public static String GetCounterValue(PerformanceCounter pPerformanceCounter)
{
String retval = "";
// Retrieve PerformanceCounter result based on its CounterType.
switch (pPerformanceCounter.CounterType)
{
case PerformanceCounterType.NumberOfItems32:
retval = pPerformanceCounter.RawValue.ToString();
break;
case PerformanceCounterType.NumberOfItems64:
retval = pPerformanceCounter.RawValue.ToString();
break;
case PerformanceCounterType.RateOfCountsPerSecond32:
retval = pPerformanceCounter.NextValue().ToString();
break;
case PerformanceCounterType.RateOfCountsPerSecond64:
retval = pPerformanceCounter.NextValue().ToString();
break;
case PerformanceCounterType.AverageTimer32:
retval = pPerformanceCounter.NextValue().ToString();
break;
default:
retval = null;
break;
}
return retval;
}
public int RAM_Count()
{
PerformanceCounter perfMemCount = new PerformanceCounter("Memory", "Available MBytes");
perfMemCount.NextValue();
short currentAvailableMemory = (short)perfMemCount.NextValue();
return currentAvailableMemory;
}
public byte[] Request(byte[] header)
{
string newheader = "HTTP/1.0 200 OK\r\nContent-Type: application/json\r\n\r\n";
string processmsg = Encoding.UTF8.GetString(header);
if (processmsg.Contains(@"/status/all"))
{
PerformanceCounter cpuCounter = new PerformanceCounter("Processor Information", "% Processor Time");
PerformanceCounter ramCounter;
cpuCounter.CategoryName = "Processor";
cpuCounter.CounterName = "% Processor Time";
cpuCounter.InstanceName = "_Total";
cpuCounter.NextValue();
ramCounter = new PerformanceCounter("Memory", "Available MBytes");
string jsoncpu = "{\"cpu\" : \"" + cpuCounter.NextValue() + "%\"}";
string jsonmem = "{\"memory\" : \"" + ramCounter.NextValue() + "MB\"}";
string json = "[" + jsonmem + "," + jsoncpu + "]";
return System.Text.Encoding.UTF8.GetBytes(newheader + json);
}
return null;
}
/// <summary>
/// This method is responsible for monitoring system resource and user activity with the computer
/// And periodically changes the shared variable 'crawlerState'
/// </summary>
public void Scheduler()
{
PerformanceCounter pc = new PerformanceCounter("Processor", "% Idle Time", "_Total", true);
LASTINPUTINFO info = new LASTINPUTINFO();
info.cbSize = Marshal.SizeOf(typeof(LASTINPUTINFO));
while (GlobalData.RunScheduler)
{
if (GetLastInputInfo(ref info))
{
if ((Environment.TickCount - info.dwTime) / 1000 > 5 && (int)pc.NextValue() > 40)
{
crawlerState = CrawlerState.Run;
}
else
{
crawlerState = CrawlerState.Stop;
if ((Environment.TickCount - info.dwTime) / 1000 <= 5)
GlobalData.lIndexingStatus.Text = string.Format("Indexing is paused and will be resumed in {0} sec of computer inactivity [ CPU Idle : {1:F2}% ]", 5 - (Environment.TickCount - info.dwTime) / 1000, pc.NextValue());
}
}
Thread.Sleep(1000);
}
pc.Close();
}
public float CollectMetric(PluginResource pluginResource, string option = null)
{
// get a handle on the service first
var service = ServiceController.GetServices().FirstOrDefault(s => s.DisplayName == option);
if (service == null)
{
throw new Exception(string.Format("Windows service by name '{0}' not found", option));
}
if (service.Status == ServiceControllerStatus.Stopped)
{
return default(float);
}
else if (pluginResource.ResourceTextKey == StatusResource)
{
return 1;
}
// get a handle on the process
var serviceMgtObj = new ManagementObject(@"Win32_Service.Name='" + service.ServiceName + "'");
var serviceProcess = Process.GetProcessById(Convert.ToInt32(serviceMgtObj["ProcessId"]));
// return perfomance counter value for process
var perfCounter = new PerformanceCounter("Process", pluginResource.Label, serviceProcess.ProcessName);
var value = perfCounter.NextValue();
if (value == 0.0)
{
Thread.Sleep(1000);
value = perfCounter.NextValue();
}
return value;
}
private void CPUUsage()
{
Task.Factory.StartNew(() =>
{
PerformanceCounter cpuCounter = new PerformanceCounter();
cpuCounter.CategoryName = "Processor";
cpuCounter.CounterName = "% Processor Time";
cpuCounter.InstanceName = "_Total";
cpuCounter.NextValue();
Thread.Sleep(20);
cpu = cpuCounter.NextValue();
while (true)
{
try
{
Thread.Sleep(1000);
cpu = cpuCounter.NextValue();
}
catch (Exception e)
{
ShowBalloon("CPU", e);
Thread.Sleep(10000);
}
}
});
}
protected void Page_Load(object sender, EventArgs e)
{
PerformanceCounter cpuCounter = new PerformanceCounter();
PerformanceCounter ramCounter = new PerformanceCounter();
cpuCounter.CategoryName = "Processor";
cpuCounter.CounterName = "% Processor Time";
cpuCounter.InstanceName = "_Total";
ramCounter = new PerformanceCounter("Memory", "Available MBytes");
System.Threading.Thread.Sleep(1000);
cpuCounter.NextValue();
System.Threading.Thread.Sleep(1000);
Response.Write("Worker State: " + status + "<br>");
Response.Write("CPU Utilization: " + cpuCounter.NextValue() + " <br>");
Response.Write("RAM Utilization: " + ramCounter.NextValue() + " <br>");
Response.Write("Urls Crawled: " + " <br>");
Response.Write("Last 10 URLs crawled" + " <br>");
CloudStorageAccount storageAccount = CloudStorageAccount.Parse(CloudConfigurationManager.GetSetting("StorageConnectionString"));
CloudQueueClient queueClient = storageAccount.CreateCloudQueueClient();
CloudQueue urlQ = queueClient.GetQueueReference("pagequeue");
urlQ.CreateIfNotExists();
int? messageCount = urlQ.ApproximateMessageCount;
Response.Write(messageCount.ToString());
Debug.WriteLine("ApproximateMessageCount: " + urlQ.ApproximateMessageCount);
Response.Write("Size of Queue: " + urlQ.ApproximateMessageCount + " <br>");
Response.Write("Size of Index: " + " <br>");
Response.Write("Errors and URLs: " + " <br>");
}
public ActionResult ImportExcel()
{
var httpFileCollection = Request.Files["file"];
if (httpFileCollection.ContentLength > 0)
{
string extension = System.IO.Path.GetExtension(httpFileCollection.FileName).ToLower();
string path = string.Format("{0}/{1}", Server.MapPath("~/ExcelData/Uploads"), Request.Files["file"].FileName);
if (!Directory.Exists(path)) // if upload folder path does not exist, create one.
