sdk-hwV1.3/external/fast-user-adapter/rt_media/api_adapter/AW_VideoInput_API.c

#include <string.h>
#include <stdio.h>
#include <stdlib.h>
#include <errno.h>
#include <fcntl.h>
#include <stdio.h>
#include <sys/ioctl.h>
#include <sys/mman.h>
#include <sys/types.h>
#include <pthread.h>
#include <sys/prctl.h>
#include <sys/socket.h>
#include <linux/netlink.h>
#include <linux/genetlink.h>

#define LOG_TAG "aw_video02"
#include "AW_VideoInput_API.h"
#include "aw_ion_alloc.h"
#include "aw_ion_util.h"
#include "aw_util.h"
//#include "uapi_rt_media.h"
#include "aw_message_queue.h"
#if RT_MEDIA_SUPPORT_VENC_PARAM_DEBUG
#include "aw_config_param_parser.h"
#endif
#define TMP_BUFFER_SIZE (4*256*1024)

#define RT_MEDIA_DEV_NAME ("/dev/rt-media")

#define MAX_SPS_PPS_SIZE (256)

typedef enum AWVideoInput_Cmd
{
	VIDEO_INPUT_CMD_EXIT       = 0,
	VIDEO_INPUT_CMD_PAUSE      = 1,
	VIDEO_INPUT_CMD_EXCUTING   = 2,
}AWVideoInput_Cmd;

#define SEM_WAIT_REPLY_NUM (VIDEO_INPUT_CMD_EXCUTING + 1)

typedef struct vbv_buffer_info
{
	int            share_fd;
	int            fd;
	int            bInit;
	unsigned char* virBuf;
	int            size;
	int            handle;
}vbv_buffer_info;

typedef struct encoder_yuv_buf_info {
	unsigned char* phy_addr;
	unsigned char* vir_addr;
	int buf_size;
	int bInit_flag;
} encoder_yuv_buf_info;


typedef struct yuv_fd_info {
	int bset;
	int yuv_fd;
	unsigned char* virBuf;
} yuv_fd_info;

typedef struct AWChannel_cxt
{
	int                id;
	int                dev_fd;
	AWVideoInput_State state;
	VideoInputConfig   config;
	Video_Input_cb     callback;
	Channel_Thread_exit thread_exit_cb;
	AWVideoInputCallbackType mCallback;
	void* mpAppData;
	AWTdmBufferDoneCallback mTdmBufDoneCallback;
	pthread_t          thread;
	int                bThread_create_flag; ///< indicate if ChannelThread() has been created.
	vbv_buffer_info    vbv_buffer;
	sps_pps_data_info  sps_pps_data;
	pthread_mutex_t    mutex;
	unsigned char*     tmp_buf;
	int                tmp_buf_size;
	catch_jpeg_config  jpeg_config;
	uint64_t 		   pre_pts;
	XmMessageQueue*	   mq;
	sem_t              reply_sem[SEM_WAIT_REPLY_NUM];
	int mSockFd;
	unsigned int mSrcNLPortId; //netlink port id of AWChannel_cxt self. we set it to differentiate it from other AWChannel_cxts.
	encoder_yuv_buf_info enc_yuv_buf_info;

	VideoInputOSD  video_osd_info;
	int            video_osd_need_process_flag; //indicate when AWVideoInput_Start(), process osd setting.
	RTVencVbrParam vbr_param;
	int demo_wait_csi_ready;
	WbYuvFuncInfo *p_wbyuv_info;
	int b_insert_sps_pps;
	yuv_fd_info s_yuv_fd[CONFIG_YUV_BUF_NUM];

	pthread_t GENL_thread;
	int bGENL_thread_create_flag;
	int GENL_thread_exit_flag;

	int enable_aiisp;
	int start_process_tdm_buf;
	pthread_t AIISP_thread;
	int bAIISP_thread_create_flag;
	int AIISP_thread_exit_flag;
}AWChannel_cxt;


typedef struct AWVideoInput_cxt
{
	AWChannel_cxt channel_cxt[VIDEO_INPUT_CHANNEL_NUM];
	int ion_fd;
	unsigned short mGENLFamilyId; //generic netlink family id
}AWVideoInput_cxt;

/*******************isp to flash**************************/
#define ISP0_PARAM_OFFSET 104  /*104 ~ 110 sector 3.5k*/
#define ISP1_PARAM_OFFSET 112  /*112 ~ 118 sector 3.5k*/

struct write4k_op_t {
	loff_t start;
	unsigned char *buf;
	loff_t len;
};

#define MEMWRITE_4K		_IOWR('M', 29, struct write4k_op_t)

#define DAY_LIGNT_SENSOR_SIZE   96
#define NIGHT_LIGNT_SENSOR_SIZE 40
#pragma pack(1)
typedef struct taglight_sensor_attr_s {
	unsigned short u16LightValue;	/*adc value*/
	unsigned short ae_table_idx;
	unsigned int   u32SnsExposure;
	unsigned int   u32SnsAgain;
} LIGHT_SENSOR_ATTR_S;

typedef struct tagsensor_isp_config_s {
	int sign;                    //id0: 0xAA66AA66, id1: 0xBB66BB66
	int crc;                     //checksum, crc32 check, if crc = 0, do check
	int ver;                     //version, 0x01

	int light_enable;            //boot0 adc en
	int adc_mode;                //ADC mode, 0:the brighter the u16LightValue more, 1:the brighter the u16LightValue smaller
	unsigned short light_def;    //adc threshold: 1,adc_mode=0:smaller than it enter night mode, greater than it or equal enter day mode;
				     //2,adc_mode=1:greater than it enter night mode, smaller than it or equal enter day mode;

	unsigned char ircut_state;   //1:hold, 0:use ir_mode
	unsigned short ir_mode;	     //IR mode 0:force day mode, 1:auto mode, 2:force night mode
	unsigned short lv_liner_def; //lv threshold: smaller than it enter night mode, greater than it or equal enter day mode
	unsigned short lv_hdr_def;   //lv threshold: smaller than it enter night mode, greater than it or equal enter day mode

	unsigned short width;        //init size, 0:mean maximum size
	unsigned short height;
	unsigned short mirror;
	unsigned short filp;
	unsigned short fps;
	unsigned short wdr_mode;     //hdr or normal mode, wdr_mode = 0 mean normal,  wdr_mode = 1 mean hdr
	unsigned char flicker_mode;  //0:disable,1:50HZ,2:60HZ, default 50HZ

	unsigned char venc_format;   //1:H264 2:H265
	/* unsigned char reserv 256 */
	unsigned char sensor_deinit; //sensor not init in melis
	unsigned char get_yuv_en; //get melis yuv en
	unsigned char light_sensor_en; //use LIGHT_SENSOR_ATTR_S en
	unsigned char hdr_light_sensor_ratio; //LIGHT_SENSOR_ATTR_S hdr exposure ratio, default is 32
	unsigned char lightadc_debug_en; //printf data about LIGHT_SENSOR_ATTR_S
	unsigned char reserv[256 - 5];

	LIGHT_SENSOR_ATTR_S linear[DAY_LIGNT_SENSOR_SIZE]; //day linear mode parameter, auto exp
	LIGHT_SENSOR_ATTR_S linear_night[NIGHT_LIGNT_SENSOR_SIZE]; //night linear mode parameter
	LIGHT_SENSOR_ATTR_S hdr[DAY_LIGNT_SENSOR_SIZE];    //day hdr mode paramete
	LIGHT_SENSOR_ATTR_S hdr_night[NIGHT_LIGNT_SENSOR_SIZE];    //night hdr mode parameter
} SENSOR_ISP_CONFIG_S;
#pragma pack()

#define GENL_MSG_GET_WAIT_MAX_TIME_MS		(200)
#define GENL_MSG_CHECK_MAX_INTERVAL_US		(1*1000*1000)
#define GENL_MSG_CHECK_MAX_CNT			(10)

static AWVideoInput_cxt* g_videoInput_cxt = NULL;

int AWVideoInput_DeInit(void);

void* ChannelThread(void* param);
void* GENLRecvThread(void *param);
void* AIISPThread(void *param);

int isp_config_to_flash(void);

static int callback_stream_data(AWChannel_cxt* channel_cxt, STREAM_DATA_INFO* stream_data)
{
	AWVideoInput_StreamInfo s_stream_info;
    memset(&s_stream_info, 0, sizeof(s_stream_info));
	unsigned char* vbv_start_buf = channel_cxt->vbv_buffer.virBuf;
	if(stream_data->keyframe_flag == 1)
	{
		aw_logd("stream: data = %p, %p, %p; size = %d, %d, %d; offset = %d, %d, %d, kf = %d, sizeof = %d",
				stream_data->data0, stream_data->data1, stream_data->data2,
				stream_data->size0, stream_data->size1, stream_data->size2,
				stream_data->offset0, stream_data->offset1, stream_data->offset2,
				stream_data->keyframe_flag, sizeof(STREAM_DATA_INFO));
	}
	//* keyframe and buf ring case
	if(stream_data->keyframe_flag == 1
	   && (channel_cxt->config.encodeType == 0 || channel_cxt->config.encodeType == 2)
	   && channel_cxt->sps_pps_data.bInit == 1 && channel_cxt->b_insert_sps_pps)
		s_stream_info.b_insert_sps_pps = 1;
	else
		s_stream_info.b_insert_sps_pps = 0;

	//s_stream_info.pts = (uint64_t)stream_data->tv.tv_sec*1000000 + (uint64_t)stream_data->tv.tv_usec;
	s_stream_info.pts = stream_data->pts;
    if(stream_data->size0 > 0)
    {
    	s_stream_info.data0 = vbv_start_buf + stream_data->offset0;
    	s_stream_info.size0 = stream_data->size0;
    }
    else
    {
        aw_loge("fatal error! why size0 is 0?");
    }
    if(stream_data->size1 > 0)
    {
    	s_stream_info.data1 = vbv_start_buf + stream_data->offset1;
    	s_stream_info.size1 = stream_data->size1;
    }
    if(stream_data->size2 > 0)
    {
    	s_stream_info.data2 = vbv_start_buf + stream_data->offset2;
    	s_stream_info.size2 = stream_data->size2;
    }
	s_stream_info.sps_pps_buf = channel_cxt->sps_pps_data.buf;
	s_stream_info.sps_pps_size = channel_cxt->sps_pps_data.size;
	s_stream_info.keyframe_flag = stream_data->keyframe_flag;
	s_stream_info.stream_data = stream_data;
	s_stream_info.channel_id = channel_cxt->id;
	//* callback to caller
	channel_cxt->callback(&s_stream_info);

	return 0;
}

static int get_sps_pps_data(AWChannel_cxt* channel_cxt)
{
	int size = 0;
	int ret = ioctl(channel_cxt->dev_fd, IOCTL_GET_STREAM_HEADER_SIZE, &size);
	aw_logd("get stream size = %d, ret = %d\n",size, ret);
	if(ret != 0)
	{
		aw_logw("[%d]get sps pps size failed: ret = %d\n",channel_cxt->id, ret);
		return -1;
	}

	if(size <= 0 || size > MAX_SPS_PPS_SIZE)
	{
		aw_loge("size of sps_pps_data is error: %d\n",size);
		return -1;
	}

	if(channel_cxt->sps_pps_data.buf)
		free(channel_cxt->sps_pps_data.buf);

	channel_cxt->sps_pps_data.size = size;
	channel_cxt->sps_pps_data.buf  = (unsigned char*)malloc(size);
	memset(channel_cxt->sps_pps_data.buf, 0, size);

	ret = ioctl(channel_cxt->dev_fd, IOCTL_GET_STREAM_HEADER_DATA, channel_cxt->sps_pps_data.buf);
	aw_logd("get stream ret = %d, data = %x %x %x %x %x %x\n",
	        ret,
	        channel_cxt->sps_pps_data.buf[0],
	        channel_cxt->sps_pps_data.buf[1],
	        channel_cxt->sps_pps_data.buf[2],
	        channel_cxt->sps_pps_data.buf[3],
	        channel_cxt->sps_pps_data.buf[4],
	        channel_cxt->sps_pps_data.buf[5]);
	if(ret != 0)
	{
		aw_logw("[%d]get sps pps data failed: ret = %d\n",channel_cxt->id, ret);
		return -1;
	}
	channel_cxt->sps_pps_data.bInit = 1;

	return 0;
}

static int init_vbv_buffer(AWChannel_cxt* channel_cxt)
{
	KERNEL_VBV_BUFFER_INFO kernel_vbv_buf;
	memset(&kernel_vbv_buf, 0, sizeof(KERNEL_VBV_BUFFER_INFO));

	int ret = ioctl(channel_cxt->dev_fd, IOCTL_GET_VBV_BUFFER_INFO, &kernel_vbv_buf);
	if(ret != 0)
	{
		aw_loge("[%d]get vbv buf failed: ret = %d\n",channel_cxt->id, ret);
		return -1;
	}

	channel_cxt->vbv_buffer.bInit     = 1;
	channel_cxt->vbv_buffer.size      = kernel_vbv_buf.size;
	channel_cxt->vbv_buffer.share_fd = kernel_vbv_buf.share_fd;

	ret = aw_ion_mmap(channel_cxt->vbv_buffer.share_fd,
	            channel_cxt->vbv_buffer.size,
	            &channel_cxt->vbv_buffer.virBuf);
	aw_logd("ret %d mmap: virBuf = %p, share_fd = %d",
	         ret, channel_cxt->vbv_buffer.virBuf,
	         channel_cxt->vbv_buffer.share_fd);

	aw_logv("init_vbv_buffer: share_fd = %d, handle = %d, virBuf = %p, fd = %d\n",
	         channel_cxt->vbv_buffer.share_fd, channel_cxt->vbv_buffer.handle,
	         channel_cxt->vbv_buffer.virBuf, channel_cxt->vbv_buffer.fd);
	return 0;
}

static void destroy_vbv_buffer(vbv_buffer_info* vbv_buf_info)
{
	aw_ion_unmap(vbv_buf_info->size, vbv_buf_info->virBuf);
	close(vbv_buf_info->share_fd);

	aw_logd("close the share fd = %d, fd = %d", vbv_buf_info->share_fd, vbv_buf_info->fd);

	vbv_buf_info->virBuf = NULL;
	vbv_buf_info->bInit  = 0;
}

static int delay_setup_osd_info(AWChannel_cxt* channel_cxt, VideoInputOSD *src_osd)
{
	int i = 0;
	VideoInputOSD* dst_osd = &channel_cxt->video_osd_info;

	aw_logv("osd_num = %d", src_osd->osd_num);

	for(i = 0; i < dst_osd->osd_num; i++)
	{
		if(dst_osd->item_info[i].data_buf)
		{
			free(dst_osd->item_info[i].data_buf);
			dst_osd->item_info[i].data_buf = NULL;
		}
	}

	for(i = 0; i < src_osd->osd_num; i++)
	{
		dst_osd->item_info[i].start_x   = src_osd->item_info[i].start_x;
		dst_osd->item_info[i].start_y   = src_osd->item_info[i].start_y;
		dst_osd->item_info[i].widht     = src_osd->item_info[i].widht;
		dst_osd->item_info[i].height    = src_osd->item_info[i].height;
		dst_osd->item_info[i].data_size = src_osd->item_info[i].data_size;
		dst_osd->item_info[i].osd_type  = src_osd->item_info[i].osd_type;
		memcpy(&dst_osd->item_info[i].cover_yuv, &src_osd->item_info[i].cover_yuv, sizeof(VencCoverYuvS));

		dst_osd->item_info[i].data_buf = malloc(dst_osd->item_info[i].data_size);
		if(dst_osd->item_info[i].data_buf == NULL)
		{
			aw_loge("malloc failed, size = %d", dst_osd->item_info[i].data_size);
			return -1;
		}
		memcpy(dst_osd->item_info[i].data_buf, src_osd->item_info[i].data_buf,
			   dst_osd->item_info[i].data_size);
	}
	dst_osd->osd_num = src_osd->osd_num;
	dst_osd->argb_type = src_osd->argb_type;
	channel_cxt->video_osd_need_process_flag = 1;

	return 0;
}

#define INI_PATH "/tmp/"
static RTTunningSensorCfg SensorCfg[VIDEO_INPUT_CHANNEL_NUM];

static int save_ini_tuning_file(AWChannel_cxt* channel_cxt, char *path, int isp_id,int w, int h, int fps, int wdr)
{
	char isp_cfg_path[128], command[128];
	RTTunningCtlData TunningCtlData;

	if (strcmp(path, "")) {
		sprintf(isp_cfg_path, "%sisp%d_%d_%d_%d_%d/", path, isp_id, w, h, fps, wdr);
		if (access(isp_cfg_path, F_OK) == 0) {
			sprintf(command, "rm -rf %s", isp_cfg_path);
			system(command);
		}
		sprintf(command, "mkdir %s", isp_cfg_path);
		system(command);

		TunningCtlData.cfg_id = RT_ISP_CTRL_GET_ISP_PARAM;
		sprintf(TunningCtlData.path, "%sisp%d_%d_%d_%d_%d/", path, isp_id, w, h, fps, wdr);
		pthread_mutex_lock(&channel_cxt->mutex);
		ioctl(channel_cxt->dev_fd, IOCTL_GET_TUNNING_CTL_DATA, &TunningCtlData);
		pthread_mutex_unlock(&channel_cxt->mutex);

		//log
		sprintf(isp_cfg_path, "%sisp%d_%d_%d_%d_%d/LOG/", path, isp_id, w, h, fps, wdr);
		sprintf(command, "mkdir %s", isp_cfg_path);
		system(command);
		sprintf(command, "touch %sflag", isp_cfg_path);
		system(command);
		sprintf(command, "echo 0 > %sflag", isp_cfg_path);
		system(command);

		//3a stat
		sprintf(isp_cfg_path, "%sisp%d_%d_%d_%d_%d/3a_stat/", path, isp_id, w, h, fps, wdr);
		sprintf(command, "mkdir %s", isp_cfg_path);
		system(command);
		sprintf(command, "touch %sflag", isp_cfg_path);
		system(command);
		sprintf(command, "echo 0 > %sflag", isp_cfg_path);
		system(command);

