A just transition pathway for the coal industry from its ashes

Fabio Teixeira Ferreira da Silva , Thiago Aquino , Fernando Zancan , Pedro R.R. Rochedo , Roberto Schaeffer , Alexandre Szklo
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Abstract

The challenge of conciliating global decarbonization efforts with socio-economic welfare in coal-dependent regions calls for innovative approaches for just transitions. This study proposes a circular industrial system that integrates CO2 capture through Temperature Swing Adsorption (TSA) with large-scale zeolite production from coal ash, while directing surplus zeolites to Bioenergy with CO2 Capture and Storage (BECCS) plants to achieve carbon dioxide removal (CDR). A comprehensive techno-economic analysis was conducted to evaluate the system’s performance and feasibility. Results indicate that TSA technology, while exhibiting slightly better energy performance, incurs higher costs compared to chemical absorption. Coal ash from a single power plant can yield up to 78 kt of zeolites annually, of which 15 % is required for CO2 capture at the coal plant, leaving surplus production to support up to four BECCS plants with a combined power capacity of 2.5 GW. These BECCS plants could generate 13 TWh of electricity annually and deliver 13 MtCO2 of CDR. Zeolites production can support a just transition framework in coal-dependent regions, by creating more than double of local jobs and generating almost as much revenue as the coal power plant. Still, future studies are needed for improving the assessment of its socio-economic and environmental implications.
这是煤炭工业从灰烬中走出的一条公正的转型之路
协调全球脱碳努力与依赖煤炭地区的社会经济福利之间的挑战,要求采用创新方法实现公正的过渡。本研究提出了一个循环工业系统,该系统将通过变温吸附(TSA)捕获二氧化碳与从煤灰中大规模生产沸石相结合,同时将多余的沸石通过二氧化碳捕获和储存(BECCS)工厂引导到生物能源中,以实现二氧化碳去除(CDR)。对系统的性能和可行性进行了综合技术经济分析。结果表明,与化学吸收相比,TSA技术的能源性能略好,但成本较高。一个发电厂的煤灰每年可以产生高达78吨的沸石,其中15%用于煤电厂的二氧化碳捕获,剩余的产量可以支持多达四个BECCS工厂,总发电量为2.5吉瓦。这些BECCS电厂每年可发电13太瓦时,并产生1300万吨二氧化碳CDR。沸石生产可以为依赖煤炭的地区创造两倍以上的当地就业机会,并产生几乎与燃煤电厂一样多的收入,从而支持一个公正的过渡框架。不过,还需要进行进一步的研究,以改进对其社会经济和环境影响的评价。
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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