Containerization, spearheaded by Docker and orchestrated by Kubernetes, has become the de facto standard for deploying modern, scalable, and portable applications. This comprehensive course provides a hands-on mastery of both technologies, starting with building efficient Docker images and culminating in the deployment and management of complex multi-container applications on a Kubernetes cluster. Participants will learn how to leverage containers for consistency across environments, enabling faster development cycles and robust, self-healing infrastructure, a fundamental requirement for modern DevOps and cloud-native applications.
Containerization with Docker and Kubernetes
Information Technology and Digital Systems
October 25, 2025
Introduction
Objectives
Upon completion of this course, participants will be able to:
- Explain the core concepts of containerization and its benefits over traditional virtualization.
- Build optimized, multi-stage Docker images using best practices from a Dockerfile.
- Deploy, manage, and network single and multi-container applications with Docker.
- Understand the core architecture of a Kubernetes cluster (Master, Nodes, Kubelet).
- Use YAML manifests to deploy and manage workloads with Kubernetes objects (Pods, Deployments, Services).
- Implement persistent storage for stateful applications in Kubernetes.
- Configure networking and expose applications using Services and Ingress.
- Perform rolling updates, rollbacks, and self-healing operations within a cluster.
Target Audience
- DevOps Engineers and Site Reliability Engineers (SREs).
- Software Developers seeking to containerize their applications.
- System Administrators transitioning to cloud-native infrastructure.
- Cloud Architects designing container-based solutions.
- Individuals preparing for the Certified Kubernetes Administrator (CKA) exam.
Methodology
- Extensive hands-on labs building Docker images and deploying them to a Kubernetes cluster.
- Individual exercises writing and debugging YAML manifests for various K8s objects.
- Group activities focused on migrating a monolithic application into a containerized microservice architecture.
- Scenario-based troubleshooting of application and cluster failures.
Personal Impact
- Acquire fluency in Docker and Kubernetes, the core technologies of modern cloud-native computing.
- Increase efficiency and collaboration by ensuring consistent environments from development to production.
- Enhance ability to design and manage highly scalable and resilient application infrastructure.
- Gain a competitive edge for roles in DevOps, SRE, and Cloud Architecture.
- Develop systematic skills for managing the lifecycle of complex, distributed applications.
Organizational Impact
- Significantly reduced infrastructure costs and improved resource utilization.
- Faster application deployment and development cycles (CI/CD enablement).
- Increased application stability and availability through Kubernetes' self-healing capabilities.
- Enhanced portability of applications across public clouds and on-premises data centers.
- Standardized application packaging and dependency management across the organization.
Course Outline
Unit 1: Docker Fundamentals and Image Management
Introduction to Docker- The container paradigm: process isolation vs. full virtualization.
- Docker components: Daemon, Client, Images, Containers, Registry.
- Installing Docker and initial configuration.
- Basic container commands (run, ps, stop, exec).
- Writing a Dockerfile with best practices and layer caching.
- Optimizing image size using multi-stage builds.
- Tagging, versioning, and pushing images to a Docker Registry (e.g., Docker Hub).
- Introduction to Docker volumes for persistent data.
Unit 2: Docker Networking and Compose
Container Networking- Docker network drivers (Bridge, Host, Overlay).
- Creating custom bridge networks for container communication.
- Publishing ports and mapping between host and container.
- Troubleshooting network connectivity between containers.
- Defining multi-service applications using the `docker-compose.yml` file.
- Managing service dependencies and application stacks.
- Using Docker Compose for local development and testing.
- Moving from Docker Compose to Kubernetes concepts.
Unit 3: Kubernetes Architecture and Core Objects
Kubernetes Cluster Architecture- Master components: API Server, etcd, Scheduler, Controller Manager.
- Node components: Kubelet, Kube-proxy, Container Runtime.
- Installing and configuring a local cluster (e.g., Minikube or kind).
- Using `kubectl` for cluster interaction and administration.
- Pods: the smallest deployable unit and its lifecycle.
- Deployments: declarative updates and ensuring desired state.
- ReplicaSets and ensuring application scaling and availability.
- Managing configuration with ConfigMaps and Secrets.
Unit 4: Kubernetes Networking, Storage, and Operations
Networking and Services- Kubernetes service types (ClusterIP, NodePort, LoadBalancer).
- Ingress controllers for external access and SSL termination.
- DNS-based service discovery within the cluster.
- Container Network Interface (CNI) and networking add-ons.
- Persistent Volumes (PV) and Persistent Volume Claims (PVC).
- Storage Classes and dynamic volume provisioning.
- Rolling updates and managing deployment strategies.
- Monitoring, logging, and health checks (Probes).
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