33results about How to "Realize a modular structure" patented technology

A device for mechanically guiding components in a lock arrangement, preferably for guiding a follower unit, comprising an electrically actuable manoeuvring element (21) preferably a motor. A first engagement element (23,24) is coupled mechanically to the manoeuvring element for linear movement along a movement axis between a first and a second end position. A first arm (25) which is rotatable about a rotatable shaft (A) includes a second engagement element (27) located in mechanical engagement with the first engagement element. Because each of the first and second engagement elements (23,24,27) includes a groove (27) which extends at least partially out of parallel with the movement axis of the first engagement element, the first arm is caused to rotate when the first engagement element moves linearly. This results in a simple and flexible guide device.

The invention relates to an arrangement for a modular inverter. The arrangement comprises a number of power semiconductors (5, 7) and cooling elements (2), the cooling elements being connected to the power semiconductors (5, 7) for cooling them, wherein the power semiconductors (5, 7) and the cooling elements (2) are disposed around a centre axis (9) of the arrangement in such a manner that they demark a channel (10) around the centre axis (9) in which a cooling medium is able to flow in the direction of the centre axis. The invention is characterized in that the arrangement further comprises a first tube-shaped ring film capacitor (11) around the centre axis (9) of the arrangement wherein the power semiconductors (5, 7) are arranged between the cooling elements (2) and an inner surface of the first ring film capacitor (11).

The invention relates to an apparatus for connection to a gearbox actuating element of an engine gearbox, having sensors (5, 6, 7) for sensing gearbox shifting positions of a shifting apparatus, and to an interface (2) for transferring the evaluation signals of the sensors (5, 6, 7) to the control electronics of a gearbox actuating element, wherein the sensors (5, 6, 7) are arranged in such a way that their spacing from the interface (2) is smaller than the spacing between the interface (2) and the shifting apparatus which is to be sensed.

The invention relates to a screw pump (1), in particular a twin screw pump, comprising: a multi-part housing (2, 7, 15, 21) and at least two coupled chamber-forming rotors (3, 3a), each The rotors each comprise at least one thread-like profile (4, 4a) formed at least in regions and having a helical channel (5, 5a) and a dividing wall ( 6, 6a), wherein the rotors (3, 3a) perform reverse rotor rotations and the partition walls (6, 6a) mesh with each other in the manner of gears; and the running housing part (7), wherein the running housing part (7) surrounding the rotor (3, 3a) in a non-contact manner, wherein the rotor (3, 3a) together with the running housing part (7) forms at least one delivery chamber (8, 8a) for the fluid to be delivered, Among them, the transfer chamber (8, 8a) moves axially along the rotor shaft (10, 10a) and transfers the fluid from the suction chamber (11) to the pressure chamber (12); the suction side connection element (13), which is fluidly connected to a suction chamber (11); and a pressure-side connecting element (14), which is fluidly connected to the pressure chamber (12), wherein the suction-side connecting element (13) and the pressure-side connecting element (14) are arranged in the multi-part housing (2 , 7, 15, 21) on the connecting housing part (15), wherein the housing (2, 7, 15, 21) includes a planar dividing surface (16), which is in the running housing part ( 7) and the connecting housing part (15) extend parallel to the rotor shaft (10, 10a).

The invention discloses a high-power discharge switching device based on a light triggered thyristor (LTT), which comprises an LTT unit, a static pressure equalizing resistance unit, a dynamic pressure equalizing RC return circuit unit and a switch pressure-mounting assembly unit, wherein the LTT comprises more than one light LTT elements which are connected in series; the static pressure equalizing resistance unit and the dynamic equalizing RC return circuit unit are connected with the LTT unit in parallel; the dynamic equalizing RC return circuit unit comprises an absorption capacitor and adynamic absorption resistor which are connected in series; and the switch pressure-mounting assembly has effect of fixing and connecting the LTT unit, the static pressure equalizing resistance unit and the dynamic pressure equalizing RC return circuit unit. The high-power discharge switching device of the invention overcomes the defects of slow control response speed, great trigger jitter, easy burnout of a contact under heavy current, poor reliability, poor safety and the like of the traditional mechanical switch.

A fuel distributor (1), in particular for a compressed mixture, externally ignited internal combustion engine, said fuel distributor comprising a distributor body (6) and at least one sleeve (10), said sleeve being at least Constructed on a plastic base piece. A fuel chamber (7) is formed in the distributor body (6). Furthermore, a through channel (20) is provided on the distributor body (6) in the region of the sleeve (10), which opens on one side into the fuel chamber of the distributor body (6) (7) and open on the other side into the inner chamber (21) of the sleeve (10). The sleeve (10) has a sealing lip (22), wherein the through channel (20) opens into the interior of the sleeve (10) at a central opening (24) of the sealing lip (22). room (21).

The invention provides a micromechanical sensor arrangement, a corresponding manufacturing method and application. The micromechanical sensor arrangement comprises substrates (S1, S1 and S') provided with front side (V, V1 and V1') and back sides (R, R1 and R1'). A first microelectromechanical sensor arrangement (M1) is integrated on the front side (V, V1 and V1') and a second microelectromechanical sensor arrangement (M2) is integrated on the back sides (R, R1 and R1').