Turning Abundant Vanadium into a Powerful Catalyst

Published April 16, 2026

Set of graph from vanadium-alkylidene research

Researchers developed a new compound based on the metal vanadium that catalyzes a reaction called olefin metathesis, which is widely used to produce fuels, plastics, and other chemicals. Using nuclear magnetic resonance spectroscopy to examine the reaction, the researchers demonstrated that the new compound is more efficient than current industrial catalysts, potentially paving the way for more sustainable chemical manufacturing processes.

What is the finding

Researchers developed a new chemical catalyst based on vanadium, an earth-abundant, inexpensive metal, that breaks and forms carbon-carbon double bonds through a reaction called olefin metathesis. By attaching the catalyst to the surface of silica, the team dramatically improved its performance compared with the original molecular form. Advanced nuclear magnetic resonance measurements confirmed the structure of the active catalyst on the surface for the first time.

Why is this important?

Olefin metathesis is widely used to produce fuels, plastics, and other valuable chemicals. Effective catalysts typically rely on rare and expensive metals like molybdenum or tungsten. Developing catalysts based on abundant elements like vanadium could make these processes more sustainable and potentially less expensive. Many industrial catalysts operate on solid surfaces, but their atomic-scale structures are difficult to determine. By revealing how a vanadium catalyst functions when immobilized on silica, this research provides insight that could help scientists design more efficient catalysts for industrial processes.

Who did the research?

Rahul Koottanil Haridasan¹, Shirley Hernandez², Selena Kuenzig¹, Gabriela Tejada², James H. P. Collins³, Konstantin V. Bukhryakov², Keith Searles¹

¹University of Florida; ²Florida International University; ³National High Magnetic Field Laboratory

Why did they need the MagLab?

Determining the structure of catalysts on solid surfaces requires high-field solid-state nuclear magnetic resonance spectroscopy, which can probe the atomic-scale environment of materials that cannot be studied in solution. The Advanced Magnetic Resonance Imaging and Spectroscopy Facility (AMRIS), affiliated with the MagLab, provides the high-field magnets and specialized instrumentation needed to perform these measurements.