因科镍钴铜多金属层状复合材料中辐射诱导的缺陷形成动力学

Rajesh Ramesh, K. Momeni
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引用次数: 0

摘要

本研究利用分子动力学模拟研究了因科镍钴铜多金属层状复合材料(MMLC)在核反应堆应用中的稳定性。重点是了解先进核反应堆用多金属层状复合材料特性的基本机制,特别是铬镍铁合金和铜合金界面的机械化学性质。选择 Inconel-Cu MMLCs 的主要原因是铜具有优异的导热性,可通过防止出现热点和确保温度分布均匀来加强反应堆内的热管理。本研究对 Incoloy 800H 和两种 Inconel 变体(718 和 625)进行了研究,评估了它们在 1000 K 温度下暴露于 10 keV 碰撞级联(最高达 0.12 dpa)后的稳定性。值得注意的发现包括铬镍铁合金和铜的{1 2 0}系列平面上的缺陷集群,以及铬镍铁合金一侧的堆叠断层和 Lomer-Cottrell 锁。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Radiation-Induced Defect Formation Kinetics in Inconel–Cu Multimetallic Layered Composites
This study investigates the stability of Inconel–Cu Multimetallic Layered Composites (MMLCs) in nuclear reactor applications using Molecular Dynamics simulations. The focus is on understanding the underlying mechanisms governing the properties of MMLCs for advanced nuclear reactors, specifically, the mechanochemistry of the interface between Inconel and copper alloys. The selection of Inconel–Cu MMLCs is primarily due to copper’s superior thermal conductivity, enhancing heat management within reactors by preventing hotspots and ensuring uniform temperature distribution. This research examines Incoloy 800H and two Inconel variants (718 and 625), assessing their stability at 1000 K after exposure to 10 keV collision cascades up to 0.12 dpa. Notable findings include defect clustering on the {1 2 0} family of planes of Inconel and Cu, with Stacking Faults and Lomer–Cottrell locks on the Inconel side.
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