Document Type : Review Article

Author

National Institute of Technology

Abstract

This paper describes the development of a new generation of single phase rectifier which is used to power telecommunications equipment. A rectifier is designed in such a manner to meets with all the requirements of the telecommunications industry. A number of common single phase topologies exist that could be realized as telecommunication power supplies, however, they do not completely satisfy all the industry requirements. This paper reviews recent progress in topology, control and design aspects in single phase PFC techniques. Different switching rectifier topologies are presented for various applications. Merits and limitations of these techniques are discussed. A detailed report of an investigation in the power converter system performance is also provided.

Keywords

[1] Geddam G.P., Rajesh Bapu.S., Ravi Kumar.Y., Srinivas Rao P., Naidu.G.K.M and Ramanarayanan V.; “Design of 1.4Kw Telecom Rectifier Delivering Full Power to 90Vac to 300 Vac”, IEEE INTELEC Conference, pp. 670-676. (September/October 2007)
[2] ITU-T Recommendation P800, “Methods for Subjective Determination of Transmission Quality”, International Telecommunications Union, Telecommunication Standardization Sector, (1996)
[3] Fang Z.P., Chen L. and Zang F.; “Simple Topologies of PWM AC-AC Converters”, IEEE Power Electronics Letters, Vol. 1, No. 1, pp. 10-13, (March 2003)
[4] Electromagnetic Compatibility (EMC)-Part 3: Limits-Section 2: Limits for Harmonic Current Emissions, IEC 1000-3-2, 1st ed., (1995)
[5] Golkar M.A.; “Electrical Power Quality: Types and Measurements”, IEEE International Conference on Electric Utility Deregulation, Restructuring and Power Technologies, Vol. 1, pp. 317-321, (April 2004)
[6] Jain P., Valerio J. and Jain P.; “A Review of Single Phase Power Factor Correction Circuits for Telecommunication Applications” International Telecommunications Energy Conference, pp. 334-338, (November 1994)
[7] James D.; “A Constant Power Rectifier for Telecommunications Using a Novel Variable Turns Ratio Transformer”, International Telecommunications Energy Conference, pp. 251-256, (October 1997)
[8] Garcia O., Cobos J., Prieto R., Alou P. and Uceda J.; “Single Phase Power Factor Correction: A Survey”, IEEE Transactions On Power Electronics, Vol. 18, No. 3, pp. 749-755, (May 2003)
[9] Ashton C.; “Ultra Capacitors for Short Duration Backup of DSL Cabinets”, International Telecommunications Energy Conference, pp. 210-215, (September 2006)
[10] Li S., Bassan S. and Moschopoulos G.; “Higher and Lower Power Single-Stage AC-DC Converters”, International Telecommunications Energy Conference, pp. 249-255, (September 2006)
[11] Pietkiewitz A., Tollik D., “Single-Stage Power Factor Corrected Rectifier Topology”, International Telecommunications Energy Conference, (June 1999)
[12] Yang and Z., Sen P.C.; “Recent Developments in High Power Factor Switch-mode Converters”, IEEE Canadian Conference on Electrical and Computer Engineering, Vol. 2, pp. 477-480, (May 1998)
[13] Lindroth I., Melchert P. and Sahlstrom T.; “Methods of Improving Efficiency in Wide Input Range Boost Converters at Low Input Voltages”, International Telecommunications Energy Conference, pp. 424-431, (September 2000)
[14] Kislovski A.S.; “Fast Active Inrush Current Limiter for Boost-Based Resistor Emulators”, International Telecommunications Energy Conference, pp. 649-652, (October 1994)
