Files
xahaud/src/test/app/LedgerReplay_test.cpp
Wietse Wind 26cd629d28 Merge/2.2.2 jobqueue (#360)
* Merge fbbea9e6e2

* Merge 7741483894

* clang-format

* Oops

---------

Co-authored-by: Wietse Wind <wrw@Wietses-MacBook-Pro.local>
2024-09-07 15:22:15 +10:00

1610 lines
47 KiB
C++

//------------------------------------------------------------------------------
/*
This file is part of rippled: https://github.com/ripple/rippled
Copyright (c) 2020 Ripple Labs Inc.
Permission to use, copy, modify, and/or distribute this software for any
purpose with or without fee is hereby granted, provided that the above
copyright notice and this permission notice appear in all copies.
THE SOFTWARE IS PROVIDED "AS IS" AND THE AUTHOR DISCLAIMS ALL WARRANTIES
WITH REGARD TO THIS SOFTWARE INCLUDING ALL IMPLIED WARRANTIES OF
MERCHANTABILITY AND FITNESS. IN NO EVENT SHALL THE AUTHOR BE LIABLE FOR
ANY SPECIAL , DIRECT, INDIRECT, OR CONSEQUENTIAL DAMAGES OR ANY DAMAGES
WHATSOEVER RESULTING FROM LOSS OF USE, DATA OR PROFITS, WHETHER IN AN
ACTION OF CONTRACT, NEGLIGENCE OR OTHER TORTIOUS ACTION, ARISING OUT OF
OR IN CONNECTION WITH THE USE OR PERFORMANCE OF THIS SOFTWARE.
*/
//==============================================================================
#include <ripple/app/ledger/BuildLedger.h>
#include <ripple/app/ledger/LedgerMaster.h>
#include <ripple/app/ledger/LedgerReplay.h>
#include <ripple/app/ledger/LedgerReplayTask.h>
#include <ripple/app/ledger/LedgerReplayer.h>
#include <ripple/app/ledger/impl/LedgerDeltaAcquire.h>
#include <ripple/app/ledger/impl/LedgerReplayMsgHandler.h>
#include <ripple/app/ledger/impl/SkipListAcquire.h>
#include <ripple/basics/Slice.h>
#include <ripple/overlay/PeerSet.h>
#include <ripple/overlay/impl/PeerImp.h>
#include <test/jtx.h>
#include <test/jtx/envconfig.h>
#include <chrono>
#include <thread>
namespace ripple {
namespace test {
struct LedgerReplay_test : public beast::unit_test::suite
{
void
run() override
{
testcase("Replay ledger");
using namespace jtx;
// Build a ledger normally
auto const alice = Account("alice");
auto const bob = Account("bob");
Env env(*this);
env.fund(XRP(100000), alice, bob);
env.close();
LedgerMaster& ledgerMaster = env.app().getLedgerMaster();
auto const lastClosed = ledgerMaster.getClosedLedger();
auto const lastClosedParent =
ledgerMaster.getLedgerByHash(lastClosed->info().parentHash);
auto const replayed = buildLedger(
LedgerReplay(lastClosedParent, lastClosed),
tapNONE,
env.app(),
env.journal);
BEAST_EXPECT(replayed->info().hash == lastClosed->info().hash);
}
};
enum class InboundLedgersBehavior {
Good,
DropAll,
};
/**
* Simulate a network InboundLedgers.
* Depending on the configured InboundLedgersBehavior,
* it either provides the ledger or not
*/
class MagicInboundLedgers : public InboundLedgers
{
public:
MagicInboundLedgers(
LedgerMaster& ledgerSource,
LedgerMaster& ledgerSink,
InboundLedgersBehavior bhvr)
: ledgerSource(ledgerSource), ledgerSink(ledgerSink), bhvr(bhvr)
{
}
virtual ~MagicInboundLedgers() = default;
virtual std::shared_ptr<Ledger const>
acquire(uint256 const& hash, std::uint32_t seq, InboundLedger::Reason)
override
{
if (bhvr == InboundLedgersBehavior::DropAll)
return {};
if (auto l = ledgerSource.getLedgerByHash(hash); l)
{
ledgerSink.storeLedger(l);
return l;
}
return {};
}
virtual void
acquireAsync(
uint256 const& hash,
std::uint32_t seq,
InboundLedger::Reason reason) override
{
}
virtual std::shared_ptr<InboundLedger>
find(LedgerHash const& hash) override
{
return {};
}
virtual bool
gotLedgerData(
LedgerHash const& ledgerHash,
std::shared_ptr<Peer>,
std::shared_ptr<protocol::TMLedgerData>) override
{
return false;
}
virtual void
gotStaleData(std::shared_ptr<protocol::TMLedgerData> packet) override
{
}
virtual void
logFailure(uint256 const& h, std::uint32_t seq) override
{
}
virtual bool
isFailure(uint256 const& h) override
{
return false;
}
virtual void
clearFailures() override
{
}
virtual Json::Value
getInfo() override
{
return {};
}
virtual std::size_t
fetchRate() override
{
return 0;
}
virtual void
onLedgerFetched() override
{
}
virtual void
gotFetchPack() override
{
}
virtual void
sweep() override
{
}
virtual void
stop() override
{
}
LedgerMaster& ledgerSource;
LedgerMaster& ledgerSink;
InboundLedgersBehavior bhvr;
};
enum class PeerFeature {
LedgerReplayEnabled,
None,
};
/**
* Simulate a network peer.
