Gross Pamela G, Kartalov Emil P, Scherer Axel, Weiner Leslie P
Department of Neurology, Keck School of Medicine, University of Southern California, Los Angeles, CA 90033, USA.
J Neurol Sci. 2007 Jan 31;252(2):135-43. doi: 10.1016/j.jns.2006.11.009. Epub 2007 Jan 4.
Microfabrication processes have changed the technology used in consumer goods, and have now advanced into applications in biology. Microfluidic platforms are microfabricated tools that are gaining popularity for studies of molecular and cellular biology. These platforms can allow precise control of the environment surrounding individual cells and they have been used to study physiologic and pharmacologic responses at the single-cell level. This article reviews microfluidic technology with emphasis on advances that could apply to the study of the nervous system, including architecture for isolation of axons, integrated electrophysiology, patterned physical and chemical substrate cues, and devices for the precisely controlled delivery of possible therapeutic agents such as trophic factors and drugs. The potential of these chips for the study of neurological diseases is also discussed.
微纳加工工艺改变了消费品所使用的技术,如今已在生物学应用中取得进展。微流控平台是通过微纳加工制造的工具,在分子和细胞生物学研究中越来越受欢迎。这些平台能够精确控制单个细胞周围的环境,并已被用于在单细胞水平上研究生理和药理反应。本文综述了微流控技术,重点介绍了可应用于神经系统研究的进展,包括用于轴突分离的架构、集成电生理学、图案化的物理和化学底物线索,以及用于精确控制递送神经营养因子和药物等可能的治疗剂的装置。还讨论了这些芯片在神经疾病研究中的潜力。