MLOps

Table of Contents Introduction Why Scaling LLM Inference Is Hard Overview of Ray and Its Role in Distributed Inference Kubernetes as the Orchestration Backbone Architectural Blueprint: Ray on Kubernetes Step‑by‑Step Implementation 6.1 Preparing the Model Container 6.2 Deploying a Ray Cluster on K8s 6.3 Writing the Inference Service 6.4 Autoscaling with Ray Autoscaler & K8s HPA 6.5 Observability & Monitoring Real‑World Production Considerations 7.1 GPU Allocation Strategies 7.2 Model Versioning & Rolling Updates 7.3 Security & Multi‑Tenant Isolation Performance Benchmarks & Cost Analysis Conclusion Resources Introduction Large language models (LLMs) such as GPT‑3, Llama 2, and Claude have moved from research curiosities to production‑critical components that power chatbots, code assistants, summarizers, and many other AI‑driven services. While training these models demands massive clusters and weeks of compute, serving them in real time presents a different set of engineering challenges: ...

Introduction Training modern deep‑learning models often requires hundreds of gigabytes of data and billions of parameters. A single GPU can no longer finish the job in a reasonable time, so practitioners turn to distributed training. While data‑parallel synchronous training has become the de‑facto standard, asynchronous stochastic gradient descent (ASGD) offers compelling advantages in elasticity, fault tolerance, and hardware utilization—especially in heterogeneous or spot‑instance environments. At the same time, Kubernetes has emerged as the leading platform for orchestrating containerized workloads at scale. Its declarative API, built‑in service discovery, and robust auto‑scaling capabilities make it an ideal substrate for running large‑scale ML clusters. ...

Large Language Models (LLMs) are moving from research labs into production systems at an incredible pace. As soon as organizations move beyond simple API calls to third‑party providers, a question appears: “How do we run LLMs ourselves, reliably, and at scale?” For many teams, the answer is: Kubernetes. This article dives into Kubernetes for LLMs—when it makes sense, how to design the architecture, common pitfalls, and concrete configuration examples. The focus is on inference (serving), with notes on fine‑tuning and training where relevant. ...

Large Language Models (LLMs) power everything from chatbots to code generators, but deploying them at scale requires more than just training—enter LLMOps. This zero-to-hero tutorial equips developers and AI engineers with the essentials to manage LLM lifecycles, from selection to monitoring, ensuring reliable, cost-effective production systems.[1][2] As an expert AI engineer and LLM infrastructure specialist, I’ll break down LLMOps step-by-step: what it is, why it matters, best practices across key areas, practical tools, pitfalls, and examples. By the end, you’ll have a blueprint for production-ready LLM pipelines. ...

Introduction vLLM has quickly become one of the most popular inference engines for serving large language models efficiently, thanks to its paged attention and strong OpenAI-compatible API. But as soon as you move beyond a single GPU or a single model server, you run into familiar infrastructure questions: How do I distribute traffic across multiple vLLM servers? How do I handle failures and keep latency predictable? How do I roll out new model versions without breaking clients? This is where the vLLM Router comes in. ...