* Depending on the configured PeerFeature,
* it either supports the ProtocolFeature::LedgerReplay or not
*/
class TestPeer : public Peer
{
public:
TestPeer(bool enableLedgerReplay) : ledgerReplayEnabled_(enableLedgerReplay)
{
}
void
send(std::shared_ptr<Message> const& m) override
{
}
beast::IP::Endpoint
getRemoteAddress() const override
{
return {};
}
void
charge(Resource::Charge const& fee) override
{
}
id_t
id() const override
{
return 1234;
}
bool
cluster() const override
{
return false;
}
bool
isHighLatency() const override
{
return false;
}
int
getScore(bool) const override
{
return 0;
}
PublicKey const&
getNodePublic() const override
{
static PublicKey key{};
return key;
}
Json::Value
json() override
{
return {};
}
bool
supportsFeature(ProtocolFeature f) const override
{
if (f == ProtocolFeature::LedgerReplay && ledgerReplayEnabled_)
return true;
return false;
}
std::optional<std::size_t>
publisherListSequence(PublicKey const&) const override
{
return {};
}
void
setPublisherListSequence(PublicKey const&, std::size_t const) override
{
}
uint256 const&
getClosedLedgerHash() const override
{
static uint256 hash{};
return hash;
}
bool
hasLedger(uint256 const& hash, std::uint32_t seq) const override
{
return true;
}
void
ledgerRange(std::uint32_t& minSeq, std::uint32_t& maxSeq) const override
{
}
bool
hasTxSet(uint256 const& hash) const override
{
return false;
}
void
cycleStatus() override
{
}
bool
hasRange(std::uint32_t uMin, std::uint32_t uMax) override
{
return false;
}
bool
compressionEnabled() const override
{
return false;
}
void
sendTxQueue() override
{
}
void
addTxQueue(const uint256&) override
{
}
void
removeTxQueue(const uint256&) override
{
}
bool
txReduceRelayEnabled() const override
{
return false;
}
bool ledgerReplayEnabled_;
};
enum class PeerSetBehavior {
Good,
Drop50,
DropAll,
DropSkipListReply,
DropLedgerDeltaReply,
Repeat,
};
/**
* Simulate a peerSet that supplies peers to ledger replay subtasks.
* It connects the ledger replay client side and server side message handlers.
* Depending on the configured PeerSetBehavior,
* it may drop or repeat some of the messages.
*/
struct TestPeerSet : public PeerSet
{
TestPeerSet(
LedgerReplayMsgHandler& me,
LedgerReplayMsgHandler& other,
PeerSetBehavior bhvr,
bool enableLedgerReplay)
: local(me)
, remote(other)
, dummyPeer(std::make_shared<TestPeer>(enableLedgerReplay))
, behavior(bhvr)
{
}
void
addPeers(
std::size_t limit,
std::function<bool(std::shared_ptr<Peer> const&)> hasItem,
std::function<void(std::shared_ptr<Peer> const&)> onPeerAdded) override
{
hasItem(dummyPeer);
onPeerAdded(dummyPeer);
}
void
sendRequest(
::google::protobuf::Message const& msg,
protocol::MessageType type,
std::shared_ptr<Peer> const& peer) override
{
int dropRate = 0;
if (behavior == PeerSetBehavior::Drop50)
dropRate = 50;
else if (behavior == PeerSetBehavior::DropAll)
dropRate = 100;
if ((rand() % 100 + 1) <= dropRate)
return;
switch (type)
{
case protocol::mtPROOF_PATH_REQ: {
if (behavior == PeerSetBehavior::DropSkipListReply)
return;
auto request = std::make_shared<protocol::TMProofPathRequest>(
dynamic_cast<protocol::TMProofPathRequest const&>(msg));
auto reply = std::make_shared<protocol::TMProofPathResponse>(
remote.processProofPathRequest(request));
local.processProofPathResponse(reply);
if (behavior == PeerSetBehavior::Repeat)
local.processProofPathResponse(reply);
break;
}
case protocol::mtREPLAY_DELTA_REQ: {
if (behavior == PeerSetBehavior::DropLedgerDeltaReply)
return;
auto request = std::make_shared<protocol::TMReplayDeltaRequest>(
dynamic_cast<protocol::TMReplayDeltaRequest const&>(msg));
auto reply = std::make_shared<protocol::TMReplayDeltaResponse>(
remote.processReplayDeltaRequest(request));
local.processReplayDeltaResponse(reply);
if (behavior == PeerSetBehavior::Repeat)
local.processReplayDeltaResponse(reply);
break;
}
default:
return;
}
}
const std::set<Peer::id_t>&
getPeerIds() const override
{
static std::set<Peer::id_t> emptyPeers;
return emptyPeers;
}
LedgerReplayMsgHandler& local;
LedgerReplayMsgHandler& remote;
std::shared_ptr<TestPeer> dummyPeer;
PeerSetBehavior behavior;
};
/**
* Build the TestPeerSet.
