public static void Main()
{
// Create an ArrayList.
ArrayList myAL = new ArrayList();
myAL.Add("red");
myAL.Add("blue");
myAL.Add("yellow");
myAL.Add("green");
myAL.Add("orange");
myAL.Add("purple");
// Create a new ROCollection that contains the elements in myAL.
ROCollection myCol = new ROCollection(myAL);
// Display the contents of the collection using foreach. This is the preferred method.
Console.WriteLine("Contents of the collection (using foreach):");
PrintValues1(myCol);
// Display the contents of the collection using the enumerator.
Console.WriteLine("Contents of the collection (using enumerator):");
PrintValues2(myCol);
// Display the contents of the collection using the Count property and the Item property.
Console.WriteLine("Contents of the collection (using Count and Item):");
PrintIndexAndValues(myCol);
// Search the collection with Contains and IndexOf.
Console.WriteLine("Contains yellow: {0}", myCol.Contains("yellow"));
Console.WriteLine("orange is at index {0}.", myCol.IndexOf("orange"));
Console.WriteLine();
}
public static void Main()
{
// Create an ArrayList.
ArrayList myAL = new ArrayList();
myAL.Add("red");
myAL.Add("blue");
myAL.Add("yellow");
myAL.Add("green");
myAL.Add("orange");
myAL.Add("purple");
// Create a new ROCollection that contains the elements in myAL.
ROCollection myReadOnlyCollection = new ROCollection(myAL);
// <Snippet2>
// Get the ICollection interface from the ReadOnlyCollectionBase
// derived class.
ICollection myCollection = myReadOnlyCollection;
lock (myCollection.SyncRoot)
{
foreach (object item in myCollection)
{
// Insert your code here.
}
}
// </Snippet2>
}
// Uses the foreach statement which hides the complexity of the enumerator.
// NOTE: The foreach statement is the preferred way of enumerating the contents of a collection.
public static void PrintValues1(ROCollection myCol)
{
foreach (Object obj in myCol)
{
Console.WriteLine(" {0}", obj);
}
Console.WriteLine();
}
// Uses the Count property and the Item property.
public static void PrintIndexAndValues(ROCollection myCol)
{
for (int i = 0; i < myCol.Count; i++)
{
Console.WriteLine(" [{0}]: {1}", i, myCol[i]);
}
Console.WriteLine();
}
// Uses the enumerator.
// NOTE: The foreach statement is the preferred way of enumerating the contents of a collection.
public static void PrintValues2(ROCollection myCol)
{
System.Collections.IEnumerator myEnumerator = myCol.GetEnumerator();
while (myEnumerator.MoveNext())
{
Console.WriteLine(" {0}", myEnumerator.Current);
}
Console.WriteLine();
}
protected override void OnLoad(object sender, EventArgs e)
{
WaveProgram = MainWindow.CreateProgram(WaveVertexShader, MainWindow.ColoredFragmentShaderPath);
_wave = new RenderObject(
ObjectFactory.Curve(
FunctionToCurve((x) => 0f, -_length * 1f, _length * 1f, 1600),
Color4.White),
WaveProgram)
{
Scale = new Vector3(Window.Width / _length, 1, 1)
};
///// BUTTONS /////
_startButton = new RectangularButton(
new RectangleF(Window.Width / 2f - 75f, -Window.Height / 2f + 15f, 60f, 60f),
ARectangularInteraction.DefaultLineWidth,
Color4.Gray,
Color4.White,
Window.ColoredProgram);
_startButton.ButtonPressEvent += (o, a) =>
{
_working ^= true;
_startButton.FillColor = _working ? Color4.Red : Color4.Gray;
};
///////////////////
///// CHECKBOX /////
_timeSlipCheck = new RectangularCheckBox(60f, 60f, 5f, Color4.Black, Color4.White, Color4.Red, Window.ColoredProgram);
////////////////////
///// CIRCLES /////
Color4 colorC = new Color4(0xCA, 0xC0, 0x3E, 128);
_circleL = new RenderObject(ObjectFactory.FilledCircle(20f, colorC), Window.ColoredProgram);
_circleR = new RenderObject(ObjectFactory.FilledCircle(20f, colorC), Window.ColoredProgram);
///////////////////
Color4 colorL = new Color4(0.5f, 0.5f, 0.2f, 1.0f);
_ampLines = new ROCollection(new RenderObject[]
{
new RenderObject(
ObjectFactory.Curve(
colorL,
new System.Numerics.Vector2(-0.5f * _length, +_amplitude / 0.1f),
new System.Numerics.Vector2(+0.5f * _length, +_amplitude / 0.1f)),
Window.ColoredProgram),
new RenderObject(
ObjectFactory.Curve(
colorL,
new System.Numerics.Vector2(-0.5f * _length, -_amplitude / 0.1f),
new System.Numerics.Vector2(+0.5f * _length, -_amplitude / 0.1f)),
Window.ColoredProgram),
new RenderObject(
ObjectFactory.Curve(
new Color4(1f, 1f, 1f, 0.3f),
new System.Numerics.Vector2(-0.5f * _length, 0f),
new System.Numerics.Vector2(+0.5f * _length, 0f)),
Window.ColoredProgram)
})
{
Scale = new Vector3(Window.Width / _length, 1, 1)
};
///// SLIDERS /////
_freqSlider = new StandardSlider(400, 50, 20, 0, 5f, Color4.LightBlue, Color4.White, Window.ColoredProgram);
_freqSlider.ValueChangedEvent += (o, ev) =>
{
_frequency = ev.NewValue;
_freqText.Text = $"f={ev.NewValue:0.000} Hz";
UniformComponents();
};
_speedSlider = new StandardSlider(400, 50, 20, 0, 200, Color4.LightBlue, Color.White, Window.ColoredProgram)
{
Value = 100f
};
_speedSlider.ValueChangedEvent += (o, ev) =>
{
_speed = ev.NewValue;
_speedText.Text = $"v={ev.NewValue:000.00} m/s";
UniformComponents();
};
///////////////////
////// TEXTS //////
string fontName = "Time New Roman";
_freqText = new RenderText(25, fontName, "f=0.000 Hz", Color.Transparent, Color.White, Window.TexturedProgram);
_speedText = new RenderText(25, fontName, "v=100.00 m/s", Color.Transparent, Color.White, Window.TexturedProgram);
_lengthText = new RenderText(25, fontName, "L=100.00 m", Color.Transparent, Color.White, Window.TexturedProgram);
_timeSlipLabel = new RenderText(10, fontName, "timeslip", Color.Transparent, Color.White, Window.TexturedProgram);
_startLabel = new RenderText(10, fontName, "start", Color.Transparent, Color.White, Window.TexturedProgram);
//////////////////
UniformComponents();
}