[15] Sharifipour B., Huang J.S., Liao P., Huber L. and Jovanovic M.M.; “Manufacturing and Cost Analysis of Power Factor Correction Circuits”, IEEE Applied Power Electronics Conference and Exposition, Vol. 1, pp. 490-494, (February 1998)
[16] Hernandez M., Aguilar C., Arau J., Sebastian J. and Uceda J.; “Comparative Analysis of Boost and Buck-Boost Derived topologies Used as Power Factor Correctors”, IEEE Power Electronics Conference, pp. 14-19, (October 1995)
[17] Erickson R., Madigan M. and Singer S.; “Design of a Simple High-Power-Factor Rectifier Based on the Flyback Converter”, IEEE Applied Power Electronics Conference and Exposition, pp. 792-801, (March 1990)
[18] Brkovic M. and Cuk S.; “Input Current Shaper using Cuk-Converter”, IEEE International telecommunications Energy Conference, pp.532-539, (October 1992)
[19] Sebastian J., Uceda J. and Reis F.S.; “Power Factor Pre-regulators employing the Flyback and Zeta Converters in FM Mode”, IEEE Power Electronics Congress, pp. 132-137, (October 1996)
[20] Lin W.M., Hernando M.M., Fernandez A., Sebastian J. and Villegas P.J.; “A New Topology for Passive Circuit Design to Allow AC-to-DC Converters to Comply with the New Version of IEC 1000-3-2 Regulations”, IEEE Power Electronics Specialists Conference, Vol. 4, pp. 2050- 2055, (June 2002)
[21] Gegner J., Hung C. and Lee C., “High Power Factor AC-to-DC Converter Using a Reactive Shunt Regulator”, IEEE Power Electronics Specialists Conference, Vol. 1, pp. 349-355, (June 1994)
[22] Garcia O., Avial M., Cobos J., Uceda J., Gonzales J. and Navas J., “Harmonic Reducer Converter”, IEEE Transactions on Industrial Electronics, Vol. 50, No. 2, pp. 322-327, (April 2003)
[23] Lin B.R. and Chen D.J., “Single-phase neutral point clamped AC/DC Converter with the Function of Power Factor Corrector and Active Filter”, IEEE Proceedings of Electric Power Applications, Vol. 149, pp. 19-30, (January 2002)
[24] Hussien Z.F., Atan N. and Abidin I.Z.; “Shunt Active Power Filter for Harmonic Compensation of Nonlinear Loads”, International Power Engineering Conference, pp. 117-120, (December 2003)
[25] Zang M.T., Jiang Y., Lee F.C. and Jovanovic M.; “Single-Phase Three-Level Boost Power Factor Correction Converter”, Applied Power Electronics Conference and Exposition, Vol. 1, pp. 435- 439, (March 1995)
[26] Lin B. and Hung S.; “A Single Phase Three-Level Boost Type Rectifier”, International Symposium on Circuits and Systems, Vol. 4, pp. 353-356, (May 2002)
[27] Hau G., Leu C.S. and Lee F.C.; “Novel Zero Voltage Transition PWM Converters”, IEEE Transactions on Power Electronics, Vol. 9, pp. 213-219, (March 1994)
[28] Jangwanitlert A. and Songboonkaew J.; “A Soft-Switched AC-DC Symmetrical Boost Converter with Power Factor Correction”, Power Electronics and Drive Systems Conference, pp.784-788, (November 2007)
[29] Barbi I. and Oliveira da Silva S.A.; “Sinusoidal Line Current Rectification at Unity Power Factor with Boost Quasi-Resonant Converters”, Applied Power Electronics Conference and Exposition, pp. 553-562, (March 1990)
[30] Shutten M.J., Steigerwald R.L. and Kherulawala M.H.; “Characteristics of Load Resonant Converters Operated in a High-Power Factor Mode”, IEEE Transactions on Power Electronics, Vol. 7, No. 2, pp. 304-314, (April 1992)
[31] Sulistyono W. and Enjeti P.N.; “A Series Resonant AC-to-DC Rectifier with High-Frequency Isolation”, IEEE Transactions on Power Electronics, Vol. 10, No. 6, pp. 784-790, (November 1995)
[32] Kherulawala M.H., Steigerwald R.L. and Gurumoorthy R., “A Fast-Response High Power Factor Converter with a Single Power Stage”, IEEE Power Electronics Specialists Conference, pp. 769-779, (June 1991)
