Mechanistic aspects of fatigue crack growth behavior in resin based dental restorative composites

Dental Materials

Volumn 25, Issue 7, 2009, Pages 909-916

  Shah, M B ^a   Ferracane, J L ^b   Kruzic, J J ^a  

^a 1148 Kelley Engineering Center Corvallis   (United States)

^b OREGON HEALTH AND SCIENCE UNIVERSITY   (United States)

Author keywords

Crack bridging; Crack growth; Fatigue; Hydration; Resin composite

Indexed keywords

COMPACT TENSION; CRACK BRIDGING; CRACK DEFLECTIONS; CRACK GROWTH; CRACK PATHS; CYCLIC FATIGUE; DENTAL RESTORATIVE COMPOSITES; ENVIRONMENTAL ATTACK; FATIGUE; FATIGUE BEHAVIOR; FATIGUE CRACK GROWTH; FATIGUE CRACK GROWTH BEHAVIOR; FATIGUE CRACK GROWTH CURVES; FATIGUE CRACK GROWTH RATES; FATIGUE CRACK PATHS; FATIGUE DEGRADATION; FATIGUE PROCESS; FATIGUE RESISTANCE; FATIGUE THRESHOLD; FRACTURE SURFACES; LOAD RATIO; MATRIX; MECHANISTIC ASPECTS; MICROMECHANISMS; REINFORCING PARTICLES; RESIN COMPOSITE; RESIN COMPOSITES; RESIN-BASED COMPOSITE; RESIN-BASED DENTAL COMPOSITES; SEM OBSERVATION; STRESS INTENSITY RANGE; TOUGHENING MECHANISMS; WATER HYDRATION; WET CONDITIONS;

CRACK DETECTION; CRACKING (CHEMICAL); DENTAL COMPOSITES; FATIGUE OF MATERIALS; HYDRATION; RESINS; TENSILE STRENGTH; WELDS;

FATIGUE CRACK PROPAGATION;

2,2 BIS (4 (2 METHACRYLOXYETHOXY)PHENYL)PROPANE; 2,2-BIS-(4-(2-METHACRYLOXYETHOXY)PHENYL)PROPANE; BIOMEDICAL AND DENTAL MATERIALS; BISPHENOL A BIS(2 HYDROXYPROPYL) ETHER DIMETHACRYLATE; FILTEK SUPREME PLUS; FILTEK Z250; MACROGOL DERIVATIVE; METHACRYLIC ACID DERIVATIVE; NANOCOMPOSITE; POLYMETHACRYLIC ACID DERIVATIVE; POLYURETHAN; RESIN; SILICON DIOXIDE; TRIETHYLENE GLYCOL DIMETHACRYLATE; URETHANE DIMETHACRYLATE LUTING RESIN; WATER; ZIRCONIUM; ZIRCONIUM OXIDE;

ARTICLE; CHEMISTRY; HUMAN; LIGHT; MATERIALS TESTING; MECHANICAL STRESS; METHODOLOGY; PARTICLE SIZE; PHOTOCHEMISTRY; SCANNING ELECTRON MICROSCOPY; SURFACE PROPERTY; TIME; TOOTH BRUSHING;

BISPHENOL A-GLYCIDYL METHACRYLATE; COMPOSITE RESINS; DENTAL MATERIALS; DENTAL POLISHING; HUMANS; LIGHT; MATERIALS TESTING; METHACRYLATES; MICROSCOPY, ELECTRON, SCANNING; NANOCOMPOSITES; PARTICLE SIZE; PHOTOCHEMICAL PROCESSES; POLYETHYLENE GLYCOLS; POLYMETHACRYLIC ACIDS; POLYURETHANES; SILICON DIOXIDE; STRESS, MECHANICAL; SURFACE PROPERTIES; TIME FACTORS; WATER; ZIRCONIUM;

EID: 67349280342     PISSN: 01095641     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.dental.2009.01.097     Document Type: Article

References (39)