		//creat isp_tuning file
		sprintf(command, "touch %sisp_tuning_isp%d", path, isp_id);
		system(command);
		sprintf(command, "echo 1 > %sisp_tuning_isp%d", path, isp_id);
		system(command);
	} else {
		printf("[ISP_TUNNING]: isp%d sensor path is invalid\n", isp_id);
		return -1;
	}
	return 0;
}

static int load_ini_tuning_file(AWChannel_cxt* channel_cxt, char *path, int isp_id, int w, int h, int fps, int wdr)
{
	int i, ret = 0, encoder_width, encoder_height;
	char isp_cfg_path[128], buf[50], pic_path[128], rdval = 1;
	RTTunningCtlData TunningCtlData;
	static unsigned char delay_cnt = 0;
	FILE *fd = NULL;

	if (strcmp(path, "")) {
		sprintf(isp_cfg_path, "%sisp_tuning_isp%d", path, isp_id);

		fd = fopen(isp_cfg_path, "r");
		if (fd) {
			if (fgets(buf, 50, fd) != NULL) {
				rdval = atoi(buf);
			}
			fclose(fd);
			fd = NULL;
		} else {
			printf("[ISP_TUNNING]: %s open failed\n", isp_cfg_path);
			return ret;
		}

		if (!rdval) {
			//cfg ir colorspace
			TunningCtlData.cfg_id = RT_ISP_CTRL_SET_ISP_PARAM;
			sprintf(TunningCtlData.path, "%sisp%d_%d_%d_%d_%d/", path, isp_id, w, h, fps, wdr);
			pthread_mutex_lock(&channel_cxt->mutex);
			ioctl(channel_cxt->dev_fd, IOCTL_GET_TUNNING_CTL_DATA, &TunningCtlData);
			pthread_mutex_unlock(&channel_cxt->mutex);
			//update isp_tuning flag
			sprintf(isp_cfg_path, "echo 1 > %sisp_tuning_isp%d", path, isp_id);
			system(isp_cfg_path);
		} else {
			ret = 1;
		}

		//log
		sprintf(isp_cfg_path, "%sisp%d_%d_%d_%d_%d/LOG/flag", path, isp_id, w, h, fps, wdr);
		fd = fopen(isp_cfg_path, "r");
		if (fd) {
			if (fgets(buf, 50, fd) != NULL) {
				rdval = atoi(buf);
			}
			fclose(fd);
			fd = NULL;
		} else {
			printf("[ISP_TUNNING]: %s open failed\n", isp_cfg_path);
		}

		if (!rdval) {
			TunningCtlData.cfg_id = RT_ISP_CTRL_GET_LOG;
			sprintf(TunningCtlData.path, "%sisp%d_%d_%d_%d_%d/", path, isp_id, w, h, fps, wdr);
			pthread_mutex_lock(&channel_cxt->mutex);
			ioctl(channel_cxt->dev_fd, IOCTL_GET_TUNNING_CTL_DATA, &TunningCtlData);
			pthread_mutex_unlock(&channel_cxt->mutex);

			sprintf(isp_cfg_path, "echo 1 > %sisp%d_%d_%d_%d_%d/LOG/flag", path, isp_id, w, h, fps, wdr);
			system(isp_cfg_path);
		}

		//3a_stat
		sprintf(isp_cfg_path, "%sisp%d_%d_%d_%d_%d/3a_stat/flag", path, isp_id, w, h, fps, wdr);
		fd = fopen(isp_cfg_path, "r");
		if (fd) {
			if (fgets(buf, 50, fd) != NULL) {
				rdval = atoi(buf);
			}
			fclose(fd);
			fd = NULL;
		} else {
			printf("[ISP_TUNNING]: %s open failed\n", isp_cfg_path);
		}

		if (!rdval) {
			TunningCtlData.cfg_id = RT_ISP_CTRL_GET_3A_STAT;
			sprintf(TunningCtlData.path, "%sisp%d_%d_%d_%d_%d/", path, isp_id, w, h, fps, wdr);
			pthread_mutex_lock(&channel_cxt->mutex);
			ioctl(channel_cxt->dev_fd, IOCTL_GET_TUNNING_CTL_DATA, &TunningCtlData);
			pthread_mutex_unlock(&channel_cxt->mutex);

			sprintf(isp_cfg_path, "echo 1 > %sisp%d_%d_%d_%d_%d/3a_stat/flag", path, isp_id, w, h, fps, wdr);
			system(isp_cfg_path);
		}

		//encpp
		sprintf(isp_cfg_path, "%sisp%d_%d_%d_%d_%d/encpp/encpp_flag", path, isp_id, w, h, fps, wdr);
		if (access(isp_cfg_path, F_OK) == 0) {
			RTsWbYuvParam WbYuvParam;
			RTVencThumbInfo mThumbInfo;
			memset(&WbYuvParam, 0, sizeof(RTsWbYuvParam));
			memset(&mThumbInfo, 0, sizeof(RTVencThumbInfo));

			fd = fopen(isp_cfg_path, "r");
			if (fd) {
				fgets(pic_path, 128, fd);
				fclose(fd);
				fd = NULL;
			} else {
				printf("[ISP_TUNNING]: %s open failed\n", isp_cfg_path);
				return ret;
			}
			sprintf(isp_cfg_path, "%sisp%d_%d_%d_%d_%d/encpp/encpp_width", path, isp_id, w, h, fps, wdr);
			fd = fopen(isp_cfg_path, "r");
			if (fd) {
				if (fgets(buf, 50, fd) != NULL) {
					WbYuvParam.sWbYuvcrop.nWidth = atoi(buf);
				}
				fclose(fd);
				fd = NULL;
			} else {
				printf("[ISP_TUNNING]: %s open failed\n", isp_cfg_path);
				return ret;
			}
			sprintf(isp_cfg_path, "%sisp%d_%d_%d_%d_%d/encpp/encpp_height", path, isp_id, w, h, fps, wdr);
			fd = fopen(isp_cfg_path, "r");
			if (fd) {
				if (fgets(buf, 50, fd) != NULL) {
					WbYuvParam.sWbYuvcrop.nHeight = atoi(buf);
				}
				fclose(fd);
				fd = NULL;
			} else {
				printf("[ISP_TUNNING]: %s open failed\n", isp_cfg_path);
				return ret;
			}

			if (!channel_cxt->config.dst_width || !channel_cxt->config.dst_height) {
				encoder_width = channel_cxt->config.width;
				encoder_height = channel_cxt->config.height;
			} else {
				encoder_width = channel_cxt->config.dst_width;
				encoder_height = channel_cxt->config.dst_height;
			}
			if (WbYuvParam.sWbYuvcrop.nWidth > encoder_width || WbYuvParam.sWbYuvcrop.nHeight > encoder_height) {
				printf("[ISP_TUNNING]: resolution(%dx%d) > encoder_resolution(%dx%d)! \n", WbYuvParam.sWbYuvcrop.nWidth, WbYuvParam.sWbYuvcrop.nHeight,
					encoder_width, encoder_height);
				return ret;
			}

			WbYuvParam.bEnableWbYuv = 1;
			WbYuvParam.nWbBufferNum = 1;
			WbYuvParam.scalerRatio  = RTVENC_ISP_SCALER_0;
			if (WbYuvParam.sWbYuvcrop.nWidth == encoder_width && WbYuvParam.sWbYuvcrop.nHeight == encoder_height) {
				WbYuvParam.bEnableCrop = 0;
			} else {
				WbYuvParam.bEnableCrop = 1;
				WbYuvParam.sWbYuvcrop.nTop = (ALIGN_XXB(16, encoder_height)/2 - WbYuvParam.sWbYuvcrop.nHeight/2);
				WbYuvParam.sWbYuvcrop.nLeft = (ALIGN_XXB(16, encoder_width)/2 - WbYuvParam.sWbYuvcrop.nWidth/2);
			}
			int nAlignW = ALIGN_XXB(16, WbYuvParam.sWbYuvcrop.nWidth);
			int nAlignH = ALIGN_XXB(16, WbYuvParam.sWbYuvcrop.nHeight);

			if (channel_cxt->p_wbyuv_info == NULL) {
				channel_cxt->p_wbyuv_info = calloc(1, sizeof(WbYuvFuncInfo));
				memset(channel_cxt->p_wbyuv_info, 0, sizeof(WbYuvFuncInfo));
			}

			if (delay_cnt-- > 0) {
				if (!channel_cxt->p_wbyuv_info->enable_wbyuv || channel_cxt->p_wbyuv_info->yuvSize != nAlignW*nAlignH*3/2) {
					printf("Init encpp cfg(Left=%d, Top=%d, Width=%d, Height=%d)\n", WbYuvParam.sWbYuvcrop.nLeft, WbYuvParam.sWbYuvcrop.nTop, WbYuvParam.sWbYuvcrop.nWidth, WbYuvParam.sWbYuvcrop.nHeight);
					pthread_mutex_lock(&channel_cxt->mutex);
					if (ioctl(channel_cxt->dev_fd, IOCTL_SET_WB_YUV, &WbYuvParam) != 0) {
						pthread_mutex_unlock(&channel_cxt->mutex);
						aw_loge("IOCTL_SET_WB_YUV failed");
						return ret;
					}
					pthread_mutex_unlock(&channel_cxt->mutex);
					channel_cxt->p_wbyuv_info->enable_wbyuv = 1;
					channel_cxt->p_wbyuv_info->yuvSize = nAlignW*nAlignH*3/2;
					if (channel_cxt->p_wbyuv_info->yuvBuf != NULL)
						free(channel_cxt->p_wbyuv_info->yuvBuf);

					channel_cxt->p_wbyuv_info->yuvBuf = calloc(1, channel_cxt->p_wbyuv_info->yuvSize);
					delay_cnt = 3;//delay 3 frames
				} else {
					mThumbInfo.pThumbBuf    = channel_cxt->p_wbyuv_info->yuvBuf;
					mThumbInfo.nThumbSize   = channel_cxt->p_wbyuv_info->yuvSize;
					mThumbInfo.bWriteToFile = 0;

					pthread_mutex_lock(&channel_cxt->mutex);
					if (ioctl(channel_cxt->dev_fd, IOCTL_GET_WB_YUV, &mThumbInfo) != 0) {
						aw_loge("IOCTL_GET_WB_YUV failed");
						pthread_mutex_unlock(&channel_cxt->mutex);
						return ret;
					}
					pthread_mutex_unlock(&channel_cxt->mutex);
					sprintf(isp_cfg_path, "%s/encpp_frame", pic_path);
					fd = fopen(isp_cfg_path, "w+");
					if (fd) {
						fwrite(channel_cxt->p_wbyuv_info->yuvBuf, 1, channel_cxt->p_wbyuv_info->yuvSize, fd);
						fclose(fd);
						fd = NULL;
					} else {
						printf("[ISP_TUNNING]: %s open failed\n", isp_cfg_path);
						return ret;
					}

					sprintf(isp_cfg_path, "rm %sisp%d_%d_%d_%d_%d/encpp/encpp_flag", path, isp_id, w, h, fps, wdr);
					system(isp_cfg_path);
				}
			}
		}
	} else {
		printf("[ISP_TUNNING]: isp%d sensor path is invalid\n", isp_id);
		return ret;
	}
	return ret;
}

static void isp_ini_tuning_run(AWChannel_cxt* channel_cxt)
{
	static unsigned char ch_tuning_en = 0;
	RTTunningCtlData TunningCtlData;
	int i, ret = 0, channel_en;

	if (!channel_cxt)
		return;
	channel_en = ch_tuning_en & (0x1 << channel_cxt->id);
	if (!channel_en && access(INI_PATH"isp_tuning", F_OK) == 0) {
		if (channel_cxt->id > 3)
			return;
		if (SensorCfg[channel_cxt->id].act_fps == 0xffff)
			return;

		TunningCtlData.cfg_id = RT_ISP_CTRL_GET_SENSOR_CFG;
		pthread_mutex_lock(&channel_cxt->mutex);
		ret = ioctl(channel_cxt->dev_fd, IOCTL_GET_TUNNING_CTL_DATA, &TunningCtlData);
		pthread_mutex_unlock(&channel_cxt->mutex);
		if(ret != 0) {
			aw_loge("IOCTL_GET_TUNNING_CTL_DATA failed");
			return;
		}
		for (i = 0; i < VIDEO_INPUT_CHANNEL_NUM; i++) {
			if (!memcmp(&SensorCfg[i], &TunningCtlData.sensor_cfg, sizeof(RTTunningSensorCfg))) {
				printf("[ISP_TUNNING]: ch%d->isp%d has been initialized.\n", channel_cxt->id, TunningCtlData.sensor_cfg.isp_id);
				SensorCfg[channel_cxt->id].act_fps = 0xffff;
				return;
			}
		}
		TunningCtlData.cfg_id = RT_ISP_CTRL_RPBUF_INIT;
		pthread_mutex_lock(&channel_cxt->mutex);
		ret = ioctl(channel_cxt->dev_fd, IOCTL_GET_TUNNING_CTL_DATA, &TunningCtlData);
		pthread_mutex_unlock(&channel_cxt->mutex);
		ch_tuning_en |= (0x1 << channel_cxt->id);
		SensorCfg[channel_cxt->id] = TunningCtlData.sensor_cfg;
		save_ini_tuning_file(channel_cxt, INI_PATH, TunningCtlData.sensor_cfg.isp_id,TunningCtlData.sensor_cfg.sensor_width,
					TunningCtlData.sensor_cfg.sensor_height, TunningCtlData.sensor_cfg.act_fps, TunningCtlData.sensor_cfg.wdr);
		printf("[ISP_TUNNING]: ch%d->isp%d init ini tuning cfg OK!\n", channel_cxt->id, TunningCtlData.sensor_cfg.isp_id);
	}

	if (channel_en) {
		ret = load_ini_tuning_file(channel_cxt, INI_PATH, TunningCtlData.sensor_cfg.isp_id, TunningCtlData.sensor_cfg.sensor_width,
			TunningCtlData.sensor_cfg.sensor_height, TunningCtlData.sensor_cfg.act_fps, TunningCtlData.sensor_cfg.wdr);
		if (!ret)
			printf("[ISP_TUNNING]: ch%d->isp%d read ini tuning cfg OK!\n", channel_cxt->id, TunningCtlData.sensor_cfg.isp_id);
	}
}

#define RT_MEDIA_SOCKET_MAX_SIZE (1024)
/**
  send GEneric_NetLink_message to kernel. generic netlink family is defined upon NETLINK_GENERIC, user can define many
  different families.

  This function only accepts one NetLink Attribute. But in fact, one GENL message can contain many nla(NetLink Attribute)s.

  @param nSockFd
    client socket file descriptor, it must be created with NETLINK_GENERIC protocol.
  @param genlFamilyId
    generic netlink family id on generic netlink.
  @param nlmsgFlags
    NLM_F_REQUEST, NLM_F_ACK
  @param nlmsgPortId
    sending-client's port id.
  @param genlCmd
    command of generic netlink family
  @param genlVersion
    associated protocol version of the command, same to generic netlink family version.
  @param nlaType,nlaData,nlaDataLen
    netlink attribute of generic netlink family

  @return:
    0: success
   -1: fail
*/
static int awVideoInput_SendGENLMessage(int nSockFd, unsigned short genlFamilyId, unsigned short nlmsgFlags,
					unsigned int nlmsgPortId, unsigned char genlCmd, unsigned char genlVersion,
					unsigned short nlaType, void *nlaData, unsigned short nlaDataLen)
{
	struct sockaddr_nl skDstAddr;
	int rc = 0;
	int ret;

	int nlaAttrSize = NLA_HDRLEN + nlaDataLen;
	int nlaTotalSize = NLA_ALIGN(nlaAttrSize);
	int genlmsg_MsgSize = GENL_HDRLEN + nlaTotalSize;
	int genlmsg_TotalSize = NLMSG_ALIGN(genlmsg_MsgSize);
	int nlmsg_MsgSize = NLMSG_HDRLEN + genlmsg_TotalSize;
	int nlmsg_TotalSize = NLMSG_ALIGN(nlmsg_MsgSize);
	//NLMSG_ALIGN(NLMSG_HDRLEN + NLMSG_ALIGN(GENL_HDRLEN + NLA_ALIGN(NLA_HDRLEN + nlaDataLen)))

	char *buf = malloc(nlmsg_TotalSize);
	if(NULL == buf)
	{
		aw_loge("fatal error! malloc %d bytes fail.", nlmsg_TotalSize);
		return -1;
	}
	memset(buf, 0, nlmsg_TotalSize);
	struct nlmsghdr *nlh = (struct nlmsghdr *)buf;
	struct genlmsghdr *gnlh = NLMSG_DATA(nlh);
	nlh->nlmsg_len = nlmsg_TotalSize;
	nlh->nlmsg_type = genlFamilyId;
	nlh->nlmsg_flags = nlmsgFlags;
	nlh->nlmsg_seq = 0;
	nlh->nlmsg_pid = nlmsgPortId;
	gnlh->cmd = genlCmd;
	gnlh->version = genlVersion;
	struct nlattr *nla =  (struct nlattr *)((char *)gnlh + GENL_HDRLEN);
	nla->nla_type = nlaType;
	nla->nla_len = nlaAttrSize;
	memcpy((char *)nla + NLA_HDRLEN, nlaData, nlaDataLen);

	memset(&skDstAddr, 0, sizeof(skDstAddr));
	skDstAddr.nl_family = AF_NETLINK;
	skDstAddr.nl_pid = 0;
	skDstAddr.nl_groups = 0;

	ret = sendto(nSockFd, buf, nlmsg_TotalSize, 0, (struct sockaddr *)&skDstAddr, sizeof(skDstAddr));
	if(ret < nlmsg_TotalSize)
	{
		aw_loge("fatal error! sendto() not send all data:%d<%d", ret, nlmsg_TotalSize);
		rc = -1;
	}
	free(buf);

	return rc;
}

/**
  try to get generic netlink user-defined family id by family name.

