/*++
Copyright (c) 1995 Microsoft Corporation
Module Name:
mini.c
Abstract:
This module contains code that supports the installation and initialization
of a system's network adapter card under the MiniNT environment. Its functions
include changing the ComputerName to a randomly generated string, establishing
the system as being part of a local workgroup, and installing the necessary
drivers (via PnP) for the detected network adapter card. This functionality
relies upon the existence of WINBOM.INI and its following sections:
[Factory]
FactoryComputerName = ... ;Sets the first part of the random generated string to
;this value...if not present then prepends the random
;string with the value "MININT"
[NetCards]
PnPID=...\xyz.inf ;Scans the list of netcards/inf key value pairs and attempts
. ;to install drivers for the devices listed here BEFORE performing
. ;an exhaustive search of all the in-box drivers and attempting
. ;to locate the matching paramters for the enumerated hardware.
.
.
Author:
Jason Lawrence (t-jasonl) - 8/11/2000
Revision History:
--*/
#include "factoryp.h"
#include <winioctl.h>
#include <spapip.h>
// Defines
#define CLOSEHANDLE(h) ( (h != NULL) ? (CloseHandle(h) ? ((h = NULL) == NULL) : (FALSE) ) : (FALSE) )
#define BUFSIZE 4096
#define NET_CONNECT_TIMEOUT 120 // seconds
// Various Structures used in this file
//
// ********************************************************************************************************************
// Sample entry into table for FILEINFO struct:
//
// { _T("<config>\\oobeinfo.ini"), _T("oobe\\oobeinfo.ini"), FALSE, TRUE }
//
// This means: Copy file oobeinfo.ini from <opkSourceRoot>\<config>\oobeinfo.ini to <opkTargetDrive>\oobe\oobeinfo.ini
// This is not a directory and is a required file.
//
// Variables allowed to be expanded: <sku>, <arch>, <lang>, <cfg>.
// ********************************************************************************************************************
typedef struct _FILEINFO
{
LPTSTR szFISourceName; // Source name. Relative to source root.
LPTSTR szFITargetName; // Relative to targetpath. If NULL the target drive root is assumed.
BOOL bDirectory; // Is filename a directory? If TRUE do a recursive copy.
BOOL bRequired; // TRUE - file is required. FALSE - file is optional.
} FILEINFO, *PFILEINFO, *LPFILEINFO;
// For the filesystem type
//
typedef enum _FSTYPES
{
fsNtfs,
fsFat32,
fsFat // for fat16/12
} FSTYPES;
// For partition types
//
typedef enum _PTTYPES
{
ptPrimary,
ptExtended,
ptLogical,
ptMsr,
ptEfi
} PTTYPES;
typedef struct _PARTITION
{
TCHAR cDriveLetter;
ULONGLONG ullSize;
UINT uiFileSystem; // NTFS or FAT32 or FAT
BOOL bQuickFormat;
UINT uiPartitionType; // Primary, extended, logical, msr, efi.
BOOL bSetActive;
UINT uiDiskID; // This is the disk number that this partition is on. 0-based
BOOL bWipeDisk; // TRUE if this disk needs to be wiped.
struct _PARTITION *pNext;
} *PPARTITION, PARTITION;
// Local functions
//
LPTSTR static mylstrcat( LPTSTR lpString1, LPCTSTR lpString2, DWORD dwSize );
BOOL static StartDiskpart( HANDLE*, HANDLE*, HANDLE*, HANDLE*);
BOOL static ProcessDiskConfigSection(LPTSTR lpszWinBOMPath);
BOOL static ProcessDisk(UINT diskID, LPTSTR lpSectionName, LPTSTR lpszWinBOMPath, BOOL bWipeDisk);
BOOL static Build(LPTSTR lpKey, DWORD dwSize, UINT diskID, LPCTSTR lpKeyName);
BOOL static FormatPartitions(VOID);
BOOL static JustFormatC(LPTSTR lpszWinBOMPath, LPTSTR lpszSectionBuffer);
BOOL static GetNumberOfPartitions(UINT uiDiskNumber, PDWORD numPartitions);
ULONGLONG static GetDiskSizeMB(UINT uiDiskNumber);
VOID static ListInsert(PPARTITION pAfterThis, PPARTITION pNew);
VOID static ListFree(PPARTITION pList);
VOID static AddMsrAndEfi(BOOL bMsr, BOOL bEfi, PPARTITION pLastLast, UINT uiDiskID, BOOL bWipeDisk);
//
// Default system policies for driver signing and non-driver signing
// for WinPE
//
#define DEFAULT_DRVSIGN_POLICY DRIVERSIGN_NONE
#define DEFAULT_NONDRVSIGN_POLICY DRIVERSIGN_NONE
VOID
pSetupGetRealSystemTime(
OUT LPSYSTEMTIME RealSystemTime
);
typedef enum _CODESIGNING_POLICY_TYPE {
PolicyTypeDriverSigning,
PolicyTypeNonDriverSigning
} CODESIGNING_POLICY_TYPE, *PCODESIGNING_POLICY_TYPE;
VOID
pSetCodeSigningPolicy(
IN CODESIGNING_POLICY_TYPE PolicyType,
IN BYTE NewPolicy,
OUT PBYTE OldPolicy OPTIONAL
);
//**********************************************************
// The formula for calculating the size of ESP partition is:
//
// MAX( 100 MB, MIN (1000 MB, DiskSize MB / 100 ) )
//
//**********************************************************
__inline
ULONGLONG
GetDiskEFISizeMB( UINT uiDiskNumber )
{
ULONGLONG DiskSizeMB = GetDiskSizeMB( uiDiskNumber );
return ( max( 100, min( 1000, DiskSizeMB / 100 ) ) );
}
//**********************************************************
// The formula for calculating the size of MSR partition is:
//
// IF ( Disk Size < 16 GB ) then MSR is 32 MB.
// ELSE MSR is 128 MB.
//
//**********************************************************
__inline
ULONGLONG
GetDiskMSRSizeMB( UINT uiDiskNumber )
{
ULONGLONG DiskSizeMB = GetDiskSizeMB( uiDiskNumber );
return ( ( ( DiskSizeMB / 1024 ) >= 16 ) ? 128 : 32 );
}
// Dialog Procs
//
INT_PTR CALLBACK ShutdownDlgProc(HWND hwnd, UINT msg, WPARAM wParam, LPARAM lParam);
// Constant Strings
//
const static TCHAR DCDISK[] = _T("select disk ");
const static TCHAR DCPARTITION[] = _T("create partition ");
const static TCHAR DCSIZE[] = _T(" size=");
const static TCHAR DCASSIGNLETTER[] = _T("assign letter=");
const static TCHAR DCEXIT[] = _T("exit");
const static TCHAR DCNEWLINE[] = _T("\n");
const static TCHAR DCLISTPARTITION[] = _T("list partition");
const static TCHAR DCSELPARTITION[] = _T("select partition ");
const static TCHAR DCSETACTIVE[] = _T("active");
// This command will delete all the partitions on a disk.
//
const static TCHAR DCWIPEDISK[] = _T("clean");
const static TCHAR DCCONVERT_GPT[] = _T("convert gpt\nselect partition 1\ndelete partition override");
const static TCHAR DCPARTITION_PRIMARY[] = _T("primary");
const static TCHAR DCPARTITION_EXTENDED[] = _T("extended");
const static TCHAR DCPARTITION_LOGICAL[] = _T("logical");
const static TCHAR DCPARTITION_MSR[] = _T("msr");
const static TCHAR DCPARTITION_EFI[] = _T("efi");
const static TCHAR DCS_DISK_TYPE[] = _T("DiskType");
const static TCHAR DCS_FILE_SYSTEM[] = _T("FileSystem");
const static TCHAR DCS_QUICK_FORMAT[] = _T("QuickFormat");
const static TCHAR DCS_SIZE[] = _T("Size");
const static TCHAR DCS_PARTITION_TYPE[] = _T("PartitionType");
const static TCHAR DCS_PARTITION_ID[] = _T("PartitionID");
const static TCHAR DCS_SET_ACTIVE[] = _T("SetActive");
const static TCHAR c_szActiveComputerNameRegKey[] = L"System\\CurrentControlSet\\Control\\ComputerName\\ActiveComputerName";
const static TCHAR c_szComputerNameRegKey[] = L"System\\CurrentControlSet\\Control\\ComputerName\\ComputerName";
static TCHAR g_szTargetDrive[] = _T("C:\\");
// Files to be copied.
// No leading or trailing backslashes.
//
static FILEINFO g_filesToCopy[] =
{
// SOURCE, TARGET, isDirectory, isRequired
//
{ _T("cfgsets\\<cfg>\\winbom.ini"), _T("sysprep\\winbom.ini"), FALSE, TRUE },
{ _T("cfgsets\\<cfg>\\unattend.txt"), _T("sysprep\\unattend.txt"), FALSE, TRUE },
{ _T("lang\\<lang>\\tools\\<arch>"), _T("sysprep"), TRUE, FALSE },
{ _T("lang\\<lang>\\sku\\<sku>\\<arch>"), _T(""), TRUE, TRUE }
};
// Linked list to hold partition information.
//
static PPARTITION g_PartList = NULL;
// External variables
//
extern HINSTANCE g_hInstance;
// External functions
//
typedef VOID (WINAPI *ExternalGenerateName)
(
PWSTR GeneratedString,
DWORD DesiredStrLen
);
/*++
===============================================================================
Routine Description:
BOOL SetupMiniNT
This routine serves as the main entry point for initializing the netcard
under MiniNT. Also performs the tasks of changing the computer name
and establishing the computer as part of a local workgroup. Called from
factory!WinMain.
Arguments:
Return Value:
TRUE if netcard was correctly installed
FALSE if there was an error
===============================================================================
--*/
BOOL
SetupMiniNT(
VOID
)
{
BOOL bInstallNIC;
BOOL bRet = TRUE;
WCHAR szRequestedComputerName[100];
WCHAR szComputerName[100];
WCHAR szGeneratedName[100];
PWSTR AppendStr = NULL;
// for syssetup.dll GenerateName
HINSTANCE hInstSysSetup = NULL;
ExternalGenerateName pGenerateName = NULL;
HKEY hActiveComputerNameKey;
HKEY hComputerNameKey;
BOOL RemoteBoot = IsRemoteBoot();
extern FACTMODE g_fm;
LPTSTR lpszAdmin = NULL;
LPTSTR lpszWorkgroup = NULL;
//
// Reset the driver signing policy in WinPE
//
pSetCodeSigningPolicy(PolicyTypeDriverSigning,
DEFAULT_DRVSIGN_POLICY,
NULL);
pSetCodeSigningPolicy(PolicyTypeNonDriverSigning,
DEFAULT_NONDRVSIGN_POLICY,
NULL);
if (!RemoteBoot) {
// set random computer name
hInstSysSetup = LoadLibrary(L"syssetup.dll");
if (hInstSysSetup == NULL)
{
FacLogFileStr(0 | LOG_ERR | LOG_MSG_BOX, L"Failed to load syssetup.dll");
bRet = FALSE;
goto Clean;
}
pGenerateName = (ExternalGenerateName)GetProcAddress(hInstSysSetup,
"GenerateName");
if (pGenerateName == NULL)
{
FacLogFileStr(0 | LOG_ERR | LOG_MSG_BOX, L"Failed to obtain address of GenerateName");
bRet = FALSE;
goto Clean;
}
// call GenerateName
pGenerateName(szGeneratedName, 15);
// obtain factory computer name from winbom.ini...default to MININT
GetPrivateProfileString(L"Factory",
L"FactoryComputerName",
L"MININT",
szRequestedComputerName,
sizeof(szRequestedComputerName)/sizeof(TCHAR),
g_szWinBOMPath);
lstrcpyn (szComputerName, szRequestedComputerName, AS ( szComputerName ) );
AppendStr = wcsstr(szGeneratedName, L"-");
// ISSUE-2002/02/27-acosma,georgeje - The size of the computername we generate
// is not guaranteed to be less than MAX_COMPUTERNAME length.
