TECH_COMPARISON
EKS vs GKE vs AKS: A Detailed Comparison for System Design
Compare AWS EKS, Google GKE, and Azure AKS for managed Kubernetes — features, pricing, ease of use, and ecosystem fit.
EKS vs GKE vs AKS
Amazon EKS, Google GKE, and Azure AKS are the managed Kubernetes offerings from the three major cloud providers. GKE is widely considered the most polished, reflecting Google's role as the creator of Kubernetes. EKS offers the deepest AWS integration. AKS provides strong Azure and Windows container support.
GKE — The Kubernetes Leader
Google created Kubernetes, and GKE reflects that heritage. GKE Autopilot fully manages nodes — you only define pods, and Google handles provisioning, scaling, security patching, and upgrades. The standard tier's control plane is free. GKE's Dataplane V2 uses eBPF for networking, providing superior performance and observability. Upgrades are smoother, and the overall experience is the most polished.
EKS — AWS Integration
EKS is the most complex to set up but offers the deepest AWS integration. IAM Roles for Service Accounts (IRSA) provides fine-grained IAM permissions for pods. Karpenter (an AWS-created open-source project) is the most advanced node auto-provisioner, replacing the Cluster Autoscaler with just-in-time, right-sized node provisioning. EKS on Fargate enables serverless pod execution.
AKS — Azure Ecosystem
AKS is free for the control plane and offers strong integration with Azure Active Directory, Azure Monitor, and Azure DevOps. AKS has the best Windows container support among the three, reflecting Microsoft's focus on Windows workloads. Virtual nodes powered by Azure Container Instances provide serverless pod bursting.
Cost Comparison
GKE Standard tier has a free control plane. AKS has a free control plane. EKS charges $73/month per cluster. For organizations running many clusters, this difference adds up. Node/pod compute costs are determined by each cloud's VM pricing.
For Kubernetes architecture in system design interviews, study our concepts and interview questions. Check pricing for access.
GO DEEPER
Master this topic in our 12-week cohort
Our Advanced System Design cohort covers this and 11 other deep-dive topics with live sessions, assignments, and expert feedback.
// RELATED_COMPARISONS
Kubernetes vs Docker Swarm: A Detailed Comparison for System Design
Compare Kubernetes and Docker Swarm for container orchestration — features, scalability, complexity, and when to pick each for your system.
ECS vs EKS: A Detailed Comparison for System Design
Compare AWS ECS and EKS for container orchestration — features, cost, complexity, and when to choose each for your cloud architecture.
Kubernetes vs Nomad: A Detailed Comparison for System Design
Compare Kubernetes and HashiCorp Nomad for workload orchestration — complexity, features, multi-workload support, and more.
K3s vs K8s: A Detailed Comparison for System Design
Compare K3s and Kubernetes (K8s) for container orchestration — covering resource usage, features, deployment targets, and when to use each.
K3s vs MicroK8s: A Detailed Comparison for System Design
Compare K3s and MicroK8s for lightweight Kubernetes — covering architecture, add-ons, resource usage, and when each distribution fits.
Rancher vs OpenShift: A Detailed Comparison for System Design
Compare Rancher and OpenShift for Kubernetes management — covering multi-cluster, security, developer tools, and when to choose each.