Abstract: An airflow deflector (5) guides the airflow (6) between a towing machine (1) and a transported unit (4, 32) adjoining the towing machine (1) in the travel direction (F) and is coupled with a setting system (7) for adjusting the orientation of the airflow deflector as needed. To ensure an optimal position of the airflow deflector at all times without human interference even when transported units of different external geometrical configurations are utilized, geometrical data (11) on the external geometry and/or positional data (12) are assigned to the transported unit (4, 32). This data, at least in case of a replacement of the transporting unit (4, 32) may be called up or read and forwarded to a control unit (21) that converts the geometrical and/or positional data into setting commands for the setting system (7) to adjust the airflow deflector (5).

Abstract: A driver's cab (10) of a vehicle having optimized air flow characteristics and a method for optimizing the aerodynamics of a driver's cab (10) of a motor vehicle are proposed, it being possible by means of air flow tests to determine a number of design parameters (A-H) with regard to their aerodynamic influence, the parameters (A-H) within a predefined range of variation being optimized jointly and as a function of one another with a view to optimum overall air flow characteristics of the external shape of the driver's cab (10).

Abstract: The invention relates to a three-dimensional moulded planar cable, comprising a laminate made from at least one conductor track, bonded between two insulation layers and at least one support layer, connected to each other by means of an adhesive layer and applied to a positive moulding tool, brought into shape by the application of heat and/or radiation and/or pressure and fixed in the three-dimensional shape thereof by cooling to below the glass temperature Tg of the adhesive layer or by hardening of the adhesive layer.

Abstract: The invention relates to a self-retaining implant for fixing a bone cover or a bone fragment in an opening in a skull bone. The implant comprises a support element with an upper side and an lower side facing the bone cover. Arranged on the lower side of the support element is an extension, which supports a spike preferably extending parallel to the support element. The spike can be driven laterally into the bone cover or bone fragment by means of a driving-in device according to the invention. The driving-in device according to the invention comprises a receiving element for the implant. A driving-in mechanism for driving the implant into the bone cover or bone fragment can be coupled with the receiving element.

Abstract: An airflow deflector (5) guides the airflow (6) between a towing machine (1) and a transported unit (4, 32) adjoining the towing machine (1) in the travel direction (F) and is coupled with a setting system (7) for adjusting the orientation of the airflow deflector as needed. To ensure an optimal position of the airflow deflector at all times without human interference even when transported units of different external geometrical configurations are utilized, geometrical data (11) on the external geometry and/or positional data (12) are assigned to the transported unit (4, 32). This data, at least in case of a replacement of the transporting unit (4, 32) may be called up or read and forwarded to a control unit (21) that converts the geometrical and/or positional data into setting commands for the setting system (7) to adjust the airflow deflector (5).

Abstract: The invention relates to a self-retaining implant for fixing a bone cover or a bone fragment in an opening in a skull bone. The implant comprises a support element with an upper side and an lower side facing the bone cover. Arranged on the lower side of the support element is an extension, which supports a spike preferably extending parallel to the support element. The spike can be driven laterally into the bone cover or bone fragment by means of a driving-in device according to the invention. The driving-in device according to the invention comprises a receiving element for the implant. A driving-in mechanism for driving the implant into the bone cover or bone fragment can be coupled with the receiving element.

Abstract: A tool holder has a housing rotatable about a holder axis, a motor mounted on the housing and having an output rotatable about a motor axis transverse to the holder axis, and a rotation sensor mounted on the housing and coupled coaxially to the motor. A drive wheel mounted on the rotary motor output is rotatable by the motor about the motor axis and is connected to respective wheels of a pair of shafts each having a screwthread. The screwthreads are of opposite hand and respective nuts threaded on the shafts so that rotation of the motor output synchronously rotates the shafts and oppositely displaces the nuts. A tool-holding slide displaceable transversely of the axis on the plate is fixed to the nut of one of the shafts and a counterweight displaceable transversely of the axis on the plate is coupled to the nut of the other shaft.