(no subject)
Jul. 26th, 2004 12:21 amI'm looking at my university's website trying to pick my modules for next year, and I think they're designed to make me cry. If they'd just let me do the astrophysics I'd be shiny and golden (Stromgren spheres! Accretion disks! Comets! So looking forward to those classes next year. And my research project is on nebulae emission line spectra in galaxies outside the Milky Way and that should be fun, fun, fun) But the other subjects - guh. Here's the description for Lasers and Plasma Physics:
Steady state and transient pumping of 3- and 4-level lasers; mode structures; gain narrowing and saturation effects; gases, liquids, solids and plasmas as lasants; ASE devices; relaxation; Q-switched and mode-locked oscillators; wavelength tunability and conversion; ultra-short pulse generators. Introduction and basic plasma physics concepts; plasma orbit theory; two-fluid model; plasma waves; propagation of e.m. waves in plasmas; collisions and resistivity; single fluid model and magnetohydrodynamic approximation; thermonuclear fusion and other applications of plasmas.
Or how about Condensed Matter and Materials Science?
Growth and applications of thin film systems. Theory and practice of surface analysis techniques. Preparation and properties (electrical, thermal, optical, magnetic and mechanical) of materials. Methods of characterisation. Novel devices and materials.
It's shorter, that means it must be easier, right? At this point I'm hoping my advisor of studies loves me and will let me away with doing mostly third-year modules. Although I will try to work magnetohydrodynamic into a fic at some point.
Steady state and transient pumping of 3- and 4-level lasers; mode structures; gain narrowing and saturation effects; gases, liquids, solids and plasmas as lasants; ASE devices; relaxation; Q-switched and mode-locked oscillators; wavelength tunability and conversion; ultra-short pulse generators. Introduction and basic plasma physics concepts; plasma orbit theory; two-fluid model; plasma waves; propagation of e.m. waves in plasmas; collisions and resistivity; single fluid model and magnetohydrodynamic approximation; thermonuclear fusion and other applications of plasmas.
Or how about Condensed Matter and Materials Science?
Growth and applications of thin film systems. Theory and practice of surface analysis techniques. Preparation and properties (electrical, thermal, optical, magnetic and mechanical) of materials. Methods of characterisation. Novel devices and materials.
It's shorter, that means it must be easier, right? At this point I'm hoping my advisor of studies loves me and will let me away with doing mostly third-year modules. Although I will try to work magnetohydrodynamic into a fic at some point.