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Embedded debug entry

Skill easyzoom/aix-skills/skills/embedded-debug-entry

Reusable Agent Skills for embedded systems, MCU debugging, firmware workflows, and AI automation. (嵌入式、MCU 调试、固件流程与 AI 自动化的可复用 Agent Skills 集合)。

Install
npx -y skills add easyzoom/aix-skills --skill embedded-debug-entry

Assembled from the repository path, not quoted from the project. Check it against their README if it does not work.

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  • 22 stars22 stars. Stars are a popularity signal and not a quality one, but at this level it is likely that nobody has read this closely except its author, and you would be relying on your own review.

What its author says it does

Copied from the file, not written here

Use when triaging embedded device, MCU, firmware, board bring-up, flashing, serial log, RTOS, bootloader, low-power, or peripheral debug requests

SKILL.md

5.2 KB, as published. Nobody here has run it

Embedded Debug Entry

Overview

Use this skill as the first stop for embedded debugging. The agent should classify the target, failure phase, access method, toolchain, and risk level, then route to the narrowest specialized skill instead of guessing from incomplete context.

When To Use

Use this skill when:

  • The user reports an embedded device, MCU, board, firmware, RTOS, bootloader, or peripheral issue.
  • The architecture or debugging path is unclear.
  • The task might involve flashing, serial logs, SWD/JTAG, UART, ADB, bootloaders, low power, or hardware signals.

Do not use this skill when the user already named a more specific skill path, such as Cortex-M HardFault, 8051 timer, RISC-V trap, or embedded Linux SSH login.

First Questions

Ask only what is needed to route:

  • Target type: MCU, embedded Linux device, mixed SoC, module, or unknown board.
  • Architecture or chip family: Cortex-M, Cortex-R, RISC-V, 8051, Linux-capable ARM, or unknown.
  • Failure phase: cannot connect, cannot flash, no boot, crash/fault, no logs, peripheral failure, RTOS issue, bootloader issue, low-power issue.
  • Available access: SWD/JTAG, serial UART, SSH, ADB, Telnet, local console, logic analyzer, oscilloscope, or vendor tool.
  • Toolchain and artifacts: ELF/HEX/MAP, firmware log, programmer output, schematic, boot log, or fault dump.

Routing Guide

Use the most specific path:

Symptom or targetPrefer
Cortex-M MCU, SWD/JTAG, HardFault, startupcortex-m-debug
Cortex-R5/R4/R7, TCM, MPU, lockstep, safety corecortex-r5-debug
8051/51/STC/Nuvoton/Silabs C80518051-mcu-debug
RISC-V MCU, OpenOCD/GDB, trap, CSRriscv-mcu-debug
Embedded Linux login before debuggingembedded-linux-login-debug
OpenOCD/J-Link/ST-Link probe, SWD/JTAG attachopenocd-jlink-stlink-debug
Flash/download/verify/connect failuremcu-flashing-debug
UART boot log, serial console, 乱码, no logsembedded-serial-log-debug
Crash, exception, trap, fault, stack corruptionembedded-fault-debug
GPIO/UART/SPI/I2C/PWM/ADC bring-upembedded-peripheral-bringup
Sensor driver, IMU, I2C/SPI sensor datasensor-driver-integration
QSPI/OSPI flash, XIP, memory-mapped bootqspi-xip-flash-debug
FreeRTOS kernel: tasks, heap, tick, ISR APIfreertos-kernel-debug
Zephyr devicetree, Kconfig, west, driverszephyr-integration
RT-Thread BSP, FinSH, device framework, DFSrt-thread-integration
General RTOS scheduling, stacks, prioritiesrtos-debug
STM32 HAL/LL, CubeMX, clocks, DMA, NVICstm32-hal-ll-integration
ESP-IDF, sdkconfig, partitions, NVS, Wi-Fiesp-idf-integration
Nordic nRF Connect SDK, BLE, DFU, Partition Mgrnrf-connect-sdk-integration
BLE GATT services, characteristics, MTU, pairingble-gatt-integration
Bootloader, app jump, upgrade statebootloader-debug
MCUboot image slots, signing, swap, rollbackmcuboot-integration
OTA package, transport, validation, activationota-update-integration
Sleep, wakeup, current consumption, lost debuglow-power-debug
Power, reset, clock, pins, board-level signalshardware-interface-debug

Workflow

  1. Classify before acting. Do not start with code edits, reflashing, or resets until the target and failure phase are known.

  2. Route to one primary skill. If multiple skills apply, pick the one closest to the current blocker. Example: "cannot flash Cortex-M" starts with mcu-flashing-debug, not general Cortex-M logic.

  3. Collect minimal evidence. Ask for the smallest artifact that proves the current state: programmer error, serial log, GDB register dump, schematic snippet, or tool output.

  4. Preserve safety boundaries. Treat erase, option bytes, boot config, security bits, fuses, production data, and power changes as explicit-approval actions.

  5. Summarize the route. Tell the user which path you selected and why before continuing with detailed debug instructions.

Verification

Before moving into a specialized workflow:

  • State target class, architecture, failure phase, available access, and selected skill.
  • State what evidence is already available and what is still missing.
  • Confirm no destructive operation has been recommended without approval.

Common Failures

  • Treating every embedded issue as a firmware code problem.
  • Asking for every possible tool output before choosing a debug path.
  • Starting with flash erase when the failure is actually serial wiring or reset.
  • Debugging application logic before proving the target boots and the image matches.
  • Mixing Linux device login workflows with MCU bare-metal workflows.

Example

User:

板子起来以后没日志,也不知道是不是程序没跑。

Agent:

  1. Asks for chip family, access methods, firmware artifact, and whether serial pins are known.
  2. Routes to embedded-serial-log-debug if the first blocker is "no logs".
  3. If serial is healthy but no heartbeat exists, routes to the architecture-specific startup workflow.

Keep looking

Skills are one crate of 328,083. Ordering is by how many stacks a row turns up in, so the top of any crate is what has actually been picked rather than what has the most stars.