Kangkang Li
Curtin University
Network
Latest external collaboration on country level. Dive into details by clicking on the dots.
Publication
Featured researches published by Kangkang Li.
Environmental Science & Technology | 2014
Kangkang Li; Hai Yu; Moses O. Tadé; Paul Feron; Jingwen Yu; Shujuan Wang
An advanced NH3 abatement and recycling process that makes great use of the waste heat in flue gas was proposed to solve the problems of ammonia slip, NH3 makeup, and flue gas cooling in the ammonia-based CO2 capture process. The rigorous rate-based model, RateFrac in Aspen Plus, was thermodynamically and kinetically validated by experimental data from open literature and CSIRO pilot trials at Munmorah Power Station, Australia, respectively. After a thorough sensitivity analysis and process improvement, the NH3 recycling efficiency reached as high as 99.87%, and the NH3 exhaust concentration was only 15.4 ppmv. Most importantly, the energy consumption of the NH3 abatement and recycling system was only 59.34 kJ/kg CO2 of electricity. The evaluation of mass balance and temperature steady shows that this NH3 recovery process was technically effective and feasible. This process therefore is a promising prospect toward industrial application.
Environmental Science & Technology | 2015
Kangkang Li; Hai Yu; Paul Feron; Moses O. Tadé; Leigh Wardhaugh
Using a rate-based model, we assessed the technical feasibility and energy performance of an advanced aqueous-ammonia-based postcombustion capture process integrated with a coal-fired power station. The capture process consists of three identical process trains in parallel, each containing a CO2 capture unit, an NH3 recycling unit, a water separation unit, and a CO2 compressor. A sensitivity study of important parameters, such as NH3 concentration, lean CO2 loading, and stripper pressure, was performed to minimize the energy consumption involved in the CO2 capture process. Process modifications of the rich-split process and the interheating process were investigated to further reduce the solvent regeneration energy. The integrated capture system was then evaluated in terms of the mass balance and the energy consumption of each unit. The results show that our advanced ammonia process is technically feasible and energy-competitive, with a low net power-plant efficiency penalty of 7.7%.
Applied Energy | 2016
Kangkang Li; Wardhaugh Leigh; Paul Feron; Hai Yu; Moses O. Tadé
Applied Energy | 2015
Kangkang Li; Hai Yu; Guojie Qi; Paul Feron; Moses O. Tadé; Jingwen Yu; Shujuan Wang
Energy Science & Engineering | 2016
Kangkang Li; Ashleigh Cousins; Hai Yu; Paul Feron; Moses O. Tadé; Weiliang Luo; Jian Chen
International Journal of Greenhouse Gas Control | 2014
Kangkang Li; Hai Yu; Moses O. Tadé; Paul Feron
Environmental Science & Technology | 2016
Kangkang Li; Hai Yu; Shuiping Yan; Paul Feron; Leigh Wardhaugh; Moses O. Tadé
International Journal of Greenhouse Gas Control | 2016
Kangkang Li; Hai Yu; Paul Feron; Leigh Wardhaugh; Moses O. Tadé
Energy Procedia | 2014
Kangkang Li; Hai Yu; Paul Feron; Moses O. Tadé
Chemical Engineering Journal | 2018
Kaiqi Jiang; Kangkang Li; Hai Yu; Paul Feron
Collaboration
Dive into the Kangkang Li's collaboration.
Commonwealth Scientific and Industrial Research Organisation
View shared research outputsCommonwealth Scientific and Industrial Research Organisation
View shared research outputsCommonwealth Scientific and Industrial Research Organisation
View shared research outputsCommonwealth Scientific and Industrial Research Organisation
View shared research outputsCommonwealth Scientific and Industrial Research Organisation
View shared research outputs