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In our lab, we develop interferometric imaging techniques (quantitative phase imaging, optical coherence tomography, etc.) for in-vitro and in-vivo biomedical applications, from uncovering nanoscopic biophysical dynamics of the cell membrane to discovering new biomarkers that address the unmet needs of functional assessment and disease diagnosis, particularly for the prediction of retinal diseases. By pushing the spatiotemporal resolution to the nanometer and millisecond scale, high-speed interferometric imaging opens the door to all-optical functional imaging, in cortical neurons, retinal ganglion cells and photoreceptors, without using fluorescent dyes or genetic markers. The non-invasive nature of optical interferometric techniques allows the long-term study of cellular activity. High-speed interferometric imaging also enables tracking single particle dynamics with nanometer precision and precise power titration for therapeutic approaches such as non-damaging retinal laser therapy.


Fast nanoscopic cellular deformations accompanying cells' functional activities

In primary cortical neuron during the action potential:


PNAS 2020, link

In spiking HEK cells during the action potential:


Light: Science & Applications 2018, link

In photoreceptors during the early receptor potential and the phototransduction cascade:


Science Advances 2020, link

Biophysical Journal 2020, link

Label-free interferometric imaging in real time and 3D tomography of cells


Scientific Reports 2017, link

Optics Letters 2015, link

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