Biomedical Optics
Biomedical optics focuses on the design and application of advanced optical techniques to solve pressing problems in medicine and biology.
Using techniques such as Multiphoton Laser-Scanning Microscopy, Fluorescence Recovery After Photobleaching, Raman spectroscopy, near-field optics, and adaptive optics, we are probing tumor pathology, diffusion of cell surface receptors, single molecule spectroscopy, and the limits of human vision.
This work is enhanced by the collaborative opportunities of sharing Robert B. Goergen Hall with the Institute of Optics. The Institute of Optics at the ÌìÃÀÊÓƵ has been educating the next generation of leaders in the field since its founding in 1929 as the first optics department in the country, and approximately half of all optics degrees awarded nationwide have been awarded by the Institute of Optics.
Biometric optics is truly a university-wide collaboration occuring between many departments, centers and researchers. The ÌìÃÀÊÓƵ community is using advanced optical techniques as diverse as multiphoton laser-scanning microscopy, Raman Spectroscopy, diffuse optical tomography, and near-field optics to solve pressing problems in medicine and technology. Learn more.
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| Diffuse optics, photodynamic therapy, and medical image processing | |
| Biomedical optics, specifically spectroscopic diagnostic techniques | |
| Multiphoton laser scanning microscopy, novel in vivo imaging and measurement techniques, tumor biology, angiogenesis | |
| Diffuse optics for in vivo cancer detection, diagnosis and therapy monitoring | |
| Multiphoton microscopy, surgical imaging, digital pathology, fluorescencelifetime imaging, 3D and molecular imaging | |
| Develop novel, hybrid, and ultrasound-based diagnostic methods, and define the clinical utility of the developed technologies as it applies to detection, diagnosis, and therapy of various pathologies. | |
| Design of endoscopic instruments for the visible and the infrared; optical metrology | |
| Optical instrumentation, system engineering, optical coherence tomography | |
| Vision science, advanced ophthalmic technologies | |
| Intravital imaging-based approaches for direct visualization, quantification, and molecular profiling of the local regulatory machineries that harbor the skeletal, hematopoietic, and malignant stem cells | |
| Modeling and measuring the coherence properties of returned light through biomedical imaging, material science, remote sensing |