NtQuerySystemInformation的使用(提供50余种信息)
今天,我们主要讨论的是一个函数NtQuerySystemInformation(ZwQuerySystemInformation)。当然,你不要小看这么一个函数,它却为我们提供了丰富的系统信息,同时还包
括对某些信息的控制和设置。以下是这个函数的原型:
typedef NTSTATUS (__stdcall *NTQUERYSYSTEMINFORMATION)
(IN SYSTEM_INFORMATION_CLASS SystemInformationClass,
IN OUT PVOID SystemInformation,
IN ULONG SystemInformationLength,
OUT PULONG ReturnLength OPTIONAL);
NTQUERYSYSTEMINFORMATION NtQuerySystemInformation;
从中可以看到,SystemInformationClass是一个类型信息,它大概提供了50余种信息,也就是我们可以通过这个函数对大约50多种的系统信息进行探测或设置。SystemInformation是一个LPVOID型的指针,它为我们提供需要获得的信息,或是我们需要设置的系统信息。SystemInformationLength是SystemInformation的长度,它根据探测的信息类型来决
定。至于ReturnLength则是系统返回的需要的长度,通常可以设置为空指针(NULL)。
首先,我们来看看大家比较熟悉的系统进程/线程相关的信息。这个题目在网上已经讨论了N多年了,所以我就不在老生常谈了,呵呵。那么就提出这个结构类型的定义:
typedef struct _SYSTEM_PROCESSES
{
ULONG NextEntryDelta; //构成结构序列的偏移量;
ULONG ThreadCount; //线程数目;
ULONG Reserved1[6];
LARGE_INTEGER CreateTime; //创建时间;
LARGE_INTEGER UserTime; //用户模式(Ring 3)的CPU时间;
LARGE_INTEGER KernelTime; //内核模式(Ring 0)的CPU时间;
UNICODE_STRING ProcessName; //进程名称;
KPRIORITY BasePriority; //进程优先权;
ULONG ProcessId; //进程标识符;
ULONG InheritedFromProcessId; //父进程的标识符;
ULONG HandleCount; //句柄数目;
ULONG Reserved2[2];
VM_COUNTERS VmCounters; //虚拟存储器的结构,见下;
IO_COUNTERS IoCounters; //IO计数结构,见下;
SYSTEM_THREADS Threads[1]; //进程相关线程的结构数组,见下;
}SYSTEM_PROCESSES,*PSYSTEM_PROCESSES;
typedef struct _SYSTEM_THREADS
{
LARGE_INTEGER KernelTime; //CPU内核模式使用时间;
LARGE_INTEGER UserTime; //CPU用户模式使用时间;
LARGE_INTEGER CreateTime; //线程创建时间;
ULONG WaitTime; //等待时间;
PVOID StartAddress; //线程开始的虚拟地址;
CLIENT_ID ClientId; //线程标识符;
KPRIORITY Priority; //线程优先级;
KPRIORITY BasePriority; //基本优先级;
ULONG ContextSwitchCount; //环境切换数目;
THREAD_STATE State; //当前状态;
KWAIT_REASON WaitReason; //等待原因;
}SYSTEM_THREADS,*PSYSTEM_THREADS;
typedef struct _VM_COUNTERS
{
ULONG PeakVirtualSize; //虚拟存储峰值大小;
ULONG VirtualSize; //虚拟存储大小;
ULONG PageFaultCount; //页故障数目;
ULONG PeakWorkingSetSize; //工作集峰值大小;
ULONG WorkingSetSize; //工作集大小;
ULONG QuotaPeakPagedPoolUsage; //分页池使用配额峰值;
ULONG QuotaPagedPoolUsage; //分页池使用配额;
ULONG QuotaPeakNonPagedPoolUsage; //非分页池使用配额峰值;
ULONG QuotaNonPagedPoolUsage; //非分页池使用配额;
ULONG PagefileUsage; //页文件使用情况;
ULONG PeakPagefileUsage; //页文件使用峰值;
}VM_COUNTERS,*PVM_COUNTERS;
typedef struct _IO_COUNTERS
{
LARGE_INTEGER ReadOperationCount; //I/O读操作数目;
LARGE_INTEGER WriteOperationCount; //I/O写操作数目;
LARGE_INTEGER OtherOperationCount; //I/O其他操作数目;
LARGE_INTEGER ReadTransferCount; //I/O读数据数目;
LARGE_INTEGER WriteTransferCount; //I/O写数据数目;
LARGE_INTEGER OtherTransferCount; //I/O其他操作数据数目;
}IO_COUNTERS,*PIO_COUNTERS;
以上这些信息应该是比较全面的了,在Win32 API里为我们提供了PSAPI(进程状态)和ToolHelp32这两种探测系统进程/线程信息的方式,在Windows2K/XP/2003都支持它们。
现在,我们来看看系统的性能信息,性能结构SYSTEM_PERFORMANCE_INFORMATION为我们提供了70余种系统性能方面的信息,真是太丰富了,请慢慢体会~
typedef struct _SYSTEM_PERFORMANCE_INFORMATION
{
LARGE_INTEGER IdleTime; //CPU空闲时间;
LARGE_INTEGER ReadTransferCount; //I/O读操作数目;
LARGE_INTEGER WriteTransferCount; //I/O写操作数目;
LARGE_INTEGER OtherTransferCount; //I/O其他操作数目;
ULONG ReadOperationCount; //I/O读数据数目;
ULONG WriteOperationCount; //I/O写数据数目;
ULONG OtherOperationCount; //I/O其他操作数据数目;
ULONG AvailablePages; //可获得的页数目;
ULONG TotalCommittedPages; //总共提交页数目;
ULONG TotalCommitLimit; //已提交页数目;
ULONG PeakCommitment; //页提交峰值;
ULONG PageFaults; //页故障数目;
ULONG WriteCopyFaults; //Copy-On-Write故障数目;
ULONG TransitionFaults; //软页故障数目;
ULONG Reserved1;
ULONG DemandZeroFaults; //需求0故障数;
ULONG PagesRead; //读页数目;
ULONG PageReadIos; //读页I/O操作数;
ULONG Reserved2[2];
ULONG PagefilePagesWritten; //已写页文件页数;
ULONG PagefilePageWriteIos; //已写页文件操作数;
ULONG MappedFilePagesWritten; //已写映射文件页数;
ULONG MappedFileWriteIos; //已写映射文件操作数;
ULONG PagedPoolUsage; //分页池使用;
ULONG NonPagedPoolUsage; //非分页池使用;
ULONG PagedPoolAllocs; //分页池分配情况;
ULONG PagedPoolFrees; //分页池释放情况;
ULONG NonPagedPoolAllocs; //非分页池分配情况;
ULONG NonPagedPoolFress; //非分页池释放情况;
ULONG TotalFreeSystemPtes; //系统页表项释放总数;
ULONG SystemCodePage; //操作系统代码页数;
ULONG TotalSystemDriverPages; //可分页驱动程序页数;
ULONG TotalSystemCodePages; //操作系统代码页总数;
ULONG SmallNonPagedLookasideListAllocateHits; //
ULONG SmallPagedLookasideListAllocateHits;
ULONG Reserved3;
ULONG MmSystemCachePage; //系统缓存页数;
ULONG PagedPoolPage; //分页池页数;
ULONG SystemDriverPage; //可分页驱动页数;
ULONG FastReadNoWait; //异步快速读数目;
ULONG FastReadWait; //同步快速读数目;
ULONG FastReadResourceMiss; //快速读资源冲突数;
ULONG FastReadNotPossible; //快速读失败数;
ULONG FastMdlReadNoWait; //异步MDL快速读数目;
ULONG FastMdlReadWait; //同步MDL快速读数目;
ULONG FastMdlReadResourceMiss; //MDL读资源冲突数;
ULONG FastMdlReadNotPossible; //MDL读失败数;
ULONG MapDataNoWait; //异步映射数据次数;
ULONG MapDataWait; //同步映射数据次数;
ULONG MapDataNoWaitMiss; //异步映射数据冲突次数;
ULONG MapDataWaitMiss; //同步映射数据冲突次数;
ULONG PinMappedDataCount; //牵制映射数据数目;
ULONG PinReadNoWait; //牵制异步读数目;
ULONG PinReadWait; //牵制同步读数目;
ULONG PinReadNoWaitMiss; //牵制异步读冲突数目;
ULONG PinReadWaitMiss; //牵制同步读冲突数目;
