Study Programmes

Electronics

The undergraduate professional study programme of Electronics is organized modularly and lasts six (6) semesters for full-time and eight (8) semesters for part-time students, with an equal number of teaching hours. Upon completion of the professional studies, students acquire 180 ECTS and are awarded a professional title of Professional Bachelor in Electronics.

The first two semesters comprise basic lessons within the specified curriculum and syllabus   - Electrical Engineering (60 ECTS) and are delivered jointly with the study programme of Power Engineering. The central module of the study programme - Electronics (60 ECTS) spans the third and fourth semesters. The third semester is unique for all Electronics students, whereas in the fourth semester a part of the syllabus is subdivided into selected elective groups. Practical lessons totalling 60 ECTS are held in the fifth and sixth semesters.

Students who, according to their personal preferences, have opted for modules by signing up for the relevant elective groups (professional modules) enrol in the following modules: Telecommunications (TEL-1, TEL-2), Applied Electronics (PREL-1, PREL-2) and Mechatronics (MEH- 1, MEH-2).

According to the so far obtained statistical data and depending on the selected professional modules, students are provided with good employment prospects in: public and private telecommunications companies (mobile and fixed telephony), industrial plants within the shipbuilding, cement, chemical and metal industries, the power supply and distribution system (HEP facilities and plants), hospitals, construction companies and the like.

Students who complete this professional study can enrol in the Specialist Professional Graduate Study of Electrical Engineering (120 ECTS) at the University Department of Professional Studies in order to acquire a title of Professional Specialist in Electrical Engineering. The curriculum and syllabus design of the Electronics study programme was based on the documents of the associated agencies of the European Commission focused on the harmonization of European higher education structure, particularly the one referring to the scientific branch of Electrical Engineering and accompanying reference documents related to training of engineering profiles.

Course syllabus

Head of the Department of Electrical Engineering: Marko Vukšić, PhD, college professor with tenure, e-mail
Assistant to the Head of the Department of Electrical Engineering: Predrag Đukić, PhD, college professor, e-maily

Learning outcomes of the study programme
  • define basic physical concepts, quantities and laws in the field of electrostatics, electromagnetism, direct current and alternating currents
  • examine the technical functionality of communication equipment for transmission, transfer and reception
  • devise technical solutions within software engineering in modern communication systems
  • apply programming tools for project development and accompanying project documentation
  • use adequate measuring and instrumentation equipment
  • examine the technical functionality of electronic equipment
  • interpret the operation of industrial electronic systems and devices and automation
  • explain the functions of microprocessor and computer systems, PLC and SCADA systems
  • describe the principles of automatic regulation and computer engineering techniques for improvement of the properties exhibited by modern dynamic electronic and electromechanical systems
  • apply specific software and circuitries in the field of electronics, automation and informatics
  • use adequate measuring and instrumentation equipment
  • examine the technical functionality of measuring equipment
  • explain the functions and operation of mechatronic systems
  • describe the principles of automatic regulation and computer engineering techniques designed for improvement of the properties exhibited by modern dynamic electronic and electromechanical systems
  • select the correct measurement methods and appropriate sensors and actuators for measurement and control in mechatronics
  • apply specific software and technical solutions in the field of mechanics, electronics, automation, informatics, sensor technology and robotics
  • calculate electrical quantities using different methods for solving complex networks
  • define the basic mathematical, physical and technical principles of operation of electrical components, assemblies, devices and systems
  • demonstrate measurement of fundamental electrical quantities within components of electric circuits
  • conduct laboratory experiments and interpret the obtained results
  • devise creative technical solutions in designing components, assemblies and / or application software in signal processing, telecommunications, computer networks, control systems and production processes
  • use techniques, skills, modern programming tools and procedures necessary for engineering practice,
  • apply the acquired knowledge in the development and implementation of professional projects according to the set requirements and specifications
  • interpret orally and / or in writing, the results of individual or team work
  • present information, ideas, problems and solutions to professional and general audiences
  • use English in professional literature and everyday professional communication
  • use new technologies and techniques as part of the lifelong learning process
  • demonstrate the knowledge required for studying at specialist graduate professional level
  • achieve employment and self-employment in the technical sector and professional advancement in the field of electronics or similar technical branches
  • interpret the structure, relationships and operation of network elements, standards and network protocols of wired and wireless networks
  • clarify the mechanisms of management, maintenance and supervision of telecommunication systems
  • describe mathematical principles and techniques important for electrical engineering including elementary mathematics, linear algebra, differential and integral calculus, numerical mathematics and mathematical statistics
  • describe the development and application of transmission systems, wireless communication systems, switching systems, multimedia systems and local and broadband networks