A. Bilenca
Harvard University
15 Papers
116 Citations
A. Bilenca is an academic researcher from Harvard University. The author has contributed to research in topics: Microscopy & Aperture. The author has an hindex of 10, co-authored 15 publications.
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Papers
Fluorescence coherence tomography.
TL;DR: Initial results suggest that SD-FCT may be a viable tool for the investigation of semi-transparent and selectively labeled fluorescent samples.
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Differential near-field scanning optical microscopy.
Aydogan Ozcan,Ertugrul Cubukcu,A. Bilenca,Kenneth B. Crozier,Brett E. Bouma,Federico Capasso,Guillermo J. Tearney +6 more
TL;DR: In this article, the authors theoretically and experimentally illustrate a new apertured near-field scanning optical microscopy (NSOM) technique, termed differential NSOM (DNSOM), which involves scanning a relatively large (e.g., 0.3-2 mum wide) rectangular aperture (or a detector) in the near field of an object and recording detected power as a function of the scanning position.
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Fluorescence interferometry: principles and applications in biology.
A. Bilenca,Jing Cao,Max Colice,Aydogan Ozcan,Brett E. Bouma,Laurel A. Raftery,Guillermo J. Tearney +6 more
TL;DR: This article proposes two experimental realizations of fluorescence interferometry that detect the interference pattern cast by the fluorescence fields and discusses their measurement capabilities and limitations and compares them with those offered by optical low‐coherence interferometric schemes.
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Estimation of the scattering coefficients of turbid media using angle-resolved optical frequency-domain imaging
TL;DR: It is shown that, by incoherently averaging OFDI reflectance signals acquired at different backscattering angles, speckle noise is reduced, allowing scattering coefficients to be extracted from a single A-line with much higher accuracy than with measurements from conventional OFDI and optical coherence tomography systems.
Multicanonical Monte-Carlo simulations of light propagation in biological media.
TL;DR: The MMC method can be useful in efficiently studying numerous applications of light propagation in complex biological media where the remitted photon yield is low, and the results agree very well with diffusion theory as well as classical Monte-Carlo simulations.
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