Mechanical Properties and Thermal Stability of Nanostructured Al/Al12(Fe,V)3Si Alloys Produced by Powder Metallurgy
Source abstract
Abstract
The present paper deals with the properties of bulk nanostructured Al-Fe-V-Si alloys containing 16, 27, and 37 vol.% of Al12(Fe,V)3Si precipitates. The elemental powders were subjected to high-energy ball milling for 60 h followed by hot-pressing in a uniaxial die at 550 °C under 300 MPa. Mechanical properties of consolidated samples were evaluated by hardness, room temperature, and high temperature compression tests and compared with those of rapid solidification-powder metallurgy (RS-PM) counterparts and also those available for conventional and high temperature Al alloys. The results showed that the nanostructured alloy containing Al12(Fe,V)3Si precipitates has good thermal stability at high temperatures. Room temperature compression tests demonstrated that the strength increases and the ductility decreases with increasing the volume percentage of Al12(Fe,V)3Si precipitates. The room temperature yield strength of nanostructured alloys was in the range of 560-758 MPa depending on Al12(Fe,V)3Si content. These values are much higher than those for RS-PM counterparts. In addition, nanostructured Al-Al12(Fe,V)3Si alloys exhibited better strength at elevated temperatures compared with other Al alloys.
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Research context
OpenAlex topics: Aluminum Alloys Composites Properties · Microstructure and mechanical properties · Aluminum Alloy Microstructure Properties
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References (47)
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