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Year 2023, Volume: 3 Issue: 1, 1 - 8, 31.03.2023

Abstract

References

  • 1. Jang, M., Ciobotaru, M., and Agelidis, V. G. (2013). Design and implementation of digital control in a fuel cell system. IEEE Transactions on Industrial Informatics, 9(2), 1158–1166.
  • 2. Singh, A., Baredar, P., and Gupta, B. (2017). Techno-economic feasibility analysis of hydrogen fuel cell and solar photovoltaic hybrid renewable energy system for academic research building. Energy Conversion and Management, 145, 398-414.
  • 3. Chen, J., Xu, C., Wu, C., and Xu, W. (2016). Adaptive fuzzy logic control of fuel-cell-battery hybrid systems for electric vehicles. IEEE Transactions on Industrial Informatics, 14(1), 292-300.
  • 4. Yuan, H. F., and Dung, L. R. (2014). A hybrid fuel cell-battery power system. IECON 2014-40th Annual Conference of the IEEE Industrial Electronics Society, 4096-4102.
  • 5. Ashourian, M. H., Cherati, S. M., Zin, A. M., Niknam, N., Mokhtar, A. S., and Anwari, M. (2013). Optimal green energy management for island resorts in Malaysia. Renewable Energy, 51, 36-45.
  • 6. Tzamalis, G., Zoulias, E. I., Stamatakis, E., Varkaraki, E., Lois, E., and Zannikos, F. (2011). Techno-economic analysis of an autonomous power system integrating hydrogen technology as energy storage medium. Renewable Energy, 36(1), 118-124.
  • 7. Bohn, D. (2005). Micro gas turbine and fuel cell–a hybrid en-ergy conversion system with high potential. Micro Gas Tur-bines, 13, 1-46.
  • 8. Devrim, Y., and Bilir, L. (2016). Performance investigation of a wind turbine–solar photovoltaic panels–fuel cell hybrid sys-tem installed at İncek region–Ankara, Turkey. Energy Con-version and Management, 126, 759-766.
  • 9. Al Busaidi, A. S., Kazem, H. A., Al-Badi, A. H., and Khan, M. F. (2016). A review of optimum sizing of hybrid PV–Wind renewable energy systems in oman. Renewable and Sustaina-ble Energy Reviews, 53, 185-193.
  • 10. Bensmail, S., Rekioua, D., and Azzi, H. (2015). Study of hy-brid photovoltaic/fuel cell system for stand-alone applications. International Journal of Hydrogen Energy, 40(39), 13820-13826.
  • 11. Samy, M. M., Barakat, S., and Ramadan, H. S. (2019). A flower pollination optimization algorithm for an off-grid PV-Fuel cell hybrid renewable system. International Journal of Hydrogen Energy, 44(4), 2141-2152.
  • 12. Einan, M., Torkaman, H., and Pourgholi, M. (2017). Opti-mized fuzzy-cuckoo controller for active power control of battery energy storage system, photovoltaic, fuel cell and wind turbine in an isolated micro-grid. Batteries, 3(3), 23.
  • 13. Aygen, M. S., and Mustafa, İ. (2019). Performance results of photovoltaic/fuel cell based hybrid energy system under vari-able conditions. ICPEA 4th International Conference on Pow-er Electronics and their Applications, 1-6.
  • 14. Yeşilata, B., ve Demir, F. (2006). Fotovoltaik ve yakıt pili birleşik sisteminin analizi. Isı Bilimi ve Tekniği Dergisi, 26(1), 37-44.
  • 15. Huang, Z., Zhang, C., Zeng, T., Lv, C., and Chan, S. H. (2019). Modeling and energy management of a photovoltaic‐fuel cell‐battery hybrid electric vehicle. Energy Storage, 1(3), e61.
  • 16. Ezzat, M. F., and Dincer, I. (2016). Development, analysis and assessment of a fuel cell and solar photovoltaic system powered vehicle. Energy Conversion and Management, 129, 284-292.
  • 17. Chen, H. C., Chen, P. H., Chang, L. Y., and Bai, W. X. (2013). Stand-alone hybrid generation system based on renewable en-ergy. International Journal of Environmental Science and De-velopment, 4(5), 514.
  • 18. Barbir, F., and Gomez, T. (1997). Efficiency and economics of proton exchange membrane (PEM) fuel cells. International Journal of Hydrogen Energy, 22(10-11), 1027-1037.
  • 19. Khan, M. J., and Mathew, L. (2019). Fuzzy logic controller-based MPPT for hybrid photo-voltaic/wind/fuel cell power system. Neural Computing and Applications, 31(10), 6331-6344.
  • 20. Larminie, J., and Dicks, A. (2003). Fuel cell systems ex-plained. 2nd Edition, John Wiley & Sons Ltd, Chichester, UK, 207-225.
  • 21. González, E. L., Cuesta, J. S., Fernandez, F. J. V., Llerena, F. I., Carlini, M. A. R., Bordons, C., and Elfes, A. (2019). Ex-perimental evaluation of a passive fuel cell/battery hybrid power system for an unmanned ground vehicle. International Journal of Hydrogen Energy, 44(25), 12772-12782.
  • 22. Siangsanoh, A., Bahrami, M., Kaewmanee, W., Gavagsaz-ghoachani, R., Phattanasak, M., Martin, J. P., and Didierjean, S. (2021). Series hybrid fuel cell/supercapacitor power source. Mathematics and Computers in Simulation, 184, 21-40.
  • 23. Bubna, P., Advani, S. G., and Prasad, A. K. (2012). Integra-tion of batteries with ultracapacitors for a fuel cell hybrid transit bus. Journal of Power Sources, 199, 360-366.
  • 24. Boynuegri, A. R. (2017). A power management unit with a polarity changing inverter for fuel cell/ultra-capacitor hybrid power systems. International Journal of Hydrogen Energy, 42(43), 26924-26932.
