Data and AI Powered Turbulence Modelling for Fusion Energy Cooling Flows PhD 36 months PHD Programme By Loughborough University |TopUniversities
Programme Duration

36 monthsProgramme duration

Tuitionfee

28,600 Tuition Fee/year

Application Deadline

10 Feb, 2025Application Deadline

Main Subject Area

Data Science and Artificial IntelligenceMain Subject Area

Programme overview

Main Subject

Data Science and Artificial Intelligence

Degree

PhD

Study Level

PHD

Study Mode

On Campus

Data and AI Powered Turbulence Modelling for Fusion Energy Cooling Flows PhD
Magnetohydrodynamics (MHD) is critical in many natural and engineering problems. With tackling climate change and NetZero targets among the driving factors of our economies, fusion energy is a potential key technology.
The realisation of future fusion energy relies on effective fusion power plant design and fundamentally sound understanding of metallurgical processes, of which efficient cooling involving MHD is a key step. However, the computational demands of full-scale 3D MHD simulations are significant, particularly due to the need for fine meshing in the inner boundary layers, such as those on Hartmann and side walls, where the behaviour of electric currents must be precisely captured.
This research project aims to develop and test augmented closure models for Reynolds-Averaged Navier-Stokes and Maxwell Equations using previously obtained high fidelity simulation data and AI algorithms. In particular, the tensor and vector based neural network methods, which incorporate a physics-based layer, will be investigated.
By leveraging these methods, the research seeks to reduce the computational load associated with these meshing requirements, enabling faster and more accessible turbulence models which can predict complex flow behaviours under Lorenz and buoyancy forces accurately.

Programme overview

Main Subject

Data Science and Artificial Intelligence

Degree

PhD

Study Level

PHD

Study Mode

On Campus

Data and AI Powered Turbulence Modelling for Fusion Energy Cooling Flows PhD
Magnetohydrodynamics (MHD) is critical in many natural and engineering problems. With tackling climate change and NetZero targets among the driving factors of our economies, fusion energy is a potential key technology.
The realisation of future fusion energy relies on effective fusion power plant design and fundamentally sound understanding of metallurgical processes, of which efficient cooling involving MHD is a key step. However, the computational demands of full-scale 3D MHD simulations are significant, particularly due to the need for fine meshing in the inner boundary layers, such as those on Hartmann and side walls, where the behaviour of electric currents must be precisely captured.
This research project aims to develop and test augmented closure models for Reynolds-Averaged Navier-Stokes and Maxwell Equations using previously obtained high fidelity simulation data and AI algorithms. In particular, the tensor and vector based neural network methods, which incorporate a physics-based layer, will be investigated.
By leveraging these methods, the research seeks to reduce the computational load associated with these meshing requirements, enabling faster and more accessible turbulence models which can predict complex flow behaviours under Lorenz and buoyancy forces accurately.

Admission Requirements

3.2+
6.5+
92+

10 Feb 2025
3 Years
Oct

International
28,600

Scholarships

Selecting the right scholarship can be a daunting process. With countless options available, students often find themselves overwhelmed and confused. The decision can be especially stressful for those facing financial constraints or pursuing specific academic or career goals.

To help students navigate this challenging process, we recommend the following articles:

More programmes from the university

PHD Programmes 368