Infineon Technologies Ag

Siemens Aktiengesellschaft

Osram Opto Semiconductors Gmbh

Osram Oled Gmbh

Siemens Energy Global Gmbh & Co. Kg

Osram Gmbh

Linde Gmbh

Koninklijke Philips Corporation N.v.

Basf Se Corporation

Merck Patent Gmbh

Osram Opto Semiconductor Gmbh

Qimonda Ag

Udc Ireland Limited

Novaled Gmbh

Oledworks Gmbh

Günter Schmid

Marcus Halik

Hagen Klauk

Dan Taroata

Ralf D Krause

Andreas Kanitz

Anna Maltenberger

Manfred Baldauf

Arvid Hunze

Wiebke Sarfert

Recai Sezi

Werner Weber

Karsten Heuser

Thomas Mikolajick

Arndt Jaeger

Christine Dehm

Thomas Peter Haneder

Gerhard Wagenblast

Holger Heil

Christian Lennartz

Wolfgang Anton Spirkl

Roland Thewes

Rainer Leuschner

Christian Schildknecht

Herbert Friedrich Boerner

Markus Heinrich Klein

Maximilian Fleischer

Soichi Watanabe

Nicolle Langer

Timothy Hughes

Nina Riegel

Oliver Molt

Korinna Dormann

Evelyn Fuchs

Britta Göötz

Andreas Rausch

Richard Johannes Luyken

Christoph H Thalacker

Tilman Schlenker

Peter Heinz Fischer

Dominik Pentlehner

Wolfgang Clemens

Andrew Ingle

Andreas Walter

Michael Fehrer

Michael Popp

Jens Rudolph

Luisa De Cola

Ulrich Niedermeier

Reimund Engl

Joachim Wecker

Ute Zschieschang

David Hartmann

Beate Burkhart

Henning Rost

Erhard Magori

Peter Strohriegl

Bernhard Schmid

Stefan Seidel

Jürgen Adler

Florian Kessler

Elena Arvanitis

Christian Reller

Jan Hauke Wemken

Marc Hanebuth

Andreas Peschel

Sabine Szyszkowski

Riikka Suhonen

Florian Eder

Volker Van Elsbergen

Yashar Musayev

Klaus Lowack

Henning Seim

Fabrice Eckes

Adolf Bernds

Ingo Münster

Jon Andrew Preece

Gotthard Rieger

Manfred Rührig

Martin Bergsmann

JianQiang Qu

Roland Weiss

Bernhard Lippmann

Franz Ungar

Thomas Geßner

Renate Kellermann

Stefan Wallstab

Kerstin Wiesner-Fleischer

Clara Delhomme-Neudecker

Stefan Regensburger

Niels Gerlitzki

Oliver Weiss

Roland Treutlein

Marina A Petrukhina

Nicole Schödel

Ralph Pätzold

Matthias Müller

Ana-Maria Krestel

Katja Stegmaier

Helmut Eckert

In an embodiment a method for producing an optoelectronic component includes providing a substrate, forming a first electrode, depositing an organic functional layer or a plurality of organic functional layers over the substrate by simultaneous vaporization from different sources of a first compound and of a second compound and of a matrix material and forming a second electrode, wherein at least one coordinate bond is formed by the first compound with the second compound and by the first compound with the matrix material and/or by the second compound with the matrix material.

Optoelectronic component, organic functional layer, and method for producing an optoelectronic component

An electrolysis cell, includes a cathode space with a cathode, an anode space with an anode, and a salt bridge space, which is arranged between the cathode and the anode, wherein the cathode space and the salt bridge space are delimited from one another by the cathode and the salt bridge space and the anode space are delimited from one another by the anode, and the cathode and the anode are formed as a gas diffusion electrode. An electrolysis plant has a corresponding electrolysis cell and a method for carries out electrochemical reactions with the electrolysis cell or electrolysis plant.

Separatorless dual GDE cell for electrochemical reactions

Various embodiments include an electrolysis cell comprising: a cathode space housing a cathode; a first ion exchange membrane including an anion exchanger and adjoining the cathode space; an anode space housing an anode; a second ion exchange membrane including a cation exchanger and adjoining the anode space; and a salt bridge space disposed between the first ion exchange membrane and the second ion exchange membrane. The cathode comprises: a gas diffusion electrode having a porous bound catalyst structure of a particulate catalyst on a support; a coating of a particulate catalyst on the first and/or second ion exchange membrane; and a porous conductive support impregnated with a catalyst.

Two-membrane construction for electrochemically reducing CO2

An electrode, which includes at least one tetragonally crystallized compound containing at least one element selected from the group of Cu and Ag, the crystal lattice of the compound being of the space group I4/amd type. An electrolysis cell includes the electrode.

