static int ht121wx2_set_backlight_level(struct lcd_panel *panel, int level)
{
struct lcd_platform_data *pdata = &(panel->dev);
printf("%s : %d\n", __func__, level);
if (level == 0) {
tcclcd_gpio_set_value(pdata->bl_on, 0);
} else {
tcclcd_gpio_set_value(pdata->bl_on, 1);
}
return 0;
}
static int tm070rdh11_panel_init(struct lcd_panel *panel)
{
struct lcd_platform_data *pdata = &(panel->dev);
printf("%s : %d \n", __func__, 0);
tcclcd_gpio_config(pdata->display_on, 1);
tcclcd_gpio_config(pdata->bl_on, 1);
tcclcd_gpio_config(pdata->reset, 1);
tcclcd_gpio_config(pdata->power_on, 1);
tcclcd_gpio_set_value(pdata->display_on, 0);
tcclcd_gpio_set_value(pdata->bl_on, 0);
tcclcd_gpio_set_value(pdata->reset, 0);
tcclcd_gpio_set_value(pdata->power_on, 0);
return 0;
}
static int hdmi1280x720_set_power(struct lcd_panel *panel, int on)
{
struct lcd_platform_data *pdata = &(panel->dev);
printf("%s : %d \n", __func__, on);
if (on) {
tcclcd_gpio_set_value(pdata->power_on, 1);
tcclcd_gpio_set_value(pdata->reset, 1);
mdelay(10);
lcdc_initialize(1, panel);
LCDC_IO_Set(1, panel->bus_width);
mdelay(16);
tcclcd_gpio_set_value(pdata->display_on, 1);
}
else
{
tcclcd_gpio_set_value(pdata->display_on, 0);
mdelay(10);
tcclcd_gpio_set_value(pdata->reset, 0);
tcclcd_gpio_set_value(pdata->power_on, 0);
LCDC_IO_Disable(0, panel->bus_width);
}
return 0;
}
static int hv070wsa_panel_init(struct lcd_panel *panel)
{
struct lcd_platform_data *pdata = &(panel->dev);
#if defined(TCC892X)
if(pdata->lcdc_num ==1)
pdata->reset = (GPIO_PORTE |27);
else
pdata->reset = (GPIO_PORTB |19);
#endif//
tcclcd_gpio_config(pdata->display_on, GPIO_OUTPUT);
tcclcd_gpio_config(pdata->bl_on, GPIO_OUTPUT);
tcclcd_gpio_config(pdata->reset, GPIO_OUTPUT);
tcclcd_gpio_config(pdata->power_on, GPIO_OUTPUT);
tcclcd_gpio_set_value(pdata->display_on, 0);
tcclcd_gpio_set_value(pdata->bl_on, 0);
tcclcd_gpio_set_value(pdata->reset, 0);
tcclcd_gpio_set_value(pdata->power_on, 0);
printf("%s : %d\n", __func__, 0);
return 0;
}
static int n101l6_set_backlight_level(struct lcd_panel *panel, int level)
{
struct lcd_platform_data *pdata = &(panel->dev);
printf("%s : %d\n", __func__, level);
if (level == 0) {
tcclcd_gpio_set_value( pdata->display_on ,0); // LVDS_pwm
tcclcd_gpio_set_value( pdata->bl_on, 0); // LVDS_BL_off
} else {
tcclcd_gpio_set_value( pdata->display_on ,1); // LVDS_pwm
#ifdef TCC892X
if(HW_REV == 0x1005 || HW_REV == 0x1006 || HW_REV == 0x1007|| HW_REV == 0x1008 || HW_REV == 0x2002 || HW_REV == 0x2003 || (HW_REV == 0x2004) || (HW_REV == 0x2005))
tca_tco_pwm_ctrl(0, pdata->bl_on, MAX_BACKLIGTH, level);
else
tca_tco_pwm_ctrl(1, pdata->bl_on, MAX_BACKLIGTH, level);
#else
tca_tco_pwm_ctrl(0, pdata->bl_on, MAX_BACKLIGTH, level);
#endif//
}
return 0;
}
static int hm8369_set_power(struct lcd_panel *panel, int on)
{
struct lcd_platform_data *pdata = &(panel->dev);
dprintf(0,"hm8369_set_power, on=%d\n", on);
if (on) {
tcclcd_gpio_set_value(pdata->reset, 1);
#if defined(_M801_88_)
lcd_delay_us(1000*10);
#else
lcd_delay_us(1000);
#endif
tcclcd_gpio_set_value(pdata->power_on, 1);
lcd_delay_us(1000);
tcclcd_gpio_set_value(pdata->reset, 0);
lcd_delay_us(1000);
tcclcd_gpio_set_value(pdata->reset, 1);
tcclcd_gpio_set_value(pdata->display_on, 1);
mdelay(10);
lcdc_initialize(pdata->lcdc_num, panel);
LCDC_IO_Set(pdata->lcdc_num, panel->bus_width);
LCDC_IO_SetCurrent(pdata->lcdc_num, panel->bus_width);
mdelay(16);
}
else
{
tcclcd_gpio_set_value(pdata->display_on, 0);
mdelay(10);
tcclcd_gpio_set_value(pdata->reset, 0);
tcclcd_gpio_set_value(pdata->power_on, 0);
LCDC_IO_Disable(pdata->lcdc_num, panel->bus_width);
}
return 0;
}
static int tm070rdh11_set_power(struct lcd_panel *panel, int on)
{
struct lcd_platform_data *pdata = &(panel->dev);
printf("%s : %d ~ \n", __func__, on);
if (on) {
tcclcd_gpio_set_value(pdata->reset, 1);
lcd_delay_us(1000);
tcclcd_gpio_set_value(pdata->power_on, 1);
lcd_delay_us(1000);
tcclcd_gpio_set_value(pdata->reset, 0);
lcd_delay_us(1000);
tcclcd_gpio_set_value(pdata->reset, 1);
mdelay(10);
lcdc_initialize(pdata->lcdc_num, panel);
LCDC_IO_Set(pdata->lcdc_num, panel->bus_width);
// lcd port current
BITCSET(HwGPIOC->GPCD0,0xFFFFFFFF, 0xAAAAAAAA);
BITCSET(HwGPIOC->GPCD1,0x00FFFFFF, 0x00FFAAAA);
BITCSET(HwGPIOC->GPFN3, HwPORTCFG_GPFN0_MASK , HwPORTCFG_GPFN0(0));
BITCSET(HwGPIOC->GPEN, Hw24 ,Hw24);
BITCSET(HwGPIOC->GPDAT, Hw24 ,0);
mdelay(16);
}
else
{
