基于低维铅色谱的电容和极化混合系统:一种压力感应电压发生器的柔性装置

IF 4.8 Q2 MATERIALS SCIENCE, MULTIDISCIPLINARY
Sarit K. Ghosh, Harishchandra Singh, Kaushik Mallick
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引用次数: 0

摘要

摘要采用络合策略合成了有机分子功能化铬酸铅纳米颗粒。结构表征表明,该单相铬酸铅体系属于独居石型单斜结构,空间群为P2 1 /n。单元胞由多面体(pbo9)和四面体(cro4)单元的交替链组成,通过边角共享安排连接。制备了一种柔性铬酸铅器件,研究了该器件在不同频率和温度环境下的介电容量、电阻抗、电导率和场相关极化性能。在120℃、100 Hz频率条件下,器件的最大介电常数ε′= 2400。高介电常数值来源于cro4单元的取向极化和体系中空间电荷的贡献。器件的交流电导率表明,极化载流子通过局域跳变机制控制整个传导过程。在4.0 kV/mm的电场作用下,器件在103次循环下具有无疲劳极化特性,在开关周期内极化值保持在~ 0.26 μC/ cm2。该装置在不同的压力条件下也能产生压力感应电压,具有作为电压发生器的潜在应用价值。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Low-dimensional lead chromate-based hybrid system for capacitance and polarization performances: a flexible device for pressure-induced voltage generator
Abstract Organic molecule–functionalized lead chromate nanoparticle was synthesized using a complexation strategy route. The structural characterization revealed the single-phase lead chromate system belongs to monazite-type monoclinic structure with the space group of P2 1 /n. The unit cell consists of an alternating chain of polyhedra (PbO 9 ) and tetrahedra (CrO 4 ) units, connected via edge and corner-sharing arrangement. A flexible device of lead chromate was fabricated and investigated dielectric capacitance, electrical impedance, conductivity, and field dependent polarization performances under different frequency and temperature environments. The device displayed a maximum dielectric constant ( ε ʹ) value ~ 2400 at 120°C under 100 Hz frequency condition. High dielectric constant value is originated from the orientation polarization of CrO 4 unit and space charge contribution in the system. AC conductivity of the device suggested the polaronic charge carriers control the overall conduction process via localized hopping mechanism. A fatigue-free polarization behavior was observed in the device under the applied field of 4.0 kV/mm, for 10 3 cycles and retained the polarization value ~ 0.26 μC/cm 2 over the switching cycles. Lead chromate–based device also showed pressure-induced voltage generation under different pressure conditions and could have the potential application as a voltage generator.
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来源期刊
Emergent Materials
Emergent Materials MATERIALS SCIENCE, MULTIDISCIPLINARY-
CiteScore
7.40
自引率
2.60%
发文量
88
期刊介绍: Emergent Materials is a multidisciplinary peer-reviewed journal, which publishes reviews, mini reviews, communications, progress reports, research news and original research articles at the forefront of physics, chemistry, biology, and engineering of advanced materials. Submissions will cover a wide range of articles, reviews and communications from the design and preparation of emerging materials to cutting edge applications.Emergent Materials aims to publish a series of high quality and high impact research articles that reflect and bring the best Research, at the forefront of physics, chemistry, biology, and engineering of advanced materials to the international research community. All manuscripts will be subjected to a preliminary review prior to the full reviewing process in order to evaluate their suitability for publication.Emergent Materials publishes articles that focus on but are not limited to, a variety of topics such as:• Design, synthesis, and characterization of advanced materials• Hierarchical materials• Self-assembly of materials• Polymers and composites• Coatings and membranes• Green and sustainable materials• Micro, meso and nanoporous materials• Nanostructures, nanocomposites and thin film• Carbon-based materials and applications• Renewable energy/Environment materials• Novel optical materials• Biomaterials• Catalysis• Surface Science and Engineering• Functional materials• Alloys design, synthesis, and applications• Nano-devices
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