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A smarter way to learn with interactive, real-time conversations that help you test your knowledge, challenge assumptions, and deepen your understanding as you progress through the course.

Master the entire lifecycle of building and deploying machine learning systems in production with this hands-on DevOps to MLOps Bootcamp. You'll learn how MLOps optimizes model development, deployment, and monitoring, gaining skills in tools like Docker, Kubernetes, MLflow, FastAPI, Streamlit, Prometheus, and GitHub Actions. This course bridges the gap between data science and scalable ML infrastructure.

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A smarter way to learn with interactive, real-time conversations that help you test your knowledge, challenge assumptions, and deepen your understanding as you progress through the course.

Master the entire lifecycle of building and deploying machine learning systems in production with this hands-on DevOps to MLOps Bootcamp. You'll learn how MLOps optimizes model development, deployment, and monitoring, gaining skills in tools like Docker, Kubernetes, MLflow, FastAPI, Streamlit, Prometheus, and GitHub Actions. This course bridges the gap between data science and scalable ML infrastructure.

You'll explore MLOps concepts, trace its evolution through LLMOps and AgenticAIOps, and study real-world case studies. Apply these principles through a regression-based house price prediction project. The course covers CI pipelines with GitHub Actions and advanced production systems with Kubernetes, KEDA, and ArgoCD. The final sections focus on monitoring, autoscaling, and implementing GitOps pipelines for ML/LLM app deployment.

Ideal for data scientists, ML engineers, DevOps pros, and developers, the course requires basic Python, ML knowledge, and container familiarity. By the end, you'll deploy models with containerized APIs and manage scalable systems.

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What's inside

Syllabus

Introduction to MLOps
In this module, you will be introduced to MLOps, its core principles, and its importance in modern machine learning workflows. The evolution from traditional MLOps to emerging paradigms like LLMOps and AgenticAIOps will be covered. You'll also compare DevOps and MLOps, examining their similarities and differences, and explore the growing role of the MLOps Engineer.
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Career center

