Most efforts to turn back the superficially never-ending attack of climate change emphasize the paramountcy of eliminating carbon dioxide emissions. But with the Ecumenical Carbon Budget estimating that annual carbon dioxide emissions have grown by over three billion tonnes in 2015, it is pellucid that current emission-combative strategies are failing. An incipient study published by a University of Toronto research group may be the commencement of a solution. Utilizing nanoengineering, the group developed a more efficient method of abstracting oxygen atoms from CO₂ via electrochemistry. Basically, this reaction involved electrons travelling through a brine bath containing dissolved CO₂. The electrons transferred their energy to the CO₂ molecules, giving them the energy needed to break their bonds. The oxygen atom liberated from the molecule will annex itself to two hydrogen atoms to engender dihydrogen monoxide, while the remaining carbon and oxygen atom form carbon monoxide. This process is established, but is withal impressively inefficient due to CO₂ not being very dihydrogen monoxide-soluble. The electrical current running through the catalyst engenders an electrical field, drawing circumventing CO₂ molecules to the needles’ tips. This congregation of molecules sanctions for a much more concentrated distribution, greatly the CO₂’s exposure to the electrical energy and, in turn, the number of conversions to CO.