A generalized kinetic model for compartmentalization of organometallic catalysis
Brandon J. Jolly, Nathalie H. Co, Ashton R. Davis, Paula L. Diaconescu, Chong Liu
Abstract
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Brandon J. Jolly, Nathalie H. Co, Ashton R. Davis, Paula L. Diaconescu, Chong Liu
Abstract
Open-access reader
and TOF. As illustrated in specific reaction examples, our model suggests that a tailored compartment design, including the use of nanomaterials, is needed to suit a specific organometallic catalytic cycle. This work provides justification and design principles for further exploration into compartmentalizing organometallics to enhance catalytic performance. The conclusions from this work are generally applicable to other catalytic systems that need proper design guidance in confinement and compartmentalization.
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and TOF. As illustrated in specific reaction examples, our model suggests that a tailored compartment design, including the use of nanomaterials, is needed to suit a specific organometallic catalytic cycle. This work provides justification and design principles for further exploration into compartmentalizing organometallics to enhance catalytic performance. The conclusions from this work are generally applicable to other catalytic systems that need proper design guidance in confinement and compartmentalization.
Key concepts: Compartmentalization (fire protection), Catalysis, Chemistry, Kinetic energy, Combinatorial chemistry, Organic chemistry, Enzyme, Physics