errType fltrList::applyFilters(prcList* processes) // Need to do in scanprocesses
{
errType result=err_not_found;
char *cmdline;
fltr* filter;
prcTask* prc;
int res=0;
BYTE sig=SIGKILL;
bool act=false;
if ((processes->quantity()==0)||(quantity()==0)) return result;
//printf("filters=%d\n", quantity());
//printf("processes=%p\n", processes);
for (int i=0; i< quantity(); i++)
{
//printf("i=%d\n", i);
filter=getProcFilterByIndex(i);
cmdline=filter->get_cmdline();
//printf("filter_cmd_line=%s\n", cmdline);
prc=processes->searchUserProcessByCmdline(cmdline, strlen(cmdline));
//printf("comparing...\n");
//printf("prc=%p", prc);
if (prc)
{
//printf("prc_cpu=%d\n",prc->get_prc_cpu());
//printf("prc_mem=%lu\n",prc->get_prc_rss());
//printf("filter_cpu=%d\n",filter->get_filter_cpu());
//printf("filter_mem=%lu\n",filter->get_filter_mem());
if (prc->get_prc_cpu()>=filter->get_filter_cpu()) act=true;
if (prc->get_prc_rss()>=filter->get_filter_mem()) act=true;
//printf("acting...");
if (act){
//printf("act!\n");
switch(filter->action())
{
case 0: // kill
printf("Процесс №%d (%s) будет завершён\n", prc->get_prc_pid(), prc->get_cmdline());
res=kill(prc->get_prc_pid(), sig);
break;
case 1: // restart
printf("Процесс №%d (%s) будет перезапущен\n", prc->get_prc_pid(), prc->get_cmdline());
res=kill(prc->get_prc_pid(), sig);
break;
}
result=err_result_ok;
act=false;
}
}
}
return result;
}
QString BillItemMeasure::quantityStr(){
QString realFormula = m_d->formula;
realFormula.remove(" ");
if( realFormula.isEmpty() ){
return QString();
}
if( m_d->unitMeasure != NULL ){
return m_d->toString( quantity(), 'f', m_d->unitMeasure->precision() ) ;
} else {
return m_d->toString( quantity(), 'f', 6 ) ;
}
}
fltr* fltrList::searchProcFilterByCmdline(const char* cmdline, size_t size)
{
fltr* result=0;
list<fltr*>::iterator iter;
WORD foundCount=0;
bool founded=false;
BYTE res=0;
if ((quantity()>0) && (cmdline!=0)) {
iter=procFilters.begin();
iter++;
do {
res=strncmp((*iter)->get_cmdline(), cmdline, size);
if (res==0) {
result=(*iter);
founded=true;
foundCount++;
}
iter++;
} while (iter!=procFilters.end());
// if (founded) result=(*iter);
}
return result;
}
//- - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - -
Manifest ResourceBuff::popQty(double qty) {
if (qty - quantity() > STORE_EPS) {
throw CycNegQtyException("Removal quantity larger than store tot quantity.");
}
if (qty < 0.0) {
throw CycNegQtyException("Removal quantity cannot be negative.");
}
Manifest manifest;
rsrc_ptr mat, leftover;
double left = qty;
double quan;
while (left > STORE_EPS) {
mat = mats_.front();
mats_.pop_front();
quan = mat->quantity();
if ((quan - left) > STORE_EPS) {
// too big - split the mat before pushing
leftover = mat->clone();
leftover->setQuantity(quan - left);
mat->setQuantity(left);
mats_.push_front(leftover);
}
manifest.push_back(mat);
left -= quan;
}
return manifest;
}
MUPD::allocation MUPD::spending_allocation(const unordered_map<id_t, double> &spending) const {
allocation a = {};
auto sim = simulation();
for (auto &m : spending) {
if (m.second > 0) {
if (m.first == 0) {
// Holding cash
a.bundle += money_unit * m.second;
a.quantity[m.first] += m.second;
}
else {
// Otherwise query the market for the resulting quantity
auto mkt = sim->market(m.first);
auto q = mkt->quantity(m.second * price_ratio(mkt));
a.quantity[m.first] = q.quantity;
a.bundle += mkt->output_unit * q.quantity;
if (q.constrained) {
// The market is constrained, so add any leftover (unspent) money back into the
// bundle
a.constrained.insert(mkt->id());
a.bundle += mkt->price_unit * q.unspent;
a.quantity[0] += q.unspent / price_ratio(mkt);
}
}
}
}
return a;
}
InputParameters validParams<PenetrationAux>()
{
MooseEnum orders("FIRST SECOND THIRD FOURTH", "FIRST");
InputParameters params = validParams<AuxKernel>();
params.addRequiredParam<BoundaryName>("paired_boundary", "The boundary to be penetrated");
params.addParam<Real>("tangential_tolerance", "Tangential distance to extend edges of contact surfaces");
params.addParam<Real>("normal_smoothing_distance", "Distance from edge in parametric coordinates over which to smooth contact normal");
params.addParam<std::string>("normal_smoothing_method","Method to use to smooth normals (edge_based|nodal_normal_based)");
params.addParam<MooseEnum>("order", orders, "The finite element order");
params.set<bool>("use_displaced_mesh") = true;
// To avoid creating a conversion routine we will list the enumeration options in the same order as the class-based enum.
