// Copyright (c) 2014-2026 Savoir-faire Linux Inc. // SPDX-License-Identifier: MIT #include "test_dhtrunner.h" #include #include #include #include #include #include #include using namespace std::chrono_literals; using namespace std::literals; namespace test { CPPUNIT_TEST_SUITE_REGISTRATION(DhtRunnerTester); template T getFutureValue(std::future future, std::chrono::steady_clock::duration timeout = 30s) { CPPUNIT_ASSERT(std::future_status::ready == future.wait_for(timeout)); return future.get(); } void DhtRunnerTester::setUp() { dht::DhtRunner::Config config; config.dht_config.node_config.max_peer_req_per_sec = -1; config.dht_config.node_config.max_req_per_sec = -1; config.dht_config.node_config.max_store_size = -1; config.dht_config.node_config.max_store_keys = -1; node1.run(0, config); node2.run(0, config); auto bound = node1.getBound(); if (bound.isUnspecified()) bound.setLoopback(); node2.bootstrap(bound); } void DhtRunnerTester::tearDown() { unsigned done {0}; std::condition_variable cv; std::mutex cv_m; auto shutdown = [&] { std::lock_guard lk(cv_m); done++; cv.notify_all(); }; node1.shutdown(shutdown); node2.shutdown(shutdown); std::unique_lock lk(cv_m); CPPUNIT_ASSERT(cv.wait_for(lk, 30s, [&] { return done == 2u; })); node1.join(); node2.join(); } void DhtRunnerTester::testConstructors() { CPPUNIT_ASSERT(node1.getBoundPort()); CPPUNIT_ASSERT_EQUAL(node1.getBoundPort(), node1.getBound().getPort()); CPPUNIT_ASSERT(node2.getBoundPort()); CPPUNIT_ASSERT_EQUAL(node2.getBoundPort(), node2.getBound().getPort()); dht::DhtRunner::Config config {}; dht::DhtRunner::Context context {}; dht::DhtRunner testNode; testNode.run(config, std::move(context)); CPPUNIT_ASSERT(testNode.getBoundPort()); } void DhtRunnerTester::testGetPut() { auto key = dht::InfoHash::get("123"); dht::Value val {"hey"}; auto val_data = val.data; std::promise p; auto future = p.get_future(); node2.put(key, std::move(val), [&](bool ok) { p.set_value(ok); }); CPPUNIT_ASSERT(getFutureValue(std::move(future))); auto vals = getFutureValue(node1.get(key)); CPPUNIT_ASSERT(not vals.empty()); CPPUNIT_ASSERT(vals.front()->data == val_data); } void DhtRunnerTester::testPutDuplicate() { auto key = dht::InfoHash::get("123"); auto val = std::make_shared("hey"); val->id = 42; auto val_data = val->data; std::promise p1; std::promise p2; auto p1future = p1.get_future(); auto p2future = p2.get_future(); node2.put(key, val, [&](bool ok) { p1.set_value(ok); }); node2.put(key, val, [&](bool ok) { p2.set_value(ok); }); auto p1ret = getFutureValue(std::move(p1future)); auto p2ret = getFutureValue(std::move(p2future)); CPPUNIT_ASSERT(p1ret); CPPUNIT_ASSERT(p2ret); auto vals = getFutureValue(node1.get(key)); CPPUNIT_ASSERT(not vals.empty()); CPPUNIT_ASSERT(vals.size() == 1); CPPUNIT_ASSERT(vals.front()->data == val_data); } void DhtRunnerTester::testPutOverride() { auto key = dht::InfoHash::get("123"); auto val = std::make_shared("meh"); val->id = 42; auto val2 = std::make_shared("hey"); val2->id = 42; CPPUNIT_ASSERT_EQUAL(val->id, val2->id); auto val_data = val2->data; std::promise p1; std::promise p2; auto p1future = p1.get_future(); auto p2future = p2.get_future(); node2.put(key, val, [&](bool ok) { p1.set_value(ok); }); node2.put(key, val2, [&](bool ok) { p2.set_value(ok); }); auto p1ret = getFutureValue(std::move(p1future)); auto p2ret = getFutureValue(std::move(p2future)); CPPUNIT_ASSERT(!p1ret); CPPUNIT_ASSERT(p2ret); auto vals = getFutureValue(node1.get(key)); CPPUNIT_ASSERT(not vals.empty()); CPPUNIT_ASSERT(vals.size() == 