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020 a| 9781845696566;

020 a| 1845696565;

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050 00 a| TA455.P58b| C734 2011;

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245 00 a| Creep and fatigue in polymer matrix compositesh| [electronic resource] /c| edited by Rui Miranda Guedes.;

260 a| Cambridge, UK ;a| Philadelphia, PA :b| Woodhead Publishing,;

300 a| xv, 584 p. :b| ill. (some col.) ;c| 24 cm.;

490 1 a| Woodhead Publishing in materials;

504 a| Includes bibliographical references and index.;

505 0 a| Pt. I Viscoelastic and viscoplastic modeling -- 1.Viscoelastic constitutive modeling of creep and stress relaxation in polymers and polymer matrix composites / S. P. Zaoutsos -- 1.1.Introduction -- 1.2.Creep -- 1.3.Linearity -- 1.4.The time-temperature superposition principle (TTSP) -- 1.5.The time-stress superposition principle (TSSP) -- 1.6.The time-temperature-stress superposition principle (TTSSP) -- 1.7.Linear viscoelastic models -- 1.8.Nonlinear viscoelastic behavior -- 1.9.References -- 2.Time-temperature-age superposition principle for predicting long-term response of linear viscoelastic materials / E. J. Barbero -- 2.1.Correlation of short-term data -- 2.2.Time-temperature superposition -- 2.3.Time-age superposition -- 2.4.Effective time theory -- 2.5.Summary -- 2.6.Temperature compensation -- 2.7.Conclusions -- 2.8.References;

505 0 a| 3.Time-dependent behavior of active/intelligent polymer matrix composites incorporating piezoceramic fibers / A. Muliana -- 3.1.Introduction -- 3.2.Linearized time-dependent model for materials with electromechanical coupling -- 3.3.Simplified micromechanical model of homogenized active polymer matrix composites (PMCs) -- 3.4.FE models of representative volume elements (RVEs) of the active PMCs -- 3.5.Effective electromechanical and piezoelectric properties -- 3.6.Applications of active PMCs as actuators -- 3.7.Conclusions -- 3.8.Acknowledgement -- 3.9.References -- 4.Predicting the elastic-viscoplastic and creep behaviour of polymer matrix composites using the homogenization theory / N. Ohno -- 4.1.Introduction -- 4.2.Homogenization theory for non-linear time-dependent composites -- 4.3.Elastic-viscoplastic analysis of CFRP laminates and experimental verification -- 4.4.Elastic-viscoplastic analysis of plain-woven GFRP laminates and experimental verification;

505 0 a| 4.5.Creep analysis of unidirectional CFRP laminates at elevated temperature -- 4.6.Summary -- 4.7.References -- 5.Measuring fiber strain and creep behavior in polymer matrix composites using Raman spectroscopy / T. Miyake -- 5.1.Introduction: creep mechanism of composites reinforced unidirectionally with long fibers -- 5.2.Stress or strain measurement by Raman spectroscopy -- 5.3.Experiments on stress relaxation in broken fibers -- 5.4.Time-dependent variation in fiber stress during pull-out tests -- 5.5.Discussion -- 5.6.Summary -- 5.7.References -- 6.Predicting the viscoelastic behavior of polymer nanocomposites / C. C. Ibeh -- 6.1.Specific features of nanoparticles and nanocomposites -- 6.2.Viscoelasticity of polymer matrix -- 6.3.Viscoelasticity of polymers filled by quasi-spherical nanoparticles -- 6.4.Viscoelasticity of polymers filled by platelet-shape nanoparticles -- 6.5.Viscoelasticity of polymers filled by nanofibers;

505 0 a| 6.6.Viscoelasticity of polymers filled by buckyballs and nanotubes -- 6.7.Viscoelasticity of nanoporous polymers -- 6.8.Viscoelasticity of fibrous composites with nano-filled matrices -- 6.9.Concluding remarks -- 6.10.Notation -- 6.11.Acknowledgement -- 6.12.References -- 7.Constitutive modeling of viscoplastic deformation of polymer matrix composites / M. Kawai -- 7.1.Introduction -- 7.2.Framework for constitutive modeling of the viscoplastic deformation of anisotropic materials -- 7.3.Modeling of tension-compression asymmetry in initial anisotropy -- 7.4.Modeling of transient creep softening due to stress variation -- 7.5.Conclusions -- 7.6.Future trends -- 7.7.Acknowledgements -- 7.8.References -- 8.Creep analysis of polymer matrix composites using viscoplastic models / E. Kontou -- 8.1.Introduction -- 8.2.Viscoplastic creep modeling for polymer composites -- 8.3.Concluding remarks -- 8.4.Future trends -- 8.5.References;

