Proporciona a los agentes de IA un control estructurado sobre escritorios Linux mediante árboles de accesibilidad semántica, gestión de ventanas y síntesis de entrada.
También conocido como agent-sh/computer-use-linux, @agent-sh/computer-use-linux
- Stars
- 871
- Herramientas
- 3
- Descargas, 30 días
- 11.606
- Última versión
- —
- Último commit
- 13 nov 2026
- Licencia
- MIT
¿Qué es computer-use-linux MCP?
computer-use-linux es un MCP server. Proporciona a los agentes de IA un control estructurado sobre escritorios Linux mediante árboles de accesibilidad semántica, gestión de ventanas y síntesis de entrada. Expone 3 herramientas, como screenshot_after, screenshot_file_path, include_tree.
Resumen generado a partir del README del proyecto
Acerca del MCP server de computer-use-linux
Este servidor permite dar a los agentes de IA un control estructurado sobre un escritorio Linux mediante árboles de accesibilidad semántica y la gestión de ventanas con conocimiento del compositor. Ofrece una forma de que los agentes interactúen con entornos como GNOME, KDE Plasma, Hyprland y Sway utilizando herramientas para la síntesis de entrada y la gestión de ventanas. A diferencia de muchos servidores de control de escritorio que dependen de un simple OCR o de controladores exclusivos para X11, este servidor es compatible con Wayland a través de protocolos como wlr-layer-shell y /dev/uinput.
Los desarrolladores pueden integrar esto con varios clientes, incluyendo Claude Code, Codex CLI, Pi Coding Agent y Hermes Agent. El servidor ofrece herramientas para listar ventanas, realizar capturas de pantalla delimitadas y ejecutar acciones semánticas como hacer clic o establecer valores en elementos de la interfaz de usuario específicos. También incluye una herramienta de diagnóstico llamada doctor para verificar la preparación del sistema y comandos de configuración para habilitar puentes de accesibilidad o extensiones de gestión de ventanas. Esto permite que un agente se dirija a procesos específicos, como una terminal que ejecuta una suite de pruebas, en lugar de depender únicamente de coordenadas de píxeles.
Qué puedes hacer con él
- 1Automatizar flujos de trabajo de aplicaciones de escritorioUn agente puede interactuar con el software utilizando selectores semánticos como el rol o el nombre en lugar de simplemente hacer clic en píxeles.
- 2Gestionar múltiples ventanas abiertasUn desarrollador puede asignar a una IA la tarea de buscar y enfocar una aplicación o ventana de terminal específica.
- 3Verificar la compatibilidad del sistemaLos usuarios pueden comprobar si su configuración específica de Linux está lista para el control por IA con un solo comando.
- 4Realizar entrada de texto precisaEl agente puede escribir texto en ventanas o terminales específicas utilizando varios métodos de entrada compatibles con Wayland y X11.
Escrito a partir del README del proyecto. Cada caso de uso se verifica con una cita del mismo.
