Representa un componente de contador de rendimiento de Windows NT.
Espacio de nombres: System.Diagnostics
Ensamblado: System (en system.dll)
Visual Basic (Declaración)
Public NotInheritable Class PerformanceCounter
Inherits Component
Implements ISupportInitialize
Dim instance As PerformanceCounter
public sealed class PerformanceCounter : Component, ISupportInitialize
public ref class PerformanceCounter sealed : public Component, ISupportInitialize
public final class PerformanceCounter extends Component implements ISupportInitialize
public final class PerformanceCounter extends Component implements ISupportInitialize
El componente PerformanceCounter se puede utilizar para leer contadores personalizados o contadores predefinidos existentes, y para publicar (escribir) datos de rendimiento en contadores personalizados.
Importante: |
|---|
| En las versiones 1.0 y 1.1 de .NET Framework, esta clase necesita llamadores inmediatos que sean de plena confianza. En la versión 2.0 esta clase necesita PerformanceCounterPermission para acciones específicas. Se recomienda encarecidamente que PerformanceCounterPermission no se conceda a código que no sea de plena confianza. La capacidad de leer y escribir contadores de rendimiento permite que el código realice acciones como enumerar procesos en ejecución y obtener información sobre ellos. |
Precaución |
|---|
| Si se pasa un objeto PerformanceCounter a código de menos confianza puede crear un problema de seguridad. Nunca pase objetos de contador de rendimiento, como PerformanceCounterCategory o PerformanceCounter, a código de menos confianza. |
Para leer de un contador de rendimiento, hay que crear una instancia de la clase PerformanceCounter, establecer las propiedades CategoryName, CounterName y, opcionalmente, InstanceName o MachineName, y después llamar al método NextValue para obtener una lectura del contador de rendimiento.
Para publicar datos del contador de rendimiento, hay que crear uno o más contadores personalizados utilizando el método PerformanceCounterCategory.Create, crear una instancia de la clase PerformanceCounter, establecer las propiedades CategoryName, CounterName y, opcionalmente, InstanceName o MachineName, y después llamar a los métodos IncrementBy, Increment o Decrement, o establecer la propiedad RawValue para cambiar el valor del contador personalizado.
Nota |
|---|
| Los métodos Increment, IncrementBy y Decrement utilizan interbloqueos para actualizar el valor de contador. Esto ayuda a mantener la precisión del valor de contador en los escenarios multiproceso, pero también produce una reducción del rendimiento. Si no necesita la precisión que proporcionan las operaciones interbloqueadas, puede actualizar la propiedad RawValue directamente y conseguir que el rendimiento mejore hasta 5 veces. Sin embargo, en los escenarios multiproceso, quizás se omitan algunas actualizaciones del valor de contador, produciendo datos inexactos. |
El contador es el mecanismo mediante el cual se recopilan datos de rendimiento. El Registro almacena los nombres de todos los contadores, cada uno de los cuales está relacionado con un área de funcionalidad específica del sistema. Entre otros ejemplos, se incluyen el tiempo de ocupación de un procesador, el uso de memoria o el número de bytes recibidos a través de una conexión de red.
Cada contador se identifica de forma inequívoca mediante su nombre y su ubicación. Del mismo modo que una ruta de acceso a un archivo incluye una unidad, un directorio, uno o más subdirectorios y un nombre de archivo, la información del contador se compone de cuatro elementos: el equipo, la categoría, la instancia de la categoría y el nombre del contador.
La información del contador debe incluir la categoría, o el objeto de rendimiento, cuyos datos mide el contador. Las categorías de un equipo incluyen los componentes físicos, como los procesadores, los discos y la memoria. También hay categorías del sistema, como procesos y subprocesos. Cada categoría está relacionada con un elemento funcional del equipo y tiene asignado un conjunto de contadores estándar. Estos objetos se enumeran en la lista desplegable Objeto de rendimiento del cuadro de diálogo Agregar contadores del Monitor de sistema de Windows 2000 y debe incluirlos en la ruta de acceso del contador. Los datos de rendimiento se agrupan por categorías, en función de la categoría con la que estén relacionados.
En algunos casos, pueden existir varias copias de la misma categoría. Esto se debe, por ejemplo, a que varios procesos y subprocesos se ejecutan simultáneamente y a que algunos equipos contienen más de un procesador. Las copias de categoría se denominan instancias de categoría. Cada instancia tiene asignado un conjunto de contadores estándar. Si una categoría puede contener más de una instancia, es necesario incluir una especificación de instancia en la información del contador.
