Soft Bitopological Spaces via Soft Elements
S.Ray

TL;DR
This paper introduces soft bitopological spaces based on soft elements, establishing separation axioms and compactness concepts, and explores their properties and relationships with classical topologies, including finiteness phenomena.
Contribution
It defines soft bitopological spaces via soft elements, introduces pairwise soft separation axioms and compactness, and analyzes their properties and equivalences with parameterwise topologies.
Findings
Pairwise soft $T_i$ axioms are equivalent to parameterwise $T_i$ axioms in canonical cases.
Finiteness of the parameter set influences the relationship between componentwise and soft compactness.
Examples demonstrate differences between induced bitopologies on soft elements and original soft bitopologies.
Abstract
We introduce soft bitopological spaces from the standpoint of soft elements. A soft bitopological space is a soft set equipped with two soft topologies. Following the classical construction of Goldar--Ray, each soft topology on induces an ordinary topology on the set of soft elements; hence every soft bitopological space canonically determines a genuine bitopological space on . Within this setting we define pairwise soft separation axioms (, , ) and a notion of pairwise soft compactness, and we compare them with their parameterwise counterparts. For canonical (sectionwise generated) soft bitopologies, we show that the pairwise soft axioms are equivalent to the corresponding pairwise axioms on each parameter space. Compactness exhibits a finiteness phenomenon: when the parameter set is finite, componentwise pairwise compactness forces…
Peer Reviews
No public reviews on file for this paper yet. If you reviewed it on a platform where reviews are public (OpenReview, ICLR, NeurIPS, ICML), you can paste yours below so the community can read it here.
Videos
No videos yet. Explain this paper in a talk, walkthrough, or lecture? Add one.
Taxonomy
TopicsFuzzy and Soft Set Theory · Rough Sets and Fuzzy Logic · Advanced Algebra and Logic