tcclcd_gpio_set_value(pdata->display_on, 0);
mdelay(10);
tcclcd_gpio_set_value(pdata->reset, 0);
tcclcd_gpio_set_value(pdata->power_on, 0);
LCDC_IO_Disable(pdata->lcdc_num, panel->bus_width);
}
return 0;
}
static int hm8369_set_backlight_level(struct lcd_panel *panel, int level)
{
struct lcd_platform_data *pdata = &(panel->dev);
dprintf(0,"hm8369_set_backlight_level : %d\n", level);
if (level == 0) {
tcclcd_gpio_set_value(pdata->bl_on, 0);
} else {
#ifdef TCC892X
if(HW_REV == 0x1005 || HW_REV == 0x1006 || HW_REV == 0x1007|| HW_REV == 0x1008 || HW_REV == 0x2002 || HW_REV == 0x2003 || (HW_REV == 0x2004) || (HW_REV == 0x2005) || (HW_REV == 0x2006) || (HW_REV == 0x2007) || (HW_REV == 0x2008))
tca_tco_pwm_ctrl(0, pdata->bl_on, MAX_BACKLIGTH, level);
else
tca_tco_pwm_ctrl(1, pdata->bl_on, MAX_BACKLIGTH, level);
#else
tca_tco_pwm_ctrl(0, pdata->bl_on, MAX_BACKLIGTH, level);
#endif//
}
return 0;
}
static int hv070wsa_set_power(struct lcd_panel *panel, int on)
{
unsigned int P, M, S, VSEL;
#if defined(TCC88XX) || defined(TCC892X)
PDDICONFIG pDDICfg = (DDICONFIG *)HwDDI_CONFIG_BASE;
#else
PDDICONFIG pDDICfg = (DDICONFIG *)&HwDDI_CONFIG_BASE;
#endif//
struct lcd_platform_data *pdata = &(panel->dev);
printf("%s : onoff:%d lcdc_num\n", __func__, on, pdata->lcdc_num);
if (on) {
tcclcd_gpio_set_value(pdata->power_on, 1);
lcd_delay_us(20);
tcclcd_gpio_set_value(pdata->reset, 1);
tcclcd_gpio_set_value(pdata->display_on, 1);
lcdc_initialize(pdata->lcdc_num, panel);
#if defined(TCC892X)
// LVDS reset
pDDICfg->LVDS_CTRL.bREG.RST =1;
pDDICfg->LVDS_CTRL.bREG.RST =0;
#if 0
BITCSET(pDDICfg->LVDS_TXO_SEL0.nREG, 0xFFFFFFFF, 0x15141312);
BITCSET(pDDICfg->LVDS_TXO_SEL1.nREG, 0xFFFFFFFF, 0x0B0A1716);
BITCSET(pDDICfg->LVDS_TXO_SEL2.nREG, 0xFFFFFFFF, 0x0F0E0D0C);
BITCSET(pDDICfg->LVDS_TXO_SEL3.nREG, 0xFFFFFFFF, 0x05040302);
BITCSET(pDDICfg->LVDS_TXO_SEL4.nREG, 0xFFFFFFFF, 0x1A190706);
BITCSET(pDDICfg->LVDS_TXO_SEL5.nREG, 0xFFFFFFFF, 0x1F1E1F18);
BITCSET(pDDICfg->LVDS_TXO_SEL6.nREG, 0xFFFFFFFF, 0x1F1E1F1E);
BITCSET(pDDICfg->LVDS_TXO_SEL7.nREG, 0xFFFFFFFF, 0x1F1E1F1E);
BITCSET(pDDICfg->LVDS_TXO_SEL8.nREG, 0xFFFFFFFF, 0x001E1F1E);
#else
BITCSET(pDDICfg->LVDS_TXO_SEL0.nREG, 0xFFFFFFFF, 0x13121110);
BITCSET(pDDICfg->LVDS_TXO_SEL1.nREG, 0xFFFFFFFF, 0x09081514);
BITCSET(pDDICfg->LVDS_TXO_SEL2.nREG, 0xFFFFFFFF, 0x0D0C0B0A);
BITCSET(pDDICfg->LVDS_TXO_SEL3.nREG, 0xFFFFFFFF, 0x03020100);
BITCSET(pDDICfg->LVDS_TXO_SEL4.nREG, 0xFFFFFFFF, 0x1A190504);
BITCSET(pDDICfg->LVDS_TXO_SEL5.nREG, 0xFFFFFFFF, 0x0E171618);
BITCSET(pDDICfg->LVDS_TXO_SEL6.nREG, 0xFFFFFFFF, 0x1F07060F);
BITCSET(pDDICfg->LVDS_TXO_SEL7.nREG, 0xFFFFFFFF, 0x1F1E1F1E);
BITCSET(pDDICfg->LVDS_TXO_SEL8.nREG, 0xFFFFFFFF, 0x001E1F1E);
#endif//
M = 10; P = 10; S = 0; VSEL = 0;
BITCSET(pDDICfg->LVDS_CTRL.nREG, 0x00FFFFF0, (VSEL<<4)|(S<<5)|(M<<8)|(P<<15)); //LCDC1
// LVDS Select LCDC 1
if(pdata->lcdc_num ==1)
BITCSET(pDDICfg->LVDS_CTRL.nREG, 0x3 << 30 , 0x1 << 30);
else
BITCSET(pDDICfg->LVDS_CTRL.nREG, 0x3 << 30 , 0x0 << 30);
pDDICfg->LVDS_CTRL.bREG.RST = 1; // reset
// LVDS enable
pDDICfg->LVDS_CTRL.bREG.EN = 1; // enable
#else
// LVDS power on
tca_ckc_setpmupwroff(PMU_LVDSPHY, ENABLE);
// LVDS reset
BITSET(pDDICfg->LVDS_CTRL, Hw1); // reset
BITCLR(pDDICfg->LVDS_CTRL, Hw1); // normal
pDDICfg->LVDS_TXO_SEL0 = 0x15141312; // SEL_03, SEL_02, SEL_01, SEL_00,
pDDICfg->LVDS_TXO_SEL1 = 0x0B0A1716; // SEL_07, SEL_06, SEL_05, SEL_04,
pDDICfg->LVDS_TXO_SEL2 = 0x0F0E0D0C; // SEL_11, SEL_10, SEL_09, SEL_08,
pDDICfg->LVDS_TXO_SEL3 = 0x05040302; // SEL_15, SEL_14, SEL_13, SEL_12,
pDDICfg->LVDS_TXO_SEL4 = 0x1A190706; // SEL_19, SEL_18, SEL_17, SEL_16,
pDDICfg->LVDS_TXO_SEL5 = 0x1F1E1F18; // SEL_20,
pDDICfg->LVDS_TXO_SEL6 = 0x1F1E1F1E;
pDDICfg->LVDS_TXO_SEL7 = 0x1F1E1F1E;
pDDICfg->LVDS_TXO_SEL8 = 0x1F1E1F1E;
// LVDS Select
// BITCLR(pDDICfg->LVDS_CTRL, Hw0); //LCDC0
BITSET(pDDICfg->LVDS_CTRL, Hw0); //LCDC1
#ifdef TCC88XX
M = 10; P = 10; S = 0; VSEL = 0;
BITCSET(pDDICfg->LVDS_CTRL, Hw21- Hw4, (VSEL<<4)|(S<<5)|(M<<8)|(P<<15)); //LCDC1
BITSET(pDDICfg->LVDS_CTRL, Hw1); // reset
#endif//
// LVDS enable
BITSET(pDDICfg->LVDS_CTRL, Hw2); // enable
#endif
}
else {
tcclcd_gpio_set_value(pdata->power_on, 0);
}
return 0;
}
static int n101l6_set_power(struct lcd_panel *panel, int on)
{
unsigned int P, M, S, VSEL;
#ifdef TCC88XX
PDDICONFIG pDDICfg = (DDICONFIG *)HwDDI_CONFIG_BASE;
#else
PDDICONFIG pDDICfg = (DDICONFIG *)&HwDDI_CONFIG_BASE;
