COURSES FOR ERASMUS STUDENTS
ELECTRICAL ENGINEERING
Academic Year 2014/2015
List and description of courses
Winter semester
Course code
Forms-hours/week
ECTS
(L T Lab P S)*
1. ELR 021330
Numerical and Optimization Methods
(1 0 0 0 0)
2(2)
2. ELR 021331
Power Quality Assessment
(2 0 0 0 0)
2(2)
3. ELR 022131
Power System Faults E
(2 0 0 1 0)
6(4,2)
4. ELR 022132
Digital Control Systems
(2 0 1 0 0)
4(3,1)
5. ELR 023225
Dynamics and Control of AC
(2 0 0 0 0)
4(4)
Power Generation
(2 1 0 1 0)
5(3,1,1)
7. ELR 021120
Advanced High Voltage Technology E
(2 0 0 0 0)
3(3)
8. ELR 022135
Artificial Intelligence Techniques
(2 0 0 1 0)
3(2,1)
9. ELR 022233
Power System Automation
(2 0 0 0 1)
4(3,1)
10.ELR 022532 Electrical Power Systems Management (1 0 0 0 1)
2(1,1)
11.ELR 023311 Electromagnetic Compatibility
(2 0 0 0 1)
3(2,1)
(2 0 0 0 0)
2(2)
13.ELR 023228 Power Electronics
(2 0 0 0 0)
3(3)
14.ELR 021337 Photovoltaic Cells E
(2 0 0 0 0)
3(3)
15.ELR 021338 Industrial Ecology – Selected Issues
(1 0 0 0 1)
2(1,1)
Energy Sources
(2 0 0 0 1)
3(2,1)
17.ELR023110
Modeling of Electric Machines
(1 0 0 2 0)
3(1,2)
18.ELR022334
Energy Storage Systems E
(1 0 0 1 0)
3(2,1)
and DC Drives
E
6. ESN 001500 Advanced Technology in Electrical
and Security E
12.ELR 023312 Advanced Measurement in Electrical
Power Engineering
16.ELR 022537 Legal Regulations and Investments
in Power Systems with Distributed
*
) L-Lecture, T-Tutorial, Lab, P-Project, S-Seminar
Summer semester
Course code
Forms-hours/week
ECTS
(L T Lab P S)*
1. ELR 021332 Selected Problems of Circuit Theory E
(2 1 0
0 0)
4(3,1)
(1 0 2
0 0)
3(1,2)
(2 0 0
2 0)
5(3,2)
(2 0 0
0 0)
3(3)
and Sensors
(2 0 0
0 0)
2(2)
6. ELR 022331 Renewable Energy Sources
(2 0 0
0 1)
3(2,1)
(2 0 0
0 1)
3(2,1)
Energy Sources E
(1 0 0
0 1)
3(2,1)
9. ELR 022332 Water Power Plants
(2 0 0
0 1)
3(2,1)
10.ELR 022333 Renewable Energy Sources E
(2 0 0
0 1)
4(3,1)
(2 0 0
0 0)
2(2)
(2 0 0
0 0)
2(2)
(1 0 0
0 1)
2(1,1)
2. ELR 022133 Simulation and Analysis of Power
System Transients
3. ELR 022134 Digital Signal Processing
for Protection and Control
4. ELR 022231 Power System Protection
5. ELR 022232 Fiber Optics Communication
7. ELR 022531 Electric Power System Operation
and Control
8. ELR 022137 Protection and Control of Distributed
11.ELR 022536 Integration of Distributed Resources
in Power Systems
12.ELR 023313 Analog and Digital
Measurement Systems
13.ELR 023229 Electromechanical Systems
in Renewable Energy Sources
*
) L-Lecture, T-Tutorial, Lab, P-Project, S-Seminar
COURSE DESCRIPTIONS
Winter semester
1.
ELR021330
NUMERICAL AND OPTIMIZATION METHODS
Language: English
Course: Basic/Advanced
Year (I), semester (1)
Level: II
Obligatory/Optional
Teaching:
Prerequisites: Mathematics and Matlab course
Traditional/Distance L.
Lecturer: Tomasz Sikorski, PhD
Lecture
Tutorials
Project
Seminar
Laboratory
Hours / sem. (h)
15
Exam / Course work:
Test
ECTS
2
Workload (h)
60
Outcome: Ability of optimization algorithms implementation for constrained and unconstrained
problems.
Content: The course contains theoretical and practical aspects of solving optimization problems.
Optimization problem formulation, examples. Mathematical models. Unconstrained and
constrained problems. Solution of optimization problems: mathematical preliminaries, numerical
methods. Kuhn-Tucker conditions. Lagrangian duality. Selected algorithms for constrained
optimization. Linear programming, simplex method. Neural networks and Genetic algorithms for
optimization.
Literature:
1. E.K.P. Chong, S.H. Żak: An Introduction to Optimization, 2 nd edition, New York, John Wiley,
2001.
2. J.F. Bonnans: Numerical optimization: theoretical and practical aspects, Springer-Verlag, 2003.
3. M. Asghar Bhatti: Practical Optimization Methods, Berlin, Springer-Verlag 2000.
2.
ELR021331
POWER QUALITY ASSESSMENT
Language: English
Year (II), semester (3)
Level: II
Course: Basic/Advanced
Obligatory/Optional
Teaching:Traditional/Distan
ce L.
Prerequisites: Mathematics and Circuit Theory
Lecturer: Przemyslaw Janik, PhD
Lecture
Hours / sem. (h)
30
Exam / Course work:
Course work
ECTS
2
Workload (h)
60
Tutorials
Laboratory
Project
Seminar
Outcome: Understanding of the basic phenomena and practical engineering aspects of power
quality assessment in power systems.
Content: The course contains the basic problems and practical aspects of power quality assessment
in power systems. After an introduction and general basis, the following problems are presented:
classes of power quality problems, standards, interruptions, voltage sags, transient overvoltages,
harmonics, long duration voltage variations, flicker, power quality measurement, disturbances
mitigation methods, chosen algorithms for power quality assessment. A computer-based laboratory
supplements the course.
Literature:
1. Arrillaga J. Watson N. R.: Power System Quality Assessment, John Wiley & Sons, New York,
2000
2. Bollen M. H. J.: Understanding Power Quality Problems Voltage Sags and Interruptions, IEEE
Press, New York, USA, 2000.
3. Dugan R. C., McGranaghan M. F., Beaty H. W.: Electrical Power Systems Quality, McGrawHill, New York, USA, 1986.
3.
ELR022131
POWER SYSTEM FAULTS
Language: English
Year (I), semester (1)
Level: II
Course: Basic/Advanced
Obligatory/Optional
Teaching:
Traditional/Distance L.