  @return
    family id.
    -1: failure
*/
static unsigned short awVideoInput_GetGENLFamilyId(int nSockFd, unsigned int nNLPortId, char *pFamilyName)
{
	unsigned short genlFamilyId = -1;
	int rc = awVideoInput_SendGENLMessage(nSockFd, GENL_ID_CTRL, NLM_F_REQUEST, nNLPortId, CTRL_CMD_GETFAMILY, 0,
				CTRL_ATTR_FAMILY_NAME, (void *)pFamilyName, strlen(pFamilyName)+1);
	if(rc != 0)
	{
		aw_loge("fatal error! send genl message to get family id fail");
		return -1;
	}
	char *pBuf = (char *)malloc(RT_MEDIA_SOCKET_MAX_SIZE);
	if(NULL == pBuf)
	{
		aw_loge("fatal error! malloc fail!");
		return -1;
	}
	memset(pBuf, 0, RT_MEDIA_SOCKET_MAX_SIZE);
	struct nlmsghdr *nlh;
	struct genlmsghdr *gnlh;
	struct nlattr *nla;
	struct sockaddr_nl skSrcAddr;
	socklen_t addrlen = sizeof(struct sockaddr_nl);
	memset(&skSrcAddr, 0, addrlen);
	int nRespLen = recvfrom(nSockFd, pBuf, RT_MEDIA_SOCKET_MAX_SIZE, 0, (struct sockaddr *)&skSrcAddr, &addrlen);
	if (nRespLen >= 0)
	{
		//aw_logd("receive family info respLen:%d, sockaddr_nl:%d-%d-%d-%d,%d", nRespLen,
		//	skSrcAddr.nl_family, skSrcAddr.nl_pad, skSrcAddr.nl_pid, skSrcAddr.nl_groups, addrlen);
		nlh = (struct nlmsghdr *)pBuf;
		if (nlh->nlmsg_type == NLMSG_ERROR || !NLMSG_OK(nlh, nRespLen))
		{
			aw_loge("fatal error! nlmsg wrong:[%d,%d-%d]", nlh->nlmsg_type, nlh->nlmsg_len, nRespLen);
			if(nlh->nlmsg_type == NLMSG_ERROR)
			{
				struct nlmsgerr *errmsg = NLMSG_DATA(nlh);
				aw_loge("fatal error! nlmsg err:[%d]", errmsg->error);
			}
			genlFamilyId = -1;
		}
		else
		{
			if(GENL_ID_CTRL == nlh->nlmsg_type)
			{
				//ref to ctrl_fill_info() in lichee/linux-4.9/net/netlink/genetlink.c
				unsigned char genlCtrlCmd;
				unsigned char genlCtrlVersion;
				char genlFamilyName[GENL_NAMSIZ];
				unsigned int genlFamilyVersion = 0;
				unsigned int genlFamilyHdrSize = 0;
				unsigned int genlFamilyMaxAttr = 0;

				gnlh = NLMSG_DATA(nlh);
				genlCtrlCmd = gnlh->cmd;
				genlCtrlVersion = gnlh->version;

				nla = (struct nlattr *)((char *)gnlh + GENL_HDRLEN);
				if(CTRL_ATTR_FAMILY_NAME == nla->nla_type)
				{
					if(nla->nla_len - NLA_HDRLEN > GENL_NAMSIZ)
					{
						aw_loge("fatal error! nla wrong:[%d-%d]", nla->nla_type, nla->nla_len);
					}
					memcpy(genlFamilyName, (char *)nla + NLA_HDRLEN, nla->nla_len - NLA_HDRLEN);
				}
				else
				{
					aw_loge("fatal error! nla is not our respect:[%d-%d]", nla->nla_type, nla->nla_len);
				}
				nla = (struct nlattr *)((char *)nla + NLA_ALIGN(nla->nla_len));
				if(CTRL_ATTR_FAMILY_ID == nla->nla_type)
				{
					if(nla->nla_len - NLA_HDRLEN != 2)
					{
						aw_loge("fatal error! nla wrong:[%d-%d]", nla->nla_type, nla->nla_len);
					}
					genlFamilyId = *(unsigned short*)((char *)nla + NLA_HDRLEN);
				}
				else
				{
					aw_loge("fatal error! nla is not our respect:[%d-%d]", nla->nla_type, nla->nla_len);
				}
				nla = (struct nlattr *)((char *)nla + NLA_ALIGN(nla->nla_len));
				if(CTRL_ATTR_VERSION == nla->nla_type)
				{
					if(nla->nla_len - NLA_HDRLEN != 4)
					{
						aw_loge("fatal error! nla wrong:[%d-%d]", nla->nla_type, nla->nla_len);
					}
					genlFamilyVersion = *(unsigned int*)((char *)nla + NLA_HDRLEN);
				}
				else
				{
					aw_loge("fatal error! nla is not our respect:[%d-%d]", nla->nla_type, nla->nla_len);
				}
				nla = (struct nlattr *)((char *)nla + NLA_ALIGN(nla->nla_len));
				if(CTRL_ATTR_HDRSIZE == nla->nla_type)
				{
					if(nla->nla_len - NLA_HDRLEN != 4)
					{
						aw_loge("fatal error! nla wrong:[%d-%d]", nla->nla_type, nla->nla_len);
					}
					genlFamilyHdrSize = *(unsigned int*)((char *)nla + NLA_HDRLEN);
				}
				else
				{
					aw_loge("fatal error! nla is not our respect:[%d-%d]", nla->nla_type, nla->nla_len);
				}
				nla = (struct nlattr *)((char *)nla + NLA_ALIGN(nla->nla_len));
				if(CTRL_ATTR_MAXATTR == nla->nla_type)
				{
					if(nla->nla_len - NLA_HDRLEN != 4)
					{
						aw_loge("fatal error! nla wrong:[%d-%d]", nla->nla_type, nla->nla_len);
					}
					genlFamilyMaxAttr = *(unsigned int*)((char *)nla + NLA_HDRLEN);
				}
				else
				{
					aw_loge("fatal error! nla is not our respect:[%d-%d]", nla->nla_type, nla->nla_len);
				}
				aw_logd("receive ctrl family cmd-version:[%d-%d], parse genlmsg family info:[%s-%d-%d-%d-%d]", genlCtrlCmd, genlCtrlVersion,
					genlFamilyName, genlFamilyId, genlFamilyVersion, genlFamilyHdrSize, genlFamilyMaxAttr);
			}
			else
			{
				aw_loge("fatal error! nlmsg type wrong:[%d]", nlh->nlmsg_type);
				genlFamilyId = -1;
			}
		}
	}
	else
	{
		aw_loge("fatal error! receive response message fail:[%d,%s]", nRespLen, strerror(errno));
		genlFamilyId = -1;
	}
	free(pBuf);
	return genlFamilyId;
}

/**
  every AWChannel_cxt need set its NLPortId to rt_media in kernel, so send channelId to rt_media, rt_media will receive
  channelId and sending socket's portId.

  @return
    0: success
    -1: failure
*/
static int awVideoInput_GENLSocketConnectRtMedia(AWChannel_cxt *pChannel)
{
	int rc = 0;
	int nChannelId = pChannel->id;
	rc = awVideoInput_SendGENLMessage(pChannel->mSockFd, g_videoInput_cxt->mGENLFamilyId, NLM_F_REQUEST | NLM_F_ACK,
									pChannel->mSrcNLPortId, RT_MEDIA_CMD_SEND, RT_MEDIA_GENL_VERSION,
									RT_MEDIA_CMD_ATTR_CHNID, (void *)&nChannelId, sizeof(nChannelId));
	if(rc != 0)
	{
		aw_loge("fatal error! send genl message to trasport channel id fail");
		return -1;
	}
	char *pBuf = (char *)malloc(RT_MEDIA_SOCKET_MAX_SIZE);
	if(NULL == pBuf)
	{
		aw_loge("fatal error! malloc fail!");
		return -1;
	}
	memset(pBuf, 0, RT_MEDIA_SOCKET_MAX_SIZE);
	struct nlmsghdr *nlh;
	struct genlmsghdr *gnlh;
	struct nlattr *nla;
	struct sockaddr_nl skSrcAddr;
	socklen_t addrlen = sizeof(struct sockaddr_nl);
	memset(&skSrcAddr, 0, addrlen);
	int nRespLen = recvfrom(pChannel->mSockFd, pBuf, RT_MEDIA_SOCKET_MAX_SIZE, 0, (struct sockaddr *)&skSrcAddr, &addrlen);
	if (nRespLen >= 0)
	{
		//aw_logd("receive rt_media respLen:%d, sockaddr_nl:%d-%d-%d-%d,%d", nRespLen,
		//	skSrcAddr.nl_family, skSrcAddr.nl_pad, skSrcAddr.nl_pid, skSrcAddr.nl_groups, addrlen);
		nlh = (struct nlmsghdr *)pBuf;
		if (NLMSG_ERROR == nlh->nlmsg_type || !NLMSG_OK(nlh, nRespLen))
		{
			if(NLMSG_ERROR == nlh->nlmsg_type)
			{
				struct nlmsgerr *errmsg = NLMSG_DATA(nlh);
				if(0 == errmsg->error)
				{
					//aw_logd("we receive rt_media_cmd successful ack!");
					rc = 0;
				}
				else
				{
					aw_loge("fatal error! nlmsg err:[%d]", errmsg->error);
					rc = -1;
				}
			}
			else
			{
				aw_loge("fatal error! nlmsg wrong:[%d,%d-%d]", nlh->nlmsg_type, nlh->nlmsg_len, nRespLen);
				rc = -1;
			}
		}
		else
		{
			aw_loge("fatal error! check code! nlmsg type[%d] is not what we want.", nlh->nlmsg_type);
			rc = -1;
		}
	}
	else
	{
		aw_loge("fatal error! receive response message fail:[%d,%s]", nRespLen, strerror(errno));
		rc = -1;
	}
	free(pBuf);
	return rc;
}

/**
  receive generic netlink message from kernel, we use rt_media genl family.

  @return
    0: success
    -1: fail
*/
static int awVideoInput_ReceiveGENLRTCbEvent(AWChannel_cxt *pChannel, RTCbEvent *pEvent)
{
	int ret = 0;
	if(NULL == pEvent)
	{
		return -1;
	}
	int nlaDataLen = sizeof(RTCbEvent);
	int nlaAttrSize = NLA_HDRLEN + nlaDataLen;
	int nlaTotalSize = NLA_ALIGN(nlaAttrSize);
	int genlmsg_MsgSize = GENL_HDRLEN + nlaTotalSize;
	int genlmsg_TotalSize = NLMSG_ALIGN(genlmsg_MsgSize);
	int nlmsg_MsgSize = NLMSG_HDRLEN + genlmsg_TotalSize;
	int nlmsg_TotalSize = NLMSG_ALIGN(nlmsg_MsgSize);

	//create message
	struct nlmsghdr *nlh = (struct nlmsghdr *)malloc(nlmsg_TotalSize);
	if(!nlh)
	{
		aw_loge("fatal error! nlmsg malloc fail");
		return -1;
	}
	struct genlmsghdr *gnlh;
	struct nlattr *nla;
	struct sockaddr_nl skSrcAddr;
	socklen_t addrlen = sizeof(struct sockaddr_nl);
	memset(&skSrcAddr, 0, addrlen);
	int nRespLen = recvfrom(pChannel->mSockFd, (void*)nlh, nlmsg_TotalSize, 0, (struct sockaddr *)&skSrcAddr, (socklen_t *)&addrlen);
	if(nRespLen >= 0)
	{
		//aw_logd("recorder[%d] receive generic netlink message from kernel! respLen:%d, sockaddr_nl:[%d-%d-%d-%d,%d]",
		//	pChannel->id, pChannel->config.channelId  nRespLen, skSrcAddr.nl_family, skSrcAddr.nl_pad, skSrcAddr.nl_pid, skSrcAddr.nl_groups, addrlen);
		if (nlh->nlmsg_type == NLMSG_ERROR || !NLMSG_OK(nlh, nRespLen))
		{
			aw_loge("fatal error! nlmsg wrong:[%d,%d-%d]", nlh->nlmsg_type, nlh->nlmsg_len, nRespLen);
			if(nlh->nlmsg_type == NLMSG_ERROR)
			{
				struct nlmsgerr *errmsg = NLMSG_DATA(nlh);
				aw_loge("fatal error! nlmsg err:[%d]", errmsg->error);
			}
			ret = -1;
		}
		else
		{
			if(g_videoInput_cxt->mGENLFamilyId == nlh->nlmsg_type)
			{
				//ref to rt_media_send_genl_RTCbEvent() in lichee/linux-4.9/driver/media/rt-media/rt_media.c
				gnlh = NLMSG_DATA(nlh);
				if(RT_MEDIA_CMD_CB_EVENT == gnlh->cmd)
				{
					nla = (struct nlattr *)((char *)gnlh + GENL_HDRLEN);
					if(RT_MEDIA_CMD_ATTR_RTCBEVENT == nla->nla_type)
					{
						if(nla->nla_len - NLA_HDRLEN != nlaDataLen)
						{
							aw_loge("fatal error! nla wrong:[%d-%d,%d]", nla->nla_type, nla->nla_len, nlaDataLen);
						}
						memcpy((void *)pEvent, (char *)nla + NLA_HDRLEN, nlaDataLen);
						//aw_logd("recorder[%d] event info:type:%d, data1:%d", pChannel->id, pEvent->eEventType,  pEvent->nData1);
						ret = 0;
					}
					else
					{
						aw_loge("fatal error! nla is not our respect:[%d-%d]", nla->nla_type, nla->nla_len);
						ret = -1;
					}
				}
				else
				{
					aw_loge("fatal error! unknown rt_media genl family command:%d,%d, ignore", gnlh->cmd, gnlh->version);
					ret = -1;
				}
			}
			else
			{
				aw_loge("fatal error! nlmsg type wrong:[%d!=%d]", nlh->nlmsg_type, g_videoInput_cxt->mGENLFamilyId);
				ret = -1;
			}
		}
	}
	else
	{
		aw_loge("fatal error! receive rt media genlmsg fail:[%d,%s]", nRespLen, strerror(errno));
		ret = -1;
	}
	free(nlh);

	return ret;
}

int AWVideoInput_Init(void)
{
	int ret;
	int i = 0;
	AWChannel_cxt* channel_cxt = NULL;

	if(g_videoInput_cxt != NULL)
	{
		aw_logw("the g_videoInput_cxt had inited");
		return -1;
	}

	g_videoInput_cxt = (AWVideoInput_cxt*)malloc(sizeof(AWVideoInput_cxt));
	memset(g_videoInput_cxt, 0, sizeof(AWVideoInput_cxt));
	g_videoInput_cxt->ion_fd = -1;

	aw_rt_ion_alloc_open();

	g_videoInput_cxt->ion_fd = aw_ion_open();
	if(g_videoInput_cxt->ion_fd < 0)
	{
		aw_loge("open ion failed: %d",g_videoInput_cxt->ion_fd);
		goto error_exit;
	}

	for(i = 0; i < VIDEO_INPUT_CHANNEL_NUM; i++)
	{
		channel_cxt = &g_videoInput_cxt->channel_cxt[i];
		channel_cxt->id     = i;
		channel_cxt->dev_fd = -1;
		channel_cxt->state  = VIDEO_INPUT_STATE_IDLE;
		pthread_mutex_init(&channel_cxt->mutex, NULL);

		channel_cxt->mq = aw_message_queue_create(16, "aw_video_in");

		int j = 0;
		for(j = 0; j < SEM_WAIT_REPLY_NUM; j++)
		{
			sem_init(&channel_cxt->reply_sem[j], 0, 0);
		}

		channel_cxt->mSockFd = socket(AF_NETLINK, SOCK_RAW, NETLINK_GENERIC);
		if(channel_cxt->mSockFd >= 0)
		{
			//aw_logd("create socket success:[%d]", channel_cxt->mSockFd);
			channel_cxt->mSrcNLPortId = getpid() | channel_cxt->id<<16;
			struct sockaddr_nl stSrcAddr;
			memset(&stSrcAddr, 0, sizeof(struct sockaddr_nl));
			stSrcAddr.nl_family = AF_NETLINK;
			stSrcAddr.nl_pid = channel_cxt->mSrcNLPortId;
			ret = bind(channel_cxt->mSockFd, (struct sockaddr*)&stSrcAddr, sizeof(struct sockaddr_nl));
			if(ret != 0)
			{
				aw_loge("fatal error! bind sockaddr to socket fd fail:[%d,%s]", ret, strerror(errno));
			}
			if(0 == g_videoInput_cxt->mGENLFamilyId)
			{
				if(strlen(RT_MEDIA_GENL_NAME) + 1 > GENL_NAMSIZ)
				{
					aw_loge("fatal error! genl rt_media family name[%s] too long, must reduce it!", RT_MEDIA_GENL_NAME);
				}
				g_videoInput_cxt->mGENLFamilyId = awVideoInput_GetGENLFamilyId(channel_cxt->mSockFd, channel_cxt->mSrcNLPortId, RT_MEDIA_GENL_NAME);
			}
		}
		else
		{
			aw_loge("fatal error! create socket fail:[%d,%s]", channel_cxt->mSockFd, strerror(errno));
		}
	}

	return 0;

error_exit:

	AWVideoInput_DeInit();

	return -1;
}

int AWVideoInput_Configure(int channel, VideoInputConfig *pCfg)
{
	int i = 0;
	int ret = 0;
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null when call configure\n");
		return -1;
	}

	aw_logd("configure: channel = %d, pixelformat = %d\n",channel, pCfg->pixelformat);

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("configure: the channel[%d] overflow\n", channel);
		return -1;
	}

	AWChannel_cxt* cur_channel_cxt = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel_cxt->mutex);


	if(cur_channel_cxt->dev_fd == -1)
	{
		cur_channel_cxt->dev_fd = open(RT_MEDIA_DEV_NAME, O_RDWR);
		if(cur_channel_cxt->dev_fd < 0)
		{
			aw_loge("open rt-media failed: %d\n",cur_channel_cxt->dev_fd);
			pthread_mutex_unlock(&cur_channel_cxt->mutex);
			return -1;
		}
	}

	VideoInputConfig* cur_config = &cur_channel_cxt->config;
	cur_config->demo_start = 1;
	memcpy(cur_config, pCfg, sizeof(VideoInputConfig));
#if RT_MEDIA_SUPPORT_VENC_PARAM_DEBUG
	check_ve_param_file(VE_PARAM_STATIC, cur_config, cur_config->channelId);
#endif
	aw_logd("wdr_enable = %d, enable_aiisp = %d", cur_config->enable_wdr, cur_config->enable_aiisp);

	cur_channel_cxt->enable_aiisp = cur_config->enable_aiisp;

	if (ioctl(cur_channel_cxt->dev_fd, IOCTL_CONFIG, cur_config))
	{
		aw_loge("IOCTL_CONFIG failed");
		return -1;
	}

	ret = awVideoInput_GENLSocketConnectRtMedia(cur_channel_cxt);
	if(ret != 0)
	{
		aw_loge("fatal error! recorder[%d=%d] genl socket connect rt_media fail, portId:%d", channel, cur_channel_cxt->id, cur_channel_cxt->mSrcNLPortId);
	}

	if (cur_config->output_mode == OUTPUT_MODE_ENCODE_FILE_YUV  || OUTPUT_MODE_ENCODE_OUTSIDE_YUV == cur_config->output_mode)
	{
		unsigned char* vir_addr = NULL;
		int buf_size = rt_cal_input_buffer_size(cur_config->width, cur_config->height, cur_config->pixelformat, 0);

		cur_channel_cxt->enc_yuv_buf_info.buf_size = buf_size;
		if(cur_channel_cxt->enc_yuv_buf_info.vir_addr)
			aw_rt_ion_alloc_pfree(cur_channel_cxt->enc_yuv_buf_info.vir_addr);


		vir_addr = aw_rt_ion_alloc_palloc(buf_size);
		cur_channel_cxt->enc_yuv_buf_info.phy_addr = aw_rt_ion_alloc_vir2phy(vir_addr);
		cur_channel_cxt->enc_yuv_buf_info.vir_addr = vir_addr;
		cur_channel_cxt->enc_yuv_buf_info.bInit_flag  = 1;
	}

	cur_channel_cxt->state = VIDEO_INPUT_STATE_CONFIGED;

	pthread_mutex_unlock(&cur_channel_cxt->mutex);

	return ret;
}

int AWVideoInput_CallBack(int channel, Video_Input_cb cb, int bAppendSpspps)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null when call set callback");
		return -1;
	}

	//aw_logd("set callback: channel = %d\n",channel);

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("callback: the channel[%d] overflow", channel);
		return -1;
	}
	AWChannel_cxt* channel_cxt = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&channel_cxt->mutex);

	channel_cxt->callback = cb;
	channel_cxt->b_insert_sps_pps = bAppendSpspps;
	pthread_mutex_unlock(&channel_cxt->mutex);

	//* todo
	return 0;
}

int AWVideoInput_SetChannelThreadExitCb(int channel, Channel_Thread_exit cb)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null when call set callback");
		return -1;
	}

	//aw_logd("set callback: channel = %d\n",channel);

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("callback: the channel[%d] overflow", channel);
		return -1;
	}
	AWChannel_cxt* channel_cxt = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&channel_cxt->mutex);
	channel_cxt->thread_exit_cb = cb;
	aw_logd("thread_exit_cb %p %p", cb, channel_cxt->thread_exit_cb);
	pthread_mutex_unlock(&channel_cxt->mutex);

	return 0;
}

/**
  set callback to AWVideoInput channel, used to notify app some events.

