Subject · Instrumentation engineering (bachelor)

Materials science.Topics

İF-36119y6 creditsSpring semesterMandatory2025-2026

Topic plan

The subject's topics and the learning outcomes attached to each one.

14 topics

1. The crystalline structure of metals and their defects. effect of dislocations on crystal deformation and diffusion.
Lecture
Crystal structure of metals, defects, deformation mechanisms and diffusion processes.
2. Atom-crystal lattices, structure and properties of metals. defects in crystal lattices (dislocation structure). crystallographic directions and planes.
Lecture
Crystal lattices, dislocations and crystallographic directions.
3. Three aggregate states of matter. the mechanism of the liquid metal crystallization process. thermal cooling curves during liquid metal crystallization.
Lecture
Aggregate states of matter, crystallization mechanism and cooling curves.
4. General properties of metals (mechanical, physical, chemical and technological). methods of determination of mechanical properties. theoretical basis of metallic alloys. structures and phases formed in the alloy system. gibbs rule and its application in alloy system.
Lecture
Properties of metals, mechanical tests and phase equilibria (gibbs rule).
5. Methods of construction of state diagrams of alloys. i; ii; iii; type IV state diagrams. law of parts and law of phases.
Lecture
Types of state diagrams, order of phases and diagram construction methods.
6. Iron-carbon (iron-cementite) state diagram. phase transformations in iron-carbon alloys. characteristic lines and points on the fe-c diagram. analysis of phase and structural transformations of fe-c alloys. practical significance of the iron-carbon phase diagram.
Lecture
Fe-c diagram structure, transformations and practical application.
7. Classification of steels. carbon steels, brands, structures and fields of application. cast irons, classification (white, gray, nodular, modified and high strength). brands, structures and fields of application.
Lecture
Classification, marking and industrial application of steel and cast iron.
8. Thermal processing, types, technologies and areas of application. the principle of selection of thermal processing methods and regimes.
Lecture
Basics and technology of thermal processing.
9. Thermal processing of steel, the main transformations that occur during heating and cooling (vassa transformation) and the mechanism of these transformations.
Lecture
Phase transformations during cooling and heating in steels (vassa transformation).
10. Chemical-thermal processing (cte), types, implementation technology and areas of application. types of thermo-mechanical processing (tme), implementation technology and fields of application.
Lecture
Kte and TME methods, technologies and applications.
11. Structural steels. classification of structural steels according to their chemical composition, structure, properties and fields of application
Lecture
Classification and application of structural steels.
12. Steel and alloys with special chemical-physical properties. classification, structures, properties, grades and applications of these steels and alloys.
Lecture
Classification and application possibilities of special steels.
13. Al, cu, mg and titanium alloys, grades, structure and properties. thermal processing methods, structure and properties of non-ferrous metal alloys, fields of application.
Lecture
Properties, processing methods and application of non-ferrous metals (al, cu, mg, ti).
14. Copper and non-metallic materials. classification, acquisition technology and fields of application.
Lecture
Ovuntu metallurgy and properties and technologies of non-metallic materials.

Materials science.Topics

Topic plan

1. The crystalline structure of metals and their defects. effect of dislocations on crystal deformation and diffusion.

2. Atom-crystal lattices, structure and properties of metals. defects in crystal lattices (dislocation structure). crystallographic directions and planes.

3. Three aggregate states of matter. the mechanism of the liquid metal crystallization process. thermal cooling curves during liquid metal crystallization.

4. General properties of metals (mechanical, physical, chemical and technological). methods of determination of mechanical properties. theoretical basis of metallic alloys. structures and phases formed in the alloy system. gibbs rule and its application in alloy system.

5. Methods of construction of state diagrams of alloys. i; ii; iii; type IV state diagrams. law of parts and law of phases.

6. Iron-carbon (iron-cementite) state diagram. phase transformations in iron-carbon alloys. characteristic lines and points on the fe-c diagram. analysis of phase and structural transformations of fe-c alloys. practical significance of the iron-carbon phase diagram.

7. Classification of steels. carbon steels, brands, structures and fields of application. cast irons, classification (white, gray, nodular, modified and high strength). brands, structures and fields of application.

8. Thermal processing, types, technologies and areas of application. the principle of selection of thermal processing methods and regimes.

9. Thermal processing of steel, the main transformations that occur during heating and cooling (vassa transformation) and the mechanism of these transformations.

10. Chemical-thermal processing (cte), types, implementation technology and areas of application. types of thermo-mechanical processing (tme), implementation technology and fields of application.

11. Structural steels. classification of structural steels according to their chemical composition, structure, properties and fields of application

12. Steel and alloys with special chemical-physical properties. classification, structures, properties, grades and applications of these steels and alloys.

13. Al, cu, mg and titanium alloys, grades, structure and properties. thermal processing methods, structure and properties of non-ferrous metal alloys, fields of application.

14. Copper and non-metallic materials. classification, acquisition technology and fields of application.