用于碳捕获与封存的仿生矿化技术

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引用次数: 0

摘要

碳矿化是碳封存的一个新兴研究领域。在这一过程中,溶解的无机碳与 Ca2+ 和 Mg2+ 等矿物阳离子发生反应,形成稳定的碳酸盐矿物,从而实现永久固碳和碳封存。然而,目前的矿化方法主要依靠物理化学方法来加速碳的矿化。这些方法虽然有效,但需要消耗大量的化学物质和能源,并可能对环境造成重大影响。最近出现的生物矿化法是一种可持续的替代方法,它利用生化反应催化二氧化碳矿化。本研究的重点是调查各种生物分子在天然碳生物矿化中的具体作用,并探索最先进的生物模拟碳矿化技术,包括用于碳封存的全细胞微生物诱导碳酸盐沉淀(MICP)和无细胞系统。此外,我们还讨论了从天然矿物、工业废料到海水等各种矿物阳离子来源及其优势和局限性。我们的研究结果凸显了生物碳矿化过程在促进可持续碳固存方面的潜力和可行性。不过,我们也发现了挑战,并提出了未来的方向,以指导进一步的研究和这些过程的应用。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Biomimetic mineralization for carbon capture and sequestration

Biomimetic mineralization for carbon capture and sequestration

Carbon mineralization is an emerging field of research in carbon sequestration. In this process, dissolved inorganic carbon reacts with mineral cations such as Ca2+ and Mg2+ to form stable carbonate minerals, enabling permanent carbon sequestration and storage. However, current mineralization methods predominantly rely on physicochemical approaches to expedite the mineralization of carbon. While effective, these methods require substantial chemical and energy consumption and may cause significant environmental impacts. Biomineralization has recently emerged as a sustainable alternative, leveraging biochemical reactions to catalyze CO2 mineralization. This research focuses on investigating the specific roles of various biomolecules in natural carbon biomineralization and exploring state-of-the-art biomimetic carbon mineralization techniques, including whole-cell microbially induced carbonate precipitation (MICP) and cell-free systems, for carbon sequestration. In addition, we discuss various sources of mineral cations, ranging from natural minerals to industrial waste to seawater, along with their advantages and limitations. Our findings highlight the potential and feasibility of biological carbon mineralization processes to contribute towards sustainable carbon sequestration. However, we also identify challenges and propose future directions to guide further research and the application of these processes.

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