A lift-assisted rack mountable to a roof of a vehicle and pivotable between a transport configuration and a loading configuration. The lift-assisted rack comprises: a fixed base mounted to the roof of the vehicle, a set of pivoting links, an article support, a pivoting arm and a lift-assisting strut. The set of pivoting links are pivotally connected to the fixed base at a link proximal end thereof. The article support is pivotally connected to the set of pivoting links, at a link distal end thereof. The pivoting arm is pivotally connected to the fixed base at an arm proximal end and is pivotable of a predetermined angular. The lift-assisting strut is pivotally connected to one link of the set of pivoting links at a strut distal end and is pivotally connected to the arm distal end of the pivoting arm, at a strut proximal end thereof.

The invention relates to a method for assisting a driver of a vehicle/trailer combination (1) having a motor vehicle (2) and a trailer (4) in maneuvering the vehicle/trailer combination (1), wherein image data of a rear environmental region (12) of the vehicle/trailer combination (1) is captured by means of a rearward looking vehicle-side camera (6) and/or a rearward looking trailer-side camera (7), an image (B) of the rear environmental region (12) is created depending on the captured image data and displayed on a vehicle-side display device (14), wherein a position (20) of a part (15) of the trailer (4) movable between a stowage position and a use position is determined in the image (B), which is occupied by the part (15) by moving the part (15) from the stowage position into the use position increasing at least one geometric dimension (19) of the trailer (4), and a mark (M1) is displayed in this position (20) in the image (B) on the display device (14). The invention additionally relates to a driver assistance system (5) as well as to a motor vehicle (2).

A freight vehicle has a frame defining a support surface for the goods to be transported, a plurality of rubberized wheel assemblies with suspensions, the height of which can be adjusted to shift the support surface between a lowered loading position and a raised transport position, and a driver's cab arranged beneath said support surface; the cab being coupled to, and overhanging, the frame by means of an articulated quadrilateral transmission unit and being shifted by pneumatic actuators configured to vertically move the whole cab in relation to the support surface between two extreme end positions, one approaching the support surface and one spaced apart from said support surface, and to arrange the cab in a cushioned intermediate position for the transport of the goods.

A container transport system and method of operation can include: providing a vehicle having a subframe assembly coupled thereto, the subframe assembly including a lifting arm and a clamping arm; clamping the clamping arm onto a corner fitting of a cargo container; raising the lifting arm for raising a portion of the cargo container; inserting a jack stand below the cargo container; lowering the lifting arm for tilting the cargo container on the jack stand, the jack stand configured as a fulcrum; positioning a container trailer below the cargo container; and raising the lifting arm for pivoting the cargo container on the jack stand and lowering the cargo container onto the container trailer.

The presently disclosed subject matter relates to trailers and systems for lifting and carrying spools. According to an aspect, a trailer includes a frame comprising a first side portion and a second side portion. The trailer also includes a first rack and a second rack attached to the first side portion and the second side portion, respectively, each rack defining multiple notches. Further, the trailer includes a first lift structure and a second lift structure supported by the first side portion and the second side portion, respectively. Each of the first lift structure and the second lift structure defines multiple notches that are each associated with a respective one of the notches of the first rack and the second rack, respectively. Further, the trailer includes a lift mechanism configured to move the first lift structure and the second lift structure between respective first and second positions.

A liftgate alert apparatus for alerting drivers when a liftgate is down before driving includes a pressure switch configured to be coupled to an air line of an airbrake system of a truck or a trailer. The pressure switch is closed when the airbrake system is activated. A roller switch is in operational communication with the pressure switch and is configured to be coupled to a liftgate. The roller switch is closed when the liftgate is in a down position. An alarm is in operational communication with the pressure switch, the roller switch, and a power source. The alarm has an alarm ground wire. The alarm is configured to be coupled within a cab of the truck or on a front end of the trailer and activates an audio and or visual alert when both the pressure switch and the roller switch are closed.

A mat lift is disclosed. In an example, the mat lift may be configured to work with a truck-mounted crane to store and organize a plurality of mat pads. An example of the mat lift includes a channel track that extends rearwardly on a back end of the truck-mounted crane. The example channel track has a downward bend that extends the channel track vertically down a rear surface of the truck-mounted crane. The example channel track also includes a winch or roller that drives a cable or chain in order to move a trolley from a first horizontal end to a second vertical end of the channel track. In an example, the trolley includes a post member configured to receive at least one of the plurality of mat pads thereon.

A roof waste removal assembly is provided and includes a chute system and a self-propelled expanding trailer. The chute system includes a roof guide and a gutter shield. The self-propelled expanding trailer includes a frame, an extension device secured to the frame, and a storage bin secured to the extension device.

A controller for electronically controlling hydraulically operated lifting arms. The controller allows a wide range of quicker movement and slower movement of the lifting arms under proportional control by the operator. An electronic servomechanism is mechanically coupled to a hydraulic valve handle to control the operation of the lifting arms. The servomechanism turns a shaft in response to a proportional controller. The valve handle controls the hydraulic valve stem, allowing the hydraulically operated lifting arms to raise, lower, grip, release, and perform auxiliary hydraulic operations.

A lift apparatus includes an anchor assembly fixable to a vehicle; a platform to support a wheelchair; a support assembly; and two arms, each connected to the support assembly to support the platform. The arms are rotatably connected to the anchor assembly. The platform includes two parts. Each part has a support surface for a wheelchair, a back, and a lateral edge along which the parts are hinged to rotate between a close configuration, in which the backs are facing, and an open configuration, in which the support surfaces are coplanar. An actuator rotates the parts from the close configuration to the open configuration. For each arm, a connecting element, is pivoted to the arm; a first connecting rod is pivoted to the connecting element and to a first of the parts, and a second connecting rod is pivoted to the connecting element and to the second of the parts.