Dd Orchestrator logo

Dd Orchestrator

Organization
datadog-labs
dd-orchestrator

Entry point for Datadog onboarding. Takes a developer's plain-language goal, ensures a valid Datadog account with dd-account-setup, asks dd-product-recommender which products fit, detects the project's platform and cloud, then composes an ordered plan across the existing skills (agent install, product enable, verify, and optional cloud integration) and dispatches to each by source URL — honestly flagging products with no skill yet. Use when the user says "set up Datadog", "onboard my app / this repo to Datadog", "instrument my project", or states a monitoring goal without naming a specific product or skill.

Overview

Publisherdatadog-labs
Repositoryagent-skills
Skill namedd-orchestrator
Stars
172
Forks
28
Bundled files
4
LicenseMIT
Links
  • Markdown instructions

    A SKILL.md file the model loads on demand, so it only costs tokens when a request actually matches.

  • Works with any LLM

    AI skills are plain Markdown, not provider-specific code, so this works with GPT, Claude, Gemini, Grok, or a local model.

  • 4 bundled files

    Scripts, templates, and references the model can read while it works. Files are read-only and never executed.

  • Open source

    Published by datadog-labs on GitHub. Read the source before you install it.

Installation

Install the Dd Orchestrator AI skill in TypingMind to use it with any LLM, or drop it into another agent that reads SKILL.md.

1

Install in TypingMind

TypingMind installs a skill straight from its GitHub folder — it reads SKILL.md, bundles the resource files, and stores the result locally.

  1. Open the app and go to Plugins → Skills.
  2. Choose "Install from GitHub".
  3. Paste the skill folder URL below and confirm.
  4. Enable the skill in any chat where you want it available.
Plugins → Skills → Add skill → From GitHub URL, then paste the folder URL and press Continue.
2

Install in another agent

Any agent that reads the Agent Skills format can use this skill — copy the folder into that agent's skills directory.

Claude Code — .claude/skills
git clone --depth 1 https://github.com/datadog-labs/agent-skills.git /tmp/agent-skills
mkdir -p .claude/skills
cp -r /tmp/agent-skills/dd-orchestrator .claude/skills/dd-orchestrator
Restart Claude Code after copying so it picks up the new skill.

Use it in TypingMind

Enable Dd Orchestrator in any TypingMind chat and the model takes it from there. Its name and description sit in the system prompt, and the moment a request matches, the model loads the full instructions itself — you never invoke it by hand, and it costs no tokens until it is actually used.

The model loads Dd Orchestrator on its own as soon as a request matches it.

Works with any AI model

AI skills are plain Markdown instructions rather than provider-specific code, so Dd Orchestrator is not tied to the model it was written for. Install it once in TypingMind and use it with GPT-5, Claude, Gemini, Grok, DeepSeek, Mistral, Llama, or a local model you run yourself — all on your own API keys.

  • Loaded only when it is needed

    The system prompt carries just the name and description. The instructions are fetched on the first matching request, so an idle skill costs nothing.

  • Switch models mid-chat

    Because the skill is instructions rather than code, changing model does not break it — the next model reads the same SKILL.md.

Skill instructions

This is the SKILL.md content the model loads. Read it before installing — a skill is instructions your model will follow.

Datadog Onboarding Orchestrator

You are the entry point for Datadog onboarding — the conductor, not a performer. You take one plain-language goal, decide which existing skills are needed and in what order, and hand off to them across all sources. You do not write instrumentation yourself; each skill owns its steps.

Routing is compositional, not a lookup. A product like "APM" is not one skill — it expands into ensure account → install the Agent for the detected platform → enable the product → verify, and surfaces any relevant cloud integration as an optional suggestion (never a required step). That composition is computed from the capability graph in catalog.json; there is no intent-to-skill table anywhere (intents live only in the recommender).

