private void CreatePins(Memory memory)
{
Tracer.Assert(!this.CircuitProject.DevicePinSet.SelectByCircuit(memory).Any());
// The order of creation of the pins is essential for expansion algorithm.
DevicePin address = this.CircuitProject.DevicePinSet.Create(memory, PinType.Input, memory.AddressBitWidth);
address.PinSide = PinSide.Left;
address.Name = Properties.Resources.MemoryAddressPinName;
address.JamNotation = Properties.Resources.MemoryAddressPinNotation;
DevicePin data = this.CircuitProject.DevicePinSet.Create(memory, PinType.Output, memory.DataBitWidth);
data.PinSide = PinSide.Right;
data.Name = Properties.Resources.MemoryDataPinName;
data.JamNotation = Properties.Resources.MemoryDataPinNotation;
if (memory.Writable)
{
DevicePin dataIn = this.CircuitProject.DevicePinSet.Create(memory, PinType.Input, memory.DataBitWidth);
dataIn.PinSide = PinSide.Left;
dataIn.Name = Properties.Resources.MemoryDataInPinName;
dataIn.JamNotation = Properties.Resources.MemoryDataPinNotation;
DevicePin write = this.CircuitProject.DevicePinSet.Create(memory, PinType.Input, 1);
write.PinSide = PinSide.Bottom;
write.Name = Properties.Resources.MemoryWritePinName(memory.WriteOn1 ? Properties.Resources.WriteOn1 : Properties.Resources.WriteOn0);
write.JamNotation = Properties.Resources.MemoryWritePinNotation;
memory.SetPins(address, data, dataIn, write);
MemorySet.UpdateWritePinName(memory);
}
else
{
memory.SetPins(address, data);
}
}
private void CreateDevicePin(CircuitButton button)
{
DevicePin pin = this.CircuitProject.DevicePinSet.Create(button, PinType.Output, 1);
pin.PinSide = button.PinSide;
pin.Inverted = button.Inverted;
}
public int Compare(BasePin x, BasePin y)
{
Tracer.Assert(x.GetType() == y.GetType());
DevicePin dp1 = x as DevicePin;
if (dp1 != null)
{
DevicePin dp2 = (DevicePin)y;
return(dp1.Order - dp2.Order);
}
else
{
CircuitSymbolSet symbolSet = x.CircuitProject.CircuitSymbolSet;
Tracer.Assert(symbolSet == y.CircuitProject.CircuitSymbolSet);
CircuitSymbol s1 = symbolSet.SelectByCircuit(x).FirstOrDefault();
CircuitSymbol s2 = symbolSet.SelectByCircuit(y).FirstOrDefault();
if (s1 != null && s2 != null)
{
int d = s1.Y - s2.Y;
if (d == 0)
{
d = s1.X - s2.X;
if (d == 0)
{
return(StringComparer.Ordinal.Compare(x.Name, y.Name));
}
}
return(d);
}
return(StringComparer.Ordinal.Compare(x.Name, y.Name));
}
}
private void CreateDevicePins(GraphicsArray graphicsArray)
{
Tracer.Assert(!this.CircuitProject.DevicePinSet.SelectByCircuit(graphicsArray).Any());
// The order of creation of the pins is essential for expansion algorithm.
