C++ entries函数代码示例

//------------------------------------------------------------------------------
// operator==    Returns true if two lists are equal.
//------------------------------------------------------------------------------
bool List::operator==(const List& l) const
{
   if (entries() != l.entries()) return false;

   const Item* tt = getFirstItem();
   const Item* ll = l.getFirstItem();
   while (tt != nullptr) {
      if (tt->getValue() != ll->getValue()) return false;
      tt = tt->getNext();
      ll = ll->getNext();
   }

   return true;
}

// Is this frame a subset of 'other'?
bool 
Frame::subset_elements (const Metalib& metalib, const Frame& other) const
{
  // Find syntax entries.
  std::set<symbol> all;
  entries (all);

  // Loop over them.
  for (std::set<symbol>::const_iterator i = all.begin (); i != all.end (); i++)
    if (!subset (metalib, other, *i))
      return false;

  return true;
}

bool QQuickWebEngineViewPrivate::contextMenuRequested(const WebEngineContextMenuData &data)
{
    Q_Q(QQuickWebEngineView);

    QObject *menu = ui()->addMenu(0, QString(), data.pos);
    if (!menu)
        return false;

    // Populate our menu
    MenuItemHandler *item = 0;

    if (data.selectedText.isEmpty()) {
        item = new MenuItemHandler(menu);
        QObject::connect(item, &MenuItemHandler::triggered, q, &QQuickWebEngineView::goBack);
        ui()->addMenuItem(item, QObject::tr("Back"), QStringLiteral("go-previous"), q->canGoBack());

        item = new MenuItemHandler(menu);
        QObject::connect(item, &MenuItemHandler::triggered, q, &QQuickWebEngineView::goForward);
        ui()->addMenuItem(item, QObject::tr("Forward"), QStringLiteral("go-next"), q->canGoForward());

        item = new MenuItemHandler(menu);
        QObject::connect(item, &MenuItemHandler::triggered, q, &QQuickWebEngineView::reload);
        ui()->addMenuItem(item, QObject::tr("Reload"), QStringLiteral("view-refresh"));
    } else {
        item = new CopyMenuItem(menu, data.selectedText);
        ui()->addMenuItem(item, QObject::tr("Copy..."));
    }

    if (!data.linkText.isEmpty() && data.linkUrl.isValid()) {
        item = new NavigateMenuItem(menu, adapter, data.linkUrl);
        ui()->addMenuItem(item, QObject::tr("Navigate to..."));
        item = new CopyMenuItem(menu, data.linkUrl.toString());
        ui()->addMenuItem(item, QObject::tr("Copy link address"));
    }

    // FIXME: expose the context menu data as an attached property to make this more useful
    if (contextMenuExtraItems) {
        ui()->addMenuSeparator(menu);
        if (QObject* menuExtras = contextMenuExtraItems->create(qmlContext(q))) {
            menuExtras->setParent(menu);
            QQmlListReference entries(menu, defaultPropertyName(menu), qmlEngine(q));
            if (entries.isValid())
                entries.append(menuExtras);
        }
    }

    // Now fire the popup() method on the top level menu
    QMetaObject::invokeMethod(menu, "popup");
    return true;
}

/** \brief Write a FileCollection to the output stream.
 *
 * This function writes a simple textual representation of this
 * FileCollection to the output stream.
 *
 * \param[in,out] os  The output stream.
 * \param[in] collection  The collection to print out.
 *
 * \return A reference to the \p os output stream.
 */
std::ostream& operator << (std::ostream& os, FileCollection const& collection)
{
    os << "collection '" << collection.getName() << "' {";
    FileEntry::vector_t entries(collection.entries());
    char const *sep("");
    for(auto it = entries.begin(); it != entries.end(); ++it)
    {
        os << sep;
        sep = ", ";
        os << (*it)->getName();
    }
    os << "}";
    return os;
}

void
ViewerNode::refreshViewsKnobVisibility()
{
    KnobChoicePtr knob = _imp->activeViewKnob.lock();
    if (knob) {
        const std::vector<std::string>& views = getApp()->getProject()->getProjectViewNames();
        std::vector<ChoiceOption> entries(views.size());
        for (std::size_t i = 0; i < views.size(); ++i) {
            entries[i] = ChoiceOption(views[i], "", "");
        }
        knob->populateChoices(entries);
        knob->setInViewerContextSecret(views.size() <= 1);
    }
}

