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Aaron R. Hawkins

Researcher at Brigham Young University

Publications -  367
Citations -  6739

Aaron R. Hawkins is an academic researcher from Brigham Young University. The author has contributed to research in topics: Waveguide (optics) & Optofluidics. The author has an hindex of 44, co-authored 355 publications receiving 6220 citations. Previous affiliations of Aaron R. Hawkins include Cornell University & University of California, Santa Barbara.

Papers
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Ultrasensitive Qβ Phage Analysis Using Fluorescence Correlation Spectroscopy on an Optofluidic Chip

TL;DR: This study suggests considerable potential for an inexpensive and portable sensor capable of discrimination between viruses of different sizes.
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Cavity enhancement of the magneto-optic Kerr effect for optical studies of magnetic nanostructures

TL;DR: In this paper, a transfer matrix theory is developed to analyze the magneto-optic Kerr effect from an arbitrary number of possibly lossy dielectric layers, and the combination of one lossless and one thin metallic layer is found to be most favorable for studying individual nanomagnets, providing the best tradeoff between signal enhancement and spatial resolution.
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Microphotonic control of single molecule fluorescence correlation spectroscopy using planar optofluidics.

TL;DR: The ability to perform correlation spectroscopy using silicon photonics without the need for free-space microscopy permits implementation of numerous diagnostic applications on compact planar optofluidic devices.
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Optimized piranha etching process for SU8-based MEMS and MOEMS construction.

TL;DR: The optimal piranha mixture produces high yields while quickly etching hollow structures made using a highly crosslinked SU8 polymer sacrificial core and was demonstrated in the construction of hollow anti-resonant reflecting optical waveguides.
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Coaxial ion trap mass spectrometer: concentric toroidal and quadrupolar trapping regions.

TL;DR: A new radio-frequency ion trap mass analyzer, the coaxial ion trap, in which both toroidal and quadrupolar trapping regions are created simultaneously, which demonstrates better mass resolving power than the radially ejecting halo ion trap and better sensitivity than the planar quadrupole ion trap.