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Azure App Onboard

MicrosoftOfficialCreated by Microsoft

  • Skill
  • Workflow
  • Cloud and DevOps
  • MIT
  • Low risk
  • Has scripts

From the author

End-to-end orchestrator: from a business idea, app idea, or existing app to running Azure deployment with cost estimates and pre-deploy approval. Analyzes your app, auto-detects the right Azure services, scaffolds infrastructure code, and deploys — tailored to your app, not a template. Handles moving existing apps to Azure without rewriting or with minimal changes. WHEN: bring your app to Azure, plan my app, cost to run, is my code ready to deploy, deploy my app to the cloud, deploy all my services, what Azure services do I need, plan my Azure deployment, deploy my new app to Azure, one-click deploy, I have an app and want it on Azure, migrate my app to Azure, help me get started, build an app, no code yet, starter project. DO NOT USE FOR: use azd for deployment(use azure-deploy), optimizing existing costs (use cost-optimization), code readiness checks only (use azure-app-onboard-prereq).
— the description by Microsoft

AutoGineer summary

Written by AutoGineer from the skill’s own files, not by the author

Azure App Onboard is a comprehensive workflow agent designed to take a business idea or an existing codebase and transition it to a running Azure deployment. It automates the entire lifecycle from initial discovery and architecture planning to infrastructure scaffolding and final deployment. The skill is built to be intelligent and tailored, analyzing the specific requirements of your application rather than relying on generic templates. It includes built-in approval gates for both the architecture plan and the final deployment, ensuring you maintain control over costs and resource configuration throughout the process.

What it does

  • Analyzes your application code or business idea to determine the optimal Azure service stack.
  • Generates custom infrastructure-as-code (IaC) files tailored to your specific application needs.
  • Provides detailed cost estimates for the proposed Azure infrastructure before deployment.
  • Executes the deployment of resources directly to your Azure subscription.
  • Handles the migration of existing applications to Azure with minimal code changes.
  • Provides a structured, step-by-step onboarding experience for developers of all experience levels.

When to use it

  • When you have an application and want to deploy it to Azure but are unsure which services to use.
  • When you need to migrate an existing application to the cloud without a complete rewrite.
  • When you require a cost estimate for your infrastructure before committing to a deployment.
  • When you need guided, end-to-end assistance for setting up a new Azure project.
  • When you want to verify if your current codebase is ready for a cloud deployment.

Advantages

  • Eliminates guesswork by auto-detecting the right Azure services for your specific stack.
  • Reduces manual effort by automating the scaffolding of infrastructure-as-code.
  • Ensures transparency with mandatory approval gates for architecture and deployment.
  • Provides cost visibility early in the planning phase.
  • Supports a wide range of scenarios from greenfield projects to existing app migrations.

Usage examples

“I have a Python web app and want to deploy it to Azure. Can you help me get started?”
The agent will initiate the discovery phase, scan your codebase, propose an architecture, and guide you through the deployment process.
“I need to move my existing application to Azure, but I'm not sure what services I need. Can you plan this for me?”
The agent will analyze your app's requirements, suggest the appropriate Azure services, and provide a cost estimate for your approval.

Install

  1. Download the skill as a ZIP:

    https://autogineer.com/agent-skills/microsoft/azure-app-onboard/download
  2. Unzip it into the cross-client skills folder of your project:

    mkdir -p .agents/skills && unzip azure-app-onboard.zip -d .agents/skills

Documentation by Microsoft

Azure App Onboard

⛔ Every repo goes through the full pipeline (Steps 1–10). No exceptions. Do not skip steps, refuse, or short-circuit based on what you recognize. Follow the Workflow table below sequentially — read each step's references before acting.

Quick Reference

PropertyValue
Best forDevelopers who know what to build but not which Azure services to use
InputsBusiness idea or existing codebase, budget/scale preferences (optional)
OutputsArchitecture plan, cost estimate, IaC files, deployed Azure resources
PhasesDiscover → Architect → Scaffold → Deploy (self-contained, no external skill calls)

When to Use This Skill

  • Deploy existing code without knowing which Azure services to use

  • Check if your existing code is ready to deploy to Azure

  • Move an existing app to Azure without rewriting or with minimal changes

  • Get cost estimates before committing to infrastructure

  • Understand architecture decisions and rejected alternatives

  • Get answers to Azure architecture or service selection questions (e.g., "What database should I use?")

