Modeling High Temperature Materials Behavior for Structural Analysis [electronic resource] : Part I: Continuum Mechanics Foundations and Constitutive Models / by Konstantin Naumenko, Holm Altenbach.

By:

Naumenko, Konstantin [author.]

Contributor(s):

Series: Advanced Structured Materials ; 28Publisher: Cham : Springer International Publishing : Imprint: Springer, 2016Description: XIII, 371 p. 107 illus., 5 illus. in color. online resourceContent type:

text

Media type:

computer

Carrier type:

online resource

ISBN:

9783319316291

Subject(s):

Genre/Form:

Electronic books.

Additional physical formats: Printed edition:: No titleDDC classification:

620.1 23

LOC classification:

TA405-409.3
QA808.2

Online resources:

Click here to access online

Contents:

Introduction -- ContinuumMechanics in One Dimension -- Elementary Uni-Axial Constitutive Models -- Three-Dimensional ContinuumMechanics -- Constitutive Models -- Examples of Constitutive Equations for Various Materials -- Appendix: Basic Operations of Tensor Algebra -- Elements of Tensor Analysis.

In: Springer eBooksSummary: This monograph presents approaches to characterize inelastic behavior of materials and structures at high temperature. Starting from experimental observations, it discusses basic features of inelastic phenomena including creep, plasticity, relaxation, low cycle and thermal fatigue. The authors formulate constitutive equations to describe the inelastic response for the given states of stress and microstructure. They introduce evolution equations to capture hardening, recovery, softening, ageing and damage processes. Principles of continuum mechanics and thermodynamics are presented to provide a framework for the modeling materials behavior with the aim of structural analysis of high-temperature engineering components.

Item type:

eBooks

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This monograph presents approaches to characterize inelastic behavior of materials and structures at high temperature. Starting from experimental observations, it discusses basic features of inelastic phenomena including creep, plasticity, relaxation, low cycle and thermal fatigue. The authors formulate constitutive equations to describe the inelastic response for the given states of stress and microstructure. They introduce evolution equations to capture hardening, recovery, softening, ageing and damage processes. Principles of continuum mechanics and thermodynamics are presented to provide a framework for the modeling materials behavior with the aim of structural analysis of high-temperature engineering components.