A safety system (2) for a working vehicle (4) comprising a working equipment (6), e.g. a crane or a working tool, the safety system (2) comprises a control unit (8), a controller (10), e.g. a remote controller, configured to control said working equipment (6), and a display unit (12). The control unit is configured to: define a set of three-dimensional safety spaces (14) in relation to the vehicle (4), present at least one safety space (14) from said set of safety spaces on said display unit (12), wherein said at least one safety space being presented overlaid on an image (18) of at least a part of the working vehicle (4) and working equipment (6), receive a first input signal (20) comprising space position parameters representing at least one chosen safety space among the presented safety spaces, and to designate each at least one chosen safety space as an active safety space (14A), and to receive a second input signal (22) comprising a safety space state command either allowing or preventing said working equipment to be moved into said at least one active safety space (14A), and to apply a state command signal (24) to said controller (10) to control said working equipment (6) in dependence of said safety space state command.

A safety system (2) for a working vehicle (4) comprising a working equipment (6), e.g. a crane or a working tool, the safety system (2) comprises a control unit (8), a controller (10), e.g. a remote controller, configured to control said working equipment (6), and a display unit (12). The control unit is configured to: define a set of three-dimensional safety spaces (14) in relation to the vehicle (4), present at least one safety space (14) from said set of safety spaces on said display unit (12), wherein said at least one safety space being presented overlaid on an image (18) of at least a part of the working vehicle (4) and working equipment (6), receive a first input signal (20) comprising space position parameters representing at least one chosen safety space among the presented safety spaces, and to designate each at least one chosen safety space as an active safety space (14A), and to receive a second input signal (22) comprising a safety space state command either allowing or preventing said working equipment to be moved into said at least one active safety space (14A), and to apply a state command signal (24) to said controller (10) to control said working equipment (6) in dependence of said safety space state command.

A high power charging station used to exchange electrical power with a battery of an electrically powered vehicle by means of a power cable connecting the high power charging station with the vehicle, wherein the high power charging station comprises a DC/DC converter adapted to convert electrical DC power, wherein a suppression of unwanted frequencies generated by the DC/DC converter by means of electronic filters is controlled by a control unit of the high power charging station.

The invention provides a multi-layer truck bed. The truck bed includes a frame, a layer of backer plates, and a layer of non-slip plates. The frame is under the layer of backer plates, the layer of backer plates is under the layer of non-slip plates. The truck bed is elongated in a first direction. The frame includes a plurality of metal crossmembers extending crosswise to the first direction. The backer plates are formed of a first metal, and the non-slip plates are formed of a second metal. The first metal has a higher strength than the second metal. In some embodiments, the invention provides a truck that includes the truck bed and has a material handler mounted thereon, and the material handler includes a boom.

A transport unit for a distributed charging system comprising a charging station transportable by the transport unit, wherein the transport unit comprises a lifting mechanism adapted to lift a fluid exchanger onto a base frame (of the charging system installed on a ground floor.

A transport unit for a distributed charging system comprising a charging station transportable by the transport unit, wherein the transport unit comprises a lifting mechanism adapted to lift a fluid exchanger onto a base frame (of the charging system installed on a ground floor.

A mobile apparatus for handling a traction battery (100) of an electric vehicle is provided. The mobile apparatus may have a crane (109) for moving the traction battery (100). The apparatus includes a structure (101) of a truck or a trailer. A system (102, 103, 105, 107) for handling and/or analyzing the traction battery (100) is arranged in the interior of the structure (101).

A mobile apparatus for handling a traction battery (100) of an electric vehicle is provided. The mobile apparatus may have a crane (109) for moving the traction battery (100). The apparatus includes a structure (101) of a truck or a trailer. A system (102, 103, 105, 107) for handling and/or analyzing the traction battery (100) is arranged in the interior of the structure (101).

A computer implemented method of controlling an auxiliary system of a transportation vehicle, the method comprising determining, by a processing circuitry, manual actuation of a start actuator of the vehicle for a predetermined duration; determining, by the processing circuitry, a driver seat state of a driver seat of the vehicle as being occupied or not occupied; determining, by the processing circuitry, a door state of a driver side door of the vehicle as being open or closed; and controlling, by the processing circuitry, operation of the auxiliary system according to a predetermined set of rules based on the driver seat state and the door state.

A storage arrangement that includes a rack receiving space; and a movement space. The rack receiving space includes at least One movable rack and the movement space may contain a movement device that interacts with the at least one rack. The movement space is arranged above the rack receiving space in a direction of gravity, and the movement device is releasably engaged with the at least one rack.