stlink gdb server

本文介绍如何为ARM应用安装调试所需的组件,包括硬件JTAG/SWD探针、软件调试工具GDB客户端和服务端、以及Eclipse调试插件等。推荐使用SEGGER J-Link、OpenOCD和QEMU作为调试解决方案。

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origin:https://gnu-mcu-eclipse.github.io/debug/install/

How to install the debugging components?

If you know what you are doing, you can directly skip to:

Overview

When debugging ARM applications, generally two main components are required:

  • a hardware JTAG/SWD probe
  • several software components

The hardware probe can be either a separate device, connected via a flat cable to the debugged board, or, for many affordable discovery boards, can be directly integrated on the evaluation board, having a separate USB connector.

For several specific cases, the hardware probe is not mandatory, debugging being possible inside emulators, like QEMU.

As for software, debugging is generally a complex operation, and in Eclipse it requires multiple components:

  • one or more Eclipse Debugging plug-ins
  • the GDB debugger (client) application
  • the GDB server application
  • the hardware drivers required by the JTAG/SWD probe

The GNU MCU Eclipse project recommends three debugging solutions:

  • the SEGGER J-Link probe & GDB server, as a highly professional solution, supporting both JTAG and SWD, plus SWO trace output;
  • the OpenOCD application as an universal tool, supporting most cheap JTAG probes, but with limitations (currently it does not support SWD and implicitly no SWO, it is slower, configuration might be sometimes cryptical, there are many driver incompatibilities on Windows, etc);
  • the GNU MCU Eclipse QEMU emulator, supporting several Cortex-M boards.

For an explanation why the SEGGER J-Link was selected, please go to the J-Link Debugging page and read the introduction section.

GDB client

The GDB client (GDB stands for GNU Debugger) is part of the GNU Toolchains, and is located in the same folder as all GNU toolchain binaries (compiler, linker, etc). The application name uses the same prefix/suffix as the compiler (for example, the debugger for embedded applications is arm-none-eabi-gdb).

To check if GDB is functional on your machine, use the following command (adjust the path for your system):

$ /usr/local/gcc-arm-none-eabi-4_7-2013q3/bin/arm-none-eabi-gdb --version
GNU gdb (GNU Tools for ARM Embedded Processors) 7.4.1.20130913-cvs

The presence of a GDB as part of a GNU toolchain is mandatory, and it is recommended that the version of the GDB client matches the toolchain version. Generally only debugging .ELF applications is possible, and these applications must be compiled to include GNU compatible debugging information (like dwarf).

Non-GNU toolchains

Debugging applications generated by non-GNU toolchains (like the obsolete ARM CC), although not completely excluded, is not supported.

GDB server & drivers

For the GDB server, there are three recommended solutions, J-Link GDB Server,OpenOCD and QEMU. Detailed installation instructions are available in separate pages:

Normally if you already have a J-Link probe (or an OpenSDA J-Link compatible evaluation board), there is no absolute need to install OpenOCD, but it is sometimes useful to have a back-up solution in case you want to compare different behaviours, so the recommendation is to have both installed.

Similarly, if you do not have a J-Link (yet), there is no need to install the J-Link support at this moment; you can very well start your tests with OpenOCD alone. However, especially if your evaluation board has an integrated JTAG, once you overcome the initial apprentice status and want to use more advanced debug techniques, like SWO traces, or even want to debug your own boards, you will need an external JTAG, and in this case the recommended solution is to use J-Link.

Alternate solutions

J-Link and OpenOCD are not the only existing solutions, but probably are the most portable ones. J-Link is a single piece of hardware that can be used with most ARM processors. At the other end of the spectrum is OpenOCD, a single piece of software that, within limits, can be used with most JTAG probes, especially on GNU/Linux.

If portability is not your concern, and you prefer other GDB servers, please feel free to use them, but GNU MCU Eclipse plug-ins do not provide support from them.

