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Theoretical analysis demonstrates infinitely many positive solutions for logarithmic fractional Kirchhoff problems, highlighting solution convergence to zero in bounded domains.
This paper is devoted to the study of the existence of infinitely many positive solutions for a class of fractional ℓ(⋅,⋅)-Kirchhoff-type problems involving a logarithmic nonlinearity. By employing a direct variational method and the framework of variable exponent fractional Sobolev spaces, we investigate the following nonlocal elliptic problem: {M(∫RN∫RN|ζ(σ)−ζ(τ)|ℓ(σ,τ)|σ−τ|N+sℓ(σ,τ)ln(e+|ζ(σ)−ζ(τ)||σ−τ|s)dσ dτ∫RN∫RN)Lℓ(⋅,⋅),logsζ(σ)=θ(σ,ζ)in D,ζ=0on RN∖D, where D⊂RN is a smooth bounded domain and M denotes a Kirchhoff-type function. The operator Lℓ(⋅,⋅),logs represents the fractional ℓ(⋅,⋅)-Laplacian with logarithmic perturbation, defined for σ∈RN by Lℓ(⋅,⋅),logsζ(σ)=P.V.∫RN|ζ(σ)−ζ(τ)|ℓ(σ,τ)−2 (ζ(σ)−ζ(τ))|σ−τ|N+sℓ(σ,τ)×[ℓ(σ,τ) ln(e+|ζ(σ)−ζ(τ)||σ−τ|s)+|ζ(σ)−ζ(τ)|e|σ−τ|s+|ζ(σ)−ζ(τ)|]dτ. Here, the variable exponent ℓ:D×D→(1,∞) is continuous, s∈(0,1), and P.V. denotes the Cauchy principal value. Under appropriate structural assumptions on θ, we establish the existence of infinitely many distinct positive solutions whose L∞(D)-norms converge to zero.
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Ahmed et al. (2026) studied this question.
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