www.gusucode.com > C++ 硬盘序列号、CPU编号、BOIS编号读取类 > C++ 硬盘序列号、CPU编号、BOIS编号读取类/gusucode/RegUtil.cpp

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#include "StdAfx.h"
#include "RegUtil.h"
#include "Iphlpapi.h"

#pragma comment(lib, "Iphlpapi.lib")

CRegUtil::CRegUtil(void)
{
}

CRegUtil::~CRegUtil(void)
{
}

#define  FILE_DEVICE_SCSI              0x0000001b
#define  IOCTL_SCSI_MINIPORT_IDENTIFY  ( ( FILE_DEVICE_SCSI << 16 ) + 0x0501 )

#define  IOCTL_SCSI_MINIPORT 0x0004D008  //  see NTDDSCSI.H for definition

#define  IDENTIFY_BUFFER_SIZE  512
#define  SENDIDLENGTH  ( sizeof( SENDCMDOUTPARAMS ) + IDENTIFY_BUFFER_SIZE )

#define  IDE_ATAPI_IDENTIFY  0xA1  //  Returns ID sector for ATAPI.
#define  IDE_ATA_IDENTIFY    0xEC  //  Returns ID sector for ATA.
#define  DFP_RECEIVE_DRIVE_DATA   0x0007c088

typedef struct _IDSECTOR
{
    USHORT  wGenConfig;
    USHORT  wNumCyls;
    USHORT  wReserved;
    USHORT  wNumHeads;
    USHORT  wBytesPerTrack;
    USHORT  wBytesPerSector;
    USHORT  wSectorsPerTrack;
    USHORT  wVendorUnique[3];
    CHAR    sSerialNumber[20];
    USHORT  wBufferType;
    USHORT  wBufferSize;
    USHORT  wECCSize;
    CHAR    sFirmwareRev[8];
    CHAR    sModelNumber[40];
    USHORT  wMoreVendorUnique;
    USHORT  wDoubleWordIO;
    USHORT  wCapabilities;
    USHORT  wReserved1;
    USHORT  wPIOTiming;
    USHORT  wDMATiming;
    USHORT  wBS;
    USHORT  wNumCurrentCyls;
    USHORT  wNumCurrentHeads;
    USHORT  wNumCurrentSectorsPerTrack;
    ULONG   ulCurrentSectorCapacity;
    USHORT  wMultSectorStuff;
    ULONG   ulTotalAddressableSectors;
    USHORT  wSingleWordDMA;
    USHORT  wMultiWordDMA;
    BYTE    bReserved[128];
} IDSECTOR, *PIDSECTOR;

typedef struct _DRIVERSTATUS

{
    BYTE  bDriverError;  //  Error code from driver, or 0 if no error.
    BYTE  bIDEStatus;    //  Contents of IDE Error reGISter.
    //  Only valid when bDriverError is SMART_IDE_ERROR.
    BYTE  bReserved[2];  //  Reserved for future expansion.
    DWORD  dwReserved[2];  //  Reserved for future expansion.
} DRIVERSTATUS, *PDRIVERSTATUS, *LPDRIVERSTATUS;

typedef struct _SENDCMDOUTPARAMS
{
    DWORD         cBufferSize;   //  Size of bBuffer in bytes
    DRIVERSTATUS  DriverStatus;  //  Driver status structure.
    BYTE          bBuffer[1];    //  Buffer of arbitrary length in which to store the data read from the                                                       // drive.
} SENDCMDOUTPARAMS, *PSENDCMDOUTPARAMS, *LPSENDCMDOUTPARAMS;

typedef struct _SRB_IO_CONTROL
{
    ULONG HeaderLength;
    UCHAR Signature[8];
    ULONG Timeout;
    ULONG ControlCode;
    ULONG ReturnCode;
    ULONG Length;
} SRB_IO_CONTROL, *PSRB_IO_CONTROL;

