Title :
Design of a high-power test model of the PEP-II RF cavity
Author :
Schwarz, H.D. ; Bell, R.A. ; Hodgson, J.A. ; Judkins, J.G. ; Ko, K. ; Kroll, N. ; Ng, C.K. ; Pendleton, R.P. ; Skarpaas, K. ; Lambertson, G. ; Rimmer, R. ; deJong, M.S. ; Tran-Ngoc, T. ; Adams, F.P. ; Lipsett, M.G. ; Mellors, W.
Author_Institution :
Stanford Linear Accel. Center, Stanford Univ., CA, USA
Abstract :
The design of a normal-conducting high-power test cavity (HPTC) for PEP-II is described. The cavity includes HOM loading waveguides and provisions for testing two alternate input coupling schemes. 3-D electromagnetic field simulations provided input information for the surface power deposition. Finite element codes were utilized for thermal and stress analyses of the cavity to arrive at a suitable mechanical design capable of handling the high power dissipation. The mechanical design approach with emphasis on the cooling channel layout and mechanical stress reduction is described
Keywords :
beam handling equipment; beam handling techniques; cavity resonators; electron accelerators; particle beam diagnostics; storage rings; 3-D electromagnetic field simulations; HOM loading waveguides; PEP-II RF cavity; alternate input coupling schemes; cooling channel layout; finite element codes; high-power test model; mechanical stress reduction; normal-conducting high-power test cavity; power dissipation; stress analyses; surface power deposition; thermal analyses; Electromagnetic coupling; Electromagnetic fields; Electromagnetic waveguides; Finite element methods; Loaded waveguides; Power dissipation; Radio frequency; Surface waves; Testing; Thermal stresses;
Conference_Titel :
Particle Accelerator Conference, 1993., Proceedings of the 1993
Conference_Location :
Washington, DC
Print_ISBN :
0-7803-1203-1
DOI :
10.1109/PAC.1993.308691