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<p>Even <!--Query ID="Q1" Text="Please check and confirm that the authors and their respective affiliation have been correctly identified and amend if necessary." Resolved="yes"-->though ferroelectric components have been developed exclusively for use in electronic device applications, it is desirable to investigate possible ceramic material with extremely stable structure and improved temperature-dependent electrical properties. Thus, the research aspiration is to explore an environmental friendly Fe(Ni<sub>2/3</sub>V<sub>1/3</sub>)O<sub>3</sub> material with the help of mixed oxide synthesis process. The X-ray diffraction with W-H analysis, SEM micrograph-topography and EDAX assessment have been carried out to describe the formulated ceramic’s nature, homogeneous distribution of grains as well as chemical composition. By using impedance spectroscopy, the temperature-frequency dependent insulating (dielectric), resistive, capacitive as well as conducting features have been experimentally delineated. The presence of individual substance is affirmed from the distinctive peak of the absorption bands of FTIR spectroscopy. The observed semiconducting nature, temperature-dependent capacitive properties, and dielectric frequency dispersion response with a notably low dielectric loss are the major attraction of this ceramic. With a measured sensitivity of 3.36 nF/℃, the comprehensive study substantiates this material’s usefulness as a capacitive thermal sensing component for electronics applications.</p>

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Exploration of Fe(Ni2/3V1/3)O3 ceramic electronic material: investigation of morphological-topological, dielectric and capacitive sensing characteristics

  • 期刊论文

  • 发表日期：

    2025年10月28日

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  • Jagadish Chandra Padhi,
  • Seshadev Sahoo,
  • Satyanarayan Bhuyan

摘要

Even though ferroelectric components have been developed exclusively for use in electronic device applications, it is desirable to investigate possible ceramic material with extremely stable structure and improved temperature-dependent electrical properties. Thus, the research aspiration is to explore an environmental friendly Fe(Ni2/3V1/3)O3 material with the help of mixed oxide synthesis process. The X-ray diffraction with W-H analysis, SEM micrograph-topography and EDAX assessment have been carried out to describe the formulated ceramic’s nature, homogeneous distribution of grains as well as chemical composition. By using impedance spectroscopy, the temperature-frequency dependent insulating (dielectric), resistive, capacitive as well as conducting features have been experimentally delineated. The presence of individual substance is affirmed from the distinctive peak of the absorption bands of FTIR spectroscopy. The observed semiconducting nature, temperature-dependent capacitive properties, and dielectric frequency dispersion response with a notably low dielectric loss are the major attraction of this ceramic. With a measured sensitivity of 3.36 nF/℃, the comprehensive study substantiates this material’s usefulness as a capacitive thermal sensing component for electronics applications.