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Determination Of The Optimum Renewable Power Generating Systems For An Educational Campus In Kirklareli University

Yıl 2011, Cilt: 1 Sayı: 1, 8 - 17, 31.12.2011

Öz

Kaynakça

  • Journal of Sustainable Energy, 30(4), 212–222. Balamurugan, P., Ashok, S., and Jose, T.L. (2009). Optimal Operation Of Biomass/Wind/ Pv Hybrid Energy
  • System For Rural Areas. International Journal of Green Energy 6,104–116. Boyle, G., (1998).Renewable energy: power for a sustainable future. Oxford University Press, 1–40.
  • Celik, AN. (2002). The system performance of autonomous photovoltaic–wind hybrid energy systems using synthetically generated weather data. Renewable Energy 27,107–21.
  • CPVM, (2011). 100W Solar Panel -100W 12V Crystalline PV Module Available from http://www.cdtsolar.com/100_watt
  • DCSS, Deep Cycle-Solar Series 5000, (2011). 6 Cs25ps Battery Available from http://www.dcbattery.com/rollssurrette_6cs25ps.pdf
  • HOMER Software Version 2.67, National Renewable Energy Laboratory (NREL), USA, http://www.nrel.gov/Homer. Karaki, SH., Chedid, RB., Ramadan, R. (1999). Probabilistic Performance Assessment of Autonomous Solar-Wind
  • Energy Conversion Systems. IEEE Transactions on Energy Conversion 14(3),766-772. Kaya, D. (2006). Renewable energy policies in Turkey, Renewable and Sustainable Energy Reviews 10, 152–163
  • Markvart, T. (1996). Sizing of hybrid photovoltaic-wind energy systems. Solar Energy 57(4), 227–281.
  • Moharil, RM., Kulkarni, PS. (2009). A case study of solar photovoltaic power system at Sagardeep Island, India.
  • Renewable and Sustainable Energy Reviews 13,673–681. Prasad, AR., Natarajan, E. (2006). Optimization of integrated photovoltaic–wind power generation systems with battery storage, Energy 31,1943–1954.
  • Sahin, AZ. (2000). Applicability of wind-solar thermal hybrid power systems in the Northeastern part of the Arabian Peninsula. Energy Sources, Part A. Recovery, Utilization, and Environmental Effects 22,845–850.
  • Sayigh, A. 1999. Renewable energy—The way forward. Applied Energy 64,15–30.
  • Shaahid, S.M., El-Amin, I., Rehman, S., Al-Shehri A., Ahmad, F., Bakashwain J.,et al. (2010).
  • Techno-Economic Potential of Retrofitting Diesel Power Systems with Hybrid Wind-Photovoltaic-Diesel Systems for Off-Grid Electrification of Remote Villages of Saudi Arabia. International Journal of Green Energy ,632–646. TSMS, Turkish State Meteorological Service, (2011).The solar radiation data of Kavakli Campus of Kirklareli
  • University, http://www.dmi.gov.tr/en-US/forecast-cities.aspx Ulgen, K., Hepbasli, A., (2003). A Study on Evaluating the Power Generation of Solar-Wind Hybrid Systems in
  • Izmir, Turkey. Energy Sources, Part A. Recovery, Utilization, and Environmental Effects 25,241–252. Wrixon, G. T., Rooney, M. E., and Palz, W. (1993). Renewable Energy, Berlin, Germany:Springer-Verlag.

Determination Of The Optimum Renewable Power Generating Systems For An Educational Campus In Kirklareli University

Yıl 2011, Cilt: 1 Sayı: 1, 8 - 17, 31.12.2011

Öz

This paper is to investigate whether the energy demand of Pinarhisar educational campus in Kırklareli University is fully met by using various types of the renewable power generating systems and also search for the optimum configuration of the hybrid power generating systems. Wind speed and solar radiation data measured in an hourly time-series format are used based on 2 years between 2008 and 2010, respectively. Three different renewable power generating systems, standalone PV- Battery and standalone Wind-Battery and standalone PV-Wind systems, are analyzed in detail by using HOMER software and compared among themselves considering COE, total NPC. Additionally, sensitivity analysis is performed considering three different wind speed values because of the wind’s instable nature. According to the study results, the optimal configuration with the lowest total net present cost (NPC) and cost of energy (COE) contains one wind turbine, 36 batteries, a 6 kW converter and the 14kW PV array under the current conditions in Pinarhisar region (average wind speed and average solar global irradiance are almost 3.94 m/s and 4.98 kWh/m2/d, respectively.). Finally, this study also searches for how much NPC and COE values of the hybrid power generating systems show a tendency of increasing or decreasing remarkably based on the amount of the change in the (variable and unstable stable) wind speed

