Decalcification of enamel continues to be a problem with fixed orthodontic appliances. An orthodontic bonding composite is now available which claims to release fluoride, although there are no data to substantiate this claim. Fluoride release from this new material (DIRECT®) was measured and compared with two other orthodontic bonding materials. The amount of fluoride released was very small and unlikely to have a therapeutic effect.
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References
1.
ArtunJ. and BrobakkenB. O. (1986) Prevalence of carious white spots after orthodontic treatment with multiband appliances, European Journal of Orthodontics, 8, 229–234.
2.
CharlesR. J. (1958) Static Fatigue of glass, Journal of Applied Physics, 29, 1549–1553.
3.
CookP. A. and YoungsonC. C. (1988) An in vitro study of the bond strength of a glass ionomer in direct bonding of orthodontic brackets, British Journal of Orthodontics, 15, 247–253.
4.
EricsonS. Y. (1977) Cariostatic mechanisms of fluorides, clinical observations, Caries Research, 11, Suppl. 1, 2–41.
5.
GorelickL., GeigerA. M. and GwinnettA. J. (1982) Incidence of white spot formation after banding and bonding, American Journal of Orthodontics, 81, 93–98.
6.
HicksH. J., FlaitzC. M. and SilverstoneL. M. (1986) Secondary caries formation in vitro around glass ionomer restorations, Quintescence International, 17, 527–532.
7.
LevineR. S. (1976) Action of fluoride in caries prevention, British Dental Journal, 140, 9–14.
8.
MenakerL. (1980) The biologic basis of caries, Harper and Row, Cambridge.
9.
MizrahiE. (1983) Surface distribution of enamel opacities following orthodontic treatment, American Journal of Orthodontics, 84, 323.
10.
OgaardB., RollaG., ArendsJ. and Ten CateJ. M. (1988) Orthodontic appliances and enamel demineralization, American Journal of Orthodontics and Dentofacial Orthopaedics, 94, 123–128.
11.
O'ReillyM. M. and FeatherstoneJ. D. (1985) De- and remineralization around orthodontic appliances: an in vitro study, Journal of Dental Research, 64, 301, Abs number 1140.
12.
ShintoniH., SatouJ. and SatouN. (1985) Affects of various finishing methods on staining and accumulation of S. mutans HS-6 on composite resins, Dental Materials, 1, 225–227.
13.
SkjørlandK. Kr., Hengsten-PettersonA. and ØrstavikD. (1982) Tooth coloured dental restoratives; porosities and surface topography in relation to bacterial adhesion, Acta Odontologica Scandinavica, 40, 113–140.
14.
SmalesR. J. (1981) Plaque growth on dental restorative materials, Journal of Dentistry, 9, 133–140.
15.
SodorholmK. J. M. (1981) Degradation of glass filler in experimental composites, Journal of Dental Research, 60, 1867–1875.
16.
SodorholmK. J. M. (1983) Leaking of fillers in dental composites, Journal of Dental Research, 62, 126–130.
17.
SodorholmK. J. M., ZiganM. and RaganM. (1984) Hydrolytic degradation of dental composites, Journal of Dental Research, 63, 1248–1254.
18.
StaehleH. J. and BõssmanK. (1984) Experimentell untersuchungen uber die antikariogene wirkung von glasionomerzement, Deutsch Zahnartz, 39, 532–534.
19.
SwartzM. L., PhillipsR. W. and ClarkH. E. (1984) Long term F release from glass ionomer cements, Journal of Dental Research, 63, 158–160.
20.
ValkJ. W. P. and DavidsonC. L. (1987) The relevance of controlled fluoride release with bonded orthodontic appliances, Journal of Dentistry, 15, 257–260.
21.
WesenburgG. and HalsE. (1980) The structure of experimental in vitro lesions around glass ionomer cement restorations in human teeth. Journal of Oral Rehabilitation, 7, 175–184.