Cómo instalar computer-use-linux MCP
Formatos verificados el 10 nov 2026Añadir a CursorAñadir a GooseInstalar computer-use-linux MCP en Claude Code
$ claude mcp add computer-use-linux -- npx -y @agent-sh/computer-use-linuxInstalar computer-use-linux MCP en Cursor
~/.cursor/mcp.json
{
"mcpServers": {
"computer-use-linux": {
"command": "npx",
"args": [
"-y",
"@agent-sh/computer-use-linux"
]
}
}
}Instalar computer-use-linux MCP en VS Code
.vscode/mcp.json
{
"servers": {
"computer-use-linux": {
"type": "stdio",
"command": "npx",
"args": [
"-y",
"@agent-sh/computer-use-linux"
]
}
}
}Instalar computer-use-linux MCP en VS Code CLI
$ code --add-mcp '{"name":"computer-use-linux","type":"stdio","command":"npx","args":["-y","@agent-sh/computer-use-linux"]}'Instalar computer-use-linux MCP en Claude Desktop
claude_desktop_config.json
{
"mcpServers": {
"computer-use-linux": {
"command": "npx",
"args": [
"-y",
"@agent-sh/computer-use-linux"
]
}
}
}Instalar computer-use-linux MCP en Codex
$ codex mcp add computer-use-linux -- npx -y @agent-sh/computer-use-linuxInstalar computer-use-linux MCP en Codex config.toml
~/.codex/config.toml
[mcp_servers.computer-use-linux] command = "npx" args = ["-y", "@agent-sh/computer-use-linux"]
Instalar computer-use-linux MCP en Gemini CLI
$ gemini mcp add -s user computer-use-linux npx -- -y @agent-sh/computer-use-linuxInstalar computer-use-linux MCP en Gemini settings.json
~/.gemini/settings.json
{
"mcpServers": {
"computer-use-linux": {
"command": "npx",
"args": [
"-y",
"@agent-sh/computer-use-linux"
]
}
}
}Herramientas de computer-use-linux MCP 3
Detectado desde el READMEscreenshot_afterscreenshot_file_pathinclude_tree
| screenshot_after | — | |
| screenshot_file_path | — | |
| include_tree | — |
Verificaciones automáticas
Ejecutado 12 nov 2026Informe completo →Pasó nuestras verificaciones automáticas. Esto no es una auditoría de seguridad: lee el código y dale al servidor el acceso más limitado que necesite. Cómo funcionan las verificaciones
- Repositorio de origen vinculado y accesibleAprobado
- Licencia de código abierto (OSI)Aprobado
- Commit o lanzamiento en el último añoAprobado
- El nombre del paquete no es similar a un paquete popularAprobado
- El endpoint remoto usa HTTPSNo verificado
- Las herramientas destructivas están etiquetadasAprobado
- Sin instrucciones ocultas para el modeloAprobado
- No hay avisos críticos en el paquete ni en sus dependenciasNo verificado
README
Ver en GitHubRunning open models for your company? Tiyuvta helps with model choice, deployment and optimization, and fine-tuning on your hardware or cloud account.
computer-use-linux gives AI agents real, structured control of a local Linux desktop: semantic AT-SPI accessibility trees, bounded screenshots, compositor-aware window targeting, Wayland/X11 input synthesis, and single-round-trip post-action verification across GNOME, KDE Plasma/KWin, Hyprland, niri, COSMIC, i3, Sway, labwc and other wlroots compositors, and X11/EWMH, plus a click-through on-screen activity indicator on GNOME and on Wayland compositors with wlr-layer-shell.
Quick start
Pick the setup that matches your agent or shell workflow:
| Host / workflow | Install command |
|---|---|
| Claude Code (plugin + skill) | claude plugin marketplace add agent-sh/computer-use-linux && claude plugin install computer-use-linux@computer-use-linux |
| Codex CLI (plugin + skill) | codex plugin marketplace add agent-sh/computer-use-linux && codex plugin add computer-use-linux@computer-use-linux |
| Pi Coding Agent (native lazy-loaded tools) | pi install npm:@agent-sh/computer-use-linux |
| Hermes Agent (CLI + skill + MCP server) | npm install -g @agent-sh/computer-use-linux && hermes skills tap add agent-sh/computer-use-linux && hermes skills install agent-sh/computer-use-linux/computer-use-linux && hermes mcp add computer-use-linux --command computer-use-linux --args mcp |
| CLI + any stdio MCP client (npm) | npm install -g @agent-sh/computer-use-linux |
| CLI + system setup from source | git clone https://github.com/agent-sh/computer-use-linux && cd computer-use-linux && ./install.sh |
Rust crate (crates.io) |
cargo install computer-use-linux |
Verify desktop readiness from the shell (after installing the CLI on PATH via npm install -g @agent-sh/computer-use-linux, ./install.sh, or cargo install computer-use-linux):
computer-use-linux doctor | jq .readiness
computer-use-linux setup # enable AT-SPI accessibility bridge if needed
computer-use-linux setup-window-targeting # install GNOME Wayland window-control extension if needed
Plugin-only or Pi-only installs: The Claude Code / Codex plugin launcher and
pi installmanage private cached binaries and do not addcomputer-use-linuxtoPATH. Either run the MCPdoctor/setup_accessibility/setup_window_targetingtools (orcomputer_use_linux_doctorin Pi) directly from your agent, or also install the CLI above when you want shell subcommands onPATH.