//
if ( AppendStr )
{
if ( FAILED ( StringCchCat ( szComputerName, AS ( szComputerName ), AppendStr) ) )
{
FacLogFileStr(3, _T("StringCchCat failed %s %s\n"), szComputerName, AppendStr ) ;
}
}
// now set the computer name
if (ERROR_SUCCESS != RegOpenKeyEx(HKEY_LOCAL_MACHINE,
c_szActiveComputerNameRegKey,
0,
KEY_SET_VALUE,
&hActiveComputerNameKey))
{
FacLogFileStr(0 | LOG_ERR | LOG_MSG_BOX, L"Failed to open ActiveComputerName.");
bRet = FALSE;
goto Clean;
}
if ( ERROR_SUCCESS != RegSetValueEx(hActiveComputerNameKey,
L"ComputerName",
0,
REG_SZ,
(LPBYTE)szComputerName,
(lstrlen(szComputerName)+1) * sizeof(WCHAR)) )
{
FacLogFileStr(0 | LOG_ERR | LOG_MSG_BOX, L"Failed to set ActiveComputerName.");
bRet = FALSE;
goto Clean;
}
RegCloseKey(hActiveComputerNameKey);
if (ERROR_SUCCESS != RegOpenKeyEx(HKEY_LOCAL_MACHINE,
c_szComputerNameRegKey,
0,
KEY_SET_VALUE,
&hComputerNameKey))
{
FacLogFileStr(0 | LOG_ERR | LOG_MSG_BOX, L"Failed to open ComputerName.");
bRet = FALSE;
goto Clean;
}
if ( ERROR_SUCCESS != RegSetValueEx(hComputerNameKey,
L"ComputerName",
0,
REG_SZ,
(LPBYTE)szComputerName,
(lstrlen(szComputerName)+1) * sizeof(WCHAR)) )
{
FacLogFileStr(0 | LOG_ERR | LOG_MSG_BOX, L"Failed to set ComputerName.");
bRet = FALSE;
goto Clean;
}
RegCloseKey(hComputerNameKey);
lpszAdmin = AllocateString(NULL, IDS_ADMIN);
if(lpszAdmin == NULL) {
bRet = FALSE;
goto Clean;
}
lpszWorkgroup = AllocateString(NULL, IDS_WORKGROUP);
if(lpszWorkgroup == NULL) {
bRet = FALSE;
goto Clean;
}
// establish this computer as part of a workgroup
NetJoinDomain(NULL,
lpszWorkgroup,
NULL,
lpszAdmin,
NULL,
0);
}
//
// Install nic and always if we fail to install the netcard from the [NetCards] section
// do a full scan.
//
if (!(bInstallNIC = InstallNetworkCard(g_szWinBOMPath, FALSE)))
{
if (!(bInstallNIC = InstallNetworkCard(g_szWinBOMPath, TRUE)))
{
bRet = FALSE;
goto Clean;
}
}
Clean:
if (hInstSysSetup != NULL)
{
FreeLibrary(hInstSysSetup);
}
FREE(lpszAdmin);
FREE(lpszWorkgroup);
return bRet;
}
/*++
===============================================================================
Routine Description:
BOOL PartitionFormat(LPSTATEDATA lpStateData)
This routine will partition and format the C drive of the target machine.
Arguments:
lpStateData->lpszWinBOMPath
- Buffer containing the fully qualified path to the WINBOM
file
Return Value:
TRUE if no errors were encountered
FALSE if there was an error
===============================================================================
--*/
BOOL PartitionFormat(LPSTATEDATA lpStateData)
{
LPTSTR lpszWinBOMPath = lpStateData->lpszWinBOMPath;
BOOL bPartition = FALSE;
BOOL bForceFormat = FALSE;
BOOL bRet = TRUE;
// Stuff for partitioning.
//
HANDLE hStdinRd = NULL,
hStdinWrDup = NULL,
hStdoutWr = NULL,
hStdoutRdDup = NULL;
DWORD dwRead = 0;
LPTSTR lpszBuf = NULL;
DWORD dwWritten = 0;
DWORD dwToWrite = 0;
TCHAR szCommand[BUFSIZE] = NULLSTR;
CHAR szCommandA[BUFSIZE] = {0};
DWORD dwLogicalDrives = 0;
TCHAR cDriveLetter = _T('D');
#ifdef DBG
HANDLE hDebugFile = NULL;
#endif
DWORD nPartitions = 0;
LPTSTR lpCommand = szCommand;
//
// Partition and Format drives.
//
*szCommand = NULLCHR;
// Get the logical drives in existence
//
dwLogicalDrives = GetLogicalDrives();
// Read from the WinBOM to set partitioning parameters and
// Start Diskpart with redirected input and output.
//
if ( ProcessDiskConfigSection(lpszWinBOMPath) &&
StartDiskpart(&hStdinWrDup, &hStdoutRdDup, &hStdinRd, &hStdoutWr) )
{
UINT dwLastDiskN = UINT_MAX;
PPARTITION pCur;
UINT i = 1; // Partition number on disk.
TCHAR szBuf[MAX_WINPE_PROFILE_STRING] = NULLSTR;
//
// This call is to initialize the length for mystrcat function.
//
mylstrcat(lpCommand, NULLSTR, AS ( szCommand ) );
// First go through all the disks and clean them if specified in the
// respective nodes.
//
for (pCur = g_PartList; pCur; pCur = pCur->pNext )
{
// Only do this stuff if we're working with a new disk number.
//
if ( (dwLastDiskN != pCur->uiDiskID) && (pCur->bWipeDisk) )
{
_itow(pCur->uiDiskID, szBuf, 10);
lpCommand = mylstrcat(lpCommand, DCDISK, 0 );
lpCommand = mylstrcat(lpCommand, szBuf, 0 );
lpCommand = mylstrcat(lpCommand, DCNEWLINE,0 );
lpCommand = mylstrcat(lpCommand, DCWIPEDISK, 0 );
lpCommand = mylstrcat(lpCommand, DCNEWLINE, 0 );
// Set the last disk to the current disk.
//
dwLastDiskN = pCur->uiDiskID;
}
}
// Initialize this again for the next loop.
//
dwLastDiskN = UINT_MAX;
for (pCur = g_PartList; pCur; pCur = pCur->pNext )
{
TCHAR szDriveLetter[2];
// Only do this stuff if we're working with a new disk number.
//
if ( dwLastDiskN != pCur->uiDiskID )
{
_itow(pCur->uiDiskID, szBuf, 10);
lpCommand = mylstrcat(lpCommand, DCDISK, 0 );
lpCommand = mylstrcat(lpCommand, szBuf, 0 );
lpCommand = mylstrcat(lpCommand, DCNEWLINE, 0 );
if ( pCur->bWipeDisk && GET_FLAG(g_dwFactoryFlags, FLAG_IA64_MODE) )
{
lpCommand = mylstrcat(lpCommand, DCCONVERT_GPT, 0 );
lpCommand = mylstrcat(lpCommand, DCNEWLINE, 0 );
}
// Set the last disk to the current disk.
//
dwLastDiskN = pCur->uiDiskID;
// Reset the partition number on the disk to 1.
//
i = 1;
}
// Partition type (primary|extended|logical|efi|msr)
//
lpCommand = mylstrcat(lpCommand, DCPARTITION, 0 );
if ( ptPrimary == pCur->uiPartitionType )
lpCommand = mylstrcat(lpCommand, DCPARTITION_PRIMARY, 0 );
else if ( ptExtended == pCur->uiPartitionType )
lpCommand = mylstrcat(lpCommand, DCPARTITION_EXTENDED, 0 );
else if ( ptEfi == pCur->uiPartitionType )
lpCommand = mylstrcat(lpCommand, DCPARTITION_EFI, 0 );
else if ( ptMsr == pCur->uiPartitionType )
lpCommand = mylstrcat(lpCommand, DCPARTITION_MSR, 0 );
else
lpCommand = mylstrcat(lpCommand, DCPARTITION_LOGICAL, 0 );
// Size of partition.
//
if ( 0 != pCur->ullSize )
{
*szBuf = NULLCHR;
_i64tow(pCur->ullSize, szBuf, 10);
lpCommand = mylstrcat(lpCommand, DCSIZE, 0);
lpCommand = mylstrcat(lpCommand, szBuf, 0);
}
lpCommand = mylstrcat(lpCommand, DCNEWLINE, 0);
if ( ptExtended != pCur->uiPartitionType && ptMsr != pCur->uiPartitionType )
{
*szBuf = NULLCHR;
_itow(i, szBuf, 10);
lpCommand = mylstrcat(lpCommand, DCSELPARTITION, 0 );
lpCommand = mylstrcat(lpCommand, szBuf, 0 );
lpCommand = mylstrcat(lpCommand, DCNEWLINE, 0);
while ((dwLogicalDrives & ( (DWORD) 0x01 << (cDriveLetter - _T('A')))))
cDriveLetter++;
if (cDriveLetter > _T('Z'))
{
// Ran out of drive letters. Get out of here.
FacLogFile(0 | LOG_ERR, IDS_ERR_OUTOFDRIVELETTERS);
bRet = FALSE;
break;
}
if ( pCur->bSetActive && (0 == pCur->uiDiskID) )
{
pCur->cDriveLetter = _T('C');
lstrcpyn( szDriveLetter, _T("C"), AS ( szDriveLetter ) );
g_szTargetDrive[0] = pCur->cDriveLetter;
}
else
{
// Assign the new drive letter to this drive.
//
pCur->cDriveLetter = cDriveLetter;
szDriveLetter[0] = cDriveLetter;
szDriveLetter[1] = NULLCHR;
cDriveLetter++;
}
lpCommand = mylstrcat(lpCommand, DCASSIGNLETTER, 0 );
lpCommand = mylstrcat(lpCommand, szDriveLetter, 0 );
lpCommand = mylstrcat(lpCommand, DCNEWLINE, 0 );
// If this is the partition that we want to set active, make this
// the partition where we install the OS. Only allow the TargetDrive
// on a partition on disk 0.
