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迈向环境友好型压电陶瓷——从概念构思到实际应用减少能源消耗和环境影响

Toward Ecofriendly Piezoelectric Ceramics-Reduction of Energy and Environmental Footprint from Conceptualization to Deployment.

作者信息

Anandakrishnan Sivagnana Sundaram, Yadav Suhas, Tabeshfar Mohadeseh, Balanov Vasilii, Kaushalya Tharaka, Nelo Mikko, Peräntie Jani, Juuti Jari, Bai Yang

机构信息

Microelectronics Research Unit Faculty of Information Technology and Electrical Engineering University of Oulu Oulu FI-90570 Finland.

出版信息

Glob Chall. 2023 Jul 8;7(8):2300061. doi: 10.1002/gch2.202300061. eCollection 2023 Aug.

Abstract

Piezoelectric materials are widely used in electromechanical coupling components including actuators, kinetic sensors, and transducers, as well as in kinetic energy harvesters that convert mechanical energy into electricity and thus can power wireless sensing networks and the Internet of Things (IoT). Because the number of deployed energy harvesting powered systems is projected to explode, the supply of piezoelectric energy harvesters is also expected to be boosted. However, despite being able to produce green electricity from the ambient environment, high-performance piezoelectrics (i.e., piezoelectric ceramics) are energy intensive in research and manufacturing. For instance, the design of new piezoceramics relies on experimental trials, which need high process temperatures and thus cause high consumption and waste of energy. Also, the dominant element in high-performance piezoceramics is hazardous Pb, but substituting Pb with other nonhazardous elements may lead to a compromise of performance, extending the energy payback time and imposing a question of trade-offs between energy and environmental benefits. Meanwhile, piezoceramics are not well recycled, raising even more issues in terms of energy saving and environmental protection. This paper discusses these issues and then proposes solutions and provides perspectives to the future development of different aspects of piezoceramic research and industry.

摘要

压电材料广泛应用于机电耦合部件,包括致动器、动力学传感器和换能器,以及将机械能转化为电能从而为无线传感网络和物联网(IoT)供电的动能收集器。由于预计部署的由能量收集供电的系统数量将激增,压电能量收集器的供应也有望增加。然而,尽管高性能压电材料(即压电陶瓷)能够从周围环境中产生绿色电力,但在研究和制造过程中却能源密集。例如,新型压电陶瓷的设计依赖于实验试验,这需要较高的加工温度,从而导致高能耗和能源浪费。此外,高性能压电陶瓷中的主要元素是有害的铅,但用其他无害元素替代铅可能会导致性能下降,延长能源回收时间,并引发能源与环境效益之间的权衡问题。同时,压电陶瓷的回收利用不佳,在节能和环境保护方面引发了更多问题。本文讨论了这些问题,然后提出了解决方案,并对压电陶瓷研究和产业不同方面的未来发展提供了展望。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/ac57/10448148/8a6b1780c17f/GCH2-7-2300061-g003.jpg

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