Schott Ag

Joerg Schuhmacher

Friedrich Siebers

Andreas Roters

Meike Schneider

Eveline Rudigier-Voigt

Miriam Kunze

Franziska Back

Hans-Joachim Schmitt

Gabriele Roemer-Scheuermann

Ulrich Peuchert

Marten Walther

Matthias Bockmeyer

Jochen Alkemper

Christian Henn

Hauke Esemann

Matthias Bicker

Michael Kluge

Volker Hagemann

Inka Henze

Ulf Dahlmann

Manfred Lohmeyer

Jens Suffner

Andrea Anton

Olaf Claussen

Martun Hovhannisyan

Philipp Treis

Silke Knoche

Axel Kalleder

Yvonne Menke-Berg

Robert Hormes

Bastian Schoen

Hrabanus Hack

Gerhard Weber

Martin Muhler

Oliver Sohr

Jochen Drewke

Sylvia Biedenbender

Sven Schopf

Arno Kwade

Franziska Riethmueller

Sven Rebsamen

Jochen Herrmann

Rolf Samsinger

Jochem Herrmann

Thomas Emmerich

Matthias Woelfinger

Christian Helbig

Ralf Eiden

A method for producing a conductive composite material for a battery such as a solid-state battery includes providing an ion-conducting electrolyte matrix that can be plasticized and that includes an ion-conducting first substance a base substance that can be plasticized and/or a polyelectrolyte; providing a second ion-conducting substance in the form of ion-conducting particles; introducing the ion-conducting particles into the electrolyte matrix to produce a mixture consisting of the ion-conducting particles and the electrolyte matrix; and homogenizing the mixture.

Method for producing a conductive composite material for a battery, and conductive composite material

An additive for electrochemical energy storages is disclosed, wherein the additive contains at least one silicon- and alkaline earth metal-containing compound V1 which in contact with a fluorine-containing compound V2 in the energy storage forms at least one compound V3 selected from the group consisting of silicon- and fluorine-containing, lithium-free compounds V3a, alkaline earth metal- and fluorine-containing, lithium-free compounds V3b, silicon-, alkaline earth metal- and fluorine-containing, lithium-free compounds V3c and combinations thereof. Also disclosed is an electrochemical energy storage containing the additive.

Additive for electrochemical energy storages and electrochemical energy storage

A lithium-ion-conducting composite material is provided that includes at least one polymer and lithium-ion-conducting particles. The interfacial resistance for the lithium-ion conductivity between the polymer and the particles is reduced as a result of a surface modification of the particles and therefore the lithium-ion conductivity is greater than for a comparable composite material wherein the interfacial resistance between the polymer and the particles is not reduced.

Lithium-ion-conducting composite material, comprising at least one polymer and lithium-ion-conducting particles

An optical filter, a process for producing an optical filter, and the use of the optical filter are provided. The optical filter includes a substrate and a filter layer on at least one side of the substrate. The filter layer has a matrix and at least one organic dye dissolved in the matrix. The filter layer has optical homogeneity.

Optical filter

The invention relates to a container comprising a container body having an outer surface and an inner surface, wherein

Container with low particulate emission and friction controlled dry sliding surface and methods for producing same

A catalytically active material is provided. The material includes a mixed oxide having a first metal selected from group 4 of the periodic table of elements and/or a second metal, and at least one further metal selected from group 11 of the periodic table of elements, wherein the macroscopic composition of the material given by the chemical formula corresponds to the composition of the material at a molecular level. A coating made of such a material is also provide, as is an article having such a coating, and a method for producing such a material.

Catalytically active material, method for producing same, and use thereof

Provided are a dispersion of a nanoparticulate mixed oxide of SiOwith at least one further metal oxide in a matrix monomer, methods for preparing such a dispersion, a dental composite producible by curing such a dispersion, and uses of the dispersion as a precursor for dental composites.

Dispersions of nanoscale dental glass particles and methods for preparing the same

A composite is provided that has a structured sol-gel layer on a substrate. The sol-gel layer is extremely resistant against mechanical stress and other influences from outside due to its production method. The composite is suitable for use in a lot of technical fields, since the sol-gel layer can be provided with nearly any arbitrary structure. For example, the structure may result in optical effects and may be used in optical systems.

Composite and method for the production thereof

In order to provide a decorative coating () which exhibits improved temperature resistance and strength on glass and glass-ceramic and which also has no strength-reducing effect on the substrate (), or at least no longer has any substantially strength-reducing effect on the substrate, the invention envisions a process for producing glass or glass-ceramic articles having a decorative layer in which at least one decorative pigment () is mixed with a sol-gel binder (), and the pigment mixed with the sol-gel binder is cured on the glass or glass-ceramic substrate of the article by annealing, to form a decorative layer having a porous ceramiclike structure.

Glass or glass-ceramic articles with decorative coating

The invention discloses an SiO&#x2014;TiOglass, which is preferably made by flame-hydrolysis and which distinguishes itself by increased resistance to radiation, especially in connection with EUV lithography. By purposefully reducing the hydrogen content, clearly improved resistance to radiation and reduced shrinking is achieved.

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Growing community of inventors

Kornwestheim, Germany

Joerg Schuhmacher