505 0 a| 9.Micromechanical modeling of viscoelastic behavior of polymer matrix composites undergoing large deformations / J. Aboudi -- 9.1.Introduction -- 9.2.Finite strain viscoelasticity coupled with damage model of monolithic materials -- 9.3.Finite strain micromechanical analysis -- 9.4.Computational procedure -- 9.5.Applications -- 9.6.Conclusions -- 9.7.References -- pt. II Creep rupture -- 10.Fibre bundle models for creep rupture analysis of polymer matrix composites / F. Kun -- 10.1.Introduction -- 10.2.Fibre bundle model -- 10.3.Fibre bundle models for creep rupture -- 10.4.Summary and outlook -- 10.5.Acknowledgement -- 10.6.References -- 11.Micromechanical modeling of time-dependent failure in off-axis polymer matrix composites / J. Koyanagi -- 11.1.Introduction -- 11.2.Experiments -- 11.3.Finite element analysis -- 11.4.Discussion -- 11.5.Conclusion -- 11.6.Future trends -- 11.7.References;

505 0 a| 12.Time-dependent failure criteria for lifetime prediction of polymer matrix composite structures / R. M. Guedes -- 12.1.Introduction -- 12.2.Energy-based failure criteria -- 12.3.Creep rupture based on simple micromechanical models -- 12.4.Experimental cases -- 12.5.The Crochet model (time-dependent yielding model) -- 12.6.Kinetic rate theory -- 12.7.Fracture mechanics extended to viscoelastic materials -- 12.8.Continuum damage mechanics -- 12.9.Damage accumulation models for static (creep) and dynamic fatigue -- 12.10.Conclusions -- 12.11.References -- pt. III Fatigue modeling, characterization and monitoring -- 13.Testing the fatigue strength of fibers used in fiber-reinforced composites using fiber bundle tests / P. K. Mallick -- 13.1.Introduction -- 13.2.Determination of fiber strength distribution parameters -- 13.3.Fiber bundle model for fatigue -- 13.4.Stress-life diagram of fiber bundles -- 13.5.Conclusion -- 13.6.References;

505 0 a| 14.Continuum damage mechanical modeling of creep damage and fatigue in polymer matrix composites / F. Thiebaud -- 14.1.Introduction -- 14.2.Mesomodel: viscoelastic strain, damage and viscoplastic strain of a layer -- 14.3.From meso- to macroscopic behavior -- 14.4.Conclusion -- 14.5.References -- 15.Accelerated testing methodology for predicting long-term creep and fatigue in polymer matrix composites / M. Nakada -- 15.1.Introduction -- 15.2.Accelerated testing methodology -- 15.3.Experimental verification for ATM -- 15.4.Applicability of ATM -- 15.5.Theoretical verification of ATM -- 15.6.Future trends and research -- 15.7.Conclusions -- 15.8.References -- 16.Fatigue testing methods for polymer matrix composites / W. Van Paepegem -- 16.1.Introduction -- 16.2.Fatigue testing methods -- 16.3.Effect of boundary conditions and specimen geometry -- 16.4.Typical fatigue damage in structural composites -- 16.5.Future trends -- 16.6.Sources of further information and advice;

505 0 a| 16.7.References -- 17.The effect of viscoelasticity on fatigue behaviour of polymer matrix composites / J. A. Epaarachchi -- 17.1.Introduction -- 17.2.Linear viscoelastic analysis of the characteristics of viscoelastic materials under static and dynamic loading -- 17.3.Fatigue behaviour of composite materials -- 17.4.Concluding remarks -- 17.5.Acknowledgements -- 17.6.References -- 18.Characterization of vicoelasticity, viscoplasticity and damage in composites / J. Varna -- 18.1.Introduction -- 18.2.Material model -- 18.3.Microdamage effect on stiffness -- 18.4.Viscoplasticity -- 18.5.Nonlinear viscoelasticity -- 18.6.Conclusions -- 18.7.References -- 18.8.Appendix: time-dependence of VP-strain in a creep test -- 19.Structural health monitoring of composite structures for durability / S. Alampalli -- 19.1.Introduction -- 19.2.FRP structures in the bridge industry -- 19.3.Structural health monitoring -- 19.4.FRP structures and SHM -- 19.5.Case studies -- 19.6.Summary -- 19.7.References.;

