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Reference scenario - a composite build illustrating our method. Figures are modeled and the model is shown.

DevOps self-healing hive

Nightly incident volume absorbed by self-healing agents, with the on-call engineer paged only for what is genuinely new.

Cover art for a self-healing devops case study: a damaged comb cell being rebuilt overnight

REFERENCE SCENARIO · SAAS & TECHNOLOGY

Reference scenario - composite, not a named client. A composite build illustrating our method. Figures are modeled and the model is shown.

This self-healing devops case study is a reference scenario. No engineering team sits behind it. It shows how the runbook-shaped share of a night’s alerts can be absorbed by agents while the new ones still page a person, and how each figure here is calculated.

What this page is not

There is no client behind this page. Nobody has given us permission to publish their incident data, and incident data is among the last things a company wants published.

So this is a composite, declared as one. The alert classes are real categories. The volumes, the class mix and the minutes per page are inputs chosen to make the arithmetic visible, and not one is a measurement.

The situation this build answers

Alerts reach a person because a threshold was crossed, not because a decision is needed. Most of the time the response is already written down and the engineer is performing it, not choosing it.

At three in the morning that distinction matters more than at three in the afternoon. The cost of a page is not the fix. It is the sleep and the hour after it.

Where the time actually goes

  • The same handful of alert classes recur, and each is answered from scratch by whoever is awake.
  • Runbooks exist, and following one is manual labor performed by a tired person.
  • Diagnosis starts with gathering: logs, recent deploys, resource state, the last similar incident.
  • A quietly recurring fault is never counted, so it is never fixed.
  • Out-of-hours pages cost the following day as well as the night.

The hive, agent by agent

Self-Healing Infra Agent

Takes the alert first, gathers the evidence, matches it to a known class and applies the approved remediation. Then it verifies the symptom actually cleared.

Incident Response Agent

Owns anything that becomes an incident: the timeline, the comms draft, the affected surface, and the handover to whoever is paged.

The orchestrator

Decides whether an alert is a repair, an incident or a page, and enforces the attempt ceiling that stops a loop.

Nothing here is a silent fixer. Every remediation writes a record, and the recurrence count for each class is reported weekly. The services behind this build are self-healing infrastructure AI agents and, because a system like this is operated rather than delivered, managed AI agents.

What the agents may not do

Autonomy boundary

Agents may restart a service, clear a cache, scale within a stated ceiling, rotate a node and roll back a release whose gates passed. They may not run a migration, touch a secret, change a scaling policy or edit infrastructure code.

Attempt ceiling

Two failed remediations stop the agent and page a person. There is no third try.

Reversibility

Every automated action has a defined reversal, and an action without one is not in the playbook.

What stays human

Novel failures, anything touching data, customer comms during a live incident, and the decision that an incident is over.

Logging

Every observation, inference, action and verification is timestamped, which doubles as the post-incident timeline. Read our governance approach for how that is held.

How the build would run

PhaseTypicalWhat happens
Audit3-10 daysNinety days of alerts are classified to find the real runbook-shaped share and which classes recur.
Diagnose only2 weeksThe agent gathers evidence and proposes a remediation on every alert. It applies none.
Repair, class by class4-8 weeksClasses move to automated repair one at a time, each with its own kill switch and attempt ceiling.
ManagedongoingPlaybooks are maintained, the recurrence report is worked, and new classes are added on evidence.

How to read this self-healing devops case study

Every figure below is arithmetic on stated inputs. The multiplication is shown so the argument happens at the assumption, not at the conclusion.

InputAssumed value
Alerts reaching on-call640 per month
Out-of-hours share35%
Runbook-shaped share62%
Needs a human decision23%
Genuinely new15%
Engineer time per in-hours page35 minutes
Engineer time per out-of-hours page55 minutes
Daily read of the remediation log10 minutes, 22 working days

The modeled outcome, with the arithmetic

FigureThe arithmeticLabel
397 runbook-shaped alerts640 × 62%Modeled
243 still paging a person640 − 397 (147 decisions + 96 new)Modeled
224 out-of-hours pages today640 × 35%Modeled
85 out-of-hours pages after224 × 38%Modeled
448 h engineer time today(416 × 35 min) + (224 × 55 min) = 26,880 minModeled
~174 h engineer time after(158 × 35 min) + (85 × 55 min) + (22 × 10 min) = 10,425 minModeled
~274 h returned per month448 − 173.8Modeled
~61% less engineer time274.25 ÷ 448Modeled
100% of actions logged and reversibleDesign rule, not a rateTarget
2 remediation attempts, then a personDesign rule, not a rateTarget

What we would measure, and what we will not claim

We publish no outcome range for this build. No consented client result exists behind it, and we will not invent one to fill a template slot.

What we would change next time

Treat the recurrence report as the deliverable. An agent that repairs the same fault forty times is hiding a defect that a person would have escalated. We would call this build a success even if page volume held, provided those forty repairs became visible.

Fix the thresholds before automating the response. A meaningful share of any alert backlog is not a fault at all. Automating a reply to a bad alert makes the bad alert permanent.

The parts this build is made of

Self-healing infrastructure AI agents

Detection, diagnosis, approved repair and escalation.

Managed AI agents

Because playbooks, evals and ceilings need operating, not handing over.

Self-Healing Infra Agent

The repair loop and its ceiling.

Incident Response Agent

Timeline, comms draft and handover.

AI agents for SaaS and technology

Where else agents pay off in this sector.

Organization type
REFERENCE SCENARIO · SAAS & TECHNOLOGY
Rollout
Audit: 3-10 days · Diagnose only: 2 weeks · Repair, class by class: 4-8 weeks · Managed: ongoing

397` runbook-shaped alerts

397` runbook-shaped alerts

Modeled - 640 × 62% (Modeled)

243` still paging a person

243` still paging a person

Modeled - 640 − 397 (147 decisions + 96 new) (Modeled)

224` out-of-hours pages today

224` out-of-hours pages today

Modeled - 640 × 35% (Modeled)

85` out-of-hours pages after

85` out-of-hours pages after

Modeled - 224 × 38% (Modeled)

448 h` engineer time today

448 h` engineer time today

Modeled - (416 × 35 min) + (224 × 55 min) = 26,880 min (Modeled)

~174 h` engineer time after

~174 h` engineer time after

Modeled - (158 × 35 min) + (85 × 55 min) + (22 × 10 min) = 10,425 min (Modeled)

~274 h` returned per month

~274 h` returned per month

Modeled - 448 − 173.8 (Modeled)

~61%` less engineer time

~61%` less engineer time

Modeled - 274.25 ÷ 448 (Modeled)

100%` of actions logged and reversible

100%` of actions logged and reversible

Modeled - Design rule, not a rate (Target)

2` remediation attempts, then a person

2` remediation attempts, then a person

Modeled - Design rule, not a rate (Target)

Built with

  • Self-Healing Infra Agent
  • Incident Response Agent
  • The orchestrator

START SMALL, SCALE THE HIVE

One process. One agent. Thirty days.

Tell us the task that eats your team’s week. We’ll tell you - honestly - whether an agent should do it, what it would cost, and what you’d get back. No slide deck required.