void LanguageModel::EvaluateInIsolation(MemPool &pool, const System &system,
const Phrase<Moses2::Word> &source, const TargetPhraseImpl &targetPhrase, Scores &scores,
SCORE &estimatedScore) const
{
if (targetPhrase.GetSize() == 0) {
return;
}
SCORE score = 0;
SCORE nonFullScore = 0;
vector<const Factor*> context;
// context.push_back(m_bos);
context.reserve(m_order);
for (size_t i = 0; i < targetPhrase.GetSize(); ++i) {
const Factor *factor = targetPhrase[i][m_factorType];
ShiftOrPush(context, factor);
if (context.size() == m_order) {
std::pair<SCORE, void*> fromScoring = Score(context);
score += fromScoring.first;
} else {
std::pair<SCORE, void*> fromScoring = Score(context);
nonFullScore += fromScoring.first;
}
}
scores.PlusEquals(system, *this, score);
SCORE weightedScore = Scores::CalcWeightedScore(system, *this, nonFullScore);
estimatedScore += weightedScore;
}
/**
* @brief FacialModule::onScoreRequest
* On charge le modèle contenue dans le filename
* On enregistre l'image de la personne dans une Mat
* On tente la reconnaissance
* @param p
*/
void FacialModule::onScoreRequest(Packet *p) {
ScoreResultPacket pReturn(p);
ScoringVector *score = new ScoringVector();
FacialUtils::loadFaceRecognizer(_faceRecognizer, FACERECO);
vector<uint8> img(p->getData(), p->getData() + p->getBodySize());
Mat m = imdecode(img, CV_LOAD_IMAGE_GRAYSCALE);
//On recupère la prediction;
double confidence = 0.0;
int predictedLabel = -1;
try {
_faceRecognizer->predict(m, predictedLabel, confidence);
} catch(Exception) {
*this << WARNING << "Impossible de prédire un score" << endl;
score->push_back(Score("Inconnu", confidence));
}
map<int, string> names = FacialUtils::reloadFromCSVFile(FICHIER);
if(predictedLabel != -1) {
score->push_back(Score(names[predictedLabel], confidence));
//*this << INFO << names[predictedLabel] << confidence << endl;
}
pReturn.setScoringVector(score)->doSend();
}
//destroys the asteroid, spawning new ones if necessary
void AsteroidHit(LIST * a, int fromplayershot)
{
if(a)
{
PlaySoundIndex(SND_EXP_ASTEROID);
SpawnExplosion(NewListNode(&g_explosion_list, sizeof(EXPLOSION)), &(((ASTEROID *)a->d)->pos), (int)(((ASTEROID *)a->d)->scale) * 8);
if(((ASTEROID *)a->d)->scale > 1.0f)
{
if(fromplayershot)
Score(((ASTEROID *)a->d)->scale > 2.0f ? 20 : 50, &(((ASTEROID *)a->d)->pos));
SpawnAsteroid(NewListNode(&g_asteroid_list, sizeof(ASTEROID)), &(((ASTEROID *)a->d)->pos), ((ASTEROID *)a->d)->scale * 0.5f);
SpawnAsteroid(NewListNode(&g_asteroid_list, sizeof(ASTEROID)), &(((ASTEROID *)a->d)->pos), ((ASTEROID *)a->d)->scale * 0.5f);
}
else if(fromplayershot)
Score(100, &(((ASTEROID *)a->d)->pos));
RemoveNode(a, &g_asteroid_list);
if(!g_asteroid_list && g_ships)
g_time_to_reset = RESET_TIME;
}
}
Score LexicalReorderingTableTree::auxFindScoreForContext(const Candidates& cands, const Phrase& context){
if(m_FactorsC.empty()){
assert(cands.size() <= 1);
