  679. //    len += sprintf(buf+len, "nDTMF ready %d", j->ex.bits.dtmf_ready);
  680. //    len += sprintf(buf+len, "nDTMF proc %d", j->dtmf_proc);
  681. //    len += sprintf(buf+len, "nDTMF wp %d", j->dtmf_wp);
  682. //    len += sprintf(buf+len, "nDTMF rp %d", j->dtmf_rp);
  683. //    len += sprintf(buf+len, "nDTMF digits ");
  684. //    for(x=j->dtmf_rp; x <j->dtmf_wp; x++)
  685. //    {
  686. //      if(x == 79)
  687. //        x = 0;
  688. //      len += sprintf(buf+len, "%x", j->dtmfbuffer[x]);
  689. //    }
  690. #ifdef PERFMON_STATS
  691. len += sprintf(buf + len, "nTimer Checks %ld", j->timerchecks);
  693. len += sprintf(buf + len, "nRX Ready Checks %ld", j->rxreadycheck);
  694. len += sprintf(buf + len, "nTX Ready Checks %ld", j->txreadycheck);
  695. len += sprintf(buf + len, "nBase Frame %2.2x.%2.2x", j->baseframe.high, j->baseframe.low);
  696. len += sprintf(buf + len, "nFrames Read %ld", j->framesread);
  697. len += sprintf(buf + len, "nFrames Written %ld", j->frameswritten);
  698. len += sprintf(buf + len, "nDry Buffer %ld", j->drybuffer);
  699. len += sprintf(buf + len, "nRead Waits %ld", j->read_wait);
  700. len += sprintf(buf + len, "nWrite Waits %ld", j->write_wait);
  701. #endif
  702. len += sprintf(buf + len, "n");
  703. }
  704. }
  705. return len;
  706. }
  707. struct proc_dir_entry ixj_proc_entry =
  708. {
  709. 0,
  710. 3, "ixj",
  711. S_IFREG | S_IRUGO,
  712. 1, 0, 0,
  713. 0,
  714. NULL,
  715. &ixj_read_proc
  716. };
  718. MODULE_DESCRIPTION("Internet PhoneJACK/Internet LineJACK module - www.quicknet.net");
  719. MODULE_AUTHOR("Ed Okerson <eokerson@quicknet.net>");
  721. void cleanup_module(void)
  722. {
  723. int cnt;
  725. del_timer(&ixj_timer);
  726. //  if (ixj_major)
  727. //    unregister_chrdev(ixj_major, "ixj");
  728. for (cnt = 0; cnt < IXJMAX; cnt++) {
  729. if (ixj[cnt].cardtype == 300) {
  730. ixj[cnt].pld_scrw.bits.daafsyncen = 0; // Turn off DAA Frame Sync
  732. outb_p(ixj[cnt].pld_scrw.byte, ixj[cnt].XILINXbase);
  733. ixj[cnt].pld_slicw.bits.rly1 = 0;
  734. ixj[cnt].pld_slicw.bits.rly2 = 0;
  735. ixj[cnt].pld_slicw.bits.rly3 = 0;
  736. outb_p(ixj[cnt].pld_slicw.byte, ixj[cnt].XILINXbase + 0x01);
  737. LED_SetState(0x0, cnt);
  739. release_region(ixj[cnt].XILINXbase, 8);
  740. }
  741. if (ixj[cnt].cardtype == 400 || ixj[cnt].cardtype == 500) {
  742. release_region(ixj[cnt].XILINXbase, 4);
  743. }
  744. if (ixj[cnt].DSPbase) {
  745. release_region(ixj[cnt].DSPbase, 16);
  746. phone_unregister_device(&ixj[cnt].p);
  747. }
  748. if (ixj[cnt].read_buffer)
  749. kfree(ixj[cnt].read_buffer);
  750. if (ixj[cnt].write_buffer)
  751. kfree(ixj[cnt].write_buffer);
  752. #ifdef CONFIG_ISAPNP
  753. if (ixj[cnt].dev)
  754. ixj[cnt].dev->deactivate(ixj[cnt].dev);
  755. #endif
  756. }
  757. proc_unregister(&proc_root, ixj_proc_entry.low_ino);
  758. }
  761. // Defines
  762. #define Delay1ms udelay(1000);
  764. // Typedefs
  765. typedef struct {
  766. BYTE length;
  767. DWORD bits;
  768. } DATABLOCK;
  770. static void PCIEE_WriteBit(WORD wEEPROMAddress, BYTE lastLCC, BYTE byData)
  771. {
  772. lastLCC = lastLCC & 0xfb;
  773. lastLCC = lastLCC | (byData ? 4 : 0);
  774. outb(lastLCC, wEEPROMAddress); //set data out bit as appropriate
  776. udelay(1000);
  777. lastLCC = lastLCC | 0x01;
  778. outb(lastLCC, wEEPROMAddress); //SK rising edge
  780. byData = byData << 1;
  781. lastLCC = lastLCC & 0xfe;
  783. udelay(1000);
  784. outb(lastLCC, wEEPROMAddress); //after delay, SK falling edge
  786. }
  788. static BYTE PCIEE_ReadBit(WORD wEEPROMAddress, BYTE lastLCC)
  789. {
  790. udelay(1000);
  791. lastLCC = lastLCC | 0x01;
  792. outb(lastLCC, wEEPROMAddress); //SK rising edge
  794. lastLCC = lastLCC & 0xfe;
  795. udelay(1000);
  796. outb(lastLCC, wEEPROMAddress); //after delay, SK falling edge
  798. return ((inb(wEEPROMAddress) >> 3) & 1);
  799. }
  801. static BOOL PCIEE_ReadWord(WORD wAddress, WORD wLoc, WORD * pwResult)
  802. {
  803. BYTE lastLCC;
  804. WORD wEEPROMAddress = wAddress + 3;
  805. DWORD i;
  806. BYTE byResult;
  808. *pwResult = 0;
  810. lastLCC = inb(wEEPROMAddress);
  812. lastLCC = lastLCC | 0x02;
  813. lastLCC = lastLCC & 0xfe;
  814. outb(lastLCC, wEEPROMAddress); // CS hi, SK lo
  816. udelay(1000); // delay
  818. PCIEE_WriteBit(wEEPROMAddress, lastLCC, 1);
  819. PCIEE_WriteBit(wEEPROMAddress, lastLCC, 1);
  820. PCIEE_WriteBit(wEEPROMAddress, lastLCC, 0);
  822. for (i = 0; i < 8; i++) {
  823. PCIEE_WriteBit(wEEPROMAddress, lastLCC, wLoc & 0x80 ? 1 : 0);
  824. wLoc <<= 1;
  825. }
  827. for (i = 0; i < 16; i++) {
  828. byResult = PCIEE_ReadBit(wEEPROMAddress, lastLCC);
  829. *pwResult = (*pwResult << 1) | byResult;
  830. }
  832. udelay(1000); // another delay
  834. lastLCC = lastLCC & 0xfd;
  835. outb(lastLCC, wEEPROMAddress); // negate CS
  837. return 0;
  838. }
  840. static DWORD PCIEE_GetSerialNumber(WORD wAddress)
  841. {
  842. WORD wLo, wHi;
  844. if (PCIEE_ReadWord(wAddress, 62, &wLo))
  845. return 0;
  847. if (PCIEE_ReadWord(wAddress, 63, &wHi))
  848. return 0;
  850. return (((DWORD) wHi << 16) | wLo);
  851. }
  853. static int dspio[IXJMAX + 1] =
  854. {0,};
  855. static int xio[IXJMAX + 1] =
  856. {0,};
  858. MODULE_PARM(dspio, "1-" __MODULE_STRING(IXJMAX) "i");
  859. MODULE_PARM(xio, "1-" __MODULE_STRING(IXJMAX) "i");
  861. int init_module(void)
  862. {
  863. int result;
  864.   int i = 0;
  865. int cnt = 0;
  866. int probe = 0;
  867. struct pci_dev *pci = NULL;
  868. #ifdef CONFIG_ISAPNP
  869. int func = 0x110;
  870.   struct pnp_dev *dev = NULL, *old_dev = NULL;
  871. #endif
  872.   
  873. #ifdef CONFIG_ISAPNP
  874. while (1) {
  875. do {
  876. old_dev = dev;
  877. dev = isapnp_find_dev(NULL, ISAPNP_VENDOR('Q', 'T', 'I'),
  878.  ISAPNP_FUNCTION(func), old_dev);
  879. //(old_dev==NULL?NULL:old_dev));
  880. if (!dev)
  881. break;
  882. printk("preparing %xn", func);
  883. result = dev->prepare(dev);
  884. if (result < 0) {
  885. printk("preparing failed %d n", result);
  886. break;
  887. }
  888. if (!(dev->resource[0].flags & IORESOURCE_IO))
  889. return -ENODEV;
  890. dev->resource[0].flags |= IORESOURCE_AUTO;
  891. if (func != 0x110)
  892. dev->resource[1].flags |= IORESOURCE_AUTO;
  893. if (dev->activate(dev) < 0) {
  894. printk("isapnp configure failed (out of resources?)n");
  895. return -ENOMEM;
  896. }
  897. ixj[cnt].DSPbase = dev->resource[0].start; /* get real port */
  898. if (func != 0x110)
  899. ixj[cnt].XILINXbase = dev->resource[1].start; /* get real port */
  901. result = check_region(ixj[cnt].DSPbase, 16);
  902. if (result) {
  903. printk(KERN_INFO "ixj: can't get I/O address 0x%xn", ixj[cnt].DSPbase);
  904. cleanup_module();
  905. return result;
  906. }
  907. request_region(ixj[cnt].DSPbase, 16, "ixj DSP");
  908. switch (func) {
  909. case (0x110):
  910. ixj[cnt].cardtype = 100;
  911. break;
  912. case (0x310):
  913. ixj[cnt].cardtype = 300;
  914. break;
  915. case (0x410):
  916. ixj[cnt].cardtype = 400;
  917. break;
  918. }
  919. probe = ixj_selfprobe(cnt);
  921. ixj[cnt].serial = dev->bus->serial;
  922. ixj[cnt].dev = dev;
  923. printk(KERN_INFO "ixj: found card at 0x%xn", ixj[cnt].DSPbase);
  924. cnt++;
  925. } while (dev);
  927. if (func == 0x410)
  928. break;
  929. if (func == 0x310)
  930. func = 0x410;
  931. if (func == 0x110)
  932. func = 0x310;
  933. dev = NULL;
  934. }
  935. #else //CONFIG_ISAPNP
  936. /* Use passed parameters for older kernels without PnP */
  938. for (cnt = 0; cnt < IXJMAX; cnt++) {
  939. if (dspio[cnt]) {
  940. ixj[cnt].DSPbase = dspio[cnt];
  941. ixj[cnt].XILINXbase = xio[cnt];
  942. ixj[cnt].cardtype = 0;
  943. result = check_region(ixj[cnt].DSPbase, 16);
  944. if (result) {
  945. printk(KERN_INFO "ixj: can't get I/O address 0x%xn", ixj[cnt].DSPbase);
  946. cleanup_module();
  947. return result;
  948. }
  949. request_region(ixj[cnt].DSPbase, 16, "ixj DSP");
  950. probe = ixj_selfprobe(cnt);
  951. ixj[cnt].dev = NULL;
  952. }
  953. }
  954. #endif
  955. #ifdef CONFIG_PCI
  956. if (pci_present()) {
  957. for (i = 0; i < IXJMAX - cnt; i++) {
  958. pci = pci_find_device(0x15E2, 0x0500, pci);
  959. if (!pci)
  960. break;
  961. {
  962. ixj[cnt].DSPbase = pci->base_address[0] & PCI_BASE_ADDRESS_IO_MASK;
  963. ixj[cnt].XILINXbase = ixj[cnt].DSPbase + 0x10;
  964. ixj[cnt].serial = PCIEE_GetSerialNumber(pci->base_address[2] & PCI_BASE_ADDRESS_IO_MASK);
  966. result = check_region(ixj[cnt].DSPbase, 16);
  967. if (result) {
  968. printk(KERN_INFO "ixj: can't get I/O address 0x%xn", ixj[cnt].DSPbase);
  969. cleanup_module();
  970. return result;
  971. }
  972. request_region(ixj[cnt].DSPbase, 16, "ixj DSP");
  973. ixj[cnt].cardtype = 500;
  974. probe = ixj_selfprobe(cnt);
  975. cnt++;
  976. }
  977. }
  978. }
  979. #endif
  980. printk("%sn", ixj_c_rcsid);
  982. //  result = register_chrdev(ixj_major, "ixj", &ixj_fops);
  983. //  if (result < 0) {
  984. //    printk(KERN_INFO "ixj: can't get major numbern");
  985. //    cleanup_module();
  986. //    return result;
  987. //  }
  988. //  if (ixj_major == 0)
  989. //    ixj_major = result;               /* dynamic */
  991. proc_register(&proc_root, &ixj_proc_entry);
  993. ixj_init_timer();
  995. return probe;
  996. }
  998. static void DAA_Coeff_US(int board)
  999. {
  1000. IXJ *j = &ixj[board];
  1002. int i;
  1004. //-----------------------------------------------
  1005. // CAO
  1006. for (i = 0; i < ALISDAA_CALLERID_SIZE; i++) {
  1007. j->m_DAAShadowRegs.CAO_REGS.CAO.CallerID[i] = 0;
  1008. }
  1010. // Bytes for IM-filter part 1 (04): 0E,32,E2,2F,C2,5A,C0,00
  1011.     j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[7] = 0x0E;
  1012. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[6] = 0x32;
  1013. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[5] = 0xE2;
  1014. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[4] = 0x2F;
  1015. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[3] = 0xC2;
  1016. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[2] = 0x5A;
  1017. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[1] = 0xC0;
  1018. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[0] = 0x00;
  1020. // Bytes for IM-filter part 2 (05): 72,85,00,0E,2B,3A,D0,08
  1021. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[7] = 0x72;
  1022. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[6] = 0x85;
  1023. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[5] = 0x00;
  1024. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[4] = 0x0E;
  1025. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[3] = 0x2B;
  1026. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[2] = 0x3A;
  1027. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[1] = 0xD0;
  1028. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[0] = 0x08;
  1030. // Bytes for FRX-filter       (08): 03,8F,48,F2,8F,48,70,08
  1031. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[7] = 0x03;
  1032. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[6] = 0x8F;
  1033. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[5] = 0x48;
  1034. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[4] = 0xF2;
  1035. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[3] = 0x8F;
  1036. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[2] = 0x48;
  1037. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[1] = 0x70;
  1038. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[0] = 0x08;
  1040. // Bytes for FRR-filter       (07): 04,8F,38,7F,9B,EA,B0,08
  1041. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[7] = 0x04;
  1042. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[6] = 0x8F;
  1043. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[5] = 0x38;
  1044. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[4] = 0x7F;
  1045. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[3] = 0x9B;
  1046. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[2] = 0xEA;
  1047. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[1] = 0xB0;
  1048. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[0] = 0x08;
  1050. // Bytes for AX-filter        (0A): 16,55,DD,CA
  1051. j->m_DAAShadowRegs.COP_REGS.COP.AXFilterCoeff[3] = 0x16;
  1052. j->m_DAAShadowRegs.COP_REGS.COP.AXFilterCoeff[2] = 0x55;
  1053. j->m_DAAShadowRegs.COP_REGS.COP.AXFilterCoeff[1] = 0xDD;
  1054. j->m_DAAShadowRegs.COP_REGS.COP.AXFilterCoeff[0] = 0xCA;
  1056. // Bytes for AR-filter        (09): 52,D3,11,42
  1057. j->m_DAAShadowRegs.COP_REGS.COP.ARFilterCoeff[3] = 0x52;
  1058. j->m_DAAShadowRegs.COP_REGS.COP.ARFilterCoeff[2] = 0xD3;
  1059. j->m_DAAShadowRegs.COP_REGS.COP.ARFilterCoeff[1] = 0x11;
  1060. j->m_DAAShadowRegs.COP_REGS.COP.ARFilterCoeff[0] = 0x42;
  1062. // Bytes for TH-filter part 1 (00): 00,42,48,81,B3,80,00,98
  1063. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[7] = 0x00;
  1064. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[6] = 0x42;
  1065. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[5] = 0x48;
  1066. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[4] = 0x81;
  1067. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[3] = 0xB3;
  1068. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[2] = 0x80;
  1069. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[1] = 0x00;
  1070. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[0] = 0x98;
  1072. // Bytes for TH-filter part 2 (01): 02,F2,33,A0,68,AB,8A,AD
  1073. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[7] = 0x02;
  1074. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[6] = 0xF2;
  1075. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[5] = 0x33;
  1076. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[4] = 0xA0;
  1077. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[3] = 0x68;
  1078. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[2] = 0xAB;
  1079. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[1] = 0x8A;
  1080. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[0] = 0xAD;
  1082. // Bytes for TH-filter part 3 (02): 00,88,DA,54,A4,BA,2D,BB
  1083. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[7] = 0x00;
  1084. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[6] = 0x88;
  1085. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[5] = 0xDA;
  1086. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[4] = 0x54;
  1087. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[3] = 0xA4;
  1088. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[2] = 0xBA;
  1089. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[1] = 0x2D;
  1090. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[0] = 0xBB;
  1092. // ;  (10K, 0.68uF)
  1093. // 
  1094. // Bytes for Ringing part 1 (03):1B,3B,9B,BA,D4,1C,B3,23
  1095. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[7] = 0x1B;
  1096. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[6] = 0x3B;
  1097. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[5] = 0x9B;
  1098. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[4] = 0xBA;
  1099. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[3] = 0xD4;
  1100. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[2] = 0x1C;
  1101. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[1] = 0xB3;
  1102. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[0] = 0x23;
  1104. // Bytes for Ringing part 2 (06):13,42,A6,BA,D4,73,CA,D5
  1105. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[7] = 0x13;
  1106. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[6] = 0x42;
  1107. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[5] = 0xA6;
  1108. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[4] = 0xBA;
  1109. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[3] = 0xD4;
  1110. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[2] = 0x73;
  1111. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[1] = 0xCA;
  1112. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[0] = 0xD5;
  1114. // 
  1115. // Levelmetering Ringing        (0D):B2,45,0F,8E      
  1116. j->m_DAAShadowRegs.COP_REGS.COP.LevelmeteringRinging[3] = 0xB2;
  1117. j->m_DAAShadowRegs.COP_REGS.COP.LevelmeteringRinging[2] = 0x45;
  1118. j->m_DAAShadowRegs.COP_REGS.COP.LevelmeteringRinging[1] = 0x0F;
  1119. j->m_DAAShadowRegs.COP_REGS.COP.LevelmeteringRinging[0] = 0x8E;
  1121. // Caller ID 1st Tone           (0E):CA,0E,CA,09,99,99,99,99
  1122. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[7] = 0xCA;
  1123. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[6] = 0x0E;
  1124. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[5] = 0xCA;
  1125. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[4] = 0x09;
  1126. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[3] = 0x99;
  1127. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[2] = 0x99;
  1128. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[1] = 0x99;
  1129. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[0] = 0x99;
  1131. // Caller ID 2nd Tone           (0F):FD,B5,BA,07,DA,00,00,00
  1132. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[7] = 0xFD;
  1133. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[6] = 0xB5;
  1134. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[5] = 0xBA;
  1135. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[4] = 0x07;
  1136. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[3] = 0xDA;
  1137. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[2] = 0x00;
  1138. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[1] = 0x00;
  1139. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[0] = 0x00;
  1141. // 
  1142. // ;CR Registers
  1143. // Config. Reg. 0 (filters)       (cr0):FE ; CLK gen. by crystal
  1144. j->m_DAAShadowRegs.SOP_REGS.SOP.cr0.reg = 0xFE;
  1146. // Config. Reg. 1 (dialing)       (cr1):05
  1147. j->m_DAAShadowRegs.SOP_REGS.SOP.cr1.reg = 0x05;
  1149. // Config. Reg. 2 (caller ID)     (cr2):04
  1150. j->m_DAAShadowRegs.SOP_REGS.SOP.cr2.reg = 0x04;
  1152. // Config. Reg. 3 (testloops)     (cr3):03 ; SEL Bit==0, HP-disabled
  1153. j->m_DAAShadowRegs.SOP_REGS.SOP.cr3.reg = 0x03;
  1155. // Config. Reg. 4 (analog gain)   (cr4):01
  1156. j->m_DAAShadowRegs.SOP_REGS.SOP.cr4.reg = 0x02; //0x01;
  1158. // Config. Reg. 5 (Version)       (cr5):02
  1159. // Config. Reg. 6 (Reserved)      (cr6):00
  1160. // Config. Reg. 7 (Reserved)      (cr7):00
  1161. // 
  1163. // ;xr Registers
  1164. // Ext. Reg. 0 (Interrupt Reg.)   (xr0):02
  1165. j->m_DAAShadowRegs.XOP_xr0_W.reg = 0x02; // SO_1 set to '1' because it is inverted.
