The phrase "atom efficiency" is correct and usable in written English.
It can be used in contexts related to chemistry or environmental science, particularly when discussing the efficiency of chemical processes in terms of atom utilization.
Example: "The new synthesis method demonstrates high atom efficiency, minimizing waste and maximizing product yield."
Alternatives: "atomic efficiency" or "molecular efficiency."
Despite concerted research efforts in this area, there exist relatively few options regarding efficient amino donor co-substrates capable of allowing high conversion and atom efficiency with stable enzyme systems.
The ultimate synthetic goal in a perfect synthesis is to achieve 100 percent "atom efficiency," in which all atoms of all reagents are incorporated into the synthesized product without the formation of any by-products.
Additionally, the combination of simple precursors in multicomponent transformations has the potential for broad substrate scope and high atom efficiency.
However, this synthesis process suffers from some drawbacks such as low chlorine atom efficiency and formation of unwanted chlorinated organics.
In the present case, the atom efficiency is also improved because the total number of atoms involved in the reaction is obtained in the final mixture.
Reduction of C = O and C = N double bonds using molecular hydrogen is a very important process, due to its low cost and complete atom efficiency [1].
The ratio of biomass fed to the gasifier and the combustor was found to be 0.38 0.62 where the C, H and O atom efficiencies of the process achieved were 35.83, 53.19 and 40.31%, respectively.
The ratio of biomass fed to the gasifier and the combustor was found to be 0.34 0.66 (under energy self-sufficient conditions) where the C, H and O atom efficiencies of the process achieved were 32.87, 48.96 and 37.72%, respectively.
The scientific, technological and commercial importance of green chemistry presents a significant challenge to traditional selox methods, which previously employed hazardous and toxic stoichiometric oxidants including permanganates, chromates and peroxides, with concomitant poor atom efficiencies and requiring energy-intensive separation steps to obtain the desired carbonyl or acid product.
Heterogeneous palladium catalysts with high atom-efficiency offer practical value for selective hydrogenation.
A particular interest in our research group is seeking to use catalytic methods to promote the synthesis of high-value-added functionalised molecules from bulk and commodity chemicals with maximum atom-efficiency.
