Microsoft Technology Licensing, LLC

Other

Dawson Yee

Gurdeep Singh Pall

David Hendler Sloo

Curtis Glenn Wong

Todd E Holmdahl

Scott C Forbes

James E Allard

John Michael Lutian

Roy D Kuntz

Adam Tipton Berns

Steven Nabil Bathiche

Andrew David Wilson

Anoop Gupta

Steven Mark Drucker

Scott Charles McEldowney

Kathryn Stone Perez

William Jefferson Westerinen

Tommer Leyvand

James Charles Finger, Ii

Matthew D Morris

Nicholas Robert Baker

Christina Summer Chen

Mark Plagge

David Alles

Rui Maximo

Leo Del Castillo

Thomas D Mehlhaff

Eric J Horvitz

David Bazeley Tuckerman

Ross Garrett Cutler

Timothy Mark Moore

Cyrus Soli Bamji

Shai Guday

Alex Aben-Athar Kipman

John Allen Tardif

John R Lewis

Craig Steven Ranta

Douglas Patrick Kelley

Miller Thomas Abel

Nathan C Sherman

Jeremy Thomas Buch

Barry Thompson

Chad Magendanz

Joel P Dehlin

Prafulla Jinendra Masalkar

Tim M Moore

Zhanping Xu

David J Kurlander

Andrew Peter Sinclair

Algird Michael Gudaitis

Travis Perry

William Chambers Powell, Iii

Sean C Olson

Donald Marcus Gillett

Ruston John David Panabaker

Dana Lu Silverstein

Oliver R Roup

Jerald J Gnuschke

Vijay Baiyya

Bryon Ashley

Matthew David Turner

Sunil Prakash Acharya

Andrew Dean Payne

Sean Siyao Chiu

Brock McCray Roland

John Michael Link

Mike Fenton

Andrew Jesse Milluzzi

Nicholas C Baker

Cliff C Lee

Leslie Larsen

Larry Prather

Kalyan Shankar Basu

Alex Riemann

Allen Ming-kuang Han

Lucas Warren Schmidt

Christopher R Bagin

Sean S Chiu

John Link

High temperature superconductor (HTS)-based interconnect systems comprising a cable including HTS-based interconnects are described. Each of the HTS-based interconnects includes a first portion extending from a first end towards an intermediate portion and a second portion extending from the intermediate portion to a second end. Each of the HTS-based interconnects includes a substrate layer formed in the first portion, in the intermediate portion, and in the second portion, a high temperature superconductor layer formed in at least a sub-portion of the first portion, in the intermediate portion, and in the second portion, and a metallic layer formed in the first portion and in at least a sub-portion of the intermediate portion. The HTS-based interconnect system includes a thermal load management system configured to maintain the intermediate portion of each of the HTS-based interconnects at a predetermined temperature in a range between a temperature of 60 kelvin and 92 kelvin.

High temperature superconductor-based interconnect systems with a lowered thermal load for interconnecting cryogenic electronics with non-cryogenic electronics

Techniques for providing third party incentivized communications sessions are described. In some embodiments, a Voice over IP (VoIP) conversation is sampled for audio information such as a word, phrase, utterance, or phoneme that may be associated with an advertisement in a database. The database may be searched for the audio information, or in some embodiments a text equivalent of the audio information, and the associated advertisement may be served to a participant in the VoIP communication session. In some implementations, data from or about the conversation may be compiled for analysis.

Digital voice communication advertising

A system for displaying visual information to a user includes a waveguide and a thermal management device. The waveguide has a front surface, a rear surface, and a dual expansion grating area to guide light through the waveguide. The thermal management device is positioned at least partially overlapping the dual expansion grating area and in thermal communication with the dual expansion area.

Systems and methods of reducing temperature gradients in optical waveguides

A system and method providing a capture device autonomously determining its own operational window in the presence of other such devices. The capture device includes an imaging sensor having a field of view and an illumination source. A processor includes code instructing the processor to scan the field of view another illumination source operating in a recurring window of time proximate to the capture device. If illumination occurs from another source within the recurring window, an operational window for the second illumination source is determined an a new a new operational window within the recurring window established for the capture device.

Self discovery of autonomous NUI devices

Technology is presented for providing feedback to a user on an ability of an executing application to track user action for control of the executing application on a computer system. A capture system detects a user in a capture area. Factors in the capture area and the user's actions can adversely affect the ability of the application to determine if a user movement is a gesture which is a control or instruction to the application. One example of such factors is a user being out of the field of view of the capture system. Some other factor examples include lighting conditions and obstructions in the capture area. Responsive to a user tracking criteria not being satisfied, feedback is output to the user. In some embodiments, the feedback is provided within the context of an executing application.

