public LayerCfg(int neuronsCount, string activationType, float layerLearnRate = 1f, ThreadingMode threadingMode = ThreadingMode.Default)
{
this.NeuronsCount = neuronsCount;
this.NeuronsWeightsSize = 0; //Must be setted further
string actType = (activationType == null) ? string.Empty : activationType.ToLower();
switch (actType)
{
case "":
case "default":
case "sigmoid":
case "logistic":
this.ActivationType = ActivationType.Sigmoid;
break;
case "tanh":
this.ActivationType = ActivationType.Tanh;
break;
case "relu":
this.ActivationType = ActivationType.ReLU;
break;
case "lrelu":
case "leakyrelu":
this.ActivationType = ActivationType.LReLU;
break;
default:
throw new ArgumentException($"\"{activationType}\" - invalid activation type!");
}
this.LayerLearnRate = layerLearnRate;
this.LayerThreadingMode = threadingMode;
}
public void Launch(ThreadingMode threadingMode, bool deleteDirectoryOnLaunch)
{
DirectoryName = Path.Combine(Path.GetTempPath(), $"aeron-{Environment.UserName}");
ThreadingMode = threadingMode;
DeleteDirectoryOnLaunch = deleteDirectoryOnLaunch;
LaunchInternal();
}
public void LaunchEmbedded(ThreadingMode threadingMode)
{
DirectoryName = Path.Combine(Path.GetTempPath(), $"aeron-embed-{Guid.NewGuid()}");
ThreadingMode = threadingMode;
DeleteDirectoryOnLaunch = true;
LaunchInternal();
}
public LayerCfg(int neuronsCount, ActivationType activationType, float layerLearnRate = 1f, ThreadingMode threadingMode = ThreadingMode.Default)
{
this.NeuronsCount = neuronsCount;
this.NeuronsWeightsSize = 0; //Must be setted further
this.ActivationType = activationType;
this.LayerLearnRate = layerLearnRate;
this.LayerThreadingMode = threadingMode;
}
internal LayerCfg(int neuronsCount, int neuronsWeightsSize, ActivationType activationType, float layerLearnRate, ThreadingMode threadingMode)
{
this.NeuronsCount = neuronsCount;
this.NeuronsWeightsSize = neuronsWeightsSize;
this.ActivationType = activationType;
this.LayerLearnRate = layerLearnRate;
this.LayerThreadingMode = threadingMode;
}
/// <summary>
/// Set desired threading mode to all neural network layers
/// </summary>
/// <param name="layersThreadingMode">Layers threading mode</param>
public void SetAllLayersThreadingMode(ThreadingMode layersThreadingMode)
{
var layersPtr = LayersPtr;
var layersCount = LayersCount;
for (int l = 0; l < layersCount; l++)
{
layersPtr[l]->ThreadingMode = layersThreadingMode;
}
}
public static async Task Main(string[] args)
{
if (args.Length > 0)
{
for (var ii = 0; ii < args.Length; ++ii)
{
var arg = args[ii];
string nextArg()
{
var next = ii < args.Length - 1 && args[ii + 1][0] != '-' ? args[++ii] : string.Empty;
if (next.Length == 0)
{
throw new ApplicationException($"Need arg value for {arg}");
}
return(next);
}
if (arg == "-u")
{
upsertThreadingMode = Enum.Parse <ThreadingMode>(nextArg(), ignoreCase: true);
}
else if (arg == "-r")
{
readThreadingMode = Enum.Parse <ThreadingMode>(nextArg(), ignoreCase: true);
}
else if (arg == "-t")
{
numTasks = int.Parse(nextArg());
}
else if (arg == "-n")
{
numOperations = int.Parse(nextArg());
}
else if (arg == "-b")
{
FasterWrapper <int, int> .useOsReadBuffering = true;
}
else if (arg == "-?" || arg == "/?" || arg == "--help")
{
Usage();
return;
}
else
{
throw new ApplicationException($"Unknown switch: {arg}");
}
}
}
await ProfileStore(new FasterWrapper <int, int>());
}
public static D2D1MetaResource <IDxgi1_2ContainerWithSwapChain> CreateForSwapChain(
ThreadingMode threadingMode = ThreadingMode.SingleThreaded,
DeviceContextOptions contextOptions = DeviceContextOptions.EnableMultithreadedOptimizations,
