使用掺铝氧化锌和碘化铜薄膜的半透明热电玻璃纳米发电机

Mustafa Majid Rashak Al-Fartoos, Anurag Roy, Tapas K. Mallick, Asif Ali Tahir
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引用次数: 0

摘要

为满足降低建筑能耗和应对气候变化的迫切需要,热电玻璃(TEGZ)提供了一种前景广阔的解决方案。这项技术可以利用建筑物的余热并将其转化为电能,同时保持舒适的室内温度。在这里,我们使用具有成本效益的材料,特别是掺铝氧化锌(AZO)和碘化铜(CuI),开发了一种 TEGZ。AZO 和 CuI 都具有很高的优点系数 (ZT),这是衡量热电效率的一个关键指标,在 340 K 时的数值分别为 1.37 和 0.72,这证明了它们在高效热电转换方面的巨大潜力。此外,我们还制作了一个基于 AZO-CuI 的 TEGZ 原型(5 × 5 cm²),其中包含八个纳米发电机,每个在 340 K 时可产生 32 nW。这些结果表明,TEGZ 可以提高建筑能效,为可持续建筑环境提供一种未来方法。由具有成本效益的掺铝氧化锌和碘化铜纳米发电机制成的热电玻璃原型在玻璃两侧实现了 22.5 °C的温差,并从温差中获取电能。这种玻璃对于提高建筑环境的能效至关重要。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A semi-transparent thermoelectric glazing nanogenerator with aluminium doped zinc oxide and copper iodide thin films
To address the pressing need for reducing building energy consumption and combating climate change, thermoelectric glazing (TEGZ) presents a promising solution. This technology harnesses waste heat from buildings and converts it into electricity, while maintaining comfortable indoor temperatures. Here, we developed a TEGZ using cost-effective materials, specifically aluminium-doped zinc oxide (AZO) and copper iodide (CuI). Both AZO and CuI exhibit a high figure of merit (ZT), a key indicator of thermoelectric efficiency, with values of 1.37 and 0.72, respectively, at 340 K, demonstrating their strong potential for efficient heat-to-electricity conversion. Additionally, we fabricated an AZO-CuI based TEGZ prototype (5 × 5 cm²), incorporating eight nanogenerators, each producing 32 nW at 340 K. Early testing of the prototype showed a notable temperature differential of 22.5 °C between the outer and inner surfaces of the window glazing. These results suggest TEGZ could advance building energy efficiency, offering a futuristic approach to sustainable build environment. A thermoelectric glazing prototype made from cost-effective aluminium-doped zinc oxide and copper iodide nanogenerators achieves a 22.5 °C temperature difference on either side of the glaze, harvesting electricity from the differential. Such glazes are critical for increasing energy efficiency in the built environment.
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