Files
clio/tests/unit/etlng/ext/SuccessorTests.cpp
2025-05-14 16:06:34 +01:00

642 lines
26 KiB
C++

//------------------------------------------------------------------------------
/*
This file is part of clio: https://github.com/XRPLF/clio
Copyright (c) 2025, the clio developers.
Permission to use, copy, modify, and 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 "data/DBHelpers.hpp"
#include "data/Types.hpp"
#include "etlng/Models.hpp"
#include "etlng/impl/ext/Successor.hpp"
#include "util/Assert.hpp"
#include "util/BinaryTestObject.hpp"
#include "util/MockAssert.hpp"
#include "util/MockBackendTestFixture.hpp"
#include "util/MockLedgerCache.hpp"
#include "util/MockPrometheus.hpp"
#include "util/StringUtils.hpp"
#include "util/TestObject.hpp"
#include <gmock/gmock.h>
#include <gtest/gtest.h>
#include <xrpl/basics/StringUtilities.h>
#include <xrpl/basics/base_uint.h>
#include <xrpl/protocol/TxFormats.h>
#include <xrpl/protocol/UintTypes.h>
#include <algorithm>
#include <iterator>
#include <optional>
#include <queue>
#include <stdexcept>
#include <string>
#include <utility>
#include <vector>
using namespace etlng::impl;
using namespace data;
namespace {
constinit auto const kSEQ = 123u;
constinit auto const kLEDGER_HASH = "4BC50C9B0D8515D3EAAE1E74B29A95804346C491EE1A95BF25E4AAB854A6A652";
auto
createTestData(std::vector<etlng::model::Object> objects)
{
auto transactions = std::vector{
util::createTransaction(ripple::TxType::ttNFTOKEN_BURN),
util::createTransaction(ripple::TxType::ttNFTOKEN_BURN),
util::createTransaction(ripple::TxType::ttNFTOKEN_CREATE_OFFER),
};
auto const header = createLedgerHeader(kLEDGER_HASH, kSEQ);
return etlng::model::LedgerData{
.transactions = std::move(transactions),
.objects = std::move(objects),
.successors = {},
.edgeKeys = {},
.header = header,
.rawHeader = {},
.seq = kSEQ
};
}
[[maybe_unused]] auto
createInitialTestData(std::vector<ripple::uint256> edgeKeys)
{
// initial data expects objects to be empty as well as non-empty edgeKeys
ASSERT(not edgeKeys.empty(), "Initial data requires edgeKeys");
auto ret = createTestData({});
ret.edgeKeys = std::make_optional<std::vector<std::string>>();
std::ranges::transform(edgeKeys, std::back_inserter(ret.edgeKeys.value()), &uint256ToString);
return ret;
}
} // namespace
struct SuccessorExtTests : util::prometheus::WithPrometheus, MockBackendTest {
protected:
MockLedgerCache cache_;
etlng::impl::SuccessorExt ext_{backend_, cache_};
};
TEST_F(SuccessorExtTests, OnLedgerDataLogicErrorIfCacheIsNotFullButSuccessorsNotPresent)
{
auto const data = createTestData({});
EXPECT_CALL(cache_, isFull()).WillRepeatedly(testing::Return(false));
EXPECT_CALL(cache_, latestLedgerSequence()).WillRepeatedly(testing::Return(kSEQ));
EXPECT_THROW(ext_.onLedgerData(data), std::logic_error);
}
TEST_F(SuccessorExtTests, OnLedgerDataLogicErrorIfCacheIsFullButLatestSeqDiffersAndSuccessorsNotPresent)
{
auto const data = createTestData({});
EXPECT_CALL(cache_, isFull()).WillRepeatedly(testing::Return(true));
