Security outcomes

Autonomous security: production data from Autonomous SOCs

Automation speeds up work. It does not remove the decision burden. Autonomous security does.

These aren't isolated improvements

They're structural effects of a different execution model.

MTTR
20 secs

instead of 6 minutes

Autonomous Actions
~90%

executed without human intervention

Analyst Hours Removed
~150 hrs

per day from investigation and triage

Security ROI
~7X

return on autonomous SOC operations

Why this matters
CISOs

CISOs

Risk posture becomes predictable. Response speed stops depending on shift schedules and approval chains.

CFOs

CFOs

Security costs flatten. Volume no longer drives headcount.

SOC Directors

SOC Directors

Team focuses on strategy. The system handles volume. Analyst burnout drops.

The four outcomes of
switching to Sirp

Response speed becomes structural

New product

To be clear: 6-minute MTTR is excellent. These were mature SOCs with optimized workflows. The 18× improvement came from removing the execution queue entirely.

With Sirp, decision and execution happen in the same step. Containment windows for ransomware and lateral movement are measured in minutes. When your MTTR is 20 seconds, you're inside the window.

Response speed: Human SOC vs Autonomous SOC
Real Deployments

Real deployments

+
Global Fintech SOC
120K alerts/day4 regionsHighly regulated
Before Sirp

11 analysts, approval gates, 4–6 hour case age

After Sirp

2 analysts (oversight), <30 second case age, <5% human review

Results

7× cost reduction, zero audit findings, more thorough compliance documentation

The unexpected

"Audit trail improved. Automated logging is more complete than manual documentation."

+
SaaS Infrastructure Company
Cloud-nativeHigh analyst turnoverAlert fatigue
Before Sirp

Tiered L1→L2→L3 escalation model

After Sirp

System-first resolution, single oversight team

Results

92% autonomous actions, zero routine escalations, team stayed intact

The moment

"We ran parallel for 30 days. The autonomous system caught 3 incidents the human team missed due to the queue backlog. That ended the debate."

Why these metrics move
together

This isn't five separate improvements. It's one architectural change.

Traditional SOC

Decisions happen in meetings and tickets. Execution waits for humans. Speed is limited by availability. Cost scales with volume.

Autonomous SOC

Decisions happen in-system. Execution happens at decision time. Speed is limited by compute. Cost is decoupled from volume.

The key difference: decision placement

Workflow automation makes humans faster. Autonomous execution removes humans from the execution path entirely. That's why the outcomes cascade.

What the system doesn't handle

The system escalates when:

  • Confidence falls below policy threshold
  • Attack pattern is novel or outside training data
  • Context requires business knowledge
  • Multiple conflicting signals with ambiguous risk

Escalation rate: 5–10% of investigations

False positive rate: <2%

Humans handle ambiguity and strategy. The system handles volume and routine execution.

SIRP platform — autonomously triaged alerts

How we measured this:

3 enterprise SOCs

Fintech, SaaS, and healthcare.

90-day window

90-day window post-stabilization (excludes tuning and pilots).

Millions of alerts

Millions of alerts across EDR, cloud, identity, SaaS, endpoint.

Full chain measured

Detection → triage → decision → containment

Excluded: Test incidents, training data, simulations, deployment phase, cases requiring human judgment

What this means for your SOC

If your SOC depends on human availability, tickets, and shift coverage, your performance is capped by how fast analysts work and how many you can hire.

When decisions are policy-bound and system-executed, response speed becomes predictable, cost becomes flat, quality becomes consistent, and scale becomes an infrastructure question.

The operating model changes. The outcomes follow.

Autonomous security isn't theoretical.

The question isn't whether autonomous SOCs work. The question is whether your current model can keep up.