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Effect of Gamma Irradiation on Indigenous Fresh Produce


Affiliations
1 Department of Agricultural Engineering, Maharashtra Institute of Technology, Aurangabad (M.S.), India
     

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Indigenous fresh produce has enormous potential to contribute in food and nutritional security. It also contributes with essential micronutrients in the daily diet. The indigenous fresh produce has a short shelf life and they get affected during storage and transportation due to microbial spoilage. Traditionally, this problem is addressed by providing a controlled atmosphere to the fresh produce, which is quite costly and effective only for short duration. Irradiation treatment could also be applied to mitigate this problem. Irradiation helps to eliminate various microorganisms, delay ripening, sprout inhibition and extension of shelf life of indigenous fresh produce. Cobalt-60 is the radioisotope used as a source of irradiation. Gamma radiation in a controlled amount about 1-3 kGy penetrates the pre-packed food commodities to extend the shelf life by 15-20 days without affecting nutritional quality and safety of food. This process is effective in reducing pathogens such as E. Coli, Salmonella Paratyphi A. Gamma radiations do not make food radioactive, change in appearance, texture or color and comprised nutritional quality. Also application of spent nuclear fuel in such processing unriddles the problems of nuclear waste disposal and management in some extent. Thus, such technology can augment processing of fresh produce and control post harvest losses in developing countries like India.

Keywords

Cobalt-60, Gamma Radiations, Indigenous Food, Irradiation, Post Harvest Losses, Shelf Life.
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  • Abdullah, R., Iftikhar, S., Iqtedar, M., Kaleem, A., Iqbal, I. and Naz, S. (2016). Gamma irradiation as a quarantine treatment to prevent post harvest spoilage of Daucus carrota L. J. Biol., 6 :109-115.
  • Bharucha, Z. and Pretty, J. (2010). The roles and values of wild foods in agricultural systems. Phil. Trans. R. Soc. B., 365 : 2913-2926.
  • Crawford, L.M. and Ruff, E.H. (1996). A review of the safety of cold pasteurization through irradiation. Food Control., 7 : 87-97.
  • Dianisio, A.P., Gomes, R.T. and Oetterrer, M. (2009). Ionizing radiation effect on food vitamins- A review. Braz. Arch. Biol. Technol., 52 : 1267-1278.
  • Ehlermann, D.A.E. (2016). Wholesomeness of Irradiated Food. Radiat. Phys. Chem., 125 : 24-29.
  • Fan, X. and Sokorai, K.J.B. (2002). Sensorial and chemical quality of gamma irradiated fresh-cut iceberg lettuce in modified atmosphere packages. J. Food Prot., 65 : 1760-1765.
  • Farkasa, Jozsef and CsillaMohacsi-Farkas (2011). History and future of food irradiation, Trends Food Sci. & Technol., 22 : 121-126.
  • Finten, G., Garrido, J., Aguero, M. and Jagus, R. (2017). Irradiated ready to eat spinach leaves: how information influences awareness towards irradiation treatment and consumer’s purchase intention. J. Radiation Physics & Chem., 130 : 247-251.
  • Follet, P.A. and Sanxter, S. (2002). Longon quality after hot-water immersion and x-ray irradiation quarantine treatment. Hort. Sci., 37:571-574.
  • Follett, P. (2014). Phytosanitary irradiation for fresh horticultural commodities: Generic treatments, current issues, and next steps. Stewart Postharvest Rev., 10 : 1-7.
  • Ghosh, S. Jerath, Singh, A., Melina, S. Magsumbol, Kamboj P. and Gail, Goldberg (2016). Exploring the potential of indigenous foods to address hidden hunger: Nutritive value of indigenous foods of Santhal tribal community of Jharkhand. India J. Hunger & Environ. Nutri., 11 (4) : 548-568.
  • Golan, B. and Follett, R. (2017). Irradiation for quality improvement, microbial safety and phytsosanitation of fresh produce, Academic Press.
  • Gunes, Gurbuz, Watkins, Christopher B. and Hotchkiss, Joseph H. (2000). Effect of irradiation on respiration and ethylene production of apple slices. J.Sci. Food & Agric., 80 (8) : 1169-1175.
  • Jadhav, P., Chappalwar, V., Bhoyar, A. and Chappalwar, A. (2013). Study the shelf life extension of leafy vegetables by ionizing radiations Internat. J. Engg. Res. &Tech., 2 : 817-825.
  • Kalyani, B. and Manjula, K. (2014). Food irradiation technology and application. Internat. J. Curr. Microbiol. App. Sci., 3(4) : 549-555.
  • Khattak, A.B., Bibi, N., Chaudry, M., Khan Misal, Khan, M. and Qureshi, M. (2014). Shelf life extension of minimally processed cabbage and cucumber through gamma irradiation. J. Food Protec., 68 (1) : 105-110.
  • Lacroix, M. and Follett, P. (2015). Combination irradiation treatments for food safety and phytosanitary uses. Stewart Postharvest Rev., 11 : 1-10.
  • Maraei, Rabab W. and Elsawy, Khaled M. (2017). Chemical quality and nutrient composition of strawberry fruits treated by gamma irradiation. J. Radiation Res. & App. Sci., 10 : 80-87.
  • Mostafavi, H.A., Mirmajlessi, S.M. and Fathollahi, H. (2012). The potential of food irradiation: Benefits and limitations. In Trends in Vital Food and Engineering, 43-47 pp.
  • Nilsson, T. (2000). Postharvest handling and storage of vegetables. In R. L. Shewfelt (Ed.), Fruit & vegetables quality. An integrated view (pp. 96–121). Lancaster: Technomic Publishing Company Inc.
  • Palekar, M.P., Cabrera-Diaz, E., Kalbasi Ashtari, A., Maxim, J.E., Miller, R.K., Cisneros-Zevallos, L. and Castillo, A. (2004). Effect of electron beam irradiation on the bacterial load and sensorial quality of sliced cantaloupe. J. Food Sci., 69 : M267-M273.
  • Prakash, A., Chen, P.C., Pilling, R., Johnson, N. and Foley, D. (2007). 1% Calcium chloride treatment in combination with gamma irradiation improves microbial and physicochemical properties of diced tomatoes. Foodborne Pathogens Dis., 4(1): 89-97.
  • Patil, B.S., Pike, L.M. and Howard, L.R. (1999). Effect of gamma irradiation on quercetin on onion. Subtrop. Plant Sci., 51 : 16-22.
  • Schreinemachers, Pepijn, Simmons, Emmy B. and Wopereis, Marco C.S. (2017). Tapping the economic and nutritional power of vegetables. Global Food Security, 16 : 36-45.
  • Singh, A., Singh, D. and Singh, R. (2016). Shelf life extension of tomatoes by gamma radiation. Rad.Sci.Tech., 2(2) : 17-24.
  • Singh, S., Singh, D.R., Singh, L.B., Chand, Subhash and Roy, S. Dam (2013). Indigenous vegetables for food and nutritional security in Andaman and Nicobar Islands. Indian Internat. J. Agri. Food Sci. Tech., 4 (5) : 503-512.
  • WHO (1994). Safety and nutritional adequacy of irradiated food. World Health Organization, Geneva.
  • WHO (1997). Food irradiation. Press release WHO/68, Sept. 19. World Health Organization, Geneva.
  • Zhang, Ke and Deng, Yueye (2014). Effects of Co-60 gamma-irradiation and refrigerated storage on the quality of Shatang mandarin. Food Sci. & Human Wellness, 3 : 9-15.
  • Zhao, Min, Moy, James and Paull, Robert E. (1996). Effect of gamma-irradiation on ripening papaya pectin. Postharvest Biology &Tech., 8 (3) : 209-222.