// -----------------------------------------------------------------------
// Print function for TableDescList
// -----------------------------------------------------------------------
void TableDescList::print(FILE* ofd, const char* indent, const char* title)
{
#ifndef NDEBUG
#pragma nowarn(1506)   // warning elimination
    BUMP_INDENT(indent);
#pragma warn(1506)  // warning elimination

    for (CollIndex i = 0; i < entries(); i++)
    {
        fprintf(ofd,"%s%s[%2d] = (%p)\n",NEW_INDENT,title,i,at(i));
        // at(i)->print(ofd,indent);
    }
#endif
} // TableDescList::print()

void TableFormat::writeRow(
  std::ostream& out,
  int rowIndex,
  const Array<TableColumn>& columns
  ) const
{
  Array<RCP<TableEntry> > entries(columns.size());
  for (Array<TableColumn>::size_type i=0; i<columns.size(); i++)
  {
    entries[i] = columns[i].entry(rowIndex);
  }
  
  writeRow(out, entries);
}

// index access (both reference and value) to the
// list represented by this left linear tree
//
//  1 entry     2 entries      > 2 entries
//                [op]             [op]
//    [0]         /  \             /  \
//              [0]  [1]         [op] [2]
//                               /  \
//                             [0]  [1]
//
//  [op] represents ElemDDLList node
//  [0], [1], [2] represent the leaf nodes.  The
//  number between the square brackets represents
//  the index of a leaf node in the list represented
//  by the left linear tree.
//
//  The case of 1 entry is not handled by this class.
//  This case is handled by the class ElemDDLNode.
//
//  The algorithem in this method is very inefficient.
//  If the list is long and you would like to visit
//  all leaf nodes in the left linear tree, please use
//  the method traverseList instead.
//
ElemDDLNode *
ElemDDLList::operator[](CollIndex index)
{
  CollIndex count;
  ElemDDLNode * pElemDDLNode = this;
  
  if (index >= entries())
  {
    return NULL;
  }

  if (index EQU 0)
  {
    for (count = 1; count < entries(); count ++)
    {
      pElemDDLNode = pElemDDLNode->getChild(0)->castToElemDDLNode();
    }
    ComASSERT(pElemDDLNode->getOperatorType() NEQ getOperatorType());
    return pElemDDLNode;
  }

  count = entries() - index;
  while (pElemDDLNode NEQ NULL AND count > 0)
  {
    if (pElemDDLNode->getOperatorType() EQU getOperatorType() AND
        pElemDDLNode->getArity() >= 2)
    {
      if (count EQU 1)
        pElemDDLNode = pElemDDLNode->getChild(1)->castToElemDDLNode();
      else
        pElemDDLNode = pElemDDLNode->getChild(0)->castToElemDDLNode();
    }
    count--;
  }
  ComASSERT(pElemDDLNode->getOperatorType() NEQ getOperatorType());
  return pElemDDLNode;
}

void playfield::initialize_playfield(const int &psize,const int &smaxnumber,const vector<vector<int> > &vertblocks,
			const vector<vector<int> > &horblocks)
{
	somethingchanges=false;
	size()=psize;
	maxnumber=smaxnumber;
	vblocks()=vertblocks;
	hblocks()=horblocks;
	entries().resize(size());
	for(unsigned int i=0;i<entries().size();++i) {
		entries().at(i).resize(size());
	} // Größe der Feldelementmatrix Festlegen
	vpermutations.resize(psize);
	hpermutations.resize(psize);
	vector<bool> temp;
	temp.assign(true,smaxnumber+1); // indizies Werte von 0,1,2,..,maxnumber
	possp.spalte.resize(psize);
	possp.zeile.resize(psize);
	for(int i=0;i<psize;++i) {
		possp.zeile[i].resize(smaxnumber+1);
		possp.spalte[i].resize(smaxnumber+1);
		for(int j=0;j<=smaxnumber;++j) {
			possp.spalte[i][j]=true;
			possp.zeile[i][j]=true;
		}
	} // Am Anfang sind alle Werte moeglich
	feldelpos.resize(psize);
	for(int j=0;j<psize;++j) {
		feldelpos[j].resize(psize);
		for(int k=0;k<psize;++k) {
			feldelpos[j][k].wertpossible.resize(smaxnumber+1);
			for(int l=0;l<=smaxnumber;++l) {
				feldelpos[j][k].wertpossible[l]=true; // a priori sind in jedem Feld alle werte moeglich
			}
		}
	}
}

