static void WriteBootloaderMsg( WORD msg, WORD key )
{
V1( EventLogAdd( EVENTLOG_UPDATER_WRITE_MSG ) );
FlashEraseSegment( (WORD)&BootloaderMsg );
FlashWrite( (WORD)&BootloaderMsg.msg, (DWORD)msg, FLASH_WRITE_WORD );
FlashWrite( (WORD)&BootloaderMsg.key, (DWORD)key, FLASH_WRITE_WORD );
}
ReturnType FlashSingleProgram(udword udAddrOff,uCPUBusType ucValue)
/****************************************************************************
* INPUT(S) :
* OUTPUT(S) :
* DESIGN DOC. :
* FUNCTION DESCRIPTION :
*
****************************************************************************/
{
uCPUBusType val;
OS_Use(&mSemaFlashDrv);
FlashWrite( 0x00555, (uCPUBusType)CMD(0x00AA) ); /* 1st cycle */
FlashWrite( 0x002AA, (uCPUBusType)CMD(0x0055) ); /* 2nd cycle */
FlashWrite( 0x00555, (uCPUBusType)CMD(0x00A0) ); /* Program command */
FlashWrite( udAddrOff,ucValue ); /* Program value */
FlashDataToggle();
val = FlashRead( udAddrOff );
if (val != ucValue)
{
return Flash_OperationTimeOut;
}
OS_Unuse(&mSemaFlashDrv);
return Flash_Success;
}
// The normal flash write function ----------------------------------------------
void Fl2FlashWriteEntry()
{
theFlashParams.count = FlashWrite((CODE_REF)theFlashParams.base_ptr,
theFlashParams.offset_into_block,
theFlashParams.count,
theFlashParams.buffer);
}
// The erase-first flash write function -----------------------------------------
void Fl2FlashEraseWriteEntry()
{
uint32_t tmp = theFlashParams.block_size;
if (tmp == 0)
{
FlashEraseData *p = (FlashEraseData*)theFlashParams.buffer;
for (uint32_t i = 0; i < theFlashParams.count; ++i)
{
tmp = FlashErase((CODE_REF)p->start, p->length);
if (tmp != 0) break;
++p;
}
}
else
{
tmp = FlashErase((CODE_REF)theFlashParams.base_ptr,
theFlashParams.block_size);
if (tmp == 0)
{
tmp = FlashWrite((CODE_REF)theFlashParams.base_ptr,
theFlashParams.offset_into_block,
theFlashParams.count,
theFlashParams.buffer);
}
}
theFlashParams.count = tmp;
}
void main(void)
{
int seg, data;
char c;
unsigned e=0x9000,i=0;
InitLib();
Print("\r\nPlease Input a value writting to segment 0x9000 of Flash Member: ");
Scanf("%d", &seg);
FlashErase(e);
while(i<65535)
{
FlashWrite(e, i, seg);
Print("\r\nThe value %d is writting to offset %d of Flash Memory", seg, i);
i++;
seg++;
if(i%100==0)
{
Print("\r\nPress q to quit or any key to continue...");
c=Getch();
if ((c=='q') || (c=='Q'))
return;
}
}
}
/************************************************************************************//**
** \brief Programs the non-volatile memory.
** \param addr Start address.
** \param len Length in bytes.
** \param data Pointer to the data buffer.
** \return BLT_TRUE if successful, BLT_FALSE otherwise.
**
****************************************************************************************/
blt_bool NvmWrite(blt_addr addr, blt_int32u len, blt_int8u *data)
{
#if (BOOT_NVM_HOOKS_ENABLE > 0)
blt_int8u result = BLT_NVM_NOT_IN_RANGE;
#endif
#if (BOOT_NVM_HOOKS_ENABLE > 0)
/* give the application a chance to operate on memory that is not by default supported
* by this driver.
*/
result = NvmWriteHook(addr, len, data);
/* process the return code */
if (result == BLT_NVM_OKAY)
{
/* data was within range of the additionally supported memory and succesfully
* programmed, so we are all done.
*/
return BLT_TRUE;
}
else if (result == BLT_NVM_ERROR)
{
/* data was within range of the additionally supported memory and attempted to be
* programmed, but an error occurred, so we can't continue.
*/
return BLT_FALSE;
}
#endif
/* still here so the internal driver should try and perform the program operation */
return FlashWrite(addr, len, data);
} /*** end of NvmWrite ***/
/* store into flash */
FlashError_t
BDMFlashWrite( unsigned int addr, unsigned char *mem, size_t count)
{
return (FlashWrite( &Flash,
addr,
mem,
count ));
}
/**
* @brief 数据设置写入
*/
void SaveWrite(void)
{
S_Flash_Write lFlash;
lFlash.Addr.Start = CONFIG_FLASH_SAVE_ADDR_START;
lFlash.Addr.End = lFlash.Addr.Start + sizeof(sSave);
lFlash.Array = (uint16_t*)sSave;
FlashWrite(&lFlash);
}
static void BlowJtagAccessFuse( void )
{
// allow BSL access
WriteRegWordAnd( SYSBSLC_REG16, ~SYSBSLC_SYSBSLPE );
// erase segment so we can write a pattern to the JTAG lock area of flash
FlashEraseSegment( 0x17FC );
FlashWrite( 0x17FC, 0xA5A5A5A5, FLASH_WRITE_DWORD );
// lock BSL memory
WriteRegWordOr( SYSBSLC_REG16, SYSBSLC_SYSBSLPE );
}
/************************************************************************************//**
** \brief Writes a checksum of the user program to non-volatile memory. This is
** performed once the entire user program has been programmed. Through
** the checksum, the bootloader can check if the programming session
** was completed, which indicates that a valid user programming is
** present and can be started.
** \return BLT_TRUE if successful, BLT_FALSE otherwise.
**
****************************************************************************************/
blt_bool FlashWriteChecksum(void)
{
blt_int32u signature_checksum = 0;
/* for the LM3S target we defined the checksum as the Two's complement value of the
* sum of the first 7 exception addresses.
*
* Layout of the vector table:
* 0x00000000 Initial stack pointer
* 0x00000004 Reset Handler
* 0x00000008 NMI Handler
* 0x0000000C Hard Fault Handler
* 0x00000010 MPU Fault Handler
* 0x00000014 Bus Fault Handler
* 0x00000018 Usage Fault Handler
*
* signature_checksum = Two's complement of (SUM(exception address values))
*
* the bootloader writes this 32-bit checksum value right after the vector table
* of the user program. note that this means one extra dummy entry must be added
* at the end of the user program's vector table to reserve storage space for the
* checksum.
*/
/* first check that the bootblock contains valid data. if not, this means the
* bootblock is not part of the reprogramming this time and therefore no
* new checksum needs to be written
*/
if (bootBlockInfo.base_addr == FLASH_INVALID_ADDRESS)
{
return BLT_TRUE;
}
/* compute the checksum. note that the user program's vectors are not yet written
* to flash but are present in the bootblock data structure at this point.
*/
signature_checksum += *((blt_int32u*)(&bootBlockInfo.data[0+0x00]));
signature_checksum += *((blt_int32u*)(&bootBlockInfo.data[0+0x04]));
signature_checksum += *((blt_int32u*)(&bootBlockInfo.data[0+0x08]));
signature_checksum += *((blt_int32u*)(&bootBlockInfo.data[0+0x0C]));
signature_checksum += *((blt_int32u*)(&bootBlockInfo.data[0+0x10]));
signature_checksum += *((blt_int32u*)(&bootBlockInfo.data[0+0x14]));
signature_checksum += *((blt_int32u*)(&bootBlockInfo.data[0+0x18]));
signature_checksum = ~signature_checksum; /* one's complement */
signature_checksum += 1; /* two's complement */
/* write the checksum */
return FlashWrite(flashLayout[0].sector_start+FLASH_VECTOR_TABLE_CS_OFFSET,
sizeof(blt_addr), (blt_int8u*)&signature_checksum);
} /*** end of FlashWriteChecksum ***/
//копирование целиком сектора sector_start в sector_end. sector_end
//будет стёрт. Записывает данные по умолчанию (кроме ключей).
BOOL FlashCopySectorFromScratch(int sector_start, int sector_end)
{
BOOL ret;
uint32_t block_from_address;
uint32_t block_where_address;
block_from_address = sector_start * EE_SECTOR_SIZE;
block_where_address = 0;
current_crc = 0;
//стирание сектора
ret = FlashBlankCheck(sector_end);
if(ret)
{
if(!FlashErase(sector_end))
{
gsm_uart_printf_unsafe("FlashCopySectorFromScratch: cannot erase\r");
return DEF_FALSE;
}
}
while(1)
{
memcpy(ee_buffer, (void *)block_from_address, EE_BLOCK_SIZE);
FlashAddScratchData(block_where_address);
ret = FlashWrite(sector_end, block_where_address, EE_BLOCK_SIZE, ee_buffer);
if(!ret)
{
gsm_uart_printf_unsafe("FlashCopySectorFromScratch: cannot write\r");
return DEF_FALSE;
}
block_from_address += EE_BLOCK_SIZE;
block_where_address += EE_BLOCK_SIZE;
if(block_where_address >= EE_SECTOR_SIZE)
{
//Считаем текущим сектором тот, куда мы перенесли данные
current_sector = sector_end;
current_cnt = FlashNextCounter();
return DEF_TRUE;
}
}
}
/**
* Write data to Factory partition of Flash.
* Backward compatibility to origin caller and convention.
* 1. If you want to read data from Factory, converts absolute address of flash to
* relative address regards to Factory partition and call FactoryWrite() instead.
* 2. If you want to read raw data from anywhere in flash, call FlashWrite() instead.
* 3. If you read data not in 0x40000~0x4FFFF, this function print warning message
* and call FlashWrite() instead.
