orphanage_tests.cpp
1 // Copyright (c) 2011-present The Bitcoin Core developers 2 // Distributed under the MIT software license, see the accompanying 3 // file COPYING or http://www.opensource.org/licenses/mit-license.php. 4 5 #include <arith_uint256.h> 6 #include <consensus/validation.h> 7 #include <node/txorphanage.h> 8 #include <policy/policy.h> 9 #include <primitives/transaction.h> 10 #include <pubkey.h> 11 #include <script/sign.h> 12 #include <script/signingprovider.h> 13 #include <test/util/common.h> 14 #include <test/util/random.h> 15 #include <test/util/setup_common.h> 16 #include <test/util/time.h> 17 #include <test/util/transaction_utils.h> 18 19 #include <array> 20 #include <cstdint> 21 22 #include <boost/test/unit_test.hpp> 23 24 BOOST_FIXTURE_TEST_SUITE(orphanage_tests, BasicTestingSetup) 25 26 static void MakeNewKeyWithFastRandomContext(CKey& key, FastRandomContext& rand_ctx) 27 { 28 std::vector<unsigned char> keydata; 29 keydata = rand_ctx.randbytes(32); 30 key.Set(keydata.data(), keydata.data() + keydata.size(), /*fCompressedIn=*/true); 31 assert(key.IsValid()); 32 } 33 34 // Creates a transaction with 2 outputs. Spends all outpoints. If outpoints is empty, spends a random one. 35 static CTransactionRef MakeTransactionSpending(const std::vector<COutPoint>& outpoints, FastRandomContext& det_rand) 36 { 37 CKey key; 38 MakeNewKeyWithFastRandomContext(key, det_rand); 39 CMutableTransaction tx; 40 // If no outpoints are given, create a random one. 41 if (outpoints.empty()) { 42 tx.vin.emplace_back(Txid::FromUint256(det_rand.rand256()), 0); 43 } else { 44 for (const auto& outpoint : outpoints) { 45 tx.vin.emplace_back(outpoint); 46 } 47 } 48 // Ensure txid != wtxid 49 tx.vin[0].scriptWitness.stack.push_back({1}); 50 tx.vout.resize(2); 51 tx.vout[0].nValue = CENT; 52 tx.vout[0].scriptPubKey = GetScriptForDestination(PKHash(key.GetPubKey())); 53 tx.vout[1].nValue = 3 * CENT; 54 tx.vout[1].scriptPubKey = GetScriptForDestination(WitnessV0KeyHash(key.GetPubKey())); 55 return MakeTransactionRef(tx); 56 } 57 58 // Make another (not necessarily valid) tx with the same txid but different wtxid. 59 static CTransactionRef MakeMutation(const CTransactionRef& ptx) 60 { 61 CMutableTransaction tx(*ptx); 62 tx.vin[0].scriptWitness.stack.push_back({5}); 63 auto mutated_tx = MakeTransactionRef(tx); 64 assert(ptx->GetHash() == mutated_tx->GetHash()); 65 return mutated_tx; 66 } 67 68 static bool EqualTxns(const std::set<CTransactionRef>& set_txns, const std::vector<CTransactionRef>& vec_txns) 69 { 70 if (vec_txns.size() != set_txns.size()) return false; 71 for (const auto& tx : vec_txns) { 72 if (!set_txns.contains(tx)) return false; 73 } 74 return true; 75 } 76 77 BOOST_AUTO_TEST_CASE(peer_dos_limits) 78 { 79 FastRandomContext det_rand{true}; 80 81 // Construct transactions to use. They must all be the same size. 82 static constexpr unsigned int NUM_TXNS_CREATED = 100; 83 static constexpr int64_t TX_SIZE{469}; 84 static constexpr int64_t TOTAL_SIZE = NUM_TXNS_CREATED * TX_SIZE; 85 86 std::vector<CTransactionRef> txns; 87 txns.reserve(NUM_TXNS_CREATED); 88 // All transactions are the same size. 89 for (unsigned int i{0}; i < NUM_TXNS_CREATED; ++i) { 90 auto ptx = MakeTransactionSpending({}, det_rand); 91 txns.emplace_back(ptx); 92 BOOST_CHECK_EQUAL(TX_SIZE, GetTransactionWeight(*ptx)); 93 } 94 95 // Single peer: eviction is triggered if either limit is hit 96 { 97 // Test announcement limits 98 NodeId peer{8}; 99 auto orphanage_low_ann = node::MakeTxOrphanage(/*max_global_latency_score=*/1, /*reserved_peer_usage=*/TX_SIZE * 10); 100 auto orphanage_low_mem = node::MakeTxOrphanage(/*max_global_latency_score=*/10, /*reserved_peer_usage=*/TX_SIZE); 101 102 // Add the first transaction 103 orphanage_low_ann->AddTx(txns.at(0), peer); 104 orphanage_low_mem->AddTx(txns.at(0), peer); 105 106 // Add more. One of the limits is exceeded, so LimitOrphans evicts 1. 107 orphanage_low_ann->AddTx(txns.at(1), peer); 108 orphanage_low_mem->AddTx(txns.at(1), peer); 109 110 // The older transaction is evicted. 111 BOOST_CHECK(!orphanage_low_ann->HaveTx(txns.at(0)->GetWitnessHash())); 112 BOOST_CHECK(!orphanage_low_mem->HaveTx(txns.at(0)->GetWitnessHash())); 113 BOOST_CHECK(orphanage_low_ann->HaveTx(txns.at(1)->GetWitnessHash())); 114 BOOST_CHECK(orphanage_low_mem->HaveTx(txns.at(1)->GetWitnessHash())); 115 116 orphanage_low_ann->SanityCheck(); 117 orphanage_low_mem->SanityCheck(); 118 } 119 120 // Single peer: latency score includes inputs 121 { 122 // Test latency score limits 123 NodeId peer{10}; 124 auto orphanage_low_ann = node::MakeTxOrphanage(/*max_global_latency_score=*/5, /*reserved_peer_usage=*/TX_SIZE * 1000); 125 126 // Add the first transaction 127 orphanage_low_ann->AddTx(txns.at(0), peer); 128 129 // Add 1 more transaction with 45 inputs. Even though there are only 2 announcements, this pushes the orphanage above its maximum latency score. 