static int fsi2pib_putscom(struct pib *pib, uint64_t addr, uint64_t value)
{
usleep(FSI2PIB_RELAX);
CHECK_ERR(fsi_write(&pib->target, FSI_DATA0_REG, (value >> 32) & 0xffffffff));
CHECK_ERR(fsi_write(&pib->target, FSI_DATA1_REG, value & 0xffffffff));
CHECK_ERR(fsi_write(&pib->target, FSI_CMD_REG, FSI_CMD_REG_WRITE | addr));
return 0;
}
static int cfam_hmfsi_probe(struct pdbg_target *target)
{
struct fsi *fsi = target_to_fsi(target);
struct pdbg_target *fsi_parent = target->parent;
uint32_t value, port;
int rc;
/* Enable the port in the upstream control register */
port = dt_prop_get_u32(target, "port");
fsi_read(fsi_parent, 0x3404, &value);
value |= 1 << (31 - port);
if ((rc = fsi_write(fsi_parent, 0x3404, value))) {
PR_ERROR("Unable to enable HMFSI port %d\n", port);
return rc;
}
if ((rc = fsi_read(&fsi->target, 0xc09, &value)))
return rc;
fsi->chip_type = get_chip_type(value);
PR_DEBUG("Found chip type %x\n", fsi->chip_type);
if (fsi->chip_type == CHIP_UNKNOWN)
return -1;
return 0;
}
static int cfam_hmfsi_write(struct fsi *fsi, uint32_t addr, uint32_t data)
{
struct pdbg_target *parent_fsi = pdbg_target_require_parent("fsi", &fsi->target);
addr += dt_get_address(&fsi->target, 0, NULL);
return fsi_write(parent_fsi, addr, data);
}
static int fsi2pib_reset(struct pdbg_target *target)
{
/* Reset the PIB master interface. We used to reset the entire FSI2PIB
* engine but that had the unfortunate side effect of clearing existing
* settings such as the true mask register (0xd) */
CHECK_ERR(fsi_write(target, FSI_SET_PIB_RESET_REG, FSI_SET_PIB_RESET));
return 0;
}
static int fsi2pib_getscom(struct pib *pib, uint64_t addr, uint64_t *value)
{
uint32_t result;
usleep(FSI2PIB_RELAX);
/* Get scom works by putting the address in FSI_CMD_REG and
* reading the result from FST_DATA[01]_REG. */
CHECK_ERR(fsi_write(&pib->target, FSI_CMD_REG, addr));
CHECK_ERR(fsi_read(&pib->target, FSI_DATA0_REG, &result));
*value = ((uint64_t) result) << 32;
CHECK_ERR(fsi_read(&pib->target, FSI_DATA1_REG, &result));
*value |= result;
return 0;
}
static error_t tscalib_WndMsgHandler(t_HWindow handle, t_WidgetEvent evt, t_sparam sparam, t_lparam lparam)
{
t_TSCalibData *glob=(t_TSCalibData*)app_get_data();
error_t ret = NOT_HANDLED;
switch(evt){
case WINDOW_OnOpen:
g_printf("WINDOW_OnOpen\r\n");
//wgt_enable_attr(handle, WND_ATTR_FULLSCREEN);
break;
case WINDOW_OnClose:
g_printf("WINDOW_OnClose\r\n");
ret = SUCCESS;
break;
case WINDOW_OnDraw:
{
coord_t x = gs_calib_const.x[glob->points.n];
coord_t y = gs_calib_const.y[glob->points.n];
gdi_clear(glob->gdi, 0, 0, -1, -1, guiNoCorner);
gdi_set_color(glob->gdi, RGB_RED);
gdi_line(glob->gdi, x-5, y, x+5, y);
gdi_line(glob->gdi, x, y-5, x, y+5);
}
ret = SUCCESS;
break;
case WIDGET_OnKeyEvent:
if(lparam == MVK_END && sparam == MMI_KEY_PRESS){
task_exit(0);
}
ret = SUCCESS;
break;
case WIDGET_OnPenEvent:
if(PEN_TYPE(lparam) == MMI_PEN_DOWN){
PEN_XY(lparam, glob->points.x[glob->points.n], glob->points.y[glob->points.n]);
glob->points.n++;
if(glob->points.n == gs_calib_const.n-1){
if(!glob->vtbl->StartCalib(&gs_calib_const, &glob->points)){
//2 校准失败，重新校准
glob->points.n = 0;
}
//2 校准成功，等待用户输入最后一点来做验证
}else if(glob->points.n == gs_calib_const.n){
//2 校准成功后，还须用最后一点来做验证
int i = glob->points.n-1;
if(ABS(glob->points.x[i] - gs_calib_const.x[i]) <= 5 && ABS(glob->points.y[i] - gs_calib_const.y[i]) <= 5){
//2 校准成功且最后一点验证ok, 保存校准数据
int fd = fsi_open(TS_CALIB_FILE, _O_RDWR | _O_CREAT, _S_IREAD | _S_IWRITE);
if(fd >= 0){
fsi_write(fd, &glob->points, sizeof(glob->points));
fsi_close(fd);
}
task_exit(0);
break;
}else{
//2 最后一点验证失败，重新校准
glob->points.n = 0;
}
}
wnd_redraw(handle, NULL);
}
ret = SUCCESS;
break;
}
return ret;
}