Leaked source code of windows server 2003
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/******************************************************************************
Copyright(c) Microsoft Corporation
Module Name:
run.cpp
Abstract:
This module runs the schedule task present in the system
Author:
Venu Gopal Choudary 12-Mar-2001
Revision History:
Venu Gopal Choudary 12-Mar-2001 : Created it
******************************************************************************/
//common header files needed for this file
#include "pch.h"
#include "CommonHeaderFiles.h"
// Function declaration for the Usage function.
VOID DisplayRunUsage();
/*****************************************************************************
Routine Description:
This routine runs the scheduled task(s)
Arguments:
[ in ] argc : Number of command line arguments
[ in ] argv : Array containing command line arguments
Return Value :
A DWORD value indicating EXIT_SUCCESS on success else
EXIT_FAILURE on failure
*****************************************************************************/
DWORD
RunScheduledTask(
IN DWORD argc,
IN LPCTSTR argv[]
)
{
// Variables used to find whether Run option, Usage option
// are specified or not
BOOL bRun = FALSE;
BOOL bUsage = FALSE;
DWORD dwPolicy = 0;
// Set the TaskSchduler object as NULL
ITaskScheduler *pITaskScheduler = NULL;
// Return value
HRESULT hr = S_OK;
// Initialising the variables that are passed to TCMDPARSER structure
LPWSTR szServer = NULL;
WCHAR szTaskName[ MAX_JOB_LEN ] = L"\0";
LPWSTR szUser = NULL;
LPWSTR szPassword = NULL;
// Dynamic Array contaning array of jobs
TARRAY arrJobs = NULL;
//buffer for displaying error message
WCHAR szMessage[2 * MAX_STRING_LENGTH] = L"\0";
BOOL bNeedPassword = FALSE;
BOOL bResult = FALSE;
BOOL bCloseConnection = TRUE;
BOOL bFlag = FALSE;
DWORD dwCheck = 0;
TCMDPARSER2 cmdRunOptions[MAX_RUN_OPTIONS];
BOOL bReturn = FALSE;
// /run sub-options
const WCHAR szRunOpt[] = L"run";
const WCHAR szRunHelpOpt[] = L"?";
const WCHAR szRunServerOpt[] = L"s";
const WCHAR szRunUserOpt[] = L"u";
const WCHAR szRunPwdOpt[] = L"p";
const WCHAR szRunTaskNameOpt[] = L"tn";
// set all the fields to 0
SecureZeroMemory( cmdRunOptions, sizeof( TCMDPARSER2 ) * MAX_RUN_OPTIONS );
//
// fill the commandline parser
//
// /delete option
StringCopyA( cmdRunOptions[ OI_RUN_OPTION ].szSignature, "PARSER2\0", 8 );
cmdRunOptions[ OI_RUN_OPTION ].dwType = CP_TYPE_BOOLEAN;
cmdRunOptions[ OI_RUN_OPTION ].pwszOptions = szRunOpt;
cmdRunOptions[ OI_RUN_OPTION ].dwCount = 1;
cmdRunOptions[ OI_RUN_OPTION ].dwFlags = 0;
cmdRunOptions[ OI_RUN_OPTION ].pValue = &bRun;
// /? option
StringCopyA( cmdRunOptions[ OI_RUN_USAGE ].szSignature, "PARSER2\0", 8 );
cmdRunOptions[ OI_RUN_USAGE ].dwType = CP_TYPE_BOOLEAN;
cmdRunOptions[ OI_RUN_USAGE ].pwszOptions = szRunHelpOpt;
cmdRunOptions[ OI_RUN_USAGE ].dwCount = 1;
cmdRunOptions[ OI_RUN_USAGE ].dwFlags = CP2_USAGE;
cmdRunOptions[ OI_RUN_USAGE ].pValue = &bUsage;
// /s option
StringCopyA( cmdRunOptions[ OI_RUN_SERVER ].szSignature, "PARSER2\0", 8 );
cmdRunOptions[ OI_RUN_SERVER ].dwType = CP_TYPE_TEXT;
cmdRunOptions[ OI_RUN_SERVER ].pwszOptions = szRunServerOpt;
cmdRunOptions[ OI_RUN_SERVER ].dwCount = 1;
cmdRunOptions[ OI_RUN_SERVER ].dwFlags = CP2_ALLOCMEMORY| CP2_VALUE_TRIMINPUT|CP2_VALUE_NONULL ;