  1167. // Ext. Reg. 1 (Interrupt enable) (xr1):1C // Cadence, RING, Caller ID, VDD_OK
  1168. j->m_DAAShadowRegs.XOP_REGS.XOP.xr1.reg = 0x3C;
  1170. // Ext. Reg. 2 (Cadence Time Out) (xr2):7D
  1171. j->m_DAAShadowRegs.XOP_REGS.XOP.xr2.reg = 0x7D;
  1173. // Ext. Reg. 3 (DC Char)          (xr3):32 ; B-Filter Off == 1
  1174. j->m_DAAShadowRegs.XOP_REGS.XOP.xr3.reg = 0x12; //0x32;
  1176. // Ext. Reg. 4 (Cadence)          (xr4):00
  1177. j->m_DAAShadowRegs.XOP_REGS.XOP.xr4.reg = 0x00;
  1179. // Ext. Reg. 5 (Ring timer)       (xr5):22
  1180. j->m_DAAShadowRegs.XOP_REGS.XOP.xr5.reg = 0x22;
  1182. // Ext. Reg. 6 (Power State)      (xr6):00
  1183. j->m_DAAShadowRegs.XOP_xr6_W.reg = 0x00;
  1185. // Ext. Reg. 7 (Vdd)              (xr7):40
  1186. j->m_DAAShadowRegs.XOP_REGS.XOP.xr7.reg = 0x40; // 0x40 ??? Should it be 0x00?
  1188. // 
  1189. // DTMF Tone 1                     (0B): 11,B3,5A,2C ;   697 Hz  
  1190. //                                       12,33,5A,C3 ;  770 Hz  
  1191. //                                       13,3C,5B,32 ;  852 Hz  
  1192. //                                       1D,1B,5C,CC ;  941 Hz  
  1193. j->m_DAAShadowRegs.COP_REGS.COP.Tone1Coeff[3] = 0x11;
  1194. j->m_DAAShadowRegs.COP_REGS.COP.Tone1Coeff[2] = 0xB3;
  1195. j->m_DAAShadowRegs.COP_REGS.COP.Tone1Coeff[1] = 0x5A;
  1196. j->m_DAAShadowRegs.COP_REGS.COP.Tone1Coeff[0] = 0x2C;
  1198. // DTMF Tone 2                     (0C): 32,32,52,B3 ;  1209 Hz  
  1199. //                                       EC,1D,52,22 ;  1336 Hz  
  1200. //                                       AA,AC,51,D2 ;  1477 Hz  
  1201. //                                       9B,3B,51,25 ;  1633 Hz  
  1202. j->m_DAAShadowRegs.COP_REGS.COP.Tone2Coeff[3] = 0x32;
  1203. j->m_DAAShadowRegs.COP_REGS.COP.Tone2Coeff[2] = 0x32;
  1204. j->m_DAAShadowRegs.COP_REGS.COP.Tone2Coeff[1] = 0x52;
  1205. j->m_DAAShadowRegs.COP_REGS.COP.Tone2Coeff[0] = 0xB3;
  1207. }
  1209. static void DAA_Coeff_UK(int board)
  1210. {
  1211. IXJ *j = &ixj[board];
  1213. int i;
  1215. //-----------------------------------------------
  1216. // CAO
  1217. for (i = 0; i < ALISDAA_CALLERID_SIZE; i++) {
  1218. j->m_DAAShadowRegs.CAO_REGS.CAO.CallerID[i] = 0;
  1219. }
  1221. //  Bytes for IM-filter part 1 (04): 00,C2,BB,A8,CB,81,A0,00
  1222.     j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[7] = 0x00;
  1223. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[6] = 0xC2;
  1224. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[5] = 0xBB;
  1225. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[4] = 0xA8;
  1226. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[3] = 0xCB;
  1227. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[2] = 0x81;
  1228. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[1] = 0xA0;
  1229. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[0] = 0x00;
  1231. // Bytes for IM-filter part 2 (05): 40,00,00,0A,A4,33,E0,08
  1232. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[7] = 0x40;
  1233. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[6] = 0x00;
  1234. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[5] = 0x00;
  1235. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[4] = 0x0A;
  1236. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[3] = 0xA4;
  1237. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[2] = 0x33;
  1238. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[1] = 0xE0;
  1239. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[0] = 0x08;
  1241. // Bytes for FRX-filter       (08): 07,9B,ED,24,B2,A2,A0,08
  1242. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[7] = 0x07;
  1243. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[6] = 0x9B;
  1244. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[5] = 0xED;
  1245. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[4] = 0x24;
  1246. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[3] = 0xB2;
  1247. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[2] = 0xA2;
  1248. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[1] = 0xA0;
  1249. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[0] = 0x08;
  1251. // Bytes for FRR-filter       (07): 0F,92,F2,B2,87,D2,30,08
  1252. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[7] = 0x0F;
  1253. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[6] = 0x92;
  1254. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[5] = 0xF2;
  1255. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[4] = 0xB2;
  1256. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[3] = 0x87;
  1257. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[2] = 0xD2;
  1258. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[1] = 0x30;
  1259. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[0] = 0x08;
  1261. // Bytes for AX-filter        (0A): 1B,A5,DD,CA
  1262. j->m_DAAShadowRegs.COP_REGS.COP.AXFilterCoeff[3] = 0x1B;
  1263. j->m_DAAShadowRegs.COP_REGS.COP.AXFilterCoeff[2] = 0xA5;
  1264. j->m_DAAShadowRegs.COP_REGS.COP.AXFilterCoeff[1] = 0xDD;
  1265. j->m_DAAShadowRegs.COP_REGS.COP.AXFilterCoeff[0] = 0xCA;
  1267. // Bytes for AR-filter        (09): E2,27,10,D6
  1268. j->m_DAAShadowRegs.COP_REGS.COP.ARFilterCoeff[3] = 0xE2;
  1269. j->m_DAAShadowRegs.COP_REGS.COP.ARFilterCoeff[2] = 0x27;
  1270. j->m_DAAShadowRegs.COP_REGS.COP.ARFilterCoeff[1] = 0x10;
  1271. j->m_DAAShadowRegs.COP_REGS.COP.ARFilterCoeff[0] = 0xD6;
  1273. // Bytes for TH-filter part 1 (00): 80,2D,38,8B,D0,00,00,98
  1274. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[7] = 0x80;
  1275. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[6] = 0x2D;
  1276. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[5] = 0x38;
  1277. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[4] = 0x8B;
  1278. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[3] = 0xD0;
  1279. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[2] = 0x00;
  1280. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[1] = 0x00;
  1281. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[0] = 0x98;
  1283. // Bytes for TH-filter part 2 (01): 02,5A,53,F0,0B,5F,84,D4
  1284. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[7] = 0x02;
  1285. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[6] = 0x5A;
  1286. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[5] = 0x53;
  1287. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[4] = 0xF0;
  1288. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[3] = 0x0B;
  1289. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[2] = 0x5F;
  1290. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[1] = 0x84;
  1291. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[0] = 0xD4;
  1293. // Bytes for TH-filter part 3 (02): 00,88,6A,A4,8F,52,F5,32
  1294. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[7] = 0x00;
  1295. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[6] = 0x88;
  1296. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[5] = 0x6A;
  1297. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[4] = 0xA4;
  1298. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[3] = 0x8F;
  1299. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[2] = 0x52;
  1300. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[1] = 0xF5;
  1301. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[0] = 0x32;
  1303. // ; idle
  1305. // Bytes for Ringing part 1 (03):1B,3C,93,3A,22,12,A3,23
  1306. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[7] = 0x1B;
  1307. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[6] = 0x3C;
  1308. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[5] = 0x93;
  1309. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[4] = 0x3A;
  1310. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[3] = 0x22;
  1311. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[2] = 0x12;
  1312. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[1] = 0xA3;
  1313. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[0] = 0x23;
  1315. // Bytes for Ringing part 2 (06):12,A2,A6,BA,22,7A,0A,D5
  1316. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[7] = 0x12;
  1317. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[6] = 0xA2;
  1318. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[5] = 0xA6;
  1319. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[4] = 0xBA;
  1320. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[3] = 0x22;
  1321. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[2] = 0x7A;
  1322. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[1] = 0x0A;
  1323. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[0] = 0xD5;
  1325. // Levelmetering Ringing           (0D):AA,35,0F,8E     ; 25Hz 30V less possible?
  1326. j->m_DAAShadowRegs.COP_REGS.COP.LevelmeteringRinging[3] = 0xAA;
  1327. j->m_DAAShadowRegs.COP_REGS.COP.LevelmeteringRinging[2] = 0x35;
  1328. j->m_DAAShadowRegs.COP_REGS.COP.LevelmeteringRinging[1] = 0x0F;
  1329. j->m_DAAShadowRegs.COP_REGS.COP.LevelmeteringRinging[0] = 0x8E;
  1331. // Caller ID 1st Tone              (0E):CA,0E,CA,09,99,99,99,99
  1332. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[7] = 0xCA;
  1333. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[6] = 0x0E;
  1334. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[5] = 0xCA;
  1335. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[4] = 0x09;
  1336. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[3] = 0x99;
  1337. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[2] = 0x99;
  1338. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[1] = 0x99;
  1339. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[0] = 0x99;
  1341. // Caller ID 2nd Tone              (0F):FD,B5,BA,07,DA,00,00,00
  1342. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[7] = 0xFD;
  1343. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[6] = 0xB5;
  1344. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[5] = 0xBA;
  1345. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[4] = 0x07;
  1346. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[3] = 0xDA;
  1347. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[2] = 0x00;
  1348. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[1] = 0x00;
  1349. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[0] = 0x00;
  1351. // ;CR Registers
  1352. // Config. Reg. 0 (filters)        (cr0):FF
  1353. j->m_DAAShadowRegs.SOP_REGS.SOP.cr0.reg = 0xFF; //0xFE;
  1355. // Config. Reg. 1 (dialing)        (cr1):05
  1356. j->m_DAAShadowRegs.SOP_REGS.SOP.cr1.reg = 0x05;
  1358. // Config. Reg. 2 (caller ID)      (cr2):04
  1359. j->m_DAAShadowRegs.SOP_REGS.SOP.cr2.reg = 0x04;
  1361. // Config. Reg. 3 (testloops)      (cr3):00        ; 
  1362. j->m_DAAShadowRegs.SOP_REGS.SOP.cr3.reg = 0x00;
  1364. // Config. Reg. 4 (analog gain)    (cr4):01
  1365. j->m_DAAShadowRegs.SOP_REGS.SOP.cr4.reg = 0x02; //0x01;
  1367. // Config. Reg. 5 (Version)        (cr5):02
  1368. // Config. Reg. 6 (Reserved)       (cr6):00
  1369. // Config. Reg. 7 (Reserved)       (cr7):00
  1371. // ;xr Registers
  1372. // Ext. Reg. 0 (Interrupt Reg.)    (xr0):02
  1373. j->m_DAAShadowRegs.XOP_xr0_W.reg = 0x02; // SO_1 set to '1' because it is inverted.
  1375. // Ext. Reg. 1 (Interrupt enable)  (xr1):1C
  1376. j->m_DAAShadowRegs.XOP_REGS.XOP.xr1.reg = 0x1C; // RING, Caller ID, VDD_OK
  1378. // Ext. Reg. 2 (Cadence Time Out)  (xr2):7D
  1379. j->m_DAAShadowRegs.XOP_REGS.XOP.xr2.reg = 0x7D;
  1381. // Ext. Reg. 3 (DC Char)           (xr3):36        ; 
  1382. j->m_DAAShadowRegs.XOP_REGS.XOP.xr3.reg = 0x36;
  1384. // Ext. Reg. 4 (Cadence)           (xr4):00
  1385. j->m_DAAShadowRegs.XOP_REGS.XOP.xr4.reg = 0x00;
  1387. // Ext. Reg. 5 (Ring timer)        (xr5):22
  1388. j->m_DAAShadowRegs.XOP_REGS.XOP.xr5.reg = 0x22;
  1390. // Ext. Reg. 6 (Power State)       (xr6):00
  1391. j->m_DAAShadowRegs.XOP_xr6_W.reg = 0x00;
  1393. // Ext. Reg. 7 (Vdd)               (xr7):46
  1394. j->m_DAAShadowRegs.XOP_REGS.XOP.xr7.reg = 0x46; // 0x46 ??? Should it be 0x00?
