Skin responsible for rendering this Control. From the perspective of the Control, the Skin is a black box. It listens and responds to changes in state in a Control.

There is a one-to-one relationship between a Control and its Skin. Every Skin maintains a back reference to the Control.

A skin may be null.

The text to display in the label.

Specifies how the text and graphic within the Labeled should be positioned horizontally when there is empty space within the Labeled.

Specifies how the text and graphic within the Labeled should be positioned vertically when there is empty space within the Labeled.

Specifies the behavior for lines of text when text is multiline Unlike vpos which affects the graphic and text, this setting only affects multiple lines of text relative to the text bounds.

Specifies the behavior to use if the text of the Labeled exceeds the available space for rendering the text.

If a run of text exceeds the width of the Labeled, then this variable indicates whether the text should wrap onto another line.

The default font to use for text in the Labeled. If the Label's text is rich text then this font may or may not be used depending on the font information embedded in the rich text, but in any case where a default font is required, this font will be used.

An optional icon for the Labeled. This can be positioned relative to the text by using the graphicHPos and graphicVPos variables. The node specified for this variable cannot appear elsewhere in the scene graph, otherwise the IllegalArgumentException is thrown. See the class description of javafx.scene.Node Node for more detail.

Specifies the horizontal positioning of the graphic relative to the text.

Specifies the vertical positioning of the graphic relative to the text.

The amount of space between the graphic and text

The width of the Resizable. The parent of this Resizable node will set this variable during layout; applications should not set this variable directly, as such values will be overridden during layout. If an application needs to control the width of a Resizable node, it should override its preferred width using LayoutInfo: Label { layoutInfo: LayoutInfo { width: 100 } }

Any javafx.scene.Node subclass which mixes in Resizable should ensure that layoutBounds.width is bound to this value and invokes requestLayout in width's on replace trigger.

The height of the Resizable. The parent of this Resizable node will set this variable during layout; applications should not set this variable directly, as such values will be overridden during layout. If an application needs to control the height of a Resizable node, it should override its preferred height using LayoutInfo: ListView { layoutInfo: LayoutInfo { height: 200 } }

Any javafx.scene.Node subclass which mixes in Resizable should ensure that layoutBounds.height is bound to this value and invokes requestLayout in height's on replace trigger.

The id of this Node. This simple string identifier is useful for finding a specific Node within the scene graph. While the id of a Node should be unique within the scene graph, this uniqueness is not enforced. This is much like the "id" attribute of an HTML element.

A String identifier which can be used to logically group Nodes, specifically for an external style engine. This variable is exactly analogous to the styleClass attribute on an HTML element.

A string representation of the CSS style associated with this specific Node. This is exactly analogous to the "style" attribute on an HTML element, but uses the syntax defined in JavaFX CSS.

Specifies whether this Node and any subnodes should be rendered as part of the scene graph. A node may be visible and yet not be shown in the rendered scene if, for instance, it is off the screen or obscured by another Node. Invisible nodes never receive mouse events or keyboard focus, and never maintain keyboard focus when they become invisible.

Defines the mouse cursor for this Node and subnodes. If null, then the cursor of the first parent node with a non-null cursor will be used. If no Node in the scene graph defines a cursor, then the cursor of the Scene will be used.

Specifies how opaque (that is, solid) the Node appears. A Node with 0% opacity is fully translucent. That is, while it is still #visible and rendered, you generally won't be able to see it. The exception to this rule is when the Z Node is combined with a blending mode and blend effect in which case a translucent Node may still have an impact in rendering. An opacity of 50% will render the node as being 50% transparent.

A #visible node with any opacity setting still receives mouse events and can receive keyboard focus. For example, if you want to have a large invisible rectangle overlay all Nodes in the scene graph in order to intercept mouse events but not be visible to the user, you could create a large Rectangle that had an opacity of 0%.

Opacity is specified as a value between 0 and 1. Values less than 0 or greater than 1 are clipped to 0 and 1 respectively.

On some platforms ImageView might not support opacity variable.

Specifies a Node to use to define the the clipping shape for this Node. This clipping Node is not a child of this Node in the scene graph sense. Rather, it is used to define the clip for this Node.

