The phrase "electric double layer repulsion" is correct and usable in written English.
You can use this phrase when discussing two surfaces, usually non-porous materials, that have been charged with the same electric charge and therefore repel each other. For example, "When exposed to an electric charge, the two non-porous surfaces experienced electric double layer repulsion and moved apart."
The total interaction energy is computed as a sum of van der Waals attraction, electrical double layer repulsion and bridging attraction or steric repulsion due to adsorbed polymer.
Coagulation is the process whereby destabilization (aggregation) of a suspension is effected by reducing the electrical double layer repulsion among particles through changes in the nature and concentration of the ions in the suspending electrolyte solution.
It is unlikely that this repulsion is due to electrical double layer repulsion arising from surface charges, given the interaction distance (>300 nm) is substantially greater than the Debye length κ 1 ≈ 10 nm at IS = 0.001 M. The effective tip sample contact point was determined by the Golden Section-based algorithm described previously.
The influence of particle size in a colloid viscosity is well known [48] due to effects, as for instance, of the electric double-layer repulsion.
PEI was adsorbed in the surface and intercalated into interlayer of MMT, which reduced the hydration repulsion of diffuse electric double layer and prevented the invasion of water.
The protonated diammonium ions exchange sodium ions and neutralize the negative charges of clay interlayer, which reduces hydration repulsion of diffuse electric double layer.
HTCC was absorbed and coated in the surface and intercalated in the interlayer of MMT, which reduced the hydration repulsion of diffuse electric double layer and leaded to the inhibiting hydration of clay.
The resulting Cs0.33WO3 nanoparticles were stabilized in aqueous solution via electrostatic repulsion mechanism, owing to their electric double layer.
Adsorption of neutral molecules on the surface can also change the properties of the electric double layer.
In the case of semiconductors, however, the electric double layer has a more complex structure inasmuch as the condenser plate at the electrode side of the double layer also becomes diffuse.
