Forschungszentrum Juelich Gmbh

Sony Deutschland Gmbh

Deutsches Krebsforschungszentrum

Forschungszentrum Julich Gmbh

Dirk Mayer

Andreas Offenhaeusser

Akio Yasuda

Jurina Wessels

Daniel Schwaab

Alexey Yakushenko

Sandra Gilles

Bjoern Luessem

Manfred Wiessler

Helmut Soltner

Herbert Bousack

Marko Banzet

Zoi Karipidou

Peter Lorenz

Bernhard Wolfrum

Heinz Fleischhacker

Nouran Yehia Adly Hassan

Gregor Kron

Jan Hendrik Schnitker

Yaqing Liu

Riccardo Funari

Akos Schreiber

Marc Riedel

Andreas Offenhäusser

Stefanie Hamacher

Kay Johannes Krause

Ranjita Ghosh-Moulick

Andreas OFFENHÄUSSER

Andreas Offenhäuser

A method for producing a memory cell includes providing a non-conductive substrate, mounting a first conductor track made of conductive material on the non-conductive substrate, mounting a porous dielectric with or without redox-active molecules in a form of points on the first conductor track, and mounting a second conductor track orthogonally to the first conductor track, wherein the first and second conductor tracks have an electrode function at their intersection point, and wherein the porous dielectric is arranged between the electrodes. The method further includes mounting a passivation layer on the substrate, the first conductor track, the dielectric, and the second conductor track, so that the conductor track remains contactable. The first and the second conductor track form a memory at their intersection point with the dielectric arranged between them, in which the redox reaction of the redox-active molecules is configured to be driven by a voltage.

Method for producing a memory cell having a porous dielectric and use of the memory cell

A method for producing an ink includes providing nanoparticles having a size of 0.1 to 20 nm maximum by wet milling using a solvent and covalently bonding, by means of a coupling reaction, short-chain, branched organic stabilizer molecules to the surface of the nanoparticles. The method additionally includes absorbing the stabilized nanoparticles in a solvent for producing the ink and dispersing the stabilized nanoparticles.

Method for producing an ink, ink, and use of same

An electrode array for the cyclic reduction and oxidation of a redox species in an electrolyte, wherein both electrodes are disposed on an insulating substrate and connected to a counter electrode for the application of a voltage, comprising: 1) a control electrode for reacting the redox species for cyclic electron transport between the electrodes: and b) a collector electrode disposed opposite the control electrode, wherein a layer structure composed of a second insulator and a charge transfer mediator disposed thereon is additionally disposed on the side of the collector electrode located opposite the insulating substrate for reacting the redox species. Two methods for operating the electrode array are disclosed.

Electrode array and method for operating the electrode array

The invention relates to a method for producing a nanoporous layer on a substrate.

Method for producing a nanoporous layer on a substrate

The present invention concerns a method for applying a first metal onto a second metal, an isolator or semiconductor substrate by a Diels-Alder reaction, in particular a Diels-Alder reaction with inverse electron demand. The present invention further concerns the binding units L 1960 and F 160.

Method for applying a first metal onto a second metal, an isolator or semiconductor substrate, and the respective binding units

A sensor array for measuring the deformation of an area caused by a force, comprises a first strip and a second strip arranged in the same plane on the area so as to form a tunnel junction of which at least the first strip is movably arranged on the area so that the gap between the two strips is increased when the area is deformed as a result of the action of the force.

Infrared sensor comprising tunnel junction for measuring the deformation of a membrane

A method of applying a pattern of metal, metal oxide, and/or semiconductor material on a substrate, a pattern created by that method, and uses of that pattern.

Method of applying a pattern of metal, metal oxide and/or semiconductor material on a substrate

A method of applying material on a substrate. The material to be applied can be a pattern of material.

Method of applying a material on a substrate

A method and associated substrate is provided for applying a layer or pattern of metal on a substrate. The method includes providing a target substrate, immobilizing a layer of polymeric material on the target substrate, and applying and immobilizing a layer or pattern of metal on the layer of polymeric material on the target substrate using a stamp onto which the layer or pattern of metal has previously been applied, by bringing the stamp into conformal contact with the target substrate.

Method of preparing a substrate having a layer or pattern of metal on it

The present invention relates to a method of patterning molecules on a substrate using a micro-contact printing process, to a substrate produced by said method and to uses of said substrate. It also relates to a device for performing the method according to the present invention.

Method of patterning molecules on a substrate using a micro-contact printing process

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Frechen, Germany

Dirk Mayer