1. Drummond J.L. Cyclic fatigue of composite restorative materials. J Oral Rehabil 16 (1989) 509-520
2. Kruzic J.J., Nalla R.K., Kinney J.H., and Ritchie R.O. Mechanistic aspects of in vitro fatigue-crack growth in dentin. Biomaterials 26 (2005) 1195-1204
3. Garoushi S., Lassila L.V.J., Tezvergil A., and Vallittu P.K. Static and fatigue compression test for particulate filler composite resin with fiber-reinforced composite substructure. Dent Mater 23 (2007) 17-23
4. Bernardo M., Luis H., Martin M., Leroux B., Rue T., Leitão J., et al. Survival and reasons for failure of amalgam versus composite posterior restorations placed in a randomized clinical trial. J Am Dent Assoc 138 (2007) 775-783
5. Collins C.J., Bryant R.W., and Hodge K.-L.V. A clinical evaluation of posterior composite resin restorations: 8-year findings. J Dent 26 (1998) 311-317
6. Truong V.T., and Tyas M.J. Prediction of in vivo wear in posterior composite resins: a fracture mechanics approach. Dent Mater 4 (1988) 318-327
7. Truong V.-T., Cock D.J., and Padmanathan N. Fatigue crack propagation in posterior dental composites and prediction of clinical wear. J Appl Biomater 1 (1990) 21-30
8. Anderson T.L. Fracture mechanics: fundamentals and applications (2005), CRC, Taylor and Francis Group
9. Brown W.S., Jacobs H.R., and Thompson R.E. Thermal fatigue in teeth. J Dent Res 51 (1972) 461-467
10. Rodrigues S.A., Ferracane J.L., and Della Bona A. Flexural strength and Weibull analysis of a microhybrid and a nanofill composite evaluated by 3- and 4-point bending tests. Dent Mater 24 (2008) 426-431
11. Paris P.C., and Erdogan F. A critical analysis of crack propagation laws. J Basic Eng 85 (1963) 528-534
12. Takeshige F., Kawakami Y., Hayashi M., and Ebisu S. Fatigue behavior of resin composites in aqueous environments. Dent Mater 23 (2007) 893-899
13. Loughran G.M., Versluis A., and Douglas W.H. Evaluation of sub-critical fatigue crack propagation in a restorative composite. Dent Mater 21 (2005) 252-261
14. Soappman M., Nazari A., Porter J., and Arola D. A comparison of fatigue crack growth in resin composite, dentin and the interface. Dent Mater 23 (2007) 608-614
15. Kawakami Y., Takeshige F., Hayashi M., and Ebisu S. Fatigue of tooth-colored restoratives in aqueous environment. Dent Mater 26 (2007) 1-6
16. Braem M.J.A., Lambrechts P., Gladys S., and Vanherle G. In vitro fatigue behavior of restorative composites and glass ionomers. Dent Mater 11 (1995) 137-141
17. Lohbauer U., Frankenberger R., Kramer N., and Petschelt A. Time-dependent strength and fatigue resistance of dental direct restorative materials. J Mater Sci Mater Med 14 (2003) 1047-1053
18. Mitra S.B., Wu D., and Holmes B.N. An application of nanotechnology in advanced dental materials. J Am Dent Assoc 134 (2003) 1382-1390
19. Shah MB, Ferracane JL, Kruzic JJ. R-curve behavior and micromechanisms of fracture in resin based dental restorative composites. J Mech Behav Biomed Mater; in press, doi:10.1016/j.jmbbm.2008.12.005.
20. Shah M.B., Ferracane J.L., and Kruzic J.J. R-curve behavior and toughening mechanisms of resin based dental composites: effects of hydration and post-cure heat treatment. Dent Mater 25 (2009) 760-770
21. ASTM E647. Standard test method for measurement of fatigue crack growth rates. 2000.
22. Newman J.C. Stress-intensity factors and crack-opening displacements for round compact specimens. Int J Fract 17 (1981) 567-578
23. Bajaj D., Sundaram N., Nazari A., and Arola D. Age, dehydration and fatigue crack growth in dentin. Biomaterials 27 (2006) 2507-2517
24. Rödel J. Crack closure forces in ceramics: characterization and formation. J Eur Ceram Soc 9 (1992) 323-334
25. Evans A.G. Perspective on the development of high toughness ceramics. J Am Ceram Soc 73 (1990) 187-206
26. Braem M., Lambrechts P., and Vanherle G. Clinical relevance of laboratory fatigue studies. J Dent 22 (1994) 97-102
27. Watts D.C. Elastic moduli and viscoelastic relaxation. J Dent 22 (1994) 154-158
28. Calais J.G., and Söderholm K.J.M. Influence of filler type and water exposure on flexural strength of experimental composite resins. J Dent Res 67 (1988) 836-840
29. Söderholm K.J.M., and Roberts M.J. Influence of water exposure on the tensile strength of composites. J Dent Res 69 (1990) 1812-1816
30. Söderholm K.J., Zigan M., Ragan M., Fischlschweiger W., and Bergman M. Hydrolytic degradation of dental composites. J Dent Res 63 (1984) 1248-1254
31. Lohbauer U., von der Horst T., Frankenberger R., Kramer N., and Petschelt A. Flexural fatigue behavior of resin composite dental restoratives. Dent Mater 19 (2003) 435-440
32. Turssi C.P., Ferracane J.L., and Ferracane L.L. Wear and fatigue behavior of nano-structured dental resin composites. J Biomed Mater Res B Appl Biomater 78B (2006) 196-203
33. Ritchie R.O. Mechanisms of fatigue-crack propagation in ductile and brittle solids. Int J Fract 100 (1999) 55-83
34. Suresh S. Fatigue of materials (1998), Cambridge University Press p. 679
35. Nalla R.K., Imbeni V., Kinney J.H., Staninec M., Marshall S.J., and Ritchie R.O. In vitro fatigue behavior of human dentin with implications for life prediction. J Biomed Mater Res A 66A (2003) 10-20
36. Yuan R., Kruzic J.J., Zhang X.F., De JongheL.C., and Ritchie R.O. Ambient to high-temperature fracture toughness and cyclic fatigue behavior in Al-containing silicon carbide ceramics. Acta Mater 51 (2003) 6477-6491
37. Gilbert C.J., and Ritchie R.O. Mechanisms of cyclic fatigue-crack propagation in a fine-grained alumina ceramic: the role of crack closure. Fatigue Fract Eng Mater Struct 20 (1997) 1453-1466
38. Campbell J.P., Venkateswara Rao K.T., and Ritchie R.O. The effect of microstructure on fracture toughness and fatigue-crack growth behavior in g-based titanium aluminide intermetallics. Metall Mater Trans 30A (1999) 563-577
39. Curtis A.R., Shortall A.C., Marquis P.M., and Palin W.M. Water uptake and strength characteristics of a nanofilled resin-based composite. J Dent 36 (2008) 186-193