千瓦级串联二氧化碳电解技术用于提高醋酸盐和乙烯产量

Bradie S. Crandall, Byung Hee Ko, Sean Overa, Luke Cherniack, Ahryeon Lee, Izak Minnie, Feng Jiao
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摘要

将二氧化碳(CO2)转化为有价值的化学品是碳利用的关键策略。尽管串联式二氧化碳电解技术已显示出良好的前景,但它在很大程度上仅限于瓦特级研究,需要进行更大规模的研究以加速商业化。在这项工作中,我们展示了一种串联式二氧化碳电解槽,其设计目的是在千瓦(kW)级生产多碳产品--醋酸和乙烯。在此,我们从瓦特级电解槽中获得的启示,成功设计并运行了一个 1,000 平方厘米、功率为 0.71 千瓦的二氧化碳电解槽和一个 500 平方厘米、功率为 0.40 千瓦的二氧化碳电解槽。千瓦级二氧化碳电解槽在 125 小时内的电流稳定在 300 A,可产生 98 升纯度为 96% 的 1.2 M 乙酸酯。该系统对典型的工业杂质具有很强的抵御能力,能够保持高性能。这些结果标志着串联二氧化碳电解系统在实现工业可行性方面取得了重要进展。最后,通过实验进行技术经济分析,为工业规模的串联二氧化碳电解提供了一条具有商业可行性的途径。串联式二氧化碳电解系统在将捕获的二氧化碳转化为多碳产品方面展现出了强大的潜力,但要将这些系统提升到商业水平,还需要付出更多努力。作者将串联二氧化碳电解提升到千瓦级,满足了这一关键需求,标志着向实际应用迈出了重要一步。
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Kilowatt-scale tandem CO2 electrolysis for enhanced acetate and ethylene production
The conversion of carbon dioxide (CO2) into valuable chemicals is a key strategy for carbon utilization. Although tandem CO2 electrolysis has shown promise, it has been largely confined to watt-scale studies and larger-scale studies are needed to accelerate commercialization. In this work, we demonstrate a tandem CO2 electrolyzer engineered for the production of multicarbon products, acetate and ethylene, at the kilowatt (kW) scale. Here, from insights gained at the watt scale, we have successfully designed and operated a 1,000 cm2 CO electrolyzer at 0.71 kW and a 500 cm2 CO2 electrolyzer at 0.40 kW. The kW-scale CO electrolyzer stack demonstrated a stable current of 300 A over 125 h, yielding 98 l of 1.2 M acetate at 96% purity. The system exhibited resilience against typical industrial impurities, maintaining high performance. These results mark a crucial advancement in scaling tandem CO2 electrolysis systems toward industrial feasibility. Finally, an experimentally informed techno-economic analysis is offered to provide a pathway for commercially viable tandem CO2 electrolysis at an industrial scale. Tandem CO2 electrolysis has demonstrated strong potential for transforming captured CO2 into multicarbon products, but more effort is needed in scaling these systems to commercial levels. The authors address this crucial need by elevating tandem CO2 electrolysis to the kilowatt scale, marking a significant step toward real-world implementation.
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