发电
光伏系统
热电发电机
分布式发电
独立电源系统
环境科学
电
可再生能源
储能
发电成本
工艺工程
材料科学
工程物理
功率(物理)
电气工程
热电效应
工程类
物理
热力学
量子力学
作者
Meiling Liu,Xiansheng Li,Liang Li,Shanguang Zhao,Jinglin Zhu,Ting Zhou,Zhihan Lin,Jianjun Li,Bowen Sun,Gang Pei,Bin Zhao,Chongwen Zou
出处
期刊:Small
[Wiley]
日期:2024-05-28
卷期号:20 (35): e2403020-e2403020
被引量:13
标识
DOI:10.1002/smll.202403020
摘要
Abstract Energy conversion from the environment into electricity is the most direct and effective electricity source to sustainably power off‐grid electronics, once the electricity requirement exceeds the capability of traditional centralized power supply systems. Normally photovoltaic cells have enabled distributed power generation during the day, but do not work at night. Thus, efficient electricity generation technologies for a sustainable all‐day power supply with no necessity for energy storage remain a challenge. Herein, an innovative all‐day power generation strategy is reported, which self‐adaptively integrates the diurnal photothermal and nocturnal radiative cooling processes into the thermoelectric generator (TEG) via the spectrally dynamic modulated coating, to continuously harvest the energy from the hot sun and the cold universe for power generation. Synergistic with the optimized latent heat phase change material, the electricity generation performance of the TEG is dramatically enhanced, with a maximum power density exceeding 1000 mW m −2 during the daytime and up to 25 mW m −2 during the nighttime, corresponding to an improvement of 123.1% and 249.1%, compared with the conventional strategy. This work maximizes the utilization of ambient energy resources to provide an environmentally friendly and uninterrupted power generation strategy. This opens up new possibilities for sustained power generation both daytime and nighttime.
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