Active Cells, Biochemistry & Physiology Plants, Animals & Ecology

DMS-EPSRC Stochastic Shape Processes and Inference

In plain English

AI plain-English summary

A shape that changes over time—a dividing cell, a bending spine, a growing tumour—has no standard statistical language to describe it. This project will build one. Biologists and engineers have long known that form and function are linked, but they lack mathematical tools to model how shapes evolve across a population. A cell’s shape during division might predict whether the process will fail, but current methods treat each snapshot in isolation. The researchers will develop stochastic shape processes—formal statistical frameworks that capture not just how a single shape changes, but how those changes vary between individuals. This fills a gap: existing shape analysis is static; this project makes it dynamic. If successful, the methods will let scientists ask questions that are currently out of reach. For example, why does cell division sometimes fail? How can factory workers’ postures be adjusted to reduce strain? The project will test these ideas on cell motility and human posture as proofs of concept. The core mathematics, however, is fundamental science. It will not directly change a manufacturing line or a clinic tomorrow. But it will give practitioners in biology, medicine, and ergonomics a general toolkit for linking form to function over time—a capability that, like earlier advances in statistical shape analysis, could eventually underpin diagnostics, prosthetic design, or automated quality control in manufacturing.

View original technical description
The intimate link between form, or shape, and function is ubiquitous in science. In biology, for instance, the shapes of biological components are pivotal in understanding patterns of normal behavior and growth; a notable example is protein shape, which contributes to our understanding of protein function and classification. This project, led by a diverse team of investigators from the USA and the UK, will develop ways of modeling how biological and other shapes change with time, using formal statistical frameworks that capture not only the changes themselves, but how these changes vary across objects and populations. This will enable the study of the link between form and function in all its variability. As example applications, the project will develop models for changes in cell morphology and topology during motility and division, and changes in human posture during various activities, facilitating the exploration of scientific questions such as how and why cell division fails, or how to improve human postures in factory tasks. These are proofs of concept, but the methods themselves will have much wider applicability. This project will thus not only progress the science of shape analysis and the specific applications studied; it will have broader downstream impacts on a range of scientific application domains, providing practitioners with general and useful tools.

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Researchers

Ian Hyla Jermyn (Principal Investigator)Karthik Bharath (Co-Investigator)

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Original classification

Research Grant

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