Textile to Textile - The Role of Recyclers

The linear textile model is nearing its end. With increasing regulatory pressures such as Extended Producer Responsibility EPR and Product Environmental Footprint Category Rules PEFCR, circularity is shifting from aspiration to necessity. While mechanical recycling of PET bottles is well established, textile-to-textile T2T recycling remains at an earlier and more complex stage of development.

Recyclers are now playing a pivotal role in the transition to circular systems. However, many are still adapting to the scale and technical challenges involved. T2T recycling is not a standalone solution and it is part of a broader transformation that also requires reducing overproduction, encouraging reuse and repair, and rethinking design and consumption models.

The urgency is clear: the global textile industry generates 92 million tonnes of waste annually, yet less than 1% is recycled into new clothing (Ellen MacArthur Foundation). Unlike downcycling or waste-to-energy methods, T2T recycling retains material quality, enabling the production of new garments from existing ones. The ultimate goal is a closed-loop system that minimizes waste and reduces dependency on virgin resources.

In Europe, policy is accelerating this shift. The EU Waste Framework Directive mandates separate collection of textiles by 2025. In parallel, the EU Strategy for Sustainable and Circular Textiles promotes the reduction of virgin material use and enhances resource efficiency. These initiatives are driving investment in sorting technologies, digital product passports, and advanced recycling systems.

What will it take to make textile-to-textile recycling truly scalable?

As the organizer of PERFORMANCE DAYS, we are pleased to present this Focus Topic on Textile-to-Textile (T2T) Recycling is a cornerstone of the circular textile economy. Based on insights from recyclers, material innovators, brands, and policymakers, it provides a clear overview of the technologies, materials, and systems driving T2T recycling forward.

This topic outlines the current landscape: key feedstocks, regulatory drivers, innovation areas, and ongoing challenges. It also highlights progress across the value chain and the potential of T2T to foster a more sustainable and resilient textile industry.

By promoting transparency and best practices, we aim to support both newcomers and experts in making informed, responsible decisions in sourcing, design, and production.

We want to:

Empower brands, mills, and recyclers to collaborate effectively across the circular value chain!

Promote transparency and traceability by supporting tools like DPP and fiber identification!

Advance scalable T2T adoption through targeted innovation and policy integration!

Inspire smart design choices prioritizing recyclability, mono-materiality, and end-of-life!

Key Takeaways: Textile to Textile - The Role of Recyclers

What’s needed now is coordinated investment in scalable infrastructure, fiber-specific technologies, and transparent data systems to make textile-to-textile recycling a viable reality.

True Textile Recycling Remains Limited

Less than 1% of textiles are recycled into new textiles, with most recycled polyester still sourced from PET bottles not garments. Scaling textile-to-textile recycling is essential for achieving circularity in fashion.

Design Must Match Recycling Capabilities

Mechanical recycling suits cotton and wool; synthetics like polyester and nylon need thermo-mechanical, chemical or enzymatic methods. Blends, coatings, and elastane remain challenges.

Legislation: Enabling Circularity Through Policy

Regulations are making recyclability and traceability essential, pushing brands to adopt circular design, sourcing, and end-of-life strategies.

Smart Sorting Unlocks Scale

Without clear fiber identification, recyclers cannot scale. AI-driven sorting, DPP systems, and traceability tools like blockchain or RFID are enabling cleaner input streams.

Design for Circularity from the Start

Product design should prioritize disassembly, mono-material use, and recyclability. Early-stage decisions such as limiting elastane, avoiding incompatible fiber blends, and managing coatings are key to enabling circularity

Collaboration Is Crucial: Build traceable, certified supply chains

Brands, recyclers, mills, policymakers, and tech providers must co-invest, share data, and jointly scale infrastructure.

Table of Content

  • Why Textile-to-Textile Recycling Matters
  • Legislative Landscape
  • Recycling Processes Overview
  • Material Feedstocks in Focus
  • Key Technologies Driving T2T Recycling
  • Standards, Certifications, and Traceability
  • Environmental Impact & LCA Insights

  • Barriers & Challenges

  • The Path Forward: Call for Action

Mapping the Circular Flow of Materials from Collection to Reuse:

How does a supply chain for Textile 2 Textile Recycling look like?

