Microsoft Technology Licensing, LLC

Uros Batricevic

Reed L Townsend

Joyce Wu

Alan Stephenson

Steven Nabil Bathiche

Kazuhito Koishida

Todd A Torset

Olumuyiwa M Durojaiye

Alexander A Popov

Krishnan Menon

Pamela De La Torre Baltierra

Brian Wheeler

Mariel Young

Vipul Aneja

David Abzarian

Aleksandar Uzelac

Michael Nelte

Silvano Bonacina

Nathan P Pollock

Changsin Lee

Lauren Gust

Alan W Stephenson

Michael A Nelte

An intelligent assistant records speech spoken by a first user and determines a self-selection score for the first user. The intelligent assistant sends the self-selection score to another intelligent assistant, and receives a remote-selection score for the first user from the other intelligent assistant. The intelligent assistant compares the self-selection score to the remote-selection score. If the self-selection score is greater than the remote-selection score, the intelligent assistant responds to the first user and blocks subsequent responses to all other users until a disengagement metric of the first user exceeds a blocking threshold. If the self-selection score is less than the remote-selection score, the intelligent assistant does not respond to the first user.

Multi-user intelligent assistance

Techniques relating to scrolling, object selection, and object moving are discussed. Strokes are inputted by a user, for instance using a touch sensitive surface. Strokes are directed to a scrollable surface with objects therein. Strokes that end before meeting a condition select the objects, and strokes then end after meeting the condition move the objects or representations thereof. The condition may be a distance. Selection may only occur when strokes meet a threshold condition such as having a particular direction (e.g., perpendicular to a direction for scrolling the surface) or moving a minimal distance. Strokes in a scrolling direction (e.g., horizontal) may scroll the surface in that direction and strokes in another direction (e.g., vertical) may both select and move the objects. Objects selected may slide on rails before moving.

Cross slide gesture

Embodiments relate to a computing device having storage, a processor, a display, a first human input device, and a second human input device, where the first human input device is in a first category of human input devices and the second human input device is in a second category of human input devices. The computing device may perform a process involving executing a windowing environment that manages windows of applications executing on the computing device. The windowing environment may receive raw inputs from the first and second human input devices and in turn generate input pointers for the raw inputs, respectively. The input pointers may be or include instances of an input pointer class implemented by the windowing environment, the pointer class used by the windowing environment for arbitrary different types of human input pointer devices including the first human input device and the second human input device.

Pointer unification

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-pointand a second bio-point. 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.

Detection of pan and scaling during multi-finger touch interactions

The techniques described herein are directed to receiving parameters directed to correcting spatial error and/or jitter associated with an interaction device connected to a computing device. In some instances, the parameters are encrypted parameters that may be decrypted and consumed to correct the spatial error and/or the jitter associated with the interaction device. For instance, the parameters may provide an adjustment to one or more reported positions of input received from a detection area of the interaction device, so that a display position more accurately reflects, based on the adjustment, an actual position of input on the detection area of the interaction device.

Interaction device corrective parameters

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Redmond, WA, United States of America

Uros Batricevic