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Heydari, Mohammadreza, Parsa, Nader, Davani, Rahim. (1392). Potentially Hazardous Trihalomethanes (THMs) Levels in Chlorinated Swimming Pools’ Water in Fars Province, Iran. سامانه مدیریت نشریات علمی, 1(2), 67-76.
Mohammadreza Heydari; Nader Parsa; Rahim Davani. "Potentially Hazardous Trihalomethanes (THMs) Levels in Chlorinated Swimming Pools’ Water in Fars Province, Iran". سامانه مدیریت نشریات علمی, 1, 2, 1392, 67-76.
Heydari, Mohammadreza, Parsa, Nader, Davani, Rahim. (1392). 'Potentially Hazardous Trihalomethanes (THMs) Levels in Chlorinated Swimming Pools’ Water in Fars Province, Iran', سامانه مدیریت نشریات علمی, 1(2), pp. 67-76.
Heydari, Mohammadreza, Parsa, Nader, Davani, Rahim. Potentially Hazardous Trihalomethanes (THMs) Levels in Chlorinated Swimming Pools’ Water in Fars Province, Iran. سامانه مدیریت نشریات علمی, 1392; 1(2): 67-76.

Potentially Hazardous Trihalomethanes (THMs) Levels in Chlorinated Swimming Pools’ Water in Fars Province, Iran

Journal of Health Sciences & Surveillance System
مقاله 2، دوره 1، شماره 2، دی 2013، صفحه 67-76    اصل مقاله (544.55 K)
نوع مقاله: Original Articles
نویسندگان
Mohammadreza Heydari1؛ Nader Parsa* 2؛ Rahim Davani3
1Department of Health Vice Chancellor, Shiraz University of Medical Sciences Shiraz, Iran;
2Department of Health Vice Chancellor, Shiraz University of Medical Sciences Shiraz, Iran; Cardiovascular Research Center, Shahid Faghihi Hospital, Shiraz University of Medical Sciences, Shiraz, Iran;
3The Fars Province Referral Laboratory of Shiraz University of Medical Sciences, Division of Water and Wastewater Center, Valfajr Health Center, Shiraz, Iran
چکیده
Background: Trihalomethanes are toxic and dangerous substances that are formed in the presence of organic materials when water is chlorinated for disinfection. The Iranian National Standard, World Health Organization, European Union, U.S. Environmental Protection Agency and International Agency for Research in Cancer standards have established a Maximum Contaminant Level for Trihalomethanes for the quality of consumable water. The aim of this study was to determine if the trihalomethanes level in the water of Fars province swimming pools comply with these recommendations.Methods: The laboratory study design was conducted by utilizing spectrophotometer Hack DR5000 VIS-UV equipment for evaluating trihalomethanes concentrations, digital photometer Palin-test for measuring chlorine and pH to process different samples collected from 43 indoor and outdoor swimming pools in Fars Province, Iran. The dependent variable was trihalomethanes and chlorine compounds were independent variables. Precise laboratory experimental methods and appropriate statistical analysis were conducted using SPSS.Results: Mean concentration of trihalomethanes was found to be 242.1μg/l, ranging from 0 to 990μg/l for 43 public swimming pools in Fars province. Association of trihalomethanes and chlorine components with analysis of variance (ANOVA) model was highly significant (P<0.0001).Conclusion: Study results showed that there were strong associations between chlorine compounds and trihalomethanes concentrations. The mean trihalomethanes was 1.2-times (241.2μg/l VS. 200.0μg/l) higher than the national and 3-folds (241.2μg/l VS. 80.0μg/l) higher than the worldwide standards. Therefore, based upon standard recommendations, this conclusion could pose a hazard to public health.
کلیدواژه‌ها
Trihalomethanes؛ Swimming pools؛ Chlorine
مراجع
  1. Bryant E. Disinfection Alternatives for Safe Drinking
  2. Water. New York: Van Nostrad Reinhold;1992 .
  3. Alicia C. DBP formation during the chlorination.
  4. JAWWA. 2000; 92(6):76-90.
  5. World Health Organization. Guidelines for Drinking
  6. Water Quality, (Chloroform). Health Criteria and other
  7. Supporting Information, Geneva: WHO;1998. 21p.
  8. Ivahnenko T, Zogorski JS. Sources and occurrence
  9. of chloroform and other trihalomethanes in drinkingwater
  10. supply wells in the United State(1986–2001).
