Vysikaylo's Laser for De Broglie Waves of Electrons to Protect the Earth from Asteroids: Interdisciplinary Research of Incongruent Electric Field Shock Waves
cumulative-dissipative systems, entering and runaway electrons, coulomb explosion
Abstract
We have proposed a mechanism that explains all phenomena observed in nature during lightning propagation and all phenomena during the fall of the Chelyabinsk meteorite in the Russian Federation. These positively charged cumulative-dissipative plasma systems (+CDS), as we have established, are surrounded by incongruent shock waves of the Vysikaylo electric field (VSW). We demonstrate that de Broglie waves of free electrons arising in the plasma tail behind the meteoroid behave similarly to electromagnetic waves in a laser. There, a cumulative jet of high-energy electrons (CJ) is formed, which breaks into the meteoroid, causing it to collapse according to the Coulomb mechanism. The formation of VSW in the atmosphere is due to the peculiarities of the chemical kinetics of negative ions at the boundary of the plasma tail. The time of Vysikaylo-Poisson's structural turbulence, providing the formation of CJ in the plasma tail, was ≈ 1.5 s.
Downloads
How to Cite
References
P Vysi (2013) Detailed Elaboration and General Model of the Electron Treatment of Surfaces of Charged Plasmoids and Classi fication of Charged Plasma Structures -Plasmoids. Part III. Behavior and modification of quasi-stationary plasma positively charged cumulative-dissipative structures (+CDS) with external influences. 49(3), 222-234.
P Vysi Cumulative Point-L 1 Between Two Positively Charged Plasma Structures (3-D Strata)// Plasma Science. 42(12).
P Vysi (37-5) Pul se-periodic 4D model of energy cumulation and dissipation processes in a meteoroid tail in Earth's electro-negative atmosphere//aas242-aas 2023.
L Loeb (1950) Fundamental protsessy elektricheskikh razryadov v gazakh. -M.
P Brown, R Spalding, D Revelle, E Tagliaferri, S Worden (2002) The flux of small near-Earth objects colliding with the Earth. 420(6913), 294-296.
V Adushkin, I Nemchinov (2005) Catastrophic Events Caused by Cosmic Objects.
V Bronshten (1981) Unknown Title. 416.
L Chernogor, Plazmennye (2013) elektromagnitnye i akusticheskie effekty meteorita. (8), 23-40.
B Shustova, V Rykhl Ova L (2010) Asteroid-comet danger: yesterday, today.
S Grigoryan (2003) The current state of the issue of the destruction of cosmic bodies upon entry into the atmosphere.
S Grigoryan (1976) On the question of the nature of the Tunguska meteorite. 231(1), 57-60.
S Grigoryan (1979) Commission 15: Physical Study of Comets, Minor Planets and Meteorites (L'Etude Physique des Cometes, Des Petites Planetes et des Meteorites). 17(4), 143-146.
V Bronshten (1985) On the dynamics of destruction of large meteoroids. // In Russian. 23(5), 797-799.
L Chernogor (2019) Physical Effects of the Lipetsk Meteoroid: 1. Kinemat. 35, 174-188.
L Chernogor (2023) Physical Effects from the Kyiv Meteoroid: 2. Kinemat. 39, 313-324.
V Stulov, V Mirsky, A Visly (1995) Correction: Hybrid Cars. 148(18), 275.
E Zababakhin, I Zababakhin (1988) Phenomena of unlimited cumulation. 175.
D Kazantsev, A Pilipenko, Yu. Oseev (2025) OPERATIONAL AMPLIFIER PARAMETERS AUTOMATED CONTROL IN THE ENHANCED LOW DOSE RATE SENSITIVITY EFFECT INVESTIGATION. 26(1), 72-79.
M Fridman, D Bisikalo (2008) The nature of accretion disks of close binary stars: overreflection instability and developed turbulence. 51, 551-576.
A Zherlitsyn, E Kumpyak, A Lenskiy, A Pavlenko, A Grigoriev (2025) 1-MA, 40-kV air insulated Linear Transformer Driver stage. 2025(11).
B Shustov, R Zolotarev (2022) Mass Indices of Meteoric Bodies: I. Formation Model of Meteoroid Streams. 66(2), 179-189.
L Zeleny Section (2023) Experimental laboratory astrophysicsand geophysics" of the national center of physics and mathematics // Astronomicaljournal. 100, 3-5.
G Kokhirova, P Babadzhanov (2023) Current Knowledge of Objects Approaching the Earth. 57(5), 458-478.
V (2023) Svettsov Fallto earth of fragments of a destroyed asteroid // Astronomicalbulletin. 57, 275-283.
E Antokhina, I Antokhin (2023) DETERMINATION OF THE CLOSE BINARY SYSTEMS PARAMETERS BY SYNTHESIS METHODS: FROM WHITE DWARFS TO WOLF-RAYET STARS AND BLACK HOLES. 100(9), 772-784.
G Dremova, V Dremov, A Tutukov (2023) EXTREMELY WIDE PAIRS IN THE WORLD OF BINARY STARS. 100(9), 792-799.
O Eretnova (2023) MASS RATIO AND ECCENTRICITY DISTRIBUTIONS OF YOUNG SPECTROSCOPIC BINARY STARS. 100(9), 800-810.
D Kovaleva (2023) CALIBRATING GAIA DR3 UNCERTAINTIES BASED ON DATA FOR WIDE BINARY STARS OF THE FIELD OF GALAXY. 100(9), 820-833.
H H Jewitt, Hsiehthe Asteroid-Comet Continuum.
Boris Shustov, Vladimir Busarev, Elena Petrova, Marina Scherbina, Roman Zolotarev (2025) Novel views of asteroid activity: observations, models, forecasts. 195(04), 344-376.
Aleksandr Tutukov, Sergei Vereshchagin (2023) Destruction of astronomical systems: theory and observations. 66(09), 859-884.
Ron Schreier, Shlomi Hillel, Noam Soker (2025) Jet-shaped filamentary ejecta in common envelope evolution. 8.
Y Zou, C Xue, Y Jia (2024) Unknown Title. 11, 169.
A (2023) Filonenko Electromagnetic phenomena accompanying the passage of an iron meteorite through the Earth's atmosphere. 57(2), 103-112.
A (2024) Filonenko on the Nature of Electrophone Phenomena Accompanying the Passage of Meteoric Bodies through the Earth's Atmosphere // Solar system research. 58, 561-577.
P Vysikaylo (1297) Cumulative quantum mechanics-Quantum-size effects for: Nano-, angstrom- and femto-technologies. 2(1), 1297.
Published
2025-08-25
Issue
Section
License
Copyright (c) 2025 Authors and Global Journals Private Limited

This work is licensed under a Creative Commons Attribution 4.0 International License.