Phage Capsids as Gated, Long-Persistence, Uniform Drug Delivery Vehicles

P. Serwer, E. Wright, C. Gonzales
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引用次数: 3

Abstract

Over the last 25 years, cancer therapies have improved survivorship. Yet, metastatic cancers remain deadly. Therapies are limited by inadequate targeting. Our goal is to develop a new drug delivery vehicle (DDV)-based strategy that improves targeting of drug delivery to solid tumors. We begin with a capsid nanoparticle derived from bacteriophage (phage) T3, a phage that naturally has high persistence in murine blood. This capsid has gating capacity. For rapidly detecting loading in this capsid, here, we describe procedures of native agarose gel electrophoresis, coupled with fluorescence-based detection of loaded molecules. We observe the loading of two fluorescent compounds: the dye, GelStar, and the anticancer drug, bleomycin. The optimal emission filters were found to be orange and green, respectively. The results constitute a first milestone in developing a drug-loaded DDV that does not leak when in blood, but unloads its cargo when in a tumor.
噬菌体衣壳作为门控、长效、均匀的药物递送载体
在过去的25年里,癌症治疗提高了生存率。然而,转移性癌症仍然是致命的。治疗受到靶向性不足的限制。我们的目标是开发一种新的基于药物递送载体(DDV)的策略,以提高实体肿瘤药物递送的靶向性。我们从噬菌体T3衍生的衣壳纳米颗粒开始,这是一种在小鼠血液中天然具有高持久性的噬菌体。这个衣壳具有门控能力。为了快速检测这种衣壳中的负载,在这里,我们描述了天然琼脂糖凝胶电泳的程序,以及基于荧光的负载分子检测。我们观察到两种荧光化合物的负载:染料,GelStar和抗癌药物,博来霉素。最佳的发射过滤器分别是橙色和绿色。这一结果是开发一种载药DDV的第一个里程碑,这种载药DDV在血液中不会泄漏,但在肿瘤中会卸载其货物。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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