Robert Boschgmbh

Kardion Gmbh

Stefan Henneck

Alexander Martin

Oliver Wolst

Werner Herden

Helmut Weyl

Juergen Raimann

Martin Weinrotter

Pascal Woerner

Thomas Alexander Schlebusch

Richard Fix

Joerg Engelhardt

Armin Schuelke

Ralf Schmidt

Ingo Stotz

Friederike Lindner

Karl-Heinz Nuebel

David Minzenmay

Eugen Hohmann

Robert Roelver

Markus Widenmeyer

Georg Hejtmann

Witold Pieper

Immanuel Fergen

Julian Kassel

Daniel Pantel

Michael Guenther

Juergen Reiss

Thomas Plum

Franz Wetzl

Steffen Polster

Frank Felten

Martin Le-Huu

Alfons Kelnberger

Stefan Kaessner

Marco Gueth

Huu Nguyen

Gaetan Deromelaere

Ivan Spremo

Alexander Konstandin

Cosima Eschenbacher

Anja Griessl

Anja Graf

The invention relates to an electronics module () for a ventricular assist device, wherein the ventricular assist device has a motor housing for accommodating a pump motor. The electronics module () comprises an electronics section () for accommodating at least one electronic component () and/or at least one electrically conductive contacting element (), and a coupling section () designed as a joint between the motor housing () and the electronics section () or as a separate component to be joined, wherein the motor housing () and the electronics section () are combined or can be combined via the coupling section () with one another to form a fluid-tight module housing () to be arranged in a blood vessel.

Electronics module and arrangement for a ventricular assist device, and method for producing a ventricular assist device

A device for detecting at least one gaseous analyte comprises a detection section including a semiconductor substrate and at least one sensor element, which is arranged on the semiconductor substrate. The at least one sensor element includes two electrodes and a solid electrolyte layer arranged between the electrodes. The device also comprises a protective cap configured to cover the at least one sensor element, and at least one temperature-control unit configured for temperature control of the protective cap. The at least one temperature-control unit is arranged on the protective cap. The protective cap is formed from a semiconductor material. The device further comprises a diffusion section having a plurality of passage openings for the gaseous analyte arranged at least in a partial section of the protective cap.

Device for detecting at least one gaseous analyte and method for the production thereof

A sensor element is described that includes at least one semiconductor component having a gas-sensitive layer which is attached to a substrate by the flip-chip method, the gas-sensitive layer facing the substrate and a supply arrangement being provided to supply a gas to be examined to the gas-sensitive layer. The semiconductor component is enclosed in a casing. Also described is a method for manufacturing the sensor element, in which a semiconductor component having a gas-sensitive layer is attached by the flip-chip method to a substrate in such a way that the gas-sensitive layer faces the substrate. After that, the casing is applied by a plasma sputtering method, in particular an atmospheric plasma sputtering method. Finally, a use of the sensor element in the exhaust system of an internal combustion engine is also described.

Gas sensor and flip-chip method for its manufacture

An ignition laser, includes a laser-active solid-state body, a housing and a combustion chamber window, the housing having an inner sleeve and an outer sleeve. An insert is provided between the inner sleeve and the outer sleeve, the insert and the combustion chamber window being joined sealingly and integrally.

Ignition laser

A sensor element of a gas sensor for determining gas components in gas mixtures includes a field effect transistor and/or a diode which has a current flow which changes upon contact with a gas to be detected, and which is positioned in a manner protected, by a protective cap, from direct access by the gas mixture. The protective cap has a heating element, a glass former, and/or an oxidation catalyst.

Sensor element of a gas sensor and method for operating the same

The present invention relates to a method for passivating a semiconductor component having at least one chemosensitive electrode that is blinded by the application of a glass layer. The present invention also relates to a device for detecting at least one substance included in a fluid stream, including at least one semiconductor component acting as a measuring sensor as well as at least one semiconductor component acting as a reference element, the semiconductor components each having a chemosensitive electrode, and the chemosensitive electrode of the semiconductor component acting as the reference element being passivated. For the passivation, a glass layer may be applied at least to the chemosensitive electrode of the semiconductor component acting as reference element.

Method for passivating a field-effect transistor

A method for preparing ceramic green compacts for ceramic assemblies, especially ceramic multilayer assemblies. First, a dispersing agent solution is prepared by homogenizing a dispersing agent in a solvent mixture. Then, a binder solution is prepared by homogenizing a solvent mixture, a binder made of acrylatemethacrylate polymer and a softener. After preparing a first dispersion by homogenizing a ceramic powder and the dispersing agent solution and subsequent deagglomerization, a second dispersion is prepared by homogenizing the first dispersion and the binder solution, and subsequently removing air and highly volatile solvent components from the second dispersion.

Method for producing ceramic green compacts for ceramic components

A piezoelectric ceramic body in the form of a prism, which has a plurality of insulating layers arranged over one another and made of a piezoceramic material, the insulating layers being at least regionally separated from one another by a conducting layer made of an electrode material. The top view of the insulating layers at least approximates the shape of an n-gon, especially a regular n-gon, n being greater than four and especially being six, eight, or ten. Furthermore, the conducting layers cover each of the insulating layers so extensively that two adjacent insulating layers are only in direct contact with one another in the region of narrow dead zones regionally located at the outer edge of the insulating layers.

Piezoceramic multi-layer structure with regular polygon cross-sectional area

Growing community of inventors

Leonberg, Germany

Stefan Henneck