人物简介
- 姓 名:焦克新
- 职 务:教授/大安全科学研究院副院长
- 电子邮件: jiaokexin@ustb.edu.cn
办公地点:冶金楼606
办公电话:62332550
本科课程:铁矿石造块新技术
研究生课程 :高炉安全长寿新技术
科研领域:
低碳炼铁新技术; 高炉安全长寿技术; 金属复合材料研发及性能表征; 新型耐火材料研发及性能表征; 高温冶金熔体物性研究。
社会兼职:
冶金工业安全风险防控应急管理部重点实验室办公室主任;
中国金属学会炼铁分会秘书;
MMTB、Cera. Int., ISIJ、Fuel、Energy等期刊审稿人。
- 个人简介
- 成就及业绩
-
获奖:
中国科协青年人才托举工程项目:省部级;
“高炉安全长寿自修复理论与关键技术研发应用”:获冶金科技进步一等奖;
“铜钢复合冷却壁制造与应用”:获冶金科技进步一等奖;
“大型高炉铜冷却壁的长寿关键技术研发与应用”:获冶金科技进步二等奖;
“炼铁系统原燃料资源智能优化系统研究”:获吴文俊人工智能科学技术二等奖;
“安全长寿高炉炉缸炉底内衬及结构新技术”:获郑州市科技进步一等奖;
获北京科技大学第十一届青年教师教学基本功大赛二等奖;
获国家自然科学基金委冶金与材料学科发展战略研讨会优秀报告;
获第十一届中国钢铁年会青年优秀科技论文奖。
第五届全国大学生冶金科技竞赛一等奖指导教师,冶金科技竞赛组委会;
教育教学成果特等奖,北京科技大学;
教育教学成果一等奖,北京科技大学;
第十一届“挑战杯”首都大学生课外学术科技作品竞赛“红色实践”专项赛二等奖指导教师,挑战杯组委会;
社会实践优秀指导教师. 北京科技大学;
专利:
1、焦克新, 张建良, 高凯, 等. 一种利用HIsmelt熔融还原工艺冶炼红土镍矿的方法. CN202010581483.4.
2、焦克新, 高善超, 张建良, 等. 一种检测高炉炉缸活跃性的系统、方法及装置. CN201810596710.3.
3、焦克新, 王凯, 张建良, 等. 一种高炉冷却系统的冷却效果的计算机标定方法. CN201910266849.6.
4、焦克新, 邓勇, 张建良, 等. 一种含钛物料护炉经济性评价模型. CN201810588916.1
5、张建良, 焦克新, 王一杰, 等.一种有害元素对高炉燃料比影响的计算方法的建立方法. CN201711387952.3
6、王凯, 焦克新, 张建良, 等.一种冷却水管优化配置的方法及均匀分流的水管结构. CN201910256635.0.
7、宋强建, 张建良, 焦克新, 等.一种评价耐火材料抗碱金属侵蚀性能的试验装置及方法. CN201711387687.9.
科研项目:
2012-01~2025-12 国家级高炉炉缸含钛铁液微纳结构构筑及高温粘度调控机制;国家自然科学基金;主持;
2018-01~2020-12 国家级高炉炉缸渣铁焦物相界面及渣铁穿焦行为研究;国家自然科学青年基金;主持;
2018-12~2021-12 省部级铜钢复合冷却壁的制备与应用;中国科协青年托举;主持;
2019-08~2022-08 省部级高比例球团在高炉内的行为研究;山西省重点项目;主持;
2017-09~2019-09 校级高炉炉缸铁水物相及其基础物性研究;中央高校基本科研业务;主持;
钢铁行业水污染全过程控制技术系统集成与综合应用示范;十三五重大专项;参与;
宝武-氢冶金环境下高炉耐火材料抗蚀损研究;横向课题;参与;
武钢1号高炉软熔带-滴落带-死料柱解剖研究;横向课题;参与;
京唐高炉铜冷却壁破损机理及高温服役性能研究;横向课题;参与;
首钢股份1号高炉破损调查研究;横向课题;参与;
北京首钢股份高炉降本增效潜力研究;横向课题;参与;
沙钢5800高炉炉缸石墨碳护炉综合技术研究;横向课题;参与;
湘钢高效长寿高炉炉缸特性表征基础研究;横向课题;参与;
长寿高炉炉缸经济高效护炉技术研究;横向课题;参与;
高炉炉缸用耐火材料抗侵蚀性能检测分析;横向课题;参与。
-
简历:
2022.7-至今:北京科技大学冶金与生态工程学院钢冶系,教授
2019.6-2022.6:北京科技大学冶金与生态工程学院钢冶系,副教授 2016.12-2019.6:北京科技大学冶金与生态工程学院钢冶系,讲师 2015.11-2016.11:澳大利亚联邦科学与工业研究院(CSIRO),博士后 2010.9-2015.6:北京科技大学冶金与生态工程学院,冶金工程专业,博士 2006.9-2010.7:北京科技大学冶金与生态学院,冶金工程专业,学士
代表性论著 :
论文:
[1] Kexin Jiao*, Guangxiang Feng, Jianliang Zhang, Hengbao Ma, Ziyu Guo. Characterization and formation mechanism of graphite-rich iron protective layer in blast furnace hearth. Fuel, 306(12): 121665. (SCI 检索,IF=”6.609)
[2] Sai Meng, Kexin Jiao*, Jianliang Zhang, Yanbing Zong, Lei Zhang, Hengbao Ma, Ziyu Guo. Dissection study of the deadman in a commercial blast furnace hearth. Fuel Processing Technology, 221(10): 106916. (SCI 检索,IF=”7.033)
