A Multiple Criteria Decision Analysis based Approach to Remove Uncertainty in SMP Models
Gokul Yenduri, Thippa Reddy Gadekallu

TL;DR
This paper introduces a structured approach using TOPSIS, a multiple criteria decision-making method, to improve the accuracy of software maintainability prediction in heterogeneous automated systems, reducing uncertainty in model selection.
Contribution
It applies TOPSIS to select the best maintainability prediction model, demonstrating its effectiveness over other techniques in heterogeneous software environments.
Findings
GARF outperforms other models in maintainability prediction
TOPSIS effectively reduces uncertainty in model selection
Preprocessing and dataset analysis improve prediction accuracy
Abstract
Advanced AI technologies are serving humankind in a number of ways, from healthcare to manufacturing. Advanced automated machines are quite expensive, but the end output is supposed to be of the highest possible quality. Depending on the agility of requirements, these automation technologies can change dramatically. The likelihood of making changes to automation software is extremely high, so it must be updated regularly. If maintainability is not taken into account, it will have an impact on the entire system and increase maintenance costs. Many companies use different programming paradigms in developing advanced automated machines based on client requirements. Therefore, it is essential to estimate the maintainability of heterogeneous software. As a result of the lack of widespread consensus on software maintainability prediction (SPM) methodologies, individuals and businesses are…
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Taxonomy
TopicsSoftware Reliability and Analysis Research · Software Engineering Research · Software System Performance and Reliability
