MatchResult MatchUp(const InputEventQueue::FilteredQueue & Queue, InputEventQueue::FilteredQueue::const_iterator InputEventIterator)
{
if (Queue.end() == InputEventIterator)
return MatchResult(1);
if (IsPointerButtonEvent<Pointer::VirtualCategory::POINTING, 0, false>(**InputEventIterator))
{
InputEventQueue::FilteredQueue Events;
Events.push_back(*InputEventIterator);
++InputEventIterator;
return MatchResult(InputEventIterator, Events);
}
return MatchResult();
}
MatchResult MatchSpace(const InputEventQueue::FilteredQueue & Queue, InputEventQueue::FilteredQueue::const_iterator InputEventIterator)
{
if (Queue.end() == InputEventIterator)
return MatchResult(1);
if (IsPointerButtonEvent<Pointer::VirtualCategory::TYPING, GLFW_KEY_SPACE, true>(**InputEventIterator))
{
InputEventQueue::FilteredQueue Events;
Events.push_back(*InputEventIterator);
++InputEventIterator;
return MatchResult(InputEventIterator, Events);
}
return MatchResult();
}
MatchResult MatchManipulationEnd(const InputEventQueue::FilteredQueue & Queue, InputEventQueue::FilteredQueue::const_iterator InputEventIterator, bool InManipulationTEST, Input::InputId ButtonId)
{
if (true != InManipulationTEST)
return MatchResult();
if (Queue.end() == InputEventIterator)
return MatchResult(1);
if (IsPointerButtonEvent<Pointer::VirtualCategory::POINTING, false>(**InputEventIterator, ButtonId))
{
InputEventQueue::FilteredQueue Events;
Events.push_back(*InputEventIterator);
++InputEventIterator;
return MatchResult(InputEventIterator, Events);
}
return MatchResult();
}
MatchResult MatchManipulationUpdate(const InputEventQueue::FilteredQueue & Queue, InputEventQueue::FilteredQueue::const_iterator InputEventIterator, bool InManipulationTEST)
{
if (true != InManipulationTEST)
return MatchResult();
if (Queue.end() == InputEventIterator)
return MatchResult(1);
if (IsPointerPointingMoveEvent<0>(**InputEventIterator))
{
InputEventQueue::FilteredQueue Events;
Events.push_back(*InputEventIterator);
++InputEventIterator;
return MatchResult(InputEventIterator, Events);
}
return MatchResult();
}
Rule::MatchResult Rule::match(const char* first, const char* last, size_t pos /* = 0 */)
{
#ifdef _DEBUG
if (pos < 0 || pos >= (size_t)(last - first)) throw error<const char*>("invalid position of input", __FILE__, __LINE__);
#endif
const char* b = first;
char* output = NULL;
size_t size;
for (const char* i = first + pos; i != last; ++i)
{
if (parse(i, last, output, size))
{
return MatchResult(output, i - b);
}
}
return MatchResult(output, -1);
}
MatchResult CompositeWidget::InnerMatchEventQueue(InputEventQueue::FilteredQueue & UnreservedEvents)
{
for (auto & Widget : reverse(m_Widgets))
{
auto Match = Widget->MatchEventQueue(UnreservedEvents);
if (Match.AnySuccess())
return Match;
}
return MatchResult();
}
MatchResult RegExp::match(VM& vm, const String& s, unsigned startOffset)
{
#if ENABLE(REGEXP_TRACING)
m_rtMatchOnlyCallCount++;
m_rtMatchOnlyTotalSubjectStringLen += (double)(s.length() - startOffset);
#endif
ASSERT(m_state != ParseError);
compileIfNecessaryMatchOnly(vm, s.is8Bit() ? Yarr::Char8 : Yarr::Char16);
#if ENABLE(YARR_JIT)
if (m_state == JITCode) {
MatchResult result = s.is8Bit() ?
