Microsoft Technology Licensing, LLC

Elwha LLC

Microsoft Technolgoy Licensing, LLC

Microsoft Corporation

Kenneth Paul Hinckley

Steven Nabil Bathiche

Michel Pahud

Michael Jack Sinclair

Koji Yatani

Hrvoje Benko

Daniel Chaim Robbins

Patrick Markus Baudisch

James H Cauthorn

Desney S Tan

George G Robertson

Andrew David Wilson

Anoop Gupta

Mary P Czerwinski

Raman Kumar Sarin

Eric J Horvitz

William A S Buxton

Richard S Szeliski

Paul Henry Dietz

Maarten Roderik Van Dantzich

William Arthur Stewart Buxton

Matthew Conway

Edward Bryan Cutrell

Shahram Izadi

Lowell L Wood, Jr

Roderick A Hyde

Clarence T Tegreene

Jordin T Kare

Nathan P Myhrvold

Muriel Y Ishikawa

Victoria Y H Wood

Charles Whitmer

Robert C Petroski

Stephen Edward Hodges

Jesse R Cheatham, Iii

Philip Andrew Eckhoff

Craig J Mundie

Matthew Graham Dyor

Andreas Georg Nowatzyk

David Alexander Butler

Nathan C Sherman

Maneesh Agrawala

James Thomas Kajiya

Georg F Petschnigg

Danny Allen Reed

Ian Sands

Timothy Michael Muss

William Ben Kunz

Eyal Ofek

Amir Netz

Steven T Kaneko

William Hong Vong

Hugh E McLoone

Bongshin Lee

Brett David Brewer

Todd E Holmdahl

Nathalie Henry Riche

Timothy T Brewer

Wolf Kienzle

Stephen G Latta

Tovi Samuel Grossman

Kevin Geisner

Joseph H Matthews, Iii

Jonathan Reed Harris

Jae Pum Park

Boyd Cannon Multerer

Jaron Zepel Lanier

Meredith June Morris

F David Jones

Kenneth V Fry

James Kai Yu Lau

Adam Samuel Riddle

Mar Gonzalez Franco

Richard Lloyd Hughes

Edward Sean Lloyd Rintel

V Kevin Russ

Steven Mark Drucker

Tristan Thomas Trutna

Steven W Fisher

John Charles Krumm

Joel Bernard Jacobs

Darko Kirovski

Oscar E Murillo

Jonathan David Goldstein

Gideon Andreas Yuval

Avi R Geiger

Gina Danielle Venolia

Jonathan David Friedman

Michael Koenig

Vivek Pradeep

Ali M Vassigh

Andrew Scott Allen

Joel P Dehlin

Xiang Cao

Jay Beavers

David Henry Wykes

Michael Shilman

Rosanna H Ho

Daan Lindhout

Christina Summer Chen

Aspects of the present disclosure relate to multi-user, multi-device gaze tracking. In examples, a system includes at least one processor, and memory storing instructions that, when executed by the at least one processor, causes the system to perform a set of operations. The set of operations include identifying a plurality of computing devices, and identifying one or more users. The set of operations may further include receiving gaze input data and load data, from two or more of the plurality of computing devices. The set of operations may further include performing load balancing between the plurality of devices, wherein the load balancing comprises assigning one or more tasks from a first of the plurality of computing devices to a second of the plurality of computing devices based upon the gaze input data.

Multi-device gaze tracking

Methods and systems are disclosed for sharing a content item from a secondary computing device to a primary computing device based on a tilt position of the secondary computing device. A sensor on the secondary computing device determines that the secondary computing device has a first tilt position that is associated with a non-sharing mode. The sensor senses that the secondary computing device is tilting from the first tilt position towards a second tilt position that is associated with a full sharing mode. In response, the content item is shared with the primary computing device. An amount of the content item that is shared continues to be increased as long as the sensor continues to sense that the secondary computing device is tilting. Once the secondary computing device has reached the second tilt position, the entire content item is shared with the primary computing device.

Tilt-responsive techniques for sharing content

In embodiments of multi-device pairing and combined display, mobile devices have device touchscreens, and housing bezels of the mobile devices can be positioned proximate each other to form a combined display from the respective device touchscreens. An input recognition system can recognize an input to initiate pairing the mobile devices, enabling a cross-screen display of an interface on the respective device touchscreens, such as with different parts of the interface displayed on different ones of the device touchscreens. The input to initiate pairing the mobile devices can be recognized as the proximity of the mobile devices, as a gesture input, as a sensor input, and/or as a voice-activated input to initiate the pairing of the mobile devices for the cross-screen display of the interface.

Multi-device pairing and combined display

Methods and systems are provided that are directed to automatically adjusting a user interface based on tilt position of a digital drawing board. The digital drawing board has a tiltable screen with a sensor. The tiltable screen may be fixed in a stable tilt position. A sensor is used to determine that the digital drawing board has a first tilt position. The digital drawing board displays a first user interface associated with the first tilt position. The first user interface may be associated with a first use mode, and may also be based on an application running on the digital drawing board. When the sensor senses that the digital drawing board has moved from the first tilt position to a second tilt position, it automatically displays a second user interface associated with a second tilt position. The second user interface may be associated with a second use mode.

