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Uptime Kuma Setup: API Automation, Multi-Location Monitoring, and Incident Management Workflows

Learn how to automate monitor creation via the Uptime Kuma API, build multi-location monitoring with distributed agents, integrate alerts into full incident workflows, and treat your uptime configuration as code that survives server rebuilds.
Uptime Kuma setup guide

Uptime Kuma Setup: API Automation, Multi-Location Monitoring, and Incident Management Workflows

The first guide in this series got you running. The second got you configured properly for production teams. This one takes Uptime Kuma into genuinely advanced territory: automating monitor management through the API so new deployments register their own health checks, setting up distributed monitoring from multiple geographic locations so you know whether an outage is global or regional, building incident management workflows that create tickets and coordinate response rather than just pinging Slack, and exporting your entire Uptime Kuma configuration as code that survives server migrations and rebuilds.

If you're new to Uptime Kuma, start with our basic setup guide and then our advanced configuration guide before tackling this one. This guide assumes a running, properly configured Uptime Kuma instance.


Prerequisites

  • A running Uptime Kuma instance with HTTPS — see our setup guide
  • Uptime Kuma version 1.21+ — some API endpoints covered here require recent versions
  • At least one configured notification channel — covered in our advanced guide
  • curl and jq installed on your workstation for API testing
  • Node.js 18+ for the uptime-kuma-api client (optional but useful)
  • A second VPS or cloud VM for distributed monitoring (optional)

Verify your instance version and API accessibility:

# Check Uptime Kuma version
docker exec uptime-kuma node -e "console.log(require('./package.json').version)"

# Test API connectivity
curl -s https://monitor.yourdomain.com/metrics | head -5
# Should return Prometheus-format metrics

# Check the API badge endpoint works (requires a monitor ID)
curl -s https://monitor.yourdomain.com/api/badge/1/status
# Returns: up or down badge JSON

Uptime Kuma API: Programmatic Monitor Management

Uptime Kuma's API uses Socket.IO rather than REST — it's the same WebSocket connection the web UI uses. The most practical way to interact with it programmatically is via the uptime-kuma-api Python library or the Node.js equivalent.

Setting Up the Python API Client

# Install the uptime-kuma-api Python library
pip install uptime-kuma-api

# Basic connection test
python3 << 'EOF'
from uptime_kuma_api import UptimeKumaApi

api = UptimeKumaApi("https://monitor.yourdomain.com")
api.login("admin", "yourpassword")

# List all monitors
monitors = api.get_monitors()
for m in monitors:
    print(f"{m['id']:3} | {m['type']:12} | {m['name']}")

api.disconnect()
EOF

Creating Monitors Programmatically

The real value of API access is automating monitor creation as part of your deployment pipeline. When a new service deploys, its health check monitor is created automatically:

#!/usr/bin/env python3
# register-monitor.py
# Creates an Uptime Kuma monitor for a newly deployed service
# Usage: python3 register-monitor.py --name "Payment API" --url "https://pay.yourdomain.com/health"

import argparse
import os
from uptime_kuma_api import UptimeKumaApi, MonitorType

def register_monitor(name: str, url: str, notification_ids: list[int] = None):
    api = UptimeKumaApi(os.environ["UPTIME_KUMA_URL"])
    api.login(
        os.environ["UPTIME_KUMA_USER"],
        os.environ["UPTIME_KUMA_PASSWORD"]
    )

    try:
        # Check if monitor already exists
        existing = api.get_monitors()
        for m in existing:
            if m.get("url") == url:
                print(f"Monitor already exists: ID={m['id']}, Name={m['name']}")
                return m["id"]

        # Create new monitor
        result = api.add_monitor(
            type=MonitorType.HTTP,
            name=name,
            url=url,
            interval=60,
            retryInterval=30,
            maxretries=3,
            upsideDown=False,
            notificationIDList=notification_ids or [],
            keyword="",
            ignoreTls=False,
            accepted_statuscodes=["200-299"],
            method="GET",
        )

        monitor_id = result["monitorID"]
        print(f"Created monitor: ID={monitor_id}, Name={name}")
        return monitor_id

    finally:
        api.disconnect()

if __name__ == "__main__":
    parser = argparse.ArgumentParser()
    parser.add_argument("--name", required=True)
    parser.add_argument("--url", required=True)
    parser.add_argument("--notifications", nargs="+", type=int, default=[])
    args = parser.parse_args()

    register_monitor(args.name, args.url, args.notifications)

