public void TestBuiltUpNAndGateNoOutput()
{
List<SimulatedComponent> components = new List<SimulatedComponent>();
AndGate ag = new AndGate();
NotGate ng = new NotGate();
Connector inputConnectorA = new Connector();
ag.ConnectInputA(inputConnectorA);
Connector inputConnectorB = new Connector();
ag.ConnectInputB(inputConnectorB);
// put a not gate on the output of the and gate..
Connector andToNot = new Connector();
ag.ConnectOutput(andToNot);
ng.ConnectInputA(andToNot);
// out of the not gate..
Connector outputConnector = new Connector();
ng.ConnectOutput(outputConnector);
// ordering here is important for signal propogation.. if we reverse the order the propogation will be delayed..
components.Add(ag);
components.Add(ng);
bool currSignal1 = false;
bool currSignal2 = false;
for (int x = 1; x < 30; x++)
{
inputConnectorA.SendSignal(currSignal1);
inputConnectorB.SendSignal(currSignal2);
foreach (SimulatedComponent sc in components)
{
sc.Tick();
}
Console.WriteLine("Signal1[" + currSignal1.ToString() + "] Signal2[" + currSignal2.ToString() + "]");
currSignal1 = !currSignal1;
if (currSignal1 == false)
{
currSignal2 = !currSignal2;
}
}
}
public void TestFullAdderDiscreets()
{
List<SimulatedComponent> components = new List<SimulatedComponent>();
// bit 1 stage.
XOrGate xogResultStage = new XOrGate();
AndGate agResultStage1 = new AndGate();
XOrGate xogInputStage1 = new XOrGate();
AndGate agInputStage1 = new AndGate();
OrGate carryOut1 = new OrGate();
Connector inputA1 = new Connector();
Connector inputB1 = new Connector();
Connector outputCarryOut1 = new Connector();
Connector outputSumOut1 = new Connector();
Connector internalSumToB1 = new Connector();
Connector internalCarry1a = new Connector();
Connector internalCarry1b = new Connector();
xogInputStage1.ConnectInputB(internalSumToB1);
xogInputStage1.ConnectOutput(outputSumOut1);
agInputStage1.ConnectInputB(internalSumToB1);
agInputStage1.ConnectOutput(internalCarry1a);
xogResultStage.ConnectInputA(inputA1);
xogResultStage.ConnectInputB(inputB1);
xogResultStage.ConnectOutput(internalSumToB1);
agResultStage1.ConnectInputA(inputA1);
agResultStage1.ConnectInputB(inputB1);
agResultStage1.ConnectOutput(internalCarry1b);
carryOut1.ConnectInputA(internalCarry1a);
carryOut1.ConnectInputB(internalCarry1b);
carryOut1.ConnectOutput(outputCarryOut1);
components.Add(xogResultStage);
components.Add(agResultStage1);
components.Add(xogInputStage1);
components.Add(agInputStage1);
components.Add(carryOut1);
// bit 2 stage.
XOrGate xogResultStage2 = new XOrGate();
AndGate agResultStage2 = new AndGate();
XOrGate xogInputStage2 = new XOrGate();
AndGate agInputStage2 = new AndGate();
OrGate carryOut2 = new OrGate();
Connector inputA2 = new Connector();
Connector inputB2 = new Connector();
Connector outputCarryOut2 = new Connector();
Connector outputSumOut2 = new Connector();
Connector internalSumToB2 = new Connector();
Connector internalCarry2a = new Connector();
Connector internalCarry2b = new Connector();
xogInputStage2.ConnectInputA(outputCarryOut1);
xogInputStage2.ConnectInputB(internalSumToB2);
xogInputStage2.ConnectOutput(outputSumOut2);
agInputStage2.ConnectInputA(outputCarryOut1);
agInputStage2.ConnectInputB(internalSumToB2);
agInputStage2.ConnectOutput(internalCarry2a);
xogResultStage2.ConnectInputA(inputA2);
xogResultStage2.ConnectInputB(inputB2);
xogResultStage2.ConnectOutput(internalSumToB2);
agResultStage2.ConnectInputA(inputA2);
agResultStage2.ConnectInputB(inputB2);
agResultStage2.ConnectOutput(internalCarry2b);
carryOut2.ConnectInputA(internalCarry2a);
carryOut2.ConnectInputB(internalCarry2b);
carryOut2.ConnectOutput(outputCarryOut2);
components.Add(xogResultStage2);
components.Add(agResultStage2);
components.Add(xogInputStage2);
components.Add(agInputStage2);
components.Add(carryOut2);
// bit 3 stage.
