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Glovebox MCP

作者:segentic-lab版本 0.3.0i★ –i–
注册名称io.github.segentic-lab/glovebox-mcp

安装

概览

作者提供的说明(英文原文)

Sandboxed computer-use for AI agents: drive real browser + desktop apps in nested X11 windows

PopNx MCP 的三大支柱

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。

它能帮你做什么

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。

  • 连接方式: –
  • 传输方式:
  • 分类: 网页与浏览器

安装

选择你使用的 AI 应用,然后复制设置。

安装之前

  • 基础检查:1 项中通过 1 项
  • 在你的电脑上运行,拥有你的用户账户的权限(文件、网络、应用)。
  • 注册中心没有列出需要填写的密钥。

作者没有在注册中心列出安装信息。请查看下方作者的 README。

它能做什么

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。

基础检查i

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9日

  • ✓ 通过

    作者与仓库一致

    注册名称已通过 GitHub 账户 segentic-lab 验证,该账户拥有此仓库

  • … 尚未检查

    仍在维护

    我们还没有从 GitHub 读取这个仓库

  • … 尚未检查

    有许可证

    我们还没有从 GitHub 读取这个仓库

  • – 不适用

    端点有响应

    它在你的电脑上运行,没有互联网端点

  • – 不适用

    使用 OAuth 登录

    在你的电脑上运行,改用本地设置

  • … 尚未检查

    工具描述中没有隐藏指令

    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“网页与浏览器”中的其他服务器比较i

  • 星标数多于此分类中其他 1387 个服务器的 0%
  • 发布到注册中心的时间比此分类中其他 1387 个服务器的 83% 更新
  • 基础检查结果等于或优于此分类中其他 1387 个服务器的 100%

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。

常见问题

Glovebox MCP 安全吗?

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。

它需要哪些密钥或代码?

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。

它在我的电脑上运行还是在云端?

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)。

它还在维护吗?

GitHub 仓库最后更新于–,最新版本(0.3.0)于7天前进入注册中心。

哪些应用可以使用它?

支持 MCP 的应用,例如 Claude Desktop、Claude Code、Cursor 和 VS Code。

有什么可以替代它?

同一分类中有:Browser Use, Chrome DevTools MCP, MCP Server Browser

替代选择

同一分类中其他作者的服务器,按星标数排序。

如何看卡片:↓ 每周下载量i★ 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

Browser Use

Browser agents and stealth cloud browsers for AI: run web tasks, fill forms, extract data.

作者:browser-use广泛使用↓ 155.2万/周★ 12万19天前更新

电脑或云端✓ browser-use.com

Chrome DevTools MCP

MCP server for Chrome DevTools

作者:ChromeDevTools广泛使用↓ 188.4万/周★ 5.5万17天前更新

在你的电脑上运行

MCP Server Browser

MCP server for browser use access

作者:bytedance广泛使用↓ 792/周★ 4万14个月前更新

在你的电脑上运行

作者的 README

打开 README

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。

glovebox-mcp

A sandboxed computer-use MCP server — let an AI agent drive a real browser and desktop apps (mouse, keyboard, screenshots, clipboard, vision grounding), confined to a nested X11 window so its input and vision never touch your real screen or the windows of your other apps.

Like a lab glovebox: the agent reaches in and manipulates real applications, sealed off from your desktop. Bring the sandbox up, log into whatever sites or apps you want to automate *inside that window*, and the agent operates only there — you can watch it live and close it instantly.

Speaks the Model Context Protocol, so it works with MCP clients

like Claude Code. Your host can run Wayland; the sandbox gives the agent a real X server to drive.

An agent driving a real browser in the sandbox — gliding the cursor, inserting a unicode name (Nadja Kovačič), typing, and submitting. All confined to a nested X11 window.

Why a nested X11 sandbox?

  • Most desktop automation (xdotool, PyAutoGUI) is X11-only, but many modern desktops run Wayland.
  • Xephyr provides a real X server *inside a single window* (DISPLAY :1). Everything the agent does — clicks, typing, screenshots — is confined to that window, not your real desktop.
  • You stay in control: watch it live, pkill Xephyr to close everything.

The isolation is display-level (see Safety): the apps themselves run as your user with your filesystem. For OS-level isolation run glovebox inside a VM or container.

