db1000.c 14 KB

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  1. // SPDX-License-Identifier: GPL-2.0-or-later
  2. /*
  3. * DBAu1000/1500/1100 PBAu1100/1500 board support
  4. *
  5. * Copyright 2000, 2008 MontaVista Software Inc.
  6. * Author: MontaVista Software, Inc. <source@mvista.com>
  7. */
  8. #include <linux/clk.h>
  9. #include <linux/dma-mapping.h>
  10. #include <linux/gpio.h>
  11. #include <linux/gpio/machine.h>
  12. #include <linux/gpio/property.h>
  13. #include <linux/init.h>
  14. #include <linux/interrupt.h>
  15. #include <linux/leds.h>
  16. #include <linux/mmc/host.h>
  17. #include <linux/platform_device.h>
  18. #include <linux/property.h>
  19. #include <linux/pm.h>
  20. #include <linux/spi/spi.h>
  21. #include <linux/spi/spi_gpio.h>
  22. #include <asm/mach-au1x00/au1000.h>
  23. #include <asm/mach-au1x00/gpio-au1000.h>
  24. #include <asm/mach-au1x00/au1000_dma.h>
  25. #include <asm/mach-au1x00/au1100_mmc.h>
  26. #include <asm/mach-db1x00/bcsr.h>
  27. #include <asm/reboot.h>
  28. #include <prom.h>
  29. #include "platform.h"
  30. #define F_SWAPPED (bcsr_read(BCSR_STATUS) & BCSR_STATUS_DB1000_SWAPBOOT)
  31. const char *get_system_type(void);
  32. int __init db1000_board_setup(void)
  33. {
  34. /* initialize board register space */
  35. bcsr_init(DB1000_BCSR_PHYS_ADDR,
  36. DB1000_BCSR_PHYS_ADDR + DB1000_BCSR_HEXLED_OFS);
  37. switch (BCSR_WHOAMI_BOARD(bcsr_read(BCSR_WHOAMI))) {
  38. case BCSR_WHOAMI_DB1000:
  39. case BCSR_WHOAMI_DB1500:
  40. case BCSR_WHOAMI_DB1100:
  41. case BCSR_WHOAMI_PB1500:
  42. case BCSR_WHOAMI_PB1500R2:
  43. case BCSR_WHOAMI_PB1100:
  44. pr_info("AMD Alchemy %s Board\n", get_system_type());
  45. return 0;
  46. }
  47. return -ENODEV;
  48. }
  49. static int db1500_map_pci_irq(const struct pci_dev *d, u8 slot, u8 pin)
  50. {
  51. if ((slot < 12) || (slot > 13) || pin == 0)
  52. return -1;
  53. if (slot == 12)
  54. return (pin == 1) ? AU1500_PCI_INTA : 0xff;
  55. if (slot == 13) {
  56. switch (pin) {
  57. case 1: return AU1500_PCI_INTA;
  58. case 2: return AU1500_PCI_INTB;
  59. case 3: return AU1500_PCI_INTC;
  60. case 4: return AU1500_PCI_INTD;
  61. }
  62. }
  63. return -1;
  64. }
  65. static u64 au1xxx_all_dmamask = DMA_BIT_MASK(32);
  66. static struct resource alchemy_pci_host_res[] = {
  67. [0] = {
  68. .start = AU1500_PCI_PHYS_ADDR,
  69. .end = AU1500_PCI_PHYS_ADDR + 0xfff,
  70. .flags = IORESOURCE_MEM,
  71. },
  72. };
  73. static struct alchemy_pci_platdata db1500_pci_pd = {
  74. .board_map_irq = db1500_map_pci_irq,
  75. };
  76. static struct platform_device db1500_pci_host_dev = {
  77. .dev.platform_data = &db1500_pci_pd,
  78. .name = "alchemy-pci",
  79. .id = 0,
  80. .num_resources = ARRAY_SIZE(alchemy_pci_host_res),
  81. .resource = alchemy_pci_host_res,
  82. };
  83. int __init db1500_pci_setup(void)
  84. {
