Carl Freudenberg Kg

Peter Kritzer

Michael Roth

Joachim Heinemann

Olaf Nahrwold

Christian Geubert

Thomas Kramer

Olivier Jeanne

Kurt Ewald

Rudolf Gattringer

Reiner Dirr

Armin Striefler

Ulrich Schneider

Jens Hofmann

Thomas Klenk

Helmut Zischka

Gunter Scharfenberger

Frank Lauer

Holger Schilling

Ernst Osen

Christoph Weber

Christian Kleinke

Guenter Frey

Katrin Klein

Rudolf Wagner

Sarah Senne

Bjoern Hellbach

Hans Unger

Ralf Heldmann

Markus Clemens

Rolf-Peter Schwoebel

Christopher Schaefer

Marina Nussko

Frank Schoenberg

Mark Boggasch

Ulla Pressler

Michael Klemt

Ingo Stephan

Raoul Farer

Michael Appelgruen

Frank Menzenhauer

Thorsten Wieland

Jan Helms

Marcel Schreiner

Christian Bickel

Hans-Peter Arnold

Stefan Schirmer

Tim Leichner

Daniela Woll

Susanne Zils

Tanja Heislitz

Sebastian Schmitt-Ferrarese

Ricki Paul

Hans-Joachim Raida

Georg Puett

Mario Harwar-Lavignasse

Christoph Klingshirn

Hans-Jürgen Diekmann

Christopher Schäfer

Jörg Vondung

Jürgen Grotepass

Gerhard Röhner

Peter Weigand

Robert Scheidemann

An electrochemical energy storage cell includes: a housing; and at least one cell coil accommodated in the housing. The housing is closed at at least one end face by a cover. The cover forms a part of the housing. At least one insulation element is arranged between the at least one cell coil and the housing. The at least one insulation element is made of an electrically insulating and thermally conductive material.

Electrochemical energy storage cell

The invention relates to the use of a composite material, comprising a backing layer and a liquid-absorbing layer fixed on the backing layer, the liquid-absorbing layer containing fixed superabsorbent particles, there being, on the side of the liquid-absorbing layer facing away from the backing layer, a liquid-distributing layer which is in liquid-conducting contact with the liquid-absorbing layer and absorbs and distributes, in the plane of the composite material, a liquid to be absorbed, for absorbing and distributing liquids in actively- and/or passively-cooled current-carrying systems—in particular, in actively- and/or passively-cooled energy storage systems.

Use of a composite material for absorbing and distributing liquids in actively and/or passively cooled current-carrying systems

A energy storage system includes at least one storage cell. The storage cell is provided at least in sections with a casing. The casing consists of plastic and is provided with a material for increasing a thermal conductivity. The material is configured such that a thermal runaway in the event of a fault is reduced.

Energy storage system

An energy storage system includes: a housing, in which volume-variable storage cells are arranged; and a device for controlling a temperature of the storage cells, the device being assigned to the storage cells. The device has contact sections for contacting the storage cells. The device has flexible regions for adapting a position of the contact sections to a position of the storage cells. The contact sections adjoin the flexible regions.

An energy storage system includes a housing in which a plurality of storage cells are arranged. The storage cells are thermally insulated from each other via a device arranged between the storage cells. The device is designed in such a way that the storage cells are spaced apart from each other. The device is made from temperature-resistant material. The device has projections and depressions. The device contains a material which is configured to be subjected to an endothermic chemical conversion when a temperature of 200&#xb0; C. is exceeded.

A receiving element for mounting pouch cells, has a base body, wherein, with respect to an object of receiving pouch cells securely and cost-effectively in a frame or housing, the base body is formed as a profile having a contact surface for contact against a sealing seam of a pouch cell.

Receiving element for pouch cells

A flange seal has a support body of a tough, hard material, and a sealing element of a rubbery-elastic material, that are interconnected in a single piece, the sealing element having a sealing edge that can be exposed to a medium to be sealed in a chamber to be sealed. In the state resulting from manufacture, the sealing element has cavities in the region of the sealing edge, which cavities vary in volume during use of the flange seal as intended.

Flange seal and sealing arrangement comprising a flange seal of this type

A frame can be mounted easily in an arrangement and which protects the cells received in the arrangement in as optimum manner as possible with high operational suitability, a frame for fixing cells, has a frame body, in which at least one cooling duct for a cooling medium is configured, wherein the frame has at least one plug-in piece for connecting to another frame, wherein the cooling duct runs at least partially within the plug-in piece.

Frame for electrochemical cells

A pressure-compensation device for a housing includes: an inner side; an outer side; and a lattice-like cage having a gas opening. The gas opening connects the inner side and the outer side in a flow-conducting manner and is restricted, in a through-flow direction of the gas opening, by an inner edge and an outer edge. The gas opening is covered by a gas-permeable membrane. The membrane comprises a nonwoven-fabric composite part and has at least one nonwoven-fabric layer.

Pressure-compensation device for a housing

An electrode module for a redox flow battery, includes an electrode () and a sealing frame (), mechanically connected so that the electrode module that results therefrom can be used with no problems in redox flow cells.

Sealing frame for a redox-flow battery electrode module

A battery includes at least two sealing frames and at least one cell. The sealing frames include a base body defining an opening wherein the base body includes a first sealing surface embodied to be elastically compressible and positioned against opposite sides of a tapered area of the at least one cell.

Sealing frame for use in a battery

Sealing frame () for utilization in a battery, encompassing a base body () whereby the base body () encompasses an opening (), whereby the base body () features a first sealing surface () and a facing second sealing surface () and whereby the first sealing surface () and/or the second sealing surface () are implemented elastically compressible. During normal operation, the frame provides an optimal operating temperature and a reliable leak tightness, in the event of failure however the frame permits the electrolyte to escape, effortlessly and directed, characterized by cooling passages () that are integrated in the base body () and/or a heating device () which interfuse the base body () at least partially along the lengthwise expansion of the sealing surfaces ().

Sealing frame for cells in a battery with a thermally active compensating element

A ply includes a fibrous nonwoven web fabric forming a foundational structure, wherein the foundational structure includes fibers forming first pores and is partially filled with particles, wherein the particles at least partially fill the first pores so as to form regions filled with particles, wherein the particles in the filled regions form second pores, and wherein an average diameter of the particles is greater than an average pore size of more than 50% of the second pores.

Nonwoven material with particle filler

An ultrathin, porous, and mechanically stable nonwoven fabric, a method for manufacturing the fabric, and the fabric's use are described. A nonwoven fabric is described having a thickness of less than 30 &#x3bc;m, which is chemically and/or thermally bonded, whose maximum tensile load in at least one direction is at least 15 N/5 cm, whose stretching in this direction at maximum tensile load is 35% at the most, and which has a porosity of at least 25%. This nonwoven fabric may be used as a separator material or as a carrier material for diaphragms.

Ultrathin, porous and mechanically stable nonwoven fabric and method for manufacturing

Component () having at least one element () having a curved surface (), wherein the element () is provided with a coded, electronically readable identification (), which is introduced into the surface as a topographic identification (), wherein the identification () is embodied in such a way that it can be read in two dimensions by means of a reader.

Component provided with a machine-readable identification

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Forst, Germany

Peter Kritzer