Cookies on this website

We use cookies to ensure that we give you the best experience on our website. If you click 'Accept all cookies' we'll assume that you are happy to receive all cookies and you won't see this message again. If you click 'Reject all non-essential cookies' only necessary cookies providing core functionality such as security, network management, and accessibility will be enabled. Click 'Find out more' for information on how to change your cookie settings.

A new Medical Research Council Centre of Research Excellence (MRC CoRE) aims to develop brain stimulation devices to treat conditions such as Parkinson’s, dementia, stroke and childhood epilepsy.

Glowing neurons in the brain. © Dupret Group, University of Oxford

 

The MRC CoRE in Restorative Neural Dynamics will receive up to £50 million over 14 years, and will be led by researchers at the University of Oxford, Cardiff University, Great Ormond Street Hospital for Children, Imperial College London and Newcastle University.

The Oxford researchers span two University divisions and are based at the Nuffield Department of Clinical Neurosciences and the Department of Engineering Science. The centre’s founding leadership team will include NDCN researchers Helen Barron, Rafal Bogacz, Tim Denison (dual affiliation with Engineering Science), David Dupret, Melanie Fleming, Ashwini Oswal, Peter Magill, Andrew Sharott, Charlotte Stagg and Huiling Tan.

The centre team will investigate 'neural dynamics’, the complex and changing patterns of activity across networks of nerve cells in the brain that underlie behaviour. They will study how neural dynamics arise in health and are disturbed in brain disorders.

The team will exploit knowledge of neural dynamics as they develop novel interventions and technology – ranging from brain implants to non-invasive and wearable devices – that could improve how the brain and body functions.

Professor Peter Magill, Director of the new MRC CoRE in Restorative Neural Dynamics, said: ‘Medical devices delivering brain stimulation can target disturbed neural dynamics with high precision and accuracy. But their advantages for therapy have not been fully realised because the link between neural dynamics and the clinical use of devices is often weak or missing. We can achieve the step change needed by seizing untapped opportunities to exploit dynamics with next-generation devices so that healthy neural dynamics are restored for improved therapeutic outcomes. Gaining a better understanding of how neural circuits work from moment to moment, and how this goes wrong in brain disorders, is key to this.

‘Our research approach is centred on patients. To make these devices a part of every-day care in the NHS, we need interventions and technologies that provide greater clinical benefits and are also accessible, scalable and cost-effective. We also know that one size will not fit all. Everyone’s lived experience with these conditions is different. So, it’s important that we tailor treatments to meet diverse needs and priorities. We can tackle this by intelligently interacting with neural dynamics in affected brain areas at the right times and with the best tools.

‘This exciting endeavour is not just about the research but also how we will deliver it. Our ambition is to set new benchmarks in research culture, stakeholder involvement, and collaborative working between public and private sectors. We aim to create a national asset that empowers and enables people and organisations across the board. We are thrilled to have this opportunity to tackle our collective research challenge with the support of colleagues at NDCN and our partner organisations.’

Picostim device in situ in the brainThe centre will initially focus on developing device-based approaches that harness neural dynamics to improve symptom relief and quality of life for people with brain conditions affecting movement, memory and sleep. In the longer term, the team aims to use devices to reorganise brain circuits and slow down clinical progression, for example by taking advantage of mechanisms that govern the strength of connections between nerve cells. The researchers will study neural dynamics in mouse models, with computational modelling, and using human data, integrating these activities with device hardware and software development.

The MRC CoRE in Restorative Neural Dynamics will work closely with clinical teams, research charities, regulatory agencies, and neurotechnology industry. Capitalising on their experience, the centre team aims to progress from discovery research to experimental medicine and first-in-human trials, paving the way for commercialisation and healthcare system adoption of new therapies so they reach the people who need them.

NDCN and Engineering Science researcher Professor Timothy Denison, who is part of the new centre’s leadership team, said: ‘Groundbreaking neurotechnology allows interactions with the brain in ways that were not possible just a few years ago. The pipeline for medical devices is now well positioned to not only enable clinical neuroscience research but also to successfully apply discoveries in the NHS and beyond. By sharing expertise and resources with stakeholders across the UK’s research and innovation ecosystem, we can collectively accelerate progress and meet user needs with safe, effective and economical solutions.’