Browse Source

Parallelised BlockQueue.

Setup for using TrieRoot.
cl-refactor
Gav Wood 10 years ago
parent
commit
ac60b992c6
  1. 12
      alethzero/Main.ui
  2. 9
      alethzero/MainWin.cpp
  3. 1
      alethzero/MainWin.h
  4. 3
      alethzero/OurWebThreeStubServer.cpp
  5. 33
      libdevcrypto/TrieHash.cpp
  6. 15
      libdevcrypto/TrieHash.h
  7. 34
      libethcore/BlockInfo.cpp
  8. 129
      libethereum/BlockChain.cpp
  9. 3
      libethereum/BlockChain.h
  10. 156
      libethereum/BlockQueue.cpp
  11. 34
      libethereum/BlockQueue.h
  12. 2
      libethereum/ClientBase.cpp
  13. 38
      libethereum/State.cpp
  14. 125
      libethereum/TransactionQueue.cpp
  15. 11
      libethereum/TransactionQueue.h
  16. 2
      test/libdevcrypto/trie.cpp

12
alethzero/Main.ui

@ -185,6 +185,7 @@
<addaction name="usePrivate"/>
<addaction name="jitvm"/>
<addaction name="retryUnknown"/>
<addaction name="confirm"/>
</widget>
<widget class="QMenu" name="menu_View">
<property name="title">
@ -1733,6 +1734,17 @@ font-size: 14pt</string>
<string>Prepare Next &amp;DAG</string>
</property>
</action>
<action name="confirm">
<property name="checkable">
<bool>true</bool>
</property>
<property name="checked">
<bool>true</bool>
</property>
<property name="text">
<string>Co&amp;nfirm Transactions</string>
</property>
</action>
</widget>
<layoutdefault spacing="6" margin="11"/>
<customwidgets>

9
alethzero/MainWin.cpp

@ -212,7 +212,7 @@ Main::Main(QWidget *parent) :
m_server->setIdentities(keysAsVector(owned()));
m_server->StartListening();
WebPage* webPage= new WebPage(this);
WebPage* webPage = new WebPage(this);
m_webPage = webPage;
connect(webPage, &WebPage::consoleMessage, [this](QString const& _msg) { Main::addConsoleMessage(_msg, QString()); });
ui->webView->setPage(m_webPage);
@ -368,6 +368,11 @@ Address Main::getCurrencies() const
return abiOut<Address>(ethereum()->call(c_newConfig, abiIn("lookup(uint256)", (u256)3)).output);
}
bool Main::doConfirm()
{
return ui->confirm->isChecked();
}
void Main::installNameRegWatch()
{
uninstallWatch(m_nameRegFilter);
@ -1151,7 +1156,7 @@ void Main::refreshBlockCount()
{
auto d = ethereum()->blockChain().details();
BlockQueueStatus b = ethereum()->blockQueueStatus();
ui->chainStatus->setText(QString("%3 ready %4 future %5 unknown %6 bad %1 #%2").arg(m_privateChain.size() ? "[" + m_privateChain + "] " : "testnet").arg(d.number).arg(b.ready).arg(b.future).arg(b.unknown).arg(b.bad));
ui->chainStatus->setText(QString("%3 ready %4 verifying %5 unverified %6 future %7 unknown %8 bad %1 #%2").arg(m_privateChain.size() ? "[" + m_privateChain + "] " : "testnet").arg(d.number).arg(b.verified).arg(b.verifying).arg(b.unverified).arg(b.future).arg(b.unknown).arg(b.bad));
}
void Main::on_turboMining_triggered()

1
alethzero/MainWin.h

@ -94,6 +94,7 @@ public:
dev::u256 gasPrice() const { return 10 * dev::eth::szabo; }
dev::eth::KeyManager& keyManager() override { return m_keyManager; }
bool doConfirm();
dev::Secret retrieveSecret(dev::Address const& _a) const override;

3
alethzero/OurWebThreeStubServer.cpp

@ -146,6 +146,9 @@ AddressHash OurAccountHolder::realAccounts() const
bool OurAccountHolder::validateTransaction(TransactionSkeleton const& _t, bool _toProxy)
{
if (!m_main->doConfirm())
return true;
if (_t.creation)
{
// show notice concerning the creation code. TODO: this needs entering into natspec.

33
test/libdevcrypto/TrieHash.cpp → libdevcrypto/TrieHash.cpp

@ -20,8 +20,8 @@
*/
#include "TrieHash.h"
#include <libdevcrypto/TrieCommon.h>
#include <libdevcrypto/TrieDB.h> // @TODO replace ASAP!
#include <libdevcrypto/SHA3.h>
#include <libethcore/Common.h>
using namespace std;
@ -197,4 +197,35 @@ h256 hash256(u256Map const& _s)
return sha3(s.out());
}
/*h256 orderedTrieRoot(std::vector<bytes> const& _data)
{
StringMap m;
unsigned j = 0;
for (auto i: _data)
m[asString(rlp(j++))] = asString(i);
return hash256(m);
}*/
h256 orderedTrieRoot(std::vector<bytesConstRef> const& _data)
{
MemoryDB db;
GenericTrieDB<MemoryDB> t(&db);
t.init();
unsigned j = 0;
for (auto i: _data)
t.insert(rlp(j++), i.toBytes());
return t.root();
}
h256 orderedTrieRoot(std::vector<bytes> const& _data)
{
MemoryDB db;
GenericTrieDB<MemoryDB> t(&db);
t.init();
unsigned j = 0;
for (auto i: _data)
t.insert(rlp(j++), i);
return t.root();
}
}

15
test/libdevcrypto/TrieHash.h → libdevcrypto/TrieHash.h

@ -31,4 +31,19 @@ bytes rlp256(StringMap const& _s);
h256 hash256(StringMap const& _s);
h256 hash256(u256Map const& _s);
/*h256 orderedTrieRoot(std::vector<bytes> const& _data);
template <class T, class U> inline h256 trieRootOver(unsigned _itemCount, T const& _getKey, U const& _getValue)
{
StringMap m;
for (unsigned i = 0; i < _itemCount; ++i)
m[asString(_getKey(i))] = asString(_getValue(i));
return hash256(m);
}*/
using bytesMap = std::unordered_map<bytes, bytes>;
h256 orderedTrieRoot(std::vector<bytesConstRef> const& _data);
h256 orderedTrieRoot(std::vector<bytes> const& _data);
}

