void PlayerTroop::ResolveBattle(PlayerTroop* enemy){
if (getStats()->getAttack() > enemy->getStats()->getDefence()){
float damage = getStats()->getAttack();
damage /= enemy->getStats()->getArmour() + 1;
enemy->DealDamage(damage * Game->TIME.delta);
}
}
/*
* Example obtainting client stats from an E_CONNECT or E_STOP event
*/
void FmsAuthAdaptor::processStats(IFmsAuthEvent* pAev)
{
I64 statsHandle;
FmsClientStats baseStats;
if (!getI64Field(pAev, IFmsAuthEvent::F_CLIENT_STATS_HANDLE, statsHandle))
return;
char* pAppName = getStringField(pAev, IFmsAuthEvent::F_APP_NAME);
if (pAev->getType() == IFmsAuthEvent::E_CONNECT)
{
getStats(statsHandle, baseStats);
// log data
char buf[1024];
char hashKey[9];
memset(hashKey, 0, 9);
memcpy(hashKey, &statsHandle, sizeof(statsHandle));
sprintf(buf, "client Stats Handle= %s, bytes_in= %f, bytes_out= %f\n", hashKey,
static_cast<double>(baseStats.bytes_in), static_cast<double>(baseStats.bytes_out));
m_pFmsAuthServerContext->log(buf, IFmsServerContext::kInformation, false);
}
else if (pAev->getType() == IFmsAuthEvent::E_STOP)
{
getStats(statsHandle, baseStats);
}
}
PlayerTroop::PlayerTroop(int health, int attack, int armour, int defence, int range, float speed, std::string name) : Object(name){
getStats()->setHealth(health);
getStats()->setAttack(attack);
getStats()->setArmour(armour);
getStats()->setDefence(defence);
getStats()->setRange(range);
getStats()->setSpeed(speed);
getStats()->setMaxHealth(health);
getStats()->setMaxAttack(attack);
getStats()->setMaxArmour(armour);
getStats()->setMaxDefence(defence);
m_target = NULL;
}
/**
* Calculate firing accuracy.
* Formula = accuracyStat * weaponAccuracy * kneelingbonus(1.15) * one-handPenalty(0.8) * woundsPenalty(% health) * critWoundsPenalty (-10%/wound)
* @param actionType
* @param item
* @return firing Accuracy
*/
double BattleUnit::getFiringAccuracy(BattleActionType actionType, BattleItem *item)
{
double result = (double)(getStats()->firing / 100.0);
double weaponAcc = item->getRules()->getAccuracySnap();
if (actionType == BA_AIMEDSHOT || actionType == BA_LAUNCH)
weaponAcc = item->getRules()->getAccuracyAimed();
else if (actionType == BA_AUTOSHOT)
weaponAcc = item->getRules()->getAccuracyAuto();
else if (actionType == BA_HIT)
weaponAcc = item->getRules()->getAccuracyMelee();
result *= (double)(weaponAcc/100.0);
if (_kneeled)
result *= 1.15;
if (item->getRules()->isTwoHanded())
{
// two handed weapon, means one hand should be empty
if (getItem("STR_RIGHT_HAND") != 0 && getItem("STR_LEFT_HAND") != 0)
{
result *= 0.80;
}
}
return result * getAccuracyModifier();
}
bool Entity::humanCanWieldItem(const Item& item) const
{
Stat* myStats = getStats();
if ( !myStats )
{
return false;
}
if ( monsterAllyIndex >= 0 && (monsterAllyClass != ALLY_CLASS_MIXED || item.interactNPCUid == getUID()) )
{
return monsterAllyEquipmentInClass(item);
}
switch ( itemCategory(&item) )
{
case WEAPON:
return true;
case ARMOR:
return true;
case MAGICSTAFF:
return false;
case THROWN:
return false;
default:
return false;
}
return false;
}
TEST_F(PacksTests, test_discovery_zero_state) {
