nandfmd.h

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//
// Copyright (c) Microsoft Corporation.  All rights reserved.
//
//
// Use of this source code is subject to the terms of the Microsoft end-user
// license agreement (EULA) under which you licensed this SOFTWARE PRODUCT.
// If you did not accept the terms of the EULA, you are not authorized to use
// this source code. For a copy of the EULA, please see the LICENSE.RTF on your
// install media.
//
//------------------------------------------------------------------------------
//
//  Copyright (C) 2004-2007, Freescale Semiconductor, Inc. All Rights Reserved.
//  THIS SOURCE CODE, AND ITS USE AND DISTRIBUTION, IS SUBJECT TO THE TERMS
//  AND CONDITIONS OF THE APPLICABLE LICENSE AGREEMENT
//
//------------------------------------------------------------------------------
//
//  File:  nandfmd.h
//
//  Contains definitions for FMD impletation of the SoC NAND flash controller 
//  and NAND memory device.
//
//------------------------------------------------------------------------------
#ifndef __NANDFMD_H__
#define __NANDFMD_H__

//#define K9F1G08U0B

#ifdef K9F1G08U0B
//--------------------------------------------------------------------
//  File:  K9F1G08U0B.h
#define NAND_BLOCK_CNT          (1024)      // 1024 blocks
#define NAND_SECTOR_CNT         (64)        // Each Block has 64 Pages
#define NAND_SECTOR_SIZE        (2048)		// Each Page has 1088 Bytes
#define NAND_SECTORS_PERPAGE    (1)         // Each Page has 1 Sectors
#define NAND_SPARE_SIZE         (16)
#define NAND_BLOCK_SIZE         (NAND_SECTOR_CNT * NAND_SECTOR_SIZE)
#define NAND_BBI_OFFSET         5           // Bad block info spare offset
#define NAND_BUS_WIDTH          8           // 8-bit bus

#define NAND_MAKER_CODE         0xEC        // Samsung
#define NAND_DEVICE_CODE        0x71

#define NAND_STATUS_MASK_ERROR  (1U << 0)   // Status Bit0 indicates error

#define NAND_ID_CODE            ((NAND_DEVICE_CODE << 8) | NAND_MAKER_CODE)

// K9F1G08U0B address is sent in 4-cycles
//      1st Cycle:  Column address A[7:0]
//      2nd Cycle:  Column address A[8:11]
//      3rd Cycle:  Page address A[12:19]
//      4th Cycle:  Page address A[20:27]
#define NF_ADDR_COL(addr)       { NF_ADDR((addr) & 0xFF); \
								NF_ADDR(((addr) >> 8) & 0x0F) }

#define NF_ADDR_PAGE(addr)      { NF_ADDR(((addr) >> 12) & 0xFF);\
                                  NF_ADDR(((addr) >> 20) & 0xFF); }  
// K9F1G08U0B supports sequential row and serial page access, so we only
// need to send read command and address on first access.
#define NF_READ_SEQ(sectAddr)   (TRUE)
#else
//--------------------------------------------------------------------
//--------------- File:  K9F1208XXX.h---------------------------------
#define NAND_BLOCK_CNT          (4096)      // 4096 blocks
#define NAND_SECTOR_CNT         (32)        // Each Block has 32 Pages
#define NAND_SECTOR_SIZE        (512)       // Each Page has 512 Bytes
#define NAND_SECTORS_PERPAGE    (1)         // Each Page has 1 Sectors
#define NAND_SPARE_SIZE         (16)
#define NAND_BLOCK_SIZE         (NAND_SECTOR_CNT * NAND_SECTOR_SIZE)
#define NAND_BBI_OFFSET         5           // Bad block info spare offset
#define NAND_BUS_WIDTH          8           // 8-bit bus

#define NAND_MAKER_CODE         0xEC        // Samsung
#define NAND_DEVICE_CODE        0x76		//K9F1208U0B

#define NAND_STATUS_MASK_ERROR  (1U << 0)   // Status Bit0 indicates error

#define NAND_ID_CODE            ((NAND_DEVICE_CODE << 8) | NAND_MAKER_CODE)

// K9F1208X0C address is sent in 4-cycles
//      1st Cycle:  Column address A[7:0]
//      2nd Cycle:  Page address A[16:9]
//      3rd Cycle:  Page address A[24:17]
//      4th Cycle:  Page address A[26:25]
#define NF_ADDR_COL(addr)       { NF_ADDR((addr) & 0xFF); }

