Biomedical Engineering

From intelligent health monitoring systems to remote diagnostics, biomedical engineering is creating a future where technology helps to maintain and improve health. This master’s programme develops professionals capable of designing and developing innovative medical solutions, from the development of new devices to the analysis and processing of signals and images. Graduates have a wide range of career opportunities in medical device companies, technology start-ups and research centres, where biomedical engineers are highly valued professionals.

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Programme values

KTU graduates share a joyful moment during the graduation ceremony – dressed in formal gowns, they celebrate their academic achievements. The university community honors each step taken toward professional success.

Valued by industry leaders

The only programme of its kind in Lithuania, blending engineering, technology and medicine. Graduates of this study programme are sought after by various companies and often work in research or medical equipment development.

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

You will learn in an innovative environment, collaborate with companies and join top-class research groups working at the KTU Santaka Valley.

In a small, modern lecture space, students engage in a discussion on business development strategies led by a lecturer. The close-knit learning environment encourages active interaction and deep topic exploration.

Real-world cases

You will get involved in real, innovative projects, such as developing magnetic sensors for bioimplants or non-contact heart rate recording. The final degree projects focus on cutting-edge biomedical engineering topics.

Students studying using computers – a flexible academic environment that supports remote learning and self-paced study. KTU accommodates diverse learning styles.

New Freedom to shape your path

Choose from a variety of areas – from medical equipment deployment to research and technology development. Graduates work in cutting-edge companies in Lithuania and abroad.

Career opportunities

This is where engineering and medical knowledge come together to find solutions that improve people’s health and well-being.
Develop and enhance methods and equipment for medical diagnosis, treatment, and health monitoring – shaping the medical technologies of the future. This study programme offers not only in-depth knowledge but also valuable practical skills to address current biomedical challenges and create solutions for unmet needs in medical technology.

These competencies will support your professional growth and help you advance towards your chosen career path:

Clinical Electronics Engineer

Understands the principles and purpose of medical equipment. Can comprehend medical terminology and advise healthcare professionals on medical electronic equipment.

Medical Technology Entrepreneur

Identifies unsolved problems, identifies what the market lacks and can provide it. Knowledge of engineering techniques and background in biomedicine and human physiology.

Medical Data Scientist

Shaping the future direction of medical technology. It analyses medical data streams, develops artificial intelligence models for diagnosis and treatment strategies and contributes to the development of personalised medicine.

Admission requirements and programme structure

Cycle – second cycle

Field – bioengineering

Form, duration – full-time studies (2 yr.)

Study type – evening-time, blended learning

Location – Kaunas,
Faculty of Electrical and Electronics Engineering

Language – Lithuanian, English

Degree awarded – master of engineering sciences

Yearly price ⁱ : full-time studies – 5538 €, price per credit – 92,3 €

Financial support »

Semester

Module name	Credits	Method of organisation

Digital Signal Processing and Machine Learning	6	Distance learning
Experimental Biomechanics	6	On-campus learning
Methodology of Biomedical Engineering	6	Blended learning
Systems of Human Physiology	6	Blended learning

Electives 1 (Select 6 cr.)

Biophysics	6	Blended learning
Engineering Projects Management	6	Blended learning
Modelling of Physiological Systems	6	Distance learning

Module name	Credits	Method of organisation

Biomedical Image Processing and Analysis	6	Distance learning
Digital Processing of Biomedical Signals	6	Distance learning
Human-Computer Interaction	6	Blended learning
Research Project 1	6	Distance learning

Electives 2 (Select 6 cr.)

Advanced Digital Systems Design	6	Blended learning
Biomedical Technology Management	6	Blended learning
Radiation Protection and Safety	6	On-campus learning

Module name	Credits	Method of organisation

Design of Biomedical Devices	6	Blended learning
Imaging Instruments and Methods in Medicine	6	On-campus learning
Research Project 2	6	Distance learning
Ultrasonic Medical Diagnostics	6	Blended learning

Electives 3 (Select 6 cr.)

