A Neutrosophic Reversibility Tensor Model for Analyzing Quality Dynamics in Academic Discipline Construction at Local Application-Oriented Universities Based on Artificial Intelligence Technology

This paper presents a new model called the Neutrosophic Reversibility Tensor (NRT). It is designed to measure the real quality of academic programs in local application-oriented universities. Many current evaluation systems rely on fixed indicators like graduation rates or course updates. These indicators are often treated as fully reliable. But in reality, some academic programs show progress only on the surface. Inside, they may be facing serious problems like outdated teaching, weak staff, or unclear goals. This creates a false image of improvement. The NRT model solves this problem by combining three special ideas: (1) Evolution and decline in program development; (2) Uncertainty in academic data, and (3) Logical contradictions between what is said and what actually exists. These ideas come from advanced mathematical logic (neutrosophic theory). Together, they form a four-part system that measures growth, decay, contradiction, and vagueness in academic quality. To test the model, we studied a real Artificial Intelligence degree program at a regional university. We used real data and stepby-step equations to calculate the NRT values over five years. The results clearly showed hidden quality issues that were not visible in the university’s official reports. This research offers a new and powerful way to check academic quality using logical, mathematical, and realistic tools, especially when conditions are changing or unclear.

Publication Details

Journal
SHILAP Revista de lepidopterología
Published
2025-06-18
DOI
https://doi.org/10.5281/zenodo.15691408
Primary Topic
Multi-Criteria Decision Making
Type
article
Field-Weighted Citation Impact
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article

A Neutrosophic Reversibility Tensor Model for Analyzing Quality Dynamics in Academic Discipline Construction at Local Application-Oriented Universities Based on Artificial Intelligence Technology

SHILAP Revista de lepidopterología
Multi-Criteria Decision Making
article

A Neutrosophic Reversibility Tensor Model for Analyzing Quality Dynamics in Academic Discipline Construction at Local Application-Oriented Universities Based on Artificial Intelligence Technology

article en

Abstract

This paper presents a new model called the Neutrosophic Reversibility Tensor (NRT). It is designed to measure the real quality of academic programs in local application-oriented universities. Many current evaluation systems rely on fixed indicators like graduation rates or course updates. These indicators are often treated as fully reliable. But in reality, some academic programs show progress only on the surface. Inside, they may be facing serious problems like outdated teaching, weak staff, or unclear goals. This creates a false image of improvement. The NRT model solves this problem by combining three special ideas: (1) Evolution and decline in program development; (2) Uncertainty in academic data, and (3) Logical contradictions between what is said and what actually exists. These ideas come from advanced mathematical logic (neutrosophic theory). Together, they form a four-part system that measures growth, decay, contradiction, and vagueness in academic quality. To test the model, we studied a real Artificial Intelligence degree program at a regional university. We used real data and stepby-step equations to calculate the NRT values over five years. The results clearly showed hidden quality issues that were not visible in the university’s official reports. This research offers a new and powerful way to check academic quality using logical, mathematical, and realistic tools, especially when conditions are changing or unclear.

SHILAP Revista de lepidopterología
Openalex Percentile: Top 46%
Multi-Criteria Decision Making
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