Live NOC Intelligence · 2026

Your NOC runs on
coffee and chaos.
It doesn't have to.

Resolve wires production-grade machine learning into your existing observability stack — replacing 4 AM war rooms with models that predict outages 23 minutes before impact.

resolve-ops · unified-dashboard · production
● HEALTHYFeb 27 05:32 UTC
METRICS
MTTR
6m
47m
Alert Vol
12
847
False Pos
2%
68%
Incidents
1
34
TOPOLOGY MAP · REAL-TIME
AUTO-CORRELATED
ANOMALY DETECTION TIMELINE
NORMALANOMALY CLUSTERRESOLVED
AI INSIGHTS
PREDICTED

DB latency spike in ~18min

AUTO-CORR

Memory leak → 3 downstream alerts

RESOLVED

Auto-scaled k8s pods ×3

SUPPRESSED

834 duplicate alerts filtered

MEAN TIME TO RESOLVE
6m
was 47m
DATADOGSPLUNKPAGERDUTYGRAFANAAWS CLOUDWATCHNEW RELIC
◆ Industry Research · Gartner 2025

The alert storm is real.
The cost is measurable.

Enterprise IT teams waste 38% of engineering hours on false-positive alerts — alerts that fire, get acknowledged, and resolve without human intervention. That's not an operations problem. That's a model problem.

—%
Engineering hours wasted
on false-positive alerts annually
—M
Average annual cost
of unplanned downtime per enterprise
0min
Earlier prediction
before outage impact with ML models
0%
Alert noise reduction
median across Resolve engagements
1 Gartner IT Operations Survey 2025, n=847 enterprise respondents · 2 IDC Downtime Cost Analysis 2024 · 3,4 Resolve client aggregate data, 2023–2025, anonymized
◆ Competitive Analysis · Feb 2026

The verdict is
already obvious.

Twelve dimensions. Three approaches. One clear winner — with the data to prove it.

Dimension
Traditional Monitoring
Datadog / Splunk / Nagios
DIY ML Pipelines
Internal data science team
Managed AIOps
Resolve
Performance
Alert noise reductionKEY
5–15%
20–40%
85–93%
Mean time to resolve (MTTR)KEY
42–68 min
25–40 min
4–9 min
False-positive rateKEY
55–72%
35–50%
2–8%
Predictive detection (pre-impact)
✕
◑ Partial
✓
Operations
Integration time
2–4 weeks
3–9 months
2–4 weeks
FTE cost to maintain
1–2 FTE
3–5 FTE
0 FTE
Model drift handling
✕
Manual
✓
On-call burden reduction
✕
◑ Partial
✓
Technology
Multi-stack correlation
✕
◑ Partial
✓
Root cause isolation
✕
◑ Partial
✓
Business
Time to first value
3–6 months
6–18 months
< 30 days
Annual ROI (typical)
0.8×
1.2–1.8×
4.1–7.3×
Free · 3 questions · Instant benchmark
◆ Anonymized Case Studies · 2024

Results that hold up
under scrutiny.

Two engagements. Both anonymized per NDA. Both with data you can take to your board.

Mid-Market SaaS · Series C
Cloud Infrastructure · 380 engineers · 12 NOC staff
CS-2024-017

Challenge: NOC team receiving 1,200+ daily PagerDuty alerts — 68% false positives. Engineers averaging 2.4 hours of on-call interruption per night. MTTR of 52 minutes was delaying customer SLA commitments.

Before → After
Daily Alerts
1,24789
−93%
MTTR
52 min7 min
−87%
False Positives
68%4%
−94%
On-Call Hours
2.4 hr/night0.3 hr/night
−88%
"The first week after go-live, our on-call engineer slept through the night for the first time in 18 months."
— VP Infrastructure, anonymized
Enterprise SaaS · Public
Fintech / Payments · 1,200 engineers · 28 NOC staff
CS-2024-031

Challenge: Legacy Splunk + Grafana stack generating 4,800 daily alerts across 6 microservices clusters. Board-level pressure after two P1 incidents in Q3. CTO needed a defensible observability roadmap.

Before → After
Daily Alerts
4,812234
−95%
P1 Incidents
8/quarter1/quarter
−88%
MTTR
71 min9 min
−87%
Eng. Hours Saved
—340 hr/mo
+340 hr
"We went from a board conversation about downtime to a board conversation about competitive advantage."
— CTO, anonymized
◆ Engagement Methodology

From chaos to clarity
in 30 days.

A repeatable four-phase process. No black boxes. No 18-month roadmaps. First model in production by day 35.

01

Discovery

Week 1–2

Audit your existing observability stack, alert taxonomy, and incident history. We map signal-to-noise ratios across every integration and identify the top 5 alert categories generating 80% of on-call burden.

→Stack Assessment Report
02

Instrumentation

Week 2–3

Deploy lightweight telemetry collectors and establish baseline data pipelines. No rip-and-replace — we wire into your existing Datadog, Splunk, or Grafana without disrupting production.

→Data Pipeline Live
03

Model Training

Week 3–5

Train anomaly detection and correlation models on your historical incident data. Minimum 90-day lookback. Models are validated against held-out incidents before any production exposure.

→Validated ML Models
04

Feedback Loop

Ongoing

Automated model drift monitoring, weekly precision/recall reports, and quarterly retraining cycles. Your on-call team's acknowledgment patterns continuously improve model accuracy.

→Continuous Improvement
TYPICAL ENGAGEMENT TIMELINE
First model in production: Day 35
vs. 6–18 months for DIY ML pipelines
6–18mo
DIY ML
vs
35 days
Resolve
Limited availability · Q1 2026

Your next 4 AM page
doesn't have to happen.

Take the 3-question readiness assessment. We'll benchmark your current stack against 400+ enterprise deployments and show you exactly where your signal-to-noise ratio breaks down.

No sales call required · Results in 24 hours · Benchmarked against your industry cohort