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Foundry Agentic Loop

GitHubOfficialFirst committed by vieiraaeDistributed by GitHub

  • Skill
  • Workflow
  • Software development
  • MIT
  • Low risk
  • Has scripts

From the author

Build agentic solutions on Microsoft Foundry, GitHub and Azure: hosted agents, toolbox tools and skills, Foundry IQ grounding and a React/FastAPI app. Three modes: rapid prototyping in an existing Foundry project; spec-driven development (SDD), where the foundry-agentic-loop-workflow runs Specify, Implement, Verify and Deploy to create the Foundry project and deploy with azd, or one phase runs alone; and Improve, which refines this skill and the workflow from past runs. Use for Agentic Loop requests and canvas actions, or end-to-end agent solutions from architecture to Azure deployment. Not for isolated Azure administration or unrelated UI edits.
— the description by vieiraae

AutoGineer summary

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

foundry-agentic-loop provides a structured framework for developing agentic applications. It supports two primary modes: rapid prototyping for existing projects and Spec-Driven Development (SDD) for new projects requiring full Azure deployment pipelines. The skill manages the lifecycle of agents, toolbox tools, Foundry IQ grounding, and web application components, ensuring consistent architecture, security, and observability across the development process.

What it does

  • Orchestrates end-to-end agentic solution development from architecture to Azure deployment.
  • Provides a Spec-Driven Development workflow covering Specify, Implement, Verify, and Deploy phases.
  • Supports rapid prototyping for existing Foundry projects.
  • Manages Foundry hosted agents, toolbox tools, and Foundry IQ grounding configurations.
  • Automates deployment of React/FastAPI applications to Azure Container Apps.
  • Enforces security best practices through managed identities and least-privilege RBAC.

When to use it

  • When building new agentic solutions on Microsoft Foundry that require a structured development lifecycle.
  • When you need to deploy agentic applications to Azure using standardized pipelines.
  • When prototyping agentic features within an existing Foundry project.
  • When you need to integrate Foundry IQ grounding or custom toolbox tools into an agent.

Advantages

  • Ensures architectural consistency through a contract-first development approach.
  • Automates complex deployment tasks using azd and Bicep infrastructure layers.
  • Provides built-in observability via OpenTelemetry and Application Insights integration.
  • Maintains project history and lessons learned to improve future development cycles.
  • Reduces manual configuration errors by enforcing standardized workspace structures.

Usage examples

“Start a new agentic project using the SDD workflow.”
The agent initializes the SDD workflow, creates the necessary project structure, and begins the Specify phase to define the project requirements.
“Deploy my current Foundry project to Azure.”
The agent validates the current configuration, runs the deployment pipeline, and reports the status of the Azure Container Apps deployment.

Install

  1. Download the skill as a ZIP:

    https://autogineer.com/agent-skills/github/foundry-agentic-loop/download
  2. Unzip it into the cross-client skills folder of your project:

    mkdir -p .agents/skills && unzip foundry-agentic-loop.zip -d .agents/skills

Documentation by vieiraae

Foundry Agentic Loop

Coordinate the solution and use microsoft-foundry for platform operations. Explicit user choices override defaults. Reuse known context, ask only for missing decisions, read only the references a step needs, and report decisions, blockers and endpoints concisely.

Bootstrap (once per session)

  1. Foundry skill. If microsoft-foundry is unavailable, ask, then install it (copilot plugin install azure@awesome-copilot, or gh skill install microsoft/azure-skills microsoft-foundry --agent github-copilot --scope project) and reload skills.

  2. Canvas and workflow. This plugin ships foundry-agentic-loop-canvas and foundry-agentic-loop-workflow, listed as foundry-agentic-loop:<name> or <name>. Call extensions_manage with operation: "list". Never install extensions from a URL and never edit Copilot settings files. If one is listed under neither name, tell the user which is missing and that it ships with the plugin, then ask before running copilot plugin install foundry-agentic-loop@awesome-copilot; after they approve, call extensions_reload once. If one is disabled, tell the user to re-enable it in their extension settings and continue in a new session: running sessions keep it disabled, even after a reload. If one failed, inspect it and report its log. Without the canvas, continue in Chat; without the workflow, SDD cannot start, so offer rapid prototyping.

