Carbience

Significant carbon reduction and economic viability with the Low Energy Process™

Carbience converts CO₂ and epoxides into high-purity cyclic carbonates below 110°C at 7 bar, maximizing carbon reduction by reducing process energy by 50%.
Partner with us Investor overview →
REACTION TEMP
<110°C
PRESSURE
<7 BAR
OUTPUT → EC PC BA-DCC FR POLYOL
98%+
CONVERSION
99%+
PURITY (PC)
50%+
PROCESS ENERGY SAVED
10×
ORGANIC CATALYST REUSE
7
PATENT ASSETS · INCL. PCT
CONVENTIONAL 120–200°C → CARBIENCE <110°C24–30 BAR → <7 BARMETAL COMPLEX → ORGANIC AMINE CATALYSTGREEN H₂ REQUIRED → NO HYDROGENTRL 6 · PILOT 2026CONVENTIONAL 120–200°C → CARBIENCE <110°C24–30 BAR → 6–7 BARMETAL COMPLEX → ORGANIC AMINE CATALYSTGREEN H₂ REQUIRED → NO HYDROGENTRL 6 · PILOT 2026

Carbon is now a cost. Utilization is the only economic answer.

Unlike CCS, which stores CO₂ underground, Carbience's CCU technology fixes carbon inside industrial materials — polyurethane, coatings, and battery electrolyte solvents.
01
CBAM makes emissions a line item
The EU Carbon Border Adjustment Mechanism and carbon pricing turn every tonne of CO₂ into a direct cost on steel, chemicals, and materials exports.
02
Storage doesn't work everywhere
Korea has limited geological storage capacity. Where CCS can't scale, converting CO₂ into products is the only viable path to net zero.
03
Most CCU burns too much energy
E-fuel routes need massive green hydrogen, 300 °C+ heat, and extreme pressure. Carbience's thermochemical carbonate synthesis uses CO₂ and epoxides directly — hydrogen dependence: zero.
TRL 6 · PILOT 2026
Low Energy Process™
Converts captured CO₂ into bulk cyclic carbonates — ethylene carbonate and propylene carbonate — below 110 °C and 7 bar, with an organic amine catalyst reusable at least 10 times. No metal complexes, no recovery burden.
<110°C6–7 BAR98%+ CONVERSION99%+ PURITYORGANIC CATALYST
EXPLORE TECHNOLOGY →
TRL 4 · NEXT-GEN
Reactive Capture of CO₂
Captures flue-gas CO₂ at ambient conditions and converts it directly into carbonates — eliminating the desorption and liquefaction steps that consume most capture energy. Targeting the lowest CAPEX and OPEX in CCU.
CAPTURE REACTION DESORPTION LIQUEFACTION MOF-ENHANCED
EXPLORE RCC →

The process window, measured

Verified at lab scale against conventional commercial carbonate production. Continuous-process demonstration scheduled for 2026.
SEE ALL 7 PATENT ASSETS →
REACTION TEMPERATURE 45%+ LESS HEAT
120–200°C CONV.
<110°C LEP™
REACTION PRESSURE 75% LOWER PRESSURE
24–30 BAR CONV.
<7 BAR LEP™
CATALYST
Metal complexes Organic amines, 10× reuse
CONVERSION RATE
80–95% 98%+

Reactive Capture, step by step

SEE THE FULL PATHWAY →
STEP 01
Absorption
Flue gas captured at ambient conditions
STEP 02
Activation
CO₂ activated on the amine-functionalized MOF
STEP 03
Direct reaction
Straight to carbonate — no desorption, no liquefaction
110°C · 7 bar
STEP 04
Purification
High-purity cyclic carbonate, ready to ship
99%+ purity
Step 1 — Flue-gas CO₂ is absorbed at ambient conditions. No compression, no heat.

Dicyclic carbonate monomers for NIPU with LEP™ technology

No global carbonate major — Huntsman, Covestro, or Perstorp — supplies isocyanate-free, NIPU-dedicated dicyclic carbonate (DCC) monomers. Carbience's BA-DCC and PEG-DCC are the first commercial attempt to produce them through a low-energy process.

