static ssize_t flash_store(struct device *dev, struct device_attribute *attr,
const char *buf, size_t count)
{
if(*buf == '0') {
pr_info("%s: torch flash off\n", __func__);
gpio_request_one(GPIO_TORCH_EN, GPIOF_OUT_INIT_LOW, "FLASH_OUTPUT_LOW");
gpio_free(GPIO_TORCH_EN);
if(__gpio_get_value(GPIO_MAIN_CAM_RST)) {
pr_err("%s: torch flash off on running camera.(%d)!!\n", __func__,
__gpio_get_value(GPIO_MAIN_CAM_RST));
/* hand over the permission in order to handle the flash pins in the isp of camera. */
s3c_gpio_cfgpin(GPIO_TORCH_EN, (2 << 16));
s3c_gpio_setpull(GPIO_TORCH_EN, S3C_GPIO_PULL_NONE);
s3c_gpio_cfgpin(GPIO_FLASH_EN, (2 << 24));
s3c_gpio_setpull(GPIO_FLASH_EN, S3C_GPIO_PULL_NONE);
}
} else {
pr_info("%s: torch flash on\n", __func__);
gpio_request_one(GPIO_TORCH_EN, GPIOF_OUT_INIT_HIGH, "FLASH_OUTPUT_HIGH");
gpio_free(GPIO_TORCH_EN);
}
return count;
}
static void gpio_btn_timer_handler(unsigned long data)
{
gpio_btn_timer.expires = jiffies + 1 * HZ;
printk(" the gpio timer is called ! time is %d \n", btn_time);
if ( btn_time<5 )
{ if (__gpio_get_value(GPIO_BTN)==1)
{
printk("*** Begin rebooting system!! \n");
gpio_direction_output(GPIO_BTN2,0);
}
else
{
btn_time++;
mod_timer(&gpio_btn_timer,jiffies + 1 * HZ);
}
}
else
{ if (__gpio_get_value(GPIO_BTN)==1)
{
printk("*** You can realize restore functionality yourself! \n");
//queue_work(gpio_btn_wq, gpio_btn_wk);
del_timer(&gpio_btn_timer);
}
else
{
btn_time++;
mod_timer(&gpio_btn_timer,jiffies + 1 * HZ);
}
}
}
int sr130pc10_sensor_power_down(struct msm_sensor_ctrl_t *s_ctrl)
{
int rc = 0;
int temp = 0;
struct msm_camera_sensor_info *data = s_ctrl->sensordata;
pr_info("=== POWER DOWN Start ===");
sr130pc10_sensor_write(0x03, 0x02);
sr130pc10_sensor_write(0x55, 0x10);
mdelay(1);
udelay(50);
gpio_set_value_cansleep(data->sensor_platform_info->sensor_reset, 0);
temp = __gpio_get_value(data->sensor_platform_info->sensor_reset);
pr_info("[%s]check sensor_reset : %d\n", __func__, temp);
gpio_set_value_cansleep(data->sensor_platform_info->sensor_stby, 0);
temp = __gpio_get_value(data->sensor_platform_info->sensor_stby);
pr_info("[%s]check sensor_stby : %d\n", __func__, temp);
gpio_set_value_cansleep(data->sensor_platform_info->vt_sensor_reset, 0);
temp = __gpio_get_value(data->sensor_platform_info->vt_sensor_reset);
pr_info("[%s]check vt_sensor_reset : %d\n", __func__, temp);
mdelay(2);
/*CAM_MCLK0*/
msm_cam_clk_enable(&s_ctrl->sensor_i2c_client->client->dev,
cam_clk_info, &s_ctrl->cam_clk, \
ARRAY_SIZE(cam_clk_info), 0);
gpio_tlmm_config(GPIO_CFG(data->sensor_platform_info->mclk, 0,
GPIO_CFG_OUTPUT, GPIO_CFG_PULL_DOWN, \
GPIO_CFG_2MA),
GPIO_CFG_ENABLE);
udelay(10);
gpio_set_value_cansleep(data->sensor_platform_info->vt_sensor_stby, 0);
temp = __gpio_get_value(data->sensor_platform_info->vt_sensor_stby);
pr_info("[%s] check VT standby : %d", __func__, temp);
udelay(10);
data->sensor_platform_info->sensor_power_off(1);
msm_camera_request_gpio_table(data, 0);
sr130pc10_ctrl->op_mode = 0;
sr130pc10_ctrl->dtp_mode = 0;
sr130pc10_ctrl->settings.exposure = 0;
