Modernizing Legacy Financial Systems with Kubernetes
DOI:
https://doi.org/10.53555/ephijse.v5i3.303Keywords:
Kubernetes, legacy financial systems, modernizationAbstract
The financial sector has long grappled with legacy systems that hinder agility and innovation, posing significant compliance challenges and limiting the ability to scale operations effectively. This paper explores the compelling business case for modernizing these outdated financial systems using Kubernetes, a powerful orchestration platform for containerized applications. We delve into the substantial return on investment that organizations can achieve by transitioning to cloud-native architectures, emphasizing how Kubernetes facilitates the development and deployment of scalable applications that adapt to changing market demands. Real-world examples from the Fintech industry illustrate how companies have successfully navigated this transformation, highlighting the benefits of increased operational efficiency, enhanced security, and improved compliance with regulatory requirements. By transitioning from traditional software to a modern containerized environment, financial institutions can streamline their operations and unlock new opportunities for innovation and growth. This journey towards modernization is essential for remaining competitive in an increasingly digital landscape, where customer expectations continue to evolve. The insights presented in this paper underscore why embracing Kubernetes is not merely a technical upgrade but a strategic imperative for financial organizations aiming to thrive in the future. Through a detailed examination of the challenges and opportunities associated with this transition, we provide a roadmap for organizations seeking to modernize their financial systems, ultimately demonstrating that moving to containerization and cloud-native applications is beneficial and essential in today’s rapidly changing financial ecosystem.
References
Kleindienst, P. (2017). Implementation and evaluation of a hybrid microservice infrastructure (Master's thesis).
Nosyk, Y. (2018). Migration of a legacy web application to the cloud.
Vohra, D. (2017). Kubernetes Management Design Patterns: With Docker, CoreOS Linux, and Other Platforms. Apress.
Baier, J. (2017). Getting started with kubernetes. Packt Publishing Ltd.
Mazzara, M., Dragoni, N., Bucchiarone, A., Giaretta, A., Larsen, S. T., & Dustdar, S. (2018). Microservices: Migration of a mission critical system. IEEE Transactions on Services Computing, 14(5), 1464-1477.
Javed, A. (2016). Container-based IoT sensor node on raspberry Pi and the Kubernetes cluster framework (Master's thesis).
Antonov, N. (2016). OpenStack in Enterprise.
Pan, B. (2009). Flexible and Low-Latency Optical Metro Access Networks for. Communication Review, 39(5), 22-31.
Countouris, N., & Freedland, M. R. (Eds.). (2013). Resocialising Europe in a time of crisis. Cambridge University Press.
Shanken, E. A. (2003). From cybernetics to telematics. Telematic Embrace: Visionary Theories of Art, Technology, and Consciousness by Roy Ascott, Berkeley. University of California Press, Los Angeles.
Lardas, J. (2006). Deus in Machina Movet: Religion in the Age of Technological Reproducibility. Method & theory in the study of religion, 18(1), 1-36.
Saunders, R. A. (2011). Ethnopolitics in cyberspace: The internet, minority nationalism, and the web of identity. Lexington Books.
Mignolo, W. D. (2013). Delinking: The rhetoric of modernity, the logic of coloniality and the grammar of de-coloniality1. In Globalization and the decolonial option (pp. 303-368). Routledge.
Hemmings, R. (2014). Proto-Cyborgs in Wartime: The Tank, the Drill, and the Motor- Chair. Space Between: Literature & Culture, 1914-1945, 10.
Guertin, N. H., Schmidt, D. C., & Scherlis,
W. (2018). Capability Composition and Data Interoperability to Achieve More Effective Results Than DoD System-of-Systems Strategies.