/** * Append the nodes to the list. * * @param nodes NodeVector to append to this list */ public void appendNodes(NodeSet nodes) { int nNodes = nodes.size(); if (null == m_map) { m_mapSize = nNodes + m_blocksize; m_map = new Node[m_mapSize]; } else if ((m_firstFree + nNodes) >= m_mapSize) { m_mapSize += (nNodes + m_blocksize); Node newMap[] = new Node[m_mapSize]; System.arraycopy(m_map, 0, newMap, 0, m_firstFree + nNodes); m_map = newMap; } System.arraycopy(nodes.m_map, 0, m_map, m_firstFree, nNodes); m_firstFree += nNodes; }
/** * The number of nodes in the list. The range of valid child node indices is * 0 to <code>length-1</code> inclusive. Note that this operation requires * finding all the matching nodes, which may defeat attempts to defer * that work. * * @return integer indicating how many nodes are represented by this list. */ public int getLength() { runTo(-1); return this.size(); }
/** * Append the nodes to the list. * * @param nodes NodeVector to append to this list */ public void appendNodes(NodeSet nodes) { int nNodes = nodes.size(); if (null == m_map) { m_mapSize = nNodes + m_blocksize; m_map = new Node[m_mapSize]; } else if ((m_firstFree + nNodes) >= m_mapSize) { m_mapSize += (nNodes + m_blocksize); Node newMap[] = new Node[m_mapSize]; System.arraycopy(m_map, 0, newMap, 0, m_firstFree + nNodes); m_map = newMap; } System.arraycopy(nodes.m_map, 0, m_map, m_firstFree, nNodes); m_firstFree += nNodes; }
/** * The number of nodes in the list. The range of valid child node indices is * 0 to <code>length-1</code> inclusive. Note that this operation requires * finding all the matching nodes, which may defeat attempts to defer * that work. * * @return integer indicating how many nodes are represented by this list. */ public int getLength() { runTo(-1); return this.size(); }
/** * Returns the next node in the set and advances the position of the * iterator in the set. After a NodeIterator is created, the first call * to nextNode() returns the first node in the set. * @return The next <code>Node</code> in the set being iterated over, or * <code>null</code> if there are no more members in that set. * @throws DOMException * INVALID_STATE_ERR: Raised if this method is called after the * <code>detach</code> method was invoked. */ public Node nextNode() throws DOMException { if ((m_next) < this.size()) { Node next = this.elementAt(m_next); m_next++; return next; } else return null; }
/** * Returns the next node in the set and advances the position of the * iterator in the set. After a NodeIterator is created, the first call * to nextNode() returns the first node in the set. * @return The next <code>Node</code> in the set being iterated over, or * <code>null</code> if there are no more members in that set. * @throws DOMException * INVALID_STATE_ERR: Raised if this method is called after the * <code>detach</code> method was invoked. */ public Node nextNode() throws DOMException { if ((m_next) < this.size()) { Node next = this.elementAt(m_next); m_next++; return next; } else return null; }
addNodesInDocOrder(i, size() - 1, testIndex, nodelist, support);
addNodesInDocOrder(i, size() - 1, testIndex, nodelist, support);
/** * The number of nodes in the list. The range of valid child node indices is * 0 to <code>length-1</code> inclusive. Note that this operation requires * finding all the matching nodes, which may defeat attempts to defer * that work. * * @return integer indicating how many nodes are represented by this list. */ public int getLength() { runTo(-1); return this.size(); }
/** * The number of nodes in the list. The range of valid child node indices is * 0 to <code>length-1</code> inclusive. Note that this operation requires * finding all the matching nodes, which may defeat attempts to defer * that work. * * @return integer indicating how many nodes are represented by this list. */ public int getLength() { runTo(-1); return this.size(); }
/** * The number of nodes in the list. The range of valid child node indices is * 0 to <code>length-1</code> inclusive. Note that this operation requires * finding all the matching nodes, which may defeat attempts to defer * that work. * * @return integer indicating how many nodes are represented by this list. */ public int getLength() { runTo(-1); return this.size(); }
/** * The number of nodes in the list. The range of valid child node indices is * 0 to <code>length-1</code> inclusive. Note that this operation requires * finding all the matching nodes, which may defeat attempts to defer * that work. * * @return integer indicating how many nodes are represented by this list. */ public int getLength() { runTo(-1); return this.size(); }
/** * The number of nodes in the list. The range of valid child node indices is * 0 to <code>length-1</code> inclusive. Note that this operation requires * finding all the matching nodes, which may defeat attempts to defer * that work. * * @return integer indicating how many nodes are represented by this list. */ public int getLength() { runTo(-1); return this.size(); }
/** * The number of nodes in the list. The range of valid child node indices is * 0 to <code>length-1</code> inclusive. Note that this operation requires * finding all the matching nodes, which may defeat attempts to defer * that work. * * @return integer indicating how many nodes are represented by this list. */ public int getLength() { runTo(-1); return this.size(); }
/** * The number of nodes in the list. The range of valid child node indices is * 0 to <code>length-1</code> inclusive. Note that this operation requires * finding all the matching nodes, which may defeat attempts to defer * that work. * * @return integer indicating how many nodes are represented by this list. */ public int getLength() { runTo(-1); return this.size(); }
/** * The number of nodes in the list. The range of valid child node indices is * 0 to <code>length-1</code> inclusive. Note that this operation requires * finding all the matching nodes, which may defeat attempts to defer * that work. * * @return integer indicating how many nodes are represented by this list. */ public int getLength() { runTo(-1); return this.size(); }
/** * The number of nodes in the list. The range of valid child node indices is * 0 to <code>length-1</code> inclusive. Note that this operation requires * finding all the matching nodes, which may defeat attempts to defer * that work. * * @return integer indicating how many nodes are represented by this list. */ public int getLength() { runTo(-1); return this.size(); }
/** * Returns the next node in the set and advances the position of the * iterator in the set. After a NodeIterator is created, the first call * to nextNode() returns the first node in the set. * @return The next <code>Node</code> in the set being iterated over, or * <code>null</code> if there are no more members in that set. * @throws DOMException * INVALID_STATE_ERR: Raised if this method is called after the * <code>detach</code> method was invoked. */ public Node nextNode() throws DOMException { if ((m_next) < this.size()) { Node next = this.elementAt(m_next); m_next++; return next; } else return null; }