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Single Tuned Harmonic Shunt Passive Filter Design for Suppressing Dominant Odd Order Harmonics in order to Improve Energy Efficiency


  • Department of Electrical Engineering, MUET, Jamshoro, Sindh, Pakistan


Power quality refers to the provision of the clean and stable electrical power supplies with least interruptions of current and voltage However, power quality problems arise due to the application of nonlinear loads with end user devices. Electrical installations majorly suffer from adverse effects of harmonic currents and voltages. Though, this problem has been decades long and pattern of investigation for the researchers but due to evolution of semiconductor technology, it has become burning issue with reference to the power system loads. Therefore, it becomes necessary to mitigate these harmonics for the safe operation of electrical appliances. Thus, harmonic passive filters are cost effective and easy to implement. In this work, the mitigation of current harmonics has been accomplished through single tuned Shunt Harmonic Passive Filter (SHPF). Furthermore, the application of six pulse multiplication converter technique ensures the mitigation of dominant 3rd harmonic currents and reduction of succeeding 5th and 7th harmonic currents. Furthermore, shunt operation of single tuned harmonic passive filter enables the current to follow the low impedance path. Consequently, the current harmonic distortion becomes less than 5 % according to allowable IEEE 519 -1992 standards. This reduction in harmonic distortion not only reduces the losses incurred in the system but it also improves the energy efficiency of the electrical Power Distribution System (PDS).


IEEE 519 -1992 Standards, Energy Efficiency,Passive Harmonic Filters, Power Quality, Single Tuned Shunt Harmonic Passive Filter,Six Pulse Multiplication Converter.

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  • Sahito AA., Halepoto IA., Uqaili MA., Memon ZA., Larik AS, Mahar MA. Analyzing the impacts of distributed generation integration on distribution network: A corridor towards smart grid implementation in Pakistan. Wireless Personal Communications, Springer; 2015. p. 545–63.
  • Kuldeep KS, Anand VP. Harmonics and its mitigation technique by passive shunt filter. 2013; 3(2):2231–307.
  • Soomro MA, Halepoto IA, Sahito AA. Design of six pulse bridge multiplication converter model for current harmonic elimination of three phase AC-DC converter. Mehran University Research Journal of Engineering and Technology. 2014; 33(4):476–84.
  • Gour S, Gupta S. Comparative analysis of multipulse AC-DC converter using zig-zag transformer. 2013 Jul; 3:38–42.
  • Sharma V, Tomer AS. Comparative analysis on control methods of shunt active power filter for harmonics mitigation. International Journal of Science and Research. 2014; 3(2):107–14.
  • Soomro MA, Uqaili MA, Memon ZA. A novel method for the current harmonic elimination of industrial power system using single tuned shunt passive filter. Mehran University Research Journal of Engineering and Technology. 2012 Jan; 31:1.
  • Zubi HM, Dunn RW, Robinson FVP. Comparison of different common passive filter topologies for harmonic mitigation UPEC 2010 Aug 31–Sep 3; 2010.
  • Napoles J, Leon JI, Portillo R, Franquelo LG, Aguirre MA. Selective harmonic mitigation technique for high-power converters. IEEE Transactions on Industrial Electronics. 2010; 57(7):2315–23.
  • Peterson M, Singh B. Multipulse controlled ac–dc converters for harmonic mitigation and reactive power management. IET Power Electronics. 2009; 2(4):443–55.
  • Halpin SM. Harmonic modeling and simulation requirements for the revised IEEE standard 519-1992. IEEE General Meeting on Power Engineering Society. 2003; 2.
  • Wouter RA, Jozef AL, Ghijselen AA, Melkebeek J. Harmonic mitigation potential of shunt harmonic impedances; 2002. p. 63–9.
  • Yousif SN, Wanik MZC, Mohamed A. Implementation of different passive filter designs for harmonic mitigation. PECon 2004. Proceedings. National Power and Energy Conference; 2004. p. 229–31.
  • Das JC. Passive filters—potentialities and limitations. IEEE Transactions On Industry Applications. 2004 Jan/Feb; 40(1):232–41.
  • Recommended Practice and Requirements for Harmonic Control in Electrical Systems, IEEE Std. 519; 1992.
  • Wu CJ, Liao CJ. Investigation and mitigation of harmonic amplification problems caused by single-tuned filters. IEEE Transactions on Power Delivery. 1998 Jul; 13(3):800–6.
  • Arrillaga J, Bradley DA, Bodger PS. Power System Harmonics. American Scientific Publishers: New York, Wiley; 1985.


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