  • 25. Fathabadi, H. (2018). Fuel cell hybrid electric vehicle (FCHEV): Novel fuel cell/SC hybrid power generation system. Energy Conversion and Management, 156, 192-201.
  • 26. Behdani, A., and Naseh, M. R. (2017). Power management and nonlinear control of a fuel cell–supercapacitor hybrid au-tomotive vehicle with working condition algorithm. Interna-tional Journal of Hydrogen Energy, 42(38), 24347-24357.
  • 27. Allaoua, B., Asnoune, K., and Mebarki, B. (2017). Energy management of PEM fuel cell/supercapacitor hybrid power sources for an electric vehicle. International Journal of Hy-drogen Energy, 42(33), 21158-21166.
  • 28. Kasimalla, V. K., and Velisala, V. (2018). A review on energy allocation of fuel cell/battery/ultracapacitor for hybrid electric vehicles. International Journal of Energy Research, 42(14), 4263-4283.
  • 29. Chandan, R. S., Kiran, T. S., Swapna, G., and Muni, T. V. (2020). Intelligent control strategy for energy management system with FC/Battery/SC. Journal of Critical Reviews, 7(2), 344-348.
  • 30. Samavati, M. (2012). Polygeneration system based on low temperature solid oxide fuel cell/Micro gas turbine hybrid sys-tem. KTH School of Industrial Engineering and Management, Energy Technology, Master of Science Thesis.
  • 31. Yang, Z., Liao, T., Zhou, Y., Lin, G., and Chen, J. (2016). Performance evaluation and parametric optimum design of a molten carbonate fuel cell-thermophotovoltaic cell hybrid system. Energy Conversion and Management, 128, 28-33.
  • 32. Liao, T., He, Q., Xu, Q., Dai, Y., Cheng, C., and Ni, M. (2020). Harvesting waste heat produced in solid oxide fuel cell using near-field thermophotovoltaic cell. Journal of Pow-er Sources, 452, 227831.
  • 33. Zhao, Y., and Chen, J. (2009). Modeling and optimization of a typical fuel cell–heat engine hybrid system and its paramet-ric design criteria. Journal of Power Sources, 186(1), 96-103.
  • 34. Lenert, A., Bierman, D. M., Nam, Y., Chan, W. R., Celanović, I., Soljačić M., and Wang, E. N. (2014). A nanophotonic solar thermophotovoltaic device. Nature Nanotechnolgy, 9(2), 126–30.
  • 35. Ferrari, C., Melino, F., Pinelli, M. and Spina, P. R. (2014). Thermophotovoltaic energy conversion: Analytical aspects, prototypes and experiences. Applied Energy, 113, 1717–1730.
  • 36. Liao, T., Cai, L., Zhao, Y., and Chen, J. (2016). Efficiently exploiting the waste heat in solid oxide fuel cell by means of thermophotovoltaic cell. Journal of Power Sources, 306, 666-673.
  • 37. Zhang, X., Liu, H., Ni, M., and Chen, J. (2015). Performance evaluation and parametric optimum design of a syngas molten carbonate fuel cell and gas turbine hybrid system. Renewable Energy, 80, 407–414.
  • 38. Datas, A. (2015). Optimum semiconductor bandgaps in single junction and multijunction thermophotovoltaic converters. So-lar Energy Materials and Solar Cells, 134, 275-290.
  • 39. Dong, Q., Cai, L., Liao, T., Zhou, Y., and Chen, J. (2017). An efficient coupling system using a thermophotovoltaic cell to harvest the waste heat from a reforming solid oxide fuel cell. International Journal of Hydrogen Energy, 42(27), 17221-17228.
  • 40. Roberts, R. A., Brouwer, J., Liese, E., and Gemmen, R. S. (2006). Dynamic simulation of carbonate fuel cell-gas turbine hybrid systems. Journal of Engineering for Gas Turbins and Power, 128, 294-301.
  • 41. Oryshchyn, D., Harun, N. F., Tucker, D., Bryden, K. M., and Shadle, L. (2018). Fuel utilization effects on system efficien-cy in solid oxide fuel cell gas turbine hybrid systems. Applied Energy, 228, 1953-1965.
  • 42. Li, Y., and Weng, Y. (2011). Performance study of a solid oxide fuel cell and gas turbine hybrid system designed for methane operating with non-designed fuels. Journal of Power Sources, 196(8), 3824-3835.
  • 43. Rao, A., D., (2012). Combined cycle systems for near-zero emission power generation. Elsevier.
  • 44. Brown, J. E., Hendry, C. N., and Harborne, P. (2007). An emerging market in fuel cells? Residential combined heat and power in four countries. Energy Policy, 35, 2173–2186.
  • 45. Mehrpooya, M., Khodayari, R., Moosavian, S. A., and Dadak, A. (2020). Optimal design of molten carbonate fuel cell com-bined cycle power plant and thermophotovoltaic system. En-ergy Conversion and Management, 221, 113177.
  • 46. Leal, E. M., Bortolaia, L. A., and Junior, A. M. L. (2019). Technical analysis of a hybrid solid oxide fuel cell/gas turbine cycle. Energy Conversion and Management, 202, 112195.
  • 47. Samavati, M., Raza, R., and Zhu, B. (2012). Design of a 5‐kW advanced fuel cell polygeneration system. Wiley Interdis-ciplinary Reviews: Energy and Environment, 1(2), 173-180.
  • 48. Nguyen, H. Q., and Shabani, B. (2020). Proton exchange membrane fuel cells heat recovery opportunities for com-bined heating/cooling and power applications. Energy Con-version and Management, 204, 112328.