The Rust crate is published as computer-use-linux and the npm package as @agent-sh/computer-use-linux. Prebuilt x86_64 and aarch64 Linux binaries ship with the latest release. They need glibc 2.28 or newer: RHEL 8 and its rebuilds, Debian 10, Ubuntu 20.04, and anything later. On an older system, build from source with cargo install computer-use-linux.
Need an isolated desktop where the agent never touches your real mouse, keyboard, or focused window? Use the sibling project
agent-workspace-linuxalongside this one.
What this is
computer-use-linux is a Rust MCP server and CLI for Linux desktop control. It ships three binaries: the main computer-use-linux server/CLI, the computer-use-linux-cosmic Wayland toplevel helper for COSMIC, and the computer-use-linux-indicator click-through activity overlay. Any MCP host (Claude Code, Codex CLI, Codex Desktop's Linux build, Pi Coding Agent, Hermes Agent, Claude Desktop, or your own client) can spawn it to inspect accessibility trees, list and focus windows, take screenshots, click, drag, scroll, type, and invoke semantic accessibility actions.
Most computer-use MCP servers are macOS-only (they lean on AppKit, AXUIElement, CGEvent). The few that target Linux either drive xdotool against an X11 root window or shell out to OCR over screenshots. It differs in five ways:
- Wayland actually works. On Wayland, pointer actions use
/dev/uinputororg.freedesktop.portal.RemoteDesktop. ydotool sends only untargeted wheel events there, and a coordinate action with neither route is refused. Literal text prefers KDE clipboard integration on Plasma,wtypeon compatible Wayland compositors, and portal keysyms on other Wayland sessions, including GNOME with ydotool installed. Portal text startup or conversion errors fail the call without replaying text through ydotool. Raw ydotool text accepts printable ASCII, tab and newline only, and its physical US key positions can produce different text under the active layout. Screenshots use the GNOME Shell DBus screenshot method when present,org.freedesktop.portal.Screenshototherwise, then on a native X11 session a root-windowGetImage(device pixels, no toolkit scaling), and finally spawngnome-screenshotfor background/systemd contexts where the DBus paths are denied. - Window targeting is compositor-aware. The window registry tries GNOME Shell extension, GNOME Shell Introspect, COSMIC Wayland helper, KWin DBus scripting, Hyprland
hyprctl, the niri IPC socket, i3 IPC, labwc'slabwc.sock, wlr-foreign-toplevel-management, and generic X11/EWMH in order, then reports exactly which backend won or why each backend failed. Terminal windows are enriched with their controlling TTY and foreground process so agents can target "the terminal runningpytest" directly. Everywindow_idfits JavaScript's exact integer range (at most 2^53-1), so JSON clients can pass it back unchanged; a larger value is rejected with a prompt to re-runlist_windows. - Semantic selectors first, pixel coordinates when needed. Tools like
click,perform_action, andset_valueacceptrole/name/text/statesselectors orelement_indexvalues backed by AT-SPI, and every mutating tool can return a post-action screenshot and updated accessibility tree in the same round trip. Pixel coordinates remain available for rendering-only surfaces (canvas, games, X clients without ATK). - Visible to humans, invisible to screenshots. While an agent acts,
computer-use-linux-indicatorrenders a click-through overlay with a per-agent cursor glide, click ripple, keycaps/typing banner, screen-edge glow, and status pill, and hides automatically under a shared capture lock before any screenshot is read. - One JSON readiness report.
computer-use-linux doctorreturns a structured document covering platform, portals, AT-SPI, windowing, input, and areadinesssummary with explicit blockers and a recommended next step. MCP hosts can render or surface that to the user without parsing prose.
The crate was extracted from codex-desktop-linux (the Linux distribution of Codex Desktop), which bundles this backend for its native Computer Use feature. This standalone repo is the upstream.
