Abstract: A ride system includes a flume providing a flow path of a water ride and configured to accommodate a buoyant ride vehicle. The ride system also includes a support element extending into the flow path and at least partially submerged within the flow path. Moreover, the ride system includes a driving mechanism configured to actuate the support element such that the support element moves relative to the flow path in response to a control signal. The support element is configured to contact the buoyant ride vehicle to control movement of the buoyant ride vehicle along the flow path while the support element is being actuated. Further, the ride system includes a controller configured to generate the control signal based at least in part on a location of the buoyant ride vehicle in the flow path and a timer controlling activation of a show element.

Abstract: An amusement park system in accordance with present embodiments includes a ride vehicle configured to move along a path, an aquatic portion of the path defined by a water flow path, and an aerial portion of the path defined by a track configured to support a bogie. The ride vehicle is configured to freely float and move along the water flow path in response to currents of the water flow path. The ride vehicle is configured to be carried along the track by the bogie.

Abstract: A ride system includes a flume providing a flow path of a water ride and configured to accommodate a buoyant ride vehicle. The ride system also includes a support element extending into the flow path and at least partially submerged within the flow path. Moreover, the ride system includes a driving mechanism configured to actuate the support element such that the support element moves relative to the flow path in response to a control signal. The support element is configured to contact the buoyant ride vehicle to control movement of the buoyant ride vehicle along the flow path while the support element is being actuated. Further, the ride system includes a controller configured to generate the control signal based at least in part on a location of the buoyant ride vehicle in the flow path and a timer controlling activation of a show element.

Abstract: A ride system includes a flume providing a flow path of a water ride and configured to accommodate a buoyant ride vehicle. The ride system also includes a support element extending into the flow path and at least partially submerged within the flow path. Moreover, the ride system includes a driving mechanism configured to actuate the support element such that the support element moves relative to the flow path in response to a control signal. The support element is configured to contact the buoyant ride vehicle to control movement of the buoyant ride vehicle along the flow path while the support element is being actuated. Further, the ride system includes a controller configured to generate the control signal based at least in part on a location of the buoyant ride vehicle in the flow path and a timer controlling activation of a show element.

Abstract: Disclosed are methods and apparatuses for generating simulations on the fly using large historical data and forecast data. To improve system performance, the large historical data are processed in parallel.

Abstract: A ride vehicle for an amusement park includes a restraint system. The restraint system includes a first conformable component configured to be disposed over a first lower portion of a guest's body. The restraint system further includes a behind-the-knee component configured to be disposed behind a leg of the guest. The restraint system additionally includes a linkage mechanism configured to move the first conformable component, the behind-the-knee component, or a combination thereof, to secure the restraint system to the guest.

Abstract: A ride system includes a flume providing a flow path of a water ride and configured to accommodate a buoyant ride vehicle. The ride system also includes a support element extending into the flow path and at least partially submerged within the flow path. Moreover, the ride system includes a driving mechanism configured to actuate the support element such that the support element moves relative to the flow path in response to a control signal. The support element is configured to contact the buoyant ride vehicle to control movement of the buoyant ride vehicle along the flow path while the support element is being actuated. Further, the ride system includes a controller configured to generate the control signal based at least in part on a location of the buoyant ride vehicle in the flow path and a timer controlling activation of a show element.

Abstract: A robotic system includes a robotic arm and a movable hardstop disposed proximate to the robotic arm. The movable hardstop is separated from the robotic arm by at least one clearance in a first operating condition. The movable hardstop physically contacts the robotic arm in a second operating condition. The robotic system also includes one or more controllers configured to control movement of the robotic arm and movement of the movable hardstop such that the first operating condition is maintained or such that, if the second operating condition occurs, the hardtop blocks movement of the robotic arm.

Abstract: A ride system includes a first ride vehicle and a second ride vehicle positioned within a course and configured to travel within the course. The ride system also includes a control system having at least one controller and at least one position tracking system, where the at least one controller is configured to control movement of the first and second ride vehicles, and where the at least one position tracking system is configured to facilitate identification of a first location and a second location of the first and second ride vehicles, respectively, within the course. The ride system also includes a wireless network configured to enable communication between components of the ride system.

Abstract: In one embodiment, a propulsion system includes roaming vehicles including a reaction plate installed on a bottom of each of the roaming vehicles, a surface stator matrix installed with a running surface for the roaming vehicles and including single sided linear induction motors (SSLIMs). Each of the SSLIMs include two windings installed orthogonally to one another. The propulsion system also includes motor drives configured to electrically couple to the SSLIMs via a switching panel, and a control system configured to receive information related to the roaming vehicles, receive a desired motion profile for the roaming vehicles across the surface stator matrix, determine which of the SSLIMs to activate and a performance of the SSLIMs based on the desired motion profile, the information, or some combination thereof, and send control signals to the motor drives to control the SSLIMs to produce the motion profile.