130 std::vector<COutPoint> outpoints_45; 131 for (unsigned int j{0}; j < 45; ++j) { 132 outpoints_45.emplace_back(Txid::FromUint256(det_rand.rand256()), j); 133 } 134 auto ptx = MakeTransactionSpending(outpoints_45, det_rand); 135 orphanage_low_ann->AddTx(ptx, peer); 136 137 // The older transaction is evicted. 138 BOOST_CHECK(!orphanage_low_ann->HaveTx(txns.at(0)->GetWitnessHash())); 139 BOOST_CHECK(orphanage_low_ann->HaveTx(ptx->GetWitnessHash())); 140 141 orphanage_low_ann->SanityCheck(); 142 } 143 144 // Single peer: eviction order is FIFO on non-reconsiderable, then reconsiderable orphans. 145 { 146 // Construct parent + child pairs 147 std::vector<CTransactionRef> parents; 148 std::vector<CTransactionRef> children; 149 for (unsigned int i{0}; i < 10; ++i) { 150 CTransactionRef parent = MakeTransactionSpending({}, det_rand); 151 CTransactionRef child = MakeTransactionSpending({{parent->GetHash(), 0}}, det_rand); 152 parents.emplace_back(parent); 153 children.emplace_back(child); 154 } 155 156 // Test announcement limits 157 NodeId peer{9}; 158 auto orphanage = node::MakeTxOrphanage(/*max_global_latency_score=*/3, /*reserved_peer_usage=*/TX_SIZE * 10); 159 160 // First add a tx which will be made reconsiderable. 161 orphanage->AddTx(children.at(0), peer); 162 163 // Then add 2 more orphans... not oversize yet. 164 orphanage->AddTx(children.at(1), peer); 165 orphanage->AddTx(children.at(2), peer); 166 167 // Make child0 ready to reconsider 168 const std::vector<std::pair<Wtxid, NodeId>> expected_set_c0{std::make_pair(children.at(0)->GetWitnessHash(), peer)}; 169 BOOST_CHECK(orphanage->AddChildrenToWorkSet(*parents.at(0), det_rand) == expected_set_c0); 170 BOOST_CHECK(orphanage->HaveTxToReconsider(peer)); 171 172 // Add 1 more orphan, causing the orphanage to be oversize. child1 is evicted. 173 orphanage->AddTx(children.at(3), peer); 174 BOOST_CHECK(orphanage->HaveTx(children.at(0)->GetWitnessHash())); 175 BOOST_CHECK(!orphanage->HaveTx(children.at(1)->GetWitnessHash())); 176 BOOST_CHECK(orphanage->HaveTx(children.at(2)->GetWitnessHash())); 177 BOOST_CHECK(orphanage->HaveTx(children.at(3)->GetWitnessHash())); 178 orphanage->SanityCheck(); 179 180 // Add 1 more... child2 is evicted. 181 orphanage->AddTx(children.at(4), peer); 182 BOOST_CHECK(orphanage->HaveTx(children.at(0)->GetWitnessHash())); 183 BOOST_CHECK(!orphanage->HaveTx(children.at(2)->GetWitnessHash())); 184 BOOST_CHECK(orphanage->HaveTx(children.at(3)->GetWitnessHash())); 185 BOOST_CHECK(orphanage->HaveTx(children.at(4)->GetWitnessHash())); 186 187 // Eviction order is FIFO within the orphans that are read 188 const std::vector<std::pair<Wtxid, NodeId>> expected_set_c4{std::make_pair(children.at(4)->GetWitnessHash(), peer)}; 189 BOOST_CHECK(orphanage->AddChildrenToWorkSet(*parents.at(4), det_rand) == expected_set_c4); 190 const std::vector<std::pair<Wtxid, NodeId>> expected_set_c3{std::make_pair(children.at(3)->GetWitnessHash(), peer)}; 191 BOOST_CHECK(orphanage->AddChildrenToWorkSet(*parents.at(3), det_rand) == expected_set_c3); 192 193 // child5 is evicted immediately because it is the only non-reconsiderable orphan. 194 orphanage->AddTx(children.at(5), peer); 195 BOOST_CHECK(orphanage->HaveTx(children.at(0)->GetWitnessHash())); 196 BOOST_CHECK(orphanage->HaveTx(children.at(3)->GetWitnessHash())); 197 BOOST_CHECK(orphanage->HaveTx(children.at(4)->GetWitnessHash())); 198 BOOST_CHECK(!orphanage->HaveTx(children.at(5)->GetWitnessHash())); 199 200 // Transactions are marked non-reconsiderable again when returned through GetTxToReconsider 201 BOOST_CHECK_EQUAL(orphanage->GetTxToReconsider(peer), children.at(0)); 202 orphanage->AddTx(children.at(6), peer); 203 BOOST_CHECK(!orphanage->HaveTx(children.at(0)->GetWitnessHash())); 204 BOOST_CHECK(orphanage->HaveTx(children.at(3)->GetWitnessHash())); 205 BOOST_CHECK(orphanage->HaveTx(children.at(4)->GetWitnessHash())); 206 BOOST_CHECK(orphanage->HaveTx(children.at(6)->GetWitnessHash())); 207 208 // The first transaction returned from GetTxToReconsider is the older one, not the one that was marked for 209 // reconsideration earlier. 210 BOOST_CHECK_EQUAL(orphanage->GetTxToReconsider(peer), children.at(3)); 211 BOOST_CHECK_EQUAL(orphanage->GetTxToReconsider(peer), children.at(4)); 212 213 orphanage->SanityCheck(); 214 } 215 216 // Multiple peers: when limit is exceeded, we choose the DoSiest peer and evict their oldest transaction. 217 { 218 NodeId peer_dosy{0}; 219 NodeId peer1{1}; 220 NodeId peer2{2}; 221 222 unsigned int max_announcements = 60; 223 // Set a high per-peer reservation so announcement limit is always hit first. 224 auto orphanage = node::MakeTxOrphanage(max_announcements, TOTAL_SIZE * 10); 225 226 // No evictions happen before the global limit is reached. 