The objectives of the MRes programme are to equip students with the advanced, technical, professional, and specialized study skills required to conduct state-of-the-art research in the fields of electronic engineering, and to develop a critical awareness of the advanced techniques and technological advances available to conduct such research. Candidates enrolled in the MRes program will gain the necessary competencies for:
- An advanced-level profession including doctoral-level studies and scholarly research;
- active involvement in the creation of novel concepts and methods in electrical engineering;
- Individual responsibility for project management in a supervisory role;
- A commitment to lifelong learning and an understanding of the need of education for continued professional development in order to provide people with the breadth of knowledge, skills, and attitudes necessary to meet the constantly changing demands of a high-tech industrial environment.
Several UK institutions now offer the MRes degree, which is actively supported by research councils such as the EPRSC. To enable applicants to engage in creative research and development, the main aim of the programme is to provide advanced knowledge in specialised areas of engineering as well as general transferable skills in research and project management. These programmes are designed to meet the advanced skills requirements of companies in these fields.
Depending on future demand and availability of teaching resources, this MRes programme may introduce elective modules to reflect advances and state-of-the-art developments in electronics fields such as advanced mobile communications, embedded systems, wireless sensor networks and chip design. The curriculum consists of compulsory general education courses worth 20 credits and a dissertation worth 160 credits.
Potential research areas in Electronic Engineering
Advanced Semiconductor Devices: Research on new materials (such as graphene, GaN) and technologies for semiconductors to enhance performance and reduce power consumption.
Flexible and Wearable Electronics: Development of electronic devices that are flexible, stretchable, and can be worn on the body, focusing on materials, fabrication techniques, and applications.
Internet of Things (IoT): Exploration of sensor networks, communication protocols, data analytics, and security measures for connected devices.
Wireless Communication Technologies: Research on the next generation of wireless communication (6G and beyond), including new spectrum usage, advanced modulation schemes, and MIMO systems.
Embedded Systems: Design and optimisation of embedded systems for various applications, including real-time processing, energy efficiency, and integration with IoT.
Power Electronics: Innovations in power conversion, management, and distribution systems, including renewable energy integration and electric vehicles.
Artificial Intelligence in Electronics: Application of AI and machine learning techniques to optimise electronic system design, predictive maintenance, and autonomous systems.
Photonics and Optoelectronics: Research on devices that convert electrical signals into optical signals and vice versa, including lasers, photodetectors, and optical communication systems.
Biomedical Electronics: Development of electronic devices and systems for healthcare applications, such as medical imaging, bio-sensors, and implantable devices.
Cyber-Physical Systems: Integration of computing, networking, and physical processes to create smart systems that interact with the physical world.
Electronic Materials and Reliability: Investigation of materials used in electronic devices and systems to improve their reliability, lifespan, and performance under various conditions.
Robotics and Automation: Development of advanced robotic systems and automation technologies for industrial, medical, and consumer applications.
Signal Processing: Research on techniques for processing signals to extract information, including image, audio, and communication signal processing.
VLSI Design and Testing: Design and testing of very-large-scale integration (VLSI) circuits, focusing on performance optimisation, power efficiency, and fault tolerance.
Telecommunication Networks: Research on network architecture, protocols, and technologies to improve the efficiency, scalability, and security of telecommunication networks.
Sensing: Development and optimisation of sensors for various applications, including environmental monitoring, healthcare, industrial automation, and smart cities.
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