First-party app
UptimeRobot

UptimeRobot

Manage monitors and alert contacts, and check account status, via the UptimeRobot API v2.

stable Monitoring & Observability

About

UptimeRobot ships in the w6w first-party pack. It declares 8 actions, 2 health checks, and the host runs its code in a sandbox that never sees the credential.

App id
io.w6w.uptimerobot
Version
0.1.3
Author
w6w
Licence
MIT
Categories
Monitoring & Observability

Overview

UptimeRobot monitors websites, servers, and other endpoints for downtime, and this app manages the monitors and alert contacts behind an account: listing and creating monitors, updating what they check and how often, resetting a monitor’s uptime statistics, and reading the alert contacts notified when something goes down. It is built for workflows that provision or maintain monitoring as part of a larger process — standing up a monitor when a new service goes live, or auditing what is currently being watched.

Account-level details are also readable directly, useful for checking plan limits and usage before creating another monitor. Monitors can be deleted once no longer needed, and every write against the API is handled the same way UptimeRobot expects: as a single account-wide credential rather than anything scoped per monitor, so a workflow’s connection can manage everything on the account it is authorized for.

Build with UptimeRobot

Three routes to the same 8 actions. The Workflow tab is generated from UptimeRobot's own manifest and carries its real ids, so it is copy-pasteable; the Code and CLI examples are the same call for any action on any app, so every app-specific value in them is a blank you fill in.

Get Account Details

account-get

Get the connected account's monitor limit, interval, and monitor counts.

List Alert Contacts

alert-contact-list

List alert contacts configured on the account.

Create Monitor

monitor-create

Create a new monitor.

Delete Monitor

monitor-delete

Permanently delete a monitor.

Get Monitor

monitor-get

Get a single monitor by ID.

List Monitors

monitor-list

List monitors in the account, optionally filtered by status, type, or search.

Reset Monitor

monitor-reset

Reset a monitor's uptime statistics and logs.

Update Monitor

monitor-update

Update fields on an existing monitor, or pause/resume it via Status.

A workflow step names the app and the action, and the editor fills in the connection when you pick one. This is the Step shape from the workflow spec, carrying UptimeRobot's real ids.

{
  "manifestVersion": "2",
  "name": "uptimerobot-example",
  "steps": [
    {
      "id": "monitor-create",
      "uses": {
        "app": "io.w6w.uptimerobot",
        "action": "monitor-create",
        "connection": "conn_YOUR_CONNECTION_ID"
      },
      "with": {
        "friendlyName": "<friendlyName>",
        "url": "<url>",
        "type": "<type>"
      }
    }
  ]
}

Here are some of the things you can do

  • Create Monitor

    perform
    monitor-create
  • Get Account Details

    read
    account-get
  • List Alert Contacts

    read
    alert-contact-list
  • Get Monitor

    read
    monitor-get
  • List Monitors

    read
    monitor-list

+3 more actions available

Every app-specific value here is a blank you have to fill in. An app action is reached through the connection that authenticates it, so the address is a connection id, not the app id — and connections belong to your account, so a public page cannot know yours. Create one for UptimeRobot, then fill in the three blanks: conn_YOUR_CONNECTION_ID, the action key, and the parameters that action declares. The call itself is real — the shape is transcribed from the studio's own snippet builder, which prints the same kind of blanks — but nothing in it is specific to UptimeRobot. The Workflow tab is where this app's real ids are.

Install
npm install @w6w/sdk
yarn add @w6w/sdk
pnpm add @w6w/sdk
deno add npm:@w6w/sdk
Code
import { W6wClient, isActionRun } from "@w6w/sdk";

// Reads W6W_BASE_URL and W6W_TOKEN from the environment when omitted.
const client = new W6wClient();

const envelope = await client.run({
  urn: "conn_YOUR_CONNECTION_ID",
  action: "monitor-create",
  payload: {
    friendlyName: "<value>",
    url: "<value>",
    type: "<value>",
    // subType: "<value>",
    // port: "<value>",
    // keywordType: "<value>",
    // keywordValue: "<value>",
    // interval: "<value>",
    // timeout: "<value>",
    // httpUsername: "<value>",
    // httpPassword: "<value>",
    // httpAuthType: "<value>",
    // alertContacts: "<value>",
    // ignoreSslErrors: "<value>",
  },
});

if (isActionRun(envelope)) console.log(envelope.value);
Install the CLI
npm install -g @w6w/cli
CLI
w6w run conn_YOUR_CONNECTION_ID --action monitor-create --payload '{"friendlyName":"<value>","url":"<value>","type":"<value>"}'

Give an AI agent UptimeRobot — without giving it UptimeRobot's credentials. One MCP endpoint exposes every app, function and workflow the caller is entitled to, as tools it can discover and run. Access is granted per team while we onboard.

One tool call
{
  "name": "w6w_invoke",
  "arguments": {
    "ref": "app:io.w6w.uptimerobot#monitor-create",
    "input": {
      "friendlyName": "<friendlyName>",
      "url": "<url>",
      "type": "<type>"
    }
  }
}

Every tool names its target with a single ref. The app: form above doesn't name a connection at all — the host resolves which of the caller's UptimeRobot connections to sign with, and refuses rather than guesses when the answer is ambiguous.

What the agent gets

Credentials it can't read

The token is attached host-side, at the moment of the call. It is never a tool argument, never in the model's context, and never in a transcript — so a prompt injection has nothing to exfiltrate.

A tool surface scoped to the caller

Tools are derived per end user from what that person has actually connected and is entitled to — not one shared bot identity carrying the union of everyone's access.

A durable workflow in one call

Multi-step work runs on the workflow engine and returns a run handle the agent can poll — retries, branching and state survive the conversation that started them.

Health-aware discovery

UptimeRobot's declared health checks are on the surface too, so an agent can tell "the vendor is down" from "your credential expired" before it burns a retry on either.

The MCP surface is part of the hosted platform. UptimeRobot itself is MIT, and the runtime that executes it is source-available (FSL).

Request MCP access

Health checks

UptimeRobot declares its own checks, so its health is a property of the app rather than something the host guesses at.

service

UptimeRobot platform status

quota

API rate limit headroom

Reads UptimeRobot's X-RateLimit-* response headers off a getAccountDetails call.