About
I'm a post-doctoral research fellow, currently working in the field of phenomenological and experimental heavy-ions physics.
Research
My research involves probing the phase structure of strongly-interacting, nuclear matter and the initial-state fluctuations of nuclear systems at moderately-high temperatures; and high baryon-number densities; using effective-Lagrangian field theories — constrained by nuclear matter properties like binding energy, saturation density, symmetry energy, (in)compressibility, etc. It also focuses on reconciling the obtained results with ultra-relativistic heavy-ion collision experiments (proposed, completed and running), by utilising dynamic models like the Ultra-relativistic Quantum Molecular Dynamics (UrQMD) model. I am further involved in studying quantum-statistical correlation measurements in heavy-ion collisions as important tools for investigating the space-time structure of the particle-emitting source and femtoscopic analysis of STAR data from the Relativistic Heavy-Ion Collider (RHIC) at the Brookhaven National Laboratory (BNL). My research includes both theoretical and experimental high-energy nuclear physics.
Publications
- Dilepton signature of a first-order phase transition
- Effects of a non-zero strangeness-chemical potential in strong interaction models
- Nuclear interactions and net-proton number fluctuations in heavy ion collisions at the SIS18 accelerator
- The application of the Quark-Hadron Chiral Parity-Doublet Model to neutron star matter
- Higher-order baryon number susceptibilities: interplay between the chiral and the nuclear liquid-gas transitions
Proceedings
- Kaon femtoscopy with Lévy-stable sources from √sNN = 200 GeV Au+Au collisions at RHIC
- Multi-particle quantum-statistical correlation-functions in a Hubble-expanding hadron gas
- Concluding Remarks: Connecting Relativistic Heavy Ion Collisions and Neutron Star Mergers by the Equation of State of Dense Hadron- and Quark Matter as signalled by Gravitational Waves
Presentations
Talks
- Strongly-interacting phases in heavy-ion collisions
- Strongly-interacting phases in heavy-ion collisions and neutron stars
- Bose-Einstein correlations of charged-kaons from STAR
- Signatures of first-order phase transition in heavy-ion collisions
- Multi-particle BE-HBT correlations in a Hubble-expanding random field
- A parity-doublet model for strongly-interacting matter
Posters
Teaching
2022–23 | Durham University | Demo
Course code: Not applicable
Course type: Theory
Course subject: Electromagnetism
Course name: Demo
Course details: Overview of Gauss' law.
2022–23 | ELTE | Spring Semester
Course code: rpnhenpf20em1
Course type: Theory
Course subject: High-energy physics
Course name: Phenomenology
Course details: Overview of transport theory and effective field theories in heavy-ions phenomenology.
Course code: rpnhenpf20em1
Course type: Theory
Course subject: High-energy physics
Course name: Phenomenology
Course details: Overview of transport theory and effective field theories in heavy-ions phenomenology.
2021–22 | ELTE | Spring Semester
Course code: rpnhenpf20em1
Course type: Theory
Course subject: High-energy physics
Course name: Phenomenology
Course details: Overview of transport theory and effective field theories in heavy-ions phenomenology.
Course name: Complex detector systems
Course details: Set-up and overview of event characterization, event-tracking, particle identification & data acquisition in NA61, PHENIX, STAR, CMS & ALICE.
2021–22 | ELTE | Autumn Semester
Course code: envradiatf18gm
Course type: Laboratory
Course subject: Environmental radiations physics
Course name: Electrosmog (ESM)
Course details: Low-frequency fields of household devices.
2020–21 | ELTE | Spring Semester
Course code: rpnhenpf20em1
Course type: Theory
Course subject: High-energy physics
Course name: Phenomenology
Course details: Overview of transport theory and effective field theories in heavy-ions phenomenology.
2019–20 | ELTE | Spring Semester
Course code: fffn9a85
Course type: Theory
Course subject: High-energy physics
Course name: Quark liquids
Course details: Introduction to phenomenology in heavy-ions physics.
2019–20 | ELTE | Autumn Semester
Course code: envradiatf18gm
Course type: Laboratory
Course subject: Environmental radiations physics
Course name: Electrosmog (ESM)
Course details: Low-frequency fields of household devices.