PACS numbers

41.75.Ak Positive-ion beams 41.85.Ar Particle beam extraction, beam injection 52.25.Jm Ionization of plasmas 52.40.Kh Plasma sheaths 52.59.Bi Grid- and ion-diode-accelerated beams 52.59.Sa Space-charge-dominated beams 52.65.−y Plasma simulation
  1. H.E. Norman, I.M. Saitov “Plasma phase transition64 1094–1124 (2021)
    31.15.E−, 52.25.Mq, 52.50.Lp, 52.65.−y, 64.70.Ja, 71.15.Mb (all)
  2. S.I. Moshkunov, V.Yu. Khomich “Method of detection and spectrometry of charged particles produced in a superstrong electromagnetic field based on their transport by the magnetic field of a coaxial line63 388–394 (2020)
    07.81.+a, 29.30 Aj, 41.85.Ar (all)
  3. Yu.I. Belchenko, V.I. Davydenko et alStudies of ion and neutral beam physics and technology at the Budker Institute of Nuclear Physics SB RAS61 531–581 (2018)
    29.25.Ni, 29.27.Ac, 29.27.Fh, 29.27.Hj, 41.75.−i, 41.75.Ak, 41.75.Cn, 41.85.−p, 41.85.Ar, 52.50.Dg, 52.50.Gj (all)
  4. A.G. Zagorodnii, A.V. Kirichok, V.M. Kuklin “One-dimensional modulational instability models of intense Langmuir plasma oscillations using the Silin—Zakharov equations59 669–688 (2016)
    52.35.−g, 52.65.−y (all)
  5. I.A. Kotelnikov, V.T. Astrelin “Theory of plasma emitter of positive ions58 701–718 (2015)
    41.75.Ak, 41.85.Ar, 52.25.Jm, 52.40.Kh, 52.59.Bi, 52.59.Sa, 52.65.−y (all)
  6. L.M. Zelenyi, A.I. Neishtadt et alQuasiadiabatic dynamics of charged particles in a space plasma56 347–394 (2013)
    52.20.Dq, 52.40.Kh, 94.05.−a (all)
  7. P.E. Belensov “Comments on the article ’Collective ion acceleration in systems with a virtual cathode’47 209–211 (2004)
    41.75.Ak, 52.40.Mj (all)
  8. A.E. Dubinov, I.Yu. Kornilova, V.D. Selemir “Collective ion acceleration in systems with a virtual cathode45 1109–1129 (2002)
    41.75.Ak
  9. V.N. Tsytovich, R. Bingham et alCollective plasma processes in the solar interior and the problem of the solar neutrinos deficit39 103–128 (1996)
    96.60.Kx, 52.25.Gj, 52.25.Jm, 52.90.+z (all)
  10. A.M. Ignatov, A.I. Korotchenko et alOn the interpretation of computer simulation of classical Coulomb plasma38 109–114 (1995)
    52.20.−j, 52.25.Jm (all)
  11. S.A. Mayorov, A.N. Tkachev, S.I. Yakovlenko “Comment on the article ’On the interpretation of computer simulation of classical Coulomb plasma’ by A M Ignatov, A I Korotchenko, V P Makarov, A A Rukhadze, A A Samokhin38 113–114 (1995)
    52.20.−j, 52.25.Jm (all)
  12. L.M. Vasilyak, S.V. Kostyuchenko et alFast ionisation waves under electrical breakdown conditions37 247–268 (1994)
    51.50.+v, 52.25.Jm, 52.35.Kt (all)
  13. S.A. Mayorov, A.N. Tkachev, S.I. Yakovlenko “Metastable supercooled plasma37 279–288 (1994)
    52.20.j, 52.25.Jm
  14. V.S. Vorob’ev “Plasma arising during the interaction of laser radiation with solids36 (12) 1129–1157 (1993)
    52.40.Hf, 52.38.−r, 52.25.Fi, 42.60.Jf, 52.25.Jm (all)