Prerequisites: Circuit Theory
Lecturer: Prof. Jan Iżykowski, PhD, DSc
Lecture
Hours / sem. (h)
30
Exam / Course work/T:
Exam
ECTS
4
Workload (h)
60
Tutorials
Laboratory
Project
15
Seminar
Course work
2
30
Outcome: Gain basic knowledge regarding power system faults and basic information on the
devices such as digital fault recorders and fault locators. Deep familiarization with various
problems of power system faults analysis.
Content: The course consists of a lecture and project. The lecture deals with different aspects of
power system faults. Fault causes and effects together with classification of faults and analysis of
typical fault current wave-shape are delivered in the introduction. Then, the aims of fault
calculations and use of per units are specified. The methods used in fault analysis are described. In
particular it is focused on the symmetrical component method, for which equivalent diagrams of
power system components are described, and then symmetrical and unsymmetrical faults in
systems solidly grounded are analysed. Ground faults in networks with: isolated neutral point,
neutral point earthed by the compensation reactor and neutral point earthed by the resistor are
described. Reference of short-circuit calculations to the present standard is given. Basic
characteristic of the devices: digital fault recorder and digital fault locator are delivered. Main
issues relevant for transformation of fault currents and voltages by instrument transformers are
characterized. During the project students complete individual tasks aimed at deep familiarization
with the specific problems of power system faults analysis.
Literature:
1. J. D. Glover, M. Sarma: Power system analysis and design, PWS Publishing Company Boston,
second edition, 1994.
2. J. L. Blackburn: Symmetrical components for power systems engineering, Marcel Dekker, New
York 1993, Serie: Electrical Engineering and Electronics 85.
3. J-P. Barret, P. Bornard, B. Meyer: Power system simulation: Chapman and Hall, London 1997.
4. P. M. Anderson: Power system protection, IEEE Press, Power Engineering Series, New York
1999.
5. H. Ungrad, W. Winkler, A. Wiszniewski: Protection techniques in electrical energy systems,
Marcel Dekker Inc. New York, Basel, Hong Kong, 1995.
4.
ELR022132
DIGITAL CONTROL SYSTEMS
Language: English
Year (II), semester (3)
Level: II
Prerequisites: Completed courses: Fundamentals of Control
Engineering 1, 2
Lecturer: Marek Michalik, PhD, Mirosław Łukowicz, PhD
Lecture
Tutorials
Laboratory
Hours / sem. (h)
30
15
Exam / Course work:
Course work
Reports
ECTS
3
1
Workload (h)
30
90
Course: Basic/Advanced
Obligatory/Optional
Teaching:
Traditional/Distance L.
Project
Seminar
Outcome: Knowledge related to the digital control algorithms design for various types of digital
controllers.
Content: Structure of digital control systems, A/C and D/C conversion, conditioning and digital
filtering of input signals. Direct Digital Control: PID digital regulators, robust digital regulators,
fuzzy control, state variable feedback compensation, digital control with state observers.
Literature:
1. Kuo B.J.: Digital Control Systems. Hold. Reinhard and Winston Inc. 1981.
2. Santina M.S., Stubberud A.R., Hostetter G.H.: Digital Contriol Systems. Oxford University
Press.1994.
3. Aufi R.: Digital Control Systems. Prentice Hall. 2004.
4. Isermann R.: Digital Control Systems. Springer-Verlag. 1997.
5.
ELR023225
DYNAMICS AND CONTROL OF DC AND AC DRIVES
Language: English
Course: Basic/Advanced
Year (I), semester (1)
Level: II
Obligatory/Optional
Prerequisites: Control Theory-basics, Electrical Drives and Power
Teaching:
Traditional/Distance L.
Electronics
Lecturer: Prof. Teresa Orłowska-Kowalska, PhD, DSc
Lecture
Tutorials
Project
Seminar
Laboratory
Hours / sem. (h)
30
Exam / Course work:
Exam
ECTS
4
Workload (h)
120
Outcome: Knowledge of modern control methods DC and AC motor drives; problems of
sensorless drives, nonlinear controllers applications in electrical drives.
Content: Basics of control system synthesis problems for electrical drives. Control quality indexes
for electrical motors, static and dynamical optimization of electrical drives. Torque control
structures; adjustment criteria for linear controllers. Torque and speed control structures of
electrical drives; examples of technical realizations in DC and AC drives. Scalar and vector control
methods in AC drives with induction and permanent magnet synchronous motors. Field oriented
control and direct torque control of AC motors. State variables estimation for AC motor drives.
Electrical drives with microprocessor control. Artificial intelligence methods in electrical drives. In
laboratory tasks models and industrial solutions of automated electrical drives are demonstrated
and tested.
Literature:
1. Kaźmierkowski M.P., Tunia H., Automatic Control of Converter-fed Drives, Elsevier-PWN,
1994.
2. Orlowska-Kowalska T., Bezczujnikowe układy napędowe z silnikami indukcyjnymi, Oficyna
Wydawnicza P.Wr., Wrocław, 2003.
6.
ESN001500
ADVANCED TECHNOLOGY IN ELECTRICAL POWER GENERATION
Language: English
Course: Basic/Advanced
Year (I), semester (1)
Level: II
Obligatory/Optional
Teaching:Traditional/Distan
Prerequisites: Thermodynamics
ce L.
Lecturer: Halina Kruczek, PhD, DSc, Associate Professor
Lecture
Tutorials
Project
Seminar
Laboratory
Hours / sem. (h)
30
15
15
Exam / Course work/T:
ECTS
Workload (h)
Exam
Test
Course work
(Report)
3
90
1
30
1
30
Outcome: Knowledge, skills and design basics in the field of energy conversion and advanced
power production system with new zero emission concept, nuclear resources.
Content: This course covers fundamentals of thermodynamics, chemistry, flow and transport
processes as applied to energy systems. The topics include analysis of energy conversion in
thermo-mechanical, thermo-chemical, processes in existing and future power systems, with
emphasis on efficiency, environmental impact and performance. Systems utilizing fossil fuels,
nuclear resources, over a range of sizes and scales are discussed. Applications include combustion,
hybrids, supercritical and combined cycles IGCC.
Tutorials and the project supplement the
lecture.
Literature:
1. Fundamentals of Heat and Mass Transfer, Frank P. Incropera, David P. DeWitt, John Wiley &
Sons, 1996
2. Thermodynamics and heat power, Granet, Irving., Pearson Prentice Hall, cop. 2004.
3. Energy Hndbook, Robert Loftness, 1983.
Steam its generation and use, The Bacock &Wilcox Company a McDermott company ed. By J.B. Kitto
and S.C. Stultz ed. 41, 2005.
7.
