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Original Research

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Dental Fluorosis: Concentration of Fluoride in Drinking Water and Consumption of Bottled Beverages in School Children

  • Pérez-Pérez* N1
  • Torres- Mendoza N1
  • Borges-Yáñez A1
  • Irigoyen-Camacho ME1,*,

1Calzada del Hueso # 1100, Col Villa Quietud, CP 04960, México D.F. México.

DOI: 10.17796/jcpd.38.4.e77h557k0005077n Vol.38,Issue 4,July 2014 pp.338-344

Published: 01 July 2014

*Corresponding Author(s): Irigoyen-Camacho ME E-mail: meirigo@correo.xoc.uam.mx

Abstract

The purpose of the study was to identify dental fluorosis prevalence and to analyze its association with tap water fluoride concentration and beverage consumption in school children from the city of Oaxaca, who were receiving fluoridated salt. Study design: A cross-sectional study was performed on elementary public school children. Dean’s Index was applied to assess dental fluorosis. The parents of the children who were studied completed a questionnaire about socio-demographic characteristics and type of beverages consumed by their children. A total of 917 school children participated in this study. Results: Dental fluorosis prevalence was 80.8%. The most frequent fluorosis category was very mild (41.0%), and 16.4% of the children were in the mild category. The mean water fluoride concentration was 0.43 ppm (±0.12). No association was detected between tap water fluoride concentration and fluorosis severity. The multinomial regression model showed an association among the mild fluorosis category and age (OR = 1.25, [95%CI 1.04, 1.50]) and better socio-economic status (OR = 1.78, [95%CI 1.21, 2.60]), controlling for fluoride concentration in water. Moderate and severe fluorosis were associated with soft drink consumption (OR = 2.26, [95%IC 1.01, 5.09]), controlling for age, socio-economic status, and water fluoride concentration. Conclusions: The prevalence of fluorosis was high. Mild fluorosis was associated with higher socio-economic status, while higher fluorosis severity was associated with soft drink consumption.

Keywords

fluorosis, bottled water, salt fluoridation, school children, Oaxaca.

Cite and Share

Pérez-Pérez* N,Torres- Mendoza N, Borges-Yáñez A,Irigoyen-Camacho ME. Dental Fluorosis: Concentration of Fluoride in Drinking Water and Consumption of Bottled Beverages in School Children. Journal of Clinical Pediatric Dentistry. 2014. 38(4);338-344.

References

1. Azpeitia-Valadez M, Sánchez-Hernández M.A, Rodríguez-Frausto M. Risk factors for Dental fluorosis in children between 6 and 15 years old. Rev Med IMSS 7:265-70, 2009.

2. Ismail A.I, Messer J.G, Hornett P.J. Prevalence of dental caries and fluorosis in seven- to 12-year-old children in northern Newfoundland and Forteau, Labrador. J Can Dent Assoc 64:118-24, 1998.

3. Khan A.A, Whelton H, O´Mullane D. Determining the optimal concentration of fluoride in drinking water in Pakistan. Community Dent Oral Epidemiol 32:166- 172, 2004.

4. Szpunar S.M, Burt B.A. Trends in the prevalence of dental fluorosis in the United States: a review. J Public Health Dent 47:71-9, 1987.

5. Fluoridation Update – January 14, 2011. Information for Public Water Systems that provide fluoridated water in California. Accessed: March 21, 2013. http://www.cdph.ca.gov/certlic/drinkingwater/Documents/Fluoridation/FluorideUdpate2010-01-14.pdf .

6. Secretaría de Salubridad y Asistencia. 1981. Reglamento de Yodatación y Fluoruración de la Sal. Diario Oficial de la Federación. 26 de marzo de1981, México, D.F.

7. Secretaría de Salud. Modificación a la Norma Oficial Mexicana NOM-040-SSA1-1993, Productos y servicios. Sal yodada y sal yodada fluorurada. Especificaciones sanitarias. Diario Oficial de la Federación 9 septiembre 2003, México, D.F.