Ground rules (read once)

  • Confirm before you run. Show the composed plan (skills, in order) and the skipped dead-ends, and get a yes before dispatching anything — with one exception: dd-account-setup runs first as a preflight (Step 2), because there is no plan to show until an account exists. Nothing else dispatches before approval.
  • The catalog is the source of truth. catalog.json holds every skill as a node with facets (kind, product, platform, cloud), a category-level requires graph, and a source.url. resolve.py composes the plan from it. Do not hand-maintain a routing table.
  • Only enabled skills route. Each node carries enabled (the two public sets — agent-skills
    • dd-source status: ga — plus this repo's own skills; everything else is disabled). resolve.py composes only from enabled skills in real time; a disabled skill is treated as unavailable and surfaces as a dead-end (demand signal).
  • Detect context; never guess it. Platform (kubernetes/docker/lambda/host…) and cloud (aws/gcp/…) come from the repository, not from the goal. If they cannot be detected, ask (a choice point) — do not install the wrong Agent.
  • Conduct, don't perform. You compose and dispatch skills; you never do a delegated skill's job, pre-empt its decisions, or turn them into a user choice. In particular: product selection is dd-product-recommender's job — never infer, guess, or shortlist products yourself, and never offer product scope as a choice; and authentication + site/region are dd-account-setup's job — invoke it and let it ask. The only choices you surface are the structural CHOICE POINTS that resolve.py emits (an ambiguous platform/cloud).
  • Never fabricate a skill or a step; dispatch only what the resolver planned. If a recommended product has no node, or is not covered for the detected platform, say so plainly, point to docs.datadoghq.com, and record it as a gap. Two hard gates apply before any dispatch:
    • No plan, no dispatch. If you have not run resolve.py and captured its PLAN block (with the SESSION ID) for this run, dispatch nothing — the resolver plan is the only dispatch authority. Do not hand-build a plan.
    • Every id must be in the PLAN. Before you dispatch a skill id, confirm it appears in that PLAN block (e.g. grep the id in the run's trace file — see Step 5). An id not in the PLAN is fabricated: do not dispatch it; record it as a gap.
  • Account first. Nothing routes before dd-account-setup reports a valid key on the right region.
  • Invoke every planned skill — installed or not; never skip, never substitute. Dispatch each skill once, in the resolved order, from its recorded source in catalog.json. If the skill id is in the session registry, invoke it directly. If it is not, fetch it from source and run it inline (invoke, not install): python3 dd-orchestrator/scripts/fetch_skill.py <id> materializes the skill (its SKILL.md plus any references/ and scripts/) into a temp dir from the newest public source, and you then execute that SKILL.md. Sources always track the newest version (main / the live onboarding-API render) — nothing is pinned. You may NOT infer, summarize, or hand-author a skill's result in its place. The only permitted non-execution is a hard failure of the fetch or the skill itself, which stops that dependency chain and is reported (see Sequential dispatch below) — never a silent skip.
  • Sequential dispatch — chains first, stop on failure. Run the plan strictly in resolve.py's order (it is deterministic and independent of the product request order, and keeps each dependency chain contiguous). Execute one skill at a time; do not start a skill until every hard prerequisite has succeeded, not merely been dispatched. Each skill runs at most once. If a skill fails, stop that chain: skip its transitive dependents and report them as not-run — an independent branch is unaffected.
  • Checklist discipline. Post a checklist up front and tick items as you go (per this repo's CLAUDE.md).
  • Output discipline — quiet by default. The only user-facing output is: the checklist (post it once, then tick items in place — do not reprint it), the PLAN block, any choice questions, and the SUMMARY block. Between the PLAN block and the SUMMARY block, write at most one short status line per plan node (e.g. -> dd-account-setup ... then done: dd-account-setup). Do not narrate your reasoning, read files aloud, restate the goal or the plan, or re-explain these rules. The audit detail belongs in the run's trace file (Step 5) — point to it; do not reprint it. Keep your reasoning internal; do not think out loud. Setup and telemetry plumbing — capturing the org id, running preflight shell commands, emitting emit.py events — is internal: run it silently and never announce it or report its outcome (e.g. "capturing the org id", "org id not captured"), unless the context explicitly asks for debug info. Fewer words, no lost meaning (this pairs with Simplified Technical English below).
  • Correctness first; styling and telemetry are best-effort. The load-bearing path is: account first → compose with resolve.py → confirm → dispatch each planned skill once, in order. Per-step telemetry (emit.py) and the Simplified Technical English styling below are best-effort. If you are under load, on a tight budget, or a telemetry call is failing, skip them and keep going — they never change the plan, the dispatch, or the grade.
  • Prefer Simplified Technical English (ASD-STE100) (best-effort — see Correctness first above). All user-facing output — the checklist, the plan, choice questions, gaps, and the summary — uses Simplified Technical English (ASD-STE100). Apply its core rules:
    • Keep sentences short: at most 20 words for an instruction, 25 for a description. Write one instruction per sentence.
    • Use the active voice, the imperative for instructions, and simple verb tenses. Avoid -ing forms where a simpler verb works.
    • Keep the articles ("a", "the") and write complete sentences. Do not use a telegraphic or headline style.
    • Use one word for one meaning, and keep the same term for the same thing. Avoid slang, jargon, and undefined abbreviations.
    • Prefer short, common words. Use lists for steps, and keep paragraphs short. The result is short but complete: fewer words, no lost meaning.

