Control of the fuel consumption and blast furnace productivity using models

Peters, Kristina; Kowalski, W. P.; Beppler, E.

doi:10.1051/metal/199390030355

Cited by 2 publications

(1 citation statement)

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“…In the ironmaking process with a BF, solid fuel combustion such as coke and pulverized coal is an essential source of carbon dioxide emissions. [1,3,4] Therefore, in order to control greenhouse gas emissions, the fuel ratio should be given attention. Fuel ratio is one of the most important indicators to measure BF's operating conditions and economic costs.…”

Section: Introductionmentioning

confidence: 99%

Prediction of Blast Furnace Fuel Ratio Based on Back‐Propagation Neural Network and K‐Nearest Neighbor Algorithm

Zhang

Jiao

Zhang

et al. 2022

steel research int.

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Table 2. Characteristic parameters selected under different thresholds. re Characteristic parameters 0.5 Coke M10, Theoretical alkalinity, Proportion of lump ore, Blast volume, Sinter particle size <5 mm, Sinter particle size >40 mm, SiO 2 content of sinter, S content of hot metal, Slag ratio, H 2 content, Si content of hot metal, Coke particle size <15 mm, Coke batch, Coke ratio 0.6 Blast temperature, Coke particle size 40-25 mm, Raceway flame temperature, Coke M10, Theoretical alkalinity, S content of hot metal, Slag ratio, H 2 content, Si content of hot metal, S content of hot metal, Sinter tumble strength, Coke particle size <15 mm, Coke batch, Coke ratio 0.7 Blast temperature, Coke particle size 4025 mm, Bottom center temperature, Raceway flame temperature, Coke M10, Theoretical alkalinity, Slag ratio, H 2

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Section: Introductionmentioning

confidence: 99%