Andere Kunden interessierten sich auch für
![Lattice Models for Fluctuating Hydrodynamics in Granular and Active Matter]( "Lattice Models for Fluctuating Hydrodynamics in Granular and Active Matter")
Lattice Models for Fluctuating Hydrodynamics in Granular and Active Matter74,99 €![Statistische Physik]( "Statistische Physik")
Statistische Physik37,99 €![Econodynamics]( "Econodynamics")
Econodynamics81,99 €![Econodynamics]( "Econodynamics")
Econodynamics74,99 €![Metastable Glassy States Under External Perturbations]( "Metastable Glassy States Under External Perturbations")
Metastable Glassy States Under External Perturbations74,99 €![Lattice Gas Hydrodynamics]( "Lattice Gas Hydrodynamics")
Lattice Gas Hydrodynamics75,99 €![Non-perturbative Renormalization Group Approach to Some Out-of-Equilibrium Systems]( "Non-perturbative Renormalization Group Approach to Some Out-of-Equilibrium Systems")
Non-perturbative Renormalization Group Approach to Some Out-of-Equilibrium Systems74,99 €
This book investigates the common nature of granular and active systems, which is rooted in their intrinsic out-of-equilibrium behavior, with the aim of finding minimal models able to reproduce and predict the complex collective behavior observed in experiments and simulations. Granular and active matter are among the most studied systems in out-of-equilibrium statistical physics.
The book guides readers through the derivation of a fluctuating hydrodynamic description of granular and active matter by means of controlled and transparent mathematical assumptions made on a lattice model. It also shows how a macroscopic description can be provided from microscopic requirements, leading to the prediction of collective states such as cooling, swarming, clustering and the transitions among them. The analytical and numerical results shed new light on the physical connection between the local, microscopic properties of few particles and the macroscopic collective motion of thewhole system.
The book guides readers through the derivation of a fluctuating hydrodynamic description of granular and active matter by means of controlled and transparent mathematical assumptions made on a lattice model. It also shows how a macroscopic description can be provided from microscopic requirements, leading to the prediction of collective states such as cooling, swarming, clustering and the transitions among them. The analytical and numerical results shed new light on the physical connection between the local, microscopic properties of few particles and the macroscopic collective motion of thewhole system.