{
Directory.CreateDirectory(Server.MapPath("~/ExcelData/Uploads"));
}
string[] validFileTypes = { ".xls", ".xlsx", ".csv" };
if (validFileTypes.Contains(extension))
{
if (System.IO.File.Exists(path))
{
System.IO.File.Delete(path); // if file exist previously, delete previous one
}
httpFileCollection.SaveAs(path);
var performance = new System.Diagnostics.PerformanceCounter("Memory", "Available MBytes");
Console.WriteLine(performance.NextValue());
XslLibrary.ReadDataTable(path);
Console.WriteLine(performance.NextValue());
XslLibrary.ImportFromExcelNpoi(path);
Console.WriteLine(performance.NextValue());
}
}
TempData["Success"] = "Success";
return(new ContentResult());
}
//Function will read and display current CPU usage
public static async void CPUMonitoring(TextBox usageTextBox, TextBox warningTextBox)
{
PerformanceCounter cpuCounter = new PerformanceCounter();
cpuCounter.CategoryName = "Processor";
cpuCounter.CounterName = "% Processor Time";
cpuCounter.InstanceName = "_Total";
while (true)
{
//First value always returns a 0
var unused = cpuCounter.NextValue();
await Task.Delay(1000);
usageTextBox.Invoke(new Action(() =>
{
CPUCounter = cpuCounter.NextValue();
usageTextBox.Text = CPUCounter.ToString("F2") + "%";
}));
CPUCalculations();
CPUAnomalies.StartAnomalyDetection(warningTextBox);
if (mainMenu.done)
break;
}
}
public TimeSpan UpTime()
{
using (var uptime = new PerformanceCounter("System", "System Up Time"))
{
uptime.NextValue(); //Call this an extra time before reading its value
return TimeSpan.FromSeconds(uptime.NextValue());
}
}
// This sets the System uptime using the perf counters
// this gives the best result but on a system with corrupt perf counters
// it can freeze
internal void GetPerformanceCounterUptime()
{
using (var uptime = new PerformanceCounter("System", "System Up Time"))
{
uptime.NextValue();
Uptime = TimeSpan.FromSeconds(uptime.NextValue());
}
}
public string cpu()
{
var cpuCounter = new PerformanceCounter("Processor", "% Processor Time", "_Total");
cpuCounter.NextValue();
Thread.Sleep(1000);
var usage = cpuCounter.NextValue();
return Convert.ToInt16(usage).ToString();
}
private static TimeSpan getSystemUpTime()
{
using (var upTime = new PerformanceCounter("System", "System Up Time"))
{
upTime.NextValue();
return TimeSpan.FromSeconds(upTime.NextValue());
}
}
//Get the CPU usage for the core passed in
public static int getCoreUsage(String core)
{
//Generate a new counter for core x
PerformanceCounter coreUsage = new PerformanceCounter("Processor", "% Processor Time", core);
coreUsage.NextValue();
System.Threading.Thread.Sleep(750);
int corePercentage = (int)coreUsage.NextValue();
return corePercentage;
}
public static void th_cpu()
{
PerformanceCounter cpuCounter = new PerformanceCounter("Processor", "% Processor Time", "_Total");
float useless = cpuCounter.NextValue();
System.Threading.Thread.Sleep(100);
float cpuval = cpuCounter.NextValue();
Console.Out.WriteLine(cpuval);
}
public double getProcessCpuUsage(Process process)
{
using (PerformanceCounter pcProcess = new PerformanceCounter("Process", "% Processor Time", process.ProcessName, true)) {
for (int i = 0; i < 4; i++) {
pcProcess.NextValue();
Thread.Sleep(200);
}
return pcProcess.NextValue() / Environment.ProcessorCount;
}
}
private double CurrentCPUusage(string category, string name, string instance)
{
cpuCounter = new PerformanceCounter();
cpuCounter.CategoryName = category;
cpuCounter.CounterName = name;
cpuCounter.InstanceName = instance;
cpuCounter.NextValue();
Thread.Sleep(500);
return cpuCounter.NextValue();
}
async public Task<float> TotalCPUAsync()
{
PerformanceCounter cpuCounter = new PerformanceCounter();
cpuCounter.CategoryName = "Processor";
cpuCounter.CounterName = "% Processor Time";
cpuCounter.InstanceName = "_Total";
cpuCounter.NextValue();
await Task.Delay(1000);
return cpuCounter.NextValue();
}
async public Task<float> ProcessCPUAsync(string processName)
{
PerformanceCounter cpuCounter = new PerformanceCounter();
cpuCounter.CategoryName = "Process";
cpuCounter.CounterName = "% Processor Time";
cpuCounter.InstanceName = processName;
cpuCounter.NextValue();
await Task.Delay(1000);
return cpuCounter.NextValue();
}
public override void OnStop()
{
Trace.TraceInformation("OnStop called from WebRole");
var rcCounter = new PerformanceCounter("ASP.NET", "Requests Current", string.Empty);
while (rcCounter.NextValue() > 0)
{
Trace.TraceInformation("ASP.NET Requests Current = " + rcCounter.NextValue().ToString());
System.Threading.Thread.Sleep(1000);
}
}
/// <summary>
/// Gets the available ram.
/// </summary>
public float GetAvailableRam()
{
using (var memory = new PerformanceCounter("Memory", "Available MBytes"))
{
// Call this an extra time before reading its value
memory.NextValue();
return memory.NextValue();
}
}
/// <summary>
/// This event handler is called whenever the 1 second CPU timer elapses. It calls the
/// SetText method in a thread safe manner in order to update the CPU usage text box.
/// </summary>
/// <param name="source"></param>
/// <param name="e"></param>
private void OnTimedEvent(object source, System.Timers.ElapsedEventArgs e)
{
PerformanceCounter cpuCounter = new PerformanceCounter("Processor", "% Processor Time", "_Total");
int cpu = (int)cpuCounter.NextValue();
System.Threading.Thread.Sleep(1000);
cpu = (int)cpuCounter.NextValue();
_cpuUsage = cpu;
ObjectDelegate cpuTextDel = new ObjectDelegate(SetCPUText); //enable the manual start button
cpuTextDel.Invoke(_cpu);
}
public override void OnStop()
{
Trace.TraceInformation("OnStop called from WebRole");
var counter = new PerformanceCounter("ASP.NET", "Request Current", "");
while (counter.NextValue()>0)
{
Trace.TraceInformation("ASP.NET Request Current: " + counter.NextValue().ToString());
System.Threading.Thread.Sleep(1000);
}
base.OnStop();
}
private UInt64 GetTotalCpuUsage()
{
var counter = new PerformanceCounter
{
CategoryName = "Processor",
CounterName = "% Processor Time",
InstanceName = "_Total"
};
counter.NextValue();
Thread.Sleep(1000);
return (UInt64)counter.NextValue();
}
/// <summary>
/// パソコンの稼働時間を24時間に対してのパーセンテージで求める
/// </summary>
/// <returns></returns>
private double GetSystemUpTimePercentage()
{
//パソコン稼働時間取得
PerformanceCounter upTime = new PerformanceCounter("System", "System Up Time");
upTime.NextValue();
double upTimeTotalMinutes = (TimeSpan.FromSeconds(upTime.NextValue())).TotalMinutes;
//パーセンテージ
double upTimePercentage = upTimeTotalMinutes / TimeSpan.FromHours(24).TotalMinutes;
return upTimePercentage * 100;
}
//解法三：调用性能计数器
static void CPUUsage3(float level)
{
PerformanceCounter p = new PerformanceCounter("processor","% Processor Time","_Total");
while(true)
{
Console.WriteLine(p.NextValue());
if (p.NextValue() > level)
{
Thread.Sleep(10);
Console.WriteLine("sleep");
}
}
}
public static void MeasureProcessCpu()
{
using (var pc = new PerformanceCounter(
"Process",
"% Processor Time",
"CPUSTRES"))
{
pc.NextValue();
Thread.Sleep(1000);
var nextValue = pc.NextValue() / Environment.ProcessorCount;
Console.WriteLine(nextValue.ToPercentage());
}
}
public static int GetCpuValue()
{
//categories similar to the existnig ones in perfmon.exe (windows)
var CpuCounter = new System.Diagnostics.PerformanceCounter("Processor", "% Processor Time", "_Total");
//skipping first sample
CpuCounter.NextValue();
System.Threading.Thread.Sleep(1000);
//recording sample between two different time stamps
int gapValue = (int)CpuCounter.NextValue();
return(gapValue);
}
public RamCpu GetServerPerformance()
{
var cpuCounter = new PerformanceCounter("Processor", "% Processor Time", "_Total");
