def run_one_test(nInBits, nCopies): nOutBits = nInBits (in0v, in1v, typv) = randutil.rand_ckt(nOutBits, nInBits) inputs = randutil.rand_inputs(nInBits, nCopies) circuit = CircuitProver(nCopies, 2**nInBits, [in0v], [in1v], [typv]) circuit.set_inputs(inputs) z1 = [Defs.gen_random() for _ in range(0, nOutBits)] z2 = [Defs.gen_random() for _ in range(0, circuit.nCopyBits)] circuit.set_z(z1, z2) # mlExt of outputs outflat = util.flatten(circuit.ckt_outputs) inLayer_mults = LayerComputeBeta(nOutBits + circuit.nCopyBits, z1 + z2) assert len(outflat) == len(inLayer_mults.outputs) inLayermul = util.mul_vecs(inLayer_mults.outputs, outflat) inLayerExt = sum(inLayermul) % Defs.prime w1 = [Defs.gen_random() for _ in range(0, nInBits)] w2 = [Defs.gen_random() for _ in range(0, nInBits)] w3 = [Defs.gen_random() for _ in range(0, circuit.nCopyBits)] initOutputs = circuit.get_outputs() assert inLayerExt == (initOutputs[0] + sum(initOutputs)) % Defs.prime for i in range(0, len(w3)): circuit.next_round(w3[i]) circuit.get_outputs() for i in range(0, len(w1)): circuit.next_round(w1[i]) circuit.get_outputs() for i in range(0, len(w2)): circuit.next_round(w2[i]) finalOutputs = circuit.get_outputs() # check the outputs by computing mlext of layer input directly inflat = util.flatten(inputs) v1_mults = LayerComputeBeta(circuit.layers[0].nOutBits + circuit.nCopyBits, w1 + w3) assert len(inflat) == len(v1_mults.outputs) v1inmul = util.mul_vecs(v1_mults.outputs, inflat) v1 = sum(v1inmul) % Defs.prime v2_mults = LayerComputeBeta(circuit.layers[0].nOutBits + circuit.nCopyBits, w2 + w3) assert len(inflat) == len(v2_mults.outputs) v2inmul = util.mul_vecs(v2_mults.outputs, inflat) v2 = sum(v2inmul) % Defs.prime assert v1 == finalOutputs[0] assert v2 == sum(finalOutputs) % Defs.prime
def get_inputs(verifier_info, input_layer): if verifier_info.inputFile is None: return randutil.rand_inputs(0, verifier_info.nCopies, input_layer) if not os.path.isfile(verifier_info.inputFile): print "ERROR: cannot find input file '%s'" % verifier_info.inputFile sys.exit(1) with open(verifier_info.inputFile, 'r') as inF: inputs = [] nLines = 0 nVarInputs = len([1 for elm in input_layer if elm is None]) for line in inF: line.strip() inLine = [] try: values = [int(val) for val in line.split(None)] assert len( values) == nVarInputs, "expected %d, got %d (#1)" % ( nVarInputs, len(values)) vidx = 0 for idx in range(0, len(input_layer)): if input_layer[idx] is None: inLine.append(values[vidx]) vidx += 1 else: inLine.append(input_layer[idx]) assert vidx == len( values), "expected %d, got %d (#2)" % (len(values), vidx) assert len(inLine) == len( input_layer), "expected %d, got %d (#3)" % ( len(input_layer), len(inLine)) except AssertionError as ae: print "ERROR: inputFile has the wrong number of variables:", str( ae) sys.exit(1) except ValueError as ve: print "ERROR: could not parse inputFile value:", str(ve) sys.exit(1) inputs.append(inLine) nLines += 1 if nLines == VerifierInfo.nCopies: break if len(inputs) != VerifierInfo.nCopies: print "ERROR: inputFile has too few lines (got %d, expected %d)" % ( len(inputs), VerifierInfo.nCopies) sys.exit(1) return inputs
def run_one_test(nInBits, nCopies, nLayers, qStat): nOutBits = nInBits in0vv = [] in1vv = [] typvv = [] for _ in range(0, nLayers): (in0v, in1v, typv) = randutil.rand_ckt(nOutBits, nInBits) in0vv.append(in0v) in1vv.append(in1v) typvv.append(typv) ver = CircuitVerifier(nCopies, 2**nInBits, in0vv, in1vv, typvv) ver.build_prover() inputs = randutil.rand_inputs(nInBits, nCopies) ver.run(inputs) if not qStat: print "nInBits: %d, nCopies: %d, nLayers: %d" % (nInBits, nCopies, nLayers) for fArith in [ver.in_a, ver.out_a, ver.sc_a, ver.tV_a, ver.nlay_a]: print(" %s: %%d mul, %%d add, %%d sub" % fArith.cat) % fArith.get_counts()
def run_one_test(nInBits, nCopies): nOutBits = nInBits circuit = _DummyCircuitProver(nCopies) inLayer = InputLayer(nOutBits) (in0v, in1v, typv) = randutil.rand_ckt(nOutBits, nInBits) typc = [tc.cgate for tc in typv] inputs = randutil.rand_inputs(nInBits, nCopies) # compute outputs ckt = ArithCircuit() inCktLayer = ArithCircuitInputLayer(ckt, nOutBits) outCktLayer = ArithCircuitLayer(ckt, inCktLayer, in0v, in1v, typc) ckt.layers = [inCktLayer, outCktLayer] outputs = [] for inp in inputs: ckt.run(inp) outputs.append(ckt.outputs) z1 = [Defs.gen_random() for _ in range(0, nOutBits)] z2 = [Defs.gen_random() for _ in range(0, circuit.nCopyBits)] outLayer = LayerProver(inLayer, circuit, in0v, in1v, typv) outLayer.set_inputs(inputs) outLayer.set_z(z1, z2) # mlExt of outputs outflat = util.flatten(outputs) inLayer_mults = LayerComputeBeta(nOutBits + outLayer.circuit.nCopyBits, z1 + z2) assert len(outflat) == len(inLayer_mults.outputs) inLayermul = util.mul_vecs(inLayer_mults.outputs, outflat) inLayerExt = sum(inLayermul) % Defs.prime w3 = [Defs.gen_random() for _ in range(0, circuit.nCopyBits)] w1 = [Defs.gen_random() for _ in range(0, nInBits)] w2 = [Defs.gen_random() for _ in range(0, nInBits)] outLayer.compute_outputs() initOutputs = outLayer.output assert inLayerExt == (initOutputs[0] + sum(initOutputs)) % Defs.prime for i in range(0, len(w3)): outLayer.next_round(w3[i]) outLayer.compute_outputs() for i in range(0, len(w1)): outLayer.next_round(w1[i]) outLayer.compute_outputs() for i in range(0, len(w2)): outLayer.next_round(w2[i]) outLayer.compute_outputs() finalOutputs = outLayer.output # check the outputs by computing mlext of layer input directly inflat = util.flatten(inputs) v1_mults = LayerComputeBeta( outLayer.prevL.nOutBits + outLayer.circuit.nCopyBits, w1 + w3) assert len(inflat) == len(v1_mults.outputs) v1inmul = util.mul_vecs(v1_mults.outputs, inflat) v1 = sum(v1inmul) % Defs.prime v2_mults = LayerComputeBeta( outLayer.prevL.nOutBits + outLayer.circuit.nCopyBits, w2 + w3) assert len(inflat) == len(v2_mults.outputs) v2inmul = util.mul_vecs(v2_mults.outputs, inflat) v2 = sum(v2inmul) % Defs.prime assert v1 == finalOutputs[0] assert v2 == sum(finalOutputs) % Defs.prime