static int sonywvga_panel_unblank(struct msm_lcdc_panel_ops *panel_data)
{
	LCMDBG("%s\n", __func__);

        wake_lock(&panel_idle_lock);
        mutex_lock(&panel_lock);

	hr_msleep(100);
	qspi_send_9bit(&unblank_msg);
	hr_msleep(20);
	//init gamma setting
	if(!is_sony_with_gamma())
		lcm_write_tb(SONY_TFT_INIT_TABLE,
			ARRAY_SIZE(SONY_TFT_INIT_TABLE));

	sonywvga_set_gamma_val(last_val_pwm);

	g_unblank_stage = 1;

        mutex_unlock(&panel_lock);
        wake_unlock(&panel_idle_lock);

	return 0;
}
Example #2
0
static int sony_tft_panel_unblank(struct msm_lcdc_panel_ops *ops)
{
	pr_info("%s: +()\n", __func__);

	mutex_lock(&panel_lock);

	if (tft_panel_on) {
		pr_info("%s: -() already unblanked\n", __func__);
		goto done;
	}

	sony_tft_panel_power(1);
	msleep(45);

	clk_enable(spi_clk);
	qspi_send_9bit(0x0, 0x11);
	msleep(5);
	qspi_send_9bit(0x0, 0x3a);
	if (is_sony_RGB666())
		qspi_send_9bit(0x1, 0x06);
	else
		qspi_send_9bit(0x1, 0x05);
	msleep(100);
	qspi_send_9bit(0x0, 0x29);
	msleep(20);

	//init gamma setting
	if(!is_sony_with_gamma())
		sony_tft_panel_without_gamma_init();

	/* unlock register page for pwm setting */
	if (is_sony_spi()) {
		qspi_send_9bit(0x0, 0xf0);
		qspi_send_9bit(0x1, 0x5a);
		qspi_send_9bit(0x1, 0x5a);
		qspi_send_9bit(0x0, 0xf1);
		qspi_send_9bit(0x1, 0x5a);
		qspi_send_9bit(0x1, 0x5a);
		qspi_send_9bit(0x0, 0xd0);
		qspi_send_9bit(0x1, 0x5a);
		qspi_send_9bit(0x1, 0x5a);

		qspi_send_9bit(0x0, 0xc2);
		qspi_send_9bit(0x1, 0x53);
		qspi_send_9bit(0x1, 0x12);
	}
	clk_disable(spi_clk);
	msleep(100);
	tft_panel_on = 1;
	sony_tft_set_pwm_val(last_val);

	pr_info("%s: -()\n", __func__);
done:
	mutex_unlock(&panel_lock);
	return 0;
}
Example #3
0
static void sony_tft_panel_without_gamma_init(void)
{
	pr_info("%s: init gamma setting", __func__);