*/
int FWrite(const unsigned char *buf, int addr, int count)
{
if (!buf || addr <= 0 || count <=0)
return -1;
/* If address fall in old Factory partition, call FactoryRead() instead. */
if (addr >= OFFSET_MTD_FACTORY &&
(addr + count) <= (OFFSET_MTD_FACTORY + SPI_PARALLEL_NOR_FLASH_FACTORY_LENGTH)) {
return FactoryWrite(buf, addr - OFFSET_MTD_FACTORY, count);
}
fprintf(stderr, "%s: Write data out of factory region or cross old factory boundary. (addr 0x%x count 0x%x)\n",
__func__, addr, count);
return FlashWrite(buf, addr, count);
}
/**********************************************************
**Name: SaveRFParameterToFlash
**Function: Save RF parameter to flash
**Input: none
**Output: none
**********************************************************/
void SaveRFParameterToFlash(void)
{
u8 i;
FlashErase(EEPROM_FirstAddr);
gb_RxData[0]=0x5A;
gb_RxData[1]=gb_FreqBuf_Addr;
gb_RxData[2]=gb_RateBuf_Addr;
gb_RxData[3]=gb_PowerBuf_Addr;
gb_RxData[4]=gb_FdevBuf_Addr;
gb_RxData[5]=gb_BandBuf_Addr;
gb_RxData[6]=gb_Modem_Addr;
gb_RxData[8]=gb_SystemMode;
FlashWrite(EEPROM_FirstAddr, gb_RxData);
for(i=0; i<32; i++)
gb_RxData[i] = 0;
}
/////////////////////////////////////////////////////
//
// FlashWriteConfig(void)
//
// read READBUF bytes data from flash
// store data in global variable pcContentBuf[READBUF]
//
// Return Value:
// 0:Error
// 1:Succssed
//
//////////////////////////////////////////////////////
int FlashWriteConfig()
{
unsigned long offset;
int tmp,rtn;
//int flashfd;
FlashEraseBlock(0);
rtn=FlashWrite(offset, pcContentBuf,READBUF);
if( rtn < 0 )
{
printf("Flash read fail\n");
return 0;
}
return 1;
}
ReturnType FlashProgram( udword udAddrOff, udword udNrOfElementsInArray, void *pArray )
/****************************************************************************
* INPUT(S) :
* OUTPUT(S) :
* DESIGN DOC. :
* FUNCTION DESCRIPTION :
*
****************************************************************************/
{
ReturnType rRetVal = Flash_Success;
uCPUBusType *ucpArrayPointer;
udword udLastOff;
OS_Use(&mSemaFlashDrv);
udLastOff = udAddrOff + udNrOfElementsInArray - 1;
FlashWrite( 0x00555, (uCPUBusType)CMD(0x00AA) ); /* 1st cycle */
FlashWrite( 0x002AA, (uCPUBusType)CMD(0x0055) ); /* 2nd cycle */
FlashWrite( 0x00555, (uCPUBusType)CMD(0x0020) ); /* 3nd cycle */
ucpArrayPointer = (uCPUBusType *)pArray;
while( udAddrOff <= udLastOff )
{
FlashWrite( ANY_ADDR, CMD(0x00A0) ); /* 1st cycle */
FlashWrite( udAddrOff, *ucpArrayPointer ); /* 2nd Cycle */
if( FlashDataToggle() != Flash_Success)
{
FlashWrite( ANY_ADDR, (uCPUBusType)CMD(0x00F0) );
rRetVal=Flash_ProgramFailed;
eiErrorInfo.udGeneralInfo[0] = udAddrOff;
break;
}
ucpArrayPointer++;
udAddrOff++;
}
FlashWrite( ANY_ADDR, (uCPUBusType)CMD(0x0090) ); /* 1st cycle */
FlashWrite( ANY_ADDR, (uCPUBusType)CMD(0x0000) ); /* 2st cycle */
OS_Unuse(&mSemaFlashDrv);
return rRetVal;
}
bool ImportData()
{
uint8_t data[DATA_SIZE];
if (!ReadRom(data))
{
return false;
}
if (!ReadMem(data + ROM_SIZE))
{
return false;
}
FlashErase((void*)DATA_AREA_START);
FlashWrite((void*)DATA_AREA_START, data, sizeof(data));
return 0 == memcmp(data, _data, sizeof(data));
}
ReturnType FlashBlockErase(uBlockType ublBlockNr)
/****************************************************************************
* INPUT(S) :
* OUTPUT(S) :
* DESIGN DOC. :
* FUNCTION DESCRIPTION :
*
****************************************************************************/
{
ReturnType rRetVal = Flash_Success; /* Holds return value: optimistic initially! */
OS_Use(&mSemaFlashDrv);
FlashWrite( 0x00555, (uCPUBusType)CMD(0x00AA) );
FlashWrite( 0x002AA, (uCPUBusType)CMD(0x0055) );
FlashWrite( 0x00555, (uCPUBusType)CMD(0x0080) );
FlashWrite( 0x00555, (uCPUBusType)CMD(0x00AA) );
FlashWrite( 0x002AA, (uCPUBusType)CMD(0x0055) );
FlashWrite( BlockOffset[ublBlockNr], (uCPUBusType)CMD(0x0030) );
FlashTimeOut(0);
while( !(FlashRead( BlockOffset[ublBlockNr] ) & CMD(0x0008) ) )
{
if (FlashTimeOut(5) == Flash_OperationTimeOut)
{
FlashWrite( ANY_ADDR, (uCPUBusType)CMD(0x00F0) ); /* Use single instruction cycle method */
return Flash_OperationTimeOut;
}
}
if( FlashDataToggle() != Flash_Success )
{
FlashWrite( ANY_ADDR, (uCPUBusType)CMD(0x00F0) ); /* Use single instruction cycle method */
rRetVal=Flash_BlockEraseFailed;
}
OS_Unuse(&mSemaFlashDrv);
return rRetVal;
}
/*****************************************************************************
*
* The purpose of this function is to illustrate how to use the XQspiPs
* device driver in single, parallel and stacked modes using
* flash devices greater than 128Mb.
* This function reads and writes data in I/O mode.
*
* @param None.
*
* @return XST_SUCCESS if successful, else XST_FAILURE.
*
* @note None.
*
*****************************************************************************/
int QspiG128FlashExample(XQspiPs *QspiInstancePtr, u16 QspiDeviceId)
{
int Status;
u8 UniqueValue;
int Count;
int Page;
XQspiPs_Config *QspiConfig;
/*
* Initialize the QSPI driver so that it's ready to use
*/
QspiConfig = XQspiPs_LookupConfig(QspiDeviceId);
if (NULL == QspiConfig) {
return XST_FAILURE;
}
Status = XQspiPs_CfgInitialize(QspiInstancePtr, QspiConfig,
QspiConfig->BaseAddress);
if (Status != XST_SUCCESS) {
return XST_FAILURE;
}
/*
* Perform a self-test to check hardware build
*/
Status = XQspiPs_SelfTest(QspiInstancePtr);
if (Status != XST_SUCCESS) {
return XST_FAILURE;
}
/*
* Set the pre-scaler for QSPI clock
*/
XQspiPs_SetClkPrescaler(QspiInstancePtr, XQSPIPS_CLK_PRESCALE_8);
/*
* Set Manual Start and Manual Chip select options and drive the
* HOLD_B high.
*/
XQspiPs_SetOptions(QspiInstancePtr, XQSPIPS_FORCE_SSELECT_OPTION |
XQSPIPS_MANUAL_START_OPTION |
XQSPIPS_HOLD_B_DRIVE_OPTION);
if(QspiConfig->ConnectionMode == XQSPIPS_CONNECTION_MODE_STACKED) {
/*
* Enable two flash memories, Shared bus (NOT separate bus),
* L_PAGE selected by default
*/
XQspiPs_SetLqspiConfigReg(QspiInstancePtr, DUAL_STACK_CONFIG_WRITE);
}
if(QspiConfig->ConnectionMode == XQSPIPS_CONNECTION_MODE_PARALLEL) {
/*
* Enable two flash memories on separate buses
*/
XQspiPs_SetLqspiConfigReg(QspiInstancePtr, DUAL_QSPI_CONFIG_WRITE);
}
/*
* Assert the Flash chip select.
*/
XQspiPs_SetSlaveSelect(QspiInstancePtr);
/*
* Read flash ID and obtain all flash related information
* It is important to call the read id function before
* performing proceeding to any operation, including
* preparing the WriteBuffer
*/
FlashReadID(QspiInstancePtr, WriteBuffer, ReadBuffer);
/*
* Initialize MaxData according to page size.
*/
MaxData = PAGE_COUNT * (Flash_Config_Table[FCTIndex].PageSize);
/*
* Initialize the write buffer for a pattern to write to the Flash
* and the read buffer to zero so it can be verified after the read, the
* test value that is added to the unique value allows the value to be
* changed in a debug environment to guarantee
*/
for (UniqueValue = UNIQUE_VALUE, Count = 0;
Count < Flash_Config_Table[FCTIndex].PageSize;
Count++, UniqueValue++) {
WriteBuffer[DATA_OFFSET + Count] = (u8)(UniqueValue + Test);
}
memset(ReadBuffer, 0x00, sizeof(ReadBuffer));
/*
* Erase the flash.
