4,287 events an hour.
12 incidents.

Deduplication, rules and cross-source correlation collapse the alert storm into a handful
of real incidents — each mapped to the service it affects, with the events that formed it
still attached.

◎AIOps live
⌕
PIPELINE · LAST 1H~71 ev/incident
EVENTS4,287 → DEDUP80.03% → ALERTS856 → RULES4 firing → INCIDENTS1299.72%
datadogpagerdutyk8scert
OPEN 4ACK 1RESOLVED 24H 14 rules firing
ACTIVITY 74 · alerts 53 · conditions 16 · new 5
INCIDENTSgrouped from the stream above
EVENT PIPELINE & DEDUPLICATION

Four stages between noise and
signal.

Nothing is thrown away — every raw event is kept and attached to the incident it
belongs to. What changes is how many things a human has to look at.
01 · RAW EVENTS
4,287
Everything arriving from every source in the last hour — metrics, logs, pages, cert checks.
02 · AFTER DEDUP
856
80.03% removed. The same failure reported ten times by four tools becomes one
alert.
03 · AFTER RULES
61
Four rules firing suppression windows, maintenance, severity thresholds and known-noise filters.
04 · INCIDENTS
12
Correlated across sources and mapped to a service. 99.72% reduction, ~71 events each.
CROSS-SOURCE SIGNAL CORRELATION
One failure, four tools shouting.
A DB pool exhaustion shows up as a Datadog error, a PagerDuty page, a Kubernetes restart and a latency warning. Those aren’t four problems — and correlation is what proves it.

1

Fingerprint matching
Identical events from the same source collapse instantly — that’s the 80% dedup.

2

Temporal & topological links
Events close in time on related entities group even when the wording differs.

3

Cross-source joins
A Datadog metric and a PagerDuty page about the same service become one incident.

4

Evidence preserved
Every contributing event stays attached, so the RCA writes itself.
inc_01XY9M2X · checkout-api14 events · 4 sources
datadog · DB connection pool exhausted (max=10)×6
pagerduty · Page on-call: web-prod-3×2
k8s · checkout-api pod restart ×3×3
datadog · p95 latency on db-main-1 > 800ms×3
Root cause · connection pool exhaustion

A long-running report query held 8 of 10 pool slots from 14:00. Pod restarts and the on-call page are downstream effects, not separate faults. Mapped to service checkout-api.

INCIDENT → SERVICE MAP12 open
checkout-api14 ev · OPEN
payments7 ev · OPEN
web-prod-34 ev · OPEN
cert-renewer3 ev · ACK
Why service mapping matters

An incident attached to checkout-api routes to the team that owns it, inherits its SLA, and shows business impact immediately. An incident attached to a hostname does none of that.

SMART TRIAGE & TIME WINDOWS
Slice it however you’re working.
Filter by status, severity, host or source, and move the window from 15 minutes to 24 hours — the pipeline recalculates against exactly what you’re looking at.

1

Status & severity filters
Open, acknowledged, resolved; critical, warning, info — with live counts on every chip.

2

Time-windowed views
15m for an unfolding incident, 24h for the pattern behind it.

3

Host and source scoping
Narrow to one noisy source to see whether it’s the tool or the system.

4

Incident-to-service mapping
Every incident carries the service it affects, not just the box it happened on.
CAPABILITIES
What the AIOps engine does.
⇥
Event pipeline & dedup
Four stages from raw event to incident, with 80%+ removed at the dedup stage alone.
⚙
Rules-based processing
Suppression windows, maintenance calendars, thresholds and known-noise filters.
◉
Live activity stream
Every event as it lands, tagged deduped, grouped or new in real
time.
⏱
Time-windowed views
15m, 1h, 6h and 24h — the whole pipeline recalculates per window.
⇄
Cross-source correlation
Datadog, PagerDuty, Kubernetes and cert checks joined into single incidents.
◈
Incident grouping & RCA
Contributing events stay attached, so root cause is evidenced rather than asserted.
▲
Smart triage & filtering
Status, severity, host and source filters with live counts.
🔗
Incident-to-service mapping
Each incident tied to the service it affects, for routing, SLA and impact.
▤
Nothing discarded
Raw events are retained and queryable, even after they’re collapsed.
WHY IT MATTERS
Alert fatigue is a reliability risk.
When on-call sees 4,287 events an hour, the real one gets missed — not through
carelessness, but because no human triages at that rate.
WHAT ON-CALL SEES
4,287 events
12 incidents
99.72% reduction, with every raw event still attached.
DUPLICATE NOISE
80% of the stream
collapsed
The same failure reported by four tools becomes one.
TIME TO ROOT CAUSE
correlate by hand
already grouped
Contributing events arrive pre-assembled as evidence.
ROUTING
by hostname
by service
Straight to the owning team with the right SLA.
👤
For the on-call engineer
DAY TO DAY
✓
A page you can trust
Twelve incidents an hour is a workload. Four thousand events is background radiation you learn to ignore.
✓
Evidence arrives with the incident
The fourteen events that formed it are attached — no hunting across four tools.
✓
Rewind the window
Flip to 24h to see whether tonight’s alert has been building
all week.
✓
Nothing is lost
Deduped doesn’t mean deleted — the raw stream is still there when you need it.
◈
For the organization
ON THE BALANCE SHEET
✓
Missed-signal risk falls
The most expensive outages are the ones where the alert fired and nobody could see it.
✓
Smaller on-call rotations
Twelve real incidents an hour is coverable by a team you can actually staff.
✓
Service-level accountability
Incidents mapped to services make ownership and SLA reporting real.
✓
Keep your existing tools
Datadog, PagerDuty and the rest keep running — this correlates across them.
Console figures are illustrative and stream as a demo. Reduction ratios depend on your sources and rule set.
Get started
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© 2026 – 2027 LumiOps.AI. All rights reserved.

© 2026 – 2027 LumiOps.AI. All rights reserved.