/* Copyright (c) 2008-2009, Code Aurora Forum. All rights reserved. * * This program is free software; you can redistribute it and/or modify * it under the terms of the GNU General Public License version 2 and * only version 2 as published by the Free Software Foundation. * * This program is distributed in the hope that it will be useful, * but WITHOUT ANY WARRANTY; without even the implied warranty of * MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the * GNU General Public License for more details. * * You should have received a copy of the GNU General Public License * along with this program; if not, write to the Free Software * Foundation, Inc., 51 Franklin Street, Fifth Floor, Boston, MA * 02110-1301, USA. */ #include "msm_fb.h" #include "mddihost.h" #include "mddihosti.h" #define SHARP_QVGA_PRIM 1 #define SHARP_128X128_SECD 2 extern uint32 mddi_host_core_version; static boolean mddi_debug_prim_wait = FALSE; static boolean mddi_sharp_vsync_wake = TRUE; static boolean mddi_sharp_monitor_refresh_value = TRUE; static boolean mddi_sharp_report_refresh_measurements = FALSE; static uint32 mddi_sharp_rows_per_second = 13830; /* 5200000/376 */ static uint32 mddi_sharp_rows_per_refresh = 338; static uint32 mddi_sharp_usecs_per_refresh = 24440; /* (376+338)/5200000 */ static boolean mddi_sharp_debug_60hz_refresh = FALSE; extern mddi_gpio_info_type mddi_gpio; extern boolean mddi_vsync_detect_enabled; static msm_fb_vsync_handler_type mddi_sharp_vsync_handler; static void *mddi_sharp_vsync_handler_arg; static uint16 mddi_sharp_vsync_attempts; static void mddi_sharp_prim_lcd_init(void); static void mddi_sharp_sub_lcd_init(void); static void mddi_sharp_lcd_set_backlight(struct msm_fb_data_type *mfd); static void mddi_sharp_vsync_set_handler(msm_fb_vsync_handler_type handler, void *); static void mddi_sharp_lcd_vsync_detected(boolean detected); static struct msm_panel_common_pdata *mddi_sharp_pdata; #define REG_SYSCTL 0x0000 #define REG_INTR 0x0006 #define REG_CLKCNF 0x000C #define REG_CLKDIV1 0x000E #define REG_CLKDIV2 0x0010 #define REG_GIOD 0x0040 #define REG_GIOA 0x0042 #define REG_AGM 0x010A #define REG_FLFT 0x0110 #define REG_FRGT 0x0112 #define REG_FTOP 0x0114 #define REG_FBTM 0x0116 #define REG_FSTRX 0x0118 #define REG_FSTRY 0x011A #define REG_VRAM 0x0202 #define REG_SSDCTL 0x0330 #define REG_SSD0 0x0332 #define REG_PSTCTL1 0x0400 #define REG_PSTCTL2 0x0402 #define REG_PTGCTL 0x042A #define REG_PTHP 0x042C #define REG_PTHB 0x042E #define REG_PTHW 0x0430 #define REG_PTHF 0x0432 #define REG_PTVP 0x0434 #define REG_PTVB 0x0436 #define REG_PTVW 0x0438 #define REG_PTVF 0x043A #define REG_VBLKS 0x0458 #define REG_VBLKE 0x045A #define REG_SUBCTL 0x0700 #define REG_SUBTCMD 0x0702 #define REG_SUBTCMDD 0x0704 #define REG_REVBYTE 0x0A02 #define REG_REVCNT 0x0A04 #define REG_REVATTR 0x0A06 #define REG_REVFMT 0x0A08 #define SHARP_SUB_UNKNOWN 0xffffffff #define SHARP_SUB_HYNIX 1 #define SHARP_SUB_ROHM 2 static uint32 sharp_subpanel_type = SHARP_SUB_UNKNOWN; static void sub_through_write(int sub_rs, uint32 sub_data) { mddi_queue_register_write(REG_SUBTCMDD, sub_data, FALSE, 0); /* CS=1,RD=1,WE=1,RS=sub_rs */ mddi_queue_register_write(REG_SUBTCMD, 0x000e | sub_rs, FALSE, 0); /* CS=0,RD=1,WE=1,RS=sub_rs */ mddi_queue_register_write(REG_SUBTCMD, 0x0006 | sub_rs, FALSE, 0); /* CS=0,RD=1,WE=0,RS=sub_rs */ mddi_queue_register_write(REG_SUBTCMD, 0x0004 | sub_rs, FALSE, 0); /* CS=0,RD=1,WE=1,RS=sub_rs */ mddi_queue_register_write(REG_SUBTCMD, 0x0006 | sub_rs, FALSE, 0); /* CS=1,RD=1,WE=1,RS=sub_rs */ mddi_queue_register_write(REG_SUBTCMD, 0x000e | sub_rs, TRUE, 0); } static uint32 sub_through_read(int sub_rs) { uint32 sub_data; /* CS=1,RD=1,WE=1,RS=sub_rs */ mddi_queue_register_write(REG_SUBTCMD, 0x000e | sub_rs, FALSE, 0); /* CS=0,RD=1,WE=1,RS=sub_rs */ mddi_queue_register_write(REG_SUBTCMD, 0x0006 | sub_rs, FALSE, 0); /* CS=0,RD=1,WE=0,RS=sub_rs */ mddi_queue_register_write(REG_SUBTCMD, 0x0002 | sub_rs, TRUE, 0); mddi_queue_register_read(REG_SUBTCMDD, &sub_data, TRUE, 0); /* CS=0,RD=1,WE=1,RS=sub_rs */ mddi_queue_register_write(REG_SUBTCMD, 0x0006 | sub_rs, FALSE, 0); /* CS=1,RD=1,WE=1,RS=sub_rs */ mddi_queue_register_write(REG_SUBTCMD, 0x000e | sub_rs, TRUE, 0); return sub_data; } static void serigo(uint32 ssd) { uint32 ssdctl; mddi_queue_register_read(REG_SSDCTL, &ssdctl, TRUE, 0); ssdctl = ((ssdctl & 0xE7) | 0x02); mddi_queue_register_write(REG_SSD0, ssd, FALSE, 0); mddi_queue_register_write(REG_SSDCTL, ssdctl, TRUE, 0); do { mddi_queue_register_read(REG_SSDCTL, &ssdctl, TRUE, 0); } while ((ssdctl & 0x0002) != 0); if (mddi_debug_prim_wait) mddi_wait(2); } static void mddi_sharp_lcd_powerdown(void) { serigo(0x0131); serigo(0x0300); mddi_wait(40); serigo(0x0135); mddi_wait(20); serigo(0x2122); mddi_wait(20); serigo(0x0201); mddi_wait(20); serigo(0x2100); mddi_wait(20); serigo(0x2000); mddi_wait(20); mddi_queue_register_write(REG_PSTCTL1, 0x1, TRUE, 0); mddi_wait(100); mddi_queue_register_write(REG_PSTCTL1, 0x0, TRUE, 0); mddi_wait(2); mddi_queue_register_write(REG_SYSCTL, 0x1, TRUE, 0); mddi_wait(2); mddi_queue_register_write(REG_CLKDIV1, 0x3, TRUE, 0); mddi_wait(2); mddi_queue_register_write(REG_SSDCTL, 0x0000, TRUE, 0); /* SSDRESET */ mddi_queue_register_write(REG_SYSCTL, 0x0, TRUE, 0); mddi_wait(2); } static void mddi_sharp_lcd_set_backlight(struct msm_fb_data_type *mfd) { uint32 regdata; int32 level; int max = mfd->panel_info.bl_max; int min = mfd->panel_info.bl_min; if (mddi_sharp_pdata && mddi_sharp_pdata->backlight_level) { level = mddi_sharp_pdata->backlight_level(mfd->bl_level, max, min); if (level < 0) return; /* use Rodem GPIO(2:0) to give 8 levels of backlight (7-0) */ /* Set lower 3 GPIOs as Outputs (set to 0) */ mddi_queue_register_read(REG_GIOA, ®data, TRUE, 0); mddi_queue_register_write(REG_GIOA, regdata & 0xfff8, TRUE, 0); /* Set lower 3 GPIOs as level */ mddi_queue_register_read(REG_GIOD, ®data, TRUE, 0); mddi_queue_register_write(REG_GIOD, (regdata & 0xfff8) | (0x07 & level), TRUE, 0); } } static void mddi_sharp_prim_lcd_init(void) { mddi_queue_register_write(REG_SYSCTL, 0x4000, TRUE, 0); mddi_wait(1); mddi_queue_register_write(REG_SYSCTL, 0x0000, TRUE, 0); mddi_wait(5); mddi_queue_register_write(REG_SYSCTL, 0x0001, FALSE, 0); mddi_queue_register_write(REG_CLKDIV1, 0x000b, FALSE, 0); /* new reg write below */ if (mddi_sharp_debug_60hz_refresh) mddi_queue_register_write(REG_CLKCNF, 0x070d, FALSE, 0); else mddi_queue_register_write(REG_CLKCNF, 0x0708, FALSE, 0); mddi_queue_register_write(REG_SYSCTL, 0x0201, FALSE, 0); mddi_queue_register_write(REG_PTGCTL, 0x0010, FALSE, 0); mddi_queue_register_write(REG_PTHP, 4, FALSE, 0); mddi_queue_register_write(REG_PTHB, 40, FALSE, 0); mddi_queue_register_write(REG_PTHW, 240, FALSE, 0); if (mddi_sharp_debug_60hz_refresh) mddi_queue_register_write(REG_PTHF, 12, FALSE, 0); else mddi_queue_register_write(REG_PTHF, 92, FALSE, 0); mddi_wait(1); mddi_queue_register_write(REG_PTVP, 1, FALSE, 0); mddi_queue_register_write(REG_PTVB, 2, FALSE, 0); mddi_queue_register_write(REG_PTVW, 320, FALSE, 0); mddi_queue_register_write(REG_PTVF, 15, FALSE, 0); mddi_wait(1); /* vram_color set REG_AGM???? */ mddi_queue_register_write(REG_AGM, 0x0000, TRUE, 0); mddi_queue_register_write(REG_SSDCTL, 0x0000, FALSE, 0); mddi_queue_register_write(REG_SSDCTL, 0x0001, TRUE, 0); mddi_wait(1); mddi_queue_register_write(REG_PSTCTL1, 0x0001, TRUE, 0); mddi_wait(10); serigo(0x0701); /* software reset */ mddi_wait(1); /* Wait over 50us */ serigo(0x0400); /* DCLK~ACHSYNC~ACVSYNC polarity setting */ serigo(0x2900); /* EEPROM start read address setting */ serigo(0x2606); /* EEPROM start read register setting */ mddi_wait(20); /* Wait over 20ms */ serigo(0x0503); /* Horizontal timing setting */ serigo(0x062C); /* Veritical timing setting */ serigo(0x2001); /* power initialize setting(VDC2) */ mddi_wait(20); /* Wait over 20ms */ serigo(0x2120); /* Initialize power setting(CPS) */ mddi_wait(20); /* Wait over 20ms */ serigo(0x2130); /* Initialize power setting(CPS) */ mddi_wait(20); /* Wait over 20ms */ serigo(0x2132); /* Initialize power setting(CPS) */ mddi_wait(10); /* Wait over 10ms */ serigo(0x2133); /* Initialize power setting(CPS) */ mddi_wait(20); /* Wait over 20ms */ serigo(0x0200); /* Panel initialize release(INIT) */ mddi_wait(1); /* Wait over 1ms */ serigo(0x0131); /* Panel setting(CPS) */ mddi_wait(1); /* Wait over 1ms */ mddi_queue_register_write(REG_PSTCTL1, 0x0003, TRUE, 0); /* if (FFA LCD is upside down) -> serigo(0x0100); */ serigo(0x0130); /* Black mask release(display ON) */ mddi_wait(1); /* Wait over 1ms */ if (mddi_sharp_vsync_wake) { mddi_queue_register_write(REG_VBLKS, 0x1001, TRUE, 0); mddi_queue_register_write(REG_VBLKE, 0x1002, TRUE, 0); } /* Set the MDP pixel data attributes for Primary Display */ mddi_host_write_pix_attr_reg(0x00C3); return; } void mddi_sharp_sub_lcd_init(void) { mddi_queue_register_write(REG_SYSCTL, 0x4000, FALSE, 