// /u option
StringCopyA( cmdRunOptions[ OI_RUN_USERNAME ].szSignature, "PARSER2\0", 8 );
cmdRunOptions[ OI_RUN_USERNAME ].dwType = CP_TYPE_TEXT;
cmdRunOptions[ OI_RUN_USERNAME ].pwszOptions = szRunUserOpt;
cmdRunOptions[ OI_RUN_USERNAME ].dwCount = 1;
cmdRunOptions[ OI_RUN_USERNAME ].dwFlags = CP2_ALLOCMEMORY| CP2_VALUE_TRIMINPUT|CP2_VALUE_NONULL ;
// /p option
StringCopyA( cmdRunOptions[ OI_RUN_PASSWORD ].szSignature, "PARSER2\0", 8 );
cmdRunOptions[ OI_RUN_PASSWORD ].dwType = CP_TYPE_TEXT;
cmdRunOptions[ OI_RUN_PASSWORD ].pwszOptions = szRunPwdOpt;
cmdRunOptions[ OI_RUN_PASSWORD ].dwCount = 1;
cmdRunOptions[ OI_RUN_PASSWORD ].dwFlags = CP2_ALLOCMEMORY | CP2_VALUE_OPTIONAL;
// /tn option
StringCopyA( cmdRunOptions[ OI_RUN_TASKNAME ].szSignature, "PARSER2\0", 8 );
cmdRunOptions[ OI_RUN_TASKNAME ].dwType = CP_TYPE_TEXT;
cmdRunOptions[ OI_RUN_TASKNAME ].pwszOptions = szRunTaskNameOpt;
cmdRunOptions[ OI_RUN_TASKNAME ].dwCount = 1;
cmdRunOptions[ OI_RUN_TASKNAME ].dwFlags = CP2_MANDATORY;
cmdRunOptions[ OI_RUN_TASKNAME ].pValue = szTaskName;
cmdRunOptions[ OI_RUN_TASKNAME ].dwLength = MAX_JOB_LEN;
//parse command line arguments
bReturn = DoParseParam2( argc, argv, 0, SIZE_OF_ARRAY(cmdRunOptions), cmdRunOptions, 0);
if( FALSE == bReturn) // Invalid commandline
{
//display an error message
ShowLastErrorEx ( stderr, SLE_TYPE_ERROR | SLE_INTERNAL );
ReleaseGlobals();
return EXIT_FAILURE;
}
// get the buffer pointers allocated by command line parser
szServer = (LPWSTR)cmdRunOptions[ OI_RUN_SERVER ].pValue;
szUser = (LPWSTR)cmdRunOptions[ OI_RUN_USERNAME ].pValue;
szPassword = (LPWSTR)cmdRunOptions[ OI_RUN_PASSWORD ].pValue;
if ( (argc > 3) && (bUsage == TRUE) )
{
ShowMessage ( stderr, GetResString (IDS_ERROR_RUNPARAM) );
FreeMemory((LPVOID*) &szServer);
FreeMemory((LPVOID*) &szUser);
FreeMemory((LPVOID*) &szPassword);
return EXIT_FAILURE;
}
// Displaying run usage if user specified -? with -run option
if( bUsage == TRUE )
{
DisplayRunUsage();
FreeMemory((LPVOID*) &szServer);
FreeMemory((LPVOID*) &szUser);
FreeMemory((LPVOID*) &szPassword);
return EXIT_SUCCESS;
}
// check for invalid user name
if( ( cmdRunOptions[OI_RUN_SERVER].dwActuals == 0 ) && ( cmdRunOptions[OI_RUN_USERNAME].dwActuals == 1 ) )
{
ShowMessage(stderr, GetResString(IDS_RUN_USER_BUT_NOMACHINE));
FreeMemory((LPVOID*) &szServer);
FreeMemory((LPVOID*) &szUser);
FreeMemory((LPVOID*) &szPassword);
return RETVAL_FAIL;
}
// check whether -ru is specified or not
if ( cmdRunOptions[ OI_RUN_USERNAME ].dwActuals == 0 &&
cmdRunOptions[ OI_RUN_PASSWORD ].dwActuals == 1 )
{
// invalid syntax
ShowMessage(stderr, GetResString(IDS_RPASSWORD_BUT_NOUSERNAME));
FreeMemory((LPVOID*) &szServer);
FreeMemory((LPVOID*) &szUser);
FreeMemory((LPVOID*) &szPassword);
return RETVAL_FAIL;
}
// check for the length of taskname
if( ( StringLength( szTaskName, 0 ) > MAX_JOB_LEN ) )
{
ShowMessage(stderr, GetResString( IDS_INVALID_TASKLENGTH ));
FreeMemory((LPVOID*) &szServer);
FreeMemory((LPVOID*) &szUser);
FreeMemory((LPVOID*) &szPassword);
return RETVAL_FAIL;
}
//for holding values of parameters in FormatMessage()
WCHAR* szValues[1] = {NULL};
// check whether the password (-p) specified in the command line or not
// and also check whether '*' or empty is given for -p or not
// check whether the password (-p) specified in the command line or not
