Александр Леонидович Руденя, Минск. Ассистент Факультета информационных технологий и робототехники БНТУ. «Презентация Факультета информационных технологий и робототехники БНТУ». studentCamp.

1. Belarusian
National
Technical
University
Faculty of Information
Technologies and
Robotics

2. Belarusian National Technical University,
Faculty of Information Technologies and Robotics
•In 1983 the Faculty of Robots and Robotic Systems was founded.
•In 1998 the Faculty was renamed into the Faculty of Information
Technology and Robotics. The new name better reflects the current
structure of specialties and Faculty’s development.
•120 lecturers including 18 Professors and 64 Associate Professors (PhDs)
work in the Chairs of the Faculty.
•1466 students are currently studying at the Faculty as full-time students ,
543 students - part-time.

3. Belarusian National Technical University,
Faculty of Information Technologies and Robotics
There are 6 Chairs at our Faculty:
‘Computer Engineering and Automated Systems Software’;
‘Computer Aided Design Systems’;
‘Robotic Systems’;
‘Electric Drive and Automation of Industrial Installations and
Technological Complexes’;
‘Higher Mathematics No.1’;
‘Technical Physics’.
The research work at the Faculty is conducted by:
Science and Research Innovation Laboratory оf Production Automation.
Scientific-Research Laboratory of Applied Physics and Informatics.

4. Belarusian National Technical University,
Faculty of Information Technologies and Robotics
List of specialties/specializations at the Faculty in 2012
Number of
students accepted to
study at the Faculty
Specialty, specialization Qualification in 2012
Full-time Part-time
40 01 01 Software of information technologies Engineer-programmer 61 60
40 01 02 - 01 Information Systems and Technologies
Engineer-programmer 58 -
(in Design and Manufacturing)
40 01 02 - 04 Information Systems and Technologies
Engineer-programmer 60 -
(in Information Processing and Representation)
53 01 01 - 02 Automation of Technological Processes and
Automation engineer 20 -
Industries (in Instrument Making and Radioelectronics)
53 01 01 - 10 Automation of Technological Processes and
Automation engineer 19 -
Industries (Energetics)
Information technologies
53 01 02 Automated Systems of Information Processing 26 -
engineer
53 01 05 Automated Electric Drives Engineer-electrician 54 60
53 01 06 Industrial Robots and Robotics Complexes Engineer-electromechanic 21 -
Total number of first year students in 2012: 319 120

5. Belarusian National Technical University,
Faculty of Information Technologies and Robotics
Chair of Computer
Engineering & Automated
Systems Software

6. The students study fundamental
foundations of computer hardware and
software, technologies of program and
computer systems developing, network
computer integration, data base
organization, information security
problems, local and network applications
developing.
The department also trains candidates for
master’s degree and PhD with the specialty
System analysis, information management and
processing.

7. Academic disciplines taught at the Chair

8. Academic disciplines taught at the Chair

9. Academic disciplines taught at the Chair

10. Academic disciplines taught at the Chair

11. Academic disciplines taught at the Chair
The fourth year students study the Software Testing. It should be
noted that our University is the only higher educational
establishment in Belarus, where the subject is studied. Also
interesting is the fact that, according to an online survey of IT
companies for the year 2011, the vast majority of the testers are
graduates of our faculty.
The students learn Unit Testing, Functional Testing, Regression
Testing, Automated Testing (the methods of Data-Driven and
KeyWord-Driven), Static Testing and other types of testing. We
study tools such as MS Test, NUnit, JUnit, Selenium IDE/RC,
TestComplete. We test real projects and also have own bug
tracking system. Thus, successful students can easily find a job of
Software Tester or QA Engineer (Quality Assurance Engineer).

