Get in Touch
 Duration 21 hours

Course Outline

Introduction to AI-Enhanced Kubernetes Operations

  • The critical role of AI in modern cluster management
  • Constraints of conventional scaling and scheduling methods
  • Fundamental ML concepts applicable to resource management

Basics of Kubernetes Resource Management

  • Core principles of CPU, GPU, and memory allocation
  • Interpreting quotas, limits, and resource requests
  • Diagnosing performance bottlenecks and operational inefficiencies

Machine Learning Strategies for Workload Scheduling

  • Supervised and unsupervised learning models for workload placement
  • Predictive algorithms for anticipating resource demand
  • Incorporating ML features into custom scheduler implementations

Reinforcement Learning for Adaptive Autoscaling

  • Mechanisms by which RL agents interpret cluster behavior
  • Constructing reward functions to drive operational efficiency
  • Developing autoscaling strategies guided by reinforcement learning

Predictive Autoscaling Leveraging Telemetry Data

  • Leveraging Prometheus data for accurate forecasting
  • Implementing time-series models for autoscaling decisions
  • Assessing prediction accuracy and refining model parameters

Deployment of AI-Driven Optimization Tools

  • Integrating ML frameworks with Kubernetes control planes
  • Implementing intelligent control loops for resource management
  • Enhancing KEDA capabilities for AI-assisted decision-making

Strategies for Cost and Performance Optimization

  • Cutting compute expenses through predictive scaling techniques
  • Boosting GPU efficiency via ML-driven resource placement
  • Optimizing the balance between latency, throughput, and efficiency

Real-World Applications and Practical Scenarios

  • Managing high-load application autoscaling with AI
  • Optimizing resource distribution across heterogeneous node pools
  • Applying ML techniques in multi-tenant deployment environments

Conclusion and Future Directions

Requirements

  • Solid grasp of core Kubernetes principles
  • Practical experience in deploying containerized applications
  • Knowledge of cluster operations and resource management workflows

Target Audience

  • SREs maintaining large-scale distributed systems
  • Kubernetes operators overseeing high-volume workloads
  • Platform engineers focused on optimizing compute infrastructure

Number of participants


Price per participant

Testimonials (2)

Upcoming Courses

Related Categories