A cradle drive system includes a cradle drive sled. The sled includes a pin configured to mechanically couple the sled to a cradle. The cradle is configured to hold a hardware load for movement along a factory rail. The sled also includes a power interface configured to provide torque to move a hardware load. The sled further includes processing circuitry configured to, in response to determining that the sled is mechanically coupled to the cradle, transfer the cradle and hardware load longitudinally along the factory rail.

A power system for short trains. In an embodiment, an over-the-road tractor is configured with drive gears on a drive axle to interface with driven gear systems on a rail car. By utilizing the apparatus, a method for efficient delivery of goods in containers on semi-trailers may be achieved, thus saving considerable time, and reducing costs.

The present invention relates to methods, apparatuses, and systems for controlling the density of a fluid near a functional object in order to improve one or more relevant performance metrics. In certain embodiments, the present invention relates to forming a low density region near the object utilizing a directed energy deposition device to deposit energy along one or more paths in the fluid. In certain embodiments, the present invention relates to synchronizing energy deposition with one or more parameters impacting the functional performance of the object.

The present invention relates to methods, apparatuses, and systems for controlling the density of a fluid near a functional object in order to improve one or more relevant performance metrics. In certain embodiments, the present invention relates to forming a low density region near the object utilizing a directed energy deposition device to deposit energy along one or more paths in the fluid. In certain embodiments, the present invention relates to synchronizing energy deposition with one or more parameters impacting the functional performance of the object.

A hydraulic pump powering system includes a mobile vehicle, a first electric current generator device, and one or more electric pump motors. The mobile vehicle has first and second prime movers. The first electric current generator device is disposed onboard the mobile vehicle and is configured to be mechanically coupled with the first prime mover to convert movement created by the first prime mover into first electric current. The one or more electric pump motors are configured to receive the first electric current to power a hydraulic pump. The second prime mover is configured to generate movement that is converted into a propulsive force that propels the mobile vehicle. The one or more electric pump motors are configured to receive the first electric current in order to power the hydraulic pump to pump a fluid into a pumping location located off-board the mobile vehicle.

A fuel supply system for mounting to an undercarriage of a locomotive includes a first enclosure and a second enclosure that are disposed below the undercarriage of the locomotive. The first enclosure is configured to extend partway along a length of the undercarriage and is designated to store a first type of fuel therein. The second enclosure is located adjacent to the first enclosure and configured to extend parallelly with respect to the undercarriage. The second enclosure is designated for enclosing components that are configured for supplying a second type of fuel to an engine of the locomotive.

A cradle drive system includes a cradle drive sled. The sled includes a pin configured to mechanically couple the sled to a cradle. The cradle is configured to hold a hardware load for movement along a factory rail. The sled also includes a power interface configured to provide torque to move a hardware load. The sled further includes processing circuitry configured to, in response to determining that the sled is mechanically coupled to the cradle, transfer the cradle and hardware load longitudinally along the factory rail.

A vehicle includes at least one air inlet opening for admitting ambient air, at least one air outlet opening for discharging the ambient air, and an air-cooled cooling device connected to the air inlet opening and the air outlet opening for cooling one or more vehicle components. The air outlet opening is equipped with at least one guide device, which is adjustable and is pivoted automatically or in a manner driven by an adjustment device on the air outlet side into a forward travel position when the vehicle is travelling in a direction of forward travel and into a reverse travel position, which differs from the forward travel position, when the vehicle is travelling in a direction of reverse travel.

A vehicle includes at least one air inlet opening for admitting ambient air, at least one air outlet opening for discharging the ambient air, and an air-cooled cooling device connected to the air inlet opening and the air outlet opening for cooling one or more vehicle components. The air outlet opening is equipped with at least one guide device, which is adjustable and is pivoted automatically or in a manner driven by an adjustment device on the air outlet side into a forward travel position when the vehicle is travelling in a direction of forward travel and into a reverse travel position, which differs from the forward travel position, when the vehicle is travelling in a direction of reverse travel.