17/18 January 2007 Wiener Neustadt - Czelo
17/18 January 2007 Wiener Neustadt - Czelo
17/18 January 2007 Wiener Neustadt - Czelo
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Wroclaw University of Technology, Institute of Physics<br />
Address Wybrzeze Wyspianskiego 27 Poland<br />
0 - Wroclaw<br />
Phone / Fax +48 71 3202027 / +48 71 3283696<br />
www www.pwr.wroc.pl<br />
Size 51-250<br />
Organisation Type University<br />
Contact Person<br />
Name Dr Mateusz Krzyzosiak<br />
Position research staff<br />
Email mateusz.krzyzosiak@pwr.wroc.pl<br />
Type of co-operation (Offered, Requested) Areas of activity<br />
Licence agreement<br />
Technical Co-operation (R&D) Boths<br />
Joint research project Boths<br />
Joint-venture agreement<br />
Manufacturing agreement<br />
Commercial agreement<br />
Financial agreement<br />
• Optical Networks/Systems<br />
• Coatings<br />
• Materials Technology<br />
• Ceramic Materials/Powders<br />
• Colours and varnish<br />
• Metals and Alloys<br />
• Optical Materials<br />
• Plastics, Polymers<br />
• Textiles Technology<br />
• Mechanical Engineering<br />
•<br />
Short description of company<br />
Research activities of the Condensed Matter Theory Group at the Institute of Physics (Wroclaw University of<br />
Technology) address a wide spectrum of topics in condensed matter theory. In the area of semiconductors<br />
physics properties of the strongly correlated two-dimensional electron liquid (Quantum Hall Effect) and properties<br />
of semiconductor quantum dots are studied. The theory of superconductivity in high-Tc systems is also<br />
developed. Problems of the local structure of liquids are also studied as are the issues of information storage and<br />
processing in polymer and liquid crystal systems. In our group the ab inito calculations of molecular and solid<br />
state structures are performed. Within the scope of research are also the recent proposals for solid state<br />
implementations of quantum information processing. In particular, decoherence in such systems are studied.<br />
Studies of interactions between nano-sized objects and surrounding enviroment have been recently intensively<br />
developed in the context of nano-modified materials.<br />
Research in such a wide spectrum is possible due to cooperation of senior institute staff with a large group of<br />
PhD and graduate students. International cooperation as well as active participation in national and international<br />
research projects plays an important role in the dynamics of our research activities.<br />
Research activites are complemented by a wide educational offer for university students, including specialized<br />
lectures in methods of solid state theory (e.g. Green functions, group theory), quantum information, quantum<br />
cryptography and quantum optics.<br />
1. Profile: Expertise: Physics of nano-scale objects embedded in a bulk environment<br />
DESCRIPTION:<br />
Previous studies on quantum dot systems conducted at Wroclaw University of Technology pointed out that the<br />
mutual interaction between nano-sized objects and surrounding environment is crucial for feasibility of various<br />
practical implementations. Moreover, it seems that the overwhelming trend for miniaturization will be slowed<br />
down or even stopped at some point due to inherently different physical laws that govern systems on the<br />
nanometer scale. It is worth to underline that the majority of phenomena in nano-scale objects (e.g. quantum<br />
dots), do not have their counterparts in atomic and bulk condensed matter physics. This especially affects the<br />
object-environment interaction, which is highly sensitive to unavoidable excitations such as phonons or magnons,
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