Problem detail · source-aware

Gaussian Mass Maximality of the Integer Lattice

partialconfidence 70%

VibeMathed reports this item as partial. VibeMath preserves that report as a source assertion and has not independently authored a plain-language mathematical explanation.

Precise statement

Regev and Stephens-Davidowitz conjectured that $\mathbb{Z}^n$ maximizes the Gaussian mass $\Theta_L(t) = \sum_{x \in L} e^{-t\|x\|^2}$ over stable lattices for every $t > 0$. The sharp inequality holds for every integral unimodular lattice of rank $n \le 32$, with equality only at $\mathbb{Z}^n$.

The source statement is reproduced for indexing with attribution. Mathematical correctness requires domain-expert or mechanical review. VibeMath has not independently audited statement fidelity, correctness, priority, or novelty.

What AI did

GPT-5.5 Pro, Claude Opus 4.7

The disclosure says the models were used for computations, analysis and synthesis in preparing the article, without separating which of the three, so the lowest tier applies.

Provider: OpenAI / Anthropic · Prompt public: unknown · Independence: unknown

Verification boundary

unreviewed

Single-author arXiv preprint; not yet peer-reviewed.

Correctness: unknown · statement fidelity: unaudited · peer review: none

Timeline

  1. arXiv:2606.01347 - A Sharp Reverse Minkowski Inequality for the Gaussian Mass of Integral Unimodular Lattices

    integral unimodular lattices of rank at most 32; the general conjecture is open

Known method families

argument (source-reported)

Source-reported tools: argument.

Independent: unknown · difference confidence: 0

What remains uncertain

VibeMath has not independently audited the mathematical statement, proof, or novelty claim.

  • VibeMath has not independently verified the mathematical claim.
  • AI-attempt independence and training-data exposure are unknown unless explicitly documented.
  • VibeMath has not independently audited the mathematical statement, proof, or novelty claim.