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windows-server-2003/admin/cmdline/powercfg/powercfg.cpp

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/*++
Copyright (c) 2001 Microsoft Corporation
Module Name:
powercfg.c
Abstract:
Allows users to view and modify power schemes and system power settings
from the command line. May be useful in unattended configuration and
for headless systems.
Author:
Ben Hertzberg (t-benher) 1-Jun-2001
Revision History:
Ben Hertzberg (t-benher) 15-Jun-2001 - CPU throttle added
Ben Hertzberg (t-benher) 4-Jun-2001 - import/export added
Ben Hertzberg (t-benher) 1-Jun-2001 - created it.
--*/
// app-specific includes
#include <initguid.h>
#include "powercfg.h"
#include "cmdline.h"
#include "cmdlineres.h"
#include "resource.h"
// app-specific structures
// structure to manage the scheme list information.
// note that descriptions are currently not visible in the
// GUI tool (as of 6-1-2001), so they are not visible in this
// app either, although the framework is already there if
// someone decides to add the descriptions at a later date.
typedef struct _SCHEME_LIST
{
LIST_ENTRY le;
UINT uiID;
LPTSTR lpszName;
LPTSTR lpszDesc;
PPOWER_POLICY ppp;
PMACHINE_PROCESSOR_POWER_POLICY pmppp;
} SCHEME_LIST, *PSCHEME_LIST;
// structure to manage the change parameters
typedef struct _CHANGE_PARAM
{
BOOL bVideoTimeoutAc;
ULONG ulVideoTimeoutAc;
BOOL bVideoTimeoutDc;
ULONG ulVideoTimeoutDc;
BOOL bSpindownTimeoutAc;
ULONG ulSpindownTimeoutAc;
BOOL bSpindownTimeoutDc;
ULONG ulSpindownTimeoutDc;
BOOL bIdleTimeoutAc;
ULONG ulIdleTimeoutAc;
BOOL bIdleTimeoutDc;
ULONG ulIdleTimeoutDc;
BOOL bDozeS4TimeoutAc;
ULONG ulDozeS4TimeoutAc;
BOOL bDozeS4TimeoutDc;
ULONG ulDozeS4TimeoutDc;
BOOL bDynamicThrottleAc;
LPTSTR lpszDynamicThrottleAc;
BOOL bDynamicThrottleDc;
LPTSTR lpszDynamicThrottleDc;
} CHANGE_PARAM, *PCHANGE_PARAM;
//
// This structure is defined to allow the usage to be stored in
// non-consecutive resource IDs so lines can be inserted without renumbering
// the resources, which makes a lot of work for localization.
//
typedef struct _USAGE_ORDER
{
UINT InsertAfter;
UINT FirstResource;
UINT LastResource;
} USAGE_ORDER, *PUSAGE_ORDER;
// function types
typedef BOOLEAN (*PWRITEPWRSCHEME_PROC)(PUINT,LPTSTR,LPTSTR,PPOWER_POLICY);
typedef BOOLEAN (*PDELETEPWRSCHEME_PROC)(UINT);
typedef BOOLEAN (*PGETACTIVEPWRSCHEME_PROC)(PUINT);
typedef BOOLEAN (*PSETACTIVEPWRSCHEME_PROC)(UINT,PGLOBAL_POWER_POLICY,PPOWER_POLICY);
typedef BOOLEAN (*PREADPROCESSORPWRSCHEME_PROC)(UINT,PMACHINE_PROCESSOR_POWER_POLICY);
typedef BOOLEAN (*PWRITEPROCESSORPWRSCHEME_PROC)(UINT,PMACHINE_PROCESSOR_POWER_POLICY);
typedef BOOLEAN (*PENUMPWRSCHEMES_PROC)(PWRSCHEMESENUMPROC,LPARAM);
typedef BOOLEAN (*PGETPWRCAPABILITIES_PROC)(PSYSTEM_POWER_CAPABILITIES);
typedef BOOLEAN (*PGETGLOBALPWRPOLICY_PROC)(PGLOBAL_POWER_POLICY);
typedef BOOLEAN (*PGETCURRENTPOWERPOLICIES_PROC)(PGLOBAL_POWER_POLICY, PPOWER_POLICY);
typedef BOOLEAN (*PWRITEGLOBALPWRPOLICY_PROC)(PGLOBAL_POWER_POLICY);
typedef NTSTATUS (*PCALLNTPOWERINFORMATION_PROC)(POWER_INFORMATION_LEVEL, PVOID, ULONG, PVOID, ULONG);
// forward decl's
BOOL
DoList();
BOOL
DoQuery(
LPCTSTR lpszName,
BOOL bNameSpecified,
BOOL bNumerical
);
BOOL
DoCreate(
LPTSTR lpszName
);
BOOL
DoDelete(
LPCTSTR lpszName,
BOOL bNumerical
);
BOOL
DoSetActive(
LPCTSTR lpszName,
BOOL bNumerical
);
BOOL
DoChange(
LPCTSTR lpszName,
BOOL bNumerical,
PCHANGE_PARAM pcp
);
BOOL
DoHibernate(
LPCTSTR lpszBoolStr
);
BOOL
DoGetSupportedSStates(
VOID
);
BOOL
DoGlobalFlag(
LPCTSTR lpszBoolStr,
LPCTSTR lpszGlobalFlagOption
);
BOOL
DoExport(
LPCTSTR lpszName,
BOOL bNumerical,
LPCTSTR lpszFile
);
BOOL
DoImport(
LPCTSTR lpszName,
BOOL bNumerical,
LPCTSTR lpszFile
);
BOOL
DoBatteryAlarm(
LPTSTR lpszName,
LPTSTR lpszBoolStr,
DWORD dwLevel,
LPTSTR lpszAlarmTextBoolStr,
LPTSTR lpszAlarmSoundBoolStr,
LPTSTR lpszAlarmActionStr,
LPTSTR lpszAlarmForceBoolStr,
LPTSTR lpszAlarmProgramBoolStr
);
BOOL
DoUsage();
VOID
SyncRegPPM();
// global data
LPCTSTR g_lpszErr = NULL_STRING; // string holding const error description
LPTSTR g_lpszErr2 = NULL; // string holding dyn-alloc error msg
TCHAR g_lpszBuf[256]; // formatting buffer
BOOL g_bHiberFileSupported = FALSE; // true iff hiberfile supported
BOOL g_bHiberTimerSupported = FALSE; // true iff hibertimer supported
BOOL g_bHiberFilePresent = FALSE; // true if hibernate is enabled
BOOL g_bStandbySupported = FALSE; // true iff standby supported
BOOL g_bMonitorPowerSupported = FALSE; // true iff has power support
BOOL g_bDiskPowerSupported = FALSE; // true iff has power support
BOOL g_bThrottleSupported = FALSE; // true iff has throttle support
BOOL g_bProcessorPwrSchemeSupported = FALSE; // true iff XP or later
CONST LPTSTR g_szAlarmTaskName [NUM_DISCHARGE_POLICIES] = {
_T("Critical Battery Alarm Program"),
_T("Low Battery Alarm Program"),
NULL,
NULL
};
//
// This global data is defined to allow the usage to be stored in
// non-consecutive resource IDs so lines can be inserted without renumbering
// the resources, which makes a lot of work for localization.
//
USAGE_ORDER gUsageOrder [] = {
{IDS_USAGE_04, IDS_USAGE_04_1, IDS_USAGE_04_1},
{IDS_USAGE_60, IDS_USAGE_60_01, IDS_USAGE_60_09},
{IDS_USAGE_END+1, 0, 0}
};
// global function pointers from POWRPROF.DLL
PWRITEPWRSCHEME_PROC fWritePwrScheme;
PDELETEPWRSCHEME_PROC fDeletePwrScheme;
PGETACTIVEPWRSCHEME_PROC fGetActivePwrScheme;
PSETACTIVEPWRSCHEME_PROC fSetActivePwrScheme;
PREADPROCESSORPWRSCHEME_PROC fReadProcessorPwrScheme;
PWRITEPROCESSORPWRSCHEME_PROC fWriteProcessorPwrScheme;
PENUMPWRSCHEMES_PROC fEnumPwrSchemes;
PGETPWRCAPABILITIES_PROC fGetPwrCapabilities;
PGETGLOBALPWRPOLICY_PROC fGetGlobalPwrPolicy;
PWRITEGLOBALPWRPOLICY_PROC fWriteGlobalPwrPolicy;
PCALLNTPOWERINFORMATION_PROC fCallNtPowerInformation;
PGETCURRENTPOWERPOLICIES_PROC fGetCurrentPowerPolicies;
// functions
DWORD _cdecl
_tmain(
DWORD argc,
LPCTSTR argv[]
)
/*++
Routine Description:
This routine is the main function. It parses parameters and takes
apprpriate action.
Arguments:
argc - indicates the number of arguments
argv - array of null terminated strings indicating arguments. See usage
for actual meaning of arguments.
Return Value:
EXIT_SUCCESS if successful
EXIT_FAILURE if something goes wrong
--*/
{
// command line flags
BOOL bList = FALSE;
BOOL bQuery = FALSE;
BOOL bCreate = FALSE;
BOOL bDelete = FALSE;
BOOL bSetActive = FALSE;
BOOL bChange = FALSE;
BOOL bHibernate = FALSE;
BOOL bImport = FALSE;
BOOL bExport = FALSE;
BOOL bFile = FALSE;
BOOL bUsage = FALSE;
BOOL bNumerical = FALSE;
BOOL bGlobalFlag = FALSE;
BOOL bGetSupporedSStates = FALSE;
BOOL bBatteryAlarm = FALSE;
// error status
BOOL bFail = FALSE;
// dummy
INT iDummy = 1;
// DLL handle
HINSTANCE hLib = NULL;
// parse result value vars
LPTSTR lpszName = NULL;
LPTSTR lpszBoolStr = NULL;
LPTSTR lpszFile = NULL;
LPTSTR lpszThrottleAcStr = NULL;
LPTSTR lpszThrottleDcStr = NULL;
LPTSTR lpszGlobalFlagOption = NULL;
DWORD dwAlarmLevel = 0xffffffff;
LPTSTR lpszAlarmTextBoolStr = NULL;
LPTSTR lpszAlarmSoundBoolStr = NULL;
LPTSTR lpszAlarmActionStr = NULL;
LPTSTR lpszAlarmForceBoolStr = NULL;
LPTSTR lpszAlarmProgramBoolStr = NULL;
CHANGE_PARAM tChangeParam;
// parser info struct
TCMDPARSER cmdOptions[NUM_CMDS];
// system power caps struct
SYSTEM_POWER_CAPABILITIES SysPwrCapabilities;
// determine upper bound on input string length
UINT uiMaxInLen = 0;
DWORD dwIdx;
for(dwIdx=1; dwIdx<argc; dwIdx++)
{
UINT uiCurLen = lstrlen(argv[dwIdx]);
if (uiCurLen > uiMaxInLen)
{
uiMaxInLen = uiCurLen;
}
}
// load POWRPROF.DLL
hLib = LoadLibrary(_T("POWRPROF.DLL"));
if(!hLib) {
DISPLAY_MESSAGE(stderr,GetResString(IDS_DLL_LOAD_ERROR));
return EXIT_FAILURE;
}
fWritePwrScheme = (PWRITEPWRSCHEME_PROC)GetProcAddress(hLib,"WritePwrScheme");
fWriteProcessorPwrScheme = (PWRITEPROCESSORPWRSCHEME_PROC)GetProcAddress(hLib,"WriteProcessorPwrScheme");
fReadProcessorPwrScheme = (PREADPROCESSORPWRSCHEME_PROC)GetProcAddress(hLib,"ReadProcessorPwrScheme");
fEnumPwrSchemes = (PENUMPWRSCHEMES_PROC)GetProcAddress(hLib,"EnumPwrSchemes");
fDeletePwrScheme = (PDELETEPWRSCHEME_PROC)GetProcAddress(hLib,"DeletePwrScheme");
fGetActivePwrScheme = (PGETACTIVEPWRSCHEME_PROC)GetProcAddress(hLib,"GetActivePwrScheme");
fSetActivePwrScheme = (PSETACTIVEPWRSCHEME_PROC)GetProcAddress(hLib,"SetActivePwrScheme");
fGetPwrCapabilities = (PGETPWRCAPABILITIES_PROC)GetProcAddress(hLib,"GetPwrCapabilities");
fGetGlobalPwrPolicy = (PGETGLOBALPWRPOLICY_PROC)GetProcAddress(hLib,"ReadGlobalPwrPolicy");
fWriteGlobalPwrPolicy = (PWRITEGLOBALPWRPOLICY_PROC)GetProcAddress(hLib,"WriteGlobalPwrPolicy");
fCallNtPowerInformation = (PCALLNTPOWERINFORMATION_PROC)GetProcAddress(hLib,"CallNtPowerInformation");
fGetCurrentPowerPolicies = (PGETCURRENTPOWERPOLICIES_PROC)GetProcAddress(hLib,"GetCurrentPowerPolicies");
if((!fWritePwrScheme) ||
(!fEnumPwrSchemes) ||
(!fDeletePwrScheme) ||
(!fGetActivePwrScheme) ||
(!fSetActivePwrScheme) ||
(!fGetGlobalPwrPolicy) ||
(!fWriteGlobalPwrPolicy) ||
(!fGetPwrCapabilities) ||
(!fCallNtPowerInformation) ||
(!fGetCurrentPowerPolicies))
{
DISPLAY_MESSAGE(stderr,GetResString(IDS_DLL_PROC_ERROR));
FreeLibrary(hLib);
return EXIT_FAILURE;
}
g_bProcessorPwrSchemeSupported = fWriteProcessorPwrScheme && fReadProcessorPwrScheme;
// Syncronize the data in the registry with the actual power policy.
