Science

Researching a variety of complex systems from an ab initio standpoint. Most of the investigations fall into the broad categories of photonic crystals and optics (photons) or atomic systems and electronic structure (atoms). Headed by Prof. J. D. Joannopoulos

The neutron scattering facilities of the high flux research reactor are available for outside users on problems of scientific merit. Although the main purpose of the HFIR is to produce transplutonium elements for use in industry, medicine and research, the reactor's extremely high flux also makes it a source of neutrons for condensed matter investigations.

Institute for Condensed Matter Physics.

Research in the shaped crystals growth. Main interest is a Sapphire shaped crystals growth: sapphire tubes, rods, and ribbons. For optics, mechanics, medicine and other applications.

Information on nano-scale research, development and production applications using focused ion beam and other technologies for archival data storage, MEMS, micromachining and semiconductor applications.

National Academy of Sciences of Ukraine.

Magnetic properties of nano structures by Conversion Electron Moessbauer Spectroscopy - CEMS. Department of solid state Physics, Krakow, Poland.

These pages contain information on the research interests, members and publications of the group.

One of Russia's largest institutions for research in physics and technology with a wide variety of operating projects.

Research group on photothermal techniques, including thermal properties measurements of solids, liquids and gases.

led by Joseph N Grima.

Part of the Joint Institute for Nuclear Research in Dubna, Russia, the group works on disordered structures, topological defects in solids, carbon nanostructures, biophysics, quasicrystals, glasses, amorphous solids, Josephson junctions and granular superconductors

At Arizona State University. Research activities include solid state physics and chemistry, earth and planetary sciences and materials research.

Heavy ion accelerator applied to basic solid state research and engineering. In German and English.

Research into the areas of soft condensed and biological matter, nanomagnetism and highly correlated electron systems.

At the Laboratory of Atomic and Solid State Physics.

Research is focused on nanostructure, low-temperature, x-ray and soft condensed matter physics.

Undertaking research into the properties of a variety of semiconducting heterostructures, devices and carbon nanotubes. Also studying advanced designs for photovoltaic cells. At the Clarendon Laboratory, Oxford, UK.

Large Facilities in Switzerland for the study of solid and liquid condensed matter with Neutron and Muons beams.

Chair of Solid State Physics at the Friedrich-Alexander-University Erlangen-Nuremberg in Germany. Investigates the structural and electronic properties of surfaces with methods like Two-Photon Photoemission Spectroscopy (2PPE), Scanning Tunneling Microscpy (STM) and Low-Energy Electron Diffraction (LEED).

Official Website of the Spintronics Research Group of Prof. Dr. Jaroslav Fabian at the University of Regensburg, Germany.

Our research focuses on the electronic, spin-related and luminescence properties of nanoscale objects such as metallic nanostructures, single molecules and atoms, quantum point contacts. Scanning-probe techniques are employed for this purpose, notably STM.

Workgroup of Jens Pflaum from Experimental Physics 6 at the University of Wuerzburg! Our research focuses on organic materials and their fundamental physics with emphasis on possible applications.

Study of quantum correlated phenomena in semiconductor nanostructures in GaAs, Si or carbon based materials. Part of the NTT basic research lab in Japan.

Study of many different aspects of cutting-edge Superconducting Materials at Ultra Low Temperatures. Research Group within the School of Physics and Astronomy at Birmingham University (UK).

The NANO-PHYSICS group at ETH Zürich focuses on the preparation of ultra-small semiconductor structures with the aim to investigate experimentally new, unusual and unexpected physical systems at the crossover between classical physics and quantum physics.

The group pursues the innovative development of hybrid devices by combining different types of micro/nanostructures such as low-dimensional semiconductor structures, superconducting circuits, and micro/nanomechanical systems.

The research target is to realize ultra-low power and high functional devices, high-sensitivity devices, and high-precision devices by utilizing nanometer-scale structures.

Fabrication of ultra-fine structures beyond the limit of conventional lithography by controlling atomic processes on surfaces will lead to significant breakthrough in the future semiconductor technology.