无铅铌酸钠钾与锆钛酸铅的生命周期评估:能源和环境影响

IF 10.7 Q1 CHEMISTRY, PHYSICAL
EcoMat Pub Date : 2024-04-25 DOI:10.1002/eom2.12450
Yanqi Wu, Pak-Sheng Soon, Jing-Tong Lu, Jinling Zhou, Yi-Xuan Liu, Zhaohui Guo, Ke Wang, Wen Gong
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引用次数: 0

摘要

多年来,铅基压电陶瓷被广泛应用于传感器和致动器等重要领域。尽管含铅材料具有卓越的机电特性,但它会带来严重的环境风险,因此经过数十年的研究,无铅压电材料的新时代已经到来。然而,最近对铌酸钠钾(KNN)和锆钛酸铅(PZT)压电材料进行的比较评估表明,由于原材料的提取和加工,在使用前就已经对环境造成了破坏,这引发了人们对无铅替代品是否真正绿色环保的担忧。不过,还有许多其他因素值得进一步考虑,例如参考几何形状和生命周期阶段。在此,我们对单位体积为 0.001 立方米的 PZT 和 KNN 基陶瓷进行了从摇篮到大门的全面生命周期评估。结果表明,与 KNN 基陶瓷相比,PZT 具有更高的负面影响,主要归因于铅的提取、加工和相关的环境排放。从毒性、环境和资源方面的主要定量影响指标来看,KNN 基陶瓷对环境和人类健康造成的风险较小,总体影响仅为 PZT 陶瓷的 28%。尽管如此,KNN 基陶瓷仍需要更有效的方法,以减少原材料 Nb2O5 的提取和提纯过程中的高能耗和高排放。这项工作不仅为材料开发提供了重要启示,也为先进的制造技术提供了多方面的参考。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Life cycle assessment of lead-free potassium sodium niobate versus lead zirconate titanate: Energy and environmental impacts

Life cycle assessment of lead-free potassium sodium niobate versus lead zirconate titanate: Energy and environmental impacts

Life cycle assessment of lead-free potassium sodium niobate versus lead zirconate titanate: Energy and environmental impacts

Over the years, lead-based piezoelectric ceramics found extensive use in vital fields such as sensors and actuators. Despite their exceptional electromechanical properties, lead-containing materials pose severe environmental risks and foster a new era of lead-free piezoelectric materials after decades of research. However, recent comparative assessments of potassium sodium niobate (KNN) versus lead zirconate titanate (PZT) piezoelectric materials proposed that the environmental damage already presented before use due to raw material extraction and processing, invoking concerns on the true greenness of the lead-free alternatives. Nevertheless, many other factors deserve further consideration, for example, reference geometry and life cycle stage. Herein, the comprehensive life cycle assessment is undertaken on PZT and KNN-based ceramics with a unit volume of 0.001 m3 from cradle to gate. Results show that PZT exhibits higher negative impacts than KNN-based counterparts, attributed to lead extraction, processing, and associated environmental emissions. Across primary quantitative impact indicators from toxicity, environmental, and resource aspects, KNN-based ceramics impose fewer risks on the environment and human health, with the overall impact being only 28% of PZT ceramics. Still, more efficient methods are required for KNN-based ceramics to reduce the high energy consumption and emission during extraction and purification of raw material Nb2O5. This work not only offers critical insights for material development but also serves as a multifaceted reference for advanced fabrication technologies.

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CiteScore
17.30
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