At a Glance
- Global co-refining market projected to grow at a 12.2% CAGR through 2032.
- Rising demand for Sustainable Aviation Fuel (SAF) drives infrastructure integration.
- Existing refinery assets provide a cost-effective path for carbon reduction.
The global co-refining market is poised for significant growth as energy producers integrate renewable feedstocks into existing petroleum infrastructure. Valued at $12.5 billion in 2023, the sector is expected to reach $35.2 billion by 2032, representing a compound annual growth rate of 12.2%. This transition allows refineries to produce lower-carbon fuels without the capital expenditure required for entirely new facilities. Industry leaders are increasingly adopting this method to meet tightening environmental regulations and shifting consumer demands for sustainable energy solutions.
Infrastructure and Feedstock Integration
The integration of bio-based materials into traditional refining processes provides a cost-effective path toward decarbonization. By utilizing current distillation and hydrotreating units, companies can process vegetable oils, animal fats, and used cooking oil alongside crude oil. This approach minimizes the need for new construction while immediately reducing the carbon intensity of transportation fuels. It offers a practical solution for refineries facing pressure to lower emissions while maintaining high production volumes.
Regulatory frameworks in Europe and North America act as primary catalysts for this technical shift. Policies such as the Renewable Energy Directive (RED II) mandate higher percentages of renewable content in fuel mixes, driving demand for co-refined products. Market data from Market Research Community indicates that the flexibility of co-refining makes it an attractive option for mid-sized operators. These firms can adapt their output based on feedstock availability and price fluctuations in the global commodity markets.
Technological advancements in catalyst development further enhance the efficiency of these integrated processes. Modern catalysts allow for higher concentrations of bio-feedstock without compromising the quality of the final diesel or jet fuel. Producers are now able to achieve stable operations even when dealing with the chemical complexities of non-petroleum inputs. This technical maturity ensures that the resulting fuels meet stringent international standards for performance and safety in commercial aviation and heavy-duty transport.
Market participants are also focusing on the reduction of operational costs through digital monitoring systems. These tools help engineers track the impact of bio-feedstocks on hardware longevity and catalyst activity in real-time. By predicting maintenance needs, refineries can avoid unplanned shutdowns and optimize the blending ratios of renewable materials. This data-driven approach supports the long-term viability of integrated refining operations.
"Co-refining represents a pragmatic bridge between traditional fossil fuels and a fully renewable future. It allows the industry to utilize existing assets to deliver immediate environmental benefits while scaling up bio-feedstock supply chains."
— Amanat Ali, Lead Analyst at Market Research Community

Sustainable Aviation Fuel and Regional Growth
The surge in demand for Sustainable Aviation Fuel (SAF) remains a dominant factor in the expansion of co-refining capacity. Airlines are under intense pressure to reduce their carbon footprint, and co-refining provides a scalable method to produce bio-jet fuel. Because SAF produced through co-refining is a "drop-in" fuel, it requires no modifications to aircraft engines or airport fueling infrastructure. This compatibility accelerates the adoption of greener alternatives across the global aviation sector.
Europe currently leads the global market due to aggressive climate targets and established supply chains for waste-based lipids. Regional refineries are rapidly converting units to handle higher volumes of renewable inputs to avoid carbon taxes and secure market share. North America follows closely, supported by tax incentives and the growing availability of soybean oil and other agricultural byproducts. Asian markets are also expected to see rapid growth as developing economies implement their own renewable fuel mandates.
Investment in feedstock collection and pretreatment facilities is becoming a priority for major energy firms. Securing a steady supply of high-quality waste fats and oils is essential for maintaining consistent refinery operations. Companies are forming strategic partnerships with waste management firms and agricultural producers to stabilize their supply chains. This vertical integration helps mitigate the risks associated with the price volatility of renewable raw materials compared to traditional crude oil.
The competitive environment is shifting as traditional oil majors compete with specialized renewable fuel producers. This competition is driving rapid improvements in processing technology and cost reduction strategies. Smaller refineries are finding niche opportunities by focusing on local feedstock sources to minimize transportation costs and emissions. These local supply loops contribute to a more resilient and decentralized energy production network.
Looking ahead, the co-refining sector will likely see increased diversification in the types of feedstocks utilized. Researchers are testing wood waste, algae, and municipal solid waste as potential inputs for the next generation of renewable fuels. As carbon pricing mechanisms become more prevalent globally, the economic incentive for co-refining will only strengthen. The ability to balance operational efficiency with environmental responsibility will define the leaders in the evolving energy market through 2032 and beyond.