To make circularity work in practice, we need a clear view of how materials actually move. Textile-to-textile recycling relies on a supply chain that connects waste collection, sorting, recycling, and remanufacturing and all the way back to design. This overview breaks down each step in the loop and shows what it takes to turn used textiles into new ones.

PRE-CONSUMER WASTE = Industrial Waste

Pre-consumer waste includes unused materials such as fabric offcuts or overstock discarded during manufacturing.

Examples: Leftover fabric from cutting, misprinted labels, or unsold goods from brand partners. These materials typically remain within production facilities

POST-CONSUMER WASTE = Everyday Waste

Post-consumer waste refers to garments or textiles discarded by end users after use.

Examples: Worn clothing, old uniforms, or used home textiles. These materials enter the waste stream through donation, take-back programs, or disposal.

Textile-to-Textile Recycling Processes Overview

Which recycling processes enable true circularity in textiles?

Textile recycling is essential for building a circular fashion system. The three main methods are mechanical, thermo-mechanical, and chemical recycling. They offer different strengths depending on fiber type, contamination level, and desired end use. Emerging innovations including hybrid recycling, enzymatic processes, and AI-enabled sorting are accelerating progress, particularly when combined with tools like Digital Product Passports. As policy, infrastructure, and technology align, recycling systems are becoming more intelligent and adaptable, bringing the industry closer to scalable, closed-loop solutions.

This overview helps compare each method based on key criteria like feedstock compatibility, energy use, decolorisation, and fiber quality, reinforcing the need to match the right process to the right material.

Established Processes in T2T Recycling

Emerging Innovations in T2T Recycling

Please find an overview of Textile 2 Textile recyclers here:

What are the Key Fiber Types in Textile-to-Textile Recycling?

Over 60% of the world’s fiber consumption is synthetic—mostly polyester—making large-scale textile-to-textile (T2T) recycling a critical step toward a circular fashion system. While polyester leads in recycling rates, it's primarily sourced from PET bottles rather than old textiles. Cotton and wool, on the other hand, are typically mechanically recycled, but the process weakens fibers and faces challenges with sorting. Polyamide (nylon), commonly found in performance wear, needs more advanced chemical recycling methods, which are still in early stages of development. Each fiber type brings its own set of challenges and potential, underscoring the need for tailored, material-specific recycling strategies to move the industry forward. Below is a breakdown of the key characteristics and considerations for recycling four major fiber types:

Mixed Materials are the Challenge of Recycling

Polyester & Blends

  • Most widely recycled synthetic fiber, mainly from PET bottles
  • Suitable for thermo-mechanical (rPET) and advanced chemical recycling (depolymerization)
  • Chemical recycling enables virgin-equivalent output, but still limited in cost-effective scaling

Polyamide & Blends

  • Requires chemical recycling due to its complex structure.
  • Closed-loop nylon systems are emerging but not yet widely scaled.
  • Elastane blends and finishes further complicate processing.

Cotton & Blends

  • Mechanically recyclable, but fiber quality degrades with each cycle.
  • Often blended with virgin cotton and re-dyed.
  • Chemical options like cellulose regeneration are emerging.

WOOL & BLENDS

  • Wool is well-suited for mechanical recycling.
  • Its durability adds value, but sorting by color and fiber type is labor-intensive.
  • Chemical recycling options are still in early research.

What are we looking at in the future?

What can be recycled &
- Textiles with PET make up ≥ 85%.
- PA (Polyamide), cotton, or spandex are ≤ 10%.
- Other materials constitute less than 5%.

...are future projections of blend recycling?
- Textiles with PET will be 85%.
- Textiles with lamination or coating will become more prevalent.

Deep Dive: Exploring Material-Specific Recycling in Detail

Polyester in Focus: From Mass Adoption to Circular Innovation

Polyester is the world’s most used synthetic fiber, making up about 80% of synthetic fibers and over 60% of global fiber production. Valued for its durability and affordability, it’s now under scrutiny due to its fossil-based origins and microplastic pollution. While PET bottle recycling is common, the next step is recovering polyester from post-consumer clothing. Crucial for moving beyond packaging waste and achieving true circularity. Advancing textile-to-textile (T2T) polyester recycling is vital to lowering CO₂ emissions, reducing landfill waste, and building a more sustainable fashion industry.

