//------------------------------------------------------------------------------
//
// Copyright (c) Microsoft Corporation. All rights reserved.
//
//------------------------------------------------------------------------------
#if MONO
#undef FEATURE_PAL
#endif
namespace System.Diagnostics {
using System.Text;
using System.Threading;
using System.Runtime.InteropServices;
using System.ComponentModel;
using System.ComponentModel.Design;
using System.Runtime.CompilerServices;
using System.Runtime.ConstrainedExecution;
using System.Diagnostics;
using System;
using System.Collections;
using System.IO;
using Microsoft.Win32;
using Microsoft.Win32.SafeHandles;
using System.Collections.Specialized;
using System.Globalization;
using System.Security;
using System.Security.Permissions;
using System.Security.Principal;
using System.Runtime.Versioning;
///
///
/// Provides access to local and remote
/// processes. Enables you to start and stop system processes.
///
///
[
MonitoringDescription(SR.ProcessDesc),
DefaultEvent("Exited"),
DefaultProperty("StartInfo"),
Designer("System.Diagnostics.Design.ProcessDesigner, " + AssemblyRef.SystemDesign),
// Disabling partial trust scenarios
PermissionSet(SecurityAction.LinkDemand, Name="FullTrust"),
PermissionSet(SecurityAction.InheritanceDemand, Name="FullTrust"),
HostProtection(SharedState=true, Synchronization=true, ExternalProcessMgmt=true, SelfAffectingProcessMgmt=true)
]
public partial class Process : Component {
//
// FIELDS
//
bool haveProcessId;
int processId;
bool haveProcessHandle;
SafeProcessHandle m_processHandle;
bool isRemoteMachine;
string machineName;
#if !MONO
ProcessInfo processInfo;
#endif
Int32 m_processAccess;
#if !FEATURE_PAL
ProcessThreadCollection threads;
ProcessModuleCollection modules;
#endif // !FEATURE_PAL
bool haveMainWindow;
IntPtr mainWindowHandle; // no need to use SafeHandle for window
string mainWindowTitle;
bool haveWorkingSetLimits;
IntPtr minWorkingSet;
IntPtr maxWorkingSet;
bool haveProcessorAffinity;
IntPtr processorAffinity;
bool havePriorityClass;
ProcessPriorityClass priorityClass;
ProcessStartInfo startInfo;
bool watchForExit;
bool watchingForExit;
EventHandler onExited;
bool exited;
int exitCode;
bool signaled;
DateTime exitTime;
bool haveExitTime;
#if !MONO
bool responding;
bool haveResponding;
bool priorityBoostEnabled;
bool havePriorityBoostEnabled;
#endif
bool raisedOnExited;
RegisteredWaitHandle registeredWaitHandle;
WaitHandle waitHandle;
ISynchronizeInvoke synchronizingObject;
StreamReader standardOutput;
StreamWriter standardInput;
StreamReader standardError;
OperatingSystem operatingSystem;
bool disposed;
#if !MONO
static object s_CreateProcessLock = new object();
#endif
// This enum defines the operation mode for redirected process stream.
// We don't support switching between synchronous mode and asynchronous mode.
private enum StreamReadMode
{
undefined,
syncMode,
asyncMode
}
StreamReadMode outputStreamReadMode;
StreamReadMode errorStreamReadMode;
#if MONO
StreamReadMode inputStreamReadMode;
#endif
// Support for asynchrously reading streams
[Browsable(true), MonitoringDescription(SR.ProcessAssociated)]
//[System.Runtime.InteropServices.ComVisible(false)]
public event DataReceivedEventHandler OutputDataReceived;
[Browsable(true), MonitoringDescription(SR.ProcessAssociated)]
//[System.Runtime.InteropServices.ComVisible(false)]
public event DataReceivedEventHandler ErrorDataReceived;
// Abstract the stream details
internal AsyncStreamReader output;
internal AsyncStreamReader error;
internal bool pendingOutputRead;
internal bool pendingErrorRead;
#if !MONO
private static SafeFileHandle InvalidPipeHandle = new SafeFileHandle(IntPtr.Zero, false);
#endif
#if DEBUG
internal static TraceSwitch processTracing = new TraceSwitch("processTracing", "Controls debug output from Process component");
#else
internal static TraceSwitch processTracing = null;
#endif
//
// CONSTRUCTORS
//
///
///
/// Initializes a new instance of the class.
///
///
public Process() {
this.machineName = ".";
this.outputStreamReadMode = StreamReadMode.undefined;
this.errorStreamReadMode = StreamReadMode.undefined;
this.m_processAccess = NativeMethods.PROCESS_ALL_ACCESS;
}
[ResourceExposure(ResourceScope.Machine)]
Process(string machineName, bool isRemoteMachine, int processId, ProcessInfo processInfo) : base() {
Debug.Assert(SyntaxCheck.CheckMachineName(machineName), "The machine name should be valid!");
#if !MONO
this.processInfo = processInfo;
#endif
this.machineName = machineName;
this.isRemoteMachine = isRemoteMachine;
this.processId = processId;
this.haveProcessId = true;
this.outputStreamReadMode = StreamReadMode.undefined;
this.errorStreamReadMode = StreamReadMode.undefined;
this.m_processAccess = NativeMethods.PROCESS_ALL_ACCESS;
}
//
// PROPERTIES
//
///
/// Returns whether this process component is associated with a real process.
///
///
[Browsable(false), DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessAssociated)]
bool Associated {
get {
return haveProcessId || haveProcessHandle;
}
}
#if !FEATURE_PAL && !MONO
///
///
/// Gets the base priority of
/// the associated process.
///
///
[DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessBasePriority)]
public int BasePriority {
get {
EnsureState(State.HaveProcessInfo);
return processInfo.basePriority;
}
}
#endif // !FEATURE_PAL && !MONO
///
///
/// Gets
/// the
/// value that was specified by the associated process when it was terminated.
///
///
[Browsable(false),DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessExitCode)]
public int ExitCode {
get {
EnsureState(State.Exited);
#if MONO
if (exitCode == -1)
throw new InvalidOperationException ("Cannot get the exit code from a non-child process on Unix");
#endif
return exitCode;
}
}
///
///
/// Gets a
/// value indicating whether the associated process has been terminated.
///
///
[Browsable(false), DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessTerminated)]
public bool HasExited {
get {
if (!exited) {
EnsureState(State.Associated);
SafeProcessHandle handle = null;
try {
handle = GetProcessHandle(NativeMethods.PROCESS_QUERY_INFORMATION | NativeMethods.SYNCHRONIZE, false);
if (handle.IsInvalid) {
exited = true;
}
else {
int exitCode;
// Although this is the wrong way to check whether the process has exited,
// it was historically the way we checked for it, and a lot of code then took a dependency on
// the fact that this would always be set before the pipes were closed, so they would read
// the exit code out after calling ReadToEnd() or standard output or standard error. In order
// to allow 259 to function as a valid exit code and to break as few people as possible that
// took the ReadToEnd dependency, we check for an exit code before doing the more correct
// check to see if we have been signalled.
if (NativeMethods.GetExitCodeProcess(handle, out exitCode) && exitCode != NativeMethods.STILL_ACTIVE) {
this.exited = true;
this.exitCode = exitCode;
}
else {
// The best check for exit is that the kernel process object handle is invalid,
// or that it is valid and signaled. Checking if the exit code != STILL_ACTIVE
// does not guarantee the process is closed,
// since some process could return an actual STILL_ACTIVE exit code (259).
if (!signaled) // if we just came from WaitForExit, don't repeat
{
ProcessWaitHandle wh = null;
try
{
wh = new ProcessWaitHandle(handle);
this.signaled = wh.WaitOne(0, false);
}
finally
{
if (wh != null)
wh.Close();
}
}
if (signaled)
{
/* If it's a non-child process, it's impossible to get its exit code on
* Unix. We don't throw here, but GetExitCodeProcess (in the io-layer)
* will set exitCode to -1, and we will throw if we try to call ExitCode */
if (!NativeMethods.GetExitCodeProcess(handle, out exitCode))
throw new Win32Exception();
this.exited = true;
this.exitCode = exitCode;
}
}
}
}
finally
{
ReleaseProcessHandle(handle);
}
if (exited) {
RaiseOnExited();
}
}
return exited;
}
}
private ProcessThreadTimes GetProcessTimes() {
ProcessThreadTimes processTimes = new ProcessThreadTimes();
SafeProcessHandle handle = null;
try {
int access = NativeMethods.PROCESS_QUERY_INFORMATION;
if (EnvironmentHelpers.IsWindowsVistaOrAbove())
access = NativeMethods.PROCESS_QUERY_LIMITED_INFORMATION;
handle = GetProcessHandle(access, false);
if( handle.IsInvalid) {
// On OS older than XP, we will not be able to get the handle for a process
// after it terminates.
// On Windows XP and newer OS, the information about a process will stay longer.
throw new InvalidOperationException(SR.GetString(SR.ProcessHasExited, processId.ToString(CultureInfo.CurrentCulture)));
}
if (!NativeMethods.GetProcessTimes(handle,
out processTimes.create,
out processTimes.exit,
out processTimes.kernel,
out processTimes.user)) {
throw new Win32Exception();
}
}
finally {
ReleaseProcessHandle(handle);
}
return processTimes;
}
#if !FEATURE_PAL
///
///
/// Gets the time that the associated process exited.
///
///
[Browsable(false), DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessExitTime)]
public DateTime ExitTime {
get {
if (!haveExitTime) {
EnsureState(State.IsNt | State.Exited);
exitTime = GetProcessTimes().ExitTime;
haveExitTime = true;
}
return exitTime;
}
}
#endif // !FEATURE_PAL
///
///
/// Returns the native handle for the associated process. The handle is only available
/// if this component started the process.
///
///
[Browsable(false), DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessHandle)]
public IntPtr Handle {
[ResourceExposure(ResourceScope.Machine)]
[ResourceConsumption(ResourceScope.Machine)]
get {
EnsureState(State.Associated);
return OpenProcessHandle(this.m_processAccess).DangerousGetHandle();
}
}
[Browsable(false), DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden)]
public SafeProcessHandle SafeHandle {
get {
EnsureState(State.Associated);
return OpenProcessHandle(this.m_processAccess);
}
}
#if !FEATURE_PAL && !MONO
///
///
/// Gets the number of handles that are associated
/// with the process.
///
///
[DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessHandleCount)]
public int HandleCount {
get {
EnsureState(State.HaveProcessInfo);
return processInfo.handleCount;
}
}
#endif // !FEATURE_PAL && !MONO
///
///
/// Gets
/// the unique identifier for the associated process.
///
///
[DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessId)]
public int Id {
get {
EnsureState(State.HaveId);
return processId;
}
}
///
///
/// Gets
/// the name of the computer on which the associated process is running.
///
///
[Browsable(false), DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessMachineName)]
public string MachineName {
get {
EnsureState(State.Associated);
return machineName;
}
}
#if !FEATURE_PAL
#if !MONO
///
///
/// Returns the window handle of the main window of the associated process.
