ISSN 2456-0235

INDEXED IN 

International Journal of Modern Science and Technology

​​​​​​International Journal of Modern Science and Technology, Vol. 2, Special Issue 1, 2017, Pages 47-52.

 

Design and Analysis of Super lift Boost Converter

S. Dharanya, R. Baby, P. Alexraj, G. Balasubramanian
Department of Electrical and Electronics Engineering, Arasu Engineering College, Kumbakonam – 612 501. India.

*Corresponding author’s e-mail: bala.coolmce@gmail.com

Abstract
In this paper design and analysis of super lift boost converter is presented. The proposed circuit eliminates some of the drawbacks in the conversional full bridge boost converter such as voltage and current stresses. Today the power electronics devices are smaller, lighter more efficient, less expensive and more reliable system. The full bridge topology is adopted here to obtain higher power output capability and higher conversion efficiency. The increase of the switching frequency reduces the size of the magnetic components but increases the switching losses. The proposed high frequency transformer link DC-DC converter topology is based upon a new conceptual secondary-side series resonant principle and its inherent nature. The proposed techniques is presented with 100 V input and output voltage of 100 V and also 25 V as input and output voltage of 407 V has been simulated and modeled using MATLAB/SIMULINK. The simulation results compared with conventional bidirectional full bridge dc-dc converter is verified its effectiveness.

​​Keywords: DC-DC Super lift Boost Converter; Pulse Width Modulation; MATLAB/SIMULINK.

References

  1. Middlebrook RD, Cuk S. Advances in switched mode power conversion 1 and 2, TESLA co, Pasadena, CA. 1981.
  2. Mohan N, Undeland TM, Robbins WP. Power electronics converters, Applications and Design, 3rd edition, John Wiley & Sons, Inc. Hoboken New Jersey. (2003)
  3. Haiping X, Li K, Wen X. Fuel cell power system and high power DC to DC converter IEEE Trans Power Electron. 2004;19(5):1250–1255.
  4. Zhang L, Xu D, Shen G, Chen M, Ioinovici A, Wu X. A high step up DC to DC converter under alternating phase shift control for fuel cell power system. IEEE Transactions on Power Electronics. 2015;30(3):1694-1703.
  5. Brekken TKA, Hapke HM, Stillinger C, Prudell J. Machines and drives comparison for low power renewable energy and oscillating applications. IEEE Trans Energy Converters. 2010;25(4):1162-1170.
  6. Zhu L. A novel soft commuting isolated boost full bridge ZVS PWM DC-DC converter for bidirectional high power application, 35th Annual IEEE Power Electronics. 2004. pp. 2141-2146.
  7. Luo FL, Ye H. DC-DC conversion techniques and twelve series Luo-converters of the power Electronics Handbook, 2011.
  8. Wang K, Lee FC, Lai J. Bidirectional full-bridge dc/dc converter with unified soft-switching scheme, part1: principle of operation proceedings of VPEC Annual Seminar. 1998. pp. 143-149.
  9. Watson R, Lee FC. A soft-switched full-bridge boost converter employing an active-clamp circuit. IEEE PESC Rec. 1996. pp. 1948-1954.
  10. Chen Z, Shi L, Ji F. Mechanism and suppression countermeasure of voltage oscillation for full bridge converter IET  Power Electron. 2012;5:1535-1573.
  11. Kazimierzuk MK, Czarkowski D. Resonant Power Converter, 1995.
  12. Zhu L. A novel soft-communicating isolated boost full-bridge ZVS-PWM dc-dc converter for bidirectional high power application. IEEE Transaction on Power Electronics. 2006;21:422-429.
  13. Bhat AKS. A comparison of soft-switched DC-DC Converters for fuel cell to utility interface application. IEEE Transactions on Industry Application. 2008;128:450-458.
  14. Cha H, Choi J, Enjet PN. A three phase current fed dc/dc converter with active clamp for low–dc renewable energy sources. IEEE Trans Power Electron 2008;23:2784-2793.
  15. Iannello C, Luo S, Batarseh I. Small-signal and transient analysis of a full-bridge, zero-current-switched PWM converter using an average model. IEEE Trans Power Electron. 2003;18:793-801.
  16. Mohan N, Undeland TM, Robbins WP. Power Electronics, third edition, John          Wiley&Sons Inc., 2003.
  17. Justin Sunil Dhas G, Anto Sahaya Dhas D, Sreesna MK. Positive output elementary super lift Luo Converter for PV Applications. International conference on Innovative Engineering Technologies, 2016. pp. 31-33.
  18. Johny Renoald A, Keerthana MS.  Design and implementation of super-lift multilevel inverter using renewable photovoltaic energy for AC module application. International Journal of Science Technology and Engineering. 2016;2:617-624.