Czech

5

Ing. Pavel Doležal, Ph.D.

Institute of Materials Science and Engineering

Students are expected to have general knowledge of physics and chemistry acquired at basic bachelor´s study program. They should have the basic knowledge of technological processes of iron and non-iron metals and their alloys, i.e. basic knowledge of metallurgy, foundry, welding, cutting, forming and heat treatment of metals and alloys, and knowledge of the subject "Ferrous materials".

Course-unit credit is awarded on the following conditions: active participation in lessons. Successful completion of control tests regarding the presented topics, while at least one control test has to be classified better than “F” (re-sit terms will be set by the teacher by the end of the exam period). The exam has a written and an oral part. The written part is focused on four of the main topics presented in the lectures. In the oral part of the exam a student answers additional and complementary questions.
Attendance at seminars is compulsory, as well as working our a written assignment. Absence from seminars may be compensated for by the agreement with the teacher.

The aim of the course is to provide students with knowledge necessary to choose and use constructional and tool metal and nonmatallic materials for special application in order to reach utility properties in this area. The course is a follow-up to the following courses: "Introduction to Material Science", "Structure and Properties of Materials" and "Non- ferrous Materials" and "Metal materials" . It is intended to deepen and widen the acquired knowledge in the area of engineering applications.
The study of this subject should help to choose the materials (metal and nonmetallic) and use them in practice in mechanical and automotiv engineering and also in aeronautics.

Programme N-MTI-P: Materials Engineering, Master's, compulsory

26 hours, compulsory

Ing. Pavel Doležal, Ph.D.
Ing. Petr Havlík, Ph.D.

Laboratory practise – evaluation of the structure and properties of materials.
1. The structure, properties and applications of non-alloy and alloy steels I
2. The structure, properties and applications of non-alloy and alloy steels II
3. The structure, properties, corrosion resistant and heat resistant alloys based on iron
4. Structure and properties of creep-resistant steels
5. Tool steels
6. Steels castings, graphite and iron ledeburitic
7. Structure and properties of titanium alloys
8. Nickel, cobalt, and their alloys
9. Alloys of copper and zinc
10. The structure and properties of aluminum alloys
11. The structure and properties of magnesium alloys
12. Composite materials based on metals
13. Metallic Biomaterials

Laboratory practise – Structure evaluation by light and electron microscopy, mechanical tests, hardness measurements.
1. Structure, properties and applications of engineering materials,
2. Use and characteristics of selected low carbon steel and weldable
3. Properties and application of the selected structure of stainless and heat-resistant alloys based on iron
4. Structure and properties of heat resistant steels and steels for low temperature,
5. Evaluation of the structure and properties of cast steels (Hadfield, Ni-Cr),
6. Structure, properties and applications of ADI cast iron and cast austenitic,
7. The structure, properties and applications of high-strength steels
8. Using a selection tool steel machining and molding, coated and uncoated
9. Structure , properties and application of selected alloys based on Cu, Al
10. Structure , properties and application of selected alloys based on Mg and Ti
11.The structure, characteristics and use of superalloys based on nickel and cobalt
12.Properties and structure of cemented carbides for cutting and forming , coated and uncoated
13.The use of ceramics for machining and forming , coated and uncoated