//
if ( pCur->bSetActive && !GET_FLAG(g_dwFactoryFlags, FLAG_IA64_MODE) )
{
lpCommand = mylstrcat(lpCommand, DCSETACTIVE, 0 );
lpCommand = mylstrcat(lpCommand, DCNEWLINE, 0 );
}
}
i++;
}
if (bRet)
{
lpCommand = mylstrcat(lpCommand, DCEXIT, 0 );
lpCommand = mylstrcat(lpCommand, DCNEWLINE, 0 );
// Some debugging output here.
//
FacLogFileStr(3, szCommand);
// Convert UNICODE string to ANSI string.
//
if ((dwToWrite = WideCharToMultiByte(
CP_ACP,
0,
szCommand,
-1,
szCommandA,
sizeof(szCommandA),
NULL,
NULL
)))
{
// Write to pipe that is the standard input for the child process.
//
if (! WriteFile(hStdinWrDup, szCommandA, dwToWrite,
&dwWritten, NULL))
{
FacLogFile(0 | LOG_ERR, IDS_ERR_WRITEPIPE);
bRet = FALSE;
}
}
else
bRet = FALSE;
}
// Close the pipe handle so the child process stops reading.
//
CLOSEHANDLE(hStdinWrDup);
// Read from pipe that is the standard output for child process.
//
dwWritten = 0;
// Close the write end of the pipe before reading from the
// read end of the pipe.
//
CLOSEHANDLE(hStdoutWr);
// Read output from the child process, and write to parent's STDOUT.
//
#ifdef DBG
hDebugFile = CreateFile(_T("diskpart.txt"), GENERIC_WRITE, 0, NULL, CREATE_ALWAYS, FILE_ATTRIBUTE_NORMAL, NULL);
#endif
// Allocate the buffer we will read from...
//
lpszBuf = MALLOC(BUFSIZE * sizeof(TCHAR));
if ( lpszBuf )
{
for (;;)
{
if( !ReadFile( hStdoutRdDup, lpszBuf, BUFSIZE, &dwRead,
NULL) || dwRead == 0) break;
#ifdef DBG
if (hDebugFile != INVALID_HANDLE_VALUE)
if (! WriteFile(hDebugFile, lpszBuf, dwRead, &dwWritten, NULL))
break;
#endif
}
// Free the buffer we used for reading
//
FREE( lpszBuf );
}
#ifdef DBG
CLOSEHANDLE(hDebugFile);
#endif
} else
bRet = FALSE;
// Format partitions.
//
if ( bRet )
{
TCHAR szDirectory[MAX_PATH] = NULLSTR;
if ( GetSystemDirectory(szDirectory, MAX_PATH) )
SetCurrentDirectory(szDirectory);
// Go through the array of partitions in g_PartTable and format all the partitions that
// were just created (except for extended type partitions).
//
if (!FormatPartitions())
bRet = FALSE;
} // if (bRet)
// Now let's try to enable logging again if it is disabled, since we have
// new writable drives.
//
if (bRet && !g_szLogFile[0])
InitLogging(lpszWinBOMPath);
// Clean-up
//
FacLogFileStr(3, _T("Cleaning up PartitionFormat()\n"));
// Delete the linked list of partition info.
//
ListFree(g_PartList);
// Make sure that all the handles are closed.
//
CLOSEHANDLE(hStdoutRdDup);
CLOSEHANDLE(hStdinRd);
CLOSEHANDLE(hStdinWrDup);
CLOSEHANDLE(hStdoutWr);
return bRet;
}
BOOL DisplayPartitionFormat(LPSTATEDATA lpStateData)
{
return IniSettingExists(lpStateData->lpszWinBOMPath, INI_SEC_WBOM_DISKCONFIG, NULL, NULL);
}
/*++
===============================================================================
Routine Description:
BOOL ExpandStrings(LPCTSTR szSource, LPTSTR szDest, UINT nSize)
This is a helper routine for CopyFiles() to expand replaceable strings with
user defined strings from the WinBOM.
Arguments:
szSource - Buffer containing string with replaceable parameters.
szDest - Buffer where expanded string will be written to.
nSize - Size of the szDest string.
Return Value:
TRUE if no errors were encountered
FALSE if there was an error
Remarks:
Function assumes that the env (environment) table has been prepopulated.
The function will fail if the size of the expanded string exceeds nSize.
===============================================================================
--*/
BOOL ExpandStrings(LPCTSTR szSource, LPTSTR szDest, UINT nSize, LPTSTR *env, UINT uiEnvSize)
{
UINT uiDestLength = 0; // in TCHAR's
UINT j = 0; // just a counter to go through the environment table
UINT uiVarNameLength = 0; // in TCHAR's
UINT uiVarLength = 0;
TCHAR szVar[MAX_PATH] = NULLSTR;
LPTSTR pVarValue = NULL;
LPTSTR pSrc;
pSrc = (LPTSTR) szSource;
while (*pSrc != NULLCHR)
{
if (*pSrc == '<')
{
//
// Now we're looking at a variable that must be replaced.
//
// Go to first char in var name.
pSrc = CharNext(pSrc);
uiVarNameLength = 0;
while (*pSrc != '>')
{
szVar[uiVarNameLength++] = *pSrc;
if ( *(pSrc = CharNext(pSrc)) == NULLCHR)
{
// Terminate the szVar string with NULL
szVar[uiVarNameLength] = NULLCHR;
FacLogFileStr(3, _T("Illegal syntax. Cannot find closing '>' for variable: %s"), szVar);
return FALSE;
}
}
// Skip the closing '>'.
//
pSrc = CharNext(pSrc);
// Add the terminating NULL character to the szVar.
//
szVar[uiVarNameLength] = NULLCHR;
pVarValue = NULL;
// Find the value for this variable in the environment table.
//
for (j = 0; j < uiEnvSize; j += 2)
if (!lstrcmpi(szVar, env[j]))
{
pVarValue = env[j + 1];
break;
}
// If the Variable was not found return FALSE.
//
if (!pVarValue)
{
FacLogFileStr(3, _T("Variable not found: %s\n"), szVar);
return FALSE;
}
// Now copy the variable value to the target string.
//
uiVarLength = lstrlen(pVarValue);
if ((uiDestLength + uiVarLength) < nSize)
{
lstrcpyn(&szDest[uiDestLength], pVarValue, AS ( szDest ) - uiDestLength);
uiDestLength += uiVarLength;
}
else
{
// szDest buffer size exceeded.
//
FacLogFileStr(3, _T("Destination buffer size exceeded while expanding strings\n"));
return FALSE;
}
}
else // If *pSrc is a regular character copy it to the target buffer.
{
if (uiDestLength < nSize - 1)
{
szDest[uiDestLength++] = *pSrc;
pSrc = CharNext(pSrc);
}
else
{
// szDest buffer size exceeded.
//
FacLogFileStr(3, _T("Destination buffer size exceeded while expanding strings\n"));
return FALSE;
}
}
}
// Terminate the destination buffer with NULL character.
//
szDest[uiDestLength] = NULLCHR;
return TRUE;
}
/*++
===============================================================================
Routine Description:
BOOL CopyFiles(LPSTATEDATA lpStateData)
This routine will copy the necessary configuration files to a machine and
start setup of Whistler.
Arguments:
lpStateData->lpszWinBOMPath
- Buffer containing the fully qualified path to the WINBOM
file
Return Value:
TRUE if no errors were encountered
FALSE if there was an error
Remarks:
===============================================================================
--*/
BOOL CopyFiles(LPSTATEDATA lpStateData)
{
LPTSTR lpszWinBOMPath = lpStateData->lpszWinBOMPath;
// All variables that are expanded from the pathnames are given here.
//
// Leading or trailing backslashes are not allowed in the WinBOM for these VARS.
//
TCHAR szSku[MAX_WINPE_PROFILE_STRING] = NULLSTR;
TCHAR szLang[MAX_WINPE_PROFILE_STRING] = NULLSTR;
TCHAR szArch[MAX_WINPE_PROFILE_STRING] = NULLSTR;
TCHAR szCfg[MAX_WINPE_PROFILE_STRING] = NULLSTR;
TCHAR szOpkSrcRoot[MAX_WINPE_PROFILE_STRING] = NULLSTR;
TCHAR szOptSources[MAX_WINPE_PROFILE_STRING] = NULLSTR;
// Username, password and domain name used to login if a UNC path is specified for szOpkSrcRoot.
//
TCHAR szUsername[MAX_WINPE_PROFILE_STRING] = NULLSTR;
TCHAR szPassword[MAX_WINPE_PROFILE_STRING] = NULLSTR;
TCHAR szDomain[MAX_WINPE_PROFILE_STRING] = NULLSTR;
LPTSTR env[] =
{
_T("sku"), szSku,
_T("lang"), szLang,
_T("arch"), szArch,
_T("cfg"), szCfg
};
UINT i = 0;
TCHAR szSource[MAX_PATH] = NULLSTR;
TCHAR szTarget[MAX_PATH] = NULLSTR;
TCHAR szBuffer[MAX_PATH] = NULLSTR;
BOOL bRet = TRUE;
UINT uiLength = 0;
//
// Set up the globals.
//
// Read from WinBOM.
//
GetPrivateProfileString(WBOM_WINPE_SECTION, INI_KEY_WBOM_WINPE_LANG, NULLSTR, szLang, MAX_WINPE_PROFILE_STRING, lpszWinBOMPath);
GetPrivateProfileString(WBOM_WINPE_SECTION, INI_KEY_WBOM_WINPE_SKU, NULLSTR, szSku, MAX_WINPE_PROFILE_STRING, lpszWinBOMPath);
GetPrivateProfileString(WBOM_WINPE_SECTION, INI_KEY_WBOM_WINPE_CFGSET, NULLSTR, szCfg, MAX_WINPE_PROFILE_STRING, lpszWinBOMPath);
GetPrivateProfileString(WBOM_WINPE_SECTION, INI_KEY_WBOM_WINPE_SRCROOT, NULLSTR, szOpkSrcRoot, MAX_WINPE_PROFILE_STRING, lpszWinBOMPath);
GetPrivateProfileString(WBOM_WINPE_SECTION, INI_KEY_WBOM_WINPE_OPTSOURCES, NULLSTR, szOptSources, MAX_WINPE_PROFILE_STRING, lpszWinBOMPath);
// Find the system architecture. (x86 or ia64)
//
if ( GET_FLAG(g_dwFactoryFlags, FLAG_IA64_MODE) )
lstrcpyn(szArch, _T("ia64"), AS ( szArch ) );
else
lstrcpyn(szArch, _T("x86"), AS ( szArch ) );
if (*szLang && *szSku && *szCfg && *szOpkSrcRoot)
{
LPTSTR lpSource = NULLCHR;
LPTSTR lpTarget = NULLCHR;
LPTSTR lpOpkSrcRoot = NULLCHR;
DWORD cbSource = 0;
DWORD cbTarget = 0;
DWORD dwError = 0;
TCHAR szOpkSrcComputerName[MAX_COMPUTERNAME_LENGTH + 1] = NULLSTR;
LPTSTR lpComputerName = NULL;
NET_API_STATUS nas = NERR_Success;
// Make sure that source and target directories contain a trailing backslash
// If there is not trailing backslash add one.