34
libethcore/BlockInfo.cpp

@ -22,6 +22,7 @@
#include <libdevcore/Common.h>
#include <libdevcore/RLP.h>
#include <libdevcrypto/TrieDB.h>
#include <libdevcrypto/TrieHash.h>
#include <libethcore/Common.h>
#include <libethcore/Params.h>
#include "EthashAux.h"
@ -173,6 +174,9 @@ void BlockInfo::populateFromHeader(RLP const& _header, Strictness _s, h256 const
void BlockInfo::populate(bytesConstRef _block, Strictness _s, h256 const& _h)
{
RLP root(_block);
if (!root.isList())
BOOST_THROW_EXCEPTION(InvalidBlockFormat() << errinfo_comment("block needs to be a list") << BadFieldError(0, _block.toString()));
RLP header = root[0];
if (!header.isList())
@ -185,6 +189,8 @@ void BlockInfo::populate(bytesConstRef _block, Strictness _s, h256 const& _h)
BOOST_THROW_EXCEPTION(InvalidBlockFormat() << errinfo_comment("block uncles need to be a list") << BadFieldError(2, root[2].data().toString()));
}
struct BlockInfoDiagnosticsChannel: public LogChannel { static const char* name() { return EthBlue "" EthWhite ""; } static const int verbosity = 9; };
template <class T, class U> h256 trieRootOver(unsigned _itemCount, T const& _getKey, U const& _getValue)
{
MemoryDB db;
@ -195,17 +201,41 @@ template <class T, class U> h256 trieRootOver(unsigned _itemCount, T const& _get
return t.root();
}
struct BlockInfoDiagnosticsChannel: public LogChannel { static const char* name() { return EthBlue "" EthWhite ""; } static const int verbosity = 9; };
void BlockInfo::verifyInternals(bytesConstRef _block) const
{
RLP root(_block);
auto txList = root[1];
auto expectedRoot = trieRootOver(txList.itemCount(), [&](unsigned i){ return rlp(i); }, [&](unsigned i){ return txList[i].data(); });
clog(BlockInfoDiagnosticsChannel) << "Expected trie root:" << toString(expectedRoot);
if (transactionsRoot != expectedRoot)
{
MemoryDB tm;
GenericTrieDB<MemoryDB> transactionsTrie(&tm);
transactionsTrie.init();
vector<bytesConstRef> txs;
for (unsigned i = 0; i < txList.itemCount(); ++i)
{
RLPStream k;
k << i;
transactionsTrie.insert(&k.out(), txList[i].data());
txs.push_back(txList[i].data());
cdebug << toHex(k.out()) << toHex(txList[i].data());
}
cdebug << "trieRootOver" << expectedRoot;
cdebug << "orderedTrieRoot" << orderedTrieRoot(txs);
cdebug << "TrieDB" << transactionsTrie.root();
cdebug << "Contents:";
for (auto const& t: txs)
cdebug << toHex(t);
BOOST_THROW_EXCEPTION(InvalidTransactionsHash() << HashMismatchError(expectedRoot, transactionsRoot));
}
clog(BlockInfoDiagnosticsChannel) << "Expected uncle hash:" << toString(sha3(root[2].data()));
if (sha3Uncles != sha3(root[2].data()))
BOOST_THROW_EXCEPTION(InvalidUnclesHash());

