Microsystems and Nanoengineering
Full-time
Part-time
One year
Two year
January 2026
In a nutshell
Microsystems and nanoengineering are transforming the world we live in. Today, the ability to design, fabricate, and integrate thousands to millions of miniature devices onto a single chip is driving technological revolutions in computing, communications, healthcare, aerospace, smart sensing, energy, and artificial intelligence. From the microprocessors that power the world’s most advanced computers to the photonic chips that enable global data communication, these breakthroughs are the result of continuous innovation in micro and nano-scale engineering.
Originally developed for the semiconductor and microelectronics industries, micro and nanoengineering technologies are now being applied far beyond traditional electronics. They underpin next-generation biomedical implants, environmental and space-ready sensors, intelligent autonomous systems, integrated photonics, MEMS for AR/VR navigation, and even quantum and neuromorphic computing hardware. Rapid progress in nanomaterials, photonics, microfabrication, and device integration means that the future of advanced engineering lies at the micro- and nanoscale — and this degree will place you directly at the centre of that future.
International applicant? Please check international intakes for the latest information and application dates.
Start your MSc Microsystems and Nanoengineering study journey
Register for our next Open Day where you can learn more about the course, tour our new engineering facilities and meet the tutors
You will:
- Build a strong scientific and engineering foundation in microsystems, microelectronics, photonics, quantum-inspired technologies, MEMS, and nanotechnology
- Gain hands-on cleanroom experience using professional-grade microfabrication tools (e.g., lithography, etching, thin-film deposition, metrology and microscopy)
- Design and fabricate real microscale/nanoscale devices, from concept and simulation through to physical characterisation
- Develop industry-relevant software skills, including MATLAB data analysis, COMSOL Multiphysics simulation, and lithography design tools
- Create a full working prototype as part of a final project — an ideal portfolio for PhD or high-tech engineering roles
students accepted
This is for you if...
You hold, or are completing, a degree in engineering or a science-based discipline (e.g. Mechanical, Electrical, Electronics, Materials, Physics, Chemistry, Bioengineering or related disciplines)
You want to apply science and engineering beyond theory and into real-world, future-orientated technologies
You enjoy designing, prototyping, experimenting, or working with high-precision tools and laboratory equipment
You aim for an industry career in semiconductors, electronics, photonics, sensors, biomedical engineering, robotics, aerospace, AI hardware, advanced manufacturing, clean energy or quantum technologies — or you wish to pursue a research-focused PhD
Your future plan is to obtain a PhD in advanced engineering or science fields.
You are motivated, curious, analytical, and excited by the challenge and opportunities of engineering at the micro- and nanoscale
All about the course
Course delivery
Our MSc Microsystems and Nanoengineering course will be delivered through a dynamic combination of laboratory-intensive practical work, simulation-based design training, technical lectures, seminars, industry engagement, and research-led project development.
You will master the fundamentals of microelectronics, nanophotonics, and microsystem design. You will also use advanced simulation tools to design nanoscale and microscale structures.
Part of the laboratory work will be taught in a professional cleanroom environment, with access and training for lithography, thin-film processing and device fabrication. You will learn how to pattern and etch semiconductor chips (e.g. silicone) and deposit thin films on these chips. You will also learn various characterisation techniques such as scanning electron microscopy, profilometry, alongside electronic and photonic device measurements.
The course will enable you to develop strong analytical and laboratory reporting skills using professional characterisation equipment such as SEM, AFM and profilometry. It will also provide you with the tools and training to design, fabricate and characterise complete microsystems on a chip, and you will complete an independent research and fabrication project, supported by expert academic supervisors and technical staff. You will also have the opportunity to submit designs for external industrial-grade nanofabrication.
Design and Characterisation Lab
In this module, you will develop practical skills in analysing microscale and nanoscale devices and materials. You will use a range of professional measurement and inspection tools including scanning electron microscopy (SEM), profilometry and ellipsometry to evaluate surface, structural and optical properties. You will learn how to collect, interpret and present data using MATLAB, and how to model device structures using simulation/design software such as COMSOL Multiphysics and KLayout. You will also learn the application of mathematical concepts such as vectors and vector fields in design and simulation of advanced engineering and physics systems.
