Journal article

Effect of Power Plant Capacity on the CAPEX, OPEX, and LCOC of the CO2 Capture Process in Pre-Combustion Applications

HE Ashkanani, R Wang, W Shi, NS Siefert, RL Thompson, K Smith, JA Steckel, IK Gamwo, D Hopkinson, K Resnik, BI Morsi

International Journal of Greenhouse Gas Control | ELSEVIER SCI LTD | Published : 2021

Abstract

Recently, there has been a renewed focus in the gasification research community on the development of small-scale modular gasifiers that can take advantage of local solid feedstocks, and modular-scale synthesis reactors, which can generate local fuels, chemicals, and fertilizers. To fully realize the benefits of modular-scale systems, however, it is crucial for the cost of the required CO2 capture to remain low, even at reduced flow rates compared with large-scale IGCC-CCS power plants. In this work, the CO2 capture process in seven pre-combustion power plant with capacities ranging from 54 to 543 MW was modeled using Aspen Plus v8.8. Four physical solvents (PEGPDMS-1, PEGPDMS-3, [bmim][Tf2N..

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University of Melbourne Researchers

Grants

Awarded by U.S. Department of Energy


Funding Acknowledgements

This technical effort was performed in support of the US Department of Energy's ongoing research in Carbon Capture. The research was executed through the NETL Research and Innovation Center's Transformational Carbon Capture FWP under the RSS contract 89243318CFE000003. The authors would like to thank Dr. Randall Gemmen, Associate Director for Energy Conversion at NETL/RIC, and Ms. Lynn Brickett at DOE/HQ for their support of this research.