FP6Doctoral network2007–2011

IMMUNANOMAP · Unravelling the nano-landscape of receptors controlling molecular processes of the immune system

FP6 — Marie Curie Actions (Human Resources and Mobility)

Duration
2007-03-01 → 2011-02-28
EU contribution
€2,960,000
Participants
8
Scheme
RTN

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Results in brief

Final Activity Report Summary - IMMUNANOMAP (Unraveling the nanolandscape of receptors controlling molecular processes of the immune system)

The major objective of the IMMUNANOMAP project was to train the next generation of multidisciplinary researchers to operate at the intersections of nano-technology, nano-physics, nano-chemistry, molecular cell biology and molecular immunology. These interdisciplinary researchers developed tools and insights into our molecular understanding of the cell as a central entity in living organisms and to unravel the molecular mechanisms underlying the defence against body-foreign intruders. Recent developments in microscopic techniques now provide the tools to cell biologists and immunologists to study molecular processes at the nanometre and single molecule scale. Particularly in the immune system, which defends our body against pathogens, the recognition and elimination of nanometre-sized pathogens is regulated through complex cell signalling and cell communication to ensure a swift and effective protective response. How all these cell surface processes are orchestrated at the molecular level on the surface of single living cells is poorly understood. Now for the first time, the technology is within reach to unravel the nano-landscape of cells of the immune system and to get dynamic information of the cell surface organisation of cellular receptors and subsequent signalling pathways at the nanometre level. The IMMUNANOMAP goals were: 1) thorough multidisciplinary training both at the theoretical and practical level to a truly interdisciplinary field of young and experienced researchers consisting of physicists, surface chemists, cell-biologists and immunologists: and 2) exploiting state-of-the-art imaging techniques to understand the molecular organisation of cell surface and signalling processes pertinent to the functioning of the immune system. Thus we anticipate eliminating a major limitation in multidisciplinary work that restricts scientific and economic progress due to fundamental differences in the background of the scientists in these diverse disciplines. To achieve the goals set out at the start of the project 8 ESR and 9 ER were recruited. The background of the fellows varied from physicists, cell biologists or immunologists. To achieve an effective collaboration several GAP course were organised to bridge the differences between the fellows and to teach them to communicate with different research division. This worked very well resulting in an excellent working group, communicating at different levels. The scientific achievements resulted in 39 publications in peer reviewed journals, 5 book chapters and 1 article in a non-peer reviewed journal. Five articles are still under submission and 18 articles are in preparation. In the final year of the project a symposium was organised entitled: "Lipid and Protein Nanoislands: Organisation, Dynamics and Signaling". More than 100 people participated in the symposium.

Data: CORDIS, © European Union

Project objective

The major objective of IMMUNANOMAP is to rain the next generation of multidisciplinary researchers to operate at the intersections of nano-technology, nano-chemistry, molecular cell biology and immunology. Interdisciplinary researchers are needed to develop tools and insights into our molecular understanding of the cell as a central entity of all living organisms and unravel the mechanisms underlying the defence against pathogens. Novel microscopic techniques now provide the tools to cell biologists and immunologists to study cellular processes at the nanometre and single molecule scale.Particularly in the immune system, which defends our body against pathogens, the recognition and elimination of nanometre-sized pathogens is regulated through complex cell signalling to ensure a swift and effective protective response. How these cell surface processes are orchestrated is poorly understood. For the first time, the technology is within reach to unravel the nano-landscape of surface receptors of cells of the immune system and get dynamic information of their organization and subsequent signalling pathways at the nano-metre level.We hope to reach out goal by:1) Thorough multidisciplinary training both at the theoretical and practical level to a truly interdisciplinary field of young and experienced researchers consisting of physicists, surface chemists, cell biologists and immunologists, and2) exploiting state-of-the-art imaging techniques to understand the molecular organization of cell surface and signalling pro cesses pertinent to the functioning of the immune system.Thus we anticipate eliminating a major limitation in multidisciplinary work that restricts scientific and economic progress due to fundamental differences in the background of scientists in these diverse disciplines. To achieve this, 7 renowned research institutes and 1 SME, each specialized in different aspects of bio-nanotechnology, join forces in this European research and training collaboration.

Original text from CORDIS.

Participants

  • STICHTING KATHOLIEKE UNIVERSITEIT · NIJMEGENCoordinatorNetherlands
  • CATALONIAN INSTITUTE FOR BIOENGINEERING · BARCELONACity levelSpain
  • DEBRECENI EGYETEM · DEBRECENHungary
  • JOHANNES KEPLER UNIVERSITAET LINZ · LINZAustria
  • POLYPURE AS · OSLONorway
  • THE CHANCELLOR, MASTERS AND SCHOLARS OF THE UNIVERSITY OF OXFORD · OXFORDUnited Kingdom
  • UNIVERSITAET ROSTOCK · ROSTOCKGermany
  • UNIVERSITEIT TWENTE · ENSCHEDENetherlands

Links

Data: CORDIS, © European Union