Liquid Argon Time Projection Chamber (LArTPC) is a cutting-edge detector technology that provides unprecedented spatial and calorimetric resolution while remaining scalable to tens of kilotons of active mass. By using this technology, we can study neutrino interactions in exquisite detail, offering a path toward addressing fundamental questions in physics—including the neutrino mass ordering, CP violation in leptonic mixing, the mechanics of core-collapse supernovae, and baryon number violation.

Our group is leading detector control system, TPC calibration, and neutrino/hadron-argon interaction studies.

Link to the official webpage: [here]

The Deep Underground Neutrino Experiment (DUNE) is the flagship next-generation high-energy physics experiment in the United States, comprising an international collaboration of over 1,400 members. The experiment has a broad physics program aimed at resolving fundamental mysteries of the universe, including CP violation in the lepton sector, the neutrino mass ordering problem, searches for physics beyond the Standard Model, core-collapse supernova mechanisms, solar hep neutrino fluxes, and baryon number violation.

This physics capability is driven by large-volume (10-kton scale) LArTPCs, a neutrino beam produced by a world-class 1.2 MW proton beam, and a near detector facility consisting of movable LArTPC and on-axis components.

Our group's long-term vision is to lead the discovery of CP-violation in the lepton sector within the DUNE collaboration. To achieve this, we aim to constrain systematic uncertainties arising from neutrino interaction modeling, beam fluxes, and detector effects driven by hadron-argon interaction properties. As a near-term goal, our group will officially join the DUNE collaboration in the fall of 2026.