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Physics and Mechanics of Material Behaviour - 4PMMPMC4

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  • Number of hours

    • Lectures : 20.0
    • Tutorials : 20.0
    • Laboratory works : 16.0
    • Projects : 0
    • Internship : 0
    ECTS : 4.0


  • To understand the properties of crystalline defects (in particular dislocations) responsible for plastic deformation of structural materials
  • To know the relationship between the microstructure of a material and its mechanical properties (yield limit, plasticity)
  • To understand the physical mechanisms that control the constitutive equations for the plasticity of structural materials at room temperature and a high temperature
  • To feel comfortable with the tools of continuum mechanics
  • To know the formalism of basic constitutive equations used to model the mechanical behavior of materials
  • To discover the potentialities of industrial codes dedicated to the simulation of forming processes
Contact Didier BOUVARD


Course and controled work
Part 1 :

  • Crystalline defects: nature and properties
  • Yield limit : quantitative link with the microstructure
  • Thermal activation of plastic deformation
  • Room temperature plasticity: physics of constitutive equations
  • High temperature plasticity: physics of constitutive equations

Part 2:

  • Continuum mechanics: stress and strain tensors, constitutive equations
  • Elasticity : Hooke’s law, thin films
  • Plasticity : criteria, isotropic and kinematic hardening, Hill Principle, associated flow law
  • Viscoplasticity : strain-rate hardening, creep, Norton’s law, dissipation potential, Odqvist’s law

Practical work
Simulation of a forming process with an industrial finite element code (Ansys, Forge2, Forge3). Emphasis is put on constitutive equations presented during the course (plasticity, viscoplasticity)



Written examination : 3 h
Proceedings of practical work.
Documents authorized.

La note du cours est la moyenne de la note obtenue au DS et de celle octroyée à l'issue des BE.

Additional Information

Curriculum->SIM->Semester 8


Introduction to dislocations, D. Hull and D.J. Bacon, Butterworth – Heinemann
The plastic deformation of metals, R.W.K. Honeycombe, Edward Arnold
Fundamentals of creep and alloys, M.E. Kassner, Elsevier
Thermally activated mechanisms in crystal plasticity, D. Caillard and J.L. Martin, Pergamon
Mécanique des matériaux solides, J.L. Lemaitre et J.L. Chaboche, Dunod
Comportement mécanique des matériaux, Vol. 1, Élasticité et plasticité, D. François, A. Pineau, A. Zaoui, Hermès-Lavoisier

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Université Grenoble Alpes