///
///
[DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessMainWindowHandle)]
public IntPtr MainWindowHandle {
[ResourceExposure(ResourceScope.Machine)]
[ResourceConsumption(ResourceScope.Machine)]
get {
if (!haveMainWindow) {
EnsureState(State.IsLocal | State.HaveId);
mainWindowHandle = ProcessManager.GetMainWindowHandle(processId);
if (mainWindowHandle != (IntPtr)0) {
haveMainWindow = true;
} else {
// We do the following only for the side-effect that it will throw when if the process no longer exists on the system. In Whidbey
// we always did this check but have now changed it to just require a ProcessId. In the case where someone has called Refresh()
// and the process has exited this call will throw an exception where as the above code would return 0 as the handle.
EnsureState(State.HaveProcessInfo);
}
}
return mainWindowHandle;
}
}
///
///
/// Returns the caption of the of
/// the process. If the handle is zero (0), then an empty string is returned.
///
///
[DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessMainWindowTitle)]
public string MainWindowTitle {
[ResourceExposure(ResourceScope.None)]
[ResourceConsumption(ResourceScope.Machine, ResourceScope.Machine)]
get {
if (mainWindowTitle == null) {
IntPtr handle = MainWindowHandle;
if (handle == (IntPtr)0) {
mainWindowTitle = String.Empty;
}
else {
int length = NativeMethods.GetWindowTextLength(new HandleRef(this, handle)) * 2;
StringBuilder builder = new StringBuilder(length);
NativeMethods.GetWindowText(new HandleRef(this, handle), builder, builder.Capacity);
mainWindowTitle = builder.ToString();
}
}
return mainWindowTitle;
}
}
///
///
/// Gets
/// the main module for the associated process.
///
///
[Browsable(false), DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessMainModule)]
public ProcessModule MainModule {
[ResourceExposure(ResourceScope.Process)]
[ResourceConsumption(ResourceScope.Machine, ResourceScope.Machine)]
get {
// We only return null if we couldn't find a main module.
// This could be because
// 1. The process hasn't finished loading the main module (most likely)
// 2. There are no modules loaded (possible for certain OS processes)
// 3. Possibly other?
if (OperatingSystem.Platform == PlatformID.Win32NT) {
EnsureState(State.HaveId | State.IsLocal);
// on NT the first module is the main module
ModuleInfo module = NtProcessManager.GetFirstModuleInfo(processId);
return new ProcessModule(module);
}
else {
ProcessModuleCollection moduleCollection = Modules;
// on 9x we have to do a little more work
EnsureState(State.HaveProcessInfo);
foreach (ProcessModule pm in moduleCollection) {
if (pm.moduleInfo.Id == processInfo.mainModuleId) {
return pm;
}
}
return null;
}
}
}
#endif
///
///
/// Gets or sets the maximum allowable working set for the associated
/// process.
///
///
[DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessMaxWorkingSet)]
public IntPtr MaxWorkingSet {
get {
EnsureWorkingSetLimits();
return maxWorkingSet;
}
[ResourceExposure(ResourceScope.Process)]
[ResourceConsumption(ResourceScope.Process)]
set {
SetWorkingSetLimits(null, value);
}
}
///
///
/// Gets or sets the minimum allowable working set for the associated
/// process.
///
///
[DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessMinWorkingSet)]
public IntPtr MinWorkingSet {
get {
EnsureWorkingSetLimits();
return minWorkingSet;
}
[ResourceExposure(ResourceScope.Process)]
[ResourceConsumption(ResourceScope.Process)]
set {
SetWorkingSetLimits(value, null);
}
}
#if !MONO
///
///
/// Gets
/// the modules that have been loaded by the associated process.
///
///
[Browsable(false), DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessModules)]
public ProcessModuleCollection Modules {
[ResourceExposure(ResourceScope.None)]
[ResourceConsumption(ResourceScope.Machine, ResourceScope.Machine)]
get {
if (modules == null) {
EnsureState(State.HaveId | State.IsLocal);
ModuleInfo[] moduleInfos = ProcessManager.GetModuleInfos(processId);
ProcessModule[] newModulesArray = new ProcessModule[moduleInfos.Length];
for (int i = 0; i < moduleInfos.Length; i++) {
newModulesArray[i] = new ProcessModule(moduleInfos[i]);
}
ProcessModuleCollection newModules = new ProcessModuleCollection(newModulesArray);
modules = newModules;
}
return modules;
}
}
///
/// Returns the amount of memory that the system has allocated on behalf of the
/// associated process that can not be written to the virtual memory paging file.
///
[Obsolete("This property has been deprecated. Please use System.Diagnostics.Process.NonpagedSystemMemorySize64 instead. http://go.microsoft.com/fwlink/?linkid=14202")]
[DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessNonpagedSystemMemorySize)]
public int NonpagedSystemMemorySize {
get {
EnsureState(State.HaveNtProcessInfo);
return unchecked((int)processInfo.poolNonpagedBytes);
}
}
[DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessNonpagedSystemMemorySize)]
[System.Runtime.InteropServices.ComVisible(false)]
public long NonpagedSystemMemorySize64 {
get {
EnsureState(State.HaveNtProcessInfo);
return processInfo.poolNonpagedBytes;
}
}
///
/// Returns the amount of memory that the associated process has allocated
/// that can be written to the virtual memory paging file.
///
[Obsolete("This property has been deprecated. Please use System.Diagnostics.Process.PagedMemorySize64 instead. http://go.microsoft.com/fwlink/?linkid=14202")]
[DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessPagedMemorySize)]
public int PagedMemorySize {
get {
EnsureState(State.HaveNtProcessInfo);
return unchecked((int)processInfo.pageFileBytes);
}
}
[DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessPagedMemorySize)]
[System.Runtime.InteropServices.ComVisible(false)]
public long PagedMemorySize64 {
get {
EnsureState(State.HaveNtProcessInfo);
return processInfo.pageFileBytes;
}
}
///
/// Returns the amount of memory that the system has allocated on behalf of the
/// associated process that can be written to the virtual memory paging file.
///
[Obsolete("This property has been deprecated. Please use System.Diagnostics.Process.PagedSystemMemorySize64 instead. http://go.microsoft.com/fwlink/?linkid=14202")]
[DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessPagedSystemMemorySize)]
public int PagedSystemMemorySize {
get {
EnsureState(State.HaveNtProcessInfo);
return unchecked((int)processInfo.poolPagedBytes);
}
}
[DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessPagedSystemMemorySize)]
[System.Runtime.InteropServices.ComVisible(false)]
public long PagedSystemMemorySize64 {
get {
EnsureState(State.HaveNtProcessInfo);
return processInfo.poolPagedBytes;
}
}
///
///
/// Returns the maximum amount of memory that the associated process has
/// allocated that could be written to the virtual memory paging file.
///
///
[Obsolete("This property has been deprecated. Please use System.Diagnostics.Process.PeakPagedMemorySize64 instead. http://go.microsoft.com/fwlink/?linkid=14202")]
[DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessPeakPagedMemorySize)]
public int PeakPagedMemorySize {
get {
EnsureState(State.HaveNtProcessInfo);
return unchecked((int)processInfo.pageFileBytesPeak);
}
}
[DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessPeakPagedMemorySize)]
[System.Runtime.InteropServices.ComVisible(false)]
public long PeakPagedMemorySize64 {
get {
EnsureState(State.HaveNtProcessInfo);
return processInfo.pageFileBytesPeak;
}
}
///
///
/// Returns the maximum amount of physical memory that the associated
/// process required at once.
///
///
[Obsolete("This property has been deprecated. Please use System.Diagnostics.Process.PeakWorkingSet64 instead. http://go.microsoft.com/fwlink/?linkid=14202")]
[DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessPeakWorkingSet)]
public int PeakWorkingSet {
get {
EnsureState(State.HaveNtProcessInfo);
return unchecked((int)processInfo.workingSetPeak);
}
}
[DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessPeakWorkingSet)]
[System.Runtime.InteropServices.ComVisible(false)]
public long PeakWorkingSet64 {
get {
EnsureState(State.HaveNtProcessInfo);
return processInfo.workingSetPeak;
}
}
///
/// Returns the maximum amount of virtual memory that the associated
/// process has requested.
///
[Obsolete("This property has been deprecated. Please use System.Diagnostics.Process.PeakVirtualMemorySize64 instead. http://go.microsoft.com/fwlink/?linkid=14202")]
[DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessPeakVirtualMemorySize)]
public int PeakVirtualMemorySize {
get {
EnsureState(State.HaveNtProcessInfo);
return unchecked((int)processInfo.virtualBytesPeak);
}
}
[DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessPeakVirtualMemorySize)]
[System.Runtime.InteropServices.ComVisible(false)]
public long PeakVirtualMemorySize64 {
get {
EnsureState(State.HaveNtProcessInfo);
return processInfo.virtualBytesPeak;
}
}
#endif
private OperatingSystem OperatingSystem {
get {
if (operatingSystem == null) {
operatingSystem = Environment.OSVersion;
}
return operatingSystem;
}
}
#if !MONO
///
///
/// Gets or sets a value indicating whether the associated process priority
/// should be temporarily boosted by the operating system when the main window
/// has focus.
///
///
[DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessPriorityBoostEnabled)]
public bool PriorityBoostEnabled {
get {
EnsureState(State.IsNt);
if (!havePriorityBoostEnabled) {
SafeProcessHandle handle = null;
try {
handle = GetProcessHandle(NativeMethods.PROCESS_QUERY_INFORMATION);
bool disabled = false;
if (!NativeMethods.GetProcessPriorityBoost(handle, out disabled)) {
throw new Win32Exception();
}
priorityBoostEnabled = !disabled;
havePriorityBoostEnabled = true;
}
finally {
ReleaseProcessHandle(handle);
}
}
return priorityBoostEnabled;
}
set {
EnsureState(State.IsNt);
SafeProcessHandle handle = null;
try {
handle = GetProcessHandle(NativeMethods.PROCESS_SET_INFORMATION);
if (!NativeMethods.SetProcessPriorityBoost(handle, !value))
throw new Win32Exception();
priorityBoostEnabled = value;
havePriorityBoostEnabled = true;
}
finally {
ReleaseProcessHandle(handle);
}
}
}
#endif
///
///
/// Gets or sets the overall priority category for the
/// associated process.
///
///
[DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessPriorityClass)]
public ProcessPriorityClass PriorityClass {
get {
if (!havePriorityClass) {
SafeProcessHandle handle = null;
try {
handle = GetProcessHandle(NativeMethods.PROCESS_QUERY_INFORMATION);
int value = NativeMethods.GetPriorityClass(handle);
if (value == 0) {
throw new Win32Exception();
}
priorityClass = (ProcessPriorityClass)value;
havePriorityClass = true;
}
finally {
ReleaseProcessHandle(handle);
}
}
return priorityClass;
}
[ResourceExposure(ResourceScope.Machine)]
[ResourceConsumption(ResourceScope.Machine)]
set {
if (!Enum.IsDefined(typeof(ProcessPriorityClass), value)) {
throw new InvalidEnumArgumentException("value", (int)value, typeof(ProcessPriorityClass));
}
#if !MONO
// BelowNormal and AboveNormal are only available on Win2k and greater.
if (((value & (ProcessPriorityClass.BelowNormal | ProcessPriorityClass.AboveNormal)) != 0) &&
(OperatingSystem.Platform != PlatformID.Win32NT || OperatingSystem.Version.Major < 5)) {
throw new PlatformNotSupportedException(SR.GetString(SR.PriorityClassNotSupported), null);
}
#endif // !MONO
SafeProcessHandle handle = null;
try {
handle = GetProcessHandle(NativeMethods.PROCESS_SET_INFORMATION);
if (!NativeMethods.SetPriorityClass(handle, (int)value)) {
throw new Win32Exception();
}
priorityClass = value;
havePriorityClass = true;
}
finally {
ReleaseProcessHandle(handle);
}
}
}
#if !MONO
///
/// Returns the number of bytes that the associated process has allocated that cannot
/// be shared with other processes.
