Browser Use
Browser agents and stealth cloud browsers for AI: run web tasks, fill forms, extract data.
Descripción del creador (original en inglés)
A browser your AI agent remembers. Learn a site once, replay it in one call, zero model calls.
Estos tres nunca se combinan en una sola puntuación: las opiniones, las mediciones y la popularidad son cosas distintas.
Todavía no escribimos un resumen sencillo para este. Abajo están los datos que leímos del registro.
Elige la app de IA que usas y copia la configuración.
Necesitas
¿Qué app usas?
Elige tu app arriba. La recordamos, así que la próxima vez el botón dirá “Instalar en …”.
Abre Claude Desktop → Settings → Developer → Edit Config y pega esto en claude_desktop_config.json
{
"mcpServers": {
"dejo": {
"command": "uvx",
"args": [
"dejo-mcp"
]
}
}
}Ejecuta esto en tu terminal
claude mcp add dejo -- uvx dejo-mcpPégalo en .cursor/mcp.json de tu proyecto, o en ~/.cursor/mcp.json
{
"mcpServers": {
"dejo": {
"command": "uvx",
"args": [
"dejo-mcp"
]
}
}
}Tu navegador te pide permiso para abrir la app; luego la app muestra la configuración y te pide confirmar. Los valores de las claves quedan vacíos para que los completes tú.
Pégalo en .vscode/mcp.json de tu proyecto
{
"servers": {
"dejo": {
"type": "stdio",
"command": "uvx",
"args": [
"dejo-mcp"
]
}
}
}Tu navegador te pide permiso para abrir la app; luego la app muestra la configuración y te pide confirmar. Los valores de las claves quedan vacíos para que los completes tú.
Este se ejecuta en tu computadora, y ChatGPT solo puede conectarse a servidores en internet. Elige otra app.
Tu elección se guarda en una cookie en este dispositivo; no necesitas cuenta.
Esta configuración se genera a partir de la ficha del creador en el registro. Si el README dice otra cosa, sigue el README.
Se ejecuta en tu computadora; la lista de herramientas aparece en tu app de IA después de instalarlo.
Revisamos información que cualquiera puede ver; no hemos leído el código. Las revisiones que no aplican no se cuentan. · Revisado el 7 nov 2026
El nombre en el registro se verificó con la cuenta de GitHub dejohq, dueña del repo
Todavía no hemos leído este repo en GitHub
Todavía no hemos leído este repo en GitHub
Este se ejecuta en tu computadora; no hay endpoint en internet
Se ejecuta en tu computadora y usa ajustes locales en su lugar
Se ejecuta en tu computadora; solo podemos leer listas de herramientas de endpoints en internet
Comparado con todos los servidores activos de esta categoría en el registro. Las estrellas solo cuentan cuando quien lo publica es dueño del repo.
Superó 1 de 1 revisiones básicas aplicables. No hemos leído el código. Antes de agregar una clave o un token, revisa qué acceso pide el servidor y usa una clave que tenga solo los permisos que necesitas.
El registro no indica ninguna clave obligatoria, aunque algunos servidores te piden iniciar sesión la primera vez que los usas.
Se ejecuta en tu computadora. Tu app de IA lo inicia cuando hace falta, y los datos no pasan por los servidores del creador (a menos que el propio servidor llame a un servicio en línea).
El repo de GitHub cambió por última vez –, y la última versión (0.2.0) llegó al registro hace 15 días.
Las apps compatibles con MCP, como Claude Desktop, Claude Code, Cursor y VS Code. También necesitas Python (uv) en tu computadora.
En la misma categoría: Browser Use, Chrome DevTools MCP, MCP Server Browser
Servidores de la misma categoría hechos por otros creadores, ordenados por estrellas.
Cómo leer una tarjeta:★ Estrellas de GitHubiTres pilares: reseñas · revisiones · usoiActualizado = fecha en que se publicó la última versión en el registroi
Browser agents and stealth cloud browsers for AI: run web tasks, fill forms, extract data.
