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Presbyopia is a loss of the dynamic accommodation response of our vision and affects everybody as they age. Despite many static treatment options, we still do not address the biomechanical cause of lens stiffness. Novel therapies are limited by no ability to monitor in vivo biomechanics. To address this unmet need, we developed a combination OCE/Brillouin system capable of measuring co-located Brillouin spectra and elastography information to derive depth-dependent elastic moduli. The system specifications were quantified for evaluating a human lens and testing performed in vivo. This technique has the potential for patient-specific predictive models of presbyopia.
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Justin Schumacher, Alexander W. Schill, Manmohan Singh, Fabrice Manns, Kirill V. Larin, Giuliano Scarcelli, "Combining OCE and Brillouin microscopy to evaluate in vivo lens biomechanics in 3D," Proc. SPIE PC12360, Ophthalmic Technologies XXXIII, PC123600N (17 March 2023); https://doi.org/10.1117/12.2649355