  It can replace AWVideoInput_CallBack() and AWVideoInput_SetChannelThreadExitCb().

  @param cb
    cb's params contain event type, so it can implement many different functions.
  @param pAppData
    app set, cb use it as param. When callback happen, app can use pAppData's content.
*/
int AWVideoInput_SetChannelCallback(int channel, AWVideoInputCallbackType cb, void* pAppData)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("fatal error! g_videoInput_cxt is null");
		return -1;
	}
	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("fatal error! the channel[%d] overflow", channel);
		return -1;
	}
	AWChannel_cxt* channel_cxt = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&channel_cxt->mutex);
	channel_cxt->mCallback = cb;
	channel_cxt->mpAppData = pAppData;
	pthread_mutex_unlock(&channel_cxt->mutex);

	return 0;
}

/**
  set to channel if appending spspps when send video stream.

  @return
    0:success;
    -1: fail
*/
int AWVideoInput_AppendSpspps(int channel, int bAppendSpspps)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("fatal error! g_videoInput_cxt is null");
		return -1;
	}
	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("fatal error! the channel[%d] overflow", channel);
		return -1;
	}
	AWChannel_cxt* channel_cxt = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&channel_cxt->mutex);
	channel_cxt->b_insert_sps_pps = bAppendSpspps;
	pthread_mutex_unlock(&channel_cxt->mutex);

	return 0;
}

static int post_messgae_and_wait(AWChannel_cxt* channel_cxt, int cmd)
{
	XmMessage msg;
	memset(&msg, 0, sizeof(XmMessage));
	msg.messageId  = cmd;
	msg.psem_reply = &channel_cxt->reply_sem[cmd];

	aw_message_queue_postMessage(channel_cxt->mq, &msg);

	aw_logv("********* cmd = %d, wait reply start", cmd);
	aw_rt_SemTimedWait(msg.psem_reply, -1);
	aw_logv("********* cmd = %d, wait reply finish", cmd);

	return 0;
}

AWVideoInput_State AWVideoInput_Get_channel_state(int channel)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null when call start\n");
		return -1;
	}
    
	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("start: the channel[%d] overflow\n", channel);
		return -1;
	}
    
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);
	AWVideoInput_State eState = cur_channel->state;
	pthread_mutex_unlock(&cur_channel->mutex);
	return eState;
}

int AWVideoInput_Get_csi_status(int channel)
{
	int csi_status[VIDEO_INPUT_CHANNEL_NUM];
	memset(csi_status, 0, sizeof(int) * VIDEO_INPUT_CHANNEL_NUM);

	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null when call start\n");
		return -1;
	}
    
	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("start: the channel[%d] overflow\n", channel);
		return -1;
	}
    
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	ioctl(cur_channel->dev_fd, IOCTL_GET_CSI_STATUS, csi_status);
	
	return csi_status[channel];
}

int AWVideoInput_Check_Wait_Start(int channel)
{
	int csi_status[VIDEO_INPUT_CHANNEL_NUM];
	memset(csi_status, 0, sizeof(int) * VIDEO_INPUT_CHANNEL_NUM);

	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null when call start\n");
		return -1;
	}
    
	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("start: the channel[%d] overflow\n", channel);
		return -1;
	}
    
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	ioctl(cur_channel->dev_fd, IOCTL_GET_CSI_STATUS, csi_status);

	if (csi_status[channel] == 0) {
		return -1;
	}

	if (cur_channel->demo_wait_csi_ready && csi_status[channel]) {
		aw_logd("re IOCTL_START");
		cur_channel->demo_wait_csi_ready = 0;
		AWVideoInput_Start(channel, 1);
	}
	return 0;
}

int AWVideoInput_Start(int channel,int bStart)
{
	int ret = 0;
    
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null when call start\n");
		return -1;
	}
    
	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("start: the channel[%d] overflow\n", channel);
		return -1;
	}
    
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	AWVideoInput_State state = cur_channel->state;
    
	//aw_logd("start: channel = %d, flag = %d, state = %d\n",channel, bStart, state);

	if(bStart == 0 && state == VIDEO_INPUT_STATE_EXCUTING)
	{
		ret = ioctl(cur_channel->dev_fd, IOCTL_PAUSE, channel);

		if(cur_channel->bThread_create_flag == 1)
		{
			pthread_mutex_unlock(&cur_channel->mutex);
			post_messgae_and_wait(cur_channel, VIDEO_INPUT_CMD_PAUSE);
			pthread_mutex_lock(&cur_channel->mutex);
		}
		else
			cur_channel->state = VIDEO_INPUT_STATE_PAUSE;
	}
	else if(bStart == 1 && (state == VIDEO_INPUT_STATE_CONFIGED || state == VIDEO_INPUT_STATE_PAUSE))
	{
        
		ret = ioctl(cur_channel->dev_fd, IOCTL_START, channel);
		if (ret) {
			aw_logw("channel %d kernel rt not ready, pause it and start later.", channel);
			cur_channel->demo_wait_csi_ready = 1;
		}

		if(state == VIDEO_INPUT_STATE_CONFIGED
		   && cur_channel->bThread_create_flag == 0
		   && (cur_channel->config.output_mode == OUTPUT_MODE_STREAM
		   || cur_channel->config.output_mode == OUTPUT_MODE_ENCODE_FILE_YUV
		   || cur_channel->config.output_mode == OUTPUT_MODE_ENCODE_OUTSIDE_YUV)
		   )
		{

			pthread_create(&cur_channel->thread, NULL, ChannelThread, (void*)cur_channel);
			cur_channel->bThread_create_flag = 1;

			cur_channel->GENL_thread_exit_flag = 0;
			pthread_create(&cur_channel->GENL_thread, NULL, GENLRecvThread, (void *)cur_channel);
			cur_channel->bGENL_thread_create_flag = 1;

			if (cur_channel->enable_aiisp) {
				cur_channel->AIISP_thread_exit_flag = 0;
				pthread_create(&cur_channel->AIISP_thread, NULL, AIISPThread, (void *)cur_channel);
				cur_channel->bAIISP_thread_create_flag = 1;
			}
		}
        
		if(cur_channel->bThread_create_flag == 1)
		{
			pthread_mutex_unlock(&cur_channel->mutex);
			if (ret) {
				//kernel rt not ready, pause
				post_messgae_and_wait(cur_channel, VIDEO_INPUT_CMD_PAUSE);
			} else {
				post_messgae_and_wait(cur_channel, VIDEO_INPUT_CMD_EXCUTING);
			}

			pthread_mutex_lock(&cur_channel->mutex);
		}
		else {
			if (!ret) {
				cur_channel->state = VIDEO_INPUT_STATE_EXCUTING;
			}
		}
	}
	else
	{
		aw_logw("channel %d start(%d): state is not right(%d)\n", channel, bStart, state);
		pthread_mutex_unlock(&cur_channel->mutex);
		return -1;
	}
    
	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_StartProcessTdmBuf(int channel)
{
	int ret = 0;

	if(g_videoInput_cxt == NULL)
	{
		aw_loge("fatal error! g_videoInput_cxt is null!\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("fatal error! the channel id %d is invalid value!\n", channel);
		return -1;
	}

	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	if (0 == cur_channel->enable_aiisp)
	{
		aw_logw("channel[%d] not enable aiisp, please check code!\n", channel);
		pthread_mutex_unlock(&cur_channel->mutex);
		return -1;
	}

	cur_channel->start_process_tdm_buf = 1;
	aw_logd("start process_tdm_buf\n");

	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_DeInit(void)
{
	if(g_videoInput_cxt)
	{

		int ret = 0;
		int i = 0;
		int j = 0;
		AWChannel_cxt* channel_cxt = NULL;
		VideoInputOSD* video_osd = NULL;
		for(i = 0; i < VIDEO_INPUT_CHANNEL_NUM; i++)
		{
			channel_cxt = &g_videoInput_cxt->channel_cxt[i];

			if(channel_cxt->sps_pps_data.buf)
				free(channel_cxt->sps_pps_data.buf);

			if (channel_cxt->p_wbyuv_info && channel_cxt->p_wbyuv_info->enable_wbyuv) {
				AWVideoInput_DeInitWbYuv(i, channel_cxt->p_wbyuv_info);
			}

			if(channel_cxt->bThread_create_flag == 1)
			{
				post_messgae_and_wait(channel_cxt, VIDEO_INPUT_CMD_EXIT);
				pthread_join(channel_cxt->thread, (void**)&ret);
			}

			if (channel_cxt->bGENL_thread_create_flag)
			{
				channel_cxt->GENL_thread_exit_flag = 1;
				pthread_join(channel_cxt->GENL_thread, NULL);
			}

			if (channel_cxt->bAIISP_thread_create_flag)
			{
				channel_cxt->AIISP_thread_exit_flag = 1;
				pthread_join(channel_cxt->AIISP_thread, NULL);
			}
			channel_cxt->enable_aiisp = 0;
			channel_cxt->start_process_tdm_buf = 0;

			if(channel_cxt->dev_fd >= 0)
			{
				ret = ioctl(channel_cxt->dev_fd, IOCTL_DESTROY, 0);
				close(channel_cxt->dev_fd);
			}

			pthread_mutex_destroy(&channel_cxt->mutex);

			video_osd = &channel_cxt->video_osd_info;
			for(j = 0; j < video_osd->osd_num; j++)
			{
				if(video_osd->item_info[j].data_buf)
					free(video_osd->item_info[j].data_buf);
				video_osd->item_info[j].data_buf = NULL;
			}

			if(channel_cxt->enc_yuv_buf_info.vir_addr)
				aw_rt_ion_alloc_pfree(channel_cxt->enc_yuv_buf_info.vir_addr);

			if(channel_cxt->vbv_buffer.bInit == 1)
			{
				destroy_vbv_buffer(&channel_cxt->vbv_buffer);
			}

			if(channel_cxt->mq)
				aw_message_queue_destroy(channel_cxt->mq);

			for(j = 0; j < SEM_WAIT_REPLY_NUM; j++)
			{
				sem_destroy(&channel_cxt->reply_sem[j]);
			}

			if(channel_cxt->mSockFd >= 0)
			{
				close(channel_cxt->mSockFd);
				channel_cxt->mSockFd = -1;
			}
		}

		if(g_videoInput_cxt->ion_fd >= 0)
			aw_ion_close(g_videoInput_cxt->ion_fd);

		aw_rt_ion_alloc_close();

		free(g_videoInput_cxt);
		g_videoInput_cxt = NULL;
	}

	return 0;
}

int AWVideoInput_SetIFrame(int channel)
{
	//* todo
	int ret = 0;

	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null when call SetForceKeyFrame\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("SetForceKeyFrame: the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	if((VIDEO_INPUT_STATE_EXCUTING == cur_channel->state) || (VIDEO_INPUT_STATE_PAUSE == cur_channel->state))
	{
		ret = ioctl(cur_channel->dev_fd, IOCTL_SET_FORCE_KEYFRAME, NULL);
		if(ret != 0)
		{
			aw_loge("IOCTL_SET_FORCE_KEYFRAME failed:%s", strerror(errno));
		}
	}
	else
	{
		aw_loge("fatal error! called in wrong state[%d]", cur_channel->state);
		ret = -1;
	}
	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_SetOSD(int channel, VideoInputOSD *pOsdInfo)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null when call set osd\n");
		return -1;
	}

	aw_logv("set osd: channel = %d\n",channel);

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("set osd: the channel[%d] overflow\n", channel);
		return -1;
	}

	AWChannel_cxt* cur_channel_cxt = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel_cxt->mutex);

	int ret = 0;

	if(cur_channel_cxt->state == VIDEO_INPUT_STATE_EXCUTING)
		ret = ioctl(cur_channel_cxt->dev_fd, IOCTL_SET_OSD, pOsdInfo);
	else
		delay_setup_osd_info(cur_channel_cxt, pOsdInfo);

	cur_channel_cxt->config.enable_overlay = 1;
	pthread_mutex_unlock(&cur_channel_cxt->mutex);

	return ret;
}

//* catch jpeg from channel 0
int AWVideoInput_CatchJpegConfig(catch_jpeg_config *p_jpg_config)
{
	if(!g_videoInput_cxt)
	{
		aw_loge("error: g_videoInput_cxt is null");
		return -1;
	}
	AWChannel_cxt* channel_cxt = &g_videoInput_cxt->channel_cxt[p_jpg_config->channel_id];

	if(channel_cxt->state != VIDEO_INPUT_STATE_EXCUTING)
	{
		aw_loge("error: the state[%d] is not right", channel_cxt->state);
		return -1;
	}

	channel_cxt->jpeg_config.width  = p_jpg_config->width;
	channel_cxt->jpeg_config.height = p_jpg_config->height;
	channel_cxt->jpeg_config.qp     = p_jpg_config->qp;
	channel_cxt->jpeg_config.rotate_angle     = p_jpg_config->rotate_angle;
	return 0;
}

//* catch jpeg from channel 0
int AWVideoInput_CatchJpeg(char *buf, int *bufLen, int channel_id)
{
	int ret = 0;
	int max_buf_size = *bufLen;
	catch_jpeg_buf_info buf_info;

	*bufLen = 0;
	memset(&buf_info, 0, sizeof(catch_jpeg_buf_info));


	if(!g_videoInput_cxt)
	{
		aw_loge("error: g_videoInput_cxt is null");
		return -1;
	}
	AWChannel_cxt* channel_cxt = &g_videoInput_cxt->channel_cxt[channel_id];

	if(channel_cxt->state != VIDEO_INPUT_STATE_EXCUTING)
	{
		aw_loge("error: the state[%d] is not right", channel_cxt->state);
		return -1;
	}

	pthread_mutex_lock(&channel_cxt->mutex);

	ret = ioctl(channel_cxt->dev_fd, IOCTL_CATCH_JPEG_START, &channel_cxt->jpeg_config);
	if(ret != 0)
	{
		aw_loge("call IOCTL_CATCH_JPEG_START error: %d",ret);
		goto catch_jpeg_exit;
	}

	//* set the max_size, return valid_size
	buf_info.buf = (unsigned char*)buf;
	buf_info.buf_size = max_buf_size;

	ret = ioctl(channel_cxt->dev_fd, IOCTL_CATCH_JPEG_GET_DATA, &buf_info);
	if(ret != 0)
	{
		aw_loge("call IOCTL_CATCH_JPEG_GET_DATA error: %d", ret);
		goto catch_jpeg_exit;
	}

	*bufLen = buf_info.buf_size;

catch_jpeg_exit:

	ioctl(channel_cxt->dev_fd, IOCTL_CATCH_JPEG_STOP, NULL);

	pthread_mutex_unlock(&channel_cxt->mutex);

	return ret;
}

int AWVideoInput_GetYuvFrame(int channel, VideoYuvFrame* pYuvFrame)
{
	int i = 0;
	int j = 0;
	int ret = 0;
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null when call start\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("GetYuvFrame: the channel[%d] overflow\n", channel);
		return -1;
	}

	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	unsigned char* phy_addr = NULL;
	rt_yuv_info s_yuv_info;

	memset(&s_yuv_info, 0, sizeof(rt_yuv_info));
	ret = ioctl(cur_channel->dev_fd, IOCTL_REQUEST_YUV_FRAME, &s_yuv_info);
	if(ret != 0)
	{
		aw_loge("GetYuvFrame failed, ret = %d\n", ret);
		pthread_mutex_unlock(&cur_channel->mutex);
		return -1;
	}
	aw_logd("fd %d phy_addr %p", s_yuv_info.fd, s_yuv_info.phy_addr);
	int align_w = ALIGN_XXB(16, cur_channel->config.width);
	int align_h = ALIGN_XXB(16, cur_channel->config.height);
	int y_size = align_w*align_h;
	int c_size = align_w*align_h/4;
	int yuv_size = align_w * align_h * 3 / 2;
	unsigned char* vir_addr = NULL;

	for (j = 0; j < CONFIG_YUV_BUF_NUM; j++) {
		if (cur_channel->s_yuv_fd[j].yuv_fd == s_yuv_info.fd && cur_channel->s_yuv_fd[j].bset) {
			vir_addr = cur_channel->s_yuv_fd[j].virBuf;
			break;
		}
	}

	if (j >= CONFIG_YUV_BUF_NUM) {
		for (i = 0; i < CONFIG_YUV_BUF_NUM; i++) {
			if (!cur_channel->s_yuv_fd[i].bset) {
				cur_channel->s_yuv_fd[i].bset = 1;
				cur_channel->s_yuv_fd[i].yuv_fd = s_yuv_info.fd;
				ret = aw_ion_mmap(s_yuv_info.fd, yuv_size, &vir_addr);
				aw_logd("ret %d mmap: virBuf = %p, share_fd = %d", ret, vir_addr, s_yuv_info.fd);
				cur_channel->s_yuv_fd[i].virBuf = vir_addr;
				break;
			}
		}
		if (i >= CONFIG_YUV_BUF_NUM)
			aw_loge("yuv fd init err.");
	}
	if (vir_addr == NULL) {
		aw_loge("vir_addr == NULL.");
		return -1;
	}
	pYuvFrame->widht  	  = align_w;
	pYuvFrame->height 	  = align_h;
	pYuvFrame->phyAddr[0] = s_yuv_info.phy_addr;
	pYuvFrame->phyAddr[1] = s_yuv_info.phy_addr + y_size;
	pYuvFrame->phyAddr[2] = s_yuv_info.phy_addr + y_size + c_size;
	pYuvFrame->virAddr[0] = vir_addr;
	pYuvFrame->virAddr[1] = vir_addr + y_size;
	pYuvFrame->virAddr[2] = vir_addr + y_size + c_size;

	pthread_mutex_unlock(&cur_channel->mutex);

	return 0;
}

int AWVideoInput_ReleaseYuvFrame(int channel, VideoYuvFrame* pYuvFrame)
{
	int i = 0;
	int ret = 0;
	unsigned char* phy_addr = pYuvFrame->phyAddr[0];

