Sound and Music Technologies

1. Program Mission and Educational Objectives

The MSc in Sound and Music Technology at Hellenic Mediterranean University is based on the idea of developing a scientific approach to the inter-disciplinary study of Audio Engineering and bridging the gap between purely engineering and creatively technological approaches to the subject. The overall goal of this program is to provide graduates with an understanding of current acoustic challenges which are capable of being solved using advanced analytical techniques; thus providing the student with a solid foundation upon which to base their career as an engineer or technologist in the area of acoustics. Based upon the Hellenic Authority for Higher Education ( HAHE) benchmark criteria, the educational goals of this program have been defined by the student's ability to apply advanced mathematical and physical principles to the design of sound systems, to mitigate unwanted noise, and to develop intelligent audio software. Furthermore, beyond the technical requirements of this program, it also aims to develop within each graduate, a set of ethical professional standards, and a desire for continued education and self-improvement, to enable them to be successful in a rapidly evolving global digital media environment.

2. Curriculum Structure and Learning Progression

The curriculum is strategically organized into a three-semester structure for full-time students, totaling 90 ECTS credits, which ensures a balanced progression from foundational theory to autonomous research. During the first and second semesters, students engage in eight core modules that establish a high-level technical baseline. This progression is designed to harmonize a diverse student body—ranging from physicists and informatics experts to music technologists—by focusing on universal principles of signal processing and acoustics. The transition from the taught component to the final semester represents a critical phase of the learning lifecycle, where students dedicate their efforts exclusively to a Master’s Thesis. This structure facilitates a deep dive into specialized inquiry, requiring students to demonstrate their ability to synthesize information, manage complex projects, and produce original scientific contributions. The "no-tuition" model further supports this progression by allowing students to focus entirely on their academic development and integration into the department’s administrative and research ecosystem.

3. Academic Domains and Specializations

The academic architecture of the program is built upon three pillar domains: Sound as Wave, Sound as Signal, and Sound as Information. The first domain focuses on physical acoustics, where students explore wave propagation, room acoustics, and environmental noise control, providing the necessary expertise for architectural and industrial applications. The second domain, audio engineering, shifts the focus to the digital realm, covering the recording, synthesis, and specialization of sound, which is essential for the entertainment and telecommunications industries. The third domain, music informatics, represents the cutting edge of the field, utilizing artificial intelligence and machine learning to analyze and categorize audio data. These specializations are not siloed but are integrated throughout the coursework, ensuring that a student specializing in acoustic design also understands the digital signal processing tools required to simulate and measure those environments. This holistic approach ensures that the program remains relevant to both traditional engineering sectors and the emerging "blue economy" of creative technologies.

4. Laboratory Experience and Research Integration

A defining characteristic of this MSc is its deep integration with the Department’s specialized laboratory infrastructure, which mirrors the HAHE requirement for modern technical facilities. Students gain hands-on experience in the Laboratory of Music Technology and Acoustics, which is globally recognized for its work in optoacoustics and laser physics. This research-intensive environment allows students to work alongside faculty on high-impact projects, such as the development of smart musical instruments or the digital preservation of cultural heritage through soundscape reconstruction. Laboratory exercises are not merely illustrative but are designed as mini-research projects where students must define parameters, collect data, and defend their results. This integration ensures that research is not a distant goal but a daily practice, fostering a culture of inquiry that directly informs the students’ Master’s Theses and prepares them for the rigors of doctoral-level study or high-tech R&D roles.

5. Professional Preparation and Graduate Outcomes

The culmination of the program is measured by the professional readiness and versatile skill set of its graduates. The Quality Assurance Unit monitors graduate outcomes to ensure that the curriculum remains aligned with the needs of international stakeholders and the industry. Graduates emerge as specialized engineers capable of holding roles such as acoustic consultants, audio software developers, and sound designers for immersive media. The program’s emphasis on "extroversion"—manifested through Erasmus+ partnerships and participation in international conferences—ensures that students develop a professional network before they even graduate. Furthermore, the rigorous training in methodology and technical writing ensures that alumni are highly competitive in the European labor market. By maintaining high standards of internal and external evaluation in collaboration with the Hellenic Authority for Higher Education, the program guarantees that its degree holders are equipped to drive innovation and maintain technical excellence in the global marketplace.