  1396. // DTMF Tone 1                     (0B): 11,B3,5A,2C    ;   697 Hz  
  1397. //                                       12,33,5A,C3    ;  770 Hz  
  1398. //                                       13,3C,5B,32    ;  852 Hz  
  1399. //                                       1D,1B,5C,CC    ;  941 Hz  
  1400. j->m_DAAShadowRegs.COP_REGS.COP.Tone1Coeff[3] = 0x11;
  1401. j->m_DAAShadowRegs.COP_REGS.COP.Tone1Coeff[2] = 0xB3;
  1402. j->m_DAAShadowRegs.COP_REGS.COP.Tone1Coeff[1] = 0x5A;
  1403. j->m_DAAShadowRegs.COP_REGS.COP.Tone1Coeff[0] = 0x2C;
  1405. // DTMF Tone 2                     (0C): 32,32,52,B3    ;  1209 Hz  
  1406. //                                       EC,1D,52,22    ;  1336 Hz  
  1407. //                                       AA,AC,51,D2    ;  1477 Hz  
  1408. //                                       9B,3B,51,25    ;  1633 Hz  
  1409. j->m_DAAShadowRegs.COP_REGS.COP.Tone2Coeff[3] = 0x32;
  1410. j->m_DAAShadowRegs.COP_REGS.COP.Tone2Coeff[2] = 0x32;
  1411. j->m_DAAShadowRegs.COP_REGS.COP.Tone2Coeff[1] = 0x52;
  1412. j->m_DAAShadowRegs.COP_REGS.COP.Tone2Coeff[0] = 0xB3;
  1414. }
  1417. static void DAA_Coeff_France(int board)
  1418. {
  1419. IXJ *j = &ixj[board];
  1421. int i;
  1423. //-----------------------------------------------
  1424. // CAO
  1425. for (i = 0; i < ALISDAA_CALLERID_SIZE; i++) {
  1426. j->m_DAAShadowRegs.CAO_REGS.CAO.CallerID[i] = 0;
  1427. }
  1429. // Bytes for IM-filter part 1 (04): 02,A2,43,2C,22,AF,A0,00
  1430.     j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[7] = 0x02;
  1431. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[6] = 0xA2;
  1432. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[5] = 0x43;
  1433. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[4] = 0x2C;
  1434. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[3] = 0x22;
  1435. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[2] = 0xAF;
  1436. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[1] = 0xA0;
  1437. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[0] = 0x00;
  1439. // Bytes for IM-filter part 2 (05): 67,CE,00,0C,22,33,E0,08
  1440. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[7] = 0x67;
  1441. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[6] = 0xCE;
  1442. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[5] = 0x00;
  1443. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[4] = 0x2C;
  1444. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[3] = 0x22;
  1445. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[2] = 0x33;
  1446. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[1] = 0xE0;
  1447. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[0] = 0x08;
  1449. // Bytes for FRX-filter       (08): 07,9A,28,F6,23,4A,B0,08
  1450. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[7] = 0x07;
  1451. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[6] = 0x9A;
  1452. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[5] = 0x28;
  1453. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[4] = 0xF6;
  1454. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[3] = 0x23;
  1455. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[2] = 0x4A;
  1456. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[1] = 0xB0;
  1457. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[0] = 0x08;
  1459. // Bytes for FRR-filter       (07): 03,8F,F9,2F,9E,FA,20,08
  1460. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[7] = 0x03;
  1461. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[6] = 0x8F;
  1462. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[5] = 0xF9;
  1463. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[4] = 0x2F;
  1464. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[3] = 0x9E;
  1465. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[2] = 0xFA;
  1466. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[1] = 0x20;
  1467. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[0] = 0x08;
  1469. // Bytes for AX-filter        (0A): 16,B5,DD,CA
  1470. j->m_DAAShadowRegs.COP_REGS.COP.AXFilterCoeff[3] = 0x16;
  1471. j->m_DAAShadowRegs.COP_REGS.COP.AXFilterCoeff[2] = 0xB5;
  1472. j->m_DAAShadowRegs.COP_REGS.COP.AXFilterCoeff[1] = 0xDD;
  1473. j->m_DAAShadowRegs.COP_REGS.COP.AXFilterCoeff[0] = 0xCA;
  1475. // Bytes for AR-filter        (09): 52,C7,10,D6
  1476. j->m_DAAShadowRegs.COP_REGS.COP.ARFilterCoeff[3] = 0xE2;
  1477. j->m_DAAShadowRegs.COP_REGS.COP.ARFilterCoeff[2] = 0xC7;
  1478. j->m_DAAShadowRegs.COP_REGS.COP.ARFilterCoeff[1] = 0x10;
  1479. j->m_DAAShadowRegs.COP_REGS.COP.ARFilterCoeff[0] = 0xD6;
  1481. // Bytes for TH-filter part 1 (00): 00,42,48,81,A6,80,00,98
  1482. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[7] = 0x00;
  1483. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[6] = 0x42;
  1484. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[5] = 0x48;
  1485. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[4] = 0x81;
  1486. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[3] = 0xA6;
  1487. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[2] = 0x80;
  1488. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[1] = 0x00;
  1489. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[0] = 0x98;
  1491. // Bytes for TH-filter part 2 (01): 02,AC,2A,30,78,AC,8A,2C
  1492. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[7] = 0x02;
  1493. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[6] = 0xAC;
  1494. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[5] = 0x2A;
  1495. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[4] = 0x30;
  1496. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[3] = 0x78;
  1497. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[2] = 0xAC;
  1498. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[1] = 0x8A;
  1499. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[0] = 0x2C;
  1501. // Bytes for TH-filter part 3 (02): 00,88,DA,A5,22,BA,2C,45
  1502. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[7] = 0x00;
  1503. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[6] = 0x88;
  1504. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[5] = 0xDA;
  1505. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[4] = 0xA5;
  1506. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[3] = 0x22;
  1507. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[2] = 0xBA;
  1508. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[1] = 0x2C;
  1509. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[0] = 0x45;
  1511. // ; idle
  1513. // Bytes for Ringing part 1 (03):1B,3C,93,3A,22,12,A3,23
  1514. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[7] = 0x1B;
  1515. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[6] = 0x3C;
  1516. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[5] = 0x93;
  1517. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[4] = 0x3A;
  1518. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[3] = 0x22;
  1519. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[2] = 0x12;
  1520. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[1] = 0xA3;
  1521. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[0] = 0x23;
  1523. // Bytes for Ringing part 2 (06):12,A2,A6,BA,22,7A,0A,D5
  1524. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[7] = 0x12;
  1525. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[6] = 0xA2;
  1526. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[5] = 0xA6;
  1527. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[4] = 0xBA;
  1528. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[3] = 0x22;
  1529. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[2] = 0x7A;
  1530. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[1] = 0x0A;
  1531. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[0] = 0xD5;
  1533. // Levelmetering Ringing           (0D):32,45,B5,84     ; 50Hz 20V
  1534. j->m_DAAShadowRegs.COP_REGS.COP.LevelmeteringRinging[3] = 0x32;
  1535. j->m_DAAShadowRegs.COP_REGS.COP.LevelmeteringRinging[2] = 0x45;
  1536. j->m_DAAShadowRegs.COP_REGS.COP.LevelmeteringRinging[1] = 0xB5;
  1537. j->m_DAAShadowRegs.COP_REGS.COP.LevelmeteringRinging[0] = 0x84;
  1539. // Caller ID 1st Tone              (0E):CA,0E,CA,09,99,99,99,99
  1540. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[7] = 0xCA;
  1541. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[6] = 0x0E;
  1542. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[5] = 0xCA;
  1543. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[4] = 0x09;
  1544. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[3] = 0x99;
  1545. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[2] = 0x99;
  1546. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[1] = 0x99;
  1547. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[0] = 0x99;
  1549. // Caller ID 2nd Tone              (0F):FD,B5,BA,07,DA,00,00,00
  1550. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[7] = 0xFD;
  1551. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[6] = 0xB5;
  1552. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[5] = 0xBA;
  1553. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[4] = 0x07;
  1554. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[3] = 0xDA;
  1555. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[2] = 0x00;
  1556. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[1] = 0x00;
  1557. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[0] = 0x00;
  1559. // ;CR Registers
  1560. // Config. Reg. 0 (filters)        (cr0):FF
  1561. j->m_DAAShadowRegs.SOP_REGS.SOP.cr0.reg = 0xFF;
  1563. // Config. Reg. 1 (dialing)        (cr1):05
  1564. j->m_DAAShadowRegs.SOP_REGS.SOP.cr1.reg = 0x05;
  1566. // Config. Reg. 2 (caller ID)      (cr2):04
  1567. j->m_DAAShadowRegs.SOP_REGS.SOP.cr2.reg = 0x04;
  1569. // Config. Reg. 3 (testloops)      (cr3):00        ; 
  1570. j->m_DAAShadowRegs.SOP_REGS.SOP.cr3.reg = 0x00;
  1572. // Config. Reg. 4 (analog gain)    (cr4):01
  1573. j->m_DAAShadowRegs.SOP_REGS.SOP.cr4.reg = 0x02; //0x01;
  1575. // Config. Reg. 5 (Version)        (cr5):02
  1576. // Config. Reg. 6 (Reserved)       (cr6):00
  1577. // Config. Reg. 7 (Reserved)       (cr7):00
  1579. // ;xr Registers
  1580. // Ext. Reg. 0 (Interrupt Reg.)    (xr0):02
  1581. j->m_DAAShadowRegs.XOP_xr0_W.reg = 0x02; // SO_1 set to '1' because it is inverted.
  1583. // Ext. Reg. 1 (Interrupt enable)  (xr1):1C
  1584. j->m_DAAShadowRegs.XOP_REGS.XOP.xr1.reg = 0x1C; // RING, Caller ID, VDD_OK
  1586. // Ext. Reg. 2 (Cadence Time Out)  (xr2):7D
  1587. j->m_DAAShadowRegs.XOP_REGS.XOP.xr2.reg = 0x7D;
  1589. // Ext. Reg. 3 (DC Char)           (xr3):36        ; 
  1590. j->m_DAAShadowRegs.XOP_REGS.XOP.xr3.reg = 0x36;
  1592. // Ext. Reg. 4 (Cadence)           (xr4):00
  1593. j->m_DAAShadowRegs.XOP_REGS.XOP.xr4.reg = 0x00;
  1595. // Ext. Reg. 5 (Ring timer)        (xr5):22
  1596. j->m_DAAShadowRegs.XOP_REGS.XOP.xr5.reg = 0x22;
  1598. // Ext. Reg. 6 (Power State)       (xr6):00
  1599. j->m_DAAShadowRegs.XOP_xr6_W.reg = 0x00;
  1601. // Ext. Reg. 7 (Vdd)               (xr7):46
  1602. j->m_DAAShadowRegs.XOP_REGS.XOP.xr7.reg = 0x46; // 0x46 ??? Should it be 0x00?
  1604. // DTMF Tone 1                     (0B): 11,B3,5A,2C    ;   697 Hz  
  1605. //                                       12,33,5A,C3    ;  770 Hz  
  1606. //                                       13,3C,5B,32    ;  852 Hz  
  1607. //                                       1D,1B,5C,CC    ;  941 Hz  
  1608. j->m_DAAShadowRegs.COP_REGS.COP.Tone1Coeff[3] = 0x11;
  1609. j->m_DAAShadowRegs.COP_REGS.COP.Tone1Coeff[2] = 0xB3;
  1610. j->m_DAAShadowRegs.COP_REGS.COP.Tone1Coeff[1] = 0x5A;
  1611. j->m_DAAShadowRegs.COP_REGS.COP.Tone1Coeff[0] = 0x2C;
  1613. // DTMF Tone 2                     (0C): 32,32,52,B3    ;  1209 Hz  
  1614. //                                       EC,1D,52,22    ;  1336 Hz  
  1615. //                                       AA,AC,51,D2    ;  1477 Hz  
  1616. //                                       9B,3B,51,25    ;  1633 Hz  
  1617. j->m_DAAShadowRegs.COP_REGS.COP.Tone2Coeff[3] = 0x32;
  1618. j->m_DAAShadowRegs.COP_REGS.COP.Tone2Coeff[2] = 0x32;
  1619. j->m_DAAShadowRegs.COP_REGS.COP.Tone2Coeff[1] = 0x52;
  1620. j->m_DAAShadowRegs.COP_REGS.COP.Tone2Coeff[0] = 0xB3;
  1622. }
  1625. static void DAA_Coeff_Germany(int board)
  1626. {
  1627. IXJ *j = &ixj[board];
  1629. int i;
  1631. //-----------------------------------------------
  1632. // CAO
  1633. for (i = 0; i < ALISDAA_CALLERID_SIZE; i++) {
  1634. j->m_DAAShadowRegs.CAO_REGS.CAO.CallerID[i] = 0;
  1635. }
  1637. // Bytes for IM-filter part 1 (04): 00,CE,BB,B8,D2,81,B0,00
  1638.     j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[7] = 0x00;
  1639. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[6] = 0xCE;
  1640. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[5] = 0xBB;
  1641. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[4] = 0xB8;
  1642. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[3] = 0xD2;
  1643. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[2] = 0x81;
  1644. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[1] = 0xB0;
  1645. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[0] = 0x00;
  1647. // Bytes for IM-filter part 2 (05): 45,8F,00,0C,D2,3A,D0,08
  1648. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[7] = 0x45;
  1649. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[6] = 0x8F;
  1650. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[5] = 0x00;
  1651. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[4] = 0x0C;
  1652. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[3] = 0xD2;
  1653. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[2] = 0x3A;
  1654. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[1] = 0xD0;
  1655. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[0] = 0x08;
  1657. // Bytes for FRX-filter       (08): 07,AA,E2,34,24,89,20,08
  1658. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[7] = 0x07;
  1659. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[6] = 0xAA;
  1660. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[5] = 0xE2;
  1661. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[4] = 0x34;
  1662. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[3] = 0x24;
  1663. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[2] = 0x89;
  1664. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[1] = 0x20;
  1665. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[0] = 0x08;
  1667. // Bytes for FRR-filter       (07): 02,87,FA,37,9A,CA,B0,08
  1668. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[7] = 0x02;
  1669. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[6] = 0x87;
  1670. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[5] = 0xFA;
  1671. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[4] = 0x37;
  1672. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[3] = 0x9A;
  1673. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[2] = 0xCA;
  1674. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[1] = 0xB0;
  1675. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[0] = 0x08;
  1677. // Bytes for AX-filter        (0A): 72,D5,DD,CA
  1678. j->m_DAAShadowRegs.COP_REGS.COP.AXFilterCoeff[3] = 0x72;
  1679. j->m_DAAShadowRegs.COP_REGS.COP.AXFilterCoeff[2] = 0xD5;
  1680. j->m_DAAShadowRegs.COP_REGS.COP.AXFilterCoeff[1] = 0xDD;
  1681. j->m_DAAShadowRegs.COP_REGS.COP.AXFilterCoeff[0] = 0xCA;
  1683. // Bytes for AR-filter        (09): 72,42,13,4B
  1684. j->m_DAAShadowRegs.COP_REGS.COP.ARFilterCoeff[3] = 0x72;
  1685. j->m_DAAShadowRegs.COP_REGS.COP.ARFilterCoeff[2] = 0x42;
  1686. j->m_DAAShadowRegs.COP_REGS.COP.ARFilterCoeff[1] = 0x13;
  1687. j->m_DAAShadowRegs.COP_REGS.COP.ARFilterCoeff[0] = 0x4B;
  1689. // Bytes for TH-filter part 1 (00): 80,52,48,81,AD,80,00,98
  1690. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[7] = 0x80;
  1691. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[6] = 0x52;
  1692. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[5] = 0x48;
  1693. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[4] = 0x81;
  1694. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[3] = 0xAD;
  1695. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[2] = 0x80;
  1696. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[1] = 0x00;
  1697. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[0] = 0x98;
  1699. // Bytes for TH-filter part 2 (01): 02,42,5A,20,E8,1A,81,27
  1700. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[7] = 0x02;
  1701. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[6] = 0x42;
  1702. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[5] = 0x5A;
  1703. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[4] = 0x20;
  1704. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[3] = 0xE8;
  1705. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[2] = 0x1A;
  1706. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[1] = 0x81;
  1707. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[0] = 0x27;
  1709. // Bytes for TH-filter part 3 (02): 00,88,63,26,BD,4B,A3,C2
  1710. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[7] = 0x00;
  1711. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[6] = 0x88;
  1712. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[5] = 0x63;
  1713. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[4] = 0x26;
  1714. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[3] = 0xBD;
  1715. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[2] = 0x4B;
  1716. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[1] = 0xA3;
  1717. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[0] = 0xC2;
  1719. // ;  (10K, 0.68uF)
  1721. // Bytes for Ringing part 1 (03):1B,3B,9B,BA,D4,1C,B3,23
  1722. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[7] = 0x1B;
  1723. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[6] = 0x3B;
  1724. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[5] = 0x9B;
  1725. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[4] = 0xBA;
  1726. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[3] = 0xD4;
  1727. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[2] = 0x1C;
  1728. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[1] = 0xB3;
  1729. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[0] = 0x23;
  1731. // Bytes for Ringing part 2 (06):13,42,A6,BA,D4,73,CA,D5
  1732. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[7] = 0x13;
  1733. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[6] = 0x42;
  1734. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[5] = 0xA6;
  1735. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[4] = 0xBA;
  1736. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[3] = 0xD4;
  1737. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[2] = 0x73;
  1738. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[1] = 0xCA;
  1739. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[0] = 0xD5;
  1741. // Levelmetering Ringing        (0D):B2,45,0F,8E      
  1742. j->m_DAAShadowRegs.COP_REGS.COP.LevelmeteringRinging[3] = 0xB2;
  1743. j->m_DAAShadowRegs.COP_REGS.COP.LevelmeteringRinging[2] = 0x45;
  1744. j->m_DAAShadowRegs.COP_REGS.COP.LevelmeteringRinging[1] = 0x0F;
  1745. j->m_DAAShadowRegs.COP_REGS.COP.LevelmeteringRinging[0] = 0x8E;
  1747. // Caller ID 1st Tone           (0E):CA,0E,CA,09,99,99,99,99
  1748. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[7] = 0xCA;
  1749. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[6] = 0x0E;
  1750. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[5] = 0xCA;
  1751. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[4] = 0x09;
  1752. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[3] = 0x99;
  1753. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[2] = 0x99;
  1754. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[1] = 0x99;
  1755. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[0] = 0x99;
  1757. // Caller ID 2nd Tone           (0F):FD,B5,BA,07,DA,00,00,00
  1758. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[7] = 0xFD;
  1759. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[6] = 0xB5;
  1760. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[5] = 0xBA;
  1761. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[4] = 0x07;
  1762. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[3] = 0xDA;
  1763. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[2] = 0x00;
  1764. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[1] = 0x00;
  1765. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[0] = 0x00;
  1767. // ;CR Registers
  1768. // Config. Reg. 0 (filters)        (cr0):FF ; all Filters enabled, CLK from ext. source
  1769. j->m_DAAShadowRegs.SOP_REGS.SOP.cr0.reg = 0xFF;
  1771. // Config. Reg. 1 (dialing)        (cr1):05 ; Manual Ring, Ring metering enabled
  1772. j->m_DAAShadowRegs.SOP_REGS.SOP.cr1.reg = 0x05;
  1774. // Config. Reg. 2 (caller ID)      (cr2):04 ; Analog Gain 0dB, FSC internal
  1775. j->m_DAAShadowRegs.SOP_REGS.SOP.cr2.reg = 0x04;
  1777. // Config. Reg. 3 (testloops)      (cr3):00 ; SEL Bit==0, HP-enabled
  1778. j->m_DAAShadowRegs.SOP_REGS.SOP.cr3.reg = 0x00;
  1780. // Config. Reg. 4 (analog gain)    (cr4):01
  1781. j->m_DAAShadowRegs.SOP_REGS.SOP.cr4.reg = 0x02; //0x01;
  1783. // Config. Reg. 5 (Version)        (cr5):02
  1784. // Config. Reg. 6 (Reserved)       (cr6):00
  1785. // Config. Reg. 7 (Reserved)       (cr7):00
  1787. // ;xr Registers
  1788. // Ext. Reg. 0 (Interrupt Reg.)    (xr0):02
  1789. j->m_DAAShadowRegs.XOP_xr0_W.reg = 0x02; // SO_1 set to '1' because it is inverted.
  1791. // Ext. Reg. 1 (Interrupt enable)  (xr1):1C ; Ring, CID, VDDOK Interrupts enabled
  1792. j->m_DAAShadowRegs.XOP_REGS.XOP.xr1.reg = 0x1C; // RING, Caller ID, VDD_OK
  1794. // Ext. Reg. 2 (Cadence Time Out)  (xr2):7D
  1795. j->m_DAAShadowRegs.XOP_REGS.XOP.xr2.reg = 0x7D;
  1797. // Ext. Reg. 3 (DC Char)           (xr3):32 ; B-Filter Off==1, U0=3.5V, R=200Ohm
  1798. j->m_DAAShadowRegs.XOP_REGS.XOP.xr3.reg = 0x32;
  1800. // Ext. Reg. 4 (Cadence)           (xr4):00
  1801. j->m_DAAShadowRegs.XOP_REGS.XOP.xr4.reg = 0x00;
  1803. // Ext. Reg. 5 (Ring timer)        (xr5):22
  1804. j->m_DAAShadowRegs.XOP_REGS.XOP.xr5.reg = 0x22;
  1806. // Ext. Reg. 6 (Power State)       (xr6):00
  1807. j->m_DAAShadowRegs.XOP_xr6_W.reg = 0x00;
  1809. // Ext. Reg. 7 (Vdd)               (xr7):40 ; VDD=4.25 V
  1810. j->m_DAAShadowRegs.XOP_REGS.XOP.xr7.reg = 0x40; // 0x40 ??? Should it be 0x00?
