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I’ve had a lengthy and broad based research program during my time at the
University of Alabama Birmingham. My first three years were spent
under the tutelage of Dr. Ryoichi Kawai, where I performed calculations
on noise induced phase transitions and learned his density functional theory
(DFT) code. I owe Dr. Kawai my existence as a graduate student, in that
he forced me to work hard to rigorously understand everything instead of
letting me get by on natural ability and intuition. He also showed
me the value of gaining outside experience during my graduate career.
He took me to work at the Air Force Research Laboratory at Wright Patterson
Air Force Base during the summer of 1996, where I worked on DFT and learned
parallel programming. I continued to collect outside experiences
with two stints at NASA’s Jet Propulsion Laboratory at Caltech. While
employed by JPL in 1998, under the guidance of Dr. Pantazis Mouroulis,
I helped build and test a miniature Offner spectrometer and wrote computer
code to track the spectral response through any given optical system.
My second visit to JPL was to take part in the Caltech Summer School for
Planetary Sciences in the summer of 2000. The goal was to learn about
how to design a NASA Discovery micromission. We chose to design a
mission to search for water on the moon, and it was picked as most likely
to fly by a panel of NASA reviewers. One of the coolest things about
designing the Discovery micromission was being able to work with TeamX
and with the other summer school attendees from all over the world.
We worked to put together a solid, plausible mission in just a few short
days. For more information on my work on any of these projects, check
out my OTHER RESEARCH TOPICS page…
Since 1997 I have been working
in nonlinear optical materials research, under the direction of Dr. Chris
Lawson. I appreciate his faith in me to allow me to do a majority
of theoretical work in a predominantly experimental lab, and his trust
in me to let me work on my own ideas. Soon after I began to familiarize
myself with the field of nonlinear optics, I was amazed that the majority
of work published in the field is just the reporting new measured data.
It then became a goal of mine to improve upon the tools available for the
characterization of nonlinear optical materials. After an introductory
period in which I assisted in the measurement of the nonlinear optical
response of a number of compounds using the standard characterization techniques
(degenerate four-wave mixing, z-scan, nonlinear absorption), I began to
write programs to simulate the response of a compound measured by each
of the aforementioned techniques. Using dynamic modeling, I can track
the change in population of the excited states of a molecule and the corresponding
change in transmission of the applied laser pulse as it moves through the
material, and thus gain insight into which processes dictate the nonlinear
optical response. I have also had the benefit of working with Dr.
Sergey Mirov, and am under his guidance building a high power ultrabroadband
tunable laser that I will use to perform the above measurements at a wide
range of wavelengths. Further, over the past year have been attempting
to establish a model to allow for the quantum chemical prediction of the
molecular susceptibilities of a series of organometallic materials that
contain transition metals. This last task is something that many
have said cannot currently be done – and that’s just my kind of challenge…
I am very flexible and work well
independently or as part of a team. My research and training are
cross-disciplinary, and I am comfortable and capable of working on just
about anything. I love a challenge and am an extremely hard and diligent
worker. I am a skilled teacher and am well versed in proposal writing.
My unique research background allows me to have an edge in the development
of new photonic materials for optical switching, optical communications,
optical lithography, and radiation therapy. My experience in chemical
and nonlinear dynamic simulation provides me with the ability to excel
in the modeling of many biological, environmental, or chemical phenomena.
If you are familiar with the
basics of nonlinear optics, I suggest you proceed to one of the topics
of my research listed on the left. Otherwise, you might want to check
out the ORIGINS OF NLO RESPONSE page for a short introduction to the fundamentals
of nonlinear optical response. Furthermore, a brief review of background
for each of my research topics is provided in the appropriate section listed
to the left. You can also email me to request a pdf copy of my PhD
disertation. |