首页 | 官方网站   微博 | 高级检索  
     

100 t顶吹转炉三维可压缩流场的数值模拟
引用本文:解家英,张利君,宁林新,王凤琴.100 t顶吹转炉三维可压缩流场的数值模拟[J].特殊钢,2014,35(5):1-4.
作者姓名:解家英  张利君  宁林新  王凤琴
作者单位:首钢技术研究院,北京 100043
摘    要:通过利用Fluent流体软件及标准κ-ε方程模型,研究氧气压力(11.46×105Pa和6.88×105 Pa)及氧枪位置(1.2~1.5 m)对钢厂100 t顶吹转炉氧枪射流特性及钢液表面冲击的影响。结果表明,随氧气压力的增大,氧气在转炉内高速区范围变大,射流核心段长度变长,且气流的压能增加;氧气压力为11.46×105Pa时,当枪位由1.2 m提到1.5 m时,钢液表面氧气流最大冲击速度由240 m/s降低至194 m/s,高速区面积减少,钢液凹坑深度由0.37~0.43 m降至0.30~0.36 m,同时凹坑最大直径由0.70~0.80 m增至0.80~0.95 m。

关 键 词:100t顶吹转炉  氧枪  射流特性  数值模拟  枪位  氧气压力  钢液凹坑  
收稿时间:2014-04-17

Numerical Simulation of Three Dimensional Compressible Fluid Flow of 100 t Top-Blown Oxygen Converter
Xie Jiaying,Zhang Lijun,Ning Linxin,Wang Fengqin.Numerical Simulation of Three Dimensional Compressible Fluid Flow of 100 t Top-Blown Oxygen Converter[J].Special Steel,2014,35(5):1-4.
Authors:Xie Jiaying  Zhang Lijun  Ning Linxin  Wang Fengqin
Affiliation:Shougang Technology Institute, Beijing 100043
Abstract:The influence of oxygen pressure (11.46 x 105 Pa and 6. 88 x 105 Pa) and oxygen lance level ( 1.2-1.5 m) on jet characteristics and impact of liquid surface of 100 t top-blown oxygen converter at steel words is studied by using Fluent fluid software and standard k-e turbulence model. Results show that with increasing oxygen pressure the high speed region of oxygen in converter enlarges, the length of jet key area increases and the pressure energy of jet enhances ; with oxygen pressure 11.46 x 105 Pa, as oxygen lance level is raised from 1.2 m to 1.5 m, the max impact speed of oxygen flow at liquid surface decreases from 240 m/s to 194 m/s and the high speed region reduces, the depth of liquid cavity decreases from 0.37-0.43 m to 0.30-0.36 m while the max diameter of liquid cavity enlarges from 0.70-0.80 m to 0.80-0.95 m.
Keywords:100 t Top-Blown Oxygen Converter  Oxygen Lance  Jet Characteristics  Numerical Simulation  Lance Level  Oxygen Pressure  Liquid Cavity  
本文献已被 CNKI 等数据库收录!
点击此处可从《特殊钢》浏览原始摘要信息
点击此处可从《特殊钢》下载全文
设为首页 | 免责声明 | 关于勤云 | 加入收藏

Copyright©北京勤云科技发展有限公司    京ICP备09084417号-23

京公网安备 11010802026262号