User movement tracking feedback to improve tracking

A system and method providing gesture controlled video conferencing includes a local capture device detecting movements of a user in a local environment and an audio/visual display. A processor is coupled to the capture device and a remote capture device and a remote processor at a remote environment via a network. The local processor includes instructions to render a representation of the remote environment on the display responsive to the remote processor and remote capture device. The processor also tracks movements of a local user in a space proximate to the local capture device. Responsive to a user gesture detected at the local capture device, the audio or visual signals provided by the remote capture device are altered to change the representation of the remote location is altered locally.

Natural user interface having video conference controls

A method comprises receiving one or more depth images from a depth camera, the depth images indicating a depth of a surface imaged by each pixel of the depth images. The method may further comprise identifying a human subject imaged by the depth images and recognizing within one or more of the depth images a beacon emitted from a control device. A position of the control device may be assessed in three dimensions, and the control device may be associated with the human subject based on a proximity of the control device to the human subject or other parameter of the control device with relation to the human subject.

Associating an object with a subject

Techniques are provided for authenticating a phone or other device for a user. A phone or other device is provided to the user. A personal identification number is provided to the user. The personal identification number is used to authenticate the phone or other device in the network for the user.

Device authentication techniques

A code sequence relayed to an infrared blaster is monitored. If the code sequence approaches a violating sequence, the infrared blaster is controlled to emit infrared light with a corrected sequence that does not express the violating sequence. If the code sequence does not approach the violating sequence, the infrared blaster is controlled to emit infrared light with the code sequence.

Code sequence control of infrared blaster

Embodiments disclosed herein are directed to time-of-flight (TOF) systems, and methods for use therewith, that substantially reduce interference that the TOF system may cause to at least one other system that is configured to wirelessly receive and respond to IR light signals. Some such embodiments involve emitting IR light having a low frequency (LF) power envelope that is shaped to substantially reduce frequency content within at least one frequency range known to be used by at least one other system that may be in close proximity to the TOF system. Such embodiments can also involve detecting at least a portion of the emitted RF modulated IR light that has reflected off one or more objects. A TOF system can produce depth images in dependence on results of the detecting, as well as update an application in dependence on the depth images.

Interference reduction for TOF systems

Technology for detecting a change in a configuration position of one or more elements in an illumination system is described. A light source generates an illumination signal, and an element of the system directs a portion of the light of the signal back to a light detector. In one example, the portion of light is reflected back to the light detector. By monitoring an output signal of the light detector based on the directed light, control circuitry can detect that a position of an element of the system has changed. In one example, an off-the-shelf integrated circuit laser diode package including a monitor photodiode can be used with a reflective element. In one example, the reflective element is a tilted optical element. Changes can be detected in the configuration of one or more optical elements of the illumination system which are outside the laser diode package.

Detection of configuration changes among optical elements of illumination system

NUI video conference controls

Techniques are provided for determining distance to an object in a depth camera's field of view. The techniques may include raster scanning light over the object and detecting reflected light from the object. One or more distances to the object may be determined based on the reflected image. A 3D mapping of the object may be generated. The distance(s) to the object may be determined based on times-of-flight between transmitting the light from a light source in the camera to receiving the reflected image from the object. Raster scanning the light may include raster scanning a pattern into the field of view. Determining the distance(s) to the object may include determining spatial differences between a reflected image of the pattern that is received at the camera and a reference pattern.

Raster scanning for depth detection

The subject disclosure is directed towards using an emitter such as an IR blaster to output control traffic (e.g., control codes that control operation of an appliance or toy) and data traffic. The timing of the output of the control code traffic and the data traffic is controlled so that the control code traffic and the data traffic are independent of one another in time. The control code traffic may be output in between outputting the data traffic, so that a user does not perceive a delay when attempting to control a device via interactive control code requests.

Mixing data and control codes on a wireless link

Various embodiments related to monitoring for optical faults in an optical system are disclosed. For example, one disclosed embodiment provides, in an optical system comprising a light source, a light outlet, and an optical element disposed between the light source and the light outlet, a method of monitoring for optical system faults. The method includes detecting, via a light sensor directed toward an interface surface of the optical element closest to the light source, an intensity of light traveling from the interface surface of the optical element to the light sensor, and comparing an intensity of light detected to one or more threshold intensity values. The method further includes identifying an optical system fault condition based on comparing the intensity of light detected to one or more threshold values, and modifying operation of the optical system.

Optical fault monitoring

Growing community of inventors

Medina, WA, United States of America

Dawson Yee