
Explore how EMBL manages and utilizes big data in biology, with insights on key developments and applications in genomics and bioinformatics.

Explore the synergy between data-driven learning and knowledge-based reasoning for symbolic discovery in machine learning and dynamical systems.

Explore techniques for confidently identifying nonlinear dynamics using limited data, focusing on advanced mathematical approaches and their applications in complex systems analysis.

Explore techniques for identifying complex cycles in point clouds and time series data on manifolds, with applications in machine learning and dynamical systems.

Explore advanced mathematical techniques for solving nonsmooth and degenerate problems in flow and transport, focusing on adaptive regularization methods and Newton-based linearization approaches.

Delve into measure-valued transport equations and their applications in many-server queues, exploring mathematical modeling techniques for systems ranging from biology to operations research.

Delve into advanced mathematical analysis of vibro-impact dynamics, exploring computational methods for energy harvesting systems and non-smooth impact phenomena through novel return map approaches.

Explore mathematical modeling approaches examining smooth vs non-smooth dynamics across climate, energy transfer, and neural systems, revealing insights into complex real-world phenomena.

Delve into advanced mathematical concepts exploring extensions of Furstenberg and Glasner's work in topological dynamics and ergodic theory, presented by XiangDong Ye.

Dive into local entropy theory's foundations, exploring topological dynamics, combinatorial descriptions, and applications in understanding complex dynamical systems and homoclinic points.

Delve into local entropy theory's fundamental concepts, exploring topological dynamics, combinatorial descriptions, and applications in understanding complex dynamical systems and homoclinic points.

Explore complex dynamics through anti-holomorphic systems on a torus, examining Weierstrass zeta-functions and their applications to Green functions and constant curvature metrics.

Delve into the fundamentals of Kolmogorov-Arnold-Moser (KAM) theory, exploring quasi-periodic motions, celestial mechanics stability, and analytical solutions for circle diffeomorphisms and Hamiltonian systems.

Delve into ergodic theory and dynamics applications in Diophantine approximation, exploring Dani's correspondence and its impact on understanding rational number density patterns.

Delve into random matrix products theory, exploring stationary probability measures, Lyapunov exponents, and their applications in dynamical systems and ergodic theory through advanced mathematical concepts.

Delve into ergodic and mixing properties of horocycle flows, exploring their time-changes, asymptotics, and fundamental mathematical concepts in dynamical systems theory.

Delve into Diophantine approximation through ergodic theory, exploring the Dani correspondence and its dynamic interpretation of rational number density in the real line.

Delve into random matrix products theory, exploring stationary probability measures, Lyapunov exponents, and their applications in dynamical systems and ergodic theory through advanced mathematical concepts.

Delve into advanced concepts of ergodic theory, including measure preservation, Birkhoff's theorem, and ergodicity of flows on the 2-torus, with applications to hyperbolic automorphisms.

Delve into random matrix products theory, exploring Lyapunov exponents, stationary measures, and probability measures on projective space through dynamic systems and ergodic theory perspectives.

Delve into advanced mathematical concepts of ergodic theory, measure preservation, and equidistribution, exploring key theorems and their applications in dynamic systems and torus flows.