m_regExpJITCode.execute(s.characters8(), startOffset, s.length()) :
m_regExpJITCode.execute(s.characters16(), startOffset, s.length());
#if ENABLE(REGEXP_TRACING)
if (!result)
m_rtMatchOnlyFoundCount++;
#endif
return result;
}
#endif
int offsetVectorSize = (m_numSubpatterns + 1) * 2;
int* offsetVector;
Vector<int, 32> nonReturnedOvector;
nonReturnedOvector.resize(offsetVectorSize);
offsetVector = nonReturnedOvector.data();
int r = Yarr::interpret(m_regExpBytecode.get(), s, startOffset, reinterpret_cast<unsigned*>(offsetVector));
#if REGEXP_FUNC_TEST_DATA_GEN
RegExpFunctionalTestCollector::get()->outputOneTest(this, s, startOffset, offsetVector, result);
#endif
if (r >= 0) {
#if ENABLE(REGEXP_TRACING)
m_rtMatchOnlyFoundCount++;
#endif
return MatchResult(r, reinterpret_cast<unsigned*>(offsetVector)[1]);
}
return MatchResult::failed();
}
const Selector::MatchResult AttributeSelector::Match(const Node* node) const
{
switch (m_operator)
{
case SelectorOperator::Exists:
{
if (node->HasAttribute(m_attributeNameRef))
{
return MatchResult(node);
}
}
break;
case SelectorOperator::ValueContains:
{
auto attributeValue = node->GetAttributeValue(m_attributeNameRef);
if (attributeValue.size() == 0)
{
return false;
}
// Just do a search
auto searchResult = attributeValue.find(m_attributeValueRef);
// Simply return whether or not we got any matches.
if (searchResult != boost::string_ref::npos)
{
return MatchResult(node);
}
}
break;
case SelectorOperator::ValueEquals:
{
auto attributeValue = node->GetAttributeValue(m_attributeNameRef);
auto oneSize = attributeValue.size();
auto twoSize = m_attributeValueRef.size();
if (oneSize == 0 || oneSize != twoSize)
{
return false;
}
if (oneSize >= 4)
{
if ((attributeValue[0] == m_attributeValueRef[0]) &&
(attributeValue[1] == m_attributeValueRef[1]) &&
(attributeValue[oneSize - 1] == m_attributeValueRef[oneSize - 1]) &&
(attributeValue[oneSize - 2] == m_attributeValueRef[oneSize - 2]))
{
if (std::memcmp(attributeValue.begin(), m_attributeValueRef.begin(), oneSize) == 0)
{
return MatchResult(node);
}
}
}
else
{
if (std::memcmp(attributeValue.begin(), m_attributeValueRef.begin(), oneSize) == 0)
{
return MatchResult(node);
}
}
return false;
}
break;
case SelectorOperator::ValueHasPrefix:
{
auto attributeValue = node->GetAttributeValue(m_attributeNameRef);
auto subSize = m_attributeValueRef.size();
if (attributeValue.size() == 0 || attributeValue.size() <= subSize)
{
return false;
}
auto sub = attributeValue.substr(0, subSize);
subSize = sub.size();
if (subSize == m_attributeValueRef.size())
{
if (subSize >= 4)
{
if ((sub[0] == m_attributeValueRef[0]) &&
(sub[1] == m_attributeValueRef[1]) &&
(sub[subSize - 1] == m_attributeValueRef[subSize - 1]) &&
(sub[subSize - 2] == m_attributeValueRef[subSize - 2]))
{
if (std::memcmp(sub.begin(), m_attributeValueRef.begin(), subSize) == 0)
{
return MatchResult(node);
}
}
}
else
{
if (std::memcmp(sub.begin(), m_attributeValueRef.begin(), subSize) == 0)
{
return MatchResult(node);
}
}
}
return false;
}
break;
case SelectorOperator::ValueHasSuffix:
{
auto attributeValue = node->GetAttributeValue(m_attributeNameRef);
auto subSize = m_attributeValueRef.size();
// If our suffix is greater than the attribute value, we can just move on.
if (attributeValue.size() == 0 || subSize >= attributeValue.size())
{
return false;
}
// Test equality of same-length substring taken from the end.
boost::string_ref sub = attributeValue.substr((attributeValue.size() - subSize));
subSize = sub.size();
if (subSize == m_attributeValueRef.size())
{
if (subSize >= 4)
{
if ((sub[0] == m_attributeValueRef[0]) &&
(sub[1] == m_attributeValueRef[1]) &&
(sub[subSize - 1] == m_attributeValueRef[subSize - 1]) &&
(sub[subSize - 2] == m_attributeValueRef[subSize - 2]))
{
if (std::memcmp(sub.begin(), m_attributeValueRef.begin(), subSize) == 0)
{
return MatchResult(node);
}
}
}
else
{
if (std::memcmp(sub.begin(), m_attributeValueRef.begin(), subSize) == 0)
{
return MatchResult(node);
}
}
}
return false;
}
break;
case SelectorOperator::ValueContainsElementInWhitespaceSeparatedList:
{
auto attributeValue = node->GetAttributeValue(m_attributeNameRef);
// If the attribute value to check is smaller than our value, then we can just
// return false right away.