  11. Virginia: United State Geological Survey; 2006.
  12. Abdel-Shafy M. THM formation in water supply in
  13. South Bohamia. Water Res. 2000;34(13):3452-9.
  14. Rook JJ. Formation of haloforms during chlorination
  15. of natural waters . J Water Treatment Examination.
  16. ;23:234–43.
  17. Bull RJ, Brinbaum LS, Cantor KP, Rose JB, Butterworth
  18. BE, Pegram R, et al. Water Chlorination: essential
  19. process and cancer hazard. Fundam Appl Toxicol.
  20. ;28(2):155–66.
  21. Bodzek M. Pressure driven membranes techniques in
  22. the treatment of Water containing THMs. Desalination.
  23. ;147:101-7.
  24. Atarchi MF, Chaleshkesh M. Risk Evaluation related to
  25. Chlorination Method Disinfection for Drinking Water.
  26. Annual Journal of Chemical Engineer Department of
  27. Esfahan Technical University. 1999:227.
  28. Zogorski JS, Carter JM, Ivahnenko T, Lapham WW,
  29. Moran MJ, Rowe BL, et al. The quality of our nation’s
  30. water-volatile organic compounds in the nation’s
  31. ground water and drinking water supply wells. U.S.
  32. Geological Survey Circular. 2006;1292(101):399.
  33. Wang W, Ye B, Yang L, Li Y, Wang Y. Risk assessment
  34. on disinfection by-products of drinking water of
  35. different water sources and disinfection processes.
  36. Environ Int. 2007;33(2):219-25.
  37. World Health Organization (WHO). Guidelines for
  38. Drinking-Water Quality, third ed. Geneva, Switzerland:
  39. World Health Organization; 2006.
  40. United State Environmental Protection Agency
  41. (USEPA). Integrated Risk Information System 2005.
  42. Available from: http://www.epa.gov/iris
  43. Environmental Protection Agency (EPA) Office
  44. of Water. Drinking Water Criteria Document for
  45. Brominated Trihalomethanes. Washington, United
  46. States: EPA Office of Water; 2005.
  47. Gallard H, von GU. Chlorination of natural organic
  48. matter: Kinetics of Chlorination and THMs formation.
  49. Water Res. 2002;36(1):65-74.
  50. Frederick W. Small Systems to Tackle Disinfection
  51. by-Products. JAWWA Technical Reports; 1998.
  52. Standard Institution and Iranian Industrial Research.
  53. Physical and Chemical Specification of Drinking Water.
  54. th Revision. Tehran: ISIRI; 2009.
  55. Directiva 98/83/CE del Consejo de 3 de noviembre de.
  56. relativa a la calidad . Diario Oficial n° L 330 de
  57. /12/1998 p. 0032 - 0054. en el Diario. Oficial de las
  58. Comunidades Europeas. .Hecho en Bruselas, el 3 de
  59. noviembre de 1998.
  60. United State Environmental Protection Agency
  61. (USEPA). National Primary Drinking Water
  62. Regulations: Disinfectants and Disinfection
  63. Byproducts, United State. United States: Environmental
  64. Protection Agency; 1998.
  65. Hamidih M. Applicability’s Assessment of Disinfection
  66. Filter related to Pollution Irradiation of Drinking Water
  67. at the Point of Consuming. Annual Journal of Tehran
  68. Modaress Educational University. 1994:3-17.
  69. Daei M. Evaluation of the Probable Existing
  70. Trihalomethanes in Drinking Water of Iran. Annual
  71. Journal of Tehran University. 1995:12-47.
  72. Nabizadeh NR, Faeazi RD. Guidelines for Drinking
  73. Water Quality. 2nd Ed., First Vol. 1984.
  74. Saitúa H, Giannini F, Padilla AP. Drinking water
  75. obtaining by nanofiltration from waters contaminated
  76. with glyphosate formulations: process evaluation
  77. by means of toxicity tests and studies on operating
  78. parameters. J Hazard Mater. 2012;227-228:204-10. Doi:
  79. 1016/j.j hazmat. 2012.05.035. Epub 2012 May 17.