[33] Qian J. and Lee F., “A High Efficient Single Stage Single Switch High Power Factor AC/DC Converter with Universal Input”, IEEE Applied Power Electronics Conference and Exposition, Vol. 1, pp. 281-287, (February 1997)
[34] Huber L. and Jovanovic M.M.; “Single Stage Single Switch Isolated Power Supply Technique with Input Current Shaping and Fast Output Voltage Regulation for Universal Input Voltage Range Applications”, IEEE Applied Electronics Conference, Vol. 1, pp. 272-280, (February 1997)
[35] Sebasian J., Hernando M.M., Villegas P., Diaz J. and Fontan A.; “Input Current Shaper based on the Series Connection of a Voltage Source and a Loss Free Resistor”, IEEE Applied Electronics Conference, Vol. 37, No. 2, pp. 583-591, (March 2001)
[36] Garcia O., Cobus J.A., Prieto R., Alou P. and Uceda J.; “Simple AC/DC Converters to Meet IEC1000-3-2”, IEEE Applied Power Electronics Conference and Exposition, Vol. 1, pp. 487-493, (February 2000)
[37] Garcia O., Cobus J.A., Prieto R., Alou P. and Uceda J.; “Design Trade-Offs of Bi-Flyback and Bi-Forward AC/DC Converters to Comply Low Frequency Harmonic Regulation”, IEEE Power Electronics Specialist Conference, Vol. 2, pp. 999-1004, (June 2000)
[38] Qiao C. and Smedley K.M.; “A Topology Survey of Single-Stage Power Factor Corrector with a Boost Type Input-Current-Shaper”, IEEE Transactions on Power Electronics, Vol. 16, No. 3, pp. 360-368, (May 2001)
[39] Kim In-Dong, Paeng Seong-Hwan, Ahn Jin-Woo, Nho Eui-Cheol and Ko Jong-Sun; “ New Bidirectional ZVS PWM Sepic/Zeta DC-DC Converter” Proceeding of IEEE- APEC, pp 555-560, (2007)
[40] Streit R. and Tollik D.; “High Efficiency Telecom Rectifier Using A Novel Soft-Switched Boost-Based Input Current Shaper”, in Proc. INTELEC’91, pp. 720–726, 1991
[41] Hua G., Leu C.S., and Lee F.C.; “Novel zero-voltage-Transition PWM Converters”, in Proc. IEEE PESC’92, pp. 55–61, 1992
[42] Martins D.C., de Seixas F.J.M., Brilhante J.A. and Barbi I.; “A Family of dc-to-dc PWM Converters Using a New ZVS Commutation Cell”, in Proc. IEEE PESC’93, pp. 524–530, (1993)
[43] da Costa A.V., Trevisio C.H.G. and de Freitas L.C.; “A new ZCSZVS- PWM boost Converter with Unity Power Factor Operation” in Proc. IEEE APEC’94, pp. 404–410. (1994)
[44] Gegner J.P. and Lee C.Q.; “Zero-Voltage-Transition Converters Using a Simple Magnetic Feedback Technique”, in Proc. IEEE APEC’94, pp. 590–596. (1994)
[45] Filho N.P., Farias V.J. and de Freitas L.C.; “A Novel Family of Dc-Dc Converters Using the Self-Resonance Principle”, in Proc. IEEE PESC’94, pp. 1385–1391. (1994)
[46] Moschopoulos G., Jain P., and Joos G.; “A Novel Zero-Voltage Switched PWM Boost Converter”, in Proc. IEEE PESC’95, pp. 694–700. (1995)
[47] Bassett J., “New, Zero Voltage Switching, High Frequency Boost Converter Topology for Power Factor Correction”, in Proc. INTELEC’95, pp. 813–820, (1995)
[48] Moschopoulos G., Jain P., Liu Y.-F. and Joos G.; “A Zero-Voltage Switched PWM Boost Converter With An Energy Feed forward Auxiliary Circuit”, in Proc. IEEE PESC’96, pp. 76–82, (1996)
[49] Duarte C.M.C. and Barbi I.; “A New Family Of ZVS-PWM Active Clamping Dc-To-Dc Converters: Analysis, Design, And Experimentation”, in Proc. INTELEC’96, pp. 305–312, (1996)
[50] Jovanovic´M.M.; “A Technique for Reducing Rectifier Reverse-Recovery related Losses In High-Voltage, High-Power Boost Converters,” in Proc. IEEE APEC’97, pp. 1000–1007, (1997)
