The Quantum Fermionic Charged Particle Self-Interaction Problem within the Fock Multitime and Feynman Proper Time Paradigms

  • A. K. Prykarpatsky Faculty of Applied Mathematics at AGH University of Science and Technology, Ivan Franko State Pedagogical University of Drohobych
Keywords: quantum fermionic field, charged particle self-interaction problem, quantum Maxwell electrodynamics, Fock space, Fock multitime approach, charged particle inertial mass problem, least action principle, Lagrangian formalism, Feynman proper time paradigm


A quantum fermionic massless charged particle self-interacting with its own self-generated bosonic electromagnetic field is reanalyzed in the framework of the Fock multitime and Feynman proper time paradigms. The self-interaction phenomenon structure is studied within the method based on a suitably renormalized quantum Fock space. The fermionic charged particle mass spectrum is also discussed.


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How to Cite
Prykarpatsky, A. (2018). The Quantum Fermionic Charged Particle Self-Interaction Problem within the Fock Multitime and Feynman Proper Time Paradigms. Ukrainian Journal of Physics, 62(2), 172.
General problems of theoretical physics