Title :
SMM analysis of reflection, absorption, and transmission from nonuniform magnetized plasma slab
Author :
Hu, Bin Jie ; Wei, Gang ; Lai, Sheng Li
Author_Institution :
Dept. of Electron. Eng., South China Univ. of Technol., Guangzhou, China
fDate :
8/1/1999 12:00:00 AM
Abstract :
An new analytical technique for obtaining a complete set of reflection, absorption, and transmission coefficients for a stratified plasma slab is presented, named the scattering matrix method (SMM). The nonuniform magnetized plasma slab is modeled by a number of subslabs. Each subslab has a fixed electron density. The overall density profile across the whole slab follows any practical distribution function. Because the field in each subslab can be represented by the sum of the reflected and incident components, the partial reflection and transmission coefficients can be obtained by successively matching boundary conditions at all interfaces. The partial and total reflected, absorbed, and transmitted powers as the functions of the electron density, collision frequency, and electron cyclotron frequency for typical parabolic and exponential density profiles are investigated
Keywords :
electron density; plasma collision processes; plasma density; plasma electromagnetic wave propagation; plasma simulation; absorption coefficients; analytical technique; boundary conditions; collision frequency; density profile; electron cyclotron frequency; electron density; exponential density profiles; fixed electron density; incident components; interfaces; nonuniform magnetized plasma slab; parabolic density profiles; partial absorbed powers; partial reflected powers; partial reflection coefficients; partial transmission coefficients; partial transmitted powers; practical distribution function; reflected components; reflection coefficients; scattering matrix method; stratified plasma slab; subslabs; total absorbed powers; total reflected powers; total transmitted powers; transmission coefficients; Absorption; Boundary conditions; Distribution functions; Electrons; Frequency; Magnetic analysis; Plasma density; Reflection; Scattering; Slabs;
Journal_Title :
Plasma Science, IEEE Transactions on