Electrical Engineering (MSc)

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Master’s Degree
www.unic.ac.cy
Electrical Engineering (MSc)
GENERAL
The Master’s degree advances student’s knowledge
in core areas of Electrical Engineering beyond the
undergraduate level and introduces them to current
and emerging trends and technologies. The programme
provides the students with the opportunity to carry
out research within the field, while strengthening
the candidate’s effective application of methods
and techniques to tackle challenging technological
problems. The curriculum prepares the student for a
wide variety of Electrical Engineering careers, such
as design, research, development, management, and
teaching. The degree constitutes an independent and
terminal study in addition to providing the basis for
acceptance to, and continued studies towards, a
doctoral degree in Electrical Engineering or a related
field. The content of the programme is focused on
four very hot areas, namely, (a) Signal Processing &
Communications, (b) Electromagnetics, Antennas &
Microwave Engineering, and (c) Renewable Energy
Sources and Power Systems, and (d) VLSI & Embedded
Systems and allows the students to choose those
courses that will meet their future career goals.
AIMS OF THE PROGRAMME
The aims of the MSc in Electrical Engineering are to:
• Prepare students to succeed in a constantly
growing, highly demanding and competitive
technological world;
• Create an academic environment conducive
to learning new technologies and engineering
concepts;
• Introduce students to research on advanced engineering topics;
• Cultivate analytical skills and critical thinking;
• Provide specialisation and extensive knowledge
on the areas of concentration;
• Promote engineering ethics and moral practices.
OBJECTIVES OF THE PROGRAMME
The objectives of the programme are to:
• Provide specialised advanced knowledge and
tools to our graduates in order to cope successfully
in a technologically challenging envrironment;
• Facilitate learning in areas of electrical engineering that are directly linked to industry and current
state-of-the-art technology;
• Provide the theoretical and computational skills
necessary for the solution of both theoretical and
practical engineering problems;
• Provide practical and experimental hands-on
experience that allows the students to link directly
to fundamental knowledge and theory;
• Prepare graduates to work alone or in groups in
order to provide engineering solutions;
• Prepare graduates to design/implement systems
and processes towards the solution of engineering
problems;
• Promote research, develop research skills and
provide fundamental knowledge to support a
successful career in research and development;
• Develop the ability of the graduates to write
technical reports and scientific papers as well as
to present their work before an audience;
• Provide the graduates with the opportunity to
develop a greater technical competence in their
area and become successful professionals
throughout their lifetime;
• Prepare graduates for admission to a PhD programme in electrical engineering.
LEARNING OUTCOMES
Upon successful completion of the programme, the
students should be able to:
• Apply fundamental knowledge of science and
engineering;
• Identify, formulate and solve complex electrical
engineering problems;
• Design and conduct experiments, as well as to
analyse and interpret data;
• Design a system, component, or process to meet
desired needs within realistic constraints;
• Develop solutions that meet the desired needs
within the economic, manufacturing and sustainability borders;
• Use the techniques, skills, and modern engineering
tools necessary for engineering practice and
research;
• Function and communicate effectively in multidisciplinary teams.
CAREER PROSPECTS
Graduates of the Master’s programme can be
employed in a number of sectors including:
•
•
•
•
•
•
Private companies
Public organisations
Semi-government organisation
Universities and colleges
Research institutions
Technical high schools and professional training schools
• Telecommunications companies
• Army, navy, and defence companies
• Radar and monitoring system facilities
ACCESS TO FURTHER STUDIES
The graduate programme provides the foundation
for admission to a Doctoral degree (PhD) in Electrical
Engineering or other revelant major.
ADMISSIONS CRITERIA
The programme admits students in Fall and Spring
semesters. Applications for admission to the programme will be considered only from candidates that
fulfill the minimum entrance criteria as described
below.
GENERAL
Eligible applicants must hold a Bachelor’s degree
in Electrical or Electronic or Computer Engineering
granted by an institution recognised in the country
where it operates. Applicants who do not hold their
Bachelor’s degree at the time of application, but will
hold such a degree at the time of application, but will
hold such a degree before the commencement of the
graduate studies, are also eligible to apply. However,
such applicants must submit a letter from their
University’s Registrar verifying that they are indeed
eligible to graduate before the commencement of the
graduate programme. The decision on their admission
does not become official until they have successfully
obtained their Bachelor’s degree. It is desired that
applicants have a cumulative point average (CPA) of
3.0/4.0 in their undergraduate work (or equivalent
according to the academic system followed in the
country of study). Under special circumstances,
students with marginally lower CPA may still be
admitted. English Proficiency is also required as
described below.