129
libethereum/BlockChain.cpp

@ -199,7 +199,7 @@ void BlockChain::close()
#define IGNORE_EXCEPTIONS(X) try { X; } catch (...) {}
void BlockChain::rebuild(std::string const& _path, std::function<void(unsigned, unsigned)> const& _progress)
void BlockChain::rebuild(std::string const& _path, std::function<void(unsigned, unsigned)> const& _progress, bool _prepPoW)
{
std::string path = _path.empty() ? Defaults::get()->m_dbPath : _path;
@ -252,7 +252,8 @@ void BlockChain::rebuild(std::string const& _path, std::function<void(unsigned,
bytes b = block(queryExtras<BlockHash, ExtraBlockHash>(h256(u256(d)), m_blockHashes, x_blockHashes, NullBlockHash, oldExtrasDB).value);
BlockInfo bi(b);
ProofOfWork::prep(bi);
if (_prepPoW)
ProofOfWork::prep(bi);
if (bi.parentHash != lastHash)
{
@ -306,7 +307,7 @@ tuple<h256s, h256s, bool> BlockChain::sync(BlockQueue& _bq, OverlayDB const& _st
{
// _bq.tick(*this);
vector<bytes> blocks;
vector<pair<BlockInfo, bytes>> blocks;
_bq.drain(blocks, _max);
h256s fresh;
@ -316,7 +317,7 @@ tuple<h256s, h256s, bool> BlockChain::sync(BlockQueue& _bq, OverlayDB const& _st
{
try
{
auto r = import(block, _stateDB);
auto r = import(block.first, block.second, _stateDB);
fresh += r.first;
dead += r.second;
}
@ -325,14 +326,14 @@ tuple<h256s, h256s, bool> BlockChain::sync(BlockQueue& _bq, OverlayDB const& _st
cwarn << "ODD: Import queue contains block with unknown parent." << LogTag::Error << boost::current_exception_diagnostic_information();
// NOTE: don't reimport since the queue should guarantee everything in the right order.
// Can't continue - chain bad.
badBlocks.push_back(BlockInfo::headerHash(block));
badBlocks.push_back(block.first.hash());
}
catch (Exception const& _e)
{
cnote << "Exception while importing block. Someone (Jeff? That you?) seems to be giving us dodgy blocks!" << LogTag::Error << diagnostic_information(_e);
// NOTE: don't reimport since the queue should guarantee everything in the right order.
// Can't continue - chain bad.
badBlocks.push_back(BlockInfo::headerHash(block));
badBlocks.push_back(block.first.hash());
}
}
return make_tuple(fresh, dead, _bq.doneDrain(badBlocks));
@ -364,18 +365,6 @@ pair<ImportResult, ImportRoute> BlockChain::attemptImport(bytes const& _block, O
ImportRoute BlockChain::import(bytes const& _block, OverlayDB const& _db, ImportRequirements::value _ir)
{
//@tidy This is a behemoth of a method - could do to be split into a few smaller ones.
#if ETH_TIMED_IMPORTS
boost::timer total;
double preliminaryChecks;
double enactment;
double collation;
double writing;
double checkBest;
boost::timer t;
#endif
// VERIFY: populates from the block and checks the block is internally coherent.
BlockInfo bi;
@ -383,11 +372,6 @@ ImportRoute BlockChain::import(bytes const& _block, OverlayDB const& _db, Import
try
#endif
{
RLP blockRLP(_block);
if (!blockRLP.isList())
BOOST_THROW_EXCEPTION(InvalidBlockFormat() << errinfo_comment("block header needs to be a list") << BadFieldError(0, blockRLP.data().toString()));
bi.populate(&_block);
bi.verifyInternals(&_block);
}
@ -400,29 +384,46 @@ ImportRoute BlockChain::import(bytes const& _block, OverlayDB const& _db, Import
}
#endif
return import(bi, _block, _db, _ir);
}
ImportRoute BlockChain::import(BlockInfo const& _bi, bytes const& _block, OverlayDB const& _db, ImportRequirements::value _ir)
{
//@tidy This is a behemoth of a method - could do to be split into a few smaller ones.
#if ETH_TIMED_IMPORTS
boost::timer total;
double preliminaryChecks;
double enactment;
double collation;
double writing;
double checkBest;
boost::timer t;
#endif
// Check block doesn't already exist first!
if (isKnown(bi.hash()) && (_ir & ImportRequirements::DontHave))
if (isKnown(_bi.hash()) && (_ir & ImportRequirements::DontHave))
{
clog(BlockChainNote) << bi.hash() << ": Not new.";
clog(BlockChainNote) << _bi.hash() << ": Not new.";
BOOST_THROW_EXCEPTION(AlreadyHaveBlock());
}
// Work out its number as the parent's number + 1
if (!isKnown(bi.parentHash))
if (!isKnown(_bi.parentHash))
{
clog(BlockChainNote) << bi.hash() << ": Unknown parent " << bi.parentHash;
clog(BlockChainNote) << _bi.hash() << ": Unknown parent " << _bi.parentHash;
// We don't know the parent (yet) - discard for now. It'll get resent to us if we find out about its ancestry later on.
BOOST_THROW_EXCEPTION(UnknownParent());
}
auto pd = details(bi.parentHash);
auto pd = details(_bi.parentHash);
if (!pd)
{
auto pdata = pd.rlp();
clog(BlockChainDebug) << "Details is returning false despite block known:" << RLP(pdata);
auto parentBlock = block(bi.parentHash);
clog(BlockChainDebug) << "isKnown:" << isKnown(bi.parentHash);
clog(BlockChainDebug) << "last/number:" << m_lastBlockNumber << m_lastBlockHash << bi.number;
auto parentBlock = block(_bi.parentHash);
clog(BlockChainDebug) << "isKnown:" << isKnown(_bi.parentHash);
clog(BlockChainDebug) << "last/number:" << m_lastBlockNumber << m_lastBlockHash << _bi.number;
clog(BlockChainDebug) << "Block:" << BlockInfo(parentBlock);
clog(BlockChainDebug) << "RLP:" << RLP(parentBlock);
clog(BlockChainDebug) << "DATABASE CORRUPTION: CRITICAL FAILURE";
@ -430,14 +431,14 @@ ImportRoute BlockChain::import(bytes const& _block, OverlayDB const& _db, Import
}
// Check it's not crazy
if (bi.timestamp > (u256)time(0))
if (_bi.timestamp > (u256)time(0))
{
clog(BlockChainChat) << bi.hash() << ": Future time " << bi.timestamp << " (now at " << time(0) << ")";
clog(BlockChainChat) << _bi.hash() << ": Future time " << _bi.timestamp << " (now at " << time(0) << ")";
// Block has a timestamp in the future. This is no good.
BOOST_THROW_EXCEPTION(FutureTime());
}
clog(BlockChainChat) << "Attempting import of " << bi.hash() << "...";
clog(BlockChainChat) << "Attempting import of " << _bi.hash() << "...";
#if ETH_TIMED_IMPORTS
preliminaryChecks = t.elapsed();
@ -457,7 +458,7 @@ ImportRoute BlockChain::import(bytes const& _block, OverlayDB const& _db, Import