ELR021120
ADVANCED HIGH VOLTAGE TECHNOLOGY
Language: English
Course: Basic/Advanced
Year (II), semester (3)
Level: II
Obligatory/Optional
Prerequisites: Mathematics and Physics and Electrotechnics
Teaching:
Traditional/Distance L.
Fundamentals
Lecturer: Prof. Bolesław Mazurek, PhD, DSc
Hours / sem. (h)
Exam /T:
ECTS
Workload (h)
Lecture
30
Tutorials
Laboratory
Project
Seminar
Exam
3
90
Outcome: Acquaintance with the modern methods of generation and measurement of high voltage.
Knowledge about the application of high electric fields in industry technological processes, in
agriculture, medicine and science.
Content: The course discusses the newest technology issues and knowledge necessary for electrical
engineers. Generation of high voltage and high voltage measurement techniques will be discussed.
Electrical field distribution and electrical field control methods will also be presented. A significant
part of the lecture is the presentation of electrical discharges in gases, fluids, vacuum and solid
dielectrics. The transmission DC lines and high electrical field application for technology processes
will be shown as examples of practical high voltage engineering. A few laboratory trainings
supplement the course, giving the possibility to measure the voltages up to a few hundred kV.
Literature:
1. Haddad A., Warne D., Advances in High Voltage Enginering. Institution of Electrical
Engineers 2004.
2. Kuffel E., Zaengl W.S., Kuffel J., High Voltage Fundamentals. Newnes 2003.
3. Beyer M., Boeck W., Moeller K., Zaengl W., High voltage engineering. Springer 1986.
8.
ELR022135
ARTIFICIAL INTELLIGENCE TECHNIQUES
Language: English
Year (II), semester (3)
Level: II
Prerequisites: Completed courses: Mathematics, Circuit Theory,
Fundamentals of Control Engineering
Lecturer: Waldemar Rebizant, PhD, DSc, Associate Professor
Lecture
Tutorials
Laboratory
Hours / sem. (h)
30
Exam / Course work:
Course work
ECTS
2
Workload (h)
90
Course: Basic/Advanced
Obligatory/Optional
Teaching:
Traditional/Distance L.
Project
15
Project
1
30
Seminar
Outcome: The students are expected to present the knowledge on the theory of artificial
intelligence techniques with a special attention to their application in power system protection and
control problems.
Content: The course covers the following items: introduction to artificial intelligence techniques in
power system control; Expert Systems – main features, structure, inference methods, strategies for
conflict resolving, application fields; systems based on Fuzzy Logic – fuzzy signals, membership
functions, fuzzy settings, fuzzification and defuzzification methods, multicriterial algorithms;
Artificial Neural Networks – main features, neurone types, activation functions, neural network
architectures, learning methods, application fields; Genetic Algorithms – evolutionary strategies,
genetic modifications, application examples; Hybrid Intelligent Schemes; application examples of
intelligent techniques described for power system protection and control purposes.
Literature:
1. Pao Y.A.: “Adaptive Pattern Recognition and Neural Networks”, Addison-Wesley, Reading,
MA, 1989.
2.
3.
4.
5.
Yager R.R. and Filev D.P.: ”Essentials of Fuzzy Modelling and Control”, J. Wiley & Sons, Inc.,
New York, USA, 1994.
Ringland G.A. and Duce D.A. (ed. By): “Approaches to Knowledge Representation: An
Introduction”, Research Studies Press Ltd., Wiley & Sons, Chichester, England, 1988.
Dillon T.S. and Niebur D. (edited by): “Neural Network Applications in Power Systems”, CRL
Publishing Ltd., London, 1996.
Cichocki A., Unbehauen R.: “Neural Networks for Optimization and Signal Processing”, John
Wiley & Sons, 1993.
9.
ELR022233
POWER SYSTEM AUTOMATION AND SECURITY
Language: English
Course: Basic/Advanced
Year (II), semester (3)
Level: II
Obligatory/Optional
Teaching:
Prerequisites: completed courses: Power System Protection
Traditional/Distance L.
Lecturer: Prof. Bogdan Miedziński, PhD, DSc
Lecture
Tutorials
Project
Seminar
Laboratory
Hours / sem. (h)
30
15
Exam / Course work:
ECTS
Workload (h)
Exam
Course work
(Report)
3
120
1
30
Outcome: The students are expected to present the knowledge of the transient phenomena
encountered in power systems and related protection and control concepts, as well as to know
what methods/systems should be applied to assure the safe operation of power systems.
Content: The course is intended to acquaint students with modern concepts in sensing and contact
units components, convertors for digital protections, security problems, trends in substation
automation as well as preventive and adaptive protection systems related to power system
automation applications. The course describes chosen protection engineering problems of special
interest to the student and provides students with a background for further study in science and
applications.
Literature:
1. KTV Grattan, Sensors-technology, systems and Applications, A.Hilger IOP Publishing Ltd,
1991.
2. Power System Protection, volume 4: Digital protection and aisz ng , Short Run Press Ltd,
Exeter, 1997.
3. H.Ungrad, W.Winkler, A.Wiszniewski: Protection techniques in electrical energy systems,
Marcel Dekker Inc. New York, Basel, Hong Kong, 1995.
4. Selected papers published in renowned international journals.
10.
ELR022532
ELECTRICAL POWER SYSTEMS MANAGEMENT
Language: English
Course: Basic/Advanced
Year (II), semester (3)
Level: II
Obligatory/Optional
Teaching:Traditional/Distan
Prerequisites: Power Systems
ce L.
Lecturer: Prof. Artur Wilczyński, PhD, DSc
Lecture
Tutorials
Project
Seminar
Laboratory
Hours / sem. (h)
Exam / Course work/T:
ECTS
Workload (h)
15
Test
1
30
15
Course work
1
30
Outcome: Knowledge about management problems at energy companies after power system
restructuring.
Content: Organization of power sector. Introduction to the deregulation and restructuring of
power sector. Development of electricity market. Examples of electricity markets. Tasks of
transmission and distribution system operators. Regulation of
the electricity industry.
Organization of access to the system. Electricity price mechanism, transmission pricing principles.
System planning under competition.
Literature:
1. Malko J., Wilczyński A., Rynki energii – działania marketingowe. Oficyna Wydawnicza
Politechniki Wrocławskiej, Wrocław 2006.
2. S. Hunt, G. Shuttleworth: Competition and choise in electricity, John Wiley & Sons, Chichester
– New York – Weinheim – Brisbane – Singapore – Toronto, 1997.
3. M. Ilic, F. Galiana, L. Fink: Power systems restructuring, engineering and economics, KLUWER
Academic Publishers, Boston – Dordrecht – London, 1998.