SyncRegPPM();
// hook into cmdline.lib to allow Win2k operation
SetOsVersion(5,0,0);
// allocate space for scheme name and boolean string, and others strings
lpszName = (LPTSTR)LocalAlloc(
LPTR,
(uiMaxInLen+1)*sizeof(TCHAR)
);
if (!lpszName)
{
DISPLAY_MESSAGE(stderr,GetResString(IDS_OUT_OF_MEMORY));
FreeLibrary(hLib);
return EXIT_FAILURE;
}
lpszBoolStr = (LPTSTR)LocalAlloc(LPTR,(uiMaxInLen+1)*sizeof(TCHAR));
if (!lpszBoolStr)
{
LocalFree(lpszName);
DISPLAY_MESSAGE(stderr,GetResString(IDS_OUT_OF_MEMORY));
FreeLibrary(hLib);
return EXIT_FAILURE;
}
if (uiMaxInLen < (UINT)lstrlen(GetResString(IDS_DEFAULT_FILENAME)))
{
lpszFile = (LPTSTR)LocalAlloc(
LPTR,
(lstrlen(GetResString(IDS_DEFAULT_FILENAME))+1)*sizeof(TCHAR)
);
}
else
{
lpszFile = (LPTSTR)LocalAlloc(
LPTR,
(uiMaxInLen+1)*sizeof(TCHAR)
);
}
if (!lpszFile)
{
LocalFree(lpszName);
LocalFree(lpszBoolStr);
DISPLAY_MESSAGE(stderr,GetResString(IDS_OUT_OF_MEMORY));
FreeLibrary(hLib);
return EXIT_FAILURE;
}
lpszThrottleAcStr = (LPTSTR)LocalAlloc(LPTR,(uiMaxInLen+1)*sizeof(TCHAR));
if (!lpszThrottleAcStr)
{
LocalFree(lpszName);
LocalFree(lpszBoolStr);
LocalFree(lpszFile);
DISPLAY_MESSAGE(stderr,GetResString(IDS_OUT_OF_MEMORY));
FreeLibrary(hLib);
return EXIT_FAILURE;
}
lpszThrottleDcStr = (LPTSTR)LocalAlloc(LPTR,(uiMaxInLen+1)*sizeof(TCHAR));
if (!lpszThrottleDcStr)
{
LocalFree(lpszThrottleAcStr);
LocalFree(lpszName);
LocalFree(lpszBoolStr);
LocalFree(lpszFile);
DISPLAY_MESSAGE(stderr,GetResString(IDS_OUT_OF_MEMORY));
FreeLibrary(hLib);
return EXIT_FAILURE;
}
lpszGlobalFlagOption = (LPTSTR)LocalAlloc(LPTR,(uiMaxInLen+1)*sizeof(TCHAR));
if (!lpszGlobalFlagOption)
{
LocalFree(lpszThrottleDcStr);
LocalFree(lpszThrottleAcStr);
LocalFree(lpszName);
LocalFree(lpszBoolStr);
LocalFree(lpszFile);
DISPLAY_MESSAGE(stderr,GetResString(IDS_OUT_OF_MEMORY));
FreeLibrary(hLib);
return EXIT_FAILURE;
}
lpszAlarmTextBoolStr = (LPTSTR)LocalAlloc(LPTR,(uiMaxInLen+1)*sizeof(TCHAR));
if (!lpszAlarmTextBoolStr)
{
LocalFree(lpszGlobalFlagOption);
LocalFree(lpszThrottleDcStr);
LocalFree(lpszThrottleAcStr);
LocalFree(lpszName);
LocalFree(lpszBoolStr);
LocalFree(lpszFile);
DISPLAY_MESSAGE(stderr,GetResString(IDS_OUT_OF_MEMORY));
FreeLibrary(hLib);
return EXIT_FAILURE;
}
lpszAlarmSoundBoolStr = (LPTSTR)LocalAlloc(LPTR,(uiMaxInLen+1)*sizeof(TCHAR));
if (!lpszAlarmTextBoolStr)
{
LocalFree(lpszAlarmTextBoolStr);
LocalFree(lpszGlobalFlagOption);
LocalFree(lpszThrottleDcStr);
LocalFree(lpszThrottleAcStr);
LocalFree(lpszName);
LocalFree(lpszBoolStr);
LocalFree(lpszFile);
DISPLAY_MESSAGE(stderr,GetResString(IDS_OUT_OF_MEMORY));
FreeLibrary(hLib);
return EXIT_FAILURE;
}
lpszAlarmActionStr = (LPTSTR)LocalAlloc(LPTR,(uiMaxInLen+1)*sizeof(TCHAR));
if (!lpszAlarmActionStr)
{
LocalFree(lpszAlarmSoundBoolStr);
LocalFree(lpszAlarmTextBoolStr);
LocalFree(lpszGlobalFlagOption);
LocalFree(lpszThrottleDcStr);
LocalFree(lpszThrottleAcStr);
LocalFree(lpszName);
LocalFree(lpszBoolStr);
LocalFree(lpszFile);
DISPLAY_MESSAGE(stderr,GetResString(IDS_OUT_OF_MEMORY));
FreeLibrary(hLib);
return EXIT_FAILURE;
}
lpszAlarmForceBoolStr = (LPTSTR)LocalAlloc(LPTR,(uiMaxInLen+1)*sizeof(TCHAR));
if (!lpszAlarmForceBoolStr)
{
LocalFree(lpszAlarmActionStr);
LocalFree(lpszAlarmSoundBoolStr);
LocalFree(lpszAlarmTextBoolStr);
LocalFree(lpszGlobalFlagOption);
LocalFree(lpszThrottleDcStr);
LocalFree(lpszThrottleAcStr);
LocalFree(lpszName);
LocalFree(lpszBoolStr);
LocalFree(lpszFile);
DISPLAY_MESSAGE(stderr,GetResString(IDS_OUT_OF_MEMORY));
FreeLibrary(hLib);
return EXIT_FAILURE;
}
lpszAlarmProgramBoolStr = (LPTSTR)LocalAlloc(LPTR,(uiMaxInLen+1)*sizeof(TCHAR));
if (!lpszAlarmProgramBoolStr)
{
LocalFree(lpszAlarmForceBoolStr);
LocalFree(lpszAlarmActionStr);
LocalFree(lpszAlarmSoundBoolStr);
LocalFree(lpszAlarmTextBoolStr);
LocalFree(lpszGlobalFlagOption);
LocalFree(lpszThrottleDcStr);
LocalFree(lpszThrottleAcStr);
LocalFree(lpszName);
LocalFree(lpszBoolStr);
LocalFree(lpszFile);
DISPLAY_MESSAGE(stderr,GetResString(IDS_OUT_OF_MEMORY));
FreeLibrary(hLib);
return EXIT_FAILURE;
}
// initialize the allocated strings
lstrcpy(lpszName,NULL_STRING);
lstrcpy(lpszFile,GetResString(IDS_DEFAULT_FILENAME));
lstrcpy(lpszThrottleAcStr,NULL_STRING);
lstrcpy(lpszThrottleAcStr,NULL_STRING);
lstrcpy(lpszThrottleDcStr,NULL_STRING);
lstrcpy(lpszGlobalFlagOption,NULL_STRING);
lstrcpy(lpszAlarmTextBoolStr,NULL_STRING);
lstrcpy(lpszAlarmSoundBoolStr,NULL_STRING);
lstrcpy(lpszAlarmActionStr,NULL_STRING);
lstrcpy(lpszAlarmForceBoolStr,NULL_STRING);
lstrcpy(lpszAlarmProgramBoolStr,NULL_STRING);
// determine system capabilities
if (fGetPwrCapabilities(&SysPwrCapabilities))
{
g_bHiberFileSupported = SysPwrCapabilities.SystemS4;
g_bHiberTimerSupported =
(SysPwrCapabilities.RtcWake >= PowerSystemHibernate);
g_bHiberFilePresent = SysPwrCapabilities.HiberFilePresent;
g_bStandbySupported = SysPwrCapabilities.SystemS1 |
SysPwrCapabilities.SystemS2 |
SysPwrCapabilities.SystemS3;
g_bDiskPowerSupported = SysPwrCapabilities.DiskSpinDown;
g_bThrottleSupported = SysPwrCapabilities.ProcessorThrottle;
g_bMonitorPowerSupported = SystemParametersInfo(
SPI_GETLOWPOWERACTIVE,
0,
&iDummy,
0
);
if (!g_bMonitorPowerSupported ) {
g_bMonitorPowerSupported = SystemParametersInfo(
SPI_GETPOWEROFFACTIVE,
0,
&iDummy,
0
);
}
}
else
{
g_lpszErr = GetResString(IDS_UNEXPECTED_ERROR);
LocalFree(lpszAlarmProgramBoolStr);
LocalFree(lpszAlarmForceBoolStr);
LocalFree(lpszAlarmActionStr);
LocalFree(lpszAlarmSoundBoolStr);
LocalFree(lpszAlarmTextBoolStr);
LocalFree(lpszGlobalFlagOption);
LocalFree(lpszThrottleDcStr);
LocalFree(lpszThrottleAcStr);
LocalFree(lpszName);
LocalFree(lpszBoolStr);
LocalFree(lpszFile);
FreeLibrary(hLib);
return EXIT_FAILURE;
}
//fill in the TCMDPARSER array
// option 'list'
cmdOptions[CMDINDEX_LIST].dwFlags = CP_MAIN_OPTION;
cmdOptions[CMDINDEX_LIST].dwCount = 1;
cmdOptions[CMDINDEX_LIST].dwActuals = 0;
cmdOptions[CMDINDEX_LIST].pValue = &bList;
cmdOptions[CMDINDEX_LIST].pFunction = NULL;
cmdOptions[CMDINDEX_LIST].pFunctionData = NULL;
lstrcpy(
cmdOptions[CMDINDEX_LIST].szOption,
CMDOPTION_LIST
);
lstrcpy(
cmdOptions[CMDINDEX_LIST].szValues,
NULL_STRING
);
// option 'query'
cmdOptions[CMDINDEX_QUERY].dwFlags = CP_TYPE_TEXT |
CP_VALUE_OPTIONAL |
CP_MAIN_OPTION;
cmdOptions[CMDINDEX_QUERY].dwCount = 1;
cmdOptions[CMDINDEX_QUERY].dwActuals = 0;
cmdOptions[CMDINDEX_QUERY].pValue = lpszName;
cmdOptions[CMDINDEX_QUERY].pFunction = NULL;
cmdOptions[CMDINDEX_QUERY].pFunctionData = NULL;
lstrcpy(
cmdOptions[CMDINDEX_QUERY].szOption,
CMDOPTION_QUERY
);
lstrcpy(
cmdOptions[CMDINDEX_QUERY].szValues,
NULL_STRING
);
// option 'create'
cmdOptions[CMDINDEX_CREATE].dwFlags = CP_TYPE_TEXT |
CP_VALUE_MANDATORY |
CP_MAIN_OPTION;
cmdOptions[CMDINDEX_CREATE].dwCount = 1;
cmdOptions[CMDINDEX_CREATE].dwActuals = 0;
cmdOptions[CMDINDEX_CREATE].pValue = lpszName;
cmdOptions[CMDINDEX_CREATE].pFunction = NULL;
cmdOptions[CMDINDEX_CREATE].pFunctionData = NULL;
lstrcpy(
cmdOptions[CMDINDEX_CREATE].szOption,
CMDOPTION_CREATE
);
lstrcpy(
cmdOptions[CMDINDEX_CREATE].szValues,
NULL_STRING
);
// option 'delete'
cmdOptions[CMDINDEX_DELETE].dwFlags = CP_TYPE_TEXT |
CP_VALUE_MANDATORY |
CP_MAIN_OPTION;
cmdOptions[CMDINDEX_DELETE].dwCount = 1;
cmdOptions[CMDINDEX_DELETE].dwActuals = 0;
cmdOptions[CMDINDEX_DELETE].pValue = lpszName;
cmdOptions[CMDINDEX_DELETE].pFunction = NULL;
cmdOptions[CMDINDEX_DELETE].pFunctionData = NULL;
lstrcpy(
cmdOptions[CMDINDEX_DELETE].szOption,
CMDOPTION_DELETE
);
lstrcpy(
cmdOptions[CMDINDEX_DELETE].szValues,
NULL_STRING
);
// option 'setactive'
cmdOptions[CMDINDEX_SETACTIVE].dwFlags = CP_TYPE_TEXT |
CP_VALUE_MANDATORY |
CP_MAIN_OPTION;
cmdOptions[CMDINDEX_SETACTIVE].dwCount = 1;
cmdOptions[CMDINDEX_SETACTIVE].dwActuals = 0;
cmdOptions[CMDINDEX_SETACTIVE].pValue = lpszName;
cmdOptions[CMDINDEX_SETACTIVE].pFunction = NULL;
cmdOptions[CMDINDEX_SETACTIVE].pFunctionData = NULL;
lstrcpy(
cmdOptions[CMDINDEX_SETACTIVE].szOption,
CMDOPTION_SETACTIVE
);
lstrcpy(
cmdOptions[CMDINDEX_SETACTIVE].szValues,
NULL_STRING
);
// option 'change'
cmdOptions[CMDINDEX_CHANGE].dwFlags = CP_TYPE_TEXT |
CP_VALUE_MANDATORY |
CP_MAIN_OPTION;
cmdOptions[CMDINDEX_CHANGE].dwCount = 1;
cmdOptions[CMDINDEX_CHANGE].dwActuals = 0;
cmdOptions[CMDINDEX_CHANGE].pValue = lpszName;
cmdOptions[CMDINDEX_CHANGE].pFunction = NULL;
cmdOptions[CMDINDEX_CHANGE].pFunctionData = NULL;
lstrcpy(
cmdOptions[CMDINDEX_CHANGE].szOption,
CMDOPTION_CHANGE
);
lstrcpy(
cmdOptions[CMDINDEX_CHANGE].szValues,
NULL_STRING
);
// option 'hibernate'
cmdOptions[CMDINDEX_HIBERNATE].dwFlags = CP_TYPE_TEXT |
CP_VALUE_MANDATORY |
CP_MAIN_OPTION;
cmdOptions[CMDINDEX_HIBERNATE].dwCount = 1;
cmdOptions[CMDINDEX_HIBERNATE].dwActuals = 0;
cmdOptions[CMDINDEX_HIBERNATE].pValue = lpszBoolStr;
cmdOptions[CMDINDEX_HIBERNATE].pFunction = NULL;
cmdOptions[CMDINDEX_HIBERNATE].pFunctionData = NULL;
lstrcpy(
cmdOptions[CMDINDEX_HIBERNATE].szOption,
CMDOPTION_HIBERNATE
);
lstrcpy(
cmdOptions[CMDINDEX_HIBERNATE].szValues,
NULL_STRING
);
// option 'getsstates'
cmdOptions[CMDINDEX_SSTATES].dwFlags = CP_MAIN_OPTION;
cmdOptions[CMDINDEX_SSTATES].dwCount = 1;
cmdOptions[CMDINDEX_SSTATES].dwActuals = 0;
cmdOptions[CMDINDEX_SSTATES].pValue = &bGetSupporedSStates;
cmdOptions[CMDINDEX_SSTATES].pFunction = NULL;
cmdOptions[CMDINDEX_SSTATES].pFunctionData = NULL;
lstrcpy(
cmdOptions[CMDINDEX_SSTATES].szOption,
CMDOPTION_SSTATES
);
lstrcpy(
cmdOptions[CMDINDEX_SSTATES].szValues,
NULL_STRING
);
// option 'export'
cmdOptions[CMDINDEX_EXPORT].dwFlags = CP_TYPE_TEXT |
CP_VALUE_MANDATORY |
CP_MAIN_OPTION;
cmdOptions[CMDINDEX_EXPORT].dwCount = 1;
cmdOptions[CMDINDEX_EXPORT].dwActuals = 0;
cmdOptions[CMDINDEX_EXPORT].pValue = lpszName;
cmdOptions[CMDINDEX_EXPORT].pFunction = NULL;
cmdOptions[CMDINDEX_EXPORT].pFunctionData = NULL;
lstrcpy(
cmdOptions[CMDINDEX_EXPORT].szOption,
CMDOPTION_EXPORT
);
lstrcpy(
cmdOptions[CMDINDEX_EXPORT].szValues,
NULL_STRING
);
// option 'import'
cmdOptions[CMDINDEX_IMPORT].dwFlags = CP_TYPE_TEXT |
CP_VALUE_MANDATORY |
CP_MAIN_OPTION;
cmdOptions[CMDINDEX_IMPORT].dwCount = 1;
cmdOptions[CMDINDEX_IMPORT].dwActuals = 0;
cmdOptions[CMDINDEX_IMPORT].pValue = lpszName;
cmdOptions[CMDINDEX_IMPORT].pFunction = NULL;
cmdOptions[CMDINDEX_IMPORT].pFunctionData = NULL;
lstrcpy(
cmdOptions[CMDINDEX_IMPORT].szOption,
CMDOPTION_IMPORT
);
lstrcpy(
cmdOptions[CMDINDEX_IMPORT].szValues,
NULL_STRING
);
// option 'usage'
cmdOptions[CMDINDEX_USAGE].dwFlags = CP_USAGE |
CP_MAIN_OPTION;
cmdOptions[CMDINDEX_USAGE].dwCount = 1;
cmdOptions[CMDINDEX_USAGE].dwActuals = 0;
cmdOptions[CMDINDEX_USAGE].pValue = &bUsage;
cmdOptions[CMDINDEX_USAGE].pFunction = NULL;
cmdOptions[CMDINDEX_USAGE].pFunctionData = NULL;
lstrcpy(
cmdOptions[CMDINDEX_USAGE].szOption,
CMDOPTION_USAGE
);
lstrcpy(
cmdOptions[CMDINDEX_USAGE].szValues,
NULL_STRING
);
// sub-option 'numerical'
cmdOptions[CMDINDEX_NUMERICAL].dwFlags = 0;
cmdOptions[CMDINDEX_NUMERICAL].dwCount = 1;
cmdOptions[CMDINDEX_NUMERICAL].dwActuals = 0;
cmdOptions[CMDINDEX_NUMERICAL].pValue = &bNumerical;
cmdOptions[CMDINDEX_NUMERICAL].pFunction = NULL;
cmdOptions[CMDINDEX_NUMERICAL].pFunctionData = NULL;
lstrcpy(
cmdOptions[CMDINDEX_NUMERICAL].szOption,
CMDOPTION_NUMERICAL
);
lstrcpy(
cmdOptions[CMDINDEX_NUMERICAL].szValues,
NULL_STRING
);
// sub-option 'monitor-timeout-ac'
cmdOptions[CMDINDEX_MONITOR_OFF_AC].dwFlags = CP_TYPE_UNUMERIC |
CP_VALUE_MANDATORY;
cmdOptions[CMDINDEX_MONITOR_OFF_AC].dwCount = 1;
cmdOptions[CMDINDEX_MONITOR_OFF_AC].dwActuals = 0;
cmdOptions[CMDINDEX_MONITOR_OFF_AC].pValue =
&tChangeParam.ulVideoTimeoutAc;
cmdOptions[CMDINDEX_MONITOR_OFF_AC].pFunction = NULL;
cmdOptions[CMDINDEX_MONITOR_OFF_AC].pFunctionData = NULL;
lstrcpy(
cmdOptions[CMDINDEX_MONITOR_OFF_AC].szOption,
CMDOPTION_MONITOR_OFF_AC
);
lstrcpy(
cmdOptions[CMDINDEX_MONITOR_OFF_AC].szValues,
NULL_STRING
);
// sub-option 'monitor-timeout-dc'
cmdOptions[CMDINDEX_MONITOR_OFF_DC].dwFlags = CP_TYPE_UNUMERIC |
CP_VALUE_MANDATORY;
cmdOptions[CMDINDEX_MONITOR_OFF_DC].dwCount = 1;
cmdOptions[CMDINDEX_MONITOR_OFF_DC].dwActuals = 0;
cmdOptions[CMDINDEX_MONITOR_OFF_DC].pValue =
&tChangeParam.ulVideoTimeoutDc;
cmdOptions[CMDINDEX_MONITOR_OFF_DC].pFunction = NULL;
cmdOptions[CMDINDEX_MONITOR_OFF_DC].pFunctionData = NULL;
lstrcpy(
cmdOptions[CMDINDEX_MONITOR_OFF_DC].szOption,
CMDOPTION_MONITOR_OFF_DC
);
lstrcpy(
cmdOptions[CMDINDEX_MONITOR_OFF_DC].szValues,
NULL_STRING
);
// sub-option 'disk-timeout-ac'
cmdOptions[CMDINDEX_DISK_OFF_AC].dwFlags = CP_TYPE_UNUMERIC |
CP_VALUE_MANDATORY;
cmdOptions[CMDINDEX_DISK_OFF_AC].dwCount = 1;
cmdOptions[CMDINDEX_DISK_OFF_AC].dwActuals = 0;
cmdOptions[CMDINDEX_DISK_OFF_AC].pValue =
&tChangeParam.ulSpindownTimeoutAc;
cmdOptions[CMDINDEX_DISK_OFF_AC].pFunction = NULL;
cmdOptions[CMDINDEX_DISK_OFF_AC].pFunctionData = NULL;
lstrcpy(
cmdOptions[CMDINDEX_DISK_OFF_AC].szOption,
CMDOPTION_DISK_OFF_AC
);
lstrcpy(
