// [before][step_0][delay_0][step_1][delay_1]......[step_n-2][delay_n-2][step_n-1][delay_n-1][after]
void DRV_lcd_open_callback(void *parg)
{
__lcd_flow_t *flow;
__u32 sel = (__u32)parg;
__s32 i = lcd_flow_cnt[sel]++;
flow = bsp_disp_lcd_get_open_flow(sel);
if(i < flow->func_num)
{
flow->func[i].func(sel);
if(flow->func[i].delay == 0)
{
DRV_lcd_open_callback((void*)sel);
}
else
{
lcd_timer[sel].data = sel;
lcd_timer[sel].expires = flow->func[i].delay;
lcd_timer[sel].function = DRV_lcd_open_callback;
add_timer(&lcd_timer[sel]);
}
}
else if(i == flow->func_num)
{
bsp_disp_lcd_open_after(sel);
lcd_op_finished[sel] = 1;
}
}
// [before][step_0][delay_0][step_1][delay_1]......[step_n-2][delay_n-2][step_n-1][delay_n-1][after]
void DRV_lcd_open_callback(void *parg)
{
__lcd_flow_t *flow;
__u32 sel = (__u32)parg;
__s32 i = lcd_flow_cnt[sel]++;
flow = BSP_disp_lcd_get_open_flow(sel);
__inf("lcd %d timeout=%d\n", i, flow->func[i].delay);
if(i < flow->func_num)
{
flow->func[i].func(sel);
if(flow->func[i].delay == 0)
{
DRV_lcd_open_callback((void*)sel);
}
else
{
wBoot_timer_start(lcd_timer[sel], flow->func[i].delay, 0);
}
}
else if(i == flow->func_num)
{
BSP_disp_lcd_open_after(sel);
lcd_op_finished[sel] = 1;
}
}
__s32 DRV_lcd_open(__u32 sel)
{
if(bsp_disp_lcd_used(sel))
{
lcd_flow_cnt[sel] = 0;
lcd_op_finished[sel] = 0;
lcd_op_start[sel] = 1;
init_timer(&lcd_timer[sel]);
bsp_disp_lcd_open_before(sel);
DRV_lcd_open_callback((void*)sel);
}
return 0;
}
__s32 DRV_lcd_open(__u32 sel)
{
lcd_flow_cnt[sel] = 0;
lcd_op_finished[sel] = 0;
lcd_timer[sel] = wBoot_timer_request((void*)DRV_lcd_open_callback,(void*)sel);
if(!lcd_timer[sel])
{
__inf("%s wBoot_timer_request fail!\n",__FUNCTION__);
}
BSP_disp_lcd_open_before(sel);
DRV_lcd_open_callback((void*)sel);
return 0;
}