[51] Smith K.M. and Smedley K.M.; “A Comparison of Voltage-Mode Soft switching Methods for PWM Converters”, IEEE Trans. Power Electronic, Vol. 12, No. 2, pp. 376–386, (March 1997)
[52] Duarte C.M.C. and Barbi I.; “An Improved Family of ZVS-PWM Active- Clamping dc-to-dc Converters,” in Proc. IEEE PESC’98, pp. 669–675, (1998)
[53] Lin R.L., Zhao Y. and Lee F.C.; “Improved Soft-Switching ZVT Converters with Active Snubber”, in Proc. IEEE APEC’98, pp. 1063–1069, (1998)
[54] Tseng C.J. and Chen C.L.; “Novel ZVT-PWM Converters With Active Snubbers”, IEEE Trans. Power Electron., Vol. 13, No. 5, pp. 861–869, (September 1998)
[55] Jovanovic M.M. ´ and Jang Y.; “A New soft-Switched Boost Converter with Isolated Active Snubber”, in Proc. IEEE APEC’98, pp. 1084–1090, (1998)
[56] Kim T.W., Kim H.S., and Ahn H.W.; “An Improved ZVT PWM Converter”, in Proc. IEEE PESC’00, pp. 615–619, (2000)
[57] Wu T.F., Chen C.C., Lee C.H., Shen C.L. and Wu Y.C.; “Analysis, Design and Practical Consideration of A 500 W Power Factor Corrector with Soft Switching Feature”, in Conf. Rec. IEEE-IAS Annu. Meeting, pp. 2418–2425, (2000)
[58] Kim J.H., Lee D.Y., Choi H.S. and Cho B.H.; “High Performance Boost PFP (Power Factor Pre-Regulator) with an Improved ZVT (Zero Voltage Transition) Converter,” in Proc. IEEE APEC’01, pp. 337–342, (2001)
[59] Jain N., Jain P. and Joos G.; “Analysis Of A Zero-Voltage Transition Boost Converter Using A Soft Switching Auxiliary Circuit With Reduced Conduction Losses”, in Proc. IEEE PESC’01, pp. 1799–1804, (2001)
[60] Martins M.L., Gründling H.A., Pinheiro H., Pinheiro J.R. and Hey H.L.; “A ZVT PWM Boost Converter Using an Auxiliary Resonant Source”, in Proc. IEEE APEC’02, pp. 1101–1107, (2002)
[61] Feng B. and Xu D.; “1 kW PFC Converter with Compounded Active-clamping,” in Proc. IEEE PESC’02, pp. 1387–1391, (2002)
[62] Lee I.Q., Lee D.Y. and Cho B.H.; “High Performance Boost Pre-Regulator With Improved Zero-Voltage-Transition (ZVT) Converter”, in Proc. IEEE PESC’03, pp. 1691–1696, (2003)
[63] Ogura K., Chandhaket S., Ahmed T. and Nakaoka M.; “Boost Chopper-fed ZVS-PWM dc-dc Converter with Parasitic Oscillation Surge Suppression-based Auxiliary Edge Resonant Snubber”, in Proc. INTELEC’ 03, pp. 20–26, (2003)
[64] Hua G., Yang X., Jiang Y. and Lee F.C.; “Novel Zero-current-transition PWM Converters,” in Proc. IEEE PESC’93, pp. 538–544, (1993)
[65] Wang K., Hua G. and Lee F.C.; “Analysis, Design and Experimental Results of ZCS-PWM Boost Converters”, in Proc. Int. Power Electronics Conf., Yokahama, Japan, pp. 1202–1207, (1995)
[66] Canesin C.A. and Barbi I., “Comparison of Experimental Loses among Six Different Topologies for A 1.6 Kw Boost Converter, Using IGBT’s”, in Proc. IEEE PESC’95, pp. 1265–1271, (1995)
[67] Xu D.M., Yang C., Ma L., Qiao C., Qian Z., and He X.; “A Novel Single Phase Active-Clamped Pfc Converter”, in Proc. IEEE APEC’97, pp. 266–271, (1997)
[68] Mao H., Lee F.C., Zhou X., Dai H., Cosan M., and Boroyevich D.; “Improved Zero-Current Transition Converters for High-Power Applications”, IEEE Trans. Ind. Appl., Vol. 33, No. 5, pp. 1220–1232, (September/October 1997)
[69] Jang and Y., Jovanovic´M.M.; “A new, Soft-Switched, High-Power-Factor Boost Converter with IGBTs,” presented at the INTELEC’99, pp. 8-3, (1999)
[70] Wakabayashi F.T., Bonato M.J., and Canesin C.A.; “Novel High-Power Factor ZCS-PWM Preregulators” IEEE Trans. Ind. Electron., Vol. 48, No. 2, pp. 322–333, (April 2001)
[71] Choi H.S. and Cho B.H.; “Zero-current-switching (ZCS) Power Factor Pre-Regulator (PFP) with Reduced Conduction Losses,” in Proc. IEEE APEC’02, pp. 962–967, (2002)