0); mddi_queue_register_write(REG_SYSCTL, 0x0000, TRUE, 0); mddi_wait(100); mddi_queue_register_write(REG_SYSCTL, 0x0001, FALSE, 0); mddi_queue_register_write(REG_CLKDIV1, 0x000b, FALSE, 0); mddi_queue_register_write(REG_CLKCNF, 0x0708, FALSE, 0); mddi_queue_register_write(REG_SYSCTL, 0x0201, FALSE, 0); mddi_queue_register_write(REG_PTGCTL, 0x0010, FALSE, 0); mddi_queue_register_write(REG_PTHP, 4, FALSE, 0); mddi_queue_register_write(REG_PTHB, 40, FALSE, 0); mddi_queue_register_write(REG_PTHW, 128, FALSE, 0); mddi_queue_register_write(REG_PTHF, 92, FALSE, 0); mddi_queue_register_write(REG_PTVP, 1, FALSE, 0); mddi_queue_register_write(REG_PTVB, 2, FALSE, 0); mddi_queue_register_write(REG_PTVW, 128, FALSE, 0); mddi_queue_register_write(REG_PTVF, 15, FALSE, 0); /* Now the sub display..... */ /* Reset High */ mddi_queue_register_write(REG_SUBCTL, 0x0200, FALSE, 0); /* CS=1,RD=1,WE=1,RS=1 */ mddi_queue_register_write(REG_SUBTCMD, 0x000f, TRUE, 0); mddi_wait(1); /* Wait 5us */ if (sharp_subpanel_type == SHARP_SUB_UNKNOWN) { uint32 data; sub_through_write(1, 0x05); sub_through_write(1, 0x6A); sub_through_write(1, 0x1D); sub_through_write(1, 0x05); data = sub_through_read(1); if (data == 0x6A) { sharp_subpanel_type = SHARP_SUB_HYNIX; } else { sub_through_write(0, 0x36); sub_through_write(1, 0xA8); sub_through_write(0, 0x09); data = sub_through_read(1); data = sub_through_read(1); if (data == 0x54) { sub_through_write(0, 0x36); sub_through_write(1, 0x00); sharp_subpanel_type = SHARP_SUB_ROHM; } } } if (sharp_subpanel_type == SHARP_SUB_HYNIX) { sub_through_write(1, 0x00); /* Display setting 1 */ sub_through_write(1, 0x04); sub_through_write(1, 0x01); sub_through_write(1, 0x05); sub_through_write(1, 0x0280); sub_through_write(1, 0x0301); sub_through_write(1, 0x0402); sub_through_write(1, 0x0500); sub_through_write(1, 0x0681); sub_through_write(1, 0x077F); sub_through_write(1, 0x08C0); sub_through_write(1, 0x0905); sub_through_write(1, 0x0A02); sub_through_write(1, 0x0B00); sub_through_write(1, 0x0C00); sub_through_write(1, 0x0D00); sub_through_write(1, 0x0E00); sub_through_write(1, 0x0F00); sub_through_write(1, 0x100B); /* Display setting 2 */ sub_through_write(1, 0x1103); sub_through_write(1, 0x1237); sub_through_write(1, 0x1300); sub_through_write(1, 0x1400); sub_through_write(1, 0x1500); sub_through_write(1, 0x1605); sub_through_write(1, 0x1700); sub_through_write(1, 0x1800); sub_through_write(1, 0x192E); sub_through_write(1, 0x1A00); sub_through_write(1, 0x1B00); sub_through_write(1, 0x1C00); sub_through_write(1, 0x151A); /* Power setting */ sub_through_write(1, 0x2002); /* Gradation Palette setting */ sub_through_write(1, 0x2107); sub_through_write(1, 0x220C); sub_through_write(1, 0x2310); sub_through_write(1, 0x2414); sub_through_write(1, 0x2518); sub_through_write(1, 0x261C); sub_through_write(1, 0x2720); sub_through_write(1, 0x2824); sub_through_write(1, 0x2928); sub_through_write(1, 0x2A2B); sub_through_write(1, 0x2B2E); sub_through_write(1, 