cmdOptions[CMDINDEX_DISK_OFF_AC].szValues,
NULL_STRING
);
// sub-option 'disk-timeout-dc'
cmdOptions[CMDINDEX_DISK_OFF_DC].dwFlags = CP_TYPE_UNUMERIC |
CP_VALUE_MANDATORY;
cmdOptions[CMDINDEX_DISK_OFF_DC].dwCount = 1;
cmdOptions[CMDINDEX_DISK_OFF_DC].dwActuals = 0;
cmdOptions[CMDINDEX_DISK_OFF_DC].pValue =
&tChangeParam.ulSpindownTimeoutDc;
cmdOptions[CMDINDEX_DISK_OFF_DC].pFunction = NULL;
cmdOptions[CMDINDEX_DISK_OFF_DC].pFunctionData = NULL;
lstrcpy(
cmdOptions[CMDINDEX_DISK_OFF_DC].szOption,
CMDOPTION_DISK_OFF_DC
);
lstrcpy(
cmdOptions[CMDINDEX_DISK_OFF_DC].szValues,
NULL_STRING
);
// sub-option 'standby-timeout-ac'
cmdOptions[CMDINDEX_STANDBY_AC].dwFlags = CP_TYPE_UNUMERIC |
CP_VALUE_MANDATORY;
cmdOptions[CMDINDEX_STANDBY_AC].dwCount = 1;
cmdOptions[CMDINDEX_STANDBY_AC].dwActuals = 0;
cmdOptions[CMDINDEX_STANDBY_AC].pValue =
&tChangeParam.ulIdleTimeoutAc;
cmdOptions[CMDINDEX_STANDBY_AC].pFunction = NULL;
cmdOptions[CMDINDEX_STANDBY_AC].pFunctionData = NULL;
lstrcpy(
cmdOptions[CMDINDEX_STANDBY_AC].szOption,
CMDOPTION_STANDBY_AC
);
lstrcpy(
cmdOptions[CMDINDEX_STANDBY_AC].szValues,
NULL_STRING
);
// sub-option 'standby-timeout-dc'
cmdOptions[CMDINDEX_STANDBY_DC].dwFlags = CP_TYPE_UNUMERIC |
CP_VALUE_MANDATORY;
cmdOptions[CMDINDEX_STANDBY_DC].dwCount = 1;
cmdOptions[CMDINDEX_STANDBY_DC].dwActuals = 0;
cmdOptions[CMDINDEX_STANDBY_DC].pValue =
&tChangeParam.ulIdleTimeoutDc;
cmdOptions[CMDINDEX_STANDBY_DC].pFunction = NULL;
cmdOptions[CMDINDEX_STANDBY_DC].pFunctionData = NULL;
lstrcpy(
cmdOptions[CMDINDEX_STANDBY_DC].szOption,
CMDOPTION_STANDBY_DC
);
lstrcpy(
cmdOptions[CMDINDEX_STANDBY_DC].szValues,
NULL_STRING
);
// sub-option 'hibernate-timeout-ac'
cmdOptions[CMDINDEX_HIBER_AC].dwFlags = CP_TYPE_UNUMERIC |
CP_VALUE_MANDATORY;
cmdOptions[CMDINDEX_HIBER_AC].dwCount = 1;
cmdOptions[CMDINDEX_HIBER_AC].dwActuals = 0;
cmdOptions[CMDINDEX_HIBER_AC].pValue =
&tChangeParam.ulDozeS4TimeoutAc;
cmdOptions[CMDINDEX_HIBER_AC].pFunction = NULL;
cmdOptions[CMDINDEX_HIBER_AC].pFunctionData = NULL;
lstrcpy(
cmdOptions[CMDINDEX_HIBER_AC].szOption,
CMDOPTION_HIBER_AC
);
lstrcpy(
cmdOptions[CMDINDEX_HIBER_AC].szValues,
NULL_STRING
);
// sub-option 'hibernate-timeout-dc'
cmdOptions[CMDINDEX_HIBER_DC].dwFlags = CP_TYPE_UNUMERIC |
CP_VALUE_MANDATORY;
cmdOptions[CMDINDEX_HIBER_DC].dwCount = 1;
cmdOptions[CMDINDEX_HIBER_DC].dwActuals = 0;
cmdOptions[CMDINDEX_HIBER_DC].pValue =
&tChangeParam.ulDozeS4TimeoutDc;
cmdOptions[CMDINDEX_HIBER_DC].pFunction = NULL;
cmdOptions[CMDINDEX_HIBER_DC].pFunctionData = NULL;
lstrcpy(
cmdOptions[CMDINDEX_HIBER_DC].szOption,
CMDOPTION_HIBER_DC
);
lstrcpy(
cmdOptions[CMDINDEX_HIBER_DC].szValues,
NULL_STRING
);
// sub-option 'processor-throttle-ac'
cmdOptions[CMDINDEX_THROTTLE_AC].dwFlags = CP_TYPE_TEXT |
CP_VALUE_MANDATORY;
cmdOptions[CMDINDEX_THROTTLE_AC].dwCount = 1;
cmdOptions[CMDINDEX_THROTTLE_AC].dwActuals = 0;
cmdOptions[CMDINDEX_THROTTLE_AC].pValue = lpszThrottleAcStr;
cmdOptions[CMDINDEX_THROTTLE_AC].pFunction = NULL;
cmdOptions[CMDINDEX_THROTTLE_AC].pFunctionData = NULL;
lstrcpy(
cmdOptions[CMDINDEX_THROTTLE_AC].szOption,
CMDOPTION_THROTTLE_AC
);
lstrcpy(
cmdOptions[CMDINDEX_THROTTLE_AC].szValues,
NULL_STRING
);
// sub-option 'processor-throttle-dc'
cmdOptions[CMDINDEX_THROTTLE_DC].dwFlags = CP_TYPE_TEXT |
CP_VALUE_MANDATORY;
cmdOptions[CMDINDEX_THROTTLE_DC].dwCount = 1;
cmdOptions[CMDINDEX_THROTTLE_DC].dwActuals = 0;
cmdOptions[CMDINDEX_THROTTLE_DC].pValue = lpszThrottleDcStr;
cmdOptions[CMDINDEX_THROTTLE_DC].pFunction = NULL;
cmdOptions[CMDINDEX_THROTTLE_DC].pFunctionData = NULL;
lstrcpy(
cmdOptions[CMDINDEX_THROTTLE_DC].szOption,
CMDOPTION_THROTTLE_DC
);
lstrcpy(
cmdOptions[CMDINDEX_THROTTLE_DC].szValues,
NULL_STRING
);
// sub-option 'file'
cmdOptions[CMDINDEX_FILE].dwFlags = CP_TYPE_TEXT |
CP_VALUE_MANDATORY;
cmdOptions[CMDINDEX_FILE].dwCount = 1;
cmdOptions[CMDINDEX_FILE].dwActuals = 0;
cmdOptions[CMDINDEX_FILE].pValue = lpszFile;
cmdOptions[CMDINDEX_FILE].pFunction = NULL;
cmdOptions[CMDINDEX_FILE].pFunctionData = NULL;
lstrcpy(
cmdOptions[CMDINDEX_FILE].szOption,
CMDOPTION_FILE
);
lstrcpy(
cmdOptions[CMDINDEX_FILE].szValues,
NULL_STRING
);
// option 'globalpowerflag'
cmdOptions[CMDINDEX_GLOBALFLAG].dwFlags = CP_TYPE_TEXT |
CP_VALUE_MANDATORY |
CP_MAIN_OPTION;
cmdOptions[CMDINDEX_GLOBALFLAG].dwCount = 1;
cmdOptions[CMDINDEX_GLOBALFLAG].dwActuals = 0;
cmdOptions[CMDINDEX_GLOBALFLAG].pValue = lpszBoolStr;
cmdOptions[CMDINDEX_GLOBALFLAG].pFunction = NULL;
cmdOptions[CMDINDEX_GLOBALFLAG].pFunctionData = NULL;
lstrcpy(
cmdOptions[CMDINDEX_GLOBALFLAG].szOption,
CMDOPTION_GLOBALFLAG
);
lstrcpy(
cmdOptions[CMDINDEX_GLOBALFLAG].szValues,
NULL_STRING
);
// globalflag sub-option 'OPTION'
cmdOptions[CMDINDEX_POWEROPTION].dwFlags = CP_TYPE_TEXT |
CP_VALUE_MANDATORY;
cmdOptions[CMDINDEX_POWEROPTION].dwCount = 1;
cmdOptions[CMDINDEX_POWEROPTION].dwActuals = 0;
cmdOptions[CMDINDEX_POWEROPTION].pValue = lpszGlobalFlagOption;
cmdOptions[CMDINDEX_POWEROPTION].pFunction = NULL;
cmdOptions[CMDINDEX_POWEROPTION].pFunctionData = NULL;
lstrcpy(
cmdOptions[CMDINDEX_POWEROPTION].szOption,
CMDOPTION_POWEROPTION
);
lstrcpy(
cmdOptions[CMDINDEX_POWEROPTION].szValues,
NULL_STRING
);
// option 'batteryalarm'
cmdOptions[CMDINDEX_BATTERYALARM].dwFlags = CP_TYPE_TEXT |
CP_VALUE_MANDATORY |
CP_MAIN_OPTION;
cmdOptions[CMDINDEX_BATTERYALARM].dwCount = 1;
cmdOptions[CMDINDEX_BATTERYALARM].dwActuals = 0;
cmdOptions[CMDINDEX_BATTERYALARM].pValue = lpszName;
cmdOptions[CMDINDEX_BATTERYALARM].pFunction = NULL;
cmdOptions[CMDINDEX_BATTERYALARM].pFunctionData = NULL;
lstrcpy(
cmdOptions[CMDINDEX_BATTERYALARM].szOption,
CMDOPTION_BATTERYALARM
);
lstrcpy(
cmdOptions[CMDINDEX_BATTERYALARM].szValues,
NULL_STRING
);
// batteryalarm sub-option 'ACTIVATE'
cmdOptions[CMDINDEX_ALARMACTIVE].dwFlags = CP_TYPE_TEXT |
CP_VALUE_MANDATORY;
cmdOptions[CMDINDEX_ALARMACTIVE].dwCount = 1;
cmdOptions[CMDINDEX_ALARMACTIVE].dwActuals = 0;
cmdOptions[CMDINDEX_ALARMACTIVE].pValue = lpszBoolStr;
cmdOptions[CMDINDEX_ALARMACTIVE].pFunction = NULL;
cmdOptions[CMDINDEX_ALARMACTIVE].pFunctionData = NULL;
lstrcpy(
cmdOptions[CMDINDEX_ALARMACTIVE].szOption,
CMDOPTION_ALARMACTIVE
);
lstrcpy(
cmdOptions[CMDINDEX_ALARMACTIVE].szValues,
NULL_STRING
);
// batteryalarm sub-option 'LEVEL'
cmdOptions[CMDINDEX_ALARMLEVEL].dwFlags = CP_TYPE_UNUMERIC |
CP_VALUE_MANDATORY;
cmdOptions[CMDINDEX_ALARMLEVEL].dwCount = 1;
cmdOptions[CMDINDEX_ALARMLEVEL].dwActuals = 0;
cmdOptions[CMDINDEX_ALARMLEVEL].pValue = &dwAlarmLevel;
cmdOptions[CMDINDEX_ALARMLEVEL].pFunction = NULL;
cmdOptions[CMDINDEX_ALARMLEVEL].pFunctionData = NULL;
lstrcpy(
cmdOptions[CMDINDEX_ALARMLEVEL].szOption,
CMDOPTION_ALARMLEVEL
);
lstrcpy(
cmdOptions[CMDINDEX_ALARMLEVEL].szValues,
NULL_STRING
);
// batteryalarm sub-option 'TEXT'
cmdOptions[CMDINDEX_ALARMTEXT].dwFlags = CP_TYPE_TEXT |
CP_VALUE_MANDATORY;
cmdOptions[CMDINDEX_ALARMTEXT].dwCount = 1;
cmdOptions[CMDINDEX_ALARMTEXT].dwActuals = 0;
cmdOptions[CMDINDEX_ALARMTEXT].pValue = lpszAlarmTextBoolStr;
cmdOptions[CMDINDEX_ALARMTEXT].pFunction = NULL;
cmdOptions[CMDINDEX_ALARMTEXT].pFunctionData = NULL;
lstrcpy(
cmdOptions[CMDINDEX_ALARMTEXT].szOption,
CMDOPTION_ALARMTEXT
);
lstrcpy(
cmdOptions[CMDINDEX_ALARMTEXT].szValues,
NULL_STRING
);
// batteryalarm sub-option 'SOUND'
cmdOptions[CMDINDEX_ALARMSOUND].dwFlags = CP_TYPE_TEXT |
CP_VALUE_MANDATORY;
cmdOptions[CMDINDEX_ALARMSOUND].dwCount = 1;
cmdOptions[CMDINDEX_ALARMSOUND].dwActuals = 0;
cmdOptions[CMDINDEX_ALARMSOUND].pValue = lpszAlarmSoundBoolStr;
cmdOptions[CMDINDEX_ALARMSOUND].pFunction = NULL;
cmdOptions[CMDINDEX_ALARMSOUND].pFunctionData = NULL;
lstrcpy(
cmdOptions[CMDINDEX_ALARMSOUND].szOption,
CMDOPTION_ALARMSOUND
);
lstrcpy(
cmdOptions[CMDINDEX_ALARMSOUND].szValues,
NULL_STRING
);
// batteryalarm sub-option 'ACTION'
cmdOptions[CMDINDEX_ALARMACTION].dwFlags = CP_TYPE_TEXT |
CP_VALUE_MANDATORY;
cmdOptions[CMDINDEX_ALARMACTION].dwCount = 1;
cmdOptions[CMDINDEX_ALARMACTION].dwActuals = 0;
cmdOptions[CMDINDEX_ALARMACTION].pValue = lpszAlarmActionStr;
cmdOptions[CMDINDEX_ALARMACTION].pFunction = NULL;
cmdOptions[CMDINDEX_ALARMACTION].pFunctionData = NULL;
lstrcpy(
cmdOptions[CMDINDEX_ALARMACTION].szOption,
CMDOPTION_ALARMACTION
);
lstrcpy(
cmdOptions[CMDINDEX_ALARMACTION].szValues,
NULL_STRING
);
// batteryalarm sub-option 'FORCE'
cmdOptions[CMDINDEX_ALARMFORCE].dwFlags = CP_TYPE_TEXT |
CP_VALUE_MANDATORY;
cmdOptions[CMDINDEX_ALARMFORCE].dwCount = 1;
cmdOptions[CMDINDEX_ALARMFORCE].dwActuals = 0;
cmdOptions[CMDINDEX_ALARMFORCE].pValue = lpszAlarmForceBoolStr;
cmdOptions[CMDINDEX_ALARMFORCE].pFunction = NULL;
cmdOptions[CMDINDEX_ALARMFORCE].pFunctionData = NULL;
lstrcpy(
cmdOptions[CMDINDEX_ALARMFORCE].szOption,
CMDOPTION_ALARMFORCE
);
lstrcpy(
cmdOptions[CMDINDEX_ALARMFORCE].szValues,
NULL_STRING
);
// batteryalarm sub-option 'PROGRAM'
cmdOptions[CMDINDEX_ALARMPROGRAM].dwFlags = CP_TYPE_TEXT |
CP_VALUE_MANDATORY;
cmdOptions[CMDINDEX_ALARMPROGRAM].dwCount = 1;
cmdOptions[CMDINDEX_ALARMPROGRAM].dwActuals = 0;
cmdOptions[CMDINDEX_ALARMPROGRAM].pValue = lpszAlarmProgramBoolStr;
cmdOptions[CMDINDEX_ALARMPROGRAM].pFunction = NULL;
cmdOptions[CMDINDEX_ALARMPROGRAM].pFunctionData = NULL;
lstrcpy(
cmdOptions[CMDINDEX_ALARMPROGRAM].szOption,
CMDOPTION_ALARMPROGRAM
);
lstrcpy(
cmdOptions[CMDINDEX_ALARMPROGRAM].szValues,
NULL_STRING
);
// parse parameters, take appropriate action
if(DoParseParam(argc,argv,NUM_CMDS,cmdOptions))
{
// make sure only one command issued
DWORD dwCmdCount = 0;
DWORD dwParamCount = 0;
for(dwIdx=0;dwIdx<NUM_CMDS;dwIdx++)
{
if (dwIdx < NUM_MAIN_CMDS)
{
dwCmdCount += cmdOptions[dwIdx].dwActuals;
}
else if (dwIdx != CMDINDEX_NUMERICAL)
{
dwParamCount += cmdOptions[dwIdx].dwActuals;
}
}
// determine other flags
bQuery = (cmdOptions[CMDINDEX_QUERY].dwActuals != 0);
bCreate = (cmdOptions[CMDINDEX_CREATE].dwActuals != 0);
bDelete = (cmdOptions[CMDINDEX_DELETE].dwActuals != 0);
bSetActive = (cmdOptions[CMDINDEX_SETACTIVE].dwActuals != 0);
bChange = (cmdOptions[CMDINDEX_CHANGE].dwActuals != 0);
bHibernate = (cmdOptions[CMDINDEX_HIBERNATE].dwActuals != 0);
bGlobalFlag = (cmdOptions[CMDINDEX_GLOBALFLAG].dwActuals != 0);
bGetSupporedSStates = (cmdOptions[CMDINDEX_SSTATES].dwActuals != 0);
bExport = (cmdOptions[CMDINDEX_EXPORT].dwActuals != 0);
bImport = (cmdOptions[CMDINDEX_IMPORT].dwActuals != 0);
bFile = (cmdOptions[CMDINDEX_FILE].dwActuals != 0);
tChangeParam.bVideoTimeoutAc =
(cmdOptions[CMDINDEX_MONITOR_OFF_AC].dwActuals != 0);
tChangeParam.bVideoTimeoutDc =
(cmdOptions[CMDINDEX_MONITOR_OFF_DC].dwActuals != 0);
tChangeParam.bSpindownTimeoutAc =
(cmdOptions[CMDINDEX_DISK_OFF_AC].dwActuals != 0);
tChangeParam.bSpindownTimeoutDc =
(cmdOptions[CMDINDEX_DISK_OFF_DC].dwActuals != 0);
tChangeParam.bIdleTimeoutAc =
(cmdOptions[CMDINDEX_STANDBY_AC].dwActuals != 0);
tChangeParam.bIdleTimeoutDc =
(cmdOptions[CMDINDEX_STANDBY_DC].dwActuals != 0);
tChangeParam.bDozeS4TimeoutAc =
(cmdOptions[CMDINDEX_HIBER_AC].dwActuals != 0);
tChangeParam.bDozeS4TimeoutDc =
(cmdOptions[CMDINDEX_HIBER_DC].dwActuals != 0);
tChangeParam.bDynamicThrottleAc =
(cmdOptions[CMDINDEX_THROTTLE_AC].dwActuals != 0);
tChangeParam.bDynamicThrottleDc =
(cmdOptions[CMDINDEX_THROTTLE_DC].dwActuals != 0);
tChangeParam.lpszDynamicThrottleAc = lpszThrottleAcStr;
tChangeParam.lpszDynamicThrottleDc = lpszThrottleDcStr;
bBatteryAlarm = (cmdOptions[CMDINDEX_BATTERYALARM].dwActuals != 0);
// verify number
if(bNumerical)
{
for(dwIdx=0; lpszName[dwIdx] != 0; dwIdx++)
{
if((lpszName[dwIdx] < _T('0')) ||
(lpszName[dwIdx] > _T('9')))
{
bFail = TRUE;
g_lpszErr = GetResString(IDS_INVALID_CMDLINE_PARAM);
break;
}
}
}
//
// parameter count validation
//
if ((dwCmdCount == 1) &&
((dwParamCount == 0) ||
(bChange && (dwParamCount > 0) && (!bFile)) ||
((bImport || bExport) && bFile && (dwParamCount == 1)) ||
(bGlobalFlag && (dwParamCount == 1)) ||
((bBatteryAlarm) && (dwParamCount <= 7))) &&
((!bNumerical) || ((lstrlen(lpszName) != 0) && (!bCreate))) &&
(!bFail))
{
// check flags, take appropriate action
if(bList)
{
DoList();
}
else if (bQuery)
{
bFail = !DoQuery(
lpszName,
(lstrlen(lpszName) != 0),
bNumerical
);
}
else if (bCreate)
{
bFail = !DoCreate(
lpszName
);
}
else if (bDelete)
{
bFail = !DoDelete(
lpszName,
bNumerical
);
}
else if (bSetActive)
{
bFail = !DoSetActive(
lpszName,
bNumerical
);
}
else if (bChange)
{
bFail = !DoChange(
lpszName,
bNumerical,
&tChangeParam
);
}
else if (bHibernate)
{
bFail = !DoHibernate(lpszBoolStr);
}
else if (bGlobalFlag)
{
bFail = !DoGlobalFlag(lpszBoolStr,lpszGlobalFlagOption);
}
else if (bGetSupporedSStates)
{
bFail = !DoGetSupportedSStates();
}
else if (bExport)
{
bFail = !DoExport(
lpszName,
bNumerical,
lpszFile
);
}
else if (bImport)
{
bFail = !DoImport(
lpszName,
bNumerical,
lpszFile
);
}
else if (bBatteryAlarm)
{
bFail = !DoBatteryAlarm(
lpszName,
(cmdOptions[CMDINDEX_ALARMACTIVE].dwActuals!=0) ?