///
[Obsolete("This property has been deprecated. Please use System.Diagnostics.Process.PrivateMemorySize64 instead. http://go.microsoft.com/fwlink/?linkid=14202")]
[DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessPrivateMemorySize)]
public int PrivateMemorySize {
get {
EnsureState(State.HaveNtProcessInfo);
return unchecked((int)processInfo.privateBytes);
}
}
[DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessPrivateMemorySize)]
[System.Runtime.InteropServices.ComVisible(false)]
public long PrivateMemorySize64 {
get {
EnsureState(State.HaveNtProcessInfo);
return processInfo.privateBytes;
}
}
#endif
///
/// Returns the amount of time the process has spent running code inside the operating
/// system core.
///
[DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessPrivilegedProcessorTime)]
public TimeSpan PrivilegedProcessorTime {
get {
EnsureState(State.IsNt);
return GetProcessTimes().PrivilegedProcessorTime;
}
}
#if !MONO
///
///
/// Gets
/// the friendly name of the process.
///
///
[DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessProcessName)]
public string ProcessName {
[ResourceExposure(ResourceScope.None)]
[ResourceConsumption(ResourceScope.Process, ResourceScope.Process)]
get {
EnsureState(State.HaveProcessInfo);
String processName = processInfo.processName;
//
// On some old NT-based OS like win2000, the process name from NTQuerySystemInformation is up to 15 characters.
// Processes executing notepad_1234567.exe and notepad_12345678.exe will have the same process name.
// GetProcessByNames will not be able find the process for notepad_12345678.exe.
// So we will try to replace the name of the process by its main module name if the name is 15 characters.
// However we can't always get the module name:
// (1) Normal user will not be able to get module information about processes.
// (2) We can't get module information about remoting process.
// We can't get module name for a remote process
//
if (processName.Length == 15 && ProcessManager.IsNt && ProcessManager.IsOSOlderThanXP && !isRemoteMachine) {
try {
String mainModuleName = MainModule.ModuleName;
if (mainModuleName != null) {
processInfo.processName = Path.ChangeExtension(Path.GetFileName(mainModuleName), null);
}
}
catch(Exception) {
// If we can't access the module information, we can still use the might-be-truncated name.
// We could fail for a few reasons:
// (1) We don't enough privilege to get module information.
// (2) The process could have terminated.
}
}
return processInfo.processName;
}
}
///
///
/// Gets
/// or sets which processors the threads in this process can be scheduled to run on.
///
///
[DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessProcessorAffinity)]
public IntPtr ProcessorAffinity {
get {
if (!haveProcessorAffinity) {
SafeProcessHandle handle = null;
try {
handle = GetProcessHandle(NativeMethods.PROCESS_QUERY_INFORMATION);
IntPtr processAffinity;
IntPtr systemAffinity;
if (!NativeMethods.GetProcessAffinityMask(handle, out processAffinity, out systemAffinity))
throw new Win32Exception();
processorAffinity = processAffinity;
}
finally {
ReleaseProcessHandle(handle);
}
haveProcessorAffinity = true;
}
return processorAffinity;
}
[ResourceExposure(ResourceScope.Machine)]
[ResourceConsumption(ResourceScope.Machine)]
set {
SafeProcessHandle handle = null;
try {
handle = GetProcessHandle(NativeMethods.PROCESS_SET_INFORMATION);
if (!NativeMethods.SetProcessAffinityMask(handle, value))
throw new Win32Exception();
processorAffinity = value;
haveProcessorAffinity = true;
}
finally {
ReleaseProcessHandle(handle);
}
}
}
///
///
/// Gets a value indicating whether or not the user
/// interface of the process is responding.
///
///
[DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessResponding)]
public bool Responding {
[ResourceExposure(ResourceScope.None)]
[ResourceConsumption(ResourceScope.Machine, ResourceScope.Machine)]
get {
if (!haveResponding) {
IntPtr mainWindow = MainWindowHandle;
if (mainWindow == (IntPtr)0) {
responding = true;
}
else {
IntPtr result;
responding = NativeMethods.SendMessageTimeout(new HandleRef(this, mainWindow), NativeMethods.WM_NULL, IntPtr.Zero, IntPtr.Zero, NativeMethods.SMTO_ABORTIFHUNG, 5000, out result) != (IntPtr)0;
}
}
return responding;
}
}
[DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessSessionId)]
public int SessionId {
get {
EnsureState(State.HaveNtProcessInfo);
return processInfo.sessionId;
}
}
#endif // !MONO
#endif // !FEATURE_PAL
#if MONO_FEATURE_PROCESS_START
///
///
/// Gets or sets the properties to pass into the method for the
/// .
///
///
[Browsable(false), DesignerSerializationVisibility(DesignerSerializationVisibility.Content), MonitoringDescription(SR.ProcessStartInfo)]
public ProcessStartInfo StartInfo {
get {
if (startInfo == null) {
startInfo = new ProcessStartInfo(this);
}
return startInfo;
}
[ResourceExposure(ResourceScope.Machine)]
set {
if (value == null) {
throw new ArgumentNullException("value");
}
startInfo = value;
}
}
#endif
#if !FEATURE_PAL
///
/// Returns the time the associated process was started.
///
[DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessStartTime)]
public DateTime StartTime {
get {
EnsureState(State.IsNt);
return GetProcessTimes().StartTime;
}
}
#endif // !FEATURE_PAL
///
/// Represents the object used to marshal the event handler
/// calls issued as a result of a Process exit. Normally
/// this property will be set when the component is placed
/// inside a control or a from, since those components are
/// bound to a specific thread.
///
[
Browsable(false),
DefaultValue(null),
MonitoringDescription(SR.ProcessSynchronizingObject)
]
public ISynchronizeInvoke SynchronizingObject {
get {
if (this.synchronizingObject == null && DesignMode) {
IDesignerHost host = (IDesignerHost)GetService(typeof(IDesignerHost));
if (host != null) {
object baseComponent = host.RootComponent;
if (baseComponent != null && baseComponent is ISynchronizeInvoke)
this.synchronizingObject = (ISynchronizeInvoke)baseComponent;
}
}
return this.synchronizingObject;
}
set {
this.synchronizingObject = value;
}
}
#if !FEATURE_PAL
#if !MONO
///
///
/// Gets the set of threads that are running in the associated
/// process.
///
///
[Browsable(false), DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessThreads)]
public ProcessThreadCollection Threads {
[ResourceExposure(ResourceScope.Process)]
[ResourceConsumption(ResourceScope.Process)]
get {
if (threads == null) {
EnsureState(State.HaveProcessInfo);
int count = processInfo.threadInfoList.Count;
ProcessThread[] newThreadsArray = new ProcessThread[count];
for (int i = 0; i < count; i++) {
newThreadsArray[i] = new ProcessThread(isRemoteMachine, (ThreadInfo)processInfo.threadInfoList[i]);
}
ProcessThreadCollection newThreads = new ProcessThreadCollection(newThreadsArray);
threads = newThreads;
}
return threads;
}
}
#endif
///
/// Returns the amount of time the associated process has spent utilizing the CPU.
/// It is the sum of the and
/// .
///
[DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessTotalProcessorTime)]
public TimeSpan TotalProcessorTime {
get {
EnsureState(State.IsNt);
return GetProcessTimes().TotalProcessorTime;
}
}
///
/// Returns the amount of time the associated process has spent running code
/// inside the application portion of the process (not the operating system core).
///
[DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessUserProcessorTime)]
public TimeSpan UserProcessorTime {
get {
EnsureState(State.IsNt);
return GetProcessTimes().UserProcessorTime;
}
}
#if !MONO
///
/// Returns the amount of virtual memory that the associated process has requested.
///
[Obsolete("This property has been deprecated. Please use System.Diagnostics.Process.VirtualMemorySize64 instead. http://go.microsoft.com/fwlink/?linkid=14202")]
[DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessVirtualMemorySize)]
public int VirtualMemorySize {
get {
EnsureState(State.HaveNtProcessInfo);
return unchecked((int)processInfo.virtualBytes);
}
}
#endif // !MONO
#endif // !FEATURE_PAL
#if !MONO
[DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessVirtualMemorySize)]
[System.Runtime.InteropServices.ComVisible(false)]
public long VirtualMemorySize64 {
get {
EnsureState(State.HaveNtProcessInfo);
return processInfo.virtualBytes;
}
}
#endif
///
///
/// Gets or sets whether the
/// event is fired
/// when the process terminates.
///
///
[Browsable(false), DefaultValue(false), MonitoringDescription(SR.ProcessEnableRaisingEvents)]
public bool EnableRaisingEvents {
get {
return watchForExit;
}
set {
if (value != watchForExit) {
if (Associated) {
if (value) {
OpenProcessHandle();
EnsureWatchingForExit();
}
else {
StopWatchingForExit();
}
}
watchForExit = value;
}
}
}
#if MONO_FEATURE_PROCESS_START
///
/// [To be supplied.]
///
[Browsable(false), DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessStandardInput)]
public StreamWriter StandardInput {
get {
if (standardInput == null) {
throw new InvalidOperationException(SR.GetString(SR.CantGetStandardIn));
}
#if MONO
inputStreamReadMode = StreamReadMode.syncMode;
#endif
return standardInput;
}
}
///
/// [To be supplied.]
///
[Browsable(false), DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessStandardOutput)]
public StreamReader StandardOutput {
get {
if (standardOutput == null) {
throw new InvalidOperationException(SR.GetString(SR.CantGetStandardOut));
}
if(outputStreamReadMode == StreamReadMode.undefined) {
outputStreamReadMode = StreamReadMode.syncMode;
}
else if (outputStreamReadMode != StreamReadMode.syncMode) {
throw new InvalidOperationException(SR.GetString(SR.CantMixSyncAsyncOperation));
}
return standardOutput;
}
}
///
/// [To be supplied.]
///
[Browsable(false), DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessStandardError)]
public StreamReader StandardError {
get {
if (standardError == null) {
throw new InvalidOperationException(SR.GetString(SR.CantGetStandardError));
}
if(errorStreamReadMode == StreamReadMode.undefined) {
errorStreamReadMode = StreamReadMode.syncMode;
}
else if (errorStreamReadMode != StreamReadMode.syncMode) {
throw new InvalidOperationException(SR.GetString(SR.CantMixSyncAsyncOperation));
}
return standardError;
}
}
#endif
#if !FEATURE_PAL && !MONO
///
/// Returns the total amount of physical memory the associated process.
