RI 6975 Developing A Thermochemical Model For The Iron Blast Furnace - Mathematical Model Of The Reduction Zone

The National Institute for Occupational Safety and Health (NIOSH)
Hillary W. St. Clair
Organization:
The National Institute for Occupational Safety and Health (NIOSH)
Pages:
38
File Size:
1749 KB
Publication Date:
Jan 1, 1967

Abstract

The reduction zone of the iron blast furnace is represented by a mathematical model of the chemical reactions and heat transfer that occurs between gas and solids during the deoxidation of iron oxide. The model consists of a set of equations and an algorithm whereby the equations may be solved to give the temperature and composition of gas and solids at any position in the reaction zone and at any time after a specified initial state. The model is applied to the special case in which ferric oxide is reduced by graphitic carbon and carbon monoxide produced by burning carbon in dry air. The rate of reduction, carbon consumption and maximum temperature are shown as functions of the temperature and rate of flow of the incoming reducing gas and external heat loss. The model of the reduction zone is the essential part of a general mathematical model for simulation of the iron blast furnace. The simulation model will serve as a research tool to be used in conjunction with an experimental or operating furnace. After the simulation model has been correlated with the real furnace, it is proposed that further experimentation be done mostly with the model. The real furnace will then be operated primarily to test and confirm the model.
Citation

APA: Hillary W. St. Clair  (1967)  RI 6975 Developing A Thermochemical Model For The Iron Blast Furnace - Mathematical Model Of The Reduction Zone

MLA: Hillary W. St. Clair RI 6975 Developing A Thermochemical Model For The Iron Blast Furnace - Mathematical Model Of The Reduction Zone. The National Institute for Occupational Safety and Health (NIOSH), 1967.

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