lpszBoolStr : NULL,
dwAlarmLevel,
(cmdOptions[CMDINDEX_ALARMTEXT].dwActuals!=0) ?
lpszAlarmTextBoolStr : NULL,
(cmdOptions[CMDINDEX_ALARMSOUND].dwActuals!=0) ?
lpszAlarmSoundBoolStr : NULL,
(cmdOptions[CMDINDEX_ALARMACTION].dwActuals!=0) ?
lpszAlarmActionStr : NULL,
(cmdOptions[CMDINDEX_ALARMFORCE].dwActuals!=0) ?
lpszAlarmForceBoolStr : NULL,
(cmdOptions[CMDINDEX_ALARMPROGRAM].dwActuals!=0) ?
lpszAlarmProgramBoolStr : NULL
);
}
else if (bUsage)
{
DoUsage();
}
else
{
if(lstrlen(g_lpszErr) == 0)
{
g_lpszErr = GetResString(IDS_INVALID_CMDLINE_PARAM);
}
bFail = TRUE;
}
}
else
{
// handle error conditions
if(lstrlen(g_lpszErr) == 0)
{
g_lpszErr = GetResString(IDS_INVALID_CMDLINE_PARAM);
}
bFail = TRUE;
}
}
else
{
g_lpszErr = GetResString(IDS_INVALID_CMDLINE_PARAM);
bFail = TRUE;
}
// check error status, display msg if needed
if(bFail)
{
if(g_lpszErr2)
{
DISPLAY_MESSAGE(stderr,g_lpszErr2);
}
else
{
DISPLAY_MESSAGE(stderr,g_lpszErr);
}
}
// clean up allocs
LocalFree(lpszBoolStr);
LocalFree(lpszName);
LocalFree(lpszFile);
LocalFree(lpszThrottleAcStr);
LocalFree(lpszThrottleDcStr);
LocalFree(lpszGlobalFlagOption);
LocalFree(lpszAlarmTextBoolStr);
LocalFree(lpszAlarmSoundBoolStr);
LocalFree(lpszAlarmActionStr);
LocalFree(lpszAlarmForceBoolStr);
LocalFree(lpszAlarmProgramBoolStr);
if (g_lpszErr2)
{
LocalFree(g_lpszErr2);
}
FreeLibrary(hLib);
// return appropriate result code
if(bFail)
{
return EXIT_FAILURE;
}
else
{
return EXIT_SUCCESS;
}
}
BOOL
FreeScheme(
PSCHEME_LIST psl
)
/*++
Routine Description:
Frees the memory associated with a scheme list entry.
Arguments:
psl - the PSCHEME_LIST to be freed
Return Value:
Always returns TRUE, indicating success.
--*/
{
LocalFree(psl->lpszName);
LocalFree(psl->lpszDesc);
LocalFree(psl->ppp);
LocalFree(psl->pmppp);
LocalFree(psl);
return TRUE;
}
BOOL
FreeSchemeList(
PSCHEME_LIST psl,
PSCHEME_LIST pslExcept
)
/*++
Routine Description:
Deallocates all power schemes in a linked-list of power schemes, except
for the one pointed to by pslExcept
Arguments:
psl - the power scheme list to deallocate
pslExcept - a scheme not to deallocate (null to deallocate all)
Return Value:
Always returns TRUE, indicating success.
--*/
{
PSCHEME_LIST cur = psl;
PSCHEME_LIST next;
while (cur != NULL)
{
next = CONTAINING_RECORD(
cur->le.Flink,
SCHEME_LIST,
le
);
if (cur != pslExcept)
{
FreeScheme(cur);
}
else
{
cur->le.Flink = NULL;
cur->le.Blink = NULL;
}
cur = next;
}
return TRUE;
}
PSCHEME_LIST
CreateScheme(
UINT uiID,
DWORD dwNameSize,
LPCTSTR lpszName,
DWORD dwDescSize,
LPCTSTR lpszDesc,
PPOWER_POLICY ppp
)
/*++
Routine Description:
Builds a policy list entry. Note that the scheme is allocated and must
be freed when done.
Arguments:
uiID - the numerical ID of the scheme
dwNameSize - the number of bytes needed to store lpszName
lpszName - the name of the scheme
dwDescSize - the number of bytes needed to store lpszDesc
lpszDesc - the description of the scheme
ppp - the power policy for this scheme, may be NULL
Return Value:
A PSCHEME_LIST entry containing the specified values, with the next
entry field set to NULL
--*/
{
PSCHEME_LIST psl = (PSCHEME_LIST)LocalAlloc(LPTR,sizeof(SCHEME_LIST));
if (psl)
{
// deal with potentially null input strings
if(lpszName == NULL)
{
lpszName = NULL_STRING;
}
if(lpszDesc == NULL)
{
lpszDesc = NULL_STRING;
}
// allocate fields
psl->ppp = (PPOWER_POLICY)LocalAlloc(LPTR,sizeof(POWER_POLICY));
if (!psl->ppp)
{
g_lpszErr = GetResString(IDS_OUT_OF_MEMORY);
return NULL;
}
psl->pmppp = (PMACHINE_PROCESSOR_POWER_POLICY)LocalAlloc(
LPTR,
sizeof(MACHINE_PROCESSOR_POWER_POLICY)
);
if (!psl->pmppp)
{
LocalFree(psl->ppp);
g_lpszErr = GetResString(IDS_OUT_OF_MEMORY);
return NULL;
}
psl->lpszName = (LPTSTR)LocalAlloc(LPTR,dwNameSize);
if (!psl->lpszName)
{
LocalFree(psl->ppp);
LocalFree(psl->pmppp);
g_lpszErr = GetResString(IDS_OUT_OF_MEMORY);
return NULL;
}
psl->lpszDesc = (LPTSTR)LocalAlloc(LPTR,dwDescSize);
if (!psl->lpszDesc)
{
LocalFree(psl->ppp);
LocalFree(psl->pmppp);
LocalFree(psl->lpszName);
g_lpszErr = GetResString(IDS_OUT_OF_MEMORY);
return NULL;
}
// initialize structure
psl->uiID = uiID;
memcpy(psl->lpszName,lpszName,dwNameSize);
memcpy(psl->lpszDesc,lpszDesc,dwDescSize);
if (ppp)
{
memcpy(psl->ppp,ppp,sizeof(POWER_POLICY));
}
psl->le.Flink = NULL;
psl->le.Blink = NULL;
}
else
{
g_lpszErr = GetResString(IDS_OUT_OF_MEMORY);
}
return psl;
}
BOOLEAN CALLBACK
PowerSchemeEnumProc(
UINT uiID,
DWORD dwNameSize,
LPTSTR lpszName,
DWORD dwDescSize,
LPTSTR lpszDesc,
PPOWER_POLICY ppp,
LPARAM lParam
)
/*++
Routine Description:
This is a callback used in retrieving the policy list.
Arguments:
uiID - the numerical ID of the scheme
dwNameSize - the number of bytes needed to store lpszName
lpszName - the name of the scheme
dwDescSize - the number of bytes needed to store lpszDesc
lpszDesc - the description of the scheme
ppp - the power policy for this scheme
lParam - used to hold a pointer to the head-of-list pointer, allowing
for insertions at the head of the list
Return Value:
TRUE to continue enumeration
FALSE to abort enumeration
--*/
{
PSCHEME_LIST psl;
// Allocate and initalize a policies element.
if ((psl = CreateScheme(
uiID,
dwNameSize,
lpszName,
dwDescSize,
lpszDesc,
ppp
)) != NULL)
{
// add the element to the head of the linked list
psl->le.Flink = *((PLIST_ENTRY *)lParam);
if(*((PLIST_ENTRY *)lParam))
{
(*((PLIST_ENTRY *)lParam))->Blink = &(psl->le);
}
(*(PLIST_ENTRY *)lParam) = &(psl->le);
return TRUE;
}
return FALSE;
}
PSCHEME_LIST
CreateSchemeList()
/*++
Routine Description:
Creates a linked list of existing power schemes.
Arguments:
None
Return Value:
A pointer to the head of the list.
NULL would correspond to an empty list.
--*/
{
PLIST_ENTRY ple = NULL;
PSCHEME_LIST psl;
fEnumPwrSchemes(PowerSchemeEnumProc, (LPARAM)(&ple));
if(ple)
{
PSCHEME_LIST res = CONTAINING_RECORD(
ple,
SCHEME_LIST,
le
);
psl = res;
if(g_bProcessorPwrSchemeSupported) {
while(psl != NULL)
{
if(!fReadProcessorPwrScheme(psl->uiID,psl->pmppp))
{
FreeSchemeList(res,NULL);
g_lpszErr = GetResString(IDS_UNEXPECTED_ERROR);
return NULL;
}
psl = CONTAINING_RECORD(
psl->le.Flink,
SCHEME_LIST,
le
);
}
}
return res;
}
else
{
return NULL;
}
}
PSCHEME_LIST
FindScheme(
LPCTSTR lpszName,
UINT uiID,
BOOL bNumerical
)
/*++
Routine Description:
Finds the policy with the matching name. If lpszName is NULL,
the scheme is found by uiID instead. If bNumerical is TRUE,
lpszName will be interpreted as a numerical identifier instead.
Arguments:
lpszName - the name of the scheme to find
uiID - the numerical identifier of the scheme
bNumerical - causes lpszName to be interpreted as a numerical identifier
Return Value:
the matching scheme list entry, null if none
--*/
{
PSCHEME_LIST psl = CreateSchemeList();
PSCHEME_LIST pslRes = NULL;
// process bNumerical option
if(bNumerical && lpszName) {
uiID = _ttoi(lpszName);
lpszName = NULL;
}
// find scheme entry
while(psl != NULL)
{
// check for match
if (((lpszName != NULL) && (!lstrcmpi(lpszName, psl->lpszName))) ||
((lpszName == NULL) && (uiID == psl->uiID)))
{
pslRes = psl;
break;
}
// traverse list
psl = CONTAINING_RECORD(
psl->le.Flink,
SCHEME_LIST,
le
);
}
FreeSchemeList(psl,pslRes); // all except for pslRes
if (pslRes == NULL)
g_lpszErr = GetResString(IDS_SCHEME_NOT_FOUND);
return pslRes;
}
BOOL
MyWriteScheme(
PSCHEME_LIST psl
)
/*++
Routine Description:
Writes a power scheme -- both user/machine power policies and
processor power policy. The underlying powrprof.dll does not
treat the processor power policy as part of the power policy
because the processor power policies were added at a later
date and backwards compatibility must be maintained.
Arguments:
psl - The scheme list entry to write
Return Value:
TRUE if successful, otherwise FALSE
--*/
{
g_lpszErr = GetResString(IDS_UNEXPECTED_ERROR);
if(fWritePwrScheme(
&psl->uiID,
psl->lpszName,
psl->lpszDesc,
psl->ppp))
{
if(g_bProcessorPwrSchemeSupported) {
return fWriteProcessorPwrScheme(
psl->uiID,
psl->pmppp
);
}
else
{
return TRUE;
}
}
else
{
return FALSE;
}
}
BOOL
MapIdleValue(
ULONG ulVal,
PULONG pulIdle,
PULONG pulHiber,
PPOWER_ACTION ppapIdle
)
/*++
Routine Description:
Modifies Idle and Hibernation settings to reflect the desired idle
timeout. See GUI tool's PWRSCHEM.C MapHiberTimer for logic.
Arguments:
ulVal - the new idle timeout
pulIdle - the idle timeout variable to be updated
pulHiber - the hiber timeout variable to be updated
Return Value:
TRUE if successful
FALSE if failed
--*/
{
// if previously, hiber was enabled and standby wasn't, standby timer
// takes over the hibernation timer's role
if (*ppapIdle == PowerActionHibernate)
{
if (ulVal > 0)
{ // enable standby
*pulHiber = *pulIdle + ulVal;
*pulIdle = ulVal;
*ppapIdle = PowerActionSleep;
}
else { // standby already disabled, no change
}
}
else // standby timer actually being used for standby (not hiber)
{
if (ulVal > 0)
{ // enable standby
if ((*pulHiber) != 0)
{
*pulHiber = *pulHiber + ulVal - *pulIdle;
}
*pulIdle = ulVal;
if (ulVal > 0)
{
*ppapIdle = PowerActionSleep;
}
else
{
*ppapIdle = PowerActionNone;
}
}
else
{ // disable standby
if ((*pulHiber) != 0)
{
*pulIdle = *pulHiber;
*pulHiber = 0;
*ppapIdle = PowerActionHibernate;
}
else
{
*pulIdle = 0;
*ppapIdle = PowerActionNone;
}
}
}
return TRUE;
}
BOOL
MapHiberValue(
ULONG NewHibernateTimeout,
PULONG pExistingStandbyTimeout,
PULONG pHIbernateTimeoutVariable,
PPOWER_ACTION pIdlePowerAction
)
/*++
Routine Description:
Modifies Idle and Hibernation settings to reflect the desired hibernation
timeout. See GUI tool's PWRSCHEM.C MapHiberTimer for logic.
Arguments:
NewHibernateTimeout - the new hibernation timeout the user is
asking us to apply.
pExistingStandbyTimeout - existing standby timeout.
pHIbernateTimeoutVariable - existing hibernate timeout variable which will
be updated with the new value being sent in.
pIdlePowerAction - existing power action to take after specified idle timeout.
Return Value:
TRUE if successful
FALSE if failed
--*/
{
//
// check valid input
//
if( (NewHibernateTimeout != 0) &&
(NewHibernateTimeout < *pExistingStandbyTimeout) ) {
//
// He's asking us to set the hibernate timeout
// to be less than the standby timer. We disallow this.
//
g_lpszErr = GetResString(IDS_HIBER_OUT_OF_RANGE);
return FALSE;
}
//
// check to see if we can even enable hibernation.
//
if( (NewHibernateTimeout != 0) &&
(!g_bHiberFileSupported) ) {
g_lpszErr = GetResString(IDS_HIBER_UNSUPPORTED);
return FALSE;
}
//
// We're ready to update our timeout value.
//
if( NewHibernateTimeout == 0 ) {
//
// He's asking us to set the timeout to zero, which
// is synonymous with simply disabling hibernate.
