The osteoinductive potential of different root-end filling materials in a rat femur model
other
OA: gold
CC-BY-4.0
Abstract
In pediatric dentistry, the enduring success of root-end filling materials employed for the establishment of apical plugs in immature teeth undergoing endodontic intervention is contingent upon their possessing a robust osteoinductive capacity. Hence, the primary objective of this study was to histologically assess the osteoinductive potential of four distinct dental materials, specifically recommended for retrograde filling applications, utilizing an animal hard tissue model. Within the designed experimental model, two bone defects measuring 2 mm in diameter and 2 mm in depth were created in both femurs of a cohort comprising 21 male Wistar albino rats. The first defect in the right femur was left blank as the control group, and Neo MTA Plus was placed in the second defect. The EndoSequence BCRRM Fast Set Putty was placed in the first of the defects on the left femur, and Endo Repair was placed in the second defect. Subjects were sacrificed after 7, 14, and 28 days of follow-up, and sections were examined to assess the degree of inflammation, connective tissue formation, and new bone formation. The data were statistically evaluated with Kruskal‒Wallis and post hoc Dunn's tests using SPSS 12 software. The bone healing levels of the Neo MTA Plus group were significantly higher than those of the other groups in all periods (p < 0.05). Bone organization in all groups decreased over time, and fibrous tissue was enriched. The results of this study demonstrate that NeoMta Plus has superior osteoinductive properties compared to other materials but that EndoSequence and Endo Repair have the potential to be developed.
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organisms 54
zitter rats
rodents
zitter rats
rodents
rattus sp.
rodents
zitter rats
zitter rats
multicellular animals
multicellular animals
rattus sp.
zitter rats
rodents
multicellular animals
rattus sp.
zitter rats
zitter rats
rodents
rattus sp.
multicellular animals
zitter rats
multicellular animals
multicellular animals
zitter rats
rodents
humans
multicellular animals
rodents
rodents
dogs
rattus sp.
rodents
rattus sp.
humans
multicellular animals
zitter rats
rabbits
wild boar
rodents
human
multicellular animals
zitter rats
human
multicellular animals
rattus sp.
rattus sp.
multicellular animals
humans
rodents
human
rodents
rodents
humans
rodents
chemicals 40
mineral
calcium silicate
calcium silicate
calcium silicate
calcium sulfate
aluminium oxide
calcium silicate
calcium
hydroxylapatite
calcium phosphate
hydroxylapatite
water
water
ketamine hydrochloride
xylazine hydrochloride
iodine
prilocaine hydrochloride
adrenaline
tungsten carbide
ceftriaxone
carprofen
water
pentobarbital
ethylenediaminetetraacetic acid
haematoxylin
calcium silicate
calcium silicate
calcium
sulfate
calcite
calcium
hydroxide
mineral
calcium silicate
calcium phosphate
calcium phosphate
hydroxylapatite
water
hydroxylapatite
hydroxylapatite
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License: CC-BY-4.0
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Courtesy of the U.S. National Library of Medicine
Courtesy of the U.S. National Library of Medicine