For example, you can use an javafx.scene.image.ImageView Node as a mask to represent the Clip. Or you could use one of the geometric shape Nodes such as javafx.scene.shape.Rectangle or javafx.scene.shape.Circle. Or you could use a javafx.scene.text.Text node to represent the Clip.

See the class documentation for Node for scene graph structure restrictions on setting the clip. If these restrictions are violated by a change to the clip variable, the change is ignored and the previous value of the clip variable is restored.

Note: this is a conditional feature. See javafx.runtime.ConditionalFeature#SHAPE_CLIP ConditionalFeature.SHAPE_CLIP for more information.

A performance hint to the system to indicate that this Node should be cached as a bitmap. Rendering a bitmap representation of a node will be faster than rendering primitives in many cases, especially in the case of primitives with effects applied (such as a blur). However, it also increases memory usage. This hint indicates whether that trade-off (increased memory usage for increased performance) is worthwhile. Also note that on some platforms such as GPU accelerated platforms there is little benefit to caching Nodes as bitmaps when blurs and other effects are used since they are very fast to render on the GPU. The cacheHint variable provides additional options for enabling more aggressive bitmap caching.

Additional hint for controlling bitmap caching.

Under certain circumstances, such as animating nodes that are very expensive to render, it is desirable to be able to perform transformations on the node without having to regenerate the cached bitmap. An option in such cases is to perform the transforms on the cached bitmap itself.

This technique can provide a dramatic improvement to animation performance, though may also result in a reduction in visual quality. The cacheHint variable provides a hint to the system about how and when that trade-off (visual quality for animation performance) is acceptable.

It is possible to enable the cacheHint only at times when your node is animating. In this way, expensive nodes can appear on screen with full visual quality, yet still animate smoothly.

Example:

                    expensiveNode.cache = true;  expensiveNode.cacheHint = CacheHint.QUALITY;  ...  // Do an animation  expensiveNode.cacheHint = CacheHint.SPEED;  Timeline {      keyFrames: [          KeyFrame {              time: 2s              values: [                  expensiveNode.scaleX => 2.0,                  expensiveNode.scaleY => 2.0,                  expensiveNode.rotate=> 360,                  expensiveNode.cacheHint => CacheHint.QUALITY              ]         }      ]  }.play(); 
                

If Node.cache is false, cacheHint is ignored.

Specifies an effect to apply to this Node.

Note: this is a conditional feature. See javafx.runtime.ConditionalFeature#EFFECT ConditionalFeature.EFFECT for more information.

Sets the individual disabled state of this Node. Setting disable to true will cause this Node and any subnodes to become disabled. This variable should be used only to set the disabled state of a Node. For querying the disabled state of a Node, the #disabled variable should instead be used, since it is possible that a Node was disabled as a result of an ancestor being disabled even if the individual disable state on this Node is false.

Defines how the picking computation is done for this node when triggered by a MouseEvent or a contains function call. If pickOnBounds is true, then picking is computed by intersecting with the bounds of this node, else picking is computed by intersecting with the geometric shape of this node.

Defines whether or not this node's layout will be managed by it's parent. Each parent class follows a strategy for laying out managed children during the scene's layout pass:

• Group: sets the size of any Resizable children to their preferred size; does not alter the size of non-Resizable children; does not position children.
• Container: sets the size of any Resizable content according to its layout rules and each node's layoutInfo; does not alter the size of non-Resizable content; will position nodes (setting layoutX/layoutY according to its layout rules.
• CustomNode: by default it behaves like Group, however its layout behavior may be overridden by a subclass.

If a Parent node is unmanaged, then it will act as a root for layout, which means that layout requests beneath it will cause only the branch rooted by this node to be relayed out.

Defines the X coordinate of the translation that is added to the transformed coordinates of this Node for the purpose of layout. Containers or Groups performing layout will set this variable relative to layoutBounds.minX in order to position the node at the desired layout location.

For example, if child should have a final location of finalX:

                         child.layoutX = finalX - child.layoutBounds.minX;  
                

Defines the Y coordinate of the translation that is added to the transformed coordinates of this Node for the purpose of layout. Containers or Groups performing layout will set this variable relative to layoutBounds.minY in order to position the node at the desired layout location.

