Active Genetics & Molecular Biology Cancer

NHSBT Innovation Hub for Gene Therapies

In plain English

AI plain-English summary

The UK is running out of the modified viruses needed to deliver gene therapies, and this hub will build a new production line to fix that shortage. Gene therapies work by inserting new genetic material into malfunctioning cells to reprogram them, offering hope for previously incurable diseases like cancer, heart disease, and diabetes. But UK researchers are held back by a critical shortage of viral vectors—specially engineered viruses that carry genetic payloads into cells—and of skilled technicians to produce them. Scientists currently rely on overseas suppliers or face long delays, slowing the discovery of new treatments. This hub will install a new platform to produce adeno-associated viral vectors (AAVs), complementing existing facilities for lentiviral vectors and plasmids. It will also train technicians and scientists in clinical-grade production, and help academics patent discoveries, run trials, and spin out companies. As a not-for-profit NHS organisation, the hub aims to become a sustainable, go-to supplier for the UK gene therapy community, ultimately accelerating treatments from lab bench to hospital bedside.

View original technical description
Many diseases, including cancer, heart disease and diabetes, are caused by the body's cells and tissues malfunctioning. The behaviour of any cell is 'programmed' by its genes and researchers have found that cell behaviour can be altered by changing DNA, RNA and other genetic material in the cell. Gene therapies work by inserting new genetic material into malfunctioning cells, and 'reprogramming' them to function more normally, or by inserting genetic material into a normal cell to produce a new protein (e.g. for a vaccine). Gene therapy offers hope to patients with diseases that have been, up to now, incurable. The UK has excellent teams of researchers who are exploring this exciting topic. Unfortunately, some of the essential materials for gene research are in short supply in the UK, as are skilled technicians to work on the research. There is a particular shortage of viral vectors - special viruses that can be 'loaded' with genetic material and inserted into malfunctioning cells, where their 'payload' replaces genes causing the malfunction. The UK's scientists are held back by these shortages and forced to rely on overseas suppliers; or research is delayed due to difficulties in recruiting staff. This leads to delays in the discovery of new treatments for desperately ill patients. Another important challenge for UK researchers is that achieving great results in the lab is only half the story - before a new treatment can be offered to patients, it must be approved: shown to be safe, effective and affordable. These new treatments are great opportunities for new companies, new jobs and for the UK economy, so academics need support in patenting their discoveries, in undertaking clinical trials and in setting up companies to make new therapies. The MRC and LifeArc have recognised these important issues and are funding a network of hubs around the UK to generate the vital components for gene therapies and to train the skilled personnel needed. The NHSBT Innovation Hub for Gene Therapies will link with the other new hubs around the UK to address these needs. We will work with academic teams to produce the gene therapy components needed, we will train technicians and scientists in producing these at the quality needed for use in clinical trials, and we will support academics in taking their results from the lab to the hospital and the market. Our plan is as follows: 1. To agree our role in the network with the other hubs, MRC, LifeArc and Cell and Gene Therapy Catapult (C>C). We are particularly well placed for flexible viral vector production, quality control and training, and we expect to contribute this to the network, while also collaborating with C>C on production, with LifeArc on commercialisation and patenting, and with other hubs, as requested by the network coordinators.. 2. To install a new viral vector production platform, already selected by C>C as being particularly suitable to meet the needs of UK academic teams. We'll then work with the C>C to ensure it's certified for quality assurance (and so ready to produce clinical grade components). This new platform will produce a specific type of viral vector - adeno-associated-viral vectors (AAVs); this will complement our other platform, producing lentiviral vectors, as well as our existing platform for plasmids (another important gene therapy ingredient). 3. To be assigned academic clients and their projects by the coordinating committee, and then to work with these teams to put in place a production line and training programme that meets their needs. A flexible and customised approach is important, as every academic project will be different. 4. To build a reputation and customer base that makes the NHSBT Hub a 'go to' destination for viral vector services. As a not-for-profit NHS organisation, our aim is to be sustainable, provide excellent value for the benefit of the UK gene therapy community and, ultimately, to save and improve more lives.

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Researchers

Jon Smythe (Principal Investigator)Paul Lloyd-Evans (Co-Investigator)

Related Research

Grants with similar aims, by meaning.

King's/Royal Free/UCL Gene Therapy Innovation Hub
Development of an Innovative Supply Chain Model to Expedite Delivery of Viral Vector ATIMPs to Clinical Trials
Gene Therapy Innovation and Manufacturing Centre (GTIMC)
Cell-Free Protein Synthesis (CFPS) for improved production strategies of adeno-associated virus vectors
Industrial Viral Vector Manufacturing Using Advanced Process Analytical Technologies

Original classification

Research Grant

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