
TL;DR
This paper establishes a precise relationship between VC density and dp rank, showing that strong dependence in theories corresponds to finite VC density, thus linking combinatorial and model-theoretic properties.
Contribution
It provides tight bounds connecting VC density and dp rank, demonstrating that strong dependence is characterized by finite VC density.
Findings
VC density is bounded between dpR(n) and dpR(n)+1
Strong dependence is equivalent to finite VC density
Provides a quantitative link between combinatorial and model-theoretic measures
Abstract
We derive that dpR(n) \leq dens(n) \leq dpR(n)+1, where dens(n) is the supremum of the VC density of all formulas in n parameters, and dpR(n) is the maximum depth of an ICT pattern in n variables. Consequently, strong dependence is equivalent to finite VC density.
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Taxonomy
TopicsError Correcting Code Techniques · Computability, Logic, AI Algorithms
