Nature-inspired interfacial engineering for energy harvesting

Baoping Zhang, Wanghuai Xu, Liang Peng, Yuchao Li, Wei Zhang, Zuankai Wang
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Abstract

The ever-increasing demand for low-carbon energy underscores the urgency of harvesting renewable energy sources. Despite notable progress, current energy harvesting techniques are still limited by low efficacy and poor durability. Biological systems exhibit diverse principles of energy harvesting owing to their ability to interact with the environment. In this Review, we explore diverse energy harvesting processes in nature to establish a fundamental understanding of nature’s strategies and provide a biomimicry design blueprint for high-efficiency energy harvesting systems. Next, we systematically discuss recent progress in nature-inspired surface/interface designs for efficient energy harvesting from water, sunlight and heat. We then highlight emerging hybrid approaches that can integrate multiple energy conversion processes within a single design through interface engineering to achieve mutual reinforcement. Finally, we deliberate on remaining fundamental and technical challenges to guide future research directions and potential applications of sustainable energy harvesting. Nature evolves intricate surfaces/interfaces to achieve high energy efficiency, providing a promising, low-carbon solution to energy crisis. This Review explores diverse energy processes in nature and how to translate nature’s inspiration to efficiently harvest energy from water, sunlight, heat and their hybrids, especially through interfacial engineering.

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受大自然启发的能源采集界面工程
对低碳能源日益增长的需求凸显了收集可再生能源的紧迫性。尽管取得了显著进展,但目前的能量收集技术仍然受到效率低和耐用性差的限制。生物系统由于能够与环境相互作用,因此表现出多种能量收集原理。在本综述中,我们探讨了自然界的各种能量收集过程,以建立对自然界策略的基本认识,并为高效能量收集系统提供一个生物模拟设计蓝图。接下来,我们系统地讨论了从大自然中获得启发的表面/界面设计的最新进展,以便从水、阳光和热量中高效采集能量。然后,我们重点介绍了新出现的混合方法,这些方法可以通过界面工程将多种能量转换过程整合到单一设计中,从而实现相互促进。最后,我们讨论了剩余的基础和技术挑战,以指导可持续能源采集的未来研究方向和潜在应用。
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