Learners who complete DevOps to MLOps Bootcamp– Build & Deploy ML Systems will develop knowledge and skills that may be useful to these careers:
MLOps Engineer
An MLOps Engineer bridges machine learning model development and robust production deployment. This bootcamp provides comprehensive, hands-on experience across the entire ML system lifecycle, making it ideal for this specialized role. Learners master optimizing model deployment and monitoring. The course covers setting up MLOps CI workflows with GitHub Actions and building scalable production inference infrastructure using Kubernetes. You will also implement monitoring and autoscaling with Prometheus and GitOps-based deployments for ML/LLM applications via ArgoCD. This curriculum ensures you can manage complex, resilient ML systems efficiently, making it indispensable for any MLOps Engineer.
Machine Learning Engineer
A Machine Learning Engineer is responsible for building, deploying, and maintaining machine learning systems. This course equips you with the crucial production-readiness skills that go beyond model development. It directly aids in transitioning models from experimentation to scalable production environments. You will learn to package models with FastAPI and Streamlit, containerize applications with Docker, and build scalable inference infrastructure using Kubernetes. The course's focus on CI pipelines with GitHub Actions and monitoring with Prometheus helps bridge the gap between data science and robust ML infrastructure, making you a more versatile and deployable Machine Learning Engineer.
AI Platform Engineer
An AI Platform Engineer designs, builds, and maintains the underlying infrastructure and tools enabling AI/ML development and deployment at scale. This course directly addresses core competencies for this role. It covers building scalable production inference infrastructure with Kubernetes, configuring pods and services, and generating Kubernetes YAML manifests. Learners will implement system monitoring with Prometheus and Grafana, understand autoscaling with KEDA, and apply GitOps principles through ArgoCD for continuous delivery of ML/LLM applications. This comprehensive approach to building and managing robust ML infrastructure makes the course highly relevant for aspiring AI Platform Engineers.
Site Reliability Engineer Machine Learning
A Site Reliability Engineer Machine Learning ensures the stability, performance, and uptime of critical ML applications in production. This course provides essential skills for maintaining highly reliable machine learning systems. It focuses heavily on monitoring with Prometheus and Grafana, enabling you to visualize performance metrics. You will learn to automate scaling using KEDA, conduct load testing to evaluate system capacity, and understand robust deployment strategies with Kubernetes and GitOps via ArgoCD. This comprehensive coverage of resilience, performance, and operational excellence directly prepares you for the demanding responsibilities of a Site Reliability Engineer Machine Learning, crucial for production success.
Cloud Infrastructure Engineer
A Cloud Infrastructure Engineer designs and manages the cloud environments that host applications and services. This course strongly enhances skills for those specializing in machine learning infrastructure on the cloud. It covers containerization with Docker and Docker Compose, orchestration with Kubernetes for deploying scalable ML models, and implementing monitoring with Prometheus. The focus on GitOps principles and tools like ArgoCD for continuous delivery of ML/LLM applications provides expertise in automated, declarative infrastructure management. This knowledge is vital for building and maintaining robust, production-grade cloud infrastructure tailored for machine learning workloads.
DevOps Engineer
A DevOps Engineer focuses on automating and streamlining the software development lifecycle, emphasizing continuous integration and delivery. This course enhances traditional DevOps skills by applying them specifically to the unique challenges of machine learning systems. You will gain expertise in tools like Docker and Kubernetes for containerization and orchestration. The course deeply covers MLOps CI workflows with GitHub Actions and GitOps-based deployments for ML/LLM apps using ArgoCD. This specialized knowledge allows a DevOps Engineer to extend their capabilities to include scalable ML infrastructure, ensuring efficient and reliable deployment for AI-driven applications.
Release Engineer
A Release Engineer focuses on automating and streamlining the build, test, and deployment phases of software releases. This course directly enhances skills for managing the release of machine learning applications. It deeply covers MLOps CI workflows with GitHub Actions for automated training and testing. Learners will gain expertise in building scalable production inference infrastructure with Kubernetes and implementing GitOps-based deployments for ML/LLM applications using ArgoCD. This comprehensive understanding of continuous delivery pipelines ensures seamless, automated, and reliable deployment processes for complex ML systems, making you an invaluable asset in any ML-driven release team.
Solutions Architect