Microfabrication Lab
This module introduces you to the microfabrication workflow used in semiconductor and microsystem manufacturing. Working inside a dedicated cleanroom, you will apply core techniques such as lithography, thin-film deposition, and wet/dry etching to create functional micro-devices on semiconductor wafers. The module includes structured training sessions, supervised lab time, and two mini-projects where you produce and evaluate devices based on your own designs. You will also benefit from industry-relevant seminars and potential external facility visits.
Semiconductor Microdevices
This module develops your understanding of how modern electronic devices are built and operate at the microscopic level. Starting from basic concepts in quantum physics you will study the behaviour of electrons in semiconductor materials, how electronic components such as diodes and transistors function, and how manufacturing processes influence device performance. By linking physical principles to real device technologies, you will gain a solid foundation for careers or research in semiconductor engineering and advanced electronics.
Nanophotonics
This module explores how light can be generated, guided and controlled on a semiconductor chip, enabling technologies such as high-speed communication systems, sensing platforms and optical computing. You will study the principles behind lasers, optical waveguides, photonic integrated circuits and detectors, along with fabrication approaches for building optical components at the micro- and nanoscale. The module provides both theoretical understanding and practical design exercises relevant to fast-growing photonics industries.
Microelectromechanical Systems (MEMS)
This module focuses on miniature mechanical devices that are integrated with electronics and/or photonics to perform sensing, actuation and control functions. You will learn how MEMS devices are designed, modelled and fabricated, and how physical principles influence performance. Case studies may include accelerometers, pressure sensors, micro-mirrors and biomedical micro-devices. You will gain understanding of how MEMS technologies support applications in healthcare, automotive systems, consumer electronics, robotics and aerospace.
Microsystems Project
Your degree will conclude with a substantial individual project that brings together design, fabrication, simulation and testing. Under supervision, you will propose, plan and develop a microsystem or nanodevice aligned with your interests and career path. This project not only strengthens your research, engineering and communication skills, but also provides a portfolio piece that can support job applications or progression to PhD-level study.
We take a flexible approach to our course delivery that promotes diversity and inclusivity and provides a blended learning experience, which will vary to meet specific programme requirements. This learning time includes formal lectures and interactive activities such as seminars, tutorials, practical sessions, laboratory and studio learning. Smaller classes may be used to support collaborative activities such as project and group work and presentations. A range of different assessments and feedback is offered to meet the needs of both our diverse student body and specific subject needs.
Our postgraduate taught courses are normally made up of 30 credit modules which are equal to 300 hours of learning time, or 15 credit modules which are equal to 150 hours of learning time. A Master’s degree typically comprises 180 credits, a PGDip 120 credits, and a PGCert 60 credits.
Please note that exact modules and content offered may vary in order to keep content current and, for courses that offer optional modules, may depend on the number of students selecting particular options. When accepting your offer of a place to study on a programme with optional modules, you should be aware that optional modules may not all run each year. Your tutor will be able to advise you as to the available options on or before the start of the programme. Whilst the University tries to ensure that you can undertake your preferred options, it cannot guarantee this.
School of Science, Engineering and Environment
Rising to the challenge of a changing world, our postgraduate courses are designed to shape the next generation of urbanists, scientists, engineers, consultants and leaders.
Driven by industry, and delivered by supportive programme teams, you can develop the knowledge and skills to take your career potential further.
The course relies heavily on the microfabrication cleanroom and the ‘Microsystems and Nanophotonics’ measurement laboratory at University of Salford.
What about after uni?
EMPLOYMENT
Graduates of the MSc in Microsystems and Nanoengineering are well-equipped for careers across a wide range of high-technology sectors that rely on microfabrication, photonics, semiconductor engineering, advanced sensing and device integration. You will leave the programme with a combination of theoretical knowledge, practical cleanroom experience, software competence, and research skills, making you a strong candidate for both industry and doctoral-level research.
