A control system identifies vehicle systems for combining into a larger convoy. Each the vehicle systems is formed from at least one propulsion-generating vehicle and at least one non-propulsion-generating vehicle. The control system directs the identified vehicle systems to couple with each other for travel as the convoy from a first location toward a different, second location. The control system directs a first vehicle system in the convoy to separate from the convoy and/or a second vehicle system to join the convoy by coupling with at least one of the vehicle systems in the convoy in an intermediate location between the first and second locations. The vehicles in each of the vehicle systems in the convoy remain connected during separation of the first vehicle system from the convoy and/or during joining of the second vehicle system to the convoy.

The invention relates to a flexible clamp for securing a pin to a base yoke in an articulated joint connection, wherein the clamp comprises a body configured for mounting to the base yoke. The body of the clamp comprises at least one recess or aperture arranged in a vicinity of the pin contact part, which is shaped and sized to control deformation of the pin contact part of the clamp, when the clamp is secured to the base and engages the pin. The invention also relates to an articulated joint connection and a railway coupler comprising the clamp according the invention.

The invention relates to a flexible clamp for securing a pin to a base yoke in an articulated joint connection, wherein the clamp comprises a body configured for mounting to the base yoke. The body of the clamp comprises at least one recess or aperture arranged in a vicinity of the pin contact part, which is shaped and sized to control deformation of the pin contact part of the clamp, when the clamp is secured to the base and engages the pin. The invention also relates to an articulated joint connection and a railway coupler comprising the clamp according the invention.

A claw system for mechanical coupling a railcar mover to a railcar is disclosed herein. The claw assembly may comprise a set of arms and a set of claws each mounted on the interior side of one of the set of arms. When a railcar adjacent to a railcar mover on a set of tracks is positioned within a proximity of the railcar mover, the claw assembly may be utilized to grasp the air hose of the adjacent railcar. For example, the set of arms may be attached to the railcar mover via a motorized rail upon which the set of arms may be configured to move axially toward each other in a direction perpendicular to the tracks, thereby causing the claws to move toward each other and close around the air hose of the adjacent railcar. The claws may include openings configured to grasp the air hose.

A claw system for mechanical coupling a railcar mover to a railcar is disclosed herein. The claw assembly may comprise a set of arms and a set of claws each mounted on the interior side of one of the set of arms. When a railcar adjacent to a railcar mover on a set of tracks is positioned within a proximity of the railcar mover, the claw assembly may be utilized to grasp the air hose of the adjacent railcar. For example, the set of arms may be attached to the railcar mover via a motorized rail upon which the set of arms may be configured to move axially toward each other in a direction perpendicular to the tracks, thereby causing the claws to move toward each other and close around the air hose of the adjacent railcar. The claws may include openings configured to grasp the air hose.

An articulated rail coupler comprises a base member, a female connecting member, a male connecting member, a bearing race, a first bearing seated within the bearing race and defining a vertical axis of rotation, and a second or a coupler bearing configured and sized to be received within a truck bogie bearing bowl. The male connecting member is allowed to rotate relative to the female connecting member about the vertical axis of rotation in a range of about ninety degrees, when the male connecting member and the female connecting member are coupled therebetween by the first bearing.

An articulated rail coupler comprises a base member, a female connecting member, a male connecting member, a bearing race, a first bearing seated within the bearing race and defining a vertical axis of rotation, and a second or a coupler bearing configured and sized to be received within a truck bogie bearing bowl. The male connecting member is allowed to rotate relative to the female connecting member about the vertical axis of rotation in a range of about ninety degrees, when the male connecting member and the female connecting member are coupled therebetween by the first bearing.

A railcar anti-scissoring system includes a base controller positioned within a train locomotive that sends a launch initiation command to railcar-stabilizing units when detecting rapid deceleration indicative of a collision or derailment. The stabilizing units include a receiver secured to the rear end of each rail car and a coupling unit attached to the front end of each rail car. The coupling unit houses a deployable locking rod that is thrust into a mating cavity in the receiver upon receipt of the launch command. The deployed locking rod maintains the host railcar and the preceding railcar in a linear orientation during a rapid deceleration to prevent jackknifing.

A railcar anti-scissoring system includes a base controller positioned within a train locomotive that sends a launch initiation command to railcar-stabilizing units when detecting rapid deceleration indicative of a collision or derailment. The stabilizing units include a receiver secured to the rear end of each rail car and a coupling unit attached to the front end of each rail car. The coupling unit houses a deployable locking rod that is thrust into a mating cavity in the receiver upon receipt of the launch command. The deployed locking rod maintains the host railcar and the preceding railcar in a linear orientation during a rapid deceleration to prevent jackknifing.

The roller coaster with separable cars and multiple paths is a mechanical structure. The roller coaster with separable cars and multiple paths incorporates a plurality of trolleys, a track structure, and a control structure. The control structure controls the motion of the plurality of trolleys through the track structure. Each individual trolley selected from the plurality of trolleys travels along the track structure either as a train or as in individual trolley. Each individual trolley can both separate from the train and rejoin the train as the individual trolley travels through the track structure. The track structure is a multipath structure. The track structure forms a circuit. The track structure forms the path that guides each the plurality of trolleys through the circuit formed by the track structure. Each individual trolley can take an individual path selected from the multipath structure of the track structure.