CAGE INNOVATIONS · v2026

Formaldehyde-Free. PFAS‑Free.
Proven at Industrial Scale.

CAGE replaces formaldehyde, PFAS, and heavy metals with proprietary food‑grade catalysis — 4 patents filed, validated at UBC, $140K Mitacs grant, 37 of 40 tracks outperforming toxic incumbents in computational screening.

56
Research Tracks
08
Categories
$30B+
Market
04
Patents Filed
LIVE · Textile Finishing — formaldehyde‑free wrinkle resistance
UBC
University Partnership
$140K
Mitacs Grant Secured
4 Patents
USPTO Provisionals Filed
TRL 5
Lead Track Validated
Milestones

Proof, Not Promises

March 2026

First two USPTO provisional patents filed

Application #64/007,156 (coatings & platform) and #64/007,194 (recycling) — covering food-grade organocatalysis across industrial substrates.

April 2026

UBC partnership established

Prof. Feng Jiang (UBC Chemistry) agreed to collaborate. Dean Mark MacLachlan (UBC Science) invited CAGE to lecture.

June 2026

Mitacs IT52016 grant approved — $139,999

Federal peer-reviewed funding secured for CAGE's textile finishing research with UBC co-supervision.

June 2026

Third USPTO provisional filed — pH control breakthrough

Application #64/094,365 — optimal pH control method for food-grade crosslinking. Computational prediction validated by lab data (R²=0.97).

Now

Lead track at TRL 5 — pilot-scale validated

W.A.R.P. (formaldehyde-free textile finishing) independently validated at UBC. 37 of 40 computational tracks outperform toxic incumbents.

Independent Validation

Lab Results, Not Claims

Five months of independent ATR-FTIR spectroscopy at the University of British Columbia. 110+ spectra. Mitacs-funded. Every number measured, not modelled.

W.A.R.P. · Formaldehyde-Free Textile Finishing
100
212
Without CAGE
Control
With CAGE
Proprietary catalyst
Relative durable-finish performance · control indexed to 100
+112% in 1 minute

Full durable crosslinking in a 1-minute cure — more than double the control, and more crosslinking than our own 2-minute window. Conventional formaldehyde-free finishing needs several minutes. The CAGE catalyst does it in one.

1 min
Cure time to full crosslink
0
Formaldehyde used or released
0
Fabric yellowing at target cure
2:1
Ester selectivity — fast cure, no yellowing

Independent ATR-FTIR spectroscopy · University of British Columbia · Dr. Jianan Yin · Mitacs IT52016 · March–August 2026 · 110+ spectra · Formulation proprietary

Market Opportunity

Industrial Scale. Real Markets.

Proprietary food-grade organocatalysis addresses $30B+ in industrial markets where toxic incumbents face regulatory pressure and brand mandates.

55

Research Tracks

Industrial applications screened computationally and lab-validated.

37/40

Beat Incumbent

Tracks where food-grade chemistry outperforms toxic alternatives computationally.

$30B+

Market Size

Total addressable market across 55 application tracks.

Leadership

Built by Scientists, Not Marketers

Cornelius van Heerden

Founder & CEO

Engineer at one of the world's largest technology companies. Built CAGE's computational screening pipeline, research platform, and patent portfolio from first principles.

CAGE's approach: replace toxic industrial chemicals — formaldehyde, PFAS, heavy metals — with proprietary food-grade catalysis. Not a single product, but a platform that maps the right catalyst to each industrial application.

The result: 4 USPTO provisionals filed, $140K in peer-reviewed Mitacs funding, a UBC research partnership, and 37 of 40 computational tracks outperforming toxic incumbents.

FAQ

Frequently Asked Questions

What does CAGE replace formaldehyde and PFAS with?

CAGE uses proprietary food-grade organocatalysis — compounds already approved for use in food and pharmaceuticals — to perform the same industrial functions as formaldehyde resins, PFAS coatings, and heavy-metal catalysts. The technology is protected by 4 USPTO provisional patents.

How is CAGE's technology validated?

CAGE's lead track (formaldehyde-free textile finishing) has been independently validated at the University of British Columbia (UBC) under peer-reviewed Mitacs funding ($139,999 grant IT52016). Computational screening across 40 tracks shows 37 outperforming toxic incumbents, with lab confirmation following a multi-layer pipeline: xTB → DFT → molecular dynamics → lab validation.

What industries does CAGE serve?

CAGE's platform spans 8 categories and 55 research tracks: textiles and fabrics, coatings and surfaces, wood and construction, paper and packaging, plastics and recycling, agriculture, biomedical and specialty, and leather and hides. The lead market is textile finishing — a $12B+ sector facing formaldehyde bans across the EU, China, and Japan.

Why are regulators banning formaldehyde and PFAS?

Formaldehyde is classified as a Group 1 carcinogen by the International Agency for Research on Cancer (IARC). The EU reclassified it as a Category 1B carcinogen under CLP Regulation, triggering binding occupational exposure limits from 2026. PFAS ("forever chemicals") persist indefinitely in the environment and accumulate in human tissue; the EU's universal PFAS restriction proposal covers over 10,000 substances. These bans create a $30B+ replacement market.

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