Open Source Project
Open-Source Kubernetes Platform on AWS EKS
Personal open-source project demonstrating a production-inspired Kubernetes platform on AWS EKS through hands-on implementation of infrastructure, cluster, delivery, and observability patterns.
Metrics Dashboard
Project outcomes and indicators.
Hands-on
Implementation
AWS EKS platform engineering demonstration
Production-inspired
Design approach
without representing the project as a production platform
Open source
Project classification
personal learning and engineering project
Executive Summary
Project overview and engineering context.
Personal open-source project demonstrating a production-inspired Kubernetes platform on AWS EKS through hands-on implementation of infrastructure, cluster, delivery, and observability patterns.
Project Challenge
The operational challenge.
Kubernetes platform engineering requires more than provisioning a cluster. A useful hands-on implementation must connect cloud infrastructure, cluster configuration, workload delivery, observability, and operational practices in a coherent and reproducible design.
Solution Architecture
The engineering response.
Built a personal open-source AWS EKS platform as a hands-on implementation of production-inspired platform engineering patterns, organizing infrastructure provisioning, Kubernetes configuration, application delivery, observability, and operational documentation into a reusable project structure.
Architecture Preview
How the workflow fits together.
A recruiter-readable preview of the technical flow before the detailed architecture section.
AWS network and infrastructure foundation
Amazon EKS control plane and worker capacity
Kubernetes platform configuration
Application packaging and deployment
CI/CD validation and delivery
Metrics collection and visualization
My Role
Engineering role and implementation focus.
Platform Engineer
- Organized the cloud infrastructure required for an Amazon EKS-based Kubernetes platform.
- Used infrastructure-as-code patterns to make the environment reproducible and reviewable.
- Structured cluster configuration and workload deployment as version-controlled platform code.
- Applied reusable packaging and configuration patterns for Kubernetes resources.
- Connected automated validation and delivery workflows to the platform repository.
- Included monitoring and visualization patterns as part of the platform engineering demonstration.
Environment & Challenges
Environment, inputs, and technical challenges.
Environment
Environment scope
- Personal AWS environment used for hands-on platform engineering implementation.
- Amazon EKS cluster organized as a production-inspired learning platform.
- Open-source repository structure covering infrastructure, cluster configuration, delivery, and observability.
Challenges
Technical constraints
- Connecting AWS infrastructure provisioning with Kubernetes cluster configuration.
- Keeping platform configuration reproducible and understandable through infrastructure as code.
- Designing delivery and observability workflows as integrated platform capabilities.
- Applying production-inspired practices while clearly preserving the project's personal and non-production classification.
Key Achievements
What the project delivered.
Implementation
How the solution was implemented.
AWS and EKS foundation
- Organized the cloud infrastructure required for an Amazon EKS-based Kubernetes platform.
- Used infrastructure-as-code patterns to make the environment reproducible and reviewable.
Kubernetes platform configuration
- Structured cluster configuration and workload deployment as version-controlled platform code.
- Applied reusable packaging and configuration patterns for Kubernetes resources.
Delivery and observability
- Connected automated validation and delivery workflows to the platform repository.
- Included monitoring and visualization patterns as part of the platform engineering demonstration.
Technologies Used
Tools and platforms.
Core technologies used to design, implement, and demonstrate the project.
Project Impact
Why it mattered.
- Demonstrates how cloud infrastructure, Kubernetes, delivery automation, and observability can be organized as one platform engineering workflow.
- Provides a reusable learning reference for AWS EKS platform design and implementation.
- Shows hands-on implementation skills without presenting the project as employer, customer, or production work.
Lessons Learned
What shaped the next build.
- A Kubernetes platform should be treated as a collection of operational capabilities rather than only a managed cluster.
- Infrastructure and cluster configuration are easier to understand and reproduce when expressed through version-controlled automation.
- Delivery workflows, observability, and operational documentation should be designed alongside the cluster foundation.
- Production-inspired controls can be demonstrated without claiming production usage, business impact, or service-level improvements.
Architecture & Workflow
Mermaid-backed operational flow.
Architecture system flow
Key architecture steps for review, discussion, and implementation planning.
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Discuss Similar Work
Need help with personal open-source project?
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