ULONG CopyReadNoWait; //异步拷贝读次数;
ULONG CopyReadWait; //同步拷贝读次数;
ULONG CopyReadNoWaitMiss; //异步拷贝读故障次数;
ULONG CopyReadWaitMiss; //同步拷贝读故障次数;
ULONG MdlReadNoWait; //异步MDL读次数;
ULONG MdlReadWait; //同步MDL读次数;
ULONG MdlReadNoWaitMiss; //异步MDL读故障次数;
ULONG MdlReadWaitMiss; //同步MDL读故障次数;
ULONG ReadAheadIos; //向前读操作数目;
ULONG LazyWriteIos; //LAZY写操作数目;
ULONG LazyWritePages; //LAZY写页文件数目;
ULONG DataFlushes; //缓存刷新次数;
ULONG DataPages; //缓存刷新页数;
ULONG ContextSwitches; //环境切换数目;
ULONG FirstLevelTbFills; //第一层缓冲区填充次数;
ULONG SecondLevelTbFills; //第二层缓冲区填充次数;
ULONG SystemCall; //系统调用次数;
}SYSTEM_PERFORMANCE_INFORMATION,*PSYSTEM_PERFORMANCE_INFORMATION;
现在看到的是结构SYSTEM_PROCESSOR_TIMES提供的系统处理器的使用情况,包括各种情况下的使用时间及中断数目:
typedef struct __SYSTEM_PROCESSOR_TIMES
{
LARGE_INTEGER IdleTime; //空闲时间;
LARGE_INTEGER KernelTime; //内核模式时间;
LARGE_INTEGER UserTime; //用户模式时间;
LARGE_INTEGER DpcTime; //延迟过程调用时间;
LARGE_INTEGER InterruptTime; //中断时间;
ULONG InterruptCount; //中断次数;
}SYSTEM_PROCESSOR_TIMES,*PSYSTEM_PROCESSOR_TIMES;
页文件的使用情况,SYSTEM_PAGEFILE_INFORMATION提供了所需的相关信息:
typedef struct _SYSTEM_PAGEFILE_INFORMATION
{
ULONG NetxEntryOffset; //下一个结构的偏移量;
ULONG CurrentSize; //当前页文件大小;
ULONG TotalUsed; //当前使用的页文件数;
ULONG PeakUsed; //当前使用的页文件峰值数;
UNICODE_STRING FileName; //页文件的文件名称;
}SYSTEM_PAGEFILE_INFORMATION,*PSYSTEM_PAGEFILE_INFORMATION;
系统高速缓存的使用情况参见结构SYSTEM_CACHE_INFORMATION提供的信息:
typedef struct _SYSTEM_CACHE_INFORMATION
{
ULONG SystemCacheWsSize; //高速缓存大小;
ULONG SystemCacheWsPeakSize; //高速缓存峰值大小;
ULONG SystemCacheWsFaults; //高速缓存页故障数目;
ULONG SystemCacheWsMinimum; //高速缓存最小页大小;
ULONG SystemCacheWsMaximum; //高速缓存最大页大小;
ULONG TransitionSharedPages; //共享页数目;
ULONG TransitionSharedPagesPeak; //共享页峰值数目;
ULONG Reserved[2];
}SYSTEM_CACHE_INFORMATION,*PSYSTEM_CACHE_INFORMATION;
附录:(所有完整源代码,您可以到我们FZ5FZ的主页下载)。
1.T-PMList的头文件源代码:
#ifndef T_PMLIST_H
#define T_PMLIST_H
#include <windows.h>
#include <stdio.h>
#define NT_PROCESSTHREAD_INFO 0x05
#define MAX_INFO_BUF_LEN 0x500000
#define STATUS_SUCCESS ((NTSTATUS)0x00000000L)
#define STATUS_INFO_LENGTH_MISMATCH ((NTSTATUS)0xC0000004L)
typedef LONG NTSTATUS;
typedef struct _LSA_UNICODE_STRING
{
USHORT Length;
USHORT MaximumLength;
PWSTR Buffer;
}LSA_UNICODE_STRING,*PLSA_UNICODE_STRING;
typedef LSA_UNICODE_STRING UNICODE_STRING, *PUNICODE_STRING;
typedef struct _CLIENT_ID
{
HANDLE UniqueProcess;
HANDLE UniqueThread;
}CLIENT_ID;
typedef CLIENT_ID *PCLIENT_ID;
typedef LONG KPRIORITY;
typedef struct _VM_COUNTERS
{
ULONG PeakVirtualSize;
ULONG VirtualSize;
ULONG PageFaultCount;
ULONG PeakWorkingSetSize;
ULONG WorkingSetSize;
ULONG QuotaPeakPagedPoolUsage;
ULONG QuotaPagedPoolUsage;
ULONG QuotaPeakNonPagedPoolUsage;
ULONG QuotaNonPagedPoolUsage;
ULONG PagefileUsage;
ULONG PeakPagefileUsage;
}VM_COUNTERS,*PVM_COUNTERS;
typedef struct _IO_COUNTERS
{
LARGE_INTEGER ReadOperationCount;
LARGE_INTEGER WriteOperationCount;
LARGE_INTEGER OtherOperationCount;
LARGE_INTEGER ReadTransferCount;
LARGE_INTEGER WriteTransferCount;
LARGE_INTEGER OtherTransferCount;
}IO_COUNTERS,*PIO_COUNTERS;
typedef enum _THREAD_STATE
{
StateInitialized,
StateReady,
StateRunning,
StateStandby,
StateTerminated,
StateWait,
StateTransition,
StateUnknown
}THREAD_STATE;
typedef enum _KWAIT_REASON
{
Executive,
FreePage,
PageIn,
PoolAllocation,
DelayExecution,
Suspended,
UserRequest,
WrExecutive,
WrFreePage,
WrPageIn,
WrPoolAllocation,
WrDelayExecution,
WrSuspended,
WrUserRequest,
WrEventPair,
WrQueue,
WrLpcReceive,
WrLpcReply,
WrVertualMemory,
WrPageOut,
WrRendezvous,
Spare2,
Spare3,
Spare4,
Spare5,
Spare6,
WrKernel
}KWAIT_REASON;
typedef struct _SYSTEM_THREADS
{
LARGE_INTEGER KernelTime;
LARGE_INTEGER UserTime;
LARGE_INTEGER CreateTime;
ULONG WaitTime;
PVOID StartAddress;
CLIENT_ID ClientId;
KPRIORITY Priority;
KPRIORITY BasePriority;
ULONG ContextSwitchCount;
THREAD_STATE State;
KWAIT_REASON WaitReason;
}SYSTEM_THREADS,*PSYSTEM_THREADS;
typedef struct _SYSTEM_PROCESSES
{
ULONG NextEntryDelta;
ULONG ThreadCount;
ULONG Reserved1[6];
LARGE_INTEGER CreateTime;
LARGE_INTEGER UserTime;
LARGE_INTEGER KernelTime;
UNICODE_STRING ProcessName;
KPRIORITY BasePriority;
ULONG ProcessId;
ULONG InheritedFromProcessId;
ULONG HandleCount;
ULONG Reserved2[2];
VM_COUNTERS VmCounters;
IO_COUNTERS IoCounters;
SYSTEM_THREADS Threads[1];
}SYSTEM_PROCESSES,*PSYSTEM_PROCESSES;
typedef DWORD SYSTEM_INFORMATION_CLASS;
typedef NTSTATUS (__stdcall *NTQUERYSYSTEMINFORMATION)
(IN SYSTEM_INFORMATION_CLASS,
IN OUT PVOID,
IN ULONG,
OUT PULONG OPTIONAL);
NTQUERYSYSTEMINFORMATION NtQuerySystemInformation;
DWORD EnumProcess()
{
PSYSTEM_PROCESSES pSystemProc;
HMODULE hNtDll = NULL;
LPVOID lpSystemInfo = NULL;
DWORD dwNumberBytes = MAX_INFO_BUF_LEN;
DWORD dwTotalProcess = 0;
DWORD dwReturnLength;
NTSTATUS Status;
LONGLONG llTempTime;
__try
{
hNtDll = LoadLibrary("NtDll.dll");
