De-Neutrosophication of Linear Heptagonal and Nonagonal Neutrosophic Numbers using the Removal Area Method: A Comprehensive Analysis and Numerical Validation
Abstract
The existence of three disjoint portions makes neutrosophic set theory a significant topic today, clarifying muddled information and providing academics with a wide range of applications in several fields. In broad terms, neutrosophic sets are an expanded form of crisp sets, fuzzy sets, and intuitionistic fuzzy sets that focus on the reluctant, vague, and unclear aspects of real-world mathematical problems. This study paper centers explicitly on the illustration of heptagonal and nonagonal neutrosophic numbers and their categorization in various aspects. An implementation of the linear heptagonal and nonagonal neutrosophic numbers de-neutrosophication approach, utilizing the removal area method, has been devised here, and it significantly impacts the crispness of the heptagonal and nonagonal numbers.
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References
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