Using quartz crystal microbalance with dissipation monitoring to advance plastic risk assessment research

IF 5.4 Q2 ENGINEERING, ENVIRONMENTAL
Nicholas M.K. Rogers , Moshe Herzberg , Ines Zucker
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Abstract

The risk of plastic pollution in the environment is extensive, affecting various matrices and organisms, as well as processes and co-transport of other contaminants. To sufficiently address this complex, multi-dimensional challenge, the span of methods and instrumentation to plastic research must be equally diverse. Quartz crystal microbalance with dissipation monitoring (QCM-D) is an acoustic sensing piezoelectric instrument that can offer unique information relating to both the extent and mechanisms of interactions of plastics in the environment. But, thus far, QCM-D has been highly underutilized and misinterpreted to study environmental plastic fate. When considering the wider breadth of plastic studies, QCM-D plastic research will help to complement current life cycle assessments of plastic fate in environmental systems. In this review, the unique applications of QCM-D pertaining to environmentally relevant plastic research are examined. Through surveying forty-five peer-reviewed articles—which fall into four primary categories—both gathered knowledge and the shortcomings of current QCM-D research on plastics are highlighted. These shortcomings include a narrow range of tested plastics and environmental conditions, as well as neglecting the mechanical compliance of the particle-surface contact. Furthermore, recommendations for the expansion of QCM-D plastic research are provided, with foci including mechanisms of plastic attachment/detachment, targeted detection, and complementary theoretical modeling.

Abstract Image

利用带有耗散监测的石英晶体微天平推进塑性风险评估研究
环境中塑料污染的风险是广泛的,影响到各种基质和生物体,以及其他污染物的过程和共同运输。为了充分解决这一复杂的、多维的挑战,塑料研究的方法和仪器的跨度必须同样多样化。石英晶体微平衡耗散监测(QCM-D)是一种声传感压电仪器,可以提供有关塑料在环境中相互作用的程度和机制的独特信息。但是,到目前为止,QCM-D在研究环境塑料命运方面还没有得到充分的利用和误解。当考虑到更广泛的塑料研究时,QCM-D塑料研究将有助于补充当前环境系统中塑料命运的生命周期评估。本文综述了QCM-D在环境相关塑料研究中的独特应用。通过调查45篇同行评议的文章——这些文章分为四个主要类别——所收集的知识和当前QCM-D塑料研究的缺点都被突出。这些缺点包括测试塑料和环境条件的范围狭窄,以及忽略颗粒表面接触的机械顺应性。此外,对QCM-D塑料研究的扩展提出了建议,重点包括塑料附着/脱离机制,针对性检测和补充理论建模。
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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来源期刊
Journal of hazardous materials advances
Journal of hazardous materials advances Environmental Engineering
CiteScore
4.80
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0.00%
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