残余应力梯度分布的超声检测方法

Yuren Lu, Er-hong Li, Chunguang Xu, Xiao-hui Zhang, Xiaoxia Li
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引用次数: 0

摘要

构件内部残余应力的梯度分布是影响构件各方面性能的关键因素。利用超声临界折射纵波检测梯度残余应力的有效机理研究一直缺乏。本文研究了不同频率下临界折射纵波在固体中的传播,并从弹性波的角度分析和研究了临界折射纵波的声弹性效应。针对LCR中心频率与其传播深度之间的关系,建立了应力梯度检测的数学模型。通过仿真验证了声弹性理论和临界折射纵波理论基础的正确性。通过改变LCR波的中心频率,模拟了LCR波在不同频率下传播的能量深度。对尺度进行了验证,验证了残余应力梯度检测数学模型的正确性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Ultrasonic inspection method for residual stress gradient distribution
The gradient distribution of the residual stress inside the component is the key factor that affects the performance of all aspects of the component. There has been a lack of effective mechanism research in the use of ultrasonic critical refracted longitudinal waves to detect the gradient residual stress. This paper studies the propagation of critically refracted longitudinal waves in solids at different frequencies, and analyzes and studies the acoustoelastic effects of critically refracted longitudinal waves from the perspective of elastic waves. Aiming at the relationship between the center frequency of LCR and its propagation depth, a mathematical model of stress gradient detection is established. The correctness of the acoustic elasticity theory and the theoretical basis of critical refraction longitudinal wave is verified by simulation. The energy depth of LCR wave propagation at different frequencies is simulated by changing the center frequency of LCR wave. The scale was verified to verify the correctness of the mathematical model of residual stress gradient detection.
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