  1812. // DTMF Tone 1                     (0B): 11,B3,5A,2C    ;   697 Hz  
  1813. //                                       12,33,5A,C3    ;  770 Hz  
  1814. //                                       13,3C,5B,32    ;  852 Hz  
  1815. //                                       1D,1B,5C,CC    ;  941 Hz  
  1816. j->m_DAAShadowRegs.COP_REGS.COP.Tone1Coeff[3] = 0x11;
  1817. j->m_DAAShadowRegs.COP_REGS.COP.Tone1Coeff[2] = 0xB3;
  1818. j->m_DAAShadowRegs.COP_REGS.COP.Tone1Coeff[1] = 0x5A;
  1819. j->m_DAAShadowRegs.COP_REGS.COP.Tone1Coeff[0] = 0x2C;
  1821. // DTMF Tone 2                     (0C): 32,32,52,B3    ;  1209 Hz  
  1822. //                                       EC,1D,52,22    ;  1336 Hz  
  1823. //                                       AA,AC,51,D2    ;  1477 Hz  
  1824. //                                       9B,3B,51,25    ;  1633 Hz  
  1825. j->m_DAAShadowRegs.COP_REGS.COP.Tone2Coeff[3] = 0x32;
  1826. j->m_DAAShadowRegs.COP_REGS.COP.Tone2Coeff[2] = 0x32;
  1827. j->m_DAAShadowRegs.COP_REGS.COP.Tone2Coeff[1] = 0x52;
  1828. j->m_DAAShadowRegs.COP_REGS.COP.Tone2Coeff[0] = 0xB3;
  1830. }
  1833. static void DAA_Coeff_Australia(int board)
  1834. {
  1835. IXJ *j = &ixj[board];
  1837. int i;
  1839. //-----------------------------------------------
  1840. // CAO
  1841. for (i = 0; i < ALISDAA_CALLERID_SIZE; i++) {
  1842. j->m_DAAShadowRegs.CAO_REGS.CAO.CallerID[i] = 0;
  1843. }
  1845. // Bytes for IM-filter part 1 (04): 00,A3,AA,28,B3,82,D0,00
  1846.     j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[7] = 0x00;
  1847. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[6] = 0xA3;
  1848. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[5] = 0xAA;
  1849. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[4] = 0x28;
  1850. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[3] = 0xB3;
  1851. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[2] = 0x82;
  1852. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[1] = 0xD0;
  1853. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[0] = 0x00;
  1855. // Bytes for IM-filter part 2 (05): 70,96,00,09,32,6B,C0,08
  1856. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[7] = 0x70;
  1857. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[6] = 0x96;
  1858. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[5] = 0x00;
  1859. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[4] = 0x09;
  1860. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[3] = 0x32;
  1861. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[2] = 0x6B;
  1862. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[1] = 0xC0;
  1863. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[0] = 0x08;
  1865. // Bytes for FRX-filter       (08): 07,96,E2,34,32,9B,30,08
  1866. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[7] = 0x07;
  1867. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[6] = 0x96;
  1868. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[5] = 0xE2;
  1869. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[4] = 0x34;
  1870. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[3] = 0x32;
  1871. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[2] = 0x9B;
  1872. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[1] = 0x30;
  1873. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[0] = 0x08;
  1875. // Bytes for FRR-filter       (07): 0F,9A,E9,2F,22,CC,A0,08
  1876. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[7] = 0x0F;
  1877. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[6] = 0x9A;
  1878. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[5] = 0xE9;
  1879. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[4] = 0x2F;
  1880. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[3] = 0x22;
  1881. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[2] = 0xCC;
  1882. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[1] = 0xA0;
  1883. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[0] = 0x08;
  1885. // Bytes for AX-filter        (0A): CB,45,DD,CA
  1886. j->m_DAAShadowRegs.COP_REGS.COP.AXFilterCoeff[3] = 0xCB;
  1887. j->m_DAAShadowRegs.COP_REGS.COP.AXFilterCoeff[2] = 0x45;
  1888. j->m_DAAShadowRegs.COP_REGS.COP.AXFilterCoeff[1] = 0xDD;
  1889. j->m_DAAShadowRegs.COP_REGS.COP.AXFilterCoeff[0] = 0xCA;
  1891. // Bytes for AR-filter        (09): 1B,67,10,D6
  1892. j->m_DAAShadowRegs.COP_REGS.COP.ARFilterCoeff[3] = 0x1B;
  1893. j->m_DAAShadowRegs.COP_REGS.COP.ARFilterCoeff[2] = 0x67;
  1894. j->m_DAAShadowRegs.COP_REGS.COP.ARFilterCoeff[1] = 0x10;
  1895. j->m_DAAShadowRegs.COP_REGS.COP.ARFilterCoeff[0] = 0xD6;
  1897. // Bytes for TH-filter part 1 (00): 80,52,48,81,AF,80,00,98
  1898. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[7] = 0x80;
  1899. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[6] = 0x52;
  1900. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[5] = 0x48;
  1901. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[4] = 0x81;
  1902. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[3] = 0xAF;
  1903. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[2] = 0x80;
  1904. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[1] = 0x00;
  1905. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[0] = 0x98;
  1907. // Bytes for TH-filter part 2 (01): 02,DB,52,B0,38,01,82,AC
  1908. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[7] = 0x02;
  1909. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[6] = 0xDB;
  1910. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[5] = 0x52;
  1911. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[4] = 0xB0;
  1912. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[3] = 0x38;
  1913. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[2] = 0x01;
  1914. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[1] = 0x82;
  1915. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[0] = 0xAC;
  1917. // Bytes for TH-filter part 3 (02): 00,88,4A,3E,2C,3B,24,46
  1918. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[7] = 0x00;
  1919. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[6] = 0x88;
  1920. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[5] = 0x4A;
  1921. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[4] = 0x3E;
  1922. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[3] = 0x2C;
  1923. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[2] = 0x3B;
  1924. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[1] = 0x24;
  1925. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[0] = 0x46;
  1927. // ;  idle
  1929. // Bytes for Ringing part 1 (03):1B,3C,93,3A,22,12,A3,23
  1930. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[7] = 0x1B;
  1931. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[6] = 0x3C;
  1932. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[5] = 0x93;
  1933. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[4] = 0x3A;
  1934. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[3] = 0x22;
  1935. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[2] = 0x12;
  1936. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[1] = 0xA3;
  1937. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[0] = 0x23;
  1939. // Bytes for Ringing part 2 (06):12,A2,A6,BA,22,7A,0A,D5
  1940. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[7] = 0x12;
  1941. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[6] = 0xA2;
  1942. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[5] = 0xA6;
  1943. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[4] = 0xBA;
  1944. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[3] = 0x22;
  1945. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[2] = 0x7A;
  1946. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[1] = 0x0A;
  1947. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[0] = 0xD5;
  1949. // Levelmetering Ringing           (0D):32,45,B5,84   ; 50Hz 20V
  1950. j->m_DAAShadowRegs.COP_REGS.COP.LevelmeteringRinging[3] = 0x32;
  1951. j->m_DAAShadowRegs.COP_REGS.COP.LevelmeteringRinging[2] = 0x45;
  1952. j->m_DAAShadowRegs.COP_REGS.COP.LevelmeteringRinging[1] = 0xB5;
  1953. j->m_DAAShadowRegs.COP_REGS.COP.LevelmeteringRinging[0] = 0x84;
  1955. // Caller ID 1st Tone              (0E):CA,0E,CA,09,99,99,99,99
  1956. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[7] = 0xCA;
  1957. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[6] = 0x0E;
  1958. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[5] = 0xCA;
  1959. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[4] = 0x09;
  1960. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[3] = 0x99;
  1961. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[2] = 0x99;
  1962. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[1] = 0x99;
  1963. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[0] = 0x99;
  1965. // Caller ID 2nd Tone              (0F):FD,B5,BA,07,DA,00,00,00
  1966. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[7] = 0xFD;
  1967. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[6] = 0xB5;
  1968. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[5] = 0xBA;
  1969. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[4] = 0x07;
  1970. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[3] = 0xDA;
  1971. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[2] = 0x00;
  1972. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[1] = 0x00;
  1973. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[0] = 0x00;
  1975. // ;CR Registers
  1976. // Config. Reg. 0 (filters)        (cr0):FF
  1977. j->m_DAAShadowRegs.SOP_REGS.SOP.cr0.reg = 0xFF;
  1979. // Config. Reg. 1 (dialing)        (cr1):05
  1980. j->m_DAAShadowRegs.SOP_REGS.SOP.cr1.reg = 0x05;
  1982. // Config. Reg. 2 (caller ID)      (cr2):04
  1983. j->m_DAAShadowRegs.SOP_REGS.SOP.cr2.reg = 0x04;
  1985. // Config. Reg. 3 (testloops)      (cr3):00        ; 
  1986. j->m_DAAShadowRegs.SOP_REGS.SOP.cr3.reg = 0x00;
  1988. // Config. Reg. 4 (analog gain)    (cr4):01
  1989. j->m_DAAShadowRegs.SOP_REGS.SOP.cr4.reg = 0x02; //0x01;
  1991. // Config. Reg. 5 (Version)        (cr5):02
  1992. // Config. Reg. 6 (Reserved)       (cr6):00
  1993. // Config. Reg. 7 (Reserved)       (cr7):00
  1995. // ;xr Registers
  1996. // Ext. Reg. 0 (Interrupt Reg.)    (xr0):02
  1997. j->m_DAAShadowRegs.XOP_xr0_W.reg = 0x02; // SO_1 set to '1' because it is inverted.
  1999. // Ext. Reg. 1 (Interrupt enable)  (xr1):1C
  2000. j->m_DAAShadowRegs.XOP_REGS.XOP.xr1.reg = 0x1C; // RING, Caller ID, VDD_OK
  2002. // Ext. Reg. 2 (Cadence Time Out)  (xr2):7D
  2003. j->m_DAAShadowRegs.XOP_REGS.XOP.xr2.reg = 0x7D;
  2005. // Ext. Reg. 3 (DC Char)           (xr3):2B      ; 
  2006. j->m_DAAShadowRegs.XOP_REGS.XOP.xr3.reg = 0x2B;
  2008. // Ext. Reg. 4 (Cadence)           (xr4):00
  2009. j->m_DAAShadowRegs.XOP_REGS.XOP.xr4.reg = 0x00;
  2011. // Ext. Reg. 5 (Ring timer)        (xr5):22
  2012. j->m_DAAShadowRegs.XOP_REGS.XOP.xr5.reg = 0x22;
  2014. // Ext. Reg. 6 (Power State)       (xr6):00
  2015. j->m_DAAShadowRegs.XOP_xr6_W.reg = 0x00;
  2017. // Ext. Reg. 7 (Vdd)               (xr7):40
  2018. j->m_DAAShadowRegs.XOP_REGS.XOP.xr7.reg = 0x40; // 0x40 ??? Should it be 0x00?
  2020. // DTMF Tone 1                     (0B): 11,B3,5A,2C    ;   697 Hz  
  2021. //                                       12,33,5A,C3    ;  770 Hz  
  2022. //                                       13,3C,5B,32    ;  852 Hz  
  2023. //                                       1D,1B,5C,CC    ;  941 Hz  
  2024. j->m_DAAShadowRegs.COP_REGS.COP.Tone1Coeff[3] = 0x11;
  2025. j->m_DAAShadowRegs.COP_REGS.COP.Tone1Coeff[2] = 0xB3;
  2026. j->m_DAAShadowRegs.COP_REGS.COP.Tone1Coeff[1] = 0x5A;
  2027. j->m_DAAShadowRegs.COP_REGS.COP.Tone1Coeff[0] = 0x2C;
  2029. // DTMF Tone 2                     (0C): 32,32,52,B3    ;  1209 Hz  
  2030. //                                       EC,1D,52,22    ;  1336 Hz  
  2031. //                                       AA,AC,51,D2    ;  1477 Hz  
  2032. //                                       9B,3B,51,25    ;  1633 Hz  
  2033. j->m_DAAShadowRegs.COP_REGS.COP.Tone2Coeff[3] = 0x32;
  2034. j->m_DAAShadowRegs.COP_REGS.COP.Tone2Coeff[2] = 0x32;
  2035. j->m_DAAShadowRegs.COP_REGS.COP.Tone2Coeff[1] = 0x52;
  2036. j->m_DAAShadowRegs.COP_REGS.COP.Tone2Coeff[0] = 0xB3;
  2038. }
  2040. static void DAA_Coeff_Japan(int board)
  2041. {
  2042. IXJ *j = &ixj[board];
  2044. int i;
  2046. //-----------------------------------------------
  2047. // CAO
  2048. for (i = 0; i < ALISDAA_CALLERID_SIZE; i++) {
  2049. j->m_DAAShadowRegs.CAO_REGS.CAO.CallerID[i] = 0;
  2050. }
  2052. // Bytes for IM-filter part 1 (04): 06,BD,E2,2D,BA,F9,A0,00
  2053.     j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[7] = 0x06;
  2054. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[6] = 0xBD;
  2055. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[5] = 0xE2;
  2056. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[4] = 0x2D;
  2057. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[3] = 0xBA;
  2058. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[2] = 0xF9;
  2059. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[1] = 0xA0;
  2060. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_1[0] = 0x00;
  2062. // Bytes for IM-filter part 2 (05): 6F,F7,00,0E,34,33,E0,08
  2063. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[7] = 0x6F;
  2064. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[6] = 0xF7;
  2065. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[5] = 0x00;
  2066. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[4] = 0x0E;
  2067. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[3] = 0x34;
  2068. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[2] = 0x33;
  2069. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[1] = 0xE0;
  2070. j->m_DAAShadowRegs.COP_REGS.COP.IMFilterCoeff_2[0] = 0x08;
  2072. // Bytes for FRX-filter       (08): 02,8F,68,77,9C,58,F0,08
  2073. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[7] = 0x02;
  2074. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[6] = 0x8F;
  2075. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[5] = 0x68;
  2076. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[4] = 0x77;
  2077. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[3] = 0x9C;
  2078. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[2] = 0x58;
  2079. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[1] = 0xF0;
  2080. j->m_DAAShadowRegs.COP_REGS.COP.FRXFilterCoeff[0] = 0x08;
  2082. // Bytes for FRR-filter       (07): 03,8F,38,73,87,EA,20,08
  2083. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[7] = 0x03;
  2084. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[6] = 0x8F;
  2085. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[5] = 0x38;
  2086. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[4] = 0x73;
  2087. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[3] = 0x87;
  2088. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[2] = 0xEA;
  2089. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[1] = 0x20;
  2090. j->m_DAAShadowRegs.COP_REGS.COP.FRRFilterCoeff[0] = 0x08;
  2092. // Bytes for AX-filter        (0A): 51,C5,DD,CA
  2093. j->m_DAAShadowRegs.COP_REGS.COP.AXFilterCoeff[3] = 0x51;
  2094. j->m_DAAShadowRegs.COP_REGS.COP.AXFilterCoeff[2] = 0xC5;
  2095. j->m_DAAShadowRegs.COP_REGS.COP.AXFilterCoeff[1] = 0xDD;
  2096. j->m_DAAShadowRegs.COP_REGS.COP.AXFilterCoeff[0] = 0xCA;
  2098. // Bytes for AR-filter        (09): 25,A7,10,D6
  2099. j->m_DAAShadowRegs.COP_REGS.COP.ARFilterCoeff[3] = 0x25;
  2100. j->m_DAAShadowRegs.COP_REGS.COP.ARFilterCoeff[2] = 0xA7;
  2101. j->m_DAAShadowRegs.COP_REGS.COP.ARFilterCoeff[1] = 0x10;
  2102. j->m_DAAShadowRegs.COP_REGS.COP.ARFilterCoeff[0] = 0xD6;
  2104. // Bytes for TH-filter part 1 (00): 00,42,48,81,AE,80,00,98
  2105. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[7] = 0x00;
  2106. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[6] = 0x42;
  2107. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[5] = 0x48;
  2108. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[4] = 0x81;
  2109. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[3] = 0xAE;
  2110. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[2] = 0x80;
  2111. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[1] = 0x00;
  2112. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_1[0] = 0x98;
  2114. // Bytes for TH-filter part 2 (01): 02,AB,2A,20,99,5B,89,28
  2115. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[7] = 0x02;
  2116. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[6] = 0xAB;
  2117. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[5] = 0x2A;
  2118. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[4] = 0x20;
  2119. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[3] = 0x99;
  2120. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[2] = 0x5B;
  2121. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[1] = 0x89;
  2122. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_2[0] = 0x28;
  2124. // Bytes for TH-filter part 3 (02): 00,88,DA,25,34,C5,4C,BA
  2125. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[7] = 0x00;
  2126. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[6] = 0x88;
  2127. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[5] = 0xDA;
  2128. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[4] = 0x25;
  2129. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[3] = 0x34;
  2130. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[2] = 0xC5;
  2131. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[1] = 0x4C;
  2132. j->m_DAAShadowRegs.COP_REGS.COP.THFilterCoeff_3[0] = 0xBA;
  2134. // ;  idle
  2136. // Bytes for Ringing part 1 (03):1B,3C,93,3A,22,12,A3,23
  2137. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[7] = 0x1B;
  2138. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[6] = 0x3C;
  2139. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[5] = 0x93;
  2140. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[4] = 0x3A;
  2141. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[3] = 0x22;
  2142. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[2] = 0x12;
  2143. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[1] = 0xA3;
  2144. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_1[0] = 0x23;
  2146. // Bytes for Ringing part 2 (06):12,A2,A6,BA,22,7A,0A,D5
  2147. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[7] = 0x12;
  2148. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[6] = 0xA2;
  2149. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[5] = 0xA6;
  2150. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[4] = 0xBA;
  2151. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[3] = 0x22;
  2152. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[2] = 0x7A;
  2153. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[1] = 0x0A;
  2154. j->m_DAAShadowRegs.COP_REGS.COP.RingerImpendance_2[0] = 0xD5;
  2156. // Levelmetering Ringing           (0D):AA,35,0F,8E    ; 25Hz 30V ?????????
