public ConvertToHsv()
{
_input = new InputPin("Input", PinMediaType.Image);
AddPin(_input);
_output = new OutputPin("HSV", PinMediaType.Image);
AddPin(_output);
}
/// <summary>
///
/// </summary>
/// <param name="InPins"></param>
/// <returns></returns>
public static string GetSimulationResult(bool[] InPins)
{
string Result = string.Empty;
Result = "Simulation Result:\n";
PrivtFieldName(ref Result);
// 設定input value至input pins，並輸出input value
for (int i = 1; i < InPins.Length; i++)
{
iPins[i].iPins = InPins[i];
Result += Convert.ToInt32(InPins[i]) + " ";
}
// 輸出結果
Result += "|";
foreach (OPin OutputPin in oPins)
{
Result += (" " + Convert.ToInt32(OutputPin.GetOutput()));
}
Result += ("\n");
return(Result);
}
private void OnChangedCountOfCopies(object obj)
{
if (!(obj is int))
{
return;
}
int copies = (int)obj;
if (_outputs.Count == copies)
{
return;
}
lock (_outputs)
{
foreach (IPin outputPin in _outputs)
{
outputPin.Disconnect();
RemovePin(outputPin);
}
_outputs.Clear();
for (uint i = 0; i < copies; i++)
{
var outputPin = new OutputPin("Copy № " + (i + 1), PinMediaType.Image);
_outputs.Add(outputPin);
AddPin(outputPin);
}
}
}
public DynamicAdder(int bits)
{
fullAdders = new FullAdder[bits];
var inputPinSeriesA = new InputPin[bits];
var inputPinSeriesB = new InputPin[bits];
var outputPinSeriesSum = new OutputPin[bits];
FullAdder previousFullAdder = null;
for (var i = 0; i < bits; i++)
{
var fullAdder = new FullAdder();
if (previousFullAdder != null)
{
previousFullAdder.CarryOver.ConnectTo(fullAdder.CarryIn);
}
fullAdders[i] = fullAdder;
inputPinSeriesA[i] = fullAdder.InputA;
inputPinSeriesB[i] = fullAdder.InputB;
outputPinSeriesSum[i] = fullAdder.Sum;
previousFullAdder = fullAdder;
}
Overflow = previousFullAdder.CarryOver;
InputA = new InputPinSeries(inputPinSeriesA);
InputB = new InputPinSeries(inputPinSeriesB);
Sum = new OutputPinSeries(outputPinSeriesSum);
}
public void SetOutput(OutputPin outputPin, double voltage, double vRef)
{
byte control = LoadA | LoadB;
switch (outputPin)
{
case OutputPin.DAC0:
control |= SelectA;
break;
case OutputPin.DAC1:
control |= SelectB;
break;
default:
throw new ArgumentOutOfRangeException(nameof(outputPin), outputPin, null);
}
ushort volt16Bit = Get16BitVoltage(voltage, vRef);
byte[] data =
{
control,
(byte)(volt16Bit >> 8),
(byte)(volt16Bit & 0xff)
};
SpiComm.Operate(spiDevice => spiDevice.Write(data));
}
public void ChangeCircutState(OutputPin pin)
{
LogHelper.LogMessage("GpioInterface ChangeCircutState invoked: {0} - {1}", DateTime.Now, pin);
var connectorPin = MapOutputPin(pin);
gpioConnection.Blink(connectorPin, BlinkDurationMilis);
}
public Not()
{
_input = new InputPin("Input", PinMediaType.Image);
AddPin(_input);
_output = new OutputPin("Not", PinMediaType.Image);
AddPin(_output);
}
public override void _Process(float delta)
{
if (LastInputPinPressed != null && LastOutputPinPressed != null)
{
LastInputPinPressed.ConnectedPin = LastOutputPinPressed;
LastInputPinPressed = null;
LastOutputPinPressed = null;
}
}
private void ChangePortState(OutputPin outputPin, PortStates portState)
{
var gpioPinValue = PortStateToGpioPinValue(portState);
if (gpioPinValue.HasValue)
{
outputPin.GpioPinValue = gpioPinValue.Value;
}
}
public MSER()
{
var mserDetector = new MSERDetector();
_deltaProperty = new IntegerProperty("Delta", 1, 100, 1)
{
Value = mserDetector.Delta
};
