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Vanadium Pentoxide (V2O5): Their Obtaining Methods and Wide Applications 五氧化二钒(V2O5)的制备方法及广泛应用
Pub Date : 2021-03-16 DOI: 10.5772/INTECHOPEN.96860
D. T. Cestarolli, E. M. Guerra
The first synthesis of pentoxide vanadium (V2O5) as gel completed 135 years in 2020. Since its first synthesis, the V2O5 has attracted attention over the years in different areas in science and technology. There are several possibilities to obtain V2O5 resulting in different structures. Among these methods, it is possible to mention the sol–gel, hydrothermal/solvothermal synthesis, electrospinning, chemical vapor deposition (CVD), physical vapor deposition (PVD), template-based methods, reverse micelle techniques, Pechini method and electrochemical deposition that can be considered as the great asset for its varied structures and properties. Progress towards obtaining of different structures of V2O5, and phases have been resulted in lamellar structure with wide interlayer spacing, good chemical and thermal stability and thermoelectric and electrochromic properties. Throughout this advancement, its performance for industrial applications have made a strong candidate in electrochromic devices, photovoltaic cell, reversible cathode materials for Li batteries, supercapacitor, among others. This chapter will be to assist an updated review since the first synthesis up to current development.
第一次以凝胶形式合成五氧化二钒(V2O5)是在135年前的2020年。自首次合成以来,V2O5多年来在不同的科学技术领域引起了人们的关注。有几种获得V2O5的可能性,从而产生不同的结构。在这些方法中,溶胶-凝胶、水热/溶剂热合成、静电纺丝、化学气相沉积(CVD)、物理气相沉积(PVD)、基于模板的方法、反胶束技术、Pechini方法和电化学沉积可以被认为是其多种结构和性能的重要资产。不同结构的V2O5和相的制备取得了进展,形成了层间距宽、化学和热稳定性好、热电和电致变色性能好的片层结构。在这一进展中,其工业应用性能已成为电致变色器件、光伏电池、锂电池可逆阴极材料、超级电容器等领域的有力候选材料。本章将协助从第一次合成到当前发展的最新审查。
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引用次数: 6
High Temperature Superconductors 高温超导体
Pub Date : 2021-03-10 DOI: 10.5772/INTECHOPEN.96419
M. Ikram, A. Raza, Shehnila Altaf, Arslan Ahmed Rafi, Misbah Naz, Sarfraz Ali, Syed Ossama Ali Ahmad, A. Khalid, Salamat Ali, J. Haider
One of the pioneers who introduced superconductivity of metal solids was Kamerlingh Onnes (1911). Researchers always struggled to make observations towards superconductivity at high temperatures for achieving goals of evaluating normal room temperature superconductors. The physical properties are based entirely on the behavior of conventional and metal superconductors as a result of high-temperature superconductors. Various synthetic approaches are employed to fabricate high-temperature superconductors, but solid-state thermochemical process which involves mixing, calcinating, and sintering is the easiest approach. Emerging novel high-temperature superconductors mainly engaged with technological applications such as power transmission, Bio-magnetism, and Tokamaks high magnetic field. Finally, in this chapter, we will discuss a brief outlook, future prospects, and finished with possible science fiction and some opportunities with high-temperature superconductors.
介绍金属固体超导性的先驱者之一是卡默林昂尼斯(1911年)。研究人员一直在努力观察高温下的超导性,以实现评估正常室温超导体的目标。由于高温超导体,其物理性质完全基于传统超导体和金属超导体的行为。制造高温超导体的合成方法多种多样,但固态热化学方法(包括混合、煅烧和烧结)是最简单的方法。新兴的新型高温超导体主要从事电力传输、生物磁学、托卡马克高磁场等技术应用。最后,在本章中,我们将简要讨论展望,展望未来,并以可能的科幻小说和高温超导体的一些机会结束。
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引用次数: 0
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Transition Metal Compounds - Synthesis, Properties, and Application
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