//
*pHIbernateTimeoutVariable = NewHibernateTimeout;
//
// Now fix up our idle PowerAction. It can no longer
// be set to hibernate, so our choices are either sleep
// or nothing. Set it according to whether sleep is even
// supported on this machine.
//
*pIdlePowerAction = g_bStandbySupported ? PowerActionSleep : PowerActionNone;
//
// Care here. if we just set our idle PowerAction to do nothing,
// make sure our standby idle timeout is set to zero.
//
*pExistingStandbyTimeout = 0;
} else {
//
// He wants to set some timeout. But the standby and
// hibernate timeouts are somewhat related. If he
// wants the system to hibernate after 60 minutes of
// idle time, but the standby is set to 20, then what
// he's really asking is for us to set the hibernate to
// 40. This means that after 20 minutes of idle, the system
// will go to standby and we'll set a 40 minute timer to
// tell the system to go to hibernate. If we set that timer
// to 60 minutes, then the system wouldn't actually hibernate
// until after 20+60=80 minutes. Therefore, set the timeout
// to what he's asking for, minus the existing standby timeout.
//
*pHIbernateTimeoutVariable = NewHibernateTimeout - *pExistingStandbyTimeout;
//
// Now fix up our idle PowerAction. If we don't support sleep on this
// machine, then we need to set the idle PowerAction to hibernate.
//
*pIdlePowerAction = g_bStandbySupported ? PowerActionSleep : PowerActionHibernate;
}
return TRUE;
}
BOOL
DoList()
/*++
Routine Description:
Lists the existing power schemes on stdout
Arguments:
none
Return Value:
TRUE if successful
FALSE if failed
--*/
{
PSCHEME_LIST psl = CreateSchemeList();
if (psl != NULL)
{
DISPLAY_MESSAGE(stdout,GetResString(IDS_LIST_HEADER1));
DISPLAY_MESSAGE(stdout,GetResString(IDS_LIST_HEADER2));
}
else
{
return FALSE;
}
while(psl != NULL)
{
DISPLAY_MESSAGE(stdout, psl->lpszName);
DISPLAY_MESSAGE(stdout, L"\n");
psl = CONTAINING_RECORD(
psl->le.Flink,
SCHEME_LIST,
le
);
}
FreeSchemeList(psl,NULL); // free all entries
return TRUE;
}
BOOL
DoQuery(
LPCTSTR lpszName,
BOOL bNameSpecified,
BOOL bNumerical
)
/*++
Routine Description:
Show details of an existing scheme
Arguments:
lpszName - the name of the scheme
bNameSpecified - if TRUE, lpszName ignored and shows details
of active power scheme instead
bNumerical - if TRUE, lpszName interpreted as numerical identifier
Return Value:
TRUE if successful
FALSE if failed
--*/
{
PSCHEME_LIST psl;
// check if querying specific scheme or active scheme and deal w/it
if (bNameSpecified)
{
psl = FindScheme(
lpszName,
0,
bNumerical
);
}
else // fetch the active scheme
{
UINT uiID;
if (fGetActivePwrScheme(&uiID))
{
psl = FindScheme(NULL,uiID,FALSE);
}
else
{
g_lpszErr = GetResString(IDS_ACTIVE_SCHEME_INVALID);
return FALSE;
}
}
// display info
if (psl)
{
// header
DISPLAY_MESSAGE(stdout, GetResString(IDS_QUERY_HEADER1));
DISPLAY_MESSAGE(stdout, GetResString(IDS_QUERY_HEADER2));
// name
DISPLAY_MESSAGE1(
stdout,
g_lpszBuf,
GetResString(IDS_SCHEME_NAME),
psl->lpszName
);
// id
DISPLAY_MESSAGE1(
stdout,
g_lpszBuf,
GetResString(IDS_SCHEME_ID),
psl->uiID
);
// monitor timeout AC
DISPLAY_MESSAGE(stdout, GetResString(IDS_MONITOR_TIMEOUT_AC));
if (!g_bMonitorPowerSupported)
{
DISPLAY_MESSAGE(stdout, GetResString(IDS_UNSUPPORTED));
}
else if (psl->ppp->user.VideoTimeoutAc == 0) {
DISPLAY_MESSAGE(stdout, GetResString(IDS_DISABLED));
}
else
{
DISPLAY_MESSAGE1(
stdout,
g_lpszBuf,
GetResString(IDS_MINUTES),
psl->ppp->user.VideoTimeoutAc/60
);
}
// monitor timeout DC
DISPLAY_MESSAGE(stdout, GetResString(IDS_MONITOR_TIMEOUT_DC));
if (!g_bMonitorPowerSupported)
{
DISPLAY_MESSAGE(stdout, GetResString(IDS_UNSUPPORTED));
}
else if (psl->ppp->user.VideoTimeoutDc == 0)
{
DISPLAY_MESSAGE(stdout, GetResString(IDS_DISABLED));
}
else
{
DISPLAY_MESSAGE1(
stdout,
g_lpszBuf,
GetResString(IDS_MINUTES),
psl->ppp->user.VideoTimeoutDc/60
);
}
// disk timeout AC
DISPLAY_MESSAGE(stdout, GetResString(IDS_DISK_TIMEOUT_AC));
if (!g_bDiskPowerSupported)
{
DISPLAY_MESSAGE(stdout, GetResString(IDS_UNSUPPORTED));
}
else if (psl->ppp->user.SpindownTimeoutAc == 0)
{
DISPLAY_MESSAGE(stdout, GetResString(IDS_DISABLED));
}
else
{
DISPLAY_MESSAGE1(
stdout,
g_lpszBuf,
GetResString(IDS_MINUTES),
psl->ppp->user.SpindownTimeoutAc/60
);
}
// disk timeout DC
DISPLAY_MESSAGE(stdout, GetResString(IDS_DISK_TIMEOUT_DC));
if (!g_bDiskPowerSupported)
{
DISPLAY_MESSAGE(stdout, GetResString(IDS_UNSUPPORTED));
}
else if (psl->ppp->user.SpindownTimeoutDc == 0)
{
DISPLAY_MESSAGE(stdout, GetResString(IDS_DISABLED));
}
else
{
DISPLAY_MESSAGE1(
stdout,
g_lpszBuf,
GetResString(IDS_MINUTES),
psl->ppp->user.SpindownTimeoutDc/60
);
}
// standby timeout AC
DISPLAY_MESSAGE(stdout, GetResString(IDS_STANDBY_TIMEOUT_AC));
if (!g_bStandbySupported)
{
DISPLAY_MESSAGE(stdout, GetResString(IDS_UNSUPPORTED));
}
else if ((psl->ppp->user.IdleAc.Action != PowerActionSleep) ||
(psl->ppp->user.IdleTimeoutAc == 0))
{
DISPLAY_MESSAGE(stdout, GetResString(IDS_DISABLED));
}
else
{
DISPLAY_MESSAGE1(
stdout,
g_lpszBuf,
GetResString(IDS_MINUTES),
psl->ppp->user.IdleTimeoutAc/60
);
}
// standby timeout DC
DISPLAY_MESSAGE(stdout, GetResString(IDS_STANDBY_TIMEOUT_DC));
if (!g_bStandbySupported)
{
DISPLAY_MESSAGE(stdout, GetResString(IDS_UNSUPPORTED));
}
else if ((psl->ppp->user.IdleDc.Action != PowerActionSleep) ||
(psl->ppp->user.IdleTimeoutDc == 0))
{
DISPLAY_MESSAGE(stdout, GetResString(IDS_DISABLED));
}
else
{
DISPLAY_MESSAGE1(
stdout,
g_lpszBuf,
GetResString(IDS_MINUTES),
psl->ppp->user.IdleTimeoutDc/60
);
}
// hibernate timeout AC
DISPLAY_MESSAGE(stdout, GetResString(IDS_HIBER_TIMEOUT_AC));
if (!g_bHiberFileSupported)
{
DISPLAY_MESSAGE(stdout, GetResString(IDS_UNSUPPORTED));
}
else if (psl->ppp->mach.DozeS4TimeoutAc == 0)
{
DISPLAY_MESSAGE(stdout, GetResString(IDS_DISABLED));
}
else
{
DISPLAY_MESSAGE1(
stdout,
g_lpszBuf,
GetResString(IDS_MINUTES),
(psl->ppp->mach.DozeS4TimeoutAc +
psl->ppp->user.IdleTimeoutAc)/60
);
}
// hibernate timeout DC
DISPLAY_MESSAGE(stdout, GetResString(IDS_HIBER_TIMEOUT_DC));
if (!g_bHiberFileSupported)
{
DISPLAY_MESSAGE(stdout, GetResString(IDS_UNSUPPORTED));
}
else if (psl->ppp->mach.DozeS4TimeoutDc == 0)
{
DISPLAY_MESSAGE(stdout, GetResString(IDS_DISABLED));
}
else
{
DISPLAY_MESSAGE1(
stdout,
g_lpszBuf,
GetResString(IDS_MINUTES),
(psl->ppp->mach.DozeS4TimeoutDc +
psl->ppp->user.IdleTimeoutDc)/60
);
}
// throttle policy AC
DISPLAY_MESSAGE(stdout, GetResString(IDS_THROTTLE_AC));
if (!g_bThrottleSupported)
{
DISPLAY_MESSAGE(stdout, GetResString(IDS_UNSUPPORTED));
}
else
{
switch(psl->pmppp->ProcessorPolicyAc.DynamicThrottle)
{
case PO_THROTTLE_NONE:
DISPLAY_MESSAGE(stdout, GetResString(IDS_THROTTLE_NONE));
break;
case PO_THROTTLE_CONSTANT:
DISPLAY_MESSAGE(stdout, GetResString(IDS_THROTTLE_CONSTANT));
break;
case PO_THROTTLE_DEGRADE:
DISPLAY_MESSAGE(stdout, GetResString(IDS_THROTTLE_DEGRADE));
break;
case PO_THROTTLE_ADAPTIVE:
DISPLAY_MESSAGE(stdout, GetResString(IDS_THROTTLE_ADAPTIVE));
break;
default:
DISPLAY_MESSAGE(stdout, GetResString(IDS_THROTTLE_UNKNOWN));
break;
}
}
// throttle policy DC
DISPLAY_MESSAGE(stdout, GetResString(IDS_THROTTLE_DC));
if (!g_bThrottleSupported)
{
DISPLAY_MESSAGE(stdout, GetResString(IDS_UNSUPPORTED));
}
else
{
switch(psl->pmppp->ProcessorPolicyDc.DynamicThrottle) {
case PO_THROTTLE_NONE:
DISPLAY_MESSAGE(stdout, GetResString(IDS_THROTTLE_NONE));
break;
case PO_THROTTLE_CONSTANT:
DISPLAY_MESSAGE(stdout, GetResString(IDS_THROTTLE_CONSTANT));
break;
case PO_THROTTLE_DEGRADE:
DISPLAY_MESSAGE(stdout, GetResString(IDS_THROTTLE_DEGRADE));
break;
case PO_THROTTLE_ADAPTIVE:
DISPLAY_MESSAGE(stdout, GetResString(IDS_THROTTLE_ADAPTIVE));
break;
default:
DISPLAY_MESSAGE(stdout, GetResString(IDS_THROTTLE_UNKNOWN));
break;
}
}
FreeScheme(psl);
return TRUE;
}
else
{
return FALSE;
}
}
BOOL DoCreate(
LPTSTR lpszName
)
/*++
Routine Description:
Adds a new power scheme
The description will match the name
All other details are copied from the active power scheme
Fails if scheme already exists
Arguments:
lpszName - the name of the scheme
Return Value:
TRUE if successful
FALSE if failed
--*/
{
PSCHEME_LIST psl = FindScheme(
lpszName,
0,
FALSE
);
UINT uiID;
BOOL bRes;
LPTSTR lpszNewName;
LPTSTR lpszNewDesc;
if(psl) // already existed -> fail
{
FreeScheme(psl);
g_lpszErr = GetResString(IDS_SCHEME_ALREADY_EXISTS);
return FALSE;
}
// create a new scheme
if(fGetActivePwrScheme(&uiID))
{
psl = FindScheme(NULL,uiID,FALSE);
if(!psl)
{
g_lpszErr = GetResString(IDS_SCHEME_CREATE_FAIL);
return FALSE;
}
lpszNewName = (LPTSTR)LocalAlloc(LPTR,(lstrlen(lpszName)+1)*sizeof(TCHAR));
if(!lpszNewName)
{
FreeScheme(psl);
g_lpszErr = GetResString(IDS_OUT_OF_MEMORY);
return FALSE;
}
lpszNewDesc = (LPTSTR)LocalAlloc(LPTR,(lstrlen(lpszName)+1)*sizeof(TCHAR));
if(!lpszNewDesc)
{
LocalFree(lpszNewName);
FreeScheme(psl);
g_lpszErr = GetResString(IDS_OUT_OF_MEMORY);
return FALSE;
}
lstrcpy(lpszNewName,lpszName);
lstrcpy(lpszNewDesc,lpszName);
LocalFree(psl->lpszName);
LocalFree(psl->lpszDesc);
psl->lpszName = lpszNewName;
psl->lpszDesc = lpszNewDesc;
psl->uiID = NEWSCHEME;
g_lpszErr = GetResString(IDS_UNEXPECTED_ERROR);
bRes = MyWriteScheme(psl);
FreeScheme(psl);
return bRes;
}
g_lpszErr = GetResString(IDS_SCHEME_CREATE_FAIL);
return FALSE;
}
BOOL DoDelete(
LPCTSTR lpszName,
BOOL bNumerical
)
/*++
Routine Description:
Deletes an existing scheme
Arguments:
lpszName - the name of the scheme
bNumerical - if TRUE, lpszName interpreted as numerical identifier
Return Value:
TRUE if successful
FALSE if failed
--*/
{
PSCHEME_LIST psl = FindScheme(
lpszName,
0,
bNumerical
);
if (psl)
{
BOOL bRes = fDeletePwrScheme(psl->uiID);
FreeScheme(psl);
g_lpszErr = GetResString(IDS_UNEXPECTED_ERROR);
return bRes;
}
else
{
return FALSE;
}
}
BOOL DoSetActive(
LPCTSTR lpszName,
BOOL bNumerical
)
/*++
Routine Description:
Sets the active scheme
Arguments:
lpszName - the name of the scheme
bNumerical - if TRUE, lpszName interpreted as numerical identifier
Return Value:
TRUE if successful
FALSE if failed
--*/
{
PSCHEME_LIST psl = FindScheme(
lpszName,
0,
bNumerical
);
if (psl)
{
BOOL bRes = fSetActivePwrScheme(
psl->uiID,
NULL,
NULL
);
FreeScheme(psl);
g_lpszErr = GetResString(IDS_UNEXPECTED_ERROR);
return bRes;
}
else
{
return FALSE;
}
}
BOOL
DoChange(
LPCTSTR lpszName,
BOOL bNumerical,
PCHANGE_PARAM pcp
)
/*++
Routine Description:
Modifies an existing scheme
Arguments:
lpszName - the name of the scheme
bNumerical - if TRUE, lpszName interpreted as numerical identifier
pcp - PCHANGE_PARAM pointing to the parameter structure,
indicates which variable(s) to change
Return Value:
TRUE if successful
FALSE if failed
--*/
{
BOOL bRes = TRUE;
PSCHEME_LIST psl = FindScheme(
lpszName,
0,
bNumerical
);
if (psl)
{
// check for feature support
if ((pcp->bIdleTimeoutAc ||
pcp->bIdleTimeoutDc) &&
!g_bStandbySupported)
{
DISPLAY_MESSAGE(stderr, GetResString(IDS_STANDBY_WARNING));
}
if ((pcp->bDozeS4TimeoutAc ||
pcp->bDozeS4TimeoutDc) &&
g_bStandbySupported &&
!g_bHiberTimerSupported)
{
//
// The wake from realtime clock in order to hibernate
// the system may not work. Warn the user.