if (attributeValue.size() == 0 || attributeValue.size() < m_attributeValueRef.size())
{
return false;
}
if (attributeValue.size() == m_attributeValueRef.size())
{
// If the two values match exactly, this is considered a match with this
// selector type. If they do not match, the only other possible type of match
// this operator can make is the match the selector value PLUS whitespace, in
// which case this isn't possible (being the two strings equal length), so
// letting boost::iequals return false or true is the right answer either way.
auto oneSize = attributeValue.size();
if (oneSize >= 4)
{
if ((attributeValue[0] == m_attributeValueRef[0]) &&
(attributeValue[1] == m_attributeValueRef[1]) &&
(attributeValue[oneSize - 1] == m_attributeValueRef[oneSize - 1]) &&
(attributeValue[oneSize - 2] == m_attributeValueRef[oneSize - 2]))
{
if (std::memcmp(attributeValue.begin(), m_attributeValueRef.begin(), oneSize) == 0)
{
return MatchResult(node);
}
}
}
else
{
if (std::memcmp(attributeValue.begin(), m_attributeValueRef.begin(), oneSize) == 0)
{
return MatchResult(node);
}
}
return false;
}
// If there isn't anything that qualifies as whitespace in the CSS selector world,
// then we can just immediately return false.
auto anySpacePosition = attributeValue.find(' ');
if (anySpacePosition == boost::string_ref::npos)
{
return false;
}
auto firstSpace = attributeValue.find(' ');
while (firstSpace != boost::string_ref::npos && attributeValue.size() > 0)
{
if (firstSpace > 0 && firstSpace == m_attributeValueRef.size())
{
auto sub = attributeValue.substr(0, firstSpace);
auto subSize = sub.size();
if (subSize == m_attributeValueRef.size())
{
if (subSize >= 4)
{
if ((sub[0] == m_attributeValueRef[0]) &&
(sub[1] == m_attributeValueRef[1]) &&
(sub[subSize - 1] == m_attributeValueRef[subSize - 1]) &&
(sub[subSize - 2] == m_attributeValueRef[subSize - 2]))
{
if (std::memcmp(sub.begin(), m_attributeValueRef.begin(), subSize) == 0)
{
return MatchResult(node);
}
}
}
else
{
if (std::memcmp(sub.begin(), m_attributeValueRef.begin(), subSize) == 0)
{
return MatchResult(node);
}
}
}
}
attributeValue = attributeValue.substr(firstSpace + 1);
firstSpace = attributeValue.find(' ');
}
return false;
}
break;
case SelectorOperator::ValueIsHyphenSeparatedListStartingWith:
{
auto attributeValue = node->GetAttributeValue(m_attributeNameRef);
// If the attribute value to check is smaller than our value, then we can just
// return false right away.
if (attributeValue.size() == 0 || attributeValue.size() < m_attributeValueRef.size())
{
return false;
}
if (attributeValue.size() == m_attributeValueRef.size())
{
// If the two values match exactly, this is considered a match with this
// selector type. If they do not match, the only other possible type of match
// this operator can make is the match the selector value PLUS a dash, in which
// case this isn't possible (being the two strings equal length), so letting
// boost::iequals return false or true is the right answer either way.
auto oneSize = attributeValue.size();
if (oneSize >= 4)
{
if ((attributeValue[0] == m_attributeValueRef[0]) &&
(attributeValue[1] == m_attributeValueRef[1]) &&
(attributeValue[oneSize - 1] == m_attributeValueRef[oneSize - 1]) &&
(attributeValue[oneSize - 2] == m_attributeValueRef[oneSize - 2]))
{
if (std::memcmp(attributeValue.begin(), m_attributeValueRef.begin(), oneSize) == 0)
{
return MatchResult(node);
}
}
}
else
{
if (std::memcmp(attributeValue.begin(), m_attributeValueRef.begin(), oneSize) == 0)
{
return MatchResult(node);
}
}
return false;
}
// If we didn't find an exact match, then the only hope of a match now is finding
// the selector value at the start of the attribute value, immediately followed by a
// hyphen. Therefore, if we can't find a hypen, then we simply return false right
// away.
