// SPDX-License-Identifier: (GPL-2.0+ OR MIT)
/*
 * Copyright (c) 2019 Amlogic, Inc. All rights reserved.
 */

#include "../include/phynand.h"

static u8 pagelist_hynix256[128] = {
	0x00, 0x01, 0x02, 0x03, 0x06, 0x07, 0x0A, 0x0B,
	0x0E, 0x0F, 0x12, 0x13, 0x16, 0x17, 0x1A, 0x1B,
	0x1E, 0x1F, 0x22, 0x23, 0x26, 0x27, 0x2A, 0x2B,
	0x2E, 0x2F, 0x32, 0x33, 0x36, 0x37, 0x3A, 0x3B,

	0x3E, 0x3F, 0x42, 0x43, 0x46, 0x47, 0x4A, 0x4B,
	0x4E, 0x4F, 0x52, 0x53, 0x56, 0x57, 0x5A, 0x5B,
	0x5E, 0x5F, 0x62, 0x63, 0x66, 0x67, 0x6A, 0x6B,
	0x6E, 0x6F, 0x72, 0x73, 0x76, 0x77, 0x7A, 0x7B,

	0x7E, 0x7F, 0x82, 0x83, 0x86, 0x87, 0x8A, 0x8B,
	0x8E, 0x8F, 0x92, 0x93, 0x96, 0x97, 0x9A, 0x9B,
	0x9E, 0x9F, 0xA2, 0xA3, 0xA6, 0xA7, 0xAA, 0xAB,
	0xAE, 0xAF, 0xB2, 0xB3, 0xB6, 0xB7, 0xBA, 0xBB,

	0xBE, 0xBF, 0xC2, 0xC3, 0xC6, 0xC7, 0xCA, 0xCB,
	0xCE, 0xCF, 0xD2, 0xD3, 0xD6, 0xD7, 0xDA, 0xDB,
	0xDE, 0xDF, 0xE2, 0xE3, 0xE6, 0xE7, 0xEA, 0xEB,
	0xEE, 0xEF, 0xF2, 0xF3, 0xF6, 0xF7, 0xFA, 0xFB,
};
u8 pagelist_1ynm_hynix256[128] = {
	0x00, 0x01, 0x03, 0x05, 0x07, 0x09, 0x0b, 0x0d,
	0x0f, 0x11, 0x13, 0x15, 0x17, 0x19, 0x1b, 0x1d,
	0x1f, 0x21, 0x23, 0x25, 0x27, 0x29, 0x2b, 0x2d,
	0x2f, 0x31, 0x33, 0x35, 0x37, 0x39, 0x3b, 0x3d,

	0x3f, 0x41, 0x43, 0x45, 0x47, 0x49, 0x4b, 0x4d,
	0x4f, 0x51, 0x53, 0x55, 0x57, 0x59, 0x5b, 0x5d,
	0x5f, 0x61, 0x63, 0x65, 0x67, 0x69, 0x6b, 0x6d,
	0x6f, 0x71, 0x73, 0x75, 0x77, 0x79, 0x7b, 0x7d,
	0x7f, 0x81, 0x83, 0x85, 0x87, 0x89, 0x8b, 0x8d,
	0x8f, 0x91, 0x93, 0x95, 0x97, 0x99, 0x9b, 0x9d,
	0x9f, 0xa1, 0xA3, 0xA5, 0xA7, 0xA9, 0xAb, 0xAd,
	0xAf, 0xb1, 0xB3, 0xB5, 0xB7, 0xB9, 0xBb, 0xBd,
	0xBf, 0xc1, 0xC3, 0xC5, 0xC7, 0xC9, 0xCb, 0xCd,
	0xCf, 0xd1, 0xD3, 0xD5, 0xD7, 0xD9, 0xDb, 0xDd,
	0xDf, 0xe1, 0xE3, 0xE5, 0xE7, 0xE9, 0xEb, 0xEd,
	0xEf, 0xf1, 0xF3, 0xF5, 0xF7, 0xF9, 0xFb, 0xFd,
};
static u8 pagelist_micron_20nm256[128] = {
	0x00, 0x01, 0x02, 0x03,0x04, 0x05, 0x08, 0x09,
	0x0C, 0x0D,0x10, 0x11, 0x14, 0x15, 0x18, 0x19,
	0x1C, 0x1D,0x20, 0x21, 0x24, 0x25, 0x28, 0x29,
	0x2C, 0x2D,0x30, 0x31, 0x34, 0x35, 0x38, 0x39,
	0x3C, 0x3D,0x40, 0x41, 0x44, 0x45, 0x48, 0x49,
	0x4C, 0x4D,0x50, 0x51, 0x54, 0x55, 0x58, 0x59,
	0x5C, 0x5D,0x60, 0x61, 0x64, 0x65, 0x68, 0x69,
	0x6C, 0x6D,0x70, 0x71, 0x74, 0x75, 0x78, 0x79,
	0x7C, 0x7D,0x80, 0x81, 0x84, 0x85, 0x88, 0x89,
	0x8C, 0x8D,0x90, 0x91, 0x94, 0x95, 0x98, 0x99,
	0x9C, 0x9D,0xA0, 0xA1, 0xA4, 0xA5, 0xA8, 0xA9,
	0xAC, 0xAD,0xB0, 0xB1, 0xB4, 0xB5, 0xB8, 0xB9,
	0xBC, 0xBD,0xC0, 0xC1, 0xC4, 0xC5, 0xC8, 0xC9,
	0xCC, 0xCD,0xD0, 0xD1, 0xD4, 0xD5, 0xD8, 0xD9,
	0xDC, 0xDD,0xE0, 0xE1, 0xE4, 0xE5, 0xE8, 0xE9,
	0xEC, 0xED,0xF0, 0xF1, 0xF4, 0xF5, 0xF8, 0xF9, /*0xFC, 0xFD,
										0xFE, 0xFF,*/
};
/*****************************HYNIX******************************************/

static int get_reg_value_hynix(struct hw_controller *controller,
	u8 *buf,
	u8 *addr,
	u8 chipnr,
	u8 cnt)
{
	struct amlnand_chip *aml_chip = controller->aml_chip;
	struct nand_flash *flash = &(aml_chip->flash);
	int i, ret = 0;

	if ((flash->new_type == 0) || (flash->new_type > 10))
		return NAND_SUCCESS;

	aml_nand_dbg("flash->new_type:%d", flash->new_type);

	ret = controller->quene_rb(controller, chipnr);
	if (ret) {
		aml_nand_msg("quene rb failed chipnr:%d", chipnr);
		return -NAND_FAILED;
	}

	controller->cmd_ctrl(controller,
		NAND_CMD_HYNIX_GET_VALUE,
		NAND_CTRL_CLE);

	for (i = 0; i < cnt; i++) {
		controller->cmd_ctrl(controller, addr[i], NAND_CTRL_ALE);
		NFC_SEND_CMD_IDLE(controller, 10);
		buf[i] = controller->readbyte(controller);
		NFC_SEND_CMD_IDLE(controller, 10);
		aml_nand_dbg("REG(0x%x): value:0x%x, for chip[%d]\n",
			addr[i],
			buf[i],
			chipnr);
	}

	ret = controller->quene_rb(controller, chipnr);
	if (ret) {
		aml_nand_msg("quene rb failed chipnr:%d", chipnr);
		return -NAND_FAILED;
	}

	return NAND_SUCCESS;
}
static int dummy_read(struct hw_controller *controller, unsigned char chipnr)
{
	//struct amlnand_chip *aml_chip = controller->aml_chip;
	//struct nand_flash *flash = &(aml_chip->flash);
	int i, ret = 0;
	ret = controller->quene_rb(controller, chipnr);
	if (ret) {
		aml_nand_msg("quene rb failed chipnr:%d", chipnr);
		return -NAND_FAILED;
	}

	controller->cmd_ctrl(controller, NAND_CMD_READ0, NAND_CTRL_CLE);
	for (i = 0; i < 5; i++)
	    controller->cmd_ctrl(controller, 0x0, NAND_CTRL_ALE);
	controller->cmd_ctrl(controller, NAND_CMD_READSTART, NAND_CTRL_CLE);

	ret = controller->quene_rb(controller, chipnr);
	if (ret) {
		aml_nand_msg("quene rb failed chipnr:%d", chipnr);
		return -NAND_FAILED;
	}

	return 0;
}

static int set_reg_value_hynix(struct hw_controller *controller,
	u8 *buf,
	u8 *addr,
	u8 chipnr,
	u8 cnt)
{
	struct amlnand_chip *aml_chip = controller->aml_chip;
	struct nand_flash *flash = &(aml_chip->flash);
	int i, ret = 0;

	if ((flash->new_type == 0) || (flash->new_type > 10))
		return NAND_SUCCESS;

	/* aml_nand_dbg("flash->new_type:%d", flash->new_type);*/

	ret = controller->quene_rb(controller, chipnr);
	if (ret) {
		aml_nand_msg("quene rb failed chipnr:%d", chipnr);
		return -NAND_FAILED;
	}

	controller->cmd_ctrl(controller,
		NAND_CMD_HYNIX_SET_VALUE_START,
		NAND_CTRL_CLE);

	for (i = 0; i < cnt; i++) {
		controller->cmd_ctrl(controller, addr[i], NAND_CTRL_ALE);
		NFC_SEND_CMD_IDLE(controller, 15);
		controller->writebyte(controller, buf[i]);
		NFC_SEND_CMD_IDLE(controller, 0);
		/*
		aml_nand_dbg("REG(0x%x):value:0x%x, for chip[%d]\n",
		addr[i], buf[i], chipnr);
		*/
	}

	controller->cmd_ctrl(controller,
		NAND_CMD_HYNIX_SET_VALUE_END,
		NAND_CTRL_CLE);

	ret = controller->quene_rb(controller, chipnr);
	if (ret) {
		aml_nand_msg("quene rb failed chipnr:%d", chipnr);
		return -NAND_FAILED;
	}

	return 0;
}

/* only called while uboot.*/
#ifdef 	AML_NAND_UBOOT
#define HYNIX_20NM_DBG	(1)
static int aml_nand_get_20nm_OTP_value(struct hw_controller *controller,  unsigned char *buf,unsigned char chipnr)
{
	int i, j, k, check_flag = 0;
	unsigned char  *tmp_buf;
	struct read_retry_info *retry_info =  &(controller->retry_info);

#if (HYNIX_20NM_DBG)
	int total_reg_cnt, reg_cnt_otp;
	total_reg_cnt = controller->readbyte(controller);
	reg_cnt_otp = controller->readbyte(controller);
	printf("20nm flash total_reg_cnt:%d, reg_cnt_otp:%d, chip[%d]\n", total_reg_cnt, reg_cnt_otp, chipnr);
#endif

	for (i=0; i<HYNIX_OTP_COPY; i++) {
		check_flag = 0;
		memset(buf, 0, HYNIX_OTP_LEN>>1);
		for (j=0;j<(HYNIX_OTP_LEN>>1);j++) {
			buf[j] = controller->readbyte(controller);
			ndelay(100);
		}
		for (j=0;j<64;j+=8) {
			for (k=0;k<7;k++) {
				if (((buf[k+j] < 0x80) && (buf[k+j+64] < 0x80)) ||
				   ((buf[k+j] > 0x80) && (buf[k+j+64] > 0x80))  ||
				   ((unsigned char)(buf[k+j]^buf[k+j+64]) != 0xFF)){
					aml_nand_dbg("%dst copy at j:%d, k%d, not match %2x %2x\n", \
						i, j, k, buf[k+j], buf[k+j+64]);
					check_flag = 1;
					break;
				}
				if (check_flag) {
					break;
				}
			}
			if (check_flag) {
				break;
			}
		}
		if (check_flag == 0) {
			break;
		}
	}
		if (check_flag) {
		aml_nand_msg(" 20 nm flashdefault vaule abnormal not safe !!!!!, chip[%d]", chipnr);
		BUG();
	}
	else{
		tmp_buf = buf;
		aml_nand_dbg("20 nm flashdefault vaule OK at %dst copy", i);
		memcpy(&retry_info->reg_def_val[chipnr][0], tmp_buf, retry_info->reg_cnt_lp);
		aml_nand_dbg("20 nm flash default vaule");
		for (j=0;j<retry_info->reg_cnt_lp;j++)
			aml_nand_dbg("REG(0x%x):   value:0x%2x, for chip[%d]", retry_info->reg_addr_lp[j],
			                   retry_info->reg_def_val[chipnr][j], chipnr);
		tmp_buf += retry_info->reg_cnt_lp;
		aml_nand_dbg("20 nm flash offset vaule");
		for (j=0;j<retry_info->retry_cnt_lp;j++) {
			for (k=0;k<retry_info->reg_cnt_lp;k++) {
				retry_info->reg_offs_val_lp[chipnr][j][k] = (char)tmp_buf[0];
				tmp_buf++;
				aml_nand_dbg("Retry[%d]   REG(0x%x):	value:0x%2x, for chip[%d]", j, retry_info->reg_addr_lp[k],
				                 retry_info->reg_offs_val_lp[chipnr][j][k], chipnr);
			}
			aml_nand_dbg("retry_info->retry_cnt_lp:%d", retry_info->retry_cnt_lp);
		}
	}
	return check_flag;
}


static int _get_valid_otp_bit(unsigned char *sets, int set_cnt, int bit, unsigned char * _bit)
{
    int ret = 0;
    int i, max;
    int cnt_0 = 0;
    int cnt_1 = 0;

    *_bit = 1;
    for (i = 0; i < set_cnt; i++)
    {
        if ((sets[i] & (1 << bit)))
        {
            cnt_1++;
        }
        else
        {
            cnt_0++;
        }
    }
    max = cnt_1;
    if (cnt_0 > cnt_1)
    {
        max = cnt_0;
        *_bit = 0;
    }
    if (max <= 4)
    {
        ret = -1;
    }

    return ret;
}
//get valid otp table from src, then copy it to the dst.
static int _get_valid_otp(unsigned char * src,unsigned char * dst)
{
    int ret = 0;
    int set_size = 32;
    int set_cnt = 8;
    int bit_cnt = 8;
    int i, j, k;
    unsigned char * _set_org;
    unsigned char * _set_inv;
    unsigned char _target_org[8];
    unsigned char _target_inv[8];
    unsigned char _M, _bit;

    if ((src == NULL) || (dst == NULL))
    {
        PRINT("%s() %d: invalid buffer param\n", __FUNCTION__, __LINE__);
        return -1;
    }

    _set_org = &src[16]; // org set 0.
    _set_inv = &src[48]; // inv set 0
    //all bytes in the set.
    for (i = 0; i < set_size; i++)
    {
        for (j = 0; j < set_cnt; j++)
        {
            _target_org[j] = _set_org[j*set_size*2 + i];
            _target_inv[j] = _set_inv[j*set_size*2 + i];
        }
#if	0
        printk("\t%02x %02x %02x %02x %02x %02x %02x %02x\n",
					_target_org[0], _target_org[1], _target_org[2], _target_org[3], _target_org[4], _target_org[5], _target_org[6], _target_org[7]);
				printk("\t%02x %02x %02x %02x %02x %02x %02x %02x\n",
					_target_inv[0], _target_inv[1], _target_inv[2], _target_inv[3], _target_inv[4], _target_inv[5], _target_inv[6], _target_inv[7]);
#endif
        _M = 0;
        for (k = 0; k < bit_cnt; k++)
        {
            ret = _get_valid_otp_bit(_target_org, set_cnt, k, &_bit);
            if (ret)
            {
                ret = _get_valid_otp_bit(_target_inv, set_cnt, k, &_bit);
                if (ret)
                {
                    PRINT("%s() %d: get valid bit failed!\n", __FUNCTION__, __LINE__);
                    return -1;
                }
                //_bit = ~_bit;
                //invers it while the bit is come from invers set.
                if (_bit == 0)
                    _bit = 1;
                else
                    _bit = 0;

            }
            _M |= _bit << k;
        }
        dst[i] = _M;
    }
    return ret;
}

static int aml_nand_get_1ynm_OTP_value(struct hw_controller *controller,
	u8 *buf,
	u8 chipnr)
{
	int i, j, k, ret =0;
	//unsigned char  *tmp_buf;
	struct read_retry_info *retry_info =  &(controller->retry_info);
	unsigned char  retry_value_sta[32] ={0};
	memset(buf, 0, 528);
	for (i=0; i<528; i++) {
		buf[i] = controller->readbyte(controller);
		 NFC_SEND_CMD_IDLE(controller, 0);
		  NFC_SEND_CMD_IDLE(controller, 0);
	}

//	unsigned char temp_orgin[8],temp_inverse[8];
//
//	for(i=0; i<32; i++)	//retry value number
//	{
//		for(j=0; j<HYNIX_OTP_COPY; j++){
//			temp_orgin[j]=buf[16 + j];			//base ops 16
//			temp_inverse[j]=buf[16 + j + 32];			//base ops 16  inverse offset 32
//		}
//		retry_value_sta[i] = get_valid_otp_byte(temp_orgin, temp_inverse);
//
//	}
		ret = _get_valid_otp(buf, retry_value_sta);
		for (j=0;j<8;j++) {
			for (k=0;k<4;k++) {
				if (j == 0)
					retry_info->reg_def_val[chipnr][k] = retry_value_sta[k];
				else
					retry_info->reg_offs_val_lp[chipnr][j-1][k] = retry_value_sta[k + j*4];
			}
		}
		if (ret < 0) {
			aml_nand_msg("########!!!!!!!get retry table fail\n");
			return 1;
		}


		for (j=0;j<retry_info->reg_cnt_lp;j++)
			aml_nand_dbg("REG(0x%x):   value:0x%2x, for chip[%d]", retry_info->reg_addr_lp[j],
			                   retry_info->reg_def_val[chipnr][j], chipnr);
		for (j=0;j<retry_info->retry_cnt_lp;j++) {
			for (k=0;k<retry_info->reg_cnt_lp;k++) {
				aml_nand_dbg("Retry[%d]   REG(0x%x):	value:0x%2x, for chip[%d]", j, retry_info->reg_addr_lp[k],
				                 retry_info->reg_offs_val_lp[chipnr][j][k], chipnr);
			}
			aml_nand_dbg("retry_info->retry_cnt_lp:%d", retry_info->retry_cnt_lp);
		}
		return 0;
}
static int get_reg_value_formOTP_hynix(struct hw_controller *controller, unsigned char chipnr)
{
	struct amlnand_chip *aml_chip = controller->aml_chip;
	struct nand_flash *flash = &(aml_chip->flash);
	struct chip_operation *operation = &(aml_chip->operation);
	//struct read_retry_info *retry_info =  &(controller->retry_info);
	//int i, j, k, reg_cnt_otp, total_reg_cnt, check_flag = 0;
	int check_flag = 0;
	//unsigned char *one_copy_buf, *tmp_buf;
	unsigned char *one_copy_buf;
	int ret = 0;

	if ((flash->new_type != HYNIX_20NM_4GB) && (flash->new_type != HYNIX_20NM_8GB)&& (flash->new_type != HYNIX_1YNM))
		return 0;

	aml_nand_dbg("flash->new_type:%d", flash->new_type);

	one_copy_buf = (unsigned char *)aml_nand_malloc(HYNIX_OTP_LEN);
	if (one_copy_buf == NULL) {
		aml_nand_msg("malloc failed and need 0x%x here", HYNIX_OTP_LEN);
		ret = -NAND_MALLOC_FAILURE;
		goto error_exit0;
	}

	ret = controller->quene_rb(controller, chipnr);
	if (ret) {
		aml_nand_msg("quene rb failed chipnr:%d", chipnr);
		ret = -NAND_BUSY_FAILURE;
		goto error_exit1;
	}

	ret = operation->reset(aml_chip, chipnr);

	if (ret) {
		aml_nand_msg("reset chip failed chipnr:%d", chipnr);
		ret = -NAND_BUSY_FAILURE;
		goto error_exit1;
	}

	controller->cmd_ctrl(controller, 0x36, NAND_CTRL_CLE);

