High performance flexible piezoelectric sensor based on P(VDF-HFP)/ boron nitride/graphene oxide composite film for smart clothing

IF 4.3 3区 材料科学 Q2 MATERIALS SCIENCE, COATINGS & FILMS
Jiyan Zhang , Jun Fu , Yuhuai Teng , Yibo Wu , Qisong Shi , Yongri Liang
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Abstract

In this study, polyvinylidene fluoride-hexafluoropropylene (PVDF-HFP) was used as the matrix, different percentages of Boron Nitride (BN) and Graphene Oxide (GO) were added to P(VDF-HFP), piezoelectric nanofiber films were prepared using electrospinning technology. Through a series of tests, it was determined that the composite film with 2 % BN and 4 % GO exhibited the best piezoelectric effect. The β-phase content increased from 76.01 %, to 98.48 %. The remanent polarization increased from 0.029 μC/cm2 to 0. 098 μC/cm2, BN and GO synergistically enhanced the piezoelectric effect of P(VDF-HFP) film, the presence of GO induces the transformation of BN from multilayer to monolayer, which breaks the inverse symmetry of BN and thus enhances the piezoelectric effect, and the presence of GO increases the flow of electrons between the nanomaterials. While the B atoms in the BN interact with the F atoms in P(VDF-HFP), which promotes the enhancement of the β-phase in the PVDF-HFP. The piezoelectric film was made into piezoelectric sensor, under a force of 2 N, the piezoelectric output increased from 1.5 V to 7.3 V, the sensitivity increased from 0.722 V kPa−1 to 3.068 V kPa−1. The manufactured piezoelectric sensor exhibits fast response and recovery times (13.66/19.25 ms), after 7000 cycles of testing, the sensor maintained good stability. The developed piezoelectric sensor can detect human motion states, sense the temperature and harvest high-entropy energy to power electronic watches, showing promising potential for applications in smart clothing.

Abstract Image

基于P(VDF-HFP)/氮化硼/氧化石墨烯复合薄膜的智能服装用高性能柔性压电传感器
本研究以聚偏氟乙烯-六氟丙烯(PVDF-HFP)为基体,在P(VDF-HFP)中加入不同比例的氮化硼(BN)和氧化石墨烯(GO),采用静电纺丝技术制备压电纳米纤维薄膜。通过一系列的测试,确定了2% BN和4% GO的复合薄膜具有最好的压电效果。β相含量由76.01%增加到98.48%。剩余极化由0.029 μC/cm2增加到0。098 μC/cm2时,氮化硼和氧化石墨烯协同增强了P(VDF-HFP)薄膜的压电效应,氧化石墨烯的存在促使氮化硼从多层向单层转变,打破了氮化硼的逆对称性,从而增强了压电效应,氧化石墨烯的存在增加了纳米材料之间的电子流动。BN中的B原子与P(VDF-HFP)中的F原子相互作用,促进了PVDF-HFP中β相的增强。将压电薄膜制成压电传感器,在2 N的力作用下,压电输出由1.5 V增加到7.3 V,灵敏度由0.722 V kPa−1增加到3.068 V kPa−1。所制备的压电传感器具有快速的响应和恢复时间(13.66/19.25 ms),经过7000次循环测试,传感器保持了良好的稳定性。开发的压电传感器可以检测人体运动状态,感知温度,并收集高熵能量为电子表提供动力,显示出在智能服装上应用的巨大潜力。
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来源期刊
Diamond and Related Materials
Diamond and Related Materials 工程技术-材料科学:综合
CiteScore
6.00
自引率
14.60%
发文量
702
审稿时长
2.1 months
期刊介绍: DRM is a leading international journal that publishes new fundamental and applied research on all forms of diamond, the integration of diamond with other advanced materials and development of technologies exploiting diamond. The synthesis, characterization and processing of single crystal diamond, polycrystalline films, nanodiamond powders and heterostructures with other advanced materials are encouraged topics for technical and review articles. In addition to diamond, the journal publishes manuscripts on the synthesis, characterization and application of other related materials including diamond-like carbons, carbon nanotubes, graphene, and boron and carbon nitrides. Articles are sought on the chemical functionalization of diamond and related materials as well as their use in electrochemistry, energy storage and conversion, chemical and biological sensing, imaging, thermal management, photonic and quantum applications, electron emission and electronic devices. The International Conference on Diamond and Carbon Materials has evolved into the largest and most well attended forum in the field of diamond, providing a forum to showcase the latest results in the science and technology of diamond and other carbon materials such as carbon nanotubes, graphene, and diamond-like carbon. Run annually in association with Diamond and Related Materials the conference provides junior and established researchers the opportunity to exchange the latest results ranging from fundamental physical and chemical concepts to applied research focusing on the next generation carbon-based devices.
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