The application of a surface catalyst was found to enhance performance even further.
We have demonstrated the application of a Pt/Al2O3/CeO2 catalyst into a microreactor to reduce the CO content by preferential oxidation in a H2 rich model gas mixture.
The results suggest that the application of a predetermined catalyst loading on the channel walls is a feasible method to eliminate unsteady combustion modes in practical mesoscale reactors.
Multi-walled carbon nanotubes were directly grown by chemical vapor deposition on as-received or pretreated 316 SS without application of an external catalyst.
In this study, we attempted to improve diesel particulate matter (PM) combustion by the simultaneous application of a fuel-born catalyst and a perovskite catalyst.
In addition to its use as a catalyst support, carbon can find application as a catalyst on its own, and a large number of applications of carbon as a catalyst, both in the liquid and in the gas phase, have been reported.
While evaluating the performance of the Pt/NF GNF catalyst in a polymer electrolyte membrane fuel cell (PEMFC), a peak power density of 867 mW cm−2 was achieved with a minimal Pt loading of 0.1 mg cm−2, which demonstrates the potential application of this catalyst as a cathode catalyst in fuel cell reactions.
Another application of a visible-light photoredox catalyst, such as Ir[dF CF3 ppy]2 dtbbpy PF6, in the oxidation of electron-rich arenes resulting in the selective deprotection of p-methoxybenzyl ethers in 69 91% yields has been demonstrated by Stephenson and collaborators.
The application of catalyst descriptors for two catalysts, Li/MgO and Sn/Li/MgO, has been used as an example to illustrate the model performance.
This suggests that the application of universal optical properties of a catalyst may not be suitable for the determination of light field for a large range of catalyst concentrations.
