Estimate of the Providing of Iron in Adolescents Consuming Tap Water with Increased Iron Content
American Journal of Environmental Protection
Volume 8, Issue 1, February 2019, Pages: 17-21
Received: Dec. 25, 2018;
Accepted: Jan. 22, 2019;
Published: Feb. 21, 2019
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Victor Kalinovich Koval’chuk, Department of Hygiene, Faculty of Public Health, Pacific State Medical University, Vladivostok, Russian Federation
Iron contamination of drinking water in municipal water supply systems is recognized as a risk factor for impairment of public health. Tap water in the city of Vladivostok has increased iron content (more 0.8 mg /l). The aim of this study was the medical assessment of the actual average daily dose (AADD) of iron consumed by Vladivostok residents with all sources its per oral administration. Present study was performed in February 2017. A random sample of 183 adolescents from 14 to 17 years old from Vladivostok municipal schools was investigated. Daily consumption of tap water, 85 trade names of bottled water, 21 groups of food products and dishes were studied by questionnaire method. The iron content in foods and drinking waters was taken according to the national reference tables and laboratory data. It was established that the iron AADD values among adolescent population were equal about 17 mg/day, what is harmless to the health. At the same time the frequency of iron intake deficiency was 18.37 (boys) and 64.58 (girls) cases per 100 people. It has been found that, against the background of an excessive of the iron content in tap water (up to 2.7 MAC) according to organoleptic limiting sign of harmfulness, the occurrence of deficit of its consumption in boys and girls is due to low consumption levels of foods with the highly bioavailable iron: eggs, animal meat and poultry meat.
Victor Kalinovich Koval’chuk,
Estimate of the Providing of Iron in Adolescents Consuming Tap Water with Increased Iron Content, American Journal of Environmental Protection.
Vol. 8, No. 1,
2019, pp. 17-21.
Agadzhanyan N. A., Veldanova M. V. and A. V. Skal'nyi, 2001. Environmental portrait of a man and the role of trace elements. Moscow, 236p. [in Russian]
Uvarova E. V., Grigorenko U. P. and N. V. Sergeeva, 2008. Prevalence and possibilities of eliminating iron deficiency anemia in girls with various gynecological pathologies. Reproductive Health of Children and Adolescents 5; 43-52. [in Russian]
Olivares M. and R. Uauy, 2005. Essential nutrients in drinking water. In: Nutrients in drinking water. Geneva: WHO, p.41-60.
Onischenko G. G., Novikov S. M., Rahmanin U. A., Avaliani S. L. and K. A. Bushtueva, 2002. Basics of risk assessment to public health when exposed to chemicals that pollute the environment. Moscow, NII ECh i GOS, 2002, 408p. [in Russian].
Koval’chuk V. K. and D. V. Maslov, 2006. Hygienic problems of the chemical composition of drinking water of water supply systems of Primorsky Territory. Pacific Medical Journal. 3; 60-63. [in Russian].
Problems of providing the population of Primorsky Territory with drinking water and ways to solve them: Regional target program “Providing the population of Primorsky Territory with drinking water”. 2000. Vladivostok, Dalnauka, 389p. [in Russian].
Trankovskaya L. V. and V. N. Luchaninova, 2006. Prevalence, risk factors and prediction of mineral imbalances in children. Pacific Medical Journal 2; 22-25. [in Russian].
Koval’chuk V. K., Ivanova I. L. and V. M. Koldaev, 2011. The role of the environment in the occurrence of non-communicable diseases of the digestive system in the Primorsky Territory. Hygiene and sanitary 3; 10-15. [in Russian].
Broniecka A., Wyka J., Bronkowska M., Piotrowska E. and J. Biernat, 2014. Assessment of intake of iron and nutrients that affect bioavailability of daily food rations of girls. Annals of Agricultural and Environmental Medicine. 2; 327-330.
Martinchik A. N., Maev I. V. and O. O. Yanushevich, 2005. General Nutrition. Moscow, MEDpress-inform, 392p. [in Russian].
Tutelyan V. A., 2012. Chemical composition and caloric content of Russian foods: Handbook. Moscow: DeLi Plus, 284p. [in Russian].
Mineral waters of the Far East: Handbook /Ed. by B. I. Chelnokova, 2006. Vladivostok, Publishing house of the Far Eastern University, 107p. [in Russian].
Koldaev V. M., Koval’chuk V. K. and I. L. Ivanova, 2010. The weight of ranked features in the variability of feature. Programs for computer RU OBPBT 3; 298. [in Russian].
Myatlev V. D., Panchenko L. A., Riznichenko G. Yu and A. T. Terehin, 2009. Probability theory and mathematical statistics. Mathematical models. Moscow, Press center «Akademiya», 320p. [in Russian].
MR 188.8.131.522-08., 2008. The norms of physiological needs for energy and nutrients for different groups of the population of the Russian Federation. Moscow, Federal Center of Hygiene and Epidemiology of Rospotrebnadzor, 41p. [in Russian].
La Frano M. R., de Moura F. F., Boy E. and B. J. Burri, 2014. Bioavailability of iron, zinc, and provitamin A carotenoids in biofortified staple crops. Nutrition Reviews. 5; P. 289-307.
Mazaev V. T., Ilnickiy A. P. and T. G. Shlepnina, 2008. Guidance on hygiene of drinking water and drinking water supply. Moscow, OOO «Medical information agency», 320p. [in Russian].
Chiploncar S. A., Tarwadi K. V., Kavedia R. B., Mengale S. S., Paknikar K. M. and V. V. Agte, 1999. Fortification of vegetarian diets for increasing bioavailability iron density using green leafy vegetables. Food Research International 3; 169–174.
House W. A., 1999. Trace element bioavailability as exemplified by iron and zinc. Field Crops Research 1-2; 115–141.
Kumari M., Gupta S., Lakshmi A. J. and J. Prakash, 2004. Iron bioavailability in green leafy vegetables cooked in different utensils. Food Chemistry 2; 217-222.
Khouzam,R. B., Pohl P. and R. Lobinski, 2011. Bioaccessibility of essential elements from white cheese, bread, fruit and vegetables. Talanta 86; 425-428.
Bonsmann S. S. G., Walczyk T., Renggli S. and R. F. Hurrell, 2008. Oxalic acid does not influence nonohaem iron absorbtion in humans: a comparison of kale and spinach meals. European Journal of Clinical Nutrition 3; 336–341.
Raghuvanshi R. S., Singh R. and R Singh, 2001. Nutritional composition of uncommon foods and their role in meeting micronutrient needs. International Journal of Food Science and Nutrition 4; 331–335.
Gibson R. S., Raboy V. and J. C. King, 2018. Implications of phytate in plant-based foods for iron and zinc bioavailability, setting dietary requirements, and formulating programs and policies. Nutrition Reviews. 1; P. 793-804.
Kova’lchuk V. K., 2015. Estimation of actual iron consumption by adolescent population in region with high content of iron in drinking water. Human Ecology 5; 8-13. [in Russian].
Kobayashi Y., Wakasugi E., Yasui R. Kuwahata M. and Y. Kido, 2015. Egg yolk protein delays recovery while ovalbumin is useful in recovery from iron deficiency anemia. Nutrients 7; 4792-4803.
Camaschella C. I., 2019. Iron deficiency. Blood. 1. P. 30-39.