Experimental verification of hematite ingot mould heat capacity and its direct utilisation in simulation of casting process

被引:28
|
作者
Smetana, Bedrich [1 ]
Zaludova, Monika [1 ]
Tkadleckova, Marketa [2 ]
Dobrovska, Jana [1 ]
Zla, Simona [1 ]
Gryc, Karel [2 ]
Klus, Petr [2 ]
Michalek, Karel [2 ]
Machovcak, Pavel [3 ]
Rehackova, Lenka [1 ]
机构
[1] VSB TU Ostrava, Dept Phys Chem & Theory Technol Proc, Fac Met & Mat Engn, Reg Mat Sci & Technol Ctr, Ostrava, Czech Republic
[2] VSB TU Ostrava, Dept Met & Foundry, Fac Met & Mat Engn, Reg Mat Sci & Technol Ctr, Ostrava, Czech Republic
[3] VITKOVICE HEAVY MACHINERY AS VHM, Ostrava, Czech Republic
关键词
Heat capacity; DTA; 3D DSC; Phase transition temperatures; Computation; Simulations; Real process; ALLOYED STEELS; DTA;
D O I
10.1007/s10973-013-2964-z
中图分类号
O414.1 [热力学];
学科分类号
摘要
Heat capacity of alloys (metals) is one of the crucial thermophysical parameters used for process behaviour prediction in many applications. Heat capacity is an input variable for many thermodynamical (e.g. Thermocalc, Pandat, MTData, aEuro broken vertical bar) and kinetic programs (e.g. IDS-Solidification analysis package, aEuro broken vertical bar). The dependences of heat capacity on common variables (temperature, pressure, ...) are also commonly used as the input data in software packages (e.g. ProCast, Magmasoft, ANSYS Fluent, aEuro broken vertical bar) that are applicable in the field of applied research for simulations of technological processes. It follows from the above that the heat capacities of materials, alloys in our case, play a very important role in the field of basic and applied research. Generally speaking, experimental data can be found in the literature, but corresponding (needed) data for the given alloy can very seldom be found or can differ from the tabulated ones. The knowledge of proper values of heat capacities of alloys at the corresponding temperature can be substantially used for addition to and thus towards the precision of the existing database and simulation software. This study presents the values of C (p) measured for the hematite ingot mould and comparison of the measured data with the C (p) values obtained using the software CompuTherm with respect to simulation of technological casting process.
引用
收藏
页码:473 / 480
页数:8
相关论文
共 45 条
  • [31] Numerical simulation of dynamic process for liquid film spreading by lattice Boltzmann method and its experimental verification
    Liu Qiu-zu
    Kou Zi-ming
    Han Zhen-nan
    JOURNAL OF CENTRAL SOUTH UNIVERSITY, 2014, 21 (08) : 3247 - 3253
  • [32] Numerical simulation on trapping efficiency of steady filtration process in diesel particulate filter and its experimental verification
    Gui-ju Zhang
    Jia-qiang E
    Qing-song Zuo
    Jin-ke Gong
    Wei Zuo
    Wen-hua Yuan
    Journal of Central South University, 2015, 22 : 4456 - 4466
  • [33] Numerical simulation of solidification morphologies of pure copper by vacuum continuous casting using cellular automaton model and its experimental verification
    Tsai, D. C.
    Hwang, W. S.
    Jiang, C. S.
    INTERNATIONAL JOURNAL OF CAST METALS RESEARCH, 2009, 22 (1-4) : 135 - 138
  • [34] Numerical Simulation on Hardness Distribution for a FC250 Gray Cast Iron Brake Disc Casting and Its Experimental Verification
    Yeh, Chun-Ping
    Hwang, Weng-Sing
    Lin, Chien-Hen
    MATERIALS TRANSACTIONS, 2009, 50 (11) : 2584 - 2592
  • [35] Numerical Simulation and Experimental Verification of Microstructure Evolution for K439B Nickel-Based Superalloy in Investment Casting Process
    Shan Y.
    Sui D.
    Ma J.
    Dong A.
    Sun B.
    Xiyou Jinshu/Chinese Journal of Rare Metals, 2023, 47 (07): : 923 - 933
  • [36] Porosity forming mechanism and numerical simulation of casting process optimization of nickel-based heat-resistant alloy electrode ingot with large height to diameter ratio
    Chen, Kun
    He, Xikou
    Liu, Zhengdong
    Li, Gen
    Zhang, Peng
    Liu, Huasong
    JOURNAL OF MATERIALS RESEARCH AND TECHNOLOGY-JMR&T, 2024, 29 : 2363 - 2375
  • [37] A two-region simulation model of vertical U-tube ground heat exchanger and its experimental verification
    Yang, Weibo
    Shi, Mingheng
    Liu, Guangyuan
    Chen, Zhenqian
    APPLIED ENERGY, 2009, 86 (10) : 2005 - 2012
  • [38] Numerical simulation and experimental verification of large-sized Zr-based bulk metallic glass ring-shaped parts in casting process
    Wang, Fei-lon
    Hao, Qiu-hong
    Yu, Peng-fei
    Yang, Yu-jing
    Ma, Ming-zhen
    Zhang, Xin-yu
    Liu, Ri-ping
    TRANSACTIONS OF NONFERROUS METALS SOCIETY OF CHINA, 2022, 32 (02) : 581 - 592
  • [39] Modelling of the PVT-SiC bulk growth process taking into account global heat transfer, mass transport and heat of crystallization and results on its experimental verification
    Muller, SG
    Eckstein, R
    Hofmann, D
    Kadinski, L
    Kaufmann, P
    Kolbl, M
    Schmitt, E
    SILICON CARBIDE, III-NITRIDES AND RELATED MATERIALS, PTS 1 AND 2, 1998, 264-2 : 57 - 60
  • [40] Large eddy simulation of various EMBr effects on the fluid flow, heat transfer and solidification process in an ultra-high speed thin slab casting mould with multi-port SEN
    Cui, Henan
    Sun, Jiankun
    Zhang, Jiangshan
    Xu, Haiwei
    Wang, Guolian
    Liu, Qing
    IRONMAKING & STEELMAKING, 2024,