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Agent skill for production-grade ROS 2 development. Progressive-disclosure SKILL.md covering workspace, nodes, executors, QoS, ros2_control, Nav2, MoveIt 2, real-time, and deployment. Works with Claude Code, Codex, Cursor, Gemini CLI.
Agent skill for production-grade ROS 2 development. Progressive-disclosure SKILL.md covering workspace, nodes, executors, QoS, ros2_control, Nav2, MoveIt 2, real-time, and deployment. Works with Claude Code, Codex, Cursor, Gemini CLI.
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Single responsibility: This skill is an API reference & code template guide for ROS 2 development. It tells you how to use ROS 2 APIs correctly and what mistakes to avoid. It does NOT do CI/CD orchestration, incident response, data analysis, or deployment automation — those are separate skill categories.
A progressive-disclosure skill for ROS 2 development — from first workspace to
production fleet deployment. Detailed patterns and code templates live in
references/; read the relevant file before writing code.
This always-loaded file carries routing, core principles, pitfalls, and
anti-patterns — enough for quick questions and architectural decisions.
For implementation work, use the Decision Router below to load the
reference file(s) matching the task; the AI pitfalls table lists mistakes
worth re-checking before generating code. scripts/ are tools to run
(scaffolding, QoS checking, launch validation), not reading material.
When domains intersect (e.g. Nav2 + ros2_control) and recommendations
conflict, favor safety > determinism > simplicity.
Execution log (opt-in): When the Stop hook runs (Claude Code only) and
the SKILL_RUNS_LOG environment variable is set, a session summary is
appended to .skill-runs.log. If that file exists in the workspace, read the
last few lines to avoid repeating past mistakes. Without the opt-in — and on
platforms without hooks — the file is never created, so a read-only session
leaves the working tree untouched.
Platform support: SKILL.md and references/ are platform-neutral
knowledge documents. scripts/ can be run manually on any platform whose
environment has Python and the repository dependencies. The hook wiring in
hooks/hooks.json and .skill-runs.log are Claude Code-specific; on other
platforms run the validators manually from the skill root:
SKILL_WORKSPACE=<dir> python3 scripts/skill_stop_hook.py and
python3 scripts/skill_validate_hook.py --file <src> / --command '<cmd>'
(the command string is inspected only, never executed; without those flags
the validate hook expects a Claude Code PreToolUse payload and checks
nothing on its own).
| User is doing... | Read |
|---|---|
| Creating a workspace, package, or build config | references/workspace-build.md |
| Writing nodes, executors, callback groups | references/nodes-executors.md |
| Topics, services, actions, custom interfaces, QoS | references/communication.md |
| Lifecycle nodes, component loading, composition | references/lifecycle-components.md |
| Launch files, conditional logic, event handlers | references/launch-system.md |
| tf2, URDF, xacro, robot_state_publisher | references/tf2-urdf.md |
| ros2_control, hardware interfaces, controllers | references/hardware-interface.md |
| Real-time constraints, PREEMPT_RT, memory, jitter | references/realtime.md |
| Nav2, SLAM, costmaps, behavior trees | references/navigation.md |
| MoveIt 2, planning scene, grasp pipelines | references/manipulation.md |
| Camera, LiDAR, PCL, cv_bridge, depth processing | references/perception.md |
| Sensor drivers, clock sync, LiDAR-camera extrinsics | references/sensor-integration.md |
| Unit tests, integration tests, launch_testing, CI | references/testing.md |
| ros2 doctor, tracing, profiling, rosbag2, CLI cheat sheet | references/debugging.md |
| "Which install/config/publisher is actually running?" audits | references/runtime-provenance.md |
| Faults crossing ROS and non-ROS layers (link, bridge, driver) | references/system-diagnostics.md |
| Docker, cross-compile, fleet deployment, OTA | references/deployment.md |
| System bringup, udev rules, boot sequence, watchdogs | references/system-bringup.md |
| Gazebo, Isaac Sim, sim-to-real, use_sim_time | references/simulation.md |
| SROS2, DDS security, certificates, supply chain | references/security.md |
| E-stop, safety chains, command arbitration | references/safety-estop.md |
| micro-ROS, MCU/RTOS, XRCE-DDS, rclc | references/micro-ros.md |
| Multi-robot fleet, Open-RMF, DDS discovery scale | references/multi-robot.md |
| Message types, units, covariance, frame conventions | references/message-types.md |
| ROS 1 migration, ros1_bridge, hybrid operation | references/migration-ros1.md |
Cross-cutting concerns: Security, error handling, and QoS are not isolated to single reference files — use your judgment and apply them whenever the data path crosses a trust boundary, a node owns hardware, or communication reliability matters.