///
[Obsolete("This property has been deprecated. Please use System.Diagnostics.Process.WorkingSet64 instead. http://go.microsoft.com/fwlink/?linkid=14202")]
[DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessWorkingSet)]
public int WorkingSet {
get {
EnsureState(State.HaveNtProcessInfo);
return unchecked((int)processInfo.workingSet);
}
}
#endif // !FEATURE_PAL && !MONO
#if !MONO
[DesignerSerializationVisibility(DesignerSerializationVisibility.Hidden), MonitoringDescription(SR.ProcessWorkingSet)]
[System.Runtime.InteropServices.ComVisible(false)]
public long WorkingSet64 {
get {
EnsureState(State.HaveNtProcessInfo);
return processInfo.workingSet;
}
}
#endif
[Category("Behavior"), MonitoringDescription(SR.ProcessExited)]
public event EventHandler Exited {
add {
onExited += value;
}
remove {
onExited -= value;
}
}
#if !FEATURE_PAL && !MONO
///
///
/// Closes a process that has a user interface by sending a close message
/// to its main window.
///
///
[ResourceExposure(ResourceScope.Machine)] // Review usages of this.
[ResourceConsumption(ResourceScope.Machine)]
public bool CloseMainWindow() {
IntPtr mainWindowHandle = MainWindowHandle;
if (mainWindowHandle == (IntPtr)0) return false;
int style = NativeMethods.GetWindowLong(new HandleRef(this, mainWindowHandle), NativeMethods.GWL_STYLE);
if ((style & NativeMethods.WS_DISABLED) != 0) return false;
NativeMethods.PostMessage(new HandleRef(this, mainWindowHandle), NativeMethods.WM_CLOSE, IntPtr.Zero, IntPtr.Zero);
return true;
}
#endif // !FEATURE_PAL && !MONO
///
/// Release the temporary handle we used to get process information.
/// If we used the process handle stored in the process object (we have all access to the handle,) don't release it.
///
///
void ReleaseProcessHandle(SafeProcessHandle handle) {
if (handle == null) {
return;
}
if (haveProcessHandle && handle == m_processHandle) {
return;
}
Debug.WriteLineIf(processTracing.TraceVerbose, "Process - CloseHandle(process)");
handle.Close();
}
///
/// This is called from the threadpool when a proces exits.
///
///
private void CompletionCallback(object context, bool wasSignaled) {
StopWatchingForExit();
RaiseOnExited();
}
///
///
///
/// Free any resources associated with this component.
///
///
protected override void Dispose(bool disposing) {
if( !disposed) {
if (disposing) {
//Dispose managed and unmanaged resources
Close();
}
this.disposed = true;
base.Dispose(disposing);
}
}
///
///
/// Frees any resources associated with this component.
///
///
public void Close() {
if (Associated) {
if (haveProcessHandle) {
StopWatchingForExit();
Debug.WriteLineIf(processTracing.TraceVerbose, "Process - CloseHandle(process) in Close()");
m_processHandle.Close();
m_processHandle = null;
haveProcessHandle = false;
}
haveProcessId = false;
isRemoteMachine = false;
machineName = ".";
raisedOnExited = false;
#if MONO
//Call close on streams if the user never saw them.
//A stream in the undefined mode was never fetched by the user.
//A stream in the async mode is wrapped on a AsyncStreamReader and we should dispose that instead.
// no way for users to get a hand on a AsyncStreamReader.
var tmpIn = standardInput;
standardInput = null;
if (inputStreamReadMode == StreamReadMode.undefined && tmpIn != null)
tmpIn.Close ();
var tmpOut = standardOutput;
standardOutput = null;
if (outputStreamReadMode == StreamReadMode.undefined && tmpOut != null)
tmpOut.Close ();
tmpOut = standardError;
standardError = null;
if (errorStreamReadMode == StreamReadMode.undefined && tmpOut != null)
tmpOut.Close ();
var tmpAsync = output;
output = null;
if (outputStreamReadMode == StreamReadMode.asyncMode && tmpAsync != null) {
tmpAsync.CancelOperation ();
tmpAsync.Close ();
}
tmpAsync = error;
error = null;
if (errorStreamReadMode == StreamReadMode.asyncMode && tmpAsync != null) {
tmpAsync.CancelOperation ();
tmpAsync.Close ();
}
#else
//Don't call close on the Readers and writers
//since they might be referenced by somebody else while the
//process is still alive but this method called.
standardOutput = null;
standardInput = null;
standardError = null;
output = null;
error = null;
#endif
Refresh();
}
}
///
/// Helper method for checking preconditions when accessing properties.
///
///
[ResourceExposure(ResourceScope.None)]
[ResourceConsumption(ResourceScope.Machine, ResourceScope.Machine)]
void EnsureState(State state) {
#if !MONO
if ((state & State.IsWin2k) != (State)0) {
#if !FEATURE_PAL
if (OperatingSystem.Platform != PlatformID.Win32NT || OperatingSystem.Version.Major < 5)
#endif // !FEATURE_PAL
throw new PlatformNotSupportedException(SR.GetString(SR.Win2kRequired));
}
if ((state & State.IsNt) != (State)0) {
#if !FEATURE_PAL
if (OperatingSystem.Platform != PlatformID.Win32NT)
#endif // !FEATURE_PAL
throw new PlatformNotSupportedException(SR.GetString(SR.WinNTRequired));
}
#endif // !MONO
if ((state & State.Associated) != (State)0)
if (!Associated)
throw new InvalidOperationException(SR.GetString(SR.NoAssociatedProcess));
if ((state & State.HaveId) != (State)0) {
if (!haveProcessId) {
#if !FEATURE_PAL && !MONO
if (haveProcessHandle) {
SetProcessId(ProcessManager.GetProcessIdFromHandle(m_processHandle));
}
else {
EnsureState(State.Associated);
throw new InvalidOperationException(SR.GetString(SR.ProcessIdRequired));
}
#else
EnsureState(State.Associated);
throw new InvalidOperationException(SR.GetString(SR.ProcessIdRequired));
#endif // !FEATURE_PAL && !MONO
}
}
if ((state & State.IsLocal) != (State)0 && isRemoteMachine) {
throw new NotSupportedException(SR.GetString(SR.NotSupportedRemote));
}
if ((state & State.HaveProcessInfo) != (State)0) {
#if !FEATURE_PAL && !MONO
if (processInfo == null) {
if ((state & State.HaveId) == (State)0) EnsureState(State.HaveId);
ProcessInfo[] processInfos = ProcessManager.GetProcessInfos(machineName);
for (int i = 0; i < processInfos.Length; i++) {
if (processInfos[i].processId == processId) {
this.processInfo = processInfos[i];
break;
}
}
if (processInfo == null) {
throw new InvalidOperationException(SR.GetString(SR.NoProcessInfo));
}
}
#else
throw new InvalidOperationException(SR.GetString(SR.NoProcessInfo));
#endif // !FEATURE_PAL && !MONO
}
if ((state & State.Exited) != (State)0) {
if (!HasExited) {
throw new InvalidOperationException(SR.GetString(SR.WaitTillExit));
}
if (!haveProcessHandle) {
throw new InvalidOperationException(SR.GetString(SR.NoProcessHandle));
}
}
}
///
/// Make sure we are watching for a process exit.
///
///
void EnsureWatchingForExit() {
if (!watchingForExit) {
lock (this) {
if (!watchingForExit) {
Debug.Assert(haveProcessHandle, "Process.EnsureWatchingForExit called with no process handle");
Debug.Assert(Associated, "Process.EnsureWatchingForExit called with no associated process");
watchingForExit = true;
try {
this.waitHandle = new ProcessWaitHandle(m_processHandle);
this.registeredWaitHandle = ThreadPool.RegisterWaitForSingleObject(this.waitHandle,
new WaitOrTimerCallback(this.CompletionCallback), null, -1, true);
}
catch {
watchingForExit = false;
throw;
}
}
}
}
}
#if !FEATURE_PAL
///
/// Make sure we have obtained the min and max working set limits.
///
///
void EnsureWorkingSetLimits() {
EnsureState(State.IsNt);
if (!haveWorkingSetLimits) {
SafeProcessHandle handle = null;
try {
handle = GetProcessHandle(NativeMethods.PROCESS_QUERY_INFORMATION);
IntPtr min;
IntPtr max;
if (!NativeMethods.GetProcessWorkingSetSize(handle, out min, out max)) {
throw new Win32Exception();
}
minWorkingSet = min;
maxWorkingSet = max;
haveWorkingSetLimits = true;
}
finally {
ReleaseProcessHandle(handle);
}
}
}
public static void EnterDebugMode() {
#if !MONO
if (ProcessManager.IsNt) {
SetPrivilege("SeDebugPrivilege", NativeMethods.SE_PRIVILEGE_ENABLED);
}
#endif
}
#if !MONO
[ResourceExposure(ResourceScope.None)]
[ResourceConsumption(ResourceScope.Process, ResourceScope.Process)]
private static void SetPrivilege(string privilegeName, int attrib) {
IntPtr hToken = (IntPtr)0;
NativeMethods.LUID debugValue = new NativeMethods.LUID();
// this is only a "pseudo handle" to the current process - no need to close it later
IntPtr processHandle = NativeMethods.GetCurrentProcess();
// get the process token so we can adjust the privilege on it. We DO need to
// close the token when we're done with it.
if (!NativeMethods.OpenProcessToken(new HandleRef(null, processHandle), NativeMethods.TOKEN_ADJUST_PRIVILEGES, out hToken)) {
throw new Win32Exception();
}
try {
if (!NativeMethods.LookupPrivilegeValue(null, privilegeName, out debugValue)) {
throw new Win32Exception();
}
NativeMethods.TokenPrivileges tkp = new NativeMethods.TokenPrivileges();
tkp.Luid = debugValue;
tkp.Attributes = attrib;
NativeMethods.AdjustTokenPrivileges(new HandleRef(null, hToken), false, tkp, 0, IntPtr.Zero, IntPtr.Zero);
// AdjustTokenPrivileges can return true even if it failed to
// set the privilege, so we need to use GetLastError
if (Marshal.GetLastWin32Error() != NativeMethods.ERROR_SUCCESS) {
throw new Win32Exception();
}
}
finally {
Debug.WriteLineIf(processTracing.TraceVerbose, "Process - CloseHandle(processToken)");
SafeNativeMethods.CloseHandle(hToken);
}
}
#endif
///
/// [To be supplied.]
///
public static void LeaveDebugMode() {
#if !MONO
if (ProcessManager.IsNt) {
SetPrivilege("SeDebugPrivilege", 0);
}
#endif
}
#if !MONO
///
///
/// Returns a new component given a process identifier and
/// the name of a computer in the network.
///
///
[ResourceExposure(ResourceScope.Machine)]
[ResourceConsumption(ResourceScope.Machine)]
public static Process GetProcessById(int processId, string machineName) {
if (!ProcessManager.IsProcessRunning(processId, machineName)) {
throw new ArgumentException(SR.GetString(SR.MissingProccess, processId.ToString(CultureInfo.CurrentCulture)));
}
return new Process(machineName, ProcessManager.IsRemoteMachine(machineName), processId, null);
}
///
///
/// Returns a new component given the
/// identifier of a process on the local computer.
///
///
[ResourceExposure(ResourceScope.Machine)]
[ResourceConsumption(ResourceScope.Machine)]
public static Process GetProcessById(int processId) {
return GetProcessById(processId, ".");
}
///
///
/// Creates an array of components that are
/// associated
/// with process resources on the
/// local computer. These process resources share the specified process name.
