Langevin Dynamics is a theoretical framework used to describe the motion of particles subjected to both deterministic forces and random noise. It extends classical equations of motion by adding stochastic forces that represent interactions with a surrounding environment. Langevin dynamics is commonly used to model Brownian motion and thermal fluctuations. The approach captures dissipative effects and noise-induced behavior. It is particularly useful for studying non-equilibrium systems and small-scale dynamics. Langevin equations balance systematic forces, friction, and random perturbations. This framework is widely applied in soft matter physics, chemical physics, and molecular simulations. Langevin dynamics provides insight into how microscopic randomness influences macroscopic motion. It serves as a bridge between deterministic mechanics and stochastic statistical descriptions.
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