Abstract: A measured value acquisition device includes a circuit carrier, which comprises a receiving structure, which comprises a receiving coil having at least two electrically connected windings in series. A single winding comprises two loop structures having periodically repeating loop portions and is formed in at least two planes of the circuit carrier. Portions of the individual loop structures are electrically connected to each other via through-contacts. Loop portions of the individual windings have opposite directions of passage. The loop structures are arranged in a direction of the movement path offset from one another by a predetermined distance. The individual loop structures are separated at a separation point and are connected to each other via a connecting structure to be in series. The connecting structure comprises at least two connecting elements arranged in at least two parallel planes and have opposite directions of passage.

Abstract: A measured value acquisition device for an inductive sensor arrangement has a circuit carrier which includes a receiving structure which has at least one receiving coil that includes at least two windings, each including two loop structures with a plurality of loop sections and formed in at least two planes of the circuit carrier. Sections of the individual loop structures arranged in different planes are electrically connected to each other via through-hole platings. The loop sections of the two loop structures have opposite flow directions. The loop structures of the at least two electrically series-connected windings are arranged offset with respect to one another by a predetermined distance.

Abstract: A measured value acquisition device includes a circuit carrier, which comprises a receiving structure, which comprises a receiving coil having at least two electrically connected windings in series. A single winding comprises two loop structures having periodically repeating loop portions and is formed in at least two planes of the circuit carrier. Portions of the individual loop structures are electrically connected to each other via through-contacts. Loop portions of the individual windings have opposite directions of passage. The loop structures are arranged in a direction of the movement path offset from one another by a predetermined distance. The individual loop structures are separated at a separation point and are connected to each other via a connecting structure to be in series. The connecting structure comprises at least two connecting elements arranged in at least two parallel planes and have opposite directions of passage.

Abstract: A recipe contains at least one instruction for preparing an assigned quantity of at least one ingredient, in order to prepare a dish. A method for adapting the recipe includes the following steps: registering the at least one ingredient; determining a food chemical function of the ingredient; replacing the ingredient in the recipe with an alternative ingredient; and adapting the recipe such that the food chemical function that has been determined is fulfilled by at least one ingredient of the recipe.

Abstract: Heat exchanger structure for a rack assembly formed by a shaped body of thermally conductive material. The heat exchanger structure comprises a first heat exchanging portion adapted to provide a mechanical support for one or more power electronic components of said rack assembly and adapted to absorb and dissipate heat generated by said power electronic components. The heat exchanger structure comprises a second heat exchanging portion adapted to provide a mechanical support for one or more power electromagnetic components of said rack assembly and adapted to absorb and dissipate heat generated by said power electromagnetic components.

Abstract: Heat exchanger structure for a rack assembly formed by a shaped body of thermally conductive material. The heat exchanger structure comprises a first heat exchanging portion adapted to provide a mechanical support for one or more power electronic components of said rack assembly and adapted to absorb and dissipate heat generated by said power electronic components. The heat exchanger structure comprises a second heat exchanging portion adapted to provide a mechanical support for one or more power electromagnetic components of said rack assembly and adapted to absorb and dissipate heat generated by said power electromagnetic components.

Abstract: A power cabinet (100) for medium-high voltage inverters. The power cabinet (100) comprises a cabinet shell (110) and a support (120) for mounting power modules (210, 220, 230), wherein the support (120) comprises at least one pair of upright beams (121) and sliding rails (123) arranged on the paired upright beams (121), at least one column of space for accommodating the power modules (210, 220, 230) is formed by the at least one pair of upright beams (121), and the sliding rails (123) are used for supporting the power modules (210, 220, 230).

Abstract: The seed pellets have a core which contains grains of seed, organic substrate, loess, organic fertilizer, fungicides and, possibly, pesticides, and a wetting agent which promotes surface wettability. At least one bitter substance may also be present and made to cover the core in the form of a coat, or be distributed within the core. The core is furthermore provided, with a semipermeable coat, which consists of at least one starch and/or latex. The loess acts as a binding agent which serves to intimately bind the various constituents of the core to each other, and to act as a water storing agent in addition to the organic substrate. The semipermeable coat also contributes to the improvement and control of water conservation. Thus the pellets may be made to include sensitive seeds too which require much water for germination and/or may be sown in relatively dry regions and, furthermore, are resistant to breakage and abrasion.