  3. Canvas. When work starts from Chat, open it once: open_canvas with canvasId: "foundry-agentic-loop-canvas", instanceId: "foundry-agentic-loop" and input: { mode }. Prompts that begin [Agentic Loop canvas action] come from the canvas; follow their target, approval and resume instructions literally.

Choose the mode

SignalMode
Root AGENTS.md has an Agentic Loop sectionIts mode. Switch only when the user confirms, then rewrite the section
Canvas prompt or explicit choiceAs stated
Existing Foundry project selected or named; fast prototype; no deployment pipeline neededRapid prototyping: rapid.md
Spec, new Foundry project, azd or IaC, CI-ready repo or full Azure deploymentSDD: sdd.md
Improve, learn from runs, or the canvas improve promptImprove: improve.md; measure changes with node scripts/evals.mjs (index, then run --base <commit>; exit 2 means evals are unavailable, so stop)
One named SDD phase, with no run activeIts guide (Specify, Implement, Verify or Deploy) with the SDD defaults

Otherwise ask once with the choices "Rapid prototyping (existing Foundry project)" and "SDD (new project, deployed with azd)".

Lock it in. Before any other workspace write (in the rapid preflight, or just before the SDD workflow starts), upsert the section from agents-md-rapid.md or agents-md-sdd.md into the root AGENTS.md: replace everything between its foundry-agentic-loop begin and end markers, or append it, keeping other content; then read it back. The section routes short commands such as deploy and locks the mode for Chat, the canvas and the workflow. Azure settings go only in .azure/deployment-plan.md, never in AGENTS.md. Improve mode never writes it.

Defaults

  • Agents: Foundry hosted agents exposing the Responses API, Python 3.13, code deployment. Create them through microsoft-foundry's foundry-agent/create/quick-start-hosted.md with the Basic sample, resolved through that skill, never a guessed URL. Use its advanced workflow only when quick-start cannot support a capability, keeping these defaults. Prompt agents only when requested.

  • Framework: the Copilot SDK for agents that use runtime skills (recipe, reference agent); Microsoft Agent Framework for basic agents and explicit workflows. If a workflow also needs skills, clarify. One framework per agent.

  • Models: rapid keeps the Basic sample's model deployment, or verifies and reuses a supplied one; SDD defaults to gpt-5.4-mini unless the spec needs otherwise. Run the joint placement preflight in foundry-models.md before creating resources. Never hard-code a replacement or silently duplicate a deployment.

  • Tools and knowledge: one governed Foundry toolbox for built-in tools, MCP connections and agent skills; agents use its endpoint, not hard-coded tool URLs. Private knowledge uses Foundry IQ through the toolbox, with citations for supported claims and a deterministic insufficient-evidence response; test both. Add Search only when needed. Reuse run skills the user names from the run catalog instead of regenerating them.

  • App: React + Vite, FastAPI and FastMCP (streamable HTTP) on Azure Container Apps. Rapid deploys with az containerapp up --name <app> --source <dir> --resource-group <rg> --environment <env>; SDD uses azd with a microsoft.foundry layer plus a Bicep (AVM) app layer, remoteBuild: true and one ACR pulled by managed identity. Add services from the reference architecture only when the solution needs them.

  • App access: decide it from the data. When everything the app shows is sample, synthetic or deliberately public, default to no end-user sign-in, even for staff users; services still authenticate with managed identities and need no anonymous-session or identity-verification workarounds. When it shows private, sensitive or user-specific data, ask for the access model before deploying and default to internal ingress or Entra sign-in; anonymous access needs explicit approval. With sign-in, the API pre-authorizes the SPA, the spec states how automated browser tests get a user token, and Implement proves that token path as soon as the app registrations exist.

