Suh Hyemee, Shin Juhyung, Kim Yeu-Chun
Department of Chemical and Biomolecular Engineering, Korea Advanced Institute of Science and Technology (KAIST), Daejeon, Korea.
Clin Exp Vaccine Res. 2014 Jan;3(1):42-9. doi: 10.7774/cevr.2014.3.1.42. Epub 2013 Dec 18.
In today's medical industry, the range of vaccines that exist for administration in humans represents an eclectic variety of forms and immunologic mechanisms. Namely, these are the live attenuated viruses, inactivated viruses, subunit proteins, and virus-like particles for treating virus-caused diseases, as well as the bacterial-based polysaccharide, protein, and conjugated vaccines. Currently, a new approach to vaccination is being investigated with the concept of DNA vaccines. As an alternative delivery route to enhance the vaccination efficacy, microneedles have been devised to target the rich network of immunologic antigen-presenting cells in the dermis and epidermis layers under the skin. Numerous studies have outlined the parameters of microneedle delivery of a wide range of vaccines, revealing comparable or higher immunogenicity to conventional intramuscular routes, overall level of stability, and dose-sparing advantages. Furthermore, recent mechanism studies have begun to successfully elucidate the biological mechanisms behind microneedle vaccination. This paper describes the current status of microneedle vaccine research.
在当今的医疗行业中,可供人类接种的疫苗种类繁多,其形式和免疫机制各不相同。具体来说,这些包括用于治疗病毒引起疾病的减毒活病毒、灭活病毒、亚单位蛋白和病毒样颗粒,以及基于细菌的多糖、蛋白质和结合疫苗。目前,一种基于DNA疫苗概念的新的疫苗接种方法正在研究中。作为提高疫苗接种效果的替代给药途径,人们设计了微针来靶向皮肤真皮层和表皮层中丰富的免疫抗原呈递细胞网络。大量研究概述了多种疫苗微针给药的参数,显示出与传统肌肉注射途径相当或更高的免疫原性、整体稳定性水平以及剂量节省优势。此外,最近的机制研究已开始成功阐明微针接种背后的生物学机制。本文描述了微针疫苗研究的现状。