EXPECT_CALL(cache_, latestLedgerSequence()).WillRepeatedly(testing::Return(kSEQ - 1));
EXPECT_THROW(ext_.onLedgerData(data), std::logic_error);
}
TEST_F(SuccessorExtTests, OnLedgerDataWithDeletedObjectButWithoutCachedPredecessorAndSuccessorAndNoBookBase)
{
using namespace etlng::model;
auto const objKey = "B00AA769C00726371689ED66A7CF57C2502F1BF4BDFF2ACADF67A2A7B5E8960D";
auto const deletedObj = util::createObject(Object::ModType::Deleted, objKey);
auto const data = createTestData({
deletedObj,
util::createObject(Object::ModType::Modified),
});
EXPECT_CALL(cache_, isFull()).WillRepeatedly(testing::Return(true));
EXPECT_CALL(cache_, latestLedgerSequence()).WillRepeatedly(testing::Return(kSEQ));
EXPECT_CALL(cache_, getPredecessor(deletedObj.key, kSEQ)).WillRepeatedly(testing::Return(std::nullopt));
EXPECT_CALL(cache_, getSuccessor(deletedObj.key, kSEQ)).WillRepeatedly(testing::Return(std::nullopt));
EXPECT_CALL(*backend_, writeSuccessor(uint256ToString(data::kFIRST_KEY), kSEQ, uint256ToString(data::kLAST_KEY)));
EXPECT_CALL(cache_, getDeleted(deletedObj.key, kSEQ - 1)).WillRepeatedly(testing::Return(Blob{'0'}));
ext_.onLedgerData(data);
}
TEST_F(SuccessorExtTests, OnLedgerDataWithCreatedObjectButWithoutCachedPredecessorAndSuccessorAndNoBookBase)
{
using namespace etlng::model;
auto const objKey = "B00AA769C00726371689ED66A7CF57C2502F1BF4BDFF2ACADF67A2A7B5E8960D";
auto const createdObj = util::createObject(Object::ModType::Created, objKey);
auto const data = createTestData({
createdObj,
util::createObject(Object::ModType::Modified),
});
EXPECT_CALL(cache_, isFull()).WillRepeatedly(testing::Return(true));
EXPECT_CALL(cache_, latestLedgerSequence()).WillRepeatedly(testing::Return(kSEQ));
EXPECT_CALL(cache_, getPredecessor(createdObj.key, kSEQ)).WillRepeatedly(testing::Return(std::nullopt));
EXPECT_CALL(cache_, getSuccessor(createdObj.key, kSEQ)).WillRepeatedly(testing::Return(std::nullopt));
EXPECT_CALL(*backend_, writeSuccessor(uint256ToString(data::kFIRST_KEY), kSEQ, uint256ToString(createdObj.key)));
EXPECT_CALL(*backend_, writeSuccessor(uint256ToString(createdObj.key), kSEQ, uint256ToString(data::kLAST_KEY)));
ext_.onLedgerData(data);
}
TEST_F(SuccessorExtTests, OnLedgerDataWithCreatedObjectButWithoutCachedPredecessorAndSuccessorWithBookBase)
{
using namespace etlng::model;
auto const objKey = "B00AA769C00726371689ED66A7CF57C2502F1BF4BDFF2ACADF67A2A7B5E8960D";
auto const createdObj = util::createObjectWithBookBase(Object::ModType::Created, objKey);
auto const data = createTestData({
createdObj,
util::createObject(Object::ModType::Modified),
});
auto const bookBase = getBookBase(createdObj.key);
EXPECT_CALL(cache_, isFull()).WillRepeatedly(testing::Return(true));
EXPECT_CALL(cache_, latestLedgerSequence()).WillRepeatedly(testing::Return(kSEQ));
EXPECT_CALL(cache_, getPredecessor(createdObj.key, kSEQ)).WillRepeatedly(testing::Return(std::nullopt));
EXPECT_CALL(cache_, getSuccessor(createdObj.key, kSEQ)).WillRepeatedly(testing::Return(std::nullopt));
