Greener manufacturing : superplastic-like forming

Conventional superplastic forming (SPF) is normally conducted at a slow forming rate (10−3 s−1 or slower) and high temperatures (typically 773 K or higher for aluminum alloys), which is not attractive for wider applications. Recently, SPF has revived as an attractive process in the automotive and ae...

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Main Authors: Jarfors, Anders E. W., Liu, Jun, Tan, Ming-Jen, Lim, Samuel Chao Voon, Fong, Kai-Soon, Castagne, Sylvie
Other Authors: School of Mechanical and Aerospace Engineering
Format: Article
Language:English
Published: 2013
Online Access:https://hdl.handle.net/10356/95857
http://hdl.handle.net/10220/11397
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Institution: Nanyang Technological University
Language: English
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spelling sg-ntu-dr.10356-958572020-03-07T13:22:16Z Greener manufacturing : superplastic-like forming Jarfors, Anders E. W. Liu, Jun Tan, Ming-Jen Lim, Samuel Chao Voon Fong, Kai-Soon Castagne, Sylvie School of Mechanical and Aerospace Engineering Conventional superplastic forming (SPF) is normally conducted at a slow forming rate (10−3 s−1 or slower) and high temperatures (typically 773 K or higher for aluminum alloys), which is not attractive for wider applications. Recently, SPF has revived as an attractive process in the automotive and aerospace industries, especially for forming of excellent precision, large, and complex-shaped work pieces. A hybrid superplastic forming process has exploited the usage of superplastic forming for faster times, lower temperatures, and also for use by non-superplastic materials by designing a process that combines stamping and gas blow forming in one operation to establish an energy-saving technology. With recent developments in these areas, the light-weight, yet inexpensive aluminum alloys are promising candidates for green manufacturing. In comparison with the conventional SPF process, the forming time has been shortened (typically from 30 min to 8 min), and the forming temperature has been lowered down (from 773 K to 673 K). Furthermore, as a greener manufacturing process, it uses the non-superplastic grade materials, which is more compatible with existing manufacturing processes with less material preparation time and expense cost. 2013-07-15T04:17:29Z 2019-12-06T19:22:24Z 2013-07-15T04:17:29Z 2019-12-06T19:22:24Z 2012 2012 Journal Article Liu, J., Tan, M. J., Jarfors, A. E. W., Lim, S. C. V., Fong, K. S., & Castagne, S. (2012). Greener manufacturing: Superplastic-like forming. Journal of Physics: Conference Series, 379, 012034. 1742-6596 https://hdl.handle.net/10356/95857 http://hdl.handle.net/10220/11397 10.1088/1742-6596/379/1/012034 en Journal of physics : conference series © 2012 IOP Publishing.
institution Nanyang Technological University
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description Conventional superplastic forming (SPF) is normally conducted at a slow forming rate (10−3 s−1 or slower) and high temperatures (typically 773 K or higher for aluminum alloys), which is not attractive for wider applications. Recently, SPF has revived as an attractive process in the automotive and aerospace industries, especially for forming of excellent precision, large, and complex-shaped work pieces. A hybrid superplastic forming process has exploited the usage of superplastic forming for faster times, lower temperatures, and also for use by non-superplastic materials by designing a process that combines stamping and gas blow forming in one operation to establish an energy-saving technology. With recent developments in these areas, the light-weight, yet inexpensive aluminum alloys are promising candidates for green manufacturing. In comparison with the conventional SPF process, the forming time has been shortened (typically from 30 min to 8 min), and the forming temperature has been lowered down (from 773 K to 673 K). Furthermore, as a greener manufacturing process, it uses the non-superplastic grade materials, which is more compatible with existing manufacturing processes with less material preparation time and expense cost.
author2 School of Mechanical and Aerospace Engineering
author_facet School of Mechanical and Aerospace Engineering
Jarfors, Anders E. W.
Liu, Jun
Tan, Ming-Jen
Lim, Samuel Chao Voon
Fong, Kai-Soon
Castagne, Sylvie
format Article
author Jarfors, Anders E. W.
Liu, Jun
Tan, Ming-Jen
Lim, Samuel Chao Voon
Fong, Kai-Soon
Castagne, Sylvie
spellingShingle Jarfors, Anders E. W.
Liu, Jun
Tan, Ming-Jen
Lim, Samuel Chao Voon
Fong, Kai-Soon
Castagne, Sylvie
Greener manufacturing : superplastic-like forming
author_sort Jarfors, Anders E. W.
title Greener manufacturing : superplastic-like forming
title_short Greener manufacturing : superplastic-like forming
title_full Greener manufacturing : superplastic-like forming
title_fullStr Greener manufacturing : superplastic-like forming
title_full_unstemmed Greener manufacturing : superplastic-like forming
title_sort greener manufacturing : superplastic-like forming
publishDate 2013
url https://hdl.handle.net/10356/95857
http://hdl.handle.net/10220/11397
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