Gedanken Aharon
Department of Chemistry and Kanbar Laboratory for Nanomaterials, Bar-Ilan University Center for Advanced Materials and Nanotechnology, Bar-Ilan University, Ramat-Gan 52900, Israel.
Chemistry. 2008;14(13):3840-53. doi: 10.1002/chem.200701541.
In 1990, Suslick and co-workers developed a method in which they used high-intensity ultrasound to make aqueous suspensions of proteinaceous microcapsules filled with water-insoluble liquids, and demonstrated the chemical mechanism of their formation. Suslick's paper opened up a new field that is reviewed in the current manuscript, and this article will attempt to review the experiments that have been conducted since the discovery of this phenomenon. It will answer questions regarding the mechanism of the formation of the microspheres, whether the sonication denaturates the protein or if its biological activity is maintained, and, finally, will address possible applications of the proteinaceous microspheres. Proteinaceous microbubbles will be referred to as proteinaceous microspheres (PM) throughout this review, although they may not have a perfect spherical shape in all cases. This review will start with a short introduction to sonochemistry, although this topic is, and has been reviewed frequently. The review covers literature published until December 2006.
1990年,苏斯利克及其同事开发了一种方法,他们使用高强度超声来制备填充有不溶于水的液体的蛋白质微胶囊水悬浮液,并证明了其形成的化学机制。苏斯利克的论文开辟了一个新领域,本手稿对此进行了综述,本文将尝试回顾自发现这一现象以来所进行的实验。它将回答有关微球形成机制的问题,超声处理是否会使蛋白质变性或其生物活性是否得以维持,最后,将探讨蛋白质微球的可能应用。在本综述中,蛋白质微泡将被称为蛋白质微球(PM),尽管在所有情况下它们可能并不具有完美的球形。本综述将首先对声化学进行简短介绍,尽管这个主题已经被频繁综述过。该综述涵盖了截至2006年12月发表的文献。