| Program start date | Application deadline |
| 2024-09-01 | - |
Program Overview
The Microelectronics: Systems and Devices MSc program equips students with advanced knowledge and practical skills in microelectronics, preparing them for careers in VLSI circuit and system design, electronic device engineering, embedded systems development, and AI hardware integration. Through a blend of lectures, labs, and research projects, students gain expertise in cutting-edge technologies and industry-standard design tools. Graduates have secured positions in leading companies and pursued further studies in microelectronics-related fields.
Program Outline
Degree Overview:
Aims and Objectives:
The Microelectronics: Systems and Devices MSc aims to equip students with advanced knowledge and practical skills in microelectronics, preparing them for successful careers in this dynamic industry. The program emphasizes:
- Cutting-edge VLSI circuit and system design
- Advanced electronic device engineering
- Development of real-time embedded systems
- Integration of microelectronic devices with AI hardware and applications
- Advanced research and development in microelectronics-related fields
Program Description:
This postgraduate program is designed for graduates with a background in electrical and electronic engineering, computer engineering, applied physics, or related disciplines. It equips them with theoretical knowledge and practical expertise through:
- A blend of lectures, tutorials, seminars, practical lab sessions, research projects, group work, and independent study.
- Access to state-of-the-art facilities, including advanced clean-room fabrication and characterisation equipment, and involvement in research collaborations with industry.
- Individual research project on relevant topics for practical application and development of research skills. The program is delivered through a combination of individual modules and a research-based Individual Project.
Outline:
Structure:
- Credits: 180
- Duration: 12 months (full-time)
- Start date: September
Modules:
Compulsory Modules (20 credits each):
- Real-Time Embedded Systems
- Individual Project (60 credits)
- Advanced Electronic Devices
- Low-Power VLSI Design
- Advanced Device Fabrication
- Microelectronics Design Tools
- Research Skills and Development for Engineers
Optional Modules:
- VLSI Circuit Design Techniques
- High-Speed Circuits and Systems
- Low-Power Digital Circuit Design
- Design of Nanostructured Devices
- Memristor Devices and Applications
- Electronic Design Automation for Nanometer Design
- High-Level Synthesis
- Power Management Circuits
Individual Modules Description:
Real-Time Embedded Systems:
Explore concepts and theories like embedded designs, real-time scheduling, concurrent models, interfaces, and real-time interfaces (ACM). Gain knowledge and hands-on experience with reconfigurable hardware platforms like FPGA-based microchips.
Individual Project:
Conduct advanced research on a relevant topic, combining knowledge and skills developed throughout the program. Choose from available research areas or propose your own project, culminating in a dissertation with academic supervision.
Advanced Electronic Devices:
Gain understanding of device operation from a physical perspective, including:
- Semiconductor Physics
- Heterojunctions
- Schottky Contacts
- Metal-Semiconductor and Insulator-Semiconductor Contacts
- Metal Oxide Semiconductor devices
- P-N junctions
- Heterojunction Bipolar Transistors
- Field Effect Transistors
- Heterojunction Field Effect Transistors and High Electron Mobility Transistors
Advanced Device Fabrication:
Learn about processes and techniques used in the fabrication of semiconductor devices, covering:
- Silicon based technologies with MOS structures
- III-V semiconductors
- Etching techniques
- Photolithography
- Sputtering and thermal evaporation
- Atomic Layer Deposition
- Doping techniques and diffusion
- Wafer cleaning techniques
- Characterisation and analysis techniques
- Thin Film Deposition techniques
Microelectronics Design Tools:
Acquire hands-on experience with industry-standard VLSI design tools for circuit design, simulation, and layout, including Synopsys tools, Cadence tools, and Mentor Graphics tools.
Research Skills and Development for Engineers:
Develop valuable research skills, including:
- Literature review and summarization
- Identification and analysis of relevant and irrelevant materials
- Problem analysis and formulation
- Planning and organization strategies
Assessment:
Assessment methods:
- Written examinations
- Coursework
- Projects
- Dissertation
- Oral examinations
- Oral presentations
- Reports
Assessment criteria:
- Demonstration of knowledge and understanding of key concepts and theories
- Critical thinking and analysis skills
- Effective communication skills
- Project management and research skills
Teaching:
Delivery and teaching methods:
- Lectures
- Tutorials
- Seminars
- Practical lab sessions
- Research projects
- Group work
- Independent study
- Computing workshops
Teaching staff:
- Senior academics with expertise in microelectronics and related fields
- Industry experts from collaborating companies
Approaches:
- Multidisciplinary approach to teaching, engaging students with diverse engineering disciplines and industry experts
- Project-based learning with access to state-of-the-art facilities
- Active learning through tutorials and seminars
Careers:
Potential career paths:
- VLSI design engineers
- Microelectronics engineers
- Semiconductor research scientists
- Embedded systems engineers
- AI hardware engineers
- Applications engineering roles in microelectronics companies
Opportunities and outcomes:
- Graduates have secured positions in leading companies including Arm, Intel, Huawei, Infineon, Cadence, Synopsys, Google, and Microsoft.
- Some graduates continue their studies through PhDs in various research areas within microelectronics and related fields.
Other:
- The program is professionally accredited by the Engineering Council and the Institution of Engineering and Technology (IET).
- Students have access to a wide range of dedicated specialist facilities in the School of Engineering and across campus to support their studies.
