Modeling and measurement of cross-talk transmission between coupled lines

International Journal of Communication Systems

Volumn 28, Issue 7, 2015, Pages 1293-1302

  Sabolic, Dubravko ^a  

^a Croatian Transmission System Operator Ltd   (Croatia)

Author keywords

coupled lines; cross talk; measurement; modeling

Indexed keywords

CABLES; MEASUREMENT; MODELS;

CABLE GEOMETRY; COUPLED LINES; HIGH FREQUENCY SIGNALS; ISOLATION MATERIALS; MODELING AND MEASUREMENT; MULTIPLE WIRES; PHYSICAL QUANTITIES; SIGNAL PROPAGATION;

CROSSTALK;

EID: 84925378685     PISSN: 10745351     EISSN: 10991131     Source Type: Journal    
DOI: 10.1002/dac.2762     Document Type: Article

References (64)

1. Pozar DM,. Microwave Engineering (2nd edn). John Wiley & Sons: New York, 1998.
2. Anritsu Co. Site master S113C, S114C, S331C and S332C antenna, cable and spectrum analyzer, user's guide, No. 10580-00060, Revision: C, Ch. 4, Anritsu Co., June 2002.
3. Dostert K,. Powerline Communications (1st edn). Upper Saddle River: Prentice Hall, 2001.
4. Chan MHL, Donaldson RW,. Attenuation of communication signals on residential and commercial intrabuilding power-distribution circuits. IEEE Transactions on Electromagnetic Compatibility 1986; 28: 220-230.
5. Selander L,. Powerline communications: channel properties and communication strategies. Doctoral dissertation, Faculty Eng., Univ. Lund, Sweden, 1999.
6. Dostert K,. High speed data transmission over power lines using multi-carrier (OFDM) techniques. Frequenz 2000; 54: 271-276.
7. Hooijen OG,. A channel model for the residential power circuit used as a digital communications medium. IEEE Transactions on Electromagnetic Compatibility 1998; 40: 331-336.
8. Liu D, Flint E, Gaucher B, Kwark Y,. Wide band AC power line characterization. IEEE Transactions on Consumer Electronics 1999; 45: 1087-1097.
9. Zimmermann M, Dostert K,. A multipath signal propagation model for the power line channel in the high frequency range. Proc. Int. Symp. Power Line Commun. and Its Appl. (ISPLC), Lancaster, UK, 1999; 45-51.
10. Götz M, Rapp M, Dostert K,. Power line channel characteristics and their effect on communication system design. IEEE Communications Magazine 2007; 42: 78-86.
11. Zimmermann M, Dostert K,. A multipath model for the power line channel. IEEE Transactions on Communications 2002; 50: 553-559.
12. Bukhala ZA, Glinkowski MT, Nelson JK, Forte VJ, Jr., Radio frequency signal transmission on medium voltage power distribution lines. IEEE Transactions on Power Delivery 1999; 14: 46-51.
13. Chaffanjon D, Duval G, Meunier M, Pacaud A,. Differential and common mode propagation in PLC low voltage networks. IEEE Transactions on Power Delivery 1999; 14: 327-334.
14. Kim CJ, Chouikha MF,. Attenuation characteristics of high rate home-networking PLC signals. IEEE Transactions on Power Delivery 2002; 17: 945-950.
15. Meng H, Chen HS, Guan YL, Law CL, So PL, Gunawan E, Lie TT,. Modeling of transfer characteristics for the broadband power line communication channel. IEEE Transactions on Power Delivery 2004; 19: 1057-1064.
16. Anatory J, Kissaka MM, Mvungi NH,. Channel model for broadband power-line communication. IEEE Transactions on Power Delivery 2007; 22: 135-141.
17. Anatory A, Theethayi N, Thottappillil R, Kissaka MM, Mvungi NH,. Broadband power-line communications: the channel capacity analysis. IEEE Transactions on Power Delivery 2008; 23: 164-170.
18. Anatory A, Theethayi N, Thottappillil R, Kissaka MM, Mvungi NH,. An experimental validation for broadband power-line communication (BPLC) model. IEEE Transactions on Power Delivery 2008; 23: 1380-1383.
19. Tlich M, Zeddam A, Moulin F, Gauthier F,. Indoor powerline communications channel characterization up to 100-MHz-part I: one-parameter deterministic model. IEEE Transactions on Power Delivery 2008; 23: 1392-1401.
20. Tlich M, Zeddam A, Moulin F, Gauthier F,. Indoor powerline communications channel characterization up to 100-MHz-part II: time-frequency analysis. IEEE Transactions on Power Delivery 2008; 23: 1402-1409.
