

@article{FORTOV20051,
  author =        {V.E. Fortov and A.V. Ivlev and S.A. Khrapak and
                   A.G. Khrapak and G.E. Morfill},
  journal =       {Physics Reports},
  number =        {1},
  pages =         {1-103},
  title =         {Complex (dusty) plasmas: Current status, open issues,
                   perspectives},
  volume =        {421},
  year =          {2005},
  abstract =      {The field of complex (dusty)
                   plasmas—low-temperature plasmas containing charged
                   microparticles—is reviewed: The major types of
                   experimental complex plasmas are briefly discussed.
                   Various elementary processes, including grain
                   charging in different regimes, interaction between
                   charged particles, and momentum exchange between
                   different species are investigated. The major forces
                   on microparticles and features of the particle
                   dynamics in complex plasmas are highlighted. An
                   overview of the wave properties in different phase
                   states, as well as recent results on the phase
                   transitions between different crystalline and liquid
                   states are presented. Fluid behaviour of complex
                   plasmas and the onset of cooperative phenomena are
                   discussed. Properties of the magnetized complex
                   plasmas and plasmas with nonspherical particles are
                   briefly mentioned. In conclusion, possible
                   applications of complex plasmas, interdisciplinary
                   aspects, and perspectives are discussed.},
  doiurl =        {https://doi.org/10.1016/j.physrep.2005.08.007},
  issn =          {0370-1573},
  url =           {https://www.sciencedirect.com/science/article/pii/
                  S0370157305003339},
}

@article{10.1063/1.5023480,
  author =        {Khrapak, Alexey G. and Khrapak, Sergey A.},
  journal =       {Physics of Plasmas},
  month =         {03},
  number =        {3},
  pages =         {034502},
  title =         {{Influence of a charge-gradient force on dust
                   acoustic waves}},
  volume =        {25},
  year =          {2018},
  abstract =      {{The influence of charge-gradient force, associated
                   with variations of the particle charge in response to
                   external perturbations, on the propagation of
                   low-frequency waves in weakly coupled complex (dusty)
                   plasmas is investigated. The magnitude of the effect
                   is compared with that due to polarization force,
                   studied previously in the literature. Numerical
                   estimates are presented for the regime, where the
                   orbital motion limited approach to particle charging
                   is relevant.}},
  doiurl =        {10.1063/1.5023480},
  issn =          {1070-664X},
  url =           {https://doi.org/10.1063/1.5023480},
}

@article{10.1063/1.1612941,
  author =        {Robertson, S. and Gulbis, A. A. S. and Colwell, J. and
                   Horányi, M.},
  journal =       {Physics of Plasmas},
  month =         {09},
  number =        {10},
  pages =         {3874-3880},
  title =         {{Dust grain charging and levitation in a weakly
                   collisional sheath}},
  volume =        {10},
  year =          {2003},
  abstract =      {{An experiment is described in which monodisperse
                   dust grains are levitated within a dc sheath above a
                   conducting plate in argon plasma. For plate bias
                   voltages that are not too negative (⩾−10 electron
                   temperatures), the observed dust levitation heights
                   are near to values calculated from a model combining
                   equations for the sheath with those for grain
                   charging. When the plate is more negatively biased,
                   the theoretical levitation heights are higher than
                   the observed heights as a consequence of the measured
                   sheath thickness being smaller than values obtained
                   from the models.}},
  doiurl =        {10.1063/1.1612941},
  issn =          {1070-664X},
  url =           {https://doi.org/10.1063/1.1612941},
}

@article{PhysRevE.78.026408,
  author =        {Donk\'o, Z. and Hartmann, P.},
  journal =       {Phys. Rev. E},
  month =         {Aug},
  number =        {2},
  pages =         {026408},
  publisher =     {American Physical Society},
  title =         {Shear viscosity of strongly coupled Yukawa liquids},
  volume =        {78},
  year =          {2008},
  doiurl =        {10.1103/PhysRevE.78.026408},
  url =           {https://link.aps.org/doi/10.1103/PhysRevE.78.026408},
}

