PhD Studentship in Single Atom Catalyst Research 2026 offers an outstanding fully funded opportunity at the University of Nottingham for students eager to explore cutting-edge developments in single-atom catalysis. This program allows you to build hands-on expertise in X-ray spectroscopy, ultra-high-vacuum technologies, and advanced structural analysis while contributing to innovative, high-impact research.
Applicants with strong academic foundations in chemistry, physics, or closely related disciplines are encouraged to apply. The ideal candidate is curious, motivated, and passionate about atomic-level investigations. While not required, prior experience in spectroscopy, vacuum instrumentation, or programming will be considered an added advantage.
Benefits of PhD Studentship in Single Atom Catalyst Research 2026
• Full PhD funding covering tuition fees and stipend
• Enhanced stipend: £2000/year above UKRI minimum, supporting Oxfordshire cost of living
• Extensive hands-on training at Diamond Light Source, the UK’s premier synchrotron facility
• Skill development in:
– Synchrotron light techniques
– X-ray photoelectron spectroscopy
– X-ray absorption and structural determination methods
– Ultra-high vacuum instrumentation
– Data processing and scientific programming
– Scientific communication, project management, leadership
• Opportunity to collaborate with top UK institutions (Warwick, Nottingham, QMUL, Diamond Light Source)
• Engagement with international research groups using the synchrotron facility
Eligibility Criteria for the PhD Studentship in Single Atom Catalyst Research 2026
- Eligible Countries: All countries are eligible to apply.
- Acceptable Course or Subjects: The scholarship will be awarded for PhD research in Chemistry, Physics, Materials Science, or related disciplines offered by the University of Nottingham.
- Admissible Criteria: To be eligible, applicants must:
• Hold a strong academic background in chemistry, physics, or a related subject.
• Demonstrate interest in fundamental research and atomic-scale studies.
• Show willingness to work extensively at Diamond Light Source (up to two years).
• Possess (optionally) practical experience with ultra-high vacuum systems, XPS, synchrotron methods, or scientific programming (not essential).
• Be able to start by July 2026 (earlier start dates possible).
How to Apply for the PhD Studentship in Single Atom Catalyst Research 2026?
- Start by reviewing the full project details and eligibility requirements for the PhD Studentship in Single Atom Catalyst Research 2026.
- Prepare your application materials, including your updated CV, academic transcripts, and a concise statement explaining your research interest.
- Clearly outline why you are a strong match for this studentship and how your background supports the project focus.
- Gather contact information for your academic referees and ensure they are ready to provide timely recommendations.
- Complete the online application form with accurate personal, academic, and research information.
- Upload all required documents in the correct format before submitting your application.
- Double-check every section of your submission to ensure nothing is missing or incomplete.
- Submit your application well before the deadline to avoid last-minute issues.
Frequently Asked Questions (FAQs)
PhD Studentship in Single Atom Catalyst Research 2026 offers a unique opportunity to study single-atom catalysts on defective graphene at atomic resolution using synchrotron techniques. Supervised by Dr David Duncan at a UK chemistry department, the project begins July 2026 (deadline 31 Dec 2025). Ideal for candidates with a chemistry/physics background, even without prior specialized experience.
What is this PhD Studentship in Single Atom Catalyst Research 2026 about?
PhD Studentship in Single Atom Catalyst Research 2026 is a fully funded PhD to study single-atom catalysts anchored on defective graphene supports. The research uses synchrotron-based techniques to monitor structural, chemical and electronic changes of single metal atoms during catalytic reactions.
Which institution is offering this and who will supervise it?
The position is offered by the School of Chemistry at the University of Nottingham under the supervision of Dr David Duncan. Research will take place mainly at the UK national synchrotron facility.
Where will the research be conducted?
PhD Studentship in Single Atom Catalyst Research 2026 will be strongly based at the UK national synchrotron facility (Diamond Light Source), with support from the University’s chemistry department for at least the first two years.
When does the PhD Studentship in Single Atom Catalyst Research 2026 start, and when must I apply by?
The intended start date is July 2026, though an earlier start may be possible. The application deadline is 31 December 2025.
What will the student actually do during this PhD Studentship in Single Atom Catalyst Research 2026?
You will deposit single metal atoms onto carefully prepared defective graphene supports and then study their catalytic behavior — monitoring structural, chemical and electronic changes throughout catalytic reactions with picometer precision.
What skills and techniques will I learn?
Training includes use of synchrotron light techniques, X-ray photoelectron spectroscopy (XPS), X-ray absorption, structural determination (e.g. X-ray standing waves), ultra-high vacuum apparatus, scientific programming, data processing plus transferable skills like communication, collaboration, project management and leadership.
What kind of background are they looking for in applicants?
They expect a background in chemistry, physics or a related discipline. Practical experience in ultra-high vacuum systems, XPS or scientific programming is useful but not essential. A strong curiosity about fundamental science is valued.
Is the PhD Studentship in Single Atom Catalyst Research 2026 funded — what about stipend?
Yes, it is fully funded. To account for living costs in Oxfordshire, the stipend includes a £2,000 per year enhancement above the standard funding minimum.
Why is this project important — what’s the broader goal?
By studying catalysts at the atomic scale, the project aims to deliver fundamental insight into how catalytic processes actually operate. Better understanding could influence development of more efficient, realistic catalysts for industrial processes.
How do I express interest or apply?
Interested candidates should contact Dr David Duncan by email, briefly introducing themselves and their background, to discuss suitability and further application details.
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