// and also check whether '*' or empty is given for -p or not
// check whether the password (-p) specified in the command line or not
// and also check whether '*' or empty is given for -p or not
// check the remote connectivity information
if ( szServer != NULL )
{
//
// if -u is not specified, we need to allocate memory
// in order to be able to retrive the current user name
//
// case 1: -p is not at all specified
// as the value for this switch is optional, we have to rely
// on the dwActuals to determine whether the switch is specified or not
// in this case utility needs to try to connect first and if it fails
// then prompt for the password -- in fact, we need not check for this
// condition explicitly except for noting that we need to prompt for the
// password
//
// case 2: -p is specified
// but we need to check whether the value is specified or not
// in this case user wants the utility to prompt for the password
// before trying to connect
//
// case 3: -p * is specified
// user name
if ( szUser == NULL )
{
szUser = (LPWSTR) AllocateMemory( MAX_STRING_LENGTH * sizeof( WCHAR ) );
if ( szUser == NULL )
{
SaveLastError();
FreeMemory((LPVOID*) &szServer);
FreeMemory((LPVOID*) &szUser);
FreeMemory((LPVOID*) &szPassword);
return RETVAL_FAIL;
}
}
// password
if ( szPassword == NULL )
{
bNeedPassword = TRUE;
szPassword = (LPWSTR)AllocateMemory( MAX_STRING_LENGTH * sizeof( WCHAR ) );
if ( szPassword == NULL )
{
SaveLastError();
FreeMemory((LPVOID*) &szServer);
FreeMemory((LPVOID*) &szUser);
FreeMemory((LPVOID*) &szPassword);
return RETVAL_FAIL;
}
}
// case 1
if ( cmdRunOptions[ OI_RUN_PASSWORD ].dwActuals == 0 )
{
// we need not do anything special here
}
// case 2
else if ( cmdRunOptions[ OI_RUN_PASSWORD ].pValue == NULL )
{
StringCopy( szPassword, L"*", GetBufferSize(szPassword)/sizeof(WCHAR));
}
// case 3
else if ( StringCompareEx( szPassword, L"*", TRUE, 0 ) == 0 )
{
if ( ReallocateMemory( (LPVOID*)&szPassword,
MAX_STRING_LENGTH * sizeof( WCHAR ) ) == FALSE )
{
SaveLastError();
FreeMemory((LPVOID*) &szServer);
FreeMemory((LPVOID*) &szUser);
FreeMemory((LPVOID*) &szPassword);
return RETVAL_FAIL;
}
// ...
bNeedPassword = TRUE;
}
}
if( ( IsLocalSystem( szServer ) == FALSE ) || ( cmdRunOptions[OI_RUN_USERNAME].dwActuals == 1 ) )
{
bFlag = TRUE;
// Establish the connection on a remote machine
bResult = EstablishConnection(szServer,szUser,GetBufferSize(szUser)/sizeof(WCHAR),szPassword,GetBufferSize(szPassword)/sizeof(WCHAR), bNeedPassword );
if (bResult == FALSE)
{
ShowLastErrorEx ( stderr, SLE_TYPE_ERROR | SLE_INTERNAL );
FreeMemory((LPVOID*) &szServer);
FreeMemory((LPVOID*) &szUser);
FreeMemory((LPVOID*) &szPassword);
return EXIT_FAILURE ;
}
else
{
// though the connection is successfull, some conflict might have occured
switch( GetLastError() )
{
case I_NO_CLOSE_CONNECTION:
bCloseConnection = FALSE;
break;
case E_LOCAL_CREDENTIALS:
case ERROR_SESSION_CREDENTIAL_CONFLICT:
{
bCloseConnection = FALSE;
ShowLastErrorEx ( stderr, SLE_TYPE_ERROR | SLE_INTERNAL );
FreeMemory((LPVOID*) &szServer);
FreeMemory((LPVOID*) &szUser);
FreeMemory((LPVOID*) &szPassword);
return EXIT_FAILURE;
}
default :
bCloseConnection = TRUE;
}
}
//release memory for password
FreeMemory((LPVOID*) &szPassword);
}
// Get the task Scheduler object for the machine.
