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Electronics engineering
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Summary of the Profile
General Description:
Objective(s) of a study programme:
To provide theoretical and practical knowledge in the field of electronics engineering, develop skills of its creative application in the design, manufacturing and operation of hardware and software for electronic devices and systems.
Learning outcomes:
Knowledge and Understanding:
A1 Has comprehensive knowledge and understanding of the scientific and mathematical principles underlying electronics engineering;
A2 Knows and understands systematically the key concepts, branches (analog, digital electronics, integrated circuits, etc.) of electronics engineering and their interconnections, understands the essential aspects and concepts of information and communication’s and medical electronics engineering;
A3 Has the fundamental knowledge in the programming of electronic, information, communication systems.
A4 Has coherent knowledge of electronics engineering and the latest developments in the field (new components and materials, modern design solutions as well as the means of production and diagnostics); has specialized knowledge in the area of information and communications engineering and in the broader engineering context about wireless and optical technologies, systems, networks and offered services; has specialized knowledge of physiological systems and biophysics, medical sensors, clinical engineering systems, their maintenance and design.
A5 Is aware of a wider multidisciplinary context in the field of engineering and the ability to apply diverse methods and processes from other disciplines of science.
Engineering Analysis:
B1 Is able to apply knowledge identifying and solving electronics engineering also from information and communications and medical electronics fields problems by using the most appropriate and relevant methods (feasibility study, prototype design and testing, preparing for manufacture, design and test of communication systems measurement, circuit modeling, algorithmization);
B2 Is able to apply their knowledge and understanding to define and analyze the tasks of electronics engineering and solve them using currently available methods ( technology level analysis, synthesis of structure, decomposition of systems, algorithmization, testing, analysis of communication networks);
B3 Is able to select and apply the most appropriate and relevant analytic and modelling methods (circuit analysis and synthesis, spectral analysis, analysis of transients, digital signal processing, processing of measurement results).
Engineering Design:
C1 Is able to apply knowledge developing and implementing digital, analog and mixed electronic designs to meet the specific project requirements;
C2 Understands the design methodologies of the control, communication, measurement and diagnostic systems and is able to use them;
C3 Understands design methodologies used in medical electronics engineering, telecommunications system and networks and is able to use them.
Investigations:
D1 Is able to find the necessary scientific and professional information using industry data bases and other sources;
D2 Is able to plan and conduct the appropriate experiments, interpret the acquired data and draw relevant conclusions in the fields of electronic equipment and systems (also medical), estimate the functionality and vulnerability of information and communications networks;
D3 Is able to design medium-level complexity electronic circuit and communication network models and solve them using specialized digital modelling software;
D4 Has skills of working with the equipment used in electronics engineering.
Engineering Practice:
E1 Is able to select and use the appropriate equipment, tools and methods for the purpose of carrying out design, manufacturing, diagnostics and maintenance tasks as well as the understanding of their operational principles, functionalities and properties in the field of electronics engineering (also medical field);
E2 Is able to combine theoretical and practical knowledge for the purpose of solving electronics engineering problems;
E3 Understands the ethical, environmental and commercial context of engineering activity in electronics field;
E4 Understands electronics, telecommunications and medical electronics engineering practice management basics, knows work safety and other key requirements, the principles of interaction among different engineering activities.
Personal and social skills:
F1 Is able to function effectively as an individual and as a member of a team;
F2 Is able to use diverse methods of effective communication with the engineering community and society at large;
F3 Is aware of the ethical, environmental and commercial implications of electronics engineering practice;
F4 Is aware of the key principles of project management and business activities in the field of electronics engineering, information and telecommunication technologies and medical electronics;
F5 The recognition of the importance and need for life-long learning.
F6 Is able to convey their knowledge in their own language and at least one foreign language, knows how to use modern means of information.
Activities of teaching and learning:
During the lectures, students acquire theoretical knowledge of subject, which is supported by classroom exercises and semester projects and assignments. Practical abilities and skills are developed in the laboratory. Instructors are encouraged to increase the use of teamwork and problem-based learning, particularly in laboratory work. This is the way to develop students’ practical skills, which are highly desirable by employers and attractive for students. The study program concludes with a Bachelor's final project.
Methods of assessment of learning achievements:
For assessment of learning achievements exams, computer based testing, problem solving analysis, reports, presentations, lab reports, practice reports, project reports, peer evaluation, and more activities are used. For comprehensive and objective assessment of students’ achievement the ten-point grading scale and accumulation scheme motivating systematic performance of a student throughout all the semester are applied. The results of self-study during the semester (laboratory works, semester projects, individual projects and other) are evaluated and graded. During exam session final grade is calculated, i.e. the separate grades are multiplied by weighted factors and the obtained products summed up.
