KAUST, Saudi Aramco, and the Ministry of Energy convened the Crude Oil to Chemicals Innovative Technologies Conference on October 23-25. The conference focused on catalysts, process optimization, and fundamental approaches for oil-to-chemicals conversion. KAUST also signed an MOU with Saudi Aramco, the Ministry of Energy, and the Oil Sustainability Program to develop relevant technologies. Why it matters: This initiative signals a move towards more sustainable hydrocarbon use and the development of advanced materials in the Kingdom.
KAUST and Aramco have developed a one-step crude-to-chemicals (C2C) technology that converts crude oil to light olefins in a single-reactor system. The technology, published in Nature Catalysis, aims to maximize the production of materials used in daily life over fuels. Aramco is pursuing growth opportunities in petrochemicals using the C2C method. Why it matters: The C2C breakthrough aligns with Saudi Vision 2030 and could reduce the carbon footprint associated with oil use, creating jobs and supporting a thriving economy.
Aramco, Honeywell, and KAUST have signed a Joint Development Agreement (JDA) to co-develop a next-generation direct Crude-to-Chemicals (CTC) technology. The collaboration aims to develop and scale up the full CTC process, reducing capital and operating costs. The new CTC pathway is designed to convert crude oil directly into light olefins and other high-demand chemicals. Why it matters: This partnership signifies a major push for Saudi Arabia to lead in downstream innovation, aligning with Vision 2030 to diversify the economy and strengthen its position in the petrochemicals industry.
KAUST is advancing environmental sustainability and industrial development through catalysis innovation, supporting Saudi Vision 2030's economic diversification and sustainability goals. Researchers are exploring ways to chemically recycle plastic waste and convert carbon dioxide into valuable products. KAUST is building platforms to accelerate the journey from laboratory to market with collaborators, focusing on hydrogen technology and CO2 utilization. Why it matters: This positions Saudi Arabia as a potential global hub for sustainable chemical innovation and clean energy export.
KAUST researchers are exploring novel chemical reactors and separation processes using mathematical design, with a focus on time and shape variables to enhance transport, heat transfer, and mass transfer. By aligning design, modeling, and 3D printing, they create customized shapes with great complexity and less material. This approach allows for the creation of bespoke reactors and separation processes tailored to specific applications, improving efficiency and reducing energy consumption. Why it matters: This research demonstrates the potential of advanced manufacturing techniques to revolutionize industrial design in the Middle East's chemical and pharmaceutical sectors.
KAUST hosted the New Challenges in Heterogeneous Catalysis research conference from January 29-31. The conference brought together catalysis researchers from KAUST and abroad to inspire future research and discuss challenges in heterogeneous catalysis. Discussions focused on new chemistry, catalytic materials, understanding catalytic processes, and activation of small molecules like methane and carbon dioxide. Why it matters: Catalysis research is crucial for KAUST's research thrusts in food, water, energy, and environment, contributing to sustainable development and green chemistry in the region.
KAUST and GE have partnered to study the feasibility of using crude oils like Arabian Super Light (ASL) to power heavy-duty gas turbines. The collaboration aims to develop turbines capable of burning crude oil directly from the ground to meet Saudi Arabia's energy security needs. The research involves building a rig at KAUST's High Pressure Combustion Laboratory (HPCL) to conduct corrosion tests on turbine materials by burning ASL/AXL crude continuously for 2,000 hours. Why it matters: This partnership could reduce reliance on natural gas and offer an economically viable alternative fuel source, bolstering energy security in Saudi Arabia and potentially influencing turbine technology worldwide.
KAUST researchers have developed a system to convert captured carbon dioxide into industrial-grade ethylene using a high-pressure electrolyzer. The system operates under realistic industrial conditions and uses captured, high-pressure CO₂. It reduces the energy cost of producing ethylene by 0.8 gigajoules per metric ton compared to existing electrolysis systems. Why it matters: This innovation presents a direct path for transforming greenhouse gas emissions into valuable chemical products, aligning with Saudi Arabia's circular economy goals.