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Banach Manifold Structure and Infinite-Dimensional Analysis for Causal Fermion Systems

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arxiv 2101.11908 v2 pith:K3JJFRBX submitted 2021-01-28 math-ph math.CAmath.DGmath.FAmath.MP

classification math-phmath.CAmath.DGmath.FAmath.MP
keywords causalbanachfermionoldersystemsanalysiscontinuousdifferentiable
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A mathematical framework is developed for the analysis of causal fermion systems in the infinite-dimensional setting. It is shown that the regular spacetime point operators form a Banach manifold endowed with a canonical Fr\'echet-smooth Riemannian metric. The so-called expedient differential calculus is introduced with the purpose of treating derivatives of functions on Banach spaces which are differentiable only in certain directions. A chain rule is proven for H\"older continuous functions which are differentiable on expedient subspaces. These results are made applicable to causal fermion systems by proving that the causal Lagrangian is H\"older continuous. Moreover, H\"older continuity is analyzed for the integrated causal Lagrangian.

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Cited by 1 Pith paper

Reviewed papers in the Pith corpus that reference this work. Sorted by Pith novelty score. Full citation record

  1. A Geometric Derivation of the Einstein Equations from the Causal Action Principle

    math-ph 2026-07 conditional novelty 7.0 of 10

    Using osculating vacua, the authors derive Einstein's equations from the causal action principle, with the gravitational coupling identified as the square of the regularization length.

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