#ifdef CONFIG_LOAD_FILE
sr130pc10_regs_table_exit();
#endif
return rc;
}
/*
* Refer to MSM_CAM_IOCTL_FLASH_LED_CFG used by mm-camera in user space
* flash_led_enable is set in apps's menu item selected by user
* 0: disable Flash LED
* 1: enable Flash LED
*/
int32_t msm_camera_flash_set_led_state(struct msm_camera_sensor_flash_data *fdata,
unsigned led_state)
{
int32_t rc = 0;
pr_err("%s: led_state: %d,fdata->flash_type=%d\n", __func__, led_state,fdata->flash_type);
if (fdata->flash_type != MSM_CAMERA_FLASH_LED)
{
return -ENODEV;
}
switch(led_state)
{
case MSM_CAMERA_LED_OFF:
if( __gpio_get_value(MSM_CAMERA_FLASH_LED_GPIO))
msm_camera_flash_set_led_gpio(0);
break;
case MSM_CAMERA_LED_LOW:
if (flash_led_enable==1)
{//MSM_LED_MODE_ON
msm_camera_set_flash_torch_mode(5);
}
else if(flash_led_enable==2)
{
//MSM_LED_MODE_AUTO
if(zte_get_flash_auto_flag_value()== 1)
{
msm_camera_set_flash_torch_mode(5);
}
}
break;
case MSM_CAMERA_LED_HIGH:
msm_camera_flash_led_enable();
break;
case MSM_CAMERA_LED_RELEASE:
if( __gpio_get_value(MSM_CAMERA_FLASH_LED_GPIO))
msm_camera_flash_set_led_gpio(0);
break;
default:
rc = -EFAULT;
pr_err("%s: rc=%d\n", __func__, rc);
return rc;
}
return rc;
}
/* Put data into the proc fs file.
*
* Arguments
* =========
* 1. The buffer where the data is to be inserted, if
* you decide to use it.
* 2. A pointer to a pointer to characters. This is
* useful if you don't want to use the buffer
* allocated by the kernel.
* 3. The current position in the file
* 4. The size of the buffer in the first argument.
* 5. Write a "1" here to indicate EOF.
* 6. A pointer to data (useful in case one common
* read for multiple /proc/... entries)
*
* Usage and Return Value
* ======================
* A return value of zero means you have no further
* information at this time (end of file). A negative
* return value is an error condition.
*
* For More Information
* ====================
* The way I discovered what to do with this function
* wasn't by reading documentation, but by reading the
* code which used it. I just looked to see what uses
* the get_info field of proc_dir_entry struct (I used a
* combination of find and grep, if you're interested),
* and I saw that it is used in <kernel source
* directory>/fs/proc/array.c.
*
* If something is unknown about the kernel, this is
* usually the way to go. In Linux we have the great
* advantage of having the kernel source code for
* free - use it.
*/
static int
procfile_read(char *buffer,
char **buffer_location,
off_t offset, int buffer_length, int *eof, void *data)
{
int ret;
int value = -1;
if (offset > 0) {
/* we have finished to read, return 0 */
ret = 0;
} else {
if(lid_stat >=0){
gpio_direction_input(lid_stat);
value = __gpio_get_value(lid_stat);
/* fill the buffer, return the buffer size */
ret = sprintf(buffer,"%d",value);
}else{
printk("err! have not set wmt.gpo.printer uboot variant\n");
ret = -1;
}
}
return ret;
}
int gpio_get_value(unsigned gpio)
{
if (gpio < ath79_gpio_count)
return __ath79_gpio_get_value(gpio);
return __gpio_get_value(gpio);
}