var ramCounter = new PerformanceCounter("Memory", "Available MBytes");
cpuCounter.NextValue();
Thread.Sleep(1000);
var value = Math.Round(cpuCounter.NextValue(), 0).ToString();
return new RamCpu()
{
RamUsage = ramCounter.NextValue().ToString(),
CpuUsage = value
};
}
public static void MeasureTotalCpu()
{
using (var pc = new PerformanceCounter(
"Processor Information",
"% Processor Time",
"_Total"))
{
pc.NextValue();
Thread.Sleep(1000); // sleep for the first time after asking for the counter it's always 0 and needs to wait a bit
var nextValue = pc.NextValue();
Console.WriteLine(nextValue.ToPercentage());
}
}
public static void getCPUCOunter()
{
PerformanceCounter cpuCounter = new PerformanceCounter();
cpuCounter.CategoryName = "Processor";
cpuCounter.CounterName = "% Processor Time";
cpuCounter.InstanceName = "_Total";
// will always start at 0
dynamic firstValue = cpuCounter.NextValue();
System.Threading.Thread.Sleep(1000);
// now matches task manager reading
string secondValue = cpuCounter.NextValue().ToString();
Data.cpuUsage = secondValue;
}
public async Task <int> GetCpuUsageAsync(string machineName)
{
if (string.IsNullOrWhiteSpace(machineName))
{
machineName = ".";
}
var counter = new System.Diagnostics.PerformanceCounter("Processor", "% Processor Time", "_Total", machineName);
counter.NextValue();
await Task.Delay(1000).ConfigureAwait(false);
return((int)counter.NextValue());
}
public int GetCpuUsage(string machineName)
{
if (string.IsNullOrWhiteSpace(machineName))
{
machineName = "localhost";
}
var counter = new System.Diagnostics.PerformanceCounter("Processor", "% Processor Time", "_Total", machineName);
counter.NextValue();
Thread.Sleep(1000);
return((int)counter.NextValue());
}
public MonitorPerformanceCounter(string Category, string Metric, string Instance = "", string ReportingName = null)
{
FriendlyName = string.IsNullOrWhiteSpace(ReportingName) ? Metric : ReportingName;
_performanceCounter = new System.Diagnostics.PerformanceCounter(Category, Metric, Instance);
_performanceCounter.NextValue(); // always grab one sample on creation to ensure validity
}
internal static double getMemSize(string svc)
{
// slow, doesn't work most of the time for wtf reason
try
{
ServiceController service = new ServiceController(svc);
string foo = service.ServiceName;
System.Diagnostics.PerformanceCounter pc = new System.Diagnostics.PerformanceCounter();
pc.CategoryName = "Process";
pc.CounterName = "Working Set - Private";
pc.InstanceName = foo;
double memsize = (double)(pc.NextValue() / 1024 / 1024); // mb
//Process[] localByName = Process.GetProcessesByName(svc);
//foreach (Process p in localByName)
//{
// //Console.WriteLine("Private memory size64: {0}", (p.PrivateMemorySize64 / f).ToString("#,##0"));
// memsize += p.WorkingSet64 / 1024/ 1024;
// //Console.WriteLine("Peak virtual memory size64: {0}", (p.PeakVirtualMemorySize64 / f).ToString("#,##0"));
// //Console.WriteLine("Peak paged memory size64: {0}", (p.PeakPagedMemorySize64 / f).ToString("#,##0"));
// //Console.WriteLine("Paged system memory size64: {0}", (p.PagedSystemMemorySize64 / f).ToString("#,##0"));
// //Console.WriteLine("Paged memory size64: {0}", (p.PagedMemorySize64 / f).ToString("#,##0"));
// //Console.WriteLine("Nonpaged system memory size64: {0}", (p.NonpagedSystemMemorySize64 / f).ToString("#,##0"));
//}
return(Math.Round(memsize, 2));
}
catch
{
return(-1);
}
}
private void LoadAllMemoryDetails(object temp)
{
try
{
float totheapsize, fgen0heapsize, fgen1heapsize, fgen2heapsize;
pcclrmemmngr.MachineName = mcname;
pcclrmemmngr.InstanceName = "aspnet_wp"; //System.Reflection.Assembly.GetExecutingAssembly().GetName().ToString().Substring(0, 14);
pcclrmemmngr.CategoryName = ".NET CLR Memory";
pcclrmemmngr.CounterName = "# Bytes in all Heaps";
totheapsize = pcclrmemmngr.NextValue();
lbltotheapsize.Text = totheapsize + " Bytes";
pcclrmemmngr.CounterName = "Gen 0 heap size";
fgen0heapsize = pcclrmemmngr.NextValue();
gen0heapsize.Text = fgen0heapsize.ToString() + " Bytes" + " (" + ((fgen0heapsize / totheapsize) * 100) + ")" + "%";
pcclrmemmngr.CounterName = "Gen 1 heap size";
fgen1heapsize = pcclrmemmngr.NextValue();
gen1heapsize.Text = fgen1heapsize.ToString() + " Bytes" + " (" + ((fgen1heapsize / totheapsize) * 100) + ")" + "%";
pcclrmemmngr.CounterName = "Gen 2 heap size";
fgen2heapsize = pcclrmemmngr.NextValue();
gen2heapsize.Text = fgen2heapsize.ToString() + " Bytes" + " (" + ((fgen2heapsize / totheapsize) * 100) + ")" + "%";
pcclrmemmngr.CounterName = "# Total committed Bytes";
lblgctime.Text = pcclrmemmngr.NextValue().ToString() + " Bytes";
pcclrmemmngr.CounterName = "# Total reserved Bytes";
label1.Text = pcclrmemmngr.NextValue().ToString() + " Bytes";
pcclrmemmngr.CounterName = "Large Object Heap size";
label7.Text = pcclrmemmngr.NextValue().ToString() + " Bytes";
}
catch
{
}
}
public void Run()
{
// // To get POS.exe stats
// fnGetPOSProcessInfo GetPOSProcessInfo = new fnGetPOSProcessInfo();
// GetPOSProcessInfo.Run();
// // These global variables are returned
// public static int POSHandleCount = 0;
// public static int POSThreads = 0;
// public static int POSUsedMemory = 0;
// public static int POSGDIObjects = 0;
// public static int POSUserObjects = 0;
// public static int POSCurrentCPUUsage = 0;
// if (Global.RegisterRunningRetech) ProcessName = "source";
// if (Global.RegisterRunningIPOS) ProcessName = "pos";
// if (Global.RegisterRunningIPOS & Global.CurrentScenario <= 30)
// ProcessName = "pos";
//
// if (Global.RegisterRunningRetech & Global.CurrentScenario > 30)
// ProcessName = "source";
System.Diagnostics.Process [] localByName = System.Diagnostics.Process.GetProcessesByName(Global.ProcessName);
IntPtr POSHandlePtr = localByName[0].Handle;
Global.POSHandleCount = localByName[0].HandleCount;
Global.POSThreads = localByName[0].Threads.Count;
Global.POSUsedMemory = (int)localByName[0].WorkingSet64 / (1024 * 1024);
Global.POSGDIObjects = (int)GetGuiResources(localByName[0].Handle, 0); // GDI
Global.POSUserObjects = (int)GetGuiResources(localByName[0].Handle, 1); // User
// Get Current Cpu Usage
System.Diagnostics.PerformanceCounter CPUUsage;
CPUUsage = new System.Diagnostics.PerformanceCounter();
CPUUsage.CategoryName = "Processor";
CPUUsage.CounterName = "% Processor Time";
CPUUsage.InstanceName = "_Total";
CPUUsage.NextValue();
System.Threading.Thread.Sleep(1000);
Global.POSCurrentCPUUsage = (int)CPUUsage.NextValue();
}
public float GetValue(PerformanceCounter item)
{
var counter = new System.Diagnostics.PerformanceCounter
{
CategoryName = item.CategoryName,
CounterName = item.CounterName,
InstanceName = item.InstanceName,
MachineName = item.MachineName
};
return(counter.NextValue());
}
public void Update(GameTime gameTime)
{
_elapsedTime += (float)gameTime.ElapsedGameTime.TotalSeconds;
if (_elapsedTime >= 1.0f)
{
CPUUsage = _cpuCounter.NextValue();
RAMavailable = _ramCounter.NextValue();
_elapsedTime = 0;
}
CurrentProcessMemoryUsage = _currentProcess.PrivateMemorySize64;
CurrentAllocatedManagedMemory = GC.GetTotalMemory(false);
}
public static void GetStatus(Process process, string exename)
{
프로세스_CPU_사용량 = 0.0f;
전체_CPU_사용량 = 0.0f;
메모리_사용량 = 0;
if (process != null)
{
프로세스_CPU_사용량 = GetUsage(process, out 전체_CPU_사용량);
var objMemory = new System.Diagnostics.PerformanceCounter("Process", "Working Set - Private", exename);
메모리_사용량 = (int)objMemory.NextValue() / 1000000;
}
}
public String BuildTree()
{
ramCounter = new PerformanceCounter("Memory", "Available MBytes");
try
{
using (StreamReader sr = new StreamReader(path))
{
string cur;
Double availableRam = ramCounter.NextValue();
