CREMASCHINI, Claudio and Massimo TESSAROTTO. Quantum theory of extended particle dynamics in the presence of EM radiation-reaction. The European Physical Journal Plus. DE - Spolková republika Německo, 2015, vol. 130, No 8, p. "166-1"-"166-21", 21 pp. ISSN 2190-5444. Available from: https://dx.doi.org/10.1140/epjp/i2015-15166-5.
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Basic information
Original name Quantum theory of extended particle dynamics in the presence of EM radiation-reaction
Authors CREMASCHINI, Claudio and Massimo TESSAROTTO.
Edition The European Physical Journal Plus, DE - Spolková republika Německo, 2015, 2190-5444.
Other information
Original language English
Type of outcome Article in a journal
Field of Study 10308 Astronomy
Confidentiality degree is not subject to a state or trade secret
WWW URL
Organization unit Institute of physics in Opava
Doi http://dx.doi.org/10.1140/epjp/i2015-15166-5
UT WoS 000365731500001
Keywords in English particle dynamics; quantum wave equation; electromagnetic radiation reaction
Tags , GB14-37086G, GP14-07753P
Tags International impact, Reviewed
Links GB14-37086G, research and development project. GP14-07753P, research and development project.
Changed by Changed by: Mgr. Pavlína Jalůvková, učo 25213. Changed: 29/3/2021 14:09.
Abstract
In this paper a trajectory-based relativistic quantum wave equation is established for extended charged spinless particles subject to the action of the electromagnetic (EM) radiation-reaction (RR) interaction. The quantization pertains the particle dynamics, in which both the external and self EM fields are treated classically. The new equation proposed here is referred to as the RR quantum wave equation. This is shown to be an evolution equation for a complex scalar quantum wave function and to be realized by a first-order PDE with respect to a quantum proper time s. The latter is uniquely prescribed by representing the RR quantum wave equation in terms of the corresponding quantum hydrodynamic equations and introducing a parametrization in terms of Lagrangian paths associated with the quantum fluid velocity. Besides the explicit proper time dependence, the theory developed here exhibits a number of additional notable features. First, the wave equation is variational and is consistent
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