EXPECT_CALL(*backend_, writeSuccessor(uint256ToString(data::kFIRST_KEY), kSEQ, uint256ToString(createdObj.key)));
EXPECT_CALL(*backend_, writeSuccessor(uint256ToString(createdObj.key), kSEQ, uint256ToString(data::kLAST_KEY)));
EXPECT_CALL(cache_, get(createdObj.key, kSEQ)).WillRepeatedly(testing::Return(std::nullopt));
EXPECT_CALL(cache_, getSuccessor(bookBase, kSEQ)).WillRepeatedly(testing::Return(LedgerObject{}));
ext_.onLedgerData(data);
}
TEST_F(
SuccessorExtTests,
OnLedgerDataWithCreatedObjectButWithoutCachedPredecessorAndSuccessorWithBookBaseAndMatchingSuccessorInCache
)
{
using namespace etlng::model;
auto const objKey = "B00AA769C00726371689ED66A7CF57C2502F1BF4BDFF2ACADF67A2A7B5E8960D";
auto const createdObj = util::createObjectWithBookBase(Object::ModType::Created, objKey);
auto const data = createTestData({
createdObj,
util::createObject(Object::ModType::Modified),
});
auto const bookBase = getBookBase(createdObj.key);
[[maybe_unused]] testing::InSequence inSeq;
EXPECT_CALL(cache_, isFull()).WillRepeatedly(testing::Return(true));
EXPECT_CALL(cache_, latestLedgerSequence()).WillRepeatedly(testing::Return(kSEQ));
EXPECT_CALL(cache_, getPredecessor(createdObj.key, kSEQ)).WillRepeatedly(testing::Return(std::nullopt));
EXPECT_CALL(cache_, getSuccessor(createdObj.key, kSEQ)).WillRepeatedly(testing::Return(std::nullopt));
EXPECT_CALL(*backend_, writeSuccessor(uint256ToString(data::kFIRST_KEY), kSEQ, uint256ToString(createdObj.key)));
EXPECT_CALL(*backend_, writeSuccessor(uint256ToString(createdObj.key), kSEQ, uint256ToString(data::kLAST_KEY)));
EXPECT_CALL(cache_, get(createdObj.key, kSEQ)).WillRepeatedly(testing::Return(data::Blob{'0'}));
EXPECT_CALL(cache_, getSuccessor(bookBase, kSEQ))
.WillRepeatedly(testing::Return(LedgerObject{.key = createdObj.key, .blob = {}}));
EXPECT_CALL(*backend_, writeSuccessor(uint256ToString(bookBase), kSEQ, testing::_));
ext_.onLedgerData(data);
}
TEST_F(
SuccessorExtTests,
OnLedgerDataWithDeletedObjectButWithoutCachedPredecessorAndSuccessorWithBookBaseButNoCurrentObjAndNoSuccessorInCache
)
{
using namespace etlng::model;
auto const objKey = "B00AA769C00726371689ED66A7CF57C2502F1BF4BDFF2ACADF67A2A7B5E8960D";
auto const createdObj = util::createObjectWithBookBase(Object::ModType::Created, objKey);
auto const deletedObj = util::createObjectWithBookBase(Object::ModType::Deleted, objKey);
auto const data = createTestData({
deletedObj,
util::createObject(Object::ModType::Modified),
});
auto const bookBase = getBookBase(deletedObj.key);
auto const oldCachedObj = createdObj.data;
[[maybe_unused]] testing::InSequence inSeq;
EXPECT_CALL(cache_, isFull()).WillRepeatedly(testing::Return(true));
EXPECT_CALL(cache_, latestLedgerSequence()).WillRepeatedly(testing::Return(kSEQ));
EXPECT_CALL(cache_, getPredecessor(deletedObj.key, kSEQ)).WillRepeatedly(testing::Return(std::nullopt));
EXPECT_CALL(cache_, getSuccessor(deletedObj.key, kSEQ)).WillRepeatedly(testing::Return(std::nullopt));