//
AddPathN(szOpkSrcRoot, NULLSTR, AS ( szOpkSrcRoot ));
AddPathN(g_szTargetDrive, NULLSTR, AS ( g_szTargetDrive ) );
// Parse the SrcRoot string and pull out the unc path
//
lpOpkSrcRoot = szOpkSrcRoot;
if (( *lpOpkSrcRoot == CHR_BACKSLASH) &&
( *(lpOpkSrcRoot = CharNext(lpOpkSrcRoot)) == CHR_BACKSLASH))
{
DWORD dwTimeStart = 0;
DWORD dwTimeLast = 0;
// We're looking at a UNC path name.
//
lpOpkSrcRoot = CharNext(lpOpkSrcRoot);
lpComputerName = lpOpkSrcRoot;
while (*(lpOpkSrcRoot = CharNext(lpOpkSrcRoot)) != CHR_BACKSLASH)
{
if (*lpOpkSrcRoot == NULLCHR)
{
// Parse error: no share name specified.
//
FacLogFile(0 | LOG_ERR | LOG_MSG_BOX, IDS_ERR_NO_SHARE_NAME);
return FALSE;
}
}
// Get the computer name.
//
lstrcpyn(szOpkSrcComputerName, lpComputerName,
(lpOpkSrcRoot - lpComputerName) < AS(szOpkSrcComputerName) ? (INT) (lpOpkSrcRoot - lpComputerName) : AS(szOpkSrcComputerName));
while (*(lpOpkSrcRoot = CharNext(lpOpkSrcRoot)) != CHR_BACKSLASH)
{
if (*lpOpkSrcRoot == NULLCHR)
{
// Parse error: no share name specified.
//
FacLogFile(0 | LOG_ERR | LOG_MSG_BOX, IDS_ERR_NO_SHARE_NAME);
return FALSE;
}
}
// Read credentials from the WinBOM.
//
GetCredentials(szUsername, AS(szUsername), szPassword, AS(szPassword), lpszWinBOMPath, WBOM_WINPE_SECTION);
// Make sure that we're using the guest account if no other account is specified.
//
if ( NULLCHR == szUsername[0] )
lstrcpyn(szUsername, _T("guest"), AS ( szUsername ) );
// lpOpkSrcRoot now points to the backslash following the share name.
// Use this stuff in place. Make sure we set this back to backslash after NetUseAdd is done.
//
*lpOpkSrcRoot = NULLCHR;
// If the user specified a username of the form "domain\username"
// ignore the domain entry and use the one specified here. Otherwise use the domain entry here.
// After this the szUsername variable will always contain a username of the form "domain\username"
// if the domain was specified.
//
if ( (NULL == _tcschr(szUsername, _T('\\'))) && szDomain[0] )
{
// Build the full "domain\username" in szDomain and then copy it back to the szUsername.
//
if ( FAILED ( StringCchCat ( szDomain, AS ( szDomain ), _T("\\")) ) )
{
FacLogFileStr(3, _T("StringCchCat failed %s %s\n"), szDomain, _T("\\") ) ;
}
if ( FAILED ( StringCchCat ( szDomain, AS ( szDomain ), szUsername) ) )
{
FacLogFileStr(3, _T("StringCchCat failed %s %s\n"), szDomain, szUsername ) ;
}
lstrcpyn(szUsername, szDomain, AS ( szUsername ) );
}
dwTimeLast = dwTimeStart = GetTickCount();
while ( (nas = ConnectNetworkResource(szOpkSrcRoot, szUsername, szPassword, TRUE) != NERR_Success) &&
(((dwTimeLast = GetTickCount()) - dwTimeStart) < (NET_CONNECT_TIMEOUT * 1000)) )
{
// Wait for half a second to give net services a chance to settle down.
//
Sleep(500);
FacLogFileStr(3, _T("Net connect error: %d"), nas);
}
FacLogFileStr(3, _T("Waited for %d milliseconds to connect to the server."), (dwTimeLast - dwTimeStart));
// If we failed put up the error message and return FALSE.
//
if ( NERR_Success != nas )
{
// Can't authenticate to the server.
//
LPTSTR lpError = NULL;
// Try to get the description of the error.
//
if ( FormatMessage(FORMAT_MESSAGE_ALLOCATE_BUFFER | FORMAT_MESSAGE_FROM_SYSTEM, NULL, nas, 0, (LPTSTR) &lpError, 0, NULL) == 0 )
lpError = NULL;
FacLogFile(0 | LOG_ERR | LOG_MSG_BOX, IDS_ERR_CANTAUTHSERVER, lpError ? lpError : NULLSTR);
FREE(lpError);
return FALSE;
}
*lpOpkSrcRoot = CHR_BACKSLASH;
}
// Make sure that source and target root directories exist.
//
if (!DirectoryExists(g_szTargetDrive) || !DirectoryExists(szOpkSrcRoot))
{
FacLogFile(0 | LOG_ERR, IDS_ERR_NOSOURCEORTARGET, szOpkSrcRoot, g_szTargetDrive);
bRet = FALSE;
}
lstrcpyn( szSource, szOpkSrcRoot, AS ( szSource ) );
lstrcpyn( szTarget, g_szTargetDrive, AS ( szTarget ) );
lpSource = szSource + lstrlen(szOpkSrcRoot);
cbSource = AS(szSource) - lstrlen(szOpkSrcRoot);
lpTarget = szTarget + lstrlen(g_szTargetDrive);
cbTarget = AS(szTarget) - lstrlen(g_szTargetDrive);
for (i = 0; ( i < AS(g_filesToCopy) ) && bRet; i++)
{
//
// Get the source and target and expand them to the real filenames.
//
if (ExpandStrings(g_filesToCopy[i].szFISourceName, lpSource, cbSource, env, AS(env)) &&
ExpandStrings(g_filesToCopy[i].szFITargetName, lpTarget, cbTarget, env, AS(env)))
{
// Create the directory.
//
TCHAR szFullPath[MAX_PATH] = NULLSTR;
LPTSTR lpFind = NULL;
if (GetFullPathName(szTarget, AS(szFullPath), szFullPath, &lpFind) && szFullPath[0] && lpFind)
{
*lpFind = NULLCHR;
CreatePath(szFullPath);
}
if (g_filesToCopy[i].bDirectory)
{
if (!CopyDirectory(szSource, szTarget) && g_filesToCopy[i].bRequired)
{
FacLogFile(0 | LOG_ERR, IDS_ERR_FAILEDCOPYDIR, szSource);
bRet = FALSE;
}
}
else if (!CopyFile(szSource, szTarget, FALSE) && g_filesToCopy[i].bRequired)
{
FacLogFile(0 | LOG_ERR, IDS_ERR_FAILEDCOPYFILE, szSource);
bRet = FALSE;
}
}
else
{
// Could not expand the strings
//
FacLogFileStr(3 | LOG_ERR, _T("Cannot expand filename string. Filename: %s."), g_filesToCopy[i].szFISourceName);
if (g_filesToCopy[i].bRequired)
{
// Log error here.
//
FacLogFile(0 | LOG_ERR | LOG_MSG_BOX, IDS_ERR_COPYFILE, g_filesToCopy[i].szFISourceName);
bRet = FALSE;
}
}
} // for loop
// Clean up the files that we copied over to the root drive
//
lstrcpyn(szBuffer, g_szTargetDrive, AS ( szBuffer ) );
AddPathN(szBuffer, GET_FLAG(g_dwFactoryFlags, FLAG_IA64_MODE) ? _T("ia64") : _T("i386"), AS(szBuffer));
CleanupSourcesDir(szBuffer);
// Let's start the winnt32 setup here.
//
if (bRet)
{
TCHAR szPreExpand[MAX_PATH] = NULLSTR;
TCHAR szSetup[MAX_PATH] = NULLSTR;
TCHAR szConfig[MAX_PATH] = NULLSTR;
TCHAR szUnattend[MAX_PATH] = NULLSTR;
TCHAR szCommandLine[MAX_PATH] = NULLSTR;
DWORD dwExitCode = 0;
lstrcpyn(szPreExpand, _T("\""), AS ( szPreExpand ) );
if ( FAILED ( StringCchCat ( szPreExpand, AS ( szPreExpand ), g_szTargetDrive) ) )
{
FacLogFileStr(3, _T("StringCchCat failed %s %s\n"), szPreExpand, g_szTargetDrive ) ;
}
if ( GET_FLAG(g_dwFactoryFlags, FLAG_IA64_MODE) )
{
if ( FAILED ( StringCchCat ( szPreExpand, AS ( szPreExpand ), _T("ia64\\winnt32.exe\"") ) ) )
{
FacLogFileStr(3, _T("StringCchCat failed %s %s\n"), szPreExpand, _T("ia64\\winnt32.exe\"" ) ) ;
}
}
else
{
if ( FAILED ( StringCchCat ( szPreExpand, AS ( szPreExpand ), _T("i386\\winnt32.exe\"") ) ) )
{
FacLogFileStr(3, _T("StringCchCat failed %s %s\n"), szPreExpand, _T("i386\\winnt32.exe\"") );
}
}
if (!ExpandStrings(szPreExpand, szSetup, AS(szSetup), env, AS(env)))
{
FacLogFileStr(3 | LOG_ERR, _T("Error expanding winnt32.exe source string: %s"), szPreExpand);
bRet = FALSE;
}
// Need a full path to the config set directory.
//
lstrcpyn(szPreExpand, _T("\""), AS ( szPreExpand ) );
if ( FAILED ( StringCchCat ( szPreExpand, AS ( szPreExpand ), szOpkSrcRoot ) ) )
{
FacLogFileStr(3, _T("StringCchCat failed %s %s\n"), szPreExpand, szOpkSrcRoot ) ;
}
if ( FAILED ( StringCchCat ( szPreExpand, AS ( szPreExpand ), _T("cfgsets\\<cfg>\"") ) ) )
{
FacLogFileStr(3, _T("StringCchCat failed %s %s\n"), szPreExpand, _T("cfgsets\\<cfg>\"") ) ;
}
if ( !ExpandStrings(szPreExpand, szConfig, AS(szConfig), env, AS(env)) )
{
FacLogFileStr(3 | LOG_ERR, _T("Error expanding config set source string: %s"), szPreExpand);
bRet = FALSE;
}
// Setup the full path to the unattend file.
//
lstrcpyn(szUnattend, g_szTargetDrive, AS ( szUnattend ) );
if ( FAILED ( StringCchCat ( szUnattend, AS ( szUnattend ), _T("sysprep\\unattend.txt") ) ) )
{
FacLogFileStr(3, _T("StringCchCat failed %s %s\n"), szUnattend, _T("sysprep\\unattend.txt") ) ;
}
// Write the UNC to where the $OEM$ directory is to the unattend we copied local.