*/
FlashErase(QspiInstancePtr, TEST_ADDRESS, MaxData, WriteBuffer);
/*
* Write the data in the write buffer to the serial Flash a page at a
* time, starting from TEST_ADDRESS
*/
for (Page = 0; Page < PAGE_COUNT; Page++) {
FlashWrite(QspiInstancePtr,
(Page * Flash_Config_Table[FCTIndex].PageSize) + TEST_ADDRESS,
Flash_Config_Table[FCTIndex].PageSize, WRITE_CMD, WriteBuffer);
}
/*
* I/O Read - for any flash size
*/
FlashRead(QspiInstancePtr, TEST_ADDRESS, MaxData, QUAD_READ_CMD,
WriteBuffer, ReadBuffer);
/*
* Setup a pointer to the start of the data that was read into the read
* buffer and verify the data read is the data that was written
*/
for (UniqueValue = UNIQUE_VALUE, Count = 0; Count < MaxData;
Count++, UniqueValue++) {
if (ReadBuffer[Count] != (u8)(UniqueValue + Test)) {
return XST_FAILURE;
}
}
/*
* Initialize the write buffer for a pattern to write to the Flash
* and the read buffer to zero so it can be verified after the read, the
* test value that is added to the unique value allows the value to be
* changed in a debug environment to guarantee
*/
for (UniqueValue = UNIQUE_VALUE, Count = 0;
Count < Flash_Config_Table[FCTIndex].PageSize;
Count++, UniqueValue++) {
WriteBuffer[DATA_OFFSET + Count] = (u8)(UniqueValue + Test);
}
memset(ReadBuffer, 0x00, sizeof(ReadBuffer));
/*
* Set Auto Start and Manual Chip select options and drive the
* HOLD_B high.
*/
XQspiPs_SetOptions(QspiInstancePtr, XQSPIPS_FORCE_SSELECT_OPTION |
XQSPIPS_HOLD_B_DRIVE_OPTION);
/*
* Erase the flash.
*/
FlashErase(QspiInstancePtr, TEST_ADDRESS, MaxData, WriteBuffer);
/*
* Write the data in the write buffer to the serial Flash a page at a
* time, starting from TEST_ADDRESS
*/
for (Page = 0; Page < PAGE_COUNT; Page++) {
FlashWrite(QspiInstancePtr,
(Page * Flash_Config_Table[FCTIndex].PageSize) + TEST_ADDRESS,
Flash_Config_Table[FCTIndex].PageSize, WRITE_CMD, WriteBuffer);
}
/*
* I/O Read - for any flash size
*/
FlashRead(QspiInstancePtr, TEST_ADDRESS, MaxData, QUAD_READ_CMD,
WriteBuffer, ReadBuffer);
/*
* Setup a pointer to the start of the data that was read into the read
* buffer and verify the data read is the data that was written
*/
for (UniqueValue = UNIQUE_VALUE, Count = 0; Count < MaxData;
Count++, UniqueValue++) {
if (ReadBuffer[Count] != (u8)(UniqueValue + Test)) {
return XST_FAILURE;
}
}
return XST_SUCCESS;
}
/*****************************************************************************
*
* The purpose of this function is to illustrate how to use the XSpiPs
* device driver in interrupt mode. This function writes and reads data
* from a serial FLASH.
*
* @param None.
*
* @return XST_SUCCESS if successful else XST_FAILURE.
*
* @note
*
* This function calls other functions which contain loops that may be infinite
* if interrupts are not working such that it may not return. If the device
* slave select is not correct and the device is not responding on bus it will
* read a status of 0xFF for the status register as the bus is pulled up.
*
*****************************************************************************/
int SpiFlashIntrExample(XScuGic *IntcInstancePtr, XSpiPs *SpiInstancePtr,
u16 SpiDeviceId, u16 SpiIntrId)
{
int Status;
u8 *BufferPtr;
u8 UniqueValue;
u32 Count;
XSpiPs_Config *ConfigPtr; /* Pointer to Configuration ROM data */
u32 TempAddress;
u32 MaxSize = MAX_DATA;
u32 ChipSelect = FLASH_SPI_SELECT_1;
if (XGetPlatform_Info() == XPLAT_ZYNQ_ULTRA_MP) {
MaxSize = 1024 * 10;
ChipSelect = FLASH_SPI_SELECT_0; /* Device is on CS 0 */
SpiIntrId = XPAR_XSPIPS_0_INTR;
}
/*
* Lookup the device configuration in the temporary CROM table. Use this
* configuration info down below when initializing this component.
*/
ConfigPtr = XSpiPs_LookupConfig(SpiDeviceId);
if (ConfigPtr == NULL) {
return XST_DEVICE_NOT_FOUND;
}
XSpiPs_CfgInitialize(SpiInstancePtr, ConfigPtr,
ConfigPtr->BaseAddress);
/* Initialize the XILISF Library */
XIsf_Initialize(&Isf, SpiInstancePtr, ChipSelect,
IsfWriteBuffer);
XIsf_SetTransferMode(&Isf, XISF_INTERRUPT_MODE);
/*
* Connect the Spi device to the interrupt subsystem such that
* interrupts can occur. This function is application specific
*/
Status = SpiSetupIntrSystem(IntcInstancePtr, SpiInstancePtr,
SpiIntrId);
if (Status != XST_SUCCESS) {
return XST_FAILURE;
}
/*
* Setup the handler for the SPI that will be called from the
* interrupt context when an SPI status occurs, specify a pointer to
* the SPI driver instance as the callback reference so the handler is
* able to access the instance data
*/
XIsf_SetStatusHandler(&Isf, SpiInstancePtr,
(XSpiPs_StatusHandler) SpiHandler);
memset(WriteBuffer, 0x00, sizeof(WriteBuffer));
memset(ReadBuffer, 0x00, sizeof(ReadBuffer));
/* Unprotect Sectors */
FlashWrite(&Isf, 0, 0, XISF_WRITE_STATUS_REG);
FlashErase(&Isf, TEST_ADDRESS, MaxSize);
/*
* Initialize the write buffer for a pattern to write to the FLASH
* and the read buffer to zero so it can be verified after the read, the
* test value that is added to the unique value allows the value to be
* changed in a debug environment to guarantee
*/
TempAddress = TEST_ADDRESS;
for (UniqueValue = UNIQUE_VALUE, Count = 0; Count < MaxSize;
Count++, UniqueValue++, TempAddress++) {
WriteBuffer[0] = (u8)(UniqueValue);
FlashWrite(&Isf, TempAddress, 1, XISF_WRITE);
}
/*
* Read the contents of the FLASH from TEST_ADDRESS, using Normal Read
* command
*/
FlashRead(&Isf, TEST_ADDRESS, MaxSize, XISF_READ);
/*
* Setup a pointer to the start of the data that was read into the read
* buffer and verify the data read is the data that was written
*/
BufferPtr = &ReadBuffer[DATA_OFFSET];
for (UniqueValue = UNIQUE_VALUE, Count = 0; Count < MaxSize;
Count++, UniqueValue++) {
if (BufferPtr[Count] != (u8)(UniqueValue)) {
return XST_FAILURE;
}
}
SpiDisableIntrSystem(IntcInstancePtr, SpiIntrId);
return XST_SUCCESS;
}
/*****************************************************************************
*
* The purpose of this function is to illustrate how to use the XQspiPs
* device driver in Linear mode. This function writes data to the serial
* FLASH in QSPI mode and reads data in Linear QSPI mode.
*
* @param None.
*
* @return XST_SUCCESS if successful, else XST_FAILURE.
*
* @note None.
*
*****************************************************************************/
int LinearQspiFlashExample(XQspiPs *QspiInstancePtr, u16 QspiDeviceId)
{
int Status;
u8 UniqueValue;
int Count;
int Page;
XQspiPs_Config *QspiConfig;
/*
* Initialize the QSPI driver so that it's ready to use
*/
QspiConfig = XQspiPs_LookupConfig(QspiDeviceId);
if (NULL == QspiConfig) {
return XST_FAILURE;
}
Status = XQspiPs_CfgInitialize(QspiInstancePtr, QspiConfig,
QspiConfig->BaseAddress);
if (Status != XST_SUCCESS) {
return XST_FAILURE;
}
/*
* Perform a self-test to check hardware build
*/
Status = XQspiPs_SelfTest(QspiInstancePtr);
if (Status != XST_SUCCESS) {
return XST_FAILURE;
}
/*
* Initialize the write buffer for a pattern to write to the FLASH
* and the read buffer to zero so it can be verified after the read, the
* test value that is added to the unique value allows the value to be
* changed in a debug environment to guarantee
*/
for (UniqueValue = UNIQUE_VALUE, Count = 0; Count < PAGE_SIZE;
Count++, UniqueValue++) {
WriteBuffer[DATA_OFFSET + Count] = (u8)(UniqueValue + Test);
}
memset(ReadBuffer, 0x00, sizeof(ReadBuffer));
/*
* Set the prescaler for QSPI clock
*/
XQspiPs_SetClkPrescaler(QspiInstancePtr, XQSPIPS_CLK_PRESCALE_8);
/*
* Set Manual Start and Manual Chip select options and drive the
* HOLD_B high.
*/
XQspiPs_SetOptions(QspiInstancePtr, XQSPIPS_FORCE_SSELECT_OPTION |
XQSPIPS_MANUAL_START_OPTION |
XQSPIPS_HOLD_B_DRIVE_OPTION);
/*
* Assert the FLASH chip select.
*/
XQspiPs_SetSlaveSelect(QspiInstancePtr);
FlashReadID();
/*
* Erase the flash.
*/
FlashErase(QspiInstancePtr, TEST_ADDRESS, MAX_DATA);
/*
* Write the data in the write buffer to the serial FLASH a page at a
* time, starting from TEST_ADDRESS
*/
for (Page = 0; Page < PAGE_COUNT; Page++) {
FlashWrite(QspiInstancePtr, (Page * PAGE_SIZE) + TEST_ADDRESS,
PAGE_SIZE, WRITE_CMD);
}
/*
* Read from the flash in LQSPI mode.