Tilt-responsive techniques for digital drawing boards

Aspects of the present disclosure relate to headset virtual presence techniques. For example, a participant of a communication session may not have an associated video feed, for example as a result of a user preference to disable video communication or a lack of appropriate hardware. Accordingly, a virtual presence may be generated for such a non-video participant, such that the non-video participant may be represented within the communication session similar to video participants. The virtual presence may be controllable using a headset device, for example such that movements identified by the headset device cause the virtual presence to move. In some instances, user input may be received to control emotions conveyed by the virtual presence, for example specifying an emotion type and/or intensity.

Headset virtual presence

The description relates to cooperatively controlling devices based upon their location and pose. One example can receive first sensor data associated with a first device and second sensor data associated with a second device. This example can analyze the first sensor data and the second sensor data to determine relative locations and poses of the first device relative to the second device and can supply the locations and poses to enable content to be collectively presented across the devices based upon the relative locations and poses.

Multiple device content management

Aspects of the present disclosure relate to computing device headset input. In examples, sensor data from one or more sensors of a headset device are processed to identify implicit and/or explicit user input. A context may be determined for the user input, which may be used to process the identified input and generate an action that affects the behavior of a computing device accordingly. As a result, the headset device is usable to control one or more computing devices. As compared to other wearable devices, headset devices may be more prevalent and may therefore enable more convenient and more intuitive user input beyond merely providing audio output.

Computing device headset input

Methods and systems are disclosed for sharing a content item from a secondary computing device to a primary computing device based on a tilt position of the secondary computing device. A sensor on the secondary computing device determines that the secondary computing device has a first tilt position that is associated with a non-sharing mode. The sensor senses that the secondary computing device is tilting from the first tilt position towards a second tilt position that is associated with a full sharing mode. In response, the content item is begun to be shared with the primary computing device. An amount of the content item that is shared with the primary computing device is continued to be increased as long as the sensor continues to sense that the secondary computing device is tilting from the first tilt position towards the second tilt position. The sensor senses that the secondary computing device has reached the second tilt position and shares the entire content item with the primary computing device.

Methods and systems are provided that are directed to automatically adjusting a user interface based on tilt position of a digital drawing board. The digital drawing board has a tiltable screen with a sensor. The tiltable screen may be fixed in a stable tilt position. A sensor is used to determine that the digital drawing board has a first tilt position. The digital drawing board displays a first user interface associated with the first tilt position. The first user interface may be associated with a first use mode. The first user interface may also be based on an application running on the digital drawing board. When the sensor senses that the digital drawing board has moved from the first tilt position to a second tilt position, it automatically displays a second user interface associated with a second tilt position. The second user interface has different functionality than the first user interface. The second user interface may be associated with a second use mode that is different than the first use mode but may be based on the same application as the first user interface.

Systems and methods relate to sharing content and data across users and devices. A shared folios include media primitives and tools as its constituents. The use of shared folios addresses an issue of reliably and efficiently transfer user activities with data. The use addresses scenarios of both single-user work utilizing multiple devices and collaborative work among users utilizing multiple devices. The media primitive includes content in various data types. The tool include data and access to the data by devices and applications. A data distributor manages automatic synchronization of the folios across devices using centralized and distributed transaction logs The folios are synchronized with resiliency against failure in client devices. The folio and its constituents are interactively accessible through top-level, semi-transparent user interface. The media primitive and the tools may programmatically access local applications to automatically transfer user activities among users and devices.

Method for sharing content and tools independently from devices, applications, users, and times

A system and method are disclosed for pairing computing devices using an authentication protocol that allows an initiating computing device to gain access to a secure, encrypted network of a target computing device.

Networked device authentication, pairing and resource sharing

An apparatus includes a keyboard engine that operates a keyboard that accepts shape-writing input and radial entry input. A keyboard input module obtains input data from at least one input sensor of the keyboard. An intention disambiguation engine enables simultaneous use of the shape-writing input and the radial entry input acceptance for a user of the keyboard.

Disambiguation of keyboard input

The description relates to a shared digital workspace. One example includes a display device and sensors. The sensors are configured to detect users proximate the display device and to detect that an individual user is performing an individual user command relative to the display device. The system also includes a graphical user interface configured to be presented on the display device that allows multiple detected users to simultaneously interact with the graphical user interface via user commands.

User interface for collaborative efforts

Various technologies described herein pertain to utilizing sensed pre-touch interaction to control a mobile computing device. A pre-touch interaction of a user with the mobile computing device is detected. The pre-touch interaction includes a grip of the user on the mobile computing device and/or a hover of one or more fingers of the user with respect to a touchscreen of the mobile computing device. The finger(s) of the user can be within proximity but not touching the touchscreen as part of the hover. Parameter(s) of the pre-touch interaction of the user with the mobile computing device are identified, and a touch of the user on the touchscreen of the mobile computing device is detected. A computing operation is executed responsive to the touch, where the computing operation is based on the touch and the parameter(s) of the pre-touch interaction of the user with the mobile computing device.

Pre-touch sensing for mobile interaction

Growing community of inventors

Redmond, WA, United States of America

Kenneth Paul Hinckley