Research on Patching Materials for Converter

Jun Cong Wei; Jian Kun Huang; Xiao Hua Gu; Shan Lin Zhang; Chao Zhang; Jun Bo Tu

doi:10.4028/www.scientific.net/AMR.510.795

Paper Titles

Review on the Current State of Developing of Advanced Creep Damage Constitutive Equations for High Chromium Alloy
p.776

Recent Progress in Hydrogen Storage Characteristics of Ti-Based Icosahedral Quasicrystal Alloys
p.781

Recovering Obliterated Engraved Vehicle Identify Number on Aluminum Engine Surfaces by Alkaline Etching Technique
p.786

Numerical Simulation of the Two-Phase Flow in Novel Combined Top and Corner Spray Degassing Tank for Aluminum Melt
p.790

Research on Patching Materials for Converter
p.795

Cation Exchange Detection in the Process of Ionic Soil Stabilizer Reinforcing Soil by Laser-Induced Breakdown Spectroscopy
p.799

Atomic Diffusion of Al and Si in Cu_44.25Ag_14.75Zr₃₆Ti₅ Bulk Metallic Glass
p.804

Research and Application of Different Rage Fly Ashes in Recycled Concrete
p.808

Current State of Developing Creep Damage Constitutive Equation for 0.5Cr0.5Mo0.25V Ferritic Steel
p.812

HomeAdvanced Materials ResearchAdvanced Materials Research Vol. 510Research on Patching Materials for Converter

Research on Patching Materials for Converter

Abstract:

A patching material for converter was investigated by using sintered magnesia as the main starting material, a certain carbohydrate as binder and graphite flake and Al metal as additives. The effects of the additions of binder, graphite and aluminium metal on the performances of patching materials were studied respectively. The results revealed that the carbohydrate binder melted during heating, making the patching materials spread out and flow; graphite flake could improve the flow ability, but decrease the bulk density; aluminium metal could partially be oxidized or nitrided, and hence fill the gap and increase the strength.