Volume 19 , Issue 3 , PP: 63-84, 2022 | Cite this article as | XML | Html | PDF | Full Length Article
M. Palanikumar 1 * , Said Broumi 2
Doi: https://doi.org/10.54216/IJNS.190307
We discuss innovative square root Diophantine neutrosophic normal interval-valued set (SRDioNSNIVS)-
based approaches to multiple attribute decision-making (MADM) problems. Square root neutrosophic sets,
interval-valued Diophantine neutrosophic sets and neutrosophic normal interval-valued (NSNIV) sets are both
extensions of square root Diophantine neutrosophic sets. In this section, we will look over several aggregating
operations and how those interpretations have evolved over time. The article is focused on a novel idea known
as square root NSNIV weighted averaging (SRDioNSNIVWA), square root NSNIV weighted geometric (SRDioNSNIVWG),
generalized square root NSNIV weighted averaging (GSRDioNSNIVWA), and generalized
square root NSNIV weighted geometric (GSRDioNSNIVWG). In order to solve MADM problems, we also
begin an algorithm based on the aforementioned operators. The use of the euclidean and hamming distances
is described, and examples from real-world situations are given. The main characteristics of these sets under
various algebraic operations will be discussed in this communication. They are more practical and straightforward,
and the ideal choice may be determined quickly. As a result, the defined models are more accurate
and closely tied to Φ. In order to show the reliability and usefulness of the models under examination, we also
compare a few of the proposed and current models. The study’s results are also fascinating and intriguing.
SRDioNSNIVWA , SRDioNSNIVWG , GSRDioNSNIVWA , GSRDioNSNIVWG
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