利用膜结晶技术从盐水中回收资源,实现可持续性和循环经济

Mohammad Mahdi A. Shirazi , Bastian S. Kirkebæk , Aamer Ali , Cejna A. Quist-Jensen
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引用次数: 0

摘要

实现资源的可持续回收,特别是从卤水中提取关键金属的回收,是发展循环经济的一个重点。本研究强调了此类回收工艺的重要性,并特别关注现代工业中的重要元素--锂(Li)。通过对不同卤水来源的锂浓度进行评估,确定了锂回收的背景。对通过蒸发池提取资源的传统方法进行了全面评估,强调了其局限性,包括操作时间长、依赖气候条件、依赖化学品、与水限制相关的挑战以及大量碳排放。相比之下,膜结晶(MCr)工艺被描述为一种可能的替代方法。研究深入探讨了 MCr 的概念、配置,并将其操作范围与反渗透(RO)、正渗透(FO)和电容去离子(MCDI)等其他膜过程进行了对比。介绍了 MCr 的优势和市场潜力及其局限性。论文探讨了 MCr 工艺开发(如 LiCl 回收、Li2CO3 回收等)和膜开发(如多层纳米纤维膜和 3D 打印膜)方面的进展。论文最后概述了 MCr 的未来研究方向,强调了 MCr 对推进可持续资源回收战略的贡献。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Membrane crystallization for resource recovery from brine towards sustainability and circular economy

The need of achieving sustainable resource recovery, particularly in relation to critical metals extracted from brine, is a key focus in the development of a circular economy. This study underlines the significance of such recovery processes, with a special focus on lithium (Li) - a vital element in modern industry. An assessment of Li concentrations across distinct brine sources establishes the background for its recovery. The conventional method of extracting resources through evaporation ponds is thoroughly evaluated, emphasizing its limitations including prolonged operational durations, dependence on climate conditions, reliance on chemicals, challenges related to water constraint, and significant carbon emissions. In contrast, the Membrane Crystallization (MCr) process is described as a possible alternative. The research dives into the concepts of MCr, its configurations, and contrasts its operational range versus other membrane processes such as reverse osmosis (RO), forward osmosis (FO), and capacitive deionization (MCDI) processes. Advantages and market potential of MCr are introduced against its limitations. Progress in MCr process development (e.g., LiCl recovery, Li2CO3 recovery, etc.) and membrane developments (e.g., multi-layer nanofiber and 3D printed membranes) are explored. The paper finishes by outlining future research directions for MCr, emphasizing its contribution to the advancement of sustainable resource recovery strategies.

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