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| # Subpolynomial dimension reduction in <i>L</i><sub><i>p</i></sub> | |
| The following describes the scope of the Lean formalization related to the following accompanying paper(s): | |
| - [Subpolynomial dimension reduction in $L_p$](../../preprints/Subpolynomial-dimension-reduction-in-Lp-September-23-2026/paper.pdf) | |
| ## Scope | |
| For $p>1$, $p\ne2$, the formalization bounds the least dimension needed to embed every $n$-point subset of real $L_p$ with distortion $D$. For each fixed $D>1$, there is a constant $C=C(p,D)$ such that this dimension lies between $\log n/\log(1+2D)$ and $\exp(C(\log n)^{\gamma(p)})$ for every $n\ge2$, where $\gamma(p)=2-p$ for $p<2$ and $1-2/p$ for $p>2$. At distortion $1$ and $n\ge9$, it lies between $\lfloor(n-1)/4\rfloor^2$ and $\binom n2$. The least dimension is attained, and its logarithm divided by $\log n$ tends to $0$ for $D>1$ and to $2$ for $D=1$. | |
| ## Comparator links | |
| | Result | Comparator statement | | |
| | --- | --- | | |
| | Dimension reduction in $L_p$ | [SubpolynomialLp.lean](../ComparatorChallenges/SubpolynomialLp.lean) | | |