  85. return platform_device_register(&db1500_pci_host_dev);
  86. }
  87. static struct resource au1100_lcd_resources[] = {
  88. [0] = {
  89. .start = AU1100_LCD_PHYS_ADDR,
  90. .end = AU1100_LCD_PHYS_ADDR + 0x800 - 1,
  91. .flags = IORESOURCE_MEM,
  92. },
  93. [1] = {
  94. .start = AU1100_LCD_INT,
  95. .end = AU1100_LCD_INT,
  96. .flags = IORESOURCE_IRQ,
  97. }
  98. };
  99. static struct platform_device au1100_lcd_device = {
  100. .name = "au1100-lcd",
  101. .id = 0,
  102. .dev = {
  103. .dma_mask = &au1xxx_all_dmamask,
  104. .coherent_dma_mask = DMA_BIT_MASK(32),
  105. },
  106. .num_resources = ARRAY_SIZE(au1100_lcd_resources),
  107. .resource = au1100_lcd_resources,
  108. };
  109. static struct resource alchemy_ac97c_res[] = {
  110. [0] = {
  111. .start = AU1000_AC97_PHYS_ADDR,
  112. .end = AU1000_AC97_PHYS_ADDR + 0xfff,
  113. .flags = IORESOURCE_MEM,
  114. },
  115. [1] = {
  116. .start = DMA_ID_AC97C_TX,
  117. .end = DMA_ID_AC97C_TX,
  118. .flags = IORESOURCE_DMA,
  119. },
  120. [2] = {
  121. .start = DMA_ID_AC97C_RX,
  122. .end = DMA_ID_AC97C_RX,
  123. .flags = IORESOURCE_DMA,
  124. },
  125. };
  126. static struct platform_device alchemy_ac97c_dev = {
  127. .name = "alchemy-ac97c",
  128. .id = -1,
  129. .resource = alchemy_ac97c_res,
  130. .num_resources = ARRAY_SIZE(alchemy_ac97c_res),
  131. };
  132. static struct platform_device alchemy_ac97c_dma_dev = {
  133. .name = "alchemy-pcm-dma",
  134. .id = 0,
  135. };
  136. static struct platform_device db1x00_codec_dev = {
  137. .name = "ac97-codec",
  138. .id = -1,
  139. };
  140. static struct platform_device db1x00_audio_dev = {
  141. .name = "db1000-audio",
  142. .dev = {
  143. .dma_mask = &au1xxx_all_dmamask,
  144. .coherent_dma_mask = DMA_BIT_MASK(32),
  145. },
  146. };
  147. /******************************************************************************/
  148. #ifdef CONFIG_MMC_AU1X
  149. static irqreturn_t db1100_mmc_cd(int irq, void *ptr)
  150. {
  151. mmc_detect_change(ptr, msecs_to_jiffies(500));
  152. return IRQ_HANDLED;
  153. }
  154. static int db1100_mmc_cd_setup(void *mmc_host, int en)
  155. {
  156. int ret = 0, irq;
  157. if (BCSR_WHOAMI_BOARD(bcsr_read(BCSR_WHOAMI)) == BCSR_WHOAMI_DB1100)
  158. irq = AU1100_GPIO19_INT;
  159. else
  160. irq = AU1100_GPIO14_INT; /* PB1100 SD0 CD# */
  161. if (en) {
  162. irq_set_irq_type(irq, IRQ_TYPE_EDGE_BOTH);
  163. ret = request_irq(irq, db1100_mmc_cd, 0,
  164. "sd0_cd", mmc_host);
  165. } else
  166. free_irq(irq, mmc_host);
  167. return ret;
  168. }
  169. static int db1100_mmc1_cd_setup(void *mmc_host, int en)
  170. {
  171. int ret = 0, irq;
  172. if (BCSR_WHOAMI_BOARD(bcsr_read(BCSR_WHOAMI)) == BCSR_WHOAMI_DB1100)
  173. irq = AU1100_GPIO20_INT;
  174. else
  175. irq = AU1100_GPIO15_INT; /* PB1100 SD1 CD# */
  176. if (en) {
  177. irq_set_irq_type(irq, IRQ_TYPE_EDGE_BOTH);
