Orzari Luiz O, Kalinke Cristiane, Silva-Neto Habdias A, Rocha Danielly S, Camargo Jéssica R, Coltro Wendell K T, Janegitz Bruno C
Department of Nature Sciences, Mathematics and Education, Federal University of São Carlos, 13600-970 Araras, São Paulo, Brazil.
Department of Physics, Chemistry and Mathematics, Federal University of São Carlos, 18052-780 Sorocaba, São Paulo, Brazil.
Anal Chem. 2025 Jan 28;97(3):1482-1494. doi: 10.1021/acs.analchem.4c05786. Epub 2025 Jan 16.
A few decades ago, the technological boom revolutionized access to information, ushering in a new era of research possibilities. Electrochemical devices have recently emerged as a key scientific advancement utilizing electrochemistry principles to detect various chemical species. These versatile electrodes find applications in diverse fields, such as healthcare diagnostics and environmental monitoring. Modern designs have given rise to innovative manufacturing protocols, including screen and additive printing methods, for creating sophisticated 2D and 3D electrochemical devices. This perspective provides a comprehensive overview of the screen-printing and additive-printing protocols for constructing electrochemical devices. It is also informed that screen-printed sensors offer cost-effectiveness and ease of fabrication, although they may pose challenges due to the use of toxic volatile inks and limited design flexibility. On the other hand, additive manufacturing, especially the fused filament fabrication (or fused deposition modeling) strategies, allows for intricate three-dimensional sensor designs and rapid prototyping of customized equipment. However, the post-treatment processes and material selection can affect production costs. Despite their unique advantages and limitations, both printing techniques show promise for various applications, driving innovation in the field toward more advanced sensor designs. Finally, these advancements pave the way for improved sensor performance and expand possibilities for academic, environmental, and industrial applications. The future is full of exciting opportunities for state-of-the-art sensor technologies that will further improve our ability to detect and determine various substances in a wide range of environments as researchers continue to explore the many possibilities of electrochemical devices.
几十年前,技术繁荣彻底改变了信息获取方式,开启了一个研究可能性的新时代。电化学装置最近作为一项关键的科学进展出现,它利用电化学原理来检测各种化学物质。这些多功能电极在医疗诊断和环境监测等不同领域都有应用。现代设计催生了创新的制造协议,包括丝网印刷和增材印刷方法,用于制造复杂的二维和三维电化学装置。这篇综述全面概述了用于构建电化学装置的丝网印刷和增材印刷协议。还得知,丝网印刷传感器具有成本效益且易于制造,不过由于使用有毒挥发性油墨以及设计灵活性有限,可能会带来挑战。另一方面,增材制造,尤其是熔丝制造(或熔积成型)策略,允许进行复杂的三维传感器设计以及定制设备的快速原型制作。然而,后处理过程和材料选择会影响生产成本。尽管这两种印刷技术都有其独特的优势和局限性,但它们在各种应用中都展现出了潜力,推动该领域朝着更先进的传感器设计方向创新。最后,这些进展为提高传感器性能铺平了道路,并扩展了学术、环境和工业应用的可能性。随着研究人员继续探索电化学装置的诸多可能性,对于最先进的传感器技术而言,未来充满了令人兴奋的机遇,这将进一步提升我们在广泛环境中检测和测定各种物质的能力。