Active Materials & Manufacturing Engineering

Title Novel flexible photonic based sensors for health monitoring of composite structures

In plain English

AI plain-English summary

A new optical fibre design now measures strains hidden deep inside layered composite materials—strains that were previously invisible during manufacturing and throughout a structure’s lifetime. This matters because composite materials—used in aircraft wings, wind turbine blades, and lightweight vehicles—are built in layers. When those layers are pressed or cured, internal stresses can build up between them, leading to hidden damage or premature failure. Until now, no sensor could reliably measure those through-thickness strains. Manufacturers have had to over-engineer parts or scrap imperfect ones, wasting material and energy. If this research succeeds, the flexible photonic sensors will give real-time health reports during both production and service. Manufacturers could spot defects early, reduce scrappage, and extend the operational life of composite structures. That directly supports Net-Zero sustainability goals: fewer wasted materials, longer-lasting wind turbine blades, lighter aircraft that burn less fuel, and infrastructure that stays safe without being replaced too soon. The project works closely with industry to turn the sensor design into practical tools for manufacturing control and service-life prediction.

View original technical description
A radical redesign of optical fibre architecture has enabled a new in-situ measurement paradigm that elicits quantitative assessment of through-thickness strains in laminated composite structures during manufacture and service. The novel sensor technology will inform composite design and manufacturing strategies to facilitate Net-Zero sustainability goals by reducing scrappage and extending operational lifetime. You will work closely with industry to: Design procedures that enable the flexible photonic sensor to make multiple measurements quickly with real time reporting on the health of the structure. Develop the new sensors for both manufacturing control and service life predictions of a composite structure. Stimulate your interest in new, developmental sensing methods used as the basis for the creation of future sustainable composite products.

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Researchers

Jack Burns (Student)

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Original classification

Studentship

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