Synthesis and characterization of nano dicalcium phosphate dihydrate from biogenic sources

Md. Kawcher Alam , Md. Sahadat Hossain , Mofassel Hossen Akash , Muhammad Shahriar Bashar , Newaz Mohammed Bahadur , Samina Ahmed
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Abstract

In the present study, calcium-enriched marine sources (Turritella, Cardium, and Conch shells) were used to prepare dicalcium phosphate dihydrate (DCPD) in an easy, affordable, and sustainable manner. To produce DCPD, orthophosphoric acid was subjected to a reaction with each type of shell powdered substance, resulting in DCPD in a sheet-like or irregular-type shape. The powdered materials were analyzed using X-ray diffraction (XRD), scanning electron microscopy (SEM), energy dispersive X-ray (EDX), and Fourier-transform infrared spectroscopy (FT-IR). FT-IR spectroscopy was employed to determine the presence of functional groups in the prepared DCPD. SEM image confirms plate-like structure, indicating homogeneity in both size and shape. EDX spectrum confirms the presence of Ca, P, and O and the degree of purity of all produced materials. The crystallite size of nano DCPD is determined by a variety of XRD models using the XRD pattern. An acceptable measurement for crystallite size was also obtained using the Size-Strain Plot (17.55, 27.18, 35.55 nm) and Halder-Wagner Model (11.23, 13.15, 28.57 nm). Many crystallographic properties of the synthesized substances were examined, including dislocation density, crystallinity index, relative intensity, preference growth, and microstrain. The DCPD percentage obtained by Rietveld refinement analysis is close to 90 %. Therefore, Turritella, Cardium, and Conch shells will provide an alternate source to fulfil the need for raw materials to manufacture DCPD.
生物源纳米二水磷酸二钙的合成与表征
在本研究中,利用富钙海洋资源(Turritella, Cardium和海螺壳)以简单,经济和可持续的方式制备磷酸二钙二水合物(DCPD)。为了生产DCPD,正磷酸与每种类型的壳状粉末状物质反应,导致DCPD呈片状或不规则形状。采用x射线衍射(XRD)、扫描电镜(SEM)、能量色散x射线(EDX)和傅里叶变换红外光谱(FT-IR)对粉末材料进行了分析。采用红外光谱法测定了所制DCPD中官能团的存在。扫描电镜图像证实了片状结构,表明尺寸和形状均均匀。EDX光谱证实了Ca, P和O的存在以及所有生产材料的纯度。利用XRD谱图,用多种XRD模型测定了纳米DCPD的晶粒尺寸。使用尺寸-应变图(17.55,27.18,35.55 nm)和Halder-Wagner模型(11.23,13.15,28.57 nm)也获得了可接受的晶体尺寸测量值。研究了合成物质的许多晶体学性质,包括位错密度、结晶度指数、相对强度、偏好生长和微应变。Rietveld细化分析得到的DCPD百分比接近90%。因此,Turritella, Cardium和海螺壳将提供替代来源,以满足生产DCPD的原材料需求。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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CiteScore
5.30
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