TY - GEN
T1 - Low-Impedance S-Band MILO
AU - Abide, M.
AU - Buntin, T.
AU - Barnett, D.
AU - Dickens, J.
AU - Joshi, R.
AU - Neuber, A.
AU - Mankowski, J.
N1 - Publisher Copyright:
© 2019 IEEE.
PY - 2019/6
Y1 - 2019/6
N2 - The development of a low-impedance magnetically insulated transmission line oscillator (MILO) driven by a compact Marx generator developed by Texas Tech University is discussed. The goals of the project aim to develop a MILO operating within the S-Band that can provide an RF peak output power of greater than 1 GW with greater than 10% efficiency. The device design followed a set of base design equations that were applied to a CST Studio Suite (CST) for a Particle-in-Cell, PIC, simulation to model the MILO. These simulation results then inform changes to the model to optimize the prospective performance of the device. The simulations were developed to account for realistic material properties that were then applied to critical surfaces of the device. Additionally, a circuit simulation was included to model a Marx generator feeding the input of the MILO to simulate the eventual experimental setup. Current results verify an expected RF peak power of approximately 4.5 GW at 2.5 GHz operating in the TM01 mode when excited with an input signal that has a peak voltage of 600 kV while providing a peak current of 58 kA. The simulation confirms the design should perform within these constraints.
AB - The development of a low-impedance magnetically insulated transmission line oscillator (MILO) driven by a compact Marx generator developed by Texas Tech University is discussed. The goals of the project aim to develop a MILO operating within the S-Band that can provide an RF peak output power of greater than 1 GW with greater than 10% efficiency. The device design followed a set of base design equations that were applied to a CST Studio Suite (CST) for a Particle-in-Cell, PIC, simulation to model the MILO. These simulation results then inform changes to the model to optimize the prospective performance of the device. The simulations were developed to account for realistic material properties that were then applied to critical surfaces of the device. Additionally, a circuit simulation was included to model a Marx generator feeding the input of the MILO to simulate the eventual experimental setup. Current results verify an expected RF peak power of approximately 4.5 GW at 2.5 GHz operating in the TM01 mode when excited with an input signal that has a peak voltage of 600 kV while providing a peak current of 58 kA. The simulation confirms the design should perform within these constraints.
UR - http://www.scopus.com/inward/record.url?scp=85081564023&partnerID=8YFLogxK
U2 - 10.1109/PPPS34859.2019.9009939
DO - 10.1109/PPPS34859.2019.9009939
M3 - Conference contribution
AN - SCOPUS:85081564023
T3 - IEEE International Pulsed Power Conference
BT - 2019 IEEE Pulsed Power and Plasma Science, PPPS 2019
PB - Institute of Electrical and Electronics Engineers Inc.
T2 - 2019 IEEE Pulsed Power and Plasma Science, PPPS 2019
Y2 - 23 June 2019 through 29 June 2019
ER -