@article{Salin:PhysPlas:2003,
  author =        {Salin,Gwenaël and Caillol,Jean-Michel},
  journal =       {Physics of Plasmas},
  number =        {5},
  pages =         {1220--1230},
  title =         {{Equilibrium molecular dynamics simulations of the
                   transport coefficients of the Yukawa one component
                   plasma}},
  volume =        {10},
  year =          {2003},
  abstract =      {{Equilibrium molecular-dynamics simulations in the
                   microcanonical ensemble have been performed to obtain
                   the thermal conductivity and the two viscosities of
                   the Yukawa one-component plasma from the Kubo
                   formulas. The expressions of the Kubo currents
                   (pressure tensor and energy current) which enter
                   these formulas are derived in terms of Ewald sums.
                   The simulation results for the transport coefficients
                   are compared with the predictions of the
                   Chapman–Enskog theory which has been solved
                   numerically.}},
  issn =          {1070-664X},
}

@article{Hamaguchi:1994,
  author =        {Hamaguchi,S. and Farouki,R. T.},
  journal =       {The Journal of Chemical Physics},
  number =        {11},
  pages =         {9876--9884},
  title =         {{Thermodynamics of strongly-coupled Yukawa systems
                   near the one-component plasma limit. I. Derivation of
                   the excess energy}},
  volume =        {101},
  year =          {1994},
}

@article{Farouki:1994,
  author =        {Farouki,R. T. and Hamaguchi,S.},
  journal =       {The Journal of Chemical Physics},
  number =        {11},
  pages =         {9885--9893},
  title =         {{Thermodynamics of strongly-coupled Yukawa systems
                   near the one-component plasma limit. II. Molecular
                   dynamics simulations}},
  volume =        {101},
  year =          {1994},
}

@article{Yakub:2003,
  author =        {Yakub,Eugene and Ronchi,Claudio},
  journal =       {The Journal of Chemical Physics},
  number =        {22},
  pages =         {11556--11560},
  title =         {{An efficient method for computation of long-ranged
                   Coulomb forces in computer simulation of ionic
                   fluids}},
  volume =        {119},
  year =          {2003},
}

@article{DemLev2:2022,
  author =        {Demyanov, Georgy S. and Levashov, Pavel R.},
  journal =       {Contributions to Plasma Physics},
  number =        {10},
  pages =         {e202200100},
  title =         {{Accounting for long–range interaction in the Kelbg
                   pseudopotential}},
  volume =        {62},
  year =          {2022},
}

@article{DemyanovOCP:PRE:2022,
  author =        {Demyanov, G. S. and Levashov, P. R.},
  journal =       {Phys. Rev. E},
  number =        {1},
  pages =         {015204},
  publisher =     {American Physical Society},
  title =         {{One-component plasma of a million particles via
                   angular-averaged Ewald potential: A Monte Carlo
                   study}},
  volume =        {106},
  year =          {2022},
}

@article{Demyanov:JPhysA:2022,
  author =        {G S Demyanov and P R Levashov},
  journal =       {Journal of Physics A: Mathematical and Theoretical},
  number =        {38},
  pages =         {385202},
  publisher =     {{IOP} Publishing},
  title =         {{Systematic derivation of angular-averaged Ewald
                   potential}},
  volume =        {55},
  year =          {2022},
  abstract =      {In this work we provide a step by step derivation of
                   an angular-averaged Ewald potential suitable for
                   numerical simulations of disordered Coulomb systems.
                   The potential was first introduced by E Yakub and C
                   Ronchi without a clear derivation. Two methods are
                   used to find the coefficients of the series expansion
                   of the potential: based on the Euler–Maclaurin and
                   Poisson summation formulas. The expressions for each
                   coefficient is represented as a finite series
                   containing derivatives of Jacobi theta functions. We
                   also demonstrate the formal equivalence of the
                   Poisson and Euler–Maclaurin summation formulas in
                   the three-dimensional case. The effectiveness of the
                   angular-averaged Ewald potential is shown by the
                   example of calculating the Madelung constant for a
                   number of crystal lattices.},
}