227 for (unsigned int i{0}; i < max_announcements; ++i) { 228 orphanage->AddTx(txns.at(i), peer_dosy); 229 } 230 orphanage->SanityCheck(); 231 BOOST_CHECK_EQUAL(orphanage->AnnouncementsFromPeer(peer_dosy), max_announcements); 232 BOOST_CHECK_EQUAL(orphanage->AnnouncementsFromPeer(peer1), 0); 233 BOOST_CHECK_EQUAL(orphanage->AnnouncementsFromPeer(peer2), 0); 234 235 // Add 10 unique transactions from peer1. 236 // LimitOrphans should evict from peer_dosy, because that's the one exceeding announcement limits. 237 unsigned int num_from_peer1 = 10; 238 for (unsigned int i{0}; i < num_from_peer1; ++i) { 239 orphanage->AddTx(txns.at(max_announcements + i), peer1); 240 // The announcement limit per peer has halved, but LimitOrphans does not evict beyond what is necessary to 241 // bring the total announcements within its global limit. 242 BOOST_CHECK(orphanage->AnnouncementsFromPeer(peer_dosy) > orphanage->MaxPeerLatencyScore()); 243 244 BOOST_CHECK_EQUAL(orphanage->AnnouncementsFromPeer(peer1), i + 1); 245 BOOST_CHECK_EQUAL(orphanage->AnnouncementsFromPeer(peer_dosy), max_announcements - i - 1); 246 247 // Evictions are FIFO within a peer, so the ith transaction sent by peer_dosy is the one that was evicted. 248 BOOST_CHECK(!orphanage->HaveTx(txns.at(i)->GetWitnessHash())); 249 } 250 // Add 10 transactions that are duplicates of the ones sent by peer_dosy. We need to add 10 because the first 10 251 // were just evicted in the previous block additions. 252 for (unsigned int i{num_from_peer1}; i < num_from_peer1 + 10; ++i) { 253 // Tx has already been sent by peer_dosy 254 BOOST_CHECK(orphanage->HaveTxFromPeer(txns.at(i)->GetWitnessHash(), peer_dosy)); 255 orphanage->AddTx(txns.at(i), peer2); 256 257 // peer_dosy is still the only one getting evicted 258 BOOST_CHECK_EQUAL(orphanage->AnnouncementsFromPeer(peer_dosy), max_announcements - i - 1); 259 BOOST_CHECK_EQUAL(orphanage->AnnouncementsFromPeer(peer1), num_from_peer1); 260 BOOST_CHECK_EQUAL(orphanage->AnnouncementsFromPeer(peer2), i + 1 - num_from_peer1); 261 262 // Evictions are FIFO within a peer, so the ith transaction sent by peer_dosy is the one that was evicted. 263 BOOST_CHECK(!orphanage->HaveTxFromPeer(txns.at(i)->GetWitnessHash(), peer_dosy)); 264 BOOST_CHECK(orphanage->HaveTx(txns.at(i)->GetWitnessHash())); 265 } 266 267 // With 6 peers, each can add 10, and still only peer_dosy's orphans are evicted. 268 const unsigned int max_per_peer{max_announcements / 6}; 269 const unsigned int num_announcements{orphanage->CountAnnouncements()}; 270 for (NodeId peer{3}; peer < 6; ++peer) { 271 for (unsigned int i{0}; i < max_per_peer; ++i) { 272 // Each addition causes 1 eviction. 273 orphanage->AddTx(txns.at(peer * max_per_peer + i), peer); 274 BOOST_CHECK_EQUAL(orphanage->CountAnnouncements(), num_announcements); 275 } 276 } 277 for (NodeId peer{0}; peer < 6; ++peer) { 278 BOOST_CHECK_EQUAL(orphanage->AnnouncementsFromPeer(peer), max_per_peer); 279 } 280 orphanage->SanityCheck(); 281 } 282 283 // Limits change as more peers are added. 284 { 285 auto orphanage{node::MakeTxOrphanage()}; 286 // These stay the same regardless of number of peers 287 BOOST_CHECK_EQUAL(orphanage->MaxGlobalLatencyScore(), node::DEFAULT_MAX_ORPHANAGE_LATENCY_SCORE); 288 BOOST_CHECK_EQUAL(orphanage->ReservedPeerUsage(), node::DEFAULT_RESERVED_ORPHAN_WEIGHT_PER_PEER); 289 290 // These change with number of peers 291 BOOST_CHECK_EQUAL(orphanage->MaxGlobalUsage(), node::DEFAULT_RESERVED_ORPHAN_WEIGHT_PER_PEER); 292 BOOST_CHECK_EQUAL(orphanage->MaxPeerLatencyScore(), node::DEFAULT_MAX_ORPHANAGE_LATENCY_SCORE); 293 294 // Number of peers = 1 295 orphanage->AddTx(txns.at(0), 0); 296 BOOST_CHECK_EQUAL(orphanage->MaxGlobalLatencyScore(), node::DEFAULT_MAX_ORPHANAGE_LATENCY_SCORE); 297 BOOST_CHECK_EQUAL(orphanage->ReservedPeerUsage(), node::DEFAULT_RESERVED_ORPHAN_WEIGHT_PER_PEER); 298 BOOST_CHECK_EQUAL(orphanage->MaxGlobalUsage(), node::DEFAULT_RESERVED_ORPHAN_WEIGHT_PER_PEER); 299 BOOST_CHECK_EQUAL(orphanage->MaxPeerLatencyScore(), node::DEFAULT_MAX_ORPHANAGE_LATENCY_SCORE); 300 301 // Number of peers = 2 302 orphanage->AddTx(txns.at(1), 1); 303 BOOST_CHECK_EQUAL(orphanage->MaxGlobalLatencyScore(), node::DEFAULT_MAX_ORPHANAGE_LATENCY_SCORE); 304 BOOST_CHECK_EQUAL(orphanage->ReservedPeerUsage(), node::DEFAULT_RESERVED_ORPHAN_WEIGHT_PER_PEER); 305 BOOST_CHECK_EQUAL(orphanage->MaxGlobalUsage(), node::DEFAULT_RESERVED_ORPHAN_WEIGHT_PER_PEER * 2); 306 BOOST_CHECK_EQUAL(orphanage->MaxPeerLatencyScore(), node::DEFAULT_MAX_ORPHANAGE_LATENCY_SCORE / 2); 307 308 // Number of peers = 3 309 orphanage->AddTx(txns.at(2), 2); 310 BOOST_CHECK_EQUAL(orphanage->MaxGlobalLatencyScore(), node::DEFAULT_MAX_ORPHANAGE_LATENCY_SCORE); 311 BOOST_CHECK_EQUAL(orphanage->ReservedPeerUsage(), node::DEFAULT_RESERVED_ORPHAN_WEIGHT_PER_PEER); 312 BOOST_CHECK_EQUAL(orphanage->MaxGlobalUsage(), node::DEFAULT_RESERVED_ORPHAN_WEIGHT_PER_PEER * 3); 313 BOOST_CHECK_EQUAL(orphanage->MaxPeerLatencyScore(), node::DEFAULT_MAX_ORPHANAGE_LATENCY_SCORE / 3); 314 315 // Number of peers didn't change. 