Title :
Computer simulation of a pulse-forming network
fDate :
12/1/2001 12:00:00 AM
Abstract :
Computer simulation allowed research scientists at TRIUMF to achieve the tightest specification to date for a pulse-forming network (PFN). The 66 kV PFN, designed for use by CERN has a measured ripple in the flattop of only ±3%. This is a much flatter pulse than the ±1% ripple that was previously state of the art for these devices. The TRIUMF researchers attribute their ability to achieve this level of performance to using precise computer simulation in the design of the pulse-forming network rather than traditional calculations and mechanical tuning by trial and error. Electromagnetic simulation made it possible to determine a single frequency that could be used to determine the ideal circuit parameters needed to achieve the desired flattop of the pulse. Once the researchers had that information, they were able to optimize the design of the PIN to produce the desired pulse shape. The researchers then used electromagnetic simulation to evaluate the geometry of the pulse-forming network´s coil to specify precise manufacturing tolerances
Keywords :
accelerator RF systems; accelerator magnets; colliding beam accelerators; high energy physics instrumentation computing; particle beam injection; proton accelerators; pulsed power supplies; storage rings; synchrotrons; 66 kV; LHC; electromagnetic simulation; flattop pulse; ideal circuit parameters; injection kicker systems; injector synchrotrons; precise computer simulation; prototype network; pulse-forming network; resonant power supplies; single frequency; Circuit optimization; Circuit simulation; Computational modeling; Computer errors; Computer simulation; Design optimization; EMP radiation effects; Frequency; Pulse circuits; Tuning;
Journal_Title :
Instrumentation & Measurement Magazine, IEEE
DOI :
10.1109/5289.975461