21. Tlich M, Zeddam A, Gauthier FP, Pagani P,. Wideband indoor transmission channel simulator for power line: WITS software. IEEE Transactions on Power Delivery 2010; 25: 702-713.
22. Barmada S, Musolino A, Raugi M,. Innovative model for time-varying power line communication channel response evaluation. IEEE Journal on Selected Areas in Communications 2006; 24: 1317-1326.
23. Cañete FJ, Diez L, Cortés JA, Entrambasaguas JT,. Broadband modeling of indoor power-line channels. IEEE Transactions on Consumer Electronics 2003; 48: 89-99.
24. Sabolic D, Bazant A, Malaric R,. Signal propagation modeling in power-line communications network. IEEE Transactions on Power Delivery 2005; 20: 2429-2436.
25. Sabolic D, Bazant A, Malaric R,. Some properties of impulse response of distribution networks with periodic tree-type topology. IEEE Transactions on Power Delivery 2011; 26: 2416-2427.
26. Sabolic D, Malaric R, Bazant A,. A practical method for extraction of high-frequency parameters of distribution cables, IEEE Transactions on Power Delivery 2012; 27: 1877-1884.
27. Sabolic D, Car Z,. Stochastic modeling of signal propagation in power-line communication networks. International Journal of Communication Systems 2013; 26: Early View, 1-19. DOI: 10.1002/dac.2530.
28. Tiru B, Boruah PK,. Multipath effects and adaptive transmission in presence of indoor power line background noise. International Journal of Communication Systems 2010; 23: 63-76.
29. Cañete FJ, Cortes JA, Diez L, Entrambasaguas JT,. A channel model proposal for indoor power line communications. IEEE Communications Magazine 2011; 46: 166-174.
30. Galli S, Scaglione A, Wang Z,. For the grid and through the grid: the role of power line communications in the smart grid. Proceedings of the IEEE 2011; 99: 998-1027.
31. Biglieri E,. Coding and modulation for a horrible channel. IEEE Communications Magazine 2003; 41: 92-98.
32. Amirshahi P, Cañete F, Dostert K, Galli S, Katayama M, Kavehrad M,. Channel characterization. In Power Line Communications (1st edn)., Ferreira H, Lampe L, Newbery J, Swart T, (eds). Wiley: New York, 2010; 7-126.
33. Zimmerman M, Dostert K,. Analysis and modeling of impulsive noise in broad-band powerline communications. IEEE Transactions on Electromagnetic Compatibility 2002; 50: 553-559.
34. Katayama M, Yamazato T, Okada H,. A mathematical model of noise in narrowband power line communication systems. IEEE Journal on Selected Areas in Communications 2006; 23: 1267-1276.
35. Galli S, Banwell T,. A novel approach to the modeling of the indoor power line channel-part II: transfer function and its properties. IEEE Transactions on Power Delivery 2005; 20: 1869-1878.
36. Cañete F, Cortes J, Diez L, Entrambasaguas J,. Analysis of the cyclic short-term variation of indoor power line channels. IEEE Journal on Selected Areas in Communications 2006; 24: 1327-1338.
37. Galli S, Banwell T,. A deterministic frequency domain model for the indoor power line transfer function. IEEE Journal on Selected Areas in Communications 2006; 24: 1304-1316.
38. Galli S,. A simplified model for the indoor power line channel. Proc. IEEE Int. Symp. Power Line Commun. and Its Appl. (ISPLC), Dresden, Germany, 2009.
39. Galli S,. A novel approach to the statistical modeling of wireline channels. IEEE Transactions on Communications 2011; 59: 1332-1345.
40. Barnes J,. A physical multi-path model for power distribution network propagation. Proc. Int. Symp. Power Line Commun. and Its Appl. (ISPLC), Tokyo, Japan, 1998.
41. Philipps H,. Modeling of power line communications channels. Proc. Int. Symp. Power Line Commun. and Its Appl. (ISPLC), Lancaster, UK, 1999.
42. Galli S, Waring DL,. Loop makeup identification via single ended testing: beyond mere loop qualification. IEEE Journal on Selected Areas in Communications 2002; 20: 923-935.
43. Meng H, Chen S, Guan Y, Law C, So P, Gunawan E, Lie T,. A transmission line model for high-frequency power line communication channel. Proc. IEEE Int. Conf. on Power Syst. Technol., PowerCon, Kunming, China, 2002.
