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  1. Hadron Structure and QCD: Effective Field Theory for Lattice Simulations

    Chiral extrapolations will be essential for many years if one is to connect modern lattice QCD calculations with experiment. Given the enormous...
    D.B. Leinweber, A.W. Thomas, R.D. Young in Lattice Hadron Physics
    Chapter
  2. Quark Propagator from LQCD and Its Physical Implications

    The quark propagator lies at the core of lattice hadron spectrum calculations as well as studies in other nonperturbative schemes. It manifestly...
    P.O. Bowman, U.M. Heller, ... J.B. Zhang in Lattice Hadron Physics
    Chapter
  3. Baryon Spectroscopy in Lattice QCD

    We review recent developments in the study of excited baryon spectroscopy in lattice QCD. After introducing the basic methods used to extract masses...
    D.B. Leinweber, W. Melnitchouk, ... J.M. Zanotti in Lattice Hadron Physics
    Chapter
  4. Hadron Properties with FLIC Fermions

    The Fat-Link Irrelevant Clover (FLIC) fermion action provides a new form of nonperturbative O(a)-improvement in lattice fermion actions offering near...
    J.M. Zanotti, D.B. Leinweber, ... J.B. Zhang in Lattice Hadron Physics
    Chapter
  5. Dumbbell Model for Dilute and Semi-Dilute Solutions

    Dumbbell models are very crude representations of polymer molecules. Too crude to be of much interest to a polymer chemist, since it in no way...
    Chapter
  6. Computing the η and η′ Mesons in Lattice QCD

    It has been known for a long time that the large experimental singlet-octet mass gap in the pseudoscalar meson mass spectrum originates from the...
    K. Schilling, H. Neff, T. Lippert in Lattice Hadron Physics
    Chapter
  7. Equilibrium Statistics: Monte Carlo Methods

    Monte Carlo methods use random numbers, or ‘random’ sequences, to sample from a known shape of a distribution, or to extract distribution by other...
    Chapter
  8. 6. Kinematic Control of UVMSs

    A robotic system is kinematically redundant when it possesses more degrees of freedom than those required to execute a given task. A generic...
    Gianluca Antonelli in Underwater Robots – 2nd Edition
    Chapter
  9. Computer Simulations of the Electric Double Layer

    We describe the Lekner–Sperb summation technique used to calculate the Coulomb interaction in 2D periodic systems, and discuss in detail the methods...
    André G. Moreira, Roland R. Netz in Novel Methods in Soft Matter Simulations
    Chapter
  10. Molecular Dynamics of Complex Systems: Non-Hamiltonian, Constrained, Quantum-Classical

    A theoretically sound and computationally tractable treatment for non-Hamiltonian molecular dynamics is needed for simulations of complex systems....
    Giovanni Ciccotti, Galina Kalibaeva in Novel Methods in Soft Matter Simulations
    Chapter
  11. Reverse Non-equilibrium Molecular Dynamics

    We review non-equilibrium methods for calculating transport coefficients with emphasis on the reverse non-equilibrium molecular dynamics (RNEMD)...
    Florian Müller-Plathe, Patrice Bordat in Novel Methods in Soft Matter Simulations
    Chapter
  12. On the Reduction of Molecular Degrees of Freedom in Computer Simulations

    Molecular simulations, based on atomistic force fields are a standard theoretical tool in materials, polymers and biosciences. While various methods,...
    Alexander P. Lyubartsev, Aatto Laaksonen in Novel Methods in Soft Matter Simulations
    Chapter
  13. Lattice Boltzmann Modeling of Complex Fluids: Colloidal Suspensions and Fluid Mixtures

    The study of complex fluid dynamics requires development of numerical tools that capture the essentials of the dynamic coupling among the different...
    Ignacio Pagonabarraga in Novel Methods in Soft Matter Simulations
    Chapter
  14. Mesoscopic Multi-particle Collision Model for Fluid Flow and Molecular Dynamics

    Several aspects of modeling dynamics at the mesoscale level are discussed: (1) The construction of a mesoscopic description of fluid dynamics. The...
    Anatoly Malevanets, Raymond Kapral in Novel Methods in Soft Matter Simulations
    Chapter
  15. Efficient Methods to Compute Long-Range Interactions for Soft Matter Systems

    An extensive introduction to the topic of how to compute long-range interactions efficiently is presented. First, the traditional Ewald sum for 3D...
    Chapter
  16. Nonequilibrium Dynamics of Anisotropic Fluids

    In Chap. 9 we summarized methods for analyzing the equilibrium statistics of physical system, using Monte Carlo methods. While at equilibrium complex...
    Chapter
  17. Connection between Different Levels of Description

    One of the major issues raised by the Boltzmann equation is the problem of the reduced description. Equations of hydrodynamics constitute a closet...
    Chapter
  18. Simulating the Dynamics of Mesoscopic Systems

    We consider how to simulate quantitatively the dynamics of mesoscopic systems on macroscopic time-scales. In this respect we consider two relatively...
    Christopher P. Lowe, Menno W. Dreischor in Novel Methods in Soft Matter Simulations
    Chapter
  19. Hybrid Models: Bridging Particle and Continuum Scales in Hydrodynamic Flow Simulations

    Different models for the coupling of field and particle descriptions are introduced and examined. For the purpose of establishing how a molecular...
    Eirik G. Flekkøy, Sean McNamara, ... Geri Wagner in Novel Methods in Soft Matter Simulations
    Chapter
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