	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null when call start\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("ReleaseYuvFrame: the channel[%d] overflow\n", channel);
		return -1;
	}

	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	ioctl(cur_channel->dev_fd, IOCTL_RETURN_YUV_FRAME, &phy_addr);

	return 0;
}

//* for debug
int AWVideoInput_RequestEmptyYuvFrame(int channel, VideoYuvFrame* pYuvFrame)
{
	int ret = 0;
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("GetYuvFrame: the channel[%d] overflow\n", channel);
		return -1;
	}

	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	unsigned char* phy_addr = NULL;
	unsigned char* vir_addr = NULL;

	if(cur_channel->enc_yuv_buf_info.bInit_flag == 1)
	{
		cur_channel->enc_yuv_buf_info.bInit_flag = 0;
		phy_addr = cur_channel->enc_yuv_buf_info.phy_addr;
		vir_addr = cur_channel->enc_yuv_buf_info.vir_addr;
	}
	else
	{
		ret = ioctl(cur_channel->dev_fd, IOCTL_REQUEST_ENC_YUV_FRAME, &phy_addr);
		if(ret != 0 || phy_addr != cur_channel->enc_yuv_buf_info.phy_addr)
		{
			aw_logv(" reqeust enc yuv frame failed");
			pthread_mutex_unlock(&cur_channel->mutex);
			return -1;
		}
		vir_addr = cur_channel->enc_yuv_buf_info.vir_addr;
	}

	int align_w = ALIGN_XXB(16, cur_channel->config.width);
	int align_h = ALIGN_XXB(16, cur_channel->config.height);
	int y_size = align_w*align_h;
	int c_size = align_w*align_h/4;

	pYuvFrame->widht  	  = align_w;
	pYuvFrame->height 	  = align_h;
	pYuvFrame->phyAddr[0] = phy_addr;
	pYuvFrame->phyAddr[1] = phy_addr + y_size;
	pYuvFrame->phyAddr[2] = phy_addr + y_size + c_size;
	pYuvFrame->virAddr[0] = vir_addr;
	pYuvFrame->virAddr[1] = vir_addr + y_size;
	pYuvFrame->virAddr[2] = vir_addr + y_size + c_size;

	pthread_mutex_unlock(&cur_channel->mutex);
	return 0;
}

//* for debug
int AWVideoInput_SubmitFilledYuvFrame(int channel, VideoYuvFrame* pYuvFrame, int yuv_size)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("GetYuvFrame: the channel[%d] overflow\n", channel);
		return -1;
	}

	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	aw_rt_ion_alloc_flush_cache(pYuvFrame->virAddr[0], yuv_size);

	pthread_mutex_lock(&cur_channel->mutex);

	int ret = ioctl(cur_channel->dev_fd, IOCTL_SUBMIT_ENC_YUV_FRAME, &pYuvFrame->phyAddr[0]);

	pthread_mutex_unlock(&cur_channel->mutex);

	return 0;
}

//int AWVideoInput_GetBinImageData(int channel, char *buf, int bufLen)
//{
//	int ret = 0;
//	if(g_videoInput_cxt == NULL)
//	{
//		aw_loge("g_videoInput_cxt is null when call start\n");
//		return -1;
//	}
//
//	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
//	{
//		aw_loge("GetBinImageData: the channel[%d] overflow\n", channel);
//		return -1;
//	}
//
//	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];
//	VideoGetBinImageBufInfo buf_info;
//	buf_info.buf = (unsigned char*)buf;
//	buf_info.max_size = bufLen;
//
//	if(cur_channel->config.enable_bin_image == 0)
//	{
//		aw_loge("GetBinImageData: the functions of GetBinImageData is disable");
//		return -1;
//	}
//
//	pthread_mutex_lock(&cur_channel->mutex);
//
//	ret = ioctl(cur_channel->dev_fd, IOCTL_GET_BIN_IMAGE_DATA, &buf_info);
//
//	pthread_mutex_unlock(&cur_channel->mutex);
//
//	return ret;
//}
//
//int AWVideoInput_GetMvInfoData(int channel, char *buf, int bufLen)
//{
//	int ret = 0;
//	if(g_videoInput_cxt == NULL)
//	{
//		aw_loge("g_videoInput_cxt is null when call start\n");
//		return -1;
//	}
//
//	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
//	{
//		aw_loge("GetMvInfoData: the channel[%d] overflow\n", channel);
//		return -1;
//	}
//
//	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];
//	VideoGetMvInfoBufInfo buf_info;
//	buf_info.buf = (unsigned char*)buf;
//	buf_info.max_size = bufLen;
//
//	if(cur_channel->config.enable_mv_info == 0)
//	{
//		aw_loge("GetMvInfoData: the functions of GetMvInfoData is disable");
//		return -1;
//	}
//
//	pthread_mutex_lock(&cur_channel->mutex);
//
//	ret = ioctl(cur_channel->dev_fd, IOCTL_GET_MV_INFO_DATA, &buf_info);
//
//	pthread_mutex_unlock(&cur_channel->mutex);
//
//	return ret;
//}

int AWVideoInput_GetLuminance(int channel)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null when call start\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("GetLuminance: the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	int lv = ioctl(cur_channel->dev_fd, IOCTL_GET_ISP_LV, NULL);

	pthread_mutex_unlock(&cur_channel->mutex);

	return lv;
}

int AWVideoInput_GetHist(int channel, unsigned int *hist)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null when call GetHist\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("GetHist: the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	int ret = ioctl(cur_channel->dev_fd, IOCTL_GET_ISP_HIST, hist);
	if(ret != 0)
		aw_loge("IOCTL_GET_ISP_HIST failed");

	pthread_mutex_unlock(&cur_channel->mutex);

	return 0;
}

int AWVideoInput_GetExpGain(int channel, RTIspExpGain *expgain)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null when call GetExpGain\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("GetExpGain: the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	int ret = ioctl(cur_channel->dev_fd, IOCTL_GET_ISP_EXP_GAIN, expgain);
	if(ret != 0)
		aw_loge("IOCTL_GET_ISP_EXP_GAIN failed");

	pthread_mutex_unlock(&cur_channel->mutex);

	return 0;
}

int AWVideoInput_GetConfigure(int channel, VideoInputConfig *pCfg)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null when call start\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("GetLuminance: the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	memcpy(pCfg, &cur_channel->config, sizeof(VideoInputConfig));

	pthread_mutex_unlock(&cur_channel->mutex);

	return 0;
}


int AWVideoInput_SetIrParam(int channel, RTIrParam* pIrParam)
{
	int ret = 0;
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null when call start\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("IR_SetISPColor2Grey: the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	ret = ioctl(cur_channel->dev_fd, IOCTL_SET_IR_PARAM, pIrParam);
	if(ret != 0)
		aw_loge("IOCTL_SET_IR_COLOR2GREY failed");

	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_SetHFlip(int channel, int bflip)
{
	int ret = 0;
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null when call SetHFlip\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("SetHFlip: the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);
	if((VIDEO_INPUT_STATE_EXCUTING == cur_channel->state) || (VIDEO_INPUT_STATE_PAUSE == cur_channel->state))
	{
		ret = ioctl(cur_channel->dev_fd, IOCTL_SET_HORIZONTAL_FLIP, bflip);
		if(ret != 0)
			aw_loge("IOCTL_SET_HORIZONTAL_FLIP failed:%s", strerror(errno));
	}
	else
	{
		aw_loge("fatal error! called in wrong state[%d]", cur_channel->state);
		ret = -1;
	}
	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_SetSharp(int channel, int bsharp)
{
	int ret = 0;
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null when call SetHFlip\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("SetHFlip: the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	ret = ioctl(cur_channel->dev_fd, IOCTL_SET_SHARP, bsharp);
	if(ret != 0)
		aw_loge("IOCTL_SET_SHARP failed");

	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_SetVFlip(int channel, int bflip)
{
	int ret = 0;
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null when call SetVFlip\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("SetVFlip: the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);
	if((VIDEO_INPUT_STATE_EXCUTING == cur_channel->state) || (VIDEO_INPUT_STATE_PAUSE == cur_channel->state))
	{
		ret = ioctl(cur_channel->dev_fd, IOCTL_SET_VERTICAL_FLIP, bflip);
		if(ret != 0)
			aw_loge("IOCTL_SET_VERTICAL_FLIP failed:%s", strerror(errno));
	}
	else
	{
		aw_loge("fatal error! called in wrong state[%d]", cur_channel->state);
		ret = -1;
	}
	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_SetPowerLineFreq(int channel, RT_POWER_LINE_FREQUENCY power_line_freq)
{
	int ret = 0;
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null when call SetPowerLineFreq\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("SetPowerLineFreq: the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	ret = ioctl(cur_channel->dev_fd, IOCTL_SET_POWER_LINE_FREQ, power_line_freq);
	if(ret != 0)
		aw_loge("IOCTL_SET_POWER_LINE_FREQ failed");

	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_SetBrightness(int channel, int brightness_level)
{
	int ret = 0;
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null when call SetBrightness\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("SetBrightness: the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];
	pthread_mutex_lock(&cur_channel->mutex);

	ret = ioctl(cur_channel->dev_fd, IOCTL_SET_BRIGHTNESS, brightness_level);
	if(ret != 0)
		aw_loge("IOCTL_SET_BRIGHTNESS failed");

	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_SetContrast(int channel, int contrast_level)
{
	int ret = 0;
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null when call SetContrast\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("SetContrast: the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];
	pthread_mutex_lock(&cur_channel->mutex);

	ret = ioctl(cur_channel->dev_fd, IOCTL_SET_CONTRAST, contrast_level);
	if(ret != 0)
		aw_loge("IOCTL_SET_CONTRAST failed");

	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_SetSaturation(int channel, int saturation_level)
{
	int ret = 0;
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null when call SetSaturation\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("SetSaturation: the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];
	pthread_mutex_lock(&cur_channel->mutex);

	ret = ioctl(cur_channel->dev_fd, IOCTL_SET_SATURATION, saturation_level);
	if(ret != 0)
		aw_loge("IOCTL_SET_SATURATION failed");

	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_SetHue(int channel, int hue_level)
{
	int ret = 0;
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null when call SetHue\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("SetHue: the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];
	pthread_mutex_lock(&cur_channel->mutex);

	ret = ioctl(cur_channel->dev_fd, IOCTL_SET_HUE, hue_level);
	if(ret != 0)
		aw_loge("IOCTL_SET_HUE failed");

	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_SetSharpness(int channel, int sharpness_level)
{
	int ret = 0;
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null when call SetSharpness\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("SetSharpness: the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];
	pthread_mutex_lock(&cur_channel->mutex);

	ret = ioctl(cur_channel->dev_fd, IOCTL_SET_SHARPNESS, sharpness_level);
	if(ret != 0)
		aw_loge("IOCTL_SET_SHARPNESS failed");

	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_GetSensorName(int channel, char *name)
{
	int ret = 0;
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null when call GetSensorName\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("GetSensorName: the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	ret = ioctl(cur_channel->dev_fd, IOCTL_GET_SENSOR_NAME, name);
	if(ret != 0)
		aw_loge("IOCTL_GET_SENSOR_NAME failed");

	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_GetSensorResolution(int channel, RTSensorResolution *sensor_resolution)
{
	int ret = 0;
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null when call GetSensorResolution\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("GetSensorResolution: the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	ret = ioctl(cur_channel->dev_fd, IOCTL_GET_SENSOR_RESOLUTION, sensor_resolution);
	if(ret != 0)
		aw_loge("IOCTL_GET_SENSOR_RESOLUTION failed");

	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_SetSensorExp(int channel, int exp_time)
{
	int ret = 0;
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null when call SetAeMeteringMode\n");
		return -1;
	}

	if (exp_time < 0) {
		aw_loge("Invaild exp_time!!!\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("SetSensorExp: the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	ret = ioctl(cur_channel->dev_fd, IOCTL_SET_SENSOR_EXP, exp_time);
	if(ret != 0)
		aw_loge("IOCTL_SET_SENSOR_EXP failed");

	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_SetSensorGain(int channel, int gain)
{
	int ret = 0;
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null when call SetAeMeteringMode\n");
		return -1;
	}

	if (gain < 16) {
		aw_loge("Invaild gain, gain must >= 16!!!\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("SetSensorGain: the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	ret = ioctl(cur_channel->dev_fd, IOCTL_SET_SENSOR_GAIN, gain);
	if(ret != 0)
		aw_loge("IOCTL_SET_SENSOR_GAIN failed");

	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_SetAeMeteringMode(int channel, RT_AE_METERING_MODE ae_metering_mode)
{
	int ret = 0;
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null when call SetAeMeteringMode\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("SetAeMeteringMode: the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	ret = ioctl(cur_channel->dev_fd, IOCTL_GET_ISP_AE_METERING_MODE, ae_metering_mode);
	if(ret != 0)
		aw_loge("IOCTL_GET_ISP_AE_METERING_MODE failed");

	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_SetAeMode(int channel, int ae_mode)
{
	int ret = 0;
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null when call SetAeMeteringMode\n");
		return -1;
	}

	if (ae_mode < 0 || ae_mode > 1) {
		aw_loge("Invaild ae_mode, please check it\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("SetAeMode: the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	ret = ioctl(cur_channel->dev_fd, IOCTL_SET_ISP_AE_MODE, ae_mode);
	if(ret != 0)
		aw_loge("IOCTL_SET_ISP_AE_MODE failed");

	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_SetIspAttrCfg(int channel, RTIspCtrlAttr *isp_ctrl_attr)
{
	int ret = 0;
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null when call SetIspAttrCfg\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("SetIspAttrCfg: the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	ret = ioctl(cur_channel->dev_fd, IOCTL_SET_ISP_ATTR_CFG, isp_ctrl_attr);
	if(ret != 0)
		aw_loge("IOCTL_SET_ISP_ATTR_CFG failed");

	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_GetIspAttrCfg(int channel, RTIspCtrlAttr *isp_ctrl_attr)
{
	int ret = 0;
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null when call SetIspAttrCfg\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("SetIspAttrCfg: the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	ret = ioctl(cur_channel->dev_fd, IOCTL_GET_ISP_ATTR_CFG, isp_ctrl_attr);
	if(ret != 0)
		aw_loge("IOCTL_SET_ISP_ATTR_CFG failed");

	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_SetIspOrl(int channel, RTIspOrl *isp_orl)
{
	int ret = 0;
	if (g_videoInput_cxt == NULL) {
		aw_loge("g_videoInput_cxt is null when call SetIspAttrCfg\n");
		return -1;
	}

	if (channel >= VIDEO_INPUT_CHANNEL_NUM) {
		aw_loge("SetIspAttrCfg: the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	ret = ioctl(cur_channel->dev_fd, IOCTL_SET_ISP_ORL, isp_orl);
	if(ret != 0)
		aw_loge("IOCTL_SET_ISP_ORL failed");

	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_ResetEncoderType(int channel, int encoderType)
{

	int ret = 0;
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null when call ResetEncoderType\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("ResetEncoderType: the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	if(cur_channel->config.encodeType == encoderType)
	{
		aw_logw("the encoder type is the some, no need reset: %d, %d",
				cur_channel->config.encodeType, encoderType);
		pthread_mutex_unlock(&cur_channel->mutex);
		return -1;
	}

	if(cur_channel->state != VIDEO_INPUT_STATE_PAUSE)
	{
		aw_logw("the state[%d] is not pause[%d]", cur_channel->state, VIDEO_INPUT_STATE_PAUSE);
		pthread_mutex_unlock(&cur_channel->mutex);
		return -1;
	}

	aw_logd("ori_type = %d, new_type = %d",
			cur_channel->config.encodeType, encoderType);

	//post_messgae_and_wait(cur_channel, VIDEO_INPUT_CMD_PAUSE);

	ret = ioctl(cur_channel->dev_fd, IOCTL_RESET_ENCODER_TYPE, encoderType);

	if(cur_channel->vbv_buffer.bInit == 1)
	{
		destroy_vbv_buffer(&cur_channel->vbv_buffer);
	}

	cur_channel->sps_pps_data.bInit = 0;

	//post_messgae_and_wait(cur_channel, VIDEO_INPUT_CMD_EXCUTING);

	if(ret == 0)
		cur_channel->config.encodeType = encoderType;
	else
		aw_loge("reset encoder type failed, ret = %d", ret);

	pthread_mutex_unlock(&cur_channel->mutex);
	return ret;
}

int AWVideoInput_SetKernelRtMediaPause(int channel)
{
	//* todo
	int ret = 0;

	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	ret = ioctl(cur_channel->dev_fd, IOCTL_PAUSE, NULL);

	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_ReturnStreamData(int channel, STREAM_DATA_INFO *p_stream_data)
{
	//* todo
	int ret = 0;

	if(g_videoInput_cxt == NULL || !p_stream_data)
	{
		aw_loge("g_videoInput_cxt or p_stream_data is null %p\n", p_stream_data);
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	ret = ioctl(cur_channel->dev_fd, IOCTL_RETURN_STREAM_DATA, p_stream_data);

	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_SetKernelRtMediaStart(int channel)
{
	//* todo
	int ret = 0;

	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	ret = ioctl(cur_channel->dev_fd, IOCTL_START, NULL);

	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_ResetInOutBuffer(int channel)
{

	int ret = 0;
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	ret = ioctl(cur_channel->dev_fd, IOCTL_RESET_IN_OUT_BUFFER, 0);

	pthread_mutex_unlock(&cur_channel->mutex);
	return ret;
}

int AWVideoInput_ResetSize(int channel, int width, int height)
{
	int ret = 0;
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null when call ResetSize\n");
		return -1;
	}
	int64_t time_begin = get_cur_time_us();
	aw_logv("begin time = %lld", time_begin);
	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("ResetSize: the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	if(width == cur_channel->config.width && height == cur_channel->config.height)
	{
		aw_loge("the wdith[%d] and height[%d] are not change", width, height);
		return 0;
	}

	pthread_mutex_lock(&cur_channel->mutex);

	if(cur_channel->state != VIDEO_INPUT_STATE_PAUSE)
	{
		aw_logw("the state[%d] is not pause[%d]", cur_channel->state, VIDEO_INPUT_STATE_PAUSE);
		pthread_mutex_unlock(&cur_channel->mutex);
		return -1;
	}