EXPECT_CALL(*backend_, writeSuccessor(uint256ToString(data::kFIRST_KEY), kSEQ, uint256ToString(data::kLAST_KEY)));
EXPECT_CALL(cache_, getDeleted(deletedObj.key, kSEQ - 1)).WillOnce(testing::Return(oldCachedObj));
EXPECT_CALL(cache_, get(deletedObj.key, kSEQ)).WillOnce(testing::Return(std::nullopt));
EXPECT_CALL(cache_, getSuccessor(bookBase, kSEQ)).WillOnce(testing::Return(std::nullopt));
EXPECT_CALL(*backend_, writeSuccessor(uint256ToString(bookBase), kSEQ, uint256ToString(data::kLAST_KEY)));
ext_.onLedgerData(data);
}
TEST_F(
SuccessorExtTests,
OnLedgerDataWithDeletedObjectButWithoutCachedPredecessorAndSuccessorWithBookBaseAndCurrentObjAndSuccessorInCache
)
{
using namespace etlng::model;
auto const objKey = "B00AA769C00726371689ED66A7CF57C2502F1BF4BDFF2ACADF67A2A7B5E8960D";
auto const createdObj = util::createObjectWithBookBase(Object::ModType::Created, objKey);
auto const deletedObj = util::createObjectWithBookBase(Object::ModType::Deleted, objKey);
auto const data = createTestData({
deletedObj,
util::createObject(Object::ModType::Modified),
});
auto const bookBase = getBookBase(deletedObj.key);
auto const oldCachedObj = createdObj.data;
[[maybe_unused]] testing::InSequence inSeq;
EXPECT_CALL(cache_, isFull()).WillRepeatedly(testing::Return(true));
EXPECT_CALL(cache_, latestLedgerSequence()).WillRepeatedly(testing::Return(kSEQ));
EXPECT_CALL(cache_, getPredecessor(deletedObj.key, kSEQ)).WillRepeatedly(testing::Return(std::nullopt));
EXPECT_CALL(cache_, getSuccessor(deletedObj.key, kSEQ)).WillRepeatedly(testing::Return(std::nullopt));
EXPECT_CALL(*backend_, writeSuccessor(uint256ToString(data::kFIRST_KEY), kSEQ, uint256ToString(data::kLAST_KEY)));
EXPECT_CALL(cache_, getDeleted(deletedObj.key, kSEQ - 1)).WillOnce(testing::Return(oldCachedObj));
EXPECT_CALL(cache_, get(deletedObj.key, kSEQ)).WillOnce(testing::Return(data::Blob{'0'}));
EXPECT_CALL(cache_, getSuccessor(bookBase, kSEQ))
.WillRepeatedly(testing::Return(LedgerObject{.key = deletedObj.key, .blob = {}}));
EXPECT_CALL(*backend_, writeSuccessor(uint256ToString(bookBase), kSEQ, uint256ToString(deletedObj.key)));
ext_.onLedgerData(data);
}
TEST_F(SuccessorExtTests, OnLedgerDataWithDeletedObjectAndWithCachedPredecessorAndSuccessor)
{
using namespace etlng::model;
auto const objKey = "B00AA769C00726371689ED66A7CF57C2502F1BF4BDFF2ACADF67A2A7B5E8960D";
auto const predKey =
binaryStringToUint256(hexStringToBinaryString("B00AA769C00726371689ED66A7CF57C2502F1BF4BDFF2ACADF67A2A7B5E8960C"
));
auto const succKey =
binaryStringToUint256(hexStringToBinaryString("B00AA769C00726371689ED66A7CF57C2502F1BF4BDFF2ACADF67A2A7B5E8960E"
));
auto const createdObj = util::createObject(Object::ModType::Created, objKey);
auto const data = createTestData({
createdObj,
util::createObject(Object::ModType::Modified),
});
EXPECT_CALL(cache_, isFull()).WillRepeatedly(testing::Return(true));
EXPECT_CALL(cache_, latestLedgerSequence()).WillRepeatedly(testing::Return(kSEQ));
EXPECT_CALL(cache_, getPredecessor(createdObj.key, kSEQ))
.WillOnce(testing::Return(data::LedgerObject{.key = predKey, .blob = {}}));