typedef struct _IDEREGS
{
    BYTE bFeaturesReg;       // Used for specifying SMART "commands".
    BYTE bSectorCountReg;    // IDE sector count register
    BYTE bSectorNumberReg;   // IDE sector number register
    BYTE bCylLowReg;         // IDE low order cylinder value
    BYTE bCylHighReg;        // IDE high order cylinder value
    BYTE bDriveHeadReg;      // IDE drive/head register
    BYTE bCommandReg;        // Actual IDE command.
    BYTE bReserved;          // reserved for future use.  Must be zero.
} IDEREGS, *PIDEREGS, *LPIDEREGS;

typedef struct _SENDCMDINPARAMS
{
    DWORD     cBufferSize;   //  Buffer size in bytes
    IDEREGS   irDriveRegs;   //  Structure with drive register values.
    BYTE bDriveNumber;       //  Physical drive number to send 
    //  command to (0,1,2,3).
    BYTE bReserved[3];       //  Reserved for future expansion.
    DWORD     dwReserved[4]; //  For future use.
    BYTE      bBuffer[1];    //  Input buffer.
} SENDCMDINPARAMS, *PSENDCMDINPARAMS, *LPSENDCMDINPARAMS;

typedef struct _GETVERSIONOUTPARAMS
{
    BYTE bVersion;      // Binary driver version.
    BYTE bRevision;     // Binary driver revision.
    BYTE bReserved;     // Not used.
    BYTE bIDEDeviceMap; // Bit map of IDE devices.
    DWORD fCapabilities; // Bit mask of driver capabilities.
    DWORD dwReserved[4]; // For future use.
} GETVERSIONOUTPARAMS, *PGETVERSIONOUTPARAMS, *LPGETVERSIONOUTPARAMS;

//////////////////////////////////////////////////////////////////////

//结构定义 
typedef struct _UNICODE_STRING 
{ 
    USHORT  Length;//长度 
    USHORT  MaximUMLength;//最大长度 
    PWSTR  Buffer;//缓存指针 
} UNICODE_STRING,*PUNICODE_STRING; 

typedef struct _OBJECT_ATTRIBUTES 
{ 
    ULONG Length;//长度 18h 
    HANDLE RootDirectory;//  00000000 
    PUNICODE_STRING ObjectName;//指向对象名的指针 
    ULONG Attributes;//对象属性00000040h 
    PVOID SecurityDescriptor;        // Points to type SECURITY_DESCRIPTOR,0 
    PVOID SecurityQualityOfService;  // Points to type SECURITY_QUALITY_OF_SERVICE,0 
} OBJECT_ATTRIBUTES; 
typedef OBJECT_ATTRIBUTES *POBJECT_ATTRIBUTES; 

//函数指针变量类型
typedef DWORD  (__stdcall *ZWOS )( PHANDLE,ACCESS_MASK,POBJECT_ATTRIBUTES); 
typedef DWORD  (__stdcall *ZWMV )( HANDLE,HANDLE,PVOID,ULONG,ULONG,PLARGE_INTEGER,PSIZE_T,DWORD,ULONG,ULONG); 
typedef DWORD  (__stdcall *ZWUMV )( HANDLE,PVOID); 

BOOL WinNTHDSerialNumAsScsiRead( BYTE* dwSerial, UINT* puSerialLen, UINT uMaxSerialLen )
{
    BOOL bInfoLoaded = FALSE;
    
    for( int iController = 0; iController < 2; ++ iController )
    {
        HANDLE hScsiDriveIOCTL = 0;
				WCHAR   szDriveName[256];
        
        //  Try to get a handle to PhysicalDrive IOCTL, report failure
        //  and exit if can't.
        swprintf(szDriveName, _T("\\\\.\\Scsi%d:"), iController);

        //  Windows NT, Windows 2000, any rights should do
        hScsiDriveIOCTL = CreateFile( szDriveName,
            GENERIC_READ | GENERIC_WRITE, 
            FILE_SHARE_READ | FILE_SHARE_WRITE, NULL,
            OPEN_EXISTING, 0, NULL);

        // if (hScsiDriveIOCTL == INVALID_HANDLE_VALUE)
        //    printf ("Unable to open SCSI controller %d, error code: 0x%lX\n",
        //            controller, GetLastError ());
        
        if( hScsiDriveIOCTL != INVALID_HANDLE_VALUE )
        {
            int iDrive = 0;
            for( iDrive = 0; iDrive < 2; ++ iDrive )
            {
                char szBuffer[sizeof( SRB_IO_CONTROL ) + SENDIDLENGTH] = { 0 };