	#if 0
	ret = ioctl(cur_channel->dev_fd, IOCTL_PAUSE, channel);
	int64_t time_pause = get_cur_time_us();
	aw_logv("ioctl pause, ret = %d, time = %lld",
			ret, time_pause - time_begin);
	#endif

	if(cur_channel->bThread_create_flag == 1)
	{
		pthread_mutex_unlock(&cur_channel->mutex);

		post_messgae_and_wait(cur_channel, VIDEO_INPUT_CMD_EXIT);
		pthread_join(cur_channel->thread, (void**)&ret);
		cur_channel->bThread_create_flag = 0;

		pthread_mutex_lock(&cur_channel->mutex);
	}
	int64_t time_thread = get_cur_time_us();
	aw_logv("exit thread, time = %lld", time_thread - time_pause);

	ret = ioctl(cur_channel->dev_fd, IOCTL_DESTROY, 0);

	if(cur_channel->vbv_buffer.bInit == 1)
	{
		destroy_vbv_buffer(&cur_channel->vbv_buffer);
	}

	cur_channel->sps_pps_data.bInit = 0;

	int64_t time_destroy = get_cur_time_us();
	cur_channel->config.width = width;
	cur_channel->config.height = height;
	cur_channel->config.dst_width = width;
	cur_channel->config.dst_height = height;
	if (cur_channel->config.output_mode == OUTPUT_MODE_YUV) {
		int i = 0;
		for (; i < CONFIG_YUV_BUF_NUM; i++)
			memset(&cur_channel->s_yuv_fd[i], 0, sizeof(yuv_fd_info));
	}
	aw_logv("ioctl destroy, ret = %d, time = %lld", ret, time_destroy - time_thread);
	ret = ioctl(cur_channel->dev_fd, IOCTL_CONFIG, &cur_channel->config);
	int64_t time_config = get_cur_time_us();
	aw_logv("ioctl config, ret = %d, time = %lld", ret, time_config - time_destroy);
	ret = awVideoInput_GENLSocketConnectRtMedia(cur_channel);
	if(ret != 0)
	{
		aw_loge("fatal error! recorder[%d=%d] genl socket connect rt_media fail, portId:%d", channel, cur_channel->id, cur_channel->mSrcNLPortId);
	}
	cur_channel->state = VIDEO_INPUT_STATE_CONFIGED;

	pthread_mutex_unlock(&cur_channel->mutex);
	int64_t time_create_thread = get_cur_time_us();
	aw_logv("finish, diff_time = %lld, create_time = %lld, time = %lld",
			get_cur_time_us() - time_begin, time_create_thread - time_config,
			get_cur_time_us());

	return 0;
}

int AWVideoInput_GetChannelInfo(int channel, VideoChannelInfo *pChannelInfo)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null when call SetPowerLineFreq\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("GetChannelInfo: the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	memcpy(&pChannelInfo->mConfig, &cur_channel->config, sizeof(VideoInputConfig));
	pChannelInfo->state = cur_channel->state;

	pthread_mutex_unlock(&cur_channel->mutex);

	return 0;
}

int AWVideoInput_SetH264VideoTiming(int channel, RTVencH264VideoTiming* H264VideoTiming)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	int ret = ioctl(cur_channel->dev_fd, IOCTL_SET_H264_VIDEO_TIMING, H264VideoTiming);
	if(ret != 0)
		aw_loge("failed!");

	pthread_mutex_unlock(&cur_channel->mutex);

	return 0;
}

int AWVideoInput_SetH265VideoTiming(int channel, RTVencH265TimingS* H265VideoTiming)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	int ret = ioctl(cur_channel->dev_fd, IOCTL_SET_H265_VIDEO_TIMING, H265VideoTiming);
	if(ret != 0)
		aw_loge("failed!");

	pthread_mutex_unlock(&cur_channel->mutex);

	return 0;
}

int AWVideoInput_SetFixQp(int channel, RTVencFixQP* fix_qp)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	int ret = ioctl(cur_channel->dev_fd, IOCTL_SET_FIX_QP, fix_qp);
	if(ret != 0)
		aw_loge("failed!");

	pthread_mutex_unlock(&cur_channel->mutex);

	return 0;
}

int AWVideoInput_RegisterTdmBufDoneCallback(int channel, void *cb)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	cur_channel->mTdmBufDoneCallback = cb;

	pthread_mutex_unlock(&cur_channel->mutex);

	return 0;
}

int AWVideoInput_ReturnTdmBuf(int channel, struct vin_isp_tdm_event_status* p_tdm_status)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	int ret = ioctl(cur_channel->dev_fd, IOCTL_RETURN_TDM_BUF, p_tdm_status);
	if(ret != 0)
		aw_loge("failed!");

	pthread_mutex_unlock(&cur_channel->mutex);

	return 0;
}

int AWVideoInput_GetTdmData(int channel, struct vin_isp_tdm_data* p_tdm_data)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	int ret = ioctl(cur_channel->dev_fd, IOCTL_GET_TDM_DATA, p_tdm_data);
	if(ret != 0)
		aw_loge("failed!");

	pthread_mutex_unlock(&cur_channel->mutex);

	return 0;
}

int AWVideoInput_SetQpRange(int channel, video_qp_range* qp_range)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null when call SetQpRange\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("SetQpRange: the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	int ret = ioctl(cur_channel->dev_fd, IOCTL_SET_QP_RANGE, qp_range);
	if(ret != 0)
	{
		aw_loge("IOCTL_SET_QP_RANGE failed, i_qp = %d ~ %d, p_qp = %d ~ %d",
				qp_range->i_min_qp, qp_range->i_max_qp, qp_range->p_min_qp, qp_range->p_max_qp);
	}
	else
		memcpy(&cur_channel->config.qp_range, qp_range, sizeof(video_qp_range));

	pthread_mutex_unlock(&cur_channel->mutex);

	return 0;
}

int AWVideoInput_GetQpRange(int channel, video_qp_range* qp_range)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	memcpy(qp_range, &cur_channel->config.qp_range, sizeof(video_qp_range));

	pthread_mutex_unlock(&cur_channel->mutex);

	return 0;
}

//Unit:kbps
int AWVideoInput_SetBitrate(int channel, int bitrate)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null when call SetBitrate\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("SetBitrate: the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);


	int ret = ioctl(cur_channel->dev_fd, IOCTL_SET_BITRATE, bitrate);
	if(ret != 0)
		aw_loge("IOCTL_SET_BITRATE failed, bitrate = %d", bitrate);
	else
		cur_channel->config.bitrate = bitrate;

	pthread_mutex_unlock(&cur_channel->mutex);

	return 0;
}

int AWVideoInput_SetEnIFrmMbRcMoveStatus(int channel, int nMbRcMoveStatus)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null when\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	int ret = ioctl(cur_channel->dev_fd, IOCTL_SET_MB_RC_MOVE_STATUS, nMbRcMoveStatus);

	if(ret != 0)
		aw_loge("failed, nMbRcMoveStatus = %d", nMbRcMoveStatus);

	pthread_mutex_unlock(&cur_channel->mutex);

	return 0;
}

int AWVideoInput_SetJpgQuality(int channel, int nQuality)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null when\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	int ret = ioctl(cur_channel->dev_fd, IOCTL_SET_JPEG_QUALITY, nQuality);

	if(ret != 0)
		aw_loge("failed, nQuality = %d", nQuality);
	else
		cur_channel->config.jpg_quality = nQuality;

	pthread_mutex_unlock(&cur_channel->mutex);

	return 0;
}

//Unit:kbps
int AWVideoInput_GetBitrate(int channel)
{
	int cur_bitrate = 0;
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	cur_bitrate = cur_channel->config.bitrate;

	pthread_mutex_unlock(&cur_channel->mutex);

	return cur_bitrate;
}

//* set the frameRate, such as 1 ~ 15 fps;
int AWVideoInput_SetFps(int channel, int fps)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null when call SetBitrate\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("SetFps: the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);


	int ret = ioctl(cur_channel->dev_fd, IOCTL_SET_FPS, fps);
	if(ret != 0)
		aw_loge("IOCTL_SET_BITRATE failed, bitrate = %d", fps);
	else
		cur_channel->config.fps = fps;

	pthread_mutex_unlock(&cur_channel->mutex);

	return 0;
}

int AWVideoInput_GetFps(int channel)
{
	int cur_fps = 0;
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	cur_fps = cur_channel->config.fps;

	pthread_mutex_unlock(&cur_channel->mutex);

	return cur_fps;
}

int AWVideoInput_SetVbrParam(int channel, RTVencVbrParam *pvbr_param)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null when call SetVbrParam\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("SetVbrParam: the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	int ret = ioctl(cur_channel->dev_fd, IOCTL_SET_VBR_PARAM, pvbr_param);
	if(ret != 0)
		aw_loge("IOCTL_SET_VBR_PARAM failed, pvbr_param = %p", pvbr_param);
	else
		memcpy(&cur_channel->vbr_param, pvbr_param, sizeof(RTVencVbrParam));

	pthread_mutex_unlock(&cur_channel->mutex);

	return 0;

}

int AWVideoInput_GetVbrParam(int channel, RTVencVbrParam *pvbr_param)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	memcpy(pvbr_param, &cur_channel->vbr_param, sizeof(RTVencVbrParam));

	pthread_mutex_unlock(&cur_channel->mutex);

	return 0;
}

int AWVideoInput_GetSumMad(int channel)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null when call GetSumMbInfo\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("GetSumMbInfo: the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];
	RTVencMBSumInfo mMbSumInfo;

	memset(&mMbSumInfo, 0, sizeof(RTVencMBSumInfo));

	pthread_mutex_lock(&cur_channel->mutex);

	int ret = ioctl(cur_channel->dev_fd, IOCTL_GET_SUM_MB_INFO, &mMbSumInfo);
	if(ret != 0)
		aw_loge("IOCTL_GET_SUM_MB_INFO failed");

	pthread_mutex_unlock(&cur_channel->mutex);

	return mMbSumInfo.sum_mad;
}

int AWVideoInput_GetMotionSearchResult(int channel, RTVencMotionSearchResult* pMotionSearchResult)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);
	int ret = ioctl(cur_channel->dev_fd, IOCTL_GET_ENC_MOTION_SEARCH_RESULT, pMotionSearchResult);
	if(ret != 0)
		aw_loge("IOCTL_GET_ENC_MOTION_SEARCH_RESULT failed");
	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_SetSuperFrameParam(int channel, RTVencSuperFrameConfig* pSuperFrameConfig)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	int ret = ioctl(cur_channel->dev_fd, IOCTL_SET_VENC_SUPER_FRAME_PARAM, pSuperFrameConfig);
	if(ret != 0)
		aw_loge("IOCTL_SET_VENC_SUPER_FRAME_PARAM failed");

	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_SetMotionSearchParam(int channel, RTVencMotionSearchParam* pMotionSearchParam)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	int ret = ioctl(cur_channel->dev_fd, IOCTL_SET_ENC_MOTION_SEARCH_PARAM, pMotionSearchParam);
	if(ret != 0)
		aw_loge("IOCTL_SET_ENC_MOTION_SEARCH_PARAM failed");

	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_SetRoi(int channel, RTVencROIConfig* pRoiConfig)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	int ret = ioctl(cur_channel->dev_fd, IOCTL_SET_ROI, pRoiConfig);
	if(ret != 0)
		aw_loge("IOCTL_SET_ROI failed");

	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_SetGdc(int channel, RTsGdcParam* pGdcConfig)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	int ret = ioctl(cur_channel->dev_fd, IOCTL_SET_GDC, pGdcConfig);
	if(ret != 0)
		aw_loge("IOCTL_SET_GDC failed");

	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_SetRotate(int channel, int rotate_angle)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	int ret = ioctl(cur_channel->dev_fd, IOCTL_SET_ROTATE, rotate_angle);
	if(ret != 0)
		aw_loge("IOCTL_SET_ROTATE failed");

	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

/**
  获取h264或h265码流的spspps信息.
  必须在AWVideoInput_Start()之后调用，内核视频编码库是在AWVideoInput_Start()内初始化，在AWVideoInput_Configure()内被创建。

  @param channel
    vipp的通道号，这里也用来代表编码通道号。
  @param pSpsPpsInfo
    caller传入，不重新分配内存，buf指针指向AWChannel_cxt->sps_pps_data->buffer

  @return
    0:success
    -1:fail
*/
int AWVideoInput_GetSpsPpsInfo(int channel, sps_pps_data_info *pSpsPpsInfo)
{
	int ret = 0;
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	if(cur_channel->config.encodeType == 0 || cur_channel->config.encodeType == 2)
	{
		if(cur_channel->sps_pps_data.bInit == 0)
		{
			ret = get_sps_pps_data(cur_channel);
			if(ret != 0)
			{
				aw_loge("fatal error! get spspps fail:%d", ret);
			}
		}
		if(cur_channel->sps_pps_data.bInit)
		{
			pSpsPpsInfo->bInit = cur_channel->sps_pps_data.bInit;
			pSpsPpsInfo->buf = cur_channel->sps_pps_data.buf;
			pSpsPpsInfo->size = cur_channel->sps_pps_data.size;
			ret = 0;
		}
		else
		{
			aw_loge("fatal error! spspps is got fail");
			ret = -1;
		}
	}
	else
	{
		aw_loge("fatal error! encodeType[%d] not support get spspps!", cur_channel->config.encodeType);
		ret = -1;
	}

	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_SetRecRefLbcMode(int channel, RTeVeLbcMode rec_lbc_mode)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	int ret = ioctl(cur_channel->dev_fd, IOCTL_SET_REC_REF_LBC_MODE, rec_lbc_mode);
	if(ret != 0)
		aw_loge("IOCTL_SET_REC_REF_LBC_MODE failed");

	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_SetWeakTextTh(int channel, RTVenWeakTextTh *pWeakTextureTh)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	int ret = ioctl(cur_channel->dev_fd, IOCTL_SET_WEAK_TEXT_TH, pWeakTextureTh);
	if(ret != 0)
		aw_loge("IOCTL_SET_WEAK_TEXT_TH failed");

	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_SetRegionD3DParam(int channel, RTVencRegionD3DParam *pRegionD3DParam)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	int ret = ioctl(cur_channel->dev_fd, IOCTL_SET_REGION_D3D_PARAM, pRegionD3DParam);
	if(ret != 0)
		aw_loge("IOCTL_SET_REGION_D3D_PARAM failed");

	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_GetRegionD3DResult(int channel, RTVencRegionD3DResult *pRegionD3DResult)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	int ret = ioctl(cur_channel->dev_fd, IOCTL_GET_REGION_D3D_RESULT, pRegionD3DResult);
	if(ret != 0)
		aw_loge("IOCTL_GET_REGION_D3D_RESULT failed");

	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_SetChromaQPOffset(int channel, int nChromaQpOffset)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	int ret = ioctl(cur_channel->dev_fd, IOCTL_SET_CHROMA_QP_OFFSET, nChromaQpOffset);
	if(ret != 0)
		aw_loge("IOCTL_SET_ROTATE failed");

	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

/**
  set decoding flag to vencLib. It is recommended to call it before AWVideoInput_Start(), after AWVideoInput_Configure().

  When vencLib knows decoder is running, it will do not start to encode when in blanking interval. To avoid v853 ve
  online encoding bug.

  @param channel
    venc channel in AWVideoInput.
  @param bEncAndDecCase
    1: decoder is exist.
    0: no decoder.

  @return
    0: success
   -1: fail
*/
int AWVideoInput_SetEncAndDecCase(int channel, int bEncAndDecCase)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	int ret = ioctl(cur_channel->dev_fd, IOCTL_SET_ENC_AND_DEC_CASE, bEncAndDecCase);
	if(ret != 0)
		aw_loge("ioctl failed");

	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}


int AWVideoInput_SetH264ConstraintFlag(int channel, RTVencH264ConstraintFlag *pConstraintFlag)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	int ret = ioctl(cur_channel->dev_fd, IOCTL_SET_H264_CONSTRAINT_FLAG, pConstraintFlag);
	if(ret != 0)
		aw_loge("IOCTL_SET_H264_CONSTRAINT_FLAG failed");

	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_SetVe2IspD2DLimit(int channel, RTVencVe2IspD2DLimit *pD2DLimit)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	int ret = ioctl(cur_channel->dev_fd, IOCTL_SET_VE2ISP_D2D_LIMIT, pD2DLimit);
	if(ret != 0)
		aw_loge("IOCTL_SET_VE2ISP_D2D_LIMIT failed");

	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_EnableSmallSearchRange(int channel, int enable)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	int ret = ioctl(cur_channel->dev_fd, IOCTL_SET_EN_SMALL_SEARCH_RANGE, enable);
	if(ret != 0)
		aw_loge("IOCTL_SET_EN_SMALL_SEARCH_RANGE failed");

	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_SetForceConfWin(int channel, RTVencForceConfWin *pConfWin)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	int ret = ioctl(cur_channel->dev_fd, IOCTL_SET_FORCE_CONF_WIN, pConfWin);
	if(ret != 0)
		aw_loge("IOCTL_SET_FORCE_CONF_WIN failed");

	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_SetRotVe2Isp(int channel, RTVencRotVe2Isp *pRotVe2Isp)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	int ret = ioctl(cur_channel->dev_fd, IOCTL_SET_ROT_VE2ISP, pRotVe2Isp);
	if(ret != 0)
		aw_loge("IOCTL_SET_ROT_VE2ISP failed");

	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_SetInsertData(int channel, RTVencInsertData *pInsertData)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	int ret = ioctl(cur_channel->dev_fd, IOCTL_SET_INSERT_DATA, pInsertData);
	if(ret != 0)
		aw_loge("IOCTL_SET_INSERT_DATA failed");

	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_GetInsertDataBufStatus(int channel, RT_VENC_BUF_STATUS *pStatus)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	int ret = ioctl(cur_channel->dev_fd, IOCTL_GET_INSERT_DATA_BUF_STATUS, pStatus);
	if(ret != 0)
		aw_loge("IOCTL_GET_INSERT_DATA_BUF_STATUS failed");

	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_SetChmoraGray(int channel, int enable_gray)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	int ret = ioctl(cur_channel->dev_fd, IOCTL_SET_GRAY, enable_gray);
	if(ret != 0)
		aw_loge("IOCTL_SET_GRAY failed");

	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_Set2dNR(int channel, RTs2DfilterParam* p_2dnr_param)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	int ret = ioctl(cur_channel->dev_fd, IOCTL_SET_2DNR, p_2dnr_param);
	if(ret != 0)
		aw_loge("IOCTL_SET_2DNR failed");

	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_Set3dNR(int channel, RTs3DfilterParam* p_3dnr_param)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	int ret = ioctl(cur_channel->dev_fd, IOCTL_SET_3DNR, p_3dnr_param);
	if(ret != 0)
		aw_loge("IOCTL_SET_3DNR failed");

	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_SetWbYuv(int channel, WbYuvFuncInfo *pWbYuvFuncInfo, RTsWbYuvParam *pWbYuvParam, int dst_w, int dst_h)
{
    //center point alignment
    pWbYuvParam->sWbYuvcrop.nTop = (ALIGN_XXB(16, dst_h)/2 - pWbYuvParam->sWbYuvcrop.nHeight/2);
    pWbYuvParam->sWbYuvcrop.nLeft = (ALIGN_XXB(16, dst_w)/2 - pWbYuvParam->sWbYuvcrop.nWidth/2);