// Check transactions are valid and that they result in a state equivalent to our state_root.
// Get total difficulty increase and update state, checking it.
State s(_db);
auto tdIncrease = s.enactOn(&_block, bi, *this, _ir);
auto tdIncrease = s.enactOn(&_block, _bi, *this, _ir);
BlockLogBlooms blb;
BlockReceipts br;
@ -493,22 +494,22 @@ ImportRoute BlockChain::import(bytes const& _block, OverlayDB const& _db, Import
// together with an "ensureCachedWithUpdatableLock(l)" method.
// This is safe in practice since the caches don't get flushed nearly often enough to be
// done here.
details(bi.parentHash);
details(_bi.parentHash);
DEV_WRITE_GUARDED(x_details)
m_details[bi.parentHash].children.push_back(bi.hash());
m_details[_bi.parentHash].children.push_back(_bi.hash());
#if ETH_TIMED_IMPORTS || !ETH_TRUE
collation = t.elapsed();
t.restart();
#endif
blocksBatch.Put(toSlice(bi.hash()), (ldb::Slice)ref(_block));
blocksBatch.Put(toSlice(_bi.hash()), (ldb::Slice)ref(_block));
DEV_READ_GUARDED(x_details)
extrasBatch.Put(toSlice(bi.parentHash, ExtraDetails), (ldb::Slice)dev::ref(m_details[bi.parentHash].rlp()));
extrasBatch.Put(toSlice(_bi.parentHash, ExtraDetails), (ldb::Slice)dev::ref(m_details[_bi.parentHash].rlp()));
extrasBatch.Put(toSlice(bi.hash(), ExtraDetails), (ldb::Slice)dev::ref(BlockDetails((unsigned)pd.number + 1, td, bi.parentHash, {}).rlp()));
extrasBatch.Put(toSlice(bi.hash(), ExtraLogBlooms), (ldb::Slice)dev::ref(blb.rlp()));
extrasBatch.Put(toSlice(bi.hash(), ExtraReceipts), (ldb::Slice)dev::ref(br.rlp()));
extrasBatch.Put(toSlice(_bi.hash(), ExtraDetails), (ldb::Slice)dev::ref(BlockDetails((unsigned)pd.number + 1, td, _bi.parentHash, {}).rlp()));
extrasBatch.Put(toSlice(_bi.hash(), ExtraLogBlooms), (ldb::Slice)dev::ref(blb.rlp()));
extrasBatch.Put(toSlice(_bi.hash(), ExtraReceipts), (ldb::Slice)dev::ref(br.rlp()));
#if ETH_TIMED_IMPORTS || !ETH_TRUE
writing = t.elapsed();
@ -526,20 +527,20 @@ ImportRoute BlockChain::import(bytes const& _block, OverlayDB const& _db, Import
{
clog(BlockChainWarn) << " Malformed block: " << diagnostic_information(_e);
_e << errinfo_comment("Malformed block ");
clog(BlockChainWarn) << "Block: " << bi.hash();
clog(BlockChainWarn) << bi;
clog(BlockChainWarn) << "Block parent: " << bi.parentHash;
clog(BlockChainWarn) << BlockInfo(block(bi.parentHash));
clog(BlockChainWarn) << "Block: " << _bi.hash();
clog(BlockChainWarn) << _bi;
clog(BlockChainWarn) << "Block parent: " << _bi.parentHash;
clog(BlockChainWarn) << BlockInfo(block(_bi.parentHash));
throw;
}
#endif
StructuredLogger::chainReceivedNewBlock(
bi.headerHash(WithoutNonce).abridged(),
bi.nonce.abridged(),
_bi.headerHash(WithoutNonce).abridged(),
_bi.nonce.abridged(),
currentHash().abridged(),
"", // TODO: remote id ??
bi.parentHash.abridged()
_bi.parentHash.abridged()
);
// cnote << "Parent " << bi.parentHash << " has " << details(bi.parentHash).children.size() << " children.";
@ -552,8 +553,8 @@ ImportRoute BlockChain::import(bytes const& _block, OverlayDB const& _db, Import
// don't include bi.hash() in treeRoute, since it's not yet in details DB...
// just tack it on afterwards.
unsigned commonIndex;
tie(route, common, commonIndex) = treeRoute(last, bi.parentHash);
route.push_back(bi.hash());
tie(route, common, commonIndex) = treeRoute(last, _bi.parentHash);
route.push_back(_bi.hash());
// Most of the time these two will be equal - only when we're doing a chain revert will they not be
if (common != last)
@ -565,8 +566,8 @@ ImportRoute BlockChain::import(bytes const& _block, OverlayDB const& _db, Import
for (auto i = route.rbegin(); i != route.rend() && *i != common; ++i)
{
BlockInfo tbi;
if (*i == bi.hash())
tbi = bi;
if (*i == _bi.hash())
tbi = _bi;
else
tbi = BlockInfo(block(*i));
@ -593,7 +594,7 @@ ImportRoute BlockChain::import(bytes const& _block, OverlayDB const& _db, Import
h256s newTransactionAddresses;
{
bytes blockBytes;
RLP blockRLP(*i == bi.hash() ? _block : (blockBytes = block(*i)));
RLP blockRLP(*i == _bi.hash() ? _block : (blockBytes = block(*i)));
TransactionAddress ta;
ta.blockHash = tbi.hash();
for (ta.index = 0; ta.index < blockRLP[1].itemCount(); ++ta.index)
@ -609,17 +610,17 @@ ImportRoute BlockChain::import(bytes const& _block, OverlayDB const& _db, Import
// FINALLY! change our best hash.
{
newLastBlockHash = bi.hash();
newLastBlockNumber = (unsigned)bi.number;
newLastBlockHash = _bi.hash();
newLastBlockNumber = (unsigned)_bi.number;
}
clog(BlockChainNote) << " Imported and best" << td << " (#" << bi.number << "). Has" << (details(bi.parentHash).children.size() - 1) << "siblings. Route:" << route;
clog(BlockChainNote) << " Imported and best" << td << " (#" << _bi.number << "). Has" << (details(_bi.parentHash).children.size() - 1) << "siblings. Route:" << route;
StructuredLogger::chainNewHead(
bi.headerHash(WithoutNonce).abridged(),
bi.nonce.abridged(),
_bi.headerHash(WithoutNonce).abridged(),
_bi.nonce.abridged(),
currentHash().abridged(),
bi.parentHash.abridged()
_bi.parentHash.abridged()
);
}
else
@ -630,21 +631,21 @@ ImportRoute BlockChain::import(bytes const& _block, OverlayDB const& _db, Import
m_blocksDB->Write(m_writeOptions, &blocksBatch);
m_extrasDB->Write(m_writeOptions, &extrasBatch);
if (isKnown(bi.hash()) && !details(bi.hash()))
if (isKnown(_bi.hash()) && !details(_bi.hash()))
{
clog(BlockChainDebug) << "Known block just inserted has no details.";
clog(BlockChainDebug) << "Block:" << bi;
clog(BlockChainDebug) << "Block:" << _bi;
clog(BlockChainDebug) << "DATABASE CORRUPTION: CRITICAL FAILURE";
exit(-1);
}
try {
State canary(_db, *this, bi.hash(), ImportRequirements::DontHave);
State canary(_db, *this, _bi.hash(), ImportRequirements::DontHave);
}
catch (...)
{
clog(BlockChainDebug) << "Failed to initialise State object form imported block.";
clog(BlockChainDebug) << "Block:" << bi;
clog(BlockChainDebug) << "Block:" << _bi;
clog(BlockChainDebug) << "DATABASE CORRUPTION: CRITICAL FAILURE";
exit(-1);
}

