A hydraulic lock for a hydraulic system includes a flow control valve and a second check valve. The flow control valve having a first inlet, a first outlet, a first check valve and a flow restrictor, each of the first check valve and the flow restrictor being communicably coupled to the first inlet and the first outlet and being arranged in parallel between the first inlet and the first outlet. The second check valve having a second inlet and a second outlet, the second inlet being communicably coupled to the first outlet, the second check valve further having a ball seating surface having an aperture there through, a ball, and a resilient member biasing the ball towards the ball seating surface to seal the aperture, the aperture being communicably coupled to the second inlet and the second outlet.

The invention relates to a door handle (30) for a vehicle door (40) of a vehicle with a tension means (10), wherein the tension means (30) can in particular be mechanically operatively connected with a detachable cover element (31), and a container element (20), wherein the container element (20) is situated inside of the door handle (30), and designed to accept a functional element (33) of the door handle (30).

The invention relates to a door handle (30) for a vehicle door (40) of a vehicle with a tension means (10), wherein the tension means (30) can in particular be mechanically operatively connected with a detachable cover element (31), and a container element (20), wherein the container element (20) is situated inside of the door handle (30), and designed to accept a functional element (33) of the door handle (30).

A door lock arrangement of a vehicle door of a vehicle includes a first closing element arranged in a lock mouth of the vehicle door and a second closing element arranged on a body of the vehicle. The first and second closing elements can be brought into positive-locking engagement with each other to hold the door on the body. A damping device absorbs kinetic energy of the door during a closing movement of the door within a predetermined limit opening angle of the vehicle door relative to the body and slows down the closing movement of the door. The damping device has an impact element arranged on the door in a displaceable manner relative to the door or on the body in a displaceable manner relative to the body. The impact element is connected to an actuator, which applies a pre-tensioning force of the door directed in an opening direction of the door while the first and second closing elements are engaged with each other.

The current disclosure relates to a tank trailer for transporting meat packaging by-products. The tank trailer has a cylindrical body having a sloped rear end. An opening is formed in the sloped rear end, and a gate selectively blocks the opening. A locking mechanism is provided to securely lock the gate to the cylindrical body, thereby sealing the cylindrical body. The sloped rear end forms a chute through which meat by-products can be poured. The chute extends for a distance rearwardly of the trailer's rear wheel assembly.

A hood lifting assembly according to various implementations includes a re-latching feature that allows two slidably coupled plates to be reset, or locked, relative to each other by moving a head of a pin into a keyhole opening of a keyhole slot defined in one of the plates. In an initial position, the head of the pin is spaced apart from the keyhole opening, allowing the pin to move along the keyhole slot from the initial position to a deployed position and then to a reset position. In other implementations, a hood lifting assembly includes an energy absorbing feature. One exemplary energy absorbing feature includes a plate defining an elongated slot that has a narrowed width portion through which a pin travels during movement from the initial position to the deployed position.

Safety latch includes an active member having a support; a thrust pin actuator with a movable thrust pin actuator element movable to and fro along an axis; a thrust pin having a proximate end attachable to the movable thrust pin actuator element such that the thrust pin can be moved to and fro along the axis with movement of the movable thrust pin actuator element, and a distal end; and a biasing element to bias the thrust pin in an extended position. Passive member includes a catch with a thrust pin receiving hole. When assembled, and the movable thrust pin actuator element is slid to and fro, at least the distal end of the thrust pin can penetrate into or be withdrawn from the thrust pin receiving hole to close or open the safety latch. It can be attached to a dump body, say, as part of a dump vehicle.

Safety latch includes an active member having a support; a thrust pin actuator with a movable thrust pin actuator element movable to and fro along an axis; a thrust pin having a proximate end attachable to the movable thrust pin actuator element such that the thrust pin can be moved to and fro along the axis with movement of the movable thrust pin actuator element, and a distal end; and a biasing element to bias the thrust pin in an extended position. Passive member includes a catch with a thrust pin receiving hole. When assembled, and the movable thrust pin actuator element is slid to and fro, at least the distal end of the thrust pin can penetrate into or be withdrawn from the thrust pin receiving hole to close or open the safety latch. It can be attached to a dump body, say, as part of a dump vehicle.

The current disclosure relates to a tank trailer for transporting meat packaging by-products. The tank trailer has a cylindrical body having a sloped rear end. An opening is formed in the sloped rear end, and a gate selectively blocks the opening. A locking mechanism is provided to securely lock the gate to the cylindrical body, thereby sealing the cylindrical body. The sloped rear end forms a chute through which meat by-products can be poured. The chute extends for a distance rearwardly of the trailer's rear wheel assembly.

A door assembly includes a door, a door actuator mechanism configured to transition the door between an open position and a closed position, a first latch configured to hold the door in the closed position, and a second latch engaging with a portion of the door actuator mechanism and being configured to hold the door in the closed position. The second latch includes a cam and a biasing member coupled to the cam. The biasing member is configured to transition the cam between a first position in which the cam engages the portion of the door actuator mechanism, and a second position in which the cam disengages the portion of the door actuator mechanism.