#define NF_ADDR_PAGE(addr)      { NF_ADDR((addr) & 0xFF);         \
                                  NF_ADDR(((addr) >> 8) & 0xFF);  \
                                  NF_ADDR(((addr) >> 16) & 0x3); }  

// TODO:
// K9F1208X0C supports sequential row and serial page access, so we only
// need to send read command and address on first access.
#define NF_READ_SEQ(sectAddr)   (TRUE)

#endif
//--------------------------------------------------------------------
#define CMD_READID              0x90        // Read ID
#define CMD_READ                0x00        // Read data field
#define CMD_READ_2CYCLE         0x30        // Read data 2nd cycle
#define CMD_READ2               0x50        // Read spare field
#define CMD_RESET               0xFF        // Reset
#define CMD_ERASE               0x60        // Erase setup
#define CMD_ERASE2              0xD0        // Erase 
#define CMD_WRITE               0x80        // Sequential data input
#define CMD_WRITE2              0x10        // Program
#define CMD_STATUS              0x70        // Read status

#define OUTREG16(reg,val)		(*((volatile u16 *)(reg)) = (val))
#define OUTREG32(reg,val)		(*((volatile u32 *)(reg)) = (val))

#define INREG16(reg)			(*(volatile u16 *)(reg))
#define INREG32(reg)			(*(volatile u32 *)(reg))

#define SETREG16(x, y)			OUTREG16(x, INREG16(x)|(y))
#define SETREG32(x, y)			OUTREG32(x, INREG32(x)|(y))
#define CLRREG16(x, y)			OUTREG16(x, INREG16(x)&~(y))
#define CLRREG32(x, y)			OUTREG32(x, INREG32(x)&~(y))

#define CSP_BITFMASK(bit)		(1U << (bit))
#define CSP_BITFVAL(bit, val)	((val) << (bit))

#define NF_CMD(cmd)             { OUTREG16(&g_pNFC->NAND_FLASH_CMD, (cmd)); \
                                  OUTREG16(&g_pNFC->NAND_FLASH_CONFIG2, CSP_BITFMASK(NANDFC_NAND_FLASH_CONFIG2_FCMD)); \
                                  NFCWait(TRUE); }

#define NF_ADDR(addr)           { OUTREG16(&g_pNFC->NAND_FLASH_ADD, (addr)); \
                                  OUTREG16(&g_pNFC->NAND_FLASH_CONFIG2, CSP_BITFMASK(NANDFC_NAND_FLASH_CONFIG2_FADD)); \
                                  NFCWait(TRUE); }

#define NF_RD_PAGE()            { CLRREG16(&g_pNFC->NAND_FLASH_CONFIG1, CSP_BITFMASK(NANDFC_NAND_FLASH_CONFIG1_SP_EN));  \
                                  OUTREG16(&g_pNFC->NAND_FLASH_CONFIG2, CSP_BITFMASK(NANDFC_NAND_FLASH_CONFIG2_FDO_PAGE)); \
                                  NFCWait(TRUE); }

#define NF_RD_SPARE()           { SETREG16(&g_pNFC->NAND_FLASH_CONFIG1, CSP_BITFMASK(NANDFC_NAND_FLASH_CONFIG1_SP_EN));  \
                                  OUTREG16(&g_pNFC->NAND_FLASH_CONFIG2, CSP_BITFMASK(NANDFC_NAND_FLASH_CONFIG2_FDO_PAGE)); \
                                  NFCWait(TRUE); }

#define NF_WR_PAGE()            { CLRREG16(&g_pNFC->NAND_FLASH_CONFIG1, CSP_BITFMASK(NANDFC_NAND_FLASH_CONFIG1_SP_EN));  \
                                  OUTREG16(&g_pNFC->NAND_FLASH_CONFIG2, CSP_BITFMASK(NANDFC_NAND_FLASH_CONFIG2_FDI)); \
                                  NFCWait(TRUE); }

#define NF_WR_SPARE()           { SETREG16(&g_pNFC->NAND_FLASH_CONFIG1, CSP_BITFMASK(NANDFC_NAND_FLASH_CONFIG1_SP_EN));  \
                                  OUTREG16(&g_pNFC->NAND_FLASH_CONFIG2, CSP_BITFMASK(NANDFC_NAND_FLASH_CONFIG2_FDI)); \
                                  NFCWait(TRUE); }