316 orphanage->AddTx(txns.at(3), 2); 317 BOOST_CHECK_EQUAL(orphanage->MaxGlobalLatencyScore(), node::DEFAULT_MAX_ORPHANAGE_LATENCY_SCORE); 318 BOOST_CHECK_EQUAL(orphanage->ReservedPeerUsage(), node::DEFAULT_RESERVED_ORPHAN_WEIGHT_PER_PEER); 319 BOOST_CHECK_EQUAL(orphanage->MaxGlobalUsage(), node::DEFAULT_RESERVED_ORPHAN_WEIGHT_PER_PEER * 3); 320 BOOST_CHECK_EQUAL(orphanage->MaxPeerLatencyScore(), node::DEFAULT_MAX_ORPHANAGE_LATENCY_SCORE / 3); 321 322 // Once a peer has no orphans, it is not considered in the limits. 323 // Number of peers = 2 324 orphanage->EraseForPeer(2); 325 BOOST_CHECK_EQUAL(orphanage->MaxGlobalLatencyScore(), node::DEFAULT_MAX_ORPHANAGE_LATENCY_SCORE); 326 BOOST_CHECK_EQUAL(orphanage->ReservedPeerUsage(), node::DEFAULT_RESERVED_ORPHAN_WEIGHT_PER_PEER); 327 BOOST_CHECK_EQUAL(orphanage->MaxGlobalUsage(), node::DEFAULT_RESERVED_ORPHAN_WEIGHT_PER_PEER * 2); 328 BOOST_CHECK_EQUAL(orphanage->MaxPeerLatencyScore(), node::DEFAULT_MAX_ORPHANAGE_LATENCY_SCORE / 2); 329 330 // Number of peers = 1 331 orphanage->EraseTx(txns.at(0)->GetWitnessHash()); 332 BOOST_CHECK_EQUAL(orphanage->MaxGlobalLatencyScore(), node::DEFAULT_MAX_ORPHANAGE_LATENCY_SCORE); 333 BOOST_CHECK_EQUAL(orphanage->ReservedPeerUsage(), node::DEFAULT_RESERVED_ORPHAN_WEIGHT_PER_PEER); 334 BOOST_CHECK_EQUAL(orphanage->MaxGlobalUsage(), node::DEFAULT_RESERVED_ORPHAN_WEIGHT_PER_PEER); 335 BOOST_CHECK_EQUAL(orphanage->MaxPeerLatencyScore(), node::DEFAULT_MAX_ORPHANAGE_LATENCY_SCORE); 336 337 orphanage->SanityCheck(); 338 } 339 340 // Test eviction of multiple transactions at a time 341 { 342 // Create a large transaction that is 10 times larger than the normal size transaction. 343 CMutableTransaction tx_large; 344 tx_large.vin.resize(1); 345 BulkTransaction(tx_large, 10 * TX_SIZE); 346 auto ptx_large = MakeTransactionRef(tx_large); 347 348 const auto large_tx_size = GetTransactionWeight(*ptx_large); 349 BOOST_CHECK(large_tx_size > 10 * TX_SIZE); 350 BOOST_CHECK(large_tx_size < 11 * TX_SIZE); 351 352 auto orphanage = node::MakeTxOrphanage(20, large_tx_size); 353 // One peer sends 10 normal size transactions. The other peer sends 10 normal transactions and 1 very large one 354 NodeId peer_normal{0}; 355 NodeId peer_large{1}; 356 for (unsigned int i = 0; i < 20; i++) { 357 orphanage->AddTx(txns.at(i), i < 10 ? peer_normal : peer_large); 358 } 359 BOOST_CHECK(orphanage->TotalLatencyScore() <= orphanage->MaxGlobalLatencyScore()); 360 BOOST_CHECK(orphanage->TotalOrphanUsage() <= orphanage->MaxGlobalUsage()); 361 362 // Add the large transaction. This should cause evictions of all the previous 10 transactions from that peer. 363 orphanage->AddTx(ptx_large, peer_large); 364 365 // peer_normal should still have 10 transactions, and peer_large should have 1. 366 BOOST_CHECK_EQUAL(orphanage->AnnouncementsFromPeer(peer_normal), 10); 367 BOOST_CHECK_EQUAL(orphanage->AnnouncementsFromPeer(peer_large), 1); 368 BOOST_CHECK(orphanage->HaveTxFromPeer(ptx_large->GetWitnessHash(), peer_large)); 369 BOOST_CHECK_EQUAL(orphanage->CountAnnouncements(), 11); 370 371 orphanage->SanityCheck(); 372 } 373 374 // Test that latency score includes number of inputs. 375 { 376 auto orphanage = node::MakeTxOrphanage(); 377 378 // Add 10 transactions with 9 inputs each. 379 std::vector<COutPoint> outpoints_9; 380 for (unsigned int j{0}; j < 9; ++j) { 381 outpoints_9.emplace_back(Txid::FromUint256(m_rng.rand256()), j); 382 } 383 for (unsigned int i{0}; i < 10; ++i) { 384 auto ptx = MakeTransactionSpending(outpoints_9, m_rng); 385 orphanage->AddTx(ptx, 0); 386 } 387 BOOST_CHECK_EQUAL(orphanage->CountAnnouncements(), 10); 388 BOOST_CHECK_EQUAL(orphanage->TotalLatencyScore(), 10); 389 390 // Add 10 transactions with 50 inputs each. 391 std::vector<COutPoint> outpoints_50; 392 for (unsigned int j{0}; j < 50; ++j) { 393 outpoints_50.emplace_back(Txid::FromUint256(m_rng.rand256()), j); 394 } 395 396 for (unsigned int i{0}; i < 10; ++i) { 397 CMutableTransaction tx; 398 std::shuffle(outpoints_50.begin(), outpoints_50.end(), m_rng); 399 auto ptx = MakeTransactionSpending(outpoints_50, m_rng); 400 BOOST_CHECK(orphanage->AddTx(ptx, 0)); 401 if (i < 5) BOOST_CHECK(!orphanage->AddTx(ptx, 1)); 402 } 403 // 10 of the 9-input transactions + 10 of the 50-input transactions + 5 more announcements of the 50-input transactions 404 BOOST_CHECK_EQUAL(orphanage->CountAnnouncements(), 25); 405 // Base of 25 announcements, plus 10 * 5 for the 50-input transactions (counted just once) 406 BOOST_CHECK_EQUAL(orphanage->TotalLatencyScore(), 25 + 50); 407 408 // Peer 0 sent all 20 transactions 409 BOOST_CHECK_EQUAL(orphanage->AnnouncementsFromPeer(0), 20); 410 BOOST_CHECK_EQUAL(orphanage->LatencyScoreFromPeer(0), 20 + 10 * 5); 411 412 // Peer 1 sent 5 of the 10 transactions with many inputs 413 BOOST_CHECK_EQUAL(orphanage->AnnouncementsFromPeer(1), 5); 414 BOOST_CHECK_EQUAL(orphanage->LatencyScoreFromPeer(1), 5 + 5 * 5); 415 416 orphanage->SanityCheck(); 417 } 418 } 419 BOOST_AUTO_TEST_CASE(DoS_mapOrphans) 420 { 421 // This test had non-deterministic coverage due to 422 // randomly selected seeds. 