钙钛矿(结构)
铁电性
材料科学
歧管(流体力学)
纳米技术
化学工程
工程物理
光电子学
结晶学
化学
电介质
物理
工程类
机械工程
作者
M. L. Calzada,Íñigo Bretos,Ricardo Jiménez,J. Ricote,R. Sirera,Miguel Algueró,Adriana Barreto,Yadira Andrea Rivas,María Echániz-Cintora
标识
DOI:10.1021/acsaem.4c02906
摘要
The advancement of smart materials is crucial for addressing the cross-cutting challenges of contemporary society. These materials are expected to help raise living standards through the expansion of smart cities, efficient management of natural resources, pollution control, and improvements in social welfare. Consequently, the multifunctionality of ferroelectric oxides makes them ideal candidates for meeting these demands. Among ferroelectric oxide materials, bismuth ferrite (BiFeO3) stands out as a multiferroic compound with ferroelectric, ferroelastic, and antiferromagnetic properties at room temperature. It also has one of the lowest bandgaps among ferroelectrics, making it a photoferroelectric compound with both photovoltaic and photocatalytic properties. These responses can be fine-tuned by partially substituting Fe3+ ions with selected cations or by creating solid solutions between BiFeO3 and other ferroelectric perovskites. BiFeO3-based thin-film materials are regarded as ideal for harnessing the diverse properties of BiFeO3 in emerging technologies. Chemical solution deposition methods facilitate the design of crystallization pathways for metal oxides, such as BiFeO3 thin films, making them essential for developing low-temperature strategies that offer benefits ranging from reduced environmental impact to lower manufacturing costs. A greater challenge lies in preparing BiFeO3 films at temperatures compatible with their direct integration into flexible systems using polymeric substrates. This spotlight article highlights, through examples from our group's research over the past decade, the various applications of BiFeO3-based perovskite thin films in emerging technologies. Interest is not only in devices based on rigid single-crystal substrates, like silicon, but also in those using flexible polymer substrates. Here, we discuss the promising opportunities of using low-cost, high-throughput solution deposition methods for producing multifunctional BiFeO3-based perovskite films for future applications.
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