Graphene and other one-atom-thick materials are being turned into new medical technologies for wound healing, tissue repair, cell therapies, and cancer immunotherapy. The NHS faces rising costs from an ageing population and diseases such as diabetes, dementia, cardiovascular disease, and cancer. Current treatments for these conditions often fall short, leaving patients with poor outcomes and the health service under strain. This programme brings together chemists, engineers, and clinicians at the University of Manchester to design 2D materials with specific properties—such as printable electronic inks or super-hydrophilic membranes—and test them in preclinical models. If successful, the work could produce dressings that accelerate diabetic wound healing, implantable devices that electrically stimulate damaged tissue, and more effective ways to deliver therapeutic cells or immune treatments. The team is working with industry partners, ethicists, and regulators from the start to speed translation into real clinical use and ensure the technologies are safe and socially acceptable.
View original technical description
This Programme Grant capitalise on the world-leading expertise and research infrastructure on graphene and 2D materials available at the University of Manchester (UoM) to develop future therapies and generate innovative healthcare technology platforms by ascertaining UK leadership in biotech and pharmaceutical development. There is an increasing need to develop new innovative technologies for healthcare, digital services and other innovation with the vision to deliver health services in more efficient ways and with benefits to patients and taxpayers. The National Health Services (NHS) is under increasing financial pressure in recent years, mainly due to population growth and an increased demand on NHS services. In addition to that, a growing ageing population associated with increased prevalence of pathologies such as cardiovascular disease, dementias, cancer and diabetes significantly add to the cost of care in the NHS. Innovative solutions for development of future therapies that could respond to such unmet clinical needs, reduce the cost burden on the NHS and provide a more effective, safer and patient-centred care is highly needed now. 2D materials are one atom thick materials. The family of these flat crystals is very large and includes transition metal dichalcogenides, hexagonal boron nitride, and graphene among many others. Altogether, they cover a large range of properties (from conductive to insulating, from transparent to opaque, from mechanically stiff to compliant) that can be exploited for the creation of new devices and technologies with a wide range of applications. Various innovative G2D based materials and technologies have been pioneered at the University of Manchester such as the super-hydrophilic graphene oxide based membranes, 2D material water based inks for printable electronics, and graphene based printed technology for wireless wearable communication applications. These newly developed materials and technologies have great potential for use in biomedicine can be exploited for the design and engineering of novel healthcare technologies towards solutions or improvements of unmet clinical needs. In the 2D-Health research programme, we formed a team of internationally renowned and highly esteemed multi-disciplinary researchers and some of the world-leaders in G2D research in order to utilise selected unique properties offered by G2D materials and technologies and to develop innovative solutions for specific unmet clinical needs in wound care and management (relevant to diabetes); tissue rehabilitation by electrical stimulation (relevant to dementia); cell therapeutics (relevant to cardiovascular disease); and immunotherapeutics (relevant to cancer). This programme directly aligns to the EPSRC Healthcare Technologies priorities by aiming to develop future therapies in specific applications of unmet clinical need and draws on several cross-cutting capabilities: a) custom-design G2D materials into advanced materials under specifications aimed at a precise industry-driven use, exploring different chemical modification strategies; b) development of novel imaging and sensing technologies for tracking and monitoring therapeutic intervention; and c) develop G2D-based technologies through the preclinical stage for each of the application areas using relevant cellular and animal models. Strong partnership with industrial partners for rapid clinical translation and in collaboration with ethicists and regulators aims to ensure responsible and societally-acceptable innovations.
Plain English summaries and category classifications on this site are generated by AI and may not perfectly reflect the original research.
Is something wrong? Let us know