The University of Huddersfield has signed two memoranda of understanding with partners in India to pursue technical textiles research and industrial collaboration. Agreements with the Indian Technical Textile Association and Telangana’s state government cover nonwovens, composites, medical textiles and potential applications in automotive, aerospace and protective equipment. The arrangements connect the university’s materials research capabilities with industrial organisations and public bodies in a major textile manufacturing market.
Professor Parik Goswami, the university’s director of research and innovation and a technical textiles specialist, signed the association agreement in Mumbai with ITTA chairman Mahesh Kudav. West Yorkshire Mayor Tracy Brabin attended during the White Rose India trade mission. A second memorandum was signed with Tummala Nageswara Rao, Telangana’s minister responsible for agriculture, marketing, cooperation, handlooms and textiles. The documents establish two institutional relationships, each involving different potential routes from research into industrial use.
The association can provide links to textile manufacturers, materials suppliers and applied research needs across India. The Telangana arrangement has a wider engineering scope, including the industrial environment for materials designed for demanding performance requirements and the use of composite and nonwoven structures. Any individual project would still need partners, funding, defined test methods and a delivery plan. The university has described cooperation and potential development areas, not a commissioned production facility or a programme with a published investment value.
Unlike conventional apparel textiles, technical textiles are engineered primarily for functions such as filtration, reinforcement, insulation or protection. The choice of polymer or natural fibre, fibre dimensions, surface chemistry and the way the structure is formed determine measurable properties. Materials intended for industrial use must also perform consistently after manufacturing, handling and exposure to their operating environment. This combination of chemistry, process engineering and product testing makes technical textile research a route into wider manufacturing applications.
Nonwoven production starts with fibres arranged into a web without first being spun and woven into conventional yarn structures, then consolidated mechanically, thermally or chemically. Web density, distribution of fibres and the bonding conditions influence permeability, tensile strength, stiffness and absorbency. Filtration media may need to retain particles while allowing a defined flow rate; insulation or absorbent products require a different balance of structure and durability. The agreements identify nonwovens as an area for collaboration without assigning a particular production route.
Textile reinforcements within composites must retain their position and load bearing function after incorporation into a resin or other matrix. Orientation, interface bonding, void content and curing conditions affect stiffness, strength and the repeatability of the finished component. Automotive and aerospace uses introduce further qualification demands, including fatigue behaviour and tolerance to operating environments. Both the intended component geometry and the manufacturing process have to be defined before research materials can be assessed against industrial requirements.
Huddersfield’s Technical Textiles Research Centre draws on specialists in fibre and polymer chemistry, engineering, materials science, digital technology and medical applications. Its work includes surface functionalisation and structures made using nano- and submicron-scale fibres. Changing fibre surfaces can alter wettability, adhesion or compatibility with a coating or surrounding polymer without replacing the material throughout. Research groups can evaluate such mechanisms under laboratory conditions before industrial partners determine whether they are reproducible at useful processing speeds.
The centre has already undertaken industrial collaborations focused on commercial products. A Knowledge Transfer Partnership with Puffin Packaging developed more sustainable insulated packaging materials, including a wool-based liner, and received an Outstanding rating from Innovate UK in 2025. The project combined textile material selection with a practical packaging requirement, illustrating how research teams can work with a company on manufacturable designs. It is an existing example of the university’s approach, distinct from the work that may emerge under the new Indian arrangements.
Transferring a textile process between research teams and factories requires attention to equipment settings and reproducibility. A bonding or surface treatment method that gives promising properties in a small sample may behave differently with changes in line width, temperature distribution, treatment time or raw material batches. Pilot production and testing then establish whether performance survives scale-up. The university and its Indian partners can use their new cooperation agreements to identify suitable projects, but specific trials and participating factories have not yet been named.
Qualification requirements will depend on the products eventually chosen. Medical textiles may need tests relating to cleanliness, biological compatibility and regulatory compliance; protective clothing has different durability and performance criteria; composite reinforcements for transport applications must meet relevant mechanical specifications. The next practical milestones are therefore project selection, agreement on performance measures and identification of industrial partners able to test repeatability. The memoranda create a framework for that work, while investment, production quantities and delivery dates will be set by any subsequent project agreements.