#endif//
struct lcd_platform_data *pdata = &(panel->dev);
printf("%s : %d \n", __func__, on);
if (on) {
tcclcd_gpio_set_value( (GPIO_PORTF|13) , 1); // LVDS_Module_PWR
tcclcd_gpio_set_value(pdata->power_on, 1); // LVDS_PWR
tcclcd_gpio_set_value(pdata->display_on, 1); // LVDS_PWM
tcclcd_gpio_set_value(pdata->reset, 1); // LVDS_LEDEN
mdelay(100);
lcdc_initialize(pdata->lcdc_num, panel);
// LVDS power on
tca_ckc_setpmupwroff(PMU_LVDSPHY, ENABLE);
pDDICfg->LVDS_TXO_SEL0 = 0x15141312; // SEL_03, SEL_02, SEL_01, SEL_00,
pDDICfg->LVDS_TXO_SEL1 = 0x0B0A1716; // SEL_07, SEL_06, SEL_05, SEL_04,
pDDICfg->LVDS_TXO_SEL2 = 0x0F0E0D0C; // SEL_11, SEL_10, SEL_09, SEL_08,
pDDICfg->LVDS_TXO_SEL3 = 0x05040302; // SEL_15, SEL_14, SEL_13, SEL_12,
pDDICfg->LVDS_TXO_SEL4 = 0x1A190706; // SEL_19, SEL_18, SEL_17, SEL_16,
pDDICfg->LVDS_TXO_SEL5 = 0x1F1E1F18; // SEL_20,
pDDICfg->LVDS_TXO_SEL6 = 0x1F1E1F1E;
pDDICfg->LVDS_TXO_SEL7 = 0x1F1E1F1E;
pDDICfg->LVDS_TXO_SEL8 = 0x1F1E1F1E;
// LVDS reset
BITSET(pDDICfg->LVDS_CTRL, Hw1); // reset
BITCLR(pDDICfg->LVDS_CTRL, Hw1); // normal
// LVDS Select
//BITCLR(pDDICfg->LVDS_CTRL, Hw0); //LCDC0
BITSET(pDDICfg->LVDS_CTRL, Hw0); //LCDC1 org must
#ifdef TCC88XX
M = 10; P = 10; S = 0; VSEL = 0;
BITCSET(pDDICfg->LVDS_CTRL, Hw21- Hw4, (VSEL<<4)|(S<<5)|(M<<8)|(P<<15)); //LCDC1
BITSET(pDDICfg->LVDS_CTRL, Hw1); // reset
#endif//
// LVDS enable
BITSET(pDDICfg->LVDS_CTRL, Hw2);
}
else {
tcclcd_gpio_set_value(pdata->reset, 0); // LVDS_LEDEN
tcclcd_gpio_set_value(pdata->display_on, 0); // LVDS_PWM
tcclcd_gpio_set_value(pdata->power_on, 0); // LVDS_PWR
tcclcd_gpio_set_value( (GPIO_PORTF|13) , 0); // LVDS_Module_PWR
}
return 0;
}
static int hm8369_panel_init(struct lcd_panel *panel)
{
dprintf(0,"LCD_HX8369_Init enter\n");
struct lcd_platform_data *pdata = &(panel->dev);
tcclcd_gpio_config(pdata->display_on, GPIO_OUTPUT);
tcclcd_gpio_config(pdata->bl_on, GPIO_OUTPUT);
tcclcd_gpio_config(pdata->reset, GPIO_OUTPUT);
tcclcd_gpio_config(pdata->power_on, GPIO_OUTPUT);
tcclcd_gpio_set_value(pdata->display_on, 0);
tcclcd_gpio_set_value(pdata->bl_on, 0);
tcclcd_gpio_set_value(pdata->reset, 0);
tcclcd_gpio_set_value(pdata->power_on, 0);
unsigned int spi_cs = SPI_GPIO_CS;
unsigned int spi_scl = SPI_GPIO_CLK;
unsigned int spi_rst = SPI_GPIO_RES;
unsigned int spi_mosi = SPI_GPIO_MOSI;
tcclcd_gpio_config(spi_cs, GPIO_OUTPUT);
tcclcd_gpio_config(spi_scl, GPIO_OUTPUT);
tcclcd_gpio_config(spi_rst, GPIO_OUTPUT);
tcclcd_gpio_config(spi_mosi, GPIO_OUTPUT);
// gpio_request(spi_cs, "spi_cs");
tcclcd_gpio_set_value(spi_cs, 1);
// gpio_request(spi_scl, "spi_scl");
tcclcd_gpio_set_value(spi_scl, 1);
// gpio_request(spi_rst, "spi_rst");
tcclcd_gpio_set_value(spi_rst, 1);
// gpio_request(spi_mosi, "spi_mosi");
tcclcd_gpio_set_value(spi_mosi, 1);
mdelay(100);
//SPI_RES_VALUE(1) ;
//mdelay(100);
SPI_RES_VALUE(0) ;
mdelay(500);
SPI_RES_VALUE(1) ;
mdelay(800);
SPI_WriteComm(0xff00);
SPI_WriteData(0x80);
SPI_WriteComm(0xff01);
SPI_WriteData(0x09); //enable EXTC
SPI_WriteComm(0xff02);
SPI_WriteData(0x01);
SPI_WriteComm(0xff80);
SPI_WriteData(0x80); //enable Orise mode
SPI_WriteComm(0xff81);
SPI_WriteData(0x09);
SPI_WriteComm(0xff03);
SPI_WriteData(0x01); //enable SPI+I2C cmd2 read
//gamma DC
SPI_WriteComm(0xc0b4);
SPI_WriteData(0x50); //column inversion
SPI_WriteComm(0xC489);
SPI_WriteData(0x08); //reg off
SPI_WriteComm(0xC0a3);
SPI_WriteData(0x00); //pre-charge //V02
SPI_WriteComm(0xC582);
SPI_WriteData(0xA3); //REG-pump23
SPI_WriteComm(0xC590);
SPI_WriteData(0x96); //Pump setting (3x=D6)-->(2x=96)//v02 01/11
SPI_WriteComm(0xC591);
SPI_WriteData(0x87); //Pump setting(VGH/VGL)
SPI_WriteComm(0xD800);
SPI_WriteData(0x73); //GVDD=4.5V 73
SPI_WriteComm(0xD801);
SPI_WriteData(0x71); //NGVDD=4.5V 71
//VCOMDC
SPI_WriteComm(0xD900);
SPI_WriteData(0x6A); // VCOMDC=
mdelay(20);
// Positive
SPI_WriteComm(0xE100);
SPI_WriteData(0x09);
SPI_WriteComm(0xE101);
SPI_WriteData(0x0a);
SPI_WriteComm(0xE102);
SPI_WriteData(0x0e);
SPI_WriteComm(0xE103);
SPI_WriteData(0x0d);
SPI_WriteComm(0xE104);
SPI_WriteData(0x07);
SPI_WriteComm(0xE105);
SPI_WriteData(0x18);
SPI_WriteComm(0xE106);
SPI_WriteData(0x0d);
SPI_WriteComm(0xE107);
SPI_WriteData(0x0d);
SPI_WriteComm(0xE108);
SPI_WriteData(0x01);
SPI_WriteComm(0xE109);
SPI_WriteData(0x04);
SPI_WriteComm(0xE10A);
SPI_WriteData(0x05);
SPI_WriteComm(0xE10B);
SPI_WriteData(0x06);
SPI_WriteComm(0xE10C);
SPI_WriteData(0x0D);