Investigation of the Use of Fuel Cell Hybrid Systems for Different Purposes

Year 2023, Volume: 3 Issue: 1, 1 - 8, 31.03.2023

Abstract

With the increase in global energy demand, air pollution becoming uncontrollable does not fall off the agenda. It is inevitable to use and spread of renewable energy sources to make energy production cleaner, more reliable and sustainable. In studies for this purpose, the use of fuel cell systems comes to the forefront thanks to its many advantages. The use of hybrid systems is becoming more common day by day in order to minimize the efficiency losses that may occur in the energy production, use and waste management process, to ensure energy reliability and to prevent systemic problems. In this study, hybrid systems created with fuel cells are discussed in detail, and examined under three main headings: hybrid systems created with renewable energy sources, created with storage devices, and created for energy recovery. It has been observed that the main purpose of hybrid systems created with renewable energy sources is to ensure energy reliability. In addition, the electrical energy required for the electrolysis of hydrogen used as fuel in fuel cells can be provided by photovoltaic panels or wind turbines, thus eliminating fuel storage and transportation problems. In hybrid systems created with storage devices, it is aimed to prevent instantaneous interruptions in the system by meeting the instantaneous power needed by the system and successful results have been achieved. In the hybrid systems created for energy recovery, it has been seen that it is possible to recover the heat and unburned fuel energy released from the fuel cell with thermophotovoltaic cells, gas turbines and heat exchangers.

