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MASTER

MSc. in Medical Imaging and Radiotherapy

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Course ID

Years

120

ECTS Credits

Semesters

UPCOMING DEADLINE

2027-2028 Admissions

To be announced

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Home >Study Programs >MSc. in Medical Imaging and Radiotherapy

Program Description

The Master of Science programme in Medical Imaging and Radiotherapy is designed to provide students with advanced and contemporary education in diagnostic imaging sciences, radiation-based therapies, and the clinical applications of radioisotopes. The programme integrates clinical, technological, scientific, and research components, preparing highly qualified professionals capable of making a meaningful contribution to the modern healthcare system.

The programme aims to develop specialists with the knowledge and practical competencies required to operate and work with advanced medical technologies, including Computed Tomography (CT), Magnetic Resonance Imaging (MRI), Angiography, Positron Emission Tomography (PET), Single Photon Emission Computed Tomography (SPECT), radiotherapy equipment (LINAC), advanced treatment planning techniques (3D-CRT, IMRT, and VMAT), and clinical dosimetry systems. By integrating clinical practice with the latest technological and scientific developments, the programme seeks to prepare professionals capable of responding effectively and competently to the evolving challenges of modern diagnostic imaging, radiotherapy, and nuclear medicine.

To address the needs of the national and regional labour markets, the programme offers three specialised study profiles:

· Advanced Diagnostic Imaging, focusing on cross-sectional imaging techniques, advanced diagnostic procedures, and the application of sophisticated imaging technologies.

· Radiotherapy and Dosimetry, dedicated to radiotherapy treatment planning, quality assurance, dose optimisation, and the safe and effective delivery of radiation treatments.

· Nuclear Medicine, focusing on the diagnostic and therapeutic applications of radionuclides, nuclear imaging technologies, and radiation safety management.

The programme is designed to provide a balanced combination of scientific theory, practical training, and analytical development, equipping students with the competencies required to integrate into hospital departments, oncology centres, research laboratories, medical technology companies, and academic institutions.

To ensure the development of advanced clinical and technical competencies, particular emphasis is placed on clinical placements and practical training in diagnostic imaging departments, radiotherapy services, nuclear medicine departments, and clinical dosimetry units. Students are also introduced to advanced software applications for treatment planning, image processing and analysis, and physical simulation.

The establishment of this programme at Western Balkans University (WBU) responds to the rapid development of medical technologies, the growing need for professional specialisation, and the increasingly important role of artificial intelligence in diagnostic imaging, early disease detection, and radiotherapy treatment planning. These developments have created a growing demand for professionals with advanced technical, scientific, and analytical competencies, which this programme seeks to develop through a comprehensive and structured academic approach.

The programme has been designed with reference to international best practices and the academic frameworks of recognised universities, drawing upon the extensive experience of national and international academic staff, as well as the requirements of the national and global labour markets. Its distinctive structure and educational methodology provide students with access to contemporary international scientific literature and incorporate the latest developments in medical physics, oncology, radiobiology, radiation protection, and diagnostic imaging technologies.

Rather than focusing exclusively on equipment operation and clinical protocols, the programme integrates fundamental knowledge from the exact sciences, radiation physics, biomedical engineering, biophysics, and clinical sciences. This interdisciplinary approach enables students to develop advanced analytical, interpretative, problem-solving, and research skills. It is particularly suited to individuals interested in medical technology, advanced healthcare, diagnostic innovation, and modern radiation-based therapies.

Mission, Vision & Objectives

Mission

The mission of the programme is to educate and prepare competent, highly skilled, and responsible professionals in the fields of diagnostic imaging, radiotherapy, and nuclear medicine, in alignment with Western Balkans University's broader mission of contributing to sustainable technological and healthcare development at national and regional levels.

The programme aims to establish an academic environment in which education, scientific research, and clinical practice are closely interconnected. Through this integrated approach, students are provided with opportunities to acquire advanced knowledge of radiation-based technologies, develop high-level competencies in diagnostic and therapeutic applications, and contribute to the continuous improvement of healthcare quality and patient care.

Furthermore, the programme is committed to promoting scientific inquiry, technological innovation, interdisciplinary collaboration, professional ethics, and lifelong learning, ensuring that graduates are prepared to respond to the evolving demands of modern healthcare and medical technology.

Vision

The primary aim of the programme is to provide advanced theoretical and practical education that prepares highly qualified professionals capable of applying contemporary principles and technologies of medical imaging and radiation-based therapies in clinical practice, scientific research, and technological innovation.

The programme seeks to equip students with the knowledge and competencies necessary to:

· Acquire, process, and analyse advanced diagnostic medical images.

· Plan, evaluate, and optimise radiation-based treatments for oncological patients.

· Apply radionuclides and nuclear medicine technologies in diagnostic and therapeutic procedures.

· Implement international standards and protocols for radiation protection and safety.