auto pack = Pack("foobar", getPackWithDiscovery());
auto stats = pack.getStats();
EXPECT_EQ(stats.total, 0);
EXPECT_EQ(stats.hits, 0);
EXPECT_EQ(stats.misses, 0);
}
int query13() {
char filename[40];
char *linha=NULL;
Stats stats=NULL;
int ano, npublics,publics;
double percentagem=0.0;
CatalogoPtr c=NULL;
ano = npublics = publics=0;
printf("Nome do autor: ");
if (fgets(filename, 40, stdin) != NULL) {
linha = newline(filename);
}
ano = 0;
printf("Ano: ");
if(scanf("%d", &ano)>0) {
c=getCatalogo();
stats=getStats();
npublics = npublicsem(c,linha, ano);
publics=getPublics(ano,stats);
percentagem=(double)npublics/publics;
percentagem=percentagem*100;
printf("Percentagem relativa ao nr publicações de %d: %f\n",ano,percentagem);
}
return 1;
}
int query10() {
int year = 0;
FILE *fp;
char filename[40];
Stats stats=NULL;
int i;
printf("Ano: ");
if(scanf("%d", &year)>0) {
getchar();
printf("Nome do ficheiro em qual quer gravar: ");
if (fgets(filename, 40, stdin) != NULL) {
fp = NULL;
fp = fopen(filename, "w");
fprintf(fp, "#Ano;#Autores;#Publicações\n");
stats = getStats();
while (stats->ano != year) {
if (year < stats->ano) {
stats = stats->left;
} else {
stats = stats->right;
}
}
printf("#Ano;#Autores;#Publicações\n");
for (i = 0; i <= 2; i++) {
printf("%d;%d;%d\n", stats->ano, i + 1, stats->coautores[i]);
fprintf(fp, "%d;%d;%d\n", stats->ano, i + 1, stats->coautores[i]);
}
fclose(fp);
}
}
return 1;
}
STDMETHODIMP MachineDebuggerWrap::GetStats(IN_BSTR aPattern,
BOOL aWithDescriptions,
BSTR *aStats)
{
LogRelFlow(("{%p} %s:enter aPattern=%ls aWithDescriptions=%RTbool aStats=%p\n", this, "MachineDebugger::getStats", aPattern, aWithDescriptions, aStats));
VirtualBoxBase::clearError();
HRESULT hrc;
try
{
CheckComArgOutPointerValidThrow(aStats);
AutoCaller autoCaller(this);
if (FAILED(autoCaller.rc()))
throw autoCaller.rc();
hrc = getStats(BSTRInConverter(aPattern).str(),
aWithDescriptions,
BSTROutConverter(aStats).str());
}
catch (HRESULT hrc2)
{
hrc = hrc2;
}
catch (...)
{
hrc = VirtualBoxBase::handleUnexpectedExceptions(this, RT_SRC_POS);
}
LogRelFlow(("{%p} %s: leave aStats=%ls hrc=%Rhrc\n", this, "MachineDebugger::getStats", *aStats, hrc));
return hrc;
}
void run() {
//Instance inst1 = InstanceGenerator::generate("./src/instances/test", 25, 3, 0, 0);
//generateInstances();
int numAnts = 100;
std::string path = "./src/instances/weakly_correlated/10k25i.dat";
//Instance inst = InstanceGenerator::generate(path, 25, 10, 1, 1);
Instance inst(path);
Colony col(inst, numAnts, 0.95, 2.0, 1.0);
getStats(col, 10, inst.getOptimal());
//ColonyTuner cT(inst1, numAnts);
//Colony col = cT.test();
//Solution best = col.run();
//printResults(col.getSolutionValues());
//std::cout << "Best solution found: " << best.getValue() << "\n";
//std::cout << "Optimal value: " << inst.getOptimal() << "\n";
//std::cout << best.toString() << "\n";
}
void
tr_statsFileCreated (tr_session * session)
{
struct tr_stats_handle * s;
if ((s = getStats (session)))
s->single.filesAdded++;
}
/**
* Get the number of time units a certain action takes.
