Abstract: To improve the accuracy in the use of inductive components, the invention provides a method for producing a planar coil assembly (32) comprising n planar coil units (10) arranged on top of the other, wherein n is a natural number greater than 1, the method comprising: a) creating an i-th planar coil unit (10) by producing, with the aid of a computer, at least one planar coil (12) made of an electric conductor and having a planar coil thickness diPS on an insulating material layer (14) made of electric insulating material having a layer thickness di,IM, for i equal to 1 to n, and b) arranging the planar coil units (10) in layers, with the interposition of the insulating material layer (14) between the planar coils (12), wherein the thicknesses di,PS and di,IM, are selected such that 0 , 6 ? D PS D IM + D PS ? 0 , 9 , applies.

Abstract: To improve the accuracy in the use of inductive components, the invention provides a method for producing a planar coil assembly (32) comprising n planar coil units (10) arranged on top of the other, wherein n is a natural number greater than 1, the method comprising: a) creating an i-th planar coil unit (10) by producing, with the aid of a computer, at least one planar coil (12) made of an electric conductor and having a planar coil thickness diPS on an insulating material layer (14) made of electric insulating material having a layer thickness di,IM, for i equal to 1 to n, and b) arranging the planar coil units (10) in layers, with the interposition of the insulating material layer (14) between the planar coils (12), wherein the thicknesses di,PS and di,IM, are selected such that 0 , 6 ? D PS D IM + D PS ? 0 , 9 , applies.

Abstract: The sensor unit for a sensor/transmitter system is used to capture at least rotational and linear movements of a component (1) having magnetic poles. The sensor unit has at least one sensor which is at least one electrically conductive conductor bar (5) which is transverse with respect to the direction of movement of a magnetic field of the component (1). The relative movement between the magnetic field and the conductor bar (5) produces a voltage at said conductor bar, which voltage can be supplied to evaluation electronics (4).

Abstract: The invention relates to an electronic component with a cavity in which a magnetic circuit is arranged, the magnetic circuit being formed by the first and second magnetic conductor elements, which have at least one planar coil located between them, each of the magnetic conductor elements having at least one bridge-shaped area, and the turns of the planar coils passing through between the bridge-shaped areas of the magnetic conductor elements, each of the bridge-shaped areas having a first end, the first ends that are opposite one another forming a coil core for the planar coil, and the bridge-shaped areas each having a second end, the opposite second ends closing the magnetic circuit on the periphery of the planar coil.

Abstract: The aim of the invention is to achieve a rapid, homogeneous application of a liquid with as little force as possible to a substrate. To achieve this, the invention provides a nozzle assembly (22) for applying a liquid to a substrate, said assembly having a nozzle body (26) comprising a plurality of nozzles (36) that are substantially arranged in a line and a guide plate (28) that extends essentially in a vertical direction with a straight lower edge. According to the invention, the nozzles (36) above the lower edge are directed towards the guide plate (28) in such a way that a film of liquid forms on the guide plate (28) and flows over the lower edge (64).

Abstract: The aim of the invention is to achieve a rapid, homogeneous application of a liquid with as little force as possible to a substrate. To achieve this, the invention provides a nozzle assembly (22) for applying a liquid to a substrate, said assembly having a nozzle body (26) comprising a plurality of nozzles (36) that are substantially arranged in a line and a guide plate (28) that extends essentially in a vertical direction with a straight lower edge. According to the invention, the nozzles (36) above the lower edge are directed towards the guide plate (28) in such a way that a film of liquid forms on the guide plate (28) and flows over the lower edge (64).