*/
class TestPeerSetBuilder : public PeerSetBuilder
{
public:
TestPeerSetBuilder(
LedgerReplayMsgHandler& me,
LedgerReplayMsgHandler& other,
PeerSetBehavior bhvr,
PeerFeature peerFeature)
: local(me)
, remote(other)
, behavior(bhvr)
, enableLedgerReplay(peerFeature == PeerFeature::LedgerReplayEnabled)
{
}
std::unique_ptr<PeerSet>
build() override
{
return std::make_unique<TestPeerSet>(
local, remote, behavior, enableLedgerReplay);
}
private:
LedgerReplayMsgHandler& local;
LedgerReplayMsgHandler& remote;
PeerSetBehavior behavior;
bool enableLedgerReplay;
};
/**
* Utility class for (1) creating ledgers with txns and
* (2) providing the ledgers via the ledgerMaster
*/
struct LedgerServer
{
struct Parameter
{
int initLedgers;
int initAccounts = 10;
int initAmount = 1'000'000;
int numTxPerLedger = 10;
int txAmount = 10;
};
LedgerServer(beast::unit_test::suite& suite, Parameter const& p)
: env(suite)
, app(env.app())
, ledgerMaster(env.app().getLedgerMaster())
, msgHandler(env.app(), env.app().getLedgerReplayer())
, param(p)
{
assert(param.initLedgers > 0);
createAccounts(param.initAccounts);
createLedgerHistory();
app.logs().threshold(beast::severities::kWarning);
}
/**
* @note close a ledger
*/
void
createAccounts(int newAccounts)
{
auto fundedAccounts = accounts.size();
for (int i = 0; i < newAccounts; ++i)
{
accounts.emplace_back(
"alice_" + std::to_string(fundedAccounts + i));
env.fund(jtx::XRP(param.initAmount), accounts.back());
}
env.close();
}
/**
* @note close a ledger
*/
void
sendPayments(int newTxes)
{
int fundedAccounts = accounts.size();
assert(fundedAccounts >= newTxes);
std::unordered_set<int> senders;
// somewhat random but reproducible
int r = ledgerMaster.getClosedLedger()->seq() * 7;
int fromIdx = 0;
int toIdx = 0;
auto updateIdx = [&]() {
assert(fundedAccounts > senders.size());
fromIdx = (fromIdx + r) % fundedAccounts;
while (senders.count(fromIdx) != 0)
fromIdx = (fromIdx + 1) % fundedAccounts;
senders.insert(fromIdx);
toIdx = (toIdx + r * 2) % fundedAccounts;
if (toIdx == fromIdx)
toIdx = (toIdx + 1) % fundedAccounts;
};
for (int i = 0; i < newTxes; ++i)
{
updateIdx();
env.apply(
pay(accounts[fromIdx],
accounts[toIdx],
jtx::drops(ledgerMaster.getClosedLedger()->fees().base) +
jtx::XRP(param.txAmount)),
jtx::seq(jtx::autofill),
jtx::fee(jtx::autofill),
jtx::sig(jtx::autofill));
}
env.close();
}
/**
* create ledger history
*/
void
createLedgerHistory()
{
for (int i = 0; i < param.initLedgers - 1; ++i)
{
sendPayments(param.numTxPerLedger);
}
}
jtx::Env env;
Application& app;
LedgerMaster& ledgerMaster;
LedgerReplayMsgHandler msgHandler;
Parameter param;
std::vector<jtx::Account> accounts;
};
enum class TaskStatus {
Failed,
Completed,
NotDone,
NotExist,
};
/**
* Ledger replay client side.
* It creates the LedgerReplayer which has the client side logic.
* The client side and server side message handlers are connect via
* the peerSet to pass the requests and responses.
* It also has utility functions for checking task status
*/
class LedgerReplayClient
{
public:
LedgerReplayClient(
beast::unit_test::suite& suite,
LedgerServer& server,
PeerSetBehavior behavior = PeerSetBehavior::Good,
InboundLedgersBehavior inboundBhvr = InboundLedgersBehavior::Good,
PeerFeature peerFeature = PeerFeature::LedgerReplayEnabled)
: env(suite,
jtx::envconfig(jtx::port_increment, 3),
nullptr,
beast::severities::kDisabled)
, app(env.app())
, ledgerMaster(env.app().getLedgerMaster())
, inboundLedgers(
server.app.getLedgerMaster(),
ledgerMaster,
inboundBhvr)
, serverMsgHandler(server.app, server.app.getLedgerReplayer())
, clientMsgHandler(env.app(), replayer)
, replayer(
env.app(),
inboundLedgers,
std::make_unique<TestPeerSetBuilder>(
clientMsgHandler,
serverMsgHandler,
behavior,
peerFeature))
{
}
void
addLedger(std::shared_ptr<Ledger const> const& l)
{
ledgerMaster.storeLedger(l);
}
bool
haveLedgers(uint256 const& finishLedgerHash, int totalReplay)
{
uint256 hash = finishLedgerHash;
int i = 0;
for (; i < totalReplay; ++i)
{
auto const l = ledgerMaster.getLedgerByHash(hash);
if (!l)
return false;
hash = l->info().parentHash;
}
return true;
}
bool
waitForLedgers(uint256 const& finishLedgerHash, int totalReplay)
{
int totalRound = 100;
for (int i = 0; i < totalRound; ++i)
{
if (haveLedgers(finishLedgerHash, totalReplay))
return true;
if (i < totalRound - 1)
std::this_thread::sleep_for(std::chrono::milliseconds(100));
}
return false;
}
bool
waitForDone()
{
int totalRound = 100;
for (int i = 0; i < totalRound; ++i)
{
bool allDone = true;
{
std::unique_lock<std::mutex> lock(replayer.mtx_);
for (auto const& t : replayer.tasks_)
{
if (!t->finished())
{
allDone = false;
break;
}
}
}
if (allDone)
return true;
if (i < totalRound - 1)
std::this_thread::sleep_for(std::chrono::milliseconds(100));