Framework:
Study subjects (modules), practical training:
The study program is covered by 35 study subjects; semester project (6 credits) practice (15 credits) and the final bachelor project (15 credits) is performed.
Study structure consists of groups of subjects:
General Subjects of University Studies (12 credits, 2 subjects); Core Subjects of Engineering (18 credits, 3 subjects)); Mathematics and Physical Sciences Subjects (30 credits, 5 subjects);
Core Field Subjects (108 credits, 18 subjects);
Optional Subjects: 6 credits;
Major Field Subjects (24 credits, 4 subjects; for Design and Manufacturing of Electronic Equipment specialization 4 of them are electives from main study field; for ITT and Medical Electronics specializations all 4 are selected);
Practice: (15 credits, 1 subject,). The usual practice is carried out in companies whose activities correspond to the selected specialization of the programme.
The Core Field Subjects of Engineering in the curriculum provide opportunities for students to acquire basic knowledge of EE from traditional subjects such as Materials Science and Engineering, Circuit Theory, Signals and Systems, Applied Electrodynamics, Discrete-Time Signal Processing. These subjects are the base for core subjects and electives. The group of courses including Digital Devices, Microprocessors, Embedded Systems targets digital and mixed signal electronic devices, provides the knowledge and basic skills for analysis, experimental investigation and design. The subject Analog Devices provides knowledge and skills for analysis, experimental study and design of low-and high-frequency analog electronic devices. Signal Transmission and Reception subject provides knowledge about the transmission, reception and signal processing techniques in modern communication systems. Electronics engineer in his or her practical activity is fully involved in experimentation. Therefore, the knowledge and skills of Basics of Measurements and Metrology are undoubtedly important.
For Information and Telecommunication Technology students are taught fundamentals of wireless communication, packet transmission technologies, mobile communication networks, optical communication networks, information security in telecommunication networks, systems programming or mixed network organization.
For Medical Electronics specialization, students study the basics of biophysics and human physiology, medical sensors, clinical engineering systems, monitoring systems technologies and medical electronic systems design.
Students are encouraged to choose the place of practice for themselves, providing access to as many electronics companies as possible and their activities.
Specializations:
1. Design and Manufacturing of Electronic Equipment;
2. Information and Telecommunication Technology;
3. Medical Electronics.
Optional courses:
For all specializations, there is an alternative set subjects Alternatives 2, from which student can choose one from three at his discretion: “Ergonomics”, “Sensors”, “Video systems”.
For Design and Manufacturing of Electronic Equipment specialization in order to allow students to acquire knowledge from specific areas of EE, two groups of modules called Electives 1, Electives 2 and Electives 3 are included in the 5th and 7th semesters respectively. Subjects of electives students can choose according to their interests, needs or expected future occupation. The subjects in group Electives 1 are: „Design of Printed Circuit Boards“, „Video and Audio Technologies“, „Information Security in Telecommunication“. The subjects in group Electives 3 are: „Navigation and Imaging Systems“, „Computer Communications and Internet of Things“.
In addition, the curriculum allows students of all specializations to freely select 6 credits of study subjects from the list of optional subjects.
Distinctive features of a study programme:
The graduate has the broad and integrated knowledge of fundamental electronics circuit theory, signals and systems, electrodynamics, wireless and fixed-line technologies, communications network management, information and service safety, innovative telecommunication technology, biomedical engineering, medical electronics, medical sensor knowledge, computer science and technology components and devices. The graduate has the ability to formulate and solve technical engineering problems of electronics, understands the methods of designing telecommunication and information systems and networks, understands the problems of clinical engineering, knows the methods and tools of electronic devices and systems design, and is able to develop electronic systems software.
Access to professional activity or further study:
Access to professional activity:
1. Design and Manufacturing of Electronic Equipment specialization:
The graduate can carry out the designing and production work of electronic systems as well as installation and maintenance-engineering, technological and organizational work in enterprises and organizations where various electronic systems and assemblies are produced and operated, or establish and develop personal businesses.
2. Information and Telecommunication Technology specialization:
The graduate can do design or other engineering work in companies providing telecommunication services, and companies or organizations that use telecommunication tools.
3. Medical electronics specialization:
The graduate can carry out designing, manufacturing-technical maintenance organization and managerial as well as other engineering work in public and private enterprises and organizations of healthcare, design, production, maintenance and sales of medical equipment as well as consulting companies.
Access to further study:
The graduate has access to the second cycle studies in electronics and electrical engineering or other study area study programmes.
