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采用改良乳液扩散法制备的辣椒油树脂纳米胶囊制剂的功效。

Efficacy of capsicum oleoresin nanocapsules formulation by the modified emulsion-diffusion method.

作者信息

Surassmo Suvimol, Min Sang-Gi, Bejrapha Piyawan, Choi Mi-Jung

机构信息

Department of Food Science and Biotechnology of Animal Resources, Konkuk University, Seoul 143-701, Korea.

出版信息

J Nanosci Nanotechnol. 2011 Jan;11(1):642-6. doi: 10.1166/jnn.2011.3276.

Abstract

In this study, we investigated the effect of high pressure homogenizer on the physico-chemical properties of capsicum oleoresin loaded nanoemulsion (NE) or nanocapsules (NCs) based on the emulsion-diffusion method. According to the application stage of high pressure process at principle emulsion-diffusion method, NCs was prepared by conventional-emulsion-diffusion method (CED), modified-emulsion-microfluidization-diffusion method (MEMD) and modified-emulsion-diffusion-microfluidization method (MEDM). The nanocapsules of MEMD showed homogeneous and the smallest particle size as compared with CED. In addition, MEMD presented the surface tension at the value 36.5 mN/m. The encapsulated capsicum oleoresin was generated the bright color and suppressed the dark red color. Furthermore, MEMD gave the high encapsulation efficiency of capsicum oleoresin around 95% and showed the slow release rate. On the other hand, MEDM presented the non-homogeneous and agglomerate of the particle, low percentage of encapsulation efficiency and the high initial release rate when compared with CED and MEMD methods. According these results, it was supposed that the microfluidization was interesting technique to ameliorate the physical properties and efficiency of NCs. However, it was depending on the appropriate combination of microfluidization based on the emulsion-diffusion method.

摘要

在本研究中,我们基于乳液扩散法,研究了高压均质机对辣椒素纳米乳(NE)或纳米胶囊(NCs)物理化学性质的影响。根据高压过程在乳液扩散法原理中的应用阶段,通过常规乳液扩散法(CED)、改良乳液微流化扩散法(MEMD)和改良乳液扩散微流化法(MEDM)制备了纳米胶囊。与CED相比,MEMD制备的纳米胶囊粒径均匀且最小。此外,MEMD的表面张力为36.5 mN/m。包封的辣椒素呈现明亮的颜色,抑制了深红色。此外,MEMD对辣椒素的包封率较高,约为95%,且释放速率较慢。另一方面,与CED和MEMD方法相比,MEDM制备的颗粒不均匀且团聚,包封效率百分比低,初始释放速率高。根据这些结果,推测微流化是改善纳米胶囊物理性质和效率的有趣技术。然而,这取决于基于乳液扩散法的微流化的适当组合。

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