Identification of Biomedical Processes	6	Distance learning
Medical Informatics Systems	6	Blended learning
Medical Telemetry Systems	6	Blended learning

Module name	Credits	Method of organisation

Distance 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.
Blended - learning on the university premises and online.
Distance - almost all learning 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.
Blended - learning on the university premises and online.
Distance - almost all learning 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.
Blended - learning on the university premises and online.
Distance - almost all learning 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.
Distance - almost all learning online.

Admission requirements

University bachelor degree certificate:	Engineering sciences, technologies, mathematical sciences, computer sciences, physical sciences, life sciences, health sciences or sports and ≥ 18 credits of completed subjects in the study fields of electrical engineering, electronics engineering, mathematics, physics, informatics engineering or informatics.
Proficiency in English:	IELTS ≥ 6.0, TOEFL ≥ 85, CEFR ≥ C1, or previously completed studies in english language.
Transcript requirements:	Obtain a suitable transcript of your bachelor's degree from your school. If unavailable, provide official translations and verified copies of the original documents.
Accepted languages:	English / Russian
Document legalisation:	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 documents issued in the EU and Belarus, Ukraine.

Score structure

◼	0,9	average grade (CGPA) of University‘s Bachelor’s degree (min. length – 180 ECTS) and its supplement
◼	0,1	motivation letter and online interview
+	≤ 4	additional points

Additional points

science activities (scientific publications, presentations at scientific conferences, participation in exhibitions, work in student science society or science group etc.) or art activities (publication or realization of artwork, participation in art exhibitions, contests of architecture)	≤ 2
at least 1 year of work experience in the field of study programme	0,5
graduated from academic talent development program in higher education institution (for example "GIFTed talent academy")	0,5
partial studies in the higher education institution abroad with ≥24 ECTS completed	0,5
bachelor's or master's (if integrated study programme is completed) degree diploma with honours	0,5

admission procedure

Testimonials

Portrait photo of a young woman with straight blond hair, wearing a white T-shirt and a black blazer. She is looking at the camera with a gentle smile, against a neutral grey background.

We studied various medical technologies, their principles, development and application in healthcare. This helped us to better understand how engineering solutions contribute to medical progress. The studies gave me important knowledge that I am now applying in a company that manufactures medical equipment. Everything I learned allowed me to integrate more quickly into the working environment and to deal more effectively with daily tasks.

Dinara Laurutėnaitė

2nd year student

Portrait photo of a young man with short blond hair, wearing a black jacket with a grey lining. He is looking at the camera with a serious expression, against a neutral grey background.

With the ever-increasing amount of medical equipment, services and data processing, the demand for Biomedical Engineering graduates will only grow. Throughout my studies at KTU, I worked on the design of a mandibular motion recorder and a non-contact radar for measuring heart and respiratory rhythms with electromagnetic pulses. Later, I started working for QuaDigi.

Mindaugas Mažeika

Software Engineer, QuaDigi

Portrait photo of a man with short hair, wearing a dark suit with a white shirt and a dark polka dot tie. He is looking at the camera with a serious expression, against a neutral grey background.

Biomedical engineers are in high demand. Bioinformatics and nanomedicine are being applied by more and more companies, and there are new opportunities for artificial intelligence in medicine. KTU pays a lot of attention to the training of qualified specialists, so they can quickly apply their knowledge in the work environment, experiment bravely, and are not afraid to make mistakes and learn from them.

Martynas Osauskas

CEO, Teltonika Telemedic

International mobility partners

Join an exchange programme with our international partners:

more about exchange studies

FAQ

Does the programme include practical work with medical equipment?

Yes, students are often involved in ongoing research projects, many of which are carried out in collaboration with companies. The programme focuses on the processing of biomedical signals, images and data.

Will I be able to continue my studies after I graduate?

Yes, this possibility exists. Graduates who decide to continue their studies at the doctoral level most often choose to study at KTU institutes, such as the Institute of Biomedical Engineering, the Health Telematics Science Institute, or the Prof. K. Baršauskas Ultrasound Research Institute.

What careers do Biomedical Engineering graduates pursue?

Graduates in Biomedical Engineering can work in companies that sell, install or maintain medical equipment, in scientific research or in companies that develop and improve medical devices.