4. Directive 2003/54/EC of the European Parliament and of the Council, of 26 June 2003,
concerning common rules for the internal market in electricity and repealing Directive
96/92/EC.
5. Philipson L., Willis H. L.: Understanding Electric Utilities and De-Regulation. Marcel Dekker,
Inc., New York 1999.
11.
ELR023311
ELECTROMAGNETIC COMPATIBILITY
Language: English
Year (II), semester (3)
Level: II
Prerequisites: Completed courses: Mathematics, Circuit Theory and
High Voltage Engineering
Lecturer: Grzegorz Kosobudzki, PhD
Lecture
Tutorials
Laboratory
Hours / sem. (h)
30
Exam / Course work/T:
Course work
ECTS
2
Workload (h)
60
Course: Basic/Advanced
Obligatory/Optional
Teaching:
Traditional/Distance L.
Project
Seminar
15
Course work
1
30
Outcome: Acquaintance with practical aspects of EMC and power quality in power delivery
systems.
Content: The course contains the basic problems and practical aspects of electromagnetic
compatibility
Content: The course contains the basic problems and practical aspects of electromagnetic
compatibility EMC. The following problems are presented: electromagnetic disturbances caused by
lighting strikes and electrostatic discharges; EMC phenomena generated by converter fed drives;
methods of electrical and electronic equipment protection from overvoltages and overcurrents;
aspects of electromagnetic shielding; power quality parameters, requirements, standards; influence
of power quality phenomena on equipment; non-linear devices influence on power quality;
disturbances mitigation techniques; harmonics reduction; measurements
Literature:
1.
2.
3.
Hasse P.: Overvoltage protection of low voltage systems, TJ International, Padstown, 2000.
Pradas Kodali V.: Engineering Electromagnetic Compatibility Principles, Measurments and
Technology, IEEE Press, New York, 1996.
Dugan R. C., McGranaghan M. F., Beaty H. W.: Electrical Power Systems Quality, McGrawHill, New York, USA, 1986.
12.
ELR023312
ADVANCED MEASUREMENTS IN ELECTRIC POWER ENGINEERING
Language: English
Course: Basic/Advanced
Year (II), semester (3)
Level: II
Obligatory/Optional
Teaching: T
Prerequisites: Mathematics and Circuit Theory
raditional/Distance L.
Lecturer: Prof. Nawrocki Zdzisław, PhD, DSc, Prof. Fleszyński Janusz, PhD, DSc
Lecture
Tutorials
Seminar
Laboratory Project
Hours / sem. (h)
30
Exam / Course work:
Course work
ECTS
2
Workload (h)
90
Outcome: Knowledge of the basic problems and practical aspects of analogue and digital
measurement.
Content: The course deals with the basic problems and practical aspects of analogue and digital
measurement. After introduction and general theoretical part, the following practical problems are
presented: problems measurement of voltage and current (DC and AC), and power meter. The
following subjects are presented in the course: high voltage measurements, diagnostic tests of high
voltage equipment insulation. The course familiarizes the students with the measurement and
generation methods of high voltage, the partial discharges investigation. Special emphasis is put on
the presentation of the physical and metrological fundaments of different kinds of diagnostic test
(electric, acoustic, optoelectronic, physico-chemical), the detection of various defects in the
insulation of equipment, problems of modern diagnostic.
Literature:
1. J. Mc. Ghee, I.A. Henderson, M. J. Korczyński, W. Kulesza: Scientific metrology, Technical
University of Lodz, Lodz, 1998.
2. Mc. Ghee, I. A. Henderson, M.J. Korczyński, W.Kulesza: Measurement data handling, vol. 1
and vol.2, Technical University of Lodz, Lodz, 2001
3. N. Kularanta: Digital and analogue instrumentation. IEE, London, 2003.
4. D. Kind: An introduction to high voltage experimental technique, Vieweg 1980.
5. E. Kuffel, W.S. Zaengel, J. Kuffel: High Voltage Engeneering Fundaments, Elsevier, 2000
13.
ELR023228
POWER ELECTRONICS
Language: English
Year (I), semester (1)
Level: II
Course: Basic/Advanced
Obligatory/Optional
Teaching: Traditional
supporting e-learning
/Distance L.
Prerequisites: Electronics
Lecturer: Zbigniew Załoga, PhD
Lecture
Hours / sem. (h)
30
Tutorials
Laboratory
Project
Seminar
Exam / Course work/T:
ECTS
Workload (h)
Course work
3
60
Outcome: intensify theoretical and practical knowledge about power electronics systems.
Content: Contains: semiconductor power switchers: SCR, TRIAC and BJT, MOSFET, IGBT.
Complementary components and systems. Converters: rectifiers, AC-controllers, choppers,
inverters. Common application of converters, also for renewable energy sources systems.
Literature:
1. N. Mohan, T. M.Undeland, W.P. Robbins, Power Electronics. Converters, Applications, Design,
John Wiley & Sons, Inc. 1995
2. A.M. Trzynadlowski, Introduction to Modern Power Electronics, John Wiley & Sons, Inc. 1998
14.
ELR021337
PHOTOVOLTAIC CELLS (E)
Language: English
Year (II), semester (3)
Level: II
Course: Basic/Advanced
Obligatory/Optional
Teaching:
Traditional/Distance L.
Prerequisites: Power Systems
Lecturer: Przemysław Janik, PhD
Lecture
Hours / sem. (h)
30
Exam / Course work/T:
Exam
ECTS
3
Workload (h)
60
Tutorials
Laboratory
Project
Seminar
Outcome: Introduce photovoltaic effect and the operation principles of photovoltaic cells; Describe
the fabrication technology of photovoltaic cells and photovoltaic batteries, their characteristics and
parameters; Identify the effect of various factors on the conversion efficiency of photovoltaic
devices; Explain construction and production steps of photovoltaic modules; Describe
transformation and storage of electrical energy from photovoltaic modules; Discuss construction of
concentrating solar power systems.
Content: Introduction of basic concepts and energy units; Identification of energy sources, analysis
of energy resources and their influence on the environment; Characterization of the solar radiation
and the properties of the earth’s atmosphere; Description of the photovoltaic effect and the basic
physical models of solar cells. Review of technologies, the parameters and characteristics of the
photovoltaic cells; Description of factors affecting efficiency of photovoltaic energy conversion;
Description of construction and production steps for photovoltaic modules, methods of energy
storage and conversion.
Literature:
1. S.R. Wenham, M.A. Greek, M.E. Watt, R. Corkish,, Applied Photovoltaics, Earthscan, London
2009
2. J.D. Myers, Solar Applications In Industry and Commerce, Prentice-Hall, New Jersey 1984
3. V.D. Hunt , Handbook of Conservation nad Solar Energy, Van Nostrand Reinhold, New York 1982
15.