DebugLevel debugLevel = DebugLevel.None)
{
var props = new CreationProperties
{
DebugLevel = debugLevel,
ThreadingMode = threadingMode,
Options = contextOptions
};
return(CreateForSwapChainCore(ref props));
}
/// <summary>
/// Starts the watching
/// </summary>
public void Start(ThreadingMode mode = ThreadingMode.ThreadPool)
{
if (m_started)
{
return;
}
m_started = true;
Log.Publish(MessageLevel.Debug, "EventTimer Started");
m_timer = new ScheduledTask(mode);
m_timer.Running += TimerRunning;
RestartTimer();
}
/// <summary>
/// The Constructor of the KeyInputHandler
/// </summary>
/// <param name="form">The Form where the KeyInputHandler should handle the Keys</param>
/// <param name="allowHold">If it's true the KeyInputHandler will allow the holding of a Key</param>
/// <param name="mode">It's for the Delay between the Activations of the KeyInput Methods</param>
public KeyInputHandler(Form form, bool allowHold, ThreadingMode mode)
{
pressedKeys = new List <Keys>();
this.mode = mode;
this.allowHold = allowHold;
handlingKeyInputs = new List <IKeyInput>();
Form = form;
keyInputThread = new Thread(() =>
{
KeyHandle();
});
form.KeyDown += Form_KeyDown;
form.KeyUp += Form_KeyUp;
}
void TestConcurrent(ThreadingMode mode)
{
int workCount;
const int Count = 100000000;
Stopwatch sw = new Stopwatch();
m_doWorkCount = 0;
using (ScheduledTask work = new ScheduledTask(mode))
{
work.Running += work_DoWork;
sw.Start();
for (int x = 0; x < 1000; x++)
{
work.Start();
}
sw.Stop();
}
m_doWorkCount = 0;
sw.Reset();
using (ScheduledTask work = new ScheduledTask(mode))
{
work.Running += work_DoWork;
sw.Start();
ThreadPool.QueueUserWorkItem(BlastStartMethod, work);
ThreadPool.QueueUserWorkItem(BlastStartMethod, work);
for (int x = 0; x < Count; x++)
{
work.Start();
}
workCount = m_doWorkCount;
sw.Stop();
Thread.Sleep(100);
}
Console.WriteLine(mode.ToString());
Console.WriteLine(" Fire Event Count: " + workCount.ToString());
Console.WriteLine(" Fire Event Rate: " + (workCount / sw.Elapsed.TotalSeconds / 1000000).ToString("0.00"));
Console.WriteLine(" Total Calls Time: " + sw.Elapsed.TotalMilliseconds.ToString("0.0") + "ms");
Console.WriteLine(" Total Calls Rate: " + (Count / sw.Elapsed.TotalSeconds / 1000000).ToString("0.00"));
Console.WriteLine();
}
void CheckThreadingModeProxy(List <ITestRunner> list, ITestRunner runner, ThreadingMode mode)
{
bool found = false;
if ((Attribute.ThreadingMode & mode) != 0)
{
found = true;
}
else
{
found = tests.Any(test => (test.Attribute.ThreadingMode & mode) != 0);
}
if (found)
{
list.Add(new ThreadingModeProxyRunner(runner, mode));
}
}
void TestTimed(ThreadingMode mode)
{
const int Count = 1000000000;
Stopwatch sw = new Stopwatch();
m_doWorkCount = 0;
using (ScheduledTask work = new ScheduledTask(mode))
{
work.Running += work_DoWork;
sw.Start();
for (int x = 0; x < 1000; x++)
{
work.Start(1);
work.Start();
}
sw.Stop();
}
m_doWorkCount = 0;
sw.Reset();
using (ScheduledTask work = new ScheduledTask(mode))
{
work.Running += work_DoWork;
sw.Start();
for (int x = 0; x < Count; x++)
{
work.Start(1000);
work.Start();
}
sw.Stop();
}
Console.WriteLine(mode.ToString());
Console.WriteLine(" Fire Event Count: " + m_doWorkCount.ToString());
Console.WriteLine(" Fire Event Rate: " + (m_doWorkCount / sw.Elapsed.TotalSeconds / 1000000).ToString("0.00"));
Console.WriteLine(" Total Calls Time: " + sw.Elapsed.TotalMilliseconds.ToString("0.0") + "ms");
Console.WriteLine(" Total Calls Rate: " + (Count / sw.Elapsed.TotalSeconds / 1000000).ToString("0.00"));
Console.WriteLine();
}
void TestTimed(ThreadingMode mode)
{
const int Count = 1000000000;
