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Multimodal hyperspectral system for imaging of biological tissues glycation

Project description

Early real-time in vivo diagnosis of diabetes complications

The ultimate goal of the EU-funded MultiBioScan is to train an independent investigator via a research project focused on the introduction of novel tools for the early in vivo real-time assessment of diabetes complications. The goal will be achieved using the latest hyperspectral imaging methods, including the measurement of diffuse reflection, fluorescence, speckle patterns and polarisation, and an advanced data mining approach. The project results will provide new cost-efficient technologies for real-time in vivo diabetes complications screening. The medical diagnostic equipment market is a fast-growing field, and the project's results have a good opportunity for successful commercialisation. The translational part of the project will involve applying scientific studies to actual conditions in clinical practice.

Objective

The ultimate goal of the MultiBioScan is to train a talented researcher through a research project focused on the development of novel tools for the early in vivo real-time assessment of the diabetes mellitus complications, including diabetic foot syndrome. This will be achieved using the latest methods of hyperspectral imaging, including the measurement of diffuse reflection, fluorescence, speckle patterns and polarization, as well as an advanced data mining approach. The Fellow will be trained in biomedical optics (biophotonics), a fast growing field of science and medical application. He will receive access to a unique training experience at the host – Aston University (UK), and at academic and industrial secondment partners: University of Oulu (Finland), University-Hospital of Padua (Italy), SPECIM, Spectral Imaging Ltd. (Finland). The MultiBioScan outputs will be relevant to the EU life sciences sector by offering new cost-efficient technologies for real-time in vivo diabetes mellitus complications screening. Given the huge and fast-growing market of medical diagnostic equipment, the project results have a good opportunity for successful commercialisation. The Fellow will use his present connections to optical equipment manufacturers in EU to develop commercialisation opportunities, and new connections will be established through this project. The project brings together a talented young Fellow with a strong biomedical science and engineering background, and an internationally growing group of researchers at Aston University with expertise in the area of developing laser-based photonic devices for biomedical research and clinical diagnostics.The Fellow will be further supported by medical and industrial expert co-hosts who will help train the Fellow in key skills and support the translational research process. The translational part of the project will primarily be aimed at adapting results of scientific studies to actual conditions of clinical practice.

Coordinator

ASTON UNIVERSITY
Net EU contribution
€ 224 933,76
Address
ASTON TRIANGLE
B4 7ET Birmingham
United Kingdom

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Region
West Midlands (England) West Midlands Birmingham
Activity type
Higher or Secondary Education Establishments
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Total cost
€ 224 933,76