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Hybrid fabrication of piezoelectric thick films using a sol-infiltration and photosensitive direct-patterning technique

机译:使用溶胶渗透和光敏直接构图技术混合制造压电厚膜

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摘要

We propose a hybrid fabrication technique for piezoelectric thick films using sol-infiltration and a direct-patterning process. To achieve the demands of high-density and direct-patterning at a low sintering temperature, a photosensitive lead zirconate titanate (PZT) solution was infiltrated into a lead zinc niobate–lead zirconate titanate (PZN–PZT) thick film. The direct-patterned PZT films were formed on a locally screen-printed thick film, using a photomask and UV light. By optimizing the thickness of the photosensitive PZT layer, the hybrid films that were prepared with a 120-s soaking time of PZT sol showed a very dense and uniform microstructure with a large grain size at a low sintering temperature of 800 °C. It also had enhanced electrical properties. The measured remnant polarization (Pr) and coercive field (Ec) were 14.61 μC cm−2 and 24.16 kV cm−1, respectively. The Pr value was over four times greater than those of the screen-printed films. We fabricated array-type piezoelectric resonators with direct-patterned PZN–PZT thick films to show the ability of the direct-patterning of the PZT thick film on a silicon wafer for actuator and sensor application, especially for mass production.
机译:我们提出了一种使用溶胶渗透和直接构图工艺的压电厚膜混合制造技术。为了在低烧结温度下实现高密度和直接图案化的要求,将光敏锆酸钛酸铅(PZT)溶液渗入铌酸铅锌-锆钛酸铅(PZN-PZT)厚膜中。使用光掩模和紫外光在局部丝网印刷的厚膜上形成直接图案化的PZT膜。通过优化光敏PZT层的厚度,以120 s的PZT溶胶均热时间制备的杂化膜在800°C的低烧结温度下显示出非常致密且均匀的微观结构,且晶粒大。它还具有增强的电性能。测得的剩余极化(Pr)和矫顽场(Ec)分别为14.61μC·cm-2和24.16kV·cm-1。 Pr值是丝网印刷膜的四倍以上。我们制造了具有直接图案化PZN–PZT厚膜的阵列型压电谐振器,以展示在硅晶片上直接图案化PZT厚膜的能力,以用于致动器和传感器应用,特别是用于批量生产。

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  • 来源
    《Journal of Materials Science》 |2015年第11期|3845-3853|共9页
  • 作者单位

    Center for BioMicrosystems Korea Institute of Science and Technology (KIST)">(1);

    Department of Materials Science and Engineering Yonsei University">(3);

    Department of Electrical Engineering Kwangwoon University">(2);

    Center for BioMicrosystems Korea Institute of Science and Technology (KIST)">(1);

    Department of Materials Science and Engineering Yonsei University">(3);

    Center for BioMicrosystems Korea Institute of Science and Technology (KIST)">(1);

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