The NANOCAGE project brings together a number of leading European nanoscience groups on a research problem which involves not only a novel materials system but a variety of cutting edge spectroscopic techniques. Interpretation of the spectroscopic measurements will in turn be facilitated by the application of a number of powerful theoretical methods. This combination of interdisciplinary research, challenging experimental techniques, an exotic materials system, and comprehensive theoretical work provides an exceptionally strong PhD training programme in nanoscience.
NanoCap is a European project that is set up to deepen the understanding of environmental, occupational health and safety risks and ethical aspects of nanotechnology. Therefore a structured discussion is organised between environmental NGOs, trade unions, academic researchers and other stakeholders. NanoCap is the acronym for 'Nanotechnology Capacity Building NGOs'. This project will enable environmental NGOs and trade unions to participate in a debate on nanotechnology at European level.
The EU FP7 NanoCharM project (Multifunctional NanoMaterials Characterization
exploiting Ellipsometry and Polarimetry) will promote and develop the use of non-destructive characterization of nanomaterials using polarimetry and ellipsometry techniques.
The intellectual merit of this NSF-funded program is based on the creation of new knowledge in four areas: (a) the synthesis and extension of existing knowledge about ethical issues in nanotechnology research and applications; (b) the synthesis and extension of existing knowledge about environmental, health, safety, and security impacts of nanotechnology; (c) documentation of the levels and changes over time of the geographic distribution within the US and among countries of nanotechnology-related patents; and (d) development and validation of the empirical relevance for policy, research, and public information of NanoIndicators.
This European project's goal is to establish new methodologies (high-resolution ion microscopy, radiotracer) on skin cross sections to study the quality of skin as a barrier against formulations containing nanoparticles.
The main objective of this FP7 project is a development and validation of technologies for the detection and analysis of single nanoparticles in complex environments. The project is based on the new experimental phenomenon discovered recently by one of the project partners: single sub-wavelength objects give rise to optical signals in surface plasmon resonance microscopy.
The main project goal is to develop innovative concepts and reliable methods for characterizing engineered nanoparticles in workplace air with novel, portable and easy-to-use devices suitable for workplaces.
Development of Novel Nanotechnology Based Diagnostic Systems for Rheumatoid Arthritis and Osteoarthritis (NanoDiaRA). The main objective of this large-scale integrating project is the development of modified superparamagnetic nanoparticles as a diagnostic tool for the detection of early stages of arthritis. In addition to research, the project will consider the social, ethical and legal aspects of applying nanotechnology for medical purposes.
The European FP7 project NanoDiode, launched in July 2013 for a period of three years, establishes an innovative, coordinated programme for outreach and dialogue throughout Europe so as to support the effective governance of nanotechnologies. The project integrates vital engagement activities along the innovation value chain, at the levels of research policy, research and development, and the use of nanotechnological innovations throughout society.
The NanoEthicsBank is a database conceived as a resource for researchers, scholars, students, and the general public who are interested in the social and ethical implications of nanotechnology. Items in the database include normative documents, such as guidelines for safety in the workplace, and descriptive materials, such as analysis of the U.S. government's capacity for oversight and studies of the media coverage of nanotechnology.
The precursor to the Nanofactory Collaboration was informally initiated by Robert Freitas and Ralph Merkle in the Fall of 2000 during their time at Zyvex. Their continuing efforts, and those of others, have now grown into direct collaborations among 23 researchers or other participants (including 16 Ph.D's or Ph.D candidates) at 10 institutions in 4 countries (U.S., U.K., Russia, and Belgium), as of 2006.
The EU-funded NANOFLOC (Electro-agglomeration and separation of Engineered NanoParticles from process and waste water in the coating industry to minimize health and environmental risks) project was established to address the concerns over the health effects of breathable nanoparticles, which can be found in a number of end products such as paints.
NANOGLOWA brings together universities, power plant operators, industry and SMEs. 26 organisations from 14 countries throughout Europe join the NANOGLOWA-consortium in order to develop optimal nanostructured membranes and installations for CO2 capture from powerplants. NANOGLOWA is funded by the European Commission under the 6th Framework Programme.
Nanogrowth is an international project, funded by the Engineering and Physical Sciences Research Council EPSRC, to investigate crystal growth mechanisms in nanoporous materials, such as zeolites. The project started in October 2006 and runs for three years. The project team consists of members from universities in the United Kingdom, Sweden and France together with our industrial sponsor in the USA.
Nanogune's mission is to address basic and applied research in nanoscience and nanotechnology, fostering high-standard training and education of researchers in this field, and promoting the cooperation among the different agents in the Basque Science, Technology, and Innovation Network (Universities and Technological Centers) and between these agents and the industrial sector.
The nine partners involved in the EU-funded (FP7) NanoHouse project are generating missing data on the potential exposure levels and the hazard due to this chronic exposure for 2 nanoparticle types: nano silver and nano titanium dioxide contained in indoor and outdoor coatings and paints. Both direct and indirect exposures (through the environment to human: vegetables, drinking water) are considered.