Sentence examples for carriers utilization from inspiring English sources

In this brief review, we highlight the recent progress on the photocatalysis of different exposed crystal facets of BiOCl, focusing on the facet-dependent internal electric field manipulation, sensitization, carbon doping, and plasmonic hot carriers utilization.

The conductivity boost is highly dependent on the carbon type, where rGO requires much less addition to realize the same effect due to its higher charge carrier concentration and charge carrier utilization efficiency.

The temperature and pH sensitive characteristics of the hybrid drug carrier and high drug loading ability merit its consideration as a promising carrier and utilization of the fundamental aspects used for synthesis of other promising drug carriers.

H2 production from one-carbon (C1) compounds such as formate and carbon monoxide (CO) is promising because formate is an efficient H2 carrier, and the utilization of CO-containing syngas or industrial waste gas may render the industrial biohydrogen production process cost-effective.

In the UK the three diagnostic laboratories enter data for each diagnosis onto a shared register and aggregated data can be used for national audit of antenatal carrier screening and utilization of prenatal diagnosis by risk, ethnic group and region.

[20] have pointed out the importance of the spatial distribution of renewable energy carriers to their possible utilization in the energy system.

This algorithm can improve the estimated precision of carrier recovery and data utilization rate of burst data packet in a large extent by performing multiple forward and backward iterations.

Spectral aggregation refers to the utilization of carrier aggregation (CA) technology to support a wide system bandwidth up to 100 MHz in [3].

This path leads to two methodologies pertaining to the improvement of charge carrier mobility by the utilization of existing materials via special design, such as heterostructure technique or experimental study of some new materials, which is possible to have high carrier mobility.

To enable the efficient utilization of energy carriers and the successful integration of renewable energies into energy systems, building energy management systems (BEMS) are inevitable.

Particularly focus has been directed toward the development of a wide spectrum of novel biomedical nanomaterials for their utilization in formulating carriers for controlled drug delivery as well as in diagnostic applications.