Stopwatch sw = new Stopwatch();
m_doWorkCount = 0;
using (ScheduledTask work = new ScheduledTask(mode))
{
work.Running += work_DoWork;
sw.Start();
for (int x = 0; x < 1000; x++)
{
work.Start(1);
work.Start();
}
sw.Stop();
}
m_doWorkCount = 0;
sw.Reset();
using (ScheduledTask work = new ScheduledTask(mode))
{
work.Running += work_DoWork;
sw.Start();
for (int x = 0; x < Count; x++)
{
work.Start(1000);
work.Start();
}
sw.Stop();
}
Console.WriteLine(mode.ToString());
Console.WriteLine(" Fire Event Count: " + m_doWorkCount.ToString());
Console.WriteLine(" Fire Event Rate: " + (m_doWorkCount / sw.Elapsed.TotalSeconds / 1000000).ToString("0.00"));
Console.WriteLine(" Total Calls Time: " + sw.Elapsed.TotalMilliseconds.ToString("0.0") + "ms");
Console.WriteLine(" Total Calls Rate: " + (Count / sw.Elapsed.TotalSeconds / 1000000).ToString("0.00"));
Console.WriteLine();
}
/// <summary>
/// Creates a <see cref="ScheduledTask"/>.
/// </summary>
/// <param name="threadMode">The manner in which the scheduled task executes.</param>
/// <param name="priority">The thread priority to assign if a dedicated thread is used. This is ignored if using the thread-pool.</param>
/// <param name="disposeOnShutdown">Adds a handler to <see cref="ShutdownHandler"/> that requires this class to be disposed
/// when the application is shutdown. Note: If this object has been garbage collected, this will have no effect.</param>
public ScheduledTask(ThreadingMode threadMode = ThreadingMode.ThreadPool, ThreadPriority priority = ThreadPriority.Normal, bool disposeOnShutdown = false)
{
m_workerThreadID = -1;
m_waitForDispose = new ManualResetEvent(false);
m_disposeSync = new object();
switch (threadMode)
{
case ThreadingMode.DedicatedForeground:
m_thread = new ThreadContainerDedicated(OnRunningCallback, Dispose, false, priority, disposeOnShutdown);
break;
case ThreadingMode.DedicatedBackground:
m_thread = new ThreadContainerDedicated(OnRunningCallback, Dispose, true, priority, disposeOnShutdown);
break;
case ThreadingMode.ThreadPool:
m_thread = new ThreadContainerThreadpool(OnRunningCallback, Dispose, disposeOnShutdown);
break;
default:
throw new ArgumentOutOfRangeException(nameof(threadMode));
}
}
/// <summary>
/// Creates a <see cref="ScheduledTask"/>.
/// </summary>
/// <param name="threadMode">The manner in which the scheduled task executes.</param>
/// <param name="priority">The thread priority to assign if a dedicated thread is used. This is ignored if using the thread-pool.</param>
public ScheduledTask(ThreadingMode threadMode = ThreadingMode.ThreadPool, ThreadPriority priority = ThreadPriority.Normal)
{
m_workerThreadID = -1;
m_waitForDispose = new ManualResetEvent(false);
m_disposeSync = new object();
switch (threadMode)
{
case ThreadingMode.DedicatedForeground:
m_thread = new ThreadContainerDedicated(new WeakAction <ThreadContainerBase.CallbackArgs>(OnRunningCallback, out m_weakCallbackToken), false, priority);
break;
case ThreadingMode.DedicatedBackground:
m_thread = new ThreadContainerDedicated(new WeakAction <ThreadContainerBase.CallbackArgs>(OnRunningCallback, out m_weakCallbackToken), true, priority);
break;
case ThreadingMode.ThreadPool:
m_thread = new ThreadContainerThreadpool(new WeakAction <ThreadContainerBase.CallbackArgs>(OnRunningCallback, out m_weakCallbackToken));
break;
default:
throw new ArgumentOutOfRangeException("threadMode");
}
}
public static async Task Main(string[] args)
{
bool useOsReadBuffering = false;
bool useLargeLog = false;
if (args.Length > 0)
{
for (var ii = 0; ii < args.Length; ++ii)
{
var arg = args[ii];
string nextArg()
{