* @param actionType
* @param item
* @return TUs
*/
int BattleUnit::getActionTUs(BattleActionType actionType, BattleItem *item)
{
if (item == 0)
{
return 0;
}
switch (actionType)
{
case BA_PRIME:
return (int)floor(getStats()->tu * 0.50);
case BA_THROW:
return (int)floor(getStats()->tu * 0.25);
case BA_AUTOSHOT:
return (int)(getStats()->tu * item->getRules()->getTUAuto() / 100);
case BA_SNAPSHOT:
return (int)(getStats()->tu * item->getRules()->getTUSnap() / 100);
case BA_HIT:
return (int)(getStats()->tu * item->getRules()->getTUMelee() / 100);
case BA_LAUNCH:
case BA_AIMEDSHOT:
return (int)(getStats()->tu * item->getRules()->getTUAimed() / 100);
case BA_USE:
return (int)(getStats()->tu * item->getRules()->getTUUse() / 100);
case BA_MINDCONTROL:
case BA_PANIC:
return item->getRules()->getTUUse();
default:
return 0;
}
}
void CInimigo::die()
{
if(getStats()->getPV() <= 0)
{
divisorxp->giveXP();
estado = E_MORTO;
respawn = ENEMYRESPAWNTIME;
}
}
void tr_statsAddDownloaded(tr_session* session, uint32_t bytes)
{
struct tr_stats_handle* s;
if ((s = getStats(session)) != NULL)
{
s->single.downloadedBytes += bytes;
s->isDirty = true;
}
}
Individual<N> * Population<N>::iterate (int iterations) {
for (int i = 0; i < iterations; i++) {
Individual<N> * fittest = getFittest ();
if (fittest) {
return fittest;
}
else {
// print ();
if (OUTPUT) {
std::cout << std::endl
<< "WHOLE POPULATION:" << std::endl;
}
getStats (individuals, size);
// if (OUTPUT) print ();
if (OUTPUT) std::cout << "WINNERS:" << std::endl;
Individual<N> * winners = tournament ();
getStats (winners, size/2);
// if (OUTPUT) print (winners);
mutation (winners);
if (OUTPUT) std::cout << "WINNERS AFTER MUTATION:" << std::endl;
getStats (winners, size/2);
// if (OUTPUT) print (winners);
if (OUTPUT) std::cout << "CHILDREN:" << std::endl;
Individual<N> * children = crossOver (winners);
getStats (children, size/2);
// if (OUTPUT) print (children);
merge (winners, children);
return fittest;
}
}
return nullptr;
}
TEST_F(PacksTests, test_discovery_cache) {
auto pack = Pack("foobar", getPackWithDiscovery());
for (int i = 0; i < 5; i++) {
pack.checkDiscovery();
}
auto stats = pack.getStats();
EXPECT_EQ(stats.total, 5);
EXPECT_EQ(stats.hits, 4);
EXPECT_EQ(stats.misses, 1);
}
/**
* Restore soldier morale
*/
void BattleUnit::painKillers ()
{
if (!getFatalWounds() || !_needPainKiller)
{
return ;
}
_needPainKiller = false;
int lostHealth = getStats()->health - _health;
_morale += lostHealth;
}
void tr_sessionGetCumulativeStats(tr_session const* session, tr_session_stats* setme)
{
struct tr_stats_handle const* stats = getStats(session);
tr_session_stats current = TR_SESSION_STATS_INIT;
if (stats != NULL)
{
tr_sessionGetStats(session, ¤t);
addStats(setme, &stats->old, ¤t);
}
}
void tr_sessionGetStats(tr_session const* session, tr_session_stats* setme)
{
struct tr_stats_handle const* stats = getStats(session);
if (stats != NULL)
{
*setme = stats->single;
setme->secondsActive = tr_time() - stats->startTime;
updateRatio(setme);
}
}
/**
* To calculate firing accuracy. Takes health and fatal wounds into account.
