Efficient way to use of non-coking coals in non-recovery coke making process

被引:13
|
作者
Tiwari, H. P. [1 ]
Banerjee, P. K. [1 ]
Saxena, V. K. [2 ]
Sharma, R. [1 ]
Haldar, S. K. [3 ]
Verma, S. [4 ]
机构
[1] Tata Steel Ltd, R&D, Raw Mat & Coke Making Res, Jamshedpur 831001, Jharkhand, India
[2] ISM, Dept Chem Engn, Dhanbad, Bihar, India
[3] Tata Steel Ltd, Coke Plants, Jamshedpur 831001, Jharkhand, India
[4] Tata Steel Ltd, Hooghly Met Coke HMC Div, Jamshedpur 831001, Jharkhand, India
关键词
composite coking potential; pulverized coal injection coal; raw petroleum coke; non-recovery coke making; coke quality; COKING; QUALITY; COKEMAKING; BLENDS;
D O I
10.1051/metal/2014026
中图分类号
TF [冶金工业];
学科分类号
0806 ;
摘要
Maximization of non-coking coal in coal blend is eloquent interest among researchers in coke making throughout the world. To maximize the non-coking coals in coal blend with the scarce and expensive coking coals is an essential practice in the iron and steel industry. The fundamental aspect of the coal blending theory of low value coals to produce good quality of metallurgical coke in non-recovery coke making process was investigated in this study by using the composite coking potential technique. The implementation of the technique has yielded use of up to 25% pulverized coal injection, 20% raw petroleum coke as a component of coal blend. Results show that the coal blend having composite coking potential value of >= 4.8 is desired to achieve the targeted coke strength after reaction of >= 65.
引用
收藏
页码:211 / 220
页数:10
相关论文
共 50 条
  • [41] Characteristics of Indian non-coking coals and iron ore reduction by their chars for directly reduced iron production
    Kumar, M.
    Patel, S. K.
    MINERAL PROCESSING AND EXTRACTIVE METALLURGY REVIEW, 2008, 29 (03): : 258 - 273
  • [42] Importance of petrographic study of non-coking coals from Talcher coal field, Orissa in coal utilisation
    Misra, SK
    Mohanty, JK
    JOURNAL OF THE GEOLOGICAL SOCIETY OF INDIA, 2005, 66 (04) : 475 - 485
  • [43] One-dimensional model of heat-recovery, non-recovery coke ovens. Part II: Coking-bed sub-model
    Buczynski, Rafal
    Weber, Roman
    Kim, Ronald
    Schwoeppe, Patrick
    FUEL, 2016, 181 : 1115 - 1131
  • [44] Influence of draff as coking additive on the quality of lump coke using non-baking coals
    Fehse, Franz
    Schroeder, Hans-Werner
    Kim, Ronald
    FUEL, 2019, 250 : 98 - 102
  • [45] Influence of briquetting and coking parameters on the lump coke production using non-caking coals
    Fehse, Franz
    Rosin, Katharina
    Schroeder, Hans-Werner
    Kim, Ronald
    Spoettle, Matthias
    Repke, Jens-Uwe
    FUEL, 2017, 203 : 915 - 923
  • [46] BRICOKE PROCESS FOR PRODUCING METALLURGICAL COKE IN CONVENTIONAL OVENS FROM BLENDS CONTAINING A HIGH PERCENTAGE OF NON COKING COALS.
    Vidal, R.
    Munnix, R.
    Dellieu, J.
    Danloy, G.
    Poos, A.
    Martens, T.
    deWoot, P.
    Neuville, J.
    Masuy, J.M.
    Hannon, L.
    Metallurgical reports - C.R.M., 1980, (56): : 3 - 8
  • [47] One-dimensional model of heat-recovery, non-recovery coke ovens Part V: Coking-bed sub-model using an inverse procedure
    Buczynski, Rafal
    Weber, Roman
    Kim, Ronald
    Schwoeppe, Patrick
    FUEL, 2018, 225 : 443 - 459
  • [48] Investigation of the heat-recovery/non-recovery coke oven operation using a one-dimensional model
    Buczynski, Rafal
    Weber, Roman
    Kim, Ronald
    Schwoeppe, Patrick
    APPLIED THERMAL ENGINEERING, 2018, 144 : 170 - 180
  • [49] Optimisation of coal blend and bulk density for coke ovens by vibrocompacting technique non-recovery ovens
    Kumar, P. Prachethan
    Vinoo, D. S.
    Yadav, U. S.
    Ghosh, S.
    Lal, J. P. N.
    IRONMAKING & STEELMAKING, 2007, 34 (05) : 431 - 436
  • [50] Experimental determination of the strength and reactivity of lumpy and briquetted chars from non-coking coals under melter-gasifier conditions
    Bhattacharyya, Anrin
    Schenk, Johannes
    Heckmann, Hado
    IRONMAKING & STEELMAKING, 2018, 45 (10) : 907 - 912