SPI_WriteComm(0xE10D);
SPI_WriteData(0x22);
SPI_WriteComm(0xE10E);
SPI_WriteData(0x20);
SPI_WriteComm(0xE10F);
SPI_WriteData(0x05);
// Negative
SPI_WriteComm(0xE200);
SPI_WriteData(0x09);
SPI_WriteComm(0xE201);
SPI_WriteData(0x0a);
SPI_WriteComm(0xE202);
SPI_WriteData(0x0e);
SPI_WriteComm(0xE203);
SPI_WriteData(0x0d);
SPI_WriteComm(0xE204);
SPI_WriteData(0x07);
SPI_WriteComm(0xE205);
SPI_WriteData(0x18);
SPI_WriteComm(0xE206);
SPI_WriteData(0x0d);
SPI_WriteComm(0xE207);
SPI_WriteData(0x0d);
SPI_WriteComm(0xE208);
SPI_WriteData(0x01);
SPI_WriteComm(0xE209);
SPI_WriteData(0x04);
SPI_WriteComm(0xE20A);
SPI_WriteData(0x05);
SPI_WriteComm(0xE20B);
SPI_WriteData(0x06);
SPI_WriteComm(0xE20C);
SPI_WriteData(0x0D);
SPI_WriteComm(0xE20D);
SPI_WriteData(0x22);
SPI_WriteComm(0xE20E);
SPI_WriteData(0x20);
SPI_WriteComm(0xE20F);
SPI_WriteData(0x05);
SPI_WriteComm(0xC181);
SPI_WriteData(0x66); //Frame rate 65Hz//V02
//SPI_WriteComm(0xC181); SPI_WriteData(0x00); //Frame rate 35Hz//V02
// RGB I/F setting VSYNC for OTM8018 0x0e
SPI_WriteComm(0xC1a1);
SPI_WriteData(0x08); //external Vsync,Hsync,DE
SPI_WriteComm(0xC0a3);
SPI_WriteData(0x1b); //pre-charge //V02
SPI_WriteComm(0xC481);
SPI_WriteData(0x83); //source bias //V02
SPI_WriteComm(0xC592);
SPI_WriteData(0x01); //Pump45
SPI_WriteComm(0xC5B1);
SPI_WriteData(0xA9); //DC voltage setting ;[0]GVDD output, default: 0xa8
// CE8x : vst1, vst2, vst3, vst4
SPI_WriteComm(0xCE80);
SPI_WriteData(0x85); // ce81[7:0] : vst1_shift[7:0]
SPI_WriteComm(0xCE81);
SPI_WriteData(0x03); // ce82[7:0] : 0000, vst1_width[3:0]
SPI_WriteComm(0xCE82);
SPI_WriteData(0x00); // ce83[7:0] : vst1_tchop[7:0]
SPI_WriteComm(0xCE83);
SPI_WriteData(0x84); // ce84[7:0] : vst2_shift[7:0]
SPI_WriteComm(0xCE84);
SPI_WriteData(0x03); // ce85[7:0] : 0000, vst2_width[3:0]
SPI_WriteComm(0xCE85);
SPI_WriteData(0x00); // ce86[7:0] : vst2_tchop[7:0]
SPI_WriteComm(0xCE86);
SPI_WriteData(0x83); // ce87[7:0] : vst3_shift[7:0]
SPI_WriteComm(0xCE87);
SPI_WriteData(0x03); // ce88[7:0] : 0000, vst3_width[3:0]
SPI_WriteComm(0xCE88);
SPI_WriteData(0x00); // ce89[7:0] : vst3_tchop[7:0]
SPI_WriteComm(0xCE89);
SPI_WriteData(0x82); // ce8a[7:0] : vst4_shift[7:0]
SPI_WriteComm(0xCE8a);
SPI_WriteData(0x03); // ce8b[7:0] : 0000, vst4_width[3:0]
SPI_WriteComm(0xCE8b);
SPI_WriteData(0x00); // ce8c[7:0] : vst4_tchop[7:0]
//CEAx : clka1, clka2
SPI_WriteComm(0xCEa0);
SPI_WriteData(0x38); // cea1[7:0] : clka1_width[3:0], clka1_shift[11:8]
SPI_WriteComm(0xCEa1);
SPI_WriteData(0x02); // cea2[7:0] : clka1_shift[7:0]
SPI_WriteComm(0xCEa2);
SPI_WriteData(0x03); // cea3[7:0] : clka1_sw_tg, odd_high, flat_head, flat_tail, switch[11:8]
SPI_WriteComm(0xCEa3);
SPI_WriteData(0x21); // cea4[7:0] : clka1_switch[7:0]
SPI_WriteComm(0xCEa4);
SPI_WriteData(0x00); // cea5[7:0] : clka1_extend[7:0]
SPI_WriteComm(0xCEa5);
SPI_WriteData(0x00); // cea6[7:0] : clka1_tchop[7:0]
SPI_WriteComm(0xCEa6);
SPI_WriteData(0x00); // cea7[7:0] : clka1_tglue[7:0]
SPI_WriteComm(0xCEa7);
SPI_WriteData(0x38); // cea8[7:0] : clka2_width[3:0], clka2_shift[11:8]
SPI_WriteComm(0xCEa8);
SPI_WriteData(0x01); // cea9[7:0] : clka2_shift[7:0]
SPI_WriteComm(0xCEa9);
SPI_WriteData(0x03); // ceaa[7:0] : clka2_sw_tg, odd_high, flat_head, flat_tail, switch[11:8]
SPI_WriteComm(0xCEaa);
SPI_WriteData(0x22); // ceab[7:0] : clka2_switch[7:0]
SPI_WriteComm(0xCEab);
SPI_WriteData(0x00); // ceac[7:0] : clka2_extend
SPI_WriteComm(0xCEac);
SPI_WriteData(0x00); // cead[7:0] : clka2_tchop
SPI_WriteComm(0xCEad);
SPI_WriteData(0x00); // ceae[7:0] : clka2_tglue
//CEBx : clka3, clka4
SPI_WriteComm(0xCEb0);
SPI_WriteData(0x38); // ceb1[7:0] : clka3_width[3:0], clka3_shift[11:8]
SPI_WriteComm(0xCEb1);
SPI_WriteData(0x00); // ceb2[7:0] : clka3_shift[7:0]
SPI_WriteComm(0xCEb2);
SPI_WriteData(0x03); // ceb3[7:0] : clka3_sw_tg, odd_high, flat_head, flat_tail, switch[11:8]
SPI_WriteComm(0xCEb3);
SPI_WriteData(0x23); // ceb4[7:0] : clka3_switch[7:0]
SPI_WriteComm(0xCEb4);
SPI_WriteData(0x00); // ceb5[7:0] : clka3_extend[7:0]
SPI_WriteComm(0xCEb5);
SPI_WriteData(0x00); // ceb6[7:0] : clka3_tchop[7:0]
SPI_WriteComm(0xCEb6);
SPI_WriteData(0x00); // ceb7[7:0] : clka3_tglue[7:0]
SPI_WriteComm(0xCEb7);
SPI_WriteData(0x30); // ceb8[7:0] : clka4_width[3:0], clka2_shift[11:8]
SPI_WriteComm(0xCEb8);
SPI_WriteData(0x00); // ceb9[7:0] : clka4_shift[7:0]
SPI_WriteComm(0xCEb9);
