薄膜形态对按需喷墨打印制造VOC传感器性能的影响

M. Kiaee, T. Maeder, J. Brugger
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引用次数: 2

摘要

本文介绍了一种用于检测挥发性有机化合物的喷墨打印复合材料传感器。传感材料由聚苯乙烯(35 kg/mol分子量)和高结构炭黑Ketjenblack EC-600JD组成。我们使用双溶剂系统作为油墨配方,并将其打印形态和传感性能与单溶剂系统进行了比较。双溶剂体系改善了液滴的形成,减少了咖啡环的形成。研究了传感器对丙酮和乙醇的响应。由于没有咖啡环效应,我们观察到灵敏度提高了2倍,这可能与表面更均匀和膜厚度变化更少有关。此外,通过使用专用的打印策略,如液滴间距和打印图案布局,获得了优越的传感器响应/恢复时间。
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Film Morphology Effect on VOC Sensor Performance Fabricated by Drop-On-Demand Inkjet-Printing
This paper presents a sensor for detecting volatile organic compounds with an inkjet-printed composite. The sensing material is composed of polystyrene (35 kg/mol molecular weight) and a high structure carbon black, Ketjenblack EC-600JD. We used a dual-solvent system for ink formulation and compared its print morphology, and sensing performance with a single-solvent system. The dual solvent system improved droplet formation and minimized coffee ring formation. The sensor response to acetone and ethanol was studied. We observed a 2-fold improved sensitivity due to the absence of the coffee ring effect, which is presumably linked to more uniformity of the surface and fewer variations in the film thickness. Moreover, a superior sensor response/recovery time was obtained by using a dedicated print strategy, e.g., inter-droplet spacing and print pattern layout.
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