if(hNtDll == NULL)
{
printf("LoadLibrary Error: %d\n",GetLastError());
__leave;
}
NtQuerySystemInformation = (NTQUERYSYSTEMINFORMATION)GetProcAddress(hNtDll,"
NtQuerySystemInformation");
if(NtQuerySystemInformation == NULL)
{
printf("GetProcAddress for NtQuerySystemInformation Error: %d\n",GetL
astError());
__leave;
}
lpSystemInfo = (LPVOID)malloc(dwNumberBytes);
Status = NtQuerySystemInformation(NT_PROCESSTHREAD_INFO,
lpSystemInfo,
dwNumberBytes,
&dwReturnLength);
if(Status == STATUS_INFO_LENGTH_MISMATCH)
{
printf("STATUS_INFO_LENGTH_MISMATCH\n");
__leave;
}
else if(Status != STATUS_SUCCESS)
{
printf("NtQuerySystemInformation Error: %d\n",GetLastError());
__leave;
}
printf("%-20s%6s%7s%8s%6s%7s%7s%13s\n","ProcessName","PID","PPID","WsSize","
Prio.","Thread","Handle","CPU Time");
printf("--------------------------------------------------------------------
------\n");
pSystemProc = (PSYSTEM_PROCESSES)lpSystemInfo;
while(pSystemProc->NextEntryDelta != 0)
{
if(pSystemProc->ProcessId != 0)
{
wprintf(L"%-20s",pSystemProc->ProcessName.Buffer);
}
else
{
wprintf(L"%-20s",L"System Idle Process");
}
printf("%6d",pSystemProc->ProcessId);
printf("%7d",pSystemProc->InheritedFromProcessId);
printf("%7dK",pSystemProc->VmCounters.WorkingSetSize/1024);
printf("%6d",pSystemProc->BasePriority);
printf("%7d",pSystemProc->ThreadCount);
printf("%7d",pSystemProc->HandleCount);
llTempTime = pSystemProc->KernelTime.QuadPart + pSystemProc->UserTime.Quad
Part;
llTempTime /= 10000;
printf("%3d:",llTempTime/(60*60*1000));
llTempTime %= 60*60*1000;
printf("%.2d:",llTempTime/(60*1000));
llTempTime %= 60*1000;
printf("%.2d.",llTempTime/1000);
llTempTime %= 1000;
printf("%.3d",llTempTime);
printf("\n");
dwTotalProcess ++;
pSystemProc = (PSYSTEM_PROCESSES)((char *)pSystemProc + pSystemProc->NextEn
tryDelta);
}
printf("--------------------------------------------------------------------
------\n");
printf("\nTotal %d Process(es) !\n\n",dwTotalProcess);
printf("PID\t ==> Process Identification\n");
printf("PPID\t ==> Parent Process Identification\n");
printf("WsSize\t ==> Working Set Size\n");
printf("Prio.\t ==> Base Priority\n");
printf("Thread\t ==> Thread Count\n");
printf("Handle\t ==> Handle Count\n");
printf("CPU Time ==> Processor Time\n");
}
__finally
{
if(lpSystemInfo != NULL)
{
free(lpSystemInfo);
}
if(hNtDll != NULL)
{
FreeLibrary(hNtDll);
}
}
return 0;
}
DWORD SpeciProcess(DWORD dwPID)
{
PSYSTEM_PROCESSES pSystemProc = NULL;
PSYSTEM_THREADS pSystemThre = NULL;
HMODULE hNtDll = NULL;
LPVOID lpSystemInfo = NULL;
DWORD dwNumberBytes = MAX_INFO_BUF_LEN;
DWORD dwTotalProcess = 0;
DWORD dwReturnLength;
NTSTATUS Status;
LONGLONG llTempTime;
ULONG ulIndex;
__try
{
hNtDll = LoadLibrary("NtDll.dll");
if(hNtDll == NULL)
{
printf("LoadLibrary Error: %d\n",GetLastError());
__leave;
}
NtQuerySystemInformation = (NTQUERYSYSTEMINFORMATION)GetProcAddress(hNtDll,"
NtQuerySystemInformation");
if(NtQuerySystemInformation == NULL)
{
printf("GetProcAddress for NtQuerySystemInformation Error: %d\n",GetL
astError());
__leave;
}
lpSystemInfo = (LPVOID)malloc(dwNumberBytes);
Status = NtQuerySystemInformation(NT_PROCESSTHREAD_INFO,
lpSystemInfo,
dwNumberBytes,
&dwReturnLength);
if(Status == STATUS_INFO_LENGTH_MISMATCH)
{
printf("STATUS_INFO_LENGTH_MISMATCH\n");
__leave;
}
else if(Status != STATUS_SUCCESS)
{
printf("NtQuerySystemInformation Error: %d\n",GetLastError());
__leave;
}
pSystemProc = (PSYSTEM_PROCESSES)lpSystemInfo;
while(pSystemProc->NextEntryDelta != 0)
{
if(pSystemProc->ProcessId == dwPID)
{
printf("ProcessName:\t\t ");
if(pSystemProc->ProcessId != 0)
{
wprintf(L"%-20s\n",pSystemProc->ProcessName.Buffer);
}
else
{
wprintf(L"%-20s\n",L"System Idle Process");
}
printf("ProcessID:\t\t %d\t\t",pSystemProc->ProcessId);
printf("ParentProcessID:\t%d\n",pSystemProc->InheritedFromProcessId);
printf("KernelTime:\t\t ");
llTempTime = pSystemProc->KernelTime.QuadPart;
llTempTime /= 10000;
printf("%d:",llTempTime/(60*60*1000));
llTempTime %= 60*60*1000;
printf("%.2d:",llTempTime/(60*1000));
llTempTime %= 60*1000;
printf("%.2d.",llTempTime/1000);
llTempTime %= 1000;
printf("%.3d\t",llTempTime);
printf("UserTime:\t\t");
llTempTime = pSystemProc->UserTime.QuadPart;
llTempTime /= 10000;
printf("%d:",llTempTime/(60*60*1000));
llTempTime %= 60*60*1000;
printf("%.2d:",llTempTime/(60*1000));
llTempTime %= 60*1000;
printf("%.2d.",llTempTime/1000);
llTempTime %= 1000;
printf("%.3d\n",llTempTime);
printf("Privilege:\t\t %d%%\t\t",(pSystemProc->KernelTime.QuadPart * 100)/
(pSystemProc->KernelTime.QuadPart + pSystemProc->UserTime.QuadPart));
printf("User:\t\t\t%d%%\n",(pSystemProc->UserTime.QuadPart * 100)/(pSystem
Proc->KernelTime.QuadPart + pSystemProc->UserTime.QuadPart));
printf("ThreadCount:\t\t %d\t\t",pSystemProc->ThreadCount);
