Synthesis of chemically modified BisGMA analog with low viscosity and potential physical and biological properties for dental resin composite

The currently available commercial dental resin composites have limitations in use owing to the high viscosity and water sorption of Bisphenol A glycidyl methacrylate (BisGMA). The objective of this study was to obtain a BisGMA analog with reduced viscosity and hydrophilicity for potential use as an...

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Veröffentlicht in:Dental materials 2019-11, Vol.35 (11), p.1532-1544
Hauptverfasser: Al-Odayni, Abdel-Basit, Alfotawi, Randa, Khan, Rawaiz, Sharaf Saeed, Waseem, Al-Kahtani, Abdullah, Aouak, Taieb, Alrahlah, Ali
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container_end_page 1544
container_issue 11
container_start_page 1532
container_title Dental materials
container_volume 35
creator Al-Odayni, Abdel-Basit
Alfotawi, Randa
Khan, Rawaiz
Sharaf Saeed, Waseem
Al-Kahtani, Abdullah
Aouak, Taieb
Alrahlah, Ali
description The currently available commercial dental resin composites have limitations in use owing to the high viscosity and water sorption of Bisphenol A glycidyl methacrylate (BisGMA). The objective of this study was to obtain a BisGMA analog with reduced viscosity and hydrophilicity for potential use as an alternative to BisGMA in dental resin composites. The targeted chlorinated BisGMA (Cl-BisGMA) monomer was synthesized via the Appel reaction. The structural modification was confirmed via 1H- and 13C nuclear magnetic resonance spectroscopy, Fourier transform infrared spectroscopy, and mass spectrometry. Five resin mixtures (70:30wt.%: F1=BisGMA/TEGDMA; F2=Cl-BisGMA/TEGDMA; F3=Cl-BisGMA only; F4=Cl-BisGMA/BisGMA; F5 contained 15% TEGDMA with equal amounts of BisGMA and Cl-BisGMA) were prepared. The viscosity, degree of double-bond conversion (DC), water sorption (WSP), and solubility (WSL) were tested. Cell viability and live/dead assays, as well as cell attachment and morphology assessments, were applied for cytotoxicity evaluation. Cl-BisGMA was successfully synthesized with the viscosity reduced to 7.22 (Pas) compared to BisGMA (909.93,Pas). Interestingly, the DC of the F2 resin was the highest (70.6%). By the addition of equivalence concentration of Cl-BisGMA instead of BisGMA, the WSP was decreased from 2.95% (F1) to 0.41% (F2) with no significant change in WSL. However, the WSL increased with high Cl-BisGMA content. Biological tests revealed that all the resins were biocompatible during CL1 incubation. The experimental resins based on Cl-BisGMA exhibited improved properties compared with the control samples, e.g., biocompatibility and lower viscosity, indicating that Cl-BisGMA can be considered as a potential monomer for application in dental resin composites.
doi_str_mv 10.1016/j.dental.2019.07.013
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Interestingly, the DC of the F2 resin was the highest (70.6%). By the addition of equivalence concentration of Cl-BisGMA instead of BisGMA, the WSP was decreased from 2.95% (F1) to 0.41% (F2) with no significant change in WSL. However, the WSL increased with high Cl-BisGMA content. Biological tests revealed that all the resins were biocompatible during CL1 incubation. 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Interestingly, the DC of the F2 resin was the highest (70.6%). By the addition of equivalence concentration of Cl-BisGMA instead of BisGMA, the WSP was decreased from 2.95% (F1) to 0.41% (F2) with no significant change in WSL. However, the WSL increased with high Cl-BisGMA content. Biological tests revealed that all the resins were biocompatible during CL1 incubation. 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The objective of this study was to obtain a BisGMA analog with reduced viscosity and hydrophilicity for potential use as an alternative to BisGMA in dental resin composites. The targeted chlorinated BisGMA (Cl-BisGMA) monomer was synthesized via the Appel reaction. The structural modification was confirmed via 1H- and 13C nuclear magnetic resonance spectroscopy, Fourier transform infrared spectroscopy, and mass spectrometry. Five resin mixtures (70:30wt.%: F1=BisGMA/TEGDMA; F2=Cl-BisGMA/TEGDMA; F3=Cl-BisGMA only; F4=Cl-BisGMA/BisGMA; F5 contained 15% TEGDMA with equal amounts of BisGMA and Cl-BisGMA) were prepared. The viscosity, degree of double-bond conversion (DC), water sorption (WSP), and solubility (WSL) were tested. Cell viability and live/dead assays, as well as cell attachment and morphology assessments, were applied for cytotoxicity evaluation. Cl-BisGMA was successfully synthesized with the viscosity reduced to 7.22 (Pas) compared to BisGMA (909.93,Pas). Interestingly, the DC of the F2 resin was the highest (70.6%). By the addition of equivalence concentration of Cl-BisGMA instead of BisGMA, the WSP was decreased from 2.95% (F1) to 0.41% (F2) with no significant change in WSL. However, the WSL increased with high Cl-BisGMA content. Biological tests revealed that all the resins were biocompatible during CL1 incubation. The experimental resins based on Cl-BisGMA exhibited improved properties compared with the control samples, e.g., biocompatibility and lower viscosity, indicating that Cl-BisGMA can be considered as a potential monomer for application in dental resin composites.</abstract><cop>England</cop><pub>Elsevier Inc</pub><pmid>31421956</pmid><doi>10.1016/j.dental.2019.07.013</doi><tpages>13</tpages></addata></record>
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source MEDLINE; Elsevier ScienceDirect Journals
subjects Biocompatibility
Biological properties
BisGMA derivative
Bisphenol A
Bisphenol A glycidyl methacrylate
Cell adhesion
Cell viability
Composite materials
Composite Resins
Cytology
Cytotoxicity
Dental cement
Dental material
Dental materials
Dental resin composite
Dental restorative materials
Dentistry
Fourier transforms
Infrared spectroscopy
Low viscosity
Magnetic resonance spectroscopy
Mass spectrometry
Mass spectroscopy
Materials Testing
Methacrylates
Morphology
NMR
Nuclear magnetic resonance
Organic chemistry
Phenols
Polyethylene Glycols
Polymer matrix composites
Polymethacrylic Acids
Resins
Solubility
Sorption
Toxicity
Triethylene glycol dimethacrylate
Viscosity
title Synthesis of chemically modified BisGMA analog with low viscosity and potential physical and biological properties for dental resin composite
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