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includes
#include <linux/gpio.h>
includes
#include <mach/gpio.h>
includes
#include <linux/irq.h>
includes
#include <linux/interrupt.h>
includes
#include <linux/timer.h>
includes
#include <linux/workqueue.h>
includes
#include <linux/byteorder/generic.h>
includes
#include <linux/bitops.h>
includes
#include <linux/earlysuspend.h>
includes
#include <linux/regulator/consumer.h>
includes
#include <mach/vreg.h>
includes
#include <linux/wakelock.h>
includes
#include <linux/input/mt.h>
includes
#include <linux/miscdevice.h>
includes
#include <linux/cyttsp.h>
includes
#include <linux/issp_defs.h>
includes
#include <linux/issp_extern.h>
includes
#include <linux/uaccess.h>
defines
#define CYTTSP_DECLARE_GLOBALS
defines
#define FEATURE_TOUCH_KEY
defines
#define GPIO_TOUCH_RST 95
defines
#define GPIO_TOUCH_CHG 61
defines
#define GPIO_TOUCH_SDA 64
defines
#define GPIO_TOUCH_SCL 65
defines
#define GPIO_TOUCH_ID 93
defines
#define IRQ_TOUCH_INT gpio_to_irq(GPIO_TOUCH_CHG)
defines
#define dbg(fmt, args...) printk("[TOUCH]" fmt, ##args)
defines
#define dbg(fmt, args...)
defines
#define dbg_func_in() dbg("[FUNC_IN] %s\n", __func__)
defines
#define dbg_func_out() dbg("[FUNC_OUT] %s\n", __func__)
defines
#define dbg_line() dbg("[LINE] %d(%s)\n", __LINE__, __func__)
defines
#define FEATURE_SKY_PROCESS_CMD_KEY
defines
#define X_MAX 480
defines
#define Y_MAX 800
defines
#define NULL_KEY_AREA 840
defines
#define MENU_KEY_MIN 40
defines
#define MENU_KEY_MAX 140
defines
#define HOME_KEY_MIN 210
defines
#define HOME_KEY_MAX 280
defines
#define BACK_KEY_MIN 360
defines
#define BACK_KEY_MAX 460
defines
#define CYTTSP_HEARTBEAT_TIME 3
defines
#define TOUCH_MAX_NUM 4 // 2
defines
#define SENSOR_X 12
defines
#define SENSOR_Y 20
defines
#define MAX_NODE SENSOR_X*SENSOR_Y
defines
#define CYTTSP_BASE_MIN 65
defines
#define CYTTSP_BASE_MAX 135
defines
#define CYTTSP_MUTEX_LOCK //ST_LIM
defines
#define CY_NUM_ABS_VAL 5 /* number of abs values per setting */
defines
#define CY_SIGNAL_OST 0
defines
#define CY_MIN_OST 1
defines
#define CY_MAX_OST 2
defines
#define CY_FUZZ_OST 3
defines
#define CY_FLAT_OST 4
defines
#define CY_NUM_ABS_SET 5 /* number of abs signal sets */
defines
#define CY_ABS_X_OST 0
defines
#define CY_ABS_Y_OST 1
defines
#define CY_ABS_P_OST 2
defines
#define CY_ABS_W_OST 3
defines
#define CY_ABS_ID_OST 4
defines
#define CY_IGNORE_VALUE 0xFFFF /* mark unused signals as ignore */
defines
#define HI_TRACKID(reg) ((reg & 0xF0) >> 4)
defines
#define LO_TRACKID(reg) ((reg & 0x0F) >> 0)
defines
#define CYTTSP_MENU_KEY 0x01
defines
#define CYTTSP_BACK_KEY 0x02
defines
#define CYTTSP_HOME_KEY 0x04
defines
#define CYTTSP_NULL_KEY 0x08
defines
#define CYTTSP_MAX_I2C_LEN 256
defines
#define CYTTSP_MAX_TRY 10
defines