  2157. j->m_DAAShadowRegs.COP_REGS.COP.LevelmeteringRinging[3] = 0xAA;
  2158. j->m_DAAShadowRegs.COP_REGS.COP.LevelmeteringRinging[2] = 0x35;
  2159. j->m_DAAShadowRegs.COP_REGS.COP.LevelmeteringRinging[1] = 0x0F;
  2160. j->m_DAAShadowRegs.COP_REGS.COP.LevelmeteringRinging[0] = 0x8E;
  2162. // Caller ID 1st Tone              (0E):CA,0E,CA,09,99,99,99,99
  2163. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[7] = 0xCA;
  2164. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[6] = 0x0E;
  2165. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[5] = 0xCA;
  2166. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[4] = 0x09;
  2167. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[3] = 0x99;
  2168. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[2] = 0x99;
  2169. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[1] = 0x99;
  2170. j->m_DAAShadowRegs.COP_REGS.COP.CallerID1stTone[0] = 0x99;
  2172. // Caller ID 2nd Tone              (0F):FD,B5,BA,07,DA,00,00,00
  2173. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[7] = 0xFD;
  2174. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[6] = 0xB5;
  2175. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[5] = 0xBA;
  2176. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[4] = 0x07;
  2177. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[3] = 0xDA;
  2178. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[2] = 0x00;
  2179. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[1] = 0x00;
  2180. j->m_DAAShadowRegs.COP_REGS.COP.CallerID2ndTone[0] = 0x00;
  2182. // ;CR Registers
  2183. // Config. Reg. 0 (filters)        (cr0):FF
  2184. j->m_DAAShadowRegs.SOP_REGS.SOP.cr0.reg = 0xFF;
  2186. // Config. Reg. 1 (dialing)        (cr1):05
  2187. j->m_DAAShadowRegs.SOP_REGS.SOP.cr1.reg = 0x05;
  2189. // Config. Reg. 2 (caller ID)      (cr2):04
  2190. j->m_DAAShadowRegs.SOP_REGS.SOP.cr2.reg = 0x04;
  2192. // Config. Reg. 3 (testloops)      (cr3):00        ; 
  2193. j->m_DAAShadowRegs.SOP_REGS.SOP.cr3.reg = 0x00;
  2195. // Config. Reg. 4 (analog gain)    (cr4):01
  2196. j->m_DAAShadowRegs.SOP_REGS.SOP.cr4.reg = 0x02; //0x01;
  2198. // Config. Reg. 5 (Version)        (cr5):02
  2199. // Config. Reg. 6 (Reserved)       (cr6):00
  2200. // Config. Reg. 7 (Reserved)       (cr7):00
  2202. // ;xr Registers
  2203. // Ext. Reg. 0 (Interrupt Reg.)    (xr0):02
  2204. j->m_DAAShadowRegs.XOP_xr0_W.reg = 0x02; // SO_1 set to '1' because it is inverted.
  2206. // Ext. Reg. 1 (Interrupt enable)  (xr1):1C
  2207. j->m_DAAShadowRegs.XOP_REGS.XOP.xr1.reg = 0x1C; // RING, Caller ID, VDD_OK
  2209. // Ext. Reg. 2 (Cadence Time Out)  (xr2):7D
  2210. j->m_DAAShadowRegs.XOP_REGS.XOP.xr2.reg = 0x7D;
  2212. // Ext. Reg. 3 (DC Char)           (xr3):22        ; 
  2213. j->m_DAAShadowRegs.XOP_REGS.XOP.xr3.reg = 0x22;
  2215. // Ext. Reg. 4 (Cadence)           (xr4):00
  2216. j->m_DAAShadowRegs.XOP_REGS.XOP.xr4.reg = 0x00;
  2218. // Ext. Reg. 5 (Ring timer)        (xr5):22
  2219. j->m_DAAShadowRegs.XOP_REGS.XOP.xr5.reg = 0x22;
  2221. // Ext. Reg. 6 (Power State)       (xr6):00
  2222. j->m_DAAShadowRegs.XOP_xr6_W.reg = 0x00;
  2224. // Ext. Reg. 7 (Vdd)               (xr7):40
  2225. j->m_DAAShadowRegs.XOP_REGS.XOP.xr7.reg = 0x40; // 0x40 ??? Should it be 0x00?
  2227. // DTMF Tone 1                     (0B): 11,B3,5A,2C    ;   697 Hz  
  2228. //                                       12,33,5A,C3    ;  770 Hz  
  2229. //                                       13,3C,5B,32    ;  852 Hz  
  2230. //                                       1D,1B,5C,CC    ;  941 Hz  
  2231. j->m_DAAShadowRegs.COP_REGS.COP.Tone1Coeff[3] = 0x11;
  2232. j->m_DAAShadowRegs.COP_REGS.COP.Tone1Coeff[2] = 0xB3;
  2233. j->m_DAAShadowRegs.COP_REGS.COP.Tone1Coeff[1] = 0x5A;
  2234. j->m_DAAShadowRegs.COP_REGS.COP.Tone1Coeff[0] = 0x2C;
  2236. // DTMF Tone 2                     (0C): 32,32,52,B3    ;  1209 Hz  
  2237. //                                       EC,1D,52,22    ;  1336 Hz  
  2238. //                                       AA,AC,51,D2    ;  1477 Hz  
  2239. //                                       9B,3B,51,25    ;  1633 Hz  
  2241. j->m_DAAShadowRegs.COP_REGS.COP.Tone2Coeff[3] = 0x32;
  2242. j->m_DAAShadowRegs.COP_REGS.COP.Tone2Coeff[2] = 0x32;
  2243. j->m_DAAShadowRegs.COP_REGS.COP.Tone2Coeff[1] = 0x52;
  2244. j->m_DAAShadowRegs.COP_REGS.COP.Tone2Coeff[0] = 0xB3;
  2246. }
  2248. static s16 tone_table[][19] =
  2249. {
  2250. { // f20_50[]
  2251. 32538, // A1 = 1.985962
  2252.  -32325, // A2 = -0.986511
  2253.  -343, // B2 = -0.010493
  2254.  0, // B1 = 0
  2255.  343, // B0 = 0.010493
  2256.  32619, // A1 = 1.990906
  2257.  -32520, // A2 = -0.992462
  2258.  19179, // B2 = 0.585327
  2259.  -19178, // B1 = -1.170593
  2260.  19179, // B0 = 0.585327
  2261.  32723, // A1 = 1.997314
  2262.  -32686, // A2 = -0.997528
  2263.  9973, // B2 = 0.304352
  2264.  -9955, // B1 = -0.607605
  2265.  9973, // B0 = 0.304352
  2266.  7, // Internal filter scaling
  2267.  159, // Minimum in-band energy threshold
  2268.  21, // 21/32 in-band to broad-band ratio
  2269.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  2270. },
  2271. { // f133_200[]
  2272. 32072, // A1 = 1.95752
  2273.  -31896, // A2 = -0.973419
  2274.  -435, // B2 = -0.013294
  2275.  0, // B1 = 0
  2276.  435, // B0 = 0.013294
  2277.  32188, // A1 = 1.9646
  2278.  -32400, // A2 = -0.98877
  2279.  15139, // B2 = 0.462036
  2280.  -14882, // B1 = -0.908356
  2281.  15139, // B0 = 0.462036
  2282.  32473, // A1 = 1.981995
  2283.  -32524, // A2 = -0.992584
  2284.  23200, // B2 = 0.708008
  2285.  -23113, // B1 = -1.410706
  2286.  23200, // B0 = 0.708008
  2287.  7, // Internal filter scaling
  2288.  159, // Minimum in-band energy threshold
  2289.  21, // 21/32 in-band to broad-band ratio
  2290.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  2291. },
  2292. { // 300.txt
  2293. 31769, // A1 = -1.939026
  2294.  -32584, // A2 = 0.994385
  2295.  -475, // B2 = -0.014522
  2296.  0, // B1 = 0.000000
  2297.  475, // B0 = 0.014522
  2298.  31789, // A1 = -1.940247
  2299.  -32679, // A2 = 0.997284
  2300.  17280, // B2 = 0.527344
  2301.  -16865, // B1 = -1.029358
  2302.  17280, // B0 = 0.527344
  2303.  31841, // A1 = -1.943481
  2304.  -32681, // A2 = 0.997345
  2305.  543, // B2 = 0.016579
  2306.  -525, // B1 = -0.032097
  2307.  543, // B0 = 0.016579
  2308.  5, // Internal filter scaling
  2309.  159, // Minimum in-band energy threshold
  2310.  21, // 21/32 in-band to broad-band ratio
  2311.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  2312. },
  2313. { // f300_420[]
  2314. 30750, // A1 = 1.876892
  2315.  -31212, // A2 = -0.952515
  2316.  -804, // B2 = -0.024541
  2317.  0, // B1 = 0
  2318.  804, // B0 = 0.024541
  2319.  30686, // A1 = 1.872925
  2320.  -32145, // A2 = -0.980988
  2321.  14747, // B2 = 0.450043
  2322.  -13703, // B1 = -0.836395
  2323.  14747, // B0 = 0.450043
  2324.  31651, // A1 = 1.931824
  2325.  -32321, // A2 = -0.986389
  2326.  24425, // B2 = 0.745422
  2327.  -23914, // B1 = -1.459595
  2328.  24427, // B0 = 0.745483
  2329.  7, // Internal filter scaling
  2330.  159, // Minimum in-band energy threshold
  2331.  21, // 21/32 in-band to broad-band ratio
  2332.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  2333. },
  2334. { // 330.txt
  2335. 31613, // A1 = -1.929565
  2336.  -32646, // A2 = 0.996277
  2337.  -185, // B2 = -0.005657
  2338.  0, // B1 = 0.000000
  2339.  185, // B0 = 0.005657
  2340.  31620, // A1 = -1.929932
  2341.  -32713, // A2 = 0.998352
  2342.  19253, // B2 = 0.587585
  2343.  -18566, // B1 = -1.133179
  2344.  19253, // B0 = 0.587585
  2345.  31674, // A1 = -1.933228
  2346.  -32715, // A2 = 0.998413
  2347.  2575, // B2 = 0.078590
  2348.  -2495, // B1 = -0.152283
  2349.  2575, // B0 = 0.078590
  2350.  5, // Internal filter scaling
  2351.  159, // Minimum in-band energy threshold
  2352.  21, // 21/32 in-band to broad-band ratio
  2353.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  2354. },
  2355. { // f300_425[]
  2356. 30741, // A1 = 1.876282
  2357.  -31475, // A2 = -0.960541
  2358.  -703, // B2 = -0.021484
  2359.  0, // B1 = 0
  2360.  703, // B0 = 0.021484
  2361.  30688, // A1 = 1.873047
  2362.  -32248, // A2 = -0.984161
  2363.  14542, // B2 = 0.443787
  2364.  -13523, // B1 = -0.825439
  2365.  14542, // B0 = 0.443817
  2366.  31494, // A1 = 1.922302
  2367.  -32366, // A2 = -0.987762
  2368.  21577, // B2 = 0.658508
  2369.  -21013, // B1 = -1.282532
  2370.  21577, // B0 = 0.658508
  2371.  7, // Internal filter scaling
  2372.  159, // Minimum in-band energy threshold
  2373.  21, // 21/32 in-band to broad-band ratio
  2374.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  2375. },
  2376. { // f330_440[]
  2377. 30627, // A1 = 1.869324
  2378.  -31338, // A2 = -0.95636
  2379.  -843, // B2 = -0.025749
  2380.  0, // B1 = 0
  2381.  843, // B0 = 0.025749
  2382.  30550, // A1 = 1.864685
  2383.  -32221, // A2 = -0.983337
  2384.  13594, // B2 = 0.414886
  2385.  -12589, // B1 = -0.768402
  2386.  13594, // B0 = 0.414886
  2387.  31488, // A1 = 1.921936
  2388.  -32358, // A2 = -0.987518
  2389.  24684, // B2 = 0.753296
  2390.  -24029, // B1 = -1.466614
  2391.  24684, // B0 = 0.753296
  2392.  7, // Internal filter scaling
  2393.  159, // Minimum in-band energy threshold
  2394.  21, // 21/32 in-band to broad-band ratio
  2395.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  2396. },
  2397. { // 340.txt
  2398. 31546, // A1 = -1.925476
  2399.  -32646, // A2 = 0.996277
  2400.  -445, // B2 = -0.013588
  2401.  0, // B1 = 0.000000
  2402.  445, // B0 = 0.013588
  2403.  31551, // A1 = -1.925781
  2404.  -32713, // A2 = 0.998352
  2405.  23884, // B2 = 0.728882
  2406.  -22979, // B1 = -1.402527
  2407.  23884, // B0 = 0.728882
  2408.  31606, // A1 = -1.929138
  2409.  -32715, // A2 = 0.998413
  2410.  863, // B2 = 0.026367
  2411.  -835, // B1 = -0.050985
  2412.  863, // B0 = 0.026367
  2413.  5, // Internal filter scaling
  2414.  159, // Minimum in-band energy threshold
  2415.  21, // 21/32 in-band to broad-band ratio
  2416.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  2417. },
  2418. { // f350_400[]
  2419. 31006, // A1 = 1.892517
  2420.  -32029, // A2 = -0.977448
  2421.  -461, // B2 = -0.014096
  2422.  0, // B1 = 0
  2423.  461, // B0 = 0.014096
  2424.  30999, // A1 = 1.892029
  2425.  -32487, // A2 = -0.991455
  2426.  11325, // B2 = 0.345612
  2427.  -10682, // B1 = -0.651978
  2428.  11325, // B0 = 0.345612
  2429.  31441, // A1 = 1.919067
  2430.  -32526, // A2 = -0.992615
  2431.  24324, // B2 = 0.74231
  2432.  -23535, // B1 = -1.436523
  2433.  24324, // B0 = 0.74231
  2434.  7, // Internal filter scaling
  2435.  159, // Minimum in-band energy threshold
  2436.  21, // 21/32 in-band to broad-band ratio
  2437.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  2438. },
  2439. { // f350_440[]
  2440. 30634, // A1 = 1.869751
  2441.  -31533, // A2 = -0.962341
  2442.  -680, // B2 = -0.020782
  2443.  0, // B1 = 0
  2444.  680, // B0 = 0.020782
  2445.  30571, // A1 = 1.865906
  2446.  -32277, // A2 = -0.985016
  2447.  12894, // B2 = 0.393524
  2448.  -11945, // B1 = -0.729065
  2449.  12894, // B0 = 0.393524
  2450.  31367, // A1 = 1.91449
  2451.  -32379, // A2 = -0.988129
  2452.  23820, // B2 = 0.726929
  2453.  -23104, // B1 = -1.410217
  2454.  23820, // B0 = 0.726929
  2455.  7, // Internal filter scaling
  2456.  159, // Minimum in-band energy threshold
  2457.  21, // 21/32 in-band to broad-band ratio
  2458.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  2459. },
  2460. { // f350_450[]
  2461. 30552, // A1 = 1.864807
  2462.  -31434, // A2 = -0.95929
  2463.  -690, // B2 = -0.021066
  2464.  0, // B1 = 0
  2465.  690, // B0 = 0.021066
  2466.  30472, // A1 = 1.859924
  2467.  -32248, // A2 = -0.984161
  2468.  13385, // B2 = 0.408478
  2469.  -12357, // B1 = -0.754242
  2470.  13385, // B0 = 0.408478
  2471.  31358, // A1 = 1.914001
  2472.  -32366, // A2 = -0.987732
  2473.  26488, // B2 = 0.80835
  2474.  -25692, // B1 = -1.568176
  2475.  26490, // B0 = 0.808411
  2476.  7, // Internal filter scaling
  2477.  159, // Minimum in-band energy threshold
  2478.  21, // 21/32 in-band to broad-band ratio
  2479.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  2480. },
  2481. { // 360.txt
  2482. 31397, // A1 = -1.916321
  2483.  -32623, // A2 = 0.995605
  2484.  -117, // B2 = -0.003598
  2485.  0, // B1 = 0.000000
  2486.  117, // B0 = 0.003598
  2487.  31403, // A1 = -1.916687
  2488.  -32700, // A2 = 0.997925
  2489.  3388, // B2 = 0.103401
  2490.  -3240, // B1 = -0.197784
  2491.  3388, // B0 = 0.103401
  2492.  31463, // A1 = -1.920410
  2493.  -32702, // A2 = 0.997986
  2494.  13346, // B2 = 0.407288
  2495.  -12863, // B1 = -0.785126
  2496.  13346, // B0 = 0.407288
  2497.  5, // Internal filter scaling
  2498.  159, // Minimum in-band energy threshold
  2499.  21, // 21/32 in-band to broad-band ratio
  2500.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  2501. },
  2502. { // f380_420[]
  2503. 30831, // A1 = 1.881775
  2504.  -32064, // A2 = -0.978546
  2505.  -367, // B2 = -0.01122
  2506.  0, // B1 = 0
  2507.  367, // B0 = 0.01122
  2508.  30813, // A1 = 1.880737
  2509.  -32456, // A2 = -0.990509
  2510.  11068, // B2 = 0.337769
  2511.  -10338, // B1 = -0.631042
  2512.  11068, // B0 = 0.337769
  2513.  31214, // A1 = 1.905212
  2514.  -32491, // A2 = -0.991577
  2515.  16374, // B2 = 0.499695
  2516.  -15781, // B1 = -0.963196
  2517.  16374, // B0 = 0.499695
  2518.  7, // Internal filter scaling
  2519.  159, // Minimum in-band energy threshold
  2520.  21, // 21/32 in-band to broad-band ratio
  2521.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  2522. },
  2523. { // 392.txt
  2524. 31152, // A1 = -1.901428
  2525.  -32613, // A2 = 0.995300
  2526.  -314, // B2 = -0.009605
  2527.  0, // B1 = 0.000000
  2528.  314, // B0 = 0.009605
  2529.  31156, // A1 = -1.901672
  2530.  -32694, // A2 = 0.997742
  2531.  28847, // B2 = 0.880371
  2532.  -2734, // B1 = -0.166901
  2533.  28847, // B0 = 0.880371
  2534.  31225, // A1 = -1.905823
  2535.  -32696, // A2 = 0.997803
  2536.  462, // B2 = 0.014108
  2537.  -442, // B1 = -0.027019
  2538.  462, // B0 = 0.014108
  2539.  5, // Internal filter scaling
  2540.  159, // Minimum in-band energy threshold
  2541.  21, // 21/32 in-band to broad-band ratio
  2542.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  2543. },
  2544. { // f400_425[]
  2545. 30836, // A1 = 1.882141
  2546.  -32296, // A2 = -0.985596
  2547.  -324, // B2 = -0.009903
  2548.  0, // B1 = 0
  2549.  324, // B0 = 0.009903
  2550.  30825, // A1 = 1.881409
  2551.  -32570, // A2 = -0.993958
  2552.  16847, // B2 = 0.51416
  2553.  -15792, // B1 = -0.963898
  2554.  16847, // B0 = 0.51416
  2555.  31106, // A1 = 1.89856
  2556.  -32584, // A2 = -0.994415
  2557.  9579, // B2 = 0.292328
  2558.  -9164, // B1 = -0.559357
