Szczegóły Szczegóły PDF BIBTEX RIS Tytuł artykułu Structural Transformations Versus Hard Particles Motion in the Brass Ingots Tytuł czasopisma Archives of Metallurgy and Materials Rocznik 2017 Wolumin vol. 62 Numer No 4 Autorzy Kwapisiński, P. ; Wołczyński, W. ; Ivanova, A.A. ; Olejnik, E. Wydział PAN Nauki Techniczne Wydawca Institute of Metallurgy and Materials Science of Polish Academy of Sciences ; Committee of Materials Engineering and Metallurgy of Polish Academy of Sciences Data 2017 Identyfikator DOI: 10.1515/amm-2017-0362 ; e-ISSN 2300-1909 Źródło Archives of Metallurgy and Materials; 2017; vol. 62; No 4 Referencje Martorano (2004), Interaction Mechanism for Columnar - to - Equiaxed Transition in Alloy Solidification Metallurgical, Materials Transactions, 24, 1915. ; Perzyk (2016), Methodology of Fault Diagnosis in Ductile Iron Melting Process of Foundry, Archives Engineering, 16, 39. ; Lipnicki (2011), Influence of Thermal Boundary Layer on the Contact Layer between Liquid and a Cold Plate in a Solidification Process and Mass Transfer, Heat, 1629. ; Suzuki (1981), The Mechanism of Reducing A Segregates in Steel Ingots of the Iron and of, Transactions Steel Institute Japan, 22, 235. ; Zimmermann (2014), to - Equiaxed Transition in Solidification Processing of Alloys in Micro - gravity CETSOL Project, Materials Science Forum, 30, 790. ; Cholewa (2010), Layers Casting of Achievements in Materials, Bimetallic Journal Manufacturing Engineering, 16, 385. ; Burbelko (2012), Modeling of the Grain Structure Formation in the Steel Continuous Ingot by CAFE Method of and, Archives Metallurgy Materials, 11, 379. ; Zyska (2016), Modelling of the Dendritic Crystallization by the Cellular Automaton Method of Foundry, Archives Engineering, 18, 99. ; Hamdi (1998), Numerical Modeling of the Columnar to Equiaxed Transition in Continuous Casting of Modelling of Casting Welding and Advanced Solidification Process VIII Proceedings of the VIII - th Conference on Modeling of Casting Welding and Advanced Solidification San, USA, 7. ; Fraś (2008), Interaction between Solidification Front and Alien Phase Particles of and, Archives Metallurgy Materials, 53. ; Gandin (1994), Ch Three Dimensional Simulation of the Grain Formation in Investment Casting, Metallurgical Transactions, 23, 629. ; Wołczyński (2016), Large Steel Ingots Microstructure Modeling Entry in The Encyclopedia of Iron and Their Alloys New York, Mathematical, 1. ; Hunt (1984), Steady State of and, Growth Materials Science Engineering, 65. ; Szajnar (2009), Influence of Electromagnetic Field on Pure Metals and Alloys Structure of Achievements in Materials and, Journal Manufacturing Engineering, 15, 95. ; Nguyen (2006), Influence of Forced Convection on Columnar Microstructure during Directional Solidification of Alloys, Materials Science Forum, 26, 508. ; Ivanova (2009), Nieprerywnolitogo Metallurgicheskije i, null, 12, 7. ; McFadden (2010), of a Microgravity Experiment for Columnar to Equiaxed Transitions with Modeling Results, Analysis Materials Science Forum, 29, 649. ; Lorbiecka (2010), Simulation of Dendritic Growth with Different Orientation by Using the Point Automata Method Materials, Computers Continua, 18, 69. ; Wołczyński (2016), Structural Zones in Large Static Ingots Forecasts for Continuously Cast Brass Ingot of Foundry, Archives Engineering, 16, 141. ; Zubko (1973), Reaction of Foreign Particles with a Crystallization Front Soviet Physics, null, 18, 239. ; Alexandrova (2009), Mushy Layer Formation during Solidification of Binary Alloys from a Cooled the Role of Boundary Conditions, Acta Physica Polonica, 6. ; Lorbiecka (2010), Sensitivity Study of Grain Growth Model for Prediction of Transformations in Continuous Steel Casting, Materials Science Forum, 649. ; Miyata (2010), Morphological Transition in High Growth Rate in Constrained Solidification, Materials Science Forum, 28, 649. ; Umeda (1997), Heat Mass and Microstructure Simulation of Continuous Casting of th International Symposium on Physical Simulation Japan, Proceedings, 31, 3. ; Stetina (2011), Numerical Model of Heat Transfer and Mass Transfer during Solidification of Concasting Proceedings of the th Thermal Engineering Joint Conference - Honolulu Hawaii USA JSME Conference CD, null, 2, 13. ; McFadden (2006), Prediction of the Formation of an Equiaxed Zone ahead of a Columnar Front in Binary Alloys Castings : Indirect and Direct, Methods Materials Science Forum, 27, 508. ; Billia (2005), Equiaxed Transition in Solidification Processing and, Microgravity Science Technology, 25, 290. ; Telejko (2009), of Heat Transfer and Fluid Flow in Continuous Steel Casting of and, Analysis Archives Metallurgy Materials, 20, 837. ; Ivanova (2012), Calculation of Phase Change Boundary Position in Continuous Casting of Foundry, Archives Engineering, 13, 13. ; Tkadlečkova (2016), Study of Solidification of Continuously Cast Steel Round Billets using Numerical Mode of and, Archives Metallurgy Materials, 14, 61. ; Mochnacki (2000), Application of the Boundary Element Method for the Numerical Modelling of the Solidification of Cylindrical and Spherical Castings of Materials Processing, Journal Technology, 106, 99. ; Shangguan (1992), Stefan An Analytical Model for the Interaction between an Insoluble Particle and an Advancing Solid / Liquid Interface, Metallurgical Transactions, 23, 37. ; Konozsy (2010), to Equiaxed Transition during Ingot Casting using Ternary Alloy Composition, Materials Science Forum, 649. ; Wróbel (2011), Layered Casting Alloy Cast Iron of and, Archives Materials Science Engineering, 17, 118.