This quadruple mutant exhibited greatly reduced non-specific binding with improved colloidal stability owing to the reduced hydrophobicity.
Furthermore, the pseudocapacitive MSCs maintain high power densities, and cycling stability owing to improvements in electrical conductivity and electrolyte penetration.
Furthermore, it can also enhance the device stability owing to the hydrophobic nature of P3HT that does not absorb moisture in air [73, 74].
The improved cycling stability owes to the decreased roughness of deposited TiO2 thin film with the increase of lifting speed, as illustrated in Fig. 4a.
Further, the Co3O4/rGO/NF structure possesses excellent cycling stability owing to the improved mechanical and electrical properties associated with the thinned Co3O4 nanosheets and incorporation of rGO.
Transition metal oxide-based anodes suffer from poor rate capability and cyclic stability owing to their low electronic conductivity and large volume change for lithium ion batteries (LIBs).
Furthermore, as-formed supported bimetallic PdNi nanocatalyst possessed excellent structural stability, owing to strong metal-support interactions stemming from the perfectible hybrid nanostructure of LDH-C composite precursors.
It is found that introducing hydrophobic alkyl chains into HTMs can retard interfacial charge recombination and, specifically, improve stability owing to the enhanced moisture resistance.
In mixed-halide perovskite formulation, the isolated [PbICl2]− chains are balanced by [CH3NH3]+ cations, and the H2O molecules located between [PbICl2]− double chains increase the stability, owing to the symmetrical hydrogen bonds between H2O and methyl ammonia.
The surface modified Al2O3 clusters exhibit excellent hydrophobicity, oleophilicity and chemical stability, owing to the tight binding of the hydrophobic functional groups on the inorganic Al2O3 clusters and the inherent stability of the grafted hydrophobic molecule chains.