8. Toumba K.J, Levy S, Curzon M.E. The fluoride content of bottled drinking waters. Br Dent J 176:266-8,1994.

9. Loyola-Rodríguez J.P, Pozos-Guillén A.J, Hernández-Guerrero J.C. Bottled drinks as additional source of fluoride exposition. Salud Publica Mex 40:438-441,1998.

10. Martínez-Mier E.A, Soto-Rojas A.E, Ureña-Cirett J.L, Stookey G.K, Dunipace A.J. Fluoride intake from foods, beverages and dentifrice by children in Mexico. Community Dent Oral Epidemiol 31:221-30, 2003.

11. Soto-Rojas A.E, Ureña-Cirett J.L, Martínez-Mier E.A. A review of the prevalence of dental fluorosis in Mexico. RPSP/PAJPHR 15:9-18, 2004.

12. Juárez López M.L, Hernández Guerrero J.C, Jiménez Farfán D, Ledesma Montes C. Prevalencia de caries y fluorosis en escolares de la ciudad de México. Gac Med Mex 139:221-5, 2003.

13. Beltrán Valladares P.R, Cocom-Tum H, Casanova Rosado J.F, Vallejo Sánchez A.A, Medina Solís C.E, Maupome G. Prevalencia de fluorosis dental y fuentes adicionales de exposición a fluoruro como factores de riesgo a fluorosis dental en escolares de Campeche, México. Rev Invest Clín 57:532-539, 2005.

14. Instituto Estatal de Educación Pública de Oaxaca. Datos estadísticos 2006.

15. CONAP0. Zona metropolitana de Oaxaca: Grado de marginación urbana por AGEB, 2010. Accessed January 7, 2013, http://www.conapo.gob.mx/ work/models/CONAPO/indices_margina/marginacion_urbana/AnexoA/ Mapas/29_Zona_Metropolitana_de_Oaxaca.pdf .

16. Saravanan S, Kalyani C, Vijayarani M, Jayakodi P, Felix A, Nagarajan S, Arunmozhi P, Krishnan V. Prevalence of dental fluorosis among primary school children in rural areas of chidambaram taluk, cuddalore district, Tamil Nadu, India. Indian J Community Med 33:146-50, 2008.

17. Rozier, R.G. Epidemiologic indices for measuring the clinical manifestations of dental fluorosis: overview and critique. Adv Dental Res 8:39-55 1994.

18. SECOFI (2001).Norma Mexicana NMX-AA-077-SCFI-2001.Análisis de Aguas. Determinación de fluoruros en aguas naturales, residuales y residuales tratadas. Secretaría de Comercio y Fomento Industrial. Diario Oficial de la Federación. 13 de Agosto 2001.

19. Azpeitia-Valadez M, Sánchez-Hernández M.A, Rodríguez-Frausto M. Prevalencia de fluorosis dental en escolares de 6 a 15 años de edad. Rev Med IMSS 46:67-72, 2008.

20.Chacón L.F, López M.L, Frechero N.M. Prevalence of dental fluorosis and consumption of hidden fluoride in school children in the municipality of Nezahualcóyotl. Gac Med Mex 145:263-7, 2009.

21. Jiménez-Farfán M.D, Hernández-Guerrero J.C, Juárez-López L.A, Jacinto-Alemán L.F, de la Fuente-Hernández J. Fluoride consumption and its impact on oral health. Int J Environ Res Public Health 8:148-60, 2011.

22. Organización Panamericana de la Salud, OMS. [Taxes on soft drinks and sugary drinks as a public health measure. PAHO, WHO] Available in: http://www.paho.org/mex/index.php?option=com_content&view=article&id=627:los-impuestos-a-los-refrescos-y-a-las-bebidas-azucaradas-como-medida-de-salud-publica.

23. Stannard JG, Shim YS, Kritsineli M, Labropoulou P, Tsamtsouris A. Fluoride levels and fluoride contamination of fruit juices. J Clin Pediatr Dent. 16:38-40, 1991.

24. Heilman JR, Kiritsy MC, Levy SM, Wefel JS.Assessing fluoride levels of carbonated soft drinks. J Am Dent Assoc 130:1593-9, 1999.

25. Buzalaf MA, de Almeida BS, Cardoso VE, Olympio KP, Furlani Tde A.Total and acid-soluble fluoride content of infant cereals, beverages and biscuits from Brazil. Food Addit Contam 21:210-5, 2004.

