The dental market is replete with new restorative materials marketed on the basis of novel technological advances in materials chemistry, bonding capability or reduced operator time and/or technique sensitivity. This paper aims to consider advances in current materials, with an emphasis on their role in supporting contemporary clinical practice.
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References
1.
LucarottiPS, HolderRL, BurkeFJT. Outcome of direct restorations placed within the general dental services in England and Wales (Part 1): variation by type of restoration and re-intervention. Journal of Dentistry2005; 33: 805–815.
2.
ClaussenN, RuhleM, HeuerAH (eds.) Advances in Ceramics Vol. 12, Science and Technology of Zirconia II, The American Ceramic Society, Colombus, Ohio, 1983.
3.
AnusaviceKJ. Standardizing failure, success, and survival decisions in clinical studies of ceramic and metal-ceramic fixed dental prostheses. Dental Materials2012; 28: 102–111.
4.
BowenRL. Synthesis of a silica-resin direct filling material: Progress report. Journal of Dental Research1958; 37: 90–91.
5.
BowenRL. Dental filling materials comprising of vinyl-silane treated fused silica and binder consisting of the reaction product of bisphenol and glycidyl methacrylate. 1962. US Patent 3,066,112.
6.
DartEC, CantwellJB, TraynorJR, TaworzynJF, NemeckJ.Method of repairing teeth using a composition which is curable by visible light. 1978. US Patent 4,089,763.
7.
Van MeerbeekB, PeumansM, PoitevinA, MineA, Van EndeA, NeverA, De MunckJ.Relationship between bond-strength tests and clinical outcomes. Dental Materials2010; 26: e100–e121.
8.
LeprinceJG, PalinWM, HadisMA, DevauxJ, LeloupG.Progress in dimethacrylate-based dental composite technology and curing efficiency. Dental Materials2013; 29: 139–156.
9.
MitraSB, WuD, HolmesBN. An application of nanotechnology in advanced dental materials. Journal of American Dental Association2003; 134: 1382–1390.
10.
SakaguchiRL, DouglasWH, PetersMC. Curing light performance and polymerization of composite restorative materials. Journal of Dentistry1992; 20: 183–188.
11.
DavidsonCL, FeilzerAJ. Polymerisation shrinkage and polymerisation shrinkage stress in polymer-based restoratives. Journal of Dentistry1997; 25: 435–440.
12.
PelissierB, JacquotB, PalinWM, ShortallAC. Three generations of LED lights and clinical implications for optimizing their use. 1: from past to present. Dental Update2011; 38: 660–662, 664–666, 668–670.
13.
FlemingGJP, AwanM, CooperPR, SloanAJ. The potential of a resin-composite to be cured to a 4mm depth. Dental Materials2008; 24: 522–529.
14.
Product specification for SDR (Dentsply Caulk, Milford, DE, USA).
15.
RoggendorfMJ, KramerN, AppeltA, NaumannM, FrankenbergerR.Marginal quality of flowable 4-mm base vs. conventionally layered resin composite. Journal of Dentistry2011; 39: 643–647.
16.
CampodonicoCE, TantbirojnD, OlinPS, VersluisA.Cuspal deflection and depth of cure in resin-based composite restorations filled by using bulk, incremental and transtooth-illumination techniques. Journal of the American Dental Association2011; 142: 1176–1182.
17.
MoorthyA, HoggCH, DowlingAH, GruffertyBF, BenettiAR, FlemingGJP. Cuspal deflection and microleakage in premolar teeth restored with bulk-fill flowable resin-based composite base materials. Journal of Dentistry2012; 40: 500–505.
18.
Van EndeA, De MunchJ, Van LanduytKL, PoitevinA, PeumansM, Van MeerbeekB.Bulk-filling of high C-factor posterior cavities: Effect on adhesion to cavity bottom dentin. Dental Materials2013; 29: 269–277.
19.
CzaschP, IlieN.In vitro comparison of mechanical properties and degree of cure of bulk-fill composites. Clinical Oral Investigations2013; 17: 227–235.
20.
FinanL, PalinWM, MoskwaN, McGinleyEL, FlemingGJP. The influence of irradiation potential on the degree of conversion and mechanical properties of two bulk-fill flowable RBC base materials. Dental Materials2013; 29: 906–912.
21.
BhamraGS, FlemingGJP, DarvellBW. Influence of LED irradiance on flexural properties and Vickers hardness of resin-based composite materials. Dental Materials2010; 26: 148–155.
KleverlannCJ, FeilzerAJ. Polymerization shrinkage and contraction stress of dental resin composites. Dental Materials2005; 21: 1150–1157.
24.
GuggenbergerR, WeinmannW.Exploring beyond methacrylates. American Journal of Dentistry2000; 13: 82D–84D.
25.
PalinWM, FlemingGJ, NathwaniH, BurkeFJ, RandallRC. In vitro cuspal deflection and microleakage of maxillary premolars restored with novel low-shrink dental composites. Dental Materials2005; 21: 324–335.
26.
PalinWM, FlemingGJP, BurkeFJT, MarquisPM, PintadoMR, RandallRC, DouglasWH. The frictional coefficients and associated wear resistance of novel low-shrink resin-based composites. Dental Materials2005; 21:1111–1118.
27.
PriceRBT, StrasslerHE, PriceHL, SethS, LeeCJ. The effectiveness of using a patient simulator to teach light-curing skills. Journal of the American Dental Association2014; 145: 32–43.