                SRB_IO_CONTROL* p = ( SRB_IO_CONTROL* )szBuffer;
                SENDCMDINPARAMS* pin = ( SENDCMDINPARAMS* )( szBuffer + sizeof( SRB_IO_CONTROL ) );
                DWORD dwResult;

                p->HeaderLength = sizeof( SRB_IO_CONTROL );
                p->Timeout = 10000;
                p->Length = SENDIDLENGTH;
                p->ControlCode = IOCTL_SCSI_MINIPORT_IDENTIFY;
                strncpy((char*)p->Signature, "SCSIDISK", 8);

                pin->irDriveRegs.bCommandReg = IDE_ATA_IDENTIFY;
                pin->bDriveNumber = iDrive;
                
                if( DeviceIoControl( hScsiDriveIOCTL, IOCTL_SCSI_MINIPORT, 
                    szBuffer,
                    sizeof( SRB_IO_CONTROL ) + sizeof( SENDCMDINPARAMS ) - 1,
                    szBuffer,
                    sizeof( SRB_IO_CONTROL ) + SENDIDLENGTH,
                    &dwResult, NULL ) )
                {
                    SENDCMDOUTPARAMS* pOut = ( SENDCMDOUTPARAMS* )( szBuffer + sizeof( SRB_IO_CONTROL ) );
                    IDSECTOR* pId = ( IDSECTOR* )( pOut->bBuffer );
                    if( pId->sModelNumber[0] )
                    {
                        if( * puSerialLen + 20U <= uMaxSerialLen )
                        {
                            // 序列号
                            CopyMemory( dwSerial + * puSerialLen, ( ( USHORT* )pId ) + 10, 20 );

                            // Cut off the trailing blanks
														UINT i;
                            for (i = 20; i != 0U && ' ' == dwSerial[* puSerialLen + i - 1]; -- i )
                            {}
                            * puSerialLen += i;

                            // 型号
                            CopyMemory( dwSerial + * puSerialLen, ( ( USHORT* )pId ) + 27, 40 );
                            // Cut off the trailing blanks
                            for( i = 40; i != 0U && ' ' == dwSerial[* puSerialLen + i - 1]; -- i )
                            {}
                            * puSerialLen += i;

                            bInfoLoaded = TRUE;
                        }
                        else
                        {
                            ::CloseHandle( hScsiDriveIOCTL );
                            return bInfoLoaded;
                        }
                    }
                }
            }
            ::CloseHandle( hScsiDriveIOCTL );
        }
    }
    return bInfoLoaded;
}

BOOL DoIdentify( HANDLE hPhysicalDriveIOCTL, PSENDCMDINPARAMS pSCIP,
                 PSENDCMDOUTPARAMS pSCOP, BYTE bIDCmd, BYTE bDriveNum,
                 PDWORD lpcbBytesReturned )
{
    // Set up data structures for IDENTIFY command.
    pSCIP->cBufferSize                  = IDENTIFY_BUFFER_SIZE;
    pSCIP->irDriveRegs.bFeaturesReg     = 0;
    pSCIP->irDriveRegs.bSectorCountReg  = 1;
    pSCIP->irDriveRegs.bSectorNumberReg = 1;
    pSCIP->irDriveRegs.bCylLowReg       = 0;
    pSCIP->irDriveRegs.bCylHighReg      = 0;
    
    // calc the drive number.
    pSCIP->irDriveRegs.bDriveHeadReg = 0xA0 | ( ( bDriveNum & 1 ) << 4 );

    // The command can either be IDE identify or ATAPI identify.
    pSCIP->irDriveRegs.bCommandReg = bIDCmd;
    pSCIP->bDriveNumber = bDriveNum;
    pSCIP->cBufferSize = IDENTIFY_BUFFER_SIZE;
    
    return DeviceIoControl( hPhysicalDriveIOCTL, DFP_RECEIVE_DRIVE_DATA,
        ( LPVOID ) pSCIP,
        sizeof( SENDCMDINPARAMS ) - 1,
        ( LPVOID ) pSCOP,
        sizeof( SENDCMDOUTPARAMS ) + IDENTIFY_BUFFER_SIZE - 1,
        lpcbBytesReturned, NULL );
}