while (((cur = sr.ReadLine()) != null) && (availableRam > 40))
{
dict.Add(cur.ToLower());
availableRam = ramCounter.NextValue();
}
Debug.WriteLine("Tree has maxed out its RAM capacity...");
return("Memory has been maxed out to its capacity");
}
}
catch (IOException)
{
Debug.WriteLine("File could be used by another process");
return("Failed...");
}
}
private void sw_Tick(object source, ElapsedEventArgs e)
{
//GET AVAILABLE MEMORY
var ramCounter = new System.Diagnostics.PerformanceCounter("Memory", "Available MBytes", true);
try
{
Application.Current.Dispatcher.Invoke(new Action(() =>
{
freeram.Content = Convert.ToInt32(ramCounter.NextValue() / 1024).ToString() + "GB";
if (Convert.ToInt32(ramCounter.NextValue() / 1024) <= 2)
{
errorlowram.Visibility = Visibility.Visible;
}
else
{
errorlowram.Visibility = Visibility.Hidden;
}
}));
}
catch
{ }
//GET TOTAL MEMORY
}
public HowTo()
{
Window1.singleton.MenuToggleButton.IsEnabled = false;
Window1.singleton.popupbox.IsEnabled = false;
Window1.singleton.homeButton.IsEnabled = false;
InitializeComponent();
var ramCounter = new System.Diagnostics.PerformanceCounter("Memory", "Available MBytes", true);
Application.Current.Dispatcher.Invoke(new Action(() =>
{
freeram.Content = Convert.ToInt32(ramCounter.NextValue() / 1024).ToString() + "GB";
}));
sw.Start();
sw.Elapsed += new ElapsedEventHandler(sw_Tick);
sw.Interval = 2000; // in miliseconds
}
static void PerfCounter_Timer_Elapsed(object sender, System.Timers.ElapsedEventArgs e)
{
var timerEnabled = _perfCounterTimer.Enabled;
_perfCounterTimer.Enabled = false;
try
{
_cpuUsage = _cpuCounter.NextValue();
_perfCounterTimer.Enabled = timerEnabled;
}
catch (Exception ex) //logged
{
Logger.WriteException(new Exception("Error when trying to get value of CPU counter. ", ex));
_perfCounterTimer.Enabled = false;
}
}
private void ScanMarketEvent(int si, System.Diagnostics.PerformanceCounter performanceCounter)
{
// 可以讀到正確的值
//Console.Write(string.Format("{0} ", si));
try
{
if (performanceCounter == null)
{
return;
}
int val = (int)performanceCounter.NextValue();
SetChart(si, val);
}
catch (Exception ex)
{
MessageBox.Show("Error! " + ex.Message);
Debug.WriteLine(ex.Message);
}
}
private void TimerTick(object sender, EventArgs e)
{
//if (!PerformanceCounterCategory.Exists("Processor"))
//{
// Console.WriteLine("Object Processor does not exist!");
// return;
//}
//if (!PerformanceCounterCategory.CounterExists(@"% Processor Time", "Processor"))
//{
// Console.WriteLine(@"Counter % Processor Time does not exist!");
// return;
//}
//while (true)
//{
// Debug.WriteLine("@");
//try
//{
// Debug.WriteLine(@"Current value of Processor, %Processor Time, _Total= " + mCounter.NextValue().ToString());
//}
//catch
//{
// Debug.WriteLine(@"_Total instance does not exist!");
// return;
//}
mPointsX.Add(mX++);
var wY = mCounter.NextValue();
Debug.WriteLine(@"_Total= " + wY);
mPointsY.Add(wY);
mLineGraph.Plot(mPointsX, mPointsY);
// Thread.Sleep(10000);
//}
}
private static bool WaitForQuietCpu(float maxCpuSpike = 25, int minSecondsOfQuiet = 2, int maxSecondsBeforeGiveUp = 30)
{
using (var pc = new System.Diagnostics.PerformanceCounter()) {
pc.CategoryName = "Processor";
pc.CounterName = "% Processor Time";
pc.InstanceName = "_Total";
TimeSpan samplingInterval = TimeSpan.FromMilliseconds(1000);
TimeSpan minimumQuietTime = TimeSpan.FromSeconds(minSecondsOfQuiet);
TimeSpan maximumTimeBeforeBail = TimeSpan.FromSeconds(maxSecondsBeforeGiveUp);
DateTime startTryingStamp = DateTime.Now;
int hitsRequired = (int)(minimumQuietTime.TotalMilliseconds / samplingInterval.TotalMilliseconds);
while (DateTime.Now - startTryingStamp < maximumTimeBeforeBail)
{
int hits;
for (hits = 0; hits < hitsRequired; hits++)
{
float currentCpuUtilization = pc.NextValue();
if (currentCpuUtilization > maxCpuSpike)
{
////Console.WriteLine("Miss: CPU at {0}% utilization", currentCpuUtilization);
break;
}
////Console.WriteLine("Hit: CPU at {0}% utilization", currentCpuUtilization);
Thread.Sleep(samplingInterval);
}
if (hits == hitsRequired)
{
return(true);
}
Thread.Sleep(samplingInterval);
}
return(false);
}
}
partial void InitializeWindowsPerformanceCounters()
{
this._pcActiveThreads = new System.Diagnostics.PerformanceCounter();
this._pcInUseThreads = new System.Diagnostics.PerformanceCounter();
this._pcQueuedWorkItems = new System.Diagnostics.PerformanceCounter();
this._pcCompletedWorkItems = new System.Diagnostics.PerformanceCounter();
//
// pcActiveThreads
//
this._pcActiveThreads.CategoryName = "SmartThreadPool";
this._pcActiveThreads.CounterName = "Active threads";
this._pcActiveThreads.InstanceName = "Test SmartThreadPool";
//
// pcInUseThreads
//
this._pcInUseThreads.CategoryName = "SmartThreadPool";
this._pcInUseThreads.CounterName = "In use threads";
this._pcInUseThreads.InstanceName = "Test SmartThreadPool";
//
// pcQueuedWorkItems
//
this._pcQueuedWorkItems.CategoryName = "SmartThreadPool";
this._pcQueuedWorkItems.CounterName = "Work Items in queue";
this._pcQueuedWorkItems.InstanceName = "Test SmartThreadPool";
//
// pcCompletedWorkItems
//
this._pcCompletedWorkItems.CategoryName = "SmartThreadPool";
this._pcCompletedWorkItems.CounterName = "Work Items processed";
this._pcCompletedWorkItems.InstanceName = "Test SmartThreadPool";
_getActiveThreads = () => (long)_pcActiveThreads.NextValue();
_getInUseThreads = () => (long)_pcInUseThreads.NextValue();
_getQueuedWorkItems = () => (long)_pcQueuedWorkItems.NextValue();
_getCompletedWorkItems = () => (long)_pcCompletedWorkItems.NextValue();
}
private void CollectInternalCounters()
{
memoryUsed.Add(GC.GetTotalMemory(false));
gcGen0.Add(GC.CollectionCount(0));
gcGen1.Add(GC.CollectionCount(1));
gcGen2.Add(GC.CollectionCount(2));
if (AppDomain.MonitoringIsEnabled)
{
memorySurvived.Add(AppDomain.CurrentDomain.MonitoringSurvivedMemorySize);
cpuUsage.Add((long)(AppDomain.CurrentDomain.MonitoringTotalProcessorTime.TotalMilliseconds * 100 / PollPeriod_ms / Environment.ProcessorCount));
}
//Collect windows perf counters
foreach (var item in windowsPerfCountersList)
{
myCounter.CategoryName = "Process";
myCounter.CounterName = item.Name;
myCounter.InstanceName = Process.GetCurrentProcess().ProcessName;
var raw = (long)(myCounter.NextValue());
item.Add(raw);
}
}
/*
* [WebMethod]
* [ScriptMethod(ResponseFormat = ResponseFormat.Json)]
* public string AddSuggestion(string q)
* {
* Node current = searcher.Prefix(q);
* //if (current.Depth == q.Length && current.FindChild('@') != null)
* if (current.Suffix.Contains(q.Substring(q.IndexOf(current.Value) + 1))
|| current.Depth == q.Length && current.Suffix.Contains("@"))
|| {
|| return "!" + q + " was found!";
|| }
|| else
|| {
|| //searcher.Insert(q);
|| // return q + " was added to the suggestions!";
|| return q + " was not found!";
|| }
||}*/
private static float getAvailableRAM(System.Diagnostics.PerformanceCounter RAM)
{
return(RAM.NextValue());
}
/// <summary>
/// MainLoopAsync
/// </summary>
/// <returns></returns>
private async Task MainLoopAsync(MemoryMappedFile orderMmf)
{
Microsoft.VisualBasic.Devices.ComputerInfo systemInfo;
List <Process> listPs = new List <Process>();
Dictionary <int, Dictionary <string, Queue <ulong> > > multiCalcuDict = new Dictionary <int, Dictionary <string, Queue <ulong> > >();
Dictionary <int, ulong> movingAverageWsSum = new Dictionary <int, ulong>();
Dictionary <int, ulong> movingAveragePmSum = new Dictionary <int, ulong>();
Dictionary <int, ulong> continuousNonResponding = new Dictionary <int, ulong>();
Dictionary <int, MemoryMappedFile> mmfDict = new Dictionary <int, MemoryMappedFile>();
