Abstract: A process and computer program product to record performance related data for a plurality of entertainment performances having a plurality of audiences. Further, the process and computer program product determine external data that is associated with the plurality of audiences and/or environmental factors corresponding to locations of the plurality of entertainment performances. In addition, the process and computer program product annotate the performance related data with the external data to generate annotated performance related data. The process and computer program product also train an artificial intelligence system based upon the annotated performance related data. The process and computer program product generate, at the artificial intelligence performance instructions to provide a performance. Further, the process and computer program product provide, from the artificial intelligence system to a performance device, the performance instructions to provide a performance.

Abstract: There is provided a method for use by a system including a hardware processor and a memory storing a three-dimensional (3D) character data having a topology mesh describing a character. The method includes stabilizing the 3D character data by removing a translational motion and a rotational motion from the 3D character data, determining a range of motion of a plurality of points of the topology mesh describing the character, identifying a plurality of poses for generating an animation, where each of the plurality of poses includes a unique configuration of the plurality of points of the topology mesh, and creating an animatronic including a plurality of actuators configured to instantiate the plurality of poses for generating the animation.

Abstract: There is provided a method for use by a system including a hardware processor and a memory storing a three-dimensional (3D) character data having a topology mesh describing a character. The method includes stabilizing the 3D character data by removing a translational motion and a rotational motion from the 3D character data, determining a range of motion of a plurality of points of the topology mesh describing the character, identifying a plurality of poses for generating an animation, where each of the plurality of poses includes a unique configuration of the plurality of points of the topology mesh, and creating an animatronic including a plurality of actuators configured to instantiate the plurality of poses for generating the animation.

Abstract: A process and computer program product to record performance related data for a plurality of entertainment performances having a plurality of audiences. Further, the process and computer program product determine external data that is associated with the plurality of audiences and/or environmental factors corresponding to locations of the plurality of entertainment performances. In addition, the process and computer program product annotate the performance related data with the external data to generate annotated performance related data. The process and computer program product also train an artificial intelligence system based upon the annotated performance related data. The process and computer program product generate, at the artificial intelligence performance instructions to provide a performance. Further, the process and computer program product provide, from the artificial intelligence system to a performance device, the performance instructions to provide a performance.

Abstract: A user obtains, views and stores image data of a selected celestial object from a network of available telescopes using a computer-generated user interface. Based on the selected object, information is accessed regarding each telescope from data sources such as databases and/or live data feeds to automatically select telescopes that are suitable for imaging the object, e.g., according to factors such as telescope type, power and configuration, location, weather conditions, visibility, and altitude. The user may select a particular telescope and imaging time from a schedule of available telescopes and imaging times. At the scheduled time, an image is recorded of the celestial object and communicated to a central data store for access by the user, e.g., via a web site.

Abstract: A user obtains, views and stores image data of a selected celestial object from a network of available telescopes using a computer-generated user interface. Based on the selected object, information is accessed regarding each telescope from data sources such as databases and/or live data feeds to automatically select telescopes that are suitable for imaging the object, e.g., according to factors such as telescope type, power and configuration, location, weather conditions and altitude. The user may select a particular telescope and imaging time from a schedule of available telescopes and imaging times. At the scheduled time, an image is recorded of the celestial object and communicated to a central data store for access by the user, e.g., via a web site The user may be charged for the service based on factors such as exposure time, scheduling priority, type of telescope and the like.

Abstract: A user obtains, views and stores image data of a selected celestial object from a network of available telescopes using a computer-generated user interface. Based on the selected object, information is accessed regarding each telescope from data sources such as databases and/or live data feeds to automatically select telescopes that are suitable for imaging the object, e.g., according to factors such as telescope type, power and configuration, location, weather conditions and altitude. The user may select a particular telescope and imaging time from a schedule of available telescopes and imaging times. At the scheduled time, an image is recorded of the celestial object and communicated to a central data store for access by the user, e.g., via a web site The user may be charged for the service based on factors such as exposure time, scheduling priority, type of telescope and the like.

Abstract: Embodiments of the invention relate to systems and methods for multi-player gaming. Some embodiments relate to systems having an improved communications infrastructure and improved handheld game controllers, while other embodiments relate to improvements in handling large numbers of players in the multi-player game when played in a game arena with a single large display screen showing the multi-player game images. In one particular embodiment, a bingo system is provided that has a game server controlling a display system to display the multi-player bingo game on the large screen and a plurality of bingo game controllers. Each game controller has a secondary display means for providing a secondary bingo game display and input means for receiving player input. The system further comprises communication means for enabling communication between the game server and each of the plurality of game controllers.

Abstract: Embodiments of the invention relate to systems and methods for multi-player gaming. Some embodiments relate to systems having an improved communications infrastructure and improved handheld game controllers, while other embodiments relate to improvements in handling large numbers of players in the multi-player game when played in a game arena with a single large display screen showing the multi-player game images. In one particular embodiment, a bingo system is provided that has a game server controlling a display system to display the multi-player bingo game on the large screen and a plurality of bingo game controllers. Each game controller has a secondary display means for providing a secondary bingo game display and input means for receiving player input. The system further comprises communication mans for enabling communication between the game server and each of the plurality of game controllers.

Abstract: Embodiments of the invention relate to systems and methods for multi-player gaming. Some embodiments relate to systems having an improved communications infrastructure and improved handheld game controllers, while other embodiments relate to improvements in handling large numbers of players in the multi-player game when played in a game arena with a single large display screen showing the multi-player game images. In one particular embodiment, a system is provided that has a game server controlling a display system to display the multi-player game on the large screen and a plurality of game controllers. Each game controller has a secondary display means for providing a secondary game display and input means for receiving player input. The system further comprises communication mans for enabling communication between the game server and each of the plurality of game controllers.

Abstract: A user obtains, views and stores image data of a selected celestial object from a network of available telescopes using a computer-generated user interface. Based on the selected object, information is accessed regarding each telescope from data sources such as databases and/or live data feeds to automatically select telescopes that are suitable for imaging the object, e.g., according to factors such as telescope type, power and configuration, location, weather conditions and altitude. The user may select a particular telescope and imaging time from a schedule of available telescopes and imaging times. At the scheduled time, an image is recorded of the celestial object and communicated to a central data store for access by the user, e.g., via a web site The user may be charged for the service based on factors such as exposure time, scheduling priority, type of telescope and the like.