Journal of Solar Energy Research

Assessment of a Novel Combined Power and Refrigeration Cycle Using Solar Heat Source Based on the First and Second Laws of Thermodynamics

Document Type : Original Article

Authors

1 University of Mohaghegh Ardabili

2 K.N. Toosi University of Technology

3 K.N.Toosi University of Technology

10.22059/jser.2022.345700.1249

Abstract

The present study proposes modified solar-driven combined power and ejector refrigeration cycles (CPERCs) for low-temperature heat sources. The proposed cycles are constructed from a combination of simple organic Rankine cycle (ORC), ORC with an internal heat exchanger (IHE), a regenerative ORC, and a regenerative ORC with an IHE, with an ejector refrigeration cycle (ERC). The ejector is driven by the exhausts from the turbine to produce more power and refrigeration, simultaneously. The three modified ORCs are introduced to improve the performance of the energy systems. The first and second laws of thermodynamics have been applied to each cycle using R245fa and isobutene as working fluids. Also, solar energy is utilized as the main heat source of the energy system. Concerning each proposed cycle, the thermodynamic model has been validated by previous works. Using isobutene as a working fluid, the maximum thermal and exergetic efficiencies have been obtained at 50.46 and 58.08 %, respectively, which corresponded to regenerative combined power and ejector refrigeration cycle with an IHE. In general, the thermal efficiency of a system is improved by 7.54 and 5.76 % through this state-of-art modification using R245fa and isobutene as working fluids, respectively. This demonstrated that isobutene can be a good candidate for CPERCs based on the first and second laws of thermodynamics. Throughout these modifications, cooling capacity and net produced power of cycles are also increased, successively. In all proposed cycles, the generator has the highest exergy destruction ratio, falling into the range of (29.82-34.73) and (22.9-25.93) kW for R245fa and isobutene, respectively.

