Basf Se Corporation

Basf Aktiengesellschaft

Other

Günther Huber

Kerstin Schierle-Arndt

Michael Lutz

Anna Katharina Dürr

Katrin Freitag

Andreas Fischer

Ivor Wynn Jones

Bernd Sachweh

Jesus Enrique Zerpa Unda

Christoph Übler

Christian Eichholz

Stephen Nicholas Heavens

Dietmar Bender

Otto Machhammer

Torsten Mattke

Gerhard Olbert

Stephan Maurer

Holger Friedrich

Florian Garlichs

Mark Duda

Josef Guth

Jürgen Wortmann

Domnik Bayer

Madalina Andreea Stefan

John Stuart Blackburn

Fabian Seeler

Martin Gärtner

Peter Heidebrecht

Stefan Meuer

Wolfgang Jabczynski

Bernd Schube

Moritz Ehrenstein

Marc Claude Martin

Franky Ruslim

Frank Haass

Glyn Atherton

Francis Michael Stackpool

Jan-Martin Löning

Karl Hölemann

Marcus Georg Schrems

Felix Major

Cord-Henrich Dustmann

Wolfgang Kanther

Claus Schäfer

Cord-Heinrich Dustmann

Francis Stackpool

Christoph Uebler

Stephen Heavens

Beta-aluminum oxide ceramics obtainable by extrusion of a mixture that contains a sodium compound

The invention relates to a device for storing heat, comprising a heat storage medium which absorbs heat in order to store heat and releases heat in order to use the stored heat, and a container for holding the heat storage medium, the container being closed by a gastight cover, and the device comprising volume compensation means in order to compensate for a volume increase of the heat storage medium () due to a temperature rise and a volume decrease due to a temperature reduction. The invention furthermore relates to a method for storing heat, in which heat is transferred to a heat storage medium in order to store heat or heat is discharged from the heat storage medium to the heat carrier in order to use the heat, the heat storage medium being held in a container which is closed by a gastight cover, wherein a volume expansion of the heat storage medium () is compensated for by a volume increase of the container () or by heat storage medium () flowing out of the container () into a buffer container (), and a volume decrease of the heat storage medium () is compensated for by a volume decrease of the container () or by heat storage medium () flowing out of the buffer container () into the container ().

Device and method for storing heat

The invention relates to a method of storing, transporting and supplying electrochemical energy, with storage and supply being physically separated.

Method for storing and transporting electrochemical energy

The invention relates to an electrode unit for an electrochemical device, comprising a solid electrolyte () and a porous electrode (), the solid electrolyte () dividing a compartment for cathode material and a compartment for anode material and the porous electrode () being extensively connected to the solid electrolyte (), with a displacer () being accommodated in the anode material compartment, where the displacer () is manufactured from a stainless steel or from graphite foil and bears resiliently against the internal geometry of the solid electrolyte () in such a way that the displacer () does not contact the solid electrolyte over its full area, or with the displacer comprising an outer shell () of stainless steel or graphite, and a core () of a nonferrous metal, the nonferrous metal being thermoplastically deformable at a temperature which is lower than the temperature at which the stainless steel is thermoplastically deformable, and where for production the shell () of stainless steel or graphite is pressed onto the solid electrolyte () by introduction and heating of the nonferrous metal, and on cooling forms a gap between solid electrolyte () and shell () of stainless steel.

Electrode unit

The invention relates to an improved industrial apparatus for the large-scale storage of energy and a process for storing and transporting electric energy by means of this apparatus.

Industrial apparatus for the large-scale storage of electric energy

A method is provide for preparing potassium metal which comprises embedding a polycrystalline alkali metal &#x3b2;&#x2033;-AlOmolding in an oxidic powder containing potassium and aluminum of a molar KO:AlOratio within the range of 1:(x&#x2212;1) to 1:(x+1), the weight of oxidic powder amounting to at least two times the weight of the molding; heating the embedded molding at a rate of at least 100&#xb0; C. per hour to at least 1100&#xb0; C.; and further heating to at least 1300&#xb0; C., this temperature being maintained for at least one hour prior to cooling.

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A process for preparing aluminum oxide with a low calcium content, in which

Process for preparing high-purity aluminum oxide by purification of alumina

The invention relates to a process for removing small amounts of water and possible further constituents from alkali metal amalgam, wherein the alkali metal amalgam is brought into contact with an element which is insoluble in mercury and catalyzes the reaction of water with the alkali metal amalgam and the possible further constituents to form hydroxides and hydrogen.

Process for removing water from alkali metal amalgam

A solid polycrystalline potassium ion conductor having a &#x3b2;&#x2033;-AlOstructure, its production, and the preparation of potassium metal using this potassium ion conductor.

A process for coating internals in a reactor, except for the coating of electrically heatable, at least partly open-cell foams, with a catalytically active material or a precursor thereof, in which an aerosol which contains the catalytically active material or the precursor thereof as a disperse phase is provided and the aerosol is passed through the reactor at a rate in the range from 0.1 to 4 m/s, which is established so that the disperse phase of the aerosol is deposited on the internals in the reactor.

In situ recoating of catalyst beds

A process is proposed for reducing the aerosol-related discharge from a separation column () in which one or more components are separated off from a gaseous or liquid starting mixture (G) at actively separating internals (), aerosols being present or formed in a gas phase, which comprises the actively separating internals () being segmented at one or more separation points, which are determined in such a manner that the aerosols have at least 50% of their maximum particle size at the separation point or separation points, and an internal () being provided at each separation point, which internal is operated under at least partially flooded conditions, a continuous liquid phase being formed at least in partial regions of the internal (), to which region the aerosols are bound.

Reduction of the aerosol-related discharge from a separation column and apparatus therefor

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Ludwigshafen, Germany

Günther Huber