The Accurate Determination of Heat Transfer Coefficient and its Evolution with Time During High Pressure Die Casting of Al‐9 %Si‐3 %Cu and Mg‐9 %Al‐1 %Zn Alloys
Identifieur interne : 009085 ( Main/Exploration ); précédent : 009084; suivant : 009086The Accurate Determination of Heat Transfer Coefficient and its Evolution with Time During High Pressure Die Casting of Al‐9 %Si‐3 %Cu and Mg‐9 %Al‐1 %Zn Alloys
Auteurs : M. Dargusch [Australie, France] ; A. Hamasaiid [France, Australie] ; G. Dour [France] ; T. Loulou [France] ; C. Davidson [Australie] ; D. Stjohn [France]Source :
- Advanced Engineering Materials [ 1438-1656 ] ; 2007-11.
Descripteurs français
- Pascal (Inist)
- Wicri :
English descriptors
- KwdEn :
- Accurate determination, Accurate heat transfer data, Alloy, Aluminium alloy, Aluminum alloys, Cavity surface, Coefficient, Critical consideration, Dargusch, Data point, Dour, Engineering materials, Fine thermocouples, Heat flow, Heat flux, Heat flux density, Heat mass transfer, Heat transfer, Heat transfer coefficient, Heat transfer coefficient gauge, Heat transfer data, Heat transfer measurements, Heat transfer sensor, High pressure, High pressure die casting, Instrumentation, Intensification pressure, Interfacial heat transfer coefficient, Inverse model, Latent heat, Light alloys, Magnesium, Magnesium alloy, Magnesium alloys, Measurement method, Modelling, Molten metal, Nominal intensification pressure, Numerical simulation, Numerical simulation techniques, Paul sabatier, Peak heat flux densities, Peak value, Piston velocity, Present work, Pressure die casting, Pressure sensors, Pyrometric chain, Pyrometry, Rapid response time, Second stage piston velocity, Sensor, Shot speed, Solidification, Solidification modelling, Sound knowledge, Surface temperature, Tahar loulou, Temperature measurement, Temperature measurements, Thermocouple, Thermocouple arrays, Transition metal, Verlag gmbh.
- Teeft :
- Accurate determination, Accurate heat transfer data, Alloy, Aluminium alloy, Aluminum alloys, Cavity surface, Coefficient, Critical consideration, Dargusch, Data point, Dour, Engineering materials, Fine thermocouples, Heat flow, Heat flux, Heat flux density, Heat mass transfer, Heat transfer, Heat transfer coefficient, Heat transfer coefficient gauge, Heat transfer data, Heat transfer measurements, Heat transfer sensor, High pressure, Intensification pressure, Interfacial heat transfer coefficient, Inverse model, Latent heat, Light alloys, Magnesium, Magnesium alloy, Magnesium alloys, Modelling, Molten metal, Nominal intensification pressure, Numerical simulation, Numerical simulation techniques, Paul sabatier, Peak heat flux densities, Peak value, Piston velocity, Present work, Pressure sensors, Pyrometric chain, Rapid response time, Second stage piston velocity, Sensor, Shot speed, Solidification, Solidification modelling, Sound knowledge, Surface temperature, Tahar loulou, Temperature measurements, Thermocouple, Thermocouple arrays, Verlag gmbh.
Abstract
This paper describes the application of a new in‐cavity thermal measurement method to determine the interfacial heat transfer coefficient during high pressure die casting of aluminium A380 alloy and the magnesium alloy AZ91D. These measurements enabled the accurate determination of heat flux densities and interfacial heat transfer coefficients and the rapid evolution of these values with time during high pressure die casting of these alloys.
Url:
DOI: 10.1002/adem.200700189
Affiliations:
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Le document en format XML
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<term>Aluminum alloys</term>
<term>Cavity surface</term>
<term>Coefficient</term>
<term>Critical consideration</term>
<term>Dargusch</term>
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<term>Dour</term>
<term>Engineering materials</term>
<term>Fine thermocouples</term>
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<term>Heat flux density</term>
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<term>Heat transfer sensor</term>
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<term>High pressure die casting</term>
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<term>Intensification pressure</term>
<term>Interfacial heat transfer coefficient</term>
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<term>Latent heat</term>
<term>Light alloys</term>
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<term>Magnesium alloys</term>
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<term>Modelling</term>
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<term>Nominal intensification pressure</term>
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<term>Numerical simulation techniques</term>
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<term>Peak heat flux densities</term>
<term>Peak value</term>
<term>Piston velocity</term>
<term>Present work</term>
<term>Pressure die casting</term>
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<term>Mesure température</term>
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<term>Méthode mesure</term>
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<term>Engineering materials</term>
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<term>Light alloys</term>
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<term>Solidification modelling</term>
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<front><div type="abstract" xml:lang="en">This paper describes the application of a new in‐cavity thermal measurement method to determine the interfacial heat transfer coefficient during high pressure die casting of aluminium A380 alloy and the magnesium alloy AZ91D. These measurements enabled the accurate determination of heat flux densities and interfacial heat transfer coefficients and the rapid evolution of these values with time during high pressure die casting of these alloys.</div>
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