Course detail
Structure and Properties of Materials
FSI-3SV-KAcad. year: 2023/2024
Phase transformations during the heat treatment of metals and alloys. Fundamental knowledge of structural materials (ferrous alloys and non-ferrous metals, ceramics, polymers, and composites) - their chemical composition and technological treatment in relation to their crystallographic, sub-structural, structural, and mechanical properties; degradation processes resulting from the application of these materials. Principles of selecting materials for engineering constructions.
Language of instruction
Czech
Number of ECTS credits
5
Mode of study
Not applicable.
Guarantor
Entry knowledge
1. Structure of atom, fundamentals of crystallography
2. Basic concepts in physical chemistry (entropy, free energy, free enthalpy, phases, phase equilibria, chemical equilibria)
3. Structure of real crystals (crystal lattice defects and their properties)
4. Thermodynamics of solids
5. Diffusion, diffusion processes
6. Phases in metallic and ceramic systems. Equilibrium diagrams
7. Phase transformations
8. Deformation and fracture properties, testing of mechanical properties of structural materials
2. Basic concepts in physical chemistry (entropy, free energy, free enthalpy, phases, phase equilibria, chemical equilibria)
3. Structure of real crystals (crystal lattice defects and their properties)
4. Thermodynamics of solids
5. Diffusion, diffusion processes
6. Phases in metallic and ceramic systems. Equilibrium diagrams
7. Phase transformations
8. Deformation and fracture properties, testing of mechanical properties of structural materials
Rules for evaluation and completion of the course
Examination. The examination consists of written and oral part. In the written part, students answer four questions related to topics dealt with in the course of the semester. In the oral part, students answer questions resulting from the written part as well as examiner's additional questions.
Awarding the course. Participation in practices is mandatory, must be properly excused absence. Unit credit is conditional on having participated in all exercises and worked out the reports from exercises in keeping with the teacher's instructions. Absence from exercises must be accounted for. Students who have missed an exercise will be given an extra assignment. They will prove in the form of a written report that they have mastered the given topic.
Awarding the course. Participation in practices is mandatory, must be properly excused absence. Unit credit is conditional on having participated in all exercises and worked out the reports from exercises in keeping with the teacher's instructions. Absence from exercises must be accounted for. Students who have missed an exercise will be given an extra assignment. They will prove in the form of a written report that they have mastered the given topic.
Aims
The objective is to provide knowledge on the composition, structure, and treatment of materials in relation to their properties that are relevant for treatment technologies and design applications. It enables understanding the essence of the above processes and their mutual causal relations.
Technologists will be provided with the knowledge of the relations between the structure, sub-structure, and treatment properties of structural materials. Designers will learn about how to make full use of structural materials. For all materials (of both current and enhanced properties) the principles are defined for their technically and economically suitable application.
Technologists will be provided with the knowledge of the relations between the structure, sub-structure, and treatment properties of structural materials. Designers will learn about how to make full use of structural materials. For all materials (of both current and enhanced properties) the principles are defined for their technically and economically suitable application.
Study aids
Not applicable.
Prerequisites and corequisites
Not applicable.
Basic literature
Ashby, F.M., Jones, D.R.H.
