Date Approved
2019
Degree Type
Open Access Thesis
Degree Name
Master of Science (MS)
Department or School
Physics and Astronomy
Committee Member
Eric Paradis, PhD
Committee Member
Ernest Behringer, PhD
Committee Member
Jonathan Skuza, PhD
Committee Member
Georg Raithel, PhD
Abstract
Controlled study of high-density plasmas, such as those found in fusion reactions and stars, is difficult due to their highly-magnetized environments. A specialized high magnetic field (High-B) trap was developed at the University of Michigan in Georg Raithel's research group to study such highly magnetized, high density plasmas using rubidium atoms. By replacing the atom source with a Zeeman slower, a well-studied device to slow and cool atoms, the atom flux could be increased by a factor more than 1000, leading to higher High-B plasma densities. The goal of this project is to design a Zeeman slower that differs from standard designs by accounting for the considerable fall-off bias field from the High-B trap. We created a Python model that computes the modified magnetic field generated by a set of solenoids with operating and design parameters which can be optimized to match the desired Zeeman field within 4 G. This Zeeman slower design allows for operation with or without the High-B bias field.
Recommended Citation
Nofs, Leo Michael, "Designing a modified Zeeman slower for the Paschen-Back magnetic regime" (2019). Master's Theses and Doctoral Dissertations. 978.
https://commons.emich.edu/theses/978