[3] Hengbao Ma, Kexin Jiao*, Cui Wang, Jianliang Zhang. Viscosity of CaO-MgO-Al2O3-SiO2-TiO2- FeO slag with varying TiO2 content: The effect of crystallization on viscosity abrupt behavior. Ceramics International, 2021, 47(12): 17445-17454. (SCI 检索,IF=”4.527)
[4] Xinyu Zhang, Kexin Jiao*, Jianliang Zhang, Ziyu Guo. A review on low carbon emissions projects of steel industry in the World. Journal of Cleaner Production, 2021, 306(07): 127259. (SCI 检索,IF=”9.297)
[5] Xiaoyue Fan, Kexin Jiao*, Jianliang Zhang, Rongrong Wang. Comprehensive research about critical interaction region named cohesive zone in series of dissected blast furnaces: A Review. ISIJ International, 2021, 61(06): 1758-1767. (SCI 检索,IF=”1.739)
[6] Hengbao Ma, Kexin Jiao*, Cui Wang, Jianliang Zhang. Investigation of formation and shedding behavior of slag crust in a large blast furnace with copper stave: flow properties and crystallization characteristics. Journal of Sustainable Metallurgy, 2021, 60(11): 2357-2365. (SCI 检索,IF=”2.347)
[7] Guangxiang Feng, Kexin Jiao*, Jianliang Zhang, Shanchao Gao. High-temperature viscosity of iron‑carbon melts based on liquid structure: The effect of carbon content and temperature. Journal of Molecular Liquids, 2021, 330: 115603. (SCI 检索,IF=”6.165)
[8] Kexin Jiao*, Cui Wang, Jianliang Zhang, Shan Ren, E Dianyu. Heat transfer evolution process in hearth based on blast furnace dissection. JOM, 2020, 72(05): 1935-1942. (SCI 检索,IF=”2.474)
[9] Kai Gao, Kexin Jiao*, Jianliang Zhang, Lei Zhang, Cui Wang, Weimin Gong, Jingxian Zheng, Haibin Zhang. Dissection investigation of forming process of titanium compounds layer in the blast furnace hearth. ISIJ International, 2020, 60(11): 2385-2391. (SCI 检索,IF=”1.739)
[10] Tianlu Gao, Kexin Jiao*, Jianliang Zhang, Hengbao Ma. Melting erosion failure mechanism of tuyere in blast furnace. ISIJ International, 2020, 61(01): 71-78. (SCI 检索,IF=”1.739)
[11] Heng Zhang, Kexin Jiao*, Jianping Liu. Comparisons of the microstructures and micro-mechanical properties of copper/steel explosive-bonded wave interfaces. Materials Science and Engineering A, 2019, 756: 430-441. (SCI 检索,IF=”4.652)
[12] Xiaoyue Fan, Kexin Jiao*, Jianliang Zhang, Ruiqi Cao, Rusheng He, Kaidi Wang. Study on physicochemical properties of Al2O3-SiC-C castable for blast furnace. Ceramics International, 2019, 45(11): 13903-13911. (SCI 检索,IF=”3.830)
[13] Xiaoyue Fan, Kexin Jiao*, Jianliang Zhang, Hongxiu Ma, Haibin Jiang, Bingji Yan. Coke microstructure and graphitization across the hearth deadman regions in a commercial blast furnace. ISIJ International, 2019, 59(10): 1770-1775. (SCI 检索,IF=”1.405)
