Microsoft Technology Licensing, LLC

Megan Saunders

Dan Osborn

Forest Woodcroft Gouin

Shawn Crispin Wright

Joe Thompson

Scott Robert Ramsby

Alberto Cerriteno

Stephen G Latta

Anatolie Gavriliuc

Hongwu Huai

James Nakashima

Daniel Joseph McCulloch

Adam G Poulos

Wei Zhang

Tarek Hefny

Brian Kramp

Patrick C Ryan

Evan Lewis Jones

Aaron David Cottle

Bofan Hsu

Jesse Rapczak

Aaron Chandler Jeromin

Adam Christopher Heaney

Alberto E Cerriteno

A wearable, head-mounted display system includes a near-eye display to display an augmented reality object perceivable at an apparent real world depth and an apparent real world location by a wearer of the head-mounted display system, and a controller to adjust the apparent real world location of the augmented reality object as a function of a field of view (FOV) of the wearer. The function is based on a bounding region of the augmented reality object and one or more overlap parameters between the bounding region of the augmented reality object and the FOV of the wearer.

Augmented reality field of view object follower

A head mounted display device and method for contextual cursors comprising a camera configured to capture a series of images, a display, and a processor configured to: display, to a user of the head mounted display device, a virtual cursor on display so as to appear at a location in a three dimensional environment, determine whether motion of a hand of the user in the images is trackable, and in response to at least determining that motion of the hand is trackable, modify a visual appearance of the virtual cursor to indicate that motion of the hand is trackable, and in response to at least determining that motion of the hand is not trackable, modify the visual appearance of the virtual cursor to indicate that motion of the hand is not trackable.

Contextual cursor display based on hand tracking

A method to provide visual feedback for gazed-based user-interface navigation includes presenting, on a display, a first image representing a digital object available for user interaction, recognizing a user gaze axis, and computing a point of intersection of the user gaze axis through the first image. An offset distance between the point of intersection and a reference position of the first image then recognized, and a second image is presented on the display. The second image is presented displaced from the point of intersection by an amount dependent on the offset distance.

Gaze-actuated user interface with visual feedback

A conferencing system includes a display device that displays video received from a remote communication device of a communication partner. An audio stream is transmitted to the remote communication device. The audio stream includes real-world sounds produced by one or more real-world audio sources captured by a microphone array and virtual sounds produced by one or more virtual audio sources. A relative volume of sounds in the audio stream is selectively adjusted based, at least in part, on real-world positioning of corresponding audio sources, including real-world and/or virtualized audio sources.

Filtering sounds for conferencing applications

An example wearable display system includes a controller, a left display to display a left-eye augmented reality image with a left-eye display size at left-eye display coordinates, and a right display to display a right-eye augmented reality image with a right-eye display size at right-eye display coordinates, the left-eye and right-eye augmented reality images collectively forming an augmented reality object perceivable at an apparent real world depth by a wearer of the display system. The controller sets the left-eye display coordinates relative to the right-eye display coordinates as a function of the apparent real world depth of the augmented reality object. The function maintains an aspect of the left-eye and right-eye display sizes throughout a non-scaling range of apparent real world depths of the augmented reality object, and the function scales the left-eye and right-eye display sizes with changing apparent real world depth outside the non-scaling range.

Fixed size augmented reality objects

A method for operating a computing device is described herein. The method includes determining a user's gaze direction based on a gaze input, determining an intersection between the user's gaze direction and an identified environmental surface in a 3-dimensional environment, and generating a drawing surface based on the intersection within a user interface on a display.

System and method for spawning drawing surfaces

A head-mounted display includes a visible-light camera configured to collect a visible-light image of a physical space, a surface sensor configured to measure one or more surface parameters of the physical space, a see-through display configured to visually present an augmentation image while light from the physical space passes through the see-through display to a user eye, and an augmented-reality engine. The augmented-reality engine may be configured to identify a surface of the physical space from the one or more measured surface parameters, compose a mixed-reality image that includes the augmentation image overlaid on the visible-light image, and visually present, via the see-through display, the mixed-reality image in alignment with the identified surface.

Mixed-reality image capture

A conferencing system includes a near-eye display device that displays video received from a remote communication device of a communication partner. An audio stream is transmitted to the remote communication device. The audio stream includes real-world sounds produced by one or more real-world audio sources captured by a spatially-diverse microphone array and virtual sounds produced by one or more virtual audio sources. A relative volume of background sounds in the audio stream is selectively reduced based, at least in part, on real-world positioning of corresponding audio sources, including real-world and/or virtualized audio sources.

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Kirkland, WA, United States of America

Megan Saunders