Information about the branch of the department "Materials Science in Mechanical Engineering"
Belarusian National Technical University
1. Name of the organization on the basis of which the branch of the department functions:
OAO "MAZ" - UKH "BelavtoMAZ"
2. Information about the creation of a branch of the department:
Year of foundation of the branch of the department - (Decreeof the rector dated 10.01.2009 No. 01-p )
Cooperation agreement - ( Decree No. 34 dated 01/16/2009)
Regulations on the branch of the department - ( Decree dated 01/16/2009)
|
Specialty code |
Name of specialty |
|
1-36 01 02 |
"Materials Science in Mechanical Engineering" |
|
1-36 80 04 (Master Degree) |
"Processing of structural materials in mechanical engineering" |
|
1-42 01 01
1-42 01 01 – 01 03 |
"Metallurgical production and material processing" "Metal science, technology and equipment for heat treatment of metals" |
|
1-42 80 01 (Master Degree) |
"Innovative technologies in metallurgy" |
The head of the branch of the department at JSC "MAZ" - UKH "BelavtoMAZ" - Chief metallurgist Babuk E.P.
|
Academic year |
Name of topics |
Supervisor |
|
2021/2022 |
The project of the production unit for thermal and chemical-thermal treatment of rear axle parts of MAZ trucks for the 2022 production program. |
Associate Professor Pantelyenko A.F. |
|
Проект производственного подразделения термической и химико-термической обработки деталей редукторов грузовых автомобилей МАЗ на программу выпуска 2022 года. |
Associate Professor Pantelyenko A.F. |
|
|
Проект производственного подразделения термической и химико-термической обработки деталей передней подвески грузовых автомобилей МАЗ на программу выпуска 2022 года |
Associate Professor Pantelyenko A.F. |
|
|
Проект производственного подразделения термической и химико-термической обработки деталей автобусов семейства «МАЗ». |
Professor Kukareko V.A |
|
|
Проект производственного подразделения термической и химико-термической обработки сложнопрофильных деталей автотехники в условиях ОАО «МАЗ» на программу выпуска 2022 г. |
Professor Kukareko V.A. |
|
|
Проект цеха термической обработки деталей из конструкционных сталей в условиях ОАО «МАЗ» |
Professor Professor Ivanitsky N.I. |
|
|
The project of the production unit for thermal and chemical-thermal processing of hardware products in the conditions of OAO MAZ. |
Professor Konstantinov V.M. |
|
|
The project of the production unit for the heat treatment of parts of the axial type of automotive equipment manufactured by OAO MAZ using induction heating |
Associate Professor Dashkevich V.G. |
|
|
Development of technology and layout of the site for hardening the gear shaft of the rear axle of the MAZ car from steel 12KhN3A. |
Associate Professor Stefanovich V.A. |
|
|
2020/2021 |
The project of the workshop for heat treatment of metal-cutting tools in the conditions of OAO MAZ |
Professor Sitkevich M.V. |
|
The project of the shop for heat treatment of hot stamping tools in the conditions of OAO MAZ |
Professor Sitkevich M.V. |
|
|
Project of a workshop for thermal and chemical-thermal treatment of truck parts in the conditions of OAO MAZ for the 2020 production program |
Art. teacher Panteleenko A.F. |
|
|
Project of a workshop for thermal and chemical-thermal treatment of parts for MAZ trucks for the 2021 production program |
Art. teacher Panteleenko A.F. |
|
|
The project of the workshop for thermal and chemical-thermal treatment of resource-determining parts of the gearbox for the production program of 2021 in the conditions of MAZ OJSC |
Art. teacher Grigoriev S.V. |
|
|
The project of the shop for chemical-thermal treatment of gears in the conditions of OAO MAZ for the production program of 2021 |
Associate Professor Grigorchik A.N. |
|
|
The project of the workshop for induction heat treatment of steel structural parts of automotive equipment in the conditions of MAZ OJSC for the 2021 production program |
Associate Professor Grigorchik A.N. |
|
|
The project of the shop for heat treatment of steel fasteners in the conditions of OAO MAZ for the production program of 2021 |
Associate Professor Grigorchik A.N. |
|
|
2019/2020 |
The project of the workshop for thermal and chemical-thermal treatment of gears in the conditions of OAO MAZ |
Associate professor Kovalchuk A.V. |
|
The project of the workshop for heat treatment of metal-cutting tools in the conditions of OAO MAZ |