EXPECT_CALL(cache_, getSuccessor(createdObj.key, kSEQ))
.WillOnce(testing::Return(data::LedgerObject{.key = succKey, .blob = {}}));
EXPECT_CALL(*backend_, writeSuccessor(uint256ToString(predKey), kSEQ, uint256ToString(createdObj.key)));
EXPECT_CALL(*backend_, writeSuccessor(uint256ToString(createdObj.key), kSEQ, uint256ToString(succKey)));
ext_.onLedgerData(data);
}
TEST_F(SuccessorExtTests, OnLedgerDataWithCreatedObjectAndIncludedSuccessors)
{
using namespace etlng::model;
auto const objKey = "B00AA769C00726371689ED66A7CF57C2502F1BF4BDFF2ACADF67A2A7B5E8960D";
auto const createdObj = util::createObject(Object::ModType::Created, objKey);
auto data = createTestData({
createdObj,
util::createObject(Object::ModType::Modified),
});
auto const succ = util::createSuccessor();
data.successors = {succ, succ, succ};
EXPECT_CALL(*backend_, writeSuccessor(auto{succ.bookBase}, kSEQ, auto{succ.firstBook}))
.Times(data.successors->size());
EXPECT_CALL(*backend_, writeSuccessor(auto{createdObj.predecessor}, kSEQ, auto{createdObj.keyRaw}));
EXPECT_CALL(*backend_, writeSuccessor(auto{createdObj.keyRaw}, kSEQ, auto{createdObj.successor}));
ext_.onLedgerData(data);
}
TEST_F(SuccessorExtTests, OnLedgerDataWithDeletedObjectAndIncludedSuccessorsWithoutFirstBook)
{
using namespace etlng::model;
auto const objKey = "B00AA769C00726371689ED66A7CF57C2502F1BF4BDFF2ACADF67A2A7B5E8960D";
auto const deletedObj = util::createObject(Object::ModType::Deleted, objKey);
auto data = createTestData({
deletedObj,
util::createObject(Object::ModType::Modified),
});
auto succ = util::createSuccessor();
succ.firstBook = {}; // empty will be transformed into kLAST_KEY
data.successors = {succ, succ};
EXPECT_CALL(*backend_, writeSuccessor(auto{succ.bookBase}, kSEQ, uint256ToString(data::kLAST_KEY)))
.Times(data.successors->size());
EXPECT_CALL(*backend_, writeSuccessor(auto{deletedObj.predecessor}, kSEQ, auto{deletedObj.successor}));
ext_.onLedgerData(data);
}
TEST_F(SuccessorExtTests, OnInitialDataWithSuccessorsButNotBookDirAndNoSuccessorsForEdgeKeys)
{
using namespace etlng::model;
auto const firstKey = ripple::uint256("B00AA769C00726371689ED66A7CF57C2502F1BF4BDFF2ACADF67A2A7B5E8960C");
auto const secondKey = ripple::uint256("B00AA769C00726371689ED66A7CF57C2502F1BF4BDFF2ACADF67A2A7B5E8960E");
auto const data = createInitialTestData({firstKey, secondKey});
auto successorChain = std::queue<ripple::uint256>();
successorChain.push(firstKey);
successorChain.push(secondKey);
[[maybe_unused]] testing::Sequence inSeq;
EXPECT_CALL(cache_, isFull()).WillOnce(testing::Return(true));
EXPECT_CALL(cache_, getSuccessor(testing::_, kSEQ))
.Times(3)
.InSequence(inSeq)
.WillRepeatedly([&](auto&&, auto&&) -> std::optional<data::LedgerObject> {
if (successorChain.empty())
return std::nullopt;
auto v = successorChain.front();
successorChain.pop();
return data::LedgerObject{.key = v, .blob = {'0'}};
});
EXPECT_CALL(*backend_, writeSuccessor(uint256ToString(data::kFIRST_KEY), kSEQ, uint256ToString(firstKey)));