//
DISPLAY_MESSAGE(stderr, GetResString(IDS_HIBER_WARNING));
}
if ((pcp->bVideoTimeoutAc ||
pcp->bVideoTimeoutDc) &&
!g_bMonitorPowerSupported)
{
DISPLAY_MESSAGE(stderr, GetResString(IDS_MONITOR_WARNING));
}
if ((pcp->bSpindownTimeoutAc ||
pcp->bSpindownTimeoutDc) &&
!g_bDiskPowerSupported)
{
DISPLAY_MESSAGE(stderr, GetResString(IDS_DISK_WARNING));
}
// change params
if (pcp->bVideoTimeoutAc)
{
psl->ppp->user.VideoTimeoutAc = pcp->ulVideoTimeoutAc*60;
}
if (pcp->bVideoTimeoutDc)
{
psl->ppp->user.VideoTimeoutDc = pcp->ulVideoTimeoutDc*60;
}
if (pcp->bSpindownTimeoutAc)
{
psl->ppp->user.SpindownTimeoutAc = pcp->ulSpindownTimeoutAc*60;
}
if (pcp->bSpindownTimeoutDc)
{
psl->ppp->user.SpindownTimeoutDc = pcp->ulSpindownTimeoutDc*60;
}
if (pcp->bIdleTimeoutAc)
{
bRes = bRes & MapIdleValue(
pcp->ulIdleTimeoutAc*60,
&psl->ppp->user.IdleTimeoutAc,
&psl->ppp->mach.DozeS4TimeoutAc,
&psl->ppp->user.IdleAc.Action
);
}
if (pcp->bIdleTimeoutDc)
{
bRes = bRes & MapIdleValue(
pcp->ulIdleTimeoutDc*60,
&psl->ppp->user.IdleTimeoutDc,
&psl->ppp->mach.DozeS4TimeoutDc,
&psl->ppp->user.IdleDc.Action
);
}
if (pcp->bDozeS4TimeoutAc)
{
bRes = bRes & MapHiberValue(
pcp->ulDozeS4TimeoutAc*60,
&psl->ppp->user.IdleTimeoutAc,
&psl->ppp->mach.DozeS4TimeoutAc,
&psl->ppp->user.IdleAc.Action
);
}
if (pcp->bDozeS4TimeoutDc)
{
bRes = bRes & MapHiberValue(
pcp->ulDozeS4TimeoutDc*60,
&psl->ppp->user.IdleTimeoutDc,
&psl->ppp->mach.DozeS4TimeoutDc,
&psl->ppp->user.IdleDc.Action
);
}
if (pcp->bDynamicThrottleAc)
{
if(lstrcmpi(
pcp->lpszDynamicThrottleAc,
_T("NONE")
) == 0)
{
psl->pmppp->ProcessorPolicyAc.DynamicThrottle =
PO_THROTTLE_NONE;
}
else if(lstrcmpi(
pcp->lpszDynamicThrottleAc,
_T("CONSTANT")
) == 0)
{
psl->pmppp->ProcessorPolicyAc.DynamicThrottle =
PO_THROTTLE_CONSTANT;
}
else if(lstrcmpi(
pcp->lpszDynamicThrottleAc,
_T("DEGRADE")
) == 0)
{
psl->pmppp->ProcessorPolicyAc.DynamicThrottle =
PO_THROTTLE_DEGRADE;
}
else if(lstrcmpi(
pcp->lpszDynamicThrottleAc,
_T("ADAPTIVE")
) == 0)
{
psl->pmppp->ProcessorPolicyAc.DynamicThrottle =
PO_THROTTLE_ADAPTIVE;
}
else
{
g_lpszErr = GetResString(IDS_INVALID_CMDLINE_PARAM);
bRes = FALSE;
}
}
if (pcp->bDynamicThrottleDc)
{
if(lstrcmpi(
pcp->lpszDynamicThrottleDc,
_T("NONE")
) == 0)
{
psl->pmppp->ProcessorPolicyDc.DynamicThrottle =
PO_THROTTLE_NONE;
}
else if(lstrcmpi(
pcp->lpszDynamicThrottleDc,
_T("CONSTANT")
) == 0)
{
psl->pmppp->ProcessorPolicyDc.DynamicThrottle =
PO_THROTTLE_CONSTANT;
}
else if(lstrcmpi(
pcp->lpszDynamicThrottleDc,
_T("DEGRADE")
) == 0)
{
psl->pmppp->ProcessorPolicyDc.DynamicThrottle =
PO_THROTTLE_DEGRADE;
}
else if(lstrcmpi(
pcp->lpszDynamicThrottleDc,
_T("ADAPTIVE")
) == 0)
{
psl->pmppp->ProcessorPolicyDc.DynamicThrottle =
PO_THROTTLE_ADAPTIVE;
}
else
{
g_lpszErr = GetResString(IDS_INVALID_CMDLINE_PARAM);
bRes = FALSE;
}
}
if (bRes)
{
// attempt to update power scheme
g_lpszErr = GetResString(IDS_UNEXPECTED_ERROR);
bRes = MyWriteScheme(psl);
// keep active power scheme consistent
if (bRes)
{
UINT uiIDactive;
if (fGetActivePwrScheme(&uiIDactive) &&
(psl->uiID == uiIDactive))
{
bRes = fSetActivePwrScheme(psl->uiID,NULL,NULL);
}
}
FreeScheme(psl);
return bRes;
}
else
{
return FALSE;
}
}
else
{
return FALSE;
}
}
BOOL
DoExport(
LPCTSTR lpszName,
BOOL bNumerical,
LPCTSTR lpszFile
)
/*++
Routine Description:
Exports a power scheme
Arguments:
lpszName - the name of the scheme
bNumerical - if TRUE, lpszName interpreted as numerical identifier
lpszFile - the file to hold the scheme
Return Value:
TRUE if successful
FALSE if failed
--*/
{
DWORD res; // write result value
HANDLE f; // file handle
// find scheme
PSCHEME_LIST psl = FindScheme(
lpszName,
0,
bNumerical
);
if(!psl) {
return FALSE;
}
// write to file
f = CreateFile(
lpszFile,
GENERIC_WRITE,
0,
NULL,
CREATE_ALWAYS,
FILE_ATTRIBUTE_NORMAL,
NULL
);
if (f == INVALID_HANDLE_VALUE)
{
FormatMessage(
FORMAT_MESSAGE_ALLOCATE_BUFFER |
FORMAT_MESSAGE_FROM_SYSTEM |
FORMAT_MESSAGE_IGNORE_INSERTS,
NULL,
GetLastError(),
MAKELANGID(LANG_NEUTRAL, SUBLANG_DEFAULT),
(LPTSTR)&g_lpszErr2,
0,
NULL
);
FreeScheme(psl);
return FALSE;
}
if (!WriteFile(
f,
psl->ppp,
sizeof(POWER_POLICY),
&res,
NULL
))
{
FormatMessage(
FORMAT_MESSAGE_ALLOCATE_BUFFER |
FORMAT_MESSAGE_FROM_SYSTEM |
FORMAT_MESSAGE_IGNORE_INSERTS,
NULL,
GetLastError(),
MAKELANGID(LANG_NEUTRAL, SUBLANG_DEFAULT),
(LPTSTR)&g_lpszErr2,
0,
NULL
);
CloseHandle(f);
FreeScheme(psl);
return FALSE;
}
if (g_bProcessorPwrSchemeSupported)
{
if (!WriteFile(
f,
psl->pmppp,
sizeof(MACHINE_PROCESSOR_POWER_POLICY),
&res,
NULL
))
{
FormatMessage(
FORMAT_MESSAGE_ALLOCATE_BUFFER |
FORMAT_MESSAGE_FROM_SYSTEM |
FORMAT_MESSAGE_IGNORE_INSERTS,
NULL,
GetLastError(),
MAKELANGID(LANG_NEUTRAL, SUBLANG_DEFAULT),
(LPTSTR)&g_lpszErr2,
0,
NULL
);
CloseHandle(f);
FreeScheme(psl);
return FALSE;
}
}
CloseHandle(f);
FreeScheme(psl);
return TRUE;
}
BOOL
DoImport(
LPCTSTR lpszName,
BOOL bNumerical,
LPCTSTR lpszFile
)
/*++
Routine Description:
Imports a power scheme
If the scheme already exists, overwrites it
Arguments:
lpszName - the name of the scheme
bNumerical - if TRUE, lpszName interpreted as numerical identifier
lpszFile - the file that holds the scheme
Return Value:
TRUE if successful
FALSE if failed
--*/
{
DWORD res; // write result value
HANDLE f; // file handle
UINT uiIDactive; // active ID
PSCHEME_LIST psl;
// check for pre-existing scheme
psl = FindScheme(
lpszName,
0,
bNumerical
);
// if didn't exist, create it (if actual name given)
if (!psl)
{
if (!bNumerical)
{
psl = CreateScheme(
NEWSCHEME,
(lstrlen(lpszName)+1)*sizeof(TCHAR),
lpszName,
(lstrlen(lpszName)+1)*sizeof(TCHAR),
lpszName,
NULL // psl->ppp will be allocated but uninitialized
);
// check for successful alloc
if(!psl)
{
return FALSE;
}
}
else
{
g_lpszErr = GetResString(IDS_INVALID_NUMERICAL_IMPORT);
return FALSE;
}
}
// open file
f = CreateFile(
lpszFile,
GENERIC_READ,
FILE_SHARE_READ,
NULL,
OPEN_EXISTING,
FILE_ATTRIBUTE_NORMAL,
NULL
);
if (f == INVALID_HANDLE_VALUE)
{
FormatMessage(
FORMAT_MESSAGE_ALLOCATE_BUFFER |
FORMAT_MESSAGE_FROM_SYSTEM |
FORMAT_MESSAGE_IGNORE_INSERTS,
NULL,
GetLastError(),
MAKELANGID(LANG_NEUTRAL, SUBLANG_DEFAULT),
(LPTSTR)&g_lpszErr2,
0,
NULL
);
FreeScheme(psl);
return FALSE;
}
// read scheme
if (!ReadFile(
f,
psl->ppp,
sizeof(POWER_POLICY),
&res,
NULL
))
{
FormatMessage(
FORMAT_MESSAGE_ALLOCATE_BUFFER |
FORMAT_MESSAGE_FROM_SYSTEM |
FORMAT_MESSAGE_IGNORE_INSERTS,
NULL,
GetLastError(),
MAKELANGID(LANG_NEUTRAL, SUBLANG_DEFAULT),
(LPTSTR)&g_lpszErr2,
0,
NULL
);
CloseHandle(f);
FreeScheme(psl);
return FALSE;
}
if (g_bProcessorPwrSchemeSupported)
{
if (!ReadFile(
f,
psl->pmppp,
sizeof(MACHINE_PROCESSOR_POWER_POLICY),
&res,
NULL
))
{
// copy processor profile from the active scheme,
// thus supporting Win2k->WinXP imports
if(fGetActivePwrScheme(&uiIDactive))
{
PSCHEME_LIST pslActive = FindScheme(
NULL,
uiIDactive,
FALSE
);
if(!pslActive)
{
g_lpszErr = GetResString(IDS_UNEXPECTED_ERROR);
CloseHandle(f);
FreeScheme(psl);
return FALSE;
}
memcpy(
psl->pmppp,
pslActive->pmppp,
sizeof(MACHINE_PROCESSOR_POWER_POLICY)
);
FreeScheme(pslActive);
}
else
{
g_lpszErr = GetResString(IDS_UNEXPECTED_ERROR);
CloseHandle(f);
FreeScheme(psl);
return FALSE;
}
}
}
CloseHandle(f);
g_lpszErr = GetResString(IDS_UNEXPECTED_ERROR);
// save scheme
if (!MyWriteScheme(psl))
{
FreeScheme(psl);
return FALSE;
}
// check against active scheme
if (!fGetActivePwrScheme(&uiIDactive))
{
return FALSE;
}
if (uiIDactive == psl->uiID)
{
if (!fSetActivePwrScheme(psl->uiID,NULL,NULL))
{
return FALSE;
}
}
FreeScheme(psl);
return TRUE;
}
PowerLoggingMessage*
GetLoggingMessage(
PSYSTEM_POWER_STATE_DISABLE_REASON LoggingInfo,
DWORD BaseMessage,
HINSTANCE hInst
)
/*++
Routine Description:
Wrapper to instantiate the appropriate PowerLoggingMessage based on
the passed in LoggingInfo data.
Arguments:
LoggingInfo - reason code structure.
BaseMessage - base resource ID for this power failure. used to lookup
the correct resource.
hInst - module handle for looking up resource.
Return Value:
returns a newly instantiated PowerLoggingMessage object or NULL if this
fails.
--*/
{
PowerLoggingMessage *LoggingMessage = NULL;
//
// these classes can throw if they hit an allocation error.
// catch it.
//
try {
switch (LoggingInfo->PowerReasonCode) {
case SPSD_REASON_LEGACYDRIVER:
LoggingMessage = new SubstituteMultiSzPowerLoggingMessage(
LoggingInfo,
BaseMessage,
hInst);
break;
case SPSD_REASON_HIBERFILE:
case SPSD_REASON_POINTERNAL:
LoggingMessage = new SubstituteNtStatusPowerLoggingMessage(
LoggingInfo,
BaseMessage,
hInst);
break;
#ifdef IA64
//
// on IA64 we want a slightly different message for this
// reason -- IA64 OS doesn't support these standby states
// today, but on IA32 this means you are not in ACPI mode.
//
// So we have this IA64 message arbitrarily offset by 50.
case SPSD_REASON_NOOSPM:
LoggingMessage = new SubstituteNtStatusPowerLoggingMessage(
LoggingInfo,
BaseMessage+50,
hInst);
break;
#endif
case SPSD_REASON_DRIVERDOWNGRADE:
default:
LoggingMessage = new NoSubstitutionPowerLoggingMessage(
LoggingInfo,
BaseMessage,
hInst);
break;
}
ASSERT(LoggingMessage!= NULL);
} catch (...) {
}
return(LoggingMessage);
}
BOOL
GetAndAppendDescriptiveLoggingText(
NTSTATUS HiberStatus,
LPTSTR *CurrentErrorText,
PSYSTEM_POWER_STATE_DISABLE_REASON LoggingInfo)
/*++
Routine Description:
given a failed hibernation, this routine retrieves some descriptive text
for why hibernate isn't available.
Arguments:
HiberStatus - status code from enabling hibernate.
CurrentErrorText - pointer to the current error code text.
LoggingInfo - pointer to logging code with one reason one for failed
Return Value:
TRUE if successful
FALSE if failed
--*/
{
PWSTR ReasonString = NULL;
PCWSTR pRootString;
PCWSTR pRootHiberFailedString = NULL;
DWORD Length = 0;
PowerLoggingMessage *LoggingMessage = NULL;
PWSTR FinalString;
BOOL RetVal = FALSE;
//
// if we don't have any error text yet, then we need to look up
// a header error message as the base of the message. otherwise
// we just append.
//
if (!*CurrentErrorText) {
pRootString = GetResString(IDS_HIBER_FAILED_DESCRIPTION_HEADER);
if (!pRootString) {
return(FALSE);
}
FormatMessage(
FORMAT_MESSAGE_ALLOCATE_BUFFER |
FORMAT_MESSAGE_FROM_SYSTEM |
FORMAT_MESSAGE_IGNORE_INSERTS,
NULL,
RtlNtStatusToDosError(HiberStatus),
MAKELANGID(LANG_NEUTRAL, SUBLANG_DEFAULT),
(LPTSTR)&pRootHiberFailedString,
0,
NULL
);
Length += wcslen(pRootString);
if (pRootHiberFailedString) {
Length += wcslen(pRootHiberFailedString);
}
} else {
Length += wcslen(*CurrentErrorText);
}
//
// get the logging reason text.
//
LoggingMessage = GetLoggingMessage(LoggingInfo,
IDS_BASE_HIBER_REASON_CODE,
GetModuleHandle(NULL));
ASSERT(LoggingMessage!= NULL);
if (!LoggingMessage->GetString(&ReasonString)) {
RetVal = FALSE;
goto exit;
}
Length += wcslen(ReasonString);
//
// now that we have the length for everything, allocate space,
// and fill it in with our text, either the prior text, or the
// header.
//
FinalString = (LPTSTR)LocalAlloc(LPTR,(Length+1)*sizeof(WCHAR));
if (!FinalString) {
RetVal = FALSE;
goto exit;
}
if (!*CurrentErrorText) {
wsprintf(FinalString,pRootString,pRootHiberFailedString);
} else {
wcscpy(FinalString,*CurrentErrorText);
}
wcscat(FinalString,ReasonString);
//
// if we appended onto existing text, we can free the old text
// and replace it with our new string.
//
if (*CurrentErrorText) {
LocalFree(*CurrentErrorText);
}
*CurrentErrorText = FinalString;
RetVal = TRUE;
exit:
if (pRootHiberFailedString) {
LocalFree((PWSTR)pRootHiberFailedString);
}
if (ReasonString) {
LocalFree(ReasonString);
}
if (LoggingMessage) {
delete LoggingMessage;
}
return (RetVal);
}
BOOL
DoHibernate(
LPCTSTR lpszBoolStr
)
/*++
Routine Description:
Enables/Disables hibernation
NOTE: this functionality pretty much taken verbatim from the test program
"base\ntos\po\tests\ehib\ehib.c"
Arguments:
lpszBoolStr - "on" or "off"
Return Value:
TRUE if successful
FALSE if failed
--*/
{
GLOBAL_POWER_POLICY PowerPolicy;
DWORD uiIDactive;
BOOL bChangePolicy = FALSE;
BOOLEAN bEnable; // doesn't work with a BOOL, apparently
NTSTATUS Status;
// parse enable/disable state
if (!lstrcmpi(lpszBoolStr,GetResString(IDS_ON)))
{
bEnable = TRUE;
}
else if (!lstrcmpi(lpszBoolStr,GetResString(IDS_OFF)))
{
bEnable = FALSE;
if (fGetGlobalPwrPolicy(&PowerPolicy)) {
if (PowerPolicy.user.DischargePolicy[DISCHARGE_POLICY_LOW].
PowerPolicy.Action == PowerActionHibernate) {
PowerPolicy.user.DischargePolicy[DISCHARGE_POLICY_LOW].
PowerPolicy.Action = PowerActionNone;
bChangePolicy = TRUE;
}
if (PowerPolicy.user.DischargePolicy[DISCHARGE_POLICY_CRITICAL].
PowerPolicy.Action == PowerActionHibernate) {
PowerPolicy.user.DischargePolicy[DISCHARGE_POLICY_CRITICAL].
PowerPolicy.Action = PowerActionNone;
bChangePolicy = TRUE;
}
if (bChangePolicy) {
if (fWriteGlobalPwrPolicy(&PowerPolicy) &&
fGetActivePwrScheme((PUINT)&uiIDactive) &&
fSetActivePwrScheme(uiIDactive,&PowerPolicy,NULL)){
DISPLAY_MESSAGE(stderr, GetResString(IDS_HIBERNATE_ALARM_DISABLED));
}
else
{
DISPLAY_MESSAGE(stderr, GetResString(IDS_HIBERNATE_ALARM_DISABLE_FAILED));
}
}
}
}
else
{
g_lpszErr = GetResString(IDS_HIBER_INVALID_STATE);
return FALSE;
}
// enable/disable hibernation
if (!g_bHiberFileSupported)
{
g_lpszErr = GetResString(IDS_HIBER_UNSUPPORTED);
Status = STATUS_NOT_SUPPORTED;
}
else {
//
// do the actual hibernate enable/disable operation.