	qspi_send_9bit(0x0, 0xF1);
	qspi_send_9bit(0x1, 0x5A);
	qspi_send_9bit(0x1, 0x5A);
	// FAh RGB
	qspi_send_9bit(0x0, 0xFA);
	// Red
	qspi_send_9bit(0x1, 0x32);
	qspi_send_9bit(0x1, 0x3F);
	qspi_send_9bit(0x1, 0x3F);
	qspi_send_9bit(0x1, 0x29);
	qspi_send_9bit(0x1, 0x3E);
	qspi_send_9bit(0x1, 0x3C);
	qspi_send_9bit(0x1, 0x3D);
	qspi_send_9bit(0x1, 0x2C);
	qspi_send_9bit(0x1, 0x27);
	qspi_send_9bit(0x1, 0x3D);
	qspi_send_9bit(0x1, 0x2E);
	qspi_send_9bit(0x1, 0x31);
	qspi_send_9bit(0x1, 0x3A);
	qspi_send_9bit(0x1, 0x34);
	qspi_send_9bit(0x1, 0x36);
	// Green
	qspi_send_9bit(0x1, 0x1A);
	qspi_send_9bit(0x1, 0x3F);
	qspi_send_9bit(0x1, 0x3F);
	qspi_send_9bit(0x1, 0x2E);
	qspi_send_9bit(0x1, 0x40);
	qspi_send_9bit(0x1, 0x3C);
	qspi_send_9bit(0x1, 0x3C);
	qspi_send_9bit(0x1, 0x2B);
	qspi_send_9bit(0x1, 0x25);
	qspi_send_9bit(0x1, 0x39);
	qspi_send_9bit(0x1, 0x25);
	qspi_send_9bit(0x1, 0x23);
	qspi_send_9bit(0x1, 0x2A);
	qspi_send_9bit(0x1, 0x20);
	qspi_send_9bit(0x1, 0x22);
	// Blue
	qspi_send_9bit(0x1, 0x00);
	qspi_send_9bit(0x1, 0x3F);
	qspi_send_9bit(0x1, 0x3F);
	qspi_send_9bit(0x1, 0x2F);
	qspi_send_9bit(0x1, 0x3E);
	qspi_send_9bit(0x1, 0x3C);
	qspi_send_9bit(0x1, 0x3C);
	qspi_send_9bit(0x1, 0x2A);
	qspi_send_9bit(0x1, 0x23);
	qspi_send_9bit(0x1, 0x35);
	qspi_send_9bit(0x1, 0x1E);
	qspi_send_9bit(0x1, 0x18);
	qspi_send_9bit(0x1, 0x1C);
	qspi_send_9bit(0x1, 0x0C);
	qspi_send_9bit(0x1, 0x0E);
	// FBh RGB
	qspi_send_9bit(0x0, 0xFB);
	// Red
	qspi_send_9bit(0x1, 0x00);
	qspi_send_9bit(0x1, 0x0D);
	qspi_send_9bit(0x1, 0x09);
	qspi_send_9bit(0x1, 0x0C);
	qspi_send_9bit(0x1, 0x26);
	qspi_send_9bit(0x1, 0x2E);
	qspi_send_9bit(0x1, 0x31);
	qspi_send_9bit(0x1, 0x22);
	qspi_send_9bit(0x1, 0x19);
	qspi_send_9bit(0x1, 0x33);
	qspi_send_9bit(0x1, 0x22);
	qspi_send_9bit(0x1, 0x23);
	qspi_send_9bit(0x1, 0x21);
	qspi_send_9bit(0x1, 0x17);
	qspi_send_9bit(0x1, 0x00);
	// Green
	qspi_send_9bit(0x1, 0x00);
	qspi_send_9bit(0x1, 0x25);
	qspi_send_9bit(0x1, 0x1D);
	qspi_send_9bit(0x1, 0x1F);
	qspi_send_9bit(0x1, 0x35);
	qspi_send_9bit(0x1, 0x3C);
	qspi_send_9bit(0x1, 0x3A);
	qspi_send_9bit(0x1, 0x26);
	qspi_send_9bit(0x1, 0x1B);
	qspi_send_9bit(0x1, 0x34);
	qspi_send_9bit(0x1, 0x23);
	qspi_send_9bit(0x1, 0x23);
	qspi_send_9bit(0x1, 0x1F);
	qspi_send_9bit(0x1, 0x12);
	qspi_send_9bit(0x1, 0x00);
	// Blue
	qspi_send_9bit(0x1, 0x00);
	qspi_send_9bit(0x1, 0x3F);
	qspi_send_9bit(0x1, 0x31);
	qspi_send_9bit(0x1, 0x33);
	qspi_send_9bit(0x1, 0x43);
	qspi_send_9bit(0x1, 0x48);
	qspi_send_9bit(0x1, 0x41);
	qspi_send_9bit(0x1, 0x2A);
	qspi_send_9bit(0x1, 0x1D);
	qspi_send_9bit(0x1, 0x35);
	qspi_send_9bit(0x1, 0x23);
	qspi_send_9bit(0x1, 0x23);
	qspi_send_9bit(0x1, 0x21);
	qspi_send_9bit(0x1, 0x10);
	qspi_send_9bit(0x1, 0x00);
	// F3h Power control
	qspi_send_9bit(0x0, 0xF3);
	qspi_send_9bit(0x1, 0x00);
	qspi_send_9bit(0x1, 0x10);
	qspi_send_9bit(0x1, 0x25);
	qspi_send_9bit(0x1, 0x01);
	qspi_send_9bit(0x1, 0x2D);
	qspi_send_9bit(0x1, 0x2D);
	qspi_send_9bit(0x1, 0x24);
	qspi_send_9bit(0x1, 0x2D);
	qspi_send_9bit(0x1, 0x10);
	qspi_send_9bit(0x1, 0x10);
	qspi_send_9bit(0x1, 0x0A);
	qspi_send_9bit(0x1, 0x37);
	// F4h VCOM Control
	qspi_send_9bit(0x0, 0xF4);
	qspi_send_9bit(0x1, 0x88);
	qspi_send_9bit(0x1, 0x20);
	qspi_send_9bit(0x1, 0x00);
	qspi_send_9bit(0x1, 0xAF);
	qspi_send_9bit(0x1, 0x64);
	qspi_send_9bit(0x1, 0x00);
	qspi_send_9bit(0x1, 0xAA);
	qspi_send_9bit(0x1, 0x64);
	qspi_send_9bit(0x1, 0x00);
	qspi_send_9bit(0x1, 0x00);
	//Change to level 1
	qspi_send_9bit(0x0, 0xF0);
	qspi_send_9bit(0x1, 0x5A);
	qspi_send_9bit(0x1, 0x5A);
}
static int lcm_write_cmd(struct spi_msg cmd)
{
        int ret = -1;
	ret = qspi_send_9bit(&cmd);
        return 0;
}
static int sony_tft_panel_unblank(struct msm_lcdc_panel_ops *ops)
{
	pr_info("%s: +()\n", __func__);

