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pingpulse

pingpulse

Local
github.com/CloudCorpRecordsCloud & Infra0Updated 2d ago

About pingpulse

pingpulse is a local bridge to Hyperping's hosted uptime-monitoring MCP server, for agents working with monitoring and incident response. Its tools cover monitors, outages, on-call schedules, status pages, maintenance, logs, and related project views.

Key features

  1. 01List, inspect, and control monitors
  2. 02Review and manage outages
  3. 03Read uptime and response-time metrics
  4. 04Inspect on-call schedules and escalation policies
  5. 05Manage status pages and incidents
  6. 06Search logs and schedule maintenance

Use cases

  1. 01Review monitor health and performance
  2. 02Acknowledge, escalate, or resolve an outage
  3. 03Publish status-page incident updates
  4. 04Investigate logs and plan maintenance windows

MCP support

Exposes Hyperping monitoring tools to MCP clients through a local bridge. It forwards tool calls to the hosted Hyperping MCP server and passes through its replies.

Configuration

Local server config is the same for every client. Copy it into your client’s MCP config file.

mcp.json · Universal config
{
"mcpServers": {
"cloudcorprecords-pingpulse": {
"command": "npx",
"args": [
"-y",
"@reneturcios/pingpulse"
]
}
}
}
Run commandnpx -y @reneturcios/pingpulse

Local servers need a runtime on your machine (e.g. Node.js 18+). Config file locations differ by client; see your client’s docs.

Packages
npm@reneturcios/pingpulse0.1.0
ocighcr.io/cloudcorprecords/pingpulse:0.1.0

Tools

69

Saved tool list · updated 2d ago

ParameterTypeRequiredDescription
pageintegerNoZero-indexed page. Default 0.
limitintegerNoRows per page. Default 50, max 200.
statusenumNoFilter by state. "ssl_expiring" = SSL expires within 30 days.up | down | paused | ssl_expiring

Details

From the project README

pingpulse

pingpulse is a small local bridge to the hosted Hyperping uptime-monitoring MCP server. It puts the whole monitoring workspace behind one tool surface: the monitors watching your sites and APIs, the outages they produce, the people who get woken up when something breaks, and the public status pages that tell your users what is happening.

From here an agent can list and inspect monitors, pause or resume them, run a check on demand, read uptime, response-time, MTTR and MTTA figures, work through outages (acknowledge, escalate, resolve), review on-call schedules and escalation policies, manage status pages and post or update their incidents, schedule maintenance windows, search logs and log dashboards, and pull project reports, healthchecks, servers, browser runs and the audit log. The surface is 69 tools, exactly as captured from the live endpoint. No payment, billing or plan tool exists in it.

The bridge holds no monitoring data of its own. It answers the tool list locally, exactly as captured, and forwards each tool call upstream, returning whatever comes back untouched.

Tools

Grouped by area; required arguments are listed where the captured schema carries them. Tools not listed with required arguments take none that are required (26 of the 69 carry no required key at all in the capture, and they are served that way).

  • Monitors: list_monitors, get_monitor (uuid), create_monitor (name, url), update_monitor (uuid), pause_monitor (uuid), resume_monitor (uuid), search_monitors_by_name (query), get_status_summary.
  • Outages and alerts: list_outages, get_outage (uuid), get_outage_timeline (uuid), get_monitor_outages (monitor_uuid), create_outage (description), acknowledge_outage (uuid), escalate_outage (uuid), resolve_outage (uuid), list_recent_alerts, get_outage_alerts (uuid).
  • Monitor metrics: get_monitor_uptime, get_monitor_response_time, get_monitor_mttr, get_monitor_mtta, get_monitor_anomalies (uuid), get_monitor_http_logs (uuid).
  • On-call: list_on_call_schedules, get_on_call_schedule (uuid), list_escalation_policies, get_escalation_policy (uuid), list_team_members, get_on_call_now.
  • Integrations: list_integrations, get_integration (uuid).
  • Status pages: list_status_pages, get_status_page (uuid), create_status_page (name, subdomain), update_status_page (uuid), add_status_page_services (uuid, services), remove_status_page_services (uuid, services).
  • Status page incidents: list_status_page_incidents, get_status_page_incident (uuid), create_status_page_incident (title, message, status_pages), add_status_page_incident_update (uuid, message, status), resolve_status_page_incident (uuid, message), update_status_page_incident (uuid), edit_status_page_incident_update (uuid, update_uuid).
  • Maintenance: list_maintenance_windows, get_maintenance_window (uuid), create_maintenance_window (name, start_date, end_date, monitors), update_maintenance_window (uuid), complete_maintenance_window (uuid), cancel_maintenance_window (uuid).
  • Logs: search_logs, get_outage_logs (uuid), summarize_log_errors, list_log_dashboards, run_log_chart, create_log_dashboard_from_template (template_id).
  • Checks and changes: get_outage_checks (uuid), find_correlated_outages, get_recent_changes, run_check_now (uuid).
  • Platform views: list_healthchecks, get_healthcheck (uuid), list_servers, get_server (uuid), list_audit_log, get_project_report, list_browser_runs (uuid), get_browser_run (uuid).

Configuration

  • HYPERPING_MCP_URL (optional) — override the upstream endpoint. Defaults to https://api.hyperping.io/v1/mcp. (The override hook is this rebuild's own labelled reconstruction.)
  • HYPERPING_API_KEY (optional) — when set, every upstream request carries an Authorization: Bearer <key> header with your Hyperping API key. When it is not set, no key header is sent; the captured surface answered its tool list without a key. (The Authorization header name is pinned by the original's registry record, which declares it a required secret for the remote; the record pins no package env name, so the Bearer form and forwarding the key from this env var are labelled reconstructions.)
Forwarding mechanics

On the first tool call the client opens a streamable HTTP session upstream: a JSON-RPC initialize request (protocolVersion 2025-03-26, clientInfo name pingpulse), then a notifications/initialized notification, then the tools/call request carrying the caller's arguments unchanged. When the upstream answers initialize with an Mcp-Session-Id header, that value rides on every later request of the session, which is reused for the life of the process. Replies may arrive as plain JSON or as server-sent events; both are read.

Successful upstream results pass through verbatim, including any isError flag the upstream sets. Failures — a JSON-RPC error, a non-2xx status, an unreadable response, or a request that cannot be completed — come back as an isError result whose text starts with pingpulse error: (this rendering is this rebuild's own labelled reconstruction).

CLI

Each tool is also a subcommand taking one JSON argument string:

npx @reneturcios/pingpulse list_monitors '{"status":"down"}'
npx @reneturcios/pingpulse get_monitor '{"uuid":"mon_..."}'
npx @reneturcios/pingpulse create_monitor '{"name":"API","url":"https://example.com/health"}'
npx @reneturcios/pingpulse get_status_summary '{}'
npx @reneturcios/pingpulse --version

Exit codes: 0 on success, 1 on an isError result, 2 on a usage error.

MCP server

npx -y @reneturcios/pingpulse mcp

MCP client config:

{
  "mcpServers": {
    "pingpulse": {
      "command": "npx",
      "args": ["-y", "@reneturcios/pingpulse", "mcp"]
    }
  }
}

Docker

docker run -i ghcr.io/cloudcorprecords/pingpulse
docker run --rm ghcr.io/cloudcorprecords/pingpulse --version

The container's default command is mcp, so the first form is a stdio MCP server; any other arguments reach the CLI normally.

Development

npm install
npm run build
npm test
npm run dev

The test suite runs entirely against a stubbed JSON-RPC upstream — no live network calls.

License

MIT — see LICENSE.

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