CO₂-derived materials for markets that already exist

LICENSING / JOINT DEVELOPMENT
Bulk Cyclic Carbonates
Ethylene & propylene carbonate from CO₂ — for battery electrolyte solvents and green industrial solvents.
DETAILS →
PRODUCT SUPPLY · 2026 COMMERCIALIZATION
NIPU and polycarbonate polyols powered by LEP™ technology
Powered by our cutting-edge LEP™ technology, we produce high-performance NIPU polyols via dicyclic carbonate synthesis. Moving toward a sustainable future, we have successfully developed eco-friendly polycarbonate polyols with over 20% carbon dioxide content.
DETAILS →
PRODUCT SUPPLY · Development with Universities
Flame-retardant Polyols
Waste-PET + carbonate for flame-retardant polyurethane — built for Korea's regulations
DETAILS →
Team · Process to market

Built by chemists who have scaled processes before

Commercial strategy, process chemistry, organic synthesis, and capture engineering — one operating team spanning the full CCU value chain.

04core disciplines
one scale-up path
Commercial scale-up

Jinsan Kim

CEO · Strategy & venture execution

KAIST · Samsung Fine Chemicals strategy · VC investment & scale-up operator

Strategy Investment Scale-up
Process development

Wooseon Kim

CTO · Applied organic chemistry

PhD, Karlsruhe (applied organic chemistry) · KRICT · SK Innovation process R&D

Chemistry Process R&D LEP™
Organic synthesis

Seongbo Ko

CSO · Catalyst & monomer chemistry

PhD, Pittsburgh (organic synthesis) · Principal researcher, Samsung Advanced Institute of Technology

Catalyst Monomer Material
Capture engineering

Hyunjae Lee

CO₂ capture · Industrial adsorption

Hanyang (chemical engineering) · CEO of Enbion — 25 years in industrial adsorption

Adsorption Capture Feedstock
Expertise, not portraits
FOR PARTNERS
License or co-develop LEP™
Bring low-energy carbonate production to your feedstock and site. NDA available on request.
FOR MATERIAL BUYERS
Source NIPU & FR polyols
Request specs, TDS, and evaluation samples — BA-DCC supply from 2026.
FOR INVESTORS
Request the investor overview
Series A — market, roadmap to 2028 license-out, and the team behind it.

Questions engineers and investors ask first

What is LEP (Low Energy Process)? +
LEP™ is Carbience's catalytic CO₂ conversion technology that produces cyclic carbonates from CO₂ and epoxides below 110 °C and 6–7 bar, using an organic amine catalyst reusable at least 10 times instead of metal complexes.
What is Reactive Capture of CO₂ (RCC)? +
RCC is Carbience's next-generation platform that captures flue-gas CO₂ at ambient conditions and converts it directly into carbonates — eliminating desorption and liquefaction. It is currently at TRL 4 and undergoing lab optimization.
How is Carbience different from conventional carbonate production? +
Conventional processes run at 120–200 °C and 24–30 bar with metal-complex catalysts and 80–95% conversion. Carbience runs below 110 °C at 6–7 bar with organic amine catalysts and 98%+ conversion — over 50% less process energy.
What is BA-DCC and why does NIPU need it? +
BA-DCC (bisphenol-A dicyclic carbonate) is a CO₂-derived monomer that lets polyurethane be made without toxic isocyanates (NIPU). No global carbonate major supplies NIPU-dedicated DCC — Carbience is the first commercial attempt via a low-energy process.
How can companies partner with Carbience? +
Three routes: technology licensing of LEP™ for bulk carbonate production, joint development around your feedstock and site, and product supply of NIPU monomers and flame-retardant polyols.

Bring CO₂-derived carbonate materials to your production line.

We reply within 2 business days. A mutual NDA is available before technical discussions.
Contact us → jskim@carbience.kr
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CCU MATERIALS FOR CARBON REDUCTION
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