India is home to over 15 million blind people. Diabetes is a global epidemic but India is one of the top 3 countries most affected with 69 million people diagnosed with diabetes. Diabetic retinopathy is the most common complication of diabetes, whereby blood vessels in the retina leak or die and, if left untreated, this leads to visual loss. Sight threatening diabetic retinopathy (STDR) is the leading cause of blindness in the working age group causing loss of productivity, affecting individual households and the national economy. Despite a fast growing economy, a billion people in India live below the poverty line. Diabetes may result in poverty and poverty is associated with diabetes. Therefore, unless the complications of diabetes are identified early and treated, the impact of blindness on the quality of life and productivity of the Indian population will continue to have a negative impact on the nation's economy. Annual screening of all people with diabetes with retinal photography and prompt treatment of STDR has been shown to decrease the rate of blindness in the UK. However, the technology involved is costly, requires trained manpower and is impractical as a method for screening 69 million people in India annually, when the major proportion of health expenses have to borne by the patients. By increasing research capacity and capability through this programme, we aim to initiate systematic diabetic retinopathy screening in India through research and evaluate innovative technologies that can accurately identify patients at risk of blindness due to STDR close to home. These technologies can be applied in all DAC listed countries with prospects of reverse innovation in the UK. The range of research capability activities (SDG Goal 4) and capacity building in India is aimed at better patient outcomes (SDG Goal 3), developing a workforce with quality education (SDG 4), enhancing sustainable livelihoods (SDG Goal 8) and contributing to India's and the UK's work towards an efficient value based healthcare. Firstly, we will introduce population based diabetic retinopathy screening in India and evaluate whether a hand-held camera with smartphone technology and automated grading is feasible in both India and the UK instead of the standard costly cameras and trained manpower employed in the UK currently. We expect more population coverage of retinal screening with this technology and more patients to be referred for treatment. The research capability at the referral hospitals will also improve from this programme with new quality standards being set for treatment. Secondly, we will develop and validate a blood test of a panel of established markers that can detect STDR and other complications of diabetes with the aim to translate into clinical practice. This will allow patients to monitor their own blood tests for STDR. This has the potential to revolutionise the way people with diabetes are monitored for STDR and other complications globally, empower patients and health care workers with new knowledge, improve research capability in India and the UK, improve research capacity in India and improve the global economy in terms of sustained health, industry and innovation and decreasing inequality in terms of access to healthcare. The programme has the potential to change the landscape of diagnosing and triaging STDR globally. In addition, development of a diabetic retinopathy research network of researchers in India will ensure scalability and sustainability of world-class research in India. These research projects will have secondary benefits to the UK in terms of increasing research capability and reverse innovation. Moreover, the programme will also provide comparative cost-effectiveness data of current standard of care versus these newer technologies to inform national guidelines committees and policy makers globally.

Medical imaging has transformed clinical medicine in the last 40 years. Diagnostic imaging provides the means to probe the structure and function of the human body without having to cut open the body to see disease or injury. Imaging is sensitive to changes associated with the early stages of cancer allowing detection of disease at a sufficient early stage to have a major impact on long-term survival. Combining imaging with therapy delivery and surgery enables 3D imaging to be used for guidance, i.e. minimising harm to surrounding tissue and increasing the likelihood of a successful outcome. The UK has consistently been at the forefront of many of these developments. Despite these advances we still do not know the most basic mechanisms and aetiology of many of the most disabling and dangerous diseases. Cancer survival remains stubbornly low for many of the most common cancers such as lung, head and neck, liver, pancreas. Some of the most distressing neurological disorders such as the dementias, multiple sclerosis, epilepsy and some of the more common brain cancers, still have woefully poor long term cure rates. Imaging is the primary means of diagnosis and for studying disease progression and response to treatment. To fully achieve its potential imaging needs to be coupled with computational modelling of biological function and its relationship to tissue structure at multiple scales. The advent of powerful computing has opened up exciting opportunities to better understand disease initiation and progression and to guide and assess the effectiveness of therapies. Meanwhile novel imaging methods, such as photoacoustics, and combinations of technologies such as simultaneous PET and MRI, have created entirely new ways of looking at healthy function and disturbances to normal function associated with early and late disease progression. It is becoming increasingly clear that a multi-parameter, multi-scale and multi-sensor approach combining advanced sensor design with advanced computational methods in image formation and biological systems modelling is the way forward. The EPSRC Centre for Doctoral Training in Medical Imaging will provide comprehensive and integrative doctoral training in imaging sciences and methods. The programme has a strong focus on new image acquisition technologies, novel data analysis methods and integration with computational modelling. This will be a 4-year PhD programme designed to prepare students for successful careers in academia, industry and the healthcare sector. It comprises an MRes year in which the student will gain core competencies in this rapidly developing field, plus the skills to innovate both with imaging devices and with computational methods. During the PhD (years 2 to 4) the student will undertake an in-depth study of an aspect of medical imaging and its application to healthcare and will seek innovative solutions to challenging problems. Most projects will be strongly multi-disciplinary with a principle supervisor being a computer scientist, physicist, mathematician or engineer, a second supervisor from a clinical or life science background, and an industrial supervisor when required. Each project will lie in the EPSRC's remit. The Centre will comprise 72 students at its peak after 4 years and will be obtaining dedicated space and facilities. The participating departments are strongly supportive of this initiative and will encourage new academic appointees to actively participate in its delivery. The Centre will fill a significant skills gap that has been identified and our graduates will have a major impact in academic research in his area, industrial developments including attracting inward investment and driving forward start-ups, and in advocacy of this important and expanding area of medical engineering.

Abstracts are not currently available in GtR for all funded research. This is normally because the abstract was not required at the time of proposal submission, but may be because it included sensitive information such as personal details.

The broad theme of the research training addresses the most rapidly developing parts of the bio-centred pharmaceutical and healthcare biotech industry. It meets specific training needs defined by the industry-led bioProcessUK and the Association of British Pharmaceutical Industry. The Centre proposal aligns with the EPSRC Delivery Plan 2008/9 to 2010/11, which notes pharmaceuticals as one of the UK's most dynamic industries. The EPSRC Next-Generation Healthcare theme is to link appropriate engineering and physical science research to the work of healthcare partners for improved translation of research output into clinical products and services. We address this directly. The bio-centred pharmaceutical sector is composed of three parts which the Centre will address:- More selective small molecule drugs produced using biocatalysis integrated with chemistry;- Biopharmaceutical therapeutic proteins and vaccines;- Human cell-based therapies.In each case new bioprocessing challenges are now being posed by the use of extensive molecular engineering to enhance the clinical outcome and the training proposed addresses the new challenges. Though one of the UK's most research intensive industries, pharmaceuticals is under intense strain due to:- Increasing global competition from lower cost countries;- The greater difficulty of bringing through increasingly complex medicines, for many of which the process of production is more difficult; - Pressure by governments to reduce the price paid by easing entry of generic copies and reducing drug reimbursement levels. These developments demand constant innovation and the Industrial Doctorate Training Centre will address the intellectual development and rigorous training of those who will lead on bioprocessing aspects. The activity will be conducted alongside the EPSRC Innovative Manufacturing Research Centre for Bioprocessing which an international review concluded leads the world in its approach to an increasingly important area .

Abstracts are not currently available in GtR for all funded research. This is normally because the abstract was not required at the time of proposal submission, but may be because it included sensitive information such as personal details.