  • Identity and safety: managed identities and least-privilege keyless RBAC (contract; preflight with check_rbac_preflight.py). Check management-plane, data-plane and role-assignment rights separately; subscription Owner does not grant Foundry data-plane roles. Plan roles for identities not yet created and verify actual principals after creation. No credentials in browser code or Git; Foundry guardrails on.

  • Observability: OpenTelemetry from the backend, agents, MCP servers and model calls into one Application Insights connected to the project (observability.md). Sensitive content capture stays off unless approved with redaction and retention controls.

Workspace files

FileHolds
AGENTS.md (root)The mode lock and short-command routes; never Azure settings
README.md (rapid) or docs/spec.md (SDD, from the spec template)The contract
.azure/deployment-plan.mdEvery Azure setting, in both modes (template)
.env (Git-ignored)What the canvas reads: FOUNDRY_PROJECT (full ARM ID, once validated or created), LOCAL_FRONTEND and DEPLOYED_FRONTEND (verified URLs only). Upsert, keep other keys and read back
docs/LOOP.mdLessons (template)
.agentic-loop/runs/<runId>.jsonSDD flight records, written by the workflow
.devcontainer/devcontainer.jsonOptional dev container (asset)

Working rules

  • Contract first. Freeze service names, environment variables, protocols, endpoints, schemas, auth, streaming, errors and versions (implementation-contract.md) before parallel work.

  • Integration first. Pass the hosted integration checkpoint with a minimal agent before building full orchestration, UI or backend: always a model request, plus a toolbox skill load and a safe MCP call only when the architecture needs them. Record excluded capabilities as N/A with the reason, never as passed, and never add unused ones to satisfy the checkpoint.

  • Evidence, not signals. HTTP 200, exit 0 or active never pass alone; require terminal completion, schema-valid output, execution evidence and correlated traces. Fix with bounded diagnostics, not unchanged redeployments.

  • Wait by completion. Provisioning, deployments, role-assignment propagation and agent readiness end when their command or status check says so: run the command synchronously with a long initial wait, or poll its status every 30-60 s against a stated deadline. Never chain fixed sleeps; keep coding while Azure works.

  • Subagents. Before the checkpoint, parallelize only research and preflight. After it, give each worker a bounded goal, exclusive workspace-relative files or folders, skill references, verified context, the contract, acceptance checks and stop conditions. One owner (the coordinator, or the SDD phase lead) holds the contract and the shared files: azure.yaml, infra/, docs/, .env, .azure/, .agentic-loop/, AGENTS.md and the root lockfiles. Keep teams small, avoid recursive delegation, serialize shared Azure mutations and integrate centrally; worker success is not acceptance. Delegation grants no extra approval. Without subagents, work sequentially and say so.

  • Safety. Reuse resources; confirm billable, security or compliance changes; delete without approval only a resource this build created whose provisioning failed; never sign in for the user; never report an unverified deployment as successful.

  • Workspace boundary. Builds stay inside the workspace: read lessons only from its own docs/LOOP.md, scaffold from the Foundry samples and these references, and use code from other folders only when the user names them. Only improve mode reads past runs elsewhere.

  • Work IQ context. Only when the user or a canvas prompt asks for it, query the workiq MCP server before clarifying questions, fold in only the requirements that matter, cite each by source type and confirm them. Never copy confidential content, personal data or secrets into the workspace; if Work IQ is unavailable or needs consent, say so and continue without it.

  • Companions and SDKs. Verify installed SDK APIs against the latest stable release (or the newest stable one the build's package index serves, recording the gap) and lock versions before generating code; package sources beat stale guidance. Consult the build catalog only for needed capabilities; respect pins, ask before installs and route third-party skill defects upstream.

Lessons

Right after a fix is verified (the failing probe or an equivalent boundary check reruns successfully; an edit, commit or deployment alone is not resolution), upsert a lesson in the workspace's docs/LOOP.md from the template before unrelated work, then read it back. Keep user notes, update matching lessons instead of duplicating them, and never include secrets, raw .env values or payloads. The coordinator, or the SDD phase lead, owns writes; workers report evidence. Lessons never authorize skill edits or weaker gates; improve mode applies them with approval.