3
libethereum/BlockChain.h

@ -120,6 +120,7 @@ public:
/// Import block into disk-backed DB
/// @returns the block hashes of any blocks that came into/went out of the canonical block chain.
ImportRoute import(bytes const& _block, OverlayDB const& _stateDB, ImportRequirements::value _ir = ImportRequirements::Default);
ImportRoute import(BlockInfo const& _bi, bytes const& _block, OverlayDB const& _stateDB, ImportRequirements::value _ir = ImportRequirements::Default);
/// Returns true if the given block is known (though not necessarily a part of the canon chain).
bool isKnown(h256 const& _hash) const;
@ -210,7 +211,7 @@ public:
/// Run through database and verify all blocks by reevaluating.
/// Will call _progress with the progress in this operation first param done, second total.
void rebuild(std::string const& _path, ProgressCallback const& _progress = std::function<void(unsigned, unsigned)>());
void rebuild(std::string const& _path, ProgressCallback const& _progress = std::function<void(unsigned, unsigned)>(), bool _prepPoW = false);
/** @returns a tuple of:
* - an vector of hashes of all blocks between @a _from and @a _to, all blocks are ordered first by a number of

156
libethereum/BlockQueue.cpp

@ -20,7 +20,7 @@
*/
#include "BlockQueue.h"
#include <thread>
#include <libdevcore/Log.h>
#include <libethcore/Exceptions.h>
#include <libethcore/BlockInfo.h>
@ -35,6 +35,106 @@ const char* BlockQueueChannel::name() { return EthOrange "[]>"; }
const char* BlockQueueChannel::name() { return EthOrange "▣┅▶"; }
#endif
BlockQueue::BlockQueue()
{
for (unsigned i = 0; i < thread::hardware_concurrency(); ++i)
m_verifiers.emplace_back([=](){
setThreadName("verifier" + toString(i));
this->verifierBody();
});
}
BlockQueue::~BlockQueue()
{
m_deleting = true;
m_moreToVerify.notify_all();
for (auto& i: m_verifiers)
i.join();
}
void BlockQueue::verifierBody()
{
while (!m_deleting)
{
std::pair<h256, bytes> work;
{
unique_lock<Mutex> l(m_verification);
m_moreToVerify.wait(l, [&](){ return !m_unverified.empty() || m_deleting; });
swap(work, m_unverified.front());
m_unverified.pop_front();
BlockInfo bi;
bi.mixHash = work.first;
m_verifying.push_back(make_pair(bi, bytes()));
cdebug << "Verifying" << bi.mixHash;
}
std::pair<BlockInfo, bytes> res;
swap(work.second, res.second);
try {
res.first.populate(res.second, CheckEverything, work.first);
res.first.verifyInternals(&res.second);
}
catch (...)
{
// bad block.
{
// has to be this order as that's how invariants() assumes.
WriteGuard l2(m_lock);
unique_lock<Mutex> l(m_verification);
m_readySet.erase(work.first);
m_knownBad.insert(work.first);
}
unique_lock<Mutex> l(m_verification);
for (auto it = m_verifying.begin(); it != m_verifying.end(); ++it)
if (it->first.mixHash == work.first)
{
cdebug << "Cancel verifying" << work.first;
m_verifying.erase(it);
goto OK1;
}
cwarn << "GAA BlockQueue corrupt: job cancelled but cannot be found in m_verifying queue.";
OK1:;
continue;
}
bool ready = false;
{
unique_lock<Mutex> l(m_verification);
if (m_verifying.front().first.mixHash == work.first)
{
// we're next!
cdebug << "Verifyied" << work.first;
m_verifying.pop_front();
m_verified.push_back(move(res));
while (m_verifying.size() && !m_verifying.front().second.empty())
{
cdebug << "Pre-verified" << m_verifying.front().first.hash();
m_verified.push_back(move(m_verifying.front()));
m_verifying.pop_front();
}
ready = true;
}
else
{
for (auto& i: m_verifying)
if (i.first.mixHash == work.first)
{
cdebug << "Delay-verified" << work.first << " (replacing with " << res << ")";
i = move(res);
goto OK;
}
cwarn << "GAA BlockQueue corrupt: job finished but cannot be found in m_verifying queue.";
OK:;
}
}
if (ready)
m_onReady();
}
}
ImportResult BlockQueue::import(bytesConstRef _block, BlockChain const& _bc, bool _isOurs)
{
// Check if we already know this block.
@ -110,11 +210,13 @@ ImportResult BlockQueue::import(bytesConstRef _block, BlockChain const& _bc, boo
{
// If valid, append to blocks.
cblockq << "OK - ready for chain insertion.";
m_ready.push_back(make_pair(h, _block.toBytes()));
DEV_GUARDED(m_verification)
m_unverified.push_back(make_pair(h, _block.toBytes()));
m_moreToVerify.notify_one();
m_readySet.insert(h);
noteReady_WITH_LOCK(h);
m_onReady();
return ImportResult::Success;
}
}
@ -127,18 +229,19 @@ bool BlockQueue::doneDrain(h256s const& _bad)
m_drainingSet.clear();
if (_bad.size())
{
vector<pair<h256, bytes>> old;
swap(m_ready, old);
vector<pair<BlockInfo, bytes>> old;
DEV_GUARDED(m_verification)
swap(m_verified, old);
for (auto& b: old)
{
BlockInfo bi(b.second);
if (m_knownBad.count(bi.parentHash))
if (m_knownBad.count(b.first.parentHash))
{
m_knownBad.insert(b.first);
m_readySet.erase(b.first);
m_knownBad.insert(b.first.hash());
m_readySet.erase(b.first.hash());
}
else
m_ready.push_back(std::move(b));
DEV_GUARDED(m_verification)
m_verified.push_back(std::move(b));
}
}
m_knownBad += _bad;
@ -197,62 +300,73 @@ QueueStatus BlockQueue::blockStatus(h256 const& _h) const
QueueStatus::Unknown;
}
void BlockQueue::drain(std::vector<bytes>& o_out, unsigned _max)
void BlockQueue::drain(std::vector<std::pair<BlockInfo, bytes>>& o_out, unsigned _max)
{
WriteGuard l(m_lock);
DEV_INVARIANT_CHECK;
if (m_drainingSet.empty())
{
o_out.resize(min<unsigned>(_max, m_ready.size()));
for (unsigned i = 0; i < o_out.size(); ++i)
swap(o_out[i], m_ready[i].second);
m_ready.erase(m_ready.begin(), advanced(m_ready.begin(), o_out.size()));
DEV_GUARDED(m_verification)
{
o_out.resize(min<unsigned>(_max, m_verified.size()));
for (unsigned i = 0; i < o_out.size(); ++i)
swap(o_out[i], m_verified[i]);
m_verified.erase(m_verified.begin(), advanced(m_verified.begin(), o_out.size()));
}
for (auto const& bs: o_out)
{
// TODO: @optimise use map<h256, bytes> rather than vector<bytes> & set<h256>.
auto h = BlockInfo::headerHash(bs);
auto h = bs.first.hash();
m_drainingSet.insert(h);
m_readySet.erase(h);
}
// swap(o_out, m_ready);
// swap(m_drainingSet, m_readySet);
}
}
bool BlockQueue::invariants() const
{
return m_readySet.size() == m_ready.size();
Guard l(m_verification);
return m_readySet.size() == m_verified.size() + m_unverified.size() + m_verifying.size();
}
void BlockQueue::noteReady_WITH_LOCK(h256 const& _good)
{
DEV_INVARIANT_CHECK;
list<h256> goodQueue(1, _good);
bool notify = false;
while (!goodQueue.empty())
{
auto r = m_unknown.equal_range(goodQueue.front());
goodQueue.pop_front();
for (auto it = r.first; it != r.second; ++it)
{
m_ready.push_back(it->second);
DEV_GUARDED(m_verification)
m_unverified.push_back(it->second);
auto newReady = it->second.first;
m_unknownSet.erase(newReady);
m_readySet.insert(newReady);
goodQueue.push_back(newReady);
notify = true;
}
m_unknown.erase(r.first, r.second);
}
if (notify)
m_moreToVerify.notify_all();
}
void BlockQueue::retryAllUnknown()
{
WriteGuard l(m_lock);
DEV_INVARIANT_CHECK;
for (auto it = m_unknown.begin(); it != m_unknown.end(); ++it)
{
m_ready.push_back(it->second);
DEV_GUARDED(m_verification)
m_unverified.push_back(it->second);
auto newReady = it->second.first;
m_unknownSet.erase(newReady);
m_readySet.insert(newReady);
m_moreToVerify.notify_one();
}
m_unknown.clear();
m_moreToVerify.notify_all();
}

