Engineering Physics

From the microcosm to the grand technologies
These studies combine the physical sciences, artificial intelligence and measurement solutions to address challenges from agriculture to high technology. Micro- and nanoelectronics, nanotechnology, advanced materials, the Internet of Things and photonics are all areas you’ll master and innovate in. By studying Engineering Physics, you’ll learn how to manage advanced technologies and become a professional whose skills shape technological breakthroughs.

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Programme values

A lecturer leads a session in the modern “Young-Lab” classroom, combining technology and a creative atmosphere. It’s a space where inspiring discussions and new ideas come to life.

Valued by industry leaders

Graduates are equipped with the skills to solve complex technological problems and contribute to innovation using AI and classical engineering tools.

KTU’s Santaka Valley building – a state-of-the-art research and innovation hub where academia and business collaborate. This is where future solutions are born.

Inspiring learning environment

State-of-the-art laboratories, advanced research facilities and the professional academic community of physicists in Kaunas offer exceptional opportunities for personal growth in an uncertain and ever-changing world.

Students at Kaunas University of Technology’s engineering lab engage in hands-on mechanical experiments – this space fosters learning through doing and deep technological understanding. It’s part of a practice-based study approach where students explore and build real-world engineering solutions together.

Real-world cases

The unique synergy between physics, artificial intelligence and measurement technologies enables you to solve complex problems, develop innovative solutions and gain hands-on experience that meets the needs of the industry today.

A student team collaborates on a task – part of KTU’s advanced study programs where learning happens through cooperation and solving real-world challenges.

New Freedom to shape your path

Here you will be able to develop solutions that have a direct impact on technology and industry while shaping a personalised learning path according to your interests.

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

Innovation development

create real innovations – products or services with social partners

Pedagogy

gain a teaching qualification by choosing additional studies in education

Career opportunities

Become a specialist in high-tech industries such as lasers, semiconductors, optics, or medical equipment. Your interdisciplinary skills will open the door to successful careers in sectors such as energy, environment, and information technology.

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

Engineering Technologist

Carries out industrial-technological work, designs and implements advanced technologies, and ensures the application of innovative solutions in production processes. The technologist-engineer also manages production in physical technology companies, contributing to the efficient management of processes and the development of modern manufacturing.

Renewable Energy Technologist

Analyses how new technologies can reduce carbon emissions, improve energy efficiency and reduce dependence on fossil fuels. Designs and maintains energy systems such as solar farms, wind farms or advanced energy storage facilities.

Quantum Systems Metrologist

Works with high-precision measurement processes based on quantum physics principles. Develops, installs and maintains advanced quantum measurement systems such as quantum clocks, interferometers, spectroscopy equipment or magnetometers.

Admission requirements and programme structure

Cycle – first cycle

Field – physics

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

Study type – day-time, on-campus

Location – Kaunas, Faculty of Mathematics and Natural Sciences

Language – english, lithuanian

Degree awarded – bachelor of physical sciences

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

Financial support »

Semester

Module name	Credits	Method of organisation

General Chemistry	6	On-campus learning
Information Technologies 1	6	On-campus learning
Introduction to Speciality	6	On-campus learning
Mathematics 1	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

Computer-Aided Design 1	6	On-campus learning
Fundamentals of Electronics	6	On-campus learning
Introduction to Programming for Engineers	6	On-campus learning
Mathematics 2	6	On-campus learning
Physics of Materials	6	On-campus learning

Module name	Credits	Method of organisation

Basics of Measurements and Metrology	6	On-campus learning
Discrete Mathematics	6	On-campus learning
Mathematical Physics and Numerical Methods	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

Algorithms and Parallel Computing	6	On-campus learning
Classical Mechanics	6	On-campus learning
Electromagnetism	6	On-campus learning
Machine Learning Methods	6	On-campus learning
Thermodynamics and Statistical Physics	6	On-campus learning

Module name	Credits	Method of organisation

Artificial Intelligence Solutions Development	6	On-campus learning
Computer Communications	6	On-campus learning
Optics and Light Technologies	6	On-campus learning
Optimization Methods	6	On-campus learning
Quantum Mechanics	6	On-campus learning

Module name	Credits	Method of organisation

Electrodynamics	6	On-campus learning
Mathematical Methods for Processing of Digital Images	6	On-campus learning
Product Development Project	12	On-campus learning
Solid State Physics	6	On-campus learning

Module name	Credits	Method of organisation

Computational Intelligence Methods	6	On-campus learning
Development of Innovations in Physical Science and Technology	6	On-campus learning
Nuclear and Particle Physics	6	On-campus learning
Physics of Surface Phenomena	6	On-campus learning

Optional Subjects 2025

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.

