1.0.0
Teach your coding agent robotics — 22 versioned, battle-tested skills for ROS 2, Gazebo, Nav2, LeRobot, Isaac Sim, MuJoCo and more. npx robium-ai install
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Entry-point skill for designing robotics applications with AI agents. Turns requirements (robot type, task, hardware, sim-vs-real, GPU/budget) into a full stack decision — middleware, simulation, data, visualization, training frameworks — plus a scaffold plan and a written architecture brief. Use when: starting any new robotics app; 'build a robot app', 'which robotics stack', 'scaffold a robotics project', 'mobile robot', 'robot arm', 'manipulation policy', 'navigation stack'; or when requirements exist but the stack is unchosen. This is the entry-point skill of the robium plugin: load it first; it routes to every other robium skill per build phase. Not for: debugging an existing stack (use the matching tool skill) or authoring robium skills (skill-author).
SKILL.md
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architect
The entry point to robium. Given a robotics application idea, this skill turns requirements into a concrete stack decision — middleware, simulation, data, visualization, and training frameworks — plus a scaffold plan and a written architecture brief. It is the only skill that knows the whole robium catalog; everything else is reached by routing from here. Load it first on any new robotics app, then hand off to the domain skills for the actual build.
When to use this skill
- Starting a brand-new robotics application from a rough idea ("build a mobile robot that navigates a warehouse", "train a manipulation policy on an arm").
- The requirements exist but the stack is unchosen, or half-chosen and you want a sanity check before committing.
- You need a durable, written architecture record the whole project builds from.
- You want the routing map: "which robium skill do I load for phase X?"
- Cross-references — go straight to the tool skill, skipping architect, when the
stack is already chosen and the question is narrow:
- Debugging or configuring an existing stack → the matching tool skill
(
nav2,ros2,gazebo,lerobot, …). "My costmap isn't updating" is anav2question, not an architect question. - Authoring or improving robium skills themselves →
skill-author. - Deep-diving one decision (uv vs Docker, which visualizer) → the umbrella
that owns it (
environments,visualization); architect points you there.
- Debugging or configuring an existing stack → the matching tool skill
(
Key directives
- Delegation posture: route + embed the decision logic. The decisions (which stack, why) live here; the how-to lives in the skill each decision routes to. Never duplicate a tool skill's content — link to it.
- Always produce or update
docs/architecture-brief.mdin the app repo. It is the living architecture contract — every later build step reads from it, and refinements edit it in place. No brief, not done. Usereferences/brief-template.mdfor its required sections. - Virtual-environment-first. Reproducibility is decided before code: route
the env question to the
environmentsskill (uv/venv vs Docker) and record the choice in the brief. Do not let a project start with an ad-hoc setup. - Never invent syntax or tools. Recommend only real, current tools at
versions you have verified — robium ships curation, not a framework. When a
version fact matters (ROS 2 distro, Gazebo pairing, GPU floor), confirm it
against current docs (e.g. docs.ros.org for ROS 2
distro/EOL status) rather than memory. See
references/stack-selection.mdfor the verified defaults this skill ships with. - State open risks explicitly in the brief. Unverified assumptions (GPU availability, hardware you can't see, sim-to-real gaps) go in the brief's open-risks section, not silently into a decision.
Quick start
1. Collect the requirement checklist (ask for anything missing; if a critical item is still unknown, record the assumption in the brief rather than guessing silently):
- Robot type — mobile base, arm/manipulator, humanoid, drone, custom?
- Task — navigate, manipulate/grasp, inspect, learn a policy, teleop?
- Hardware — real robot (which?), sim only, or sim-first then real?
- Sim vs real — where does the MVP need to run?
- GPU — is an NVIDIA RTX GPU available? VRAM? (gates Isaac Sim / Lab.)
- Local vs remote — laptop, workstation, or headless remote server?
(drives the visualization choice — remote favors
foxglove.)
2. Pick a golden path. The two MVP verticals:
-
Navigation (mobile robot, autonomous nav in sim):
ros2+nav2+gazebo+visualization→ ROS 2 Jazzy (LTS) middleware, Nav2 for the nav stack, Gazebo Harmonic as the paired simulator, an RViz2 or Foxglove view. Dockerized env viaenvironments. This is the classic, well-supported path — favor it when the task is "get from A to B autonomously." -
Manipulation (arm, learned policy):
lerobot(+isaac-sim/isaac-labif a capable GPU is available) +huggingface+data→ LeRobot for policy training/eval (ACT, Diffusion, SmolVLA, π0), datasets and models sourced through thehuggingfacedelegation,datafor the sourcing strategy. Addisaac-sim/isaac-labonly when the GPU floor is met (see Platform gotchas); otherwise stay in LeRobot's own sim/eval tools and a CPU/uv env. Favor this when the task is "learn to grasp / manipulate."
3. Write the brief. Fill docs/architecture-brief.md from
references/brief-template.md — chosen stack + reasoning, module breakdown,
comms plan, env strategy, data plan, robium skills per phase, open risks.
4. Scaffold. Lay out the repo per references/scaffold-patterns.md (ROS 2
app layout or LeRobot app layout), then hand each phase to its skill.
For the heavy version of step 2 (a full stack-comparison research burst that
keeps the noise out of the main conversation), launch the robium-architect
subagent; it runs this skill as its playbook and writes the brief.
Decision guidance
The routing map. Architect is the only skill that sees the whole catalog; it hands each build phase to the skill below. Grouped by phase.