	 NFC_SEND_CMD_IDLE(controller, 0);
	if (flash->new_type == HYNIX_20NM_8GB) {
		controller->cmd_ctrl(controller, 0xff, NAND_CTRL_ALE);			//send 0xff add
		 NFC_SEND_CMD_IDLE(controller, 0);
		controller->writebyte(controller, 0x40);							//write 0x40 into 0xff add
		 NFC_SEND_CMD_IDLE(controller, 0);
		controller->cmd_ctrl(controller, 0xcc, NAND_CTRL_ALE);			//send 0xcc add
		NFC_SEND_CMD_IDLE(controller, 0);
		controller->writebyte(controller, 0x4d);							//write 0x4d
	}
	else if(flash->new_type == HYNIX_20NM_4GB){
		controller->cmd_ctrl(controller, 0xae, NAND_CTRL_ALE);			//send 0xae add
		 NFC_SEND_CMD_IDLE(controller, 0);
		controller->writebyte(controller, 0x00);							//write 0x0 into 0xff add
		 NFC_SEND_CMD_IDLE(controller, 0);
		controller->cmd_ctrl(controller, 0xb0, NAND_CTRL_ALE);			//send 0xb0 add
		NFC_SEND_CMD_IDLE(controller, 0);
		controller->writebyte(controller, 0x4d);							//write 0x4d
	}
	else if(flash->new_type == HYNIX_1YNM){
		controller->cmd_ctrl(controller, 0x38, NAND_CTRL_ALE);			//send 0xae add
	 NFC_SEND_CMD_IDLE(controller, 0);
		controller->writebyte(controller, 0x52);							//write 0x0 into 0xff add
		 NFC_SEND_CMD_IDLE(controller, 0);
	}
	 NFC_SEND_CMD_IDLE(controller, 0);
	controller->cmd_ctrl(controller, 0x16, NAND_CTRL_CLE);	//send cmd 0x16
	 NFC_SEND_CMD_IDLE(controller, 0);
	controller->cmd_ctrl(controller, 0x17, NAND_CTRL_CLE);				//send cmd 0x17
	 NFC_SEND_CMD_IDLE(controller, 0);
	controller->cmd_ctrl(controller, 0x04, NAND_CTRL_CLE);				//send cmd 0x04
	 NFC_SEND_CMD_IDLE(controller, 0);
	controller->cmd_ctrl(controller, 0x19, NAND_CTRL_CLE);					//send cmd 0x19
	 NFC_SEND_CMD_IDLE(controller, 0);
	controller->cmd_ctrl(controller, NAND_CMD_READ0, NAND_CTRL_CLE);
	controller->cmd_ctrl(controller, 0, NAND_CTRL_ALE);
	controller->cmd_ctrl(controller, 0>>8, NAND_CTRL_ALE);
	controller->cmd_ctrl(controller, 0x200, NAND_CTRL_ALE);
	controller->cmd_ctrl(controller, 0x200>>8, NAND_CTRL_ALE);
	controller->cmd_ctrl(controller, 0x200>>16, NAND_CTRL_ALE);
	controller->cmd_ctrl(controller, NAND_CMD_READSTART, NAND_CTRL_CLE);


#if 1
	ret = controller->quene_rb(controller, chipnr);
	if (ret) {
		aml_nand_msg("quene rb failed chipnr:%d", chipnr);
		ret = -NAND_BUSY_FAILURE;
		goto error_exit1;
	}

	if (controller->option & NAND_CTRL_NONE_RB)
		controller->cmd_ctrl(controller, NAND_CMD_READ0, NAND_CTRL_CLE);
#else
	udelay(500);
#endif
#if 0
	total_reg_cnt = controller->readbyte(controller);
	reg_cnt_otp = controller->readbyte(controller);
	aml_nand_dbg("20 nm flash total_reg_cnt:%d, reg_cnt_otp:%d, chip[%d]", total_reg_cnt, reg_cnt_otp, chipnr);

	for (i=0; i<HYNIX_OTP_COPY; i++) {
		check_flag = 0;
		memset(one_copy_buf, 0, HYNIX_OTP_LEN>>1);
		for (j=0;j<(HYNIX_OTP_LEN>>1);j++) {
			one_copy_buf[j] = controller->readbyte(controller);
			ndelay(100);
		}

		for (j=0;j<64;j+=8) {
			for (k=0;k<7;k++) {
				if (((one_copy_buf[k+j] < 0x80) && (one_copy_buf[k+j+64] < 0x80)) ||
				   ((one_copy_buf[k+j] > 0x80) && (one_copy_buf[k+j+64] > 0x80))  ||
				   ((unsigned char)(one_copy_buf[k+j]^one_copy_buf[k+j+64]) != 0xFF)){
					aml_nand_dbg("%dst copy at j:%d, k%d, not match %2x %2x\n", \
						i, j, k, one_copy_buf[k+j], one_copy_buf[k+j+64]);
					check_flag = 1;
					break;
				}
				if (check_flag) {
					break;
				}
			}
			if (check_flag) {
				break;
			}
		}
		if (check_flag == 0) {
			break;
		}
	}
#else
	if ((flash->new_type == HYNIX_20NM_4GB) || (flash->new_type == HYNIX_20NM_8GB))
		 check_flag = aml_nand_get_20nm_OTP_value(controller,one_copy_buf,chipnr);
	else if(flash->new_type == HYNIX_1YNM)
		 check_flag = aml_nand_get_1ynm_OTP_value(controller,one_copy_buf,chipnr);
	aml_nand_msg("check_flag %d", check_flag);
#endif

	ret = operation->reset(aml_chip, chipnr);

	if (ret) {
		aml_nand_msg("reset chip failed chipnr:%d", chipnr);
		ret = -NAND_BUSY_FAILURE;
		goto error_exit1;
	}

	ret = controller->quene_rb(controller, chipnr);
	if (ret) {
		aml_nand_msg("quene rb failed chipnr:%d", chipnr);
		ret = -NAND_BUSY_FAILURE;
		goto error_exit1;
	}
	if ((flash->new_type == HYNIX_20NM_4GB) || (flash->new_type == HYNIX_20NM_8GB)) {
		controller->cmd_ctrl(controller, 0x38, NAND_CTRL_CLE);			//end read otp mode

		}
	else if(flash->new_type == HYNIX_1YNM) {
		controller->cmd_ctrl(controller, 0x36, NAND_CTRL_CLE);
		controller->cmd_ctrl(controller, 0x38, NAND_CTRL_ALE);
		NFC_SEND_CMD_IDLE(controller, 0);
		controller->writebyte(controller, 0);
		NFC_SEND_CMD_IDLE(controller, 0);
		controller->cmd_ctrl(controller, 0x16, NAND_CTRL_CLE);

		/*
		hynix read otp data cmd sequence for dummy read ,don't care address
		*/
		controller->cmd_ctrl(controller, NAND_CMD_READ0, NAND_CTRL_CLE);
		controller->cmd_ctrl(controller, 0, NAND_CTRL_ALE);
		controller->cmd_ctrl(controller, 0, NAND_CTRL_ALE);
		controller->cmd_ctrl(controller, 0, NAND_CTRL_ALE);
		controller->cmd_ctrl(controller, 0, NAND_CTRL_ALE);
		controller->cmd_ctrl(controller, 0, NAND_CTRL_ALE);
		controller->cmd_ctrl(controller, NAND_CMD_READSTART, NAND_CTRL_CLE);

	}

	ret = controller->quene_rb(controller, chipnr);
	if (ret) {
		aml_nand_msg("quene rb failed chipnr:%d", chipnr);
		ret = -NAND_BUSY_FAILURE;
		goto error_exit1;
	}

	aml_nand_free(one_copy_buf);

	return 0;

error_exit1:
	aml_nand_free(one_copy_buf);

error_exit0:
	return ret;
}

#endif /* AML_NAND_UBOOT */

/* init default offset value here,
** first time, for 26nm, read directly from nand reg,
** first time, for 20nm, read from nand otp area
** normal booting, read from storage nand blocks
*/
static int readretry_init_hynix(struct hw_controller *controller)
{
	struct amlnand_chip *aml_chip = controller->aml_chip;
	//struct chip_operation *operation = &(aml_chip->operation);
	struct nand_flash *flash = &(aml_chip->flash);
	//struct chip_ops_para *ops_para = &(aml_chip->ops_para);
	struct read_retry_info *retry_info =  &(controller->retry_info);
	//struct en_slc_info *slc_info =  &(controller->slc_info);
	int i, ret = 0;

	//read from nand block while nomal boot.
	if (aml_chip->init_flag < NAND_BOOT_ERASE_PROTECT_CACHE) {
		ret = aml_nand_scan_hynix_info(aml_chip);
		if (ret < 0)
			aml_nand_msg("there is not hynix info, need read from otp");
	}
#ifdef AML_NAND_UBOOT
	//read from nand reg or otp
	if (retry_info->default_flag == 0) {

	nand_get_chip(aml_chip);
	aml_nand_dbg("hynix nand readretry info scan: no info; and get it from nand reg or otp");
	for (i=0; i<controller->chip_num; i++) {
		if ((flash->new_type == HYNIX_26NM_4GB) || (flash->new_type == HYNIX_26NM_8GB)) {
			ret = get_reg_value_hynix(controller, &retry_info->reg_def_val[i][0],\
				&retry_info->reg_addr_lp[0], i, retry_info->reg_cnt_lp);
			if (ret < 0) {
				aml_nand_msg("get reg value hynix failed");
				goto error_exit;
			}
		}
		else  if((flash->new_type == HYNIX_20NM_8GB) || (flash->new_type == HYNIX_20NM_4GB)|| (flash->new_type == HYNIX_1YNM)){
			ret = get_reg_value_formOTP_hynix(controller, i);
			if (ret < 0) {
				aml_nand_msg("get reg value hynix failed");
				goto error_exit;
			}
		}
		udelay(2);
	}

	nand_release_chip(aml_chip);

	}
#else /* AML_NAND_UBOOT */
	if (retry_info->default_flag == 0) {
		aml_nand_msg("hynix nand scan readretry info failed");
		ret = -NAND_FAILED;
	}

#endif /* AML_NAND_UBOOT */
	retry_info->flag = 1;

error_exit:
	return ret;
}


/* when ecc fail,set nand retry reg */
static int readretry_handle_hynix(struct hw_controller *controller,
	u8 chipnr)
{
	struct amlnand_chip *aml_chip = controller->aml_chip;
	struct nand_flash *flash = &(aml_chip->flash);
	struct read_retry_info *retry_info =  &(controller->retry_info);
	u8 reg_value[READ_RETRY_REG_NUM];
	int i, cur_cnt;
	int retry_zone, retry_offset;
	int retry_cnt_lp;

	retry_cnt_lp = retry_info->retry_cnt_lp;

	if ((flash->new_type == 0) || (flash->new_type > 10))
		return NAND_SUCCESS;

	if (retry_info->cur_cnt_lp[chipnr] < retry_cnt_lp)
		cur_cnt = retry_info->cur_cnt_lp[chipnr];
	else {
		retry_zone = retry_info->cur_cnt_lp[chipnr] / retry_cnt_lp;
		retry_offset = retry_info->cur_cnt_lp[chipnr] % retry_cnt_lp;
		cur_cnt = (retry_zone + retry_offset) % retry_cnt_lp;
	}

	aml_nand_dbg("flash->new_type:%d, cur_cnt:%d",
		flash->new_type,
		cur_cnt);

	memset(&reg_value[0], 0, READ_RETRY_REG_NUM);

	for (i = 0; i < retry_info->reg_cnt_lp; i++) {
		if ((flash->new_type == HYNIX_26NM_8GB)
			|| (flash->new_type == HYNIX_26NM_4GB)) {
			if (retry_info->reg_offs_val_lp[0][cur_cnt][i]
				== READ_RETRY_ZERO)
				reg_value[i] = 0;
			else
				reg_value[i] =
				retry_info->reg_def_val[chipnr][i] +
				retry_info->reg_offs_val_lp[0][cur_cnt][i];
		} else if ((flash->new_type == HYNIX_20NM_8GB)
			|| (flash->new_type == HYNIX_20NM_4GB)
			|| (flash->new_type == HYNIX_1YNM))
			reg_value[i] =
				retry_info->reg_offs_val_lp[chipnr][cur_cnt][i];
	}

	set_reg_value_hynix(controller,
		&reg_value[0],
		&retry_info->reg_addr_lp[0],
		chipnr,
		retry_info->reg_cnt_lp);
	udelay(2);

	retry_info->cur_cnt_lp[chipnr]++;
	return 0;
}

static int readretry_set_def_val_hynix(struct hw_controller *controller,
	u8 chipnr)
{
	struct amlnand_chip *aml_chip = controller->aml_chip;
	struct nand_flash *flash = &(aml_chip->flash);
	struct read_retry_info *retry_info =  &(controller->retry_info);
	struct en_slc_info *slc_info =  &(controller->slc_info);
	int i, ret = 0;

	if ((flash->new_type == 0) || (flash->new_type > 10))
		return NAND_SUCCESS;

	aml_nand_dbg("hynix reatry exit");
	memset(&retry_info->cur_cnt_lp[0], 0, MAX_CHIP_NUM);

	i = chipnr;
	/* for read retry */
	ret = set_reg_value_hynix(controller,
		&retry_info->reg_def_val[i][0],
		&retry_info->reg_addr_lp[0],
		i,
		retry_info->reg_cnt_lp);
	if (ret < 0)
		aml_nand_msg("set retry_info reg value failed for chip[%d]", i);
	/* for en-slc */
	udelay(2);

	if (flash->new_type != HYNIX_1YNM) {
		ret = set_reg_value_hynix(controller,
			&slc_info->reg_def_val[i][0],
			&slc_info->reg_addr[0],
			i,
			slc_info->reg_cnt);
		if (ret < 0)
			aml_nand_msg("set slc reg value failed for chip[%d]",
				i);
	}

	return ret;
}

static int enslc_init_hynix(struct hw_controller *controller)
{
	struct amlnand_chip *aml_chip = controller->aml_chip;
	struct nand_flash *flash = &(aml_chip->flash);
	struct en_slc_info *slc_info =  &(controller->slc_info);
	int i, ret = 0;

	if ((flash->new_type == 0) || (flash->new_type > HYNIX_20NM_8GB))
		return NAND_SUCCESS;

	if (flash->new_type == HYNIX_1YNM)
		return NAND_SUCCESS;

	/* aml_nand_dbg("flash->new_type:%d", flash->new_type); */
	nand_get_chip(aml_chip);
	for (i = 0; i < controller->chip_num; i++) {
		ret = get_reg_value_hynix(controller,
			&slc_info->reg_def_val[i][0],
			&slc_info->reg_addr[0],
			i,
			slc_info->reg_cnt);
		if (ret)
			aml_nand_msg("get slc def reg val failed for chip[%d]",
				i);
	}
	nand_release_chip(aml_chip);

	return ret;
}

static int enslc_enter_hynix(struct hw_controller *controller)
{
	struct amlnand_chip *aml_chip = controller->aml_chip;
	struct nand_flash *flash = &(aml_chip->flash);
	struct en_slc_info *slc_info =  &(controller->slc_info);
	u8 reg_value_tmp[EN_SLC_REG_NUM];
	int i, j, ret = 0;

	if ((flash->new_type == 0) || (flash->new_type > HYNIX_20NM_8GB))
		return NAND_SUCCESS;

	if (flash->new_type == HYNIX_1YNM)
		return NAND_SUCCESS;
	/* aml_nand_dbg("flash->new_type:%d", flash->new_type); */

	memset(&reg_value_tmp[0], 0, EN_SLC_REG_NUM);

	for (i = 0; i < controller->chip_num; i++) {
		for (j = 0; j < slc_info->reg_cnt; j++)
			reg_value_tmp[j] = slc_info->reg_def_val[i][j]
				+ slc_info->reg_offs_val[j];

		ret = set_reg_value_hynix(controller,
			&reg_value_tmp[0],
			&slc_info->reg_addr[0],
			i,
			slc_info->reg_cnt);
		if (ret < 0)
			aml_nand_msg("set slc reg value failed for chip[%d]",
				i);

		udelay(2);
		memset(&reg_value_tmp[0], 0, EN_SLC_REG_NUM);
	}

	return ret;
}

/* working  in Normal program mode */
static int enslc_exit_hynix(struct hw_controller *controller)
{
	struct amlnand_chip *aml_chip = controller->aml_chip;
	struct nand_flash *flash = &(aml_chip->flash);
	struct en_slc_info *slc_info = &(controller->slc_info);
	int i, ret = 0;

	if ((flash->new_type == 0) || (flash->new_type > HYNIX_20NM_8GB))
		return NAND_SUCCESS;

	if (flash->new_type == HYNIX_1YNM)
		return NAND_SUCCESS;
	/* aml_nand_dbg("flash->new_type:%d", flash->new_type); */

	for (i = 0; i < controller->chip_num; i++) {
		ret = set_reg_value_hynix(controller,
			&slc_info->reg_def_val[i][0],
			&slc_info->reg_addr[0],
			i,
			slc_info->reg_cnt);
		if (ret < 0)
			aml_nand_msg("set slc reg value failed for chip[%d]",
				i);
		udelay(2);
		/* dummy read to disable e-slc mode.*/
		dummy_read(controller, i);
	}

	return ret;
}


/* for toshiba */
/***********************TOSHIBA****************************/
static int set_reg_value_toshiba(struct hw_controller *controller,
	u8 *buf,
	u8 *addr,
	u8 chipnr,
	u8 cnt)
{
	struct amlnand_chip *aml_chip = controller->aml_chip;
	struct nand_flash *flash = &(aml_chip->flash);
	struct read_retry_info *retry_info =  &(controller->retry_info);
	int i, ret = 0;