auto anyHyphen = attributeValue.find('-');
if (anyHyphen == boost::string_ref::npos)
{
return false;
}
// A hyphen was found, so all we have to do is make a case-insensitive match against
// a substring of equal length to our member value.
boost::string_ref sub = attributeValue.substr(0, m_attributeValueRef.size() + 1);
if (sub[sub.length() - 1] != '-')
{
// If the last character in the substring isn't a dash, it can't possibly be a match anyway.
return false;
}
sub = attributeValue.substr(0, m_attributeValueRef.size());
auto subSize = sub.size();
if (subSize == m_attributeValueRef.size())
{
if (subSize >= 4)
{
if ((sub[0] == m_attributeValueRef[0]) &&
(sub[1] == m_attributeValueRef[1]) &&
(sub[subSize - 1] == m_attributeValueRef[subSize - 1]) &&
(sub[subSize - 2] == m_attributeValueRef[subSize - 2]))
{
if (std::memcmp(sub.begin(), m_attributeValueRef.begin(), subSize) == 0)
{
return MatchResult(node);
}
}
}
else
{
if (std::memcmp(sub.begin(), m_attributeValueRef.begin(), subSize) == 0)
{
return MatchResult(node);
}
}
}
return false;
}
break;
}
return false;
}
extern void CommandRelationalAddMatch(char *sz)
{
DBProvider *pdb;
char *buf, *buf2, *date;
char warnings[1024] = "";
int session_id, existing_id, player_id0, player_id1;
char *arg = NULL;
gboolean quiet = FALSE;
arg = NextToken(&sz);
if (arg)
quiet = !strcmp(arg, "quiet");
if (ListEmpty(&lMatch))
{
outputl( _("No match is being played.") );
return;
}
/* Warn if match is not finished or fully analyzed */
if (!quiet && !GameOver())
strcat(warnings, _("The match is not finished\n"));
if (!quiet && !MatchAnalysed())
strcat(warnings, _("All of the match is not analyzed\n"));
if (*warnings)
{
strcat(warnings, _("\nAdd match anyway?"));
if (!GetInputYN(warnings))
return;
}
if ((pdb = ConnectToDB(dbProviderType)) == NULL)
return;
existing_id = RelationalMatchExists(pdb);
if (existing_id != -1)
{
if (!quiet && !GetInputYN(_("Match exists, overwrite?")))
return;
/* Remove any game stats and games */
buf2 = g_strdup_printf("FROM game WHERE session_id = %d", existing_id);
buf = g_strdup_printf("DELETE FROM gamestat WHERE game_id in (SELECT game_id %s)", buf2);
pdb->UpdateCommand(buf);
g_free(buf);
buf = g_strdup_printf("DELETE %s", buf2);
pdb->UpdateCommand(buf);
g_free(buf);
g_free(buf2);
/* Remove any match stats and session */
buf = g_strdup_printf("DELETE FROM matchstat WHERE session_id = %d", existing_id);
pdb->UpdateCommand(buf);
g_free(buf);
buf = g_strdup_printf("DELETE FROM session WHERE session_id = %d", existing_id);
pdb->UpdateCommand(buf);
g_free(buf);
}
session_id = GetNextId(pdb, "session");
player_id0 = AddPlayer(pdb, ap[0].szName);
player_id1 = AddPlayer(pdb, ap[1].szName);
if (session_id == -1 || player_id0 == -1 || player_id1 == -1)
{
outputl( _("Error adding match.") );
return;
}
if( mi.nYear )
date = g_strdup_printf("%04d-%02d-%02d", mi.nYear, mi.nMonth, mi.nDay);
else
date = NULL;
buf = g_strdup_printf("INSERT INTO session(session_id, checksum, player_id0, player_id1, "
"result, length, added, rating0, rating1, event, round, place, annotator, comment, date) "
"VALUES (%d, '%s', %d, %d, %d, %d, CURRENT_TIMESTAMP, '%s', '%s', '%s', '%s', '%s', '%s', '%s', '%s')",
session_id, GetMatchCheckSum(), player_id0, player_id1,
MatchResult(ms.nMatchTo), ms.nMatchTo, NS(mi.pchRating[0]), NS(mi.pchRating[1]),
NS(mi.pchEvent), NS(mi.pchRound), NS(mi.pchPlace), NS(mi.pchAnnotator), NS(mi.pchComment), NS(date));
updateStatisticsMatch ( &lMatch );
if (pdb->UpdateCommand(buf))
{
if (AddStats(pdb, session_id, player_id0, 0, "matchstat", ms.nMatchTo, &scMatch) &&
AddStats(pdb, session_id, player_id1, 1, "matchstat", ms.nMatchTo, &scMatch))
{
if (storeGameStats)
AddGames(pdb, session_id, player_id0, player_id1);
pdb->Commit();
}
}
g_free(buf);
g_free(date);
pdb->Disconnect();
}
MatchResult GestureRecognizer::MatchEventQueue(InputEventQueue::FilteredQueue & UnreservedEvents)
{
auto InputEventIterator = UnreservedEvents.begin();
auto & InputEvent = **InputEventIterator;
#if 1
// If the pointer is not connected to this GR (meaning a failed HitTest), return failed match
// DEBUG: Is this the right way to go about it? Or a temporary hack? Figure it out.
