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Editorial
. 2020 Jun;15(2):206-223.
doi: 10.26574/maedica.2020.15.2.206.

The Effect of Mechanical and Chemical Surface Preparation Methods on the Bond Strength in Repairing the Surface of Metal-Ceramic Crowns with Composite Resin: a Systematic Review and Meta-Analysis

Affiliations
Editorial

The Effect of Mechanical and Chemical Surface Preparation Methods on the Bond Strength in Repairing the Surface of Metal-Ceramic Crowns with Composite Resin: a Systematic Review and Meta-Analysis

Farzaneh Shirani et al. Maedica (Bucur). 2020 Jun.

Abstract

The aim of this study was to find the most effective surface preparation methods to enhance the bond strength between the composite resin and surface remaining from ceramic fracture. In this systematic review and meta-analysis, 39 studies were examined. The information related to the studies was extracted and categorized based on the type of the substrate material and applying or not applying thermal cycles (p<0.05). In the meta-analysis of substrate metal-ceramic samples without aging, application of air abrasion resulted in a significant increase of the bond strength to composite resin when using chemical compounds of the group without the mentioned functional monomers. Application of mechanical and chemical surface preparation methods can result in enhanced bond strength of the composite to the substrate material, which depends on the type of substrate material.

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Figures

TABLE 1.
TABLE 1.
Selected keywords based on PICO pattern
TABLE 2.
TABLE 2.
Search strategy used in PubMed (MEDLINE) and EBSCO
TABLE 3.
TABLE 3.
Demographic data of included studies in non-aged base metal group
FIGURE 1.
FIGURE 1.
Results for the analysis of the mean bond strength of composite resins to base metal alloys without aging. A. Surface treatment by using air abrasion + phosphate monomers (ME-SB+CHE-P) versus air abrasion + R- monomers (ME-SB+CHE-R).
FIGURE 1.
FIGURE 1.
Results for the analysis of the mean bond strength of composite resins to base metal alloys without aging. B. Surface treatment by using air abrasion + phosphate monomers (ME-SB+CHE-P) versus air abrasion + 4-MET monomers (ME-SB+CHE-MET).
FIGURE 1.
FIGURE 1.
Results for the analysis of the mean bond strength of composite resins to base metal alloys without aging. C. Surface treatment by using air abrasion + phosphate monomers (ME-SB+CHE-P) versus air abrasion+ phosphate and sulfur monomers (ME-SB+CHE-P+ CHE-Q).
FIGURE 1.
FIGURE 1.
Results for the analysis of the mean bond strength of composite resins to base metal alloys without aging. D. Surface treatment by using air abrasion + phosphate monomers (ME-SB+CHE-P) versus air abrasion + phosphate and 4-MET monomers (ME-SB+CHE-P+CHE-MET).
FIGURE 1.
FIGURE 1.
Results for the analysis of the mean bond strength of composite resins to base metal alloys without aging. E. Surface treatment by using air abrasion + R - monomers (ME-SB+CHE-R) versus air abrasion + 4- MET monomers (ME-SB+CHE-MET).
FIGURE 1.
FIGURE 1.
Results for the analysis of the mean bond strength of composite resins to base metal alloys without aging. F. Surface treatment by using air abrasion+ R- monomers (ME-SB+CHE-R) versus using R- monomers (ME-no treatment + CHE-R).
FIGURE 1.
FIGURE 1.
Results for the analysis of the mean bond strength of composite resins to base metal alloys without aging. G. Surface treatment by using air abrasion+ R- monomers (ME-SB+CHE-R) versus air abrasion + phosphate and sulfur- monomers (ME-SB+ CHE-P+ CHE-Q).
FIGURE 1.
FIGURE 1.
Results for the analysis of the mean bond strength of composite resins to base metal alloys without aging. H. Surface treatment by using air abrasion + R - monomers (ME-SB+CHE-R) versus air abrasion + phosphate and 4-MET monomers (ME-SB+CHE-P+CHE-MET).
FIGURE 1.
FIGURE 1.
Results for the analysis of the mean bond strength of composite resins to base metal alloys without aging. I. Surface treatment by using air abrasion + 4-MET monomers (ME-SB+CHE-MET) versus air abrasion + phosphate and sulfur monomers (ME-SB+CHE-P+CHE-Q)
FIGURE 1.
FIGURE 1.
Results for the analysis of the mean bond strength of composite resins to base metal alloys without aging. J. Surface treatment by using air abrasion + 4-MET monomers (ME-SB+CHE-MET) versus air abrasion + phosphate and 4-MET monomers (ME-SB+CHE-P+CHE-MET).
FIGURE 1.
FIGURE 1.
Results for the analysis of the mean bond strength of composite resins to base metal alloys without aging. K. Surface treatment by using air abrasion + phosphate and 4-MET monomers (ME-SB+CHE-P+CHE-MET) versus air abrasion+ phosphate and sulfur monomers (ME-SB+ CHE-P+CHE-Q).
TABLE 4.
TABLE 4.
Demographic data of included studies in aged base metal group
TABLE 4.
TABLE 4.
Demographic data of included studies in aged base metal group
FIGURE 2.
FIGURE 2.
Results for the analysis of the mean bond strength of composite resins to base metal alloys with aging. A. Surface treatment by using air abrasion+ phosphate monomers (ME-SB+CHE-P) versus air abrasion + 4-MET monomers (ME-SB+ CHE-MET).
FIGURE 2.
FIGURE 2.
Results for the analysis of the mean bond strength of composite resins to base metal alloys without aging. B. Surface treatment by using air abrasion+ phosphate monomers (ME-SB+CHE-P) versus air abrasion + R - monomers (ME-SB+CHE-R).
FIGURE 2.
FIGURE 2.
Results for the analysis of the mean bond strength of composite resins to base metal alloys without aging. C. Surface treatment by using air abrasion + phosphate monomers (ME-SB+CHE-P) versus air abrasion+ Phosphate and 4-MET monomers (ME-SB+CHE-P+CHE-MET).
FIGURE 2.
FIGURE 2.
Results for the analysis of the mean bond strength of composite resins to base metal alloys without aging. D. Surface treatment by using air abrasion + 4-MET monomers (ME-SB+CHE-MET) versus air abrasion + R- monomers (ME-SB+CHE-R).
FIGURE 2.
FIGURE 2.
Results for the analysis of the mean bond strength of composite resins to base metal alloys without aging. E. Surface treatment by using air abrasion + R - monomers (ME-SB+CHE-P) versus air abrasion + phosphate and sulfur monomers (ME-SB+CHE-P+CHE-Q).
FIGURE 2.
FIGURE 2.
Results for the analysis of the mean bond strength of composite resins to base metal alloys without aging. F. Surface treatment by using air abrasion + silane application (ME-SB+CHE-Si) versus using cojet technique and silane application (ME-SB+CHE-C+CHE-Si).
TABLE 5.
TABLE 5.
Demographic data of included studies in aged porcelain + base metal group
TABLE 6.
TABLE 6.
Demographic data of included studies in non-aged porcelain + base metal group
FIGURE 3.
FIGURE 3.
Results for the analysis of the mean bond strength of composite resins to porcelain fused to base metal alloys without aging when surfaces were treated by using air abrasion + R-monomers versus using R-monomers

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