Jacquelyn Michelle Noronha-Hostler

Jacquelyn Michelle Noronha-Hostler serves as Associate Professor in the Department of Physics at the University of Illinois Urbana-Champaign and holds a parallel appointment as Associate Professor at the National Center for Supercomputing Applications (NCSA), demonstrating her dual expertise in theoretical nuclear physics and high-performance computational methods. Her research program leverages supercomputing infrastructure to model extreme states of matter created in relativistic nuclear collisions.

Her primary research domains encompass Quantum Chromodynamics (QCD), relativistic hydrodynamics, heavy-ion collision dynamics, and quark-gluon plasma characterization. She specializes in developing computational frameworks for smoothed particle hydrodynamics to investigate collective flow phenomena, conservation laws for quantum numbers (baryon number, strangeness, charge), and precision signatures of phase transitions in nuclear matter. Her work bridges theoretical predictions with experimental data from facilities like the Relativistic Heavy Ion Collider and Large Hadron Collider.

Analysis of her 2025 publications reveals three dominant research thrusts: (1) precision studies of collectivity using exotic isotopes like neon-20 in small collision systems, (2) Bayesian statistical approaches to locate the QCD critical point through holographic duality methods, and (3) jet quenching phenomena in quark-gluon plasma characterized by nuclear modification factors and elliptic flow. These efforts consistently involve large international collaborations, as evidenced by multi-institutional authorship across her 124 total research outputs.

No scientific awards were documented in the provided materials.

While student advising details are absent from the scraped content, her active grant-funded research program (implied by NCSA affiliation and computational focus) likely supports graduate researchers. Specific grant mechanisms remain unmentioned in the available text.

Her NCSA appointment indicates leadership within computational physics teams utilizing supercomputing resources for nuclear theory simulations. Though specific laboratory names aren't provided, her work inherently connects to the Blue Waters and Delta supercomputing initiatives at NCSA, where she contributes to developing hydrodynamic frameworks like v-USPhydro for relativistic collision modeling.