  178. ret = request_irq(irq, db1100_mmc_cd, 0,
  179. "sd1_cd", mmc_host);
  180. } else
  181. free_irq(irq, mmc_host);
  182. return ret;
  183. }
  184. static int db1100_mmc_card_readonly(void *mmc_host)
  185. {
  186. /* testing suggests that this bit is inverted */
  187. return (bcsr_read(BCSR_STATUS) & BCSR_STATUS_SD0WP) ? 0 : 1;
  188. }
  189. static int db1100_mmc_card_inserted(void *mmc_host)
  190. {
  191. return !alchemy_gpio_get_value(19);
  192. }
  193. static void db1100_mmc_set_power(void *mmc_host, int state)
  194. {
  195. int bit;
  196. if (BCSR_WHOAMI_BOARD(bcsr_read(BCSR_WHOAMI)) == BCSR_WHOAMI_DB1100)
  197. bit = BCSR_BOARD_SD0PWR;
  198. else
  199. bit = BCSR_BOARD_PB1100_SD0PWR;
  200. if (state) {
  201. bcsr_mod(BCSR_BOARD, 0, bit);
  202. msleep(400); /* stabilization time */
  203. } else
  204. bcsr_mod(BCSR_BOARD, bit, 0);
  205. }
  206. static void db1100_mmcled_set(struct led_classdev *led, enum led_brightness b)
  207. {
  208. if (b != LED_OFF)
  209. bcsr_mod(BCSR_LEDS, BCSR_LEDS_LED0, 0);
  210. else
  211. bcsr_mod(BCSR_LEDS, 0, BCSR_LEDS_LED0);
  212. }
  213. static struct led_classdev db1100_mmc_led = {
  214. .brightness_set = db1100_mmcled_set,
  215. };
  216. static int db1100_mmc1_card_readonly(void *mmc_host)
  217. {
  218. return (bcsr_read(BCSR_BOARD) & BCSR_BOARD_SD1WP) ? 1 : 0;
  219. }
  220. static int db1100_mmc1_card_inserted(void *mmc_host)
  221. {
  222. return !alchemy_gpio_get_value(20);
  223. }
  224. static void db1100_mmc1_set_power(void *mmc_host, int state)
  225. {
  226. int bit;
  227. if (BCSR_WHOAMI_BOARD(bcsr_read(BCSR_WHOAMI)) == BCSR_WHOAMI_DB1100)
  228. bit = BCSR_BOARD_SD1PWR;
  229. else
  230. bit = BCSR_BOARD_PB1100_SD1PWR;
  231. if (state) {
  232. bcsr_mod(BCSR_BOARD, 0, bit);
  233. msleep(400); /* stabilization time */
  234. } else
  235. bcsr_mod(BCSR_BOARD, bit, 0);
  236. }
  237. static void db1100_mmc1led_set(struct led_classdev *led, enum led_brightness b)
  238. {
  239. if (b != LED_OFF)
  240. bcsr_mod(BCSR_LEDS, BCSR_LEDS_LED1, 0);
  241. else
  242. bcsr_mod(BCSR_LEDS, 0, BCSR_LEDS_LED1);
  243. }
  244. static struct led_classdev db1100_mmc1_led = {
  245. .brightness_set = db1100_mmc1led_set,
  246. };
  247. static struct au1xmmc_platform_data db1100_mmc_platdata[2] = {
  248. [0] = {
  249. .cd_setup = db1100_mmc_cd_setup,
  250. .set_power = db1100_mmc_set_power,
  251. .card_inserted = db1100_mmc_card_inserted,
  252. .card_readonly = db1100_mmc_card_readonly,
  253. .led = &db1100_mmc_led,
  254. },
  255. [1] = {
  256. .cd_setup = db1100_mmc1_cd_setup,
  257. .set_power = db1100_mmc1_set_power,
  258. .card_inserted = db1100_mmc1_card_inserted,
  259. .card_readonly = db1100_mmc1_card_readonly,
  260. .led = &db1100_mmc1_led,
  261. },
  262. };
  263. static struct resource au1100_mmc0_resources[] = {
  264. [0] = {
  265. .start = AU1100_SD0_PHYS_ADDR,
