Document Type : Articles

Authors

Field Food Sciences Dept., College of Agriculture, University of Tikrit, Tikrit, Iraq

Abstract

This study was conducted in the laboratories of the Department of Food Science / College of Agriculture/ University of Tikrit with the aim of isolating and diagnosing fungi contaminated by stored wheat grains and estimating the concentration of FB1 in it and determining its physiological effects in rats, The results of the study showed the presence of Aspergillus sp. molds by 38 in the tested samples, followed by Fusarium sp. by 28 and Alternaria alternata by 19 then the genus Penicillium sp. by 10 and Mucor sp. by 5. The presence of FB1 toxin in local and imported wheat samples was also investigated by estimating using ELISA (Enzyme-linked Immune Sorbent Assays) as its highest concentration was 2.240 mg/kg in local wheat from the A-Dour district, while the lowest concentration was 0.103 mg/kg in Australian wheat samples. The ability of F.monliforme mold isolates to produce FB1 was also studied, it was found that they were capable of producing toxin with concentrations of 4.264 mg / kg in local wheat samples taken from Al-Dour district and 3.597 mg / kg in local wheat samples taken from Baiji district. Using HPLC (High Performance Liquid Chromatography). With regard to the sensory evaluation of wheat flour used in the study, the best results for wheat flour of Australian wheat gave the highest results which reached 24 degrees while the worst results for wheat flour of Baiji which amounted to 14 degrees for the qualities studied: color, smell. With regard to the sensory evaluation of beard made from wheat samples in this study, the highest was recorded 33 degrees for Australian wheat and lowest evaluation for Dour wheat with 24 degrees with regard to the studied qualities of color, smell, taste. The effect of FB1 on the rate of weight gain in male rats has also been studied, the presence of this toxin in the rats' diet led to a significant decrease in weight after 21 days of the trial age, where the average weight in the T3 treatment was 141 g and the results showed a significant increase in the relative weight of the liver and Kidney in treatment T3 was 4.6g and 1.7g respectively.