506 a| Available only to authorized users.;

520 8 a| Annotationb| Creep is the tendency of materials to deform when subjected to long-term stress, particularly when exposed to heat. Fatigue phenomena occur when a material is subjected to cyclic loading, causing damage which may progress to failure. Both are critical factors in the long-term performance and reliability of materials such as polymer matrix composites, which are often exposed to these types of stresses in civil engineering and other applications. This important book reviews the latest research in modeling and predicting creep and fatigue in polymer matrix composites. The first part of the book reviews the modeling of viscoelastic and viscoplastic behavior as a way of predicting performance and service life. Part two discusses techniques for modeling creep rupture and failure. The final part of the book addresses ways of testing and predicting long-term creep and fatigue in polymer matrix composites --c| Source other than Library of Congress.;

538 a| Mode of access: World Wide Web;

650 0 a| Polymeric compositesx| Creepx| Mathematical models.=| ^A164796;

650 0 a| Polymeric compositesx| Fatiguex| Mathematical models.=| ^A164796;

655 0 a| Electronic books.=| ^A491897;

700 1 a| Guedes, Rui Miranda.?| UNAUTHORIZED;

830 0 a| Woodhead Publishing in materials.=| ^A870288;

856 40 z| Full text available from eBook - Materials Science 2011u| https://go.openathens.net/redirector/ecu.edu?url=http%3A%2F%2Fwww.sciencedirect.com%2Fscience%2Fbook%2F9781845696566;

947 a| (OCoLC)ocn666239706;

949 a| CLICK ON WEB ADDRESSw| ASISh| JOYNER188;

949 a| CLICK ON WEB ADDRESSw| ASISh| HSL77;

949 a| CLICK ON WEB ADDRESSw| ASISh| JMUSIC60;

596 a| 1 3 4;

998 a| 6590291;

999 a| CLICK ON WEB ADDRESSw| ASISc| 1i| 6590291-1001l| JNETm| JOYNERr| Ys| Yt| JNESSBKu| 7/17/2025x| EBOOKz| JERESOURCE;

999 a| CLICK ON WEB ADDRESSw| ASISc| 1i| 6590291-2001l| HSLELECm| HSLr| Ys| Yt| HEBKu| 7/17/2025x| EBOOKz| HERESOURCE;

999 a| CLICK ON WEB ADDRESSw| ASISc| 1i| 6590291-3001l| MNETm| JMUSICr| Ys| Yt| MNESSBKu| 7/17/2025x| EBOOKz| JERESOURCE;

Creep and fatigue in polymer matrix composites / edited by Rui Miranda Guedes.

Other author	Guedes, Rui Miranda.
Format	Electronic
Publication Info	Cambridge, UK ; Philadelphia, PA : Woodhead Publishing,
Description	xv, 584 p. : ill. (some col.) ; 24 cm.
Supplemental Content	Full text available from eBook - Materials Science 2011
Subjects	Polymeric composites--Creep. --Mathematical models. Polymeric composites--Fatigue. --Mathematical models.