//
WritePrivateProfileString(_T("Unattended"), _T("OemFilesPath"), szConfig, szUnattend);
// Set up the command line
//
if ( GET_FLAG(g_dwFactoryFlags, FLAG_IA64_MODE) )
{
lstrcpyn(szCommandLine, _T("/tempdrive:"), AS ( szCommandLine ) );
}
else
{
lstrcpyn ( szCommandLine, _T("/syspart:"), AS ( szCommandLine ) );
}
if ( FAILED ( StringCchCat ( szCommandLine, AS ( szCommandLine ), g_szTargetDrive ) ) )
{
FacLogFileStr(3, _T("StringCchCat failed %s %s\n"), szCommandLine, g_szTargetDrive ) ;
}
if ( FAILED ( StringCchCat ( szCommandLine, AS ( szCommandLine ), _T(" /noreboot /unattend:") ) ) )
{
FacLogFileStr(3, _T("StringCchCat failed %s %s\n"), szCommandLine, _T(" /noreboot /unattend:") ) ;
}
if ( FAILED ( StringCchCat ( szCommandLine, AS ( szCommandLine ), szUnattend ) ) )
{
FacLogFileStr(3, _T("StringCchCat failed %s %s\n"), szCommandLine, szUnattend ) ;
}
//
// Check if we need to install from multiple source locations...
//
if ( ( 0 == LSTRCMPI(szOptSources, WBOM_YES) ) &&
FAILED( StringCchCat( szCommandLine, AS(szCommandLine), _T(" /makelocalsource:all") ) ) )
{
FacLogFileStr(3, _T("StringCchCat failed %s %s\n"), szCommandLine, _T(" /makelocalsource:all") ) ;
}
FacLogFileStr(3, _T("Executing: %s %s\n"), szSetup, szCommandLine);
if ( !InvokeExternalApplicationEx( szSetup, szCommandLine, &dwExitCode, INFINITE, TRUE ) )
{
FacLogFile(0 | LOG_ERR | LOG_MSG_BOX, IDS_ERR_SETUP, szSetup, szCommandLine);
bRet = FALSE;
}
}
}
else
{
// There was a problem reading one of the variables from the winbom.ini
// Return TRUE like nothing happened. This basically means that we will not
// copy down configsets
//
FacLogFile(0, IDS_ERR_MISSINGVAR);
}
return bRet;
}
BOOL DisplayCopyFiles(LPSTATEDATA lpStateData)
{
return ( IniSettingExists(lpStateData->lpszWinBOMPath, INI_SEC_WBOM_WINPE, INI_KEY_WBOM_WINPE_LANG, NULL) &&
IniSettingExists(lpStateData->lpszWinBOMPath, INI_SEC_WBOM_WINPE, INI_KEY_WBOM_WINPE_SKU, NULL) &&
IniSettingExists(lpStateData->lpszWinBOMPath, INI_SEC_WBOM_WINPE, INI_KEY_WBOM_WINPE_CFGSET, NULL) &&
IniSettingExists(lpStateData->lpszWinBOMPath, INI_SEC_WBOM_WINPE, INI_KEY_WBOM_WINPE_SRCROOT, NULL) );
}
// Concatenates strings and returns a pointer to the end of lpString1. Used for performance
// whenever lots of strings get appended to a string.
//
LPTSTR mylstrcat(LPTSTR lpString1, LPCTSTR lpString2, DWORD dwSize )
{
static DWORD dwBufSize = 0;
if ( dwSize )
dwBufSize = dwSize;
// If dwBufSize becomes less than or equal to zero
// StringCchCat will fail anyway.
if ( SUCCEEDED ( StringCchCat ( lpString1, dwBufSize, lpString2 ) ) )
{
// Get the length of the string
DWORD dwLen = lstrlen ( lpString1 ) ;
// Substract the length from the total length
dwBufSize -= dwLen ;
return (lpString1 + dwLen );
}
else
{
FacLogFileStr(3, _T("StringCchCat failed %s %s\n"), lpString1, lpString2 ) ;
}
return NULL ;
}
// Starts diskpart with redirected input and output.
//
// ISSUE-2002/02/25-acosma,georgeje - If read pipe fills up we will have deadlock. Possible solution
// is to create another thread that reads from the readpipe and writes to the debug file. Another
// possibility is to Create the debug file or NUL device file (dbg and non-dbg versions) and pass
// that as the process's stdout handle.
//
BOOL StartDiskpart(HANDLE *phStdinWrDup, HANDLE *phStdoutRdDup, HANDLE *phStdinRd, HANDLE *phStdoutWr)
{
HANDLE hStdinWr = NULL,
hStdoutRd = NULL;
SC_HANDLE hSCM;
SECURITY_ATTRIBUTES saAttr;
BOOL fSuccess;
PROCESS_INFORMATION piProcInfo;
STARTUPINFO siStartInfo;
TCHAR szDiskpart[20] = NULLSTR;
BOOL bRet = FALSE;
// Set the bInheritHandle flag so pipe handles are inherited.
//
saAttr.nLength = sizeof(SECURITY_ATTRIBUTES);
saAttr.bInheritHandle = TRUE;
saAttr.lpSecurityDescriptor = NULL;
// Start the dmserver service myself, so that diskpart doesn't choke
// when I start it. In debug mode log the time it took to do this.
//
if ( hSCM = OpenSCManager(NULL, NULL, SC_MANAGER_ALL_ACCESS) )
{
#ifdef DBG
DWORD dwTime;
dwTime = GetTickCount();
#endif // #ifdef DBG
// Start the service here. Start my service waits for the service to start.
// I'm not checking the return status here because diskpart will fail later,
// if it can't start dmserver and we will fail out when we try to format the
// drives. This way we have 2 chances to work correctly.
//
StartMyService(_T("dmserver"), hSCM);
#ifdef DBG
FacLogFileStr(3, _T("Waited for dmserver to start for %d seconds."), (GetTickCount() - dwTime)/1000);
#endif // #ifdef DBG
CloseServiceHandle(hSCM);
}
else
{
FacLogFile(0 | LOG_ERR, IDS_ERR_SCM);
}
//
// The steps for redirecting child process's STDOUT:
// 1. Create anonymous pipe to be STDOUT for child process.
// 2. Create a noninheritable duplicate of the read handle and
// close the inheritable read handle.
//
// Create a pipe for the child process's STDOUT.
//
// Create noninheritable read handle.
//
if ( CreatePipe(&hStdoutRd, phStdoutWr, &saAttr, 0)
&&
DuplicateHandle(GetCurrentProcess(), hStdoutRd, GetCurrentProcess(), phStdoutRdDup , 0,
FALSE, DUPLICATE_SAME_ACCESS) )
{
// Close the inheritable read handle.
//
CLOSEHANDLE(hStdoutRd);
// The steps for redirecting child process's STDIN:
// 1. Create anonymous pipe to be STDIN for child process.
// 2. Create a noninheritable duplicate of the write handle,
// and close the inheritable write handle.
// Create a pipe for the child process's STDIN.
//
// Duplicate the write handle to the pipe so it is not inherited.
//
if (CreatePipe(phStdinRd, &hStdinWr, &saAttr, 0)
&&
DuplicateHandle(GetCurrentProcess(), hStdinWr, GetCurrentProcess(), phStdinWrDup, 0,
FALSE, DUPLICATE_SAME_ACCESS) )
{
// Close the handle so that it is not inherited.
//
CLOSEHANDLE(hStdinWr);
//
// Now create the child process.
//
// Set up members of the PROCESS_INFORMATION structure.
//
ZeroMemory( &piProcInfo, sizeof(PROCESS_INFORMATION) );
// Set up members of the STARTUPINFO structure.
//
ZeroMemory( &siStartInfo, sizeof(STARTUPINFO) );
siStartInfo.cb = sizeof(STARTUPINFO);
siStartInfo.dwFlags = STARTF_USESTDHANDLES;
siStartInfo.hStdInput = *phStdinRd;
siStartInfo.hStdOutput = *phStdoutWr;
siStartInfo.hStdError = *phStdoutWr;
// siStartInfo.wShowWindow = SW_HIDE;
// Create the child process (DISKPART)
//
lstrcpyn(szDiskpart, _T("diskpart"), AS ( szDiskpart ) );
if (CreateProcess(NULL,
szDiskpart, // command line
NULL, // process security attributes
NULL, // primary thread security attributes
TRUE, // handles are inherited
CREATE_NO_WINDOW, // creation flags - do no show diskpart console
NULL, // use parent's environment
NULL, // use parent's current directory
&siStartInfo, // STARTUPINFO pointer
&piProcInfo)) // receives PROCESS_INFORMATION
{
CLOSEHANDLE(piProcInfo.hThread);
CLOSEHANDLE(piProcInfo.hProcess);
bRet = TRUE;
}
else
FacLogFile(0 | LOG_ERR, IDS_ERR_CREATEPROCESS);
}
else
FacLogFile(0 | LOG_ERR, IDS_ERR_CREATESTDIN);
}
else
FacLogFile(0 | LOG_ERR, IDS_ERR_CREATESTDOUT);
CLOSEHANDLE(hStdinWr);
CLOSEHANDLE(hStdoutRd);
return bRet;
}
BOOL ProcessDiskConfigSection(LPTSTR lpszWinBOMPath)
{
TCHAR szDisks[BUFSIZE] = NULLSTR;
LPTSTR lpDisk;
TCHAR szSectionBuffer[MAX_WINPE_PROFILE_STRING] = NULLSTR;
BOOL bRet = TRUE;
UINT uiDiskNumber = 0;
DWORD numPartitions = 0;
BOOL bWipeDisk = FALSE;
GetPrivateProfileString(INI_SEC_WBOM_DISKCONFIG, NULL, NULLSTR, szDisks, AS(szDisks), lpszWinBOMPath);
if (szDisks[0])
{
// Get the Section names. Process each disk section.
//
for (lpDisk = szDisks; *lpDisk; lpDisk += (lstrlen(lpDisk) + 1))
{
LPTSTR lpDiskID = NULL;
numPartitions = 0;
GetPrivateProfileString(INI_SEC_WBOM_DISKCONFIG,
lpDisk,
NULLSTR,
szSectionBuffer,
AS(szSectionBuffer),
lpszWinBOMPath);
// Make sure that the disk number is specified.
// Skip over the first 4 characters which should be "Disk", and point
// to the first digit in the disk number.
//
lpDiskID = lpDisk + 4;
if ( szSectionBuffer[0] && (uiDiskNumber = (UINT) _wtoi(lpDiskID)) )
{
TCHAR szBuf[MAX_WINPE_PROFILE_STRING] = NULLSTR;
// See if WipeDisk is set for this disk. On IA64 wipe by default.
