Nitrogen and Sulfur Oxides Emissions from Fuel Oil Combustion in Industrial Steel Reheat Furnace

Main Article Content

Hussein Abuluwefa
Adel Alnaas

Abstract

Many industrial heating operations still use fuel
oil for combustion instead of the cleaner gaseous fuels. In
the steel industry, large furnaces referred to as reheat
furnaces are used to heat steel stocks to rolling temperatures
using normally fuel oil for combustion. The combustion
products of flue gases consist of mainly carbon dioxide,
water vapor and traced of other oxides such as nitrogen and
sulfur oxides. These oxides are of a concern to the
environment and should be minimized as much as possible.
Experiments were carried out on a steel billet reheat
furnace in which air/fuel ratios are varied while the nitrogen
oxide content is being monitored using furnace instruments.
These variations in air/fuel ratios for combustion are found
to affect the concentration of nitrogen oxides in the flue gas
where higher air/fuel ratios promoted the formation of
higher nitrogen oxides during combustion. The sulfur
dioxide content in the flue gas was calculated based on
actual measurements of air and fuel rates to the furnace and
found to be minimal in the flue gas.

Article Details

How to Cite
Abuluwefa , H., & Alnaas, A. (2024). Nitrogen and Sulfur Oxides Emissions from Fuel Oil Combustion in Industrial Steel Reheat Furnace. The International Journal of Engineering & Information Technology (IJEIT), 3(1). Retrieved from https://ijeit.misuratau.edu.ly/index.php/ijeit/article/view/258
Section
Artical

References

H. T. Abuluwefa, "Optimizing the Process of Steel Slab Reheating in

Pusher Type Reheat Furnace Prior to Hot Working" 2013 the 2nd

International Conference on Manufacturing Engineering and Process

(ICMEP2013), April 13-14, 2013, Vancouver, Canada

US Environment Protection Agency, " Nitrogen Oxides

Why and How They Are Controlled", Office of Air Quality, EPA-456/F99-006R,

November

US Environment Protection Agency, "Emissions Factors & AP 42,

Compilation of Air Pollutant Emission Factors", Clearinghouse for

Inventories & Emissions Factors, 5th Edi., 1995.

H. Huang and A. Buekens, "On the mechanisms of dioxin formation

in combustion processes", Chemosphere, Volume 31, Issue 9,

November 1995, pp. 4099-4117.

Sanjay M Correa, " A Review of NOx Formation Under Gas-Turbine

Combustion Conditions", Combustion Science and

Technology, Volume 87, 1993 - Issue 1-6

Stephen R. Turns, "Understanding NOx formation in nonpremixed

flames: Experiments and modeling", Progress in Energy and

Combustion Science, Volume 21, Issue 5, 1995, pp. 361-385.

Hirotatsu Watanabe , Jun-ichiro Yamamoto and Ken Okazaki,

"NOx formation and reduction mechanisms in staged

O2/CO2combustion", Combustion and Flame,Volume 158, Issue 7, July

, pp. 1255–1263

YutakaSuzukawa, Shunichi Sugiyama, Yoshimichi Hino, Munehiro

Ishioka, Isao Mori, " Heat transfer improvement and NOx reduction by

highly preheated air combustion",, Energy Conversion and

Management, Volume 38, Issues 10–13, July–September 1997, pp.

–1071.

Hsisheng Teng †, Ta-Sung Huang, " Control of NOx emissions

through combustion modifications for reheating furnaces in steel

plants", Fuel, Volume 75, Issue 2, January 1996, pp. 149-156.

V. Dupont, M. Pourkashanian, A. Williams, R. Woolley, " The

reduction of NOx formation in natural gas burner flames", First

International Conference on Combustion Technologies for a Clean

Environment, Vilamoura, Portugal, September 1991.

World Bank Group, Nitrogen Oxides: Pollution Prevention and

Control, Pollution Prevention and Abatement Handbook, Effective July

US Environment Protection Agency , "Combustion Modification

Control of Nitrogen Oxides", National Risk Management Research

Laboratory, Research Triangle Park, NC, EPA Report EPA/600/F-95012,

August

US Environment Protection Agency, " Module 6: Air Pollutants

and Control Techniques - Nitrogen Oxides - Control Techniques, Air

Pollution Training Institute (APTI), BCBS".