Spec Driven Development
MCP Server that facilitates spec-driven development workflows, not just Vibe Coding.
作者提供的说明(英文原文)
AI tools for EasyEDA Pro schematics, PCB placement and routing, SPICE simulation, and DRC.
这三项永远不会合并成一个分数:意见、测量和人气是不同的东西。
我们还没有为它写通俗的介绍。下面是我们从注册中心读取到的事实。
选择你使用的 AI 应用,然后复制设置。
你需要
你用的是哪个应用?
在上方选择你的应用。我们会记住它,下次按钮会显示“安装到 …”。
打开 Claude Desktop → Settings → Developer → Edit Config,把下面的内容粘贴到 claude_desktop_config.json
{
"mcpServers": {
"easyeda-copilot": {
"command": "npx",
"args": [
"-y",
"easyeda-copilot-mcp"
]
}
}
}在终端中运行这条命令
claude mcp add easyeda-copilot -- npx -y easyeda-copilot-mcp粘贴到项目中的 .cursor/mcp.json,或 ~/.cursor/mcp.json
{
"mcpServers": {
"easyeda-copilot": {
"command": "npx",
"args": [
"-y",
"easyeda-copilot-mcp"
]
}
}
}浏览器会先询问是否打开应用,然后应用会显示设置并请你确认。密钥的值会留空,由你自己填写。
粘贴到项目中的 .vscode/mcp.json
{
"servers": {
"easyeda-copilot": {
"type": "stdio",
"command": "npx",
"args": [
"-y",
"easyeda-copilot-mcp"
]
}
}
}浏览器会先询问是否打开应用,然后应用会显示设置并请你确认。密钥的值会留空,由你自己填写。
这个服务器在你的电脑上运行,而 ChatGPT 只能连接互联网上的服务器。请选择其他应用。
你的选择通过 Cookie 保存在这台设备上,无需账户。
这些设置是根据作者在注册中心的条目生成的。如果 README 的写法不同,请以 README 为准。
它在你的电脑上运行;安装后,工具列表会显示在你的 AI 应用中。
我们检查的是任何人都能看到的信息;我们没有阅读代码。不适用的检查项不计入总数。 · 检查于 2026年11月7日
注册名称已通过 GitHub 账户 biosshot 验证,该账户拥有此仓库
我们还没有从 GitHub 读取这个仓库
我们还没有从 GitHub 读取这个仓库
它在你的电脑上运行,没有互联网端点
在你的电脑上运行,改用本地设置
它在你的电脑上运行;我们只能读取互联网端点的工具列表
与注册中心里这个分类中所有活跃的服务器比较。只有当发布者拥有该仓库时,星标数才计入。
它在 1 项适用的基础检查中通过了 1 项。我们没有阅读代码。在添加密钥或令牌之前,请先看看这个服务器要求哪些权限,并使用只具备所需权限的密钥。
注册中心没有列出必需的密钥,不过有些服务器会在首次使用时要求你登录。
它在你的电脑上运行。你的 AI 应用会在需要时启动它,数据不会经过作者的服务器(除非它自己调用在线服务)。
GitHub 仓库最后更新于–,最新版本(1.3.2)于22天前进入注册中心。
支持 MCP 的应用,例如 Claude Desktop、Claude Code、Cursor 和 VS Code。你的电脑上还需要有 Node.js。
同一分类中有:Spec Driven Development, Remote Desktop Commander, Starreel
同一分类中其他作者的服务器,按星标数排序。
如何看卡片:★ GitHub 星标i三大支柱:评价 · 检查 · 使用情况i更新 = 最新版本发布到注册中心的时间i
MCP Server that facilitates spec-driven development workflows, not just Vibe Coding.
Remote Desktop Commander: use files, terminal and processes on your own computers from any AI app.
Turn a script into a finished, downloadable short-drama episode — via MCP or REST.
按原文从作者的仓库复制。PopNx MCP 没有审查或背书其内容。HTML、图片和脚本已被移除。链接会离开本站。
English | 简体中文 | Русский | Español
MCP-based engineering automation for native EasyEDA Pro and JLCEDA documents.
EasyEDA Copilot connects MCP-capable AI agents to real schematic and PCB data. It supports schematic generation and reorganization, component resolution, constraint-driven PCB placement, checkpoint-backed routing transactions, structured design inspection, recovery, and native EasyEDA DRC.
Creating and assembling an LDO schematic from a text specification.
A complete RF design workflow inside EasyEDA Pro: schematic organization, pin-level signal-path constraints, compact component placement, PCB routing, ground planes, and via stitching.