Kaynakça

  • Journal of Sustainable Energy, 30(4), 212–222. Balamurugan, P., Ashok, S., and Jose, T.L. (2009). Optimal Operation Of Biomass/Wind/ Pv Hybrid Energy
  • System For Rural Areas. International Journal of Green Energy 6,104–116. Boyle, G., (1998).Renewable energy: power for a sustainable future. Oxford University Press, 1–40.
  • Celik, AN. (2002). The system performance of autonomous photovoltaic–wind hybrid energy systems using synthetically generated weather data. Renewable Energy 27,107–21.
  • CPVM, (2011). 100W Solar Panel -100W 12V Crystalline PV Module Available from http://www.cdtsolar.com/100_watt
  • DCSS, Deep Cycle-Solar Series 5000, (2011). 6 Cs25ps Battery Available from http://www.dcbattery.com/rollssurrette_6cs25ps.pdf
  • HOMER Software Version 2.67, National Renewable Energy Laboratory (NREL), USA, http://www.nrel.gov/Homer. Karaki, SH., Chedid, RB., Ramadan, R. (1999). Probabilistic Performance Assessment of Autonomous Solar-Wind
  • Energy Conversion Systems. IEEE Transactions on Energy Conversion 14(3),766-772. Kaya, D. (2006). Renewable energy policies in Turkey, Renewable and Sustainable Energy Reviews 10, 152–163
  • Markvart, T. (1996). Sizing of hybrid photovoltaic-wind energy systems. Solar Energy 57(4), 227–281.
  • Moharil, RM., Kulkarni, PS. (2009). A case study of solar photovoltaic power system at Sagardeep Island, India.
  • Renewable and Sustainable Energy Reviews 13,673–681. Prasad, AR., Natarajan, E. (2006). Optimization of integrated photovoltaic–wind power generation systems with battery storage, Energy 31,1943–1954.
  • Sahin, AZ. (2000). Applicability of wind-solar thermal hybrid power systems in the Northeastern part of the Arabian Peninsula. Energy Sources, Part A. Recovery, Utilization, and Environmental Effects 22,845–850.
  • Sayigh, A. 1999. Renewable energy—The way forward. Applied Energy 64,15–30.
  • Shaahid, S.M., El-Amin, I., Rehman, S., Al-Shehri A., Ahmad, F., Bakashwain J.,et al. (2010).
  • Techno-Economic Potential of Retrofitting Diesel Power Systems with Hybrid Wind-Photovoltaic-Diesel Systems for Off-Grid Electrification of Remote Villages of Saudi Arabia. International Journal of Green Energy ,632–646. TSMS, Turkish State Meteorological Service, (2011).The solar radiation data of Kavakli Campus of Kirklareli
  • University, http://www.dmi.gov.tr/en-US/forecast-cities.aspx Ulgen, K., Hepbasli, A., (2003). A Study on Evaluating the Power Generation of Solar-Wind Hybrid Systems in
  • Izmir, Turkey. Energy Sources, Part A. Recovery, Utilization, and Environmental Effects 25,241–252. Wrixon, G. T., Rooney, M. E., and Palz, W. (1993). Renewable Energy, Berlin, Germany:Springer-Verlag.
Toplam 16 adet kaynakça vardır.

Ayrıntılar

Birincil Dil Türkçe
Bölüm Makaleler
Yazarlar

Cihan Gokcol Bu kişi benim

Bahtiyar Dursun Bu kişi benim

Yayımlanma Tarihi 31 Aralık 2011
Gönderilme Tarihi 5 Ocak 2015
Yayımlandığı Sayı Yıl 2011 Cilt: 1 Sayı: 1

Kaynak Göster

APA Gokcol, C., & Dursun, B. (2011). Determination Of The Optimum Renewable Power Generating Systems For An Educational Campus In Kirklareli University. Ejovoc (Electronic Journal of Vocational Colleges), 1(1), 8-17.