Students who are admitted into the MSc programme
in Electrical Engineering and do not hold an undergraduate degree in Electrical/Electronic/Computer
Engineering must possess fundamental knowledge of
basic concepts in the following courses/areas: Circuits
and Electronics, Signals and Systems, Electromagnetics
and Microwaves, Telecommunications and Networks,
Digital Systems Design and Testing. The student’s
Academic Advisor is responsible to guide the student in
acquiring the missing knowledge. This can be achieved
by assigning a maximum of four (4) additional courses
from the above areas (possibly from the corresponding
undergraduate programme of the Department).
SPECIFIC
Each application for admission should include:
• A cover letter clearly stating the graduate degree
the candidate wishes to apply for;
• A completed application from;
• A Curriculum Vitae indicating the student’s
education, academic and professional experience,
any publications, awards, etc.;
• A short statement stating the reason the candidate
wishes to join the programme, the candidate’s
professional advisors;
• Copies or representative publications, if any;
• Copies of all degrees and transcripts. If applicable,
a letter from the Registrar of the student’s current
university verifying the expected graduation date
should be included;
• Copies of any other supporting material, such as
results of exams, honours, awards, etc;
• Evidence of proficiency in English Language in
case the official language of instruction during
the undergraduate studies was not English (at
least a TOEFL score of 550 paper-based or 213
computer-based, or GCSE “O” Level with “C”, or
IELTS with a score of 6.0, or score placement at
the ENGL-100 level of the University of Nicosia
Placement Test).
The application material should be submitted in
English.
DURATION OF STUDIES
The normal duration of the studies is 18 months
(12 months intensive with summer semester, JuneSeptember). The programme is 90 ECTS credits.
Students will be completing 30 ECTS credits per
semester.
STRUCTURE OF THE PROGRAMME
Students will have the choice to take 8 courses (64
ECTS), attend graduate seminars (2 ECTS), and write
a Master’s Thesis (24 ECTS), or take 11 courses (88
ECTS) and attend graduate seminars (2 ECTS). The
structure is quite flexible and allows the student to
specialise in one of four specialisation areas by taking
at least 4 courses (32 ECTS) from that area. The four
areas are currently:
• Signal Processing and Communications
• Electromagnetics, Antennas & Microwave Engineering
• Renewable Energy Sources and Power Systems
• VLSI & Embedded Systems
STRUCTURE OF THE PROGRAMME
A. CORE REQUIREMENTS
ECE-532
Probability and Random Processes
ECE-544
Antennas for Wireless Communications
ECE-546
Fiber Optics ECE-552
Digital Communications
ECE-566
Electric Power Generation, Transmission and Distribution
ECE-567
Renewable Energy Sources and Technologies
B. SIGNAL PROCESSING & COMMUNICATIONS
ECE-524
Advanced Computer Networks
ECE-526
Optical Networks
ECE-530
Adaptive Signal Processing
ECE-533
Detection and Estimation Theory
ECE-534
Neural Networks and Fuzzy Logic
ECE-535 Speech Processing
ECE-536
Digital Image Processing
ECE-550
Information Theory
ECE-553
Communications Management
ECE-554
Wireless Communications
ECE-556
Satellite Communications Systems
C. ELECTROMAGNETICS, ANTENNAS & MICROWAVE ENGINEERING
ECE-540
Microwave Circuits
ECE-541
RF Circuit Design
ECE-542
Electromagnetic Waves and Guided Structures
ECE-543
Electromagnetic Compatibility - Electromagnetic Interference
ECE-545
Applied Electromagnetics
ECE-547
Computational Methods in Electromagnetics
D. RENEWABLE ENERGY SOURCES & POWER SYSTEMS
ECE-561
Photovoltaics
ECE-562
Power Electronics ECE-563
Smart Power Grid Management
ECE-565
Wind Energy Technology ECE-568
Power System Protection ECE-569
Electrical Design, Planning and Regulations
E. VLSI AND EMBEDDED SYSTEMS
ECE-520
Introduction to VLSI Design
ECE-521
Fault Tolerant Computing
ECE-522 Advanced Computer Architecture
ECE-523
Testing and Diagnosis for VLSI Systems and Circuits
ECE-525
Computer Aided Design for VLSI ECE-527
Electronic Properties of Materials
ECE-528
Embedded Systems
F. SEMINARS, THESIS, AND SPECIAL TOPICS
ECE-590
Graduate Seminars (R)
ECE-591
Thesis Research
ECE-593
Special Topics in Electrical Engineering
ECTS
48
8
8
8
8
8
8
0 - 40
8
8
8
8
8
8
8
8
8
8
8
0 - 40
8
8
8
8
8
8
0 - 40
8
8
8
8
8
8
0 - 40
8
8
8
8
8
8
8
2 - 34
2
24
8
Notes:
• Students choosing the Thesis option, beyond taking ALL 6 courses from the CORE REQUIREMENTS, should also take 2 elective courses from one
of the sections B, C, D or E and the courses ECE-590 and ECE-591 from section F. With the permission of the Department, one of the elective
courses may be the ECE-593 course in section F.