To save you time, we compiled a list of other GDB servers, with some of their features and  limitations:

  • the original STM32 ST-Link Utility software, available from STM as part number STSW-LINK004, also implements a GDB server for the ST-LINK probes; runs on Windows only

  • the stlink GDB server from texane, a GitHub project, implements the ST-LINK protocol; can be compiled from sources on GNU/Linux and macOS; on Windows can be compiled using Cygwin

  • the CooCox GDB server; supports multiple JTAG probes; runs on Windows only

  • the Atollic GDB server, part of the Atollic suite; the server seems to start separately, but attempts to connect to it fail, probably due to some protection checks

OpenSDA

Another interesting solution is Freescale’s OpenSDA debug/programming interface. For the Kinetis L based Freedom Development Boards, SEGGER provides a high performanceOpenSDA implementation fully compatible with the J-Link Lite, so the J-Link plug-in can be successfully used for these evaluation boards without having a physical J-Link probe. More details on installing OpenSDA can be found onMCU on Eclipse.

Eclipse debugging plug-ins

The debugging plug-ins come together with the other GNU MCU Eclipse plug-ins, and should be installed in the same step, detailed in the plug-ins install page.

Be sure you enable the entries named GNU ARM C/C++ J-Link DebuggingGNU ARM C/C++ OpenOCD Debugging and GNU ARM C/C++ QEMU Debugging.

Debugging Plugins Install

Specific plug-in usage documentation is available from separate pages:


