Abstract
The difficulties associated with application of the I/N-expansion to the Dirac equation have been resolved by applying the method of (h/2{pi})-expansion. This technique does not involve converting the initial equation into the Schroedinger-like or Klein-Gordon-like form. Obtained recurrence formulae have a simple form and allow one to find the I/N-corrections of an arbitrary order in any of the I/N-expansion scheme. The method restores the exact results for the Coulomb potential. 17 refs. (author).
Citation Formats
Stepanov, S S, and Tutik, R S.
A new approach to the I/N-expansion for the Dirac equation.
Ukraine: N. p.,
1991.
Web.
Stepanov, S S, & Tutik, R S.
A new approach to the I/N-expansion for the Dirac equation.
Ukraine.
Stepanov, S S, and Tutik, R S.
1991.
"A new approach to the I/N-expansion for the Dirac equation."
Ukraine.
@misc{etde_10127896,
title = {A new approach to the I/N-expansion for the Dirac equation}
author = {Stepanov, S S, and Tutik, R S}
abstractNote = {The difficulties associated with application of the I/N-expansion to the Dirac equation have been resolved by applying the method of (h/2{pi})-expansion. This technique does not involve converting the initial equation into the Schroedinger-like or Klein-Gordon-like form. Obtained recurrence formulae have a simple form and allow one to find the I/N-corrections of an arbitrary order in any of the I/N-expansion scheme. The method restores the exact results for the Coulomb potential. 17 refs. (author).}
place = {Ukraine}
year = {1991}
month = {Dec}
}
title = {A new approach to the I/N-expansion for the Dirac equation}
author = {Stepanov, S S, and Tutik, R S}
abstractNote = {The difficulties associated with application of the I/N-expansion to the Dirac equation have been resolved by applying the method of (h/2{pi})-expansion. This technique does not involve converting the initial equation into the Schroedinger-like or Klein-Gordon-like form. Obtained recurrence formulae have a simple form and allow one to find the I/N-corrections of an arbitrary order in any of the I/N-expansion scheme. The method restores the exact results for the Coulomb potential. 17 refs. (author).}
place = {Ukraine}
year = {1991}
month = {Dec}
}