Filtek supreme

Manufactured by 3M

Sourced in United States

Filtek Supreme is a dental composite restorative material manufactured by 3M. It is designed to be used in dental procedures for restoring and repairing teeth. The product's core function is to provide a durable and aesthetically pleasing solution for filling and restoring teeth.

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Lab products found in correlation

Filtek z250, by 3M (2 mentions) Filtek p60, by 3M (1 mentions) Scotchbond universal adhesive, by 3M (1 mentions)

6 protocols using filtek supreme

Comparison of Composite Resin Performance

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Two different commercially available composite resins were compared in the study: a nano-filled composite resin (Filtek Supreme, 3M ESPE, St Paul, MN, USA) and a non-homogeneous micro-hybrid composite resin (Tetric EvoCeram, Ivoclar, Schaan, Liechtenstein) (Table 1). Before carrying out the test, a pilot study was performed, which involved the creation of three specimens for each material, conducted in the same way as the main test was performed. Sample size was determined to highlight a difference between the two composite test resins. To detect a difference between the two composite resins of one effect size considering a difference of 2.8 as being the smallest difference in whiteness magnitude discernible by the human eye [17 ] with a two-sided 5% significance level (Bonferroni correction α = 0.0036) and a power of 80%, a sample size of 30 specimens per group is necessary.
Thirty specimens were made for each of the two materials, ST GROUP: Filtek Supreme Test; ET GROUP: Evo Ceram Test. In addition, two control groups of 10 specimens each were added, SC GROUP: Filtek Supreme Control; EC GROUP: Evo Ceram Control. Figure 1 describes specimens preparation and analysis process.

Cinelli F., Scaminaci Russo D., Nieri M, & Giachetti L. (2022). Stain Susceptibility of Composite Resins: Pigment Penetration Analysis. Materials, 15(14), 4874.

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Characterization of commercial Photo-Activated RBC

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Three different types of commercial photo-activated resin-based composite (RBC) restorative materials (Filtek™ P60, Filtek™ Supreme and Filtek™ Z250, 3M ESPE, Bracknell, UK) were used. The resin system and filler particle size with their coloring shades are given in Table 1. The resin matrices in these commercial products are BIS-GMA, BIS-EMA, UDMA, where, in Filtek™ Supreme there is small amount of TEGDMA along with UDMA. In Filtek™ Supreme, the filler contains a combination of a non-agglomerated/non-aggregated, 20 nm nano-silica filler, and loosely bound agglomerated zirconia/silica nano-cluster, consisting of agglomerates of primary zirconia/silica particles with size of 5–20 nm fillers. The cluster particle size range is 0.6 to 1.4 microns. The filler loading is 78.5% by weight. In Filtek™ P60 and Filtek™ Z250, the particle size distribution of filler is 0.01 µm to 3.5 µm with an average particle size of 0.6 µm. The fillers are zirconia/silica with 61% and 60% by volume without silane treatment, respectively.

Kaleem M., Khan A.S., Rehman I.U, & Wong F.S. (2015). Effect of Beverages on Viscoelastic Properties of Resin-Based Dental Composites. Materials, 8(6), 2863-2872.

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Resin Relining Techniques Evaluation

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Each 3D-printed resin was divided into three groups according to the type of reline material, resulting in six groups in addition to the control group (n = 11 per group): Group EP used the E-Dent resin specimen as the base and was relined with PMMA (Alike); Group EB used the E-Dent resin specimen as the base and was relined with bis-acrylic (Integrity Multicore, Dentsply Sirona, Charlotte, NC, USA); Group EC used the E-Dent resin specimen as the base and was relined with composite resin (Filtek Supreme, 3M ESPE, Saint Paul, MN, USA); Group NP used the NexDent resin specimen as the base and was relined with PMMA; Group NB used the NextDent resin specimen as the base and was relined with bis-acrylic; Group NC used the NextDent resin specimen as the base and was relined with composite resin; Group PP served as the control group and used the PMMA specimen as the base and was relined with PMMA. Prior to placement of reline material on the base, in groups EP and NP, the surface was wetted with a PMMA monomer (Alike). In EC and NC groups, ScotchBond Universal adhesive (3M ESPE) was applied to the surface for 20 s and air thinned.

