Press Releases / Pressemitteilungen

The ‘Knight of Graphene’ Visits TU Dresden: cfaed Welcomes Nobel Prize Laureate Sir Konstantin S. Novoselov FRS for Distinguished Lecture

PRESS RELEASE / PRESSEMITTEILUNG 14 September 2016

Published on Wed, 14 Sep 2016 in PRESS RELEASES

(Deutsche Version unten)

On September 16, Nobel Prize Laureate Professor Sir Konstantin S. Novoselov FRS (University of Manchester) will present his lecture ‘Graphene: Materials in the Flatland’ at TU Dresden. The talk will be given within cfaed's Distinguished Lecture Series which invites top scientists to Dresden.

Professor Sir Novoselov is one of the ‘inventors’ of the ‘wonder material’ graphene. This truly single-layered carbon allotrope was first discovered in 2004 by Konstantin Novoselov and Andre Geim. After the isolation of monolayer graphene and characterizing it, the two scientists published a paper about the vast potential of the material’s properties. In 2010, Novoselov and Geim received the Nobel Prize in Physics “… for groundbreaking experiments regarding the two-dimensional material graphene”. Graphene consists of a single layer of carbon atoms that are bonded together in a hexagonal pattern. The material is ultra-light and immensely strong at the same time, conducts both electricity and heat better than copper and can be utilized in numerous disciplines.

PRESS RELEASE: Joint Kick-Off Event ESF „Graphene Center Dresden“ and 2.5D-Path of the Center for Advancing Electronics Dresden (cfaed)

Published on Thu, 08 Sep 2016 in PRESS RELEASES

Press photos

All photos: cfaed / Katharina Knaut

Deutsche Version unten

On September 7th, the official start of the ESF-supported Young Researcher Group ‘Graphene Center Dresden’ (GraphD) took place at TU Dresden. In addition, the initiation of a new path dedicated to two dimensional materials within the Cluster of Excellence Center for Advancing Electronics Dresden (cfaed) was celebrated with the participation of very distinguished guests.

When electrons spin differently - Prof. Xinliang Feng contributed to Nature Paper

Graphene nanoribbons: it's all about the edges

Published on Thu, 24 Mar 2016 in PRESS RELEASES

[Deutsche Version unten]

As reported by the journal Nature in its latest issue, researchers from Empa, the Max Planck Institute in Mainz and the Technical University of Dresden have for the first time succeeded in producing graphene nanoribbons with perfect zigzag edges from molecules. Electrons on these zigzag edges exhibit different (and coupled) rotational directions ("spin"). This could make graphene nanoribbons the material of choice for electronics of the future, so-called spintronics.

Graphene slides smoothly across gold

cfaed Professor Xinliang Feng Co-authors Publication in 'Science' Journal

Published on Fri, 04 Mar 2016 in PRESS RELEASES

Visualization graphene nanoribbon — A graphene nanoribbon was anchored at the tip of an atomic force microscope and dragged over a gold surface.

(Deutsche Version unten)

Graphene, a modified form of carbon, offers versatile potential for use in coating machine components and in the field of electronic switches. An international team of researchers led by physicists at the University of Basel, and including TU Dresden (Dr. Andrea Benassi and Dr. Xinliang Feng) have been studying the lubricity of this material on the nanometer scale. Since it produces almost no friction at all, it could drastically reduce energy loss in machines when used as a coating, as the researchers report in the journal Science.

World’s First Parallel Computer Based on Biomolecular Motors

A study reports the realization of a parallel computer based on designed nanofabricated channels explored in a massively parallel fashion by protein filaments propelled by molecular motors.

Published on Thu, 25 Feb 2016 in PRESS RELEASES

(See German version below)

A study published this week in Proceedings of the National Academy of Sciences reports a new parallel-computing approach based on a combination of nanotechnology and biology that can solve combinatorial problems. The approach is scalable, error-tolerant, energy-efficient, and can be implemented with existing technologies. The pioneering achievement was developed by researchers from the Technische Universität Dresden and the Max Planck Institute of Molecular Cell Biology and Genetics, Dresden in collaboration with international partners from Canada, England, Sweden, the US, and the Netherlands.