Christie Maddock
Senior Lecturer
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Positions (1)
Christie Maddock
University of Strathclyde
11 months ago
This fully funded PhD opportunity at the University of Strathclyde focuses on developing digital twin architectures for advanced rocket propulsion systems in collaboration with Skyrora Ltd, a leading UK space company. The project is part of the Centre for Doctoral Training (CDT) on Rocketry Research, Teaching & Training (R2T2), supported by the UK Space Agency, UKRI, and STFC. The successful candidate will work at the intersection of aerospace engineering, systems modelling, simulation, data analytics, and control engineering to transform rocket engine testing and performance optimisation. The research aims to integrate real-time sensor data, control feedback, and historical test data to enable predictive diagnostics, test automation, and performance optimisation for Skyrora’s 70 kN and 400 kN propulsion systems. The position offers hands-on experience with hot-fire test facilities, real data streams, and a unique environment for launch-vehicle development. Applicants must be UK home students with a Master’s degree in a relevant discipline and a strong interest in engineering and the space sector. Experience with rocketry is a plus. Funding covers tuition, stipend, research training, and travel costs. The application deadline is 14 November 2025, and the start date is January 2026. To apply, candidates should email their CV, supporting statement, and transcripts to Dr Christie Maddock. This opportunity is ideal for those passionate about digital systems, aerospace, and rocket propulsion, offering a pathway to a career in the space/propulsion sector.
11 months ago
Articles (2)
Within the space sector, the application of Environmental Life Cycle Assessment (E‐LCA) is beginning to emerge as a credible and compelling method for scientifically quantifying environmental impacts of space missions. However, E‐LCA does not fully align with the concept of triple‐bottom‐line sustainability, while the combination of all three sustainability dimensions (environment, society, and economy) within a single life cycle study has thus far never been attempted within the space industry. Moving toward a Life Cycle Sustainability Assessment (LCSA) is, therefore, a logical next step for the space sector to allow these three sustainability dimensions to be addressed. Consequently, this article presents the underlying principles of a new LCSA framework for space missions and demonstrates its applicability for improving system‐level design concepts based on the interaction between sustainability dimensions. The framework was formed based on a systematic literature review to analyze the background, issues, and knowledge gaps related to life cycle methodologies, as well as context‐specific sustainability aspects. The framework has been implemented within a life cycle database called the Strathclyde Space Systems Database (SSSD). Using the SSSD, the framework was tested on a mission concept called Moon Ice Observation Satellite to demonstrate how changes in the design for a circular economy and other sustainability‐based principles will affect the functionality of the mission at the system level. It is envisaged that this framework will enable engineers to create sustainable space systems, technologies, and products that are not only cost‐efficient, eco‐efficient, and socially responsible, but also ones that can easily justify and evidence their sustainability. Integr Environ Assess Manag 2023;19:1002–1022. © 2022 The Authors. Integrated Environmental Assessment and Management published by Wiley Periodicals LLC on behalf of Society of Environmental Toxicology & Chemistry (SETAC).
Year:
2023
Year:
2021
Collaborators (2)
Keith Baker
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Andrew Wilson
Lecturer
Glasgow Caledonian University
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