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  • Effect of Gamma Irradiation on Indigenous Fresh Produce

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Authors

Lilesh Pustode
Department of Agricultural Engineering, Maharashtra Institute of Technology, Aurangabad (M.S.), India
Deepak Bornare
Department of Agricultural Engineering, Maharashtra Institute of Technology, Aurangabad (M.S.), India
Hanuman Bobade
Department of Agricultural Engineering, Maharashtra Institute of Technology, Aurangabad (M.S.), India

Abstract


Indigenous fresh produce has enormous potential to contribute in food and nutritional security. It also contributes with essential micronutrients in the daily diet. The indigenous fresh produce has a short shelf life and they get affected during storage and transportation due to microbial spoilage. Traditionally, this problem is addressed by providing a controlled atmosphere to the fresh produce, which is quite costly and effective only for short duration. Irradiation treatment could also be applied to mitigate this problem. Irradiation helps to eliminate various microorganisms, delay ripening, sprout inhibition and extension of shelf life of indigenous fresh produce. Cobalt-60 is the radioisotope used as a source of irradiation. Gamma radiation in a controlled amount about 1-3 kGy penetrates the pre-packed food commodities to extend the shelf life by 15-20 days without affecting nutritional quality and safety of food. This process is effective in reducing pathogens such as E. Coli, Salmonella Paratyphi A. Gamma radiations do not make food radioactive, change in appearance, texture or color and comprised nutritional quality. Also application of spent nuclear fuel in such processing unriddles the problems of nuclear waste disposal and management in some extent. Thus, such technology can augment processing of fresh produce and control post harvest losses in developing countries like India.

Keywords


Cobalt-60, Gamma Radiations, Indigenous Food, Irradiation, Post Harvest Losses, Shelf Life.

References