Catalyzing textile waste into high-value, circular materials

Textile recycling for a cleaner tomorrow

The problem

A $150 billion waste crisis with no solution at scale

120M

tonnes of textile waste every year

~15%

of it recycled today

85%

blended, coated or contaminated

8–10%

of global CO₂, more than aviation

Source: BCG 2025 · UNEP 2018

A hillside of discarded clothing several metres high, running to the horizon
01Open disposal

Why it stays there

The waste is already here, and nobody can process it

  • Unrecyclable by design 85% of it is blended, coated and contaminated, so it is landfilled or burned.
  • A growing liability Brands now carry the cost of end-of-life waste.
  • Carbon intensity 8–10% of global CO₂ comes from textiles, more than aviation.
A handful of raw ginned cotton lifted from a bale
02Virgin fibre in
Textile waste washed up along a shoreline in the surf
03Microplastics out
RAW MATERIALSFIBRETEXTILEGARMENTRETAILUSEDISPOSAL LANDFILL · INCINERATION LOOM CLOSES THE LOOP

The broken loop

The chain has no way back to the start

Production is fragmented across the world, so materials are hard to track, and valuable waste streams go uncaptured.

  • Multi-material by default Blends, dyes and mixed waste defeat conventional recycling.
  • Accountability is arriving New mandates make producers own what they put on the market.

The gap

The infrastructure to solve this does not exist

Chemical recyclers

  • Need pre-sorted, clean feedstock
  • $400M+ CapEx for one centralized facility
  • The economics fail without heavy subsidies

Mechanical recyclers & downcyclers

  • Limited to clean cotton or pure polyester
  • Blended, coated or contaminated waste defeats them
  • Output quality degrades with every cycle

Everything that exists today is slow, feedstock-limited and 10x+ more expensive than landfilling.

The solution

We turn complex textile waste into high-value materials

A containerised, plug-and-play unit that ships to the waste, strips out PFAS and microplastics, and converts over 90% of what it takes in.

A compressed sphere of mixed, multi-coloured textile waste

Input

Mixed textile waste: unsorted, blended, dyed

90%+

conversion rate

A grey knitted sweater held up above a field of discarded clothing
04Serviceable

The technology

Thermal chemical conversion, built for real textile waste

Mechanical recycling shreds. Chemical recycling dissolves. Enzymatic recycling digests. All three need clean, sorted feedstock, which is why 85% of the world’s textile waste has nowhere to go.

LOOM converts it thermochemically instead, inside a container that ships to the waste, rather than the other way round.

The pilot reactor tower in the RTI facility

Validation

The science is proven and validated

Third-party verified at RTI International.

  • Mass balance closure 96–100%, with no redesign needed.
  • Product yields ~20% above initial assumptions.
  • Hydrocarbon oil Stable composition over repeated runs, refinable into polyester-grade fractions.

Facilities

Access to leading technologies

Fixed and fluidized bed reactors, hydrotreaters, microreactors, spray dryers, extruders and CO₂ capture prototypes.

Analytical suites feature SEM, XRD, XRF, 300/500 MHz NMR, GC-MS, LC-MS, ICP-MS, TGA-MS and microscopy platforms.

Process reactor bay behind glass panels

Reactor bay

Fixed and fluidized bed reactors behind glass, run continuously under instrumentation.

The team outside the research facility

Pilot site

The RTI campus in Research Triangle Park, where the LOOM process is run and verified.

Pipework and instrumentation on a pilot rig

Process rig

Hydrotreaters, microreactors and CO₂ capture prototypes, plumbed for continuous runs.

Analytical laboratory bench

Analytical suite

SEM, XRD, XRF, 300/500 MHz NMR, GC-MS, LC-MS, ICP-MS and TGA-MS.

Two engineers walking the process hall

On site

LOOM engineers embedded with the RTI process team through every run.

The finished products

Nothing leaves the unit as waste

Oil, carbon and gas. Two are sold into existing markets; the third is used for energy.

Aerial view of a cargo ship at sea

01

LOOM Oil

Condensed from the vapours the textiles release as they break down in the reactor.

A high-calorific hydrocarbon oil of stable composition, supplied into chemical manufacturing and energy systems.

Close-up of fine black carbon powder

02

Solid Carbon

The solid fraction that stays in the reactor once the vapours are drawn off.

Dyes, pigments, rubber, plastics and textile additives. Blended into cement, a permanent carbon sink.

Industrial gas pipework on a steel pipe rack

03

Syngas

The light gases that do not condense into oil, captured at the end of the process.

Fed back into the reactor as fuel, a self-sustaining energy loop that powers the unit.

Demand

“What stands out about LOOM is that it finally meets the problem at full scale.”

Backed by science & ecosystem partners

RTI International
RTI International
University of Johannesburg
University of Johannesburg
Research Triangle Park
Research Triangle Park
Multipeak Global
Multipeak Global

Partner marks shown with permission. Links open each partner’s own site.

The team

Industry veterans and serial entrepreneurs

Henry Maillet

Henry Maillet

Chief Executive Officer

CEO of Multipeak Global, with 15+ years commercializing deep tech and leading ESG strategy.

Dr Tich Munyikwa

Dr Tich Munyikwa

Chief Technology Officer

25+ years in innovation and sustainable technologies; senior roles at Monsanto, Syngenta and Yield10.

Cole Harrison

Cole Harrison

Founder, CBDO

Project development and commercial construction execution, managing large teams and multi-million dollar contracts.

Kimberly Landry

Kimberly Landry

Principal Strategic Advisor

35+ years in manufacturing, biotech and sustainability. Raised $150M+, founded Pebble Labs and Trait Biosciences.

Andre Bilbao

Andre Bilbao

Strategic Investor

Senior Vice President at Lidl & Kaufland Asia (Singapore) with 20+ years of executive leadership in end-to-end sourcing and procurement. Proven track record managing portfolios across key retail sectors in Apparel, Hardlines and Food & Near Food.

Impact

Decarbonizing the textile industry, profitably and at scale.

In the next five years, our goal is to cumulatively achieve

1.8B

garments removed from the ecosystem

450,000

tonnes of textile waste diverted from landfill

225,000

tonnes of CO₂ avoided emissions

Contact

Join us on our journey.

LOOM Carbon is working with brands, waste operators and manufacturers to place the first commercial units at the source of waste.