Series	Woodhead Publishing in materials Woodhead Publishing in materials. ^A870288
Contents	Pt. I Viscoelastic and viscoplastic modeling -- 1.Viscoelastic constitutive modeling of creep and stress relaxation in polymers and polymer matrix composites / S. P. Zaoutsos -- 1.1.Introduction -- 1.2.Creep -- 1.3.Linearity -- 1.4.The time-temperature superposition principle (TTSP) -- 1.5.The time-stress superposition principle (TSSP) -- 1.6.The time-temperature-stress superposition principle (TTSSP) -- 1.7.Linear viscoelastic models -- 1.8.Nonlinear viscoelastic behavior -- 1.9.References -- 2.Time-temperature-age superposition principle for predicting long-term response of linear viscoelastic materials / E. J. Barbero -- 2.1.Correlation of short-term data -- 2.2.Time-temperature superposition -- 2.3.Time-age superposition -- 2.4.Effective time theory -- 2.5.Summary -- 2.6.Temperature compensation -- 2.7.Conclusions -- 2.8.References
Contents	3.Time-dependent behavior of active/intelligent polymer matrix composites incorporating piezoceramic fibers / A. Muliana -- 3.1.Introduction -- 3.2.Linearized time-dependent model for materials with electromechanical coupling -- 3.3.Simplified micromechanical model of homogenized active polymer matrix composites (PMCs) -- 3.4.FE models of representative volume elements (RVEs) of the active PMCs -- 3.5.Effective electromechanical and piezoelectric properties -- 3.6.Applications of active PMCs as actuators -- 3.7.Conclusions -- 3.8.Acknowledgement -- 3.9.References -- 4.Predicting the elastic-viscoplastic and creep behaviour of polymer matrix composites using the homogenization theory / N. Ohno -- 4.1.Introduction -- 4.2.Homogenization theory for non-linear time-dependent composites -- 4.3.Elastic-viscoplastic analysis of CFRP laminates and experimental verification -- 4.4.Elastic-viscoplastic analysis of plain-woven GFRP laminates and experimental verification
Contents	4.5.Creep analysis of unidirectional CFRP laminates at elevated temperature -- 4.6.Summary -- 4.7.References -- 5.Measuring fiber strain and creep behavior in polymer matrix composites using Raman spectroscopy / T. Miyake -- 5.1.Introduction: creep mechanism of composites reinforced unidirectionally with long fibers -- 5.2.Stress or strain measurement by Raman spectroscopy -- 5.3.Experiments on stress relaxation in broken fibers -- 5.4.Time-dependent variation in fiber stress during pull-out tests -- 5.5.Discussion -- 5.6.Summary -- 5.7.References -- 6.Predicting the viscoelastic behavior of polymer nanocomposites / C. C. Ibeh -- 6.1.Specific features of nanoparticles and nanocomposites -- 6.2.Viscoelasticity of polymer matrix -- 6.3.Viscoelasticity of polymers filled by quasi-spherical nanoparticles -- 6.4.Viscoelasticity of polymers filled by platelet-shape nanoparticles -- 6.5.Viscoelasticity of polymers filled by nanofibers
Contents	6.6.Viscoelasticity of polymers filled by buckyballs and nanotubes -- 6.7.Viscoelasticity of nanoporous polymers -- 6.8.Viscoelasticity of fibrous composites with nano-filled matrices -- 6.9.Concluding remarks -- 6.10.Notation -- 6.11.Acknowledgement -- 6.12.References -- 7.Constitutive modeling of viscoplastic deformation of polymer matrix composites / M. Kawai -- 7.1.Introduction -- 7.2.Framework for constitutive modeling of the viscoplastic deformation of anisotropic materials -- 7.3.Modeling of tension-compression asymmetry in initial anisotropy -- 7.4.Modeling of transient creep softening due to stress variation -- 7.5.Conclusions -- 7.6.Future trends -- 7.7.Acknowledgements -- 7.8.References -- 8.Creep analysis of polymer matrix composites using viscoplastic models / E. Kontou -- 8.1.Introduction -- 8.2.Viscoplastic creep modeling for polymer composites -- 8.3.Concluding remarks -- 8.4.Future trends -- 8.5.References
Contents	9.Micromechanical modeling of viscoelastic behavior of polymer matrix composites undergoing large deformations / J. Aboudi -- 9.1.Introduction -- 9.2.Finite strain viscoelasticity coupled with damage model of monolithic materials -- 9.3.Finite strain micromechanical analysis -- 9.4.Computational procedure -- 9.5.Applications -- 9.6.Conclusions -- 9.7.References -- pt. II Creep rupture -- 10.Fibre bundle models for creep rupture analysis of polymer matrix composites / F. Kun -- 10.1.Introduction -- 10.2.Fibre bundle model -- 10.3.Fibre bundle models for creep rupture -- 10.4.Summary and outlook -- 10.5.Acknowledgement -- 10.6.References -- 11.Micromechanical modeling of time-dependent failure in off-axis polymer matrix composites / J. Koyanagi -- 11.1.Introduction -- 11.2.Experiments -- 11.3.Finite element analysis -- 11.4.Discussion -- 11.5.Conclusion -- 11.6.Future trends -- 11.7.References