34
libethereum/BlockQueue.h

@ -21,12 +21,15 @@
#pragma once
#include <condition_variable>
#include <thread>
#include <boost/thread.hpp>
#include <libdevcore/Common.h>
#include <libdevcore/Log.h>
#include <libethcore/Common.h>
#include <libdevcore/Guards.h>
#include <libethcore/Common.h>
#include <libethcore/BlockInfo.h>
namespace dev
{
@ -41,7 +44,9 @@ struct BlockQueueChannel: public LogChannel { static const char* name(); static
struct BlockQueueStatus
{
size_t ready;
size_t verified;
size_t verifying;
size_t unverified;
size_t future;
size_t unknown;
size_t bad;
@ -64,6 +69,9 @@ enum class QueueStatus
class BlockQueue: HasInvariants
{
public:
BlockQueue();
~BlockQueue();
/// Import a block into the queue.
ImportResult import(bytesConstRef _tx, BlockChain const& _bc, bool _isOurs = false);
@ -72,7 +80,7 @@ public:
/// Grabs at most @a _max of the blocks that are ready, giving them in the correct order for insertion into the chain.
/// Don't forget to call doneDrain() once you're done importing.
void drain(std::vector<bytes>& o_out, unsigned _max);
void drain(std::vector<std::pair<BlockInfo, bytes>>& o_out, unsigned _max);
/// Must be called after a drain() call. Notes that the drained blocks have been imported into the blockchain, so we can forget about them.
/// @returns true iff there are additional blocks ready to be processed.
@ -85,16 +93,16 @@ public:
void retryAllUnknown();
/// Get information on the items queued.
std::pair<unsigned, unsigned> items() const { ReadGuard l(m_lock); return std::make_pair(m_ready.size(), m_unknown.size()); }
std::pair<unsigned, unsigned> items() const { ReadGuard l(m_lock); return std::make_pair(m_verified.size(), m_unknown.size()); }
/// Clear everything.
void clear() { WriteGuard l(m_lock); DEV_INVARIANT_CHECK; m_readySet.clear(); m_drainingSet.clear(); m_ready.clear(); m_unknownSet.clear(); m_unknown.clear(); m_future.clear(); }
void clear() { WriteGuard l(m_lock); DEV_INVARIANT_CHECK; Guard l2(m_verification); m_readySet.clear(); m_drainingSet.clear(); m_verified.clear(); m_unverified.clear(); m_unknownSet.clear(); m_unknown.clear(); m_future.clear(); }
/// Return first block with an unknown parent.
h256 firstUnknown() const { ReadGuard l(m_lock); return m_unknownSet.size() ? *m_unknownSet.begin() : h256(); }
/// Get some infomration on the current status.
BlockQueueStatus status() const { ReadGuard l(m_lock); return BlockQueueStatus{m_ready.size(), m_future.size(), m_unknown.size(), m_knownBad.size()}; }
BlockQueueStatus status() const { ReadGuard l(m_lock); Guard l2(m_verification); return BlockQueueStatus{m_verified.size(), m_verifying.size(), m_unverified.size(), m_future.size(), m_unknown.size(), m_knownBad.size()}; }
/// Get some infomration on the given block's status regarding us.
QueueStatus blockStatus(h256 const& _h) const;
@ -106,15 +114,25 @@ private:
bool invariants() const override;
mutable boost::shared_mutex m_lock; ///< General lock.
void verifierBody();
mutable boost::shared_mutex m_lock; ///< General lock for the sets, m_future and m_unknown.
h256Hash m_drainingSet; ///< All blocks being imported.
h256Hash m_readySet; ///< All blocks ready for chain-import.
std::vector<std::pair<h256, bytes>> m_ready; ///< List of blocks, in correct order, ready for chain-import.
h256Hash m_readySet; ///< All blocks ready for chain import.
h256Hash m_unknownSet; ///< Set of all blocks whose parents are not ready/in-chain.
std::unordered_multimap<h256, std::pair<h256, bytes>> m_unknown; ///< For blocks that have an unknown parent; we map their parent hash to the block stuff, and insert once the block appears.
h256Hash m_knownBad; ///< Set of blocks that we know will never be valid.
std::multimap<unsigned, std::pair<h256, bytes>> m_future; ///< Set of blocks that are not yet valid. Ordered by timestamp
Signal m_onReady; ///< Called when a subsequent call to import blocks will return a non-empty container. Be nice and exit fast.
mutable Mutex m_verification; ///< Mutex that allows writing to m_verified, m_verifying and m_unverified.
std::condition_variable m_moreToVerify; ///< Signaled when m_unverified has a new entry.
std::vector<std::pair<BlockInfo, bytes>> m_verified; ///< List of blocks, in correct order, verified and ready for chain-import.
std::deque<std::pair<BlockInfo, bytes>> m_verifying; ///< List of blocks being verified; as long as the second component (bytes) is empty, it's not finished.
std::deque<std::pair<h256, bytes>> m_unverified; ///< List of blocks, in correct order, ready for verification.
std::vector<std::thread> m_verifiers; ///< Threads who only verify.
bool m_deleting = false; ///< Exit condition for verifiers.
};
}

2
libethereum/ClientBase.cpp

@ -57,7 +57,7 @@ void ClientBase::submitTransaction(Secret _secret, u256 _value, Address _dest, b
m_tq.import(t.rlp());
StructuredLogger::transactionReceived(t.sha3().abridged(), t.sender().abridged());
cnote << "New transaction " << t;
cnote << "New transaction " << t << "(maxNonce for sender" << a << "is" << m_tq.maxNonce(a) << ")";
}
Address ClientBase::submitTransaction(Secret _secret, u256 _endowment, bytes const& _init, u256 _gas, u256 _gasPrice)

