位错-辐射障碍相互作用:发展改进的力学性能本构模型

B. Wirth, I. Robertson
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引用次数: 1

摘要

核反应堆环境对结构和包层材料(包括奥氏体不锈钢、铁素体钢和锆合金)的辐射损伤会导致严重的机械性能退化,包括屈服强度增加、严重的延性损失和流动局部化,从而影响可靠性和性能。正在考虑的第四代和先进燃料循环概念将需要开发先进的结构材料,这些材料将在日益恶劣的环境中运行。需要开发预测模型来评估材料在极端第四代反应堆运行条件下(温度、应力和压力)的性能和响应,以减少快速评估新材料性能并将其插入技术应用(第四代和先进燃料循环操作)的时间。
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Dislocation - radiation obstacle interactions : Developing improved mechanical property constitutive models
Radiation damage to structural and cladding materials, including austenitic stainless steels, ferritic steels, and zirconium alloys, in nuclear reactor environments results in significant mechanical property degradation, including yield strength increases, severe ductility losses and flow localization, which impacts reliability and performance. Generation IV and advanced fuel cycle concepts under consideration will require the development of advanced structural materials, which will operate in increasingly hostile environments. The development of predictive models is required to assess the performance and response of materials in extreme Gen IV reactor operating conditions (temperature, stress, and pressure), to decrease the time to rapidly assess the properties of new materials and insert them into technological applications (Gen IV and Advanced Fuel Cycle Operations).
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