  2559.  9579, // B0 = 0.292328
  2560.  7, // Internal filter scaling
  2561.  159, // Minimum in-band energy threshold
  2562.  21, // 21/32 in-band to broad-band ratio
  2563.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  2564. },
  2565. { // f400_440[]
  2566. 30702, // A1 = 1.873962
  2567.  -32134, // A2 = -0.980682
  2568.  -517, // B2 = -0.015793
  2569.  0, // B1 = 0
  2570.  517, // B0 = 0.015793
  2571.  30676, // A1 = 1.872375
  2572.  -32520, // A2 = -0.992462
  2573.  8144, // B2 = 0.24855
  2574.  -7596, // B1 = -0.463684
  2575.  8144, // B0 = 0.24855
  2576.  31084, // A1 = 1.897217
  2577.  -32547, // A2 = -0.993256
  2578.  22713, // B2 = 0.693176
  2579.  -21734, // B1 = -1.326599
  2580.  22713, // B0 = 0.693176
  2581.  7, // Internal filter scaling
  2582.  159, // Minimum in-band energy threshold
  2583.  21, // 21/32 in-band to broad-band ratio
  2584.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  2585. },
  2586. { // f400_450[]
  2587. 30613, // A1 = 1.86853
  2588.  -32031, // A2 = -0.977509
  2589.  -618, // B2 = -0.018866
  2590.  0, // B1 = 0
  2591.  618, // B0 = 0.018866
  2592.  30577, // A1 = 1.866272
  2593.  -32491, // A2 = -0.991577
  2594.  9612, // B2 = 0.293335
  2595.  -8935, // B1 = -0.54541
  2596.  9612, // B0 = 0.293335
  2597.  31071, // A1 = 1.896484
  2598.  -32524, // A2 = -0.992584
  2599.  21596, // B2 = 0.659058
  2600.  -20667, // B1 = -1.261414
  2601.  21596, // B0 = 0.659058
  2602.  7, // Internal filter scaling
  2603.  159, // Minimum in-band energy threshold
  2604.  21, // 21/32 in-band to broad-band ratio
  2605.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  2606. },
  2607. { // 420.txt
  2608. 30914, // A1 = -1.886841
  2609.  -32584, // A2 = 0.994385
  2610.  -426, // B2 = -0.013020
  2611.  0, // B1 = 0.000000
  2612.  426, // B0 = 0.013020
  2613.  30914, // A1 = -1.886841
  2614.  -32679, // A2 = 0.997314
  2615.  17520, // B2 = 0.534668
  2616.  -16471, // B1 = -1.005310
  2617.  17520, // B0 = 0.534668
  2618.  31004, // A1 = -1.892334
  2619.  -32683, // A2 = 0.997406
  2620.  819, // B2 = 0.025023
  2621.  -780, // B1 = -0.047619
  2622.  819, // B0 = 0.025023
  2623.  5, // Internal filter scaling
  2624.  159, // Minimum in-band energy threshold
  2625.  21, // 21/32 in-band to broad-band ratio
  2626.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  2627. },
  2628. { // 425.txt
  2629. 30881, // A1 = -1.884827
  2630.  -32603, // A2 = 0.994965
  2631.  -496, // B2 = -0.015144
  2632.  0, // B1 = 0.000000
  2633.  496, // B0 = 0.015144
  2634.  30880, // A1 = -1.884766
  2635.  -32692, // A2 = 0.997711
  2636.  24767, // B2 = 0.755859
  2637.  -23290, // B1 = -1.421509
  2638.  24767, // B0 = 0.755859
  2639.  30967, // A1 = -1.890076
  2640.  -32694, // A2 = 0.997772
  2641.  728, // B2 = 0.022232
  2642.  -691, // B1 = -0.042194
  2643.  728, // B0 = 0.022232
  2644.  5, // Internal filter scaling
  2645.  159, // Minimum in-band energy threshold
  2646.  21, // 21/32 in-band to broad-band ratio
  2647.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  2648. },
  2649. { // f425_450[]
  2650. 30646, // A1 = 1.870544
  2651.  -32327, // A2 = -0.986572
  2652.  -287, // B2 = -0.008769
  2653.  0, // B1 = 0
  2654.  287, // B0 = 0.008769
  2655.  30627, // A1 = 1.869324
  2656.  -32607, // A2 = -0.995087
  2657.  13269, // B2 = 0.404968
  2658.  -12376, // B1 = -0.755432
  2659.  13269, // B0 = 0.404968
  2660.  30924, // A1 = 1.887512
  2661.  -32619, // A2 = -0.995453
  2662.  19950, // B2 = 0.608826
  2663.  -18940, // B1 = -1.156006
  2664.  19950, // B0 = 0.608826
  2665.  7, // Internal filter scaling
  2666.  159, // Minimum in-band energy threshold
  2667.  21, // 21/32 in-band to broad-band ratio
  2668.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  2669. },
  2670. { // f425_475[]
  2671. 30396, // A1 = 1.855225
  2672.  -32014, // A2 = -0.97699
  2673.  -395, // B2 = -0.012055
  2674.  0, // B1 = 0
  2675.  395, // B0 = 0.012055
  2676.  30343, // A1 = 1.85199
  2677.  -32482, // A2 = -0.991302
  2678.  17823, // B2 = 0.543945
  2679.  -16431, // B1 = -1.002869
  2680.  17823, // B0 = 0.543945
  2681.  30872, // A1 = 1.884338
  2682.  -32516, // A2 = -0.99231
  2683.  18124, // B2 = 0.553101
  2684.  -17246, // B1 = -1.052673
  2685.  18124, // B0 = 0.553101
  2686.  7, // Internal filter scaling
  2687.  159, // Minimum in-band energy threshold
  2688.  21, // 21/32 in-band to broad-band ratio
  2689.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  2690. },
  2691. { // 435.txt
  2692. 30796, // A1 = -1.879639
  2693.  -32603, // A2 = 0.994965
  2694.  -254, // B2 = -0.007762
  2695.  0, // B1 = 0.000000
  2696.  254, // B0 = 0.007762
  2697.  30793, // A1 = -1.879456
  2698.  -32692, // A2 = 0.997711
  2699.  18934, // B2 = 0.577820
  2700.  -17751, // B1 = -1.083496
  2701.  18934, // B0 = 0.577820
  2702.  30882, // A1 = -1.884888
  2703.  -32694, // A2 = 0.997772
  2704.  1858, // B2 = 0.056713
  2705.  -1758, // B1 = -0.107357
  2706.  1858, // B0 = 0.056713
  2707.  5, // Internal filter scaling
  2708.  159, // Minimum in-band energy threshold
  2709.  21, // 21/32 in-band to broad-band ratio
  2710.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  2711. },
  2712. { // f440_450[]
  2713. 30641, // A1 = 1.870239
  2714.  -32458, // A2 = -0.99057
  2715.  -155, // B2 = -0.004735
  2716.  0, // B1 = 0
  2717.  155, // B0 = 0.004735
  2718.  30631, // A1 = 1.869568
  2719.  -32630, // A2 = -0.995789
  2720.  11453, // B2 = 0.349548
  2721.  -10666, // B1 = -0.651001
  2722.  11453, // B0 = 0.349548
  2723.  30810, // A1 = 1.880554
  2724.  -32634, // A2 = -0.995941
  2725.  12237, // B2 = 0.373474
  2726.  -11588, // B1 = -0.707336
  2727.  12237, // B0 = 0.373474
  2728.  7, // Internal filter scaling
  2729.  159, // Minimum in-band energy threshold
  2730.  21, // 21/32 in-band to broad-band ratio
  2731.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  2732. },
  2733. { // f440_480[]
  2734. 30367, // A1 = 1.853455
  2735.  -32147, // A2 = -0.981079
  2736.  -495, // B2 = -0.015113
  2737.  0, // B1 = 0
  2738.  495, // B0 = 0.015113
  2739.  30322, // A1 = 1.850769
  2740.  -32543, // A2 = -0.993134
  2741.  10031, // B2 = 0.306152
  2742.  -9252, // B1 = -0.564728
  2743.  10031, // B0 = 0.306152
  2744.  30770, // A1 = 1.878052
  2745.  -32563, // A2 = -0.993774
  2746.  22674, // B2 = 0.691956
  2747.  -21465, // B1 = -1.31012
  2748.  22674, // B0 = 0.691956
  2749.  7, // Internal filter scaling
  2750.  159, // Minimum in-band energy threshold
  2751.  21, // 21/32 in-band to broad-band ratio
  2752.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  2753. },
  2754. { // 445.txt
  2755. 30709, // A1 = -1.874329
  2756.  -32603, // A2 = 0.994965
  2757.  -83, // B2 = -0.002545
  2758.  0, // B1 = 0.000000
  2759.  83, // B0 = 0.002545
  2760.  30704, // A1 = -1.874084
  2761.  -32692, // A2 = 0.997711
  2762.  10641, // B2 = 0.324738
  2763.  -9947, // B1 = -0.607147
  2764.  10641, // B0 = 0.324738
  2765.  30796, // A1 = -1.879639
  2766.  -32694, // A2 = 0.997772
  2767.  10079, // B2 = 0.307587
  2768.  9513, // B1 = 0.580688
  2769.  10079, // B0 = 0.307587
  2770.  5, // Internal filter scaling
  2771.  159, // Minimum in-band energy threshold
  2772.  21, // 21/32 in-band to broad-band ratio
  2773.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  2774. },
  2775. { // 450.txt
  2776. 30664, // A1 = -1.871643
  2777.  -32603, // A2 = 0.994965
  2778.  -164, // B2 = -0.005029
  2779.  0, // B1 = 0.000000
  2780.  164, // B0 = 0.005029
  2781.  30661, // A1 = -1.871399
  2782.  -32692, // A2 = 0.997711
  2783.  15294, // B2 = 0.466736
  2784.  -14275, // B1 = -0.871307
  2785.  15294, // B0 = 0.466736
  2786.  30751, // A1 = -1.876953
  2787.  -32694, // A2 = 0.997772
  2788.  3548, // B2 = 0.108284
  2789.  -3344, // B1 = -0.204155
  2790.  3548, // B0 = 0.108284
  2791.  5, // Internal filter scaling
  2792.  159, // Minimum in-band energy threshold
  2793.  21, // 21/32 in-band to broad-band ratio
  2794.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  2795. },
  2796. { // 452.txt
  2797. 30653, // A1 = -1.870911
  2798.  -32615, // A2 = 0.995361
  2799.  -209, // B2 = -0.006382
  2800.  0, // B1 = 0.000000
  2801.  209, // B0 = 0.006382
  2802.  30647, // A1 = -1.870605
  2803.  -32702, // A2 = 0.997986
  2804.  18971, // B2 = 0.578979
  2805.  -17716, // B1 = -1.081299
  2806.  18971, // B0 = 0.578979
  2807.  30738, // A1 = -1.876099
  2808.  -32702, // A2 = 0.998016
  2809.  2967, // B2 = 0.090561
  2810.  -2793, // B1 = -0.170502
  2811.  2967, // B0 = 0.090561
  2812.  5, // Internal filter scaling
  2813.  159, // Minimum in-band energy threshold
  2814.  21, // 21/32 in-band to broad-band ratio
  2815.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  2816. },
  2817. { // 475.txt
  2818. 30437, // A1 = -1.857727
  2819.  -32603, // A2 = 0.994965
  2820.  -264, // B2 = -0.008062
  2821.  0, // B1 = 0.000000
  2822.  264, // B0 = 0.008062
  2823.  30430, // A1 = -1.857300
  2824.  -32692, // A2 = 0.997711
  2825.  21681, // B2 = 0.661682
  2826.  -20082, // B1 = -1.225708
  2827.  21681, // B0 = 0.661682
  2828.  30526, // A1 = -1.863220
  2829.  -32694, // A2 = 0.997742
  2830.  1559, // B2 = 0.047600
  2831.  -1459, // B1 = -0.089096
  2832.  1559, // B0 = 0.047600
  2833.  5, // Internal filter scaling
  2834.  159, // Minimum in-band energy threshold
  2835.  21, // 21/32 in-band to broad-band ratio
  2836.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  2837. },
  2838. { // f480_620[]
  2839. 28975, // A1 = 1.768494
  2840.  -30955, // A2 = -0.944672
  2841.  -1026, // B2 = -0.03133
  2842.  0, // B1 = 0
  2843.  1026, // B0 = 0.03133
  2844.  28613, // A1 = 1.746399
  2845.  -32089, // A2 = -0.979309
  2846.  14214, // B2 = 0.433807
  2847.  -12202, // B1 = -0.744812
  2848.  14214, // B0 = 0.433807
  2849.  30243, // A1 = 1.845947
  2850.  -32238, // A2 = -0.983856
  2851.  24825, // B2 = 0.757629
  2852.  -23402, // B1 = -1.428345
  2853.  24825, // B0 = 0.757629
  2854.  7, // Internal filter scaling
  2855.  159, // Minimum in-band energy threshold
  2856.  21, // 21/32 in-band to broad-band ratio
  2857.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  2858. },
  2859. { // 494.txt
  2860. 30257, // A1 = -1.846741
  2861.  -32605, // A2 = 0.995056
  2862.  -249, // B2 = -0.007625
  2863.  0, // B1 = 0.000000
  2864.  249, // B0 = 0.007625
  2865.  30247, // A1 = -1.846191
  2866.  -32694, // A2 = 0.997772
  2867.  18088, // B2 = 0.552002
  2868.  -16652, // B1 = -1.016418
  2869.  18088, // B0 = 0.552002
  2870.  30348, // A1 = -1.852295
  2871.  -32696, // A2 = 0.997803
  2872.  2099, // B2 = 0.064064
  2873.  -1953, // B1 = -0.119202
  2874.  2099, // B0 = 0.064064
  2875.  5, // Internal filter scaling
  2876.  159, // Minimum in-band energy threshold
  2877.  21, // 21/32 in-band to broad-band ratio
  2878.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  2879. },
  2880. { // 500.txt
  2881. 30202, // A1 = -1.843431
  2882.  -32624, // A2 = 0.995622
  2883.  -413, // B2 = -0.012622
  2884.  0, // B1 = 0.000000
  2885.  413, // B0 = 0.012622
  2886.  30191, // A1 = -1.842721
  2887.  -32714, // A2 = 0.998364
  2888.  25954, // B2 = 0.792057
  2889.  -23890, // B1 = -1.458131
  2890.  25954, // B0 = 0.792057
  2891.  30296, // A1 = -1.849172
  2892.  -32715, // A2 = 0.998397
  2893.  2007, // B2 = 0.061264
  2894.  -1860, // B1 = -0.113568
  2895.  2007, // B0 = 0.061264
  2896.  5, // Internal filter scaling
  2897.  159, // Minimum in-band energy threshold
  2898.  21, // 21/32 in-band to broad-band ratio
  2899.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  2900. },
  2901. { // 520.txt
  2902. 30001, // A1 = -1.831116
  2903.  -32613, // A2 = 0.995270
  2904.  -155, // B2 = -0.004750
  2905.  0, // B1 = 0.000000
  2906.  155, // B0 = 0.004750
  2907.  29985, // A1 = -1.830200
  2908.  -32710, // A2 = 0.998260
  2909.  6584, // B2 = 0.200928
  2910.  -6018, // B1 = -0.367355
  2911.  6584, // B0 = 0.200928
  2912.  30105, // A1 = -1.837524
  2913.  -32712, // A2 = 0.998291
  2914.  23812, // B2 = 0.726685
  2915.  -21936, // B1 = -1.338928
  2916.  23812, // B0 = 0.726685
  2917.  5, // Internal filter scaling
  2918.  159, // Minimum in-band energy threshold
  2919.  21, // 21/32 in-band to broad-band ratio
  2920.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  2921. },
  2922. { // 523.txt
  2923. 29964, // A1 = -1.828918
  2924.  -32601, // A2 = 0.994904
  2925.  -101, // B2 = -0.003110
  2926.  0, // B1 = 0.000000
  2927.  101, // B0 = 0.003110
  2928.  29949, // A1 = -1.827942
  2929.  -32700, // A2 = 0.997925
  2930.  11041, // B2 = 0.336975
  2931.  -10075, // B1 = -0.614960
  2932.  11041, // B0 = 0.336975
  2933.  30070, // A1 = -1.835388
  2934.  -32702, // A2 = 0.997986
  2935.  16762, // B2 = 0.511536
  2936.  -15437, // B1 = -0.942230
  2937.  16762, // B0 = 0.511536
  2938.  5, // Internal filter scaling
  2939.  159, // Minimum in-band energy threshold
  2940.  21, // 21/32 in-band to broad-band ratio
  2941.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  2942. },
  2943. { // 525.txt
  2944. 29936, // A1 = -1.827209
  2945.  -32584, // A2 = 0.994415
  2946.  -91, // B2 = -0.002806
  2947.  0, // B1 = 0.000000
  2948.  91, // B0 = 0.002806
  2949.  29921, // A1 = -1.826233
  2950.  -32688, // A2 = 0.997559
  2951.  11449, // B2 = 0.349396
  2952.  -10426, // B1 = -0.636383
  2953.  11449, // B0 = 0.349396
  2954.  30045, // A1 = -1.833862
  2955.  -32688, // A2 = 0.997589
  2956.  13055, // B2 = 0.398407
  2957.  -12028, // B1 = -0.734161
  2958.  13055, // B0 = 0.398407
  2959.  5, // Internal filter scaling
  2960.  159, // Minimum in-band energy threshold
  2961.  21, // 21/32 in-band to broad-band ratio
  2962.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  2963. },
  2964. { // f540_660[]
  2965. 28499, // A1 = 1.739441
  2966.  -31129, // A2 = -0.949982
  2967.  -849, // B2 = -0.025922
  2968.  0, // B1 = 0
  2969.  849, // B0 = 0.025922
  2970.  28128, // A1 = 1.716797
  2971.  -32130, // A2 = -0.98056
  2972.  14556, // B2 = 0.444214
  2973.  -12251, // B1 = -0.747772
  2974.  14556, // B0 = 0.444244
  2975.  29667, // A1 = 1.81073
  2976.  -32244, // A2 = -0.984039
  2977.  23038, // B2 = 0.703064
  2978.  -21358, // B1 = -1.303589
  2979.  23040, // B0 = 0.703125
  2980.  7, // Internal filter scaling
  2981.  159, // Minimum in-band energy threshold
  2982.  21, // 21/32 in-band to broad-band ratio
  2983.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  2984. },
  2985. { // 587.txt
  2986. 29271, // A1 = -1.786560
  2987.  -32599, // A2 = 0.994873
  2988.  -490, // B2 = -0.014957
  2989.  0, // B1 = 0.000000
  2990.  490, // B0 = 0.014957
  2991.  29246, // A1 = -1.785095
  2992.  -32700, // A2 = 0.997925
  2993.  28961, // B2 = 0.883850
  2994.  -25796, // B1 = -1.574463
