Smart Acrylic Coating, Incorporated with PAN/MOF/CNT Composite, for Real-Time and Noncontact Detection of Accidental Acid/Base Contamination

IF 3.4
Journal of chemical health & safety Pub Date : 2026-05-25 Epub Date: 2026-03-16 DOI:10.1021/acs.chas.5c00182
Jahyun Nam, , , Jina Yang, , , Kyung-Min Yeon*, , and , Jungbae Kim*, 
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Abstract

A smart acrylic coating, functionalized with a nanocomposite of polyaniline (PAN), a metal–organic framework (MOF), and carbon nanotubes (CNT), is developed as an intelligent engineering control for the real-time, noncontact detection of chemical hazards. The coating provides a dual-signal response to acid/base contamination, exhibiting a reversible, pH-dependent color shift, while simultaneously generating measurable surface-voltage fluctuations. Formulated for practical application in a commercial water-borne acrylic matrix, the coating is demonstrated to be safe and durable, with low volatile organic compound emissions (0.055 mg/m2 h) and acceptable color stability (ΔE < 4 after a month). The system shows electrical signals to chemical spills, with the surface voltage increasing from a 4.5 mV baseline to 184 mV upon acid contact and −50 mV upon ammonia exposure. The versatility of the core technology is further demonstrated in a passive near field communication tag, which functions as a chemi-responsive switch for nonline-of-sight detection within confined spaces. This work validates a multimodal sensing technology across multiple platforms, presenting a significant advancement in proactive engineering controls for chemical safety.

智能丙烯酸涂料,结合PAN/MOF/CNT复合材料,用于实时和非接触检测意外酸/碱污染
采用聚苯胺(PAN)、金属有机骨架(MOF)和碳纳米管(CNT)的纳米复合材料功能化的智能丙烯酸涂层,作为一种实时、非接触检测化学危害的智能工程控制手段。该涂层对酸/碱污染提供双信号响应,表现出可逆的、ph依赖的色移,同时产生可测量的表面电压波动。该涂料适用于商业水性丙烯酸基体的实际应用,安全耐用,挥发性有机化合物排放量低(0.055 mg/m2 h),颜色稳定性可接受(一个月后为ΔE <; 4)。该系统显示化学物质泄漏的电信号,表面电压从4.5 mV基线增加到接触酸时的184 mV,接触氨时的- 50 mV。核心技术的多功能性在无源近场通信标签中得到进一步证明,该标签可作为化学响应开关,用于密闭空间内的非线性视线检测。这项工作验证了跨多个平台的多模态传感技术,在化学品安全的主动工程控制方面取得了重大进展。
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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CiteScore
4.20
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0.00%
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