Enhanced photoelectric and thermoelectric coupling factor in BiMn2O5 ferroelectric film

Advanced Powder Materials Pub Date : 2025-02-01 Epub Date: 2024-12-11 DOI:10.1016/j.apmate.2024.100260
Aohan Xu , Chong Guo , Weiqi Qian , Chris R. Bowen , Ya Yang
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Abstract

Ferroelectric film materials have attracted significant interest due to their potential for harvesting various forms of clean energy from natural environmental sources. However, the photoelectric performance of these materials is frequently constrained by heat generation during light absorption, resulting in significant thermal losses. Most of ferroelectric films produce photocurrent and thermocurrent with opposite polarity, thus weakening the coupled photo-thermoelectric output of the devices. Here we report on a LaNiO3/BiMn2O5(BMO)/ITO ferroelectric film to produce photocurrent and thermocurrent with the same polarity. The polarity of the photocurrent generated by the BMO film is shown to be determined solely by the direction of spontaneous polarization, overcoming the detrimental effect of Schottky barrier for energy harvesting in device. We propose a new strategy to enhance the coupling factor, thereby offering valuable new insights for optimizing the utilization of ferroelectric materials in both light and heat energy applications.

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提高BiMn2O5铁电薄膜的光电和热电耦合系数
铁电薄膜材料由于具有从自然环境资源中收集各种形式的清洁能源的潜力而引起了人们的极大兴趣。然而,这些材料的光电性能经常受到光吸收过程中产生的热的限制,导致显著的热损失。大多数铁电薄膜产生极性相反的光电流和热电流,从而削弱了器件的耦合光热电输出。本文报道了一种能产生具有相同极性的光电流和热电流的LaNiO3/BiMn2O5(BMO)/ITO铁电薄膜。BMO薄膜产生的光电流的极性仅由自发极化方向决定,克服了肖特基势垒对器件能量收集的不利影响。我们提出了一种新的策略来提高耦合系数,从而为优化铁电材料在光能和热能应用中的利用提供了有价值的新见解。
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