The Effect of Zeolite Incorporation on the Physical Properties of Silver-Reinforced Glass Ionomer Cement
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Dental restorative materials
Glass ionomer cements
Physical properties
Zeolite clinoptilolite
Glass Ionomer Cements
Materials Testing
Silver
Surface Properties
Water
Zeolites
Bending strength
Cements
Dental composites
Dentistry
Glass
Reinforcement
Silver
Solubility
Sorption
Water vapor
clinoptilolite
glass ionomer
silver
zeolite
silver
water
Dental restorative materials
Glass ionomer cement
Reinforced glass
Sorption solubility
Strength tests
Surface hardness
Vicker hardness
Water solubilities
Water sorption
Zeolite clinoptilolite
antibacterial activity
Article
controlled study
dental restoration failure
flexural strength
hardness
mouth infection
surface property
Vickers hardness
water hardness
water immersion
water solubility
materials testing
surface property
Physical properties
Dental Materials
Dentistry
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Abstract
Zeolite can impart antibacterial properties to dental materials in the long-term when incorporated with inorganic cations. However, due to its porosity, it may jeopardize the mechanical integrity of the dental material. The aim of this project was to determine the effect on physical properties when zeolite is added to commercially available Ag-reinforced Glass Ionomer Cement (GIC). Sample groups were prepared according to the percentage of zeolite-clinoptilolite (0% - control, 0.5%, 1%, 2%, and 4% wt) added to Ag-GIC. Water sorption, solubility, Vickers hardness, and flexural strength were determined. Specifically, 10 × 2 mm circular disks were fabricated for the Vickers hardness, water sorption, and water solubility tests and 25 × 5 × 2 mm bars were created for the flexural strength test. The results from the surface hardness, water sorption, and flexural strength tests suggested that adding 0.5–4% wt of zeolite to Ag-reinforced GIC did not diminish its physical properties. However, the water solubility results showed that higher concentrations (2–4% wt) of zeolite had a statistically significant increase in water solubility compared to the control. Up to 4% wt zeolite can be incorporated into Ag-reinforced GIC without compromising mechanical properties. Incorporation of 0.5–1% wt zeolite to Ag-reinforced GIC will maintain an adequate surface hardness, water sorption, and flexural strength without compromising water solubility. Further research is needed to determine the effects of higher water solubility on clinical efficacy of zeolite modified Ag-GIC. [Figure not available: see fulltext.] © 2022, The Author(s).