*/
XQspiPs_SetOptions(QspiInstancePtr, XQSPIPS_LQSPI_MODE_OPTION |
XQSPIPS_HOLD_B_DRIVE_OPTION);
Status = XQspiPs_LqspiRead(QspiInstancePtr, ReadBuffer, TEST_ADDRESS,
MAX_DATA);
if (Status != XST_SUCCESS) {
return XST_FAILURE;
}
/*
* Setup a pointer to the start of the data that was read into the read
* buffer and verify the data read is the data that was written
*/
for (UniqueValue = UNIQUE_VALUE, Count = 0; Count < MAX_DATA;
Count++, UniqueValue++) {
if (ReadBuffer[Count] != (u8)(UniqueValue + Test)) {
return XST_FAILURE;
}
}
/*
* Initialize the write buffer for a pattern to write to the FLASH
* and the read buffer to zero so it can be verified after the read, the
* test value that is added to the unique value allows the value to be
* changed in a debug environment to guarantee
*/
for (UniqueValue = UNIQUE_VALUE, Count = 0; Count < PAGE_SIZE;
Count++, UniqueValue++) {
WriteBuffer[DATA_OFFSET + Count] = (u8)(UniqueValue + Test);
}
memset(ReadBuffer, 0x00, sizeof(ReadBuffer));
/*
* Set Auto Start and Manual Chip select options and drive the
* HOLD_B high.
*/
XQspiPs_SetOptions(QspiInstancePtr, XQSPIPS_FORCE_SSELECT_OPTION |
XQSPIPS_HOLD_B_DRIVE_OPTION);
/*
* Erase the flash.
*/
FlashErase(QspiInstancePtr, TEST_ADDRESS, MAX_DATA);
/*
* Write the data in the write buffer to the serial FLASH a page at a
* time, starting from TEST_ADDRESS
*/
for (Page = 0; Page < PAGE_COUNT; Page++) {
FlashWrite(QspiInstancePtr, (Page * PAGE_SIZE) + TEST_ADDRESS,
PAGE_SIZE, WRITE_CMD);
}
/*
* Read from the flash in LQSPI mode.
*/
XQspiPs_SetOptions(QspiInstancePtr, XQSPIPS_LQSPI_MODE_OPTION |
XQSPIPS_HOLD_B_DRIVE_OPTION);
Status = XQspiPs_LqspiRead(QspiInstancePtr, ReadBuffer, TEST_ADDRESS,
MAX_DATA);
if (Status != XST_SUCCESS) {
return XST_FAILURE;
}
/*
* Setup a pointer to the start of the data that was read into the read
* buffer and verify the data read is the data that was written
*/
for (UniqueValue = UNIQUE_VALUE, Count = 0; Count < MAX_DATA;
Count++, UniqueValue++) {
if (ReadBuffer[Count] != (u8)(UniqueValue + Test)) {
return XST_FAILURE;
}
}
return XST_SUCCESS;
}
int SpiFlashPolledExample(XSpiPs *SpiInstancePtr,
u16 SpiDeviceId)
{
u8 *BufferPtr;
u8 UniqueValue;
u32 Count;
XSpiPs_Config *ConfigPtr; /* Pointer to Configuration ROM data */
u32 TempAddress;
/*
* Lookup the device configuration in the temporary CROM table. Use this
* configuration info down below when initializing this component.
*/
ConfigPtr = XSpiPs_LookupConfig(SpiDeviceId);
if (ConfigPtr == NULL) {
return XST_DEVICE_NOT_FOUND;
}
XSpiPs_CfgInitialize(SpiInstancePtr, ConfigPtr,
ConfigPtr->BaseAddress);
/* Initialize the XILISF Library */
XIsf_Initialize(&Isf, SpiInstancePtr, FLASH_SPI_SELECT,
IsfWriteBuffer);
memset(WriteBuffer, 0x00, sizeof(WriteBuffer));
memset(ReadBuffer, 0x00, sizeof(ReadBuffer));
/* Unprotect Sectors */
FlashWrite(&Isf, 0, 0, XISF_WRITE_STATUS_REG);
FlashErase(&Isf, TEST_ADDRESS, MAX_DATA);
/*
* Initialize the write buffer for a pattern to write to the FLASH
* and the read buffer to zero so it can be verified after the read, the
* test value that is added to the unique value allows the value to be
* changed in a debug environment to guarantee
*/
TempAddress = TEST_ADDRESS;
for (UniqueValue = UNIQUE_VALUE, Count = 0; Count < MAX_DATA;
Count++, UniqueValue++, TempAddress++) {
WriteBuffer[0] = (u8)(UniqueValue);
FlashWrite(&Isf, TempAddress, 1, XISF_WRITE);
}
/*
* Read the contents of the FLASH from TEST_ADDRESS, using Normal Read
* command
*/
FlashRead(&Isf, TEST_ADDRESS, MAX_DATA, XISF_READ);
/*
* Setup a pointer to the start of the data that was read into the read
* buffer and verify the data read is the data that was written
*/
BufferPtr = &ReadBuffer[DATA_OFFSET];
for (UniqueValue = UNIQUE_VALUE, Count = 0; Count < MAX_DATA;
Count++, UniqueValue++) {
if (BufferPtr[Count] != (u8)(UniqueValue)) {
return XST_FAILURE;
}
}
return XST_SUCCESS;
}
/*****************************************************************************
*
* The purpose of this function is to illustrate how to use the XQspiPs
* device driver in Linear mode. This function writes data to the serial
* FLASH in QSPI mode and reads data in Linear QSPI mode.
*
* @param None.
*
* @return XST_SUCCESS if successful, else XST_FAILURE.
*
* @note None.
*
*****************************************************************************/
int LinearQspiFlashExample(XQspiPs *QspiInstancePtr, u16 QspiDeviceId)
{
int Status;
u8 UniqueValue;
int Count;
int Page;
XQspiPs_Config *QspiConfig;
/*
* Initialize the QSPI driver so that it's ready to use
*/
QspiConfig = XQspiPs_LookupConfig(QspiDeviceId);
if (NULL == QspiConfig) {
return XST_FAILURE;
}
Status = XQspiPs_CfgInitialize(QspiInstancePtr, QspiConfig,
QspiConfig->BaseAddress);
if (Status != XST_SUCCESS) {
return XST_FAILURE;
}
/*
* Perform a self-test to check hardware build
*/
Status = XQspiPs_SelfTest(QspiInstancePtr);
if (Status != XST_SUCCESS) {
return XST_FAILURE;
}
/*
* Enable two flash memories on seperate buses
*/
XQspiPs_SetLqspiConfigReg(QspiInstancePtr, DUAL_QSPI_CONFIG_WRITE);
/*
* Set the QSPI device as a master and enable manual CS, manual start
* and flash interface mode options and drive HOLD_B pin high.
*/
XQspiPs_SetOptions(QspiInstancePtr, XQSPIPS_FORCE_SSELECT_OPTION |
XQSPIPS_MANUAL_START_OPTION |
XQSPIPS_HOLD_B_DRIVE_OPTION);
XQspiPs_SetClkPrescaler(QspiInstancePtr, XQSPIPS_CLK_PRESCALE_8);
/*
* Initialize the write buffer for a pattern to write to the FLASH
* and the read buffer to zero so it can be verified after the read, the
* test value that is added to the unique value allows the value to be
* changed in a debug environment to guarantee
*/
for (UniqueValue = UNIQUE_VALUE, Count = 0; Count < PAGE_SIZE;
Count++, UniqueValue++) {
WriteBuffer[DATA_OFFSET + Count] = (u8)(UniqueValue + Test);
}
memset(ReadBuffer, 0x00, sizeof(ReadBuffer));
/*
* Assert the FLASH chip select.
*/
XQspiPs_SetSlaveSelect(QspiInstancePtr);
/*
* Erase the flash sectors
*/
FlashErase(QspiInstancePtr, TEST_ADDRESS, MAX_DATA);
/*
* Write data to the two flash memories on seperate buses, starting from
* TEST_ADDRESS. This is same as writing to a single flash memory. The
* LQSPI controller takes care of splitting the data words and writing
* them to the two flash memories. The user needs to take care of the
* address translation
*/
for (Page = 0; Page < PAGE_COUNT; Page++) {
FlashWrite(QspiInstancePtr, ((Page * PAGE_SIZE) +
TEST_ADDRESS) / 2, PAGE_SIZE, WRITE_CMD);
}
/*
* Read from the two flash memories on seperate buses in LQSPI mode.
*/
XQspiPs_SetOptions(QspiInstancePtr, XQSPIPS_LQSPI_MODE_OPTION |
XQSPIPS_HOLD_B_DRIVE_OPTION);
XQspiPs_SetLqspiConfigReg(QspiInstancePtr, DUAL_QSPI_CONFIG_QUAD_READ);
Status = XQspiPs_LqspiRead(QspiInstancePtr, ReadBuffer, TEST_ADDRESS,
MAX_DATA);
if (Status != XST_SUCCESS) {
return XST_FAILURE;
}
/*
* Setup a pointer to the start of the data that was read into the read
* buffer and verify the data read is the data that was written
*/
for (UniqueValue = UNIQUE_VALUE, Count = 0; Count < MAX_DATA;
Count++, UniqueValue++) {
if (ReadBuffer[Count] != WriteBuffer[DATA_OFFSET +
(Count % PAGE_SIZE)]) {
return XST_FAILURE;
}
}
/*
* Set the QSPI device as a master and enable manual CS, manual start
* and flash interface mode options and drive HOLD_B pin high.
