Research Article

Cloud-Native Platform Engineering: Scalable Design Patterns for Global Enterprise Resilience

Authors

  • Manisha Ponugoti Wright State University, USA

Abstract

This article explores cloud-native architecture design patterns essential for global enterprise resilience. Modern digital platforms require continuous availability despite infrastructure failures, traffic surges, and other disruptions. The article examines how microservice decomposition with domain-driven design enables independent deployment and fault isolation, while Kubernetes orchestration provides self-healing capabilities and auto-scaling. Infrastructure automation through declarative specifications and GitOps workflows ensures consistency and auditability. Resilience patterns, including circuit breakers, bulkheads, retry mechanisms, and rate limiting, contain failures and prevent cascading outages. Comprehensive observability through structured logging, distributed tracing, and metrics collection enables both proactive operations and effective incident management. Service Level Objectives align technical implementations with business requirements, creating a framework for balancing reliability and innovation. Case studies across sectors demonstrate how these architectural approaches significantly improve system resilience while enhancing organizational agility. The principles described represent a paradigm shift from treating resilience as an operational afterthought to a foundational design mandate essential for contemporary enterprise platforms.

Article information

Journal

Journal of Computer Science and Technology Studies

Volume (Issue)

7 (8)

Pages

48-59

Published

2025-07-26

How to Cite

Manisha Ponugoti. (2025). Cloud-Native Platform Engineering: Scalable Design Patterns for Global Enterprise Resilience. Journal of Computer Science and Technology Studies, 7(8), 48-59. https://doi.org/10.32996/jcsts.2025.7.8.7

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Keywords:

Cloud-native architecture, microservice resilience, distributed systems, failure mitigation, observability