Characteristics of the magnetic field under hybrid ac/dc high voltage transmission lines

Electric Power Systems Research

Volumn 79, Issue 1, 2009, Pages 1-7

  Ismail, Hanafy M ^a  

^a The Public Authority for Applied Education and Training   (Kuwait)

Author keywords

Environmental effect; Hybrid ac dc; Magnetic field; Magnetic vector potential; Right of way; Transmission lines

Indexed keywords

BANDPASS FILTERS; ELECTRIC LINES; INDUCTION MOTORS; INSTRUMENT SCALES; MAGNETIC FIELD MEASUREMENT; MAGNETIC FIELDS; MAGNETIC MATERIALS; MAGNETISM; NETWORK PROTOCOLS; POWER TRANSMISSION; SENSOR NETWORKS; TRANSMISSION LINE THEORY; VECTORS;

ENVIRONMENTAL EFFECT; HYBRID AC/DC; MAGNETIC VECTOR POTENTIAL; RIGHT-OF-WAY; TRANSMISSION LINES;

CURVE FITTING;

EID: 54149100320     PISSN: 03787796     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.epsr.2008.04.005     Document Type: Article

References (28)

1. Abu-Seada M.S., and Nasser E. Calculation of the potential gradient of twin cylindrical bipolar conductors with various geometrical parameters. IEEE Trans. PAS 90 (1972) 1822-1829
2. Sarma M.P., and Drogi S. Field and ion interaction of hybrid ac/dc transmission lines. IEEE Trans. Power Deliv. 3 3 (1988) 1165-1172
3. T.S. Tenforde, "Biological effects of extremely-low-frequency magnetic fields", In the panel session on biological effects of power frequency electric and magnetic fields, IEEE Special Publication 86THO139-6-PWR, 1986.
4. Brandao Faria J.A., and Almeida M.E. Accurate calculation of magnetic-field intensity due to overhead power lines with or without mitigation loops with or without capacitor compensation. IEEE Trans. Power Deliv. 22 2 (2007) 951-959
5. Stewart J.R., Dale S.J., and Klein K.W. Magnetic field reduction using high phase order lines. IEEE Trans. Power Deliv. 8 2 (1993) 628-636
6. IEEE Magnetic Fields Task Force Report, "Magnetic fields from electric power lines-theory and comparison from measurements", IEEE Transactions on Power Delivery, vol. 3, No. 4, pp. 2127-2136, 1988.
7. Ahmed S.S., Haque R., Hasan A.K.M.R., and Siddiqui A.H. Determining EHV transmission line magnetic fields by applying the vector magnetic potential Concept. Electrical Power Syst. Res. 35 (1995) 127-132
8. Ismail H.M. Magnetic field of high-phase order and compact transmission lines. Int. J. Energy Res., USA 26 (2001) 45-55
9. D. Tsanakas, D. Tsalemis, D. Agoris, I. Voyazakis, "Optimum arrangements of the phase conductors of overhead transmission lines for the magnetic field optimization", CIGRE 34th Session Proceedings, Paper No. 130-12, Paris, 1994.
10. Mazzanti G. The role played by current phase shift on magnetic field established by AC double-circuit overhead transmission lines-part1: static analysis. IEEE Trans. Power Deliv. 21 2 (2006) 939-948
11. R.J. Rusch, "Impact of regulatory involvement", IEEE Tutorial Course, The electrostatic and Electromagnetic Effects of AC Transmission Lines, 1979.
12. L.E. Zaffanella, "Design methods to minimize fields", IEEE Tutorial Course, The electrostatic and Electromagnetic Effects of AC Transmission Lines, 1979.
13. Garrido C., Otero A.F., and Cidras J. Low-frequency magnetic fields from electrical appliances and power lines. IEEE Trans. Power Deliv. 18 4 (2003) 1310-1319
14. Melo M.O.B.C., Fonseca L.C.A., Fontana E., and Naidu S.R. Electric and magnetic fields of compact transmission lines. IEEE Trans. Power Deliv. 14 1 (1999) 200-204
15. H. M. Ismail, "Magnetic field analysis of the Egyptian high voltage transmission networks using the vector magnetic potential concept", Scientific Bulletin, Faculty of Engineering, Ain Shams University, vol. 41 (Part 2) 2006, pp. 513-526.
16. Lindberg L. Reduction of magnetic fields from electric power and installation lines. IEE Proceedings Sci., Meas. Technol. vol. 145 No. 5 (1998) 215-221
17. Adams Jr. H.W., and Trivette J.D. Evaluation of magnetic field and system loss considerations for changes in transmission network configuration. IEEE Trans. Power Deliv. 11 4 (1996) 2036-2041
18. Pettersson P. Principles in transmission line magnetic field reduction. IEEE Trans. Power Deliv. 11 3 (1996) 1587-1593
19. Memari A.R., and Janischewskyj W. Mitigation of magnetic field near power lines. IEEE Trans. Power Deliv. 11 3 (1996) 1577-1586
20. Stuchly M.A., and Shengkai Zhao. Magnetic field induced currents in the human body in proximity of power lines. IEEE Trans. Power Deliv. 11 1 (1996) 102-109
21. Geri A., Locatelli A., and Veca G.M. Magnetic fields generated by power lines. IEEE Trans. Power Deliv. 31 3 (1995) 1508-1511
22. Swanson J. Maggnetic fields from transmission lines: comparison of calculations and measurements. IEE Proceedings on Gen., Trans. Distr. vol. 142 No. 5 (1995) 481-486
23. Olsen R.G., James D.C., and Chartier V.L. The performance of reduced magnetic field power lines: theory and measurement on an operating line. IEEE Trans. Power Deliv. 8 3 (1993) 1430-1442
24. Sendaula M., Hilson D.W., Myers R.C., Akens L.G., and Woolery B.J. Analysis of electric and magnetic fields measured near TVA'S 500-kV transmission lines. IEEE Trans. Power Apparatus Syst. PAS-103 2 (1984) 328-336
25. Semlyen A., and Shirmohammadi D. Calculation of induction and magnetic field effects of three phase overhead lines above homogeneous earth. IEEE Trans. Power Apparatus Syst. PAS-101 8 (1982) 2747-2754
26. H.M. Ismail, "Magnetic field calculations and management of Kuwait HVTLs using the vector magnetic potential concept", Proceedings of the IEEE Power Tech'99 Conference, Budapest, Hungary, Paper BPT99-122-51, 1999.
27. Dahab A.A., Amoura F.K., and Abu-Elhaiga W.S. Comparison of magnetic field distribution of noncompact and compact parallel transmission-line configurations. IEEE Trans. Power Deliv. 20 3 (2005) 2114-2118
28. Abdel-Salam M., and El-Mohandes M.Th. Electric field around parallel dc and multiphase ac transmission lines. IEEE Trans. Elect. Insul. 25 6 (1990) 1145-1152