Electronics Engineering

For a world where everything is connected
This course will equip you with the skills to design, programme and develop advanced electronic systems that solve complex problems from aviation to medicine. The Electronics Engineering programme has been awarded the Investors’ Spotlight quality label, confirming that graduates meet the highest standards of the job market. Electronics engineers combine creativity with engineering thinking to create innovations that transform transport, medicine and even space research.

in Lithuanian

Programme values

Students and lecturers collaborate in an engineering lab where real-world solutions are created – from mechanical systems to cutting-edge research. This is the essence of hands-on learning at KTU, driven by innovation and impact.

Valued by industry leaders

The Inverstors’ Spotlight Quality Label awarded to this study programme confirms that its graduates meet the highest qualification requirements of employers. Graduates are employed in Lithuanian and international companies generating high-added value, such as Littelfuse, Teltonika, Kitron, Continental, Elgama-Elektronika, Terra Electronics.

The modern “Young-Lab” space at KTU is designed for lectures and creative discussions – recently renovated, it features innovative design tailored for contemporary academic needs. It’s where theory turns into inspiring, practical knowledge application.

Inspiring learning environment

You will work in new and advanced laboratories such as FabLab Kaunas, FabLab Kaunas Junior, Electronics Technology, Electromagnetic Compatibility, Nanosatellites and Avionics.

Students work with electronic components in a lab – hands-on learning where theory turns into action. KTU’s tech programs offer opportunities to experiment with real-world systems.

Real-world cases

During your studies, you will develop your practical skills by designing working devices and being able to test them in the lab. You will solve challenges by designing microprocessor-based and embedded systems. Participating in university and national competitions will provide you with skills for introducing your innovations to the real world.

Students prepare to launch a drone – part of aeronautics and engineering studies rooted in hands-on learning with real-world applications. KTU’s engineering programs embrace cutting-edge technologies.

New Freedom to shape your path

You can choose from four specialisations: electronic equipment design, medical electronics, telecommunications technology and chip design.

In this study programme, you can choose the following study paths:

Deeper competence

specialise in your chosen field by selecting a set of study modules

Innovation development

create real innovations – products or services with social partners

Pedagogy

gain a teaching qualification by choosing additional studies in education

Career opportunities

A study programme where ideas come to life.
Find out why new mobile phones no longer have antennas, why self-moving robots don’t crash into walls, how to see what’s inside a box without opening it, and why new military aircraft no longer need cockpits. You can use the knowledge you gain from your studies in a wide range of fields – be it transport, military technology, music equipment or medicine. Change the world – put your ideas into action.

Here are some of the careers you can pursue after your studies:

Electronics Engineer

Designs and develops electronic devices and chips, control, measurement, diagnostics, IoT, and power systems consisting of hardware and software.

Production Manager for Electronic Equipment

Tracks and ensures the successful implementation of electronics manufacturing, deployment and modernisation projects. Takes care of production process planning, and customer requirements coordination.

Advanced Systems Architect

Designs, maintains and improves electronic systems that operate complex tasks independently, with minimal human intervention and often go unnoticed.

Admission requirements and programme structure

Cycle – first cycle

Field – electronics engineering

Specialisations – design and manufacturing of electronic equipment, information and telecommunication technology, integrated circuit design, medical electronics

Form, duration – full-time studies (4 yr.), part-time studies (6 yr.)

Study type – day-time, on-campus

Location – Kaunas, Faculty of Electrical and Electronics Engineering

Language – lithuanian

Degree awarded – bachelor of engineering sciences

Yearly price ⁱ : full-time studies – 4108 €, part-time studies – 2739 €, price per credit – 68,47 €

Financial support »

Semester

Module name	Credits	Method of organisation

Basics of Engineering	6	On-campus learning
Classical Physics	6	On-campus learning
Introduction to Electronics	6	On-campus learning
Introduction to Programming for Engineers	6	On-campus learning
Mathematics 1	6	On-campus learning

Module name	Credits	Method of organisation

Circuit Theory 1	6	On-campus learning
Materials Science and Engineering	6	On-campus learning
Mathematics 2	6	On-campus learning
Physics 2	6	On-campus learning

Foreign Language Electives (Level C1) 2025 (Select 6 cr.)