DevicePin address = this.CircuitProject.DevicePinSet.Create(graphicsArray, PinType.Input, graphicsArray.AddressBitWidth);
address.PinSide = PinSide.Left;
address.Name = Properties.Resources.MemoryAddressPinName;
DevicePin data = this.CircuitProject.DevicePinSet.Create(graphicsArray, PinType.Output, graphicsArray.DataBitWidth);
data.PinSide = PinSide.Right;
data.Name = Properties.Resources.MemoryDataPinName;
DevicePin dataIn = this.CircuitProject.DevicePinSet.Create(graphicsArray, PinType.Input, graphicsArray.DataBitWidth);
dataIn.PinSide = PinSide.Left;
dataIn.Name = Properties.Resources.MemoryDataInPinName;
DevicePin write = this.CircuitProject.DevicePinSet.Create(graphicsArray, PinType.Input, 1);
write.PinSide = PinSide.Bottom;
write.Name = Properties.Resources.MemoryWritePinName(graphicsArray.WriteOn1 ? Properties.Resources.WriteOn1 : Properties.Resources.WriteOn0);
graphicsArray.SetPins(address, data, dataIn, write);
GraphicsArraySet.UpdateWritePinName(graphicsArray);
}
public void UpdatePins()
{
this.CircuitProject.DevicePinSet.DeleteAllPins(this);
int rows = this.Rows;
int columns = this.Columns;
int colors = this.Colors;
if (this.MatrixType == LedMatrixType.Individual)
{
int bitWidth = columns * colors;
for (int i = 0; i < rows; i++)
{
DevicePin pin = this.CircuitProject.DevicePinSet.Create(this, PinType.Input, bitWidth);
pin.Name = Properties.Resources.LedMatrixRowIndividual(i + 1);
}
}
else //this.MatrixType == LedMatrixType.Selector
{
Tracer.Assert(this.MatrixType == LedMatrixType.Selector);
for (int i = 0; i < columns; i++)
{
DevicePin pin = this.CircuitProject.DevicePinSet.Create(this, PinType.Input, colors);
pin.Name = Properties.Resources.LedMatrixColumnSelector(i + 1);
pin.PinSide = PinSide.Top;
}
for (int i = 0; i < rows; i++)
{
DevicePin pin = this.CircuitProject.DevicePinSet.Create(this, PinType.Input, 1);
pin.Name = Properties.Resources.LedMatrixRowSelector(i + 1);
}
}
}
private static void SetName(DevicePin pin, int firstBit, int pinWidth)
{
if (pinWidth == 1)
{
pin.Name = Properties.Resources.SplitterThin1PinName(firstBit);
}
else
{
pin.Name = Properties.Resources.SplitterThin2PinName(firstBit, firstBit + pinWidth - 1);
}
}
public DevicePin Create(Circuit circuit, PinType pinType, int bitWidth)
{
PinSide pinSide = BasePin.DefaultSide((circuit is Pin circuitPin) ? (circuitPin.PinType == PinType.Input ? PinType.Output : PinType.Input) : pinType);
DevicePin pin = this.CreateItem(Guid.NewGuid(), circuit, bitWidth, pinType, pinSide, false,
this.UniqueName(BasePin.DefaultName(pinType), circuit),
DevicePinData.NoteField.Field.DefaultValue, DevicePinData.JamNotationField.Field.DefaultValue
);
pin.Order = this.order++;
return(pin);
}
internal void SetPins(DevicePin addressPin, DevicePin dataPin)
{
Tracer.Assert(!this.Writable);
Tracer.Assert(this.AddressPin == null);
Tracer.Assert(addressPin != null && dataPin != null);
this.AddressPin = addressPin;
this.DataOutPin = dataPin;
Tracer.Assert(addressPin.BitWidth == this.AddressBitWidth);
Tracer.Assert(dataPin.BitWidth == this.DataBitWidth);
}
private void CreateDevicePin(Pin pin)
{
PinType pinType = pin.PinType;
if (pinType != PinType.None)
{
DevicePin devicePin = this.CircuitProject.DevicePinSet.Create(
pin, PinType.None, pin.BitWidth
);
devicePin.Inverted = pin.Inverted;
}
}
internal void SetPins(DevicePin addressPin, DevicePin dataOutPin, DevicePin dataInPin, DevicePin writePin)
{
Tracer.Assert(this.AddressPin == null);
Tracer.Assert(addressPin != null && dataOutPin != null && dataInPin != null && writePin != null);
this.AddressPin = addressPin;
this.DataOutPin = dataOutPin;
this.DataInPin = dataInPin;
this.WritePin = writePin;
Tracer.Assert(addressPin.BitWidth == this.AddressBitWidth);
Tracer.Assert(dataInPin.BitWidth == dataOutPin.BitWidth && dataOutPin.BitWidth == this.DataBitWidth);
Tracer.Assert(writePin.BitWidth == 1);
}
private void GenerateTriStatePins(Gate gate)
{
Tracer.Assert(gate.GateType == GateType.TriState1 || gate.GateType == GateType.TriState2);
DevicePin pinX = this.CircuitProject.DevicePinSet.Create(gate, PinType.Input, 1);
pinX.Name = Properties.Resources.PinInName;
DevicePin pinE = this.CircuitProject.DevicePinSet.Create(gate, PinType.Input, 1);
pinE.Name = Properties.Resources.PinEnableName;
pinE.PinSide = (gate.GateType == GateType.TriState1) ? PinSide.Bottom : PinSide.Top;
DevicePin pin = this.CircuitProject.DevicePinSet.Create(gate, PinType.Output, 1);
pin.Inverted = false;
pin.Name = Properties.Resources.PinOutName;
}
private void CreatePins(Splitter splitter)
{
// The order of creation of the pins is essential for expansion algorithm (CircuitMap.Connect).
