Department of Physics, Syracuse University
Our group is getting ready to start wiring 2 Anode Plane Assemblies (APAs) for the SBND experiment. We are performing this construction work in the newly renovated Wright Laboratory at Yale University, where we collaborate with the group led by Bonnie Fleming. This February, after many trips to Yale over the past year by Mitch/Pip/Avinay, we have completed the construction of the wiring apparatus, and look forward to starting production soon!
Pip Hamilton is finishing up his stint as MicroBooNE Run-Coordinator. This is an important job that the experiment depends on for smooth operations. This past week the transition was marked with the ceremonial cake, owl-themed in Pip’s honor. Job well done!
Jessica Esquivel gave a very nice update last week at the MicroBooNE collaboration meeting about her work to use “deep learning” tools to separate muons and pions in the CC-Inclusive cross-section analysis. She included this animation, which shows a “deep learning” algorithm learning how to distinguish between five different particle types. This work was done using the SUrge GPU cluster at Syracuse University.
Syracuse University has now officially joined the NOvA experiment. Prof. Whittington has been a member of NOvA since 2013 when he joined through Indiana University as a postdoctoral researcher. This weekend, Whittington successfully petitioned the collaboration to add Syracuse University to its ranks. He and graduate student Abhilash Yallappa Dombara are the first NOvA collaborators from the neutrino group. They will initially focus on understanding the neutrino and antineutrino composition of NOvA’s antineutrino-mode data, crucial to improving the precision of neutrino oscillation physics measurements.
The third LIght Detection in Noble Elements (LIDINE) conference, held at SLAC Sept. 22-24, brought together specialists in noble element-based detectors from across the dark matter and neutrino communities. Experts shared new developments in harnessing the scintillation properties of argon, xenon, and other noble elements to study weakly-interacting particles. Prof. Whittington co-chaired the conference and presented new findings on the scintillation properties of liquid argon-xenon mixtures that could lead to enhanced particle detection capabilities in the next generation of liquid argon neutrino experiments.