  2995.  28961, // B0 = 0.883850
  2996.  29383, // A1 = -1.793396
  2997.  -32700, // A2 = 0.997955
  2998.  1299, // B2 = 0.039650
  2999.  -1169, // B1 = -0.071396
  3000.  1299, // B0 = 0.039650
  3001.  5, // Internal filter scaling
  3002.  159, // Minimum in-band energy threshold
  3003.  21, // 21/32 in-band to broad-band ratio
  3004.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  3005. },
  3006. { // 590.txt
  3007. 29230, // A1 = -1.784058
  3008.  -32584, // A2 = 0.994415
  3009.  -418, // B2 = -0.012757
  3010.  0, // B1 = 0.000000
  3011.  418, // B0 = 0.012757
  3012.  29206, // A1 = -1.782593
  3013.  -32688, // A2 = 0.997559
  3014.  36556, // B2 = 1.115601
  3015.  -32478, // B1 = -1.982300
  3016.  36556, // B0 = 1.115601
  3017.  29345, // A1 = -1.791077
  3018.  -32688, // A2 = 0.997589
  3019.  897, // B2 = 0.027397
  3020.  -808, // B1 = -0.049334
  3021.  897, // B0 = 0.027397
  3022.  5, // Internal filter scaling
  3023.  159, // Minimum in-band energy threshold
  3024.  21, // 21/32 in-band to broad-band ratio
  3025.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  3026. },
  3027. { // 600.txt
  3028. 29116, // A1 = -1.777100
  3029.  -32603, // A2 = 0.994965
  3030.  -165, // B2 = -0.005039
  3031.  0, // B1 = 0.000000
  3032.  165, // B0 = 0.005039
  3033.  29089, // A1 = -1.775452
  3034.  -32708, // A2 = 0.998199
  3035.  6963, // B2 = 0.212494
  3036.  -6172, // B1 = -0.376770
  3037.  6963, // B0 = 0.212494
  3038.  29237, // A1 = -1.784485
  3039.  -32710, // A2 = 0.998230
  3040.  24197, // B2 = 0.738464
  3041.  -21657, // B1 = -1.321899
  3042.  24197, // B0 = 0.738464
  3043.  5, // Internal filter scaling
  3044.  159, // Minimum in-band energy threshold
  3045.  21, // 21/32 in-band to broad-band ratio
  3046.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  3047. },
  3048. { // 660.txt
  3049. 28376, // A1 = -1.731934
  3050.  -32567, // A2 = 0.993896
  3051.  -363, // B2 = -0.011102
  3052.  0, // B1 = 0.000000
  3053.  363, // B0 = 0.011102
  3054.  28337, // A1 = -1.729614
  3055.  -32683, // A2 = 0.997434
  3056.  21766, // B2 = 0.664246
  3057.  -18761, // B1 = -1.145081
  3058.  21766, // B0 = 0.664246
  3059.  28513, // A1 = -1.740356
  3060.  -32686, // A2 = 0.997498
  3061.  2509, // B2 = 0.076584
  3062.  -2196, // B1 = -0.134041
  3063.  2509, // B0 = 0.076584
  3064.  5, // Internal filter scaling
  3065.  159, // Minimum in-band energy threshold
  3066.  21, // 21/32 in-band to broad-band ratio
  3067.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  3068. },
  3069. { // 700.txt
  3070. 27844, // A1 = -1.699463
  3071.  -32563, // A2 = 0.993744
  3072.  -366, // B2 = -0.011187
  3073.  0, // B1 = 0.000000
  3074.  366, // B0 = 0.011187
  3075.  27797, // A1 = -1.696655
  3076.  -32686, // A2 = 0.997498
  3077.  22748, // B2 = 0.694214
  3078.  -19235, // B1 = -1.174072
  3079.  22748, // B0 = 0.694214
  3080.  27995, // A1 = -1.708740
  3081.  -32688, // A2 = 0.997559
  3082.  2964, // B2 = 0.090477
  3083.  -2546, // B1 = -0.155449
  3084.  2964, // B0 = 0.090477
  3085.  5, // Internal filter scaling
  3086.  159, // Minimum in-band energy threshold
  3087.  21, // 21/32 in-band to broad-band ratio
  3088.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  3089. },
  3090. { // 740.txt
  3091. 27297, // A1 = -1.666077
  3092.  -32551, // A2 = 0.993408
  3093.  -345, // B2 = -0.010540
  3094.  0, // B1 = 0.000000
  3095.  345, // B0 = 0.010540
  3096.  27240, // A1 = -1.662598
  3097.  -32683, // A2 = 0.997406
  3098.  22560, // B2 = 0.688477
  3099.  -18688, // B1 = -1.140625
  3100.  22560, // B0 = 0.688477
  3101.  27461, // A1 = -1.676147
  3102.  -32684, // A2 = 0.997467
  3103.  3541, // B2 = 0.108086
  3104.  -2985, // B1 = -0.182220
  3105.  3541, // B0 = 0.108086
  3106.  5, // Internal filter scaling
  3107.  159, // Minimum in-band energy threshold
  3108.  21, // 21/32 in-band to broad-band ratio
  3109.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  3110. },
  3111. { // 750.txt
  3112. 27155, // A1 = -1.657410
  3113.  -32551, // A2 = 0.993408
  3114.  -462, // B2 = -0.014117
  3115.  0, // B1 = 0.000000
  3116.  462, // B0 = 0.014117
  3117.  27097, // A1 = -1.653870
  3118.  -32683, // A2 = 0.997406
  3119.  32495, // B2 = 0.991699
  3120.  -26776, // B1 = -1.634338
  3121.  32495, // B0 = 0.991699
  3122.  27321, // A1 = -1.667542
  3123.  -32684, // A2 = 0.997467
  3124.  1835, // B2 = 0.056007
  3125.  -1539, // B1 = -0.093948
  3126.  1835, // B0 = 0.056007
  3127.  5, // Internal filter scaling
  3128.  159, // Minimum in-band energy threshold
  3129.  21, // 21/32 in-band to broad-band ratio
  3130.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  3131. },
  3132. { // f750_1450[]
  3133. 19298, // A1 = 1.177917
  3134.  -24471, // A2 = -0.746796
  3135.  -4152, // B2 = -0.126709
  3136.  0, // B1 = 0
  3137.  4152, // B0 = 0.126709
  3138.  12902, // A1 = 0.787476
  3139.  -29091, // A2 = -0.887817
  3140.  12491, // B2 = 0.38121
  3141.  -1794, // B1 = -0.109528
  3142.  12494, // B0 = 0.381317
  3143.  26291, // A1 = 1.604736
  3144.  -30470, // A2 = -0.929901
  3145.  28859, // B2 = 0.880737
  3146.  -26084, // B1 = -1.592102
  3147.  28861, // B0 = 0.880798
  3148.  7, // Internal filter scaling
  3149.  159, // Minimum in-band energy threshold
  3150.  21, // 21/32 in-band to broad-band ratio
  3151.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  3152. },
  3153. { // 770.txt
  3154. 26867, // A1 = -1.639832
  3155.  -32551, // A2 = 0.993408
  3156.  -123, // B2 = -0.003755
  3157.  0, // B1 = 0.000000
  3158.  123, // B0 = 0.003755
  3159.  26805, // A1 = -1.636108
  3160.  -32683, // A2 = 0.997406
  3161.  17297, // B2 = 0.527863
  3162.  -14096, // B1 = -0.860382
  3163.  17297, // B0 = 0.527863
  3164.  27034, // A1 = -1.650085
  3165.  -32684, // A2 = 0.997467
  3166.  12958, // B2 = 0.395477
  3167.  -10756, // B1 = -0.656525
  3168.  12958, // B0 = 0.395477
  3169.  5, // Internal filter scaling
  3170.  159, // Minimum in-band energy threshold
  3171.  21, // 21/32 in-band to broad-band ratio
  3172.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  3173. },
  3174. { // 800.txt
  3175. 26413, // A1 = -1.612122
  3176.  -32547, // A2 = 0.993286
  3177.  -223, // B2 = -0.006825
  3178.  0, // B1 = 0.000000
  3179.  223, // B0 = 0.006825
  3180.  26342, // A1 = -1.607849
  3181.  -32686, // A2 = 0.997498
  3182.  6391, // B2 = 0.195053
  3183.  -5120, // B1 = -0.312531
  3184.  6391, // B0 = 0.195053
  3185.  26593, // A1 = -1.623108
  3186.  -32688, // A2 = 0.997559
  3187.  23681, // B2 = 0.722717
  3188.  -19328, // B1 = -1.179688
  3189.  23681, // B0 = 0.722717
  3190.  5, // Internal filter scaling
  3191.  159, // Minimum in-band energy threshold
  3192.  21, // 21/32 in-band to broad-band ratio
  3193.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  3194. },
  3195. { // 816.txt
  3196. 26168, // A1 = -1.597209
  3197.  -32528, // A2 = 0.992706
  3198.  -235, // B2 = -0.007182
  3199.  0, // B1 = 0.000000
  3200.  235, // B0 = 0.007182
  3201.  26092, // A1 = -1.592590
  3202.  -32675, // A2 = 0.997192
  3203.  20823, // B2 = 0.635498
  3204.  -16510, // B1 = -1.007751
  3205.  20823, // B0 = 0.635498
  3206.  26363, // A1 = -1.609070
  3207.  -32677, // A2 = 0.997253
  3208.  6739, // B2 = 0.205688
  3209.  -5459, // B1 = -0.333206
  3210.  6739, // B0 = 0.205688
  3211.  5, // Internal filter scaling
  3212.  159, // Minimum in-band energy threshold
  3213.  21, // 21/32 in-band to broad-band ratio
  3214.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  3215. },
  3216. { // 850.txt
  3217. 25641, // A1 = -1.565063
  3218.  -32536, // A2 = 0.992950
  3219.  -121, // B2 = -0.003707
  3220.  0, // B1 = 0.000000
  3221.  121, // B0 = 0.003707
  3222.  25560, // A1 = -1.560059
  3223.  -32684, // A2 = 0.997437
  3224.  18341, // B2 = 0.559753
  3225.  -14252, // B1 = -0.869904
  3226.  18341, // B0 = 0.559753
  3227.  25837, // A1 = -1.577026
  3228.  -32684, // A2 = 0.997467
  3229.  16679, // B2 = 0.509003
  3230.  -13232, // B1 = -0.807648
  3231.  16679, // B0 = 0.509003
  3232.  5, // Internal filter scaling
  3233.  159, // Minimum in-band energy threshold
  3234.  21, // 21/32 in-band to broad-band ratio
  3235.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  3236. },
  3237. { // f857_1645[]
  3238. 16415, // A1 = 1.001953
  3239.  -23669, // A2 = -0.722321
  3240.  -4549, // B2 = -0.138847
  3241.  0, // B1 = 0
  3242.  4549, // B0 = 0.138847
  3243.  8456, // A1 = 0.516174
  3244.  -28996, // A2 = -0.884918
  3245.  13753, // B2 = 0.419724
  3246.  -12, // B1 = -0.000763
  3247.  13757, // B0 = 0.419846
  3248.  24632, // A1 = 1.503418
  3249.  -30271, // A2 = -0.923828
  3250.  29070, // B2 = 0.887146
  3251.  -25265, // B1 = -1.542114
  3252.  29073, // B0 = 0.887268
  3253.  7, // Internal filter scaling
  3254.  159, // Minimum in-band energy threshold
  3255.  21, // 21/32 in-band to broad-band ratio
  3256.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  3257. },
  3258. { // 900.txt
  3259. 24806, // A1 = -1.514099
  3260.  -32501, // A2 = 0.991852
  3261.  -326, // B2 = -0.009969
  3262.  0, // B1 = 0.000000
  3263.  326, // B0 = 0.009969
  3264.  24709, // A1 = -1.508118
  3265.  -32659, // A2 = 0.996674
  3266.  20277, // B2 = 0.618835
  3267.  -15182, // B1 = -0.926636
  3268.  20277, // B0 = 0.618835
  3269.  25022, // A1 = -1.527222
  3270.  -32661, // A2 = 0.996735
  3271.  4320, // B2 = 0.131836
  3272.  -3331, // B1 = -0.203339
  3273.  4320, // B0 = 0.131836
  3274.  5, // Internal filter scaling
  3275.  159, // Minimum in-band energy threshold
  3276.  21, // 21/32 in-band to broad-band ratio
  3277.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  3278. },
  3279. { // f900_1300[]
  3280. 19776, // A1 = 1.207092
  3281.  -27437, // A2 = -0.837341
  3282.  -2666, // B2 = -0.081371
  3283.  0, // B1 = 0
  3284.  2666, // B0 = 0.081371
  3285.  16302, // A1 = 0.995026
  3286.  -30354, // A2 = -0.926361
  3287.  10389, // B2 = 0.317062
  3288.  -3327, // B1 = -0.203064
  3289.  10389, // B0 = 0.317062
  3290.  24299, // A1 = 1.483154
  3291.  -30930, // A2 = -0.943909
  3292.  25016, // B2 = 0.763428
  3293.  -21171, // B1 = -1.292236
  3294.  25016, // B0 = 0.763428
  3295.  7, // Internal filter scaling
  3296.  159, // Minimum in-band energy threshold
  3297.  21, // 21/32 in-band to broad-band ratio
  3298.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  3299. },
  3300. { // f935_1215[]
  3301. 20554, // A1 = 1.254517
  3302.  -28764, // A2 = -0.877838
  3303.  -2048, // B2 = -0.062515
  3304.  0, // B1 = 0
  3305.  2048, // B0 = 0.062515
  3306.  18209, // A1 = 1.11145
  3307.  -30951, // A2 = -0.94458
  3308.  9390, // B2 = 0.286575
  3309.  -3955, // B1 = -0.241455
  3310.  9390, // B0 = 0.286575
  3311.  23902, // A1 = 1.458923
  3312.  -31286, // A2 = -0.954803
  3313.  23252, // B2 = 0.709595
  3314.  -19132, // B1 = -1.167725
  3315.  23252, // B0 = 0.709595
  3316.  7, // Internal filter scaling
  3317.  159, // Minimum in-band energy threshold
  3318.  21, // 21/32 in-band to broad-band ratio
  3319.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  3320. },
  3321. { // f941_1477[]
  3322. 17543, // A1 = 1.07074
  3323.  -26220, // A2 = -0.800201
  3324.  -3298, // B2 = -0.100647
  3325.  0, // B1 = 0
  3326.  3298, // B0 = 0.100647
  3327.  12423, // A1 = 0.75827
  3328.  -30036, // A2 = -0.916626
  3329.  12651, // B2 = 0.386078
  3330.  -2444, // B1 = -0.14917
  3331.  12653, // B0 = 0.386154
  3332.  23518, // A1 = 1.435425
  3333.  -30745, // A2 = -0.938293
  3334.  27282, // B2 = 0.832581
  3335.  -22529, // B1 = -1.375122
  3336.  27286, // B0 = 0.832703
  3337.  7, // Internal filter scaling
  3338.  159, // Minimum in-band energy threshold
  3339.  21, // 21/32 in-band to broad-band ratio
  3340.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  3341. },
  3342. { // 942.txt
  3343. 24104, // A1 = -1.471252
  3344.  -32507, // A2 = 0.992065
  3345.  -351, // B2 = -0.010722
  3346.  0, // B1 = 0.000000
  3347.  351, // B0 = 0.010722
  3348.  23996, // A1 = -1.464600
  3349.  -32671, // A2 = 0.997040
  3350.  22848, // B2 = 0.697266
  3351.  -16639, // B1 = -1.015564
  3352.  22848, // B0 = 0.697266
  3353.  24332, // A1 = -1.485168
  3354.  -32673, // A2 = 0.997101
  3355.  4906, // B2 = 0.149727
  3356.  -3672, // B1 = -0.224174
  3357.  4906, // B0 = 0.149727
  3358.  5, // Internal filter scaling
  3359.  159, // Minimum in-band energy threshold
  3360.  21, // 21/32 in-band to broad-band ratio
  3361.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  3362. },
  3363. { // 950.txt
  3364. 23967, // A1 = -1.462830
  3365.  -32507, // A2 = 0.992065
  3366.  -518, // B2 = -0.015821
  3367.  0, // B1 = 0.000000
  3368.  518, // B0 = 0.015821
  3369.  23856, // A1 = -1.456055
  3370.  -32671, // A2 = 0.997040
  3371.  26287, // B2 = 0.802246
  3372.  -19031, // B1 = -1.161560
  3373.  26287, // B0 = 0.802246
  3374.  24195, // A1 = -1.476746
  3375.  -32673, // A2 = 0.997101
  3376.  2890, // B2 = 0.088196
  3377.  -2151, // B1 = -0.131317
  3378.  2890, // B0 = 0.088196
  3379.  5, // Internal filter scaling
  3380.  159, // Minimum in-band energy threshold
  3381.  21, // 21/32 in-band to broad-band ratio
  3382.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  3383. },
  3384. { // f950_1400[]
  3385. 18294, // A1 = 1.116638
  3386.  -26962, // A2 = -0.822845
  3387.  -2914, // B2 = -0.088936
  3388.  0, // B1 = 0
  3389.  2914, // B0 = 0.088936
  3390.  14119, // A1 = 0.861786
  3391.  -30227, // A2 = -0.922455
  3392.  11466, // B2 = 0.349945
  3393.  -2833, // B1 = -0.172943
  3394.  11466, // B0 = 0.349945
  3395.  23431, // A1 = 1.430115
  3396.  -30828, // A2 = -0.940796
  3397.  25331, // B2 = 0.773071
  3398.  -20911, // B1 = -1.276367
  3399.  25331, // B0 = 0.773071
  3400.  7, // Internal filter scaling
  3401.  159, // Minimum in-band energy threshold
  3402.  21, // 21/32 in-band to broad-band ratio
  3403.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  3404. },
  3405. { // 975.txt
  3406. 23521, // A1 = -1.435608
  3407.  -32489, // A2 = 0.991516
  3408.  -193, // B2 = -0.005915
  3409.  0, // B1 = 0.000000
  3410.  193, // B0 = 0.005915
  3411.  23404, // A1 = -1.428467
  3412.  -32655, // A2 = 0.996582
  3413.  17740, // B2 = 0.541412
  3414.  -12567, // B1 = -0.767029
  3415.  17740, // B0 = 0.541412
  3416.  23753, // A1 = -1.449829
  3417.  -32657, // A2 = 0.996613
  3418.  9090, // B2 = 0.277405
  3419.  -6662, // B1 = -0.406647
  3420.  9090, // B0 = 0.277405
  3421.  5, // Internal filter scaling
  3422.  159, // Minimum in-band energy threshold
  3423.  21, // 21/32 in-band to broad-band ratio
  3424.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  3425. },
  3426. { // 1000.txt
  3427. 23071, // A1 = -1.408203
  3428.  -32489, // A2 = 0.991516
  3429.  -293, // B2 = -0.008965
  3430.  0, // B1 = 0.000000
