• Media type: E-Article
  • Title: Contribution to Knowledge on Bioapatites: Does Mg Level Reflect the Organic Matter and Water Contents of Enamel?
  • Contributor: Lasota, Agnieszka; Kuczumow, Andrzej; Gorzelak, Mieczysław; Blicharski, Tomasz; Niezbecka-Zając, Joanna; Turżańska, Karolina; Szabelska, Anna; Łobacz, Michał; Wiszumirska, Karolina; Wieruszewski, Marek; Jarzębski, Maciej; Jabłoński, Mirosław
  • Published: MDPI AG, 2023
  • Published in: International Journal of Molecular Sciences, 24 (2023) 21, Seite 15974
  • Language: English
  • DOI: 10.3390/ijms242115974
  • ISSN: 1422-0067
  • Keywords: Inorganic Chemistry ; Organic Chemistry ; Physical and Theoretical Chemistry ; Computer Science Applications ; Spectroscopy ; Molecular Biology ; General Medicine ; Catalysis
  • Origination:
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  • Description: <jats:p>The matter constituting the enamels of four types of organisms was studied. The variability of the ions was presented in molar units. It was proven that the changes in water contents of the enamel are significantly positively related to changes in Mg; inversely, there is also a strong connection with changes in Ca and P, the main components of bioapatite. The variability in the organic matter has the same strong and positive characteristics and is also coupled with changes in Mg contents. Amelogenins in organic matter, which synthesize enamel rods, likely have a role in adjusting the amount of Mg, thus establishing the amount of organic matter and water in the whole enamel; this adjustment occurs through an unknown mechanism. Ca, P, Mg, and Cl ions, as well as organic matter and water, participate in the main circulation cycle of bioapatites. The selection of variations in the composition of bioapatite occurs only along particular trajectories, where the energy of transformation linearly depends on the following factors: changes in the crystallographic d parameter; the increase in the volume, V, of the crystallographic cell; the momentum transfer, which is indirectly expressed by ΔsinΘ value. To our knowledge, these findings are novel in the literature. The obtained results indicate the different chemical and crystallographic affinities of the enamels of selected animals to the human ones. This is essential when animal bioapatites are transformed into dentistic or medical substitutes for the hard tissues. Moreover, the role of Mg is shown to control the amount of water in the apatite and in detecting organic matter in the enamels.</jats:p>
  • Access State: Open Access