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Generalized Telescope Conjecture

Published 3 Sep 2026 in math.AT, math.AG, and math.CT | (2609.03375v1)

Abstract: We introduce the atomic smashing frame, extending the Balmer spectrum from tensor-triangular geometry to an arbitrary presentably symmetric monoidal ∞\infty-category V\mathcal{V}. This yields a formulation of the telescope conjecture for V\mathcal{V} and recovers the classical Balmer spectrum in the stable compactly-rigidly generated case. Exploiting dualizable and rigid ∞\infty-categories, we establish a correspondence between smashing ideals and locally rigid localizations. This leads to a recollement theorem for smashing frames in the (pre)stable setting, together with an atomic refinement in the stable compactly-rigidly generated case. As a major application to chromatic homotopy theory, we show that the natural projections induce an embedding of the smashing frame of Sp\mathrm{Sp} into the product of the smashing frames of the monochromatic layers Sp<em>T(n)\mathrm{Sp}<em>{T(n)}, over all primes and heights. In particular, the spatiality of the smashing frame of Sp\mathrm{Sp} reduces entirely to that of Sp</em>T(n)\mathrm{Sp}</em>{T(n)}. In the unstable setting, we characterize the telescope conjecture for ∞\infty-topoi in terms of smashing fields, and for connective module categories and hypercomplete connective sheaves in terms of Pierce-type conditions. Finally, we introduce the Serre smashing frame. Over a connective E∞\mathbb{E}_\infty-ring RR, this frame sits between the atomic and usual smashing frames, providing an intermediate structural layer in the study of the telescope conjecture for the connective RR-module category.

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