ºÚÁÏÍø´óʼÇ

Biological and computational modelling underpin much of the recent innovation in cardiovascular health care, enabling more accurate diagnosis, better clinical decision-making, and more effective treatments. Research teams at the ºÚÁÏÍø´óÊÂ¼Ç School of Biomedical Engineering (SBmE) are currently involved in modelling projects.

Creating sophisticated models of neurological systems, either in the form of computer-based visualisations or lab-grown tissue samples, gives researchers the freedom to explore and test highly innovative interventions that may be life-changing for patients affected by nerve damage or disorders. Researchers at the ºÚÁÏÍø´óÊÂ¼Ç School of Biomedical Engineering (SBmE) are benefitting from advanced modelling expertise in various projects.

Ìý

Extraordinary innovations including cell therapy, nanoparticle drug delivery systems and AI-informed diagnostic tools are built on the foundations of cutting-edge computational and biological modelling capabilities. The ºÚÁÏÍø´óÊÂ¼Ç School of Biomedical Engineering (SBmE) is contributing to developments in modelling that will underpin new diagnostic tools and treatments for patients affected by diseases of the gut, in various projects.

Ìý

The emerging fields of computational and biological modelling make it possible for researchers and clinicians to test theories, explore innovations and trial new treatments faster and more precisely than ever before. The ºÚÁÏÍø´óÊÂ¼Ç School of Biomedical Engineering (SBmE) is looking for ways to embed the benefits of modelling into routine clinical practice for conditions related to human movement.

Ìý