Leibniz-institut Fuer Neue Materialien Gemeinnuetzige Gmbh

Leibniz-institut Fuer Neue Materialien Gemeinnuetzige Gesellschaft MIT Beschraenkter Haftung

Basf Aktiengesellschaft

Canon Kabushiki Kaisha

Neo Technology, Inc.

Leibniz-insitut Fuer Neue Materialien Gemeinnuetzige Gmbh

Leibniz-institut Fuer Neue Marterialien Gemeinnuetzige Gmbh

Leibniz-institut Fuer Neue Materialien Gemeinneutzige Gesellschaft MIT Beschraenkter Haftung

Universität Des Saarlandes

Leibniz-institut Fur Neue Materialien Gemeinnutzige Gmbh

Itn Nanovation Ag

Michael Veith

Peter William De Oliveira

Peter Rogin

Peter William Oliveira

Carsten Becker-Willinger

Sener Albayrak

Peter Koenig

Hechun Lin

Oral Cenk Aktas

Norio Ohkuma

Yoshikazu Saito

Raimund Schmid

Mitsutoshi Noguchi

Oliver Seeger

Etsuko Hino

Ralph Nonninger

Wilma M Dausch

Pamela Kalmes

Dominic Vanoppen

Stefan Faber

Douglas Espin

Mohammad Jilavi

Bruno Schaefer

Jenny Kampka

Frank Narz

Martin Amlung

Michael Gros

Christian Petersen

Eve Awa Sow

Kroum Valtchev

Eckehard Fritscher

Anette Kraegeloh

Yann Patrick Wolf

Benny Siegert

Christian Wühr

Omid Yazdani-Assl

Sakthivel Shanmugasundaram

Christine Faller-Schneider

Marcus Geerkens

Heike Schneider

Hao Shen

Frank Meyer

Mario Quilitz

Sabine Heusing

Wolfgang Metzger

Peter W Oliveira

Carsten Bubel

Michael Bender

Sanjay Mathur

Hashim Abdul-Khaliq

Ali A Awadelkareem

Cenk Aktas

Ayman Haidar

Christian Wuehr

Martin Oberringer

Peter König

Annette Kraegeloh

The aim of the invention is to create a composition for coating electric conductors which is significantly more resistant to partial discharges than prior art compositions while the produced insulating layer is highly extensible. Said aim is achieved by a composition comprising 1 to 50 percent by weight of microparticles that have a specifically adjusted electronic defect structure in the crystal lattice, resulting in greater polarizability of the valence electrons, and an organic and/or organic-inorganic matrix. The microparticles that have a specifically adjusted electronic defect structure are composed of oxides, sulfides, selenides, tellurides of the elements which are part of the series encompassing silicon, zinc, aluminum, tin, boron, germanium, gallium, lead, the transition metals, lanthanides, and actinides, particularly from the series encompassing silicon, titanium, zinc, yttrium, cerium, vanadium, hafnium, zirconium, nickel, and/or tantalum, in such a way that the basic lattice is provided with vacant lattice positions by doping 4 the basic lattice with adequate low-valent or higher-valent elements, said vacant lattice positions increasing the electronic polarizability of the microparticles by means of defect chemistry (the defect structure).

Coating composition for electrical conductors and method of producing such a composition

The invention relates to a method for transferring surface structures such as interference layers, holograms, and other highly refractive optical microstructures to substrates. The aim of the invention is to devise a method which is used for transferring surface structures such as interference layers, holograms, and other highly refractive optical microstructures to substrates and can also be used in a high temperature range. The aim is achieved by a method comprising the following steps: a) a flexible intermediate support layer is applied to a support film as a release layer; b) an embossed sol is applied to the intermediate support layer and is provided with a surface structure; c) a stack encompassing a binder layer and the surface structure is produced; d) the support film is removed; e) the workpiece is thermally treated.

Method for transferring surface textures, such as interference layers, holograms and other highly refractive optical microstructures

A method for producing nanoscale particles by means of ionic liquids produces highly crystalline particles. The ionic liquids can be easily regenerated.

