Abstract
A second-order differential equation of mode conversion of fast wave for fusion plasma is solved by a single step routine with automatic step varying. On the obtained results, the total power absorption and the reflection coefficient are calculated. In order to reduce the computational time, the plasma dispersion function Z({xi}) is calculated section by section. The results are in good agreement with theoretical analysis.
Citation Formats
Guangde, Jian, and Lin, Huang.
Numerical solution of second-order wave equation.
China: N. p.,
1993.
Web.
Guangde, Jian, & Lin, Huang.
Numerical solution of second-order wave equation.
China.
Guangde, Jian, and Lin, Huang.
1993.
"Numerical solution of second-order wave equation."
China.
@misc{etde_10157445,
title = {Numerical solution of second-order wave equation}
author = {Guangde, Jian, and Lin, Huang}
abstractNote = {A second-order differential equation of mode conversion of fast wave for fusion plasma is solved by a single step routine with automatic step varying. On the obtained results, the total power absorption and the reflection coefficient are calculated. In order to reduce the computational time, the plasma dispersion function Z({xi}) is calculated section by section. The results are in good agreement with theoretical analysis.}
place = {China}
year = {1993}
month = {Apr}
}
title = {Numerical solution of second-order wave equation}
author = {Guangde, Jian, and Lin, Huang}
abstractNote = {A second-order differential equation of mode conversion of fast wave for fusion plasma is solved by a single step routine with automatic step varying. On the obtained results, the total power absorption and the reflection coefficient are calculated. In order to reduce the computational time, the plasma dispersion function Z({xi}) is calculated section by section. The results are in good agreement with theoretical analysis.}
place = {China}
year = {1993}
month = {Apr}
}