Due to the breadth and depth of training, graduates of this course have a multitude of career paths in different disciplines. Possible industries are semiconductor chip manufacturing (Diodes Inc.), Augmented Reality (Meta), Telecommunications (Infinera), Biotechnology (Illumina), Autonomous driving (Waymo), Navigational Sensing (Honeywell).
You can also continue in further studies for a PhD degree, where MSc graduates with your skill set are in high demand.
LINKS TO INDUSTRY
We have links to Diodes Inc, Nexperia, NXP, Waveoptics/Snap
Employers have informed us that they always have a difficult time recruiting staff with the skill sets targeted in this course. With our MSc in Microsystems and Nanoengineering, you could achieve a career in:
- Semiconductor and Microelectronics Manufacturing
- Chip design, device processing, packaging, reliability and testing
- Integrated Photonics and Optical Communications
- Silicone photonics, laser and detector development, optical sensing
- Aerospace, Defence and Autonomous Systems
- Navigation sensors, MEMS inertial systems, radiation-hard electronics
- Biomedical Engineering and Healthcare Technology
- Implantable sensors, diagnostic lab-on-chip platforms, microfluidics
- Robotics, Automotive and Transport Technologies
- Sensing, control systems, LIDAR, AI hardware and smart mobility
- Energy and Environmental Technology
- Energy harvesting, gas and environmental monitoring systems
- Research & Development Laboratories
- Commercial, governmental, and national scientific facilities
FURTHER STUDY
This MSc provides an excellent platform for PhD and research fellowships, particularly in fields such as:
- Photonics and quantum technologies
- Semiconductor devices and integration
- MEMS, microfluidics and biomedical systems
- Nanomaterials and advanced fabrication
- AI-hardware and neuromorphic computing
Many graduates continue into doctoral research programmes within universities or industry-sponsored R&D teams, while others move directly into high-demand engineering roles where cleanroom and device fabrication experience is a major advantage.
What you need to know
APPLICANT PROFILE
This course is recommended for graduates and experienced professionals who have a background in engineering (e.g., mechanical, electrical, electronics, materials) or science (physics, chemistry, biology, bioengineering) who are good at designing devices, systems and manufacturing processes and enjoy working with precision equipment and advanced technologies.
ENGLISH LANGUAGE REQUIREMENTS
International applicants will be required to show a proficiency in English. An IELTS score of 6.0 (with no element below 5.5) is proof of this.
Read more about our English language requirements, including information about pathways that can help you gain entry on to our degree courses. If you do not have the English language requirements, you could take our Pre-Sessional English course.
INTERNATIONAL APPLICATIONS
Please check international intakes for the latest information and application dates.
Undergraduate degree
- A 2:2 degree or above in engineering or science.
International student entry requirements
We accept qualifications from all around the world. Find your country to see a full list of entry requirements.
Accreditation of Prior Learning (APL)
We welcome applications from students who may not have formal/traditional entry criteria but who have relevant experience or the ability to pursue the course successfully.
The Accreditation of Prior Learning (APL) process could help you to make your work and life experience count. The APL process can be used for entry onto courses or to give you exemptions from parts of your course.
Two forms of APL may be used for entry: the Accreditation of Prior Certificated Learning (APCL) or the Accreditation of Prior Experiential Learning (APEL).
For more information or enquires about this scheme, please contact: AdmissionsSEE-PGT@salford.ac.uk
How much?
| Type of study | Year | Fees |
|---|---|---|
| Full-time home | 2026/27 | £10,620 per year |
| Full-time international | 2026/27 | £19,980 per year |
Additional costs
You should consider further costs which may include books, stationery, printing, binding and general subsistence on trips and visits.
International student scholarships
If you are a high-achieving international student, you may be eligible for one of our scholarships. Learn more about our latest international scholarships.