  266. .end = AU1100_SD0_PHYS_ADDR + 0xfff,
  267. .flags = IORESOURCE_MEM,
  268. },
  269. [1] = {
  270. .start = AU1100_SD_INT,
  271. .end = AU1100_SD_INT,
  272. .flags = IORESOURCE_IRQ,
  273. },
  274. [2] = {
  275. .start = DMA_ID_SD0_TX,
  276. .end = DMA_ID_SD0_TX,
  277. .flags = IORESOURCE_DMA,
  278. },
  279. [3] = {
  280. .start = DMA_ID_SD0_RX,
  281. .end = DMA_ID_SD0_RX,
  282. .flags = IORESOURCE_DMA,
  283. }
  284. };
  285. static struct platform_device db1100_mmc0_dev = {
  286. .name = "au1xxx-mmc",
  287. .id = 0,
  288. .dev = {
  289. .dma_mask = &au1xxx_all_dmamask,
  290. .coherent_dma_mask = DMA_BIT_MASK(32),
  291. .platform_data = &db1100_mmc_platdata[0],
  292. },
  293. .num_resources = ARRAY_SIZE(au1100_mmc0_resources),
  294. .resource = au1100_mmc0_resources,
  295. };
  296. static struct resource au1100_mmc1_res[] = {
  297. [0] = {
  298. .start = AU1100_SD1_PHYS_ADDR,
  299. .end = AU1100_SD1_PHYS_ADDR + 0xfff,
  300. .flags = IORESOURCE_MEM,
  301. },
  302. [1] = {
  303. .start = AU1100_SD_INT,
  304. .end = AU1100_SD_INT,
  305. .flags = IORESOURCE_IRQ,
  306. },
  307. [2] = {
  308. .start = DMA_ID_SD1_TX,
  309. .end = DMA_ID_SD1_TX,
  310. .flags = IORESOURCE_DMA,
  311. },
  312. [3] = {
  313. .start = DMA_ID_SD1_RX,
  314. .end = DMA_ID_SD1_RX,
  315. .flags = IORESOURCE_DMA,
  316. }
  317. };
  318. static struct platform_device db1100_mmc1_dev = {
  319. .name = "au1xxx-mmc",
  320. .id = 1,
  321. .dev = {
  322. .dma_mask = &au1xxx_all_dmamask,
  323. .coherent_dma_mask = DMA_BIT_MASK(32),
  324. .platform_data = &db1100_mmc_platdata[1],
  325. },
  326. .num_resources = ARRAY_SIZE(au1100_mmc1_res),
  327. .resource = au1100_mmc1_res,
  328. };
  329. #endif /* CONFIG_MMC_AU1X */
  330. /******************************************************************************/
  331. static const struct software_node db1100_alchemy2_gpiochip = {
  332. .name = "alchemy-gpio2",
  333. };
  334. static const struct property_entry db1100_ads7846_properties[] = {
  335. PROPERTY_ENTRY_U16("ti,vref_min", 3300),
  336. PROPERTY_ENTRY_GPIO("pendown-gpios",
  337. &db1100_alchemy2_gpiochip, 21, GPIO_ACTIVE_LOW),
  338. { }
  339. };
  340. static const struct software_node db1100_ads7846_swnode = {
  341. .name = "ads7846",
  342. .properties = db1100_ads7846_properties,
  343. };
  344. static struct spi_board_info db1100_spi_info[] __initdata = {
  345. [0] = {
  346. .modalias = "ads7846",
  347. .max_speed_hz = 3250000,
  348. .bus_num = 0,
  349. .chip_select = 0,
  350. .mode = 0,
  351. .irq = AU1100_GPIO21_INT,
  352. .swnode = &db1100_ads7846_swnode,
  353. },
  354. };
  355. static const struct spi_gpio_platform_data db1100_spictl_pd __initconst = {
  356. .num_chipselect = 1,
  357. };
  358. /*
  359. * Alchemy GPIO 2 has its base at 200 so the GPIO lines
  360. * 207 thru 210 are GPIOs at offset 7 thru 10 at this chip.