Requirements

  • Linux — the sandbox nests a real X server (Xephyr), so it works even on Wayland hosts (via Xwayland). Not macOS/Windows. Developed on Ubuntu; any modern Linux with the packages below.
  • Python 3.10+ and uv (used for the virtualenv).
  • System packages — xserver-xephyr (Xephyr), openbox, scrot, x11-utils, xdotool, wmctrl, xclip (+ tesseract-ocr for basic). On Debian/Ubuntu the installer auto-installs them via apt (sudo); on Fedora/Arch it prints the matching dnf/pacman command. The MCP server itself is distro-agnostic — any Linux with these tools works. openbox is not optional in practice: without a window manager Xephyr ignores synthetic pointer motion, so clicks would land in the screen center (launch_app warns when it is missing).
  • A browser in the sandbox (Chromium, Chrome, Brave, Edge, Vivaldi or Opera).
  • NVIDIA GPU (≥6 GB VRAM) — only for the local vision mode. The server checks this itself (status() → vision.gpu) and auto falls back to basic/none when it is not met.

Install

Pick a vision backend and run its one-liner (clone → install). Each one installs the system packages (auto via apt on Debian/Ubuntu) and the Python deps for that mode, and writes a ready-to-paste mcp-config.json with your paths.

`none` — no local models; your agent reads screenshots itself (lightest, instant):

git clone https://github.com/segentic-lab/glovebox-mcp && cd glovebox-mcp && ./install.sh none

`basic` — Tesseract OCR grounding (parse_screen → text lines + coordinates, CPU-only):

git clone https://github.com/segentic-lab/glovebox-mcp && cd glovebox-mcp && ./install.sh basic

`local` — OmniParser on an NVIDIA GPU (parse_screen → text + icons, pixel-precise; ~4 GB weights, ≥6 GB VRAM):

git clone https://github.com/segentic-lab/glovebox-mcp && cd glovebox-mcp && ./install.sh local

Your choice is written to .vision-mode (override per run with the GLOVEBOX_VISION env var). Without either, the server runs in `auto` and picks the best backend that is actually usable. python vision.py check prints the same diagnosis status() returns (GPU, weights, tesseract).

Works with any MCP client / harness

Claude Code, Cursor, Codex, or your own agent — it's a standard MCP server, not tied to any one host. Two compatibility notes: `basic`/`local` return element coordinates as text, so they work even with text-only agents; `none` relies on the client passing the tool's screenshots to a multimodal model (fine for Claude Code, Cursor, and other image-capable MCP clients). In any mode, clipboard() gets exact text out of an app without vision at all.

Quickstart

  1. Start the sandbox (leave it running):
   ./start-display.sh              # 1440×900 Xephyr window with a browser

./start-display.sh 1920x1080 # …or pass a screen size (or set $RES)

   Log into any sites or apps you want to automate **in that window**.
  1. Register the server with your MCP client. install.sh already wrote `mcp-config.json` with your real install path — copy its glovebox block into your client's MCP config:
   { "mcpServers": { "glovebox": {

"command": "/abs/path/to/glovebox-mcp/.venv/bin/python", // filled in by install.sh "args": ["/abs/path/to/glovebox-mcp/server.py"], "env": { "DISPLAY": ":1" } } } }

   Restart the client so it loads the server.
  1. Ask the agent to screenshot / click / type — it operates only on the :1 window.

Driving it with an AI agent? Paste AGENTS.md into the agent's system prompt — it

teaches the observe → act → verify loop, grounding, the upload/unicode gotchas, and when to stop.

Tools (23)

