Microsoft Technology Licensing, LLC

Bryant Daniel Hawthorne

Christian Michael Sadak

Donna Katherine Long

Kenneth Liam Kiemele

Adolfo Hernandez Santisteban

John Benjamin Hesketh

Andrew Austin Jackson

Mario Emmanuel Maltezos

Jeffrey Sipko

Kendall Clark York

Stephen G Latta

Janet Lynn Schneider

Aaron Burns

Jamie R Cabaccang

Charlene Mary Jeune

Matthew Steven Johnson

Anthony Ernst

Alexandre Da Veiga

Aaron Daniel Krauss

Michael Robert Thomas

Priya Ganadas

Evan Lewis Jones

Timothy David Kviz

Benjamin John Sugden

LaSean Tee Smith

Jennifer Jean Choi

Jeffrey R Sipko

A computer system is provided that includes a server configured to store a plurality of location accounts, each location account being associated with a physical space at a recorded geospatial location. The plurality of location accounts utilize shared data definitions of a physical space parameter. Each physical space is equipped with a corresponding on-premise sensor configured to detect measured values for the physical space parameter over time and send to the server a data stream indicating the measured values. The computer system further includes a network portal, via which an authorized user for a location account can selectively choose whether to share the measured values or a summary thereof with other location accounts via the network portal.

Sharing measured values of physical space parameters

A wearable device is configured with a one-dimensional depth sensor (e.g., a LIDAR system) that scans a physical environment, in which the wearable device and depth sensor generate a point cloud structure using scanned points of the physical environment to develop blueprints for a negative space of the environment. The negative space includes permanent structures (e.g., walls and floors), in which the blueprints distinguish permanent structures from temporary objects. The depth sensor is affixed in a static position on the wearable device and passively scans a room according to the gaze direction of the user. Over a period of days, weeks, months, or years the blueprint continues to supplement the point cloud structure and update points therein. Thus, as the user continues to navigate the physical environment, over time, the point cloud data structure develops an accurate blueprint of the environment.

Using a one-dimensional ray sensor to map an environment

Examples are disclosed herein that relate to receiving virtual reality input. An example provides a head-mounted display device comprising a sensor system, a display, a logic machine, and a storage machine holding instructions executable by the logic machine. The instructions are executable to execute a 3D virtual reality experience on the head-mounted display device, track, via the sensor system, a touch-sensitive input device, render, on the display, in a 3D location in the 3D virtual reality experience based on the tracking of the touch-sensitive input device, a user interface, receive, via a touch sensor of the touch-sensitive input device, a user input, and, in response to receiving the user input, control the 3D virtual reality experience to thereby vary visual content being rendered on the display.

Virtual reality input

Embodiments relate to enabling a user of data-sharing applications executing on a computing device to indirectly exchange objects between the applications by adding objects from the applications to a journal application that manages a display area. The objects are displayed in the display area. The journal application collects metadata related to the objects and automatically curates lists of the objects according to the metadata. Curation of a list may involve moving objects into a list, merging objects, creating new objects out of content of existing objects, grouping objects according to a commonality thereof, etc. Machine learning services may be invoked to acquire additional metadata about the objects and to make curation decisions.

Polymorphic smart context-aware lists

Examples are disclosed that relate to devices and methods for sharing geo-located information between different devices. In one example, a method comprises receiving the geo-located information from a first user device having a first data type compatible with a first output component of the device, receiving first sensor data from the first device, determining a location of the geo-located information within a coordinate system in a physical environment, determining that a second user device is located in the physical environment, determining that the second device does not comprise an output component that is compatible with the first data type, transforming the geo-located information into a second data type compatible with a second output component of the second device, determining that the second device is proximate to the location of the geo-located information, and sending the geo-located information to the second device for output by the second output component.

Sharing geo-located information

To address issues of capturing and processing images, a mobile computing device is provided. The mobile computing device may include a two-part housing coupled by a hinge, with first and second parts that include first and second displays, respectively. The hinge may permit the displays to rotate throughout a plurality of angular orientations. The mobile computing device may include one or more sensor devices, processor, first camera, and second camera mounted in the housing. The one or more sensor devices may be configured to measure the relative angular displacement of the housing, and the processor may be configured to process images captured by the first and second cameras according to a selected function based upon the relative angular displacement measured by the one or more sensor devices.

Image capture using a hinged device with multiple cameras

A mobile computing device is provided that comprises a housing having a first part and a second part coupled by a hinge, the first part including a first display and the second part including a second display, wherein the hinge is configured to permit the first and second displays to rotate between angular orientations from a face-to-face angular orientation to a back-to-back angular orientation. The mobile computing device further includes a camera mounted in the first part of the housing and configured to capture image data, the camera and the first display both facing a first direction, and a processor mounted in the housing. In the back-to-back angular orientation, the processor is configured to cause the second display to display the image data while simultaneously causing the first display to display the image data and secondary content.

Synchronized display on hinged multi-screen device

A hinged multi-screen computing device is provided that includes a processor, at least one speaker, two display devices connected by a hinge containing a hinge sensor, and a housing with two parts, each including a display device. At least one of the displays is configured to display GUI controls, one which adjusts a volume balance between a first and second GUI element displayed on each of the first and second displays, and another which adjusts overall volume.

Volume adjustment on hinged multi-screen device

A hinged multi-screen computing device is provided that includes a housing having first and second parts coupled by a hinge, each part including a display, a sensor mounted in the housing and configured to detect a hinge angle between the first and second parts, and processor configured to render and display a three-dimensional representation of a virtual object on the first display, the three-dimensional view of the virtual object being rendered based upon the detected hinge angle.

Manipulating virtual objects on hinged multi-screen device

A mobile computing device is provided that includes a processor, an accelerometer, and a housing with two parts, the first part including a first camera and a first display device, and the second part including a second camera and a second display device. When a predetermined trigger condition is satisfied, the processor is configured to cause the first and second display devices to each simultaneously display image data captured by the second camera, and image data received from a remote computing device.

Three-way video calling on hinged multi-screen device

A method to display a virtual object includes receiving virtual-object data representing a virtual object, a first rendering of the virtual object being displayed on a display screen during a first interval. The method also includes receiving display-screen data indicating a physical size, position, and orientation of the display screen, and receiving display-device data indicating a position and orientation of a near-eye display device. The method includes composing a second, 3D rendering of the virtual object based on the virtual-object data and on the relative position and orientation of the display screen versus the near-eye display device, as indicated by the display-screen and display-device data, and, displaying the second rendering binocularly on the near-eye display device during a subsequent second interval, such that the second rendering coincides with the first rendering in an augmented field of view of the user.

Growing community of inventors

Duvall, WA, United States of America

Bryant Daniel Hawthorne