[72] Lorenz L., Knapp A. and Marz M.; “CoolMOS™ – A New Milestone in High Voltage Power MOS”, in Conf. Rec. ISPSD’98, pp. 3–10, (1998)
[73] Wang K., Lee F.C., Hua G. and Borojevic´D.; “A Comparative Study of Switching Losses of IGBT’s Under Hard-Switching, Zero-Voltage-Switching, And Zero-Current-Switching,” in Proc. IEEE PESC’94, pp. 1196–1204, (1994)
[74] Mitchell D.M., “AC-DC converter having an improved power factor”, U.S. Patent 4 412 277, (October 25, 1983)
[75] Enjeti P.N. and Martinez R.; “A High Performance Single Phase Ac to Dc Rectifier With Input Power Factor Correction”, in Proc. IEEE APEC’93, pp. 190–195, (1993)
[76] de Souza A.F. and Barbi I.; “A new ZVS-PWM unity Power Factor Rectifier with Reduced Conduction Losses” IEEE Trans. Power Electron.; Vol. 10, No. 6, pp. 746–752, (November 1995)
[77] Jovanovic M.M.; “A new ZVS Semi-resonant Power Factor Rectifier With Reduced Conduction Losses”, IEEE Trans. Ind. Electron., Vol. 46, No. 1, pp. 82–90, (February. 1999)
[78] Wang C.M.; “A Novel Zero-Voltage-Switching PWM boost Rectifier With High Power Factor and Low Conduction Losses”, in Proc. INTELEC’03, pp. 224–229, (2003)
[79] Kapels H., Rupp R., Lorenz L. and Zverev I.; “Sic Schottky Diodes: A Milestone in Hard Switching”, in Proc. PCIM’01, pp. 95–100, (2001)
[80] Petzoldt J., Reimann T., Scherf M. and Zverev I.; “Power Losses of an Ultra-Fast CoolMOS™/SiC-Diode Device-Set In PFC-Applications: Simulation And Measurement”, in Proc. PCIM’01, pp. 115–120, (2001)
[81] Lu B., Dong W., Zhao Q. and Lee F.C.; “Performance Evaluation of CoolMoS™and SiC Diode for Single-Phase Power Factor Correction Applications”, in Proc. IEEE APEC’03, pp. 651–657, (2003)
[82] Zverev I.; “Switching Frequency Related Trade-Offs in a Hard Switched CCM PFC Boost Converter”, in Proc. IEEE APEC’03, pp. 671–676, (2003)
[83] Hernando M., Sebastian J., Villegas P., Fernandez A., Garcia J. and Rascon M.; “Comparing Si and SiC Diodes Performance in a Commercial ac-to-dc Rectifier with Power Factor Correction,” in Proc. IEEE PESC’03, pp. 1979–1983, (2003)
[84] Mitwalli A., Leeb S., Verghese G. and Thottuvelil J.; “An Adaptive Digital Controller for a Unity Power Factor Converter”, IEEE Trans. Power Electron., Vol. 11, No. 2, pp. 374–382, (March 1996)
[85] Buso S., Mattavelli P., Rossetto L. and Spiazzi G.; “Simple Digital Control Improving Dynamic Performance of Power Factor Preregulators”, IEEE Trans. Power Electron., Vol. 13, No. 5, pp. 814–823, (September 1998)
[86] Bibian S. and Jin H.; “Digital Control with Improved Performance for Boost Power Factor Correction Circuits,” in Proc. IEEE APEC’01, pp. 137–143, (2001)
[87] Fu M. and Chen Q.; “A DSP Based Controller for Power Factor Correction (PFC) in a Rectifier Circuit”, in Proc. IEEE APEC’01, pp. 144–149, (2001)
[88] Kim S. and Enjeti P.; “Control of Multiple Single Phase PFC Modules with Single Low-cost DSP”, in Proc. IEEE APEC’03, pp. 375–381, (2003)
[89] Prodic´A., Maksimovic´D. and Erickson R.W.; “Dead-Zone Digital Controller for Improved Dynamic Response of Power Factor Preregulators”, in Proc. IEEE APEC’03, pp. 382–388, (2003)
[90] Choudhury S.; “DSP Implementation of an Average Current Mode Controlled Power Factor Correction Converter”, in Proc. Int. Power Electronics Technology Conf, pp. 366–370., (2003)
[91] Elmore M.S.; “Input Current Ripple Cancellation in Synchronized, Parallel Connected Critically Continuous Boost Converters”, in Proc. IEEE APEC’96, pp. 152–158, (1996)