Degree of conversion of luting resins around ceramic inlays in natural deep cavities: A micro-raman spectroscopy analysis

Operative Dentistry

Volumn 35, Issue 5, 2010, Pages 579-586

  Lohbauer, U ^a   Pelka, M ^a   Belli, R ^a,b   Schmitt, J ^a   Mocker, E ^c   Jandt, K D ^c   Muller F A ^c  

^a UNIVERSITY OF ERLANGEN NUREMBERG   (Germany)

^b FEDERAL UNIVERSITY OF SANTA CATARINA   (Brazil)

^c FriedrichAlexander University of Erlangen ^*  (Germany)

Author keywords

[No Author keywords available]

Indexed keywords

ALUMINUM SILICATE; CLEARFIL ESTHETIC CEMENT; GRANDIO; IPS EMPRESS CERAMIC; IPS-EMPRESS CERAMIC; MAXCEM; POLYMER; RELY X UNICEM; RESIN; RESIN CEMENT; SYNTAC DENTINE ADHESIVE; VARIOLINK; DENTAL PORCELAIN;

ARTICLE; CHEMISTRY; CLASSIFICATION; CLINICAL TRIAL; COMPARATIVE STUDY; COMPUTER AIDED DESIGN; CONTROLLED CLINICAL TRIAL; CONTROLLED STUDY; DENTAL ACID ETCHING; DENTAL EQUIPMENT; DENTAL SURGERY; ENAMEL; HUMAN; METHODOLOGY; MICROSPECTROPHOTOMETRY; RAMAN SPECTROMETRY; RANDOMIZED CONTROLLED TRIAL; TIME; TOOTH PROSTHESIS; ULTRASTRUCTURE; VIBRATION; DENTAL CURING LIGHT; DENTAL INLAY; PROCEDURES;

ACID ETCHING, DENTAL; ALUMINUM SILICATES; COMPOSITE RESINS; COMPUTER-AIDED DESIGN; CURING LIGHTS, DENTAL; DENTAL CAVITY PREPARATION; DENTAL ENAMEL; DENTAL PORCELAIN; HUMANS; INLAYS; MICROSPECTROPHOTOMETRY; POLYMERS; RESIN CEMENTS; SPECTRUM ANALYSIS, RAMAN; TIME FACTORS; VIBRATION;

EID: 77957198638     PISSN: 03617734     EISSN: None     Source Type: Journal    
DOI: 10.2341/10-012-L     Document Type: Article

References (44)