Professor Sitkevich M.V. |
|
|
The project of the shop for chemical-thermal treatment of automotive parts in the conditions of OAO MAZ |
Art. teacher Shcherbakov V.G. |
|
|
Project of a workshop for thermal and chemical-thermal treatment of truck chassis parts under the conditions of MAZ OJSC for the 2019 production program |
Art. teacher Panteleenko A.F. |
|
|
The project of the shop for heat treatment of hot stamping tools in the conditions of OAO MAZ |
professor Sitkevich M.V. |
|
|
2018/2019 |
The project of the production unit for volumetric and surface hardening of gearbox parts for MAZ family cars for the 2019 production program |
Associate Professor Stefanovich V.A. |
|
The project of the production unit for the heat treatment of automotive parts in the conditions of OAO MAZ |
Art. teacher Shcherbakov V.G. |
|
|
The project of the production unit for the heat treatment of forgings in the conditions of OAO MAZ |
Art. teacher Shcherbakov V.G. |
|
|
The project of the shop for heat treatment of metal-cutting and stamping tools in the conditions of MAZ OJSC for the production program of 2019 |
Art. teacher Panteleenko A.F. |
|
Academic year |
Name of topics |
Supervisor |
|
2020/2021 |
Improving the process of ion-plasma nitriding of structural steels |
professor Konstantinov V.M. |
|
2019/2020 |
Study of technological aspects of industrial application of ion-plasma nitriding of structural steels |
professor Sitkevich M.V. |
|
2018/2019 |
Development of measures to improve the quality of car parts of OJSC "MAZ" hardened by thermal, chemical-thermal treatment |
Associate Professor Stefanovich V.A. |
|
Development of a classifier for hot-dip galvanized coating defects in production conditions |
professor Konstantinov V.M. |
|
|
The study of galvanized steel fasteners of metal structures |
professor Konstantinov V.M. |
|
|
Alloys for induction hardfacing with increased hardfacing from metal waste |
professor Konstantinov V.M. |
|
Academic year |
Name of topics |
Supervisor |
|
2021-2022 |
Cold-resistant steels of the CIS countries and far abroad. Wear-resistant steels of the CIS countries and far abroad (boron-containing). Steels for casting molds and liquid stamping of metals under pressure from the CIS countries and far abroad. Die steels for hot deformation of the CIS countries and far abroad. Improved steel of the CIS countries and far abroad. Azotized steels of the CIS countries and far abroad. |
professor Konstantinov V.M. |
|
Fastener improvement area. Improvement area for bolts of strength class 8.8. Principles of alloying high-speed steels, phase composition and structural transformations during heat treatment. Marking of structural steels in various countries. The main methods for obtaining high strength structural steels.
|
Associate Professor Stefanovich V.A. |
|
|
Design a thermal furnace (conveyor). Design a thermal furnace (chamber with a sliding hearth). Design a thermal furnace (chamber with a stationary hearth). Design a thermal furnace (pusher). Design a thermal furnace (shaft). Design a thermal furnace (furnace-bath with external heating). Design a thermal furnace (chamber with a sliding hearth). Design a thermal furnace (furnace-bath with external heating).
|
Professor Ivanitsky N.I. |
|
|
Development of a technical process for heat treatment of a shaft ø 20 mm. Development of a technical process for heat treatment of a roller ø 70 mm. Development of a technical process for heat treatment of an axle ø 40 mm. Development of a technical process for thermal treatment of springs with a thickness of 20 mm. Development of a technical process for the heat treatment of a ground die 300 mm thick. Development of a technical process for heat treatment of a gear with a module of 2.5 mm. Development of a technical process for heat treatment of a ø 20 mm stud. Development of a technical process for heat treatment of a spring ø 25 mm. Development of a technical process for heat treatment of a torsion shaft ø 30 mm. Development of a technical process for heat treatment of a car suspension spring ø 15 mm. Development of a technical process for heat treatment of a half shaft ø 50 mm. Development of a technological process for heat treatment of a cylinder liner with a thickness of 30 mm. Development of a technological process for heat treatment of a flywheel with a diameter of 100 mm.