38
libethereum/State.cpp

@ -29,6 +29,7 @@
#include <libdevcore/CommonIO.h>
#include <libdevcore/Assertions.h>
#include <libdevcore/StructuredLogger.h>
#include <libdevcrypto/TrieHash.h>
#include <libevmcore/Instruction.h>
#include <libethcore/Exceptions.h>
#include <libevm/VMFactory.h>
@ -516,10 +517,10 @@ pair<TransactionReceipts, bool> State::sync(BlockChain const& _bc, TransactionQu
cnote << i.first << "Dropping old transaction (nonce too low)";
_tq.drop(i.first);
}
else if (got > req + 25)
else if (got > req + _tq.waiting(i.second.sender()))
{
// too new
cnote << i.first << "Dropping new transaction (> 25 nonces ahead)";
cnote << i.first << "Dropping new transaction (too many nonces ahead)";
_tq.drop(i.first);
}
else
@ -534,7 +535,12 @@ pair<TransactionReceipts, bool> State::sync(BlockChain const& _bc, TransactionQu
_tq.drop(i.first);
}
else
_tq.setFuture(i);
{
// Temporarily no gas left in current block.
// OPTIMISE: could note this and then we don't evaluate until a block that does have the gas left.
// for now, just leave alone.
// _tq.setFuture(i);
}
}
catch (Exception const& _e)
{
@ -592,34 +598,33 @@ u256 State::enact(bytesConstRef _block, BlockChain const& _bc, ImportRequirement
LastHashes lh = _bc.lastHashes((unsigned)m_previousBlock.number);
RLP rlp(_block);
vector<bytes> receipts;
// All ok with the block generally. Play back the transactions now...
unsigned i = 0;
for (auto const& tr: rlp[1])
{
RLPStream k;
k << i;
transactionsTrie.insert(&k.out(), tr.data());
execute(lh, Transaction(tr.data(), CheckTransaction::Everything));
RLPStream receiptrlp;
m_receipts.back().streamRLP(receiptrlp);
receiptsTrie.insert(&k.out(), &receiptrlp.out());
RLPStream receiptRLP;
m_receipts.back().streamRLP(receiptRLP);
receipts.push_back(receiptRLP.out());
++i;
}
if (receiptsTrie.root() != m_currentBlock.receiptsRoot)
auto receiptsRoot = orderedTrieRoot(receipts);
if (receiptsRoot != m_currentBlock.receiptsRoot)
{
cwarn << "Bad receipts state root.";
cwarn << "Expected: " << toString(receiptsTrie.root()) << " received: " << toString(m_currentBlock.receiptsRoot);
cwarn << "Expected: " << toString(receiptsRoot) << " received: " << toString(m_currentBlock.receiptsRoot);
cwarn << "Block:" << toHex(_block);
cwarn << "Block RLP:" << rlp;
cwarn << "Calculated: " << receiptsTrie.root();
cwarn << "Calculated: " << receiptsRoot;
for (unsigned j = 0; j < i; ++j)
{
RLPStream k;
k << j;
auto b = asBytes(receiptsTrie.at(&k.out()));
auto b = receipts[j];
cwarn << j << ": ";
cwarn << "RLP: " << RLP(b);
cwarn << "Hex: " << toHex(b);
@ -835,6 +840,9 @@ void State::commitToMine(BlockChain const& _bc)
}
}
// TODO: move over to using TrieHash
MemoryDB tm;
GenericTrieDB<MemoryDB> transactionsTrie(&tm);
transactionsTrie.init();

