A false-color microscopic image highlighting structural details of biological tissue using advanced optical imaging techniques. These methods, such as multiphoton microscopy and SHG, help visualize extracellular matrix components like collagen, aiding in cancer research and tissue analysis.

Research Overview: Optical technologies that rely on the tissues’ natural “glow” to enable precision disease detection and therapy

The Georgakoudi lab focuses on the development and application of label-free optical technologies that have the potential to transform the diagnosis and treatment monitoring of human diseases. Label-free methods rely on endogenous sources of contrast, obviating the need for exogenous dyes and facilitating translation from the lab to the clinic. The three pillars of the studies we pursue include development of translational non-invasive, label-free optical technologies, image analysis approaches (including machine learning/deep learning-focused ones) that enable quantitative, automated assessments of morphofunctional tissue metrics, and fundamental studies that validate the methods or provide a deeper understanding of the underlying pathophysiology of the diseases of interest. The two latter components are critical to informing and optimizing translation. Conversely, translation of the tools we develop to in vivo human studies in the context of morphofunctional tissue assessments, and not simply optimized classification, will offer unprecedented insights on the fundamentals of disease pathophysiology. We pursue applications in cancer, aging, osteoarthritis, metabolic, cardiovascular, and neurodegenerative diseases.

Featured Research Projects

A 3D visualization of biological tissue obtained using label-free, high-resolution metabolic imaging. This technique enables non-destructive analysis of cellular metabolism, preserving structural integrity while highlighting metabolic variations within the tissue. Such imaging is crucial for studying disease progression, tissue function, and biomaterial interactions.

Label-free, non-destructive, high-resolution metabolic imaging

Transforming disease detection, we develop label-free multiphoton microscopes for non-invasive tissue assessment, advancing precision diagnostics and personalized care.
Read more

Image of extracellular matrix acquired by  label-free microscopy via second harmonic generation.

Multi-scale label-free imaging of extracellular matrix

Exploring collagen’s role in disease, we develop advanced imaging tools to improve cancer detection and understand tissue matrix organization.
Read more

Principle and schematic of a lab-designed in vivo flow cytometry.

In vivo flow cytometry for tumor and CAR-T cell monitoring

Harnessing endogenous optical contrast, we develop innovative techniques to detect circulating tumor cells and monitor immune cell interactions in blood.
Read more