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.

What will you learn

To apply basic chemistry, IT and mathematics skills and knowledge

To apply the principles of programming, computer-aided design, electronics and the physics of materials

To understand the principles of measurement
To apply discrete mathematics and statistical methods to engineering decisions

To analyse physical phenomena and data using knowledge of classical mechanics, electromagnetism, thermodynamics and machine learning

To analyse quantum processes
To apply artificial intelligence algorithms, laws of optics and optimisation techniques

To participate in a product development project
To explore solid state physics and electrodynamics

To apply numerical intelligence techniques
To create physical innovation
To understand the principles of nuclear physics

To prepare the final project and undertake a professional internship in an engineering environment

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.

Score structure

◼	0,4	final exam	physics
◼	0,2	final exam	mathematics or biology, or chemistry, or information technologies, or geography
◼	0,2	final exam	English language

admission procedure preparatory courses

Testimonials

In Engineering Physics you have a lot of choices – you can study fundamental physics, electronics, information technology and even solve practical engineering problems. Graduates in this field are highly sought-after in the job market, as there are hardly any professionals who possess a deep knowledge of physics and engineering.

Ornela Rakauskaitė

2nd year student

Portrait photo of a young man with light hair, wearing a blue sweater, smiling broadly and looking at the camera against a light background.

In the third year of my Bachelor’s in Engineering Physics, I got a job related to my specialisation. The studies have provided me with a good fundamental knowledge. Besides, the comprehensive nature of the curriculum prepared me to feel more secure in unfamiliar situations.

Justas Beresnevičius

KTU alumnus, Senior Software Engineer, KAYAK Lithuania

Portrait photo of a young man with short hair and a beard, wearing a dark blazer and a light shirt, smiling at the camera with arms crossed against a light background. He is wearing a watch on his wrist.

KTU is one of the first universities to incorporate Artificial Intelligence (AI) into its activities. The university encourages both students and teachers to explore the possibilities and applications of AI in various fields of engineering. The need for engineering and technology specialists has always been high and remains relevant both in Lithuania and in the international market, as these people help to implement new solutions for production, process management or digitalisation and reduce production costs.

Paulius Urbonavičius

Innovation and Efficiency Manager in Baltics, ITAB Lithuania

International mobility partners

Join an exchange programme with our international partners:

more about exchange studies

FAQ

Does a degree in physics open the door to promising career opportunities?

Graduates are in demand not only in traditional industries, but also in emerging and fast-growing technology sectors. The knowledge gained during your studies can be applied in a wide range of fields, including high-tech industries, engineering, energy, medical technologies, nanotechnology and artificial intelligence systems.

In addition to its practical applications, the physics degree provides a solid foundation for a career in scientific research or the development of cutting-edge technologies such as quantum computing, advanced sensors or energy conversion systems. Specialists in these fields are in high demand both locally and internationally for their analytical skills and ability to work with advanced equipment and methods.

Will I learn about AI during my studies?

Yes, during the programme you will have the opportunity to explore various applications of AI, especially in areas where physics intersects with modern technologies. AI skills are developed through specialised modules, hands-on projects and research, integrating AI solutions into tasks such as optimising physical models, analysing large datasets and developing advanced technologies.

In addition, the Engineering Physics programme is closely linked to interdisciplinary research covering AI applications in engineering, materials science and medicine. The University also offers opportunities to participate in additional AI training, workshops and projects in collaboration with technology companies.

Why is it worth choosing to study Engineering Physics at KTU?

The Engineering Physics programme is designed to meet the demands of the job market. It features a unique combination of fundamental physics knowledge and engineering solutions, enabling students not only to understand the principles of physics, but also to apply them in real-world technological areas such as nanotechnology, optics, energy engineering and materials science. The programme also integrates artificial intelligence and metrology.

There is a strong emphasis on practical training and collaboration with industrial partners. In addition, the programme actively cooperates with international organisations and offers student exchange opportunities.