Authors :
Aksu Samet; Akgul Omeragic; Sezen Samet
Volume/Issue :
Volume 11 - 2026, Issue 6 - June
Google Scholar :
https://tinyurl.com/fvza6sz4
Scribd :
https://tinyurl.com/4exk9p9x
DOI :
https://doi.org/10.38124/ijisrt/26jun1289
Note : A published paper may take 4-5 working days from the publication date to appear in PlumX Metrics, Semantic Scholar, and ResearchGate.
Abstract :
Smoking history and frequency of reflux were also
evaluated. The participants with dental erosion had significantly lower values of total proteins, calcium and pH compared
to the control group, in both unstimulated and stimulated saliva, indicating an unfavorable biochemical environment for
enamel stability. More patients with dental erosion smoke than do patients without dental erosion, and the frequency of
regurgitation was different. The combination of decreased calcium and total proteins in saliva indicates a disturbance in
the biochemical mechanisms that maintain enamel integrity. The protein depletion presumably contributes to a lowered
dielectric strength against erosive challenges, when we consider the established functions of the salivary proteins in the
formation of the acquired pellicle, the regulation of mineral ion concentrations, and the protection of surfaces. The data
suggest that dental erosion is due to a multi-factorial biochemical imbalance in saliva, involving alterations of acid - base
states, decreased availability of minerals, and decreased protective capabilities of proteins, which increases the
susceptibility of enamel to erosive destruction.
Keywords :
Sakiva Porteins; Calcium; Saliva pH; Smoking; Dental Erosion.
References :
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Smoking history and frequency of reflux were also
evaluated. The participants with dental erosion had significantly lower values of total proteins, calcium and pH compared
to the control group, in both unstimulated and stimulated saliva, indicating an unfavorable biochemical environment for
enamel stability. More patients with dental erosion smoke than do patients without dental erosion, and the frequency of
regurgitation was different. The combination of decreased calcium and total proteins in saliva indicates a disturbance in
the biochemical mechanisms that maintain enamel integrity. The protein depletion presumably contributes to a lowered
dielectric strength against erosive challenges, when we consider the established functions of the salivary proteins in the
formation of the acquired pellicle, the regulation of mineral ion concentrations, and the protection of surfaces. The data
suggest that dental erosion is due to a multi-factorial biochemical imbalance in saliva, involving alterations of acid - base
states, decreased availability of minerals, and decreased protective capabilities of proteins, which increases the
susceptibility of enamel to erosive destruction.
Keywords :
Sakiva Porteins; Calcium; Saliva pH; Smoking; Dental Erosion.