if ( nullptr != InputEvent.m_Pointer
&& GetConnected().end() == GetConnected().find(InputEvent.m_Pointer)
&& nullptr == dynamic_cast<TypingModule *>(&m_Owner)) // HACK!! (To enable TypingModule to work, i.e. get input while not being pointed to)
{
m_InManipulation = false; // HACK: Not sure if this is the best way of doing it
return MatchResult();
}
#else
Vector2n GlobalPosition(InputEvent.m_PreEventState.GetAxisState(0).GetPosition(), InputEvent.m_PreEventState.GetAxisState(1).GetPosition());
//printf("Global Pos %d, %d.\n", GlobalPosition.X(), GlobalPosition.Y());
if (/* !m_InManipulation
&& */!static_cast<Widget &>(m_Owner).IsHit(static_cast<Widget &>(m_Owner).GlobalToParent(GlobalPosition))
&& ( nullptr != InputEvent.m_Pointer
&& GetConnected().end() == GetConnected().find(InputEvent.m_Pointer)))
{
return MatchResult();
}
#endif
// DEBUG: I don't think the following is neccessary anymore, so I will try just setting Hit to true at all times and see if that breaks anything. If not, might as well remove this (unneccessary?) check
#if 0
Vector2n GlobalPosition(InputEvent.m_PreEventState.GetAxisState(0).GetPosition(), InputEvent.m_PreEventState.GetAxisState(1).GetPosition());
auto Hit = static_cast<Widget &>(m_Owner).IsHit(static_cast<Widget &>(m_Owner).GlobalToParent(GlobalPosition));
/*if (!Hit) {
std::cout << "OMGGG LOOK HERE!!!! Hit IS false\n";
}*/
#else
auto Hit = true;
#endif
MatchResult Match;
if (m_RecognizeDoubleTap && (Match = MatchDoubleTap2(UnreservedEvents, InputEventIterator)).AnySuccess())
{
if (2 == Match.Status)
{
m_Owner.ProcessDoubleTap(InputEvent, Vector2n((*InputEventIterator)->m_PostEventState.GetAxisState(0).GetPosition(), (*InputEventIterator)->m_PostEventState.GetAxisState(1).GetPosition()));
}
}
else if (m_RecognizeTap && (Match = MatchTap2(UnreservedEvents, InputEventIterator)).AnySuccess())
{
if (2 == Match.Status)
{
m_Owner.ProcessTap(InputEvent, Vector2n((*InputEventIterator)->m_PostEventState.GetAxisState(0).GetPosition(), (*InputEventIterator)->m_PostEventState.GetAxisState(1).GetPosition()));
}
}
else if (m_RecognizeManipulationTranslate && (Match = MatchManipulationBegin(UnreservedEvents, InputEventIterator, m_InManipulation, Hit, m_RecognizeManipulationTranslateButtonId)).AnySuccess())
{
if (2 == Match.Status)
{
m_InManipulation = true;
m_Owner.ProcessManipulationBegin(InputEvent);
}
}
else if (m_RecognizeManipulationTranslate && (Match = MatchManipulationUpdate(UnreservedEvents, InputEventIterator, m_InManipulation)).AnySuccess())
{
if (2 == Match.Status)
{
m_Owner.ProcessManipulationUpdate(InputEvent);
}
}
else if (m_RecognizeManipulationTranslate && (Match = MatchManipulationEnd(UnreservedEvents, InputEventIterator, m_InManipulation, m_RecognizeManipulationTranslateButtonId)).AnySuccess())
{
if (2 == Match.Status)
{
m_Owner.ProcessManipulationEnd(InputEvent);
m_InManipulation = false;
}
}
else if (ProcessShortcuts(InputEvent))
{
Match.Status = 2;
Match.Events.push_back(*InputEventIterator);
}
else if (ProcessEventHandledTEST(InputEvent))
{
