基于设计的质量优化配方和工艺变量控制喷雾干燥焚烧铜纳米悬浮液的粒度和Zeta电位

Saurabh Singh, S. Singh, Malti G. Chauhan, B. Kumar, N. K. Pandey, Barinder Kaur, Arun Kumar, Souvik Mohanta, M. Gulati, Sheetu Wadhwa, A. Yadav, Pan Singh, Y. Kumari, Gurmandeep Kaur, R. Khursheed, A. Clarrisse
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引用次数: 4

摘要

采用自顶向下介质研磨法制备了铜纳米混悬液。以光甘草(GG)和金合欢胶(GA)为稳定剂。采用Box Behnken设计研究了配方和工艺变量对颗粒尺寸和zeta电位的影响,并优化了它们的比例,得到了目标产品的轮廓。GA和GG与ICP的比例随铣削时间和铣削速度的变化而变化。并对制备的纳米混悬液进行喷雾干燥固化。粒径随GG / ICP比、磨矿时间和磨矿速度的增加而减小,而GA / ICP比的增加对粒径的影响相反。zeta电位随inGG / CB比和铣削速度的增加而增大,随GA / ICP比和铣削时间的增加而减小。得到的粒径为117.9 nm, zeta电位为-9.46mV,与设计预测的粒径为121.86 nm, zeta电位为-8.07 mV基本一致。这表明了优化过程的可靠性。纳米悬浮液中铜的载药率为88.26%。对喷雾干燥得到的纳米颗粒进行微观评价,结果表明纳米颗粒具有良好的流动性和致密性。实验结果表明,介质研磨、实验设计和喷雾干燥的应用为铜纳米混悬液的制备提供了良好的条件,具有工业规模化的潜力。
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Quality by Design-based Optimization of Formulation and Process Variables for Controlling Particle Size and Zeta Potential of Spray Dried Incinerated Copper Nanosuspension
In the present study copper nanosuspension was prepared from Incinerated Copper Powder (ICP) by top down media milling. Glycyrrhiza glabra (GG) and Gum Acacia (GA) were used as stabilizers in the formulation. Box Behnken Design was used to investigate the effect of formulation and process variables on particle size and zeta potential and optimize their ratio to get target product profile. The ratio of GA and GG to ICP was varied along with milling time and its speed. Further the prepared nanosuspensions were solidified using spray drying. The particle size was found to be decreased with the increase in GG to ICP ratio, milling time and milling speed, whereas, reverse effect on particle size was observed with an increase in GA to ICP ratio. The zeta potential was found to be increased with the increase in GG to CB ratio and milling speed and it decreased with the increase in GA to ICP ratio and milling time. The obtained value for particle size was 117.9 nm and zeta potential were -9.46 mV which was in close agreement with the predicted values by the design which was, 121.86 nm for particle size and -8.07 mV for zeta potential respectively. This indicated the reliability of optimization procedure. The percentage drug loading of copper in the nanosuspension was 88.26%. The micromeritic evaluation of obtained spray dried nanoparticles revealed that the particles were having good flow and compactibility. It can be concluded that application of media milling, design of experiment and spray drying have offered very good copper nanosuspension that has the potential to be scaled up on industrial scale.
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来源期刊
Recent Innovations in Chemical Engineering
Recent Innovations in Chemical Engineering Chemical Engineering-Chemical Engineering (all)
CiteScore
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发文量
20
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