///
///
[ResourceExposure(ResourceScope.Machine)]
[ResourceConsumption(ResourceScope.Machine)]
public static Process[] GetProcessesByName(string processName) {
return GetProcessesByName(processName, ".");
}
///
///
/// Creates an array of components that are associated with process resources on a
/// remote computer. These process resources share the specified process name.
///
///
[ResourceExposure(ResourceScope.Machine)]
[ResourceConsumption(ResourceScope.Machine)]
public static Process[] GetProcessesByName(string processName, string machineName) {
if (processName == null) processName = String.Empty;
Process[] procs = GetProcesses(machineName);
ArrayList list = new ArrayList();
for(int i = 0; i < procs.Length; i++) {
if( String.Equals(processName, procs[i].ProcessName, StringComparison.OrdinalIgnoreCase)) {
list.Add( procs[i]);
} else {
procs[i].Dispose();
}
}
Process[] temp = new Process[list.Count];
list.CopyTo(temp, 0);
return temp;
}
///
///
/// Creates a new
/// component for each process resource on the local computer.
///
///
[ResourceExposure(ResourceScope.Machine)]
[ResourceConsumption(ResourceScope.Machine)]
public static Process[] GetProcesses() {
return GetProcesses(".");
}
///
///
/// Creates a new
/// component for each
/// process resource on the specified computer.
///
///
[ResourceExposure(ResourceScope.Machine)]
[ResourceConsumption(ResourceScope.Machine)]
public static Process[] GetProcesses(string machineName) {
bool isRemoteMachine = ProcessManager.IsRemoteMachine(machineName);
ProcessInfo[] processInfos = ProcessManager.GetProcessInfos(machineName);
Process[] processes = new Process[processInfos.Length];
for (int i = 0; i < processInfos.Length; i++) {
ProcessInfo processInfo = processInfos[i];
processes[i] = new Process(machineName, isRemoteMachine, processInfo.processId, processInfo);
}
Debug.WriteLineIf(processTracing.TraceVerbose, "Process.GetProcesses(" + machineName + ")");
#if DEBUG
if (processTracing.TraceVerbose) {
Debug.Indent();
for (int i = 0; i < processInfos.Length; i++) {
Debug.WriteLine(processes[i].Id + ": " + processes[i].ProcessName);
}
Debug.Unindent();
}
#endif // DEBUG
return processes;
}
#endif // !MONO
#endif // !FEATURE_PAL
///
///
/// Returns a new
/// component and associates it with the current active process.
///
///
[ResourceExposure(ResourceScope.Process)]
[ResourceConsumption(ResourceScope.Machine, ResourceScope.Process)]
public static Process GetCurrentProcess() {
return new Process(".", false, NativeMethods.GetCurrentProcessId(), null);
}
///
///
/// Raises the event.
///
///
protected void OnExited() {
EventHandler exited = onExited;
if (exited != null) {
if (this.SynchronizingObject != null && this.SynchronizingObject.InvokeRequired)
this.SynchronizingObject.BeginInvoke(exited, new object[]{this, EventArgs.Empty});
else
exited(this, EventArgs.Empty);
}
}
///
/// Gets a short-term handle to the process, with the given access.
/// If a handle is stored in current process object, then use it.
/// Note that the handle we stored in current process object will have all access we need.
///
///
[ResourceExposure(ResourceScope.None)]
[ResourceConsumption(ResourceScope.Machine, ResourceScope.Machine)]
SafeProcessHandle GetProcessHandle(int access, bool throwIfExited) {
Debug.WriteLineIf(processTracing.TraceVerbose, "GetProcessHandle(access = 0x" + access.ToString("X8", CultureInfo.InvariantCulture) + ", throwIfExited = " + throwIfExited + ")");
#if DEBUG
if (processTracing.TraceVerbose) {
StackFrame calledFrom = new StackTrace(true).GetFrame(0);
Debug.WriteLine(" called from " + calledFrom.GetFileName() + ", line " + calledFrom.GetFileLineNumber());
}
#endif
if (haveProcessHandle) {
if (throwIfExited) {
// Since haveProcessHandle is true, we know we have the process handle
// open with at least SYNCHRONIZE access, so we can wait on it with
// zero timeout to see if the process has exited.
ProcessWaitHandle waitHandle = null;
try {
waitHandle = new ProcessWaitHandle(m_processHandle);
if (waitHandle.WaitOne(0, false)) {
if (haveProcessId)
throw new InvalidOperationException(SR.GetString(SR.ProcessHasExited, processId.ToString(CultureInfo.CurrentCulture)));
else
throw new InvalidOperationException(SR.GetString(SR.ProcessHasExitedNoId));
}
}
finally {
if( waitHandle != null) {
waitHandle.Close();
}
}
}
return m_processHandle;
}
else {
EnsureState(State.HaveId | State.IsLocal);
SafeProcessHandle handle = SafeProcessHandle.InvalidHandle;
#if !FEATURE_PAL && !MONO
handle = ProcessManager.OpenProcess(processId, access, throwIfExited);
#else
IntPtr pseudohandle = NativeMethods.GetCurrentProcess();
// Get a real handle
if (!NativeMethods.DuplicateHandle (new HandleRef(this, pseudohandle),
new HandleRef(this, pseudohandle),
new HandleRef(this, pseudohandle),
out handle,
0,
false,
NativeMethods.DUPLICATE_SAME_ACCESS |
NativeMethods.DUPLICATE_CLOSE_SOURCE)) {
throw new Win32Exception();
}
#endif // !FEATURE_PAL && !MONO
if (throwIfExited && (access & NativeMethods.PROCESS_QUERY_INFORMATION) != 0) {
if (NativeMethods.GetExitCodeProcess(handle, out exitCode) && exitCode != NativeMethods.STILL_ACTIVE) {
throw new InvalidOperationException(SR.GetString(SR.ProcessHasExited, processId.ToString(CultureInfo.CurrentCulture)));
}
}
return handle;
}
}
///
/// Gets a short-term handle to the process, with the given access. If a handle exists,
/// then it is reused. If the process has exited, it throws an exception.
///
///
SafeProcessHandle GetProcessHandle(int access) {
return GetProcessHandle(access, true);
}
///
/// Opens a long-term handle to the process, with all access. If a handle exists,
/// then it is reused. If the process has exited, it throws an exception.
///
///
SafeProcessHandle OpenProcessHandle() {
return OpenProcessHandle(NativeMethods.PROCESS_ALL_ACCESS);
}
SafeProcessHandle OpenProcessHandle(Int32 access) {
if (!haveProcessHandle) {
//Cannot open a new process handle if the object has been disposed, since finalization has been suppressed.
if (this.disposed) {
throw new ObjectDisposedException(GetType().Name);
}
SetProcessHandle(GetProcessHandle(access));
}
return m_processHandle;
}
#if !MONO
///
/// Raise the Exited event, but make sure we don't do it more than once.
///
///
void RaiseOnExited() {
if (!raisedOnExited) {
lock (this) {
if (!raisedOnExited) {
raisedOnExited = true;
OnExited();
}
}
}
}
#endif
///
///
/// Discards any information about the associated process
/// that has been cached inside the process component. After is called, the
/// first request for information for each property causes the process component
/// to obtain a new value from the associated process.
///
///
public void Refresh() {
#if !MONO
processInfo = null;
#endif
#if !FEATURE_PAL
threads = null;
modules = null;
#endif // !FEATURE_PAL
mainWindowTitle = null;
exited = false;
signaled = false;
haveMainWindow = false;
haveWorkingSetLimits = false;
haveProcessorAffinity = false;
havePriorityClass = false;
haveExitTime = false;
#if !MONO
haveResponding = false;
havePriorityBoostEnabled = false;
#endif
}
///
/// Helper to associate a process handle with this component.
///
///
void SetProcessHandle(SafeProcessHandle processHandle) {
this.m_processHandle = processHandle;
this.haveProcessHandle = true;
if (watchForExit) {
EnsureWatchingForExit();
}
}
///
/// Helper to associate a process id with this component.
///
///
[ResourceExposure(ResourceScope.Machine)]
void SetProcessId(int processId) {
this.processId = processId;
this.haveProcessId = true;
}
#if !FEATURE_PAL
///
/// Helper to set minimum or maximum working set limits.
///
///
[ResourceExposure(ResourceScope.Process)]
[ResourceConsumption(ResourceScope.Machine, ResourceScope.Machine)]
void SetWorkingSetLimits(object newMin, object newMax) {
EnsureState(State.IsNt);
SafeProcessHandle handle = null;
try {
handle = GetProcessHandle(NativeMethods.PROCESS_QUERY_INFORMATION | NativeMethods.PROCESS_SET_QUOTA);
IntPtr min;
IntPtr max;
if (!NativeMethods.GetProcessWorkingSetSize(handle, out min, out max)) {
throw new Win32Exception();
}
if (newMin != null) {
min = (IntPtr)newMin;
}
if (newMax != null) {
max = (IntPtr)newMax;
}
if ((long)min > (long)max) {
if (newMin != null) {
throw new ArgumentException(SR.GetString(SR.BadMinWorkset));
}
else {
throw new ArgumentException(SR.GetString(SR.BadMaxWorkset));
}
}
if (!NativeMethods.SetProcessWorkingSetSize(handle, min, max)) {
throw new Win32Exception();
}
// The value may be rounded/changed by the OS, so go get it
if (!NativeMethods.GetProcessWorkingSetSize(handle, out min, out max)) {
throw new Win32Exception();
}
minWorkingSet = min;
maxWorkingSet = max;
haveWorkingSetLimits = true;
}
finally {
ReleaseProcessHandle(handle);
}
}
#endif // !FEATURE_PAL
#if MONO_FEATURE_PROCESS_START
///
///
/// Starts a process specified by the property of this
/// component and associates it with the
/// . If a process resource is reused
/// rather than started, the reused process is associated with this
/// component.
///
///
[ResourceExposure(ResourceScope.None)]
[ResourceConsumption(ResourceScope.Machine, ResourceScope.Machine)]
public bool Start() {
Close();
ProcessStartInfo startInfo = StartInfo;
if (startInfo.FileName.Length == 0)
throw new InvalidOperationException(SR.GetString(SR.FileNameMissing));
if (startInfo.UseShellExecute) {
#if !FEATURE_PAL
return StartWithShellExecuteEx(startInfo);
#else
throw new InvalidOperationException(SR.GetString(SR.net_perm_invalid_val, "StartInfo.UseShellExecute", true));
#endif // !FEATURE_PAL
} else {
return StartWithCreateProcess(startInfo);
}
}
#if !MONO
[ResourceExposure(ResourceScope.Process)]
[ResourceConsumption(ResourceScope.Process)]
private static void CreatePipeWithSecurityAttributes(out SafeFileHandle hReadPipe, out SafeFileHandle hWritePipe, NativeMethods.SECURITY_ATTRIBUTES lpPipeAttributes, int nSize) {
bool ret = NativeMethods.CreatePipe(out hReadPipe, out hWritePipe, lpPipeAttributes, nSize);
if (!ret || hReadPipe.IsInvalid || hWritePipe.IsInvalid) {
throw new Win32Exception();
}
}
// Using synchronous Anonymous pipes for process input/output redirection means we would end up
// wasting a worker threadpool thread per pipe instance. Overlapped pipe IO is desirable, since
// it will take advantage of the NT IO completion port infrastructure. But we can't really use
// Overlapped I/O for process input/output as it would break Console apps (managed Console class
// methods such as WriteLine as well as native CRT functions like printf) which are making an
// assumption that the console standard handles (obtained via GetStdHandle()) are opened
// for synchronous I/O and hence they can work fine with ReadFile/WriteFile synchrnously!
