Sentence examples for improved surface area from inspiring English sources
This remarkable improvement can be attributed to the enhanced visible light absorbance, improved surface area and charge carrier separation and transfer ability.
It has been reported that substitution of Cs+ for H+ in CsxH3-xPW12O40 catalysts improved surface area and thermal stability compared to parent acids, the surface area is the largest when x = 2.5 [15].
The photocurrent density of the core shell photoelectrode was found to improve by ∼2.4 times compared to ZnO nanorod photoelectrodes, due to improved surface area and charge transport in the core shell photoelectrodes.
The enhanced performance is mainly due to the improved surface area & porosity as well as reinforced electrical conductivity.
The formation of pGPPCN/TiO2 donor-acceptor heterojunction prepared by this method showed improved surface area and light absorption.
This study presents an electrosynthetic methodology to obtain hierarchically structured ZnO electrodes with improved surface area, by exploiting gold nanowires ensembles (3D-NEEs) as the growing substrate.
The improved efficiency was due to the role of the MTSs in improving surface area and light harvesting properties, as demonstrated by N2 adsorption/desorption isotherm, UV-visible light absorption, reflectance spectroscopy, incident photon-to-current efficiency (IPCE), and electrochemical impedance spectroscopy (EIS) analyses.
Catalyst characterization shows that addition of La2O3 up to 5 wt% improves surface area, CO2 adsorption capacity, Ni reducibility and metal dispersion, as well as reduces support acidity.
Results show that a small amount of GrO doping (1%) could significantly improve surface area and pore volume of the resulting 1GrO@MIL-53(Cr), while a remarkably enhanced CO2 uptake was observed with sufficient GrO doping (10%) for 10GrO@MIL-53 10GrO@MIL-53 and room temperature, whiCr is 62% higher that that of its parental MIL-53(Cr).
In particular, it highlights some of the critical roles and functions of anodes in MFCs, strategies available for improving surface areas of anodes, dominant performance of stainless-steel based anode materials, and the emerging benefits of inclusion of nanomaterials.
Improved specific surface area, carbon graphitization, conductivity and lithium ion diffusivity in the boron-doped phospholivine network account for this excellent rate performance.
