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