XOrGate xogResultStage3 = new XOrGate();
AndGate agResultStage3 = new AndGate();
XOrGate xogInputStage3 = new XOrGate();
AndGate agInputStage3 = new AndGate();
OrGate carryOut3 = new OrGate();
Connector inputA3 = new Connector();
Connector inputB3 = new Connector();
Connector outputCarryOut3 = new Connector();
Connector outputSumOut3 = new Connector();
Connector internalSumToB3 = new Connector();
Connector internalCarry3a = new Connector();
Connector internalCarry3b = new Connector();
xogInputStage3.ConnectInputA(outputCarryOut2);
xogInputStage3.ConnectInputB(internalSumToB3);
xogInputStage3.ConnectOutput(outputSumOut3);
agInputStage3.ConnectInputA(outputCarryOut2);
agInputStage3.ConnectInputB(internalSumToB3);
agInputStage3.ConnectOutput(internalCarry3a);
xogResultStage3.ConnectInputA(inputA3);
xogResultStage3.ConnectInputB(inputB3);
xogResultStage3.ConnectOutput(internalSumToB3);
agResultStage3.ConnectInputA(inputA3);
agResultStage3.ConnectInputB(inputB3);
agResultStage3.ConnectOutput(internalCarry3b);
carryOut3.ConnectInputA(internalCarry3a);
carryOut3.ConnectInputB(internalCarry3b);
carryOut3.ConnectOutput(outputCarryOut3);
components.Add(xogResultStage3);
components.Add(agResultStage3);
components.Add(xogInputStage3);
components.Add(agInputStage3);
components.Add(carryOut3);
for(int y = 0; y < 8; y++)
for (int x = 0; x < 8; x ++)
{
if ((y & 1) != 0)
{
inputB1.SendSignal(true);
}
else
{
inputB1.SendSignal(false);
}
if ((y & 2) != 0)
{
inputB2.SendSignal(true);
}
else
{
inputB2.SendSignal(false);
}
if ((y & 4) != 0)
{
inputB3.SendSignal(true);
}
else
{
inputB3.SendSignal(false);
}
if ((x & 1) != 0)
{
inputA1.SendSignal(true);
}
else
{
inputA1.SendSignal(false);
}
if ((x & 2) != 0)
{
inputA2.SendSignal(true);
}
else
{
inputA2.SendSignal(false);
}
if ((x & 4) != 0)
{
inputA3.SendSignal(true);
}
else
{
inputA3.SendSignal(false);
}
for (int z = 0; z < 3; z++)
{
foreach (SimulatedComponent sc in components)
{
sc.Tick();
}
}
int result = 0;
if (outputCarryOut3.HasSignal())
{
result |= 8;
}
if (outputSumOut3.HasSignal())
{
result |= 4;
}
if (outputSumOut2.HasSignal())
{
result |= 2;
}
if (outputSumOut1.HasSignal())
{
result |= 1;
}
Assert.AreEqual(x + y, result);
Console.WriteLine("x[" + x.ToString() + "] y[" + y.ToString() + "] = Result[" + result.ToString() + "]");
}
}
public void TestAndGateNoOutput()
{
List<SimulatedComponent> components = new List<SimulatedComponent>();
AndGate ag = new AndGate();
Connector inputConnectorA = new Connector();
ag.ConnectInputA(inputConnectorA);
Connector inputConnectorB = new Connector();
ag.ConnectInputB(inputConnectorB);
components.Add(ag);
bool currSignal1 = false;
bool currSignal2 = false;
for (int x = 1; x < 30; x++)
{
inputConnectorA.SendSignal(currSignal1);
inputConnectorB.SendSignal(currSignal2);
foreach (SimulatedComponent sc in components)
{
sc.Tick();
}
Console.WriteLine("Signal1[" + currSignal1.ToString() + "] Signal2[" + currSignal2.ToString() + "]" );
currSignal1 = !currSignal1;
if (currSignal1 == false)
{
currSignal2 = !currSignal2;
}
}
}
public void TestAndGateAllConnectorsGood()
{
List<SimulatedComponent> components = new List<SimulatedComponent>();
AndGate ag = new AndGate();
Connector inputConnectorA = new Connector();
ag.ConnectInputA(inputConnectorA);
Connector inputConnectorB = new Connector();
ag.ConnectInputB(inputConnectorB);
Connector outputConnector = new Connector();
ag.ConnectOutput(outputConnector);
components.Add(ag);
bool currSignal1 = false;
bool currSignal2 = false;
for (int x = 1; x < 30; x++)
{
inputConnectorA.SendSignal(currSignal1);
inputConnectorB.SendSignal(currSignal2);
foreach (SimulatedComponent sc in components)
{
sc.Tick();
}
Console.WriteLine("Signal1[" + currSignal1.ToString() + "] Signal2[" + currSignal2.ToString() + "] = Result[" + outputConnector.HasSignal().ToString() + "]");
Assert.IsTrue(outputConnector.HasSignal() == (currSignal1 && currSignal2));
currSignal1 = ! currSignal1;
if (currSignal1 == false)
{
currSignal2 = ! currSignal2;
}
}
}