static int hall_out_status_show(struct seq_file *s, void *unused)
{
int state;
state = __gpio_get_value(CEI_HALL_OUT);
seq_printf(s, "%d\n", state);
return 0;
}
static void hall_out_handler(unsigned long data)
{
/**/
#if 0
int state;
state = __gpio_get_value(CEI_HALL_OUT);
kpd_print("[Keypad] state = %d , old_INT_stat = %d \n", (int)state, old_INT_stat);
if(old_INT_stat != state)
{
if(state == 1)
{
kpd_print("[Keypad] hall_out (0 -> 1) OPEN\n");
}
else
{
kpd_print("[Keypad] hall_out (1 -> 0) CLOSE\n");
}
old_INT_stat = state;
switch_set_state((struct switch_dev *)&sdev, state);
}
#endif
kpd_print("[Keypad] %s() Enter\n", __FUNCTION__);
schedule_delayed_work(&hall_work, 0);
/**/
enable_irq(hall_irqnr);
}
static int gpio_sw_data_get(struct gpio_sw_classdev *gpio_sw_cdev)
{
struct gpio_sw *gpio = to_gpio(gpio_sw_cdev);
int ret;
ret = __gpio_get_value(gpio->cdev.pio_hdle);
return ret;
}
__s32 ir_gpio_read_one_pin_value(u32 p_handler, const char *gpio_name)
{
if(p_handler) {
return __gpio_get_value(p_handler);
}
printk("OSAL_GPIO_DevREAD_ONEPIN_DATA, hdl is NULL\n");
return -1;
}
__s32 OSAL_GPIO_DevREAD_ONEPIN_DATA(u32 p_handler, const char *gpio_name)
{
if(p_handler) {
return __gpio_get_value(p_handler);
}
__wrn("OSAL_GPIO_DevREAD_ONEPIN_DATA, hdl is NULL\n");
return -1;
}
static bool musb_is_host(void)
{
u8 devctl = 0;
int iddig_state = 1;
bool usb_is_host = 0;
DBG(0, "will mask PMIC charger detection\n");
#ifndef FPGA_PLATFORM
pmic_chrdet_int_en(0);
#endif
musb_platform_enable(mtk_musb);
#ifdef ID_PIN_USE_EX_EINT
#ifndef CONFIG_MTK_FPGA
#ifdef CONFIG_OF
#if defined(CONFIG_MTK_LEGACY)
iddig_state = mt_get_gpio_in(iddig_pin);
#else
iddig_state = __gpio_get_value(iddig_pin);
#endif
#else
iddig_state = mt_get_gpio_in(GPIO_OTG_IDDIG_EINT_PIN);
#endif
DBG(0, "iddig_state = %d\n", iddig_state);
#endif
#else
iddig_state = 0;
devctl = musb_readb(mtk_musb->mregs, MUSB_DEVCTL);
DBG(0, "devctl = %x before end session\n", devctl);
devctl &= ~MUSB_DEVCTL_SESSION; /* this will cause A-device change back to B-device after A-cable plug out */
musb_writeb(mtk_musb->mregs, MUSB_DEVCTL, devctl);
msleep(delay_time);
devctl = musb_readb(mtk_musb->mregs, MUSB_DEVCTL);
DBG(0, "devctl = %x before set session\n", devctl);
devctl |= MUSB_DEVCTL_SESSION;
musb_writeb(mtk_musb->mregs, MUSB_DEVCTL, devctl);
msleep(delay_time1);
devctl = musb_readb(mtk_musb->mregs, MUSB_DEVCTL);
DBG(0, "devclt = %x\n", devctl);
#endif
if (devctl & MUSB_DEVCTL_BDEVICE || iddig_state) {
DBG(0, "will unmask PMIC charger detection\n");
#ifndef FPGA_PLATFORM
pmic_chrdet_int_en(1);
#endif
usb_is_host = false;
} else {
usb_is_host = true;
}
DBG(0, "usb_is_host = %d\n", usb_is_host);
return usb_is_host;
}
int cy_as_hal_detect_SD(void)
{
uint8_t f_det;
f_det = __gpio_get_value(AST__rn_b);
if( f_det ) // removed;
return 0;
//inserted
return 1;
}
static irqreturn_t host_notifier_currentlimit_irq_isr(int irq, void *data)
{
unsigned long flags = 0;
int gpio_value = 0;
irqreturn_t ret = IRQ_NONE;
spin_lock_irqsave(&ninfo.vbus_gpio.lock, flags);
gpio_value = __gpio_get_value(ninfo.pdata->gpio);
