VERaiPHY -- Validation & Evaluation for Robust AI in PHYsics
Gaia Grosso, Ramon Winterhalder, Lydia Brenner, Louis Lyons, Tilman Plehn
Abstract
Modern machine learning is leading to substantial gains in precision, flexibility, and computational efficiency in fundamental physics. Statistical validation, uncertainty quantification, and robustness assessment are less systematically addressed. The VERaiPHY initiative (Validation & Evaluation for Robust AI in PHYsics) is a series of articles developed within the PHYSTAT programme, aimed at establishing statistical standards for the development, evaluation, and deployment of ML techniques. Each article focuses on a specific methodological domain from a statistics perspective and clarifies statistical questions, tests, and the interpretation of results. This opening article establishes the probabilistic, statistical, and machine learning foundations that the later contributions assume, together with the notation used throughout.
Create a lesson
Related papers
Comprehensive reconstruction of collider events with hypergraph representation learning and graph-conditioned diffusion
Lining Mao, Yvonne Peters, Ethan Simpson et al.
New Dynamics (?) of J/ψJ/ψ and ΥΥ families from QCD Laplace sum rules at NLO
S. Narison, Andry Rabemananjara, D. Rabetiarivony
Transverse Tau Spin Correlations and the Weak Electric Dipole Moment at Future Z Factories
Xin-Yu Du, Zi-Yue Zou, Xiao-Gang He et al.
Addressing the S-wave scalar f0(1500)-resonance in quasi-four-body FCNC rare Bs f0(1500) ( π+ π- ) + - / ν ν decays
Xue Zheng, Hai-Bing Fu, Dan-Dan Hu et al.
Complete electroweak corrections to diphoton production via gluon fusion at the LHC
Long-Bin Chen, Zi-Qiang Chen, Hai Tao Li et al.
Baryon-to-meson ratios in the Lund jet plane: resolving string-junction and thermal-fragmentation effects
Robert Vertesi