Polarization and Strain in Piezoelectric Nanomaterials: Advancing Sensing Applications in Biomedical Technology

IF 1.8 Q3 MATERIALS SCIENCE, MULTIDISCIPLINARY
Anmol Garg;Sajal Agarwal;Deepak Punetha
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Abstract

This paper reports the comparative analysis of different piezoelectric materials through a MEMS-based piezoelectric actuator model, emphasizing their potential for sensing applications. The polarization and electrostrictive strain tensor capabilities have been extensively studied for different piezoelectric materials such as PZT, LiNbO 3 , PVDF, etc. The simulation results obtained at varying voltages and mechanical stress demonstrate that LiNbO 3 exhibits superior performance among the tested materials, with a polarization value of 0.5163 C/m 2 at 800 volts and an electrostrictive strain tensor of 0.01 at an applied mechanical stress of 25 MPa. These findings will assist scientists in selecting the most suitable piezoelectric materials for sensing applications in biomedical fields.
压电纳米材料中的极化和应变:推进生物医学技术中的传感应用
本文报告了通过基于 MEMS 的压电致动器模型对不同压电材料进行的比较分析,强调了它们在传感应用方面的潜力。本文广泛研究了不同压电材料(如 PZT、LiNbO3、PVDF 等)的极化和电致应变张量能力。在不同电压和机械应力下获得的模拟结果表明,LiNbO3 在测试材料中表现出更优越的性能,在 800 伏特电压下的极化值为 0.5163 C/m2,在施加 25 兆帕机械应力时的电致伸缩应变张量为 0.01。这些发现将有助于科学家为生物医学领域的传感应用选择最合适的压电材料。
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
CiteScore
3.90
自引率
17.60%
发文量
10
审稿时长
12 weeks
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