BOOL WinNTHDSerialNumASPhysicalRead( BYTE* dwSerial, UINT* puSerialLen, UINT uMaxSerialLen )
{
#define  DFP_GET_VERSION          0x00074080
    BOOL bInfoLoaded = FALSE;

    for( UINT uDrive = 0; uDrive < 4; ++ uDrive )
    {
        HANDLE hPhysicalDriveIOCTL = 0;

        //  Try to get a handle to PhysicalDrive IOCTL, report failure
        //  and exit if can't.
        WCHAR szDriveName [256];
        swprintf( szDriveName, _T("\\\\.\\PhysicalDrive%d"), uDrive );

        //  Windows NT, Windows 2000, must have admin rights
        hPhysicalDriveIOCTL = CreateFile( szDriveName,
            GENERIC_READ | GENERIC_WRITE, 
            FILE_SHARE_READ | FILE_SHARE_WRITE, NULL,
            OPEN_EXISTING, 0, NULL);

        if( hPhysicalDriveIOCTL != INVALID_HANDLE_VALUE )
        {
            GETVERSIONOUTPARAMS VersionParams = { 0 };
            DWORD               cbBytesReturned = 0;

            // Get the version, etc of PhysicalDrive IOCTL
            if( DeviceIoControl( hPhysicalDriveIOCTL, DFP_GET_VERSION,
                NULL, 
                0,
                &VersionParams,
                sizeof( GETVERSIONOUTPARAMS ),
                &cbBytesReturned, NULL ) )
            {
                // If there is a IDE device at number "i" issue commands
                // to the device
                if( VersionParams.bIDEDeviceMap != 0 )
                {
                    BYTE             bIDCmd = 0;   // IDE or ATAPI IDENTIFY cmd
                    SENDCMDINPARAMS  scip = { 0 };

                    // Now, get the ID sector for all IDE devices in the system.
                    // If the device is ATAPI use the IDE_ATAPI_IDENTIFY command,
                    // otherwise use the IDE_ATA_IDENTIFY command
                    bIDCmd = ( VersionParams.bIDEDeviceMap >> uDrive & 0x10 ) ? IDE_ATAPI_IDENTIFY : IDE_ATA_IDENTIFY;
                    BYTE IdOutCmd[sizeof( SENDCMDOUTPARAMS ) + IDENTIFY_BUFFER_SIZE - 1] = { 0 };

                    if( DoIdentify( hPhysicalDriveIOCTL, 
                        &scip, 
                        ( PSENDCMDOUTPARAMS )&IdOutCmd, 
                        ( BYTE )bIDCmd,
                        ( BYTE )uDrive,
                        &cbBytesReturned ) )
                    {
                        if( * puSerialLen + 20U <= uMaxSerialLen )
                        {
                            CopyMemory( dwSerial + * puSerialLen, ( ( USHORT* )( ( ( PSENDCMDOUTPARAMS )IdOutCmd )->bBuffer ) ) + 10, 20 );  // 序列号

                            // Cut off the trailing blanks
														UINT i;
                            for (i = 20; i != 0U && ' ' == dwSerial[* puSerialLen + i - 1]; -- i )  {}
                            * puSerialLen += i;

                            CopyMemory( dwSerial + * puSerialLen, ( ( USHORT* )( ( ( PSENDCMDOUTPARAMS )IdOutCmd )->bBuffer ) ) + 27, 40 ); // 型号

                            // Cut off the trailing blanks
                            for (i = 40; i != 0U && ' ' == dwSerial[* puSerialLen + i - 1]; -- i )  {}
                            * puSerialLen += i;

                            bInfoLoaded = TRUE;
                        }
                        else
                        {
                            ::CloseHandle( hPhysicalDriveIOCTL );
                            return bInfoLoaded;
                        }
                    }
                }
            }
            CloseHandle( hPhysicalDriveIOCTL );
        }
    }
    return bInfoLoaded;
}