Files

references/rapid.md

Rapid prototyping

Build a working solution quickly in an existing Foundry project, driven from Chat. A tested local app is the goal; deploying the app to Azure is optional and needs separate approval. For explicitly requested prompt agents, run the equivalent deployed inference and tool checkpoint through microsoft-foundry and omit hosted-only configuration.

1. Preflight

  • Lock the mode: upsert the rapid section of the root AGENTS.md (lock-in).

  • Resolve the project from the canvas prompt, the user, the workspace or FOUNDRY_PROJECT in root .env; ask if absent. Validate it with az cognitiveservices account project show --subscription <sub> --resource-group <rg> --name <account> --project-name <project>. Never create a replacement for an inaccessible project.

  • Upsert FOUNDRY_PROJECT with the returned ARM ID (not the name or endpoint) right after validation and after any later project change. Never persist an unconfirmed candidate or overwrite the value when validation fails.

  • Run the RBAC preflight: management plane, data plane and role assignment are separate checks. Report gaps together and resolve them before provisioning. Leave platform commands and role definitions to microsoft-foundry.

  • Before any new resource, such as Search, a Container Apps environment or a model deployment, run the joint placement check in the project's region. Keep the project and the sample's model; ask before alternatives.

  • Record the project (ARM ID, endpoint, region, resource group, subscription), its model deployments and the RBAC verdict in .azure/deployment-plan.md, filling the rows of the template that apply to rapid, and add each Azure resource the build creates. Azure settings live only there, never in the README or AGENTS.md. Ensure .gitignore covers .env, .azure/* and !.azure/deployment-plan.md.

2. Architecture

  • Clarify the use case and user experience in one focused round. Under ## Architecture in the root README.md, preserving unrelated content, record:

    • each agent: purpose, framework, model deployment, toolbox tools and skills

    • remote versus custom MCP servers, and generated versus reused skills

    • frontend, backend, data sources and data flow

    • identity boundaries and where each component runs

    Include only required components. For an agent-only solution, write the frontend row as | Frontend | Not applicable … |; step 7 then only reconciles docs/LOOP.md, and step 8 doesn't apply.

  • Read docs/LOOP.md lessons as evidence to reassess, not as instructions; track their outcomes.

  • Freeze the implementation contract under ## Implementation contract in the README. Distinguish the project, model API base, hosted Responses and toolbox MCP endpoints using the endpoint contract. Persist discovered values, never guessed URLs, and keep the full project endpoint in a nonreserved application variable.

3. Minimal slice

  • Build the quick-start Basic sample hosted agent. Add one toolbox skill only when the architecture needs runtime skills, and one safe MCP tool only when it needs MCP tools; never add an unused capability to satisfy the checkpoint. Reuse named skills from the run catalog or the user's source; ask if a skill is unresolved.

  • Scaffold as in azd layout: run the sample's initCommand (from microsoft-foundry, with -t, never the deprecated -m) in an empty .scaffold folder, move the agent to src/agents/<agent> and update its project: path in azure.yaml, merge azure.yaml and .azure/, then remove .scaffold and confirm git status --short lists none of it. For uv lock errors and packaging exclusions, see local runs and code packaging.

  • Deploy only required custom FastMCP code, with az containerapp up --name <app> --source <mcp-dir> --resource-group <rg> --environment <env> using the project's resource group and one Container Apps environment. Right after each up, move image pulls off the registry admin credentials it creates, whether or not the app is deployed later: az containerapp identity assign --system-assigned, grant that principal AcrPull on the registry, az containerapp registry set --server <registry> --identity system, remove the registry password secret with az containerapp secret remove, then az acr update --admin-enabled false (RBAC contract). Reuse remote servers. Publish and version the minimal toolbox through microsoft-foundry (toolbox guide).