printf("HandleCount:\t\t%d\n",pSystemProc->HandleCount);
printf("BasePriority:\t\t %-2d\t\t",pSystemProc->BasePriority);
printf("PageFaultCount:\t\t%d\n\n",pSystemProc->VmCounters.PageFaultCount)
;
printf("PeakWorkingSetSize(K):\t %-8d\t",pSystemProc->VmCounters.PeakWorki
ngSetSize/1024);
printf("WorkingSetSize(K):\t%-8d\n",pSystemProc->VmCounters.WorkingSetSize
/1024);
printf("PeakPagedPool(K):\t %-8d\t",pSystemProc->VmCounters.QuotaPeakPaged
PoolUsage/1024);
printf("PagedPool(K):\t\t%-8d\n",pSystemProc->VmCounters.QuotaPagedPoolUsa
ge/1024);
printf("PeakNonPagedPook(K):\t %-8d\t",pSystemProc->VmCounters.QuotaPeakNo
nPagedPoolUsage/1024);
printf("NonePagedPook(K):\t%-8d\n",pSystemProc->VmCounters.QuotaNonPagedPo
olUsage/1024);
printf("PeakPagefile(K):\t %-8d\t",pSystemProc->VmCounters.PeakPagefileUsa
ge/1024);
printf("Pagefile(K):\t\t%-8d\n",pSystemProc->VmCounters.PagefileUsage/1024
);
printf("PeakVirtualSize(K):\t %-8d\t",pSystemProc->VmCounters.PeakVirtualS
ize/1024);
printf("VirtualSize(K):\t\t%-8d\n\n",pSystemProc->VmCounters.VirtualSize/1
024);
printf("ReadTransfer:\t\t %-8d\t",pSystemProc->IoCounters.ReadTransferCoun
t);
printf("ReadOperationCount:\t%-8d\n",pSystemProc->IoCounters.ReadOperation
Count);
printf("WriteTransfer:\t\t %-8d\t",pSystemProc->IoCounters.WriteTransferCo
unt);
printf("WriteOperationCount:\t%-8d\n",pSystemProc->IoCounters.WriteOperati
onCount);
printf("OtherTransfer:\t\t %-8d\t",pSystemProc->IoCounters.OtherTransferCo
unt);
printf("OtherOperationCount:\t%-8d\n\n",pSystemProc->IoCounters.OtherOpera
tionCount);
printf("%-5s%3s%4s%5s%5s%11s%12s%12s%7s%6s%9s\n","TID","Pri","BPr","Priv",
"User","KernelTime","UserTime","StartAddr","CSwitC","State","WtReason");
printf("---------------------------------------------------------
----------------------\n");
for(ulIndex = 0; ulIndex < pSystemProc->ThreadCount; ulIndex++)
{
pSystemThre = &pSystemProc->Threads[ulIndex];
printf("%-5d",pSystemProc->Threads[ulIndex].ClientId.UniqueThread);
printf("%3d",pSystemProc->Threads[ulIndex].Priority);
printf("%4d",pSystemProc->Threads[ulIndex].BasePriority);
printf("%4d%%",(pSystemProc->Threads[ulIndex].KernelTime.QuadPart * 10
0)/(pSystemProc->KernelTime.QuadPart + pSystemProc->UserTime.QuadPart));
printf("%4d%%",(pSystemProc->Threads[ulIndex].UserTime.QuadPart * 100
)/(pSystemProc->KernelTime.QuadPart + pSystemProc->UserTime.QuadPart));
llTempTime = pSystemProc->Threads[ulIndex].KernelTime.QuadPart;
llTempTime /= 10000;
printf("%2d:",llTempTime/(60*60*1000));
llTempTime %= 60*60*1000;
printf("%.2d.",llTempTime/(60*1000));
llTempTime %= 60*1000;
printf("%.2d.",llTempTime/1000);
llTempTime %= 100;
printf("%.2d ",llTempTime);
llTempTime = pSystemProc->Threads[ulIndex].UserTime.QuadPart;
llTempTime /= 10000;
printf("%2d:",llTempTime/(60*60*1000));
llTempTime %= 60*60*1000;
printf("%.2d.",llTempTime/(60*1000));
llTempTime %= 60*1000;
printf("%.2d.",llTempTime/1000);
llTempTime %= 100;
printf("%.2d ",llTempTime);
printf(" 0x%.8X",pSystemProc->Threads[ulIndex].StartAddress);
printf("%7d",pSystemProc->Threads[ulIndex].ContextSwitchCount);
switch(pSystemProc->Threads[ulIndex].State)
{
case StateInitialized:
printf("%6s","Init.");
break;
case StateReady:
printf("%6s","Ready");
break;
case StateRunning:
printf("%6s","Run");
break;
case StateStandby:
printf("%6s","StBy.");
break;
case StateTerminated:
printf("%6s","Term.");
break;
case StateWait:
printf("%6s","Wait");
break;
case StateTransition:
printf("%6s","Tran.");
break;
case StateUnknown:
printf("%6s","Unkn.");
break;
default:
printf("%6s","Unkn.");
break;
}
switch(pSystemProc->Threads[ulIndex].WaitReason)
{
case Executive:
printf(" %-8s","Executi.");
break;
case FreePage:
printf(" %-8s","FreePag.");
break;
case PageIn:
printf(" %-8s","PageIn");
break;
case PoolAllocation:
printf(" %-8s","PoolAll.");
break;
case DelayExecution:
printf(" %-8s","DelayEx.");
break;
case Suspended:
printf(" %-8s","Suspend.");
break;
case UserRequest:
printf(" %-8s","UserReq.");
break;
case WrExecutive:
printf(" %-8s","WrExect.");
break;
case WrFreePage:
printf(" %-8s","WrFrePg.");
break;
case WrPageIn:
printf(" %-8s","WrPageIn");
break;
case WrPoolAllocation:
printf(" %-8s","WrPoolA.");
break;
case WrSuspended:
printf(" %-8s","WrSuspe.");
break;
case WrUserRequest:
printf(" %-8s","WrUsReq.");
break;
case WrEventPair:
printf(" %-8s","WrEvent.");
break;
case WrQueue:
printf(" %-8s","WrQueue");
break;
case WrLpcReceive:
printf(" %-8s","WrLpcRv.");
break;
case WrLpcReply:
printf(" %-8s","WrLpcRp.");
break;
case WrVertualMemory:
printf(" %-8s","WrVerMm.");
break;
case WrPageOut:
printf(" %-8s","WrPgOut.");
break;
case WrRendezvous:
printf(" %-8s","WrRende.");
break;
case WrKernel:
printf(" %-8s","WrKernel");
break;
default:
printf(" %-8s","Unknown");
break;
}
printf("\n");
}
