人主动脉壁磷灰石沉积物的结构和晶体化学特征。

Q2 Medicine
Sergei N Danilchenko, Aleksei N Kalinkevich, Roman A Moskalenko, Vladimir N Kuznetsov, Aleksandr V Kochenko, Evgenia V Husak, Vadim V Starikov, Fuyan Liu, Junhu Meng, Jinjun Lü
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引用次数: 10

摘要

生物磷灰石的热行为是许多研究的对象。磷灰石结构生物矿物在900℃退火过程中,晶体尺寸、碳酸盐含量、相组成等参数发生变化。这些参数变化的方式反映了初始生物磷灰石的特定性质。这项工作提出的数据病理生物磷灰石热转化从人类心血管系统,即主动脉壁沉积物。钙羟基磷灰石的一些外来的微量元素(如Na和Mg)既可以被纳入磷灰石结构,又可以定位在晶体的表层,从而改变矿物的功能。提出了一种新的方法来确定微量元素的优势位置,如Mg, Na和K,在病理矿床的矿物。病理磷灰石中的Mg和Na既可以处于结构结合状态(在晶格中取代钙),也可以处于不稳定状态(定位在晶体表面),而K不能大量加入磷灰石结构,也不能与磷灰石结构发生化学结合。这种基于原子光谱法的方法可以有效地与一组传统技术(如EDS、IRS和XRD)结合使用。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Structural and crystal-chemical characteristics of the apatite deposits from human aortic walls.

Structural and crystal-chemical characteristics of the apatite deposits from human aortic walls.

Structural and crystal-chemical characteristics of the apatite deposits from human aortic walls.

Structural and crystal-chemical characteristics of the apatite deposits from human aortic walls.

Thermal behavior of biological apatite is the object of several studies. Crystal size, carbonate content, phase composition, and other parameters change during annealing up to 900 °C in biological minerals with apatite structure. The way these parameters change reflects the specific properties of the initial bioapatite. This work presents data on thermal transformations of pathological bioapatite from the human cardiovascular system, namely aortic wall deposits. Some minor elements, foreign to calcium hydroxyapatite (e.g., Na and Mg), can be both incorporated in the apatite structure and localized in the surface layers of crystals, modifying functions of the mineral. A new approach was proposed to determine the predominant location of minor elements, such as Mg, Na, and K, in the mineral of pathological deposits. Mg and Na in pathological apatite can be in both structurally bound (substituting calcium in lattice) and labile (localized on the crystal surface) states, while K is not able to join the apatite structure in significant amount or be chemically bound to it. This approach, based on atomic spectrometry, can be used effectively in combination with a set of traditional techniques, such as like EDS, IRS, and XRD.

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来源期刊
Interventional Medicine and Applied Science
Interventional Medicine and Applied Science MEDICINE, GENERAL & INTERNAL-
CiteScore
1.60
自引率
0.00%
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审稿时长
15 weeks
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