ELR021338
INDUSTRIAL ECOLOGY – SELECTED ISSUES (E)
Language: English
Course: Basic/Advanced
Year (II), semester (3)
Level: II
Obligatory/Optional
Teaching:
Traditional/Distance L.
Prerequisites: none
Lecturer: Zbigniew Leonowicz, PhD
Lecture
Hours / sem. (h)
15
Exam / Course work/T:
ECTS
Workload (h)
Exam
1
60
Tutorials
Laboratory
Project
Seminar
15
Course work
(Presentation)
1
30
Outcome: Knowledge of various aspects of industrial ecology. Capability of analysis and
recognition of problems related to waste reduction and modeling of industrial processes in
accordance with principles of laws of nature.
Content: Fundamentals of industrial ecology- the science of sustainability in industrial and
engineering problems. The aims of industrial ecology are: minimizing of energy and materials
usage, ensuring acceptable quality of life, minimizing the ecological impact of human activity &
maintaining the economic viability of systems.
Literature:
1. Allenby B, Allenby R, Deanna J.: The Greening of Industrial Ecosystems, National Academy
Press, Washington, 1994
2. IEEE White Paper on Sustainable Development and Industrial Ecology, IEEE 1995
3. Frosch R.A., “Industrial Ecology: A Philosophical Introduction,” Proceedings of the National
Academy of Sciences, USA 89 (February 1992): 800–803
16.
LEGAL REGULATIONS AND INVESTMENTS IN POWER SYSTEMS
WITH DISTRIBUTED ENERGY SOURCES
Language: English
Course: Basic/Advanced
Year (II), semester (3)
Level: II
Obligatory/Optional
Teaching:
Prerequisites: Power Systems
Traditional/Distance L.
Lecturer: Prof. Artur Wilczyński, PhD, DSc
Lecture
Tutorials
Project
Seminar
Laboratory
Hours / sem. (h)
15
15
Course work
Exam / Course work/T:
Course work
(Presentation)
ECTS
2
1
Workload (h)
30
30
ELR022537
Outcome: Obtaining knowledge in the field: national and union legal, technical and economical
conditions for construction of technological systems using renewable energy sources for supply as
well as principles of investment project for distributed and dispersed generation.
Content: The fundamentals of legal regulations in the field of usage of renewable energy sources in
power systems, European Union and national legal documents in the field of renewable energy
sources, principles of well-balanced expansion. Renewable energy sources on electricity and heat
markets as well as investment process in distributed and dispersed power systems with application
of renewable energy sources (conception, formal and legal requirements, financing, realization) are
also discussed.
Literature:
1. G. Boyle: Renewable Energy – Power for a sustainable future, Second Edition, Oxford
2.
3.
4.
University Press Inc. New York, 2004
T. Burton, D. Sharpe, N. Jenkins, E. Bossanyi: Wind Energy Handbook, John Wiley and Sons
Ltd. Chichester, England, 2001.
A. Luque, S. Hegedus: Handbook of photovoltaic science and engineering, John Wiley and
Sons Ltd. Chichester, England, 2003.
T. Markvart: Solar electricity, Second Edition, UNESCO, John Wiley and Sons Ltd. New York,
2000.
17.
ELR022110
MODELLING OF ELECTRICAL MACHINES
Language: English
Year (II), semester (3)
Level: II
Prerequisites: Completed basic courses of Engineering Graphics,
Informatics and Electrical Engineering
Lecturer: Krzysztof Makowski, PhD, DSc, Associate Professor
Lecture
Tutorials
Laboratory
Hours / sem. (h)
15
Exam / Course work/T:
Course work
ECTS
1
Workload (h)
30
Course: Basic/Advanced
Obligatory/Optional
Teaching: Traditional with
using of multimedia
/Distance L.
Project
30
Course work
2
60
Seminar
Outcome: To learn principles of present-day methods of electromagnetic modeling of electrical
machines.
Content: Mathematical grounds of electromagnetic field theory, electromagnetic quantities and
Maxwell’s equations. Outline of the finite element method (FEM) and its application to
magnetostatic and magnetodynamic linear and non-linear problems. Field-circuit equations of
electromechanical converters with taking into account movement of moving parts of the converter.
Methods for calculation of electromagnetic torque and power losses. General rules for formulation
of field models of the converters and presentation some examples of aisz ng of electromechanical
converters by FEM.
Literature:
1. Di Barbra P., Savini A., Wiak S. : Field models in electricity and magnetism, Springer, 2008
2. Bolkowski S. i inni : Komputerowe metody analizy pola elektromagnetycznego, WNT, Warszawa,
1993
3. Hameyer K., Belmans R.: Numrical modeling and design of electrical machines and devices, WITT
Press, Southampton, 1999
4. Lowther D.A., Silvester P.P.: Computer aided design in magnetics, Springer-Verlag, Berlin Heidelberg New
York Tokyo, 1986.
5. Silvester P.P., Ferrari R.L.: Finite elements for electrical engineers, Cambridge University Press, Cambridge, 1983.
18.
ELR022334
ENERGY STORAGE SYSTEMS
Language: English
Year (I), semester (2)
Level: II
Course: Basic/Advanced
Obligatory/Optional
Teaching:
Traditional/Distance L.
Prerequisites: Electrical devices
Lecturer: Kazimierz Herlender, PhD
Lecture
Hours / sem. (h)
15
Tutorials
Laboratory
Project
30
Seminar
Exam / Course work/T:
Course work
(Project
documentation)
Test
ECTS
2
1
Workload (h)
60
30
Outcome: Main aims of the course are get to know of different kinds enrgy storage systems and
basic of battery energy storage design.
Content: Classification and main characteristic different kinds of electrical energy storage in power
system, such as: pumped hydro energy storage, flywheel systems, compresses air systems (CAES),
fuel cell, Superconducting Magnetic Energy Storage (SMES), ultra capacitors and Battery Energy
Storage (BES),. Compared the main parameters this energy storage and given possible areas their
applications.
Literature:
1. Batterie-Energiespeicher in der Elektrizitätsversorgung – Kompendium, H.-J. Haubrich
[Hrsg], Verlag Mainz, Aachen 1996
2. Proceedings of EU-Project ICOP-DISS-2140-96, Distributed Energy Storage for Power Systems,
Pod red. Feser K., Styczyński Z. A., Verlag aisz, Aachen 1998.
3. Markiewicz H. Urządzenia elektroenergetyczne. WNT, Warszawa 2001.
Summer semester
1.
ELR1311
SELECTED PROBLEMS OF CIRCUIT THEORY
Language: English
Course: Basic/Advanced
Year (I), semester (2)
Level: II
Obligatory/Optional
Prerequisites: Mathematics and Differential Equations and Linear
Teaching:
Traditional/Distance L.