A Solutions Architect designs large-scale technical solutions for complex business problems. This course is highly relevant for architects specializing in machine learning, providing concrete skills in designing scalable and reliable ML systems. It covers model packaging and containerization, continuous integration pipelines with GitHub Actions, and robust production infrastructure using Kubernetes. Additionally, understanding monitoring, autoscaling, and GitOps-based deployments for ML/LLM applications enables you to architect comprehensive, end-to-end MLOps solutions. An advanced degree is often helpful for this role, complementing the practical skills gained here.
Machine Learning Operations Manager
A Machine Learning Operations Manager oversees the strategic planning, deployment, and lifecycle management of ML models within an organization. While a management role, this course provides the essential technical depth needed to lead MLOps teams effectively. It covers the entire lifecycle from model development ("From Raw Data to Models") to monitoring and autoscaling in production ("Monitoring and Autoscaling an ML Model"). Understanding CI/CD with GitHub Actions and GitOps with ArgoCD equips managers to make informed decisions and guide implementation challenges. An advanced degree is often helpful for this role, complementing this practical foundation.
Data Scientist
A Data Scientist develops and refines machine learning models, often focusing on analytical insights and predictive power. This course helps data scientists bridge the critical gap to production, ensuring their models are not just effective but also deployable and scalable. While "From Raw Data to Models" covers model experimentation, the course extends to packaging models with FastAPI wrappers and Streamlit user interfaces, then containerizing them with Docker. Understanding MLOps CI workflows with GitHub Actions and scalable deployment with Kubernetes empowers a Data Scientist to significantly contribute to the entire ML lifecycle, from concept to robust production.
Data Engineer
A Data Engineer is responsible for building and maintaining robust data pipelines that collect, process, and transform data. This course may be helpful by providing a deeper understanding of how machine learning models consume and process data within production environments. The "From Raw Data to Models" module covers essential data engineering and feature engineering techniques. Furthermore, understanding the subsequent steps of packaging, containerizing with Docker, and deploying ML models with Kubernetes and GitOps provides crucial context for delivering clean, production-ready data to scalable ML systems, enhancing a Data Engineer's ability to support ML initiatives.
Technical Consultant
A Technical Consultant advises organizations on technology strategy and implementation, guiding them through complex transformations. This course may be helpful by providing a comprehensive understanding of MLOps, LLMOps, and AgenticAIOps, along with practical skills in tools like Docker, Kubernetes, MLflow, and GitHub Actions. This knowledge enables consultants to competently guide clients in building, deploying, and managing scalable machine learning systems. The ability to analyze real-world case studies and apply MLOps principles directly impacts a consultant's effectiveness in advising on modern AI/ML initiatives.
Backend Developer
A Backend Developer creates the server-side logic and APIs that power applications. This course may be useful by providing specialized skills for integrating and deploying machine learning models into backend services. Learners will gain practical experience in packaging models with FastAPI wrappers and creating user interfaces with Streamlit, then containerizing these applications with Docker. This knowledge enables you to develop efficient, scalable backend services that seamlessly incorporate advanced machine learning capabilities, bridging traditional backend development with modern AI integration. The ability to deploy models with containerized APIs is a particularly strong asset.
Computer Vision Engineer
A Computer Vision Engineer develops and deploys models for analyzing and interpreting visual data. This course may be useful by equipping these engineers with essential skills for bringing their computer vision models from development to production. The course's focus on containerizing applications with Docker, building scalable inference infrastructure with Kubernetes, and implementing continuous deployment workflows applies directly to robustly deploying complex vision systems. Understanding monitoring and autoscaling, especially for resource-intensive computer vision models, makes this bootcamp highly relevant for ensuring the reliability and performance of cutting-edge visual AI solutions.
Artificial Intelligence Researcher
An Artificial Intelligence Researcher focuses on developing novel algorithms and models, pushing the boundaries of AI capabilities. This course may be useful by providing researchers with critical insights into the practical aspects of deploying their cutting-edge models into production. Understanding MLOps principles, packaging models with FastAPI, and setting up CI workflows can significantly bridge the gap between research prototypes and real-world applications. It helps researchers design models with deployability in mind, recognizing the challenges of scalable and maintainable AI systems. An advanced degree is typically required for this role.

