基于物理和数据驱动的混合建模和优化搅拌浆反应器,通过增强白云石矿物的风化作用来捕获二氧化碳

Yalun Zhao , Mingliang Wang , Jin Xuan , Dengao Chang , Ziming Li , Shiyu Wang , Yun Ou , Xu Wang , Lei Xing
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引用次数: 0

摘要

在实现大规模二氧化碳脱除之前,必须通过优化局部三相环境来显著加速自然增强风化(EW)。采用搅拌浆式反应器(SSR)提高ew基CO2捕集过程的质量传递和反应速率尚未见报道。我们进行了一种混合建模方法,其中集成了机制和数据驱动模型,用于为基于ew2的二氧化碳捕获而设计的规模化批量ssr。结果表明,CO2在水相中的质量输运对整体捕集性能有显著影响。研究发现,在二氧化碳捕获率、能源和水消耗方面,放大后的批量系统的性能与连续系统相当。间歇式系统中气体富集的能耗预计将低于连续式系统的50%。多目标优化显示了混合建模在低能耗范围内的有效性和准确性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Physics-based and data-driven hybrid modelling and optimisation of stirred-slurry reactors for CO2 capture via enhanced weathering of dolomite mineral

Physics-based and data-driven hybrid modelling and optimisation of stirred-slurry reactors for CO2 capture via enhanced weathering of dolomite mineral
The natural enhanced weathering (EW) must be significantly accelerated by optimizing the local triple-phase environment prior to practical large-scale carbon dioxide removal (CDR). The implementation of stirred-slurry reactor (SSR) for enhancing mass transport and reaction rates of the EW-based CO2 capture process has not yet been reported. We conducted a hybrid modelling approach, in which mechanistic and data-driven models are integrated, for the scaled-up batch SSRs designed for EW-based CO2 capture. It is revealed that CO2 mass transport into the aqueous phase has significant impact on the overall capture performance. The scaled-up batch system is found to perform comparably to the continuous system in terms of CO2 capture rate, energy and water consumption. The energy consumption for gas enrichment in the batch system is expected to be less than 50% of that in continuous systems. Multi-objective optimisation reveals the efficacy and accuracy of the hybrid modeling within low energy consumption ranges.
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