[ResourceExposure(ResourceScope.None)]
[ResourceConsumption(ResourceScope.Machine, ResourceScope.Machine)]
private void CreatePipe(out SafeFileHandle parentHandle, out SafeFileHandle childHandle, bool parentInputs) {
NativeMethods.SECURITY_ATTRIBUTES securityAttributesParent = new NativeMethods.SECURITY_ATTRIBUTES();
securityAttributesParent.bInheritHandle = true;
SafeFileHandle hTmp = null;
try {
if (parentInputs) {
CreatePipeWithSecurityAttributes(out childHandle, out hTmp, securityAttributesParent, 0);
}
else {
CreatePipeWithSecurityAttributes(out hTmp,
out childHandle,
securityAttributesParent,
0);
}
// Duplicate the parent handle to be non-inheritable so that the child process
// doesn't have access. This is done for correctness sake, exact reason is unclear.
// One potential theory is that child process can do something brain dead like
// closing the parent end of the pipe and there by getting into a blocking situation
// as parent will not be draining the pipe at the other end anymore.
if (!NativeMethods.DuplicateHandle(new HandleRef(this, NativeMethods.GetCurrentProcess()),
hTmp,
new HandleRef(this, NativeMethods.GetCurrentProcess()),
out parentHandle,
0,
false,
NativeMethods.DUPLICATE_SAME_ACCESS)) {
throw new Win32Exception();
}
}
finally {
if( hTmp != null && !hTmp.IsInvalid) {
hTmp.Close();
}
}
}
private static StringBuilder BuildCommandLine(string executableFileName, string arguments) {
// Construct a StringBuilder with the appropriate command line
// to pass to CreateProcess. If the filename isn't already
// in quotes, we quote it here. This prevents some security
// problems (it specifies exactly which part of the string
// is the file to execute).
StringBuilder commandLine = new StringBuilder();
string fileName = executableFileName.Trim();
bool fileNameIsQuoted = (fileName.StartsWith("\"", StringComparison.Ordinal) && fileName.EndsWith("\"", StringComparison.Ordinal));
if (!fileNameIsQuoted) {
commandLine.Append("\"");
}
commandLine.Append(fileName);
if (!fileNameIsQuoted) {
commandLine.Append("\"");
}
if (!String.IsNullOrEmpty(arguments)) {
commandLine.Append(" ");
commandLine.Append(arguments);
}
return commandLine;
}
[ResourceExposure(ResourceScope.Machine)]
[ResourceConsumption(ResourceScope.Machine)]
private bool StartWithCreateProcess(ProcessStartInfo startInfo) {
if( startInfo.StandardOutputEncoding != null && !startInfo.RedirectStandardOutput) {
throw new InvalidOperationException(SR.GetString(SR.StandardOutputEncodingNotAllowed));
}
if( startInfo.StandardErrorEncoding != null && !startInfo.RedirectStandardError) {
throw new InvalidOperationException(SR.GetString(SR.StandardErrorEncodingNotAllowed));
}
// See knowledge base article Q190351 for an explanation of the following code. Noteworthy tricky points:
// * The handles are duplicated as non-inheritable before they are passed to CreateProcess so
// that the child process can not close them
// * CreateProcess allows you to redirect all or none of the standard IO handles, so we use
// GetStdHandle for the handles that are not being redirected
//Cannot start a new process and store its handle if the object has been disposed, since finalization has been suppressed.
if (this.disposed) {
throw new ObjectDisposedException(GetType().Name);
}
StringBuilder commandLine = BuildCommandLine(startInfo.FileName, startInfo.Arguments);
NativeMethods.STARTUPINFO startupInfo = new NativeMethods.STARTUPINFO();
SafeNativeMethods.PROCESS_INFORMATION processInfo = new SafeNativeMethods.PROCESS_INFORMATION();
SafeProcessHandle procSH = new SafeProcessHandle();
SafeThreadHandle threadSH = new SafeThreadHandle();
bool retVal;
int errorCode = 0;
// handles used in parent process
SafeFileHandle standardInputWritePipeHandle = null;
SafeFileHandle standardOutputReadPipeHandle = null;
SafeFileHandle standardErrorReadPipeHandle = null;
GCHandle environmentHandle = new GCHandle();
lock (s_CreateProcessLock) {
try {
// set up the streams
if (startInfo.RedirectStandardInput || startInfo.RedirectStandardOutput || startInfo.RedirectStandardError) {
if (startInfo.RedirectStandardInput) {
CreatePipe(out standardInputWritePipeHandle, out startupInfo.hStdInput, true);
} else {
startupInfo.hStdInput = new SafeFileHandle(NativeMethods.GetStdHandle(NativeMethods.STD_INPUT_HANDLE), false);
}
if (startInfo.RedirectStandardOutput) {
CreatePipe(out standardOutputReadPipeHandle, out startupInfo.hStdOutput, false);
} else {
startupInfo.hStdOutput = new SafeFileHandle(NativeMethods.GetStdHandle(NativeMethods.STD_OUTPUT_HANDLE), false);
}
if (startInfo.RedirectStandardError) {
CreatePipe(out standardErrorReadPipeHandle, out startupInfo.hStdError, false);
} else {
startupInfo.hStdError = new SafeFileHandle(NativeMethods.GetStdHandle(NativeMethods.STD_ERROR_HANDLE), false);
}
startupInfo.dwFlags = NativeMethods.STARTF_USESTDHANDLES;
}
// set up the creation flags paramater
int creationFlags = 0;
#if !FEATURE_PAL
if (startInfo.CreateNoWindow) creationFlags |= NativeMethods.CREATE_NO_WINDOW;
#endif // !FEATURE_PAL
// set up the environment block parameter
IntPtr environmentPtr = (IntPtr)0;
if (startInfo.environmentVariables != null) {
bool unicode = false;
#if !FEATURE_PAL
if (ProcessManager.IsNt) {
creationFlags |= NativeMethods.CREATE_UNICODE_ENVIRONMENT;
unicode = true;
}
#endif // !FEATURE_PAL
byte[] environmentBytes = EnvironmentBlock.ToByteArray(startInfo.environmentVariables, unicode);
environmentHandle = GCHandle.Alloc(environmentBytes, GCHandleType.Pinned);
environmentPtr = environmentHandle.AddrOfPinnedObject();
}
string workingDirectory = startInfo.WorkingDirectory;
if (workingDirectory == string.Empty)
workingDirectory = Environment.CurrentDirectory;
#if !FEATURE_PAL
if (startInfo.UserName.Length != 0) {
if (startInfo.Password != null && startInfo.PasswordInClearText != null)
throw new ArgumentException(SR.GetString(SR.CantSetDuplicatePassword));
NativeMethods.LogonFlags logonFlags = (NativeMethods.LogonFlags)0;
if( startInfo.LoadUserProfile) {
logonFlags = NativeMethods.LogonFlags.LOGON_WITH_PROFILE;
}
IntPtr password = IntPtr.Zero;
try {
if( startInfo.Password != null) {
password = Marshal.SecureStringToCoTaskMemUnicode(startInfo.Password);
} else if( startInfo.PasswordInClearText != null) {
password = Marshal.StringToCoTaskMemUni(startInfo.PasswordInClearText);
} else {
password = Marshal.StringToCoTaskMemUni(String.Empty);
}
RuntimeHelpers.PrepareConstrainedRegions();
try {} finally {
retVal = NativeMethods.CreateProcessWithLogonW(
startInfo.UserName,
startInfo.Domain,
password,
logonFlags,
null, // we don't need this since all the info is in commandLine
commandLine,
creationFlags,
environmentPtr,
workingDirectory,
startupInfo, // pointer to STARTUPINFO
processInfo // pointer to PROCESS_INFORMATION
);
if (!retVal)
errorCode = Marshal.GetLastWin32Error();
if ( processInfo.hProcess!= (IntPtr)0 && processInfo.hProcess!= (IntPtr)NativeMethods.INVALID_HANDLE_VALUE)
procSH.InitialSetHandle(processInfo.hProcess);
if ( processInfo.hThread != (IntPtr)0 && processInfo.hThread != (IntPtr)NativeMethods.INVALID_HANDLE_VALUE)
threadSH.InitialSetHandle(processInfo.hThread);
}
if (!retVal){
if (errorCode == NativeMethods.ERROR_BAD_EXE_FORMAT || errorCode == NativeMethods.ERROR_EXE_MACHINE_TYPE_MISMATCH) {
throw new Win32Exception(errorCode, SR.GetString(SR.InvalidApplication));
}
throw new Win32Exception(errorCode);
}
} finally {
if( password != IntPtr.Zero) {
Marshal.ZeroFreeCoTaskMemUnicode(password);
}
}
} else {
#endif // !FEATURE_PAL
RuntimeHelpers.PrepareConstrainedRegions();
try {} finally {
retVal = NativeMethods.CreateProcess (
null, // we don't need this since all the info is in commandLine
commandLine, // pointer to the command line string
null, // pointer to process security attributes, we don't need to inheriat the handle
null, // pointer to thread security attributes
true, // handle inheritance flag
creationFlags, // creation flags
environmentPtr, // pointer to new environment block
workingDirectory, // pointer to current directory name
startupInfo, // pointer to STARTUPINFO
processInfo // pointer to PROCESS_INFORMATION
);
if (!retVal)
errorCode = Marshal.GetLastWin32Error();
if ( processInfo.hProcess!= (IntPtr)0 && processInfo.hProcess!= (IntPtr)NativeMethods.INVALID_HANDLE_VALUE)
procSH.InitialSetHandle(processInfo.hProcess);
if ( processInfo.hThread != (IntPtr)0 && processInfo.hThread != (IntPtr)NativeMethods.INVALID_HANDLE_VALUE)
threadSH.InitialSetHandle(processInfo.hThread);
}
if (!retVal) {
if (errorCode == NativeMethods.ERROR_BAD_EXE_FORMAT || errorCode == NativeMethods.ERROR_EXE_MACHINE_TYPE_MISMATCH) {
throw new Win32Exception(errorCode, SR.GetString(SR.InvalidApplication));
}
throw new Win32Exception(errorCode);
}
#if !FEATURE_PAL
}
#endif
} finally {
// free environment block
if (environmentHandle.IsAllocated) {
environmentHandle.Free();
}
startupInfo.Dispose();
}
}
if (startInfo.RedirectStandardInput) {
standardInput = new StreamWriter(new FileStream(standardInputWritePipeHandle, FileAccess.Write, 4096, false), Console.InputEncoding, 4096);
standardInput.AutoFlush = true;
}
if (startInfo.RedirectStandardOutput) {
Encoding enc = (startInfo.StandardOutputEncoding != null) ? startInfo.StandardOutputEncoding : Console.OutputEncoding;
standardOutput = new StreamReader(new FileStream(standardOutputReadPipeHandle, FileAccess.Read, 4096, false), enc, true, 4096);
}
if (startInfo.RedirectStandardError) {
Encoding enc = (startInfo.StandardErrorEncoding != null) ? startInfo.StandardErrorEncoding : Console.OutputEncoding;
standardError = new StreamReader(new FileStream(standardErrorReadPipeHandle, FileAccess.Read, 4096, false), enc, true, 4096);
}
bool ret = false;
if (!procSH.IsInvalid) {
SetProcessHandle(procSH);
SetProcessId(processInfo.dwProcessId);
threadSH.Close();
ret = true;
}
return ret;
}
#endif // !MONO
#if !FEATURE_PAL
#if !MONO
[ResourceExposure(ResourceScope.Machine)]
[ResourceConsumption(ResourceScope.Machine)]
private bool StartWithShellExecuteEx(ProcessStartInfo startInfo) {
//Cannot start a new process and store its handle if the object has been disposed, since finalization has been suppressed.