Design / architecture
| Skill | Hand off when… |
|---|---|
architect | You are here — requirements → stack → brief → scaffold, and routing to everything below. |
integration | Module boundaries and comms are the question: topics/services vs zenoh/gRPC, Dockerfiles, compose wiring across nodes. |
environments | Deciding reproducibility: uv/venv vs Docker, identical local/remote repro, GPU passthrough. Resolve this early, per the env-first directive. |
Middleware & motion
| Skill | Hand off when… |
|---|---|
ros2 | The app uses ROS 2 — core usage, packages, nodes, launch files, message/topic wiring. The substrate for the nav vertical. |
nav2 | Autonomous navigation for a mobile base — costmaps, planners, controllers, behavior trees, localization. |
Simulation
| Skill | Hand off when… |
|---|---|
simulation | Choosing a simulator or getting sensor simulation right, before committing to a specific engine. |
gazebo | Simulating a ROS 2 robot — the paired sim for the nav vertical (Gazebo Harmonic ↔ ROS 2 Jazzy). |
isaac-sim | Photoreal / GPU-accelerated sim or synthetic data — only when the NVIDIA RTX GPU floor is met. |
isaac-lab | GPU-parallel reinforcement-learning environments on top of Isaac Sim — same GPU gate. |
Learning & data
| Skill | Hand off when… |
|---|---|
lerobot | Training or running a manipulation/imitation policy — the substrate for the manipulation vertical. |
huggingface | Pulling datasets/models or pushing artifacts to the Hub — delegate to hf-cli@huggingface-skills; robium adds only the robotics glue. |
data | Deciding where data comes from: offline datasets vs sim generation vs teleop collection. |
Visualization
| Skill | Hand off when… |
|---|---|
visualization | Choosing a viz tool or applying viz best practices, before picking a specific one. |
rviz2 | Classic ROS 2 visualization on a local Linux machine with a display. |
foxglove | Web-based viz — the go-to for a headless remote server or cross-platform team viewing. |
rerun | Timeline/multimodal logging for ML and perception debugging (heavy pointer to Rerun's own docs). |
Verification & meta
| Skill | Hand off when… |
|---|---|
testing | Standing up smoke tests, sim-based regression, or launch testing — plan this into the brief, don't bolt it on later. |
skill-author | Editing robium's own skills (fresh authoring, mining, hardening from learnings). Not an app-building skill. |
skill-updater | End-of-session absorption: folding this session's gotchas back into the robium skills. Not an app-building skill. |
See references/stack-selection.md for the decision trees behind these
hand-offs (middleware yes/no, simulator gazebo-vs-isaac, training framework).
Platform gotchas
- Isaac Sim / Isaac Lab are GPU-gated. Per NVIDIA's current requirements
(docs.isaacsim.omniverse.nvidia.com),
the floor is an RTX 4080 with 16 GB VRAM (minimum), an RTX 5080 or
better recommended (16 GB+ VRAM), and 32 GB+ system RAM (64 GB recommended;
Isaac Lab RL training wants more of both). Linux (Ubuntu) is the primary
target; there is no macOS support. If the GPU floor isn't met, do not
route to Isaac — keep the manipulation path in LeRobot's own sim/eval
tooling. Verify the current floor in
isaac-simbefore committing; treat GPU availability as an open risk if unconfirmed. - macOS / Apple Silicon cannot run the native ROS 2 + Gazebo desktop stack
cleanly — plan for Docker (route to
environments) or a Linux remote. - Remote / headless servers have no display for RViz2 — default the viz
choice to
foxglove(web UI) in that case, and note it in the brief. - ROS 2 distro choice: Lyrical Luth (LTS, GA 2026-05-22, supported to
May 2031) is the current newest LTS — default new apps to it unless a
dependency forces otherwise. Exception: the ROS 2 + Nav2 + Gazebo navigation
vertical still defaults to Jazzy Jalisco (LTS, supported to May 2029) for
now, because Nav2 has not yet shipped binary packages for Lyrical (tracked in
ros-navigation/navigation2#6123as of 2026-07) — re-check before picking Lyrical for that path. Kilted Kaiju is non-LTS and nearing its own EOL (~Dec 2026); don't pick it as a new default. Record the chosen distro in the brief.
Customization
- Different robot/task: re-run the requirement checklist and the decision
trees in
references/stack-selection.md. The two golden paths are starting points, not the only shapes — a drone-inspection app is still ROS 2 + a sim + viz, just with different nodes; a real-hardware manipulation app is LeRobot with the sim swapped for a hardware driver. - Adapt the scaffold:
references/scaffold-patterns.mdgives a ROS 2 layout and a LeRobot layout; rename packages and prune directories your app doesn't need, but keep thedocs/architecture-brief.mdlocation fixed — tooling and every later phase expect it there. - Adapt the brief: every section in
references/brief-template.mdis required, but its depth scales with the project — a one-robot sim demo needs a short comms plan; a multi-robot fleet needs a real one.
References
references/stack-selection.md— the decision trees: middleware (ROS 2 yes/no), simulator (Gazebo vs Isaac), and training framework, with the verified version defaults this skill ships.references/scaffold-patterns.md— repo layouts for a ROS 2 app and a LeRobot app: directory trees plus what each directory holds.references/brief-template.md— the required sections ofdocs/architecture-brief.md(chosen stack + reasoning, module breakdown, comms plan, env strategy, data plan, robium skills per phase, open risks).examples/architecture-brief-example.md— a filled brief for a hypothetical diff-drive warehouse robot (status: unverified).- Upstream: ROS 2 docs, Nav2 docs,
Gazebo docs, LeRobot,
Isaac Sim,
Isaac Lab. The
robium-architectsubagent (agents/robium-architect.md) runs this skill as its playbook.