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Original Research

Open Access

Estimation of Trace Elements in Mixed Saliva of Caries Free and Caries Active Children

  • Punya Sekhri1,*,
  • Meera Sandhu1
  • Vinod Sachdev1
  • Radhika Chopra1

1Department Pedodontics and Preventive Dentistry, I.T.S Dental College, Muradnagar, Uttar Pradesh, Ghaziabad-201206, India

DOI: 10.17796/1053-4628-42.2.9 Vol.42,Issue 2,March 2018 pp.135-139

Published: 01 March 2018

*Corresponding Author(s): Punya Sekhri E-mail: punyasekhri@gmail.com

Abstract

Objective: Composition of saliva plays an important role in defining the dental caries risk for an individual. The role of trace elements present in saliva on dental caries is still not clear. Thus this study was designed to evaluate the effect of certain salivary trace elements like copper, potassium, fluoride, selenium and lead on the caries experience of children. Study Design: 60 subjects in the age group of 3–15 years were selected and divided into two groups, caries active and caries free. 5 ml of unstimulated saliva from each subject was collected and analyzed for the levels of trace elements using Induced Couple Plasma Spectrophotometer (ICP-OES). Results: Copper and Fluoride levels were significantly higher in caries free as compared to caries active individuals whereas Lead was significantly higher in caries active as compared to caries free children (p-value<0.05). Potassium and Selenium though present in appreciable amounts did not show any significant difference between the two groups (p-value>0.05). Conclusion: In caries free subjects, copper and fluoride levels were significantly higher while the level of lead was lower as compared to caries-active children. Potassium and selenium did not show any significant differences within the two groups.

Keywords

trace elements, saliva, ICP-OES

Cite and Share

Punya Sekhri,Meera Sandhu,Vinod Sachdev,Radhika Chopra. Estimation of Trace Elements in Mixed Saliva of Caries Free and Caries Active Children. Journal of Clinical Pediatric Dentistry. 2018. 42(2);135-139.

References

1. Lam A, Chu C.H. Caries Management with Fluoride Agents. New York State Dent J;29-36. 2O12.

2. Zakhir S, Sarkar S. Study of trace elements in mixed saliva of caries free and caries active children. J Ind Soc Pedod Prev Dent ;27-9. 2006.

3. Losee FL, Ludwig TG, Trace Elements and Caries. J Dent Res;49(6):1229-1235. 1970.

4. Lakomaa EL, Rytomaa N; Mineral composition of enamel and dentin of primary and permanent teeth in Finland. Scandinavian J Dent Res;85: 89- 95.1977.

5. Featherstone JD. Prevention and reversal of dental caries: role of low level fluoride. Community Dent Oral Epidemiol;27(1):31-40. 1999.

6. Navia JM. Prevention of dental caries: Agents which increase tooth resis-tance to dental caries. Int Dent J;22:427-40 1972.

7. Reitznerova E, Amarasiriwardena D, Kopcakova M, Barnes RM. Deter-mination of some trace elements in human tooth enamel. Fresenius J Anal Chem;367:748-54. 2000.

8. Arora MY, Chan SW, Kennedy BJ. Spatial distribution of copper in the roots of primary teeth. J Trace Elem Med and Biol;18:135-9. 2004.

9. Mertz W. Trace element nutrition in health and disease: contributions and problems of analysis. Clin Chem; 21:468-75 1975.

10. Anderson R.J. and Davies B.E. Dental caries prevalence and trace elements in soil with special reference to lead. J Geol Soc London;137:547-558.1980.

11. Anderson RJ, Davies BE and James PMC; Dental caries prevalence in a heavy metal contaminated area of the west of England. Br Dent J;141:311-14.1976.

12. Arnold F.A. Fluorine in drinking water: Its effect on dental caries. JADA;3:28-36. 1948.

13. Shellis RP, Duckworth RM; Studies on the cariostatic mechanisms of fluoride. Int Dent J;44(3):263-273. 1994.

14. Rao RV, Anupama PM, Mahesh DG. Estimation of trace elements in various parts of human teeth using external beam PIXE. International J of Physics and Applications ;2(3):123-34. 2010.