28.
FederlinM, PriceRBT. Improving light-curing instruction in dental school. Journal of Dental Education2013; 77: 764–772.
29.
BurkeFJT. Light curing may not be as simple as it seems!Dental Update2011; 38: 149.
30.
De MunckJ, Van LanduytK, PeumansM, PoitevinA, LambrechtsP, BraemM, Van MeerbeekB.A critical review of the durability of adhesion to tooth tissue: Methods and results. Journal of Dental Research2005; 84: 118–132.
31.
Van MeerbeekB, YoshiharaK, YoshidaY, MineA, De MunckJ, Van LanduytKL. State of the art of self-etch adhesives. Dental Materials2011; 27: 17–28.
32.
HanabusaM, MineA, KubokiT, MomoiY, Van EndeA, Van MeerbeekB, De MunckJ.Bonding effectiveness of a new ‘multi-mode’ adhesive to enamel and dentine. Journal of Dentistry2012; 40: 475–484.
33.
PerdigãoJ, SezinandoA, MonteiroPC. Laboratory bonding ability of a multi-purpose dentin adhesive. American Journal of Dentistry2012; 25: 153–158.
34.
RoederL, PereiraPNR, YamamotoT, IlieN, ArmstrongS, FerracaneJL. Spotlight on bond strength testing – Unravelling the complexities. Dental Materials2011; 27: 1197–1203.
35.
FerracaneJL, HiltonTJ, SakaguchiRL. Editorial: Introduction to and outcomes of the conference on adhesion in dentistry. Dental Materials2010; 26: 105–107.
36.
YoshidaY, Van MeerbeekB, NakayamaY, YoshiokaM, SnauwaertJ, AbeY, LambrechtsP, VanherleG, OkazakiM.Adhesion to and decalcification of hydroxyapatite by carboxylic acids. Journal of Dental Research2001; 80: 1565–1569.
37.
YoshiokaM, YoshidaY, InoueS, LambrechtsP, VanherleG, NomuraY, OkazakiM, ShintaniH, Van MeerbeekB.Adhesion/decalcification mechanisms of acid interactions with human hard tissues. Journal of Biomedical Materials Research2002; 59: 56–62.
38.
WilsonAD, BatchelorRF. Dental silicate cements I the chemistry of erosion. Journal of Dental Research1967; 46: 1078–1085.
39.
WilsonAD, BatchelorRF. Dental silicate cements II preparation and durability. Journal of Dental Research1967; 46: 1425–1432.
40.
WilsonAD, BatchelorRF. Dental silicate cements III environment and durability. Journal of Dental Research1968; 47: 115–120.
41.
WilsonAD. Dental silicate cements IV alternative liquid cement formers. Journal of Dental Research1968; 47: 1133–1136.
42.
WilsonAD. A hard decade's work: steps in the invention of the glass-ionomer cement. Journal of Dental Research1996; 75: 1723–1727.
43.
WilsonAD, CrispS, FernerAJ. Reactions in glass-ionomer cements IV effect of chelating comonomers on setting behavior. Journal of Dental Research1976; 55: 489–495.
44.
McLeanJW, WilsonAD. The clinical development of the glass-ionomer cement II some clinical applications. Australian Dental Journal1977; 22: 120–127.
45.
WilsonAD. Developments in glass-ionomer cements. International Journal of Prosthodontics1989; 2: 438–446.
46.
GuggenbergerR, MayR, StefanKP. New trends in glass-ionomer chemistry. Biomaterials1998; 19: 503–508.
47.
CrispS, LewisBG, WilsonAD. Characterization of glass-ionomer cements 3 effect of polyacid concentration on the physical properties. Journal of Dentistry1977; 5: 51–56.
48.
HillRG, WilsonAD, WarrensCP. The influence of poly(acrylic acid) molecular weight on the fracture toughness of glass-ionomer cements. Journal of Materials Science1989; 24: 363–371.
BillingtonRW, WilliamsJA, PearsonGJ. Variation in powder/liquid ratio of a restorative glass-ionomer cement used in dental practice. British Dental Journal1990; 169: 164–167.
51.
MountGJ. Glass-ionomer materials. In: MountGJ, HumeWR, editors. Preservation and restoration of tooth structure. 2nd edition. Brisbane: Knowledge books and software, 2005. p.163–198.
52.
NomotoR, McCabeJF. Effect of mixing methods on the compressive strength of glass ionomer cements. Journal of Dentistry2001; 29: 205–210.
53.
BassEV, WingG.The mixing of encapsulated glass ionomer cement restorative materials. Australian Dental Journal1988; 33: 243.
54.
International Organization for Standardization ISO 9917–1 – dentistry – water-based cements.Part 1: powder/liquid acid–base cements. (1st ed.) (2003)
55.
DowlingAH, StamboulisA, FlemingGJP. The influence of montmorillonite clay reinforcement on the performance of a glass ionomer restorative. Journal of Dentistry2006; 34: 802–810.
56.
DowlingAH, FlemingGJP. The influence of poly(acrylic) acid number average molecular weight and concentration in solution on the compressive fracture strength and modulus of a glass-ionomer restorative. Dental Materials2011; 27: 535–543.
57.
DowlingAH, FlemingGJP. Can poly(acrylic) acid molecular weight mixtures improve the compressive fracture strength and elastic modulus of a glass-ionomer restorative?Dental Materials2011; 27:1170–1179.