var next = ii < args.Length - 1 && args[ii + 1][0] != '-' ? args[++ii] : string.Empty;
if (next.Length == 0)
{
throw new ApplicationException($"Need arg value for {arg}");
}
return(next);
}
if (arg == "-u")
{
insertThreadingMode = Enum.Parse <ThreadingMode>(nextArg(), ignoreCase: true);
}
else if (arg == "-r")
{
operationThreadingMode = Enum.Parse <ThreadingMode>(nextArg(), ignoreCase: true);
}
else if (arg == "-s")
{
storageType = Enum.Parse <StorageType>(nextArg(), ignoreCase: true);
}
else if (arg == "-c")
{
numChunks = int.Parse(nextArg());
}
else if (arg == "-n")
{
numOperations = int.Parse(nextArg());
}
else if (arg == "-b")
{
useOsReadBuffering = true;
}
else if (arg == "--rmw")
{
useRmw = true;
}
else if (arg == "--upsert")
{
useUpsert = true;
}
else if (arg == "--large")
{
useLargeLog = true;
}
else if (arg == "-?" || arg == "/?" || arg == "--help")
{
Usage();
return;
}
else
{
throw new ApplicationException($"Unknown switch: {arg}");
}
}
if (useRmw && useUpsert)
{
throw new ApplicationException("Cannot specify both RMW-only and Upsert-only");
}
}
await(storageType switch
{
StorageType.Value => ProfileStore(new FasterWrapper <long, long>(isRefType: false, useLargeLog, useOsReadBuffering), e => (long)e, e => (long)e),
StorageType.Reference => ProfileStore(new FasterWrapper <string, string>(isRefType: true, useLargeLog, useOsReadBuffering), e => $"key {e}", e => $"value {e}"),
StorageType.Span => ProfileStore(new SerializedFasterWrapper <string, string>(useLargeLog, useOsReadBuffering), e => $"key {e}", e => $"value {e}"),
_ => throw new ApplicationException($"Unknown storageType {storageType}")
});
/// <summary>
/// Sets the threading mode for the resultant <see cref="IConnectionHandler"/>.
/// </summary>
/// <param name="mode">The desired threading mode.</param>
/// <returns>Itself</returns>
public SpatialOSConnectionHandlerBuilder SetThreadingMode(ThreadingMode mode)
{
threadingMode = mode;
return(this);
}
public LayerCfg(int neuronsCount, float layerLearnRate = 1f, ThreadingMode threadingMode = ThreadingMode.Default) : this(neuronsCount, ActivationType.Sigmoid, layerLearnRate, threadingMode)
{
}
public static unsafe float CalcRootMeanSquaredError(float[] etalon, float[] predicted, ThreadingMode threadingMode = ThreadingMode.Default)
{
return((float)Math.Sqrt(CalcMeanSquaredError(etalon, predicted, threadingMode)));
}
public ThreadingModeProxyRunner(ITestRunner inner, ThreadingMode mode)
: base(inner)
{
this.Mode = mode;
}
void TestConcurrent(ThreadingMode mode)
{
int workCount;
const int Count = 100000000;
Stopwatch sw = new Stopwatch();
m_doWorkCount = 0;
using (ScheduledTask work = new ScheduledTask(mode))
{
work.Running += work_DoWork;
sw.Start();
for (int x = 0; x < 1000; x++)
work.Start();
sw.Stop();
}
m_doWorkCount = 0;
sw.Reset();
using (ScheduledTask work = new ScheduledTask(mode))
{
work.Running += work_DoWork;
sw.Start();
ThreadPool.QueueUserWorkItem(BlastStartMethod, work);
ThreadPool.QueueUserWorkItem(BlastStartMethod, work);
for (int x = 0; x < Count; x++)
work.Start();
workCount = m_doWorkCount;
sw.Stop();
Thread.Sleep(100);
}
Console.WriteLine(mode.ToString());
Console.WriteLine(" Fire Event Count: " + workCount.ToString());
Console.WriteLine(" Fire Event Rate: " + (workCount / sw.Elapsed.TotalSeconds / 1000000).ToString("0.00"));
Console.WriteLine(" Total Calls Time: " + sw.Elapsed.TotalMilliseconds.ToString("0.0") + "ms");
Console.WriteLine(" Total Calls Rate: " + (Count / sw.Elapsed.TotalSeconds / 1000000).ToString("0.00"));
Console.WriteLine();
}
/// <summary>
/// Creates a <see cref="ScheduledTask"/>.
