Spec Driven Development
MCP Server that facilitates spec-driven development workflows, not just Vibe Coding.
Descripción del creador (original en inglés)
Load-test a URL, ping it by phase, ramp to find the capacity, compare runs: JSON reports, guardrails
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": {
"pepe": {
"command": "uvx",
"args": [
"pepe-http",
"mcp",
"--max-requests",
"10000",
"--max-rate",
"500",
"--max-concurrency",
"64"
]
}
}
}Ejecuta esto en tu terminal
claude mcp add pepe -- uvx pepe-http mcp --max-requests 10000 --max-rate 500 --max-concurrency 64Pégalo en .cursor/mcp.json de tu proyecto, o en ~/.cursor/mcp.json
{
"mcpServers": {
"pepe": {
"command": "uvx",
"args": [
"pepe-http",
"mcp",
"--max-requests",
"10000",
"--max-rate",
"500",
"--max-concurrency",
"64"
]
}
}
}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": {
"pepe": {
"type": "stdio",
"command": "uvx",
"args": [
"pepe-http",
"mcp",
"--max-requests",
"10000",
"--max-rate",
"500",
"--max-concurrency",
"64"
]
}
}
}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 6 nov 2026
El nombre en el registro se verificó con la cuenta de GitHub omarmhaimdat, 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 (0.57.0) llegó al registro hace 11 días.
Las apps compatibles con MCP, como Claude Desktop, Claude Code, Cursor y VS Code. También necesitas Python (uv), Docker en tu computadora.
En la misma categoría: Spec Driven Development, Remote Desktop Commander, Reelsaw
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
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.
Drive a self-hosted Reelsaw: turn long videos into vertical clips, edit, re-render and export them.
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.
An HTTP load generator with a live dashboard, built to cost less than the server it tests.
Install · Quick start · What it does · Scripts, CI and agents · How it compares · Documentation · Roadmap
pepe sends requests to a URL, as many at once as you ask, and shows what came back as it happens: throughput, latency percentiles and a heatmap, status codes, failures by cause, and a log you can open any request from. When the run ends it gives a verdict in plain words, and says where the time went. It takes a curl command as input, ramps load to find where a target stops keeping up, load-tests every endpoint of an OpenAPI spec, replays an access log, and runs a flow of requests where each step feeds the next. pepe ping is the same engine at one request a second: a graph of a URL's latency over time, each ping split into DNS, connect, TLS, first byte and download, with what to look at.
It is also light. One thread sends 160k requests a second on an Apple M4 Pro and 400k on Linux, for less CPU and less memory per request than wrk, a quarter to a half of oha's CPU and a tenth of its memory or less, and pepe tells you when it, rather than the target, is the limit.
curl -LsSf https://pepe.mhaimdat.com/install.sh | sh # macOS and Linux
brew install omarmhaimdat/pepe/pepe # Homebrew nix run github:omarmhaimdat/pepe -- https://example.com # Nix, without installing docker run --rm -it ghcr.io/omarmhaimdat/pepe https://example.com cargo install --locked --git https://github.com/omarmhaimdat/pepe
Windows, in PowerShell: powershell -ExecutionPolicy Bypass -c "irm https://pepe.mhaimdat.com/install.ps1 | iex". Every release also ships binaries for macOS, Linux and Windows with checksums and signed provenance, the shell completions and the man pages. pepe self-update installs the latest release; pepe looks for one once a day and says so when a run ends. All of it, with the details, on the install page.
pepe https://example.com # 100 requests, one per core at a time, and watch
pepe -z 30s -c 50 -m POST -H 'Content-Type: application/json' -d '{"key":"value"}' https://httpbin.org/post pepe -z 30s --curl -- curl 'https://api.example.com/items' -H 'Authorization: Bearer …' # from "Copy as cURL" pepe ping https://example.com --once # three pings, then why it is slow, and out pepe # the setup screen: every option on a form
In the dashboard, space pauses, + and - change concurrency, tab switches view, enter inspects a request, ? lists every key, q quits and leaves the verdict in your shell.