These apply to every ROS 2 artifact you produce, regardless of domain.
Staleness warning: The table below was last verified on 2026-07-15. If the current date is more than 6 months past that, re-verify EOL dates and feature support against https://docs.ros.org/en/rolling/Releases.html before relying on this table. When you update it, change both
LAST_UPDATEDandNEXT_REVIEWcomments above.
Detect the distro before generating code — do not ask first, and do not assume the newest release. Work down this ladder and stop at the first answer:
echo $ROS_DISTRO — the distro currently sourced.
ls /opt/ros/ is inventory evidence (what is installed), never an
automatic selection.FROM ros:<distro>, CI matrix, .repos
branch names — what the workspace intends to build and deploy against.
(package.xml usually shows dependencies without naming a distro.)ros2 pkg xml <pkg>, dpkg-query -W 'ros-*'
(Principle 11) — this also settles behavior the distro label does not.Conflict rule. When active-shell evidence disagrees with the workspace pin, report both and select neither silently. Prefer the workspace's explicit build/deployment pin for guidance about the repository, and treat the shell mismatch as an environment defect to resolve. Never resolve an existing workspace to the newest LTS: that pulls API the installed stack does not have. Key differences:
| Feature | Humble (LTS) | Jazzy (LTS) | Kilted (non-LTS) | Lyrical (LTS) | Rolling |
|---|---|---|---|---|---|
| EOL | May 2027 | May 2029 | Dec 2026 | May 2031 | Rolling |
| Ubuntu | 22.04 | 24.04 | 24.04 | 26.04 | Latest |
| Default DDS | Fast DDS | Fast DDS | Fast DDS | Fast DDS | Fast DDS |
| Zenoh support | — | — | Tier 1 | Tier 1 | Tier 1 |
| Type description support | No | Yes | Yes | Yes | Yes |
| Service introspection | No | Yes | Yes | Yes | Yes |
| EventsExecutor | No | Experimental | Experimental (+ rclpy port) | EventsCBGExecutor (non-experimental, rclcpp) | Verify installed rclcpp |
| Default bag format | sqlite3 | MCAP | MCAP | MCAP | MCAP |
| ros2_control interface | 2.x | 4.x | 5.x | 6.x (verify installed) | Latest |
| CMake recommendation | ament_target_deps | either | target_link_libs | target_link_libs | target_link_libs |
Foxy (EOL June 2023, Ubuntu 20.04, ros2_control not bundled) is a migration
reference only — see the migration notes below. The pre-Lyrical
EventsExecutor lives in the rclcpp::experimental namespace on every
release that ships it; Lyrical adds the separate, non-experimental
rclcpp::executors::EventsCBGExecutor.
For a greenfield project with no constraint, the latest LTS is Lyrical Luth (Ubuntu 26.04); use Jazzy when the target platform is Ubuntu 24.04. Pin the exact distro in Dockerfile, CI, and documentation so builds are reproducible.
Choose the language from measured latency, jitter, allocation, library, and operational requirements — not from a frequency threshold alone. rclcpp (C++) is generally appropriate for hardware drivers, controller plugins, allocation-sensitive paths, and tight latency or jitter budgets. rclpy (Python) is generally appropriate for orchestration, monitoring, parameter management, rapid prototyping, and Python-native frameworks. Measure the target workload before treating either language as mandatory.
