Hybrid biological and synthetic particles have been developed which simulate the properties at the cell surfaces. On the surface of these cell-mimetic, i.e. cell-imitating, nanoparticles, membrane proteins are bound in such a way that their biological properties are fully maintained.
FriMat combines a leading fundamental research program on soft condensed matter and solid state physics with an innovative approach to synthesize novel compounds in order to create and study advanced materials. FriMat is determined to not only focus on the creation of novel materials and promote nanotechnology, but investigates into potential risks associated with nanoparticles, and develops new tools essential in any attempt to sample and characterize nanoparticles in the environment.
The Friedrich Miescher Institute is devoted to fundamental biomedical research. As part of the Novartis Research Foundation and one of the institutes of Novartis Corporate Research, the institute's goal is to exploit new technologies to further the understanding of the basic molecular mechanisms of cells and organisms in health and disease.
The Frontiers consortium is designed on five criteria: individual excellence in science, excellent nanotechnology infrastructure (clean room facilities), proven capability to initiate start-ups on the basis of new technology, outstanding relations with nanotechnology initiatives all over the world and, finally, a proven track record in cooperating with other members of the consortium. Frontiers consists of 192 scientists from 11 different research institutions scattered over Europe.
The objective of the society is to create an opportunity to provide information concerning basic science and applied technology relating to nano carbon based materials such as fullerenes, carbon nanotubes and graphene and to provide an opportunity for members to get together.
The objective of this EU project is the investigation and deliberate steering of supramolecular self-organization using complex molecules at well-defined substrates for the fabrication of functional nanostructures.
FUNFOX is a European Commission funded program which will demonstrate the capabilities of photonic crystals (PhC) to provide miniature and improved semiconductor optoelectronic devices needed in metropolitan core and access segments of optical networks.
The joint research project of four institutes, entitled 'FUNgraphen' and funded by the German Federal Minister of Education and Research (BMBF), will build an innovation center aiming at the development of unconventional carbon nano materials, novel flat carbon macromolecules, nanocomposites and multilayer systems. Key components are large area ultrathin single layer carbon materials (graphene) with average diameter of around 0.1 nm as new 2D carbon macromolecules produced from natural graphite.
FUNMAT is a newly established national consortium for research within functional materials and nanotechnology and has four senior partners: The University of Oslo; Norwegian University for Science and Technology (NTNU), Trondheim; SINTEF, Trondheim and Oslo; Institute for Energy Technology (IFE).
GALAXY - GALs interfAce for compleX digital sYstem integration. This EU project proposes to provide an integrated GALS (Globally Asynchronous, Locally Synchronous) design flow, together with novel Network-on-Chip capabilities, that will materially aid embedded system design for a significant class of problems. The project will evaluate the ability of the GALS approach to solve system integration issues and, by implementing a complex wireless communication system on an advanced 45nm CMOS process, explore the low EMI properties, inherent low-power features and robustness to process variability problems in nanoscale geometries.
The mission of the Micro and Nano Structures Organization is to apply frontier research knowledge and engineering techniques to synthesize, manipulate, and modify materials to create novel electronic devices, photonic devices, integrated structures and machines.
This MURI project at Georgia Tech is focused on a revolutionary new paradigm for fabricating micro/nanodevices: the synergistic use of genetic engineering, biological replication, and shape-preserving chemical conversion to generate enormous numbers of identical Genetically-Engineered Micro/nanodevices (GEMs) with tailored 3-D shapes, fine (meso-to-nanoscale) features, and chemistries.
The Mason Nanotechnology Forum has developed a Graduate Certificate in Nanotechnology and Nanoscience to address the need for qualified professionals in these critical areas. The Mason NANO graduate certificate is composed of five courses (15 credit hours) focusing on two key areas of knowledge: (1) nanomaterials and nanostructures and their relation to bulk materials, and (2) methods for characterization and production of nanomaterials.
The Mason Nanotechnology Initiative opens a space for discussion and planning of activities related to nanoscience and nanotechnology within Mason. The efforts target the development of new academic programs within the university that contain a strong component of subjects in science, mathematics and engineering, which are fundamental to nanoscience and nanotechnology.
The focus of research of this group is the synthesis, study and application of solid-state inorganic materials with technologically significant magnetic, electrical, optical, electrochemical or catalytic properties. Of particular interest are nanoscale (1 - 20 nm diameter) materials.