An attraction system includes a first level, a second level positioned vertically above or below the first level, and one or more controllers configured to present a game environment to one or more riders in a ride vehicle as the ride vehicle travels along a path on the first level. The attraction system also includes a lift configured to move the ride vehicle vertically from the first level to the second level based at least in part on a performance of the one or more riders in the game environment.

An attraction system includes a first level, a second level positioned vertically above or below the first level, and one or more controllers configured to present a game environment to one or more riders in a ride vehicle as the ride vehicle travels along a path on the first level. The attraction system also includes a lift configured to move the ride vehicle vertically from the first level to the second level based at least in part on a performance of the one or more riders in the game environment.

A track for a roller coaster is provided. The track includes a plurality of layers that are each constructed from a plurality of layer segments prefabricated with an automated precision cutting device.

A track for a roller coaster is provided. The track includes a plurality of layers that are each constructed from a plurality of layer segments prefabricated with an automated precision cutting device.

An entertainment structure includes an offset core, a floor tying assembly and a plurality of floor plate assemblies. The plurality of floor plate assemblies each include a first edge and a second edge. The first edge of each of the plurality of floor plate assemblies is configured to be coupled to the offset core and the second edge of each of the plurality of floor plate assemblies is configured to be coupled to the floor tying assembly.

A ride system includes a tunnel, a vehicle ride path, a ride vehicle, and a projection system. The tunnel includes a first end and a second end and is curved between the first and second ends. The vehicle ride path extends within the tunnel from an entrance at the first end of the tunnel to an intermediate position within the tunnel. The second end of the tunnel is not visible from the intermediate position. The ride vehicle travels along the vehicle ride path and decelerates as the ride vehicle approaches the intermediate position. The projection system projects images onto one or more walls of the tunnel, such that the images are synchronized with the deceleration of the ride vehicle and a perceived speed of the ride vehicle, as perceived by a guest in the ride vehicle, exceeds an actual speed of the ride vehicle.

A ride system includes a tunnel, a vehicle ride path, a ride vehicle, and a projection system. The tunnel includes a first end and a second end and is curved between the first and second ends. The vehicle ride path extends within the tunnel from an entrance at the first end of the tunnel to an intermediate position within the tunnel. The second end of the tunnel is not visible from the intermediate position. The ride vehicle travels along the vehicle ride path and decelerates as the ride vehicle approaches the intermediate position. The projection system projects images onto one or more walls of the tunnel, such that the images are synchronized with the deceleration of the ride vehicle and a perceived speed of the ride vehicle, as perceived by a guest in the ride vehicle, exceeds an actual speed of the ride vehicle.

Systems and methods are disclosed that provide directional speakers and haptic devices for each guest of a ride vehicle. A controller may receive a vehicle location, seat location data, input audio data, and input haptic data. The seat location data may include a guest's seat location in the ride vehicle and/or the guest's preferences (e.g., a preferred language, volume preferences, or content rating preference). The controller may generate different audio output signals corresponding to different guests based on the input audio data, the vehicle location, and/or the seat location data, and generate different haptic output signals corresponding to different guests based on the input haptic data, the vehicle location, and/or the seat location data. The controller may then instruct directional speaker directed at the seat locations of the different guests to output the different audio output signals and instruct haptic devices directed at the seat locations to output the different haptic output signals.

Systems and methods are disclosed that provide directional speakers and haptic devices for each guest of a ride vehicle. A controller may receive a vehicle location, seat location data, input audio data, and input haptic data. The seat location data may include a guest's seat location in the ride vehicle and/or the guest's preferences (e.g., a preferred language, volume preferences, or content rating preference). The controller may generate different audio output signals corresponding to different guests based on the input audio data, the vehicle location, and/or the seat location data, and generate different haptic output signals corresponding to different guests based on the input haptic data, the vehicle location, and/or the seat location data. The controller may then instruct directional speaker directed at the seat locations of the different guests to output the different audio output signals and instruct haptic devices directed at the seat locations to output the different haptic output signals.

Provided herein is a conveyor ride system that includes a conveyor structure having a plurality of conveyor beams and a plurality of conveyor grooves. The plurality of conveyor beams and the plurality of conveyor grooves are configured to direct a ride vehicle along a surface of the conveyor structure. The surface of the conveyor structure defines at least a portion of a ride path of the conveyor ride system.