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A Perfectoid Duality Between M-Theory and F-Theory

Arshid Shabir, Bobby Eka Gunara, Mir Faizal

Abstract

We present a non-singular, definition-level formulation of F-theory by replacing the traditional shrinking-fiber limit of M-theory with compactification on a tower-completed circle described using perfectoid geometry and condensed mathematics. This construction provides an intrinsic eleven-dimensional carrier for modular data and admits a canonical tilting and comparison procedure that yields elliptic geometry as an output rather than an auxiliary input. Using this framework, we establish a precise M-theory/Type IIB dictionary in the constant-coupling sector, showing how the physical axio-dilaton is fixed by eleven-dimensional geometric and topological data. The correspondence is tested at the level of the ten-dimensional bosonic effective action, including its topological couplings inherited from eleven dimensions. The tower-completed geometry naturally organizes global sectors in generalized cohomology, with charge data governed by K-theory and exhibiting a canonical prime-power torsion structure. We further show how this framework extends to varying-coupling backgrounds and duality defects, admits a natural adelic completion with prime-independence, and generalizes to higher-rank and U-duality geometries. We also discuss holographic aspects and the anomaly-refined extension of the duality group beyond the bosonic truncation. Together, these results provide a coherent, non-singular foundation for F-theory and its extensions.

A Perfectoid Duality Between M-Theory and F-Theory

Abstract

We present a non-singular, definition-level formulation of F-theory by replacing the traditional shrinking-fiber limit of M-theory with compactification on a tower-completed circle described using perfectoid geometry and condensed mathematics. This construction provides an intrinsic eleven-dimensional carrier for modular data and admits a canonical tilting and comparison procedure that yields elliptic geometry as an output rather than an auxiliary input. Using this framework, we establish a precise M-theory/Type IIB dictionary in the constant-coupling sector, showing how the physical axio-dilaton is fixed by eleven-dimensional geometric and topological data. The correspondence is tested at the level of the ten-dimensional bosonic effective action, including its topological couplings inherited from eleven dimensions. The tower-completed geometry naturally organizes global sectors in generalized cohomology, with charge data governed by K-theory and exhibiting a canonical prime-power torsion structure. We further show how this framework extends to varying-coupling backgrounds and duality defects, admits a natural adelic completion with prime-independence, and generalizes to higher-rank and U-duality geometries. We also discuss holographic aspects and the anomaly-refined extension of the duality group beyond the bosonic truncation. Together, these results provide a coherent, non-singular foundation for F-theory and its extensions.
Paper Structure (20 sections, 35 theorems, 447 equations)

This paper contains 20 sections, 35 theorems, 447 equations.

Key Result

Theorem 3.8

The tilting operation induces an equivalence of categories and this equivalence preserves the structure sheaf, morphisms, and étale sites.

Theorems & Definitions (110)

  • Definition 3.1: Profinite set
  • Definition 3.2: Condensed set
  • Definition 3.3: Huber adic space
  • Definition 3.4: Perfectoid algebra
  • Definition 3.5: Perfectoid space
  • Definition 3.6: Tilt of a perfectoid field
  • Definition 3.7: Tilt of a perfectoid algebra
  • Theorem 3.8: Tilting equivalence Scholze2012
  • Theorem 4.1: Tilted Tate curve
  • proof
  • ...and 100 more