12. Research activities are held by the Chair in the following directions:
 The improvement of dynamic qualities of cylinder-circular
devices on the basis of their structural components
reasonable characteristics choice
 Information Systems Software

13. “Comparative study of multiple-seated wheel landing
gear vibrations according to live testing and computer
modeling on the basis of ADMOS complex”

14. “Heat and electric energy
demand distribution among
turbines”

15. “The development of methods, algorithms and software for
the calculation of track-laying machine ride comfort in respect
with nonlinear suspension characteristics changes during the
moving”

16. “Monolithic devices
production process control
methods and algorithms
development”

17. Our graduates have modern knowledge and skills in the creating of
software that implement computer modeling of systems and processes,
presentation, storing, security and processing of the information with the
help of different source environments
The Chair
graduates are IT-
specialists: future
project managers,
programmers,
system admins of
state and
commercial
organizations of
different branches

18. Belarusian National Technical University,
Faculty of Information Technologies and Robotics
Chair of Robotic Systems
The Chair was Founded in 1980.
Main scientific and research activities of the
Chair are related to:
• industrial robots
• process automation

19. Chair of Robotic Systems
Main scientific and technical developments:
• Flexible robotic systems (FMS).
• Programming language and system software for the first Belarusian robot ТУР-10.
• Universal software PIMMS for modeling of manufacturing systems.
• System of graphical modeling and analytical programming of industrial robots
ROBOT-2000.
• Energy management software.
• Computer-aided design software GrippCAD for parts of robots with artificial intelligence.
• Software and hardware solution for the non-destructive testing of facilities and objects
using their own radio emission.
• Software and hardware solution for remote diagnosis of bridges, buildings and structures.
• About 300 inventions in the field of robotics, mechanical engineering and
energetics.

20. Chair of Robotic Systems
Universal software PIMMS for modeling of manufacturing
systems

21. Chair of Robotic Systems
System of graphical modeling and analytical programming of
industrial robots ROBOT-2000
1
2
1 8 7
0
1
1
1 3 4
2 9
5
6

22. Chair of Robotic Systems
Energy management software (implemented at the group
company «Belenergo»)

23. Chair of Robotic Systems
Computer-aided design software GrippCAD :
The program aims at providing intellectual assistance in designing
PURPOSE non-standard grippers of industrial robots.
The program should find a ready solution, if known, a close analogue
for modernization, or help find an idea of a new solution.
The program assistance in search of an idea consists in efficient
management of the thinking process and provision of generalized
and and expertise obtained from the global patent fund.
Subject area Functions Users
Machine building Provision of help in grippers
Designers, technologists
designing and inventing
Robotics Patents specialists
Known gripper designs fund
Professors, students
TRIZ and gripper designs
Grippers textbook
DATA BASE
The information basis of World patent fund and Bank of gripper Data base on
and
the program is: (TRIZ basis) inventions TRIZ tools
• classification and
statistical data on
400 000 inventions from different 2 000 gripper designs analyzed 50 methods for solving technical
invention problems and
countries and engineering fields during a classifier elaboration contradictions
tools applied for their
analyzed in TRIZ to select the best 60 schemes of standard solution with
solution
• known gripper designs 300 inventions on grippers from the help of substances and fields
40 000 best inventions selected to Russia, Switzerland and 130 effects from physics, chemistry
from patent funds of
reveal TRIZ tools Belarus selected as samples and mechanics
Russia, Switzerland and
and analogues 12 laws of engineering systems
Belarus
development

24. Chair of Robotic Systems
Computer-aided design software GrippCAD :
Screen form
of the regime

25. Chair of Robotic Systems
Multipurpose industrial robot ТУР-10 with operation system
software developed at the Chair of Robotic Systems

26. Belarusian National Technical University,
Faculty of Information Technologies and Robotics
Chair of Electric Drive
Scope of Activities:
Design, installation, operation of automated electric drive
of industrial and transport units, robotics complexes,
scientific and experimental work.
Major scientific research activities of the Chair are
connected with the improvement of electrical systems based
on semiconductor power converters and non-contact
electric motors as well as with the development of methods
for identification of parameters of motor control systems.

27. Chair of Electric Drive
Research interests of the Chair also include:
Development of methods for
parametric synthesis of robust and
adaptive control systems based on
electric drive PID controllers
Investigation of innovative
methods of energy conversion in
Wind Turbines with stored
energy

28. Chair of Electric Drive
Synthesis and study of
methods for the rapid
identification of
electromagnetic induction
motor parameters.
Modernization of different
crane mechanisms electric
drives (travel and hoisting).
Research of different SMPM designs for the use in various types of
industrial mechanisms.