System.Diagnostics.PerformanceCounter pcCpuTotal = new System.Diagnostics.PerformanceCounter(Resources.PerformanceCounterCategoryName, Resources.PerformanceCounterCounterName, Resources.PerformaceCounterInstanceName, Resources.PerfomanceCounterMachineName);
System.Diagnostics.PerformanceCounter[] pcCpuCounterArray;
Queue <ulong> cpuQueue = new Queue <ulong>();
movingAverageWsSum[CPU_TOTAL] = 0;
// Main loop preparation
List <int> processIdList;
List <string> startTimeList;
List <int> orderList;
bool shouldExit = false;
int counter = 0;
int v = interval * 1000 / ORDER_CHECK_INTERVAL;
int cpuCount = Environment.ProcessorCount;
if (cpuCount >= MAX_CPU_COUNT)
{
pcCpuCounterArray = new PerformanceCounter[MAX_CPU_COUNT];
}
else
{
pcCpuCounterArray = new PerformanceCounter[cpuCount];
}
int indedCpuCounter = 0;
while (indedCpuCounter < pcCpuCounterArray.Length)
{
pcCpuCounterArray[indedCpuCounter] = new System.Diagnostics.PerformanceCounter(Resources.PerformanceCounterCategoryName, Resources.PerformanceCounterCounterName, indedCpuCounter.ToString(), Resources.PerfomanceCounterMachineName);
indedCpuCounter++;
}
string fileNameSysLog = System.IO.Path.Combine(logDirectory, "MPI_SYS_" + System.DateTime.Now.ToString("yyyyMMdd-HHmmss") + ".log");
string fileNameProcLog = System.IO.Path.Combine(logDirectory, "MPI_PROC_" + System.DateTime.Now.ToString("yyyyMMdd-HHmmss") + ".log");
StringBuilder sbSysLog = new StringBuilder();
StringBuilder sbProcLog = new StringBuilder();
//Logging
using (var writerSystemLog = new StreamWriter(fileNameSysLog))
{
using (var writerProcessLog = new StreamWriter(fileNameProcLog))
{
if (logging)
{
await writerSystemLog.WriteLineAsync(Resources.LogHeaderSystem);
await writerProcessLog.WriteLineAsync(Resources.LogHeaderProcess);
}
//Main loop
while (!shouldExit)
{
counter++;
//Check Order
byte[] arraydata = new byte[ORDER_MEM_FILE_SIZE];
byte[] arrayzero = new byte[ORDER_MEM_FILE_SIZE];
using (MemoryMappedViewAccessor accessor = orderMmf.CreateViewAccessor())
{
accessor.ReadArray <byte>(0, arraydata, 0, ORDER_MEM_FILE_SIZE);
accessor.WriteArray <byte>(0, arrayzero, 0, ORDER_MEM_FILE_SIZE);
}
// Check Order
processIdList = new List <int>();
startTimeList = new List <string>();
orderList = new List <int>();
ExtractOrderInfoFromByteArray(arraydata, ref orderList, ref processIdList, ref startTimeList);
int index = 0;
while (index < orderList.Count())
{
int order = orderList[index];
if (order == 0)
{
break;
}
switch (order)
{
case (int)Order.Add:
//Create mmf for target process
int pid;
string pStartTime;
Process p;
if (processIdList.Count() > MAX_COUNT_OF_PROCESSES)
{
throw new Exception(Resources.ExceptionMsgExceededProcesses);
}
if (processIdList[index] == 0)
{
pid = NO_PROCESS;
pStartTime = NO_PROCESS_TIMESTRNIG;
p = null;
}
else
{
p = System.Diagnostics.Process.GetProcessById(processIdList[index]);
pid = p.Id;
pStartTime = p.StartTime.ToString(PROC_INFO_MEM_FILE_TIMEFORMAT);
}
if (pStartTime == startTimeList[index])
{
var memFileName = Resources.PrefixMemFileName + pid.ToString() + "_" + startTimeList[index];
mmfDict[processIdList[index]] = MemoryMappedFile.CreateNew(memFileName, PROC_INFO_MEM_FILE_SIZE);
multiCalcuDict.Add(pid, new Dictionary <string, Queue <ulong> >());
multiCalcuDict[pid][MonitorItem.ProcessWorkingSet.ToString()] = new Queue <ulong>();
multiCalcuDict[pid][MonitorItem.ProcessTotalProcessorTime.ToString()] = new Queue <ulong>();
multiCalcuDict[pid][MonitorItem.ProcessPrivateMemorySize.ToString()] = new Queue <ulong>();
movingAverageWsSum[pid] = 0;
movingAveragePmSum[pid] = 0;
continuousNonResponding[pid] = 0;
listPs.Add(p);
}
else
{
throw (new Exception(Resources.ExceptionMsgSameIdButNotSameStarttime));
}
break;
case (int)Order.Terminate:
shouldExit = true;
break;
}
index++;
}
if (counter >= v)
{
counter = 0;
List <Process> nonexistsProcesses = new List <Process>();
// Start to Get Info
//Checking System CPU Total
ulong systemCpu = (ulong)(pcCpuTotal.NextValue() * 100);
//Checking System CPU MA
ulong systemCpuMA = 0;
cpuQueue.Enqueue(systemCpu);
movingAverageWsSum[CPU_TOTAL] += systemCpu;
if (cpuQueue.Count > number)
{
movingAverageWsSum[CPU_TOTAL] -= cpuQueue.Dequeue();
systemCpuMA = (ulong)movingAverageWsSum[CPU_TOTAL] / (ulong)number;
}
//Each CPU
ulong[] eachCpu = new ulong[EACH_CPU_MEM_FILE_COUNT];
int cpuIndex = 0;
int fileIndex = 0;
while (cpuIndex < pcCpuCounterArray.Length)
{
float tempCpu = pcCpuCounterArray[cpuIndex].NextValue();
int shift = (cpuIndex % 4) << 3;
eachCpu[fileIndex] = eachCpu[fileIndex] ^ ((((ulong)(tempCpu)) & 0xff) << shift);
cpuIndex++;
if (cpuIndex % 4 == 0)
{
fileIndex++;
}
}
systemInfo = new Microsoft.VisualBasic.Devices.ComputerInfo();
//Checking System Total Physical Memory
ulong systemTotalPhysicalMem = systemInfo.TotalPhysicalMemory;
//Checkinh System Available Phisycal Memory
ulong systemAvailableMem = systemInfo.AvailablePhysicalMemory;
//Checking System Total Virtual Memory
ulong systemTotalVirtualMem = systemInfo.TotalVirtualMemory;
//Checkinh System Avilable Virtual Memory
ulong systemAvailableVirtualMem = systemInfo.AvailableVirtualMemory;
if (logging)
{
//System value
sbSysLog = new StringBuilder(512);
sbSysLog.Append(DateTime.Now.ToString("yyyy/MM/dd HH:mm:ss.sss,"));
sbSysLog.Append(systemCpu.ToString());
sbSysLog.Append(',');
sbSysLog.Append(systemCpuMA.ToString());
sbSysLog.Append(',');
foreach (ulong cpuv in eachCpu)
{
sbSysLog.Append(cpuv.ToString());
sbSysLog.Append(',');
}
sbSysLog.Append(systemTotalPhysicalMem.ToString());
sbSysLog.Append(',');
sbSysLog.Append(systemAvailableMem.ToString());
sbSysLog.Append(',');
sbSysLog.Append(systemTotalVirtualMem.ToString());
sbSysLog.Append(',');
sbSysLog.Append(systemAvailableVirtualMem.ToString());
await writerSystemLog.WriteLineAsync(sbSysLog.ToString());
}
//for each processes
foreach (Process p in listPs)
{
var writeValueList = new List <ulong>();
//Checking System CPU
writeValueList.Add(systemCpu); // #0
//Checking System CPU MA
writeValueList.Add(systemCpuMA); // #1
//
writeValueList.Add(eachCpu[0]); //#2
writeValueList.Add(eachCpu[1]); //#3
writeValueList.Add(eachCpu[2]); //#4
writeValueList.Add(eachCpu[3]); //#5
//Checking System Total Physical Memory
writeValueList.Add(systemTotalPhysicalMem); // #6
//Checkinh System Available Phisycal Memory
writeValueList.Add(systemAvailableMem); // #7
//Checking System Total Virtual Memory
writeValueList.Add(systemTotalVirtualMem); // #8
//Checkinh System Avilable Virtual Memory
writeValueList.Add(systemTotalVirtualMem); // #9
int pid;
if (p != null)
{
p.Refresh();
pid = p.Id;
try
{
if (p.HasExited)
{
nonexistsProcesses.Add(p);
continue;
}
}
catch
{
nonexistsProcesses.Add(p);
continue;
}
if (!multiCalcuDict.ContainsKey(pid))
{
throw (new KeyNotFoundException(Resources.ExceptionMsgKeyNotFoundInDict + pid.ToString()));
}
// Get WorkingSet
var workingset = (ulong)p.WorkingSet64;
writeValueList.Add(workingset); // #10
// Calculate Moving Average of Workingset
ulong workingsetMa = 0;
multiCalcuDict[pid][MonitorItem.ProcessWorkingSet.ToString()].Enqueue(workingset);
movingAverageWsSum[pid] += workingset;
if (multiCalcuDict[pid][MonitorItem.ProcessWorkingSet.ToString()].Count > number)
{
movingAverageWsSum[pid] -= multiCalcuDict[pid][MonitorItem.ProcessWorkingSet.ToString()].Dequeue();
workingsetMa = (ulong)movingAverageWsSum[pid] / (ulong)number;
}
writeValueList.Add(workingsetMa); // #11
// Get PrivateMemorySize
var privatememory = (ulong)p.PrivateMemorySize64;
writeValueList.Add(privatememory); // #12
//Get PrivateMemorySizeMA
ulong privateMemoryMa = 0;
multiCalcuDict[pid][MonitorItem.ProcessPrivateMemorySize.ToString()].Enqueue(privatememory);
