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2-Photon Imaging: From Polymeric Materials to Engineered Tissues
Reference
BB/E012981/1
Principal Investigator / Supervisor
Professor John Haycock
Co-Investigators /
Co-Supervisors
Professor Steven Armes
,
Professor Giuseppe Battaglia
,
Professor Ian Brook
,
Professor Mark Geoghegan
,
Professor Paul Hatton
,
Krebs Professor of B Christopher Hunter
,
Professor Richard Jones
,
Professor Graham Leggett
,
Professor Sheila MacNeil
,
Professor Stephen Rimmer
,
Professor Anthony Ryan
,
Professor Julia Weinstein
,
Professor Nicholas Williams
Institution
University of Sheffield
Department
Materials Science and Engineering
Funding type
Research
Value (£)
241,039
Status
Completed
Type
Research Grant
Start date
31/01/2008
End date
30/01/2009
Duration
12 months
Abstract
The current proposal is for the single purchase of a titanium-sapphire femtosecond pulsed NIR laser and a beam splitter to add to two existing confocal microscopes that are currently located in different departments. One system is inverted and equipped for fluorescence correlation spectroscopy (FCS) and the other is upright. Relocation of these will enable us to establish a single-site multiphoton / FCS imaging facility within the Kroto Research Institute at Sheffield University. This proposal outlines a number of highly developed and interconnected themes from 14 applicants that extend across the interface between the physical and life sciences, spanning polymeric biomaterials to tissue engineering, and justifies why a parallel two-photon confocal microscope facility with FCS is needed to develop our research programmes. This is most effectively answered by requesting money for a central multi-user facility that will have extensive multidisciplinary use and be based in a dedicated institute established for research across the disciplines.
Summary
Two-photon microscopy is a leading-edge imaging technology and a powerful research tool that combines long wavelength excitation and laser scanning microscopy. Of importance to our work it can enable capture of high resolution three dimensional images of living cells within 3D constructs as well as in-depth penetration of specimens tagged with very specific fluorophores. This technology is now becoming a method of choice for the dynamic imaging of biological and polymeric systems, not otherwise possible by other optical approaches and therefore will underpin a broad number of research programmes in biomaterials and tissue engineering.
Committee
Closed Committee - Engineering & Biological Systems (EBS)
Research Topics
Industrial Biotechnology, Regenerative Biology
Research Priority
X – Research Priority information not available
Research Initiative
Research Equipment Initiative 2006 (RE6) [2006]
Funding Scheme
X – not Funded via a specific Funding Scheme
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