*/
XQspiPs_SetOptions(QspiInstancePtr, XQSPIPS_FORCE_SSELECT_OPTION |
XQSPIPS_HOLD_B_DRIVE_OPTION);
/*
* Initialize the write buffer for a pattern to write to the FLASH
* and the read buffer to zero so it can be verified after the read, the
* test value that is added to the unique value allows the value to be
* changed in a debug environment to guarantee
*/
for (UniqueValue = UNIQUE_VALUE, Count = 0; Count < PAGE_SIZE;
Count++, UniqueValue++) {
WriteBuffer[DATA_OFFSET + Count] = (u8)(UniqueValue + Test);
}
memset(ReadBuffer, 0x00, sizeof(ReadBuffer));
/*
* Erase the flash sectors
*/
FlashErase(QspiInstancePtr, TEST_ADDRESS, MAX_DATA);
/*
* Write data to the two flash memories on seperate buses, starting from
* TEST_ADDRESS. This is same as writing to a single flash memory. The
* LQSPI controller takes care of splitting the data words and writing
* them to the two flash memories. The user needs to take care of the
* address translation
*/
for (Page = 0; Page < PAGE_COUNT; Page++) {
FlashWrite(QspiInstancePtr, ((Page * PAGE_SIZE) +
TEST_ADDRESS) / 2, PAGE_SIZE, WRITE_CMD);
}
/*
* Read from the two flash memories on seperate buses in LQSPI mode.
*/
XQspiPs_SetOptions(QspiInstancePtr, XQSPIPS_LQSPI_MODE_OPTION |
XQSPIPS_HOLD_B_DRIVE_OPTION);
XQspiPs_SetLqspiConfigReg(QspiInstancePtr, DUAL_QSPI_CONFIG_QUAD_READ);
Status = XQspiPs_LqspiRead(QspiInstancePtr, ReadBuffer, TEST_ADDRESS,
MAX_DATA);
if (Status != XST_SUCCESS) {
return XST_FAILURE;
}
/*
* Setup a pointer to the start of the data that was read into the read
* buffer and verify the data read is the data that was written
*/
for (UniqueValue = UNIQUE_VALUE, Count = 0; Count < MAX_DATA;
Count++, UniqueValue++) {
if (ReadBuffer[Count] != WriteBuffer[DATA_OFFSET +
(Count % PAGE_SIZE)]) {
return XST_FAILURE;
}
}
return XST_SUCCESS;
}
/*****************************************************************************
*
* The purpose of this function is to illustrate how to use the XSpiPs
* device driver in interrupt mode. This function writes and reads data
* from a serial flash.
*
* @param IntcInstancePtr is a pointer to Interrupt Controller instance.
*
* @param SpiInstancePtr is a pointer to the SPI driver instance to use.
*
* @param SpiDeviceId is the Instance Id of SPI in the system.
*
* @param SpiIntrId is the Interrupt Id for SPI in the system.
*
* @param None.
*
* @return
* - XST_SUCCESS if successful
* - XST_FAILURE if not successful
*
* @note
*
* This function calls other functions which contain loops that may be infinite
* if interrupts are not working such that it may not return. If the device
* slave select is not correct and the device is not responding on bus it will
* read a status of 0xFF for the status register as the bus is pulled up.
*
*****************************************************************************/
int SpiPsFlashIntrExample(XScuGic *IntcInstancePtr, XSpiPs *SpiInstancePtr,
u16 SpiDeviceId, u16 SpiIntrId)
{
int Status;
u8 *BufferPtr;
u8 UniqueValue;
u32 Count;
u32 MaxSize = MAX_DATA;
u32 ChipSelect = FLASH_SPI_SELECT_1;
XSpiPs_Config *SpiConfig;
if (XGetPlatform_Info() == XPLAT_ZYNQ_ULTRA_MP) {
MaxSize = 1024 * 10;
ChipSelect = FLASH_SPI_SELECT_0; /* Device is on CS 0 */
SpiIntrId = XPAR_XSPIPS_0_INTR;
}
/*
* Initialize the SPI driver so that it's ready to use
*/
SpiConfig = XSpiPs_LookupConfig(SpiDeviceId);
if (NULL == SpiConfig) {
return XST_FAILURE;
}
Status = XSpiPs_CfgInitialize(SpiInstancePtr, SpiConfig,
SpiConfig->BaseAddress);
if (Status != XST_SUCCESS) {
return XST_FAILURE;
}
/*
* Perform a self-test to check hardware build
*/
Status = XSpiPs_SelfTest(SpiInstancePtr);
if (Status != XST_SUCCESS) {
return XST_FAILURE;
}
/*
* Connect the Spi device to the interrupt subsystem such that
* interrupts can occur. This function is application specific
*/
Status = SpiPsSetupIntrSystem(IntcInstancePtr, SpiInstancePtr,
SpiIntrId);
if (Status != XST_SUCCESS) {
return XST_FAILURE;
}
/*
* Setup the handler for the SPI that will be called from the
* interrupt context when an SPI status occurs, specify a pointer to
* the SPI driver instance as the callback reference so the handler is
* able to access the instance data
*/
XSpiPs_SetStatusHandler(SpiInstancePtr, SpiInstancePtr,
(XSpiPs_StatusHandler) SpiPsHandler);
/*
* Set the SPI device as a master with manual start and manual
* chip select mode options
*/
XSpiPs_SetOptions(SpiInstancePtr, XSPIPS_MANUAL_START_OPTION | \
XSPIPS_MASTER_OPTION | XSPIPS_FORCE_SSELECT_OPTION);
/*
* Set the SPI device pre-scalar to divide by 8
*/
XSpiPs_SetClkPrescaler(SpiInstancePtr, XSPIPS_CLK_PRESCALE_8);
memset(WriteBuffer, 0x00, sizeof(WriteBuffer));
memset(ReadBuffer, 0x00, sizeof(ReadBuffer));
/*
* Initialize the write buffer for a pattern to write to the flash
* and the read buffer to zero so it can be verified after the read, the
* test value that is added to the unique value allows the value to be
* changed in a debug environment to guarantee
*/
for (UniqueValue = UNIQUE_VALUE, Count = 0; Count < MaxSize;
Count++, UniqueValue++) {
WriteBuffer[DATA_OFFSET + Count] = (u8)(UniqueValue);
}
/*
* Assert the flash chip select
*/
XSpiPs_SetSlaveSelect(SpiInstancePtr, ChipSelect);
/*
* Read the flash ID
*/
Status = FlashReadID(SpiInstancePtr);
if (Status != XST_SUCCESS) {
xil_printf("SPI FLASH Interrupt Example Read ID Failed\r\n");
return XST_FAILURE;
}
/*
* Erase the flash
*/
FlashErase(SpiInstancePtr);
/*
* Write the data in the write buffer to TestAddress in serial flash
*/
FlashWrite(SpiInstancePtr, TestAddress, MaxSize, WRITE_CMD);
/*
* Read the contents of the flash from TestAddress of size MAX_DATA
* using Normal Read command
*/
FlashRead(SpiInstancePtr, TestAddress, MaxSize, READ_CMD);
/*
* Setup a pointer to the start of the data that was read into the read
* buffer and verify the data read is the data that was written
*/
BufferPtr = &ReadBuffer[DATA_OFFSET];
for (UniqueValue = UNIQUE_VALUE, Count = 0; Count < MaxSize;
Count++, UniqueValue++) {
if (BufferPtr[Count] != (u8)(UniqueValue)) {
return XST_FAILURE;
}
}
/*
* Set the SPI device as a master with auto start and manual
* chip select mode options
*/
XSpiPs_SetOptions(SpiInstancePtr, XSPIPS_MASTER_OPTION | \
XSPIPS_FORCE_SSELECT_OPTION);
memset(WriteBuffer, 0x00, sizeof(WriteBuffer));
memset(ReadBuffer, 0x00, sizeof(ReadBuffer));
/*
* Initialize the write buffer for a pattern to write to the flash
* and the read buffer to zero so it can be verified after the read, the
* test value that is added to the unique value allows the value to be
* changed in a debug environment to guarantee
*/
for (UniqueValue = UNIQUE_VALUE, Count = 0; Count < MaxSize;
Count++, UniqueValue++) {
WriteBuffer[DATA_OFFSET + Count] = (u8)(UniqueValue);
}
/*
* Erase the flash
*/
FlashErase(SpiInstancePtr);
/*
* Write the data in the write buffer to TestAddress in serial flash
*/
FlashWrite(SpiInstancePtr, TestAddress, MaxSize, WRITE_CMD);
/*
* Read the contents of the flash from TestAddress of size MAX_DATA
* using Normal Read command
*/
FlashRead(SpiInstancePtr, TestAddress, MaxSize, READ_CMD);
/*
* Setup a pointer to the start of the data that was read into the read
* buffer and verify the data read is the data that was written
*/
BufferPtr = &ReadBuffer[DATA_OFFSET];
for (UniqueValue = UNIQUE_VALUE, Count = 0; Count < MaxSize;
Count++, UniqueValue++) {
if (BufferPtr[Count] != (u8)(UniqueValue)) {
return XST_FAILURE;
}
}
SpiPsDisableIntrSystem(IntcInstancePtr, SpiIntrId);
return XST_SUCCESS;
}
int main(int argc,char **argv)
{
int index ; /* used in argument processing */
int erase = FALSE ; /* perform erase on FlashEPROM */
int verify = FALSE ; /* verify file against FlashEPROM (do not program) */
char *infile = NULL ; /* input filename */
word filesize ; /* input file size in bytes */
char *buffer ; /* image file buffer */
FILE *ihand ; /* input FILE handle */
/* verify FlashEPROM presence */
if (!FlashCheck())
{
fprintf(stderr,"%s: FlashEPROM not found\n",whoami) ;
exit(9) ;
}
for (index=1; (index < argc); index++)
{
if (argv[index][0] == '-')
{
switch (argv[index][1])
{
case 'h' : /* help */
usage() ;
case 'e' : /* erase */
erase = TRUE ;
break ;
case 'v' : /* verify */
verify = TRUE ;
break ;
}
}
else
{
/* default input file */
if (infile == NULL)
{
infile = argv[index] ;
if (!checkimage(infile,&filesize))
{
fprintf(stderr,"%s: \"%s\" not found\n",whoami,infile) ;
exit(2) ;
}
if (filesize > flash_size)
{
fprintf(stderr,"%s: specified file bigger than &%08X bytes\n",whoami,flash_size) ;
exit(3) ;
}
}
else
{
fprintf(stderr,"%s: unrecognised arg \"%s\"\n",whoami,argv[index]) ;
exit(4) ;
}
}
}
if (erase && verify)
{
fprintf(stderr,"%s: -e and -v are mutually exclusive\n",whoami) ;
exit(5) ;
}
if ((infile == NULL) && !erase)
{
fprintf(stderr,"%s: Image file not specified\n",whoami) ;
