Stora Enso Oyj

Adidas Ag

Covestro Deutschland Ag

Rheinisch-Westfalische Technische Hochschule (Rwth) Aachen

Rheinisch-Westfalische Technische Hochschule Aachen

Rheinisch-Westfälische Technische Hochschulte (Rwth) Aachen

Trutzschler Gmbh & Co Kg

Rwth Aachen

Schmidt & Heinzmann Gmbh & Co. Kg

Cookson Precious Metals, Ltd.

Vogel, Thilo

Jockenhövel, Stefan

Thomas Gries

Christian Wamprecht

Christoph Gürtler

Thomas Schmitz-Rode

Gunnar Seide

Niklas Garoff

Brian Hoying

Dimitri Areskogh

Harald Geyer

Richard Brüssel

Thorsten Deichmann

Andreas Mahnken

Florian Poegl

Jochen Norwig

Nils Schedukat

Pavan Manvi

Andreas De Palmenaer

Stephan Walter

Valentine Gesché

Stefan Jockenhövel

Goran Gellerstedt

Wilhelm Steinmann

Marco Fischhold

Mathias Simon Beer

Alexander Löwen

Richard Ramakers

Göran Gellerstedt

Isabel Schrepfer

Richard Riedlinger

Kristina Fuhrmann

Stephen Walter

Alexander Lüking

Björn Schulz

Davide Pico

Stefan Weinandy

Thilo Vogel

Marijan Barle

Andreas Roye

Pavan Kumar Manvi

Frederik Cloppenburg

Ruben Kins

Valentine GeschÉ

Ian Campbell

Thilo Becker

The present invention relates to a shoe upper, in particular an upper knitted on a circular knitting machine, including an elongated hollow knit structure, including: a first zone including a first predetermined property; a second zone including a second predetermined property; wherein the elongated hollow knit structure includes less than ten distinct ply types of yarn including less than five distinct materials.

Circular knit shoe upper

The invention relates to a method for producing a stent graft. The method comprises providing a graft made of a first polymer-based material and applying a stent structure comprising a plurality of struts made of a second polymer-based material onto the graft by means of an additive manufacturing method. The invention further relates to a stent graft produced by means of the method.

Stent graft and method for producing same

The invention relates to melt spun multifilaments based on thermoplastic polyurethane, their production and the use of said melt spun multifilaments to produce technical textiles and clothing such as socks, stockings, compression textiles like medical bandage, surgical hose, orthopedic elastic bandage, sport textiles, underwear etc.

Melt spun multifilaments based on thermoplastic polyurethane, their production and use

A three-dimensional knitted fabric with a large-diameter circular knitting machine is knitted with a plurality of stitches that form a plurality of stitch courses oriented in each case in a stitch-course direction of the knitted fabric and a plurality of stitch wales oriented in each case in a stitch-wale direction of the knitted fabric, wherein at least one of the stitches is in the form of at least one corrugation-forming stitch, which extends in the stitch-wale direction over a plurality of stitch courses and binds at least one corrugation in the knitted fabric.

Method for knitting a three-dimensional knitted fabric

The present disclosure relates to a thermally reactive thermoplastic intermediate product, in the form of a shaped body, wherein the intermediate comprises a composition, wherein the composition comprises a purified or optionally unpurified softwood lignin and at least a first additive.

Thermally reactive thermoplastic intermediate product and method of manufacturing thereof

The present invention relates to a conductive carbon powder emanating essentially from lignin, a method for the manufacturing thereof and use thereof. Said powder may emanate from an electrically conductive carbon intermediate product, in turn emanating essentially from lignin. Further, uses thereof and compositions comprising said carbon powder are disclosed. Additionally methods for manufacturing said conductive carbon powder, also involving an electrically conductive carbon intermediate product emanating essentially from lignin, are disclosed together with a method for making said compositions.

Conductive carbon powder, a method for the manufacturing thereof and use thereof

A method for producing an inorganic silica gel fiber or aerogel fiber, comprising the following steps: a) extrusion of a gel, in particular a hydrogel or alcogel, by means of a spinneret directly into a coagulation bath to form at least one filament, b) stretching of the filament in the coagulation bath, c) regeneration of the filament by extraction from the coagulation bath, and d) supercritical drying or freeze drying in order to convert the filament into a silica fiber, in particular an aerogel fiber.

Method and device for producing inorganic aerogel fibers

Growing community of inventors

Aachen, Germany

Thomas Gries