return (1 == cands.size())?(cands[0].GetScore(0)):(Score());
} else {
std::vector<std::string> cvec;
for(size_t i = 0; i < context.GetSize(); ++i){
/* old code
std::string s = context.GetWord(i).ToString(m_FactorsC);
cvec.push_back(s.substr(0,s.size()-1));
*/
cvec.push_back(context.GetWord(i).GetString(m_FactorsC, false));
}
IPhrase c = m_Table.ConvertPhrase(cvec,TargetVocId);
IPhrase sub_c;
IPhrase::iterator start = c.begin();
for(size_t j = 0; j <= context.GetSize(); ++j, ++start){
sub_c.assign(start, c.end());
for(size_t cand = 0; cand < cands.size(); ++cand){
IPhrase p = cands[cand].GetPhrase(0);
if(cands[cand].GetPhrase(0) == sub_c){
return cands[cand].GetScore(0);
}
}
}
return Score();
}
}
bool GameMaster::CollisionCheck()
{
if (m_ball.GetPosition().TopLeft().x + 1 <= m_player1.GetPaddle().BottomRight().x &&
m_ball.GetPosition().BottomRight().y + 1 >= m_player1.GetPaddle().TopLeft().y &&
m_ball.GetPosition().TopLeft().y + 1 <= m_player1.GetPaddle().BottomRight().y)
m_ball.ChangeSpeedX();
if (m_ball.GetPosition().BottomRight().x + 1 >= m_player2.GetPaddle().TopLeft().x &&
m_ball.GetPosition().BottomRight().y + 1 >= m_player2.GetPaddle().TopLeft().y &&
m_ball.GetPosition().TopLeft().y + 1 <= m_player2.GetPaddle().BottomRight().y)
m_ball.ChangeSpeedX();
if (m_ball.GetPosition().TopLeft().y <= m_WInfo.top + 15 || m_ball.GetPosition().BottomRight().y >= m_WInfo.bottom)
m_ball.ChangeSpeedY();
if (m_ball.GetPosition().TopLeft().x <= m_player1.GetPaddle().BottomRight().x - 5)
{
return Score(2);
}
if (m_ball.GetPosition().BottomRight().x >= m_player2.GetPaddle().TopLeft().x + 5)
{
return Score(1);
}
return false;
}
float MulticlassPA::TrainOneExample(const vector<float>& inputs, int target) {
//CHECK_GE(target, 0);
//CHECK_LT(target, num_classes_);
float target_class_score = Score(inputs, parameters_[target]);
// VLOG(1) << "target class " << target << " score " << target_class_score;
int other_class = PickAClassExcept(target);
float other_class_score = Score(inputs, parameters_[other_class]);
// VLOG(1) << "other class " << other_class << " score " << other_class_score;
float loss = 1.0 - target_class_score + other_class_score;
if (loss > 0.0) {
// Compute the learning rate according to PA-I.
float twice_norm_square = L2NormSquare(inputs) * 2.0;
if (twice_norm_square == 0.0) {
twice_norm_square = kEpsilon;
}
float rate = loss / twice_norm_square;
if (rate > aggressiveness_) {
rate = aggressiveness_;
}
// VLOG(1) << "loss = " << loss << " rate = " << rate;
// Modify the parameter vectors of the correct and wrong classes
for (int i = 0; i < static_cast<int>(inputs.size()); ++i) {
// First modify the parameter value of the correct class
parameters_[target][i] += rate * inputs[i];
// Then modify the parameter value of the wrong class
parameters_[other_class][i] -= rate * inputs[i];
}
return loss;
}
return 0.0;
}
// Compare SAMAlignment objects by qName, score and
// target positions.
