Scaling laws for laser–plasma interaction derived with photon kinetic theory

Albert Reitsma, Dino Jaroszynski, Raoul M. G. M. Trines, Robert Bingham

Research output: Chapter in Book/Report/Conference proceedingChapter

Abstract

In this report, we present a derivation of scaling laws for laser-plasma interaction in one-dimensional geometry, using photon kinetic theory. The interest in scaling laws arises from last year's experimental results on mono-energetic electron acceleration with the Astra laser. These results are considered a major breakthrough for laser-plasma accelerated electron bunches in terms of beam quality. Previously, the energy
spectra were found to be typically Maxwellian, which made laser-plasma based electron sources of limited interest for applications. After the successful demonstration of mono-
energetic acceleration, it is timely to address, among various other issues, the scalability to different laser and plasma parameters. The choice of photon kinetic theory for developing the scaling laws is motivated by its simplicity and the useful analogies between laser pulses and electron beams interacting with plasma due to the phase space representation of the electromagnetic field . The results presented in this paper are preliminary in the sense that only the laser pulse evolution is considered, not the electron acceleration. Also, we are planning to extend the model to three-dimensional geometry.
LanguageEnglish
Title of host publicationSTFC Central Laser Facility Annual Report 2004/05
Subtitle of host publicationTheory and Computation
Pages87-89
Number of pages3
Volume2004/05
Publication statusPublished - 2004

Fingerprint

laser plasma interactions
kinetic theory
scaling laws
electron acceleration
photons
laser plasmas
lasers
electron sources
geometry
pulses
planning
electromagnetic fields
derivation
electron beams
electrons

Keywords

  • laser plasma interaction
  • photon kinetic theory
  • scaling laws

Cite this

Reitsma, A., Jaroszynski, D., Trines, R. M. G. M., & Bingham, R. (2004). Scaling laws for laser–plasma interaction derived with photon kinetic theory. In STFC Central Laser Facility Annual Report 2004/05: Theory and Computation (Vol. 2004/05, pp. 87-89)
Reitsma, Albert ; Jaroszynski, Dino ; Trines, Raoul M. G. M. ; Bingham, Robert. / Scaling laws for laser–plasma interaction derived with photon kinetic theory. STFC Central Laser Facility Annual Report 2004/05: Theory and Computation. Vol. 2004/05 2004. pp. 87-89
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abstract = "In this report, we present a derivation of scaling laws for laser-plasma interaction in one-dimensional geometry, using photon kinetic theory. The interest in scaling laws arises from last year's experimental results on mono-energetic electron acceleration with the Astra laser. These results are considered a major breakthrough for laser-plasma accelerated electron bunches in terms of beam quality. Previously, the energyspectra were found to be typically Maxwellian, which made laser-plasma based electron sources of limited interest for applications. After the successful demonstration of mono-energetic acceleration, it is timely to address, among various other issues, the scalability to different laser and plasma parameters. The choice of photon kinetic theory for developing the scaling laws is motivated by its simplicity and the useful analogies between laser pulses and electron beams interacting with plasma due to the phase space representation of the electromagnetic field . The results presented in this paper are preliminary in the sense that only the laser pulse evolution is considered, not the electron acceleration. Also, we are planning to extend the model to three-dimensional geometry.",
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Reitsma, A, Jaroszynski, D, Trines, RMGM & Bingham, R 2004, Scaling laws for laser–plasma interaction derived with photon kinetic theory. in STFC Central Laser Facility Annual Report 2004/05: Theory and Computation. vol. 2004/05, pp. 87-89.

Scaling laws for laser–plasma interaction derived with photon kinetic theory. / Reitsma, Albert; Jaroszynski, Dino; Trines, Raoul M. G. M.; Bingham, Robert.

STFC Central Laser Facility Annual Report 2004/05: Theory and Computation. Vol. 2004/05 2004. p. 87-89.

Research output: Chapter in Book/Report/Conference proceedingChapter

TY - CHAP

T1 - Scaling laws for laser–plasma interaction derived with photon kinetic theory

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AU - Trines, Raoul M. G. M.

AU - Bingham, Robert

PY - 2004

Y1 - 2004

N2 - In this report, we present a derivation of scaling laws for laser-plasma interaction in one-dimensional geometry, using photon kinetic theory. The interest in scaling laws arises from last year's experimental results on mono-energetic electron acceleration with the Astra laser. These results are considered a major breakthrough for laser-plasma accelerated electron bunches in terms of beam quality. Previously, the energyspectra were found to be typically Maxwellian, which made laser-plasma based electron sources of limited interest for applications. After the successful demonstration of mono-energetic acceleration, it is timely to address, among various other issues, the scalability to different laser and plasma parameters. The choice of photon kinetic theory for developing the scaling laws is motivated by its simplicity and the useful analogies between laser pulses and electron beams interacting with plasma due to the phase space representation of the electromagnetic field . The results presented in this paper are preliminary in the sense that only the laser pulse evolution is considered, not the electron acceleration. Also, we are planning to extend the model to three-dimensional geometry.

AB - In this report, we present a derivation of scaling laws for laser-plasma interaction in one-dimensional geometry, using photon kinetic theory. The interest in scaling laws arises from last year's experimental results on mono-energetic electron acceleration with the Astra laser. These results are considered a major breakthrough for laser-plasma accelerated electron bunches in terms of beam quality. Previously, the energyspectra were found to be typically Maxwellian, which made laser-plasma based electron sources of limited interest for applications. After the successful demonstration of mono-energetic acceleration, it is timely to address, among various other issues, the scalability to different laser and plasma parameters. The choice of photon kinetic theory for developing the scaling laws is motivated by its simplicity and the useful analogies between laser pulses and electron beams interacting with plasma due to the phase space representation of the electromagnetic field . The results presented in this paper are preliminary in the sense that only the laser pulse evolution is considered, not the electron acceleration. Also, we are planning to extend the model to three-dimensional geometry.

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KW - photon kinetic theory

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M3 - Chapter

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BT - STFC Central Laser Facility Annual Report 2004/05

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Reitsma A, Jaroszynski D, Trines RMGM, Bingham R. Scaling laws for laser–plasma interaction derived with photon kinetic theory. In STFC Central Laser Facility Annual Report 2004/05: Theory and Computation. Vol. 2004/05. 2004. p. 87-89