	mutex_lock(&panel_lock);

	if (tft_panel_on) {
		pr_info("%s: -() already unblanked\n", __func__);
		goto done;
	}

	sony_tft_panel_power(1);
	msleep(45);

	clk_enable(spi_clk);
	qspi_send_9bit(0x0, 0x11);
	msleep(5);
	qspi_send_9bit(0x0, 0x3a);
	qspi_send_9bit(0x1, 0x05);
	msleep(100);
	qspi_send_9bit(0x0, 0x29);
	/* unlock register page for pwm setting */
	qspi_send_9bit(0x0, 0xf0);
	qspi_send_9bit(0x1, 0x5a);
	qspi_send_9bit(0x1, 0x5a);
	qspi_send_9bit(0x0, 0xf1);
	qspi_send_9bit(0x1, 0x5a);
	qspi_send_9bit(0x1, 0x5a);
	qspi_send_9bit(0x0, 0xd0);
	qspi_send_9bit(0x1, 0x5a);
	qspi_send_9bit(0x1, 0x5a);

	qspi_send_9bit(0x0, 0xc2);
	qspi_send_9bit(0x1, 0x53);
	qspi_send_9bit(0x1, 0x12);
	clk_disable(spi_clk);
	msleep(100);
	tft_panel_on = 1;
	sony_tft_set_pwm_val(last_val);

	pr_info("%s: -()\n", __func__);
done:
	mutex_unlock(&panel_lock);
	return 0;
}
static void mecha_brightness_set(struct led_classdev *led_cdev,
		enum led_brightness val)
{
	struct spi_msg set_brightness = {
                .cmd = 0x51,
                .len = 1,
                .data = (unsigned char *)&val,
	};
	uint8_t shrink_br;

	mutex_lock(&panel_lock);
	if (val < 30)
		shrink_br = 8;
	else if ((val >= 30) && (val <= 143))
		shrink_br = 151 * (val - 30) / 113 + 8;
	else
		shrink_br = 96 * (val - 143) / 112 + 159;

	if (panel_type == PANEL_AUO) {
		qspi_send_16bit(0x1, 0x51);
		qspi_send_16bit(0x0, 0x00);
		qspi_send_16bit(0x2, shrink_br);
	} else {
		set_brightness.data = (unsigned char *)&shrink_br;
		qspi_send_9bit(&set_brightness);
	}
	last_val = shrink_br;
	mutex_unlock(&panel_lock);
}

static int mecha_cabc_switch(int on)
{

	if (test_bit(CABC_STATE, &status) == on)
               return 1;

	if (on) {
		printk(KERN_DEBUG "turn on CABC\n");
		set_bit(CABC_STATE, &status);
		mutex_lock(&panel_lock);
		if (panel_type == PANEL_AUO)
			lcm_auo_write_seq(auo_enable_cabc, ARRAY_SIZE(auo_enable_cabc));
		else
			lcm_sharp_write_seq(sharp_enable_cabc, ARRAY_SIZE(sharp_enable_cabc));
		mutex_unlock(&panel_lock);
	} else {
		printk(KERN_DEBUG "turn off CABC\n");
		clear_bit(CABC_STATE, &status);
		mutex_lock(&panel_lock);
		if (panel_type == PANEL_AUO)
			lcm_auo_write_seq(auo_disable_cabc, ARRAY_SIZE(auo_disable_cabc));
		else
			lcm_sharp_write_seq(sharp_disable_cabc, ARRAY_SIZE(sharp_disable_cabc));
		mutex_unlock(&panel_lock);
	}
	return 1;
}

static ssize_t
auto_backlight_show(struct device *dev, struct device_attribute *attr, char *buf);
static ssize_t
auto_backlight_store(struct device *dev, struct device_attribute *attr,
               const char *buf, size_t count);
#define CABC_ATTR(name) __ATTR(name, 0644, auto_backlight_show, auto_backlight_store)

static struct device_attribute auto_attr = CABC_ATTR(auto);
static ssize_t
auto_backlight_show(struct device *dev, struct device_attribute *attr, char *buf)
{
	int i = 0;

	i += scnprintf(buf + i, PAGE_SIZE - 1, "%d\n",
				test_bit(CABC_STATE, &status));
	return i;
}