#define CYTTSP_BL_PAGE_SIZE 16
defines
#define CYTTSP_BL_NUM_PAGES 5
structs
struct cyttsp { struct i2c_client *client; struct input_dev *input; struct work_struct work; #ifdef FEATURE_CYTTSP_HEARTBEAT struct work_struct work2; #endif #ifdef FEATURE_CYTTSP_FIRMWAREUPGRADE //struct work_struct work3; // N1037 20120312 for ICS struct delayed_work work3; #endif struct timer_list timer; struct mutex mutex; #ifdef CYTTSP_MUTEX_LOCK struct mutex lock_mutex; #endif char phys[32]; struct cyttsp_platform_data *platform_data; u8 num_prev_touch; u16 active_track[CYTTSP_NUM_TRACK_ID]; u16 prev_st_touch[CYTTSP_NUM_ST_TOUCH_ID]; u16 prev_mt_touch[CYTTSP_NUM_MT_TOUCH_ID]; u16 prev_mt_pos[CYTTSP_NUM_MT_TOUCH_ID][2]; struct cyttsp_trk prv_trk[CYTTSP_NUM_TRACK_ID]; atomic_t irq_enabled; struct early_suspend early_suspend; };
functions
int ts_fops_open(struct inode *inode, struct file *filp) { //filp->private_data = cyttsp_data; return 0; }
functions
void Change_Active_Distance(u8 value) { int rc = -1; u8 byte_data; struct cyttsp *ts = ts_temp; #ifdef CYTTSP_MUTEX_LOCK mutex_lock(&ts->lock_mutex); #endif rc = i2c_smbus_read_i2c_block_data(ts->client, CYTTSP_REG_GEST_SET,sizeof(byte_data), &byte_data); //printk("Chage_Active_Distance : %02x\n", byte_data); byte_data = value; rc = i2c_smbus_write_i2c_block_data(ts->client, CYTTSP_REG_GEST_SET, sizeof(byte_data), &byte_data); #ifdef CYTTSP_MUTEX_LOCK mutex_unlock(&ts->lock_mutex); #endif return; }
functions
ssize_t cyttsp_irq_status(struct device *dev, struct device_attribute *attr, char *buf) { struct i2c_client *client = container_of(dev, struct i2c_client, dev); struct cyttsp *ts = i2c_get_clientdata(client); return sprintf(buf, "%u\n", atomic_read(&ts->irq_enabled)); }
functions
ssize_t cyttsp_irq_enable(struct device *dev, struct device_attribute *attr, const char *buf, size_t size) { struct i2c_client *client = container_of(dev, struct i2c_client, dev); struct cyttsp *ts = i2c_get_clientdata(client); int err = 0; unsigned long value; /* struct qtm_obj_message *msg; */ if (size > 2) return -EINVAL; err = strict_strtoul(buf, 10, &value); if (err != 0) return err; switch (value) { case 0: if (atomic_cmpxchg(&ts->irq_enabled, 1, 0)) { pr_info("touch irq disabled!\n"); disable_irq_nosync(ts->client->irq); }
functions
int pantech_ctl_update(int cmd, int value) { int rt = -1; struct regulator *vreg_touch, *vreg_touch_temp; switch(cmd) { case ISSP_IOCTL_SCLK_TO_GPIO: if(value){ gpio_tlmm_config(GPIO_CFG(GPIO_TOUCH_SCL, 0, GPIO_CFG_OUTPUT, GPIO_CFG_NO_PULL, GPIO_CFG_2MA),GPIO_CFG_ENABLE); }
functions
