Organik Rankine Çevriminde Farklı Soğutucu Akışkanların Ekserji Analizi Üzerine Etkisinin Ġncelenmesi

Bu çalışmada, Türkiye’nin güneyinde bulunan bir yerel güç santralindeki Organik Rankine Çevrimi için

Investigation of Different Working Fluid Effects on Exergy Analysis for Organic Rankine Cycle (ORC)

In this study, energy and exergy analyses are performed for an Organic Rankine Cycle in a local powerplant that is located southern of Turkey. The Organic Rankine Cycle was used for low temperature heatsource as heat recovery process with various organic working fluids. The examined system consists of anevaporator, a turbine, a condenser, a pump and a generator as components. The evaluation is carried outusing two different working fluids for each component of the system. The main purpose of this study is tomodel the ORC cycle for performance optimization in terms of the usage of two different working fluidswith relevant temperature ranges. HFE7100 and FC72 working fluids are selected as performanceparameters in order to show the effect of the working fluids on the system performance of the OrganicRankine Cycle.

___

  • 1. Tumen Ozdil N.F, Segmen M.R, Tantekin A., 2015. Thermodynamic Analysis of an Organic ηII second law efficiency 31(1), Haziran 2016 449 Rankine Cycle (ORC) Based on Industrial Data, Applied Thermal Engineering 91:43-52.
  • 2. Kaşka Ö., 2014. Energy and Exergy Analysis of an Organic Rankine for Power Generation from Waste Heat Recovery in Steel Industry, Energy Conversion and Management 77:108- 117.
  • 3. Gomez M., Garcia R., Gomez J., 2014. Thermodynamic Analysis of a Brayton Cycle and Rankine Cycle Arranged in Series Exploiting the Cold Exergy of LNG (liquefied naturel gas), Energy 66:927-937.
  • 4. Bao J., Zhao L., 2012. Exergy Analysis and Parameter Study on a Novel Auto-Cascade Rankine Cycle, Energy 48:539-547.
  • 5. Roy J.P., Mishra M.K., Misra A., 2011. Performance Analysis of an Organic Rankine Cycle with Superheating Under Different Heat Source Temperature Conditions, Applied Energy 88:2995-3004.
  • 6. Aghahosseini S., Dincer I., 2013. Comparative Performance Analysis of Low-Temperature Organic Rankine Cycle (ORC) Using Pure and Zeotropic Working Fluids, Applied Thermal Engineering 54:35-42.
  • 7. Sue D., Chuang C., 2004. Engineering Design and Exergy Analyses for Combustion Ga Turbine Based Power Generation System, Energy 29:1183-1205.
  • 8. Li Y.R, Wang J., Du M., 2012. Influence of Coupled Pinch Point Temperature Difference and Evaporation Temperature on Performance of Organic Rankine Cycle, Energy 42:503-509.
  • 9. Khaliq A., Kaushik S., 2004. Second Law Based Thermodynamic Analysis of Brayton/Rankine Combined Power Cycle with Reheat. Applied Energy 78:179-197.
  • 10. Yazıcı H., Selbaş R., 2011. Buharlı Güç Santralinin Enerji ve Ekserji Analizi, Enerji 10:1.
  • 11. Peris B., Esbrí J., Moles F., Collado R., A Babiloni., 2015. Performance Evaluation of an Organic Rankine Cycle (ORC) for Power Applications from Low Grade Heat Sources, Applied Thermal Engineering 75:763-769.
  • 12. Wang J.L., Zhao L., Wang X.D., 2012. An Experimental Study on the Recuperative Low Temperature Solar Rankine Cycle Using R245fa, Applied Energy 94:34-40.
  • 13. Lee U., Park K., Jeong Y.S., Lee S., Han C., 2014. Design and Analysis of a Combined Rankine Cycle For Waste Heat Recovery of a Coal Power Plant Using LNG Cryogenic Exergy, Industrial & Engineering Chemistry Research 53:9812-9824.
  • 14. Zhu Y., Hu Z., Zhou Y., Jiang L., Yu L., 2014. Applicability of entropy, Entrancy and Exergy Analyses to the Optimization of the Organic Rankine Cycle, Energy Conversion and Management 88:267-276.
  • 15.Bahrami M., Hamidi A.A., Porkhial S., 2013. Investigation of the Effect of Organic Working Fluids on Thermodynamic Performance of Combined Cycle Stirling-ORC. International Journal of Energy and Environmental Engineering, 4-12.