Mixed stacks are normal. A typical robot has C++ drivers/controllers and Python
orchestration/monitoring. Note: component_container (composition) only loads
C++ components via pluginlib. Python nodes run as separate processes and
communicate over intra-host DDS — not zero-overhead by default: the
standard inter-process transport pays serialization, copies, and transport
bandwidth, and splitting work into another process does not by itself remove
encoding costs. Copy avoidance has three distinct mechanisms with different
preconditions: (1) the rclcpp intra-process path
(use_intra_process_comms(true), same process) avoids copies only depending
on publish ownership (unique_ptr), callback type, subscriber count, and
QoS; (2) loaned messages / vendor shared memory (SHM/PSMX) are RMW- and
vendor-dependent and can avoid some or all copies when their preconditions
hold; (3) separate processes on the standard DDS transport get no copy
avoidance — crossing processes without copies requires the vendor
mechanisms in (2). Details: references/nodes-executors.md.
Follow the standard layout — package.xml (format 3, explicit dependency
tags), config/params.yaml, launch/*.launch.py, src/ +
include/<pkg>/ for C++ or <pkg>/ for Python, and test/. A dedicated
*_interfaces package is usually preferable when interfaces are shared by
multiple packages or must remain independent of implementation dependencies.
Defining and using interfaces in one ament_cmake package is supported when
that coupling is intentional. Full annotated layo
name: ros2-engineering-skills description: > Use for designing, implementing, reviewing, debugging, or validating ROS 2 software and configuration: rclcpp/rclpy nodes, colcon and ament packages, launch files, QoS and DDS, URDF/xacro and tf2, ros2_control, Nav2, MoveIt 2, perception and sensor integration, simulation, SROS2, micro-ROS, multi-robot systems, testing, runtime diagnosis, deployment, and ROS 1 migration. Do not use for general C++ or Python questions unrelated to ROS 2, non-robotics middleware, or web and mobile development. license: Apache-2.0 compatibility: > Knowledge files are platform-neutral. Bundled validators require Python 3.10 or newer; build and runtime verification require the target ROS 2 environment. metadata: author: dbwls99706 version: "1.3.0" repository: "https://github.com/dbwls99706/ros2-engineering-skills"
--- name: ros2-engineering-skills description: > Use for designing, implementing, reviewing, debugging, or validating ROS 2 software and configuration: rclcpp/rclpy nodes, colcon and ament packages, launch files, QoS and DDS, URDF/xacro and tf2, ros2_control, Nav2, MoveIt 2, perception and sensor integration, simulation, SROS2, micro-ROS, multi-robot systems, testing, runtime diagnosis, deployment, and ROS 1 migration. Do not use for general C++ or Python questions unrelated to ROS 2, non-robotics middleware, or web and mobile development. license: Apache-2.0 compatibility: > Knowledge files are platform-neutral. Bundled validators require Python 3.10 or newer; build and runtime verification require the target ROS 2 environment. metadata: author: dbwls99706 version: "1.3.0" repository: "https://github.com/dbwls99706/ros2-engineering-skills" --- # ROS 2 Engineering Skills > **Single responsibility:** This skill is an **API reference & code template guide** > for ROS 2 development. It tells you *how to use ROS 2 APIs correctly* and > *what mistakes to avoid*. It does NOT do CI/CD orchestration, incident response, > data analysis, or deployment automation — those are separate skill categories. A progressive-disclosure skill for ROS 2 development — from first workspace to production fleet deployment. Detailed patterns and code templates live in `references/`; read the relevant file before writing code. ## How to use this skill This always-loaded file carries routing, core principles, pitfalls, and anti-patterns — enough for quick questions and architectural decisions. For implementation work, use the Decision Router below to load the reference file(s) matching the task; the AI pitfalls table lists mistakes worth re-checking before generating code. `scripts/` are tools to run (scaffolding, QoS checking, launch validation), not reading material. When domains intersect (e.g. Nav2 + ros2_control) and recommendations conflict, favor safety > determinism > simplicity. **Execution log (opt-in):** When the Stop hook runs (Claude Code only) *and* the `SKILL_RUNS_LOG` environment variable is set, a session summary is appended to `.skill-runs.log`. If that file exists in the workspace, read the last few lines to avoid repeating past mistakes. Without the opt-in — and on platforms without hooks — the file is never created, so a read-only session leaves the working tree untouched. **Platform support:** `SKILL.md` and `references/` are platform-neutral knowledge documents. `scripts/` can be run manually on any platform whose environment has Python and the repository dependencies. The hook wiring in `hooks/hooks.json` and `.skill-runs.log` are Claude Code-specific; on other platforms run the validators manually from the skill root: `SKILL_WORKSPACE=<dir> python3 scripts/skill_stop_hook.py` and `python3 scripts/skill_validate_hook.py --file <src> / --command '<cmd>'` (the command string is inspected only, never executed; without those flags the validate hook expects a Claude Code PreToolUse payload and checks nothing on its own). ## Decision router | User is doing... | Read | |---------------------------------------------------|-----------------------------------| | Creating a workspace, package, or build config | `references/workspace-build.md` | | Writing nodes, executors, callback groups | `references/nodes-executors.md` | | Topics, services, actions, custom interfaces, QoS | `references/communication.md` | | Lifecycle nodes, component loading, composition | `references/lifecycle-components.md` | | Launch files, conditional logic, event handlers | `references/launch-system.md` | | tf2, URDF, xacro, robot_state_publisher | `references/tf2-urdf.md` | | ros2_control, hardware interfaces, controllers | `references/hardware-interface.md` | | Real-time constraints, PREEMPT_RT, memory, jitter | `references/realtime.md` | | Nav2, SLAM, costmaps, behavior trees | `references/navigation.md` | | MoveIt 2, planning scene, grasp pipelines | `references/manipulation.md` | | Camera, LiDAR, PCL, cv_bridge, depth processing | `references/perception.md` | | Sensor drivers, clock sync, LiDAR-camera extrinsics | `references/sensor-integration.md` | | Unit tests, integration tests, launch_testing, CI | `references/testing.md` | | ros2 doctor, tracing, profiling, rosbag2, CLI cheat sheet | `references/debugging.md` | | "Which install/config/publisher is actually running?" audits | `references/runtime-provenance.md` | | Faults crossing ROS and non-ROS layers (link, bridge, driver) | `references/system-diagnostics.md` | | Docker, cross-compile, fleet deployment, OTA | `references/deployment.md` | | System bringup, udev rules, boot sequence, watchdogs | `references/system-bringup.md` | | Gazebo, Isaac Sim, sim-to-real, use_sim_time | `references/simulation.md` | | SROS2, DDS security, certificates, supply chain | `references/security.md` | | E-stop, safety chains, command arbitration | `references/safety-estop.md` | | micro-ROS, MCU/RTOS, XRCE-DDS, rclc | `references/micro-ros.md` | | Multi-robot fleet, Open-RMF, DDS discovery scale | `references/multi-robot.md` | | Message types, units, covariance, frame conventions | `references/message-types.md` | | ROS 1 migration, ros1_bridge, hybrid operation | `references/migration-ros1.md` | **Cross-cutting concerns:** Security, error handling, and QoS are not isolated to single reference files — use your judgment and apply them whenever the data path crosses a trust boundary, a node owns hardware, or communication reliability matters. ## Core engineering principles These apply to every ROS 2 artifact you produce, regardless of domain. ### 1. Distro awareness <!-- LAST_UPDATED: 2026-07-15 — Review this table every 6 months or when a new distro is released. --> <!-- NEXT_REVIEW: 2027-01-15 --> > **Staleness warning:** The table below was last verified on **2026-07-15**. > If the current date is more than 6 months past that, re-verify EOL dates and > feature support against https://docs.ros.org/en/rolling/Releases.html before > relying on this table. When you update it, change both `LAST_UPDATED` and > `NEXT_REVIEW` comments above. Detect the distro before generating code — do not ask first, and do not assume the newest release. Work down this ladder and stop at the first answer: 1. **Active shell:** `echo $ROS_DISTRO` — the distro currently sourced. `ls /opt/ros/` is *inventory evidence* (what is installed), never an automatic selection. 2. **Workspace pin:** Dockerfile `FROM ros:<distro>`, CI matrix, `.repos` branch names — what the workspace intends to build and deploy against. (`package.xml` usually shows dependencies without naming a distro.) 