Use of Simulation Techniques for the Design and Process Control of Continuous Casting Machines

被引:3
|
作者
Cestari, Luca [2 ]
Dratva, Christian [1 ]
Grundy, Anthony Nicholas [1 ]
Tercelli, Cristiano [1 ]
机构
[1] Concast AG, Zurich, Switzerland
[2] Concast Technol SRL, Udine, Italy
关键词
Corner radius; Finite elements; Integrated mould; Secondary cooling; Soft reduction;
D O I
10.1080/10426910903206709
中图分类号
T [工业技术];
学科分类号
08 ;
摘要
This article presents the latest solutions implemented by Concast AG in the field of process simulation and illustrates the use of finite element method (FEM) models for the engineering of continuous casters and for process control in continuous casting. The first application presented is the use of FEM models for the design of the new Integrated Mould concept, which combines the benefits of both tube- and plate moulds for bloom casters. Second, the Concast real-time solidification model is presented. The article describes this model and its use for controlling the secondary cooling as well as to control mechanical soft reduction (MSR) as function of the actual casting parameters like temperature, casting speed, cooling intensity, both during steady and transient times. Field results show that this model permits us to improve the internal quality of continuous-cast blooms compared to static soft reduction. Finally, the development of a modular program for the design of continuous casters is presented. This integrated program is based on FEM and CAD and permits a fast optimisation of the caster design variables by linking together geometry, solidification, and mechanical calculation of strand solidification, bulging, and support. This approach contributes to a faster and more effective definition of any continuous caster in the early phase of the project, which results in cost and time savings.
引用
收藏
页码:142 / 148
页数:7
相关论文
共 50 条
  • [21] Control and Design of the Steel Continuous Casting Process Based on Advanced Numerical Models
    Milkowska-Piszczek, Katarzyna
    Falkus, Jan
    METALS, 2018, 8 (08):
  • [22] Dynamic control of the billet temperature in continuous-casting machines
    Batraeva A.E.
    Ishmet'Ev E.N.
    Andreev S.M.
    Parsunkin B.N.
    Salikhov Z.G.
    Svetlov A.Yu.
    Steel in Translation, 2007, 37 (11) : 908 - 913
  • [23] Automatic Control of the Spray Cooling of Continuous Casting Machines.
    Fekete, K.A.
    Veitsch-Radex Rundschau, 1976, (01): : 619 - 623
  • [24] Mold for Continuous Casting Machines
    K. N. Vdovin
    A. E. Pozin
    A. A. Podosyan
    I. E. Petrov
    Metallurgist, 2015, 59 : 305 - 307
  • [25] Mold for Continuous Casting Machines
    Vdovin, K. N.
    Pozin, A. E.
    Podosyan, A. A.
    Petrov, I. E.
    METALLURGIST, 2015, 59 (3-4) : 305 - 307
  • [26] Simulation and control model for interactions among process parameters of directional solidification continuous casting
    彭立明
    毛协民
    徐匡迪
    Transactions of Nonferrous Metals Society of China, 2000, (04) : 449 - 452
  • [27] REAL-TIME SIMULATION AND CONTROL-SYSTEM FOR THE CONTINUOUS-CASTING PROCESS
    MANNIKKO, T
    LAITINEN, E
    NEITTAANMAKI, P
    LECTURE NOTES IN CONTROL AND INFORMATION SCIENCES, 1990, 143 : 809 - 817
  • [28] Simulation and control model for interactions among process parameters of directional solidification continuous casting
    Peng, LM
    Mao, XM
    Xu, KD
    TRANSACTIONS OF NONFERROUS METALS SOCIETY OF CHINA, 2000, 10 (04) : 449 - 452
  • [29] Simulation of Induction Heating Process of Continuous Casting Slab
    LIU Hao
    CADDM, 2007, (01) : 54 - 59
  • [30] Integrated numerical simulation of the industrial continuous casting process
    Fainberg, J.
    Hepp, E.
    Schaefer, W.
    Krafthoefer, C.
    INTERNATIONAL CONFERENCE ON MODELLING OF CASTING, WELDING AND ADVANCED SOLIDIFICATION PROCESSES (MCWASP XV), 2020, 861