protected CircuitNode(CircuitManager manager, int inputCount, int outputCount, bool hasReset, Port.PortType statePortType = StatePort.PortType.None)
{
this.inputPortCount = inputCount;
this.outputPortCount = outputCount;
this.hasReset = hasReset;
this.settings = CreateSettings();
int totalInputCount = inputCount + (hasReset ? 1 : 0);
inputPorts = new InputPort[totalInputCount];
for (int i = 0; i < inputCount; i++)
{
inputPorts[i] = new InputPort(this, false);
inputPorts[i].UnconnectedValue = DefaultInputValue(i);
inputPorts[i].ValueChanged += CircuitNode_ValueChanged;
inputPorts[i].Connected += CircuitNode_Connected;
inputPorts[i].Disconnected += CircuitNode_Disconnected;
}
if (hasReset)
{
inputPorts[inputCount] = new InputPort(this, true);
inputPorts[inputCount].UnconnectedValue = false;
inputPorts[inputCount].ValueChanged += CircuitNode_ValueChanged;
inputPorts[inputCount].Connected += CircuitNode_Connected;
inputPorts[inputCount].Disconnected += CircuitNode_Disconnected;
}
int totalOutputCount = outputCount + (hasReset ? 1 : 0);
outputPorts = new OutputPort[totalOutputCount];
for (int i = 0; i < outputCount; i++)
{
outputPorts[i] = new OutputPort(this, false);
outputPorts[i].expectedType = ExpectedOutputType(i);
outputPorts[i].Connected += CircuitNode_Connected;
outputPorts[i].Disconnected += CircuitNode_Disconnected;
}
if (hasReset)
{
outputPorts[outputCount] = new OutputPort(this, true);
outputPorts[outputCount].Connected += CircuitNode_Connected;
outputPorts[outputCount].Disconnected += CircuitNode_Disconnected;
}
if ((statePortType & Port.PortType.StatePort) != 0)
{
statePort = new StatePort(this, (statePortType & Port.PortType.StateRoot) == Port.PortType.StateRoot);
}
Manager = manager;
}
protected override CircuitNode CreateNode(CircuitManager manager)
{
switch (type)
{
case GizmoType.Piston:
return(new Piston(manager));
case GizmoType.Rotator:
return(new Rotator(manager));
case GizmoType.LookAt:
return(new LookAt(manager));
case GizmoType.Clamp:
return(new Clamp(manager));
default:
return(null);
}
}
protected override CircuitNode CreateNode(CircuitManager manager)
{
return(sign = new Sign(manager));
}
public SqrtChip(CircuitManager manager)
: base(manager)
{
}
protected AdvancedCombarerChipBase(CircuitManager manager)
: base(manager, 4, 2, true)
{
}
protected override CircuitNode CreateNode(CircuitManager manager)
{
switch (type)
{
case ChipType.Add:
return(new AddChip(manager));
case ChipType.Subtract:
return(new SubtractChip(manager));
case ChipType.Multiply:
return(new MultiplyChip(manager));
case ChipType.Divide:
return(new DivideChip(manager));
case ChipType.Modulo:
return(new ModuloChip(manager));
case ChipType.And:
return(new AndChip(manager));
case ChipType.Or:
return(new OrChip(manager));
case ChipType.Not:
return(new NotChip(manager));
case ChipType.Equal:
return(new SimpleEqualsChip(manager));
case ChipType.NotEqual:
return(new SimpleNotEqualsChip(manager));
case ChipType.GreaterThan:
return(new SimpleGreaterThanChip(manager));
case ChipType.GreaterThanOrEqual:
return(new SimpleGreaterThanOrEqualChip(manager));
case ChipType.LessThan:
return(new SimpleLessThanChip(manager));
case ChipType.LessThanOrEqual:
return(new SimpleLessThanOrEqualChip(manager));
case ChipType.AdvancedEqual:
return(new AdvancedEqualsChip(manager));
case ChipType.AdvancedNotEqual:
return(new AdvancedNotEqualsChip(manager));
case ChipType.AdvancedGreaterThan:
return(new AdvancedGreaterThanChip(manager));
case ChipType.AdvancedGreaterThanOrEqual:
return(new AdvancedGreaterThanOrEqualChip(manager));
case ChipType.AdvancedLessThan:
return(new AdvancedLessThanChip(manager));
case ChipType.AdvancedLessThanOrEqual:
return(new AdvancedLessThanOrEqualChip(manager));
case ChipType.Variable:
return(new VariableChip(manager));
