A railroad well car includes a spaced trucks grouped in pairs, and a railcar body supported on a pair of the trucks, the body comprising a pair of spaced end structures, each end structure supported on one truck, and a well structure extending between the end structures. The well structure comprises a pair of top chord members extending between the end structures; a pair of side sills extending between the end structures. The rail car includes safety platform and handbrake wherein operator walkway platforms are included with co-planer end walkways and running boards, wherein the running boards are above the top chords of the sidewalls of the well car; and a handbrake operated with a hand wheel is mounted on one side of the railroad well car, which hand wheel extends below the top chords of the side walls of the well car whereby the hand wheel is accessible from the side of the railcar via an operator on the ground.

A transport vehicle includes a container for receiving bulk material which is disposed on a vehicle frame and is pivoted, together with a bottom conveyor belt and a third conveyor belt, relative to the vehicle frame about a pivot axis extending in a longitudinal direction of the vehicle in order to maintain a horizontal conveying plane, relative to a transverse direction of the vehicle, for the bottom conveyor belt and the third conveyor belt, independently of a transverse inclination of the track. Thus, a problem-free bulk material transport is possible even in the event of a transverse inclination of the track. A method of loading and unloading a transport vehicle which is mobile on a track is also provided.

A well car includes a well floor, a first end portion, a second end portion, and a first side assembly. The first end is portion coupled to the well floor. The second end portion is coupled to the well floor. The first side assembly is coupled to the well floor. The first side assembly includes a first side portion, a second side portion, and a first humped portion coupled between the first and second side portions. The first side portion is coupled to the first end portion. The second side portion is coupled to the second end portion. The first humped portion is positioned higher than the first and second portions on the first side assembly.

Disclosed is a railway wagon for transporting trucks, including a middle running board device, end running board devices respectively arranged at two ends of the middle running board device, and a bridge board device arranged at the outer end of each end running board device. The middle running board device includes of multiple middle running board assemblies. Each middle running board assembly includes a running board connected to a side wall. At least one support plate connected to the side wall is arranged below the running board. Each end funning board device includes multiple end running board assemblies. Each end running board assembly includes a running board connected to the side wall. At least one support plate connected to the side wall is arranged below the running board.

A system for immobilizing a semi-trailer kingpin on a transport vehicle includes a balance arm and a substantially horizontal rigid linking structure designed to guide the vertical movement of the receiving nacelle, hold it in position above the lifting system in a horizontal plane and take up the forces exerted thereon. The longitudinal rigid linking structure is hingedly linked to the receiving nacelle and to the transport vehicle in order to take up the longitudinal forces from same, and the balance arm includes preloaded springs that take up the forces exerted on the balance arm when the receiving nacelle is temporarily inclined relative to the horizontal plane. The lifting system for lifting the receiving nacelle is mounted pivoting on the railway unit at a pivot pin transverse to the longitudinal axis of the transport vehicle.

A rail-road intermodal freight system. In an embodiment, a conveyor system is provided for placing rail cars in a position for loading shipping containers thereon, while an over-the-road trailer is secured to the rail car. Rail cars have a frame with a front end and a rear end, and a bogie having at least four flanged rail wheels is pivotally mounted to the rear of the frame of the rail car. A method for unloading the rail cars includes lifting the front of the frame of the rail cars and pivoting the rail cars by an angle alpha from the track direction at an unloading area, and lowering the front end of the frame to the ground to allow truck access to trailers on the rail car. By utilizing the method, efficient loading and unloading of train involved in intermodal shipments may save considerable time, and thus reduce costs.

An impact detection device for a system for locking the kingpin of a semitrailer on a railway unit includes a rigid connecting piece connected to a kingpin receiving structure and a connecting shaft connecting the rigid connecting piece to the railway unit, mounted on the railway unit, received with the ability to pivot in an oblong provided in the rigid connecting piece and capable of moving in the oblong. The device also includes a shear pin that prevents the connecting shaft from moving in the oblong and which breaks in the event of an impact so as to allow the connecting shaft to move in the oblong, a bypass pipe mounted as a bypass on the general pipe of the railway unit, and a cutoff tool secured to the railway unit, which cuts off the bypass pipe when the shear pin is broken and a connecting shaft is moving in the oblong.

A rail-road intermodal freight system. In an embodiment, a conveyor system is provided for placing rail cars in a position for loading shipping containers thereon, while an over-the-road trailer is secured to the rail car. Rail cars have a frame with a front end and a rear end, and a bogie having at least four flanged rail wheels is pivotally mounted to the rear of the frame of the rail car. A method for unloading the rail cars includes lifting the front of the frame of the rail cars and pivoting the rail cars by an angle alpha from the track direction at an unloading area, and lowering the front end of the frame to the ground to allow truck access to trailers on the rail car. By utilizing the method, efficient loading and unloading of train involved in intermodal shipments may save considerable time, and thus reduce costs.

A rail-road intermodal freight system. In an embodiment, a conveyor system is provided for placing rail cars in a position for loading shipping containers thereon, while an over-the-road trailer is secured to the rail car. Rail cars have a frame with a front end and a rear end, and a bogie having at least four flanged rail wheels is pivotally mounted to the rear of the frame of the rail car. A method for unloading the rail cars includes lifting the front of the frame of the rail cars and pivoting the rail cars by an angle alpha from the track direction at an unloading area, and lowering the front end of the frame to the ground to allow truck access to trailers on the rail car. By utilizing the method, efficient loading and unloading of train involved in intermodal shipments may save considerable time, and thus reduce costs.

A rail-road intermodal freight system. In an embodiment, a conveyor system is provided for placing rail cars in a position for loading shipping containers thereon, while an over-the-road trailer is secured to the rail car. Rail cars have a frame with a front end and a rear end, and a bogie having at least four flanged rail wheels is pivotally mounted to the rear of the frame of the rail car. A method for unloading the rail cars includes lifting the front of the frame of the rail cars and pivoting the rail cars by an angle alpha from the track direction at an unloading area, and lowering the front end of the frame to the ground to allow truck access to trailers on the rail car. By utilizing the method, efficient loading and unloading of train involved in intermodal shipments may save considerable time, and thus reduce costs.