Hydrolytic Stability of Self-etch Adhesives Bonded to Dentin

Functional monomers chemically interact with hydroxyapatite that remains within submicron hybrid layers produced by mild self-etch adhesives. The functional monomer 10-MDP interacts most intensively with hydroxyapatite, and its calcium salt appeared most hydrolytically stable, as compared with 4-MET...

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Published in:Journal of dental research 2005-12, Vol.84 (12), p.1160-1164
Main Authors: Inoue, S., Koshiro, K., Yoshida, Y., De Munck, J., Nagakane, K., Suzuki, K., Sano, H., Van Meerbeek, B.
Format: Article
Language:English
Subjects:
Acid Etching, Dental
Dental Bonding
Dentin - ultrastructure
Dentin-Bonding Agents - chemistry
Dentistry
Durapatite - chemistry
Humans
Hydrolysis
Methacrylates - chemistry
Microscopy, Electron, Transmission
Organophosphorus Compounds - chemistry
Surface Properties
Tensile Strength
Tricarboxylic Acids - chemistry
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cited_by cdi_FETCH-LOGICAL-c463t-536e392e71911d03303d525b15f14bdbca9e0bdbfbe90fb4c9ae1978854b31763
cites cdi_FETCH-LOGICAL-c463t-536e392e71911d03303d525b15f14bdbca9e0bdbfbe90fb4c9ae1978854b31763
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container_issue 12
container_start_page 1160
container_title Journal of dental research
container_volume 84
creator Inoue, S.
Koshiro, K.
Yoshida, Y.
De Munck, J.
Nagakane, K.
Suzuki, K.
Sano, H.
Van Meerbeek, B.
description Functional monomers chemically interact with hydroxyapatite that remains within submicron hybrid layers produced by mild self-etch adhesives. The functional monomer 10-MDP interacts most intensively with hydroxyapatite, and its calcium salt appeared most hydrolytically stable, as compared with 4-MET and phenyl-P. We investigated the hypothesis that additional chemical interaction of self-etch adhesives improves bond stability. The micro-tensile bond strength (μTBS) of the 10-MDP-based adhesive did not decrease significantly after 100,000 cycles, but did after 50,000 and 30,000 cycles, respectively, for the 4-MET-based and the phenyl-P-based adhesives. Likewise, the interfacial ultrastructure was unchanged after 100,000 thermocycles for the 10-MDP-based adhesive, while that of both the 4-MET- and phenyl-P-based adhesives contained voids and less-defined collagen. The findings of this study support the concept that long-term durability of adhesive-dentin bonds depends on the chemical bonding potential of the functional monomer.
doi_str_mv 10.1177/154405910508401213
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The functional monomer 10-MDP interacts most intensively with hydroxyapatite, and its calcium salt appeared most hydrolytically stable, as compared with 4-MET and phenyl-P. We investigated the hypothesis that additional chemical interaction of self-etch adhesives improves bond stability. The micro-tensile bond strength (μTBS) of the 10-MDP-based adhesive did not decrease significantly after 100,000 cycles, but did after 50,000 and 30,000 cycles, respectively, for the 4-MET-based and the phenyl-P-based adhesives. Likewise, the interfacial ultrastructure was unchanged after 100,000 thermocycles for the 10-MDP-based adhesive, while that of both the 4-MET- and phenyl-P-based adhesives contained voids and less-defined collagen. 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source Sage Journals Online
subjects Acid Etching, Dental
Dental Bonding
Dentin - ultrastructure
Dentin-Bonding Agents - chemistry
Dentistry
Durapatite - chemistry
Humans
Hydrolysis
Methacrylates - chemistry
Microscopy, Electron, Transmission
Organophosphorus Compounds - chemistry
Surface Properties
Tensile Strength
Tricarboxylic Acids - chemistry
title Hydrolytic Stability of Self-etch Adhesives Bonded to Dentin
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