Advanced Microelectronic Systems Engineering
Computing, Engineering and Technology
Taught
MSc
Advanced Microelectronic Systems Engineering
Taught
MSc
Overview
Application Timeline
Tuition
- Year 1
| Student categories | Study | |
|---|---|---|
| Full-time | Part-time | |
| England | £15,700 | £7,850 |
| Northern Ireland | £15,700 | £7,850 |
| Scotland | £15,700 | £7,850 |
| Wales | £15,700 | £7,850 |
| Channel Islands | £15,700 | N/A |
| EU | £35,800 | N/A |
| International | £35,800 | N/A |
Requirements
Language requirements information is currently unavailable.
Modules
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About
Overview
Bristol is home to a prominent semiconductor design industry, supported by the University of Bristol's microelectronics research groups. These groups collaborate with multinational companies that have identified a shortage of qualified graduates in the field.
Program Objectives
The program is designed to address the skills gap in the semiconductor sector by providing education in essential areas of microelectronics.
Core Subjects
The curriculum includes a variety of taught subjects, covering:
- Digital and analogue application-specific integrated circuit (ASIC) design
- Digital signal processor (DSP) and field-programmable gate array
Subject Area Information
Microelectronic engineering is a specialized branch of electrical engineering that focuses on the design, fabrication, and application of micro-scale electronic devices and systems. This discipline is integral to the development of modern technology, including computers, smartphones, medical devices, and various consumer electronics.
1. Introduction to Microelectronics
2. Semiconductor Device Physics
3. Microfabrication Techniques
4. Analog and Digital Integrated Circuit Design
5. Microelectromechanical Systems (MEMS)
6. Nanoelectronics
- Understanding of fundamental electronic components
- Basic circuit analysis
- Introduction to semiconductor materials
- Ability to analyze and model the behavior of semiconductor devices
- Understanding of device fabrication processes
- Hands-on experience with cleanroom protocols
- Proficiency in using microfabrication equipment
- Understanding of process integration
- Circuit simulation and layout design using CAD tools
- Understanding of mixed-signal design
- Proficiency in VLSI design methodologies
- Knowledge of MEMS design and fabrication
- Ability to develop micro-scale devices for sensing and actuation
- Understanding of quantum effects in nano-scale devices
- Proficiency in nano-fabrication techniques
- Knowledge of emerging nanotechnologies
Career
Graduates of microelectronic engineering programs can pursue a variety of careers in industries such as semiconductor, consumer electronics, medical devices, automotive, and research and development.
Semiconductor Industry
Roles in design, fabrication, and testing of semiconductor devices and integrated circuits.
Consumer Electronics
Development of electronic components for smartphones, tablets, and other consumer gadgets.
Medical Devices
Design and development of microelectronic components for medical diagnostics and therapeutic devices.
Automotive Industry
Engineering roles focused on electronic control systems and sensors for modern vehicles.
Research and Development
Positions in academic or industrial research labs working on cutting-edge technologies in microelectronics and nanotechnology.
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