// Care must be taken to ensure that this list stays in sync with the enum in the .h file.
MooseEnum quantity(
"distance tangential_distance normal_x normal_y normal_z closest_point_x closest_point_y "
"closest_point_z element_id side incremental_slip_magnitude incremental_slip_x "
"incremental_slip_y incremental_slip_z accumulated_slip force_x force_y force_z "
"normal_force_magnitude normal_force_x normal_force_y normal_force_z tangential_force_magnitude "
"tangential_force_x tangential_force_y tangential_force_z frictional_energy lagrange_multiplier "
"mechanical_status", "distance");
params.addParam<MooseEnum>("quantity", quantity, "The quantity to recover from the available penetration information");
return params;
}
// Copy Constructor
Good::Good(const Good& other) {
upc(other._upc);
name(other._name);
price(other._price);
qtyNeeded(other._qtyNeeded);
taxed(other._taxed);
quantity(other._quantity);
}
QDomElement RecipeIngredient::toXml(QDomDocument document)
{
QDomElement element = document.createElement("RecipeIngredient");
element.appendChild(ingredient()->toXml(document));
element.appendChild(quantity().toXml(document));
element.setAttribute("minutes", minutes());
return element;
}
Good::Good(const char* u, const char* n, double p, int q, bool t) {
upc(u);
name(n);
price(p);
qtyNeeded(q);
taxed(t);
quantity(0);
}
InputParameters validParams<XFEMCutPlaneAux>()
{
InputParameters params = validParams<AuxKernel>();
MooseEnum quantity("origin_x origin_y origin_z normal_x normal_y normal_z");
params.addRequiredParam<MooseEnum>("quantity", quantity, "The quantity to be extracted. Choices: "+quantity.getRawNames());
params.addParam<unsigned int>("plane_id", 0, "The index of the cut plane");
return params;
}
QString Resource::filterString() const
{
std::stringstream completeString;
completeString << name().toStdString()
<< " " << type().toStdString()
<< " " << quantity();
return (QString(completeString.str().c_str()));
}
// operator=
Item& Item::operator=(const Item& RO){
upc(RO._upc);
name(RO._name);
price(RO._price);
quantity(RO._quantity);
taxed(RO._taxed);
qtyNeeded(RO._qtyNeeded);
return *this;
}
Product::Product(const char* s, const char* n, double x, int i, bool tax) {
// Copies the SKU into the corresponding member variable up to MAX_SKU_LEN characters.