	/* aml_nand_dbg("flash->new_type:%d", flash->new_type); */

	ret = controller->quene_rb(controller, chipnr);
	if (ret) {
		aml_nand_msg("quene rb failed chipnr:%d", chipnr);
		return -NAND_FAILED;
	}

	if (retry_info->cur_cnt_lp[chipnr] == 0) {
		controller->cmd_ctrl(controller,
			NAND_CMD_TOSHIBA_PRE_CON1, NAND_CTRL_CLE);
		 NFC_SEND_CMD_IDLE(controller, 2);
		controller->cmd_ctrl(controller,
			NAND_CMD_TOSHIBA_PRE_CON2, NAND_CTRL_CLE);
		 NFC_SEND_CMD_IDLE(controller, 2);
	}

	for (i = 0; i < cnt; i++) {
		controller->cmd_ctrl(controller,
			NAND_CMD_TOSHIBA_SET_VALUE, NAND_CTRL_CLE);
		NFC_SEND_CMD_IDLE(controller, 2);
		controller->cmd_ctrl(controller, addr[i], NAND_CTRL_ALE);
		NFC_SEND_CMD_IDLE(controller, 2);
		controller->writebyte(controller, buf[i]);
		NFC_SEND_CMD_IDLE(controller, 2);
		aml_nand_dbg("REG(0x%x): value:0x%x, for chip[%d]\n",
			addr[i], buf[i], chipnr);
	}
	/* a19 last retry need extra B3 cmd. */
	if ((flash->new_type == TOSHIBA_A19NM) &&
		(retry_info->cur_cnt_lp[chipnr] == (retry_info->retry_cnt_lp - 1))) {
		controller->cmd_ctrl(controller,
		NAND_CMD_TOSHIBA_BEF_COMMAND0, NAND_CTRL_CLE);
		NFC_SEND_CMD_IDLE(controller, 2);
	}
	controller->cmd_ctrl(controller,
		NAND_CMD_TOSHIBA_BEF_COMMAND1, NAND_CTRL_CLE);
	 NFC_SEND_CMD_IDLE(controller, 2);
	controller->cmd_ctrl(controller,
		NAND_CMD_TOSHIBA_BEF_COMMAND2, NAND_CTRL_CLE);
	 NFC_SEND_CMD_IDLE(controller, 2);

	ret = controller->quene_rb(controller, chipnr);
	if (ret) {
		aml_nand_msg("quene rb failed chipnr:%d", chipnr);
		return -NAND_FAILED;
	}

	return NAND_SUCCESS;
}

/* when ecc fail,set nand retry reg */
static int readretry_handle_toshiba(struct hw_controller *controller,
	u8 chipnr)
{
	struct read_retry_info *retry_info = &(controller->retry_info);
	int cur_cnt, ret = 0;

	/*
	if (flash->new_type != TOSHIBA_2XNM)
		return NAND_SUCCESS;
	*/
	cur_cnt = retry_info->cur_cnt_lp[chipnr];
	/*
	aml_nand_dbg("flash->new_type:%d, cur_cnt:%d",flash->new_type,cur_cnt);
	*/
	ret = set_reg_value_toshiba(controller,
		&retry_info->reg_offs_val_lp[0][cur_cnt][0],
		&retry_info->reg_addr_lp[0],
		chipnr, retry_info->reg_cnt_lp);
	if (ret) {
		aml_nand_msg("set_reg_value_toshiba failed chipnr:%d", chipnr);
		return -NAND_FAILED;
	}

	cur_cnt++;
	retry_info->cur_cnt_lp[chipnr] =
		(cur_cnt > (retry_info->retry_cnt_lp - 1)) ? 0 : cur_cnt;

	return NAND_SUCCESS;
}

static int readretry_exit_toshiba(struct hw_controller *controller,
	u8 chipnr)
{
	struct amlnand_chip *aml_chip = controller->aml_chip;
	/*struct nand_flash *flash = &(aml_chip->flash);*/
	struct read_retry_info *retry_info =  &(controller->retry_info);
	struct chip_operation *operation = &(aml_chip->operation);
	int  ret = 0, i;
	uint8_t buf[5] = {0};

	/* if(flash->new_type != TOSHIBA_2XNM) */
	/* return NAND_SUCCESS; */

	ret = controller->quene_rb(controller, chipnr);
	if (ret) {
		aml_nand_msg("quene rb failed chipnr:%d", chipnr);
		return -NAND_FAILED;
	}

	aml_nand_dbg("toshiba reatry exit");
	memset(&retry_info->cur_cnt_lp[0], 0, MAX_CHIP_NUM);
	/*if (flash->new_type != TOSHIBA_A19NM) { */
		for (i = 0; i < retry_info->reg_cnt_lp; i++) {
			controller->cmd_ctrl(controller,
				NAND_CMD_TOSHIBA_SET_VALUE, NAND_CTRL_CLE);
			NFC_SEND_CMD_IDLE(controller, 2);
			controller->cmd_ctrl(controller,
				retry_info->reg_addr_lp[i], NAND_CTRL_ALE);
			NFC_SEND_CMD_IDLE(controller, 2);
			controller->writebyte(controller, buf[i]);
			NFC_SEND_CMD_IDLE(controller, 2);
			aml_nand_dbg("REG(0x%x): value:0x%x, for chip[%d]\n",
				retry_info->reg_addr_lp[i], buf[i], chipnr);
		}
	/*} */
	ret = operation->reset(aml_chip, chipnr);
	if (ret < 0) {
		aml_nand_msg("reset nand failed chipnr:%d", chipnr);
		return -NAND_FAILED;
	}

	return NAND_SUCCESS;
}


/* for samsung */
/*************************SUMSUNG***************************/
static int set_reg_value_samsung(struct hw_controller *controller,
	u8 *buf,
	u8 *addr,
	u8 chipnr,
	u8 cnt)
{
	struct amlnand_chip *aml_chip = controller->aml_chip;
	struct nand_flash *flash = &(aml_chip->flash);
	int i, ret = 0;

	if (flash->new_type != SUMSUNG_2XNM)
		return NAND_SUCCESS;

	aml_nand_dbg("flash->new_type:%d", flash->new_type);

	ret = controller->quene_rb(controller, chipnr);
	if (ret) {
		aml_nand_msg("quene rb failed chipnr:%d", chipnr);
		return -NAND_FAILED;
	}

	for (i = 0; i < cnt; i++) {
		controller->cmd_ctrl(controller,
			NAND_CMD_SAMSUNG_SET_VALUE, NAND_CTRL_CLE);
		NFC_SEND_CMD_IDLE(controller, 2);
		controller->cmd_ctrl(controller, 0, NAND_CTRL_ALE);
		NFC_SEND_CMD_IDLE(controller, 0);
		controller->cmd_ctrl(controller, addr[i], NAND_CTRL_ALE);
		NFC_SEND_CMD_IDLE(controller, 0);
		controller->writebyte(controller, buf[i]);
		NFC_SEND_CMD_IDLE(controller, 20);
		aml_nand_dbg("REG(0x%x):value:0x%x, for chip[%d]\n",
			addr[i],
			buf[i],
			chipnr);
	}

	ret = controller->quene_rb(controller, chipnr);
	if (ret) {
		aml_nand_msg("quene rb failed chipnr:%d", chipnr);
		return -NAND_FAILED;
	}

	return NAND_SUCCESS;
}

static int readretry_handle_samsung(struct hw_controller *controller,
	u8 chipnr)
{
	struct amlnand_chip *aml_chip = controller->aml_chip;
	struct nand_flash *flash = &(aml_chip->flash);
	struct read_retry_info *retry_info = &(controller->retry_info);
	int cur_cnt, ret = 0;

	if (flash->new_type != SUMSUNG_2XNM)
		return NAND_SUCCESS;

	cur_cnt = retry_info->cur_cnt_lp[chipnr];

	aml_nand_dbg("flash->new_type:%d,cur_cnt:%d", flash->new_type, cur_cnt);

	ret = set_reg_value_samsung(controller,
		&retry_info->reg_offs_val_lp[0][cur_cnt][0],
		&retry_info->reg_addr_lp[0],
		chipnr,
		retry_info->reg_cnt_lp);
	if (ret) {
		aml_nand_msg("set_reg_value_samsung failed chipnr:%d", chipnr);
		return -NAND_FAILED;
	}

	cur_cnt++;
	retry_info->cur_cnt_lp[chipnr] =
		(cur_cnt > (retry_info->retry_cnt_lp - 1)) ? 0 : cur_cnt;

	return NAND_SUCCESS;
}

static int readretry_exit_samsung(struct hw_controller *controller,
	u8 chipnr)
{
	struct amlnand_chip *aml_chip = controller->aml_chip;
	struct nand_flash *flash = &(aml_chip->flash);
	struct read_retry_info *retry_info =  &(controller->retry_info);
	int  ret = 0;

	if (flash->new_type != SUMSUNG_2XNM)
		return NAND_SUCCESS;

	ret = controller->quene_rb(controller, chipnr);
	if (ret) {
		aml_nand_msg("quene rb failed chipnr:%d", chipnr);
		return -NAND_FAILED;
	}

	aml_nand_dbg("samsung reatry exit");
	memset(&retry_info->cur_cnt_lp[0], 0, MAX_CHIP_NUM);

	ret = set_reg_value_samsung(controller,
		&retry_info->reg_offs_val_lp[0][0][0],
		&retry_info->reg_addr_lp[0],
		chipnr,
		retry_info->reg_cnt_lp);
	if (ret) {
		aml_nand_msg("set_reg_value_samsung failed chipnr:%d", chipnr);
		return -NAND_FAILED;
	}

	return NAND_SUCCESS;
}


/***********************************MICRON************************************/
static int set_reg_value_micron(struct hw_controller *controller,
	u8 *buf,
	u8 *addr,
	u8 chipnr,
	u8 cnt)
{
	struct amlnand_chip *aml_chip = controller->aml_chip;
	struct nand_flash *flash = &(aml_chip->flash);
/* struct read_retry_info *retry_info =  &(controller->retry_info); */
	int  ret = 0;
	/*int i;*/


	if (flash->new_type != MICRON_20NM)
		return NAND_SUCCESS;

	aml_nand_dbg("flash->new_type:%d", flash->new_type);

	ret = controller->quene_rb(controller, chipnr);
	if (ret) {
		aml_nand_msg("quene rb failed chipnr:%d", chipnr);
		return -NAND_FAILED;
	}

	/*for (i = 0; i < cnt; i++) {*/
		controller->cmd_ctrl(controller,
			NAND_CMD_MICRON_SET_VALUE, NAND_CTRL_CLE);
		NFC_SEND_CMD_IDLE(controller, 2);
		controller->cmd_ctrl(controller, addr[0], NAND_CTRL_ALE);
		NFC_SEND_CMD_IDLE(controller, 10);
		controller->writebyte(controller, *buf);
		NFC_SEND_CMD_IDLE(controller, 1);
		controller->writebyte(controller, 0);
		NFC_SEND_CMD_IDLE(controller, 1);
		controller->writebyte(controller, 0);
		NFC_SEND_CMD_IDLE(controller, 1);
		controller->writebyte(controller, 0);
		NFC_SEND_CMD_IDLE(controller, 100);
		aml_nand_dbg("REG(0x%x)  value:0x%x, for chip[%d]\n",
			addr[0],
			*buf,
			chipnr);
	/*}*/

	ret = controller->quene_rb(controller, chipnr);
	if (ret) {
		aml_nand_msg("quene rb failed chipnr:%d", chipnr);
		return -NAND_FAILED;
	}

	return NAND_SUCCESS;
}

static int readretry_handle_micron(struct hw_controller *controller,
	u8 chipnr)
{
	struct amlnand_chip *aml_chip = controller->aml_chip;
	struct nand_flash *flash = &(aml_chip->flash);
	struct read_retry_info *retry_info =  &(controller->retry_info);
	int cur_cnt, ret = 0;

	if (flash->new_type != MICRON_20NM)
		return NAND_SUCCESS;

	cur_cnt = retry_info->cur_cnt_lp[chipnr];

	aml_nand_dbg("flash->new_type:%d, cur_cnt:%d",
		flash->new_type,
		cur_cnt);

	ret = set_reg_value_micron(controller,
		&retry_info->reg_offs_val_lp[0][cur_cnt][0],
		&retry_info->reg_addr_lp[0],
		chipnr,
		cur_cnt);

	if (ret) {
		aml_nand_msg("set_reg_value_micron failed chipnr:%d", chipnr);
		return -NAND_FAILED;
	}

	cur_cnt++;
	retry_info->cur_cnt_lp[chipnr] =
		(cur_cnt > (retry_info->retry_cnt_lp - 1)) ? 0 : cur_cnt;

	return NAND_SUCCESS;

}

static int  readretry_exit_micron(struct hw_controller *controller,
	u8 chipnr)
{
	struct amlnand_chip *aml_chip = controller->aml_chip;
	struct nand_flash *flash = &(aml_chip->flash);
	struct read_retry_info *retry_info =  &(controller->retry_info);
	int  ret = 0;

	if (flash->new_type != MICRON_20NM)
		return NAND_SUCCESS;

	ret = controller->quene_rb(controller, chipnr);
	if (ret) {
		aml_nand_msg("quene rb failed chipnr:%d", chipnr);
		return -NAND_FAILED;
	}

	aml_nand_dbg("micron reatry exit");
	memset(&retry_info->cur_cnt_lp[0], 0, MAX_CHIP_NUM);

	ret = set_reg_value_micron(controller,
		&retry_info->reg_def_val[0][0],
		&retry_info->reg_addr_lp[0],
		chipnr,
		retry_info->reg_cnt_lp);
	if (ret) {
		aml_nand_msg("set_reg_value_micron failed chipnr:%d", chipnr);
		return -NAND_FAILED;
	}

	return NAND_SUCCESS;
}
/**************************INTEL***************************************/
static int readretry_handle_intel(struct hw_controller *controller,
	u8 chipnr)
{
	struct amlnand_chip *aml_chip = controller->aml_chip;
	struct nand_flash *flash = &(aml_chip->flash);
	struct read_retry_info *retry_info =  &(controller->retry_info);
	int cur_cnt, ret = 0;
	int advance = 1;

	if (flash->new_type != INTEL_20NM)
		return NAND_SUCCESS;

	cur_cnt = retry_info->cur_cnt_lp[chipnr];
	aml_nand_dbg("flash->new_type:%d, cur_cnt:%d",
		flash->new_type,
		cur_cnt);

	if (cur_cnt == 3)
		ret = set_reg_value_micron(controller,
		(uint8_t *)&advance,
		&retry_info->reg_addr_lp[1],
		chipnr,
		retry_info->reg_cnt_lp);
	if (ret) {
		aml_nand_msg("set_reg_value_intel failed chipnr:%d", chipnr);
		return -NAND_FAILED;
	}

	ret = set_reg_value_micron(controller,
		&retry_info->reg_offs_val_lp[0][cur_cnt][0],
		&retry_info->reg_addr_lp[0],
		chipnr,
		retry_info->reg_cnt_lp);
	if (ret) {
		aml_nand_msg("set_reg_value_intel failed chipnr:%d", chipnr);
		return -NAND_FAILED;
	}
	NFC_SEND_CMD_IDLE(controller, 10);

	cur_cnt++;
	retry_info->cur_cnt_lp[chipnr] =
		(cur_cnt > (retry_info->retry_cnt_lp - 1)) ? 0 : cur_cnt;

	return NAND_SUCCESS;
}

static int  readretry_exit_intel(struct hw_controller *controller,
	u8 chipnr)
{

	struct amlnand_chip *aml_chip = controller->aml_chip;
	struct nand_flash *flash = &(aml_chip->flash);
	struct read_retry_info *retry_info =  &(controller->retry_info);
	int ret = 0;

	if (flash->new_type != INTEL_20NM)
		return NAND_SUCCESS;

	ret = controller->quene_rb(controller, chipnr);
	if (ret) {
		aml_nand_msg("quene rb failed chipnr:%d", chipnr);
		return -NAND_FAILED;
	}
	aml_nand_dbg("intel reatry exit");
	memset(&retry_info->cur_cnt_lp[0], 0, MAX_CHIP_NUM);
		ret = set_reg_value_micron(controller,
			&retry_info->reg_def_val[0][0],
			&retry_info->reg_addr_lp[0],
			chipnr, retry_info->reg_cnt_lp);
	if (ret) {
		aml_nand_msg("set_reg_value_intel failed chipnr:%d", chipnr);
		return -NAND_FAILED;
	}
	ret = set_reg_value_micron(controller,
		&retry_info->reg_def_val[0][0],
		&retry_info->reg_addr_lp[1],
		chipnr,
		retry_info->reg_cnt_lp);
	if (ret) {
		aml_nand_msg("set_reg_value_intel failed chipnr:%d", chipnr);
		return -NAND_FAILED;
	}
	return NAND_SUCCESS;
}
/* for sandisk */
/***********************************SANDISK************************************/
static int  readretry_init_sandisk(struct hw_controller *controller)
{
	u8 reg_addr_init[10];
	int i, j;

	reg_addr_init[0] = 0x04;
	reg_addr_init[1] = 0x05;
	reg_addr_init[2] = 0x06;
	reg_addr_init[3] = 0x07;
	reg_addr_init[4] = 0x08;
	reg_addr_init[5] = 0x09;
	reg_addr_init[6] = 0x0a;
	reg_addr_init[7] = 0x0b;
	reg_addr_init[8] = 0x0c;

	/*
	if (flash->new_type != SANDISK_19NM)
		return NAND_SUCCESS;
	*/

	/*
	aml_nand_dbg("flash->new_type:%d", flash->new_type);
	*/

	for (i = 0; i < controller->chip_num; i++) {
		controller->cmd_ctrl(controller,
			NAND_CMD_SANDISK_INIT_ONE, NAND_CTRL_CLE);
		NFC_SEND_CMD_IDLE(controller, 2);
		controller->cmd_ctrl(controller,
			NAND_CMD_SANDISK_INIT_TWO, NAND_CTRL_CLE);
		NFC_SEND_CMD_IDLE(controller, 2);
		for (j = 0; j < 9; j++) {
			/* send cmd 0x53 */
			controller->cmd_ctrl(controller,
				NAND_CMD_SANDISK_LOAD_VALUE_ONE, NAND_CTRL_CLE);
			NFC_SEND_CMD_IDLE(controller, 10);
			/* send 0x04 add */
			controller->cmd_ctrl(controller,
				reg_addr_init[j], NAND_CTRL_ALE);
			NFC_SEND_CMD_IDLE(controller, 10);
			/* write 0x00 into add */
			controller->writebyte(controller, 0x0);
			NFC_SEND_CMD_IDLE(controller, 10);
		}
	}

	return NAND_SUCCESS;
}

static int set_reg_value_sandisk(struct hw_controller *controller,
	u8 *buf,
	u8 *addr,
	u8 chipnr,
	u8 cnt)
{
	int i, ret = 0;

