Learning outcomes

The RADMEP+ programme equips students with a strong combination of scientific, technical and professional skills. Graduates are prepared to work in international, multidisciplinary environments and contribute to advanced research and technological development.

Core Competencies

• Graduates demonstrate advanced knowledge in radiation effects on microelectronics and photonics, and are able to apply this knowledge to solve complex scientific and engineering problems in related fields.
• They develop strong critical thinking, analytical and research capabilities, allowing them to independently identify, formulate and solve complex problems using advanced tools and methodologies.
• Graduates understand the broader social, economic and ethical implications of their work, and are able to integrate these considerations into their professional practice.
• They show adaptability, initiative and a commitment to lifelong learning, enabling them to evolve in rapidly changing technological environments.
• They are able to work effectively in multidisciplinary, multicultural and geographically distributed teams.
• Graduates communicate effectively in oral, written and technical formats, and are capable of presenting complex concepts clearly to diverse audiences.

Professional and Global Skills

• Graduates develop a global perspective on the development and application of microelectronics and photonics, enabling them to address international challenges and contribute to their fields of expertise.
• They acquire strong project management and teamwork skills through collaborative and multicultural experiences.
• They are able to communicate and collaborate effectively in international environments while navigating cultural differences.
• Graduates understand international technological and scientific challenges and are prepared to contribute to sustainable and innovative solutions.

Specific Learning Outcomes

• Graduates demonstrate broad experience and in-depth understanding of microelectronics, photonics and their applications, with specific expertise in radiation effects.
• They are able to assess system vulnerability and propose solutions to improve radiation hardness.
• They are capable of critically analysing and evaluating technical solutions, and can independently conduct R&D projects in familiar or unfamiliar contexts.
• They develop strong skills in experimental, theoretical and numerical design, and are able to work effectively in interdisciplinary research environments.
• Graduates are proficient in analysing and interpreting data using advanced methods, including data processing and artificial intelligence techniques.
• They are able to identify, formulate and solve complex problems in photonics and microelectronics, while integrating knowledge across multiple disciplines.
• Graduates communicate effectively in presenting ideas, results and concepts, both orally and in writing, as well as through other technical media.

These learning outcomes are continuously updated through close collaboration with industrial partners, ensuring that the programme remains aligned with current and future industry needs and expectations.