  • Get guided Azure onboarding without prior experience

When NOT to Use

ScenarioUse Instead
Run azd up or execute an existing deploymentazure-deploy
Optimize existing Azure spendcost-optimization from the optional azure-cost plugin
Generate Bicep/Terraform for a known architectureazure-prepare
Validate infrastructure or run preflight checksazure-validate
Troubleshoot a running Azure deploymentazure-diagnostics
Deploy to or manage AKS/Kubernetes directlyazure-kubernetes
Look up or list existing Azure resourcesazure-resource-lookup

If cost-optimization is unavailable, explain that it is provided by the optional azure-cost plugin and direct the user to their client's supported plugin installation flow; do not imply the handoff completed.

Pipeline Rules

⛔ You MUST read references/pipeline-rules.md at the start of every AppOnboard session. It contains approval gates, phase lifecycle, session artifacts, deploy-as-is, and security baseline rules.

Workflow

⛔ Deploy recovery: After deploy gate approval OR before any az deployment/az webapp deploy/az acr build — if you haven't read deploy/PHASE.md, read .copilot-azure/sessions/{id}/deploy-checklist.md first, then deploy/PHASE.md. ⛔ NEVER invoke {"skill": "azure-deploy"} — that is a DIFFERENT skill for a DIFFERENT workflow.

⛔ Post-scaffold transition (MANDATORY): Immediately after scaffold-manifest.json is written, YOUR NEXT ACTION MUST be Step 8 (Deploy Approval Gate) — NOT a summary report, NOT a "here are the generated files" message, NOT a completion signal. Confirm context.json has completedPhases: [...,"scaffold"] + currentPhase: "deploy" (update it yourself if the scaffold subagent didn't). Re-read approval-gates.md § Deploy Gate if evicted from context (scaffold reference loading is heavy), then present the exact prompt: "🚀 Ready to deploy? (Yes / Run manually / Edit plan / Cancel)". This gate is the LAST content in your response — wait for the user's reply.

#StepActionReference
1Session check + Azure loginCreate/resume session, verify Azure CLI auth, resolve subscription + user identity⛔ You MUST read session-protocol.md
2Scope triageCheck azd markers, triage question. Empty workspace or code-only (no infra) → Step 3 directly.⛔ Read intent-gathering.md § Scope Triage
3Prereq scan⛔ Skip if completedPhases includes "prereq". Otherwise: invoke {"skill": "azure-app-onboard-prereq"}. Write prereq-output.json, update context.json. Halt if: overallHealth: "blocked" OR routeToSkill set.
4Gather intentPresent prereq results, confirm stack + Azure services, ask remaining questions.⛔ Read intent-gathering.md § After Prereq Returns
5Plan architectureWrite prepare-plan.json.⛔ You MUST read prepare/PHASE.md
6Scaffold approval gateDisplay plan for user approval BEFORE generating any files.⛔ Read approval-gates.md § Scaffold Gate
7ScaffoldGenerate IaC, self-review. Write scaffold-manifest.json. Update context.json.⛔ You MUST read scaffold/PHASE.md
8Deploy approval gateDisplay validation summary. ⛔ After approval: FIRST read deploy-checklist.md → deploy/PHASE.md. NEVER {"skill": "azure-deploy"}.⛔ Read approval-gates.md § Deploy Gate
9DeployExecute IaC, health-check. Write deploy-result.json.⛔ You MUST read deploy/PHASE.md
10HandoffSurface deployment identity, cleanup commands, next steps.⛔ You MUST read handoff-protocol.md

Error Handling

ErrorRemediation
Phase failsHalt, report phase + error. User decides: retry, skip, abort.
MCP server unavailableSkip affected checks, add disclaimer to costEstimate.assumptions[] and every approval gate.
Missing RBACReport required role + az role assignment command.

Shared references: MCP tools (cross-phase tool parameters) | IaC resources (Azure resource docs for troubleshooting)

Files

prepare/references/service-mapping.md

Service Mapping Tables

Component→Azure service selection. Apply context.json.intent as modifiers, context.json.overrides[] as hard constraints, and policy constraints as filters.

Hosting

⛔ Implicit dependencies: When selecting Container Apps and the component has a Dockerfile (or hasDockerfile: true in prereq), ALWAYS include Container Registry (Basic) in services[]. Container Apps requires ACR to host custom images — omitting it forces an imperative add during deploy, wasting a healing round. ACR Basic is $0.17/day (~$5/mo).