	/*
	if (flash->new_type != SANDISK_19NM)
		return NAND_SUCCESS;
	*/
	/* aml_nand_dbg("flash->new_type:%d", flash->new_type); */

	ret = controller->quene_rb(controller, chipnr);
	if (ret) {
		aml_nand_msg("quene rb failed chipnr:%d", chipnr);
		return -NAND_FAILED;
	}

	controller->cmd_ctrl(controller,
		NAND_CMD_SANDISK_INIT_ONE, NAND_CTRL_CLE);
	NFC_SEND_CMD_IDLE(controller, 2);
	controller->cmd_ctrl(controller,
		NAND_CMD_SANDISK_INIT_TWO, NAND_CTRL_CLE);
	NFC_SEND_CMD_IDLE(controller, 2);

	for (i = 0; i < cnt; i++) {
		controller->cmd_ctrl(controller,
			NAND_CMD_SANDISK_LOAD_VALUE_ONE, NAND_CTRL_CLE);
		NFC_SEND_CMD_IDLE(controller, 10);
	        controller->cmd_ctrl(controller, addr[i], NAND_CTRL_ALE);
		NFC_SEND_CMD_IDLE(controller, 10);
		controller->writebyte(controller, buf[i]);
		NFC_SEND_CMD_IDLE(controller, 10);
		aml_nand_dbg("REG(0x%x) value:0x%x, for chip[%d]\n",
			addr[i],
			buf[i],
			chipnr);
	}

	controller->cmd_ctrl(controller,
		NAND_CMD_SANDISK_DYNAMIC_ENABLE, NAND_CTRL_CLE);
	NFC_SEND_CMD_IDLE(controller, 10);

	ret = controller->quene_rb(controller, chipnr);
	if (ret) {
		aml_nand_msg("quene rb failed chipnr:%d", chipnr);
		return -NAND_FAILED;
	}

	return NAND_SUCCESS;
}

static int set_a19_reg_value_sandisk(struct hw_controller *controller,
	u8 *buf,
	u8 addr,
	u8 chipnr,
	u8 cnt)
{
	int i, ret = 0;
	ret = controller->quene_rb(controller, chipnr);
	if (ret) {
		aml_nand_msg("quene rb failed chipnr:%d", chipnr);
		return -NAND_FAILED;
	}
	controller->cmd_ctrl(controller,
		NAND_CMD_SANDISK_SET_VALUE, NAND_CTRL_CLE);
	NFC_SEND_CMD_IDLE(controller, 2);
	controller->cmd_ctrl(controller, addr, NAND_CTRL_ALE);
	NFC_SEND_CMD_IDLE(controller, 10);
	for (i = 0; i < cnt; i++) {
		controller->writebyte(controller, buf[i]);
		NFC_SEND_CMD_IDLE(controller, 10);
		aml_nand_dbg("REG(0x%x) value:0x%x, for chip[%d]\n",
			addr,
			buf[i],
			chipnr);
	}

	ret = controller->quene_rb(controller, chipnr);
	if (ret) {
		aml_nand_msg("quene rb failed chipnr:%d", chipnr);
		return -NAND_FAILED;
	}

	return NAND_SUCCESS;
}
int aml_nand_sandisk_A19_set_LMFLGFIX_NEXT(struct hw_controller *controller, unsigned char chipnr)
{
    int ret = 0;
	ret = controller->quene_rb(controller, chipnr);
	if (ret) {
		aml_nand_msg("quene rb failed chipnr:%d", chipnr);
		return -NAND_FAILED;
	}
    //Test Mode Enter
    controller->cmd_ctrl(controller, NAND_CMD_SANDISK_TEST_MODE1, NAND_CTRL_CLE);
    NFC_SEND_CMD_IDLE(controller, 2);
    controller->cmd_ctrl(controller, NAND_CMD_SANDISK_TEST_MODE2, NAND_CTRL_CLE);
    NFC_SEND_CMD_IDLE(controller, 2);
    controller->cmd_ctrl(controller, NAND_CMD_SANDISK_TEST_MODE_ACCESS, NAND_CTRL_CLE);
	NFC_SEND_CMD_IDLE(controller, 2);
	controller->cmd_ctrl(controller, 0x00, NAND_CTRL_ALE); //addr=0x00
	NFC_SEND_CMD_IDLE(controller, 2);
    controller->writebyte(controller, 0x01); //data=0x01
    NFC_SEND_CMD_IDLE(controller, 10);

    //set LMFLGFIX_NEXT=1
    controller->cmd_ctrl(controller, NAND_CMD_SANDISK_TEST_MODE_ACCESS, NAND_CTRL_CLE); //0X55
	NFC_SEND_CMD_IDLE(controller, 2);
	controller->cmd_ctrl(controller, 0x23, NAND_CTRL_ALE); //addr=0x23
	NFC_SEND_CMD_IDLE(controller, 2);
    controller->writebyte(controller, 0xC0); //data=0xC0
    NFC_SEND_CMD_IDLE(controller, 10);
	ret = controller->quene_rb(controller, chipnr);
	if (ret) {
		aml_nand_msg("quene rb failed chipnr:%d", chipnr);
		return -NAND_FAILED;
	}
    return 0;
}
int aml_nand_sandisk_A19_reset_LMFLGFIX_NEXT(struct hw_controller *controller, unsigned char chipnr)
{
    int ret = 0;
	ret = controller->quene_rb(controller, chipnr);
	if (ret) {
		aml_nand_msg("quene rb failed chipnr:%d", chipnr);
		return -NAND_FAILED;
	}
    //Test Mode Enter
    controller->cmd_ctrl(controller, NAND_CMD_SANDISK_TEST_MODE1, NAND_CTRL_CLE);
    NFC_SEND_CMD_IDLE(controller, 2);
    controller->cmd_ctrl(controller, NAND_CMD_SANDISK_TEST_MODE2, NAND_CTRL_CLE);
    NFC_SEND_CMD_IDLE(controller, 2);
    controller->cmd_ctrl(controller, NAND_CMD_SANDISK_TEST_MODE_ACCESS, NAND_CTRL_CLE);
	NFC_SEND_CMD_IDLE(controller, 2);
	controller->cmd_ctrl(controller, 0x00, NAND_CTRL_ALE); //addr=0x00
	NFC_SEND_CMD_IDLE(controller, 2);
    controller->writebyte(controller, 0x01); //data=0x01
    NFC_SEND_CMD_IDLE(controller, 10);
    //set LMFLGFIX_NEXT=0
    controller->cmd_ctrl(controller, NAND_CMD_SANDISK_TEST_MODE_ACCESS, NAND_CTRL_CLE); //0X55
	NFC_SEND_CMD_IDLE(controller, 2);
	controller->cmd_ctrl(controller, 0x23, NAND_CTRL_ALE); //addr=0x23
	NFC_SEND_CMD_IDLE(controller, 2);
    controller->writebyte(controller, 0x40); //data=0x40
    NFC_SEND_CMD_IDLE(controller, 10);
    //Test Mode Exit
    controller->cmd_ctrl(controller, NAND_CMD_SANDISK_TEST_MODE_ACCESS, NAND_CTRL_CLE); //0X55
	NFC_SEND_CMD_IDLE(controller, 2);
	controller->cmd_ctrl(controller, 0x00, NAND_CTRL_ALE); //addr=0X00
	NFC_SEND_CMD_IDLE(controller, 2);
    controller->writebyte(controller, 0x00); //data=0X00
    NFC_SEND_CMD_IDLE(controller, 10);
	ret = controller->quene_rb(controller, chipnr);
	if (ret) {
		aml_nand_msg("quene rb failed chipnr:%d", chipnr);
		return -NAND_FAILED;
	}
    return 0;
}

static int readretry_handle_a19_sandisk(struct hw_controller *controller,
	u8 chipnr)
{
	struct amlnand_chip *aml_chip = controller->aml_chip;
	struct nand_flash *flash = &(aml_chip->flash);
	struct read_retry_info *retry_info =  &(controller->retry_info);
	u32 pages_per_blk, tmp_page, pages_per_blk_shift;
	int cur_cnt;
	int page_info = 0;

	aml_nand_dbg("flash->new_type:%d, controller->page_addr:%d",
		flash->new_type,
		controller->page_addr);

	pages_per_blk = flash->blocksize/flash->pagesize;
	pages_per_blk_shift = (controller->block_shift-controller->page_shift);
	tmp_page = controller->page_addr % (1 << pages_per_blk_shift);
	if (((tmp_page != 0) && (tmp_page % 2) == 0)
		|| (tmp_page == (pages_per_blk - 1)))
		page_info =  1;
	cur_cnt = retry_info->cur_cnt_up[chipnr];
	set_a19_reg_value_sandisk(controller,
		&retry_info->reg_offs_val_lp[page_info][cur_cnt][0],
		retry_info->reg_addr_lp[0],
		chipnr,
		retry_info->reg_cnt_lp);
    switch (retry_info->retry_stage) {
        case 0:
            //DSP OFF, default is DSP OFF, so no need to do
            controller->cmd_ctrl(controller, NAND_CMD_SANDISK_RETRY_STA, NAND_CTRL_CLE); //CMD 5D
            break;
        case 1:
            //DSP ON
            controller->cmd_ctrl(controller, NAND_CMD_SANDISK_RETRY_STA, NAND_CTRL_CLE); //CMD 5D
            NFC_SEND_CMD_IDLE(controller, 5);
            controller->cmd_ctrl(controller, NAND_CMD_SANDISK_DSP_ON, NAND_CTRL_CLE); //CMD 26
            break;
        case 2:
            //CMD 25 Force Flag Prefix with DSP OFF and LMFLGFIX_NEXT = 0
            controller->cmd_ctrl(controller, NAND_CMD_SANDISK_DSP_OFF, NAND_CTRL_CLE); //CMD 25
            NFC_SEND_CMD_IDLE(controller, 5);
            controller->cmd_ctrl(controller, NAND_CMD_SANDISK_RETRY_STA, NAND_CTRL_CLE); //CMD 5D
            break;
        case 3:
            //CMD 25 Force Flag Prefix with DSP ON and LMFLGFIX_NEXT = 1
            aml_nand_sandisk_A19_set_LMFLGFIX_NEXT(controller,chipnr);
            controller->cmd_ctrl(controller, NAND_CMD_SANDISK_DSP_OFF, NAND_CTRL_CLE); //CMD 25
            NFC_SEND_CMD_IDLE(controller, 5);
            controller->cmd_ctrl(controller, NAND_CMD_SANDISK_RETRY_STA, NAND_CTRL_CLE); //CMD 5D
            NFC_SEND_CMD_IDLE(controller, 5);
            controller->cmd_ctrl(controller, NAND_CMD_SANDISK_DSP_ON, NAND_CTRL_CLE); //CMD 26
            break;
        default:
            printk("never enter,retry stage:%d\n",retry_info->retry_stage);
            break;
    }
	cur_cnt++;
    if (cur_cnt > (retry_info->retry_cnt_lp -1)) {
        retry_info->retry_stage++;
        retry_info->cur_cnt_up[chipnr] = 0;
    }
    else{
        retry_info->cur_cnt_up[chipnr] = cur_cnt;
    }
    aml_nand_dbg("retry_stage:%d, cur_cnt:%d\n",retry_info->retry_stage,cur_cnt);
	return NAND_SUCCESS;

}


static int  readretry_exit_a19_sandisk(struct hw_controller *controller,
	u8 chipnr)
{
	struct amlnand_chip *aml_chip = controller->aml_chip;
	/* struct nand_flash *flash = &(aml_chip->flash); */
	struct read_retry_info *retry_info =  &(controller->retry_info);
	struct chip_operation *operation = &(aml_chip->operation);
	int  ret = 0;
	uint8_t buf[4] = {0};

	/* if(flash->new_type != SANDISK_19NM) */
	ret = controller->quene_rb(controller, chipnr);
	if (ret) {
		aml_nand_msg("quene rb failed chipnr:%d", chipnr);
		return -NAND_FAILED;
	}
	aml_nand_dbg("sandisk reatry exit");
    // reset the retry stage
    retry_info->retry_stage = 0;
	memset(&retry_info->cur_cnt_lp[0], 0, MAX_CHIP_NUM);
	memset(&retry_info->cur_cnt_up[0], 0, MAX_CHIP_NUM);
	set_a19_reg_value_sandisk(controller,
		buf,
		retry_info->reg_addr_lp[0],
		chipnr,
		retry_info->reg_cnt_lp);

    aml_nand_sandisk_A19_reset_LMFLGFIX_NEXT(controller,chipnr);
	ret = controller->quene_rb(controller, chipnr);
	if (ret) {
		aml_nand_msg("quene rb failed chipnr:%d", chipnr);
		return -NAND_FAILED;
	}
	ret = operation->reset(aml_chip, chipnr);
	if (ret < 0) {
		aml_nand_msg("reset nand failed chipnr:%d", chipnr);
		return -NAND_FAILED;
	}

	return NAND_SUCCESS;
}
static int readretry_handle_sandisk(struct hw_controller *controller,
	u8 chipnr)
{
	struct amlnand_chip *aml_chip = controller->aml_chip;
	struct nand_flash *flash = &(aml_chip->flash);
	struct read_retry_info *retry_info =  &(controller->retry_info);
	u32 pages_per_blk, tmp_page, pages_per_blk_shift;
	int cur_cnt,  ret = 0;

	aml_nand_dbg("flash->new_type:%d, controller->page_addr:%d",
		flash->new_type,
		controller->page_addr);

	pages_per_blk = flash->blocksize/flash->pagesize;
	pages_per_blk_shift =
		(controller->block_shift - controller->page_shift);

	tmp_page = controller->page_addr % (1 << pages_per_blk_shift);
	if (((tmp_page != 0) && (tmp_page % 2) == 0)
		|| (tmp_page == (pages_per_blk - 1))) {
		cur_cnt = retry_info->cur_cnt_up[chipnr];
		aml_nand_dbg("upper page flash->new_type:%d, cur_case:%d",
			flash->new_type,
			cur_cnt);
		ret = set_reg_value_sandisk(controller,
			&retry_info->reg_offs_val_up[0][cur_cnt][0],
			&retry_info->reg_addr_up[0],
			chipnr,
			retry_info->reg_cnt_up);
		if (ret) {
			aml_nand_msg("set_reg_value_sandisk failed chipnr:%d",
				chipnr);
			return -NAND_FAILED;
		}
		cur_cnt++;
		retry_info->cur_cnt_up[chipnr] =
			(cur_cnt > (retry_info->retry_cnt_up - 1)) ? 0 :
			cur_cnt;
	} else { /* for lower page */
		cur_cnt = retry_info->cur_cnt_lp[chipnr];
		aml_nand_dbg("low page flash->new_type:%d, cur_case:%d",
			flash->new_type,
			cur_cnt);
		ret = set_reg_value_sandisk(controller,
			&retry_info->reg_offs_val_lp[0][cur_cnt][0],
			&retry_info->reg_addr_lp[0],
			chipnr,
			retry_info->reg_cnt_lp);
		if (ret) {
			aml_nand_msg("set_reg_value_sandisk failed chipnr:%d",
				chipnr);
			return -NAND_FAILED;
		}

		cur_cnt++;
		retry_info->cur_cnt_lp[chipnr] =
			(cur_cnt > (retry_info->retry_cnt_lp - 1)) ? 0 :
			cur_cnt;
	}

	return NAND_SUCCESS;
}

static int  readretry_exit_sandisk(struct hw_controller *controller,
	u8 chipnr)
{
	struct amlnand_chip *aml_chip = controller->aml_chip;
	struct read_retry_info *retry_info =  &(controller->retry_info);
	struct chip_operation *operation = &(aml_chip->operation);
	int  ret = 0;

	/* if(flash->new_type != SANDISK_19NM) */
	/* return NAND_SUCCESS; */

	ret = controller->quene_rb(controller, chipnr);
	if (ret) {
		aml_nand_msg("quene rb failed chipnr:%d", chipnr);
		return -NAND_FAILED;
	}
	aml_nand_dbg("sandisk reatry exit");

	memset(&retry_info->cur_cnt_lp[0], 0, MAX_CHIP_NUM);
	memset(&retry_info->cur_cnt_up[0], 0, MAX_CHIP_NUM);

	controller->cmd_ctrl(controller,
		NAND_CMD_SANDISK_DYNAMIC_DISABLE, NAND_CTRL_CLE);
	NFC_SEND_CMD_IDLE(controller, 2);

	ret = retry_info->init(controller);
	if (ret) {
		aml_nand_msg("sandisk reatry exit failed");
		return -NAND_FAILED;
	}

	ret = controller->quene_rb(controller, chipnr);
	if (ret) {
		aml_nand_msg("quene rb failed chipnr:%d", chipnr);
		return -NAND_FAILED;
	}

	ret = operation->reset(aml_chip, chipnr);
	if (ret < 0) {
		aml_nand_msg("reset nand failed chipnr:%d", chipnr);
		return -NAND_FAILED;
	}

	return NAND_SUCCESS;
}

static int enslc_enter_sandisk(struct hw_controller *controller)
{
	/* if(flash->new_type != SANDISK_19NM) */
	/* return NAND_SUCCESS; */
	/* aml_nand_dbg("flash->new_type:%d", flash->new_type); */
	controller->cmd_ctrl(controller, NAND_CMD_SANDISK_SLC, NAND_CTRL_CLE);

	return NAND_SUCCESS;
}


/***********************************END************************************/

/*
  * new nand read retry and enslc configuration.
  * based on nand type setting para.
  *
*/
int amlnand_set_readretry_slc_para(struct amlnand_chip *aml_chip)
{
	struct hw_controller *controller = &(aml_chip->controller);
	struct nand_flash *flash = &(aml_chip->flash);
	struct read_retry_info *retry_info = &(controller->retry_info);
	struct en_slc_info *slc_info = &(controller->slc_info);
	int ret = 0;

	if (flash->new_type == 0) {
		aml_nand_msg("new type equals to zero");
		return NAND_SUCCESS;
	}

	switch (flash->new_type) {
	case HYNIX_26NM_4GB:	/* hynix 26nm 4GB */
		retry_info->flag = 1;
		retry_info->reg_cnt_lp = 4;
		retry_info->retry_cnt_lp = 6;

		retry_info->reg_addr_lp[0] = 0xA7; /* not same */
		retry_info->reg_addr_lp[1] = 0xAD;
		retry_info->reg_addr_lp[2] = 0xAE;
		retry_info->reg_addr_lp[3] = 0xAF;

		retry_info->reg_offs_val_lp[0][0][0] = 0;
		retry_info->reg_offs_val_lp[0][0][1] = 0x06;
		retry_info->reg_offs_val_lp[0][0][2] = 0x0A;
		retry_info->reg_offs_val_lp[0][0][3] = 0x06;

		retry_info->reg_offs_val_lp[0][1][0] = READ_RETRY_ZERO;
		retry_info->reg_offs_val_lp[0][1][1] = -0x03;
		retry_info->reg_offs_val_lp[0][1][2] = -0x07;
		retry_info->reg_offs_val_lp[0][1][3] = -0x08;

		retry_info->reg_offs_val_lp[0][2][0] = READ_RETRY_ZERO;
		retry_info->reg_offs_val_lp[0][2][1] = -0x06;
		retry_info->reg_offs_val_lp[0][2][2] = -0x0D;
		retry_info->reg_offs_val_lp[0][2][3] = -0x0F;

		retry_info->reg_offs_val_lp[0][3][0] = READ_RETRY_ZERO;
		retry_info->reg_offs_val_lp[0][3][1] = -0x09; /* not same */
		retry_info->reg_offs_val_lp[0][3][2] = -0x14;
		retry_info->reg_offs_val_lp[0][3][3] = -0x17;

		retry_info->reg_offs_val_lp[0][4][0] = READ_RETRY_ZERO;
		retry_info->reg_offs_val_lp[0][4][1] = READ_RETRY_ZERO;
		retry_info->reg_offs_val_lp[0][4][2] = -0x1A;
		retry_info->reg_offs_val_lp[0][4][3] = -0x1E;

		retry_info->reg_offs_val_lp[0][5][0] = READ_RETRY_ZERO;
		retry_info->reg_offs_val_lp[0][5][1] = READ_RETRY_ZERO;
		retry_info->reg_offs_val_lp[0][5][2] = -0x20;
		retry_info->reg_offs_val_lp[0][5][3] = -0x25;

		retry_info->init = readretry_init_hynix;
		retry_info->exit = readretry_set_def_val_hynix;
		retry_info->handle = readretry_handle_hynix;