0x2C31); sub_through_write(1, 0x2D34); sub_through_write(1, 0x2E37); sub_through_write(1, 0x2F3A); sub_through_write(1, 0x303C); sub_through_write(1, 0x313E); sub_through_write(1, 0x323F); sub_through_write(1, 0x3340); sub_through_write(1, 0x3441); sub_through_write(1, 0x3543); sub_through_write(1, 0x3646); sub_through_write(1, 0x3749); sub_through_write(1, 0x384C); sub_through_write(1, 0x394F); sub_through_write(1, 0x3A52); sub_through_write(1, 0x3B59); sub_through_write(1, 0x3C60); sub_through_write(1, 0x3D67); sub_through_write(1, 0x3E6E); sub_through_write(1, 0x3F7F); sub_through_write(1, 0x4001); sub_through_write(1, 0x4107); sub_through_write(1, 0x420C); sub_through_write(1, 0x4310); sub_through_write(1, 0x4414); sub_through_write(1, 0x4518); sub_through_write(1, 0x461C); sub_through_write(1, 0x4720); sub_through_write(1, 0x4824); sub_through_write(1, 0x4928); sub_through_write(1, 0x4A2B); sub_through_write(1, 0x4B2E); sub_through_write(1, 0x4C31); sub_through_write(1, 0x4D34); sub_through_write(1, 0x4E37); sub_through_write(1, 0x4F3A); sub_through_write(1, 0x503C); sub_through_write(1, 0x513E); sub_through_write(1, 0x523F); sub_through_write(1, 0x5340); sub_through_write(1, 0x5441); sub_through_write(1, 0x5543); sub_through_write(1, 0x5646); sub_through_write(1, 0x5749); sub_through_write(1, 0x584C); sub_through_write(1, 0x594F); sub_through_write(1, 0x5A52); sub_through_write(1, 0x5B59); sub_through_write(1, 0x5C60); sub_through_write(1, 0x5D67); sub_through_write(1, 0x5E6E); sub_through_write(1, 0x5F7E); sub_through_write(1, 0x6000); sub_through_write(1, 0x6107); sub_through_write(1, 0x620C); sub_through_write(1, 0x6310); sub_through_write(1, 0x6414); sub_through_write(1, 0x6518); sub_through_write(1, 0x661C); sub_through_write(1, 0x6720); sub_through_write(1, 0x6824); sub_through_write(1, 0x6928); sub_through_write(1, 0x6A2B); sub_through_write(1, 0x6B2E); sub_through_write(1, 0x6C31); sub_through_write(1, 0x6D34); sub_through_write(1, 0x6E37); sub_through_write(1, 0x6F3A); sub_through_write(1, 0x703C); sub_through_write(1, 0x713E); sub_through_write(1, 0x723F); sub_through_write(1, 0x7340); sub_through_write(1, 0x7441); sub_through_write(1, 0x7543); sub_through_write(1, 0x7646); sub_through_write(1, 0x7749); sub_through_write(1, 0x784C); sub_through_write(1, 0x794F); sub_through_write(1, 0x7A52); sub_through_write(1, 0x7B59); sub_through_write(1, 0x7C60); sub_through_write(1, 0x7D67); sub_through_write(1, 0x7E6E); sub_through_write(1, 0x7F7D); sub_through_write(1, 0x1851); /* Display on */ mddi_queue_register_write(REG_AGM, 0x0000, TRUE, 0); /* 1 pixel / 1 post clock */ mddi_queue_register_write(REG_CLKDIV2, 0x3b00, FALSE, 0); /* SUB LCD select */ mddi_queue_register_write(REG_PSTCTL2, 0x0080, FALSE, 0); /* RS=0,command initiate number=0,select master mode */ mddi_queue_register_write(REG_SUBCTL, 0x0202, FALSE, 0); /* Sub LCD Data transform start */ mddi_queue_register_write(REG_PSTCTL1, 0x0003, FALSE, 