Microsoft Technology Licensing, LLC

Andrew Frederick Muehlhausen

Adolfo Hernandez Santisteban

Robert Thomas Held

Anatolie Gavriliuc

Riccardo Giraldi

Aaron Daniel Krauss

Jeffrey Sipko

Maxime Ouellet

Arthur Charles Tomlin

Sergio Paolantonio

Semih Energin

Kendall Clark York

Christian Michael Sadak

Michelle Chua

Eric Scott Rehmeyer

David Anthony Evans

Priya Ganadas

Joseph Van Den Heuvel

Matthew Lee Johnston

Kasson Crooker

Szymon Piotr Stachniak

Donna Katherine Long

Gregory Alt

Todd Omotani

Richard Wifall

Ishac Bertran

David Evans

Richard J Wifall

Todd Alan Omotani

A wearable spatial audio device is provided. The wearable spatial audio device includes one or more audio speakers, one or more processors, and a storage machine holding instructions executable by the one or more processors. Map data is obtained for a real-world environment that includes one or more dynamic audio objects. A device-specific subset of audio tracks is obtained, and a device-specific spatialized audio mix of the device-specific subset of audio tracks that is based on the map data is obtained. An indication of a change in an environmental condition relative to one or more of the dynamic audio objects is received. The device-specific spatialized audio mix is adjusted based on the change in the environmental condition.

Environmental condition based spatial audio presentation

Methods and devices for creating a sound log of activities may include receiving a detected sound from at least one sensor on a computer device. The methods and devices may include comparing the detected sound to a plurality of audio patterns stored in a sound database. The methods and devices may include identifying a sound event for the detected sound based at least upon the comparison of the detected sound to the plurality of audio patterns. The methods and devices may include identifying context information that provides a context for the sound event. The methods and devices may include updating a sound log with the sound event and the context information.

Remembering audio traces of physical actions

Examples are disclosed relating to providing spatialized audio to multiple users. In one example, a computing device presents spatialized audio to multiple users within an environment via communicative connection to one or more wearable spatial audio output devices. For each communicatively connected wearable spatial audio output device, a user-specific subset of audio tracks is generated from a set of audio tracks for a dynamic audio object positioned within the environment based on one or more user-specific parameters. A location of the wearable spatial audio output device is determined relative to the dynamic audio object, and based upon this location, a device-specific spatialized audio mix is generated that includes the user-specific subset of audio tracks. The device-specific spatialized audio mixes are sent to the wearable spatial output devices, and playback of the device-specific spatialized audio mixes are synchronously initiated at each wearable spatial audio output device.

Synchronized spatial audio presentation

The disclosed technology provides multi-dimensional audio output by providing a relative physical location of an audio transmitting device relative to an audio outputting device in a shared map of physical space shared between the audio transmitting device and the audio outputting device. An orientation of the audio outputting device relative to the audio transmitting device is determined and an audio signal received from the audio transmitting device via a communication network is processed using the determined orientation of the audio outputting device relative to the audio transmitting device and the relative physical location of the audio transmitting device to create an augmented audio signal. The augmented audio signal is output through at least one audio output on the audio outputting device in a manner indicating a relative physical direction of the audio transmitting device to the audio outputting device in the shared map of the physical space.

Remote multi-dimensional audio

A method for moving a virtual object includes displaying a virtual object and moving the virtual object based on a user input. Based on the user input attempting to move the virtual object in violation of an obstacle, displaying a collision indicator and an input indicator. The collision indicator is moved based on user input and movement constraints imposed by the obstacle. The input indicator is moved based on user input without movement constraints imposed by the obstacle.

Virtual object movement

Examples are disclosed herein that relate to calibrating a user's eye for a stereoscopic display. One example provides, on a head-mounted display device including a see-through display, a method of calibrating a stereoscopic display for a user's eyes, the method including for a first eye, receiving an indication of alignment of a user-controlled object with a first eye reference object viewable via the head-mounted display device from a perspective of the first eye, determining a first ray intersecting the user-controlled object and the first eye reference object from the perspective of the first eye, and determining a position of the first eye based on the first ray. The method further includes repeating such steps for a second eye, determining a position of the second eye based on a second ray, and calibrating the stereoscopic display based on the position of the first eye and the position of the second eye.

Calibrating a near-eye display

A technique is described herein for presenting notifications associated with applications in a context-based manner. In one implementation, the technique maintains a data store that provides application annotation information that describes a plurality of anchors. For instance, the application annotation information for an illustrative anchor identifies: a location at which the anchor is virtually placed in an interactive world; an application associated with the anchor; and triggering information that describes a set of one or more triggering conditions to be satisfied to enable presentation of a notification pertaining to the application. In use, the technique presents the notification pertaining to the application in prescribed proximity to the anchor when it is determined that the user's engagement with the interactive world satisfies the anchor's set of triggering conditions. The triggering conditions can specify any combination of spatial factors, temporal factors, user co-presence factors, etc.

Context-based discovery of applications

A mobile computing device including a housing having a first part and a second part, the first part including a first display and a first forward facing camera, and the second part including a second display and a second forward facing camera, at least one speaker mounted in the housing, and a processor mounted in the housing and configured to display a first graphical user interface element having an associated first audio stream on the first display and to display a second graphical user interface element having an associated second audio stream on the second display, wherein the processor is configured to perform face detection on a first and a second image, adjust an audio setting based on a result of the face detection, and play the first and second audio streams out of the at least one speaker based on the adjusted audio setting.

Volume adjustment on hinged multi-screen device

An electronic device includes memory associating a control action with a defined region on an external surface of the electronic device. A localized haptic feedback response is provided responsive to detection of initial touch input within the defined region, and the control action is executed responsive to detection of a touch direction performed in association with the defined region following the detection of the touch input.

Haptics to identify button regions

A computer system is provided that includes one or more processors configured to receive a stream of data from a plurality of network connected devices configured to measure physical parameters, and store a user profile including user settings for a plurality of notification subscriptions associated with physical parameters measured by the plurality of network connected devices. Each notification subscription includes programming logic for a trigger condition for a candidate notification based on measured physical parameters and an associated component sound for the candidate notification. The one or more processors are further configured to determine that trigger conditions for a plurality of candidate notifications are met based on the received stream of data, and generate a composite sound output including a plurality of component sounds associated with the plurality of notifications rendered.

Composite sound output for network connected devices

An augmented reality head-mounted device includes a gaze detector, a camera, and a communication interface. The gaze detector determines a gaze vector of an eye of a wearer of the augmented reality head-mounted device. The camera images a physical space including a display of a computing device. The communication interface sends a control signal to the computing device in response to a wearer input. The control signal indicates a location at which the gaze vector intersects the display and useable by the computing device to adjust operation of the computing device.

Augmented reality control of computing device

A visualization system with audio capability includes one or more display devices, one or more microphones, one or more speakers, and audio processing circuitry. While a display device displays an image to a user, a microphone inputs an utterance of the user, or a sound from the user's environment, and provides it to the audio processing circuitry. The audio processing circuitry processes the utterance (or other sound) in real-time to add an audio effect associated with the image to increase realism, and outputs the processed utterance (or other sound) to the user via the speaker in real-time, with very low latency.

Growing community of inventors

Seattle, WA, United States of America

Andrew Frederick Muehlhausen