Sun Haitang, Xie Xuan, Ding Jing
School of Environmental Science and Engineering, Suzhou University of Science and Technology, Suzhou, 215009, China.
Naturwissenschaften. 2024 Sep 27;111(5):50. doi: 10.1007/s00114-024-01936-2.
Biophotovoltaics (BPV) is a clean and sustainable solar energy generation technology that operates by utilizing photosynthetic autotrophic microorganisms to capture light energy and generate electricity. However, a major challenge faced by BPV systems is the relatively low electron transfer efficiency from the photosystem to the extracellular electrode, which limits its electrical output. Additionally, the transfer mechanisms of photosynthetic microorganism metabolites in the entire system are still not fully clear. In response to this, this article briefly introduces the basic BPV principles, reviews its development history, and summarizes measures to optimize its electrogenic efficiency. Furthermore, recent studies have found that constructing photosynthetic-electrogenic microbial consortia can achieve high power density and stability in BPV systems. Therefore, the article discusses the potential application of constructing photosynthetic-electrogenic microbial aggregates in BPV systems. Since photosynthetic-electrogenic microbial communities can also exist in natural ecosystems, their potential contribution to the carbon cycle is worth further attention.
生物光伏(BPV)是一种清洁且可持续的太阳能发电技术,它通过利用光合自养微生物捕获光能并发电来运行。然而,BPV系统面临的一个主要挑战是从光系统到细胞外电极的电子转移效率相对较低,这限制了其电输出。此外,光合微生物代谢产物在整个系统中的转移机制仍不完全清楚。针对此,本文简要介绍了BPV的基本原理,回顾了其发展历史,并总结了优化其产电效率的措施。此外,最近的研究发现,构建光合产电微生物聚集体可以在BPV系统中实现高功率密度和稳定性。因此,本文讨论了在BPV系统中构建光合产电微生物聚集体的潜在应用。由于光合产电微生物群落也存在于自然生态系统中,它们对碳循环的潜在贡献值得进一步关注。