#define NF_RD_ID()              { CLRREG16(&g_pNFC->NAND_FLASH_CONFIG1, CSP_BITFMASK(NANDFC_NAND_FLASH_CONFIG1_SP_EN));  \
                                  OUTREG16(&g_pNFC->NAND_FLASH_CONFIG2, CSP_BITFMASK(NANDFC_NAND_FLASH_CONFIG2_FDO_ID)); \
                                  NFCWait(TRUE); }

#define NF_RD_STATUS()          { CLRREG16(&g_pNFC->NAND_FLASH_CONFIG1, CSP_BITFMASK(NANDFC_NAND_FLASH_CONFIG1_SP_EN));  \
                                  OUTREG16(&g_pNFC->NAND_FLASH_CONFIG2, CSP_BITFMASK(NANDFC_NAND_FLASH_CONFIG2_FDO_STATUS)); \
                                  NFCWait(TRUE); }



#define	NFC_BASE_ADDR	0xD8000000
/*
 * Addresses for NFC registers
 */
#define NFC_BUF_SIZE            (*((volatile u16 *)(NFC_BASE_ADDR + 0xE00)))
#define NFC_BUF_ADDR            (*((volatile u16 *)(NFC_BASE_ADDR + 0xE04)))
#define NFC_FLASH_ADDR          (*((volatile u16 *)(NFC_BASE_ADDR + 0xE06)))
#define NFC_FLASH_CMD           (*((volatile u16 *)(NFC_BASE_ADDR + 0xE08)))
#define NFC_CONFIG              (*((volatile u16 *)(NFC_BASE_ADDR + 0xE0A)))
#define NFC_ECC_STATUS_RESULT   (*((volatile u16 *)(NFC_BASE_ADDR + 0xE0C)))
#define NFC_RSLTMAIN_AREA       (*((volatile u16 *)(NFC_BASE_ADDR + 0xE0E)))
#define NFC_RSLTSPARE_AREA      (*((volatile u16 *)(NFC_BASE_ADDR + 0xE10)))
#define NFC_WRPROT              (*((volatile u16 *)(NFC_BASE_ADDR + 0xE12)))
#define NFC_UNLOCKSTART_BLKADDR (*((volatile u16 *)(NFC_BASE_ADDR + 0xE14)))
#define NFC_UNLOCKEND_BLKADDR   (*((volatile u16 *)(NFC_BASE_ADDR + 0xE16)))
#define NFC_NF_WRPRST           (*((volatile u16 *)(NFC_BASE_ADDR + 0xE18)))
#define NFC_CONFIG1             (*((volatile u16 *)(NFC_BASE_ADDR + 0xE1A)))
#define NFC_CONFIG2             (*((volatile u16 *)(NFC_BASE_ADDR + 0xE1C)))

/*!
 * Addresses for NFC RAM BUFFER Main area 0
 */
#define MAIN_AREA0        (volatile u16 *)(NFC_BASE_ADDR + 0x000)
#define MAIN_AREA1        (volatile u16 *)(NFC_BASE_ADDR + 0x200)

/*!
 * Addresses for NFC SPARE BUFFER Spare area 0
 */
#define SPARE_AREA0       (volatile u16 *)(NFC_BASE_ADDR + 0x800)

// Include NAND memory device definitions
#ifdef BSP_NAND_K9K1G08U0B
#include "K9K1G08U0B.h"
#endif

#ifdef BSP_NAND_K9F1G08U0A
#include "K9F1G08U0A.h" 
#endif

#ifdef BSP_NAND_K9K2G08U0A
#include "K9K2G08U0A.h" 
#endif

#ifdef BSP_NAND_K9F1208X0C
#include "K9F1208X0C.h" 
#endif

PCSP_NANDFC_REGS g_pNFC;

typedef struct _SectorInfo
{
	u32 dwReserved1;        // Reserved - used by FAL
	u8 bOEMReserved;        // For use by OEM
	u8 bBadBlock;			// Indicates if block is BAD
    u16 wReserved2;			// Reserved - used by FAL
}SectorInfo, *PSectorInfo;

// FMD block status definitions.
#define BLOCK_STATUS_UNKNOWN	0x01
#define BLOCK_STATUS_BAD		0x02
#define BLOCK_STATUS_READONLY	0x04
#define BLOCK_STATUS_RESERVED 0x08

// FMD OEM reserved area bitfield.
#define OEM_BLOCK_RESERVED		0x01
#define OEM_BLOCK_READONLY		0x02

#endif    // __NANDFMD_H__

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