On Amplification of Ion-Acoustic Mode in Burning Plasma in Presence of Drift Wave Turbulence

被引:3
|
作者
Deka, P. N. [1 ]
Deka, J. K. [2 ]
机构
[1] Dibrugarh Univ, Dept Math, Dibrugarh 786004, Assam, India
[2] Ghanakanta Baruah Coll, Dept Math, Morigaon 782105, Assam, India
关键词
Burning plasma; Drift wave turbulence; Ion-acoustic wave; Wave-particle interaction; ALPHA-PARTICLES; TRANSPORT; TOKAMAK;
D O I
10.1007/s10894-018-0198-6
中图分类号
TL [原子能技术]; O571 [原子核物理学];
学科分类号
0827 ; 082701 ;
摘要
Generation of high frequency ion-acoustic wave in burning plasmas is investigated in presence of drift wave turbulence field. Drift wave turbulence is supported by plasma inhomogeneity of a burning plasma. This low frequency wave phenomenon is playing a crucial role in energy exchange process with alpha particles of fusion reactors. Frequency of ion-acoustic wave in burning plasma may be amplified when the accelerated plasma particles transfer their energy to ion-acoustic wave nonlinearly through a modulated field. Considering an ion distribution function for inhomogeneous plasma, we have evaluated fluctuating parts of distribution function due to drift wave turbulence using Vlasov equation. We have also obtained nonlinear fluctuating parts of ion distribution function due to modulated wave as well as nonlinear ion-acoustic wave. We have estimated the growth rate of ion-acoustic wave using nonlinear dispersion relation for ion-acoustic wave.
引用
收藏
页码:301 / 307
页数:7
相关论文
共 50 条
  • [31] Transfer of Drift Wave Turbulence Energy to Langmuir Waves in Inhomogeneous Magnetospheric Plasma
    R. K. Sarma
    P. N. Deka
    Brazilian Journal of Physics, 2023, 53
  • [32] Nonlinear ion-acoustic solitary waves in an electron-positron-ion plasma with relativistic positron beam
    Sarma, Ridip
    Misra, Amar P.
    Adhikary, Nirab C.
    CHINESE PHYSICS B, 2018, 27 (10)
  • [33] Plasma response to pulsed ion acoustic wave excitation
    Jin, Chenyao
    Yip, Chi-Shung
    Zhang, Wei
    Jiang, Di
    Li, Jiangang
    PLASMA SOURCES SCIENCE & TECHNOLOGY, 2024, 33 (11)
  • [34] Two-dimensional ion-acoustic solitary waves obliquely propagating in a relativistic rotating magnetised electron–positron–ion plasma in the presence of external periodic force
    Santanu Raut
    Kajal Kumar Mondal
    Prasanta Chatterjee
    Ashim Roy
    Pramana, 2021, 95
  • [35] Dynamical Properties of Ion-Acoustic Waves in Space Plasma and Its Application to Image Encryption
    Tamang, Jharna
    Dieu Nkapkop, Jean De
    Ijaz, Muhammad Fazal
    Prasad, Punam Kumari
    Tsafack, Nestor
    Saha, Asit
    Kengne, Jacques
    Son, Youngdoo
    IEEE ACCESS, 2021, 9 : 18762 - 18782
  • [36] Stability of ion-acoustic waves in a pair-ion plasma with a third species of ions: application to cometary plasmas
    Noble P. Abraham
    Sijo Sebastian
    G. Sreekala
    Savithri E. Devi
    G. Renuka
    Venugopal Chandu
    Astrophysics and Space Science, 2014, 349 : 49 - 55
  • [37] Stability of ion-acoustic waves in a pair-ion plasma with a third species of ions: application to cometary plasmas
    Abraham, Noble P.
    Sebastian, Sijo
    Sreekala, G.
    Devi, Savithri E.
    Renuka, G.
    Chandu, Venugopal
    ASTROPHYSICS AND SPACE SCIENCE, 2014, 349 (01) : 49 - 55
  • [38] Two-dimensional ion-acoustic solitary waves obliquely propagating in a relativistic rotating magnetised electron-positron-ion plasma in the presence of external periodic force
    Raut, Santanu
    Mondal, Kajal Kumar
    Chatterjee, Prasanta
    Roy, Ashim
    PRAMANA-JOURNAL OF PHYSICS, 2021, 95 (02):
  • [39] Impact of the electron density and temperature gradient on drift-wave turbulence in the Large Plasma Device
    Perks, Conor
    Mordijck, Saskia
    Carter, Troy
    Van Compernolle, Bart
    Vincena, Stephen
    Rossi, Giovanni
    Schaffner, David
    JOURNAL OF PLASMA PHYSICS, 2022, 88 (04)
  • [40] Self-focusing of cosh-Gaussian laser beam and its effect on the excitation of ion-acoustic wave and stimulated Brillouin backscattering in collisionless plasma
    Purohit, Gunjan
    Gaur, Bineet
    OPTICAL AND QUANTUM ELECTRONICS, 2019, 51 (12)