[14] Zhiyu Chang, Kexin Jiao*, Jianliang Zhang, Xiaojun Ning. Insights into accumulation behavior of harmful elements in cohesive zone with reference to its influence on coke. ISIJ International, 2019, 59(10): 1796-1800. (SCI 检索,IF=”1.405)
[15] Kexin Jiao*, Zhiyu Chang, Jianliang Zhang, Chunlin Chen. Thermodynamic properties and viscosities of CaO-SiO2-MgO-Al2O3 slags. Metallurgical and Materials Transactions B. 2019, 50(02): 1012-1022. (SCI 检索,IF=”2.035)
[16] Kexin Jiao*, Jianliang Zhang, Chunlin Chen. Analysis of the deadman features in hearth based on blast furnace dissection by comprehensive image-processing technique. ISIJ International, 2019, 59(01): 16-21. (SCI 检索,IF=”1.405)
[17] Hengbao Ma, Kexin Jiao*, Jianliang Zhang. Basicity and TiO2 on crystallization behavior of high Ti-bearing slag. CrystEngComm, 2019, 22(02): 361-370. (SCI 检索,IF=”3.117)
[18] Zhiyu Chang, Kexin Jiao*, Jianliang Zhang. Graphitization Behavior of Coke in Cohesive Zone. Metallurgical and Materials Transactions B, 2018, 49(06): 2956-2962. (SCI 检索,IF=”1.952)
[19] Zhiyu Chang, Kexin Jiao*, Xiaojun Ning, Jianliang Zhang. Behavior of Alkalis Accumulation of Coke in Cohesive Zone. Energy & Fuels, 2018, 32: 8383-8391. (SCI 检索,IF=”3.021)
[20] Kexin Jiao, Xiaoyue Fan*, Jianliang Zhang, Kaidi Wang, Yongan Zhao. Corrosion behavior of alumina-carbon composite brick in typical blast furnace slag and iron. Ceramics International, 2018, 44: 19981-19988. (SCI 检索,IF=”3.450)
[21] Heng Zhang, Kexin Jiao*, Jianliang Zhang, Jianping Niu. Experimental and numerical investigations of interface characteristics of copper/steel composite prepared by explosive welding. Materials & Design, 2018, 154: 140-152. (SCI 检索,IF=”5.770)
[22] Heng Zhang, Kexin Jiao*, Jianliang Zhang, Jianping Niu. Microstructure and mechanical properties investigations of copper-steel composite fabricated by explosive welding. Materials Science and Engineering A, 2018, 731: 278-287. (SCI 检索,IF=”4.081)
[23] 焦克新,张建良*,刘征建,刘彦祥,梁利生,贾国栋.高炉炉缸凝铁层物相分析.工程科学学报.2017,39(06):838-846.
[24] 焦克新*,张建良,刘征建,王广伟.高炉炉缸含钛保护层物相及TiC0.3N0.7形成机理.工程科学学报,2019,41(02):190-198.
[25] 焦克新,张建良,刘征建,杨天钧.关于高炉炉缸长寿的关键问题解析.钢铁,2020,55(08):193-198.
著作:
1、张建良, 焦克新, 刘征建, 等. 高炉炉缸安全长寿理论与实践. 冶金工业出版社, 2022.04.
2、张建良, 焦克新, 王振阳. 炼铁过程节能减排先进技术. 冶金工业出版社, 2021.11.
3、张建良, 焦克新, 黄务涤. The Operation of Contemporary Blast Furnaces. Springer, 2020.04.
4、张建良, 罗登武, 左海滨, 曾晖 , 焦克新, 王振阳. 炼铁过程节能减排先进技术. 冶金工业出版社, 2019.12.
jQuery(“.tabox”).slide({delayTime: 0});