Fracture and SocietyAn historical account of experts who have developed the science and technology of the fracture of many kinds of solids. These range from natural materials, such as rock and woods, to artificial structural materials such as those used in space transport. |
Contents
Introduction | 1 |
How Did Men First Investigate the Science of Metal Fatigue | 4 |
Galileos Rhetoric And His Absolute Resistance to Fracture | 33 |
References | 61 |
References | 109 |
References | 156 |
167 | |
Alan Arnold Griffith an Aeronautical Engineer Who Founded | 197 |
How Has the Mechanics of Material Fracture Advanced as | 255 |
How Was Fractology Formed And Advanced? Part | 285 |
How Was Fractology Formed And Advanced? Part | 288 |
Temperatures | 305 |
Epilogue | 373 |
A Chronological Table of Study on Strength And Fracture | 379 |
385 | |
About the Author | 399 |
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Common terms and phrases
Arsenale di Venezia atomic beam bending brittle century concept Coulomb crack initiation crack propagation crack tip creep rupture crystal dislocation damage deformation density distribution elastic stress energy equation Ewing experimental factor failure fatigue crack fatigue limit fatigue testing force Fracture Mechanics fracture of materials fracture strength Galileo Griffith Henry Dyer high-temperature hysteresis iron J-integral Japan Society Kyoto lattice Leonardo Linear Elastic load material fatigue material fracture Mechanical Engineers metal fatigue meters microcracks notch root number of cycles occurs Ohnami paper particle permission physical physicist plastic professor railway axles Reprinted from Ref science and technology scientific scientist Section shear stress shown in Fig Society of Mechanical specimen steel strain strength and fracture strength of materials structure surface temperature tensile tensile stress tensor testing machine theory tion Tokyo in Japanese torsion torsion tensor University University of Tokyo vector Weibull Wöhler wrote X-ray