  361. */
  362. static const struct property_entry db1100_spi_dev_properties[] __initconst = {
  363. PROPERTY_ENTRY_GPIO("miso-gpios",
  364. &db1100_alchemy2_gpiochip, 7, GPIO_ACTIVE_HIGH),
  365. PROPERTY_ENTRY_GPIO("mosi-gpios",
  366. &db1100_alchemy2_gpiochip, 8, GPIO_ACTIVE_HIGH),
  367. PROPERTY_ENTRY_GPIO("sck-gpios",
  368. &db1100_alchemy2_gpiochip, 9, GPIO_ACTIVE_HIGH),
  369. PROPERTY_ENTRY_GPIO("cs-gpios",
  370. &db1100_alchemy2_gpiochip, 10, GPIO_ACTIVE_HIGH),
  371. { }
  372. };
  373. static const struct platform_device_info db1100_spi_dev_info __initconst = {
  374. .name = "spi_gpio",
  375. .id = 0,
  376. .data = &db1100_spictl_pd,
  377. .size_data = sizeof(db1100_spictl_pd),
  378. .dma_mask = DMA_BIT_MASK(32),
  379. .properties = db1100_spi_dev_properties,
  380. };
  381. static struct platform_device *db1x00_devs[] = {
  382. &db1x00_codec_dev,
  383. &alchemy_ac97c_dma_dev,
  384. &alchemy_ac97c_dev,
  385. &db1x00_audio_dev,
  386. };
  387. static struct platform_device *db1100_devs[] = {
  388. &au1100_lcd_device,
  389. #ifdef CONFIG_MMC_AU1X
  390. &db1100_mmc0_dev,
  391. &db1100_mmc1_dev,
  392. #endif
  393. };
  394. int __init db1000_dev_setup(void)
  395. {
  396. int board = BCSR_WHOAMI_BOARD(bcsr_read(BCSR_WHOAMI));
  397. int c0, c1, d0, d1, s0, s1, flashsize = 32, twosocks = 1;
  398. int err;
  399. unsigned long pfc;
  400. struct clk *c, *p;
  401. struct platform_device *spi_dev;
  402. if (board == BCSR_WHOAMI_DB1500) {
  403. c0 = AU1500_GPIO2_INT;
  404. c1 = AU1500_GPIO5_INT;
  405. d0 = 0; /* GPIO number, NOT irq! */
  406. d1 = 3; /* GPIO number, NOT irq! */
  407. s0 = AU1500_GPIO1_INT;
  408. s1 = AU1500_GPIO4_INT;
  409. } else if (board == BCSR_WHOAMI_DB1100) {
  410. c0 = AU1100_GPIO2_INT;
  411. c1 = AU1100_GPIO5_INT;
  412. d0 = 0; /* GPIO number, NOT irq! */
  413. d1 = 3; /* GPIO number, NOT irq! */
  414. s0 = AU1100_GPIO1_INT;
  415. s1 = AU1100_GPIO4_INT;
  416. gpio_request(19, "sd0_cd");
  417. gpio_request(20, "sd1_cd");
  418. gpio_direction_input(19); /* sd0 cd# */
  419. gpio_direction_input(20); /* sd1 cd# */
  420. /* spi_gpio on SSI0 pins */
  421. pfc = alchemy_rdsys(AU1000_SYS_PINFUNC);
  422. pfc |= (1 << 0); /* SSI0 pins as GPIOs */
  423. alchemy_wrsys(pfc, AU1000_SYS_PINFUNC);
  424. software_node_register(&db1100_alchemy2_gpiochip);
  425. spi_register_board_info(db1100_spi_info,
  426. ARRAY_SIZE(db1100_spi_info));
  427. /* link LCD clock to AUXPLL */
  428. p = clk_get(NULL, "auxpll_clk");
  429. c = clk_get(NULL, "lcd_intclk");
  430. if (!IS_ERR(c) && !IS_ERR(p)) {
  431. clk_set_parent(c, p);
  432. clk_set_rate(c, clk_get_rate(p));
  433. }
  434. if (!IS_ERR(c))
  435. clk_put(c);
  436. if (!IS_ERR(p))
  437. clk_put(p);
  438. platform_add_devices(db1100_devs, ARRAY_SIZE(db1100_devs));
