name: build-338q-fpv on: # pull_request: # branches: # - master # push: # branches: # - master # schedule: # - cron: '0 8 * * *' workflow_dispatch: env: TAG_NAME: openipc-ssc338q-fpv # 固件版本标签，默认为 'latest' TG_TOKEN: ${{secrets.TELEGRAM_TOKEN_BOT_OPENIPC}} # Telegram Bot Token，从 GitHub Secrets 中获取 TG_CHANNEL: ${{secrets.TELEGRAM_CHANNEL_OPENIPC_DEV}} # Telegram Channel，从 GitHub Secrets 中获取 TG_OPTIONS: -s -o /dev/null -w %{http_code} # Telegram 发送消息的 curl 参数 jobs: buildroot: name: Firmware # 构建固件的任务 runs-on: ubuntu-latest # 使用最新的 Ubuntu 环境 strategy: fail-fast: false # 设置为 false，允许多平台并行构建失败时不中断其他构建 matrix: include: - {"platform": "ssc338q", "release": "fpv"} # 仅编译 ssc338q 平台的 fpv 固件 steps: # 步骤 1: 检出代码 - name: Checkout source uses: actions/checkout@v4 # 步骤 2: 设置 ccache（用于加速编译） - name: Setup ccache if: github.event_name != 'pull_request' # 非 pull_request 事件时启用缓存 uses: actions/cache@v4 with: path: /tmp/ccache # 设置 ccache 存放路径 key: ${{matrix.platform}}_${{matrix.release}} # 缓存的键值，使用平台和版本区分 # 步骤 3: 恢复 ccache（在 PR 事件时使用缓存） - name: Restore ccache if: github.event_name == 'pull_request' # 只有在 pull_request 事件时才恢复缓存 uses: actions/cache/restore@v4 with: path: /tmp/ccache # 缓存路径 key: ${{matrix.platform}}_${{matrix.release}} # 缓存的键值 # 步骤 4: 下载和准备依赖文件 - name: Download files run: | echo "8.8.8.8 invisible-mirror.net" | sudo tee -a /etc/hosts # 添加 DNS 配置 echo "8.8.8.8 distfiles.dereferenced.org" | sudo tee -a /etc/hosts # 添加 DNS 配置 make prepare # 准备构建所需的文件 git clone https://github.com/openipc/br-cache # 克隆 br-cache 仓库 ln -s ${GITHUB_WORKSPACE}/br-cache $(ls -d output/buildroot-*)/dl # 创建软链接 #修改源码 rm -rf ${GITHUB_WORKSPACE}/br-cache/msposd sed -i 's|MSPOSD_SITE = $(call github,openipc,msposd,$(MSPOSD_VERSION))|MSPOSD_SITE = https://github.com/longcat99/msposd/archive/refs/heads|' ${GITHUB_WORKSPACE}/general/package/msposd/msposd.mk sed -i 's|MSPOSD_VERSION = HEAD|MSPOSD_SOURCE = main.tar.gz|' ${GITHUB_WORKSPACE}/general/package/msposd/msposd.mk # rm -rf ${GITHUB_WORKSPACE}/br-cache/zerotier-one # sed -i 's|ZEROTIER_ONE_VERSION = 1.14.1|ZEROTIER_ONE_VERSION = 1.14.2' ${GITHUB_WORKSPACE}/general/package/zerotier-one/zerotier-one.mk make BOARD=${{matrix.platform}}_${{matrix.release}} br-source # 获取构建源文件 # 步骤 5: 编译固件 - name: Build firmware run: | export GIT_HASH=$(git rev-parse --short ${GITHUB_SHA}) # 获取当前 Git 提交的短 hash export GIT_BRANCH=${GITHUB_REF_NAME} # 获取当前分支名称 echo GIT_HASH=${GIT_HASH} >> ${GITHUB_ENV} # 将 Git hash 写入环境变量 echo GIT_BRANCH=${GIT_BRANCH} >> ${GITHUB_ENV} # 将 Git 分支写入环境变量 mkdir -p /tmp/ccache # 创建 ccache 缓存目录 ln -s /tmp/ccache ${HOME}/.ccache # 将缓存目录链接到用户的 ccache 配置目录 make BOARD=${{matrix.platform}}_${{matrix.release}} all # 编译固件 TIME=$(date -d @${SECONDS} +%M:%S) # 计算编译时间 echo TIME=${TIME} >> ${GITHUB_ENV} # 将编译时间写入环境变量 # 设置固件路径 NORFW=${GITHUB_WORKSPACE}/output/images/openipc.