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Date of submission: 31 October 2012<br />

Project title: 12<br />

Applicant: Val Brunton<br />

1<br />

<strong>Centre</strong> <strong>for</strong> <strong>In</strong> <strong>Vivo</strong> <strong>Imaging</strong> <strong>Sciences</strong><br />

PhD Project Proposal Template <strong>for</strong> PhDs starting in 2013<br />

<strong>Centre</strong> (i.e. primary facility/centre/unit to which this studentship will be attached*):<br />

Edinburgh Cancer <strong>Research</strong> <strong>Centre</strong>, University of Edinburgh<br />

First supervisor: contact details<br />

Name: Dr Val Brunton<br />

Department: Edinburgh Cancer <strong>Research</strong> <strong>Centre</strong><br />

Address: Edinburgh Cancer <strong>Research</strong> <strong>Centre</strong>, University of Edinburgh, Crewe Road South,<br />

Edinburgh, EH4 2XR<br />

Email: v.brunton@ed.ac.uk phone: 0131 777 3556<br />

Second supervisor: contact details<br />

Name: Dr Alison Hulme<br />

Department: School of Chemistry<br />

Address: School of Chemistry, University of Edinburgh, Kings Buildings, West Mains Road,<br />

Edinburgh, EH9 3JJ<br />

Email: Alison.Hulme@ed.ac.uk phone: 0131 650 4711<br />

Speciality/discipline of first supervisor:<br />

Cancer cell biology, intravital imaging,<br />

mouse models of cancer<br />

Speciality/discipline of second supervisor:<br />

Chemical Biology, organic synthesis,<br />

medicinal chemistry<br />

PROJECT<br />

Title:<br />

Development of high speed Raman imaging techniques to aid preclinical drug development<br />

Likely background of suitable student (eg. Biomedical Science, Cardiovascular Biology,<br />

Engineering, <strong>In</strong><strong>for</strong>matics, Image Analysis, Mathematics, Lay, Art, Neuroscience, Medical<br />

Physics, Chemistry, Psychology) and essential skills required prior to starting this PhD:<br />

This project requires a student with a keen interest in interdisciplinary science. The student<br />

will have studied a Biomedical <strong>Sciences</strong>, Chemistry, Medicinal Chemistry, or Biochemistry<br />

(or related) degree programme.<br />

The student would require:<br />

A basic knowledge of chemistry or biochemistry; ideally with laboratory experience in the<br />

synthesis and handling of small molecules.<br />

Experience in the handling of cells and/or live animals.<br />

Spectroscopic understanding; ideally with some experience of imaging and/or microscopy.<br />

*usually this would be the university in which the first supervisor is based.<br />

Once completed, please return to<br />

Mrs Moira Henderson – civis.enquiry@ed.ac.uk


Date of submission: 31 October 2012<br />

Project title: 12<br />

Applicant: Val Brunton<br />

2<br />

Summary of proposed project (approximately 200 words):<br />

Drug attrition rates in oncology are dismal (5%) and new approaches are required to optimise<br />

the use of novel therapeutics. Drug delivery and retention within tumours is extremely<br />

important when considering responses to therapy but is not routinely measured as traditional<br />

imaging technologies require the use of bulky labels which frequently interfere with drug<br />

function. Coherent Anti-stokes Raman Scattering (CARS) is a <strong>for</strong>m of fast acquisition Raman<br />

spectroscopy that allows label-free visualisation based on the vibration of particular chemical<br />

species. However, problems with non-resonant background signals using CARS reduces its<br />

applicability. Stimulated Raman Scattering (SRS), a new variant of CARS, provides more<br />

sensitive optical imaging, and should also provide a quantitative measure of intra-tumoural<br />

drug concentration 1,2 . Alkynes avoid many of the pitfalls of other labelling technologies: they<br />

are small, unreactive in cellular environments, can be introduced using a range of<br />

chemistries thus ensuring drug function is retained, and can be imaged at a wavelength that<br />

falls in the Raman silent region of a cell. However, their potential as labels <strong>for</strong> both small<br />

molecule drugs and antibody therapeutics <strong>for</strong> imaging purposes has yet to be exploited 3 .<br />

This project will assess the ability of SRS (with or without alkyne labelling) to determine<br />

intra-tumoural concentrations of HER2 targeted therapies (including the antibody<br />

trastuzumab and small molecule kinase inhibitors) and establish its utility in monitoring drug<br />

biodistribution in mouse models to address whether it will provide a new approach to<br />

preclinical ‘pharmaco-kinetic’ drug analysis. This will be made possible by using optical<br />

windows <strong>for</strong> intra-vital imaging that permits longitudinal imaging following drug treatment 4,5 .<br />

Key references (up to five):<br />

1. Mouras R, Rischitor G, Downes A, Salter D, Elfick A (2010) Nonlinear optical microscopy <strong>for</strong> drug<br />

delivery monitoring and cancer tissue imaging. J Raman Spectrosc 41: 848-852<br />

2. Saar BG, Freudiger CW, Reichman J, Stanley CM, Holtom GR, Xie XS (2010) Video-rate molecular<br />

imaging in vivo with stimulated Raman scattering. Science 330: 1368-1370<br />

3. Yamakoshi H, Dodo K, Okada M, Ando J, Palonpon A, Fujita K, Kawata S, Sodeoka M (2011)<br />

<strong>Imaging</strong> of EdU, an Alkyne-Tagged Cell Proliferation Probe, by Raman Microscopy. J Am Chem Soc<br />

133: 6102-6105<br />

4. Canel M, Serrels A, Miller D, Timpson P, Serrels B, Frame MC, Brunton VG (2010) Quantitative in<br />

vivo imaging of the effects of inhibiting integrin signalling via Src and FAK on cancer cell movement;<br />

effects on E-cadherin dynamics. Cancer Res 70: 9413-22<br />

5. Canel M, Serrels A, Anderson KI, Frame MC, Brunton VG (2010) Use of photoactivation and<br />

photobleaching to monitor the dynamic regulation of E-cadherin at the plasma membrane. Cell Adh<br />

Migr 4: 491-501<br />

<strong>In</strong> what way does this PhD proposal meet the CIVIS criteria as described in the call <strong>for</strong><br />

proposals? (50 words)<br />

This is a multi-disciplinary project and builds on an existing collaboration between Dr Brunton<br />

and Dr Andy Downes (CSE). It now brings together cancer biologists chemists and engineers<br />

to develop high speed Raman microscopy technologies, which we believe will have a<br />

significant impact on preclinical drug development.<br />

Please state which scheme your proposal should be considered <strong>for</strong>:<br />

If you are unsure please discuss with named individual.<br />

x UoE CMVM (Prof J Wardlaw, Prof I Marshall, Prof M Holmes, Prof E van Beek)<br />

UoE CHSS PPLS Psychology (Prof R Logie)<br />

UoE CSE <strong>In</strong><strong>for</strong>matics DTC (Prof D Robertson)<br />

HWU Engineering (Prof Rory Duncan)<br />

Once completed, please return to<br />

Mrs Moira Henderson – civis.enquiry@ed.ac.uk

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