How Polyester is Recycled:

  • The Thermo - Mechanical Process: Polyester textiles, usually pure PET, can be sorted, cleaned, shredded, and melted into new yarns, fibers, or pellets. This process is adapted from PET bottle recycling. However, dyes, finishes, and blended fibers reduce its effectiveness.
  • The Chemical Process (Depolymerization): Chemical recycling breaks polyester down into its original monomers—such as BHET, DMT, or PTA and MEG—through processes like hydrolysis, glycolysis, or methanolysis. These monomers are then purified and re-polymerized to produce virgin-quality PET, maintaining fiber properties even after multiple recycling cycles.

Key Challenges of Polyester

  • Contamination: Dyes, finishes, and blended fibers complicate recycling.
  • Downcycling: rPET often lacks the tensile strength and dye affinity needed for high-performance or premium textile applications
  • Input source: The majority of rPET used in textiles is still derived from bottle waste, not post-consumer garments—limiting true circularity
  • Microplastic shedding: T2T recycling does not eliminate microplastic shedding; in fact, repeated recycling may even increase fiber brittleness, potentially raising microplastic release.

What to consider in design & development: Membranes, coatings, and finishes in polyester textiles—like waterproof layers or DWR treatments—pose major recycling challenges. They hinder fiber separation, contaminate recycling streams, and reduce material quality. Solutions include developing recyclable coatings and pre-treatment technologies for cleaner feedstock.

Cotton in Focus: Closing the Loop on Fashion’s Most Used Natural Fiber

Cotton makes up ~24% of global fiber production but less than 1% is recycled into new textiles. While renewable and biodegradable, cotton production is resource-intensive. Advancing textile-to-textile (T2T) recycling—especially for post-consumer and blended cotton—is key to circularity.

How Cotton is Recycled:

  • The Mechanical Process: Pre- and post-consumer cotton waste is sorted by color and quality, then shredded into fibers and re-spun into yarn. Due to fiber damage and shortening, recycled cotton is usually blended with virgin fibers to restore strength and durability.
  • The Chemical Process (Cellulose Regeneration): Cotton consists primarily of cellulose, making it an ideal feedstock for chemical recycling technologies that dissolve and regenerate fibers into new man-made cellulosics such as viscose, lyocell, or modal. Using processes like enzymatic hydrolysis or ionic liquid treatments, even low-grade or contaminated cotton waste can be converted into high-purity cellulose pulp.

 

Key Challenges of Cotton

  • Color sorting limits fiber reuse, especially for light shades.

  • Contamination from dyes, finishes, and blends hampers recovery.

  • Fiber blends (e.g., with polyester or elastane) complicate separation.

  • Fiber degradation reduces strength and limits application.

 

Design Considerations: To support cotton circularity, prioritize mono-materials, minimal trims, and avoid elastane (even >5% can hinder recyclability). Infrastructure upgrades for sorting and fiber recovery are also essential.

Polyamide in focus: Key ingredient in modern textiles

Polyamide, commonly known as nylon, is a high-performance synthetic fiber widely used in sportswear for its strength, stretch, and moisture resistance. Nylon accounts for ~5% of global fiber production, yet is rarely recycled compared to PET. Over 90% of global nylon still comes from virgin fossil sources. While durable and versatile, nylon is derived from fossil fuels and presents major challenges for recyclability—especially when blended with elastane or finished with coatings. With growing focus on decarbonization and circularity, polyamide is now being reimagined as a feedstock for textile-to-textile (T2T) recycling through both mechanical and chemical routes.

How Polyamide is Recycled:

  • Thermo-Mechanical Recycling: Nylon waste is shredded and re-extruded, mainly suitable for clean, industrial-grade inputs due to degradation risks.
  • Chemical Recycling: Nylon is broken down into monomers like caprolactam, then re-polymerized into virgin-quality fiber.

 

Key Challenges of Polyamide:

  • Elastane inclusion: Even small amounts (<5%) of elastane severely reduce recyclability.

  • Coloration & coatings: Dyes, laminations, and finishes complicate chemical separation and recovery.