EXPECT_CALL(*backend_, writeSuccessor(uint256ToString(secondKey), kSEQ, uint256ToString(data::kLAST_KEY)));
for (auto const& key : data.edgeKeys.value()) {
EXPECT_CALL(cache_, getSuccessor(*ripple::uint256::fromVoidChecked(key), kSEQ))
.InSequence(inSeq)
.WillOnce(testing::Return(std::nullopt));
}
ext_.onInitialData(data);
}
TEST_F(SuccessorExtTests, OnInitialDataWithSuccessorsButNotBookDirAndSuccessorsForEdgeKeys)
{
using namespace etlng::model;
auto const firstKey = ripple::uint256("B00AA769C00726371689ED66A7CF57C2502F1BF4BDFF2ACADF67A2A7B5E8960C");
auto const secondKey = ripple::uint256("B00AA769C00726371689ED66A7CF57C2502F1BF4BDFF2ACADF67A2A7B5E8960E");
auto const data = createInitialTestData({firstKey, secondKey});
auto successorChain = std::queue<ripple::uint256>();
successorChain.push(firstKey);
successorChain.push(secondKey);
[[maybe_unused]] testing::Sequence inSeq;
EXPECT_CALL(cache_, isFull()).WillOnce(testing::Return(true));
EXPECT_CALL(cache_, getSuccessor(testing::_, kSEQ))
.Times(3)
.InSequence(inSeq)
.WillRepeatedly([&](auto&&, auto&&) -> std::optional<data::LedgerObject> {
if (successorChain.empty())
return std::nullopt;
auto v = successorChain.front();
successorChain.pop();
return data::LedgerObject{.key = v, .blob = {'0'}};
});
EXPECT_CALL(*backend_, writeSuccessor(uint256ToString(data::kFIRST_KEY), kSEQ, uint256ToString(firstKey)));
EXPECT_CALL(*backend_, writeSuccessor(uint256ToString(secondKey), kSEQ, uint256ToString(data::kLAST_KEY)));
for (auto const& key : data.edgeKeys.value()) {
EXPECT_CALL(cache_, getSuccessor(*ripple::uint256::fromVoidChecked(key), kSEQ))
.InSequence(inSeq)
.WillOnce(testing::Return(data::LedgerObject{.key = firstKey, .blob = {}}));
EXPECT_CALL(*backend_, writeSuccessor(auto{key}, kSEQ, uint256ToString(firstKey)));
}
ext_.onInitialData(data);
}
TEST_F(SuccessorExtTests, OnInitialDataWithSuccessorsAndBookDirAndSuccessorsForEdgeKeys)
{
using namespace etlng::model;
auto const firstKey = ripple::uint256("B00AA769C00726371689ED66A7CF57C2502F1BF4BDFF2ACADF67A2A7B5E8960C");
auto const secondKey = ripple::uint256("B00AA769C00726371689ED66A7CF57C2502F1BF4BDFF2ACADF67A2A7B5E8960E");
auto const data = createInitialTestData({firstKey, secondKey});
auto successorChain = std::queue<ripple::uint256>();
successorChain.push(firstKey);
successorChain.push(secondKey);
auto const bookBaseObj = util::createObjectWithBookBase(Object::ModType::Created);
auto const bookBase = getBookBase(bookBaseObj.key);
[[maybe_unused]] testing::Sequence inSeq;
EXPECT_CALL(cache_, isFull()).WillOnce(testing::Return(true));
EXPECT_CALL(cache_, getSuccessor(testing::_, kSEQ))
.Times(3)
.InSequence(inSeq)
.WillRepeatedly([&](auto&&, auto&&) -> std::optional<data::LedgerObject> {
if (successorChain.empty())
return std::nullopt;
auto v = successorChain.front();
successorChain.pop();
return data::LedgerObject{.key = v, .blob = bookBaseObj.data};
});
EXPECT_CALL(*backend_, writeSuccessor(uint256ToString(data::kFIRST_KEY), kSEQ, uint256ToString(firstKey)));