The flow

developer goal
      ├─►  dd-account-setup            precondition: valid key, right region
      ├─►  dd-product-recommender      goal + codebase → ranked PRODUCTS  (skipped if the intent names products)
      ├─►  detect context              platform + cloud from the repo
  scripts/resolve.py --products "<recommended>" --platform <detected> --cloud <detected>
      │        (reads catalog.json: binds category requires to detected context,
      │         orders hard edges depth-first for dependency-chain locality
      │         (kind breaks ties), dedupes, appends verify)
  PLAN (ordered skills) + DEAD-ENDS (recorded) + CHOICE POINTS (ask)
  confirm → dispatch each plan node by source.url → summarize (incl. the skipped gaps)

Steps

  1. Post the checklist.

  2. Ensure the account — invoke dd-account-setup (installed → invoke directly; not installed → fetch it from source and run it inline, per Ground rules); stop if it cannot produce a validated key. dd-account-setup owns the site/region and authentication prompts — do not pre-empt them; invoke it and let it ask. Then capture the authenticated org id for telemetry (best-effort — any failure just leaves it unset and the field is omitted). This works on any validated path: prefer the OAuth Bearer token that dd-account-setup leaves in place, and fall back to the API+APP key pair — so an OAuth sign-in that has no app key still resolves the org (do not try to mint an app key just for this). Run once, before Step 5, and silently — do not announce the capture or its outcome (it is best-effort telemetry); surface it only if the context asks for debug info:

    bash
    tf="${TMPDIR:-/tmp}/dd-oauth-$(id -u).token"
    if   [ -s "$tf" ];        then hdr=(-H "Authorization: Bearer $(cat "$tf")")
    elif [ -n "$DD_APP_KEY" ]; then hdr=(-H "DD-API-KEY: $DD_API_KEY" -H "DD-APPLICATION-KEY: $DD_APP_KEY")
    else hdr=(); fi
    [ ${#hdr[@]} -gt 0 ] && export DD_ORG_ID="$(curl -sf -m 5 "${hdr[@]}" \
      "https://api.${DD_SITE:-datadoghq.com}/api/v2/current_user" \
      | python3 -c 'import sys,json; d=json.load(sys.stdin); o=d["data"]["relationships"]["org"]["data"]["id"]; print(next((x["attributes"]["public_id"] for x in d.get("included",[]) if x.get("type")=="orgs" and x.get("id")==o), o))' 2>/dev/null || true)"

    resolve.py (Step 5) reads DD_ORG_ID into the run envelope, so every event carries the org id.

  3. Products — shortcut or recommend. First check whether the intent already names products: python3 dd-orchestrator/scripts/resolve.py --detect-products "<intent>".

    • If it prints one or more product tokens, the user named the products: use that list and skip the recommender. (e.g. "Instrument RUM and LLMO" → rum,llm-obs.)
    • If it prints nothing, the intent describes a goal: you MUST invoke dd-product-recommender and use its ranked product list (installed → invoke directly; not installed → fetch it from source and run it inline, per Ground rules). Never infer, guess, or shortlist products yourself from the stack/framework, and never offer product scope as a user choice — product selection is the recommender's job, and running it is mandatory here. (e.g. "Help me track user actions" → recommend.) The shortcut skips only the recommendation. Account setup (Step 2), context detection (Step 4), the confirm gate, and resolve.py still run — the shortcut is never a bypass of a safety gate. No legitimate products, no resolve.py. The product list passed to Step 5 MUST come from exactly one of: the --detect-products shortcut (→ --intent-mode explicit) or dd-product-recommender (→ --intent-mode recommended). You may not compose or preview a plan from products you authored yourself; resolve.py --trace refuses to run without a declared --intent-mode.
  4. Detect context — read the repo for platform (k8s manifests, Dockerfile, serverless.yml, host) and cloud (Terraform/SDK/provider signals). Leave unknowns unset.