bool byQNameScoreTStart(const SAMAlignment & a,
const SAMAlignment & b) {
if (a.qName == b.qName) {
if (a.score == b.score)
return a.pos < b.pos;
return Score(a.score, scoreSign).WorseThan(Score(b.score, scoreSign));
}
return (a.qName < b.qName);
}
bool HitPolicy::compareByScoreTStart(const PacBio::BAM::BamRecord & a, const PacBio::BAM::BamRecord & b) const {
assert(a.Impl().HasTag(AS) and b.Impl().HasTag(AS));
assert(a.FullName() == b.FullName());
const int aScore = a.Impl().TagValue(AS).ToInt32();
const int bScore = b.Impl().TagValue(AS).ToInt32();
if (aScore == bScore)
return a.ReferenceStart() < b.ReferenceEnd();
return Score(aScore, _sign).WorseThan(Score(bScore, _sign));
}
void GameWidget::loadDefaultScores()
{
m_scores.append(Score("Jean-Luc Picard", 10000000));//1
m_scores.append(Score("William T. Riker", 5000000));//2
m_scores.append(Score("Data", 1000000));//3
m_scores.append(Score("Deanna Troi", 500000));//4
m_scores.append(Score("Geordi La Forge", 100000));//5
m_scores.append(Score("Worf", 50000));//6
m_scores.append(Score("Beverly Crusher", 10000));//7
m_scores.append(Score("Tasha Yar", 5000));//8
m_scores.append(Score("Reginald Barclay", 1000));//9
m_scores.append(Score("Wesley Crusher", 500));//10
}
void LanguageModel::EvaluateWhenApplied(const ManagerBase &mgr,
const Hypothesis &hypo, const FFState &prevState, Scores &scores,
FFState &state) const
{
const LMState &prevLMState = static_cast<const LMState &>(prevState);
size_t numWords = prevLMState.numWords;
// context is held backwards
vector<const Factor*> context(numWords);
for (size_t i = 0; i < numWords; ++i) {
context[i] = prevLMState.lastWords[i];
}
//DebugContext(context);
SCORE score = 0;
std::pair<SCORE, void*> fromScoring;
const TargetPhrase<Moses2::Word> &tp = hypo.GetTargetPhrase();
for (size_t i = 0; i < tp.GetSize(); ++i) {
const Word &word = tp[i];
const Factor *factor = word[m_factorType];
ShiftOrPush(context, factor);
fromScoring = Score(context);
score += fromScoring.first;
}
const Bitmap &bm = hypo.GetBitmap();
if (bm.IsComplete()) {
// everything translated
ShiftOrPush(context, m_eos);
fromScoring = Score(context);
score += fromScoring.first;
fromScoring.second = NULL;
context.clear();
} else {
assert(context.size());
if (context.size() == m_order) {
context.resize(context.size() - 1);
}
}
scores.PlusEquals(mgr.system, *this, score);
// return state
//DebugContext(context);
LMState &stateCast = static_cast<LMState&>(state);
MemPool &pool = mgr.GetPool();
stateCast.Set(pool, fromScoring.second, context);
}
std::pair<unsigned int, uint8_t> Find_single_byte_xor_key(const std::vector<uint8_t>& buffer1)
{
auto best_score = 0u;
uint8_t best_key = 0;
uint8_t key = 0;
for(auto ix = 0; ix < 256; ++ix)
{
const std::vector<uint8_t> key_vector(&key, &key + 1);
const auto xor_sum = Xor_sum_vectors(buffer1, key_vector);
auto score = Score(xor_sum);
PortableRuntime::dprintf("Key: %d, score: %u\n", ix, score);
if(score > best_score)
{
best_score = score;
best_key = key;
}
++key;
}
PortableRuntime::dprintf("Best key: %u\nBest score: %u\n", static_cast<unsigned int>(best_key), best_score);
// TODO: why are types necessary here?
return std::pair<unsigned int, uint8_t>(best_score, best_key);
//return std::pair(best_score, best_key);
}
std::vector<float> LexicalReorderingTableMemory::GetScore(const Phrase& f,
const Phrase& e,
const Phrase& c) {
//rather complicated because of const can't use []... as [] might enter new things into std::map
//also can't have to be careful with words range if c is empty can't use c.GetSize()-1 will underflow and be large
TableType::const_iterator r;
std::string key;
if(0 == c.GetSize()){
key = MakeKey(f,e,c);
r = m_Table.find(key);
