High-frequency Analytics Pipeline
Data EngineeringAdvancedData platformHigh-throughput analytics pipeline ingesting clickstream events via Kafka, processing in real-time with Flink, archiving with Spark to S3, and querying with ClickHouse for live dashboards.
Recommended for: Product teams running clickstream analytics
Scope Notes
Intended for Product teams running clickstream analytics at Advanced complexity and Data platform scope. Treat the graph as a starting shape rather than a fixed stack: keep the topology and the signals below, then swap providers to match your platform.
Review Checklist
Use Case
Product analytics, clickstream processing, real-time dashboards, data warehousing
Best Fit Scenarios
- High-volume clickstream ingestion
- Real-time plus historical rollups
- Sub-second dashboard queries
Stack Breakdown
Architecture Layers
Components by Category
frontend
backend
async
database
infra
Why This Topology Works
The collector normalises SDK and pixel traffic into Kafka, Flink aggregates in real time for dashboards, and Spark runs historical rollups into the lake and ClickHouse. ClickHouse serves sub-second analytical queries to Grafana.
Scaling Notes
Kafka partitions by event type, Flink holds the streaming aggregation, and Spark jobs scale with data volume. ClickHouse uses distributed tables for large-scale queries while S3 Data Lake keeps the raw archive.
Observability
Monitor Kafka consumer lag, Flink job health, Spark job SLA and ClickHouse query P99. Grafana dashboards are served from ClickHouse, so freshness problems surface as stale panels.
Typical Bottlenecks
- Kafka partition skew and consumer lag
- ClickHouse merge pressure on high-cardinality queries
- Collector ingest spikes from public SDKs
Async Flow and Reliability
Events are ingested and buffered asynchronously; real-time aggregation and batch rollups run as independent consumers. Nothing on the collection path waits for processing.
Upgrade Path
Add schema validation with a quarantine path right after the collector, authenticate and rate-limit the ingest endpoint, and archive Kafka to S3 before Spark reads it.