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HYBRID ENERGY SOURCES

Manish Jangir, Aman Kumar Giri, Naveen Kumar, Debabrato Mukherjee, Ravi Kumar Hada

Abstract


As we all recognise, the global generating capacity is increasing every day. Nations are moving towards renewable energy sources of energy to reduce the carbon footprint, air pollution & which will be able to give pure & eco-pleasant power not including providing effect on the natural environment and natural reserves reduction. Whereas, at the same time, renewable energy sources have some major disadvantages like they are not reliable or we can say, they are not continuous in nature as solar power plant can only generate power in the presence of sunlight. As a result, one explanation for increasing power reliability is to use Hybrid Energy Sources, which combine several renewable energy sources. At the same time due to increase penetration of electric vehicles in the market, energy requirement across the globe has also increased & to balance this sudden demand and supply of power we have a solution of vehicle to grid technology. A vehicle to grid (V2G) technology is a kind of technology which aims to transfer the power stored in the batteries of electric vehicle to the system at the time of peak hours. A peak hour is the time duration for the grid at which power surplus of system is not much high & there is a chance of overloading of the system. So, in this project, we are going to see the working model of Hybrid Energy Sources by combining three multiple sources which are solar, wind & EV. & Also, we are going to see the sensor based working model of vehicle to grid technology which detects the peak hours of system & according to that, EV will deliver power to the grid.


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References


AlLee, G. & Tschudi, W. (2012, November/December). Edison redux: 380 vdc brings reliability and efficiency to sustainable data ceters. IEEE power & energy magazine,

Baigrie, B. (2007). Electricity and magnetism: A Historical Perspective. Westport, CT: Greenwood Press.

Cetin, E., Yilanci, A., Ozturk, H. K., Colak, M., Kasikci, I., & Iplikci, S. (2009). A micro-dc power distribution system for a residential application energized by photovoltaic- wind/fuel cell hybrid energy systems. Energy and Buildings, 42,

Downey, L. (2010, 10). Dc microgrids. Darnell smart grid form, San Jose, CA.`

EPRI Electric Power Research Institute. (2006). DC power production, delivery, and utilization. Palo Alto, CA:

Nanda, I., & Adhikari, N. (2019). System on chips design for internet of things using partial reconfiguration. Journal of Advanced Research in Dynamical and Control Systems, 11(1 Special Issue), 10231029

Jiayi, H., Chuanwen, J., & Rong, X. (2007). A review on distributed energy resources and microgrid. Renewable and Sustainable Energy Reviews, 12,

Jonnes, J. (2003). Empires of light: Edison, tesla, westing house, and the race to electrify the world. (1st ed.). New York, NY: Random House.

Justo, J. J., Mwasilu, F., Lee, J., & Jung, J. W. (2013). Ac-microgrids versus dc-microgrids with distributed energy resources: A review. Renewable and Sustainable Energy Reviews, 24,

Kakigano, H., Nomura, M., & Ise, T. (2010). Loss evaluation of dc distribution for residential houses compared with ac system. The 2010 international power electronics conference.

Patterson, B. T. (2012, November/December). Dc, come home. IEEE power & energy magazine, 60-69.

Panda, A., Aviso, K.B., Mishra, U., Nanda, I., Impact of optimal power generation scheduling for operating cleaner hybrid power systems with energy storage. International Journal of Energy Research, 2021, 45(10), pp. 14493–14517.


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