  • Contamination risk: Nylon is often blended or treated, making clean feedstock hard to source.

  • Cost & scale: Chemical recycling for nylon remains expensive and limited in industrial availability.

 

Design Guidance: Use mono-material nylon, minimize elastane, and choose easily removable coatings or adhesives to improve recyclability.

What Are the Environmental Benefits of Textile-to-Textile Recycling?


Reducing waste, saving resources, and cutting emissions through circular solutions

Textile-to-textile recycling is essential to building a circular fashion system. By diverting waste from landfill, replacing virgin inputs, and extending material lifecycles, T2T systems offer substantial environmental gains. The examples below illustrate how circular innovation reduces pressure on raw resources while supporting climate and material goals. Supported by Life Cycle Assessments (LCAs), various recycling technologies are showing promising results in lowering CO₂ emissions and minimizing land, water, and energy use—contributing to more circular and sustainable material systems.

Reduced Waste to Landfill and Incineration: Diverts textile waste from landfill and incineration, cutting methane, CO₂, and toxic emissions.

Lowers resource use: Minimizes resource consumption across the textile supply chain by conserving materials, water, land, fuels, and energy.

Cuts carbon footprint: Reduces carbon footprint by replacing fossil inputs and avoiding energy-heavy virgin fiber production.

Enables circularity: Supports circularity by keeping fibers in use longer, reducing environmental impact and enabling closed-loop systems.

PurFi regenerates premium-quality fibers from textile waste through a proprietary, low-impact mechanical process. Their technology enables closed-loop textile-to-textile recycling while preserving the original fiber integrity at scale. According to an independent Life Cycle Assessment (LCA) by bAwear/NL, PurFi’s 100% recycled cotton offers:


⚡ ~45% energy savings

🌍 ~50% CO₂ emissions reduction

🌱 ~98% reduction in land use

🌊 ~98% water savings

CuRe Technology revolutionizes polyester recycling by upgrading difficult-to-recycle polyester textiles and packaging into virgin-quality PET using a unique molecular process. Unlike traditional methods, CuRe’s technology allows for the circular reuse of lower-quality, colored polyester that would typically be incinerated or landfilled. Based on a carbon footprint analysis per tonne of PET:

🌍 ~86–92% reduction in CO₂ emissions (vs. virgin PET production)

♻️ Recycling of both post-consumer & post-industrial PET textiles

⚡ Renewable electricity use for lower climate impact

Cyclone converts post-consumer and industrial textile waste into high-performance fibers using a hybrid of mechanical and chemical recycling technologies. Their approach ensures textile circularity with significantly lower environmental impact. According to third-party Life Cycle Assessment (LCA) data from SGS, Cyclone’s recycled fibers deliver:

🌍 ~45% reduction in CO₂ emissions

⚡ ~60–67% reduction in energy usage

🌊 ~75–76% savings in water consumption

Barriers to Circularity: Key Challenges in Textile-to-Textile Recycling

Despite growing momentum, textile-to-textile (T2T) recycling remains limited and less than 1% of textiles are recycled into new ones, while most are incinerated, landfilled, or downcycled (Ellen MacArthur Foundation). The potential for circularity is clear, but the path is complex. Blended fibers, coatings, and inadequate labeling make recycling difficult. At the same time, supply chains are fragmented, and investment in infrastructure and technology is still insufficient.

Which certifications support circular design in the textile industry?

Textile-to-textile recycling relies on trusted certifications to verify recycled content and ensure traceability. Certifications ensure that recycled content claims are credible, standardized, and transparent, laying the foundation for scalable circular solutions.

 

CRADLE TO CRADLE ®

Cradle to Cradle Certified® is a globally recognized standard that ensures products are safe, circular, and responsibly made. In the textile industry, it signals that garments are designed with recycling in mind—using non-toxic materials, enabling fiber recovery, and supporting closed-loop systems. For recyclers and brands alike, the certification offers a trusted pathway toward truly circular fashion.

RECYCLED CLAIM STANDARD

Focused specifically on material content and traceability, RCS verifies the presence of at least 5% recycled content. It is particularly relevant for materials like chemically recycled polyester, where GRS may not apply due to restricted substances in the recycling process.