1); CPPUNIT_ASSERT(vals.front()->data == val_data); } void DhtRunnerTester::testImportValuesPreservesRemoteQuota() { node1.shutdown(); node1.join(); node2.shutdown(); node2.join(); dht::DhtRunner::Config config; config.dht_config.node_config.max_peer_req_per_sec = -1; config.dht_config.node_config.max_req_per_sec = -1; config.dht_config.node_config.max_store_size = 1536; config.dht_config.node_config.max_local_store_size = -1; config.dht_config.node_config.max_store_keys = -1; node1.run(0, config); node2.run(0, config); auto bound = node1.getBound(); if (bound.isUnspecified()) bound.setLoopback(); node2.bootstrap(bound); std::this_thread::sleep_for(1s); auto key1 = dht::InfoHash::get("import-quota-1"); auto key2 = dht::InfoHash::get("import-quota-2"); auto value1 = std::make_shared(std::string(1024, 'a')); auto value2 = std::make_shared(std::string(1024, 'b')); std::promise p1; auto p1future = p1.get_future(); node2.put(key1, value1, [&](bool ok) { p1.set_value(ok); }); CPPUNIT_ASSERT(getFutureValue(std::move(p1future))); std::this_thread::sleep_for(2s); auto exported = node1.exportValues(); CPPUNIT_ASSERT(!exported.empty()); node1.shutdown(); node1.join(); dht::DhtRunner restored; restored.run(0, config); auto restoredBound = restored.getBound(); if (restoredBound.isUnspecified()) restoredBound.setLoopback(); node2.shutdown(); node2.join(); node2.run(0, config); node2.bootstrap(restoredBound); std::this_thread::sleep_for(1s); restored.importValues(exported); std::this_thread::sleep_for(500ms); std::promise p2; auto p2future = p2.get_future(); node2.put(key2, value2, [&](bool ok) { p2.set_value(ok); }); CPPUNIT_ASSERT(getFutureValue(std::move(p2future))); std::this_thread::sleep_for(2s); auto vals1 = getFutureValue(restored.get(key1)); auto vals2 = getFutureValue(restored.get(key2)); CPPUNIT_ASSERT(vals1.size() + vals2.size() <= 1); restored.shutdown(); restored.join(); } void DhtRunnerTester::testExportValuesUsesSystemTime() { auto key = dht::InfoHash::get("export-system-time"); const auto created = dht::clock::now(); msgpack::sbuffer importBuffer; msgpack::packer pk(&importBuffer); pk.pack_array(1); pk.pack_array(2); pk.pack(created.time_since_epoch().count()); dht::Value {std::string("persisted")}.msgpack_pack(pk); node1.importValues({ dht::ValuesExport {key, {importBuffer.data(), importBuffer.data() + importBuffer.size()}} }); auto exported = node1.exportValues(); CPPUNIT_ASSERT_EQUAL(size_t(1), exported.size()); msgpack::unpacked msg; msgpack::unpack(msg, reinterpret_cast(exported.front().second.data()), exported.front().second.size()); const auto values = msg.get(); CPPUNIT_ASSERT(values.type == msgpack::type::ARRAY); CPPUNIT_ASSERT_EQUAL(uint32_t(1), values.via.array.size); const auto& persistedValue = values.via.array.ptr[0]; CPPUNIT_ASSERT_EQUAL(uint32_t(4), persistedValue.via.array.size); CPPUNIT_ASSERT(persistedValue.via.array.ptr[0].type == msgpack::type::EXT); CPPUNIT_ASSERT(persistedValue.via.array.ptr[3].type == msgpack::type::EXT); const auto persistedCreated = persistedValue.via.array.ptr[0].as(); const auto persistedExpiration = persistedValue.via.array.ptr[3].as(); const auto delta = std::chrono::system_clock::now() - persistedCreated; CPPUNIT_ASSERT(delta >= std::chrono::system_clock::duration::zero()); CPPUNIT_ASSERT(delta < 5s); CPPUNIT_ASSERT(persistedExpiration > persistedCreated); } void DhtRunnerTester::testImportValuesPreservesStoredExpiration() { static const dht::ValueType SHORT_LIVED_TYPE {200, "Short lived", 2s}; node1.registerInsecureType(SHORT_LIVED_TYPE); auto key = dht::InfoHash::get("import-expiration"); auto now = dht::clock::now(); auto created = now; auto expiration = now + SHORT_LIVED_TYPE.expiration; msgpack::sbuffer buffer; msgpack::packer pk(&buffer); pk.pack_array(1); pk.pack_array(4); pk.pack(created.time_since_epoch().count()); dht::Value {SHORT_LIVED_TYPE.id, std::string("short-lived")}.msgpack_pack(pk); pk.pack_bin(0); pk.pack(expiration.time_since_epoch().count()); node1.importValues({ dht::ValuesExport {key, {buffer.data(), buffer.data() + buffer.size()}} }); auto exported = node1.exportValues(); CPPUNIT_ASSERT(!exported.empty()); dht::DhtRunner restored; dht::DhtRunner::Config config; config.dht_config.node_config.max_peer_req_per_sec = -1; config.dht_config.node_config.max_req_per_sec = -1; config.dht_config.node_config.max_store_size = -1; config.dht_config.node_config.max_store_keys = -1; restored.run(0, config); restored.importValues(exported); CPPUNIT_ASSERT(!restored.exportValues().empty()); std::this_thread::sleep_for(3s); auto restoredValues = restored.exportValues(); CPPUNIT_ASSERT_EQUAL(size_t(1), restoredValues.size()); msgpack::unpacked msg; msgpack::unpack(msg, (const char*) restoredValues.front().second.data(), restoredValues.front().second.size()); auto valarr = msg.get(); CPPUNIT_ASSERT(valarr.type == msgpack::type::ARRAY); CPPUNIT_ASSERT_EQUAL(uint32_t(0), valarr.via.array.size); restored.shutdown(); restored.join(); } void DhtRunnerTester::testImportPermanentValueExpires() { static const dht::ValueType SHORT_TYPE {201, "Short perm", 500ms}; dht::DhtRunner::Config config; config.dht_config.node_config.max_peer_req_per_sec = -1; config.dht_config.node_config.max_req_per_sec = -1; config.dht_config.node_config.max_store_size = -1; config.dht_config.node_config.max_store_keys = -1; dht::DhtRunner restored; restored.run(0, config); restored.registerInsecureType(SHORT_TYPE); // Ensure the runner is waiting on a previously computed scheduler deadline. std::promise loopCompleted; auto loopCompletedFuture = loopCompleted.get_future(); restored.getNodeInfo([&loopCompleted](auto) { loopCompleted.set_value(); }); getFutureValue(std::move(loopCompletedFuture)); auto key = dht::InfoHash::get("import-permanent-expiration"); auto now = dht::clock::now(); msgpack::sbuffer buffer; msgpack::packer pk(&buffer); pk.pack_array(1); pk.pack_array(4); pk.pack(now.time_since_epoch().count()); dht::Value {SHORT_TYPE.id, std::string("was-permanent")}.msgpack_pack(pk); pk.pack_bin(0); pk.pack(dht::clock::time_point::max().time_since_epoch().count()); restored.importValues({ dht::ValuesExport {key, {buffer.data(), buffer.data() + buffer.size()}} }); auto containsValue = [&] { for (const auto& [exportedKey, data] : restored.exportValues()) { if (exportedKey != key) continue; msgpack::unpacked msg; msgpack::unpack(msg, reinterpret_cast(data.data()), data.size()); auto valarr = msg.get(); CPPUNIT_ASSERT(valarr.type == msgpack::type::ARRAY); return valarr.via.array.size != 0; } return false; }; CPPUNIT_ASSERT(containsValue()); auto timeout = dht::clock::now() + 2s; while (containsValue() and dht::clock::now() < timeout) std::this_thread::sleep_for(10ms); CPPUNIT_ASSERT(!containsValue()); restored.shutdown(); restored.join(); } void DhtRunnerTester::testBootstrapSetsConnectingState() { node1.shutdown(); node1.join(); node2.shutdown(); node2.join(); dht::DhtRunner::Config config; config.dht_config.node_config.max_peer_req_per_sec = -1; config.dht_config.node_config.max_req_per_sec = -1; config.dht_config.node_config.max_store_size = -1; config.dht_config.node_config.max_store_keys = -1; std::mutex mutex; std::condition_variable cv; bool sawConnecting {false}; dht::DhtRunner::Context context; context.statusChangedCallback = [&](dht::NodeStatus status4, dht::NodeStatus status6) { std::lock_guard lock(mutex); sawConnecting = sawConnecting || status4 == dht::NodeStatus::Connecting || status6 == dht::NodeStatus::Connecting; cv.notify_all(); }; dht::DhtRunner bootstrapNode; dht::DhtRunner clientNode; bootstrapNode.run(0, config); clientNode.run(config, std::move(context)); auto bound = bootstrapNode.getBound(); if (bound.isUnspecified()) bound.setLoopback(); clientNode.bootstrap("127.0.0.1", std::to_string(bound.getPort())); { std::unique_lock lock(mutex); CPPUNIT_ASSERT(cv.wait_for(lock, 5s, [&] { return sawConnecting; })); } bootstrapNode.shutdown(); bootstrapNode.join(); clientNode.shutdown(); clientNode.join(); } void DhtRunnerTester::testBootstrapThenPutNoRace() { node1.shutdown(); node1.join(); node2.shutdown(); node2.join(); dht::DhtRunner::Config config; config.dht_config.node_config.max_peer_req_per_sec = -1; config.dht_config.node_config.max_req_per_sec = -1; config.dht_config.node_config.max_store_size = -1; config.dht_config.node_config.max_store_keys = -1; dht::DhtRunner bootstrapNode; dht::DhtRunner clientNode; bootstrapNode.run(0, config); clientNode.run(0, config); auto bound = bootstrapNode.getBound(); if (bound.isUnspecified()) bound.setLoopback(); clientNode.bootstrap(bound); std::promise putDone; auto putFuture = putDone.get_future(); clientNode.put(dht::InfoHash::get("bootstrap-then-put"), dht::Value {"value"}, [&](bool ok) { putDone.set_value(ok); }); CPPUNIT_ASSERT(getFutureValue(std::move(putFuture))); auto vals = getFutureValue(bootstrapNode.get(dht::InfoHash::get("bootstrap-then-put"))); CPPUNIT_ASSERT(!vals.empty()); bootstrapNode.shutdown(); bootstrapNode.join(); clientNode.shutdown(); clientNode.join(); } void DhtRunnerTester::testBootstrapMissingNodeThenPutFails() { node1.shutdown(); node1.join(); node2.shutdown(); node2.join(); dht::DhtRunner::Config config; config.dht_config.node_config.max_peer_req_per_sec = -1; config.dht_config.node_config.max_req_per_sec = -1; config.dht_config.node_config.max_store_size = -1; config.dht_config.node_config.max_store_keys = -1; auto getUnusedPort = [&]() { dht::DhtRunner tmpNode; tmpNode.run(0, config); auto port = tmpNode.getBoundPort(); tmpNode.shutdown(); tmpNode.join(); return port; }; auto missingPort = getUnusedPort(); std::mutex mutex; std::condition_variable cv; bool sawConnecting {false}; bool sawDisconnectedAfterConnecting {false}; bool putReturnedBeforeDisconnect {false}; dht::DhtRunner::Context context; context.statusChangedCallback = [&](dht::NodeStatus status4, dht::NodeStatus status6) { std::lock_guard lock(mutex); if (status4 == dht::NodeStatus::Connecting || status6 == dht::NodeStatus::Connecting) sawConnecting = true; if (sawConnecting && status4 == dht::NodeStatus::Disconnected && status6 == dht::NodeStatus::Disconnected) sawDisconnectedAfterConnecting = true; cv.notify_all(); }; dht::DhtRunner clientNode; clientNode.run(0, config, std::move(context)); while (clientNode.getBoundPort() == missingPort) missingPort = getUnusedPort(); std::promise putDone; auto putFuture = putDone.get_future(); clientNode.bootstrap("127.0.0.1", std::to_string(missingPort)); clientNode.put(dht::InfoHash::get("bootstrap-missing-put"), dht::Value {"value"}, [&](bool ok) { std::lock_guard lock(mutex); putReturnedBeforeDisconnect = !sawDisconnectedAfterConnecting; putDone.set_value(ok); cv.notify_all(); }); { std::unique_lock