UINT FindAwardBios( BYTE** pPBiosAddr )
{
    BYTE* pBiosAddr = * pPBiosAddr + 0xEC71;

    BYTE szBiosData[128];
    CopyMemory( szBiosData, pBiosAddr, 127 );
    szBiosData[127] = 0;
    
    int iLen = lstrlen((LPCWSTR)szBiosData);
    if( iLen > 0 && iLen < 128 )
    {
        //AWard:         07/08/2002-i845G-ITE8712-JF69VD0CC-00 
        //Phoenix-Award: 03/12/2002-sis645-p4s333
        if( szBiosData[2] == '/' && szBiosData[5] == '/' )
        {
            BYTE* p = szBiosData;
            while( * p )
            {
                if( * p < ' ' || * p >= 127 )
                {
                    break;
                }
                ++ p;
            }
            if( * p == 0 )
            {
                * pPBiosAddr = pBiosAddr;
                return ( UINT )iLen;
            }
        }
    }
    return 0;
}

UINT FindAmiBios( BYTE** ppBiosAddr )
{
    BYTE* pBiosAddr = * ppBiosAddr + 0xF478;
    
    BYTE szBiosData[128];
    CopyMemory( szBiosData, pBiosAddr, 127 );
    szBiosData[127] = 0;
    
		int iLen = lstrlen((LPCWSTR)szBiosData);
    if( iLen > 0 && iLen < 128 )
    {
        // Example: "AMI: 51-2300-000000-00101111-030199-"
        if( szBiosData[2] == '-' && szBiosData[7] == '-' )
        {
            BYTE* p = szBiosData;
            while( * p )
            {
                if( * p < ' ' || * p >= 127 )
                {
                    break;
                }
                ++ p;
            }
            if( * p == 0 )
            {
                * ppBiosAddr = pBiosAddr;
                return ( UINT )iLen;
            }
        }
    }
    return 0;
}

UINT FindPhoenixBios( BYTE** ppBiosAddr )
{
    UINT uOffset[3] = { 0x6577, 0x7196, 0x7550 };
    for( UINT i = 0; i < 3; ++ i )
    {
        BYTE* pBiosAddr = * ppBiosAddr + uOffset[i];

        BYTE szBiosData[128];
        CopyMemory( szBiosData, pBiosAddr, 127 );
        szBiosData[127] = 0;

        int iLen = lstrlen((LPCWSTR)szBiosData);
        if( iLen > 0 && iLen < 128 )
        {
            // Example: Phoenix "NITELT0.86B.0044.P11.9910111055"
            if( szBiosData[7] == '.' && szBiosData[11] == '.' )
            {
                BYTE* p = szBiosData;
                while( * p )
                {
                    if( * p < ' ' || * p >= 127 )
                    {
                        break;
                    }
                    ++ p;
                }
                if( * p == 0 )
                {
                    * ppBiosAddr = pBiosAddr;
                    return ( UINT )iLen;
                }
            }
        }
    }
    return 0;
}

// 网卡 MAC 地址,注意: MAC 地址是可以在注册表中修改的
BOOL GetMac(LPBYTE lpInfo, UINT iSize, UINT &iCount)
{
	UINT uErrorCode = 0;
	IP_ADAPTER_INFO iai;
	ULONG uSize = 0;
	iCount = 0;
	DWORD dwResult = GetAdaptersInfo(&iai, &uSize);
	if (dwResult == ERROR_BUFFER_OVERFLOW)
	{
		IP_ADAPTER_INFO* piai = (IP_ADAPTER_INFO*)HeapAlloc(GetProcessHeap(), 0, uSize);
		if (piai != NULL)
		{
			dwResult = GetAdaptersInfo(piai, &uSize);
			if (ERROR_SUCCESS == dwResult)
			{
				IP_ADAPTER_INFO* piai2 = piai;
				while (piai2 != NULL && (iCount + piai2->AddressLength) < iSize)
				{
					CopyMemory(lpInfo + iCount, piai2->Address, piai2->AddressLength );
					iCount += piai2->AddressLength;
					piai2 = piai2->Next;                        
				}
			}
			else
			{
				uErrorCode = 0xF0000000U + dwResult;
			}
			VERIFY(HeapFree(GetProcessHeap(), 0, piai));
		}
		else
		{
			return FALSE;
		}
	}
	else
	{
		uErrorCode = 0xE0000000U + dwResult;
	}
	if (uErrorCode != 0U)
	{
		return FALSE;
	}
	return TRUE;
}

