The phrase "attributed to the coating" is correct and usable in written English.
It can be used when discussing the characteristics, effects, or properties that are ascribed to a specific coating in various contexts, such as materials science or product descriptions.
Example: "The increased durability of the surface can be attributed to the coating applied during manufacturing."
Alternatives: "ascribed to the coating" or "assigned to the coating".
The outstanding results observed in a-C H coa-C Hs deposited on NiTi are attributed to the coatingscapability of copying the reversible depositedon that takes place iNiTie metareic substrattributeded wito a stheng adhesive coatingion.
The coating mechanism is represented in the DEM by considering that once a droplet contacts a corn seed, it is removed from the simulation and its mass is attributed to the coating of the corn seed.
This superior performance is attributed to the coating layer which restrains the side reactions at electrode/electrolyte interface and enhances structure stability, meanwhile, it can decrease the electrode polarization because it is an excellent Li+-ion conductor.
Electrochemical impedance spectroscopy (EIS) results implied that the increase of capacity retention and rate performance could be mainly attributed to the coating layer, which suppressed the increase in impedance upon cycling by inhibiting the electrolyte/electrode parasitic reaction.
The improved performance of composite products is mainly attributed to the coating of Co3O4 layer which can not only increase the conductivity of TiO2, but also could contribute to the overall reversible capacity during charge/discharge.
EIS results showed that proper heat treatments also enhanced the corrosion resistance in both acidic (1.0 N H2SO4) and salty (3% NaCl) media, attributing to the coating density and structure improvement.
The improvement of rate capability and cycle stability of LiNi1/3Co1/3Mn1/3O2 microspheres could be attributed to the phosphate coating, which suppressed the side reaction between cathode and electrolyte.
The improvement could be attributed to the LaF3 coating layer that hinders interaction between LiCoO2 and electrolyte and stabilizes the structure of LiCoO2.
The improved discharge capacity and cycle performance are attributed to the carbon coating, which protects the Li-rich cathode material from reacting with the electrolyte and retarding the incrassation of SEI film on the surface of oxide particles.
The substantially improved cyclability and rate capability are mainly attributed to the ATO coating layer, which can not only enhance the electron transport but also effectively restrain the side reactions between the NCA material and the electrolyte.
This good electrochemical performance can be attributed to the uniform coating and binding effect of pyrolytic carbon as well as the network of graphene sheets, which increase the electronic conductivity and Li+ diffusion in the composite, and effectively accommodated the volume change of Si nanoparticles during the Li+ alloying and dealloying processes.