Integrating Monitor Registration into CI/CD

Add monitor creation to your deployment pipeline. After a successful deploy, the service registers its own health check:

# .github/workflows/deploy.yml (relevant section)
- name: Register health check monitor
  env:
    UPTIME_KUMA_URL: ${{ secrets.UPTIME_KUMA_URL }}
    UPTIME_KUMA_USER: ${{ secrets.UPTIME_KUMA_USER }}
    UPTIME_KUMA_PASSWORD: ${{ secrets.UPTIME_KUMA_PASSWORD }}
  run: |
    pip install uptime-kuma-api --quiet

    python3 register-monitor.py \
      --name "${{ github.event.repository.name }} (${{ github.ref_name }})" \
      --url "https://${{ env.DEPLOY_DOMAIN }}/health" \
      --notifications ${{ secrets.UPTIME_KUMA_NOTIFICATION_ID }}

    echo "Monitor registered for ${{ env.DEPLOY_DOMAIN }}"

# Similarly, remove the monitor on service teardown:
# python3 << 'EOF'
# from uptime_kuma_api import UptimeKumaApi
# api = UptimeKumaApi(url)
# api.login(user, password)
# monitors = api.get_monitors()
# for m in monitors:
#     if m.get("url") == f"https://{domain}/health":
#         api.delete_monitor(m["id"])
#         print(f"Deleted monitor: {m['id']}")
# api.disconnect()
# EOF

Exporting and Importing Configuration as Code

Uptime Kuma stores everything in a SQLite database. For configuration-as-code, export your monitor configuration periodically and commit it to Git — this makes your monitoring setup reproducible after a server rebuild:

#!/usr/bin/env python3
# export-monitors.py — Export all monitors to a JSON file for version control

import json
import os
from uptime_kuma_api import UptimeKumaApi

api = UptimeKumaApi(os.environ["UPTIME_KUMA_URL"])
api.login(os.environ["UPTIME_KUMA_USER"], os.environ["UPTIME_KUMA_PASSWORD"])

monitors = api.get_monitors()
notifications = api.get_notifications()
status_pages = api.get_status_pages()

# Strip sensitive fields before committing to Git
for m in monitors:
    m.pop("password", None)
    m.pop("authPassword", None)

export = {
    "monitors": monitors,
    "notifications": [
        {k: v for k, v in n.items() if k not in ["config"]}  # Strip notification secrets
        for n in notifications
    ],
    "status_pages": status_pages,
    "exported_at": __import__("datetime").datetime.utcnow().isoformat()
}

with open("monitoring-config.json", "w") as f:
    json.dump(export, f, indent=2)

print(f"Exported {len(monitors)} monitors, {len(notifications)} notifications")
api.disconnect()

# Add to crontab or CI to keep the export current:
# 0 0 * * * cd /opt/monitoring-config && python3 export-monitors.py && \
#   git add monitoring-config.json && \
#   git commit -m "Update monitoring config $(date +%Y-%m-%d)" && \
#   git push

Multi-Location Monitoring

A single Uptime Kuma instance on one server has a blind spot: it only knows whether your service is reachable from that server's location. Regional ISP outages, CDN routing failures, and geographic DNS issues can take down your service for users in one region while leaving your monitor green. Multi-location monitoring closes this gap.

Architecture: Primary + Remote Probes

The cleanest approach uses multiple independent Uptime Kuma instances, each monitoring the same services from different locations, with results aggregated into a single alerting view. Since Uptime Kuma doesn't natively support distributed probes, implement this with a small coordination layer:

# Deploy Uptime Kuma on secondary monitoring servers (lightweight):
# Server 2: EU West (Frankfurt)
# Server 3: US East (New York)
# Server 4: Asia Pacific (Singapore)

# Each gets a minimal Docker Compose:
mkdir -p /opt/uptime-probe
cat > /opt/uptime-probe/docker-compose.yml << 'EOF'
version: '3.8'

services:
  uptime-kuma:
    image: louislam/uptime-kuma:latest
    container_name: uptime-kuma-probe
    restart: unless-stopped
    ports:
      - "3001:3001"
    volumes:
      - uptime_kuma_probe:/app/data
    environment:
      - TZ=UTC

volumes:
  uptime_kuma_probe:
EOF

docker compose up -d

# Configure the same monitors on each probe via the API:
# Use the same register-monitor.py script from above
# Point it at each probe's URL with separate credentials

