useful for aligning object horizontally or vertically, like with comic panels. Node (Vector Only) This snaps a vector node or an object to the nodes of another path. Extension (Vector Only) When we draw side can be mathematically extended. This option allows you to snap to that. The direction of the node depends on its side handles in path editing mode. Intersection (Vector Only) This allows you to you can with a local-selection. To do so, you first need to activate the global selection as a layer node. To do so, go into Select ‣ Show Global Selection Mask. The global selection, if you have anything

useful for aligning object horizontally or vertically, like with comic panels. Node (Vector Only) This snaps a vector node or an object to the nodes of another path. Extension (Vector Only) When we draw side can be mathematically extended. This option allows you to snap to that. The direction of the node depends on its side handles in path editing mode. Intersection (Vector Only) This allows you to you can with a local-selection. To do so, you first need to activate the global selection as a layer node. To do so, go into Select ‣ Show Global Selection Mask. The global selection, if you have anything

represented as a graph. Each node of this graph knows its value (and has a representation as a plain C++ struct). Since each node knows its current value, when an update comes, the node can compare the new value system. It stores the actual data and always represents the root of the graph. lager::cursor<> is a node of the graph. A cursor connects to the state and track all of its updates. One can read or write into but for read-only and write-only access types On-the-fly value transformations When creating a node with a cursor one can not only access member variables, but also do transformations on the fly!

represented as a graph. Each node of this graph knows its value (and has a representation as a plain C++ struct). Since each node knows its current value, when an update comes, the node can compare the new value system. It stores the actual data and always represents the root of the graph. lager��cursor�� is a node of the graph. A cursor connects to the state and track all of its updates. One can read or write into but for read-only and write-only access types On-the-fly value transformations When creating a node with a cursor one can not only access member variables, but also do transformations on the fly!

represented as a graph. Each node of this graph knows its value (and has a representation as a plain C++ struct). Since each node knows its current value, when an update comes, the node can compare the new value system. It stores the actual data and always represents the root of the graph. lager::cursor<> is a node of the graph. A cursor connects to the state and track all of its updates. One can read or write into but for read-only and write-only access types On-the-fly value transformations When creating a node with a cursor one can not only access member variables, but also do transformations on the fly!

represented as a graph. Each node of this graph knows its value (and has a representation as a plain C++ struct). Since each node knows its current value, when an update comes, the node can compare the new value system. It stores the actual data and always represents the root of the graph. lager::cursor<> is a node of the graph. A cursor connects to the state and track all of its updates. One can read or write into but for read-only and write-only access types On-the-fly value transformations When creating a node with a cursor one can not only access member variables, but also do transformations on the fly!

タイルモードでのみ可能で、上のノードをクリックすることでパターンの 起点を変更する事ができます。 You can change the size and ratio by click-dragging the lower node. There's no way to constrain the ratio in on-canvas editing, this is only possible in Original and represented as a graph. Each node of this graph knows its value (and has a representation as a plain C++ struct). Since each node knows its current value, when an update comes, the node can compare the new value system. It stores the actual data and always represents the root of the graph. lager::cursor<> is a node of the graph. A cursor connects to the state and track all of its updates. One can read or write into

the stroke by high-level code. Example: FreehandStrokeStrategy��Data accepts such information as: node, painter, paintInformation, dragDistance Other information that is common to the whole stroke like KisPainter *painter); If you thing you need it you may do some corrections for the image and active node in the following method: void initImage(KisImageWSP image, KisNodeSP activeNode); 3. Run your test classes KisPainterBasedStrokeStrategy This class can be used for the strokes those work with the node using a painter (or painters like in KisToolMultihand). This class accepts resources snapshot (KisResourcesSnapshot)

the stroke by high-level code. Example: FreehandStrokeStrategy::Data accepts such information as: node, painter, paintInformation, dragDistance Other information that is common to the whole stroke like KisPainter *painter); If you thing you need it you may do some corrections for the image and active node in the following method: void initImage(KisImageWSP image, KisNodeSP activeNode); 3. Run your test classes KisPainterBasedStrokeStrategy This class can be used for the strokes those work with the node using a painter (or painters like in KisToolMultihand). This class accepts resources snapshot (KisResourcesSnapshot)