Keywords

  1. Mohammadi, F.J.J.o.S.E.R., Design, analysis, and electrification of a solar-powered electric vehicle. 2018. 3(4): p. 293-299.
  2. Dincer, I.J.R. and s.e. reviews, Renewable energy and sustainable development: a crucial review. 2000. 4(2): p. 157-175.
  3. Xu, X., et al., Policy analysis for grid parity of wind power generation in China. 2020. 138: p. 111225.
  4. Bezaatpour, M. and H.J.R.E. Rostamzadeh, Design and evaluation of flat plate solar collector equipped with nanofluid, rotary tube, and magnetic field inducer in a cold region. 2021. 170: p. 574-586.
  5. Bezaatpour, M., H. Rostamzadeh, and J.J.J.o.C.P. Bezaatpour, Hybridization of rotary absorber tube and magnetic field inducer with nanofluid for performance enhancement of parabolic trough solar collector. 2021. 283: p. 124565.
  6. Chen, C., M. Pinar, and T. Stengos, Determinants of renewable energy consumption: Importance of democratic institutions. Renewable Energy, 2021. 179: p. 75-83.
  7. Ezzedine, A., G.R. Mohtashami Borzadaran, and A.J.J.o.S.E.R. Rezaei Roknabadi, The Influence of the Geographical Location on the Preventive Replacement of Renewable Energy Devices. 2021. 6(4): p. 887-897.
  8. Mohsenipour, M., et al., Design and evaluation of a solar-based trigeneration system for a nearly zero energy greenhouse in arid region. Journal of Cleaner Production, 2020. 254: p. 119990.
  9. Borzabadi Farahani, M., A. Davodabadi Farahani, and A.J.J.o.S.E.R. Hajizadeh Aghdam, Thermoeconomic Analysis of an Ammonia-water mixture CCHP Cycle with Solar Collectors. 2020. 5(4): p. 548-559.
  10. Mohsenipour, M., et al., Design and evaluation of a solar-based trigeneration system for a nearly zero energy greenhouse in arid region. 2020. 254: p. 119990.
  11. Farahani, S.D., M. Borzabadi Farahani, and A.J.J.o.S.E.R. Sajedi, Thermodynamic Analysis of ORC-GT Hybrid Cycle and Thermal Recovery from Photovoltaic Panels. 2022. 7(4): p. 1198-1210.
  12. Moltames, R., et al., Simulation and Optimization of a Solar Based Trigeneration System Incorporating PEM Electrolyzer and Fuel Cell. 2021. 6(1): p. 664-677.
  13. Mohamadi Janaki, D., et al., Optimal Selection and Economical Ranking of Isolated Renewable-based CHP Microgrid in Cold Climate, a Case Study for a Rural Healthcare Center. 2022. 7(4): p. 1143-1158.
  14. Śmierciew, K., et al., Experimental investigations of solar driven ejector air-conditioning system. Energy and buildings, 2014. 80: p. 260-267.
  15. Helvaci, H. and Z. Khan, Thermodynamic modelling and analysis of a solar organic Rankine cycle employing thermofluids. Energy Conversion and Management, 2017. 138: p. 493-510.
  16. Wang, J., et al., A new combined cooling, heating and power system driven by solar energy. Renewable Energy, 2009. 34(12): p. 2780-2788.
  17. Khalid, F., I. Dincer, and M.A. Rosen, Energy and exergy analyses of a solar-biomass integrated cycle for multigeneration. Solar Energy, 2015. 112: p. 290-299.
  18. Al-Sulaiman, F.A., F. Hamdullahpur, and I. Dincer, Performance assessment of a novel system using parabolic trough solar collectors for combined cooling, heating, and power production. Renewable Energy, 2012. 48: p. 161-172.
  19. Ghorbani, B., et al., Introducing a hybrid renewable energy system for production of power and fresh water using parabolic trough solar collectors and LNG cold energy recovery. Renewable Energy, 2020. 148: p. 1227-1243.
  20. Tiwari, D., et al., Thermodynamic analysis of Organic Rankine cycle driven by reversed absorber hybrid photovoltaic thermal compound parabolic concentrator system. Renewable Energy, 2020. 147: p. 2118-2127.
  21. Ebadollahi, M., et al., Thermal and exergetic performance enhancement of basic dual-loop combined cooling and power cycle driven by solar energy. Thermal Science and Engineering Progress, 2020. 18: p. 100556.
  22. Chen, J., H. Havtun, and B.J.A.T.E. Palm, Parametric analysis of ejector working characteristics in the refrigeration system. 2014. 69(1-2): p. 130-142.
  23. Sag, N.B., H.K.J.E.C. Ersoy, and Management, Experimental investigation on motive nozzle throat diameter for an ejector expansion refrigeration system. 2016. 124: p. 1-12.
  24. Chen, J., J. Yu, and G.J.A.T.E. Yan, Performance analysis of a modified autocascade refrigeration cycle with an additional evaporating subcooler. 2016. 103: p. 1205-1212.
  25. Sag, N.B., et al., Energetic and exergetic comparison of basic and ejector expander refrigeration systems operating under the same external conditions and cooling capacities. 2015. 90: p. 184-194.
  26. Kasaeian, A., A. Shamaeizadeh, and B. Jamjoo, Combinations of Rankine with ejector refrigeration cycles: Recent progresses and outlook. Applied Thermal Engineering, 2022. 211: p. 118382.
  27. Yan, G., et al., Energy and exergy analysis of a new ejector enhanced auto-cascade refrigeration cycle. 2015. 105: p. 509-517.
  28. Saleh, B.J.J.o.a.r., Parametric and working fluid analysis of a combined organic Rankine-vapor compression refrigeration system activated by low-grade thermal energy. 2016. 7(5): p. 651-660.
  29. Wang, N., et al., Thermodynamic performance analysis a power and cooling generation system based on geothermal flash, organic Rankine cycles, and ejector refrigeration cycle; application of zeotropic mixtures. Sustainable Energy Technologies and Assessments, 2020. 40: p. 100749.
  30. Elakhdar, M., et al., A combined thermal system of ejector refrigeration and Organic Rankine cycles for power generation using a solar parabolic trough. Energy Conversion and Management, 2019. 199: p. 111947.
  31. Zheng, B. and Y.J.S.E. Weng, A combined power and ejector refrigeration cycle for low temperature heat sources. 2010. 84(5): p. 784-791.
  32. Cao, Y., et al., Advanced exergy assessment of a solar absorption power cycle. Renewable Energy, 2022. 183: p. 561-574.
  33. Rostamzadeh, H., et al., Exergoeconomic optimisation of basic and regenerative triple-evaporator combined power and refrigeration cycles. 2018. 26(1-2): p. 186-225.
  34. Rostamzadeh, H., et al., Energy and exergy analysis of novel combined cooling and power (CCP) cycles. Applied Thermal Engineering, 2017. 124: p. 152-169.
  35. Bejan, A., G. Tsatsaronis, and M.J. Moran, Thermal design and optimization. 1995: John Wiley & Sons.
  36. Ebadollahi, M., et al., Flexibility concept in design of advanced multi-energy carrier systems driven by biogas fuel for sustainable development. Sustainable Cities and Society, 2022. 86: p. 104121.
  37. Ebadollahi, M., et al., Development of a novel flexible multigeneration energy system for meeting the energy needs of remote areas. Renewable Energy, 2022. 198: p. 1224-1242.
  38. Safarian, S. and F.J.E.r. Aramoun, Energy and exergy assessments of modified Organic Rankine Cycles (ORCs). 2015. 1: p. 1-7.
Journal of Solar Energy Research
Volume 8, Issue 1
January 2023
Pages 1274-1300