125
libethereum/TransactionQueue.cpp

@ -35,20 +35,26 @@ ImportResult TransactionQueue::import(bytesConstRef _transactionRLP, ImportCallb
// Check if we already know this transaction.
h256 h = sha3(_transactionRLP);
Transaction t;
ImportResult ir;
{
UpgradableGuard l(m_lock);
auto ir = check_WITH_LOCK(h, _ik);
ir = check_WITH_LOCK(h, _ik);
if (ir != ImportResult::Success)
return ir;
try {
Transaction t(_transactionRLP, CheckTransaction::Everything);
t = Transaction(_transactionRLP, CheckTransaction::Everything);
UpgradeGuard ul(l);
return manageImport_WITH_LOCK(h, t, _cb);
ir = manageImport_WITH_LOCK(h, t, _cb);
}
catch (...) {
return ImportResult::Malformed;
}
}
// cdebug << "import-END: Nonce of" << t.sender() << "now" << maxNonce(t.sender());
return ir;
}
ImportResult TransactionQueue::check_WITH_LOCK(h256 const& _h, IfDropped _ik)
@ -67,15 +73,23 @@ ImportResult TransactionQueue::import(Transaction const& _transaction, ImportCal
// Check if we already know this transaction.
h256 h = _transaction.sha3(WithSignature);
UpgradableGuard l(m_lock);
// TODO: keep old transactions around and check in State for nonce validity
// cdebug << "import-BEGIN: Nonce of sender" << maxNonce(_transaction.sender());
ImportResult ret;
{
UpgradableGuard l(m_lock);
// TODO: keep old transactions around and check in State for nonce validity
auto ir = check_WITH_LOCK(h, _ik);
if (ir != ImportResult::Success)
return ir;
auto ir = check_WITH_LOCK(h, _ik);
if (ir != ImportResult::Success)
return ir;
UpgradeGuard ul(l);
return manageImport_WITH_LOCK(h, _transaction, _cb);
{
UpgradeGuard ul(l);
ret = manageImport_WITH_LOCK(h, _transaction, _cb);
}
}
// cdebug << "import-END: Nonce of" << _transaction.sender() << "now" << maxNonce(_transaction.sender());
return ret;
}
ImportResult TransactionQueue::manageImport_WITH_LOCK(h256 const& _h, Transaction const& _transaction, ImportCallback const& _cb)
@ -110,62 +124,95 @@ ImportResult TransactionQueue::manageImport_WITH_LOCK(h256 const& _h, Transactio
u256 TransactionQueue::maxNonce(Address const& _a) const
{
cdebug << "txQ::maxNonce" << _a;
// cdebug << "txQ::maxNonce" << _a;
ReadGuard l(m_lock);
u256 ret = 0;
auto r = m_senders.equal_range(_a);
for (auto it = r.first; it != r.second; ++it)
{
cdebug << it->first << "1+" << m_current.at(it->second).nonce();
DEV_IGNORE_EXCEPTIONS(ret = max(ret, m_current.at(it->second).nonce() + 1));
}
if (m_current.count(it->second))
{
// cdebug << it->first << "1+" << m_current.at(it->second).nonce();
ret = max(ret, m_current.at(it->second).nonce() + 1);
}
else if (m_future.count(it->second))
{
// cdebug << it->first << "1+" << m_future.at(it->second).nonce();
ret = max(ret, m_future.at(it->second).nonce() + 1);
}
else
{
cwarn << "ERRROR!!!!! m_senders references non-current transaction";
cwarn << "Sender" << it->first << "has transaction" << it->second;
cwarn << "Count of m_current for" << it->second << "is" << m_current.count(it->second);
}
return ret;
}
void TransactionQueue::insertCurrent_WITH_LOCK(std::pair<h256, Transaction> const& _p)
{
cdebug << "txQ::insertCurrent" << _p.first << _p.second.sender() << _p.second.nonce();
// cdebug << "txQ::insertCurrent" << _p.first << _p.second.sender() << _p.second.nonce();
m_senders.insert(make_pair(_p.second.sender(), _p.first));
if (m_current.count(_p.first))
cwarn << "Transaction hash" << _p.first << "already in current?!";
m_current.insert(_p);
}
bool TransactionQueue::removeCurrent_WITH_LOCK(h256 const& _txHash)
bool TransactionQueue::remove_WITH_LOCK(h256 const& _txHash)
{
cdebug << "txQ::removeCurrent" << _txHash;
if (m_current.count(_txHash))
// cdebug << "txQ::remove" << _txHash;
for (std::unordered_map<h256, Transaction>* pool: { &m_current, &m_future })
{
auto r = m_senders.equal_range(m_current[_txHash].sender());
for (auto it = r.first; it != r.second; ++it)
if (it->second == _txHash)
{
cdebug << "=> sender" << it->first;
m_senders.erase(it);
break;
}
cdebug << "=> nonce" << m_current[_txHash].nonce();
m_current.erase(_txHash);
return true;
auto pit = pool->find(_txHash);
if (pit != pool->end())
{
auto r = m_senders.equal_range(pit->second.sender());
for (auto i = r.first; i != r.second; ++i)
if (i->second == _txHash)
{
m_senders.erase(i);
break;
}
cdebug << "=> nonce" << pit->second.nonce();
pool->erase(pit);
return true;
}
}
return false;
}
unsigned TransactionQueue::waiting(Address const& _a) const
{
auto it = m_senders.equal_range(_a);
unsigned ret = 0;
for (auto i = it.first; i != it.second; ++i, ++ret) {}
return ret;
}
void TransactionQueue::setFuture(std::pair<h256, Transaction> const& _t)
{
// cdebug << "txQ::setFuture" << _t.first;
WriteGuard l(m_lock);
if (m_current.count(_t.first))
{
m_unknown.insert(make_pair(_t.second.sender(), _t));
m_future.insert(_t);
m_current.erase(_t.first);
}
}
void TransactionQueue::noteGood(std::pair<h256, Transaction> const& _t)
{
// cdebug << "txQ::noteGood" << _t.first;
WriteGuard l(m_lock);
auto r = m_unknown.equal_range(_t.second.sender());
auto r = m_senders.equal_range(_t.second.sender());
for (auto it = r.first; it != r.second; ++it)
m_current.insert(it->second);
m_unknown.erase(r.first, r.second);
{
auto fit = m_future.find(it->second);
if (fit != m_future.end())
{
m_current.insert(*fit);
m_future.erase(fit);
}
}
}
void TransactionQueue::drop(h256 const& _txHash)
@ -179,13 +226,5 @@ void TransactionQueue::drop(h256 const& _txHash)
m_dropped.insert(_txHash);
m_known.erase(_txHash);
if (!removeCurrent_WITH_LOCK(_txHash))
{
for (auto i = m_unknown.begin(); i != m_unknown.end(); ++i)
if (i->second.first == _txHash)
{
m_unknown.erase(i);
break;
}
}
remove_WITH_LOCK(_txHash);
}

11
libethereum/TransactionQueue.h

@ -55,14 +55,15 @@ public:
void drop(h256 const& _txHash);
unsigned waiting(Address const& _a) const;
std::unordered_map<h256, Transaction> transactions() const { ReadGuard l(m_lock); return m_current; }
std::pair<unsigned, unsigned> items() const { ReadGuard l(m_lock); return std::make_pair(m_current.size(), m_unknown.size()); }
std::pair<unsigned, unsigned> items() const { ReadGuard l(m_lock); return std::make_pair(m_current.size(), m_future.size()); }
u256 maxNonce(Address const& _a) const;
void setFuture(std::pair<h256, Transaction> const& _t);
void noteGood(std::pair<h256, Transaction> const& _t);
void clear() { WriteGuard l(m_lock); m_known.clear(); m_current.clear(); m_unknown.clear(); }
void clear() { WriteGuard l(m_lock); m_senders.clear(); m_known.clear(); m_current.clear(); m_future.clear(); }
template <class T> Handler onReady(T const& _t) { return m_onReady.add(_t); }
private:
@ -70,15 +71,15 @@ private:
ImportResult manageImport_WITH_LOCK(h256 const& _h, Transaction const& _transaction, ImportCallback const& _cb);
void insertCurrent_WITH_LOCK(std::pair<h256, Transaction> const& _p);
bool removeCurrent_WITH_LOCK(h256 const& _txHash);
bool remove_WITH_LOCK(h256 const& _txHash);
mutable SharedMutex m_lock; ///< General lock.
h256Hash m_known; ///< Hashes of transactions in both sets.
std::unordered_multimap<Address, h256> m_senders; ///< Mapping from the sender address to the transaction hash; useful for determining the nonce of a given sender.
std::unordered_map<h256, Transaction> m_current; ///< Map of SHA3(tx) to tx.
std::unordered_multimap<Address, std::pair<h256, Transaction>> m_unknown; ///< For transactions that have a future nonce; we map their sender address to the tx stuff, and insert once the sender has a valid TX.
std::unordered_map<h256, Transaction> m_future; ///< For transactions that have a future nonce; we re-insert into current once the sender has a valid TX.
std::unordered_map<h256, std::function<void(ImportResult)>> m_callbacks; ///< Called once.
h256Hash m_dropped; ///< Transactions that have previously been dropped.
std::multimap<Address, h256> m_senders; ///< Mapping from the sender address to the transaction hash; useful for determining the nonce of a given sender.
Signal m_onReady; ///< Called when a subsequent call to import transactions will return a non-empty container. Be nice and exit fast.
};

2
test/libdevcrypto/trie.cpp

@ -28,7 +28,7 @@
#include "../JsonSpiritHeaders.h"
#include <libdevcore/CommonIO.h>
#include <libdevcrypto/TrieDB.h>
#include "TrieHash.h"
#include <libdevcrypto/TrieHash.h>
#include "MemTrie.h"
#include "../TestHelper.h"

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