Xiong Wei, Peng Yiyan, Ma Weimin, Xu Xurong, Zhao Yueqi, Wu Jinhui, Tang Ruikang
School of Chemistry and Chemical Engineering, Nanchang University, Nanchang 330031, China.
College of Life Sciences, Shanghai Normal University, Shanghai 200234, China.
Natl Sci Rev. 2023 Jul 18;10(10):nwad200. doi: 10.1093/nsr/nwad200. eCollection 2023 Oct.
Photosynthetic energy conversion for high-energy chemicals generation is one of the most viable solutions in the quest for sustainable energy towards carbon neutrality. Microalgae are fascinating photosynthetic organisms, which can directly convert solar energy into chemical energy and electrical energy. However, microalgal photosynthetic energy has not yet been applied on a large scale due to the limitation of their own characteristics. Researchers have been inspired to couple microalgae with synthetic materials via biomimetic assembly and the resulting microalgae-material hybrids have become more robust and even perform new functions. In the past decade, great progress has been made in microalgae-material hybrids, such as photosynthetic carbon dioxide fixation, photosynthetic hydrogen production, photoelectrochemical energy conversion and even biochemical energy conversion for biomedical therapy. The microalgae-material hybrid offers opportunities to promote artificially enhanced photosynthesis research and synchronously inspires investigation of biotic-abiotic interface manipulation. This review summarizes current construction methods of microalgae-material hybrids and highlights their implication in energy and health. Moreover, we discuss the current problems and future challenges for microalgae-material hybrids and the outlook for their development and applications. This review will provide inspiration for the rational design of the microalgae-based semi-natural biohybrid and further promote the disciplinary fusion of material science and biological science.
通过光合作用将能量转化为高能化学品是实现碳中和可持续能源的最可行解决方案之一。微藻是迷人的光合生物,能够直接将太阳能转化为化学能和电能。然而,由于其自身特性的限制,微藻光合能量尚未得到大规模应用。研究人员受到启发,通过仿生组装将微藻与合成材料结合,由此产生的微藻-材料杂化体变得更加坚固,甚至具备新功能。在过去十年中,微藻-材料杂化体取得了巨大进展,如光合二氧化碳固定、光合产氢、光电化学能量转换,甚至用于生物医学治疗的生化能量转换。微藻-材料杂化体为推动人工强化光合作用研究提供了契机,同时也激发了对生物-非生物界面操纵的研究。本文综述了微藻-材料杂化体的当前构建方法,并突出了它们在能源和健康方面的意义。此外,我们讨论了微藻-材料杂化体目前存在的问题和未来面临的挑战,以及它们的发展和应用前景。本综述将为基于微藻的半天然生物杂化体的合理设计提供灵感,并进一步推动材料科学与生物科学的学科融合。