The RF ports are positioned on opposite board edges, the amplifier chain is kept ordered, and the bias network is placed close to the MMIC. The resulting components, tracks, vias, and copper zones remain editable as native EasyEDA objects.
Watch this video
These examples cover larger controller boards and existing-document workflows. Every result remains editable as a normal EasyEDA project rather than being exported as a rendered mockup.
A complete ESP32-C3 controller with power conversion, USB, CAN, RS-485, protected field I/O, external connectors, and antenna placement constraints.
The workflow demonstrates multi-page schematic generation, functional placement, board-edge and antenna constraints, power and signal routing, copper planes, via stitching, inspection, and DRC-driven repair.
Watch the ESP32-C3 workflow (69 seconds)
Watch this video
A dense four-layer microcontroller design demonstrating placement and routing around a high-pin-count MCU, multiple interfaces, decoupling groups, board-edge connectors, mounting holes, and mechanical access constraints.
Watch the MIMXRT1011 workflow (128 seconds)
Watch this video
EasyEDA Copilot reads an existing schematic, identifies functional groups, saves a document checkpoint, and reassembles the page into named blocks while retaining its electrical connectivity and component identities.
Watch schematic beautification (13 seconds)
Watch this video
More editable examples are available on OSHWLab.
Download the latest .eext package from GitHub Releases.
In EasyEDA Pro:
Settings -> Extensions -> Extensions Manager.Import Extensions..eext file.External Interactions.Codex:
codex mcp add easyeda-copilot -- npx -y easyeda-copilot-mcp
Claude Code:
claude mcp add easyeda-copilot -- npx -y easyeda-copilot-mcp
For generic MCP configuration and local builds, see the MCP package documentation.
To use the standalone skill instead of MCP client configuration, build it from this repository. Skill archives are not published in Releases:
npm ci
npm run build:skill cd skill/scripts/runtime npm install --omit=dev
Then install the generated skill/ directory as described in the skill installation guide.
The extension discovers the local MCP bridge automatically. Copilot -> MCP pauses or resumes the connection.
| Area | Capabilities |
|---|---|
| Schematics | Inspect the current page, create and complete circuits, reorganize existing schematics into functional blocks, and annotate designators across multiple pages |
| Components | Resolve EasyEDA components by manufacturer MPN or part UUID |
| PCB placement | Generate board geometry and constraint-driven placement using functional blocks, modules, pin proximity, ordered signal paths, edge placement, keepouts, mounting holes, thermal pads, and preserved objects |
| PCB routing | Define net classes, signal and power nets, copper planes, differential pairs, matched groups, fanout, impedance intent, selective rerouting, and via stitching |
| Inspection | Render layer-aware PCB previews, highlight nets and components, and inspect routed length, track widths, layers, vias, pads, polygons, nearby components, and unrouted connections |
| Verification | Read current DRC rules, run native EasyEDA DRC, inspect violations, and choose whether to keep, repair, or restore an applied result |
| Project control | Inspect project trees, create and open projects or documents, synchronize editors, and select between multiple connected EasyEDA instances |
| Long operations | Monitor, continue, reapply prepared results, or cancel long PCB placement and routing operations |
EasyEDA Copilot uses full-document checkpoints and explicit application boundaries to protect existing engineering work. Changes are previewed, applied to native EasyEDA documents, inspected, and then kept, repaired, or restored.
| Workflow | Protection and recovery behavior |
|---|---|
| Source-based schematic assembly | Saves a full document checkpoint before modification and restores it automatically if assembly fails |
| Schematic beautification | Saves a checkpoint before page replacement and restores it automatically if replacement fails |
| Multi-page annotation | Saves a checkpoint for every affected page and rolls modified pages back if the annotation transaction fails |
| PCB placement | Produces mechanical and final previews, preserves existing board work, and saves a checkpoint before assembly |
| PCB routing | Applies DRC rules, selected copper replacement, new tracks, vias, zones, synchronization, and native DRC inside one checkpoint-backed transaction |
| Routing application failure | Restores the pre-routing checkpoint automatically |
| Manual recovery | Lists, saves, and restores checkpoints explicitly for the current EasyEDA document |
Checkpoints contain the complete EasyEDA document source, not only a list of agent actions. Existing tracks, vias, and copper zones are preserved by default and treated as fixed routing obstacles. Copper is replaced only when a routing program explicitly selects the affected nets and object types through clearRouting(...).
A successfully applied partial routing result remains available
只显示了开头部分;其余内容请在仓库中阅读