The fraction of hydrogen (H2) in the blast furnace (BF) shaft gas containing a notable portion of nitrogen (N2) is expected to increase. For more efficient control of the BF, it is therefore desirable to conduct more rigorous studies on gaseous reduction of iron ores especially in H2-N2 atmosphere. In this paper, an unreacted shrinking core model (USCM) with multicomponent gas diffusion for iron ore reduction in H2-N2 atmosphere is developed. The resultant nonlinear equations are solved using the 4th order Runge-Kutta method. The present model and the original USCM are compared based on a series of pertinent experimental data
The direct reduction of iron ore pellets with syngas or hydrogen is a promising technology to reduce...
Abstract A blast furnace (BF) is the dominant process for making iron in the world. The BF is charg...
A clean energy revolution is occurring across the world. As iron and steelmaking have a tremendous i...
This paper addresses the modeling of the iron ore direct reduction process, a process likely to redu...
In an effort to develop breakthrough technologies that enable drastic reduction in CO2 emissions fro...
Iron-ore reduction has attracted much interest in the last three decades since it can be considered ...
Iron ore direct reduction is an attractive alternative steelmaking process in the context of greenho...
With an average annual production of 45 million tons, Germany is one of the world's largest steel pr...
In metallurgical processes, more and more usage of hydrocarbons is encouraged to bring down the carb...
The escalating demand for sustainable, green practices in the steel industry have accentuated the ne...
Direct reduction of iron ore with H2 has become an alternative technology for iron production that r...
Abstract This study examines the isothermal and non-isothermal reduction behaviors of iron ore comp...
Reducing CO2 emissions from iron-making process can significantly contribute towards the goals of th...
Reduction of iron ore is central to iron and steel making process. The reaction kinetics are general...
Shaft furnaces account for over 80 percent of the world production of the directly reduced iron ...
The direct reduction of iron ore pellets with syngas or hydrogen is a promising technology to reduce...
Abstract A blast furnace (BF) is the dominant process for making iron in the world. The BF is charg...
A clean energy revolution is occurring across the world. As iron and steelmaking have a tremendous i...
This paper addresses the modeling of the iron ore direct reduction process, a process likely to redu...
In an effort to develop breakthrough technologies that enable drastic reduction in CO2 emissions fro...
Iron-ore reduction has attracted much interest in the last three decades since it can be considered ...
Iron ore direct reduction is an attractive alternative steelmaking process in the context of greenho...
With an average annual production of 45 million tons, Germany is one of the world's largest steel pr...
In metallurgical processes, more and more usage of hydrocarbons is encouraged to bring down the carb...
The escalating demand for sustainable, green practices in the steel industry have accentuated the ne...
Direct reduction of iron ore with H2 has become an alternative technology for iron production that r...
Abstract This study examines the isothermal and non-isothermal reduction behaviors of iron ore comp...
Reducing CO2 emissions from iron-making process can significantly contribute towards the goals of th...
Reduction of iron ore is central to iron and steel making process. The reaction kinetics are general...
Shaft furnaces account for over 80 percent of the world production of the directly reduced iron ...
The direct reduction of iron ore pellets with syngas or hydrogen is a promising technology to reduce...
Abstract A blast furnace (BF) is the dominant process for making iron in the world. The BF is charg...
A clean energy revolution is occurring across the world. As iron and steelmaking have a tremendous i...