_maxAreaProperty = new IntegerProperty("MaxArea", 10, 288000, 250)
{
Value = mserDetector.MaxArea
};
_minAreaProperty = new IntegerProperty("MinArea", 1, 16000, 100)
{
Value = mserDetector.MinArea
};
_maxVariationProperty = new FloatProperty("MaxVariation", 0, 1, (decimal)0.01f, 2)
{
Value = mserDetector.MaxVariation
};
_minDiversityProperty = new FloatProperty("MinDiversity", 0, 1, (decimal)0.01f, 2)
{
Value = mserDetector.MinDiversity
};
_maxEvolutionProperty = new IntegerProperty("MaxEvolution", 0, 1000, 1)
{
Value = mserDetector.MaxEvolution
};
_areaThresholdProperty = new FloatProperty("AreaThreshold", 0, 5, (decimal)0.01f, 2)
{
Value = (float)mserDetector.AreaThreshold
};
_minMarginProperty = new FloatProperty("MinMargin", 0, 1, (decimal)0.001f, 3)
{
Value = (float)mserDetector.MinMargin
};
_edgeBlurSizeProperty = new IntegerProperty("EdgeBlurSize", 0, 100, 1)
{
Value = mserDetector.EdgeBlurSize
};
AddProperty(_deltaProperty);
AddProperty(_maxAreaProperty);
AddProperty(_minAreaProperty);
AddProperty(_maxVariationProperty);
AddProperty(_minDiversityProperty);
AddProperty(_maxEvolutionProperty);
AddProperty(_areaThresholdProperty);
AddProperty(_minMarginProperty);
AddProperty(_edgeBlurSizeProperty);
_input = new InputPin("Image", PinMediaType.Image);
_output = new OutputPin("Contours", PinMediaType.ContoursArray);
AddPin(_input);
AddPin(_output);
}
public Clone()
{
_countProperty = new IntegerProperty("Count of copies", 0, 10, 1);
_countProperty.OnValueChanged += OnChangedCountOfCopies;
AddProperty(_countProperty);
_input = new InputPin("Input", PinMediaType.Image);
AddPin(_input);
_originalOutput = new OutputPin("Original", PinMediaType.Image);
AddPin(_originalOutput);
}
public FastNlMeansDenoisingColored()
{
_areaSizeProperty = new IntegerProperty("Area size", 0, 10, 1);
AddProperty(_areaSizeProperty);
_input = new InputPin("Input 0", PinMediaType.Image);
AddPin(_input);
_output = new OutputPin("And", PinMediaType.Image);
AddPin(_output);
}
public Merge()
{
_output = new OutputPin("Output", PinMediaType.Image);
_inputB = new InputPin("B", PinMediaType.Image);
_inputG = new InputPin("G", PinMediaType.Image);
_inputR = new InputPin("R", PinMediaType.Image);
AddPin(_output);
AddPin(_inputR);
AddPin(_inputG);
AddPin(_inputB);
}
public FullSubtracter()
{
InputA = halfSubtracter1.InputA;
InputB = halfSubtracter1.InputB;
halfSubtracter1.Sub.ConnectTo(halfSubtracter2.InputA);
CarryIn = halfSubtracter2.InputB;
or.InputA.ConnectTo(halfSubtracter1.CarryOver);
or.InputB.ConnectTo(halfSubtracter2.CarryOver);
CarryOver = or.Output;
Sub = halfSubtracter2.Sub;
}
public SourceFileImage()
{
_filepathProperty = new Property("FilePath", FilterPropertyType.String)
{
Value = "filename.png"
};
AddProperty(_filepathProperty);
_outputPin = new OutputPin("Image", PinMediaType.Image);
AddPin(_outputPin);
}
public SplitRgb()
{
_input = new InputPin("Input", PinMediaType.Image);
_outputB = new OutputPin("B", PinMediaType.Image);
_outputG = new OutputPin("G", PinMediaType.Image);
_outputR = new OutputPin("R", PinMediaType.Image);
AddPin(_input);
AddPin(_outputR);
AddPin(_outputG);
AddPin(_outputB);
}
public Or()
{
_input0 = new InputPin("Input 0", PinMediaType.Image);
AddPin(_input0);
_input1 = new InputPin("Input 1", PinMediaType.Image);
AddPin(_input1);
_output = new OutputPin("Or", PinMediaType.Image);
AddPin(_output);
}
