The effect of cement type and mixing on the bi-axial fracture strength of cemented aluminous core porcelain discs

Dental Materials

Volumn 19, Issue 1, 2003, Pages 69-76

  Fleming, Garry J P ^a   Narayan, Omar ^a  

^a UNIVERSITY OF BIRMINGHAM   (United Kingdom)

Author keywords

Bi axial fracture strength; Core porcelain; Dental cement; Weibull statistics

Indexed keywords

ALUMINUM; CEMENTS; FRACTURE TOUGHNESS; IONOMERS; PORCELAIN; WEIBULL DISTRIBUTION;

MIXING RATIOS;

DENTAL COMPOSITES;

ALUMINUM OXIDE; GLASS IONOMER; POLYCARBOXYLATE CEMENT; RESIN CEMENT; TOOTH CEMENT;

ARTICLE; CEMENTATION; CHEMISTRY; COMPARATIVE STUDY; DENTAL SURGERY; ELASTICITY; MATERIALS TESTING; METHODOLOGY; REGRESSION ANALYSIS; SURVIVAL; TENSILE STRENGTH; TOOTH CROWN; TOOTH PROSTHESIS;

ALUMINUM OXIDE; CEMENTATION; CROWNS; DENTAL CEMENTS; DENTAL PORCELAIN; DENTAL RESTORATION FAILURE; ELASTICITY; GLASS IONOMER CEMENTS; MATERIALS TESTING; POLYCARBOXYLATE CEMENT; REGRESSION ANALYSIS; RESIN CEMENTS; SURVIVAL ANALYSIS; TENSILE STRENGTH;

EID: 0041491386     PISSN: 01095641     EISSN: None     Source Type: Journal    
DOI: 10.1016/S0109-5641(02)00006-4     Document Type: Article

References (29)

1. Diaz-Arnold A.M., Vargas M.A., Haselton D.R. Current status of luting agents for fixed prosthodontics. J Prosthet Dent. 81:1999;135-141.
2. Wilson A.D., Nicholson J.W. Phosphate bonded cements. Acid-base cements: their biomedical and industrial applications. 1993;University Press, Cambridge. p. 197-282.
3. Kantorowicz G.F., Howe L.C., Shortall A.C., Shovelton D.S. Cementation. Kantorowicz G.F. Inlays, crowns and bridges: a clinical handbook. 5th ed:1993;57-60 Butterworth-Heinemann, Oxford.
4. Sidel J., Frankenberger F., Krämer K., Petschelt A. Crack formation of all-ceramic crowns dependent on different core build-up and luting materials. J Dent. 27:1999;175-181.
5. Platt J.A. Resin cements: into the 21st century. Compend. 20:1999;1173-1182.
6. McLean J.W. Ceramics in clinical dentistry. Brit Dent J. 164:1988;187-194.
7. Kelly J.R., Campbell S.D., Bowen H.K. Fracture-surface analysis of dental ceramics. J Prosthet Dent. 62:1989;652-661.
8. Thompson J.Y., Anusavice K.J., Naman A., Morris H.F. Fracture surface characterization of clinically failed all-ceramic crowns. J Dent Res. 73:1994;1824-1832.
9. Smith D.C., Ruse N.D. Acidity of glass ionomer cements during setting and its relation to pulp sensitivity. J Amer Dent Assoc. 112:1986;654-657.
10. Fleming G.J.P., Marquis P.M., Shortall A.C.C. The influence of clinically induced variability on the distribution of compressive fracture strengths of a hand-mixed zinc phosphate dental cement. Dent Mater. 15:1999;87-97.
11. Darvell B.W. Aspects of the chemistry of zinc phosphate cements. Aust Dent J. 29:1984;242-244.
12. Marquis P.M. The influence of cements on the mechanical performance of dental ceramics. Yamamuro T., Kokubo T., Nakamura T. Bioceramics. Proceedings of the Fifth International Symposium on Ceramics in Medicine, Kyoto, Japan. vol. 5:1992;317-324 Kobunshi Kankokai, Japan.
13. Fleming G.J.P., Shelton R.M., Marquis P.M. The influence of clinically induced variability on the bi-axial fracture strength of cemented aluminous core porcelain discs. Dent Mater. 15:1999;62-70.
14. Fleming G.J.P., Shelton R.M., Marquis P.M. The influence of clinically induced variability on the bi-axial fracture strength of aluminous core porcelain discs. J Dent. 27:1999;587-594.
15. Timoshenko S, Woinowsky-Krieger S. Symmetrical bending of circular plates, Theory of plates and shells. 2nd ed. New York: McGraw-Hill, 1959 p. 87-121.
16. Grajower R., Lewinstein I., Zeltser C. The effective minimum cement thickness of zinc phosphate cement for luted non-precious crowns. J Oral Rehab. 12:1985;235-245.
17. Grieve A.R. A study of dental cements. Brit Dent J. 127:1969;405-410.
18. Weibull W. A statistical distribution function of wide applicability. J Appl Mech. 18:1951;293-297.
19. Mann N.R., Schafer R.E., Singpurwalla N.O. Elements of probability theory. Methods for statistical analysis of reliability and life data. 1974;Wiley, New York. p. 4-45.
20. Trustrum K., Jayatilaka A.D.S. On estimating the Weibull modulus for a brittle material. J Mater Sci. 14:1979;1080-1084.
21. Ritter J.E., Bandyopadhyay N., Jakus K. Statistical reproducibility of the dynamic and static fatigue experiments. Ceram Bull. 60:1981;798-806.
22. Thoman D.R., Bain L.J., Antle C.E. Inferences on the parameters of the Weibull distribution. Technometrics. 11:1969;445-460.
23. Bruning JL, Kintz BL. Supplemental computations for analysis of variance, Computational handbook of statistics. 3rd ed. Illinois: Scott, Foresman and Co, 1987 p. 110-173.
24. Lipson C., Sheth N.J. Correlation, regression and variation analysis. Statistical design and analysis of engineering experiments. 1973;McGraw-Hill, New York. p. 372-415.
25. Charles R.J. Static fatigue of glass. I. J Appl Phys. 29:1958;1549-1553.
26. Wilson A.D., Nicholson J.W. Polyalkenoate cements. Acid-base cements: their biomedical and industrial applications. 1993;University Press, Cambridge. p. 90-196.
27. Wiederhorn S.N., Johnson H. Effect of electrolyte pH on crack propagation in glass. J Amer Ceram Soc. 56:1973;192-197.
28. Mould R.E. Strength and static fatigue of abraded glass under controlled ambient conditions: IV. J Amer Ceram Soc. 44:1961;481-491.
29. Marquis P.M., Wilson H.J. A tooth for a tooth - ceramics in modern dentistry. Chem Ind. 1986;657-661.