case ChipType.Delay:
return(new DelayChip(manager));
case ChipType.Timer:
return(new TimerChip(manager));
case ChipType.Random:
return(new RandomChip(manager));
case ChipType.Selector:
return(new SelectorChip(manager));
case ChipType.StateMachine:
return(new StateMachineChip(manager));
case ChipType.State:
return(new StateChip(manager));
case ChipType.ExtBreakpoint:
return(new BreakpointChip(manager));
case ChipType.ExtBitwiseComplement:
return(new BitwiseComplementChip(manager));
case ChipType.ExtBitshiftLeft:
return(new BitshiftLeftChip(manager));
case ChipType.ExtBitshiftRight:
return(new BitshiftRightChip(manager));
case ChipType.ExtBitwiseAnd:
return(new BitwiseAndChip(manager));
case ChipType.ExtBitwiseOr:
return(new BitwiseOrChip(manager));
case ChipType.ExtBitwiseXor:
return(new BitwiseXorChip(manager));
case ChipType.ExtValueStore:
return(new ValueStoreChip(manager));
case ChipType.ExtBuffer:
return(new BufferChip(manager));
case ChipType.ExtArray:
return(new ArrayChip(manager));
case ChipType.ExtMultiplexer:
return(new MultiplexerChip(manager));
case ChipType.ExtMathConstants:
return(new MathConstantsChip(manager));
case ChipType.ExtMathAbs:
return(new AbsChip(manager));
case ChipType.ExtMathSign:
return(new SignChip(manager));
case ChipType.ExtMathClamp:
return(new ClampChip(manager));
case ChipType.ExtMathRound:
return(new RoundChip(manager));
case ChipType.ExtMathCeil:
return(new CeilChip(manager));
case ChipType.ExtMathFloor:
return(new FloorChip(manager));
case ChipType.ExtMathSin:
return(new SinChip(manager));
case ChipType.ExtMathCos:
return(new CosChip(manager));
case ChipType.ExtMathTan:
return(new TanChip(manager));
case ChipType.ExtMathAtan:
return(new AtanChip(manager));
case ChipType.ExtMathAtan2:
return(new Atan2Chip(manager));
case ChipType.ExtMathSqrt:
return(new SqrtChip(manager));
case ChipType.ExtMathExp:
return(new ExpChip(manager));
case ChipType.ExtMathPow:
return(new PowChip(manager));
case ChipType.ExtMathLog:
return(new LogChip(manager));
default:
return(null);
}
}
public BitshiftRightChip(CircuitManager manager)
: base(manager)
{
}
public AdvancedNotEqualsChip(CircuitManager manager) : base(manager)
{
}
public RandomChip(CircuitManager manager) : base(manager, 3, 1, false)
{
}
public DelayChip(CircuitManager manager) : base(manager, 2, 1, true)
{
}
public BufferChip(CircuitManager manager)
: base(manager, 7, 2, true)
{
}
public AtanChip(CircuitManager manager)
: base(manager)
{
}
public RoundChip(CircuitManager manager)
: base(manager)
{
}
public MultiplyChip(CircuitManager manager)
: base(manager)
{
}
public TimerChip(CircuitManager manager) : base(manager, 2, 2, true)
{
}
public RRButton(CircuitManager manager) : base(manager, 0, 3, false)
{
}
public AdvancedGreaterThanChip(CircuitManager manager) : base(manager)
{
}
public AdvancedLessThanChip(CircuitManager manager) : base(manager)
{
}
public MultiplexerChip(CircuitManager manager)
: base(manager, 7, 1, true)
{
}
public BitwiseXorChip(CircuitManager manager)
: base(manager)
{
}
public SimpleLessThanChip(CircuitManager manager) : base(manager)
{
}
public SelectorChip(CircuitManager manager) : base(manager, 2, 7, true)
{
}
public CosChip(CircuitManager manager)
: base(manager)
{
}
protected SimpleCombarerChipBase(CircuitManager manager)
: base(manager, 2, 2, true)
{
}
public SimpleNotEqualsChip(CircuitManager manager) : base(manager)
{
}
protected SimpleCombinatorChip(CircuitManager manager)
: base(manager, 2, 1, true)
{
}
public Gizmo(CircuitManager manager, int inputCount) :
base(manager, inputCount, 0, false)
{
}
public LogChip(CircuitManager manager)
: base(manager)
{
}
public SimpleGreaterThanOrEqualChip(CircuitManager manager) : base(manager)
{
}
public ClampChip(CircuitManager manager)
: base(manager, 3, 1, true)
{
}
