Electronic Engineering

1. Department Context and Research Mission

The Hellenic Mediterranean University's Department of Electronics Engineering has been established as one of the most prominent academic units in Greece for conducting cutting-edge research and technology education for telecommunications, electronic devices, automation, computer science and other relevant technologies.
The Department's mission focuses on achieving high-quality research, teaching and innovation to produce engineers with a strong technical foundation, as well as the ability to analyze and conduct research in all current engineering fields.
As part of the doctoral program, the Department provides the opportunity for candidates to engage in the creation of new and original scientific research that will significantly contribute to our knowledge base and advancements in Electronic Engineering and related disciplines.
The Department's research culture is based on interdisciplinary inquiries and technical excellence, and this is made possible through the use of state-of-the-art laboratories and faculty expertise in areas including signal processing, telecommunication, automation systems, wireless technologies, embedded systems, energy-related electronic devices, biomedical electronics, environmental technologies, and computational methods.
In addition to being exposed to an environment that fosters cross-disciplinary collaboration and international publication opportunities, the doctoral candidates will have the opportunity to explore technological applications.

2. Doctoral Programme Structure and Progression

The primary purpose of the PhD program is to produce original research and promote scientific leadership beyond what can be achieved through a Master's degree. Each candidate will participate in an extended period of individualized independent research resulting in a doctoral dissertation that demonstrates an innovative contribution to engineering knowledge and practice.
A full-time candidate will typically complete the minimum expected duration of doctoral study in three (3) academic years, while part-time study may be permitted according to University regulations. A competitive admission process includes consultation with a prospective advisor, submission of a research proposal and formal review of the candidate's application by the Department. Following admission to the program, candidates will work in close collaboration with their supervising committee who will assist in determining the research direction, methodology and scholarly development. Progress toward meeting the required academic standards will be assessed regularly via written and oral reports/presentations. Course work is optional for the doctoral program and independent inquiry, experimentation and scholarly dissemination are the major elements of the doctoral experience. Each candidate will have access to laboratories, computing resources and collaborative research networks. Upon completion of their dissertation, candidates will be awarded a PhD in Electronics Engineering, demonstrating their ability to carry out advanced research in academic, industrial or research environments.

3. Academic Domains and Research Focus Areas

Research within the doctoral programme reflects the breadth and depth of contemporary electronics engineering and its applications. Candidates are encouraged to align their dissertation work with one of the Department’s recognised research domains, which include but are not limited to:

Telecommunications & Network Technologies

Research topics include wireless communications (5G and beyond), digital modulation and coding, network optimisation, mobile and satellite communications, “smart antenna” systems, and signal propagation challenges. These domains address both theoretical and practical challenges in communication systems, network design, and performance under realistic constraints.

Signal & Electromagnetic Systems

Candidates investigate the physics, modelling, and computational methods for scattering, propagation, and radiation of electromagnetic waves. Additional topics include the biological effects of electromagnetic fields, microwave systems, waveguide structures, wearable and IoT devices, and advanced signal processing solutions.

Plasma, Laser & Advanced Materials

The Department supports research on high-intensity laser–matter interactions, plasma diagnostics, fusion research, laser generated secondary sources, and advanced material characterisation using laser techniques. Biomedical applications of high-power lasers also fall within this domain, connecting fundamental science with application-oriented research.

Electronics, Power Systems & Biomedical Devices

Doctoral projects in this domain address power electronics, energy management for battery systems, optoelectronic devices, biomedical electronics, and environmental control technologies. These areas combine theoretical frameworks with laboratory experimentation and system analysis.

Computational Intelligence & Software Systems

Research themes include software technologies, heterogeneous parallel computing, data mining, deep learning, neural networks, fuzzy logic, and hybrid adaptive systems. Applications span interdisciplinary fields where intelligent algorithms enhance system performance and decision support.

These domains allow doctoral candidates to tailor their research to cutting-edge challenges, while interdisciplinary collaboration continues to expand opportunities for impactful work.

4. Research Integration, Facilities & Professional Engagement

Doctoral students have access to facilities for research and computer-based work of the department, as well as cross-disciplinary initiatives that are supported by external and institutional funds for research. These include projects at European level and national level which encourage candidates to participate in funding consortia and international collaborations to enhance the global scope of doctoral studies.
Integration of research and professional development involve expectations for publication in peer review journals; presentations of work at international conference; participation in seminars and workshops on academic subject matters. Candidates may also participate in teaching and auxiliary research activities, subject to policies of the department, to support their professional growth and contribution to academic service.
The doctoral training framework provides opportunities for mobility and knowledge exchange and enables candidates to collaborate with foreign partner institutions and abroad research centres. This experience will bring new technical perspectives; enhanced research networks; and competitive job opportunities in both academia and industry to graduates.

5. Graduate Outcomes and Professional Preparation

The graduates of the PhD programme in Electronics Engineering are able to:

• Formulate and address complex research questions that advance theoretical and practical understanding in electronics and related systems.

• Design and implement rigorous experimental, analytical, or computational methodologies.

• Communicate complex technical concepts effectively in written and oral forms across academic and professional audiences.

• Lead multidisciplinary research teams and contribute to innovation ecosystems.

• Recognise ethical, societal, and professional responsibilities intrinsic to research and technological development.

• Engage in lifelong learning and adapt to emerging trends and technologies.

Doctoral graduates are well positioned for careers in academic research and teaching, research and development divisions of industry, technology leadership roles, and consulting or advisory capacities that require deep technical expertise. They also possess the credentials necessary to compete for research funding and to assume leadership roles in collaborative innovation initiatives.