Abstract
We examined the differences between the concentrations of chemical elements in caries-changed primary teeth and permanent ones with a division into the root and the crown. The study comprised 27 children aged from 4 to 11 yr and 36 adults aged from 36 to 71 yr. We examined the elements with the total reflection X-ray fluorescence method. The lowest concentrations of calcium, manganese, strontium, lead, and copper were in the roots of primary teeth compared to the roots of permanent ones. The calcium, nickel, zinc, lead, and copper concentrations were significantly higher in the roots of primary teeth than in the roots of permanent teeth. However, the zinc concentration was higher both in the root and crown of primary teeth than in permanent teeth. On the basis of our investigations, we can conclude that the content of some elements (manganese, copper, strontium, and lead) is higher in caries permanent teeth than in primary ones. The nickel and zinc concentrations are higher in the teeth of the children than the adults. However, the content of other elements (calcium, chromium, iron) is similar in both kinds of teeth.
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B. Nowak and H. Kozłowski, Heavy metals in hair and teeth: the correlation with metal concentration in the environment, Biol. Trace Element Res. 5, 213–228 (1998).
W. H. Bowen, Exposure to metal ions and susceptibility to dental caries, J. Dent. Educ. 65, 1046–1053 (2001).
K. Bercovitz and D. Laufer, Systematic lead absorption in human tooth roots, Arch. Oral Biol. 37, 350–357 (1990).
K. Bercovitz and D. Laufer, Carious teeth as indicators of lead exposure, Bull. Environ. Contam. Toxicol. 50, 724–729 (1993).
P. Bloch, J. M. Shapiro, L. Soule, et al., Assessment of lead exposure of children from K-XRF measurement of shed teeth, Appl. Radiat. Isot. 49, 703–705 (1998).
S. R. Grobler, F. S. Theunissen, and L. S. Marsky, Evidence of undue lead exposure in Cape Town before the advent of leaded petrol, S. Afr. Med. J. 86, 169–171 (1996).
S. R. Grobler, F. S. Theunissen, and T. J. Kotze, The relation between lead concentrations in human dental tissue and in blood, Arch. Oral Biol. 45, 607–609 (2000).
D. M. Ferguson and L. J. Harwood, The effects of lead levels on the growth of word recognition in middle childhood, Int. J. Epidemiol. 22, 891–897 (1993).
F. Gil, A. Facio, E. Villanueva, et al., The association of tooth lead content with dental health factors, Sci. Total Environ. 192, 183–191 (1996).
F. Gil, M. L. Percz, A. Facio, et al., Dental lead levels in the Galician population, Spain, Sci. Total Environ. 156, 145–150 (1994).
H. M. Tvinnerein, R. Eide, G. Fosse, et al., Lead in primary teeth from Norway—changes in lead levels from 1970s to the 1990s, Sci. Total Environ. 207, 165–177 (1997).
H. M. Tvinnerein, R. Eide, G. Fosse, et al., Trace elements in primary teeth from six areas in Hungary, Int. J. Environ. Stud. 50, 267–275 (1996).
H. M. Tvinnerein, R. Eide, G. Fosse, et al., Zinc in primary teeth from children in Norway, Sci. Total. Environ. 226, 201–212 (1999).
B. Nowak, Occurrence of heavy metals and sodium, potasium and calcium in human teeth, Analyst 120, 747–750 (1995).
M. E. J. Curzon and D. C. Crocker, Relationships of trace elements in human tooth enamel to dental caries, Arch. Oral Biol. 23, 647–653 (1978).
U. Majewska, J. Braziewicz, D. Bana’s, et al., An elemental correlation study in cancerous breast tissue by total reflection X-ray fluorescence, Biol. Trace Element Res. 60, 91–100 (1997).
U. Majewska, D. Banaś, J. Braziewicz, et al., Total reflection X-ray fluorescence: a new tool for trace elements detection for medical application, Pol. J. Med. Phys. Eng. 1, 35–46 (1995).
U. Majewska, J. Braziewicz, D. Banaś, et al., Some aspects of statistical distribution of trace element concentrations in biomedical samples, Nucl. Instrum. Methods B. 150, 254–259 (1999).
K. Bercovitz, Tooth type as indicator of exposure to lead of adults and children, Arch. Oral Biol. 35, 895–897 (1990).
D. Tantbirojn, W. H. Douglas, C. C. Ko, et al., Spatial chemical analysis of dental stain using wavelength dispersive spectrometry, Eur. J. Oral Sci. 106, 971–976 (1998).
J. Yoshinaga and T. Suzuki, Sex and age related variation in elementalconcentration of contemporary Japanese ribs, Sci. Total Environ. 79, 209–221 (1989).
G. Fosse and N. Justesen, Lead in deciduous teeth from larger cites of some countries, Int. J. Environ. Stud. 47, 203–210 (1995).
M. B. Rabinovitz, Relating tooth and blood lead levels in children, Bull. Environ. Contam. Toxicol.. 55, 853–857 (1995).
M. B. Rabinovitz, J. D. Wang, and W. T. Soong, Dentine lead and child intelligence in Taiwan, Arch. Environ. Health 46, 351–360 (1991).
T. Lyngbye, O. N. Hansen, and P. Grandjean, Lead concentration in deciduous teeth from Danisch school children, Dan. Med. Bull. 38, 89–93 (1991).
J. Begerow, I. Freier, M. Turfeld, et al., Internal lead and cadmium exposure in 6-year-old children from western and eastern Germany, Int. Arch. Occup. Environ. Health 66, 243–248 (1994).
R. A. Barrea, C. A. Perez, and A. Y. Ramos, Zinc incorporation in human dental calculus, J. Synchrontr. Radiat. 8, 990–992 (2001).
R. Z. LeGeros, C. B. Bleiwas, M. Retino, et al., Zinc effect on the in vitro formation of calcium phosphates relevance to clinical inhibition of calculus formation, Am. J. Dent. 12, 65–71 (1999).
A. Anttila and A. Anttila, Determination of lead and some other trace elements in deciduous teeth measured by PIXE, Proc. Finn. Dent. Soc. 83, 277–280 (1987).
R. Z. LeGeros and G. Quirolgico, Trace element: their effect on the crystal growth of apatities, J. Dent. Res. 56, A55 (1977).
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Gierat-Kucharzewska, B., Braziewicz, J., Majewska, U. et al. Concentration of selected elements in the roots and crowns of both primary and permanent teeth with caries disease. Biol Trace Elem Res 96, 159–167 (2003). https://doi.org/10.1385/BTER:96:1-3:159
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DOI: https://doi.org/10.1385/BTER:96:1-3:159