Core contributor to HEREWEAR (bio-based circular wear), LIBRE (lignin-based carbon fibres), and VIBES (bio-based bonding materials for recyclable composites).
DEUTSCHE INSTITUTE FUR TEXTIL- UND FASERFORSCHUNG DENKENDORF
Germany's leading textile research institute specializing in bio-based fibres, recyclable composites, and circular textile materials development.
Their core work
DITF is Germany's largest textile research center, specializing in fibre science, textile engineering, and materials development. They develop sustainable textile materials — from bio-based fibres and lignin-derived carbon fibres to recyclable composite resins — bridging the gap between laboratory research and industrial-scale textile production. Their work spans the full textile value chain: fibre development, fabric engineering, finishing technologies, and circular economy strategies for the textile and clothing industry.
What they specialise in
VIBES focuses on thermoset composite recyclability using vitrimers and Diels-Alder chemistry; LIBRE on sustainable carbon fibre manufacture from lignin.
HEREWEAR addresses microfibre release, biorefinery integration, and circular textile design; TCBL explored transformative business models for textile sustainability.
TCBL developed new business models for textile and clothing sectors; FBD_BModel integrated customized innovation for small-series fashion products.
TRICK project applies blockchain-based traceability and lifecycle data management to textile supply chains.
How they've shifted over time
DITF's early H2020 work (2015–2018) centered on textile industry transformation — new business models, carbon fibre from renewable feedstocks like lignin, and customized fashion manufacturing. From 2019 onward, their focus shifted decisively toward circular economy and green chemistry: bio-based materials, recyclable thermoset composites, microfibre pollution mitigation, and blockchain-enabled product traceability. This trajectory shows a clear move from "how to innovate textile business" to "how to make textiles sustainable and circular at the material level."
DITF is converging on circular textile materials — expect them to pursue projects combining bio-based chemistry, recyclability, and supply chain transparency.
How they like to work
DITF consistently operates as a technical partner rather than a project leader — all 7 projects have them in a participant role, contributing specialized textile and fibre expertise to larger consortia. With 111 unique partners across 20 countries, they maintain a broad and diverse network, suggesting they are a sought-after specialist who brings deep materials knowledge without competing for coordination. This makes them a low-risk, high-value partner: they deliver technical work reliably without political overhead.
DITF has collaborated with 111 distinct partners across 20 countries, indicating strong pan-European connectivity. Their network spans manufacturing, food/agriculture, and environmental sectors, reflecting the cross-cutting nature of textile materials research.
What sets them apart
DITF occupies a rare position as a dedicated textile research institute with deep expertise in both fibre chemistry and industrial textile processing. Unlike university labs that publish papers, DITF operates at the interface of materials science and manufacturing — they can take a bio-based polymer concept and work it into a production-ready fibre or composite. For consortium builders, they offer something hard to find elsewhere: a single partner covering textile materials from molecular design through to pilot-scale production and circularity assessment.
Highlights from their portfolio
- HEREWEARLargest funding (EUR 746,500) and most comprehensive scope — combines bio-based materials, microfibre pollution, circular design, and biorefinery in one textile project.
- VIBESRepresents DITF's most advanced materials chemistry work, applying vitrimer and Diels-Alder reversible bonding to make thermoset composites recyclable.
- LIBREPioneering approach to producing carbon fibre from lignin — a renewable byproduct — replacing petroleum-based precursors for composite applications in aeronautics, construction, and marine industries.