Published 01-06-2021
Keywords
- Kubernetes,
- ML workflows,
- scalability
This work is licensed under a Creative Commons Attribution-NonCommercial-ShareAlike 4.0 International License.
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Abstract
Kubernetes has become a cornerstone of modern cloud infrastructure, revolutionizing how applications are deployed, scaled, and managed. However, machine learning workflows present unique challenges, including the orchestration of complex data pipelines, model training, hyperparameter tuning, and deployment at scale. Kubernetes Operators provide an elegant solution to these challenges by extending Kubernetes' functionality to handle application-specific tasks, enabling seamless management of AI/ML workflows. Operators act as custom controllers, allowing Kubernetes to automate repetitive and intricate operations, such as provisioning computing resources, monitoring workloads, managing dependencies, and scaling infrastructure dynamically. This automation reduces operational complexity & frees ML teams to focus on innovation and experimentation rather than infrastructure maintenance. By bridging the gap between infrastructure requirements and application-level needs, operators enhance efficiency, consistency, and reliability in ML projects, enabling organizations to deploy and scale models faster while ensuring high availability and performance. Additionally, Operators enforce best practices and ensure reproducibility across diverse environments, which is critical in ML development's iterative and collaborative nature. Real-world applications of Kubernetes Operators include: Streamlining model training workflows, Automating hyperparameter optimization, Managing feature stores & Deploying models in production pipelines with ease. These capabilities accelerate the time-to-value for ML initiatives and allow teams to scale their operations effectively, even in dynamic and resource-intensive scenarios. Implementing Kubernetes Operators also facilitates better resource utilization, as they adapt to changing workloads by automatically scaling resources up or down based on demand.
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References
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