EXPECT_CALL(*backend_, writeSuccessor(uint256ToString(secondKey), kSEQ, uint256ToString(data::kLAST_KEY)));
EXPECT_CALL(cache_, get(bookBase, kSEQ)).WillRepeatedly(testing::Return(std::nullopt));
EXPECT_CALL(cache_, getSuccessor(bookBase, kSEQ))
.WillRepeatedly(testing::Return(data::LedgerObject{.key = firstKey, .blob = data::Blob{'1'}}));
EXPECT_CALL(
*backend_, writeSuccessor(uint256ToString(bookBase), kSEQ, testing::_)
); // Called once because firstKey returned repeatedly above
for (auto const& key : data.edgeKeys.value()) {
EXPECT_CALL(cache_, getSuccessor(*ripple::uint256::fromVoidChecked(key), kSEQ))
.InSequence(inSeq)
.WillOnce(testing::Return(data::LedgerObject{.key = firstKey, .blob = {'1'}}));
EXPECT_CALL(*backend_, writeSuccessor(auto{key}, kSEQ, uint256ToString(firstKey))).InSequence(inSeq);
}
ext_.onInitialData(data);
}
TEST_F(SuccessorExtTests, OnInitialObjectsWithEmptyLastKey)
{
using namespace etlng::model;
auto const lastKey = std::string{};
auto const data = std::vector{
util::createObject(
Object::ModType::Created, "B00AA769C00726371689ED66A7CF57C2502F1BF4BDFF2ACADF67A2A7B5E8960E"
),
util::createObject(
Object::ModType::Created, "B00AA769C00726371689ED66A7CF57C2502F1BF4BDFF2ACADF67A2A7B5E8960F"
),
util::createObject(
Object::ModType::Created, "B00AA769C00726371689ED66A7CF57C2502F1BF4BDFF2ACADF67A2A7B5E89610"
),
};
std::string lk = lastKey;
for (auto const& obj : data) {
if (not lk.empty())
EXPECT_CALL(*backend_, writeSuccessor(std::move(lk), kSEQ, uint256ToString(obj.key)));
lk = uint256ToString(obj.key);
}
ext_.onInitialObjects(kSEQ, data, lastKey);
}
TEST_F(SuccessorExtTests, OnInitialObjectsWithNonEmptyLastKey)
{
using namespace etlng::model;
auto const lastKey =
uint256ToString(ripple::uint256("B00AA769C00726371689ED66A7CF57C2502F1BF4BDFF2ACADF67A2A7B5E8960D"));
auto const data = std::vector{
util::createObject(
Object::ModType::Created, "B00AA769C00726371689ED66A7CF57C2502F1BF4BDFF2ACADF67A2A7B5E8960E"
),
util::createObject(
Object::ModType::Created, "B00AA769C00726371689ED66A7CF57C2502F1BF4BDFF2ACADF67A2A7B5E8960F"
),
util::createObject(
Object::ModType::Created, "B00AA769C00726371689ED66A7CF57C2502F1BF4BDFF2ACADF67A2A7B5E89610"
),
};
std::string lk = lastKey;
for (auto const& obj : data) {
EXPECT_CALL(*backend_, writeSuccessor(std::move(lk), kSEQ, uint256ToString(obj.key)));
lk = uint256ToString(obj.key);
}
ext_.onInitialObjects(kSEQ, data, lastKey);
}
struct SuccessorExtAssertTests : common::util::WithMockAssert, SuccessorExtTests {};
TEST_F(SuccessorExtAssertTests, OnLedgerDataWithDeletedObjectAssertsIfGetDeletedIsNotInCache)
{
using namespace etlng::model;
auto const objKey = "B00AA769C00726371689ED66A7CF57C2502F1BF4BDFF2ACADF67A2A7B5E8960D";
auto const deletedObj = util::createObject(Object::ModType::Deleted, objKey);
auto const data = createTestData({
deletedObj,
util::createObject(Object::ModType::Modified),
});
EXPECT_CALL(cache_, isFull()).WillRepeatedly(testing::Return(true));
