Current methods of capturing and releasing carbon are expensive and so energy-intensive they often require, counterproductively, the use of fossil fuels. Taking inspiration from plants, Cornell University researchers have assembled a chemical process that can power carbon capture with an energy source that's abundant, clean and free: sunlight.
The research could vastly improve current methods of carbon capture—an essential strategy in the fight against global warming—by lowering costs and net emissions.
In the study, researchers found that they can separate carbon dioxide from industrial sources by mimicking the mechanisms plants use to store carbon, using sunlight to make a stable enol molecule reactive enough to "grab" the carbon.
>> In Other News: US House Targets Big Climate, Clean Energy Rollbacks in Budget Proposal
They also used sunlight to drive an additional reaction that can then release the carbon dioxide for storage or reuse.
It's the first light-powered separation system for both carbon capture and release.
Graduate student Bayu Ahmad is first author.
Phillip Milner, associate professor of chemistry and chemical biology in the College of Arts and Sciences
From a chemistry standpoint, this is totally different than what anybody else is doing in carbon capture. The whole mechanism was Bayu's idea, and when he originally showed it to me, I thought it would never work. It totally works.
The researchers tested the system using flue samples from Cornell's Combined Heat and Power Building, an on-campus power plant that burns natural gas, and found it was successful in isolating carbon dioxide.
Milner said this step was significant, as many promising methods for carbon capture in the lab fail when up against real-world samples with trace contaminants.
We'd really like to get to the point where we can remove carbon dioxide from air, because I think that's the most practical. You can imagine going into the desert, you put up these panels that are sucking carbon dioxide out of the air and turning it into pure high-pressure carbon dioxide. We could then put it in a pipeline or convert it into something on-site.
Milner's lab is also exploring how the light-powered system could be applied to other gasses, as separation drives 15% of global energy use.
There's a lot of opportunity to reduce energy consumption by using light to drive these separations instead of electricity.
The study was supported by the National Science Foundation, the U.S. Department of Energy, the Carbontech Development Initiative and Cornell Atkinson.
Follow the money flow of climate, technology, and energy investments to uncover new opportunities and jobs.
Inside This Issue 🚧 Carbon Price Gap Stalls Heidelberg Materials' $1.36B Edmonton Cement Carbon Capture Project ⛽ Shanghai Electric Contributes to World-Record Biomethanol Bunkering Operation ⚖️ I...
Inside This Issue 🌱 Mombak Beat Google's 2028 Carbon Deadline by Two Years 🛫 China's First SAF Compliance Service for Foreign-Registered Business Jets Successfully Implemented ✈️ UMeWorld Advances...
Inside This News ⚡ IRS Expands and Extends 45Q Safe Harbor, Offering Long-Term Certainty to Carbon Capture Projects 🌊 South Korea Signs MoU for 320MW Green Hydrogen Complex 🌱 Senken and Carbonsate...
Research to be presented at COM 2026 highlights Novacium’s proprietary HyDRAS™ process, which combines black dross and bauxite residue to produce hydrogen while recovering value from aluminum indu...
Shanghai Electric Contributes to World-Record Biomethanol Bunkering Operation
SHANGHAI, Aug. 20, 2026 /PRNewswire/ -- On August 17, Shanghai Electric partnered with Shanghai International Port Group and CMA CGM Group to conduct a biomethanol bunkering operation with a total ...
MISSISSAUGA, Ontario, Aug. 18, 2026 /PRNewswire/ -- Next Hydrogen Solutions Inc. is pleased to announce that it has completed a Basic Design Engineering Package (BDEP) for a planned 10 MW fueling s...
Syzygy Plasmonics and IFC Partner to Advance Sustainable Aviation Fuel Projects Across Latin America
Framework agreement supports the development of Syzygy's SAF project pipeline in Latin America, beginning with its first planned commercial-scale facility in Uruguay. Syzygy Plasmonics, a leader i...
Follow the money flow of climate, technology, and energy investments to uncover new opportunities and jobs.