  Object* MethodTable::remove(STATE, Symbol* name) {
    check_frozen(state);

    utilities::thread::SpinLock::LockGuard lg(lock_);

    native_int num_entries = entries()->to_native();
    native_int num_bins = bins()->to_native();

    if(min_density_p(num_entries, num_bins) &&
         (num_bins >> 1) >= METHODTABLE_MIN_SIZE) {
      redistribute(state, num_bins >>= 1);
    }

    native_int bin = find_bin(key_hash(name), num_bins);
    MethodTableBucket* entry = try_as<MethodTableBucket>(values()->at(state, bin));
    MethodTableBucket* last = NULL;

    while(entry) {
      if(entry->name() == name) {
        Object* val = entry->method();
        if(last) {
          last->next(state, entry->next());
        } else {
          values()->put(state, bin, entry->next());
        }

        entries(state, Fixnum::from(entries()->to_native() - 1));
        return val;
      }

      last = entry;
      entry = try_as<MethodTableBucket>(entry->next());
    }

    return nil<Executable>();
  }

  void finish_algorithm()const
  {
    if(num_piles>0){
      /* Mark those elements which are in their correct position, i.e. those
       * belonging to the longest increasing subsequence. These are those
       * elements linked from the top of the last pile.
       */

      entry* ent=entries()[num_piles-1].pile_top_entry;
      for(std::size_t n=num_piles;n--;){
        ent->ordered=true;
        ent=ent->previous;
      }
    }
  }

void NAColumnArray::print(FILE* ofd, const char* indent, const char* title,
                          CollHeap *c, char *buf) const
{
  Space * space = (Space *)c;
  char mybuf[1000];
#pragma nowarn(1506)   // warning elimination
  BUMP_INDENT(indent);
#pragma warn(1506)  // warning elimination
  for (CollIndex i = 0; i < entries(); i++)
  {
    snprintf(mybuf, sizeof(mybuf), "%s%s[%2d] =", NEW_INDENT, title, i);
    PRINTIT(ofd, c, space, buf, mybuf);
    at(i)->print(ofd, "", "", c, buf);
  }
}

void FormData::get(const String& name, FormDataEntryValue& result)
{
    const CString encodedName = encodeAndNormalize(name);
    for (const auto& entry : entries()) {
        if (entry->name() == encodedName) {
            if (entry->isString()) {
                result.setUSVString(decode(entry->value()));
            } else {
                ASSERT(entry->isFile());
                result.setFile(entry->file());
            }
            return;
        }
    }
}

QgsWKBTypes::Type QgsWKBTypes::parseType( const QString &wktStr )
{
  QString typestr = wktStr.left( wktStr.indexOf( '(' ) ).simplified().remove( ' ' );

  QMap<QgsWKBTypes::Type, QgsWKBTypes::wkbEntry>* knownTypes = entries();
  QMap<QgsWKBTypes::Type, QgsWKBTypes::wkbEntry>::const_iterator it = knownTypes->constBegin();
  for ( ; it != knownTypes->constEnd(); ++it )
  {
    if ( it.value().mName.compare( typestr, Qt::CaseInsensitive ) == 0 )
    {
      return it.key();
    }
  }
  return Unknown;
}

void replica_list_directory (saga_tools::common & c,
                             std::string          ldn)
{
  // instantiate logical directory
  saga::replica::logical_directory ld (c.session (), saga::url (ldn));

  // read replica entries
  std::vector <saga::url> entries (ld.list ());

  std::vector <saga::url>::const_iterator it;

  for ( it = entries.begin (); it != entries.end (); ++it )
  {
    std::cout << "  " << (*it) << std::endl;
  }
}