Microsoft Technology Licensing, LLC

Silicon Graphics, Incorporated

William A S Buxton

Michel Pahud

Kenneth Paul Hinckley

Zhengyou Zhang

Jin Li

Christian F Huitema

Zicheng Liu

Rajesh Hegde

Kori Marie Quinn

Robert M Freed

Richard Lloyd Hughes

Margaret K Johnson

Pierre P N Greborio

Irina Spiridonova

Jonathan E Paff

George William Fitzmaurice

Stephen Edward Hodges

Tovi Samuel Grossman

Shahram Izadi

Andrew William Fitzgibbon

Patrick Markus Baudisch

Antonio Criminisi

Gordon P Kurtenbach

Andrew Blake

Raman Kumar Sarin

David Alexander Butler

Richard Malcolm Banks

Gina Danielle Venolia

Abigail Jane Sellen

Samuel Gavin Smyth

Jarnail Chudge

Ken Hinckley

Kenton O'Hara

John E Paff

Margaret E Winsor

Bradley Neville Cotier

Matthew Robin Farmer

Michael James Belfield Parker

Robert John Wilcox

Malcolm Hall

Ankur Agarwal

Beverly L Harrison

Andrei Stefan Ermilov

Hani Nabil Chaaban

Oscar James Francis Salandin

Amos Miller

Peter E Liepe

Charles T Tappen

Thomas P H Baudel

Shumin Zhai

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

An electronic device with a hover sensor is described where the electronic device has an orientation sensor configured to detect an orientation of the electronic device. The electronic device has a hover pattern recognition component configured to use data sensed by the hover sensor to recognize a hover pattern of one or more objects in a hover space extending from the hover sensor. The electronic device has a processor configured to select an action from a plurality of possible actions in dependence on the sensed orientation and the recognized hover pattern and to trigger the selected action.

Hover interaction using orientation sensing

Techniques for causing a specific location of an object provided to a shared device. These techniques may include connecting the computing device with an individual device. The individual device may transmit the object to the shared device and displayed at an initial object position on a display of the shared device. The initial object position may be updated in response to movement of the individual device, and the object may be displayed at the updated object position on the display. The object position may be locked in response to a signal, and the object may be displayed at the locked object position.

Causing specific location of an object provided to a device

Space interaction (SI) functionality is described herein for assisting a user in interacting with a space. The SI functionality includes a sound generation module that generates three-dimensional sounds in various circumstances. A three-dimensional sound is perceived by a user as emanating from particular location within the space. Different modules may leverage the three-dimensional sounds for different purposes. In one implementation, a path guidance module uses a three-dimensional beat sound to direct the user in a particular direction. An exploration module uses three-dimensional sounds to identify the locations of items of interest that lie within (or are otherwise associated with) a subspace to which an attention of the user is currently directed. An orientation module uses three-dimensional sounds to identify the locations of items of interest that are associated with an entire space around the user.

Facilitating interaction between users and their environments using sounds

A system facilitates managing one or more devices utilized for communicating data within a telepresence session. A telepresence session can be initiated within a communication framework that includes a first user and one or more second users. In response to determining a temporary absence of the first user from the telepresence session, a recordation of the telepresence session is initialized to enable a playback of a portion or a summary of the telepresence session that the first user has missed.

Ambulatory presence features

Telepresence of a mobile user (MU) utilizing a mobile device (MD) and remote users who are participating in a telepresence session is optimized. The MD receives video of a first remote user (FRU). Whenever the MU gestures with the MD using a first motion, video of the FRU is displayed. The MD can also receive video and audio of the FRU and a second remote user (SRU), display a workspace, and reproduce the audio of the FRU and SRU in a default manner. Whenever the MU gestures with the MD using the first motion, video of the FRU is displayed and audio of the FRU and SRU is reproduced in a manner that accentuates the FRU. Whenever the MU gestures with the MD using a second motion, video of the SRU is displayed and audio of the FRU and SRU is reproduced in a manner that accentuates the SRU.

Optimized telepresence using mobile device gestures

This document relates to touch screen controls. For instance, the touch screen controls can allow a user to control a computing device by engaging a touch screen associated with the computing device. One implementation can receive at least one tactile contact from a region of a touch screen. This implementation can present a first command functionality on the touch screen proximate the region for a predefined time. It can await user engagement of the first command functionality. Lacking user engagement within the predefined time, the implementation can remove the first command functionality and offer a second command functionality.

Touch screen control

Described herein are techniques and systems that allow modification of functionalities based on distances between a shared device (e.g., a shared display, etc.) and an individual device (e.g., a mobile computing device, etc.). The shared device and the individual device may establish a communication to enable exchange of data. In some embodiments, the shared device or the individual device may measure a distance between the shared device and the individual device. Based on the distance, the individual device may operate in a different mode. In some instances, the shared device may then instruct the individual device to modify a functionality corresponding to the mode.

Modifying functionality based on distances between devices

Functionality is described herein for detecting and responding to gestures performed by a user using a computing device, such as, but not limited to, a tablet computing device. In one implementation, the functionality operates by receiving touch input information in response to the user touching the computing device, and movement input information in response to the user moving the computing device. The functionality then determines whether the input information indicates that a user has performed or is performing a multi-touch-movement (MTM) gesture. The functionality can then perform any behavior in response to determining that the user has performed an MTM gesture, such as by modifying a view or invoking a function, etc.

Multi-touch-movement gestures for tablet computing devices

One or more embodiments disclosed herein provide methods and systems for indexing video recordings of scenes using artifacts. More specifically one or more embodiments provide methods which identify artifacts in video recordings and index the video recordings according to the artifacts. These methods and systems also output portions of the video recordings according to the artifact-based indexing.

Employing artifacts for video indexing

Existing remote workspace sharing systems are difficult to use. For example, changes made on a common work product by one user often appear abruptly on displays viewed by remote users. As a result the interaction is perceived as unnatural by the users and is often inefficient. Images of a display of a common work product are received from a camera at a first location. These images may also comprise information about objects between the display and the camera such as a user's hand editing a document on a tablet PC. These images are combined with images of the shared work product and displayed at remote locations. Advance information about remote user actions is then visible and facilitates collaborative mediation between users. Depth information may be used to influence the process of combining the images.

Remote workspace sharing

Methods and apparatus for uniquely identifying wireless devices in close physical proximity are described. When two wireless devices are brought into close proximity, one of the devices displays an optical indicator, such as a light pattern. This device then sends messages to other devices which are within wireless range to cause them to use any light sensor to detect a signal. In an embodiment, the light sensor is a camera and the detected signal is an image captured by the camera. Each device then sends data identifying what was detected back to the device displaying the pattern. By analyzing this data, the first device can determine which other device detected the indicator that it displayed and therefore determine that this device is within close physical proximity. In an example, the first device is an interactive surface arranged to identify the wireless addresses of devices which are placed on the surface.

Unique identification of devices using color detection

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Toronto, Canada

William A S Buxton