Overview
Uber Engineering details their migration from a legacy monolithic monitoring system to a modern, cloud-native observability platform for their corporate network infrastructure. The article covers the architecture built on open-source tools (Telegraf, Prometheus, Thanos, Grafana, Elasticsearch) deployed on Kubernetes across global regions, featuring dynamic configuration management, intelligent alert ingestion, and AIOps capabilities to reduce Mean Time To Repair.
What You'll Learn
How to architect a cloud-native observability platform using open-source tools like Prometheus, Thanos, Telegraf, and Grafana on Kubernetes
How to implement dynamic configuration management for monitoring agents that automatically adapts to network inventory changes
Why transitioning from static monitoring to context-rich observability improves incident resolution and operational awareness
How to build an intelligent alert ingestion system that de-duplicates, correlates, and enriches alerts from multiple sources
How to leverage centralized alert data for AIOps to reduce Mean Time To Repair (MTTR)
Prerequisites & Requirements
- Understanding of network monitoring concepts (SNMP, metrics collection, alerting)
- Familiarity with Kubernetes and containerized microservices architecture
- Basic understanding of time-series databases and metrics storage (Prometheus)
- Experience with enterprise network infrastructure monitoring at scale(optional)
- Familiarity with Grafana, Elasticsearch, or similar observability tooling(optional)
Key Questions Answered
What open-source technologies does Uber use for corporate network observability?
How does Uber dynamically update monitoring configuration without redeploying agents?
What is the difference between monitoring and observability in network operations?
How does Uber handle alert noise and deduplication in their observability platform?
How does Uber use AIOps with their observability platform for faster incident resolution?
Why did Uber choose a cloud-native microservices architecture for their observability platform?
What cost savings did Uber achieve by migrating to open-source observability tools?
Key Statistics & Figures
Technologies & Tools
Some links below are affiliate links. We may earn a commission if you make a purchase.
Key Actionable Insights
1Implement dynamic configuration management for monitoring agents instead of relying on static configuration files. By connecting your monitoring agents to a centralized inventory service and using mechanisms like Last-Modified timestamp checks, agents can automatically adapt to infrastructure changes without manual edits or redeployments.This is especially critical for large-scale environments where devices are frequently added, removed, or reassigned across regions. Uber's approach uses ServiceNow as source of truth synced to Elasticsearch, with Telegraf agents polling for configuration updates.
2Build an intelligent alert ingestion layer that de-duplicates, groups, and enriches alerts before routing them to communication channels. Rather than forwarding every alert directly to Slack or PagerDuty, process alerts asynchronously to filter noise, correlate related events, and update existing notifications as alert states change.Alert fatigue is a major operational challenge. Uber uses FastAPI, Celery, and Redis for async alert processing, posting alerts once and editing them as states change rather than creating duplicate notifications.
3Deploy monitoring infrastructure globally with probes geographically close to the devices being monitored. This ensures accurate, low-latency measurements and avoids misleading data caused by network distance between monitoring systems and their targets.Uber deploys across USC, EMEA, and APAC regions, using regional parameters to filter which devices each Telegraf agent polls, enabling workload redistribution across regions.
4Centralize all alert data—both firing and resolved—into a searchable index to create a historical dataset that enables AIOps capabilities. This historical context allows AI engines to identify patterns, correlate incidents, and suggest root causes based on past behavior.Uber routes all alerts from Prometheus, MQTT sensors, and network APIs into a single Elasticsearch index, creating a continuous trail of operational awareness that engineers can query and that AI systems can analyze.
5Choose an open-source observability stack over proprietary monolithic monitoring tools to gain flexibility, avoid vendor lock-in, and eliminate significant licensing costs. Prioritize tools that handle specific functions well (collection, storage, visualization, search) rather than a single tool that does everything.Uber saved hundreds of thousands of dollars in recurring licensing fees by adopting Telegraf, Prometheus, Thanos, Grafana, Kibana, and Elasticsearch, while gaining better extensibility through API-driven integrations.
6Use tag-based filtering (region, site, device type) in your monitoring configuration to enable fine-grained control over what each collector monitors. This allows you to roll out new collectors or plugin changes globally without redeploying agents.Uber's Dynamic Config App uses URL parameters like /v1/snmp/cisco?region=EMEA to filter device polling assignments, enabling instant redistribution of workloads across their global infrastructure.