A representation theorem for stratified complete lattices
Zoltan Esik

TL;DR
This paper introduces a representation theorem for stratified complete lattices, characterizing models and strong models as inverse limits of simpler lattices, and explores their fixed point properties and symmetry conditions.
Contribution
It provides a novel inverse limit representation for stratified complete lattices, offering new insights into their structure and fixed point behavior, with applications to logic programming semantics.
Findings
Models are isomorphic to inverse limits of locally completely additive projections.
Strong models are isomorphic to inverse limits of completely additive projections.
The set of fixed points of weakly monotone functions forms a complete lattice.
Abstract
We consider complete lattices equipped with preorderings indexed by the ordinals less than a given (limit) ordinal subject to certain axioms. These structures, called stratified complete lattices, and weakly monotone functions over them, provide a framework for solving fixed point equations involving non-monotone operations such as negation or complement, and have been used to give semantics to logic programs with negation. More precisely, we consider stratified complete lattices subject to two slightly different systems of axioms defining `models' and `strong models'. We prove that a stratified complete lattice is a model iff it is isomorphic to the stratified complete lattice determined by the limit of an inverse system of complete lattices with `locally completely additive' projections. Moreover, we prove that a stratified complete lattice is a strong model iff it is isomorphic to…
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Taxonomy
TopicsLogic, Reasoning, and Knowledge · Advanced Algebra and Logic · Logic, programming, and type systems