References

  • 1. Jang, M., Ciobotaru, M., and Agelidis, V. G. (2013). Design and implementation of digital control in a fuel cell system. IEEE Transactions on Industrial Informatics, 9(2), 1158–1166.
  • 2. Singh, A., Baredar, P., and Gupta, B. (2017). Techno-economic feasibility analysis of hydrogen fuel cell and solar photovoltaic hybrid renewable energy system for academic research building. Energy Conversion and Management, 145, 398-414.
  • 3. Chen, J., Xu, C., Wu, C., and Xu, W. (2016). Adaptive fuzzy logic control of fuel-cell-battery hybrid systems for electric vehicles. IEEE Transactions on Industrial Informatics, 14(1), 292-300.
  • 4. Yuan, H. F., and Dung, L. R. (2014). A hybrid fuel cell-battery power system. IECON 2014-40th Annual Conference of the IEEE Industrial Electronics Society, 4096-4102.
  • 5. Ashourian, M. H., Cherati, S. M., Zin, A. M., Niknam, N., Mokhtar, A. S., and Anwari, M. (2013). Optimal green energy management for island resorts in Malaysia. Renewable Energy, 51, 36-45.
  • 6. Tzamalis, G., Zoulias, E. I., Stamatakis, E., Varkaraki, E., Lois, E., and Zannikos, F. (2011). Techno-economic analysis of an autonomous power system integrating hydrogen technology as energy storage medium. Renewable Energy, 36(1), 118-124.
  • 7. Bohn, D. (2005). Micro gas turbine and fuel cell–a hybrid en-ergy conversion system with high potential. Micro Gas Tur-bines, 13, 1-46.
  • 8. Devrim, Y., and Bilir, L. (2016). Performance investigation of a wind turbine–solar photovoltaic panels–fuel cell hybrid sys-tem installed at İncek region–Ankara, Turkey. Energy Con-version and Management, 126, 759-766.
  • 9. Al Busaidi, A. S., Kazem, H. A., Al-Badi, A. H., and Khan, M. F. (2016). A review of optimum sizing of hybrid PV–Wind renewable energy systems in oman. Renewable and Sustaina-ble Energy Reviews, 53, 185-193.
  • 10. Bensmail, S., Rekioua, D., and Azzi, H. (2015). Study of hy-brid photovoltaic/fuel cell system for stand-alone applications. International Journal of Hydrogen Energy, 40(39), 13820-13826.
  • 11. Samy, M. M., Barakat, S., and Ramadan, H. S. (2019). A flower pollination optimization algorithm for an off-grid PV-Fuel cell hybrid renewable system. International Journal of Hydrogen Energy, 44(4), 2141-2152.
  • 12. Einan, M., Torkaman, H., and Pourgholi, M. (2017). Opti-mized fuzzy-cuckoo controller for active power control of battery energy storage system, photovoltaic, fuel cell and wind turbine in an isolated micro-grid. Batteries, 3(3), 23.
  • 13. Aygen, M. S., and Mustafa, İ. (2019). Performance results of photovoltaic/fuel cell based hybrid energy system under vari-able conditions. ICPEA 4th International Conference on Pow-er Electronics and their Applications, 1-6.
  • 14. Yeşilata, B., ve Demir, F. (2006). Fotovoltaik ve yakıt pili birleşik sisteminin analizi. Isı Bilimi ve Tekniği Dergisi, 26(1), 37-44.
  • 15. Huang, Z., Zhang, C., Zeng, T., Lv, C., and Chan, S. H. (2019). Modeling and energy management of a photovoltaic‐fuel cell‐battery hybrid electric vehicle. Energy Storage, 1(3), e61.
  • 16. Ezzat, M. F., and Dincer, I. (2016). Development, analysis and assessment of a fuel cell and solar photovoltaic system powered vehicle. Energy Conversion and Management, 129, 284-292.
  • 17. Chen, H. C., Chen, P. H., Chang, L. Y., and Bai, W. X. (2013). Stand-alone hybrid generation system based on renewable en-ergy. International Journal of Environmental Science and De-velopment, 4(5), 514.
