Aerodynamic surrogate modelling
Latent-space and neural-operator surrogates for high-dimensional pressure and aerodynamic fields, from transonic wings to propellers.
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Assistant Professor · Department of Aerospace Engineering · Universidad Carlos III de Madrid
Data-efficient AI for aerodynamic modelling, flow control, and aerospace design.
I develop machine-learning and data-driven methods for fluid mechanics and aerodynamics, with a focus on surrogate modelling, multifidelity learning, active flow control, aerodynamic optimization, and physics-aware AI. My work combines high-fidelity simulations, wind-tunnel experiments, reduced-order models, and modern scientific machine learning to make aerodynamic prediction more efficient and reliable.
Latent-space and neural-operator surrogates for high-dimensional pressure and aerodynamic fields, from transonic wings to propellers.
Read moreCombining scarce high-fidelity data with cheaper low-fidelity sources through transfer learning, Gaussian processes, and active sampling.
Read moreGenetic, model-based and ML-driven strategies for active flow control, drag reduction, and convective heat-transfer enhancement.
Read moreSynchronized heat-flux and velocity measurements, infrared thermography, PIV/PTV, and wall-bounded turbulent flows.
Read more“High-fidelity aerodynamic data are expensive. My research develops data-efficient, physics-aware machine-learning methods to build reliable surrogate models from scarce simulations and experiments.”
I welcome motivated students and academic or industrial partners interested in AI-driven aerodynamics, surrogate modelling, and flow control.