Fully Funded PhD scholarship- A physics-informed data-drive framework for real-time condition...

Updated: over 1 year ago
Location: Ireland,
Job Type: FullTime
Deadline: 30 Aug 2022

The NexSYS project:

The decarbonisation of the Energy System will play a vital role in reducing greenhouse gas emissions and help mitigate the impacts of Climate Change. The technical and societal challenges inherent in decarbonisation are set to be enduring challenges of the mid-21st century and ones that will require a whole of society approach, encompassing academia, industry, government, and citizens.

NexSys is a newly established All Island SFI Strategic Partnership Programme focussed upon the transition to a net zero carbon energy system. It is a unique partnership bringing together a multidisciplinary research team, industry, and policy makers to tackle fundamental research questions to be addressed as part of the transition to Net Zero. Hosted by UCD Energy Institute, NexSys brings together academics from nine institutions across the Island of Ireland (UCD, TCD, DCU, ESRI, Maynooth University, UCC, NUI Galway, Ulster University and Queen’s University Belfast) to work together to meet the unprecedented scale and complexity of the challenges associated with the energy transition.

PhD role description:

In this project, a Structural Health Monitoring data analytics and interpretation framework for real-time condition monitoring of offshore wind turbines (OWTs) will be developed. This will include processing of currently available data from wind farms and recommendations for installing new sensing systems in future, including using these systems for model updating. The successful candidate will develop robust estimates of structural health monitoring features of interest, their performance, and uncertainties. This will lead to guidelines and recommendations around their applications, interpretation and limitations.

In addition, the developed features will be employed to create a physics-informed data-driven framework where the damages at super-structure and sub-structure levels of OWTs can be detected in real-time. This framework will improve our understanding from the remaining life of the turbine and extend our capability of translating ideas of monitoring to practice. Field experimental data measured from real wind farms are available for this PhD. Furthermore, data from scaled testing will be collected and assessed where the challenges around scaling for structural health monitoring will be investigated.

In-house training and career support will be provided by the research team, along with extensive support through academic and industrial networks in this topic. The member will be working with several researchers on the topic of renewable energy, in a multi-disciplinary and multi-cultural environment.



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