Composite Materials: Engineering and Science
As composite materials gain increasing prominence in engineering applications, it becomes essential for designers and engineers to have a thorough grounding in the various material forms, their production, their benefits, and their limitations. Composite Materials: Engineering and Science helps build the groundwork needed to begin incorporating these remarkable materials-with high strength and stiffness yet low weight-into projects, and effectively exploit their advantages.
The authors, acknowledged experts in the composites community, set forth the underlying science and engineering applications of composite materials. The text discusses the different forms of reinforcement and matrix and their interaction. Although it focuses on the most widely used composites-polymer matrices and fibrous reinforcement-it also addresses metal and ceramic matrix systems. A substantial portion of the text deals with methods for calculating stiffness and strength, and the authors provide worked examples and representative data. The final chapters address the various aspects of mechanical behavior, including toughness, fatigue, impact resistance, and the properties of joints-including toughening mechanisms and repair. The book concludes with a presentation of non-destructive testing methods.
The use and development of composites for engineering purposes will undoubtedly continue to grow, in both applications and importance. Now is the time for engineering professionals to make sure they are not left behind. With its numerous examples and self-assessment questions, Composite Materials: Engineering and Science makes the ideal text for designers and engineers new to the world of composites.
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Ceramic matrix composites 118
Reinforcements and the reinforcement matrix interface 29
Composites with metallic matrices 78
Polymer matrix composites 168
Stiffness strength and related topics 206
Stiffness of unidirectional composites and laminates 223
Micromechanics of unidirectional composites 251
Short fibre composites 287
Fracture mechanics and toughening mechanisms 326
Impact resistance 363
Fatigue and environmental effects 376
Nondestructive testing 415
Strength of unidirectional composites and laminates 269
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adhesive aligned alloy alumina aluminium applications aramid assertion and reason behaviour bonding boron brittle carbon fibres CFRP Chapter chemical coefficient component composite materials compressive continuous fibre composite crack creep criterion crystal curve damage debonding defect density effect elastic elevated temperatures energy epoxy equation example failure false fatigue fibre length fibre orientation fibre reinforced fracture glass fibres glass-ceramic graphite heat treatment high temperature impact increase interface isotropic joint Kevlar laminate lay-up liquid load longitudinal maximum mechanical properties metal matrix composites methods microcracking MMCs moulding particles PEEK PMCs Poisson's ratio polymer predict produced ratio reason are true resin S-N curves shear strength shear stress short fibre shown in Figure Source specific modulus specimen stiffness strain stress-strain structure surface Table techniques tensile strength tensile stress thermal expansion thermoplastics thermosets thickness toughening toughness transverse true statements typical ultrasonic unidirectional composite values volume fraction Young's modulus
Proceedings / Eleventh International Conference on Composite Materials ...
Woodhead Publishing, Limited
No preview available - 1997
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Impact Behaviour of Fibre-reinforced Composite Materials and Structures
S.R. Reid,G. Zhou
No preview available - 2000