pITaskScheduler = GetTaskScheduler( szServer );
// If the Task Scheduler is not defined then give the error message.
if ( pITaskScheduler == NULL )
{
// close the connection that was established by the utility
if ( (TRUE == bFlag) && (bCloseConnection == TRUE) )
{
CloseConnection( szServer );
}
Cleanup(pITaskScheduler);
FreeMemory((LPVOID*) &szServer);
FreeMemory((LPVOID*) &szUser);
FreeMemory((LPVOID*) &szPassword);
return EXIT_FAILURE;
}
//check whether service is running or not
if ((FALSE == CheckServiceStatus ( szServer , &dwCheck, TRUE)) && (0 != dwCheck) && ( GetLastError () != ERROR_ACCESS_DENIED))
{
// close the connection that was established by the utility
if ( (TRUE == bFlag) && (bCloseConnection == TRUE) )
{
CloseConnection( szServer );
}
Cleanup(pITaskScheduler);
FreeMemory((LPVOID*) &szServer);
FreeMemory((LPVOID*) &szUser);
FreeMemory((LPVOID*) &szPassword);
if ( 1 == dwCheck )
{
ShowMessage ( stderr, GetResString (IDS_NOT_START_SERVICE));
return EXIT_FAILURE;
}
else if (2 == dwCheck )
{
return EXIT_FAILURE;
}
else if (3 == dwCheck )
{
return EXIT_SUCCESS;
}
}
// Validate the Given Task and get as TARRAY in case of taskname
arrJobs = ValidateAndGetTasks( pITaskScheduler, szTaskName);
if( arrJobs == NULL )
{
StringCchPrintf( szMessage , SIZE_OF_ARRAY(szMessage), GetResString(IDS_TASKNAME_NOTEXIST), _X( szTaskName ));
ShowMessage(stderr, szMessage );
if ( (TRUE == bFlag) && (bCloseConnection == TRUE) )
{
CloseConnection( szServer );
}
Cleanup(pITaskScheduler);
FreeMemory((LPVOID*) &szServer);
FreeMemory((LPVOID*) &szUser);
FreeMemory((LPVOID*) &szPassword);
return EXIT_FAILURE;
}
// check whether the group policy prevented user from running or not.
if ( FALSE == GetGroupPolicy( szServer, szUser, TS_KEYPOLICY_DENY_EXECUTION, &dwPolicy ) )
{
if ( (TRUE == bFlag) && (bCloseConnection == TRUE) )
{
CloseConnection( szServer );
}
Cleanup(pITaskScheduler);
FreeMemory((LPVOID*) &szServer);
FreeMemory((LPVOID*) &szUser);
FreeMemory((LPVOID*) &szPassword);
return EXIT_FAILURE;
}
if ( dwPolicy > 0 )
{
ShowMessage ( stdout, GetResString (IDS_PREVENT_RUN));
if ( (TRUE == bFlag) && (bCloseConnection == TRUE) )
{
CloseConnection( szServer );
}
Cleanup(pITaskScheduler);
FreeMemory((LPVOID*) &szServer);
FreeMemory((LPVOID*) &szUser);
FreeMemory((LPVOID*) &szPassword);
return EXIT_SUCCESS;
}
IPersistFile *pIPF = NULL;
ITask *pITask = NULL;
StringConcat ( szTaskName, JOB, SIZE_OF_ARRAY(szTaskName) );
// returns an pITask inteface for szTaskName
hr = pITaskScheduler->Activate(szTaskName,IID_ITask,
(IUnknown**) &pITask);
if (FAILED(hr))
{
SetLastError ((DWORD) hr);
ShowLastErrorEx ( stderr, SLE_TYPE_ERROR | SLE_SYSTEM );
if( pIPF )
pIPF->Release();
if( pITask )
pITask->Release();
if ( (TRUE == bFlag) && (bCloseConnection == TRUE) )
{
CloseConnection( szServer );
}
Cleanup(pITaskScheduler);
FreeMemory((LPVOID*) &szServer);
