Sentence examples for principles of catalyst from inspiring English sources

However, there are still many open questions that need to be answered before it would be possible to claim that design principles of catalyst materials are fully developed for the efficient hydrogen production.

Rather than systematically summarizing all the principles of catalyst design encountered at every dimensional scale, the impact of chemical phenomena under the levels of nano-scale and subnano-scale (micro-scale) on catalyst design is illustrated in this paper with two examples in detail.

We therefore suggest a principle of catalyst design to improve the long term stability by depositing Au nanoparticles on the external surfaces of TS-1.

These large polynuclear aromatic hydrocarbons are however not the principle cause of catalyst deactivation in this reaction.

"We regard these factors as the most essential principles of urban density, as catalysts that are generated by cities and evolve further".

Numerous fundamental studies of his team and collaborators on simplified model catalysts have added substantially to the current understanding of a significant number of industrially relevant systems in particular, and the principles of action of solid catalysts in general.

Although there is evidence for greater complexity in the structure of these catalysts than has been incorporated in DFT models, these results provide an important additional example of catalyst identification and design from first principles.

Contributions by leaders in the field focus on stereoselective organic synthesis using lanthanides, the principles of lanthanide chemistry, lanthanide-based chiral catalysts, low-valent lanthanide compounds, polymer synthesis using lanthanide catalysts, and polymer-supported lanthanide catalysts used in organic synthesis.

In addition to these lithium battery projects, Yuriy Román, associate professor of chemical engineering, will serve as co-lead investigator with Shao-Horn to explore the design principles of nanostructured, non-precious-metal-containing catalysts for oxygen reduction and evolution.

With support from TRI, MIT faculty members Yuriy Román and Yang Shao-Horn will explore the design principles of nanostructured, non-precious-metal-containing catalysts for oxygen reduction and evolution.

The technology is based on a combination of four principles: use of heterogeneous catalysts for complete oxidation of combustibles; combustion of fuels in a fluidized bed of catalyst particles; combustion of fuels without a significant excess of air; overlapping the processes of heat release and removal within the same fluidized bed.