I am Po-Jen Shih, a passionate researcher and educator with a Ph.D. in Civil Engineering from National Taiwan University, specializing in structural and wave mechanics. Currently, I am an Associate Professor in the Department of Biomedical Engineering at National Taiwan University, where I bridge the worlds of engineering and medicine to tackle some of the most intriguing challenges in ophthalmology.

My work focuses on biomechanics, with a particular emphasis on using advanced engineering principles to unravel the mysteries of the human eye. From analyzing the mechanical properties of the cornea to exploring wave mechanics for disease diagnosis and treatment, I strive to develop innovative solutions that make a meaningful impact on patient care.

Leading a dedicated research team, our current focus is on the biomechanics of the cornea, delving into its static and dynamic behaviors. In the near future, we aim to expand our investigations to other ocular structures such as the lens, iris, sclera, and retina, creating comprehensive mechanical models of the eye. Our ultimate goal is to redefine the way we diagnose and treat ophthalmic diseases, blending cutting-edge technology with clinical insight.

I am driven by the belief that the fusion of engineering and medicine can lead to transformative breakthroughs, improving both understanding and treatment in healthcare.

From an engineer's perspective, I lead the team in applying classical mathematical and physical tools to advance the diagnosis and treatment of ophthalmological conditions. Our research centers on the mechanical behavior of the eye, leveraging principles from classical and fluid mechanics. We conduct both static and dynamic analyses to uncover the intricate biomechanical properties of ocular tissues, which hold the key to understanding various eye disorders.

Currently, our primary focus is on the cornea, exploring its geometry, material properties, and response to mechanical forces. We aim to elucidate its role in maintaining visual clarity and its involvement in conditions such as keratoconus and glaucoma. In addition, we are developing innovative tools and methodologies, such as computational modeling and experimental validation, to enhance our understanding of corneal biomechanics.

Looking forward, we plan to broaden our research to include other ocular structures, such as the lens, iris, sclera, aqueous and vitreous chambers, retina, and optic disc. These investigations will encompass their unique mechanical properties, interactions with intraocular pressure, and responses to external stimuli. Our ultimate goal is to create a comprehensive mechanical model of the eye, which will serve as a foundation for developing more effective diagnostic techniques, surgical interventions, and treatment plans. By integrating engineering principles with ophthalmology, we aspire to contribute significantly to the field of vision science and improve patient outcomes.