The nonlinear cold plasma-bunched beam interaction and the plasma wakefield accelerator case

Bilikmen, Sinan; Nazih, Rhimi M

doi:10.1088/0031-8949/47/2/013

Cited by 6 publications

(11 citation statements)

References 8 publications

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“…Also, the nonlinear cold plasma-bunched beam interaction represents an interesting application for plasma wakefield accelerator [17].…”

Section: Introductionmentioning

confidence: 99%

Linear and Nonlinear Electron Beam Heating of Magnetized, Motional, and Dusty Plasma

Khalil¹,

Alotaibi²

2016

JMP

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Recent theoretical work on electron beam heating of magneto-active motional Plasma is presented. Power transfer from beam (plasma heating) and generated electric fields for different physical situations of linear and nonlinear beam-plasma interaction, are studied. Based on previous works ) is also considered. Taking into consideration nonlinear process, dust, plasma motion, and beam velocity inhomogeneity, are found to play a crucial role via power absorbed by the beam and the generated electric field in the system.

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“…Also, the nonlinear cold plasma-bunched beam interaction represents an interesting application for plasma wakefield accelerator [17].…”

Section: Introductionmentioning

confidence: 99%

Linear and Nonlinear Electron Beam Heating of Magnetized, Motional, and Dusty Plasma

Khalil¹,

Alotaibi²

2016

JMP

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“…This subject is of great interest for developing new methods for amplifying and generating electromagnetic waves [8,9], accelerating charged particles in plasma [10], high-frequency heating of plasma [11], etc.…”

Section: Introductionmentioning

confidence: 99%

Inhomogeneous relativistic electron beam interaction with inhomogeneous warm plasma

El-Sharif

El-Shorbagy

2013

Phys. Wave Phen.

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The interaction of inhomogeneous relativistic electron beam with inhomogeneous bounded warm plasma, which leads to amplification of waves, is analyzed. It is shown that due to the resonant increase in wave's field with a decrease in the plasma permittivity to zero, the power absorbed by plasma is finite and depends on the plasma thermal velocity. The relativistic electron beam not only amplifies waves in plasma but also provides efficient absorption of these waves by plasma.

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“…This approach has permitted considerable insight into the important role of transverse transport of the oscillation energy with the group velocity out of the beam region in determining the behavior of the beam-plasma interaction [3][4][5][6][7][8].…”

Section: Introductionmentioning

confidence: 99%

The Effects of Relativistic Warm Plasma Waveguide and High Frequency Electrical Field on Beam-Plasma Interaction

El-Shorbagy

2007

Acta Phys. Pol. A

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The paper is concerned with investigation of the influence of an intense high frequency electric field and relativistic warm plasma waveguide on electrostatic oscillations of nonuniform bounded plasma. The stabilizing effect of a strong high frequency (pump) electrical field on beam-plasma interaction in a cylindrical relativistic warm plasma waveguide is discussed. A new mathematical technique "separation method" was applied to the two-fluid plasma model to separate the equations, which describe the system, into two parts, time and space parts. Plasma electrons are considered to have a relativistic, thermal velocity. It is shown that a high frequency electric field has no essential influence on dispersion characteristics of unstable surface waves excited in a relativistic warm plasma waveguide by a low-density electron beam. The region of instability is only slightly narrowing and the growth rate decreases by a small parameter and this result was reduced comparing to cold, nonrelativistic plasma. Also, it is found that the plasma electrons did not affect the solution of the space part of the problem.

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The nonlinear cold plasma-bunched beam interaction and the plasma wakefield accelerator case

Cited by 6 publications

References 8 publications

Linear and Nonlinear Electron Beam Heating of Magnetized, Motional, and Dusty Plasma

Linear and Nonlinear Electron Beam Heating of Magnetized, Motional, and Dusty Plasma

Inhomogeneous relativistic electron beam interaction with inhomogeneous warm plasma

The Effects of Relativistic Warm Plasma Waveguide and High Frequency Electrical Field on Beam-Plasma Interaction

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