This paper deals with a comparative study between the control of three to three phase matrix converter feeding a star-connected three phase induction machine and the control of three to three phase dual matrix converter feeding an open-end winding induction machine. The control strategy used in both cases is based on a proposed direct transfer function control approach of Venturini algorithm which allows to obtain a unity power factor at the input side to boost the output phase voltage up to 150% compared to the input phase voltage, while keeping the main advantage of the matrix converter by providing a fully bidirectional power flow operation. The main objective of using the open-end winding topology is to ensure the minimization of the common mode voltage which is clearly observed in the case of star-connected winding. Simulation results are presented under both control strategies, where both matrix converters are supplied from the same three-phase power source. Whereas; the two output voltage system of the dual matrix converter are shifted with 180 degrees. Based on the obtained results the performances of the both control approaches are technically discussed.
1. Riedemanna, J., Andradeb, I., Peñab, R., BlascoGimenezc, R.,Clare J., Melin, P., Rivera, M. (2016). Modulation strategies for an open-end winding induction machine fed by a two-output indirect matrix converter, Mathematics and Computers in Simulation,144-152.
2.Wheeler, P.W., Rodriguez P.W., Clare, J.C., Empringham, L., Weinstein, A., (2002). Matrix converters: A technology review. IEEE Transactions on Industrial Electronics, 49(2), 276-288.
3. Vargas, R., Rodríguez, J., Ammann, U., Wheeler,
PW. (2008). Predictive current control of an induction
machine fed by a matrix converter with reactive
power control. IEEE Transactions on Industrial
Electronics, 55(12), 4362-4371.
4. Venturini, M. (1980). A new sine wave in sine
wave out, conversion technique which eliminates
reactive elements. POWERCON 7, E3-1-E3-15.
5. Alesina, A., Venturini, M. (1989). Analysis and
design of optimum-amplitude nine-switch direct ACAC converters, IEEE Transactions on Power
Electronics, 4(1), 101-112.
6. Ahmed, S.M., Abu-Rub, H., Kouzou, A. (2013).
Predictive simultaneous power and current control in
a three-phase direct matrix converter. International
Conference on Power Electronics and Their
Applications (ICPEA), Djefia-Algeria.
7. Bachir, G., Bendiabdellah, A. (2009). A
comparative study between two control strategies for
matrix converter. Advances in Electrical and
Computer Engineering, 9(2), 23-27.
8. Beladel, A., Kouzou, A., Hafaifa, A., Mahia D.,
(2016). Dual matrix converter feeding an open-end
winding load based on modified direct transfer
approach, International Scientific Conference on
Engineering, Technologies and Systems.
9. Altun, H., Sünter, S. (2003). Matrix converter
induction motor drive: modeling, simulation and
control. Electrical Engineering, 86(1), 25-33.
10. Rodriguez, J., Silva, E., Wheeler, P., (2013).
Matrix converter controlled with the direct transfer
function approach:analysis, modelling and simulation,
International Journal of Electronics, 63-85.
11. Djahbar A., Mazari B., (2007). High performance
motor drive using matrix converter, Acta
Electrotechnica et Informatica, 2(7).
12. Guizana, S., Ammar, F.B., (2005). Dual open-end
stator winding induction machine fed by redundant
voltage source inverters, Turkish Journal of Electrical
Engineering & Computer Sciences, 92(2), 2171-2181.
13. Riedemann, J., Clare, J.C., Wheeler, P.W.,
Blasco-Gimenez, R., Rivera, M., Pena, R. (2016).
Open-end winding induction machine fed by a dualoutput indirect matrix converter. IEEE Transactions
on Industrial Electronics, 63(7), 4118-4128.
14. Gopal, M., Gopakumar, K., Tekwani, P.N., Emil,
L.A., (2007). Reduced-switch-count five-level
inverter with common-mode voltage elimination for
an open-end winding induction motor drive, IEEE
Transactions on Industrial Electronics, 54(4).
15. Elbar, M., Mahmoidi, M.O., Naas, B., (2010). A
Carrier-Based PWM Techniques Applied to a ThreeLevel Four-Leg Inverter For Use as a Shunt Active
Power Filter, J. Electrical Systems, Special Issue (2),
47-57.
Year 2017,
Volume: 12 Issue: 2, 91 - 99, 01.10.2017
1. Riedemanna, J., Andradeb, I., Peñab, R., BlascoGimenezc, R.,Clare J., Melin, P., Rivera, M. (2016). Modulation strategies for an open-end winding induction machine fed by a two-output indirect matrix converter, Mathematics and Computers in Simulation,144-152.
2.Wheeler, P.W., Rodriguez P.W., Clare, J.C., Empringham, L., Weinstein, A., (2002). Matrix converters: A technology review. IEEE Transactions on Industrial Electronics, 49(2), 276-288.
3. Vargas, R., Rodríguez, J., Ammann, U., Wheeler,
PW. (2008). Predictive current control of an induction
machine fed by a matrix converter with reactive
power control. IEEE Transactions on Industrial
Electronics, 55(12), 4362-4371.
4. Venturini, M. (1980). A new sine wave in sine
wave out, conversion technique which eliminates
reactive elements. POWERCON 7, E3-1-E3-15.