  3431.  293, // B0 = 0.008965
  3432.  22951, // A1 = -1.400818
  3433.  -32655, // A2 = 0.996582
  3434.  5689, // B2 = 0.173645
  3435.  -3951, // B1 = -0.241150
  3436.  5689, // B0 = 0.173645
  3437.  23307, // A1 = -1.422607
  3438.  -32657, // A2 = 0.996613
  3439.  18692, // B2 = 0.570435
  3440.  -13447, // B1 = -0.820770
  3441.  18692, // B0 = 0.570435
  3442.  5, // Internal filter scaling
  3443.  159, // Minimum in-band energy threshold
  3444.  21, // 21/32 in-band to broad-band ratio
  3445.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  3446. },
  3447. { // 1020.txt
  3448. 22701, // A1 = -1.385620
  3449.  -32474, // A2 = 0.991058
  3450.  -292, // B2 = -0.008933
  3451.  0, //163840      , // B1 = 10.000000
  3452.  292, // B0 = 0.008933
  3453.  22564, // A1 = -1.377258
  3454.  -32655, // A2 = 0.996552
  3455.  20756, // B2 = 0.633423
  3456.  -14176, // B1 = -0.865295
  3457.  20756, // B0 = 0.633423
  3458.  22960, // A1 = -1.401428
  3459.  -32657, // A2 = 0.996613
  3460.  6520, // B2 = 0.198990
  3461.  -4619, // B1 = -0.281937
  3462.  6520, // B0 = 0.198990
  3463.  5, // Internal filter scaling
  3464.  159, // Minimum in-band energy threshold
  3465.  21, // 21/32 in-band to broad-band ratio
  3466.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  3467. },
  3468. { // 1050.txt
  3469. 22142, // A1 = -1.351501
  3470.  -32474, // A2 = 0.991058
  3471.  -147, // B2 = -0.004493
  3472.  0, // B1 = 0.000000
  3473.  147, // B0 = 0.004493
  3474.  22000, // A1 = -1.342834
  3475.  -32655, // A2 = 0.996552
  3476.  15379, // B2 = 0.469360
  3477.  -10237, // B1 = -0.624847
  3478.  15379, // B0 = 0.469360
  3479.  22406, // A1 = -1.367554
  3480.  -32657, // A2 = 0.996613
  3481.  17491, // B2 = 0.533783
  3482.  -12096, // B1 = -0.738312
  3483.  17491, // B0 = 0.533783
  3484.  5, // Internal filter scaling
  3485.  159, // Minimum in-band energy threshold
  3486.  21, // 21/32 in-band to broad-band ratio
  3487.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  3488. },
  3489. { // f1100_1750[]
  3490. 12973, // A1 = 0.79184
  3491.  -24916, // A2 = -0.760376
  3492.  6655, // B2 = 0.203102
  3493.  367, // B1 = 0.0224
  3494.  6657, // B0 = 0.203171
  3495.  5915, // A1 = 0.361053
  3496.  -29560, // A2 = -0.90213
  3497.  -7777, // B2 = -0.23735
  3498.  0, // B1 = 0
  3499.  7777, // B0 = 0.23735
  3500.  20510, // A1 = 1.251892
  3501.  -30260, // A2 = -0.923462
  3502.  26662, // B2 = 0.81366
  3503.  -20573, // B1 = -1.255737
  3504.  26668, // B0 = 0.813843
  3505.  7, // Internal filter scaling
  3506.  159, // Minimum in-band energy threshold
  3507.  21, // 21/32 in-band to broad-band ratio
  3508.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  3509. },
  3510. { // 1140.txt
  3511. 20392, // A1 = -1.244629
  3512.  -32460, // A2 = 0.990601
  3513.  -270, // B2 = -0.008240
  3514.  0, // B1 = 0.000000
  3515.  270, // B0 = 0.008240
  3516.  20218, // A1 = -1.234009
  3517.  -32655, // A2 = 0.996582
  3518.  21337, // B2 = 0.651154
  3519.  -13044, // B1 = -0.796143
  3520.  21337, // B0 = 0.651154
  3521.  20684, // A1 = -1.262512
  3522.  -32657, // A2 = 0.996643
  3523.  8572, // B2 = 0.261612
  3524.  -5476, // B1 = -0.334244
  3525.  8572, // B0 = 0.261612
  3526.  5, // Internal filter scaling
  3527.  159, // Minimum in-band energy threshold
  3528.  21, // 21/32 in-band to broad-band ratio
  3529.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  3530. },
  3531. { // 1200.txt
  3532. 19159, // A1 = -1.169373
  3533.  -32456, // A2 = 0.990509
  3534.  -335, // B2 = -0.010252
  3535.  0, // B1 = 0.000000
  3536.  335, // B0 = 0.010252
  3537.  18966, // A1 = -1.157593
  3538.  -32661, // A2 = 0.996735
  3539.  6802, // B2 = 0.207588
  3540.  -3900, // B1 = -0.238098
  3541.  6802, // B0 = 0.207588
  3542.  19467, // A1 = -1.188232
  3543.  -32661, // A2 = 0.996765
  3544.  25035, // B2 = 0.764008
  3545.  -15049, // B1 = -0.918579
  3546.  25035, // B0 = 0.764008
  3547.  5, // Internal filter scaling
  3548.  159, // Minimum in-band energy threshold
  3549.  21, // 21/32 in-band to broad-band ratio
  3550.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  3551. },
  3552. { // 1209.txt
  3553. 18976, // A1 = -1.158264
  3554.  -32439, // A2 = 0.989990
  3555.  -183, // B2 = -0.005588
  3556.  0, // B1 = 0.000000
  3557.  183, // B0 = 0.005588
  3558.  18774, // A1 = -1.145874
  3559.  -32650, // A2 = 0.996429
  3560.  15468, // B2 = 0.472076
  3561.  -8768, // B1 = -0.535217
  3562.  15468, // B0 = 0.472076
  3563.  19300, // A1 = -1.177979
  3564.  -32652, // A2 = 0.996490
  3565.  19840, // B2 = 0.605499
  3566.  -11842, // B1 = -0.722809
  3567.  19840, // B0 = 0.605499
  3568.  5, // Internal filter scaling
  3569.  159, // Minimum in-band energy threshold
  3570.  21, // 21/32 in-band to broad-band ratio
  3571.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  3572. },
  3573. { // 1330.txt
  3574. 16357, // A1 = -0.998413
  3575.  -32368, // A2 = 0.987793
  3576.  -217, // B2 = -0.006652
  3577.  0, // B1 = 0.000000
  3578.  217, // B0 = 0.006652
  3579.  16107, // A1 = -0.983126
  3580.  -32601, // A2 = 0.994904
  3581.  11602, // B2 = 0.354065
  3582.  -5555, // B1 = -0.339111
  3583.  11602, // B0 = 0.354065
  3584.  16722, // A1 = -1.020630
  3585.  -32603, // A2 = 0.994965
  3586.  15574, // B2 = 0.475311
  3587.  -8176, // B1 = -0.499069
  3588.  15574, // B0 = 0.475311
  3589.  5, // Internal filter scaling
  3590.  159, // Minimum in-band energy threshold
  3591.  21, // 21/32 in-band to broad-band ratio
  3592.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  3593. },
  3594. { // 1336.txt
  3595. 16234, // A1 = -0.990875
  3596.  32404, // A2 = -0.988922
  3597.  -193, // B2 = -0.005908
  3598.  0, // B1 = 0.000000
  3599.  193, // B0 = 0.005908
  3600.  15986, // A1 = -0.975769
  3601.  -32632, // A2 = 0.995880
  3602.  18051, // B2 = 0.550903
  3603.  -8658, // B1 = -0.528473
  3604.  18051, // B0 = 0.550903
  3605.  16591, // A1 = -1.012695
  3606.  -32634, // A2 = 0.995941
  3607.  15736, // B2 = 0.480240
  3608.  -8125, // B1 = -0.495926
  3609.  15736, // B0 = 0.480240
  3610.  5, // Internal filter scaling
  3611.  159, // Minimum in-band energy threshold
  3612.  21, // 21/32 in-band to broad-band ratio
  3613.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  3614. },
  3615. { // 1366.txt
  3616. 15564, // A1 = -0.949982
  3617.  -32404, // A2 = 0.988922
  3618.  -269, // B2 = -0.008216
  3619.  0, // B1 = 0.000000
  3620.  269, // B0 = 0.008216
  3621.  15310, // A1 = -0.934479
  3622.  -32632, // A2 = 0.995880
  3623.  10815, // B2 = 0.330063
  3624.  -4962, // B1 = -0.302887
  3625.  10815, // B0 = 0.330063
  3626.  15924, // A1 = -0.971924
  3627.  -32634, // A2 = 0.995941
  3628.  18880, // B2 = 0.576172
  3629.  -9364, // B1 = -0.571594
  3630.  18880, // B0 = 0.576172
  3631.  5, // Internal filter scaling
  3632.  159, // Minimum in-band energy threshold
  3633.  21, // 21/32 in-band to broad-band ratio
  3634.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  3635. },
  3636. { // 1380.txt
  3637. 15247, // A1 = -0.930603
  3638.  -32397, // A2 = 0.988708
  3639.  -244, // B2 = -0.007451
  3640.  0, // B1 = 0.000000
  3641.  244, // B0 = 0.007451
  3642.  14989, // A1 = -0.914886
  3643.  -32627, // A2 = 0.995697
  3644.  18961, // B2 = 0.578644
  3645.  -8498, // B1 = -0.518707
  3646.  18961, // B0 = 0.578644
  3647.  15608, // A1 = -0.952667
  3648.  -32628, // A2 = 0.995758
  3649.  11145, // B2 = 0.340134
  3650.  -5430, // B1 = -0.331467
  3651.  11145, // B0 = 0.340134
  3652.  5, // Internal filter scaling
  3653.  159, // Minimum in-band energy threshold
  3654.  21, // 21/32 in-band to broad-band ratio
  3655.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  3656. },
  3657. { // 1400.txt
  3658. 14780, // A1 = -0.902130
  3659.  -32393, // A2 = 0.988586
  3660.  -396, // B2 = -0.012086
  3661.  0, // B1 = 0.000000
  3662.  396, // B0 = 0.012086
  3663.  14510, // A1 = -0.885651
  3664.  -32630, // A2 = 0.995819
  3665.  6326, // B2 = 0.193069
  3666.  -2747, // B1 = -0.167671
  3667.  6326, // B0 = 0.193069
  3668.  15154, // A1 = -0.924957
  3669.  -32632, // A2 = 0.995850
  3670.  23235, // B2 = 0.709076
  3671.  -10983, // B1 = -0.670380
  3672.  23235, // B0 = 0.709076
  3673.  5, // Internal filter scaling
  3674.  159, // Minimum in-band energy threshold
  3675.  21, // 21/32 in-band to broad-band ratio
  3676.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  3677. },
  3678. { // 1477.txt
  3679. 13005, // A1 = -0.793793
  3680.  -32368, // A2 = 0.987823
  3681.  -500, // B2 = -0.015265
  3682.  0, // B1 = 0.000000
  3683.  500, // B0 = 0.015265
  3684.  12708, // A1 = -0.775665
  3685.  -32615, // A2 = 0.995331
  3686.  11420, // B2 = 0.348526
  3687.  -4306, // B1 = -0.262833
  3688.  11420, // B0 = 0.348526
  3689.  13397, // A1 = -0.817688
  3690.  -32615, // A2 = 0.995361
  3691.  9454, // B2 = 0.288528
  3692.  -3981, // B1 = -0.243027
  3693.  9454, // B0 = 0.288528
  3694.  5, // Internal filter scaling
  3695.  159, // Minimum in-band energy threshold
  3696.  21, // 21/32 in-band to broad-band ratio
  3697.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  3698. },
  3699. { // 1600.txt
  3700. 10046, // A1 = -0.613190
  3701.  -32331, // A2 = 0.986694
  3702.  -455, // B2 = -0.013915
  3703.  0, // B1 = 0.000000
  3704.  455, // B0 = 0.013915
  3705.  9694, // A1 = -0.591705
  3706.  -32601, // A2 = 0.994934
  3707.  6023, // B2 = 0.183815
  3708.  -1708, // B1 = -0.104279
  3709.  6023, // B0 = 0.183815
  3710.  10478, // A1 = -0.639587
  3711.  -32603, // A2 = 0.994965
  3712.  22031, // B2 = 0.672333
  3713.  -7342, // B1 = -0.448151
  3714.  22031, // B0 = 0.672333
  3715.  5, // Internal filter scaling
  3716.  159, // Minimum in-band energy threshold
  3717.  21, // 21/32 in-band to broad-band ratio
  3718.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  3719. },
  3720. { // f1633_1638[]
  3721. 9181, // A1 = 0.560394
  3722.  -32256, // A2 = -0.984375
  3723.  -556, // B2 = -0.016975
  3724.  0, // B1 = 0
  3725.  556, // B0 = 0.016975
  3726.  8757, // A1 = 0.534515
  3727.  -32574, // A2 = -0.99408
  3728.  8443, // B2 = 0.25769
  3729.  -2135, // B1 = -0.130341
  3730.  8443, // B0 = 0.25769
  3731.  9691, // A1 = 0.591522
  3732.  -32574, // A2 = -0.99411
  3733.  15446, // B2 = 0.471375
  3734.  -4809, // B1 = -0.293579
  3735.  15446, // B0 = 0.471375
  3736.  7, // Internal filter scaling
  3737.  159, // Minimum in-band energy threshold
  3738.  21, // 21/32 in-band to broad-band ratio
  3739.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  3740. },
  3741. { // 1800.txt
  3742. 5076, // A1 = -0.309875
  3743.  -32304, // A2 = 0.985840
  3744.  -508, // B2 = -0.015503
  3745.  0, // B1 = 0.000000
  3746.  508, // B0 = 0.015503
  3747.  4646, // A1 = -0.283600
  3748.  -32605, // A2 = 0.995026
  3749.  6742, // B2 = 0.205780
  3750.  -878, // B1 = -0.053635
  3751.  6742, // B0 = 0.205780
  3752.  5552, // A1 = -0.338928
  3753.  -32605, // A2 = 0.995056
  3754.  23667, // B2 = 0.722260
  3755.  -4297, // B1 = -0.262329
  3756.  23667, // B0 = 0.722260
  3757.  5, // Internal filter scaling
  3758.  159, // Minimum in-band energy threshold
  3759.  21, // 21/32 in-band to broad-band ratio
  3760.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  3761. },
  3762. { // 1860.txt
  3763. 3569, // A1 = -0.217865
  3764.  -32292, // A2 = 0.985504
  3765.  -239, // B2 = -0.007322
  3766.  0, // B1 = 0.000000
  3767.  239, // B0 = 0.007322
  3768.  3117, // A1 = -0.190277
  3769.  -32603, // A2 = 0.994965
  3770.  18658, // B2 = 0.569427
  3771.  -1557, // B1 = -0.095032
  3772.  18658, // B0 = 0.569427
  3773.  4054, // A1 = -0.247437
  3774.  -32603, // A2 = 0.994965
  3775.  18886, // B2 = 0.576385
  3776.  -2566, // B1 = -0.156647
  3777.  18886, // B0 = 0.576385
  3778.  5, // Internal filter scaling
  3779.  159, // Minimum in-band energy threshold
  3780.  21, // 21/32 in-band to broad-band ratio
  3781.  0x0FF5 // shift-mask 0x0FF (look at 16 half-frames) bit count = 5
  3782. },};
  3784. static int ixj_init_filter(int board, IXJ_FILTER * jf)
  3785. {
  3786. unsigned short cmd;
  3787. int cnt, max;
  3788. IXJ *j = &ixj[board];
  3790. if (jf->filter > 3) {
  3791. return -1;
  3792. }
  3793. if (ixj_WriteDSPCommand(0x5154 + jf->filter, board)) // Select Filter
  3795. return -1;
  3797. if (!jf->enable) {
  3798. if (ixj_WriteDSPCommand(0x5152, board)) // Disable Filter
  3800. return -1;
  3801. else
  3802. return 0;
  3803. } else {
  3804. if (ixj_WriteDSPCommand(0x5153, board)) // Enable Filter
  3806. return -1;
  3808. // Select the filter (f0 - f3) to use.
  3809. if (ixj_WriteDSPCommand(0x5154 + jf->filter, board))
  3810. return -1;
  3811. }
  3812. if (jf->freq < 12 && jf->freq > 3) {
  3813. // Select the frequency for the selected filter.
  3814. if (ixj_WriteDSPCommand(0x5170 + jf->freq, board))
  3815. return -1;
  3816. } else if (jf->freq > 11) {
  3817. // We need to load a programmable filter set for undefined
  3818. // frequencies.  So we will point the filter to a programmable set.
  3819. // Since there are only 4 filters and 4 programmable sets, we will
  3820. // just point the filter to the same number set and program it for the
  3821. // frequency we want.
  3822. if (ixj_WriteDSPCommand(0x5170 + jf->filter, board))
  3823. return -1;
  3825. if (j->ver.low != 0x12) {
  3826. cmd = 0x515B;
  3827. max = 19;
  3828. } else {
  3829. cmd = 0x515E;
  3830. max = 15;
  3831. }
  3832. if (ixj_WriteDSPCommand(cmd, board))
  3833. return -1;
  3835. for (cnt = 0; cnt < max; cnt++) {
  3836. if (ixj_WriteDSPCommand(tone_table[jf->freq][cnt], board))
  3837. return -1;
  3838. }
  3839. /*    if(j->ver.low != 0x12)
  3840.    {
  3841.    if(ixj_WriteDSPCommand(7, board))
  3842.    return -1;
  3843.    if(ixj_WriteDSPCommand(159, board))
  3844.    return -1;
  3845.    if(ixj_WriteDSPCommand(21, board))
  3846.    return -1;
  3847.    if(ixj_WriteDSPCommand(0x0FF5, board))
  3848.    return -1;
  3849.    } */
  3850. }
  3851. return 0;
  3852. }
  3854. static int ixj_init_tone(int board, IXJ_TONE * ti)
  3855. {
  3856. int freq0, freq1;
  3857. unsigned short data;
  3859. if (ti->freq0) {
  3860. freq0 = ti->freq0;
  3861. } else {
  3862. freq0 = 0x7FFF;
  3863. }
  3865. if (ti->freq1) {
  3866. freq1 = ti->freq1;
  3867. } else {
  3868. freq1 = 0x7FFF;
  3869. }
  3871. //  if(ti->tone_index > 12 && ti->tone_index < 28)
  3872. {
  3873. if (ixj_WriteDSPCommand(0x6800 + ti->tone_index, board))
  3874. return -1;
  3876. if (ixj_WriteDSPCommand(0x6000 + (ti->gain0 << 4) + ti->gain1, board))
  3877. return -1;
  3879. data = freq0;
  3880. if (ixj_WriteDSPCommand(data, board))
  3881. return -1;
  3883. data = freq1;
  3884. if (ixj_WriteDSPCommand(data, board))
  3885. return -1;
  3886. }
  3887. return freq0;
  3888. }