// 硬盘序列号,注意:有的硬盘没有序列号
BOOL GetDiskSerialNum(LPBYTE lpInfo, UINT iSize, UINT &iCount)
{
	iCount = 0;
	OSVERSIONINFO ovi = { 0 };
	ovi.dwOSVersionInfoSize = sizeof(OSVERSIONINFO);
	GetVersionEx(&ovi);

	if (ovi.dwPlatformId != VER_PLATFORM_WIN32_NT)
	{
		// Only Windows 2000, Windows XP, Windows Server 2003...
		return FALSE;
	}
	else
	{
			if (!WinNTHDSerialNumASPhysicalRead(lpInfo, &iCount, iSize))
			{
				return WinNTHDSerialNumAsScsiRead(lpInfo, &iCount, iSize);
			}
			return TRUE;
	}
	return FALSE;
}

BOOL GetCPUId(LPBYTE lpInfo, UINT iSize, UINT &iCount)
{
	BOOL bException = FALSE;
	BYTE szCpu[16]  = { 0 };
	UINT uCpuID     = 0U;
	iCount = 0;
	__try 
	{
		_asm 
		{
			mov eax, 0
			cpuid
			mov dword ptr szCpu[0], ebx
			mov dword ptr szCpu[4], edx
			mov dword ptr szCpu[8], ecx
			mov eax, 1
			cpuid
			mov uCpuID, edx
		}
	}
	__except( EXCEPTION_EXECUTE_HANDLER )
	{
		bException = TRUE;
	}

	if (!bException)
	{
		CopyMemory(lpInfo + iCount, &uCpuID, sizeof(UINT));
		iCount += sizeof(UINT);

		uCpuID = (UINT)strlen((char *)szCpu);
		CopyMemory(lpInfo + iCount, szCpu, uCpuID);
		iCount += uCpuID;
		return TRUE;
	}
	return FALSE;
}

BOOL GetBOISId(LPBYTE lpInfo, UINT iSize, UINT &iCount)
{
	SIZE_T ssize; 
	iCount = 0;
	LARGE_INTEGER so; 
	so.LowPart=0x000f0000;
	so.HighPart=0x00000000; 
	ssize=0xffff; 
	wchar_t strPH[30] = _T("\\device\\physicalmemory"); 

	DWORD ba=0;

	UNICODE_STRING struniph; 
	struniph.Buffer = strPH; 
	struniph.Length = 0x2c; 
	struniph.MaximUMLength = 0x2e; 

	OBJECT_ATTRIBUTES obj_ar; 
	obj_ar.Attributes =64;
	obj_ar.Length =24;
	obj_ar.ObjectName=&struniph;
	obj_ar.RootDirectory=0; 
	obj_ar.SecurityDescriptor=0; 
	obj_ar.SecurityQualityOfService =0; 

	HMODULE hinstLib = LoadLibrary(_T("ntdll.dll")); 
	ZWOS ZWopenS = (ZWOS)GetProcAddress(hinstLib, "ZwOpenSection"); 
	ZWMV ZWmapV = (ZWMV)GetProcAddress(hinstLib, "ZwMapViewOfSection"); 
	ZWUMV ZWunmapV = (ZWUMV)GetProcAddress(hinstLib, "ZwUnmapViewOfSection"); 

