public override void Draw(MicroWorld.Graphics.Renderer renderer)
{
if (texture0cw == null)
{
return;
}
if (!CanDraw())
{
return;
}
Photoresistor p = parent as Photoresistor;
switch (parent.ComponentRotation)
{
case Component.Rotation.cw0:
renderer.Draw(texture0cw,
new Rectangle((int)Position.X, (int)Position.Y,
(int)GetSizeRotated(parent.ComponentRotation).X, (int)GetSizeRotated(parent.ComponentRotation).Y), null,
Color.White);
break;
case Component.Rotation.cw90:
renderer.Draw(texture90cw,
new Rectangle((int)Position.X, (int)Position.Y,
(int)GetSizeRotated(parent.ComponentRotation).X, (int)GetSizeRotated(parent.ComponentRotation).Y), null,
Color.White);
break;
case Component.Rotation.cw180:
case Component.Rotation.cw270:
default:
break;
}
}
public override void CircuitUpdate()
{
base.CircuitUpdate();
Photoresistor p = ((Photoresistor)parent);
Brightness = ComponentsManager.GetBrightness(parent.Graphics.Position.X, parent.Graphics.Position.Y);
double res = p.MaxResistance * (1 - Brightness) + 1f;
if (p.W.Resistance != res)
{
p.W.Resistance = res;
MicroWorld.Logics.CircuitManager.ScheduleReupdate(p.W);
}
}
public static void Main()
{
//Remember to use the 10K resistor and take the reading in parallel
//using the 3.3V output makes you less likely to hit the 255 cap
var photocell = new Photoresistor(Pins.GPIO_PIN_A0);
var dimableLED1 = new VariableLED(Pins.GPIO_PIN_D10);
var dimableLED2 = new VariableLED(Pins.GPIO_PIN_D5);
while (true)
{
double light = photocell.Read();
Debug.Print(light.ToString());
if (light < 300)
{
if (light < 200)
{
dimableLED1.Brighten();
dimableLED2.Dim();
}
if (light < 100)
{
dimableLED1.Brighten();
dimableLED2.Brighten();
}
}
else
{
if (light > 200)
{
dimableLED1.Dim();
}
if (light > 400)
{
dimableLED2.Dim();
}
}
Thread.Sleep(500);
}
}
void OnMouseDown()
{
print("Clicked");
Photoresistor.SendRed();
}
