Catheter-Electrode System for Continuous Aptamer-Based Sensing in the Rat Subcutaneous Space.

ECS sensors plus Pub Date : 2025-09-01 Epub Date: 2025-09-19 DOI:10.1149/2754-2726/ae048c
John Mack, Yao Wu, Yuchan Yuan, Remy Bell, Netzahualcóyotl Arroyo-Currás
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Abstract

Electrochemical aptamer-based (E-AB) sensors can continuously monitor drug concentrations with high temporal resolution. While previous studies have successfully demonstrated in vivo molecular monitoring using E-AB sensors, they typically rely on custom-built probes fabricated through manual, labor-intensive processes. Constructing such probes requires substantial time, technical expertise, and precision, creating a high barrier to entry for researchers interested in the field of in vivo measurements. To address this limitation, we present an alternative fabrication approach that combines established device construction methods with rapid prototyping via additive manufacturing (i.e., stereolithography). This platform enables continuous molecular monitoring in the subcutaneous interstitial fluid (ISF) of rodent models. We selected ISF as a target fluid due to its growing recognition as a promising frontier for continuous molecular monitoring and its central role in current biosensor research. Our goal is to eliminate the most prohibitive steps in traditional fabrication, thereby reducing the skill threshold required for building functional E-AB probes. By improving the construction process, our methods should make the technology more easily adoptable by a broader range of research laboratories. Ultimately, we aim to broaden the use of E-AB sensors and accelerate development in the field of real-time, in vivo molecular monitoring.

基于适体体的大鼠皮下空间连续传感导管-电极系统。
基于电化学适体(E-AB)的传感器能够以高时间分辨率连续监测药物浓度。虽然以前的研究已经成功地证明了使用E-AB传感器进行体内分子监测,但它们通常依赖于通过人工、劳动密集型过程制造的定制探针。构建这样的探针需要大量的时间、技术专长和精度,这对对体内测量领域感兴趣的研究人员来说是一个很高的门槛。为了解决这一限制,我们提出了一种替代制造方法,将已建立的设备构造方法与通过增材制造(即立体光刻)的快速原型制造相结合。该平台能够在啮齿动物模型的皮下间质液(ISF)中进行连续的分子监测。我们之所以选择ISF作为靶液,是因为它越来越被认为是连续分子监测的一个有前途的前沿领域,并且在当前的生物传感器研究中发挥着核心作用。我们的目标是消除传统制造中最令人望而却步的步骤,从而降低构建功能性E-AB探针所需的技能门槛。通过改进施工过程,我们的方法应该使该技术更容易被更广泛的研究实验室采用。最终,我们的目标是扩大E-AB传感器的使用,加速在实时,体内分子监测领域的发展。
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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