printf("----------------------------------------------------
---------------------------\n\n");
printf("Total %d Thread(s) !\n\n",ulIndex);
dwTotalProcess ++;
break;
}
pSystemProc = (PSYSTEM_PROCESSES)((char *)pSystemProc + pSystemProc->NextEn
tryDelta);
}
}
__finally
{
if(dwTotalProcess == 0)
{
printf("Could not found the %d Process !\n",dwPID);
}
else
{
printf("TID:\t\t====>\tThread Identification\n");
printf("Pri:\t\t====>\tPriority\n");
printf("BPr:\t\t====>\tBase Priority\n");
printf("Priv:\t\t====>\tPrivilege\n");
printf("StartAddr:\t====>\tThread Start Address\n");
printf("CSwitC:\t\t====>\tContext Switch Count\n");
printf("WtReason:\t====>\tWait Reason\n");
}
if(lpSystemInfo != NULL)
{
free(lpSystemInfo);
}
if(hNtDll != NULL)
{
FreeLibrary(hNtDll);
}
}
return 0;
}
VOID Start()
{
printf("T-PMList, by TOo2y\n");
printf("E-mail: TOo2y@safechina.net\n");
printf("HomePage: www.safechina.net\n");
printf("Date: 05-10-2003\n\n");
return ;
}
VOID Usage()
{
printf("Usage:\tT-PMList [-e] | [-s PID]\n");
printf(" -e\t Enumerate All Processes\n");
printf(" -s PID Show Special Process Information with PID\n\n");
return ;
}
#endif
2.T-PMPerf的头文件源代码:
#ifndef T_PMPERF_H
#define T_PMPERF_H
#include "windows.h"
#include "stdio.h"
#define SYSTEM_PERF_INFO 0x02
#define SYSTEM_PROC_TIME 0x08
#define SYSTEM_PAGE_INFO 0x12
#define SYSTEM_CACHE_INFO 0x15
#define MAX_INFO_BUF_LEN 0x500000
#define STATUS_SUCCESS ((NTSTATUS)0x00000000L)
typedef LONG NTSTATUS;
typedef DWORD SYSTEM_INFORMATION_CLASS;
typedef struct _LSA_UNICODE_STRING
{
USHORT Length;
USHORT MaximumLength;
PWSTR Buffer;
}LSA_UNICODE_STRING,*PLSA_UNICODE_STRING;
typedef LSA_UNICODE_STRING UNICODE_STRING, *PUNICODE_STRING;
typedef struct _SYSTEM_PERFORMANCE_INFORMATION
{
LARGE_INTEGER IdleTime;
LARGE_INTEGER ReadTransferCount;
LARGE_INTEGER WriteTransferCount;
LARGE_INTEGER OtherTransferCount;
ULONG ReadOperationCount;
ULONG WriteOperationCount;
ULONG OtherOperationCount;
ULONG AvailablePages;
ULONG TotalCommittedPages;
ULONG TotalCommitLimit;
ULONG PeakCommitment;
ULONG PageFaults;
ULONG WriteCopyFaults;
ULONG TransitionFaults;
ULONG Reserved1;
ULONG DemandZeroFaults;
ULONG PagesRead;
ULONG PageReadIos;
ULONG Reserved2[2];
ULONG PagefilePagesWritten;
ULONG PagefilePageWriteIos;
ULONG MappedFilePagesWritten;
ULONG MappedFileWriteIos;
ULONG PagedPoolUsage;
ULONG NonPagedPoolUsage;
ULONG PagedPoolAllocs;
ULONG PagedPoolFrees;
ULONG NonPagedPoolAllocs;
ULONG NonPagedPoolFress;
ULONG TotalFreeSystemPtes;
ULONG SystemCodePage;
ULONG TotalSystemDriverPages;
ULONG TotalSystemCodePages;
ULONG SmallNonPagedLookasideListAllocateHits;
ULONG SmallPagedLookasideListAllocateHits;
ULONG Reserved3;
ULONG MmSystemCachePage;
ULONG PagedPoolPage;
ULONG SystemDriverPage;
ULONG FastReadNoWait;
ULONG FastReadWait;
ULONG FastReadResourceMiss;
ULONG FastReadNotPossible;
ULONG FastMdlReadNoWait;
ULONG FastMdlReadWait;
ULONG FastMdlReadResourceMiss;
ULONG FastMdlReadNotPossible;
ULONG MapDataNoWait;
ULONG MapDataWait;
ULONG MapDataNoWaitMiss;
ULONG MapDataWaitMiss;
ULONG PinMappedDataCount;
ULONG PinReadNoWait;
ULONG PinReadWait;
ULONG PinReadNoWaitMiss;
ULONG PinReadWaitMiss;
ULONG CopyReadNoWait;
ULONG CopyReadWait;
ULONG CopyReadNoWaitMiss;
ULONG CopyReadWaitMiss;
ULONG MdlReadNoWait;
ULONG MdlReadWait;
ULONG MdlReadNoWaitMiss;
ULONG MdlReadWaitMiss;
ULONG ReadAheadIos;
ULONG LazyWriteIos;
ULONG LazyWritePages;
ULONG DataFlushes;
ULONG DataPages;
ULONG ContextSwitches;
ULONG FirstLevelTbFills;
ULONG SecondLevelTbFills;
ULONG SystemCall;
}SYSTEM_PERFORMANCE_INFORMATION,*PSYSTEM_PERFORMANCE_INFORMATION;
typedef struct __SYSTEM_PROCESSOR_TIMES
{
LARGE_INTEGER IdleTime;
LARGE_INTEGER KernelTime;
LARGE_INTEGER UserTime;
LARGE_INTEGER DpcTime;
LARGE_INTEGER InterruptTime;
ULONG InterruptCount;
}SYSTEM_PROCESSOR_TIMES,*PSYSTEM_PROCESSOR_TIMES;
typedef struct _SYSTEM_PAGEFILE_INFORMATION
{
ULONG NetxEntryOffset;
ULONG CurrentSize;
ULONG TotalUsed;
ULONG PeakUsed;
UNICODE_STRING FileName;
}SYSTEM_PAGEFILE_INFORMATION,*PSYSTEM_PAGEFILE_INFORMATION;
typedef struct _SYSTEM_CACHE_INFORMATION
{
ULONG SystemCacheWsSize;
ULONG SystemCacheWsPeakSize;
ULONG SystemCacheWsFaults;
ULONG SystemCacheWsMinimum;
ULONG SystemCacheWsMaximum;
ULONG TransitionSharedPages;
ULONG TransitionSharedPagesPeak;
ULONG Reserved[2];
}SYSTEM_CACHE_INFORMATION,*PSYSTEM_CACHE_INFORMATION;
typedef NTSTATUS (__stdcall * NTQUERYSYSTEMINFORMATION)
(IN SYSTEM_INFORMATION_CLASS,
IN OUT PVOID,
INT ULONG,
OUT PULONG OPTION);
NTQUERYSYSTEMINFORMATION NtQuerySystemInformation;
DWORD PerfInfo()
{
SYSTEM_PERFORMANCE_INFORMATION SystemPerfInfo;
HMODULE hNtDll = NULL;
DWORD dwNumberBytes;
DWORD dwReturnLength;
NTSTATUS Status;
LONGLONG llTempTime;
__try
{
hNtDll = LoadLibrary("NtDll.dll");
if(hNtDll == NULL)
{
printf("LoadLibrary Error: %d\n",GetLastError());