  439. spi_dev = platform_device_register_full(&db1100_spi_dev_info);
  440. err = PTR_ERR_OR_ZERO(spi_dev);
  441. if (err)
  442. pr_err("failed to register SPI controller: %d\n", err);
  443. } else if (board == BCSR_WHOAMI_DB1000) {
  444. c0 = AU1000_GPIO2_INT;
  445. c1 = AU1000_GPIO5_INT;
  446. d0 = 0; /* GPIO number, NOT irq! */
  447. d1 = 3; /* GPIO number, NOT irq! */
  448. s0 = AU1000_GPIO1_INT;
  449. s1 = AU1000_GPIO4_INT;
  450. } else if ((board == BCSR_WHOAMI_PB1500) ||
  451. (board == BCSR_WHOAMI_PB1500R2)) {
  452. c0 = AU1500_GPIO203_INT;
  453. d0 = 1; /* GPIO number, NOT irq! */
  454. s0 = AU1500_GPIO202_INT;
  455. twosocks = 0;
  456. flashsize = 64;
  457. /* RTC and daughtercard irqs */
  458. irq_set_irq_type(AU1500_GPIO204_INT, IRQ_TYPE_LEVEL_LOW);
  459. irq_set_irq_type(AU1500_GPIO205_INT, IRQ_TYPE_LEVEL_LOW);
  460. /* EPSON S1D13806 0x1b000000
  461. * SRAM 1MB/2MB 0x1a000000
  462. * DS1693 RTC 0x0c000000
  463. */
  464. } else if (board == BCSR_WHOAMI_PB1100) {
  465. c0 = AU1100_GPIO11_INT;
  466. d0 = 9; /* GPIO number, NOT irq! */
  467. s0 = AU1100_GPIO10_INT;
  468. twosocks = 0;
  469. flashsize = 64;
  470. /* pendown, rtc, daughtercard irqs */
  471. irq_set_irq_type(AU1100_GPIO8_INT, IRQ_TYPE_LEVEL_LOW);
  472. irq_set_irq_type(AU1100_GPIO12_INT, IRQ_TYPE_LEVEL_LOW);
  473. irq_set_irq_type(AU1100_GPIO13_INT, IRQ_TYPE_LEVEL_LOW);
  474. /* EPSON S1D13806 0x1b000000
  475. * SRAM 1MB/2MB 0x1a000000
  476. * DiskOnChip 0x0d000000
  477. * DS1693 RTC 0x0c000000
  478. */
  479. platform_add_devices(db1100_devs, ARRAY_SIZE(db1100_devs));
  480. } else
  481. return 0; /* unknown board, no further dev setup to do */
  482. irq_set_irq_type(c0, IRQ_TYPE_LEVEL_LOW);
  483. irq_set_irq_type(s0, IRQ_TYPE_LEVEL_LOW);
  484. db1x_register_pcmcia_socket(
  485. AU1000_PCMCIA_ATTR_PHYS_ADDR,
  486. AU1000_PCMCIA_ATTR_PHYS_ADDR + 0x000400000 - 1,
  487. AU1000_PCMCIA_MEM_PHYS_ADDR,
  488. AU1000_PCMCIA_MEM_PHYS_ADDR + 0x000400000 - 1,
  489. AU1000_PCMCIA_IO_PHYS_ADDR,
  490. AU1000_PCMCIA_IO_PHYS_ADDR + 0x000010000 - 1,
  491. c0, d0, /*s0*/0, 0, 0);
  492. if (twosocks) {
  493. irq_set_irq_type(c1, IRQ_TYPE_LEVEL_LOW);
  494. irq_set_irq_type(s1, IRQ_TYPE_LEVEL_LOW);
  495. db1x_register_pcmcia_socket(
  496. AU1000_PCMCIA_ATTR_PHYS_ADDR + 0x004000000,
  497. AU1000_PCMCIA_ATTR_PHYS_ADDR + 0x004400000 - 1,
  498. AU1000_PCMCIA_MEM_PHYS_ADDR + 0x004000000,
  499. AU1000_PCMCIA_MEM_PHYS_ADDR + 0x004400000 - 1,
  500. AU1000_PCMCIA_IO_PHYS_ADDR + 0x004000000,
  501. AU1000_PCMCIA_IO_PHYS_ADDR + 0x004010000 - 1,
  502. c1, d1, /*s1*/0, 0, 1);
  503. }
  504. platform_add_devices(db1x00_devs, ARRAY_SIZE(db1x00_devs));
  505. db1x_register_norflash(flashsize << 20, 4 /* 32bit */, F_SWAPPED);
  506. return 0;
  507. }