Kubernetes Pod Deployment Draw.io 3D Network Diagram

Tech architecture infographic titled "Kubernetes Pod Deployment" using archetype REQUEST FLOW (client → server → DB), focused on a technically accurate Kubernetes pod deployment and runtime request path for an architect / staff audience. Show a left-to-right flow with labeled boxes and directional arrows: Developer Workstation, Git Repository, CI Pipeline, Container Registry, kubectl / API Client, Kubernetes API Server, etcd, Scheduler, Controller Manager, Worker Node, kubelet, Pod, Container, Service, Ingress Controller, Browser Client, Application API, Cache, Queue, Database, plus a generic Cloud / Network boundary icon. Render each component as a clean labeled box with a small icon, canonical English component name, and one-line English role description. Include Browser box even if secondary: 'Browser — sends HTTPS requests to app endpoint'. Include API, DB, cache, queue boxes as requested and connect them realistically to the pod runtime path. Suggested box role descriptions: 'Kubernetes API Server — validates and stores cluster state', 'etcd — persistent key-value store for desired state', 'Scheduler — assigns pending Pods to Nodes', 'kubelet — ensures containers run on the assigned Node', 'Pod — smallest deployable unit hosting app containers', 'Service — stable virtual endpoint for Pod access', 'Ingress Controller — routes external HTTP/HTTPS traffic', 'Application API — processes REST requests inside the Pod', 'Cache — stores hot data for low-latency reads', 'Queue — buffers asynchronous jobs', 'Database — persists application records', 'Container Registry — stores versioned container images', 'CI Pipeline — builds and pushes container images'. Use arrows with short English labels describing transferred artifacts or traffic, such as: 'git push', 'build image', 'push OCI image', 'apply Deployment YAML', 'HTTPS REST request', 'store desired state', 'watch Pod spec', 'bind Pod to Node', 'pull image', 'start container', 'route request', 'ClusterIP TCP', 'JWT token', 'cache GET/SET', 'enqueue job', 'SQL query', 'JSON response'. Show the deployment lifecycle and request lifecycle together without claiming audited security posture. Numbered legend 1-7 in English: 1. Developer commits code and CI builds container image. 2. Image is pushed to registry and Deployment manifest is applied with kubectl. 3. Kubernetes API Server writes desired state to etcd. 4. Scheduler assigns the new Pod to a Worker Node. 5. kubelet pulls image and starts the container inside the Pod. 6. Service and Ingress Controller expose the Application API to the Browser over HTTPS. 7. The Application API serves requests and may read Cache, publish to Queue, and persist to Database. Visual composition should feel like a high-end draw.io 3d network diagram translated into an editorial developer-blog illustration, isometric or flat tech-diagram style, vector-clean infographic layout. Style: cyberpunk neon with warm beige & navy palette, dark navy background, warm beige panels, neon cyan/magenta edge glows, crisp thin grid lines, subtle isometric depth, precise enterprise architecture spacing, readable contrast, sophisticated but not noisy, futuristic engineering mood. Add small environment/group labels in English such as 'Client', 'CI/CD', 'Control Plane', 'Worker Node', 'Cluster Services', 'Data Layer'. Include a subtle disclaimer-style caption in English that this is an illustrative deployment flow, not an audited reference architecture. All text MUST be written in English (array). Every heading, label, caption, legend and metric name in the image must be in English — not English. Spell each English word correctly using English characters and diacritics. Numbers stay as digits, no real cloud-vendor logos (AWS / GCP / Azure) — use generic cloud icons, no watermarks No real cloud-vendor logos (AWS, GCP, Azure) beyond generic cloud icons. Common protocol names (HTTPS, TCP, JWT, OAuth, REST, GraphQL) stay in canonical English form. No security-claim overstatements (do not present diagrams as audited reference architectures).