Reading list

We've selected 50 books that we think will supplement your learning. Use these to develop background knowledge, enrich your coursework, and gain a deeper understanding of the topics covered in DevOps to MLOps Bootcamp– Build & Deploy ML Systems.
The premier applied machine learning masterwork, taking practitioners through intuitive concept breakdowns, production-grade Scikit-Learn workflows, and deep neural architecture implementations.
Authored by Kubernetes co-founders, this canonical text delivers the definitive mental model for container orchestration, pod scheduling, services, and declarative deployment lifecycles.
Is considered a foundational text in Site Reliability Engineering (SRE), a discipline heavily intertwined with modern monitoring practices. It provides a comprehensive overview of how Google approaches reliability, including their philosophies on monitoring, alerting, and incident response. It is highly valuable for establishing a strong understanding of the principles behind effective monitoring in large-scale systems and is commonly used as a reference by industry professionals.
A timeless mathematical masterpiece that provides an uncompromising Bayesian and probabilistic foundation for linear classifiers, graphical models, kernel methods, and sampling algorithms.
Focuses on the modern concept of observability in software engineering, which goes beyond traditional monitoring. It provides a practical guide to building and managing highly observable systems, covering logging, metrics, and tracing. This key book for understanding contemporary topics in monitoring and is highly relevant for those working with complex distributed systems.
Demystifies container execution mechanics from packaging through distribution, providing concrete recipes for bind mounts, network bridging, and runtime isolation barriers.
Presents the results of a four-year study of high-performing technology organizations. It identifies the key factors that drive success, and it provides a roadmap for organizations that want to improve their performance.
The definitive mathematical and theoretical canon of statistical learning, establishing the rigorous analytical foundations of regularized regression, tree ensembles, and high-dimensional inference.
As a companion to 'Site Reliability Engineering,' this workbook offers practical examples and case studies from Google and other companies on implementing SRE principles. It provides hands-on guidance for applying the concepts discussed in the first book, including practical approaches to monitoring and incident management. is excellent for deepening the understanding gained from the foundational SRE text and useful reference for implementing SRE practices.
Authored by Microsoft MVPs and reviewed by a GitHub Staff DevOps Architect, this book offers a practical approach to building CI/CD pipelines with GitHub Actions. It covers essential topics like workflows, actions, security, and performance optimization. is valuable for both learning and as a reference tool for implementing real-world CI/CD practices.
Provides a comprehensive overview of the entire machine learning lifecycle, with a strong emphasis on the engineering aspects required for production. It covers best practices and design patterns for building reliable, scalable, and maintainable ML systems. This book is highly valuable as a core reference for anyone serious about putting ML into production.
Delivers an exceptionally accessible yet technically deep walkthrough of container runtimes, diving into containerd, rootless execution, image architecture, and Swarm clusters.
Systematizes reusable cloud-native design patterns, analyzing sidecar injection, adapter containers, leader election, and distributed configuration across production clusters.
Addresses high-stakes enterprise operational challenges, detailing multi-cluster networking, ingress controller architecture, cluster autoscaling, and disaster recovery strategies.
Gathers 100+ proven patterns and diagnostic workflows, tackling real-world problems around automated container builds, minimal base images, build caching, and volume persistence.
Focuses on Service Level Objectives (SLOs), a key concept in SRE and a crucial aspect of effective monitoring. It provides guidance on defining and implementing SLOs to improve system reliability. This book is essential for anyone serious about using monitoring to drive reliability improvements.
Delivers an end-to-end systems architecture guide for building reliable production ML systems, addressing data engineering trade-offs, real-time feature computation, and model drift mitigation.
Offers a pragmatic and tool-agnostic approach to monitoring. It covers essential topics such as monitoring antipatterns, principles of monitoring design, and getting metrics and logs from applications. It is highly relevant for gaining a broad understanding of effective monitoring strategies and valuable resource for anyone looking to improve their monitoring practices regardless of the specific tools they use.
Guides engineers through a structured daily roadmap of practical container exercises, transitioning legacy monoliths into lightweight, containerized microservices step by step.
Explains core cluster architecture with remarkable pedagogical clarity, demystifying etcd consensus, API server mechanics, and runtime security for systems engineers.
This book, an excerpt from the 'Site Reliability Engineering' book, focuses specifically on monitoring distributed systems. It explains basic principles and best practices for building successful monitoring and alerting systems in complex environments. It is highly relevant for those working with distributed systems and provides implementation-agnostic guidance.
