Vol. 4 No. 2 (2024): Journal of AI-Assisted Scientific Discovery
Articles

Kubernetes 1.30: Enabling Large-Scale AI and Machine Learning Pipelines

Naresh Dulam
Vice President Sr Lead Software Engineer, JP Morgan Chase, USA
Madhu Ankam
Vice President Sr Lead Software Engineer, JP Morgan Chase, USA
Cover

Published 01-09-2024

Keywords

  • Kubernetes 1.30,
  • AI pipelines

How to Cite

[1]
Naresh Dulam and Madhu Ankam, “Kubernetes 1.30: Enabling Large-Scale AI and Machine Learning Pipelines ”, Journal of AI-Assisted Scientific Discovery, vol. 4, no. 2, pp. 185–208, Sep. 2024, Accessed: Dec. 24, 2024. [Online]. Available: https://scienceacadpress.com/index.php/jaasd/article/view/234

Abstract

Kubernetes has revolutionized the management of cloud-native applications, offering a robust platform for orchestrating containers at scale. With its continuous evolution, Kubernetes now plays a pivotal role in supporting large-scale AI and machine learning (ML) workflows. It addresses the growing need for scalable, flexible, and efficient infrastructure for complex AI/ML models and pipelines. Introducing new features like enhanced GPU support, fine-grained scheduling, & better handling of stateful workloads enables Kubernetes to optimize resource utilization for AI and ML tasks. These advancements help organizations train and deploy AI models more quickly, ensuring that development & production environments are well-equipped to handle modern machine learning applications' massive compute and storage demands. Kubernetes' native support for machine learning frameworks and tools, such as TensorFlow, PyTorch, and Kubeflow, facilitates seamless integration of AI/ML workflows with the containerized ecosystem, reducing the complexity of deploying and managing large-scale ML pipelines. Furthermore, Kubernetes enhances fault tolerance and ensures high availability, which is critical for AI/ML workflows requiring continuous data processing and model retraining. The platform's ability to automatically scale workloads based on demand & distribute computing resources efficiently means that organizations can reduce costs while maintaining high performance. This scalability enables real-time inferencing, allowing businesses to deploy AI models into production environments with minimal latency. This is crucial for applications such as autonomous vehicles, financial forecasting, or recommendation systems. Kubernetes' support for automated data preprocessing, model training, & distributed system orchestration ensures that machine learning models are consistently updated and new data can be incorporated seamlessly into the pipeline. As a result, data scientists and machine learning engineers can focus more on model development and experimentation while Kubernetes handles the underlying infrastructure complexities. The growing ecosystem of Kubernetes-native tools and the increasing adoption of managed Kubernetes services further simplify the deployment of AI/ML solutions by abstracting infrastructure management, enabling organizations to scale and innovate without getting bogged down in operational challenges.

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References

  1. Choudhury, A. (2021). Continuous Machine Learning with Kubeflow: Performing Reliable MLOps with Capabilities of TFX, Sagemaker and Kubernetes (English Edition). BPB Publications.
  2. Raith, P. A. (2021). Container scheduling on heterogeneous clusters using machine learning-based workload characterization (Doctoral dissertation, Wien).
  3. Elger, P., & Shanaghy, E. (2020). AI as a Service: Serverless machine learning with AWS. Manning Publications.
  4. Zhao, H., Han, Z., Yang, Z., Zhang, Q., Li, M., Yang, F., ... & Zhou, L. (2023, May). Silod: A co-design of caching and scheduling for deep learning clusters. In Proceedings of the Eighteenth European Conference on Computer Systems (pp. 883-898).
  5. Meng, F., Jagadeesan, L., & Thottan, M. (2021). Model-based reinforcement learning for service mesh fault resiliency in a web application-level. arXiv preprint arXiv:2110.13621.
  6. Yao, J. W. (2023). A 5G Security Recommendation System Based on Multi-Modal Learning and Large Language Models (Doctoral dissertation, Concordia University).
  7. Rzig, D. E., Hassan, F., & Kessentini, M. (2022). An empirical study on ML DevOps adoption trends, efforts, and benefits analysis. Information and Software Technology, 152, 107037.
  8. Cleveland, S. B., Jamthe, A., Padhy, S., Stubbs, J., Terry, S., Looney, J., ... & Jacobs, G. A. (2021). Tapis v3 Streams API: Time‐series and data‐driven event support in science gateway infrastructure. Concurrency and Computation: Practice and Experience, 33(19), e6103.
  9. Elhemali, M., Gallagher, N., Tang, B., Gordon, N., Huang, H., Chen, H., ... & Vig, A. (2022). Amazon {DynamoDB}: A scalable, predictably performant, and fully managed {NoSQL} database service. In 2022 USENIX Annual Technical Conference (USENIX ATC 22) (pp. 1037-1048).
  10. Hu, Y. (2019). Resource scheduling for quality-critical applications on cloud infrastructure. Universiteit van Amsterdam.
  11. Basikolo, E., & Basikolo, T. (2023). Towards zero downtime: Using machine learning to predict network failure in 5G and beyond. Int. Telecommun. Union.
  12. Meldrum, M. (2019). Hardware Utilisation Techniques for Data Stream Processing.
  13. Nedozhogin, N., Kopysov, S., & Novikov, A. (2020). Resource-Efficient+ Parallel+ CG+ Algorithms+ for+ Linear+ Systems+ Solving+ on+ Heterogeneous+ Platforms.
  14. Francesco, P. A. C. E. (2018). Mechanisms for Efficient and Responsive Distributed Applications in Compute Clusters (Doctoral dissertation, TELECOM ParisTech).
  15. Silverman, B., & Solberg, M. (2018). OpenStack for architects: design production-ready private cloud infrastructure. Packt Publishing Ltd.
  16. Thumburu, S. K. R. (2023). Data Quality Challenges and Solutions in EDI Migrations. Journal of Innovative Technologies, 6(1).
  17. Thumburu, S. K. R. (2023). The Future of EDI in Supply Chain: Trends and Predictions. Journal of Innovative Technologies, 6(1).
  18. Gade, K. R. (2024). Cost Optimization in the Cloud: A Practical Guide to ELT Integration and Data Migration Strategies. Journal of Computational Innovation, 4(1).
  19. Gade, K. R. (2023). The Role of Data Modeling in Enhancing Data Quality and Security in Fintech Companies. Journal of Computing and Information Technology, 3(1).
  20. Katari, A., & Rodwal, A. NEXT-GENERATION ETL IN FINTECH: LEVERAGING AI AND ML FOR INTELLIGENT DATA TRANSFORMATION.
  21. Katari, A., & Vangala, R. Data Privacy and Compliance in Cloud Data Management for Fintech.
  22. Komandla, V. Crafting a Clear Path: Utilizing Tools and Software for Effective Roadmap Visualization.
  23. Komandla, V. Enhancing Security and Growth: Evaluating Password Vault Solutions for Fintech Companies.
  24. Thumburu, S. K. R. (2022). A Framework for Seamless EDI Migrations to the Cloud: Best Practices and Challenges. Innovative Engineering Sciences Journal, 2(1).
  25. Thumburu, S. K. R. (2022). Real-Time Data Transformation in EDI Architectures. Innovative Engineering Sciences Journal, 2(1).
  26. Gade, K. R. (2022). Migrations: AWS Cloud Optimization Strategies to Reduce Costs and Improve Performance. MZ Computing Journal, 3(1).