Activities
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The I3 consists of three different activities: Networking, Transnational Access and Joint Research Activities. Integration among these activities if the core of the initiative.
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Networking Activities
The Networking activities consists of the organisation of Round tables and Workshops as well as the
setup of Virtual Research Infrastructure.
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Transnational Access Activity (TA) -- See the Statistics on Performance |
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EU-NMR provides individual researchers and research teams from European Countries with access
to a distributed
Research Infrastructure (dRI) of five major national centers with some 200 scientific
and technical support staff, representing over 100,000,000 € in investments in
state-of-the-art, fully equipped NMR spectrometers and ancillary equipment, and
modern laboratories for bio-NMR. It is the world's largest center for bio-NMR devoted
to deciphering the structure, function and activity of biomolecules at the molecular
and macroscopic level. The complementary and research in the dRI ensures that research
teams from all over Europe will have access to the most advanced tools available for answering
their research questions.
The combined RIs can provide access to instruments best suited to solve the posed questions, have
dedicated educational programs for training researchers on the use of NMR, and have a tradition in
furthering the awareness of the potential of bio-NMR. They are able to provide in-depth education
for PhD students, post-docs and external users on the potential of NMR for structure/function/pathway
analysis. The scientific support for users is extensive.
The RIs providing access to their instrumentations are: |
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Joint Research Activities (JRA) |
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The proposed activities aim at developing innovative core technologies that
enable to increase the scope, application portfolio and quality of access for
RIs in bio-NMR with respect to:
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All technologies to be developed aim at improving the efficiency of the
structure determination process. Two deal with the development of new hardware
and associated software for increasing the sensitivity and/or resolution
of NMR experiments.
The first aims at speeding up the data acquisition process.
This would enable higher throughput structure determination, but the
technique would also be very advantageous for drug screening and metabolomics.
Several possible approaches have been described, but a critical evaluation is
lacking and the methods have thus far not been implemented in production
environments. Most researchers that are at the forefront of these developments
are involved in the proposal. The innovative aspects of the second development lie in the realization that liquid state and solid state NMR spectroscopy, historically two separated worlds, have both matured to a point where cross-fertilization is possible. It intends to bring cryogenic technology to solid state NMR and builds on previous experience to develop technology for low nuclei direct detection probes, enabling NMR for very large molecules. Cryogenic probes are important in solid state NMR because they increase the sensitivity by a factor of 2-4, improving their potential for generating structural restraints for proteins and the study of systems with restricted motion. The developments would raise the molecular mass limit for the NMR experiment. Again, several approaches have been described, but none has led yet to probes that can be used routinely. Research teams and a company that are at the forefront of these developments are involved in the project. Both technological developments are well suited to generate orientation dependent structural parameters and as such provide the impetus for the development of the necessary software tools that can cope in a routine and integrated way with these parameters in addition to the more "standard" parameters in the structure determination process. In this context the incorporation of solid state NMR data in conjunction with the data from solution NMR provides an innovative approach that should lead to a much better integration of solid-state and high resolution NMR experiments and data for the structure determination process. The major development teams for advanced software tools for bio-NMR are involved in the project. |