public SplitHsv()
{
_input = new InputPin("Input", PinMediaType.Image);
_outputH = new OutputPin("H", PinMediaType.Image);
_outputS = new OutputPin("S", PinMediaType.Image);
_outputV = new OutputPin("V", PinMediaType.Image);
AddPin(_input);
AddPin(_outputH);
AddPin(_outputS);
AddPin(_outputV);
}
public FullAdder()
{
InputA = halfAdder1.InputA;
InputB = halfAdder1.InputB;
halfAdder1.Sum.ConnectTo(halfAdder2.InputA);
CarryIn = halfAdder2.InputB;
or.InputA.ConnectTo(halfAdder1.CarryOver);
or.InputB.ConnectTo(halfAdder2.CarryOver);
CarryOver = or.Output;
Sum = halfAdder2.Sum;
}
private ConnectorPin MapOutputPin(OutputPin outputPin)
{
var pin = _outputPins.SingleOrDefault(ip => ip.Item1 == outputPin);
if (pin == null)
{
var errMsg = $"Invalid value: {outputPin}";
throw new ArgumentOutOfRangeException(errMsg);
}
return(pin.Item2);
}
public InRange()
{
_minProperty = new IntegerProperty("Min value", 0, 255, 1);
AddProperty(_minProperty);
_maxProperty = new IntegerProperty("Max value", 0, 255, 1);
AddProperty(_maxProperty);
_input = new InputPin("Input", PinMediaType.Image);
AddPin(_input);
_output = new OutputPin("Filtered", PinMediaType.Image);
AddPin(_output);
}
/// <summary>
/// Versucht den DVB.NET Datenstrom direkt mit dem zugehörigen Decoder zu verbinden.
/// </summary>
/// <param name="decoder">Ein manuell angelegter Decoder.</param>
/// <param name="source">Der zu verwendende Ausgang.</param>
/// <param name="mediaType">Das verwendete Format.</param>
/// <returns>Gesetzt, wenn die Verbindung aufgebaut wurde.</returns>
private bool TryDirectConnect(TypedComIdentity <IBaseFilter> decoder, OutputPin source, MediaType mediaType)
{
// In normal cases we should directly connect to the filter so try
var connected = false;
// Try manual connect
decoder.InspectAllPins(p => p.QueryDirection() == PinDirection.Input,
pin =>
{
// Skip on error
try
{
// Get the raw interface for the media type
var type = mediaType.GetReference();
// Process
using (var iFace = ComIdentity.Create <IPin>(pin))
source.Connect(iFace.Interface, type);
// Did it
connected = true;
}
catch (Exception)
{
}
// First pin only - even if it can not be used!
return(false);
});
// Failed
if (!connected)
{
return(false);
}
// Find the output of the decoder and render it
decoder.InspectAllPins(p => p.QueryDirection() == PinDirection.Output,
pin =>
{
// Create helper
using (var pinWrapper = ComIdentity.Create <IPin>(pin))
DirectShowObject.Render(pinWrapper.Interface);
// Did it
return(false);
});
// Report
return(connected);
}
public override void Process()
{
FireProcessingStateChanged(ProcessingState.Started);
var frame = (IImage)_input.GetData();
lock (_outputs)
{
for (int index = 0; index < _outputs.Count; index++)
{
OutputPin outputPin = _outputs[index];
object clone = frame.Clone();
outputPin.SetData(clone);
FireProcessingProgressChanged((index + 1) / (double)_outputs.Count);
}
}
_originalOutput.SetData(frame);
FireProcessingStateChanged(ProcessingState.Finished);
}
private static void Main(string[] args)
{
var pin11 = new OutputPin(GpioPinNumber.Gpio11);
var pin2 = new OutputPin(GpioPinNumber.Gpio17);
Console.WriteLine("Press ESC to stop");
while (!(Console.KeyAvailable && Console.ReadKey(true).Key == ConsoleKey.Escape))
{
pin11.Write(State.Low);
pin2.Write(State.High);
Thread.Sleep(750);
pin11.Write(State.High);
pin2.Write(State.Low);