SPI_WriteData(0x03); // ceba[7:0] : clka4_sw_tg, odd_high, flat_head, flat_tail, switch[11:8]
SPI_WriteComm(0xCEba);
SPI_WriteData(0x24); // cebb[7:0] : clka4_switch[7:0]
SPI_WriteComm(0xCEbb);
SPI_WriteData(0x00); // cebc[7:0] : clka4_extend
SPI_WriteComm(0xCEbc);
SPI_WriteData(0x00); // cebd[7:0] : clka4_tchop
SPI_WriteComm(0xCEbd);
SPI_WriteData(0x00); // cebe[7:0] : clka4_tglue
//CECx : clkb1, clkb2
SPI_WriteComm(0xCEc0);
SPI_WriteData(0x30); // cec1[7:0] : clkb1_width[3:0], clkb1_shift[11:8]
SPI_WriteComm(0xCEc1);
SPI_WriteData(0x01); // cec2[7:0] : clkb1_shift[7:0]
SPI_WriteComm(0xCEc2);
SPI_WriteData(0x03); // cec3[7:0] : clkb1_sw_tg, odd_high, flat_head, flat_tail, switch[11:8]
SPI_WriteComm(0xCEc3);
SPI_WriteData(0x25); // cec4[7:0] : clkb1_switch[7:0]
SPI_WriteComm(0xCEc4);
SPI_WriteData(0x00); // cec5[7:0] : clkb1_extend[7:0]
SPI_WriteComm(0xCEc5);
SPI_WriteData(0x00); // cec6[7:0] : clkb1_tchop[7:0]
SPI_WriteComm(0xCEc6);
SPI_WriteData(0x00); // cec7[7:0] : clkb1_tglue[7:0]
SPI_WriteComm(0xCEc7);
SPI_WriteData(0x30); // cec8[7:0] : clkb2_width[3:0], clkb2_shift[11:8]
SPI_WriteComm(0xCEc8);
SPI_WriteData(0x02); // cec9[7:0] : clkb2_shift[7:0]
SPI_WriteComm(0xCEc9);
SPI_WriteData(0x03); // ceca[7:0] : clkb2_sw_tg, odd_high, flat_head, flat_tail, switch[11:8]
SPI_WriteComm(0xCEca);
SPI_WriteData(0x26); // cecb[7:0] : clkb2_switch[7:0]
SPI_WriteComm(0xCEcb);
SPI_WriteData(0x00); // cecc[7:0] : clkb2_extend
SPI_WriteComm(0xCEcc);
SPI_WriteData(0x00); // cecd[7:0] : clkb2_tchop
SPI_WriteComm(0xCEcd);
SPI_WriteData(0x00); // cece[7:0] : clkb2_tglue
//CEDx : clkb3, clkb4
SPI_WriteComm(0xCEd0);
SPI_WriteData(0x30); // ced1[7:0] : clkb3_width[3:0], clkb3_shift[11:8]
SPI_WriteComm(0xCEd1);
SPI_WriteData(0x03); // ced2[7:0] : clkb3_shift[7:0]
SPI_WriteComm(0xCEd2);
SPI_WriteData(0x03); // ced3[7:0] : clkb3_sw_tg, odd_high, flat_head, flat_tail, switch[11:8]
SPI_WriteComm(0xCEd3);
SPI_WriteData(0x27); // ced4[7:0] : clkb3_switch[7:0]
SPI_WriteComm(0xCEd4);
SPI_WriteData(0x00); // ced5[7:0] : clkb3_extend[7:0]
SPI_WriteComm(0xCEd5);
SPI_WriteData(0x00); // ced6[7:0] : clkb3_tchop[7:0]
SPI_WriteComm(0xCEd6);
SPI_WriteData(0x00); // ced7[7:0] : clkb3_tglue[7:0]
SPI_WriteComm(0xCEd7);
SPI_WriteData(0x30); // ced8[7:0] : clkb4_width[3:0], clkb4_shift[11:8]
SPI_WriteComm(0xCEd8);
SPI_WriteData(0x04); // ced9[7:0] : clkb4_shift[7:0]
SPI_WriteComm(0xCEd9);
SPI_WriteData(0x03); // ceda[7:0] : clkb4_sw_tg, odd_high, flat_head, flat_tail, switch[11:8]
SPI_WriteComm(0xCEda);
SPI_WriteData(0x28); // cedb[7:0] : clkb4_switch[7:0]
SPI_WriteComm(0xCEdb);
SPI_WriteData(0x00); // cedc[7:0] : clkb4_extend
SPI_WriteComm(0xCEdc);
SPI_WriteData(0x00); // cedd[7:0] : clkb4_tchop
SPI_WriteComm(0xCEdd);
SPI_WriteData(0x00); // cede[7:0] : clkb4_tglue
//CFCx :
SPI_WriteComm(0xCFc0);
SPI_WriteData(0x00); // cfc1[7:0] : eclk_normal_width[7:0]
SPI_WriteComm(0xCFc1);
SPI_WriteData(0x00); // cfc2[7:0] : eclk_partial_width[7:0]
SPI_WriteComm(0xCFc2);
SPI_WriteData(0x00); // cfc3[7:0] : all_normal_tchop[7:0]
SPI_WriteComm(0xCFc3);
SPI_WriteData(0x00); // cfc4[7:0] : all_partial_tchop[7:0]
SPI_WriteComm(0xCFc4);
SPI_WriteData(0x00); // cfc5[7:0] : eclk1_follow[3:0], eclk2_follow[3:0]
SPI_WriteComm(0xCFc5);
SPI_WriteData(0x00); // cfc6[7:0] : eclk3_follow[3:0], eclk4_follow[3:0]
SPI_WriteComm(0xCFc6);
SPI_WriteData(0x00); // cfc7[7:0] : 00, vstmask, vendmask, 00, dir1, dir2 (0=VGL, 1=VGH)
SPI_WriteComm(0xCFc7);
SPI_WriteData(0x00); // cfc8[7:0] : reg_goa_gnd_opt, reg_goa_dpgm_tail_set, reg_goa_f_gating_en, reg_goa_f_odd_gating, toggle_mod1, 2, 3, 4
SPI_WriteComm(0xCFc8);
SPI_WriteData(0x00); // cfc9[7:0] : duty_block[3:0], DGPM[3:0]
SPI_WriteComm(0xCFc9);
SPI_WriteData(0x00); // cfca[7:0] : reg_goa_gnd_period[7:0]
//CFDx :
SPI_WriteComm(0xCFd0);
SPI_WriteData(0x00);// cfd1[7:0] : 0000000, reg_goa_frame_odd_high
// Parameter 1
//--------------------------------------------------------------------------------
// initial setting 3 < Panel setting >
//--------------------------------------------------------------------------------
// cbcx
SPI_WriteComm(0xCBc0);
SPI_WriteData(0x00); //cbc1[7:0] : enmode H-byte of sig1 (pwrof_0, pwrof_1, norm, pwron_4 )
SPI_WriteComm(0xCBc1);
SPI_WriteData(0x00); //cbc2[7:0] : enmode H-byte of sig2 (pwrof_0, pwrof_1, norm, pwron_4 )
SPI_WriteComm(0xCBc2);
SPI_WriteData(0x00); //cbc3[7:0] : enmode H-byte of sig3 (pwrof_0, pwrof_1, norm, pwron_4 )
