The authors regret the following errors which appeared in the above article. Explanation of the errors and related corrections are below. The SPC parameter for ECAP with a 90 β’ die followed by compression in x direction has been reported to be -β 3/2 by Li. But in the text it is wrongly mentioned th
Flow properties of commercial purity aluminum processed by equal channel angular pressing
β Scribed by A. Sivaraman; Uday Chakkingal
- Publisher
- Elsevier Science
- Year
- 2008
- Tongue
- English
- Weight
- 884 KB
- Volume
- 487
- Category
- Article
- ISSN
- 0921-5093
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β¦ Synopsis
In this study the flow properties after equal channel angular pressing (ECAP) were investigated using commercial purity aluminum. Commercial purity aluminum samples were subjected to ECAP for up to four passes with a die angle of 90 β’ using two different processing routes. Compression testing was used to determine the subsequent flow behavior. Two types of compression test specimens; one parallel to the axis of ECAP and the other at 45 β’ to the axis of ECAP were machined from specimens subjected to different passes as well as different processing routes. Anisotropy in flow stress was observed for the ECAP processed specimens. Strain path change parameter was used to quantify the strain path change for this study. From the results higher flow strength values were observed in specimen compressed at 45 β’ to axis of ECA pressed specimens. It was observed that mechanical properties after ECAP depend upon the strain path used in subsequent deformation.
π SIMILAR VOLUMES
Experiments were conducted on two commercial aluminum alloys, Al-6061 and Al-7034, to evaluate the development of any plastic anisotropy during processing by equal-channel angular pressing (ECAP). After pressing through various numbers of passes, compression tests were conducted at room temperature
Formability of aluminum alloys poses a major challenge for their wider application in automotive sheet metal components as the deep drawability of aluminum is low when compared to steel. This is indicated by the low limiting drawability ratio (LDR) of aluminum sheet blanks which is characterized by