Thread.Sleep(750);
}
pin11.Cleanup();
pin2.Cleanup();
}
public async Task SET(OutputPin Pin)
{
if (GPIOCOM != null)
{
if ((Pin.GPIOBitmask & OutputRegister) == 0)
{
await GPIOIOLock.WaitAsync();
var resp = await GPIOCOM.GPIOWriteAsync(GPIOStation, Flag.GetIOInPut, null);
if (resp != null)
{
InputRegister = BitConverter.ToUInt16(resp, 3);
OutputRegister = BitConverter.ToUInt16(resp, 5);
OutputRegister |= (Pin.GPIOBitmask);
await GPIOCOM.GPIOWriteAsync(GPIOStation, Flag.SetIOOutput, BitConverter.GetBytes(OutputRegister));
}
GPIOIOLock.Release();
}
}
}
private void CreateAppendAndConfigure(IEnumerable <PinConfiguration> pinConfigurations, RaspyberryPiPort[] raspyberryPiPorts)
{
foreach (var pinConfiguration in pinConfigurations)
{
var port = raspyberryPiPorts.First(p => p.PinId == pinConfiguration.PinId);
switch (pinConfiguration.PortType)
{
case PortTypes.Switch:
_outputPins.Add(OutputPin.CreateSwitch(pinConfiguration.PinId));
break;
case PortTypes.Pulse:
var defaultGpioValue = PortStateToGpioPinValue(port.DefaultPortState);
_outputPins.Add(OutputPin.CreatePulse(pinConfiguration.PinId, defaultGpioValue.Value, port.PulseLength));
break;
}
_pinConfigurations.Add(pinConfiguration);
ChangePortState(port.PortName, port.PortState);
}
}
public Subtracter8Bit()
{
InputA = new InputPinSeries(fullSubtracter1.InputA, fullSubtracter2.InputA, fullSubtracter3.InputA, fullSubtracter4.InputA,
fullSubtracter5.InputA, fullSubtracter6.InputA, fullSubtracter7.InputA, fullSubtracter8.InputA);
InputB = new InputPinSeries(fullSubtracter1.InputB, fullSubtracter2.InputB, fullSubtracter3.InputB, fullSubtracter4.InputB,
fullSubtracter5.InputB, fullSubtracter6.InputB, fullSubtracter7.InputB, fullSubtracter8.InputB);
Sub = new OutputPinSeries(fullSubtracter1.Sub, fullSubtracter2.Sub, fullSubtracter3.Sub, fullSubtracter4.Sub,
fullSubtracter5.Sub, fullSubtracter6.Sub, fullSubtracter7.Sub, fullSubtracter8.Sub);
fullSubtracter1.CarryOver.ConnectTo(fullSubtracter2.CarryIn);
fullSubtracter2.CarryOver.ConnectTo(fullSubtracter3.CarryIn);
fullSubtracter3.CarryOver.ConnectTo(fullSubtracter4.CarryIn);
fullSubtracter4.CarryOver.ConnectTo(fullSubtracter5.CarryIn);
fullSubtracter5.CarryOver.ConnectTo(fullSubtracter6.CarryIn);
fullSubtracter6.CarryOver.ConnectTo(fullSubtracter7.CarryIn);
fullSubtracter7.CarryOver.ConnectTo(fullSubtracter8.CarryIn);
Overflow = fullSubtracter8.CarryOver;
}
/// <summary>
/// Versucht den DVB.NET Datenstrom direkt mit dem zugehörigen Decoder zu verbinden.
/// </summary>
/// <param name="decoder">Ein manuell angelegter Decoder.</param>
/// <param name="source">Der zu verwendende Ausgang.</param>
/// <param name="mediaType">Das verwendete Format.</param>
/// <returns>Gesetzt, wenn die Verbindung aufgebaut wurde.</returns>
private bool TryDirectConnect( TypedComIdentity<IBaseFilter> decoder, OutputPin source, MediaType mediaType )
{
// In normal cases we should directly connect to the filter so try
var connected = false;
// Try manual connect
decoder.InspectAllPins( p => p.QueryDirection() == PinDirection.Input,
pin =>
{
// Skip on error
try
{
// Get the raw interface for the media type
var type = mediaType.GetReference();
// Process
using (var iFace = ComIdentity.Create<IPin>( pin ))
source.Connect( iFace.Interface, type );
// Did it
connected = true;
}
catch (Exception)
{
}
// First pin only - even if it can not be used!