  5. Compose the plan and seed the trace. The trace is a run-scoped scratch file the orchestrator owns — ${DD_ORCH_OUTPUT_DIR:-${TMPDIR:-/tmp}/dd-orchestrator}/trace.mdnot a bare output/ in the user's project (a relative path is cwd-dependent and could overwrite the user's own files). The default is under TMPDIR, so it never litters the repo and is cleaned automatically; set DD_ORCH_OUTPUT_DIR to override it (the eval points it at its workspace). Reset the scratch — safe, because the path is the orchestrator's own namespace, not a guessed output/ — then run: TRACE="${DD_ORCH_OUTPUT_DIR:-${TMPDIR:-/tmp}/dd-orchestrator}/trace.md"; mkdir -p "$(dirname "$TRACE")" && rm -f "$TRACE" python3 dd-orchestrator/scripts/resolve.py --trace --products "<products>" --platform <platform> --cloud <cloud> --intent-mode <explicit|recommended> | tee "$TRACE" Pass --intent-mode explicit when Step 3's shortcut named the products, or --intent-mode recommended when dd-product-recommender produced them. It is requiredresolve.py --trace refuses to compose a plan without it (the products must trace to the shortcut or the recommender, never to your own inference) — but it never changes the plan itself. The --trace flag prints one stable, machine-readable block — SESSION_ID, STOP_REASON, PLAN, DEAD_ENDS, CHOICE_POINTS, SUGGESTED, CONFIRMED, DISPATCHED — and tee saves it verbatim to $TRACE. That deterministic block IS your dispatch trace; never re-narrate the plan by hand. Read the same output for the ordered plan, the dead-ends, and any choice points. Capture the SESSION_ID: value from that block — every telemetry call in this run reuses it. In debug mode (only when the context explicitly asks for it), add --debug to also render the ASCII DAG (indent = dependency depth, <- = direct prerequisites). resolve.py also emits the reliable telemetry core here (see Telemetry below).

  6. Resolve choices — for each choice point (e.g. "pick a platform: kubernetes, linux"), ask the developer and re-run, or proceed with the confirmed value.

  7. Confirm — render the PLAN block, then dispatch. Before any dispatch, render the PLAN block (see Output templates below) verbatim: fill the slots, add no extra prose, keep the exact section order and headers. The Plan table's Source column is the skill's source URL, as resolve.py prints it (the newest public source; self for this repo). On approval, run each plan node in dispatch order, one at a time — invoking each skill (installed → directly; not installed → fetched from source and run inline, per Ground rules) — and ticking the checklist. Whenever the plan begins with dd-account-setup (every plan that needs an account — i.e. any non-empty onboarding plan), Step 2 already ran it: do not invoke it a second time; tick that node and emit its skill_step:started/finished from the preflight result, then continue with the next node. Do not start a node until its prerequisites succeeded; if one fails, skip its dependents. As you dispatch, emit best-effort per-step telemetry (Telemetry below): skill_step:started before a node, then skill_step:finished (with result + duration_ms) or skill_step:skipped. Keep the trace file ($TRACE, Step 5) current (it is the graded artifact): set CONFIRMED: yes on approval — or CONFIRMED: no if the user declines — and add each dispatched skill_id on its own line under DISPATCHED. If the plan is a choice point or a dead-end (STOP_REASONnone), leave DISPATCHED empty — that zero-dispatch state is the correct, recorded outcome.

  8. Summarize — render the SUMMARY block. As the terminal output, render the SUMMARY block (see Output templates below) verbatim, in the exact section order. The skipped / gaps list is a real output — the coverage-gap / demand signal for what to automate next; state it, do not hide it. Emit one terminal skill_run:finished (Telemetry).

Output templates

Render two fixed blocks so every run reads the same: the PLAN block at Step 7 (the confirm gate) and the SUMMARY block at Step 8 (terminal output). Fill the slots and add no extra prose.

Rendering rules (both blocks). Use the given section order and the exact headers. Prefer tables to prose; one line per row; do not editorialize or restate the goal. Every dispatched step shows its source (the skill's public source URL — newest; self for this repo). Action items are imperative and carry the exact command or file path. Always end with the telemetry session_id so the output and the events join. Omit a section only by its stated omission rule. Marker legend: done/verified · partial or wired-not-verified · needs action / mutating · failed/blocked · skipped/not-covered.