EXPECT_CALL(cache_, latestLedgerSequence()).WillRepeatedly(testing::Return(kSEQ));
EXPECT_CALL(cache_, getPredecessor(deletedObj.key, kSEQ)).WillRepeatedly(testing::Return(std::nullopt));
EXPECT_CALL(cache_, getSuccessor(deletedObj.key, kSEQ)).WillRepeatedly(testing::Return(std::nullopt));
EXPECT_CALL(*backend_, writeSuccessor(uint256ToString(data::kFIRST_KEY), kSEQ, uint256ToString(data::kLAST_KEY)));
EXPECT_CALL(cache_, getDeleted(deletedObj.key, kSEQ - 1)).WillRepeatedly(testing::Return(std::nullopt));
EXPECT_CLIO_ASSERT_FAIL({ ext_.onLedgerData(data); });
}
TEST_F(
SuccessorExtAssertTests,
OnLedgerDataWithCreatedObjectButWithoutCachedPredecessorAndSuccessorWithBookBaseAndBookSuccessorNotInCache
)
{
using namespace etlng::model;
auto const objKey = "B00AA769C00726371689ED66A7CF57C2502F1BF4BDFF2ACADF67A2A7B5E8960D";
auto const createdObj = util::createObjectWithBookBase(Object::ModType::Created, objKey);
auto const data = createTestData({
createdObj,
util::createObject(Object::ModType::Modified),
});
auto const bookBase = getBookBase(createdObj.key);
EXPECT_CALL(cache_, isFull()).WillRepeatedly(testing::Return(true));
EXPECT_CALL(cache_, latestLedgerSequence()).WillRepeatedly(testing::Return(kSEQ));
EXPECT_CALL(cache_, getPredecessor(createdObj.key, kSEQ)).WillRepeatedly(testing::Return(std::nullopt));
EXPECT_CALL(cache_, getSuccessor(createdObj.key, kSEQ)).WillRepeatedly(testing::Return(std::nullopt));
EXPECT_CALL(*backend_, writeSuccessor(uint256ToString(data::kFIRST_KEY), kSEQ, uint256ToString(createdObj.key)));
EXPECT_CALL(*backend_, writeSuccessor(uint256ToString(createdObj.key), kSEQ, uint256ToString(data::kLAST_KEY)));
EXPECT_CALL(cache_, get(createdObj.key, kSEQ)).WillOnce(testing::Return(data::Blob{'0'}));
EXPECT_CALL(cache_, getSuccessor(bookBase, kSEQ)).WillOnce(testing::Return(std::nullopt));
EXPECT_CLIO_ASSERT_FAIL({ ext_.onLedgerData(data); });
}
TEST_F(SuccessorExtAssertTests, OnInitialDataNotIsFull)
{
using namespace etlng::model;
auto const data = createTestData({
util::createObject(Object::ModType::Modified),
util::createObject(Object::ModType::Created),
});
EXPECT_CALL(cache_, isFull()).WillOnce(testing::Return(false));
EXPECT_CLIO_ASSERT_FAIL({ ext_.onInitialData(data); });
}
TEST_F(SuccessorExtAssertTests, OnInitialDataIsFullButNoEdgeKeys)
{
using namespace etlng::model;
auto data = createTestData({});
EXPECT_CALL(cache_, isFull()).WillOnce(testing::Return(true));
EXPECT_CLIO_ASSERT_FAIL({ ext_.onInitialData(data); });
}
TEST_F(SuccessorExtAssertTests, OnInitialDataIsFullWithEdgeKeysButHasObjects)
{
using namespace etlng::model;
auto const firstKey = ripple::uint256("B00AA769C00726371689ED66A7CF57C2502F1BF4BDFF2ACADF67A2A7B5E8960C");
auto const secondKey = ripple::uint256("B00AA769C00726371689ED66A7CF57C2502F1BF4BDFF2ACADF67A2A7B5E8960E");
auto data = createInitialTestData({firstKey, secondKey});
data.objects = {util::createObject()};
EXPECT_CALL(cache_, isFull()).WillOnce(testing::Return(true));
EXPECT_CLIO_ASSERT_FAIL({ ext_.onInitialData(data); });
}