Deployable Element Ultra-High Vacuum Pump

Etayem, Brandon [Northern Illinois U.]; Schumann, David [Northern Illinois U.]; Steinberg, Robert [Northern Illinois U.]; Pohlman, Nicholas [Northern Illinois U.]; Zhang, Bo [Northern Illinois U.]; Baffes, Curtis [Fermilab]

doi:10.2172/2562836

DOE OSTI · 2562836

Deployable Element Ultra-High Vacuum Pump

Etayem, Brandon [Northern Illinois U.]·Schumann, David [Northern Illinois U.]·Steinberg, Robert [Northern Illinois U.]·Pohlman, Nicholas [Northern Illinois U.]·Zhang, Bo [Northern Illinois U.]·Baffes, Curtis [Fermilab]

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Abstract

Advancing Ultra High Vacuum (UHV) Pumping Technology: The deployable UHV pump team has designed a theoretical model to boost efficiency in high vacuum environments. Traditional systems face challenges with random molecular motion. The innovative windmill design, using titanium sublimation technology, reduces randomness by deploying a gettering surface that actively captures particles. This marks a notable advancement in UHV pumping technology.

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43 PARTICLE ACCELERATORS 72 PHYSICS OF ELEMENTARY PARTICLES AND FIELDS

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BibTeX RIS

Etayem, Brandon [Northern Illinois U.], Schumann, David [Northern Illinois U.], Steinberg, Robert [Northern Illinois U.], Pohlman, Nicholas [Northern Illinois U.], Zhang, Bo [Northern Illinois U.], Baffes, Curtis [Fermilab]. 2025-04-20. Deployable Element Ultra-High Vacuum Pump. https://doi.org/10.2172/2562836

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