· Apply appropriate safety measures and protection principles related to exposure to magnetic fields.

· Contribute to scientific research, evidence-based practice, and innovation in medical imaging and radiation therapy.

· Apply advanced technological solutions, including artificial intelligence, in medical image analysis and treatment optimisation.

· Collaborate effectively within multidisciplinary healthcare teams while maintaining professional and ethical standards.

Upon completion of the programme, graduates are expected to be prepared for professional roles in hospital departments, specialised diagnostic and therapeutic centres, the medical technology sector, scientific research institutions, and academic environments, as well as for further postgraduate education and doctoral studies.

Objectives

This two-year Master's programme offers a comprehensive and specialised curriculum designed to equip students with advanced knowledge and competencies in the following areas:

· Advanced Clinical Expertise: Development of advanced competencies in diagnostic imaging techniques, including CT, MRI, and Angiography, as well as radiotherapy procedures and nuclear medicine applications.

· Technical and Scientific Competencies: Acquisition of specialised knowledge and practical skills in radiation physics, clinical dosimetry, quality assurance, radiation protection, and the application of advanced diagnostic and therapeutic technologies.

· Research Competencies: Development of the methodological, analytical, and scientific skills required to design, conduct, and evaluate research projects in medical imaging, radiotherapy, nuclear medicine, and radiobiology.

· Interdisciplinary Collaboration: Development of the ability to work effectively with radiologists, oncologists, medical physicists, nuclear medicine specialists, and other members of multidisciplinary healthcare teams.

· Radiation Protection and Safety: Acquisition of competencies in radiation protection, exposure management, risk assessment, and the implementation of national and international safety standards and protocols.

Critical Thinking and Professional Development: Enhancement of independent decision-making, problem-solving, scientific reasoning, ethical awareness, and lifelong learning competencies in response to the continuous evolution of medical technologies and clinical practice.

Career Opportunities

Graduates of the Master of Science programme in Medical Imaging and Radiotherapy will be equipped with advanced scientific, technical, clinical, and research competencies that can support their professional development across a range of healthcare, academic, and medical technology environments.

Depending on their chosen specialisation, professional qualifications, applicable national regulations, and institutional requirements, graduates may pursue career opportunities in the following areas:

A. Advanced Diagnostic Imaging

· Advanced Diagnostic Imaging Departments in public and private hospitals.

· Computed Tomography (CT) and Magnetic Resonance Imaging (MRI) units.

· Angiography and interventional imaging departments.

· Advanced imaging and image post-processing centres.

· Medical imaging research and development institutions.

· Medical technology companies specialising in diagnostic imaging equipment and software.

· Clinical applications and technical support departments within medical imaging technology providers.

· Academic and educational institutions involved in radiography and medical imaging education.

B. Radiotherapy and Dosimetry

· Hospital-based radiotherapy and radiation oncology departments.

· Oncology centres and specialised cancer treatment institutions.

· Clinical dosimetry and treatment planning units.

· Radiotherapy quality assurance and quality control departments.

· Clinical research projects involving radiotherapy, treatment optimisation, and radiation oncology.

· Academic and educational institutions specialising in radiotherapy and medical radiation sciences.

C. Nuclear Medicine

· Nuclear medicine departments in public and private healthcare institutions.

· PET/CT and SPECT/CT diagnostic imaging units.

· Nuclear medicine therapy departments.

· Radiopharmaceutical and radioisotope-related facilities, within the scope of their professional qualifications.

· Radiation protection and monitoring services in nuclear medicine environments.

· Medical technology companies specialising in nuclear imaging equipment and radiopharmaceutical technologies.

· Research institutions conducting studies in molecular imaging, nuclear medicine, and theranostics.

· Academic and educational institutions specialising in nuclear medicine and medical imaging sciences.

D. Research, Academic and Technological Career Opportunities

· Scientific Research: Participation in research projects related to medical imaging, radiotherapy, nuclear medicine,
radiobiology, radiation physics, and emerging healthcare technologies.

· Academic and Higher Education: Engagement in teaching, academic assistance, curriculum development, and research activities
within higher education institutions, subject to institutional requirements.

· Medical Technology and Industry: Professional roles in medical equipment manufacturers, healthcare technology companies,
clinical applications, product development, and technical consultancy.

· Artificial Intelligence and Medical Imaging Informatics: Participation in projects involving AI-assisted image analysis,
image reconstruction, diagnostic support systems, and the optimisation of clinical workflows.

· Clinical Research and Innovation: Involvement in clinical trials, technology assessment, evidence-based practice,
and multidisciplinary innovation projects.

· Doctoral and Postgraduate Studies: Progression to PhD programmes and further specialised academic training
in medical imaging sciences, medical physics, radiotherapy, nuclear medicine, biomedical engineering, and related disciplines.

Curriculum information will be available soon.