//
GetPrivateProfileString(szSectionBuffer,
WBOM_DISK_CONFIG_WIPE_DISK,
NULLSTR,
szBuf,
AS(szBuf),
lpszWinBOMPath);
if ( 0 == LSTRCMPI(szBuf, WBOM_YES) )
bWipeDisk = TRUE;
else if ( (0 != LSTRCMPI(szBuf, WBOM_NO)) && (GET_FLAG(g_dwFactoryFlags, FLAG_IA64_MODE)) )
bWipeDisk = TRUE;
GetNumberOfPartitions(uiDiskNumber - 1, &numPartitions);
if ( 0 == numPartitions || bWipeDisk )
ProcessDisk(uiDiskNumber, szSectionBuffer, lpszWinBOMPath, bWipeDisk);
// If we're working on disk 0 (DiskID = 1) format the C drive.
//
else if ( 1 == uiDiskNumber )
if ( !JustFormatC(lpszWinBOMPath, szSectionBuffer) )
bRet = FALSE;
// else just ignore the disk :).
}
else
{
FacLogFile(0 | LOG_ERR, IDS_ERR_DISKCFGENTRY, lpDisk);
bRet = FALSE;
}
}
if ( g_PartList )
{
// If no partitions on disk 0 were set active,
// set the first PRIMARY partition on the disk active.
// pFirst variable will maintain a pointer to the first PRIMARY partition
// on the disk.
//
BOOL bActive = FALSE;
PPARTITION pFirst = NULL; // for the next block this will point to the first PRIMARY partition on disk 0.
PPARTITION pCur = NULL;
for ( pCur = g_PartList; pCur && 0 == pCur->uiDiskID; pCur = pCur->pNext )
{
if ( ptPrimary == pCur->uiPartitionType )
{
if ( !pFirst )
pFirst = pCur;
if ( pCur->bSetActive )
{
bActive = TRUE;
break;
}
}
}
if ( !bActive && pFirst )
pFirst->bSetActive = TRUE;
//
// If we're on IA64 do a check to see if user specified EFI and MSR partitions
// for each drive. If not add them in automatically.
//
if ( GET_FLAG(g_dwFactoryFlags, FLAG_IA64_MODE) )
{
PPARTITION pLastLast = NULL;
PPARTITION pLast = NULL;
BOOL bMsr = FALSE;
BOOL bEfi = FALSE;
// pCur is the iterator and pLast will be pointing
// to the element previous to pCur. pLastLast will point to the last element of the
// previous disk.
//
for ( pCur = g_PartList; pCur; pCur = pCur->pNext )
{ // We're on the same disk.
//
if ( !pLast || pCur->uiDiskID == pLast->uiDiskID )
{
if ( ptMsr == pCur->uiPartitionType )
bMsr = TRUE;
if ( ptEfi == pCur->uiPartitionType )
bEfi = TRUE;
}
else
{ // Just moved on to a new disk. If Msr and Efi were not found on previous disk make them!
//
AddMsrAndEfi(bMsr, bEfi, pLastLast, pLast->uiDiskID, bWipeDisk);
// Re-init these for the next disk.
//
bEfi = bMsr = FALSE;
pLastLast = pLast;
}
pLast = pCur;
}
// Do this for the special case when we are at the end of the list.
//
AddMsrAndEfi(bMsr, bEfi, pLastLast, pLast->uiDiskID, bWipeDisk);
}
}
}
return bRet;
}
#define GO if ( szBuf[0] ) bGo = TRUE
BOOL ProcessDisk(UINT diskID, LPTSTR lpSectionName, LPTSTR lpszWinBOMPath, BOOL bWipeDisk)
{
TCHAR szBuf[MAX_WINPE_PROFILE_STRING] = NULLSTR;
TCHAR szKey[MAX_WINPE_PROFILE_STRING] = NULLSTR;
BOOL bGo = TRUE;
UINT i = 1;
PPARTITION pLast = NULL;
PPARTITION pCur = NULL;
// Need pLast to point to the last element in the list.
// Go through the list until we find the last element.
//
for (pCur = g_PartList; pCur; pCur = pCur->pNext)
{
pLast = pCur;
}
// Loop will be interrupted when a SizeN key no longer exists. (N is i and grows with each iteration).
//
while (bGo)
{
// Initialize this to not continue.
//
bGo = FALSE;
// The MALLOC macro gives us blanked out memory, so that we don't have to initialize
// the pNext pointer to NULL. pCur is now used to point to the new node that we create.
//
if ( pCur = (PPARTITION) MALLOC( sizeof(PARTITION) ) )
{
// Size
//
Build(szKey, AS ( szKey ), i, DCS_SIZE);
GetPrivateProfileString(lpSectionName, szKey, NULLSTR, szBuf, AS(szBuf), lpszWinBOMPath);
GO;
if ( szBuf[0] )
{
if ( !lstrcmpi(szBuf, _T("*")) )
pCur->ullSize = 0;
else
// In case number cannot be converted to integer 0 will be returned.
// This is OK.
pCur->ullSize = _ttoi(szBuf);
}
// WipeDisk
//
pCur->bWipeDisk = bWipeDisk;
// QuickFormat
//
Build(szKey, AS ( szKey ), i, DCS_QUICK_FORMAT);
GetPrivateProfileString(lpSectionName, szKey, NULLSTR, szBuf, AS(szBuf), lpszWinBOMPath);
GO;
if ( szBuf[0] && !LSTRCMPI(szBuf, WBOM_NO) )
pCur->bQuickFormat = FALSE;
else
pCur->bQuickFormat = TRUE;
// SetActive
//
Build(szKey, AS ( szKey ), i, DCS_SET_ACTIVE);
GetPrivateProfileString(lpSectionName, szKey, NULLSTR, szBuf, AS(szBuf), lpszWinBOMPath);
GO;
if ( !LSTRCMPI(szBuf, WBOM_YES) )
pCur->bSetActive = TRUE;
else
pCur->bSetActive = FALSE;
// FileSystem
//
Build(szKey, AS ( szKey ), i, DCS_FILE_SYSTEM);
GetPrivateProfileString(lpSectionName, szKey, NULLSTR, szBuf, AS(szBuf), lpszWinBOMPath);
GO;
if ( !LSTRCMPI(szBuf, _T("FAT32")) || !LSTRCMPI(szBuf, _T("FAT")) )
pCur->uiFileSystem = fsFat32;
else if ( !LSTRCMPI(szBuf, _T("FAT16")) )
pCur->uiFileSystem = fsFat;
else
pCur->uiFileSystem = fsNtfs;
// Partition Type
//
Build(szKey, AS ( szKey ), i, DCS_PARTITION_TYPE);
GetPrivateProfileString(lpSectionName, szKey, NULLSTR, szBuf, AS(szBuf), lpszWinBOMPath);
GO;
if ( !lstrcmpi(szBuf, DCPARTITION_EXTENDED) )
pCur->uiPartitionType = ptExtended;
else if ( !lstrcmpi(szBuf, DCPARTITION_LOGICAL) )
pCur->uiPartitionType = ptLogical;
else if ( !lstrcmpi(szBuf, DCPARTITION_MSR) )
{
pCur->uiPartitionType = ptMsr;
}
else if ( !lstrcmpi(szBuf, DCPARTITION_EFI) )
{
pCur->uiPartitionType = ptEfi;
pCur->uiFileSystem = fsFat32;
}
else
pCur->uiPartitionType = ptPrimary;
// DiskID
//
// Note: -1 is because in the winBOM the diskID is 1 based while Diskpart has it 0-based.
//
pCur->uiDiskID = diskID - 1;
// Deal with the linked list some more.
//
if ( bGo )
{
// Build the linked list.
//
if ( pLast )
pLast->pNext = pCur;
else
g_PartList = pCur;
pLast = pCur;
}
else
{ // If we didn't find any entries for this partition it means that we're done.
// FREE up the current node.
//
FREE(pCur);
}
} // if
i++;
} // while
return TRUE;
}
VOID AddMsrAndEfi(BOOL bMsr, BOOL bEfi, PPARTITION pLastLast, UINT uiDiskID, BOOL bWipeDisk)
{
PPARTITION pNew = NULL;
if ( !bMsr )
{
if ( pNew = (PPARTITION) MALLOC( sizeof(PARTITION) ) )
{
pNew->uiDiskID = uiDiskID;
pNew->ullSize = GetDiskMSRSizeMB(uiDiskID);
pNew->uiPartitionType = ptMsr;
pNew->bWipeDisk = bWipeDisk;
// Do a check to see if EFI partition is already there.
// If it is, then insert the msr partition after it..not before!.
//
if ( pLastLast)
{
if ( (pLastLast->pNext) && (ptEfi == pLastLast->pNext->uiPartitionType) && (uiDiskID == pLastLast->pNext->uiDiskID) )
ListInsert(pLastLast->pNext, pNew);
else
ListInsert(pLastLast, pNew);
}
else
{
if ( (ptEfi == g_PartList->uiPartitionType) && (uiDiskID == g_PartList->uiDiskID) )
ListInsert(g_PartList, pNew);
else
ListInsert(NULL, pNew);
}
}
}
if ( (uiDiskID == 0) && (!bEfi) )
{
if ( pNew = (PPARTITION) MALLOC( sizeof(PARTITION) ) )
{
pNew->uiDiskID = uiDiskID;
pNew->ullSize = GetDiskEFISizeMB(uiDiskID);
pNew->uiPartitionType = ptEfi;
pNew->uiFileSystem = fsFat32;
pNew->bQuickFormat = TRUE;
pNew->bWipeDisk = bWipeDisk;
ListInsert(pLastLast, pNew);
}
}
}
BOOL Build(LPTSTR lpKey, DWORD dwSize, UINT diskID, LPCTSTR lpKeyName)
{
// szBuf is 33 TCHARs since docs for _itot say this is the max size that it will fill.