Component TypePrimary ServiceAlternativesSelection Signal
SPA FrontendStatic Web AppsBlob + CDNReact/Vue/Angular, no SSR
SSR Web AppContainer AppsApp Service, AKSNext.js/Nuxt, server-rendered
REST/GraphQL APIContainer AppsApp Service, Functions, AKSExpress/Fastify/Flask/FastAPI
Background WorkerContainer Apps (scale-to-zero)Functions, AKSCelery/Bull/Agenda, no HTTP
Scheduled TaskFunctions (Timer)Container Apps JobsCron patterns, periodic execution
Event ProcessorFunctionsContainer Apps + KEDAEvent-driven, queue/topic consumer
Microservices (K8s)AKSContainer Appskubectl/helm in repo, CRDs, service mesh
GPU inference (managed/serverless)Container AppsAKS, Azure MLA100/T4 inference without Kubernetes API, operator, or custom-scheduling requirements
GPU/ML with Kubernetes controlAKSContainer Apps, Azure MLKubernetes APIs, operators/CRDs, custom scheduling, or advanced networking/control

Stack shortcuts: Containers (Docker, microservices) → Container Apps or AKS. Serverless (event-driven, variable traffic) → Functions. Traditional web (PaaS preference) → App Service.

AKS vs Container Apps: Use Container Apps when scale-to-zero is needed, no K8s expertise is required, KEDA-driven event processing fits, or serverless GPU inference does not require Kubernetes control. Use AKS when the workload requires Kubernetes APIs, operators/CRDs, custom scheduling, or advanced networking/control. Delegate AKS planning to the azure-kubernetes skill. See Azure Container Apps serverless GPUs.

App Service vs Container Apps: App Service preferred when user wants free tier (F1 $0 / B1 ~$13/mo) or single-process with no container orchestration. Container Apps preferred for REST/GraphQL APIs (scaffold generates Dockerfile if missing), scale-to-zero, multi-container/sidecar, or event-driven KEDA scaling. Budget affects SKU tier (Consumption vs Dedicated), not compute service type. Container Apps Consumption has no fixed free tier but scales to zero.

Static Dockerfile sites (nginx/httpd serving HTML):

  • Primary: Static Web Apps Free — $0, global CDN.

    ⛔ SWA region availability: Validate via az provider show --namespace Microsoft.Web --query "resourceTypes[?resourceType=='staticSites'].locations" -o tsv.

  • Alternative: App Service F1 (Free) — ⛔ F1 does NOT run Docker. Use Windows F1 (IIS serves index.html natively) or Linux F1 (linuxFxVersion: 'STATICSITE|1.0'). ⛔ Do NOT use NODE|*/PHP|*/PYTHON|* for static sites — causes 504/503 cold start.

  • If Docker required: Container Apps (scale-to-zero) or App Service B1+ (custom containers).

Plain HTML (no package manager, no Dockerfile): Windows App Service F1 preferred (IIS serves natively). Linux: linuxFxVersion: 'STATICSITE|1.0'. Or Static Web Apps Free.

Data

NeedPrimary ServiceAlternativesSelection Signal
RelationalAzure SQLPostgreSQL Flexible, MySQL FlexibleSQL schema, transactions, joins
Document/NoSQLCosmos DB—JSON docs, global distribution
Graph (Gremlin)Cosmos DB (Gremlin API)—Graph traversal, relationships

Cosmos DB Serverless: Each Serverless account supports ONE API type (SQL, MongoDB, Gremlin, Table, Cassandra). Multi-API apps require separate Serverless accounts.

| Cache | Redis Cache | — | Session store, rate limiting | | Files/Blobs | Blob Storage | Files Storage | File uploads, static assets | | Search | AI Search | — | Full-text search requirements | | MariaDB/MySQL | MySQL Flexible Server | — | mariadb:* or mysql:* in compose / connection config | | Elasticsearch/OpenSearch | AI Search | Azure Monitor (for Kibana) | elasticsearch:* or opensearch:* in compose | | S3-compatible / MinIO | Blob Storage | — | minio/* in compose, S3 SDK usage |

Integration

NeedPrimary ServiceSelection Signal
Message QueueService BusPoint-to-point, ordered, transactions
Pub/SubEvent GridEvent routing, fan-out
Streaming / KafkaEvent HubsHigh-throughput telemetry, logs. Kafka protocol compatible — apps using kafka-clients, Spring Kafka, confluent-kafka-python connect by changing bootstrap URL + SASL config only
Multi-step orchestrationDurable Functions + Durable Task SchedulerDTS is the recommended managed backend
Low-code workflowLogic AppsIntegration-heavy, visual designer

docker-compose → Azure mapping: Map each detectedServices[].type to its PaaS equivalent using these tables. Unmapped services (SSH daemons, custom sidecars — no managed equivalent): offer a Linux VM (B1s ~$7/mo) as companion at the scaffold gate. Present as option, not forced. Write to postDeployRecommendations[].

