Develop and Validate Blood-Borne Lung Cancer Diagnostic Biomarkers Using Multi-Omics and Interpretable AI
Explore blood-borne biomarkers for early lung cancer detection using matched proteomic, miRNA, and metabolomic data. Integrate multi-omics with novel network and survival models to uncover early disease signals.
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Project Description
Project Overview
Lung cancer is the leading cause of cancer-related death worldwide. This project seeks to develop and validate blood-borne diagnostic biomarkers to enable early detection to save lives. A unique cohort has been collected in Liverpool with matched proteomic, miRNA, and metabolomic profiles from plasma samples collected 1–10 years prior to clinical diagnosis. The project will utilize network-based supervised stratification (NBS2) and time-to-event (TTE) analysis to identify molecular networks indicative of early oncogenesis and late-stage disease.
What You Will Do
- Integrate multi-omics data into consistent analytical frameworks.
- Identify biomarkers by applying NBS2 and TTE analysis alongside benchmarking with other machine learning techniques.
- Validate findings using independent UK Biobank Olink proteins and metabolic datasets.
Expected Outcomes
The project will provide novel insights into the molecular underpinnings of lung cancer progression by leveraging a first-of-its-kind multi-omics dataset sampled years before diagnosis. Outcomes include novel biomarker panels for early detection and improved understanding of the disease biology through pathway-based models.
Why This Matters
Early detection of lung cancer is critical to improving survival rates. Blood-based miRNA screening has recently shown promise, and this studentship will complement ongoing CRUK-funded efforts. The project trains doctoral candidates in cutting-edge multi-omics, network modelling, and survival analysis, equipping them with skills sought by the pharmaceutical industry.
How to Apply
Eligibility
Supervisor Profile
Dr Tao You is a researcher specializing in systems medicine, pharmacometrics, and quantitative systems pharmacology. His focus includes applying computational and mathematical modeling approaches to biomedical data. He holds a position at the University of Liverpool, contributing expertise in multi-omics data integration and network-based analysis for disease understanding.