Master of Science (MS)
First Committee Member
Number of Pages
This thesis will calculate the H-H2 cooling processes used in astrophysics. Cooling is critical to the formation of the first objects formed in the early universe, and other diverse phenomenon of interest to astrophysics. For instance, in order to collapse into objects, the gravitational potential energy of primordial density fluctuations must be radiated away. The most abundant element in the universe is hydrogen, and cooling processes involving hydrogen are important in several contexts. To calculate the cooling, the cross section for collisional excitation at constant energy were integrated over a Maxwellian velocity distribution to determine a rate coefficient. Then the equilibrium level populations will be solved for a given temperature and H density. Finally, the cooling and spectra are calculated from these equilibrium populations.
Astrophysics; Calculation; Collisional; Cooling H2; Hydrogen; Involving; Processes
University of Nevada, Las Vegas
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Archer, David Michael, "Calculation involving hydrogen-hydrogen(2) collisional cooling processes for use in astrophysics" (2002). UNLV Retrospective Theses & Dissertations. 1448.
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