Abstract:
The principle of holographic interferometry is described and its importance for plasma diagnostics is indicated, particularly for the determination of electron concentration (Section 2). A review is given of different methods for increasing the sensitivity associated with penetration into the infrared region of the spectrum, and also with the use of multiple-pass, resonance, dispersive nonlinear and two-wavelength holographic interferometry. Section 3 discusses the experimental techniques–recording media and radiation sources–as well as the results of fringe shift measurements, stroboscopic holography and cineholography. Section 4 gives a review of work on investigation of various plasmas–laser-induced sparks, laser jets, neutral current layers, z- and θ-pinches, flash lamps, CO2 laser-induced plasmas, exploding conductors, plasmotrons, electric arcs and various other kinds of electric discharges in gases.
Citation:
A. N. Zaydel', “Application of holographic interferometry for plasma diagnostics”, UFN, 149:1 (1986), 105–138; Phys. Usp., 29:5 (1986), 447–466
This publication is cited in the following 11 articles:
Anastasiia KOZHEVNIKOVA, Igor ALEKSEENKO, Viktor TARASENKO, Dmitry SCHITZ, “Application of holographic laser scanning to determine the electron concentration in the plasma forming the apokamp”, Plasma Sci. Technol., 27:4 (2025), 044009
Anastasiia M. Kozhevnikova, Igor V. Alekseenko, Dmitry V. Schitz, “High-frequency plasma spark discharge assessment in pulse-scanning digital holographic interferometry”, Appl. Opt., 62:29 (2023), 7881
A. M. Kozhevnikova, A. S. Ivankov, I. V. Alekseenko, D. V. Sshitz, “Digital Holographic Interferometry for Nonthermal Plasma Pulse Analysis”, Russ Phys J, 64:8 (2021), 1498
Anton S. Ivankov, Anastasia M. Kozhevnikova, Dmitry V. Schitz, Igor V. Alekseenko, “Investigation of Nonthermal Plasma Jet Excitation Mode and Optical Assessment of Its Electron Concentration”, Applied Sciences, 11:19 (2021), 9203
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