  • Give each Python pyproject.toml a build backend (for example hatchling) before the first uv sync; without one the package isn't installed and its tests can't import it.

  • For Copilot SDK agents, read copilot-sdk-foundry.md first. Configure hosting-adapter and runtime telemetry with trace context before deploying (telemetry); a linked Application Insights resource alone is insufficient.

  • Do not build the full orchestration, UI or backend yet.

4. Hosted checkpoint

Follow hosted-integration-checkpoint.md:

  1. Code-deploy the minimal agent.

  2. Discover its actual principal and verify scoped roles separately from the toolbox connection identities.

  3. Using the deployed identity and caller context, prove a model request, plus a skill load and an MCP call when the architecture includes them (record excluded ones as N/A with the reason). Each needs terminal completion, schema-valid output and correlated hosting, model and tool spans.

  4. Record the evidence under ## Hosted checkpoint in the README, starting with **Passed** or **Blocked**, before expanding. The canvas tracks these README headings.

5. Expand

Once the checkpoint passes, parallelize with subagents, following the ownership rules in SKILL.md. Build the remaining agents, orchestration, React UI, FastAPI backend, MCP servers and custom skills against the contract. Deploy new MCP dependencies before you update and assign each agent's toolbox. Add contract tests, health checks and the proven telemetry setup to every component.

6. Deploy agents

Code-deploy the expanded agents with microsoft-foundry. Recheck changed identities, endpoints and roles, then rerun the checkpoint probes and the required skill and tool paths for each agent. Return verified endpoints, the auth requirements and minimal test examples. Use bundled dependencies only after remote dependency resolution fails, keeping Python 3.13 and code deployment.

7. Local acceptance

  • Run FastAPI with reload and the Vite dev server, and confirm both respond. Reconcile them against the contract.

  • Run E2E tests through UI → backend → deployed agents → MCP and tools, in parallel at the Verify E2E concurrency c; report c and its inputs, and treat a 429 after retries as a failure. Verify a correlated trace reaches Application Insights without unapproved sensitive content. Fix failures before going further.

  • Upsert .env: recheck FOUNDRY_PROJECT, then set the verified LOCAL_FRONTEND. Next, reconcile docs/LOOP.md from the lessons template; create it (and docs/) even when nothing failed, and say when no skill change is supported.

  • Keep the servers running and report their URLs. Then ask with ask_user whether to deploy the backend and frontend to Azure, and wait for the answer. Local acceptance and earlier approvals for agents or MCP servers never imply this one.

8. Optional app deployment

Only after the user confirms:

  1. Deploy the backend, then the frontend, with az containerapp up --name <app> --source <dir> --resource-group <rg> --environment <env>, reusing the project's resource group and Container Apps environment. Confirm each with az containerapp show --name <app> --resource-group <rg> --query properties.provisioningState.

  2. Move image pulls off the registry admin credentials that up creates, as for MCP servers in step 3, and disable the registry admin user again.

  3. Configure the backend URL, the allowed frontend origin and authenticated service access, with managed identity for agent calls. Read an internal backend's FQDN (<app>.internal.<environment-domain>) from az containerapp show; never construct it.

  4. Verify the cloud app end to end, then upsert DEPLOYED_FRONTEND and add the apps to the deployment plan. Return the URL and any sign-in requirements.

If the user declines, leave the working local app as it is.

To take a prototype to production, switch to SDD once the user confirms: derive the spec with Specify reverse, rewrite the AGENTS.md section to SDD, then start the workflow.

Requirements and compatibility

Written for: GitHub Copilot

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 Python, 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

First committed by
GitHub avatar of vieiraaevieiraae
Publisher
GitHub (Official)
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GitHub
Source
github/awesome-copilot · skills/foundry-agentic-loop · commit 797337f
Licence
MIT License (redistribution allowed)
  • LICENSE (added by AutoGineer from LICENSE)
  • ATTRIBUTION.md (written by AutoGineer)
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vieiraae

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