public override void Do(IDemoChartControl chartControl)
{
chartControl.Axes.IsAxes3DVisible = true;
chartControl.DataSource = new Prism[]
{
new Prism
{
//Prism side should be defined in 2d space by convex polygon
Side = new[] { new Vector2F(-0.5f, 0), new Vector2F(-0.5f, 1), new Vector2F(1, 1) },
//Vector that define translate between top and bottom sides
BottomToTopVector = Vector3F.UnitZ,
Color = Colors.Cyan,
Transform = Matrix4F.RotationAxis(Vector3F.UnitY, -Math.PI / 4),
Name = "Prism 1"
},
new Prism
{
//Prism side should be defined in 2d space by convex polygon
Side = new[] { new Vector2F(1, 0), new Vector2F(0.4f, 0.5f), new Vector2F(1) },
//Vector that define translate between top and bottom sides
BottomToTopVector = new Vector3F(0.5f, 0.5f, 0.5f),
Color = Colors.Blue,
Name = "Prism 2"
}
};
}
public override void Do(IDemoChartControl chartControl)
{
chartControl.Axes.IsAxes3DVisible = true;
chartControl.DataSource = new []
{
new Cube
{
Color = Colors.Cyan,
//Size of cube sizes
Size = new Vector3F(1, 1, 0.5f),
//Position relative to cube center
Position = new Vector3F(1, 1, -1),
//Cube direction (Also transform matrix can be used for more accurate rotations)
Direction = new Vector3F(1, 1, 1),
//Primitive presentation type
PresentationType = PrimitivePresentationType.Solid,
Name = "Cube 1"
},
new Cube
{
Color = Colors.Blue,
//Size of cube sizes
Size = new Vector3F(0.2f, 0.2f, 0.5f),
//Position relative to cube center
Position = new Vector3F(0, 0, 0),
//Transformation matrix example
Transform = Matrix4F.RotationAxis(Vector3F.UnitX, Math.PI / 3) * Matrix4F.RotationAxis(Vector3F.UnitZ, Math.PI / 3),
//Primitive presentation type
PresentationType = PrimitivePresentationType.Solid,
Name = "Cube 2"
},
new Cube
{
Color = Colors.DarkBlue,
//Size of cube sizes
Size = new Vector3F(1.2f, 1.2f, 0.7f),
//Position relative to cube center
Position = new Vector3F(1, 1, -1),
//Cube direction (Also transform matrix can be used for more accurate rotations)
Direction = new Vector3F(1, 1, 1),
//Primitive presentation type
PresentationType = PrimitivePresentationType.Wireframe,
Name = "Cube 3"
}
};
}
public override void Do(IDemoChartControl chartControl)
{
chartControl.Axes.IsAxes3DVisible = true;
chartControl.DataSource = new RenderData[]
{
new Sphere
{
//Resolution for radial part of item. Means number of generated points. For sphere it is approximate number due to mesh generation algorithm.
Resolution = 100,
Color = Colors.DarkBlue,
//Item radius
Radius = 0.5f,
//Item position relative to center
Position = new Vector3F(),
Name = "Sphere 1"
},
new Sphere
{
//Resolution for radial part of item. Means number of generated points. For sphere it is approximate number due to mesh generation algorithm.
Resolution = 100,
Color = Colors.Cyan,
//Item radius
Radius = 0.5f,
//Ietm position relative to center
Position = new Vector3F(0.5f),
//We can create ellipse using transform matrices
Transform = Matrix4F.Scaling(1f, 0.5f, 0.5f),
Name = "Sphere 2"
},
new Sphere
{
//Resolution for radial part of item. Means number of generated points. For sphere it is approximate number due to mesh generation algorithm.
Resolution = 100,
Color = Colors.Blue,
//Item radius
Radius = 0.5f,
//Item position relative to center
Position = new Vector3F(0.5f, -0.5f, 0.5f),
//We can create ellipse using transform matrices
Transform = Matrix4F.Scaling(1f, 1f, 0.5f) * Matrix4F.RotationAxis(Vector3F.UnitX, Math.PI / 4),
Name = "Sphere 3"
},
new SemiSphere
{
//Resolution for radial part of item. Means number of generated points. For sphere it is approximate number due to mesh generation algorithm.
Resolution = 100,
Color = Colors.DarkCyan,
//Item radius
Radius = 0.55f,
//Item position relative to center
Position = new Vector3F(),
//For semi sphere direction can be defined
Direction = -Vector3F.UnitX,
//Define if semi sphere base is required
DrawBottomBase = false,
//Item presentation type
PresentationType = PrimitivePresentationType.Wireframe,
Name = "Sphere 4"
},
};
}