ToolWhat
status()Server + sandbox status in one read-only call: version, the vision diagnosis (requested vs. effective backend and *why*, GPU name/VRAM, OmniParser code/weights, tesseract languages), live instances, and which system deps are present. Run it first — and paste it into bug reports.
screenshot(instance, region?, scale?, format?)[json, image]. region="x,y,w,h" zooms into a rectangle, scale=0.5 shrinks, format="jpeg" compresses — cut payload or read small text.
parse_screen(instance, granularity?)Vision grounding → JSON of detected elements (id, type, label, interactive, pixel-center; capped at 300 per call, flagged via "truncated") + a numbered Set-of-Mark image. basic merges OCR words into lines ("Sign in" = one target; granularity="word" for single words).
click_element(id)Click an element from the last parse_screen (no coordinate guessing).
click(x,y) · double_click · move_mouse · scroll · drag(…, steps?)Pointer ops. Coordinates outside the display are rejected (xdotool would silently clamp them). drag emits intermediate motion events so canvases and sliders register it.
type_text(text)Unicode-safe typing (ASCII via xdotool; anything with č/š/ž… is inserted via the clipboard, because xdotool's synthetic unicode is silently dropped by some GTK apps).
press_keys("ctrl+a" / "Return" / "ctrl+a Delete")Keys, combos, and space-separated sequences (xdotool syntax). Invalid names error — nothing is pressed.
`clipboard(action="get"\"set", text?)`Read the instance's clipboard (select + ctrl+c, then read exact text — no OCR) or set it (then ctrl+v). Per-instance.
wait_for_stable(instance, timeout_ms?, threshold?)Wait until the screen stops changing (page loaded, app drew) instead of guessing a delay. Reports stable/timed_out honestly.
window_info(instance)Active window title + geometry and the visible windows — confirm navigation or that an app opened, without an image.
upload_file(filepath, selector?, page_url_contains?)Attach a local file to a page's via the Chrome DevTools Protocol. The nested X11 file picker is invisible to automation and hangs the renderer, so use this for all uploads — never click an upload button expecting a dialog. Works on Chromium-family browsers started by launch_app/start-display.sh (per-instance --remote-debugging-port, 9222+N). Browser file inputs only — for native apps see open_file.
open_file(filepath, app?)Open a local file in a native app on the instance's display (e.g. app="gimp") or via xdg-open. Fails honestly if the handler exits immediately (no app registered for that type).
list_files()The instance's staging folder files/ / + entries with size, mtime and a partial flag for in-progress downloads.
app_log(instance, lines?)Tail of the launched app's stderr — read it when an app crashed or drew nothing.
launch_app(command, name?, size?) · list_instances() · close_instance(n)Multi-instance control (see below).
wait_ms(ms) · get_screen_size()Timing / sandbox size + effective vision backend.

Every control tool takes `instance=N` and optional `observe` / `settle_ms` (see below). In local mode OmniParser is lazy-loaded on first parse_screen (~6 s once, then ~2 s/parse), after a GPU preflight (VRAM present and free).

Structured, honest responses

Every tool returns JSON: {"ok": true, "action": "click", "instance": 1, "detail": "clicked (10,20) button 1", …}. Failures come back with the MCP isError flag set and the same JSON shape embedded in the error text — {"ok": false, "error": "…", "fix": "…"} — where `fix` names the call that unblocks you (e.g. a click on a dead instance says to run list_instances() / launch_app(); an unknown element id says to re-run parse_screen(); a GPU that is too small says which mode to switch to). Silent no-ops are treated as failures too: an invalid keysym, a zero scroll, an off-screen click, closing an instance that isn't running, an app that exits on launch, or non-ASCII typing without xclip all error instead of pretending success. Clamped waits are flagged (clamped / settle_clamped). Image-returning calls (screenshot(), observe="screenshot"|"parse") return [json, image]. No subprocess can hang a call: xdotool/xdpyinfo/xclip run under timeouts and a frozen display is reported as such.

Vision backend (selectable, self-diagnosing)

GLOVEBOX_VISION env var, or the .vision-mode file, or default `auto`:

Modeparse_screenNeedsWhen
autothe best ready backend below (local → basic → none); status() says which and why—default
nonedisabled (returns a note) — use screenshot() + reason, clipboard() for exact textnothing (mcp, mss, xdotool)lightest; let the agent's own vision do grounding
basicTesseract OCR → text lines + coords (+ confidence)tesseract-ocr + pytesseractno GPU; text-only grounding
localOmniParser → text + icons + coordstorch + CUDA + OmniParser weights + NVIDIA GPU ≥ 6 GBbest grounding

In local mode the models are loaded by one shared vision-service process per machine (vision_service.py), not by every agent's server: the first parse_screen starts it, parallel agents queue on it (queued_ms in the result), and it exits after 15 idle minutes so a forgotten service never pins the GPU. If it can't be reached the server loads the models in-process instead — the service is an optimization, never a new failure mode. status() shows it under vision.omniparser.service; python vision_service.py status|stop from the shell.

An explicitly requested basic/local that is not usable fails `parse_screen` with the fix named (OmniParser not installed, no/too-small GPU, GPU out of memory, missing tesseract language data) — it never silently falls back; only auto does, and it says so. Tesseract languages default to slv+eng filtered to what is installed (GLOVEBOX_TESS_LANG overrides). Switch anytime with ./install.sh (installs only what that mode needs).

Multi-instance (a fleet of app windows)

Every control tool takes `instance=N` (default 1 = the start-display.sh sandbox). Sp

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