PLAN block — Step 7 (before any dispatch)

# Datadog Onboarding — Plan · session {{session_id}}

## Detected context
- Platform: {{platform}}  ·  Cloud: {{cloud|none}}  ·  Stack: {{stack_summary}}
- Existing Datadog: {{existing|none}}

## Recommended products
{{i}}. {{product}} · {{priority}} · {{one-line why, names a file/lib}}

## Plan — {{k}} step(s), in dispatch order
| # | Skill | Kind | Product | Source |
|---|-------|------|---------|--------|
| {{n}} | {{skill_id}} | {{kind}} | {{product}} | {{source url (newest) or self}} |
Dependencies: {{root}} → {{chain / branches, one line}}

## Not automated ({{dead_end_count}})
- {{product}} — {{why}} → {{docs URL}}
> Show "None — every recommended product is covered." when dead_end_count = 0.

## Decisions needed ({{choice_count}})
- {{choice}}: {{optionA}} / {{optionB}} / {{optionC}}
> Show "None." when choice_count = 0.

## Before you approve — effects
- ⚠ {{step}} {{mutating / outward-facing effect}}
- {{step}} {{non-mutating effect}}

Approve?  [Proceed — all {{k}}]  ·  [Cancel]

SUMMARY block — Step 8 (terminal output)

# Datadog Onboarding — Summary · session {{session_id}} · {{result}}

## Checklist
- [{{x|.}}] #{{n}} {{skill_id}} — {{one-line outcome}}

## Products set up
| Product | Delivered by | Status | Evidence |
|---------|--------------|--------|----------|
| {{product}} | {{mechanism, source}} | {{✓|◑|✗}} | {{proof or "pending {{blocker}}"}} |

## Changed
- Cluster: {{namespaces/resources}}
- App: {{files/manifests}}
- Creds: {{where, gitignored?}}

## Action items — do next
1. [ ] {{imperative}} — `{{exact command / path}}`
> Show "None — setup is complete." when there are no follow-ups.

## Issues & deviations
| What | Cause | Resolution / impact |
|------|-------|---------------------|
| {{issue}} | {{cause}} | {{how resolved / residual impact}} |
> Show "None." when the run was clean.

## Gaps / demand signals
- {{skipped product or catalog/orchestrator gap}}

## Verify in Datadog
- {{product}}: {{deep link}}

## Telemetry
session {{session_id}} · {{event_count}} events · result {{result}} ({{s}}✓ / {{f}}✗ / {{k}}⊘)

Run verdict — the overall {{result}}: use success when every dispatched skill succeeded, even if some recommended products are dead-ends / "Not automated" (no skill yet) — those are coverage gaps, not partial failures. Reserve partial_success for when a dispatched skill failed or was skipped; blocked when nothing ran because every product dead-ended; cancelled when the user declined every step. (emit.py reconciles the telemetry verdict the same way.)

Telemetry (best-effort — never blocks onboarding)

All telemetry goes through emit.py; never build your own HTTP request or curl. It is best-effort by construction (bounded timeout, local debug log, never throws) and emits to the logs-intake route only. Turn it off with DD_ORCH_TELEMETRY_DISABLED=1. Reuse the single SESSION ID: from Step 5 on every call so the whole run stitches together.

resolve.py already emits the reliable core: skill_run:started, skill_run:plan_resolved, and one skill_step:planned per plan node and per dead-end (each skill_step also carries depends_on — the CSV of prerequisite plan positions — so the DAG edges are reconstructable). resolve.py persists the run envelope (agent, platform, cloud, entry, intent mode, org id) and emit.py re-attaches it plus an emitted_at (ms) timestamp to every event automatically — so you need not re-pass the envelope; send only the per-step fields below. During dispatch you add the per-step lifecycle and the terminal run event:

SID=<the SESSION ID printed by resolve.py>

# before invoking a plan node (source_mode records how it ran: installed vs fetched-from-source)
python3 dd-orchestrator/scripts/emit.py skill_step --action started --session-id "$SID" \
  --field plan_position=<n> --field skill_id=<id> --field skill_kind=<kind> \
  --field product=<product> --field source_repo=<repo> --field source_mode=<installed|fetched>

# after it returns
python3 dd-orchestrator/scripts/emit.py skill_step --action finished --session-id "$SID" \
  --field plan_position=<n> --field skill_id=<id> --field result=success \
  --field duration_ms=<ms> --field skill_invoked=true \
  --field instrumentation_invoked=<true if it was an install/connect/enable skill>

# if a node is NOT run (failed prerequisite, user declined, no automation, source unreachable)
python3 dd-orchestrator/scripts/emit.py skill_step --action skipped --session-id "$SID" \
  --field plan_position=<n> --field skill_id=<id> --field result=skipped_dependency

# once, when the run reaches a terminal state
python3 dd-orchestrator/scripts/emit.py skill_run --action finished --session-id "$SID" \
  --field result=<success|partial_success|failed|blocked|cancelled> \
  --field step_success_count=<n> --field step_failed_count=<n> --field step_skipped_count=<n>

Field values are bounded enums / ids / counts only — never send goal text, paths, keys, URLs, or model output (the emitter also strips anything not on its allow-list).

