ValidatorConfig::ValidatorConfig(std::unique_ptr<v2::CertificateFetcher> fetcher, const Options& options)
: v2::Validator(make_unique<v2::ValidationPolicyCommandInterest>(make_unique<v2::ValidationPolicyConfig>(),
options),
std::move(fetcher))
, m_policyConfig(static_cast<v2::ValidationPolicyConfig&>(getPolicy().getInnerPolicy()))
{
}
void PolicyServicesPlatformNotification::notifyPlatformPolicyReleaseControl()
{
throwIfNotWorkItemThread();
executeOsc(getPolicy()->getGuid(), OscActionReleaseControl);
}
void benchmarkLW(Lw10 & lw, ofstream & outfile1, ofstream & outfile2, int attributeCount, int iterationCount, CharmListStr & keygenResults, CharmListStr & decryptResults)
{
Benchmark benchT, benchD, benchK;
CharmMetaList msk, pk;
CharmList gpk, sk, sk2, ct;
CharmListStr authS, userS; // set this
GT M, newM;
string gid = "*****@*****.**"; // , policy_str = "((ATTR4 or ATTR3) and (ATTR2 or ATTR1))"; // set this
double de_in_ms;
getAttributes(authS, attributeCount);
getAttributes(userS, attributeCount);
// getAttributes(authS, attributeCount);
string policy_str = getPolicy(attributeCount); // get a policy string
lw.setup(gpk);
lw.authsetup(gpk, authS, msk, pk);
for(int i = 0; i < iterationCount; i++) {
benchK.start();
lw.keygen(gpk, msk, gid, userS, sk2);
benchK.stop();
double kg_in_ms = benchK.computeTimeInMilliseconds();
}
cout << "Keygen avg: " << benchK.getAverage() << " ms" << endl;
stringstream s1;
s1 << attributeCount << " " << benchK.getAverage() << endl;
outfile1 << s1.str();
keygenResults[attributeCount] = benchK.getRawResultString();
lw.keygen(gpk, msk, gid, userS, sk);
M = lw.group.random(GT_t);
lw.encrypt(pk, gpk, M, policy_str, ct);
stringstream s2;
for(int i = 0; i < iterationCount; i++) {
// run Decrypt
benchD.start();
lw.decrypt(sk, userS, ct, newM);
benchD.stop();
de_in_ms = benchD.computeTimeInMilliseconds();
//cout << i << ": Raw DE: " << de_in_ms << endl;
}
cout << "Decout avg: " << benchD.getAverage() << endl;
s2 << attributeCount << " " << benchD.getAverage() << endl;
outfile2 << s2.str();
decryptResults[attributeCount] = benchD.getRawResultString();
// cout << convert_str(M) << endl;
// cout << convert_str(newM) << endl;
if(M == newM) {
cout << "Successful Decryption!" << endl;
}
else {
cout << "FAILED Decryption." << endl;
}
return;
}
void benchmarkBSW(Bsw07 & bsw, ofstream & outfile0, ofstream & outfile1, ofstream & outfile2, int attributeCount, int iterationCount, CharmListStr & keygenResults, CharmListStr & transformResults, CharmListStr & decoutResults)
{
Benchmark benchT, benchD, benchK;
CharmList mk, pk, skBlinded, skBlinded2, ct, transformOutputList;
CharmListStr S;
GT M, newM;
ZR uf0, bf0;
stringstream s0;
double tf_in_ms, de_in_ms, kg_in_ms;
bsw.setup(mk, pk);
getAttributes(S, attributeCount);
// BENCHMARK KEYGEN SETUP
for(int i = 0; i < iterationCount; i++) {
benchK.start();
bsw.keygen(pk, mk, S, uf0, bf0, skBlinded2);
benchK.stop();
kg_in_ms = benchK.computeTimeInMilliseconds();
}
cout << "Keygen avg: " << benchK.getAverage() << " ms" << endl;
s0 << attributeCount << " " << benchK.getAverage() << endl;
outfile0 << s0.str();
keygenResults[attributeCount] = benchK.getRawResultString();
// BENCHMARK KEYGEN SETUP
bsw.keygen(pk, mk, S, uf0, bf0, skBlinded);
M = bsw.group.random(GT_t);
string policy_str = getPolicy(attributeCount); // get a policy string
bsw.encrypt(pk, M, policy_str, ct);
stringstream s1, s2;
//cout << "ct =\n" << ct << endl;
for(int i = 0; i < iterationCount; i++) {
// run TRANSFORM
benchT.start();
bsw.transform(pk, skBlinded, S, ct, transformOutputList);
benchT.stop();
//cout << "transformCT =\n" << transformOutputList << endl;
tf_in_ms = benchT.computeTimeInMilliseconds();
benchD.start();
bsw.decout(pk, S, transformOutputList, bf0, uf0, newM);
benchD.stop();
de_in_ms = benchD.computeTimeInMilliseconds();
}
cout << "Transform avg: " << benchT.getAverage() << endl;
s1 << attributeCount << " " << benchT.getAverage() << endl;
outfile1 << s1.str();
transformResults[attributeCount] = benchT.getRawResultString();
cout << "Decout avg: " << benchD.getAverage() << endl;
s2 << attributeCount << " " << benchD.getAverage() << endl;
outfile2 << s2.str();
decoutResults[attributeCount] = benchD.getRawResultString();
// measure ciphertext size
cout << "CT size: " << measureSize(ct) << " bytes" << endl;
cout << "CTOut size: " << measureSize(transformOutputList) << " bytes" << endl;
// cout << convert_str(M) << endl;
// cout << convert_str(newM) << endl;
if(M == newM) {
cout << "Successful Decryption!" << endl;
}
else {
cout << "FAILED Decryption." << endl;
}
return;
}