if (ninfo.vbus_gpio.gpio_status != gpio_value) {
ninfo.vbus_gpio.gpio_status = gpio_value;
ret = IRQ_WAKE_THREAD;
} else
ret = IRQ_HANDLED;
spin_unlock_irqrestore(&ninfo.vbus_gpio.lock, flags);
return ret;
}
int gpio_get_value(unsigned gpio)
{
u32 val;
u32 mask;
if (gpio >= STLS2F_N_GPIO)
return __gpio_get_value(gpio);
mask = 1 << (gpio + STLS2F_GPIO_IN_OFFSET);
spin_lock(&gpio_lock);
val = LOONGSON_GPIODATA;
spin_unlock(&gpio_lock);
return ((val & mask) != 0);
}
unsigned int hwid_map(void)
{
int i, hwid_logic=0;
int rc=-1;
for(i=0; i<ARRAY_SIZE(HWID_GPIO); i++)
{
hwid_logic +=( ( !!__gpio_get_value(HWID_GPIO[i].gpio) ) << i );
}
pr_info("HWID_LOGIC 0x%x\r\n",hwid_logic);
if(of_machine_is_compatible("qcom,msm8916"))
{
HWID_MAP=HWID_MAP_8916;
pr_info("CPU 8916 HWID MAP\r\n");
}
else if (of_machine_is_compatible("qcom,msm8936"))
{
HWID_MAP=HWID_MAP_8936;
pr_info("CPU 8936 HWID MAP\r\n");
}
else if (of_machine_is_compatible("qcom,msm8939"))
{
HWID_MAP=HWID_MAP_8936; //use 8936 HWID MAP replace
pr_info("CPU 8939 HWID MAP\r\n");
}
else
{
HWID_MAP=HWID_MAP_8936;
pr_info("use default CPU 8936 HWID MAP\r\n");
}
for(i=0; HWID_MAP[i].HWID_LOGIC!=0xff; i++)
{
if(hwid_logic==HWID_MAP[i].HWID_LOGIC)
{
FIH_PROJECT_ID = HWID_MAP[i].PROJECT;
FIH_BAND_ID = HWID_MAP[i].BAND;
FIH_PHASE_ID = HWID_MAP[i].PHASE;
FIH_SIM_ID = HWID_MAP[i].SIM;
rc=0;
break;
}
}
return rc;
}
static ssize_t data_read_normalmode(struct file *file, char __user *data, size_t count, loff_t *ppos)
{
ssize_t size = 0;
int value = 0;
int* gpio = file->private_data;
value = __gpio_get_value(*gpio);
if(value == 0)
size = simple_read_from_buffer(data, count, ppos, "OFF\n", sizeof("OFF\n"));
else if(value == 1)
size = simple_read_from_buffer(data, count, ppos, "ON\n", sizeof("ON\n"));
else
pr_err("%s : GPIO_LED wrong data\n", __func__);
return size;
}
static void gpio_keys_gpio_report_event(struct gpio_button_data *bdata)
{
const struct gpio_keys_button *button = bdata->button;
struct input_dev *input = bdata->input;
unsigned int type = button->type ?: EV_KEY;
int state =
(__gpio_get_value(button->gpio) ? 1 : 0) ^ button->active_low;
pr_info("[KEY] code:%d, value:%d\n", button->code, !!state);
#ifdef CONFIG_SEC_DEBUG
sec_debug_check_crash_key(button->code, state);
#endif
if (type == EV_ABS) {
if (state)
input_event(input, type, button->code, button->value);
} else {
input_event(input, type, button->code, !!state);
}
input_sync(input);
}
static irqreturn_t sunxi_isr_gk(int irq, void *dummy)
{
dprintk(DEBUG_INT, "sunxi gpio key int \n");
mutex_lock(&gk_mutex);
if(__gpio_get_value(power_key_io.gpio)){
if (suspend_flg) {
input_report_key(sunxigk_dev, KEY_POWER, 1);
input_sync(sunxigk_dev);
dprintk(DEBUG_INT, "report data: power key down \n");
suspend_flg = 0;
}
input_report_key(sunxigk_dev, KEY_POWER, 0);
input_sync(sunxigk_dev);
dprintk(DEBUG_INT, "report data: power key up \n");
}else{
input_report_key(sunxigk_dev, KEY_POWER, 1);
input_sync(sunxigk_dev);
dprintk(DEBUG_INT, "report data: power key down \n");
suspend_flg = 0;
}
mutex_unlock(&gk_mutex);
return IRQ_HANDLED;
}
