Professor Neil W. Bressloff is a leading academic in the School of Mechanical Engineering at the University of Leeds, where he holds the position of Professor of Biomedical Engineering & Design. He serves as Head of School and has a distinguished research profile spanning aerospace and biomedical engineering. His work bridges computational design, haemodynamics, and clinical innovation. Education: PhD in Mechanical Engineering, University of Cranfield MSc in Advanced Mechanical Engineering, Imperial College London PGCE in Mathematics and PE, University of Leeds BA Hons in Engineering Sciences and Economics, St John’s College, University of Oxford Prof Bressloff's research focuses on applying advanced computational and optimization methods to solve clinical problems in cardiovascular engineering. His work includes haemodynamic modeling , design of coronary stents and bioresorbable scaffolds , and innovative heart valve development . He pioneered the design of the ArterioSorb™ coronary scaffold via Arterius Ltd, a UK-based medical device company. His methodology, originally developed for aerospace design, enables systematic exploration of device performance under anatomical variation. The recent publications reflect a strong trend in computational biomechanics , medical device optimization , and surrogate-based design . These works integrate CFD , finite element analysis , and multi-objective optimization to improve clinical outcomes. Keywords across articles include Biomedical Engineering, Haemodynamics, and Computational Design, with subfields ranging from stent deployment mechanics to transcatheter valve performance. Scientific Awards: Leading Opinion Paper, Biomaterials (2011) Prof Bressloff has secured over £1.5 million in research funding from UKRI and industry partners over the past five years. He actively supervises postgraduate researchers, including Taskin Md Siham Sayeed, and fosters strong collaborations with clinicians and industrial partners. His leadership in the Rolls-Royce and BAE Systems University Technology Partnership advanced aerodynamic design methodologies before transitioning to impactful biomedical applications. He leads a research group focused on computational engineering and design , with emphasis on translating aerospace-inspired optimization into clinical solutions. The team works on next-generation cardiovascular devices, leveraging digital design and patient-specific modeling to address unmet needs in coronary and valvular disease treatment.
