Formation and Microfilamentation of Spiral Density Waves in Plasmas Induced by Circularly Polarized Field Ionization

The formation and subsequent self-organization of a spiral electron density modulation initialized in a plasma produced by optical-field ionization of various gas species is studied. Our analytical model predicts that the spiral density modulation results from space-dependent drift velocities of the ionized electrons due to the spatial and temporal intensity distributions of the circularly polarized ionizing laser. The spiral topology of the electron density has been validated by three-dimensional particle-in-cell simulations. Simulations further show that the spiral density modulation subsequently self-organizes to form numerous microfilaments, i.e., thin strands that arise because of a modified streaming instability.

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Publication Details

Journal
Physical Review Letters
Published
2024-11-27
DOI
https://doi.org/10.1103/physrevlett.133.225101
Primary Topic
Laser-Matter Interactions and Applications
Type
article
Field-Weighted Citation Impact
0.00

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article

Formation and Microfilamentation of Spiral Density Waves in Plasmas Induced by Circularly Polarized Field Ionization

C. Joshi, Kris Marsh, C. Huang, Jyhpyng Wang et al.
Physical Review Letters
Laser-Matter Interactions and Applications
article

Formation and Microfilamentation of Spiral Density Waves in Plasmas Induced by Circularly Polarized Field Ionization

C. Joshi, Kris Marsh, C. Huang, Jyhpyng Wang, Chaojie Zhang
article en

Abstract

The formation and subsequent self-organization of a spiral electron density modulation initialized in a plasma produced by optical-field ionization of various gas species is studied. Our analytical model predicts that the spiral density modulation results from space-dependent drift velocities of the ionized electrons due to the spatial and temporal intensity distributions of the circularly polarized ionizing laser. The spiral topology of the electron density has been validated by three-dimensional particle-in-cell simulations. Simulations further show that the spiral density modulation subsequently self-organizes to form numerous microfilaments, i.e., thin strands that arise because of a modified streaming instability.

Physical Review LettersVol. 133(22)
University of California, Los Angeles (US), National Central University (TW), University of California System (US), Institute of Atomic and Molecular Sciences, Academia Sinica (TW)
National Science Foundation, U.S. Department of Energy, University of California
Openalex Percentile: Top 80%
Laser-Matter Interactions and Applications
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