	//调用函数,对物理内存进行映射 
	HANDLE hSection; 
	if (0 == ZWopenS(&hSection,4,&obj_ar) && 
		0 == ZWmapV( 
		( HANDLE )hSection,   //打开Section时得到的句柄 
		( HANDLE )0xFFFFFFFF, //将要映射进程的句柄, 
		&ba,                  //映射的基址 
		0,
		0xFFFF,               //分配的大小 
		&so,                  //物理内存的地址 
		&ssize,               //指向读取内存块大小的指针 
		1,                    //子进程的可继承性设定 
		0,                    //分配类型 
		2                     //保护类型 
		) )
	//执行后会在当前进程的空间开辟一段64k的空间,并把f000:0000到f000:ffff处的内容映射到这里 
	//映射的基址由ba返回,如果映射不再有用,应该用ZwUnmapViewOfSection断开映射 
	{
		BYTE* pBiosSerial = (BYTE*)ba;
		UINT uBiosSerialLen = FindAwardBios(&pBiosSerial);
		if (uBiosSerialLen == 0U)
		{
			uBiosSerialLen = FindAmiBios(&pBiosSerial);
			if (uBiosSerialLen == 0U)
			{
				uBiosSerialLen = FindPhoenixBios(&pBiosSerial);
			}
		}
		if (uBiosSerialLen != 0U)
		{
			CopyMemory(lpInfo + iCount, pBiosSerial, uBiosSerialLen);
			iCount += uBiosSerialLen;
		}
		ZWunmapV((HANDLE)0xFFFFFFFF, ( void* )ba);
		return TRUE;
	}
	return FALSE;
}

BOOL Get()
{
	BYTE szSystemInfo[4096]; // 在程序执行完毕后,此处存储取得的系统特征码
  UINT uSystemInfoLen = 0; // 在程序执行完毕后,此处存储取得的系统特征码的长度

 	return TRUE;
}

/****************************************************************
 This is a sample routine of base64 algorithm.The goal is to 
 illustrate principles,so some details may be ignored.
 Author email:zhangwu2003@163.com
*****************************************************************/

char *  ch64="ABCDEFGHIJKLMNOPQRSTUVWXYZabcdefghijklmnopqrstuvwxyz0123456789+/"; 

unsigned char *Base64Encode(unsigned char *src,int srclen)
{
 int n,buflen,i,j;
 int pading=0;
 unsigned char *buf;
 static unsigned char *dst; 

 buf=src;
 buflen=n=srclen;
 if(n%3!=0)  /* pad with '=' by using a temp buffer */
 {
  pading=1;
  buflen=n+3-n%3;
  buf=(unsigned char *)malloc(buflen+1);
  memset(buf,0,buflen+1);
  memcpy(buf,src,n);
  for(i=0;i<3-n%3;i++)
   buf[n+i]='=';
 }
 dst=(unsigned char *)malloc(buflen*4/3+1);
 memset(dst,0,buflen*4/3+1);
 for(i=0,j=0;i<buflen;i+=3,j+=4)
 {
  dst[j]=(buf[i]&0xFC)>>2;
  dst[j+1]=((buf[i]&0x03)<<4) + ((buf[i+1]&0xF0)>>4);
  dst[j+2]=((buf[i+1]&0x0F)<<2) + ((buf[i+2]&0xC0)>>6);
  dst[j+3]=buf[i+2]&0x3F; 
 }
 for(i=0;i<buflen*4/3;i++) /* map 6 bit value to base64 ASCII character */
  dst[i]=ch64[dst[i]];
 if(pading)
  free(buf);
 return dst;
}

unsigned char *Base64Decode(unsigned char *src)
{
 int n,i,j;
 unsigned char *p;
 static unsigned char *dst; 

 n=(int)strlen((char *)src);
 for(i=0;i<n;i++) /* map base64 ASCII character to 6 bit value */
 {
  p=(unsigned char *)strchr(ch64,src[i]);
  if(!p)
   break;
  src[i] = p-(unsigned char *)ch64;
 }
 dst=(unsigned char *)malloc(n*3/4+1);
 memset(dst,0,n*3/4+1);
 for(i=0,j=0;i<n;i+=4,j+=3)
 {
  dst[j]=(src[i]<<2) + ((src[i+1]&0x30)>>4);
  dst[j+1]=((src[i+1]&0x0F)<<4) + ((src[i+2]&0x3C)>>2);
  dst[j+2]=((src[i+2]&0x03)<<6) + src[i+3];
 }
 return dst;
}