Wool to Turf transforms low‑grade UK wool, especially Dag wool, into sustainable reinforcing mats for meadow turf. With our collaborators, Green Estate CIC and Fashion Roundtable, the project works to replace persistent plastic meshes used to reinforce turf with strong, biodegradable wool‑based materials instead. Aside from exploring the material intricacies of producing such a product, we will also map waste wool supply, build a UK‑centred supply chain, with an aim to support our rural economies.
Our research addresses the environmental, economic, and social challenges linked to low‑grade UK wool, much of which is burned or landfilled despite being a renewable resource. By converting Dag wool into biodegradable reinforcing mats for meadow turf, the project tackles plastic pollution in horticulture and supports soil health and biodiversity. It also addresses economic disparities: farmers earn minimal income from low‑grade wool, and creating a domestic market offers new rural revenue streams. The work strengthens UK supply‑chain resilience by reducing reliance on imported jute and coir, while showcasing how holistic bioprocessing can turn waste into high‑value, sustainable materials. Through circular design and local resource use, the project delivers environmental benefits, supports rural livelihoods, and advances innovative, low‑carbon manufacturing solutions.
This project explores material science and supply chain design. Scientifically, it pioneers the direct reinforcement of waste wool through bioprocessing, upgrading low value Dag wool into a durable fibre without synthetic binders or heavy chemical modification. This approach preserves biodegradability while achieving performance usually associated with engineered polymers, addressing a key gap in sustainable horticultural materials. Equally distinctive is the creation of a distributed UK wide supply chain model that aligns regional wool availability with existing processing and manufacturing capacity. Instead of centralising production, the project maps and integrates local actors such as farmers, processors, and manufacturers. This reduces transport emissions and strengthens rural economies. The combination of technological and systemic innovation shows how waste fibres can be valorised at scale while supporting resilient, low carbon regional industries.
This project converts low grade UK wool into biodegradable reinforcing mats for meadow turf, replacing plastic meshes with a sustainable, soil enriching alternative.
Research Focus:
- Bioprocessing and upgrading Dag wool with scalable manufacturing techniques into durable, compostable fibres.
- Mapping waste wool availability and characteristics across the UK.
- Designing a distributed supply chain linking farmers, processors, and turf manufacturers.
Innovation:
The project enhances the intrinsic properties of wool without synthetic binders, delivering strong, fully compostable mats with tuneable longevity.
Societal Impact:
It supports rural economies, reduces landfill and burning of waste wool, decreases reliance on imported jute and coir, and advances circular manufacturing.
Meet the Principal Investigator(s) for the project
Dr Uchechukwu Onwukwe - Uche is a researcher with a background in Materials Science and a PhD in biomimetics towards the green synthesis of functional materials. They have extensive experience in the use of various characterisation techniques including electron microscopy (TEM and SEM), various spectroscopic techniques (Raman, FTIR, UV-VIS-NIR) , a range of X-Ray techniques (XRF, XRD) and an understanding of the use of different thermal techniques.
Their research interests lies in nanomaterials synthesis and characterisation, biomimetics and presently in circular economy - specifically phytomining and hyperaccumulators.
Dr Lorna Anguilano -
Lorna Anguilano is a Senior Research Fellow, Quality Manager of the Experimental Techniques Centre and the Assistant Director of the Wolfson Centre for Sustainable materials development and Processing.
Lorna’s background is in applied mineralogy with a PhD in Archaeometallurgy and a wide experience of material characterisation through X-Ray Diffraction, X-Ray Fluorescence, Scanning Electron Microscopy and Electron Back-Scattering Diffraction. She provides consultancy in material characterisation and failure’s diagnosis as well as actively generates and develops research in materials characterisation and development.
Her research focuses on the overarching concept of upcycling waste and recovery of secondary raw material with a keen interest on metal and polymer recycling for energy and aquaculture applications and phytomining of critical raw materials. Lorna is also continuing her research in the archaometallurgical field.
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Project last modified 19/02/2026