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Stress Analysis for Creep - 1st Edition - ISBN: 9780408011723, 9781483101606

Stress Analysis for Creep

1st Edition

Authors: J.T. Boyle J. Spence
eBook ISBN: 9781483101606
Imprint: Butterworth-Heinemann
Published Date: 19th January 1983
Page Count: 294
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Stress Analysis for Creep focuses on methods on creep analysis. The book first ponders on the occurrence of creep in mechanical engineering components, including background to stress analysis for creep and general-purpose computer programs for creep analysis. The text presents a phenomenological description of creep. The phenomenon of creep, physical mechanisms of creep, convenient uniaxial constitutive relationships, and creep rupture are described. The book also explains simple component behavior, creep under multiaxial states of stress, and stress analysis for steady creep. The text focuses on reference stress methods in steady creep. Reference stresses for combined loading with a power law; non-isothermal power-law creep; reference temperatures; and approximate reference stress methods are elaborated. The text also focuses on stress analysis for transient creep; approximate solution of transient creep problems; and creep buckling and rupture. The text highlights the design for creep, including material data requirements and constitutive modeling for design; verification and qualification of stress analysis; and design methodology. The book is a good source of data for readers wanting to study creep analysis.

Table of Contents


1 Introduction

1.1 The Occurrence of Creep in Mechanical Engineering Components

1.1.1 Power Generation

1.1.2 Aircraft Gas-turbine Engines

1.1.3 Process Industries

1.2 Background to Stress Analysis for Creep

1.3 General-Purpose Computer Programs for Creep Analysis

2 A Phenomenological Description of Creep

2.1 The Phenomenon of Creep

2.2 The Physical Mechanisms of Creep

2.3 Convenient Uniaxial Constitutive Relationships

2.4 Creep Rupture

3 Simple Component Behavior

3.1 Example: Steady Creep of a Beam in Bending

3.2 Example: Steady Creep of a Non-uniformly Heated Structure

3.3 Example: Forward Creep of a Hinged Bar Structure

3.4 Example: Cyclic Creep of a Hinged Bar Structure

3.5 Example: Relaxation of a Beam in Bending

4 Creep under Multiaxial States of Stress

4.1 A Convenient Multiaxial Constitutive Relation

4.2 Further Generalizations

4.3 Example: Steady Creep of a Thick Cylinder

4.4 Example: Steady Creep of a Holed Plate under Uniform Tension

4.5 Example: Steady Creep in Membrane Shells

4.6 Example: Steady Creep of Thin Plates in Bending

4.7 The General Boundary Value Problem for Steady Creep

4.8 Example: Steady Creep of a Bar in Torsion

5 Stress Analysis for Steady Creep

5.1 Numerical Methods - Iteration

5.2 Example: Steady Creep of a Thin Tube under Bending and Internal Pressure

5.3 Example: Steady Creep of a Rotating Disc

5.4 Energy Methods

5.4.1 Notation

5.4.2 Basic Assumptions

5.4.3 Energy Theorems

5.4.4 Energy Bounds

5.4.5 Castigliano's Theorem

5.4.6 Displacement Bounds for the Special Case of a Power Law

5.4.7 Numerical Solution of Steady Creep Problems Using the Energy Theorems

5.5 Example: Steady Creep of a Cantilever Beam

5.6 Example: Steady Creep of an Annular Plate

5.7 Approximate Generalized Models for Power-law Creep

5.7.1 The Theorem of Nesting Surfaces

5.7.2 Example: A Statically Determinate Structure

5.7.3 Example: A Beam under Tension and Bending

5.7.4 Approximate Energy Functional for Thin Shells

5.8 Example: Steady Creep of a Curved Pipe under in-Plane Bending

6 Reference Stress Methods in Steady Creep

6.1 Existence of a Reference Stress for the Power Law

6.2 Reference Stresses for Combined Loading with a Power Law

6.3 Non-Isothermal Power-law Creep

6.4 Reference Temperatures

6.5 A Local Reference Stress Method

6.6 Approximate Reference Stress Methods

6.7 A General Local Reference Stress Method

6.8 Further Approximations

6.9 Summary

7 Stress Analysis for Transient Creep

7.1 Example: Forward Creep of a Pin-Jointed Framework

7.2 Example: Forward Creep of a Thin Tube in Bending

7.3 The General Equations of Stress Redistribution

7.3.1 The Boundary Value Problem for Transient Creep

7.3.2 Derivation of an Initial Value Problem for Constant Loads

7.3.3 General Form of the Equation of Stress Redistribution

7.3.4 Use of More Accurate Constitutive Relations

7.3.5 An Initial Value Problem for Inelastic Strain

7.3.6 Discussion

