The petrochemical potential
1.8
billion
tons CO₂
chemical industries are one of the largest industrial contributors to global CO2 emissions.
10%
of global carbon dioxide emissions comes from the petrochemical industry.
x2.1
CO₂ multiplier
producing 1 ton of fossil-based CO emits 2.1 tons of co2
75%
we can decarbonize olefin production by 75% with respect to its fossil variant.
Carbon circularity in the petrochemical industry.
The petrochemical industry is a significant contributor to global CO₂ emissions, accounting for an estimated 10% of industrial greenhouse gas output due to its reliance on fossil fuels for feedstock and energy.
CO, a vital feedstock for essential petrochemical products like ethylene, propylene, and methanol, is traditionally produced through energy-intensive, fossil-based processes like steam cracking and preliminary naphtha, which themselves also contribute to the industry's carbon footprint. A double loss.
To reach carbon circularity a bottom-up synthesis approach is needed. For this, traditional cracking techniques need to shift towards Fisher-Tropsch synthesis (FTS) or conversion from syngas to higher hydrocarbons, such as olefins.
With accelerated advancements and interest into decarbonization via syngas or fischer-tops synthesis, sustainable CO sourcing becomes even more important.
Through plasma conversion, petrochemicals can now can provide and buy sustainable CO derived from captured CO2 sources instead of fossil fuels, promising a low-carbon economy.
Our plasma conversion can produce CO based on CO2, reducing its carbon footprint drastically to -0.69 t CO2 eq./t CO considering the avoided emissions corresponding to biogenic CO2 and renewable energy usage.
Decarbonizing fossil olefin production
Plasma conversion can decarbonize olefin production by 75% with respect to its fossil variant.
Traditionally, olefins like ethylene and propylene rely on fossil fuel-based feedstocks, which drive significant carbon emissions. By integrating sustainable CO derived from captured CO₂ into the syngas process, industries can reduce reliance on fossil inputs and cut the carbon footprint of olefin production.
This approach not only supports circularity in petrochemical manufacturing but also aligns with global efforts to transition toward low-carbon economies while maintaining efficient, scalable production.
Energy efficient CO production
Our breakthrough in cold plasma technology enables high co2 conversion density at low cost.
Our technology performs 33% better in terms terms of operating costs (OPEX) and capital Expenses (CAPEX) compared to other best in class electrified CO production techniques.
clean tech with benefits
Peak shaving energy costs through direct on/off technology
Reduce energy costs by producing CO₂-derived CO during off-peak electricity.
Leverage surplus renewable energy BY storing valuable feedstocks for later use. By aligning operations with grid fluctuations, companies cut peak electricity expenses and reduce variability while improving energy efficiency and sustainability.
CLIENTS AND PARTNERS
PRESS RELEASE
Converting CO2 to high-purity CO with mitsubishi heavy industries
Repurpose captured emissions into CO by combining Mitsubishi Heavy Industries (MHI) Group advanced carbon capture systems (CCS) with our plasma-based CO₂ conversion (CCU) technology. Our technology offers a plug-and-play solution to turn CO2 into sustainable CO on-site.
CIRCULAR CHEMISTRY
Opportunities for petrochemicals
reduce reliance on fossil fuels by integrating modern technologies and enhancing industrial efficiency.
Plasma-based CO₂ conversion technology enables cost-effective production of low-carbon CO, essential for manufacturing tomorrows sustainable building blocks.
“Differentiate early through positioning your company as an innovator or leader in sustainable chemical manufacturing.”
Sourcing CO from renewable CO₂ ensures supply stability, reducing dependency on volatile fossil resources and brings feedstock security
Economic Viability: Low OPEX and CAPEX for plasma conversion make the transition cost-effective compared to other electrified production techniques.
Economic Viability
Low OPEX and CAPEX for plasma conversion make the transition cost-effective compared to other electrified production techniques.
Decarbonizing olefin
Decarbonizing olefin production can cut carbon emissions by up to 75% compared to traditional methods.