Palavicini J., Quin S.L., Zakkour W., Zakkour K., Manafi Varkiani S., Xu X., Lawson N.C, & Nejat A.H. (2023). Bond Strength of Reline Materials to 3D-Printed Provisional Crown Resins. Polymers, 15(18), 3745.

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Characterization of Photopolymerizable Composite Resins

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In this study, chemical, mechanical and morphological characterizations were performed according to these factors: (1) photopolymerizable composite resins at two levels: a nanofilled (Filtek Supreme; 3M ESPE, St. Paul, MN, USA) and micro-hybrid composite resin (Filtek Z250; 3M ESPE, St. Paul, MN, USA); (2) radiant exposure at three levels: 3.75 J/cm², 9 J/cm² and and 24 J/cm²; and (3) UV accelerated aging protocol at four levels: 0, 500, 1000 and 1500 aging hours (Figure 1). The constitution of the composite resins evaluated in this study is described in the Figure 2.

Cuevas-Suárez C.E., Meereis C.T., D’accorso N., Macchi R., Ancona-Meza A.L, & Zamarripa-Calderón E. (2019). Effect of radiant exposure and UV accelerated aging on physico-chemical and mechanical properties of composite resins. Journal of Applied Oral Science, 27, e20180075.

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Translucency Evaluation of Maxillary Aligner Teeth

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The two central incisors cut from four maxillary aligners were tested for translucency using a Vita Easyshade spectrophotometer (VITA Zahnfbarik, BadSackingen, Germany) (Figure 5A,B). Composite material (Filtek Supreme, 3M ESPE, Saint Paul, MN, USA) was used to create two central incisors using one of the aligners before cutting; this mould was held against the aligner specimens during testing. Each of two central incisors were tested six times at six different sites (disto-cervical, disto-incisal, mid-cervical, mid-incisal, mesio-cervical, and mesio-incisal), which accounted for six specimens. As per surface roughness testing, the same specimens in the control group were tested at baseline (CG1) and after storage in distilled water at 37 °C for 2 weeks (CG2). The specimens in the testing group were also tested at baseline (TG1) and after bleaching using 10% carbamide peroxide for 2 weeks (TG2). The translucency parameter was determined by calculating the colour difference between the specimen over a white (w) and a black (b) background using the following formula: TP =

\sqrt[2]{{(L_{w} - L_{b})}^{2} + {(a_{w} - a_{b})}^{2} + {(b_{w} - b_{b})}^{2}}

, where a, b, and L are the colour vectors used in the CIE system and measured by the spectrophotometer.

Khashashneh M., Ratnayake J., Choi J.J., Mei L., Lyons K, & Brunton P. (2023). The Effect of 10% Carbamide Peroxide Dental Bleaching on the Physical Properties of Invisalign Aligners: An In Vitro Study. Materials, 16(11), 4125.

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Bonding Protocols for Dental Composite

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After prophylaxis with pumice, the exposed dentinal surface was etched using 37.5% phosphoric acid (Best etch, Vista, Racine, Wisconsin, USA) for 15 seconds, then rinsed, and dried. OptiBoned FL adhesive system was used according to the manufacturer's instructions (Kerr, Orange, California, USA), then light cured for 20 seconds using a halogen LC unit Optilux 501 (Kerr, Orange, California, USA) with an intensity output of 800 mW/cm 2 . Composite (Filtek Supreme, 3M ESPE, St. Paul, MN, USA) was condensed with the aid of metal band as a matrix in increments, then light cured. Samples were stored in deionized water in an incubator (Fisher Scientific, Waltham, Massachusetts, USA) at a temperature of 37°C for 24 hours to allow the polymerization reaction of the composite to be completed. A 1-mm mark on the periphery of each sample was made with a marker so enamel could be excluded after sectioning.

Ismail E.H., Kilinc E., Hardigan P.C., Rothrock J.K., Thompson J.Y, & Garcia-Godoy C. (2017). Effect of Two-minute Application of 35% Sodium Ascorbate on Composite Bond Strength following Bleaching. The journal of contemporary dental practice, 18(10).

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