I'm Ashley Dickson, a final-year PhD candidate specialising in scalable machine learning and surrogate modelling for large-scale scientific problems. My work focuses on developing data-driven models that can emulate complex high-fidelity simulators while remaining computationally tractable. I'm eager to apply my modelling, optimisation, and software-engineering skills to real-world problems, translating rigorous research into practical solutions that drive scientific and engineering progress.

Ashley Dickson

I'm Ashley Dickson, a final-year PhD candidate specialising in scalable machine learning and surrogate modelling for large-scale scientific problems. My work focuses on developing data-driven models that can emulate complex high-fidelity simulators while remaining computationally tractable. I'm eager to apply my modelling, optimisation, and software-engineering skills to real-world problems, translating rigorous research into practical solutions that drive scientific and engineering progress.

Available to hire

I’m Ashley Dickson, a final-year PhD candidate specialising in scalable machine learning and surrogate modelling for large-scale scientific problems. My work focuses on developing data-driven models that can emulate complex high-fidelity simulators while remaining computationally tractable.

I’m eager to apply my modelling, optimisation, and software-engineering skills to real-world problems, translating rigorous research into practical solutions that drive scientific and engineering progress.

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Experience Level

Expert
Expert
Expert
Intermediate
Intermediate
Intermediate
Intermediate

Language

English
Fluent

Work Experience

PhD Engineering at UK Atomic Energy Authority / Lancaster University
September 1, 2023 - Present
Designed and built a 7M+ sample training dataset using an automated distributed SLURM pipeline across high performance computer clusters (Python, Bash), leveraging both GPU and CPU resources. Trained scalable probabilistic Gaussian Process Regression model to emulate a high-fidelity simulator, enabling accurate prediction of radiation damage relevant to the nuclear fusion industry. Implemented Bayesian optimisation for hyperparameter tuning (PyTorch), improving RMSE by 10%. Benchmarked model performance, achieving a 200,000× speed-up over the ground-truth simulator with minimal accuracy loss; reduced computational complexity from O(N^3) to O(N). Applied Kernel principal component analysis and farthest-point sampling to reduce dataset size by 50% while maintaining predictive performance. Developed cross-validation and performance evaluation framework to ensure robust generalisation across large-scale datasets. Presented findings at international conferences, translating complex technic
Teaching Assistant at Lancaster University
October 1, 2024 - Present
Delivered hands-on workshops in C programming for engineering students. Hosted mathematics tutorials for groups of 15 students.
Research Internship at Murphy Materials Modelling Group
June 1, 2022 - September 30, 2022
Analysed time-series atomistic simulation data to explain diffusion of tritium in nuclear fusion materials.

Education

PhD Engineering at UK Atomic Energy Authority / Lancaster University
September 1, 2023 - April 9, 2026
BSc (Hons) Chemistry at Lancaster University
October 1, 2020 - June 30, 2023

Qualifications

Add your qualifications or awards here.

Industry Experience

Energy & Utilities, Computers & Electronics, Education, Manufacturing, Professional Services