3. **Installed versions:** `ros2 pkg xml <pkg>`, `dpkg-query -W 'ros-*'` (Principle 11) — this also settles behavior the distro label does not. 4. **Ask the user** when the workspace holds no evidence. 5. **Greenfield only:** default to the latest LTS. **Conflict rule.** When active-shell evidence disagrees with the workspace pin, report both and select neither silently. Prefer the workspace's explicit build/deployment pin for guidance about the repository, and treat the shell mismatch as an environment defect to resolve. Never resolve an *existing* workspace to the newest LTS: that pulls API the installed stack does not have. Key differences: | Feature | Humble (LTS) | Jazzy (LTS) | Kilted (non-LTS) | Lyrical (LTS) | Rolling | |---------------------------|--------------------|--------------------|--------------------|--------------------|--------------------| | EOL | May 2027 | May 2029 | Dec 2026 | May 2031 | Rolling | | Ubuntu | 22.04 | 24.04 | 24.04 | 26.04 | Latest | | Default DDS | Fast DDS | Fast DDS | Fast DDS | Fast DDS | Fast DDS | | Zenoh support | — | — | Tier 1 | Tier 1 | Tier 1 | | Type description support | No | Yes | Yes | Yes | Yes | | Service introspection | No | Yes | Yes | Yes | Yes | | EventsExecutor | No | Experimental | Experimental (+ rclpy port) | EventsCBGExecutor (non-experimental, rclcpp) | Verify installed rclcpp | | Default bag format | sqlite3 | MCAP | MCAP | MCAP | MCAP | | ros2_control interface | 2.x | 4.x | 5.x | 6.x (verify installed) | Latest | | CMake recommendation | ament_target_deps | either | target_link_libs | target_link_libs | target_link_libs | Foxy (EOL June 2023, Ubuntu 20.04, ros2_control not bundled) is a migration reference only — see the migration notes below. The pre-Lyrical `EventsExecutor` lives in the `rclcpp::experimental` namespace on every release that ships it; Lyrical adds the separate, non-experimental `rclcpp::executors::EventsCBGExecutor`. For a greenfield project with no constraint, the latest LTS is **Lyrical Luth** (Ubuntu 26.04); use **Jazzy** when the target platform is Ubuntu 24.04. Pin the exact distro in Dockerfile, CI, and documentation so builds are reproducible. ### 2. C++ vs Python decision Choose the language from measured latency, jitter, allocation, library, and operational requirements — not from a frequency threshold alone. **rclcpp (C++)** is generally appropriate for hardware drivers, controller plugins, allocation-sensitive paths, and tight latency or jitter budgets. **rclpy (Python)** is generally appropriate for orchestration, monitoring, parameter management, rapid prototyping, and Python-native frameworks. Measure the target workload before treating either language as mandatory. **Mixed stacks are normal.** A typical robot has C++ drivers/controllers and Python orchestration/monitoring. Note: `component_container` (composition) only loads C++ components via pluginlib. Python nodes run as separate processes and communicate over intra-host DDS — **not zero-overhead by default**: the standard inter-process transport pays serialization, copies, and transport bandwidth, and splitting work into another process does not by itself remove encoding costs. Copy avoidance has three distinct mechanisms with different preconditions: (1) the rclcpp **intra-process** path (`use_intra_process_comms(true)`, same process) avoids copies only depending on publish ownership (`unique_ptr`), callback type, subscriber count, and QoS; (2) **loaned messages / vendor shared memory (SHM/PSMX)** are RMW- and vendor-dependent and can avoid some or all copies when their preconditions hold; (3) separate processes on the standard DDS transport get no copy avoidance — crossing processes without copies requires the vendor mechanisms in (2). Details: `references/nodes-executors.md`. ### 3. Package structure conventions Follow the standard layout — `package.xml` (format 3, explicit dependency tags), `config/params.yaml`, `launch/*.launch.py`, `src/` + `include/<pkg>/` for C++ or `<pkg>/` for Python, and `test/`. A dedicated `*_interfaces` package is usually preferable when interfaces are shared by multiple packages or must remain independent of implementation dependencies. Defining and using interfaces in one `ament_cmake` package is supported when that coupling is intentional. Full annotated layo
Free to get does not mean free to run. Price labels are not safety ratings. Submit pricing information →
Skill source recorded
Skill instructions are recorded. This is not a runtime test, safety guarantee or compatibility certification.
