Microsoft Technology Licensing, LLC

Other

Mylio, LLC

Samuel A Mann

Robert Matthew Craig

Joseph C Bertolami

John Allen Tardif

Michael Alan Dougherty

Matthew L Bronder

Jean-Pierre Duplessis

John Herbert Chiloyan

Scott Mail

Matthew William Lee

Kevin John Smith

Jacob Fleisher

Joseph Kagume Ngari

Michael Winser

David V Esposito

Marcus Rein Donner

Systems and methods to generate clusters of media objects (e.g., photos) that are associated with geolocation information (e.g., GPS data, folder name, file name, other metadata) and without geolocation information so that the media objects in a media library without geolocation information can be given location data in an automated user approved system. An approval system of visual overlays on a graphical user interface (GUI) lets users approve the proposed geolocation clusters and approve or reject the geolocation proposals individually or as a group. The resulting approved clusters may then be tagged with geolocation information (e.g., GPS coordinates, city, state, country) and may then be automatically organized in a number of ways, including but not limited to, by location, on a calendar, on a map, etc.

Systems and methods to autonomously add geolocation information to media objects

Systems and methods are disclosed for generating stereoscopic images for a user based on one or more images captured by one or more scene-facing cameras or detectors and the position of the user's eyes or other parts relative to a component of the system as determined from one or more images captured by one or more user-facing detectors. The image captured by the scene-facing detector is modified based on the user's eye or other position. The resulting image represents the scene as seen from the perspective of the eye of the user. The resulting image may be further modified by augmenting the image with additional images, graphics, or other data. Stereoscopic mechanisms may also be adjusted or configured based on the location or the user's eyes or other parts.

Systems and methods for generating stereoscopic images

Systems and methods for unifying coordinate systems in an augmented reality application or system are disclosed. User devices capture an image of a scene, and determine a location based on the scene image. The scene image may be compared to cartography data or images to determine the location. User devices may propose an origin and orientation or transformation data for a common coordinate system and exchange proposed coordinate system data to agree on a common coordinate system. User devices may also transmit location information to an augmented reality system that then determines an a common coordinate system and transmits coordinate system data such as transformation matrices to the user devices. Images presented to users may be adjusted based on user device locations relative to the coordinate system.

Systems and methods for unifying coordinate systems in augmented reality applications

Systems and methods are disclosed for generating an image for a user based on an image captured by a scene-facing camera or detector. The user's position relative to a component of the system is determined, and the image captured by the scene-facing detector is modified based on the user's position. The resulting image represents the scene as seen from the perspective of the user. The resulting image may be further modified by augmenting the image with additional images, graphics, or other data.

Dynamic perspective video window

A display screen magnifier is controllable by a user to magnify selected portions of a desktop including windows open on the screen. A moveable magnifier frame is provided, within which a magnified image is presented. The magnified image corresponds to screen content located within a magnification region underlying the magnifier frame, magnified to a set level of magnification. The magnifier is controllable through use of a user input device. At least one operational parameter of the magnifier can be adjusted, without interaction with on-screen objects and without taking focus away from the desktop or any windows open on the screen. In a particular embodiment of the invention, on-the-fly controllability of the magnifier includes its activation and deactivation, adjustment of the magnification level, and adjustment of the size of the magnifier frame.

Virtual magnifying glass with on-the fly control functionalities

A method and system for obtaining a network address stored in a peripheral device, and accessing a remote device at the network address to obtain information related to the peripheral device. When the peripheral device is connected to a host computer, the stored network address is read by the host computer. The network address is preferably determined by the host computer when a peripheral device, such as a USB device, is initially connected to the host device, or when the host device with a newly connected USB is energized. The network address is then used by the host device to communicate with a remote device so that information pertaining to the peripheral device, such as a device driver for the peripheral device, can be accessed by the host device at the remote device. In addition, the host device can download or automatically execute a program stored at the remote device, download and install an application program relating to use of the peripheral device, display a Web page that includes information pertinent to the peripheral device, download documentation for the peripheral device, access help information, download and install firmware into the peripheral device and/or access other material related to the peripheral device. Access of the remote device can be fully automated or can optionally be implemented only with the permission of the user.

Method and system to access software pertinent to an electronic peripheral device based on an address stored in a peripheral device

Growing community of inventors

Bellevue, WA, United States of America

Samuel A Mann