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Short Bio
- CV_2025.pdf
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Analysing the effect of variant classifications on p53 regulation
Harry Triantafyllidis
PhD, Applied Computer Science (Operations Research)
Departmental Lecturer
Mathematical Modelling | Optimization | Machine Learning in Health
Intro
I obtained my PhD Degree in Computer Science (Operations Research) in Greece, co-advised by the Massachusetts Institute of Technology. Since then, I have been an MRC Early Career Research Fellow with the School of Public Health at Imperial (2021-2022), and have held postdoctoral research positions at University College London (2016-2018) and University of Oxford (2018-2021).
My research centers on the development and application of advanced analytical tools in healthcare/medicine, aimed at enhancing decision-making processes that inform policy and improve patient stratification and disease outcomes. I am currently working with NCDs such as cancer, asthma and sickle cell disease. The ultimate aim is to bridge the gap between data science and practical health applications, driving improvements in global health and providing impactful actionable insights in the clinical setting.
Research
My current research focuses on utilizing mathematical programming optimization, machine learning techniques, and deep learning to identify phenotypic differences in disease and primarily in different types of cancer.I have built a platform called HarmonizeR to facilitate genomic and transcriptomic integration into these methodologies using R and Python. The platform enables analyses of a multitude of angles:
- Exploratory genomic, transcriptomic analysis (unsupervised learning)
- Generalised Linear Models for Classification across multiple clinical and molecular features using RENOIR
- Gene - Regulatory Network Reconstruction and Optimization using Mathematical Programming (MILP) using CARNIVAL
- Deep Learning
Currently I am interested to infer the functional implications of different somatic mutations by classifying their heterogeneity (gene activity profiling in pathways, modes of regulation) across cancer type, subtype and other clinical/molecular features.
Teaching
Modules:
- Data Science (MSc)
Combining Mathematical Programming with Machine / Deep Learning
Recent publications
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Mathematical Programming and Graph Neural Networks illuminate functional heterogeneity of pathways in disease
Triantafyllidis CP., (2024)
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A machine learning and directed network optimization approach to uncover TP53 regulatory patterns.
Triantafyllidis CP. et al, (2023), iScience, 26
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Towards personalised early prediction of Intra-Operative Hypotension following anesthesia using Deep Learning and phenotypic heterogeneity
Garmendia AT. et al, (2023)