Reliability and reconciliation. Every event carries a per-session event_seq (a monotonic ordinal): a gap in event_seq means an event was dropped, not that the step never ran. resolve.py emits its plan-shape core (skill_run:started, skill_run:plan_resolved, one skill_step:planned per node) as critical — one transport blip cannot drop the whole core. emit.py also appends every attempted event to a durable local NDJSON log for offline audit. When you analyze a run, treat step_success_count / step_failed_count / step_skipped_count on skill_run:finished as the source of truth for how many steps ran; reconcile the per-step events against it. Do not assume a missing per-step event means the step did not run. emit.py also reconciles the terminal skill_run:finished result against those counts (and the dead-end count): if the reported verdict contradicts them, it keeps the reported value as result_reported and sets result to the count-consistent verdict (result_reconciled: true). So report the honest per-step results and let the guard settle the run verdict.

Worked example

Goal "monitor my Node service on Kubernetes" → recommender [APM, Infrastructure Monitoring], detected platform=kubernetes:

1. dd-account-setup            (foundation)          [self]
2. apm-agent-install-kubernetes (platform-install)   [agent-skills]
3. apm-enable-kubernetes       (product-enable/apm)  [agent-skills]
4. apm-verify-ssi-kubernetes   (verify)              [agent-skills]

One product plus a detected platform became a four-skill plan drawn from two repos, correctly ordered, with Infrastructure Monitoring delivered by the same SSI Agent install. The intent never entered the resolver — only the products and the detected platform did.

Bundled files

The model reads these on demand while the skill is loaded. They are exposed as readable files and are never executed.

Frequently asked questions

What does the Dd Orchestrator AI skill do?

Entry point for Datadog onboarding. Takes a developer's plain-language goal, ensures a valid Datadog account with dd-account-setup, asks dd-product-recommender which products fit, detects the project's platform and cloud, then composes an ordered plan across the existing skills (agent install, product enable, verify, and optional cloud integration) and dispatches to each by source URL — honestly flagging products with no skill yet. Use when the user says "set up Datadog", "onboard my app / this repo to Datadog", "instrument my project", or states a monitoring goal without naming a specific...

Why use Dd Orchestrator on TypingMind?

Because you install it once and use it with any model. Dd Orchestrator is plain Markdown rather than provider-specific code, so the same skill runs on GPT-5, Claude, Gemini, Grok, or a local model — and you can switch model mid-chat without it breaking. TypingMind runs on your own API keys, so you pay providers directly instead of a per-seat subscription, and your skills and chats stay in your own storage.

How do I install Dd Orchestrator in TypingMind?

Open Plugins → Skills → Install from GitHub in TypingMind and paste https://github.com/datadog-labs/agent-skills/tree/main/dd-orchestrator. TypingMind reads its SKILL.md and bundles its files and installs it as a skill you can enable per chat.

Which AI models can use Dd Orchestrator?

Any model you connect in TypingMind. AI skills are plain Markdown instructions rather than provider-specific code, so GPT, Claude, Gemini, Grok, and local models can all load this skill when a request matches it.

How many AI models can I use with Dd Orchestrator?

As many as you like. As long as a model supports skills, you can use Dd Orchestrator with it — GPT, Claude, Gemini, Grok, DeepSeek, Mistral, Llama and more — all on TypingMind with your own API keys.

Is the Dd Orchestrator AI skill free?

Yes. It is published on GitHub by datadog-labs under the MIT license. You only pay your own AI provider for the tokens you use.

What are AI skills?

An AI skill is a reusable instruction bundle that teaches an AI model how to do one specific task. It follows the open Agent Skills format: a SKILL.md file with a name and description, plus any scripts, templates or reference files the model may need. The model reads the instructions only when your request matches the skill, so an installed skill costs nothing until it is used.

How are AI skills different from plugins or MCP servers?

A plugin or MCP server gives a model new tools to call — code that runs somewhere and returns a result. An AI skill gives the model knowledge and process instead: how to approach a task, which steps to follow, what good output looks like. Skills are plain Markdown, so they need no server, no API key and no runtime, and they work with any model.

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