UPTIME_KUMA_URL=https://probe-eu.yourdomain.com \
UPTIME_KUMA_USER=admin \
UPTIME_KUMA_PASSWORD=probepassword \
python3 register-monitor.py --name "Main API" --url "https://api.yourdomain.com/health"

Aggregating Multi-Location Results

Build a small aggregation script that queries the Prometheus metrics endpoint of each probe and alerts only when multiple locations confirm an outage — eliminating false alarms from single-location network blips:

#!/usr/bin/env python3
# check-multi-location.py
# Queries multiple Uptime Kuma probes and alerts only on consensus failures
# Run this as a cron job or from a monitoring stack like Grafana

import requests
import re
import json
import os
from datetime import datetime

PROBES = [
    {"name": "EU-West",   "url": "https://probe-eu.yourdomain.com"},
    {"name": "US-East",   "url": "https://probe-us.yourdomain.com"},
    {"name": "AP-South",  "url": "https://probe-ap.yourdomain.com"},
]

ALERT_THRESHOLD = 2  # Alert if this many locations report down
WEBHOOK_URL = os.environ.get("ALERT_WEBHOOK_URL", "")

def get_monitor_status(probe_url: str) -> dict:
    """Fetch monitor statuses from Prometheus metrics endpoint."""
    try:
        resp = requests.get(f"{probe_url}/metrics", timeout=10)
        statuses = {}
        for line in resp.text.split("\n"):
            match = re.match(r'monitor_status\{.*?monitor_name="([^"]+)".*?\} (\d+)', line)
            if match:
                statuses[match.group(1)] = int(match.group(2))
        return statuses
    except Exception as e:
        return {"_error": str(e)}

# Collect status from all probes
results = {}
for probe in PROBES:
    results[probe["name"]] = get_monitor_status(probe["url"])

# Find services that are down in multiple locations
all_monitors = set()
for probe_results in results.values():
    all_monitors.update(k for k in probe_results.keys() if not k.startswith("_"))

for monitor in sorted(all_monitors):
    down_locations = [
        probe_name for probe_name, statuses in results.items()
        if statuses.get(monitor, 1) == 0  # 0 = down
    ]

    if len(down_locations) >= ALERT_THRESHOLD:
        print(f"ALERT: {monitor} is DOWN in {len(down_locations)} locations: {', '.join(down_locations)}")
        if WEBHOOK_URL:
            requests.post(WEBHOOK_URL, json={
                "text": f"🌍 Multi-location outage: *{monitor}* is DOWN in {', '.join(down_locations)}",
                "timestamp": datetime.utcnow().isoformat()
            })
    elif down_locations:
        print(f"WARNING: {monitor} is down in 1 location only ({down_locations[0]}) — may be regional")

Incident Management Workflows

Alert fatigue kills incident response. The goal isn't to send more notifications — it's to trigger the right actions automatically so the on-call team is dealing with context rather than scrambling to gather information.

Webhook-Driven Incident Creation

Configure Uptime Kuma's webhook notification to trigger an n8n or custom endpoint that creates structured incidents rather than just sending messages:

#!/usr/bin/env python3
# incident-handler.py
# Flask webhook receiver that creates structured incidents from Uptime Kuma alerts
# Deploy this as a small service on your infrastructure

from flask import Flask, request, jsonify
import requests
import json
import os
from datetime import datetime

app = Flask(__name__)

# Configuration
SLACK_WEBHOOK = os.environ.get("SLACK_WEBHOOK_URL")
GITEA_URL = os.environ.get("GITEA_URL")  # For creating incident issues
GITEA_TOKEN = os.environ.get("GITEA_TOKEN")
GITEA_REPO = os.environ.get("GITEA_REPO", "ops/incidents")
PAGERDUTY_KEY = os.environ.get("PAGERDUTY_INTEGRATION_KEY")