__leave;
}
NtQuerySystemInformation = (NTQUERYSYSTEMINFORMATION)GetProcAddress(hNtDll,"
NtQuerySystemInformation");
if(NtQuerySystemInformation == NULL)
{
printf("GetProcAddress for NtQuerySystemInformation Error: %d\n",GetLastErr
or());
__leave;
}
dwNumberBytes = sizeof(SYSTEM_PERFORMANCE_INFORMATION);
Status = NtQuerySystemInformation(SYSTEM_PERF_INFO,
&SystemPerfInfo,
dwNumberBytes,
&dwReturnLength);
if(Status != STATUS_SUCCESS)
{
printf("NtQuerySystemInformation for Performance Error: %d\n",GetLastError(
));
__leave;
}
printf("IdleTime:\t\t");
llTempTime = SystemPerfInfo.IdleTime.QuadPart;
llTempTime /= 10000;
printf("%d:",llTempTime/(60*60*1000));
llTempTime %= 60*60*1000;
printf("%.2d:",llTempTime/(60*1000));
llTempTime %= 60*1000;
printf("%.2d.",llTempTime/1000);
llTempTime %= 1000;
printf("%.3d\n",llTempTime);
printf("ReadOperationCount:\t%-10d\t",SystemPerfInfo.ReadOperationCount);
printf("ReadTransferCount:\t%d\n",SystemPerfInfo.ReadTransferCount);
printf("WriteOperationCount:\t%-10d\t",SystemPerfInfo.WriteOperationCount);
printf("WriteTransferCount:\t%d\n",SystemPerfInfo.WriteTransferCount);
printf("OtherOperationCount:\t%-10d\t",SystemPerfInfo.OtherOperationCount);
printf("OtherTransferCount:\t%d\n",SystemPerfInfo.OtherTransferCount);
printf("AvailablePages:\t\t%-10d\t",SystemPerfInfo.AvailablePages);
printf("TotalCommittedPage:\t%d\n",SystemPerfInfo.TotalCommittedPages);
printf("CommitLimit:\t\t%-10d\t",SystemPerfInfo.TotalCommitLimit);
printf("PeakCommitment:\t\t%d\n",SystemPerfInfo.PeakCommitment);
printf("PageFault:\t\t%-10d\t",SystemPerfInfo.PageFaults);
printf("WriteCopyFault:\t\t%d\n",SystemPerfInfo.WriteCopyFaults);
printf("TransitionFault:\t%-10d\t",SystemPerfInfo.TransitionFaults);
printf("DemandZeroFault:\t%d\n",SystemPerfInfo.DemandZeroFaults);
printf("PagesRead:\t\t%-10d\t",SystemPerfInfo.PagesRead);
printf("PageReadIos:\t\t%d\n",SystemPerfInfo.PageReadIos);
printf("PagesWritten:\t\t%-10d\t",SystemPerfInfo.PagefilePagesWritten);
printf("PageWriteIos:\t\t%d\n",SystemPerfInfo.PagefilePageWriteIos);
printf("MappedFilePagesWritten:\t%-10d\t",SystemPerfInfo.MappedFilePagesWrit
ten);
printf("MappedFileWriteIos:\t%d\n",SystemPerfInfo.MappedFileWriteIos);
printf("PagedPoolUsage:\t\t%-10d\t",SystemPerfInfo.PagedPoolUsage);
printf("NonPagedPoolUsage:\t%d\n",SystemPerfInfo.NonPagedPoolUsage);
printf("PagedPoolAllocs:\t%-10d\t",SystemPerfInfo.PagedPoolAllocs);
printf("NonPagedPoolAllocs:\t%d\n",SystemPerfInfo.NonPagedPoolAllocs);
printf("PagedPoolFrees:\t\t%-10d\t",SystemPerfInfo.PagedPoolFrees);
printf("NonPagedPoolFrees:\t%d\n",SystemPerfInfo.NonPagedPoolFress);
printf("SystemCodePage:\t\t%-10d\t",SystemPerfInfo.SystemCodePage);
printf("TotalSystemCodePage:\t%d\n",SystemPerfInfo.TotalSystemCodePages);
printf("TotalFreeSysPTE:\t%-10d\t",SystemPerfInfo.TotalFreeSystemPtes);
printf("TotalSystemDriverPages:\t%d\n",SystemPerfInfo.TotalSystemDriverPages
);
printf("PagedPoolPage:\t\t%-10d\t",SystemPerfInfo.PagedPoolPage);
printf("SystemDriverPage:\t%d\n",SystemPerfInfo.SystemDriverPage);
printf("FastReadWait:\t\t%-10d\t",SystemPerfInfo.FastReadWait);
printf("FastReadNoWait:\t\t%d\n",SystemPerfInfo.FastReadNoWait);
printf("FastReadNoPossible:\t%-10d\t",SystemPerfInfo.FastReadNotPossible);
printf("FastReadResourceMiss:\t%d\n",SystemPerfInfo.FastReadResourceMiss);
printf("FastMdlReadWait:\t%-10d\t",SystemPerfInfo.FastMdlReadWait);
printf("FastMdlReadNoWait:\t%d\n",SystemPerfInfo.FastMdlReadNoWait);
printf("FastMdlReadNotPossible:\t%-10d\t",SystemPerfInfo.FastMdlReadNotPossi
ble);
printf("FastMdlReadResourceMiss:%d\n",SystemPerfInfo.FastMdlReadResourceMiss
);
printf("MapDataWait:\t\t%-10d\t",SystemPerfInfo.MapDataWait);
printf("MapDataNoWait:\t\t%d\n",SystemPerfInfo.MapDataNoWait);
printf("MapDataWaitMiss:\t%-10d\t",SystemPerfInfo.MapDataWaitMiss);
printf("MapDataNoWaitMiss:\t%d\n",SystemPerfInfo.MapDataNoWaitMiss);
printf("ReadAheadIos:\t\t%-10d\t",SystemPerfInfo.ReadAheadIos);
printf("PinMappedDataCount:\t%d\n",SystemPerfInfo.PinMappedDataCount);
printf("PinReadWait:\t\t%-10d\t",SystemPerfInfo.PinReadWait);
printf("PinReadNoWait:\t\t%d\n",SystemPerfInfo.PinReadNoWait);
printf("PinReadWaitMiss:\t%-10d\t",SystemPerfInfo.PinReadWaitMiss);
printf("PinReadNoWaitMiss:\t%d\n",SystemPerfInfo.PinReadNoWaitMiss);
printf("CopyReadWait:\t\t%-10d\t",SystemPerfInfo.CopyReadWait);
printf("CopyReadNoWait:\t\t%d\n",SystemPerfInfo.CopyReadNoWait);
printf("CopyReadWaitMiss:\t%-10d\t",SystemPerfInfo.CopyReadWaitMiss);
printf("CopyReadNoWaitMiss:\t%-10d\n",SystemPerfInfo.CopyReadNoWaitMiss);
printf("MdlReadWait:\t\t%-10d\t",SystemPerfInfo.MdlReadWait);
printf("MdlReadNoWait:\t\t%d\n",SystemPerfInfo.MdlReadNoWait);
printf("MdlReadWaitMiss:\t%-10d\t",SystemPerfInfo.MdlReadWaitMiss);