423 // This seed is chosen so that all branches of the function 424 // ecdsa_signature_parse_der_lax are executed during this test. 425 // Specifically branches that run only when an ECDSA 426 // signature's R and S values have leading zeros. 427 m_rng.Reseed(uint256{33}); 428 429 std::unique_ptr<node::TxOrphanage> orphanage{node::MakeTxOrphanage()}; 430 CKey key; 431 MakeNewKeyWithFastRandomContext(key, m_rng); 432 FillableSigningProvider keystore; 433 BOOST_CHECK(keystore.AddKey(key)); 434 435 NodeClockContext clock_ctx{}; 436 437 std::vector<CTransactionRef> orphans_added; 438 439 // 50 orphan transactions: 440 for (int i = 0; i < 50; i++) 441 { 442 CMutableTransaction tx; 443 tx.vin.resize(1); 444 tx.vin[0].prevout.n = 0; 445 tx.vin[0].prevout.hash = Txid::FromUint256(m_rng.rand256()); 446 tx.vin[0].scriptSig << OP_1; 447 tx.vout.resize(1); 448 tx.vout[0].nValue = i*CENT; 449 tx.vout[0].scriptPubKey = GetScriptForDestination(PKHash(key.GetPubKey())); 450 451 auto ptx = MakeTransactionRef(tx); 452 orphanage->AddTx(ptx, i); 453 orphans_added.emplace_back(ptx); 454 } 455 456 // ... and 50 that depend on other orphans: 457 for (int i = 0; i < 50; i++) 458 { 459 const auto& txPrev = orphans_added[m_rng.randrange(orphans_added.size())]; 460 461 CMutableTransaction tx; 462 tx.vin.resize(1); 463 tx.vin[0].prevout.n = 0; 464 tx.vin[0].prevout.hash = txPrev->GetHash(); 465 tx.vout.resize(1); 466 tx.vout[0].nValue = i*CENT; 467 tx.vout[0].scriptPubKey = GetScriptForDestination(PKHash(key.GetPubKey())); 468 SignatureData empty; 469 BOOST_CHECK(SignSignature(keystore, *txPrev, tx, 0, SIGHASH_ALL, empty)); 470 471 auto ptx = MakeTransactionRef(tx); 472 orphanage->AddTx(ptx, i); 473 orphans_added.emplace_back(ptx); 474 } 475 476 // This really-big orphan should be ignored: 477 for (int i = 0; i < 10; i++) 478 { 479 const auto& txPrev = orphans_added[m_rng.randrange(orphans_added.size())]; 480 481 CMutableTransaction tx; 482 tx.vout.resize(1); 483 tx.vout[0].nValue = 1*CENT; 484 tx.vout[0].scriptPubKey = GetScriptForDestination(PKHash(key.GetPubKey())); 485 tx.vin.resize(2777); 486 for (unsigned int j = 0; j < tx.vin.size(); j++) 487 { 488 tx.vin[j].prevout.n = j; 489 tx.vin[j].prevout.hash = txPrev->GetHash(); 490 } 491 SignatureData empty; 492 BOOST_CHECK(SignSignature(keystore, *txPrev, tx, 0, SIGHASH_ALL, empty)); 493 // Reuse same signature for other inputs 494 // (they don't have to be valid for this test) 495 for (unsigned int j = 1; j < tx.vin.size(); j++) 496 tx.vin[j].scriptSig = tx.vin[0].scriptSig; 497 498 BOOST_CHECK(!orphanage->AddTx(MakeTransactionRef(tx), i)); 499 } 500 501 size_t expected_num_orphans = orphanage->CountUniqueOrphans(); 502 503 // Non-existent peer; nothing should be deleted 504 orphanage->EraseForPeer(/*peer=*/-1); 505 BOOST_CHECK_EQUAL(orphanage->CountUniqueOrphans(), expected_num_orphans); 506 507 // Each of first three peers stored 508 // two transactions each. 509 for (NodeId i = 0; i < 3; i++) 510 { 511 orphanage->EraseForPeer(i); 512 expected_num_orphans -= 2; 513 BOOST_CHECK_EQUAL(orphanage->CountUniqueOrphans(), expected_num_orphans); 514 } 515 } 516 517 BOOST_AUTO_TEST_CASE(same_txid_diff_witness) 518 { 519 FastRandomContext det_rand{true}; 520 std::unique_ptr<node::TxOrphanage> orphanage{node::MakeTxOrphanage()}; 521 NodeId peer{0}; 522 523 std::vector<COutPoint> empty_outpoints; 524 auto parent = MakeTransactionSpending(empty_outpoints, det_rand); 525 526 // Create children to go into orphanage. 527 auto child_normal = MakeTransactionSpending({{parent->GetHash(), 0}}, det_rand); 528 auto child_mutated = MakeMutation(child_normal); 529 530 const auto& normal_wtxid = child_normal->GetWitnessHash(); 531 const auto& mutated_wtxid = child_mutated->GetWitnessHash(); 532 BOOST_CHECK(normal_wtxid != mutated_wtxid); 533 534 BOOST_CHECK(orphanage->AddTx(child_normal, peer)); 535 // EraseTx fails as transaction by this wtxid doesn't exist. 536 BOOST_CHECK_EQUAL(orphanage->EraseTx(mutated_wtxid), 0); 537 BOOST_CHECK(orphanage->HaveTx(normal_wtxid)); 538 BOOST_CHECK(orphanage->GetTx(normal_wtxid) == child_normal); 539 BOOST_CHECK(!orphanage->HaveTx(mutated_wtxid)); 540 BOOST_CHECK(orphanage->GetTx(mutated_wtxid) == nullptr); 541 542 // Must succeed. Both transactions should be present in orphanage. 