| Command | What for | Docs |
|---|---|---|
pepe URL | A load test with the live dashboard: the load's shape (--number, --duration, --concurrency, --rate, --warmup, --threads), any header, body or method, a curl command, a pepe.toml next to the code, soak runs with --snapshot | Load testing, The dashboard |
pepe ping URL… | A request a second, each split into DNS, connect, TLS, first byte and download, on a graph; several targets, TCP pings, --slo limits, HTTP/2, the certificate's expiry, and findings that say what to look at | Ping |
pepe ramp URL | Raise the concurrency step by step and find the level that held, where throughput stopped following, where it broke, and the capacity estimate | Ramp |
pepe api SPEC | The endpoints of an OpenAPI 3 or Swagger 2 spec, picked on screen or by tag, with their parameters and credentials | OpenAPI |
pepe flow FILE | A sequence of requests, each step fed by the one before: log in, take the token, use it | Flows |
pepe replay LOG | An access log's URLs in their real proportions, sent at another host | Replay |
pepe logs FILES | What nginx's logs say: the request rate now against each minute, hour and day, paths, errors and the lines themselves, live | nginx logs |
pepe compare A B | What moved between two reports, in the verdict's words, with a badge and an SVG card | Compare |
Every flag of every command is in the command reference, and man pepe has the same.
Every mode runs without a screen and is built to be called by a program:
--json (schema_version: 1; pepe schema prints each report's JSON Schema), with the verdict and its findings in it. Piped without --json, the text verdict.--fail-if 'p99 > 300ms', a ping's --slo).--allow-host .example.com, --max-requests, --max-rate, --max-concurrency, and --dry-run, which says what would be sent and sends nothing. They can live in pepe.toml.pepe compare, comments the result and can fail the job: CI and Docker.--metrics :9100, for a soak run or a long ping in Grafana.pepe mcp) that serves the modes as tools for an agent, under the guardrails it was started with; AGENTS.md is what an agent reads first.- uses: omarmhaimdat/pepe@v0
with: url: https://staging.example.com/api/health args: -z 30s -c 20 --fail-if 'p99 > 300ms' baseline: auto comment: true
Measured with the suite in bench/ against a local server that answers from memory, so the client is the cost being measured. CPU milliseconds per 1,000 requests, peak memory, and the requests per second each tool reported:
| Workload | pepe | oha | vegeta |
|---|---|---|---|
| GET, 64 connections | 6.2 ms · 9 MB · 160k req/s | 23.0 ms · 78 MB · 161k req/s | 90.4 ms · 26 MB · 76k req/s |
| GET, 1,000 connections | 6.0 ms · 12 MB · 163k req/s | 21.6 ms · 101 MB · 147k req/s | 52.7 ms · 92 MB · 131k req/s |
| HTTPS, 64 connections | 6.8 ms · 12 MB · 142k req/s | 24.8 ms · 60 MB · 156k req/s | 69.8 ms · 30 MB · 90k req/s |
Those are single-thread numbers for pepe on an Apple M4 Pro, where the loopback tops out near 175k requests a second. On Linux (a 4-vCPU arm64 VM, the musl build that is released), with wrk on one thread beside it:
| Workload | pepe | wrk | oha |
|---|---|---|---|
| GET, 64 connections | 2.4 ms · 4.0 MB · 398k req/s | 3.5 ms · 4.5 MB · 282k req/s | 6.8 ms · 67 MB · 305k req/s |
| GET, 1,000 connections | 3.2 ms · 5.8 MB · 296k req/s | 4.4 ms · 7.7 MB · 228k req/s | 5.6 ms · 73 MB · 183k req/s |
| HTTPS, 64 connections | 3.3 ms · 6.0 MB · 284k req/s | 4.5 ms · 10.8 MB · 218k req/s | 8.1 ms · 42 MB · 250k req/s |
| 10 million requests, 256 connections | 2.9 ms · 4.5 MB · 343k req/s | 3.3 ms · 4.6 MB · 304k req/s | 6.5 ms · 2,404 MB · 316k req/s |
Every workload, where pepe is level rather than ahead (a slow target at 1,000 connections, 16 KB bodies over TLS), what a glibc build changes, k6, the profiles and the method are in bench/README.md. Where a target can take more than one thread sends, pepe says so, and --threads auto adds them.
The manual, page by page, with every option and example, is at pepe.mhaimdat.com/docs. Its sources are the Markdown files under docs/, and the command reference is generated from the command definition, so it can't drift from the binary. What changed in each release is in CHANGELOG.md; what comes next, in order, in ROADMAP.md.
Issues and pull requests are welcome; CONTRIBUTING.md has the build, the tests, the generated files, the recordings, the benchmarks and how releases are made.
MIT. See LICENSE.
tokio, rustls, httparse, h2 and reqwest for the requests, ratatui and crossterm for the dashboard, clap for the command line, and oha, vegeta, wrk and k6 for being good company on the benchmark table.