${{matrix.platform}}-nor-${{matrix.release}}.tgz if [ -e ${NORFW} ]; then echo NORFW=${NORFW} >> ${GITHUB_ENV} fi NANDFW=${GITHUB_WORKSPACE}/output/images/openipc.${{matrix.platform}}-nand-${{matrix.release}}.tgz if [ -e ${NANDFW} ]; then echo NANDFW=${NANDFW} >> ${GITHUB_ENV} fi UIMAGE=${GITHUB_WORKSPACE}/output/images/uImage.ssc338 if [ -e ${UIMAGE} ]; then echo UIMAGE=${UIMAGE} >> ${GITHUB_ENV} fi ROOTFS=${GITHUB_WORKSPACE}/output/images/rootfs.squashfs.ssc338q if [ -e ${ROOTFS} ]; then echo ROOTFS=${ROOTFS} >> ${GITHUB_ENV} fi # 步骤6 列出 output/images 目录的内容 - name: ls tar run: | echo "Listing output/images contents:" ls -lh ${GITHUB_WORKSPACE}/output/images/ # 定义 TAR 文件路径 TAR_FILE=${GITHUB_WORKSPACE}/output/images/longcat-openipc.${{matrix.platform}}-${{matrix.release}}.tgz # 创建临时目录并复制所有文件 TEMP_DIR=$(mktemp -d) cp -r ${GITHUB_WORKSPACE}/output/images/* ${TEMP_DIR} # 在临时目录中执行打包 tar -czvf ${TAR_FILE} -C ${TEMP_DIR} . # 清理临时目录 rm -rf ${TEMP_DIR} # 设置打包后的路径 echo TAR_FILE=${TAR_FILE} >> ${GITHUB_ENV} # 步骤 7: 上传固件 - name: Upload firmware # if: github.event_name != 'pull_request' # 仅在 push 事件时上传 uses: softprops/action-gh-release@v2 # 使用 GitHub Actions 的 release 上传插件 with: tag_name: ${{env.TAG_NAME}} # 使用定义的 TAG_NAME（默认为 latest） files: | ${{env.NORFW}} ${{env.NANDFW}} ${{env.UIMAGE}} ${{env.ROOTFS}} ${{env.TAR_FILE}} # 步骤 8: 发送 Telegram 通知 - name: Send binary if: github.event_name != 'pull_request' && env.NORFW # 仅在 push 且存在 NORFW 文件时发送通知 run: | TG_MSG="Commit: ${GIT_HASH}\nBranch: ${GIT_BRANCH}\nTag: ${TAG_NAME}\nTime: ${TIME}\n\n" # 设置 Telegram 消息内容 TG_ICON="\xE2\x9C\x85 GitHub Actions" # 设置消息图标 TG_HEADER=$(echo -e ${TG_MSG}${TG_ICON}) # 拼接消息内容和图标 HTTP=$(curl ${TG_OPTIONS} -H "Content-Type: multipart/form-data" -X POST https://api.telegram.org/bot${TG_TOKEN}/sendDocument -F chat_id=${TG_CHANNEL} -F caption="${TG_HEADER}" -F document=@${NORFW}) # 发送到 Telegram echo Telegram response: ${HTTP} # 输出 Telegram 响应信息 # 步骤 9: 发送错误通知 - name: Send error if: github.event_name != 'pull_request' && failure() # 仅在构建失败时发送错误通知 run: | TG_WARN="Error: ${{matrix.platform}}_${{matrix.release}}\n" # 错误提示 TG_MSG="Commit: ${GIT_HASH}\nBranch: ${GIT_BRANCH}\nTag: ${TAG_NAME}\n\n" # 错误消息内容 TG_ICON="\xE2\x9A\xA0 GitHub Actions" # 错误消息图标 TG_HEADER=$(echo -e ${TG_WARN}${TG_MSG}${TG_ICON}) # 拼接错误消息 HTTP=$(curl ${TG_OPTIONS} -H "Content-Type: multipart/form-data" -X POST https://api.telegram.org/bot${TG_TOKEN}/sendMessage -F chat_id=${TG_CHANNEL} -F text="${TG_HEADER}") # 发送到 Telegram echo Telegram response: ${HTTP} # 输出 Telegram 响应信息