MCP tools & features
| Category | Tool | What it does |
|---|---|---|
| Diagnostics & setup | doctor |
Single-shot JSON readiness report (platform, portals, accessibility, windowing, input, readiness summary, and capability map). |
setup_accessibility |
Enables and verifies GNOME's org.gnome.desktop.interface toolkit-accessibility setting so toolkit apps expose AT-SPI trees. |
|
setup_window_targeting |
Installs and enables the bundled GNOME Shell extension. GNOME Wayland needs it for exact window activation and move/resize; every GNOME session needs it for the on-screen indicator. | |
| Discovery & observation | get_app_state |
Combined screenshot + compacted AT-SPI accessibility tree with stable element_index handles. Scope with app_name_or_bundle_identifier or a window target (window_id, pid, app_id, wm_class, title). |
get_tree_page |
Page through the latest cached tree by node offset, for trees too large to return inline when the host cannot read the spill file. Pass snapshot_id to refuse a page from a tree a later snapshot replaced. |
|
screenshot |
Bounded PNG or JPEG capture of the full desktop (full_screen: true or no target) or a raised and cropped target window (window_id, pid, app_id, wm_class, title, raise_window). |
|
list_windows |
Compositor windows with window_id, title, app_id, wm_class, PID, focus state, client type (wayland/x11), bounds, and terminal TTY/process metadata. |
|
focused_window |
The window currently holding keyboard focus. | |
list_apps |
Running desktop applications visible to the AT-SPI registry. | |
| Input | click |
Click by element_index, semantic selector (role/name/text/states), or desktop/window-relative coordinates (left/right/middle, click_count). |
drag |
Desktop coordinate drag from (start_x, start_y) to (end_x, end_y). |
|
scroll |
Page-based vertical/horizontal scroll on an element, window, or pixel coordinate. | |
press_key |
Single keys or chords (Ctrl+L, Alt+F4, Return), optionally focusing a target window or terminal first. |
|
type_text |
Literal text entry, optionally targeted at a window or terminal (tty, terminal_pid, terminal_command, terminal_cwd). |
|
| Semantic actions | perform_action |
Invoke any AT-SPI action exposed by an element (Press, Activate, Toggle, Jump, …); defaults to the primary action. |
set_value |
Write directly to a settable accessibility element (text fields, sliders, spinners). | |
| Window management | activate_window |
Focus a window by window_id, pid, app_id, wm_class, title, or terminal selectors. |
move_window / resize_window |
Reposition or resize a window in desktop coordinates (GNOME Shell extension and X11/EWMH backends). | |
| Opt-in host tools | complete_interaction |
Parameter-free desktop completion notification (notify-send); registered only when COMPUTER_USE_LINUX_NOTIFY_ON_COMPLETE=1. |
run_shell |
Bounded non-login /bin/sh -c execution; registered only when COMPUTER_USE_LINUX_ENABLE_SHELL=1 (absent by default). |
Every tree result carries a snapshot_id: get_app_state, an include_tree observation, and get_tree_page. The server caches one tree, and each new tree replaces it. Pass the snapshot_id with an element_index (or a selector, except on scroll) to click, scroll, perform_action or set_value, and to get_tree_page: if a later tree replaced that snapshot, the call is refused before any window is raised or input is sent, since the index could name another element by then. A full capture-space x/y point does not come from the tree, so it is not checked. A coordinate_space: "atspi" click maps through its element, so it is checked. Without snapshot_id, the element resolves in the latest tree. An element_identifier names the AT-SPI object itself and is not checked against a snapshot. Ids differ between server processes, so an id from before a restart is refused.
click, scroll, perform_action, and set_value take an optional app target (pid, window_id, app_id, wm_class, window_title). With one, an element_index (or a selector, where the tool takes one) from another app's get_app_state snapshot is refused; call get_app_state for the target app first. When the window backend reports no pid for a target window (i3 without xprop, COSMIC, other wlroots compositors), the snapshot must have been taken for that window, or the call is refused. perform_action and set_value do not focus the target window. An element_identifier is refused when its owner on the accessibility bus is a different pid than the target; it is not checked when either pid is unknown.