26. Thippeswamy H M, Kumar N, Anand S R, Prashant G M, Chandu G N. Fluoride content in bottled drinking waters, carbonated soft drinks and fruit juices in Davangere city, India. Indian J Dent Res 21:528-530, 2010.

27. Fojo C, Figueira ME, Almeida CM. Fluoride content of soft drinks, nectars, juices, juice drinks, concentrates, teas and infusions marketed in Portugal. Food Addit Contam Part A Chem Anal Control Expo Risk Assess 30:705- 12, 2013.

28. Zohouri FV, Maguire A, Moynihan PJ.Sources of dietary fluoride intake in 6-7-year-old English children receiving optimally, sub-optimally, and non-fluoridated water.J Public Health Dent. 66:227-34, 200l.

29 Cressey P, Gaw S, Love J. Estimated dietary fluoride intake for New Zealanders.J Public Health Dent. 70:327-36, 2010.

30. Broffitt B, Levy S.M, Warren J.J, Cavanaugh J.E.An investigation of bottled water use and caries in the mixed dentition. Public Health Dent 67:151-8, 2007.

31. Sánchez-García S., Pontigo Loyola A.P. Fluorosis dental en adolescentes de tres comunidades del estado de Querétaro. Rev Mex Pediatr 71: 5-9,2004.

32. Molina Frechero N, Castañeda Castañeira E, Hernandez-Guerreo JC. Prevalencia de fluorosis dental en escolares de una delegación política de la Ciudad de México. Rev Mex Pediatr 72:13-16, 2005.

33. Irigoyen Camacho M.E., Zepeda Zepeda M.A. Sánchez-Pérez TL, Luengas Aguirre I. Prevalencia de fluorosis dental en escolares, de una zona con baja concentración de flúor en agua, en la Delegación Tláhuac, D.F. Revista de Ciencias Clínicas 7:5-11, 2006.

34. Molina-Frechero N, Castañeda-Castaneira E, Sánchez-Flores A, RoblesPinto G. Incremento de la prevalencia y severidad de fluorosis dental en escolares de la delegación Xochimilco en México, DF. Acta Pediátr Mex 28:149-53, 2007.

35. Villa A.E, Guerrero S. Caries experience and fluorosis prevalence in Chilean children from different socio-economic status.Community Dent Oral Epidemiol 24:225-7, 1996.

36. De Almeida B.S, Da Silva Cardoso V.E, Buzalaf M.A. Fuoride ingestion from toothpaste and diet in 1- to 3-year-old Brazilian children.Community Dent Oral Epidemiol 35:53-63, 2007.

37. Maupome G, Shulman J.D, Clark D.C, Levy S.M. Socio-demographic features and fluoride technologies contributing to higher fluorosis scores in permanent teeth of Canadian children. Caries Res 37:327-334, 2003.

38. Meneghim M de C, Kozlowski FC, Pereira AC, Ambrosano GM, Meneghim ZM. [A socioeconomic classification and the discussion related to prevalence of dental caries and dental fluorosis]. Cien Saude Colet 12:523-9. 2007.

39. Awadia AK, Haugejorden O, Bjorvatn K, Birkeland JM.Vegetarianism and dental fluorosis among children in a high fluoride area of northern Tanzania. Int J Paediatr Dent 9:3-11, 1999.

40. Vieira A, Hanocock R, Eggertsson H, Everett E, Grynpas M. Tooth quality in dental fluorosis: genetic and environmental factors. Calcif Tissue Int 76:17-25, 2005.

41. NOM-201-SSA1-2002. Productos y servicios. Agua y hielo para consumo humano, envaso y a granel. Especificaciones Sanitarias. Diario Oficial de la Federación.12 de Septiembre 2001.

42. Code of Federal Regulations.Title 21, Volume 2. Revised as of April 1, 2012.CITE:21CFR165.110. Accessed March 20, 2013 http:// www.accessdata.fda.gov/scripts/cdrh/cfdocs/cfcfr/CFRSearch. cfm?fr=165.110&SearchTerm=bottled%20water.

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