Upcoming Cancer Psychology & Behaviour

Optimal utility-based design of oncology clinical development programmes

In plain English

AI plain-English summary

Cancer clinical trials are currently designed one at a time, but this project will create a mathematical framework to plan entire sequences of trials in advance, optimising for patient benefit. The problem is that developing a new cancer drug typically requires multiple clinical trials—early-phase tests for safety, later-phase tests for efficacy—but these are usually planned in isolation. This fragmented approach wastes time, money, and patient goodwill. It also misses opportunities to adapt the programme as early results come in. The gap is a practical, quantitative method to compare entire development strategies, not just individual trials. If this research succeeds, it will give pharmaceutical companies and academic trialists a tool to calculate which sequence of trial designs—and which endpoints—maximises the probability of success while prioritising outcomes that matter to patients, such as survival or quality of life. The framework uses probabilistic dynamic programming, meaning it can update recommendations as new data accumulate. The immediate impact is on clinical development efficiency: fewer failed late-stage trials, faster access to effective treatments, and better allocation of limited trial participants. This is applied methodology, not fundamental science—it directly targets how decisions are made in drug development.

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This project aims at developing a probabilistic framework for comparing sequences of clinical trial designs in oncology. Its main objective is to provide a practical method for improving efficiency of clinical development programmes, on behalf of current and future oncology patients. This project consists of three parts, focussing in on the development of probabilistic models for clinical trial endpoints relevant to early and late phase trials and on the derivation of survival statistics maximising patient utility. The probability of success and expected utility of alternative clinical development strategies will be compared using the developed models. Probabilistic dynamic programming will be leveraged to define mechanisms for updating clinical development strategies as data become available over time. The unique combination of expertise made available through this project will provide the sponsored student with an ideal set of skills relevant to develop a career in academic or industrial research and development settings.

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Related Research

Grants with similar aims, by meaning.

IDENT: Improving Design and analysis of oncology trials Evaluating New targeted Therapies
Designing and analysing multi-arm multi-stage clinical trials with one or more endpoints
Improving treatment for patients by design
A methodological framework to guide the development and use of economic evaluations of oncology treatments in informing decision-making
Personalised Synthetic Controls for the Estimation of Efficacy in Clinical Research

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