Proceedings of the International Geometry Center

ISSN-print: 2072-9812
ISSN-online: 2409-8906
ISO: 26324:2012
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Geometry of a Relativistic Quantum Chaos: New approach to dynamics of quantum systems in electromagnetic field and some applications

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Alexander Glushkov
Valentin Ternovsky
Georgy Prepelitsa

Abstract

In the paper we present development of a new relativistic chaos-geometric and quantum-dynamic approach to solve problems of complete modelling relativistic chaotic dynamics of atoms in an electromagnetic field. As usually the approach consistently includes a number of new relativistic quantum models and a number of new or improved methods of analysis (correlation integral, fractal analysis, algorithms, average mutual information, false nearest neighbors, Lyapunov exponents, surrogate data, non-linear prediction, spectral methods, etc.) For  the first time we present   the corresponding atomic ionization quantitative data for some atoms in a microwave external field.

Keywords:
relativistic quantum chaos; quantum systems in a field; chaos geometric and quantum-dynamics approach

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How to Cite
Glushkov, A., Ternovsky, V., & Prepelitsa, G. (2020). Geometry of a Relativistic Quantum Chaos: New approach to dynamics of quantum systems in electromagnetic field and some applications. Proceedings of the International Geometry Center, 8(3-4), 79-86. https://doi.org/10.15673/tmgc.v8i3-4.1611
Section
Papers
Author Biography

Alexander Glushkov, Odessa State Environmental University

Department of higher and applied mathematics, Head of department, professor

References

1. Gutzwiller M., Chaos in Classical and Quantum Mechanics.-N.-Y.:Springer-Verlag, 1990.-720p.
2. Glushkov A.V., Svinarenko A.A., Buyadzhi V.V., Zaichko P.A., Ternovsky V.B., Chaos-geometric attractor and quantum neural networks approach to simulation chaotic evolutionary dynamics during perception process// Advances in Neural Networks, Fuzzy Systems and Arti_cial Intelligence, Series: Recent Advances in Computer Engineering (Gdansk, EU).-2014.-Vol.21.-P.143-150.
3. Glushkov A.V., Khetselius O.Yu., Svinarenko A.A., Prepelitsa G.P., Energy approach to atoms in a laser field and quantum dynamics with laser pulses of different shape///In:Coherence and Ultrashort Pulsed Emission, Ed. Duarte F. J. (Intech, Vienna).-2011.-P.159-186.
4. Glushkov A.V., Prepelitsa G.P., Lepikh Ya.I., Buyadzhi V.V., Ternovsky V.B., Zaichko P.A., Chaotic dynamics of non-linear processes in atomic and molecular systems in electro-magnetic field and semiconductor and fiber laser devices: new approaches, uniformity and charm of chaos// Sensor Electronics and Microsystems Techn.-2014.-Vol.11,N4.-P.43-57.
5. Glushkov A.V., Ternovsky V.B., Buyadzhi V.V., Prepelitsa G.P., Geometry of a Relativistic Quantum Chaos: New approach to dynamics of quantum systems in electromagnetic field and uniformity and charm of a chaos// International Scientific Journal Proceedings of International Geometry Center. - 2014.-Vol.7, N4.-P.60-71.
6. Gallager R.G., Information theory and reliable communication, Wiley, New York.-1986.
7. Kennel M., Brown R., Abarbanel H., Determining embedding dimension for phase-space reconstruction using geometrical construction//Phys.Rev.A.-1992.-Vol.45.-P.3403_3411.
8. Packard N., Crutch field J., Farmer J., Shaw R., Geometry from time series// Phys. Rev. Lett-1988.-Vol.45.-P.712_716.
9. Grassberger P., Procaccia I., Measuring the strangeness of strange attractors// Physica D.-1983.-Vol.9.-P.189_208.
10. Fraser A., Swinney H., Independent coordinates for strange attractors from mutual information// Phys Rev A.-1986.-Vol.33.-P.1134_1140.
11. Takens F., Detecting strange attractors in turbulence. In: Dynamical systems and turbulence, ed. Rand D., Young L.- (Springer, Berlin-New York).-1981.-P.366_381.
12. Zimmerman M., Littman M., Kash M., Kleppner D., Stark and Zeemane structure of Rydberg states of alkali-metal atoms// Phys.Rev.A.-1979.-V.20, N6.-P.2251-2275.
13. Gasati G., Guarneri I., Mantica G., Classical Stabilization of periodically kicked hydrogen atoms// Phys.Rev.A.-1994.-V.50.-P.5018-5024.
14. Glushkov A.V., Ivanov L.N., DC Strong-Field Stark-Effect: consistent quantum-mechanical approach // J.Phys.B:At.Mol.Opt.Phys.-1993.-V.26.-P.L379-388.
15. Krug A., Buchleitner A., Microwave ionization alkali-metal Rydberg states in a realistic numerical experiment//Phys. Rev. A.-2002.-Vol.66.-P.053416 (10p.);
16. Gallagher T., Mahon C., Dexter J., Pillet P., Ionization of sodium and lithium Rydberg atoms by 10-MHz to 15-GHz electric fields//Phys. Rev. A.-1991.- Vol.44.-P. 1859-1872.