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EnvalyxPrecision upcycling

Applications

Targeting industrial polymer waste streams where conventional mechanical and chemical routes prove ineffective or economically unviable.

Focus areas

Where Envalyx creates value

Each pathway is co-designed with partners to respect existing collection and processing infrastructure while producing specification-ready intermediates.

PA-6/PA-66

Feedstock: Automotive components, e-mobility housings, industrial textiles.

Today: Often landfilled or downcycled due to glass fiber reinforcement, high crystallinity, and thermal sensitivity.

Envalyx pathway: Engineered enzymes selectively cleave amide bonds under mild aqueous conditions to recover monomers suitable for repolymerization (target).

Target products

  • Adipic acid for PA-6/PA-66 synthesis
  • Hexamethylenediamine (HMDA)
  • Repolymerization feedstock (target)

What we need from partners

  • Feedstock format (flakes, foam, film, crumb)
  • Known additives & contaminants
  • Estimated annual tonnage range
  • Geography + timeline
Discuss PA-66 feedstock

Economics shared with partners upon request

PA-66 polymer structure showing adipic acid and HMDA units with amide bond cleavage by amidase enzymes

Indicative figures only; detailed sources and economics shared on request.

Polyurethane foams

Feedstock: Post-consumer mattresses, appliance insulation, flexible manufacturing scrap.

Today: Often landfilled or incinerated. Thermal processing degrades polyol quality.

Envalyx pathway: Engineered enzymes cleave urethane linkages (–O–CO–NH–) to release polyols, amines, and CO₂ under mild aqueous conditions.

Target products

  • Polyols suitable for polyurethane manufacturing (target)
  • Recovered amines for chemical use

Quality outcome: Targets molecular-weight retention for reuse

What we need from partners

  • Feedstock format (flakes, foam, film, crumb)
  • Known additives & contaminants
  • Estimated annual tonnage range
  • Geography + timeline
Discuss PU foam pilot

Economics shared with partners upon request

Polyurethane foam cellular structure showing urethane bond chemistry and enzymatic hydrolysis to polyols and amines

Indicative figures only; detailed sources and economics shared on request.

Multilayer films & complex packaging

Feedstock: Barrier films, pouches, and laminates with PA, EVOH, PET, and PE layers.

Today: Multiple incompatible layers with different melting points. Adhesives contaminate mechanical processing streams.

Envalyx pathway: Sequential enzyme targeting enables layer-by-layer depolymerization, producing clean streams per polymer type.

Target products

  • PA monomers (adipic acid + HMDA)
  • PET monomers (TPA + EG)
  • EVOH fraction (recovered feedstock)
  • Separated PE for mechanical recovery

What we need from partners

  • Feedstock format (flakes, foam, film, crumb)
  • Known additives & contaminants
  • Estimated annual tonnage range
  • Geography + timeline
Discuss multilayer separation

Economics shared with partners upon request

Cross-section of multilayer barrier film showing PE, PA, EVOH, and PET layers with recovered products per layer

Indicative figures only; detailed sources and economics shared on request.

Tire rubber & elastomers

Feedstock: End-of-life tire crumb, NR/SBR/BR-rich rubber fractions, and elastomeric industrial scrap.

Today: Sulfur-crosslinked rubber networks, carbon black, fillers, oils, steel/textile residues, and additive packages make direct reuse difficult.

Envalyx pathway: Substrate-aware enzyme systems are evaluated for surface opening, oxidative polyisoprene attack, and fragment/additive cleanup.

Target products

  • Oxidized isoprene oligomers and carbonylated rubber fragments (target)
  • Additive/filler-associated fractions for partner evaluation
  • Process data for integration with partner tire-recovery workflows

Quality outcome: Prioritizes realistic feedstock handling, additive awareness, and compatibility with existing tire-processing infrastructure

What we need from partners

  • Feedstock format (flakes, foam, film, crumb)
  • Known additives & contaminants
  • Estimated annual tonnage range
  • Geography + timeline
Discuss tire feedstock

Economics shared with partners upon request

Tire crumb pathway showing NR, SBR, BR rubber, sulfur crosslinks, carbon black, oxidative polyisoprene attack, and fragment cleanup screening

Indicative figures only; detailed sources and economics shared on request.