	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null\n");
		return -1;
	}
	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];
	cur_channel->p_wbyuv_info = pWbYuvFuncInfo;

	pthread_mutex_lock(&cur_channel->mutex);

	int ret = ioctl(cur_channel->dev_fd, IOCTL_SET_WB_YUV, pWbYuvParam);
	if(ret != 0) {
		pthread_mutex_unlock(&cur_channel->mutex);
		aw_loge("IOCTL_SET_WB_YUV failed");
		return ret;
	}

	pthread_mutex_unlock(&cur_channel->mutex);

    unsigned int ThumbScale = 0;

    if(pWbYuvParam->scalerRatio == RTVENC_ISP_SCALER_0)
        ThumbScale = 0;
    else if(pWbYuvParam->scalerRatio == RTVENC_ISP_SCALER_HALF)
        ThumbScale = 1;
    else if(pWbYuvParam->scalerRatio == RTVENC_ISP_SCALER_QUARTER)
        ThumbScale = 2;
    else if(pWbYuvParam->scalerRatio == RTVENC_ISP_SCALER_EIGHTH)
        ThumbScale = 3;

    unsigned int nAlignW = ALIGN_XXB(16, dst_w) >> ThumbScale;
    unsigned int nAlignH = ALIGN_XXB(16, dst_h) >> ThumbScale;

    if(pWbYuvParam->bEnableCrop)
    {
        nAlignW = ALIGN_XXB(16, pWbYuvParam->sWbYuvcrop.nWidth);
        nAlignH = ALIGN_XXB(16, pWbYuvParam->sWbYuvcrop.nHeight);
    }

    pWbYuvFuncInfo->yuvSize  = nAlignW*nAlignH*3/2;
    aw_logd("%d %d %d", nAlignW, nAlignH, pWbYuvFuncInfo->yuvSize);
    pWbYuvFuncInfo->yuvBuf = calloc(1, pWbYuvFuncInfo->yuvSize);
    if(pWbYuvFuncInfo->yuvBuf == NULL)
    {
        aw_loge("malloc failed, size = %d", pWbYuvFuncInfo->yuvSize);
        return -1;
    }
    if(pWbYuvFuncInfo->wbyuv_file)
    {
        return 0;
    }
    char wb_yuv_name[128];
    sprintf(wb_yuv_name, "/mnt/extsd/wb_%dx%d.yuv",nAlignW, nAlignH);
    pWbYuvFuncInfo->wbyuv_file = fopen(wb_yuv_name, "wb");
    if(pWbYuvFuncInfo->wbyuv_file == NULL)
    {
        aw_logw("open file failed : %s", wb_yuv_name);
    }

	return ret;
}

int AWVideoInput_SaveWbYuv(int channel, WbYuvFuncInfo *pWbYuvFuncInfo)
{
    int result;
    RTVencThumbInfo mThumbInfo;
    memset(&mThumbInfo, 0, sizeof(RTVencThumbInfo));

    mThumbInfo.pThumbBuf    = pWbYuvFuncInfo->yuvBuf;
    mThumbInfo.nThumbSize   = pWbYuvFuncInfo->yuvSize;
    mThumbInfo.bWriteToFile = 0;

    aw_logd("yuvBuf = %p, yuvSize = %d, file = %p",
        pWbYuvFuncInfo->yuvBuf, pWbYuvFuncInfo->yuvSize, pWbYuvFuncInfo->wbyuv_file);

	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);
	int ret = ioctl(cur_channel->dev_fd, IOCTL_GET_WB_YUV, &mThumbInfo);
	pthread_mutex_unlock(&cur_channel->mutex);

	if(ret == 0) {
		if(pWbYuvFuncInfo->wbyuv_file)
			fwrite(pWbYuvFuncInfo->yuvBuf, 1, pWbYuvFuncInfo->yuvSize, pWbYuvFuncInfo->wbyuv_file);
		else
			aw_logd("wbyuv_file[%p] is null", pWbYuvFuncInfo->wbyuv_file);
	} else {
		aw_logw("wb yuv not ready.");
	}
	return ret;
}

int AWVideoInput_DeInitWbYuv(int channel, WbYuvFuncInfo *pWbYuvFuncInfo)
{
    RTsWbYuvParam mWbYuvParam;
    memset(&mWbYuvParam, 0, sizeof(RTsWbYuvParam));
    mWbYuvParam.bEnableWbYuv = 0;

	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	int ret = ioctl(cur_channel->dev_fd, IOCTL_SET_WB_YUV, &mWbYuvParam);
	if(ret != 0) {
		pthread_mutex_unlock(&cur_channel->mutex);
		aw_loge("IOCTL_SET_WB_YUV failed");
		return ret;
	}

	pthread_mutex_unlock(&cur_channel->mutex);
	
    if(pWbYuvFuncInfo->wbyuv_file)
        fclose(pWbYuvFuncInfo->wbyuv_file);

    if(pWbYuvFuncInfo->yuvBuf)
    {
        free(pWbYuvFuncInfo->yuvBuf);
    }
	free(pWbYuvFuncInfo);
    return 0;
}

int AWVideoInput_SetPIntraRefresh(int channel, RTVencCyclicIntraRefresh* pIntraRefresh)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	int ret = ioctl(cur_channel->dev_fd, IOCTL_SET_CYCLIC_INTRA_REFRESH, pIntraRefresh);
	if(ret != 0)
		aw_loge("IOCTL_SET_CYCLIC_INTRA_REFRESH failed");

	if (pIntraRefresh->bEnable) {
		int en_pIntraRefresh = pIntraRefresh->bEnable;
		ret = ioctl(cur_channel->dev_fd, IOCTL_SET_P_FRAME_INTRA, en_pIntraRefresh);
		if(ret != 0)
			aw_loge("IOCTL_SET_P_FRAME_INTRA failed");
	}

	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

/**
  call rtmedia to drop <n> frames actively.

  when rtmedia receives this command, it will record dropNum, then drop frames not to encode.
*/
int AWVideoInput_DropFrame(int channel, int nDropNum)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("fatal error! g_videoInput_cxt is null");
		return -1;
	}
	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("fatal error! the channel[%d] overflow", channel);
		return -1;
	}
	AWChannel_cxt* channel_cxt = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&channel_cxt->mutex);
	int ret = ioctl(channel_cxt->dev_fd, IOCTL_DROP_FRAME, nDropNum);
	if(ret != 0)
	{
		aw_loge("fatal error! chn[%d] drop [%d] frames fail[0x%x]", channel, nDropNum, ret);
	}
	pthread_mutex_unlock(&channel_cxt->mutex);

	return ret;
}

int AWVideoInput_SetCameraMoveStatus(int channel, RT_VENC_CAMERA_MOVE_STATUS camera_move_status)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	int ret = ioctl(cur_channel->dev_fd, IOCTL_SET_CAMERA_MOVE_STATUS, camera_move_status);
	if(ret != 0)
		aw_loge("IOCTL_SET_CAMERA_MOVE_STATUS failed");
	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_SetCrop(int channel, RTCropInfo *crop_info)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	int ret = ioctl(cur_channel->dev_fd, IOCTL_SET_CROP, crop_info);
	if(ret != 0)
		aw_loge("IOCTL_SET_CROP failed");
	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_SetVencTargetBitsClipParam(int channel, RT_VENC_TARGET_BITS_CLIP_PARAM *target_bits_clop_param)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	int ret = ioctl(cur_channel->dev_fd, IOCTL_SET_VENC_TARTGET_BITS_CLIP_PARAM, target_bits_clop_param);
	if(ret != 0)
		aw_loge("IOCTL_SET_VENC_TARTGET_BITS_CLIP_PARAM failed");
	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_SetIspFaceAeCfg(int channel, AWVideoInput_FaceAeInfo FaceAeInfo, AWVideoInput_VideoSrcRes Res)
{
	int ret = 0, real_vaild_cnt, i;
	RTIspCtrlAttr isp_ctrl_attr;
	AWVideoInput_VideoPoint PtRightBottom[RT_AE_FACE_MAX_NUM];

	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null when call SetIspAttrCfg\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("SetIspAttrCfg: the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	if (FaceAeInfo.enable == true) {
		if (FaceAeInfo.vaild_face_num < 0) {
			aw_loge("face_num = %d is < 0, please check it!\n", FaceAeInfo.vaild_face_num);
			return -1;
		} else if (FaceAeInfo.vaild_face_num > RT_AE_FACE_MAX_NUM) {
			aw_logw("vaild_face_num:%d > RT_AE_FACE_MAX_NUM:%d, it will only use %d face_roi!",
			FaceAeInfo.vaild_face_num, RT_AE_FACE_MAX_NUM, RT_AE_FACE_MAX_NUM);
			FaceAeInfo.vaild_face_num = RT_AE_FACE_MAX_NUM;
		}

		/* reset face_ae_cfg_load for detect */
		memset(&isp_ctrl_attr, 0, sizeof(RTIspCtrlAttr));
		/* parser face_roi */
		for (i = 0, real_vaild_cnt = 0; i < FaceAeInfo.vaild_face_num; i++) {
			/* calc PtRightBottom */
			PtRightBottom[i].x = FaceAeInfo.face_roi_rgn[i].nLeft + FaceAeInfo.face_roi_rgn[i].nWidth;
			PtRightBottom[i].y = FaceAeInfo.face_roi_rgn[i].nTop + FaceAeInfo.face_roi_rgn[i].nHeight;
			/* check area */
			if ((FaceAeInfo.face_roi_rgn[i].nLeft > Res.src_width) || (FaceAeInfo.face_roi_rgn[i].nTop > Res.src_height) ||
				(PtRightBottom[i].x > Res.src_width) || (PtRightBottom[i].y > Res.src_height) ||
				(FaceAeInfo.face_roi_rgn[i].nLeft == PtRightBottom[i].x && FaceAeInfo.face_roi_rgn[i].nTop == PtRightBottom[i].y)) {
				aw_loge("face_ae_cfg_load.face_ae_coor[%d]: (%d, %d) (%d, %d), it is invalid coordinate from src:%d*%d, will lost it\n",
					FaceAeInfo.face_roi_rgn[i].nLeft, FaceAeInfo.face_roi_rgn[i].nTop,
					PtRightBottom[i].x, PtRightBottom[i].y, Res.src_width, Res.src_height);
				/* reset this face_ae_coor */
				memset(&isp_ctrl_attr.isp_attr_cfg.ae_face_info.face_ae_coor[i], 0, sizeof(struct isp_h3a_coor_win));
			} else {
				/* calc vaild face_roi */
				isp_ctrl_attr.isp_attr_cfg.ae_face_info.face_ae_coor[real_vaild_cnt].x1 = (int)(FaceAeInfo.face_roi_rgn[i].nLeft * 2000 / Res.src_width  - 1000 );
				isp_ctrl_attr.isp_attr_cfg.ae_face_info.face_ae_coor[real_vaild_cnt].y1 = (int)(FaceAeInfo.face_roi_rgn[i].nTop * 2000 / Res.src_height - 1000 );
				isp_ctrl_attr.isp_attr_cfg.ae_face_info.face_ae_coor[real_vaild_cnt].x2 = (int)(PtRightBottom[i].x * 2000 / Res.src_width	- 1000 );
				isp_ctrl_attr.isp_attr_cfg.ae_face_info.face_ae_coor[real_vaild_cnt].y2 = (int)(PtRightBottom[i].y * 2000 / Res.src_height - 1000 );
//#define PRINT_INFO
#ifdef PRINT_INFO
				aw_logd("face_ae_cfg_load.face_ae_coor[%d]: (%d, %d) & (%d, %d) -> (%d, %d) (%d, %d)\n", i,
				FaceAeInfo.face_roi_rgn[i].nLeft, FaceAeInfo.face_roi_rgn[i].nTop,
				PtRightBottom[i].x, PtRightBottom[i].y,
				isp_ctrl_attr.isp_attr_cfg.ae_face_info.face_ae_coor[real_vaild_cnt].x1, isp_ctrl_attr.isp_attr_cfg.ae_face_info.face_ae_coor[real_vaild_cnt].y1,
				isp_ctrl_attr.isp_attr_cfg.ae_face_info.face_ae_coor[real_vaild_cnt].x2, isp_ctrl_attr.isp_attr_cfg.ae_face_info.face_ae_coor[real_vaild_cnt].y2);
#endif
				real_vaild_cnt++;
		    }
		}

		if (real_vaild_cnt > RT_AE_FACE_MAX_NUM || real_vaild_cnt < 0) {
		    aw_loge("real_vaild_num = %d, it will not do faceAE, please check face_roi!\n", real_vaild_cnt);
		    return -1;
		} else if (real_vaild_cnt == 0) {
		    aw_logd("real_vaild_num = %d, it will recover AE\n", real_vaild_cnt);
		}

		isp_ctrl_attr.isp_attr_cfg.ae_face_info.vaild_face_cnt = real_vaild_cnt;
		isp_ctrl_attr.isp_attr_cfg.ae_face_info.face_ae_tolerance = FaceAeInfo.face_ae_tolerance;
		isp_ctrl_attr.isp_attr_cfg.ae_face_info.face_ae_speed = FaceAeInfo.face_ae_speed;
		isp_ctrl_attr.isp_attr_cfg.ae_face_info.face_ae_target = FaceAeInfo.face_ae_target;
		isp_ctrl_attr.isp_attr_cfg.ae_face_info.face_ae_delay_cnt = FaceAeInfo.face_ae_delay_cnt;
		isp_ctrl_attr.isp_attr_cfg.ae_face_info.face_up_percent = FaceAeInfo.face_up_percent;
		isp_ctrl_attr.isp_attr_cfg.ae_face_info.face_down_percent = FaceAeInfo.face_down_percent;
		isp_ctrl_attr.isp_attr_cfg.ae_face_info.ae_face_block_num_thrd = FaceAeInfo.ae_face_block_num_thrd;
		isp_ctrl_attr.isp_attr_cfg.ae_face_info.ae_face_block_weight = FaceAeInfo.ae_face_block_weight;
		isp_ctrl_attr.isp_attr_cfg.ae_face_info.ae_over_face_max_exp_control = FaceAeInfo.ae_over_face_max_exp_control;
		if (real_vaild_cnt != 0) {
			memcpy(&isp_ctrl_attr.isp_attr_cfg.ae_face_info.ae_face_win_weight, &FaceAeInfo.ae_face_win_weight, RT_AE_FACE_WIN_WEIGHT_LENGTH * sizeof(unsigned short));
			memcpy(&isp_ctrl_attr.isp_attr_cfg.ae_face_info.ae_face_pos_weight, &FaceAeInfo.ae_face_pos_weight, RT_AE_FACE_POS_WEIGHT_LENGTH * sizeof(int));
		}
		isp_ctrl_attr.isp_attr_cfg.ae_face_info.enable = true;
	} else {
		aw_logd("It will disable faceAE!\n");
		isp_ctrl_attr.isp_attr_cfg.ae_face_info.enable = false;
	}

	pthread_mutex_lock(&cur_channel->mutex);
	isp_ctrl_attr.isp_attr_cfg.cfg_id = RT_ISP_CTRL_AE_FACE_CFG;
	ret = ioctl(cur_channel->dev_fd, IOCTL_SET_ISP_ATTR_CFG, &isp_ctrl_attr);
	if(ret != 0)
		aw_loge("Set RT_ISP_CTRL_AE_FACE_CFG failed");

	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

int AWVideoInput_GetIspFaceAeCfg(int channel, AWVideoInput_FaceAeInfo *FaceAeInfo)
{
	int ret = 0;
	RTIspCtrlAttr isp_ctrl_attr;

	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null when call SetIspAttrCfg\n");
		return -1;
	}

	if (!FaceAeInfo) {
		aw_loge("FaceAeInfo is NULL!\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("SetIspAttrCfg: the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	memset(&isp_ctrl_attr, 0, sizeof(RTIspCtrlAttr));
	isp_ctrl_attr.isp_attr_cfg.cfg_id = RT_ISP_CTRL_AE_FACE_CFG;
	ret = ioctl(cur_channel->dev_fd, IOCTL_GET_ISP_ATTR_CFG, &isp_ctrl_attr);
	if(ret != 0) {
		aw_loge("Get RT_ISP_CTRL_AE_FACE_CFG failed");
		pthread_mutex_unlock(&cur_channel->mutex);
		return ret;
	}
	pthread_mutex_unlock(&cur_channel->mutex);

