Disney Enterprises, Inc.

Joseph George Hager, Iv

Jonathan Michael Becker

Kenneth John Mitchell

Corey D Drake

Alexis Paul Wieland

Rachel E Rodgers

Michael Richard Honeck

Jeremy Andrew Mika

Leslie Margaret Evans

Siroberto Scerbo

Kyna P McIntosh

Clare M Carroll

Ye Pan

Nicholas S Newberg

Lanny Starkes Smoot

Michael John Ilardi

William Bennett Hogue, Jr

Dawson McLeod Dill

Loyal J Pyczynski

Frank D Mezzatesta, Iii

Luke Andrew Sciaraffa

Systems and methods are presented for immersive and simultaneous animation in a mixed reality environment. Techniques disclosed represent a physical object, present at a scene, in a 3D space of a virtual environment associated with the scene. A virtual element is posed relative to the representation of the physical object in the virtual environment. The virtual element is displayed to users from a perspective of each user in the virtual environment. Responsive to an interaction of one user with the virtual element, an edit command is generated and the pose of the virtual element is adjusted in the virtual environment according to the edit command. The display of the virtual element to the users is then updated according to the adjusted pose. When simultaneous and conflicting edit commands are generated by collaborating users, policies to reconcile the conflicting edit commands are disclosed.

Augmenting a physical object with virtual components

The present disclosure relates generally to systems and methods for creating a mixed reality environment. A mixed reality system includes a performance area for generating a mixed reality environment, a motion determination module that determines and tracks the motion of an object within the performance area, a physical article module that generates a physical article within the performance area, and a mixed reality display that displays a virtual article within the performance area, wherein the physical article and the virtual article are correlated to the motion of the object.

Real-time projection in a mixed reality environment

A system for use in a park attraction to provide collaborative driving experiences. The system includes a vehicle including a body with passenger seats, including a user input assembly proximate to each of the passenger seats, and further including a holonomic drive system adapted to move the body in any direction while riding on a driving surface of the park attraction. The system also includes a system controller (running an attraction/game control module) that operates to: (a) receive user input from each of the user input assemblies; (b) process the user input from each of the user input assemblies to generate a control vector associated with each of the user input assemblies; (c) combine the control vectors from all of the user input assemblies to generate a resultant vector; (d) generate a drive control signal from the resultant vector; and (e) transmit the drive control signal to the vehicle.

Park attraction with collaborative passenger control of holonomic vehicles

There are provided systems and methods for synchronizing effects for multi-user mixed reality experiences. In one implementation, such a system includes a computing platform having a hardware processor and a system memory storing a software code. The hardware processor executes the software code to receive sensor data from multiple sensors within a venue, identify an activity in the venue based on the sensor data, and track a respective perspective and a respective location within the venue of each of multiple observers of the activity. The hardware processor also executes the software code to identify a first effect triggered by an action of one of the observers, conform the first effect to the respective perspective and the respective location of each of the observers to produce multiple second effects corresponding to the first effect, and output the second effects for operating multiple actuating devices within the venue during the activity.

Synchronized effects for multi-user mixed reality experiences

A system for improving navigation of robots in a space with a plurality of pedestrians or other movable objects or obstacles. The system includes a traffic analysis assembly that has a traffic sensor(s) sensing movement of the obstacles in the space. The traffic analysis assembly further includes a processor running a flow module that processes (such as the Gunnar-Farneback optical flow algorithm) output from the traffic sensor to generate traffic analysis results, which include density values for the obstacles in the space and motion information for the obstacles in the space (e.g., speed and direction). The system includes a robot with a controller running a navigation module selecting a navigation route between a current location of the robot and a target location in the space using the traffic analysis result. The workspace is configured such that the obstacles such as pedestrians have unregulated flow patterns in the space.

System for communicating and using traffic analysis in a space with moving obstacles

Robot navigation in context of obstacle traffic including movement of groups

An augmented reality (AR) system that enhances an AR participant's experience by providing a visual effect with added depth. The AR system displays previously achieved by an AR HMD are augmented with a second layer of accessible depth. This added depth is achieved by including, in the AR space/real world environment, external stereo screens upon which 3D stereo content is projected by one or more 3D projectors. The AR HMD is equipped with an external 3D screen viewing assembly so the AR HMD allows an AR participant wearing the AR HMD to view images on the external stereo screens in stereo. The external stereo screens can be used to produce 3D imagery that may differ in depth from the depth of the fixed focal length images displayed to the viewer by the AR HMD. The AR system enlarges the AR participant's simultaneous angular viewing range to 55 to 160 degrees.

Augmented reality system for layering depth on head-mounted displays using external stereo screens

Aspects described herein include a user display unit that determines a portion of a presentation currently being viewed by a user through a transparent display. For example, if the display area is a theater screen, only a portion of the screen may be viewable to the user through the transparent display. The display unit may display metadata on the transparent display with a spatial relationship to one or more objects in the presentation. For example, the display unit may output a text bubble near an actor in the presentation that provides an interesting fact about the actor which may overlay or occlude the presentation. In one aspect, if the object in the presentation moves or the display unit is reoriented, the display unit may move the metadata to maintain the spatial relationship between the object and the metadata in the transparent display.

Displaying custom positioned overlays to a viewer

Growing community of inventors

Valencia, CA, United States of America

Joseph George Hager, Iv