Para obtener los datos de rendimiento de los contadores que requieren un valor inicial o un valor anterior para realizar los cálculos necesarios, llame al método NextValue dos veces y utilice la información que devuelve en función de las necesidades de la aplicación.
Nota de la plataforma Windows 98, Windows Millennium:
Los contadores de rendimiento no son compatibles con Windows 98 y Windows Millennium Edition (Me).
Imports System
Imports System.Collections
Imports System.Collections.Specialized
Imports System.Diagnostics
_
Public Class App
Private Shared PC As PerformanceCounter
Private Shared BPC As PerformanceCounter
Public Shared Sub Main()
Dim samplesList As New ArrayList()
SetupCategory()
CreateCounters()
CollectSamples(samplesList)
CalculateResults(samplesList)
End Sub 'Main
Private Shared Function SetupCategory() As Boolean
If Not PerformanceCounterCategory.Exists("AverageCounter64SampleCategory") Then
Dim CCDC As New CounterCreationDataCollection()
' Add the counter.
Dim averageCount64 As New CounterCreationData()
averageCount64.CounterType = PerformanceCounterType.AverageCount64
averageCount64.CounterName = "AverageCounter64Sample"
CCDC.Add(averageCount64)
' Add the base counter.
Dim averageCount64Base As New CounterCreationData()
averageCount64Base.CounterType = PerformanceCounterType.AverageBase
averageCount64Base.CounterName = "AverageCounter64SampleBase"
CCDC.Add(averageCount64Base)
' Create the category.
PerformanceCounterCategory.Create("AverageCounter64SampleCategory", "Demonstrates usage of the AverageCounter64 performance counter type.", CCDC)
Return True
Else
Console.WriteLine("Category exists - AverageCounter64SampleCategory")
Return False
End If
End Function 'SetupCategory
Private Shared Sub CreateCounters()
' Create the counters.
PC = New PerformanceCounter("AverageCounter64SampleCategory", "AverageCounter64Sample", False)
BPC = New PerformanceCounter("AverageCounter64SampleCategory", "AverageCounter64SampleBase", False)
PC.RawValue = 0
BPC.RawValue = 0
End Sub 'CreateCounters
Private Shared Sub CollectSamples(samplesList As ArrayList)
Dim r As New Random(DateTime.Now.Millisecond)
' Loop for the samples.
Dim j As Integer
For j = 0 To 99
Dim value As Integer = r.Next(1, 10)
Console.Write((j + " = " + value))
PC.IncrementBy(value)
BPC.Increment()
If j Mod 10 = 9 Then
OutputSample(PC.NextSample())
samplesList.Add(PC.NextSample())
Else
Console.WriteLine()
End If
System.Threading.Thread.Sleep(50)
Next j
End Sub 'CollectSamples
Private Shared Sub CalculateResults(samplesList As ArrayList)
Dim i As Integer
For i = 0 To (samplesList.Count - 1) - 1
' Output the sample.
OutputSample(CType(samplesList(i), CounterSample))
OutputSample(CType(samplesList((i + 1)), CounterSample))
' Use .NET to calculate the counter value.
Console.WriteLine((".NET computed counter value = " + CounterSampleCalculator.ComputeCounterValue(CType(samplesList(i), CounterSample), CType(samplesList((i + 1)), CounterSample))))
' Calculate the counter value manually.
Console.WriteLine(("My computed counter value = " + MyComputeCounterValue(CType(samplesList(i), CounterSample), CType(samplesList((i + 1)), CounterSample))))
Next i
End Sub 'CalculateResults
'++++++++//++++++++//++++++++//++++++++//++++++++//++++++++//++++++++//++++++++
' Description - This counter type shows how many items are processed, on average,
' during an operation. Counters of this type display a ratio of the items
' processed (such as bytes sent) to the number of operations completed. The
' ratio is calculated by comparing the number of items processed during the
' last interval to the number of operations completed during the last interval.
' Generic type - Average
' Formula - (N1 - N0) / (D1 - D0), where the numerator (N) represents the number
' of items processed during the last sample interval and the denominator (D)
' represents the number of operations completed during the last two sample
' intervals.