}
return false;
}
std::vector<std::shared_ptr<LedgerReplayTask>>
getTasks()
{
std::unique_lock<std::mutex> lock(replayer.mtx_);
return replayer.tasks_;
}
std::shared_ptr<LedgerReplayTask>
findTask(uint256 const& hash, int totalReplay)
{
std::unique_lock<std::mutex> lock(replayer.mtx_);
auto i = std::find_if(
replayer.tasks_.begin(), replayer.tasks_.end(), [&](auto const& t) {
return t->parameter_.finishHash_ == hash &&
t->parameter_.totalLedgers_ == totalReplay;
});
if (i == replayer.tasks_.end())
return {};
return *i;
}
std::size_t
countDeltas()
{
std::unique_lock<std::mutex> lock(replayer.mtx_);
return replayer.deltas_.size();
}
std::size_t
countSkipLists()
{
std::unique_lock<std::mutex> lock(replayer.mtx_);
return replayer.skipLists_.size();
}
bool
countsAsExpected(
std::size_t tasks,
std::size_t skipLists,
std::size_t deltas)
{
std::unique_lock<std::mutex> lock(replayer.mtx_);
return replayer.tasks_.size() == tasks &&
replayer.skipLists_.size() == skipLists &&
replayer.deltas_.size() == deltas;
}
std::shared_ptr<SkipListAcquire>
findSkipListAcquire(uint256 const& hash)
{
std::unique_lock<std::mutex> lock(replayer.mtx_);
auto i = replayer.skipLists_.find(hash);
if (i == replayer.skipLists_.end())
return {};
return i->second.lock();
}
std::shared_ptr<LedgerDeltaAcquire>
findLedgerDeltaAcquire(uint256 const& hash)
{
std::unique_lock<std::mutex> lock(replayer.mtx_);
auto i = replayer.deltas_.find(hash);
if (i == replayer.deltas_.end())
return {};
return i->second.lock();
}
template <typename T>
TaskStatus
taskStatus(std::shared_ptr<T> const& t)
{
if (t->failed_)
return TaskStatus::Failed;
if (t->complete_)
return TaskStatus::Completed;
return TaskStatus::NotDone;
}
bool
asExpected(
std::shared_ptr<LedgerReplayTask> const& task,
TaskStatus taskExpect,
TaskStatus skiplistExpect,
std::vector<TaskStatus> const& deltaExpects)
{
if (taskStatus(task) == taskExpect)
{
if (taskStatus(task->skipListAcquirer_) == skiplistExpect)
{
if (task->deltas_.size() == deltaExpects.size())
{
for (int i = 0; i < deltaExpects.size(); ++i)
{
if (taskStatus(task->deltas_[i]) != deltaExpects[i])
return false;
}
return true;
}
}
}
return false;
}
bool
asExpected(
uint256 const& hash,
int totalReplay,
TaskStatus taskExpect,
TaskStatus skiplistExpect,
std::vector<TaskStatus> const& deltaExpects)
{
auto t = findTask(hash, totalReplay);
if (!t)
{
if (taskExpect == TaskStatus::NotExist)
return true;
return false;
}
return asExpected(t, taskExpect, skiplistExpect, deltaExpects);
}
bool
checkStatus(
uint256 const& hash,
int totalReplay,
TaskStatus taskExpect,
TaskStatus skiplistExpect,
std::vector<TaskStatus> const& deltaExpects)
{
auto t = findTask(hash, totalReplay);
if (!t)
{
if (taskExpect == TaskStatus::NotExist)
return true;
return false;
}
return asExpected(t, taskExpect, skiplistExpect, deltaExpects);
}
bool
waitAndCheckStatus(
uint256 const& hash,
int totalReplay,
TaskStatus taskExpect,
TaskStatus skiplistExpect,
std::vector<TaskStatus> const& deltaExpects)
{
if (!waitForDone())
return false;
return checkStatus(
hash, totalReplay, taskExpect, skiplistExpect, deltaExpects);
}
jtx::Env env;
Application& app;
LedgerMaster& ledgerMaster;
MagicInboundLedgers inboundLedgers;
LedgerReplayMsgHandler serverMsgHandler;
LedgerReplayMsgHandler clientMsgHandler;
LedgerReplayer replayer;
};
using namespace beast::severities;
void
logAll(
LedgerServer& server,
LedgerReplayClient& client,
beast::severities::Severity level = Severity::kTrace)
{
server.app.logs().threshold(level);
client.app.logs().threshold(level);
}
// logAll(net.server, net.client);
/*
* Create a LedgerServer and a LedgerReplayClient
*/
struct NetworkOfTwo
{
NetworkOfTwo(
beast::unit_test::suite& suite,
LedgerServer::Parameter const& param,
PeerSetBehavior behavior = PeerSetBehavior::Good,
InboundLedgersBehavior inboundBhvr = InboundLedgersBehavior::Good,
PeerFeature peerFeature = PeerFeature::LedgerReplayEnabled)
: server(suite, param)
, client(suite, server, behavior, inboundBhvr, peerFeature)
{
// logAll(server, client);
}
LedgerServer server;
LedgerReplayClient client;
};
/**
* Test cases:
* LedgerReplayer_test:
* -- process TMProofPathRequest and TMProofPathResponse
* -- process TMReplayDeltaRequest and TMReplayDeltaResponse
* -- update and merge LedgerReplayTask::TaskParameter
* -- process [ledger_replay] section in config
* -- peer handshake
* -- replay a range of ledgers that the local node already has
* -- replay a range of ledgers and fallback to InboundLedgers because
* peers do not support ProtocolFeature::LedgerReplay
* -- replay a range of ledgers and the network drops or repeats messages
* -- call stop() and the tasks and subtasks are removed
* -- process a bad skip list