/// </summary>
/// <param name="threadMode">The manner in which the scheduled task executes.</param>
/// <param name="priority">The thread priority to assign if a dedicated thread is used. This is ignored if using the thread-pool.</param>
/// <param name="disposeOnShutdown">Adds a handler to <see cref="ShutdownHandler"/> that requires this class to be disposed
/// when the application is shutdown. Note: If this object has been garbage collected, this will have no effect.</param>
public ScheduledTask(ThreadingMode threadMode = ThreadingMode.ThreadPool, ThreadPriority priority = ThreadPriority.Normal, bool disposeOnShutdown = false)
{
m_workerThreadID = -1;
m_waitForDispose = new ManualResetEvent(false);
m_disposeSync = new object();
switch (threadMode)
{
case ThreadingMode.DedicatedForeground:
m_thread = new ThreadContainerDedicated(OnRunningCallback, Dispose, false, priority, disposeOnShutdown);
break;
case ThreadingMode.DedicatedBackground:
m_thread = new ThreadContainerDedicated(OnRunningCallback, Dispose, true, priority, disposeOnShutdown);
break;
case ThreadingMode.ThreadPool:
m_thread = new ThreadContainerThreadpool(OnRunningCallback, Dispose, disposeOnShutdown);
break;
default:
throw new ArgumentOutOfRangeException(nameof(threadMode));
}
}
/// <summary>
/// Starts the watching
/// </summary>
public void Start(ThreadingMode mode = ThreadingMode.ThreadPool)
{
if (m_started)
return;
m_started = true;
Log.Publish(MessageLevel.Debug, "EventTimer Started");
m_timer = new ScheduledTask(mode);
m_timer.Running += TimerRunning;
RestartTimer();
}
void CheckThreadingModeProxy (List<ITestRunner> list, ITestRunner runner, ThreadingMode mode)
{
bool found = false;
if ((Attribute.ThreadingMode & mode) != 0)
found = true;
else
found = tests.Any (test => (test.Attribute.ThreadingMode & mode) != 0);
if (found)
list.Add (new ThreadingModeProxyRunner (runner, mode));
}
public static unsafe float CalcMeanSquaredError(float[] etalon, float *predictedPtr, ThreadingMode threadingMode = ThreadingMode.Default)
{
fixed(float *etalonPtr = etalon)
return(Native.MeanSquaredError(etalonPtr, predictedPtr, etalon.Length, threadingMode));
}
static string threadingModeString(ThreadingMode threadingMode)
=> threadingMode switch
{
public static unsafe float CalcRootMeanSquaredError(float *etalonPtr, float *predictedPtr, int size, ThreadingMode threadingMode = ThreadingMode.Default)
{
return((float)Math.Sqrt(CalcMeanSquaredError(etalonPtr, predictedPtr, size, threadingMode)));
}
public static unsafe float CalcMeanSquaredError(float[] etalon, float[] predicted, ThreadingMode threadingMode = ThreadingMode.Default)
{
fixed(float *etalonPtr = etalon)
fixed(float *predictedPtr = predicted)
{
int size = Math.Min(etalon.Length, predicted.Length); //Get size from smallest array
return(Native.MeanSquaredError(etalonPtr, predictedPtr, size, threadingMode));
}
}
/// <summary>
/// Creates a <see cref="ScheduledTask"/>.
/// </summary>
/// <param name="threadMode">The manner in which the scheduled task executes.</param>
/// <param name="priority">The thread priority to assign if a dedicated thread is used. This is ignored if using the thread-pool.</param>
public ScheduledTask(ThreadingMode threadMode = ThreadingMode.ThreadPool, ThreadPriority priority = ThreadPriority.Normal)
{
m_workerThreadID = -1;
m_waitForDispose = new ManualResetEvent(false);
m_disposeSync = new object();
switch (threadMode)
{
case ThreadingMode.DedicatedForeground:
m_thread = new ThreadContainerDedicated(new WeakAction<ThreadContainerBase.CallbackArgs>(OnRunningCallback, out m_weakCallbackToken), false, priority);
break;
case ThreadingMode.DedicatedBackground:
m_thread = new ThreadContainerDedicated(new WeakAction<ThreadContainerBase.CallbackArgs>(OnRunningCallback, out m_weakCallbackToken), true, priority);
break;
case ThreadingMode.ThreadPool:
m_thread = new ThreadContainerThreadpool(new WeakAction<ThreadContainerBase.CallbackArgs>(OnRunningCallback, out m_weakCallbackToken));
break;
default:
throw new ArgumentOutOfRangeException("threadMode");
}
}
/// <summary>
/// Add noise to float array (USE OF "SEED" IS USELESS IF YOU USE MULTITHREADING MODE!!!)