SPI_WriteComm(0xCBc3);
SPI_WriteData(0x00); //cbc4[7:0] : enmode H-byte of sig4 (pwrof_0, pwrof_1, norm, pwron_4 )
SPI_WriteComm(0xCBc4);
SPI_WriteData(0x04); //cbc5[7:0] : enmode H-byte of sig5 (pwrof_0, pwrof_1, norm, pwron_4 )
SPI_WriteComm(0xCBc5);
SPI_WriteData(0x04); //cbc6[7:0] : enmode H-byte of sig6 (pwrof_0, pwrof_1, norm, pwron_4 )
SPI_WriteComm(0xCBc6);
SPI_WriteData(0x04); //cbc7[7:0] : enmode H-byte of sig7 (pwrof_0, pwrof_1, norm, pwron_4 )
SPI_WriteComm(0xCBc7);
SPI_WriteData(0x04); //cbc8[7:0] : enmode H-byte of sig8 (pwrof_0, pwrof_1, norm, pwron_4 )
SPI_WriteComm(0xCBc8);
SPI_WriteData(0x04); //cbc9[7:0] : enmode H-byte of sig9 (pwrof_0, pwrof_1, norm, pwron_4 )
SPI_WriteComm(0xCBc9);
SPI_WriteData(0x04); //cbca[7:0] : enmode H-byte of sig10 (pwrof_0, pwrof_1, norm, pwron_4 )
SPI_WriteComm(0xCBca);
SPI_WriteData(0x00); //cbcb[7:0] : enmode H-byte of sig11 (pwrof_0, pwrof_1, norm, pwron_4 )
SPI_WriteComm(0xCBcb);
SPI_WriteData(0x00); //cbcc[7:0] : enmode H-byte of sig12 (pwrof_0, pwrof_1, norm, pwron_4 )
SPI_WriteComm(0xCBcc);
SPI_WriteData(0x00); //cbcd[7:0] : enmode H-byte of sig13 (pwrof_0, pwrof_1, norm, pwron_4 )
SPI_WriteComm(0xCBcd);
SPI_WriteData(0x00); //cbce[7:0] : enmode H-byte of sig14 (pwrof_0, pwrof_1, norm, pwron_4 )
SPI_WriteComm(0xCBce);
SPI_WriteData(0x00); //cbcf[7:0] : enmode H-byte of sig15 (pwrof_0, pwrof_1, norm, pwron_4 )
// cbdx
SPI_WriteComm(0xCBd0);
SPI_WriteData(0x00); //cbd1[7:0] : enmode H-byte of sig16 (pwrof_0, pwrof_1, norm, pwron_4 )
SPI_WriteComm(0xCBd1);
SPI_WriteData(0x00); //cbd2[7:0] : enmode H-byte of sig17 (pwrof_0, pwrof_1, norm, pwron_4 )
SPI_WriteComm(0xCBd2);
SPI_WriteData(0x00); //cbd3[7:0] : enmode H-byte of sig18 (pwrof_0, pwrof_1, norm, pwron_4 )
SPI_WriteComm(0xCBd3);
SPI_WriteData(0x00); //cbd4[7:0] : enmode H-byte of sig19 (pwrof_0, pwrof_1, norm, pwron_4 )
SPI_WriteComm(0xCBd4);
SPI_WriteData(0x00); //cbd5[7:0] : enmode H-byte of sig20 (pwrof_0, pwrof_1, norm, pwron_4 )
SPI_WriteComm(0xCBd5);
SPI_WriteData(0x00); //cbd6[7:0] : enmode H-byte of sig21 (pwrof_0, pwrof_1, norm, pwron_4 )
SPI_WriteComm(0xCBd6);
SPI_WriteData(0x00); //cbd7[7:0] : enmode H-byte of sig22 (pwrof_0, pwrof_1, norm, pwron_4 )
SPI_WriteComm(0xCBd7);
SPI_WriteData(0x00); //cbd8[7:0] : enmode H-byte of sig23 (pwrof_0, pwrof_1, norm, pwron_4 )
SPI_WriteComm(0xCBd8);
SPI_WriteData(0x00); //cbd9[7:0] : enmode H-byte of sig24 (pwrof_0, pwrof_1, norm, pwron_4 )
SPI_WriteComm(0xCBd9);
SPI_WriteData(0x04); //cbda[7:0] : enmode H-byte of sig25 (pwrof_0, pwrof_1, norm, pwron_4 )
SPI_WriteComm(0xCBda);
SPI_WriteData(0x04); //cbdb[7:0] : enmode H-byte of sig26 (pwrof_0, pwrof_1, norm, pwron_4 )
SPI_WriteComm(0xCBdb);
SPI_WriteData(0x04); //cbdc[7:0] : enmode H-byte of sig27 (pwrof_0, pwrof_1, norm, pwron_4 )
SPI_WriteComm(0xCBdc);
SPI_WriteData(0x04); //cbdd[7:0] : enmode H-byte of sig28 (pwrof_0, pwrof_1, norm, pwron_4 )
SPI_WriteComm(0xCBdd);
SPI_WriteData(0x04); //cbde[7:0] : enmode H-byte of sig29 (pwrof_0, pwrof_1, norm, pwron_4 )
SPI_WriteComm(0xCBde);
SPI_WriteData(0x04); //cbdf[7:0] : enmode H-byte of sig30 (pwrof_0, pwrof_1, norm, pwron_4 )
// cbex
SPI_WriteComm(0xCBe0);
SPI_WriteData(0x00); //cbe1[7:0] : enmode H-byte of sig31 (pwrof_0, pwrof_1, norm, pwron_4 )
SPI_WriteComm(0xCBe1);
SPI_WriteData(0x00); //cbe2[7:0] : enmode H-byte of sig32 (pwrof_0, pwrof_1, norm, pwron_4 )
SPI_WriteComm(0xCBe2);
SPI_WriteData(0x00); //cbe3[7:0] : enmode H-byte of sig33 (pwrof_0, pwrof_1, norm, pwron_4 )
SPI_WriteComm(0xCBe3);
SPI_WriteData(0x00); //cbe4[7:0] : enmode H-byte of sig34 (pwrof_0, pwrof_1, norm, pwron_4 )
SPI_WriteComm(0xCBe4);
SPI_WriteData(0x00); //cbe5[7:0] : enmode H-byte of sig35 (pwrof_0, pwrof_1, norm, pwron_4 )
SPI_WriteComm(0xCBe5);
SPI_WriteData(0x00); //cbe6[7:0] : enmode H-byte of sig36 (pwrof_0, pwrof_1, norm, pwron_4 )
SPI_WriteComm(0xCBe6);
SPI_WriteData(0x00); //cbe7[7:0] : enmode H-byte of sig37 (pwrof_0, pwrof_1, norm, pwron_4 )
SPI_WriteComm(0xCBe7);
SPI_WriteData(0x00); //cbe8[7:0] : enmode H-byte of sig38 (pwrof_0, pwrof_1, norm, pwron_4 )
SPI_WriteComm(0xCBe8);
SPI_WriteData(0x00); //cbe9[7:0] : enmode H-byte of sig39 (pwrof_0, pwrof_1, norm, pwron_4 )
SPI_WriteComm(0xCBe9);
SPI_WriteData(0x00); //cbea[7:0] : enmode H-byte of sig40 (pwrof_0, pwrof_1, norm, pwron_4 )
// cc8x
SPI_WriteComm(0xCC80);
SPI_WriteData(0x00); //cc81[7:0] : reg setting for signal01 selection with u2d mode
