Enhanced Moisture Resistance of Salt Core through 2D Kaolinite Colloidal Solution Coating

S. Yoo, Ahrom Ryu, Min-seok Jeon, Dongkyun Kim, Ki-Woon Hong, S. Nahm, Ji-Won Choi
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Abstract

This study aimed to improve the moisture resistance of salt cores by investigating the suitability of a two-dimensional kaolinite colloidal solution and a commercially available SiO 2 ink solution as coating agents. X-ray diffraction analysis (XRD) results showed that the intercalation of urea into kaolinite did not significantly change its layer structure. Scanning electron microscopy (SEM) images revealed that the dip-coating only affected the surface of the salt core, and the texture of the surface is differ depending on the coating solution. The humidity absorption test results showed that both coatings reduced the hygroscopicity of the salt core by more than 50%. However, in the water-solubility test, the kaolinite dissolved with the salt core, whereas the SiO 2 -coated salt core left a residue. These results strongly suggest that with the coating of the exfoliated kaolinite solution, salt core will remain stable in humid environments.
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二维高岭石胶体溶液涂层提高盐芯的抗湿性
本研究旨在通过研究二维高岭石胶体溶液和市售二氧化硅油墨溶液作为涂层剂的适用性来提高盐芯的抗湿性。x射线衍射分析(XRD)结果表明,尿素嵌入高岭石后,其层状结构未发生明显变化。扫描电镜(SEM)结果表明,浸渍涂层仅影响盐芯表面,不同的涂层溶液对盐芯表面的纹理有不同的影响。吸湿试验结果表明,两种涂层均可使盐芯的吸湿性降低50%以上。然而,在水溶性测试中,高岭石与盐芯溶解,而sio2包覆盐芯留下残留物。这些结果强烈表明,在剥落高岭石溶液的涂层下,盐芯在潮湿环境中保持稳定。
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