lock(mutex); CPPUNIT_ASSERT(cv.wait_for(lock, 10s, [&] { return sawConnecting; })); CPPUNIT_ASSERT(cv.wait_for(lock, 20s, [&] { return sawDisconnectedAfterConnecting; })); } CPPUNIT_ASSERT(std::future_status::ready == putFuture.wait_for(20s)); CPPUNIT_ASSERT(!putFuture.get()); CPPUNIT_ASSERT(!putReturnedBeforeDisconnect); clientNode.shutdown(); clientNode.join(); } void DhtRunnerTester::testShutdownCompletesWithPendingPut() { node1.shutdown(); node1.join(); node2.shutdown(); node2.join(); dht::DhtRunner::Config config; config.dht_config.node_config.max_peer_req_per_sec = -1; config.dht_config.node_config.max_req_per_sec = -1; config.dht_config.node_config.max_store_size = -1; config.dht_config.node_config.max_store_keys = -1; auto getUnusedPort = [&]() { dht::DhtRunner tmpNode; tmpNode.run(0, config); auto port = tmpNode.getBoundPort(); tmpNode.shutdown(); tmpNode.join(); return port; }; auto missingPort = getUnusedPort(); dht::DhtRunner clientNode; clientNode.run(0, config); while (clientNode.getBoundPort() == missingPort) missingPort = getUnusedPort(); clientNode.bootstrap("127.0.0.1", std::to_string(missingPort)); clientNode.put(dht::InfoHash::get("shutdown-pending-put"), dht::Value {"value"}, [](bool) {}); std::promise shutdownDone; auto shutdownFuture = shutdownDone.get_future(); clientNode.shutdown([&]() { shutdownDone.set_value(); }); CPPUNIT_ASSERT(std::future_status::ready == shutdownFuture.wait_for(5s)); clientNode.join(); } void DhtRunnerTester::testSavedPortFallback() { // A saved port that is already taken by another process (e.g. fast // application restart while the old instance still holds it) must not // prevent the node from starting: it should fall back to a random port. dht::DhtRunner::Config config; config.dht_config.node_config.persist_path = "/tmp/opendht_test_port_fallback"; std::string portFile = config.dht_config.node_config.persist_path + "_port.txt"; // node1 (from setUp) holds a port; save it as our persisted port. auto takenPort = node1.getBoundPort(); { std::ofstream out(portFile); out << takenPort << std::endl << takenPort << std::endl; } dht::DhtRunner testNode; CPPUNIT_ASSERT_NO_THROW(testNode.run(0, config)); CPPUNIT_ASSERT(testNode.getBoundPort()); CPPUNIT_ASSERT(testNode.getBoundPort() != takenPort); testNode.shutdown(); testNode.join(); std::remove(portFile.c_str()); std::remove((config.dht_config.node_config.persist_path + "_port.txt").c_str()); } void DhtRunnerTester::testListen() { std::mutex mutex; std::condition_variable cv; std::atomic_uint valueCounta(0); std::atomic_uint valueCountb(0); std::atomic_uint valueCountc(0); std::atomic_uint valueCountd(0); unsigned putCount(0); unsigned putOkCount1(0); unsigned putOkCount2(0); unsigned putOkCount3(0); auto a = dht::InfoHash::get("234"); auto b = dht::InfoHash::get("2345"); auto c = dht::InfoHash::get("23456"); auto d = dht::InfoHash::get("234567"); constexpr unsigned N = 256; constexpr unsigned SZ = 56 * 1024; auto ftokena = node1.listen(a, [&](const std::vector>& values, bool expired) { if (expired) valueCounta -= values.size(); else valueCounta += values.size(); return true; }); auto ftokenb = node1.listen(b, [&](const std::shared_ptr&) { /*if (expired) valueCountb -= values.size(); else valueCountb += values.size();*/ valueCountb++; return false; }); auto ftokenc = node1.listen(c, [&](const std::vector>& values, bool expired) { if (expired) valueCountc -= values.size(); else valueCountc += values.size(); return true; }); auto ftokend = node1.listen(d, [&](const std::vector>& values, bool expired) { if (expired) valueCountd -= values.size(); else valueCountd += values.size(); return true; }); std::vector mtu; mtu.reserve(SZ); for (size_t i = 0; i < SZ; i++) mtu.emplace_back((i % 2) ? 