void check_firmware_update(struct work_struct *work3) { int retry_cnt = 3; u8 byte_data[4]; int rc = -1, check_update_pass = 0, curr_version =0; struct cyttsp *ts = ts_temp; // If phone enter a poweroff, Stop firmware update if(Touch_Status >= TOUCH_POWEROFF) return; #ifdef FEATURE_CYTTSP_HEARTBEAT start_heartbeat_timer = false; #endif wake_lock(&touch_wake_lock); disable_irq(ts->client->irq); #ifdef CYTTSP_MUTEX_LOCK mutex_lock(&ts->lock_mutex); #endif do { rc = i2c_smbus_read_i2c_block_data(ts->client, CYTTSP_REG_READ_VER_ID,sizeof(byte_data), (u8 *)&byte_data); udelay(2*1000); }
functions
int firmware_version_check(void) { int rc = -1, retry_cnt = 3; u8 byte_data[4]; struct cyttsp *ts = ts_temp; if(Touch_Status >= TOUCH_POWEROFF) { pantech_ctl_update(ISSP_IOCTL_POWER_ALL , 1); pantech_ctl_update(ISSP_IOCTL_INTR, 1); pantech_ctl_update(ISSP_COMPLITED_UPDATA, 0); msleep(300); // return false; }
functions
endif if(rc < CYTTSP_OPERATIONAL) { printk("Can't read Touch Firmware Version\n"); return 1; }
functions
int firmware_set_charger_mode(int mode) { int rc = -1, retry_cnt = 3; u8 byte_data[4], send_byte = 0x00; struct cyttsp *ts = ts_temp; #ifdef CYTTSP_MUTEX_LOCK mutex_lock(&ts->lock_mutex); #endif do { rc = i2c_smbus_read_i2c_block_data(ts->client, CYTTSP_REG_CHARGER_MODE,sizeof(byte_data), (u8 *)&byte_data); udelay(2*1000); }
functions
endif if(rc < CYTTSP_OPERATIONAL) { printk("Can't read Touch Charger Mode\n"); return 1; }
functions
int firmware_update_by_user(void) { struct cyttsp *ts = ts_temp; int check_update_pass = -1; // If phone enter a poweroff, Stop firmware update if(Touch_Status >= TOUCH_POWEROFF) { pantech_ctl_update(ISSP_IOCTL_POWER_ALL , 1); msleep(300); // return false; }
functions
void cyttsp_check_heartbeat(struct work_struct *work2) { struct cyttsp *ts = container_of(work2,struct cyttsp,work2); int retry_cnt = 3; u8 new_heartbeart_data[4]; int rc = -1; static u8 old_heartbeat_data = 0xFF; memset((void*)new_heartbeart_data,0x00,sizeof(new_heartbeart_data)); if(start_heartbeat_timer == false) return; #ifdef CYTTSP_MUTEX_LOCK mutex_lock(&ts->lock_mutex); #endif do { /* Read Heartbeat Count */ rc = i2c_smbus_read_i2c_block_data(ts->client, CYTTSP_REG_READ_HEARTBEAT,sizeof(new_heartbeart_data), (u8 *)&new_heartbeart_data); }
functions
void cyttsp_xy_worker(struct work_struct *work) { struct cyttsp *ts = container_of(work,struct cyttsp,work); int i; int retval = 0; u8 curr_touches = 0; u8 id = 0; // int t = 0; // int num_sent = 0; // int signal = 0; int tch = 0; #ifdef FEATURE_TOUCH_KEY int key_relese = true; #endif for (i=0;i<TOUCH_MAX_NUM;i++) { touch_mask[i] = -1; }
functions
FEATURE_TOUCH_KEY for(i=0; i<curr_touches; i++) { int x =0, y=0; switch(i) { case 0: x = be16_to_cpu(g_xy_data.x1); y = be16_to_cpu(g_xy_data.y1); break; case 1: x = be16_to_cpu(g_xy_data.x2); y = be16_to_cpu(g_xy_data.y2); break; case 2: x = be16_to_cpu(g_xy_data.x3); y = be16_to_cpu(g_xy_data.y3); break; case 3: x = be16_to_cpu(g_xy_data.x4); y = be16_to_cpu(g_xy_data.y4); break; default: break; }