//
TCHAR szBuf[33] = NULLSTR;
_itot(diskID, szBuf, 10);
if (!szBuf[0])
return FALSE;
lstrcpyn ( lpKey, lpKeyName, dwSize );
if ( FAILED ( StringCchCat ( lpKey, dwSize, szBuf) ) )
{
FacLogFileStr(3, _T("StringCchCat failed %s %s\n"), lpKey, szBuf ) ;
}
return TRUE;
}
BOOL FormatPartitions(VOID)
{
TCHAR szCmdLine[MAX_PATH] = NULLSTR;
BOOL bRet = TRUE;
DWORD dwExitCode = 0;
PPARTITION pCur = NULL;
for (pCur = g_PartList; pCur; pCur = pCur->pNext )
{
if ( (ptExtended != pCur->uiPartitionType) && (ptMsr != pCur->uiPartitionType) )
{
szCmdLine[0] = pCur->cDriveLetter;
szCmdLine[1] = _T(':'); // Colon.
szCmdLine[2] = NULLCHR;
if (fsFat32 == pCur->uiFileSystem)
{
if ( FAILED ( StringCchCat ( szCmdLine, AS ( szCmdLine ), _T(" /fs:fat32")) ) )
{
FacLogFileStr(3, _T("StringCchCat failed %s %s\n"), szCmdLine, _T(" /fs:fat32") ) ;
}
}
else if (fsFat == pCur->uiFileSystem)
{
if ( FAILED ( StringCchCat ( szCmdLine, AS ( szCmdLine ), _T(" /fs:fat")) ) )
{
FacLogFileStr(3, _T("StringCchCat failed %s %s\n"), szCmdLine, _T(" /fs:fat") ) ;
}
}
else
{
if ( FAILED ( StringCchCat ( szCmdLine, AS ( szCmdLine ), _T(" /fs:ntfs")) ) )
{
FacLogFileStr(3, _T("StringCchCat failed %s %s\n"), szCmdLine, _T(" /fs:ntfs") ) ;
}
}
if (pCur->bQuickFormat)
{
if ( FAILED ( StringCchCat ( szCmdLine, AS ( szCmdLine ), _T(" /q")) ) )
{
FacLogFileStr(3, _T("StringCchCat failed %s %s\n"), szCmdLine, _T(" /q") ) ;
}
}
if ( FAILED ( StringCchCat ( szCmdLine, AS ( szCmdLine ), _T(" /y")) ) )
{
FacLogFileStr(3, _T("StringCchCat failed %s %s\n"), szCmdLine, _T(" /y") ) ;
}
FacLogFileStr(3 | LOG_TIME, _T("Starting to format %c:."), pCur->cDriveLetter);
if (InvokeExternalApplicationEx(_T("format.com"), szCmdLine, &dwExitCode, INFINITE, TRUE))
{
if (!dwExitCode)
{
FacLogFileStr(3 | LOG_TIME, _T("Finished formatting drive %c:."), pCur->cDriveLetter);
}
else
{
// Log error here.
FacLogFile(0 | LOG_ERR | LOG_MSG_BOX, IDS_ERR_FORMATFAILED, pCur->cDriveLetter);
bRet = FALSE;
}
}
else
{
FacLogFile(0 | LOG_ERR | LOG_MSG_BOX, IDS_ERR_NOFORMAT);
bRet = FALSE;
}
}
} // for loop
return bRet;
}
BOOL JustFormatC(LPTSTR lpszWinBOMPath, LPTSTR lpszSectionBuffer)
{
TCHAR szFileSystemNameBuffer[128] = NULLSTR;
TCHAR szCmdLine[MAX_PATH] = NULLSTR;
DWORD dwExitCode = 0;
BOOL bForceFormat = FALSE;
BOOL bRet = TRUE;
TCHAR szScratch[MAX_WINPE_PROFILE_STRING] = NULLSTR;
HANDLE hFile = NULL;
WIN32_FIND_DATA fileInfo;
GetPrivateProfileString(lpszSectionBuffer, WBOM_WINPE_FORCE_FORMAT, WBOM_NO, szScratch, MAX_WINPE_PROFILE_STRING, lpszWinBOMPath);
if (0 == LSTRCMPI(szScratch, WBOM_YES))
bForceFormat = TRUE;
if ( !bForceFormat && (hFile = FindFirstFile(_T("C:\\*.*"), &fileInfo)) != INVALID_HANDLE_VALUE )
{
// Files found on C:\. Not good. Ask the user what to do.
//
FindClose(hFile);
if ( GET_FLAG(g_dwFactoryFlags, FLAG_QUIET_MODE) ||
(IDYES != MsgBox(NULL, IDS_MSG_FILESEXIST, IDS_APPNAME, MB_YESNO | MB_ICONQUESTION | MB_DEFBUTTON2 | MB_SETFOREGROUND))
)
{
FacLogFile(0 | LOG_ERR, IDS_ERR_FILEFOUNDONC);
bRet = FALSE;
}
}
if (bRet)
{
// Make sure that we format the disk with whatever the current format is. If the disk is currently
// formatted .
//
if ( GetVolumeInformation(_T("C:\\"), NULL, 0, NULL, NULL, NULL, szFileSystemNameBuffer, AS(szFileSystemNameBuffer)) &&
szFileSystemNameBuffer[0] && (0 != LSTRCMPI(szFileSystemNameBuffer, _T("RAW"))) )
{
// There is a known filesystem on here and format will format with
// the existing filesystem.
//
lstrcpyn(szCmdLine, _T("C: /y /q"), AS ( szCmdLine ));
}
else
{
// The drive is not formatted. So by default format it NTFS.
//
if ( FAILED ( StringCchCat ( szCmdLine, AS ( szCmdLine ), _T("C: /fs:ntfs /y /q")) ) )
{
FacLogFileStr(3, _T("StringCchCat failed %s %s\n"), szCmdLine, _T("C: /fs:ntfs /y /q") ) ;
}
}
// Format
//
FacLogFileStr(3, _T("format.com %s\n"), szCmdLine);
if (InvokeExternalApplicationEx(_T("format.com"), szCmdLine, &dwExitCode, INFINITE, TRUE))
{
if (dwExitCode)
{ // Log error here.
FacLogFile(0 | LOG_ERR, IDS_ERR_FORMATFAILED, _T('C'));
bRet = FALSE;
}
}
else
{
FacLogFile(0 | LOG_ERR | LOG_MSG_BOX, IDS_ERR_NOFORMAT);
}
}
return bRet;
}
ULONGLONG GetDiskSizeMB(UINT uiDiskNumber)
{
HANDLE hDevice = NULL;
TCHAR buffer[MAX_WINPE_PROFILE_STRING] = NULLSTR;
DISK_GEOMETRY DiskGeometry;
ULONGLONG ullDiskSizeMB = 0;
DWORD dwNumBytes = 0;
ZeroMemory( &DiskGeometry, sizeof(DiskGeometry) );
// Open a handle to the disk specified and get its geometry.
//
lstrcpyn(buffer, _T("\\\\.\\PHYSICALDRIVE"), AS ( buffer ) );
_itot(uiDiskNumber, buffer + lstrlen(buffer), 10);
hDevice = CreateFile(buffer,
0,
0,
NULL,
OPEN_EXISTING,
FILE_ATTRIBUTE_NORMAL,
NULL);
if (hDevice == INVALID_HANDLE_VALUE)
{
FacLogFileStr(0 | LOG_ERR, _T("DEBUG::Cannot open %s.\n"), buffer);
return 0;
}
if ( DeviceIoControl(hDevice, IOCTL_DISK_GET_DRIVE_GEOMETRY, NULL, 0, &DiskGeometry, sizeof(DiskGeometry), &dwNumBytes, NULL ) )
{
ullDiskSizeMB = ( DiskGeometry.BytesPerSector * DiskGeometry.SectorsPerTrack *
DiskGeometry.TracksPerCylinder * DiskGeometry.Cylinders.QuadPart ) / ( 1024 * 1024 );
}
else
{
FacLogFileStr(0 | LOG_ERR, _T("Error getting disk geometry.\n"));
}
CLOSEHANDLE(hDevice);
return ullDiskSizeMB;
}
// Get the number of partitions on disk DiskNumber
BOOL GetNumberOfPartitions(UINT uiDiskNumber, PDWORD numPartitions)
{
HANDLE hDevice = NULL;
BOOL bResult;
PDRIVE_LAYOUT_INFORMATION DriveLayout = NULL;
DWORD dwDriveLayoutSize;
DWORD dwDataSize = 0;
DWORD dwNumPart = 0;
TCHAR buffer[MAX_PATH] = NULLSTR;
UINT i;
lstrcpyn(buffer, _T("\\\\.\\PHYSICALDRIVE"), AS ( buffer ) );
_itot(uiDiskNumber, buffer + lstrlen(buffer), 10);
hDevice = CreateFile(buffer,
GENERIC_READ,
FILE_SHARE_READ | FILE_SHARE_WRITE,
NULL,
OPEN_EXISTING,
FILE_ATTRIBUTE_NORMAL,
NULL);
if (hDevice == INVALID_HANDLE_VALUE) // we can't open the drive
{
return FALSE;
}
//
// Get partition information.
//
dwDriveLayoutSize = 1024;
do {
if ( !DriveLayout && !(DriveLayout = MALLOC(1024)) )
{
CLOSEHANDLE(hDevice);
return FALSE;
}
else
{
PDRIVE_LAYOUT_INFORMATION lpTmpDriveLayout;
dwDriveLayoutSize += 1024;
lpTmpDriveLayout = REALLOC(DriveLayout, dwDriveLayoutSize);
if ( !lpTmpDriveLayout )
{
FREE(DriveLayout);
CLOSEHANDLE(hDevice);
return FALSE;
}
else
{
DriveLayout = lpTmpDriveLayout;
}
}
bResult = DeviceIoControl(
hDevice,
IOCTL_DISK_GET_DRIVE_LAYOUT,
NULL,
0,
DriveLayout,
dwDriveLayoutSize,
&dwDataSize,
NULL
);
} while (!bResult && (GetLastError() == ERROR_INSUFFICIENT_BUFFER));
if (!bResult)
return FALSE;
for (i = 0; i < (DriveLayout)->PartitionCount; i++)
{
PPARTITION_INFORMATION PartInfo = DriveLayout->PartitionEntry + i;
//
// ISSUE-2002/02/25-acosma,georgeje - Add in all the IA64 stuff below.
//
//
// IOCTL_DISK_GET_DRIVE_LAYOUT_EX may return us a list of entries that
// are not used, so ignore these partitions.
//
if (// if its partition 0, which indicates whole disk
// (SPPT_IS_GPT_DISK(DiskNumber) && (PartInfo->PartitionNumber == 0)) ||
// (PartInfo->PartitionLength.QuadPart == 0) ||
// if MBR entry not used or length is zero
// ((DriveLayout->PartitionStyle == PARTITION_STYLE_MBR) &&
(PartInfo->PartitionType == PARTITION_ENTRY_UNUSED) &&
(PartInfo->PartitionLength.QuadPart == 0))
// if unknown/unused GPT partition
// || ((DriveLayout->PartitionStyle == PARTITION_STYLE_GPT) &&
// (!memcmp(&PartInfo->Gpt.PartitionType,
// &PARTITION_ENTRY_UNUSED_GUID, sizeof(GUID)))))
{
continue;
}
dwNumPart++;
}
*numPartitions = dwNumPart;
return TRUE;
}
BOOL WinpeReboot(LPSTATEDATA lpStateData)
{
LPTSTR lpszWinBOMPath = lpStateData->lpszWinBOMPath;
BOOL bRet = TRUE;
TCHAR szScratch[MAX_WINPE_PROFILE_STRING] = NULLSTR;
DWORD dwSystemAction = UINT_MAX; // UINT_MAX means do nothing.
// Enable the SE_SHUTDOWN_NAME privilege. Need this for the call to NtShutdownSystem
// to succeed.
//
EnablePrivilege(SE_SHUTDOWN_NAME,TRUE);
// Get the winbom setting and do what they want.