if(m_Table.end() != r){
return r->second;
}
} else {
//right try from large to smaller context
for(size_t i = 0; i <= c.GetSize(); ++i){
Phrase sub_c(c.GetSubString(WordsRange(i,c.GetSize()-1)));
key = MakeKey(f,e,sub_c);
r = m_Table.find(key);
if(m_Table.end() != r){
return r->second;
}
}
}
return Score();
}
//initializes or resets the state of the game
void NextLevel(void)
{
int i;
PlaySoundIndex(SND_NEWLEVEL);
g_level++;
InitStarfield(&g_starfield);
DeleteEntireList(&g_asteroid_list);
DeleteEntireList(&g_alien_list);
DeleteEntireList(&g_shot_list);
DeleteEntireList(&g_explosion_list);
DeleteEntireList(&g_burst_list);
DeleteEntireList(&g_powerup_list);
i = g_player.powerups;
ResetPlayer(&g_player);
g_player.powerups = i;
for(i = 0; i < (int)(log((double)g_level) + 2.5); i++)
SpawnAsteroid(NewListNode(&g_asteroid_list, sizeof(ASTEROID)), NULL, 4.0f);
Score((g_level > 100 ? 999 : (g_level - 1) * 10), NULL); //completion bonus
g_frame = 0;
g_time_to_reset = 0;
}
std::pair<SCORE, void*> LanguageModel::Score(
const std::vector<const Factor*> &context) const
{
//cerr << "context=";
//DebugContext(context);
std::pair<SCORE, void*> ret;
typedef Node<const Factor*, LMScores> LMNode;
const LMNode *node = m_root.getNode(context);
if (node) {
ret.first = node->getValue().prob;
ret.second = (void*) node;
} else {
SCORE backoff = 0;
std::vector<const Factor*> backOffContext(context.begin() + 1,
context.end());
node = m_root.getNode(backOffContext);
if (node) {
backoff = node->getValue().backoff;
}
std::vector<const Factor*> newContext(context.begin(), context.end() - 1);
std::pair<SCORE, void*> newRet = Score(newContext);
ret.first = backoff + newRet.first;
ret.second = newRet.second;
}
//cerr << "score=" << ret.first << endl;
return ret;
}
int main(){
char collectString[LEN_MAX+1];
gets(collectString);
for(int i=0;i<strlen(collectString);i++)
collect[collectString[i]-'a']++;
while(true){
gets(dictionary[wordNum]);
if(dictionary[wordNum][0]=='.')
break;
if(Legal(dictionary[wordNum])){
score[wordNum]=Score(dictionary[wordNum]);
if(scoreMax<score[wordNum])
scoreMax=score[wordNum];
for(int i=0;i<wordNum;i++){
char temp[2*LEN_MAX+1];
strcpy(temp,dictionary[i]);
strcat(temp,dictionary[wordNum]);
if(Legal(temp) && scoreMax<score[i]+score[wordNum])
scoreMax=score[i]+score[wordNum];
}
wordNum++;
}
}
printf("%d\n",scoreMax);
return 0;
}
SparsePoa::ReadKey SparsePoa::AddRead(const std::string& readSequence,
const PoaAlignmentOptions& /* alnOptions */,
float minScoreToAdd)
{
AlignConfig config = DefaultPoaConfig(AlignMode::LOCAL);
Path outputPath;
ReadKey key = -1;
if (graph_->NumReads() == 0) {
graph_->AddFirstRead(readSequence, &outputPath);
readPaths_.push_back(outputPath);
reverseComplemented_.push_back(false);
key = graph_->NumReads() - 1;
} else {
auto c = graph_->TryAddRead(readSequence, config, rangeFinder_);
if (c->Score() >= minScoreToAdd) {
graph_->CommitAdd(c, &outputPath);
readPaths_.push_back(outputPath);
reverseComplemented_.push_back(false);
key = graph_->NumReads() - 1;
}
delete c;
}
return key;
}
//--------------------------- Render -------------------------------------
//
//------------------------------------------------------------------------
void Raven_Bot::Render()
{
//when a bot is hit by a projectile this value is set to a constant user
//defined value which dictates how long the bot should have a thick red
//circle drawn around it (to indicate it's been hit) The circle is drawn
//as long as this value is positive. (see Render)
m_iNumUpdatesHitPersistant--;
if (isDead() || isSpawning()) return;
gdi->BluePen();
m_vecBotVBTrans = WorldTransform(m_vecBotVB,
Pos(),
Facing(),
Facing().Perp(),
Scale());
gdi->ClosedShape(m_vecBotVBTrans);
