Abstract: A brake unit for a vehicle has a brake cylinder, a brake piston guided axially in the brake cylinder and a device for adjusting a clearance. The device has two first stops, which strike against each other when the brake unit is opened, and two second stops, which strike against each other when the brake unit is closed. One of the first stops is formed on a blocking element functionally connected to the brake piston. One of the second stops is formed on the blocking element. A blocking member is in engagement with the blocking element under the force of a pre-stressing spring such that the blocking element is blocked by the blocking member when the first stops strike and can continue to latch in relation to the blocking member under the force of the brake piston when the second stops strike.

Abstract: A brake unit for a vehicle, in particular a rail vehicle, includes an electrohydraulic setpoint value-force-conversion device having a container for providing hydraulic fluid, a brake cylinder connected to the container via a hydraulic line system and having brake pistons, and control devices suitably constructed so as, under the action of electric output signals of a setpoint-value-regulating device, to adjust an actual value, which acts upon the brake cylinder, of a hydraulic pressure in the brake cylinder. In a structurally advantageous manner, one of the control devices is a pump unit with which hydraulic fluid can be pumped out of the container into the brake cylinder and another of the control devices is suitably constructed to allow hydraulic fluid to flow out of the brake cylinder into the container. A vehicle with such a brake unit is also provided.

Abstract: A brake unit for a vehicle, in particular a rail vehicle, has a brake cylinder, a brake piston and a device for adjusting a clearance. The latter has two first stops that strike against each other when the brake unit is opened. One of the first stops is formed on a blocking element that is functionally connected to the brake piston. In order to be able to open the brake unit beyond the clearance, a blocking member is in engagement with the blocking element under the force of a pre-stressing spring. The blocking element is blocked by the blocking member when the first stops strike. Actuators displace the blocking member that is in engagement with the blocking element counter to a force of the pre-stressing spring into a position detached from the blocking element.

Abstract: The invention relates to a wind energy system with at least one pitch adjustment system for adjusting the pitch of at least one rotor blade of the wind energy system, wherein the pitch adjustment system comprises at least one electrohydraulic drive that comprises an unregulated electromotor rotating in one direction of rotation for generating pressure.

Abstract: The invention relates to a flap actuator, in particular to a servo/spoiler actuator, comprising at least one electrohydraulic servo valve and at least one actuator which are hydraulically connected to one another, wherein the actuator comprises at least one actuator housing in and/or at which the at least one channel is arranged by means of which one or more components, preferably likewise arranged in and/or at the actuator housing, are hydraulically connected and wherein no valve block is arranged between the actuator and the servo valve.

Abstract: A method for limiting the angle between the longitudinal axes of car bodies of a multi-part rail vehicle connected to each other via a joint, wherein each car body is supported on only one bogie. The angle is actively influenced by an electrically controlled activation member connected to the joint, until the angle assumes a setpoint value. The setpoint value is determined from the pivot angles (relative angles) of the bogies relative to the associated car bodies.

Abstract: Disclosed is an actuator, in particular for a rail vehicle, comprising a fluidic first actuator unit and a control device having a first control unit, wherein the first actuator unit is connected to the first control unit and can be supplied with power from a fluidic power source under the control of the first control unit. Furthermore, a fluidic second actuator unit is provided, and the control device comprises a second control unit, wherein the second actuator unit is connected to the second control unit and can be supplied with power from the fluidic power source under the control of the second control unit. The invention further relates to a vehicle, in particular a rail vehicle, having an actuator according to the invention.

Abstract: A method for limiting the angle between the longitudinal axes of car bodies of a multi-part rail vehicle connected to each other via a joint, wherein each car body is supported on only one bogie. The angle is actively influenced by an electrically controlled activation member connected to the joint, until the angle assumes a setpoint value. The setpoint value is determined from the pivot angles (relative angles) of the bogies relative to the associated car bodies.

Abstract: A spring element with a hydropneumatic strut are positioned between the bogie and the body of a rail car, with the strut having a sliding piston in a cylinder, whereby the piston or the cylinder can be connected with the bogie and the other component can be connected with the body, and the piston area of the cylinder is connected with a hydraulic accumulator. A strut that is easy to service and maintain and does not accumulate any appreciable amount of dirt is created by virtue of the fact that the hydropneumatic strut has a hydraulic height regulator valve or a height sensor connected or connectable with a feedback loop, whereby the position of the piston in the cylinder can be adjusted or determined.

Abstract: A passive hydraulic controller is disclosed, in which the volumes V1 and V2 at the two sides of the piston of two or more hydraulic cylinders in each case are connected to one another hydraulically, so that a displacement of the piston in one of the cylinders results in a displacement of the piston in at least one of the other cylinders (follow-up control). The sum of all the piston travels ?s=k1s1+k2s2+ . . . +knsn in hydraulic controllers of said type should ideally always be ?s=0=const, with the proportionality factors k1; k2 . . . kn representing the reciprocal of the piston surfaces of the cylinder, and their signs being dependent on whether the connecting lines between the hydraulic cylinders are crossed or not. Passive hydraulic controllers of the generic type are, however, not positionally stable over time (?s?O?const), in particular under the action of static basic loads.

Abstract: The present invention relates to a movement damper for vehicle chassis, in particular rail vehicles, comprising a damper housing in which a damper piston is movably received. In accordance with the invention, the movement damper is characterized in that a sensor for the detection of the movement and/or position of the damper piston relative to the damper housing is arranged in the interior of the damper housing.

Abstract: The within invention concerns a spring element with a hydropneumatic strut to be positioned between the bogie and the body of a rail car, with the strut having a sliding piston in a cylinder, whereby the piston or the cylinder can be connected with the bogie and the other component can be connected with the body, and the piston area of the cylinder is connected with a hydraulic accumulator. A strut that is easy to service and maintain and does not accumulate any appreciable amount of dirt is created by virtue of the fact that the hydropneumatic strut has a hydraulic height regulator valve or a height sensor connected or connectable with a feedback loop, by means of which the position of the piston in the cylinder can be adjusted or determined.