//
Status = fCallNtPowerInformation(
SystemReserveHiberFile,
&bEnable,
sizeof(bEnable),
NULL,
0
);
}
//
// print out an error message. if we can, we use the verbose error
// message, otherwise we just fall back on the error code coming back
// from NtPowerInformation.
//
if (!NT_SUCCESS(Status)) {
//
// remember the specific error message
//
PVOID LoggingInfoBuffer = NULL;
PSYSTEM_POWER_STATE_DISABLE_REASON LoggingInfo;
ULONG size,LoggingInfoSize;
NTSTATUS HiberStatus = Status;
FormatMessage(
FORMAT_MESSAGE_ALLOCATE_BUFFER |
FORMAT_MESSAGE_FROM_SYSTEM |
FORMAT_MESSAGE_IGNORE_INSERTS,
NULL,
RtlNtStatusToDosError(Status),
MAKELANGID(LANG_NEUTRAL, SUBLANG_DEFAULT),
(LPTSTR)&g_lpszErr2,
0,
NULL
);
//
// try to get the verbose reason why hibernate fails.
//
Status = STATUS_INSUFFICIENT_RESOURCES;
size = 1024;
LoggingInfoBuffer = LocalAlloc(LPTR,size);
if (!LoggingInfoBuffer) {
return(FALSE);
}
while (Status != STATUS_SUCCESS) {
Status = fCallNtPowerInformation(
SystemPowerStateLogging,
NULL,
0,
LoggingInfoBuffer,
size);
if (!NT_SUCCESS(Status)) {
if (Status != STATUS_INSUFFICIENT_RESOURCES) {
LocalFree(LoggingInfoBuffer);
return(FALSE);
} else {
size += 1024;
LocalFree(LoggingInfoBuffer);
LoggingInfoBuffer = LocalAlloc(LPTR,size);
if (!LoggingInfoBuffer) {
return(FALSE);
}
}
}
}
ASSERT(Status == STATUS_SUCCESS);
LoggingInfoSize = (ULONG)*(PULONG)LoggingInfoBuffer;
LoggingInfo = (PSYSTEM_POWER_STATE_DISABLE_REASON)(PCHAR)((PCHAR)LoggingInfoBuffer+sizeof(ULONG));
//
// we have a more verbose error available so let's use that. don't need
// the less verbose error.
//
if (g_lpszErr2) {
LocalFree(g_lpszErr2);
g_lpszErr2 = NULL;
}
//
// walk through the list of reasons and print out the ones related to
// hibernate.
//
while((PCHAR)LoggingInfo <= (PCHAR)((PCHAR)LoggingInfoBuffer + LoggingInfoSize)) {
if (LoggingInfo->AffectedState[PowerStateSleeping4] == TRUE) {
//
// need to remember the reason
//
GetAndAppendDescriptiveLoggingText(
HiberStatus,
&g_lpszErr2,
LoggingInfo);
}
LoggingInfo = (PSYSTEM_POWER_STATE_DISABLE_REASON)(PCHAR)((PCHAR)LoggingInfo+sizeof(SYSTEM_POWER_STATE_DISABLE_REASON)+LoggingInfo->PowerReasonLength);
}
return FALSE;
}
return TRUE;
}
BOOL
DoGetSupportedSStates(
VOID
)
/*++
Routine Description:
Lists the available S-States on a machine.
Arguments:
None.
Return Value:
TRUE if successful
FALSE if failed
--*/
{
NTSTATUS Status;
SYSTEM_POWER_CAPABILITIES Capabilities;
BOOL StandbyAvailable = FALSE;
BOOL HibernateAvailable = FALSE;
PVOID LoggingInfoBuffer = NULL;
PSYSTEM_POWER_STATE_DISABLE_REASON LoggingInfo;
ULONG size,LoggingInfoSize;
PowerLoggingMessage *LoggingMessage;
PWSTR ReasonString;
DWORD i;
BOOL ExitLoop;
BOOL LoggingApiAvailable;
//
// call the power state logging API if it's available. on older systems
// this API isn't avaialable and that should not be a problem.
//
Status = STATUS_INSUFFICIENT_RESOURCES;
size = 1024;
LoggingInfoBuffer = LocalAlloc(LPTR,size);
if (!LoggingInfoBuffer) {
LoggingApiAvailable = FALSE;
goto GetStaticStates;
}
while (Status != STATUS_SUCCESS) {
Status = fCallNtPowerInformation(
SystemPowerStateLogging,
NULL,
0,
LoggingInfoBuffer,
size);
if (!NT_SUCCESS(Status)) {
if (Status != STATUS_INSUFFICIENT_RESOURCES) {
LocalFree(LoggingInfoBuffer);
LoggingInfoBuffer = NULL;
LoggingApiAvailable = FALSE;
goto GetStaticStates;
} else {
size += 1024;
LocalFree(LoggingInfoBuffer);
LoggingInfoBuffer = LocalAlloc(LPTR,size);
if (!LoggingInfoBuffer) {
LoggingApiAvailable = FALSE;
goto GetStaticStates;
}
}
}
}
//
// we have the verbose logging structure. remember that for later on.
//
LoggingApiAvailable = TRUE;
LoggingInfoSize = (ULONG)*(PULONG)LoggingInfoBuffer;
GetStaticStates:
//
// get the current power capabilities of the system.
//
Status = fCallNtPowerInformation(
SystemPowerCapabilities,
NULL,
0,
&Capabilities,
sizeof(SYSTEM_POWER_CAPABILITIES)
);
if (!NT_SUCCESS(Status)) {
//
// print out failure message
//
g_lpszErr = GetResString(IDS_CANTGETSLEEPSTATES);
return(FALSE);
}
//
// if the logging API is available, it may tell us that
// one of the S states isn't really available. Process
// that "override" data here so that we're sure to print
// out the correct list of supported states on this system.
//
if (LoggingApiAvailable) {
LoggingInfo = (PSYSTEM_POWER_STATE_DISABLE_REASON)(PCHAR)((PCHAR)LoggingInfoBuffer+sizeof(ULONG));
while((PCHAR)LoggingInfo <= (PCHAR)((PCHAR)LoggingInfoBuffer + LoggingInfoSize)) {
if (LoggingInfo->PowerReasonCode != SPSD_REASON_NONE) {
if (LoggingInfo->AffectedState[PowerStateSleeping1] == TRUE) {
Capabilities.SystemS1 = FALSE;
}
if (LoggingInfo->AffectedState[PowerStateSleeping2] == TRUE) {
Capabilities.SystemS2 = FALSE;
}
if (LoggingInfo->AffectedState[PowerStateSleeping3] == TRUE) {
Capabilities.SystemS3 = FALSE;
}
if (LoggingInfo->AffectedState[PowerStateSleeping4] == TRUE) {
Capabilities.SystemS4 = FALSE;
}
}
LoggingInfo = (PSYSTEM_POWER_STATE_DISABLE_REASON)(PCHAR)((PCHAR)LoggingInfo+sizeof(SYSTEM_POWER_STATE_DISABLE_REASON)+LoggingInfo->PowerReasonLength);
}
}
//
// print out the list of supported s states.
//
if (Capabilities.SystemS1 ||
Capabilities.SystemS2 ||
Capabilities.SystemS3) {
StandbyAvailable = TRUE;
}
if (Capabilities.SystemS4) {
HibernateAvailable = TRUE;
}
if (StandbyAvailable || HibernateAvailable) {
//
// "the following sleep states are available on this machine: "
//
DISPLAY_MESSAGE(stdout,GetResString(IDS_SLEEPSTATES_AVAILABLE));
DISPLAY_MESSAGE(stdout,L" ");
if (StandbyAvailable) {
//" Standby ("
// IDS_STANDBY " " IDS_LEFTPAREN
DISPLAY_MESSAGE(stdout,GetResString(IDS_STANDBY));
DISPLAY_MESSAGE(stdout,L" ");
DISPLAY_MESSAGE(stdout,GetResString(IDS_LEFTPAREN));
DISPLAY_MESSAGE(stdout,L" ");
if (Capabilities.SystemS1) {
//"S1 "
//IDS_S1
DISPLAY_MESSAGE(stdout,GetResString(IDS_S1));
DISPLAY_MESSAGE(stdout,L" ");
}
if (Capabilities.SystemS2) {
//"S2 "
//IDS_S2
DISPLAY_MESSAGE(stdout,GetResString(IDS_S2));
DISPLAY_MESSAGE(stdout,L" ");
}
if (Capabilities.SystemS3) {
//"S3"
//IDS_S3
DISPLAY_MESSAGE(stdout,GetResString(IDS_S3));
DISPLAY_MESSAGE(stdout,L" ");
}
//")"
//IDS_RIGHTPAREN
DISPLAY_MESSAGE(stdout,GetResString(IDS_RIGHTPAREN));
DISPLAY_MESSAGE(stdout,L" ");
}
if (HibernateAvailable) {
//" Hibernate"
//IDS_HIBERNATE
DISPLAY_MESSAGE(stdout,GetResString(IDS_HIBERNATE));
DISPLAY_MESSAGE(stdout,L" ");
}
DISPLAY_MESSAGE(stdout,L"\n");
}
//
// if one or more capabilities are missing then find out why and
// print it out.
//
if (!Capabilities.SystemS1 ||
!Capabilities.SystemS2 ||
!Capabilities.SystemS3 ||
!Capabilities.SystemS4) {
//
// "the following sleep states are not available on this machine:"
//
//IDS_SLEEPSTATES_UNAVAILABLE
DISPLAY_MESSAGE(stdout,GetResString(IDS_SLEEPSTATES_UNAVAILABLE));
DISPLAY_MESSAGE(stdout,L"\n");
i = 0;
ExitLoop = FALSE;
while (1) {
BOOL NotSupported;
DWORD BaseMessage;
DWORD HeaderMessage;
POWER_STATE_HANDLER_TYPE SystemPowerState;
//
// remember some resource ids for the S state we're
// currently considering
//
switch (i) {
case 0:
BaseMessage = IDS_BASE_SX_REASON_CODE;
HeaderMessage = IDS_BASE_S1_HEADER;
SystemPowerState = PowerStateSleeping1;
NotSupported = !Capabilities.SystemS1;
break;
case 1:
BaseMessage = IDS_BASE_SX_REASON_CODE;
HeaderMessage = IDS_BASE_S2_HEADER;
SystemPowerState = PowerStateSleeping2;
NotSupported = !Capabilities.SystemS2;
break;
case 2:
BaseMessage = IDS_BASE_SX_REASON_CODE;
HeaderMessage = IDS_BASE_S3_HEADER;
SystemPowerState = PowerStateSleeping3;
NotSupported = !Capabilities.SystemS3;
break;
case 3:
BaseMessage = IDS_BASE_HIBER_REASON_CODE;
HeaderMessage = IDS_HIBERNATE;
SystemPowerState = PowerStateSleeping4;
NotSupported = !Capabilities.SystemS4;
break;
default:
ExitLoop = TRUE;
}
if (ExitLoop) {
break;
}
if (NotSupported) {
//"Standby (S1)" BaseMessage...
DISPLAY_MESSAGE(stdout,GetResString(HeaderMessage));
DISPLAY_MESSAGE(stdout,L"\n");
if (LoggingApiAvailable) {
LoggingInfo = (PSYSTEM_POWER_STATE_DISABLE_REASON)(PCHAR)((PCHAR)LoggingInfoBuffer+sizeof(ULONG));
while((PCHAR)LoggingInfo <= (PCHAR)((PCHAR)LoggingInfoBuffer + LoggingInfoSize)) {
if (LoggingInfo->AffectedState[SystemPowerState]) {
//
// get reason, print it out.
//
LoggingMessage = GetLoggingMessage(
LoggingInfo,
BaseMessage,
GetModuleHandle(NULL));
if (!LoggingMessage ||
!LoggingMessage->GetString(&ReasonString)) {
// oops
// IDS_CANTGETSSTATEREASONS
g_lpszErr = GetResString(IDS_CANTGETSSTATEREASONS);
LocalFree(LoggingInfoBuffer);
return(FALSE);
}
DISPLAY_MESSAGE(stdout,ReasonString);
LocalFree(ReasonString);
delete LoggingMessage;
}
LoggingInfo = (PSYSTEM_POWER_STATE_DISABLE_REASON)(PCHAR)((PCHAR)LoggingInfo+sizeof(SYSTEM_POWER_STATE_DISABLE_REASON)+LoggingInfo->PowerReasonLength);
}
}
}
i += 1;
}
if (LoggingInfoBuffer) {
LocalFree(LoggingInfoBuffer);
}
}
return(TRUE);
}
BOOL
DoGlobalFlag(
LPCTSTR lpszBoolStr,
LPCTSTR lpszGlobalFlagOption
)
/*++
Routine Description:
Enables/Disables a global flag
Arguments:
lpszBoolStr - "on" or "off"
lpszGlobalFlagOption - one of several flags.
Return Value:
TRUE if successful
FALSE if failed
--*/
{
BOOLEAN bEnable; // doesn't work with a BOOL, apparently
BOOL RetVal;
GLOBAL_POWER_POLICY PowerPolicy;
DWORD GlobalFlag = 0;
DWORD uiIDactive;
// parse enable/disable state
if (!lstrcmpi(lpszBoolStr,GetResString(IDS_ON)))
{
bEnable = TRUE;
}
else if (!lstrcmpi(lpszBoolStr,GetResString(IDS_OFF)))
{
bEnable = FALSE;
}
else
{
g_lpszErr = GetResString(IDS_GLOBAL_FLAG_INVALID_STATE);
RetVal = FALSE;
goto exit;
}
// parse which global flag we are changing
if (!lstrcmpi(lpszGlobalFlagOption,CMDOPTION_BATTERYICON)) {
GlobalFlag |= EnableSysTrayBatteryMeter;
} else if (!lstrcmpi(lpszGlobalFlagOption,CMDOPTION_MULTIBATTERY)) {
GlobalFlag |= EnableMultiBatteryDisplay;
} else if (!lstrcmpi(lpszGlobalFlagOption,CMDOPTION_RESUMEPASSWORD)) {
GlobalFlag |= EnablePasswordLogon;
} else if (!lstrcmpi(lpszGlobalFlagOption,CMDOPTION_WAKEONRING)) {
GlobalFlag |= EnableWakeOnRing;
} else if (!lstrcmpi(lpszGlobalFlagOption,CMDOPTION_VIDEODIM)) {
GlobalFlag |= EnableVideoDimDisplay;
} else {
g_lpszErr = GetResString(IDS_GLOBAL_FLAG_INVALID_FLAG);
RetVal = FALSE;
goto exit;
}
//
// now get the current state, set or clear the flags, and then save the
// changed settings back.
//
RetVal = FALSE;
if (fGetGlobalPwrPolicy(&PowerPolicy)) {
if (bEnable) {
PowerPolicy.user.GlobalFlags |= GlobalFlag;
} else {
PowerPolicy.user.GlobalFlags &= ~(GlobalFlag);
}
if (fWriteGlobalPwrPolicy(&PowerPolicy) &&
fGetActivePwrScheme((PUINT)&uiIDactive) &&
fSetActivePwrScheme(uiIDactive,&PowerPolicy,NULL)){
RetVal = TRUE;
}
}
//
// save off the error if we had issues
//
if (!RetVal) {
FormatMessage(
FORMAT_MESSAGE_ALLOCATE_BUFFER |
FORMAT_MESSAGE_FROM_SYSTEM |
FORMAT_MESSAGE_IGNORE_INSERTS,
NULL,
GetLastError(),
MAKELANGID(LANG_NEUTRAL, SUBLANG_DEFAULT),
(LPTSTR)&g_lpszErr2,
0,
NULL
);
return FALSE;
}
exit:
return(RetVal);
}
LPTSTR
FileNameOnly(
LPTSTR sz
)
/*++
Routine Description:
Returns a pointer to the first character after the last backslash in a string
Arguments:
sz - full file name.
Return Value:
pointer ot file name without path.
--*/
{
LPTSTR lpszFileName = NULL;
if ( sz )
{
lpszFileName = wcsrchr( sz, L'\\' );
if ( lpszFileName ) {
lpszFileName++;
}
else {
lpszFileName = sz;
}
}
return lpszFileName;
}
BOOL
DoBatteryAlarm(
LPTSTR lpszName,
LPTSTR lpszBoolStr,
DWORD dwLevel,
LPTSTR lpszAlarmTextBoolStr,
LPTSTR lpszAlarmSoundBoolStr,
LPTSTR lpszAlarmActionStr,
LPTSTR lpszAlarmForceBoolStr,
LPTSTR lpszAlarmProgramBoolStr
)
/*++
Routine Description:
Configures battery alarms
Arguments:
lpszName - "Low" or "Critical" on checked builds: ("0", "1", "2", "3")
lpszBoolStr - "on", or "off"
dwLevel - alarm level (0-100)
lpszAlarmTextBoolStr - NULL, "on", or "off".
lpszAlarmSoundBoolStr - NULL, "on", or "off".
lpszAlarmActionStr - NULL, "none", "standby", "hibernate", "shutdown"
lpszAlarmForceBoolStr - NULL, "on", or "off".
lpszAlarmProgramBoolStr - NULL, "on", or "off".
Return Value:
TRUE if successful
FALSE if failed
--*/
{
BOOL bShowSetting = TRUE;
BOOL RetVal;
GLOBAL_POWER_POLICY PowerPolicy;
DWORD GlobalFlag = 0;
DWORD uiIDactive;
DWORD uiDefaultAlert1;
DWORD uiAlarmIndex;
PSYSTEM_POWER_LEVEL lpDischargePolicy;
ITaskScheduler *pISchedAgent = NULL;
ITask *pITask;
IPersistFile *pIPersistFile;
LPTSTR lpszRunProg = NULL;
SYSTEM_BATTERY_STATE sbsBatteryState;
HRESULT hr;
LPTSTR lpszProgramName;
//
// now get the current state, set or clear the flags, and then save the
// changed settings back.
