int Compute(const Circuit& c, byte *out, int outcount, const byte *in, int incount, int limit = 100)
{
byte value[COUNT];
memset(value, 0, COUNT);
int w = 0;
for(int i = 0; i < incount; i++)
for(int q = 0x80; q; q >>= 1)
value[w++] = !!(q & in[i]);
memset(out, 0, outcount);
for(int ii = 0; ii < limit; ii++) {
c.Evaluate(value);
Buffer<byte> nout(outcount, 0);
int r = w;
for(int i = 0; i < outcount; i++) {
nout[i] = 0;
for(int q = 0x80; q; q >>= 1)
if(value[r++])
nout[i] |= q;
}
if(memcmp(out, ~nout, outcount) == 0)
return ii;
memcpy(out, ~nout, outcount);
}
return limit;
}
int main() {
// Create the top-level circuit
Circuit topLevel;
// Create the components.
topLevel.AddComponent("in", new Button());
topLevel.AddComponent("spl", new Splitter(2));
topLevel.AddComponent("and", new And());
topLevel.AddComponent("not", new Not());
topLevel.AddComponent("out", new LED());
// Link the components.
topLevel.Connect("in",0,"spl",0);
topLevel.Connect("spl",0,"and",0);
topLevel.Connect("spl",1,"not",0);
topLevel.Connect("not",0,"and",1);
topLevel.Connect("and",0,"out",0);
// Specify the input and output components.
topLevel.AddInput("in");
topLevel.AddOutput("out");
// Evaluate the circuit.
topLevel.Evaluate();
return 0;
}
int main() {
// Create the top-level circuit
Circuit topLevel;
// In this example, we use this to store information about the components that
// are in the circuit, rather than just the input and output components.
// Create the components.
topLevel.AddComponent("in1", new Button());
topLevel.AddComponent("in2", new Button());
topLevel.AddComponent("SR", new SRlatch());
topLevel.AddComponent("out1", new LED());
topLevel.AddComponent("out2", new LED());
// Link the components.
topLevel.Connect("in1",0,"SR",0);
topLevel.Connect("in2",0,"SR",1);
topLevel.Connect("SR",0,"out1",0);
topLevel.Connect("SR",1,"out2",0);
// Specify the input and output components.
topLevel.AddInput("in1");
topLevel.AddInput("in2");
topLevel.AddOutput("out1");
topLevel.AddOutput("out2");
// Evaluate the circuit.
topLevel.Evaluate();
return 0;
}
int main() {
// Create the top-level circuit
Circuit topLevel;
// Create the components
topLevel.AddComponent("D", new CircuitInput());
topLevel.AddComponent("CLK", new CircuitInput());
topLevel.AddComponent("Top", new SRlatch());
topLevel.AddComponent("Bottom", new SRlatch());
topLevel.AddComponent("Out", new SRlatch());
topLevel.AddComponent("clk_splitter", new Splitter(2));
topLevel.AddComponent("bottom_splitter", new Splitter(2));
topLevel.AddComponent("end", new Dead(1));
topLevel.AddComponent("orGate", new Or());
topLevel.AddComponent("Q", new LED());
topLevel.AddComponent("Qbar", new LED());
// Link the components.
topLevel.Connect("D",0,"Top",1); // D -- Top::S
topLevel.Connect("CLK",0,"clk_splitter",0); // CLK -- clk_splitter
topLevel.Connect("clk_splitter",0,"orGate",0); // clk_splitter::0 -- orGate::0
topLevel.Connect("clk_splitter",1,"Bottom",0); // clk_splitter::1 -- Bottom::R
topLevel.Connect("orGate",0,"Top",0); // orGate -- Top::R
topLevel.Connect("Top",0,"Out",1); // Top::Q -- Out::S
topLevel.Connect("Top",1,"Bottom",1); // Top::Qbar -- Bottom::S
topLevel.Connect("Bottom",0,"bottom_splitter",0); // Bottom::Q -- bottom_splitter
topLevel.Connect("Bottom",1,"end",0); // Bottom::Qbar -- x_x
topLevel.Connect("bottom_splitter",0,"orGate",1); // bottom_splitter::0 -- orGate::1
topLevel.Connect("bottom_splitter",1,"Out",0); // bottom_splitter::1 -- Out::R
topLevel.Connect("Out",0,"Q",0); // Out::0 -- Q
topLevel.Connect("Out",1,"Qbar",0); // Out::1 -- Qbar
// Specify the input and output components.
