The Large Hadron Collider (LHC) has thrust us into the precision realm of collider physics with its triumphant victory in achieving extraordinary accuracy in the measurement of key fundamental parameters of the Standard Model (SM). The electroweak sector of the SM, specifically the non-Abelian gauge structure, predicts the production of multiple gauge bosons in a single LHC collision event. My primary research interests lie in studying triboson and vector boson scattering processes. Both of these have only recently been observed given their low production probabilities; however, as the LHC collects more data, characterizing these processes will become integral to the precision program of collider physics. Continuing my studies in the electroweak sector, I am focused on elucidating the role of the Higgs boson in unitarizing the scattering of longitudinally polarized W-bosons.
The second thrust of my research is to benchmark and develop event generator workflows in ATLAS using state-of-the-art, GPU-enabled versions of widely used generators. Event generation is the crucial first step in any simulation workflow. In order to facilitate the precision era of collider physics, significantly greater computational resources will be necessary to implement event generation at higher accuracy. The GPU-enabled versions of these generators are highly performant, demonstrating improvements of up to an order of magnitude in computational time.
A third thrust of my research is to study the efficacy of machine learning-based inference at the global trigger as part of the upgraded ATLAS detector.
Step inside detectors that haven't been built yet.
These browser-based explorers let you tour the full simulation geometries of next-generation collider experiments, layer by layer — from the detectors designed to tame the beam-induced backgrounds of a 10 TeV muon collider to the precision instruments planned for the FCC-ee electroweak and Higgs factory.
Muon Collider: MuColl v1 · MAIA v0 · FCC-ee: CLD (o2_v08) · IDEA (o1_v03) · ALLEGRO (o1_v03)
A flurry of activity, with the group presenting at domestic and international conferences and workshops:
BEACON — Bottom-up EFT Analysis at Colliders and Observatories for New physics
A white paper (draft, August 2026) making the case for the Standard Model Effective Field Theory as a discovery tool spanning low-energy precision experiments, colliders, and cosmology — with a curated catalog of experiments and their public data portals, and a roadmap toward a SMEFT foundation model aligned with the DOE Genesis Mission. The companion website hosts the living experiment catalog.
Full publication lists: INSPIRE-HEP · ORCID · Google Scholar
C++, Python, Mathematica, Matlab, FeynRules · MadGraph4/5, Pythia 6 and 8 · HTML, TeX, bash · LHC grid computing · Linux, MacOS.