Postdoctoral Fellow, University of Texas at Austin
sheds light on the fundamental nature of our universe by studying the ubiquitous yet diaphanous neutrino. Through detector R&D and simulation, our group supports efforts to measure the properties of neutrinos as they travel a few meters from a reactor core or hundreds of kilometers through the Earth's crust.
We study the composition of the NuMI neutrino beam as it propogates 735 km through the Earth's crust from Fermilab to northern Minnesota using the MINOS+ detectors. By measuring the disappearance (oscillation) of muon neutrinos to other flavors, we can constrain the neutrino mixing parameters θ23 and Δm232. Shown above is our latest result as of June 2016.
Using solid-state detectors 2-4 meters from a 1MW TRIGA reactor, we hope to measure coherent neutrino scattering and uniquely probe sterile neutrino phase space. Shown above is the feasibility of such a search as outlined by my Fightin' Texas Aggie colleagues (arXiv:1511.02834). Some of our work characterizing backgrounds is documented here: arXiv:1511.02834.
Technological advances have the ability to unlock scientific breakthroughs. Shown above is a plot of analog pulse areas from a SiPM preamplifier board which we designed and constructed for the LArIAT experiment. The peaks correspond to a discrete number of photons being observed by the detector.
Latest Results from MINOS and MINOS+, Lake Louise Winter Institute, February 2016
ArgoNeuT and LArIAT: Status and Progress on Measurements Relevant for DUNE, International Workshop for the Next Generation Nucleon Decay and Neutrino Detector, October 2015
Supersymmetry Searches at the LHC using Vector Boson Fusion, Present and Future, CSU High Energy Physics and Particle Astrophysics Seminar, April 2014
To expand our fundamental understanding and application of nature while supporting my peers and the next generation of particle physicists.