Orthogonal Experimental Research on Sintering Cooler Transfer Performance

Bin Zhao; Zhi Mei Wen; Xiao Hui Zhong; Xi Qiang Han

doi:10.4028/www.scientific.net/AMR.614-615.291

Paper Titles

Heat Transfer Investigation of the Circulating Fluidized Bed Evaporator for Concentrating Pineapple Juice
p.272

Performance Comparison between Metal Honeycomb and Ceramic Honeycomb in Continuous Waste Heat Recovery
p.277

Calculation Method of Attemperation Water Flow in Changing Steam Flow Condition
p.282

Numerical Simulation of Heat Transfer in Shell and Tube Heat Storage Fixed Vertical Fins
p.286

Orthogonal Experimental Research on Sintering Cooler Transfer Performance
p.291

Numerical Simulation of the Liquid Flowing and Heat-Transfer outside the Tube of the Horizontal-Tube Falling Film Evaporator
p.296

Control of Magnesium Alloys Two-Roll Strip Cast Cooling System Based on the Fuzzy Model
p.301

Impact of Carbonate Scaling on the Efficiency of Used Geothermal Water Reinjection from Low-Middle Temperature Geothermal Fluid in Xianyang Porous Geothermal Field, NW China
p.307

Conduction from Longitudinal Fin of Rectangular Profile with Exponential Vary Heat Transfer Coefficient
p.311

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Orthogonal Experimental Research on Sintering Cooler Transfer Performance

Abstract:

Circular cooler is deployed for sinter cooling process in sintering industry. According to the sinter cooler from HBIS, an experimental study was conducted and a bench of the heat exchange body was built. Under the same initial temperature of the sinter, the experimental results of nine conditions are compared, which reveals the effect of particle size, material thickness, air flow rate and inlet air temperature on sinter sensible heat extraction, adopting orthogonal experimental method. Experiment results show that, at the mixing condition of material thickness 1400 mm, air flow rate 921 m³•h^-1 and inlet air temperature 90 °C, the unit of sinter available exergy reaches 313.55 kJ•kg^-1. The conclusions provide theoretical and experimental basis for the sensible heat extraction process of the sinter.