Frontiers in Dusty Plasmas

Nakamura, Y.; Yokota, T.; Shukla, P.K.

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Table of contents
  • Cover
  • Contentsix
  • Prefacev
  • Introductionvii
  • Part I: Basic Dusty Plasmas1
  • Chapter 1. Perspectives of collective processes in dusty plasmas: a keynote address3
  • Chapter 2. Non-ideal effects in dusty plasmas13
  • Chapter 3. The kinetic approach to dusty plasmas21
  • Chapter 4. Dynamical and structural properties of strongly coupled dusty plasmas29
  • Chapter 5. Directional ordering and dynamics in dusty plasmas37
  • Chapter 6. Multiple-sheath and the time-dependent grain charge in a plasma with trapped ions43
  • Chapter 7. Surface charge on a spherical dust49
  • Chapter 8. Numerical simulation model for dust expansion into a plasma55
  • Chapter 9. Interaction potential between two Debye spheres61
  • Chapter 10. Coupling of waves and energy conversion in a slowly varying nonuniform dusty plasma67
  • Part II: Plasma Crystals – New Material73
  • Chapter 11. Classical atom-like dust Coulomb clusters in plasma traps75
  • Chapter 12. Crystallography and statics of Coulomb crystals83
  • Chapter 13. Monolayer plasma crystals: experiments and simulations91
  • Chapter 14. Nonlinear dust equilibria in space and laboratory plasmas99
  • Chapter 15. Dust particle structures in low-temperature plasmas107
  • Chapter 16. Experimental evidence for attractive and repulsive forces in dust molecules115
  • Chapter 17. Self-organization in dusty plasmas123
  • Chapter 18. Dynamical properties of strongly coupled dusty plasmas135
  • Chapter 19. Structures and structural transitions in strongly-coupled Yukawa dusty plasmas and mixtu141
  • Chapter 20. Vortex chains and tripolar vortices in dusty plasma flow147
  • Chapter 21. Dynamical structure factor of dusty plasmas including collisions153
  • Chapter 22. Melting of the defect dust crystal in a rf discharge159
  • Part III: Industrial Applications167
  • Chapter 23. On the powder formation in industrial reactive RF plasmas169
  • Chapter 24. Trapping and processing of dust particles in a low-pressure discharge177
  • Chapter 25. Effects of gravity, gas and plasma on arc-production of fullerenes185
  • Chapter 26. Formation of dust and its role in fusion devices193
  • Chapter 27. The formation and behavior of particles in silane discharges199
  • Chapter 28. Dust particles influence on a sheath in a thermoionic discharge207
  • Chapter 29. Plasma deposition of silicon clusters: a way to produce silicon thin films with medium-r213
  • Part IV: Atmospheric and Astrophysics227
  • Chapter 30. Formation of a dust-plasma cloud229
  • Chapter 31. Effects of dust on Alfvén waves in space and astrophysical plasmas237
  • Chapter 32. Investigation of plasma irregularity generation in expanding ionospheric dust clouds245
  • Chapter 33. Mass distributions and self-gravitation in dusty plasmas253
  • Chapter 34. Statistical description and 3D computer modeling of relaxing dusty plasmas261
  • Chapter 35. Regular structures in dusty plasmas due to gravitational fields269
  • Chapter 36. A rocket-borne detector for charged atmospheric aerosols275
  • Chapter 37. Paleo-heliosphere: effects of the interstellar dusty wind based on a laboratory simulati281
  • Chapter 38. Current loop coalescence in dusty plasmas289
  • Chapter 39. Jeans-Buneman instability in non–ideal dusty plasmas295
  • Part V: Basic Experiments301
  • Chapter 40. Waves and instabilities in dusty plasmas303
  • Chapter 41. Dust charging in the laboratory and in space313
  • Chapter 42. Charging measurements and planetary ring simulation by fine particle plasmas321
  • Chapter 43. Structure controls of fine-particle clouds in dc discharge plasmas329
  • Chapter 44. Structural formation and stability of Coulomb clouds in medium through low gas pressure337
  • Poster Session345
  • Poster Session A: Basic Physics of Dusty Plasmas345
  • Chapter 45. Kelvin–Helmholtz instability in weakly non-ideal magnetized dusty plasmas with grain c347
  • Chapter 46. Self-similar expansion of a non-ideal unmagnetized dusty plasma351
  • Chapter 47. Computer modeling of non-linear sheaths with dust particles355
  • Chapter 48. The gravitational effect on negatively-charged dust-grains in a plasma359
  • Chapter 49. Stationary equilibria of dusty plasmas363
  • Chapter 50. Photoelectric charging of dust particles367
  • Chapter 51. Influence of dust grains rotation on waves dispersion in plasmas373
  • Chapter 52. Plasma-maser instability in magnetized dusty plasma377
  • Chapter 53. Ion bursts in a negative ion plasma381
  • Chapter 54. Nonlocal effects in an ion beam driven ion acoustic waves in a magnetized dusty plasma385
  • Chapter 55. Experimental observation of attraction of massive bodies in a plasma389
  • Chapter 56. The role of random grain-charge fluctuations in dusty plasmas393
  • Chapter 57. Shock waves in plasmas containing dust particles397
  • Chapter 58. Investigation of the ordered structure formation in a thermal dusty plasma401
  • Chapter 59. Separation of diamagnetic fine particles in a non-uniform magnetic field405
  • Chapter 60. Minimal charge asymmetry for Coulomb lattices in colloidal plasmas: effects of nonlinear409
  • Chapter 61. Characteristics of asymmetric ion sheath in a negative ion plasma413
  • Chapter 62. Coherent interaction model of attractive forces in the plasma crystals417
  • Chapter 63. Charge distribution function of negatively and positively charged plasma dust particles423
  • Chapter 64. Control of ultra-fine particles in plasma by an electromagnetic field427
  • Poster Session B: Strongly Coupled Dusty Plasmas431
  • Chapter 65. Damping of collective excitations in Coulomb crystals433
  • Chapter 66. Behaviour of particles released from inner walls in an ECR plasma etch tool437
  • Chapter 67. Anomalous diffusion and finite size effect in strongly coupled 2-D dust Coulomb clusters441
  • Chapter 68. Plasma crystals and liquids in DC glow discharge445
  • Chapter 69. Formation of ring-shaped fine-particle clouds in a DC plasma449
  • Chapter 70. Vertical spread of fine-particle clouds in a magnetized DC plasma453
  • Chapter 71. Vertical string structure of fine particles in a magnetized DC plasma457
  • Chapter 72. Determination factor of Coulomb crystal structure in dusty plasmas461
  • Chapter 73. Instabilities of dust particles levitated in an ion sheath with low gas pressure465
  • Chapter 74. Instabilities of the dust-plasma crystal469
  • Chapter 75. Some remarks on dust lattice waves in plasma473
  • Chapter 76. Artificial fireball as dust-plasma cloud477
  • Chapter 77. Quenching of a high-temperature phase of Fe nanoparticles by a microwave plasma processi481
  • Chapter 78. Observation of dust particles trapped in a diffused plasma produced by low pressure RF d485
  • Chapter 79. RF potential formation in a magnetised plasma containing negatively charged particles489
  • Chapter 80. Formation of particle conglomerates in a methane discharge493
  • Chapter 81. Change of the potential relaxation instability in a plasma containing heavy C–60 ions497
  • Chapter 82. Experimental verification of dust particle's transport by ambipolar E×B drift501
  • Chapter 83. Nuclear induced dusty plasma structures505
  • Chapter 84. Experimental investigation and numerical simulation of inductively coupled dusty plasma509
  • Chapter 85. Dust wake in a collisional plasma513
  • Chapter 86. Measurement of electric charge of dust particles in a plasma517
  • Chapter 87. Transport of a polydisperse ensemble of dust particles in plasma521
  • Chapter 88. Influence of the lattice symmetry on melting of the bilayer Wigner crystal525
  • Poster Session C: Collective Effects and Astrophysics529
  • Chapter 89. Effects of dust grains on planar RF discharges531
  • Chapter 90. Experimental studies of UV-induced dusty plasmas under microgravity535
  • Chapter 91. Parameters of dusty particles in plasma flows539
  • Chapter 92. Hard X-rays from high power density plasma "dust"543
  • Chapter 93. From dusty plasma target to hard X-ray lasant media547
  • Chapter 94. Coupling between Jeans and X-modes in self-gravitating magnetized dusty plasmas551
  • Chapter 95. Fluctuation electrodynamics of dusty plasmas555
  • Chapter 96. Measurement and modeling of particle spacing in strongly coupled dusty plasmas559
Book details
  • Vendor Elsevier S & T
  • SKU 9780444503985
  • ISBN-13 9780080532035
  • Author Nakamura, Y.; Yokota, T.; Shukla, P.K.
  • Category Science
  • Subject Astronomy