* Formula = accuracyStat * woundsPenalty(% health) * critWoundsPenalty (-10%/wound)
* @return modifier
*/
double BattleUnit::getAccuracyModifier()
{
double result = ((double)_health/(double)getStats()->health);
int wounds = _fatalWounds[BODYPART_HEAD] + _fatalWounds[BODYPART_RIGHTARM];
if (wounds > 9)
wounds = 9;
result *= 1 + (-0.1*wounds);
return result;
}
void tr_statsSaveDirty(tr_session* session)
{
struct tr_stats_handle* h = getStats(session);
if (h != NULL && h->isDirty)
{
tr_session_stats cumulative = TR_SESSION_STATS_INIT;
tr_sessionGetCumulativeStats(session, &cumulative);
saveCumulativeStats(session, &cumulative);
h->isDirty = false;
}
}
void
tr_statsAddUploaded( tr_session * session,
uint32_t bytes )
{
struct tr_stats_handle * s;
if( ( s = getStats( session ) ) )
{
s->single.uploadedBytes += bytes;
s->isDirty = TRUE;
}
}
void
tr_statsSaveDirty( tr_session * session )
{
struct tr_stats_handle * h = getStats( session );
if( ( h != NULL ) && h->isDirty )
{
tr_session_stats cumulative = STATS_INIT;
tr_sessionGetCumulativeStats( session, &cumulative );
saveCumulativeStats( session, &cumulative );
h->isDirty = FALSE;
}
}
void Champion::update(int64 diff) {
Unit::update(diff);
if(respawnTimer > 0) {
respawnTimer -= diff;
if(respawnTimer <= 0) {
setPosition(map->getRespawnLoc(side).getX(), map->getRespawnLoc(side).getY());
map->getGame()->notifyChampionRespawn(this);
getStats().setCurrentHealth(getStats().getMaxHealth());
getStats().setCurrentMana(getStats().getMaxMana());
deathFlag = false;
}
}
bool levelup = false;
while(getStats().getLevel() < map->getExpToLevelUp().size() && getStats().getExp() >= map->getExpToLevelUp()[getStats().getLevel()]) {
levelUp();
levelup = true;
}
if(levelup) {
map->getGame()->notifyLevelUp(this);
}
for(Spell* s : spells) {
s->update(diff);
}
}
// if output bit is true. Fix all the operands.
// if all the operands are fixed. Fix the output.
// given 1,1,1,- == 0, fix - to 0.
Result bvAndBothWays(vector<FixedBits*>& operands, FixedBits& output)
{
Result result = NO_CHANGE;
const int bitWidth = output.getWidth();
for (int i = 0; i < bitWidth; i++)
{
const stats status = getStats(operands, i);
// output is fixed to one. But an input value is false!
if (output.isFixed(i) && output.getValue(i) && status.fixedToZero > 0)
return CONFLICT;
// output is fixed to one. But an input value is false!
if (output.isFixed(i) && !output.getValue(i) && status.fixedToZero == 0 &&
status.unfixed == 0)
return CONFLICT;
// output is fixed to one. So all should be one.
if (output.isFixed(i) && output.getValue(i) && status.unfixed > 0)
{
fixUnfixedTo(operands, i, true);
result = CHANGED;
}
// The output is unfixed. At least one input is false.
if (!output.isFixed(i) && status.fixedToZero > 0)
{
output.setFixed(i, true);
output.setValue(i, false);
result = CHANGED;
}
// Everything is fixed to one!
if (!output.isFixed(i) && status.fixedToZero == 0 && status.unfixed == 0)
{
output.setFixed(i, true);
output.setValue(i, true);
result = CHANGED;
}
// If the output is false, and there is a single unfixed value with
// everything else true..
