A Logical Framework for Convergent Infinite Computations
Wei Li, Shilong Ma, Yuefei Sui, Ke Xu
Abstract
Classical computations can not capture the essence of infinite computations very well. This paper will focus on a class of infinite computations called convergent infinite computations. A logic for convergent infinite computations is proposed by extending first order theories using Cauchy sequences, which has stronger expressive power than the first order logic. A class of fixed points characterizing the logical properties of the limits can be represented by means of infinite-length terms defined by Cauchy sequences. We will show that the limit of sequence of first order theories can be defined in terms of distance, similar to the ε-N style definition of limits in real analysis. On the basis of infinitary terms, a computation model for convergent infinite computations is proposed. Finally, the interpretations of logic programs are extended by introducing real Herbrand models of logic programs and a sufficient condition for computing a real Herbrand model of Horn logic programs using convergent infinite computation is given.
Create a lesson
Related papers
Some complete ω-powers of a one-counter language in the difference hierarchy
Jacques Duparc, Olivier Finkel, Dominique Lecomte
Towards Finite Satisfiability of PDL with Loops
Bartosz Jan Bednarczyk, Mikołaj Swoboda
Vision-Predictor-Action: Towards Efficient Embodied AI via Neuro-Symbolic JEPA Predictors
Yeonseok Lee
Representation Theorems for Actual Powers over Two-Agent General Concurrent Game Frames
Zixuan Chen, Fengkui Ju, Thomas Ågotnes
Capturing Bisimulation-Invariant Exponential-Space Complexity Classes
Florian Bruse, David Kronenberger, Martin Lange
StructHCP: Structure-Aware SAT--CEGAR for the Hamiltonian Cycle Problem
Quan Van Vi, Tuyen Van Kieu, Khanh Van To