exit(5) ;
}
/* Erase the FlashEPROM is the user desires */
if (erase)
{
if ((index = FlashErase()) != -1)
{
fprintf(stderr,"%s: FlashEPROM erase failed at index &%08X\n",whoami,index) ;
exit(10) ;
}
}
if (infile != NULL)
{
if ((buffer = (char *)malloc(filesize)) == NULL)
{
fprintf(stderr,"%s: unable to allocate image buffer memory\n",whoami) ;
exit(6) ;
}
if ((ihand = fopen(infile,"r")) == NULL)
{
fprintf(stderr,"%s: unable to open file \"%s\"\n",whoami,infile) ;
exit(7) ;
}
if (fread(buffer,filesize,1,ihand) != 1)
{
fprintf(stderr,"%s: unable to read data from file \"%s\"\n",whoami,infile);
exit(8) ;
}
fclose(ihand) ;
if (verify)
{
if ((index = FlashVerify(buffer,filesize)) != -1)
{
fprintf(stderr,"%s: verify failed at index &%08X\n",whoami,index) ;
exit(10) ;
}
}
else
{
if ((index = FlashWrite(buffer,filesize)) != -1)
{
fprintf(stderr,"%s: write failed at index &%08X\n",whoami,index) ;
exit(10) ;
}
}
}
return(0) ;
}
//---------------------------------------------------
//用户使用按键设定的参数
//退出设定时保存参数
//------------------------------------------------
void SaveParameters(unsigned char *pTable)
{
FlashPageErase(0x6A00,SELECT_64K);
FlashWrite(0x6A00,pTable,15,SELECT_64K);
WDog_Feed();
}
int main(int argc, char *argv[])
{
int opt;
char options[] = "r:w:f:l:o:c:?";
int fd, method;
unsigned char buffer[FLASH_MAX_RW_SIZE];
int i=0;
unsigned int *src;
unsigned int *dst;
unsigned int value;
unsigned int bytes;
unsigned int start_addr;
unsigned int end_addr;
if (argc < 3)
{
show_usage();
return 0;
}
while ((opt = getopt (argc, argv, options)) != -1)
{
switch (opt)
{
case 'r':
dst = (unsigned int *)buffer;
src = (unsigned int *)strtol(optarg, NULL, 16);
method = FLASH_IOCTL_READ;
break;
case 'w':
dst = (unsigned int *)strtol(optarg, NULL, 16);
method = FLASH_IOCTL_WRITE;
break;
case 'f':
start_addr=strtol(optarg, NULL, 16);
method = FLASH_IOCTL_ERASE;
break;
case 'l':
end_addr=strtol(optarg, NULL, 16);
method = FLASH_IOCTL_ERASE;
break;
case 'c':
bytes=strtol(optarg,NULL,10);
if(bytes > FLASH_MAX_RW_SIZE)
{
printf("Too many bytes - %d > %d bytes\n", bytes, FLASH_MAX_RW_SIZE);
return 0;
}
break;
case 'o':
value=strtol(optarg, NULL, 16);
break;
case '?':
show_usage();
}
}
switch(method)
{
case FLASH_IOCTL_READ:
if(FlashRead(dst,src, bytes)<0)
{
printf("READ: Out of scope\n");
}
else
{
for(i=0; i<bytes; i++)
{
printf("%X: %X\n", ((unsigned int)src)+i, buffer[i]);
}
}
break;
case FLASH_IOCTL_WRITE:
if(FlashWrite(&value, dst, 1)<0)
{
printf("WRITE: Out of scope\n");
}
else
{
printf("Write %0X to %0X\n", value, dst);
}
break;
case FLASH_IOCTL_ERASE:
if(end_addr<start_addr)
{
printf("ERASE: End addr MUST bigger than Start addr\n");
break;
}
if(FlashErase(start_addr, end_addr)<0)
{
printf("ERASE: Out of scope\n");
}
else
{
printf("Erase Addr From %0X To %0X\n",start_addr, end_addr);
}
break;
}
return 0;
}
/**
* The purpose of this function is to illustrate how to use the XQspiPs
* device driver in interrupt mode. This function writes and reads data
* from a serial FLASH.
*
* @return XST_SUCCESS if successful else XST_FAILURE.
*
* @note
*
* This function calls other functions which contain loops that may be infinite
* if interrupts are not working such that it may not return. If the device
* slave select is not correct and the device is not responding on bus it will
* read a status of 0xFF for the status register as the bus is pulled up.
*
*****************************************************************************/
int QspiFlashPollExample(XScuGic *IntcInstancePtr, XQspiPs *QspiInstancePtr,
u16 QspiDeviceId, u16 QspiIntrId)
{
u8 *BufferPtr;
u8 UniqueValue;
int Count;
int Page;
int Status;
u32 Options;
/*
* Lookup the device configuration in the temporary CROM table. Use this
* configuration info down below when initializing this component.
*/
ConfigPtr = XQspiPs_LookupConfig(QspiDeviceId);
if (ConfigPtr == NULL) {
return XST_DEVICE_NOT_FOUND;
}
Status = XQspiPs_CfgInitialize(QspiInstancePtr, ConfigPtr,
ConfigPtr->BaseAddress);
if (Status != XST_SUCCESS) {
return XST_FAILURE;
}
/*
* Set the QSPI options
*/
Options = XQSPIPS_FORCE_SSELECT_OPTION |
XQSPIPS_MANUAL_START_OPTION |
XQSPIPS_HOLD_B_DRIVE_OPTION;
XIsf_SetSpiConfiguration(&Isf, QspiInstancePtr, Options,
XISF_SPI_PRESCALER);
if(ConfigPtr->ConnectionMode == XQSPIPS_CONNECTION_MODE_STACKED) {
/*
* Enable two flash memories, Shared bus
* (NOT separate bus), L_PAGE selected by default
*/
XQspiPs_SetLqspiConfigReg(QspiInstancePtr,
DUAL_STACK_CONFIG_WRITE);
}
if(ConfigPtr->ConnectionMode == XQSPIPS_CONNECTION_MODE_PARALLEL) {
/*
* Enable two flash memories on separate buses
*/
XQspiPs_SetLqspiConfigReg(QspiInstancePtr,
DUAL_QSPI_CONFIG_WRITE);
}
/* Initialize the XILISF Library */
XIsf_Initialize(&Isf, QspiInstancePtr, FLASH_QSPI_SELECT,
IsfWriteBuffer);
/*
* Initialize the write buffer for a pattern to write to the FLASH
* and the read buffer to zero so it can be verified after the read,
* the test value that is added to the unique value allows the value
* to be changed in a debug environment to guarantee
*/
for (UniqueValue = UNIQUE_VALUE, Count = 0; Count < PAGE_SIZE;
Count++, UniqueValue++) {
WriteBuffer[Count] = (u8)(UniqueValue + Test_Polled);
}
memset(ReadBuffer, 0x00, sizeof(ReadBuffer));
Status = FlashErase(&Isf, TEST_ADDRESS, MAX_DATA);
if(Status != XST_SUCCESS){
return XST_FAILURE;
}
/*
* Write the data in the write buffer to the serial FLASH a page at a
* time, starting from TEST_ADDRESS
*/
for (Page = 0; Page < PAGE_COUNT; Page++) {
Status = FlashWrite(&Isf,
(Page * PAGE_SIZE) + TEST_ADDRESS, PAGE_SIZE,
XISF_QUAD_IP_PAGE_WRITE);
if(Status != XST_SUCCESS){
return XST_FAILURE;
}
}
/******************************************************
**********************NORMAL READ*********************
******************************************************/
/*
* Read the contents of the FLASH from TEST_ADDRESS, using Normal Read
* command
*/
Status = FlashRead(&Isf, TEST_ADDRESS, MAX_DATA, XISF_READ);
if(Status != XST_SUCCESS){
return XST_FAILURE;
}
/*
* Setup a pointer to the start of the data that was read into the read
* buffer and verify the data read is the data that was written
*/
BufferPtr = ReadBuffer;
for (UniqueValue = UNIQUE_VALUE, Count = 0; Count < MAX_DATA;
Count++, UniqueValue++) {
if (BufferPtr[Count] != (u8)(UniqueValue + Test_Polled)) {
return XST_FAILURE;
}
}
/******************************************************
**********************FAST READ***********************
******************************************************/
/*
* Read the contents of the FLASH from TEST_ADDRESS, using Fast Read
* command
*/
Status = FlashRead(&Isf, TEST_ADDRESS, MAX_DATA,
XISF_FAST_READ);
if(Status != XST_SUCCESS){
return XST_FAILURE;
}
/*
* Setup a pointer to the start of the data that was read into the read
* buffer and verify the data read is the data that was written
*/
BufferPtr = ReadBuffer;
for (UniqueValue = UNIQUE_VALUE, Count = 0; Count < MAX_DATA;
Count++, UniqueValue++) {
if (BufferPtr[Count] != (u8)(UniqueValue + Test_Polled)) {
return XST_FAILURE;
}
}
/******************************************************
******************DUAL OP FAST READ*******************
******************************************************/
/*
* Read the contents of the FLASH from TEST_ADDRESS, using DUAL OP
* Fast Read command
*/
Status = FlashRead(&Isf, TEST_ADDRESS, MAX_DATA,
XISF_DUAL_OP_FAST_READ);
if(Status != XST_SUCCESS){
return XST_FAILURE;
}
/*
* Setup a pointer to the start of the data that was read into the read
* buffer and verify the data read is the data that was written
*/
BufferPtr = ReadBuffer;
for (UniqueValue = UNIQUE_VALUE, Count = 0; Count < MAX_DATA;
Count++, UniqueValue++) {
if (BufferPtr[Count] != (u8)(UniqueValue + Test_Polled)) {
return XST_FAILURE;
}
}
/******************************************************
******************QUAD IO FAST READ*******************
******************************************************/
/*
* Read the contents of the FLASH from TEST_ADDRESS, using QUAD IO
* Fast Read command
*/
Status = FlashRead(&Isf, TEST_ADDRESS, MAX_DATA,
XISF_QUAD_OP_FAST_READ);
if(Status != XST_SUCCESS){
return XST_FAILURE;
}
/*
* Setup a pointer to the start of the data that was read into the read
* buffer and verify the data read is the data that was written
*/
BufferPtr = ReadBuffer;
for (UniqueValue = UNIQUE_VALUE, Count = 0; Count < MAX_DATA;
Count++, UniqueValue++) {
if (BufferPtr[Count] != (u8)(UniqueValue + Test_Polled)) {
return XST_FAILURE;
}
}
return XST_SUCCESS;
}
/*****************************************************************************
*
* The purpose of this function is to illustrate how to use the XQspiPs
* device driver in interrupt mode. This function writes and reads data
* from a serial FLASH.
