Robert Boschgmbh

Benjamin Hagemann

Stefan Reimer

Siegbert Steinlechner

Uwe Glanz

Nicolas Houis

Michael Hilsch

Alexander Bluthard

Markus Perschall

Ulrich Eisele

Thomas Wahl

Ralf Schmidt

Nik Scharmann

Gudrun Oehler

Alexander Poddey

Jasper Behrendt

Bernhard Kamp

Enno Baars

Daniel Seiler-Thull

Jochen Rager

Sabine Roesch

Petra Kuschel

Dieter Schwarzmann

Thomas Baumann

Georg Rixecker

Michael Guyenot

Erhard Hirth

Leonore Schwegler

Frank Schnell

Raphaelle Laure Satet

Johannes Grabis

Steffen Polster

Harald Maus

Norbert Hoffmann

Johannes Nitzsche

Yukio Kamizuru

Tobias Herrmann

Gabriele Michalke

Istvan Denes

Ioan Serban

Matthias Grauer

Ulrich Fass

Raphaelle Satet

A wave power plant includes a platform and at least one coupling member. The at least one coupling member is mounted in such a way as to perform an orbital movement which has a predetermined direction of movement and from which a torque usable for energy conversion can be tapped. A torque compensation device is provided which is designed to essentially compensate or neutralize a reactive torque generated by tapping the usable torque.

Wave power plant

A method for operating a machine located in choppy waters, in particular a wave energy converter, for converting energy from a wave movement of a fluid into another form of energy includes determining measurement variables at a first, relatively early time, and calculating a variable characterizing a wave movement expected at a second, later time on the basis of the determined measurement variables.

Method for operating a machine located in choppy waters

A wave energy converter comprises a rotor, which is designed to convert a wave movement of a body of water, in which the wave energy converter is arranged, into a rotational movement of the rotor, wherein a mean density of at least one rotating component of the rotor can be adjusted and/or is lower than the mean density of the fluid surrounding the rotor in the body of water. The disclosure likewise relates to a corresponding control device and an operating method.

Wave energy converter, and associated operating method and control device

A method for the self-diagnosis of an exhaust gas probe (). The exhaust gas probe () has at least one heating element (). The method includes a modeled heat output PH is determined for the heating element () by means of a computer program comparing parameters of the gas stream with a measured heat output, and determining, when the parameters of the gas stream exceeds the measured heat output by more than a defined tolerance limit, that one of the exhaust gas probe () is defective, and an exhaust gas section () in which the exhaust gas probe () is installed is faulty.

Method and apparatus for the self-diagnosis of an exhaust gas probe

A sensor element having a layered construction and configured to detect a physical property of a gas or a liquid includes a functional component situated in the interior, which functional component is connected electrically to a conductor element, which conductor element extends up to the outer surface or up into the surroundings of the sensor element. The sensor element has at least one sealing element which adjoins the functional component and/or the conductor element. The conductor element and the at least one sealing element are configured to be gas-tight at least regionally in the interior of the sensor element and are situated in such a way that the functional component is separated gas-tight from the surroundings of the sensor element.

Sensor element containing a sealing element for a functional component

A method for production of a solid oxide fuel cell (SOFC) (), having an electrolyte body () with a tubular structure, wherein at least one internal electrode () and one external electrode () are applied to the tubular electrolyte body, with the method having at least the following steps: provision of an injection molding core () on which at least one interconnector material () and the internal electrode () are mounted, arrangement of the injection molding core () in an injection mold (), injection molding of an electrolyte compound () in order to form the electrolyte body (), and removal of the injection molding core () in the form of a casting process with a lost core.

Method for production of a solid oxide fuel cell (SOFC)

Growing community of inventors

Gerlingen, Germany

Benjamin Hagemann