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content:
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1. Overview
2. The Atomic Bond and Structure of Metals
3. Alloys: solid solutions, intermetallic phases, important binary systems, multicomponent systems
4. Mechanical Properties: plastic deformation of single and polycrystals, twin formation, creep and superplasticity, fracture, alternating deformation and fatigue, solid solution hardening
5. Thermally Activated Processes: diffusion, electromigration and thermotransport, recovery and recrystallisation
6. Solidification of Metallic Melts: nucleation, crystallization in pure metals and alloys,
eutectic solidification, cast alloys and metallic glasses, casting processes, solidification defects
7. Transformations in the Solid State: nucleation and growth of precipitations, spinodal
decomposition, eutectoid decomposition and discontinuous precipitation, martensitic transformation, T-T-T- diagram
8. Forming: mechanics and parameters of forming, rolling, extrusion, bending and shearing, drawing and deep drawing
9. Steels: alloying systems, transformations, microstructure and mechanical properties, engineering steel
10. Particle Hardened Alloys: interaction of dislocations with particles, precipitation
hardening, Al and Ni based alloys, other examples, dispersion hardening, heat-resistant alloys
11. Corrosion and Wear
12. Powder Metallurgy
13. Physical Properties and Metallic Functional Materials: electrical and thermal conductivity of alloys, ferromagnetism and magnetic materials, shape memory alloys
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literature:
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1. P. Haasen, Physical Metallurgy, Cambridge
2. University Press, Cambridge (1996) K. Easterling,
3. Introduction to Physical Metallurgy, Butterworths, 1983
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