//draw the head
(gdi->*(m_pTeam->GetPen()))();
gdi->Circle(Pos(), 6.0 * Scale().x);
//render the bot's weapon
m_pWeaponSys->RenderCurrentWeapon();
//render a thick red circle if the bot gets hit by a weapon
if (m_bHit)
{
gdi->ThickRedPen();
gdi->HollowBrush();
gdi->Circle(m_vPosition, BRadius()+1);
if (m_iNumUpdatesHitPersistant <= 0)
{
m_bHit = false;
}
}
gdi->TransparentText();
gdi->TextColor(0,255,0);
if (UserOptions->m_bShowBotIDs)
{
gdi->TextAtPos(Pos().x -10, Pos().y-20, ttos(ID()));
}
if (UserOptions->m_bShowBotHealth)
{
gdi->TextAtPos(Pos().x-40, Pos().y-5, "H:"+ ttos(Health()));
}
if (UserOptions->m_bShowScore)
{
gdi->TextAtPos(Pos().x-40, Pos().y+10, "Scr:"+ ttos(Score()));
}
}
std::string MatchStateSystem::GetScoreList()
{
std::vector<Score> scoreList;
std::string scoreString = "[";
for(auto pair : g_networkEntityMap)
{
if(pair.first.ActionID != Network::ReservedActionID::CONNECT || pair.first.SequenceID != RootForce::Network::SEQUENCE_PLAYER_ENTITY || !pair.second)
continue;
PlayerComponent* playerComponent = g_world->GetEntityManager()->GetComponent<PlayerComponent>(pair.second);
scoreList.push_back(Score(playerComponent->TeamID, playerComponent->Name, playerComponent->Score, playerComponent->Deaths));
}
std::sort(scoreList.begin(), scoreList.end(), &CompareScores);
bool first = true;
for(auto score : scoreList)
{
if(first)
first = !first;
else
scoreString += ",";
scoreString += "["+std::to_string(score.Team)+",'" + RootEngine::GUISystem::PreventHTMLInjections(score.Name) + "',"+std::to_string(score.Kills)+","+std::to_string(score.Deaths)+"]";
}
scoreString += "]";
return scoreString;
}
std::vector<PacBio::BAM::BamRecord> HitPolicy::Apply(
const std::vector<PacBio::BAM::BamRecord>& records, const bool& createRand,
const int& passedRand) const
{
if (records.empty() or IsAll()) return records;
int rint = createRand ? rand() : passedRand;
//std::cout << "FilterCriteria " << ", " << records[0].FullName() << ", " << rint << std::endl;
if (IsRandom()) {
return std::vector<PacBio::BAM::BamRecord>({records[rint % records.size()]});
}
std::vector<PacBio::BAM::BamRecord> ret = records;
// Sort bam records according to score and target start position.
ScoreSign sign = this->Sign();
std::sort(ret.begin(), ret.end(),
[&sign](const PacBio::BAM::BamRecord& a, const PacBio::BAM::BamRecord& b) -> bool {
assert(a.Impl().HasTag(AS) and b.Impl().HasTag(AS));
assert(a.FullName() == b.FullName());
const int aScore = a.Impl().TagValue(AS).ToInt32();
const int bScore = b.Impl().TagValue(AS).ToInt32();
if (aScore == bScore)
return a.ReferenceStart() < b.ReferenceEnd();
else
return Score(aScore, sign).WorseThan(Score(bScore, sign));
});
// Get the best alignments whose alignment scores are the best.
// Assume that input alignments share the same query name and
// are sorted by score and tPos asscendingly: worst, ...., best
int bestScore = ret[0].Impl().TagValue(AS).ToInt32();
ret.erase(std::remove_if(ret.begin(), ret.end(),
[&bestScore](const PacBio::BAM::BamRecord& x) -> bool {
return x.Impl().TagValue(AS).ToInt32() != bestScore;
}),
ret.end());
if (IsAllbest()) {
return ret;
} else if (IsRandombest()) {
return std::vector<PacBio::BAM::BamRecord>({ret[rint % ret.size()]});
} else if (IsLeftmost()) {
return std::vector<PacBio::BAM::BamRecord>({ret[0]});
} else {
BLASR_THROW("Unsupported hit policy");
}
}
void StateGameOver::Reset(GameManager &Mgr)
{
Mgr.player = Player();
Mgr.enemies.clear();
Mgr.lasers.clear();
Mgr.score = Score((int)Mgr.player.hp);
Mgr.spawner = Spawner();
}
void Pipeline::Execute(Data *data, const char *path)
{
static unsigned int id = 0;
vector<PipeNode*> queue;
vector<Data*> data_queue;
vector<unsigned int> id_queue;