static void hall_work_func(struct work_struct *work)
{
int state;
state = __gpio_get_value(CEI_HALL_OUT);
kpd_print("[Keypad] state = %d , old_INT_stat = %d \n", (int)state, old_INT_stat);
mutex_lock(&hall_state_mutex);
if(old_INT_stat != state)
{
if(state == 1)
{
kpd_print("[Keypad] hall_out (0 -> 1) OPEN\n");
}
else
{
kpd_print("[Keypad] hall_out (1 -> 0) CLOSE\n");
}
old_INT_stat = state;
switch_set_state((struct switch_dev *)&sdev, state);
}
mutex_unlock(&hall_state_mutex);
}
static int aspenite_u2o_vbus_status(unsigned int base)
{
int otg_stat1, otg_stat2, otg_pen, status = VBUS_LOW;
unsigned long flags;
local_irq_save(flags);
#if 0 /* remove the workaroud here */
#ifdef CONFIG_USB_OTG
/* FIXME on aspenite R0 boards otg stat1/stat2 could not
* reflect VBUS status yet, check with U2O itself instead
*/
if (u2o_get(base, U2xOTGSC) & U2xOTGSC_BSV)
status = VBUS_HIGH;
else
status = VBUS_LOW;
return status;
#endif
#endif
if (gpio_request(gpio_usb_otg_pen, "USB OTG Power Enable")) {
printk(KERN_ERR "%s Max7312 USB_OTG_PEN GPIO Request"
" Failed\n", __func__);
return -1;
}
if (gpio_request(gpio_usb_otg_stat1, "USB OTG VBUS stat1")) {
printk(KERN_ERR "%s Max7312 USB_OTG_STAT1 GPIO Request"
" Failed\n", __func__);
return -1;
}
if (gpio_request(gpio_usb_otg_stat2, "USB OTG Power Enable")) {
printk(KERN_ERR "%s Max7312 USB_OTG_STAT2 GPIO Request"
" Failed\n", __func__);
return -1;
}
gpio_direction_input(gpio_usb_otg_pen);
gpio_direction_input(gpio_usb_otg_stat1);
gpio_direction_input(gpio_usb_otg_stat2);
otg_pen = __gpio_get_value(gpio_usb_otg_pen);
otg_stat1 = __gpio_get_value(gpio_usb_otg_stat1);
otg_stat2 = __gpio_get_value(gpio_usb_otg_stat2);
if (otg_pen) {
status = VBUS_CHARGE;
if (otg_stat1 && otg_stat2) {
status |= VBUS_HIGH;
}
} else {
/* workaroud for some aspenite rev1 board that stat1=1
* though vbus high, conflict with max3355 spec
* if (!otg_stat1 && !otg_stat2) */
if (!otg_stat2) {
status = VBUS_HIGH;
}
}
printk(KERN_DEBUG "%s otg_pen %d stat1 %d stat2 %d status %d\n\n",
__func__, otg_pen, otg_stat1, otg_stat2, status);
gpio_free(gpio_usb_otg_pen);
gpio_free(gpio_usb_otg_stat1);
gpio_free(gpio_usb_otg_stat2);
local_irq_restore(flags);
return status;
}
static void hph_switch_gpio_L(void)
{
gpio_set_value(g_es9018_priv->es9018_data->hph_switch, 0);
pr_debug("%s(): hph_switch = %d\n", __func__,
__gpio_get_value(g_es9018_priv->es9018_data->hph_switch));
}
static int sr130pc10_sensor_power_up(struct msm_sensor_ctrl_t *s_ctrl)
{
int err = 0;
int rc = 0;
int temp = 0;
struct msm_camera_sensor_info *data = s_ctrl->sensordata;
#ifdef CONFIG_LOAD_FILE
if (0 > sr130pc10_regs_table_init()) {
CDBG("%s file open failed!\n", __func__);
rc = -1;
goto FAIL_END;
}
#endif
sr130pc10_ctrl->op_mode = 0;
sr130pc10_ctrl->dtp_mode = 0;
sr130pc10_ctrl->cam_mode = SENSOR_CAMERA;
sr130pc10_ctrl->settings.exposure = 0;
pr_info("=== Start ===");
rc = msm_camera_request_gpio_table(data, 1);
if (rc < 0)
pr_info(" request gpio failed");
gpio_set_value_cansleep(data->sensor_platform_info->vt_sensor_stby, 0);
