Non-invasive techniques to customise treatment of eye diseases
Screenshot from the University of Liverpool newsletter (2021)
I had the opportunity to contribute to a transformative project that aimed to revolutionize personalized treatment for eye diseases. As part of the University of Liverpool's Biomechanical Engineering Group, I was immersed in a collaborative effort with a European consortium, focusing on developing non-invasive imaging techniques tailored to individual patient needs.
My role was pivotal in designing the innovative devices central to our research. Through complex numerical simulations and Computational Fluid Dynamics (CFD), I crafted the intricate specifications of these tools, bringing theoretical concepts to life. Despite being the sole non-PhD member in the consortium at the time, I presented our findings to experts and challenged findings to reach the best possible outcome.
I supported the project through various stages, from initial design and simulations to experimental studies. I developed a state-of-the-art eye socket for holding animal eyes, crucial for our experimental validations. This tool was instrumental in ensuring the realistic simulation and reliability of our findings.
My involvement extended to conducting extensive inverse analysis on patient data collected during clinical trials. The insights gained from this analysis were profound, contributing to several publications that furthered the field's understanding of eye care. Moreover, our collaborative efforts led to the filing of three patents, underscoring the innovative nature of our work.
This journey was not just about the technical achievements but also about the collaborative spirit that drove our project. Working alongside leading experts and institutions, I contributed to a project that stands at the intersection of innovation and personalized healthcare, marking a significant milestone in my professional development.