if (this.disposed)
throw new ObjectDisposedException(GetType().Name);
if( !String.IsNullOrEmpty(startInfo.UserName) || (startInfo.Password != null) ) {
throw new InvalidOperationException(SR.GetString(SR.CantStartAsUser));
}
if (startInfo.RedirectStandardInput || startInfo.RedirectStandardOutput || startInfo.RedirectStandardError) {
throw new InvalidOperationException(SR.GetString(SR.CantRedirectStreams));
}
if (startInfo.StandardErrorEncoding != null) {
throw new InvalidOperationException(SR.GetString(SR.StandardErrorEncodingNotAllowed));
}
if (startInfo.StandardOutputEncoding != null) {
throw new InvalidOperationException(SR.GetString(SR.StandardOutputEncodingNotAllowed));
}
// can't set env vars with ShellExecuteEx...
if (startInfo.environmentVariables != null) {
throw new InvalidOperationException(SR.GetString(SR.CantUseEnvVars));
}
NativeMethods.ShellExecuteInfo shellExecuteInfo = new NativeMethods.ShellExecuteInfo();
shellExecuteInfo.fMask = NativeMethods.SEE_MASK_NOCLOSEPROCESS;
if (startInfo.ErrorDialog) {
shellExecuteInfo.hwnd = startInfo.ErrorDialogParentHandle;
}
else {
shellExecuteInfo.fMask |= NativeMethods.SEE_MASK_FLAG_NO_UI;
}
switch (startInfo.WindowStyle) {
case ProcessWindowStyle.Hidden:
shellExecuteInfo.nShow = NativeMethods.SW_HIDE;
break;
case ProcessWindowStyle.Minimized:
shellExecuteInfo.nShow = NativeMethods.SW_SHOWMINIMIZED;
break;
case ProcessWindowStyle.Maximized:
shellExecuteInfo.nShow = NativeMethods.SW_SHOWMAXIMIZED;
break;
default:
shellExecuteInfo.nShow = NativeMethods.SW_SHOWNORMAL;
break;
}
try {
if (startInfo.FileName.Length != 0)
shellExecuteInfo.lpFile = Marshal.StringToHGlobalAuto(startInfo.FileName);
if (startInfo.Verb.Length != 0)
shellExecuteInfo.lpVerb = Marshal.StringToHGlobalAuto(startInfo.Verb);
if (startInfo.Arguments.Length != 0)
shellExecuteInfo.lpParameters = Marshal.StringToHGlobalAuto(startInfo.Arguments);
if (startInfo.WorkingDirectory.Length != 0)
shellExecuteInfo.lpDirectory = Marshal.StringToHGlobalAuto(startInfo.WorkingDirectory);
shellExecuteInfo.fMask |= NativeMethods.SEE_MASK_FLAG_DDEWAIT;
ShellExecuteHelper executeHelper = new ShellExecuteHelper(shellExecuteInfo);
if (!executeHelper.ShellExecuteOnSTAThread()) {
int error = executeHelper.ErrorCode;
if (error == 0) {
switch ((long)shellExecuteInfo.hInstApp) {
case NativeMethods.SE_ERR_FNF: error = NativeMethods.ERROR_FILE_NOT_FOUND; break;
case NativeMethods.SE_ERR_PNF: error = NativeMethods.ERROR_PATH_NOT_FOUND; break;
case NativeMethods.SE_ERR_ACCESSDENIED: error = NativeMethods.ERROR_ACCESS_DENIED; break;
case NativeMethods.SE_ERR_OOM: error = NativeMethods.ERROR_NOT_ENOUGH_MEMORY; break;
case NativeMethods.SE_ERR_DDEFAIL:
case NativeMethods.SE_ERR_DDEBUSY:
case NativeMethods.SE_ERR_DDETIMEOUT: error = NativeMethods.ERROR_DDE_FAIL; break;
case NativeMethods.SE_ERR_SHARE: error = NativeMethods.ERROR_SHARING_VIOLATION; break;
case NativeMethods.SE_ERR_NOASSOC: error = NativeMethods.ERROR_NO_ASSOCIATION; break;
case NativeMethods.SE_ERR_DLLNOTFOUND: error = NativeMethods.ERROR_DLL_NOT_FOUND; break;
default: error = (int)shellExecuteInfo.hInstApp; break;
}
}
if( error == NativeMethods.ERROR_BAD_EXE_FORMAT || error == NativeMethods.ERROR_EXE_MACHINE_TYPE_MISMATCH) {
throw new Win32Exception(error, SR.GetString(SR.InvalidApplication));
}
throw new Win32Exception(error);
}
}
finally {
if (shellExecuteInfo.lpFile != (IntPtr)0) Marshal.FreeHGlobal(shellExecuteInfo.lpFile);
if (shellExecuteInfo.lpVerb != (IntPtr)0) Marshal.FreeHGlobal(shellExecuteInfo.lpVerb);
if (shellExecuteInfo.lpParameters != (IntPtr)0) Marshal.FreeHGlobal(shellExecuteInfo.lpParameters);
if (shellExecuteInfo.lpDirectory != (IntPtr)0) Marshal.FreeHGlobal(shellExecuteInfo.lpDirectory);
}
if (shellExecuteInfo.hProcess != (IntPtr)0) {
SafeProcessHandle handle = new SafeProcessHandle(shellExecuteInfo.hProcess);
SetProcessHandle(handle);
return true;
}
return false;
}
#endif
[ResourceExposure(ResourceScope.Machine)]
[ResourceConsumption(ResourceScope.Machine)]
public static Process Start( string fileName, string userName, SecureString password, string domain ) {
ProcessStartInfo startInfo = new ProcessStartInfo(fileName);
startInfo.UserName = userName;
startInfo.Password = password;
startInfo.Domain = domain;
startInfo.UseShellExecute = false;
return Start(startInfo);
}
[ResourceExposure(ResourceScope.Machine)]
[ResourceConsumption(ResourceScope.Machine)]
public static Process Start( string fileName, string arguments, string userName, SecureString password, string domain ) {
ProcessStartInfo startInfo = new ProcessStartInfo(fileName, arguments);
startInfo.UserName = userName;
startInfo.Password = password;
startInfo.Domain = domain;
startInfo.UseShellExecute = false;
return Start(startInfo);
}
#endif // !FEATURE_PAL
///
///
/// Starts a process resource by specifying the name of a
/// document or application file. Associates the process resource with a new
/// component.
///
///
[ResourceExposure(ResourceScope.Machine)]
[ResourceConsumption(ResourceScope.Machine)]
public static Process Start(string fileName) {
return Start(new ProcessStartInfo(fileName));
}
///
///
/// Starts a process resource by specifying the name of an
/// application and a set of command line arguments. Associates the process resource
/// with a new
/// component.
///
///
[ResourceExposure(ResourceScope.Machine)]
[ResourceConsumption(ResourceScope.Machine)]
public static Process Start(string fileName, string arguments) {
return Start(new ProcessStartInfo(fileName, arguments));
}
///
///
/// Starts a process resource specified by the process start
/// information passed in, for example the file name of the process to start.
/// Associates the process resource with a new
/// component.
///
///
[ResourceExposure(ResourceScope.Machine)]
[ResourceConsumption(ResourceScope.Machine)]
public static Process Start(ProcessStartInfo startInfo) {
Process process = new Process();
if (startInfo == null) throw new ArgumentNullException("startInfo");
process.StartInfo = startInfo;
if (process.Start()) {
return process;
}
return null;
}
#endif // MONO_FEATURE_PROCESS_START
///
///
/// Stops the
/// associated process immediately.
///
///
[ResourceExposure(ResourceScope.Machine)]
[ResourceConsumption(ResourceScope.Machine)]
public void Kill() {
SafeProcessHandle handle = null;
try {
handle = GetProcessHandle(NativeMethods.PROCESS_TERMINATE);
if (!NativeMethods.TerminateProcess(handle, -1))
throw new Win32Exception();
}
finally {
ReleaseProcessHandle(handle);
}
}
///
/// Make sure we are not watching for process exit.
///
///
void StopWatchingForExit() {
if (watchingForExit) {
lock (this) {
if (watchingForExit) {
watchingForExit = false;
registeredWaitHandle.Unregister(null);
waitHandle.Close();
waitHandle = null;
registeredWaitHandle = null;
}
}
}
}
public override string ToString() {
#if !FEATURE_PAL
if (Associated) {
string processName = String.Empty;
//
// On windows 9x, we can't map a handle to an id.
// So ProcessName will throw. We shouldn't throw in Process.ToString though.
// Process.GetProcesses should be used to get all the processes on the machine.
// The processes returned from it will have a nice name.
//
try {
processName = this.ProcessName;
}
catch(PlatformNotSupportedException) {
}
if( processName.Length != 0) {
return String.Format(CultureInfo.CurrentCulture, "{0} ({1})", base.ToString(), processName);
}
return base.ToString();
}
else
#endif // !FEATURE_PAL
return base.ToString();
}
///
///
/// Instructs the component to wait the specified number of milliseconds for the associated process to exit.
///
///
public bool WaitForExit(int milliseconds) {
SafeProcessHandle handle = null;
bool exited;
ProcessWaitHandle processWaitHandle = null;
try {
handle = GetProcessHandle(NativeMethods.SYNCHRONIZE, false);
if (handle.IsInvalid) {
exited = true;
}
else {
processWaitHandle = new ProcessWaitHandle(handle);
if( processWaitHandle.WaitOne(milliseconds, false)) {
exited = true;
signaled = true;
}
else {
exited = false;
signaled = false;
}
}
}
finally {
if( processWaitHandle != null) {
processWaitHandle.Close();
}
// If we have a hard timeout, we cannot wait for the streams
if( output != null && milliseconds == -1) {
output.WaitUtilEOF();
}
if( error != null && milliseconds == -1) {
error.WaitUtilEOF();
}
ReleaseProcessHandle(handle);
}
if (exited && watchForExit) {
RaiseOnExited();
}
return exited;
}
///
///
/// Instructs the component to wait
/// indefinitely for the associated process to exit.
///
///
public void WaitForExit() {
WaitForExit(-1);
}
#if !FEATURE_PAL
///
///
/// Causes the component to wait the
/// specified number of milliseconds for the associated process to enter an
/// idle state.