@app.route("/incident", methods=["POST"])
def handle_incident():
    data = request.json
    heartbeat = data.get("heartbeat", {})
    monitor = data.get("monitor", {})

    is_down = heartbeat.get("status") == 0
    monitor_name = monitor.get("name", "Unknown")
    monitor_url = monitor.get("url", "")
    error_msg = heartbeat.get("msg", "")
    duration = heartbeat.get("duration", 0)

    if is_down:
        # 1. Create incident issue in Gitea
        issue_body = f"""## Incident Report

**Monitor:** {monitor_name}
**URL:** {monitor_url}
**Error:** {error_msg}
**Duration:** {duration}s
**Time:** {datetime.utcnow().isoformat()}Z

## Checklist
- [ ] Acknowledge incident
- [ ] Identify root cause
- [ ] Notify stakeholders if > 5 minutes
- [ ] Resolve and document
"""
        if GITEA_URL and GITEA_TOKEN:
            requests.post(
                f"{GITEA_URL}/api/v1/repos/{GITEA_REPO}/issues",
                headers={"Authorization": f"token {GITEA_TOKEN}"},
                json={
                    "title": f"[INCIDENT] {monitor_name} is DOWN",
                    "body": issue_body,
                    "labels": ["incident", "p1"]
                }
            )

        # 2. Send structured Slack alert with context
        if SLACK_WEBHOOK:
            requests.post(SLACK_WEBHOOK, json={
                "blocks": [
                    {"type": "header", "text": {"type": "plain_text", "text": f"🔴 INCIDENT: {monitor_name}"}},
                    {"type": "section", "fields": [
                        {"type": "mrkdwn", "text": f"*URL:*\n{monitor_url}"},
                        {"type": "mrkdwn", "text": f"*Error:*\n{error_msg}"},
                    ]},
                    {"type": "actions", "elements": [
                        {"type": "button", "text": {"type": "plain_text", "text": "View Monitor"},
                         "url": f"{os.environ.get('UPTIME_KUMA_URL')}"},
                    ]}
                ]
            })

    return jsonify({"status": "ok"})

if __name__ == "__main__":
    app.run(host="0.0.0.0", port=8090)

Escalation Policies Based on Duration

Different outage durations warrant different responses. Build escalation into your webhook handler rather than relying on a single notification channel:

#!/bin/bash
# escalate-incident.sh
# Run as a cron job every 5 minutes to check ongoing incidents and escalate

UPTIME_KUMA_URL="https://monitor.yourdomain.com"
SLACK_CRITICAL_CHANNEL="#incidents-critical"
ONCAll_PHONE="+1234567890"

# Query Uptime Kuma metrics for long-running outages
curl -s "${UPTIME_KUMA_URL}/metrics" | grep 'monitor_status' | while read line; do
  STATUS=$(echo "$line" | awk '{print $2}')
  if [ "$STATUS" -eq "0" ]; then
    MONITOR=$(echo "$line" | grep -oP 'monitor_name="\K[^"]+' )
    DURATION=$(echo "$line" | grep -oP 'monitor_response_time{[^}]+} \K\S+' || echo "0")

    # Check how long this monitor has been down from Kuma's history API
    DOWN_SINCE=$(curl -s "${UPTIME_KUMA_URL}/api/badge/${MONITOR_ID}/uptime/24" | jq -r '.uptime')

    # 5+ minute outage → escalate to PagerDuty
    if [ "$DOWNTIME_MINUTES" -ge 5 ]; then
      curl -X POST https://events.pagerduty.com/v2/enqueue \
        -H 'Content-Type: application/json' \
        -d "{
          \"routing_key\": \"${PAGERDUTY_KEY}\",
          \"event_action\": \"trigger\",
          \"payload\": {
            \"summary\": \"${MONITOR} has been DOWN for ${DOWNTIME_MINUTES} minutes\",
            \"severity\": \"critical\",
            \"source\": \"uptime-kuma\"
          }
        }"
    fi
  fi
done

Prometheus Integration and Grafana Dashboards

Uptime Kuma exposes a Prometheus metrics endpoint at /metrics. Scrape it with Prometheus and visualize in Grafana alongside your infrastructure metrics for a unified observability view.

