Hu, YukunChowdhury, Jahedul IslamKatsaros, GiannisTan, C. K.Balta-Ozkan, NazmiyeVarga, LizTassou, SavvasWang, Chunsheng2019-11-122019-11-122019-11-04Hu Y, Chowdhury JI, Katsaros G, et al., Feasibility study of biomass gasification integrated with reheating furnaces in steelmaking process. 3rd Joint International Conference on Energy, Ecology and Environment and Electrical Intelligent Vehicles (ICEEE 2019/ICEIV 2019), 23-27 July 2019, Stavanger, Norway978-1-60595-641-12475-8833http://www.dpi-proceedings.com/index.php/dteees/issue/view/374/showTochttp://dspace.lib.cranfield.ac.uk/handle/1826/14710This paper investigates the integration of biosyngas production, reheating furnace and heat recovery steam cycle, in order to use biosyngas directly as fuel in the furnace. A system model was developed to evaluate the feasibility of the proposed system from the perspective of heat and mass balance. To particularly study the impacts of fuel switching on the heating quality of the furnace, a three-dimensional furnace model considering detailed heat transfer processes was embedded into the system through an Aspen PlusTM user defined model. The simulation results show that biosyngas is suitable for direct use as fuel for reheating furnaces. Should CO capture be considered in the proposed system, it has a potential to achieve the capture without external energy input which results in so-called negative emissions of CO.enbiomassgasificationreheating furnacebiosyngasheat recoveryFeasibility study of biomass gasification integrated with reheating furnaces in steelmaking processArticle