printf("MdlReadNoWaitMiss:\t%d\n",SystemPerfInfo.MdlReadNoWaitMiss);
printf("LazyWriteIos:\t\t%-10d\t",SystemPerfInfo.LazyWriteIos);
printf("LazyWritePages:\t\t%d\n",SystemPerfInfo.LazyWritePages);
printf("DataPages:\t\t%-10d\t",SystemPerfInfo.DataPages);
printf("DataFlushes:\t\t%d\n",SystemPerfInfo.DataFlushes);
printf("FirstLevelTbFills:\t%-10d\t",SystemPerfInfo.FirstLevelTbFills);
printf("SecondLevelTbFills:\t%d\n",SystemPerfInfo.SecondLevelTbFills);
printf("ContextSwitches:\t%-10d\t",SystemPerfInfo.ContextSwitches);
printf("SytemCall:\t\t%d\n",SystemPerfInfo.SystemCall);
printf("MemorySystemCachePage:\t\t\t%d\n",SystemPerfInfo.MmSystemCachePage);
printf("SmallPagedLookasideListAllocateHits:\t%d\n",SystemPerfInfo.SmallPage
dLookasideListAllocateHits);
printf("SmallNonPagedLookasideListAllocateHits:\t%d\n",SystemPerfInfo.SmallN
onPagedLookasideListAllocateHits);
}
__finally
{
if(hNtDll != NULL)
{
FreeLibrary(hNtDll);
}
}
return 0;
}
DWORD ProcTime()
{
SYSTEM_PROCESSOR_TIMES SystemProcTime;
HMODULE hNtDll = NULL;
DWORD dwNumberBytes;
DWORD dwReturnLength;
NTSTATUS Status;
LONGLONG llTempTime;
__try
{
hNtDll = LoadLibrary("NtDll.dll");
if(hNtDll == NULL)
{
printf("LoadLibrary Error: %d\n",GetLastError());
__leave;
}
NtQuerySystemInformation = (NTQUERYSYSTEMINFORMATION)GetProcAddress(hNtDll,"
NtQuerySystemInformation");
if(NtQuerySystemInformation == NULL)
{
printf("GetProcAddress for NtQuerySystemInformation Error: %d\n",GetLastErr
or());
__leave;
}
dwNumberBytes = sizeof(SYSTEM_PROCESSOR_TIMES);
NtQuerySystemInformation = (NTQUERYSYSTEMINFORMATION)GetProcAddress(hNtDll,"
NtQuerySystemInformation");
if(NtQuerySystemInformation == NULL)
{
printf("GetProcAddress Error: %d\n",GetLastError());
__leave;
}
Status = NtQuerySystemInformation(SYSTEM_PROC_TIME,
&SystemProcTime,
dwNumberBytes,
&dwReturnLength);
if(Status != STATUS_SUCCESS)
{
printf("NtQuerySystemInformation for Processor Time Error: %d\n",GetLastErr
or());
__leave;
}
printf("IdleTime:\t\t");
llTempTime = SystemProcTime.IdleTime.QuadPart;
llTempTime /= 10000;
printf("%d:",llTempTime/(60*60*1000));
llTempTime %= 60*60*1000;
printf("%.2d:",llTempTime/(60*1000));
llTempTime %= 60*1000;
printf("%.2d.",llTempTime/1000);
llTempTime %= 1000;
printf("%.3d\n",llTempTime);
printf("KernelTime:\t\t");
llTempTime = SystemProcTime.KernelTime.QuadPart;
llTempTime /= 10000;
printf("%d:",llTempTime/(60*60*1000));
llTempTime %= 60*60*1000;
printf("%.2d:",llTempTime/(60*1000));
llTempTime %= 60*1000;
printf("%.2d.",llTempTime/1000);
llTempTime %= 1000;
printf("%.3d\n",llTempTime);
printf("UserTime:\t\t");
llTempTime = SystemProcTime.UserTime.QuadPart;
llTempTime /= 10000;
printf("%d:",llTempTime/(60*60*1000));
llTempTime %= 60*60*1000;
printf("%.2d:",llTempTime/(60*1000));
llTempTime %= 60*1000;
printf("%.2d.",llTempTime/1000);
llTempTime %= 1000;
printf("%.3d\n",llTempTime);
printf("DpcTime:\t\t");
llTempTime = SystemProcTime.DpcTime.QuadPart;
llTempTime /= 10000;
printf("%d:",llTempTime/(60*60*1000));
llTempTime %= 60*60*1000;
printf("%.2d:",llTempTime/(60*1000));
llTempTime %= 60*1000;
printf("%.2d.",llTempTime/1000);
llTempTime %= 1000;
printf("%.3d\n",llTempTime);
printf("InterruptTime:\t\t");
llTempTime = SystemProcTime.InterruptTime.QuadPart;
llTempTime /= 10000;
printf("%d:",llTempTime/(60*60*1000));
llTempTime %= 60*60*1000;
printf("%.2d:",llTempTime/(60*1000));
llTempTime %= 60*1000;
printf("%.2d.",llTempTime/1000);
llTempTime %= 1000;
printf("%.3d\n",llTempTime);
printf("InterruptCount:\t\t%d\n",SystemProcTime.InterruptCount);
}
__finally
{
if(hNtDll != NULL)
{
FreeLibrary(hNtDll);
}
}
return 0;
}
DWORD PagefileInfo()
{
PSYSTEM_PAGEFILE_INFORMATION pSystemPagefileInfo;
PVOID pBuffer;
HMODULE hNtDll = NULL;
DWORD dwNumberBytes;
DWORD dwReturnLength;
NTSTATUS Status;
__try
{
hNtDll = LoadLibrary("NtDll.dll");
if(hNtDll == NULL)
{
printf("LoadLibrary Error: %d\n",GetLastError());
__leave;
}
NtQuerySystemInformation = (NTQUERYSYSTEMINFORMATION)GetProcAddress(hNtDll,"
NtQuerySystemInformation");
if(NtQuerySystemInformation == NULL)
{
printf("GetProcAddress for NtQuerySystemInformation Error: %d\n",GetLastErr
or());
__leave;
}
dwNumberBytes = MAX_INFO_BUF_LEN;
pBuffer = (LPVOID)malloc(dwNumberBytes);
Status = NtQuerySystemInformation(SYSTEM_PAGE_INFO,
pBuffer,
dwNumberBytes,
&dwReturnLength);
if(Status != STATUS_SUCCESS)
{
printf("NtQuerySystemInformation for Pagefile Error: %d\n",GetLastError());
__leave;
}
pSystemPagefileInfo = (PSYSTEM_PAGEFILE_INFORMATION)pBuffer;
do
{
printf("CurrentPagefileSize:\t%d\n",pSystemPagefileInfo->CurrentSize);
printf("TotalPagefileUsed:\t%d\n",pSystemPagefileInfo->TotalUsed);
printf("PeakPagefileUsed:\t%d\n",pSystemPagefileInfo->PeakUsed);
wprintf(L"PagefileFileName:\t%s\n",pSystemPagefileInfo->FileName.Buffer);
pSystemPagefileInfo = (PSYSTEM_PAGEFILE_INFORMATION)((char *)pBuffer + pSys
