Communications in Mathematical Physics· 2026Q1
Decay of Correlations for the Massless Hierarchical Liouville Model in Infinite Volume
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- Q1SCImago
- 2026year
Short summary
Researchers established the precise first-order asymptotic behavior of the negative exponential moment of multiplicative chaos constructed from a balanced Gaussian Branching Random Walk on a d-ary tree.
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Key points
- Established the precise first-order asymptotics of the negative exponential moment of multiplicative chaos ($M^A$).
- The multiplicative chaos is constructed from a balanced Gaussian Branching Random Walk on a d-ary tree.
- The asymptotic behavior is shown for $t_k = oldsymbol{\lambda p}^k$ as $k ightarrow oldsymbol{\infty}$.
- The rate of convergence depends explicitly on $oldsymbol{\gamma}$ and $d$.
AI-generated from the title and abstract; the full text is not read.
Abstract
Abstract Let $$A=(A_v)_{v\in \mathcal {T}}$$ A = ( A v ) v ∈ T be the balanced Gaussian Branching Random Walk on a d -ary tree $$\mathcal {T}$$ T and let $$M^A$$ M A be the multiplicative chaos with parameter $$\gamma \in (0, \sqrt{2\log d})$$ γ ∈ ( 0 , 2 log d ) constructed from A . In this work we establish the precise first order asymptotics of negative exponential moment of $$M^A$$ M A , i.e. we prove that for $$t_k = \lambda {p}^k$$ t k = λ p k with $$\lambda >0$$ λ > 0 and $${p}$$ p an explicit constant depending only on $$\gamma $$ γ and d , we have as $$k \rightarrow \infty $$ k → ∞ , $$\begin{aligned} -\frac{1}{d^k} \log \mathbb {E}[e^{-\lambda {p}^k M^A} ] \rightarrow h(\lambda ), \end{aligned}$$ - 1 d k log E [ e - λ p k M A ] → h ( λ
The authors' abstract, as published at the source. Communications in Mathematical Physics, 2026 · DOI ↗
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Field: Mathematical Physics
Mathematical PhysicsMathematics