Plastics Engineering (4th Ed.)
Auteurs : Crawford R. J, Martin P. J.
2. Mechanical Behaviour of Plastics
3. Mechanical Behaviour of Composites
4. Processing of Plastics
5. Analysis of Polymer Melt Flow
Appendix
A. Structure of Plastics
B. Solution of Differential Equations
C. Stress/Strain Relationships
D. Stresses in Cylindrical Shapes
E. Introduction to Matrix Algebra
F. Abbreviations for some Common Polymers
Plastics/Composites engineers, manufacturing engineers, plastics technologists, processing engineers, design engineers, product engineers involved with plastics material development or modification. Undergraduate/postgraduate engineers in Mechanical, Aerospace, Manufacturing and related disciplines who are studying plastics and composites as part of their degree programmes. Undergraduate/Postgraduate Materials Scientists/Engineers
Peter J. Martin is a Reader in the School of Mechanical and Aerospace Engineering at Queen’s University Belfast and he is a Fellow of the Institution of Mechanical Engineers. Dr Martin is the current Director of the Polymer Processing Research Centre. Dr Martin's primary research interests are in advanced polymer materials and processing. Dr. Martin has published numerous papers and articles in the area of plastics engineering.
- Gives new engineers and technologists a thorough understanding of the essential properties and processing behavior of plastics and composites
- Presents a great source of foundational information for students, early-career engineers and researchers
- Demonstrates how basic engineering principles in design, mechanics of materials, fluid mechanics and thermodynamics may be applied to the properties, processing and performance of modern plastic materials
Date de parution : 01-2020
Ouvrage de 638 p.
15x22.8 cm
Mots-clés :
Amorphous; Analysis; Composite; Compression; Continuous fibre; Crystalline; Elastomer; Extrusion; failure; fatigue; fracture; impact; Injection; isochronous; isometric graphs; Laminate; Matrix; Mechanical properties; Moulding; Multi-ply; Polymer; Process; pseudo-elastic design; Reinforcement; Rotational; Single ply; Thermoforming; Thermoplastic; Thermoset; Viscoelasticity