  • 18. Barbir, F., and Gomez, T. (1997). Efficiency and economics of proton exchange membrane (PEM) fuel cells. International Journal of Hydrogen Energy, 22(10-11), 1027-1037.
  • 19. Khan, M. J., and Mathew, L. (2019). Fuzzy logic controller-based MPPT for hybrid photo-voltaic/wind/fuel cell power system. Neural Computing and Applications, 31(10), 6331-6344.
  • 20. Larminie, J., and Dicks, A. (2003). Fuel cell systems ex-plained. 2nd Edition, John Wiley & Sons Ltd, Chichester, UK, 207-225.
  • 21. González, E. L., Cuesta, J. S., Fernandez, F. J. V., Llerena, F. I., Carlini, M. A. R., Bordons, C., and Elfes, A. (2019). Ex-perimental evaluation of a passive fuel cell/battery hybrid power system for an unmanned ground vehicle. International Journal of Hydrogen Energy, 44(25), 12772-12782.
  • 22. Siangsanoh, A., Bahrami, M., Kaewmanee, W., Gavagsaz-ghoachani, R., Phattanasak, M., Martin, J. P., and Didierjean, S. (2021). Series hybrid fuel cell/supercapacitor power source. Mathematics and Computers in Simulation, 184, 21-40.
  • 23. Bubna, P., Advani, S. G., and Prasad, A. K. (2012). Integra-tion of batteries with ultracapacitors for a fuel cell hybrid transit bus. Journal of Power Sources, 199, 360-366.
  • 24. Boynuegri, A. R. (2017). A power management unit with a polarity changing inverter for fuel cell/ultra-capacitor hybrid power systems. International Journal of Hydrogen Energy, 42(43), 26924-26932.
  • 25. Fathabadi, H. (2018). Fuel cell hybrid electric vehicle (FCHEV): Novel fuel cell/SC hybrid power generation system. Energy Conversion and Management, 156, 192-201.
  • 26. Behdani, A., and Naseh, M. R. (2017). Power management and nonlinear control of a fuel cell–supercapacitor hybrid au-tomotive vehicle with working condition algorithm. Interna-tional Journal of Hydrogen Energy, 42(38), 24347-24357.
  • 27. Allaoua, B., Asnoune, K., and Mebarki, B. (2017). Energy management of PEM fuel cell/supercapacitor hybrid power sources for an electric vehicle. International Journal of Hy-drogen Energy, 42(33), 21158-21166.
  • 28. Kasimalla, V. K., and Velisala, V. (2018). A review on energy allocation of fuel cell/battery/ultracapacitor for hybrid electric vehicles. International Journal of Energy Research, 42(14), 4263-4283.
  • 29. Chandan, R. S., Kiran, T. S., Swapna, G., and Muni, T. V. (2020). Intelligent control strategy for energy management system with FC/Battery/SC. Journal of Critical Reviews, 7(2), 344-348.
  • 30. Samavati, M. (2012). Polygeneration system based on low temperature solid oxide fuel cell/Micro gas turbine hybrid sys-tem. KTH School of Industrial Engineering and Management, Energy Technology, Master of Science Thesis.
  • 31. Yang, Z., Liao, T., Zhou, Y., Lin, G., and Chen, J. (2016). Performance evaluation and parametric optimum design of a molten carbonate fuel cell-thermophotovoltaic cell hybrid system. Energy Conversion and Management, 128, 28-33.
  • 32. Liao, T., He, Q., Xu, Q., Dai, Y., Cheng, C., and Ni, M. (2020). Harvesting waste heat produced in solid oxide fuel cell using near-field thermophotovoltaic cell. Journal of Pow-er Sources, 452, 227831.
  • 33. Zhao, Y., and Chen, J. (2009). Modeling and optimization of a typical fuel cell–heat engine hybrid system and its paramet-ric design criteria. Journal of Power Sources, 186(1), 96-103.
