bool AbstractStage::needsToProcess() const
{
std::set<AbstractInputSlot*> inputs = allInputs();
return m_alwaysProcess || m_processScheduled || inputs.empty() || std::any_of(inputs.begin(), inputs.end(), [](const AbstractInputSlot * input) {
return input->hasChanged();
});
}
bool AbstractStage::inputsUsable() const
{
if (m_usable.isValid())
return m_usable.value();
std::set<AbstractInputSlot*> inputs = allInputs();
m_usable.setValue(std::all_of(inputs.begin(), inputs.end(), [](const AbstractInputSlot * input) {
return input->isUsable();
}));
if (!m_usable.value())
{
std::cout << "Some inputs in " << asPrintable() << " are not be connected: ";
for (AbstractInputSlot * slot : inputs)
if (!slot->isUsable())
std::cout << slot->asPrintable() << ". ";
std::cout << std::endl;
}
return m_usable.value();
}
byte* PartyTwo::computeCircuit(OTBatchROutput * otOutput) {
// Get the output of the protocol.
vector<byte> p2Inputs = ((OTOnByteArrayROutput *)otOutput)->getXSigma();
int p2InputsSize = ((OTOnByteArrayROutput *)otOutput)->getLength();
// Get party two input wires' indices.
//int* labels = NULL;
//labels = circuit->getInputWireIndices(2);
vector<byte> allInputs(p1InputsSize + p2InputsSize);
memcpy(&allInputs[0], p1Inputs, p1InputsSize);
memcpy(&allInputs[p1InputsSize], p2Inputs.data(), p2InputsSize);
// set the input to the circuit.
//circuit->setInputs(allInputs);
// compute the circuit.
block* garbledOutput = (block *)_aligned_malloc(sizeof(block) * 2 * circuit->getNumberOfOutputs(), SIZE_OF_BLOCK); ;
circuit->compute((block *)&allInputs[0], garbledOutput);
// translate the result from compute.
byte* circuitOutput = new byte[circuit->getNumberOfOutputs()];
circuit->translate(garbledOutput, circuitOutput);
return circuitOutput;
}
