Determining the slow crack growth parameter and weibull two-parameter estimates of bilaminate disks by constant displacement-rate flexural testing

Dental Materials

Volumn 20, Issue 1, 2004, Pages 51-62

  Thompson, Geoffrey A ^a  

^a US Army Dental and Trauma Research Detachment   (United States)

Author keywords

Ceramic; Dental materials; Dynamic Fatigue; Equibiaxial test; Failure origin; Fatigue; Flexural test; Fractography; In Ceram Alumina; Laminate

Indexed keywords

ALUMINA; BENDING STRENGTH; CERAMIC MATERIALS; COMPOSITE MATERIALS; CRACK INITIATION; CRACK PROPAGATION; DENTAL MATERIALS; FAILURE (MECHANICAL); FATIGUE OF MATERIALS; FATIGUE TESTING; FRACTOGRAPHY; GLASS; LAMINATES; MOISTURE; STATISTICAL METHODS; STRESSES;

DYNAMIC FATIGUE; EQUIBIAXIAL TESTS; FAILURE ORIGIN; FLEXURAL TESTS;

DENTISTRY;

ALUMINUM OXIDE; IN CERAM ALUMINA; IN-CERAM ALUMINA; VITADUR ALPHA;

ARTICLE; DENTAL CARE; DENTAL SURGERY; DENTURE; ELASTICITY; MATERIALS TESTING; PLIABILITY; SURVIVAL; TOOTH PROSTHESIS;

ALUMINUM OXIDE; DENTAL PORCELAIN; DENTAL RESTORATION FAILURE; DENTAL STRESS ANALYSIS; DENTAL VENEERS; ELASTICITY; MATERIALS TESTING; PLIABILITY; SURVIVAL ANALYSIS;

EID: 0346055583     PISSN: 01095641     EISSN: None     Source Type: Journal    
DOI: 10.1016/S0109-5641(03)00068-X     Document Type: Article

References (33)