MCP server for Chrome DevTools
MCP server for browser use access
Copiado tal cual del repo del creador. PopNx MCP no lo ha revisado ni lo respalda. Se quitaron HTML, imágenes y scripts. Los enlaces llevan fuera de este sitio.
Dejo
A browser your AI agent remembers.
It learns a website once. Every run after that is one tool call, with zero model calls.
Website · Install · Benchmark · Tools · What it can do · Compared · Contributing
Your AI can use websites. But it forgets how, every single time. Dejo makes it remember.
Dejo gives Claude Code, Codex, Cursor or any MCP client a browser with a memory. Your agent walks a website once: signing in, clicking, reading. Dejo writes down the route. Every run after that follows the route instead: one tool call, no page reading, zero model calls. When the site changes, Dejo repairs the one step that moved and keeps the rest.
Python 3.11 or newer.
pip install dejo-mcp
playwright install chromium # the browser, a separate download of about 150 MB
Then connect it to your agent:
| agent | where | what |
|---|---|---|
| Claude Code | your terminal | claude mcp add --scope user dejo -- dejo-mcp |
| Codex | ~/.codex/config.toml | [mcp_servers.dejo] command = "dejo-mcp" | | Cursor | ~/.cursor/mcp.json | { "mcpServers": { "dejo": { "command": "dejo-mcp" } } } | | anything else | as a stdio server | dejo-mcp |
Dejo is one stdio server with no arguments, so any agent that can run an MCP server can use it.
No API key, no account. Dejo never calls a model. Your agent does the thinking, and the memory is a local file on your machine.
Check the install at any time. It names anything missing and the command that fixes it:
dejo doctor
Ask your agent for something on a website, in your own words:
Go to github.com/microsoft/playwright and tell me how many open issues it has.
The first time, your agent learns it: Dejo opens the page and shows it, one line per control, and your agent sends the steps back in one call (click link "Issues", then read ... as open issues). The read is what Dejo saves. Ask again tomorrow, in a brand-new chat, and it is one call:
done: "count open issues" on github.com (profile default), 2 steps replayed in 1391 ms, no page reading.
open issues = 117 next: report the answer exactly as read and stop. Every step was checked as it ran.
Prefer a terminal? Everything works without an MCP client:
dejo sites # what it remembers
dejo run "count open issues" --site github.com # replay, no model involved dejo run "count open issues" --site github.com --json # one JSON line, for cron and scripts dejo show github.com # the route, step by step dejo forget --site github.com # make it forget
| what happens | cost | |
|---|---|---|
| First run | Your agent drives the browser through Dejo. Dejo watches, and turns what happened into a route. | many calls |
| Every run after | Dejo replays the route itself and checks that each step landed. | one call, zero model calls |
| The site changed | Dejo stops at the one broken step and shows the page there. Your agent sends one line for that step; Dejo saves it, keeps the old ways as backups, and replays the rest in the same call. | one extra call, once |
Not a recording, and not notes. Each step keeps:
"open this month's invoice"The checks are the difference between this and a macro recorder. A recorder clicks and hopes. Dejo notices when a click did nothing, and says the site changed.
The nine locators are why most redesigns cost nothing: lose the CSS id, keep the label, and the step still lands. If more than half the steps break, the site was rebuilt rather than adjusted. Dejo throws the route away but keeps what it knows about the site (needs a login, sends a code to your phone), so relearning is cheaper than the first visit.
A route is one path through a site. Dejo also keeps a map: every page it has looked at, and the controls that were on it. It costs nothing to keep, because the page had already been read.
dejo map github.com # every page it has seen
dejo map github.com --path /issues # the controls that were on one of them
Ask for something new on a site Dejo has walked, and your agent is handed the pages it already knows before it starts hunting. Each control comes back as a step target such as button "Sign in", which works in a step without looking at the page first. A page Dejo has already walked costs no reading at all. This matters most where one site carries many tasks: an end-to-end test suite, an admin console, a portal you work in every day.
The map says when each page was seen. It is what was there last time, not a promise about now.