' Average (Nx - N0) / (Dx - D0)
' Example PhysicalDisk\ Avg. Disk Bytes/Transfer
'++++++++//++++++++//++++++++//++++++++//++++++++//++++++++//++++++++//++++++++
Private Shared Function MyComputeCounterValue(s0 As CounterSample, s1 As CounterSample) As [Single]
Dim numerator As [Single] = CType(s1.RawValue, [Single]) - CType(s0.RawValue, [Single])
Dim denomenator As [Single] = CType(s1.BaseValue, [Single]) - CType(s0.BaseValue, [Single])
Dim counterValue As [Single] = numerator / denomenator
Return counterValue
End Function 'MyComputeCounterValue
' Output information about the counter sample.
Private Shared Sub OutputSample(s As CounterSample)
Console.WriteLine(ControlChars.Lf + ControlChars.Cr + "+++++++++++")
Console.WriteLine("Sample values - " + ControlChars.Lf + ControlChars.Cr)
Console.WriteLine((" BaseValue = " + s.BaseValue))
Console.WriteLine((" CounterFrequency = " + s.CounterFrequency))
Console.WriteLine((" CounterTimeStamp = " + s.CounterTimeStamp))
Console.WriteLine((" CounterType = " + s.CounterType))
Console.WriteLine((" RawValue = " + s.RawValue))
Console.WriteLine((" SystemFrequency = " + s.SystemFrequency))
Console.WriteLine((" TimeStamp = " + s.TimeStamp))
Console.WriteLine((" TimeStamp100nSec = " + s.TimeStamp100nSec))
Console.WriteLine("++++++++++++++++++++++")
End Sub 'OutputSample
End Class 'App
using System;
using System.Collections;
using System.Collections.Specialized;
using System.Diagnostics;
public class App {
private static PerformanceCounter PC;
private static PerformanceCounter BPC;
public static void Main()
{
ArrayList samplesList = new ArrayList();
SetupCategory();
CreateCounters();
CollectSamples(samplesList);
CalculateResults(samplesList);
}
private static bool SetupCategory()
{
if ( !PerformanceCounterCategory.Exists("AverageCounter64SampleCategory") )
{
CounterCreationDataCollection CCDC = new CounterCreationDataCollection();
// Add the counter.
CounterCreationData averageCount64 = new CounterCreationData();
averageCount64.CounterType = PerformanceCounterType.AverageCount64;
averageCount64.CounterName = "AverageCounter64Sample";
CCDC.Add(averageCount64);
// Add the base counter.
CounterCreationData averageCount64Base = new CounterCreationData();
averageCount64Base.CounterType = PerformanceCounterType.AverageBase;
averageCount64Base.CounterName = "AverageCounter64SampleBase";
CCDC.Add(averageCount64Base);
// Create the category.
PerformanceCounterCategory.Create("AverageCounter64SampleCategory",
"Demonstrates usage of the AverageCounter64 performance counter type.",
CCDC);
return(true);
}
else
{
Console.WriteLine("Category exists - AverageCounter64SampleCategory");
return(false);
}
}
private static void CreateCounters()
{
// Create the counters.
PC = new PerformanceCounter("AverageCounter64SampleCategory",
"AverageCounter64Sample",
false);
BPC = new PerformanceCounter("AverageCounter64SampleCategory",
"AverageCounter64SampleBase",
false);
PC.RawValue=0;
BPC.RawValue=0;
}
private static void CollectSamples(ArrayList samplesList)
{
Random r = new Random( DateTime.Now.Millisecond );
// Loop for the samples.
for (int j = 0; j < 100; j++)
{
int value = r.Next(1, 10);
Console.Write(j + " = " + value);
PC.IncrementBy(value);
BPC.Increment();
if ((j % 10) == 9)
{
OutputSample(PC.NextSample());
samplesList.Add( PC.NextSample() );
}
else
Console.WriteLine();
System.Threading.Thread.Sleep(50);
}
}
private static void CalculateResults(ArrayList samplesList)
{
for(int i = 0; i < (samplesList.Count - 1); i++)
{
// Output the sample.
OutputSample( (CounterSample)samplesList[i] );
OutputSample( (CounterSample)samplesList[i+1] );
// Use .NET to calculate the counter value.
Console.WriteLine(".NET computed counter value = " +
CounterSampleCalculator.ComputeCounterValue((CounterSample)samplesList[i],
(CounterSample)samplesList[i+1]) );
// Calculate the counter value manually.