SPI_WriteComm(0xCC81);
SPI_WriteData(0x00); //cc82[7:0] : reg setting for signal02 selection with u2d mode
SPI_WriteComm(0xCC82);
SPI_WriteData(0x00); //cc83[7:0] : reg setting for signal03 selection with u2d mode
SPI_WriteComm(0xCC83);
SPI_WriteData(0x00); //cc84[7:0] : reg setting for signal04 selection with u2d mode
SPI_WriteComm(0xCC84);
SPI_WriteData(0x0C); //cc85[7:0] : reg setting for signal05 selection with u2d mode
SPI_WriteComm(0xCC85);
SPI_WriteData(0x0A); //cc86[7:0] : reg setting for signal06 selection with u2d mode
SPI_WriteComm(0xCC86);
SPI_WriteData(0x10); //cc87[7:0] : reg setting for signal07 selection with u2d mode
SPI_WriteComm(0xCC87);
SPI_WriteData(0x0E); //cc88[7:0] : reg setting for signal08 selection with u2d mode
SPI_WriteComm(0xCC88);
SPI_WriteData(0x03); //cc89[7:0] : reg setting for signal09 selection with u2d mode
SPI_WriteComm(0xCC89);
SPI_WriteData(0x04); //cc8a[7:0] : reg setting for signal10 selection with u2d mode
// cc9x
SPI_WriteComm(0xCC90);
SPI_WriteData(0x00); //cc91[7:0] : reg setting for signal11 selection with u2d mode
SPI_WriteComm(0xCC91);
SPI_WriteData(0x00); //cc92[7:0] : reg setting for signal12 selection with u2d mode
SPI_WriteComm(0xCC92);
SPI_WriteData(0x00); //cc93[7:0] : reg setting for signal13 selection with u2d mode
SPI_WriteComm(0xCC93);
SPI_WriteData(0x00); //cc94[7:0] : reg setting for signal14 selection with u2d mode
SPI_WriteComm(0xCC94);
SPI_WriteData(0x00); //cc95[7:0] : reg setting for signal15 selection with u2d mode
SPI_WriteComm(0xCC95);
SPI_WriteData(0x00); //cc96[7:0] : reg setting for signal16 selection with u2d mode
SPI_WriteComm(0xCC96);
SPI_WriteData(0x00); //cc97[7:0] : reg setting for signal17 selection with u2d mode
SPI_WriteComm(0xCC97);
SPI_WriteData(0x00); //cc98[7:0] : reg setting for signal18 selection with u2d mode
SPI_WriteComm(0xCC98);
SPI_WriteData(0x00); //cc99[7:0] : reg setting for signal19 selection with u2d mode
SPI_WriteComm(0xCC99);
SPI_WriteData(0x00); //cc9a[7:0] : reg setting for signal20 selection with u2d mode
SPI_WriteComm(0xCC9a);
SPI_WriteData(0x00); //cc9b[7:0] : reg setting for signal21 selection with u2d mode
SPI_WriteComm(0xCC9b);
SPI_WriteData(0x00); //cc9c[7:0] : reg setting for signal22 selection with u2d mode
SPI_WriteComm(0xCC9c);
SPI_WriteData(0x00); //cc9d[7:0] : reg setting for signal23 selection with u2d mode
SPI_WriteComm(0xCC9d);
SPI_WriteData(0x00); //cc9e[7:0] : reg setting for signal24 selection with u2d mode
SPI_WriteComm(0xCC9e);
SPI_WriteData(0x0B); //cc9f[7:0] : reg setting for signal25 selection with u2d mode
// ccax
SPI_WriteComm(0xCCa0);
SPI_WriteData(0x09); //cca1[7:0] : reg setting for signal26 selection with u2d mode
SPI_WriteComm(0xCCa1);
SPI_WriteData(0x0F); //cca2[7:0] : reg setting for signal27 selection with u2d mode
SPI_WriteComm(0xCCa2);
SPI_WriteData(0x0D); //cca3[7:0] : reg setting for signal28 selection with u2d mode
SPI_WriteComm(0xCCa3);
SPI_WriteData(0x01); //cca4[7:0] : reg setting for signal29 selection with u2d mode
SPI_WriteComm(0xCCa4);
SPI_WriteData(0x02); //cca5[7:0] : reg setting for signal20 selection with u2d mode
SPI_WriteComm(0xCCa5);
SPI_WriteData(0x00); //cca6[7:0] : reg setting for signal31 selection with u2d mode
SPI_WriteComm(0xCCa6);
SPI_WriteData(0x00); //cca7[7:0] : reg setting for signal32 selection with u2d mode
SPI_WriteComm(0xCCa7);
SPI_WriteData(0x00); //cca8[7:0] : reg setting for signal33 selection with u2d mode
SPI_WriteComm(0xCCa8);
SPI_WriteData(0x00); //cca9[7:0] : reg setting for signal34 selection with u2d mode
SPI_WriteComm(0xCCa9);
SPI_WriteData(0x00); //ccaa[7:0] : reg setting for signal35 selection with u2d mode
SPI_WriteComm(0xCCaa);
SPI_WriteData(0x00); //ccab[7:0] : reg setting for signal36 selection with u2d mode
SPI_WriteComm(0xCCab);
SPI_WriteData(0x00); //ccac[7:0] : reg setting for signal37 selection with u2d mode
SPI_WriteComm(0xCCac);
SPI_WriteData(0x00); //ccad[7:0] : reg setting for signal38 selection with u2d mode
SPI_WriteComm(0xCCad);
SPI_WriteData(0x00); //ccae[7:0] : reg setting for signal39 selection with u2d mode
SPI_WriteComm(0xCCae);
SPI_WriteData(0x00); //ccaf[7:0] : reg setting for signal40 selection with u2d mode
// ccbx
SPI_WriteComm(0xCCb0);
SPI_WriteData(0x00); //ccb1[7:0] : reg setting for signal01 selection with d2u mode
SPI_WriteComm(0xCCb1);