  15. G.V. Ovechkin “Erratum: Continuous spectrum of a condensed discharge in a capillary [Sov. Phys. Usp. 35, 520-530 (June 1992)]35 (11) 1002–1002 (1992)
    52.25.Os, 52.80.Mg, 33.55.Be, 52.80.Wq, 32.50.+d, 52.25.Jm (all)
  16. B.M. Smirnov “A book about extreme states of matter35 (7) 627–627 (1992)
    52.25.Kn, 01.30.Vv, 52.25.Fi, 52.25.Jm, 52.25.Os (all)
  17. G.V. Ovechkin “Continuous spectrum of a condensed discharge in a capillary35 (6) 520–530 (1992)
    52.25.Os, 52.80.Mg, 33.55.Be, 52.80.Wq, 32.50.+d, 52.25.Jm (all)
  18. A.A. Rukhadze, N.N. Sobolev, V.V. Sokovikov “Similarity relations for low-temperature nonisothermal discharges34 (9) 827–829 (1991)
    52.80.−s, 52.25.Dg, 52.25.Jm, 52.25.Fi (all)
  19. B.A. Trubnikov “On the possible generation of cosmic rays in plasma pinches33 (12) 1061–1071 (1990)
    98.70.Sa, 96.50.sb, 96.50.Tf, 52.40.Kh, 94.05.Jq (all)
  20. L.M. Barkov, V.G. Dudnikov et alGennadii Ivanovich Dimov (on his sixtieth birthday)31 281–282 (1988)
    01.60.+q, 29.20.Dh, 29.20.Lq, 29.17.+w, 41.75.Ak, 52.55.Jd (all)
  21. Evgenii Pavlovich Velikhov (on his fiftieth birthday)28 207–208 (1985)
    01.60.+q, 01.10.Cr, 52.75.Fk, 52.25.Jm, 52.55.−s, 52.35.Py (all)
  22. Yu.M. Ado “High-energy charged-particle accelerators28 54–69 (1985)
    29.20.Dh, 29.20.Lq, 41.75.Ak, 29.27.Bd, 29.17.+w, 41.75.Fr (all)
  23. L.I. Gudzenko, L.A. Shelepin, S.I. Yakovlenko “Amplification in recombining plasmas (plasma lasers)18 848–863 (1975)
    52.38.−r, 52.59.−f, 52.25.Jm, 32.80.Bx (all)
  24. D.I. Blokhintsev, A.V. Efremov, R.M. Muradyan “Planning of new accelerators and the problems of contemporary elementary-particle physics16 82–87 (1973)
    29.20.Dh, 13.60.−r, 12.20.Fv, 11.30.Er, 41.75.Ak (all)
  25. L.S. Bogdankevich, A.A. Rukhadze “Problems of Heavy-current Relativistic Electron Beams15 366–367 (1972)
    52.50.Gj, 52.59.−f, 52.40.Mj, 52.25.Jm (all)
  26. A.D. Vlasov “Methods of Increasing the Proton Current at the Output of a Linear Accelerator13 668–669 (1971)
    29.17.+w, 41.75.Ak, 29.27.Ac (all)
  27. A.I. Alikhan’yan, S.A. Kheifets “Contemporary status of accelerator physics and technique13 353–369 (1970)
    29.20.Lq, 41.75.Ak, 29.20.Hm, 29.17.+w, 29.20.Dh, 29.27.−a (all)
  28. A.V. Gurevich, E.E. Tsedilina “Motion and spreading of inhomogeneities in a plasma10 214–236 (1967)
    52.25.Fi, 52.25.Dg, 52.25.Jm (all)
  29. F.Kh. Baibulatov “Demonstration of deionization of a mercury plasma9 451–452 (1966)
    52.25.Jm
  30. A.A. Rukhadze, V.P. Silin “Method of geometrical optics in the electrodynamics of an inhomogeneous plasma7 209–229 (1964)
    52.35.−g, 52.25.Dg, 52.65.−y (all)
  31. V.I. Veksler “The present state of the problem of acceleration of atomic particles1 54–61 (1958)
    29.17.+w, 41.75.Fr, 41.75.Ak, 29.20.Hm, 21.30.−x, 29.20.Lq (all)
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