7.4 Numerical Solution of Initial Value Problems

7.4.1 An Example - Euler's Method

7.4.2 Improved Computational Methods

7.4.3 Stiff Equations

7.4.4 Example: Forward Creep of a Non-uniformly Heated Structure

7.4.5 Conclusions

7.5 Example: Creep of a Pressurized Thick Sphere with a Radial Temperature Gradient

7.6 Numerical Solution of Transient Creep Problems Using the Finite Element Method

7.6.1 Explicit Euler Algorithm

7.6.2 Implicit Euler Algorithm

8 Approximate Solution of Transient Creep Problems

8.1 Constant Load-isothermal Creep

8.2 Some Examples

8.3 Constant Load-Non-Isothermal Creep

8.4 Variable Loading

8.5 Cyclic Loading

8.6 Some Examples

8.7 Further Developments

8.8 Constant Displacements - the Relaxation Problem

8.9 Some Examples

8.10 Generalized Models in Transient Creep

8.10.1 A Generalized Model for Beam Systems

8.10.2 A Generalized Model for Thin Shells

9 Creep Rupture

9.1 Constitutive Equations for Creep Rupture

9.1.1 Phenomenological Approach

9.1.2 Physical Approach

9.2 Multiaxial Constitutive Equations for Creep Rupture

9.3 Example: Creep Rupture of a Multi-Bar Structure

9.4 Continuum Damage Mechanics

9.4.1 Mathematical Formulation of Continuum Damage Mechanics

9.4.2 Numerical Solution of Problems in Continuum Damage Mechanics

9.5 Example: Creep Rupture of a Thick Cylinder

9.6 Estimation of Failure times in Deteriorating Structures

9.6.1 Example: Estimates of Lifetime for the Multi-bar Structure

9.6.2 Example: Estimates of Lifetime for a Thick Cylinder

9.6.3 Discussion

9.7 A Reference Stress for Rupture Time

10 Creep Buckling

10.1 Example: Creep Buckling of a Shallow Mises Truss

10.2 Example: Creep Buckling of an Asymmetric Arch

10.3 Creep in the Presence of Large Deformations

10.3.1 The Boundary Value Problem for Creep with Large Deformations

10.3.2 Critical States

10.3.3 Numerical Solution of Creep Problems with Finite Deformations

10.4 Creep Buckling of Thin-Walled Structures

11 Design for Creep

11.1 Material Data Requirements and Constitutive Modeling for Design

11.1.1 Sources and Presentation of Data

11.1.2 The Identification Problem

11.1.3 Correlation and Extrapolation of Data

11.2 Verification and Qualification of Stress Analysis

11.2.1 Creep of a Three-bar Structure

11.2.2 Creep of a Beam in Bending

11.2.3 Creep of a Thick, Pressurized Cylinder

11.2.4 Creep of a Rotating Disc

11.2.5 Creep of a Nozzle-Sphere Intersection

11.2.6 Creep and Relaxation of a Circular Plate under Prescribed Transverse Deflections

11.2.7 Creep Rupture of a Tension Plate Containing a Central Circular Hole

11.2.8 International Benchmark Project: the Oak Ridge Pipe Ratchetting Experiment

11.2.9 Discussion

11.3 Design Methodology

11.3.1 Design Criteria

11.3.2 The Nature of Design Codes

11.3.3 Creep-Fatigue Interaction



No. of pages:
© Butterworth-Heinemann 1983
19th January 1983
eBook ISBN:

About the Authors

J.T. Boyle

Affiliations and Expertise

Strathclyde University, Glasgow, UK

J. Spence

Jason R. Spence, PhD, is an Associate Professor of Internal Medicine, Cell and Developmental Biology and Biomedical Engineering at the University of Michigan Medical School. He attended Canisius College in Buffalo, NY, as an undergraduate. He attended graduate school at Miami University (Ohio) where his research focused on understanding mechanisms that drive regeneration and tissue repair in unique model organisms that maintain regenerative ability throughout life, including Notophthalmus viridescens (Eastern Newt), Ambystoma mexicanum (Axolotl) and the chick. He performed postdoctoral research Cincinnati Children’s Hospital, where he turned his focus to understanding mechanisms that regulate embryonic development of endoderm-derived tissue (pancreas, liver, intestine) and utilized human pluripotent stem cells (hPSCs) to understand human differentiation and development. During this time, he pioneered methods to differentiate 3-dimensional intestinal organoids from human pluripotent stem cells. In 2011, Dr. Spence joined the faculty of the University of Michigan Medical School. The focus of the Spence lab include using 3-dimensional organoid human models to study human development and disease, with research focused on understanding intestinal, lung and esophageal development, homeostasis and disease.

Affiliations and Expertise

Associate Professor of Internal Medicine, Cell and Developmental Biology and Biomedical Engineering, University of Michigan Medical School

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