functions
Event if ( curr_touches == 0 ) { dbg("Touch Released\n"); for (i=0; i < TOUCH_MAX_NUM; i++) { if (cur_touchflag[i] /*cur_trk[i].abs[CY_ABS_ID_OST] >= 0*/) { cur_trk[i].abs[CY_ABS_ID_OST] = -1; cur_touchflag[i] = 0; input_mt_slot(ts->input, i); input_report_abs(ts->input, ABS_MT_TRACKING_ID, cur_trk[i].abs[CY_ABS_ID_OST]); dbg("Touch Released 1, I : %d\n",i); }
functions
1 if ( cur_trk[i].abs[CY_ABS_ID_OST] >= 0 ) { cur_touchflag[cur_trk[i].abs[CY_ABS_ID_OST]] = 0; cur_trk[i].abs[CY_ABS_ID_OST] = -1; input_mt_slot(ts->input, i); input_report_abs(ts->input, ABS_MT_TRACKING_ID, cur_trk[i].abs[CY_ABS_ID_OST]); dbg("Touch Pressed 1\n"); }
functions
ÀÓ if(ts->client->irq == 0) { /* restart event timer */ mod_timer(&ts->timer, jiffies + TOUCHSCREEN_TIMEOUT); }
functions
int cyttsp_inlist(u16 prev_track[], u8 curr_track_id, u8 *prev_loc, u8 num_touches) { u8 id =0; *prev_loc = CYTTSP_IGNORE_TOUCH; cyttsp_xdebug("IN p[%d]=%d c=%d n=%d loc=%d\n", \ id, prev_track[id], curr_track_id, num_touches, *prev_loc); for (id = 0, *prev_loc = CYTTSP_IGNORE_TOUCH; (id < num_touches); id++) { cyttsp_xdebug("p[%d]=%d c=%d n=%d loc=%d\n", \ id, prev_track[id], curr_track_id, num_touches, *prev_loc); if (prev_track[id] == curr_track_id) { *prev_loc = id; break; }
functions
int cyttsp_next_avail_inlist(u16 curr_track[], u8 *new_loc, u8 num_touches) { u8 id; for (id = 0, *new_loc = CYTTSP_IGNORE_TOUCH; (id < num_touches); id++) { if (curr_track[id] > CYTTSP_NUM_TRACK_ID) { *new_loc = id; break; }
functions
void cyttsp_timer(unsigned long handle) { struct cyttsp *ts = (struct cyttsp *) handle; cyttsp_xdebug("TTSP Device timer event\n"); #ifdef FEATURE_CYTTSP_HEARTBEAT /* schedule motion signal handling */ if(start_heartbeat_timer) { schedule_work(&ts->work2); mod_timer(&ts->timer, jiffies + CYTTSP_HEARTBEAT_TIME * HZ); }
functions
irqreturn_t cyttsp_irq(int irq, void *handle) { struct cyttsp *ts = (struct cyttsp *) handle; cyttsp_xdebug("%s: Got IRQ\n", CYTTSP_I2C_NAME); if(Touch_Status >= TOUCH_POWEROFF) return IRQ_HANDLED; /* disable further interrupts until this interrupt is processed */ disable_irq_nosync(ts->client->irq); /* schedule motion signal handling */ schedule_work(&ts->work); return IRQ_HANDLED; }
functions
int cyttsp_putbl(struct cyttsp *ts, int show, int show_status, int show_version, int show_cid) { int retval = CYTTSP_OPERATIONAL; int num_bytes = (show_status * 3) + (show_version * 6) + (show_cid * 3); if (show_cid) { num_bytes = sizeof(struct cyttsp_bootloader_data_t); }
functions
else if (show_version) { num_bytes = sizeof(struct cyttsp_bootloader_data_t) - 3; }
functions
endif if (show_status) { cyttsp_debug("BL%d: f=%02X s=%02X err=%02X bl=%02X%02X bld=%02X%02X\n", \ show, \ g_bl_data.bl_file, g_bl_data.bl_status, g_bl_data.bl_error, \ g_bl_data.blver_hi, g_bl_data.blver_lo, \ g_bl_data.bld_blver_hi, g_bl_data.bld_blver_lo); }