For example, if child should have a final location of finalY:

                         child.layoutY = finalY - child.layoutBounds.minY;  
                

Hook for node-specific layout information used by layout containers. If the node is not a child of a container which supports layout info, this variable will be ignored.

Note that layoutInfo object literals may be shared across nodes, which means altering the vars in layoutInfo will affect all such nodes.

Defines the sequence of javafx.scene.transform.Transform objects to be applied to this Node. This sequence of transforms is applied before #translateX, #translateY, #scaleX, and #scaleY, #rotate transforms.

By default, #layoutBounds is defined as the local bounds with all the transforms in this sequence applied.

Defines the X coordinate of the translation that is added to the transformed coordinates of this Node. This value will be added to any translation defined by the transforms sequence and layoutX.

This variable can be used to alter the location of a Node without disturbing its layout bounds, which makes it useful for animating a node's location.

Defines the Y coordinate of the translation that is added to the transformed coordinates of this Node. This value will be added to any translation defined by the transforms sequence and layoutY.

This variable can be used to alter the location of a Node without disturbing its layout bounds, which makes it useful for animating a node's location.

Defines the Z coordinate of the translation that is added to the transformed coordinates of this Node. This value will be added to any translation defined by the transforms sequence and layoutZ.

This variable can be used to alter the location of a Node without disturbing its layout bounds, which makes it useful for animating a node's location.

Note: this is a conditional feature. See javafx.runtime.ConditionalFeature#SCENE3D ConditionalFeature.SCENE3D for more information.

Defines the factor by which coordinates are scaled about the center of the object along the X axis of this Node. This is used to stretch or animate the node either manually or by using an animation.

This scale factor is not included in #layoutBounds by default, which makes it ideal for scaling the entire node after all effects and transforms have been taken into account.

The pivot point about which the scale occurs is the center of the untransformed #layoutBounds.

Defines the factor by which coordinates are scaled about the center of the object along the Y axis of this Node. This is used to stretch or animate the node either manually or by using an animation.

This scale factor is not included in #layoutBounds by default, which makes it ideal for scaling the entire node after all effects and transforms have been taken into account.

The pivot point about which the scale occurs is the center of the untransformed #layoutBounds.

Defines the factor by which coordinates are scaled about the center of the object along the Z axis of this Node. This is used to stretch or animate the node either manually or by using an animation.

This scale factor is not included in #layoutBounds by default, which makes it ideal for scaling the entire node after all effects and transforms have been taken into account.

The pivot point about which the scale occurs is the center of the rectangular bounds formed by taking #boundsInLocal and applying all the transforms in the #transforms[] sequence.

Note: this is a conditional feature. See javafx.runtime.ConditionalFeature#SCENE3D ConditionalFeature.SCENE3D for more information.

Defines the angle of rotation about the Node's center, measured in degrees. This is used to rotate the Node.

This rotation factor is not included in #layoutBounds by default, which makes it ideal for rotating the entire node after all effects and transforms have been taken into account.

The pivot point about which the rotation occurs is the center of the untransformed #layoutBounds.

Note that because the pivot point is computed as the center of this Node's layout bounds, any change to the layout bounds will cause the pivot point to change, which can move the object. For a leaf node, any change to the geometry will cause the layout bounds to change. For a group node, any change to any of its children, including a change in a child's geometry, clip, effect, position, orientation, or scale, will cause the group's layout bounds to change. If this movement of the pivot point is not desired, applications should instead use the Node's #transforms[] sequence, and add a javafx.scene.transform.Rotate transform, which has a user-specifiable pivot point.

Defines the axis of rotation of this Node.

Note: this is a conditional feature. See javafx.runtime.ConditionalFeature#SCENE3D ConditionalFeature.SCENE3D for more information.

If true, consumes mouse events in this Node and does not send them to other nodes further up the scene graph. If a Node wants to block mouse events from going to nodes which are visually obscured by this Node, then set blocksMouse to true.

Specifies whether this Node should be a part of focus traversal cycle. When this property is true focus can be moved to this Node and from this Node using regular focus traversal keys. On a desktop such keys are usually TAB for moving focus forward and SHIFT+TAB for moving focus backward. When a Scene is created, the system gives focus to a Node whose focusTraversable variable is true and that is eligible to receive the focus, unless the focus had been set explicitly via a call to requestFocus().