'T' : 'M'); for (unsigned i = 0; i < N; i++) { node2.put(a, dht::Value("v1"), [&](bool ok) { std::lock_guard lock(mutex); putCount++; if (ok) putOkCount1++; cv.notify_all(); }); node2.put(b, dht::Value("v2"), [&](bool ok) { std::lock_guard lock(mutex); putCount++; if (ok) putOkCount2++; cv.notify_all(); }); auto bigVal = std::make_shared(); bigVal->data = mtu; node2.put(c, std::move(bigVal), [&](bool ok) { std::lock_guard lock(mutex); putCount++; if (ok) putOkCount3++; cv.notify_all(); }); } { std::unique_lock lk(mutex); CPPUNIT_ASSERT(cv.wait_for(lk, 30s, [&] { return putCount == N * 3u; })); CPPUNIT_ASSERT_EQUAL(N, putOkCount1); CPPUNIT_ASSERT_EQUAL(N, putOkCount2); CPPUNIT_ASSERT_EQUAL(N, putOkCount3); } CPPUNIT_ASSERT(ftokena.valid()); CPPUNIT_ASSERT(ftokenb.valid()); CPPUNIT_ASSERT(ftokenc.valid()); CPPUNIT_ASSERT(ftokend.valid()); auto tokena = getFutureValue(std::move(ftokena)); auto tokenc = getFutureValue(std::move(ftokenc)); auto tokend = getFutureValue(std::move(ftokend)); // tokenb might be 0 since the callback returns false. CPPUNIT_ASSERT(tokena); CPPUNIT_ASSERT(tokenc); CPPUNIT_ASSERT(tokend); CPPUNIT_ASSERT_EQUAL(N, valueCounta.load()); CPPUNIT_ASSERT_EQUAL(1u, valueCountb.load()); CPPUNIT_ASSERT_EQUAL(N, valueCountc.load()); CPPUNIT_ASSERT_EQUAL(0u, valueCountd.load()); node1.cancelListen(a, tokena); node1.cancelListen(b, std::move(ftokenb)); node1.cancelListen(c, tokenc); node1.cancelListen(d, tokend); } void DhtRunnerTester::testIdOps() { std::mutex mutex; std::condition_variable cv; unsigned identityCount(0); unsigned valueCount(0); unsigned valueCountEdit(0); dht::DhtRunner::Config config2; config2.dht_config.node_config.max_peer_req_per_sec = -1; config2.dht_config.node_config.max_req_per_sec = -1; config2.dht_config.id = dht::crypto::generateIdentity(); dht::DhtRunner::Context context2; context2.identityAnnouncedCb = [&](bool ok) { CPPUNIT_ASSERT(ok); std::lock_guard lk(mutex); identityCount++; cv.notify_all(); }; node2.join(); node2.run(0, config2, std::move(context2)); auto bound = node1.getBound(); if (bound.isUnspecified()) bound.setLoopback(); node2.bootstrap(bound); { std::unique_lock lk(mutex); CPPUNIT_ASSERT(cv.wait_for(lk, 20s, [&] { return identityCount == 1; })); } node1.findCertificate(node2.getPublicKey()->getLongId(), [&](const std::shared_ptr& crt) { CPPUNIT_ASSERT(crt); std::lock_guard lk(mutex); valueCount++; cv.notify_all(); }); { std::unique_lock lk(mutex); CPPUNIT_ASSERT(cv.wait_for(lk, 20s, [&] { return valueCount == 1u; })); CPPUNIT_ASSERT_EQUAL(1u, identityCount); } dht::DhtRunner::Context context1; context1.identityAnnouncedCb = [&](bool ok) { CPPUNIT_ASSERT(ok); std::lock_guard lk(mutex); identityCount++; cv.notify_all(); }; config2.dht_config.id = dht::crypto::generateIdentity(); node1.join(); node1.run(0, config2, std::move(context1)); bound = node2.getBound(); if (bound.isUnspecified()) bound.setLoopback(); node1.bootstrap(bound); auto key = dht::InfoHash::get("key"); node1.putEncrypted(key, node2.getPublicKey()->getLongId(), std::make_shared("yo"), [&](bool ok) { CPPUNIT_ASSERT(ok); std::lock_guard lk(mutex); valueCount++; cv.notify_all(); }); node1.putEncrypted(key, node2.getPublicKey(), dht::Value("yo"), [&](bool ok) { CPPUNIT_ASSERT(ok); std::lock_guard