Our systems are now restored following recent technical disruption, and we’re working hard to catch up on publishing. We apologise for the inconvenience caused. Find out more

Recommended product

Popular links

Popular links


Electronic Basis of the Strength of Materials

Electronic Basis of the Strength of Materials

Electronic Basis of the Strength of Materials

John J. Gilman, University of California, Los Angeles
September 2008
Available
Paperback
9780521078948

    Requiring knowledge of the chemistry and physics of materials, this study relates the complete set of strength characteristics of constituent atoms to their electronic structures. The book uses classical and quantum mechanics (since both are needed to describe these properties) and begins with short reviews of each area. After the reviews, the three major branches of the strength of materials are divided into the following sections: the elastic stiffnesses; the plastic responses; and the nature of fracture.

    • First ever book to relate the strength properties of a material to its electronic structure
    • Discusses both the physics and chemistry of materials

    Reviews & endorsements

    "...Gilman's book offers a one-of-a-kind contribution based on his lifetime of scholarship and his unique point of view. His contribution is our gain, and, for those interested in the field, Electronic Basis of the Strength of Materials is a worthy read." Physics Today

    See more reviews

    Product details

    September 2008
    Paperback
    9780521078948
    292 pages
    244 × 170 × 15 mm
    0.47kg
    10 b/w illus.
    Available

    Table of Contents

    • Part I. Introduction: Part II. Elements of Solid Mechanics:
    • 1. Nature of elastic stiffness
    • 2. Generalized stress
    • 3. Generalized strain
    • 4. Elastic coefficients
    • Part III. Elements of Electron Mechanics:
    • 5. Properties of electrons
    • 6. Quantum states
    • 7. Periodic patterns of electrons
    • 8. Heisenberg's Principle
    • Part IV. Elastic Stiffness:
    • 9. Cohesion of atoms
    • 10. Intramolecular cohesion
    • 11. Intermolecular cohesion
    • 12. Bulk modulus
    • 13. Shear moduli
    • 14. Entropic elasticity (polymers)
    • 15. Universality and unification
    • Part V. Plastic Strength:
    • 16. Macroscopic plastic deformation
    • 17. Microscopic plastic deformation
    • 18. Dislocation mobility
    • Part VI. Fracture Resistance:
    • 19. Mechanics of cracks
    • 20. Surface and interfacial energies
    • 21. Fracturing rates.
      Author
    • John J. Gilman , University of California, Los Angeles