Company: Imperial College London
Location: London
Posted: May 6th, 2026
About the role
Shoulder pain and dysfunction place a significant burden on healthcare services, and despite surgical and arthroplasty techniques, treatment outcomes can be unpredictable and variable in their success. The ENGIN Shoulder project uses in vivo dynamic biplane X-ray imaging, musculoskeletal modelling and robot-driven cadaveric testing to address these challenges. We are seeking a researcher to join this major EPSRC-funded research project to develop an integrated engineering pipeline for understanding and improving shoulder joint function by combining the three advanced approaches, in collaboration with colleagues at Imperial College London, Cardiff University and international partners.
In this role, you will lead in vitro robotic testing of cadaveric shoulders within a multidisciplinary programme combining advanced imaging, computational modelling, and experimental biomechanics. Your work will contribute to improving understanding of shoulder function in health, instability, and joint replacement, addressing key challenges in predicting patient outcomes.
You will work closely with researchers, clinicians, and project partners across institutions to support the development of innovative treatments, rehabilitation strategies, and surgical approaches.
Find out more about our related research groups on our web pages:
What you would be doing
You will design and carry out robotic-driven testing of cadaveric shoulder joints, including specimens with orthopaedic implants. Using advanced robotic systems, you will simulate realistic joint motion by precisely controlling rotations, translations, forces and moments.
You will investigate the mechanical function of shoulder tissues through sequential resection studies, enabling you to quantify the role and properties of individual structures within the joint.
Your work will directly address clinically relevant challenges, including optimising surgical procedures following shoulder replacement and supporting decision-making between surgical and non-surgical to obtain best function.
You will also contribute to setting up and programming robotic systems to replicate physiological joint motion and loading, applying principles of kinematics, dynamics and geometric transformations.
What we are looking for
We would consider applications from candidates interested in pursuing a PhD in Biomechanics; this role offers the opportunity to undertake a doctorate alongside the project.
What we can offer you
Further information
This position is fixed term and is expected to run for up to 3 years in the first instance.
If you require any further details on the role please contact: Ulrich Hansen - u.hansen@imperial.ac.uk.
In person attendance is required 5 days per week, as per the needs of the role.