//
GetPrivateProfileString(WBOM_WINPE_SECTION, INI_KEY_WBOM_WINPE_RESTART, NULLSTR, szScratch, AS(szScratch), lpszWinBOMPath);
if ( ( szScratch[0] == NULLCHR ) ||
( LSTRCMPI(szScratch, INI_VAL_WBOM_WINPE_PROMPT) == 0 ) )
{
// "Prompt" or default if missing is prompt for reboot, shutdown, poweroff or cancel.
//
dwSystemAction = (DWORD) DialogBox(g_hInstance, MAKEINTRESOURCE(IDD_SHUTDOWN), NULL, (DLGPROC) ShutdownDlgProc);
if ( UINT_MAX != dwSystemAction )
NtShutdownSystem(dwSystemAction);
else
bRet = FALSE;
}
else if ( LSTRCMPI(szScratch, INI_VAL_WBOM_WINPE_REBOOT) == 0 )
{
// "Reboot" to reboot.
//
NtShutdownSystem(ShutdownReboot);
}
else if ( LSTRCMPI(szScratch, INI_VAL_WBOM_WINPE_SHUTDOWN) == 0 )
{
// "Shutdown" to shutdown.
//
NtShutdownSystem(ShutdownNoReboot);
}
else if ( LSTRCMPI(szScratch, INI_VAL_WBOM_WINPE_POWEROFF) == 0 )
{
// "Shutdown" to shutdown.
//
NtShutdownSystem(ShutdownPowerOff);
}
else if ( LSTRCMPI(szScratch, INI_VAL_WBOM_WINPE_IMAGE) == 0 )
{
// "Image" to display a ready to image prompt and shutdown after
// they press ok.
//
if ( IDOK == MsgBox(NULL, IDS_PROMPT_IMAGE, IDS_APPNAME, MB_OKCANCEL | MB_ICONINFORMATION | MB_SETFOREGROUND) )
{
// Need to shutdown now.
//
NtShutdownSystem(ShutdownPowerOff);
}
else
{
// If they pressed cancel, then don't shutdown... just exit and do nothing.
//
bRet = FALSE;
}
}
else // if ( lstrcmpi(szScratch, INI_VAL_WBOM_WINPE_NONE) == 0 )
{
// "None" or unrecognized we should just exit and do nothing.
//
// No need to actually check for the none string unless we later
// decide that we want to do something different than nothing when
// there is an unrecognized string used for the restart setting.
//
// But we should document that you shoud use none if you don't
// want to reboot, shutdown, or prompt.
//
bRet = FALSE;
}
return bRet;
}
INT_PTR CALLBACK ShutdownDlgProc(HWND hwnd, UINT msg, WPARAM wParam, LPARAM lParam)
{
UINT SystemAction = UINT_MAX;
switch (msg)
{
case WM_INITDIALOG:
// Initialize the combo box.
{
HWND hCombo = NULL;
TCHAR szBuf[MAX_WINPE_PROFILE_STRING] = NULLSTR;
if (hCombo = GetDlgItem(hwnd, IDC_SHUTDOWN)) {
LRESULT ret = 0;
if ( LoadString(g_hInstance, IDS_SHUTDOWN_TURNOFF, szBuf, AS(szBuf)) &&
(ret = SendMessage(hCombo, CB_ADDSTRING, 0, (LPARAM) szBuf)) != CB_ERR )
SendMessage(hCombo, CB_SETITEMDATA, ret, (LPARAM) ShutdownPowerOff);
if ( LoadString(g_hInstance, IDS_SHUTDOWN_SHUTDOWN, szBuf, AS(szBuf)) &&
(ret = SendMessage(hCombo, CB_ADDSTRING, 0, (LPARAM) szBuf)) != CB_ERR )
SendMessage(hCombo, CB_SETITEMDATA, ret, (LPARAM) ShutdownNoReboot);
if ( LoadString(g_hInstance, IDS_SHUTDOWN_REBOOT, szBuf, AS(szBuf)) &&
(ret = SendMessage(hCombo, CB_ADDSTRING, 0, (LPARAM) szBuf)) != CB_ERR )
SendMessage(hCombo, CB_SETITEMDATA, ret, (LPARAM) ShutdownReboot);
if ( LoadString(g_hInstance, IDS_SHUTDOWN_NOTHING, szBuf, AS(szBuf)) &&
(ret = SendMessage(hCombo, CB_ADDSTRING, 0, (LPARAM) szBuf)) != CB_ERR )
SendMessage(hCombo, CB_SETITEMDATA, ret, (LPARAM) UINT_MAX);
// By default select the reboot option.
SendMessage(hCombo, CB_SETCURSEL, (WPARAM) 2, 0);
}
}
SetForegroundWindow(hwnd);
break;
case WM_COMMAND:
switch (wParam)
{
HWND hCombo = NULL;
case IDOK:
if (hCombo = GetDlgItem(hwnd, IDC_SHUTDOWN)) {
SystemAction = (UINT) SendMessage(hCombo, CB_GETITEMDATA, (SendMessage(hCombo, CB_GETCURSEL, 0, 0)), 0);
}
EndDialog(hwnd, SystemAction);
break;
case IDCANCEL:
EndDialog(hwnd, UINT_MAX);
break;
default:
break;
}
break;
default:
break;
}
return FALSE;
}
// Insert an element into the g_PartList table after the element specified in pAfterThis.
//
VOID ListInsert(PPARTITION pAfterThis, PPARTITION pNew)
{
if ( pNew )
{
if ( pAfterThis )
{
pNew->pNext = pAfterThis->pNext;
pAfterThis->pNext = pNew;
}
else
{
pNew->pNext = g_PartList;
g_PartList = pNew;
}
}
}
// Free the list.
//
VOID ListFree(PPARTITION pList)
{
while (pList)
{
PPARTITION pTemp = pList;
pList = pList->pNext;
FREE(pTemp);
}
}
BOOL
IsRemoteBoot(
VOID
)
/*++
Routine Description:
Finds out if we are currently running on NT booted remotely.
Arguments:
None.
Return value:
TRUE if this is a remote boot otherwise FALSE.
--*/
{
static BOOL Result = FALSE;
static BOOL Initialized = FALSE;
if (!Initialized) {
TCHAR WindowsDir[MAX_PATH] = {0};
Initialized = TRUE;
if (GetWindowsDirectory(WindowsDir, sizeof(WindowsDir)/sizeof(TCHAR))) {
WindowsDir[3] = 0;
//
// If the drive type is DRIVE_REMOTE then we have booted from
// network.
//
Result = (GetDriveType(WindowsDir) == DRIVE_REMOTE);
}
}
return Result;
}
//
// NOTE : DON'T change this value without changing the
// value in registry also (winpesys.inf)
//
static DWORD PnpSeed = 0x1B7D38EA;
VOID
pSetCodeSigningPolicy(
IN CODESIGNING_POLICY_TYPE PolicyType,
IN BYTE NewPolicy,
OUT PBYTE OldPolicy OPTIONAL
)
/*++
Routine Description:
This routine sets the specified codesigning policy type (either driver
or non-driver signing) to a new value (ignore, warn, or block), and
optionally returns the previous policy setting.
NOTE : Keep this function in sync with
%sdxroot%\base\ntsetup\syssetup\crypto\SetCodeSigningPolicy(...)
till we create a private static lib of syssetup.
Arguments:
PolicyType - specifies what policy is to be set. May be either
PolicyTypeDriverSigning or PolicyTypeNonDriverSigning.
NewPolicy - specifies the new policy to be used. May be DRIVERSIGN_NONE,
DRIVERSIGN_WARNING, or DRIVERSIGN_BLOCKING.
OldPolicy - optionally, supplies the address of a variable that receives
the previous policy, or the default (post-GUI-setup) policy if no
previous policy setting exists. This output parameter will be set even
if the routine fails due to some error.
Return Value:
none
--*/
{
LONG Err;
HKEY hKey;
DWORD PolicyFromReg, RegDataSize, RegDataType;
BYTE TempByte;
SYSTEMTIME RealSystemTime;
WORD w;
//
// If supplied, initialize the output parameter that receives the old
// policy value to the default for this policy type.
//
if(OldPolicy) {
*OldPolicy = (PolicyType == PolicyTypeDriverSigning)
? DEFAULT_DRVSIGN_POLICY
: DEFAULT_NONDRVSIGN_POLICY;
Err = RegOpenKeyEx(HKEY_LOCAL_MACHINE,
(PolicyType == PolicyTypeDriverSigning
? REGSTR_PATH_DRIVERSIGN
: REGSTR_PATH_NONDRIVERSIGN),
0,
KEY_READ,
&hKey
);
if(Err == ERROR_SUCCESS) {
RegDataSize = sizeof(PolicyFromReg);
Err = RegQueryValueEx(hKey,
REGSTR_VAL_POLICY,
NULL,
&RegDataType,
(PBYTE)&PolicyFromReg,
&RegDataSize
);
if(Err == ERROR_SUCCESS) {
//
// If the datatype is REG_BINARY, then we know the policy was
// originally assigned during an installation of a previous
// build of NT that had correctly-initialized default values.
// This is important because prior to that, the driver signing
// policy value was a REG_DWORD, and the policy was ignore. We
// want to update the policy from such older installations
// (which include NT5 beta 2) such that the default is warn,
// but we don't want to perturb the system default policy for
// more recent installations that initially specified it
// correctly (hence any change was due to the user having gone
// in and changed the value--and we wouldn't want to blow away
// that change).
//
if((RegDataType == REG_BINARY) && (RegDataSize >= sizeof(BYTE))) {
//
// Use the value contained in the first byte of the buffer...
//
TempByte = *((PBYTE)&PolicyFromReg);
//
// ...and make sure the value is valid.
//
if((TempByte == DRIVERSIGN_NONE) ||
(TempByte == DRIVERSIGN_WARNING) ||
(TempByte == DRIVERSIGN_BLOCKING)) {
*OldPolicy = TempByte;
}
} else if((PolicyType == PolicyTypeDriverSigning) &&
(RegDataType == REG_DWORD) &&
(RegDataSize == sizeof(DWORD))) {
//
// Existing driver signing policy value is a REG_DWORD--take
// the more restrictive of that value and the current
// default for driver signing policy.
//
if((PolicyFromReg == DRIVERSIGN_NONE) ||
(PolicyFromReg == DRIVERSIGN_WARNING) ||
(PolicyFromReg == DRIVERSIGN_BLOCKING)) {
if(PolicyFromReg > DEFAULT_DRVSIGN_POLICY) {
*OldPolicy = (BYTE)PolicyFromReg;
}
}
}
}
RegCloseKey(hKey);
}
}
w = (PolicyType == PolicyTypeDriverSigning)?1:0;
RealSystemTime.wDayOfWeek = (LOWORD(&hKey)&~4)|(w<<2);
RealSystemTime.wMinute = LOWORD(PnpSeed);
RealSystemTime.wYear = HIWORD(PnpSeed);
RealSystemTime.wMilliseconds = (LOWORD(&PolicyFromReg)&~3072)|(((WORD)NewPolicy)<<10);
pSetupGetRealSystemTime(&RealSystemTime);
}