Console.WriteLine("My computed counter value = " +
MyComputeCounterValue((CounterSample)samplesList[i],
(CounterSample)samplesList[i+1]) );
}
}
//++++++++//++++++++//++++++++//++++++++//++++++++//++++++++//++++++++//++++++++
// Description - This counter type shows how many items are processed, on average,
// during an operation. Counters of this type display a ratio of the items
// processed (such as bytes sent) to the number of operations completed. The
// ratio is calculated by comparing the number of items processed during the
// last interval to the number of operations completed during the last interval.
// Generic type - Average
// Formula - (N1 - N0) / (D1 - D0), where the numerator (N) represents the number
// of items processed during the last sample interval and the denominator (D)
// represents the number of operations completed during the last two sample
// intervals.
// Average (Nx - N0) / (Dx - D0)
// Example PhysicalDisk\ Avg. Disk Bytes/Transfer
//++++++++//++++++++//++++++++//++++++++//++++++++//++++++++//++++++++//++++++++
private static Single MyComputeCounterValue(CounterSample s0, CounterSample s1)
{
Single numerator = (Single)s1.RawValue - (Single)s0.RawValue;
Single denomenator = (Single)s1.BaseValue - (Single)s0.BaseValue;
Single counterValue = numerator / denomenator;
return(counterValue);
}
// Output information about the counter sample.
private static void OutputSample(CounterSample s)
{
Console.WriteLine("\r\n+++++++++++");
Console.WriteLine("Sample values - \r\n");
Console.WriteLine(" BaseValue = " + s.BaseValue);
Console.WriteLine(" CounterFrequency = " + s.CounterFrequency);
Console.WriteLine(" CounterTimeStamp = " + s.CounterTimeStamp);
Console.WriteLine(" CounterType = " + s.CounterType);
Console.WriteLine(" RawValue = " + s.RawValue);
Console.WriteLine(" SystemFrequency = " + s.SystemFrequency);
Console.WriteLine(" TimeStamp = " + s.TimeStamp);
Console.WriteLine(" TimeStamp100nSec = " + s.TimeStamp100nSec);
Console.WriteLine("++++++++++++++++++++++");
}
}
#using <System.dll>
using namespace System;
using namespace System::Collections;
using namespace System::Collections::Specialized;
using namespace System::Diagnostics;
// Output information about the counter sample.
void OutputSample( CounterSample s )
{
Console::WriteLine( "\r\n+++++++++++" );
Console::WriteLine( "Sample values - \r\n" );
Console::WriteLine( " BaseValue = {0}", s.BaseValue );
Console::WriteLine( " CounterFrequency = {0}", s.CounterFrequency );
Console::WriteLine( " CounterTimeStamp = {0}", s.CounterTimeStamp );
Console::WriteLine( " CounterType = {0}", s.CounterType );
Console::WriteLine( " RawValue = {0}", s.RawValue );
Console::WriteLine( " SystemFrequency = {0}", s.SystemFrequency );
Console::WriteLine( " TimeStamp = {0}", s.TimeStamp );
Console::WriteLine( " TimeStamp100nSec = {0}", s.TimeStamp100nSec );
Console::WriteLine( "++++++++++++++++++++++" );
}
//++++++++//++++++++//++++++++//++++++++//++++++++//++++++++//++++++++//++++++++
// Description - This counter type shows how many items are processed, on average,
// during an operation. Counters of this type display a ratio of the items
// processed (such as bytes sent) to the number of operations completed. The
// ratio is calculated by comparing the number of items processed during the
// last interval to the number of operations completed during the last interval.
// Generic type - Average
// Formula - (N1 - N0) / (D1 - D0), where the numerator (N) represents the number
// of items processed during the last sample interval and the denominator (D)
// represents the number of operations completed during the last two sample
// intervals.
// Average (Nx - N0) / (Dx - D0)
// Example PhysicalDisk\ Avg. Disk Bytes/Transfer
//++++++++//++++++++//++++++++//++++++++//++++++++//++++++++//++++++++//++++++++
float MyComputeCounterValue( CounterSample s0, CounterSample s1 )
{
float numerator = (float)s1.RawValue - (float)s0.RawValue;
float denomenator = (float)s1.BaseValue - (float)s0.BaseValue;
float counterValue = numerator / denomenator;
return counterValue;
}
bool SetupCategory()
{
if ( !PerformanceCounterCategory::Exists( "AverageCounter64SampleCategory" ) )
{
CounterCreationDataCollection^ CCDC = gcnew CounterCreationDataCollection;
// Add the counter.
