The paper defines the mth order p-affine capacity, proves its fundamental properties and exact unit ball value, and establishes affine isocapacity inequalities relating it to volume, p-capacity, mth order integral affine surface area, and L_p surface area.
On the polar of Schneider's difference body
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abstract
In 1970, Schneider introduced the $m$th-order extension of the difference body $DK$ of a convex body $K\subset\mathbb R^n$, the convex body $D^m(K)$ in $\mathbb R^{nm}$. He conjectured that its volume is minimized for ellipsoids when the volume of $K$ is fixed. In this work, we solve a dual version of this problem: we show that the volume of the polar body of $D^m(K)$ is maximized precisely by ellipsoids. For $m=1$ this recovers the symmetric case of the celebrated Blaschke-Santal\'o inequality. We also show that Schneider's conjecture cannot be tackled using standard symmetrization techniques, contrary to this new inequality. As an application for our results, we prove Schneider's conjecture asymptotically \'a la Bourgain-Milman. We also consider a functional version.
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On the $m$th order $p$-affine capacity
The paper defines the mth order p-affine capacity, proves its fundamental properties and exact unit ball value, and establishes affine isocapacity inequalities relating it to volume, p-capacity, mth order integral affine surface area, and L_p surface area.