Measured on the demo site in this repo (python benchmarks/benchmark.py):
time tool calls page reads model calls
Monday 1.4s 9 3 0 learning the site Tuesday 1.7s 1 0 0 from memory Wednesday 1.9s 1 0 0 from memory Thursday 12.6s 3 0 0 the site changed, one step repaired Friday 1.9s 1 0 0 from memory
The time is mostly Dejo waiting for the site to finish after the last click (this task ends in a download). A task that ends by reading its answer does not pay that wait.
19 tasks on 12 lesser-known websites, the kind a model cannot answer from memory: a college course catalog, the Debian package directory, the RFC Editor, a museum's collection, a Dart package registry, a small shop. Every right answer was written down before any tool ran. Claude Sonnet 5 (medium), one fresh session per run, @playwright/mcp@0.0.80.
| right answers | avg tokens | avg tool calls | avg cost | avg time | |
|---|---|---|---|---|---|
| Dejo, first run (learns the task) | 19/19 | 251k | 4.7 | $0.17 | 31 s |
| Dejo, every run after | 19/19 | 89k | 1.2 | $0.02 | 16 s |
| Playwright MCP, every run | 17/19 | 409k | 6.5 | $0.23 | 40 s |
| Playwright CLI, every run | 18/19 | 559k | 8.4 | $0.28 | 38 s |
Three things the table should also tell you, because they are true:
Tasks: benchmarks/real_tasks.py. Results: benchmarks/benchmark-real-2026-10-21.json (all three tools), -10-23.json and -10-23-fixes.json (Dejo after the fixes). Run it yourself: python benchmarks/benchmark_learning.py --bench real --tools dejo,playwright --runs 1.
The same job, done 10 times, each time in a brand-new chat. Three multi-step tasks on well-known sites, three MCP browser tools, 90 fresh Claude sessions (Sonnet 5, medium): @playwright/mcp@0.0.80, chrome-devtools-mcp@1.8.0.
| the task, done 10 times | Dejo | Playwright MCP | Chrome DevTools MCP |
|---|---|---|---|
| open a GitHub repo → Issues → count them | 28 calls · 1.4M tokens | 83 · 3.4M | 33 · 1.7M |
| open an author's page → read their birth date | 27 calls · 1.3M tokens | 60 · 2.6M | 60 · 2.6M |
| open a category → open a book → read the price | 41 calls · 1.9M tokens | 56 · 2.8M | 56 · 2.8M |
| all three | 96 calls · 4.6M tokens | 199 · 8.7M | 149 · 7.1M |
52% fewer tool calls and 47% fewer tokens than Playwright MCP. Against Chrome DevTools MCP: 36% fewer calls, 35% fewer tokens. Every tool answered in all 30 of its sessions.
The GitHub task, run by run:
run 1 2 3 4 5 6 7 8 9 10
Dejo 10 2 2 2 2 2 2 2 2 2 Playwright MCP 8 8 18 7 9 9 7 6 5 6
Dejo pays once to learn the route, then costs two calls however many steps that route has.
Two things this table should also tell you, because they are true:
Run it yourself: python benchmarks/benchmark_agents.py --journeys --runs 10. These results were recorded while Dejo was still called Cairn, so the files say cairn where they mean Dejo.
You sign in to a site once, by hand, in a real window:
dejo login --site posthog.com
Sign in however the site asks: a password, Google, a code on your phone. Dejo never types a password for you and never automates an SSO button. When you say you are done, Dejo checks the window first: if it still shows a sign-in page, it says so rather than pretending. The session is kept, so you stay signed in.
A task learned while signed out keeps its sign-in steps. Replayed once you are signed in, the site skips its sign-in page, so Dejo skips those steps too, says so, and runs the rest of the task. A task that is only a sign-in answers that there is nothing to do.
Passwords never go into memory. A step that needs one records only *that* a password goes there. The value is read at run time from an environment variable (DEJO_SECRET_BILLING_ACME_COM_PASSWORD) or from ~/.dejo/secrets.json:
{ "billing.acme.com": { "password": "..." } }
A profile is a whole signed-in browser: its own cookies, its own session. Keep as many as you need, side by side:
dejo --profile vendor login --site shop.example.com
dejo --pro
Solo se muestra el principio; lee el resto en el repo