/// </summary>
/// <param name="array">Float array</param>
/// <param name="noiseCoeff">Coefficient of noise. For example: 0.1f with Negative=true will generate -0.1 to 0.1</param>
/// <param name="negative">Generate negative side of float value.</param>
/// <param name="limit">Limit value after adding into array?</param>
/// <param name="seed">Seed for random, 0 for random seed. (USELESS IN MULTITHREADING MODE!!!)</param>
/// <param name="threadingMode">Threading mode. Using multithreading not recommended for small arrays (~4k or smaller)</param>
public static unsafe void FloatArrayRandomAdd(float[] array, float noiseCoeff, bool negative, bool limit, int seed = 0, ThreadingMode threadingMode = ThreadingMode.Default)
{
if (seed == 0)
{
seed = Environment.TickCount;
fixed(float *arrayPtr = array)
Native.FloatArrayRandomAdd(arrayPtr, array.Length, noiseCoeff, negative, limit, seed, threadingMode);
}
public ThreadingModeProxyRunner (ITestRunner inner, ThreadingMode mode)
: base (inner)
{
this.Mode = mode;
}
public static async Task Main(string[] args)
{
bool useOsReadBuffering = false;
if (args.Length > 0)
{
for (var ii = 0; ii < args.Length; ++ii)
{
var arg = args[ii];
string nextArg()
{
var next = ii < args.Length - 1 && args[ii + 1][0] != '-' ? args[++ii] : string.Empty;
if (next.Length == 0)
{
throw new ApplicationException($"Need arg value for {arg}");
}
return(next);
}
if (arg == "-u")
{
upsertThreadingMode = Enum.Parse <ThreadingMode>(nextArg(), ignoreCase: true);
}
else if (arg == "-r")
{
readThreadingMode = Enum.Parse <ThreadingMode>(nextArg(), ignoreCase: true);
}
else if (arg == "-c")
{
numChunks = int.Parse(nextArg());
}
else if (arg == "-n")
{
numOperations = int.Parse(nextArg());
}
else if (arg == "-b")
{
useOsReadBuffering = true;
}
else if (arg == "-?" || arg == "/?" || arg == "--help")
{
Usage();
return;
}
else
{
throw new ApplicationException($"Unknown switch: {arg}");
}
}
}
// Store with value types, no object log
// await ProfileStore(new FasterWrapper<long, long>(useOsReadBuffering), e => (long)e, e => (long)e);
// Store with reference types, using object log
// await ProfileStore(new FasterWrapper<string, string>(useOsReadBuffering), e => $"key {e}", e => $"value {e}");
// Store with reference or value types, no object log (store serialized bytes)
await ProfileStore(new SerializedFasterWrapper <string, string>(useOsReadBuffering), e => $"key {e}", e => $"value {e}");
}
/// <summary>
/// Fill randomly the float array (USE OF "SEED" IS USELESS IF YOU USE MULTITHREADING MODE!!!)
/// </summary>
/// <param name="arrayPtr">Array pointer</param>
/// <param name="arraySize">Array size</param>
/// <param name="noiseCoeff">Coefficient of noise. For example: 0.1f with Negative=true will generate -0.1 to 0.1</param>
/// <param name="negative">Generate negative side of float value.</param>
/// <param name="seed">Seed for random, 0 for random seed. (USELESS IN MULTITHREADING MODE!!!)</param>
/// <param name="threadingMode">Threading mode. Using multithreading not recommended for small arrays (~4k or smaller)</param>
public static unsafe void FloatArrayRandomFill(float *arrayPtr, int arraySize, float noiseCoeff, bool negative, int seed = 0, ThreadingMode threadingMode = ThreadingMode.Default)
{
if (seed == 0)
{
seed = Environment.TickCount;
}
Native.FloatArrayRandomFill(arrayPtr, arraySize, noiseCoeff, negative, seed, threadingMode);
}
