This is a pre-announcement of upcoming R&D positions at the Center for Computational Imaging and Simulation Technologies in Biomedicine (CISTIB) at the University of Sheffield. The positions refer to two new exciting projects on patient-specific musculoskeletal and brain modelling in the context of paediatric diseases and dementia syndrome.
A couple of new exciting projects have been awarded to CISTIB and will start in early 2013. Both projects are funded by the European Commission and involve multi partner consortia with a combination of academic, clinical and industrial partners across Europe. Projects are related to patient-specific musculoskeletal and brain modelling in the context of paediatric diseases and dementia syndrome. We are receiving expressions of interest of prospective candidates for upcoming positions as Research Associates and Scientific Software Developers. We seek proactive and talented individuals with proven track record of publications in leading international journals and conferences. Candidates must hold a PhD degree and have expertise in the area of interest. Background or strong interest in biomedical engineering and proficiency in spoken and written English is expected.
The candidates will have to demonstrate expertise in one or various of the following areas of computational imaging and modelling:
We are interested in individuals with excellent communication and leadership skills, able to work in a multidisciplinary and international team and contribute to the visibility of the centre in the international scientific community. The ability to interact with other disciplines is essential. The candidate will cooperate with members of the lab working on related topics as well as with our collaborators at several academic institutions in UK and across Europe.
If you feel you qualify and would be interested in applying for one of these positions, please, send your CV for an informal discussion to Prof Alejandro Frangi a.frangi@sheffield.ac.uk with CC to Dr Zeike Taylor (z.taylor@sheffield.ac.uk) and Dr Alberto Marzo (a.marzo@sheffield.ac.uk).
More information:
The INSIGNEO Institute for in silico Medicineis an initiative between the Faculty of Engineering and the Faculty of Medicine at the University of Sheffield and the Sheffield Teaching Hospitals Foundation Trust. INSIGNEO will realise the scientific ambition behind the Virtual Physiological Human (VPH), producing a transformational impact on healthcare. INSIGNEO performs cutting edge research in areas of fundamental and applied biomedical modelling, imaging and informatics. It will pursue the research agenda of the VPH initiative; in particular, in the first five years it will focus on the Digital Patient, In Silico Clinical Trials, and Personal Health Forecasting. It will achieve transformational impact on healthcare through multidisciplinary collaboration in strategic areas, which initially will include personalised treatments and independent, active and healthy ageing.
The Center for Computational Imaging and Simulation Technologies in Biomedicine(CISTIB) at the University of Sheffield is part of INSIGNEO. CISTIB focuses on algorithmic and applied research in the areas of computational imaging, modeling and simulation. CISTIB is working in different areas of medical image segmentation, anatomical modelling, statistical shape analysis, tissue characterisation and image-based personalized computational modelling in the cardiovascular, musculoskeletal and neurological domains. The centre hosts academic members from the University of Sheffield and collaborators at the Universitat Pompeu Fabra, Barcelona, as well as research fellows, research associates, PhD Students and scientific software developers forming a cross-disciplinary team of biomedical engineers, computer scientists, electrical engineers, mechanical engineers, physicists, and mathematicians. The main objective of CISTIB is to contribute to the development of technologies for advanced screening, diagnostics, interventional guidance and therapy planning of cardio- and neurovascular diseases as well as growing activity in the musculo-skeletal system. Converging technologies such as computational imaging, computational physiology and virtual implantation of medical devices are integrated with state of the art multimodal acquisition systems to achieve an enhanced interpretation of human physiology and pathology and supply integrative approaches for in silico medical device customization, optimization and image-based efficacy assessment. Core technologies include spatial and temporal image segmentation, non-rigid image registration, multimodal image fusion, pattern recognition, statistical shape analysis, multi-view geometry, image-based tissue property estimation, tissue deformation quantification, computational geometry, image-based mesh generation, computational fluid dynamics and electro-mechanical simulation.