Using the MPFRL-WASPAS Model for the Selection of AI-Based Early Warning Systems Based on Natural Disaster Management and Frank Aggregation Operators
Keywords:
Artificial intelligence, Decision-making models, Early warning systems, Frank aggregation operators, Natural disaster managementAbstract
The selection or assessment of the artificial intelligence-based early warning systems for natural disaster management is very valuable and critical because the selection of the right system directly affects how effectively, quickly, and accurately disasters can be communicated and detected to at-risk communities. The main theme of this manuscript is to develop the novel system of multi-polar fuzzy rough linguistic sets and also describe their valuable operational laws. Further, this study also concentrates on the valuation of the multi-polar fuzzy rough linguistic weighted aggregated sum product assessment models based on Frank norms. Therefore, the averaging operator and geometric operator based on Frank operational laws are also developed for the construction of the above models. Moreover, this study also illustrates some numerical examples for the evaluation of the best and worst decisions among the collection of the considered data. Ultimately, choosing an appropriate artificial intelligence-based early warning system helps reduce loss of life, enhance overall disaster preparedness and resilience, and minimize economic damage. Finally, we compare the ranking values of the proposed information with the ranking values of the existing systems to describe the validity of the invented approaches.
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