		/* slc program */
		slc_info->flag = 1;
		slc_info->reg_cnt = 5;

		slc_info->reg_addr[0] = 0xA0; /* not same */
		slc_info->reg_addr[1] = 0xA1;
		slc_info->reg_addr[2] = 0xB0;
		slc_info->reg_addr[3] = 0xB1;
		slc_info->reg_addr[4] = 0xC9;

		slc_info->reg_offs_val[0] = 0x26; /* not same */
		slc_info->reg_offs_val[1] = 0x26;
		slc_info->reg_offs_val[2] = 0x26;
		slc_info->reg_offs_val[3] = 0x26;
		slc_info->reg_offs_val[4] = 0x01;

		slc_info->init = enslc_init_hynix;
		slc_info->enter = enslc_enter_hynix;
		slc_info->exit = enslc_exit_hynix;
		slc_info->pagelist = pagelist_hynix256;
		break;

	case HYNIX_26NM_8GB: /* hynix 26nm 8GB */
		/* read retry */
		retry_info->flag = 1;
		retry_info->reg_cnt_lp = 4;
		retry_info->retry_cnt_lp = 6;

		retry_info->reg_addr_lp[0] = 0xAC;
		retry_info->reg_addr_lp[1] = 0xAD;
		retry_info->reg_addr_lp[2] = 0xAE;
		retry_info->reg_addr_lp[3] = 0xAF;

		retry_info->reg_offs_val_lp[0][0][0] = 0;
		retry_info->reg_offs_val_lp[0][0][1] = 0x06;
		retry_info->reg_offs_val_lp[0][0][2] = 0x0A;
		retry_info->reg_offs_val_lp[0][0][3] = 0x06;

		retry_info->reg_offs_val_lp[0][1][0] = READ_RETRY_ZERO;
		retry_info->reg_offs_val_lp[0][1][1] = -0x03;
		retry_info->reg_offs_val_lp[0][1][2] = -0x07;
		retry_info->reg_offs_val_lp[0][1][3] = -0x08;

		retry_info->reg_offs_val_lp[0][2][0] = READ_RETRY_ZERO;
		retry_info->reg_offs_val_lp[0][2][1] = -0x06;
		retry_info->reg_offs_val_lp[0][2][2] = -0x0D;
		retry_info->reg_offs_val_lp[0][2][3] = -0x0F;

		retry_info->reg_offs_val_lp[0][3][0] = READ_RETRY_ZERO;
		retry_info->reg_offs_val_lp[0][3][1] = -0x0B;
		retry_info->reg_offs_val_lp[0][3][2] = -0x14;
		retry_info->reg_offs_val_lp[0][3][3] = -0x17;

		retry_info->reg_offs_val_lp[0][4][0] = READ_RETRY_ZERO;
		retry_info->reg_offs_val_lp[0][4][1] = READ_RETRY_ZERO;
		retry_info->reg_offs_val_lp[0][4][2] = -0x1A;
		retry_info->reg_offs_val_lp[0][4][3] = -0x1E;

		retry_info->reg_offs_val_lp[0][5][0] = READ_RETRY_ZERO;
		retry_info->reg_offs_val_lp[0][5][1] = READ_RETRY_ZERO;
		retry_info->reg_offs_val_lp[0][5][2] = -0x20;
		retry_info->reg_offs_val_lp[0][5][3] = -0x25;

		retry_info->init = readretry_init_hynix;
		retry_info->exit = readretry_set_def_val_hynix;
		retry_info->handle = readretry_handle_hynix;

		/* slc program */
		slc_info->flag = 1;
		slc_info->reg_cnt = 5;

		slc_info->reg_addr[0] = 0xA4; /* not same */
		slc_info->reg_addr[1] = 0xA5;
		slc_info->reg_addr[2] = 0xB0;
		slc_info->reg_addr[3] = 0xB1;
		slc_info->reg_addr[4] = 0xC9;

		slc_info->reg_offs_val[0] = 0x25; /* not same */
		slc_info->reg_offs_val[1] = 0x25;
		slc_info->reg_offs_val[2] = 0x25;
		slc_info->reg_offs_val[3] = 0x25;
		slc_info->reg_offs_val[4] = 0x01;

		slc_info->init = enslc_init_hynix;
		slc_info->enter = enslc_enter_hynix;
		slc_info->exit = enslc_exit_hynix;
		slc_info->pagelist = pagelist_hynix256;

		break;

	case HYNIX_20NM_4GB: /* hynix 20nm 8GB */
		/* read retry */
		retry_info->flag = 1;
		retry_info->reg_cnt_lp = 8;
		retry_info->retry_cnt_lp = 7;

		retry_info->reg_addr_lp[0] = 0xB0; /* not same */
		retry_info->reg_addr_lp[1] = 0xB1;
		retry_info->reg_addr_lp[2] = 0xB2;
		retry_info->reg_addr_lp[3] = 0xB3;
		retry_info->reg_addr_lp[4] = 0xB4;
		retry_info->reg_addr_lp[5] = 0xB5;
		retry_info->reg_addr_lp[6] = 0xB6;
		retry_info->reg_addr_lp[7] = 0xB7;

		/* for offset value need read from otp area */

		retry_info->init = readretry_init_hynix;
		retry_info->exit = readretry_set_def_val_hynix;
		retry_info->handle = readretry_handle_hynix;

		/* for slc */
		slc_info->flag = 1;
		slc_info->reg_cnt = 4;

		slc_info->reg_addr[0] = 0xA0; /* not same */
		slc_info->reg_addr[1] = 0xA1;
		slc_info->reg_addr[2] = 0xA7;
		slc_info->reg_addr[3] = 0xA8;

		slc_info->reg_offs_val[0] = 0x0A; /* not same */
		slc_info->reg_offs_val[1] = 0x0A;
		slc_info->reg_offs_val[2] = 0x0A;
		slc_info->reg_offs_val[3] = 0x0A;

		slc_info->init = enslc_init_hynix;
		slc_info->enter = enslc_enter_hynix;
		slc_info->exit = enslc_exit_hynix;
		slc_info->pagelist = pagelist_hynix256;
		break;

	case HYNIX_20NM_8GB:	/* hynix 20nm 8GB */
		/* read retry */
		retry_info->flag = 1;
		retry_info->reg_cnt_lp = 8;
		retry_info->retry_cnt_lp = 7;

		retry_info->reg_addr_lp[0] = 0xCC; /* not same */
		retry_info->reg_addr_lp[1] = 0xBF;
		retry_info->reg_addr_lp[2] = 0xAA;
		retry_info->reg_addr_lp[3] = 0xAB;
		retry_info->reg_addr_lp[4] = 0xCD; /* not same */
		retry_info->reg_addr_lp[5] = 0xAD;
		retry_info->reg_addr_lp[6] = 0xAE;
		retry_info->reg_addr_lp[7] = 0xAF;

		/* for offset value need read from otp area */

		retry_info->init = readretry_init_hynix;
		retry_info->exit = readretry_set_def_val_hynix;
		retry_info->handle = readretry_handle_hynix;

		/* for slc */
		slc_info->flag = 1;
		slc_info->reg_cnt = 4;

		slc_info->reg_addr[0] = 0xB0; /* not same */
		slc_info->reg_addr[1] = 0xB1;
		slc_info->reg_addr[2] = 0xA0;
		slc_info->reg_addr[3] = 0xA1;

		slc_info->reg_offs_val[0] = 0x0A; /* not same */
		slc_info->reg_offs_val[1] = 0x0A;
		slc_info->reg_offs_val[2] = 0x0A;
		slc_info->reg_offs_val[3] = 0x0A;

		slc_info->init = enslc_init_hynix;
		slc_info->enter = enslc_enter_hynix;
		slc_info->exit = enslc_exit_hynix;
		slc_info->pagelist = pagelist_hynix256;
		break;

	case HYNIX_1YNM: /* hynix 20nm*/
		retry_info->flag = 1;
		retry_info->reg_cnt_lp = 4;
		retry_info->retry_cnt_lp = 7;
		retry_info->reg_addr_lp[0] = 0x38; /* not same */
		retry_info->reg_addr_lp[1] = 0x39;
		retry_info->reg_addr_lp[2] = 0x3A;
		retry_info->reg_addr_lp[3] = 0x3B;
		retry_info->init = readretry_init_hynix;
		retry_info->exit = readretry_set_def_val_hynix;
		retry_info->handle = readretry_handle_hynix;
		slc_info->init = enslc_init_hynix;
		slc_info->enter = enslc_enter_hynix;
		slc_info->exit = enslc_exit_hynix;
		slc_info->pagelist = pagelist_1ynm_hynix256;
		break;
	case TOSHIBA_2XNM: /* toshiba 24nm/19nm TOSHIBA_2XNM */
		/* read retry */
		retry_info->flag = 1;
		retry_info->reg_cnt_lp = 4;
		retry_info->retry_cnt_lp = 6;

		retry_info->reg_addr_lp[0] = 0x04;
		retry_info->reg_addr_lp[1] = 0x05;
		retry_info->reg_addr_lp[2] = 0x06;
		retry_info->reg_addr_lp[3] = 0x07;

		retry_info->reg_offs_val_lp[0][0][0] = 0;
		retry_info->reg_offs_val_lp[0][0][1] = 0;
		retry_info->reg_offs_val_lp[0][0][2] = 0;
		retry_info->reg_offs_val_lp[0][0][3] = 0;

		retry_info->reg_offs_val_lp[0][1][0] = 0x04;
		retry_info->reg_offs_val_lp[0][1][1] = 0x04;
		retry_info->reg_offs_val_lp[0][1][2] = 0x04;
		retry_info->reg_offs_val_lp[0][1][3] = 0x04;

		retry_info->reg_offs_val_lp[0][2][0] = 0x7c;
		retry_info->reg_offs_val_lp[0][2][1] = 0x7c;
		retry_info->reg_offs_val_lp[0][2][2] = 0x7c;
		retry_info->reg_offs_val_lp[0][2][3] = 0x7c;

		retry_info->reg_offs_val_lp[0][3][0] = 0x78;
		retry_info->reg_offs_val_lp[0][3][1] = 0x78;
		retry_info->reg_offs_val_lp[0][3][2] = 0x78;
		retry_info->reg_offs_val_lp[0][3][3] = 0x78;

		retry_info->reg_offs_val_lp[0][4][0] = 0x74;
		retry_info->reg_offs_val_lp[0][4][1] = 0x74;
		retry_info->reg_offs_val_lp[0][4][2] = 0x74;
		retry_info->reg_offs_val_lp[0][4][3] = 0x74;

		retry_info->reg_offs_val_lp[0][5][0] = 0x08;
		retry_info->reg_offs_val_lp[0][5][1] = 0x08;
		retry_info->reg_offs_val_lp[0][5][2] = 0x08;
		retry_info->reg_offs_val_lp[0][5][3] = 0x08;

		retry_info->handle = readretry_handle_toshiba;
		retry_info->exit = readretry_exit_toshiba;
		break;
	case TOSHIBA_A19NM:	/* toshiba 24nm/19nm TOSHIBA_2XNM */
		retry_info->flag = 1;
		retry_info->reg_cnt_lp = 5;
		retry_info->retry_cnt_lp = 7;
		retry_info->reg_addr_lp[0] = 0x04;
		retry_info->reg_addr_lp[1] = 0x05;
		retry_info->reg_addr_lp[2] = 0x06;
		retry_info->reg_addr_lp[3] = 0x07;
		retry_info->reg_addr_lp[4] = 0x0D;
		retry_info->reg_offs_val_lp[0][0][0] = 0x04;
		retry_info->reg_offs_val_lp[0][0][1] = 0x04;
		retry_info->reg_offs_val_lp[0][0][2] = 0x7c;
		retry_info->reg_offs_val_lp[0][0][3] = 0x7e;
		retry_info->reg_offs_val_lp[0][0][4] = 0x00;
		retry_info->reg_offs_val_lp[0][1][0] = 0x00;
		retry_info->reg_offs_val_lp[0][1][1] = 0x7c;
		retry_info->reg_offs_val_lp[0][1][2] = 0x78;
		retry_info->reg_offs_val_lp[0][1][3] = 0x78;
		retry_info->reg_offs_val_lp[0][1][4] = 0x00;
		retry_info->reg_offs_val_lp[0][2][0] = 0x7c;
		retry_info->reg_offs_val_lp[0][2][1] = 0x76;
		retry_info->reg_offs_val_lp[0][2][2] = 0x74;
		retry_info->reg_offs_val_lp[0][2][3] = 0x72;
		retry_info->reg_offs_val_lp[0][2][4] = 0x00;
		retry_info->reg_offs_val_lp[0][3][0] = 0x08;
		retry_info->reg_offs_val_lp[0][3][1] = 0x08;
		retry_info->reg_offs_val_lp[0][3][2] = 0x00;
		retry_info->reg_offs_val_lp[0][3][3] = 0x00;
		retry_info->reg_offs_val_lp[0][3][4] = 0x00;
		retry_info->reg_offs_val_lp[0][4][0] = 0x0b;
		retry_info->reg_offs_val_lp[0][4][1] = 0x7e;
		retry_info->reg_offs_val_lp[0][4][2] = 0x76;
		retry_info->reg_offs_val_lp[0][4][3] = 0x74;
		retry_info->reg_offs_val_lp[0][4][4] = 0x00;
		retry_info->reg_offs_val_lp[0][5][0] = 0x10;
		retry_info->reg_offs_val_lp[0][5][1] = 0x76;
		retry_info->reg_offs_val_lp[0][5][2] = 0x72;
		retry_info->reg_offs_val_lp[0][5][3] = 0x70;
		retry_info->reg_offs_val_lp[0][5][4] = 0x00;

		retry_info->reg_offs_val_lp[0][6][0] = 0x02;
		retry_info->reg_offs_val_lp[0][6][1] = 0x00;
		retry_info->reg_offs_val_lp[0][6][2] = 0x7e;
		retry_info->reg_offs_val_lp[0][6][3] = 0x7c;
		retry_info->reg_offs_val_lp[0][6][4] = 0x00;
		retry_info->handle = readretry_handle_toshiba;
		retry_info->exit = readretry_exit_toshiba;
		break;
	/* toshiba 15nm */
	case TOSHIBA_15NM:
		retry_info->flag = 1;
		retry_info->reg_cnt_lp = 5;
		retry_info->retry_cnt_lp = 10;

		retry_info->reg_addr_lp[0] = 0x04;
		retry_info->reg_addr_lp[1] = 0x05;
		retry_info->reg_addr_lp[2] = 0x06;
		retry_info->reg_addr_lp[3] = 0x07;
		retry_info->reg_addr_lp[4] = 0x0D;

		retry_info->reg_offs_val_lp[0][0][0] = 0;
		retry_info->reg_offs_val_lp[0][0][1] = 0;
		retry_info->reg_offs_val_lp[0][0][2] = 0;
		retry_info->reg_offs_val_lp[0][0][3] = 0;
		retry_info->reg_offs_val_lp[0][0][4] = 0;

		retry_info->reg_offs_val_lp[0][1][0] = 0x02;
		retry_info->reg_offs_val_lp[0][1][1] = 0x04;
		retry_info->reg_offs_val_lp[0][1][2] = 0x02;
		retry_info->reg_offs_val_lp[0][1][3] = 0x00;
		retry_info->reg_offs_val_lp[0][1][4] = 0x00;

		retry_info->reg_offs_val_lp[0][2][0] = 0x7c;
		retry_info->reg_offs_val_lp[0][2][1] = 0x00;
		retry_info->reg_offs_val_lp[0][2][2] = 0x7c;
		retry_info->reg_offs_val_lp[0][2][3] = 0x7c;
		retry_info->reg_offs_val_lp[0][2][4] = 0x00;

		retry_info->reg_offs_val_lp[0][3][0] = 0x7a;
		retry_info->reg_offs_val_lp[0][3][1] = 0x00;
		retry_info->reg_offs_val_lp[0][3][2] = 0x7a;
		retry_info->reg_offs_val_lp[0][3][3] = 0x7a;
		retry_info->reg_offs_val_lp[0][3][4] = 0x00;

		retry_info->reg_offs_val_lp[0][4][0] = 0x78;
		retry_info->reg_offs_val_lp[0][4][1] = 0x02;
		retry_info->reg_offs_val_lp[0][4][2] = 0x78;
		retry_info->reg_offs_val_lp[0][4][3] = 0x7a;
		retry_info->reg_offs_val_lp[0][4][4] = 0x00;

		retry_info->reg_offs_val_lp[0][5][0] = 0x7e;
		retry_info->reg_offs_val_lp[0][5][1] = 0x04;
		retry_info->reg_offs_val_lp[0][5][2] = 0x7e;
		retry_info->reg_offs_val_lp[0][5][3] = 0x7a;
		retry_info->reg_offs_val_lp[0][5][4] = 0x00;

		retry_info->reg_offs_val_lp[0][6][0] = 0x76;
		retry_info->reg_offs_val_lp[0][6][1] = 0x04;
		retry_info->reg_offs_val_lp[0][6][2] = 0x76;
		retry_info->reg_offs_val_lp[0][6][3] = 0x78;
		retry_info->reg_offs_val_lp[0][6][4] = 0x00;

		retry_info->reg_offs_val_lp[0][7][0] = 0x04;
		retry_info->reg_offs_val_lp[0][7][1] = 0x04;
		retry_info->reg_offs_val_lp[0][7][2] = 0x04;
		retry_info->reg_offs_val_lp[0][7][3] = 0x76;
		retry_info->reg_offs_val_lp[0][7][4] = 0x00;

		retry_info->reg_offs_val_lp[0][8][0] = 0x06;
		retry_info->reg_offs_val_lp[0][8][1] = 0x0a;
		retry_info->reg_offs_val_lp[0][8][2] = 0x06;
		retry_info->reg_offs_val_lp[0][8][3] = 0x02;
		retry_info->reg_offs_val_lp[0][8][4] = 0x00;

		retry_info->reg_offs_val_lp[0][9][0] = 0x74;
		retry_info->reg_offs_val_lp[0][9][1] = 0x7c;
		retry_info->reg_offs_val_lp[0][9][2] = 0x74;
		retry_info->reg_offs_val_lp[0][9][3] = 0x76;
		retry_info->reg_offs_val_lp[0][9][4] = 0x00;

		retry_info->handle = readretry_handle_toshiba;
		retry_info->exit = readretry_exit_toshiba;
		break;
	case SUMSUNG_2XNM:
		/* read retry */
		retry_info->flag = 1;
		retry_info->reg_cnt_lp = 4;
		retry_info->retry_cnt_lp = 15;

		retry_info->reg_addr_lp[0] = 0xA7;
		retry_info->reg_addr_lp[1] = 0xA4;
		retry_info->reg_addr_lp[2] = 0xA5;
		retry_info->reg_addr_lp[3] = 0xA6;

		retry_info->reg_offs_val_lp[0][0][0] = 0;
		retry_info->reg_offs_val_lp[0][0][1] = 0;
		retry_info->reg_offs_val_lp[0][0][2] = 0;
		retry_info->reg_offs_val_lp[0][0][3] = 0;

		retry_info->reg_offs_val_lp[0][1][0] = 0x05;
		retry_info->reg_offs_val_lp[0][1][1] = 0x0A;
		retry_info->reg_offs_val_lp[0][1][2] = 0x00;
		retry_info->reg_offs_val_lp[0][1][3] = 0x00;

		retry_info->reg_offs_val_lp[0][2][0] = 0x28;
		retry_info->reg_offs_val_lp[0][2][1] = 0x00;
		retry_info->reg_offs_val_lp[0][2][2] = 0xEc;
		retry_info->reg_offs_val_lp[0][2][3] = 0xD8;

		retry_info->reg_offs_val_lp[0][3][0] = 0xED;
		retry_info->reg_offs_val_lp[0][3][1] = 0xF5;
		retry_info->reg_offs_val_lp[0][3][2] = 0xED;
		retry_info->reg_offs_val_lp[0][3][3] = 0xE6;

		retry_info->reg_offs_val_lp[0][4][0] = 0x0A;
		retry_info->reg_offs_val_lp[0][4][1] = 0x0F;
		retry_info->reg_offs_val_lp[0][4][2] = 0x05;
		retry_info->reg_offs_val_lp[0][4][3] = 0x00;