543 BOOST_CHECK(orphanage->AddTx(child_mutated, peer)); 544 BOOST_CHECK(orphanage->HaveTx(normal_wtxid)); 545 BOOST_CHECK(orphanage->HaveTx(mutated_wtxid)); 546 547 // Outpoints map should track all entries: check that both are returned as children of the parent. 548 std::set<CTransactionRef> expected_children{child_normal, child_mutated}; 549 BOOST_CHECK(EqualTxns(expected_children, orphanage->GetChildrenFromSamePeer(parent, peer))); 550 551 // Erase by wtxid: mutated first 552 BOOST_CHECK_EQUAL(orphanage->EraseTx(mutated_wtxid), 1); 553 BOOST_CHECK(orphanage->HaveTx(normal_wtxid)); 554 BOOST_CHECK(!orphanage->HaveTx(mutated_wtxid)); 555 556 BOOST_CHECK_EQUAL(orphanage->EraseTx(normal_wtxid), 1); 557 BOOST_CHECK(!orphanage->HaveTx(normal_wtxid)); 558 BOOST_CHECK(!orphanage->HaveTx(mutated_wtxid)); 559 } 560 561 562 BOOST_AUTO_TEST_CASE(get_children) 563 { 564 FastRandomContext det_rand{true}; 565 std::vector<COutPoint> empty_outpoints; 566 567 auto parent1 = MakeTransactionSpending(empty_outpoints, det_rand); 568 auto parent2 = MakeTransactionSpending(empty_outpoints, det_rand); 569 570 // Make sure these parents have different txids otherwise this test won't make sense. 571 while (parent1->GetHash() == parent2->GetHash()) { 572 parent2 = MakeTransactionSpending(empty_outpoints, det_rand); 573 } 574 575 // Create children to go into orphanage. 576 auto child_p1n0 = MakeTransactionSpending({{parent1->GetHash(), 0}}, det_rand); 577 auto child_p2n1 = MakeTransactionSpending({{parent2->GetHash(), 1}}, det_rand); 578 // Spends the same tx twice. Should not cause duplicates. 579 auto child_p1n0_p1n1 = MakeTransactionSpending({{parent1->GetHash(), 0}, {parent1->GetHash(), 1}}, det_rand); 580 // Spends the same outpoint as previous tx. Should still be returned; don't assume outpoints are unique. 581 auto child_p1n0_p2n0 = MakeTransactionSpending({{parent1->GetHash(), 0}, {parent2->GetHash(), 0}}, det_rand); 582 583 const NodeId node0{0}; 584 const NodeId node1{1}; 585 const NodeId node2{2}; 586 const NodeId node3{3}; 587 588 // All orphans provided by node1 589 { 590 auto orphanage{node::MakeTxOrphanage()}; 591 BOOST_CHECK(orphanage->AddTx(child_p1n0, node1)); 592 BOOST_CHECK(orphanage->AddTx(child_p2n1, node1)); 593 BOOST_CHECK(orphanage->AddTx(child_p1n0_p1n1, node1)); 594 BOOST_CHECK(orphanage->AddTx(child_p1n0_p2n0, node1)); 595 596 // Also add some other announcers for the same transactions 597 BOOST_CHECK(!orphanage->AddTx(child_p1n0_p1n1, node0)); 598 BOOST_CHECK(!orphanage->AddTx(child_p2n1, node0)); 599 BOOST_CHECK(!orphanage->AddTx(child_p1n0, node3)); 600 601 602 std::vector<CTransactionRef> expected_parent1_children{child_p1n0_p2n0, child_p1n0_p1n1, child_p1n0}; 603 std::vector<CTransactionRef> expected_parent2_children{child_p1n0_p2n0, child_p2n1}; 604 605 BOOST_CHECK(expected_parent1_children == orphanage->GetChildrenFromSamePeer(parent1, node1)); 606 BOOST_CHECK(expected_parent2_children == orphanage->GetChildrenFromSamePeer(parent2, node1)); 607 608 // The peer must match 609 BOOST_CHECK(orphanage->GetChildrenFromSamePeer(parent1, node2).empty()); 610 BOOST_CHECK(orphanage->GetChildrenFromSamePeer(parent2, node2).empty()); 611 612 // There shouldn't be any children of this tx in the orphanage 613 BOOST_CHECK(orphanage->GetChildrenFromSamePeer(child_p1n0_p2n0, node1).empty()); 614 BOOST_CHECK(orphanage->GetChildrenFromSamePeer(child_p1n0_p2n0, node2).empty()); 615 } 616 617 // Orphans provided by node1 and node2 618 { 619 std::unique_ptr<node::TxOrphanage> orphanage{node::MakeTxOrphanage()}; 620 BOOST_CHECK(orphanage->AddTx(child_p1n0, node1)); 621 BOOST_CHECK(orphanage->AddTx(child_p2n1, node1)); 622 BOOST_CHECK(orphanage->AddTx(child_p1n0_p1n1, node2)); 623 BOOST_CHECK(orphanage->AddTx(child_p1n0_p2n0, node2)); 624 625 // +----------------+---------------+----------------------------------+ 626 // | | sender=node1 | sender=node2 | 627 // +----------------+---------------+----------------------------------+ 628 // | spends parent1 | child_p1n0 | child_p1n0_p1n1, child_p1n0_p2n0 | 629 // | spends parent2 | child_p2n1 | child_p1n0_p2n0 | 630 // +----------------+---------------+----------------------------------+ 631 632 // Children of parent1 from node1: 633 { 634 std::set<CTransactionRef> expected_parent1_node1{child_p1n0}; 635 636 BOOST_CHECK_EQUAL(orphanage->GetChildrenFromSamePeer(parent1, node1).size(), 1); 637 BOOST_CHECK(orphanage->HaveTxFromPeer(child_p1n0->GetWitnessHash(), node1)); 638 BOOST_CHECK(EqualTxns(expected_parent1_node1, orphanage->GetChildrenFromSamePeer(parent1, node1))); 639 } 640 641 // Children of parent2 from node1: 642 { 643 std::set<CTransactionRef> expected_parent2_node1{child_p2n1}; 644 645 BOOST_CHECK(EqualTxns(expected_parent2_node1, orphanage->GetChildrenFromSamePeer(parent2, node1))); 646 } 647 648 // Children of parent1 from node2: newest returned first. 