Synthesis of nanoparticles by means of ionic liquids

A method for producing coatings having anti-reflection properties uses a compound comprising at least one type of nanoparticle and at least one solvent. The compound is applied to a substrate and treated at various temperatures. Anti-reflection coatings can be obtained on temperature-sensitive materials such as PMMA or PET.

Method for producing coatings having anti-reflection properties

A composition for producing optical elements has a gradient structure, particularly for holographic applications, wherein the gradient structure is formed by a refractivity gradient. The composition is produced from a polymer and a light- and/or temperature-sensitive metal complex and the light- and/or temperature-sensitive metal complex is decomposed upon changing the local refractivity. The result is the formation of a refractivity gradient.

Composition for producing optical elements having gradient structure

A method for producing thin films, particularly for coating surfaces includes a) adding surface-active substances to flowable compositions comprising nanoscale inorganic particulate solids having polymerizable and/or polycondensable organic surface groups; b) forming one or more thin films stabilized by the accumulation of the surface-active substances at the interface(s), the forming of one or more thin films taking place through the generation of bubbles, foam, through the formation of minimal surfaces and/or through the wetting of surfaces; and c) solidifying the films by polymerization and/or polycondensation.

Method for producing thin films and the application thereof

Magnetic composite particles can be used as proppants and allow for deliberate heating by applying an alternating magnetic field.

Magnetic composite particles

The invention relates to a coating composition consisting of an oxide compound. The invention also relates to a method for producing a coating composition consisting of an oxide compound and to a method for coating substrates composed of metal, semiconductor, alloy, ceramic, quartz, glass or glass-type materials with coating compositions of this type. The invention further relates to the use of a coating composition according to the invention for coating metal, semiconductor, alloy, ceramic, quartz, glass and/or glass-type substrates.

Oxide compounds as a coating composition

The invention relates to the use of nanopatterned surfaces. It also relates to a method for enriching or isolating cellular subpopulations. To create a simple, versatile and specific method for enriching or isolating cellular subpopulations from a complex mixture, the invention proposes the use of nanopatterned surfaces for isolating and enriching cellular subpopulations from a complex mixture.

Use of nanopatterned surfaces and method for enriching or isolating cellular subpopulations

The invention provides a composite composition comprising a cationically polymerizable organic resin, a cationic photoinitiator, a hydrolysate and/or condensate of at least one hydrolysable silane compound and inorganic nanoparticles. The composite composition is suitable for the preparation of patterned moulded articles or substrates having a patterned coating, in particular by photolithography. Micropatterns obtained show improved properties, such as a high shape stability and an excellent elastic modulus.

Composite composition for micropatterned layers

A composition for producing optical elements having a gradient structure, particularly for holographic applications, is formed by a refractive index gradient. The composition is produced from one or more polymerizable and/or polycondensable monomers and at least one biological polymer. A potential difference is generated for the directed diffusion of the monomers by inducing a local polymerization or polycondensation. The result is the formation of a refractive index gradient.

Method and composition for producing optical elements having a gradient structure

Optical elements, in particular for holographic applications, have a gradient structure formed by a refractive index gradient and include one or more organic polymers and at least one ionic liquid.

Optical elements with gradient structure

The invention relates to a method for producing structured optical materials. It also relates to a device for producing structured optical materials, and to use of the method. In order to create a novel, continuous method for the production of structured optical materials, which is more economical than the known production method, it is proposed within the scope of the invention that optical material be applied to a carrier, a carrier or protective film be laminated onto the optical material, the resulting laminate be exposed to light and thereby structured, and subsequently a delamination of at least one of the films be performed.

Device for producing structured optical materials

A one-dimensional composite structure which comprises at least one nanowire. The nanowire comprises a metal core and a metal oxide sheath.

Metal nanowires with an oxide sheath and production method for same

The catalyst can be prepared by reduction of a precursor of a hydrogenation-active metal, which may be present on an oxidic support, by reaction with at least one compound of the formula (I)HM(OR)&#x2003;&#x2003;(I)where

Metallic hydrogenation catalysts, production and use thereof

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St. Ingbert, Germany

Michael Veith