Page 74 - Hybrid-Renewable Energy Systems in Microgrids
P. 74
58 Hybrid-Renewable Energy Systems in Microgrids
Figure 3.19 Battery state of charge (%SOC).
operations of microgrid. As discussed and shown in this chapter, AC and DC microgrid
can be used to resolve these issues. Also the proposed grid-connected solar PV and
battery characteristics and modeling was presented in this chapter. The droop control
concept and the droop control techniques used in the microgrid was discussed. The
simulation results of solar PV and battery in microgrid were discussed in details.
References
[1] Vandoorn, T.L., Van de Vyver, J., Meersman, B., Zwaenepoel, B., Vandevelde, L., 2015.
Phase unbalance mitigation by three-phase damping voltage-based droop controllers in
microgrids. Elec. Power Sys. Res. 127, 230–239.
[2] Hledik, R., 2009. How green is smart grid? Electr. J. 22 (3), 29–30.
[3] Soto, D., Edrington, C., Balathandayuthapani, S., Ryster, S., 2012. Voltage balancing of
islanded microgrids using a time-domain technique. Elec. Power Sys. Res. 84, 214–223.
[4] Baran, M.E., Mahajan, N.R., 2003. DC distribution for industrial systems: opportunities
and challenges. IEEE Trans. Ind. Appl. 39 (6), 1596–1601.
[5] Yoldaş, Y., Önen, A., Muyeen, S.M., Vasilakos, A.V., Alan, İ., 2017. Enhancing smart grid
with microgrids: challenges and opportunities. Renew. Sust. Energy Rev. 72, 205–214.
[6] Lotfi, H., Khodaei, A., 2017. Hybrid AC/DC microgrid planning. Energy 118, 37–46.
[7] Zaheeruddin, Manas, M., 2015. Renewable energy management through microgrid central
controller design: an approach to integrate solar, wind and biomass with battery. Energy
Rep. 1, 156–163.