The chemical industry is the world’s third-largest industrial emitter, accounting for over 5% of global greenhouse gas emissions. Its foundational building blocks, acids, alcohols, plastics, and other commodity chemicals, are largely made from fossil-derived feedstocks via high temperature, high-pressure processes that are notoriously difficult to decarbonise.
Carboxylic acids are an important group within this sector. They are widely used as intermediates in the production of food preservatives, cosmetics, pharmaceuticals, plastics, textiles, and fine chemicals. However most carboxylic acids are produced through petrochemical routes involving energy-intensive oxidation or carbonylation processes, generating significant emissions and hazardous by-products. Yet despite growing policy pressure and sustainability pledges, low-carbon alternatives for carboxylic acid production remain scarce and often commercially unviable at scale.
EvoCarbon is a platform that converts captured CO₂ into high-value carboxylic acids through a novel process that runs under mild, energy-efficient conditions. The process is circular and avoids fossil carbon entirely, offering a path to slash lifecycle emissions in one of the world’s most entrenched supply chains.
EvoCarbon does not release CO2 into the atmosphere, it consumes it, and it does not rely on CO and traditional organic solvents derived petrochemical feedstocks. The rationale behind the selection of solvents, starting materials and precursors is to choose chemicals with inherent low carbon footprints.
EvoCarbon reaction is being designed to operate at temperatures below 60 oC and atmospheric pressure as opposed to temperatures above 150 oC and high pressure.
EvoCarbon is inspired by circular economy principles. We are designing solvents and catalysts that enable a cost-effective purification of the product and the recycling of the waste materials to generate fresh precursors.