		retry_info->reg_offs_val_lp[0][5][0] = 0x0F;
		retry_info->reg_offs_val_lp[0][5][1] = 0x0A;
		retry_info->reg_offs_val_lp[0][5][2] = 0xFB;
		retry_info->reg_offs_val_lp[0][5][3] = 0xEC;

		retry_info->reg_offs_val_lp[0][6][0] = 0XE8;
		retry_info->reg_offs_val_lp[0][6][1] = 0XEF;
		retry_info->reg_offs_val_lp[0][6][2] = 0XE8;
		retry_info->reg_offs_val_lp[0][6][3] = 0XDC;

		retry_info->reg_offs_val_lp[0][7][0] = 0xF1;
		retry_info->reg_offs_val_lp[0][7][1] = 0xFB;
		retry_info->reg_offs_val_lp[0][7][2] = 0xFE;
		retry_info->reg_offs_val_lp[0][7][3] = 0xF0;

		retry_info->reg_offs_val_lp[0][8][0] = 0x0A;
		retry_info->reg_offs_val_lp[0][8][1] = 0x00;
		retry_info->reg_offs_val_lp[0][8][2] = 0xFB;
		retry_info->reg_offs_val_lp[0][8][3] = 0xEC;

		retry_info->reg_offs_val_lp[0][9][0] = 0xD0;
		retry_info->reg_offs_val_lp[0][9][1] = 0xE2;
		retry_info->reg_offs_val_lp[0][9][2] = 0xD0;
		retry_info->reg_offs_val_lp[0][9][3] = 0xC2;

		retry_info->reg_offs_val_lp[0][10][0] = 0x14;
		retry_info->reg_offs_val_lp[0][10][1] = 0x0F;
		retry_info->reg_offs_val_lp[0][10][2] = 0xFB;
		retry_info->reg_offs_val_lp[0][10][3] = 0xEC;

		retry_info->reg_offs_val_lp[0][11][0] = 0xE8;
		retry_info->reg_offs_val_lp[0][11][1] = 0xFB;
		retry_info->reg_offs_val_lp[0][11][2] = 0xE8;
		retry_info->reg_offs_val_lp[0][11][3] = 0xDC;

		retry_info->reg_offs_val_lp[0][12][0] = 0X1E;
		retry_info->reg_offs_val_lp[0][12][1] = 0X14;
		retry_info->reg_offs_val_lp[0][12][2] = 0XFB;
		retry_info->reg_offs_val_lp[0][12][3] = 0XEC;

		retry_info->reg_offs_val_lp[0][13][0] = 0xFB;
		retry_info->reg_offs_val_lp[0][13][1] = 0xFF;
		retry_info->reg_offs_val_lp[0][13][2] = 0xFB;
		retry_info->reg_offs_val_lp[0][13][3] = 0xF8;

		retry_info->reg_offs_val_lp[0][14][0] = 0x07;
		retry_info->reg_offs_val_lp[0][14][1] = 0x0C;
		retry_info->reg_offs_val_lp[0][14][2] = 0x02;
		retry_info->reg_offs_val_lp[0][14][3] = 0x00;

		retry_info->handle = readretry_handle_samsung;
		retry_info->exit = readretry_exit_samsung;
		break;

	case SANDISK_19NM:
		/* read retry low page */
		retry_info->flag = 1;
		retry_info->reg_cnt_lp = 2;
		retry_info->retry_cnt_lp = 16;

		retry_info->reg_addr_lp[0] = 0x04;
		retry_info->reg_addr_lp[1] = 0x07;

		retry_info->reg_offs_val_lp[0][0][0] = 0xF0;
		retry_info->reg_offs_val_lp[0][0][1] = 0xF0;

		retry_info->reg_offs_val_lp[0][1][0] = 0xE0;
		retry_info->reg_offs_val_lp[0][1][1] = 0xE0;

		retry_info->reg_offs_val_lp[0][2][0] = 0xD0;
		retry_info->reg_offs_val_lp[0][2][1] = 0xD0;

		retry_info->reg_offs_val_lp[0][3][0] = 0x10;
		retry_info->reg_offs_val_lp[0][3][1] = 0x10;

		retry_info->reg_offs_val_lp[0][4][0] = 0x20;
		retry_info->reg_offs_val_lp[0][4][1] = 0x20;

		retry_info->reg_offs_val_lp[0][5][0] = 0x30;
		retry_info->reg_offs_val_lp[0][5][1] = 0x30;

		retry_info->reg_offs_val_lp[0][6][0] = 0xC0;
		retry_info->reg_offs_val_lp[0][6][1] = 0xD0;

		retry_info->reg_offs_val_lp[0][7][0] = 0x0;
		retry_info->reg_offs_val_lp[0][7][1] = 0x10;

		retry_info->reg_offs_val_lp[0][8][0] = 0x0;
		retry_info->reg_offs_val_lp[0][8][1] = 0x20;

		retry_info->reg_offs_val_lp[0][9][0] = 0x10;
		retry_info->reg_offs_val_lp[0][9][1] = 0x20;

		retry_info->reg_offs_val_lp[0][10][0] = 0xB0;
		retry_info->reg_offs_val_lp[0][10][1] = 0xD0;

		retry_info->reg_offs_val_lp[0][11][0] = 0xA0;
		retry_info->reg_offs_val_lp[0][11][1] = 0xD0;

		retry_info->reg_offs_val_lp[0][12][0] = 0x90;
		retry_info->reg_offs_val_lp[0][12][1] = 0xD0;

		retry_info->reg_offs_val_lp[0][13][0] = 0xB0;
		retry_info->reg_offs_val_lp[0][13][1] = 0xC0;

		retry_info->reg_offs_val_lp[0][14][0] = 0xA0;
		retry_info->reg_offs_val_lp[0][14][1] = 0xC0;

		retry_info->reg_offs_val_lp[0][15][0] = 0x90;
		retry_info->reg_offs_val_lp[0][15][1] = 0xC0;

		/* read retry up page */
		retry_info->reg_cnt_up = 2;
		retry_info->retry_cnt_up = 20;

		retry_info->reg_addr_up[0] = 0x04;
		retry_info->reg_addr_up[1] = 0x05;

		retry_info->reg_offs_val_up[0][0][0] = 0x0;
		retry_info->reg_offs_val_up[0][0][1] = 0xF0;

		retry_info->reg_offs_val_up[0][1][0] = 0xF;
		retry_info->reg_offs_val_up[0][1][1] = 0xE0;

		retry_info->reg_offs_val_up[0][2][0] = 0xF;
		retry_info->reg_offs_val_up[0][2][1] = 0xD0;

		retry_info->reg_offs_val_up[0][3][0] = 0xE;
		retry_info->reg_offs_val_up[0][3][1] = 0xE0;

		retry_info->reg_offs_val_up[0][4][0] = 0xE;
		retry_info->reg_offs_val_up[0][4][1] = 0xD0;

		retry_info->reg_offs_val_up[0][5][0] = 0xD;
		retry_info->reg_offs_val_up[0][5][1] = 0xF0;

		retry_info->reg_offs_val_up[0][6][0] = 0xD;
		retry_info->reg_offs_val_up[0][6][1] = 0xE0;

		retry_info->reg_offs_val_up[0][7][0] = 0xD;
		retry_info->reg_offs_val_up[0][7][1] = 0xD0;

		retry_info->reg_offs_val_up[0][8][0] = 0x1;
		retry_info->reg_offs_val_up[0][8][1] = 0x10;

		retry_info->reg_offs_val_up[0][9][0] = 0x2;
		retry_info->reg_offs_val_up[0][9][1] = 0x20;

		retry_info->reg_offs_val_up[0][10][0] = 0x2;
		retry_info->reg_offs_val_up[0][10][1] = 0x10;

		retry_info->reg_offs_val_up[0][11][0] = 0x3;
		retry_info->reg_offs_val_up[0][11][1] = 0x20;

		retry_info->reg_offs_val_up[0][12][0] = 0xF;
		retry_info->reg_offs_val_up[0][12][1] = 0x00;

		retry_info->reg_offs_val_up[0][13][0] = 0xE;
		retry_info->reg_offs_val_up[0][13][1] = 0xF0;

		retry_info->reg_offs_val_up[0][14][0] = 0xD;
		retry_info->reg_offs_val_up[0][14][1] = 0xC0;

		retry_info->reg_offs_val_up[0][15][0] = 0xF;
		retry_info->reg_offs_val_up[0][15][1] = 0xF0;

		retry_info->reg_offs_val_up[0][16][0] = 0x1;
		retry_info->reg_offs_val_up[0][16][1] = 0x00;

		retry_info->reg_offs_val_up[0][17][0] = 0x20;
		retry_info->reg_offs_val_up[0][17][1] = 0x00;

		retry_info->reg_offs_val_up[0][18][0] = 0xD;
		retry_info->reg_offs_val_up[0][18][1] = 0xB0;

		retry_info->reg_offs_val_up[0][19][0] = 0xC;
		retry_info->reg_offs_val_up[0][19][1] = 0xA0;

		retry_info->init = readretry_init_sandisk;
		retry_info->handle = readretry_handle_sandisk;
		retry_info->exit = readretry_exit_sandisk;

		/* slc */
		slc_info->enter = enslc_enter_sandisk;

		break;

	case SANDISK_A19NM:
		retry_info->flag = 1;
		retry_info->reg_cnt_lp = 4;
		retry_info->retry_cnt_lp = 36;
		retry_info->retry_stage = 0;

		retry_info->reg_addr_lp[0] = 0x11;

		/* lower page read */
		retry_info->reg_offs_val_lp[0][0][0] = 0x7c;
		retry_info->reg_offs_val_lp[0][0][1] = 0x00;
		retry_info->reg_offs_val_lp[0][0][2] = 0x00;
		retry_info->reg_offs_val_lp[0][0][3] = 0x00;

		retry_info->reg_offs_val_lp[0][1][0] = 0x04;
		retry_info->reg_offs_val_lp[0][1][1] = 0x00;
		retry_info->reg_offs_val_lp[0][1][2] = 0x7C;
		retry_info->reg_offs_val_lp[0][1][3] = 0x00;

		retry_info->reg_offs_val_lp[0][2][0] = 0x78;
		retry_info->reg_offs_val_lp[0][2][1] = 0x00;
		retry_info->reg_offs_val_lp[0][2][2] = 0x78;
		retry_info->reg_offs_val_lp[0][2][3] = 0x00;

		retry_info->reg_offs_val_lp[0][3][0] = 0x08;
		retry_info->reg_offs_val_lp[0][3][1] = 0x00;
		retry_info->reg_offs_val_lp[0][3][2] = 0x00;
		retry_info->reg_offs_val_lp[0][3][3] = 0x00;

		retry_info->reg_offs_val_lp[0][4][0] = 0x00;
		retry_info->reg_offs_val_lp[0][4][1] = 0x00;
		retry_info->reg_offs_val_lp[0][4][2] = 0x7C;
		retry_info->reg_offs_val_lp[0][4][3] = 0x00;

		retry_info->reg_offs_val_lp[0][5][0] = 0x7c;
		retry_info->reg_offs_val_lp[0][5][1] = 0x00;
		retry_info->reg_offs_val_lp[0][5][2] = 0x78;
		retry_info->reg_offs_val_lp[0][5][3] = 0x00;

		retry_info->reg_offs_val_lp[0][6][0] = 0x00;
		retry_info->reg_offs_val_lp[0][6][1] = 0x00;
		retry_info->reg_offs_val_lp[0][6][2] = 0x74;
		retry_info->reg_offs_val_lp[0][6][3] = 0x00;

		retry_info->reg_offs_val_lp[0][7][0] = 0x00;
		retry_info->reg_offs_val_lp[0][7][1] = 0x00;
		retry_info->reg_offs_val_lp[0][7][2] = 0x00;
		retry_info->reg_offs_val_lp[0][7][3] = 0x00;

		retry_info->reg_offs_val_lp[0][8][0] = 0x00;
		retry_info->reg_offs_val_lp[0][8][1] = 0x00;
		retry_info->reg_offs_val_lp[0][8][2] = 0x7C;
		retry_info->reg_offs_val_lp[0][8][3] = 0x00;

		retry_info->reg_offs_val_lp[0][9][0] = 0x00;
		retry_info->reg_offs_val_lp[0][9][1] = 0x00;
		retry_info->reg_offs_val_lp[0][9][2] = 0x78;
		retry_info->reg_offs_val_lp[0][9][3] = 0x00;

		retry_info->reg_offs_val_lp[0][10][0] = 0x00;
		retry_info->reg_offs_val_lp[0][10][1] = 0x00;
		retry_info->reg_offs_val_lp[0][10][2] = 0x74;
		retry_info->reg_offs_val_lp[0][10][3] = 0x00;

		retry_info->reg_offs_val_lp[0][11][0] = 0x00;
		retry_info->reg_offs_val_lp[0][11][1] = 0x00;
		retry_info->reg_offs_val_lp[0][11][2] = 0x70;
		retry_info->reg_offs_val_lp[0][11][3] = 0x00;

		retry_info->reg_offs_val_lp[0][12][0] = 0x00;
		retry_info->reg_offs_val_lp[0][12][1] = 0x00;
		retry_info->reg_offs_val_lp[0][12][2] = 0x04;
		retry_info->reg_offs_val_lp[0][12][3] = 0x00;

		retry_info->reg_offs_val_lp[0][13][0] = 0x00;
		retry_info->reg_offs_val_lp[0][13][1] = 0x00;
		retry_info->reg_offs_val_lp[0][13][2] = 0x00;
		retry_info->reg_offs_val_lp[0][13][3] = 0x00;

		retry_info->reg_offs_val_lp[0][14][0] = 0x0C;
		retry_info->reg_offs_val_lp[0][14][1] = 0x00;
		retry_info->reg_offs_val_lp[0][14][2] = 0x7C;
		retry_info->reg_offs_val_lp[0][14][3] = 0x00;

		retry_info->reg_offs_val_lp[0][15][0] = 0x0C;
		retry_info->reg_offs_val_lp[0][15][1] = 0x00;
		retry_info->reg_offs_val_lp[0][15][2] = 0x78;
		retry_info->reg_offs_val_lp[0][15][3] = 0x00;

		retry_info->reg_offs_val_lp[0][16][0] = 0x10;
		retry_info->reg_offs_val_lp[0][16][1] = 0x00;
		retry_info->reg_offs_val_lp[0][16][2] = 0x00;
		retry_info->reg_offs_val_lp[0][16][3] = 0x00;

		retry_info->reg_offs_val_lp[0][17][0] = 0x10;
		retry_info->reg_offs_val_lp[0][17][1] = 0x00;
		retry_info->reg_offs_val_lp[0][17][2] = 0x04;
		retry_info->reg_offs_val_lp[0][17][3] = 0x00;

		retry_info->reg_offs_val_lp[0][18][0] = 0x0C;
		retry_info->reg_offs_val_lp[0][18][1] = 0x00;
		retry_info->reg_offs_val_lp[0][18][2] = 0x04;
		retry_info->reg_offs_val_lp[0][18][3] = 0x00;

		retry_info->reg_offs_val_lp[0][19][0] = 0x10;
		retry_info->reg_offs_val_lp[0][19][1] = 0x00;
		retry_info->reg_offs_val_lp[0][19][2] = 0x04;
		retry_info->reg_offs_val_lp[0][19][3] = 0x00;

		retry_info->reg_offs_val_lp[0][20][0] = 0x14;
		retry_info->reg_offs_val_lp[0][20][1] = 0x00;
		retry_info->reg_offs_val_lp[0][20][2] = 0x08;
		retry_info->reg_offs_val_lp[0][20][3] = 0x00;

		retry_info->reg_offs_val_lp[0][21][0] = 0x18;
		retry_info->reg_offs_val_lp[0][21][1] = 0x00;
		retry_info->reg_offs_val_lp[0][21][2] = 0x0c;
		retry_info->reg_offs_val_lp[0][21][3] = 0x00;

		retry_info->reg_offs_val_lp[0][22][0] = 0x0C;
		retry_info->reg_offs_val_lp[0][22][1] = 0x00;
		retry_info->reg_offs_val_lp[0][22][2] = 0x04;
		retry_info->reg_offs_val_lp[0][22][3] = 0x00;

		retry_info->reg_offs_val_lp[0][23][0] = 0x78;
		retry_info->reg_offs_val_lp[0][23][1] = 0x00;
		retry_info->reg_offs_val_lp[0][23][2] = 0x78;
		retry_info->reg_offs_val_lp[0][23][3] = 0x00;

		retry_info->reg_offs_val_lp[0][24][0] = 0x78;
		retry_info->reg_offs_val_lp[0][24][1] = 0x00;
		retry_info->reg_offs_val_lp[0][24][2] = 0x74;
		retry_info->reg_offs_val_lp[0][24][3] = 0x00;

		retry_info->reg_offs_val_lp[0][25][0] = 0x78;
		retry_info->reg_offs_val_lp[0][25][1] = 0x00;
		retry_info->reg_offs_val_lp[0][25][2] = 0x70;
		retry_info->reg_offs_val_lp[0][25][3] = 0x00;

		retry_info->reg_offs_val_lp[0][26][0] = 0x78;
		retry_info->reg_offs_val_lp[0][26][1] = 0x00;
		retry_info->reg_offs_val_lp[0][26][2] = 0x6C;
		retry_info->reg_offs_val_lp[0][26][3] = 0x00;

		retry_info->reg_offs_val_lp[0][27][0] = 0x78;
		retry_info->reg_offs_val_lp[0][27][1] = 0x00;
		retry_info->reg_offs_val_lp[0][27][2] = 0x78;
		retry_info->reg_offs_val_lp[0][27][3] = 0x00;

		retry_info->reg_offs_val_lp[0][28][0] = 0x78;
		retry_info->reg_offs_val_lp[0][28][1] = 0x00;
		retry_info->reg_offs_val_lp[0][28][2] = 0x74;
		retry_info->reg_offs_val_lp[0][28][3] = 0x00;

		retry_info->reg_offs_val_lp[0][29][0] = 0x74;
		retry_info->reg_offs_val_lp[0][29][1] = 0x00;
		retry_info->reg_offs_val_lp[0][29][2] = 0x6c;
		retry_info->reg_offs_val_lp[0][29][3] = 0x00;

		retry_info->reg_offs_val_lp[0][30][0] = 0x78;
		retry_info->reg_offs_val_lp[0][30][1] = 0x00;
		retry_info->reg_offs_val_lp[0][30][2] = 0x70;
		retry_info->reg_offs_val_lp[0][30][3] = 0x00;

		retry_info->reg_offs_val_lp[0][31][0] = 0x78;
		retry_info->reg_offs_val_lp[0][31][1] = 0x00;
		retry_info->reg_offs_val_lp[0][31][2] = 0x70;
		retry_info->reg_offs_val_lp[0][31][3] = 0x00;

		retry_info->reg_offs_val_lp[0][32][0] = 0x78;
		retry_info->reg_offs_val_lp[0][32][1] = 0x00;
		retry_info->reg_offs_val_lp[0][32][2] = 0x6c;
		retry_info->reg_offs_val_lp[0][32][3] = 0x00;

		retry_info->reg_offs_val_lp[0][33][0] = 0x78;
		retry_info->reg_offs_val_lp[0][33][1] = 0x00;
		retry_info->reg_offs_val_lp[0][33][2] = 0x68;
		retry_info->reg_offs_val_lp[0][33][3] = 0x00;

		retry_info->reg_offs_val_lp[0][34][0] = 0x74;
		retry_info->reg_offs_val_lp[0][34][1] = 0x00;
		retry_info->reg_offs_val_lp[0][34][2] = 0x6C;
		retry_info->reg_offs_val_lp[0][34][3] = 0x00;

		retry_info->reg_offs_val_lp[0][35][0] = 0x74;
		retry_info->reg_offs_val_lp[0][35][1] = 0x00;
		retry_info->reg_offs_val_lp[0][35][2] = 0x68;
		retry_info->reg_offs_val_lp[0][35][3] = 0x00;

