Modern Impact and Penetration Mechanics

List of contents

1. Introduction; 2. Conservation laws and the Hugoniot jump conditions; 3. The behavior of solids; 4. Mechanical waves, shocks, and rarefactions; 5. Elastic-plastic deformation and shocks; 6. The cavity expansion; 7. Penetration; 8. The Tate-Alekseevskii model; 9. The crater and ejecta; 10. The Walker-Anderson model; 11. Finite targets; 12. Nondeforming (rigid) impactors; 13. Yarns, fabrics, and fiber-based composites; 14. Rotation, stretch, and finite elasticity

About the author

James D. Walker is the Director and an acting Institute Scientist in the Engineering Dynamics Department in the Mechanical Engineering Division at the Southwest Research Institute in San Antonio, Texas, and has worked in impact mechanics for over 30 years. He received the ASME Holley Medal for exceptional engineering in the public good for his work in the space shuttle Columbia accident investigation. He is a Fellow of AIAA, ASME, and the International Ballistics Society.

Summary

This indispensable graduate reference details the mechanics and material models used to understand and predict extreme dynamic events. Topics include continuum mechanics, plasticity, damage, failure, shocks, waves, and high-pressure and high-rate response of materials. These tools are then applied to a variety of impact and penetration problems.

Product details

• Authors: Walker James Walker, James Walker, James (Southwest Research Institute Walker, James D. Walker, James D. (Southwest Research Institute Walker
• Publisher: Cambridge University Press ELT
• Languages: English
• Product format: Hardback
• Released: 30.11.2020
• EAN: 9781108497107
• ISBN: 978-1-108-49710-7
• No. of pages: 694
• Subjects: Natural sciences, medicine, IT, technology > Natural sciences (general); TECHNOLOGY & ENGINEERING / Mechanical, SCIENCE / Mechanics / Fluids, TECHNOLOGY & ENGINEERING / Engineering (General), LAW / Environmental, SCIENCE / Waves & Wave Mechanics, SCIENCE / Mechanics / Solids, Fluid mechanics, Mechanics of solids, Engineering: general, Wave mechanics (vibration & acoustics), Nature conservation law, Physics: Fluid mechanics, Wave mechanics (vibration and acoustics), Engineering: Mechanics of solids