Abstract: Systems and methods for simulation of ambient light based on generated imagery are disclosed herein. Such a system can include a simulation sled, a simulation display that can display generated imagery viewable from the simulation sled, an ambient light simulator that can selectively illuminate portions of the simulation sled, and a processor. The simulation sled can include a plurality of user controls. The processor can: control the simulation display to generate imagery; identify an effect of the generated imagery on the simulation sled; and control the ambient light simulator to selectively illuminate at least portions of the simulation sled according to the identified effect of the simulated light source.

Abstract: Systems and methods for simulation of ambient light based on generated imagery are disclosed herein. Such a system can include a simulation sled, a simulation display that can display generated imagery viewable from the simulation sled, an ambient light simulator that can selectively illuminate portions of the simulation sled, and a processor. The simulation sled can include a plurality of user controls. The processor can: control the simulation display to generate imagery; identify an effect of the generated imagery on the simulation sled; and control the ambient light simulator to selectively illuminate at least portions of the simulation sled according to the identified effect of the simulated light source.

Abstract: Systems and methods for simulation of ambient light based on generated imagery are disclosed herein. Such a system can include a simulation sled, a simulation display that can display generated imagery viewable from the simulation sled, an ambient light simulator that can selectively illuminate portions of the simulation sled, and a processor. The simulation sled can include a plurality of user controls. The processor can: control the simulation display to generate imagery; identify an effect of the generated imagery on the simulation sled; and control the ambient light simulator to selectively illuminate at least portions of the simulation sled according to the identified effect of the simulated light source.

Abstract: Methods for dynamic show-length variation are disclosed herein. Such methods can include: a track extending from a starting position to a termination position; a first simulation vehicle that can move along the track from the starting position to the termination position; and a content presentation feature. Such methods can further include a processor. The processor can: determine a departure of the simulation vehicle from the starting position; provide content having a beginning, an end, and a plurality of scenes to the content presentation feature while the simulation vehicle is en route between the starting position and the termination position; and customize the length of the provided content so the content reaches the end as the simulation vehicle reaches the termination position.

Abstract: An ice display device includes a chill tube and a piston that slides within the chill tube providing a fluidtight seal against the interior. The tube is filled with water and cooled to form an ice column. A shutter may selectively close the upper end of the chill tube with a fluidtight seal while the ice column is formed. The tube is warmed and the piston is lifted to an upper end of the tube to display the ice column. A plurality of water nozzles may selectively discharge streams of high pressure water inwardly to sculpt the ice column. An armature may extend upwardly from the piston to support and cool an interior of the ice column. The tube and armature may be cooled and warmed by a thermal transfer fluid. A device may be provided to induce turbulence in the thermal transfer fluid.

Abstract: An ice display device includes a chill tube and a piston that slides within the chill tube providing a fluidtight seal against the interior. The tube is filled with water and cooled to form an ice column. A shutter may selectively close the upper end of the chill tube with a fluidtight seal while the ice column is formed. The tube is warmed and the piston is lifted to an upper end of the tube to display the ice column. A plurality of water nozzles may selectively discharge streams of high pressure water inwardly to sculpt the ice column. An armature may extend upwardly from the piston to support and cool an interior of the ice column. The tube and armature may be cooled and warmed by a thermal transfer fluid. A device may be provided to induce turbulence in the thermal transfer fluid.