Home | english  | Impressum | Sitemap | KIT
Ferdinand Evers
Group leader
Prof. (apl.) Ferdinand Evers

+49 (0)721 608 43362 (TKM)
+49 (0)721 608 26444 (INT)
ferdinand eversXeh2∂kit edu

A Bagrets
Principal Investigator
Dr. Alexej Bagrets

+49 (0)721 608 26359
alexej bagrets∂kit edu

Computational Condensed Matter Theory Group

Material sciences deliver novel material classes like topological insulators or graphene; the nanosciences provide measurements of single molecules and atoms. We investigate such systems with computational means. Our emphasis is on transport and dynamics.

Agenda

Upcoming events

11th to 14th of March 2014, Workshop:

"Recent Progress and Perspectives in Scaling, Multifractality, Interactions, and Topological Effects Near Anderson Transitions"

Max Planck Institute for the Physics of Complex Systems, Dresden

Organizers
Ferdinand Evers, Karlsruhe Institute of Technology, Karlsruhe, Germany.
Ilya Gruzberg, The University of Chicago, USA
Victor Kagalovsky, Shamoon College of Engineering, Beer Sheva, Israel

Past events

25th and 26th of July 2013, Minisymposium: Trends in GW-approaches for Nano-Sciences in Europe

Teaching WS 2013/2014

Computational Condensed Matter Theory

F. Evers, P.Schmitteckert, A.Poenicke
Lecture: Do, 09:45-11:15 weekly

Location: 30.22 Kl. HS B 
Practice: Mo, 09:45-11:15 weekly
Location: 30.23  Raum 10/1 Physik-Hochhaus
more

 

Open projects

We are currently looking for a Hiwi to develop a graphical tool for visualizing and edditing supermolecular structures.

Here you will find a more extended description.

Anderson Transitions and Quantum Criticality in Novel Materials: Topological Insulators, Graphene and Friends

Electronic wavefunction near a quantum Hall transition.
Electronic wavefunction near a Quantum Hall transition exhibiting multifractal amplitude fluctuations.

Disorder of some kind is a ubiquitous encounter in any macroscopic solid. From the fundamental point of view it creates novel material classes where interference, quantum phase transitions and the physics of rare events dominate the phase diagrams. 

[read more]


Molecular Electronics

Schematics of an experimental setup for measurement of single molecule transport
Typical setup of a molecular transport experiment

Molecules represent classes of quantum dots that exhibit unique properties. A profound fundamental interest is especially in molecular systems close to instabilities, because the latter tend to leave a pronounced effects on the transport characteristics.

[read more]


Molecular Materials and Their Cooperative Phenomena

Graphene flake with zigzag termination and buckling.
Graphene flake with zigzag termination and buckling.

Molecular Materials comprise a broad class of solids including graphene, supramolecular structures and hypothetical metamaterials. Their cooperative properties are rich, tunable and can often be obtained quantitatively with sophisticated ab intio methods.

[read more]