Recent Highlights

Our recent work develops and applies a gradient-flow strategy for computing moments of parton distribution functions from lattice QCD, with results published in PRL and PRD and featured through institutional outreach.

PRL Editors' Suggestion

New gradient-flow method for PDF moments, published in Physical Review Letters and selected as an Editors’ Suggestion.

PRD Editors' Suggestion

First lattice-QCD calculation of five pion PDF moments using gradient flow, published in Physical Review D and selected as an Editors’ Suggestion.

Press & Outreach

Institutional news and outreach coverage from RWTH Aachen University and the Jülich Supercomputing Centre.

Photo by [Katharina Merks]
I am a theoretical physicist focused on understanding the strong interactions that bind protons and neutrons in atomic nuclei. My work involves exploring how these forces shape the building blocks of the universe and their impact on the symmetries that govern the fundamental forces of nature.

About ME

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Colloquium

Colloquium at LPSC - Grenoble (France) on Thursday Oct 9, 2025, 10:00 - 11:00 AM.

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Research

My research explores the non-perturbative regime of QCD, focusing on hadron structure, fundamental symmetries, and precision physics. These areas are supported by developments in gradient-flow techniques, artificial intelligence, and open science.

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Teaching

I teach physics across undergraduate and graduate levels, with a focus on clarity, physical intuition, and problem-solving skills. My courses cover quantum field theory, lattice QCD, and related topics, aiming to connect fundamental concepts with modern research.

Quantum Field Theory

Relativistic QFT and fundamental interactions

Renormalization

Scale dependence, regularization, and effective field theories

Lattice Field Theory

Non-perturbative methods and numerical simulations in QCD

Undergraduate

Core courses in physics and mathematics with strong foundations