//
RetVal = FALSE;
if (fGetGlobalPwrPolicy(&PowerPolicy)) {
// parse name
if (!lstrcmpi(lpszName,GetResString(IDS_CRITICAL))) {
lstrcpy((LPWSTR) lpszName, GetResString(IDS_CRITICAL));
uiAlarmIndex = DISCHARGE_POLICY_CRITICAL;
}
else if (!lstrcmpi(lpszName,GetResString(IDS_LOW)))
{
lstrcpy((LPWSTR) lpszName,GetResString(IDS_LOW));
uiAlarmIndex = DISCHARGE_POLICY_LOW;
}
else
{
g_lpszErr = GetResString(IDS_ALARM_INVALID_ALARM);
RetVal = FALSE;
goto exit;
}
lpDischargePolicy = &PowerPolicy.user.DischargePolicy[uiAlarmIndex];
// parse activate state
if (lpszBoolStr) {
bShowSetting = FALSE;
if (!lstrcmpi(lpszBoolStr,GetResString(IDS_ON)))
{
lpDischargePolicy->Enable = TRUE;
}
else if (!lstrcmpi(lpszBoolStr,GetResString(IDS_OFF)))
{
lpDischargePolicy->Enable = FALSE;
}
else
{
g_lpszErr = GetResString(IDS_ALARM_INVALID_ACTIVATE);
RetVal = FALSE;
goto exit;
}
}
// Set Level
if (dwLevel != 0xffffffff) {
bShowSetting = FALSE;
if (dwLevel <= 100) {
// Read DefaultAlert1 from composite battery
NtPowerInformation (SystemBatteryState, NULL, 0, &sbsBatteryState, sizeof(sbsBatteryState));
if (sbsBatteryState.MaxCapacity == 0) {
uiDefaultAlert1 = 0;
} else {
uiDefaultAlert1 = (100 * sbsBatteryState.DefaultAlert1)/sbsBatteryState.MaxCapacity;
}
if (dwLevel < uiDefaultAlert1) {
dwLevel = uiDefaultAlert1;
DISPLAY_MESSAGE1(stderr, g_lpszBuf, GetResString(IDS_ALARM_LEVEL_MINIMUM), dwLevel);
}
lpDischargePolicy->BatteryLevel = dwLevel;
if (PowerPolicy.user.DischargePolicy[DISCHARGE_POLICY_LOW].BatteryLevel <
PowerPolicy.user.DischargePolicy[DISCHARGE_POLICY_CRITICAL].BatteryLevel) {
PowerPolicy.user.DischargePolicy[DISCHARGE_POLICY_LOW].BatteryLevel = dwLevel;
PowerPolicy.user.DischargePolicy[DISCHARGE_POLICY_CRITICAL].BatteryLevel = dwLevel;
DISPLAY_MESSAGE1(stderr, g_lpszBuf, GetResString(IDS_ALARM_LEVEL_EQUAL), dwLevel);
}
} else {
g_lpszErr = GetResString(IDS_ALARM_INVALID_LEVEL);
RetVal = FALSE;
goto exit;
}
}
// parse and set "text" on/off
if (lpszAlarmTextBoolStr) { // NULL indicates this option wasn't specified
bShowSetting = FALSE;
if (!lstrcmpi(lpszAlarmTextBoolStr,GetResString(IDS_ON)))
{
lpDischargePolicy->PowerPolicy.EventCode |= POWER_LEVEL_USER_NOTIFY_TEXT;
}
else if (!lstrcmpi(lpszAlarmTextBoolStr,GetResString(IDS_OFF)))
{
lpDischargePolicy->PowerPolicy.EventCode &= ~POWER_LEVEL_USER_NOTIFY_TEXT;
}
else
{
g_lpszErr = GetResString(IDS_ALARM_INVALID_TEXT);
RetVal = FALSE;
goto exit;
}
}
// parse and set "sound" on/off
if (lpszAlarmSoundBoolStr) { // NULL indicates this option wasn't specified
bShowSetting = FALSE;
if (!lstrcmpi(lpszAlarmSoundBoolStr,GetResString(IDS_ON)))
{
lpDischargePolicy->PowerPolicy.EventCode |= POWER_LEVEL_USER_NOTIFY_SOUND;
}
else if (!lstrcmpi(lpszAlarmSoundBoolStr,GetResString(IDS_OFF)))
{
lpDischargePolicy->PowerPolicy.EventCode &= ~POWER_LEVEL_USER_NOTIFY_SOUND;
}
else
{
g_lpszErr = GetResString(IDS_ALARM_INVALID_SOUND);
RetVal = FALSE;
goto exit;
}
}
// parse and set "action" none/shutdown/hibernate/standby
if (lpszAlarmActionStr) { // NULL indicates this option wasn't specified
bShowSetting = FALSE;
if (!lstrcmpi(lpszAlarmActionStr,GetResString(IDS_NONE)))
{
lpDischargePolicy->PowerPolicy.Action = PowerActionNone;
}
else if (!lstrcmpi(lpszAlarmActionStr,GetResString(IDS_STANDBY)))
{
if (g_bStandbySupported) {
lpDischargePolicy->PowerPolicy.Action = PowerActionSleep;
}
else
{
g_lpszErr = GetResString(IDS_ALARM_STANDBY_UNSUPPORTED);
RetVal = FALSE;
goto exit;
}
}
else if (!lstrcmpi(lpszAlarmActionStr,GetResString(IDS_HIBERNATE)))
{
if (g_bHiberFilePresent) {
lpDischargePolicy->PowerPolicy.Action = PowerActionHibernate;
}
else
{
g_lpszErr = GetResString(IDS_ALARM_HIBERNATE_DISABLED);
RetVal = FALSE;
goto exit;
}
}
else if (!lstrcmpi(lpszAlarmActionStr,GetResString(IDS_SHUTDOWN)))
{
lpDischargePolicy->PowerPolicy.Action = PowerActionShutdownOff;
}
else
{
g_lpszErr = GetResString(IDS_ALARM_INVALID_ACTION);
RetVal = FALSE;
goto exit;
}
}
// parse and set "forceaction" on/off
if (lpszAlarmForceBoolStr) { // NULL indicates this option wasn't specified
bShowSetting = FALSE;
if (!lstrcmpi(lpszAlarmForceBoolStr,GetResString(IDS_ON)))
{
lpDischargePolicy->PowerPolicy.Flags |= POWER_ACTION_OVERRIDE_APPS;
}
else if (!lstrcmpi(lpszAlarmForceBoolStr,GetResString(IDS_OFF)))
{
if (uiAlarmIndex == DISCHARGE_POLICY_CRITICAL) {
DISPLAY_MESSAGE(stderr, GetResString(IDS_ALARM_FORCE_CRITICAL));
}
lpDischargePolicy->PowerPolicy.Flags &= ~POWER_ACTION_OVERRIDE_APPS;
}
else
{
g_lpszErr = GetResString(IDS_ALARM_INVALID_FORCE);
RetVal = FALSE;
goto exit;
}
}
// parse and set "program" on/off
if (lpszAlarmProgramBoolStr) { // NULL indicates this option wasn't specified
bShowSetting = FALSE;
if (!lstrcmpi(lpszAlarmProgramBoolStr,GetResString(IDS_ON)))
{
hr = CoInitialize(NULL);
if (SUCCEEDED(hr)) {
hr = CoCreateInstance( CLSID_CTaskScheduler, NULL, CLSCTX_INPROC_SERVER,
IID_ITaskScheduler,(LPVOID*) &pISchedAgent );
if (SUCCEEDED(hr)) {
hr = pISchedAgent->Activate(g_szAlarmTaskName[uiAlarmIndex],
IID_ITask,
(IUnknown **) &pITask);
if (SUCCEEDED(hr)) {
//
// It already exists. No work needed.
//
pITask->Release();
}
else if (HRESULT_CODE (hr) == ERROR_FILE_NOT_FOUND){
hr = pISchedAgent->NewWorkItem(
g_szAlarmTaskName[uiAlarmIndex],
CLSID_CTask,
IID_ITask,
(IUnknown **) &pITask);
if (SUCCEEDED(hr)) {
hr = pITask->QueryInterface(IID_IPersistFile,
(void **)&pIPersistFile);
if (SUCCEEDED(hr)) {
hr = pIPersistFile->Save(NULL, TRUE);
if (SUCCEEDED(hr)) {
// No work to do. The task has been created and saved and can be edited using schtasks.exe
//pITask->lpVtbl->EditWorkItem(pITask, hWnd, 0);
}
else {
#if DBG
DISPLAY_MESSAGE1(stdout, g_lpszBuf, _T("DoBatteryAlarm: Save failed hr = %08x\n"), hr);
#endif
}
pIPersistFile->Release();
}
else {
#if DBG
DISPLAY_MESSAGE1(stdout, g_lpszBuf, _T("DoBatteryAlarm: QueryInterface for IPersistFile hr = %08x\n"), hr);
#endif
}
pITask->Release();
}
else {
#if DBG
DISPLAY_MESSAGE1(stdout, g_lpszBuf, _T("DoBatteryAlarm: NewWorkItem returned hr = %08x\n"), hr);
#endif
}
}
else {
#if DBG
DISPLAY_MESSAGE1(stdout, g_lpszBuf, _T("DoBatteryAlarm: Activate returned hr = %08x\n"), hr);
#endif
}
pISchedAgent->Release();
}
else {
#if DBG
DISPLAY_MESSAGE1(stdout, g_lpszBuf, _T("DoBatteryAlarm: CoCreateInstance returned hr = %08x\n"), hr);
#endif
}
CoUninitialize();
} else {
#if DBG
DISPLAY_MESSAGE1(stdout, g_lpszBuf, _T("DoBatteryAlarm: CoInitialize returned hr = %08x\n"), hr);
#endif
}
if (SUCCEEDED(hr)) {
DISPLAY_MESSAGE1(stdout, g_lpszBuf, _T("\"%s\""), g_szAlarmTaskName[uiAlarmIndex]);
} else {
DISPLAY_MESSAGE1(
stdout,
g_lpszBuf,
GetResString(IDS_ALARM_PROGRAM_FAILED),
g_szAlarmTaskName[uiAlarmIndex]);
}
lpDischargePolicy->PowerPolicy.EventCode |= POWER_LEVEL_USER_NOTIFY_EXEC;
}
else if (!lstrcmpi(lpszAlarmProgramBoolStr,GetResString(IDS_OFF)))
{
lpDischargePolicy->PowerPolicy.EventCode &= ~POWER_LEVEL_USER_NOTIFY_EXEC;
}
else
{
g_lpszErr = GetResString(IDS_ALARM_INVALID_PROGRAM);
RetVal = FALSE;
goto exit;
}
}
if (bShowSetting) {
DISPLAY_MESSAGE(stdout, GetResString(IDS_ALARM_HEADER1));
DISPLAY_MESSAGE(stdout, GetResString(IDS_ALARM_HEADER2));
// Which alarm
DISPLAY_MESSAGE1(
stdout,
g_lpszBuf,
GetResString(IDS_ALARM_NAME),
lpszName
);
// Active
DISPLAY_MESSAGE1(
stdout,
g_lpszBuf,
GetResString(IDS_ALARM_ACTIVE),
GetResString(lpDischargePolicy->Enable ? IDS_ON : IDS_OFF)
);
// Level
DISPLAY_MESSAGE1(
stdout,
g_lpszBuf,
GetResString(IDS_ALARM_LEVEL),
lpDischargePolicy->BatteryLevel
);
// Text
DISPLAY_MESSAGE1(
stdout,
g_lpszBuf,
GetResString(IDS_ALARM_TEXT),
GetResString((lpDischargePolicy->PowerPolicy.EventCode &
POWER_LEVEL_USER_NOTIFY_TEXT) ? IDS_ON : IDS_OFF)
);
// Sound
DISPLAY_MESSAGE1(
stdout,
g_lpszBuf,
GetResString(IDS_ALARM_SOUND),
GetResString((lpDischargePolicy->PowerPolicy.EventCode &
POWER_LEVEL_USER_NOTIFY_SOUND) ? IDS_ON : IDS_OFF)
);
// Action
DISPLAY_MESSAGE1(
stdout,
g_lpszBuf,
GetResString(IDS_ALARM_ACTION),
GetResString((lpDischargePolicy->PowerPolicy.Action == PowerActionNone) ? IDS_NONE :
(lpDischargePolicy->PowerPolicy.Action == PowerActionSleep) ? IDS_STANDBY :
(lpDischargePolicy->PowerPolicy.Action == PowerActionHibernate) ? IDS_HIBERNATE :
(lpDischargePolicy->PowerPolicy.Action == PowerActionShutdownOff) ? IDS_SHUTDOWN : IDS_INVALID
)
);
// Force
DISPLAY_MESSAGE1(
stdout,
g_lpszBuf,
GetResString(IDS_ALARM_FORCE),
GetResString((lpDischargePolicy->PowerPolicy.Flags &
POWER_ACTION_OVERRIDE_APPS) ? IDS_ON : IDS_OFF)
);
// Program
DISPLAY_MESSAGE1(
stdout,
g_lpszBuf,
GetResString(IDS_ALARM_PROGRAM),
GetResString((lpDischargePolicy->PowerPolicy.EventCode &
POWER_LEVEL_USER_NOTIFY_EXEC) ? IDS_ON : IDS_OFF)
);
hr = CoInitialize(NULL);
if (SUCCEEDED(hr)) {
hr = CoCreateInstance( CLSID_CTaskScheduler, NULL, CLSCTX_INPROC_SERVER,
IID_ITaskScheduler,(LPVOID*) &pISchedAgent );
if (SUCCEEDED(hr)) {
hr = pISchedAgent->Activate(g_szAlarmTaskName[uiAlarmIndex],
IID_ITask,
(IUnknown **) &pITask);
if (SUCCEEDED(hr)) {
pITask->GetApplicationName(&lpszRunProg);
pITask->Release();
} else {
#if DBG
DISPLAY_MESSAGE1(stdout, g_lpszBuf, _T("DoBatteryAlarm: Activate returned hr = %08x\n"), hr);
#endif
}
pISchedAgent->Release();
}
else {
#if DBG
DISPLAY_MESSAGE1(stdout, g_lpszBuf, _T("DoBatteryAlarm: CoCreateInstance returned hr = %08x\n"), hr);
#endif
}
} else {
#if DBG
DISPLAY_MESSAGE1(stdout, g_lpszBuf, _T("DoBatteryAlarm: CoInitialize returned hr = %08x\n"), hr);
#endif
}
DISPLAY_MESSAGE1(
stdout,
g_lpszBuf,
GetResString(IDS_ALARM_PROGRAM_NAME),
lpszRunProg ? FileNameOnly(lpszRunProg) : GetResString(IDS_NONE));
if (lpszRunProg) {
CoTaskMemFree (lpszRunProg);
lpszRunProg = NULL;
}
CoUninitialize();
RetVal = TRUE;
goto exit;
}
if (fWriteGlobalPwrPolicy(&PowerPolicy) &&
fGetActivePwrScheme((PUINT)&uiIDactive) &&
fSetActivePwrScheme(uiIDactive,&PowerPolicy,NULL)){
RetVal = TRUE;
}
}
RetVal = TRUE;
//
// save off the error if we had issues
//
if (!RetVal) {
FormatMessage(
FORMAT_MESSAGE_ALLOCATE_BUFFER |
FORMAT_MESSAGE_FROM_SYSTEM |
FORMAT_MESSAGE_IGNORE_INSERTS,
NULL,
GetLastError(),
MAKELANGID(LANG_NEUTRAL, SUBLANG_DEFAULT),
(LPTSTR)&g_lpszErr2,
0,
NULL
);
return FALSE;
}
exit:
return(RetVal);
}
BOOL
DoUsage()
/*++
Routine Description:
Displays usage information
Arguments:
none
Return Value:
TRUE if successful
FALSE if failed
--*/
{
ULONG ulIdx;
ULONG ulOrderIndex = 0;
for(ulIdx=IDS_USAGE_START;ulIdx<=IDS_USAGE_END;ulIdx++)
{
DISPLAY_MESSAGE(stdout, GetResString(ulIdx));
if (ulIdx == gUsageOrder [ulOrderIndex].InsertAfter) {
for (ulIdx = gUsageOrder [ulOrderIndex].FirstResource;
ulIdx <= gUsageOrder [ulOrderIndex].LastResource;
ulIdx++) {
DISPLAY_MESSAGE(stdout, GetResString(ulIdx));
}
ulIdx = gUsageOrder [ulOrderIndex].InsertAfter;
ulOrderIndex++;
}
}
return TRUE;
}
VOID
SyncRegPPM(VOID)
/*++
Routine Description:
Call down to the PPM to get the current power policies and write them
to the registry. This is done in case the PPM is out of sync with the
PowerCfg registry settings. Requested by JVert.
Arguments:
Return Value:
--*/
{
GLOBAL_POWER_POLICY gpp;
POWER_POLICY pp;
UINT uiID, uiFlags = 0;
if (fGetGlobalPwrPolicy(&gpp)) {
uiFlags = gpp.user.GlobalFlags;
}
if (fGetActivePwrScheme(&uiID)) {
// Get the current PPM settings.
if (fGetCurrentPowerPolicies(&gpp, &pp)) {
fSetActivePwrScheme(uiID, &gpp, &pp);
}
}
gpp.user.GlobalFlags |= uiFlags;
}