Qualification Type: | PhD |
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Location: | Loughborough University, Loughborough |
Funding for: | UK Students |
Funding amount: | £20,780 |
Hours: | Full Time |
Placed On: | 17th March 2025 |
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Closes: | 9th May 2025 |
Supervisor(s)
Enquiries email: n.dethlefs@lboro.ac.uk
Funding for: UK students
Subject areas
Project description
Inspections of offshore wind turbines, such as identifying damage or ice on turbine blades, anticipating its effects and making decisions on maintenance and repair, as well as estimating remaining useful life (RUL), is an important part of extending the lifetime of a wind turbine as well as the power that can be generated from it. While both tasks are often driven by experts, public data on environmental, meteorological or physical conditions, in combination with satellite and / or climate data, can help make predictions for new, unseen conditions.
The latter is particularly relevant when data is sparse. While public data exists on general environmental conditions and turbine power yield, data around specific combinations of operational and environmental conditions is not always readily available — this is particularly the case for new generations of floating or far-offshore turbines, which are much harder to reach and inspect than previous generations much closer to shore, and for which less historical data is available.
This project aim for two key research advances: first, the development of a new human-in-the-loop active learning framework, which uses conversational AI to negotiate key decisions related to turbine inspection and maintenance with a human expert. This can be based on a deep reinforcement learning framework, which interactively optimises key performance indicators in the form of a human-expert informed reward function. Second, we aim for the integration of low-energy machine learning algorithms, so that the resulting AI model can run on a variety of devices, including UAVs (e.g. drones) that may be used in turbine inspection.
The overall aim is the design of a portable learning system that creates a profile of wear and tear of turbines given the environmental, meteorological and physical conditions they operate under. Such data can inform structural health monitoring for offshore wind turbines or help plan new offshore sites, via estimation of power yield in relation to environmental conditions and logistical constraints, such as closeness to shore, shipping routes etc.
Eligibility requirements
If you have received or expect to achieve before starting your PhD programme a First-class Honours degree, or a 2:1 Honours degree and a Masters, or a Distinction at Master’s level a degree (or the international equivalents) in computer science, engineering, physics or mathematics and statistics, we would like to hear from you.
This scholarship is only available to Home (UK) students.
Guaranteed Interview Scheme
The CDT is committed to generating a diverse and inclusive training programme and is looking to attract applicants from all backgrounds. We offer a Guaranteed Interview Scheme for home fee status candidates who identify as Black or Black mixed or Asian or Asian mixed if they meet the programme entry requirements. This positive action is to support recruitment of these under-represented ethnic groups to our programme and is an opt in process.
Closes: 9 May 2025
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