movingAveragePmSum[pid] += privatememory;
if (multiCalcuDict[pid][MonitorItem.ProcessPrivateMemorySize.ToString()].Count > number)
{
movingAveragePmSum[pid] -= multiCalcuDict[pid][MonitorItem.ProcessPrivateMemorySize.ToString()].Dequeue();
privateMemoryMa = (ulong)movingAveragePmSum[pid] / (ulong)number;
}
writeValueList.Add(privateMemoryMa); // #13
// TotalManagedMemoryFromGC
var totalMangedMemory = (ulong)GC.GetTotalMemory(false);
writeValueList.Add(totalMangedMemory); // #14
// Get Cputime
var cpuTotalTime = (ulong)(p.TotalProcessorTime.TotalMilliseconds);
writeValueList.Add(cpuTotalTime); // #15
// Calculate Delta CpuTime
ulong cpuTotalTimeDelta = 0;
multiCalcuDict[pid][MonitorItem.ProcessTotalProcessorTime.ToString()].Enqueue(cpuTotalTime);
if (multiCalcuDict[pid][MonitorItem.ProcessTotalProcessorTime.ToString()].Count > number)
{
cpuTotalTimeDelta = cpuTotalTime - multiCalcuDict[pid][MonitorItem.ProcessTotalProcessorTime.ToString()].Dequeue();
}
writeValueList.Add(cpuTotalTimeDelta); // #16
//Check Responding
var responding = p.Responding;
writeValueList.Add((ulong)(responding ? 1 : 0)); // #17
if (!responding)
{
continuousNonResponding[pid]++;
}
else
{
continuousNonResponding[pid] = 0;
}
writeValueList.Add(continuousNonResponding[pid]); //#18
//Logging
if (logging)
{
sbProcLog = new StringBuilder(1024);
sbProcLog.Append(DateTime.Now.ToString("yyyy/MM/dd HH:mm:ss.sss,"));
sbProcLog.Append(pid.ToString());
sbProcLog.Append(',');
sbProcLog.Append(workingset.ToString());
sbProcLog.Append(',');
sbProcLog.Append(workingsetMa.ToString());
sbProcLog.Append(',');
sbProcLog.Append(privatememory.ToString());
sbProcLog.Append(',');
sbProcLog.Append(privateMemoryMa.ToString());
sbProcLog.Append(',');
sbProcLog.Append(totalMangedMemory.ToString());
sbProcLog.Append(',');
sbProcLog.Append(cpuTotalTime.ToString());
sbProcLog.Append(',');
sbProcLog.Append(cpuTotalTimeDelta.ToString());
sbProcLog.Append(',');
sbProcLog.Append(responding.ToString());
sbProcLog.Append(',');
sbProcLog.Append(continuousNonResponding[pid].ToString());
await writerProcessLog.WriteLineAsync(sbProcLog.ToString());
}
}
else
{
pid = 0;
}
// Write to mmf of target pid
using (MemoryMappedViewAccessor accessor = mmfDict[pid].CreateViewAccessor())
{
accessor.WriteArray <ulong>(0, writeValueList.ToArray(), 0, writeValueList.Count());
}
}
foreach (Process p in nonexistsProcesses)
{
if (p != null)
{
mmfDict[p.Id].Dispose();
multiCalcuDict.Remove(p.Id);
listPs.Remove(p);
}
}
}
Thread.Sleep(ORDER_CHECK_INTERVAL);
}
}
}
if (!logging)
{
Thread.Sleep(100);
System.IO.File.Delete(fileNameProcLog);
System.IO.File.Delete(fileNameSysLog);
}
//Termination
foreach (MemoryMappedFile mmf in mmfDict.Values)
{
mmf.Dispose();
}
orderMmf.Dispose();
}
public float NextValue()
{
//Perform any transformations here
return(_performanceCounter.NextValue());
}
public float GetAvailableMemory()
{
return(m_memoryCounter.NextValue());
}
public float GetCPULoad()
{
return(m_CPUCounter.NextValue());
}
private void GetUserOnlineCount()
{
try
{
string applicationIntanceName = System.Web.Hosting.HostingEnvironment.ApplicationID.Replace('/', '_');
System.Diagnostics.PerformanceCounter performanceCounter = new System.Diagnostics.PerformanceCounter("ASP.NET Applications", "Sessions Active", applicationIntanceName);
lblUserOnlineCount_LocalDateTime.Text = GetLocalResourceObject("UserOnlineLabel") + performanceCounter.NextValue().ToString() + " " + GetLocalResourceObject("PersonLabel");
}
catch (Exception)
{
}
//if (Application["UserOnlineCount"] != null)
//{
// lblUserOnlineCount_LocalDateTime.Text = "کاربران آنلاین :" + Application["UserOnlineCount"].ToString() + " نفر";
//}
}
private void TouchThreadFunc(object state)
{
Job job = ((Tuple <Job, JobsDBDataContext, ManualResetEvent>)state).Item1;
JobsDBDataContext jobsDataContext = ((Tuple <Job, JobsDBDataContext, ManualResetEvent>)state).Item2;
ManualResetEvent stopEvent = ((Tuple <Job, JobsDBDataContext, ManualResetEvent>)state).Item3;
var ramCounter = new System.Diagnostics.PerformanceCounter("Memory", "Available MBytes");
long curWorkingSet, curGCTotal, curPrivate;
long maxWorkingSet = 0;
long maxGCTotal = 0;
long maxPrivate = 0;
double curRamAvailMb, minRamAvailMb = double.MaxValue;
int fails = 0;
JobManager.JobManagerTrace.TraceVerbose(this.ToShortString() + ":Touch thread running");
bool jobDeleted = false;
while (true)
{
Process currentProcess = Process.GetCurrentProcess();
currentProcess.Refresh();
curWorkingSet = Environment.WorkingSet;
curGCTotal = GC.GetTotalMemory(false);
curPrivate = currentProcess.PrivateMemorySize64;
curRamAvailMb = ramCounter.NextValue();
if (maxWorkingSet < curWorkingSet)
{
maxWorkingSet = curWorkingSet;
}
if (maxGCTotal < curGCTotal)
{
maxGCTotal = curGCTotal;
}
if (maxPrivate < curPrivate)
{
maxPrivate = curPrivate;
}
if (minRamAvailMb > curRamAvailMb)
{
minRamAvailMb = curRamAvailMb;
}
try
{
bool cancelationCheckNeeded = false;
lock (jobsDataContext)
{
JobManager.JobManagerTrace.TraceVerbose(this.ToShortString() + ":{0} Touch thread tick", job);
bool touched = false;
for (int touchTries = 0; touchTries < 5; touchTries++)
{
try
{
jobsDataContext.Refresh(RefreshMode.KeepChanges, job);
job.Touchtime = DateTime.UtcNow;
jobsDataContext.SubmitChanges();
touched = true;
break;
}
catch (ChangeConflictException)
{
//TraceConflicts(jobsDataContext, "updating touch time");
JobManager.JobManagerTrace.TraceVerbose(this.ToShortString() + ":{0} Failed to update touchtime. attempt {1}", job, touchTries + 1);
jobsDataContext.ChangeConflicts.ResolveAll(RefreshMode.OverwriteCurrentValues);
}
}
if (touched)
{
JobManager.JobManagerTrace.TraceVerbose(this.ToShortString() + ":{0} Updated TouchTime", job);
}
else
{
JobManager.JobManagerTrace.TraceWarning(this.ToShortString() + ":{0} Failed to update TouchTime", job);
}
if (job.IsHeavyJob == 0)
{
var execTimespanSec = (DateTime.UtcNow - job.StartTime.Value).TotalSeconds;
if (execTimespanSec > settings.LightJobExecutionPermitedTimeSec)
{
JobManager.JobManagerTrace.TraceVerbose(this.ToShortString() + ":{0} Job considered to be HEAVY", job);
for (int retries = 0; retries < 10; retries++)
{
try
{
var allParts = jobsDataContext.Jobs.Where(j1 => j1.Hash == job.Hash).ToArray();
foreach (var j in allParts)
{
j.IsHeavyJob = 1;
}
JobManager.JobManagerTrace.TraceVerbose(this.ToShortString() + ":{0} Committing HEAVY flag for all jobs part", job);
jobsDataContext.Refresh(RefreshMode.KeepChanges, allParts);
jobsDataContext.SubmitChanges(ConflictMode.ContinueOnConflict);
break;
}
catch (ChangeConflictException)
{
JobManager.JobManagerTrace.TraceVerbose(this.ToShortString() + ":{0} Failed to set heavy flag for all parts. attempt {1}", job, retries + 1);
//TraceConflicts(jobsDataContext, "heavy flag committing");
jobsDataContext.ChangeConflicts.ResolveAll(RefreshMode.OverwriteCurrentValues);
}
}
JobManager.JobManagerTrace.TraceVerbose(this.ToShortString() + ":{0} Successfully committed HEAVY flag for all jobs part", job);
cancelationCheckNeeded = true;
}
else
{
JobManager.JobManagerTrace.TraceVerbose(this.ToShortString() + ":{0} touched job part record. Job still light ({1} execution seconds of {2} permitted)", job, execTimespanSec, settings.LightJobExecutionPermitedTimeSec);
}
}
else
{
JobManager.JobManagerTrace.TraceVerbose(this.ToShortString() + ":{0} touched job part record. Job is already marked as heavy", job);
cancelationCheckNeeded = true;
}
if (cancelationCheckNeeded)
{
JobManager.JobManagerTrace.TraceVerbose(this.ToShortString() + ":{0} Checking for heavy job cancelation", job);
int otherRunningHeavyPartsCount = jobsDataContext.Jobs.Count(j2 => j2.StartTime < job.StartTime && j2.Status == 1 && j2.IsHeavyJob == 1);
