At a Glance
- Tasks: Join us in redefining energy systems through innovative research and modelling.
- Company: University of Edinburgh, a leader in global research and community impact.
- Benefits: Fully funded position, flexible working options, and opportunities for professional growth.
- Other info: Collaborate with industry leaders and present at international conferences.
- Why this job: Make a real difference in the transition to net zero with cutting-edge energy research.
- Qualifications: Background in energy systems, modelling, and strong analytical skills.
The predicted salary is between 29700 - 36300 £ per year.
Locations: Arthur Crum Brown Road, Edinburgh, EH9 3FF, GB
Organization: Edinburgh University Group
Department: Institute for Energy Systems
Apply Before: 01/09/2026, 23:59
Contract Type: Fixed Term
Number of Openings: 1
Job Function: Researcher
Full-time: 35 hours per week
Fixed term: 36 months
Help us redefine what’s possible. Be part of something bigger. The University isn’t just any employer. We are part of a local community and a contributor to global thinking, progress and research. In Edinburgh, you are in one of the world’s most attractive cities with active arts and social sectors, while working in a University that has made significant contributions to society, medicine, physics and teaching for over four centuries. Our people have helped create the modern world and are working on more ground-breaking technologies and practices.
The Opportunity: We are pleased to announce a fully funded Research Associate position in multi-energy markets and planning at the School of Engineering, University of Edinburgh. This position is part of a new EPSRC-funded research project led by Dr Andrew Lyden, examining how energy market design and interactions between electricity, heat and hydrogen can inform long-term energy system planning. The transition to net zero requires planning approaches that capture not only technologies and infrastructure, but also the markets, policies and decisions that shape how the energy system develops.
The project will address this challenge by developing new open-source modelling capabilities for Great Britain. This will include an integrated multi-energy system model alongside agent-based approaches for representing the behaviour of investors, aggregators, consumers and other energy sector actors. The research will explore how different market and policy arrangements affect investment, system operation and infrastructure need across the electricity, heat and hydrogen sectors.
The successful candidate will have an important role in shaping and delivering the research. They will contribute to model development, scenario design, data analysis, research publications and engagement with academic, policy and industry partners. There will be scope to further develop expertise across energy system optimisation, electricity market modelling, agent-based modelling and integrated energy system analysis, depending on the candidate’s background and interests.
The post will also provide opportunities to lead publications, develop open-source research software, present findings at international conferences and work with organisations involved in energy policy, regulation, system planning, and industry. This post is full-time (35 hours per week); however, we are open to considering flexible working patterns. We are also open to considering requests for hybrid working (on a non-contractual basis) that combines a mix of remote and regular on-campus working.
Research Associate in Energy System Modelling and Market Design employer: UK Energy Research Centre
Heriot-Watt University offers an exceptional work environment for those passionate about marine energy, situated in Orkney, a global leader in wave and tidal energy development. With a strong commitment to sustainability and a collaborative culture, employees benefit from opportunities for professional growth through interdisciplinary research and teaching in cutting-edge MSc programmes. Join a vibrant community dedicated to achieving net zero carbon while enhancing social and environmental wellbeing.