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Kinetic Theory of Granular Gases

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ISBN-10: 0199588139

ISBN-13: 9780199588138

Edition: 2010

Authors: Nikolai V. Brilliantov, Thorsten Poschel

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While the theory of molecular gases belongs to any undergraduate physics course, this book introduces the subject of granular gases at advanced undergraduate and beginning graduate level. It is mainly addressed to students and researchers of physics, astronomy as well as mechanical and chemical engineering.
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Book details

Copyright year: 2010
Publisher: Oxford University Press
Publication date: 11/11/2010
Binding: Paperback
Pages: 344
Size: 6.22" wide x 9.21" long x 0.75" tall
Weight: 1.144

Introduction
Kinetic gas theory for dissipative particles
Atomic level of material deformation
Continuum description of particles
Pairwise collision of particles
Many-particle systems
Hydrodynamics description
Experimental investigation of granular gases
Some remarks
Mechanics of Particle Collisions
Particle collisions
Collision on a line
Collision in space
Does the coefficient of restitution suffice to describe granular gas dynamics?
Coefficient of restitution
Forces between colliding spheres
Derivation of the coefficient of restitution
Pad� approximation
Coefficient of tangential restitution
Application to few-particle systems
Inelastic collapse
Collision cannon
Summary
Granular Gases - Velocity Distribution
Cooling granular gas - Haff's law
Homogeneous cooling state
Haff's law for the evolution of the granular temperature
Boltzmann equation
Velocity distribution function
Direct and inverse collisions
Collision integral and Boltzmann-Enskog equation
An important property of the collision integral
Sonine polynomials expansion of the velocity distribution function
Velocity distribution and temperature of a granular gas for the case � =const.
Decomposition of the Boltzmann equation
The second Sonine coefficient and the moments of the collision integral
Linear approximation of the second Sonine coefficient
Complete solution for the second Sonine coefficient
Time-dependent scaled velocity distribution function
Evolution of temperature for � = const.
Stability analysis of the Boltzmann equation
High-order coefficients of the Sonine polynomials expansion
Velocity distribution function and temperature for viscoelastic particles
Why do we expect qualitatively different distribution functions for the cases � = const. and � = � (g)?
Collision integral for a gas of viscoelastic particles
Moments of the collision integral for viscoelastic particles
Equations for temperature and for the shape of the velocity distribution function
Velocity distribution and temperature in O (�<sup>0</sup>)
Velocity distribution and temperature in O (�<sup>1</sup>)
Beyond the linear theory
Age of granular gases
High-energy tail of the velocity distribution function
Overpopulation of the high-velocity tail
High-velocity tail for � = const.
High-velocity tail for viscoelastic particles
Two-dimensional granular gases
Summary
Single-Particle Transport. Self-Diffusion and Brownian Motion
Diffusion and self-diffusion
Transport in granular gases
Diffusion coefficient and mean square displacement
Diffusion coefficient and velocity-time correlation function
Pseudo-Liouville and binary collision operators in dissipative gas dynamics
Liouville operator in classical mechanics
Derivation of the binary-collision operator
Application of the pseudo-Liouville operator to standard problems
Coefficient of self-diffusion
Velocity correlation time
Constant coefficient of restitution
Coefficient of self-diffusion for gases of viscoelastic particles
Inherent time scales
Coefficient of self-diffusion beyond the adiabatic approximation
Brownian motion in granular gases
Boltzmann equation for the velocity distribution function of Brownian particles
Fokker-Planck equation for Brownian particles
Velocity distribution function for Brownian particles
Diffusion of Brownian particles
Two-dimensional granular gases
Summary
Transport Processes and Kinetic Coefficients
Granular gas as a continuum: hydrodynamic equations
Macro- and microscales of inhomogeneous granular gas
Hydrodynamic fields
Hydrodynamic equations for granular gases
Chapman-Enskog approach for non-uniform granular gases
Basic idea of the Chapman-Enskog scheme
Equations of zeroth order of the Chapman-Enskog expansion
First-order equations of the Chapman-Enskog expansion
Solution of the first-order equation
Kinetic coefficients expressed by the velocity distribution function
Kinetic coefficients and velocity distribution for gases of elastic particles
First-order Chapman-Enskog equations
Coefficient of viscosity
Coefficient of thermal conductivity
Velocity distribution function of an inhomogeneous gas of elastic particles
Kinetic coefficients for granular gases of simplified particles (� =const)
Viscosity coefficient
Thermal conductivity coefficient � and transport coefficient �
Velocity distribution function
Kinetic coefficients for granular gases of viscoelastic particles
Chapman-Enskog approach for gases of viscoelastic particles
Viscosity coefficient
Coefficients � and �
Chapman-Enskog method for the self-diffusion coefficient
Constant coefficient of restitution
Viscoelastic particles
Two-dimensional granular gases
Constant coefficient of restitution
Granular gases of viscoelastic particles
Summary
Structure Formation
Instability of the homogeneous cooling state
Arguments for the instability of the homogeneous cooling state
Linearized hydrodynamic equations
Structure formation for � = const.
Linearized hydrodynamic equations for � = const.
Hydrodynamic modes
Vortex formation due to the instability of the transverse modes
Cluster formation due the instability of the other hydrodynamic modes
Structure formation in granular gases of viscoelastic particles
Linearized equations for the hydrodynamic modes
Stability analysis of the hydrodynamic modes and structure formation
Structure formation as a transient process
Nonlinear mechanisms of structure formation
Two-dimensional granular gases
Summary
Appendix
Functions of the collision integral
Kinetic integrals and basic integrals
Evaluation of the basic integral
Computational formula manipulation of kinetic integrals
Molecular dynamics of granular gases
Event-driven molecular dynamics
A simple event-driven algorithm
A simple program for event driven simulations
Efficient algorithms
Solutions to problems
References
Symbol index
Index