topLevel.AddInput("D");
topLevel.AddInput("CLK");
topLevel.AddOutput("Q");
topLevel.AddOutput("Qbar");
// Start Evaluating the Circuit
topLevel.Evaluate();
dynamic_cast<CircuitInput*>(topLevel.Lookup("CLK").body())->SetState(false);
dynamic_cast<CircuitInput*>(topLevel.Lookup("D").body())->SetState(false);
cout << "----------\n";
cout << "CLK: 0\n";
cout << "D: 0\n";
topLevel.Evaluate();
dynamic_cast<CircuitInput*>(topLevel.Lookup("CLK").body())->SetState(false);
dynamic_cast<CircuitInput*>(topLevel.Lookup("D").body())->SetState(true);
cout << "----------\n";
cout << "CLK: 0\n";
cout << "D: 1\n";
topLevel.Evaluate();
dynamic_cast<CircuitInput*>(topLevel.Lookup("CLK").body())->SetState(true);
dynamic_cast<CircuitInput*>(topLevel.Lookup("D").body())->SetState(true);
cout << "----------\n";
cout << "CLK: 1\n";
cout << "D: 1\n";
topLevel.Evaluate();
dynamic_cast<CircuitInput*>(topLevel.Lookup("CLK").body())->SetState(false);
dynamic_cast<CircuitInput*>(topLevel.Lookup("D").body())->SetState(true);
cout << "----------\n";
cout << "CLK: 0\n";
cout << "D: 1\n";
topLevel.Evaluate();
dynamic_cast<CircuitInput*>(topLevel.Lookup("CLK").body())->SetState(true);
dynamic_cast<CircuitInput*>(topLevel.Lookup("D").body())->SetState(true);
cout << "----------\n";
cout << "CLK: 1\n";
cout << "D: 1\n";
topLevel.Evaluate();
dynamic_cast<CircuitInput*>(topLevel.Lookup("CLK").body())->SetState(true);
dynamic_cast<CircuitInput*>(topLevel.Lookup("D").body())->SetState(false);
cout << "----------\n";
cout << "CLK: 1\n";
cout << "D: 0\n";
topLevel.Evaluate();
dynamic_cast<CircuitInput*>(topLevel.Lookup("CLK").body())->SetState(false);
dynamic_cast<CircuitInput*>(topLevel.Lookup("D").body())->SetState(false);
cout << "----------\n";
cout << "CLK: 0\n";
cout << "D: 0\n";
topLevel.Evaluate();
dynamic_cast<CircuitInput*>(topLevel.Lookup("CLK").body())->SetState(false);
dynamic_cast<CircuitInput*>(topLevel.Lookup("D").body())->SetState(true);
cout << "----------\n";
cout << "CLK: 0\n";
cout << "D: 1\n";
topLevel.Evaluate();
dynamic_cast<CircuitInput*>(topLevel.Lookup("CLK").body())->SetState(true);
dynamic_cast<CircuitInput*>(topLevel.Lookup("D").body())->SetState(true);
cout << "----------\n";
cout << "CLK: 1\n";
cout << "D: 1\n";
topLevel.Evaluate();
dynamic_cast<CircuitInput*>(topLevel.Lookup("CLK").body())->SetState(false);
dynamic_cast<CircuitInput*>(topLevel.Lookup("D").body())->SetState(false);
cout << "----------\n";
cout << "CLK: 0\n";
cout << "D: 0\n";
topLevel.Evaluate();
return 0;
}