Portable multi-ionic reverse electrodialysis for continuous power supply and controllable drug release†

IF 6.1 2区 工程技术 Q1 BIOCHEMICAL RESEARCH METHODS
Lab on a Chip Pub Date : 2025-03-11 DOI:10.1039/D4LC01012D
Hyewon Cho, Jungjae Woo, Haneul Jeon, Hyejeong Kim and Chang-Soo Han
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引用次数: 0

Abstract

Bioinspired ionic power devices have been investigated due to their high biocompatibility and potential for sustainable energy conversion through ion concentration gradients. However, recent research into portable ionic power devices has primarily focused on hydrogel-based stacking elements, such as ion-selective gels and ionic reservoirs, to enhance productivity. However, this approach results in ionic resource consumption for the operating time. In this study, we propose a portable ionic power generator that provides continuous electricity by integrating multi-ionic reverse electrodialysis (MRED) with a passive capillary micropump for electrolyte absorption. The integrated MRED system was fabricated on a portable fluidic chip with optimizations of absorbing performance, electrolyte concentration, and shortcut current regulation attaining maximum potential of 267.45 mV and current of 4.42 mA. Furthermore, consistent and continuous performance for 25 min was achieved by incorporating cotton flow resistors, which modulate the electrolyte absorbing rate at the electrolyte contact region of the pumps. The electric potential was controlled by adjusting the cotton mass inspiring controllable drug release via iontophoresis where high voltage enhances charged drug penetration. This study paves the way for a new form of ionic power supply for patch-type wearable health devices.

Abstract Image

便携式多离子反电渗析,持续供电,药物释放可控。
生物启发离子动力装置由于其高生物相容性和通过离子浓度梯度进行可持续能量转换的潜力而受到研究。然而,最近对便携式离子电源设备的研究主要集中在基于水凝胶的堆叠元件上,如离子选择凝胶和离子储层,以提高生产率。然而,这种方法会导致操作时间的离子资源消耗。在这项研究中,我们提出了一种便携式离子发电机,通过将多离子反电渗析(MRED)与被动毛细管微泵相结合来提供连续的电力。通过对吸收性能、电解液浓度、电流快速调节等方面的优化,在便携式流控芯片上制备了集成的MRED系统,最大电位为267.45 mV,电流为4.42 mA。此外,通过加入棉花流动电阻,调节泵的电解质接触区域的电解质吸收速率,实现了25分钟的稳定和连续性能。电势是通过调节棉花质量来控制的,通过离子电泳诱导药物的可控释放,其中高电压增强了带电药物的渗透。这项研究为贴片式可穿戴健康设备的新型离子电源铺平了道路。
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来源期刊
Lab on a Chip
Lab on a Chip 工程技术-化学综合
CiteScore
11.10
自引率
8.20%
发文量
434
审稿时长
2.6 months
期刊介绍: Lab on a Chip is the premiere journal that publishes cutting-edge research in the field of miniaturization. By their very nature, microfluidic/nanofluidic/miniaturized systems are at the intersection of disciplines, spanning fundamental research to high-end application, which is reflected by the broad readership of the journal. Lab on a Chip publishes two types of papers on original research: full-length research papers and communications. Papers should demonstrate innovations, which can come from technical advancements or applications addressing pressing needs in globally important areas. The journal also publishes Comments, Reviews, and Perspectives.
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