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Shams-Ansari, Amir Hassan
- Implementation of Sliding Mode Control in a Full Bridge (DC-DC) Converter
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Authors
Affiliations
1 Department of Electrical Engineering, University of Tafresh, Tafresh, IR
2 Department of Electrical Engineering, Science and research branch, Islamic Azad University, Arak, IR
3 Department of Electrical Engineering, Arak University, Arak, IR
1 Department of Electrical Engineering, University of Tafresh, Tafresh, IR
2 Department of Electrical Engineering, Science and research branch, Islamic Azad University, Arak, IR
3 Department of Electrical Engineering, Arak University, Arak, IR
Source
Indian Journal of Science and Technology, Vol 5, No 5 (2012), Pagination: 2665-2672Abstract
Converters are widely used in many fields specially Distributed Generation applications. Because of the non-linear and the uncertain characteristics of DC-DC converters, Sliding Mode Control (SMC), which is robust against uncertainties and disturbances, is implemented in a full-bridge converter in order to control the converter output by varying the duty cycle of the converter. The proposed method is explained and formulated using state-space average model of the fullbridge converter. Additionally, the effects of changing the design parameters of the introduced sliding mode controller in tracking performance and tracking are discussed. Moreover, the system behavior during load and source sudden changes is analyzed. High performance and tracking accuracy of the system under parameter variation are confirmed appropriately using simulations.Keywords
Full-Bridge Converter, Sliding Mode Control, Nonlinear Control, DGFull Text
References
- Al-Dabbagh AW, Lu L and Mazza A (2010) Modelling, simulation and control of a proton exchange membrane fuel cell (pemfc) power system. Int. J.Hydrogen Energy. 35(10), 5061-5069.
- Ali Aref, Mohsen Davoudi and Majid Davoudi (2012) Optimal placement and estimation of DG capacity in distribution network’s using Genetic Algorithm-based method. Indian J.Sci.Technol. 5 (3), 2281-2286.
- Ali Asghar Ghadimi HR and Ali Keyhani (2007) Development of average model for control of a full bridge pwm dc-dc converter. J.Iran. Asso. Electr. & Electron. Engineers (IAEEE). 4, 52-59.
- Biel D, Guinjoan F, Fossas E and Chavarria J (2004) Sliding-mode control design of a boost-buck switching converter for ac signal generation. Circuits & Sys I: Regular papers, IEEE Transact. 51, ( 8), 1539-1551.
- Chan CY (2007) A nonlinear control for dc–dc power converters. IEEE Transact. on Power Electron. 22(1),216-222.
- Chung IY, Liu W, Schoder K and Cartes DA (2011) Integration of a bi-directional dc–dc converter model into a real-time system simulation of a shipboard medium voltage dc system. Electric Power Systems Res. 81(4),1051-1059.
- Da Silva JFA, Fernão Pires V, Pinto SF and Barros JDS (2003) Advanced control methods for power electronics systems. Math. & Comput. in Simulation. 63(3-5),281-295.
- Guesmi K, Essounbouli N, Hamzaoui A, Zaytoon J and Manamanni N (2008) Shifting nonlinear phenomena in a dc–dc converter using a fuzzy logic controller. Math. & Comput. in Simulation. 76(5-60), 398-409.
- Guo L, Hung JY and Nelms RM (2011a) Comparative evaluation of sliding mode fuzzy controller and pid controller for a boost converter. Electric Power Sys. Res.81(1),99-106.
- Guo Y, Zhang C, Wang Z and Huang L (2010) Study on the method of fuzzy pid control for dc/dc converter. Inform. Networking & Automation (ICINA).1, V1-329- V321-332.
- Guo L, Hung JY and Nelms RM (2011b) Design of a fuzzy controller using variable structure approach for application to dc–dc converters. Electric Power Sys. Res. 83, (1)104-109.
- Hassan Rastegar AaG (2011) Load sharing control of fuel cell based generation units in stand-alone distribution networks. Aus.J. Electr. & Electron. Eng. 8,39-53.
- Ibarra E, Andreu J, Kortabarria I, Ormaetxea E, De Alegría IM, Martín JL and Ibañez P (2011) New fault tolerant matrix converter. Electric Power Sys. Res.81(2), 538-552.
- Jafarian MJ and Nazarzadeh J (2011) Time-optimal sliding-mode control for multi-quadrant buck converters. Power Electron., IET. 4(1),143-150.
