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Robot

该 Skill 为机器人项目提供分层记忆与参考文档,覆盖 Arduino/ESP32 接线、传感器与电机驱动、ROS1/ROS2、Gazebo、MoveIt,以及 ABB、KUKA、UR 等工业机械臂编程和安全注意事项;使用前会询问硬件型号并检查项目记录。

ivangdavila
ivangdavila
热度 83.73
最近更新 2026-05-11 17:25:56
分类:开发依赖:读写文件应用场景:代码生成 / 调试排错 / 概念解释

安装技能

复制下面的话术发给你的 Agent,它会通过 secure-skills 检索并安装该技能。

执行命令安装此 skill: npx secure-skills-cli add robot
Metadata
name
Robot
slug
robot
version
1.0.0
description
Build robots from hobby to industrial with hardware wiring, ROS2, motion planning, and safety constraints.
metadata
{"clawdbot":{"emoji":"🤖","requires":{"bins":[]},"os":["linux","darwin","win32"]}}

When to Use

User needs robotics help — Arduino/ESP32 wiring, ROS2 configuration, motor control, sensor integration, or industrial robot programming. Agent handles hardware selection, code generation, and debugging across hobby to professional contexts.

Architecture

Memory lives in ~/robot/ with tiered structure. See memory-template.md for initial setup.

~/robot/
├── memory.md          # HOT: inventory + active project
├── inventory.md       # Hardware owned (boards, sensors, motors)
├── projects/          # Per-project configs and learnings
│   └── {name}.md      # Project-specific notes
├── corrections.md     # What failed + fixes found
└── archive/           # Completed project summaries

Quick Reference

Topic File
Memory setup memory-template.md
Arduino, ESP32, RPi wiring hardware.md
Sensors: wiring + code sensors.md
Motors: types + drivers motors.md
ROS1/ROS2, Gazebo, MoveIt ros.md
Industrial arms (ABB, KUKA, UR) industrial.md
Systematic troubleshooting debugging.md
Common project templates projects.md

Core Rules

1. Check Memory First

Before ANY recommendation:

  1. Read ~/robot/memory.md — what hardware does user have?
  2. Check ~/robot/projects/ — is there an active project?
  3. Check ~/robot/corrections.md — past failures to avoid?

2. ASK Exact Hardware

Before ANY code: exact board model, exact sensor/motor models, voltage rails. "Arduino" is ambiguous (Uno? Nano? ESP32-based?). Add to inventory once confirmed.

3. Update Memory Proactively

Event Action
User mentions hardware they own Add to inventory.md
User starts new project Create projects/{name}.md
Something fails → fix found Log in corrections.md
Project completed Archive to archive/

4. Version Everything

Always ask and specify:

  • Arduino core version, library versions
  • ROS distro (Humble, Iron, Foxy, Noetic)
  • Firmware versions for industrial controllers

5. Simulation First for Industrial

For ABB/KUKA/Fanuc/UR code:

  • Always clarify: simulation or real hardware?
  • Never generate motion code without safety discussion
  • Include speed limits and safety checks in ALL code

Hardware Traps

Board Selection

  • Servo.h crashes on ESP32 — use ESP32Servo.h (different API)
  • analogWrite() missing on ESP32 — use ledcWrite() + channel setup
  • ESP32 GPIO 6-11 are flash pins — touching them = crash
  • ESP32 GPIO 34-39 are input-only — output silently fails
  • Arduino pins 0,1 are Serial — using them breaks upload

Voltage and Current

  • 5V sensor → 3.3V board without divider — burns pin permanently
  • GPIO sourcing >40mA (Uno) or >12mA (ESP32) — pin damage over time
  • Motor on same rail as logic — brownouts cause random resets
  • No common ground between boards — erratic sensor readings

Sensors

  • HC-SR04 Echo pin 5V → 3.3V board — needs divider or level shifter
  • DHT22 read interval <2s — returns stale/error values
  • I2C bus >30cm without pullups — intermittent failures
  • MPU6050 FIFO overflow if not read fast — readings corrupt

ROS Traps

  • Mixing rospy (ROS1) and rclpy (ROS2) — import errors
  • Forgot source install/setup.bash — "package not found"
  • QoS mismatch publisher/subscriber — messages silently dropped
  • static_transform_publisher syntax varies by ROS2 version
  • Gazebo Classic plugins ≠ Ignition/Fortress plugins

Industrial Traps

  • MoveL through singularity — joint whip, dangerous
  • Wrong coordinate frame (base vs world vs tool) — unexpected position
  • Omitting MoveJ before MoveL — path through obstacles
  • Speed too high in shared human space — safety violation
  • Bypassing SafeMove/SafetyIO signals — defeats physical safeties