return false;
} );
// Failed
if (!connected)
return false;
// Find the output of the decoder and render it
decoder.InspectAllPins( p => p.QueryDirection() == PinDirection.Output,
pin =>
{
// Create helper
using (var pinWrapper = ComIdentity.Create<IPin>( pin ))
DirectShowObject.Render( pinWrapper.Interface );
// Did it
return false;
} );
// Report
return connected;
}
public static NodeGraphManager BuildGraph(GraphEditorViewModel graph)
{
List <VisualNodeViewModel> visualExecutionNodes = new List <VisualNodeViewModel>();
foreach (var graphComponent in graph.VisualNodes)
{
VisualNodeViewModel visualNode = graphComponent as VisualNodeViewModel;
if (visualNode != null && visualNode.ExecutionInputs.Count > 0)
{
visualExecutionNodes.Add(visualNode);
}
}
// Begin to build our graph
NodeGraphManager graphManager = new NodeGraphManager();
Dictionary <VisualNodeViewModel, GraphNode> functionNodes = new Dictionary <VisualNodeViewModel, GraphNode>();
List <VisualConstantNodeViewModel> constantNodes = new List <VisualConstantNodeViewModel>();
foreach (dynamic visualNode in graph.VisualNodes)
{
if (visualNode is VisualNodeViewModel)
{
functionNodes.Add(visualNode, new GraphNode(visualNode.NodeType, graphManager));
}
else if (visualNode is VisualConstantNodeViewModel)
{
constantNodes.Add(visualNode as VisualConstantNodeViewModel);
}
}
// Wire up constant nodes
foreach (var constantNode in constantNodes)
{
List <ConnectionViewModel> connections = GetPinConnections(constantNode.OutputPin, graph);
// Lookup each input pin that the constant node is connecting to and add it in our graph manager
foreach (var connection in connections)
{
foreach (var functionNode in functionNodes)
{
if (functionNode.Key.Inputs.Contains(connection.InputPin))
{
// Get pin index
int pindex = ((NodePinViewModel)connection.InputPin).Index;
IDataTypeContainer valueToSet;
// Get value to set
if (constantNode.OutputPin.DataType == typeof(DataTypes.Numeric))
{
valueToSet = new DataTypes.Numeric(Double.Parse(constantNode.Value));
}
else if (constantNode.OutputPin.DataType == typeof(DataTypes.Boolean))
{
valueToSet = new DataTypes.Boolean(Boolean.Parse(constantNode.Value));
}
else if (constantNode.OutputPin.DataType == typeof(DataTypes.String))
{
valueToSet = new DataTypes.String(constantNode.Value);
}
else
{
throw new Exception("Data type could not be determined.");
}
OutputPin pinConnection = new OutputPin(
((NodePinViewModel)connection.InputPin).DataType, null)
{
OutputValue = valueToSet, OutputRealised = true
};
graphManager.AddConnection(pinConnection, functionNode.Value.NodeInputs[pindex]);
}
}
}
}
// Wire up functional nodes
foreach (var functionNode in functionNodes)
{
int outputPindex = 0;
// Check each output pin on the node
foreach (var output in functionNode.Key.Outputs)
{
List <ConnectionViewModel> connections = GetPinConnections(output, graph);
foreach (var connection in connections)
{
// Wire up non-execution pins
foreach (var targetFunctionNode in functionNodes)
{
if (targetFunctionNode.Key.Inputs.Contains(connection.InputPin))
{
int pindex = ((NodePinViewModel)connection.InputPin).Index;
graphManager.AddConnection(
functionNodes[functionNode.Key].NodeOutputs[outputPindex],
targetFunctionNode.Value.NodeInputs[pindex]);
}
}
}
}
// Wire up execution pins
foreach (var executionOutput in functionNode.Key.ExecutionOutputs)
{
List <ConnectionViewModel> connections = GetPinConnections(executionOutput, graph);
if (connections.Count == 0)
{
graphManager.AddNode(functionNode.Value);
}
foreach (var connection in connections)
{
foreach (var targetFunctionNode in functionNodes)
{
if (targetFunctionNode.Key.ExecutionInputs.Contains(connection.InputPin))
{
int pindex = ((NodePinViewModel)connection.OutputPin).Index;
graphManager.AddConnection(functionNode.Value, pindex, targetFunctionNode.Value);
}
}
}
}
}
graphManager.RealiseNodeOutputs();
return(graphManager);
}
/// <summary>
/// Sets input and output PinTarget for this connection</summary>
public void SetPinTarget()
{
if (InputPin != null)
{
bool isInputElementRef = InputElement.DomNode.Is <IReference <DomNode> >();
if (InputPin.Is <GroupPin>())
{
if (isInputElementRef)
{