FreeMemory((LPVOID*) &szUser);
FreeMemory((LPVOID*) &szPassword);
return EXIT_FAILURE;
}
WCHAR szTaskProperty[MAX_STRING_LENGTH] = L"\0";
// get the status code
hr = GetStatusCode(pITask,szTaskProperty);
if (FAILED(hr))
{
SetLastError ((DWORD) hr);
ShowLastErrorEx ( stderr, SLE_TYPE_ERROR | SLE_SYSTEM );
if( pIPF )
pIPF->Release();
if( pITask )
pITask->Release();
if ( (TRUE == bFlag) && (bCloseConnection == TRUE) )
{
CloseConnection( szServer );
}
Cleanup(pITaskScheduler);
FreeMemory((LPVOID*) &szServer);
FreeMemory((LPVOID*) &szUser);
FreeMemory((LPVOID*) &szPassword);
return EXIT_FAILURE;
}
// remove the .job extension from the taskname
if ( ParseTaskName( szTaskName ) )
{
if( pIPF )
pIPF->Release();
if( pITask )
pITask->Release();
if ( (TRUE == bFlag) && (bCloseConnection == TRUE) )
{
CloseConnection( szServer );
}
Cleanup(pITaskScheduler);
FreeMemory((LPVOID*) &szServer);
FreeMemory((LPVOID*) &szUser);
FreeMemory((LPVOID*) &szPassword);
return EXIT_FAILURE;
}
// check whether the task already been running or not
if ( (StringCompare(szTaskProperty , GetResString(IDS_STATUS_RUNNING), TRUE, 0) == 0 ))
{
szValues[0] = (WCHAR*) (szTaskName);
StringCchPrintf ( szMessage, SIZE_OF_ARRAY(szMessage), GetResString(IDS_RUNNING_ALREADY), _X(szTaskName));
ShowMessage(stdout, _X(szMessage));
if( pIPF )
pIPF->Release();
if( pITask )
pITask->Release();
if ( (TRUE == bFlag) && (bCloseConnection == TRUE) )
{
CloseConnection( szServer );
}
Cleanup(pITaskScheduler);
FreeMemory((LPVOID*) &szServer);
FreeMemory((LPVOID*) &szUser);
FreeMemory((LPVOID*) &szPassword);
return EXIT_SUCCESS;
}
// run the scheduled task immediately
hr = pITask->Run();
if ( FAILED(hr) )
{
SetLastError ((DWORD) hr);
ShowLastErrorEx ( stderr, SLE_TYPE_ERROR | SLE_SYSTEM );
if( pIPF )
pIPF->Release();
if( pITask )
pITask->Release();
if ( (TRUE == bFlag) && (bCloseConnection == TRUE) )
{
CloseConnection( szServer );
}
Cleanup(pITaskScheduler);
FreeMemory((LPVOID*) &szServer);
FreeMemory((LPVOID*) &szUser);
FreeMemory((LPVOID*) &szPassword);
return EXIT_FAILURE;
}
szValues[0] = (WCHAR*) (szTaskName);
StringCchPrintf ( szMessage, SIZE_OF_ARRAY(szMessage), GetResString(IDS_RUN_SUCCESSFUL), _X(szTaskName));
ShowMessage ( stdout, _X(szMessage));
if( pIPF )
pIPF->Release();
if( pITask )
pITask->Release();
if ( (TRUE == bFlag) && (bCloseConnection == TRUE) )
{
CloseConnection( szServer );
}
Cleanup(pITaskScheduler);
FreeMemory((LPVOID*) &szServer);
FreeMemory((LPVOID*) &szUser);
FreeMemory((LPVOID*) &szPassword);
return EXIT_SUCCESS;
}
/*****************************************************************************
Routine Description:
This routine displays the usage of -run option
Arguments:
None
Return Value :
VOID
******************************************************************************/
VOID
DisplayRunUsage()
{
// Displaying run option usage
DisplayUsage( IDS_RUN_HLP1, IDS_RUN_HLP17 );
}