Match.Status = 2;
Match.Events.push_back(*InputEventIterator);
}
return Match;
}
MatchResult MatchDoubleTap2(const InputEventQueue::FilteredQueue & Queue, InputEventQueue::FilteredQueue::const_iterator InputEventIterator)
{
auto Match = MatchDown(Queue, InputEventIterator);
if (2 == Match.Status)
{
Vector2n DownPosition((*InputEventIterator)->m_PostEventState.GetAxisState(0).GetPosition(), (*InputEventIterator)->m_PostEventState.GetAxisState(1).GetPosition());
auto DownTime = (*InputEventIterator)->GetTimestamp();
auto PointingPointer = (*InputEventIterator)->m_Pointer;
uint8 NumberOfTaps = 0;
auto FilteredQueue2 = InputEventQueue::FilterByPointer(InputEventQueue::CreateFilteredQueue(Queue, Match.End), PointingPointer);
for (auto InputEventIterator2 = FilteredQueue2.begin(); FilteredQueue2.end() != InputEventIterator2; ++InputEventIterator2)
{
Match.Events.push_back(*InputEventIterator2);
if (IsPointerButtonEvent<Pointer::VirtualCategory::POINTING, 0, false>(**InputEventIterator2))
{
Vector2n UpPosition((*InputEventIterator2)->m_PostEventState.GetAxisState(0).GetPosition(), (*InputEventIterator2)->m_PostEventState.GetAxisState(1).GetPosition());
auto UpTime = (*InputEventIterator2)->GetTimestamp();
if ( (UpPosition - DownPosition).LengthSquared() <= (TapRadius * TapRadius)
&& (UpTime - DownTime) <= DoubleTapTime)
{
if (1 == NumberOfTaps)
{
++InputEventIterator2;
return MatchResult(InputEventIterator2, Match.Events);
}
else
++NumberOfTaps;
}
else
{
return MatchResult();
}
}
else if (IsPointerPointingMoveEvent<0>(**InputEventIterator2))
{
Vector2n MovePosition((*InputEventIterator2)->m_PostEventState.GetAxisState(0).GetPosition(), (*InputEventIterator2)->m_PostEventState.GetAxisState(1).GetPosition());
auto NewTime = (*InputEventIterator2)->GetTimestamp();
if ( (MovePosition - DownPosition).LengthSquared() <= (TapRadius * TapRadius)
&& (NewTime - DownTime) <= TapTime)
{}
else
{
return MatchResult();
}
}
else if (IsPointerButtonEvent<Pointer::VirtualCategory::POINTING, 0, true>(**InputEventIterator2))
{
Vector2n DownAgainPosition((*InputEventIterator2)->m_PostEventState.GetAxisState(0).GetPosition(), (*InputEventIterator2)->m_PostEventState.GetAxisState(1).GetPosition());
auto NewTime = (*InputEventIterator2)->GetTimestamp();
if ( (DownAgainPosition - DownPosition).LengthSquared() <= (TapRadius * TapRadius)
&& (NewTime - DownTime) <= TapTime)
{}
else
{
return MatchResult();
}
}
else
{
return MatchResult();
}
}
// Only if there's still a chance a new event can come in time to make a match
if ((glfwGetTime() - DownTime) <= DoubleTapTime)
{
Match.Status = 1;
return Match;
}
}
else
{
return Match;
}
return MatchResult();
}
MatchResult flipResult(const MatchResult& result) {
return MatchResult(result.index2, result.index1, result.distance);
}
MatchResult pairToMatchResult(const std::pair<Match, double>& pair) {
return MatchResult(pair.first, pair.second);
}
void AIModule::saveGameResult(bool isBotWinner)
{
MatchResult result = MatchResult(game, isBotWinner);
result.save("result.txt");
}
