Electrolab:一个开源的模块化平台,用于氧化还原活性电解质的自动表征

Inkyu Oh, Michael A. Pence, Nikita G. Lukhanin, Oliver Rodríguez, Charles M. Schroeder, Joaquín Rodríguez-López
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引用次数: 0

摘要

溶液中氧化还原活性分子的电化学表征需要探索多种条件(例如,浓度,电解质类型,pH值,离子强度),导致繁琐且耗时的实验,容易出现用户错误。在这里,我们介绍了Electrolab,这是一个模块化的自动化电化学表征平台,可以与常见的实验室仪器和低成本的机电组件无缝连接。我们集成了一个龙门式机器人,携带一个多用途喷嘴组件,用于分配和混合溶液,以及对含有多路微电化学阵列的电池进行脱气和清洁。该系统使用Python代码和基于arduino的通用控制器运行。我们通过在一系列条件下执行200伏安图和数据分析步骤来自主分析氧化还原介质,从而演示了Electrolab。此外,Electrolab还用于滴定氧化还原活性聚合物溶液,以确定优化电化学性能的条件。总体而言,Electrolab设备实现了高通量、系统的氧化还原电解质探索,为闭环优化开辟了新的途径。
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The Electrolab: An open-source, modular platform for automated characterization of redox-active electrolytes
Electrochemical characterization of redox-active molecules in solution requires exploration of manifold conditions (e.g., concentration, electrolyte type, pH, ionic strength), leading to tedious and time-consuming experiments that are prone to user error. Here, we introduce the Electrolab, a modular, automated electrochemical characterization platform that seamlessly interfaces with common laboratory instrumentation and low-cost electromechanical components. We integrated a gantry-type robot carrying a multipurpose nozzle assembly to dispense and mix solutions as well as degas and clean a cell containing multiplexed microelectrochemical arrays. The system operates using Python code and a universal Arduino-based controller. We demonstrate the Electrolab by autonomously analyzing a redox mediator by performing 200 voltammograms and data analysis steps across a range of conditions. In addition, the Electrolab is used to titrate a redox-active polymer solution to identify conditions for optimizing electrochemical performance. Overall, the Electrolab device enables high-throughput, systematic exploration of redox electrolytes, opening new avenues for closed-loop optimization.
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