5. Alesina, A., Venturini, M. (1989). Analysis and
design of optimum-amplitude nine-switch direct ACAC converters, IEEE Transactions on Power
Electronics, 4(1), 101-112.
6. Ahmed, S.M., Abu-Rub, H., Kouzou, A. (2013).
Predictive simultaneous power and current control in
a three-phase direct matrix converter. International
Conference on Power Electronics and Their
Applications (ICPEA), Djefia-Algeria.
7. Bachir, G., Bendiabdellah, A. (2009). A
comparative study between two control strategies for
matrix converter. Advances in Electrical and
Computer Engineering, 9(2), 23-27.
8. Beladel, A., Kouzou, A., Hafaifa, A., Mahia D.,
(2016). Dual matrix converter feeding an open-end
winding load based on modified direct transfer
approach, International Scientific Conference on
Engineering, Technologies and Systems.
9. Altun, H., Sünter, S. (2003). Matrix converter
induction motor drive: modeling, simulation and
control. Electrical Engineering, 86(1), 25-33.
10. Rodriguez, J., Silva, E., Wheeler, P., (2013).
Matrix converter controlled with the direct transfer
function approach:analysis, modelling and simulation,
International Journal of Electronics, 63-85.
11. Djahbar A., Mazari B., (2007). High performance
motor drive using matrix converter, Acta
Electrotechnica et Informatica, 2(7).
12. Guizana, S., Ammar, F.B., (2005). Dual open-end
stator winding induction machine fed by redundant
voltage source inverters, Turkish Journal of Electrical
Engineering & Computer Sciences, 92(2), 2171-2181.
13. Riedemann, J., Clare, J.C., Wheeler, P.W.,
Blasco-Gimenez, R., Rivera, M., Pena, R. (2016).
Open-end winding induction machine fed by a dualoutput indirect matrix converter. IEEE Transactions
on Industrial Electronics, 63(7), 4118-4128.
14. Gopal, M., Gopakumar, K., Tekwani, P.N., Emil,
L.A., (2007). Reduced-switch-count five-level
inverter with common-mode voltage elimination for
an open-end winding induction motor drive, IEEE
Transactions on Industrial Electronics, 54(4).
15. Elbar, M., Mahmoidi, M.O., Naas, B., (2010). A
Carrier-Based PWM Techniques Applied to a ThreeLevel Four-Leg Inverter For Use as a Shunt Active
Power Filter, J. Electrical Systems, Special Issue (2),
47-57.
Beladel, A., Kouzou, A., Hafaıfa, A., Sunter, S., et al. (2017). A Comparative Study between Matrix Converter Fed InductionMotor Drive and Dual-Matrix Converter Fed Open-End WindingInduction Motor Drive. Turkish Journal of Science and Technology, 12(2), 91-99.
AMA
Beladel A, Kouzou A, Hafaıfa A, Sunter S, Mahıa D. A Comparative Study between Matrix Converter Fed InductionMotor Drive and Dual-Matrix Converter Fed Open-End WindingInduction Motor Drive. TJST. October 2017;12(2):91-99.
Chicago
Beladel, A., A. Kouzou, A. Hafaıfa, Sedat Sunter, and D. Mahıa. “A Comparative Study Between Matrix Converter Fed InductionMotor Drive and Dual-Matrix Converter Fed Open-End WindingInduction Motor Drive”. Turkish Journal of Science and Technology 12, no. 2 (October 2017): 91-99.
EndNote
Beladel A, Kouzou A, Hafaıfa A, Sunter S, Mahıa D (October 1, 2017) A Comparative Study between Matrix Converter Fed InductionMotor Drive and Dual-Matrix Converter Fed Open-End WindingInduction Motor Drive. Turkish Journal of Science and Technology 12 2 91–99.
IEEE
A. Beladel, A. Kouzou, A. Hafaıfa, S. Sunter, and D. Mahıa, “A Comparative Study between Matrix Converter Fed InductionMotor Drive and Dual-Matrix Converter Fed Open-End WindingInduction Motor Drive”, TJST, vol. 12, no. 2, pp. 91–99, 2017.
ISNAD
Beladel, A. et al. “A Comparative Study Between Matrix Converter Fed InductionMotor Drive and Dual-Matrix Converter Fed Open-End WindingInduction Motor Drive”. Turkish Journal of Science and Technology 12/2 (October 2017), 91-99.
JAMA
Beladel A, Kouzou A, Hafaıfa A, Sunter S, Mahıa D. A Comparative Study between Matrix Converter Fed InductionMotor Drive and Dual-Matrix Converter Fed Open-End WindingInduction Motor Drive. TJST. 2017;12:91–99.
MLA
Beladel, A. et al. “A Comparative Study Between Matrix Converter Fed InductionMotor Drive and Dual-Matrix Converter Fed Open-End WindingInduction Motor Drive”. Turkish Journal of Science and Technology, vol. 12, no. 2, 2017, pp. 91-99.
Vancouver
Beladel A, Kouzou A, Hafaıfa A, Sunter S, Mahıa D. A Comparative Study between Matrix Converter Fed InductionMotor Drive and Dual-Matrix Converter Fed Open-End WindingInduction Motor Drive. TJST. 2017;12(2):91-9.