queue.push_back((*nodes)[0]);
data_queue.push_back(data);
id_queue.push_back(++id);
for (int i = 0; i < queue.size(); i++)
{
id++;
if (NULL == queue[i]->proc)
{
fprintf(stderr, "NULL proccessor occured!\n");
return;
}
else
{
//fprintf(stdout, "Executing: %s...\n", queue[i]->label.c_str());
clock_t start = clock();
Data *temp_data = queue[i]->proc(data_queue[i]);
clock_t duration = clock() - start;
if (NULL == data)
{
fprintf(stderr, "Null Data found after: %s, abort\n", queue[i]->label.c_str());
return;
}
vector<PipeNode*> *temp_succs = queue[i]->succs;
char filename[32];
char strid[32];
strcpy(filename, path);
strcat(filename, "/");
sprintf(strid, "%x", id);
strcat(filename, strid);
temp_data->Record(filename);
//write to log
fprintf(log, "%x %s %x %ld\n", id_queue[i], queue[i]->label.c_str(), id, duration); //srcid, proc, dstid, duration
for (int j = 0; j < temp_succs->size(); j++)
{
queue.push_back((*temp_succs)[j]);
data_queue.push_back(temp_data);
id_queue.push_back(id);
}
if (0 == temp_succs->size()) //last node in a path
{
//fprintf(stdout, "Scoring after: %s...\n", queue[i]->label.c_str());
Score(queue[i], temp_data, ans);
//printf("Scoring done\n");
//fflush(stdout);
}
}
}
}
void MoveShar ()
{
int x = 100, y = 100;
int x1 = 1000, y1 = 700;
int x2 = 500, y2 = 400;
int x3 = 800, y3 = 400;
int vx = 3, vy = 0;
int vx1 = -3, vy1 = 0;
int vx2 = 0, vy2 = 3;
int vx3 = 0, vy3 = -3;
int Xpr = 600, Ypr = 400;
int Xpr1 = 400, Ypr1 = 600;
int Xpr2 = 1200, Ypr2 = 450;
int Xpr3 = 100, Ypr3 = 600;
int Xpr4 = 300, Ypr4 = 300;
double dt = 1;
double v = 3, v1 = 3, v2 = 3, v3 = 3;
double Diametr = 20;
while (!GetAsyncKeyState(VK_ESCAPE))
{
if (!GetAsyncKeyState (VK_SPACE))
{
txSetFillColor (TX_BLACK);
txFloodFill (1600, 100);
txClear ();
}
dt = dt + 0.001;
Score (dt, 750, 50);
txSetColor (TX_LIGHTRED);
txSetFillColor (TX_LIGHTRED);
txCircle (x, y, Diametr);
txSetColor (TX_LIGHTGREEN);
txSetFillColor (TX_LIGHTGREEN);
txCircle (x1, y1, Diametr);
txSetColor (TX_LIGHTBLUE);
txSetFillColor (TX_LIGHTBLUE);
txCircle (x2, y2, Diametr);
txSetColor (TX_LIGHTMAGENTA);
txSetFillColor (TX_LIGHTMAGENTA);
txCircle (x3, y3, Diametr);
Prepyatstvie (Xpr, Ypr);
Prepyatstvie (Xpr1, Ypr1);
Prepyatstvie (Xpr2, Ypr2);
Prepyatstvie (Xpr3, Ypr3);
Prepyatstvie (Xpr4, Ypr4);
Sharik (&x, &y, &vx, &vy, &v, &dt, &Xpr, &Ypr, &Xpr1, &Ypr1, &Xpr2, &Ypr2, &Xpr3, &Ypr3, &Xpr4, &Ypr4);
Sharik1 (&x1, &y1, &vx1, &vy1, &v1, &dt, &Xpr, &Ypr, &Xpr1, &Ypr1, &Xpr2, &Ypr2, &Xpr3, &Ypr3, &Xpr4, &Ypr4);
Sharik2 (&x2, &y2, &vx2, &vy2, &v2, &dt, &Xpr, &Ypr, &Xpr1, &Ypr1, &Xpr2, &Ypr2, &Xpr3, &Ypr3, &Xpr4, &Ypr4);
Sharik3 (&x3, &y3, &vx3, &vy3, &v3, &dt, &Xpr, &Ypr, &Xpr1, &Ypr1, &Xpr2, &Ypr2, &Xpr3, &Ypr3, &Xpr4, &Ypr4);
//Chit (&v1);
txSleep (3);
}
}
int CRegionEvaluator::Evaluate(ChessType* board, ChessType col, int empties, bool end)
{
if(end || !empties){
return FinalScore(board, col);
}
int emptiesNum=CGameScript::CountChess(board, (ChessType)EMPTY);
return Score(board, col, emptiesNum);
}
Score LexicalReorderingTableTree::GetScore(const Phrase& f, const Phrase& e, const Phrase& c) {
if( (!m_FactorsF.empty() && 0 == f.GetSize())
|| (!m_FactorsE.empty() && 0 == e.GetSize())){
//NOTE: no check for c as c might be empty, e.g. start of sentence
//not a proper key
// phi: commented out, since e may be empty (drop-unknown)
//std::cerr << "Not a proper key!\n";
return Score();
}
CacheType::iterator i;;
if(m_UseCache){
std::pair<CacheType::iterator, bool> r = m_Cache.insert(std::make_pair(MakeCacheKey(f,e),Candidates()));
if(!r.second){
return auxFindScoreForContext((r.first)->second, c);
}
i = r.first;
} else if(!m_Cache.empty()) {
//although we might not be caching now, cache might be none empty!