temp = __gpio_get_value(data->sensor_platform_info->vt_sensor_stby);
pr_info("check VT standby : %d", temp);
gpio_set_value_cansleep(data->sensor_platform_info->vt_sensor_reset, 0);
temp = __gpio_get_value(data->sensor_platform_info->vt_sensor_reset);
pr_info("check VT reset : %d", temp);
gpio_set_value_cansleep(data->sensor_platform_info->sensor_reset, 0);
temp = __gpio_get_value(data->sensor_platform_info->sensor_reset);
pr_info("CAM_3M_RST : %d", temp);
gpio_set_value_cansleep(data->sensor_platform_info->sensor_stby, 0);
temp = __gpio_get_value(data->sensor_platform_info->sensor_stby);
pr_info("CAM_3M_ISP_INIT : %d", temp);
/*Power on the LDOs */
data->sensor_platform_info->sensor_power_on(1);
udelay(10);
/*standy VT */
gpio_set_value_cansleep(data->sensor_platform_info->vt_sensor_stby, 1);
temp = __gpio_get_value(data->sensor_platform_info->vt_sensor_stby);
pr_info("check VT standby : %d", temp);
udelay(10);
/*Set Main clock */
gpio_tlmm_config(GPIO_CFG(data->sensor_platform_info->mclk, 1,
GPIO_CFG_OUTPUT, GPIO_CFG_PULL_DOWN, GPIO_CFG_2MA),
GPIO_CFG_ENABLE);
if (s_ctrl->clk_rate != 0)
cam_clk_info->clk_rate = s_ctrl->clk_rate;
rc = msm_cam_clk_enable(&s_ctrl->sensor_i2c_client->client->dev,
cam_clk_info, &s_ctrl->cam_clk, ARRAY_SIZE(cam_clk_info), 1);
if (rc < 0) {
gpio_tlmm_config(GPIO_CFG(data->sensor_platform_info->mclk, 0,
GPIO_CFG_OUTPUT, GPIO_CFG_PULL_DOWN, GPIO_CFG_2MA),
GPIO_CFG_ENABLE);
pr_info(" Mclk enable failed");
}
if (rc != 0)
goto FAIL_END;
mdelay(12);
/*reset VT */
gpio_set_value_cansleep(data->sensor_platform_info->vt_sensor_reset, 1);
temp = __gpio_get_value(data->sensor_platform_info->vt_sensor_reset);
pr_info("check VT reset : %d", temp);
udelay(1500);
err = sr130pc10_sensor_write_list(sr130pc10_i2c_check,
sizeof(sr130pc10_i2c_check) /
sizeof(sr130pc10_i2c_check[0]),
"sr130pc10_i2c_check");
if (err == -EINVAL) {
cam_err("[sr130pc20] start1 fail!\n");
msm_cam_clk_enable(&s_ctrl->sensor_i2c_client->client->dev,
cam_clk_info, &s_ctrl->cam_clk, \
ARRAY_SIZE(cam_clk_info), 0);
gpio_tlmm_config(GPIO_CFG(data->sensor_platform_info->mclk, 0,
GPIO_CFG_OUTPUT, GPIO_CFG_PULL_DOWN, GPIO_CFG_2MA),
GPIO_CFG_ENABLE);
udelay(10);
msm_camera_request_gpio_table(data, 0);
return -EIO;
}
FAIL_END:
if (rc) {
pr_info("Power up Failed!!");
msm_camera_request_gpio_table(data, 0);
} else {
pr_info("power up x");
}
return rc;
}
static int tegra_get_accpower_level(int irq)
{
return __gpio_get_value((unsigned)irq_to_gpio(irq));
}
static void power_gpio_H(void)
{
gpio_set_value(g_es9018_priv->es9018_data->power_gpio, 1);
pr_debug("%s(): pa_gpio_level = %d\n", __func__,
__gpio_get_value(g_es9018_priv->es9018_data->power_gpio));
}
static void __init gpio_btn(void)
{
int error,error2; int irq; int ret;
orion_gpio_set_valid(GPIO_BTN, GPIO_INPUT_OK);
orion_gpio_set_valid(GPIO_BTN2, GPIO_OUTPUT_OK);
error = gpio_request(GPIO_BTN, "gpio_btn");
error2 = gpio_request(GPIO_BTN2, "gpio_btn2");
if ( error<0 || error2<0 ) { pr_err("gpio_btn: failed to request GPIO %d, error %d; error2 %d \n",GPIO_BTN, error,error2); }
error = gpio_direction_input(GPIO_BTN);