//still hae to implement as just does (strcpy(x,y)) right now
sku(s);
name(n);
price(x);
qtyNeeded(i);
quantity(0);
taxed(tax);
}
// Assignment Operator=
Good& Good::operator=(const Good& other) {
if (this != &other) {
upc(other._upc);
name(other._name);
price(other._price);
qtyNeeded(other._qtyNeeded);
taxed(other._taxed);
quantity(other._quantity);
}
return *this;
}
//copy con
Product::Product(const Product& other) {
//
sku(other.sku_);
name(other.name_);
price(other.price_);
taxed(other.taxed_);
quantity(other.quantity_);
qtyNeeded(other.qtyNeeded_);
}
MaterialObject::Element::Element(const Element& original, double multiplier) : Element(original.materialType_) {
if(original.destination.state())
destination(original.destination());
if(original.componentName.state())
componentName(original.componentName());
elementName(original.elementName());
service(original.service());
quantity(original.quantity() * original.scalingMultiplier() * multiplier); //apply the scaling in the copied object
scaleOnSensor(0);
unit(original.unit());
debugInactivate(original.debugInactivate());
}
Product& Product::operator=(const Product& other) {
//may not need to test this
if (this != &other) {
sku(other.sku_);
name(other.name_);
price(other.price_);
taxed(other.taxed_);
quantity(other.quantity_);
qtyNeeded(other.qtyNeeded_);
}
return *this;
}
int main()
{
int number = 0;
printf("Ведите число\n");
scanf("%d", &number);
printf("Простые меньше ведённого:\n");
if(number >= 2)
{
quantity(number);
}
return 0;
}
void InventoryItem::GetItemRow( PyPackedRow* into ) const
{
into->SetField( "itemID", new PyLong( itemID() ) );
into->SetField( "typeID", new PyInt( typeID() ) );
into->SetField( "ownerID", new PyInt( ownerID() ) );
into->SetField( "locationID", new PyLong( locationID() ) );
into->SetField( "flagID", new PyInt( flag() ) );
into->SetField( "quantity", new PyInt( singleton() ? -1 : quantity()) );
into->SetField( "groupID", new PyInt( groupID() ) );
into->SetField( "categoryID", new PyInt( categoryID() ) );
into->SetField( "customInfo", new PyString( customInfo() ) );
//into->SetField( "singleton", new PyBool( singleton() ) );
//into->SetField( "stacksize", new PyInt (quantity()) );
}
//==================================================
// copyFromSource
//
// This function deeps copy data from the source into this object. Can be used for copy constructor and
// assignment operators
//==================================================
Good& Good::copyFromSource (const Good& source) {
char tmpUpc [MAX_UPC_LEN + 1];
char tmpName [2000];
strncpy (tmpUpc, source.upc (), MAX_UPC_LEN);
strncpy (tmpName, source.name (), 2000);
upc (tmpUpc);
name (tmpName);
price (source.price ());
quantity (source.quantity ());
taxed (source.taxed ());
qtyNeeded (source.qtyNeeded ());
return *this;
}
/*
* Character
*/
Character::Character(
ItemFactory &_factory,
uint32 _characterID,
// InventoryItem stuff:
const CharacterType &_charType,
const ItemData &_data,
// Character stuff:
const CharacterData &_charData,
const CorpMemberInfo &_corpData)
: Owner(_factory, _characterID, _charType, _data),
m_accountID(_charData.accountID),
m_title(_charData.title),
m_description(_charData.description),
m_gender(_charData.gender),
m_bounty(_charData.bounty),
m_balance(_charData.balance),
m_securityRating(_charData.securityRating),
m_logonMinutes(_charData.logonMinutes),
m_totalSPtrained(((double)(_charData.skillPoints))),
m_corporationID(_charData.corporationID),
m_corpHQ(_corpData.corpHQ),
m_allianceID(_charData.allianceID),
m_warFactionID(_charData.warFactionID),
m_corpRole(_corpData.corpRole),
m_rolesAtAll(_corpData.rolesAtAll),
m_rolesAtBase(_corpData.rolesAtBase),
m_rolesAtHQ(_corpData.rolesAtHQ),
m_rolesAtOther(_corpData.rolesAtOther),
m_stationID(_charData.stationID),
m_solarSystemID(_charData.solarSystemID),
m_constellationID(_charData.constellationID),
m_regionID(_charData.regionID),
m_ancestryID(_charData.ancestryID),
m_careerID(_charData.careerID),
m_schoolID(_charData.schoolID),
m_careerSpecialityID(_charData.careerSpecialityID),
m_startDateTime(_charData.startDateTime),
m_createDateTime(_charData.createDateTime),
m_corporationDateTime(_charData.corporationDateTime)
{
// allow characters to be only singletons
assert(singleton() && quantity() == 1);
