Science
Theoretical physicist by training, independent scientist by choice. Here is the verifiable part: peer-reviewed publications, thesis research, computational physics published open source.
Peer-reviewed publications
The two theses
Geometric Deep Learning for lattice physics
A graph diffusion model conditioned on physical temperature generates Ising configurations across the whole phase diagram — trained on 32² lattices, it samples at 64² thanks to the geometric nature of the architecture, validated against Monte Carlo on magnetization, specific heat and correlation functions. In parallel: a GPU Monte Carlo sampler for SU(3) gauge theories (Kennedy–Pendleton heatbath, over-relaxation, string tension from Creutz ratios).
The hypertriton at ALICE/CERN, with machine learning
A professional signal-extraction pipeline for the 3-body decay of the (anti-)hypertriton in pp collisions at √s = 13 TeV: BDT classifier over 15 kinematic and particle-ID variables, hyperparameter optimization, invariant-mass fits, Dalitz plots and systematics — on datasets up to ~8×10⁹ events.
Science you can watch
Computational physics published open source on my GitHub — simulations you can run, not just watch.
Source code: ChargedParticleSimulator · Computational_QM
First prize — Leonardo space hackathon, 2026
With the winning team: ground-antenna fault prediction from 3.8M telemetry rows (ROC-AUC 0.968, 44/44 faults anticipated with ~21h warning) and SGP4 orbital propagation of 100+ satellites reimplemented as a custom CUDA kernel.