15. Quinn J.P. A relationship between potassium concentration in Parotid fluid and Microbial flora of saliva and calculus formation in caries-resis-tant naval personnel, IARR program and abstracts of papers. 1967 No37.

16. Mill C.F. Trace elements in animals. Philosophical Trans Soc;288:51-63. 1979.

17. Warren H.V. Some epidemiology, geochemistry and disease relationship. Ecol Dis;2:185-190. 1982.

18. Thorton I and Wegg J.S. Geochemistry and health in United Kingdom. Phil Trans Soc; 288:151-168. 1979.

19. Cadell P.B. Geographic distribution of dental caries in relation to New Zealand soils. Aust Dent J;2:32-38.1964.

20. Adkins B.L. and Losee F.L. A study of the covariation of dental caries prevalence and multiple trace element content of water supplies; Aus Dent J;36:618-622. 1970.

21. Barmes D.E., Adkins B.L. and Schamschula R.G. Etiology of caries in Papua-New Guinea: association in soil, food and water. Bull. World Health Organization ;43:769-784. 1970.

22. Yem CJ, Lin CL, Hu CC et al. Effect of trace elements on dental caries in human tooth. Chung Shan Med J;2:72-81. 1991.

23. Orban Blaint Oral Histology and Embryology 4th edition St. Louis C.V. Mosby Co. 1957.

24. Duggal M.S., Chawla H.S., Curzon H.E. A study of the relationship between trace elements in saliva and dental caries in children. Arch Oral Biol;36(12):881-4.1991.

25. Borrella P, Fantuzzi G, Aggazzotti G. Trace elements in saliva and dental caries in young adults. Sci Total Environ;153:219-24. 1994.

26. Borella P, Fantuzzi G, Aggazzotti G. Trace elements in saliva and dental caries in young adults. Sci Tot Environm;153(3):219-24. 1994.

27. Hegde MN. Biochemical indictors of dental caries in saliva: an in vivo study. Caries Res.;48(2):170-173. 2014.

28. Kucharzewska G, B. Karasinski .Influence of chosen elements on the dynamics of the cariogenic process. Biol Trace Elem. Res;111:53-62. 2006.

29. Nriagua J, Burt B, Linder A, Ismail A and Sohn W. Lead levels in blood and saliva in a low-income population of Detroit, Michigan. Int J Hyg Environ Health; 209(2):109-121. 2007.

30. Anderson R.J., Davies B.E. and James P.M.C. Dental caries prevalence in a heavy metal contaminated area of the west of England. Br Dent J;141:311-14. 1976.

31. Brodeur J, Lacasse Y, Talbot D. Influence of removal from occupa-tional lead exposure on blood and saliva lead concentrations. Toxicol Lead;19:195-99. 1983.

32. Fung HL, Jaffee S.J, Mattar M.E., Lanighan M.C. Blood and salivary lead levels in children. Clin Chim; Acta;61:423-424. .1975.

33. Koh D, Ng V, Chua L.H., Yang Y, Ong H.Y., Chia S.E. Can salivary lead be used for biological monitoring of lead exposed individuals? Occup Environ Med;60:696-698. 2003.

34. Trace Element in Human and Animal Nutrition. Eric J Underwood Fourth Edition. London 1977.

35. Muhler J.C, Shafer W.G. The effect of Selenium on incidence of Dental Caries in rats. J. Dent. Res;36:895-7. 1957

36. Hadjimarkos D.M, Storvick C.A. Selenium and Dental Caries. An Inves-tigation among school children of Oregon. J Pediatr;40:451.1952.

37. Babior BM , Curnutte JT, Kipnes RS, Biological defense mechanism. Evidence for the participation of superoxide in bacterial killing by xanthine oxidase. J Lab Clin Med; 44;235-7.1985.

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