1. Ferracane JL, Berge HX & Condon JR (1998) In vitro aging of dental composites in water-effect of degree of conversion, filler volume, and filler/matrix coupling Journal of Biomedical Materials Research 42(3) 465-472.
2. Lohbauer U, Rahiotis C, Kramer N, Petschelt A & Eliades G (2005) The effect of different light-curing units on fatigue behavior and degree of conversion of a resin composite Dental Materials 21(7) 608-615.
3. Nihei T, Dabanoglu A, Teranaka T, Kurata S, Ohashi K, Kondo Y, Yoshino N, Hickel R & Kunzelmann KH (2008) Three-body-wear resistance of the experimental composites containing filler treated with hydrophobic silane coupling agents Dental Materials 24(6) 760-764.
4. Ausiello P, Rengo S, Davidson CL & Watts DC (2004) Stress distributions in adhesively cemented ceramic and resin-composite Class II inlay restorations: A 3D-FEA study Dental Materials 20(9) 862-872.
5. Groten M & Probster L (1997) The influence of different cementation modes on the fracture resistance of feldspathic ceramic crowns International Journal of Prosthodontics 10(2) 169-177.
6. Camacho GB, Goncalves M, Nonaka T & Osorio AB (2007) Fracture strength of restored premolars American Journal of Dentistry 20(2) 121-124.
7. Ferracane JL (2006) Hygroscopic and hydrolytic effects in dental polymer networks Dental Materials 22(3) 211-222.
8. Caughman WF, Caughman GB, Shiflett RA, Rueggeberg F & Schuster GS (1991) Correlation of cytotoxicity, filler loading and curing time of dental composites Biomaterials 12(8) 737-740.
9. Heffernan MJ, Aquilino SA, Diaz-Arnold AM, Haselton DR, Stanford CM & Vargas MA (2002) Relative translucency of six all-ceramic systems. Part I: Core materials Journal of Prosthetic Dentistry 88(1) 4-9.
10. Peixoto RT, Paulinelli VM, Sander HH, Lanza MD, Cury LA & Poletto LT (2007) Light transmission through porcelain Dental Materials 23(11) 1363-1368.
11. Lee IB, An W, Chang J & Um CM (2008) Influence of ceramic thickness and curing mode on the polymerization shrinkage kinetics of dual-cured resin cements Dental Materials 24(8) 1141-1147.
12. Hie N & Hickel R (2008) Correlation between ceramics translucency and polymerization efficiency through ceramics Dental Materials 24(7) 908-914.
13. Meng X, Yoshida K & Atsuta M (2008) Influence of ceramic thickness on mechanical properties and polymer structure of dual-cured resin luting agents Dental Materials 24(5) 594-599.
14. Rueggeberg FA & Craig RG (1988) Correlation of parameters used to estimate monomer conversion in a light-cured composite Journal of Dental Research 67(6) 932-937.
15. Soh MS, Yap AU, Yu T & Shen ZX (2004) Analysis of the degree of conversion of LED and halogen lights using microRaman spectroscopy Operative Dentistry 29(5) 571-577.
16. Calheiros FC, Kawano Y, Stansbury JW & Braga RR (2006) Influence of radiant exposure on contraction stress, degree of conversion and mechanical properties of resin composites Dental Materials 22(9) 799-803.
17. Shin WS, Li XF, Schwartz B, Wunder SL & Baran GR (1993) Determination of the degree of cure of dental resins using Raman and FT-Raman spectroscopy Dental Materials 9(5) 317-324.
18. Frankenberger R, Petschelt A & Krämer N (2000) Leucitereinforced glass ceramic inlays and onlays after six years: Clinical behavior Operative Dentistry 25(6) 459-465.
19. Koch A, Kroeger M, Härtung M, Manetsberger I, Hiller KA, Schmalz G & Friedl KH (2007) Influence of ceramic translucency on curing efficacy of different light-curing units Journal of Adhesive Dentistry 9(5) 449-462.
20. Soares CJ, da Silva NR & Fonseca RB (2006) Influence of the feldspathic ceramic thickness and shade on the microhardness of dual resin cement Operative Dentistry 31(3) 384-389.
21. Jung H, Friedl KH, Hiller KA, Furch H, Bernhart S & Schmalz G (2006) Polymerization efficiency of different photocuring units through ceramic discs Operative Dentistry 31(1) 68-77.
22. el-Mowafy OM, Rubo MH & el-Badrawy WA (1999) Hardening of new resin cements cured through a ceramic inlay Operative Dentistry 24(1) 38-44.
23. Pazin MC, Moraes RR, Gonçalves LS, Borges GA, Sinhoreti MA & Correr-Sobrinho L (2008) Effects of ceramic thickness and curing unit on light transmission through leucite-reinforced material and polymerization of dual-cured luting agent Journal of Oral Science 50(2) 131-136.
24. Foxton RM, Pereira PN, Nakajima M, Tagami J & Miura H (2003) Effect of light source direction and restoration thickness on tensile strength of a dual-curable resin cement to copy-milled ceramic American Journal of Dentistry 16(2) 129-134.
25. Bennett AW & Watts DC (2004) Performance of two blue light-emitting-diode dental light curing units with distance and irradiation-time Dental Materials 20(1) 72-79.
26. dos Santos GB, Alto RV, Filho HR, da Silva EM & Fellows CE (2008) Light transmission on dental resin composites Dental Materials 24(5) 571-576.
27. Santos GB, Medeiros IS, Fellows CE, Muench A & Braga RR (2007) Composite depth of cure obtained with QTH and LED units assessed by microhardness and micro-Raman spectroscopy Operative Dentistry 32(1) 79-83.
28. Tsai PC, Meyers IA & Walsh LJ (2004) Depth of cure and surface microhardness of composite resin cured with blue LED curing lights Dental Materials 20(4) 364-369.
29. Myers ML, Caughman WF & Rueggeberg FA (1994) Effect of restoration composition, shade, and thickness on the cure of a photoactivated resin cement Journal of Prosthodontics 3(3) 149-157.
30. Blackman R, Barghi N & Duke E (1990) Influence of ceramic thickness on the polymerization of light-cured resin cement Journal of Prosthetic Dentistry 63(3) 295-300.
31. Musanje L & Darvell BW (2006) Curing-light attenuation in filled-resin restorative materials Dental Materials 22(9) 804-817.
32. Li J, Fok AS, Satterthwaite J & Watts DC (2009) Measurement of the full-field polymerization shrinkage and depth of cure of dental composites using digital image correlation Dental Materials 25(5) 582-588.
33. Calheiros FC, Braga RR, Kawano Y & Ballester RY (2004) Relationship between contraction stress and degree of conversion in restorative composites Dental Materials 20(10) 939-946.
34. Braga RR & Ferracane JL (2002) Contraction stress related to degree of conversion and reaction kinetics Journal of Dental Research 81(2) 114-118.
35. Pianelli C, Devaux J, Bebelman S & Leloup G (1999) The micro-Raman spectroscopy, a useful tool to determine the degree of conversion of light-activated composite resins Journal of Biomedical Materials Research 48(5) 675-681.
36. Feng L, Carvalho R & Suh BI (2009) Insufficient cure under the condition of high irradiance and short irradiation time Dental Materials 25(3) 283-289.
37. Acquaviva PA, Cerutti F, Adami G, Gagliani M, Ferrari M, Gherlone E & Cerutti A (2009) Degree of conversion of three composite materials employed in the adhesive cementation of indirect restorations: A micro-Raman analysis Journal of Dentistry 37(8) 610-615.
38. Ogunyinka A, Palin WM, Shortall AC & Marquis PM (2007) Photoinitiation chemistry affects light transmission and degree of conversion of curing experimental dental resin composites Dental Materials 23(7) 807-813.
39. Spinell T, Schedle A & Watts DC (2009) Polymerization shrinkage kinetics of dimethacrylate resin-cements Dental Materials 25(8) 1058-1066.
40. Sakaguchi RL, Wiltbank BD & Murchison CF (2005) Cure induced stresses and damage in particulate reinforced polymer matrix composites: A review of the scientific literature Dental Materials 21(1) 43-46.
41. Stansbury JW & Dickens SH (2001) Network formation and compositional drift during photo-initiated copolymerization of dimethacrylate monomers Polymer 42 6363-6369.
42. Tezvergil-Mutluay A, Lassila LV & Vallittu PK (2007) Degree of conversion of dual-cure luting resins light-polymerized through various materials Acta Odontologica Scandinavica 65(4) 201-205.
43. Krämer N & Frankenberger R (2005) Clinical performance of bonded leucite-reinforced glass ceramic inlays and onlays after eight years Dental Materials 21(3) 262-271.
44. Frankenberger R, Taschner M, García-Godoy F, Petschelt A & Krämer N (2008) Leucite-reinforced glass ceramic inlays and onlays after 12 years Journal of Adhesive Dentistry 10(5) 393-398.