// Activate Save Info Timer with somewhat randomized timer value:
//SetSaveTimerExpiry( MakeRandomInt( (10 * 60), (15 * 60) ) ); // Randomize save timer expiry to between 10 and 15 minutes
//EnableSaveTimer();
}
QVariant Resource::data(int role) const
{
switch(role) {
case IdRole:
return (unsigned int)id();
case NameRole:
return name();
case TypeRole:
return type();
case QuantityRole:
return (unsigned int)quantity();
case FilterStringRole:
return filterString();
default:
return QVariant();
}
}
/*
* Character
*/
Character::Character(
ItemFactory &_factory,
uint32 _characterID,
// InventoryItem stuff:
const CharacterType &_charType,
const ItemData &_data,
// Character stuff:
const CharacterData &_charData,
const CorpMemberInfo &_corpData)
: Owner(_factory, _characterID, _charType, _data),
m_accountID(_charData.accountID),
m_title(_charData.title),
m_description(_charData.description),
m_gender(_charData.gender),
m_bounty(_charData.bounty),
m_balance(_charData.balance),
m_securityRating(_charData.securityRating),
m_logonMinutes(_charData.logonMinutes),
m_corporationID(_charData.corporationID),
m_corpHQ(_corpData.corpHQ),
m_allianceID(_charData.allianceID),
m_warFactionID(_charData.warFactionID),
m_corpRole(_corpData.corpRole),
m_rolesAtAll(_corpData.rolesAtAll),
m_rolesAtBase(_corpData.rolesAtBase),
m_rolesAtHQ(_corpData.rolesAtHQ),
m_rolesAtOther(_corpData.rolesAtOther),
m_stationID(_charData.stationID),
m_solarSystemID(_charData.solarSystemID),
m_constellationID(_charData.constellationID),
m_regionID(_charData.regionID),
m_ancestryID(_charData.ancestryID),
m_careerID(_charData.careerID),
m_schoolID(_charData.schoolID),
m_careerSpecialityID(_charData.careerSpecialityID),
m_startDateTime(_charData.startDateTime),
m_createDateTime(_charData.createDateTime),
m_corporationDateTime(_charData.corporationDateTime)
{
// allow characters to be only singletons
assert(singleton() && quantity() == 1);
}
Quantity DataManager::loadQuantity(const QDomDocument& xml_document, const QPixmap& pixmap) {
// Start document parsing and variables setting
QDomElement root = xml_document.documentElement();
Quantity quantity( root.attribute("name"), pixmap);
quantity.prefixAllowed = (root.attribute("prefixsAllowed") == "yes");
// Treatment of <baseunit> tag
Unit baseunit = loadBaseUnit(root.firstChildElement("baseunit"));
quantity.push_back( baseunit );
// Treatment of <unit> tags
QDomElement unit_elem = root.firstChildElement("unit");
while( !unit_elem.isNull() ) { //for each <unit> tag
quantity.push_back( loadUnit(unit_elem, baseunit) );
unit_elem = unit_elem.nextSiblingElement("unit");
}
qDebug("Quantity \"%s\" loaded.", qPrintable(root.attribute("name")));
return quantity;
}
void InventoryItem::SaveItem()
{
//_log( ITEM__TRACE, "Saving item %u.", itemID() );
SaveAttributes();
m_factory.db().SaveItem(
itemID(),
ItemData(
itemName().c_str(),
typeID(),
ownerID(),
locationID(),
flag(),
contraband(),
singleton(),
quantity(),
position(),
customInfo().c_str()
)
);
}
range::range ()
{
default_ = quantity ();
}
QImage ImageProvider::requestImage(const QString &id, QSize *size, const QSize &requestedSize)
{
QImage result;
const QStringList idSegments = id.split(QLatin1Char('/'));
if (requestedSize.width() < 1 || requestedSize.height() < 1) {
qDebug() << Q_FUNC_INFO << " requestedSize is invalid!" << requestedSize << id;
return QImage();
}
if (idSegments.count() < 2) {
qDebug() << Q_FUNC_INFO << "Not enough parameters for the image provider: " << id;
return QImage();
}
const QString &elementId = idSegments.at(1);
if (idSegments.first() == QStringLiteral("background")) {
return renderedSvgElement(elementId, designRenderer(), Qt::KeepAspectRatioByExpanding, size, requestedSize);
} else if (idSegments.first() == QStringLiteral("title")) {
if (elementId == QStringLiteral("textmask"))
result = renderedSvgElement(idSegments.first(), designRenderer(), Qt::KeepAspectRatio, size, requestedSize);
else
result = spectrum(size, requestedSize);
} else if (idSegments.first() == QStringLiteral("specialbutton")) {
result = renderedSvgElement(elementId, designRenderer(), Qt::IgnoreAspectRatio, size, requestedSize);
} else if (idSegments.first() == buttonString) {
result = renderedDesignElement(DesignElementTypeButton, elementId.toInt(), size, requestedSize);
