From Waste to Wealth: The New Alliance Forging a Green Chemical Future

NEWARK, CA & SOMERSET, NJ – May 20, 2026 – In a move that could reshape the chemical industry, green hydrogen leader Ohmium International has joined forces with carbon-tech innovator RenewCO₂. The collaboration aims to commercialize a groundbreaking process that transforms captured carbon dioxide into valuable chemicals, effectively turning a global liability into a profitable resource and accelerating the shift toward a circular carbon economy.

This strategic partnership pairs Ohmium’s expertise in manufacturing high-efficiency Proton Exchange Membrane (PEM) electrolyzers with RenewCO₂’s proprietary catalyst technology. Together, they plan to build an integrated platform capable of electrifying chemical production, a sector responsible for approximately 15% of global industrial greenhouse gas emissions. The goal is not merely to reduce emissions but to create a new, sustainable supply chain where waste CO₂ becomes the primary feedstock for materials that are essential to modern life.

A Synergy of Green Hydrogen and Carbon Conversion

The collaboration hinges on the powerful synergy between two cutting-edge technologies. Ohmium, which recently secured $250 million in Series C financing, is a key player in the green hydrogen space. Its modular Lotus® PEM electrolyzers are designed to produce cost-competitive hydrogen using renewable energy. This green hydrogen is a critical ingredient in the new chemical equation.

RenewCO₂, a spin-out from Rutgers University, provides the other half of the solution with its patented eCUT-FA™ catalyst technology. This system uses a proprietary, low-cost catalyst to drive an electrochemical reaction that converts CO₂ and water into high-value chemicals. Unlike traditional, energy-intensive petrochemical processes that rely on high temperatures and pressures, RenewCO₂’s method operates efficiently under ambient conditions, dramatically lowering the energy footprint.

“Hydrogen and CO₂ are fundamental building blocks for the next generation of organic chemicals,” said Dr. Markus Tacke, Ohmium CEO, in a statement. “Ohmium’s strength lies in delivering scalable, cost‑effective green hydrogen through advanced PEM electrolysis, while RenewCO₂ brings deep expertise in the electrochemical conversion of CO₂ into valuable chemical intermediates. We believe that together, our technologies can form a powerful, integrated platform.”

The partnership leverages Ohmium's established manufacturing capabilities to help RenewCO₂ rapidly scale its technology from pilot projects to commercial-scale deployment. “RenewCO₂ has developed world-class processes for converting CO₂ into valuable chemicals and fuels,” noted Dr. Anders Laursen, CEO of RenewCO₂. “We envision Ohmium's manufacturing expertise and electrolyzer platform enabling us to scale rapidly. Together, we're transforming CO₂ from liability to resource and accelerating this industrial shift.”

The Promise of Carbon-Negative Chemicals

The initial focus of the collaboration is on producing Formic Acid, a versatile chemical with a significant market. It is used in leather tanning, agriculture, and as a feedstock for further chemical synthesis. Critically, it is also being explored as a stable, liquid hydrogen carrier, which could solve many of the challenges associated with transporting and storing hydrogen gas.

Masaaki Toma, a 39-year veteran of Sumitomo Chemicals and Chair of the Japanese Formic Acid Working Group, praised the joint effort. “Efficiently generated Formic Acid can be highly effective in lowering both chemical industry carbon intensity as well as providing an easy-to-use method for energy transportation,” he stated.

However, the potential extends far beyond a single product. RenewCO₂'s technology is capable of producing a suite of valuable chemicals, including Monoethylene Glycol (MEG), a key component in polyester fabrics and PET plastic bottles. The company also has its sights on producing sustainable aviation fuel (SAF), ethanol, and other polymer precursors. This versatility is crucial for disrupting the multi-hundred-billion-dollar petrochemical industry.

The environmental implications are staggering. For every ton of chemical produced, RenewCO₂'s process can permanently remove 1.42 tons of CO₂. If all global MEG production, for example, were to switch to this carbon-negative pathway, it could reduce global CO₂ emissions by over 91 million metric tons annually—equivalent to the yearly emissions of more than 5.7 million average Americans.

Navigating the Path to Commercial Scale

While the technology holds immense promise, the path from the lab to industrial-scale production is fraught with challenges. RenewCO₂ is currently developing a pilot system and aims to deliver its first commercial-scale electrolyzer, capable of processing half a tonne of CO₂ per day, in 2027. The alliance with Ohmium is designed to de-risk and accelerate this timeline.

Key technical hurdles include maximizing catalyst efficiency and ensuring long-term operational stability in demanding industrial environments. Economically, the largest variable is the cost of clean electricity, which can account for up to 70% of production expenses. The commercial viability of the process is directly tied to the falling costs of renewable energy and the availability of cost-effective green hydrogen, with some techno-economic analyses pointing to a Department of Energy target of $2 per kilogram of hydrogen as a key threshold for profitability.

The CO₂-to-chemicals space is also becoming increasingly competitive, with companies like Twelve and Avantium developing their own electrochemical conversion technologies. However, RenewCO₂ believes its single-step process and its proprietary catalyst, which avoids the use of expensive precious metals, give it a significant cost and efficiency advantage.

A New Blueprint for the Circular Carbon Economy

Ultimately, the partnership between Ohmium and RenewCO₂ represents more than just a new manufacturing process; it offers a blueprint for a truly circular carbon economy. By creating a direct, economically viable pathway to convert industrial emissions into high-value goods, the technology incentivizes carbon capture and provides an alternative to sequestration.

This shift is supported by powerful regulatory tailwinds, such as the U.S. Inflation Reduction Act, which provides tax incentives for carbon capture and utilization (CCU). For industries under pressure to decarbonize, this technology offers a route to not only meet sustainability goals but also to generate new revenue streams.

By integrating scalable green hydrogen production with advanced CO₂ electrolysis, this collaboration aims to prove that environmental responsibility and industrial profitability are not mutually exclusive. It is a pioneering effort to re-wire a foundational sector of the global economy, moving it away from a linear, extractive model toward a sustainable, circular future powered by renewable energy and waste carbon.