From Simulation to AI: Neural Networks for Chemical Kinetics in Turbulent Hydrogen Swirling Flames
Project Overview
This project investigates whether a physically constrained neural network can replace expensive chemistry calculations in simulations of hydrogen flames. Using data from a high-fidelity swirling-flow simulation, the network learns to predict how the chemical composition changes while conserving the elements involved. The aim is to make reacting-flow simulations for applications such as gas turbines faster and more practical.
What were the key results of your research project?
- A complete workflow was developed to turn simulation data into neural-network training examples.
- The network reproduced short-term chemical changes accurately, including in an unseen part of the flow domain.
- Physical constraints helped keep the predictions chemically valid.
- Errors accumulated when the network repeatedly predicted further into the future.
- The results show potential for faster chemistry calculations, but further development is needed before integration into a full flow solver.
How do you feel you have benefitted from completing this internship and has it made you consider future career paths?
I have had to learn a whole new skillset to complete this project. I felt out of my depth at many times so I have definitely learnt a lot.
I would feel more confident attempting challenges in this field now, such as taking it up as a career.
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Internships 2026 - Adam Wilson