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Twenty Second International Conference on Geometry, Integrability and Quantization June 8–13, 2020, Varna, Bulgaria Ivaïlo M. Mladenov, Vladimir Pulov and Akira Yoshioka, Editors Avangard Prima, Sofia 2021, pp 107–120 doi: 10.7546/giq-22-2021-107-120 Geometry, Integrability and Quantization XXII GEOMETRIC AND QUANTUM PROPERTIES OF CHARGED PARTICLES IN MONOCHROMATIC ELECTROMAGNETIC KNOT BACKGROUND ADINA V. CRI¸ SAN and ION V. VANCEA Department of Mechanical Systems Engineering, Technical University of Cluj-Napoca 103-105 Muncii Blvd., Cluj-Napoca, Romania Group of Theoretical Physics and Mathematical Physics, Department of Physics, Federal Rural University of Rio de Janeiro, Cx. Postal 23851, BR 465 Km 7, 23890-000 Seropédica – RJ, Brazil Abstract. In this paper, we review recent results on the interaction of the topological electromagnetic fields with matter, in particular with spinless and spin half charged particles obtained earlier. The problems discussed here are the generalized Finsler geometries and their dualities in the Trautman- Rañada backgrounds, the classical dynamics of the charged particles in the single non-null knot mode background and the quantization in the same back- ground in the strong field approximation. MSC : 53A17, 53B40, 78A25 Keywords : Electromagnetic knots, Finsler geometry, strong field quantiza- tion 1. Introduction The topological properties of the nonabelian field theories (with matter) play a crucial role in understanding their structure mainly in the nonperturbative regime. While topologically non-trivial fields are expected due to the non-abelian group structure, the existence of topologically non-trivial abelian fields is more surpris- ing. These fields are described by knot solutions of Maxwell’s equations and were discovered for the first time by Trautman and Rañada in [11, 12, 14]. Since then, the Trautman-Rañada fields have been investigated in many areas of applicabil- ity of the Classical Electrodynamics such as atmospheric physics, liquid crystals, 107

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Twenty Second International Conference onGeometry, Integrability and QuantizationJune 8–13, 2020, Varna, BulgariaIvaïlo M. Mladenov, Vladimir Pulovand Akira Yoshioka, EditorsAvangard Prima, Sofia 2021, pp 107–120doi: 10.7546/giq-22-2021-107-120

Geometry,IntegrabilityandQuantization

XXII

GEOMETRIC AND QUANTUM PROPERTIES OF CHARGEDPARTICLES IN MONOCHROMATIC ELECTROMAGNETICKNOT BACKGROUND

ADINA V. CRISAN and ION V. VANCEA†

Department of Mechanical Systems Engineering, Technical University of Cluj-Napoca103-105 Muncii Blvd., Cluj-Napoca, Romania†Group of Theoretical Physics and Mathematical Physics, Department of Physics,Federal Rural University of Rio de Janeiro, Cx. Postal 23851, BR 465 Km 7,23890-000 Seropédica – RJ, Brazil

Abstract. In this paper, we review recent results on the interaction of thetopological electromagnetic fields with matter, in particular with spinless andspin half charged particles obtained earlier. The problems discussed hereare the generalized Finsler geometries and their dualities in the Trautman-Rañada backgrounds, the classical dynamics of the charged particles in thesingle non-null knot mode background and the quantization in the same back-ground in the strong field approximation.

MSC : 53A17, 53B40, 78A25Keywords: Electromagnetic knots, Finsler geometry, strong field quantiza-tion

1. Introduction

The topological properties of the nonabelian field theories (with matter) play acrucial role in understanding their structure mainly in the nonperturbative regime.While topologically non-trivial fields are expected due to the non-abelian groupstructure, the existence of topologically non-trivial abelian fields is more surpris-ing. These fields are described by knot solutions of Maxwell’s equations and werediscovered for the first time by Trautman and Rañada in [11, 12, 14]. Since then,the Trautman-Rañada fields have been investigated in many areas of applicabil-ity of the Classical Electrodynamics such as atmospheric physics, liquid crystals,

107