Academic and Technical Communication in English (Level C1)	6	On-campus learning
Academic and Technical Communication in French (Level C1)	6	On-campus learning
Academic and Technical Communication in German (Level C1)	6	On-campus learning

Module name	Credits	Method of organisation

Basics of Measurements and Metrology	6	On-campus learning
Circuit Theory 2	6	On-campus learning
Electronics	6	On-campus learning
Theory of Probability and Statistics	6	On-campus learning

Electives of Philosophy and Sustainable Development 2025 (Select 6 cr.)

Media Philosophy	6	Blended learning
Sustainable Development	6	Blended learning

Module name	Credits	Method of organisation

Analogue Devices	6	On-campus learning
Applied Electrodynamics	6	On-campus learning
Digital Devices	6	On-campus learning
Programming of Electronic Systems	6	On-campus learning
Signals and Systems	6	On-campus learning

Module name	Credits	Method of organisation

Artificial Intelligence in Electronic Systems	6	On-campus learning
Design of Printed Circuit Boards	6	On-campus learning
Discrete Time Signal Processing	6	On-campus learning
Microprocessors Principals and Applications	6	On-campus learning

Specialization Electives or Optional Subjects

Design and Manufacturing of Electronic Equipment

Information Security in Telecommunication Networks	6	On-campus learning
Sensors	6	On-campus learning
Video Systems	6	On-campus learning

Information and Telecommunication Technology

On-campus learning

Integrated Circuit Design

On-campus learning

Medical Electronics

Blended learning

Optional Subjects

		On-campus learning
		Blended learning

Module name	Credits	Method of organisation

Embedded Systems	6	On-campus learning
Signal Transmission and Reception	6	On-campus learning

Group of Electives (pasirinkti 12 kr.)

Electronics Projects Management	6	On-campus learning
Engineering Economics	6	On-campus learning
Product Development Project	12	On-campus learning

Specialization Electives or Optional Subjects

Design and Manufacturing of Electronic Equipment

Computer Communications	6	On-campus learning
Internet of Things	6	On-campus learning
Video and Audio Technologies	6	On-campus learning

Information and Telecommunication Technology

On-campus learning

Integrated Circuit Design

On-campus learning

Medical Electronics

On-campus learning

Optional Subjects

On-campus learning

Module name	Credits	Method of organisation

Electronics Manufacturing Technologies	6	On-campus learning
Power Electronics Devices	6	On-campus learning

Optional Subjects 2025

Specialization Electives or Optional Subjects

Design and Manufacturing of Electronic Equipment

Semester Project	6	On-campus learning
Navigation and Imaging Systems	6	On-campus learning
Programmable Logic Devices	6	On-campus learning
Radio Frequency Engineering	6	On-campus learning

Information and Telecommunication Technology

Semester Project	6	On-campus learning
Wireless Communication Networks	6	On-campus learning

Integrated Circuit Design

Chip Manufacturing Technologies	6	On-campus learning
Semester Project	6	On-campus learning

Medical Electronics

Biomedical Software Systems	6	On-campus learning
Design of Biomedical Electronics System	6	On-campus learning

Optional Subjects

On-campus learning

Module name	Credits	Method of organisation

Bachelor’s Degree Final Project	15	On-campus learning
Professional Internship	15	On-campus learning

Good to know

Module – a part of a study programme consisting of several related topics.
Credit – a unit of the volume of a study module in hours.
On-campus – learning on the university premises.

Module – a part of a study programme consisting of several related topics.
Credit – a unit of the volume of a study module in hours.
On-campus – learning on the university premises.