SPI_WriteData(0x00); //ccb2[7:0] : reg setting for signal02 selection with d2u mode
SPI_WriteComm(0xCCb2);
SPI_WriteData(0x00); //ccb3[7:0] : reg setting for signal03 selection with d2u mode
SPI_WriteComm(0xCCb3);
SPI_WriteData(0x00); //ccb4[7:0] : reg setting for signal04 selection with d2u mode
SPI_WriteComm(0xCCb4);
SPI_WriteData(0x0D); //ccb5[7:0] : reg setting for signal05 selection with d2u mode
SPI_WriteComm(0xCCb5);
SPI_WriteData(0x0F); //ccb6[7:0] : reg setting for signal06 selection with d2u mode
SPI_WriteComm(0xCCb6);
SPI_WriteData(0x09); //ccb7[7:0] : reg setting for signal07 selection with d2u mode
SPI_WriteComm(0xCCb7);
SPI_WriteData(0x0B); //ccb8[7:0] : reg setting for signal08 selection with d2u mode
SPI_WriteComm(0xCCb8);
SPI_WriteData(0x02); //ccb9[7:0] : reg setting for signal09 selection with d2u mode
SPI_WriteComm(0xCCb9);
SPI_WriteData(0x01); //ccba[7:0] : reg setting for signal10 selection with d2u mode
// cccx
SPI_WriteComm(0xCCc0);
SPI_WriteData(0x00); //ccc1[7:0] : reg setting for signal11 selection with d2u mode
SPI_WriteComm(0xCCc1);
SPI_WriteData(0x00); //ccc2[7:0] : reg setting for signal12 selection with d2u mode
SPI_WriteComm(0xCCc2);
SPI_WriteData(0x00); //ccc3[7:0] : reg setting for signal13 selection with d2u mode
SPI_WriteComm(0xCCc3);
SPI_WriteData(0x00); //ccc4[7:0] : reg setting for signal14 selection with d2u mode
SPI_WriteComm(0xCCc4);
SPI_WriteData(0x00); //ccc5[7:0] : reg setting for signal15 selection with d2u mode
SPI_WriteComm(0xCCc5);
SPI_WriteData(0x00); //ccc6[7:0] : reg setting for signal16 selection with d2u mode
SPI_WriteComm(0xCCc6);
SPI_WriteData(0x00); //ccc7[7:0] : reg setting for signal17 selection with d2u mode
SPI_WriteComm(0xCCc7);
SPI_WriteData(0x00); //ccc8[7:0] : reg setting for signal18 selection with d2u mode
SPI_WriteComm(0xCCc8);
SPI_WriteData(0x00); //ccc9[7:0] : reg setting for signal19 selection with d2u mode
SPI_WriteComm(0xCCc9);
SPI_WriteData(0x00); //ccca[7:0] : reg setting for signal20 selection with d2u mode
SPI_WriteComm(0xCCca);
SPI_WriteData(0x00); //cccb[7:0] : reg setting for signal21 selection with d2u mode
SPI_WriteComm(0xCCcb);
SPI_WriteData(0x00); //cccc[7:0] : reg setting for signal22 selection with d2u mode
SPI_WriteComm(0xCCcc);
SPI_WriteData(0x00); //cccd[7:0] : reg setting for signal23 selection with d2u mode
SPI_WriteComm(0xCCcd);
SPI_WriteData(0x00); //ccce[7:0] : reg setting for signal24 selection with d2u mode
SPI_WriteComm(0xCCce);
SPI_WriteData(0x0E); //cccf[7:0] : reg setting for signal25 selection with d2u mode
// ccdx
SPI_WriteComm(0xCCd0);
SPI_WriteData(0x10); //ccd1[7:0] : reg setting for signal26 selection with d2u mode
SPI_WriteComm(0xCCd1);
SPI_WriteData(0x0A); //ccd2[7:0] : reg setting for signal27 selection with d2u mode
SPI_WriteComm(0xCCd2);
SPI_WriteData(0x0C); //ccd3[7:0] : reg setting for signal28 selection with d2u mode
SPI_WriteComm(0xCCd3);
SPI_WriteData(0x04); //ccd4[7:0] : reg setting for signal29 selection with d2u mode
SPI_WriteComm(0xCCd4);
SPI_WriteData(0x03); //ccd5[7:0] : reg setting for signal30 selection with d2u mode
SPI_WriteComm(0xCCd5);
SPI_WriteData(0x00); //ccd6[7:0] : reg setting for signal31 selection with d2u mode
SPI_WriteComm(0xCCd6);
SPI_WriteData(0x00); //ccd7[7:0] : reg setting for signal32 selection with d2u mode
SPI_WriteComm(0xCCd7);
SPI_WriteData(0x00); //ccd8[7:0] : reg setting for signal33 selection with d2u mode
SPI_WriteComm(0xCCd8);
SPI_WriteData(0x00); //ccd9[7:0] : reg setting for signal34 selection with d2u mode
SPI_WriteComm(0xCCd9);
SPI_WriteData(0x00); //ccda[7:0] : reg setting for signal35 selection with d2u mode
SPI_WriteComm(0xCCda);
SPI_WriteData(0x00); //ccdb[7:0] : reg setting for signal36 selection with d2u mode
SPI_WriteComm(0xCCdb);
SPI_WriteData(0x00); //ccdc[7:0] : reg setting for signal37 selection with d2u mode
SPI_WriteComm(0xCCdc);
SPI_WriteData(0x00); //ccdd[7:0] : reg setting for signal38 selection with d2u mode
SPI_WriteComm(0xCCdd);
SPI_WriteData(0x00); //ccde[7:0] : reg setting for signal39 selection with d2u mode
SPI_WriteComm(0xCCde);
SPI_WriteData(0x00); //ccdf[7:0] : reg setting for signal40 selection with d2u mode
///=============================
SPI_WriteComm(0x3A00);
SPI_WriteData(0x77); //24bit //MCU 16bits D[15:0]
SPI_WriteComm(0x1100);
mdelay(500);
SPI_WriteComm(0x2900);
mdelay(200);
SPI_WriteComm(0x2c00);
dprintf(0,"LCD_HX8369_Init end\n");
return 0;
}