Algebra and Basic Circuit Theory
Lecturer: Tomasz Sikorski, PhD
Lecture
Tutorials
Project
Seminar
Laboratory
Hours / sem. (h)
30
15
Exam / Course work:
Exam
Test
ECTS
3
1
Workload (h)
90
60
Outcome: Ability of carrying out synthesis of electrical circuits with the optimization approach,
knowledge about phenomena in nonlinear circuits, selected methods of analysis.
Content: The course deals with selected problems of Synthesis of Linear Circuits & Systems, as well
as Analysis of Nonlinear Electrical Circuits - theoretical and practical aspects of linear circuits
design based on different methods and requirements. Furthermore, the course discusses the aspects
of nonlinear circuits’ analysis and structures, with practical examples and exercises.
Literature:
1. L.A. Chua, C.A. Desoer, E.S. Kuh: Linear ad Nonlinear Circuits, New York : McGraw-Hill Book
Co., 1987.
2. H. Baher: Synthesis of Electrical Networks, New York: J. Wiley, 1984.
3. F. Kouril, K. Vrba.: Non-Linear And Parametric Circuits : Principles, Theory And Applications,
Chichester : Ellis Horwood, 1988.
2.
ELR2110
SIMULATION AND ANALYSIS OF POWER SYSTEM TRANSIENTS
Language: English
Course: Basic/Advanced
Year (I), semester (2)
Level: II
Obligatory/Optional
Prerequisites: Linear Algebra, Differential Equations, Numerical
Teaching:
Traditional/Distance L.
Methods for Linear and Nonlinear Equations
Lecturer: Prof. Eugeniusz Rosołowski, PhD, DSc
Lecture
Tutorials
Project
Seminar
Laboratory
Hours / sem. (h)
15
15
Exam / Course work:
Course work
Course work
ECTS
1
1
Workload (h)
30
30
Outcome: Understanding of digital models for the simulation of electromagnetic transients in
complex three-phase electric networks, ability of applying the models for practical problems in
power systems.
Content: The course consists of a lecture and a project. Both of these forms deal with the following
problems: modelling of physical systems - basic principles; numerical oscillation and accuracy of
discrete models; digital models of basic electric elements with lamped and distributed parameters;
models of selected three-phase system elements: lines, transformers, generators; models of nonlinear electric elements: diodes, thyristors, varistors and non-linear inductance; numerical methods
used in EMTP program for linear and non-linear network equation solution; EMTP application to
simulation of selected problems with using of basic network elements: transmission line,
transformer, generator, instrument transformers; using of ATP Draw program for the preparation
of simulation cases; using of MODELS module for the simulation of auxiliary procedures:
measurement, control and protection; analysis of simulation results: PLOTXY program; EMTPMATLAB interface. During the laboratory students complete individual tasks aimed at deep
familiarization with the specific problems of electromagnetic transients analysis in power systems.
Literature:
1. N. Watson, J. Arrillaga: Power systems electromagnetic transients simulation. The Institution of
Electrical Engineers, London 2003.
2. H.W. Dommel: Electromagnetic Transients Program. Reference Manual. BPA, Portland, 1986.
3. J. D. Glover, M. Sarma: Power system analysis and design, PWS Publishing Company Boston,
second edition, 2002.
4. W. D. Stevenson: Elements of Power System Analysis (4th Ed.). McGrawHill, New York, 1982.
5. J-P. Barret, P. Bornard, B. Meyer: Power system simulation: Chapman and Hall, London 1997.
3.
ELR2111
DIGITAL SIGNAL PROCESSING FOR PROTECTION AND CONTROL
Language: English
Course: Basic/Advanced
Year (I), semester (2)
Level: II
Obligatory/Optional
Prerequisites: Completed courses: Mathematics and Circuit Theory
Teching:
Traditional/Distance L.
and Informatics
Lecturer: Prof. Andrzej Wiszniewski, PhD, DSc, Waldemar Rebizant, PhD, DSc, Associate Professor
Lecture
Tutorials
Project
Seminar
Laboratory
Hours / sem. (h)
30
15
Exam / Course work/T:
ECTS
Workload (h)
Exam
Course work
(Report)
4
120
1
30
Outcome: As an effect of the course completion, the students are expected to possess the
knowledge on the theory of digital signal processing as applied to power system control and
protection systems. The students should show the ability of choosing proper algorithms of signal
processing for given practical problems encountered in power system protection and control.
Content: The course deals with basic problems and practical aspects of digital signal processing for
power system protection and control. After an introduction and general theoretical and numerical
basis, the following practical problems are presented: analog filtration, A/D conversion, digital
filtration (FIR & IIR filters design and parameters), estimation of signal parameters (criterion
values), decision making methods and algorithms, chosen algorithms of power system control,
integrated measurement and control systems. A computer-based laboratory supplements the
course.
Literature:
1. H. Ungrad, W. Winkler, A. Wiszniewski: “Protection techniques in electrical energy systems”,
Marcel Dekker Inc. New York, Basel, Hong Kong, 1995.
2. T. Krauss, L. Shurc, J. Little: Signal processing toolbox for use with Matlab, Users Guide.
3. L.B. Jackson: Digital filters and signal processing, Kluwer Academic Publishers, Boston, 1986.
4.
ELR2210
POWER SYSTEM PROTECTION
Language: English
Course: Basic/Advanced
Year (I), semester (2)
Level: II
Obligatory/Optional
Prerequisites: Grounded knowledge on electricity and a passing grade
Teaching:
of: Electrical Measurement, Electrical Machines, Electrical Devices and
Traditional/Distance L.
Electrical Power Systems
Lecturer: Prof. Bogdan Miedziński PhD, DSc
Lecture
Tutorials
Project
Seminar
Laboratory
Hours / sem. (h)
30
15
Exam / Course work/T:
Exam
Course work
ECTS
4
2
Workload (h)
120
60
Outcome: Understanding principles of protective relaying in power system, ability of designing
and setting of protection schemes for various power system elements.
Content: Objects and tasks of power system protection. Main requirements regarding power
system relaying. Converters of measurement quantities for protection needs. Main criteria for
detecting faults. Relaying principles of main power system elements, i.e.: generators, transformers,
high voltage motors, distribution and transmission lines. Power system protection in preventive
and restoration mode – objectives and general application principles.
Literature:
1. Ungrad H., Winkler W., Wiszniewski A., Protection techniques in electrical energy systems,
Marcel Dekker Inc., New York 1995.
