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Subhashish Meher
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Proceedings Papers
AM-EPRI2024, Advances in Materials, Manufacturing, and Repair for Power Plants: Proceedings from the Tenth International Conference, 690-698, October 15–18, 2024,
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Friction Stir Layer Deposition on a Cu-containing high-entropy alloy (HEA) has been performed for its suitability of the core component of nuclear materials. Excellent irradiation resistance in this Cu-containing HEA has been reported previously. Friction stir layer deposition (FSLD) offers a solid-state deformation processing route to metal additive manufacturing, in which the feed material undergoes severe plastic deformation at elevated temperatures. Some of the key advantages of this process are fabrication of fully dense material with fine, equiaxed grain structures. This work reports the detailed microstructure of the FSLD product, and it discusses the grain refinement and micro-hardness variation observed in FSLD product.
Journal Articles
Journal: AM&P Technical Articles
AM&P Technical Articles (2019) 177 (4): 26–28.
Published: 01 May 2019
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Hot section components of next-generation energy systems call for superalloys that can handle the heat. This article describes some recent advances in superalloy research and development, including characterization and modeling tools that are key to developing and understanding the formation of new superalloys capable of withstanding extreme environments.