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This section surveys 37 Dynamical systems and ergodic theory and highlights the main ideas, methods, and applications associated with the area.
This subtopic studies ergodic theory, focusing on long-term average behavior, invariant measures, mixing, and the statistical structure of dynamical systems.
This subtopic studies topological dynamics, analyzing recurrence, minimality, orbit structure, and qualitative behavior under continuous transformations.
This subtopic studies smooth dynamical systems, emphasizing differentiable flows and maps, local behavior near invariant sets, and structural stability.
This subtopic studies hyperbolic systems, including stable and unstable manifolds, chaotic behavior, and geometric mechanisms behind sensitive dependence on initial conditions.
This subtopic studies low-dimensional dynamical systems, where the geometry of phase space allows particularly rich classification and visualization of behavior.
This subtopic studies holomorphic and complex dynamics, focusing on iterated maps, Julia sets, Fatou components, and the geometry of complex analytic systems.
This subtopic studies bifurcation and singularity theory, analyzing how system behavior changes as parameters vary and how qualitative transitions emerge.
This subtopic studies random dynamical systems, where stochastic forcing or random perturbations shape the long-term behavior of trajectories.
This subtopic studies Hamiltonian and Lagrangian systems, emphasizing conserved quantities, symplectic geometry, and the structure of mechanical and variational dynamics.
This subtopic studies infinite-dimensional systems, including PDE-based or operator-theoretic models whose phase spaces have infinitely many degrees of freedom.
This subtopic studies dissipative systems, focusing on attractors, asymptotic compactness, and the long-time organization of solutions under damping or loss mechanisms.
This subtopic studies numerical methods and simulation for dynamical systems, including computational schemes for approximating trajectories, bifurcations, and invariant structures.
This subtopic studies applications of dynamical systems to the sciences, focusing on models from physics, biology, engineering, and other applied domains.
This subtopic studies arithmetic and non-Archimedean dynamics, where iteration, periodic points, and stability are analyzed over number-theoretic or ultrametric fields.