29. Chair of Electric Drive
Recent developments of the Chair of Electric Drive:
Frequency converter with induction motor used to control
air conditioning compressor of a railway wagon.
Introduced in the railway passenger wagons at the
Belarusian Railway).
Thyristor-pulse control system of a traction
electric drive. Implemented at the
trolleybus
plant "Belkommunmash“.
Demagnitizator used to demagnetize large
bearing rings. Introduced at the Minsk
Bearing Plant.

30. Chair of Technical Physics
The main area of research of the Chair:
– the dynamics of structural changes and relaxation processes in self-
assembled nano-sized objects of different types: multporfirin ensembles,
the pigment-protein complexes, nanocomposites based on semiconductor
quantum dots and functional organic ligands.
Recent scientific and research work of the Chair:
THERMOMANAGEMENT OF POWERFULL PHOTODIOD
Supervised and conducted by the Head of the Chair - I.A. Khorunzhii, PhD

31. Scientific-Research Laboratory of Applied
Physics and Informatics
Self-Assembly Principles in Nanoscale
and Their Applications in Nanobiophotonics
Prof. Eduard Zenkevich
Accredited expert of Russian Corporation of Nanotechnologies
«RОSNANO» (certificate № 504)
Objectives:
Bottom-up Self-assembly, namely the spontaneous or driven
association of organic and inorganic counterparts, is the basis of many
successful strategies to produce nano- and mesoscopic structures that
adopt thermodynamic minima.
Nanoscale systems: multiporphyrin complexes, semiconductor
quantum dots and nanocomposites on their basis (dimension ≤100 nm),
manifestation of quantum size effects

32. Scientific-Research Laboratory of Applied
Physics and Informatics
Realized Self-Assembly (Examples of Our Results)
Model Light Harvesting Complexes
(Energy transfer via localized exciton)
Energy/Electron Transfer Systems
(Possible applications in light collection and
(1Dimer*...Lig) photovoltaics
S1
k5 k6
k7 1
(Dimer+...Lig-) (Dimer+...Lig-)
3
(Dimer...1Lig*) CT
PET
S1
k8 k34
k1 k9
(Dimer...3Lig*)
K10 T1
k2 Long-Distant Electron Transfer
via
k11 Superexchange Mechanism
(Modelling of reaction center in
S0 Photosynthesis)
Eduard I. Zenkevich, Christian von Borczyskowski. Photoinduced relaxation
Electronic Excitation Relaxation Pathways processes in self-assembled nanostructures: multiporphyrin complexes and
composites “CdSе/ZnS quantum dot-porphyrin”. Chapter In: Book “Multiporphyrin
Arrays: Fundamentals and Applications” (D. Kim, Ed., Yonsei University, Seoul,
Korea) Pan Stanford Publishing Pte. Ltd., Singapore, 2012. Chapter 5, P. 217-288.

33. Scientific-Research Laboratory of Applied
Physics and Informatics
Results of Joint Belarus-South Korea Scienfic Cooperation
Prof. Bong Hyun Chung Dr. Jin Young Jeong
Spectroscopy of Potential Photosensitizers for Synglet Oxygen Generation
Methylene Blue
H
Fullerenes
10
0
0
-0
10
-0
20
30
60 C efie ta e ± o es n ad e iaio
o f n vl s n t d r d v tn
ic u a
A = 1 48 0 31
.6 4 ± .0 6
b1 = 0 0 7 2 1± 2 7 - 5
.0 0 1 5 .9 e0
30
20
b2 = 0 0 2 4 1± 8 8 - 6
.0 0 7 5 .2 e0
C = 2 2 .5 2 4
3 5 ± .8
20
80
20
40
10 20 30
3
x0
1
PDT Stomach Treatment
E.I. Zenkevich, C. von Borczyskowski, Bong Hyun Chung, and Jin Young Jeong. Self-Assembly Principles in
Nanoscale and Applications in Nanosensing and PDT (Bulk Measurements and Single Objects Detection). -
Book of Abstracts of the 5th International Conference on sensors AsiaSense 2011 “Sensors and Beyond”
(Jeju, Korea, Oct. 23-26, 2011) WeP101.
E.I. Zenkevich, T.A. Ginko, Bong Hyun Chung, and Jin Young Jeong. PDT with MB in Stomach Treatment. J.
Photochem.Photobiol. (2013, sent)

