Res. Agr. Eng., 2023, 69(1):48-53 | DOI: 10.17221/41/2021-RAE

Development and evaluation of a low-cost evaporative cooling system for agricultural product storageShort Communication

Natesan Kapilan*, Vijay Kumar Patil

Agricultural products are highly perishable and, hence, we need to preserve these products after harvest. India is an agricultural country and, thus, the post-harvest storage of perishable agricultural products is important to reduce the gap between the demand and supply. Cold storage technologies have been developed and are used in India; however, these technologies are not popular in rural and remote areas due to the higher initial cost and the electrical energy requirement. Therefore, a number of low-cost technologies have been developed and, among these technologies, the evaporative cooling technology is gaining in popularity due to its simple design and lower initial cost. In this work, we have developed and tested a solar photovoltaic (PV) powered evaporative cooling system and used coconut coir as the cooling medium and compared the results with celdex pad. From this work, we observed that this system is an economical and efficient in reducing the temperature and increasing the relative humidity for the storage of agricultural products.

Keywords: agricultural products; evaporative system; performance; preservation; renewable energy

Published: March 1, 2023  Show citation

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Kapilan N, Kumar Patil V. Development and evaluation of a low-cost evaporative cooling system for agricultural product storage. Res. Agr. Eng. 2023;69(1):48-53. doi: 10.17221/41/2021-RAE.
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References

  1. Abaranji S., Panchabikesan K., Ramalingam V. (2020): Experimental investigation of a direct evaporative cooling system for year-round thermal management with solar assisted dryer. International Journal of Photoenergy, 20: 6698904. Go to original source...
  2. Bishoyi D., Sudhakar K. (2017): Experimental performance of a direct evaporative cooler in composite climate of India. Energy and Buildings, 153: 190-200. Go to original source...
  3. Çayli A., Akyüz A., Üstün S., Yeter B. (2021): Efficiency of two different types of evaporative cooling systems in broiler houses in Eastern Mediterranean climate conditions. Thermal Science and Engineering Progress, 22: 100844. Go to original source...
  4. Deoraj S., Ekwue E.I., Birch R. (2015): An evaporative cooler for the storage of fresh fruits and vegetables. The West Indian Journal of Engineering, 38: 86-95.
  5. Franco A., Valera D.L., Peña A., Pérez A.M. (2011): Aerodynamic analysis and CFD simulation of several cellulose evaporative cooling pads used in Mediterranean greenhouses. Computers and Electronics in Agriculture, 76: 218-230. Go to original source...
  6. Kabeel A.E., Bassuoni M.M. (2017): A simplified experimentally tested theoretical model to reduce water consumption of a direct evaporative cooler for dry climates. International Journal of Refrigeration, 82: 487-494. Go to original source...
  7. Kesavan M. (2018): Performance evaluation of evaporative cooler using luffa fiber materials. International journal of Engineering Research and Technology, 7: 193-196.
  8. Laknizi A., Abdellah A.B., Faqir M., Essadiqi E., Dhimdi S. (2019): Performance characterization of a direct evaporative cooling pad based on pottery material. International Journal of Sustainable Engineering, 14: 46-56. Go to original source...
  9. Lal Basediya A., Samuel D.V., Beera V. (2013): Evaporative cooling system for storage of fruits and vegetables - A review. Journal of Food Science Technology, 50: 429-442. Go to original source... Go to PubMed...
  10. Liberty J.T., Ugwuishiwu B.O., Pukuma S.A., Odo C.E. (2013): Principles and application of evaporative cooling systems for fruits and vegetables preservation. International Journal of Current Engineering and Technology, 3: 1000-1006.
  11. Misra D., Ghosh S. (2018): Evaporative cooling technologies for greenhouses: A comprehensive review. Agricultural Engineering International, 20: 1-15.
  12. Mogaji T.S., Fapetu O.P. (2011): Development of an evaporative cooling system for the preservation of fresh vegetables. African Journal of Food Science 5: 255-266.
  13. National Bank for Rural Agriculture and Rural Development (2014): Model Project Report on Fruit and Vegetable Processing Unit National Bank for Agriculture and Rural Development. Available at https://agricoop.nic.in/
  14. Ndukwu M.C., Manuwa S.I. (2014): Review of research and application of evaporative cooling in preservation of fresh agricultural produce. International Journal of Agricultural and Biological Engineering, 7: 85-101.
  15. Ndukwu M.C., Manuwa S.I. (2015): Impact of evaporative cooling preservation on the shelf life of fruits and vegetable in South Western Nigeria. Research in Agricultural Engineering, 61: 122-128. Go to original source...
  16. Okunade S.O., Ibrahim M.H. (2011): Assessment of the evaporative cooling system (ECS) for storage of Irish potato. Production Agriculture and Technology Journal (PAT), 7: 74-83.
  17. Putra N., Sofia E., Gunawan A. (2021): Evaluation of indirect evaporative cooling performance integrated with finned heat pipe and luffa cylindrica fiber as cooling/wet media. Journal of Advanced Research in Experimental Fluid Mechanics and Heat Transfer, 3: 16-25.
  18. Sultan M., Miyazaki T., Mahmood M.H., Khan Z.M. (2018): Solar assisted evaporative cooling based passive airconditioning system for agricultural and livestock applications. Journal of Engineering Science and Technology, 13: 693-703.
  19. Tejero-González A., Franco-Salas F. (2021): Optimal operation of evaporative cooling pads: A review. Renewable and Sustainable Energy Reviews, 151: 111632. Go to original source...
  20. Vala K.V., Kumpavat M.T., Nema A. (2016): Comparative performance evaluation of evaporative cooling local pad materials with commercial pads. International Journal of Engineering Trends and Technology, 39: 198-203. Go to original source...
  21. Velasco-Gómez E., Tejero-Gonzále A., Jorge-Rico J., ReyMartínez F.J. (2020): Experimental investigation of the potential of a new fabric-based evaporative cooling pad. Sustainability, 12: 7070. Go to original source...
  22. Wang Y., Huang X., Li L. (2018): Comparative study of the cross-flow heat and mass exchangers for indirect evaporative cooling using numerical methods. Energies, 11: 1-14. Go to original source...
  23. Wijaksana H., Winaya N.S., Sucipta M., Ghurri A., Suarnadwipa N. (2018): The investigation on cooling capacity and CELdek material pad classification of evaporative cooling pad system using different pad material with water temperature and water discharge variations. AIP Conference Proceedings, 1983: 020019. Go to original source...
  24. Wijaksana H., Winaya N.S., Sucipta M., Ghurri A. (2020): An overview of different indirect and semi-indirect evaporative cooling system for study potency of nanopore skinless bamboo as an evaporative cooling new porous material. Journal of Advanced Research in Fluid Mechanics and Thermal Sciences, 76: 109-116. Go to original source...
  25. Zakari M.D., Abubakar Y.S., Muhammad Y.B., Shanono N.J., Nasidi N.M., Abubakar M.S., Muhammad A.I., Lawan I., Ahmad R.K. (2016): Design and construction of an evaporative cooling system for the storage of fresh tomato. ARPN Journal of Engineering and Applied Sciences, 11: 2340-2348.
  26. Zhou N., Chen F., Cao Y., Chen M., Wang Y. (2017): Experimental investigation on the performance of a water spray cooling system. Applied Thermal Engineering, 112: 1117-1128. Go to original source...

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