Pods
Learn how Pods get IP addresses, communicate directly, and form the base unit of Kubernetes networking.
Read Pods guide →Kubernetes cluster architecture overview
Kubernetes Architecture Diagram
This visual reference helps users understand how Kubernetes works as a complete system — from users and control plane components to worker nodes, Pods, networking, storage, add-ons, and external integrations.
CloudNetworking.io Kubernetes architecture reference
High-level Kubernetes architecture for learning, design understanding, and cluster operations.
What it shows
A complete Kubernetes cluster view from users and kubectl through control plane components,
worker nodes, Pods, networking, storage, and observability integrations.
Why it helps
It makes the Kubernetes page feel premium and helps users connect many separate Kubernetes concepts into one understandable architecture view.
How to use it
Start with this architecture first, then move through Pods, Services, CNI, DNS, Ingress, and Network Policies as individual learning topics below.
Best approach: first understand the full Kubernetes architecture, then learn each topic one by one — Pods, Services, kube-proxy, DNS, CNI, Ingress, and Network Policies.
Kubernetes videos
Kubernetes videos for visual learning
These videos help users understand Kubernetes architecture, components, traffic flow, and cluster behavior through guided explanations.
Kubernetes architecture overview
A strong visual introduction for users who want to understand the bigger Kubernetes picture before diving into specific networking topics.
Kubernetes concepts explained
Useful for reinforcing how cluster components fit together after viewing the main architecture diagram.
Kubernetes practical understanding
Helpful for users who want another explanation path around control plane, worker nodes, Pods, and cluster operation.
Cluster learning and operations
Good as a follow-up for users who want to deepen their understanding after reading the page sections below.
Watching even one architecture video before reading the detailed sections below usually makes Kubernetes networking concepts easier to understand.
Core cluster communication
Core Kubernetes networking
Start with the building blocks that define how workloads communicate inside a Kubernetes cluster.
Services
Understand ClusterIP, NodePort, and LoadBalancer Services and how stable service access works.
Read Services guide →CNI
Learn what the Container Network Interface does and how Kubernetes networking plugins connect Pods.
Read CNI guide →kube-proxy
Understand how kube-proxy supports Service networking and traffic forwarding inside the cluster.
Read kube-proxy guide →Cluster DNS
See how Kubernetes DNS helps Pods and Services discover each other using names instead of IP addresses.
Read DNS guide →Kubernetes networking overview
Understand how Pods, Services, DNS, kube-proxy, CNI, Ingress, and Network Policies fit together.
You are hereService discovery and east-west traffic
Traffic flow and service discovery
Learn how Kubernetes routes traffic between Pods and Services, and how internal discovery works.
Services
Understand how Services provide stable access to ephemeral Pods and make application traffic predictable.
Read Services guide →Cluster DNS
Learn how service discovery works so applications can reach Services by name instead of changing IP addresses.
Read DNS guide →kube-proxy
See how service traffic is forwarded and load-balanced to backend Pods inside the cluster.
Read kube-proxy guide →
Best learning path here: Pods → Services → DNS → kube-proxy
North-south traffic and application entry
Ingress and external traffic
Understand how external users reach Kubernetes applications and how HTTP or HTTPS routing works.
Ingress
Learn the basics of Kubernetes Ingress, host-based routing, path-based routing, and controller behavior.
Read Ingress guide →Services behind Ingress
See how Ingress depends on Services to route external requests into application backends.
Read Services guide →DNS for app access
Understand how service names and external DNS both matter when exposing Kubernetes applications.
Read DNS guide →Traffic control and cluster security
Network security and policies
Go deeper into traffic control, zero-trust communication, and workload isolation in Kubernetes.
Network Policies
Learn how Kubernetes Network Policies control allowed traffic between Pods and namespaces.
Read Network Policies guide →Pods and east-west traffic
Understand why Pod-level communication is the foundation for security policy design inside the cluster.
Read Pods guide →CNI and enforcement
See how CNI plugins play a role in implementing Kubernetes networking and policy behavior.
Read CNI guide →Troubleshooting and observability
Troubleshooting and observability
Learn how to diagnose networking issues inside Kubernetes and improve visibility into traffic paths.
Kubernetes DNS troubleshooting
Start here when a Service name does not resolve correctly or internal application discovery breaks.
Read DNS guide →Service connectivity troubleshooting
Use the Services and kube-proxy topics together to diagnose failed traffic between Pods and Services.
Read Services guide →Traffic path troubleshooting
Use Ingress, Services, DNS, and Network Policies together to trace where traffic is failing.
Read Ingress guide →
Best troubleshooting flow: Pods → Services → DNS → kube-proxy → Ingress → Network Policies
Cloud managed Kubernetes networking
Managed Kubernetes networking
After learning core Kubernetes networking, move into cloud-specific managed-cluster networking models.
EKS networking
Build from Kubernetes networking basics into Amazon EKS VPC integration, Pod IP assignment, and AWS service exposure.
Explore AWS section →AKS networking
Use this Kubernetes hub as the base before moving into Azure Kubernetes Service networking patterns.
Explore Azure section →GKE networking
Understand core cluster networking here first, then move into Google Kubernetes Engine networking design.
Explore GCP section →
Best learning path: start with Pods, then learn Services,
CNI, DNS, Ingress, and Network Policies,
then move into EKS, AKS, and GKE networking.