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The applications research team's main focus being the application of photonics
to challenges presented by the life sciences. This rapidly emerging area
of “Biophotonics” covers both research aimed at improving
medical diagnosis as well as leadership in the development of microscopic
imaging techniques based upon laser excitation. Many of the projects are
thus multidisciplinary with close collaborations both within the Institute
and beyond. In all of the research there is a fundamental photonics challenge
presented by both clinicians and life science researchers. By developing
an excellent understanding of the real desires of the collaborating partner,
and fully understanding the fundamental physics behind that challenge,
the team is able to ensure that the research is focused towards the best
possible outcome for all parties. As can be seen in the breadth of research
the work involves both the development of novel instruments based upon
known technology as well as being actively involved with the progression
of new areas of photonics research.
| The Institute helped found the Centre
for Biophotonics at Strathclyde where the research is taken further
into the realm of the life scientist. This close liaison with outside
groups is core to the growth of the team enabling the early identification
of new areas of research. |
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Current Research (this information is out of date and will be updated soon, June 2010)
Laser Tweezers Optical trapping projects taking place at the Institute of Photonics
'The Abraham and Minkowski dilemma: An experimental
and theoretical resolution?'
Multiphoton Microscopy New imaging methods and adaptive optics for in
depth imaging
Confocal
Microscopy Research into the development of practical instrumentation
Dental
Caries Detection Investigations into novel optical methods
of the early detection and diagnosis of dental disease
Micro-Optics
and Sources Exploration into the application of micro-optics
and sources to DNA screening, miniature microscopes, and optical tweezers
Trace Chemical Detection Research into
new ways of monitoring chemical process in very low concentrations
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Associate Team Leader |
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| Caroline Muellenbroich |
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| Fiona Watts |
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| Nicci Townshend |
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| Genet Tesfagaber |
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| Layean Tan |
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Current EPSRC Support (to be updated 2010)
(P)=Principal Investigator,
(C)=Co-Investigator, (R)=Recognised Researcher:
EP/E006000/1 ADVANCED SOLID-STATE LASER SOURCES AND SYSTEMS (C)
EP/D062861/1 Nanometrology for Molecular Science, Medicine and Manufacture
(C)
EP/C533488/1 The Abraham vs Minkowski Dilemma: An Experimental Resolution
(C)
EP/C533496/1 The Abraham vs Minkowski Dilemma: An Experimental Resolution
(P)
GR/S85399/01 Physical & chemical property characterisation in HTT
by in-situ analysis & smart data processing (C)
GR/S85764/01 Basic Technology: A Thousand Micro-emitters Per Square Millimetre:
New Light On Organic Materials & Structures (C)
GR/R87901/01 Basic Technology: Deep, time-resolved imaging in aberrant
biological media by adaptive and predictive wave-front correction (C)
(P)=Principal Investigator, (C)=Co-Investigator,
(R)=Recognised Researcher:
GR/S80660/01 P3A: Photonics on the 06:30 shuttle (C)
GR/R73768/01 Platform: General Engineering Platform Grant: Advanced high
power solid-state laser systems and applications (C)
GR/R34639/01 Integrated Rapid Imaging Microscope and Electrophysiological
Recording System. (P)
GR/M58993/01 APPLICATION OF NOVEL OPTICAL TECHNIQUES FOR EARLY DETECTION
OF DENTAL DECAY (C)
GR/M58986/01 APPLICATION OF NOVEL OPTICAL TECHNIQUES FOR EARLY DETECTION
OF DENTAL DECAY (P)
GR/L71629/01 MACROSCOPIC TWO-PHOTON IMAGING USING ALL SOLID STATE LASERS
(P)
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