Canonical partition functions for gauged permutation-invariant s-index tensor oscillators are expressed exactly as products of (1 - x^{LCM(...)})^{-...} factors, with a large-N critical Boltzmann factor x_c ~ log N/(s N^{s-1}) derived under a stated two-partition dominance conjecture.
Linguistic Matrix Theory
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abstract
Recent research in computational linguistics has developed algorithms which associate matrices with adjectives and verbs, based on the distribution of words in a corpus of text. These matrices are linear operators on a vector space of context words. They are used to construct the meaning of composite expressions from that of the elementary constituents, forming part of a compositional distributional approach to semantics. We propose a Matrix Theory approach to this data, based on permutation symmetry along with Gaussian weights and their perturbations. A simple Gaussian model is tested against word matrices created from a large corpus of text. We characterize the cubic and quartic departures from the model, which we propose, alongside the Gaussian parameters, as signatures for comparison of linguistic corpora. We propose that perturbed Gaussian models with permutation symmetry provide a promising framework for characterizing the nature of universality in the statistical properties of word matrices. The matrix theory framework developed here exploits the view of statistics as zero dimensional perturbative quantum field theory. It perceives language as a physical system realizing a universality class of matrix statistics characterized by permutation symmetry.
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Gauged permutation invariant tensor quantum mechanics, least common multiples and the inclusion-exclusion principle
Canonical partition functions for gauged permutation-invariant s-index tensor oscillators are expressed exactly as products of (1 - x^{LCM(...)})^{-...} factors, with a large-N critical Boltzmann factor x_c ~ log N/(s N^{s-1}) derived under a stated two-partition dominance conjecture.