if (otherRunningHeavyPartsCount >= settings.PermitedHeavyPartWorkers)
{
JobManager.JobManagerTrace.TraceInfo(this.ToShortString() + ":{0} Aborting working thread as there are {1} other active heavy parts ({2} total permitted)", job, otherRunningHeavyPartsCount, settings.PermitedHeavyPartWorkers);
if (workingThread != null)
{
workingThread.Abort();
}
}
else
{
JobManager.JobManagerTrace.TraceVerbose(this.ToShortString() + ":{0} Continuing heavy part as there are {1} other active heavy parts ({2} total permitted)", job, otherRunningHeavyPartsCount, settings.PermitedHeavyPartWorkers);
}
}
}
if (stopEvent.WaitOne(TimeSpan.FromSeconds(settings.TouchPeriodInSeconds)))
{
JobManager.JobManagerTrace.TraceVerbose(this.ToShortString() + ":{0} detected touch thread stop request. stopping touch thread loop...", job);
break;
}
}
catch (InvalidOperationException exc)
{
jobDeleted = true;
JobManager.JobManagerTrace.TraceWarning(this.ToShortString() + ":{0} InvalidOperationException. Is job part deleted? ({1})", job, exc.ToString());
break;
}
catch (ChangeConflictException)
{
lock (jobsDataContext)
{
if (TraceConflicts(jobsDataContext, "last chance exc") || jobDeleted)
{
break;
}
}
}
catch (Exception exc)
{
JobManager.JobManagerTrace.TraceWarning(this.ToShortString() + ":{0} Error updating touch time for job {1}", job, exc.ToString());
if (fails++ > 3)
{
break;
}
}
if (jobDeleted)
{
JobManager.JobManagerTrace.TraceWarning(this.ToShortString() + ":{0} record is deleted. stoping touch thread", job);
}
//curPhys = currentProcess.WorkingSet64;
//curPaged = currentProcess.PagedMemorySize64;
//curVirtual = currentProcess.VirtualMemorySize64;
//if (currentLogRecord.PeakPhysicalMemoryUsage < curPhys) currentLogRecord.PeakPhysicalMemoryUsage = curPhys;
//if (currentLogRecord.PeakPagedMemoryUsage < curPaged) currentLogRecord.PeakPagedMemoryUsage = curPaged;
//if (currentLogRecord.PeakVirtualMemoryUsage < curVirtual) currentLogRecord.PeakVirtualMemoryUsage = curVirtual;
}
JobManager.JobManagerTrace.TraceVerbose(this.ToShortString() + ":Touch thread ending. Peak mem stats: working set {0}Mb, GC.allocated {1}Mb, PrivateMem {2}Mb, min available Ram {3}Mb",
((double)maxWorkingSet) / (1024 * 1024), ((double)maxGCTotal) / (1024 * 1024), ((double)maxPrivate) / (1024 * 1024), minRamAvailMb);
//currentLogRecord.WorkEnd = DateTime.UtcNow;
//logManager.Insert(currentLogRecord);
}
public float getCurrentCpuUsage()
{
return(cpuCounter.NextValue());
}
public float getAvailableRAM()
{
return(ramCounter.NextValue());
}
static void Main(string[] args)
{
if (appFolder.Last() == '\\')
{
appFolder = appFolder.Remove(appFolder.Length - 1, 1);
}
var path = "";
log.Add("[" + DateTime.Now.ToLongDateString() + "]");
log.Add("Environtment directory: " + appFolder);
if (args.Length > 0)
{
log.Add("_Using Command Prompt mode...");
log.Add("__Command: " + String.Join(" ", args));
if (!args[0].Equals(""))
{
if (File.Exists(args[0]) && Path.GetExtension(args[0]).Equals(".theme"))
{
path = args[0];
}
else if (File.Exists(KAWAII_Theme_Helper.windir + @"\Resources\Themes\" + args[0] + ".theme") || File.Exists(KAWAII_Theme_Helper.windir + @"\Resources\Themes\" + args[0]))
{
path = KAWAII_Theme_Helper.windir + @"\Resources\Themes\" + args[0] + ".theme";
path = path.Replace(".theme.theme", ".theme");
}
else if (args[0].EqualsIgnoreCase("random"))
{
var themeList = new DirectoryInfo(KAWAII_Theme_Helper.windir + @"\Resources\Themes").GetFiles("*.theme", SearchOption.TopDirectoryOnly).Select(item => item.FullName).ToArray();
path = themeList[ThreadSafeRandom.ThisThreadsRandom.Next(0, themeList.Count() - 1)];
while (Path.GetFileNameWithoutExtension(path) == KAWAII_Theme_Helper.GetCurrentThemeName() || Path.GetFileNameWithoutExtension(path) == KAWAII_Theme_Helper.GetCurrentVisualStyleName())
{
path = themeList[ThreadSafeRandom.ThisThreadsRandom.Next(0, themeList.Count() - 1)];
}
}
}
if (args.Length > 1)
{
if (Path.GetExtension(args[1]).EqualsIgnoreCase(".jpg"))
{
if (File.Exists(args[1]))
{
KAWAII_Theme_Helper.ChangeLockscreenBackground(args[1], winVer);
log.Add("___Lockscreen applied: " + args[1]);
}
else if (File.Exists(appFolder + "\\" + args[1]))
{
KAWAII_Theme_Helper.ChangeLockscreenBackground(appFolder + "\\" + args[1], winVer);
log.Add("___Lockscreen applied: " + args[1]);
}
}
else if (args[1].EqualsIgnoreCase("random"))
{
ChangeLockscreen("random", _blacklist, "", true);
}
else if (!path.Equals("") && !args[1].Equals(""))
{
ChangeLockscreen("respective", _blacklist, path, true);
}
}
if (!path.Equals(""))
{
KAWAII_Theme_Helper.ApplyTheme(path);
log.Add("___Theme applied: " + path);
}
log.Add("_END");
}
else
{
log.Add("_Using Standard mode...");
int exitDelay = 1500;
if (File.Exists(appFolder + "\\startup.txt"))
{
log.Add("__startup.txt found!");
int startupDelay = -3;
var startupParams = File.ReadAllLines(appFolder + "\\startup.txt").Where(a => !a.Replace(" ", "").Equals("")).ToArray();
log.Add("__Startup params: " + String.Join(" | ", startupParams));
if (startupParams.Count() > 0 && !int.TryParse(startupParams[0].RegexReplace(@"[a-z_ :=]", "", -1), out startupDelay))
{
startupDelay = -3;
}
if (startupParams.Count() > 1 && !int.TryParse(startupParams[1].RegexReplace(@"[a-z_ :=]", "", -1), out exitDelay))
{
exitDelay = 1500;
}
if (exitDelay < 0)
{
exitDelay = 1500;
}
CreateStartupTaskSchedule();
if (startupDelay < 0)
{
log.Add("___Using Smart Delay...");
using (System.Diagnostics.PerformanceCounter cpu = new System.Diagnostics.PerformanceCounter("Processor", "% Processor Time", "_Total"))
{
int hits = 0;
startupDelay = startupDelay <= -1000 ? (int)Math.Ceiling(startupDelay / -1000.0) : (int)Math.Ceiling(startupDelay / -1.0);
while (hits < startupDelay)
{
cpu.NextValue();
Thread.Sleep(1000);
if (cpu.NextValue() < 20)
{
hits++;
}
else
{
hits = 0;
}
}
}
}
else
{
Thread.Sleep(startupDelay);
}
}
else
{
log.Add("__startup.txt NOT found!");
RemoveScheduledStartupTask();
}
if (File.Exists(appFolder + "\\skip.txt"))
{
log.Add("__skip.txt found!");
if (File.ReadAllText(appFolder + "\\skip.txt").Replace(" ", "").Equals(""))
{
log.Add("___Using 'skip once', deleting skip.txt...");
File.Delete(appFolder + "\\skip.txt");
log.Add("___END");
log.Add("");
File.AppendAllLines(appFolder + "\\logs.txt", log);
return;
}
var lns = File.ReadAllLines(appFolder + "\\skip.txt");
File.Delete(appFolder + "\\skip.txt");
log.Add("__Skip params: " + string.Join(" | ", lns));
int rem = int.Parse(lns[0].Replace(" ", "").Split('/')[0]);
if (lns.Length == 2)
{
if (rem <= 0)
{
log.Add("___Remaining skip has reached Zero! Changing theme...");
if (lns[1].Replace(" ", "").Equals("repeat", StringComparison.OrdinalIgnoreCase) || Equals("true", StringComparison.OrdinalIgnoreCase))
{
log.Add("____'Repeating Skip' enabled!");
rem = int.Parse(lns[0].Replace(" ", "").Split('/')[1]);
File.WriteAllLines(appFolder + "\\skip.txt", new string[] { rem + "/" + rem, "repeat" });
}
}
else
{
log.Add("___Remaining skip is " + rem + ", skipping current switch!");
rem--;
File.WriteAllLines(appFolder + "\\skip.txt", new string[] { rem + "/" + lns[0].Replace(" ", "").Split('/')[1] });
if (lns[1].Replace(" ", "").Equals("repeat", StringComparison.OrdinalIgnoreCase) || Equals("true", StringComparison.OrdinalIgnoreCase))
{
log.Add("____'Repeating Skip' enabled!");
File.AppendAllLines(appFolder + "\\skip.txt", new string[] { "repeat" });
}
log.Add("___END");
log.Add("");
File.AppendAllLines(appFolder + "\\logs.txt", log);
return;
}
}
else
{
log.Add("___Skip using only 1 parameter!");
if (rem > 0)
{
