Live Dashboards
Configurable panels showing throughput, latency, error rates, and custom metrics in real time.
Follow pipeline health, data quality, and operational cost in context. Move from an alert to the workflow behind it.
Configurable panels showing throughput, latency, error rates, and custom metrics in real time.
Threshold-based and ML-powered anomaly alerts delivered via Slack, PagerDuty, or any webhook endpoint.
Replay any past time window with full fidelity to diagnose incidents and validate fixes before redeployment.
Static thresholds are wrong twice: they fire on normal seasonal peaks and stay silent through a slow degradation. The engine learns each signal's expected range from its own history, so an alert means genuinely unusual rather than merely large.
Signals are emitted by the engine as work executes, so coverage does not depend on anyone remembering to instrument a new pipeline.
Freshness, volume, schema, latency, and error signals are emitted for every table and task without manual instrumentation.
Each signal's normal range is learned from its own history, including weekday, month-end, and seasonal shape.
Deviations raise alerts enriched with lineage, so the notification names both the failing task and everything downstream.
Reconstruct any past interval at full fidelity to confirm a root cause and validate a fix before redeploying it.
Most data incidents are freshness, volume, or schema problems noticed too late. These are watched by default.
Every table carries an expected update cadence; a late arrival alerts before a dashboard silently serves yesterday.
Row counts compared against learned seasonality, catching partial loads that a row-count-greater-than-zero check would pass.
Null rates, cardinality, and value distributions tracked per column to catch upstream changes that do not break the schema.
An alert names every downstream dashboard, model, and report affected, so triage starts with known impact.
One upstream failure produces one incident rather than forty alerts from every dependant table.
Thirteen months of retention at one-second resolution, so post-incident review works on data rather than recollection.
Observability pays off in the minutes between something breaking and someone noticing.
Lineage-aware deduplication collapses a cascade of downstream failures into a single incident pointing at the actual cause.
Triage starts at the root, not the symptom.
Volume and distribution checks run on the pipeline, so a half-loaded partition fails the gate instead of reaching the warehouse.
Bad data stopped upstream of every consumer.
Every dashboard shows the freshness and health of the tables behind it, so a stale figure is visible rather than assumed current.
Confidence stated on the dashboard itself.
Bolt-on monitoring can only observe what it was configured to look at, which is never the thing that breaks.
| Dimension | Before Genedata | With Genedata |
|---|---|---|
| Coverage | Only the pipelines someone instrumented | Every table and task, emitted automatically |
| Thresholds | Static limits that misfire on seasonality | Learned baselines per signal |
| Detection point | A stakeholder notices a wrong number | The failing task alerts before publication |
| Alert volume | One failure produces dozens of alerts | Deduplicated into a single lineage-aware incident |
| Post-incident review | Reconstructed from partial logs and memory | Full-fidelity replay of the exact window |
The observability layer gives your team complete situational awareness across every pipeline, service, and data stream in your stack — with lineage attached, so an alert tells you what is downstream as well as what broke.
What platform and data teams ask about catching problems before users do.
Freshness, volume, schema, latency, and error signals are emitted for every table and task automatically. Coverage does not depend on anyone remembering to instrument a new pipeline, which is exactly where bolt-on monitoring fails.
Static thresholds are wrong twice: they fire on normal seasonal peaks and stay silent through a slow degradation. Each signal's expected range is learned from its own history, including weekday, month-end, and seasonal shape.
Alerts are deduplicated using lineage, so one upstream failure produces a single incident naming the root cause rather than forty alerts from every dependant table.
Yes. Thirteen months of retention at one-second resolution means post-incident review works on data rather than recollection, and a fix can be validated against the exact window that broke.
No. This is data observability — the health of tables and pipelines — rather than application performance monitoring. Alerts route to Slack, PagerDuty, or any webhook, so they land alongside your existing operational tooling.
Every emitted signal, what it detects, and how baselines are learned.
RunbookWorking from a lineage-aware alert to a root cause.
GuideAssertions that halt publication instead of alerting after it.
StatusLive health and incident history across every region.
Watch a volume anomaly surface, route, and resolve with lineage attached — or start with the signal reference.