DocumentCode
106980
Title
Application of PCB and FDM Technologies to Magnetic Measurement Probe System Development
Author
DiMarco, J. ; Chlachidze, G. ; Makulski, A. ; Orris, D. ; Tartaglia, M. ; Tompkins, J.C. ; Velev, G.V. ; Wang, Xiongfei
Author_Institution
Fermi Nat. Accel. Lab., Batavia, IL, USA
Volume
23
Issue
3
fYear
2013
fDate
Jun-13
Firstpage
9000505
Lastpage
9000505
Abstract
Rotating coil probes are essential for measuring harmonic multipole fields of accelerator magnets. A fundamental requirement of these probes is their accuracy, which typically implies that the probes need to be very stiff and straight, have highly accurate knowledge of the placement of windings, and an ability to buck the fundamental fields well in order to suppress the effects of vibrations. Ideally, for an R&D test environment, probe fabrication should also be easy and low-cost, so that probe parameters (type, length, number of turns, radius, etc.) can be customized to the magnet requiring test. Such facility allows measurement optimization for magnets of various multipolarity, aperture size, cable twist pitch, etc. The accuracy and construction flexibility aspects of probe development, however, are often at odds with each other. This paper reports on application of printed-circuit board and fused-deposition modeling technologies, and what these offer to the fabrication of magnetic measurement probe systems.
Keywords
accelerator magnets; magnetic variables measurement; printed circuits; probes; FDM technologies; PCB technologies; accelerator magnets; aperture size; cable twist pitch; fused-deposition modeling; harmonic multipole fields; magnetic measurement probe system development; printed-circuit board; probe development; probe fabrication; probe parameters; rotating coil probes; Frequency division multiplexing; Magnetic field measurement; Printed circuits; Probes; Sensitivity; Superconducting magnets; Windings; 3D printing; Fused-deposition modeling; magnetic measurement probes; printed circuit boards; rotating coils;
fLanguage
English
Journal_Title
Applied Superconductivity, IEEE Transactions on
Publisher
ieee
ISSN
1051-8223
Type
jour
DOI
10.1109/TASC.2012.2236596
Filename
6395814
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