Siemens Aktiengesellschaft

Rolls-Royce Deutschland Ltd & Co. Kg

Innomotics Gmbh

Flender Gmbh

Karsten Brach

Jens Dahl Jensen

Oliver Stier

Christian Meyer

Olaf Rehme

Frank Seibicke

Andre Schlawitz

Ursus Krüger

Uwe Pyritz

Norbert Schönbauer

Jakob Schneck

Hartmut Rauch

Christoph Balzer

Axel Möhle

Peter Hein

Axel Arndt

Horst Kümmlee

Ulrich Hartmann

Martin Junge

Mark Tobias Zegenhagen

Christian Schiller

Wolfram Siegfried Birkmayer

Ralf Wilcke

Manfred Krüger-Gotzmann

Korbinian König-Petermaier

Peter Vogeley

Thomas Hofmann

Ingo Schüring

Robert Schwengber

Zolt Bogdan

Various embodiments include a method for producing a structure with a cold gas spraying method comprising: providing a carrier with a carrier surface, to which the structure is to be attached by the cold gas spraying method by following a travel path; and providing an element with an element surface different from the carrier surface. The element is arranged in the travel path and/or the travel path is specified such that intersections of the travel path and/or interruptions of the structure are arranged on the element surface.

Production of a structure using a cold spraying method

In a method for producing a winding overhang assembly for an electrical rotating machine, an insulating main body is produced at least partly from a dielectric material. Each of a plurality of conductors of a metal material is connected to the insulating main body via an intermediate layer, which is produced from a material which is different from the dielectric material of the insulating main body and from the metal material of the conductors and which is produced from silver, aluminum, antimony, magnesium, tin, zinc, lead, tantalum or from a mixture and/or from at least one alloy thereof. The conductors are hereby sprayed onto the intermediate layer by a thermal spraying method.

Method for producing a winding overhang assembly for an electrical rotating machine

An active part of an electric machine includes electrical conductors which are additively printed in layers, and intermediate bodies respectively disposed between the electrical conductors and being additively printed in layers, wherein the electrical conductors are printed in a radially increasing manner, alternating with the intermediate bodies. A contact layer &#x3c;=300 &#x3bc;m of a third material is applied between at least one of the electrical conductors and at least one of the printed intermediate bodies, with a diffusion zone being embodied by the contact layer and a heat treatment.

Active part of an electric machine, having a printed conductor

The invention relates to an electrical machine (), comprising at least one first coil (), which is surrounded by a first electrical insulation element () at least in a partial region, and at least one second coil (), which is surrounded by a second electrical insulation element () at least in a partial region, wherein at least one electrically conductive layer () provided in addition to the coils () and in addition to the electrical insulation elements () is arranged between the coils ().

Electrical machine with voltage detection circuit

A winding head arrangement for an electric rotating machine includes a base body including an electrically conductive material having an electrically insulating coating, and a plurality of conductors made from a first metal material and connected to the base body via the electrically insulating coating by a first additive production method.

Winding head arrangement for an electric rotating machine

A wind power generator with a closed internal cooling circuit has a stator that is implemented as sheet metal and includes a winding system which forms winding heads at the end faces of the stator. The stator is enclosed by a cooling jacket at least in the region of the laminated core, wherein permanent magnets of a rotor are disposed on a magnet wheel jacket embodied as a hollow shaft. The magnet wheel jacket is connected in a rotationally fixed manner to a shaft or shaft stubs by way of support elements at its end faces, wherein in its interior the hollow shaft has at least one tube whose lateral surface area runs at an equidistant clearance from the magnet wheel jacket. Blowers are mounted at the end faces of the rotor.

Wind power generator with internal cooling circuit

A rotor for an electrical machine includes a first shaft part and a second shaft part, which is arranged separately from the first shaft part. A first supporting element is connected in a manner fixed against rotation to the first shaft part, and a second supporting element is connected in a manner fixed against rotation to the second shaft part. The rotor has a yoke which connects the first supporting element to the second supporting element and includes a plurality of laminates arranged one behind the other, and which has cutouts extending in the direction of the axis of rotation in the interior of the yoke, and permanent magnets arranged in the cutouts. The yoke has holes extending in the direction of the axis of rotation, with tensioning pins extending through the holes in the yoke to brace the laminates.

Rotor of reduced weight for an electric machine

A shock-proof electric marine engine, e.g. an engine or generator, is for a marine (Navy) ship, and includes a stator and a rotor in a housing. The stator and the rotor are connected in such a way that they are rotatably displaceable in a counter direction and in a radial/axial manner with limited slack. The rotor and stator form a displaceable unit in relation to the housing, which can be displaced away from the housing with a higher vibration overshoot range. The housing is elastically connected to the marine (navy) ship.

Shock-proof electric marine engine, e.g. engine or generator

Growing community of inventors

Berlin, Germany

Karsten Brach