649 { 650 std::vector<CTransactionRef> expected_parent1_node2{child_p1n0_p2n0, child_p1n0_p1n1}; 651 BOOST_CHECK(orphanage->HaveTxFromPeer(child_p1n0_p1n1->GetWitnessHash(), node2)); 652 BOOST_CHECK(orphanage->HaveTxFromPeer(child_p1n0_p2n0->GetWitnessHash(), node2)); 653 BOOST_CHECK(expected_parent1_node2 == orphanage->GetChildrenFromSamePeer(parent1, node2)); 654 } 655 656 // Children of parent2 from node2: 657 { 658 std::set<CTransactionRef> expected_parent2_node2{child_p1n0_p2n0}; 659 660 BOOST_CHECK_EQUAL(1, orphanage->GetChildrenFromSamePeer(parent2, node2).size()); 661 BOOST_CHECK(orphanage->HaveTxFromPeer(child_p1n0_p2n0->GetWitnessHash(), node2)); 662 BOOST_CHECK(EqualTxns(expected_parent2_node2, orphanage->GetChildrenFromSamePeer(parent2, node2))); 663 } 664 } 665 } 666 667 BOOST_AUTO_TEST_CASE(too_large_orphan_tx) 668 { 669 std::unique_ptr<node::TxOrphanage> orphanage{node::MakeTxOrphanage()}; 670 CMutableTransaction tx; 671 tx.vin.resize(1); 672 673 // check that txs larger than MAX_STANDARD_TX_WEIGHT are not added to the orphanage 674 BulkTransaction(tx, MAX_STANDARD_TX_WEIGHT + 4); 675 BOOST_CHECK_EQUAL(GetTransactionWeight(CTransaction(tx)), MAX_STANDARD_TX_WEIGHT + 4); 676 BOOST_CHECK(!orphanage->AddTx(MakeTransactionRef(tx), 0)); 677 678 tx.vout.clear(); 679 BulkTransaction(tx, MAX_STANDARD_TX_WEIGHT); 680 BOOST_CHECK_EQUAL(GetTransactionWeight(CTransaction(tx)), MAX_STANDARD_TX_WEIGHT); 681 BOOST_CHECK(orphanage->AddTx(MakeTransactionRef(tx), 0)); 682 } 683 684 BOOST_AUTO_TEST_CASE(process_block) 685 { 686 FastRandomContext det_rand{true}; 687 std::unique_ptr<node::TxOrphanage> orphanage{node::MakeTxOrphanage()}; 688 689 // Create outpoints that will be spent by transactions in the block 690 std::vector<COutPoint> outpoints; 691 const uint32_t num_outpoints{6}; 692 outpoints.reserve(num_outpoints); 693 for (uint32_t i{0}; i < num_outpoints; ++i) { 694 // All the hashes should be different, but change the n just in case. 695 outpoints.emplace_back(Txid::FromUint256(det_rand.rand256()), i); 696 } 697 698 CBlock block; 699 const NodeId node{0}; 700 701 auto control_tx = MakeTransactionSpending({}, det_rand); 702 BOOST_CHECK(orphanage->AddTx(control_tx, node)); 703 704 auto bo_tx_same_txid = MakeTransactionSpending({outpoints.at(0)}, det_rand); 705 BOOST_CHECK(orphanage->AddTx(bo_tx_same_txid, node)); 706 block.vtx.emplace_back(bo_tx_same_txid); 707 708 // 2 transactions with the same txid but different witness 709 auto b_tx_same_txid_diff_witness = MakeTransactionSpending({outpoints.at(1)}, det_rand); 710 block.vtx.emplace_back(b_tx_same_txid_diff_witness); 711 712 auto o_tx_same_txid_diff_witness = MakeMutation(b_tx_same_txid_diff_witness); 713 BOOST_CHECK(orphanage->AddTx(o_tx_same_txid_diff_witness, node)); 714 715 // 2 different transactions that spend the same input. 716 auto b_tx_conflict = MakeTransactionSpending({outpoints.at(2)}, det_rand); 717 block.vtx.emplace_back(b_tx_conflict); 718 719 auto o_tx_conflict = MakeTransactionSpending({outpoints.at(2)}, det_rand); 720 BOOST_CHECK(orphanage->AddTx(o_tx_conflict, node)); 721 722 // 2 different transactions that have 1 overlapping input. 723 auto b_tx_conflict_partial = MakeTransactionSpending({outpoints.at(3), outpoints.at(4)}, det_rand); 724 block.vtx.emplace_back(b_tx_conflict_partial); 725 726 auto o_tx_conflict_partial_2 = MakeTransactionSpending({outpoints.at(4), outpoints.at(5)}, det_rand); 727 BOOST_CHECK(orphanage->AddTx(o_tx_conflict_partial_2, node)); 728 729 orphanage->EraseForBlock(block); 730 for (const auto& expected_removed : {bo_tx_same_txid, o_tx_same_txid_diff_witness, o_tx_conflict, o_tx_conflict_partial_2}) { 731 const auto& expected_removed_wtxid = expected_removed->GetWitnessHash(); 732 BOOST_CHECK(!orphanage->HaveTx(expected_removed_wtxid)); 733 } 734 // Only remaining tx is control_tx 735 BOOST_CHECK_EQUAL(orphanage->CountUniqueOrphans(), 1); 736 BOOST_CHECK(orphanage->HaveTx(control_tx->GetWitnessHash())); 737 } 738 739 BOOST_AUTO_TEST_CASE(multiple_announcers) 740 { 741 const NodeId node0{0}; 742 const NodeId node1{1}; 743 const NodeId node2{2}; 744 size_t expected_total_count{0}; 745 FastRandomContext det_rand{true}; 746 std::unique_ptr<node::TxOrphanage> orphanage{node::MakeTxOrphanage()}; 747 748 // Check accounting per peer. 749 // Check that EraseForPeer works with multiple announcers. 750 { 751 auto ptx = MakeTransactionSpending({}, det_rand); 752 const auto& wtxid = ptx->GetWitnessHash(); 753 BOOST_CHECK(orphanage->AddTx(ptx, node0)); 754 BOOST_CHECK(orphanage->HaveTx(wtxid)); 755 expected_total_count += 1; 756 BOOST_CHECK_EQUAL(orphanage->CountUniqueOrphans(), expected_total_count); 757 758 // Adding again should do nothing. 