Published 18-10-2022
Keywords
- Kubernetes,
- AI workloads
This work is licensed under a Creative Commons Attribution-NonCommercial-ShareAlike 4.0 International License.
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Abstract
The growing demand for real-time analytics and AI-driven decision-making pushes businesses to move computational workloads closer to where data is generated—often in remote or distributed locations. This shift addresses critical needs such as reducing latency, enabling faster insights, and optimizing operational efficiency. Kubernetes, the leading container orchestration platform, plays a pivotal role in this transition by extending cloud-native principles to the edge. Its inherent capabilities for scalability, reliability, workload portability, and efficient resource utilization make it an ideal framework for deploying AI & big data workloads in these environments. However, edge computing presents unique challenges, including limited resources, intermittent connectivity, and higher risks associated with remote operations. Kubernetes rises to these challenges by enabling dynamic workload scheduling, automated scaling, and seamless orchestration across geographically dispersed clusters. Its lightweight distributions and edge-focused adaptations allow it to run effectively on resource-constrained devices while maintaining a consistent developer experience. Furthermore, Kubernetes facilitates data processing and AI inference at the edge, enabling organizations to derive actionable insights in near real-time. Deploying Kubernetes at the edge also requires careful consideration of network bandwidth, security, and infrastructure management to overcome latency, hardware variability, and operational constraints. Best practices include Adopting edge-optimized Kubernetes distributions, Leveraging tools for monitoring and resource efficiency & Implementing strategies to maintain high availability despite unreliable connectivity.
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