Skip to main content
What types of page to search?

Alternatively use our A-Z index.

Dr Rebecca-Ann Burton
BSc MSc MBA DPhil FHEA FRSA

Contact

R.A.B.Burton@liverpool.ac.uk

+44 (0)151 794 9812

About

As a physiologist and pharmacologist, I'm interested in using bioengineering and imaging techniques to address cardiac biophysical inquiries on the origins and effects of arrhythmias. I graduated with honors from Sheffield Hallam University in 2003 with an MSc in Pharmacology and Biotechnology after earning a first-class undergraduate degree in Biology and Chemistry. After that, I worked as a lab manager and research assistant for Professors Denis Noble and Peter Kohl's Oxford Cardiac Mechano-Electric Feedback Group (Department of Physiology, Anatomy and Genetics, University of Oxford). Still working with the same group, I received funding for my DPhil in Cardiac Physiology (2010) thanks to one of the highly sought-after Oxford Overseas Research Scholarships (ORA Award). I also earned a Merit (2008) MBA while doing this (Oxford Brookes University, Business School). After receiving a Winston Churchill Fellowship in Science and Engineering in January 2015, I had the opportunity to work with Professor Emilia Entcheva's at Stony Brook University, New York. This lead to a Winston Churchill Medal in 2016 for contributions in Science and Engineering. I received a highly competitive Sir Henry Dale fellowship from the Wellcome Trust and Royal Society in December 2015 which allowed me to start my own Research Group in the Department of Pharmacology, University of Oxford. My training and research experience from Sheffield and Oxford, which included basic cardiovascular research at the organ, tissue, and cellular levels as well as translational work looking into the causes of arrhythmias, are built upon by my current and future research plans. In 2020, I was awarded the title of Associate Professor by the Medical Sciences Division, University of Oxford.

One of my main strengths is the proven track record of highly productive collaborations, including in a BBSRC-TDRI project during my DPhil studies, post-doctoral research in EU Project PreDICT, present collaborations with scientists in the US (New York, University of Pennsylvania), Europe (University of Maastricht) and the UK (Imperial College, Kings College London, University of Oxford), New Zealand (University of Auckland) as well as supervision of undergraduate and graduate students who have gone on to work in Industry and the NHS.
The projects I have worked on thus far, involve a cross disciplinary approach encompassing areas of physiology, chemistry, biophysics, molecular biology, pharmacology and computational biology. My graduate research at the University of Oxford with Professors Denis Noble and Peter Kohl [Cardiac Electrophysiology and Cardiac Mechano-Electric Feedback lab], was focussed on developing accurate whole heart, structure-function 3D models of the heart to aide pharmacological assessment of drugs and arrhythmias. An area of research closely aligned with scientists at the University of Auckland and several Universities in the US and Europe. The experimental data from my doctoral work has been used to develop and validate cardiac modelling by researchers internationally and has been extensively published, sited. My post-doctoral research at the University of Oxford with Prof Gil Bub and Prof David Paterson, has involved developing novel technologies to study the cardiac-neural axis and arrhythmias using high speed imaging techniques and proteomics. From 2012, I led a pre-clinical study involving Hydroxychloroquine (HCQ). Our research has shown that HCQ can block the pacemaking “funny current” in cardiac sino-atrial nodal cells, funded externally by Oxford Innovation, UK (highly competitive funding). During this study, I had discussions with major Pharmaceutical Companies (GSK, Astra Zeneca, Sanofi, Novartis etc) and productive conversations with the MHRA and CDRD Canada. Our preclinical study highlights the potential re-use of HCQ for certain cardiac conditions at low doses.