} else if (idSegments.first() == frameString) {
result = renderedDesignElement(DesignElementTypeFrame, 0, size, requestedSize);
} else if (idSegments.first() == QStringLiteral("object")) {
result = renderedSvgElement(elementId, objectRenderer(), Qt::KeepAspectRatio, size, requestedSize);
} else if (idSegments.first() == QStringLiteral("clock")) {
if (idSegments.count() != 4) {
qDebug() << Q_FUNC_INFO << "Wrong number of parameters for clock images:" << id;
return QImage();
}
result = clock(idSegments.at(1).toInt(), idSegments.at(2).toInt(), idSegments.at(3).toInt(), size, requestedSize);
} else if (idSegments.first() == QStringLiteral("notes")) {
result = notes(elementId.split(QLatin1Char(','), QString::SkipEmptyParts), size, requestedSize);
} else if (idSegments.first() == QStringLiteral("quantity")) {
if (idSegments.count() != 3) {
qDebug() << Q_FUNC_INFO << "Wrong number of parameters for quantity images:" << id;
return QImage();
}
result = quantity(idSegments.at(1).toInt(), idSegments.at(2), size, requestedSize);
} else if (idSegments.first() == QStringLiteral("lessonicon")) {
if (idSegments.count() != 3) {
qDebug() << Q_FUNC_INFO << "Wrong number of parameters for lessonicon:" << id;
return QImage();
}
result = renderedLessonIcon(idSegments.at(1), idSegments.at(2).toInt(), size, requestedSize);
} else if (idSegments.first() == QStringLiteral("color")) {
if (idSegments.count() != 3) {
qDebug() << Q_FUNC_INFO << "Wrong number of parameters for color:" << id;
return QImage();
}
const QColor color(idSegments.at(1));
result = colorBlot(color, idSegments.at(2).toInt(), size, requestedSize);
} else {
qDebug() << Q_FUNC_INFO << "invalid image Id:" << id;
}
#if 0
if (idSegments.first() == QStringLiteral("object")) {
QPainter p(&result);
QPolygon points;
for (int i = 0; i < result.width(); i += 2)
for (int j = 0; j < result.height(); j += 2)
points.append(QPoint(i, j));
p.drawPoints(points);
p.setPen(Qt::white);
p.translate(1, 1);
p.drawPoints(points);
}
#endif
return result;
}
//- - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - - -
double ResourceBuff::space() {
if (unlimited_) {
return -1;
}
return capacity_ - quantity();
}
double MaterialObject::Element::quantityInUnit(const std::string desiredUnit, const double length, const double surface) const {
double returnVal = 0;
double density = materialTab_.density(elementName());
bool invert;
Unit desiredUnitVal, elementUnitVal, tempUnit;
//Conversion matrix:
// g g/m mm
// __________________________________________________
// g | 1 l/1000 rho*S |
// g/m | 1000/l 1 (rho*S*1000)/l |
// mm | 1/(rho*S) l/(rho*S*1000) 1 |
//
// rows: desired unit
// columns: original unit
// l: length
// rho: density
// S: surface
/*
std::map<std::pair<Unit, Unit>, double> conversionMatrix = {
{{GRAMS, GRAMS}, 1}, {{GRAMS, GRAMS_METER}, length/1000}, {{GRAMS, MILLIMETERS}, density*surface},
{{GRAMS_METER, GRAMS}, 1000/length}, {{GRAMS_METER, GRAMS_METER}, 1}, {{GRAMS_METER, MILLIMETERS}, (density*surface*1000)/length},
{{MILLIMETERS, GRAMS}, 1/(density*surface)}, {{MILLIMETERS, GRAMS_METER}, length/(density*surface*1000)}, {{MILLIMETERS, MILLIMETERS}, 1}
};
try {
returnVal = quantity() * conversionMatrix.at({unitStringMap.at(desiredUnit), unitStringMap.at(unit())});
} catch (const std::out_of_range& ex) {
logERROR(msg_no_valid_unit + unit() + ", " + desiredUnit + ".");
}
*/
try {
desiredUnitVal = unitStringMap.at(desiredUnit);
elementUnitVal = unitStringMap.at(unit());
if (desiredUnitVal == elementUnitVal) {
return quantity();
} else if (desiredUnitVal > elementUnitVal) {
invert = true;
tempUnit = desiredUnitVal;
desiredUnitVal = elementUnitVal;
elementUnitVal = tempUnit;
} else {
invert = false;
}
if ((desiredUnitVal == GRAMS) && (elementUnitVal == GRAMS_METER))
returnVal = quantity() * length / 1000.;
else if ((desiredUnitVal == GRAMS) && (elementUnitVal == MILLIMETERS))
returnVal = quantity() * density * surface;
else if ((desiredUnitVal == GRAMS_METER) && (elementUnitVal == MILLIMETERS))
returnVal = quantity() * (density * surface * 1000.) / length;
if (invert)
returnVal = 1 / returnVal;
} catch (const std::out_of_range& ex) {
logERROR(msg_no_valid_unit + unit() + ", " + desiredUnit + ".");
}
return returnVal;
}
std::string str() const { return quantity(amount, units); }
