A semitrailer landing gear controller assembly for automating the extension and retraction of a semitrailer landing gear using an external input of pressurized air. The device includes a primary member designed to receive and rotate a removable secondary member installed over a turning axle for a semitrailer landing gear, where rotation of the turning axle corresponds to the extension or retraction of a semitrailer landing gear depending on the direction of rotation. The primary member further including a turbine designed to drive rotation of the secondary member with the force of pressurized air obtained from an external input of pressurized air, like the supply line from a semitrailer.

A semitrailer landing gear controller assembly for automating the extension and retraction of a semitrailer landing gear using an external input of pressurized air. The device includes a primary member designed to receive and rotate a removable secondary member installed over a turning axle for a semitrailer landing gear, where rotation of the turning axle corresponds to the extension or retraction of a semitrailer landing gear depending on the direction of rotation. The primary member further including a turbine designed to drive rotation of the secondary member with the force of pressurized air obtained from an external input of pressurized air, like the supply line from a semitrailer.

An outrigger system includes an outrigger frame, a pair of hydraulic cylinders coupled to the outrigger frame, a pair of rear outriggers coupled to the outrigger frame and coupled to respective hydraulic cylinders, and a pair of multi-arm assemblies coupled to respective rear outriggers and respective hydraulic cylinders and arranged to permit the pair of rear outriggers to rotate, with respect to the outrigger frame, among a first stowed position, a first fully deployed position, and a first site transportation position via extension and retraction of the pair of hydraulic cylinders.

An outrigger system includes an outrigger frame, a pair of hydraulic cylinders coupled to the outrigger frame, a pair of rear outriggers coupled to the outrigger frame and coupled to respective hydraulic cylinders, and a pair of multi-arm assemblies coupled to respective rear outriggers and respective hydraulic cylinders and arranged to permit the pair of rear outriggers to rotate, with respect to the outrigger frame, among a first stowed position, a first fully deployed position, and a first site transportation position via extension and retraction of the pair of hydraulic cylinders.

The invention relates to methods and systems for stabilisation of a vehicle with a chassis including a rear wheel bogie, a pendulum shaft rotatable through rotary bearings around an axis parallel to the longitudinal direction of the vehicle, a tipping arrangement on which a crane is arranged, and a stabilisation arrangement having first and second hydraulic stabilisation actuators in the rear wheel bogie. The tipping arrangement includes a rotating disk and rotary bearings, such that the rotating disk and crane are rotatable around a vertical axis, and first and second hydraulic tipping actuators in connection with the rotating disk, that can be rotated around a horizontal axis. The first stabilisation actuator and first tipping actuator are in fluid-mediated connection, and the second stabilisation actuator and second tipping actuator are in fluid-mediated connection. The stabilisation actuators are controlled based on the pressure at the tipping actuators.

The invention relates to methods and systems for stabilisation of a vehicle with a chassis including a rear wheel bogie, a pendulum shaft rotatable through rotary bearings around an axis parallel to the longitudinal direction of the vehicle, a tipping arrangement on which a crane is arranged, and a stabilisation arrangement having first and second hydraulic stabilisation actuators in the rear wheel bogie. The tipping arrangement includes a rotating disk and rotary bearings, such that the rotating disk and crane are rotatable around a vertical axis, and first and second hydraulic tipping actuators in connection with the rotating disk, that can be rotated around a horizontal axis. The first stabilisation actuator and first tipping actuator are in fluid-mediated connection, and the second stabilisation actuator and second tipping actuator are in fluid-mediated connection. The stabilisation actuators are controlled based on the pressure at the tipping actuators.

A fire apparatus includes a chassis, a body assembly, a front cabin, a front axle, at least one rear axle, a ladder assembly having a proximal end that is coupled to the chassis between the front axle and the at least one rear axle, a stability system, and a controller. The stability system includes a pair of front downriggers, a pair of rear downriggers, and an outrigger assembly coupled to the chassis between the front axle and the at least one rear axle. The front and rear downriggers are selectively extendable to engage a ground surface. The outrigger assembly includes a pair of outriggers that are selectively extendable from the body assembly to engage the ground surface. The controller is configured to facilitate controlling extension and retraction of the front downriggers, the rear downriggers, and the outriggers to lean the fire apparatus.

This disclosure relates to a drivable working machine, including a vehicle, a concrete placing boom that can be rotated on a vehicle-fixed carrying structure by means of a slewing gear, and a plurality of supporting legs arranged on the carrying structure for supporting the carrying structure in a working position. A compensation device is provided to compensate a rotational deflection of the carrying structure from the working position. The compensation device has a sensing unit for sensing the rotational deflection and acts on at least one supporting leg by means of an associated actuator to reduce the rotational deflection.

This disclosure relates to a drivable working machine, including a vehicle, a concrete placing boom that can be rotated on a vehicle-fixed carrying structure by means of a slewing gear, and a plurality of supporting legs arranged on the carrying structure for supporting the carrying structure in a working position. A compensation device is provided to compensate a rotational deflection of the carrying structure from the working position. The compensation device has a sensing unit for sensing the rotational deflection and acts on at least one supporting leg by means of an associated actuator to reduce the rotational deflection.

The present invention relates to a support structure for a vehicle provided with a cargo crane having a crane base, said support structure comprising a support beam connectable to said crane base and a support leg, wherein a proximal end of said support leg is connected to said support beam at a pivoting point, such that, said support leg is pivotable around said pivoting point relative to said support beam. The support structure further comprises an actuating device connected to the support leg for pivoting said support leg relative to said support beam, wherein said actuating device is configured to arrange said support structure in at least a tunnel mode and a diagonal mode, by adjusting an extension of said actuating device, such that in the tunnel mode, a distal end of said support leg is positioned to abut against a supporting surface on which the vehicle stands and in the diagonal mode, a knee of the support structure or at least a part of a lateral side of said support leg is positioned to abut against the supporting surface on which the vehicle stands.