2026· International Journal of Artificial Intelligence, Data Science, and Machine Learning· Vol 7, pp. 220-226· 0 citations
TL;DR
Findings indicate that AI-driven testing significantly improves test coverage and execution efficiency, while predictive defect analytics reduces maintenance costs and accelerates fault detection and reliability optimization algorithms enhance system availability and service resilience.
Abstract
The rapid adoption of cloud-native architectures has fundamentally transformed software engineering practices by introducing highly distributed, scalable, and dynamically evolving application environments. While cloud-native applications offer flexibility, elasticity, and resilience, they also introduce significant challenges related to software quality assurance, defect management, testing complexity, and system reliability. Traditional software quality engineering approaches often struggle to cope with the velocity and complexity of modern DevOps and continuous deployment ecosystems. In this context, Artificial Intelligence (AI) has emerged as a transformative technology capable of augmenting software quality engineering processes through automated testing, intelligent defect prediction, and reliability optimization mechanisms. This research investigates the integration of AI-driven methodologies within software quality engineering frameworks for cloud-native applications. The study examines machine learning-based automated testing strategies, predictive analytics models for software defect identification, and AI-enabled reliability enhancement techniques designed for distributed cloud environments. A conceptual framework is proposed that integrates automated testing, defect prediction, and reliability optimization into a unified quality engineering lifecycle. The research methodology employs a comprehensive literature analysis and comparative evaluation of contemporary AI-assisted software quality techniques. The findings indicate that AI-driven testing significantly improves test coverage and execution efficiency, while predictive defect analytics reduces maintenance costs and accelerates fault detection. Furthermore, reliability optimization algorithms enhance system availability and service resilience by proactively identifying performance anomalies and infrastructure failures. The study contributes a holistic perspective on AI-augmented software quality engineering and highlights emerging opportunities for intelligent quality assurance in cloud-native software ecosystems.
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