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DOE OSTI · 21611850

Progress on a Be Cavity Design

Li, D·Virostek, S·Zisman, M S·Palmer, R·Stratakis, D
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Abstract

Previous RF experiments with normal-conducting cavities have demonstrated that there is a significant degradation in maximum gradient when the cavity is subjected to a strong axial magnetic field. We have developed a model suggesting that a cavity with beryllium walls may perform better than copper cavities. In this paper we outline the issues that led us to propose fabricating a Be-wall cavity. We also discuss a concept for fabricating such a cavity and mention some of the manufacturing issues we expect to face.

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43 PARTICLE ACCELERATORS46 INSTRUMENTATION RELATED TO NUCLEAR SCIENCE AND TECHNOLOGYACCELERATOR FACILITIESACCELERATORSALKALINE EARTH METALSBEAM PRODUCTIONBEAMSBERYLLIUMCAVITY RESONATORSCOPPERDESIGNELECTRON NEUTRINOSELECTRONIC EQUIPMENTELEMENTARY PARTICLESELEMENTSEQUIPMENTFERMIONSINTERACTIONSLEPTON BEAMSLEPTON-BARYON INTERACTIONSLEPTON-HADRON INTERACTIONSLEPTON-NUCLEON INTERACTIONSLEPTONSMAGNETIC FIELDSMASSLESS PARTICLESMETALSMUON-NUCLEON INTERACTIONSNEUTRINO BEAMSNEUTRINOSPARTICLE BEAMSPARTICLE INTERACTIONSRESONATORSRF SYSTEMSTRANSITION ELEMENTS

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Li, D, Virostek, S, Zisman, M S, Palmer, R, Stratakis, D. 2011-10-06. Progress on a Be Cavity Design. https://doi.org/10.1063/1.3644320

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