Physicochemical properties of radiopaque dicalcium silicate cement as a root‐end filling material in an acidic environment

Ding, Shinn-Jyh

doi:10.1111/j.1365-2591.2012.02112.x

Cited by 14 publications

(18 citation statements)

References 26 publications

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“…In dentistry, C 2 S cement has adequate biological properties and can be used as a root-end filling material and a pulp capping material, as it exhibits good bioactivity and biocompatibility in vitro studies [12][13][14][15] . In addition, C 2 S cement exhibits high apatite-forming activity and low degradation in acidic environments when used as a root-end filling material [16] Regarding its cytotoxicity, C 2 S cement is significantly superior to the traditional root-end filler, mineral trioxide aggregate (MTA) [17] . C 2 S cement is also a model system for drug release [18] .…”

Section: Introductionmentioning

confidence: 99%

Potential proinflammatory and osteogenic effects of dicalcium silicate particles in vitro

Chen¹,

Zhu²,

Liu³

et al. 2015

Journal of the Mechanical Behavior of Biomedical Materials

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Section: Introductionmentioning

confidence: 99%

Potential proinflammatory and osteogenic effects of dicalcium silicate particles in vitro

Chen¹,

Zhu²,

Liu³

et al. 2015

Journal of the Mechanical Behavior of Biomedical Materials

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“…Gandolfi et al [5] also reported the increase of the weight of calcium silicate-based materials when they came in contact with simulated body fluids. As previously stated, high apatite forming activity and low degradation were the characteristics of RDSC [9]. …”

Section: Discussionmentioning

confidence: 71%

“…In addition, the dental pulp cell responses to RDSC are similar to those reported for WMTA in terms of cell cycle, proliferation, immunocompatibility and osteogenic differentiation, but the RDSC material has a better cell behavior [8]. More recently, it has been found that RDSC has high in vitro apatite-forming ability and low degradation [9]; thus, it may be an alternative to WMTA. Exposure of bioactive material surfaces such as MTA and calcium silicate to a physiological solution elicits the precipitation of a “bone-like” apatite layer, which may support the material’s ability to integrate into living tissue [10,11,12].…”

Section: Introductionmentioning

confidence: 76%

Comparative Osteogenesis of Radiopaque Dicalcium Silicate Cement and White-Colored Mineral Trioxide Aggregate in a Rabbit Femur Model

Huang

Ding

2013

Materials

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The radiopaque dicalcium silicate cement (RDSC) displayed a shortened setting time and good biocompatibility. This study aimed to compare the regenerative potential of RDSC and white-colored mineral trioxide aggregate (WMTA) using a rabbit femur model. The animals were sacrificed at one, three and six months to accomplish histological and biochemical analyses. The results indicated that after one month of implantation, WMTA was associated with a greyish color alteration within its mass, while RDSC presented color stability even at six months. Histological assay with Masson’s Trichrome and Von Kossa stains showed the presence of newly formed bone surrounding the implanted sites in the rabbit femur. The histochemical data revealed that the RDSC group had significantly more bone regeneration than did the WMTA groups at three and six months. The conclusion drawn is that the encouraging results support the potential applications of RDSC as an improved alternative to WMTA for endodontic uses.

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“…Dicalcium silicate cement exhibits high apatite-forming activity and low degradation in acidic environments when used as a root-end filling material 80) . Regarding its cytotoxicity, dicalcium silicate cement is significantly superior to the traditional root-end filler, MTA 81) .…”

Section: Resultsmentioning

confidence: 99%

Calcium silicate-based cements and functional impacts of various constituents

Saghiri

Orangi

Asatourian

et al. 2017

Dental Materials Journal

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Calcium silicate-based cements have superior sealing ability, bioactivity, and marginal adaptation, which make them suitable for different dental treatment applications. However, they exhibit some drawbacks such as long setting time and poor handling characteristics. To overcome these limitations calcium silicates are engineered with various constituents to improve specific characteristics of the base material, and are the focus of this review. An electronic search of the PubMed, MEDLINE, and EMBASE via OVID databases using appropriate terms and keywords related to the use, application, and properties of calcium silicate-based cements was conducted. Two independent reviewers obtained and analyzed the full texts of the selected articles. Although the effects of various constituents and additives to the base Portland cement-like materials have been investigated, there is no one particular ingredient that stands out as being most important. Applying nanotechnology and new synthesis methods for powders most positively affected the cement properties.

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Physicochemical properties of radiopaque dicalcium silicate cement as a root‐end filling material in an acidic environment

Abstract: High apatite-forming activity and low degradation were the characteristics of a radiopaque dicalcium silicate cement.

Cited by 14 publications

References 26 publications

Potential proinflammatory and osteogenic effects of dicalcium silicate particles in vitro

Potential proinflammatory and osteogenic effects of dicalcium silicate particles in vitro

Comparative Osteogenesis of Radiopaque Dicalcium Silicate Cement and White-Colored Mineral Trioxide Aggregate in a Rabbit Femur Model

Calcium silicate-based cements and functional impacts of various constituents

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