Fatigue of Textile Composites

<p>Part I. Concepts and methods</p> <p>1. A conceptual framework for studies of durability in composite materials</p> <p>2. The "cycle jump" concept for modelling high cycle fatigue in composite materials</p> <p>3. Experimental methods and standards for fatigue of fibre-reinforced composites</p> <p>4. Databases for fatigue analysis in composite materials</p> <p>Part II. Fatigue at micro-level</p> <p>5. Fatigue analysis of carbon, glass and other fibres</p> <p>6. Multiaxial fatigue of a unidirectional ply: An experimental top-down approach</p> <p>7. Modelling the crack initiation in UD laminates under multiaxial fatigue loading</p> <p>Part III. Phenomenology and modelling of fatigue in different textile composites</p> <p>8. 2D woven fabric composites under fatigue loading of different types and in different environmental conditions</p> <p>9. Fatigue response and damage evolution in 2D textile composites</p> <p>10. Fatigue damage evolution in 3D textile composites</p> <p>11. Fatigue of 3D textile reinforced composites</p> <p>12. Fatigue of non-crimp fabric composites</p> <p>13. Fatigue models for woven textile composite laminates</p> <p>14. Modelling high cycle fatigue of textile composites on the unit cell level</p> <p>Part IV. Applications</p> <p>15. Fatigue testing and online inspection of carbon textile composites for aeronautical applications</p> <p>16. Textile composites in automotive industry</p> <p>17. Fatigue life in textile composites used for wind energy engineering</p> <p>18. Construction engineering: fatigue life prediction of adhesively bonded textile composites</p>