Riemannian optimization on low-rank tensor train manifolds for the Gross–Pitaevskii equation
I. Bioli, C. Marcati, M. Rakhuba · arXiv preprint
I develop efficient, mathematically grounded deep-learning methods for partial differential equations, with applications to inverse problems in computational oncology. Marie Skłodowska-Curie Doctoral Fellow at the University of Pavia, within the IN-DEEP European Doctoral Network.

Neural PDE solvers, physics-informed training, optimisation of neural networks.
Finite elements and isogeometric analysis, discretisation and error analysis.
Bayesian inversion and model calibration with neural surrogates.
Low-rank methods, Riemannian optimisation, randomised preconditioning.
I work with research groups and with companies that need reliable computational tools: from the mathematical model to efficient, tested code.
Consulting and project work on simulation, surrogate modelling, optimisation and machine learning for engineering and scientific problems.
Joint projects on numerical methods for PDEs, scientific machine learning, inverse problems and uncertainty quantification.
Internship at the Alfa Romeo F1 Team ORLEN, improving an AI agent that recommends live race-strategy decisions during Grands Prix.
Read more →Calibrating tumor-growth PDE models to patient data with quantified uncertainty, made tractable by a latent-dynamics neural surrogate.
Paper in preparation
Read more →Making natural gradient training of physics-informed neural networks fast, using matrix-free solvers with randomized low-rank preconditioning.
To appear in Computer Methods in Applied Mechanics and Engineering
Read more →I. Bioli, C. Marcati, M. Rakhuba · arXiv preprint
I. Bioli, C. Marcati, G. Sangalli · Computer Methods in Applied Mechanics and Engineering (to appear)
I. Bioli, D. Kressner, L. Robol · SIAM Journal on Scientific Computing, 47(2), A1091–A1116