Failure Criteria in Fibre-Reinforced-Polymer Composites
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Table of contents
- Contentsix
- Prefacev
- About the editorsvii
- Section 1: The World-Wide Failure Exercise: Its Origin, Concept And Content1
- Chapter 1.1 The world-wide failure exercise: Its origin, concept and content2
- Section 2: Test Cases, Lamina Data and Experimental Results Under Biaxial Loads29
- Chapter 2.1 Lamina properties, lay-up configurations and loading conditions for a range of fibre rei30
- Chapter 2.2 Biaxial test results for strength and deformation of a range of E-glass and carbon fibre52
- Section 3: Description of the Individual Failure Theories by their Originators97
- Chapter 3.1 Prediction of composite laminate fracture: Micromechanics and progressive fracture98
- Chapter 3.2 Failure criteria for use in the design environment121
- Chapter 3.3 Stress-based Grant–Sanders method for predicting failure of composite laminates140
- Chapter 3.4 Predicting transverse crack formation in cross-ply laminates157
- Chapter 3.5 Predictions of the original and truncated maximum-strain failure models for certain fibr179
- Chapter 3.6 Predictions of a generalized maximum-shear-stress failure criterion for certain fibrous219
- Chapter 3.7 Failure analysis of FRP laminates by means of physically based phenomenological models264
- Chapter 3.8 Prediction of laminate failure with the Rotem failure criterion298
- Chapter 3.9 Prediction of failure envelopes and stress/strain behavior of composite laminates316
- Chapter 3.10 A progressive quadratic failure criterion for a laminate334
- Chapter 3.11 A strain-energy based failure criterion for non-linear analysis of composite laminates353
- Chapter 3.12 The strength of multilayered composites under a plane-stress state379
- Chapter 3.13 Predicting the nonlinear response and progressive failure of composite laminates402
- Chapter 3.14 The predictive capability of failure mode concept-based strength criteria for multidire429
- Chapter 3.15 Composite laminate failure analysis using multicontinuum theory490
- Chapter 3.16 A bridging model prediction of the ultimate strength of composite laminates subjected t518
- Chapter 3.17 Expanding the capabilities of the Ten-Percent Rule for predicting the strength of fibre597
- Section 4: A Comparative Study of Failure Theories and Predictions for Fibre Polymer Composite Lamin643
- Chapter 4.1 A comparative study of failure theories and predictions for fibre polymer composite lami644
- Section 5: Comparison Between the Individual Theoretical Predictions and Experimental Results702
- Chapter 5.1 Application of progressive fracture analysis for predicting failure envelopes and stress703
- Chapter 5.2 Failure criteria for use in the design environment726
- Chapter 5.3 A comparison of theory and experiment for the stress-based Grant-Sanders method739
- Chapter 5.4 Comparison between theories and test data concerning the strength of various fibre-polym770
- Chapter 5.5 Prediction of ply crack formation and failure in laminates810
- Chapter 5.6 Failure analysis of FRP laminates by means of physically based phenomenological models832
- Chapter 5.7 The Rotem failure criterion: Theory and practice877
- Chapter 5.8 The prediction of failure envelopes and stress/strain behavior of composite laminates: C890
- Chapter 5.9 A progressive quadratic failure criterion, part B903
- Chapter 5.10 A strain-energy-based non-linear failure criterion: Comparison of numerical predictions922
- Chapter 5.11 A coupled analysis of experimental and theoretical results on the deformation and failu943
- Chapter 5.12 Predicting the nonlinear response and failure of composite laminates: Correlation with961
- Chapter 5.13 The predictive capability of failure mode concept-based strength criteria for multi-dir976
- Chapter 5.14 A comparison of multicontinuum theory based failure simulation with experimental result1026
- Chapter 5.15 Correlation of the bridging model predictions of the biaxial failure strengths of fibro1045
- Section 6: Predictive Capabilities of Nineteen Failure Theories and Design Methodologies for Polymer1072
- Chapter 6.1 Predictive capabilities of nineteen failure theories and design methodologies for polyme1073
- Section 7: Recommendations for Designers and Researchers Resulting from the World-Wide Failure Exerc1222
- Chapter 7.1 Recommendations for designers and researchers resulting from the world-wide failure exer1223
- Author Index1253
Fiber reinforced polymer composites are an extremely broad and versatile class of material.Their high strength coupled with lightweight leads to their use wherever structural efficiency is at a premium. Applications can be found in aircraft, process plants, sporting goods and military equipment.
However they are heterogeneous in construction and antisotropic, which makes making strength prediction extremely difficult especially compared to that of a metal.
This book brings together the results of a 12year worldwide failure exercise encompassing 19 theories in a single volume. Each contributor describes their own theory and employs it to solve 14 challenging problems. The accuracy of predictions and the performance of the theories are assessed and recommendations made on the uses of the theories in engineering design.
All the necessary information is provided for the methodology to be readily employed for validating and benchmarking new theories as they emerge.
Brings together 19 failure theories, with many application examples.
Compares the leading failure theories with one another and with experimental data
Failure to apply these theories could result in potentially unsafe designs or over design.
However they are heterogeneous in construction and antisotropic, which makes making strength prediction extremely difficult especially compared to that of a metal.
This book brings together the results of a 12year worldwide failure exercise encompassing 19 theories in a single volume. Each contributor describes their own theory and employs it to solve 14 challenging problems. The accuracy of predictions and the performance of the theories are assessed and recommendations made on the uses of the theories in engineering design.
All the necessary information is provided for the methodology to be readily employed for validating and benchmarking new theories as they emerge.
Brings together 19 failure theories, with many application examples.
Compares the leading failure theories with one another and with experimental data
Failure to apply these theories could result in potentially unsafe designs or over design.