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The study of dusty plasmas is now in a vigorous state of development. Dust and plasma coexist in a vast variety of cosmic environments and their research received a major boost in the early 80's with the Voyager spacecraft observations of peculiar features in the Saturnian ring system (e.g. the radial spokes) which could not be explained purely in gravitational terms. In addition, dust streams were measured by the Galileo spacecraft in the Jovian magnetosphere and charged dust in the earth's mesosphere was detected by a direct rocket experiment. Since then the area has greatly expanded with dedicated laboratory experiments verifying aspects of basic physics of charged dust grains in plasmas.
These proceedings contain invited and poster papers which were presented by scientists active in the field from more than twenty countries. The material contains new aspects of collective interactions in dusty plasmas. For example, discoveries of dust-acoustic Mach cones, dust ion-acoustic shocks, great dust voids, vortex formation, dust crystallization under microgravity, coexistence of positive negative dust grains in the mesosphere and dust in tokamaks. The more theoretical and simulation studies focus on dynamical and structural properties and kinetic theories of strongly coupled dusty plasmas, as well as on self-organizations and structures, in addition to identifying forces (viz. wakefields, electrostatic and dipolar interactions etc.), which are responsible for charged dust grain attraction and phase transitions. The resulting book is a valuable, state-of-the-art review of the field of dusty plasma physics and will be welcomed by both researchers and graduate students who want to keep up to date in this rapidly growing field.