In the case of FeSOD, it is the redox tuning of the iron center that allows similar-looking proteins to optimize the reactivity of Mn or Fe with superoxide.
Crystal facet dependence, as the crucial factor for semiconductor photocatalysis, is a significant strategy for optimizing the reactivity of photocatalyst.
These results provide estimates for optimizing Al reactivity with the holding time at annealing temperature and allowable time for storage of Al particles for different environmental temperatures.
A new method is presented to optimize the reactivities of a prepolymer for the solid-state polymerization of AA and BB type monomers to obtain high molecular weight polymers.
Over the past decade, crystal facet engineering (CFE) has initiated a flourishing interest in this field, as one commonly employed approach to optimizing the reactivity of various photocatalysts, including the famous TiO2 and other materials (e.g., Cu2O, BiVO4, and BiOCl).
In addition, a similar Zr-zoning strategy is also applied to the blanket region to optimize the excess reactivity behavior and flatten the radial power as well.
Chemical dimerizers of HaloTag and SNAP-tag (HaXS) show excellent selectivity and have been optimized for intracellular reactivity.
These results demonstrate the critical role of protein engineering in optimizing non-natural reactivity and suggest that the well-known plasticity of the P450 active site can be leveraged to target progressively more challenging non-natural reactions.
The selection of a suitable kinetic model to investigate the reaction rate of a contaminant with granular iron (GI) is essential to optimize the permeable reactive barrier (PRB) performance in terms of its reactivity.
Reaction condition for the maximum reactivity was optimized by SPR analysis and more sensitive interaction was performed by SPRi analysis.
In summary, we have deployed a phage-assisted interrogation of reactivity strategy to optimize a bioorthogonal, palladium-mediated Cu-free Sonogashira cross-coupling reaction.
