[2] OTHMANI C,ZHANG H.Lamb wave propagation in anisotropic multilayered piezoelectric laminates made of PVDF-θ°with initial stresses[J].Composite Structures,2020,240:112085.
[3] LIM H J,SOHN H.Online stress monitoring technique based on Lamb-wave measurements and a convolutional neural network under static and dynamic loadings[J].Experimental Mechanics,2020,60(2):171-179.
[4] LI Zuohua,WANG Yingzhu,ZHENG Junchao,et al.Stress measurement for steel slender waveguides based on the nonlinear relation between guided wave group velocity and stress[J].Measurement,2021,179:109465.
[5] SHI Weijia,LI Jiaxin,ZHAO Bo,et al.An online stress monitoring strategy based on Wigner-Ville time-frequency energy extraction of single-frequency dual mode Lamb waves[J].Measurement,2022,200:111600.
[6] ZHANG Yuhua,LI Xinxin,WANG Xianghong,et al.Feasibility of residual stress nondestructive estimation using the nonlinear property of critical refraction longitudinal wave[J].Advances in Materials Science and Engineering,2017,2017:1-11.
[10] YAN Hongjuan,LIU Fengbin,PAN Qinxue.Nonlinear ultrasonic properties of stress in 2024 aluminum[C]// Switzerland:Trans Tech Publications Ltd,2017:371-377.
[11] HU Hongwei,ZOU Zhicheng,JIANG Youbao,et al.Finite element simulation and experimental study of residual stress testing using nonlinear ultrasonic surface wave technique[J].Applied Acoustics,2019,154:11-17.
[13] YANG Y,NG C T,KOTOUSOV A.Second-order harmonic generation of Lamb wave in prestressed plates[J].Journal of Sound and Vibration,2019,460:114903.
[16] ZHU Wujun,XIANG Yanxun,LIU Changjun,et al.Fatigue damage evaluation using nonlinear Lamb waves with quasi phase-velocity matching at low frequency[J].Materials,2018,11(10):1920.