// The wide pin should go first and then thin pins starting from lower bits to higher
Tracer.Assert(!this.CircuitProject.DevicePinSet.SelectByCircuit(splitter).Any());
if (splitter.PinCount < 2)
{
splitter.PinCount = 2;
}
if (splitter.BitWidth < splitter.PinCount)
{
splitter.BitWidth = splitter.PinCount;
}
DevicePin pin = this.CircuitProject.DevicePinSet.Create(splitter, PinType.None, splitter.BitWidth);
pin.Name = Properties.Resources.SplitterWidePinName;
PinSide pinSide;
if (splitter.Clockwise)
{
pinSide = PinSide.Right;
pin.PinSide = PinSide.Left;
}
else
{
pinSide = PinSide.Left;
pin.PinSide = PinSide.Right;
}
int pinWidth = splitter.BitWidth / splitter.PinCount;
int rem = splitter.BitWidth % splitter.PinCount;
for (int i = 0; i < rem; i++)
{
pin = this.CircuitProject.DevicePinSet.Create(splitter, PinType.None, pinWidth + 1);
pin.PinSide = pinSide;
SplitterSet.SetName(pin, i * (pinWidth + 1), pinWidth + 1);
}
for (int i = rem; i < splitter.PinCount; i++)
{
pin = this.CircuitProject.DevicePinSet.Create(splitter, PinType.None, pinWidth);
pin.PinSide = pinSide;
SplitterSet.SetName(pin, i * pinWidth + rem, pinWidth);
}
}
private void GeneratePins(Gate gate, int inputCount, bool invertedOutput)
{
if (inputCount == 1)
{
DevicePin pin = this.CircuitProject.DevicePinSet.Create(gate, PinType.Input, 1);
pin.Name = Properties.Resources.PinInName;
}
else
{
for (int i = 0; i < inputCount; i++)
{
DevicePin pin = this.CircuitProject.DevicePinSet.Create(gate, PinType.Input, 1);
pin.Name = Properties.Resources.PinName(Properties.Resources.PinInName, i + 1);
}
}
if (GateSet.HasOutput(gate.GateType))
{
DevicePin pin = this.CircuitProject.DevicePinSet.Create(gate, PinType.Output, 1);
pin.Inverted = invertedOutput;
pin.Name = Properties.Resources.PinOutName;
}
}
private void GenerateSevenSegmentIndicatorPins(Gate gate)
{
string prefix = "Led7Pin";
int name = 1;
for (int i = 0; i < 4; i++)
{
DevicePin pin = this.CircuitProject.DevicePinSet.Create(gate, PinType.Input, 1);
pin.Name = Properties.Resources.ResourceManager.GetString(prefix + name);
name++;
}
for (int i = 0; i < 3; i++)
{
DevicePin pin = this.CircuitProject.DevicePinSet.Create(gate, PinType.Input, 1);
pin.Name = Properties.Resources.ResourceManager.GetString(prefix + name);
pin.PinSide = PinSide.Right;
name++;
}
DevicePin pinDot = this.CircuitProject.DevicePinSet.Create(gate, PinType.Input, 1);
pinDot.Name = Properties.Resources.ResourceManager.GetString(prefix + name);
pinDot.PinSide = PinSide.Right;
}
private void CreateDevicePin(Constant constant)
{
DevicePin pin = this.CircuitProject.DevicePinSet.Create(constant, PinType.Output, constant.BitWidth);
pin.PinSide = constant.PinSide;
}
private void CreateDevicePin(Sensor sensor)
{
DevicePin pin = this.CircuitProject.DevicePinSet.Create(sensor, PinType.Output, sensor.BitWidth);
pin.PinSide = sensor.PinSide;
}
private void CreateDevicePin(Sound sound)
{
DevicePin pin = this.CircuitProject.DevicePinSet.Create(sound, PinType.Input, 1);
pin.PinSide = sound.PinSide;
}