1. Griffith A.A. Phenomenon of rupture and flow in solids. Philosophical Transactions of the Royal Society of London. A224:1920;163-198.
2. C 1368-01: standard test method for determination of slow crack growth parameters of advanced ceramics by constant stress-rate flexural testing at ambient temperature. Annual book of ASTM standards. Refractories; carbon and graphite products, activated carbon, advanced ceramics. vol. 15.01:2002;. p. 632-640.
3. E 1823-96: standard terminology relating to fatigue and fracture testing. Annual book of ASTM standards. Metals-mechanical testing; elevated and low-temperature tests; metallography. vol. 03.01:2001;. p. 1058-1078.
4. C 1361-96: standard practice for constant-amplitude, axial, tension-tension cyclic fatigue of advanced ceramics at ambient temperature. Annual book of ASTM standards. Refractories; carbon and graphite products, activated carbon, advanced ceramics. vol. 15.01:2002;. p. 597-604.
5. Wereszczak A.A., Kirkland T.P., Breder K., Lin H.-T., Andrews M.J. Biaxial strength, strength-size scaling, and fatigue resistance of alumina and aluminum nitrate substrates. International Journal of Microcircuits and Electronic Packaging. 22:(4):1999;446-458.
6. Marshall D.B. An improved biaxial flexure test for ceramics. Ceramic Bulletin. 59:1980;551-553.
7. C 1499-01: standard test method for monotonic equibiaxial flexural strength of advanced ceramics at ambient temperature. Annual book of ASTM standards. Carbon and graphite products, activated carbon, advanced ceramics. vol. 15.01:2002;. p. 779-788.
8. Wachtman J., J B., Capps W., Mandel J. Biaxial flexure tests of ceramic substrates. Journal of Materials. 7:1972;188-194.
9. Shetty D.K., Rosenfield A.R., Duckworth W.H., Held P.R. A biaxial-flexure test for evaluating ceramic strengths. Journal of the American Ceramic Society. 66:1983;36-42.
10. Weibull W. A statistical distribution function of wide applicability. Journal of Applied Mechanics. 18:1951;293-297.
11. C 1239-00: standard practice for reporting uniaxial strength data and estimating Weibull distribution parameters for advanced ceramics. Annual book of ASTM standards. Refractories; activated carbon, advanced ceramics. vol. 15.01:2002;. p. 283-299.
12. Morena R., Beaudreau G.M., Lockwood P.E., Evans A.L., Fairhurst C.W. Fatigue of dental ceramics in a simulated oral environment. Journal of Dental Research. 65:(7):1986;993-997.
13. Fairhurst C.W., Lockwood P.E., Ringle R.D., Twiggs S.W. Dynamic fatigue of feldspathic porcelain. Dental Materials. 9:1993;269-273.
14. Myers M.L., Ergle J.W., Fairhurst C.W., Ringle R.D. Fatigue characteristics of a high-strength porcelain. The International Journal of Prosthodontics. 7:(3):1994;253-257.
15. Myers M.L., Ergle J.W., Fairhurst C.W., Ringle R.D. Fatigue failure parameters of IPS-empress porcelain. The International Journal of Prosthodontics. 7:(6):1994;549-553.
16. Twiggs S.W., Fairhurst C.W., Lockwood P.E., Ringle R.D. Cyclic fatigue of a model feldspathic porcelain. Dental Materials. 11:1995;273-276.
17. Timoshenko S., Woinowsky-Krieger S. Special and approximate methods in theory of plates. Theory of plates of shells. 1959;McGraw Hill, New York. p. 325-328.
18. Standard test method for monotonic equibiaxial flexural strength of advanced ceramics at ambient temperature. Annual book of ASTM standards. Refractories; activated carbon, advanced ceramics. vol. 15.01:2002;. p. 779-788.
19. Thompson G.A. Influence of relative layer height and testing method on the failure mode and origin in a bilayered dental ceramic composite. Dental Materials. 16:(4):2000;235-245.
20. Service T.H., Ritter J.E. Jr, Jakus K., Sonderman D. Bimodal strength populations. American Ceramic Society Bulletin. 64:1985;1276-1280.
21. Abernethy R.B. The new Weibull handbook. North Palm Beach, FL. 2000;Author, North Palm Beach, FL.
22. Thompson G.A., Abernethy R.B., Kelly J.R. Determining Weibull two-parameter estimates by different methods [Abstract no. 1309]. Journal of Dental Research. 80:2001;199.
23. Fractography and characterization of fracture origins in advanced structural ceramics (MIL-HDBK-790). 1992;Defense Printing Service Detachment Office, Philadelphia, PA.
24. C 1322-96a: Standard practice for fractography and characterization of fracture origins in advanced ceramics. Annual book of ASTM standards. Refractories; carbon and graphite products, activated carbon, advanced ceramics. vol. 15.01:2002;. p. 427-471.
25. Frechette V.D. Procedures and techniques. Advances in ceramics: failure analysis of brittle materials. 1990;The American Ceramic Society, Westerville, OH. p. 83-92.
26. Thompson G.A. Unbiased estimates for the characteristic strength and Weibull modulus of In-Ceram bilaminate flexure disks as a function of load rate [abstract no. 162]. Journal of Dental Research. 79:2000;164.
27. McLean J.W., Hughes T.H. The reinforcement of dental porcelain with ceramic oxides. British Dental Journal. 119:(6):1965;251-267.
28. Sherrill C.A., O'Brien W.J. Transverse strength of aluminous and feldspathic porcelain. Journal of Dental Research. 53:(3):1974;683-690.
29. Kuo D.-H.K., Kriven W.M. A strong and damage-tolerant oxide laminate. Journal of the American Ceramic Society. 80:1997;2421-2424.
30. 3/TZ3Y composites produced by electrophoretic deposition. Journal of the American Ceramic Society. 84:2001;571-576.
31. Cazzato A., Faber K.T. Fracture energy of glass-alumina interfaces via the bimaterial bend test. Journal of the American Ceramic Society. 80:1997;181-188.
32. He M.-Y., Hutchinson J.W. Crack deflection at an interface between dissimilar elastic materials. International Journal of Solids Structures. 25:1989;1053-1067.
33. He M.Y., Evans A.G. Crack deflection at an interface between dissimilar elastic materials: role of residual stresses. International Journal of Solids Structures. 24:1994;3443-3455.