functions
int cyttsp_i2c_write_block_data(struct i2c_client *client, u8 command, u8 length, const u8 *values) { int retval = CYTTSP_OPERATIONAL; u8 dataray[CYTTSP_MAX_I2C_LEN]; u8 try; dataray[0] = command; if (length) { memcpy(&dataray[1], values, length); }
functions
int cyttsp_i2c_write_block_data_chunks(struct cyttsp *ts, u8 command, u8 length, const u8 *values) { int retval = CYTTSP_OPERATIONAL; int block = 1; u8 dataray[CYTTSP_MAX_I2C_LEN]; /* first page already includes the bl page offset */ #ifdef CYTTSP_MUTEX_LOCK mutex_lock(&ts->lock_mutex); #endif retval = i2c_smbus_write_i2c_block_data(ts->client, CYTTSP_REG_BASE, CYTTSP_BL_PAGE_SIZE+1, values); mdelay(10); values += CYTTSP_BL_PAGE_SIZE+1; length -= CYTTSP_BL_PAGE_SIZE+1; /* rem blocks require bl page offset stuffing */ while (length && (block < CYTTSP_BL_NUM_PAGES) && !(retval < CYTTSP_OPERATIONAL)) { dataray[0] = CYTTSP_BL_PAGE_SIZE*block; memcpy(&dataray[1], values, length >= CYTTSP_BL_PAGE_SIZE ? CYTTSP_BL_PAGE_SIZE : length); retval = i2c_smbus_write_i2c_block_data(ts->client, CYTTSP_REG_BASE, length >= CYTTSP_BL_PAGE_SIZE ? CYTTSP_BL_PAGE_SIZE+1 : length+1, dataray); mdelay(10); values += CYTTSP_BL_PAGE_SIZE; length = length >= CYTTSP_BL_PAGE_SIZE ? length - CYTTSP_BL_PAGE_SIZE : 0; block++; }
functions
int cyttsp_bootload_app(struct cyttsp *ts) { int retval = CYTTSP_OPERATIONAL; int i, tries; u8 host_reg; cyttsp_debug("load new firmware \n"); #ifdef CYTTSP_MUTEX_LOCK mutex_lock(&ts->lock_mutex); #endif /* reset TTSP Device back to bootloader mode */ host_reg = CYTTSP_SOFT_RESET_MODE; retval = i2c_smbus_write_i2c_block_data(ts->client, CYTTSP_REG_BASE, sizeof(host_reg), &host_reg); /* wait for TTSP Device to complete reset back to bootloader */ // mdelay(CYTTSP_DELAY_DFLT); mdelay(1000); cyttsp_putbl(ts,3, true, true, true); cyttsp_debug("load file -- tts_ver=0x%02X%02X app_id=0x%02X%02X app_ver=0x%02X%02X\n", \ cyttsp_fw_tts_verh, cyttsp_fw_tts_verl, \ cyttsp_fw_app_idh, cyttsp_fw_app_idl, \ cyttsp_fw_app_verh, cyttsp_fw_app_verl); /* download new TTSP Application to the Bootloader * */ if (!(retval < CYTTSP_OPERATIONAL)) { i = 0; /* send bootload initiation command */ if (cyttsp_fw[i].Command == CYTTSP_BL_INIT_LOAD) { g_bl_data.bl_file = 0; g_bl_data.bl_status = 0; g_bl_data.bl_error = 0; retval = i2c_smbus_write_i2c_block_data(ts->client, CYTTSP_REG_BASE, cyttsp_fw[i].Length, cyttsp_fw[i].Block); /* delay to allow bootloader to get ready for block writes */ i++; tries = 0; cyttsp_debug("wait init f=%02X, s=%02X, e=%02X t=%d\n",g_bl_data.bl_file, g_bl_data.bl_status, g_bl_data.bl_error, tries); do { mdelay(1000); cyttsp_putbl(ts,4, true, false, false); }