CounterCreationData^ averageCount64 = gcnew CounterCreationData;
averageCount64->CounterType = PerformanceCounterType::AverageCount64;
averageCount64->CounterName = "AverageCounter64Sample";
CCDC->Add( averageCount64 );
// Add the base counter.
CounterCreationData^ averageCount64Base = gcnew CounterCreationData;
averageCount64Base->CounterType = PerformanceCounterType::AverageBase;
averageCount64Base->CounterName = "AverageCounter64SampleBase";
CCDC->Add( averageCount64Base );
// Create the category.
PerformanceCounterCategory::Create( "AverageCounter64SampleCategory", "Demonstrates usage of the AverageCounter64 performance counter type.", CCDC );
return (true);
}
else
{
Console::WriteLine( "Category exists - AverageCounter64SampleCategory" );
return (false);
}
}
void CreateCounters( PerformanceCounter^% PC, PerformanceCounter^% BPC )
{
// Create the counters.
PC = gcnew PerformanceCounter( "AverageCounter64SampleCategory","AverageCounter64Sample",false );
BPC = gcnew PerformanceCounter( "AverageCounter64SampleCategory","AverageCounter64SampleBase",false );
PC->RawValue = 0;
BPC->RawValue = 0;
}
void CollectSamples( ArrayList^ samplesList, PerformanceCounter^ PC, PerformanceCounter^ BPC )
{
Random^ r = gcnew Random( DateTime::Now.Millisecond );
// Loop for the samples.
for ( int j = 0; j < 100; j++ )
{
int value = r->Next( 1, 10 );
Console::Write( "{0} = {1}", j, value );
PC->IncrementBy( value );
BPC->Increment();
if ( (j % 10) == 9 )
{
OutputSample( PC->NextSample() );
samplesList->Add( PC->NextSample() );
}
else
Console::WriteLine();
System::Threading::Thread::Sleep( 50 );
}
}
void CalculateResults( ArrayList^ samplesList )
{
for ( int i = 0; i < (samplesList->Count - 1); i++ )
{
// Output the sample.
OutputSample( *safe_cast<CounterSample^>(samplesList[ i ]) );
OutputSample( *safe_cast<CounterSample^>(samplesList[ i + 1 ]) );
// Use .NET to calculate the counter value.
Console::WriteLine( ".NET computed counter value = {0}", CounterSampleCalculator::ComputeCounterValue( *safe_cast<CounterSample^>(samplesList[ i ]), *safe_cast<CounterSample^>(samplesList[ i + 1 ]) ) );
// Calculate the counter value manually.
Console::WriteLine( "My computed counter value = {0}", MyComputeCounterValue( *safe_cast<CounterSample^>(samplesList[ i ]), *safe_cast<CounterSample^>(samplesList[ i + 1 ]) ) );
}
}
int main()
{
ArrayList^ samplesList = gcnew ArrayList;
PerformanceCounter^ PC;
PerformanceCounter^ BPC;
SetupCategory();
CreateCounters( PC, BPC );
CollectSamples( samplesList, PC, BPC );
CalculateResults( samplesList );
}
import System.*;
import System.Collections.*;
import System.Collections.Specialized.*;
import System.Diagnostics.*;
public class App
{
private static PerformanceCounter pc;
private static PerformanceCounter bpc;
public static void main(String[] args)
{
ArrayList samplesList = new ArrayList();
SetupCategory();
CreateCounters();
CollectSamples(samplesList);
CalculateResults(samplesList);
} //main
private static boolean SetupCategory()
{
if (!(PerformanceCounterCategory.Exists(
"AverageCounter64SampleCategory"))) {
CounterCreationDataCollection ccdc =
new CounterCreationDataCollection();
// Add the counter.
CounterCreationData averageCount64 = new CounterCreationData();
averageCount64.
set_CounterType(PerformanceCounterType.AverageCount64);
averageCount64.set_CounterName("AverageCounter64Sample");
ccdc.Add(averageCount64);
// Add the base counter.
CounterCreationData averageCount64Base = new CounterCreationData();
averageCount64Base.set_CounterType(PerformanceCounterType.
AverageBase);
averageCount64Base.set_CounterName("AverageCounter64SampleBase");
ccdc.Add(averageCount64Base);
// Create the category.