Supporting (always include)

ServicePurpose
Log AnalyticsCentralized logging
Application InsightsMonitoring + APM
Key VaultSecrets management
Managed IdentityService-to-service auth (zero secrets)

Specialized Routing

Check before mapping — delegate to specialized skill if matched:

SignalDelegate To
Copilot SDK, @github/copilot-sdkazure-hosted-copilot-sdk
Foundry agent, AI agent deploymentmicrosoft-foundry

⛔ Non-Azure cloud SDK deps (AWS/GCP/Firebase) are handled by prereq — the pipeline does NOT reach prepare with cloud SDK findings present. If you see cloud SDK findings here, prereq failed to stop — HALT and do NOT continue architecture planning.

Non-Azure Terraform Resource Mapping

When context.json.detectedInfraProvider.terraform is "gcp" or "aws", read existing .tf files and map cloud resources to Azure equivalents. These mappings provide architecture signal for service selection — use alongside component detection.

GCP → Azure
GCP Terraform ResourceAzure EquivalentNotes
google_cloud_run_v2_serviceContainer AppsMap scaling, env vars, VPC config
google_sql_database_instance (POSTGRES)PostgreSQL Flexible ServerMap tier, backup, maintenance config
google_sql_database_instance (MYSQL)MySQL Flexible ServerMap tier, backup config
google_artifact_registry_repositoryContainer Registry (ACR)Basic tier unless geo-replication needed
google_pubsub_topic / google_pubsub_subscriptionService BusMap topic/subscription model
google_secret_manager_secretKey VaultMap secret references
google_firestore_databaseCosmos DB (NoSQL API)Map indexes, TTL config
google_cloudfunctions2_functionAzure FunctionsMap triggers, runtime
google_service_account + google_project_iam_memberManaged Identity + RBACMap role bindings

Other GCP resources (storage, redis, compute network, VPC connector, cloud tasks) map 1:1 to their Azure equivalents (Blob Storage, Redis Cache, VNet, Queue Storage).

AWS → Azure
AWS Terraform ResourceAzure EquivalentNotes
aws_ecs_service / aws_ecs_task_definitionContainer AppsMap task def → container config
aws_rds_instance (postgres/mysql)PostgreSQL/MySQL Flexible ServerMap instance class → SKU
aws_lambda_functionAzure FunctionsMap runtime, handler, triggers
aws_dynamodb_tableCosmos DB (NoSQL API)Map capacity, indexes
aws_sns_topicService Bus or Event GridMap subscriptions
aws_secretsmanager_secretKey VaultMap secret references

Other AWS resources (S3, ECR, SQS, ElastiCache) map 1:1 to their Azure equivalents (Blob Storage, ACR, Queue Storage/Service Bus, Redis Cache). SQS → Service Bus if FIFO ordering needed.

Requirements and compatibility

Works with: Claude Code, Claude apps, OpenAI Codex, GitHub Copilot, Cursor, Gemini CLI, Kiro, OpenCode, Goose, Amp, Roo Code, JetBrains Junie, Factory Droid, Devin (ex-Windsurf), Mistral Vibe, OpenHands, Letta

“Works with” means the tool reads the open Agent Skills format; a skill written for one tool may use features others lack.

Needs: Needs an MCP server, Needs Node.js

Security

What our scanner noticed· Low risk

  • Instructions that use the network
  • Scripts that your agent may run

This skill includes scripts that your agent may run. Read them before you use it.

A static scan is not a guarantee. Skills are third-party content: review a skill before you let an agent use it.

Attribution and licence

Created by
Microsoft
Publisher
Microsoft (Official)
Source
microsoft/skills · .github/plugins/azure-skills/skills/azure-app-onboard · commit 0696600
Licence
MIT License (redistribution allowed)
  • LICENSE (added by AutoGineer from .github/plugins/azure-skills/LICENSE)
  • ATTRIBUTION.md (written by AutoGineer)
Synced
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