Abstract: User interface (UI) manipulations may be performed by eliminating noticeable process boundaries associated with or generated by different applications. The techniques herein describe dynamically splitting manipulations across multiple pieces of content without regard to various types and/or states of the user interface manipulations and/or without regard to whether the multiple pieces of content are associated with different individual processes. In at least one example, the techniques described herein enable quick, responsive, and seamless UI manipulations with complex configurations of content on a UI and/or with multiple pieces of content associated with more than one application. Additionally, the techniques described herein further enable content on a UI to “stick” to the user input manipulation or move with the user input manipulation such that the content appears to stay directly in contact with the user input manipulation.

Abstract: In one embodiment, a graphical display device may use a set of one or more thresholds to remove a scaling motion from a panning input using multiple fingers. The graphical display device may receive a user input in a user movement interface having at least a first bio-point 210 and a second bio-point 210. The graphical display device may detect a panning motion from the user input. The graphical display device may filter out a scaling motion from the user input based on a scaling threshold. The graphical display device may present a pan of a graphical user interface to a user.

Abstract: User interface (UI) manipulations may be performed by eliminating noticeable process boundaries associated with or generated by different applications. The techniques herein describe dynamically splitting manipulations across multiple pieces of content without regard to various types and/or states of the user interface manipulations and/or without regard to whether the multiple pieces of content are associated with different individual processes. In at least one example, the techniques described herein enable quick, responsive, and seamless UI manipulations with complex configurations of content on a UI and/or with multiple pieces of content associated with more than one application. Additionally, the techniques described herein further enable content on a UI to “stick” to the user input manipulation or move with the user input manipulation such that the content appears to stay directly in contact with the user input manipulation.

Abstract: In one embodiment, a graphical display device may synchronize movement between a primary content set 204 and a reflex content set 206 to create a parallax effect in a graphical user interface 202. The graphical display device may detect a user input indicating a primary position change 206 of a primary content set 204 in a graphical user interface 202. The graphical display device may instantiate a delegate thread to control a reflex content set 208. The graphical display device cause a reflex content set 208 to move in a controlled independent action 210 based on the primary position change 206.

Abstract: In one embodiment, a graphical display device may use a set of one or more thresholds to remove a scaling motion from a panning input using multiple fingers. The graphical display device may receive a user input in a user movement interface having at least a first bio-point 210 and a second bio-point 210. The graphical display device may detect a panning motion from the user input. The graphical display device may filter out a scaling motion from the user input based on a scaling threshold. The graphical display device may present a pan of a graphical user interface to a user.

Abstract: A pruner has a movable handle/blade assembly pivotally coupled to a static handle/blade assembly by a pivot assembly carried by the static handle. The pivot assembly further has a bush within the static handle and on which the movable handle/blade assembly is pivotally mounted, a spring for pivotally biasing the movable handle/blade assembly to an open position being retained by the pivot assembly within the static handle. Both the movable blade and static blade are mounted on the bush and are clamped laterally between two separate parts of the bush which are assembled together in screw threaded engagement, and the two blades are supported from the bush by a bearing ring of low friction material.

Abstract: A pruner has a movable handle/blade assembly pivotally coupled to a static handle/blade assembly by a pivot assembly carried by the static handle. The pivot assembly comprises a bush within the static handle and on which the movable handle/blade assembly is pivotally mounted, a spring for pivotally biasing the movable handle/blade assembly to an open position being retained by the pivot assembly within the static handle. Both the movable blade and static blade are mounted on the bush and are clamped laterally between two separate parts of the bush which are assembled together in screw threaded engagement, and the two blades are supported from the bush by a bearing ring of low friction material.