- Jean-Jacques E.Slotine WL (1991) Applied nonlinear control. 1st edn. Prentice Hall. NJ.
- Kakigano H, Miura Y and Ise T (2010) Low-voltage bipolar-type dc microgrid for super high quality distribution. IEEE Transact. Power Electron. 25(12), 3066-3075.
- Kexin W, Qiang S, Bin L and Mingxing D (2008) The research of adaptive fuzzy pid control algorithm based on lqr approach in dc-dc converter. Computational Intelligence and Industrial Application, 2008. PACIIA '08. Pacific-Asia Workshop.
- Khalil KH (2002) Nonlinear systems. 3rd edn. Prentice Hall, NJ.
- Kurokawa F, Maeda Y, Shibata Y, Maruta H, Takahashi T, Bansho K, Tanaka T and Hirose K (2010a) Fast response digital pid control circuit for dc-dc converter. TENCON 2010 - 2010 IEEE Region 10 Conf.
- Kurokawa F, Maeda Y, Shibata Y, Maruta H, Takahashi T, Bansho K, Tanaka T and Hirose K (2010b) A new fast digital pid control dc-dc converter. Power Electronics and Motion Control Conference (EPE/PEMC), 2010 14th International.
- Mahdavi J, Nasiri MR, Agah A and Emadi A (2005) Application of neural networks and state-space averaging to dc/dc pwm converters in sliding-mode operation. IEEE/ASME Transact. on Mechatronics. 10(1), 60-67.
- Marwali MN and Keyhani A (2004) Control of distributed generation systems-part i: Voltages and currents control. IEEE Transact. on Power Electron. 19(6),1541-1550.
- Marwali MN, Jin-Woo J and Keyhani A (2004) Control of distributed generation systems - part ii: Load sharing control. IEEE Transact. on Power Electron. 19(6),1551-1561.
- Navarro-López EM, Cortés D and Castro C (2009) Design of practical sliding-mode controllers with constant switching frequency for power converters. Electric Power Sys. Res. 79(5),796-802.
- Pires VF and Silva JFA (2002) Teaching nonlinear modeling, simulation, and control of electronic power converters using matlab/simulink. IEEE Transact. on Edu. 45, (3),253-261.
- Prodic A and Maksimovic D (2002) Design of a digital pid regulator based on look-up tables for control of high-frequency dc-dc converters. In: Proc. of IEEE Workshop on Comput. in Power Electron.
- S.H Fathi HR and Ghadimi AA (2011) Control of islanded industrial networks with fuel cell based distributed generation units and ultra capacitor storage device. European Transactions on Electrical Power. 21(1), 801-823.
- Sarhangzadeh M, Hosseini SH, Sharifian MBB and Gharehpetian GB (2011) Multiinput direct dc–ac converter with high-frequency link for clean power-generation systems. IEEE Transact. on Power Electron. 26(6),1777-1789.
- Seyed Ali Mohammad Javadian and Maryam Massaeli (2011a) An adaptive overcurrent protection scheme for distribution networks including DG using distribution automation system and its implementation on a real distribution network.Indian J.Sci.Technol. 4 (11), 1438-1445. Domain site: http://www.indjst.org.
- Seyed Ali Mohammad Javadian and Maryam Massaeli (2011b) A fault location method in distribution networks including DG.Indian J.Sci.Technol. 4 (11), 1446-1451. Domain site: http://www.indjst.org.
- Seyed Ali Mohammad Javadian and Maryam Massaeli (2011c) Calculation of maximum DG’s capacity according to their location for remaining the protection coordination in distribution networks.Indian J.Sci.Technol. 4 (11), 1452-1457. Domain site: http://www.indjst.org.
- Shtessel YB, Zinober ASI and Shkolnikov IA (2003) Sliding mode control of boost and buck-boost power converters using method of stable system centre. Automatica. 39(6),1061-1067.
- Siew-Chong T, Lai YM, Tse CK and Cheung MKH (2005) A fixed-frequency pulsewidth modulation based quasi-sliding-mode controller for buck converters. IEEE Transact. on Power Electron. 20, (6),1379-1392.
- Vidal-Idiarte E, Carrejo CE, Calvente J, Marti X and Nez-Salamero L (2011) Two-loop digital sliding mode control of dc-dc power converters based on predictive interpolation. IEEE Transact. OnIndus. Electron. 58(6), 2491-2501.