MXenes vs MBenes: Demystifying the materials of tomorrow’s carbon capture revolution

IF 3.3 Q3 ENERGY & FUELS
Mihrimah Ozkan
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引用次数: 0

Abstract

Abstract Two emerging materials, MXenes and MBenes, have garnered significant attention as promising candidates for CCS applications. Both materials possess unique properties that make them well-suited for CO_2 adsorption, such as high surface area, porosity, and tunable chemical functionality. This perspective article presents a comparative evaluation of MXenes and MBenes for CO_2 capture, leveraging advanced computational simulations and experimental data to elucidate their respective adsorption capacities, kinetic performance, and stability. The simulations reveal that both materials exhibit superior CO_2 adsorption performance compared to conventional CCS materials, with MXenes demonstrating a slight edge in adsorption capacity and selectivity. Furthermore, the potential of MXenes and MBenes for CCS applications is discussed, including their layer thickness, selective affinity to CO_2, advantages over conventional sorbents, regeneration, stability, and durability. The findings provide valuable insights into the structure–property relationships of MXenes and MBenes in the context of CO_2 capture and shed light on the technology readiness of these materials for specific CCS applications. Finally, this perspective article aims to advance the fundamental understanding of these novel 2D materials for CCS, paving the way for future developments in sustainable CO_2 capture technologies. Graphical abstract Highlights MXenes and MBenes are two-dimensional layered materials with the potential to revolutionize carbon capture and storage (CCS). MXenes have several advantages over other CCS materials, such as greater porosity, higher CO2 adsorption capacity, and easier and less expensive production. MBenes are more stable in humid environments and have higher oxidation resistance and thermal conductivity than MXenes, making them a better choice for CCS applications where the CO2 stream is humid, hot, and/or corrosive. MXenes and MBenes have the potential to make CCS more efficient, cost-effective, and versatile. Discussion Why are MXenes and MBenes ideal for carbon capture applications? In terms of carbon capture efficiency, how do MXenes and MBenes stack up against other materials such as MOFs, zeolites, and activated carbons? Which are better, MXenes or MBenes, for carbon capture? Why do MXenes and MBenes have a selective affinity to CO2 compared to other gases such as N2 and O2? What is the optimal number of layers for MXenes/MBenes for carbon capture, and does interlayer spacing affect performance? What is the best surface termination for CO2 capture? What happens to the CO2 after it is absorbed onto MXene and MBene surfaces, and how can one remove CO2 that has been adsorbed? What are the major challenges, besides scalability, that need to be overcome for these materials to be practical? How durable and stable are MXenes and MBenes?
MXenes 与 MBenes:揭开未来碳捕获革命材料的神秘面纱
摘要 MXenes 和 MBenes 这两种新兴材料作为二氧化碳捕集与封存应用的候选材料,已经引起了广泛关注。这两种材料都具有独特的性质,非常适合吸附 CO2,如高比表面积、多孔性和可调化学功能性。这篇观点性文章利用先进的计算模拟和实验数据,对 MXenes 和 MBenes 在捕获 CO_2 方面的性能进行了比较评估,以阐明它们各自的吸附能力、动力学性能和稳定性。模拟结果表明,与传统的 CCS 材料相比,这两种材料都具有优异的 CO_2 吸附性能,其中 MXenes 在吸附能力和选择性方面略胜一筹。此外,还讨论了 MXenes 和 MBenes 在 CCS 应用方面的潜力,包括它们的层厚度、对 CO_2 的选择性亲和力、与传统吸附剂相比的优势、再生、稳定性和耐久性。研究结果为了解二氧化碳捕集背景下 MXenes 和 MBenes 的结构-性能关系提供了宝贵的见解,并阐明了这些材料在特定 CCS 应用中的技术准备情况。最后,本视角文章旨在推进对这些用于 CCS 的新型二维材料的基本认识,为未来可持续 CO_2 捕集技术的发展铺平道路。图文摘要要点 MXenes 和 MBenes 是二维层状材料,具有彻底改变碳捕集与封存(CCS)的潜力。与其他 CCS 材料相比,MXenes 具有多种优势,例如孔隙率更大、二氧化碳吸附能力更强、生产更容易且成本更低。与 MXenes 相比,MBenes 在潮湿环境中更加稳定,具有更高的抗氧化性和导热性,因此是二氧化碳流潮湿、高温和/或腐蚀性环境中 CCS 应用的最佳选择。二甲氧烯烃和二甲苯烯烃有可能使 CCS 更高效、更具成本效益和用途更广。讨论 为什么 MXenes 和 MBenes 是碳捕集应用的理想选择?就碳捕集效率而言,与 MOFs、沸石和活性碳等其他材料相比,二甲氧烯类和二甲苯类如何?在碳捕集方面,MXenes 和 MBenes 孰优孰劣?为什么与 N2 和 O2 等其他气体相比,MXenes 和 MBenes 对 CO2 具有选择性亲和力?用于碳捕集的 MXenes/MBenes 的最佳层数是多少?捕获二氧化碳的最佳表面终端是什么?二氧化碳吸附到 MXene 和 MBene 表面后会发生什么变化?要使这些材料实用化,除了可扩展性之外,还需要克服哪些主要挑战?MXenes 和 MBenes 的耐久性和稳定性如何?
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
MRS Energy & Sustainability
MRS Energy & Sustainability ENERGY & FUELS-
CiteScore
6.40
自引率
2.30%
发文量
36
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