temPagefileInfo->NetxEntryOffset);
}while(pSystemPagefileInfo->NetxEntryOffset != 0);
}
__finally
{
if(pBuffer != NULL)
{
free(pBuffer);
}
if(hNtDll != NULL)
{
FreeLibrary(hNtDll);
}
}
return 0;
}
DWORD CacheInfo()
{
SYSTEM_CACHE_INFORMATION SystemCacheInfo;
HMODULE hNtDll = NULL;
DWORD dwNumberBytes;
DWORD dwReturnLength;
NTSTATUS Status;
__try
{
hNtDll = LoadLibrary("NtDll.dll");
if(hNtDll == NULL)
{
printf("LoadLibrary Error: %d\n",GetLastError());
__leave;
}
NtQuerySystemInformation = (NTQUERYSYSTEMINFORMATION)GetProcAddress(hNtDll,"NtQuerySystemInformation");
if(NtQuerySystemInformation == NULL)
{
printf("GetProcAddress for NtQuerySystemInformation Error: %d\n",GetLastError());
__leave;
}
dwNumberBytes = sizeof(SYSTEM_CACHE_INFORMATION);
Status = NtQuerySystemInformation(SYSTEM_CACHE_INFO,
&SystemCacheInfo,dwNumberBytes,&dwReturnLength);
if(Status != STATUS_SUCCESS)
{
printf("NtQuerySystemInformation for Cache Error: %d\n",GetLastError());
__leave;
}
printf("CacheWorkingSetSize:\t\t%d(KB)\n",SystemCacheInfo.SystemCacheWsSize1024);
printf("CacheWorkingSetPeakSize:\t%d(KB)\n",SystemCacheInfo.SystemCacheWsPeakSize/1024);
printf("CacheWorkingSetFaults:\t\t%d\n",SystemCacheInfo.SystemCacheWsFaults);
printf("CacheWorkingSetMinimum:\t\t%d\n",SystemCacheInfo.SystemCacheWsMinimum);
printf("CacheWorkingSetMaximum:\t\t%d\n",SystemCacheInfo.SystemCacheWsMaximum);
printf("TransitionSharedPages:\t\t%d\n",SystemCacheInfo.TransitionSharedPages);
printf("TransitionSharedPagesPeak:\t%d\n",SystemCacheInfo.TransitionSharedPagesPeak);
}__finally
{
if(hNtDll != NULL)
{
FreeLibrary(hNtDll);
}
}
return 0;
}
VOID Start()
{
printf("T-PMPerf, by TOo2y\n");
printf("E-mail: TOo2y@safechina.net\n");
printf("HomePage: www.safechina.net\n");
printf("Date: 05-09-2003\n\n");
return ;
}
VOID Usage()
{
printf("Usage:\tT-PMPerf <Option>\n");
printf("Option:\n");
printf(" -Perf System Performance Information\n");
printf(" -Proc System Processor Information\n");
printf(" -Page System Pagefile Information\n");
printf(" -Cache System Cache Information\n");
return ;
}
#endif
http://www.cnblogs.com/-clq/archive/2012/03/15/2397492.html
NtQuerySystemInformation的使用(提供50余种信息)的更多相关文章
- VMWare提供了三种工作模式上网
VMWare提供了三种工作模式,它们是bridged(桥接模式).NAT(网络地址转换模式)和host-only(主机模式).要想在网络管理和维护中合理应用它们,你就应该先了解一下这三种工作模式. 1 ...
- Windows提供了两种将DLL映像到进程地址空间的方法(隐式和显式)
调用DLL,首先需要将DLL文件映像到用户进程的地址空间中,然后才能进行函数调用,这个函数和进程内部一般函数的调用方法相同.Windows提供了两种将DLL映像到进程地址空间的方法: 1. 隐式的加载 ...
- Windows提供了两种将DLL映像到进程地址空间的方法
调用DLL,首先需要将DLL文件映像到用户进程的地址空间中,然后才能进行函数调用,这个函数和进程内部一般函数的调用方法相同.Windows提供了两种将DLL映像到进程地址空间的方法: 1. 隐式的加载 ...
- vmware为我们提供了三种网络工作模式,它们分别是:Bridged(桥接模式)、NAT(网络地址转换模式)、Host-Only(仅主机模式)。
原文来自http://note.youdao.com/share/web/file.html?id=236896997b6ffbaa8e0d92eacd13abbf&type=note 我怕链 ...
- JNDI提供了一种统一的方式,可以用在网络上查找和访问服务
JNDI提供了一种统一的方式,可以用在网络上查找和访问服务.通过指定一个资源名称,该名称对应于数据库或命名服务中的一个记录,同时返回数据库连接建立所必须的信息. JNDI主要有两部分组成:应用程序编程 ...
- Freemarker提供了3种加载模板目录的方法
Freemarker提供了3种加载模板目录的方法 原创 2016年08月24日 14:50:13 标签: freemarker / Configuration 8197 Freemarker提供了3种 ...
- form提供的两种数据传输方式 get和post method=”post“和method=”get”
虽然它们都是数据的提交方式,但是在实际传输时确有很大的不同,并且可能会对数据产生严重的影响.虽然为了方便的得到变量值,Web容器已经屏蔽了二者的一些差异,但是了解二者的差异在以后的编程也会很有帮助的. ...
- 小迪安全 Web安全 基础入门 - 第四天 - 30余种加密编码进制&Web&数据库&系统&代码&参数值
一.密码存储加密 1.MD5值是32或16位由数字"0-9"和字母"a-f"所组成的字符串 2.SHA1加密的密文特征与MD5类似,但位数是40位 3.NTLM ...
- oracle数据库中提供的5种约束
约束作用:用来保持数据的完整性,防止无效数据进入到数据库中.oracle数据库中提供的5种约束,都是限定某个列或者列的组合的.1.主键约束(PRIMARY KEY):在一个表中能唯一的标识一行.主键可 ...
随机推荐
- android 13 5种click事件不同实现方式 比较
第一种:不便于管理. <Button android:id="@+id/btn_Gridlayout" android:layout_width="match_pa ...
- LINUX 中的 TCP/IP协议 参数详解
Ipsysctl tutorial 1.0.4 Prev Chapter 3. IPv4 variable reference Next https://www.frozentux.net/ipsys ...
- WCF - 绑定
从整个基础架构来看 WCF可分为服务模型层和信道层 模型层提供了一个统一的可扩展的编程模型 而信道层提供了对请求信息的接收和处理 而作为WCF通信的三要素之一的绑定 是它实现了组成整个信道层的信道栈 ...
- iOS-UIScrollView的delaysContentTouches与canCencelContentTouches属性
UIScrollView工作原理 在滚动过程当中,其实是在修改原点坐标 UIScrollView有一个BOOL类型的tracking属性,用来返回用户是否已经触及内容并打算开始滚动,我们从这个属性开始 ...
- CSS块级元素、内联元素概念
CSS文档流与块级元素(block).内联元素(inline),之前翻阅不少书籍,看过不少文章, 看到所多的是零碎的CSS布局基本知识,比较表面.看过O'Reilly的<CSS权威指南>, ...
- Java基础知识强化08:将字符串倒序输出(包括空格)的几种方法
1.最容易想到的估计就是利用String类的toCharArray(),再倒序输出数组的方法了: package himi.hebao05; public class TestDemo02 { pub ...
- java 基本类型和包装类的比较
public class BoxingTest { @Test public void test1(){ String a = new String("1"); String b ...
- Bat命令知识[转]
基础部分: 一.基础语法: 1.批处理文件是一个".bat"结尾的文本文件,这个文件的每一行都是一条DOS命令.可以使用任何文本文件编辑工具创建和修改. 2.批处理是一种简单的程序 ...
- Android之获取本地图片并压缩方法
这两天在做项目时,做到上传图片功能一块时,碰到两个问题,一个是如何获取所选图片的路径,一个是如何压缩图片,在查了一些资料和看了别人写的后总算折腾出来了,在此记录一下. 首先既然要选择图片,我们就先要获 ...
- 【转】 CoreGraphics QuartzCore CGContextTranslateCTM 用法
原文:http://blog.csdn.net/sqc3375177/article/details/25708447 CoreGraphics.h 一些常用旋转常量 #define M_E 2.71 ...