Contents	12.Time-dependent failure criteria for lifetime prediction of polymer matrix composite structures / R. M. Guedes -- 12.1.Introduction -- 12.2.Energy-based failure criteria -- 12.3.Creep rupture based on simple micromechanical models -- 12.4.Experimental cases -- 12.5.The Crochet model (time-dependent yielding model) -- 12.6.Kinetic rate theory -- 12.7.Fracture mechanics extended to viscoelastic materials -- 12.8.Continuum damage mechanics -- 12.9.Damage accumulation models for static (creep) and dynamic fatigue -- 12.10.Conclusions -- 12.11.References -- pt. III Fatigue modeling, characterization and monitoring -- 13.Testing the fatigue strength of fibers used in fiber-reinforced composites using fiber bundle tests / P. K. Mallick -- 13.1.Introduction -- 13.2.Determination of fiber strength distribution parameters -- 13.3.Fiber bundle model for fatigue -- 13.4.Stress-life diagram of fiber bundles -- 13.5.Conclusion -- 13.6.References
Contents	14.Continuum damage mechanical modeling of creep damage and fatigue in polymer matrix composites / F. Thiebaud -- 14.1.Introduction -- 14.2.Mesomodel: viscoelastic strain, damage and viscoplastic strain of a layer -- 14.3.From meso- to macroscopic behavior -- 14.4.Conclusion -- 14.5.References -- 15.Accelerated testing methodology for predicting long-term creep and fatigue in polymer matrix composites / M. Nakada -- 15.1.Introduction -- 15.2.Accelerated testing methodology -- 15.3.Experimental verification for ATM -- 15.4.Applicability of ATM -- 15.5.Theoretical verification of ATM -- 15.6.Future trends and research -- 15.7.Conclusions -- 15.8.References -- 16.Fatigue testing methods for polymer matrix composites / W. Van Paepegem -- 16.1.Introduction -- 16.2.Fatigue testing methods -- 16.3.Effect of boundary conditions and specimen geometry -- 16.4.Typical fatigue damage in structural composites -- 16.5.Future trends -- 16.6.Sources of further information and advice
Contents	16.7.References -- 17.The effect of viscoelasticity on fatigue behaviour of polymer matrix composites / J. A. Epaarachchi -- 17.1.Introduction -- 17.2.Linear viscoelastic analysis of the characteristics of viscoelastic materials under static and dynamic loading -- 17.3.Fatigue behaviour of composite materials -- 17.4.Concluding remarks -- 17.5.Acknowledgements -- 17.6.References -- 18.Characterization of vicoelasticity, viscoplasticity and damage in composites / J. Varna -- 18.1.Introduction -- 18.2.Material model -- 18.3.Microdamage effect on stiffness -- 18.4.Viscoplasticity -- 18.5.Nonlinear viscoelasticity -- 18.6.Conclusions -- 18.7.References -- 18.8.Appendix: time-dependence of VP-strain in a creep test -- 19.Structural health monitoring of composite structures for durability / S. Alampalli -- 19.1.Introduction -- 19.2.FRP structures in the bridge industry -- 19.3.Structural health monitoring -- 19.4.FRP structures and SHM -- 19.5.Case studies -- 19.6.Summary -- 19.7.References.
Summary	Annotation Creep is the tendency of materials to deform when subjected to long-term stress, particularly when exposed to heat. Fatigue phenomena occur when a material is subjected to cyclic loading, causing damage which may progress to failure. Both are critical factors in the long-term performance and reliability of materials such as polymer matrix composites, which are often exposed to these types of stresses in civil engineering and other applications. This important book reviews the latest research in modeling and predicting creep and fatigue in polymer matrix composites. The first part of the book reviews the modeling of viscoelastic and viscoplastic behavior as a way of predicting performance and service life. Part two discusses techniques for modeling creep rupture and failure. The final part of the book addresses ways of testing and predicting long-term creep and fatigue in polymer matrix composites -- Source other than Library of Congress.
Bibliography note	Includes bibliographical references and index.
Access restriction	Available only to authorized users.
Technical details	Mode of access: World Wide Web
Genre/form	Electronic books.
LCCN	2013427752
ISBN	9781845696566
ISBN	1845696565

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