		/* upper page read */

		retry_info->reg_offs_val_lp[1][0][0] = 0x00;
		retry_info->reg_offs_val_lp[1][0][1] = 0x00;
		retry_info->reg_offs_val_lp[1][0][2] = 0x00;
		retry_info->reg_offs_val_lp[1][0][3] = 0x7c;

		retry_info->reg_offs_val_lp[1][1][0] = 0x00;
		retry_info->reg_offs_val_lp[1][1][1] = 0x00;
		retry_info->reg_offs_val_lp[1][1][2] = 0x00;
		retry_info->reg_offs_val_lp[1][1][3] = 0x78;

		retry_info->reg_offs_val_lp[1][2][0] = 0x00;
		retry_info->reg_offs_val_lp[1][2][1] = 0x00;
		retry_info->reg_offs_val_lp[1][2][2] = 0x00;
		retry_info->reg_offs_val_lp[1][2][3] = 0x74;

		retry_info->reg_offs_val_lp[1][3][0] = 0x00;
		retry_info->reg_offs_val_lp[1][3][1] = 0x7C;
		retry_info->reg_offs_val_lp[1][3][2] = 0x00;
		retry_info->reg_offs_val_lp[1][3][3] = 0x7c;

		retry_info->reg_offs_val_lp[1][4][0] = 0x00;
		retry_info->reg_offs_val_lp[1][4][1] = 0x7c;
		retry_info->reg_offs_val_lp[1][4][2] = 0x00;
		retry_info->reg_offs_val_lp[1][4][3] = 0x78;

		retry_info->reg_offs_val_lp[1][5][0] = 0x00;
		retry_info->reg_offs_val_lp[1][5][1] = 0x7c;
		retry_info->reg_offs_val_lp[1][5][2] = 0x00;
		retry_info->reg_offs_val_lp[1][5][3] = 0x74;

		retry_info->reg_offs_val_lp[1][6][0] = 0x00;
		retry_info->reg_offs_val_lp[1][6][1] = 0x7c;
		retry_info->reg_offs_val_lp[1][6][2] = 0x00;
		retry_info->reg_offs_val_lp[1][6][3] = 0x70;

		retry_info->reg_offs_val_lp[1][7][0] = 0x00;
		retry_info->reg_offs_val_lp[1][7][1] = 0x78;
		retry_info->reg_offs_val_lp[1][7][2] = 0x00;
		retry_info->reg_offs_val_lp[1][7][3] = 0x7c;

		retry_info->reg_offs_val_lp[1][8][0] = 0x00;
		retry_info->reg_offs_val_lp[1][8][1] = 0x78;
		retry_info->reg_offs_val_lp[1][8][2] = 0x00;
		retry_info->reg_offs_val_lp[1][8][3] = 0x78;

		retry_info->reg_offs_val_lp[1][9][0] = 0x00;
		retry_info->reg_offs_val_lp[1][9][1] = 0x78;
		retry_info->reg_offs_val_lp[1][9][2] = 0x00;
		retry_info->reg_offs_val_lp[1][9][3] = 0x74;

		retry_info->reg_offs_val_lp[1][10][0] = 0x00;
		retry_info->reg_offs_val_lp[1][10][1] = 0x78;
		retry_info->reg_offs_val_lp[1][10][2] = 0x00;
		retry_info->reg_offs_val_lp[1][10][3] = 0x70;

		retry_info->reg_offs_val_lp[1][11][0] = 0x00;
		retry_info->reg_offs_val_lp[1][11][1] = 0x78;
		retry_info->reg_offs_val_lp[1][11][2] = 0x00;
		retry_info->reg_offs_val_lp[1][11][3] = 0x6c;

		retry_info->reg_offs_val_lp[1][12][0] = 0x00;
		retry_info->reg_offs_val_lp[1][12][1] = 0x04;
		retry_info->reg_offs_val_lp[1][12][2] = 0x00;
		retry_info->reg_offs_val_lp[1][12][3] = 0x00;

		retry_info->reg_offs_val_lp[1][13][0] = 0x00;
		retry_info->reg_offs_val_lp[1][13][1] = 0x04;
		retry_info->reg_offs_val_lp[1][13][2] = 0x00;
		retry_info->reg_offs_val_lp[1][13][3] = 0x7c;

		retry_info->reg_offs_val_lp[1][14][0] = 0x00;
		retry_info->reg_offs_val_lp[1][14][1] = 0x04;
		retry_info->reg_offs_val_lp[1][14][2] = 0x00;
		retry_info->reg_offs_val_lp[1][14][3] = 0x78;

		retry_info->reg_offs_val_lp[1][15][0] = 0x00;
		retry_info->reg_offs_val_lp[1][15][1] = 0x04;
		retry_info->reg_offs_val_lp[1][15][2] = 0x00;
		retry_info->reg_offs_val_lp[1][15][3] = 0x74;

		retry_info->reg_offs_val_lp[1][16][0] = 0x00;
		retry_info->reg_offs_val_lp[1][16][1] = 0x08;
		retry_info->reg_offs_val_lp[1][16][2] = 0x00;
		retry_info->reg_offs_val_lp[1][16][3] = 0x7c;

		retry_info->reg_offs_val_lp[1][17][0] = 0x00;
		retry_info->reg_offs_val_lp[1][17][1] = 0x08;
		retry_info->reg_offs_val_lp[1][17][2] = 0x00;
		retry_info->reg_offs_val_lp[1][17][3] = 0x00;

		retry_info->reg_offs_val_lp[1][18][0] = 0x00;
		retry_info->reg_offs_val_lp[1][18][1] = 0x0C;
		retry_info->reg_offs_val_lp[1][18][2] = 0x00;
		retry_info->reg_offs_val_lp[1][18][3] = 0x04;

		retry_info->reg_offs_val_lp[1][19][0] = 0x00;
		retry_info->reg_offs_val_lp[1][19][1] = 0x0C;
		retry_info->reg_offs_val_lp[1][19][2] = 0x00;
		retry_info->reg_offs_val_lp[1][19][3] = 0x00;

		retry_info->reg_offs_val_lp[1][20][0] = 0x00;
		retry_info->reg_offs_val_lp[1][20][1] = 0x10;
		retry_info->reg_offs_val_lp[1][20][2] = 0x00;
		retry_info->reg_offs_val_lp[1][20][3] = 0x00;

		retry_info->reg_offs_val_lp[1][21][0] = 0x00;
		retry_info->reg_offs_val_lp[1][21][1] = 0x14;
		retry_info->reg_offs_val_lp[1][21][2] = 0x00;
		retry_info->reg_offs_val_lp[1][21][3] = 0x00;

		retry_info->reg_offs_val_lp[1][22][0] = 0x00;
		retry_info->reg_offs_val_lp[1][22][1] = 0x0C;
		retry_info->reg_offs_val_lp[1][22][2] = 0x00;
		retry_info->reg_offs_val_lp[1][22][3] = 0x7C;

		retry_info->reg_offs_val_lp[1][23][0] = 0x00;
		retry_info->reg_offs_val_lp[1][23][1] = 0x74;
		retry_info->reg_offs_val_lp[1][23][2] = 0x00;
		retry_info->reg_offs_val_lp[1][23][3] = 0x74;

		retry_info->reg_offs_val_lp[1][24][0] = 0x00;
		retry_info->reg_offs_val_lp[1][24][1] = 0x74;
		retry_info->reg_offs_val_lp[1][24][2] = 0x00;
		retry_info->reg_offs_val_lp[1][24][3] = 0x70;

		retry_info->reg_offs_val_lp[1][25][0] = 0x00;
		retry_info->reg_offs_val_lp[1][25][1] = 0x74;
		retry_info->reg_offs_val_lp[1][25][2] = 0x00;
		retry_info->reg_offs_val_lp[1][25][3] = 0x6c;

		retry_info->reg_offs_val_lp[1][26][0] = 0x00;
		retry_info->reg_offs_val_lp[1][26][1] = 0x74;
		retry_info->reg_offs_val_lp[1][26][2] = 0x00;
		retry_info->reg_offs_val_lp[1][26][3] = 0x68;

		retry_info->reg_offs_val_lp[1][27][0] = 0x00;
		retry_info->reg_offs_val_lp[1][27][1] = 0x70;
		retry_info->reg_offs_val_lp[1][27][2] = 0x00;
		retry_info->reg_offs_val_lp[1][27][3] = 0x74;

		retry_info->reg_offs_val_lp[1][28][0] = 0x00;
		retry_info->reg_offs_val_lp[1][28][1] = 0x70;
		retry_info->reg_offs_val_lp[1][28][2] = 0x00;
		retry_info->reg_offs_val_lp[1][28][3] = 0x70;

		retry_info->reg_offs_val_lp[1][29][0] = 0x00;
		retry_info->reg_offs_val_lp[1][29][1] = 0x70;
		retry_info->reg_offs_val_lp[1][29][2] = 0x00;
		retry_info->reg_offs_val_lp[1][29][3] = 0x68;

		retry_info->reg_offs_val_lp[1][30][0] = 0x00;
		retry_info->reg_offs_val_lp[1][30][1] = 0x70;
		retry_info->reg_offs_val_lp[1][30][2] = 0x00;
		retry_info->reg_offs_val_lp[1][30][3] = 0x6C;

		retry_info->reg_offs_val_lp[1][31][0] = 0x00;
		retry_info->reg_offs_val_lp[1][31][1] = 0x6C;
		retry_info->reg_offs_val_lp[1][31][2] = 0x00;
		retry_info->reg_offs_val_lp[1][31][3] = 0x6C;

		retry_info->reg_offs_val_lp[1][32][0] = 0x00;
		retry_info->reg_offs_val_lp[1][32][1] = 0x6C;
		retry_info->reg_offs_val_lp[1][32][2] = 0x00;
		retry_info->reg_offs_val_lp[1][32][3] = 0x68;

		retry_info->reg_offs_val_lp[1][33][0] = 0x00;
		retry_info->reg_offs_val_lp[1][33][1] = 0x6C;
		retry_info->reg_offs_val_lp[1][33][2] = 0x00;
		retry_info->reg_offs_val_lp[1][33][3] = 0x64;

		retry_info->reg_offs_val_lp[1][34][0] = 0x00;
		retry_info->reg_offs_val_lp[1][34][1] = 0x68;
		retry_info->reg_offs_val_lp[1][34][2] = 0x00;
		retry_info->reg_offs_val_lp[1][34][3] = 0x68;

		retry_info->reg_offs_val_lp[1][35][0] = 0x00;
		retry_info->reg_offs_val_lp[1][35][1] = 0x68;
		retry_info->reg_offs_val_lp[1][35][2] = 0x00;
		retry_info->reg_offs_val_lp[1][35][3] = 0x64;

		retry_info->handle = readretry_handle_a19_sandisk;
		retry_info->exit = readretry_exit_a19_sandisk;

		break;
	case SANDISK_A19NM_4G:
		//read retry low page
		retry_info->flag = 1;
		retry_info->reg_cnt_lp = 4;
		retry_info->retry_cnt_lp = 36;
		retry_info->retry_stage = 0;

		retry_info->reg_addr_lp[0] = 0x11;

	/* lower page read */

		retry_info->reg_offs_val_lp[0][0][0] = 0x7c;
		retry_info->reg_offs_val_lp[0][0][1] = 0x00;
		retry_info->reg_offs_val_lp[0][0][2] = 0x00;
		retry_info->reg_offs_val_lp[0][0][3] = 0x00;

		retry_info->reg_offs_val_lp[0][1][0] = 0x04;
		retry_info->reg_offs_val_lp[0][1][1] = 0x00;
		retry_info->reg_offs_val_lp[0][1][2] = 0x7C;
		retry_info->reg_offs_val_lp[0][1][3] = 0x00;

		retry_info->reg_offs_val_lp[0][2][0] = 0x78;
		retry_info->reg_offs_val_lp[0][2][1] = 0x00;
		retry_info->reg_offs_val_lp[0][2][2] = 0x78;
		retry_info->reg_offs_val_lp[0][2][3] = 0x00;

		retry_info->reg_offs_val_lp[0][3][0] = 0x08;
		retry_info->reg_offs_val_lp[0][3][1] = 0x00;
		retry_info->reg_offs_val_lp[0][3][2] = 0x00;
		retry_info->reg_offs_val_lp[0][3][3] = 0x00;

		retry_info->reg_offs_val_lp[0][4][0] = 0x00;
		retry_info->reg_offs_val_lp[0][4][1] = 0x00;
		retry_info->reg_offs_val_lp[0][4][2] = 0x7C;
		retry_info->reg_offs_val_lp[0][4][3] = 0x00;

		retry_info->reg_offs_val_lp[0][5][0] = 0x7c;
		retry_info->reg_offs_val_lp[0][5][1] = 0x00;
		retry_info->reg_offs_val_lp[0][5][2] = 0x78;
		retry_info->reg_offs_val_lp[0][5][3] = 0x00;

		retry_info->reg_offs_val_lp[0][6][0] = 0x00;
		retry_info->reg_offs_val_lp[0][6][1] = 0x00;
		retry_info->reg_offs_val_lp[0][6][2] = 0x74;
		retry_info->reg_offs_val_lp[0][6][3] = 0x00;

		retry_info->reg_offs_val_lp[0][7][0] = 0x00;
		retry_info->reg_offs_val_lp[0][7][1] = 0x00;
		retry_info->reg_offs_val_lp[0][7][2] = 0x00;
		retry_info->reg_offs_val_lp[0][7][3] = 0x00;

		retry_info->reg_offs_val_lp[0][8][0] = 0x00;
		retry_info->reg_offs_val_lp[0][8][1] = 0x00;
		retry_info->reg_offs_val_lp[0][8][2] = 0x7C;
		retry_info->reg_offs_val_lp[0][8][3] = 0x00;

		retry_info->reg_offs_val_lp[0][9][0] = 0x00;
		retry_info->reg_offs_val_lp[0][9][1] = 0x00;
		retry_info->reg_offs_val_lp[0][9][2] = 0x78;
		retry_info->reg_offs_val_lp[0][9][3] = 0x00;

		retry_info->reg_offs_val_lp[0][10][0] = 0x00;
		retry_info->reg_offs_val_lp[0][10][1] = 0x00;
		retry_info->reg_offs_val_lp[0][10][2] = 0x74;
		retry_info->reg_offs_val_lp[0][10][3] = 0x00;

		retry_info->reg_offs_val_lp[0][11][0] = 0x00;
		retry_info->reg_offs_val_lp[0][11][1] = 0x00;
		retry_info->reg_offs_val_lp[0][11][2] = 0x70;
		retry_info->reg_offs_val_lp[0][11][3] = 0x00;

		retry_info->reg_offs_val_lp[0][12][0] = 0x00;
		retry_info->reg_offs_val_lp[0][12][1] = 0x00;
		retry_info->reg_offs_val_lp[0][12][2] = 0x04;
		retry_info->reg_offs_val_lp[0][12][3] = 0x00;

		retry_info->reg_offs_val_lp[0][13][0] = 0x00;
		retry_info->reg_offs_val_lp[0][13][1] = 0x00;
		retry_info->reg_offs_val_lp[0][13][2] = 0x00;
		retry_info->reg_offs_val_lp[0][13][3] = 0x00;

		retry_info->reg_offs_val_lp[0][14][0] = 0x0C;
		retry_info->reg_offs_val_lp[0][14][1] = 0x00;
		retry_info->reg_offs_val_lp[0][14][2] = 0x7C;
		retry_info->reg_offs_val_lp[0][14][3] = 0x00;

		retry_info->reg_offs_val_lp[0][15][0] = 0x0C;
		retry_info->reg_offs_val_lp[0][15][1] = 0x00;
		retry_info->reg_offs_val_lp[0][15][2] = 0x78;
		retry_info->reg_offs_val_lp[0][15][3] = 0x00;

		retry_info->reg_offs_val_lp[0][16][0] = 0x10;
		retry_info->reg_offs_val_lp[0][16][1] = 0x00;
		retry_info->reg_offs_val_lp[0][16][2] = 0x00;
		retry_info->reg_offs_val_lp[0][16][3] = 0x00;

		retry_info->reg_offs_val_lp[0][17][0] = 0x10;
		retry_info->reg_offs_val_lp[0][17][1] = 0x00;
		retry_info->reg_offs_val_lp[0][17][2] = 0x04;
		retry_info->reg_offs_val_lp[0][17][3] = 0x00;

		retry_info->reg_offs_val_lp[0][18][0] = 0x0C;
		retry_info->reg_offs_val_lp[0][18][1] = 0x00;
		retry_info->reg_offs_val_lp[0][18][2] = 0x04;
		retry_info->reg_offs_val_lp[0][18][3] = 0x00;

		retry_info->reg_offs_val_lp[0][19][0] = 0x10;
		retry_info->reg_offs_val_lp[0][19][1] = 0x00;
		retry_info->reg_offs_val_lp[0][19][2] = 0x04;
		retry_info->reg_offs_val_lp[0][19][3] = 0x00;

		retry_info->reg_offs_val_lp[0][20][0] = 0x14;
		retry_info->reg_offs_val_lp[0][20][1] = 0x00;
		retry_info->reg_offs_val_lp[0][20][2] = 0x08;
		retry_info->reg_offs_val_lp[0][20][3] = 0x00;

		retry_info->reg_offs_val_lp[0][21][0] = 0x18;
		retry_info->reg_offs_val_lp[0][21][1] = 0x00;
		retry_info->reg_offs_val_lp[0][21][2] = 0x0c;
		retry_info->reg_offs_val_lp[0][21][3] = 0x00;

		retry_info->reg_offs_val_lp[0][22][0] = 0x0C;
		retry_info->reg_offs_val_lp[0][22][1] = 0x00;
		retry_info->reg_offs_val_lp[0][22][2] = 0x04;
		retry_info->reg_offs_val_lp[0][22][3] = 0x00;

		retry_info->reg_offs_val_lp[0][23][0] = 0x78;
		retry_info->reg_offs_val_lp[0][23][1] = 0x00;
		retry_info->reg_offs_val_lp[0][23][2] = 0x78;
		retry_info->reg_offs_val_lp[0][23][3] = 0x00;

		retry_info->reg_offs_val_lp[0][24][0] = 0x78;
		retry_info->reg_offs_val_lp[0][24][1] = 0x00;
		retry_info->reg_offs_val_lp[0][24][2] = 0x74;
		retry_info->reg_offs_val_lp[0][24][3] = 0x00;

		retry_info->reg_offs_val_lp[0][25][0] = 0x78;
		retry_info->reg_offs_val_lp[0][25][1] = 0x00;
		retry_info->reg_offs_val_lp[0][25][2] = 0x70;
		retry_info->reg_offs_val_lp[0][25][3] = 0x00;

		retry_info->reg_offs_val_lp[0][26][0] = 0x78;
		retry_info->reg_offs_val_lp[0][26][1] = 0x00;
		retry_info->reg_offs_val_lp[0][26][2] = 0x6C;
		retry_info->reg_offs_val_lp[0][26][3] = 0x00;