* -- process a bad ledger delta
* -- replay ledger ranges with different overlaps
*
* LedgerReplayerTimeout_test:
* -- timeouts of SkipListAcquire
* -- timeouts of LedgerDeltaAcquire
*
* LedgerReplayerLong_test: (MANUAL)
* -- call replayer.replay() 4 times to replay 1000 ledgers
*/
struct LedgerReplayer_test : public beast::unit_test::suite
{
void
testProofPath()
{
testcase("ProofPath");
LedgerServer server(*this, {1});
auto const l = server.ledgerMaster.getClosedLedger();
{
// request, missing key
auto request = std::make_shared<protocol::TMProofPathRequest>();
request->set_ledgerhash(
l->info().hash.data(), l->info().hash.size());
request->set_type(protocol::TMLedgerMapType::lmACCOUNT_STATE);
auto reply = std::make_shared<protocol::TMProofPathResponse>(
server.msgHandler.processProofPathRequest(request));
BEAST_EXPECT(reply->has_error());
BEAST_EXPECT(!server.msgHandler.processProofPathResponse(reply));
}
{
// request, wrong hash
auto request = std::make_shared<protocol::TMProofPathRequest>();
request->set_type(protocol::TMLedgerMapType::lmACCOUNT_STATE);
request->set_key(
keylet::skip().key.data(), keylet::skip().key.size());
uint256 hash(1234567);
request->set_ledgerhash(hash.data(), hash.size());
auto reply = std::make_shared<protocol::TMProofPathResponse>(
server.msgHandler.processProofPathRequest(request));
BEAST_EXPECT(reply->has_error());
}
{
// good request
auto request = std::make_shared<protocol::TMProofPathRequest>();
request->set_ledgerhash(
l->info().hash.data(), l->info().hash.size());
request->set_type(protocol::TMLedgerMapType::lmACCOUNT_STATE);
request->set_key(
keylet::skip().key.data(), keylet::skip().key.size());
// generate response
auto reply = std::make_shared<protocol::TMProofPathResponse>(
server.msgHandler.processProofPathRequest(request));
BEAST_EXPECT(!reply->has_error());
BEAST_EXPECT(server.msgHandler.processProofPathResponse(reply));
{
// bad reply
// bad header
std::string r(reply->ledgerheader());
r.back()--;
reply->set_ledgerheader(r);
BEAST_EXPECT(
!server.msgHandler.processProofPathResponse(reply));
r.back()++;
reply->set_ledgerheader(r);
BEAST_EXPECT(server.msgHandler.processProofPathResponse(reply));
// bad proof path
reply->mutable_path()->RemoveLast();
BEAST_EXPECT(
!server.msgHandler.processProofPathResponse(reply));
}
}
}
void
testReplayDelta()
{
testcase("ReplayDelta");
LedgerServer server(*this, {1});
auto const l = server.ledgerMaster.getClosedLedger();
{
// request, missing hash
auto request = std::make_shared<protocol::TMReplayDeltaRequest>();
auto reply = std::make_shared<protocol::TMReplayDeltaResponse>(
server.msgHandler.processReplayDeltaRequest(request));
BEAST_EXPECT(reply->has_error());
BEAST_EXPECT(!server.msgHandler.processReplayDeltaResponse(reply));
// request, wrong hash
uint256 hash(1234567);
request->set_ledgerhash(hash.data(), hash.size());
reply = std::make_shared<protocol::TMReplayDeltaResponse>(
server.msgHandler.processReplayDeltaRequest(request));
BEAST_EXPECT(reply->has_error());
BEAST_EXPECT(!server.msgHandler.processReplayDeltaResponse(reply));
}
{
// good request
auto request = std::make_shared<protocol::TMReplayDeltaRequest>();
request->set_ledgerhash(
l->info().hash.data(), l->info().hash.size());
auto reply = std::make_shared<protocol::TMReplayDeltaResponse>(
server.msgHandler.processReplayDeltaRequest(request));
BEAST_EXPECT(!reply->has_error());
BEAST_EXPECT(server.msgHandler.processReplayDeltaResponse(reply));
{
// bad reply
// bad header
std::string r(reply->ledgerheader());
r.back()--;
reply->set_ledgerheader(r);
BEAST_EXPECT(
!server.msgHandler.processReplayDeltaResponse(reply));
r.back()++;
reply->set_ledgerheader(r);
BEAST_EXPECT(
server.msgHandler.processReplayDeltaResponse(reply));
// bad txns
reply->mutable_transaction()->RemoveLast();
BEAST_EXPECT(
!server.msgHandler.processReplayDeltaResponse(reply));
}
}
}
void
testTaskParameter()
{
testcase("TaskParameter");
auto makeSkipList = [](int count) -> std::vector<uint256> const {
std::vector<uint256> sList;
for (int i = 0; i < count; ++i)
sList.emplace_back(i);
return sList;
};
LedgerReplayTask::TaskParameter tp10(
InboundLedger::Reason::GENERIC, uint256(10), 10);
BEAST_EXPECT(!tp10.update(uint256(777), 5, makeSkipList(10)));
BEAST_EXPECT(!tp10.update(uint256(10), 5, makeSkipList(8)));
BEAST_EXPECT(tp10.update(uint256(10), 10, makeSkipList(10)));
// can merge to self
BEAST_EXPECT(tp10.canMergeInto(tp10));
// smaller task
LedgerReplayTask::TaskParameter tp9(
InboundLedger::Reason::GENERIC, uint256(9), 9);
BEAST_EXPECT(tp9.canMergeInto(tp10));
BEAST_EXPECT(!tp10.canMergeInto(tp9));
tp9.totalLedgers_++;
BEAST_EXPECT(!tp9.canMergeInto(tp10));
tp9.totalLedgers_--;
BEAST_EXPECT(tp9.canMergeInto(tp10));
tp9.reason_ = InboundLedger::Reason::CONSENSUS;