var pinTarget = InputPin.Cast <GroupPin>().PinTarget;
InputPinTarget = new PinTarget(pinTarget.LeafDomNode, pinTarget.LeafPinIndex,
InputElement.DomNode);
}
else
{
InputPinTarget = InputPin.Cast <GroupPin>().PinTarget;
}
}
else
{
if (isInputElementRef)
{
var reference = InputElement.As <IReference <DomNode> >();
InputPinTarget = new PinTarget(reference.Target, InputPin.Index, InputElement.DomNode);
}
else
{
InputPinTarget = new PinTarget(InputElement.DomNode, InputPin.Index, null);
}
}
Debug.Assert(InputPinTarget != null, "sanity check");
}
if (OutputPin != null)
{
bool isOutputElementRef = OutputElement.DomNode.Is <IReference <DomNode> >();
if (OutputPin.Is <GroupPin>())
{
if (isOutputElementRef)
{
var pinTarget = OutputPin.Cast <GroupPin>().PinTarget;
OutputPinTarget = new PinTarget(pinTarget.LeafDomNode, pinTarget.LeafPinIndex,
OutputElement.DomNode);
}
else
{
OutputPinTarget = OutputPin.Cast <GroupPin>().PinTarget;
}
}
else
{
if (isOutputElementRef)
{
var reference = OutputElement.Cast <IReference <DomNode> >();
OutputPinTarget = new PinTarget(reference.Target, OutputPin.Index, OutputElement.DomNode);
}
else
{
OutputPinTarget = new PinTarget(OutputElement.DomNode, OutputPin.Index, null);
}
}
Debug.Assert(OutputPinTarget != null, "sanity check");
}
}
public void addPins(ActionNode an, XElement node)
{
foreach (XElement pins in node.Elements())
{
if (pins.Name.LocalName == "argument")
{
MascaretApplication.Instance.VRComponentFactory.Log("ARGUMENT PIN ################################");
XAttribute att = pins.Attribute("{http://www.omg.org/spec/XMI/20131001}type");
if (att == null)
att = pins.Attribute("{http://schema.omg.org/spec/XMI/2.1}type");
if (att != null)
MascaretApplication.Instance.VRComponentFactory.Log(att.Value);
if (att != null && att.Value == "uml:ValuePin")
{
ValuePin valuePin = new ValuePin();
XAttribute attID = pins.Attribute("{http://schema.omg.org/spec/XMI/2.1}id");
if (attID == null)
attID = pins.Attribute("{http://www.omg.org/spec/XMI/20131001}id");
string id = attID.Value;
string name = pins.Attribute("name").Value;
MascaretApplication.Instance.VRComponentFactory.Log("Pin Name : " + name);
valuePin.Id = id;
valuePin.name = name;
string strType = "";
XElement typeNode = pins.Element("type");
if (typeNode == null)
{
// Check if it's an attribute
string typeId = pins.Attribute("type").Value;
if (_primitiveTypes.ContainsKey(typeId))
strType = _primitiveTypes[typeId];
}
else
{
XAttribute attr = (XAttribute)typeNode.Attribute("href");
if (attr != null)
strType = attr.Value.Substring(attr.Value.IndexOf("#") + 1);
}
MascaretPrimitiveType attributeType = model.getBasicType(strType.ToLower());
valuePin.ResourceType = attributeType;
string strValue = "";
XElement valueNode = pins.Element("value");
XAttribute attrV = (XAttribute)valueNode.Attribute("value");
if (attrV != null) strValue = attrV.Value;
MascaretApplication.Instance.VRComponentFactory.Log("Valeur : " + strValue);
valuePin.ValueSpec = attributeType.createValueFromString(strValue);
/*Classifier ressourceType = getObjectNodeType(pins);
if(ressourceType != null)
valuePin.ResourceType = ressourceType;*/
an.Action.ValuePins.Add(valuePin);
_objectNodes.Add(valuePin.Id, valuePin);
}
else
{
InputPin inputPin = new InputPin();
inputPin.Id = pins.Attribute("{http://schema.omg.org/spec/XMI/2.1}id").Value;
if (inputPin.Id == null) inputPin.Id = pins.Attribute("{http://www.omg.org/spec/XMI/20131001}id").Value;
inputPin.name = pins.Attribute("name").Value;
Classifier ressourceType = getObjectNodeType(pins);
if (ressourceType != null)
inputPin.ResourceType = ressourceType;
//Debug.Log(" AN : " + an);
an.Action.InputPins.Add(inputPin);
_objectNodes.Add(inputPin.Id, inputPin);
}
}
else if (pins.Name.LocalName == "result")
{
OutputPin outputPin = new OutputPin();
outputPin.Id = pins.Attribute("id").Value;
outputPin.name = pins.Attribute("name").Value;
Classifier ressourceType = getObjectNodeType(pins);
if (ressourceType != null)
outputPin.ResourceType = ressourceType;
an.Action.OutputPins.Add(outputPin);
_objectNodes.Add(outputPin.Id, outputPin);
}
}
}
public Gate(string name = null)
{
Name = name;
Output = new OutputPin(this, Operation);
}
