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cloud-native-architecture

Cloud-native design -- containers, service mesh, serverless, multi-cloud, FinOps. Use when the user asks to 'design cloud-native architecture', 'containerize the application', 'evaluate service mesh', 'plan serverless migration', 'implement multi-cloud strategy', 'optimize cloud costs', or mentions Kubernetes, Istio, Docker, Helm, Terraform, FinOps, or 12-factor. [EXPLICIT]

SKILL.md
Quality
Evals
Security

Cloud-Native Architecture: Containers, Mesh, Serverless & Cost Optimization

Generic, brand-neutral engineering capability; deep, sourced playbooks live in references/ and knowledge/. [DOC]

Generic, brand-neutral engineering capability; sourced playbooks in references//knowledge/. [DOC]

TL;DR

Cloud-native architecture designs applications to fully exploit cloud platforms -- containers, orchestration, service mesh, serverless, infrastructure as code, and cost-aware engineering. This skill produces architecture documentation guiding teams from cloud readiness assessment through production-grade deployment [EXPLICIT]

When to Use

  • Assessing application readiness for cloud-native transformation
  • Designing container strategy and Kubernetes architecture
  • Evaluating service mesh adoption (Istio, Linkerd, Cilium)
  • Making serverless vs. container decisions per workload
  • Planning multi-cloud or cloud-agnostic architecture
  • Implementing FinOps practices for cost visibility and optimization

When NOT to Use

  • Infrastructure platform design (VPCs, compute, storage) --> use infrastructure-architecture skill
  • CI/CD pipelines and supply chain security --> use devsecops-architecture skill
  • Application internal structure and patterns --> use software-architecture skill
  • Migrating existing workloads to cloud --> use cloud-migration skill

Sub-capabilities (resource map)

Deep, evidence-tagged playbooks — open the one the task needs (ICM Layer 3, on-demand). [INFERENCE]

Reference
references/cloud-native-patterns.md
references/full-playbook.md
references/knowledge-graph.mmd
references/state-of-the-art.md

Procedure

  1. Resolve the sub-capability; open the matching references/ playbook. [EXPLICIT]
  2. Apply its decision tables; pick the strategy explicitly. [EXPLICIT]
  3. Validate against the Quality Criteria and tag every claim. [EXPLICIT]

Quality Criteria

  • Sub-capability resolved to one playbook. [INFERENCE]
  • Claims evidence-tagged. [EXPLICIT]

Contract

  • Aceptación: capability resolved to its reference playbook, applied, validated, evidence-tagged. [EXPLICIT]
  • Límites: · Does not design internal application architecture (use software-architecture skill) · Does not cover infrastructure platform setup (use infrastructure-architecture skill) · Does. [EXPLICIT]
  • Casos borde: Monolith Containerization: Containerize the monolith first (lift-and-shift to container), then decompose. Use strangler fig pattern. Do not attempt simultaneous containerizatio. [EXPLICIT]
  • Supuestos: · Application is being modernized or built for cloud deployment · Team has or is developing container and orchestration skills · Cloud provider(s) selected or shortlisted · Budget. [SUPUESTO]
  • Trade-off: Decision Enables Constrains When to Use --- --- --- --- Kubernetes Portability, scaling, ecosystem Operational complexity Polyglot microservices, experienced te. [EXPLICIT]

Packet

Capas del packet, cargables bajo demanda (disciplina ICM: una capa por vez, nunca todas juntas): references/ guías de profundidad (cargar UNA por etapa) · knowledge/ cuerpo de conocimiento · prompts/ prompts listos · examples/ salida de ejemplo · agents/ subagentes del packet · assets/ recursos estáticos.

Repository
JaviMontano/claude-plugins
Last updated
First committed

Is this your skill?

If you maintain this skill, you can claim it as your own. Once claimed, you can manage eval scenarios, bundle related skills, attach documentation or rules, and ensure cross-agent compatibility.