Development of a technological process for heat treatment of a bushing with a thickness of 20 mm. Development of a technological process for heat treatment of a gear wheel with a 4 mm module. Development of a technological process for heat treatment of a spring with a thickness of 15 mm. Development of technological process for heat treatment of axis Ø 20 mm. Development of the technological process of heat treatment springs Ø 10 mm. Development of technological process for heat treatment of axis Ø 20 mm. Development of a technological process for heat treatment of a spring with a thickness of 10 mm. Development of a technological process for heat treatment of gears with a 3 mm module. |
professor Sitkevich M.V. |
|
|
2020/2021 |
Case-hardened steels of the CIS countries and far abroad. Spring steels of the CIS countries and far abroad. Die steels for cold forming. Spring special steels of the CIS countries. |
professor Konstantinov V.M. |
|
Marking of tool steels in various countries. The principles of alloying improved steels and the choice of steel grade depending on the section of the product. Structural steels with high machinability (sulphur- and selenium-containing steels). Steels for surface saturation with nitrogen. Special spring steels (corrosion resistant steels). Die steels for the manufacture of hot forging tools. Superhard materials for machining. General principles for the selection of materials depending on the operating conditions of the parts. Structural steels with high machinability. (lead-, calcium-containing steels). Principles of alloying heat-resistant steels and alloys (heat-resistant chromium-nickel steels). Marking of structural steels in the USA, Germany, Japan. |
Associate Professor Stefanovich V.A. |
|
|
2019/2020 |
Approximation of data by means of Mathcad. Solving engineering problems using user subroutines. Technologies for processing the results of experiments in the packages Mathcad, Statistica. Solving engineering problems of finding the roots of systems of equations in Mathcad. |
associate professor Melnichenko V.V. |
|
Design a chamber electric furnace with a stationary hearth. Design a chamber electric furnace with a bogie hearth. Design a mine electric furnace. Design drum electric furnace. Design a conveyor electric furnace. Design a pusher electric furnace. Design a roller table furnace. Design a furnace-bath with external heating. Design an electrode furnace-bath. Design a chamber furnace with a stationary hearth on gaseous fuel. Design a chamber furnace with a bogie hearth on gaseous fuel. Design a shaft furnace for gaseous fuel. Design a conveyor oven for gaseous fuel. Design a pusher furnace for gaseous fuel. Design a chamber furnace with a stationary liquid fuel hearth. Forging normalization section Area for improving forgings under conditions . Maintenance section of a hot-forging tool under conditions. |
Professor Ivanitsky N.I. |
|
|
2019/2020 |
Area for improving small parts in the conditions of OAO MAZ - UKH Belavtomaz. Carburizing area for small gears. Maintenance area for long shafts. Cementation of hereditarily coarse-grained steels. Nitrocarburizing (medium temperature) hereditarily fine-grained steels. Vacuum carburizing of hereditarily fine-grained steels. Liquid nitrocarburizing. Low-temperature carbonitration (500…580 °С). Gas carburizing of hereditarily fine-grained steels. |
Associate Professor Stefanovich V.A. |
|
Design a plastic injection mold. Drawing No. 1. Design a plastic injection mold. Drawing number 2. Design a plastic injection mold. Drawing number 3. Design a plastic injection mold. Drawing number 4. Design a plastic injection mold. Drawing number 5. Design a plastic injection mold. Drawing number 6. Design a plastic injection mold. Drawing number 7. |
Associate Professor Dashkevich V.G. |
|
|
2018/2019 |
Cold-resistant steels of the CIS countries and far abroad. Wear-resistant steels of the CIS countries and far abroad (boron-containing). Steels for casting molds and liquid stamping of metals under pressure from the CIS countries and far abroad. Die steels for hot deformation of the CIS countries and far abroad. Spring steels of the CIS countries and far abroad . Improved steel of the CIS countries and far abroad. Stamp steels for cold forming of the CIS countries and far abroad. Bearing steels of the CIS countries and far abroad. Automatic steel of the CIS countries and far abroad. Azotized steels of the CIS countries and far abroad. |
professor Konstantinov V.M. |
|
|
Development of a technical process for heat treatment of a shaft ø 20 mm. Development of a technical process for heat treatment of a conveyor chain link with a thickness of 8 mm. Development of a technical process for heat treatment of a roller ø 70 mm. Development of a technical process for heat treatment of an axle ø 40 mm. Development of a technical process for thermal treatment of springs with a thickness of 20 mm. Development of a technical process for the heat treatment of a ground die 300 mm thick. Development of a technical process for heat treatment of a gear with a module of 2.5 mm. Development of a technical process for heat treatment of a ø 20 mm stud. Development of a technical process for heat treatment of a spring ø 25 mm. Development of a technical process for heat treatment of the axis of the conveyor roller ø 30 mm. Development of a technical process for heat treatment of the connecting rod bolt ø 20 mm. Development of a technical process for heat treatment of a torsion shaft ø 30 mm. Development of a technical process for heat treatment of a car suspension spring ø 15 mm. Development of a technical process for heat treatment of a half shaft ø 50 mm. Development of a technological process for heat treatment of a cylinder liner with a thickness of 30 mm. Development of a technological process for heat treatment of a flywheel with a diameter of 100 mm.
