Electronic Engineering

1. Program Mission and Educational Objectives

The Department of Electronic Engineering at the Hellenic Mediterranean University offers a five-year integrated undergraduate program leading to a Diploma equivalent to a Master’s degree. The mission of the Department is to provide high-quality education in electronic engineering that combines rigorous scientific foundations with exposure to cutting-edge technologies in telecommunications, automation, control systems, computing, and information technology. The program prepares graduates who can analyze, design, implement, and evaluate complex electronic and technology-driven systems in a global context. It further supports the advancement of science and technology through basic and applied research, while equipping students with professional skills, ethical awareness, and an understanding of the societal impacts of engineering solutions. This mission reflects the Department’s ongoing effort to modernize and update its curriculum to meet evolving academic, technological, research, and professional standards, both locally and internationally.

2. Curriculum Structure and Learning Progression

The Electronic Engineering curriculum spans ten academic semesters and is carefully structured to develop students’ knowledge and abilities from foundational science to advanced engineering practice in accordance with the Hellenic Authority for Higher Education-style (HAHE) educational frameworks. In the early semesters, students build a strong basis in mathematics, physics, programming, circuits and systems, and electronic principles, enabling them to formulate and analyze engineering problems using established analytical and quantitative methods. As students progress into intermediate and advanced coursework, they encounter more specialized subjects, laboratory experiences, and design challenges that integrate theoretical understanding with practical implementation.

The program requires completion of at least 300 ECTS credits, including core mandatory courses, elective technical courses grouped in thematic clusters, free elective courses, and the Diploma Thesis. Students also have the opportunity to undertake a three-month professional internship to enhance their real-world engineering experience. The Diploma Thesis, undertaken in the final semesters, serves as a capstone project in which students demonstrate mastery of engineering knowledge, modern tools, experimental skills, and independent critical judgment to address complex electronic engineering problems.

3. Academic Domains and Specializations

The advanced part of the curriculum is centered on key academic domains and specializations that align with international professional practice and emerging technological fields within electronic engineering. These domains allow students to deepen technical expertise while ensuring a broad and cohesive engineering education.

Within the domain of Telecommunications and Networks , students study communication systems, digital and analog signal transmission, wireless communications, antenna theory, and network architectures. Students who focus in this domain develop the ability to analyze and design robust communication infrastructures that underlie modern information exchange, enabling them to respond to global demands in telecommunication industries.

The Automation, Control, and Intelligent Systems domain emphasizes systems that sense, compute, and actuate to perform autonomous or semi-autonomous functions. Students engage with topics such as automatic control theory, embedded systems, intelligent algorithms, and robotics. This domain prepares graduates to design and implement systems that operate reliably under real-world constraints and interact seamlessly with complex environments, reflecting trends in smart manufacturing, autonomous systems, and cyber-physical integration.

In the Electronics, Photonics, and Nanoelectronic Systems domain, students study the electronic properties and design of devices and circuits, including microelectronics, VLSI, semiconductor physics, and optoelectronics. This domain equips students with knowledge of device-level phenomena and design methodologies that facilitate innovation in areas such as integrated circuits, sensor technologies, and high-speed electronic systems.

The domain of Information Technology and Software Systems explores computing, software design, data structures, distributed systems, and information processing. Students gain competencies in algorithm development, software engineering, security, and data communications, which are essential components of modern electronic system design across technology sectors.

Together, these domains ensure that graduates have both the breadth and depth of technical knowledge required for modern professional engineering practice.

4. Laboratory Experience, Research Integration, and Continuous Improvement

Laboratory practice, research engagement, and continuous feedback are integral components of the Department’s educational approach. Students participate in laboratory courses that strengthen their ability to conduct experiments, collect and interpret empirical data, and apply engineering tools to complex systems. These practical experiences support HAHE-style student outcomes related to experimentation, analytical reasoning, and the application of modern engineering software and hardware tools.

The Department maintains research activities and facilities that provide students with opportunities to engage in ongoing projects related to telecommunications, automation, nano-electronics, photonics, and information systems. Many Diploma Theses are embedded in research endeavors or industry collaborations, enabling students to contribute to innovation while refining their analytical and design skills. Feedback from students, alumni, industry partners, and faculty is systematically reviewed and used to improve curricular content, teaching methods, and learning outcomes.

5. Professional Preparation and Graduate Outcomes

Graduates of the Department of Electronic Engineering demonstrate attainment of learning outcomes consistent with HAHE criteria. They are able to apply mathematics, science, and engineering principles to complex problems; design electronic and technology-based systems that satisfy specified requirements; conduct experiments and analyze data; communicate effectively with technical and non-technical audiences; function collaboratively in multidisciplinary teams; recognize ethical and professional responsibilities; and engage in lifelong learning to adapt to technological change.

The program prepares graduates for professional practice in sectors such as telecommunications, automation and control, electronics design, software and information systems, and embedded computing, both in Greece and globally. In addition, the program’s strong analytical and technical foundation provides an excellent basis for postgraduate education and research at leading institutions worldwide. By fostering adaptability, innovation, and professional integrity, the Department equips its graduates to contribute responsibly and creatively to technological advancement and societal well-being.