Review before install: Avoid automatic install
License: Apache-2.0
Listed tools are metadata hints, not tested compatibility. Agent prompts are suggested handoffs.
Check the source for dependencies, API keys and third-party costs. A public repository does not mean every service is free.
Repository metadata and review signals are advisory. Popularity, source discovery and successful execution are different facts.
Version reported in registry metadata; check source releases before relying on it.
Quality
76/100
Strong
Trust
63/100
Sandbox only
Audit
78/100
Needs review
Copies are not installs. Installation counts require a reported successful installation; they are not a blanket quality guarantee.
This page exposes the same decision, trust, audit, use-case, and install signals through the Registry API, so agents can rank this skill without scraping the UI.
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"description": "Agent skill for production-grade ROS 2 development. Progressive-disclosure SKILL.md covering workspace, nodes, executors, QoS, ros2_control, Nav2, MoveIt 2, real-time, and deployment. Works with Claude Code, Codex, Cursor, Gemini CLI.",
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"license": "Apache-2.0",
"repository": "https://github.com/dbwls99706/ros2-engineering-skills/blob/main/SKILL.md",
"install": "npx skills add dbwls99706/ros2-engineering-skills",
"installSafety": "standard package or runtime install path",
"permissionSurface": "secrets or environment access, shell or command execution",
"documentation": "Strong README/SKILL.md context",
"agentOutcomes": "No agent outcome data yet"
},
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"label": "No agent outcome data yet"
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"reason": "Do not auto-install. Inspect the source, dependencies, and permission surface first."
},
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"robotics",
"automation",
"agent-skill",
"claude",
"claude-code"
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"Permission surface needs review: secrets or environment access, shell or command execution",
"Stars/forks activity: 163 stars, 16 forks; issue activity unavailable in current metadata",
"Dependency/runtime risk: command execution surface, credential or environment access",
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"agent_proven": {
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"label": "Needs first agent run",
"summary": "No agent outcome reports yet. Use Resolve, run one narrow sandbox task, then report the result.",
"metrics": {
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"successfulOutcomes": 0,
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"installAttempts": 0,
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"successRate": null,
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"signals": [],
"penalties": [
"No real agent outcome evidence yet"
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"score": 78,
"risk_level": "needs_review",
"risk_label": "Needs review",
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"Quality score needs review",
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"Stars/forks activity: 163 stars, 16 forks; issue activity unavailable in current metadata",
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"label": "Strong"
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"high-compliance environments without internal security review",
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"Audit: 78/100 Needs review",
"Safety: 34/100 Avoid automatic install",
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"api": "https://www.openagentskill.com/api/agent/skills/dbwls99706-ros2-engineering-skills",
"audit": "https://www.openagentskill.com/skills/dbwls99706-ros2-engineering-skills/audit",
"eval": "https://www.openagentskill.com/api/agent/evals?slug=dbwls99706-ros2-engineering-skills&task=Use%20Ros2%20Engineering%20Skills%20in%20an%20agent%20workflow&max_risk=medium",
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"receipt": "https://www.openagentskill.com/api/agent/receipt?task=Use%20Ros2%20Engineering%20Skills%20in%20an%20agent%20workflow&agent=codex&max_risk=medium&format=text",
"install": "https://www.openagentskill.com/api/skills/dbwls99706-ros2-engineering-skills/install",
"manifest": "https://www.openagentskill.com/api/registry/manifest/dbwls99706-ros2-engineering-skills"
}
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