2. Horowitz S. H., Phadke A.G., Power system relaying, RSP England 1992.
3. Praca zbiorowa pod red. B. Synala, Automatyka elektroenergetyczna, ćwiczenia laboratoryjne,
część I: Przetworniki sygnałów pomiarowych i przekaźniki automatyki zabezpieczeniowej,
część II: Układy automatyki zabezpieczeniowej i regulacyjnej skrypt Politechniki Wrocł.,
Wrocław 1991.
5.
ELR2211
Language: English
FIBER OPTICS COMMUNICATIONS AND SENSORS
Course: Basic/Advanced
Year (I), semester (2)
Level: II
Obligatory/Optional
Teaching:
Prerequisits: Applied Physics, Electronics and Electromagnetic Theory
Traditional/Distance L.
Lecturer: Prof. Bogdan Miedziński, PhD, DSc
Lecture
Tutorials
Project
Seminar
Laboratory
Hours / sem. (h)
30
15
Exam / Course work:
Course work
Course work
ECTS
2
1
Workload (h)
60
30
Outcome: Acquaintance with the problems of processing and transmission of information by
means of the fibre optic technique and applicability of fibre sensors in practice.
Content: Wave theory of light propagation. Signals transmission and processing. Problems of
generation and detection. Communication systems; expanding the system capacity by
multiplexing. Optical phenomena used in fibre sensors, applicability of right and remote sensors in
practice
Literature:
1. Chai Yeh:”Handbook of fiber optics-theory and applications”,Accademic Press.Inc.London
1990.
2. J.L.Hornet:”Optical signal processing”Academic Press Inc.London,1987
3. CIGRE Working Group 35.04:”Optical fibre cable selection for electricity utilities”,Febr.2001.
6.
ELR2312
RENEWABLE ENERGY SOURCES
Language: English
Year (I), semester (2)
Level: II
Course: Basic/Advanced
Obligatory/Optional
Teaching:
Traditional/Distance L.
Prerequisites: Applied Statistics
Lecturer: Prof. Zbigniew Styczyński, PhD, DSc
Lecture
Tutorials
Hours / sem. (h)
30
Exam / Course work/T:
Course work
Laboratory
Project
Seminar
15
Course
work
ECTS
2
1
Workload (h)
60
30
Outcome: Understanding of problems concerned with renewable energy sources.
Content: The course deals with the basic problems and practical aspects of renewable energy
sources. After an introduction and general theoretical basis, the following problems are presented:
wind energy, solar energy, biomass energy, geothermal energy and wave energy. Presentations
contain: introduction, scientific principles of work, energy conversion, advantages and
disadvantages, technology, applications, examples of energy projects, economics, environmental
impacts and benefits. The seminar supplements the course.
Literature:
1. J. Twidell, T. Weir: Renewable Energy Resources, Seventh Edition, Spon Press, London, 2005.
2. T. Burton, D. Sharpe, N. Jenkins, E. Bossanyi: Wind Energy Handbook, John Wiley and Sons
Ltd. Chichester, England, 2001.
3. Luque, S. Hegedus: Handbook of photovoltaic science and engineering, John Wiley and Sons
Ltd. Chichester, England, 2003.
7.
ELR2518
ELECTRIC POWER SYSTEM OPERATION AND CONTROL
Language: English
Course: Basic/Advanced
Year (I), semester (2)
Level: II
Obligatory/Optional
Teaching:
Prerequisites: Programming in Matlab and Electric Power Systems
Traditional/Distance L.
Lecturer: Prof. Marian Sobierajski, PhD, DSc
Lecture
Tutorials
Project
Seminar
Laboratory
Hours / sem. (h)
30
15
Exam / Course work:
Test
Test
ECTS
4
Workload (h)
120
Outcome: Knowledge of control and regulation of voltage and frequency in transient states.
Content: Steady-state and short-circuit analysis. Voltage regulation and voltage stability. Exciters
and voltage regulators. Speed regulators. Dynamic and transient stability.
Literature:
1. Machowski J., Bialek J. W., Bumby J. R., Power System Dynamics and Stability. John Wiley and
Sons 1997.
2. Sobierajski M., Łabuzek M., Lis R., Electric Power System Analysis in Matlab, Wroclaw
University of Technology, 2007.
8.
ELR2141
PROTECTION AND CONTROL OF DISTRIBUTED ENERGY SOURCES
Language: English
Course: Basic/Advanced
Year (I), semester (2)
Level: II
Obligatory/Optional
Teaching:
Prerequisites: Power system faults
Traditional/Distance L.
Lecturer: Prof. Eugeniusz Rosołowski, PhD, DSc
Lecture
Tutorials
Project
Seminar
Laboratory
Hours / sem. (h)
15
15
15
Exam / Course work/T:
ECTS
Workload (h)
Exam
Course work
Course
work
3
90
1
30
1
30
Outcome: The course provides descriptions of protection relaying techniques applied in distributed
generation networks.
Content: The course consists of the lecture, lab and seminar. All these forms deal with the
following problems: The purpose of power system protection. Basic protection criteria and main
characteristics. Distributed generation: overview of applied energy sources. Line, transformer and
generator protection. Interconnection systems: solutions and requirements. Loss of mains
protection: applied criteria for islanding detection. Protection of photovoltaic sources. In this course
the focus is on the issues relating to the power system protection including both the network
protection and the protection of distributed generation.
Literature:
1. Jenkins N. Allan R., Crossley P., Kirschen D., and Strbacet G., Embedded generation. The
Institution of Electrical Engineers, London 2000.
2. Anderson P.M., Power System Protection, McGraw-Hill, IEEE Press, 1999
3. Bergen A.R., Vittal V., Power systems analysis. Prentice Hall, Upper Saddle River, N.J., 2000.
4. Patel M.R., Wind and Solar Power Systems. CRC Press, Boca Raton 1999.
9.
ELR2343
WATER POWER PLANTS
Language: English
Year (I), semester (2)
Level: II
Course: Basic/Advanced
Obligatory/Optional
Teaching:
Traditional/Distance L.
Prerequisites: Electrical devices
Lecturer: Kazimierz Herlender, PhD
Lecture
Hours / sem. (h)
30
Exam / Course work/T::
ECTS
Workload (h)
Tutorials
Laboratory
Project
Seminar
15
Course work
Course
work
2
60
1
30
Outcome: To get basic knowledge of design, building and exploiting of hydro power stations.
Content: The scope of the obeys problems of design, building and exploiting of hydro power
stations, including estimation of hydrology potential of water, construction of basic hydro technical
and electrical equipment, classification of hydro plants and types of turbines, basic problems of
hydro plants automation and control (including control of turbines and generators); problems of
planning of small hydro plants – law, procedures, feasibility studies.