Bridges linear algebra, multivariable calculus, vector geometry, and probability directly to fundamental machine learning algorithms like PCA, Gaussian mixture models, and support vector machines.
Presents high-availability architectural blueprints for distributed cloud systems, covering container clustering, horizontal autoscaling, load shedding, and resilience engineering.
Provides the monumental mathematical foundation of modern neural networks, connecting deep representation learning, backpropagation dynamics, and sequence modeling to empirical machine learning.
Guides systems developers through extending the Kubernetes control plane, focusing on client-go libraries, custom resource definitions (CRDs), and controller reconciliation loops.
Focuses on OpenTelemetry, an open-source framework for instrumenting applications for observability. It covers setting up and operating a modern observability system using OpenTelemetry. This key book for understanding contemporary approaches to collecting telemetry data.
Instructs data scientists on applied model evaluation, cross-validation, hyperparameter tuning, and pipeline construction through Scikit-Learn maintainers Andreas Müller and Sarah Guido.
Investigates defense-in-depth container security, detailing host kernel hardening, secure image supply chains, automated SBOM auditing, and runtime workload protection mechanisms.
Provides a comprehensive overview of DevOps, which key part of GitOps. It is written by four leading experts in the field.
Provides a comprehensive introduction to GitHub Actions, covering its core concepts, structure, syntax, and use cases. It's particularly helpful for those new to CI/CD and looking to understand how GitHub Actions fits into the software development lifecycle. The book includes practical examples and helps solidify foundational knowledge.
Provides a comprehensive overview of CI/CD, covering the benefits, challenges, and best practices. It is written by two experienced software engineers who have a deep understanding of the subject matter.
Provides a step-by-step guide to building, deploying, and monitoring ML models in production. It covers topics such as data engineering, model deployment, and monitoring.
This handbook provides a step-by-step guide to implementing DevOps in your organization. It covers all aspects of DevOps, from planning to implementation to measurement, and it valuable resource for anyone looking to get started with DevOps.
Provides a deep dive into modern monitoring practices, covering a wide range of tools and techniques. It is an opinionated book that offers valuable insights into implementing effective monitoring solutions. While it discusses specific tools, it also contains plenty of theory that is essential for a solid understanding of the topic.
Tackles operational infrastructure for training and serving machine learning workloads, exploring GPU scheduling, orchestrator optimization, and distributed tensor pipelines.
Furnishes pragmatic configuration recipes for systems administrators, tackling multi-container Compose orchestration, private registry management, and host storage performance.
Offers a broad view of the entire field of production machine learning, covering the ML lifecycle from data to deployment and monitoring. It helps identify key topics and provides references for deeper dives. It's a good starting point for understanding the scope of production ML.
Investigates the engineering realities of running automated ML pipelines in production, addressing data drift detection, automated retraining loops, telemetry infrastructure, and continuous validation.
Explores enterprise container operations at scale, walking through security vulnerability scanning, multi-node clustering, secrets rotation, and automated infrastructure monitoring.
Focuses on implementing MLOps specifically within an enterprise context, emphasizing a production-first mindset. It provides actionable advice for building efficient and scalable MLOps processes aligned with business needs. It's particularly relevant for professionals working in larger organizations.
Delves into more advanced aspects of GitHub Actions, suitable for those looking to deepen their understanding and explore complex scenarios. It covers reusable workflows, custom actions, integrating with external services, and enhancing security. It serves as a strong reference for experienced users and professionals.
Demystifies the Operator SDK framework, teaching site reliability engineers how to encapsulate human operational knowledge into automated, self-healing Go controllers.
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This collection of essays offers diverse perspectives on implementing SRE principles in various settings. It explores how SRE relates to DevOps and discusses cutting-edge specialties in the field, including aspects of monitoring and reliability. is valuable for gaining a broader understanding of how SRE and monitoring are practiced in different organizations.
This guide covers the fundamental concepts of MLOps and provides practical explanations for building, testing, deploying, monitoring, and governing ML models at scale. It aims to provide hands-on experience with implementing MLOps practices.
Provides a hands-on approach to implementing CI/CD workflows using GitHub Actions. It covers implementation patterns, handling different technology stacks, and creating custom actions. It's a good resource for gaining practical experience and understanding the application of GitHub Actions in real projects.
Addresses cluster-wide container orchestration and automated rollouts, detailing Swarm scheduling algorithms, service discovery, overlay networks, and declarative stack manifests.
Details modern GitOps deployment pipelines, examining declarative configuration management, continuous cluster state synchronization, and automated blue-green rollouts.

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