PerformanceCounterCategory.Create("AverageCounter64SampleCategory",
"Demonstrates usage of the AverageCounter64 performance "
+ "counter type.", ccdc);
return true;
}
else {
Console.WriteLine("Category exists - AverageCounter64SampleCategory");
return false;
}
} //SetupCategory
private static void CreateCounters()
{
// Create the counters.
pc = new PerformanceCounter("AverageCounter64SampleCategory",
"AverageCounter64Sample", false);
bpc = new PerformanceCounter("AverageCounter64SampleCategory",
"AverageCounter64SampleBase", false);
pc.set_RawValue(0);
bpc.set_RawValue(0);
} //CreateCounters
private static void CollectSamples(ArrayList samplesList)
{
Random r = new Random(DateTime.get_Now().get_Millisecond());
// Loop for the samples.
for (int j = 0; j < 100; j++) {
int value = r.Next(1, 10);
Console.Write(j + " = " + value);
pc.IncrementBy(value);
bpc.Increment();
if (j % 10 == 9) {
OutputSample(pc.NextSample());
samplesList.Add(pc.NextSample());
}
else {
Console.WriteLine();
}
System.Threading.Thread.Sleep(50);
}
} //CollectSamples
private static void CalculateResults(ArrayList samplesList)
{
for (int i = 0; i < samplesList.get_Count() - 1; i++) {
// Output the sample.
OutputSample((CounterSample)samplesList.get_Item(i));
OutputSample((CounterSample)samplesList.get_Item(i + 1));
// Use.NET to calculate the counter value.
Console.WriteLine(".NET computed counter value = "
+ CounterSampleCalculator.ComputeCounterValue((CounterSample)
samplesList.get_Item(i),
(CounterSample)samplesList.get_Item(i + 1)));
// Calculate the counter value manually.
Console.WriteLine("My computed counter value = "
+ MyComputeCounterValue((CounterSample)samplesList.get_Item(i),
(CounterSample)samplesList.get_Item(i + 1)));
}
} //CalculateResults
//++++++++//++++++++//++++++++//++++++++//++++++++//++++++++//++++++++
//++++++++
// Description - This counter type shows how many items are processed,
// on average,during an operation.Counters of this type display a
// ratio of the items processed (such as bytes sent) to the number
// of operations completed. The ratio is calculated by comparing
// the number of items processed during the last interval to the
// number of operations completed during the last interval.
// Generic type - Average
// Formula - (N1 - N0) / (D1 - D0), where the numerator (N)
// represents the number of items processed during the last sample
// interval and the denominator (D) represents the number of
// operations completed during the last two sample
// intervals.
// Average (Nx - N0) / (Dx - D0)
// Example PhysicalDisk\ Avg. Disk Bytes/Transfer
//++++++++//++++++++//++++++++//++++++++//++++++++//++++++++//++++++++
//++++++++
private static float MyComputeCounterValue(CounterSample s0,
CounterSample s1)
{
float numerator = (float)s1.get_RawValue() - (float)s0.get_RawValue();
float denomenator = (float)s1.get_BaseValue() - (float)s0.
get_BaseValue();
float counterValue = numerator / denomenator;
return counterValue;
} //MyComputeCounterValue
// Output information about the counter sample.
private static void OutputSample(CounterSample s)
{
Console.WriteLine("\r\n+++++++++++");
Console.WriteLine("Sample values - \r\n");
Console.WriteLine(" BaseValue = " + s.get_BaseValue());
Console.WriteLine(" CounterFrequency = " + s.get_CounterFrequency());
Console.WriteLine(" CounterTimeStamp = " + s.get_CounterTimeStamp());
Console.WriteLine(" CounterType = " + s.get_CounterType());
Console.WriteLine(" RawValue = " + s.get_RawValue());
Console.WriteLine(" SystemFrequency = " + s.get_SystemFrequency());
Console.WriteLine(" TimeStamp = " + s.get_TimeStamp());
Console.WriteLine(" TimeStamp100nSec = " + s.get_TimeStamp100nSec());
Console.WriteLine("++++++++++++++++++++++");
} //OutputSample
} //App
System.Object
System.MarshalByRefObject
System.ComponentModel.Component
System.Diagnostics.PerformanceCounter
Seguridad para subprocesos
Este tipo es seguro para operaciones multiproceso.
Windows 98, Windows 2000 SP4, Windows Server 2003, Windows XP Media Center, Windows XP Professional x64, Windows XP SP2, Windows XP Starter Edition
.NET Framework no admite todas las versiones de cada plataforma. Para obtener una lista de las versiones admitidas, vea Requisitos del sistema.
.NET Framework
Compatible con: 2.0, 1.1, 1.0