PhD Studentship: Control-Oriented Modelling and Predictive Quality Regulation for Large-Scale Additive Manufacturing
The University of Manchester, United Kingdom
- Institution
- The University of Manchester
- Country
- United Kingdom
- Position type
- PhD
- Salary
- GBP 21805.00 YEAR
- Location
- Manchester, England, United Kingdom
- Funding
- Fully funded position
Want to be the strongest applicant for this position?
Book a free 15-minute call with our team. We will look at your profile against what The University of Manchester is actually looking for, and tell you honestly where you stand and what to strengthen before you apply.
Book a free call about this position →No cost, no obligation. Mentors who have secured funded PhD positions themselves.
We mentor STEM applicants only. If your research aspirations are outside STEM subjects, you're very welcome to use this board and apply directly; we just aren't the right people to mentor you.
About this position
Application deadline: All year round
Research theme: Additive Manufacturing, Process Control
How to apply: https://uom.link/pgr-apply-2425
This 3.5-year PhD project is fully funded; students who are eligible to pay tuition fees at the Home rate are eligible to apply (more details can be found here). The successful candidate will receive an annual tax-free stipend set at the UKRI rate (£21,805 for 2026/27) and tuition fees will be paid. We expect the stipend to increase each year. The start date is October 2026.
The project is expected to start in September 2026, but applications will be accepted throughout the 2026/27 academic year, subject to availability.
Large-scale additive manufacturing (AM) is a key enabler of sustainable, decentralised production for aerospace, renewable energy and infrastructure components. Autonomous and mobile AM platforms further extend this capability by replacing oversized gantries with coordinated motion. However, scaling AM to large volumes introduces severe challenges in process stability and quality regulation: geometric errors accumulate layer by layer due to thermal effects and deformation, while intra-layer deposition dynamics remain highly nonlinear and sensitive to force, material and environmental variability. Conventional feedback controllers and offline-calibrated parameters become ineffective under such varying operating conditions.
This PhD will develop a multiscale, control-oriented learning framework that delivers stable, robust and physically interpretable quality regulation for large-scale AM. Two challenges will be addressed: (1) How to establish control-oriented data-driven model for nonlinear deposition dynamics; and (2) How to develop multiscale predictive quality regulation under uncertainty. The developed techniques will be validated through simulation and experimental studies on representative large-scale AM platforms available at UoM.
Applicants should have or expect to achieve at least a UK 2.1 honours degree in Mechanical and Mechatronic Engineering, Manufacturing Engineering, Computer Science or related disciplines. Experience in CAD/CAM, autonomous system and robotics development will be an advantage.
To apply, please contact the main supervisor; Dr Kun Qian - kun.qian@manchester.ac.uk. Please include details of your current level of study, academic background and any relevant experience and include a paragraph about your motivation to study this PhD project.
Apply directly to The University of Manchester
Emerging Scholars Council is not the employer and does not recruit for this position. It is advertised by The University of Manchester, and your application goes to them. We help students prepare and strengthen their applications.
Go to the official application page →Contact listed in the advert
Some positions — especially in Germany, Austria and Switzerland — are filled by writing directly to the supervisor rather than through an online form. These addresses were taken from the advert text, so check them against the official listing before you write.
A cold email to a supervisor is the highest-leverage thing you can send — and the easiest to get wrong. Ask us to look at yours before you hit send.