 

GLOBAL RECYCLING STANDARD

Applies to fibers like cotton, polyester, wool, and polyamide. GRS requires a minimum of 20% recycled content and includes additional environmental, chemical, and social criteria. It tracks the entire supply chain and supports robust circularity claims.

WOOLMARK - RECYCLED WOOL

Certifies products containing recycled wool fibers, ensuring traceability, minimum recycled content, and performance standards. Recognizes both mechanical and chemical recycling routes.

What is next ? Material Matters Standard

🔍 The Content Claim Standard (CCS), developed by Textile Exchange, ensures the traceability of certified materials—like recycled or organic fibers—throughout the supply chain. It underpins certifications such as GRS and RCS by verifying that claimed content is tracked from origin to final product using documented Scope and Transaction Certificates. While CCS doesn’t assess sustainability practices, it plays a crucial role in circularity by enabling reliable certification and traceability of recycled textile inputs—supporting the growth of textile-to-textile recycling with verified, credible claims.

What Must Brands and Suppliers Prepare For?

Textile-to-Textile Recycling and the Evolving Legislative Landscape

As circularity becomes both an industry expectation and a legal requirement, T2T recycling is gaining prominence. Brands and suppliers must now prepare for stricter regulations around transparency, traceability, and the use of post-consumer waste. At the EU level, several legislative developments are shaping the future of textile recycling:

 

Recycled Content Requirements – What’s Next?

  • Extended Producer Responsibility (EPR) under the EU Waste Framework Directive
    The upcoming revision will introduce mandatory EPR schemes for textiles, shifting the responsibility for waste collection and recycling to producers. This move will drive investment in sorting, recycling, and infrastructure, creating a stronger system for recovering textile materials across Europe.

 

  • EU Strategy for Sustainable and Circular Textiles:
    This strategy includes mandatory design requirements aimed at improving product durability, repairability, and recyclability. A particular emphasis is on banning the destruction of unsold goods and encouraging the use of recycled content

 

  • Digital Product Passport (DPP):
    The DPP will become a crucial tool for enabling transparency in textile products, allowing stakeholders to access detailed data on material composition, origin, and recyclability. With this supporting both circularity and legislative compliance.

While not yet mandatory, regulations on minimum recycled content in textiles are on the horizon. Inspired by policies in plastics (e.g., EU Single-Use Plastics Directive), similar measures are expected in The Ecodesign for Sustainable Products Regulation (ESPR) and the revised Waste Framework Directive

Audit your product portfolio for recyclability.

Integrate recycled content into design and sourcing strategies.

Build transparent supply chain data systems.

Collaborate across the value chain on recycling innovation.

What happens to this product at the end of its life?

Sustainability begins at the design stage. Many garments end up in landfills due to mixed fibers, high elastane content, or constructions that hinder recycling. Poor material choices and complex designs remain key barriers to textile-to-textile recycling.

Design for Longevity

  • Emotional durability: Create lasting value through timeless appeal and personal connection.

  • Physical durability: Prioritize quality, repairability, and extended use.

DOs

✔ Design for Disassembly
Use mono-materials and simple construction to allow easy garment separation.

✔ Use Recyclable & Certified Materials
Choose materials proven recyclable or made from certified post-consumer/post-industrial waste.

✔ Ensure Material Transparency
Use Digital Product Passports or QR codes to share recyclability and content info.

✔ Collaborate with Recyclers
Align design with available recycling technologies to ensure end-of-life processing.

✔ Plan for End-of-Life from the Start
Incorporate recycling or biodegradation pathways into material and construction choices from the start.

DON'Ts

✘ Avoid Unrecyclable Blends
Steer clear of mixed fibers (especially synthetic-natural blends) that block recycling.

✘ Limit Elastane Use
Keep elastane under 7% or as advised by recyclers; seek alternatives where possible.

✘ Don’t Postpone End-of-Life Planning
Make recyclability or biodegradability part of the initial design—not an afterthought.

✘ Don’t Confuse “Recycled” with “Circular”
Recycled content isn’t enough—products must also be recyclable again.

✘ If Not Recyclable, It Should Be Biodegradable
If recycling isn’t viable, use materials that safely biodegrade without harmful residues.

References & Additional Reading

Exhibitor List October 2025