Microsoft Technology Licensing, LLC

Anton O Andrews

Carl J Ledbetter

Steven T Kaneko

Catherine Sayim Kim

Donald R Coyner

Jeffrey C Fong

Benjamin Isaac Vaught

Christopher Michael Novak

Stephen G Latta

James Chia-Ming Liu

Sheridan Martin

Brian Y Yeung

Craig R Maitlen

Peter G Chin

James E Allard

Julio Estrada

Sandra Irene Vargas

Keith Lindsey Rowe

Sheridan Martin Small

Marc S Doll

James Liu

A touchless human computer interface (HCI) provides a virtual surface in three-dimensional space and a zone of restriction for defining a level of sensitivity to movements in order to cancel noise that may be caused by natural wobble of a human appendage. The touchless HCI may receive input regarding a user movement, process the input to generate clean gesture data and analyze at least one dynamic variable to determine an interpreted action based upon a relationship of the clean gesture data with respect to the virtual surface.

Navigation of a virtual plane using a zone of restriction for canceling noise

A user interface includes a virtual object having an appearance in context with a real environment of a user using a see-through, near-eye augmented reality display device system. A virtual type of object and at least one real world object are selected based on compatibility criteria for forming a physical connection like attachment, supporting or integration of the virtual object with the at least one real object. Other appearance characteristics, e.g. color, size or shape, of the virtual object are selected for satisfying compatibility criteria with the selected at least one real object. Additionally, a virtual object type and appearance characteristics of the virtual object may be selected based on a social context of the user, a personal context of the user or both.

Context adaptive user interface for augmented reality display

Virtual objects are located for display in a head-mounted display (HMD) to provide an augment reality view to an HMD wearer. An HMD wearer's total field of view (TFOV) is classified into two or more regions. Additionally, a field of view (FOV) for the HMD wearer is determined. The FOV is compared with the two or more regions of the HMD wearer's TFOV. Responsive to this comparison, virtual objects are determined for display based on a location of the FOV relative to the two or more regions of the HMD wearer's TFOV. The virtual objects may then be displayed by the HMD at an appropriate location.

Total field of view classification

Virtual images are located for display in a head-mounted display (HMD) to provide an augment reality view to an HMD wearer. Sensor data may be collected from on-board sensors provided on an HMD. Additionally, other day may be collected from external sources. Based on the collected sensor data and other data, the position and rotation of the HMD wearer's head relative to the HMD wearer's body and surrounding environment may be determined. After resolving the HMD wearer's head position, the HMD wearer's total field of view (TFOV) may be classified into regions. Virtual images may then be located in the classified TFOV regions to locate the virtual images relative to the HMD wearer's body and surrounding environment.

Total field of view classification for head-mounted display

A panoramic graphical user interface includes a contiguous background and a collection of mixed-media content objects. The contiguous background includes one or more space-orientating graphical elements and is sized to fit within a first dimension of a display and to extend beyond a second dimension of the display. The collection of mixed-media content objects are anchored over the contiguous background. The collection of mixed-media content objects are arranged to fit within the first dimension of the display and arranged to extend beyond the second dimension of the display.

Panoramic graphical user interface

Multiple degrees of context for media content that is consumable on computing platforms including PCs and personal media players is provided by logically organizing context objects into halos that surround each piece of consumable content. The context objects represent information and experiences that are contextually associated with media content to enable users to easily discover content and experiences that they will find interesting in a rich and personal manner. As a user navigates from a content item to a context object in the halo, the context object itself morphs into content that is then surrounded by a new halo of context objects to which the user may navigate. The organization of media content and information into halos enables an effective contextual paradigm that cuts across strict hierarchical structures to allow the user experience to be much more seamless and free-flowing.

Providing multiple degrees of context for content consumed on computers and media players

A method and apparatus for operating a mobile communication device in a sleep mode. The mobile communication device displays a time in an easily readable format at a low-light intensity, provides an alert to a user at an alarm time in a particular manner specified by the user, changes the buttons on the mobile communication device to operate as snooze buttons, and suppresses a portion of call and message notifications received by the mobile communication device when the mobile communication device is in the sleep mode. The sleep mode operation is performed, at least in part, according to sleep-mode user settings chosen by the user.

Sleep mode for mobile communication device

A media content programming, delivery, and consumption model is provided by which consumers can receive programming that is personalized to their tastes and interests and discover new media content that they will likely enjoy, without having to put in a lot of effort or needing to be technically adept. The received media content programming can then be played on a PC or portable media player. Consumers can access the media content programming from a cloud-based service with the same ease as tuning to a radio station, and then may simply enjoy the programming without needing to take any additional steps. However, unlike traditional linear programming, the programming here is curated so that the delivered content is highly relevant to the consumer. Navigation within a programmed sequence is enabled by skipping ahead or going back in a playlist, and consumers can learn more about particular content by interacting with rich metadata.

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Seattle, WA, United States of America

Anton O Andrews