Microsoft Technology Licensing, LLC

Gregory P Baribault

Eric J Horvitz

Larry Alan Morris

John Mark Miller

Ruston John David Panabaker

Feng Zhao

Johannes Klein

Sharad Mathur

Shiraz Jitendra Cupala

Scott C Forbes

Andrew W Jacobs

Samuel James Ludwig Albert

Michael Jack Sinclair

Shai Guday

William Jefferson Westerinen

Alexander Frank

Miller Thomas Abel

Jeffrey Darren Couckuyt

Shalendra Chhabra

Tolga Kilicli

Steven L Soden

Disclosed in some examples are devices, methods, systems, and machine-readable mediums for enhanced meeting room solutions to provide increased inclusiveness for both remote and in-room participants for network-based communication sessions, such as hybrid network-based communication sessions. Content of a first type is placed in a location exclusive of a discontinuity in a display device and content of a second type is placed in a location inclusive of the discontinuity of the display device.

Intelligent content display for network-based communications

An application with self-configuring accessibility settings is described. The application is configured to interact with an operating system of a computing device upon which the application is executing to obtain information relating to one or more user-configurable accessibility settings of the operating system. Such interaction may occur via an application programming interface exposed by the operating system. Based on the information obtained from the operating system, the application then determines one or more accessibility settings of the application, which may include identifying the one or more accessibility settings of the application based on a correspondence to the one or more accessibility settings of the operating system. The application then applies the one or more application accessibility settings either automatically or after obtaining user approval.

Application with self-configuring accessibility settings

Personalization data such as settings and/or state is migrated across devices including mobile phones. Device personalizations are pushed to a cloud service or other mechanism for backup and subsequent transmission to other devices. The personalization data can later be employed to configure one or more other devices in the same manner as a first device.

Device migration

In one or more embodiments, when an online meeting is being organized, the number of invitees is monitored. Based on the number of invitees, the meeting organizer is automatically prompted to alter the meeting type.

Changing meeting type depending on audience size

A method and apparatus is provided for collecting data and generating synthesized data from the collected data. For example, a request for an image may be received from a requestor and at least one data capture device may be identified as capable of providing at least a portion of the requested image. A request may be sent to identified data capture devices to obtain an image corresponding to the requested image. Multiple images may be received from the data capture devices and may further be connected or stitched together to provide a panoramic, 3-dimensional image of requested subject matter.

Swarm imaging

A system that facilitates different levels of operating system (OS) boot so as to provide users with rapid access to certain mobile device functionalities, security, applications, etc. is provided. An OS can be loaded in phases or stages commensurate with policies, preferences, actions, context, etc. Similarly, a particular OS or group of OSs can be loaded to address a particular scenario or requirement.

Multi-OS (operating system) boot via mobile device

A method and apparatus is provided for generating an index and creating a network of devices based on the index. Information and data may be provided via the network. In one example, a request may be received from a user at a service. The service may maintain an index containing characteristics of devices. Any number or type of devices may be selected to participate in the network. Also, the network may be subsequently modified by the addition or removal of any device from the network. Information or data received from the network devices may be returned to the user requesting the information via the service.

Control of sensor networks

The present invention relates to a system and methodology to enable a plurality of information associated with electronic messages to be automatically prioritized by a message urgency system for transmittal to a user or system. The message urgency system can employ classifiers that can be explicitly and/or implicitly trained to prioritize or triage one or more received messages according to a learned importance to the user. An adaptable and configurable graphical user interface is provided in order to manage the prioritized information. The interface facilitates system personalization according to user desires of how messages are received and subsequently processed by the user. Display and input adjustments are provided in a plurality of selectable pages to enable the personalization of the system. Display options include status and summary views of various configuration and adjustment options that alter the characteristics of how messages are presented to the user. Configuration and adjustment options include profile options, routing options, alerting options, chunking options, schedule options, and other context-sensitive control options, one or more rules that act in conjunction with a routing system, learning status and configuration options for guiding and inspecting the state of learning of the message urgency system along with device option configurations for controlling messages output to a selected message reception and display device.

Controls and displays for acquiring preferences, inspecting behavior, and guiding the learning and decision policies of an adaptive communications prioritization and routing system

A navigation system and method for resolving discrepancies between a reported position and route data is presented. Based on a reported position, the navigation system identifies prospective road segments within a radius of the reported position. For each road segment, the navigation system generates a series of scores according to various attributes, including the current heading, current speed, proximity of reported location to the prospective road, and the like. Historical scores are also generated based on historical information, i.e., previous navigation device locations. Scores are normalized such that they can be compared, and optionally weighted according to particular implementation details. After scores have been generated for each prospective road, the prospective road, and its determined location, with the best score is selected as the resolved, actual location.

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Kirkland, WA, United States of America

Gregory P Baribault