• Students choosing the Non-Thesis option, beyond taking ALL 6 courses from the CORE REQUIREMENTS, should also take 5 courses from sections
B, C, D, and E (at least 3 should be from the same section) and the course ECE-590 from section F. With the permission of the Department, one
of the elective courses may be the ECE-593 course in section F.
• In case a student, who is registered for the MSc program, has taken a similar course (during his/her undergraduate studies) to any of those listed
in the CORE REQUIREMENTS, s/he has to take a different and alternative course from the corresponding section.
FACULTY SUPPORTING THE PROGRAMME AND THEIR RESEARCH INTERESTS
Prof John N. Sahalos (PhD in Physics)
Electromagnetics, Antennas, Microwave Engineering, Radio Communications, Communications Management, EMC, Biomedical Engineering
Prof Anastasis C. Polycarpou (PhD in Electrical Engineering)
Numerical Methods in Electromagnetics, Electromagnetic Theory, Antenna Analysis and Design, the Finite Element Method, the Method of Moments,
High-Frequency Asymptotic Techniques (UTD, PTD), Telecommunication Systems, RFID Systems, Liquid Crystals at Optical and Microwave Frequencies
Dr George Gregoriou (PhD in Electrical Engineering)
Signal and Image Processing, Texture Analysis, Statistical Pattern Recognition, Computer Vision, Medical
Imaging (SPECT, MRI), Image Reconstruction from Projections, RFID Systems in Healthcare Applications
Dr Marios Nestoros (PhD in Physics)
Photothermal Physics and Instrumentation, Semiconductor Characterisation, Photothermal
Gas Sensors, Photonic Crystals, Non-Destructive Techniques in Archaeometry
Dr Andreas Michaelides (PhD in Electrical Power Engineering)
Distance Temperature Surveillance, Automated Targeting System, Construction of an Integrated Inductive-Capacitive
Component for Absorbing Harmonic Modulation in the Power Grid, Programming of Integrated Circuits: PICs, PLAs and PLCs
Dr Antonis Hadjiantonis (PhD in Electrical Engineering)
Vertical Integration and Routing/Signaling Mechanisms in IP/WDM Networks, Physical Layer Constraints in
Optical Networks, Fault Tolerant Networks, Wireless Backhaul, Access Networks, FTTx Solutions and Architectures,
Sensor Networks
Dr Ioannis Kyriakides (PhD in Electrical Engineering)
Adaptive Waveform Design, Bayesian Target Tracking, Sequential Monte Carlo Methods,
Radar Waveform Design, Time-Varying Signal Processing, Compressive Sensing
Dr Stelios Neophytou (PhD in Computer Engineering)
Digital Design CAD Tools Development, Very Large Scale Integration (VLSI) Design,
Verification and Testing, Design for Testability, High Quality Digital Circuit Testing, Self-Testing Architectures
Dr Stylianos Hirodontis (PhD in Electrical Power Engineering)
Photovoltaics, Wind Generators, Distribution Networks, Power Protection and Control, Smart Grids, Distributed Energy
Sources, Frequency & Voltage Stability, Network Evaluation, Demand Side Management, Electric Vehicles
INFORMATION
UNIVERSITY OF NICOSIA
46 Makedonitissas Ave.
P.O. Box 24005, 1700
Nicosia - Cyprus
Tel.: +357 22841528
Fax: +357 22352067
Email: admissions@unic.ac.cy
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