Intensional Conceptualization Model and Its Language for Open Distributed Environments

This paper introduces the Intensional Conceptualization Model for Open Environments (ICMOE), a formal framework designed to enable semantic integration in dynamic and distributed systems. Grounded in intensional logic and formalized via a domain-specific language (ICMOE-L) built on Description Logic (DL), the model distinguishes between intensional and extensional semantics, allowing structured representation and evolution of concepts, relations, and domain rules under the open world assumption. ICMOE supports advanced semantic reasoning through an interpretation function that bridges relational data and ontological structures. A formal complexity analysis shows that reasoning with ICMOE-L has a worst-case complexity of O(n) ), where n is the total number of TBox and ABox axioms. To validate its effectiveness, ICMOE is evaluated using both qualitative and quantitative metrics. The model achieves a Concept Coverage score of 0.94, Semantic Depth of 0.89, Dynamic Adaptability Index of 0.91, Semantic Rule Density of 0.85, and Ontology Alignment Efficiency of 0.88. These results demonstrate ICMOE’s superior scalability, semantic richness, and adaptability when compared to foundational models such as those by Guarino and Bealer—making it a robust solution for open distributed environments.

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Publication Details

Journal
AppliedMath
Published
2025-08-25
DOI
https://doi.org/10.3390/appliedmath5030109
Primary Topic
Semantic Web and Ontologies
Type
article
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article

Intensional Conceptualization Model and Its Language for Open Distributed Environments

Aleksander Essex, AbdulMutalib Wahaishi, Khaled Badawy
AppliedMath
Semantic Web and Ontologies
article

Intensional Conceptualization Model and Its Language for Open Distributed Environments

Aleksander Essex, AbdulMutalib Wahaishi, Khaled Badawy
article en

Abstract

This paper introduces the Intensional Conceptualization Model for Open Environments (ICMOE), a formal framework designed to enable semantic integration in dynamic and distributed systems. Grounded in intensional logic and formalized via a domain-specific language (ICMOE-L) built on Description Logic (DL), the model distinguishes between intensional and extensional semantics, allowing structured representation and evolution of concepts, relations, and domain rules under the open world assumption. ICMOE supports advanced semantic reasoning through an interpretation function that bridges relational data and ontological structures. A formal complexity analysis shows that reasoning with ICMOE-L has a worst-case complexity of O(n) ), where n is the total number of TBox and ABox axioms. To validate its effectiveness, ICMOE is evaluated using both qualitative and quantitative metrics. The model achieves a Concept Coverage score of 0.94, Semantic Depth of 0.89, Dynamic Adaptability Index of 0.91, Semantic Rule Density of 0.85, and Ontology Alignment Efficiency of 0.88. These results demonstrate ICMOE’s superior scalability, semantic richness, and adaptability when compared to foundational models such as those by Guarino and Bealer—making it a robust solution for open distributed environments.

AppliedMathVol. 5(3)
Western University (CA)
Openalex Percentile: Top 88%
Semantic Web and Ontologies
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Intensional Conceptualization Model and Its Language for Open Distributed Environments — Aleksander Essex, AbdulMutalib Wahaishi, et al. · AppliedMath (2025) | TGRS Research Map | TGRS