lk(mutex); valueCount++; cv.notify_all(); }); node2.listen(key, [&](std::string&& value) { CPPUNIT_ASSERT_EQUAL("yo"s, value); std::lock_guard lk(mutex); valueCount++; cv.notify_all(); return true; }); auto key2 = dht::InfoHash::get("key2"); auto editValue = std::make_shared("v1"); node1.putSigned(key2, editValue, [&](bool ok) { CPPUNIT_ASSERT(ok); std::lock_guard lk(mutex); valueCountEdit++; cv.notify_all(); }); node2.listen(key2, [&](const std::vector>& values, bool /*expired*/) { for (const auto& v : values) { if (v->seq == 0) CPPUNIT_ASSERT_EQUAL("v1"s, dht::unpackMsg(v->data)); else if (v->seq == 1) CPPUNIT_ASSERT_EQUAL("v2"s, dht::unpackMsg(v->data)); CPPUNIT_ASSERT_EQUAL(v->owner->getLongId(), node1.getPublicKey()->getLongId()); } std::lock_guard lk(mutex); valueCountEdit += values.size(); cv.notify_all(); return true; }); { std::unique_lock lk(mutex); CPPUNIT_ASSERT(cv.wait_for(lk, 20s, [&] { return identityCount == 2u; })); CPPUNIT_ASSERT(cv.wait_for(lk, 20s, [&] { return valueCount == 5u; })); CPPUNIT_ASSERT(cv.wait_for(lk, 20s, [&] { return valueCountEdit == 2u; })); } node2.findCertificate(node1.getPublicKey()->getLongId(), [&](const std::shared_ptr& crt) { CPPUNIT_ASSERT(crt); std::lock_guard lk(mutex); valueCount++; cv.notify_all(); }); { std::unique_lock lk(mutex); CPPUNIT_ASSERT(cv.wait_for(lk, 20s, [&] { return valueCount == 6u; })); } // editValue->data = dht::packMsg("v2"); editValue = std::make_shared(editValue->id); editValue->data = dht::packMsg("v2"); node1.putSigned(key2, editValue, [&](bool ok) { CPPUNIT_ASSERT(ok); std::lock_guard lk(mutex); valueCountEdit++; cv.notify_all(); }); std::unique_lock lk(mutex); CPPUNIT_ASSERT(cv.wait_for(lk, 20s, [&] { return valueCountEdit == 4u; })); } void DhtRunnerTester::testListenLotOfBytes() { std::mutex mutex; std::condition_variable cv; std::atomic_uint valueCount(0); unsigned putCount(0); unsigned putOkCount(0); std::string data(10000, 'a'); auto foo = dht::InfoHash::get("foo"); constexpr unsigned N = 1024; for (unsigned i = 0; i < N; i++) { node2.put(foo, data, [&](bool ok) { std::lock_guard lock(mutex); putCount++; if (ok) putOkCount++; cv.notify_all(); }); } { std::unique_lock lk(mutex); CPPUNIT_ASSERT(cv.wait_for(lk, 30s, [&] { return putCount == N; })); } dht::DhtRunner node3 {}; dht::DhtRunner::Config config; config.dht_config.node_config.max_peer_req_per_sec = -1; config.dht_config.node_config.max_req_per_sec = -1; node3.run(42242, config); auto bound = node1.getBound(); if (bound.isUnspecified()) bound.setLoopback(); node3.bootstrap(bound); auto ftokenfoo = node3.listen(foo, [&](const std::shared_ptr&) { valueCount++; cv.notify_all(); return true; }); { std::unique_lock lk(mutex); CPPUNIT_ASSERT(cv.wait_for(lk, 30s, [&] { return valueCount == N; })); } node3.cancelListen(foo, getFutureValue(std::move(ftokenfoo))); } void DhtRunnerTester::testMultithread() { std::mutex mutex; std::condition_variable cv; unsigned putCount(0); unsigned putOkCount(0); constexpr unsigned N = 2048; for (unsigned i = 0; i < N; i++) { dht::ThreadPool::computation().run([&] { node2.put(dht::InfoHash::get("123" + std::to_string(i)), "hehe", [&](bool ok) { std::lock_guard lock(mutex); putCount++; if (ok) putOkCount++; cv.notify_all(); }); node2.get( dht::InfoHash::get("123" + std::to_string(N - i - 1)), [](const std::shared_ptr&) { return true; }, [&](bool ok) { std::lock_guard lock(mutex); putCount++; if (ok) putOkCount++; cv.notify_all(); }); }); } std::unique_lock lk(mutex); CPPUNIT_ASSERT(cv.wait_for(lk, 30s, [&] { return putCount == 2 * N; })); CPPUNIT_ASSERT_EQUAL(2 * N, putOkCount); } } // namespace test