BEAST_EXPECT(!tp9.canMergeInto(tp10));
tp9.reason_ = InboundLedger::Reason::GENERIC;
BEAST_EXPECT(tp9.canMergeInto(tp10));
tp9.finishHash_ = uint256(1234);
BEAST_EXPECT(!tp9.canMergeInto(tp10));
tp9.finishHash_ = uint256(9);
BEAST_EXPECT(tp9.canMergeInto(tp10));
// larger task
LedgerReplayTask::TaskParameter tp20(
InboundLedger::Reason::GENERIC, uint256(20), 20);
BEAST_EXPECT(tp20.update(uint256(20), 20, makeSkipList(20)));
BEAST_EXPECT(tp10.canMergeInto(tp20));
BEAST_EXPECT(tp9.canMergeInto(tp20));
BEAST_EXPECT(!tp20.canMergeInto(tp10));
BEAST_EXPECT(!tp20.canMergeInto(tp9));
}
void
testConfig()
{
testcase("config test");
{
Config c;
BEAST_EXPECT(c.LEDGER_REPLAY == false);
}
{
Config c;
std::string toLoad(R"rippleConfig(
[ledger_replay]
1
)rippleConfig");
c.loadFromString(toLoad);
BEAST_EXPECT(c.LEDGER_REPLAY == true);
}
{
Config c;
std::string toLoad = (R"rippleConfig(
[ledger_replay]
0
)rippleConfig");
c.loadFromString(toLoad);
BEAST_EXPECT(c.LEDGER_REPLAY == false);
}
}
void
testHandshake()
{
testcase("handshake test");
auto handshake = [&](bool client, bool server, bool expecting) -> bool {
auto request =
ripple::makeRequest(true, false, client, false, false);
http_request_type http_request;
http_request.version(request.version());
http_request.base() = request.base();
bool serverResult =
peerFeatureEnabled(http_request, FEATURE_LEDGER_REPLAY, server);
if (serverResult != expecting)
return false;
beast::IP::Address addr =
boost::asio::ip::address::from_string("172.1.1.100");
jtx::Env serverEnv(*this);
serverEnv.app().config().LEDGER_REPLAY = server;
auto http_resp = ripple::makeResponse(
true,
http_request,
addr,
addr,
uint256{1},
1,
{1, 0},
serverEnv.app());
auto const clientResult =
peerFeatureEnabled(http_resp, FEATURE_LEDGER_REPLAY, client);
if (clientResult != expecting)
return false;
return true;
};
BEAST_EXPECT(handshake(false, false, false));
BEAST_EXPECT(handshake(false, true, false));
BEAST_EXPECT(handshake(true, false, false));
BEAST_EXPECT(handshake(true, true, true));
}
void
testAllLocal(int totalReplay)
{
testcase("local node has all the ledgers");
auto psBhvr = PeerSetBehavior::DropAll;
auto ilBhvr = InboundLedgersBehavior::DropAll;
auto peerFeature = PeerFeature::None;
NetworkOfTwo net(*this, {totalReplay + 1}, psBhvr, ilBhvr, peerFeature);
auto l = net.server.ledgerMaster.getClosedLedger();
uint256 finalHash = l->info().hash;
for (int i = 0; i < totalReplay; ++i)
{
BEAST_EXPECT(l);
if (l)
{
net.client.ledgerMaster.storeLedger(l);
l = net.server.ledgerMaster.getLedgerByHash(
l->info().parentHash);
}
else
break;
}
net.client.replayer.replay(
InboundLedger::Reason::GENERIC, finalHash, totalReplay);
std::vector<TaskStatus> deltaStatuses(
totalReplay - 1, TaskStatus::Completed);
BEAST_EXPECT(net.client.waitAndCheckStatus(
finalHash,
totalReplay,
TaskStatus::Completed,
TaskStatus::Completed,
deltaStatuses));
// sweep
net.client.replayer.sweep();
BEAST_EXPECT(net.client.countsAsExpected(0, 0, 0));
}
void
testAllInboundLedgers(int totalReplay)
{
testcase("all the ledgers from InboundLedgers");
NetworkOfTwo net(
*this,
{totalReplay + 1},
PeerSetBehavior::DropAll,
InboundLedgersBehavior::Good,
PeerFeature::None);
auto l = net.server.ledgerMaster.getClosedLedger();
uint256 finalHash = l->info().hash;
net.client.replayer.replay(
InboundLedger::Reason::GENERIC, finalHash, totalReplay);
std::vector<TaskStatus> deltaStatuses(
totalReplay - 1, TaskStatus::Completed);
BEAST_EXPECT(net.client.waitAndCheckStatus(
finalHash,
totalReplay,
TaskStatus::Completed,
TaskStatus::Completed,
deltaStatuses));
// sweep
net.client.replayer.sweep();
BEAST_EXPECT(net.client.countsAsExpected(0, 0, 0));
}
void
testPeerSetBehavior(PeerSetBehavior peerSetBehavior, int totalReplay = 4)
{
switch (peerSetBehavior)
{
case PeerSetBehavior::Good:
testcase("good network");
break;
case PeerSetBehavior::Drop50:
testcase("network drops 50% messages");
break;
case PeerSetBehavior::Repeat:
testcase("network repeats all messages");
break;
default:
return;
}
NetworkOfTwo net(
*this,
{totalReplay + 1},
peerSetBehavior,
InboundLedgersBehavior::DropAll,
PeerFeature::LedgerReplayEnabled);
// feed client with start ledger since InboundLedgers drops all
auto l = net.server.ledgerMaster.getClosedLedger();
uint256 finalHash = l->info().hash;
for (int i = 0; i < totalReplay - 1; ++i)
{
l = net.server.ledgerMaster.getLedgerByHash(l->info().parentHash);
}
net.client.ledgerMaster.storeLedger(l);
net.client.replayer.replay(
InboundLedger::Reason::GENERIC, finalHash, totalReplay);
std::vector<TaskStatus> deltaStatuses(
totalReplay - 1, TaskStatus::Completed);
BEAST_EXPECT(net.client.waitAndCheckStatus(
finalHash,
totalReplay,
TaskStatus::Completed,
TaskStatus::Completed,