Prometheus Scrape Configuration

# Add to prometheus/prometheus.yml scrape_configs:
  - job_name: 'uptime-kuma'
    scrape_interval: 30s
    scrape_timeout: 10s
    scheme: https
    static_configs:
      - targets:
          - monitor.yourdomain.com
    metrics_path: '/metrics'
    # If Uptime Kuma is behind basic auth:
    basic_auth:
      username: admin
      password: yourpassword
    # Or use bearer token if configured:
    # bearer_token: your-token

# Reload Prometheus config:
curl -X POST http://localhost:9090/-/reload

# Verify metrics are being scraped:
curl 'http://localhost:9090/api/v1/query?query=monitor_status' | jq '.data.result | length'
# Should return the number of monitors you have

Key Metrics and PromQL Queries

# Useful Uptime Kuma PromQL queries for Grafana dashboards:

# Current status of all monitors (1=up, 0=down)
monitor_status

# Response time in milliseconds per monitor
monitor_response_time

# Count of currently down monitors
count(monitor_status == 0)

# Monitors that have been down (status=0) — alert on this
monitor_status{monitor_name=~".+"} == 0

# 24-hour availability percentage per monitor
# (Note: Kuma doesn't expose this directly — calculate from status changes)
avg_over_time(monitor_status[24h]) * 100

# Response time P95 across all monitors
quantile(0.95, monitor_response_time)

# Monitors slower than 2 seconds
monitor_response_time > 2000

# Alert rule for Grafana (add in Alerting → Alert Rules):
# Alert when any monitor has been down for > 3 minutes:
# count(monitor_status == 0) > 0
# Pending: 3m  (fire only after 3 minutes of consistent down)

Configuration Backup and Disaster Recovery

Automated SQLite Backup to S3

#!/bin/bash
# backup-uptime-kuma.sh
# Back up Uptime Kuma configuration and history to S3

set -euo pipefail

DATE=$(date +%Y-%m-%d-%H%M)
BACKUP_DIR="/opt/backups/uptime-kuma"
S3_BUCKET="s3://your-backup-bucket/uptime-kuma"

mkdir -p "$BACKUP_DIR"

# SQLite backup (atomic snapshot — safe to run while Kuma is live)
docker exec uptime-kuma sqlite3 /app/data/kuma.db ".backup '/app/data/kuma-backup.db'"
docker cp uptime-kuma:/app/data/kuma-backup.db "${BACKUP_DIR}/kuma-${DATE}.db"

# Compress
gzip "${BACKUP_DIR}/kuma-${DATE}.db"

# Upload to S3
aws s3 cp "${BACKUP_DIR}/kuma-${DATE}.db.gz" "${S3_BUCKET}/kuma-${DATE}.db.gz"

# Clean up local backups older than 7 days
find "$BACKUP_DIR" -name 'kuma-*.db.gz' -mtime +7 -delete

# Verify backup integrity
sqlite3 "${BACKUP_DIR}/kuma-${DATE}.db.gz" "PRAGMA integrity_check;" 2>/dev/null || \
  echo "Note: Verify integrity on decompressed file"

echo "Backup complete: kuma-${DATE}.db.gz"

# Add to crontab:
# 0 3 * * * /opt/scripts/backup-uptime-kuma.sh >> /var/log/kuma-backup.log 2>&1

Restoring from Backup

#!/bin/bash
# restore-uptime-kuma.sh
# Usage: ./restore-uptime-kuma.sh kuma-2026-04-07-0300.db.gz

BACKUP_FILE="${1:-}"
if [ -z "$BACKUP_FILE" ]; then
  echo "Usage: $0 "
  exit 1
fi

# Download from S3 if file doesn't exist locally
if [ ! -f "$BACKUP_FILE" ]; then
  aws s3 cp "s3://your-backup-bucket/uptime-kuma/${BACKUP_FILE}" "."
fi

# Stop Uptime Kuma
docker compose stop uptime-kuma

# Extract backup
gunzip -c "$BACKUP_FILE" > /tmp/kuma-restore.db

# Verify integrity
sqlite3 /tmp/kuma-restore.db "PRAGMA integrity_check;"

# Copy to data volume
docker cp /tmp/kuma-restore.db uptime-kuma:/app/data/kuma.db
docker exec uptime-kuma chown node:node /app/data/kuma.db

# Restart
docker compose start uptime-kuma

# Verify
sleep 5
curl -I https://monitor.yourdomain.com
echo "Restore complete. Verify monitors at https://monitor.yourdomain.com"