44. Banwell T, Galli S,. A New approach to the modeling of the transfer function of the power line channel. Proc. Int. Symp. Power Line Commun. and Its Appl. (ISPLC), Malmö, Sweden, 2001.
45. Sartenaer T, Delogne P,. Powerline cables modeling for broadband communications. Proc. Int. Symp. Power Line Commun. and Its Appl. (ISPLC), Malmö, Sweden, 2001.
46. Esmailian T, Kschischang F, Gulak P,. In-building power lines as high-speed communication channels: channel characterization and a test channel ensemble. International Journal of Communication Systems 2003; 16: 381-400.
47. Banwell T, Galli S,. A novel approach to the modeling of the indoor power line channel-part I: circuit analysis and companion model. IEEE Transactions on Power Delivery 2005; 20: 655-663.
48. Amirshahi P, Kavehrad M,. High-frequency characteristics of overhead multiconductor power lines for broadband communications. IEEE Journal on Selected Areas in Communications 2006; 24: 1327-1338.
49. Wedepohl L,. Applications of matrix methods to the solution of traveling wave phenomena in polyphase systems. Proceedings of the IEE 1963; 24: 1327-1338.
50. Paul C,. Decoupling the multiconductor transmission line equations. IEEE Transactions on Microwave Theory and Techniques 1996; 44: 1429-1440.
51. Tonello A,. Wide band impulse modulation and receiver algorithms for multiuser power line communications. Journal on Advances in Signal Processing (EURASIP) 2007; 2007: Article ID 96747.
52. Galli S,. A simple two-Tap statistical model for the power line channel. Proc. IEEE Int. Symp. Power Line Commun. and Its Appl. (ISPLC), Rio de Janeiro, Brazil, 2012.
53. Mehta NB, Molisch AF, Wu J, Zhang J,. Approximating the Sum of correlated lognormal-rice random variables. Proc. IEEE Int. Conf. Commun., Istanbul, Turkey, 2006.
54. Sabolic D, Varda V, Bazant A,. Indoor distribution network noise in the PLC frequency range, from 10 to 30-MHz. Proc. IASTED Int. Conf. Power and Energy Syst., Clearwater Beach, FL, USA, 2004.
55. Tan YC, Ramli NB, Chuah TC,. Time domain equalizer for multicarrier systems in impulsive noise. International Journal of Communication Systems 2012; 25: 111-120.
56. Chau YA, Chen YH,. Switching rate and receiver performance of binary modulations with the selection-and-stay combining over independent and correlated Nakagami-M fading channels. International Journal of Communication Systems 2011; 24: 1105-1121.
57. Hasan MM, Prakash R, Jue JP,. Parallel and Gaussian frequency hopping for dynamic coexistence in the unlicensed band. International Journal of Communication Systems 2011; 24: 1163-1182.
58. Cvetkovic AM, Djordjevic GT, Stefanovic MC,. Performance analysis of dual switched diversity over correlated Weibull fading channels with co-channel interference. International Journal of Communication Systems 2011; 24: 1183-1195.
59. Alexiou A, Bouras C, Papzois A,. A study of forward error correction for mobile multicast. International Journal of Communication Systems 2011; 24: 607-627.
60. Chandra A, Bose C, Bose MK,. Unified BER and optimum threshold analysis of binary modulations in simple and cascaded Rayleigh fading channels with switched combining. International Journal of Communication Systems 2011; 24: 153-167.
61. Samimi H,. Performance analysis of lognormally shadowed generalized gamma fading channels. International Journal of Communication Systems 2011; 24: 14-26.
62. Hassan ES, Zhu X, El-Khami SE, Dessouki MI, El-Dolil SA, El-Samie FEA,. Performance evaluation of OFDM and single-carrier systems using frequency domain equalization and phase modulation. International Journal of Communication Systems 2011; 24: 1-13.
63. Liao SH, Chi CC, Ho MH, Liu CL,. Channel capacity of multiple-input multiple-output ultra-wideband systems with single co-channel interference. International Journal of Communication Systems 2010; 23: 1600-1612.
64. Allen MJ, Yen WM,. Introduction to Measurement Theory. Waveland Press: Long Grove, IL, 2002.