Fatigue Crack Monitoring Method Based on the Lamb Wave Damage Index. [PDF]
He M, Dong C, Sun X, He J.
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Next generation fatigue crack growth experiments of aerospace materials. [PDF]
Strohmann T +5 more
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Enhanced Fatigue Crack Detection in Complex Structure with Large Cutout Using Nonlinear Lamb Wave. [PDF]
Zhang S, Liu Y, Yuan S.
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Computer Vision and Augmented Reality for Human-Centered Fatigue Crack Inspection. [PDF]
Mojidra R +5 more
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Modeling hydrogen-assisted fatigue crack growth in low-carbon steel focusing on thermally activated hydrogen-dislocation interaction. [PDF]
Takakuwa O, Ogawa Y.
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On Cyclic-Fatigue Crack Growth in Carbon-Fibre-Reinforced Epoxy-Polymer Composites. [PDF]
Michel S, Murphy N, Kinloch AJ, Jones R.
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Effect of Low Temperature on the Fatigue Crack Propagation Behavior of Underwater Manned Vehicle Rudder Materials in Arctic Environments. [PDF]
Guo W +7 more
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Modelling Fatigue Crack Growth in High-Density Polyethylene and Acrylonitrile Butadiene Styrene Polymers. [PDF]
Jones R, Kinloch AJ, Ang ASM.
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A Model to Account for the Effects of Load Ratio and Hydrogen Pressure on the Fatigue Crack Growth Behavior of Pressure Vessel Steels. [PDF]
Saxena A, Findley KO.
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Numerical Fatigue Crack Growth on Compact Tension Specimens under Mode I and Mixed-Mode (I+II) Loading. [PDF]
Martins RF, Xavier J, Caldeira J.
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