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A Framework for the Experimental Characterisation of Novel Solvents in a Pilot-plant Scale CO2 Capture Process under Industrial Conditions Using a Data-driven Modelling Approach

机译:利用数据驱动建模方法在工业条件下的试验厂规模CO2捕获过程中的新溶剂实验表征的框架

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In order to improve the performance of a carbon capture process, novel solvents are being developed and uniquely adapted to different applications. The process performance is highly dependent on the choice of the solvent, given by a major share of the energy demand for regeneration. In addition, plant design and operation conditions both affect the process performance, thus energy efficiency and have to be investigated before designing a large-scale plant and optimally operating it. In this contribution, a framework is presented for the systematic characterisation of novel solvents in an industrial pilot-plant using a data driven modelling approach, which takes into account plant characteristics and industrial operation conditions. The framework is designed to determine optimal operation conditions regarding maximum energy efficiency with reduced number of experiments due to the fact experimental absorbent screening is time-consuming and costly. The proposed three-step framework is based on the assumption that for a novel solvent little to no thermodynamic knowledge is available. Therefore, Monoethanolamine (MEA) is taken as a baseline for the general performance of amine-based solvents. In the first step, data from physical simulations with MEA serve for the development of a surrogate model describing the general behaviour of a carbon capture process and is used for further solvent comparison. Followed by pilot-scale experiments under industrial operation conditions with the reference solvent (step two) and the novel solvent (step three), the surrogate model is adapted to experimental data to account for plant characteristics. By means of the surrogate model, optimal operation conditions regarding maximum energy efficiency are derived in 13 experiments for the reference solvent and in 16 experiments for the novel solvent. Finally, the optima allows for a fair solvent ranking. (C) 2019 Published by Elsevier B.V. on behalf of Institution of Chemical Engineers.
机译:为了提高碳捕获过程的性能,正在开发新的溶剂和唯一适用于不同的应用。过程性能高度依赖于溶剂的选择,通过对再生能源需求的主要份额提供。此外,工厂设计和操作条件都影响过程性能,从而能够在设计大型工厂并最佳地操作之前进行调查。在这一贡献中,利用数据驱动建模方法提出了一种框架,用于使用数据驱动建模方法进行工业试验厂的新型溶剂,这考虑了植物特征和工业运行条件。该框架旨在确定关于最大能效的最佳运行条件,由于实验性吸收性筛选的实验次数减少了实验,这是耗时且昂贵的实验。所提出的三步框架基于假设,对于新的溶剂而言,对于没有热力学知识。因此,单乙醇胺(MEA)被作为胺类溶剂的一般性能的基线。在第一步中,来自MEA的物理模拟的数据用于开发描述碳捕获过程的一般行为的代理模型,并用于进一步的溶剂比较。其次是在工业操作条件下的导频规模实验与参考溶剂(步骤二)和新型溶剂(步骤三),替代模型适用于实验数据,以考虑植物特征。借助于代理模型,关于最大能量效率的最佳运行条件是参考溶剂的13个实验中,并在新的溶剂中进行了16个实验。最后,最佳允许公平的溶剂排名。 (c)2019年由Elsevier B.V发布。代表化学工程师机构。

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