if ( error<0 )
{ pr_err("gpio_btn: failed to configure input for GPIO %d, error %d; error2 %d \n",GPIO_BTN, error,error2); }
irq = gpio_to_irq(GPIO_BTN);
if ( irq < 0)
{ pr_err("gpio_btn: Unable to get irq number for GPIO %d, error %d \n",GPIO_BTN, irq); }
error = request_irq(irq, gpio_btn_handler, IRQF_TRIGGER_FALLING, "gpio_btn", NULL);
if ( error )
{ pr_err("gpio_btn: failed to request_irq for GPIO/irq %d %d \n",GPIO_BTN,irq); }
//platform_device_register(&gpio_dev_btn);
printk("gpio_btn is called sucessfully! the initial value is %d, return value is %d \n",__gpio_get_value(GPIO_BTN),ret);
}
/*
* Return GPIO level
*/
int pxa_gpio_get_value(unsigned gpio)
{
return __gpio_get_value(gpio);
}
static long sr130pc10_set_sensor_mode(int mode)
{
int cnt, vsync_value;
printk(KERN_DEBUG "[CAM-SENSOR] =Sensor Mode\n ");
switch (mode) {
case SENSOR_PREVIEW_MODE:
case SENSOR_VIDEO_MODE:
printk(KERN_DEBUG "[SR130PC10]-> Preview\n");
if (sr130pc10_ctrl->op_mode == 0) {
sr130pc10_sensor_write_list(sr130pc10_reg_init,
sizeof(sr130pc10_reg_init) /
sizeof(sr130pc10_reg_init[0]),
"sr130pc10_reg_init");
sr130pc10_ctrl->op_mode = 1;
if (sr130pc10_ctrl->dtp_mode == 1)
sr130pc10_check_dataline(1);
}
factory_test = 0;
for (cnt = 0; cnt < 200; cnt++) {
vsync_value = __gpio_get_value(14);
if (vsync_value) {
/*printk(KERN_DEBUG " on preview,
start cnt:%d vsync_value:%d\n", cnt, vsync_value); */
break;
} else {
/*printk(KERN_DEBUG
" on preview, "
"wait cnt:%d vsync_value:%d\n",
cnt, vsync_value);*/
/*msleep(1); changed for coding rule*/
udelay(1000);
}
}
printk(KERN_DEBUG
" on preview, "
"wait cnt:%d vsync_value:%d\n",
cnt, vsync_value);
sr130pc10_sensor_write_list(sr130pc10_preview_reg,
sizeof(sr130pc10_preview_reg) /
sizeof(sr130pc10_preview_reg[0]),
"sr130pc10_preview_reg"); /* preview start */
if (sr130pc10_ctrl->cam_mode == SENSOR_MOVIE)
sr130pc10_set_movie_mode(SENSOR_MOVIE);
sr130pc10_set_exposure_value(0, sr130pc10_ctrl->settings.exposure);
break;
case SENSOR_SNAPSHOT_MODE:
case SENSOR_RAW_SNAPSHOT_MODE:
printk(KERN_DEBUG "[PGH}-> Capture\n");
if (Flipmode) {
sr130pc10_sensor_write_list(
sr130pc10_capture_reg_X_Flip,
sizeof(sr130pc10_capture_reg_X_Flip) /
sizeof(sr130pc10_capture_reg_X_Flip[0]),
"sr130pc10_capture_reg_X_Flip");
/* preview start */
} else {
sr130pc10_sensor_write_list(sr130pc10_capture_reg,
sizeof(sr130pc10_capture_reg) /
sizeof(sr130pc10_capture_reg[0]),
"sr130pc10_capture_reg"); /* preview start */
}
/*SecFeature : for Android CCD preview mirror
/ snapshot non-mirror
if(factory_test == 0) {
if(rotation_status == 90 || rotation_status
== 270) {
sr130pc10_sensor_write(0x03, 0x00);
sr130pc10_sensor_write(0x11, 0x93);
} else {
sr130pc10_sensor_write(0x03, 0x00);
sr130pc10_sensor_write(0x11, 0x90);
}
}
*/
break;
default:
return 0;
}
return 0;
}
static int getGpio(unsigned char gpio)
{
return __gpio_get_value(gpio);
}
static void reset_gpio_L(void)
{
gpio_set_value(g_es9018_priv->es9018_data->reset_gpio, 0);
pr_debug("%s(): pa_gpio_level = %d\n", __func__,
__gpio_get_value(g_es9018_priv->es9018_data->reset_gpio));
}
