Confining organometallic catalysts in nanoscopic compartments has been gaining traction as a method to introduce additional levels of control in catalytic transformations. Running reactions inside of compartments is ubiquitous in biology, and recent attention has turned toward applying the same principles to organometallic systems. This perspective attempts to ellucidate compartment design principles and identify shortcomings of current methodologies. We start by using enzymes as an exemplar model system for biological compartments, extrapolate guiding principles, and apply them to organometallic catalysts. Structure and space are then explored as overarching design principles at work in compartmentalization. Finally, suggestions for future directions are provided. Compartmentalization has the potential to become a powerful synthetic tool, however, more work in understanding the fundamental principles at play is required.
The art of compartment design for organometallic catalysis
11 October 2022, Version 1
This content is a preprint and has not undergone peer review at the time of posting.