Applying CERN’s detector technology to health: MARS Biomedical 3D spectroscopic x-ray imaging

dc.contributor.authorButler, P.H.
dc.contributor.authorBell, A.J.
dc.contributor.authorButler, A.P.H.
dc.contributor.authorCook, N.J.
dc.contributor.authorReinisch, L.
dc.contributor.authorButzer, J.S.
dc.contributor.authorAnderson, N.
dc.contributor.authorMARS-CT Team
dc.date.accessioned2009-09-21T23:46:28Z
dc.date.available2009-09-21T23:46:28Z
dc.date.issued2008en
dc.description.abstractNew Zealand has benefited considerably from our links with the European Centre for Nuclear Research (CERN). We have been an associate member of CERN for 8 years, with projects in high energy physics theory, in the high energy physics Compact Muon Solenoid (CMS) experiment, and in technology development. In 2006 we joined the Medipix-3 Collaboration. We have installed Medipix detectors in the CMS Cavern for monitoring neutrons and ionising radiation. Our major effort has been to build Medipix detectors into a 3D x-ray scanner of our design. The scanner is dubbed Desktop MARS (Medipix All Resolution system) and provides energy selective images of small biological and pathology specimens. This paper reviews several matters. We look at the support given by the NZ government who have seen benefits in our involvement, including skill development, economic and commercial opportunities, and in overcoming the isolation of distance. We review NZ’s particular role in CMS where particle physics is a driver of new technology; We explore the opportunities arising from Medipix as the first photon processing detector. We first summarise the design of the Medipix detector and discuss likely benefits of spectroscopic imaging in clinical radiology. CERN and the Medpiox-3 Collaboration have licensed us to commercialise the technology for biomedical imaging of small animals and humans using the Medipix detector as the key tool for obtaining 3D computed tomography spectroscopic x-ray CT images. Finally we present some images of biological specimens taken with the MARS scanner, including initial spectroscopic images of mice.en
dc.identifier.citationButler, P.H., Bell, A.J., Butler, A.P., Cook, N.J., Reinisch, L., Butzer, J.S., Anderson, N. (2008) Applying CERN’s detector technology to health: MARS Biomedical 3D spectroscopic x-ray imaging. Jeddah, Saudi Arabia: International Symposium on Peaceful Applications of Nuclear Technologies in the GCC Countries, 3-5 Nov 2008.en
dc.identifier.urihttp://hdl.handle.net/10092/2876
dc.language.isoen
dc.publisherUniversity of Canterbury. Electrical and Computer Engineeringen
dc.publisherUniversity of Canterbury. Physics and Astronomyen
dc.rights.urihttps://hdl.handle.net/10092/17651en
dc.subjectMedipixen
dc.subjectspectroscopyen
dc.subjectmedical imagingen
dc.subjectx-rayen
dc.subjectneutronen
dc.subjectradiologyen
dc.subjectcomputed tomographyen
dc.subjectMARSen
dc.subject.marsdenFields of Research::240000 Physical Sciences::249900 Other Physical Sciences::249903 Instruments and techniquesen
dc.subject.marsdenFields of Research::240000 Physical Sciences::249900 Other Physical Sciences::249902 Medical biophysicsen
dc.subject.marsdenFields of Research::320000 Medical and Health Sciences::321000 Clinical Sciences::321022 Radiology and organ imagingen
dc.titleApplying CERN’s detector technology to health: MARS Biomedical 3D spectroscopic x-ray imagingen
dc.typeConference Contributions - Published
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