deltaStatuses));
BEAST_EXPECT(net.client.waitForLedgers(finalHash, totalReplay));
// sweep
net.client.replayer.sweep();
BEAST_EXPECT(net.client.countsAsExpected(0, 0, 0));
}
void
testStop()
{
testcase("stop before timeout");
int totalReplay = 3;
NetworkOfTwo net(
*this,
{totalReplay + 1},
PeerSetBehavior::DropAll,
InboundLedgersBehavior::Good,
PeerFeature::LedgerReplayEnabled);
auto l = net.server.ledgerMaster.getClosedLedger();
uint256 finalHash = l->info().hash;
net.client.replayer.replay(
InboundLedger::Reason::GENERIC, finalHash, totalReplay);
std::vector<TaskStatus> deltaStatuses;
BEAST_EXPECT(net.client.checkStatus(
finalHash,
totalReplay,
TaskStatus::NotDone,
TaskStatus::NotDone,
deltaStatuses));
BEAST_EXPECT(net.client.countsAsExpected(1, 1, 0));
net.client.replayer.stop();
BEAST_EXPECT(net.client.countsAsExpected(0, 0, 0));
}
void
testSkipListBadReply()
{
testcase("SkipListAcquire bad reply");
int totalReplay = 3;
NetworkOfTwo net(
*this,
{totalReplay + 1 + 1},
PeerSetBehavior::DropAll,
InboundLedgersBehavior::DropAll,
PeerFeature::LedgerReplayEnabled);
auto l = net.server.ledgerMaster.getClosedLedger();
uint256 finalHash = l->info().hash;
net.client.replayer.replay(
InboundLedger::Reason::GENERIC, finalHash, totalReplay);
auto skipList = net.client.findSkipListAcquire(finalHash);
std::uint8_t payload[55] = {
0x6A, 0x09, 0xE6, 0x67, 0xF3, 0xBC, 0xC9, 0x08, 0xB2};
auto item = std::make_shared<SHAMapItem>(
uint256(12345), Slice(payload, sizeof(payload)));
skipList->processData(l->seq(), item);
std::vector<TaskStatus> deltaStatuses;
BEAST_EXPECT(net.client.waitAndCheckStatus(
finalHash,
totalReplay,
TaskStatus::Failed,
TaskStatus::Failed,
deltaStatuses));
// add another task
net.client.replayer.replay(
InboundLedger::Reason::GENERIC, finalHash, totalReplay + 1);
BEAST_EXPECT(net.client.waitAndCheckStatus(
finalHash,
totalReplay,
TaskStatus::Failed,
TaskStatus::Failed,
deltaStatuses));
BEAST_EXPECT(net.client.countsAsExpected(2, 1, 0));
}
void
testLedgerDeltaBadReply()
{
testcase("LedgerDeltaAcquire bad reply");
int totalReplay = 3;
NetworkOfTwo net(
*this,
{totalReplay + 1},
PeerSetBehavior::DropLedgerDeltaReply,
InboundLedgersBehavior::DropAll,
PeerFeature::LedgerReplayEnabled);
auto l = net.server.ledgerMaster.getClosedLedger();
uint256 finalHash = l->info().hash;
net.client.ledgerMaster.storeLedger(l);
net.client.replayer.replay(
InboundLedger::Reason::GENERIC, finalHash, totalReplay);
auto delta = net.client.findLedgerDeltaAcquire(l->info().parentHash);
delta->processData(
l->info(), // wrong ledger info
std::map<std::uint32_t, std::shared_ptr<STTx const>>());
BEAST_EXPECT(net.client.taskStatus(delta) == TaskStatus::Failed);
BEAST_EXPECT(
net.client.taskStatus(net.client.findTask(
finalHash, totalReplay)) == TaskStatus::Failed);
// add another task
net.client.replayer.replay(
InboundLedger::Reason::GENERIC, finalHash, totalReplay + 1);
BEAST_EXPECT(
net.client.taskStatus(net.client.findTask(
finalHash, totalReplay + 1)) == TaskStatus::Failed);
}
void
testLedgerReplayOverlap()
{
testcase("Overlap tasks");
int totalReplay = 5;
NetworkOfTwo net(
*this,
{totalReplay * 3 + 1},
PeerSetBehavior::Good,
InboundLedgersBehavior::Good,
PeerFeature::LedgerReplayEnabled);
auto l = net.server.ledgerMaster.getClosedLedger();
uint256 finalHash = l->info().hash;
net.client.replayer.replay(
InboundLedger::Reason::GENERIC, finalHash, totalReplay);
std::vector<TaskStatus> deltaStatuses(
totalReplay - 1, TaskStatus::Completed);
BEAST_EXPECT(net.client.waitAndCheckStatus(
finalHash,
totalReplay,
TaskStatus::Completed,
TaskStatus::Completed,
deltaStatuses));
BEAST_EXPECT(net.client.waitForLedgers(finalHash, totalReplay));
// same range, same reason
net.client.replayer.replay(
InboundLedger::Reason::GENERIC, finalHash, totalReplay);
BEAST_EXPECT(net.client.countsAsExpected(1, 1, totalReplay - 1));
// same range, different reason
net.client.replayer.replay(
InboundLedger::Reason::CONSENSUS, finalHash, totalReplay);
BEAST_EXPECT(net.client.countsAsExpected(2, 1, totalReplay - 1));
// no overlap
for (int i = 0; i < totalReplay + 2; ++i)
{
l = net.server.ledgerMaster.getLedgerByHash(l->info().parentHash);
}
auto finalHash_early = l->info().hash;
net.client.replayer.replay(
InboundLedger::Reason::GENERIC, finalHash_early, totalReplay);
BEAST_EXPECT(net.client.waitAndCheckStatus(
finalHash_early,
totalReplay,
TaskStatus::Completed,
TaskStatus::Completed,
deltaStatuses)); // deltaStatuses no change
BEAST_EXPECT(net.client.waitForLedgers(finalHash_early, totalReplay));
BEAST_EXPECT(net.client.countsAsExpected(3, 2, 2 * (totalReplay - 1)));
// partial overlap
l = net.server.ledgerMaster.getLedgerByHash(l->info().parentHash);
auto finalHash_moreEarly = l->info().parentHash;
