Focusing of a relativistic electron flow.
Focusing of relativistic cylindrical electron beam in static axial electric and magnetic fields, using least action principle to derive trajectory differential equation
Hsieh, H. C.↗
Engineering topics
Hsieh, H. C.
Publications and source records attributed to Hsieh, H. C..
Propagation of circularly polarized electromagnetic waves in a finite temperature electromagnetoplasma.
Dispersion relation for circularly polarized electromagnetic waves in warm two component plasma
Hsieh, H. C.↗
Whistler mode propagation in the ionosphere in the presence of a longitudinal static electric field.
Whistler mode propagation in presence of longitudinal static electric field in region of ionosphere where particle collisions influence ion motion
Hsieh, H. C.↗
Effect of longitudinal electrostatic field on the whistler mode propagation in a warm magneto-ionic medium.
Dispersion equation for whistler mode propagation in warm plasma in parallel static fields, using Vlasov-Maxwell equation
Hsieh, H. C.↗
Cutoff conditions for transverse circularly polarized electromagnetic waves in a finite temperature electro-magneto-ionic medium.
Dispersion relation for wave propagation in electro-magneto-ionic medium under electric and magnetic fields obtained using Maxwell- Boltzmann-Vlasov equations, discussing cut-off frequency
ELECTRIC FIELD↗
Effect of Electrostatic Fields on the Propagation of Electromagnetic Waves in a Finite Temperature Magnetoactive Plasma
Electrostatic field effect on propagation of electromagnetic waves in finite temperature magnetoactive plasma
ELECTROSTATIC FIELD↗
Dispersion Relations for a Magnetoactive Finite Temperature Plasma
Equations for dispersion relations of magnetoactive finite temperature plasma
MAXWELL EQUATION↗
Nonlinear Electromagnetic Wave Propagation in a Magnetoactive Finite Temperature Plasma
Nonlinear electromagnetic wave propagation in magnetoactive finite temperature plasma
ELECTROMAGNETIC WAVE↗
A theory of ionospheric thermal radiation.
Ionosphere as anisotropic dissipative medium where charged particles random thermal motion acts as thermal radiation source, noting relation between driven AC conduction current density and applied AC electric field intensity
IONOSPHERE↗
Characteristics of ionospheric thermal radiation.
Ionospheric thermal radiation, discussing noise power per unit volume, spectral distribution, frequency, etc
THERMAL RADIATION↗
The necessary conditions for amplification of an electromagnetic wave interacting with a drifting electron stream Technical report no. 88
Amplification of electromagnetic wave interacting with drifting electron beam
ELECTROMAGNETIC WAVE↗
Investigation of nonlinear interaction phenomena in the ionosphere
Ionospheric phenomena as thermal radiation noise, propagation of naturally occurring radio noise through ionosphere, and generation of very low frequency emissions
THERMAL RADIATION↗
Thermal radiation from the ionosphere Technical report no. 84
Ionosphere as dissipative medium in which random thermal motions of charged particles act as thermal radiation source
CHARGED PARTICLE↗