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Course Outline

Module 1: Microservices Design

• Establishing Effective Microservice Boundaries
• Leveraging Domain-Driven Design (DDD)
• Alternatives to Business Domain Boundaries (Volatility, Data, Technology, Organizational)
• Decomposing the Monolith
• Avoiding Premature Decomposition
• Decomposition by Layer
• Employing Decomposition Patterns (Strangler, Parallel Run, Feature Toggle)
• Addressing Data Decomposition Concerns (Performance, Integrity, Transactions)

Module 2: Optimizing Docker and the Runtime

• Selecting appropriate base images
• Reducing layer count
• Implementing multi-stage builds
• Image optimization techniques (e.g., sorting multi-line arguments)
• Maximizing build cache utilization
• Pinning image versions for stability
• Fine-tuning resource allocation
• Adhering to secure container practices
• Optimizing runtime configuration for performance

Module 3: Kubernetes & Release Strategies

Kubernetes Deployments Overview
• Executing Initial Deployments
• Exploring Kubernetes Deployment Options

Executing Rolling Update Deployments
• Understanding Rolling Updates
• Creating and executing a Rolling Update
• Reverting Deployments via Rollback

Executing Canary Deployments
• Understanding Canary Deployments
• Creating and executing a Canary Deployment

Executing Blue-Green Deployments
• Understanding Blue-Green Deployments
• Creating and executing a Blue-Green Deployment

Running Jobs and CronJobs
• Creating Job and CronJob resources

Conducting Monitoring and Troubleshooting Tasks
• Applying troubleshooting techniques with kubectl

Module 4: Automation & Operational Efficiency

Automating Common Kubernetes Tasks with Python
• Performing administrative operations via Python
• Defining Configuration objects using Python
• Creating Deployment objects with Python
• Monitoring Kubernetes Events through Python
• Scaling Deployments programmatically

Understanding the Challenges of Automating Deployments
• Managing Declarative Configuration in Kubernetes
• Ensuring Configuration Integrity

Implementing GitOps for Automated Deployments
• Core GitOps Principles
• Introduction to Flux
• Installing Flux onto a Kubernetes Cluster

Configuring Flux for Automated Deployments
• Utilizing Notification Systems
• Structuring the Source Repository

Managing Application Updates via Image Automation
• Updating Deployments with Flux
• Scanning Container Registries for Tags
• Defining Policies for Latest Image Selection
• Configuring Flux for Automatic Image Updates

Module 5: Observability & Root Cause Clarity

Kubernetes Logging and Tracing Capabilities
• The Importance of Logging and Tracing
• Accessing Kubernetes Logs
• Examining Pod and Container Logs
• Reviewing Control Plane Logs
• Monitoring Resource Usage for Nodes and Pods

Collecting and Analyzing Logs
• Log Aggregation Methods
• Log Visualization Techniques

Distributed Tracing in Kubernetes
• Introduction to Distributed Tracing
• Utilizing OpenTelemetry
• Overview of Distributed Tracing Tools
• Instrumenting Applications for Tracing
• Using Traces to Identify Performance Issues

Monitoring with Prometheus and Grafana
• Core Observability Concepts
• Selection of Monitoring Tools
• Implementing Prometheus Instrumentation

Advanced Use Cases for Logging
• Log Processing Strategies
• Filtering and Enriching Logs
• Implementing Event Sourcing

Module 6: Cluster Crisis Simulation & Incident Response

• Recognizing various failure types in cluster environments
• Simulating Node Failures
• Scenarios involving Pod Eviction and Resource Exhaustion
• Addressing Network Issues
• Handling DNS Failures and Application Timeouts
• Simulating API Server Outages
• Stress Testing with High Traffic for Stability
• Dealing with Storage Failures
• Diagnosing Configuration Errors
• Understanding Incident Reporting Procedures

Module 7: AI to Support Troubleshooting

• Advantages of Generative AI in Kubernetes Management
• Architecture of the K8sGPT CLI
• Installing the K8sGPT CLI
• K8sGPT Commands and Usage Guide
• Utilizing K8sGPT Analyzers (podAnalyzer, pvcAnalyzer, rsAnalyzer, etc.)
• Cluster Analysis via K8sGPT
• Investigating Real-Time Issues with K8sGPT
• Deploying the In-Cluster Operator for K8sGPT

Requirements

  • Fundamental knowledge of the Linux command line
  • Hands-on experience in application development or system administration
  • Understanding of container concepts (specifically Docker)
  • Basic familiarity with Kubernetes fundamentals (pods, deployments, services)
  • General grasp of software architecture principles (e.g., APIs, services)

Target audience:

  • DevOps Engineers
  • Site Reliability Engineers (SREs)
  • Backend / Software Developers engaged with microservices
  • Cloud Engineers and Platform Engineers
  • System Administrators moving into Kubernetes environments

 49 Hours

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