The Kamerlingh Onnes Laboratory has 6 research groups that deal with Atomic and Molecular Conductors, Interface Physics, Magnetic and Superconducting Materials, Quantum Physics of Nanostructured Materials, Quantum Physics and Applications at Ultra Low Temperatures, Granular & Disordered Media, and Physics of Surfaces and Materials.
NanoNed, the Nanotechnology network in the Netherlands, is an initiative of eight knowledge institutes and Philips. It clusters the nanotechnology and enabling technology strengths of the Dutch industrial and scientific nanotechnology knowledge infrastructure in a national network.
NanoNextNL is a consortium of more than one hundred companies, universities, knowledge institutes and university medical centres, which is aimed at research into micro and nanotechnology. The total sum involved for NanoNextNL is 250 million euros, half of which is contributed by the collaboration of more than one hundred businesses, universities, knowledge institutes and university medical centres and the other half by the ministry of Economic affairs, Agriculture and Innovation.
The NIMIC consortium (Nano-IMaging under Industrial Conditions) is aimed at making a wide variety of physical, chemical and biological processes visible that take place on the scale of atoms and molecules. The powerful, new microscopes that NIMIC develops are being applied to catalysis, breast cancer research and nanotechnology.
A world-class interdisciplinary place for applied research aiming at business creation in the field of microsystems and nanotechnologies, enabled by innovations in materials and processing methods, state-of-the-art cleanroom infrastructure and a full spectrum of characterization facilities.
The aim of IMM is to conduct research in the field of functional molecular structures and materials. There is an emphasis on understanding and controlling complexity in order to be able to design new functionality in these systems. This research area can roughly be divided into two main themes: bio-inspired systems and nano/mesoscopic structures.
The research program of the Feringa group at the University of Groningen in the Netherlands is focussed on synthetic organic chemistry with a major part of the research is directed towards nanotechnology and novel functional materials, like molecular switches and motors.
The Top Master programme in Nanoscience aims to train the cutting-edge scientists of the future. This is achieved by offering a challenging interdisciplinary programme and by admitting only very talented and motivated students. The courses are taught by top international scientists, and a large part of the programme consists of actually conducting scientific research, alongside world-class scientists, using the state-of-the-art facilities of the Zernike Institute.
Within the NanoLab NL program, the infrastructure in Groningen is designed to function as the Dutch center for bottom-up (bio)molecular electronics and functional (bio)molecular nanostructures, and for the development of nanostructures based on supramolecular interactions and molecular lithography.
The classic materials triangle concerns an integrative approach in the three aspects of structure, property and chemical composition. The Zernike Institute for Advanced Materials adds an extra dimension to this traditional view by an unconventional linkage to the field of biomolecular sciences, which includes the design aspects as well.
The group works in the field of nanophysics, where they concentrate on the electronic transport properties of atomic-sized conductors. These include single-atom contacts, chains of individual atoms and single molecules.
For many years, the group's research theme has been the resonant interaction of electromagnetic waves, or photons, with condensed matter, consisting in most cases of organic molecules. Photons can be simply absorbed by matter, they can flip spins in a magnetic field in Electron Paramagnetic Resonance (EPR), or excite the electron cloud in optical absorption experiments. However, many of the effects they look at are more complex, nonlinear. They study, for example, the effect of two frequencies on spin echoes in EPR, the emission of light at wavelengths different from that of the excitation laser (fluorescence), and the effect of spin resonance on this emission (optically detected magnetic resonance, ODMR), or phenomena involving two or more photons, such as spectral hole-burning.