Rune Lødeng

Rune Lødeng is a Senior Researcher at SINTEF Industry, Department of Process Technology, in Trondheim, Norway. He has been with SINTEF since 1984, specializing in catalysis R&D including materials, chemistry, catalytic reactors, and processes. He is affiliated with the Kinetics and Catalysis research team, part of the Gemini Center KinCat in collaboration with NTNU's Department of Chemical Engineering.

His educational background includes:

• Master of Science in Engineering (Siv. ing.) from the Norwegian Institute of Technology (NTH), 1980-1984
• Doctor of Engineering (Dr. ing.) from NTH, 1988-1991
• Postdoctoral research at Ghent University, Belgium, 1997-1998

Lødeng's research centers on catalysis for energy and chemical production, with core expertise in kinetic measurements and modeling, performance testing, and material characterization. His work spans silver-catalyzed methanol oxidation, hydrodeoxygenation of bio-oils, catalytic oxidation for nitric acid production, and flue gas treatment. He integrates fundamental catalyst science with industrial process development, emphasizing reactor design and in situ analytical techniques.

Analysis of his 2018-2023 publications reveals consistent focus on sustainable catalytic processes for hydrogen production, biofuel upgrading, and emission control. Key themes include catalyst structure-activity relationships, competitive adsorption effects, and advanced reactor configurations like annular systems. His research bridges experimental kinetics with theoretical modeling to optimize catalytic performance in energy-intensive industries.

No major scientific awards were mentioned in the available information.

There is no information provided regarding student advising or specific research grants.

Lødeng operates within the Kinetics and Catalysis team at SINTEF's Perleporten facility (formerly Chemistry Hall D), leveraging Gemini Center KinCat's collaborative framework with NTNU. This environment supports end-to-end research from molecular-level catalyst studies to pilot-scale process validation, with recent work featuring innovations like the in situ mass analyzer (ISMA) for real-time reactor monitoring.