基于微针阵列和IPMC无阀泵的微流控给药系统

K. Gareev, I. Khmelnitskiy, I. Mandrik, Yuriy D. Orekhov, Dmitry O. Testov
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引用次数: 4

摘要

微针阵列(MNA)用于提高经皮给药效率。在这项工作的框架内,研究了获得MNA的各种技术:喷墨打印,立体平版3D打印和注塑成型。实验MNA样品使用PiXDRO LP50喷墨打印机获得。该技术的缺点是所得到的结构的最大高度(约300纳米)的限制。反过来,立体光刻3D打印方法对于MNA的制造分辨率不足,因此该方法仅用于制造注射半模。为了铸造MNA原型,制造了一个手动铸造机,由一个碗和一个特氟龙活塞组成。基于离子聚合物-金属复合材料作作动器的膜式无阀微流体泵(MFP)原型,通过制造的锡铅合金MNA供液。一个透皮系统的模型由制造的MFP和带有获得的MNA的涂抹器组装而成。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Microfluidic System for Drug Delivery Based on Microneedle Array and IPMC Valveless Pump
Microneedle arrays (MNA) are used to enhance the efficiency of transdermal drug delivery. Within the framework of this work, various techniques of obtaining MNA were investigated: inkjet printing, stereolithographic 3D printing, and injection molding. Experimental MNA samples were obtained using a PiXDRO LP50 inkjet printer. The disadvantage of this technology was the limitation of the maximum height of the resulting structures (about 300 nm). In turn, the method of stereolithographic 3D printing showed insufficient resolution for the manufacture of MNA, so this method was used only for the manufacture of injection half-molds. To cast the MNA prototype, a manual casting machine was created, consisting of a bowl and a Teflon piston. A prototype of a membrane valveless microfluidic pump (MFP) based on an actuator made of an ionic polymer-metal composite was used to supply liquid through a manufactured tin-lead alloy MNA. A model of the transdermal system is assembled from the manufactured MFP and the applicator with the obtained MNA.
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