可再生能源
环境科学
人工光合作用
光伏系统
光合作用
制氢
氢燃料
发电
析氧
储能
工艺工程
氢
化学
生态学
功率(物理)
工程类
植物
生物
物理
电化学
光催化
催化作用
生物化学
有机化学
电极
物理化学
量子力学
作者
Hyo Jin Gwon,Geonwoo Park,JaeHyoung Yun,WonHyoung Ryu,Hyun S. Ahn
标识
DOI:10.1038/s41467-023-42529-3
摘要
Interest in securing energy production channels from renewable sources is higher than ever due to the daily observation of the impacts of climate change. A key renewable energy harvesting strategy achieving carbon neutral cycles is artificial photosynthesis. Solar-to-fuel routes thus far relied on elaborately crafted semiconductors, undermining the cost-efficiency of the system. Furthermore, fuels produced required separation prior to utilization. As an artificial photosynthesis design, here we demonstrate the conversion of swimming green algae into photovoltaic power stations. The engineered algae exhibit bioelectrogenesis, en route to energy storage in hydrogen. Notably, fuel formation requires no additives or external bias other than CO2 and sunlight. The cellular power stations autoregulate the oxygen level during artificial photosynthesis, granting immediate utility of the photosynthetic hydrogen without separation. The fuel production scales linearly with the reactor volume, which is a necessary trait for contributing to the large-scale renewable energy portfolio.
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