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Stephen A. Boppart

Researcher at University of Illinois at Urbana–Champaign

Publications -  684
Citations -  33772

Stephen A. Boppart is an academic researcher from University of Illinois at Urbana–Champaign. The author has contributed to research in topics: Optical coherence tomography & Laser. The author has an hindex of 90, co-authored 631 publications receiving 31497 citations. Previous affiliations of Stephen A. Boppart include Harvard University & Boston University.

Papers
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In vivo evaluation of adipose- and muscle-derived stem cells as a treatment for nonhealing diabetic wounds using multimodal microscopy

TL;DR: The optical method outlined in this study, which has the potential for in vivo human use, may optimize the care and treatment of diabetic nonhealing wounds.
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Handheld optical coherence tomography for clinical assessment of dental plaque and gingiva.

TL;DR: In this article, a handheld OCT system with an interchangeable attachment was developed to assess dental plaque and gingival health in a clinical setting, which can access premolars, first molars, and lingual sides of teeth to visualize the plaque distribution.
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Molecular identification by generating coherence between molecular normal modes using stimulated Raman scattering

TL;DR: This work proposes a method of driving the vibrations of normal modes of a target molecule into coherence using stimulated Raman scattering, and investigates how target and confounder molecules can be distinguished by pulses that drive many vibrations coherently.
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Local wavefront mapping in tissue using computational adaptive optics OCT

TL;DR: A method to estimate the single-pass wavefront aberrations from complex optical coherence tomography (OCT) data was developed and, using this method, localized wavefront measurement and correction using computational OCT was performed in ex vivo tissues.
Patent

Compression of Polarized Supercontinuum Pulses Generated in Birefringent All Normal-Dispersion Photonic Crystal Fiber

TL;DR: In this article, a birefringent photonic crystal fiber characterized by normal dispersion at all wavelengths of transmission was used to generate ultrashort optical pulses, and supercontinuum pulses were then compressed to form compressed pulses.