Predicting Radiotherapy Patient Outcomes with Real-Time Clinical Data Using Mathematical Modelling
Alexander P Browning1, Thomas D Lewin2,3, Ruth E Baker2
1Mathematical Institute, University of Oxford, Oxford, UK. browning@maths.ox.ac.uk.
This study presents a new mathematical model to predict how head and neck tumors respond to radiotherapy, accounting for individual patient variability. The model aims to improve personalized cancer treatment planning and outcomes.
Area of Science:
- Oncology
- Mathematical Biology
- Radiotherapy
Background:
- Tumor response to radiotherapy varies significantly even for similar pre-treatment conditions.
- Mathematical models can predict treatment outcomes and personalize radiotherapy fractionation.
- Model complexity and sparse clinical data limit the effective use of predictive models.
Purpose of the Study:
- To develop a compartment model for tumor volume and composition.
- To create a predictive model for tumor volume progression and associated uncertainty.
- To capture inter-patient variability using patient-specific model parameters.
Main Methods:
- A compartment model for tumor volume and composition was developed.
- Novel statistical methodology and existing clinical data were used.
- A bootstrap particle filter-like Bayesian approach was employed for training.
Main Results:
- The model, despite its simplicity, can generate diverse patient responses.
- A predictive model for tumor volume progression and uncertainty was established.
- The approach was validated against unseen data, showing predictive ability.
Conclusions:
- The developed model offers a promising tool for predicting radiotherapy response in head and neck cancers.
- This approach can potentially guide personalized treatment strategies.
- The model's predictive capabilities and limitations were demonstrated.
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