The Master of Science Programme in Microelectronics and Integrated Circuits is designed to provide a comprehensive and rigorous foundation in both microelectronics and integrated circuit engineering. By integrating core knowledge in electronic device design, chip architecture, design automation, fabrication techniques, packaging, and testing, the Programme seeks to train graduates who are proficient in every stage of the IC development lifecycle. Students will explore the fundamental scientific principles underpinning these technologies, preparing them for leadership in both academic research and cutting-edge industrial applications.

Students will also gain hands-on experience through laboratories and industry partnerships. The Programme emphasizes both academic rigor and practical skills, ensuring that graduates are well-prepared to meet the challenges of the rapidly evolving semiconductor industry.

Upon completing this Programme, students will have acquired:

1. Comprehensive knowledge of semiconductor physics, electronic devices, and integrated circuits, enabling them to understand and analyse the fundamental principles underlying modern microelectronics systems.
2. Proficiency in using key methodologies, tools, and techniques for electronic device design, chip design, design automation, fabrication, packaging, and testing, including the ability to work with industry-standard software and hardware tools.
3. The ability to develop and implement innovative solutions to complex problems in microelectronics, leveraging both theoretical and practical knowledge in device design, circuit design, and system integration.
4. Skills in optimization and automation of electronic design processes, including the use of design automation tools (EDA), simulation, and verification techniques to improve efficiency and accuracy in microelectronic system development.
5. A deep understanding of fabrication processes and packaging technologies, including knowledge of cutting-edge semiconductor manufacturing techniques, materials, and the integration of components into functional systems.
6. Effective communication and teamwork skills, with the ability to collaborate in multidisciplinary teams, present technical information clearly, and engage in professional discussions, both orally and in writing.
7. An understanding of professional ethics and the societal impact of microelectronics technologies, including knowledge of sustainability, safety standards, intellectual property, and the ethical implications of design choices.