  • 34. Lenert, A., Bierman, D. M., Nam, Y., Chan, W. R., Celanović, I., Soljačić M., and Wang, E. N. (2014). A nanophotonic solar thermophotovoltaic device. Nature Nanotechnolgy, 9(2), 126–30.
  • 35. Ferrari, C., Melino, F., Pinelli, M. and Spina, P. R. (2014). Thermophotovoltaic energy conversion: Analytical aspects, prototypes and experiences. Applied Energy, 113, 1717–1730.
  • 36. Liao, T., Cai, L., Zhao, Y., and Chen, J. (2016). Efficiently exploiting the waste heat in solid oxide fuel cell by means of thermophotovoltaic cell. Journal of Power Sources, 306, 666-673.
  • 37. Zhang, X., Liu, H., Ni, M., and Chen, J. (2015). Performance evaluation and parametric optimum design of a syngas molten carbonate fuel cell and gas turbine hybrid system. Renewable Energy, 80, 407–414.
  • 38. Datas, A. (2015). Optimum semiconductor bandgaps in single junction and multijunction thermophotovoltaic converters. So-lar Energy Materials and Solar Cells, 134, 275-290.
  • 39. Dong, Q., Cai, L., Liao, T., Zhou, Y., and Chen, J. (2017). An efficient coupling system using a thermophotovoltaic cell to harvest the waste heat from a reforming solid oxide fuel cell. International Journal of Hydrogen Energy, 42(27), 17221-17228.
  • 40. Roberts, R. A., Brouwer, J., Liese, E., and Gemmen, R. S. (2006). Dynamic simulation of carbonate fuel cell-gas turbine hybrid systems. Journal of Engineering for Gas Turbins and Power, 128, 294-301.
  • 41. Oryshchyn, D., Harun, N. F., Tucker, D., Bryden, K. M., and Shadle, L. (2018). Fuel utilization effects on system efficien-cy in solid oxide fuel cell gas turbine hybrid systems. Applied Energy, 228, 1953-1965.
  • 42. Li, Y., and Weng, Y. (2011). Performance study of a solid oxide fuel cell and gas turbine hybrid system designed for methane operating with non-designed fuels. Journal of Power Sources, 196(8), 3824-3835.
  • 43. Rao, A., D., (2012). Combined cycle systems for near-zero emission power generation. Elsevier.
  • 44. Brown, J. E., Hendry, C. N., and Harborne, P. (2007). An emerging market in fuel cells? Residential combined heat and power in four countries. Energy Policy, 35, 2173–2186.
  • 45. Mehrpooya, M., Khodayari, R., Moosavian, S. A., and Dadak, A. (2020). Optimal design of molten carbonate fuel cell com-bined cycle power plant and thermophotovoltaic system. En-ergy Conversion and Management, 221, 113177.
  • 46. Leal, E. M., Bortolaia, L. A., and Junior, A. M. L. (2019). Technical analysis of a hybrid solid oxide fuel cell/gas turbine cycle. Energy Conversion and Management, 202, 112195.
  • 47. Samavati, M., Raza, R., and Zhu, B. (2012). Design of a 5‐kW advanced fuel cell polygeneration system. Wiley Interdis-ciplinary Reviews: Energy and Environment, 1(2), 173-180.
  • 48. Nguyen, H. Q., and Shabani, B. (2020). Proton exchange membrane fuel cells heat recovery opportunities for com-bined heating/cooling and power applications. Energy Con-version and Management, 204, 112328.
There are 48 citations in total.

Details

Primary Language English
Subjects Hybrid and Electric Vehicles and Powertrains
Journal Section Articles
Authors

Tolga Kocakulak

Turan Alp Arslan

Publication Date March 31, 2023
Published in Issue Year 2023 Volume: 3 Issue: 1

Cite

APA Kocakulak, T., & Arslan, T. A. (2023). Investigation of the Use of Fuel Cell Hybrid Systems for Different Purposes. Engineering Perspective, 3(1), 1-8. https://doi.org/10.29228/eng.pers.68466