log.Add("____Remaining skip is " + rem + ", skipping current switch!");
rem--;
File.WriteAllLines(appFolder + "\\skip.txt", new string[] { rem + "/" + lns[0].Replace(" ", "").Split('/')[1] });
log.Add("____END");
log.Add("");
File.AppendAllLines(appFolder + "\\logs.txt", log);
return;
}
}
}
if (File.Exists(appFolder + "\\safetheme.txt"))
{
log.Add("__safetheme.txt found! Asking for switching...");
// TODO
}
//Load Whitelist if any, else load Blacklist if any
if (File.Exists(appFolder + "\\whitelist.txt"))
{
log.Add("whitelist.txt found! Loading whitelist...");
_whitelist = ReadAllLines(appFolder + "\\whitelist.txt").ToArray();
log.Add("__Whitelist count: " + _whitelist.Count());
}
else if (File.Exists(appFolder + "\\blacklist.txt"))
{
log.Add("blacklist.txt found! Loading blacklist...");
_blacklist = ReadAllLines(appFolder + "\\blacklist.txt").ToArray();
log.Add("__Blacklist count: " + _blacklist.Count());
}
if (_whitelist != null && _whitelist.Length == 0)
{
log.Add("__Empty whitelist! Theme switch skipped!");
}
else
{
//Get latest list for checking new Themes
List <string> latestThemeList = new List <string>();
foreach (var d in Directory.GetDirectories(KAWAII_Theme_Helper.windir + @"\Resources"))
{
latestThemeList.AddRange(Directory.GetFiles(d, "*.theme", SearchOption.AllDirectories));
}
if (_whitelist != null && _whitelist.Length > 0)
{
latestThemeList = latestThemeList.Where(a => _whitelist.Contains(Path.GetFileNameWithoutExtension(a))).ToList();
}
else if (_blacklist != null && _blacklist.Length > 0)
{
latestThemeList = latestThemeList.Where(a => !_blacklist.Contains(Path.GetFileNameWithoutExtension(a))).ToList();
}
// Theme selection
if (File.Exists(appFolder + @"\RSequence.txt"))
{
if (!File.Exists(appFolder + @"\theme.used"))
{
File.WriteAllText(appFolder + @"\theme.used", "");
}
var loaded = ReadAllLines(appFolder + "\\theme.used").ToList();
if (ReadAllLines(appFolder + "\\RSequence.txt").Count() == 0)
{
var rs = latestThemeList.ToList();
rs.Shuffle();
File.WriteAllLines(appFolder + @"\RSequence.txt", rs);
}
else
{
var queue = ReadAllLines(appFolder + "\\RSequence.txt").ToList();
var union = loaded.Concat(queue);
var newThemes = latestThemeList.Except(union);
if (newThemes.Count() > 0)
{
queue.AddRange(newThemes);
queue.Shuffle();
File.WriteAllLines(appFolder + @"\RSequence.txt", queue);
}
}
var lrse = ReadAllLines(appFolder + "\\RSequence.txt");
if (_whitelist != null && _whitelist.Length > 0)
{
lrse = lrse.Where(a => _whitelist.Contains(Path.GetFileNameWithoutExtension(a)));
}
else if (_blacklist != null && _blacklist.Length > 0)
{
lrse = lrse.Where(a => !_blacklist.Contains(Path.GetFileNameWithoutExtension(a)));
}
var rse = new Queue <string>(lrse);
path = rse.Dequeue();
loaded.Add(path);
File.WriteAllLines(appFolder + @"\theme.used", loaded);
File.WriteAllLines(appFolder + @"\RSequence.txt", rse);
}
else if (File.Exists(appFolder + @"\Sequence.txt"))
{
if (!File.Exists(appFolder + @"\theme.used"))
{
File.WriteAllText(appFolder + @"\theme.used", "");
}
var loaded = ReadAllLines(appFolder + "\\theme.used").ToList();
if (ReadAllLines(appFolder + "\\Sequence.txt").Count() <= 0)
{
var rs = new DirectoryInfo(KAWAII_Theme_Helper.windir + @"\Resources\Themes").GetFiles("*.theme", SearchOption.TopDirectoryOnly).Select(item => item.FullName).ToList();
rs = rs.OrderBy(a => a).ToList();
File.WriteAllLines(appFolder + @"\Sequence.txt", rs);
}
else
{
var queue = ReadAllLines(appFolder + "\\Sequence.txt").ToList();
var union = loaded.Concat(queue);
var newThemes = latestThemeList.Except(union);
if (newThemes.Count() > 0)
{
queue.AddRange(newThemes);
queue = queue.OrderBy(a => a).ToList();
File.WriteAllLines(appFolder + @"\Sequence.txt", queue);
}
}
var lrse = ReadAllLines(appFolder + "\\Sequence.txt");
if (_whitelist != null && _whitelist.Length > 0)
{
lrse = lrse.Where(a => _whitelist.Contains(Path.GetFileNameWithoutExtension(a)));
}
else if (_blacklist != null && _blacklist.Length > 0)
{
lrse = lrse.Where(a => !_blacklist.Contains(Path.GetFileNameWithoutExtension(a)));
}
var rse = new Queue <string>(lrse);
path = rse.Dequeue();
loaded.Add(path);
File.WriteAllLines(appFolder + @"\theme.used", loaded);
File.WriteAllLines(appFolder + @"\Sequence.txt", rse);
}
else
{
if (File.Exists(appFolder + @"\theme.used"))
{
File.Delete(appFolder + @"\theme.used");
}
path = latestThemeList[ThreadSafeRandom.ThisThreadsRandom.Next(0, latestThemeList.Count() - 1)];
while (Path.GetFileNameWithoutExtension(path) == KAWAII_Theme_Helper.GetCurrentThemeName() || Path.GetFileNameWithoutExtension(path) == KAWAII_Theme_Helper.GetCurrentVisualStyleName())
{
path = latestThemeList[ThreadSafeRandom.ThisThreadsRandom.Next(0, latestThemeList.Count() - 1)];
}
}
}
// Lockscreen Modifier
if (File.Exists(appFolder + @"\lockscreen.txt"))
{
log.Add("lockscreen.txt found! Loading Lockscreen backgrounds...");
var prms = File.ReadAllLines(appFolder + "\\lockscreen.txt").ToList();
if (prms.Count == 0)
{
prms.Add("respective");
}
ChangeLockscreen(prms[0].RegexReplace(@"[a-z_ ]+[:=]{1} ?", "", -1).ToLower(), _blacklist, path);
}
else
{
var regChk = Registry.LocalMachine.OpenSubKey(@"SOFTWARE\Policies\Microsoft\Windows\Personalization");
if (regChk.GetValue("NoChangingLockScreen") != null)
{
Registry.LocalMachine.CreateSubKey(@"SOFTWARE\Policies\Microsoft\Windows\Personalization").DeleteValue("NoChangingLockScreen");
}
}
if (path.Length > 0)
{
// Apply Theme/Visual Style
KAWAII_Theme_Helper.ApplyTheme(path, exitDelay);
log.Add("___Theme applied: " + path);
}
log.Add("_END");
log.Add("");
}
File.AppendAllLines(appFolder + "\\logs.txt", log);
}
static void Main(string[] args)
{
#region Performance counters
// This will pull the current CPU load in percentage
PerformanceCounter perfCountCPU = new PerformanceCounter("Processor Information", "% Processor Time", "_Total");
perfCountCPU.NextValue();
// This will pull the current available memory in Megabytes
PerformanceCounter perfCountMem = new PerformanceCounter("Memory", "Available MBytes");
perfCountMem.NextValue();
// This will get us the system up time (in seconds)
PerformanceCounter perfCountUpTime = new PerformanceCounter("System", "System Up Time");
perfCountUpTime.NextValue();
#endregion
// This will greet the user in the default voice
SpeechSynthesizer synth = new SpeechSynthesizer();
synth.Speak("This is CPU and Memory monitor");
synth.Speak("Hello, how are you today?");
synth.SelectVoiceByHints(VoiceGender.Female);
TimeSpan uptime = TimeSpan.FromSeconds(perfCountUpTime.NextValue());
string UpTimeMessage = String.Format("The current system up time is {0} days, {1} hours, {2} minutes and {3} seconds", (int)uptime.TotalDays, (int)uptime.Hours, (int)uptime.Minutes, (int)uptime.Seconds);
Console.WriteLine(UpTimeMessage);
synth.Speak(UpTimeMessage);
while (true)
{
int currentCpuPercentage = (int)perfCountCPU.NextValue();
int currentAvailableMemory = (int)perfCountMem.NextValue();
// Every 1 second print the CPU load in percentage to the screen
Console.WriteLine("CPU load %: {0}", currentCpuPercentage);
Console.WriteLine("Available Memory: {0}MB", currentAvailableMemory);
if (currentCpuPercentage > 80)
{
if (currentCpuPercentage == 100)
{
synth.SelectVoiceByHints(VoiceGender.Female);
synth.Speak("Warning, warning CPU load is 100 percent!");
}
else
{
string cpuLoadMessage = String.Format("The current CPU load is {0} percent", currentCpuPercentage);
synth.Speak(cpuLoadMessage);
}
}
if (currentAvailableMemory < 1024)
{
string MemoryMessage = String.Format("The current available memory is {0} megabytes", currentAvailableMemory);
synth.Speak(MemoryMessage);
}
Thread.Sleep(1000);
}
}
