Studies on erosion of silicone rubber exposed to partial arc discharges

Polymer Degradation and Stability

Volumn 93, Issue 12, 2008, Pages 2214-2221

  Haji, Kenichi ^a   Zhu, Yong ^a   Otsubo, Masahisa ^a   Sakoda, Tatsuya ^a  

^a UNIVERSITY OF MIYAZAKI   (Japan)

Author keywords

Electric field; Erosion; Partial arc discharge; Polymer insulator; Silicone rubber

Indexed keywords

ABS RESINS; CAVITY RESONATORS; DISCHARGE (FLUID MECHANICS); ELASTOMERS; ELECTRIC FIELDS; ELECTRIC INSULATORS; ELECTRODES; ELECTROLYSIS; ELECTROLYTES; EROSION; PAPER SHEETING; POLLUTION; POLYMERIC GLASS; RUBBER; SILICONES; SOIL MECHANICS;

ARC CHANNELS; CONSTANT CURRENTS; ELECTROLYTE CONDUCTIVITIES; ELECTROLYTE LAYERS; FILTER PAPERS; LIGHT POLLUTIONS; MORPHOLOGICAL OBSERVATIONS; PARTIAL ARC DISCHARGE; PARTIAL ARCS; POLYMER INSULATOR; SAMPLE SURFACES; SILICONE RUBBER; SILICONE RUBBER SHEETS; SILICONE RUBBERS; SIMULATED CALCULATIONS; WEIGHT LOSSES;

ELECTRIC DISCHARGES;

EID: 56249140762     PISSN: 01413910     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.polymdegradstab.2008.05.025     Document Type: Article

References (21)

1. Hackam R. Outdoor HV composite polymeric insulators. IEEE Transactions on DEI 6 (1999) 262-269
2. Haji K., et al. Influence of recrystallization of alumina trihydrate filler on leakage current development in salt-fog aging test for polymeric materials. Japanese Journal of Applied Physics 45 15 (April 2006) L425-L427
3. Yamamoto H, et al. Lifetime evaluation of EVA insulator for distribution system by accelerated salt-fog test. CEIDP; 2005. p. 305-8.
4. Zhu Y, et al. Change of polymeric material exposed to dry band arc discharge. 2004 Annual report conference on electrical insulation and dielectric phenomena, 7B-13; 2004. p. 655-8.
5. Zhu Y, et al. Erosion resistant characteristics of ATH-filled silicone rubber exposed to dry band arc discharge. In: Proceedings of 2005 international symposium on electrical insulating materials, Kitakyushu, Japan, vol. 1, No. B2-5; 2005. p. 115-8.
6. Haji K, et al. Relation between dry band arc discharge and conductivity of the pollution liquid on the polymer material surface. Japan-Korea joint session JK2, JK2-3; August 2006. p. 18.
7. Sundararajan R., et al. Dynamic arc modeling of pollution flashover of insulators under dc voltage. IEEE Transactions on Electrical Insulation 28 2 (April 1993) 209-218
8. Holtzhausen JP, et al. The pollution flashover of AC and DC energised cap and pin insulators: the role of shortening of the arc. In: High voltage engineering symposium, 4.333-336.P2, No. 467; August 1999.
9. Karady George G, et al. Dynamic modelling of AC insulator flashover characteristics. In: High voltage engineering symposium, 4.107-110.S25, No. 467; August 1999.
10. Mayr O. Beitrage zur Theorie des statischen und des dynamischen Lichtbogens. Archiv fur elektrotechnik 37 12 (1943) 588-608 [in German, VDE]
11. Rizk F.A.M., et al. AC source-insulator interaction in HV pollution tests. IEEE Transactions on Power Apparatus and Systems PAS-103 4 (April 1984) 723-732
12. Rizk F.A.M., et al. Digital simulation of source-insulator interaction in HVDC pollution tests. IEEE Transactions on Power Apparatus and Systems 3 1 (April 1988) 405-410
13. Rizk F.A.M. Mathematical models for pollution flashover. Electra 78 (1981) 71-103
14. Nishimura S. Evaluation of the flashover voltage-time characteristics of polluted surface. IEEJ Transactions on Power and Energy: 52-B86 97-B 11 (November 1977) 45-52 [in Japanese]
15. Zhu Y., et al. Loss and recovery in hydrophobicity of silicone rubber exposed to corona discharge. Polymer Degradation and Stability (2005) 1-7
16. Kubono T. Theoretical quantities of some parameters in the cathode-fall region of a copper vacuum arc. Journal of Applied Physics 52 6 (June 1981) 3924-3928
17. Howatson AM. An introduction to gas discharges. Lecturer in Engineering Science University of Oxford. p. 81-90.
18. Brown Sanborn C. Introduction to electrical discharge in gases. Massachusetts Institute of Technology. p. 211-5.
19. Gurney R.W. Ionic processes in solution. [Suzuki S, Trans.] (1966), Industry Book [p. 65, in Japanese]
20. Nishimura S. Features of arc discharge having the electrode-spots on a surface of electrolytic solution. Journal of the Institute of Electrostatics Japan 13 3 (1989) 207-212 [in Japanese]
21. Jolly DC, et al. Dynamic theory of discharge growth over contaminated insulator surfaces. In: IEEE winter power meeting of PSE: C 74 068-3, New York; 1974.