Module – a part of a study programme consisting of several related topics.
Credit – a unit of the volume of a study module in hours.
On-campus – learning on the university premises.
Blended – learning on the university premises and online.

Module – a part of a study programme consisting of several related topics.
Credit – a unit of the volume of a study module in hours.
On-campus – learning on the university premises.

Module – a part of a study programme consisting of several related topics.
Credit – a unit of the volume of a study module in hours.
On-campus – learning on the university premises.
Blended – learning on the university premises and online.

Module – a part of a study programme consisting of several related topics.
Credit – a unit of the volume of a study module in hours.
On-campus – learning on the university premises.

Module – a part of a study programme consisting of several related topics.
Credit – a unit of the volume of a study module in hours.
On-campus – learning on the university premises.

Module – a part of a study programme consisting of several related topics.
Credit – a unit of the volume of a study module in hours.
On-campus – learning on the university premises.

learning outcomes

What will you learn

To solder and measure electronic circuits
To produce a 3D drawing of the body of the device
To develop computational algorithms

To analyse and design DC circuits
To apply different materials in electronics

To analyse, model and synthesise electrical circuits
To measure and evaluate electrical quantities

To program in C, C++
To design electronic devices and analyse their performance

To design printed circuit boards
To design and debug electronic systems based on microcontrollers

To optimise power consumption of embedded systems
To apply data transmission and reception technologies to IoT solutions

To prepare production equipment
To design digital FPGA devices by programming in VHDL

To integrate knowledge from the programme into the final project
To select the appropriate methods, techniques and technical tools to solve the problem

learning outcomes

Admissions requirements

Proficiency in English	IELTS ≥ 5.5, TOEFL ≥ 75, CEFR ≥ B2, or equivalent.
Eligibility criteria:	High school certificate.Maximum 3 years after high school graduation. Minimum average grade (CGPA) >60% in each entry subject.
Transcript requirements:	Obtain a suitable transcript from your school. If unavailable, provide official translations and verified copies of the original documents.
Accepted languages:	English / Russian.
Document legislation:	The documents must be legalised (Apostille) by the Ministry of Foreign Affairs of the country where the documents were issued. This requirement does not apply to the EU and Belarus, Ukraine documents.

Admission requirements

The programme is only conducted in Lithuanian language. Entry requirements for this particular programme can be found in the programme description provided in Lithuanian language.

in Lithuanian

Testimonials

Portrait photo of a young man with short light brown hair, wearing a dark blue suit, white polka dot shirt, and a burgundy bow tie. He is looking at the camera against a neutral grey background.

Studying Electronics Engineering is not just about knowing the technology, but also about having a deep understanding of each component and how it works. From learning about artificial intelligence and programming to building your own start-up, this programme offers a wide range of opportunities. The professors here are not just academics but engineers at heart, always ready to support students’ innovative ideas, helping them to realise those ideas with both knowledge and practical resources.

Arvydas Kromelis

4th year student

Portrait photo of a man with short brown hair and a beard, wearing a dark blue blazer and a burgundy T-shirt. He is looking at the camera against a neutral grey background.

Electronics engineers work to solve problems that arise from environmental factors rather than from engineering itself. During the programme, we learnt how to design devices that solve challenges in medicine, manufacturing, transport and communications. In my second year, I took part in a conference where I presented a signal imaging device I designed. I was encouraged to do that by my lecturer, who said: “Go and show to everyone what you have achieved.”

Aurimas Girta

Head of Hardware Engineering Department, Teltonika Networks

Portrait photo of a man with short blond hair, wearing glasses, a light grey suit, and a white shirt. He is standing with arms crossed, smiling and looking at the camera against a neutral background.

The need for electronic engineering professionals remains high. They are important in the job market now and will be in the future. Electronics solutions are integrated in many areas, from everyday devices to high technologies such as spacecraft and advanced automotive systems. This means that professionals in this field will always be busy developing new equipment, automating processes and ensuring the efficiency of systems.

Giedrius Kukauskas

CEO, Teltonika Networks