Symmetries and Interactions from Lattice QCD
Amy Nicholson, 
Evan Berkowitz, 
Henry Monge-Camacho, 
David Brantley, 
Nicolas Garron, 
Chia Cheng Chang, 
Enrico Rinaldi, 
Christopher Monahan, 
Chris Bouchard, 
M. A. Clark, 
Balint Joo, 
Thorsten Kurth, 
B. C. Tiburzi, 
Pavlos Vranas, 
Andre Walker-Loud
Dec 2018
 
 
Abstract
Precision experimental tests of the Standard Model of particle physics (SM) are one of our best hopes for discovering what new physics lies beyond the SM (BSM). Key in the search for new physics is the connection between theory and experiment. Forging this connection for searches involving low-energy hadronic or nuclear environments requires the use of a non-perturbative theoretical tool, lattice QCD. We present two recent lattice QCD calculations by the CalLat collaboration relevant for new physics searches: the nucleon axial coupling, , whose precise value as predicted by the SM could help point to new physics contributions to the so-called "neutron lifetime puzzle", and hadronic matrix elements of short-ranged operators relevant for neutrinoless double beta decay searches.
 
Research Scientist
My research interests include artificial intelligence and quantum computing applied to particle physics and quantum many-body systems.