i = m_Cache.find(MakeCacheKey(f,e));
if(i != m_Cache.end()){
return auxFindScoreForContext(i->second, c);
}
}
//not in cache go to file...
Score score;
Candidates cands;
m_Table.GetCandidates(MakeTableKey(f,e), &cands);
if(cands.empty()){
return Score();
}
if(m_FactorsC.empty()){
assert(1 == cands.size());
return cands[0].GetScore(0);
} else {
score = auxFindScoreForContext(cands, c);
}
//cache for future use
if(m_UseCache){
i->second = cands;
}
return score;
};
void Game::score()
{
sf::Font textFont;
textFont.loadFromFile("Fonts/BankGothic.ttf");
//int score1,score;
//Game::player1score =score1;
sf::Text Score("0 0", textFont, 50);
Score.setColor(sf::Color(100,100,100));
Score.setPosition(sf::Vector2f(SCREEN_LENGTH / 2 - 68, 20)) ;
}
double MerlinMatrix::Calculate(Tree & tree, const char * label)
{
// Clear probability vector
probabilities.Clear();
matrices.Clear();
// Calculate IBDs as well as the overall likelihood
double likelihood = Score(tree, 0, tree.bit_count - 1, mantra.two_f);
Output(label, likelihood);
return likelihood * pow(2.0, -mantra.bit_count);
}
int MulticlassPA::GetClass(const vector<float>& inputs) {
int best_class = -1;
float best_score = -10000.0;
// float best_score = -MathLimits<float>::kMax;
for (int i = 0; i < num_classes_; ++i) {
float score_i = Score(inputs, parameters_[i]);
if (score_i > best_score) {
best_score = score_i;
best_class = i;
}
}
return best_class;
}
int Player::Hit(BYTE card)
{
if (m_nCardIdx >= (PLYR_MAX_CARDS - 1)) {
return BJ_ERR_PROGRAM_ERR;
}
if (card <= 0) {
return BJ_ERR_PROGRAM_ERR;
}
m_Cards[m_nCardIdx++] = card;
m_Cards[m_nCardIdx] = PLYR_CARD_TERM;
return Score();
}
//destroys the alien ship
void AlienHit(LIST * a, int fromplayershot)
{
if(a)
{
PlaySoundIndex(SND_EXP_OTHER);
SpawnExplosion(NewListNode(&g_explosion_list, sizeof(EXPLOSION)), &(((ALIEN *)a->d)->pos), (((ALIEN *)a->d)->scale == 2.0f ? NUM_EXPLOSION_PARTICLES / 2 : NUM_EXPLOSION_PARTICLES));
if(fromplayershot)
Score((((ALIEN *)a->d)->scale == 2.0f ? 500 : 200), &(((ALIEN *)a->d)->pos));
RemoveNode(a, &g_alien_list);
}
}
//destroys the powerup without getting it
void PowerupHit(LIST * p, int fromplayershot)
{
if(p)
{
PlaySoundIndex(SND_EXP_OTHER);
SpawnExplosion(NewListNode(&g_explosion_list, sizeof(EXPLOSION)), &(((POWERUP *)p->d)->pos), NUM_EXPLOSION_PARTICLES / 2);
if(fromplayershot)
Score(666, &(((POWERUP *)p->d)->pos));
RemoveNode(p, &g_powerup_list);
}
}