0); } else if (sharp_subpanel_type == SHARP_SUB_ROHM) { sub_through_write(0, 0x01); /* Display setting */ sub_through_write(1, 0x00); mddi_wait(1); /* Wait 100us <----- ******* Update 2005/01/24 */ sub_through_write(0, 0xB6); sub_through_write(1, 0x0C); sub_through_write(1, 0x4A); sub_through_write(1, 0x20); sub_through_write(0, 0x3A); sub_through_write(1, 0x05); sub_through_write(0, 0xB7); sub_through_write(1, 0x01); sub_through_write(0, 0xBA); sub_through_write(1, 0x20); sub_through_write(1, 0x02); sub_through_write(0, 0x25); sub_through_write(1, 0x4F); sub_through_write(0, 0xBB); sub_through_write(1, 0x00); sub_through_write(0, 0x36); sub_through_write(1, 0x00); sub_through_write(0, 0xB1); sub_through_write(1, 0x05); sub_through_write(0, 0xBE); sub_through_write(1, 0x80); sub_through_write(0, 0x26); sub_through_write(1, 0x01); sub_through_write(0, 0x2A); sub_through_write(1, 0x02); sub_through_write(1, 0x81); sub_through_write(0, 0x2B); sub_through_write(1, 0x00); sub_through_write(1, 0x7F); sub_through_write(0, 0x2C); sub_through_write(0, 0x11); /* Sleep mode off */ mddi_wait(1); /* Wait 100 ms <----- ******* Update 2005/01/24 */ sub_through_write(0, 0x29); /* Display on */ sub_through_write(0, 0xB3); sub_through_write(1, 0x20); sub_through_write(1, 0xAA); sub_through_write(1, 0xA0); sub_through_write(1, 0x20); sub_through_write(1, 0x30); sub_through_write(1, 0xA6); sub_through_write(1, 0xFF); sub_through_write(1, 0x9A); sub_through_write(1, 0x9F); sub_through_write(1, 0xAF); sub_through_write(1, 0xBC); sub_through_write(1, 0xCF); sub_through_write(1, 0xDF); sub_through_write(1, 0x20); sub_through_write(1, 0x9C); sub_through_write(1, 0x8A); sub_through_write(0, 0x002C); /* Display on */ /* 1 pixel / 2 post clock */ mddi_queue_register_write(REG_CLKDIV2, 0x7b00, FALSE, 0); /* SUB LCD select */ mddi_queue_register_write(REG_PSTCTL2, 0x0080, FALSE, 0); /* RS=1,command initiate number=0,select master mode */ mddi_queue_register_write(REG_SUBCTL, 0x0242, FALSE, 0); /* Sub LCD Data transform start */ mddi_queue_register_write(REG_PSTCTL1, 0x0003, FALSE, 0); } /* Set the MDP pixel data attributes for Sub Display */ mddi_host_write_pix_attr_reg(0x00C0); } void mddi_sharp_lcd_vsync_detected(boolean detected) { /* static timetick_type start_time = 0; */ static struct timeval start_time; static boolean first_time = TRUE; /* uint32 mdp_cnt_val = 0; */ /* timetick_type elapsed_us; */ struct timeval now; uint32 elapsed_us; uint32 num_vsyncs; if ((detected) || (mddi_sharp_vsync_attempts > 5)) { if ((detected) && (mddi_sharp_monitor_refresh_value)) { /* if (start_time != 0) */ if (!first_time) { jiffies_to_timeval(jiffies, &now); elapsed_us = (now.tv_sec - start_time.tv_sec) * 1000000 + now.tv_usec - start_time.tv_usec; /* * LCD is configured for a refresh every usecs, * so to determine the number of vsyncs that * have occurred since the last measurement add * half that to the time difference and divide * by the refresh rate. */ num_vsyncs = (elapsed_us + (mddi_sharp_usecs_per_refresh >> 1)) / mddi_sharp_usecs_per_refresh; /* * LCD is configured for * hsyncs (rows) per * refresh cycle. Calculate new rows_per_second * value based upon these new measurements. * MDP can update with this new value. */ mddi_sharp_rows_per_second = (mddi_sharp_rows_per_refresh * 1000 * num_vsyncs) / (elapsed_us / 1000); } /* start_time = timetick_get(); */ first_time = FALSE; jiffies_to_timeval(jiffies, &start_time); if (mddi_sharp_report_refresh_measurements) { /* mdp_cnt_val = MDP_LINE_COUNT; */ } } /* if detected = TRUE, client initiated wakeup was detected */ if (mddi_sharp_vsync_handler != NULL) { (*mddi_sharp_vsync_handler) (mddi_sharp_vsync_handler_arg); mddi_sharp_vsync_handler = NULL; } mddi_vsync_detect_enabled = FALSE; mddi_sharp_vsync_attempts = 0; /* need to clear this vsync wakeup */ if (!mddi_queue_register_write_int(REG_INTR, 0x0000)) { MDDI_MSG_ERR("Vsync interrupt clear failed!\n"); } if (!detected) { /* give up after 5 failed attempts but show error */ MDDI_MSG_NOTICE("Vsync detection failed!\n"); } else if ((mddi_sharp_monitor_refresh_value) && (mddi_sharp_report_refresh_measurements)) { MDDI_MSG_NOTICE(" Lines Per Second=%d!\n", mddi_sharp_rows_per_second); } } else /* if detected = FALSE, we woke up from hibernation, but did not * detect client initiated wakeup. */ mddi_sharp_vsync_attempts++; } /* ISR to be executed */ void mddi_sharp_vsync_set_handler(msm_fb_vsync_handler_type handler, void *arg) { boolean error = FALSE; unsigned long flags; /* Disable interrupts */ spin_lock_irqsave(&mddi_host_spin_lock, flags); /* INTLOCK(); */ if (mddi_sharp_vsync_handler != NULL) error = TRUE; /* Register the handler for this particular GROUP interrupt source */ mddi_sharp_vsync_handler = handler; mddi_sharp_vsync_handler_arg = arg; /* Restore interrupts */ spin_unlock_irqrestore(&mddi_host_spin_lock, flags); /* INTFREE(); */ if (error) MDDI_MSG_ERR("MDDI: Previous Vsync handler never called\n"); /* Enable the vsync wakeup */ mddi_queue_register_write(REG_INTR, 0x8100, FALSE, 0); mddi_sharp_vsync_attempts = 1; mddi_vsync_detect_enabled = TRUE; } /* mddi_sharp_vsync_set_handler */ static int mddi_sharp_lcd_on(struct platform_device *pdev) { struct msm_fb_data_type *mfd; mfd = platform_get_drvdata(pdev); if (!mfd) return -ENODEV; if (mfd->key != MFD_KEY) return -EINVAL; if (mfd->panel.id == SHARP_QVGA_PRIM) mddi_sharp_prim_lcd_init(); else mddi_sharp_sub_lcd_init(); return 0; } static int mddi_sharp_lcd_off(struct platform_device *pdev) { mddi_sharp_lcd_powerdown(); return 0; } static int __init mddi_sharp_probe(struct platform_device *pdev) { if (pdev->id == 0) { mddi_sharp_pdata = pdev->dev.platform_data; return 0; } msm_fb_add_device(pdev); return 0; } static struct platform_driver this_driver = { .probe = mddi_sharp_probe, .driver = { .name = "mddi_sharp_qvga", }, }; static struct msm_fb_panel_data mddi_sharp_panel_data0 = { .on = mddi_sharp_lcd_on, .off = mddi_sharp_lcd_off, .set_backlight = mddi_sharp_lcd_set_backlight, .set_vsync_notifier = mddi_sharp_vsync_set_handler, }; static struct platform_device this_device_0 = { .name = "mddi_sharp_qvga", .id = SHARP_QVGA_PRIM, .dev = { .platform_data = &mddi_sharp_panel_data0, } }; static struct msm_fb_panel_data mddi_sharp_panel_data1 = { .on = mddi_sharp_lcd_on, .off = mddi_sharp_lcd_off, }; static struct platform_device this_device_1 = { .name = "mddi_sharp_qvga", .id = SHARP_128X128_SECD, .dev = { .platform_data = &mddi_sharp_panel_data1, } }; static int __init mddi_sharp_init(void) { int ret; struct msm_panel_info *pinfo; #ifdef CONFIG_FB_MSM_MDDI_AUTO_DETECT u32 id; ret = msm_fb_detect_client("mddi_sharp_qvga"); if (ret == -ENODEV) return 0; if (ret) { id = mddi_get_client_id(); if (((id >> 16) != 0x0) || ((id & 0xffff) != 0x8835)) return 0; } #endif if (mddi_host_core_version > 8) { /* can use faster refresh with newer hw revisions */ mddi_sharp_debug_60hz_refresh = TRUE; /* Timing variables for tracking vsync */ /* dot_clock = 6.00MHz * horizontal count = 296 * vertical count = 338 * refresh rate = 6000000/(296+338) = 60Hz */ mddi_sharp_rows_per_second = 20270; /* 6000000/296 */ mddi_sharp_rows_per_refresh = 338; mddi_sharp_usecs_per_refresh = 16674; /* (296+338)/6000000 */ } else { /* Timing variables for tracking vsync */ /* dot_clock = 5.20MHz * horizontal count = 376 * vertical count = 338 * refresh rate = 5200000/(376+338) = 41Hz */ mddi_sharp_rows_per_second = 13830; /* 5200000/376 */ mddi_sharp_rows_per_refresh = 338; mddi_sharp_usecs_per_refresh = 24440; /* (376+338)/5200000 */ } ret = platform_driver_register(&this_driver); if (!ret) { pinfo = &mddi_sharp_panel_data0.panel_info; pinfo->xres = 240; pinfo->yres = 320; pinfo->type = MDDI_PANEL; pinfo->pdest = DISPLAY_1; pinfo->mddi.vdopkt = MDDI_DEFAULT_PRIM_PIX_ATTR; pinfo->wait_cycle = 0; pinfo->bpp = 18; pinfo->fb_num = 2; pinfo->clk_rate = 122880000; pinfo->clk_min = 120000000; pinfo->clk_max = 125000000; pinfo->lcd.vsync_enable = TRUE; pinfo->lcd.refx100 = (mddi_sharp_rows_per_second * 100) / mddi_sharp_rows_per_refresh; pinfo->lcd.v_back_porch = 12; pinfo->lcd.v_front_porch = 6; pinfo->lcd.v_pulse_width = 0; pinfo->lcd.hw_vsync_mode = FALSE; pinfo->lcd.vsync_notifier_period = (1 * HZ); pinfo->bl_max = 7; pinfo->bl_min = 1; ret = platform_device_register(&this_device_0); if (ret) platform_driver_unregister(&this_driver); pinfo = &mddi_sharp_panel_data1.panel_info; pinfo->xres = 128; pinfo->yres = 128; pinfo->type = MDDI_PANEL; pinfo->pdest = DISPLAY_2; pinfo->mddi.vdopkt = 0x400; pinfo->wait_cycle = 0; pinfo->bpp = 18; pinfo->clk_rate = 122880000; pinfo->clk_min = 120000000; pinfo->clk_max = 125000000; pinfo->fb_num = 2; ret = platform_device_register(&this_device_1); if (ret) { platform_device_unregister(&this_device_0); platform_driver_unregister(&this_driver); } } if (!ret) mddi_lcd.vsync_detected = mddi_sharp_lcd_vsync_detected; return ret; } module_init(mddi_sharp_init);