		retry_info->reg_offs_val_lp[0][27][0] = 0x78;
		retry_info->reg_offs_val_lp[0][27][1] = 0x00;
		retry_info->reg_offs_val_lp[0][27][2] = 0x78;
		retry_info->reg_offs_val_lp[0][27][3] = 0x00;

		retry_info->reg_offs_val_lp[0][28][0] = 0x78;
		retry_info->reg_offs_val_lp[0][28][1] = 0x00;
		retry_info->reg_offs_val_lp[0][28][2] = 0x74;
		retry_info->reg_offs_val_lp[0][28][3] = 0x00;

		retry_info->reg_offs_val_lp[0][29][0] = 0x74;
		retry_info->reg_offs_val_lp[0][29][1] = 0x00;
		retry_info->reg_offs_val_lp[0][29][2] = 0x6c;
		retry_info->reg_offs_val_lp[0][29][3] = 0x00;

		retry_info->reg_offs_val_lp[0][30][0] = 0x78;
		retry_info->reg_offs_val_lp[0][30][1] = 0x00;
		retry_info->reg_offs_val_lp[0][30][2] = 0x70;
		retry_info->reg_offs_val_lp[0][30][3] = 0x00;

		retry_info->reg_offs_val_lp[0][31][0] = 0x78;
		retry_info->reg_offs_val_lp[0][31][1] = 0x00;
		retry_info->reg_offs_val_lp[0][31][2] = 0x70;
		retry_info->reg_offs_val_lp[0][31][3] = 0x00;

		retry_info->reg_offs_val_lp[0][32][0] = 0x78;
		retry_info->reg_offs_val_lp[0][32][1] = 0x00;
		retry_info->reg_offs_val_lp[0][32][2] = 0x6c;
		retry_info->reg_offs_val_lp[0][32][3] = 0x00;

		retry_info->reg_offs_val_lp[0][33][0] = 0x78;
		retry_info->reg_offs_val_lp[0][33][1] = 0x00;
		retry_info->reg_offs_val_lp[0][33][2] = 0x68;
		retry_info->reg_offs_val_lp[0][33][3] = 0x00;

		retry_info->reg_offs_val_lp[0][34][0] = 0x74;
		retry_info->reg_offs_val_lp[0][34][1] = 0x00;
		retry_info->reg_offs_val_lp[0][34][2] = 0x6C;
		retry_info->reg_offs_val_lp[0][34][3] = 0x00;

		retry_info->reg_offs_val_lp[0][35][0] = 0x74;
		retry_info->reg_offs_val_lp[0][35][1] = 0x00;
		retry_info->reg_offs_val_lp[0][35][2] = 0x68;
		retry_info->reg_offs_val_lp[0][35][3] = 0x00;
		/* upper page read */

		retry_info->reg_offs_val_lp[1][0][0] = 0x00;
		retry_info->reg_offs_val_lp[1][0][1] = 0x00;
		retry_info->reg_offs_val_lp[1][0][2] = 0x00;
		retry_info->reg_offs_val_lp[1][0][3] = 0x7c;

		retry_info->reg_offs_val_lp[1][1][0] = 0x00;
		retry_info->reg_offs_val_lp[1][1][1] = 0x00;
		retry_info->reg_offs_val_lp[1][1][2] = 0x00;
		retry_info->reg_offs_val_lp[1][1][3] = 0x78;

		retry_info->reg_offs_val_lp[1][2][0] = 0x00;
		retry_info->reg_offs_val_lp[1][2][1] = 0x00;
		retry_info->reg_offs_val_lp[1][2][2] = 0x00;
		retry_info->reg_offs_val_lp[1][2][3] = 0x74;

		retry_info->reg_offs_val_lp[1][3][0] = 0x00;
		retry_info->reg_offs_val_lp[1][3][1] = 0x7C;
		retry_info->reg_offs_val_lp[1][3][2] = 0x00;
		retry_info->reg_offs_val_lp[1][3][3] = 0x7c;

		retry_info->reg_offs_val_lp[1][4][0] = 0x00;
		retry_info->reg_offs_val_lp[1][4][1] = 0x7c;
		retry_info->reg_offs_val_lp[1][4][2] = 0x00;
		retry_info->reg_offs_val_lp[1][4][3] = 0x78;

		retry_info->reg_offs_val_lp[1][5][0] = 0x00;
		retry_info->reg_offs_val_lp[1][5][1] = 0x7c;
		retry_info->reg_offs_val_lp[1][5][2] = 0x00;
		retry_info->reg_offs_val_lp[1][5][3] = 0x74;

		retry_info->reg_offs_val_lp[1][6][0] = 0x00;
		retry_info->reg_offs_val_lp[1][6][1] = 0x7c;
		retry_info->reg_offs_val_lp[1][6][2] = 0x00;
		retry_info->reg_offs_val_lp[1][6][3] = 0x70;

		retry_info->reg_offs_val_lp[1][7][0] = 0x00;
		retry_info->reg_offs_val_lp[1][7][1] = 0x78;
		retry_info->reg_offs_val_lp[1][7][2] = 0x00;
		retry_info->reg_offs_val_lp[1][7][3] = 0x7c;

		retry_info->reg_offs_val_lp[1][8][0] = 0x00;
		retry_info->reg_offs_val_lp[1][8][1] = 0x78;
		retry_info->reg_offs_val_lp[1][8][2] = 0x00;
		retry_info->reg_offs_val_lp[1][8][3] = 0x78;

		retry_info->reg_offs_val_lp[1][9][0] = 0x00;
		retry_info->reg_offs_val_lp[1][9][1] = 0x78;
		retry_info->reg_offs_val_lp[1][9][2] = 0x00;
		retry_info->reg_offs_val_lp[1][9][3] = 0x74;

		retry_info->reg_offs_val_lp[1][10][0] = 0x00;
		retry_info->reg_offs_val_lp[1][10][1] = 0x78;
		retry_info->reg_offs_val_lp[1][10][2] = 0x00;
		retry_info->reg_offs_val_lp[1][10][3] = 0x70;

		retry_info->reg_offs_val_lp[1][11][0] = 0x00;
		retry_info->reg_offs_val_lp[1][11][1] = 0x78;
		retry_info->reg_offs_val_lp[1][11][2] = 0x00;
		retry_info->reg_offs_val_lp[1][11][3] = 0x6c;

		retry_info->reg_offs_val_lp[1][12][0] = 0x00;
		retry_info->reg_offs_val_lp[1][12][1] = 0x04;
		retry_info->reg_offs_val_lp[1][12][2] = 0x00;
		retry_info->reg_offs_val_lp[1][12][3] = 0x00;

		retry_info->reg_offs_val_lp[1][13][0] = 0x00;
		retry_info->reg_offs_val_lp[1][13][1] = 0x04;
		retry_info->reg_offs_val_lp[1][13][2] = 0x00;
		retry_info->reg_offs_val_lp[1][13][3] = 0x7c;

		retry_info->reg_offs_val_lp[1][14][0] = 0x00;
		retry_info->reg_offs_val_lp[1][14][1] = 0x04;
		retry_info->reg_offs_val_lp[1][14][2] = 0x00;
		retry_info->reg_offs_val_lp[1][14][3] = 0x78;

		retry_info->reg_offs_val_lp[1][15][0] = 0x00;
		retry_info->reg_offs_val_lp[1][15][1] = 0x04;
		retry_info->reg_offs_val_lp[1][15][2] = 0x00;
		retry_info->reg_offs_val_lp[1][15][3] = 0x74;

		retry_info->reg_offs_val_lp[1][16][0] = 0x00;
		retry_info->reg_offs_val_lp[1][16][1] = 0x08;
		retry_info->reg_offs_val_lp[1][16][2] = 0x00;
		retry_info->reg_offs_val_lp[1][16][3] = 0x7c;

		retry_info->reg_offs_val_lp[1][17][0] = 0x00;
		retry_info->reg_offs_val_lp[1][17][1] = 0x08;
		retry_info->reg_offs_val_lp[1][17][2] = 0x00;
		retry_info->reg_offs_val_lp[1][17][3] = 0x00;

		retry_info->reg_offs_val_lp[1][18][0] = 0x00;
		retry_info->reg_offs_val_lp[1][18][1] = 0x0C;
		retry_info->reg_offs_val_lp[1][18][2] = 0x00;
		retry_info->reg_offs_val_lp[1][18][3] = 0x04;

		retry_info->reg_offs_val_lp[1][19][0] = 0x00;
		retry_info->reg_offs_val_lp[1][19][1] = 0x0C;
		retry_info->reg_offs_val_lp[1][19][2] = 0x00;
		retry_info->reg_offs_val_lp[1][19][3] = 0x00;

		retry_info->reg_offs_val_lp[1][20][0] = 0x00;
		retry_info->reg_offs_val_lp[1][20][1] = 0x10;
		retry_info->reg_offs_val_lp[1][20][2] = 0x00;
		retry_info->reg_offs_val_lp[1][20][3] = 0x00;

		retry_info->reg_offs_val_lp[1][21][0] = 0x00;
		retry_info->reg_offs_val_lp[1][21][1] = 0x14;
		retry_info->reg_offs_val_lp[1][21][2] = 0x00;
		retry_info->reg_offs_val_lp[1][21][3] = 0x00;

		retry_info->reg_offs_val_lp[1][22][0] = 0x00;
		retry_info->reg_offs_val_lp[1][22][1] = 0x0C;
		retry_info->reg_offs_val_lp[1][22][2] = 0x00;
		retry_info->reg_offs_val_lp[1][22][3] = 0x7C;

		retry_info->reg_offs_val_lp[1][23][0] = 0x00;
		retry_info->reg_offs_val_lp[1][23][1] = 0x74;
		retry_info->reg_offs_val_lp[1][23][2] = 0x00;
		retry_info->reg_offs_val_lp[1][23][3] = 0x74;

		retry_info->reg_offs_val_lp[1][24][0] = 0x00;
		retry_info->reg_offs_val_lp[1][24][1] = 0x74;
		retry_info->reg_offs_val_lp[1][24][2] = 0x00;
		retry_info->reg_offs_val_lp[1][24][3] = 0x70;

		retry_info->reg_offs_val_lp[1][25][0] = 0x00;
		retry_info->reg_offs_val_lp[1][25][1] = 0x74;
		retry_info->reg_offs_val_lp[1][25][2] = 0x00;
		retry_info->reg_offs_val_lp[1][25][3] = 0x6c;

		retry_info->reg_offs_val_lp[1][26][0] = 0x00;
		retry_info->reg_offs_val_lp[1][26][1] = 0x74;
		retry_info->reg_offs_val_lp[1][26][2] = 0x00;
		retry_info->reg_offs_val_lp[1][26][3] = 0x68;

		retry_info->reg_offs_val_lp[1][27][0] = 0x00;
		retry_info->reg_offs_val_lp[1][27][1] = 0x70;
		retry_info->reg_offs_val_lp[1][27][2] = 0x00;
		retry_info->reg_offs_val_lp[1][27][3] = 0x74;

		retry_info->reg_offs_val_lp[1][28][0] = 0x00;
		retry_info->reg_offs_val_lp[1][28][1] = 0x70;
		retry_info->reg_offs_val_lp[1][28][2] = 0x00;
		retry_info->reg_offs_val_lp[1][28][3] = 0x70;

		retry_info->reg_offs_val_lp[1][29][0] = 0x00;
		retry_info->reg_offs_val_lp[1][29][1] = 0x70;
		retry_info->reg_offs_val_lp[1][29][2] = 0x00;
		retry_info->reg_offs_val_lp[1][29][3] = 0x68;

		retry_info->reg_offs_val_lp[1][30][0] = 0x00;
		retry_info->reg_offs_val_lp[1][30][1] = 0x70;
		retry_info->reg_offs_val_lp[1][30][2] = 0x00;
		retry_info->reg_offs_val_lp[1][30][3] = 0x6C;

		retry_info->reg_offs_val_lp[1][31][0] = 0x00;
		retry_info->reg_offs_val_lp[1][31][1] = 0x6C;
		retry_info->reg_offs_val_lp[1][31][2] = 0x00;
		retry_info->reg_offs_val_lp[1][31][3] = 0x6C;

		retry_info->reg_offs_val_lp[1][32][0] = 0x00;
		retry_info->reg_offs_val_lp[1][32][1] = 0x6C;
		retry_info->reg_offs_val_lp[1][32][2] = 0x00;
		retry_info->reg_offs_val_lp[1][32][3] = 0x68;

		retry_info->reg_offs_val_lp[1][33][0] = 0x00;
		retry_info->reg_offs_val_lp[1][33][1] = 0x6C;
		retry_info->reg_offs_val_lp[1][33][2] = 0x00;
		retry_info->reg_offs_val_lp[1][33][3] = 0x64;

		retry_info->reg_offs_val_lp[1][34][0] = 0x00;
		retry_info->reg_offs_val_lp[1][34][1] = 0x68;
		retry_info->reg_offs_val_lp[1][34][2] = 0x00;
		retry_info->reg_offs_val_lp[1][34][3] = 0x68;

		retry_info->reg_offs_val_lp[1][35][0] = 0x00;
		retry_info->reg_offs_val_lp[1][35][1] = 0x68;
		retry_info->reg_offs_val_lp[1][35][2] = 0x00;
		retry_info->reg_offs_val_lp[1][35][3] = 0x64;
		retry_info->handle = readretry_handle_a19_sandisk;
		retry_info->exit = readretry_exit_a19_sandisk;

		/* slc */
		/* slc_info->enter= enslc_enter_sandisk; */

		break;
	case MICRON_20NM:
	{
		unsigned int i = 0, j = 0;
		char setting_val[4] = {0x00, 0x00, 0x00, 0x00};
		retry_info->flag = 1;
		retry_info->reg_cnt_lp = 1;
		retry_info->retry_cnt_lp = 7;

		retry_info->reg_addr_lp[0] = 0x89;
#if 0
		retry_info->reg_def_val[0][0] = 0;
		retry_info->reg_def_val[0][1] = 0;
		retry_info->reg_def_val[0][2] = 0;
		retry_info->reg_def_val[0][3] = 0;
		retry_info->reg_def_val[0][4] = 0;
		retry_info->reg_def_val[0][5] = 0;
		retry_info->reg_def_val[0][6] = 0;

		retry_info->reg_offs_val_lp[0][0][0] = 0x1;
		retry_info->reg_offs_val_lp[0][1][0] = 0x2;
		retry_info->reg_offs_val_lp[0][2][0] = 0x3;
		retry_info->reg_offs_val_lp[0][3][0] = 0x4;
		retry_info->reg_offs_val_lp[0][4][0] = 0x5;
		retry_info->reg_offs_val_lp[0][5][0] = 0x6;
		retry_info->reg_offs_val_lp[0][6][0] = 0x7;
#endif
		if (((flash->id[1] == 0x64) || (flash->id[1] == 0x84)) &&
		     (flash->id[2] == 0x64)) {
			/* Micron: L95B, L84C */

			/* based on ONFI 3.2 DataSheet Patramter page
			 * offset 180 for counter and 181-184 for setting.
			 * Or JEDEC offset 422 for counter and 423 for setting,
			 * on data sheet.
			 */
			retry_info->retry_cnt_lp = 0xA;
			setting_val[0] = 0xFF;
			setting_val[1] = 0x11;
			slc_info->pagelist = NULL;

		} else if (((flash->id[1] == 0x64) && (flash->id[2] == 0x44) &&
			   (flash->id[3] == 0x32) && (flash->id[4] == 0xA5)) ||
			   ((flash->id[1] == 0x84) && (flash->id[2] == 0x44) &&
			   (flash->id[3] == 0x32) && (flash->id[4] == 0xAA) &&
				(flash->id[5] == 0x04))) {
			/* 3D L04A MLC/SLC  & L05B */
			retry_info->retry_cnt_lp = 0x10;
			setting_val[0] = 0xFF;
			setting_val[1] = 0xFF;
			slc_info->pagelist = NULL;

		} else if (((flash->id[1] == 0x64) || (flash->id[1] == 0x44)) &&
			    (flash->id[2] == 0x44) && (flash->id[3] == 0x4B)  &&
			    (flash->id[4] == 0xA9)) {
			/* L84A+ , L83A+ */
			retry_info->retry_cnt_lp = 0x8;
			setting_val[0] = 0xFF;
			setting_val[1] = 0x00;
			slc_info->pagelist = pagelist_micron_20nm256;	/* default 8GB L84A eMLC+ L0L3 */
		} else {
			/* unknow device */
			retry_info->retry_cnt_lp = 0x8;
			setting_val[0] = 0xFF;
			setting_val[1] = 0x00;
			slc_info->pagelist = NULL;	/* default 8GB L84A MLC */
		}

		for (i = 0; i < retry_info->retry_cnt_lp; i++)
			retry_info->reg_def_val[0][i] = 0;

		for (i = 0; i < 32; i++) {
			if ((setting_val[(i/8)]>>(i%8))&1)
				retry_info->reg_offs_val_lp[0][j++][0] = i;
		}
	#if 0
		printf("++ Read Retries %d :", retry_info->retry_cnt_lp);
		for (i = 0; i < retry_info->retry_cnt_lp; i++)
			printf(" %x", retry_info->reg_offs_val_lp[0][i][0]);
		printf("\n");
	#endif
		retry_info->handle = readretry_handle_micron;
		retry_info->exit = readretry_exit_micron;
		break;
	}
	case INTEL_20NM:
		retry_info->flag = 1;
		retry_info->reg_cnt_lp = 2;
		retry_info->retry_cnt_lp = 7;

		retry_info->reg_addr_lp[0] = 0x89;
		retry_info->reg_addr_lp[0] = 0x93;

		retry_info->reg_def_val[0][0] = 0;
		retry_info->reg_def_val[0][1] = 0;
		retry_info->reg_def_val[0][2] = 0;
		retry_info->reg_def_val[0][3] = 0;
		retry_info->reg_def_val[0][4] = 0;
		retry_info->reg_def_val[0][5] = 0;
		retry_info->reg_def_val[0][6] = 0;

		retry_info->reg_offs_val_lp[0][0][0] = 0x1;
		retry_info->reg_offs_val_lp[0][1][0] = 0x2;
		retry_info->reg_offs_val_lp[0][2][0] = 0x3;
		retry_info->reg_offs_val_lp[0][3][0] = 0x0;
		retry_info->reg_offs_val_lp[0][4][0] = 0x1;
		retry_info->reg_offs_val_lp[0][5][0] = 0x2;
		retry_info->reg_offs_val_lp[0][6][0] = 0x3;

		retry_info->handle = readretry_handle_intel;
		retry_info->exit = readretry_exit_intel;
		break;
	default:
		aml_nand_msg("detect flash->new_type(%d) not support!",
			flash->new_type);
		return -NAND_FAILED;
	}

	if (flash->new_type == SANDISK_19NM) {
		ret = retry_info->init(controller);
		if (ret) {
			aml_nand_msg("sandisk readretry init failed");
			return -NAND_FAILED;
		}
	}

	if ((flash->new_type) && (flash->new_type < 10)) {
		ret = slc_info->init(controller);
		if (ret) {
			aml_nand_msg("hynix nand get slc default value failed");
			return -NAND_FAILED;
		}
		ret =  retry_info->init(controller);
		if (ret) {
			aml_nand_msg("hynix nand readretry init failed");
			return -NAND_FAILED;
		}
	}

	return NAND_SUCCESS;
}