Disney Enterprises, Inc.

Hunter J Gibson

Michael Paul Goslin

Nathan D Nocon

Jason A Yeung

Janice K Rosenthal

Elliott H Baumbach

Timothy M Panec

Clifford W Wong

Corey D Drake

Eric Charles Haseltine

Stephen A Thornton

Raymond J Scanlon

Tritia V Medrano

Dawson McLeod Dill

R Hunter Gough

Maxwell McCoy

Jerry W Rees

Tri Desa

Christopher Painter

Brittany Bruegel

Embodiments provide interactive artificial intelligence. Input to an artificial intelligence (AI) system is received, where the AI system comprises a plurality of machine learning (ML) models. A context of the input is determined, where the context indicates a role-playing scenario. A first ML model of the plurality of ML models is then selected based on the determined context, where the first ML model was trained based at least in part on the role-playing scenario. Output is generated by processing the input using the first ML model. The output is then returned.

Artificial intelligence-based roleplaying experiences based on user-selected scenarios

A playset comprises a plurality of hotspots positioned within a plurality of scenes. A switching mechanism is configured to selectively couple to the each of the plurality of hotspots and is communicatively coupled with a controller. The controller is configured to establish communication with a first object using a first hotspot and determine an object type of the first object and a location of the first object within the playset. The location of the first object corresponds to a scene that contains the first hotspot. The controller is further configured to select an interactive media based on the object type and the location of the first object, select a first media file based on the selected interactive media, and instruct the first media file to be output on an output device.

Dynamic interactive media for a playset

A method for interacting with a playset comprises acquiring, using a sensor on a mobile device, data corresponding to the playset, and selecting a virtual presentation to display on the mobile device based on the data. The method further comprises displaying, on the display, the virtual presentation while the mobile device is mounted with the playset. The virtual presentation comprises virtual content corresponding to at least one of an interior of the playset and a first physical object.

Virtual presentation of a playset

A playset comprises a near field communication extending system. The near field communication extending comprises a main antenna and a plurality of extending antennas. The main antenna is positioned at a first location of the playset and configured to wirelessly communicate to a near field communication device of a mobile device. The plurality of extending antennas is positioned at a plurality of different locations in an interior of the playset. Each of the plurality of extending antennas is connectable to the main antenna via a plurality of connection elements. The playset further comprises an antenna switching mechanism coupled to the plurality of extending antennas via a plurality of connection elements. The antenna switching mechanism is configured to switchably couple the main antenna with each of the plurality of extending antennas.

Near field communication antenna system for a playset

The systems and methods presented herein describe integrating artificial intelligence chatbots into a communication between real-world users. A context of a shared communication session between the real-world users may be determined. In response to a user selection, a contextually relevant communication may be presented in communication session. The contextually relevant communication may be responsive to the context of the communication session and/or may convey a persona of an entity, such as a movie character.

Systems, methods, and storage media configured to integrate artificial intelligence chatbots into a communication between real-world users

This disclosure presents systems and methods to provide wireless communication between computing platforms and wearable articles. Exemplary implementations may: obtain wireless communication signals from a first wearable article and detect presence of the first wearable article; obtain wireless communication signals from the first wearable article conveying article information identifying the first wearable article and/or a user; identify customizable attributes of one or more application programs; determine custom-defined values for the customizable attributes; effectuate the custom-defined values for the customizable attributes of one or more application programs such that the one or more application programs reflect the custom-defined values; and/or perform other operations.

Systems and methods to provide wireless communication between computing platforms and articles

Systems and methods to provide a game based on common media consumption are described herein. Exemplary implementations may: obtain sets of consumption information for users of a game; identify common media content that has been consumed by two or more users from the sets of consumption information for the two or more users; responsive to requests from users to play the game together, obtain game information that corresponds to the common media content; effectuate presentation of the game on computing platforms of the users based on the game information; and/or perform other operations.

Systems and methods to provide a game based on common media consumption

This disclosure presents systems and methods to synchronize real-world motion of physical objects with presentation of virtual content. Individual physical objects may be detected and/or identified based on image information defining one or more images of a real-world environment. Individual network connections may be established between individual computing platforms and individual physical objects. A network connection may facilitate a synchronization of a presentation of virtual content on a computing platform with motion of one or more physical objects in the real-world environment.

Systems and methods to synchronize real-world motion of physical objects with presentation of virtual content

This disclosure presents systems and methods to provide a shared augmented reality experience across multiple presentation devices. A first presentation device may display an AR marker, and may use a map of the physical environment to correctly orient the AR marker with an orientation of an anchor object. A second presentation device may then scan the marker, which places the anchor object in the position and orientation in their perceived views of the virtual environment in accordance with the marker. Once the location of the anchor object is established, networking between the first and second devices can be used to place other virtual objects in the virtual environment.

Systems and methods to provide a shared interactive experience across multiple presentation devices

This disclosure relates to systems and methods to provide an interactive space based on vehicle-to-vehicle communications. A vehicle may store experience information and/or other information. The experience information may define virtual content to be presented to a user residing in the vehicle to create an interactive space. The virtual content may be associated with an experience location in a real-world environment. Responsive to a vehicle location of the vehicle being at or near the experience location, the user may be presented with views of the virtual content. The user may interact with the virtual content causing an update of the experience information. Upon detection of presence of a second vehicle, the vehicle may communicate the updated experience information to the second vehicle.

Systems and methods to provide an interactive space based on vehicle-to-vehicle communications

A system has an augmented reality device and an unmanned aerial vehicle. The augmented reality device captures, from a perspective view of the augmented reality device, real-world imagery of a user within an augmented reality environment. Further, the augmented reality device generates virtual imagery to overlay the real-world imagery captured by the augmented reality image capture device from the perspective view of the augmented reality device. Finally, the augmented reality device determines a position and an orientation of an augmented reality device accessory within a common coordinate space. Moreover, the unmanned aerial vehicle captures, from a perspective view of the unmanned aerial vehicle, real-world imagery of the user within the augmented reality environment. The unmanned aerial vehicle determines a position of the unmanned aerial vehicle within the common coordinate space. Further, the unmanned aerial vehicle generates virtual imagery to overlay the real-world imagery captured by the unmanned aerial vehicle.

Growing community of inventors

Burbank, CA, United States of America

Hunter J Gibson