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Keywords

Neutrosophic Logic, Functional Analysis, Performing Arts Evaluation, Computational Modeling, Intelligent Assessment

Article Type

Original Article

Abstract

Evaluating performance-based learning, such as dance or performing arts education, poses significant computational challenges due to uncertainty, subjectivity, and heterogeneous evaluation data. Conventional scoring models fail to capture the coexistence of quantitative indicators (timing, attendance) and qualitative judgments (artistry, expressiveness).

This study introduces a computational neutrosophic functional framework that models ambiguity using set-valued, indeterminate representations within a rigorous analytic structure. We construct a neutrosophic function space CN(X) and a Hilbert C*-module HN for integrating evaluator signals through algebraic fusion. A strongly continuous neutrosophic operator semigroup (T(t)) is developed to model temporal learning and decay, while a neutrosophic Fourier–Stieltjes expansion captures periodic instructional effects. The framework’s theoretical core—the Neutrosophic Banach–Stone Principle—links structure-preserving isometries to homeomorphisms of attribute spaces. A computational case study on college dance evaluation demonstrates the system’s capacity to unify uncertain, multi-source data in a stable analytic environment. The approach offers a foundation for intelligent assessment systems in performing arts and related learning domains.

Creative Commons License

Creative Commons Attribution 4.0 International License
This work is licensed under a Creative Commons Attribution 4.0 International License.

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