2020
DOI: 10.1007/s10955-020-02642-9
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Attraction of Like-Charged Walls with Counterions Only: Exact Results for the 2D Cylinder Geometry

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Cited by 7 publications
(7 citation statements)
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“…see also [59,60,61]. The counterion density at the contact with the charged line n(0) = 2πσ 2 is in agreement with the contact value theorem (4.6) taken at the coupling constant Γ = 2.…”
Section: The Exactly Solvable Coupling γ =supporting
confidence: 82%
See 1 more Smart Citation
“…see also [59,60,61]. The counterion density at the contact with the charged line n(0) = 2πσ 2 is in agreement with the contact value theorem (4.6) taken at the coupling constant Γ = 2.…”
Section: The Exactly Solvable Coupling γ =supporting
confidence: 82%
“…Another advantage of the 2D one-component systems is an explicit representation of their partition function and particle densities for the sequence of the coupling constants Γ = 2γ where γ is a positive integer (in the fluid regime), expressing the integer powers of Vandermonde determinant by using either Jack polynomials [53,54] or anticommuting-field theory defined on a one-dimensional (1D) chain of sites [55,56,57,58]. In the case of uniform surface charge densities with counterions only at Γ = 2, the density profile of counterions for the one-wall geometry was derived in [59,60] and the effective interaction between two parallel asymmetrically charged plates at distance d in [61].…”
Section: Introductionmentioning
confidence: 99%
“…The sum over j simplifies itself in the thermodynamic limit N, W → ∞, with the fixed ratio N/W = σ; in this limit, the wall corresponds to an infinite line and charges interact via the pure 2D logarithmic Coulomb potential. Introducing the continuous variable t = 1 N j + 1 see also [59][60][61]. The counterion density at the contact with the charged line n(0) = 2πσ 2 is in agreement with the contact value theorem (4.6) taken at the coupling constant Γ = 2.…”
Section: The Exactly Solvable Coupling γ =supporting
confidence: 67%
“…Another advantage of the 2D one-component systems is an explicit representation of their partition function and particle densities for the sequence of the coupling constants Γ = 2γ where γ is a positive integer (in the fluid regime), expressing the integer powers of Vandermonde determinant by using either Jack polynomials [53,54] or anticommuting-field theory defined on a one-dimensional (1D) chain of sites [55][56][57][58]. In the case of uniform surface charge densities with counterions only at Γ = 2, the density profile of counterions for the one-wall geometry was derived in [59,60] and the effective interaction between two parallel asymmetrically charged plates at distance d in [61].…”
Section: Introductionmentioning
confidence: 99%
“…It is well known that charged colloids (i.e., macroions) have typically a low relative dielectric constant ( ≈ 2−5) which is much smaller than that of the surrounding solvent (e.g., for water ≈ 80). In most of the simulation and theoretical works [ 12 , 13 , 14 , 15 , 16 , 17 , 18 ], it is generally assumed that the electrolyte solution and electrode have the same relative dielectric constant.…”
Section: Introductionmentioning
confidence: 99%