Bessel-integral asymptotic conjecture for the Euclidean ball

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For p∈(0,∞)p\in(0,\infty) and In/2I_{n/2} the modified Bessel function appearing in the explicit formula for Mp(B2n)\mathcal{M}_p(B_2^n),

Bessel-integral asymptotic conjecture.

∫0∞rn+n2p−1In/2(r)1p dr=(n1+12pe1+12pp(1+p)1+1p)neo(n).\int_0^\infty \frac{r^{n+\frac{n}{2p}-1}}{I_{n/2}(r)^{\frac1p}}\,dr=\left(\frac{n^{1+\frac{1}{2p}}}{e^{1+\frac{1}{2p}}}\sqrt{p(1+p)^{1+\frac{1}{p}}}\right)^n e^{o(n)}.

The source states this as the equivalent integral formulation of the Euclidean-ball asymptotic conjecture, reducing the problem to estimating a Bessel-function integral.

References

Primary source

Vlassis Mastrantonis, “L^p-Legendre Transforms and Mahler integrals: Asymptotics and the Fokker–Planck heat flow”, arXiv:2411.10439 (2024).

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