Bsh Hausgerate Gmbh

Bsh Bosch Und Siemens Hausgeraete Gmbh

Fraunhofer-Gesellschaft Zur Foerderung Der Angewandten Forschung E.V.

Bsh Bosch Und Siemens Hausgerate Gmbh

Frank Jördens

Florian Eder

Dan Neumayer

Gerhard Schmidmayer

Jürgen Salomon

Harun Erismis

Klemens Roch

Peter Mallinger

Martin Brunner

Jochen Herbolsheimer

Philipp Schaller

Dominik Nemec

Michael Wagner

Axel Kalleder

Marek Maleika

Christian Hafer

Reinhard Wiedenmann

Dirk Schumann

Ingo Bally

Bernhard Walter

Bernhard Götz

Michael Geiss

Andreas Gier

Philipp Nather

Matthias Wiedmaier

Thomas Copitzky

Berthold Altmann

Daniela Blischke

Johannes Selders

Felix Ntourmas

Silke Bernhardt

Frank Meyer

Lars Schubert

Dieter Mlotek

Stefan Sojer

A heating element arrangement for a cooking appliance includes a first heating zone which is constructed to emit IR radiation in a first wavelength range, and a second heating zone which is constructed to emit IR radiation in a second wavelength range. The first wavelength range and the second wavelength range differ hereby from one another.

Heating element arrangement for a cooking device, and a cooking device having a heating element arrangement of this type

In a method for applying an easily cleanable surface to a domestic article, a polymer surface layer is deposited by one or more nozzles on at least a part of the surface of the domestic article by plasma polymerization in the presence of an atmospheric pressure plasma based on at least one precursor.

Coating of usage surfaces with plasma polymer layers under atmospheric pressure in order to improve the cleanability

A heater, in particular a high-temperature heater, for example for domestic heating appliances, in which a layer that produces heat when a current flows through is provided on a carrier material as a heating element, wherein a first electrically conductive layer which is formed from a free-flowing, non-electrically conductive base material and carbon nano tubes dispersed therein is applied to the carrier material, wherein a protective layer is applied to this first layer and at least partly penetrates into the first layer as it is applied, or wherein a functional layer with carbon nano tubes dispersed therein is applied to the carrier material, and wherein the at least one layer or the functional layer makes contact with strip-like contact elements, and the layers applied to the carrier material or the functional layer are heated.

Heater, in particular high-temperature heater, and method for the production thereof

The invention relates to a method for producing a heater, in particular a high-temperature heater and also a high-temperature heater, for example for domestic heating appliances, in which a layer that produces heat when a current flows through is provided on a carrier material () as a heating element (), wherein a first electrically conductive layer () which is formed from a free-flowing, non-electrically conductive base material and carbon nano tubes dispersed therein is applied to the carrier material (), wherein a protective layer () is applied to this first layer () and at least partly penetrates into the first layer () as it is applied, or wherein a functional layer () with carbon nano tubes dispersed therein is applied to the carrier material (), and wherein the at least one layer () or the functional layer () makes contact with strip-like contact elements (), and the layers () applied to the carrier material or the functional layer () are heated.

A coating solution made from a mixture of at least one silane and at least one polysiloxane which can be hardened on a substrate by hydrolysis and condensation to give a coating on the substrate, wherein the at least one silane is of general formula RxSi(OR')4-x and the at least one polysiloxane is of general formula [R2SiO]y or R3Si&#x2014;(O&#x2014;SiR2)Y&#x2014;O&#x2014;SiR3, where R independently=alkyl, aryl, arylalkyl, alkylaryl or H, Rprime independently=H, methyl, ethyl, n- or i-propyl, n-, iso-, sec.- or tert.-butyl, x=0 or 1 (for the first silane), x=0, 1, 2, 3 or 4 (for each further silane) and y=a whole number of at least 2, wherein the coating solution includes at least one alkali or earth alkali oxide or hydroxide.

Pyrolysis resistant coating finish

A part on or in a cooking, roasting, baking, or grilling device with a self-cleaning coating enables remnants of foodstuffs to be removed without mechanical action. The part includes a coating which has a structure comprised of (a) porous particles A, and (b) a binder, in which the porous particles A do not have a solid or liquid secondary phase in their pores (a).

Catalytic coating for the self-cleaning of ovens and stoves

A cooking compartment door of a cooking oven having a pyrolysis function in the cooking compartment, includes a borosilicate glass pane forming at least a portion of the cooking compartment door. The borosilicate glass pane is provided at least in sections with a colored layer. The colored layer provides impact resistance to the borosilicate glass pane by being applied to the surface of the borosilicate glass pane on the side opposite the cooking compartment. The colored layer is resistant to temperatures up to four hundred degrees Celsius and is not joined to the borosilicate glass pane surface by melting.

Cooking compartment door of a cooking oven having a pyrolysis function

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Traunstein, Germany

Frank Jördens