Microsoft Technology Licensing, LLC

Karim Audrey Luccin

Jonathan Gustav Paulovich

Jedd Chevrier

Jeffrey Jesus Evertt

John Copic

Eric Scott Rehmeyer

David Anthony Evans

Tong Chen

Morien Thomas

Matthew Jon Paul

Jason Bradley Scott

Ryan Lucas Hastings

Jeffrey Alan Kohler

Sergio Paolantonio

Jessica Ellen Zahn

Marcus Philip Ghaly

Michael Jordon Felice

Brian Zhian Bassir

Haley Nicole Eisenshtadt

David Evans

The techniques introduced here enable a display system, such as an HMD device, to generate and display to a user a holographic structure matching a real-world structure. In some embodiments vertices, edges and planes of the holographic schematics are generated via the use of a peripheral tool that is positioned by a user. In other embodiments, other user input indicates the bounds of the holographic schematic. In response to user action, a holographic schematic is made to appear including corresponding real-world size measurements. The corresponding measurements are used to develop a holographic structure that integrates with the holographic schematic.

Mixed reality measurement with peripheral tool

Methods, computing devices and display devices are disclosed for displaying virtual content at a target location that is determined relative to a shared anchor. Image data of a physical environment may be captured. A shared anchor tag may be identified in the image data. Based on identifying the shared anchor tag, shared anchor tag image data may be transmitted to a server. Based at least on data retrieved by the server, a data packet comprising a shared anchor associated with a second display device is received, wherein the shared anchor defines a three-dimensional location in the physical environment. A hologram is displayed at a target location determined relative to the location of the shared anchor.

Virtual content displayed with shared anchor

Techniques are disclosed for enabling scaling graphical elements defined based on one or more mathematical functions, while retaining certain features of the graphical elements. In various embodiments an example method may include defining a shape relative to a primitive object based on one or more functions, the shape including a feature based on a configurable parameter associated with the one or more functions. An image of the shape is then rendered and displayed via a display device. The example method continues with receiving an input indicative of a request to scale the shape. In response to receiving the input, the rendering and display of the image of the shape is dynamically updated by scaling the primitive object based on the input, wherein scaling the primitive object scales the shape, but retains a scale of the feature as set by the configurable parameter.

Scaling and feature retention in graphical elements defined based on functions

Techniques are disclosed for producing an anti-aliasing effect in the rendering of graphical elements defined based on one or more mathematical functions. In various embodiments an example method may include defining a shape based on one or more functions. A view of the shape is then rendered which includes generating a plurality of fragments corresponding to pixels in a display device through which the view will be displayed. Transparency values are set for fragments corresponding to a boundary of the shape based on the one or more functions defining the shape. The transparency values set for the fragments corresponding to the boundary of the shape result in an anti-aliasing effect when the view of the shape is displayed via the display device.

Anti-aliasing of graphical elements defined based on functions

Technology is proposed to enable navigating a holographic image. A moving object, such as a hand, is tracked and a gesture is recognized. In response to recognizing the gesture, a virtual shape is created at the location of the recognized gesture. The shape has at least one dimension. The holographic image is moved based on current position of the moving object with respect to the virtual shape.

Navigating a holographic image

A technique is described herein for determining the position of at least one previously-placed physical marker in a physical environment. In one approach, the technique detects the marker at plural vantage points in the environment, to yield plural instances of marker information. The technique then computes the position of the marker based on the plural instances of marker information collected at the plural vantage points. The technique may also provide a movement indicator that assists the user in moving to specified vantage points in the physical environment. The technique may use the identified position(s) of the marker(s) to accurately place virtual objects relative to real-world objects in a modified-reality world.

Identifying a position of a marker in an environment

According to one aspect of the present disclosure, a server is provided, comprising a processor configured to produce a combined frame from two or more video streams. The combined frame may include two or more panels, wherein each panel includes one of the two or more video streams. The combined frame may further include panel metadata indicating a set of coordinates for each panel. The coordinates of each panel may indicate a height, width, and position of that panel. The combined frame may further include at least one delimiter region of pixels formed between the panels. The processor may be further configured to transmit the combined frame over a network for output on a display device.

Video stream delimiter for combined frame

To apply an edge effect to a 3D virtual object, a display system receives user input indicative of a desired display region of a 3D virtual object, defines a bounding volume corresponding to the desired display region, and clips the edges of the 3D virtual object to the surfaces of the bounding volume. The display system applies a visual edge effect to one or more of the clipped edges of the 3D virtual object, and displays to the user of the 3D virtual object with the visual edge effect. The technique can include selectively discarding pixels along a surface of the bounding volume, based on a depth map indicative of height values of the 3D virtual object at different horizontal pixel coordinates where the visual edge effect is applied only for edge pixels not discarded.

Application of edge effects to 3D virtual objects

Examples are disclosed herein that relate to constraining communication among HMD devices. One example provides a computing system comprising a logic machine and a storage machine holding instructions. The instructions are executable to receive, for each of a plurality of head-mounted display devices, vantage point data, determine, for each of the plurality of head-mounted display devices, whether one or more other head-mounted display devices are within a vantage point scope of that head-mounted display device, the vantage point scope being based on the vantage point data of that head-mounted display device, and constrain, for each of one or more head-mounted display devices, delivery of communication data from that head-mounted display device to one or more of the plurality of head-mounted display devices, such constraint based on whether that head-mounted display device is within the vantage point scope of one or more of the plurality of head-mounted display devices.

Growing community of inventors

Redmond, WA, United States of America

Karim Audrey Luccin