*
* @param None.
*
* @return XST_SUCCESS if successful else XST_FAILURE.
*
* @note
*
* This function calls other functions which contain loops that may be infinite
* if interrupts are not working such that it may not return. If the device
* slave select is not correct and the device is not responding on bus it will
* read a status of 0xFF for the status register as the bus is pulled up.
*
*****************************************************************************/
int QspiFlashIntrExample(XScuGic *IntcInstancePtr, XQspiPs *QspiInstancePtr,
u16 QspiDeviceId, u16 QspiIntrId)
{
int Status;
u8 *BufferPtr;
u8 UniqueValue;
int Count;
int Page;
XQspiPs_Config *QspiConfig;
/*
* Initialize the QSPI driver so that it's ready to use
*/
QspiConfig = XQspiPs_LookupConfig(QspiDeviceId);
if (NULL == QspiConfig) {
return XST_FAILURE;
}
Status = XQspiPs_CfgInitialize(QspiInstancePtr, QspiConfig,
QspiConfig->BaseAddress);
if (Status != XST_SUCCESS) {
return XST_FAILURE;
}
/*
* Perform a self-test to check hardware build
*/
Status = XQspiPs_SelfTest(QspiInstancePtr);
if (Status != XST_SUCCESS) {
return XST_FAILURE;
}
/*
* Connect the Qspi device to the interrupt subsystem such that
* interrupts can occur. This function is application specific
*/
Status = QspiSetupIntrSystem(IntcInstancePtr, QspiInstancePtr,
QspiIntrId);
if (Status != XST_SUCCESS) {
return XST_FAILURE;
}
/*
* Setup the handler for the QSPI that will be called from the
* interrupt context when an QSPI status occurs, specify a pointer to
* the QSPI driver instance as the callback reference so the handler is
* able to access the instance data
*/
XQspiPs_SetStatusHandler(QspiInstancePtr, QspiInstancePtr,
(XQspiPs_StatusHandler) QspiHandler);
/*
* Set Manual Start and Manual Chip select options and drive the
* HOLD_B high.
*/
XQspiPs_SetOptions(QspiInstancePtr, XQSPIPS_FORCE_SSELECT_OPTION |
XQSPIPS_MANUAL_START_OPTION |
XQSPIPS_HOLD_B_DRIVE_OPTION);
/*
* Set the operating clock frequency using the clock divider
*/
XQspiPs_SetClkPrescaler(QspiInstancePtr, XQSPIPS_CLK_PRESCALE_8);
/*
* Assert the FLASH chip select
*/
XQspiPs_SetSlaveSelect(QspiInstancePtr);
/*
* Initialize the write buffer for a pattern to write to the FLASH
* and the read buffer to zero so it can be verified after the read, the
* test value that is added to the unique value allows the value to be
* changed in a debug environment to guarantee
*/
for (UniqueValue = UNIQUE_VALUE, Count = 0; Count < PAGE_SIZE;
Count++, UniqueValue++) {
WriteBuffer[DATA_OFFSET + Count] = (u8)(UniqueValue + Test);
}
memset(ReadBuffer, 0x00, sizeof(ReadBuffer));
FlashReadID();
/*
* Erase the flash.
*/
FlashErase(QspiInstancePtr, TEST_ADDRESS, MAX_DATA);
/*
* Write the data in the write buffer to the serial FLASH a page at a
* time, starting from TEST_ADDRESS
*/
for (Page = 0; Page < PAGE_COUNT; Page++) {
FlashWrite(QspiInstancePtr, (Page * PAGE_SIZE) + TEST_ADDRESS,
PAGE_SIZE, WRITE_CMD);
}
/*
* Read the contents of the FLASH from TEST_ADDRESS, using Normal Read
* command.
*/
FlashRead(QspiInstancePtr, TEST_ADDRESS, MAX_DATA, READ_CMD);
/*
* Setup a pointer to the start of the data that was read into the read
* buffer and verify the data read is the data that was written
*/
BufferPtr = &ReadBuffer[DATA_OFFSET];
for (UniqueValue = UNIQUE_VALUE, Count = 0; Count < MAX_DATA;
Count++, UniqueValue++) {
if (BufferPtr[Count] != (u8)(UniqueValue + Test)) {
return XST_FAILURE;
}
}
/*
* Read the contents of the FLASH from TEST_ADDRESS, using Fast Read
* command
*/
memset(ReadBuffer, 0x00, sizeof(ReadBuffer));
FlashRead(QspiInstancePtr, TEST_ADDRESS, MAX_DATA, FAST_READ_CMD);
/*
* Setup a pointer to the start of the data that was read into the read
* buffer and verify the data read is the data that was written
*/
BufferPtr = &ReadBuffer[DATA_OFFSET + DUMMY_SIZE];
for (UniqueValue = UNIQUE_VALUE, Count = 0; Count < MAX_DATA;
Count++, UniqueValue++) {
if (BufferPtr[Count] != (u8)(UniqueValue + Test)) {
return XST_FAILURE;
}
}
/*
* Read the contents of the FLASH from TEST_ADDRESS, using Dual Read
* command
*/
memset(ReadBuffer, 0x00, sizeof(ReadBuffer));
FlashRead(QspiInstancePtr, TEST_ADDRESS, MAX_DATA, DUAL_READ_CMD);
/*
* Setup a pointer to the start of the data that was read into the read
* buffer and verify the data read is the data that was written
*/
BufferPtr = &ReadBuffer[DATA_OFFSET + DUMMY_SIZE];
for (UniqueValue = UNIQUE_VALUE, Count = 0; Count < MAX_DATA;
Count++, UniqueValue++) {
if (BufferPtr[Count] != (u8)(UniqueValue + Test)) {
return XST_FAILURE;
}
}
/*
* Read the contents of the FLASH from TEST_ADDRESS, using Quad Read
* command
*/
memset(ReadBuffer, 0x00, sizeof(ReadBuffer));
FlashRead(QspiInstancePtr, TEST_ADDRESS, MAX_DATA, QUAD_READ_CMD);
/*
* Setup a pointer to the start of the data that was read into the read
* buffer and verify the data read is the data that was written
*/
BufferPtr = &ReadBuffer[DATA_OFFSET + DUMMY_SIZE];
for (UniqueValue = UNIQUE_VALUE, Count = 0; Count < MAX_DATA;
Count++, UniqueValue++) {
if (BufferPtr[Count] != (u8)(UniqueValue + Test)) {
return XST_FAILURE;
}
}
/*
* Set Auto Start and Manual Chip select options and drive the
* HOLD_B high.
*/
XQspiPs_SetOptions(QspiInstancePtr, XQSPIPS_FORCE_SSELECT_OPTION |
XQSPIPS_HOLD_B_DRIVE_OPTION);
/*
* Initialize the write buffer for a pattern to write to the FLASH
* and the read buffer to zero so it can be verified after the read, the
* test value that is added to the unique value allows the value to be
* changed in a debug environment to guarantee
*/
for (UniqueValue = UNIQUE_VALUE, Count = 0; Count < PAGE_SIZE;
Count++, UniqueValue++) {
WriteBuffer[DATA_OFFSET + Count] = (u8)(UniqueValue + Test);
}
memset(ReadBuffer, 0x00, sizeof(ReadBuffer));
/*
* Erase the flash.
*/
FlashErase(QspiInstancePtr, TEST_ADDRESS, MAX_DATA);
/*
* Write the data in the write buffer to the serial FLASH a page at a
* time, starting from TEST_ADDRESS
*/
for (Page = 0; Page < PAGE_COUNT; Page++) {
FlashWrite(QspiInstancePtr, (Page * PAGE_SIZE) + TEST_ADDRESS,
PAGE_SIZE, WRITE_CMD);
}
/*
* Read the contents of the FLASH from TEST_ADDRESS, using Normal Read
* command.