  80. Sobhani R, McVicker R, Spangenberg C, Rosso
  81. D. Process analysis and economics of drinking
  82. water production from coastal aquifers containing
  83. chromophoric dissolved organic matter and bromide
  84. using nanofiltration and ozonation. J Environ
  85. Manage. 2012;93(1):209-17. Doi: 10. 1016/j. j Envman.
  86. 09.011. Epub 2011 Oct 12.
  87. Babaee Y, Mousavi SM, Danesh S, Baratian A.
  88. Influence of transmembrane pressure and feed
  89. concentration on the retention of arsenic, chromium
  90. and cadmium from water by nanofiltration. J Environ
  91. Sci Eng. 2010;52(1):1-6.
  92. Houari A, Seyer D, Couquard F, Kecili K, Democrate
  93. C, Heim V, et al. Characterization of the biofouling
  94. and cleaning efficiency of nanofiltration
  95. membranes. Biofouling. 2010;26(1):15-2. Doi:
  96. 1080/08927010903277749.
  97. Dixon MB, Falconet C, Ho L, Chow CW, O’Neill BK,
  98. Newcombe G. Nanofiltration for the removal of algal
  99. metabolites. Water Sci Technol. 2010;61(5):1189-99.
  100. Chalatip R, Chawalit R, Nopawan R. Removal of
  101. haloacetic acids by nanofiltration. Environ Sci (China).
  102. ;21(1):96-100.
  103. Ma WF, Liu WJ. Influence of co-existing chloride on
  104. fluoride removal from drinking water by nanofiltration
  105. membrane. Huan Jing Ke Xue. 2009;30(3):787-91.
  106. Cooper A, Oldinski R, Ma H, Bryers JD, Zhang
  107. M. Chitosan-based nanofibrous membranes for
  108. antibacterial filter applications. Carbohydr Polym.
  109. ;92(1):254-9.
  110. Samadi M, Nasseri S, Mesdaghinia A. A Comparative
  111. Study on THMs Removal Efficiencies from Drinking
  113. Heydari MR, Parsa N, Davani R
  114. J Health Sci Surveillance Sys October 2013; Vol 1; No 2
  115. Water through Nanofiltration and Air Stripping
  116. Packed-Column. Journal of Water and Wastewater.
  117. ;57:14-21.
  118. Schmidt CK, Brauch HJ. N,N-dimethylsulfamide
  119. as precursor for N-Nitrosodimethylamine(NDMA)
  120. formation upon ozonation and its fate during
  121. drinking water treatment. Environ Sci Technol.
  122. ;42(17):6340-6.
  123. Jegatheesan V, Kim SH, Joo CK, Gao B. Evaluating
  124. the effects of granular activated carbon (GAC) and
  125. membrane filtrations on chlorine demand in drinking
  126. water. J Environ Sci (China). 2009;21(1):23-9.
  127. Amin M, Jaberian B, Sadani M, Hadian R. Evaluation
  128. of Powdered Activated Carbon Efficiency in Removal of
  129. Dissolved Organic Carbon in Water Treatment. Iranian
  130. Journal of Health and Environment. 2010;3(2):135-42.
  131. Camper AK, Buls J, Goodrum L. Effects of powdered
  132. activated carbon on organic materials and humic
  133. substances. JAWWA. 2002;90:42-52.
  134. Humbert H, Gallard H, Suty H, Croue J. Natural
  135. organic matter (NOM) and pesticides removal using
  136. a combination of ion exchange resin and powdered
  137. activated carbon (PAC). Water Res. 2007;42(6-7):635-43.
  138. Young K, Bae B. Design and evaluation of hydraulic
  139. baffled-channel powdered activated carbon(PAC)
  140. contactor for taste and odor removal from drinking
  141. water supplies. Water Res. 2007;41(10):2256-64.
  142. Gifford J, George D, Adams V. Synergistic effect
  143. of potassium permanganate and powdered activated
  144. carbon (PAC) in direct filtration systems for THM
  145. precursor removal. Water Res. 1989;23(10):1305-12.
  146. Madhusri Bhattacharjee, Lata Cherian, Gupta VK.
  147. Modified Fujiwara reaction for the determination of
  148. trichloroacetic acid. Microchem J. 1991;43(2):109-11.
  149. Sulbha Amlathe, Sweta Upadhyay, Gupta VK. A
  150. sensitive spectrophotometric determination of traces
  151. of pyridine with Anthranilic acid in environmental
  152. samples. Microchem J. 1988;37(2):225-30.
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