Tag: Suljo Linic
-
New reactor could save millions when making ingredients for plastics and rubber from natural gas
With oil production dropping, a process using natural gas is needed to avert a shortage of a workhorse chemical used for automotive parts, cleaning products and more.
-
Additive manufacturing optimizes multifunctional chemically reactive systems
Tuning the properties of membrane and catalyst layers could offer a promising way to optimize reactors for fuel cells, electrolyzers and partial oxidation reactions.
-
$1.3M to improve urea production and reduce carbon dioxide emissions
Rather than contributing to emissions, the production of an essential fertilizer could consume carbon dioxide, and a U-M team will explore such a method.
-
Suljo Linic receives American Chemical Society Gabor A. Somorjai Award for Creative Research in Catalysis
Department of Chemical Engineering professor, Suljo Linic, honored by the American Chemical Society for Creative Research in Catalysis.
-
Interpretable machine learning in catalysis
Recent research from U-M ChE professors Suljo Linic and Bryan Goldsmith and their co-advised PhD student Jacques Esterhuizen explores recent advances in machine learning approaches for heterogeneous catalysis.
-
War and Professorship
U-M College of Engineering honors Suljo Linic on his amazing journey to the Martin Lewis Perl Collegiate Professor of Chemical Engineering.
-
Machine learning links material composition and performance in catalysts
Understanding how to design better catalysts could enable sustainable energy tech and make everyday chemicals more environmentally friendly.
-
Solving the plastic shortage
New catalyst could stabilize supplies of one of the world’s most important plastics.
-
Chemistry and energy: Machine learning to understand catalyst interactions
Toward harnessing machine learning to design the materials we want.
-
Harnessing light to drive chemical reactions
The mechanism transferring light energy from capturer to catalyst is explained, paving the way to design better reactions that use less energy and produce less waste.