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用于钠离子电池的有机阳极的快速克级微波辅助合成及环境影响评估

Rapid gram-scale microwave-assisted synthesis of organic anodes for sodium-ion batteries with environmental impact assessment.

作者信息

Puscalau Constantin, Desai Aamod V, Lizundia Erlantz, Ettlinger Romy, Adam Mohamed, Morris Russell E, Armstrong A Robert, Tokay Begum, Laybourn Andrea

机构信息

Advanced Materials Research Group, Faculty of Engineering, University of Nottingham Nottingham NG7 2RD UK.

EaStCHEM School of Chemistry, University of St Andrews North Haugh St Andrews KY16 9ST UK.

出版信息

Green Chem. 2025 Jan 6;27(7):2035-2045. doi: 10.1039/d4gc05530f. eCollection 2025 Feb 10.

Abstract

Development of sustainable synthesis methods of organic electrode materials (OEMs) for sodium (Na)-ion batteries must take hold rapidly in large scale-synthesis if subsequent commercialisation is to occur. We report a facile and rapid gram-scale synthesis method based on microwave irradiation for disodium naphthalene-2,6-dicarboxylate (Na-NDC) and mono/disodium benzene-1,4-dicarboxylate (Na-BDC) as model compounds. Phase purity and formation of materials was confirmed by various characterisation techniques. The electrochemical performance was tested in both half and full cell formats and compared to material obtained smaller scale synthesis, revealing state-of-the art performance in terms of capacity retention and cyclability. The environmental impacts upon organic anode synthesis were quantified according to life cycle assessment (LCA). The results allow for the identification of environmental hotspots during production, indicating areas for future process optimisation. Interestingly, remarkably reduced impacts are obtained compared to conventional syntheses at milligram scale. Additionally, this work suggests potential significant improvements upon additional upscaling and solvent recycling.

摘要

如果要实现钠离子电池有机电极材料(OEMs)的后续商业化,其可持续合成方法的大规模发展必须迅速推进。我们报道了一种基于微波辐射的简便快速的克级合成方法,以萘-2,6-二羧酸钠(Na-NDC)和苯-1,4-二羧酸钠单/双钠盐(Na-BDC)作为模型化合物。通过各种表征技术确认了材料的相纯度和形成情况。在半电池和全电池形式下测试了电化学性能,并与小规模合成得到的材料进行了比较,结果显示在容量保持率和循环稳定性方面具有先进水平。根据生命周期评估(LCA)对有机阳极合成的环境影响进行了量化。结果有助于识别生产过程中的环境热点,指明未来工艺优化的方向。有趣的是,与毫克级的传统合成相比,环境影响显著降低。此外,这项工作表明在进一步扩大规模和溶剂回收方面可能有显著改进。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/0697/11749190/ce7f59bcf876/d4gc05530f-f1.jpg

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