Tips, Gotchas, and Troubleshooting

API Client Disconnects Unexpectedly

The Socket.IO connection times out if idle. For long-running scripts that perform multiple operations, add heartbeat handling:

# Pattern: reconnect on each script invocation rather than holding a session
# Use context manager to ensure clean disconnection:

from uptime_kuma_api import UptimeKumaApi
import os

def with_kuma(func):
    """Decorator that handles API connection lifecycle."""
    def wrapper(*args, **kwargs):
        api = UptimeKumaApi(os.environ["UPTIME_KUMA_URL"])
        api.login(
            os.environ["UPTIME_KUMA_USER"],
            os.environ["UPTIME_KUMA_PASSWORD"]
        )
        try:
            return func(api, *args, **kwargs)
        finally:
            api.disconnect()
    return wrapper

@with_kuma
def list_down_monitors(api):
    monitors = api.get_monitors()
    return [m for m in monitors if m.get("active") and not m.get("forceInactive")]

Prometheus Metrics Returning Empty

# Test metrics endpoint directly:
curl -v https://monitor.yourdomain.com/metrics

# Common issues:
# 1. Metrics endpoint returns empty if no monitors exist yet
#    → Create at least one monitor first

# 2. Authentication blocking the metrics endpoint
#    → Check if Uptime Kuma requires login for /metrics
#    → In Prometheus: add basic_auth config

# 3. Nginx blocking the /metrics path
#    → Check for location blocks that might return 404
docker exec nginx nginx -T | grep -A5 'location.*metrics'

# 4. Monitor hasn't completed its first check yet
#    → Wait one full interval (60s default) after creating a monitor

Multi-Location False Positives

# If probes disagree on status, check network path from each:
docker exec uptime-kuma curl -sv --max-time 10 https://api.yourdomain.com/health 2>&1 | \
  grep -E '(Connected to|HTTP|SSL|curl)'

# Check if the disagreement is consistent or intermittent:
# Add a longer observation window before alerting on multi-location failures

# In check-multi-location.py, add temporal consistency:
# Only alert if the same location has been reporting down for 3+ consecutive checks
# Track state in a simple file or Redis:
from pathlib import Path
import json

STATE_FILE = Path("/tmp/monitor-state.json")
state = json.loads(STATE_FILE.read_text()) if STATE_FILE.exists() else {}

# Increment failure count per location
for location in down_locations:
    key = f"{monitor}:{location}"
    state[key] = state.get(key, 0) + 1

# Only alert if consistently down for 3+ checks (~3 minutes at 1min polling)
if all(state.get(f"{monitor}:{loc}", 0) >= 3 for loc in down_locations):
    send_alert(monitor, down_locations)

STATE_FILE.write_text(json.dumps(state))

Pro Tips

  • Use monitor groups as a service catalog — the tagging and grouping system in Uptime Kuma combined with the API lets you build a live service catalog. Every service that deploys registers itself; every service that's decommissioned removes its monitors. The Uptime Kuma dashboard becomes your live inventory of running services.
  • Integrate with your incident runbooks — add a notes field to each monitor via the API containing a link to the relevant runbook. When an alert fires, the webhook payload includes the monitor name — your incident handler can construct the runbook URL automatically and include it in every alert message.
  • Use the badge API for internal dashboards — Uptime Kuma generates SVG status badges at /api/badge/{id}/status. Embed these in your internal wiki or Notion pages next to service documentation so status is always one glance away without opening the full dashboard.
  • Version-control your monitoring config alongside your services — the export script in this guide generates JSON that's meaningful in a Git diff. When a monitor changes, the diff shows exactly what changed. This makes monitoring drift visible and reviewable, the same as any other infrastructure change.

Wrapping Up

The three Uptime Kuma guides in this series cover the full spectrum: getting started with basic monitoring, advanced monitor types and production configuration, and this guide's API automation, multi-location checks, and incident management integration. Together they turn Uptime Kuma from a dashboard you log into when things break into an active participant in your deployment pipeline and incident response process.

The API-driven monitor registration is the single highest-leverage change — once services register their own monitors on deploy, your monitoring coverage stays complete automatically as your infrastructure evolves. Pair it with multi-location checks and structured incident workflows and you have an observability setup that catches real problems fast and responds intelligently rather than just making noise.


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