Cloud Computing Architectures for Scalable and Secure Information System Management
Abstract
The proliferation of cloud-native environments has fundamentally transformed the operational landscape of modern information systems, shifting the focus from localized hardware management to the orchestration of highly distributed, virtualized infrastructures. This paper presents a comprehensive interdisciplinary analysis of cloud computing architectures, specifically focusing on the dual requirements of massive scalability and robust security within socio-technical frameworks. As organizations transition away from monolithic legacy systems, the move toward microservices, containerization, and serverless paradigms introduces significant structural trade-offs involving latency, data consistency, and systemic complexity. We examine these trade-offs by synthesizing perspectives from systems engineering, organizational theory, and public policy. The research explores the integration of Zero-Trust Architecture (ZTA) within elastic scaling frameworks, identifying the inherent tensions between rapid resource provisioning and the maintenance of a rigorous security posture. Furthermore, the discussion extends to the sustainability of cloud operations, the ethical implications of automated resource allocation, and the geopolitical challenges of data sovereignty in a globalized computing environment. By analyzing deployment strategies and infrastructure governance, this paper provides a robust framework for managing large-scale information systems that are resilient to both technical failures and adversarial threats. The findings emphasize that future cloud management must move toward proactive, identity-centric governance models that harmonize technological agility with societal and environmental responsibility.
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