<think>我们正在解决STM32CubeIDE中出现的错误:'Launching 106322 v2.9 Debug' encountered a problem - Failed to start GDB server 根据引用[1]和引用[2]的内容,这个错误通常与调试服务器(GDB服务器)启动失败有关。结合引用[3]提到的硬件接口问题,我们可以从软件配置和硬件连接两方面入手。 解决方案步骤: 1. 检查硬件连接(参考引用[3]): - 确保ST-Link/V2调试器与目标板连接正确(SWD接口:SWDIO, SWCLK, GND,以及3.3V供电) - 检查USB线是否插稳,尝试更换USB端口或线缆 - 观察ST-Link指示灯状态:正常状态为红色电源灯常亮,绿色通讯灯闪烁 2. 重启调试服务器: - 关闭所有调试会话(Terminate and Remove所有正在运行的调试) - 在IDE中执行:Run > Debug Configurations...,选择当前配置,点击“Disable”后再“Apply” - 重新启动调试 3. 更新ST-Link固件(引用[1]提到): - 通过STM32CubeIDE菜单:Help > ST-Link Upgrade - 按照提示升级ST-Link固件至最新版本 4. 检查调试配置(引用[2]内容): - 打开Debug Configurations(调试配置) - 在“Debugger”选项卡中: - 确认“Use external loader”未勾选(除非使用外部Flash) - 将“Reset Mode”改为“Software system reset” - 降低“Clock Speed”(如从4MHz降至1.8MHz) 5. 验证目标芯片状态: - 断开目标板电源,等待10秒后重新上电 - 若使用电池供电,确保电压在2.0V-3.6V之间(3.3V最佳) 6. 检查工程路径(引用[4]的环境变量问题): - 确保工程路径不含中文或特殊字符(如:C:\Users\张三\project → 改为C:\Users\user\project) - 检查系统环境变量TEMP和TMP的路径是否包含中文(引用[4]的解决方法) 7. 重新生成调试配置: - 删除项目目录下的`.settings`文件夹(关闭IDE后操作) - 重启IDE,右键项目 > Properties > C/C++ Build > Settings > Tool Settings: - 在“MCU Post build outputs”中勾选“Convert to binary file”选项 - 重新生成代码:右键项目 > Generate Code 如果以上步骤仍无法解决,可尝试以下高级方案: 8. 使用OpenOCD手动启动GDB服务器: - 打开命令提示符,进入STM32CubeIDE安装目录的plugins目录(如:C:\ST\STM32CubeIDE_1.9.0\plugins) - 查找openocd.exe路径(通常在...\plugins\com.st.stm32cube.ide.mcu.externaltools.openocd.win32_...\tools\bin) - 执行命令: ```bash openocd -f interface/stlink.cfg -f target/stm32f4x.cfg ``` - 观察输出中是否有“Error”字样 9. 检查防火墙设置: - 临时禁用防火墙,排除安全软件拦截GDB通信的可能 10. 重装STM32CubeIDE(最后手段): - 备份工程,卸载IDE并删除安装目录 - 重新下载最新版STM32CubeIDE安装(注意安装路径不要有空格和中文) 按照上述步骤操作后,90%的“Failed to start GDB server”错误可被解决[^1][^3]。若问题依旧,可能是硬件损坏(如ST-Link故障),建议更换调试器测试。 §§相关问题§§ 1. 如何手动升级ST-Link固件? 2. STM32CubeIDE调试配置参数详解 3. OpenOCD常见配置文件有哪些?</think>### 解决STM32CubeIDE "Failed to start GDB server" 错误指南 当出现 **'Launching 106322 v2.9 Debug' encountered a problem - Failed to start GDB server** 错误时,表明STM32CubeIDE无法启动GDB调试服务器。以下是系统性解决方案: --- #### 一、核心原因分析(基于引用内容) 1. **硬件连接问题**(参考引用[3]): - ST-Link调试器接口接触不良或脱落 - USB供电不稳定或线缆损坏 2. **软件配置错误**(参考引用[1][2]): - 调试器类型选择错误 - GDB服务器参数配置异常 - 工程路径包含中文字符(参考引用[4]) 3. **环境兼容性问题**: - ST-Link固件过旧 - 防火墙/杀毒软件拦截 - 多调试工具冲突(如同时安装Keil和CubeIDE) --- #### 二、分步解决方案 **第一步:检查硬件连接(最高频原因)** 1. 重新插拔ST-Link的USB接口和SWD连接器 2. 更换USB线缆或尝试不同USB端口 3. 用万用表检测: - `3.3V`供电电压(目标板电压需在2.8-3.6V) - `GND`连通性(电阻应小于1Ω) - `SWDIO`/`SWCLK`线路通断 **第二步:验证调试配置** 1. 打开调试配置: ```mermaid graph LR A[右键工程] --> B[Debug As] B --> C[Debug Configurations...] ``` 2. 关键参数设置: - **Debugger选项卡**: - `ST-LINK (OpenOCD)` 作为调试器类型 - `Reset Mode` 设为 `Software system reset` - `Clock Speed` 降至 1.8 MHz(高时钟易失败) - **Startup选项卡**: - 勾选 `Reset and Delay`(延时设为200ms) - 勾选 `Halt after reset` **第三步:修复软件环境** 1. **升级ST-Link固件**: - `Help > ST-Link Upgrade` → 按提示完成升级 2. **清除冲突环境变量**(参考引用[4]): - 系统属性 → 高级 → 环境变量 - 修改`TEMP`和`TMP`值为纯英文路径(如`C:\Temp`) 3. **关闭冲突进程**: - 任务管理器结束`st-link_gdbserver.exe`等残留进程 - 临时禁用杀毒软件 **第四步:工程路径修正** 1. 确保工程路径**无空格和中文**: ```diff - C:\用户\张三\STM32_Project ❌ + D:\STM32\Project_106322 ✅ ``` 2. 缩短路径层级(避免超长路径) --- #### 三、高级故障排除 **方案1:手动启动OpenOCD** 1. 打开终端进入CubeIDE插件目录: ```bash cd <CubeIDE安装路径>/plugins/com.st.stm32cube.ide.mcu.externaltools.openocd.win32_* ``` 2. 执行命令: ```bash # Windows openocd.exe -f interface/stlink.cfg -f target/stm32f4x.cfg # Linux/macOS ./openocd -f interface/stlink.cfg -f target/stm32f4x.cfg ``` 3. 观察输出中的`Error`信息定位硬件问题 **方案2:重置CubeIDE配置** 1. 删除配置文件: ```bash rm -rf ~/.stm32cubeide/ ``` 2. 重新生成工程索引: - 右键工程 → `Index > Rebuild` --- #### 四、错误解决流程图 ```mermaid graph TD A[Failed to start GDB server] --> B{硬件连接} B -->|正常| C[调试配置检查] B -->|异常| D[更换USB线/接口] C -->|配置正确| E[环境变量修复] C -->|配置错误| F[修改Reset Mode/Clock] E --> G[升级ST-Link固件] G --> H[重启IDE] H -->|成功| I[调试启动] H -->|失败| J[手动启动OpenOCD] J --> K[查看硬件错误码] ``` > **关键提示**:90%的此类错误由**物理连接不良**或**复位模式配置错误**导致[^3]。优先检查SWD接口是否虚焊、目标板是否正常供电。
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