Keywords

  1. Abdul-razzaq, A. A.(1989). Fungal Content and Extent of Deoxynivalenol Vomiting in Local and Imported Wheat. Master Thesis, College of Science, University of Baghdad.
  2. Al-Fen, F. A.(2013). Grain Milling Technology, First Edition, Directorate of Books and University Publications, Department of Agricultural Engineering, Al-Baath University.
  3. Al-Humairi, Y. N. H.(2007). Investigation of the presence of Deoxynivalenol in wheat and maize and its reduction potential, Master Thesis, College of Agriculture, University of Baghdad.
  4. Al-Jibouri, S.W.(2015). Fumonisin B1 detection, Production and histopathological effects, College of science, University of Baghdad.
  5. Al-Jubouri, K. M.(2002). The effect of aflatoxin and phenomazine toxins on some biological parameters of growing chickens and the role of activated sodium bentonite in reducing their toxicity, PhD thesis, College of Agriculture and Forestry, University of Mosul.
  6. Al-Rawi, Kh. M. and Abdul-Aziz, M. Kh.(2000). Design and Analysis of Agricultural Experiments, 2nd Edition, Dar Al Kutub for Printing and Publishing, Mosul University.
  7. Amato, B.; Pfohl, K.; Tonti, S.; Nipoti, P.; Dastjerdi, R.; Pisi, A. and Prodi, A. (2015). Fusarium proliferatum and fumonisin B1 co-occur with Fusarium species causing Fusarium Head Blight in durum wheat in Italy. Journal of Applied Botany and Food Quality, 88, 288-233.
  8. Busman, M.; Desjardins, A. E. and Proctor, R. H. (2012). Analysis of fumonisin contamination and the presence of Fusarium in wheat with kernel black point disease in the United States. Food Additives and Contaminants: Part A.29(7): 1092-1100.
  9. Cendoya, E.; Chiotta, M. L.; Zachetti, V.; Chulze, S. N. and Ramirez, M. L. (2018). Fumonisins and fumonisin-producing Fusarium occurrence in wheat and wheat by products: A review. Journal of cereal science.80: 158-166.
  10. Cendoya, E.; Nichea, M. J.; Monge, M. P.; Sulyok, M.; Chiacchiera, S. M. and Ramirez, M. L. (2019). Fumonisin occurrence in wheat-based products from Argentina. Food Additives & Contaminants: Part B.12(1): 31-37.
  11. Evans, C. K.; Xie, W.; Dill-Macky, R. and Mirocha, C. J. (2000). Biosynthesis of deoxynivalenol in spikelets of barley inoculated with macroconidia of Fusarium graminearum. Plant Disease. 84(6): 654-660.
  12. Evans, C.K.; Hunger R.M. and Siegerist, W.C.(1993). Enhanced production of Pyrenophora tritici-repentis conidial suspensions. Plant disease.77: 981 -984.
  13. FAO, Food and Agriculture Organization of the United Nations. (2017). Fishery Statistical Collections. Global Capture Production. Recuperado em. 9.
  14. FDA, U. S. Food and Drug Administration(2017). Guidance for Industry: Fumonisin Levels in Human Foods and Animal Feeds.
  15. Gelderblom, W. C. A; Abel, S.; Smuts, C. M.; Marnewick, J.; Marasas, W. F. O.; Lemmer, E. R. and Ramljak, D. (2001). Fumonisin-induced hepatocarcinogenesis: Mechanisms related to cancer initiation and promotion. Environ. Health Perspect. 109: 291-300.
  16. Guo, Z.; Pfohl, K.; Karlovsky, P.; Dehne, H. W. and Altincicek, B. (2016). Fumonisin B1 and beauvericin accumulation in wheat kernels after seed-borne infection with Fusarium proliferatum. Agricultural and Food Science. 25(2): 138-145.
  17. Lacy, J.; Bateman, G. L. and Mirocha, C. J. (1999). Effects of infection time and moisture on development of ear blight and deoxynivalenol production by Fusarium spp. In wheat. Annals Appl of Applied Biology. 134(3): 277-283.
  18. Luna, L.(1968). Manual of histological staining methods of the armd forces institute of pathology, New York, 3rd, Mc Graw-Hill, 258.
  19. Marasas, W. F. O. (2001). Discovery and occurrence of the fumonisins: a historical perspective. Environmental Health Perspectives. 109: 239-243.
  20. Marasas, W. F.; Riley, R. T.; Hendricks, K. A.; Stevens, V. L.; Sadler, T. W.; Gelineau-van Waes, J. and Merrill, A. H. (2004). Fumonisins disrupt sphingolipid metabolism, folate transport, and neural tube development in embryo culture and in vivo: a potential risk factor for human neural tube defects among populations consuming fumonisin-contaminated maize. The Journal of nutrition. 134(4): 711-716.
  21. Missmer, S. A.; Suarez, L;, Felkner, M.; Wang, E.; Merrill Jr, A. H.; Rothman, K. J. and Hendricks, K. A. (2005). Exposure to fumonisins and the occurrence of neural tube defects along the Texas–Mexico border. Environmental health perspectives. 114(2): 237-241.
  22. Mobio, T. A.; Anane, R.; Baudrimont, I.; Carratú, M. R.; Shier, T. W.; Dano, S. D. and Creppy, E. E. (2000). Epigenetic properties of fumonisin B1: cell cycle arrest and DNA base modification in C6 glioma cells. Toxicology and applied pharmacology. 164(1): 91-96.
  23. National Academy of Science- National Research Council(NAS/NRC). (2002). Dietary Allowance. 15th ed. Washington. D.C. National Academy. Press.
  24. Palazoğlu, T. K., Coşkun, Y., Tuta, S., Mogol, B. A., and Gökmen, V. (2015). Effect of vacuum-combined baking of cookies on acrylamide content, texture and color. European Food Research and Technology, 240(1), 243-249.
  25. Prajna, L.; Prajna, N. V. and Srinivasan, M. (2008). Aravind’s Atlas of Fungal Corneal Ulcers Clinical Features and Laboratory Identification Methods.
  26. Qiang, Z.; Truong, M.; Meynen, K.; Murphy, P. A. and Hendrich, S. (2011). Efficacy of a mycotoxin binder against dietary fumonisin, deoxynivalenol, and zearalenone in rats. Journal of agricultural and food chemistry. 59(13): 7527-7533.
  27. Rashedi, M.; Ashjaazadeh, M. A.; Sohrabi, H. R.; Azizi, H. and Rahimi, E. (2012). Determination of zearalenone contamination in wheat and rice in Chaharmahal va Bakhtyari, Iran. Journal of Cell and Animal Biology. 6(4):54-56.
  28. Riley, R.T.; Nyeon-Hyoung, A.; Showker, J.L.; . Hwan-Soo, Y.; Norred, W.P.; Chamberlain, W.J.; Wang, E.; Merrill, A.H.; Motelin, G.; Beasley V.R. and Haschek, W.M. (1993). Alteration of tissue and serum sphinganine to sphingosine ratio: An early biomarker of exposure to fumonisin-containing feeds in pigs. Toxicol. Appl. Pharmacol. 118: 105-112.
  29. Samson, R. A.; Hoekstra, E. S.; and Van Oorschot, C. A. (1981). Introduction to food-borne fungi. Central burear voor Schimmelcultures.
  30. Shirima, C. P.; Kimanya, M. E.; Routledge, M. N.; Srey, C.; Kinabo, J. L.; Humpf, H. U. and Gong, Y. Y. (2014). A prospective study of growth and biomarkers of exposure to aflatoxin and fumonisin during early childhood in Tanzania. Environmental health perspectives. 123(2): 173-178.
  31. Şopterean, L. M. and Puia, C. (2012). Review; The Major Mycotoxins Produced by Fusarium Fungi and their Effects. Pro Environment. 5: 55-59.
  32. Stankovic, S.; Levic, J.; Ivanovic, D.; Krnjaja, V.; Stankovic, G. and Tancic, S. (2012). Fumonisin B1 and its co-occurrence with other fusariotoxins in naturally-contaminated wheat grain. Food Control, 23(2): 384-388.
  33. Trucksess, M. W.; Nesheim, S. and Eppley, R. M. (1984). Thin layer chromatographic determination of Deoxnivalenol in wheat and corn. Journal- Association of Official Analytical Chemists. 67(1): 40-43.
  34. Voss, K. A.; Riley, R. T.; Norred, W. P.; Bacon, C. W.; Meredith, F. I.; Howard, P. C.; Plattner, R. D.; Collins, T. F. X.; Hansen, D. K.; and Porter, J. K. (2001). An overview of rodent toxicities: Liver and kidney effects of fumonisins and Fusarium moniliforme. Environ. Health Perspect. 109 (2):259-266.
  35. Voss, K. A.; Smith, G. W. and Haschek, W. M. (2007). Fumonisins: toxicokinetics, mechanism of action and toxicity. Animal feed science and technology. 137(3-4): 299-325.
  36. Vujanovic, V.;Mavragani, D. and Hamel, C. (2012). Fungal communities associated with durum wheat production system: A characterization by growth stage, plant organ and preceding crop. Crop Protection . 37: 26-34.
  37. Wan Norashima, W. M.; Abdulamir, A. S.; Abu Bakar, F.; Son, R. and Norhafniza, A. (2009). The health and toxic adverse effects of Fusarium fungal mycotoxin, fumonisins, on human population. American Journal of Infectious Diseases. 5: 273-281.