Nano‐Calcium Carbonate with Core–Shell Structure was Prepared by Dopamine Chelation Using Pluronic F‐127 as Template

Herein, a new template carbonization method is used to prepare calcite‐type nano‐calcium carbonate (CaCO 3 ) with a core–shell structure using calcium hydroxide as a solute and Pluronic F‐127 as a templating and pore‐forming agent. Dopamine hydrochloride is added to control the size of calcium hydro...

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Veröffentlicht in:Particle & particle systems characterization 2024-07, Vol.41 (7)
Hauptverfasser: Shu, Weihan, Gong, Jiang, Zhang, Hanqing, Zheng, Fengling, Zeng, Juan, Wang, Xue, Qin, Siqian, Zhang, Chuancai, Xue, Haodong, Dai, Bin
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container_issue 7
container_start_page
container_title Particle & particle systems characterization
container_volume 41
creator Shu, Weihan
Gong, Jiang
Zhang, Hanqing
Zheng, Fengling
Zeng, Juan
Wang, Xue
Qin, Siqian
Zhang, Chuancai
Xue, Haodong
Dai, Bin
description Herein, a new template carbonization method is used to prepare calcite‐type nano‐calcium carbonate (CaCO 3 ) with a core–shell structure using calcium hydroxide as a solute and Pluronic F‐127 as a templating and pore‐forming agent. Dopamine hydrochloride is added to control the size of calcium hydroxide particles. The morphology, particle size, and crystal type of CaCO 3 are characterized via transmission electron microscopy, X‐ray diffraction, nanoparticle size, and zeta potentiometer. The creation of core–shell calcium carbonate nanoparticles is examined in relation to reaction circumstances (i.e., additive sequence, additive amount, and additive mixing time), carbonization temperature, liquid flow rate, and templates with varying chain lengths. Furthermore, a discussion is held regarding the formation mechanism of spherical core–shell calcium carbonate that is created using the innovative template carbonization method. The results show that the order, amount, liquid flow rate, and template type of additives have a significant effect on the crystal shape of calcium carbonate nanoparticles. The mixing time of additives has a significant effect on the particle size of calcium carbonate nanoparticles. Interestingly, the thickness of the shell depends on the carbonization temperature, and too slow or too fast flow rate will lead to the formation of cyclic calcium carbonate nanoparticles.
doi_str_mv 10.1002/ppsc.202300199
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subjects Additives
Calcite
Calcium carbonate
Carbonization
Chelation
Core-shell structure
Dopamine
Flow velocity
Liquid flow
Nanoparticles
Particle size
Potentiometers
Shape effects
Slaked lime
Spherical shells
Thickness
title Nano‐Calcium Carbonate with Core–Shell Structure was Prepared by Dopamine Chelation Using Pluronic F‐127 as Template
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