Development of a technological process for heat treatment of a bushing with a thickness of 20 mm. Development of a technological process for heat treatment of a gear wheel with a 4 mm module. Development of a technological process for heat treatment of a spring with a thickness of 15 mm. Development of technological process for heat treatment of axis Ø 20 mm. Development of the technological process of heat treatment springs Ø 10 mm. Development of technological process for heat treatment of axis Ø 20 mm. Development of a technological process for heat treatment of a spring with a thickness of 10 mm. Development of a technological process for heat treatment of gears with a 3 mm module. Development of a technological process for heat treatment of a hot-pressed die with a cross section of 100 mm. Development of a technological process for heat treatment of a shaft Ø 25 mm.
|
professor Sitkevich M.V. |
|
|
Design a thermal furnace (roller table). Design a thermal furnace (conveyor). Design a thermal furnace (chamber with a sliding hearth). Design a thermal furnace (chamber with a stationary hearth). Design a thermal furnace (pusher). Design a thermal furnace (shaft). Design a thermal furnace (furnace-bath with external heating). Design a thermal furnace (chamber with a sliding hearth). Design a thermal furnace (furnace-bath with external heating). Design a thermal furnace (electrode furnace-bath). |
Professor Ivanitsky N.I. |
|
Maintenance section of a cold-forming tool (clamp type). Section TO reamers. Fastener improvement area. Improvement area for bolts of strength class 8.8. Principles of alloying high-speed steels, phase composition and structural transformations during heat treatment. Marking of structural steels in various countries. The main methods for obtaining high strength structural steels. Structural steels with high machinability. Superhard materials for machining. |
Associate Professor Stefanovich V.A. |
|
Type of practice |
Number of students |
|||
|
|
2018/2019 academic year |
2019/2020 academic year |
2020/2021 academic year |
2021/2022 academic year |
|
Educational |
35 |
36 |
40 |
36 |
|
Production (by specialty) |
one |
27 |
13 |
eleven |
|
Production (undergraduate) |
eight |
5 |
6 |
9 |
|
Publication imprint |
The authors) (surname, initials, position) |
|
Processing of mechanical engineering products using induction heating |
Gordienko A.I., Gurchenko P.S. - prof., Mikhlyuk A.I. - Associate Professor, Vegera I.I. |
|
Production of steel cast heat-treated shot in the conditions of machine-building enterprises |
Gurchenko P.S. - prof., Demin M.I., Volkov D.A. |
|
History and directions of development of research and technologies of induction heating in Belarus |
Astapchik S.A., Gurchenko P.S., Shipko A.A. |
|
On the problem of energy saving and improving the quality of heat treatment |
Konstantinov V.M. - prof., Gurchenko P.S., Stefanovich V.A. |
|
Prospects for the use of low hardenability steels for the manufacture of MAZ car parts |
Mikhlyuk A.I. |
|
Some ways of energy saving during heat treatment of car parts of the MAZ family |
Konstantinov V.M., Gurchenko P.S., Stefanovich V.A., Strizhevskaya T.N. |
|
Investigation of the features of the formation of the structure of structural steels in order to save energy during heat treatment |
Konstantinov V.M., Strizhevskaya T.N. |
|
Experience and problems of master's training of scientific and production personnel in the field of metallurgy for JSC "MAZ" |
Konstantinov V.M., Gurchenko P.S., Mikhlyuk A.I. |
|
High-strength fasteners designed to work in abrasive wear conditions |
Konstantinov V.M., Tkachenko G.A. |
|
Investigation of the features of the formation of the structure of structural steels from the standpoint of energy saving during heat treatment |
Konstantinov V.M., Shcherbakov E.D. Sinichenko T.N.
|
|
Structure and mechanical properties of carbon steels after cyclic heating by induction and alternating current |
Konstantinov V.M., Tkachenko G.A., Semenchenko M.V. |
|
Energy-saving improvement in the processing of forgings for trucks |
Konstantinov V.M., Gurchenko P.S., Sinichenko T.N., Mikhlyuk A.I. |
|
To the problem of strength of diffusion-galvanized products |
Konstantinov V.M., Buloychik I.A. |
|
Heat treatment to simultaneously increase the hardness and toughness of steel products |
Konstantinov V.M., Tkachenko G.A. |
|
Application of Diffusion Galvanizing Processes for Heat-Hardened Metal Products |
Konstantinov V.M., Gurchenko P.S., Buloychik I.A. |
|
Experience and prospects of master's training of engineering personnel in the field of metallurgy |
Konstantinov V.M. |
|
Influence of boriding on dimensional accuracy and brittleness of the surface of precision parts made of non-heat-resistant tool steels |
Konstantinov V.M., Dashkevich V.G., Kovalchuk A.V. |
Note: information is updated quarterly