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The Influence of Solidification Rate on High-tin Bronze Microstructure

Treść / Zawartość
Identyfikatory
Warianty tytułu
Języki publikacji
EN
Abstrakty
EN
The most important feature of bells is their sound. Their clarity and beauty depend, first of all, on the bell’s geometry - particularly the shape of its profile and the mechanical properties of alloy. Bells are the castings that work by emitting sound in as-cast state. Therefore all features that are created during melting, pouring, solidification and cooling processes will influence the bell's sound. The mechanical properties of bronze depend on the quality of alloy and microstructure which is created during solidification and depend on its kinetics. Hence, if the solidification parameters influence the alloy’s properties, how could they influence the frequencies of bell`s tone? Taking into account alterable thickness of bell's wall and differences in microstructure, the alloy's properties in bell could be important. In the article authors present the investigations conducted to determine the influence of cooling kinetics on microstructure of bronze with 20 weight % tin contents.
Rocznik
Tom
Strony
89--97
Opis fizyczny
Bibliogr. 26 poz., rys., tab., wykr.
Twórcy
autor
  • Silesian University of Technology, Department of Foundry Engineering, Gliwice, Poland
autor
  • Silesian University of Technology, Department of Foundry Engineering, Gliwice, Poland
autor
  • Silesian University of Technology, Department of Foundry Engineering, Gliwice, Poland
Bibliografia
  • [1] Fletcher, N.H., (1999) The nonlinear physics of musical instruments. Reports on Progress in Physics. 62, 723-764.
  • [2] Bartocha, D. & Baron, C. (2015). „The Secret” of Traditional Technology of Casting Bells. Archives of Foundry Engineering. 15(spec.3), 5-10. (in Polish).
  • [3] Czochlarski, J. & Bukowski, Z. (1935). Deoxidation of brasses and bronzes. Warszawa: Wiadomości Instytutu Metalurgii.
  • [4] Bydałek, A.W. (2009). The analysis of carbon attendance in copper alloys as reason of gas porosity. Archives of Foundry Engineering. 9(3), 25-28.
  • [5] Bydałek, A.W. (1999). Melting of chosen cooper alloys in reducing conditions. Solidification of Metals and Alloys. 1(40), 87-92. (in Polish).
  • [6] Bydałek, A.W. (2005). Analysis of cooper alloys melting technology on castings porosity. Archives of Foundry. 5(17), 27-36, (in Polish).
  • [7] Bartocha, D. & Baron, C. (2016). Influence of Tin Bronze Melting and Pouring Parameters on Its Properties and Bells’ Tone. Archives of Foundry Engineering. 16(4), 17-22.
  • [8] Wiśniewski, S., Wiśniewski, T.S. (1994). Heat exchange. Warszawa: Wydawnictwo Naukowo-Techniczne. (in Polish).
  • [9] Janerka, K. (2013). The influence of carburizers on the microstructure and properties of cast iron. Katowice-Gliwice: Wydawnictwo Archives of Foundry Engineering. (in Polish).
  • [10] Bartocha, D. & Janerka, K. (2010). Carburizer particle dissolution in liquid cast iron – computer simulation. Archives of Foundry Engineering. 10(1), 7-14.
  • [11] Janerka, K. & Bartocha, D. (2010). Computer simulation of carburizers particles heating in liquid metal. Archives of Foundry Engineering. 10(1), 59-67.
  • [12] Taler, J., Duda, P. (2003). Solving the simple and inverse issues of heat transfer. Warszawa: WNT (in Polish).
  • [13] NovaFlow&Solid CV4.4r3 software material data base.
  • [14] Ignaszak, Z. (1999). Simulation model sensitivity to quality of material properties. Solidification of Metals and Alloys. 1(40), 25-36.
  • [15] Ignaszak, Z. (2002). Virtual prototyping in foundry. Data Bases and validation. Poznań: Wydawnictwo Politechniki Poznańskiej. (in Polish).
  • [16] Ignaszak, Z. & Prunier, J-B. (2017). Innovative Laboratory Procedure to Estimate Thermophysical Parameters of Iso-exo Sleeves. Archives of Foundry Engineering. 17(1), 67-72.
  • [17] Gernot Minke (2007). Building with Earth: Design and Technology of a Sustainable Architecture. Birkhäuser Basel.
  • [18] Sailor, D.J. & Hagos, M. (2011). An updated and expanded set of thermal property data for green roof growing media. Energy and Buildings. 43, 2298-2303.
  • [19] Davraz, M., Koru, M. & Akdağ, A.E. (2015). The Effect of Physical Properties on Thermal Conductivity of Lightweight Aggregate. Procedia Earth and Planetary Science. 15, 85-92.
  • [20] Franus, M. (2012). Physical and mechanical properties of expanded clay obtained with the addition of glauconite. Budownictwo i Architektura. 10, 5-14. (in Polish).
  • [21] List of physical parameters of materials and construction products. acc. PN-EN ISO 12524:2003, PN-EN ISO 6946:1999 i PN-91/B-02020.
  • [22] Data sheet: AWOTEX-2 FIBERFRAX – SIBRAL.
  • [23] Perrin, R., Swallowe, G.M., Charnley, T. & Marshall, C. (1999). On the debossing, annealing and mounting of bells. Journal of Sound and Vibration. 227(2), 409-425.
  • [24] Fields R., Low S. & Lucey G. (1991). Physical and mechanical properties of intermetallic compounds commonly found in solder joints. Metal Science of Joining, Cincinnati. Oct 20-24.
  • [25] Subrahmanyam, B. (1972). Elastic Moduli of some complicated binary alloy systems. Transactions of Japan Institute of Metals. 13, 93-95.
  • [26] Górny, Z. (1992). Non-ferrous foundry alloys. Warszawa: WNT. (in Polish).
Uwagi
PL
Opracowanie rekordu w ramach umowy 509/P-DUN/2018 ze środków MNiSW przeznaczonych na działalność upowszechniającą naukę (2019).
Typ dokumentu
Bibliografia
Identyfikator YADDA
bwmeta1.element.baztech-d7f899ca-5a23-457c-a9a0-b7da06c5aca3
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