Vision-Based Autonomy
Learning latent neurosymbolic representations that act as sufficient statistics — enabling us to monitor and control vision-based systems efficiently and with formal guarantees.
Research on formal verification and correct-by-design control of stochastic and learning-enabled systems — with a focus on quantified, data-driven safety guarantees.
Learning latent neurosymbolic representations that act as sufficient statistics — enabling us to monitor and control vision-based systems efficiently and with formal guarantees.
Balancing competing objectives under uncertainty — from multi-objective physics-guided models of dynamical systems to spatiotemporal robustness of temporal-logic tasks.
Certifies black-box stochastic systems from a finite dataset of transitions — the first tool to give quantified safety guarantees.
Correct-by-design control for uncertain stochastic systems via stochastic simulation relations, scaled with tensor representations.
Data-driven abstractions that naturally partition the state space, simplifying error quantification for formal verification.
Citation counts via Google Scholar.
First investigation of PGNNs for dynamic-system identification from a control-engineering viewpoint. A Physics-guided Recurrent Neural Network substantially outperforms purely data-driven approaches; physics-based constraints further compensate for inaccurate dynamics models. (in German)
Examines how physically-grounded prior knowledge accelerates Bayesian optimization. Sufficiently accurate priors significantly increase optimizer efficiency; problem conditioning and dimensionality play key roles. (in German)









