J 2013

SYMMETRY PROPERTIES OF THE EXACT EM RADIATION-REACTION EQUATION FOR CLASSICAL EXTENDED PARTICLES AND ANTIPARTICLES

CREMASCHINI, Claudio and Massimo TESSAROTTO

Basic information

Original name

SYMMETRY PROPERTIES OF THE EXACT EM RADIATION-REACTION EQUATION FOR CLASSICAL EXTENDED PARTICLES AND ANTIPARTICLES

Name (in English)

SYMMETRY PROPERTIES OF THE EXACT EM RADIATION-REACTION EQUATION FOR CLASSICAL EXTENDED PARTICLES AND ANTIPARTICLES

Authors

CREMASCHINI, Claudio and Massimo TESSAROTTO

Edition

International Journal of Modern Physics A, SG - Singapurská republika, 2013, 0217-751X

Other information

Type of outcome

Článek v odborném periodiku

Field of Study

10304 Nuclear physics

Confidentiality degree

není předmětem státního či obchodního tajemství

References:

Organization unit

Institute of physics in Opava

UT WoS

000322366200007

Keywords in English

Classical electrodynamics; Special relativity; Radiation-reaction; Variational principles; Symmetry properties

Tags

Tags

International impact, Reviewed
Změněno: 29/3/2021 09:47, Mgr. Pavlína Jalůvková

Abstract

V originále

Based on recent theoretical developments (Cremaschini and Tessarotto, 2011-2013), in this paper the issue is addressed of the first-principle construction of the nonlocal relativistic radiation-reaction (RR) equation for classical spherical-shell, finite-size particles and antiparticles. This is achieved invoking the axioms of Classical Electrodynamics by means of the Hamilton variational principle. In connection with this, the Lagrangian conservation laws, together with the possible existence of adiabatic invariants, and the transformation laws of the RR equation with respect to CPT and time-reversal transformations are investigated. The latter properties make possible the parametrization of the RR equations, holding respectively for particles and antiparticles of this type, in terms of the same coordinate time t and the investigation of the qualitative properties of their solutions. In particular, in both cases the RR self-force is found to have the same signature, which implies that