/// This is only applicable for processes with a user interface,
/// therefore a message loop.
///
///
public bool WaitForInputIdle(int milliseconds) {
SafeProcessHandle handle = null;
bool idle;
try {
handle = GetProcessHandle(NativeMethods.SYNCHRONIZE | NativeMethods.PROCESS_QUERY_INFORMATION);
int ret = NativeMethods.WaitForInputIdle(handle, milliseconds);
switch (ret) {
case NativeMethods.WAIT_OBJECT_0:
idle = true;
break;
case NativeMethods.WAIT_TIMEOUT:
idle = false;
break;
case NativeMethods.WAIT_FAILED:
default:
throw new InvalidOperationException(SR.GetString(SR.InputIdleUnkownError));
}
}
finally {
ReleaseProcessHandle(handle);
}
return idle;
}
///
///
/// Instructs the component to wait
/// indefinitely for the associated process to enter an idle state. This
/// is only applicable for processes with a user interface, therefore a message loop.
///
///
public bool WaitForInputIdle() {
return WaitForInputIdle(Int32.MaxValue);
}
#endif // !FEATURE_PAL
#if MONO_FEATURE_PROCESS_START
// Support for working asynchronously with streams
///
///
/// Instructs the component to start
/// reading the StandardOutput stream asynchronously. The user can register a callback
/// that will be called when a line of data terminated by \n,\r or \r\n is reached, or the end of stream is reached
/// then the remaining information is returned. The user can add an event handler to OutputDataReceived.
///
///
[System.Runtime.InteropServices.ComVisible(false)]
public void BeginOutputReadLine() {
if(outputStreamReadMode == StreamReadMode.undefined) {
outputStreamReadMode = StreamReadMode.asyncMode;
}
else if (outputStreamReadMode != StreamReadMode.asyncMode) {
throw new InvalidOperationException(SR.GetString(SR.CantMixSyncAsyncOperation));
}
if (pendingOutputRead)
throw new InvalidOperationException(SR.GetString(SR.PendingAsyncOperation));
pendingOutputRead = true;
// We can't detect if there's a pending sychronous read, tream also doesn't.
if (output == null) {
if (standardOutput == null) {
throw new InvalidOperationException(SR.GetString(SR.CantGetStandardOut));
}
Stream s = standardOutput.BaseStream;
output = new AsyncStreamReader(this, s, new UserCallBack(this.OutputReadNotifyUser), standardOutput.CurrentEncoding);
}
output.BeginReadLine();
}
///
///
/// Instructs the component to start
/// reading the StandardError stream asynchronously. The user can register a callback
/// that will be called when a line of data terminated by \n,\r or \r\n is reached, or the end of stream is reached
/// then the remaining information is returned. The user can add an event handler to ErrorDataReceived.
///
///
[System.Runtime.InteropServices.ComVisible(false)]
public void BeginErrorReadLine() {
if(errorStreamReadMode == StreamReadMode.undefined) {
errorStreamReadMode = StreamReadMode.asyncMode;
}
else if (errorStreamReadMode != StreamReadMode.asyncMode) {
throw new InvalidOperationException(SR.GetString(SR.CantMixSyncAsyncOperation));
}
if (pendingErrorRead) {
throw new InvalidOperationException(SR.GetString(SR.PendingAsyncOperation));
}
pendingErrorRead = true;
// We can't detect if there's a pending sychronous read, stream also doesn't.
if (error == null) {
if (standardError == null) {
throw new InvalidOperationException(SR.GetString(SR.CantGetStandardError));
}
Stream s = standardError.BaseStream;
error = new AsyncStreamReader(this, s, new UserCallBack(this.ErrorReadNotifyUser), standardError.CurrentEncoding);
}
error.BeginReadLine();
}
///
///
/// Instructs the component to cancel the asynchronous operation
/// specified by BeginOutputReadLine().
///
///
[System.Runtime.InteropServices.ComVisible(false)]
public void CancelOutputRead() {
if (output != null) {
output.CancelOperation();
}
else {
throw new InvalidOperationException(SR.GetString(SR.NoAsyncOperation));
}
pendingOutputRead = false;
}
///
///
/// Instructs the component to cancel the asynchronous operation
/// specified by BeginErrorReadLine().
///
///
[System.Runtime.InteropServices.ComVisible(false)]
public void CancelErrorRead() {
if (error != null) {
error.CancelOperation();
}
else {
throw new InvalidOperationException(SR.GetString(SR.NoAsyncOperation));
}
pendingErrorRead = false;
}
internal void OutputReadNotifyUser(String data) {
// To avoid ---- between remove handler and raising the event
DataReceivedEventHandler outputDataReceived = OutputDataReceived;
if (outputDataReceived != null) {
DataReceivedEventArgs e = new DataReceivedEventArgs(data);
if (SynchronizingObject != null && SynchronizingObject.InvokeRequired) {
SynchronizingObject.Invoke(outputDataReceived, new object[] {this, e});
}
else {
outputDataReceived(this,e); // Call back to user informing data is available.
}
}
}
internal void ErrorReadNotifyUser(String data) {
// To avoid ---- between remove handler and raising the event
DataReceivedEventHandler errorDataReceived = ErrorDataReceived;
if (errorDataReceived != null) {
DataReceivedEventArgs e = new DataReceivedEventArgs(data);
if (SynchronizingObject != null && SynchronizingObject.InvokeRequired) {
SynchronizingObject.Invoke(errorDataReceived, new object[] {this, e});
}
else {
errorDataReceived(this,e); // Call back to user informing data is available.
}
}
}
#endif // MONO_FEATURE_PROCESS_START
///
/// A desired internal state.
///
///
enum State {
HaveId = 0x1,
IsLocal = 0x2,
IsNt = 0x4,
HaveProcessInfo = 0x8,
Exited = 0x10,
Associated = 0x20,
IsWin2k = 0x40,
HaveNtProcessInfo = HaveProcessInfo | IsNt
}
}
///
/// This data structure contains information about a process that is collected
/// in bulk by querying the operating system. The reason to make this a separate
/// structure from the process component is so that we can throw it away all at once
/// when Refresh is called on the component.
///
///
internal class ProcessInfo {
#if !MONO
public ArrayList threadInfoList = new ArrayList();
public int basePriority;
public string processName;
public int processId;
public int handleCount;
public long poolPagedBytes;
public long poolNonpagedBytes;
public long virtualBytes;
public long virtualBytesPeak;
public long workingSetPeak;
public long workingSet;
public long pageFileBytesPeak;
public long pageFileBytes;
public long privateBytes;
public int mainModuleId; // used only for win9x - id is only for use with CreateToolHelp32
public int sessionId;
#endif
}
#if !MONO
///
/// This data structure contains information about a thread in a process that
/// is collected in bulk by querying the operating system. The reason to
/// make this a separate structure from the ProcessThread component is so that we
/// can throw it away all at once when Refresh is called on the component.
///
///
internal class ThreadInfo {
public int threadId;
public int processId;
public int basePriority;
public int currentPriority;
public IntPtr startAddress;
public ThreadState threadState;
#if !FEATURE_PAL
public ThreadWaitReason threadWaitReason;
#endif // !FEATURE_PAL
}
///
/// This data structure contains information about a module in a process that
/// is collected in bulk by querying the operating system. The reason to
/// make this a separate structure from the ProcessModule component is so that we
/// can throw it away all at once when Refresh is called on the component.
///
///
internal class ModuleInfo {
public string baseName;
public string fileName;
public IntPtr baseOfDll;
public IntPtr entryPoint;
public int sizeOfImage;
public int Id; // used only on win9x - for matching up with ProcessInfo.mainModuleId
}
#endif
internal static class EnvironmentBlock {
public static byte[] ToByteArray(StringDictionary sd, bool unicode) {
// get the keys
string[] keys = new string[sd.Count];
byte[] envBlock = null;
sd.Keys.CopyTo(keys, 0);
// get the values
string[] values = new string[sd.Count];
sd.Values.CopyTo(values, 0);
// sort both by the keys
// Windows 2000 requires the environment block to be sorted by the key
// It will first converting the case the strings and do ordinal comparison.
Array.Sort(keys, values, OrdinalCaseInsensitiveComparer.Default);
// create a list of null terminated "key=val" strings
StringBuilder stringBuff = new StringBuilder();
for (int i = 0; i < sd.Count; ++ i) {
stringBuff.Append(keys[i]);
stringBuff.Append('=');
stringBuff.Append(values[i]);
stringBuff.Append('\0');
}
// an extra null at the end indicates end of list.
stringBuff.Append('\0');
if( unicode) {
envBlock = Encoding.Unicode.GetBytes(stringBuff.ToString());
}
else {
envBlock = Encoding.Default.GetBytes(stringBuff.ToString());
if (envBlock.Length > UInt16.MaxValue)
throw new InvalidOperationException(SR.GetString(SR.EnvironmentBlockTooLong, envBlock.Length));
}
return envBlock;
}
}
internal class OrdinalCaseInsensitiveComparer : IComparer {
internal static readonly OrdinalCaseInsensitiveComparer Default = new OrdinalCaseInsensitiveComparer();
public int Compare(Object a, Object b) {
String sa = a as String;
String sb = b as String;
if (sa != null && sb != null) {
return String.Compare(sa, sb, StringComparison.OrdinalIgnoreCase);
}
return Comparer.Default.Compare(a,b);
}
}
internal class ProcessThreadTimes {
internal long create;
internal long exit;
internal long kernel;
internal long user;
public DateTime StartTime {
get {
return DateTime.FromFileTime(create);
}
}
public DateTime ExitTime {
get {
return DateTime.FromFileTime(exit);
}
}
public TimeSpan PrivilegedProcessorTime {
get {
return new TimeSpan(kernel);
}
}
public TimeSpan UserProcessorTime {
get {
return new TimeSpan(user);
}
}
public TimeSpan TotalProcessorTime {
get {
return new TimeSpan(user + kernel);
}
}
}
#if !MONO
internal class ShellExecuteHelper {
private NativeMethods.ShellExecuteInfo _executeInfo;
private int _errorCode;
private bool _succeeded;
public ShellExecuteHelper(NativeMethods.ShellExecuteInfo executeInfo) {
_executeInfo = executeInfo;
}
[ResourceExposure(ResourceScope.None)]
[ResourceConsumption(ResourceScope.Machine, ResourceScope.Machine)]
public void ShellExecuteFunction() {
if (!(_succeeded = NativeMethods.ShellExecuteEx(_executeInfo))) {
_errorCode = Marshal.GetLastWin32Error();
}
}
public bool ShellExecuteOnSTAThread() {
//
// SHELL API ShellExecute() requires STA in order to work correctly.
// If current thread is not a STA thread, we need to call ShellExecute on a new thread.
//
if( Thread.CurrentThread.GetApartmentState() != ApartmentState.STA) {
ThreadStart threadStart = new ThreadStart(this.ShellExecuteFunction);
Thread executionThread = new Thread(threadStart);
executionThread.SetApartmentState(ApartmentState.STA);
executionThread.Start();
executionThread.Join();
}
else {
ShellExecuteFunction();
}
return _succeeded;
}
public int ErrorCode {
get {
return _errorCode;
}
}
}
#endif
}