geometry-topology / Minimal hypersurfaces in spheres; volume gaps

The Solomon-Yau least-volume conjecture for minimal hypersurfaces of round spheres

Theorem 1.1: for m≥2m\ge2, a closed connected smooth minimal immersion F:Mm→Sm+1F:M^m\to S^{m+1} with non-totally-geodesic image has Vol(M,F∗g)≥am\mathrm{Vol}(M,F^*g)\ge a_m, attained by a minimizing Clifford product. Intermediate results: ∫Σ∣A∣2≥m∣Σ∣\int_\Sigma|A|^2\ge m|\Sigma| for closed embedded non-equatorial minimal hypersurfaces (the lower-bound part of Perdomo's conjecture, also in Nifa 2026) and Clifford rigidity at index m+3m+3. It does not classify hypersurfaces at volume ama_m beyond attainment, and says nothing about higher codimension or the next volume levels.

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geometry-topologySep 23, 2026Significance 30/100Registry: unreviewed

The Solomon-Yau least-volume conjecture for minimal hypersurfaces of round spheres

Prior state unknown→proved

Theorem 1.1: for m≥2m\ge2, a closed connected smooth minimal immersion F:Mm→Sm+1F:M^m\to S^{m+1} with non-totally-geodesic image has Vol(M,F∗g)≥am\mathrm{Vol}(M,F^*g)\ge a_m, attained by a minimizing Clifford product. Intermediate results: ∫Σ∣A∣2≥m∣Σ∣\int_\Sigma|A|^2\ge m|\Sigma| for closed embedded non-equatorial minimal hypersurfaces (the lower-bound part of Perdomo's conjecture, also in Nifa 2026) and Clifford rigidity at index m+3m+3. It do…

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Theorem 1.1: for m≥2m\ge2, a closed connected smooth minimal immersion F:Mm→Sm+1F:M^m\to S^{m+1} with non-totally-geodesic image has Vol(M,F∗g)≥am\mathrm{Vol}(M,F^*g)\ge a_m, attained by a minimizing Clifford product. Intermediate results: ∫Σ∣A∣2≥m∣Σ∣\int_\Sigma|A|^2\ge m|\Sigma| for closed embedded non-equatorial minimal hypersurfaces (the lower-bound part of Perdomo's conjecture, also in Nifa 2026) and Clifford rigidity at index m+3m+3. It does not classify hypersurfaces at volume ama_m beyond attainment, and says nothing about higher codimension or the next volume levels.

Theorem 1.1: for m≥2m\ge2, a closed connected smooth minimal immersion F:Mm→Sm+1F:M^m\to S^{m+1} with non-totally-geodesic image has Vol(M,F∗g)≥am\mathrm{Vol}(M,F^*g)\ge a_m, attained by a minimizing Clifford product. Intermediate results: ∫Σ∣A∣2≥m∣Σ∣\int_\Sigma|A|^2\ge m|\Sigma| for closed embedded non-equatorial minimal hypersurfaces (the lower-bound part of Perdomo's conjecture, also in Nifa 2026) and Clifford rigidity at index m+3m+3. It does not classify hypersurfaces at volume ama_m beyond attainment, and says nothing about higher codimension or the next volume levels.

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The Solomon-Yau least-volume conjecture for minimal hypersurfaces of round spheres — Mathematical Frontier Network