Engineering Materials I, II,
Pergamon Press, Ltd., England 1989
Callister, W.D., Jr. Materials Science and Engineering, John Willey & Sons, Inc; New York, 1994
Ohring M.: Engineering Materials Science, Academie Press, New York, 1995
Callister, W.D., Jr. Materials Science and Engineering, John Willey & Sons, Inc; New York, 1994
Ohring M.: Engineering Materials Science, Academie Press, New York, 1995
Recommended reading
Pluhař, J. - Koritta J. Engineering materials (in Czech), SNTL/ALFA, Praha, 1977
Pluhař, J. et al. Material science (in Czech), SNTL, Praha, 1989
Ptáček L. et al. Materials science II (in Czech), CERM, Brno 2002
Pluhař, J. et al. Material science (in Czech), SNTL, Praha, 1989
Ptáček L. et al. Materials science II (in Czech), CERM, Brno 2002
Classification of course in study plans
Type of course unit
Guided consultation in combined form of studies
9 hod., compulsory
Teacher / Lecturer
Syllabus
1. Fundamentals of the metallurgy of iron and steel
2. Accompanying and additive elements in alloys of iron and carbon
3. Phase transformation in the heat treatment of ferrous alloys
4. Heat treatment procedures
5. Low-carbon structural steels for welded structures, case-hardening steel, deep drawing steel, structural steels for heat treatment,
6. Steels resistant to corrosion, heat, creep,
7. Tool steels and alloys
8. Cast irons
9. Non-ferrous metals and alloys I - Al, Mg, Ti
10. Structural metals and alloys II - Cu, Ni, Co
11. Structural ceramic materials
12. Structural polymers
13. Composite materials
14. Principles of selecting structural materials
2. Accompanying and additive elements in alloys of iron and carbon
3. Phase transformation in the heat treatment of ferrous alloys
4. Heat treatment procedures
5. Low-carbon structural steels for welded structures, case-hardening steel, deep drawing steel, structural steels for heat treatment,
6. Steels resistant to corrosion, heat, creep,
7. Tool steels and alloys
8. Cast irons
9. Non-ferrous metals and alloys I - Al, Mg, Ti
10. Structural metals and alloys II - Cu, Ni, Co
11. Structural ceramic materials
12. Structural polymers
13. Composite materials
14. Principles of selecting structural materials
Laboratory exercise
9 hod., compulsory
Teacher / Lecturer
Syllabus
1.Introductory exercises. Organizational matters, training, work safety
2. Standard marking the steels and cast irons,
3. Structure and properties of iron alloys.
4. Austenitizace, diagrams. of the IRA, ARA
5. Basic types of thermal processing
6. Chemical-thermal treatment.
7. Low-carbon steel.
8. Stainless steel and heat-resistant.
9. Tool steel.
10. Graphitic cast iron.
11. Non-ferrous metals I-solders and Al alloys
12. Non-ferrous metals II-Cu alloys
13. Polymers.
2. Standard marking the steels and cast irons,
3. Structure and properties of iron alloys.
4. Austenitizace, diagrams. of the IRA, ARA
5. Basic types of thermal processing
6. Chemical-thermal treatment.
7. Low-carbon steel.
8. Stainless steel and heat-resistant.
9. Tool steel.
10. Graphitic cast iron.
11. Non-ferrous metals I-solders and Al alloys
12. Non-ferrous metals II-Cu alloys
13. Polymers.
Guided consultation
34 hod., optionally
Teacher / Lecturer
Syllabus
1. Fundamentals of the metallurgy of iron and steel
2. Accompanying and additive elements in alloys of iron and carbon
3. Phase transformation in the heat treatment of ferrous alloys
4. Heat treatment procedures
5. Low-carbon structural steels for welded structures, case-hardening steel, deep drawing steel, structural steels for heat treatment,
6. Steels resistant to corrosion, heat, creep,
7. Tool steels and alloys
8. Cast irons
9. Non-ferrous metals and alloys I - Al, Mg, Ti
10. Structural metals and alloys II - Cu, Ni, Co
11. Structural ceramic materials
12. Structural polymers
13. Composite materials
14. Principles of selecting structural materials
2. Accompanying and additive elements in alloys of iron and carbon
3. Phase transformation in the heat treatment of ferrous alloys
4. Heat treatment procedures
5. Low-carbon structural steels for welded structures, case-hardening steel, deep drawing steel, structural steels for heat treatment,
6. Steels resistant to corrosion, heat, creep,
7. Tool steels and alloys
8. Cast irons
9. Non-ferrous metals and alloys I - Al, Mg, Ti
10. Structural metals and alloys II - Cu, Ni, Co
11. Structural ceramic materials
12. Structural polymers
13. Composite materials
14. Principles of selecting structural materials