	FaceAeInfo->enable = isp_ctrl_attr.isp_attr_cfg.ae_face_info.enable;
	FaceAeInfo->vaild_face_num = isp_ctrl_attr.isp_attr_cfg.ae_face_info.vaild_face_cnt;
	FaceAeInfo->face_ae_tolerance = isp_ctrl_attr.isp_attr_cfg.ae_face_info.face_ae_tolerance;
	FaceAeInfo->face_ae_speed = isp_ctrl_attr.isp_attr_cfg.ae_face_info.face_ae_speed;
	FaceAeInfo->face_ae_target = isp_ctrl_attr.isp_attr_cfg.ae_face_info.face_ae_target;
	FaceAeInfo->face_ae_delay_cnt = isp_ctrl_attr.isp_attr_cfg.ae_face_info.face_ae_delay_cnt;
	FaceAeInfo->face_up_percent = isp_ctrl_attr.isp_attr_cfg.ae_face_info.face_up_percent;
	FaceAeInfo->face_down_percent = isp_ctrl_attr.isp_attr_cfg.ae_face_info.face_down_percent;
	FaceAeInfo->ae_face_block_num_thrd = isp_ctrl_attr.isp_attr_cfg.ae_face_info.ae_face_block_num_thrd;
	FaceAeInfo->ae_face_block_weight = isp_ctrl_attr.isp_attr_cfg.ae_face_info.ae_face_block_weight;
	FaceAeInfo->ae_over_face_max_exp_control = isp_ctrl_attr.isp_attr_cfg.ae_face_info.ae_over_face_max_exp_control;
	memcpy(&FaceAeInfo->ae_face_win_weight, &isp_ctrl_attr.isp_attr_cfg.ae_face_info.ae_face_win_weight, RT_AE_FACE_WIN_WEIGHT_LENGTH * sizeof(unsigned short));
	memcpy(&FaceAeInfo->ae_face_pos_weight, &isp_ctrl_attr.isp_attr_cfg.ae_face_info.ae_face_pos_weight, RT_AE_FACE_POS_WEIGHT_LENGTH * sizeof(int));

	return ret;
}

int AWVideoInput_GetISPReg(int channel, VIN_ISP_REG_GET_CFG *cfg_ptr)
{
	if(g_videoInput_cxt == NULL)
	{
		aw_loge("g_videoInput_cxt is null\n");
		return -1;
	}

	if(channel >= VIDEO_INPUT_CHANNEL_NUM)
	{
		aw_loge("the channel[%d] overflow\n", channel);
		return -1;
	}
	AWChannel_cxt* cur_channel = &g_videoInput_cxt->channel_cxt[channel];

	pthread_mutex_lock(&cur_channel->mutex);

	int ret = ioctl(cur_channel->dev_fd, IOCTL_GET_ISP_REG, cfg_ptr);
	if(ret != 0)
		aw_loge("IOCTL_GET_ISP_REG failed");
	pthread_mutex_unlock(&cur_channel->mutex);

	return ret;
}

void* ChannelThread(void* param)
{
	AWChannel_cxt* channel_cxt = (AWChannel_cxt*)param;
	STREAM_DATA_INFO stream_data;
	int csi_status[VIDEO_INPUT_CHANNEL_NUM];
	int ret = 0;
	int try_get_vbv_buf_cnt = 0;
	XmMessage msg;
	int bget_stream_data_succ = 0;
	int err_cnt = 0;
	int64_t err_start_time = 0;
	int64_t wait_start_time = 0;
	int haved_exit = 0;
	fd_set socketFds;
	FD_ZERO(&socketFds);
	FD_SET(channel_cxt->mSockFd, &socketFds);

	memset(&msg, 0, sizeof(XmMessage));
	memset(csi_status, 0, sizeof(int) * VIDEO_INPUT_CHANNEL_NUM);

	char strThreadName[32];
	sprintf(strThreadName, "AWVideoInput%d", channel_cxt->id);
	prctl(PR_SET_NAME, strThreadName);

	while(1)
	{
		if(aw_message_queue_tryGetMessage(channel_cxt->mq, &msg, 0) == 0)
		{
			if(msg.messageId == VIDEO_INPUT_CMD_PAUSE)
				channel_cxt->state = VIDEO_INPUT_STATE_PAUSE;
			else if(msg.messageId == VIDEO_INPUT_CMD_EXCUTING) {
				channel_cxt->state = VIDEO_INPUT_STATE_EXCUTING;
			}
			else if(msg.messageId == VIDEO_INPUT_CMD_EXIT)
				channel_cxt->state = VIDEO_INPUT_STATE_IDLE;

			sem_post(msg.psem_reply);
		}
		//try to receive event from kernel rt_media.
		/*if(channel_cxt->mSockFd >= 0)
		{
			fd_set tmpRdFds = socketFds;
			struct timeval timeout = {0, 0};
			int nReadyCnt = select(channel_cxt->mSockFd+1, &tmpRdFds, NULL, NULL, &timeout);
			if(nReadyCnt > 0)
			{
				if(FD_ISSET(channel_cxt->mSockFd, &tmpRdFds))
				{
					RTCbEvent stEvent;
					ret = awVideoInput_ReceiveGENLRTCbEvent(channel_cxt, &stEvent);
					if(0 == ret)
					{
						switch(stEvent.eEventType)
						{
							case RTCB_EVENT_VENC_DROP_FRAME:
							{
								if(channel_cxt->mCallback)
								{
									channel_cxt->mCallback(channel_cxt->mpAppData, channel_cxt->id, AWVideoInput_Event_DropFrame, stEvent.nData1, 0, NULL);
								}
								break;
							}
							default:
							{
								aw_loge("fatal error! chn[%d] receive unknown event type:%d", channel_cxt->id, stEvent.eEventType);
								break;
							}
						}
					}
				}
			}
			else if(nReadyCnt < 0)
			{
				aw_loge("fatal error! chn[%d] select fail[%d]", channel_cxt->id, nReadyCnt);
			}
		}*/

		if(channel_cxt->state == VIDEO_INPUT_STATE_IDLE)
		{
			aw_logd("the state is idle, exit the thread\n");
			break;
		}
		else if(channel_cxt->state == VIDEO_INPUT_STATE_PAUSE)
		{
			if (channel_cxt->demo_wait_csi_ready) {
				ioctl(channel_cxt->dev_fd, IOCTL_GET_CSI_STATUS, csi_status);

				if (csi_status[channel_cxt->id]) {
					channel_cxt->demo_wait_csi_ready = 0;
					ret = ioctl(channel_cxt->dev_fd, IOCTL_START, channel_cxt->id);
					channel_cxt->state = VIDEO_INPUT_STATE_EXCUTING;
				} else if (channel_cxt->thread_exit_cb) {
					if (!wait_start_time)
						wait_start_time = get_cur_time_us();

					if (get_cur_time_us() - wait_start_time > WAIT_CSI_TIMEOUT_TIME && !haved_exit) {
						aw_loge("channel %d wait csi more than 5 seconds, will exit!", channel_cxt->id);
						channel_cxt->thread_exit_cb();
						haved_exit = 1;
					}
				}
			}
			aw_message_queue_waitMessage(channel_cxt->mq, 200);
			continue;
		}
		else if(channel_cxt->state == VIDEO_INPUT_STATE_EXCUTING)
		{
			//* get share_fd of vbv buf from kernel;
			if(channel_cxt->vbv_buffer.bInit == 0)
			{
				if(init_vbv_buffer(channel_cxt) != 0)
				{
					aw_logv("init_vbv_buffer failed\n");
					usleep(10*1000);
					try_get_vbv_buf_cnt++;
					if (try_get_vbv_buf_cnt % 50 == 0)
						aw_logd("init_vbv_buffer failed, cnt = %d\n", try_get_vbv_buf_cnt);
					continue;
				}
				else
				{
					aw_logd("try_get_vbv_buf_cnt = %d ", try_get_vbv_buf_cnt );
					try_get_vbv_buf_cnt = 0;
				}
			}
			//* h264 and h265 encoder need get header data
			if(channel_cxt->sps_pps_data.bInit == 0
			   && (channel_cxt->config.encodeType == 0 || channel_cxt->config.encodeType == 2))
			{
				
				get_sps_pps_data(channel_cxt);
				
			}
			
			pthread_mutex_lock(&channel_cxt->mutex);
			if(channel_cxt->video_osd_need_process_flag == 1)
			{
				
				aw_logv("*** setup the osd ***");
				ret = ioctl(channel_cxt->dev_fd, IOCTL_SET_OSD, &channel_cxt->video_osd_info);
				channel_cxt->video_osd_need_process_flag = 0;
				
			}
			pthread_mutex_unlock(&channel_cxt->mutex);

			memset(&stream_data, 0, sizeof(STREAM_DATA_INFO));
			
			ret = ioctl(channel_cxt->dev_fd, IOCTL_GET_STREAM_DATA, &stream_data);
			if(ret != 0)
			{
				err_cnt++;
				if (bget_stream_data_succ || err_cnt == 1)
					err_start_time = get_cur_time_us();

				bget_stream_data_succ = 0;
				if (get_cur_time_us() - err_start_time > WAIT_CSI_TIMEOUT_TIME) {
					aw_loge("channel %d get stream data more than 5 seconds, will exit!", channel_cxt->id);
					if (channel_cxt->thread_exit_cb) {
						aw_logd("%d thread_exit_cb %p", channel_cxt->id, channel_cxt->thread_exit_cb);
						channel_cxt->thread_exit_cb();
					}
					channel_cxt->state = VIDEO_INPUT_STATE_PAUSE;
				}
				continue;
			}

			isp_ini_tuning_run(channel_cxt);

		#if RT_MEDIA_SUPPORT_VENC_PARAM_DEBUG
			check_ve_param_file(VE_PARAM_DYNAMIC, &channel_cxt->config, channel_cxt->id);
		#endif
			bget_stream_data_succ = 1;
			if (channel_cxt->p_wbyuv_info) {
				if (channel_cxt->p_wbyuv_info->enable_wbyuv && channel_cxt->p_wbyuv_info->get_num > 0) {
					if (AWVideoInput_SaveWbYuv(channel_cxt->id, channel_cxt->p_wbyuv_info) == 0)
						channel_cxt->p_wbyuv_info->get_num--;
				}
			}

			if(channel_cxt->id == 0)
				aw_logv("stream info: size0 = %d, offset = %d", stream_data.size0, stream_data.offset0);
#if 0
			aw_logd("stream data: %x, %x, %x, %x, %x, %x, %x, %x\n",
			stream_data.buf[0], stream_data.buf[1],
			stream_data.buf[2], stream_data.buf[3],
			stream_data.buf[4], stream_data.buf[5],
			stream_data.buf[6], stream_data.buf[7]);
#endif

#if 1
			stream_data.tv.tv_sec  = stream_data.pts/1000000;
			stream_data.tv.tv_usec = stream_data.pts%1000000;
			if(channel_cxt->id == 0)
			{
				uint64_t cur_time =  get_cur_time_us();
				aw_logv("id = %d, tv_sec = %lu, tv_usec = %lu, pts = %llu us; pre_diff = %llu ms, cur_time = %llu us, diff = %llu ms\n",
				         channel_cxt->id, stream_data.tv.tv_sec, stream_data.tv.tv_usec,
				         stream_data.pts, (stream_data.pts - channel_cxt->pre_pts)/1000,
				         cur_time, (cur_time - stream_data.pts)/1000);
			}
			channel_cxt->pre_pts = stream_data.pts;

			callback_stream_data(channel_cxt, &stream_data);

			ret = ioctl(channel_cxt->dev_fd, IOCTL_RETURN_STREAM_DATA, &stream_data);

#endif
		}

	}
	aw_logd("exit the thread, channel = %d\n", channel_cxt->id);

	return 0;
}

void *GENLRecvThread(void * param)
{
	AWChannel_cxt* channel_cxt = (AWChannel_cxt*)param;
	fd_set socketFds;
	FD_ZERO(&socketFds);
	FD_SET(channel_cxt->mSockFd, &socketFds);
	char thread_name[32] = {0};
	uint64_t cur_time_us = 0, time_us = 0;
	int GENL_msg_cnt = 0;

	sprintf(thread_name, "AWVideoGENL%d", channel_cxt->id);
	prctl(PR_SET_NAME, (unsigned long)thread_name, 0, 0, 0);

	if (channel_cxt->mSockFd < 0)
	{
		aw_loge("GENL socket invalid!");
		return (void *)NULL;
	}

	while (1)
	{
		if (channel_cxt->GENL_thread_exit_flag)
			break;

		if (time_us == 0)
			time_us = get_cur_time_us();
		cur_time_us = get_cur_time_us();
		if (((cur_time_us - time_us) >= GENL_MSG_CHECK_MAX_INTERVAL_US))
		{
			if (GENL_msg_cnt >= GENL_MSG_CHECK_MAX_CNT)
				aw_loge("Be careful! channel %d get GENL msg %d times at %llu us!",
					channel_cxt->id, GENL_MSG_CHECK_MAX_CNT, (cur_time_us - time_us));
			time_us = 0;
			GENL_msg_cnt = 0;
		}

		fd_set tmpRdFds = socketFds;
		struct timeval timeout =
			{GENL_MSG_GET_WAIT_MAX_TIME_MS / 1000, (GENL_MSG_GET_WAIT_MAX_TIME_MS % 1000) * 1000};
		int nReadyCnt = select(channel_cxt->mSockFd+1, &tmpRdFds, NULL, NULL, &timeout);
		if(nReadyCnt > 0)
		{
			if(FD_ISSET(channel_cxt->mSockFd, &tmpRdFds))
			{
				RTCbEvent stEvent;
				int ret = awVideoInput_ReceiveGENLRTCbEvent(channel_cxt, &stEvent);
				if(0 == ret)
				{
					GENL_msg_cnt++;
					switch(stEvent.eEventType)
					{
						case RTCB_EVENT_VENC_DROP_FRAME:
						{
							if(channel_cxt->mCallback)
							{
								channel_cxt->mCallback(channel_cxt->mpAppData,
									channel_cxt->id, AWVideoInput_Event_DropFrame,
									stEvent.nData1, 0, NULL);
							}
							break;
						}
						default:
						{
							aw_loge("fatal error! chn[%d] receive unknown event type:%d",
								channel_cxt->id, stEvent.eEventType);
							break;
						}
					}
				}
			}
		}
		else if(nReadyCnt < 0)
		{
			aw_loge("fatal error! chn[%d] select fail[%d]", channel_cxt->id, nReadyCnt);
		}
	}
	aw_logv("channel %d GENL recv thread exit!", channel_cxt->id);
	return (void *)NULL;
}

void *AIISPThread(void * param)
{
	AWChannel_cxt* channel_cxt = (AWChannel_cxt*)param;
	char thread_name[32] = {0};
	int ret = 0;

	sprintf(thread_name, "AWAIISP%d", channel_cxt->id);
	prctl(PR_SET_NAME, (unsigned long)thread_name, 0, 0, 0);

	aw_logd("channel %d AIISP Thread enter\n", channel_cxt->id);

	while (1)
	{
		if (channel_cxt->AIISP_thread_exit_flag)
			break;

		if (channel_cxt->enable_aiisp && channel_cxt->start_process_tdm_buf)
		{
			struct vin_isp_tdm_event_status tdm_status;
			memset(&tdm_status, 0, sizeof(struct vin_isp_tdm_event_status));
			ret = ioctl(channel_cxt->dev_fd, IOCTL_GET_TDM_BUF, &tdm_status);
			if(ret == 0)
			{
				if (tdm_status.iommu_buf)
				{
					aw_logv("ch%d dev_id[%d] buf[%d] %p size:%d, fill_len:%d, head_len:%d, cb:%p", channel_cxt->id, tdm_status.dev_id,
						tdm_status.buf_id, tdm_status.iommu_buf, tdm_status.buf_size, tdm_status.fill_len, tdm_status.head_len, channel_cxt->mTdmBufDoneCallback);

					if (channel_cxt->mTdmBufDoneCallback)
					{
						channel_cxt->mTdmBufDoneCallback(&tdm_status);
					}
					else
					{
						ret = ioctl(channel_cxt->dev_fd, IOCTL_RETURN_TDM_BUF, &tdm_status);
						if(ret != 0)
							aw_loge("ch%d ioctl IOCTL_RETURN_TDM_BUF failed! ret=%d", channel_cxt->id, ret);
					}
				}
			}
			else
				aw_loge("ch%d ioctl IOCTL_GET_TDM_BUF failed! ret=%d", channel_cxt->id, ret);
		}

		usleep(10*1000);
	}
	aw_logd("channel %d AIISP thread exit!", channel_cxt->id);
	return (void *)NULL;
}

LIGHT_SENSOR_ATTR_S linear_lightadc[] = {
	{275,  249, 21600, 256},
	{475,  249, 17984, 304},
	//{675,  230, 12000, 272},
	{1374, 211, 6000,  320},
	{1600, 197, 5248,  256},
	{1615, 187, 3968,  256},
	{1631, 175, 2848,  256},
	{1638, 164, 2096,  256},
	{1644, 156, 1680,  256},
	{1648, 150, 1424,  256},
	{1651, 144, 1200,  256},
	{1655, 140, 1072,  256},
	{1659, 132, 864,   256},
	{1663, 126, 720,   256},
	{1668, 118, 576,   256},
};

int isp_config_to_flash(void)
{
	SENSOR_ISP_CONFIG_S *sensor_isp_cfg0, *sensor_isp_cfg1;
	int fd = 0;
	struct write4k_op_t write_4k;
	fd = open("/dev/mtd0", O_RDWR);
	if (fd < 0) {
		aw_loge("open mtd error");
		return -1;
	}

	sensor_isp_cfg0 = malloc(sizeof(SENSOR_ISP_CONFIG_S));
	memset(sensor_isp_cfg0, 0, sizeof(SENSOR_ISP_CONFIG_S));
	sensor_isp_cfg0->sign = SENSOR_0_SIGN;
	sensor_isp_cfg0->crc = 0;
	sensor_isp_cfg0->ver = 0;
	sensor_isp_cfg0->light_enable = 0;
	sensor_isp_cfg0->adc_mode = 0;
	sensor_isp_cfg0->light_def = 900;
	sensor_isp_cfg0->ircut_state = 0;
	sensor_isp_cfg0->ir_mode = 0;
	sensor_isp_cfg0->lv_liner_def = 200;
	sensor_isp_cfg0->lv_hdr_def = 0;
	sensor_isp_cfg0->width = 0;
	sensor_isp_cfg0->height = 0;
	sensor_isp_cfg0->mirror = 0;
	sensor_isp_cfg0->filp = 0;
	sensor_isp_cfg0->fps = 15;
	sensor_isp_cfg0->wdr_mode = 0;
	sensor_isp_cfg0->flicker_mode = 0;
	sensor_isp_cfg0->venc_format = 0;
	sensor_isp_cfg0->sensor_deinit = 0;
	sensor_isp_cfg0->get_yuv_en = 0;
	sensor_isp_cfg0->lightadc_debug_en = 0;
	sensor_isp_cfg0->light_sensor_en = 1;
	memcpy(sensor_isp_cfg0->linear, linear_lightadc, sizeof(linear_lightadc));

	write_4k.start = ISP0_PARAM_OFFSET*512;
	write_4k.buf = malloc(sizeof(SENSOR_ISP_CONFIG_S));
	memset(write_4k.buf, 0, sizeof(SENSOR_ISP_CONFIG_S));
	memcpy((void *)write_4k.buf, (void *)sensor_isp_cfg0, sizeof(SENSOR_ISP_CONFIG_S));
	write_4k.len = sizeof(SENSOR_ISP_CONFIG_S);
	ioctl(fd, MEMWRITE_4K, &write_4k);
	free(sensor_isp_cfg0);

	sensor_isp_cfg1 = malloc(sizeof(SENSOR_ISP_CONFIG_S));
	memset(sensor_isp_cfg1, 0, sizeof(SENSOR_ISP_CONFIG_S));
	sensor_isp_cfg1->sign = SENSOR_1_SIGN;
	sensor_isp_cfg1->crc = 0;
	sensor_isp_cfg1->ver = 0;
	sensor_isp_cfg1->light_enable = 0;
	sensor_isp_cfg1->adc_mode = 0;
	sensor_isp_cfg1->light_def = 0;
	sensor_isp_cfg1->ircut_state = 0;
	sensor_isp_cfg1->ir_mode = 0;
	sensor_isp_cfg1->lv_liner_def = 0;
	sensor_isp_cfg1->lv_hdr_def = 0;
	sensor_isp_cfg1->width = 0;
	sensor_isp_cfg1->height = 0;
	sensor_isp_cfg1->mirror = 0;
	sensor_isp_cfg1->filp = 1;
	sensor_isp_cfg1->fps = 20;
	sensor_isp_cfg1->wdr_mode = 0;
	sensor_isp_cfg1->flicker_mode = 0;
	sensor_isp_cfg1->venc_format = 0;
	sensor_isp_cfg1->sensor_deinit = 0;

	write_4k.start = ISP1_PARAM_OFFSET*512;
	memset(write_4k.buf, 0, sizeof(SENSOR_ISP_CONFIG_S));
	memcpy((void *)write_4k.buf, (void *)sensor_isp_cfg1, sizeof(SENSOR_ISP_CONFIG_S));
	write_4k.len = sizeof(SENSOR_ISP_CONFIG_S);
	ioctl(fd, MEMWRITE_4K, &write_4k);
	free(sensor_isp_cfg1);

	free(write_4k.buf);
	close(fd);
    return 0;
}