if (output.isFixed(i) && !output.getValue(i) && status.fixedToZero == 0 &&
status.unfixed == 1)
{
fixUnfixedTo(operands, i, false);
result = CHANGED;
}
}
return result;
}
STATIC bool targExists( TARGET *targ )
/************************************/
{
char buffer[_MAX_PATH];
getStats( targ ); /* get date stamp */
if( targ->existing ) {
return( true );
}
if( targ->attr.symbolic ) {
return( false );
}
if( TrySufPath( buffer, targ->node.name, NULL, false ) == RET_SUCCESS ) {
RenameTarget( targ, buffer );
targ->executed = true; /* force get date */
getStats( targ );
assert( targ->existing );
return( true );
}
return( false );
}
STATIC BOOLEAN targExists( TARGET *targ )
/***************************************/
{
char buffer[_MAX_PATH];
getStats( targ ); /* get date stamp */
if( targ->existing ) {
return( TRUE );
}
if( targ->attr.symb ) {
return( FALSE );
}
if( TrySufPath( buffer, targ->node.name, NULL, FALSE ) == RET_SUCCESS ) {
RenameTarget( targ, buffer );
targ->executed = TRUE; /* force get date */
getStats( targ );
assert( targ->existing );
return( TRUE );
}
return( FALSE );
}
void
tr_sessionGetCumulativeStats (const tr_session * session,
tr_session_stats * setme)
{
const struct tr_stats_handle * stats = getStats (session);
tr_session_stats current = STATS_INIT;
if (stats)
{
tr_sessionGetStats (session, ¤t);
addStats (setme, &stats->old, ¤t);
}
}
void CachedPlanStage::updatePlanCache() {
const double score = PlanRanker::scoreTree(getStats()->children[0].get());
PlanCache* cache = collection()->infoCache()->getPlanCache();
Status fbs = cache->feedback(*_canonicalQuery, score);
if (!fbs.isOK()) {
LOG(5) << _canonicalQuery->ns() << ": Failed to update cache with feedback: " << redact(fbs)
<< " - "
<< "(query: " << redact(_canonicalQuery->getQueryObj())
<< "; sort: " << _canonicalQuery->getQueryRequest().getSort()
<< "; projection: " << _canonicalQuery->getQueryRequest().getProj()
<< ") is no longer in plan cache.";
}
}
Transformation Normalize::analyze(const DataSet* dataset, const Region& descs) const {
G_INFO("Doing normalize analysis...");
checkDataSet(dataset);
checkMinPoints(dataset, 2);
Region region = checkFixedLength(descs.select(RealType), dataset->layout());
// get statistics on the input dataset
Point mmin, mmax, mean, var;
if (!_params.contains("outliers") || _params.value("outliers").toDouble() < 0.0) {
getStats(*dataset, region, mmin, mmax, mean, var);
}
else {
getStatsWithOutliers(*dataset, region, mmin, mmax, mean, var);
}
Transformation result(dataset->layout());
result.analyzerName = "normalize";
result.analyzerParams = _params;
result.applierName = "dotproduct";
// insert info values inside Transfo object: mean & var
ParameterMap stats;
foreach (const Segment& seg, region.segments) {
// FIXME: not necessarily correct if some adjacent descriptors have been
// merged into a single segment
QString descriptorName = mmin.layout().descriptorName(RealType, FixedLength, seg.begin);
ParameterMap meanvar;
meanvar.insert("mean", mean.value(descriptorName));
meanvar.insert("var", var.value(descriptorName));
stats.insert(descriptorName, meanvar);
}
result.info = stats;
// insert actual Transformation parameters
ParameterMap& applierParams = result.params;
applierParams.insert("applyClipping", _params.value("applyClipping", false));
ParameterMap coeffMap;
foreach (const Segment& seg, region.segments) {
QString descriptorName = mmin.layout().descriptorName(RealType, FixedLength, seg.begin);
coeffMap.insert(descriptorName, getNormalizationCoeffs(descriptorName, mmin, mmax, mean, var));
}
applierParams.insert("coeffs", coeffMap);
G_DEBUG(GAlgorithms, "normalization success!");
return result;
}
