Experimental confirmation of physical metal penetration generation and press casting production considering molten metal's pressure control

This paper presents a technique for controlling the pressure of a molten metal when using a new type of iron casting method called sand mold press casting to realize high productivity and obtain high-quality products. The past test results using this method showed a casting yield of 90% to 95%, whil...

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Main Authors: Ryosuke Tasaki, Yoshiyuki Noda, Kunihiro Hashimoto
Format: Article
Language:English
Published: Foundry Journal Agency 2012-02-01
Series:China Foundry
Subjects:
Online Access:http://www.foundryworld.com/uploadfile/2012031347885293.pdf
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spelling doaj-5a3196da7022403286f1b2232219c66b2020-11-25T00:20:15ZengFoundry Journal AgencyChina Foundry1672-64212012-02-01918490Experimental confirmation of physical metal penetration generation and press casting production considering molten metal's pressure control Ryosuke TasakiYoshiyuki NodaKunihiro HashimotoThis paper presents a technique for controlling the pressure of a molten metal when using a new type of iron casting method called sand mold press casting to realize high productivity and obtain high-quality products. The past test results using this method showed a casting yield of 90% to 95%, while conventional methods only show a casting yield of 60% to 70%. Although the press casting method does not require a sprue cup or runner channel casting defects such as metal penetration are often caused by the high pressure in the high-velocity pressing part of this casting process. Therefore, we proposed a pressure control method with a mathematical model of molten metal pressure, and with it we achieved experimental confirmation of the successful production of brake drums at different pressing temperatures. Results show that the proposed pressing control method can realize sound, penetration-free casting production. However, the theoretical analysis and design of this pressing process had not previously been studied sufficiently, and therefore this paper presents the theoretical design algorithm for the process as well as its experimental confirmation. http://www.foundryworld.com/uploadfile/2012031347885293.pdfpress castingpressure controlmetal penetrationsand mould
collection DOAJ
language English
format Article
sources DOAJ
author Ryosuke Tasaki
Yoshiyuki Noda
Kunihiro Hashimoto
spellingShingle Ryosuke Tasaki
Yoshiyuki Noda
Kunihiro Hashimoto
Experimental confirmation of physical metal penetration generation and press casting production considering molten metal's pressure control
China Foundry
press casting
pressure control
metal penetration
sand mould
author_facet Ryosuke Tasaki
Yoshiyuki Noda
Kunihiro Hashimoto
author_sort Ryosuke Tasaki
title Experimental confirmation of physical metal penetration generation and press casting production considering molten metal's pressure control
title_short Experimental confirmation of physical metal penetration generation and press casting production considering molten metal's pressure control
title_full Experimental confirmation of physical metal penetration generation and press casting production considering molten metal's pressure control
title_fullStr Experimental confirmation of physical metal penetration generation and press casting production considering molten metal's pressure control
title_full_unstemmed Experimental confirmation of physical metal penetration generation and press casting production considering molten metal's pressure control
title_sort experimental confirmation of physical metal penetration generation and press casting production considering molten metal's pressure control
publisher Foundry Journal Agency
series China Foundry
issn 1672-6421
publishDate 2012-02-01
description This paper presents a technique for controlling the pressure of a molten metal when using a new type of iron casting method called sand mold press casting to realize high productivity and obtain high-quality products. The past test results using this method showed a casting yield of 90% to 95%, while conventional methods only show a casting yield of 60% to 70%. Although the press casting method does not require a sprue cup or runner channel casting defects such as metal penetration are often caused by the high pressure in the high-velocity pressing part of this casting process. Therefore, we proposed a pressure control method with a mathematical model of molten metal pressure, and with it we achieved experimental confirmation of the successful production of brake drums at different pressing temperatures. Results show that the proposed pressing control method can realize sound, penetration-free casting production. However, the theoretical analysis and design of this pressing process had not previously been studied sufficiently, and therefore this paper presents the theoretical design algorithm for the process as well as its experimental confirmation.
topic press casting
pressure control
metal penetration
sand mould
url http://www.foundryworld.com/uploadfile/2012031347885293.pdf
work_keys_str_mv AT ryosuketasaki experimentalconfirmationofphysicalmetalpenetrationgenerationandpresscastingproductionconsideringmoltenmetalspressurecontrol
AT yoshiyukinoda experimentalconfirmationofphysicalmetalpenetrationgenerationandpresscastingproductionconsideringmoltenmetalspressurecontrol
AT kunihirohashimoto experimentalconfirmationofphysicalmetalpenetrationgenerationandpresscastingproductionconsideringmoltenmetalspressurecontrol
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