759 BOOST_CHECK(!orphanage->AddTx(ptx, node0)); 760 BOOST_CHECK_EQUAL(orphanage->CountUniqueOrphans(), expected_total_count); 761 762 // We can add another tx with the same txid but different witness. 763 auto ptx_mutated{MakeMutation(ptx)}; 764 BOOST_CHECK(orphanage->AddTx(ptx_mutated, node0)); 765 BOOST_CHECK(orphanage->HaveTx(ptx_mutated->GetWitnessHash())); 766 expected_total_count += 1; 767 768 BOOST_CHECK(!orphanage->AddTx(ptx, node0)); 769 770 // Adding a new announcer should not change overall accounting. 771 BOOST_CHECK(orphanage->AddAnnouncer(ptx->GetWitnessHash(), node2)); 772 BOOST_CHECK_EQUAL(orphanage->CountUniqueOrphans(), expected_total_count); 773 774 // If we already have this announcer, AddAnnouncer returns false. 775 BOOST_CHECK(orphanage->HaveTxFromPeer(ptx->GetWitnessHash(), node2)); 776 BOOST_CHECK(!orphanage->AddAnnouncer(ptx->GetWitnessHash(), node2)); 777 778 // Same with using AddTx for an existing tx, which is equivalent to using AddAnnouncer 779 BOOST_CHECK(!orphanage->AddTx(ptx, node1)); 780 BOOST_CHECK_EQUAL(orphanage->CountUniqueOrphans(), expected_total_count); 781 782 // if EraseForPeer is called for an orphan with multiple announcers, the orphanage should only 783 // erase that peer from the announcers set. 784 orphanage->EraseForPeer(node0); 785 BOOST_CHECK(orphanage->HaveTx(ptx->GetWitnessHash())); 786 BOOST_CHECK(!orphanage->HaveTxFromPeer(ptx->GetWitnessHash(), node0)); 787 // node0 is the only one that announced ptx_mutated 788 BOOST_CHECK(!orphanage->HaveTx(ptx_mutated->GetWitnessHash())); 789 expected_total_count -= 1; 790 BOOST_CHECK_EQUAL(orphanage->CountUniqueOrphans(), expected_total_count); 791 792 // EraseForPeer should delete the orphan if it's the only announcer left. 793 orphanage->EraseForPeer(node1); 794 BOOST_CHECK_EQUAL(orphanage->CountUniqueOrphans(), expected_total_count); 795 BOOST_CHECK(orphanage->HaveTx(ptx->GetWitnessHash())); 796 orphanage->EraseForPeer(node2); 797 expected_total_count -= 1; 798 BOOST_CHECK_EQUAL(orphanage->CountUniqueOrphans(), expected_total_count); 799 BOOST_CHECK(!orphanage->HaveTx(ptx->GetWitnessHash())); 800 } 801 802 // Check that erasure for blocks removes for all peers. 803 { 804 CBlock block; 805 auto tx_block = MakeTransactionSpending({}, det_rand); 806 block.vtx.emplace_back(tx_block); 807 BOOST_CHECK(orphanage->AddTx(tx_block, node0)); 808 BOOST_CHECK(!orphanage->AddTx(tx_block, node1)); 809 810 expected_total_count += 1; 811 812 BOOST_CHECK_EQUAL(orphanage->CountUniqueOrphans(), expected_total_count); 813 814 orphanage->EraseForBlock(block); 815 816 expected_total_count -= 1; 817 818 BOOST_CHECK_EQUAL(orphanage->CountUniqueOrphans(), expected_total_count); 819 } 820 } 821 BOOST_AUTO_TEST_CASE(peer_worksets) 822 { 823 const NodeId node0{0}; 824 const NodeId node1{1}; 825 const NodeId node2{2}; 826 FastRandomContext det_rand{true}; 827 std::unique_ptr<node::TxOrphanage> orphanage{node::MakeTxOrphanage()}; 828 // AddChildrenToWorkSet should pick an announcer randomly 829 { 830 auto tx_missing_parent = MakeTransactionSpending({}, det_rand); 831 auto tx_orphan = MakeTransactionSpending({COutPoint{tx_missing_parent->GetHash(), 0}}, det_rand); 832 const auto& orphan_wtxid = tx_orphan->GetWitnessHash(); 833 834 // All 3 peers are announcers. 835 BOOST_CHECK(orphanage->AddTx(tx_orphan, node0)); 836 BOOST_CHECK(!orphanage->AddTx(tx_orphan, node1)); 837 BOOST_CHECK(orphanage->AddAnnouncer(orphan_wtxid, node2)); 838 for (NodeId node = node0; node <= node2; ++node) { 839 BOOST_CHECK(orphanage->HaveTxFromPeer(orphan_wtxid, node)); 840 } 841 842 // Parent accepted: child is added to 1 of 3 worksets. 843 auto newly_reconsiderable = orphanage->AddChildrenToWorkSet(*tx_missing_parent, det_rand); 844 BOOST_CHECK_EQUAL(newly_reconsiderable.size(), 1); 845 int node0_reconsider = orphanage->HaveTxToReconsider(node0); 846 int node1_reconsider = orphanage->HaveTxToReconsider(node1); 847 int node2_reconsider = orphanage->HaveTxToReconsider(node2); 848 BOOST_CHECK_EQUAL(node0_reconsider + node1_reconsider + node2_reconsider, 1); 849 850 NodeId assigned_peer; 851 if (node0_reconsider) { 852 assigned_peer = node0; 853 } else if (node1_reconsider) { 854 assigned_peer = node1; 855 } else { 856 BOOST_CHECK(node2_reconsider); 857 assigned_peer = node2; 858 } 859 860 // EraseForPeer also removes that tx from the workset. 861 orphanage->EraseForPeer(assigned_peer); 862 BOOST_CHECK_EQUAL(orphanage->GetTxToReconsider(node0), nullptr); 863 864 // Delete this tx, clearing the orphanage. 865 BOOST_CHECK_EQUAL(orphanage->EraseTx(orphan_wtxid), 1); 866 BOOST_CHECK_EQUAL(orphanage->CountUniqueOrphans(), 0); 867 for (NodeId node = node0; node <= node2; ++node) { 868 BOOST_CHECK_EQUAL(orphanage->GetTxToReconsider(node), nullptr); 869 BOOST_CHECK(!orphanage->HaveTxFromPeer(orphan_wtxid, node)); 870 } 871 } 872 } 873 BOOST_AUTO_TEST_SUITE_END()