Pulsed Power Application of TDI-Type Pseudospark Switches

• Authors: V. Bochkov , D. Bochkov , I. Gnedin , P. Panov
• Languages of publication: EN

Abstracts

EN

The module of pulsed power electrohydraulic installation equipped with a technological tank having 2 working electrodes, storing energy up to 3 kJ at average power of 10 kW was constructed and tested. As power switching elements pseudospark switches of TDI-type were used. During the tests organic materials (flax straw) were processed. In the paper various factors, affecting PSS electrodes erosion, are considered. Valuable recommendations on providing the best service time of the switches are summarized. The major object of the investigations is the development of technological system capable of providing a continuous production process with power consumption up to hundreds of kWh with large volumes (up to several tons) processed materials transportation. The process continuity substantially reduces cost of processing, simplifies design, and improves operational characteristics of the device and finally increases competitiveness of the production.

Keywords

EN

52.35.Bj; 52.35.Lv; 52.75.Kq; 52.77.-j; 47.35.-i

Discipline

• 52.77.-j: Plasma applications
• 52.35.Lv: Other linear waves
• 47.35.-i: Hydrodynamic waves(see also 47.65.-d Magnetohydrodynamics and electrohydrodynamics; 52.35.Bj Magnetohydrodynamic waves; 52.35.Dm Sound waves in Physics of plasmas and electric discharges)
• 52.35.Bj: Magnetohydrodynamic waves (e.g., Alfven waves)
• 52.75.Kq: Plasma switches (e.g., spark gaps)

• Publisher: Institute of Physics, Polish Academy of Sciences
• Journal: Acta Physica Polonica A
• Year: 2009
• Volume: 115
• Issue: 6
• Pages: 1118-1121

Dates

published

2009-06

Contributors

author

V. Bochkov

• Pulsed Technologies Ltd., Yablochkova 5, Ryazan, Russia

author

D. Bochkov

• Pulsed Technologies Ltd., Yablochkova 5, Ryazan, Russia

author

I. Gnedin

• Pulsed Technologies Ltd., Yablochkova 5, Ryazan, Russia

author

P. Panov

• Pulsed Technologies Ltd., Yablochkova 5, Ryazan, Russia

References

• 1. V.D. Bochkov, V.M. Dyagilev, Yu.D. Korolev, V.G. Ushich, Instrum. Exp. Techn. 41, 676 (1998)
• 2. V.D. Bochkov, V.M. Djagilev, V.G. Ushich, O.B. Frants, Yu.D. Korolev, I.A. Shemyakin, K. Frank, IEEE Trans. Plasma Sci. 29, 802 (2001)
• 3. O.V. Anchugov, Yu.G. Matveev, D.A. Shvedov, V.D. Bochkov, D.V. Bochkov, V.M. Dyagilev, V.G. Ushich, S.F. Mikhailov, V.G. Popov, in: Proc. 2007 PPPC, Albuquerque (NM) USA, 2007, p. 1335
• 4. A.V. Akimov, P.V. Logachev, V.D. Bochkov, D.V. Bochkov, et al., in: Proc. 2007 PPPC, Albuquerque (NM) USA, 2007, p. 1339
• 5. V.D. Bochkov, V.M. Dyagilev, V.G. Ushich, V.A. Glouschenkov, R.Yu. Yusupov et al., in: Proc. 2002 International Power Modulator Conference, Hollywood USA 2002, p. 475
• 6. V.A. Gribkov, M. Scholz, V.D. Bochkov, A.V. Dubrovsky, R. Miklaszewski, L. Karpinski, S. Lee, P. Lee, J. Phys. D, Appl. Phys. 37, 2107 (2004)
• 7. V.D. Bochkov, Yu.D. Korolev, in: Encyclopedia of Low Temperature Plasma, Ed. V.E. Fortov, Nauka Publ., Moscow 2000, p. 446 (in Russian)
• 8. V.D. Bochkov, Patent RF No. 2347619, priority 06.06.2007. Bulletin of Invention No. 6, 27.02.2009

Identifiers

DOI

10.12693/APhysPolA.115.1118