Post-action observation in one round trip
All mutating tools (click, drag, scroll, press_key, type_text, perform_action, set_value, activate_window, move_window, and resize_window) accept optional post-action observation parameters so an action and its verification complete in a single MCP tool call:
screenshot_after: true | "screen" | "window" | false: capture after the action is dispatched and the indicator overlay is hidden (trueor"screen"for full desktop,"window"cropped to the action's target window or the focused window when untargeted)format,quality,scale,max_width,max_height,max_bytes: same screenshot payload controls asscreenshotandget_app_statescreenshot_file_path: save the post-action screenshot to this new file instead of returning it as image content (see Screenshot files)include_tree: true: include a fresh compacted AT-SPI accessibility tree and itssnapshot_id; it replaces the cached tree, so laterelement_indexvalues come from it
When post-action screenshot capture succeeds, the image is returned as the first MCP image content block alongside the JSON action summary and screenshot metadata. If the action succeeds (ok: true) and only the post-action screenshot or tree capture fails, ok remains true and the error is reported in screenshot_error / accessibility_error and appended to message.
Screenshot sizing & coordinate scaling
Screenshot payloads are size-bounded by default before they are returned to the MCP host: max 1920 px width/height and 2 MiB image bytes, with hard caps even when callers request more. Agents that need more detail can pass max_width, max_height, max_bytes, scale, format: "jpeg", or quality, preferably with a window target or crop. PNG remains the default; JPEG lets callers trade lossless pixels for a smaller payload before the byte cap forces further resizing. Returned screenshot metadata includes coordinate_width, coordinate_height, scale, format, and quality so callers can convert from a downscaled preview to desktop coordinate pixels.
Screenshot files
screenshot, get_app_state and the screenshot_after capture of mutating tools take screenshot_file_path. With it, the image is saved to that file and no MCP image content is returned, so a capture costs no image tokens until the agent reads the file. The metadata stays the same (width, height, coordinate_width, coordinate_height, scale, format, quality, bytes) plus file_path: in the screenshot caption, and in screenshot.file_path for the other tools.
- The path must be absolute, and its parent directory must exist. Directories are not created.
- The extension must match
format:.pngfor png (the default),.jpgor.jpegfor jpeg. - The path must end with the file name, so a trailing
/or/.is refused. - File output creates a new file and never replaces one. Any existing entry at the path is refused: a file, a directory or a symlink.
- The image is written to a temp file in the same directory, then moved into place with a step that fails if anything exists at the path (
renameat2withRENAME_NOREPLACE, orlinkwhere that is unsupported). A reader never sees a partial file, and an entry created meanwhile is neither followed nor replaced. The file is created with mode 0600. - A bad path is refused before anything is captured or any input is sent.
- A failed write is never answered with the image inline.
screenshotreturns an error,get_app_statesetsscreenshot_error, and a mutating tool setsscreenshot_errorand keeps the action'sok. - Over stdio the path is on the machine that runs the server. Over HTTP (
mcp --listen) the parameter is refused, so a remote client gets no way to write files on the host.
Preguntas sobre computer-use-linux MCP
¿Cómo agrego computer-use-linux MCP a Claude Code?
Ejecuta claude mcp add computer-use-linux -- npx -y @agent-sh/computer-use-linux en tu terminal. Añade --scope user para que esté disponible en todos los proyectos.
¿Cómo agrego computer-use-linux MCP a Cursor?
Abre ~/.cursor/mcp.json y añade el servidor en mcpServers, usando la configuración de Cursor que se muestra en la sección de instalación de arriba.
¿Qué herramientas proporciona computer-use-linux MCP?
Expone 3 herramientas, incluidas screenshot_after, screenshot_file_path, include_tree.
¿Funciona con Wayland?
Sí, ofrece soporte para Wayland utilizando /dev/uinput o org.freedesktop.portal.RemoteDesktop para acciones del puntero y varios métodos para la entrada de texto.
¿Qué entornos de escritorio Linux son compatibles?
Es compatible con GNOME, KDE Plasma/KWin, Hyprland, niri, COSMIC, i3, Sway, labwc y otros compositores wlroots, además de X11.
¿Cómo puedo comprobar si mi sistema está listo para usarlo?
Puedes ejecutar el comando 'computer-use-linux doctor' para obtener un informe de preparación en formato JSON que cubre la plataforma, los portales y la accesibilidad.