34. Scientific-Research Laboratory of Applied
Physics and Informatics
ТОPO
H 2P
A
Electron tunneling
Energy Transfer τ, ns
Photodynamic therapy of cancer
Eduard I. Zenkevich, Christian W. von Borczyskowski.
Formation Principles and Excited States Relaxation in Self-
Assembled Complexes: Multiporphyrin Arrays and
“Semiconductor CdSe/ZnS Quantum Dot-Porphyrin”
ZnS Nanocomposites. - in Handbook of Porphyrin Science
with Application to Chemistry, Physics, Materials
Tumor Science, Engineering, Biology and Medicine. Volume 22
N
N H
– Biophysical and Physicochemical Studies of Tetrapyrroles
CdSe N H
N
N (Kadish, K., Smith, K. M. and Guilard, R., eds). World
N
Scientific Publishing Co. Pte. Ltd.: Singapore 596224, 2012,
Tumor Killer
Chapter 104, p. 68-159.
E.I. Zenkevich, E.I. Sagun, V.N. Knyukshto, A.S.
Stasheuski, V.A. Galievsky, A.P. Stupak, T. Blaudeck, C.
von Borczyskowski. “Quantitative Analysis of Singlet
Oxygen (1O2) Generation via Energy Transfer in
Bioconjugates Based on Semiconductor Quantum Dots and
“ QD-Porphyrin” Bioconjugates for PDT
Porphyrin Ligands” – Journal of Physical Chemistry C.
Singlet Oxygen generation (2011) Vol.115, p.21535-21545.

35. Belarusian National Technical University,
Faculty of Information Technologies and Robotics
SCIENCE AND RESEARCH INNOVATION
LABORATORY OF PRODUCTION AUTOMATION
The main areas of activity are:
• Development and production of tensometric weighing systems
and controllers, different types of electronic scales.
• Automation of technological production processes based on
weighing such as asphalt and concrete plants, mixed fodder and
glass factories.

36. Science and Research Innovation Laboratory
of Production Automation
The Laboratory has scientific and production units such as:
• experimental-industrial section;
• load cells production section;
• machining section;
• electrical mounting section;
• testing section equipped with environmental cameras and force
testing machines.

37. Science and Research Innovation Laboratory
of Production Automation
Electronic scales VE-15

38. Science and Research Innovation Laboratory
of Production Automation
Electronic scales VE-150

39. Science and Research Innovation Laboratory
of Production Automation
One of the Laboratory’s main areas of activity is
the automation of production lines based on weigh
batching.
More than 200 of asphalt and concrete mixing
plants were automated during last 15 years.
The Laboratory’s specialists examine the existing
equipment, design structural layouts, create control
systems, data bases and visualisation.

40. Science and Research Innovation Laboratory
of Production Automation
Structural layout of an upgraded asphalt mixing plant

41. Science and Research Innovation Laboratory
of Production Automation
Structural layout of an upgraded asphalt mixing plant

42. Science and Research Innovation Laboratory
of Production Automation
Single point load cell DVT-6 (15, 30)

43. Science and Research Innovation Laboratory
of Production Automation
S-beam load cell DVT-100S (200S)

44. Science and Research Innovation Laboratory
of Production Automation
Tension load cell DVT-500 (1000)

45. Science and Research Innovation Laboratory
of Production Automation
Tensometric systems controller KTU-2

46. Science and Research Innovation Laboratory
of Production Automation
Operator’s controller

47. Science and Research Innovation Laboratory
of Production Automation
Operator’s console

48. Science and Research Innovation Laboratory
of Production Automation
Control room of an upgraded concrete mixing plant

49. Science and Research Innovation Laboratory
of Production Automation
Control cabinet of an upgraded concrete mixing plant

50. Science and Research Innovation Laboratory
of Production Automation
Water measuring hopper

51. Science and Research Innovation Laboratory
of Production Automation
Inert aggregates measuring hopper

52. Science and Research Innovation Laboratory
of Production Automation
Chemical additives measuring hopper

53. Science and Research Innovation Laboratory
of Production Automation
An upgraded line of a concrete mixing plant

54. Science and Research Innovation Laboratory
of Production Automation
Cellulose measuring hopper

55. Science and Research Innovation Laboratory
of Production Automation
A screenshot of the control software for concrete mixing plants

56. Belarusian National Technical University,
Faculty of Information Technologies and Robotics
Thank you for attention!