Hydrocarbon-selective electrode

An electrolysis apparatus for producing ammonia, the apparatus comprising: a cathode; an anode; an electrolyte; a current source; a supply for nitrogen; and a supply for an acid, wherein the acid comprises at least one acid selected from the group consisting of: HCl, HBr, and HI.

Electrochemical method of ammonia generation

An electrolysis system and an electrolysis method wherein the electrolysis system includes a pressure-electrolytic cell and a throttle in the catholyte line, by which the catholyte flow can be divided into a gas and liquid phase. In this way, (by-)products of the electrolysis can be recycled, while the electrolytic cell can be operated effectively at a high pressure.

Electrochemical production of carbon monoxide and/or syngas

A method produces cross-linked hole-conducting electric layers by converting functionalized p-dopants. The functionalized p-dopants are organic metal complexes containing at least one central atom and organic ligands, wherein the central atom is selected from a metal of the groups 6-15 of the periodic table, and at least one of the organic ligands is selected from the following formulas I-V, in which E independently of one another is oxygen, sulfur, selenium, or N(E), and each Rhas at least one functionalizing group selected from the group Rincluding &#x2014;OH, &#x2014;COOH, &#x2014;NH, &#x2014;NHR', halogen, C2-C40-alkenyl, -dienyl, -alkinyl, -alkenyloxy, -dienyloxy, -alkinyloxy, acrylic acid, oxetan, oxiran, silane, acrylic acid, anhydride, and cyclobutane or consists of the groups, and G=C(R)HFwhere u+v+w=3 and n=1-4.

Crosslinking p-dopants for p-doping organic hole conductors

A device for the electrochemical production of a product containing CO, and a method for the electrochemical production of a product containing CO, in which a return of a material stream containing the educt and CO is carried out after the electrochemical production.

Method for the electrochemical production of a gas product containing CO

An optoelectronic component includes a substrate, a first electrode, a second electrode, and at least one organic functional layer, which is arranged between the first electrode and the second electrode. The organic functional layer includes a matrix material, a first compound, and a second compound. The first compound interacts with the second compound, and the first compound and/or the second compound interacts with the matrix material. A conductivity of the organic functional layer is produced by the interactions.

An organic electronic component is disclosed. In an embodiment an organic electronic component includes at least one organic layer having a fluorinated sulfonimide metal salt of the following formula: 

Organic electronic component and use of a fluorinated sulfonimide metal salt

The present disclosure relates to electrolysis. For example, an electrolysis system for carbon dioxide utilization may include: an electrolysis cell having an anode and a cathode, where carbon dioxide reduces at the cathode to at least one hydrocarbon compound or to carbon monoxide; first and second electrolyte reservoirs; a first product gas line from the first electrolyte reservoir; a second product gas line from the second electrolyte reservoir; a first connecting line supplying electrolyte from the first electrolyte reservoir to the anode; a second connecting line taking electrolyte from the anode to the second electrolyte reservoir; a third connecting line supplying electrolyte from the second electrolyte reservoir to the cathode; a fourth connecting line taking electrolyte from the cathode off to the first electrolyte reservoir; and a pressure-equalizing connection directly connecting the first and second electrolyte reservoirs.

Reduction method and electrolysis system for electrochemical carbon dioxide utilization

The present invention relates to n-dopants for doping organic electron transport materials, wherein the n-dopants have at least one aminophosphazene group of formula 1 having 4 nitrogen atoms bonded to a phosphorus atom. 

Amino phosphazene bases as n-dopants in organic electronics

A material is utilized with an electropositive metal. This can be used as post-oxyfuel process for oxyfuel power stations. Here, an energy circuit is realized by the material utilization. An electropositive metal, in particular lithium, serves as energy store and as central reaction product for the conversion of nitrogen and carbon dioxide into ammonia and methanol. The power station thus operates without COemissions.

Material utilization with an electropositive metal

A phosphorescent metal complex is provided, which comprises a metallic central atom M and at least one ligand coordinated by the metallic central atom M, wherein the one metallic central atom M and the ligand form a six-membered metallacyclic ring. Additionally specified are a radiation-emitting component comprising a metal complex, and a process for preparing the metal complex.

Phosphorescent metal complex compound radiation emitting component comprising a phosphorescent metal complex compound and method for production of a phosphorescent metal complex compound

An organic electronic component contains a substrate, a first electrode, a second electrode and at least one electron transport layer between the first and second electrode. The electron transport layer is a salt-like derivative of a phosphorus oxo compound as n-dopant.

Salts of phosphorus oxide as N-dopants for organic electronics

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Hemhofen, Germany

Günter Schmid