Literature:
1. Bobrowicz Władysław, Small Hydro Power – Investor Guide Leonardo Energy, Utilisation
Guide Section 8 – Distributed Generation, Autumn 2006
2. Harvey A., Micro-hydro power, 2004,
3. Allan. Undershot Water Wheel. 2008
4. Shannon, R. Water Wheel Engineering. 1997
5. Pacey, A. Technology in World Civilization: A Thousand-year History, 1997
10.
ELR2345
RENEWABLE ENERGY SOURCES
Language: English
Year (I), semester (2)
Level: II
Course: Basic/Advanced
Obligatory/Optional
Teaching:
Traditional/Distance L.
Prerequisites: Applied Statistics
Lecturer: Prof. Zbigniew Styczyński, PhD, DSc
Lecture
Tutorials
Hours / sem. (h)
30
Exam / Course work/T:
Exam
Laboratory
Project
Seminar
15
Course
work
ECTS
3
1
Workload (h)
90
30
Outcome: Understanding of problems concerned with renewable energy sources.
Content: The course deals with the basic problems and practical aspects of renewable energy
sources. After an introduction and general theoretical basis, the following problems are presented:
wind energy, solar energy, biomass energy, geothermal energy and wave energy. Presentations
contain: introduction, scientific principles of work, energy conversion, advantages and
disadvantages, technology, applications, examples of energy projects, economics, environmental
impacts and benefits. The seminar supplements the course.
Literature:
4.
5.
6.
J. Twidell, T. Weir: Renewable Energy Resources, Seventh Edition, Spon Press, London, 2005.
T. Burton, D. Sharpe, N. Jenkins, E. Bossanyi: Wind Energy Handbook, John Wiley and Sons
Ltd. Chichester, England, 2001.
Luque, S. Hegedus: Handbook of photovoltaic science and engineering, John Wiley and Sons
Ltd. Chichester, England, 2003.
11.
ELR2541
INTEGRATION OF DISTRIBUTED RESOURCES IN POWER SYSTEMS
Language: English
Course: Basic/Advanced
Year (I), semester (2)
Level: II
Obligatory/Optional
Prerequisites: Electrical Power System, Power system faults, Power
Teaching:
Traditional/Distance L.
system protection, Energy Production
Lecturer: Prof. Marian Sobierajski, PhD, DSc
Lecture
Tutorials
Project
Seminar
Laboratory
Hours / sem. (h)
30
15
Exam / Course work/T:
Test
Course work
ECTS
3
1
Workload (h)
90
30
Outcome: Familiarize students with problems and technical aspects for integrating of distributed
energy resources in power systems.
Content: Classification of distributed energy resources (DER). Aimed level penetration of DER in
electric power system. Wind generation. Modeling of DER. Schemes and points of connection of
distributed generation to a distribution system. Load flow and short circuit simulation in electric
power network with dispersed generation. Analysis of impact of distributed generators on power
load flow, short-circuit currents, voltage changes, power quality and protection of distribution
network. Technical requisites for producer connection to the public electric power grids. Influence
of DER on frequency regulation in electric power system. Autonomous operation of distributed
generators. Microgrids.
Literature:
1. Jenkins N., Allan R., Crossley P., Kirschen D., Strbac G.: Embeded Generation. Power &
Energy 2000.
2. Loi Lei Lai, Tze Fun Chan: Distributed Generation. 2007 John Wiley & Sons, Ltd.
12.
ELR3352
ANALOGUE AND DIGITAL MEASUREMENT SYSTEMS
Language: English
Course: Basic/Advanced
Year (I), semester (2)
Level: II
Obligatory/Optional
Prerequisites: Basis of electrical engineering, Basis of electronics,
Teaching:
Traditional/Distance L.
electrical measurements
Lecturer: Daniel Dusza, PhD
Lecture
Tutorials
Project
Seminar
Laboratory
Hours / sem. (h)
30
15
Exam / Course work/T::
Test
Course work
ECTS
2
1
Workload (h)
60
30
Outcome: Providing of knowledge and skills in concerning analog and digital measuring systems
design
Content: Functional diagrams of measuring systems uses in renewable energy sources; converting
signals – sensor types, analog and digital blocks of transducers using in renewable energy
measurements; principle of construction of measuring system to measure: wind speed, wave
energy, passive solar building energy, temperatures, noises, flows, vibrations; control and
processing equipment, programmable instruments; evolution of renewable energy measuring
systems.
Literature:
1. Clayton G., Winder S.: Operational amplifiers, Newnes, Oxford, 2003.
2. Horowitz P., Hill W., The art of electronics, Cambridge University Press, New York, 2007.
3. Jung W., IC Op Amp cookbook, Prentce-Hall, PTR, 1999.
4. Jung W., Op Amp applications, Handbook, Elsevier/Newnes, Oxford 2006.
5. Lyons R.G., Understanding digital signal processing, Addison Wesley Longman, 1997.
13.
ELR023229
ELECTROMECHANICAL SYSTEMS IN RENEWABLE ENERGY SOURCES
Language: English
Course: Basic/Advanced
Year (I), semester (2)
Level: II
Obligatory/Optional
Prerequisites: Basis of electrical engineering, Basis of electronics,
Teaching:
Traditional/Distance L.
electrical measurements
Lecturer: Prof. Krzysztof Pienkowski, PhD, DSc
Lecture
Tutorials
Project
Seminar
Laboratory
Hours / sem. (h)
15
15
Exam / Course work/T::
Test
Presentation
ECTS
1
1
Workload (h)
30
30
Outcome: Providing of knowledge on electromechanical aspects of frequency
converter application in renewable energy systems.
Content: The course is concerned on electromechanical aspects of frequency
converter structures applied for conversion of primary energy and on electromechanical
processes which appear in renewable energy systems working in autonomic systems
as well as in the ones integrated with power systems. Course is supplemented by
seminar
where
students
prepare
presentations
on
the
subjects
related
to
assessment
of
particular
energy
conversion
networks
applied
in
renewable
energy systems.
Literature:
[1] Anaya-Lara O., Jenkins N., Ekanayake J., Cartwright P., Hughes M.: Wind Energy Generation.
Modelling and Control. John Wiley & Sons, 2009.
[2] Burton T., Sharpe D., Jenkins N., Bossanyi E.: WIND ENERGY HANDBOOK. John Wiley &
Sons, 2001.
[3] Johnson G. L.: WIND ENERGY SYSTEMS. Manhattan, KS. Electronic Edition, 2001.
[4] Vas P.: Electrical Machine and drives. A space-vector theory approach. Oxford University
Press, 1992.
Supplementary reading:
[1] White D.C., Woodson H.M.: Electromechanical Energy Conversion. New York, John Wiley &
Sons, 1959.
[2] Seely S..: Electromechanical Energy Conversion. New York, McGraw Hill, 1962.
[3] Krause P.C.: Analysis of electric machinery. McGraw Hill, 1986