1. Overview of materials, their properties and applications.
2. Superalloys, classification according to basic elements. Superalloys based on Fe-Ni and Co. Alloying elements, structure, physical and metallurgical features, heat treatment, phase stability, properties, application.
3. Superalloys based on Ni. Alloying elements, structure, physical and metallurgical features, heat treatment, phase stability, properties, application. Processing technology.
4. Intermetallic phases and alloys. Structure. Phase stability. Antiphase boundaries and domains. Classification of intermetallic alloys.
5. Intermetallic alloys: aluminides (NiAl, Ni3Al, TiAl, Ti3Al, FeAl, Fe3Al); silicides (Ni3Si, Fe3Si, MoSi2); magnetic materials (SmCo5, etc.); hydrides based on intermetallic compounds. Structures, mechanical, electromagnetic, corrosion, thermal, and other properties; application. Processing technology.
6. Shape memory alloys. Fundamentals of shape memory effect. Phase transformations. Structure and microstructure. Thermoelastic or stress induced martensite. Superelasticity. Examples of alloys, application. Processing technology.
7. Biocompatible materials. Biocompatibility. Classification of materials. Properties and application.
8. Functionally graded materials. Fundamentals, structure, properties, examples, applications.
9. Metallic foams. Classification and microstructures, physical and metallurgical properties, advantages and applications. Processing technology.
10. Composite materials. Fundamentals of composite effect. Mechanisms of strengthening. Classification of composites according to reinforcement, structures or matrix composition. Material features.
11. Metal or ceramic matrix composites. Properties and application. Processing technology.
12. Metallic glasses. Physical and metallurgical features. Glass forming ability. Stability and crystallization. Advantages and limitations for using. Theory of deep eutectic. Processing technology. Examples of materials, properties and application.
13. Nanostructured materials. Thermal stability, basic physical, chemical, structural and mechanical properties. Multiphase nanocrystalline materials. Technical application. Processing technology.
2. Superalloys, classification according to basic elements. Superalloys based on Fe-Ni and Co. Alloying elements, structure, physical and metallurgical features, heat treatment, phase stability, properties, application.
3. Superalloys based on Ni. Alloying elements, structure, physical and metallurgical features, heat treatment, phase stability, properties, application. Processing technology.
4. Intermetallic phases and alloys. Structure. Phase stability. Antiphase boundaries and domains. Classification of intermetallic alloys.
5. Intermetallic alloys: aluminides (NiAl, Ni3Al, TiAl, Ti3Al, FeAl, Fe3Al); silicides (Ni3Si, Fe3Si, MoSi2); magnetic materials (SmCo5, etc.); hydrides based on intermetallic compounds. Structures, mechanical, electromagnetic, corrosion, thermal, and other properties; application. Processing technology.
6. Shape memory alloys. Fundamentals of shape memory effect. Phase transformations. Structure and microstructure. Thermoelastic or stress induced martensite. Superelasticity. Examples of alloys, application. Processing technology.
7. Biocompatible materials. Biocompatibility. Classification of materials. Properties and application.
8. Functionally graded materials. Fundamentals, structure, properties, examples, applications.
9. Metallic foams. Classification and microstructures, physical and metallurgical properties, advantages and applications. Processing technology.
10. Composite materials. Fundamentals of composite effect. Mechanisms of strengthening. Classification of composites according to reinforcement, structures or matrix composition. Material features.
11. Metal or ceramic matrix composites. Properties and application. Processing technology.
12. Metallic glasses. Physical and metallurgical features. Glass forming ability. Stability and crystallization. Advantages and limitations for using. Theory of deep eutectic. Processing technology. Examples of materials, properties and application.
13. Nanostructured materials. Thermal stability, basic physical, chemical, structural and mechanical properties. Multiphase nanocrystalline materials. Technical application. Processing technology.