Abstract: A ride vehicle for an amusement park includes a restraint system. The restraint system includes a first conformable component configured to be disposed over a first lower portion of a guest's body. The restraint system further includes a behind-the-knee component configured to be disposed behind a leg of the guest. The restraint system additionally includes a linkage mechanism configured to move the first conformable component, the behind-the-knee component, or a combination thereof, to secure the restraint system to the guest.

Abstract: Disclosed are methods and apparatuses for generating simulations on the fly using large historical data and forecast data. To improve system performance, the large historical data are processed in parallel.

Abstract: In one embodiment, a system includes a linear induction motor (LIM) installed in a curved portion of a track, a ride vehicle disposed upon the track, one or more reaction plates coupled to a side of the ride vehicle facing the track via a plurality of actuators, one or more sensors configured to monitor an air gap between the one or more reaction plates and the LIM, and a processor configured to determine which of the plurality of actuators to actuate and a desired performance of each of the plurality of actuators based on data received from the one or more sensors to maintain the air gap at a desired level throughout traversal of the curve by the ride vehicle.

Abstract: Disclosed are methods and apparatuses for generating sales data reports. One approach is provided for receiving time information, simulation information, and forecast parameters to generate on the fly revenue and profitability reports for past historical data and future forecasts.

Abstract: A ride system includes a first ride vehicle and a second ride vehicle positioned within a course and configured to travel within the course. The ride system also includes a control system having at least one controller and at least one position tracking system, where the at least one controller is configured to control movement of the first and second ride vehicles, and where the at least one position tracking system is configured to facilitate identification of a first location and a second location of the first and second ride vehicles, respectively, within the course. The ride system also includes a wireless network configured to enable communication between components of the ride system.

Abstract: A robotic system includes a robotic arm and a movable hardstop disposed proximate to the robotic arm. The movable hardstop is separated from the robotic arm by at least one clearance in a first operating condition. The movable hardstop physically contacts the robotic arm in a second operating condition. The robotic system also includes one or more controllers configured to control movement of the robotic arm and movement of the movable hardstop such that the first operating condition is maintained or such that, if the second operating condition occurs, the hardtop blocks movement of the robotic arm.

Abstract: A ride system includes a first ride vehicle and a second ride vehicle positioned within a course and configured to travel within the course. The ride system also includes a control system having at least one controller and at least one position tracking system, where the at least one controller is configured to control movement of the first and second ride vehicles, and where the at least one position tracking system is configured to facilitate identification of a first location and a second location of the first and second ride vehicles, respectively, within the course. The ride system also includes a wireless network configured to enable communication between components of the ride system.

Abstract: A robotic system includes a robotic arm and a movable hardstop disposed proximate to the robotic arm. The movable hardstop is separated from the robotic arm by at least one clearance in a first operating condition. The movable hardstop physically contacts the robotic arm in a second operating condition. The robotic system also includes one or more controllers configured to control movement of the robotic arm and movement of the movable hardstop such that the first operating condition is maintained or such that, if the second operating condition occurs, the hardtop blocks movement of the robotic arm.

Abstract: A ride system includes a first ride vehicle and a second ride vehicle positioned within a course and configured to travel within the course. The ride system also includes a control system having at least one controller and at least one position tracking system, where the at least one controller is configured to control movement of the first and second ride vehicles, and where the at least one position tracking system is configured to facilitate identification of a first location and a second location of the first and second ride vehicles, respectively, within the course. The ride system also includes a wireless network configured to enable communication between components of the ride system.

Abstract: In one embodiment, a propulsion system includes roaming vehicles including a reaction plate installed on a bottom of each of the roaming vehicles, a surface stator matrix installed with a running surface for the roaming vehicles and including single sided linear induction motors (SSLIMs). Each of the SSLIMs include two windings installed orthogonally to one another. The propulsion system also includes motor drives configured to electrically couple to the SSLIMs via a switching panel, and a control system configured to receive information related to the roaming vehicles, receive a desired motion profile for the roaming vehicles across the surface stator matrix, determine which of the SSLIMs to activate and a performance of the SSLIMs based on the desired motion profile, the information, or some combination thereof, and send control signals to the motor drives to control the SSLIMs to produce the motion profile.