net.client.replayer.replay(
InboundLedger::Reason::GENERIC, finalHash_moreEarly, totalReplay);
BEAST_EXPECT(net.client.waitAndCheckStatus(
finalHash_moreEarly,
totalReplay,
TaskStatus::Completed,
TaskStatus::Completed,
deltaStatuses)); // deltaStatuses no change
BEAST_EXPECT(
net.client.waitForLedgers(finalHash_moreEarly, totalReplay));
BEAST_EXPECT(
net.client.countsAsExpected(4, 3, 2 * (totalReplay - 1) + 2));
// cover
net.client.replayer.replay(
InboundLedger::Reason::GENERIC, finalHash, totalReplay * 3);
deltaStatuses =
std::vector<TaskStatus>(totalReplay * 3 - 1, TaskStatus::Completed);
BEAST_EXPECT(net.client.waitAndCheckStatus(
finalHash,
totalReplay * 3,
TaskStatus::Completed,
TaskStatus::Completed,
deltaStatuses)); // deltaStatuses changed
BEAST_EXPECT(net.client.waitForLedgers(finalHash, totalReplay * 3));
BEAST_EXPECT(net.client.countsAsExpected(5, 3, totalReplay * 3 - 1));
// sweep
net.client.replayer.sweep();
BEAST_EXPECT(net.client.countsAsExpected(0, 0, 0));
}
void
run() override
{
testProofPath();
testReplayDelta();
testTaskParameter();
testConfig();
testHandshake();
testAllLocal(1);
testAllLocal(3);
testAllInboundLedgers(1);
testAllInboundLedgers(4);
testPeerSetBehavior(PeerSetBehavior::Good, 1);
testPeerSetBehavior(PeerSetBehavior::Good);
testPeerSetBehavior(PeerSetBehavior::Drop50);
testPeerSetBehavior(PeerSetBehavior::Repeat);
testStop();
testSkipListBadReply();
testLedgerDeltaBadReply();
testLedgerReplayOverlap();
}
};
struct LedgerReplayerTimeout_test : public beast::unit_test::suite
{
void
testSkipListTimeout()
{
testcase("SkipListAcquire timeout");
int totalReplay = 3;
NetworkOfTwo net(
*this,
{totalReplay + 1},
PeerSetBehavior::DropAll,
InboundLedgersBehavior::Good,
PeerFeature::LedgerReplayEnabled);
auto l = net.server.ledgerMaster.getClosedLedger();
uint256 finalHash = l->info().hash;
net.client.replayer.replay(
InboundLedger::Reason::GENERIC, finalHash, totalReplay);
std::vector<TaskStatus> deltaStatuses;
BEAST_EXPECT(net.client.waitAndCheckStatus(
finalHash,
totalReplay,
TaskStatus::Failed,
TaskStatus::Failed,
deltaStatuses));
// sweep
BEAST_EXPECT(net.client.countsAsExpected(1, 1, 0));
net.client.replayer.sweep();
BEAST_EXPECT(net.client.countsAsExpected(0, 0, 0));
}
void
testLedgerDeltaTimeout()
{
testcase("LedgerDeltaAcquire timeout");
int totalReplay = 3;
NetworkOfTwo net(
*this,
{totalReplay + 1},
PeerSetBehavior::DropAll,
InboundLedgersBehavior::Good,
PeerFeature::LedgerReplayEnabled);
auto l = net.server.ledgerMaster.getClosedLedger();
uint256 finalHash = l->info().hash;
net.client.ledgerMaster.storeLedger(l);
net.client.replayer.replay(
InboundLedger::Reason::GENERIC, finalHash, totalReplay);
std::vector<TaskStatus> deltaStatuses(
totalReplay - 1, TaskStatus::Failed);
deltaStatuses.back() = TaskStatus::Completed; // in client ledgerMaster
BEAST_EXPECT(net.client.waitAndCheckStatus(
finalHash,
totalReplay,
TaskStatus::Failed,
TaskStatus::Completed,
deltaStatuses));
// sweep
BEAST_EXPECT(net.client.countsAsExpected(1, 1, totalReplay - 1));
net.client.replayer.sweep();
BEAST_EXPECT(net.client.countsAsExpected(0, 0, 0));
}
void
run() override
{
testSkipListTimeout();
testLedgerDeltaTimeout();
}
};
struct LedgerReplayerLong_test : public beast::unit_test::suite
{
void
run() override
{
testcase("Acquire 1000 ledgers");
int totalReplay = 250;
int rounds = 4;
NetworkOfTwo net(
*this,
{totalReplay * rounds + 1},
PeerSetBehavior::Good,
InboundLedgersBehavior::Good,
PeerFeature::LedgerReplayEnabled);
std::vector<uint256> finishHashes;
auto l = net.server.ledgerMaster.getClosedLedger();
for (int i = 0; i < rounds; ++i)
{
finishHashes.push_back(l->info().hash);
for (int j = 0; j < totalReplay; ++j)
{
l = net.server.ledgerMaster.getLedgerByHash(
l->info().parentHash);
}
}
BEAST_EXPECT(finishHashes.size() == rounds);
for (int i = 0; i < rounds; ++i)
{
net.client.replayer.replay(
InboundLedger::Reason::GENERIC, finishHashes[i], totalReplay);
}
std::vector<TaskStatus> deltaStatuses(
totalReplay - 1, TaskStatus::Completed);
for (int i = 0; i < rounds; ++i)
{
BEAST_EXPECT(net.client.waitAndCheckStatus(
finishHashes[i],
totalReplay,
TaskStatus::Completed,
TaskStatus::Completed,
deltaStatuses));
}
BEAST_EXPECT(
net.client.waitForLedgers(finishHashes[0], totalReplay * rounds));
BEAST_EXPECT(net.client.countsAsExpected(
rounds, rounds, rounds * (totalReplay - 1)));
// sweep
net.client.replayer.sweep();
BEAST_EXPECT(net.client.countsAsExpected(0, 0, 0));
}
};
BEAST_DEFINE_TESTSUITE(LedgerReplay, app, ripple);
BEAST_DEFINE_TESTSUITE_PRIO(LedgerReplayer, app, ripple, 1);
BEAST_DEFINE_TESTSUITE(LedgerReplayerTimeout, app, ripple);
BEAST_DEFINE_TESTSUITE_MANUAL(LedgerReplayerLong, app, ripple);
} // namespace test
} // namespace ripple