*/
FlashRead(QspiInstancePtr, TEST_ADDRESS, MAX_DATA, READ_CMD);
/*
* Setup a pointer to the start of the data that was read into the read
* buffer and verify the data read is the data that was written
*/
BufferPtr = &ReadBuffer[DATA_OFFSET];
for (UniqueValue = UNIQUE_VALUE, Count = 0; Count < MAX_DATA;
Count++, UniqueValue++) {
if (BufferPtr[Count] != (u8)(UniqueValue + Test)) {
return XST_FAILURE;
}
}
/*
* Read the contents of the FLASH from TEST_ADDRESS, using Fast Read
* command
*/
memset(ReadBuffer, 0x00, sizeof(ReadBuffer));
FlashRead(QspiInstancePtr, TEST_ADDRESS, MAX_DATA, FAST_READ_CMD);
/*
* Setup a pointer to the start of the data that was read into the read
* buffer and verify the data read is the data that was written
*/
BufferPtr = &ReadBuffer[DATA_OFFSET + DUMMY_SIZE];
for (UniqueValue = UNIQUE_VALUE, Count = 0; Count < MAX_DATA;
Count++, UniqueValue++) {
if (BufferPtr[Count] != (u8)(UniqueValue + Test)) {
return XST_FAILURE;
}
}
/*
* Read the contents of the FLASH from TEST_ADDRESS, using Dual Read
* command
*/
memset(ReadBuffer, 0x00, sizeof(ReadBuffer));
FlashRead(QspiInstancePtr, TEST_ADDRESS, MAX_DATA, DUAL_READ_CMD);
/*
* Setup a pointer to the start of the data that was read into the read
* buffer and verify the data read is the data that was written
*/
BufferPtr = &ReadBuffer[DATA_OFFSET + DUMMY_SIZE];
for (UniqueValue = UNIQUE_VALUE, Count = 0; Count < MAX_DATA;
Count++, UniqueValue++) {
if (BufferPtr[Count] != (u8)(UniqueValue + Test)) {
return XST_FAILURE;
}
}
/*
* Read the contents of the FLASH from TEST_ADDRESS, using Quad Read
* command
*/
memset(ReadBuffer, 0x00, sizeof(ReadBuffer));
FlashRead(QspiInstancePtr, TEST_ADDRESS, MAX_DATA, QUAD_READ_CMD);
/*
* Setup a pointer to the start of the data that was read into the read
* buffer and verify the data read is the data that was written
*/
BufferPtr = &ReadBuffer[DATA_OFFSET + DUMMY_SIZE];
for (UniqueValue = UNIQUE_VALUE, Count = 0; Count < MAX_DATA;
Count++, UniqueValue++) {
if (BufferPtr[Count] != (u8)(UniqueValue + Test)) {
return XST_FAILURE;
}
}
QspiDisableIntrSystem(IntcInstancePtr, QspiIntrId);
return XST_SUCCESS;
}
/*****************************************************************************
*
* The purpose of this function is to illustrate how to use the XSpiPs
* device driver in polled mode. This function writes and reads data
* from a serial flash.
*
* @param SpiPtr is a pointer to the SPI driver instance to use.
*
* @param SpiDeviceId is the Instance Id of SPI in the system.
*
* @return
* - XST_SUCCESS if successful
* - XST_FAILURE if not successful
*
* @note
*
* If the device slave select is not correct and the device is not responding
* on bus it will read a status of 0xFF for the status register as the bus
* is pulled up.
*
*****************************************************************************/
int SpiPsFlashPolledExample(XSpiPs *SpiInstancePtr,
u16 SpiDeviceId)
{
int Status;
u8 *BufferPtr;
u8 UniqueValue;
u32 Count;
XSpiPs_Config *SpiConfig;
/*
* Initialize the SPI driver so that it's ready to use
*/
SpiConfig = XSpiPs_LookupConfig(SpiDeviceId);
if (NULL == SpiConfig) {
return XST_FAILURE;
}
Status = XSpiPs_CfgInitialize(SpiInstancePtr, SpiConfig,
SpiConfig->BaseAddress);
if (Status != XST_SUCCESS) {
return XST_FAILURE;
}
/*
* Perform a self-test to check hardware build
*/
Status = XSpiPs_SelfTest(SpiInstancePtr);
if (Status != XST_SUCCESS) {
return XST_FAILURE;
}
/*
* Set the SPI device as a master with manual start and manual
* chip select mode options
*/
XSpiPs_SetOptions(SpiInstancePtr, XSPIPS_MANUAL_START_OPTION | \
XSPIPS_MASTER_OPTION | XSPIPS_FORCE_SSELECT_OPTION);
/*
* Set the SPI device pre-scalar to divide by 8
*/
XSpiPs_SetClkPrescaler(SpiInstancePtr, XSPIPS_CLK_PRESCALE_8);
memset(WriteBuffer, 0x00, sizeof(WriteBuffer));
memset(ReadBuffer, 0x00, sizeof(ReadBuffer));
/*
* Initialize the write buffer for a pattern to write to the Flash
* and the read buffer to zero so it can be verified after the read, the
* test value that is added to the unique value allows the value to be
* changed in a debug environment to guarantee
*/
for (UniqueValue = UNIQUE_VALUE, Count = 0; Count < MAX_DATA;
Count++, UniqueValue++) {
WriteBuffer[DATA_OFFSET + Count] = (u8)(UniqueValue);
}
/*
* Set the flash chip select
*/
XSpiPs_SetSlaveSelect(SpiInstancePtr, FLASH_SPI_SELECT);
/*
* Read the flash Id
*/
Status = FlashReadID();
if (Status != XST_SUCCESS) {
xil_printf("SPI Flash Polled Example Read ID Failed\r\n");
return XST_FAILURE;
}
/*
* Erase the flash
*/
FlashErase(SpiInstancePtr);
TestAddress = 0x0;
/*
* Write the data in the write buffer to TestAddress in serial flash
*/
FlashWrite(SpiInstancePtr, TestAddress, MAX_DATA, WRITE_CMD);
/*
* Read the contents of the flash from TestAddress of size MAX_DATA
* using Normal Read command
*/
FlashRead(SpiInstancePtr, TestAddress, MAX_DATA, READ_CMD);
/*
* Setup a pointer to the start of the data that was read into the read
* buffer and verify the data read is the data that was written
*/
BufferPtr = &ReadBuffer[DATA_OFFSET];
for (UniqueValue = UNIQUE_VALUE, Count = 0; Count < MAX_DATA;
Count++, UniqueValue++) {
if (BufferPtr[Count] != (u8)(UniqueValue)) {
return XST_FAILURE;
}
}
memset(WriteBuffer, 0x00, sizeof(WriteBuffer));
memset(ReadBuffer, 0x00, sizeof(ReadBuffer));
/*
* Initialize the write buffer for a pattern to write to the Flash
* and the read buffer to zero so it can be verified after the read, the
* test value that is added to the unique value allows the value to be
* changed in a debug environment to guarantee
*/
for (UniqueValue = UNIQUE_VALUE, Count = 0; Count < MAX_DATA;
Count++, UniqueValue++) {
WriteBuffer[DATA_OFFSET + Count] = (u8)(UniqueValue);
}
/*
* Set the SPI device as a master with auto start and manual
* chip select mode options
*/
XSpiPs_SetOptions(SpiInstancePtr, XSPIPS_MASTER_OPTION | \
XSPIPS_FORCE_SSELECT_OPTION);
/*
* Erase the flash
*/
FlashErase(SpiInstancePtr);
TestAddress = 0x0;
/*
* Write the data in the write buffer to TestAddress in serial flash
*/
FlashWrite(SpiInstancePtr, TestAddress, MAX_DATA, WRITE_CMD);
/*
* Read the contents of the flash from TestAddress of size MAX_DATA
* using Normal Read command
*/
FlashRead(SpiInstancePtr, TestAddress, MAX_DATA, READ_CMD);
/*
* Setup a pointer to the start of the data that was read into the read
* buffer and verify the data read is the data that was written
*/
BufferPtr = &ReadBuffer[DATA_OFFSET];
for (UniqueValue = UNIQUE_VALUE, Count = 0; Count < MAX_DATA;
Count++, UniqueValue++) {
if (BufferPtr[Count] != (u8)(UniqueValue)) {
return XST_FAILURE;
}
}
return XST_SUCCESS;
}
//копирует сектор из block_start в block_end, заменяя данные, начиная с адреса where_to_replace данными data
//записывая data_size байт
BOOL FlashCopySectorAndReplaceData(int sector_start, int sector_end, int where_to_replace, unsigned char *data, int data_size)
{
BOOL ret;
int i;
uint32_t block_from_address;
uint32_t block_where_address;
block_from_address = sector_start * EE_SECTOR_SIZE;
block_where_address = 0;
current_crc = 0;
//стирание сектора
ret = FlashBlankCheck(sector_end);
if(ret)
{
if(!FlashErase(sector_end))
{
gsm_uart_printf_unsafe("FlashCopySectorAndReplaceData: cannot erase\r");
return DEF_FALSE;
}
}
while(1)
{
memcpy(ee_buffer, (void *)block_from_address, EE_BLOCK_SIZE);
//если следующий блок начинается с адреса после адреса where_to_replace, то нужно
//заменять данные уже в этом блоке
if(((block_where_address + EE_BLOCK_SIZE) > where_to_replace) && (block_where_address <= where_to_replace) && data_size)
{
i = (where_to_replace - block_where_address) % EE_BLOCK_SIZE;
while((i < EE_BLOCK_SIZE) && data_size)
{
ee_buffer[i] = *data;
data_size--;
data++;
where_to_replace++;
i++;
}
}
FlashAddEepromData(block_where_address);
ret = FlashWrite(sector_end, block_where_address, EE_BLOCK_SIZE, ee_buffer);
if(!ret)
{
gsm_uart_printf_unsafe("FlashCopySectorAndReplaceData: cannot write\r");
return DEF_FALSE;
}
block_from_address += EE_BLOCK_SIZE;
block_where_address += EE_BLOCK_SIZE;
if(block_where_address >= EE_SECTOR_SIZE)
{
//Считаем текущим сектором тот, куда мы перенесли данные
current_sector = sector_end;
current_cnt = FlashNextCounter();
return DEF_TRUE;
}
}
}
